ZunZun.com Online Curve Fitting and Surface Fitting


Powered by Ubuntu Linux	Written in Python	Using the Django Web Framework


Plotted by Matplotlib	PDF Generation by Report Lab	ZunZun.com's Google discussion group

August 2010	Joshua Eckhardt Found a typographical error in the HTML output for the exponential extended versions of equations.
August 2010	mart.ing Found a typographical error in the Python source code output for User Defined Functions 2D.
July 2010	Nate Kaemingk Senior Powertrain Systems Engineer Aftertreatment Systems Specialist PACCAR Technical Center Found several different typographical errors in the automatically generated source code output. Found incorrect MATLAB and SCILAB use of the power() function in the source code output of several equations.
June 2010	Petar Knezevich Found a problem generating SCILAB source code for the extended versions of equations.
June 2010	Steve Battison United Kingdom Suggested the Generalised Logistic 2D equation.
June 2010	Stephen Kemp Assistant Development Engineer Cooling the Tube Programme Engineering Directorate London Underground Ltd Found a problem in generating the extended version of some equations.
June 2010	Stephen Kemp Assistant Development Engineer Cooling the Tube Programme Engineering Directorate London Underground Ltd Gave what I consider to be rather impressive technical advice in regard to using the site source code on non-Unix operating systems.
June 2010	Gabrielle Found a typographical error in the 2D Membrane Transport equation's HTML.
April 2010	Grégoire Vandenschrick Group Geologist Carmeuse Coordination Center Found a transcription error in the 3D spline example.
April 2010	Peter Klausmeyer Found a rare error in the Function Finders and was very generous with his time and data in testing.
March 2010	Steve Battison United Kingdom Motivated me to finally add 2D User Defined Functions, and was exceptionally generous with his time and data in testing.
March 2010	Ivan Saltz Fort Lauderdale, Florida, USA Found an error in the 2D Rational source code output.
March 2010	Ravikumar Kopparapu Institute for Gravitational Physics and Geometry Pennsylvania State University Found a need for additional error detection.
March 2010	Wen-Wei Liao Systems Neuroscience Student National Tsing Hua University Hsinchu, Taiwan Found an error in the source code output for the 2D Gaussian Peak equations.
February 2010	Edwin de Koning Found a need for additional error detection.
February 2010	David Turner The Open Planning Project Found problems in the C++ and Java source code output for 3D Splines.
February 2010	Aaron Teitlebaum Plastic Technologies, Inc. Found a problem in the calculation of several 2D Inverse Logarithmic equations.
February 2010	Vincent Fedele Found a problem generating VRML for large data sets and generously assisted in troubleshooting.
January 2010	Mike Eaton Houston, Texas USA Found a design flaw where large data sets would cause the function finders to time out.
January 2010	Luis Delgado Barcelona, Spain Found and very generously helped test a coding error in the reuse of cached data for fitting. Mr. Delgado receives special honor as the first person to ever send in actual Python source code that I could use in troubleshooting a problem.
January 2010	Ruggero Bini Trento, Italia Found and generously helped test a coding error in the generation of cache data for fitting.
October 2009	Ning Zhou Post Doctoral Researcher Ohio State University College of Engineering, Materials Science MacQuigg Laboratory Suggested the weighted fitting option.
October 2009	Elizabeth Cates Invenca Suggested the VanDeemter Chromatography 2D equation.
September 2009	Steve Battison United Kingdom Suggested the Steve Battison Exponential 2D equation.
September 2009	Andrea Prunotto University of Zurich Zurich, Switzerland Suggested option to hold coefficient values constant during fitting.
September 2009	Jeroen Demeyer University of Ghent Flanders, Belgium Suggested option for logarithmic plots of data.
August 2009	Paul Mabus New Zealand Found an error in the Asymptotic Exponential B 2D equation.
August 2009	William Hutchins Senior Technical Lead Attitude Control Systems Propulsion Group, Orbital Sciences Corporation Suggested 2D and 3D spline curves and surfaces.
July 2009	Joe Olmi Research Consultant and Contractor Harrow, United Kingdom Suggested new optical equations in the 2D Engineering category.
July 2009	Andrea Prunotto University of Zurich Zurich, Switzerland Suggested two new 3D Sigmoidal equations.
July 2009	F. Michael Lewis Consultant, Mechanical Process & Design City of Los Angeles, Bureau of Engineering Environmental Engineering Div. Suggested the Witch Of Agnesi 2D Miscellaneous equations.
July 2009	Toby Barrus Myriad Genetics Suggested two new 2D BioScience Logistic equations.
July 2009	F. Michael Lewis Consultant, Mechanical Process & Design City of Los Angeles, Bureau of Engineering Environmental Engineering Div. Suggested a large number of new 2D equations.
July 2009	Marc Plante Suggested the Marc Plante's Custom Quadratic 2D equation.
May 2009	Ed Patterson Found a problem where the function finders were 'locking up' on large numbers, and generously forwarded a data set to help in reproducing the problem for troubleshooting.
April 2009	Steve Pawson, PhD University of Canterbury Christchurch, New Zealand Suggested the New Zealand Ecology Logistic 1 and 2 equations.
April 2009	James McLaughlin Consulting Engineer Allentown, PA USA Suggested the Steinhart-Hart and Inverted Steinhart-Hart 2D Engineering equations.
April 2009	Graham Dumpleton Dumpleton Software Consulting Pty Limited http://www.dscpl.com.au/ Sydney, Australia Showed me how to speed up the site page loads while using less memory. My sincere thanks for your help, Graham.
February 2009	Cécile Thonar, PhD Student Plant Nutrition Group ETH Zurich D-AGRL Institute of Plant Sciences Switzerland Found an error in some of the 3D Logarithmic Polynomials.
January 2009	Steve Hutcheon Brisbane, Australia Found errors in the extended forms of some equations.
January 2009	Steve Hutcheon Brisbane, Australia Found errors in the HTML generation for Optical 3D equations.
November 2008	Ian Cowie Senior Botanist Dept. of Natural Resources, Environment, The Arts and Sport Palmerston NT, Australia Suggested nearly the entire 2D BioScience category and its associated equations, with reference from the literature.
November 2008	James McLaughlin Consulting Engineer Allentown, PA USA and Douglass S. Darrow Princeton Plasma Physics Laboratory Princeton, NJ USA Suggested the Double Langmuir Probe Characteristic 2D equation.
September 2008	Pedro Rodriguez Ramos Abengoa Seville, Spain Found an error in the calculations of the new forms of equations.
July 2008	José G. Ramírez, Ph.D. Electronic Products Division W.L. Gore & Associates, Inc. Suggested fitting to the AIC and BIC fit statistics.
July 2008	Jens Verwaest Found an error in the function finder comma conversion.
July 2008	José G. Ramírez, Ph.D. Electronic Products Division W.L. Gore & Associates, Inc. Suggested the Root Mean Squared Error (RMSE) fit statistic.
July 2008	Marc Kessels Found an error in in the SCILAB and MATLAB code generated by some of the 3D Polynomials.
May 2008	Dr. Rainer Froese Leibniz-Institut fur Meereswissenschaften Kiel, Germany www.fishbase.org http://filaman.uni-kiel.de/ifm-geomar/rfroese/ Suggested the von Bertalanffy growth curve equation.
May 2008	F. Michael Lewis Consultant, Mechanical Process & Design City of Los Angeles, Bureau of Engineering Environmental Engineering Div. Discovered that the new site code was over-ranging on very large numbers, which was quite serious, and generously assisted in correcting the problem.
May 2008	James McLaughlin Consulting Engineer Allentown, PA USA Discovered a function-finder related problem fitting nonlinear equations and generously assisted in correcting the problem.
May 2008	Professor Nagalla Sudhakar Department of Computer Science and Engineering Bapatla Engineering College Andhra Pradesh, India Discovered an error in the (new) offset forms of equations and generously assisted in correcting the problem. Thank you again for your help, Professor Sudhakar.
May 2008	Rick Becker Transonic Combustion Discovered an error in the VRML generation.
May 2008	James McLaughlin Consulting Engineer Allentown, PA USA Discovered an error in the newly integrated site code and generously assisted in correcting the problem.
April 2008	Andrea Raviglione Discovered extraneous semicolons in the SCILAB and MATLAB source code output for several equations.
March 2008	Dan Barton Discovered a coding error in NIST Eckerle4 - Thanks, Dan!
February 2008	Michal Szymanski Warsaw University Observatory Warszawa, POLAND Suggested 3D Full Polynomials.
April 2007	Don Gillies San Diego, Ca USA Discovered a bug where several offset forms of equations had typographical errors in the SCILAB and MATLAB output code.
April 2007	Dr. Manuel L. Quiroga Teixeiro Gridcore AB Sweden Discovered and generously assisted in testing the fix for a typo that invalidated the Standard Vapor Pressure results.
April 2007	Gary Cler Colorado, USA Suggested Gary Cler's Custom Equation.
December 2006	John Reilly Barron Associates, Inc. Discovered and generously assisted in testing the fix for MATLAB code element-wise multiplication and comment designator.
November 2006	Dave W. Editor and administrator Skeptic Friends Network Suggested adding Simple Exponential equation.
November 2006	James A. Bowery Suggested adding Offset Exponential equation.
November 2006	Steve Hutcheon Brisbane, Australia Suggested adding Standard Error of the Mean to statistics.
November 2006	Steve Hutcheon Brisbane, Australia Found errors in the site histogram calculations.
June 2006	Fraser W. Smith Postdoctoral Research Assistant Department of Psychology University of Glasgow Suggested Fraser Smith 3D Sigmoid equations.
June 2006	jinydu Sophomore, UCLA Suggested Sine A [radians] With Exponential Decay equation.
June 2006	Andrea Li, Ph. D. State University of New York College of Optometry Corrected the new MATLAB code output.
May 2006	Alexander Rosemann University of British Columbia Suggested MATLAB code output.
May 2006	Douglas C. Eberle Southwest Research Institute San Antonio, Texas USA Corrected the SCILAB source code output.
May 2006	Steve Hutcheon Brisbane, Australia Found typographical errors in the Lorentzian Peak equations.
May 2006	Steve Hutcheon Brisbane, Australia Found scaling bug in data graphs.
May 2006	Ben Shipway Found typographical errors in Sigmoid 3D source code.
May 2006	Darren W. Wade Lockheed Martin Found a typographical error in Taylor 3D series C# source code.
April 2006	Liping Zheng Suggested "Liping Zheng's core loss coefficients" equation.
April 2006	Hank Poellnitz Birmingham, Alabama USA Suggested user control to turn scientific notation on and off.
April 2006	Don Parker Gave major assistance pinning down and testing the fix for the function finders giving "no session data" errors.
February 2006	Steve Hutcheon Brisbane, Australia Suggested Sine D and Sine D with Offset equations.
January 2006	Karl Skinner Siemens Suggested conversion of 2D polynomial evaluations to the numerically more efficient Horner, or nested, form.
December 2005	David Zaks University of Wisconsin - Madison Madison, Wisconsin USA Discovered and generously assisted in testing the fix for occasional blank pages when fitting.
December 2005	Steve Hutcheon Brisbane, Australia Suggested adding fitting target result to individual fitting result pages (under Coefficients - James).
August 2005	Steve Hutcheon Brisbane, Australia Found that the function finders did not report errors correctly.
August 2005	Steve Hutcheon Brisbane, Australia Found an error when fitting a data set with a zero to the smallest peak absolute value of error.
June 2005	A. A. Yazdani Suggested Ramberg-Osgood equation.
June 2005	Fei Yu Complex Carbohydrate Research Center University of Georgia Athens, Georgia USA Suggested new 2D Trigonometric equations.
June 2005	David Zaks University of Wisconsin - Madison Madison, Wisconsin USA Suggested 3D Sigmoidal equation.
April 2005	Tore Opsahl London, England Suggested Power Law With Exponential Cutoff equation.
January 2005	Keith Coombe Australia Suggested SCILAB code generation.
December 2004	Chris United Kingdom Corrected calculation of lowest sum of squared relative error.
December 2004	Venkat Venkataramani San Francisco, USA Suggested options for absolute graph scaling.
December 2004	Zainal Kadir University of Manchester, UK Suggested addition of the Weibull CDF and PDF equations.
October 2004	Klaus Lamprecht University of Erlangen-Nuremberg Suggested addition of the Hocket-Sherby exponential equation.
September 2004	Gordon Ingram University of Queensland Brisbane, Australia Found an error in the site implentation of the NIST MGH17 equation.
September 2004	Steve Hutcheon Brisbane, Australia Found that the new code did not display two data graphs. Found an error in the site's statistics module.
Late July 2004	Jing-Fang Pan and Yiew-Wang Lee DSO National Laboratories Singapore Used the site for their paper Crystal density prediction for cyclic and cage compounds, Phys. Chem. Chem. Phys., 2004, 6 (3), 471 - 473 and gave the site a reference in the paper. Thank you.!
Early July 2004	Steve Hutcheon Brisbane, Australia Suggested and generously assisted in testing the option for fitting to the smallest peak absolute value of error.
May 2004	Gokhan Tolun Ph.D. candidate in Molecular Biology and Biochemistry Found a typo in the display of Lorentzian Peak equations, and gave several references to biochemical and enzyme kinetic equations.
July 2003	Naser Zamanan Kuwait Found a problem where the site did not show sufficient digits of precision for fitted coefficients.
July 2003	Carl Witthoft Suggested addition of trigonometric functions, and generously assisted in both testing and troubleshooting the new functions.
January 2003	Kazbek Karayev Suggested addition of model extrapolation control. Cool!
August-September 2002	Kieran Maher Australia Inspired C++, Java and Python source code for the fitted function with fitted coefficients already in place. Personal Note: Bloody brilliant idea, mate!
July 2002	Roxanne Byrne Associate Professor Mathematics University of Colorado at Denver and Michael Bonomo Student in Algebra for Business and Social Sciences University of Colorado at Denver discovered and generously assisted in fixing the 2D Logistics equation bug. Many thanks!

April 2006	Don Parker Add Discrete Fourier Transforms (basically FFTs).
June 13, 2005	Art Blair University of Wisconsin - Madison Madison, Wisconsin USA Enable data file uploads.

Dispersion Optical 2D		n²(x) = A1 + A2*x² + A3/x² + A4/x⁴
Dispersion Optical Square Root 2D		n = (A1 + A2*x² + A3/x² + A4/x⁴)^0.5
Extended Steinhart-Hart 2D		1/T = A + Bln(R) + C(ln(R))² + D(ln(R))³
Ramberg-Osgood 2D		y = (Stress / Young's Modulus) + (Stress / K)^(1.0 / n)
Reciprocal Extended Steinhart-Hart 2D		T = 1.0 / (A + Bln(R) + C(ln(R))² + D(ln(R))³)
Reciprocal Steinhart-Hart 2D		T = 1.0 / (A + Bln(R) + C(ln(R))³)
Sellmeier Optical 2D		n²(x) = 1 + (B1 x²)/(x²-C1) + (B2 x²)/(x²-C2) + (B3 x²)/(x²-C3)
Sellmeier Optical Square Root 2D		n = (1 + (B1 x²)/(x²-C1) + (B2 x²)/(x²-C2) + (B3 x²)/(x²-C3))^0.5
Steinhart-Hart 2D		1/T = A + Bln(R) + C(ln(R))³
VanDeemter Chromatography 2D		y = a + b/x + cx



Ramberg-Osgood With Offset 2D		y = (Stress / Young's Modulus) + (Stress / K)^(1.0 / n) + Offset

Asymptotic Exponential A 2D		y = 1.0 - a^x
Asymptotic Exponential A Transform 2D		y = 1.0 - a^{bx + c}
Asymptotic Exponential B 2D		y = a * (1.0 - e^bx)
Double Exponential 2D		y = a * e^bx + c * e^dx
Exponential 2D		y = a * e^bx
Hocket-Sherby 2D		y = b - (b-a) * e^{(-c * (x^d))}
Hoerl 2D		y = x^a * e^x
Hoerl Transform 2D		y = (bx + c)^a * e^{bx + c}
Inverted Exponential 2D		y = a * e^b/x
Inverted Offset Exponential 2D		y = a * e^b/(x+c)
Offset Exponential 2D		y = a * e^{bx + c}
Shifted Exponential 2D		y = a * e^{x + b}
Simple Exponential 2D		y = a^x
Simple Scaled Exponential 2D		y = a * e^x
Steve Battison Exponential A 2D		y = e^{(a + bx) / (c + dx)}
Steve Battison Exponential B 2D		y = a * e^{(b + cx) / (d + ex)}
Stirling 2D		y = a * (e^bx - 1) / b
Triple Exponential 2D		y = a * e^bx + c * e^dx + e * e^fx
Standard Vapor Pressure 2D		y = e^{(a + (b/x) + c*ln(x))}



Asymptotic Exponential A With Offset 2D		y = 1.0 - a^x + Offset
Asymptotic Exponential A Transform With Offset 2D		y = 1.0 - a^{bx + c} + Offset
Asymptotic Exponential B With Offset 2D		y = a * (1.0 - e^bx) + Offset
Double Exponential With Offset 2D		y = a * e^bx + c * e^dx + Offset
Exponential With Offset 2D		y = a * e^bx + Offset
Hoerl With Offset 2D		y = x^a * e^x + Offset
Hoerl Transform With Offset 2D		y = (bx + c)^a * e^{bx + c} + Offset
Inverted Exponential With Offset 2D		y = a * e^b/x + Offset
Inverted Offset Exponential With Offset 2D		y = a * e^b/(x+c) + Offset
Offset Exponential With Offset 2D		y = a * e^{bx + c} + Offset
Shifted Exponential With Offset 2D		y = a * e^{x + b} + Offset
Simple Exponential With Offset 2D		y = a^x + Offset
Simple Scaled Exponential With Offset 2D		y = a * e^x + Offset
Steve Battison Exponential A With Offset 2D		y = e^{(a + bx) / (c + dx)} + Offset
Steve Battison Exponential B With Offset 2D		y = a * e^{(b + cx) / (d + ex)} + Offset
Stirling With Offset 2D		y = a * (e^bx - 1) / b + Offset
Triple Exponential With Offset 2D		y = a * e^bx + c * e^dx + e * e^fx + Offset
Standard Vapor Pressure With Offset 2D		y = e^{(a + (b/x) + c*ln(x))} + Offset



Inverse Asymptotic Exponential A 2D		y = x / ( 1.0 - a^x)
Inverse Asymptotic Exponential A Transform 2D		y = x / ( 1.0 - a^{bx + c})
Inverse Asymptotic Exponential B 2D		y = x / ( a * (1.0 - e^bx))
Inverse Double Exponential 2D		y = x / ( a * e^bx + c * e^dx)
Inverse Exponential 2D		y = x / ( a * e^bx)
Inverse Hocket-Sherby 2D		y = x / ( b - (b-a) * e^{(-c * (x^d))})
Inverse Inverted Exponential 2D		y = x / ( a * e^b/x)
Inverse Inverted Offset Exponential 2D		y = x / ( a * e^b/(x+c))
Inverse Offset Exponential 2D		y = x / ( a * e^{bx + c})
Inverse Shifted Exponential 2D		y = x / ( a * e^{x + b})
Inverse Stirling 2D		y = x / ( a * (e^bx - 1) / b)
Inverse Triple Exponential 2D		y = x / ( a * e^bx + c * e^dx + e * e^fx)



Inverse Asymptotic Exponential A With Offset 2D		y = x / ( 1.0 - a^x) + Offset
Inverse Asymptotic Exponential A Transform With Offset 2D		y = x / ( 1.0 - a^{bx + c}) + Offset
Inverse Asymptotic Exponential B With Offset 2D		y = x / ( a * (1.0 - e^bx)) + Offset
Inverse Double Exponential With Offset 2D		y = x / ( a * e^bx + c * e^dx) + Offset
Inverse Exponential With Offset 2D		y = x / ( a * e^bx) + Offset
Inverse Hocket-Sherby With Offset 2D		y = x / ( b - (b-a) * e^{(-c * (x^d))}) + Offset
Inverse Inverted Exponential With Offset 2D		y = x / ( a * e^b/x) + Offset
Inverse Inverted Offset Exponential With Offset 2D		y = x / ( a * e^b/(x+c)) + Offset
Inverse Offset Exponential With Offset 2D		y = x / ( a * e^{bx + c}) + Offset
Inverse Shifted Exponential With Offset 2D		y = x / ( a * e^{x + b}) + Offset
Inverse Stirling With Offset 2D		y = x / ( a * (e^bx - 1) / b) + Offset
Inverse Triple Exponential With Offset 2D		y = x / ( a * e^bx + c * e^dx + e * e^fx) + Offset



Reciprocal Asymptotic Exponential A 2D		y = 1.0 / ( 1.0 - a^x)
Reciprocal Asymptotic Exponential A Transform 2D		y = 1.0 / ( 1.0 - a^{bx + c})
Reciprocal Asymptotic Exponential B 2D		y = 1.0 / ( a * (1.0 - e^bx))
Reciprocal Double Exponential 2D		y = 1.0 / ( a * e^bx + c * e^dx)
Reciprocal Exponential 2D		y = 1.0 / ( a * e^bx)
Reciprocal Hocket-Sherby 2D		y = 1.0 / ( b - (b-a) * e^{(-c * (x^d))})
Reciprocal Inverted Exponential 2D		y = 1.0 / ( a * e^b/x)
Reciprocal Inverted Offset Exponential 2D		y = 1.0 / ( a * e^b/(x+c))
Reciprocal Offset Exponential 2D		y = 1.0 / ( a * e^{bx + c})
Reciprocal Shifted Exponential 2D		y = 1.0 / ( a * e^{x + b})
Reciprocal Stirling 2D		y = 1.0 / ( a * (e^bx - 1) / b)
Reciprocal Triple Exponential 2D		y = 1.0 / ( a * e^bx + c * e^dx + e * e^fx)



Reciprocal Asymptotic Exponential A With Offset 2D		y = 1.0 / ( 1.0 - a^x) + Offset
Reciprocal Asymptotic Exponential A Transform With Offset 2D		y = 1.0 / ( 1.0 - a^{bx + c}) + Offset
Reciprocal Asymptotic Exponential B With Offset 2D		y = 1.0 / ( a * (1.0 - e^bx)) + Offset
Reciprocal Double Exponential With Offset 2D		y = 1.0 / ( a * e^bx + c * e^dx) + Offset
Reciprocal Exponential With Offset 2D		y = 1.0 / ( a * e^bx) + Offset
Reciprocal Inverted Exponential With Offset 2D		y = 1.0 / ( a * e^b/x) + Offset
Reciprocal Inverted Offset Exponential With Offset 2D		y = 1.0 / ( a * e^b/(x+c)) + Offset
Reciprocal Offset Exponential With Offset 2D		y = 1.0 / ( a * e^{bx + c}) + Offset
Reciprocal Shifted Exponential With Offset 2D		y = 1.0 / ( a * e^{x + b}) + Offset
Reciprocal Stirling With Offset 2D		y = 1.0 / ( a * (e^bx - 1) / b) + Offset
Reciprocal Triple Exponential With Offset 2D		y = 1.0 / ( a * e^bx + c * e^dx + e * e^fx) + Offset



Asymptotic Exponential A With Exponential Decay 2D		y = ( 1.0 - a^x) / (b * exp(x))
Asymptotic Exponential A Transform With Exponential Decay 2D		y = ( 1.0 - a^{bx + c}) / (d * exp(x))
Asymptotic Exponential B With Exponential Decay 2D		y = ( a * (1.0 - e^bx)) / (c * exp(x))
Double Exponential With Exponential Decay 2D		y = ( a * e^bx + c * e^dx) / (e * exp(x))
Exponential With Exponential Decay 2D		y = ( a * e^bx) / (c * exp(x))
Hocket-Sherby With Exponential Decay 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) / (e * exp(x))
Hoerl With Exponential Decay 2D		y = ( x^a * e^x) / (b * exp(x))
Hoerl Transform With Exponential Decay 2D		y = ( (bx + c)^a * e^{bx + c}) / (d * exp(x))
Inverted Exponential With Exponential Decay 2D		y = ( a * e^b/x) / (c * exp(x))
Inverted Offset Exponential With Exponential Decay 2D		y = ( a * e^b/(x+c)) / (d * exp(x))
Offset Exponential With Exponential Decay 2D		y = ( a * e^{bx + c}) / (d * exp(x))
Shifted Exponential With Exponential Decay 2D		y = ( a * e^{x + b}) / (c * exp(x))
Simple Exponential With Exponential Decay 2D		y = ( a^x) / (b * exp(x))
Simple Scaled Exponential With Exponential Decay 2D		y = ( a * e^x) / (b * exp(x))
Steve Battison Exponential A With Exponential Decay 2D		y = ( e^{(a + bx) / (c + dx)}) / (e * exp(x))
Steve Battison Exponential B With Exponential Decay 2D		y = ( a * e^{(b + cx) / (d + ex)}) / (f * exp(x))
Stirling With Exponential Decay 2D		y = ( a * (e^bx - 1) / b) / (c * exp(x))
Triple Exponential With Exponential Decay 2D		y = ( a * e^bx + c * e^dx + e * e^fx) / (g * exp(x))
Standard Vapor Pressure With Exponential Decay 2D		y = ( e^{(a + (b/x) + cln(x))}) / (d exp(x))



Asymptotic Exponential A With Exponential Decay And Offset 2D		y = ( 1.0 - a^x) / (b * exp(x)) + Offset
Asymptotic Exponential A Transform With Exponential Decay And Offset 2D		y = ( 1.0 - a^{bx + c}) / (d * exp(x)) + Offset
Asymptotic Exponential B With Exponential Decay And Offset 2D		y = ( a * (1.0 - e^bx)) / (c * exp(x)) + Offset
Double Exponential With Exponential Decay And Offset 2D		y = ( a * e^bx + c * e^dx) / (e * exp(x)) + Offset
Exponential With Exponential Decay And Offset 2D		y = ( a * e^bx) / (c * exp(x)) + Offset
Hocket-Sherby With Exponential Decay And Offset 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) / (e * exp(x)) + Offset
Hoerl With Exponential Decay And Offset 2D		y = ( x^a * e^x) / (b * exp(x)) + Offset
Hoerl Transform With Exponential Decay And Offset 2D		y = ( (bx + c)^a * e^{bx + c}) / (d * exp(x)) + Offset
Inverted Exponential With Exponential Decay And Offset 2D		y = ( a * e^b/x) / (c * exp(x)) + Offset
Inverted Offset Exponential With Exponential Decay And Offset 2D		y = ( a * e^b/(x+c)) / (d * exp(x)) + Offset
Offset Exponential With Exponential Decay And Offset 2D		y = ( a * e^{bx + c}) / (d * exp(x)) + Offset
Shifted Exponential With Exponential Decay And Offset 2D		y = ( a * e^{x + b}) / (c * exp(x)) + Offset
Simple Exponential With Exponential Decay And Offset 2D		y = ( a^x) / (b * exp(x)) + Offset
Simple Scaled Exponential With Exponential Decay And Offset 2D		y = ( a * e^x) / (b * exp(x)) + Offset
Steve Battison Exponential A With Exponential Decay And Offset 2D		y = ( e^{(a + bx) / (c + dx)}) / (e * exp(x)) + Offset
Steve Battison Exponential B With Exponential Decay And Offset 2D		y = ( a * e^{(b + cx) / (d + ex)}) / (f * exp(x)) + Offset
Stirling With Exponential Decay And Offset 2D		y = ( a * (e^bx - 1) / b) / (c * exp(x)) + Offset
Triple Exponential With Exponential Decay And Offset 2D		y = ( a * e^bx + c * e^dx + e * e^fx) / (g * exp(x)) + Offset
Standard Vapor Pressure With Exponential Decay And Offset 2D		y = ( e^{(a + (b/x) + cln(x))}) / (d exp(x)) + Offset



