Abstract: A method of reducing combination device variability includes identifying potential combinations of at least first and second components, where each combination can form one or more units of the combination device. The method also includes, for each potential combination, predicting a property or result of the units of the combination device when formed from at least the first and second components of the combination, at least by applying values of one or more characteristics of the first component of the combination, and values of one or more characteristics of the second component of the combination, as inputs to a predictive model. The method also includes selecting, based on the predicted properties or results for the potential combinations, a subset of combinations from among the potential combinations, and providing an indication of the selected subset of combinations.

Abstract: Systems and methods for monitoring/measuring parameters related to the use of devices/systems in various diagnostic/therapeutic applications are provided. The systems/methods communicate monitored/measured parameters to data processing and/or data display units for review and/or responsive action. Modular units may be provided for use with orthotic devices, e.g., arm slings and orthotic boots for foot and lower leg immobilization, and in conjunction with prosthetic devices, e.g., prosthetic arms and/or legs. The sensing/feedback mechanisms may be strap-based, or mounted/associated with webbing, ratchet systems and/or other tensioning mechanisms. The sensing/feedback mechanism may include an inductive sensor that interacts with conductive material embedded in a strap to produce a signal indicating the location of the inductive sensor with respect to the strap. The position sensor may include multiple coils and multiple conductive materials may be imbedded in the strap.

Abstract: A system and method for measuring and/or monitoring compliance and/or quality of brace usage is provided that includes one or more straps, one or more assemblies interacting with the one or more straps, and measurement mechanism(s) associated with the strap/assembly combination to generate information related to compliance and/or quality of brace usage. The systems and methods may be retrofit to existing scoliosis braces and may be used to transmit information to remote devices and/or processors. In addition, information concerning compliance and/or quality of brace usage may be communicated to a user and/or health care provider(s), e.g., through one or more signaling elements such as aural, visual and/or haptic signaling elements associated with the at least one assembly.

Abstract: Systems and methods for monitoring/measuring parameters related to the use of devices/systems in various diagnostic/therapeutic applications are provided. The systems/methods communicate monitored/measured parameters to data processing and/or data display units for review and/or responsive action. Modular units may be provided for use with orthotic devices, e.g., arm slings and orthotic boots for foot and lower leg immobilization, and in conjunction with prosthetic devices, e.g., prosthetic arms and/or legs. The sensing/feedback mechanisms may be strap-based, or mounted/associated with webbing, ratchet systems and/or other tensioning mechanisms. The sensing/feedback mechanism may include an inductive sensor that interacts with conductive material embedded in a strap to produce a signal indicating the location of the inductive sensor with respect to the strap. The position sensor may include multiple coils and multiple conductive materials may be imbedded in the strap.

Abstract: Systems and methods for monitoring/measuring parameters related to the use of devices/systems in various diagnostic/therapeutic applications are provided. The systems/methods communicate monitored/measured parameters to data processing and/or data display units for review and/or responsive action. Modular units may be provided for use with orthotic devices, e.g., arm slings and orthotic boots for foot and lower leg immobilization, and in conjunction with prosthetic devices, e.g., prosthetic arms and/or legs. The sensing/feedback mechanisms may be strap-based, or mounted/associated with webbing, ratchet systems and/or other tensioning mechanisms. The sensing/feedback mechanism may include an inductive sensor that interacts with conductive material embedded in a strap to produce a signal indicating the location of the inductive sensor with respect to the strap. The position sensor may include multiple coils and multiple conductive materials may be imbedded in the strap.

Abstract: One aspect of the present disclosure relates to a system that can provide training for an operating room staff member. The system can include a hand device with a housing that can be configured to receive an input of a device from the operating room staff member. Inside the housing, the hand device can include a non-transitory memory that stores instructions and a processor that can be configured to execute the instructions to at least: provide an instruction related to placing a surgical instrument in the hand device to the operating room staff member; receive a test surgical instrument from the operating room staff member in response to the instruction; and determine whether the test surgical instrument matches the instructed surgical instrument.

Abstract: A system and method for measuring and/or monitoring compliance and/or quality of brace usage is provided that includes one or more straps, one or more assemblies interacting with the one or more straps, and measurement mechanism(s) associated with the strap/assembly combination to generate information related to compliance and/or quality of brace usage. The systems and methods may be retrofit to existing scoliosis braces and may be used to transmit information to remote devices and/or processors. In addition, information concerning compliance and/or quality of brace usage may be communicated to a user and/or health care provider(s), e.g., through one or more signaling elements such as aural, visual and/or haptic signaling elements associated with the at least one assembly.