JSim Consolidated Model Database
Showing 151 - 200 of 432 models found. [New Search]
NSR0151 (in NSR archive): EnzLysis
An enzyme E is synthesized at a constant rate, and degraded in a first order process, -ke*E, only when it is unbound. Input of S is sinusoidal. The system amplifies to give an oscillation in product P. From Reich and Selkov 1981 and really from Selkov 1968.
An enzyme E is synthesized at a constant rate, and degraded in a first order process, -ke*E, only when it is unbound. Input of S is sinusoidal. The system amplifies to give an oscillation in product P. From Reich and Selkov 1981 and really from Selkov 1968.
- Key terms: enzyme lysis, chaos, hydrolysis, synthesis, degradation, energy metabolism, dissociation constant, first order reaction, proteins
- EnzLysis
NSR0152 (in NSR archive): VelocityProfiles
Veloicty profiles in straight cylinders. Poiseuille Flow is parabolic (Model 2). Slip at wall is Roevros (Model 1) Two phase flow model (Wang Model 3) has lower viscosity at wall.
Veloicty profiles in straight cylinders. Poiseuille Flow is parabolic (Model 2). Slip at wall is Roevros (Model 1) Two phase flow model (Wang Model 3) has lower viscosity at wall.
- Key terms: intravascular velocity, shear rate, viscosity, artery, Poiseuille Flow, blood flow
- VelocityProfiles
NSR0153 (in NSR archive): HighlyIntegHuman
Highly-integrated human, a closed loop cardiopulmonary model composed of a four-chamber varying-elastance heart, a pericardium, a systemic circ, a pulmonary circ, airways mechanics, baroreceptors, gas exch, blood gas handling, coronary circ, and peripheral chemoreceptors.
Highly-integrated human, a closed loop cardiopulmonary model composed of a four-chamber varying-elastance heart, a pericardium, a systemic circ, a pulmonary circ, airways mechanics, baroreceptors, gas exch, blood gas handling, coronary circ, and peripheral chemoreceptors.
- Key terms: cardiovascular, pulmonary, cardiopulmonary, gas exchange, blood gas handling, pericardium, heart, systemic circulation, pulmonary circulation, coronary circulation, lumped parameter, baroreceptor, chemoreceptor, oxygen, carbon dioxide, bicarbonate, carboxyhemoglobin, pH, nitrogen, airway mechanics, integrated physiology, Integrative, Virtual Soldier, Highly-integrated human
- HighlyIntegHuman
NSR0154 (in NSR archive): HighlyIntHuman_wIntervention
A closed loop cardiopulmonary model composed of a four-chamber varying-elastance heart, a pericardium, a systemic circulation, a pulmonary circulation, airways mechanics, baroreceptors, gas exchange, blood gas handling, coronary circulation, peripheral chemoreceptors and selectable interventions.
A closed loop cardiopulmonary model composed of a four-chamber varying-elastance heart, a pericardium, a systemic circulation, a pulmonary circulation, airways mechanics, baroreceptors, gas exchange, blood gas handling, coronary circulation, peripheral chemoreceptors and selectable interventions.
- Key terms: cardiovascular, pulmonary, cardiopulmonary, gas exchange, blood gas handling, pericardium, penetrating injuries, Valsalva maneuver, FVC maneuver, heart, systemic circulation, pulmonary circulation, coronary circulation, lumped parameter, baroreceptor, chemoreceptor, oxygen, carbon dioxide, bicarbonate, carboxyhemoglobin, pH, nitrogen, airway mechanics, integrated physiology, integrative, Data, Virtual Soldier
- HighlyIntHuman_wIntervention
NSR0155 (in NSR archive): Hodgkin_Huxley1952
Hodgkin and Huxley (HH 1952d): Nerve action potential for squid giant axon. Quantitative model of time and voltage-dependent transmembrane currents for Na+, K+, and a leak current, Ileak. Centerpiece for Nobel prize.
Hodgkin and Huxley (HH 1952d): Nerve action potential for squid giant axon. Quantitative model of time and voltage-dependent transmembrane currents for Na+, K+, and a leak current, Ileak. Centerpiece for Nobel prize.
- Key terms: squid nerve action potential, ionic currents, sodium, potassium, voltage clamp, Nernst, neuron, Publication, Cell physiology, PMID2185861
- Hodgkin_Huxley1952
NSR0157 (in NSR archive): InVivoViscosity
This model represents changes of blood viscosity due to the Fahraeus-Lindqvist effect as observed by Pries, Secomb et al. for flow in the rat mesentery.