Asymptotic Exponential A With Exponential Growth 2D		y = ( 1.0 - a^x) * (b * exp(x))
Asymptotic Exponential A Transform With Exponential Growth 2D		y = ( 1.0 - a^{bx + c}) * (d * exp(x))
Asymptotic Exponential B With Exponential Growth 2D		y = ( a * (1.0 - e^bx)) * (c * exp(x))
Double Exponential With Exponential Growth 2D		y = ( a * e^bx + c * e^dx) * (e * exp(x))
Exponential With Exponential Growth 2D		y = ( a * e^bx) * (c * exp(x))
Hocket-Sherby With Exponential Growth 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) * (e * exp(x))
Hoerl With Exponential Growth 2D		y = ( x^a * e^x) * (b * exp(x))
Hoerl Transform With Exponential Growth 2D		y = ( (bx + c)^a * e^{bx + c}) * (d * exp(x))
Inverted Exponential With Exponential Growth 2D		y = ( a * e^b/x) * (c * exp(x))
Inverted Offset Exponential With Exponential Growth 2D		y = ( a * e^b/(x+c)) * (d * exp(x))
Offset Exponential With Exponential Growth 2D		y = ( a * e^{bx + c}) * (d * exp(x))
Shifted Exponential With Exponential Growth 2D		y = ( a * e^{x + b}) * (c * exp(x))
Simple Exponential With Exponential Growth 2D		y = ( a^x) * (b * exp(x))
Simple Scaled Exponential With Exponential Growth 2D		y = ( a * e^x) * (b * exp(x))
Steve Battison Exponential A With Exponential Growth 2D		y = ( e^{(a + bx) / (c + dx)}) * (e * exp(x))
Steve Battison Exponential B With Exponential Growth 2D		y = ( a * e^{(b + cx) / (d + ex)}) * (f * exp(x))
Stirling With Exponential Growth 2D		y = ( a * (e^bx - 1) / b) * (c * exp(x))
Triple Exponential With Exponential Growth 2D		y = ( a * e^bx + c * e^dx + e * e^fx) * (g * exp(x))
Standard Vapor Pressure With Exponential Growth 2D		y = ( e^{(a + (b/x) + cln(x))}) (d * exp(x))



Asymptotic Exponential A With Exponential Growth And Offset 2D		y = ( 1.0 - a^x) * (b * exp(x)) + Offset
Asymptotic Exponential A Transform With Exponential Growth And Offset 2D		y = ( 1.0 - a^{bx + c}) * (d * exp(x)) + Offset
Asymptotic Exponential B With Exponential Growth And Offset 2D		y = ( a * (1.0 - e^bx)) * (c * exp(x)) + Offset
Double Exponential With Exponential Growth And Offset 2D		y = ( a * e^bx + c * e^dx) * (e * exp(x)) + Offset
Exponential With Exponential Growth And Offset 2D		y = ( a * e^bx) * (c * exp(x)) + Offset
Hocket-Sherby With Exponential Growth And Offset 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) * (e * exp(x)) + Offset
Hoerl With Exponential Growth And Offset 2D		y = ( x^a * e^x) * (b * exp(x)) + Offset
Hoerl Transform With Exponential Growth And Offset 2D		y = ( (bx + c)^a * e^{bx + c}) * (d * exp(x)) + Offset
Inverted Exponential With Exponential Growth And Offset 2D		y = ( a * e^b/x) * (c * exp(x)) + Offset
Inverted Offset Exponential With Exponential Growth And Offset 2D		y = ( a * e^b/(x+c)) * (d * exp(x)) + Offset
Offset Exponential With Exponential Growth And Offset 2D		y = ( a * e^{bx + c}) * (d * exp(x)) + Offset
Shifted Exponential With Exponential Growth And Offset 2D		y = ( a * e^{x + b}) * (c * exp(x)) + Offset
Simple Exponential With Exponential Growth And Offset 2D		y = ( a^x) * (b * exp(x)) + Offset
Simple Scaled Exponential With Exponential Growth And Offset 2D		y = ( a * e^x) * (b * exp(x)) + Offset
Steve Battison Exponential A With Exponential Growth And Offset 2D		y = ( e^{(a + bx) / (c + dx)}) * (e * exp(x)) + Offset
Steve Battison Exponential B With Exponential Growth And Offset 2D		y = ( a * e^{(b + cx) / (d + ex)}) * (f * exp(x)) + Offset
Stirling With Exponential Growth And Offset 2D		y = ( a * (e^bx - 1) / b) * (c * exp(x)) + Offset
Triple Exponential With Exponential Growth And Offset 2D		y = ( a * e^bx + c * e^dx + e * e^fx) * (g * exp(x)) + Offset
Standard Vapor Pressure With Exponential Growth And Offset 2D		y = ( e^{(a + (b/x) + cln(x))}) (d * exp(x)) + Offset



Asymptotic Exponential A With Linear Decay 2D		y = ( 1.0 - a^x) / (b * x)
Asymptotic Exponential A Transform With Linear Decay 2D		y = ( 1.0 - a^{bx + c}) / (d * x)
Asymptotic Exponential B With Linear Decay 2D		y = ( a * (1.0 - e^bx)) / (c * x)
Double Exponential With Linear Decay 2D		y = ( a * e^bx + c * e^dx) / (e * x)
Exponential With Linear Decay 2D		y = ( a * e^bx) / (c * x)
Hocket-Sherby With Linear Decay 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) / (e * x)
Hoerl With Linear Decay 2D		y = ( x^a * e^x) / (b * x)
Hoerl Transform With Linear Decay 2D		y = ( (bx + c)^a * e^{bx + c}) / (d * x)
Inverted Exponential With Linear Decay 2D		y = ( a * e^b/x) / (c * x)
Inverted Offset Exponential With Linear Decay 2D		y = ( a * e^b/(x+c)) / (d * x)
Offset Exponential With Linear Decay 2D		y = ( a * e^{bx + c}) / (d * x)
Shifted Exponential With Linear Decay 2D		y = ( a * e^{x + b}) / (c * x)
Simple Exponential With Linear Decay 2D		y = ( a^x) / (b * x)
Simple Scaled Exponential With Linear Decay 2D		y = ( a * e^x) / (b * x)
Steve Battison Exponential A With Linear Decay 2D		y = ( e^{(a + bx) / (c + dx)}) / (e * x)
Steve Battison Exponential B With Linear Decay 2D		y = ( a * e^{(b + cx) / (d + ex)}) / (f * x)
Stirling With Linear Decay 2D		y = ( a * (e^bx - 1) / b) / (c * x)
Triple Exponential With Linear Decay 2D		y = ( a * e^bx + c * e^dx + e * e^fx) / (g * x)
Standard Vapor Pressure With Linear Decay 2D		y = ( e^{(a + (b/x) + cln(x))}) / (d x)



Asymptotic Exponential A With Linear Decay And Offset 2D		y = ( 1.0 - a^x) / (b * x) + Offset
Asymptotic Exponential A Transform With Linear Decay And Offset 2D		y = ( 1.0 - a^{bx + c}) / (d * x) + Offset
Asymptotic Exponential B With Linear Decay And Offset 2D		y = ( a * (1.0 - e^bx)) / (c * x) + Offset
Double Exponential With Linear Decay And Offset 2D		y = ( a * e^bx + c * e^dx) / (e * x) + Offset
Exponential With Linear Decay And Offset 2D		y = ( a * e^bx) / (c * x) + Offset
Hocket-Sherby With Linear Decay And Offset 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) / (e * x) + Offset
Hoerl With Linear Decay And Offset 2D		y = ( x^a * e^x) / (b * x) + Offset
Hoerl Transform With Linear Decay And Offset 2D		y = ( (bx + c)^a * e^{bx + c}) / (d * x) + Offset
Inverted Exponential With Linear Decay And Offset 2D		y = ( a * e^b/x) / (c * x) + Offset
Inverted Offset Exponential With Linear Decay And Offset 2D		y = ( a * e^b/(x+c)) / (d * x) + Offset
Offset Exponential With Linear Decay And Offset 2D		y = ( a * e^{bx + c}) / (d * x) + Offset
Shifted Exponential With Linear Decay And Offset 2D		y = ( a * e^{x + b}) / (c * x) + Offset
Simple Exponential With Linear Decay And Offset 2D		y = ( a^x) / (b * x) + Offset
Simple Scaled Exponential With Linear Decay And Offset 2D		y = ( a * e^x) / (b * x) + Offset
Steve Battison Exponential A With Linear Decay And Offset 2D		y = ( e^{(a + bx) / (c + dx)}) / (e * x) + Offset
Steve Battison Exponential B With Linear Decay And Offset 2D		y = ( a * e^{(b + cx) / (d + ex)}) / (f * x) + Offset
Stirling With Linear Decay And Offset 2D		y = ( a * (e^bx - 1) / b) / (c * x) + Offset
Triple Exponential With Linear Decay And Offset 2D		y = ( a * e^bx + c * e^dx + e * e^fx) / (g * x) + Offset
Standard Vapor Pressure With Linear Decay And Offset 2D		y = ( e^{(a + (b/x) + cln(x))}) / (d x) + Offset



Asymptotic Exponential A With Linear Growth 2D		y = ( 1.0 - a^x) * (b * x)
Asymptotic Exponential A Transform With Linear Growth 2D		y = ( 1.0 - a^{bx + c}) * (d * x)
Asymptotic Exponential B With Linear Growth 2D		y = ( a * (1.0 - e^bx)) * (c * x)
Double Exponential With Linear Growth 2D		y = ( a * e^bx + c * e^dx) * (e * x)
Exponential With Linear Growth 2D		y = ( a * e^bx) * (c * x)
Hocket-Sherby With Linear Growth 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) * (e * x)
Hoerl With Linear Growth 2D		y = ( x^a * e^x) * (b * x)
Hoerl Transform With Linear Growth 2D		y = ( (bx + c)^a * e^{bx + c}) * (d * x)
Inverted Exponential With Linear Growth 2D		y = ( a * e^b/x) * (c * x)
Inverted Offset Exponential With Linear Growth 2D		y = ( a * e^b/(x+c)) * (d * x)
Offset Exponential With Linear Growth 2D		y = ( a * e^{bx + c}) * (d * x)
Shifted Exponential With Linear Growth 2D		y = ( a * e^{x + b}) * (c * x)
Simple Exponential With Linear Growth 2D		y = ( a^x) * (b * x)
Simple Scaled Exponential With Linear Growth 2D		y = ( a * e^x) * (b * x)
Steve Battison Exponential A With Linear Growth 2D		y = ( e^{(a + bx) / (c + dx)}) * (e * x)
Steve Battison Exponential B With Linear Growth 2D		y = ( a * e^{(b + cx) / (d + ex)}) * (f * x)
Stirling With Linear Growth 2D		y = ( a * (e^bx - 1) / b) * (c * x)
Triple Exponential With Linear Growth 2D		y = ( a * e^bx + c * e^dx + e * e^fx) * (g * x)
Standard Vapor Pressure With Linear Growth 2D		y = ( e^{(a + (b/x) + cln(x))}) (d * x)



Asymptotic Exponential A With Linear Growth And Offset 2D		y = ( 1.0 - a^x) * (b * x) + Offset
Asymptotic Exponential A Transform With Linear Growth And Offset 2D		y = ( 1.0 - a^{bx + c}) * (d * x) + Offset
Asymptotic Exponential B With Linear Growth And Offset 2D		y = ( a * (1.0 - e^bx)) * (c * x) + Offset
Double Exponential With Linear Growth And Offset 2D		y = ( a * e^bx + c * e^dx) * (e * x) + Offset
Exponential With Linear Growth And Offset 2D		y = ( a * e^bx) * (c * x) + Offset
Hocket-Sherby With Linear Growth And Offset 2D		y = ( b - (b-a) * e^{(-c * (x^d))}) * (e * x) + Offset
Hoerl With Linear Growth And Offset 2D		y = ( x^a * e^x) * (b * x) + Offset
Hoerl Transform With Linear Growth And Offset 2D		y = ( (bx + c)^a * e^{bx + c}) * (d * x) + Offset
Inverted Exponential With Linear Growth And Offset 2D		y = ( a * e^b/x) * (c * x) + Offset
Inverted Offset Exponential With Linear Growth And Offset 2D		y = ( a * e^b/(x+c)) * (d * x) + Offset
Offset Exponential With Linear Growth And Offset 2D		y = ( a * e^{bx + c}) * (d * x) + Offset
Shifted Exponential With Linear Growth And Offset 2D		y = ( a * e^{x + b}) * (c * x) + Offset
Simple Exponential With Linear Growth And Offset 2D		y = ( a^x) * (b * x) + Offset
Simple Scaled Exponential With Linear Growth And Offset 2D		y = ( a * e^x) * (b * x) + Offset
Steve Battison Exponential A With Linear Growth And Offset 2D		y = ( e^{(a + bx) / (c + dx)}) * (e * x) + Offset
Steve Battison Exponential B With Linear Growth And Offset 2D		y = ( a * e^{(b + cx) / (d + ex)}) * (f * x) + Offset
Stirling With Linear Growth And Offset 2D		y = ( a * (e^bx - 1) / b) * (c * x) + Offset
Triple Exponential With Linear Growth And Offset 2D		y = ( a * e^bx + c * e^dx + e * e^fx) * (g * x) + Offset
Standard Vapor Pressure With Linear Growth And Offset 2D		y = ( e^{(a + (b/x) + cln(x))}) (d * x) + Offset

Base 10 Logarithmic 2D		y = a + b*log₁₀(x)
Bradley 2D		y = a * ln(-b * ln(x))
Bradley Transform 2D		y = a * ln(-b * ln(cx + d))
Crystal Resonator Ageing MIL-PRF-55310E 2D		y = A(ln(Bt + 1)) + f0
Cubic Logarithmic 2D		y = a + bln(x) + cln(x)² + d*ln(x)³
Cubic Logarithmic Transform 2D		y = a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³
Linear Logarithmic 2D		y = a + b*ln(x)
Linear Logarithmic Transform 2D		y = a + b*ln(cx+d)
Quadratic Logarithmic 2D		y = a + bln(x) + cln(x)²
Quadratic Logarithmic Transform 2D		y = a + bln(dx+e) + cln(dx+e)²



Bradley With Offset 2D		y = a * ln(-b * ln(x)) + Offset
Bradley Transform With Offset 2D		y = a * ln(-b * ln(cx + d)) + Offset



Inverse Base 10 Logarithmic 2D		y = x / ( a + b*log₁₀(x))
Inverse Bradley 2D		y = x / ( a * ln(-b * ln(x)))
Inverse Bradley Transform 2D		y = x / ( a * ln(-b * ln(cx + d)))
Inverse Cubic Logarithmic 2D		y = x / ( a + bln(x) + cln(x)² + d*ln(x)³)
Inverse Cubic Logarithmic Transform 2D		y = x / ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³)
Inverse Linear Logarithmic 2D		y = x / ( a + b*ln(x))
Inverse Linear Logarithmic Transform 2D		y = x / ( a + b*ln(cx+d))
Inverse Quadratic Logarithmic 2D		y = x / ( a + bln(x) + cln(x)²)
Inverse Quadratic Logarithmic Transform 2D		y = x / ( a + bln(dx+e) + cln(dx+e)²)



Inverse Base 10 Logarithmic With Offset 2D		y = x / ( a + b*log₁₀(x)) + Offset
Inverse Bradley With Offset 2D		y = x / ( a * ln(-b * ln(x))) + Offset
Inverse Bradley Transform With Offset 2D		y = x / ( a * ln(-b * ln(cx + d))) + Offset
Inverse Cubic Logarithmic With Offset 2D		y = x / ( a + bln(x) + cln(x)² + d*ln(x)³) + Offset
Inverse Cubic Logarithmic Transform With Offset 2D		y = x / ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) + Offset
Inverse Linear Logarithmic With Offset 2D		y = x / ( a + b*ln(x)) + Offset
Inverse Linear Logarithmic Transform With Offset 2D		y = x / ( a + b*ln(cx+d)) + Offset
Inverse Quadratic Logarithmic With Offset 2D		y = x / ( a + bln(x) + cln(x)²) + Offset
Inverse Quadratic Logarithmic Transform With Offset 2D		y = x / ( a + bln(dx+e) + cln(dx+e)²) + Offset



Reciprocal Base 10 Logarithmic 2D		y = 1.0 / ( a + b*log₁₀(x))
Reciprocal Bradley 2D		y = 1.0 / ( a * ln(-b * ln(x)))
Reciprocal Bradley Transform 2D		y = 1.0 / ( a * ln(-b * ln(cx + d)))
Reciprocal Cubic Logarithmic 2D		y = 1.0 / ( a + bln(x) + cln(x)² + d*ln(x)³)
Reciprocal Cubic Logarithmic Transform 2D		y = 1.0 / ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³)
Reciprocal Linear Logarithmic 2D		y = 1.0 / ( a + b*ln(x))
Reciprocal Linear Logarithmic Transform 2D		y = 1.0 / ( a + b*ln(cx+d))
Reciprocal Quadratic Logarithmic 2D		y = 1.0 / ( a + bln(x) + cln(x)²)
Reciprocal Quadratic Logarithmic Transform 2D		y = 1.0 / ( a + bln(dx+e) + cln(dx+e)²)



Reciprocal Bradley With Offset 2D		y = 1.0 / ( a * ln(-b * ln(x))) + Offset
Reciprocal Bradley Transform With Offset 2D		y = 1.0 / ( a * ln(-b * ln(cx + d))) + Offset



Base 10 Logarithmic With Exponential Decay 2D		y = ( a + blog₁₀(x)) / (c exp(x))
Bradley With Exponential Decay 2D		y = ( a * ln(-b * ln(x))) / (c * exp(x))
Bradley Transform With Exponential Decay 2D		y = ( a * ln(-b * ln(cx + d))) / (e * exp(x))
Crystal Resonator Ageing MIL-PRF-55310E With Exponential Decay 2D		y = ( A(ln(Bt + 1)) + f0) / (d * exp(x))
Cubic Logarithmic With Exponential Decay 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) / (e exp(x))
Cubic Logarithmic Transform With Exponential Decay 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) / (g * exp(x))
Linear Logarithmic With Exponential Decay 2D		y = ( a + bln(x)) / (c exp(x))
Linear Logarithmic Transform With Exponential Decay 2D		y = ( a + bln(cx+d)) / (e exp(x))
Quadratic Logarithmic With Exponential Decay 2D		y = ( a + bln(x) + cln(x)²) / (d * exp(x))
Quadratic Logarithmic Transform With Exponential Decay 2D		y = ( a + bln(dx+e) + cln(dx+e)²) / (f * exp(x))



Base 10 Logarithmic With Exponential Decay And Offset 2D		y = ( a + blog₁₀(x)) / (c exp(x)) + Offset
Bradley With Exponential Decay And Offset 2D		y = ( a * ln(-b * ln(x))) / (c * exp(x)) + Offset
Bradley Transform With Exponential Decay And Offset 2D		y = ( a * ln(-b * ln(cx + d))) / (e * exp(x)) + Offset
Crystal Resonator Ageing MIL-PRF-55310E With Exponential Decay And Offset 2D		y = ( A(ln(Bt + 1)) + f0) / (d * exp(x)) + Offset
Cubic Logarithmic With Exponential Decay And Offset 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) / (e exp(x)) + Offset
Cubic Logarithmic Transform With Exponential Decay And Offset 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) / (g * exp(x)) + Offset
Linear Logarithmic With Exponential Decay And Offset 2D		y = ( a + bln(x)) / (c exp(x)) + Offset
Linear Logarithmic Transform With Exponential Decay And Offset 2D		y = ( a + bln(cx+d)) / (e exp(x)) + Offset
Quadratic Logarithmic With Exponential Decay And Offset 2D		y = ( a + bln(x) + cln(x)²) / (d * exp(x)) + Offset
Quadratic Logarithmic Transform With Exponential Decay And Offset 2D		y = ( a + bln(dx+e) + cln(dx+e)²) / (f * exp(x)) + Offset



Base 10 Logarithmic With Exponential Growth 2D		y = ( a + blog₁₀(x)) (c * exp(x))
Bradley With Exponential Growth 2D		y = ( a * ln(-b * ln(x))) * (c * exp(x))
Bradley Transform With Exponential Growth 2D		y = ( a * ln(-b * ln(cx + d))) * (e * exp(x))
Crystal Resonator Ageing MIL-PRF-55310E With Exponential Growth 2D		y = ( A(ln(Bt + 1)) + f0) * (d * exp(x))
Cubic Logarithmic With Exponential Growth 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) (e * exp(x))
Cubic Logarithmic Transform With Exponential Growth 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) * (g * exp(x))
Linear Logarithmic With Exponential Growth 2D		y = ( a + bln(x)) (c * exp(x))
Linear Logarithmic Transform With Exponential Growth 2D		y = ( a + bln(cx+d)) (e * exp(x))
Quadratic Logarithmic With Exponential Growth 2D		y = ( a + bln(x) + cln(x)²) * (d * exp(x))
Quadratic Logarithmic Transform With Exponential Growth 2D		y = ( a + bln(dx+e) + cln(dx+e)²) * (f * exp(x))



Base 10 Logarithmic With Exponential Growth And Offset 2D		y = ( a + blog₁₀(x)) (c * exp(x)) + Offset
Bradley With Exponential Growth And Offset 2D		y = ( a * ln(-b * ln(x))) * (c * exp(x)) + Offset
Bradley Transform With Exponential Growth And Offset 2D		y = ( a * ln(-b * ln(cx + d))) * (e * exp(x)) + Offset
Crystal Resonator Ageing MIL-PRF-55310E With Exponential Growth And Offset 2D		y = ( A(ln(Bt + 1)) + f0) * (d * exp(x)) + Offset
Cubic Logarithmic With Exponential Growth And Offset 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) (e * exp(x)) + Offset
Cubic Logarithmic Transform With Exponential Growth And Offset 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) * (g * exp(x)) + Offset
Linear Logarithmic With Exponential Growth And Offset 2D		y = ( a + bln(x)) (c * exp(x)) + Offset
Linear Logarithmic Transform With Exponential Growth And Offset 2D		y = ( a + bln(cx+d)) (e * exp(x)) + Offset
Quadratic Logarithmic With Exponential Growth And Offset 2D		y = ( a + bln(x) + cln(x)²) * (d * exp(x)) + Offset
Quadratic Logarithmic Transform With Exponential Growth And Offset 2D		y = ( a + bln(dx+e) + cln(dx+e)²) * (f * exp(x)) + Offset



Base 10 Logarithmic With Linear Decay 2D		y = ( a + blog₁₀(x)) / (c x)
Bradley With Linear Decay 2D		y = ( a * ln(-b * ln(x))) / (c * x)
Bradley Transform With Linear Decay 2D		y = ( a * ln(-b * ln(cx + d))) / (e * x)
Crystal Resonator Ageing MIL-PRF-55310E With Linear Decay 2D		y = ( A(ln(Bt + 1)) + f0) / (d * x)
Cubic Logarithmic With Linear Decay 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) / (e x)
Cubic Logarithmic Transform With Linear Decay 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) / (g * x)
Linear Logarithmic With Linear Decay 2D		y = ( a + bln(x)) / (c x)
Linear Logarithmic Transform With Linear Decay 2D		y = ( a + bln(cx+d)) / (e x)
Quadratic Logarithmic With Linear Decay 2D		y = ( a + bln(x) + cln(x)²) / (d * x)
Quadratic Logarithmic Transform With Linear Decay 2D		y = ( a + bln(dx+e) + cln(dx+e)²) / (f * x)



Base 10 Logarithmic With Linear Decay And Offset 2D		y = ( a + blog₁₀(x)) / (c x) + Offset
Bradley With Linear Decay And Offset 2D		y = ( a * ln(-b * ln(x))) / (c * x) + Offset
Bradley Transform With Linear Decay And Offset 2D		y = ( a * ln(-b * ln(cx + d))) / (e * x) + Offset
Crystal Resonator Ageing MIL-PRF-55310E With Linear Decay And Offset 2D		y = ( A(ln(Bt + 1)) + f0) / (d * x) + Offset
Cubic Logarithmic With Linear Decay And Offset 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) / (e x) + Offset
Cubic Logarithmic Transform With Linear Decay And Offset 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) / (g * x) + Offset
Linear Logarithmic With Linear Decay And Offset 2D		y = ( a + bln(x)) / (c x) + Offset
Linear Logarithmic Transform With Linear Decay And Offset 2D		y = ( a + bln(cx+d)) / (e x) + Offset
Quadratic Logarithmic With Linear Decay And Offset 2D		y = ( a + bln(x) + cln(x)²) / (d * x) + Offset
Quadratic Logarithmic Transform With Linear Decay And Offset 2D		y = ( a + bln(dx+e) + cln(dx+e)²) / (f * x) + Offset



Base 10 Logarithmic With Linear Growth 2D		y = ( a + blog₁₀(x)) (c * x)
Bradley With Linear Growth 2D		y = ( a * ln(-b * ln(x))) * (c * x)
Bradley Transform With Linear Growth 2D		y = ( a * ln(-b * ln(cx + d))) * (e * x)
Crystal Resonator Ageing MIL-PRF-55310E With Linear Growth 2D		y = ( A(ln(Bt + 1)) + f0) * (d * x)
Cubic Logarithmic With Linear Growth 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) (e * x)
Cubic Logarithmic Transform With Linear Growth 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) * (g * x)
Linear Logarithmic With Linear Growth 2D		y = ( a + bln(x)) (c * x)
Linear Logarithmic Transform With Linear Growth 2D		y = ( a + bln(cx+d)) (e * x)
Quadratic Logarithmic With Linear Growth 2D		y = ( a + bln(x) + cln(x)²) * (d * x)
Quadratic Logarithmic Transform With Linear Growth 2D		y = ( a + bln(dx+e) + cln(dx+e)²) * (f * x)



Base 10 Logarithmic With Linear Growth And Offset 2D		y = ( a + blog₁₀(x)) (c * x) + Offset
Bradley With Linear Growth And Offset 2D		y = ( a * ln(-b * ln(x))) * (c * x) + Offset
Bradley Transform With Linear Growth And Offset 2D		y = ( a * ln(-b * ln(cx + d))) * (e * x) + Offset
Crystal Resonator Ageing MIL-PRF-55310E With Linear Growth And Offset 2D		y = ( A(ln(Bt + 1)) + f0) * (d * x) + Offset
Cubic Logarithmic With Linear Growth And Offset 2D		y = ( a + bln(x) + cln(x)² + dln(x)³) (e * x) + Offset
Cubic Logarithmic Transform With Linear Growth And Offset 2D		y = ( a + bln(ex+f) + cln(ex+f)² + dln(ex+f)³) * (g * x) + Offset
Linear Logarithmic With Linear Growth And Offset 2D		y = ( a + bln(x)) (c * x) + Offset
Linear Logarithmic Transform With Linear Growth And Offset 2D		y = ( a + bln(cx+d)) (e * x) + Offset
Quadratic Logarithmic With Linear Growth And Offset 2D		y = ( a + bln(x) + cln(x)²) * (d * x) + Offset
Quadratic Logarithmic Transform With Linear Growth And Offset 2D		y = ( a + bln(dx+e) + cln(dx+e)²) * (f * x) + Offset

