numerical integration program scop version 3.51 (Simulation Resources Inc)
90
Structured Review
Simulation Resources Inc
numerical integration program scop version 3.51
Numerical Integration Program Scop Version 3.51, supplied by Simulation Resources Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/numerical+integration+program+scop/program+scop+version+3+51/pm11994007-161-13-30
Average 90 stars, based on 1 article reviews
Numerical Integration Program Scop Version 3.51, supplied by Simulation Resources Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/numerical+integration+program+scop/program+scop+version+3+51/pm11994007-161-13-30
Average 90 stars, based on 1 article reviews
numerical integration program scop version 3.51 - by Bioz Stars,
2026-09
90/100 stars
Images
Related Articles
other:Article Title: Kinetic Validation of the Models for P-Glycoprotein ATP Hydrolysis and Vanadate-Induced Trapping. Proposal for Additional Steps Article Snippet: The analytical solutions were obtained using the computational algebra package GROEBNER included in Maple 15 (MapleSoft Inc., Waterloo ON, Canada), while the Article Title: Intracellular spermine decreases open probability of N-methyl-D-aspartate receptor channels. Article Snippet: bstract—Spermine and related polyamines have been hown to be endogenous regulators of several ion channel ypes including ionotropic glutamate receptors.. The effect of permine on N-methyl-D-aspartate (NMDA) receptors in culured rat hippocampal neurons was studied using singlehannel and whole-cell patch clamp recordings.. Intracellular permine resulted in the dose-dependent inhibition of NMDAnduced responses. Software:Article Title: Insertion of an N7-methylguanine mRNA Cap between Two Coplanar Aromatic Residues of a Cap-binding Protein Is Fast and Selective for a Positively Charged Cap Article Snippet: Nonlinear regression analysis of pH-dependence of observed rates was conducted using the fitting routines resident in the SigmaPlot (SPSS Science, Chicago, IL.). .. Numerical integration was conducted using a Article Title: Quinidine interaction with Shab K + channels: pore block and irreversible collapse of the K + conductance Article Snippet: Curves were fitted with SigmaPlot v. 8.0 software (Systat Software Inc., San Jose, CA, USA). .. The differential equations of the tail kinetic scheme were numerically solved and fitted to the corresponding I K employing Comparison:Article Title: Kinetic-Dynamic Model for Conformational Control of an Electron Transfer Photocycle: Mixed-Metal Hemoglobin Hybrids Article Snippet: T(t) = T 0 e k p t (1) I ( t ) = T 0 k t k b k p ( e k p t e k b t ) (2) (k p = k t + k D ) using either Sigma Plot or lab-written routines. .. Kinetic Modeling For comparison of experiment and simulations with the KD model, presented in Results and illustrated in , we either used the solution to the differential equations for that were presented previously 6 and are repeated in Supporting Information ., or generated progress curves for the electron-transfer intermediate (I) and its component species (I R and I S ) by constructing the KD kinetic model of with the Article Title: Kinetic-Dynamic Model for Conformational Control of an Electron Transfer Photocycle: Mixed-Metal Hemoglobin Hybrids Article Snippet: T(t) = T 0 e k p t (1) I ( t ) = T 0 k t k b k p ( e k p t e k b t ) (2) (k p = k t + k D ) using either Sigma Plot or lab-written routines. .. For comparison of experiment and simulations with the KD model, presented in Results and illustrated in , we either used the solution to the differential equations for that were presented previously 6 and are repeated in Supporting Information ., or generated progress curves for the electron-transfer intermediate (I) and its component species (I R and I S ) by constructing the KD kinetic model of with the Generated:Article Title: Kinetic-Dynamic Model for Conformational Control of an Electron Transfer Photocycle: Mixed-Metal Hemoglobin Hybrids Article Snippet: T(t) = T 0 e k p t (1) I ( t ) = T 0 k t k b k p ( e k p t e k b t ) (2) (k p = k t + k D ) using either Sigma Plot or lab-written routines. .. Kinetic Modeling For comparison of experiment and simulations with the KD model, presented in Results and illustrated in , we either used the solution to the differential equations for that were presented previously 6 and are repeated in Supporting Information ., or generated progress curves for the electron-transfer intermediate (I) and its component species (I R and I S ) by constructing the KD kinetic model of with the Article Title: Kinetic-Dynamic Model for Conformational Control of an Electron Transfer Photocycle: Mixed-Metal Hemoglobin Hybrids Article Snippet: T(t) = T 0 e k p t (1) I ( t ) = T 0 k t k b k p ( e k p t e k b t ) (2) (k p = k t + k D ) using either Sigma Plot or lab-written routines. .. For comparison of experiment and simulations with the KD model, presented in Results and illustrated in , we either used the solution to the differential equations for that were presented previously 6 and are repeated in Supporting Information ., or generated progress curves for the electron-transfer intermediate (I) and its component species (I R and I S ) by constructing the KD kinetic model of with the Control:Article Title: Kinetic-Dynamic Model for Conformational Control of an Electron Transfer Photocycle: Mixed-Metal Hemoglobin Hybrids Article Snippet: T(t) = T 0 e k p t (1) I ( t ) = T 0 k t k b k p ( e k p t e k b t ) (2) (k p = k t + k D ) using either Sigma Plot or lab-written routines. .. Kinetic Modeling For comparison of experiment and simulations with the KD model, presented in Results and illustrated in , we either used the solution to the differential equations for that were presented previously 6 and are repeated in Supporting Information ., or generated progress curves for the electron-transfer intermediate (I) and its component species (I R and I S ) by constructing the KD kinetic model of with the Article Title: Kinetic-Dynamic Model for Conformational Control of an Electron Transfer Photocycle: Mixed-Metal Hemoglobin Hybrids Article Snippet: T(t) = T 0 e k p t (1) I ( t ) = T 0 k t k b k p ( e k p t e k b t ) (2) (k p = k t + k D ) using either Sigma Plot or lab-written routines. .. For comparison of experiment and simulations with the KD model, presented in Results and illustrated in , we either used the solution to the differential equations for that were presented previously 6 and are repeated in Supporting Information ., or generated progress curves for the electron-transfer intermediate (I) and its component species (I R and I S ) by constructing the KD kinetic model of with the |