Currents (pA) | Reversal potentials (mV) |
---|---|
\(I_{\mathrm{Na}}=\bar{g}_{\mathrm{Na}} m^{3}_{\mathrm{Na}} h_{\mathrm {Na}} (V-E_{\mathrm{Na}})\) | \(E_{\mathrm{Na}}= (R T/F) \ln(\mathrm{Na}_{\mathrm{o}}/\mathrm{Na}_{\mathrm{i}})\) |
\(I_{\mathrm{NaP}}=\bar{g}_{\mathrm{NaP}} m_{\mathrm{NaP}} h_{\mathrm {NaP}} (V-E_{\mathrm{Na}})\) | |
\(I_{\mathrm{K}}=\bar{g}_{\mathrm{K}} m^{4}_{\mathrm{K}} (V-E_{\mathrm {K}})\) | \(E_{\mathrm{K}}=(R T/F) \ln(\mathrm{K}_{\mathrm{o}}/\mathrm{K}_{\mathrm{i}})\) |
\(I_{\mathrm{Ca}}=\bar{g}_{\mathrm{Ca}} m_{\mathrm{Ca}} h_{\mathrm{Ca}} (V-E_{\mathrm{Ca}})\) | \(E_{\mathrm{Ca}}= (R T/2F) \ln(\mathrm {Ca}_{\mathrm{o}}/\mathrm{Ca}_{\mathrm{i}})\) |
\(I_{\mathrm{CAN}}=\bar{g}_{\mathrm{CAN}} m_{\mathrm{CAN}} (V-E_{\mathrm {CAN}})\) | \(E_{\mathrm{CAN}}=0\) |
\(I_{\mathrm{Pump}}=R_{\mathrm{Pump}} (\varphi(\mathrm{Na}_{\mathrm{i}})-\varphi (\mathrm{Na}_{\mathrm {i}eq}))\), where \(\varphi(x)=x^{3}/(x^{3}+K_{\mathrm{P}}^{3})\) | Â |
\(I_{\mathrm{L}}= g_{\mathrm{L}} (V-E_{\mathrm{L}})\) | \(E_{\mathrm {L}}=-68\) |
\(I_{\mathrm{SynE}}= (g_{\mathrm{SynE}} s+g_{\mathrm{tonic}}) (V-E_{\mathrm{SynE}})\) | \(E_{\mathrm{SynE}}=-10\) |