NIST Bennett5 2D		y = a * (b+x)^(-1/c) [web citation]
NIST BoxBOD 2D		y = a * (1.0-e^-b*x) [web citation]
NIST Chwirut 2D		y = e^(-ax) / (b + cx) [web citation]
NIST DanWood 2D		y = a*x^b [web citation]
NIST ENSO 2D		y = a + bcos(2pix/12) + csin(2pix/12) + ecos(2pix/d) + fsin(2pix/d) + hcos(2pix/g) + isin(2pix/g) [web citation]
NIST Eckerle4 2D		y = (a/b) * e^{-0.5*((x-c)/b)^2} [web citation]
NIST Gauss 2D		y = aexp(-bx) + cexp(-(x-d)^2 / e^2) + fexp(-(x-g)^2 / h^2) [web citation]
NIST Hahn 2D		y = (a + bx + cx² + dx³) / (1.0 + ex + fx² + gx³) [web citation]
NIST Kirby 2D		y = (a + bx + cx²) / (1.0 + dx + ex²) [web citation]
NIST Lanczos 2D		y = aexp(-bx) + cexp(-dx) + eexp(-fx) [web citation]
NIST MGH09 2D		y = a * (x² + bx) / (x² + cx + d) [web citation]
NIST MGH10 2D		y = a * e^b/(x+c) [web citation]
NIST MGH17 2D		y = a + bexp(-xd) + cexp(-xe) [web citation]
NIST Misra1a 2D		y = a * (1.0 - e^-b*x) [web citation]
NIST Misra1b 2D		y = a * (1.0 - (1.0+b*x/2.0)^-2.0) [web citation]
NIST Misra1c 2D		y = a * (1.0 - 2.0bx)^-0.5 [web citation]
NIST Misra1d 2D		y = a * b * x * (1.0 + b*x)^-1.0 [web citation]
NIST Rat42 2D		y = a / (1.0 + exp[b - c*x]) [web citation]
NIST Rat43 2D		y = a / ((1.0 + exp[b - c*x])^(1.0/d)) [web citation]
NIST Roszman 2D		y = a - bx - (arctan[c/(x-d)] / pi) [web citation]
NIST Thurber 2D		y = (a + bx + cx² + dx³) / (1.0 + ex + fx² + gx³) [web citation]



NIST Bennett5 With Offset 2D		y = a * (b+x)^(-1/c) + Offset [web citation]
NIST BoxBOD With Offset 2D		y = a * (1.0-e^-b*x) + Offset [web citation]
NIST Chwirut With Offset 2D		y = e^(-ax) / (b + cx) + Offset [web citation]
NIST DanWood With Offset 2D		y = a*x^b + Offset [web citation]
NIST Eckerle4 With Offset 2D		y = (a/b) * e^{-0.5*((x-c)/b)^2} + Offset [web citation]
NIST Gauss With Offset 2D		y = aexp(-bx) + cexp(-(x-d)^2 / e^2) + fexp(-(x-g)^2 / h^2) + Offset [web citation]
NIST Hahn With Offset 2D		y = (a + bx + cx² + dx³) / (1.0 + ex + fx² + gx³) + Offset [web citation]
NIST Kirby With Offset 2D		y = (a + bx + cx²) / (1.0 + dx + ex²) + Offset [web citation]
NIST Lanczos With Offset 2D		y = aexp(-bx) + cexp(-dx) + eexp(-fx) + Offset [web citation]
NIST MGH09 With Offset 2D		y = a * (x² + bx) / (x² + cx + d) + Offset [web citation]
NIST MGH10 With Offset 2D		y = a * e^b/(x+c) + Offset [web citation]
NIST Misra1a With Offset 2D		y = a * (1.0 - e^-b*x) + Offset [web citation]
NIST Misra1b With Offset 2D		y = a * (1.0 - (1.0+b*x/2.0)^-2.0) + Offset [web citation]
NIST Misra1c With Offset 2D		y = a * (1.0 - 2.0bx)^-0.5 + Offset [web citation]
NIST Misra1d With Offset 2D		y = a * b * x * (1.0 + b*x)^-1.0 + Offset [web citation]
NIST Rat42 With Offset 2D		y = a / (1.0 + exp[b - c*x]) + Offset [web citation]
NIST Rat43 With Offset 2D		y = a / ((1.0 + exp[b - c*x])^(1.0/d)) + Offset [web citation]
NIST Thurber With Offset 2D		y = (a + bx + cx² + dx³) / (1.0 + ex + fx² + gx³) + Offset [web citation]

CAUCHY 2D		n = A + B/x² + C/x⁴ [web citation]
CONRADY1 2D		n = A + B/x + C/x^3.5 [web citation]
CONRADY2 2D		n = A + B/x² + C/x^3.5 [web citation]
HARTMANN1 2D		n = A + B/(C - x) [web citation]
HARTMANN2 2D		n = A + B/(C - x)² [web citation]
HARTMANN3a 2D		n = A + B/(C - x)^1.2 [web citation]
HARTMANN3b 2D		n = A/(x - B)^1.2 [web citation]
HARTMANN4 2D		n = A + B/(C - x) + D/(E - x) [web citation]
HERZBRGR2X2 2D		n = A + Bx² + C / (x² - 0.028) + D / (x² - 0.028)² [web citation]
HERZBRGR3X2 2D		n = A + Bx² + Cx⁴ + D / (x² - 0.028) + E / (x² - 0.028)² [web citation]
HERZBRGR3X3 2D		n = A + Bx² + Cx⁴ + D / (x² - 0.028) + E / (x² - 0.028)² + F / (x² - 0.028)⁴ [web citation]
HERZBRGR4X2 2D		n = A + Bx² + Cx⁴ + Dx⁶ + E / (x² - 0.028) + F / (x² - 0.028)² [web citation]
HERZBRGR5X2 2D		n = A + Bx² + Cx⁴ + Dx⁶ + Ex⁸ + F / (x² - 0.028) + G / (x² - 0.028)² [web citation]
HERZBRGRJK 2D		n = A + Bx² + Cx⁴ + Dx⁶ + E / (x² - J) + F / (x² - K)² [web citation]
HoO1 2D		n² = A + Bx² + C / (x² - D²) [web citation]
HoO2 2D		n² = A + Bx² + Cx² / (x² - D²) [web citation]
KINGSLAKE1 2D		n² = A + B/(x²-C²) + D/(x²-E²) [web citation]
KINGSLAKE2 2D		n² = A + B/(x²-C²) + D/(x²-E²) + F/(x²-G²) [web citation]
MISC01 2D		n² = A + B/(x²-C²) [web citation]
MISC02 2D		n² = A + Bx² + C/(x²-D²) [web citation]
MISC03 2D		n² = A + B/x² + Cx²/(x²-D²) [web citation]
MISC04 2D		n² = A + Bx² + Cx⁴ + D/x² + Ex²/(x²-F+(Gx²/(x²-F))) [web citation]
SCHOTT2X3 2D		n² = A + Bx² + C/x² + D/x⁴ + E/x⁶ [web citation]
SCHOTT2X4 2D		n² = A + Bx² + C/x² + D/x⁴ + E/x⁶ + F/x⁸ [web citation]
SCHOTT2X5 2D		n² = A + Bx² + C/x² + D/x⁴ + E/x⁶ + F/x⁸ + G/x¹⁰ [web citation]
SCHOTT2X6 2D		n² = A + Bx² + C/x² + D/x⁴ + E/x⁶ + F/x⁸ + G/x¹⁰ + H/x¹² [web citation]
SCHOTT3X3 2D		n² = A + Bx² + Cx⁴ + D/x² + E/x⁴ + F/x⁶ [web citation]
SCHOTT3X4 2D		n² = A + Bx² + Cx⁴ + D/x² + E/x⁴ + F/x⁶ + G/x⁸ [web citation]
SCHOTT3X5 2D		n² = A + Bx² + Cx⁴ + D/x² + E/x⁴ + F/x⁶ + G/x⁸ + H/x¹⁰ [web citation]
SCHOTT4X4 2D		n² = A + Bx² + Cx⁴ + Dx⁶ + E/x² + F/x⁴ + G/x⁶ + H/x⁸ [web citation]
SCHOTT5X5 2D		n² = A + Bx² + Cx⁴ + Dx⁶ + Ex⁸ + F/x² + G/x⁴ + H/x⁶ + J/x⁸ + K/x¹⁰ [web citation]
SELL1TA 2D		n² = A + Bx² / (x² - C²) [web citation]
SELL1T 2D		n² = 1 + Ax² / (x² - B²) [web citation]
SELL2TA 2D		n² = A + Bx²/(x²-C²) + Dx²/(x²-E²) [web citation]
SELL2T 2D		n² = 1 + Ax²/(x²-B²) + Cx²/(x²-D²) [web citation]
SELL3TA 2D		n² = A + Bx²/(x²-C²) + Dx²/(x²-E²) + Fx²/(x²-G²) [web citation]
SELL3T 2D		n² = 1 + Ax²/(x²-B²) + Cx²/(x²-D²) + Ex²/(x²-F²) [web citation]
SELL4TA 2D		n² = A + Bx²/(x²-C²) + Dx²/(x²-E²) + Fx²/(x²-G²) + Hx²/(x²-J²) [web citation]
SELL4T 2D		n² = 1 + Ax²/(x²-B²) + Cx²/(x²-D²) + Ex²/(x²-F²) + Gx²/(x²-H²) [web citation]
SELL5TA 2D		n² = A + Bx²/(x²-C²) + Dx²/(x²-E²) + Fx²/(x²-G²) + Hx²/(x²-J²) + Kx²/(x²-M²) [web citation]
SELL5T 2D		n² = 1 + Ax²/(x²-B²) + Cx²/(x²-D²) + Ex²/(x²-F²) + Gx²/(x²-H²) + Jx²/(x²-K²) [web citation]
SELL6TA 2D		n² = A + Bx²/(x²-C²) + Dx²/(x²-E²) + Fx²/(x²-G²) + Hx²/(x²-J²) + Kx²/(x²-M²) + Nx²/(x²-P²) [web citation]
SELL7TA 2D		n² = A + Bx²/(x²-C²) + Dx²/(x²-E²) + Fx²/(x²-G²) + Hx²/(x²-J²) + Kx²/(x²-M²) + Nx²/(x²-P²) + Qx²/(x²-R²) [web citation]
SELLMOD1A 2D		n² = A + Bx + Cx² + D/(x²-E²) [web citation]
SELLMOD1 2D		n² = A + Bx + Cx² + Dx²/(x²-E²) [web citation]
SELLMOD2A 2D		n² = A + Bx + Cx⁴ + D/(x²-E²) [web citation]
SELLMOD2 2D		n² = A + Bx + Cx⁴ + Dx²/(x²-E²) [web citation]
SELLMOD3 2D		n² = (Ax²+B)/(x²-C²) + Dx²/(x²-E²) [web citation]
SELLMOD4A 2D		n² = A + Bx² + C/x² + D/(x²-E²) + F/(x²-G²) [web citation]
SELLMOD4 2D		n² = A + Bx² + C/x² + Dx²/(x²-E²) + Fx²/(x²-G²) [web citation]
SELLMOD5 2D		n² = A + Bx² + Cx²/(x²-D²) + Ex²/(x²-F²) [web citation]
SELLMOD6 2D		n² = A + Bx²/(x²-C²) + D/(x²-E²) [web citation]
SELLMOD7A 2D		n² = A + Bx² + Cx⁴ + D/x⁶ + E/(x²-F²) [web citation]
SELLMOD7 2D		n² = A + Bx² + Cx⁴ + D/x⁶ + Ex²/(x²-F²) [web citation]
SELLMOD8 2D		n² = A + Bx² + Cx⁴ + D/(x²-E²) + F/(x²-G²) [web citation]
SELLMOD9 2D		n² = A + B/x² + C/x⁴ + D/x⁶ + Ex²/(x²-F²) [web citation]



HARTMANN3b With Offset 2D		n = A/(x - B)^1.2 + Offset [web citation]
SELLMOD3 With Offset 2D		n² = (Ax²+B)/(x²-C²) + Dx²/(x²-E²) + Offset [web citation]

Cubic 2D		y = a + bx + cx² + dx³
Linear 2D		y = a + bx
Marc Plante's Custom Quadratic 2D		y = (-b + (b² - 4 a (c - x))^0.5) / 2 / a
User-Selectable Polynomial 2D		y = a + bx + cx² + dx³ + ...
Quadratic 2D		y = a + bx + cx²



Marc Plante's Custom Quadratic With Offset 2D		y = (-b + (b² - 4 a (c - x))^0.5) / 2 / a + Offset



Inverse Cubic 2D		y = x / ( a + bx + cx² + dx³)
Inverse Linear 2D		y = x / ( a + bx)
Inverse User-Selectable Polynomial 2D		y = x / ( a + bx + cx² + dx³ + ...)
Inverse Quadratic 2D		y = x / ( a + bx + cx²)



Inverse Cubic With Offset 2D		y = x / ( a + bx + cx² + dx³) + Offset
Inverse Linear With Offset 2D		y = x / ( a + bx) + Offset
Inverse User-Selectable Polynomial With Offset 2D		y = x / ( a + bx + cx² + dx³ + ...) + Offset
Inverse Quadratic With Offset 2D		y = x / ( a + bx + cx²) + Offset



Reciprocal Cubic 2D		y = 1.0 / ( a + bx + cx² + dx³)
Reciprocal Linear 2D		y = 1.0 / ( a + bx)
Reciprocal User-Selectable Polynomial 2D		y = 1.0 / ( a + bx + cx² + dx³ + ...)
Reciprocal Quadratic 2D		y = 1.0 / ( a + bx + cx²)



Cubic With Exponential Decay 2D		y = ( a + bx + cx² + dx³) / (e * exp(x))
Linear With Exponential Decay 2D		y = ( a + bx) / (c * exp(x))
Marc Plante's Custom Quadratic With Exponential Decay 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) / (d * exp(x))
Quadratic With Exponential Decay 2D		y = ( a + bx + cx²) / (d * exp(x))



Cubic With Exponential Decay And Offset 2D		y = ( a + bx + cx² + dx³) / (e * exp(x)) + Offset
Linear With Exponential Decay And Offset 2D		y = ( a + bx) / (c * exp(x)) + Offset
Marc Plante's Custom Quadratic With Exponential Decay And Offset 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) / (d * exp(x)) + Offset
Quadratic With Exponential Decay And Offset 2D		y = ( a + bx + cx²) / (d * exp(x)) + Offset



Cubic With Exponential Growth 2D		y = ( a + bx + cx² + dx³) * (e * exp(x))
Linear With Exponential Growth 2D		y = ( a + bx) * (c * exp(x))
Marc Plante's Custom Quadratic With Exponential Growth 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) * (d * exp(x))
Quadratic With Exponential Growth 2D		y = ( a + bx + cx²) * (d * exp(x))



Cubic With Exponential Growth And Offset 2D		y = ( a + bx + cx² + dx³) * (e * exp(x)) + Offset
Linear With Exponential Growth And Offset 2D		y = ( a + bx) * (c * exp(x)) + Offset
Marc Plante's Custom Quadratic With Exponential Growth And Offset 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) * (d * exp(x)) + Offset
Quadratic With Exponential Growth And Offset 2D		y = ( a + bx + cx²) * (d * exp(x)) + Offset



Cubic With Linear Decay 2D		y = ( a + bx + cx² + dx³) / (e * x)
Linear With Linear Decay 2D		y = ( a + bx) / (c * x)
Marc Plante's Custom Quadratic With Linear Decay 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) / (d * x)
Quadratic With Linear Decay 2D		y = ( a + bx + cx²) / (d * x)



Cubic With Linear Decay And Offset 2D		y = ( a + bx + cx² + dx³) / (e * x) + Offset
Linear With Linear Decay And Offset 2D		y = ( a + bx) / (c * x) + Offset
Marc Plante's Custom Quadratic With Linear Decay And Offset 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) / (d * x) + Offset
Quadratic With Linear Decay And Offset 2D		y = ( a + bx + cx²) / (d * x) + Offset



Cubic With Linear Growth 2D		y = ( a + bx + cx² + dx³) * (e * x)
Linear With Linear Growth 2D		y = ( a + bx) * (c * x)
Marc Plante's Custom Quadratic With Linear Growth 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) * (d * x)
Quadratic With Linear Growth 2D		y = ( a + bx + cx²) * (d * x)



Cubic With Linear Growth And Offset 2D		y = ( a + bx + cx² + dx³) * (e * x) + Offset
Linear With Linear Growth And Offset 2D		y = ( a + bx) * (c * x) + Offset
Marc Plante's Custom Quadratic With Linear Growth And Offset 2D		y = ( (-b + (b² - 4 a (c - x))^0.5) / 2 / a ) * (d * x) + Offset
Quadratic With Linear Growth And Offset 2D		y = ( a + bx + cx²) * (d * x) + Offset

Geometric Modified 2D		y = a * x^(b/x)
Power A Modified 2D		y = a * b^x
Power A Modified Transform 2D		y = a * b^{cx + d}
Power B Modified 2D		y = a^ln(x)
Power B Modified Transform 2D		y = a^{ln(bx + c)}
Power C Modified 2D		y = (a + x)^b
Power C Modified Transform 2D		y = (a + bx)^c
Power Law With Exponential Cutoff 2D		p(k) = C * k^(-T) * e^(-k/K)
Root 2D		y = a^(1.0/x)
Simple Power 2D		y = x^a
Standard Geometric 2D		y = a * x^bx
Standard Power 2D		y = a * x^b
X Shifted Power 2D		y = a * (x-b)^c



Geometric Modified With Offset 2D		y = a * x^(b/x) + Offset
Power A Modified With Offset 2D		y = a * b^x + Offset
Power A Modified Transform With Offset 2D		y = a * b^{cx + d} + Offset
Power B Modified With Offset 2D		y = a^ln(x) + Offset
Power B Modified Transform With Offset 2D		y = a^{ln(bx + c)} + Offset
Power C Modified With Offset 2D		y = (a + x)^b + Offset
Power C Modified Transform With Offset 2D		y = (a + bx)^c + Offset
Power Law With Exponential Cutoff With Offset 2D		p(k) = C * k^(-T) * e^(-k/K) + Offset
Root With Offset 2D		y = a^(1.0/x) + Offset
Simple Power With Offset 2D		y = x^a + Offset
Standard Geometric With Offset 2D		y = a * x^bx + Offset
Standard Power With Offset 2D		y = a * x^b + Offset
X Shifted Power With Offset 2D		y = a * (x-b)^c + Offset



Inverse Geometric Modified 2D		y = x / ( a * x^(b/x))
Inverse Power A Modified 2D		y = x / ( a * b^x)
Inverse Power A Modified Transform 2D		y = x / ( a * b^{cx + d})
Inverse Power B Modified 2D		y = x / ( a^ln(x))
Inverse Power B Modified Transform 2D		y = x / ( a^{ln(bx + c)})
Inverse Power C Modified 2D		y = x / ( (a + x)^b)
Inverse Power C Modified Transform 2D		y = x / ( (a + bx)^c)
Inverse Power Law With Exponential Cutoff 2D		p(k) = x / ( C * k^(-T) * e^(-k/K))
Inverse Root 2D		y = x / ( a^(1.0/x))
Inverse Standard Geometric 2D		y = x / ( a * x^bx)
Inverse Standard Power 2D		y = x / ( a * x^b)
Inverse X Shifted Power 2D		y = x / ( a * (x-b)^c)



Inverse Geometric Modified With Offset 2D		y = x / ( a * x^(b/x)) + Offset
Inverse Power A Modified With Offset 2D		y = x / ( a * b^x) + Offset
Inverse Power A Modified Transform With Offset 2D		y = x / ( a * b^{cx + d}) + Offset
Inverse Power B Modified With Offset 2D		y = x / ( a^ln(x)) + Offset
Inverse Power B Modified Transform With Offset 2D		y = x / ( a^{ln(bx + c)}) + Offset
Inverse Power C Modified With Offset 2D		y = x / ( (a + x)^b) + Offset
Inverse Power C Modified Transform With Offset 2D		y = x / ( (a + bx)^c) + Offset
Inverse Power Law With Exponential Cutoff With Offset 2D		p(k) = x / ( C * k^(-T) * e^(-k/K)) + Offset
Inverse Root With Offset 2D		y = x / ( a^(1.0/x)) + Offset
Inverse Standard Geometric With Offset 2D		y = x / ( a * x^bx) + Offset
Inverse Standard Power With Offset 2D		y = x / ( a * x^b) + Offset
Inverse X Shifted Power With Offset 2D		y = x / ( a * (x-b)^c) + Offset



Reciprocal Geometric Modified 2D		y = 1.0 / ( a * x^(b/x))
Reciprocal Power A Modified 2D		y = 1.0 / ( a * b^x)
Reciprocal Power A Modified Transform 2D		y = 1.0 / ( a * b^{cx + d})
Reciprocal Power B Modified 2D		y = 1.0 / ( a^ln(x))
Reciprocal Power B Modified Transform 2D		y = 1.0 / ( a^{ln(bx + c)})
Reciprocal Power C Modified 2D		y = 1.0 / ( (a + x)^b)
Reciprocal Power C Modified Transform 2D		y = 1.0 / ( (a + bx)^c)
Reciprocal Power Law With Exponential Cutoff 2D		p(k) = 1.0 / ( C * k^(-T) * e^(-k/K))
Reciprocal Root 2D		y = 1.0 / ( a^(1.0/x))
Reciprocal Standard Geometric 2D		y = 1.0 / ( a * x^bx)
Reciprocal Standard Power 2D		y = 1.0 / ( a * x^b)
Reciprocal X Shifted Power 2D		y = 1.0 / ( a * (x-b)^c)



Reciprocal Geometric Modified With Offset 2D		y = 1.0 / ( a * x^(b/x)) + Offset
Reciprocal Power A Modified With Offset 2D		y = 1.0 / ( a * b^x) + Offset
Reciprocal Power A Modified Transform With Offset 2D		y = 1.0 / ( a * b^{cx + d}) + Offset
Reciprocal Power B Modified With Offset 2D		y = 1.0 / ( a^ln(x)) + Offset
Reciprocal Power B Modified Transform With Offset 2D		y = 1.0 / ( a^{ln(bx + c)}) + Offset
Reciprocal Power C Modified With Offset 2D		y = 1.0 / ( (a + x)^b) + Offset
Reciprocal Power C Modified Transform With Offset 2D		y = 1.0 / ( (a + bx)^c) + Offset
Reciprocal Power Law With Exponential Cutoff With Offset 2D		p(k) = 1.0 / ( C * k^(-T) * e^(-k/K)) + Offset
Reciprocal Root With Offset 2D		y = 1.0 / ( a^(1.0/x)) + Offset
Reciprocal Standard Geometric With Offset 2D		y = 1.0 / ( a * x^bx) + Offset
Reciprocal Standard Power With Offset 2D		y = 1.0 / ( a * x^b) + Offset
Reciprocal X Shifted Power With Offset 2D		y = 1.0 / ( a * (x-b)^c) + Offset



Geometric Modified With Exponential Decay 2D		y = ( a * x^(b/x)) / (c * exp(x))
Power A Modified With Exponential Decay 2D		y = ( a * b^x) / (c * exp(x))
Power A Modified Transform With Exponential Decay 2D		y = ( a * b^{cx + d}) / (e * exp(x))
Power B Modified With Exponential Decay 2D		y = ( a^ln(x)) / (b * exp(x))
Power B Modified Transform With Exponential Decay 2D		y = ( a^{ln(bx + c)}) / (d * exp(x))
Power C Modified With Exponential Decay 2D		y = ( (a + x)^b) / (c * exp(x))
Power C Modified Transform With Exponential Decay 2D		y = ( (a + bx)^c) / (d * exp(x))
Power Law With Exponential Cutoff With Exponential Decay 2D		p(k) = ( C * k^(-T) * e^(-k/K)) / (d * exp(x))
Root With Exponential Decay 2D		y = ( a^(1.0/x)) / (b * exp(x))
Simple Power With Exponential Decay 2D		y = ( x^a) / (b * exp(x))
Standard Geometric With Exponential Decay 2D		y = ( a * x^bx) / (c * exp(x))
Standard Power With Exponential Decay 2D		y = ( a * x^b) / (c * exp(x))
X Shifted Power With Exponential Decay 2D		y = ( a * (x-b)^c) / (d * exp(x))



Geometric Modified With Exponential Decay And Offset 2D		y = ( a * x^(b/x)) / (c * exp(x)) + Offset
Power A Modified With Exponential Decay And Offset 2D		y = ( a * b^x) / (c * exp(x)) + Offset
Power A Modified Transform With Exponential Decay And Offset 2D		y = ( a * b^{cx + d}) / (e * exp(x)) + Offset
Power B Modified With Exponential Decay And Offset 2D		y = ( a^ln(x)) / (b * exp(x)) + Offset
Power B Modified Transform With Exponential Decay And Offset 2D		y = ( a^{ln(bx + c)}) / (d * exp(x)) + Offset
Power C Modified With Exponential Decay And Offset 2D		y = ( (a + x)^b) / (c * exp(x)) + Offset
Power C Modified Transform With Exponential Decay And Offset 2D		y = ( (a + bx)^c) / (d * exp(x)) + Offset
Power Law With Exponential Cutoff With Exponential Decay And Offset 2D		p(k) = ( C * k^(-T) * e^(-k/K)) / (d * exp(x)) + Offset
Root With Exponential Decay And Offset 2D		y = ( a^(1.0/x)) / (b * exp(x)) + Offset
Simple Power With Exponential Decay And Offset 2D		y = ( x^a) / (b * exp(x)) + Offset
Standard Geometric With Exponential Decay And Offset 2D		y = ( a * x^bx) / (c * exp(x)) + Offset
Standard Power With Exponential Decay And Offset 2D		y = ( a * x^b) / (c * exp(x)) + Offset
X Shifted Power With Exponential Decay And Offset 2D		y = ( a * (x-b)^c) / (d * exp(x)) + Offset



Geometric Modified With Exponential Growth 2D		y = ( a * x^(b/x)) * (c * exp(x))
Power A Modified With Exponential Growth 2D		y = ( a * b^x) * (c * exp(x))
Power A Modified Transform With Exponential Growth 2D		y = ( a * b^{cx + d}) * (e * exp(x))
Power B Modified With Exponential Growth 2D		y = ( a^ln(x)) * (b * exp(x))
Power B Modified Transform With Exponential Growth 2D		y = ( a^{ln(bx + c)}) * (d * exp(x))
Power C Modified With Exponential Growth 2D		y = ( (a + x)^b) * (c * exp(x))
Power C Modified Transform With Exponential Growth 2D		y = ( (a + bx)^c) * (d * exp(x))
Power Law With Exponential Cutoff With Exponential Growth 2D		p(k) = ( C * k^(-T) * e^(-k/K)) * (d * exp(x))
Root With Exponential Growth 2D		y = ( a^(1.0/x)) * (b * exp(x))
Simple Power With Exponential Growth 2D		y = ( x^a) * (b * exp(x))
Standard Geometric With Exponential Growth 2D		y = ( a * x^bx) * (c * exp(x))
Standard Power With Exponential Growth 2D		y = ( a * x^b) * (c * exp(x))
X Shifted Power With Exponential Growth 2D		y = ( a * (x-b)^c) * (d * exp(x))



Geometric Modified With Exponential Growth And Offset 2D		y = ( a * x^(b/x)) * (c * exp(x)) + Offset
Power A Modified With Exponential Growth And Offset 2D		y = ( a * b^x) * (c * exp(x)) + Offset
Power A Modified Transform With Exponential Growth And Offset 2D		y = ( a * b^{cx + d}) * (e * exp(x)) + Offset
Power B Modified With Exponential Growth And Offset 2D		y = ( a^ln(x)) * (b * exp(x)) + Offset
Power B Modified Transform With Exponential Growth And Offset 2D		y = ( a^{ln(bx + c)}) * (d * exp(x)) + Offset
Power C Modified With Exponential Growth And Offset 2D		y = ( (a + x)^b) * (c * exp(x)) + Offset
Power C Modified Transform With Exponential Growth And Offset 2D		y = ( (a + bx)^c) * (d * exp(x)) + Offset
Power Law With Exponential Cutoff With Exponential Growth And Offset 2D		p(k) = ( C * k^(-T) * e^(-k/K)) * (d * exp(x)) + Offset
Root With Exponential Growth And Offset 2D		y = ( a^(1.0/x)) * (b * exp(x)) + Offset
Simple Power With Exponential Growth And Offset 2D		y = ( x^a) * (b * exp(x)) + Offset
Standard Geometric With Exponential Growth And Offset 2D		y = ( a * x^bx) * (c * exp(x)) + Offset
Standard Power With Exponential Growth And Offset 2D		y = ( a * x^b) * (c * exp(x)) + Offset
X Shifted Power With Exponential Growth And Offset 2D		y = ( a * (x-b)^c) * (d * exp(x)) + Offset