This model represents changes of blood viscosity due to the Fahraeus-Lindqvist effect as observed by Pries, Secomb et al. for flow in the rat mesentery.
- Key terms: Fahraeus-Lindqvist effect, in vivo, blood viscosity, microvasculature, discharge hematocrit, vessel diameter, Cardiovascular System, Microcirculation, blood flow
- InVivoViscosity
NSR0158 (in NSR archive): Yaniv_4-State_2005
This is a reproduction of the 4 state model of a cardiac sarcomere originally developed by Landesberg and Sideman. The particular version presented here was used in Yaniv, Sivan and Landesberg Am J Physiol 288:H389-H399, 2005.
This is a reproduction of the 4 state model of a cardiac sarcomere originally developed by Landesberg and Sideman. The particular version presented here was used in Yaniv, Sivan and Landesberg Am J Physiol 288:H389-H399, 2005.
- Key terms: Crossbridge, Cardiac Muscle, Sarcomere, Excitation-Contraction Coupling, Cardiovascular System, Cardiac_contraction, Landesberg_4-State
- Yaniv_4-State_2005
NSR0159 (in NSR archive): Comp2.Binding
Models two compartments with a single substance passively exchanging between the two compartments, plus first order binding to solute Z to form ZC, both of which are confined to V1.
Models two compartments with a single substance passively exchanging between the two compartments, plus first order binding to solute Z to form ZC, both of which are confined to V1.
- Key terms: Course, compartment, compartmental, tutorial, exchange, multiple compartments, flux, steady state, binding kinetics, buffering
- Comp2.Binding
NSR0160 (in NSR archive): Lumped_parameter_circulation
A closed loop cardiopulmonary model composed of a four-chamber varying-elastance heart, a pericardium, a systemic circulation, a pulmonary circulation, and a coronary circulation.
A closed loop cardiopulmonary model composed of a four-chamber varying-elastance heart, a pericardium, a systemic circulation, a pulmonary circulation, and a coronary circulation.
- Key terms: cardiovascular, pericardium, heart, systemic circulation, pulmonary circulation, coronary circulation, lumped parameter, integrated physiology, Lu, Clark, baroreceptor, blood pressure
- Lumped_parameter_circulation
NSR0161 (in NSR archive): Lumped_Param_Circ_wReg
A closed loop circulatory model with varying elastance heart, pulmonary, coronary and systemic circulatory loops and actively regulating arterioles in the systemic circulation responding to pressure and shear stress on the vessel walls.
A closed loop circulatory model with varying elastance heart, pulmonary, coronary and systemic circulatory loops and actively regulating arterioles in the systemic circulation responding to pressure and shear stress on the vessel walls.
- Key terms: Closed loop circulatory model, Vasoactive response, Pressure, Shear stress, Local regulation
- Lumped_Param_Circ_wReg
NSR0162 (in NSR archive): Lung_RC_P
Single compliant tank driven by pleural pressure. This is the simplest lung model possible.
Single compliant tank driven by pleural pressure. This is the simplest lung model possible.
- Key terms: lung mechnanics, respiratory minute volume, elastance pulmonary compliance, airway resistance, air flow, pleural pressure, tidal volume, functional residual capacity FRC, total lung volume TLV, Tutorial, air-blood gas exchange, gas buffers
- Lung_RC_P
NSR0163 (in NSR archive): Kuikka1986BTEX30MP
Multiple tracer dilution estimates of D- and 2-deoxy-D-glucose uptake by the heart using a three region, 7-path, Blood-Tissue-Exchange (BTEX) model for albumin, L-Glucose, D-Glucose, and deoxy-Glucose. From Kuikka J, Levin M, Bassingthwaighte JB 1986 paper.
Multiple tracer dilution estimates of D- and 2-deoxy-D-glucose uptake by the heart using a three region, 7-path, Blood-Tissue-Exchange (BTEX) model for albumin, L-Glucose, D-Glucose, and deoxy-Glucose. From Kuikka J, Levin M, Bassingthwaighte JB 1986 paper.
- Key terms: isolated heart preparation, coronary transport function, MPC, Reproducible, myocardial transsarcolemmal flux, L-glucose, dogs, rabbits, Data, Publication, PMID3510568
- Kuikka1986BTEX30MP
NSR0166 (in NSR archive): Sedaghat2002_insulin_signal
A mathematical model of metabolic insulin signaling pathways based on the work of Ahmad Sedaghat, Arthur Sherman and Michael Quon [2002, AM J Physiol Endocrinol Metab, 283,E1084-E1101].
