ETH Sim Mod Xor

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constants legend

constant set: '2h prot. half life'

simulated with these constants (constants legend)

        case '2h prot. half life'
            % approximate (median) concentration of I1/I2/I1p/I2p
            % used for k/K constants depending on this concentration
            stateIxx    = 100;
            
            
            k.I1        = 1;                    % []
            k.I2        = 1;                    % []
            k.I1p       = .3;                   % []
            k.I2p       = .3;                   % []
            k.I1I1p     = 1/stateIxx;           % [1/(min*muM)] dep. on I1/I1p
            k.I2I2p     = 1/stateIxx;           % [1/(min*muM)] dep. on I2/I2p
            k.I1I1p_    = 0.02;                 % [1/min]
            k.I2I2p_    = 0.02;                 % [1/min]
            k.I1inact   = 0.01;                 % [1/min]
            k.I2inact   = 0.01;                 % [1/min]
            d.I1        = log(2)/120;           % [1/min]
            d.I2        = log(2)/120;
            d.I1p       = log(2)/120;
            d.I2p       = log(2)/120;
            d.I1inact   = log(2)/120;
            d.I2inact   = log(2)/120;
            d.mOut      = log(2)/30;
            d.Out       = log(2)/120;
            r.Out       = 0.1;                  % []
            p.Out       = 0.1 * r.Out; % a * r  % []
            l.Out       = 1;                    % [1/min]
            K.Out       = stateIxx;             % [muM] dep. on I1/I2
            n.Out       = 1;    %int, ~1-4      % []

---

constant set: '5h prot. half life'

simulated with these constants (constants legend)

        otherwise   %case '5h prot. half life'
            % approximate (median) concentration of I1/I2/I1p/I2p
            % used for k/K constants depending on this concentration
            stateIxx    = 100;
            
            
            k.I1        = 1;                    % []
            k.I2        = 1;                    % []
            k.I1p       = .3;                   % []
            k.I2p       = .3;                   % []
            k.I1I1p     = 1/stateIxx;           % [1/(min*muM)] dep. on I1/I1p
            k.I2I2p     = 1/stateIxx;           % [1/(min*muM)] dep. on I2/I2p
            k.I1I1p_    = 0.02;                 % [1/min]
            k.I2I2p_    = 0.02;                 % [1/min]
            k.I1inact   = 0.01;                 % [1/min]
            k.I2inact   = 0.01;                 % [1/min]
            d.I1        = log(2)/300;           % [1/min]
            d.I2        = log(2)/300;
            d.I1p       = log(2)/300;
            d.I2p       = log(2)/300;
            d.I1inact   = log(2)/300;
            d.I2inact   = log(2)/300;
            d.mOut      = log(2)/30;
            d.Out       = log(2)/300;
            r.Out       = 0.1;                  % []
            p.Out       = 0.1 * r.Out; % a * r  % []
            l.Out       = 1;                    % [1/min]
            K.Out       = stateIxx;             % [muM] dep. on I1/I2
            n.Out       = 1;    %int, ~1-4      % []