Abstract: A nerve modulation device includes a first ultrasound transducer and a second ultrasound transducer. The first and second ultrasound transducers are configured to emit a first and second ultrasound waves, respectively, that exhibit different frequencies. The first and second ultrasound transducers can emit the first and second ultrasound waves in directions that are selected to cause the first and second ultrasound waves to intersect with each other at an intersection site that is at or near a selected nerve. At the intersection site, the first and second ultrasound waves can non-linearly interact to form an acoustic wave exhibiting a frequency that is less than the frequencies of the first and second ultrasound waves. The acoustic wave can modulate a selected nerve.

Abstract: An ear stimulation device and related systems and methods for operating an ear stimulation device in connection with a computing device are described. Multiple factors are used in controlling the ear stimulation device, including a variety of factors relating to or influencing the state of the user. In various aspects, the system is also responsive to inputs from sensors or computing networks. System features include fault detection, stimulus cycling and sequencing, integration with other devices in a networked system, device control based on playlists, battery charging, and device status display features.

Abstract: A system (1100) is provided to generate an orthopedic dynamic data repository and registry (2214). The system (1100) can measure a parameter of the muscular-skeletal system and align at least one of the surfaces to a mechanical axis intra-operatively. The system (1100) comprises disposable sensors (1106), disposable targets (1110), lasers (1114), a processing unit (1122), a display (1124), a reader (1120), a receiver (1118), spacer blocks (1102), and a distractor 1104. The sensors (1106) are in communication with the processing unit (1122) to display, process, store, and send data to dynamic data repository and registry (2214). Parameters can be measured pre-operatively, intra-operatively, post-operatively, and long term using sensor (1106). The measurement data is used to identify and provide clinical evidence of the efficacy of an orthopedic device, procedure, or medicine. A notification of cost modification is generated in electronic digital form and sent to at least one entity.

Abstract: At least one embodiment is directed to a system (1100) to generate an orthopedic dynamic data repository and registry (2214). The system (1100) can measure a parameter of the muscular-skeletal system and align at least one of the surfaces to a mechanical axis intra-operatively. The system (1100) comprises disposable sensors (1106), disposable targets (1110), lasers (1114), a processing unit (1122), a display (1124), a reader (1120), a receiver (1118), spacer blocks (1102), and a distractor 1104. The sensors (1106) are in communication with the processing unit (1122) to display, process, store, and send data to dynamic data repository and registry (2214). Parameters can be measured pre-operatively, intra-operatively, post-operatively, and long term using sensor (1106). The measurement data is used to identify and provide clinical evidence of a health risk. A notification of the health risk is generated in electronic digital form and sent to at least one entity.

Abstract: At least one embodiment is directed to a system (1100) to generate an orthopedic dynamic data repository and registry (2214). The system (1100) can measure a parameter of the muscular-skeletal system and align at least one of the surfaces to a mechanical axis intra-operatively. The system (1100) comprises disposable sensors (1106), disposable targets (1110), lasers (1114), a processing unit (1122), a display (1124), a reader (1120), a receiver (1118), spacer blocks (1102), and a distractor 1104. The sensors (1106) convert measured data to electronic digital form and are in communication with the processing unit (1122) to display, process, store, and send data to dynamic data repository and registry (2214). Parameters can be measured pre-operatively, intra-operatively, post-operatively, and long term using sensor (1106). The measurement data is used to define predetermined ranges for providing guidelines to aid in optimizing an orthopedic procedure.

Abstract: At least one embodiment is directed to a system (1100) to generate an orthopedic dynamic data repository and registry (2214). The system (1100) can measure a parameter of the muscular-skeletal system and align at least one of the surfaces to a mechanical axis. The system comprises disposable sensors (1106), disposable targets (1110), lasers (1114), a processing unit (1122), a display (1124), a reader (1120), a receiver (1118), spacer blocks (1102), and a distractor 1104. The sensors (1106) are in communication with the processing unit (1122) to display, process, and store measured data of the muscular-skeletal system. An alignment aid (1114, 1106) measures alignment to the mechanical axis. Parameters can be measured pre-operatively, intra-operatively, post-operatively, and long term. The measured data is converted to an electronic digital form. Data measured by the system (1100) is sent to dynamic data repository and registry (2214) for customer use.

