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Component: output_18

Component: clamp_para

Component: free_para_18

Component: MWC_18

k_C = 0.5 alpha ⅇ^{\frac{V - V0}{8 K}} k_Cminus = 0.5 alpha ⅇ^{\frac{- (V - V0)}{8 K}} O = O_0 + O_1 + O_2 + O_3 + O_4 + O_5 + O_6 + O_7 + O_8 C = C_0 + C_1 + C_2 + C_3 + C_4 + C_5 + C_6 + C_7 + C_8 norm = C + O P_o = \frac{O}{norm} Q = \frac{O_1 + 2 O_2 + 3 O_3 + 4 O_4 + 5 O_5 + 6 O_6 + 7 O_7 + 8 O_8 + C_1 + 2 C_2 + 3 C_3 + 4 C_4 + 5 C_5 + 6 C_6 + 7 C_7 + 8 C_8}{8} dQ = \frac{dO_1 + 2 dO_2 + 3 dO_3 + 4 dO_4 + 5 dO_5 + 6 dO_6 + 7 dO_7 + 8 dO_8 + dC_1 + 2 dC_2 + 3 dC_3 + 4 dC_4 + 5 dC_5 + 6 dC_6 + 7 dC_7 + 8 dC_8}{8}

Component: C0_S2

k_i1 = k_L k_i2 = N k_C k_1i = k_Lminus k_2i = k_Cminus

Component: S1

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm})

Component: S2

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm})

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: C_S3

k_i1 = k_Cminus i k_i2 = \frac{k_L}{f^{i}} k_i3 = (N - i) k_C k_1i = ((N - i) + 1) k_C k_2i = k_Lminus f^{i} k_3i = (i + 1) k_Cminus

Component: S1

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm})

Component: S2

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm})

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: C_S3

k_i1 = k_Cminus i k_i2 = \frac{k_L}{f^{i}} k_i3 = (N - i) k_C k_1i = ((N - i) + 1) k_C k_2i = k_Lminus f^{i} k_3i = (i + 1) k_Cminus

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: C_S3

k_i1 = k_Cminus i k_i2 = \frac{k_L}{f^{i}} k_i3 = (N - i) k_C k_1i = ((N - i) + 1) k_C k_2i = k_Lminus f^{i} k_3i = (i + 1) k_Cminus

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: C_S3

k_i1 = k_Cminus i k_i2 = \frac{k_L}{f^{i}} k_i3 = (N - i) k_C k_1i = ((N - i) + 1) k_C k_2i = k_Lminus f^{i} k_3i = (i + 1) k_Cminus

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: C_S3

k_i1 = k_Cminus i k_i2 = \frac{k_L}{f^{i}} k_i3 = (N - i) k_C k_1i = ((N - i) + 1) k_C k_2i = k_Lminus f^{i} k_3i = (i + 1) k_Cminus

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: C_S3

k_i1 = k_Cminus i k_i2 = \frac{k_L}{f^{i}} k_i3 = (N - i) k_C k_1i = ((N - i) + 1) k_C k_2i = k_Lminus f^{i} k_3i = (i + 1) k_Cminus

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: C_S3

k_i1 = k_Cminus i k_i2 = \frac{k_L}{f^{i}} k_i3 = (N - i) k_C k_1i = ((N - i) + 1) k_C k_2i = k_Lminus f^{i} k_3i = (i + 1) k_Cminus

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: CN_S2

k_i1 = k_Cminus N k_i2 = \frac{k_L}{f^{N}} k_1i = k_C k_2i = k_Lminus f^{N}

Component: S1

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm})

Component: S2

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm})

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O0_S2

k_i1 = k_Lminus k_i2 = \frac{N k_C}{f} k_1i = k_L k_2i = f k_Cminus

Component: S1

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm})

Component: S2

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm})

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O_S3

k_i1 = k_Cminus i f k_i2 = k_Lminus f^{i} k_i3 = \frac{(N - i) k_C}{f} k_1i = \frac{((N - i) + 1) k_C}{f} k_2i = \frac{k_L}{f^{i}} k_3i = (i + 1) k_Cminus f

Component: S1

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm})

Component: S2

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm})