Geometric Modified With Linear Decay 2D		y = ( a * x^(b/x)) / (c * x)
Power A Modified With Linear Decay 2D		y = ( a * b^x) / (c * x)
Power A Modified Transform With Linear Decay 2D		y = ( a * b^{cx + d}) / (e * x)
Power B Modified With Linear Decay 2D		y = ( a^ln(x)) / (b * x)
Power B Modified Transform With Linear Decay 2D		y = ( a^{ln(bx + c)}) / (d * x)
Power C Modified With Linear Decay 2D		y = ( (a + x)^b) / (c * x)
Power C Modified Transform With Linear Decay 2D		y = ( (a + bx)^c) / (d * x)
Power Law With Exponential Cutoff With Linear Decay 2D		p(k) = ( C * k^(-T) * e^(-k/K)) / (d * x)
Root With Linear Decay 2D		y = ( a^(1.0/x)) / (b * x)
Simple Power With Linear Decay 2D		y = ( x^a) / (b * x)
Standard Geometric With Linear Decay 2D		y = ( a * x^bx) / (c * x)
Standard Power With Linear Decay 2D		y = ( a * x^b) / (c * x)
X Shifted Power With Linear Decay 2D		y = ( a * (x-b)^c) / (d * x)



Geometric Modified With Linear Decay And Offset 2D		y = ( a * x^(b/x)) / (c * x) + Offset
Power A Modified With Linear Decay And Offset 2D		y = ( a * b^x) / (c * x) + Offset
Power A Modified Transform With Linear Decay And Offset 2D		y = ( a * b^{cx + d}) / (e * x) + Offset
Power B Modified With Linear Decay And Offset 2D		y = ( a^ln(x)) / (b * x) + Offset
Power B Modified Transform With Linear Decay And Offset 2D		y = ( a^{ln(bx + c)}) / (d * x) + Offset
Power C Modified With Linear Decay And Offset 2D		y = ( (a + x)^b) / (c * x) + Offset
Power C Modified Transform With Linear Decay And Offset 2D		y = ( (a + bx)^c) / (d * x) + Offset
Power Law With Exponential Cutoff With Linear Decay And Offset 2D		p(k) = ( C * k^(-T) * e^(-k/K)) / (d * x) + Offset
Root With Linear Decay And Offset 2D		y = ( a^(1.0/x)) / (b * x) + Offset
Simple Power With Linear Decay And Offset 2D		y = ( x^a) / (b * x) + Offset
Standard Geometric With Linear Decay And Offset 2D		y = ( a * x^bx) / (c * x) + Offset
Standard Power With Linear Decay And Offset 2D		y = ( a * x^b) / (c * x) + Offset
X Shifted Power With Linear Decay And Offset 2D		y = ( a * (x-b)^c) / (d * x) + Offset



Geometric Modified With Linear Growth 2D		y = ( a * x^(b/x)) * (c * x)
Power A Modified With Linear Growth 2D		y = ( a * b^x) * (c * x)
Power A Modified Transform With Linear Growth 2D		y = ( a * b^{cx + d}) * (e * x)
Power B Modified With Linear Growth 2D		y = ( a^ln(x)) * (b * x)
Power B Modified Transform With Linear Growth 2D		y = ( a^{ln(bx + c)}) * (d * x)
Power C Modified With Linear Growth 2D		y = ( (a + x)^b) * (c * x)
Power C Modified Transform With Linear Growth 2D		y = ( (a + bx)^c) * (d * x)
Power Law With Exponential Cutoff With Linear Growth 2D		p(k) = ( C * k^(-T) * e^(-k/K)) * (d * x)
Root With Linear Growth 2D		y = ( a^(1.0/x)) * (b * x)
Simple Power With Linear Growth 2D		y = ( x^a) * (b * x)
Standard Geometric With Linear Growth 2D		y = ( a * x^bx) * (c * x)
Standard Power With Linear Growth 2D		y = ( a * x^b) * (c * x)
X Shifted Power With Linear Growth 2D		y = ( a * (x-b)^c) * (d * x)



Geometric Modified With Linear Growth And Offset 2D		y = ( a * x^(b/x)) * (c * x) + Offset
Power A Modified With Linear Growth And Offset 2D		y = ( a * b^x) * (c * x) + Offset
Power A Modified Transform With Linear Growth And Offset 2D		y = ( a * b^{cx + d}) * (e * x) + Offset
Power B Modified With Linear Growth And Offset 2D		y = ( a^ln(x)) * (b * x) + Offset
Power B Modified Transform With Linear Growth And Offset 2D		y = ( a^{ln(bx + c)}) * (d * x) + Offset
Power C Modified With Linear Growth And Offset 2D		y = ( (a + x)^b) * (c * x) + Offset
Power C Modified Transform With Linear Growth And Offset 2D		y = ( (a + bx)^c) * (d * x) + Offset
Power Law With Exponential Cutoff With Linear Growth And Offset 2D		p(k) = ( C * k^(-T) * e^(-k/K)) * (d * x) + Offset
Root With Linear Growth And Offset 2D		y = ( a^(1.0/x)) * (b * x) + Offset
Simple Power With Linear Growth And Offset 2D		y = ( x^a) * (b * x) + Offset
Standard Geometric With Linear Growth And Offset 2D		y = ( a * x^bx) * (c * x) + Offset
Standard Power With Linear Growth And Offset 2D		y = ( a * x^b) * (c * x) + Offset
X Shifted Power With Linear Growth And Offset 2D		y = ( a * (x-b)^c) * (d * x) + Offset

Hyperbolic Cosine A [radians] 2D		y = a * cosh(x)
Hyperbolic Cosine B [radians] 2D		y = a * cosh(x + b)
Hyperbolic Cosine C [radians] 2D		y = a / cosh(x)
Hyperbolic Cosine D [radians] 2D		y = a / cosh(x + b)
Hyperbolic Cosine D [radians] 2D		y = a / cosh(x / a)
Cardinal Sine (sinc) 2D		y = a * sin(x) / x
Cardinal Sine Squared (sinc squared) 2D		y = a * (sin(x))² / x
Cardinal Sine (sinc) Transform 2D		y = a * sin(bx + c) / (bx + c)
Cardinal Sine Squared (sinc squared) Transform 2D		y = a * (sin(bx + c))² / (bx + c)
Sine A [radians] 2D		y = a * sin(x)
Sine B [radians] 2D		y = a * sin(b*x)
Sine C [radians] 2D		y = a * sin(bx + c)
Sine D [radians] 2D		y = a * sin(x + b)
Tangent A [radians] 2D		y = a * tan(x)
Tangent B [radians] 2D		y = a * tan(b*x)
Tangent C [radians] 2D		y = a * tan(bx + c)
Tangent D [radians] 2D		y = a * tan(x + b)



Hyperbolic Cosine A [radians] With Offset 2D		y = a * cosh(x) + Offset
Hyperbolic Cosine B [radians] With Offset 2D		y = a * cosh(x + b) + Offset
Hyperbolic Cosine C [radians] With Offset 2D		y = a / cosh(x) + Offset
Hyperbolic Cosine D [radians] With Offset 2D		y = a / cosh(x + b) + Offset
Hyperbolic Cosine D [radians] With Offset 2D		y = a / cosh(x / a) + Offset
Cardinal Sine (sinc) With Offset 2D		y = a * sin(x) / x + Offset
Cardinal Sine Squared (sinc squared) With Offset 2D		y = a * (sin(x))² / x + Offset
Cardinal Sine (sinc) Transform With Offset 2D		y = a * sin(bx + c) / (bx + c) + Offset
Cardinal Sine Squared (sinc squared) Transform With Offset 2D		y = a * (sin(bx + c))² / (bx + c) + Offset
Sine A [radians] With Offset 2D		y = a * sin(x) + Offset
Sine B [radians] With Offset 2D		y = a * sin(b*x) + Offset
Sine C [radians] With Offset 2D		y = a * sin(bx + c) + Offset
Sine D [radians] With Offset 2D		y = a * sin(x + b) + Offset
Tangent A [radians] With Offset 2D		y = a * tan(x) + Offset
Tangent B [radians] With Offset 2D		y = a * tan(b*x) + Offset
Tangent C [radians] With Offset 2D		y = a * tan(bx + c) + Offset
Tangent D [radians] With Offset 2D		y = a * tan(x + b) + Offset



Inverse Hyperbolic Cosine A [radians] 2D		y = x / ( a * cosh(x))
Inverse Hyperbolic Cosine B [radians] 2D		y = x / ( a * cosh(x + b))
Inverse Sine A [radians] 2D		y = x / ( a * sin(x))
Inverse Sine B [radians] 2D		y = x / ( a * sin(b*x))
Inverse Sine C [radians] 2D		y = x / ( a * sin(bx + c))
Inverse Sine D [radians] 2D		y = x / ( a * sin(x + b))
Inverse Tangent A [radians] 2D		y = x / ( a * tan(x))
Inverse Tangent B [radians] 2D		y = x / ( a * tan(b*x))
Inverse Tangent C [radians] 2D		y = x / ( a * tan(bx + c))
Inverse Tangent D [radians] 2D		y = x / ( a * tan(x + b))



Inverse Hyperbolic Cosine A [radians] With Offset 2D		y = x / ( a * cosh(x)) + Offset
Inverse Hyperbolic Cosine B [radians] With Offset 2D		y = x / ( a * cosh(x + b)) + Offset
Inverse Sine A [radians] With Offset 2D		y = x / ( a * sin(x)) + Offset
Inverse Sine B [radians] With Offset 2D		y = x / ( a * sin(b*x)) + Offset
Inverse Sine C [radians] With Offset 2D		y = x / ( a * sin(bx + c)) + Offset
Inverse Sine D [radians] With Offset 2D		y = x / ( a * sin(x + b)) + Offset
Inverse Tangent A [radians] With Offset 2D		y = x / ( a * tan(x)) + Offset
Inverse Tangent B [radians] With Offset 2D		y = x / ( a * tan(b*x)) + Offset
Inverse Tangent C [radians] With Offset 2D		y = x / ( a * tan(bx + c)) + Offset
Inverse Tangent D [radians] With Offset 2D		y = x / ( a * tan(x + b)) + Offset



Reciprocal Hyperbolic Cosine A [radians] 2D		y = 1.0 / ( a * cosh(x))
Reciprocal Hyperbolic Cosine B [radians] 2D		y = 1.0 / ( a * cosh(x + b))
Reciprocal Sine A [radians] 2D		y = 1.0 / ( a * sin(x))
Reciprocal Sine B [radians] 2D		y = 1.0 / ( a * sin(b*x))
Reciprocal Sine C [radians] 2D		y = 1.0 / ( a * sin(bx + c))
Reciprocal Sine D [radians] 2D		y = 1.0 / ( a * sin(x + b))
Reciprocal Tangent A [radians] 2D		y = 1.0 / ( a * tan(x))
Reciprocal Tangent B [radians] 2D		y = 1.0 / ( a * tan(b*x))
Reciprocal Tangent C [radians] 2D		y = 1.0 / ( a * tan(bx + c))
Reciprocal Tangent D [radians] 2D		y = 1.0 / ( a * tan(x + b))



Reciprocal Hyperbolic Cosine A [radians] With Offset 2D		y = 1.0 / ( a * cosh(x)) + Offset
Reciprocal Hyperbolic Cosine B [radians] With Offset 2D		y = 1.0 / ( a * cosh(x + b)) + Offset
Reciprocal Sine A [radians] With Offset 2D		y = 1.0 / ( a * sin(x)) + Offset
Reciprocal Sine B [radians] With Offset 2D		y = 1.0 / ( a * sin(b*x)) + Offset
Reciprocal Sine C [radians] With Offset 2D		y = 1.0 / ( a * sin(bx + c)) + Offset
Reciprocal Sine D [radians] With Offset 2D		y = 1.0 / ( a * sin(x + b)) + Offset
Reciprocal Tangent A [radians] With Offset 2D		y = 1.0 / ( a * tan(x)) + Offset
Reciprocal Tangent B [radians] With Offset 2D		y = 1.0 / ( a * tan(b*x)) + Offset
Reciprocal Tangent C [radians] With Offset 2D		y = 1.0 / ( a * tan(bx + c)) + Offset
Reciprocal Tangent D [radians] With Offset 2D		y = 1.0 / ( a * tan(x + b)) + Offset



Hyperbolic Cosine A [radians] With Exponential Decay 2D		y = ( a * cosh(x)) / (b * exp(x))
Hyperbolic Cosine B [radians] With Exponential Decay 2D		y = ( a * cosh(x + b)) / (c * exp(x))
Hyperbolic Cosine C [radians] With Exponential Decay 2D		y = ( a / cosh(x)) / (b * exp(x))
Hyperbolic Cosine D [radians] With Exponential Decay 2D		y = ( a / cosh(x + b)) / (c * exp(x))
Hyperbolic Cosine D [radians] With Exponential Decay 2D		y = ( a / cosh(x / a)) / (b * exp(x))
Cardinal Sine (sinc) With Exponential Decay 2D		y = ( a * sin(x) / x) / (b * exp(x))
Cardinal Sine Squared (sinc squared) With Exponential Decay 2D		y = ( a * (sin(x))² / x) / (b * exp(x))
Cardinal Sine (sinc) Transform With Exponential Decay 2D		y = ( a * sin(bx + c) / (bx + c)) / (d * exp(x))
Cardinal Sine Squared (sinc squared) Transform With Exponential Decay 2D		y = ( a * (sin(bx + c))² / (bx + c)) / (d * exp(x))
Sine A [radians] With Exponential Decay 2D		y = ( a * sin(x)) / (b * exp(x))
Sine B [radians] With Exponential Decay 2D		y = ( a * sin(bx)) / (c exp(x))
Sine C [radians] With Exponential Decay 2D		y = ( a * sin(bx + c)) / (d * exp(x))
Sine D [radians] With Exponential Decay 2D		y = ( a * sin(x + b)) / (c * exp(x))
Tangent A [radians] With Exponential Decay 2D		y = ( a * tan(x)) / (b * exp(x))
Tangent B [radians] With Exponential Decay 2D		y = ( a * tan(bx)) / (c exp(x))
Tangent C [radians] With Exponential Decay 2D		y = ( a * tan(bx + c)) / (d * exp(x))
Tangent D [radians] With Exponential Decay 2D		y = ( a * tan(x + b)) / (c * exp(x))



Hyperbolic Cosine A [radians] With Exponential Decay And Offset 2D		y = ( a * cosh(x)) / (b * exp(x)) + Offset
Hyperbolic Cosine B [radians] With Exponential Decay And Offset 2D		y = ( a * cosh(x + b)) / (c * exp(x)) + Offset
Hyperbolic Cosine C [radians] With Exponential Decay And Offset 2D		y = ( a / cosh(x)) / (b * exp(x)) + Offset
Hyperbolic Cosine D [radians] With Exponential Decay And Offset 2D		y = ( a / cosh(x + b)) / (c * exp(x)) + Offset
Hyperbolic Cosine D [radians] With Exponential Decay And Offset 2D		y = ( a / cosh(x / a)) / (b * exp(x)) + Offset
Cardinal Sine (sinc) With Exponential Decay And Offset 2D		y = ( a * sin(x) / x) / (b * exp(x)) + Offset
Cardinal Sine Squared (sinc squared) With Exponential Decay And Offset 2D		y = ( a * (sin(x))² / x) / (b * exp(x)) + Offset
Cardinal Sine (sinc) Transform With Exponential Decay And Offset 2D		y = ( a * sin(bx + c) / (bx + c)) / (d * exp(x)) + Offset
Cardinal Sine Squared (sinc squared) Transform With Exponential Decay And Offset 2D		y = ( a * (sin(bx + c))² / (bx + c)) / (d * exp(x)) + Offset
Sine A [radians] With Exponential Decay And Offset 2D		y = ( a * sin(x)) / (b * exp(x)) + Offset
Sine B [radians] With Exponential Decay And Offset 2D		y = ( a * sin(bx)) / (c exp(x)) + Offset
Sine C [radians] With Exponential Decay And Offset 2D		y = ( a * sin(bx + c)) / (d * exp(x)) + Offset
Sine D [radians] With Exponential Decay And Offset 2D		y = ( a * sin(x + b)) / (c * exp(x)) + Offset
Tangent A [radians] With Exponential Decay And Offset 2D		y = ( a * tan(x)) / (b * exp(x)) + Offset
Tangent B [radians] With Exponential Decay And Offset 2D		y = ( a * tan(bx)) / (c exp(x)) + Offset
Tangent C [radians] With Exponential Decay And Offset 2D		y = ( a * tan(bx + c)) / (d * exp(x)) + Offset
Tangent D [radians] With Exponential Decay And Offset 2D		y = ( a * tan(x + b)) / (c * exp(x)) + Offset



Hyperbolic Cosine A [radians] With Exponential Growth 2D		y = ( a * cosh(x)) * (b * exp(x))
Hyperbolic Cosine B [radians] With Exponential Growth 2D		y = ( a * cosh(x + b)) * (c * exp(x))
Hyperbolic Cosine C [radians] With Exponential Growth 2D		y = ( a / cosh(x)) * (b * exp(x))
Hyperbolic Cosine D [radians] With Exponential Growth 2D		y = ( a / cosh(x + b)) * (c * exp(x))
Hyperbolic Cosine D [radians] With Exponential Growth 2D		y = ( a / cosh(x / a)) * (b * exp(x))
Cardinal Sine (sinc) With Exponential Growth 2D		y = ( a * sin(x) / x) * (b * exp(x))
Cardinal Sine Squared (sinc squared) With Exponential Growth 2D		y = ( a * (sin(x))² / x) * (b * exp(x))
Cardinal Sine (sinc) Transform With Exponential Growth 2D		y = ( a * sin(bx + c) / (bx + c)) * (d * exp(x))
Cardinal Sine Squared (sinc squared) Transform With Exponential Growth 2D		y = ( a * (sin(bx + c))² / (bx + c)) * (d * exp(x))
Sine A [radians] With Exponential Growth 2D		y = ( a * sin(x)) * (b * exp(x))
Sine B [radians] With Exponential Growth 2D		y = ( a * sin(bx)) (c * exp(x))
Sine C [radians] With Exponential Growth 2D		y = ( a * sin(bx + c)) * (d * exp(x))
Sine D [radians] With Exponential Growth 2D		y = ( a * sin(x + b)) * (c * exp(x))
Tangent A [radians] With Exponential Growth 2D		y = ( a * tan(x)) * (b * exp(x))
Tangent B [radians] With Exponential Growth 2D		y = ( a * tan(bx)) (c * exp(x))
Tangent C [radians] With Exponential Growth 2D		y = ( a * tan(bx + c)) * (d * exp(x))
Tangent D [radians] With Exponential Growth 2D		y = ( a * tan(x + b)) * (c * exp(x))



Hyperbolic Cosine A [radians] With Exponential Growth And Offset 2D		y = ( a * cosh(x)) * (b * exp(x)) + Offset
Hyperbolic Cosine B [radians] With Exponential Growth And Offset 2D		y = ( a * cosh(x + b)) * (c * exp(x)) + Offset
Hyperbolic Cosine C [radians] With Exponential Growth And Offset 2D		y = ( a / cosh(x)) * (b * exp(x)) + Offset
Hyperbolic Cosine D [radians] With Exponential Growth And Offset 2D		y = ( a / cosh(x + b)) * (c * exp(x)) + Offset
Hyperbolic Cosine D [radians] With Exponential Growth And Offset 2D		y = ( a / cosh(x / a)) * (b * exp(x)) + Offset
Cardinal Sine (sinc) With Exponential Growth And Offset 2D		y = ( a * sin(x) / x) * (b * exp(x)) + Offset
Cardinal Sine Squared (sinc squared) With Exponential Growth And Offset 2D		y = ( a * (sin(x))² / x) * (b * exp(x)) + Offset
Cardinal Sine (sinc) Transform With Exponential Growth And Offset 2D		y = ( a * sin(bx + c) / (bx + c)) * (d * exp(x)) + Offset
Cardinal Sine Squared (sinc squared) Transform With Exponential Growth And Offset 2D		y = ( a * (sin(bx + c))² / (bx + c)) * (d * exp(x)) + Offset
Sine A [radians] With Exponential Growth And Offset 2D		y = ( a * sin(x)) * (b * exp(x)) + Offset
Sine B [radians] With Exponential Growth And Offset 2D		y = ( a * sin(bx)) (c * exp(x)) + Offset
Sine C [radians] With Exponential Growth And Offset 2D		y = ( a * sin(bx + c)) * (d * exp(x)) + Offset
Sine D [radians] With Exponential Growth And Offset 2D		y = ( a * sin(x + b)) * (c * exp(x)) + Offset
Tangent A [radians] With Exponential Growth And Offset 2D		y = ( a * tan(x)) * (b * exp(x)) + Offset
Tangent B [radians] With Exponential Growth And Offset 2D		y = ( a * tan(bx)) (c * exp(x)) + Offset
Tangent C [radians] With Exponential Growth And Offset 2D		y = ( a * tan(bx + c)) * (d * exp(x)) + Offset
Tangent D [radians] With Exponential Growth And Offset 2D		y = ( a * tan(x + b)) * (c * exp(x)) + Offset



Hyperbolic Cosine A [radians] With Linear Decay 2D		y = ( a * cosh(x)) / (b * x)
Hyperbolic Cosine B [radians] With Linear Decay 2D		y = ( a * cosh(x + b)) / (c * x)
Hyperbolic Cosine C [radians] With Linear Decay 2D		y = ( a / cosh(x)) / (b * x)
Hyperbolic Cosine D [radians] With Linear Decay 2D		y = ( a / cosh(x + b)) / (c * x)
Hyperbolic Cosine D [radians] With Linear Decay 2D		y = ( a / cosh(x / a)) / (b * x)
Cardinal Sine (sinc) With Linear Decay 2D		y = ( a * sin(x) / x) / (b * x)
Cardinal Sine Squared (sinc squared) With Linear Decay 2D		y = ( a * (sin(x))² / x) / (b * x)
Cardinal Sine (sinc) Transform With Linear Decay 2D		y = ( a * sin(bx + c) / (bx + c)) / (d * x)
Cardinal Sine Squared (sinc squared) Transform With Linear Decay 2D		y = ( a * (sin(bx + c))² / (bx + c)) / (d * x)
Sine A [radians] With Linear Decay 2D		y = ( a * sin(x)) / (b * x)
Sine B [radians] With Linear Decay 2D		y = ( a * sin(bx)) / (c x)
Sine C [radians] With Linear Decay 2D		y = ( a * sin(bx + c)) / (d * x)
Sine D [radians] With Linear Decay 2D		y = ( a * sin(x + b)) / (c * x)
Tangent A [radians] With Linear Decay 2D		y = ( a * tan(x)) / (b * x)
Tangent B [radians] With Linear Decay 2D		y = ( a * tan(bx)) / (c x)
Tangent C [radians] With Linear Decay 2D		y = ( a * tan(bx + c)) / (d * x)
Tangent D [radians] With Linear Decay 2D		y = ( a * tan(x + b)) / (c * x)



Hyperbolic Cosine A [radians] With Linear Decay And Offset 2D		y = ( a * cosh(x)) / (b * x) + Offset
Hyperbolic Cosine B [radians] With Linear Decay And Offset 2D		y = ( a * cosh(x + b)) / (c * x) + Offset
Hyperbolic Cosine C [radians] With Linear Decay And Offset 2D		y = ( a / cosh(x)) / (b * x) + Offset
Hyperbolic Cosine D [radians] With Linear Decay And Offset 2D		y = ( a / cosh(x + b)) / (c * x) + Offset
Hyperbolic Cosine D [radians] With Linear Decay And Offset 2D		y = ( a / cosh(x / a)) / (b * x) + Offset
Cardinal Sine (sinc) With Linear Decay And Offset 2D		y = ( a * sin(x) / x) / (b * x) + Offset
Cardinal Sine Squared (sinc squared) With Linear Decay And Offset 2D		y = ( a * (sin(x))² / x) / (b * x) + Offset
Cardinal Sine (sinc) Transform With Linear Decay And Offset 2D		y = ( a * sin(bx + c) / (bx + c)) / (d * x) + Offset
Cardinal Sine Squared (sinc squared) Transform With Linear Decay And Offset 2D		y = ( a * (sin(bx + c))² / (bx + c)) / (d * x) + Offset
Sine A [radians] With Linear Decay And Offset 2D		y = ( a * sin(x)) / (b * x) + Offset
Sine B [radians] With Linear Decay And Offset 2D		y = ( a * sin(bx)) / (c x) + Offset
Sine C [radians] With Linear Decay And Offset 2D		y = ( a * sin(bx + c)) / (d * x) + Offset
Sine D [radians] With Linear Decay And Offset 2D		y = ( a * sin(x + b)) / (c * x) + Offset
Tangent A [radians] With Linear Decay And Offset 2D		y = ( a * tan(x)) / (b * x) + Offset
Tangent B [radians] With Linear Decay And Offset 2D		y = ( a * tan(bx)) / (c x) + Offset
Tangent C [radians] With Linear Decay And Offset 2D		y = ( a * tan(bx + c)) / (d * x) + Offset
Tangent D [radians] With Linear Decay And Offset 2D		y = ( a * tan(x + b)) / (c * x) + Offset



Hyperbolic Cosine A [radians] With Linear Growth 2D		y = ( a * cosh(x)) * (b * x)
Hyperbolic Cosine B [radians] With Linear Growth 2D		y = ( a * cosh(x + b)) * (c * x)
Hyperbolic Cosine C [radians] With Linear Growth 2D		y = ( a / cosh(x)) * (b * x)
Hyperbolic Cosine D [radians] With Linear Growth 2D		y = ( a / cosh(x + b)) * (c * x)
Hyperbolic Cosine D [radians] With Linear Growth 2D		y = ( a / cosh(x / a)) * (b * x)
Cardinal Sine (sinc) With Linear Growth 2D		y = ( a * sin(x) / x) * (b * x)
Cardinal Sine Squared (sinc squared) With Linear Growth 2D		y = ( a * (sin(x))² / x) * (b * x)
Cardinal Sine (sinc) Transform With Linear Growth 2D		y = ( a * sin(bx + c) / (bx + c)) * (d * x)
Cardinal Sine Squared (sinc squared) Transform With Linear Growth 2D		y = ( a * (sin(bx + c))² / (bx + c)) * (d * x)
Sine A [radians] With Linear Growth 2D		y = ( a * sin(x)) * (b * x)
Sine B [radians] With Linear Growth 2D		y = ( a * sin(bx)) (c * x)
Sine C [radians] With Linear Growth 2D		y = ( a * sin(bx + c)) * (d * x)
Sine D [radians] With Linear Growth 2D		y = ( a * sin(x + b)) * (c * x)
Tangent A [radians] With Linear Growth 2D		y = ( a * tan(x)) * (b * x)
Tangent B [radians] With Linear Growth 2D		y = ( a * tan(bx)) (c * x)
Tangent C [radians] With Linear Growth 2D		y = ( a * tan(bx + c)) * (d * x)
Tangent D [radians] With Linear Growth 2D		y = ( a * tan(x + b)) * (c * x)