A mathematical model of metabolic insulin signaling pathways based on the work of Ahmad Sedaghat, Arthur Sherman and Michael Quon [2002, AM J Physiol Endocrinol Metab, 283,E1084-E1101].
- Key terms: signal transduction, metabolism, insulin resistance, GLUT4, glucose, feedback, data, Publication
- Sedaghat2002_insulin_signal
NSR0167 (in NSR archive): Michailova_McCulloch2001
The Michailova-McCulloch model extends the Winslow Jaffri Rice model by adding the buffering by MgATP and MgADP as well as by calmodulin.
The Michailova-McCulloch model extends the Winslow Jaffri Rice model by adding the buffering by MgATP and MgADP as well as by calmodulin.
- Key terms: ventricular myocyte, ATP, ADP, Ca2+ concentration, myoplasm, Mg2+, MgATP, CaATP, CaADP, MgADP, cell physiology, action potential, calmodulin
- Michailova_McCulloch2001
NSR0168 (in NSR archive): Myocyte_Fibroblast_Coupling
This model simulates the electophysiological effect of inexcitable cardiac fibroblast when coupled with cardiac myocytes.
This model simulates the electophysiological effect of inexcitable cardiac fibroblast when coupled with cardiac myocytes.
- Key terms: Myoctes, Fibroblasts, Action potential, Action potential duration, Upstroke velocity, Publication, Cell Physiology, PMID17999190
- Myocyte_Fibroblast_Coupling
NSR0170 (in NSR archive): PK_van_Bueren_2006
Dose dependency of therapeutic monoclonal antibody (mAb), 2F8, binding to epidermal growth factor receptor (EGFR).
Dose dependency of therapeutic monoclonal antibody (mAb), 2F8, binding to epidermal growth factor receptor (EGFR).
- Key terms: Pharmacokinetics, compartment, compartmental model, epidermal growth factor receptor, EGFR, monoclonal antibody, mAb, 2F8, saturation, binding, compartment, data
- PK_van_Bueren_2006
NSR0171 (in NSR archive): NobleVarghese98
Noble's 1998 improved guinea-pig ventricular cell model. It incorporates a diadic space, rapid and slow potassium currents and length and tension-dependent processes.
Noble's 1998 improved guinea-pig ventricular cell model. It incorporates a diadic space, rapid and slow potassium currents and length and tension-dependent processes.
- Key terms: cell physiology, action potential, Publication, potassium current, ventricular cell, calcium, sarcoplasmic reticulum, PMID9487284
- NobleVarghese98
NSR0172 (in NSR archive): Non_Competitive_Inhibition
This model describes the kinetics of an enzymatic reaction where an inhibitor can bind to the enzyme in a non-competitive manner.
This model describes the kinetics of an enzymatic reaction where an inhibitor can bind to the enzyme in a non-competitive manner.
- Key terms: Transport Physiology, Enzymatic Reaction, Inhibition, Enzyme, Non-competitive Inhibition, Michaelis-Menten Kinetics
- Non_Competitive_Inhibition
NSR0173 (in NSR archive): Kuikka1986experiment
Multiple tracer dilution estimates of D- and 2-deoxy-D-glucose uptake by the heart using a three region, 7-path, Blood-Tissue-Exchange (BTEX) model. Model fit to all experiments published in Kuikka et al. 1986 paper (See model #0163 for more detatils).
Multiple tracer dilution estimates of D- and 2-deoxy-D-glucose uptake by the heart using a three region, 7-path, Blood-Tissue-Exchange (BTEX) model. Model fit to all experiments published in Kuikka et al. 1986 paper (See model #0163 for more detatils).
- Key terms: isolated heart preparation, coronary transport function, MPC, Reproducible, myocardial transsarcolemmal flux, L-glucose, dogs, rabbits, Data, PDE, BTEX
- Kuikka1986experiment
NSR0176 (in NSR archive): One_Slab_Diffusion_Partition
This model simulates the diffusion of a substance through a region with a constant diffusivity and different solubilities inside and outside the region.
This model simulates the diffusion of a substance through a region with a constant diffusivity and different solubilities inside and outside the region.