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O_S3

k_i1 = k_Cminus i f k_i2 = k_Lminus f^{i} k_i3 = \frac{(N - i) k_C}{f} k_1i = \frac{((N - i) + 1) k_C}{f} k_2i = \frac{k_L}{f^{i}} k_3i = (i + 1) k_Cminus f

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O_S3

k_i1 = k_Cminus i f k_i2 = k_Lminus f^{i} k_i3 = \frac{(N - i) k_C}{f} k_1i = \frac{((N - i) + 1) k_C}{f} k_2i = \frac{k_L}{f^{i}} k_3i = (i + 1) k_Cminus f

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O_S3

k_i1 = k_Cminus i f k_i2 = k_Lminus f^{i} k_i3 = \frac{(N - i) k_C}{f} k_1i = \frac{((N - i) + 1) k_C}{f} k_2i = \frac{k_L}{f^{i}} k_3i = (i + 1) k_Cminus f

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O_S3

k_i1 = k_Cminus i f k_i2 = k_Lminus f^{i} k_i3 = \frac{(N - i) k_C}{f} k_1i = \frac{((N - i) + 1) k_C}{f} k_2i = \frac{k_L}{f^{i}} k_3i = (i + 1) k_Cminus f

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O_S3

k_i1 = k_Cminus i f k_i2 = k_Lminus f^{i} k_i3 = \frac{(N - i) k_C}{f} k_1i = \frac{((N - i) + 1) k_C}{f} k_2i = \frac{k_L}{f^{i}} k_3i = (i + 1) k_Cminus f

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: O_S3

k_i1 = k_Cminus i f k_i2 = k_Lminus f^{i} k_i3 = \frac{(N - i) k_C}{f} k_1i = \frac{((N - i) + 1) k_C}{f} k_2i = \frac{k_L}{f^{i}} k_3i = (i + 1) k_Cminus f

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: ON_S2

k_i1 = k_Cminus N f k_i2 = k_Lminus f^{N} k_1i = \frac{k_C}{f} k_2i = \frac{k_L}{f^{N}}

Component: S1

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} - (\frac{k_i1 S_i}{norm})

Component: S2

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} - (\frac{(k_i1 + k_i2) S_i}{norm})

Component: S3

\frac{d}{d t} (S_i) = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm}) dS_i = \frac{k_1i S_1}{norm} + \frac{k_2i S_2}{norm} + \frac{k_3i S_3}{norm} - (\frac{(k_i1 + k_i2 + k_i3) S_i}{norm})

Component: Para

Component: sPulse_protocol_ms

V = \{\begin{matrix} V_actHolding if time < t_ss \\ V_actTest if time \geq t_ss \land time < t_act + t_ss \\ V_actHolding otherwise \end{matrix}

Component: dPulse_protocol_ms

V = \{\begin{matrix} V_actHolding if time < t_cd \\ V_cd if time \geq t_cd \land time < t_cd + T_cd \\ V_actHolding if time \geq t_cd + T_cd \land time < t_cd + T_cd + t_ss \\ V_actTest if time \geq t_cd + T_cd + t_ss \land time < t_cd + T_cd + t_act + t_ss \\ V_actHolding otherwise \end{matrix}

Component: sPulse_protocol_s

V = \{\begin{matrix} V_actHolding if time < t_ss \\ V_actTest if time \geq t_ss \land time < t_act + t_ss \\ V_actHolding otherwise \end{matrix}

Component: mPulse_protocol_ms

stimPeriod = t_act + t_intp t = time - t_ss - (stimPeriod ⌊ \frac{time - t_ss}{stimPeriod} ⌋) V = \{\begin{matrix} V_actHolding if time < t_ss \\ V_actTest if time \geq t_ss \land t ≦ t_act \land time ≦ t_ss + stimPeriod np \\ V_actHolding otherwise \end{matrix}

Component: mPulse_protocol_s

stimPeriod = t_act + t_intp t = time - t_ss - (stimPeriod ⌊ \frac{time - t_ss}{stimPeriod} ⌋) V = \{\begin{matrix} V_actHolding if time ≦ t_ss \\ V_actTest if time > t_ss \land t ≦ t_act \land time ≦ t_ss + stimPeriod np \\ V_actHolding otherwise \end{matrix}

Component: time_ms

Component: time_s

Source: Derived from workspace ECC_MSK (Rios et al. 1993) at changeset 0ce9b52f6ee1.

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