Hyperbolic Cosine A [radians] With Linear Growth And Offset 2D		y = ( a * cosh(x)) * (b * x) + Offset
Hyperbolic Cosine B [radians] With Linear Growth And Offset 2D		y = ( a * cosh(x + b)) * (c * x) + Offset
Hyperbolic Cosine C [radians] With Linear Growth And Offset 2D		y = ( a / cosh(x)) * (b * x) + Offset
Hyperbolic Cosine D [radians] With Linear Growth And Offset 2D		y = ( a / cosh(x + b)) * (c * x) + Offset
Hyperbolic Cosine D [radians] With Linear Growth And Offset 2D		y = ( a / cosh(x / a)) * (b * x) + Offset
Cardinal Sine (sinc) With Linear Growth And Offset 2D		y = ( a * sin(x) / x) * (b * x) + Offset
Cardinal Sine Squared (sinc squared) With Linear Growth And Offset 2D		y = ( a * (sin(x))² / x) * (b * x) + Offset
Cardinal Sine (sinc) Transform With Linear Growth And Offset 2D		y = ( a * sin(bx + c) / (bx + c)) * (d * x) + Offset
Cardinal Sine Squared (sinc squared) Transform With Linear Growth And Offset 2D		y = ( a * (sin(bx + c))² / (bx + c)) * (d * x) + Offset
Sine A [radians] With Linear Growth And Offset 2D		y = ( a * sin(x)) * (b * x) + Offset
Sine B [radians] With Linear Growth And Offset 2D		y = ( a * sin(bx)) (c * x) + Offset
Sine C [radians] With Linear Growth And Offset 2D		y = ( a * sin(bx + c)) * (d * x) + Offset
Sine D [radians] With Linear Growth And Offset 2D		y = ( a * sin(x + b)) * (c * x) + Offset
Tangent A [radians] With Linear Growth And Offset 2D		y = ( a * tan(x)) * (b * x) + Offset
Tangent B [radians] With Linear Growth And Offset 2D		y = ( a * tan(bx)) (c * x) + Offset
Tangent C [radians] With Linear Growth And Offset 2D		y = ( a * tan(bx + c)) * (d * x) + Offset
Tangent D [radians] With Linear Growth And Offset 2D		y = ( a * tan(x + b)) * (c * x) + Offset

Bleasdale 2D		y = 1.0 / (a + bx)^(-1.0/c)
Extended Holliday 2D		y = a / (a + bx + cx²)
Harris 2D		y = 1.0 / (a + bx^c)
Holliday 2D		y = 1.0 / (a + bx + cx²)
Inverse Bleasdale 2D		y = x / (a + bx)^(-1.0/c)
InverseHarris 2D		y = x / (a + bx^c)



Extended Holliday With Offset 2D		y = a / (a + bx + cx²) + Offset
Inverse Bleasdale With Offset 2D		y = x / (a + bx)^(-1.0/c) + Offset
InverseHarris With Offset 2D		y = x / (a + bx^c) + Offset



Bleasdale With Exponential Decay 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) / (d * exp(x))
Extended Holliday With Exponential Decay 2D		y = ( a / (a + bx + cx²)) / (d * exp(x))
Harris With Exponential Decay 2D		y = ( 1.0 / (a + bx^c)) / (d * exp(x))
Holliday With Exponential Decay 2D		y = ( 1.0 / (a + bx + cx²)) / (d * exp(x))
Inverse Bleasdale With Exponential Decay 2D		y = ( x / (a + bx)^(-1.0/c)) / (d * exp(x))
InverseHarris With Exponential Decay 2D		y = ( x / (a + bx^c)) / (d * exp(x))



Bleasdale With Exponential Decay And Offset 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) / (d * exp(x)) + Offset
Extended Holliday With Exponential Decay And Offset 2D		y = ( a / (a + bx + cx²)) / (d * exp(x)) + Offset
Harris With Exponential Decay And Offset 2D		y = ( 1.0 / (a + bx^c)) / (d * exp(x)) + Offset
Holliday With Exponential Decay And Offset 2D		y = ( 1.0 / (a + bx + cx²)) / (d * exp(x)) + Offset
Inverse Bleasdale With Exponential Decay And Offset 2D		y = ( x / (a + bx)^(-1.0/c)) / (d * exp(x)) + Offset
InverseHarris With Exponential Decay And Offset 2D		y = ( x / (a + bx^c)) / (d * exp(x)) + Offset



Bleasdale With Exponential Growth 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) * (d * exp(x))
Extended Holliday With Exponential Growth 2D		y = ( a / (a + bx + cx²)) * (d * exp(x))
Harris With Exponential Growth 2D		y = ( 1.0 / (a + bx^c)) * (d * exp(x))
Holliday With Exponential Growth 2D		y = ( 1.0 / (a + bx + cx²)) * (d * exp(x))
Inverse Bleasdale With Exponential Growth 2D		y = ( x / (a + bx)^(-1.0/c)) * (d * exp(x))
InverseHarris With Exponential Growth 2D		y = ( x / (a + bx^c)) * (d * exp(x))



Bleasdale With Exponential Growth And Offset 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) * (d * exp(x)) + Offset
Extended Holliday With Exponential Growth And Offset 2D		y = ( a / (a + bx + cx²)) * (d * exp(x)) + Offset
Harris With Exponential Growth And Offset 2D		y = ( 1.0 / (a + bx^c)) * (d * exp(x)) + Offset
Holliday With Exponential Growth And Offset 2D		y = ( 1.0 / (a + bx + cx²)) * (d * exp(x)) + Offset
Inverse Bleasdale With Exponential Growth And Offset 2D		y = ( x / (a + bx)^(-1.0/c)) * (d * exp(x)) + Offset
InverseHarris With Exponential Growth And Offset 2D		y = ( x / (a + bx^c)) * (d * exp(x)) + Offset



Bleasdale With Linear Decay 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) / (d * x)
Extended Holliday With Linear Decay 2D		y = ( a / (a + bx + cx²)) / (d * x)
Harris With Linear Decay 2D		y = ( 1.0 / (a + bx^c)) / (d * x)
Holliday With Linear Decay 2D		y = ( 1.0 / (a + bx + cx²)) / (d * x)
Inverse Bleasdale With Linear Decay 2D		y = ( x / (a + bx)^(-1.0/c)) / (d * x)
InverseHarris With Linear Decay 2D		y = ( x / (a + bx^c)) / (d * x)



Bleasdale With Linear Decay And Offset 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) / (d * x) + Offset
Extended Holliday With Linear Decay And Offset 2D		y = ( a / (a + bx + cx²)) / (d * x) + Offset
Harris With Linear Decay And Offset 2D		y = ( 1.0 / (a + bx^c)) / (d * x) + Offset
Holliday With Linear Decay And Offset 2D		y = ( 1.0 / (a + bx + cx²)) / (d * x) + Offset
Inverse Bleasdale With Linear Decay And Offset 2D		y = ( x / (a + bx)^(-1.0/c)) / (d * x) + Offset
InverseHarris With Linear Decay And Offset 2D		y = ( x / (a + bx^c)) / (d * x) + Offset



Bleasdale With Linear Growth 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) * (d * x)
Extended Holliday With Linear Growth 2D		y = ( a / (a + bx + cx²)) * (d * x)
Harris With Linear Growth 2D		y = ( 1.0 / (a + bx^c)) * (d * x)
Holliday With Linear Growth 2D		y = ( 1.0 / (a + bx + cx²)) * (d * x)
Inverse Bleasdale With Linear Growth 2D		y = ( x / (a + bx)^(-1.0/c)) * (d * x)
InverseHarris With Linear Growth 2D		y = ( x / (a + bx^c)) * (d * x)



Bleasdale With Linear Growth And Offset 2D		y = ( 1.0 / (a + bx)^(-1.0/c)) * (d * x) + Offset
Extended Holliday With Linear Growth And Offset 2D		y = ( a / (a + bx + cx²)) * (d * x) + Offset
Harris With Linear Growth And Offset 2D		y = ( 1.0 / (a + bx^c)) * (d * x) + Offset
Holliday With Linear Growth And Offset 2D		y = ( 1.0 / (a + bx + cx²)) * (d * x) + Offset
Inverse Bleasdale With Linear Growth And Offset 2D		y = ( x / (a + bx)^(-1.0/c)) * (d * x) + Offset
InverseHarris With Linear Growth And Offset 2D		y = ( x / (a + bx^c)) * (d * x) + Offset

Chen-Clayton 3D		r.h.(T_k,M) = exp(-(C1/T^C2) * exp(-C3T^C4M)) [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) 3D		z = aby / (1+b(x+y)) + cdy / (1+d(x+y))
High-Low Affinity Isotope Displacement (y = [Hot]) 3D		z = aby / (1+b(x+y))
Logistic Growth 3D		z = a / (1 + exp(-(b + cx + dy + exy))) + f
Michaelis-Menten Double Isotope Displacement (y = [Hot]) 3D		z = ay / (b + x + y) + cy / (d + x + y)
Michaelis-Menten Isotope Displacement (y = [Hot]) 3D		z = ay / (b + x + y)
Modified Chung-Pfost 3D		r.h.(T,M) = exp(-(C1/(T+C2)) * exp(-C3*M)) [web citation]
Modified Halsey 3D		r.h.(T,M) = exp(-exp(C1 + C2T) M^-C3) [web citation]
Modified Henderson 3D		r.h.(T,M) = 1 - exp(-C1 * (T + C2) * M^C3) [web citation]
Strohman-Yoerger 3D		r.h.(P_s,M) = exp(C1exp(-C2M)ln(P_s) - C3exp(-C4*M)) [web citation]



Chen-Clayton With Offset 3D		r.h.(T_k,M) = exp(-(C1/T^C2) * exp(-C3T^C4M)) + Offset [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With Offset 3D		z = aby / (1+b(x+y)) + cdy / (1+d(x+y)) + Offset
High-Low Affinity Isotope Displacement (y = [Hot]) With Offset 3D		z = aby / (1+b(x+y)) + Offset
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With Offset 3D		z = ay / (b + x + y) + cy / (d + x + y) + Offset
Michaelis-Menten Isotope Displacement (y = [Hot]) With Offset 3D		z = ay / (b + x + y) + Offset
Modified Chung-Pfost With Offset 3D		r.h.(T,M) = exp(-(C1/(T+C2)) * exp(-C3*M)) + Offset [web citation]
Modified Halsey With Offset 3D		r.h.(T,M) = exp(-exp(C1 + C2T) M^-C3) + Offset [web citation]
Modified Henderson With Offset 3D		r.h.(T,M) = 1 - exp(-C1 * (T + C2) * M^C3) + Offset [web citation]
Strohman-Yoerger With Offset 3D		r.h.(P_s,M) = exp(C1exp(-C2M)ln(P_s) - C3exp(-C4*M)) + Offset [web citation]



Inverse Chen-Clayton 3D		r.h.(T_k,M) = xy / ( exp(-(C1/T^C2) * exp(-C3T^C4M))) [web citation]
Inverse High-Low Affinity Double Isotope Displacement (y = [Hot]) 3D		z = xy / ( aby / (1+b(x+y)) + cdy / (1+d(x+y)))
Inverse High-Low Affinity Isotope Displacement (y = [Hot]) 3D		z = xy / ( aby / (1+b(x+y)))
Inverse Michaelis-Menten Double Isotope Displacement (y = [Hot]) 3D		z = xy / ( ay / (b + x + y) + cy / (d + x + y))
Inverse Michaelis-Menten Isotope Displacement (y = [Hot]) 3D		z = xy / ( ay / (b + x + y))
Inverse Modified Chung-Pfost 3D		r.h.(T,M) = xy / ( exp(-(C1/(T+C2)) * exp(-C3*M))) [web citation]
Inverse Modified Halsey 3D		r.h.(T,M) = xy / ( exp(-exp(C1 + C2T) M^-C3)) [web citation]
Inverse Modified Henderson 3D		r.h.(T,M) = xy / ( 1 - exp(-C1 * (T + C2) * M^C3)) [web citation]
Inverse Strohman-Yoerger 3D		r.h.(P_s,M) = xy / ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4*M))) [web citation]



Inverse Chen-Clayton With Offset 3D		r.h.(T_k,M) = xy / ( exp(-(C1/T^C2) * exp(-C3T^C4M))) + Offset [web citation]
Inverse High-Low Affinity Double Isotope Displacement (y = [Hot]) With Offset 3D		z = xy / ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) + Offset
Inverse High-Low Affinity Isotope Displacement (y = [Hot]) With Offset 3D		z = xy / ( aby / (1+b(x+y))) + Offset
Inverse Michaelis-Menten Double Isotope Displacement (y = [Hot]) With Offset 3D		z = xy / ( ay / (b + x + y) + cy / (d + x + y)) + Offset
Inverse Michaelis-Menten Isotope Displacement (y = [Hot]) With Offset 3D		z = xy / ( ay / (b + x + y)) + Offset
Inverse Modified Chung-Pfost With Offset 3D		r.h.(T,M) = xy / ( exp(-(C1/(T+C2)) * exp(-C3*M))) + Offset [web citation]
Inverse Modified Halsey With Offset 3D		r.h.(T,M) = xy / ( exp(-exp(C1 + C2T) M^-C3)) + Offset [web citation]
Inverse Modified Henderson With Offset 3D		r.h.(T,M) = xy / ( 1 - exp(-C1 * (T + C2) * M^C3)) + Offset [web citation]
Inverse Strohman-Yoerger With Offset 3D		r.h.(P_s,M) = xy / ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4*M))) + Offset [web citation]



Reciprocal Chen-Clayton 3D		r.h.(T_k,M) = 1.0 / ( exp(-(C1/T^C2) * exp(-C3T^C4M))) [web citation]
Reciprocal High-Low Affinity Double Isotope Displacement (y = [Hot]) 3D		z = 1.0 / ( aby / (1+b(x+y)) + cdy / (1+d(x+y)))
Reciprocal High-Low Affinity Isotope Displacement (y = [Hot]) 3D		z = 1.0 / ( aby / (1+b(x+y)))
Reciprocal Michaelis-Menten Double Isotope Displacement (y = [Hot]) 3D		z = 1.0 / ( ay / (b + x + y) + cy / (d + x + y))
Reciprocal Michaelis-Menten Isotope Displacement (y = [Hot]) 3D		z = 1.0 / ( ay / (b + x + y))
Reciprocal Modified Chung-Pfost 3D		r.h.(T,M) = 1.0 / ( exp(-(C1/(T+C2)) * exp(-C3*M))) [web citation]
Reciprocal Modified Halsey 3D		r.h.(T,M) = 1.0 / ( exp(-exp(C1 + C2T) M^-C3)) [web citation]
Reciprocal Modified Henderson 3D		r.h.(T,M) = 1.0 / ( 1 - exp(-C1 * (T + C2) * M^C3)) [web citation]
Reciprocal Strohman-Yoerger 3D		r.h.(P_s,M) = 1.0 / ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4*M))) [web citation]



Reciprocal Chen-Clayton With Offset 3D		r.h.(T_k,M) = 1.0 / ( exp(-(C1/T^C2) * exp(-C3T^C4M))) + Offset [web citation]
Reciprocal High-Low Affinity Double Isotope Displacement (y = [Hot]) With Offset 3D		z = 1.0 / ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) + Offset
Reciprocal High-Low Affinity Isotope Displacement (y = [Hot]) With Offset 3D		z = 1.0 / ( aby / (1+b(x+y))) + Offset
Reciprocal Michaelis-Menten Double Isotope Displacement (y = [Hot]) With Offset 3D		z = 1.0 / ( ay / (b + x + y) + cy / (d + x + y)) + Offset
Reciprocal Michaelis-Menten Isotope Displacement (y = [Hot]) With Offset 3D		z = 1.0 / ( ay / (b + x + y)) + Offset
Reciprocal Modified Chung-Pfost With Offset 3D		r.h.(T,M) = 1.0 / ( exp(-(C1/(T+C2)) * exp(-C3*M))) + Offset [web citation]
Reciprocal Modified Halsey With Offset 3D		r.h.(T,M) = 1.0 / ( exp(-exp(C1 + C2T) M^-C3)) + Offset [web citation]
Reciprocal Modified Henderson With Offset 3D		r.h.(T,M) = 1.0 / ( 1 - exp(-C1 * (T + C2) * M^C3)) + Offset [web citation]
Reciprocal Strohman-Yoerger With Offset 3D		r.h.(P_s,M) = 1.0 / ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4*M))) + Offset [web citation]



Chen-Clayton With XY Exponential Decay 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) / (e * exp(x*y)) [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Exponential Decay 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) / (e * exp(x*y))
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Exponential Decay 3D		z = ( aby / (1+b(x+y))) / (c * exp(x*y))
Logistic Growth With XY Exponential Decay 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) / (g * exp(x*y))
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Exponential Decay 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) / (e * exp(x*y))
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Exponential Decay 3D		z = ( ay / (b + x + y)) / (c * exp(x*y))
Modified Chung-Pfost With XY Exponential Decay 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) / (d exp(x*y)) [web citation]
Modified Halsey With XY Exponential Decay 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) / (d * exp(x*y)) [web citation]
Modified Henderson With XY Exponential Decay 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) / (d * exp(x*y)) [web citation]
Strohman-Yoerger With XY Exponential Decay 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) / (e exp(x*y)) [web citation]



Chen-Clayton With XY Exponential Decay And Offset 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) / (e * exp(x*y)) + Offset [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Exponential Decay And Offset 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) / (e * exp(x*y)) + Offset
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Exponential Decay And Offset 3D		z = ( aby / (1+b(x+y))) / (c * exp(x*y)) + Offset
Logistic Growth With XY Exponential Decay And Offset 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) / (g * exp(x*y)) + Offset
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Exponential Decay And Offset 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) / (e * exp(x*y)) + Offset
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Exponential Decay And Offset 3D		z = ( ay / (b + x + y)) / (c * exp(x*y)) + Offset
Modified Chung-Pfost With XY Exponential Decay And Offset 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) / (d exp(x*y)) + Offset [web citation]
Modified Halsey With XY Exponential Decay And Offset 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) / (d * exp(x*y)) + Offset [web citation]
Modified Henderson With XY Exponential Decay And Offset 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) / (d * exp(x*y)) + Offset [web citation]
Strohman-Yoerger With XY Exponential Decay And Offset 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) / (e exp(x*y)) + Offset [web citation]



Chen-Clayton With XY Exponential Growth 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) * (e * exp(x*y)) [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Exponential Growth 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) * (e * exp(x*y))
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Exponential Growth 3D		z = ( aby / (1+b(x+y))) * (c * exp(x*y))
Logistic Growth With XY Exponential Growth 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) * (g * exp(x*y))
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Exponential Growth 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) * (e * exp(x*y))
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Exponential Growth 3D		z = ( ay / (b + x + y)) * (c * exp(x*y))
Modified Chung-Pfost With XY Exponential Growth 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) (d * exp(x*y)) [web citation]
Modified Halsey With XY Exponential Growth 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) * (d * exp(x*y)) [web citation]
Modified Henderson With XY Exponential Growth 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) * (d * exp(x*y)) [web citation]
Strohman-Yoerger With XY Exponential Growth 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) (e * exp(x*y)) [web citation]



Chen-Clayton With XY Exponential Growth And Offset 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) * (e * exp(x*y)) + Offset [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Exponential Growth And Offset 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) * (e * exp(x*y)) + Offset
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Exponential Growth And Offset 3D		z = ( aby / (1+b(x+y))) * (c * exp(x*y)) + Offset
Logistic Growth With XY Exponential Growth And Offset 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) * (g * exp(x*y)) + Offset
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Exponential Growth And Offset 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) * (e * exp(x*y)) + Offset
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Exponential Growth And Offset 3D		z = ( ay / (b + x + y)) * (c * exp(x*y)) + Offset
Modified Chung-Pfost With XY Exponential Growth And Offset 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) (d * exp(x*y)) + Offset [web citation]
Modified Halsey With XY Exponential Growth And Offset 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) * (d * exp(x*y)) + Offset [web citation]
Modified Henderson With XY Exponential Growth And Offset 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) * (d * exp(x*y)) + Offset [web citation]
Strohman-Yoerger With XY Exponential Growth And Offset 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) (e * exp(x*y)) + Offset [web citation]



Chen-Clayton With XY Linear Decay 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) / (e * x * y) [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Linear Decay 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) / (e * x * y)
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Linear Decay 3D		z = ( aby / (1+b(x+y))) / (c * x * y)
Logistic Growth With XY Linear Decay 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) / (g * x * y)
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Linear Decay 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) / (e * x * y)
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Linear Decay 3D		z = ( ay / (b + x + y)) / (c * x * y)
Modified Chung-Pfost With XY Linear Decay 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) / (d x * y) [web citation]
Modified Halsey With XY Linear Decay 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) / (d * x * y) [web citation]
Modified Henderson With XY Linear Decay 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) / (d * x * y) [web citation]
Strohman-Yoerger With XY Linear Decay 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) / (e x * y) [web citation]



Chen-Clayton With XY Linear Decay And Offset 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) / (e * x * y) + Offset [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Linear Decay And Offset 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) / (e * x * y) + Offset
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Linear Decay And Offset 3D		z = ( aby / (1+b(x+y))) / (c * x * y) + Offset
Logistic Growth With XY Linear Decay And Offset 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) / (g * x * y) + Offset
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Linear Decay And Offset 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) / (e * x * y) + Offset
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Linear Decay And Offset 3D		z = ( ay / (b + x + y)) / (c * x * y) + Offset
Modified Chung-Pfost With XY Linear Decay And Offset 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) / (d x * y) + Offset [web citation]
Modified Halsey With XY Linear Decay And Offset 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) / (d * x * y) + Offset [web citation]
Modified Henderson With XY Linear Decay And Offset 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) / (d * x * y) + Offset [web citation]
Strohman-Yoerger With XY Linear Decay And Offset 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) / (e x * y) + Offset [web citation]



Chen-Clayton With XY Linear Growth 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) * (e * x * y) [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Linear Growth 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) * (e * x * y)
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Linear Growth 3D		z = ( aby / (1+b(x+y))) * (c * x * y)
Logistic Growth With XY Linear Growth 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) * (g * x * y)
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Linear Growth 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) * (e * x * y)
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Linear Growth 3D		z = ( ay / (b + x + y)) * (c * x * y)
Modified Chung-Pfost With XY Linear Growth 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) (d * x * y) [web citation]
Modified Halsey With XY Linear Growth 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) * (d * x * y) [web citation]
Modified Henderson With XY Linear Growth 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) * (d * x * y) [web citation]
Strohman-Yoerger With XY Linear Growth 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) (e * x * y) [web citation]



Chen-Clayton With XY Linear Growth And Offset 3D		r.h.(T_k,M) = ( exp(-(C1/T^C2) * exp(-C3T^C4M))) * (e * x * y) + Offset [web citation]
High-Low Affinity Double Isotope Displacement (y = [Hot]) With XY Linear Growth And Offset 3D		z = ( aby / (1+b(x+y)) + cdy / (1+d(x+y))) * (e * x * y) + Offset
High-Low Affinity Isotope Displacement (y = [Hot]) With XY Linear Growth And Offset 3D		z = ( aby / (1+b(x+y))) * (c * x * y) + Offset
Logistic Growth With XY Linear Growth And Offset 3D		z = ( a / (1 + exp(-(b + cx + dy + exy))) + f) * (g * x * y) + Offset
Michaelis-Menten Double Isotope Displacement (y = [Hot]) With XY Linear Growth And Offset 3D		z = ( ay / (b + x + y) + cy / (d + x + y)) * (e * x * y) + Offset
Michaelis-Menten Isotope Displacement (y = [Hot]) With XY Linear Growth And Offset 3D		z = ( ay / (b + x + y)) * (c * x * y) + Offset
Modified Chung-Pfost With XY Linear Growth And Offset 3D		r.h.(T,M) = ( exp(-(C1/(T+C2)) * exp(-C3M))) (d * x * y) + Offset [web citation]
Modified Halsey With XY Linear Growth And Offset 3D		r.h.(T,M) = ( exp(-exp(C1 + C2T) M^-C3)) * (d * x * y) + Offset [web citation]
Modified Henderson With XY Linear Growth And Offset 3D		r.h.(T,M) = ( 1 - exp(-C1 * (T + C2) * M^C3)) * (d * x * y) + Offset [web citation]
Strohman-Yoerger With XY Linear Growth And Offset 3D		r.h.(P_s,M) = ( exp(C1exp(-C2M)ln(P_s) - C3exp(-C4M))) (e * x * y) + Offset [web citation]

Competitive Inhibition A 3D		z = ax / (b(1 + y/c) + x)
Competitive Inhibition B 3D		z = ay / (b(1 + x/c) + y)
Inhibition By Competing Substrate A 3D		z = (ax/b) / (1 + x/b + y/c)
Inhibition By Competing Substrate B 3D		z = (ay/b) / (1 + y/b + x/c)
Michaelis Menten Product Inhibition 3D		z = (ax/b - cy/d) / (1 + x/b + y/d)
Mixed Inhibition A 3D		z = ax / (b(1 + y/c) + x(1 + y/d))
Mixed Inhibition B 3D		z = ay / (b(1 + x/c) + y(1 + x/d))
Noncompetitive Inhibition A 3D		z = ax / ((b + x)(1 + y/c))
Noncompetitive Inhibition B 3D		z = ay / ((b + y)(1 + x/c))
Ping Pong Bi Bi A 3D		z = ax / (bx + cy + xy)
Ping Pong Bi Bi B 3D		z = ay / (by + cx + xy)
Uncompetitive Inhibition A 3D		z = ax / (b + x(1 + y/c))
Uncompetitive Inhibition B 3D		z = ay / (b + y(1 + x/c))



Competitive Inhibition A With Offset 3D		z = ax / (b(1 + y/c) + x) + Offset
Competitive Inhibition B With Offset 3D		z = ay / (b(1 + x/c) + y) + Offset
Inhibition By Competing Substrate A With Offset 3D		z = (ax/b) / (1 + x/b + y/c) + Offset
Inhibition By Competing Substrate B With Offset 3D		z = (ay/b) / (1 + y/b + x/c) + Offset
Michaelis Menten Product Inhibition With Offset 3D		z = (ax/b - cy/d) / (1 + x/b + y/d) + Offset
Mixed Inhibition A With Offset 3D		z = ax / (b(1 + y/c) + x(1 + y/d)) + Offset
Mixed Inhibition B With Offset 3D		z = ay / (b(1 + x/c) + y(1 + x/d)) + Offset
Noncompetitive Inhibition A With Offset 3D		z = ax / ((b + x)(1 + y/c)) + Offset
Noncompetitive Inhibition B With Offset 3D		z = ay / ((b + y)(1 + x/c)) + Offset
Ping Pong Bi Bi A With Offset 3D		z = ax / (bx + cy + xy) + Offset
Ping Pong Bi Bi B With Offset 3D		z = ay / (by + cx + xy) + Offset
Uncompetitive Inhibition A With Offset 3D		z = ax / (b + x(1 + y/c)) + Offset
Uncompetitive Inhibition B With Offset 3D		z = ay / (b + y(1 + x/c)) + Offset



Inverse Michaelis Menten Product Inhibition 3D		z = xy / ( (ax/b - cy/d) / (1 + x/b + y/d))



Inverse Michaelis Menten Product Inhibition With Offset 3D		z = xy / ( (ax/b - cy/d) / (1 + x/b + y/d)) + Offset



Reciprocal Competitive Inhibition A 3D		z = 1.0 / ( ax / (b(1 + y/c) + x))
Reciprocal Competitive Inhibition B 3D		z = 1.0 / ( ay / (b(1 + x/c) + y))
Reciprocal Inhibition By Competing Substrate A 3D		z = 1.0 / ( (ax/b) / (1 + x/b + y/c))
Reciprocal Inhibition By Competing Substrate B 3D		z = 1.0 / ( (ay/b) / (1 + y/b + x/c))
Reciprocal Michaelis Menten Product Inhibition 3D		z = 1.0 / ( (ax/b - cy/d) / (1 + x/b + y/d))
Reciprocal Mixed Inhibition A 3D		z = 1.0 / ( ax / (b(1 + y/c) + x(1 + y/d)))
Reciprocal Mixed Inhibition B 3D		z = 1.0 / ( ay / (b(1 + x/c) + y(1 + x/d)))
Reciprocal Noncompetitive Inhibition A 3D		z = 1.0 / ( ax / ((b + x)(1 + y/c)))
Reciprocal Noncompetitive Inhibition B 3D		z = 1.0 / ( ay / ((b + y)(1 + x/c)))
Reciprocal Ping Pong Bi Bi A 3D		z = 1.0 / ( ax / (bx + cy + xy))
Reciprocal Ping Pong Bi Bi B 3D		z = 1.0 / ( ay / (by + cx + xy))
Reciprocal Uncompetitive Inhibition A 3D		z = 1.0 / ( ax / (b + x(1 + y/c)))
Reciprocal Uncompetitive Inhibition B 3D		z = 1.0 / ( ay / (b + y(1 + x/c)))