- Key terms: Partition coefficient, Solubility, Diffusion, One region, Transport physiology, one slab, PDE
- One_Slab_Diffusion_Partition
NSR0177 (in NSR archive): O2_CO2_Recirc_4Comp_Hb
O2 and CO2 exchange between alveolar air and pulmonary capillary and tissue capillary and metabolic reaction with specified Respiratory Quotient
O2 and CO2 exchange between alveolar air and pulmonary capillary and tissue capillary and metabolic reaction with specified Respiratory Quotient
- Key terms: lung, compartmental, gas-blood exchange, hemoglobin, oxygen, carbon dioxide, recirculation, alveolar, capillary
- O2_CO2_Recirc_4Comp_Hb
NSR0178 (in NSR archive): Pandit_et_al_2001
This model reproduces the action potential recorded experimentally for epicardial myocytes isolated from the adult rat left ventricle (Pandit et al. 2001).
This model reproduces the action potential recorded experimentally for epicardial myocytes isolated from the adult rat left ventricle (Pandit et al. 2001).
- Key terms: Action potential, Cardiac myocytes, Action potential duration, Transmural heterogeneity, publication, Cell Phsyiology, PMID11720973
- Pandit_et_al_2001
NSR0179 (in NSR archive): Phase_Separation
This model illustrates the variation in cell distribution from that which would be expected by the division of flow at a microvascular bifurcation.
This model illustrates the variation in cell distribution from that which would be expected by the division of flow at a microvascular bifurcation.
- Key terms: Hematocrit, Phase separation, Microvascular flow, In vivo, bifurcation, Cardiovascular system, Microcirculation, Publication
- Phase_Separation
NSR0180 (in NSR archive): Pleural_vs_ExternalPress
Two different ways of expressing breathing, one as if using a ventilator at the mouth and the other one as human pleural muscle generating pressure gradient against external pressure. Three models used to compare differences.
Two different ways of expressing breathing, one as if using a ventilator at the mouth and the other one as human pleural muscle generating pressure gradient against external pressure. Three models used to compare differences.
- Key terms: Airway, Pleural, External, Respiratory mechanics
- Pleural_vs_ExternalPress
NSR0181 (in NSR archive): Pulmonary_Circulation_Olansen_et_al_2000
A model of pulmonary circulation based on Olansen et al. (2000) and Lu et al. (2001). A model of pulmonary circulation in which a right ventricle input pressure pulse drives blood flow through vascular components.
A model of pulmonary circulation based on Olansen et al. (2000) and Lu et al. (2001). A model of pulmonary circulation in which a right ventricle input pressure pulse drives blood flow through vascular components.
- Key terms: Cardiovascular system, circulatory networks, pulmonary circulation, lumped parameter, Olansen, pulmonary arteries, pulmonary capillaries, pulmonary veins, pulmonary shunt, pulmonary blood flow
- Pulmonary_Circulation_Olansen_et_al_2000
NSR0182 (in NSR archive): PulmonMech_andGasConc
This model is based on Lutchen et al. A nonlinear model combining pulmonary mechanics and gas concentration dynamics. IEEE Trans. Biomed. Eng. 29: 629-641, 1982
This model is based on Lutchen et al. A nonlinear model combining pulmonary mechanics and gas concentration dynamics. IEEE Trans. Biomed. Eng. 29: 629-641, 1982
- Key terms: Pulmonary mechanics, Gas concentration, Alveolar compartment, Dead space, Lutchen, Respiratory System, Airway mechanics
- PulmonMech_andGasConc
NSR0183 (in NSR archive): Radial_Diffusion_in_Muscle_Fiber
Model simulates the diffusion of 11 cytosolic proteins from rabbit muscle fibers in a physiological solution. Several mechanisms which alter protein diffusion are considered including binding and hindrance to the myofilament lattice, binding to the other proteins, and protein crowding.
Model simulates the diffusion of 11 cytosolic proteins from rabbit muscle fibers in a physiological solution. Several mechanisms which alter protein diffusion are considered including binding and hindrance to the myofilament lattice, binding to the other proteins, and protein crowding.
- Key terms: Radial diffusion, Glycolytic enzymes, Skinned muscle fiber, Steric hinrance, Protein crowding, Supramolecular complex, Myofilament lattice binding, Data, Transport physiology
- Radial_Diffusion_in_Muscle_Fiber
NSR0184 (in NSR archive): RandomWalk1D
20,000 1-D random walks are taken, the summation of Gaussian distributed steps with mean of 0 and variance = 1 or uniformly distributed steps from -1 to 1. The positions at a specific step number are
20,000 1-D random walks are taken, the summation of Gaussian distributed steps with mean of 0 and variance = 1 or uniformly distributed steps from -1 to 1. The positions at a specific step number are
- Key terms: Diffusion, Random walk, Stochastic, one dimension, 1-D, Transport Physiology
- RandomWalk1D
NSR0185 (in NSR archive): redcell_carriage
Model effect of erythrocyte membrane on exchange of solutes between erythrocytes (red blood cells) and plasma water.
