Abstract: A patient simulator including one or more simulated limbs or limb portions and a simulated torso. The simulated torso includes an upper torso bracket, a lower torso bracket, and an articulation joint via which the upper and lower torso brackets are pivotably connected. Each of the one or more simulated limbs or limb portions is connected, at least indirectly, to the upper torso bracket or the lower torso bracket. The patient simulator may further include a simulated head or head portion connected, at least indirectly, to the upper torso bracket. The one or more simulated limbs or limb portions may include one or more simulated arms or arm portions connected, at least indirectly, to the upper torso bracket. Additionally, or alternatively, the one or more simulated limbs or limb portions may include one or more simulated legs or leg portions connected, at least indirectly, to the lower torso bracket.

Abstract: A system including a simulated respiratory sub-system and a simulated airway subsystem. The simulated respiratory sub-system comprises simulated lung(s) and, optionally, a lung compliance assembly and a compliance motor. The lung compliance assembly has a backing plate and a pressure plate between which the simulated lungs are positioned. The compliance motor is configured to adjust a clamping force exerted by the pressure plate on the simulated lungs to simulate clinical presentation of lung compliance. The simulated airway subsystem comprises an airway unit and, optionally, a trachea tube and a trachea tubing depth sensor. The airway unit has a mouth cavity and an internal airway via which the mouth cavity communicates with the simulated lung(s). The trachea tube is in communication with the internal airway and operably coupled to the airway unit. The trachea tubing depth sensor ensures proper execution of an intratracheal training procedure.

Abstract: A patient simulator may include a pump, a compressor, a power source, and a simulated torso in which the pump, the compressor, and the power source are contained. The compressor may include an inlet to which a bellows is coupled. A head coupling may detachably couple a simulated neck to the simulated torso. Similarly, an extremity coupling may detachably couple a simulated lower extremity to a simulated upper extremity, which simulated upper extremity is coupled to the simulated torso. The pump, the compressor, and/or the power source may provide hydraulic fluid, pneumatic fluid, and or electrical power, respectively, into: the simulated neck via the head coupling; or the simulated lower extremity via the extremity coupling. In addition, or instead, the patient simulator may include an invasive blood pressure (IBP) assembly having an armature adapted to contact a tube to change a fluid pressure in the IBP assembly.

Abstract: A patient simulator may include a pump, a compressor, a power source, and a simulated torso in which the pump, the compressor, and the power source are contained. The compressor may include an inlet to which a bellows is coupled. A head coupling may detachably couple a simulated neck to the simulated torso. Similarly, an extremity coupling may detachably couple a simulated lower extremity to a simulated upper extremity, which simulated upper extremity is coupled to the simulated torso. The pump, the compressor, and/or the power source may provide hydraulic fluid, pneumatic fluid, and or electrical power, respectively, into: the simulated neck via the head coupling; or the simulated lower extremity via the extremity coupling. In addition, or instead, the patient simulator may include an invasive blood pressure (IBP) assembly having an armature adapted to contact a tube to change a fluid pressure in the IBP assembly.

Abstract: A patient simulator may include a pump, a compressor, a power source, and a simulated torso in which the pump, the compressor, and the power source are contained. The compressor may include an inlet to which a bellows is coupled. A head coupling may detachably couple a simulated neck to the simulated torso. Similarly, an extremity coupling may detachably couple a simulated lower extremity to a simulated upper extremity, which simulated upper extremity is coupled to the simulated torso. The pump, the compressor, and/or the power source may provide hydraulic fluid, pneumatic fluid, and or electrical power, respectively, into: the simulated neck via the head coupling; or the simulated lower extremity via the extremity coupling. In addition, or instead, the patient simulator may include an invasive blood pressure (IBP) assembly having an armature adapted to contact a tube to change a fluid pressure in the IBP assembly.

Abstract: A system including a simulated respiratory sub-system and a simulated airway sub-system. The simulated respiratory sub-system comprises simulated lung(s) and, optionally, a lung compliance assembly and a compliance motor. The lung compliance assembly has a backing plate and a pressure plate between which the simulated lungs are positioned. The compliance motor is configured to adjust a clamping force exerted by the pressure plate on the simulated lungs to simulate clinical presentation of lung compliance. The simulated airway sub-system comprises an airway unit and, optionally, a trachea tube and a trachea tubing depth sensor. The airway unit has a mouth cavity and an internal airway via which the mouth cavity communicates with the simulated lung(s). The trachea tube is in communication with the internal airway and operably coupled to the airway unit. The trachea tubing depth sensor ensures proper execution of an intratracheal training procedure.

Abstract: A patient simulator system including a simulated head and a simulated fontanelle. The simulated head includes an endoskeleton skull and a skin layer. The simulated fontanelle is incorporated into the skin layer. The endoskeleton skull includes an indented fontanelle region. A fontanelle fitting and a pulse fitting each extend through the endoskeleton skull adjacent the indented fontanelle region. The simulated fontanelle comprises a fontanelle bladder extending within the indented fontanelle region and a pulse bladder extending adjacent the fontanelle bladder. The fontanelle bladder is operably coupled to the fontanelle fitting and communicates with a simulated respiratory system of the patient simulator system to receive either positive or negative pressure, which produces either a swollen or sunken state in the simulated fontanelle.

Abstract: A patient simulator system including a simulated head and a simulated fontanelle. The simulated head includes an endoskeleton skull and a skin layer. The simulated fontanelle is incorporated into the skin layer. The endoskeleton skull includes an indented fontanelle region. A fontanelle fitting and a pulse fitting each extend through the endoskeleton skull adjacent the indented fontanelle region. The simulated fontanelle comprises a fontanelle bladder extending within the indented fontanelle region and a pulse bladder extending adjacent the fontanelle bladder. The fontanelle bladder is operably coupled to the fontanelle fitting and communicates with a simulated respiratory system of the patient simulator system to receive either positive or negative pressure, which produces either a swollen or sunken state in the simulated fontanelle.

Abstract: An apparatus and method according to which a patient simulator is used to simulate a human patient's breathing pattern, the patient simulator including a simulated respiratory system and a simulated airway system. The simulated respiratory system includes a lung valve, a simulated lung in communication with the lung valve, and a breathing pump including a cylinder and a piston dividing the cylinder into first and second chambers, the first chamber being in communication with the lung valve via at least a first flow path, and the second chamber being in communication with the lung valve via at least a second flow path. The simulated airway system is configured to be in communication with the second chamber of the breathing pump via at least a third flow path. In several exemplary embodiments, simulating, using the patient simulator, the human patient's breathing pattern comprises reciprocating the piston within the cylinder.

Abstract: An apparatus and method according to which a patient simulator is used to simulate a human patient's breathing pattern, the patient simulator including a simulated respiratory system and a simulated airway system. The simulated respiratory system includes a lung valve, a simulated lung in communication with the lung valve, and a breathing pump including a cylinder and a piston dividing the cylinder into first and second chambers, the first chamber being in communication with the lung valve via at least a first flow path, and the second chamber being in communication with the lung valve via at least a second flow path. The simulated airway system is configured to be in communication with the second chamber of the breathing pump via at least a third flow path. In several exemplary embodiments, simulating, using the patient simulator, the human patient's breathing pattern comprises reciprocating the piston within the cylinder.