Reciprocal Competitive Inhibition A With Offset 3D		z = 1.0 / ( ax / (b(1 + y/c) + x)) + Offset
Reciprocal Competitive Inhibition B With Offset 3D		z = 1.0 / ( ay / (b(1 + x/c) + y)) + Offset
Reciprocal Inhibition By Competing Substrate A With Offset 3D		z = 1.0 / ( (ax/b) / (1 + x/b + y/c)) + Offset
Reciprocal Inhibition By Competing Substrate B With Offset 3D		z = 1.0 / ( (ay/b) / (1 + y/b + x/c)) + Offset
Reciprocal Michaelis Menten Product Inhibition With Offset 3D		z = 1.0 / ( (ax/b - cy/d) / (1 + x/b + y/d)) + Offset
Reciprocal Mixed Inhibition A With Offset 3D		z = 1.0 / ( ax / (b(1 + y/c) + x(1 + y/d))) + Offset
Reciprocal Mixed Inhibition B With Offset 3D		z = 1.0 / ( ay / (b(1 + x/c) + y(1 + x/d))) + Offset
Reciprocal Noncompetitive Inhibition A With Offset 3D		z = 1.0 / ( ax / ((b + x)(1 + y/c))) + Offset
Reciprocal Noncompetitive Inhibition B With Offset 3D		z = 1.0 / ( ay / ((b + y)(1 + x/c))) + Offset
Reciprocal Ping Pong Bi Bi A With Offset 3D		z = 1.0 / ( ax / (bx + cy + xy)) + Offset
Reciprocal Ping Pong Bi Bi B With Offset 3D		z = 1.0 / ( ay / (by + cx + xy)) + Offset
Reciprocal Uncompetitive Inhibition A With Offset 3D		z = 1.0 / ( ax / (b + x(1 + y/c))) + Offset
Reciprocal Uncompetitive Inhibition B With Offset 3D		z = 1.0 / ( ay / (b + y(1 + x/c))) + Offset



Competitive Inhibition A With XY Exponential Decay 3D		z = ( ax / (b(1 + y/c) + x)) / (d * exp(x*y))
Competitive Inhibition B With XY Exponential Decay 3D		z = ( ay / (b(1 + x/c) + y)) / (d * exp(x*y))
Inhibition By Competing Substrate A With XY Exponential Decay 3D		z = ( (ax/b) / (1 + x/b + y/c)) / (d * exp(x*y))
Inhibition By Competing Substrate B With XY Exponential Decay 3D		z = ( (ay/b) / (1 + y/b + x/c)) / (d * exp(x*y))
Michaelis Menten Product Inhibition With XY Exponential Decay 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) / (e * exp(x*y))
Mixed Inhibition A With XY Exponential Decay 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) / (e * exp(x*y))
Mixed Inhibition B With XY Exponential Decay 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) / (e * exp(x*y))
Noncompetitive Inhibition A With XY Exponential Decay 3D		z = ( ax / ((b + x)(1 + y/c))) / (d * exp(x*y))
Noncompetitive Inhibition B With XY Exponential Decay 3D		z = ( ay / ((b + y)(1 + x/c))) / (d * exp(x*y))
Ping Pong Bi Bi A With XY Exponential Decay 3D		z = ( ax / (bx + cy + xy)) / (d * exp(x*y))
Ping Pong Bi Bi B With XY Exponential Decay 3D		z = ( ay / (by + cx + xy)) / (d * exp(x*y))
Uncompetitive Inhibition A With XY Exponential Decay 3D		z = ( ax / (b + x(1 + y/c))) / (d * exp(x*y))
Uncompetitive Inhibition B With XY Exponential Decay 3D		z = ( ay / (b + y(1 + x/c))) / (d * exp(x*y))



Competitive Inhibition A With XY Exponential Decay And Offset 3D		z = ( ax / (b(1 + y/c) + x)) / (d * exp(x*y)) + Offset
Competitive Inhibition B With XY Exponential Decay And Offset 3D		z = ( ay / (b(1 + x/c) + y)) / (d * exp(x*y)) + Offset
Inhibition By Competing Substrate A With XY Exponential Decay And Offset 3D		z = ( (ax/b) / (1 + x/b + y/c)) / (d * exp(x*y)) + Offset
Inhibition By Competing Substrate B With XY Exponential Decay And Offset 3D		z = ( (ay/b) / (1 + y/b + x/c)) / (d * exp(x*y)) + Offset
Michaelis Menten Product Inhibition With XY Exponential Decay And Offset 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) / (e * exp(x*y)) + Offset
Mixed Inhibition A With XY Exponential Decay And Offset 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) / (e * exp(x*y)) + Offset
Mixed Inhibition B With XY Exponential Decay And Offset 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) / (e * exp(x*y)) + Offset
Noncompetitive Inhibition A With XY Exponential Decay And Offset 3D		z = ( ax / ((b + x)(1 + y/c))) / (d * exp(x*y)) + Offset
Noncompetitive Inhibition B With XY Exponential Decay And Offset 3D		z = ( ay / ((b + y)(1 + x/c))) / (d * exp(x*y)) + Offset
Ping Pong Bi Bi A With XY Exponential Decay And Offset 3D		z = ( ax / (bx + cy + xy)) / (d * exp(x*y)) + Offset
Ping Pong Bi Bi B With XY Exponential Decay And Offset 3D		z = ( ay / (by + cx + xy)) / (d * exp(x*y)) + Offset
Uncompetitive Inhibition A With XY Exponential Decay And Offset 3D		z = ( ax / (b + x(1 + y/c))) / (d * exp(x*y)) + Offset
Uncompetitive Inhibition B With XY Exponential Decay And Offset 3D		z = ( ay / (b + y(1 + x/c))) / (d * exp(x*y)) + Offset



Competitive Inhibition A With XY Exponential Growth 3D		z = ( ax / (b(1 + y/c) + x)) * (d * exp(x*y))
Competitive Inhibition B With XY Exponential Growth 3D		z = ( ay / (b(1 + x/c) + y)) * (d * exp(x*y))
Inhibition By Competing Substrate A With XY Exponential Growth 3D		z = ( (ax/b) / (1 + x/b + y/c)) * (d * exp(x*y))
Inhibition By Competing Substrate B With XY Exponential Growth 3D		z = ( (ay/b) / (1 + y/b + x/c)) * (d * exp(x*y))
Michaelis Menten Product Inhibition With XY Exponential Growth 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) * (e * exp(x*y))
Mixed Inhibition A With XY Exponential Growth 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) * (e * exp(x*y))
Mixed Inhibition B With XY Exponential Growth 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) * (e * exp(x*y))
Noncompetitive Inhibition A With XY Exponential Growth 3D		z = ( ax / ((b + x)(1 + y/c))) * (d * exp(x*y))
Noncompetitive Inhibition B With XY Exponential Growth 3D		z = ( ay / ((b + y)(1 + x/c))) * (d * exp(x*y))
Ping Pong Bi Bi A With XY Exponential Growth 3D		z = ( ax / (bx + cy + xy)) * (d * exp(x*y))
Ping Pong Bi Bi B With XY Exponential Growth 3D		z = ( ay / (by + cx + xy)) * (d * exp(x*y))
Uncompetitive Inhibition A With XY Exponential Growth 3D		z = ( ax / (b + x(1 + y/c))) * (d * exp(x*y))
Uncompetitive Inhibition B With XY Exponential Growth 3D		z = ( ay / (b + y(1 + x/c))) * (d * exp(x*y))



Competitive Inhibition A With XY Exponential Growth And Offset 3D		z = ( ax / (b(1 + y/c) + x)) * (d * exp(x*y)) + Offset
Competitive Inhibition B With XY Exponential Growth And Offset 3D		z = ( ay / (b(1 + x/c) + y)) * (d * exp(x*y)) + Offset
Inhibition By Competing Substrate A With XY Exponential Growth And Offset 3D		z = ( (ax/b) / (1 + x/b + y/c)) * (d * exp(x*y)) + Offset
Inhibition By Competing Substrate B With XY Exponential Growth And Offset 3D		z = ( (ay/b) / (1 + y/b + x/c)) * (d * exp(x*y)) + Offset
Michaelis Menten Product Inhibition With XY Exponential Growth And Offset 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) * (e * exp(x*y)) + Offset
Mixed Inhibition A With XY Exponential Growth And Offset 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) * (e * exp(x*y)) + Offset
Mixed Inhibition B With XY Exponential Growth And Offset 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) * (e * exp(x*y)) + Offset
Noncompetitive Inhibition A With XY Exponential Growth And Offset 3D		z = ( ax / ((b + x)(1 + y/c))) * (d * exp(x*y)) + Offset
Noncompetitive Inhibition B With XY Exponential Growth And Offset 3D		z = ( ay / ((b + y)(1 + x/c))) * (d * exp(x*y)) + Offset
Ping Pong Bi Bi A With XY Exponential Growth And Offset 3D		z = ( ax / (bx + cy + xy)) * (d * exp(x*y)) + Offset
Ping Pong Bi Bi B With XY Exponential Growth And Offset 3D		z = ( ay / (by + cx + xy)) * (d * exp(x*y)) + Offset
Uncompetitive Inhibition A With XY Exponential Growth And Offset 3D		z = ( ax / (b + x(1 + y/c))) * (d * exp(x*y)) + Offset
Uncompetitive Inhibition B With XY Exponential Growth And Offset 3D		z = ( ay / (b + y(1 + x/c))) * (d * exp(x*y)) + Offset



Competitive Inhibition A With XY Linear Decay 3D		z = ( ax / (b(1 + y/c) + x)) / (d * x * y)
Competitive Inhibition B With XY Linear Decay 3D		z = ( ay / (b(1 + x/c) + y)) / (d * x * y)
Inhibition By Competing Substrate A With XY Linear Decay 3D		z = ( (ax/b) / (1 + x/b + y/c)) / (d * x * y)
Inhibition By Competing Substrate B With XY Linear Decay 3D		z = ( (ay/b) / (1 + y/b + x/c)) / (d * x * y)
Michaelis Menten Product Inhibition With XY Linear Decay 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) / (e * x * y)
Mixed Inhibition A With XY Linear Decay 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) / (e * x * y)
Mixed Inhibition B With XY Linear Decay 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) / (e * x * y)
Noncompetitive Inhibition A With XY Linear Decay 3D		z = ( ax / ((b + x)(1 + y/c))) / (d * x * y)
Noncompetitive Inhibition B With XY Linear Decay 3D		z = ( ay / ((b + y)(1 + x/c))) / (d * x * y)
Ping Pong Bi Bi A With XY Linear Decay 3D		z = ( ax / (bx + cy + xy)) / (d * x * y)
Ping Pong Bi Bi B With XY Linear Decay 3D		z = ( ay / (by + cx + xy)) / (d * x * y)
Uncompetitive Inhibition A With XY Linear Decay 3D		z = ( ax / (b + x(1 + y/c))) / (d * x * y)
Uncompetitive Inhibition B With XY Linear Decay 3D		z = ( ay / (b + y(1 + x/c))) / (d * x * y)



Competitive Inhibition A With XY Linear Decay And Offset 3D		z = ( ax / (b(1 + y/c) + x)) / (d * x * y) + Offset
Competitive Inhibition B With XY Linear Decay And Offset 3D		z = ( ay / (b(1 + x/c) + y)) / (d * x * y) + Offset
Inhibition By Competing Substrate A With XY Linear Decay And Offset 3D		z = ( (ax/b) / (1 + x/b + y/c)) / (d * x * y) + Offset
Inhibition By Competing Substrate B With XY Linear Decay And Offset 3D		z = ( (ay/b) / (1 + y/b + x/c)) / (d * x * y) + Offset
Michaelis Menten Product Inhibition With XY Linear Decay And Offset 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) / (e * x * y) + Offset
Mixed Inhibition A With XY Linear Decay And Offset 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) / (e * x * y) + Offset
Mixed Inhibition B With XY Linear Decay And Offset 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) / (e * x * y) + Offset
Noncompetitive Inhibition A With XY Linear Decay And Offset 3D		z = ( ax / ((b + x)(1 + y/c))) / (d * x * y) + Offset
Noncompetitive Inhibition B With XY Linear Decay And Offset 3D		z = ( ay / ((b + y)(1 + x/c))) / (d * x * y) + Offset
Ping Pong Bi Bi A With XY Linear Decay And Offset 3D		z = ( ax / (bx + cy + xy)) / (d * x * y) + Offset
Ping Pong Bi Bi B With XY Linear Decay And Offset 3D		z = ( ay / (by + cx + xy)) / (d * x * y) + Offset
Uncompetitive Inhibition A With XY Linear Decay And Offset 3D		z = ( ax / (b + x(1 + y/c))) / (d * x * y) + Offset
Uncompetitive Inhibition B With XY Linear Decay And Offset 3D		z = ( ay / (b + y(1 + x/c))) / (d * x * y) + Offset



Competitive Inhibition A With XY Linear Growth 3D		z = ( ax / (b(1 + y/c) + x)) * (d * x * y)
Competitive Inhibition B With XY Linear Growth 3D		z = ( ay / (b(1 + x/c) + y)) * (d * x * y)
Inhibition By Competing Substrate A With XY Linear Growth 3D		z = ( (ax/b) / (1 + x/b + y/c)) * (d * x * y)
Inhibition By Competing Substrate B With XY Linear Growth 3D		z = ( (ay/b) / (1 + y/b + x/c)) * (d * x * y)
Michaelis Menten Product Inhibition With XY Linear Growth 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) * (e * x * y)
Mixed Inhibition A With XY Linear Growth 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) * (e * x * y)
Mixed Inhibition B With XY Linear Growth 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) * (e * x * y)
Noncompetitive Inhibition A With XY Linear Growth 3D		z = ( ax / ((b + x)(1 + y/c))) * (d * x * y)
Noncompetitive Inhibition B With XY Linear Growth 3D		z = ( ay / ((b + y)(1 + x/c))) * (d * x * y)
Ping Pong Bi Bi A With XY Linear Growth 3D		z = ( ax / (bx + cy + xy)) * (d * x * y)
Ping Pong Bi Bi B With XY Linear Growth 3D		z = ( ay / (by + cx + xy)) * (d * x * y)
Uncompetitive Inhibition A With XY Linear Growth 3D		z = ( ax / (b + x(1 + y/c))) * (d * x * y)
Uncompetitive Inhibition B With XY Linear Growth 3D		z = ( ay / (b + y(1 + x/c))) * (d * x * y)



Competitive Inhibition A With XY Linear Growth And Offset 3D		z = ( ax / (b(1 + y/c) + x)) * (d * x * y) + Offset
Competitive Inhibition B With XY Linear Growth And Offset 3D		z = ( ay / (b(1 + x/c) + y)) * (d * x * y) + Offset
Inhibition By Competing Substrate A With XY Linear Growth And Offset 3D		z = ( (ax/b) / (1 + x/b + y/c)) * (d * x * y) + Offset
Inhibition By Competing Substrate B With XY Linear Growth And Offset 3D		z = ( (ay/b) / (1 + y/b + x/c)) * (d * x * y) + Offset
Michaelis Menten Product Inhibition With XY Linear Growth And Offset 3D		z = ( (ax/b - cy/d) / (1 + x/b + y/d)) * (e * x * y) + Offset
Mixed Inhibition A With XY Linear Growth And Offset 3D		z = ( ax / (b(1 + y/c) + x(1 + y/d))) * (e * x * y) + Offset
Mixed Inhibition B With XY Linear Growth And Offset 3D		z = ( ay / (b(1 + x/c) + y(1 + x/d))) * (e * x * y) + Offset
Noncompetitive Inhibition A With XY Linear Growth And Offset 3D		z = ( ax / ((b + x)(1 + y/c))) * (d * x * y) + Offset
Noncompetitive Inhibition B With XY Linear Growth And Offset 3D		z = ( ay / ((b + y)(1 + x/c))) * (d * x * y) + Offset
Ping Pong Bi Bi A With XY Linear Growth And Offset 3D		z = ( ax / (bx + cy + xy)) * (d * x * y) + Offset
Ping Pong Bi Bi B With XY Linear Growth And Offset 3D		z = ( ay / (by + cx + xy)) * (d * x * y) + Offset
Uncompetitive Inhibition A With XY Linear Growth And Offset 3D		z = ( ax / (b + x(1 + y/c))) * (d * x * y) + Offset
Uncompetitive Inhibition B With XY Linear Growth And Offset 3D		z = ( ay / (b + y(1 + x/c))) * (d * x * y) + Offset

Spline 2D		y = B-Spline Interpolation Curve

Spline 3D		z = B-Spline Interpolation Surface

Sag For Asphere 0 3D		s² = x² + y² z = (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset
Sag For Asphere 0 Borisovsky 3D		s² = (x - a)² + (y - b)² z = (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset



Sag For Asphere 0 With XY Exponential Decay 3D		s² = x² + y² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (d * exp(x*y))
Sag For Asphere 0 Borisovsky With XY Exponential Decay 3D		s² = (x - a)² + (y - b)² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (f * exp(x*y))



Sag For Asphere 0 With XY Exponential Decay And Offset 3D		s² = x² + y² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (d * exp(x*y)) + Offset
Sag For Asphere 0 Borisovsky With XY Exponential Decay And Offset 3D		s² = (x - a)² + (y - b)² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (f * exp(x*y)) + Offset



Sag For Asphere 0 With XY Exponential Growth 3D		s² = x² + y² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) * (d * exp(x*y))
Sag For Asphere 0 Borisovsky With XY Exponential Growth 3D		s² = (x - a)² + (y - b)² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) * (f * exp(x*y))



Sag For Asphere 0 With XY Exponential Growth And Offset 3D		s² = x² + y² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) * (d * exp(x*y)) + Offset
Sag For Asphere 0 Borisovsky With XY Exponential Growth And Offset 3D		s² = (x - a)² + (y - b)² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) * (f * exp(x*y)) + Offset



Sag For Asphere 0 With XY Linear Decay 3D		s² = x² + y² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (d * x * y)
Sag For Asphere 0 Borisovsky With XY Linear Decay 3D		s² = (x - a)² + (y - b)² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (f * x * y)



Sag For Asphere 0 With XY Linear Decay And Offset 3D		s² = x² + y² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (d * x * y) + Offset
Sag For Asphere 0 Borisovsky With XY Linear Decay And Offset 3D		s² = (x - a)² + (y - b)² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) / (f * x * y) + Offset



Sag For Asphere 0 With XY Linear Growth 3D		s² = x² + y² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) * (d * x * y)
Sag For Asphere 0 Borisovsky With XY Linear Growth 3D		s² = (x - a)² + (y - b)² z = ( (s²/r) / (1+(1-(k+1)(s/r)²)^1/2) + offset) * (f * x * y)

Full Cubic Exponential 3D		z = a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²
Full Cubic Exponential Transform 3D		z = a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²
Full Quadratic Exponential 3D		z = a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)
Full Quadratic Exponential Transform 3D		z = a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)
Linear Exponential 3D		z = a + bexp(x) + cexp(y)
Linear Exponential Transform 3D		z = a + bexp(dx+e) + cexp(fy+g)
Simplified Cubic Exponential 3D		z = a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³
Simplified Cubic Exponential Transform 3D		z = a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³
Simplified Quadratic Exponential 3D		z = a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²
Simplified Quadratic Exponential Transform 3D		z = a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²



Inverse Full Cubic Exponential 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²)
Inverse Full Cubic Exponential Transform 3D		z = xy / ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²)
Inverse Full Quadratic Exponential 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y))
Inverse Full Quadratic Exponential Transform 3D		z = xy / ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j))
Inverse Linear Exponential 3D		z = xy / ( a + bexp(x) + cexp(y))
Inverse Linear Exponential Transform 3D		z = xy / ( a + bexp(dx+e) + cexp(fy+g))
Inverse Simplified Cubic Exponential 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³)
Inverse Simplified Cubic Exponential Transform 3D		z = xy / ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³)
Inverse Simplified Quadratic Exponential 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²)
Inverse Simplified Quadratic Exponential Transform 3D		z = xy / ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²)



Inverse Full Cubic Exponential With Offset 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) + Offset
Inverse Full Cubic Exponential Transform With Offset 3D		z = xy / ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) + Offset
Inverse Full Quadratic Exponential With Offset 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) + Offset
Inverse Full Quadratic Exponential Transform With Offset 3D		z = xy / ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) + Offset
Inverse Linear Exponential With Offset 3D		z = xy / ( a + bexp(x) + cexp(y)) + Offset
Inverse Linear Exponential Transform With Offset 3D		z = xy / ( a + bexp(dx+e) + cexp(fy+g)) + Offset
Inverse Simplified Cubic Exponential With Offset 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) + Offset
Inverse Simplified Cubic Exponential Transform With Offset 3D		z = xy / ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) + Offset
Inverse Simplified Quadratic Exponential With Offset 3D		z = xy / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) + Offset
Inverse Simplified Quadratic Exponential Transform With Offset 3D		z = xy / ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) + Offset



Reciprocal Full Cubic Exponential 3D		z = 1.0 / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²)
Reciprocal Full Cubic Exponential Transform 3D		z = 1.0 / ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²)
Reciprocal Full Quadratic Exponential 3D		z = 1.0 / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y))
Reciprocal Full Quadratic Exponential Transform 3D		z = 1.0 / ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j))
Reciprocal Linear Exponential 3D		z = 1.0 / ( a + bexp(x) + cexp(y))
Reciprocal Linear Exponential Transform 3D		z = 1.0 / ( a + bexp(dx+e) + cexp(fy+g))
Reciprocal Simplified Cubic Exponential 3D		z = 1.0 / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³)
Reciprocal Simplified Cubic Exponential Transform 3D		z = 1.0 / ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³)
Reciprocal Simplified Quadratic Exponential 3D		z = 1.0 / ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²)
Reciprocal Simplified Quadratic Exponential Transform 3D		z = 1.0 / ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²)



Full Cubic Exponential With XY Exponential Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) / (k * exp(x*y))
Full Cubic Exponential Transform With XY Exponential Decay 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) / (o * exp(x*y))
Full Quadratic Exponential With XY Exponential Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) / (g * exp(x*y))
Full Quadratic Exponential Transform With XY Exponential Decay 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) / (k * exp(x*y))
Linear Exponential With XY Exponential Decay 3D		z = ( a + bexp(x) + cexp(y)) / (d * exp(x*y))
Linear Exponential Transform With XY Exponential Decay 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) / (h * exp(x*y))
Simplified Cubic Exponential With XY Exponential Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) / (h * exp(x*y))
Simplified Cubic Exponential Transform With XY Exponential Decay 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) / (l * exp(x*y))
Simplified Quadratic Exponential With XY Exponential Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) / (f * exp(x*y))
Simplified Quadratic Exponential Transform With XY Exponential Decay 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) / (j * exp(x*y))



Full Cubic Exponential With XY Exponential Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) / (k * exp(x*y)) + Offset
Full Cubic Exponential Transform With XY Exponential Decay And Offset 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) / (o * exp(x*y)) + Offset
Full Quadratic Exponential With XY Exponential Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) / (g * exp(x*y)) + Offset
Full Quadratic Exponential Transform With XY Exponential Decay And Offset 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) / (k * exp(x*y)) + Offset
Linear Exponential With XY Exponential Decay And Offset 3D		z = ( a + bexp(x) + cexp(y)) / (d * exp(x*y)) + Offset
Linear Exponential Transform With XY Exponential Decay And Offset 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) / (h * exp(x*y)) + Offset
Simplified Cubic Exponential With XY Exponential Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) / (h * exp(x*y)) + Offset
Simplified Cubic Exponential Transform With XY Exponential Decay And Offset 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) / (l * exp(x*y)) + Offset
Simplified Quadratic Exponential With XY Exponential Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) / (f * exp(x*y)) + Offset
Simplified Quadratic Exponential Transform With XY Exponential Decay And Offset 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) / (j * exp(x*y)) + Offset



Full Cubic Exponential With XY Exponential Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) * (k * exp(x*y))
Full Cubic Exponential Transform With XY Exponential Growth 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) * (o * exp(x*y))
Full Quadratic Exponential With XY Exponential Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) * (g * exp(x*y))
Full Quadratic Exponential Transform With XY Exponential Growth 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) * (k * exp(x*y))
Linear Exponential With XY Exponential Growth 3D		z = ( a + bexp(x) + cexp(y)) * (d * exp(x*y))
Linear Exponential Transform With XY Exponential Growth 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) * (h * exp(x*y))
Simplified Cubic Exponential With XY Exponential Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) * (h * exp(x*y))
Simplified Cubic Exponential Transform With XY Exponential Growth 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) * (l * exp(x*y))
Simplified Quadratic Exponential With XY Exponential Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) * (f * exp(x*y))
Simplified Quadratic Exponential Transform With XY Exponential Growth 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) * (j * exp(x*y))



Full Cubic Exponential With XY Exponential Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) * (k * exp(x*y)) + Offset
Full Cubic Exponential Transform With XY Exponential Growth And Offset 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) * (o * exp(x*y)) + Offset
Full Quadratic Exponential With XY Exponential Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) * (g * exp(x*y)) + Offset
Full Quadratic Exponential Transform With XY Exponential Growth And Offset 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) * (k * exp(x*y)) + Offset
Linear Exponential With XY Exponential Growth And Offset 3D		z = ( a + bexp(x) + cexp(y)) * (d * exp(x*y)) + Offset
Linear Exponential Transform With XY Exponential Growth And Offset 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) * (h * exp(x*y)) + Offset
Simplified Cubic Exponential With XY Exponential Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) * (h * exp(x*y)) + Offset
Simplified Cubic Exponential Transform With XY Exponential Growth And Offset 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) * (l * exp(x*y)) + Offset
Simplified Quadratic Exponential With XY Exponential Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) * (f * exp(x*y)) + Offset
Simplified Quadratic Exponential Transform With XY Exponential Growth And Offset 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) * (j * exp(x*y)) + Offset



Full Cubic Exponential With XY Linear Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) / (k * x * y)
Full Cubic Exponential Transform With XY Linear Decay 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) / (o * x * y)
Full Quadratic Exponential With XY Linear Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) / (g * x * y)
Full Quadratic Exponential Transform With XY Linear Decay 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) / (k * x * y)
Linear Exponential With XY Linear Decay 3D		z = ( a + bexp(x) + cexp(y)) / (d * x * y)
Linear Exponential Transform With XY Linear Decay 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) / (h * x * y)
Simplified Cubic Exponential With XY Linear Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) / (h * x * y)
Simplified Cubic Exponential Transform With XY Linear Decay 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) / (l * x * y)
Simplified Quadratic Exponential With XY Linear Decay 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) / (f * x * y)
Simplified Quadratic Exponential Transform With XY Linear Decay 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) / (j * x * y)



Full Cubic Exponential With XY Linear Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) / (k * x * y) + Offset
Full Cubic Exponential Transform With XY Linear Decay And Offset 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) / (o * x * y) + Offset
Full Quadratic Exponential With XY Linear Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) / (g * x * y) + Offset
Full Quadratic Exponential Transform With XY Linear Decay And Offset 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) / (k * x * y) + Offset
Linear Exponential With XY Linear Decay And Offset 3D		z = ( a + bexp(x) + cexp(y)) / (d * x * y) + Offset
Linear Exponential Transform With XY Linear Decay And Offset 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) / (h * x * y) + Offset
Simplified Cubic Exponential With XY Linear Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) / (h * x * y) + Offset
Simplified Cubic Exponential Transform With XY Linear Decay And Offset 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) / (l * x * y) + Offset
Simplified Quadratic Exponential With XY Linear Decay And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) / (f * x * y) + Offset
Simplified Quadratic Exponential Transform With XY Linear Decay And Offset 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) / (j * x * y) + Offset



Full Cubic Exponential With XY Linear Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) * (k * x * y)
Full Cubic Exponential Transform With XY Linear Growth 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) * (o * x * y)
Full Quadratic Exponential With XY Linear Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) * (g * x * y)
Full Quadratic Exponential Transform With XY Linear Growth 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) * (k * x * y)
Linear Exponential With XY Linear Growth 3D		z = ( a + bexp(x) + cexp(y)) * (d * x * y)
Linear Exponential Transform With XY Linear Growth 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) * (h * x * y)
Simplified Cubic Exponential With XY Linear Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) * (h * x * y)
Simplified Cubic Exponential Transform With XY Linear Growth 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) * (l * x * y)
Simplified Quadratic Exponential With XY Linear Growth 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) * (f * x * y)
Simplified Quadratic Exponential Transform With XY Linear Growth 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) * (j * x * y)