Model effect of erythrocyte membrane on exchange of solutes between erythrocytes (red blood cells) and plasma water.
- Key terms: indicator dilution, barrier-limited, liver, transport, vascular volume, organ, red blood cells, membrane, Goresky transport tutorial, tracer, Data, PDE
- redcell_carriage
NSR0186 (in NSR archive): Regulatory_Vessel
This model describes the steady state regulatory vessel response to changes in pressure across and shear stress on the vessel wall.
This model describes the steady state regulatory vessel response to changes in pressure across and shear stress on the vessel wall.
- Key terms: Resistance vessel, Myogenic response, Shear-dependent response, Regulation, Active response, Passive response, Cardiovascular System, Blood flow, Autoregulation, Publication, PMID16020079, Data
- Regulatory_Vessel
NSR0187 (in NSR archive): Rigid_four_gen_weibel_lung
This model represents four generations of the bipodial human lung. The lengths and diameter of the airways are based on the weibel model. The compliance of the airway was considered to be negligible to represent rigid airways.
This model represents four generations of the bipodial human lung. The lengths and diameter of the airways are based on the weibel model. The compliance of the airway was considered to be negligible to represent rigid airways.
- Key terms: Weibel Lung, Bi-Podial Branching airways, Human Lung, rigid, Respiratory system, Respiratory mechanics, airway mechanics
- Rigid_four_gen_weibel_lung
NSR0188 (in NSR archive): Rigid_bifurcating_bronchiole_compliant_alveolus
This model represents a bifurcating rigid bronchiole with two compliant alveoli.
This model represents a bifurcating rigid bronchiole with two compliant alveoli.
- Key terms: Bifurcating bronchiole, Alveolus, Bronchiole, Compliant alveolus, Respiratory system, respiratory mechanics, airway
- Rigid_bifurcating_bronchiole_compliant_alveolus
NSR0189 (in NSR archive): Rigid_bronchiole_compliant_alveolus
Mechanics of a rigid resistive bronchiole with compliant alveolar sac. The driving pressure is at entrance to the bronchiole; the reference extrathoracic pressure is constant at zero.
Mechanics of a rigid resistive bronchiole with compliant alveolar sac. The driving pressure is at entrance to the bronchiole; the reference extrathoracic pressure is constant at zero.
- Key terms: Alveolus, Alveolar sac, lung mechanics, positive pressure ventilation, chest wall compliance, Respiratory System, Respiratory mechanics, airway
- Rigid_bronchiole_compliant_alveolus
NSR0191 (in NSR archive): Sanshe
The Sangren-Sheppard model (Bull Math Biophys 15: 387-394, 1953) for the exchange of a labeled substance between a liquid flowing in a vessel and an external compartment. Similar to BTEX20 with no diffusion
The Sangren-Sheppard model (Bull Math Biophys 15: 387-394, 1953) for the exchange of a labeled substance between a liquid flowing in a vessel and an external compartment. Similar to BTEX20 with no diffusion
- Key terms: sanshe, btex20, two regions, blood tissue exchange, Sangren Sheppard, Publication, PDE, Transport Physiology, convection, diffusion
- Sanshe
NSR0193 (in NSR archive): Suenson1974
Single and Multi-path models of diffusion of sucrose, sodium, and water across a sheet of ventricular myocardium. Suenson et al. 1974 paper. Variation on Crank, 1956, solution for diffusion in a plane sheet with constant surface concentrations.
Single and Multi-path models of diffusion of sucrose, sodium, and water across a sheet of ventricular myocardium. Suenson et al. 1974 paper. Variation on Crank, 1956, solution for diffusion in a plane sheet with constant surface concentrations.
- Key terms: tissue diffusion, cat ventricular myocardium, diffusion models, tracer washout, extracellular fluid, dead-end pores heterogeneous systems, solute transport, DATA, Publication, PMID4440753, PMCID:PMC3024886
- Suenson1974
NSR0194 (in NSR archive): Kumagai_2000
Simple compartmental model including soluble gas transport in the alveoli, transfer between the bronchial circulation and the conducting airways, and metabolism.