Abstract: At least one embodiment is directed to a system (1100) to generate an orthopedic dynamic data repository and registry (2214). The system (1100) can measure a parameter of the muscular-skeletal system and align at least one of the surfaces to a mechanical axis intra-operatively. The system (1100) comprises disposable sensors (1106), disposable targets (1110), lasers (1114), a processing unit (1122), a display (1124), a reader (1120), a receiver (1118), spacer blocks (1102), and a distractor 1104. The sensors (1106) convert measured data to electronic digital form and are in communication with the processing unit (1122) to display, process, store, and send data to dynamic data repository and registry (2214). Parameters can be measured pre-operatively, intra-operatively, post-operatively, and long term using sensor (1106). In an intra-operative setting the system (1100) generates at least one report comprising measured data of the muscular-skeletal system.

Abstract: At least one embodiment is directed to a system (1100) to generate an orthopedic dynamic data repository and registry (2214). The system (1100) can measure a parameter of the muscular-skeletal system and align at least one of the surfaces to a mechanical axis. The system (1100) comprises disposable sensors (1106), disposable targets (1110), lasers (1114), a processing unit (1122), a display (1124), a reader (1120), a receiver (1118), spacer blocks (1102), and a distractor 1104. The sensors (1106) convert measured data to electronic digital form and are in communication with the processing unit (1122) to display, process, store, and send data to dynamic data repository and registry (2214). Parameters can be measured pre-operatively, intra-operatively, post-operatively, and long term using sensor (1106). A customer (2402) can receive measured data and analysis from dynamic data repository and registry (2214).

Abstract: Activities of individuals and the movements/usage of products are monitored in an operating room during a surgical procedure by disposing in the operating room a first transceiver operating in a long wavelength mode in which 99.99% or more of radiated energy is in the form of a magnetic field, for example 131 KHz. A distinguishable radio frequency-enabled identification tag is associated with each of a plurality of persons assigned to the surgical procedure, including for example, doctors, nurses, and/or the patient, and optionally with products to be monitored. A signal is transmitted from the first transceiver and responses from the identification tags are monitored. A log is created from the monitored responses indicative activities of each of the persons in the operating room or of movements of tagged products.

Abstract: Activities of individuals and the movements/usage of products are monitored in an operating room during a surgical procedure by disposing in the operating room a first transceiver operating in a long wavelength mode in which 99.99% or more of radiated energy is in the form of a magnetic field, for example 131 KHz. A distinguishable radio frequency-enabled identification tag is associated with each of a plurality of persons assigned to the surgical procedure, including for example, doctors, nurses, and/or the patient, and optionally with products to be monitored. A signal is transmitted from the first transceiver and responses from the identification tags are monitored. A log is created from the monitored responses indicative activities of each of the persons in the operating room or of movements of tagged products.

Abstract: A system uses an antenna at a portal, the antenna coupled to equipment which can send and receive information to and from radio tags, each having a unique identity. The equipment detects, for example, a tag attached to an asset. The equipment looks to see if an associated badge is in the detection area of the portal. If the badge and asset match, the user bearing the badge is permitted to exit the portal. Otherwise the user is not permitted to exit the portal. An asset such as a ski can be equipped with such a tag, the tag in this case being a low-frequency tag. The low-frequency tag permits locating the ski even if it is not visible because it is under snow.

Abstract: The invention relates to optoelectronic modules for generating and/or receiving optical signals for use in fiber-optic communication systems, such as optical transponders or transceivers, having a reconfigurable control and status (C&S) interface with a host device. The optoelectronic module includes an electrical multi-pin host connector having a plurality of pins for communicating a plurality of digital C&S signals between the host and the module, functional hardware responsive to the digital control signals and comprising sensing means for generating digital status signals, and processing means formed by an FPGA and a processor for processing the digital C&S signals.