Full Cubic Exponential With XY Linear Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³ + hexp(x)exp(y) + iexp(x)²exp(y) + jexp(x)exp(y)²) * (k * x * y) + Offset
Full Cubic Exponential Transform With XY Linear Growth And Offset 3D		z = ( a + bexp(kx+l) + cexp(my+n) + dexp(kx+l)² + eexp(my+n)² + fexp(kx+l)³ + gexp(my+n)³ + hexp(kx+l)exp(my+n) + iexp(kx+l)²exp(my+n) + jexp(kx+l)exp(my+n)²) * (o * x * y) + Offset
Full Quadratic Exponential With XY Linear Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)exp(y)) * (g * x * y) + Offset
Full Quadratic Exponential Transform With XY Linear Growth And Offset 3D		z = ( a + bexp(gx+h) + cexp(iy+j) + dexp(gx+h)² + eexp(iy+j)² + fexp(gx+h)exp(iy+j)) * (k * x * y) + Offset
Linear Exponential With XY Linear Growth And Offset 3D		z = ( a + bexp(x) + cexp(y)) * (d * x * y) + Offset
Linear Exponential Transform With XY Linear Growth And Offset 3D		z = ( a + bexp(dx+e) + cexp(fy+g)) * (h * x * y) + Offset
Simplified Cubic Exponential With XY Linear Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)² + fexp(x)³ + gexp(y)³) * (h * x * y) + Offset
Simplified Cubic Exponential Transform With XY Linear Growth And Offset 3D		z = ( a + bexp(hx+i) + cexp(jy+k) + dexp(hx+i)² + eexp(jy+k)² + fexp(hx+i)³ + gexp(jy+k)³) * (l * x * y) + Offset
Simplified Quadratic Exponential With XY Linear Growth And Offset 3D		z = ( a + bexp(x) + cexp(y) + dexp(x)² + eexp(y)²) * (f * x * y) + Offset
Simplified Quadratic Exponential Transform With XY Linear Growth And Offset 3D		z = ( a + bexp(fx+g) + cexp(hy+i) + dexp(fx+g)² + eexp(hy+i)²) * (j * x * y) + Offset

Full Cubic Logarithmic 3D		z = a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²
Full Cubic Logarithmic Transform 3D		z = a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²
Full Quadratic Logarithmic 3D		z = a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)
Full Quadratic Logarithmic Transform 3D		z = a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)
Linear Logarithmic 3D		z = a + bln(x) + cln(y)
Linear Logarithmic Transform 3D		z = a + bln(dx+e) + cln(fy+g)
Simplified Cubic Logarithmic 3D		z = a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³
Simplified Cubic Logarithmic Transform 3D		z = a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³
Simplified Quadratic Logarithmic 3D		z = a + bln(x) + cln(y) + dln(x)² + eln(y)²
Simplified Quadratic Logarithmic Transform 3D		z = a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²



Inverse Full Cubic Logarithmic 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²)
Inverse Full Cubic Logarithmic Transform 3D		z = xy / ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²)
Inverse Full Quadratic Logarithmic 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y))
Inverse Full Quadratic Logarithmic Transform 3D		z = xy / ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j))
Inverse Linear Logarithmic 3D		z = xy / ( a + bln(x) + cln(y))
Inverse Linear Logarithmic Transform 3D		z = xy / ( a + bln(dx+e) + cln(fy+g))
Inverse Simplified Cubic Logarithmic 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³)
Inverse Simplified Cubic Logarithmic Transform 3D		z = xy / ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³)
Inverse Simplified Quadratic Logarithmic 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)²)
Inverse Simplified Quadratic Logarithmic Transform 3D		z = xy / ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²)



Inverse Full Cubic Logarithmic With Offset 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) + Offset
Inverse Full Cubic Logarithmic Transform With Offset 3D		z = xy / ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) + Offset
Inverse Full Quadratic Logarithmic With Offset 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) + Offset
Inverse Full Quadratic Logarithmic Transform With Offset 3D		z = xy / ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) + Offset
Inverse Linear Logarithmic With Offset 3D		z = xy / ( a + bln(x) + cln(y)) + Offset
Inverse Linear Logarithmic Transform With Offset 3D		z = xy / ( a + bln(dx+e) + cln(fy+g)) + Offset
Inverse Simplified Cubic Logarithmic With Offset 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) + Offset
Inverse Simplified Cubic Logarithmic Transform With Offset 3D		z = xy / ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) + Offset
Inverse Simplified Quadratic Logarithmic With Offset 3D		z = xy / ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) + Offset
Inverse Simplified Quadratic Logarithmic Transform With Offset 3D		z = xy / ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) + Offset



Reciprocal Full Cubic Logarithmic 3D		z = 1.0 / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²)
Reciprocal Full Cubic Logarithmic Transform 3D		z = 1.0 / ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²)
Reciprocal Full Quadratic Logarithmic 3D		z = 1.0 / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y))
Reciprocal Full Quadratic Logarithmic Transform 3D		z = 1.0 / ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j))
Reciprocal Linear Logarithmic 3D		z = 1.0 / ( a + bln(x) + cln(y))
Reciprocal Linear Logarithmic Transform 3D		z = 1.0 / ( a + bln(dx+e) + cln(fy+g))
Reciprocal Simplified Cubic Logarithmic 3D		z = 1.0 / ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³)
Reciprocal Simplified Cubic Logarithmic Transform 3D		z = 1.0 / ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³)
Reciprocal Simplified Quadratic Logarithmic 3D		z = 1.0 / ( a + bln(x) + cln(y) + dln(x)² + eln(y)²)
Reciprocal Simplified Quadratic Logarithmic Transform 3D		z = 1.0 / ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²)



Full Cubic Logarithmic With XY Exponential Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) / (k * exp(x*y))
Full Cubic Logarithmic Transform With XY Exponential Decay 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) / (o * exp(x*y))
Full Quadratic Logarithmic With XY Exponential Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) / (g * exp(x*y))
Full Quadratic Logarithmic Transform With XY Exponential Decay 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) / (k * exp(x*y))
Linear Logarithmic With XY Exponential Decay 3D		z = ( a + bln(x) + cln(y)) / (d * exp(x*y))
Linear Logarithmic Transform With XY Exponential Decay 3D		z = ( a + bln(dx+e) + cln(fy+g)) / (g * exp(x*y))
Simplified Cubic Logarithmic With XY Exponential Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) / (h * exp(x*y))
Simplified Cubic Logarithmic Transform With XY Exponential Decay 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) / (l * exp(x*y))
Simplified Quadratic Logarithmic With XY Exponential Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) / (f * exp(x*y))
Simplified Quadratic Logarithmic Transform With XY Exponential Decay 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) / (j * exp(x*y))



Full Cubic Logarithmic With XY Exponential Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) / (k * exp(x*y)) + Offset
Full Cubic Logarithmic Transform With XY Exponential Decay And Offset 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) / (o * exp(x*y)) + Offset
Full Quadratic Logarithmic With XY Exponential Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) / (g * exp(x*y)) + Offset
Full Quadratic Logarithmic Transform With XY Exponential Decay And Offset 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) / (k * exp(x*y)) + Offset
Linear Logarithmic With XY Exponential Decay And Offset 3D		z = ( a + bln(x) + cln(y)) / (d * exp(x*y)) + Offset
Linear Logarithmic Transform With XY Exponential Decay And Offset 3D		z = ( a + bln(dx+e) + cln(fy+g)) / (g * exp(x*y)) + Offset
Simplified Cubic Logarithmic With XY Exponential Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) / (h * exp(x*y)) + Offset
Simplified Cubic Logarithmic Transform With XY Exponential Decay And Offset 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) / (l * exp(x*y)) + Offset
Simplified Quadratic Logarithmic With XY Exponential Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) / (f * exp(x*y)) + Offset
Simplified Quadratic Logarithmic Transform With XY Exponential Decay And Offset 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) / (j * exp(x*y)) + Offset



Full Cubic Logarithmic With XY Exponential Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) * (k * exp(x*y))
Full Cubic Logarithmic Transform With XY Exponential Growth 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) * (o * exp(x*y))
Full Quadratic Logarithmic With XY Exponential Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) * (g * exp(x*y))
Full Quadratic Logarithmic Transform With XY Exponential Growth 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) * (k * exp(x*y))
Linear Logarithmic With XY Exponential Growth 3D		z = ( a + bln(x) + cln(y)) * (d * exp(x*y))
Linear Logarithmic Transform With XY Exponential Growth 3D		z = ( a + bln(dx+e) + cln(fy+g)) * (g * exp(x*y))
Simplified Cubic Logarithmic With XY Exponential Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) * (h * exp(x*y))
Simplified Cubic Logarithmic Transform With XY Exponential Growth 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) * (l * exp(x*y))
Simplified Quadratic Logarithmic With XY Exponential Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) * (f * exp(x*y))
Simplified Quadratic Logarithmic Transform With XY Exponential Growth 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) * (j * exp(x*y))



Full Cubic Logarithmic With XY Exponential Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) * (k * exp(x*y)) + Offset
Full Cubic Logarithmic Transform With XY Exponential Growth And Offset 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) * (o * exp(x*y)) + Offset
Full Quadratic Logarithmic With XY Exponential Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) * (g * exp(x*y)) + Offset
Full Quadratic Logarithmic Transform With XY Exponential Growth And Offset 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) * (k * exp(x*y)) + Offset
Linear Logarithmic With XY Exponential Growth And Offset 3D		z = ( a + bln(x) + cln(y)) * (d * exp(x*y)) + Offset
Linear Logarithmic Transform With XY Exponential Growth And Offset 3D		z = ( a + bln(dx+e) + cln(fy+g)) * (g * exp(x*y)) + Offset
Simplified Cubic Logarithmic With XY Exponential Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) * (h * exp(x*y)) + Offset
Simplified Cubic Logarithmic Transform With XY Exponential Growth And Offset 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) * (l * exp(x*y)) + Offset
Simplified Quadratic Logarithmic With XY Exponential Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) * (f * exp(x*y)) + Offset
Simplified Quadratic Logarithmic Transform With XY Exponential Growth And Offset 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) * (j * exp(x*y)) + Offset



Full Cubic Logarithmic With XY Linear Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) / (k * x * y)
Full Cubic Logarithmic Transform With XY Linear Decay 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) / (o * x * y)
Full Quadratic Logarithmic With XY Linear Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) / (g * x * y)
Full Quadratic Logarithmic Transform With XY Linear Decay 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) / (k * x * y)
Linear Logarithmic With XY Linear Decay 3D		z = ( a + bln(x) + cln(y)) / (d * x * y)
Linear Logarithmic Transform With XY Linear Decay 3D		z = ( a + bln(dx+e) + cln(fy+g)) / (g * x * y)
Simplified Cubic Logarithmic With XY Linear Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) / (h * x * y)
Simplified Cubic Logarithmic Transform With XY Linear Decay 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) / (l * x * y)
Simplified Quadratic Logarithmic With XY Linear Decay 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) / (f * x * y)
Simplified Quadratic Logarithmic Transform With XY Linear Decay 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) / (j * x * y)



Full Cubic Logarithmic With XY Linear Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) / (k * x * y) + Offset
Full Cubic Logarithmic Transform With XY Linear Decay And Offset 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) / (o * x * y) + Offset
Full Quadratic Logarithmic With XY Linear Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) / (g * x * y) + Offset
Full Quadratic Logarithmic Transform With XY Linear Decay And Offset 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) / (k * x * y) + Offset
Linear Logarithmic With XY Linear Decay And Offset 3D		z = ( a + bln(x) + cln(y)) / (d * x * y) + Offset
Linear Logarithmic Transform With XY Linear Decay And Offset 3D		z = ( a + bln(dx+e) + cln(fy+g)) / (g * x * y) + Offset
Simplified Cubic Logarithmic With XY Linear Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) / (h * x * y) + Offset
Simplified Cubic Logarithmic Transform With XY Linear Decay And Offset 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) / (l * x * y) + Offset
Simplified Quadratic Logarithmic With XY Linear Decay And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) / (f * x * y) + Offset
Simplified Quadratic Logarithmic Transform With XY Linear Decay And Offset 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) / (j * x * y) + Offset



Full Cubic Logarithmic With XY Linear Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) * (k * x * y)
Full Cubic Logarithmic Transform With XY Linear Growth 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) * (o * x * y)
Full Quadratic Logarithmic With XY Linear Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) * (g * x * y)
Full Quadratic Logarithmic Transform With XY Linear Growth 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) * (k * x * y)
Linear Logarithmic With XY Linear Growth 3D		z = ( a + bln(x) + cln(y)) * (d * x * y)
Linear Logarithmic Transform With XY Linear Growth 3D		z = ( a + bln(dx+e) + cln(fy+g)) * (g * x * y)
Simplified Cubic Logarithmic With XY Linear Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) * (h * x * y)
Simplified Cubic Logarithmic Transform With XY Linear Growth 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) * (l * x * y)
Simplified Quadratic Logarithmic With XY Linear Growth 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) * (f * x * y)
Simplified Quadratic Logarithmic Transform With XY Linear Growth 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) * (j * x * y)



Full Cubic Logarithmic With XY Linear Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³ + hln(x)ln(y) + iln(x)²ln(y) + jln(x)ln(y)²) * (k * x * y) + Offset
Full Cubic Logarithmic Transform With XY Linear Growth And Offset 3D		z = ( a + bln(kx+l) + cln(my+n) + dln(kx+l)² + eln(my+n)² + fln(kx+l)³ + gln(my+n)³ + hln(kx+l)ln(my+n) + iln(kx+l)²ln(my+n) + jln(kx+l)ln(my+n)²) * (o * x * y) + Offset
Full Quadratic Logarithmic With XY Linear Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)ln(y)) * (g * x * y) + Offset
Full Quadratic Logarithmic Transform With XY Linear Growth And Offset 3D		z = ( a + bln(gx+h) + cln(iy+j) + dln(gx+h)² + eln(iy+j)² + fln(gx+h)ln(iy+j)) * (k * x * y) + Offset
Linear Logarithmic With XY Linear Growth And Offset 3D		z = ( a + bln(x) + cln(y)) * (d * x * y) + Offset
Linear Logarithmic Transform With XY Linear Growth And Offset 3D		z = ( a + bln(dx+e) + cln(fy+g)) * (g * x * y) + Offset
Simplified Cubic Logarithmic With XY Linear Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)² + fln(x)³ + gln(y)³) * (h * x * y) + Offset
Simplified Cubic Logarithmic Transform With XY Linear Growth And Offset 3D		z = ( a + bln(hx+i) + cln(jy+k) + dln(hx+i)² + eln(jy+k)² + fln(hx+i)³ + gln(jy+k)³) * (l * x * y) + Offset
Simplified Quadratic Logarithmic With XY Linear Growth And Offset 3D		z = ( a + bln(x) + cln(y) + dln(x)² + eln(y)²) * (f * x * y) + Offset
Simplified Quadratic Logarithmic Transform With XY Linear Growth And Offset 3D		z = ( a + bln(fx+g) + cln(hy+i) + dln(fx+g)² + eln(hy+i)²) * (j * x * y) + Offset

Extreme Value A 3D		z = a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)
Extreme Value B 3D		z = a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)
Gaussian A 3D		z = a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))
Gaussian B 3D		z = a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))
Log-Normal A 3D		z = a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))
Log-Normal B 3D		z = a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))
Logistic A 3D		z = 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)
Logistic B 3D		z = 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)
Lorentzian A 3D		z = a / ((1+((x-b)/c)²)*(1+((y-d)/e)²))
Lorentzian B 3D		z = a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)



Extreme Value A With Offset 3D		z = a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1) + Offset
Extreme Value B With Offset 3D		z = a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1) + Offset
Gaussian A With Offset 3D		z = a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²)) + Offset
Gaussian B With Offset 3D		z = a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²)) + Offset
Log-Normal A With Offset 3D		z = a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²)) + Offset
Log-Normal B With Offset 3D		z = a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²)) + Offset
Logistic A With Offset 3D		z = 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²) + Offset
Logistic B With Offset 3D		z = 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²) + Offset
Lorentzian A With Offset 3D		z = a / ((1+((x-b)/c)²)*(1+((y-d)/e)²)) + Offset
Lorentzian B With Offset 3D		z = a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²) + Offset



Extreme Value A With XY Exponential Decay 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) / (g * exp(x*y))
Extreme Value B With XY Exponential Decay 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) / (f * exp(x*y))
Gaussian A With XY Exponential Decay 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) / (f * exp(x*y))
Gaussian B With XY Exponential Decay 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) / (g * exp(x*y))
Log-Normal A With XY Exponential Decay 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) / (f * exp(x*y))
Log-Normal B With XY Exponential Decay 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) / (g * exp(x*y))
Logistic A With XY Exponential Decay 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) / (g * exp(x*y))
Logistic B With XY Exponential Decay 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) / (f * exp(x*y))
Lorentzian A With XY Exponential Decay 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) / (f exp(x*y))
Lorentzian B With XY Exponential Decay 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) / (g * exp(x*y))



Extreme Value A With XY Exponential Decay And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) / (g * exp(x*y)) + Offset
Extreme Value B With XY Exponential Decay And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) / (f * exp(x*y)) + Offset
Gaussian A With XY Exponential Decay And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) / (f * exp(x*y)) + Offset
Gaussian B With XY Exponential Decay And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) / (g * exp(x*y)) + Offset
Log-Normal A With XY Exponential Decay And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) / (f * exp(x*y)) + Offset
Log-Normal B With XY Exponential Decay And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) / (g * exp(x*y)) + Offset
Logistic A With XY Exponential Decay And Offset 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) / (g * exp(x*y)) + Offset
Logistic B With XY Exponential Decay And Offset 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) / (f * exp(x*y)) + Offset
Lorentzian A With XY Exponential Decay And Offset 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) / (f exp(x*y)) + Offset
Lorentzian B With XY Exponential Decay And Offset 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) / (g * exp(x*y)) + Offset



Extreme Value A With XY Exponential Growth 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) * (g * exp(x*y))
Extreme Value B With XY Exponential Growth 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) * (f * exp(x*y))
Gaussian A With XY Exponential Growth 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) * (f * exp(x*y))
Gaussian B With XY Exponential Growth 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) * (g * exp(x*y))
Log-Normal A With XY Exponential Growth 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) * (f * exp(x*y))
Log-Normal B With XY Exponential Growth 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) * (g * exp(x*y))
Logistic A With XY Exponential Growth 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) * (g * exp(x*y))
Logistic B With XY Exponential Growth 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) * (f * exp(x*y))
Lorentzian A With XY Exponential Growth 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) (f * exp(x*y))
Lorentzian B With XY Exponential Growth 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) * (g * exp(x*y))



Extreme Value A With XY Exponential Growth And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) * (g * exp(x*y)) + Offset
Extreme Value B With XY Exponential Growth And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) * (f * exp(x*y)) + Offset
Gaussian A With XY Exponential Growth And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) * (f * exp(x*y)) + Offset
Gaussian B With XY Exponential Growth And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) * (g * exp(x*y)) + Offset
Log-Normal A With XY Exponential Growth And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) * (f * exp(x*y)) + Offset
Log-Normal B With XY Exponential Growth And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) * (g * exp(x*y)) + Offset
Logistic A With XY Exponential Growth And Offset 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) * (g * exp(x*y)) + Offset
Logistic B With XY Exponential Growth And Offset 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) * (f * exp(x*y)) + Offset
Lorentzian A With XY Exponential Growth And Offset 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) (f * exp(x*y)) + Offset
Lorentzian B With XY Exponential Growth And Offset 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) * (g * exp(x*y)) + Offset



Extreme Value A With XY Linear Decay 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) / (g * x * y)
Extreme Value B With XY Linear Decay 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) / (f * x * y)
Gaussian A With XY Linear Decay 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) / (f * x * y)
Gaussian B With XY Linear Decay 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) / (g * x * y)
Log-Normal A With XY Linear Decay 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) / (f * x * y)
Log-Normal B With XY Linear Decay 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) / (g * x * y)
Logistic A With XY Linear Decay 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) / (g * x * y)
Logistic B With XY Linear Decay 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) / (f * x * y)
Lorentzian A With XY Linear Decay 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) / (f x * y)
Lorentzian B With XY Linear Decay 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) / (g * x * y)



Extreme Value A With XY Linear Decay And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) / (g * x * y) + Offset
Extreme Value B With XY Linear Decay And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) / (f * x * y) + Offset
Gaussian A With XY Linear Decay And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) / (f * x * y) + Offset
Gaussian B With XY Linear Decay And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) / (g * x * y) + Offset
Log-Normal A With XY Linear Decay And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) / (f * x * y) + Offset
Log-Normal B With XY Linear Decay And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) / (g * x * y) + Offset
Logistic A With XY Linear Decay And Offset 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) / (g * x * y) + Offset
Logistic B With XY Linear Decay And Offset 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) / (f * x * y) + Offset
Lorentzian A With XY Linear Decay And Offset 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) / (f x * y) + Offset
Lorentzian B With XY Linear Decay And Offset 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) / (g * x * y) + Offset



Extreme Value A With XY Linear Growth 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) * (g * x * y)
Extreme Value B With XY Linear Growth 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) * (f * x * y)
Gaussian A With XY Linear Growth 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) * (f * x * y)
Gaussian B With XY Linear Growth 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) * (g * x * y)
Log-Normal A With XY Linear Growth 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) * (f * x * y)
Log-Normal B With XY Linear Growth 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) * (g * x * y)
Logistic A With XY Linear Growth 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) * (g * x * y)
Logistic B With XY Linear Growth 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) * (f * x * y)
Lorentzian A With XY Linear Growth 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) (f * x * y)
Lorentzian B With XY Linear Growth 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) * (g * x * y)



Extreme Value A With XY Linear Growth And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) + d * exp(-exp(-(y-e)/f)-(y-e)/f+1)) * (g * x * y) + Offset
Extreme Value B With XY Linear Growth And Offset 3D		z = ( a * exp(-exp(-(x-b)/c)-(x-b)/c+1) * exp(-exp(-(y-d)/e)-(y-e)/e+1)) * (f * x * y) + Offset
Gaussian A With XY Linear Growth And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)² + ((y-d)/e)²))) * (f * x * y) + Offset
Gaussian B With XY Linear Growth And Offset 3D		z = ( a * exp(-0.5 * (((x-b)/c)²)) + d * exp(-0.5 * (((y-e)/f)²))) * (g * x * y) + Offset
Log-Normal A With XY Linear Growth And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)² + ((lny-d)/e)²))) * (f * x * y) + Offset
Log-Normal B With XY Linear Growth And Offset 3D		z = ( a * exp(-0.5 * (((ln(x)-b)/c)²)) + d * exp(-0.5 * (((ln(y)-e)/f)²))) * (g * x * y) + Offset
Logistic A With XY Linear Growth And Offset 3D		z = ( 4a * exp(-((x-b)/c))/((1+exp(-((x-b)/c)))²) + 4d * exp(-((y-e)/f))/((1+exp(-((y-e)/f)))²)) * (g * x * y) + Offset
Logistic B With XY Linear Growth And Offset 3D		z = ( 16a * exp((-((x-b)/c)-((y-d)/e)) / ((1+exp(-((x-b)/c)))² * (1+exp(-((y-d)/e)))²)) * (f * x * y) + Offset
Lorentzian A With XY Linear Growth And Offset 3D		z = ( a / ((1+((x-b)/c)²)(1+((y-d)/e)²))) (f * x * y) + Offset
Lorentzian B With XY Linear Growth And Offset 3D		z = ( a / (1+((x-b)/c)²) + d * (1+((y-e)/f)²)) * (g * x * y) + Offset

Full Cubic 3D		z = a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²
Full Quadratic 3D		z = a + bx + cy + dx² + ey² + fxy
Linear 3D		z = a + bx + cy
User-Selectable Polynomial 3D		z = a + bx + cy + dx² + ey² + fx³ + gy³ + ...
Simplified Cubic 3D		z = a + bx + cy + dx² + ey² + fx³ + gy³
Simplified Quadratic 3D		z = a + bx + cy + dx² + ey²



Inverse Full Cubic 3D		z = xy / ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²)
Inverse Full Quadratic 3D		z = xy / ( a + bx + cy + dx² + ey² + fxy)
Inverse Linear 3D		z = xy / ( a + bx + cy)
Inverse User-Selectable Polynomial 3D		z = xy / ( a + bx + cy + dx² + ey² + fx³ + gy³ + ...)
Inverse Simplified Cubic 3D		z = xy / ( a + bx + cy + dx² + ey² + fx³ + gy³)
Inverse Simplified Quadratic 3D		z = xy / ( a + bx + cy + dx² + ey²)



Inverse Full Cubic With Offset 3D		z = xy / ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) + Offset
Inverse Full Quadratic With Offset 3D		z = xy / ( a + bx + cy + dx² + ey² + fxy) + Offset
Inverse Linear With Offset 3D		z = xy / ( a + bx + cy) + Offset
Inverse User-Selectable Polynomial With Offset 3D		z = xy / ( a + bx + cy + dx² + ey² + fx³ + gy³ + ...) + Offset
Inverse Simplified Cubic With Offset 3D		z = xy / ( a + bx + cy + dx² + ey² + fx³ + gy³) + Offset
Inverse Simplified Quadratic With Offset 3D		z = xy / ( a + bx + cy + dx² + ey²) + Offset



Reciprocal Full Cubic 3D		z = 1.0 / ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²)
Reciprocal Full Quadratic 3D		z = 1.0 / ( a + bx + cy + dx² + ey² + fxy)
Reciprocal Linear 3D		z = 1.0 / ( a + bx + cy)
Reciprocal User-Selectable Polynomial 3D		z = 1.0 / ( a + bx + cy + dx² + ey² + fx³ + gy³ + ...)
Reciprocal Simplified Cubic 3D		z = 1.0 / ( a + bx + cy + dx² + ey² + fx³ + gy³)
Reciprocal Simplified Quadratic 3D		z = 1.0 / ( a + bx + cy + dx² + ey²)



Full Cubic With XY Exponential Decay 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) / (k * exp(x*y))
Full Quadratic With XY Exponential Decay 3D		z = ( a + bx + cy + dx² + ey² + fxy) / (g * exp(x*y))
Linear With XY Exponential Decay 3D		z = ( a + bx + cy) / (d * exp(x*y))
Simplified Cubic With XY Exponential Decay 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) / (h * exp(x*y))
Simplified Quadratic With XY Exponential Decay 3D		z = ( a + bx + cy + dx² + ey²) / (f * exp(x*y))



Full Cubic With XY Exponential Decay And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) / (k * exp(x*y)) + Offset
Full Quadratic With XY Exponential Decay And Offset 3D		z = ( a + bx + cy + dx² + ey² + fxy) / (g * exp(x*y)) + Offset
Linear With XY Exponential Decay And Offset 3D		z = ( a + bx + cy) / (d * exp(x*y)) + Offset
Simplified Cubic With XY Exponential Decay And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) / (h * exp(x*y)) + Offset
Simplified Quadratic With XY Exponential Decay And Offset 3D		z = ( a + bx + cy + dx² + ey²) / (f * exp(x*y)) + Offset



Full Cubic With XY Exponential Growth 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) * (k * exp(x*y))
Full Quadratic With XY Exponential Growth 3D		z = ( a + bx + cy + dx² + ey² + fxy) * (g * exp(x*y))
Linear With XY Exponential Growth 3D		z = ( a + bx + cy) * (d * exp(x*y))
Simplified Cubic With XY Exponential Growth 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) * (h * exp(x*y))
Simplified Quadratic With XY Exponential Growth 3D		z = ( a + bx + cy + dx² + ey²) * (f * exp(x*y))