Simple compartmental model including soluble gas transport in the alveoli, transfer between the bronchial circulation and the conducting airways, and metabolism.
- Key terms: solvent, water-soluble, partition coefficient, blood-soluble, compartment, pharmacokinetic, uptake, Publication, Respiratory system, Air-blood gas exchange, Data
- Kumagai_2000
NSR0195 (in NSR archive): OneAlvLung.IronLung
A compliant 1 compartment lung with resistance to air flow can be driven by an external negative pressure surrrounding the chest (Pexhaust) or by intrapleural negative pressure (chest or diaphragmatic breathing (Pchest)) or a positive pressure ventilator (P or all three together).
A compliant 1 compartment lung with resistance to air flow can be driven by an external negative pressure surrrounding the chest (Pexhaust) or by intrapleural negative pressure (chest or diaphragmatic breathing (Pchest)) or a positive pressure ventilator (P or all three together).
- Key terms: lung compliance, resistance, RC circuit, lung mechanics, airflow in trachea, tidal volume, positive pressure ventilation, chest or diaphragmatic breathing, tutorial
- OneAlvLung.IronLung
NSR0196 (in NSR archive): Styrene_Inhalation
A model for a physiological based description of the inhalation pharmacokinetics of styrene in rats and humans based on the work of J.C. Ramsey and M.E. Andersen [(1984). Toxicol Appl Pharm. 73(1), 159-175.], developed by Neil Geisler (2006) as a final project for BIOEN 589, University of Washington.
A model for a physiological based description of the inhalation pharmacokinetics of styrene in rats and humans based on the work of J.C. Ramsey and M.E. Andersen [(1984). Toxicol Appl Pharm. 73(1), 159-175.], developed by Neil Geisler (2006) as a final project for BIOEN 589, University of Washington.
- Key terms: Administration, Oral, Animals, Gases, Humans, Injections, Intravenous, Kinetics, Liver metabolism, Lung metabolisim, Male, Models, Biological, Rats, Inbred Strains, Species Specificity, Styrene metabolism, Data, Respiratory system, Air-blood gas exchange, Publication
- Styrene_Inhalation
NSR0197 (in NSR archive): Surfactant
Surfactant effect on single bubble dynamics: This models the dynamic adsorption, desorption, and squeeze-out phenomena of surfactant
Surfactant effect on single bubble dynamics: This models the dynamic adsorption, desorption, and squeeze-out phenomena of surfactant
- Key terms: lung alveolus, surface tension, bubble dynamics, surfactant TA concentration, lung compliance, functional residual volume, pulmonary mechanics, intrapleural pressure, lung elasticity, Respiratory mechanics, Airway mecahnics
- Surfactant
NSR0198 (in NSR archive): JardineSerotonin_FourRegion
Four region BTEX model used to describe serotonin uptake in the pulmonary endothelium and beyond. From Jardine et al. 2013 paper.
Four region BTEX model used to describe serotonin uptake in the pulmonary endothelium and beyond. From Jardine et al. 2013 paper.
- Key terms: serotonin, endothelium, transport modeling, pulmonary capillary permeability, convection-diffusion, capillary-tissue exchange, hydroxy-tryptamine receptors, Data, PDE, reproducible, Publication, dog
- JardineSerotonin_FourRegion
NSR0199 (in NSR archive): JardineSerotonin_TwoRegion
Two Region BTEX Model describing serotonin uptake by lung tissue. From Jardine et al. 2013 paper based on model by Linehan et al, 1998.
Two Region BTEX Model describing serotonin uptake by lung tissue. From Jardine et al. 2013 paper based on model by Linehan et al, 1998.
- Key terms: serotonin, endothelium, transport modeling, pulmonary capillary permeability, convection-diffusion, capillary-tissue exchange, hydroxy-tryptamine receptors, Data, PDE, reproducible, Publication, dog
- JardineSerotonin_TwoRegion
NSR0200 (in NSR archive): JardineSerotonin_OnePathCompare
Four and two region BTEX models without heterogeniety used to compare serotonin uptake in the pulmonary endothelium and beyond. From Jardine et al. 2013 paper.
Four and two region BTEX models without heterogeniety used to compare serotonin uptake in the pulmonary endothelium and beyond. From Jardine et al. 2013 paper.
- Key terms: serotonin, endothelium, transport modeling, pulmonary capillary permeability, convection-diffusion, capillary-tissue exchange, hydroxy-tryptamine receptors, Data, PDE, Publication
- JardineSerotonin_OnePathCompare