Model Mathematics

Component: environment

pressure=350.0⁢max{0.0stretch-1.0} voltage_out=current_in1.0⁢1.0 transmembranevoltage=voltage_out-5⁢P_Open

Component: stimulus_protocol

stretch=stim_amplitudeiftime≥stim_offset∧time-stim_offsetmodstim_period≦stim_duration1.0otherwise

Component: stimulus_protocol

current=stim_amplitudeiftime≥stim_offset∧time<stim_t_end∧time-stim_offsetmodstim_period≦stim_duration∧time-stim_offsetmodN_period_total⁢stim_period<N_period_applied⁢stim_period0otherwise

Component: kinetics

r2=r1⁢r3⁢r5r4⁢r6 ce2=ce1+ce3+ce5-ce4-ce6 cm2=-cm4 p_O_I1=r1⁢ⅇce1⁢gradmu140 p_I1_O=r2⁢ⅇce2⁢gradmu140+cm2⁢pressure70 p_I1_C=r3⁢ⅇce3⁢gradmu140 p_C_I1=r4⁢ⅇce4⁢gradmu140+cm4⁢pressure70 p_C_O=r5⁢ⅇce5⁢gradmu140 p_O_C=r6⁢ⅇce6⁢gradmu140 p_I2_O=r7⁢ⅇce7⁢gradmu140⁢pressure70 p_O_I2=r8⁢ⅇce8⁢gradmu140 ddtimeP_Open=-p_O_I1+p_O_I2+p_O_C⁢P_Open+p_C_O⁢P_Closed+p_I1_O⁢P_I1+p_I2_O⁢P_I2 ddtimeP_Closed=-p_C_I1+p_C_O⁢P_Closed+p_O_C⁢P_Open+p_I1_C⁢P_I1 ddtimeP_I1=-p_I1_O+p_I1_C⁢P_I1+p_C_I1⁢P_Closed+p_O_I1⁢P_Open ddtimeP_I2=-p_I2_O⁢P_I2+p_O_I2⁢P_Open

Component: parameters

r2=r1⁢r3⁢r5r4⁢r6 ce2=ce1+ce3+ce5-ce4-ce6 cm2=-cm4

Component: equilibrium