Full Cubic With XY Exponential Growth And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) * (k * exp(x*y)) + Offset
Full Quadratic With XY Exponential Growth And Offset 3D		z = ( a + bx + cy + dx² + ey² + fxy) * (g * exp(x*y)) + Offset
Linear With XY Exponential Growth And Offset 3D		z = ( a + bx + cy) * (d * exp(x*y)) + Offset
Simplified Cubic With XY Exponential Growth And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) * (h * exp(x*y)) + Offset
Simplified Quadratic With XY Exponential Growth And Offset 3D		z = ( a + bx + cy + dx² + ey²) * (f * exp(x*y)) + Offset



Full Cubic With XY Linear Decay 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) / (k * x * y)
Full Quadratic With XY Linear Decay 3D		z = ( a + bx + cy + dx² + ey² + fxy) / (g * x * y)
Linear With XY Linear Decay 3D		z = ( a + bx + cy) / (d * x * y)
Simplified Cubic With XY Linear Decay 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) / (h * x * y)
Simplified Quadratic With XY Linear Decay 3D		z = ( a + bx + cy + dx² + ey²) / (f * x * y)



Full Cubic With XY Linear Decay And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) / (k * x * y) + Offset
Full Quadratic With XY Linear Decay And Offset 3D		z = ( a + bx + cy + dx² + ey² + fxy) / (g * x * y) + Offset
Linear With XY Linear Decay And Offset 3D		z = ( a + bx + cy) / (d * x * y) + Offset
Simplified Cubic With XY Linear Decay And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) / (h * x * y) + Offset
Simplified Quadratic With XY Linear Decay And Offset 3D		z = ( a + bx + cy + dx² + ey²) / (f * x * y) + Offset



Full Cubic With XY Linear Growth 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) * (k * x * y)
Full Quadratic With XY Linear Growth 3D		z = ( a + bx + cy + dx² + ey² + fxy) * (g * x * y)
Linear With XY Linear Growth 3D		z = ( a + bx + cy) * (d * x * y)
Simplified Cubic With XY Linear Growth 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) * (h * x * y)
Simplified Quadratic With XY Linear Growth 3D		z = ( a + bx + cy + dx² + ey²) * (f * x * y)



Full Cubic With XY Linear Growth And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³ + hxy + ix²y + jxy²) * (k * x * y) + Offset
Full Quadratic With XY Linear Growth And Offset 3D		z = ( a + bx + cy + dx² + ey² + fxy) * (g * x * y) + Offset
Linear With XY Linear Growth And Offset 3D		z = ( a + bx + cy) * (d * x * y) + Offset
Simplified Cubic With XY Linear Growth And Offset 3D		z = ( a + bx + cy + dx² + ey² + fx³ + gy³) * (h * x * y) + Offset
Simplified Quadratic With XY Linear Growth And Offset 3D		z = ( a + bx + cy + dx² + ey²) * (f * x * y) + Offset

Power A 3D		z = a * (x^b + y^c)
Power A Transform 3D		z = a * ((dx + e)^b + (fy + g)^c)
Power B 3D		z = a + x^b + y^c
Power B Transform 3D		z = a + (dx + e)^b + (fy + g)^c
Power C 3D		z = a + x^b * y^c
Power C Transform 3D		z = a + (dx + e)^b * (fy + g)^c
Power D 3D		z = ax^b + cy^d
Power D Transform 3D		z = a(ex + f)^b + c(gy + h)^d
Power E 3D		z = a * x^b * y^c
Power E Transform 3D		z = a * (dx + e)^b * (fy + g)^c



Power A With Offset 3D		z = a * (x^b + y^c) + Offset
Power A Transform With Offset 3D		z = a * ((dx + e)^b + (fy + g)^c) + Offset
Power D With Offset 3D		z = ax^b + cy^d + Offset
Power D Transform With Offset 3D		z = a(ex + f)^b + c(gy + h)^d + Offset
Power E With Offset 3D		z = a * x^b * y^c + Offset
Power E Transform With Offset 3D		z = a * (dx + e)^b * (fy + g)^c + Offset



Inverse Power A 3D		z = xy / ( a * (x^b + y^c))
Inverse Power A Transform 3D		z = xy / ( a * ((dx + e)^b + (fy + g)^c))
Inverse Power B 3D		z = xy / ( a + x^b + y^c)
Inverse Power B Transform 3D		z = xy / ( a + (dx + e)^b + (fy + g)^c)
Inverse Power C 3D		z = xy / ( a + x^b * y^c)
Inverse Power C Transform 3D		z = xy / ( a + (dx + e)^b * (fy + g)^c)
Inverse Power D 3D		z = xy / ( ax^b + cy^d)
Inverse Power D Transform 3D		z = xy / ( a(ex + f)^b + c(gy + h)^d)
Inverse Power E 3D		z = xy / ( a * x^b * y^c)
Inverse Power E Transform 3D		z = xy / ( a * (dx + e)^b * (fy + g)^c)



Inverse Power A With Offset 3D		z = xy / ( a * (x^b + y^c)) + Offset
Inverse Power A Transform With Offset 3D		z = xy / ( a * ((dx + e)^b + (fy + g)^c)) + Offset
Inverse Power B With Offset 3D		z = xy / ( a + x^b + y^c) + Offset
Inverse Power B Transform With Offset 3D		z = xy / ( a + (dx + e)^b + (fy + g)^c) + Offset
Inverse Power C With Offset 3D		z = xy / ( a + x^b * y^c) + Offset
Inverse Power C Transform With Offset 3D		z = xy / ( a + (dx + e)^b * (fy + g)^c) + Offset
Inverse Power D With Offset 3D		z = xy / ( ax^b + cy^d) + Offset
Inverse Power D Transform With Offset 3D		z = xy / ( a(ex + f)^b + c(gy + h)^d) + Offset
Inverse Power E With Offset 3D		z = xy / ( a * x^b * y^c) + Offset
Inverse Power E Transform With Offset 3D		z = xy / ( a * (dx + e)^b * (fy + g)^c) + Offset



Reciprocal Power A 3D		z = 1.0 / ( a * (x^b + y^c))
Reciprocal Power A Transform 3D		z = 1.0 / ( a * ((dx + e)^b + (fy + g)^c))
Reciprocal Power B 3D		z = 1.0 / ( a + x^b + y^c)
Reciprocal Power B Transform 3D		z = 1.0 / ( a + (dx + e)^b + (fy + g)^c)
Reciprocal Power C 3D		z = 1.0 / ( a + x^b * y^c)
Reciprocal Power C Transform 3D		z = 1.0 / ( a + (dx + e)^b * (fy + g)^c)
Reciprocal Power D 3D		z = 1.0 / ( ax^b + cy^d)
Reciprocal Power D Transform 3D		z = 1.0 / ( a(ex + f)^b + c(gy + h)^d)
Reciprocal Power E 3D		z = 1.0 / ( a * x^b * y^c)
Reciprocal Power E Transform 3D		z = 1.0 / ( a * (dx + e)^b * (fy + g)^c)



Reciprocal Power A With Offset 3D		z = 1.0 / ( a * (x^b + y^c)) + Offset
Reciprocal Power A Transform With Offset 3D		z = 1.0 / ( a * ((dx + e)^b + (fy + g)^c)) + Offset
Reciprocal Power D With Offset 3D		z = 1.0 / ( ax^b + cy^d) + Offset
Reciprocal Power D Transform With Offset 3D		z = 1.0 / ( a(ex + f)^b + c(gy + h)^d) + Offset
Reciprocal Power E With Offset 3D		z = 1.0 / ( a * x^b * y^c) + Offset
Reciprocal Power E Transform With Offset 3D		z = 1.0 / ( a * (dx + e)^b * (fy + g)^c) + Offset



Power A With XY Exponential Decay 3D		z = ( a * (x^b + y^c)) / (d * exp(x*y))
Power A Transform With XY Exponential Decay 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) / (h * exp(x*y))
Power B With XY Exponential Decay 3D		z = ( a + x^b + y^c) / (d * exp(x*y))
Power B Transform With XY Exponential Decay 3D		z = ( a + (dx + e)^b + (fy + g)^c) / (h * exp(x*y))
Power C With XY Exponential Decay 3D		z = ( a + x^b * y^c) / (d * exp(x*y))
Power C Transform With XY Exponential Decay 3D		z = ( a + (dx + e)^b * (fy + g)^c) / (h * exp(x*y))
Power D With XY Exponential Decay 3D		z = ( ax^b + cy^d) / (e * exp(x*y))
Power D Transform With XY Exponential Decay 3D		z = ( a(ex + f)^b + c(gy + h)^d) / (i * exp(x*y))
Power E With XY Exponential Decay 3D		z = ( a * x^b * y^c) / (d * exp(x*y))
Power E Transform With XY Exponential Decay 3D		z = ( a * (dx + e)^b * (fy + g)^c) / (h * exp(x*y))



Power A With XY Exponential Decay And Offset 3D		z = ( a * (x^b + y^c)) / (d * exp(x*y)) + Offset
Power A Transform With XY Exponential Decay And Offset 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) / (h * exp(x*y)) + Offset
Power B With XY Exponential Decay And Offset 3D		z = ( a + x^b + y^c) / (d * exp(x*y)) + Offset
Power B Transform With XY Exponential Decay And Offset 3D		z = ( a + (dx + e)^b + (fy + g)^c) / (h * exp(x*y)) + Offset
Power C With XY Exponential Decay And Offset 3D		z = ( a + x^b * y^c) / (d * exp(x*y)) + Offset
Power C Transform With XY Exponential Decay And Offset 3D		z = ( a + (dx + e)^b * (fy + g)^c) / (h * exp(x*y)) + Offset
Power D With XY Exponential Decay And Offset 3D		z = ( ax^b + cy^d) / (e * exp(x*y)) + Offset
Power D Transform With XY Exponential Decay And Offset 3D		z = ( a(ex + f)^b + c(gy + h)^d) / (i * exp(x*y)) + Offset
Power E With XY Exponential Decay And Offset 3D		z = ( a * x^b * y^c) / (d * exp(x*y)) + Offset
Power E Transform With XY Exponential Decay And Offset 3D		z = ( a * (dx + e)^b * (fy + g)^c) / (h * exp(x*y)) + Offset



Power A With XY Exponential Growth 3D		z = ( a * (x^b + y^c)) * (d * exp(x*y))
Power A Transform With XY Exponential Growth 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) * (h * exp(x*y))
Power B With XY Exponential Growth 3D		z = ( a + x^b + y^c) * (d * exp(x*y))
Power B Transform With XY Exponential Growth 3D		z = ( a + (dx + e)^b + (fy + g)^c) * (h * exp(x*y))
Power C With XY Exponential Growth 3D		z = ( a + x^b * y^c) * (d * exp(x*y))
Power C Transform With XY Exponential Growth 3D		z = ( a + (dx + e)^b * (fy + g)^c) * (h * exp(x*y))
Power D With XY Exponential Growth 3D		z = ( ax^b + cy^d) * (e * exp(x*y))
Power D Transform With XY Exponential Growth 3D		z = ( a(ex + f)^b + c(gy + h)^d) * (i * exp(x*y))
Power E With XY Exponential Growth 3D		z = ( a * x^b * y^c) * (d * exp(x*y))
Power E Transform With XY Exponential Growth 3D		z = ( a * (dx + e)^b * (fy + g)^c) * (h * exp(x*y))



Power A With XY Exponential Growth And Offset 3D		z = ( a * (x^b + y^c)) * (d * exp(x*y)) + Offset
Power A Transform With XY Exponential Growth And Offset 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) * (h * exp(x*y)) + Offset
Power B With XY Exponential Growth And Offset 3D		z = ( a + x^b + y^c) * (d * exp(x*y)) + Offset
Power B Transform With XY Exponential Growth And Offset 3D		z = ( a + (dx + e)^b + (fy + g)^c) * (h * exp(x*y)) + Offset
Power C With XY Exponential Growth And Offset 3D		z = ( a + x^b * y^c) * (d * exp(x*y)) + Offset
Power C Transform With XY Exponential Growth And Offset 3D		z = ( a + (dx + e)^b * (fy + g)^c) * (h * exp(x*y)) + Offset
Power D With XY Exponential Growth And Offset 3D		z = ( ax^b + cy^d) * (e * exp(x*y)) + Offset
Power D Transform With XY Exponential Growth And Offset 3D		z = ( a(ex + f)^b + c(gy + h)^d) * (i * exp(x*y)) + Offset
Power E With XY Exponential Growth And Offset 3D		z = ( a * x^b * y^c) * (d * exp(x*y)) + Offset
Power E Transform With XY Exponential Growth And Offset 3D		z = ( a * (dx + e)^b * (fy + g)^c) * (h * exp(x*y)) + Offset



Power A With XY Linear Decay 3D		z = ( a * (x^b + y^c)) / (d * x * y)
Power A Transform With XY Linear Decay 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) / (h * x * y)
Power B With XY Linear Decay 3D		z = ( a + x^b + y^c) / (d * x * y)
Power B Transform With XY Linear Decay 3D		z = ( a + (dx + e)^b + (fy + g)^c) / (h * x * y)
Power C With XY Linear Decay 3D		z = ( a + x^b * y^c) / (d * x * y)
Power C Transform With XY Linear Decay 3D		z = ( a + (dx + e)^b * (fy + g)^c) / (h * x * y)
Power D With XY Linear Decay 3D		z = ( ax^b + cy^d) / (e * x * y)
Power D Transform With XY Linear Decay 3D		z = ( a(ex + f)^b + c(gy + h)^d) / (i * x * y)
Power E With XY Linear Decay 3D		z = ( a * x^b * y^c) / (d * x * y)
Power E Transform With XY Linear Decay 3D		z = ( a * (dx + e)^b * (fy + g)^c) / (h * x * y)



Power A With XY Linear Decay And Offset 3D		z = ( a * (x^b + y^c)) / (d * x * y) + Offset
Power A Transform With XY Linear Decay And Offset 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) / (h * x * y) + Offset
Power B With XY Linear Decay And Offset 3D		z = ( a + x^b + y^c) / (d * x * y) + Offset
Power B Transform With XY Linear Decay And Offset 3D		z = ( a + (dx + e)^b + (fy + g)^c) / (h * x * y) + Offset
Power C With XY Linear Decay And Offset 3D		z = ( a + x^b * y^c) / (d * x * y) + Offset
Power C Transform With XY Linear Decay And Offset 3D		z = ( a + (dx + e)^b * (fy + g)^c) / (h * x * y) + Offset
Power D With XY Linear Decay And Offset 3D		z = ( ax^b + cy^d) / (e * x * y) + Offset
Power D Transform With XY Linear Decay And Offset 3D		z = ( a(ex + f)^b + c(gy + h)^d) / (i * x * y) + Offset
Power E With XY Linear Decay And Offset 3D		z = ( a * x^b * y^c) / (d * x * y) + Offset
Power E Transform With XY Linear Decay And Offset 3D		z = ( a * (dx + e)^b * (fy + g)^c) / (h * x * y) + Offset



Power A With XY Linear Growth 3D		z = ( a * (x^b + y^c)) * (d * x * y)
Power A Transform With XY Linear Growth 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) * (h * x * y)
Power B With XY Linear Growth 3D		z = ( a + x^b + y^c) * (d * x * y)
Power B Transform With XY Linear Growth 3D		z = ( a + (dx + e)^b + (fy + g)^c) * (h * x * y)
Power C With XY Linear Growth 3D		z = ( a + x^b * y^c) * (d * x * y)
Power C Transform With XY Linear Growth 3D		z = ( a + (dx + e)^b * (fy + g)^c) * (h * x * y)
Power D With XY Linear Growth 3D		z = ( ax^b + cy^d) * (e * x * y)
Power D Transform With XY Linear Growth 3D		z = ( a(ex + f)^b + c(gy + h)^d) * (i * x * y)
Power E With XY Linear Growth 3D		z = ( a * x^b * y^c) * (d * x * y)
Power E Transform With XY Linear Growth 3D		z = ( a * (dx + e)^b * (fy + g)^c) * (h * x * y)



Power A With XY Linear Growth And Offset 3D		z = ( a * (x^b + y^c)) * (d * x * y) + Offset
Power A Transform With XY Linear Growth And Offset 3D		z = ( a * ((dx + e)^b + (fy + g)^c)) * (h * x * y) + Offset
Power B With XY Linear Growth And Offset 3D		z = ( a + x^b + y^c) * (d * x * y) + Offset
Power B Transform With XY Linear Growth And Offset 3D		z = ( a + (dx + e)^b + (fy + g)^c) * (h * x * y) + Offset
Power C With XY Linear Growth And Offset 3D		z = ( a + x^b * y^c) * (d * x * y) + Offset
Power C Transform With XY Linear Growth And Offset 3D		z = ( a + (dx + e)^b * (fy + g)^c) * (h * x * y) + Offset
Power D With XY Linear Growth And Offset 3D		z = ( ax^b + cy^d) * (e * x * y) + Offset
Power D Transform With XY Linear Growth And Offset 3D		z = ( a(ex + f)^b + c(gy + h)^d) * (i * x * y) + Offset
Power E With XY Linear Growth And Offset 3D		z = ( a * x^b * y^c) * (d * x * y) + Offset
Power E Transform With XY Linear Growth And Offset 3D		z = ( a * (dx + e)^b * (fy + g)^c) * (h * x * y) + Offset

Roman Surface (minus) 3D		z = (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))
Roman Surface (minus) Offset XY 3D		z = (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))
Roman Surface (minus) Scaled And Offset XY 3D		z = (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))
Roman Surface (plus) 3D		z = (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))
Roman Surface (plus) Offset XY 3D		z = (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))
Roman Surface (plus) Scaled And Offset XY 3D		z = (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))



Roman Surface (minus) With Offset 3D		z = (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²)) + Offset
Roman Surface (minus) Offset XY With Offset 3D		z = (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²)) + Offset
Roman Surface (minus) Scaled And Offset XY With Offset 3D		z = (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²)) + Offset
Roman Surface (plus) With Offset 3D		z = (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²)) + Offset
Roman Surface (plus) Offset XY With Offset 3D		z = (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²)) + Offset
Roman Surface (plus) Scaled And Offset XY With Offset 3D		z = (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²)) + Offset



Roman Surface (minus) With XY Exponential Decay 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * exp(x*y))
Roman Surface (minus) Offset XY With XY Exponential Decay 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * exp(x*y))
Roman Surface (minus) Scaled And Offset XY With XY Exponential Decay 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * exp(x*y))
Roman Surface (plus) With XY Exponential Decay 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * exp(x*y))
Roman Surface (plus) Offset XY With XY Exponential Decay 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * exp(x*y))
Roman Surface (plus) Scaled And Offset XY With XY Exponential Decay 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * exp(x*y))



Roman Surface (minus) With XY Exponential Decay And Offset 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * exp(x*y)) + Offset
Roman Surface (minus) Offset XY With XY Exponential Decay And Offset 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * exp(x*y)) + Offset
Roman Surface (minus) Scaled And Offset XY With XY Exponential Decay And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * exp(x*y)) + Offset
Roman Surface (plus) With XY Exponential Decay And Offset 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * exp(x*y)) + Offset
Roman Surface (plus) Offset XY With XY Exponential Decay And Offset 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * exp(x*y)) + Offset
Roman Surface (plus) Scaled And Offset XY With XY Exponential Decay And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * exp(x*y)) + Offset



Roman Surface (minus) With XY Exponential Growth 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * exp(x*y))
Roman Surface (minus) Offset XY With XY Exponential Growth 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * exp(x*y))
Roman Surface (minus) Scaled And Offset XY With XY Exponential Growth 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * exp(x*y))
Roman Surface (plus) With XY Exponential Growth 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * exp(x*y))
Roman Surface (plus) Offset XY With XY Exponential Growth 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * exp(x*y))
Roman Surface (plus) Scaled And Offset XY With XY Exponential Growth 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * exp(x*y))



Roman Surface (minus) With XY Exponential Growth And Offset 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * exp(x*y)) + Offset
Roman Surface (minus) Offset XY With XY Exponential Growth And Offset 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * exp(x*y)) + Offset
Roman Surface (minus) Scaled And Offset XY With XY Exponential Growth And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * exp(x*y)) + Offset
Roman Surface (plus) With XY Exponential Growth And Offset 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * exp(x*y)) + Offset
Roman Surface (plus) Offset XY With XY Exponential Growth And Offset 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * exp(x*y)) + Offset
Roman Surface (plus) Scaled And Offset XY With XY Exponential Growth And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * exp(x*y)) + Offset



Roman Surface (minus) With XY Linear Decay 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * x * y)
Roman Surface (minus) Offset XY With XY Linear Decay 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * x * y)
Roman Surface (minus) Scaled And Offset XY With XY Linear Decay 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * x * y)
Roman Surface (plus) With XY Linear Decay 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * x * y)
Roman Surface (plus) Offset XY With XY Linear Decay 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * x * y)
Roman Surface (plus) Scaled And Offset XY With XY Linear Decay 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * x * y)



Roman Surface (minus) With XY Linear Decay And Offset 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * x * y) + Offset
Roman Surface (minus) Offset XY With XY Linear Decay And Offset 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * x * y) + Offset
Roman Surface (minus) Scaled And Offset XY With XY Linear Decay And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * x * y) + Offset
Roman Surface (plus) With XY Linear Decay And Offset 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) / (b * x * y) + Offset
Roman Surface (plus) Offset XY With XY Linear Decay And Offset 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) / (d * x * y) + Offset
Roman Surface (plus) Scaled And Offset XY With XY Linear Decay And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) / (f * x * y) + Offset



Roman Surface (minus) With XY Linear Growth 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * x * y)
Roman Surface (minus) Offset XY With XY Linear Growth 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * x * y)
Roman Surface (minus) Scaled And Offset XY With XY Linear Growth 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * x * y)
Roman Surface (plus) With XY Linear Growth 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * x * y)
Roman Surface (plus) Offset XY With XY Linear Growth 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * x * y)
Roman Surface (plus) Scaled And Offset XY With XY Linear Growth 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * x * y)



Roman Surface (minus) With XY Linear Growth And Offset 3D		z = ( (k(y²-x²) - (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * x * y) + Offset
Roman Surface (minus) Offset XY With XY Linear Growth And Offset 3D		z = ( (k((y+b)²-(x+a)²) - ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * x * y) + Offset
Roman Surface (minus) Scaled And Offset XY With XY Linear Growth And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) - ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * x * y) + Offset
Roman Surface (plus) With XY Linear Growth And Offset 3D		z = ( (k(y²-x²) + (x²-y²)sqrt(k²-x²-y²)) / (2(x²+y²))) * (b * x * y) + Offset
Roman Surface (plus) Offset XY With XY Linear Growth And Offset 3D		z = ( (k((y+b)²-(x+a)²) + ((x+a)²-(y+b)²)sqrt(k²-(x+a)²-(y+b)²)) / (2((x+a)²+(y+b)²))) * (d * x * y) + Offset
Roman Surface (plus) Scaled And Offset XY With XY Linear Growth And Offset 3D		z = ( (k((cy+d)²-(ax+b)²) + ((ax+b)²-(cy+d)²)sqrt(k²-(ax+b)²-(cy+d)²)) / (2((ax+b)²+(cy+d)²))) * (f * x * y) + Offset

Andrea Prunotto Sigmoid A 3D		z = a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))
Andrea Prunotto Sigmoid B 3D		z = a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))
Fraser Smith Sigmoid 3D		z = 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))
Sigmoid 3D		z = a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))



Fraser Smith Sigmoid With Offset 3D		z = 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)})) + Offset
Sigmoid With Offset 3D		z = a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)})) + Offset



Andrea Prunotto Sigmoid A With XY Exponential Decay 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) / (g * exp(x*y))
Andrea Prunotto Sigmoid B With XY Exponential Decay 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) / (g * exp(x*y))
Fraser Smith Sigmoid With XY Exponential Decay 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) / (e * exp(x*y))
Sigmoid With XY Exponential Decay 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) / (f * exp(x*y))



Andrea Prunotto Sigmoid A With XY Exponential Decay And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) / (g * exp(x*y)) + Offset
Andrea Prunotto Sigmoid B With XY Exponential Decay And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) / (g * exp(x*y)) + Offset
Fraser Smith Sigmoid With XY Exponential Decay And Offset 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) / (e * exp(x*y)) + Offset
Sigmoid With XY Exponential Decay And Offset 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) / (f * exp(x*y)) + Offset



Andrea Prunotto Sigmoid A With XY Exponential Growth 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) * (g * exp(x*y))
Andrea Prunotto Sigmoid B With XY Exponential Growth 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) * (g * exp(x*y))
Fraser Smith Sigmoid With XY Exponential Growth 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) * (e * exp(x*y))
Sigmoid With XY Exponential Growth 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) * (f * exp(x*y))



Andrea Prunotto Sigmoid A With XY Exponential Growth And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) * (g * exp(x*y)) + Offset
Andrea Prunotto Sigmoid B With XY Exponential Growth And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) * (g * exp(x*y)) + Offset
Fraser Smith Sigmoid With XY Exponential Growth And Offset 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) * (e * exp(x*y)) + Offset
Sigmoid With XY Exponential Growth And Offset 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) * (f * exp(x*y)) + Offset



Andrea Prunotto Sigmoid A With XY Linear Decay 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) / (g * x * y)
Andrea Prunotto Sigmoid B With XY Linear Decay 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) / (g * x * y)
Fraser Smith Sigmoid With XY Linear Decay 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) / (e * x * y)
Sigmoid With XY Linear Decay 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) / (f * x * y)



Andrea Prunotto Sigmoid A With XY Linear Decay And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) / (g * x * y) + Offset
Andrea Prunotto Sigmoid B With XY Linear Decay And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) / (g * x * y) + Offset
Fraser Smith Sigmoid With XY Linear Decay And Offset 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) / (e * x * y) + Offset
Sigmoid With XY Linear Decay And Offset 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) / (f * x * y) + Offset



Andrea Prunotto Sigmoid A With XY Linear Growth 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) * (g * x * y)
Andrea Prunotto Sigmoid B With XY Linear Growth 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) * (g * x * y)
Fraser Smith Sigmoid With XY Linear Growth 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) * (e * x * y)
Sigmoid With XY Linear Growth 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) * (f * x * y)



Andrea Prunotto Sigmoid A With XY Linear Growth And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x + a3 + a4 * y + a5 * x * y)}))) * (g * x * y) + Offset
Andrea Prunotto Sigmoid B With XY Linear Growth And Offset 3D		z = ( a0 + (a1 / (1.0 + e^{a2 * (x * a3 + a4 * y + a5 * x * y)}))) * (g * x * y) + Offset
Fraser Smith Sigmoid With XY Linear Growth And Offset 3D		z = ( 1.0 / ((1.0 + e^{(a - bx)}) * (1.0 + e^{(c - dy)}))) * (e * x * y) + Offset
Sigmoid With XY Linear Growth And Offset 3D		z = ( a / ((1.0 + e^{(b - cx)}) * (1.0 + e^{(d - ey)}))) * (f * x * y) + Offset

List Of All 2D Equations	-	Standard Versions Only
List Of All 2D Equations	-	Including Extended Versions

List Of All 3D Equations	-	Standard Versions Only
List Of All 3D Equations	-	Including Extended Versions

September 2010	Corrected divide-by-zero errors when fitting statistical distributions to data sets that contain few data points.

August 2010	Corrected the HTML output for the exponential extended versions of equations (see the Hall Of Fame). Major upgrade to descriptive statistics, 1D data can be fitted to over 80 statistical distributions. Corrected the Python source code output for User Defined Functions 2D (see the Hall Of Fame).

July 2010	Corrected the Power C 3D equation. Made performance improvements to the User Defined Functions. Added web references for NIST 2D equations. Improved error handling for polyfunctional and polyrational equations. Evaluated Amazon EC2 for distributed cloud computing use on the site. Evaluated PiCloud for distributed cloud computing use on the site. Added a large number of simple equations to both the 2D and 3D Miscellaneous categories of equations. Added new 3D BioScience equations, each with web citation. Added new 2D Optical family of equations, each with web citation. Additional simplification of automated source code generation. Added many new 2D equations. Simplified and regularized the automated source code generation. Corrected SCILAB and MATLAB source code output for power() function, along with correcting several typographical errors (see the Hall Of Fame).