Abstract: A sport apparatus comprising a shaft, wherein the shaft comprises a notch fitting and a sensor housing. The sensor housing comprises an alignment rib fitting, printed circuit board, rechargeable battery, one or more motion sensors, a transceiver, an inductive charging coil, among other necessary elements for the sport apparatus as described herein. A portion of the sensor housing resides within the shaft, wherein the alignment rib of the sensor housing mates with a notch or other locking mechanism of the shaft.

Abstract: A sport apparatus comprising a shaft, wherein the shaft comprises a notch fitting and a sensor housing. The sensor housing comprises an alignment rib fitting, printed circuit board, rechargeable battery, one or more motion sensors, a transceiver, an inductive charging coil, among other necessary elements for the sport apparatus as described herein. A portion of the sensor housing resides within the shaft, wherein the alignment rib of the sensor housing mates with a notch or other locking mechanism of the shaft.

Abstract: A foot sensor feedback device with multiple passive sensors in a shoe insole to provide real time feedback for a microprocessor to control a haptic device on the ankle of a person and to store and display data on an application on a smart phone to provide balance to a person while standing still or walking.

Abstract: A foot sensor feedback device with multiple passive sensors in a shoe insole to provide real time feedback for a microprocessor to control a haptic device on the ankle of a person and to store and display data on an application on a smart phone to provide balance to a person while standing still or walking.

Abstract: A sport apparatus comprising a shaft, wherein the shaft comprises a notch fitting and a sensor housing. The sensor housing comprises an alignment rib fitting, printed circuit board, rechargeable battery, one or more motion sensors, a transceiver, an inductive charging coil, among other necessary elements for the sport apparatus as described herein. A portion of the sensor housing resides within the shaft, wherein the alignment rib of the sensor housing mates with a notch or other locking mechanism of the shaft.

Abstract: A feedback device determines when a person has placed enough weight upon his/her foot to safely take the next step, and then communicate that information to the person via a haptic device on the person's ankle or an audio, visual and/or vibration feedback display on an application on the person's smart phone. Five sensors in an insole between the person's foot and shoe determine the force of the person's leg. The five sensors in the insole will be positioned under the heel, the fifth metatarsal head, the first metatarsal head, the space between the second metatarsal head and the third metatarsal head, and the hallux (big toe).

Abstract: A feedback device determines when a person has placed enough weight upon his/her foot to safely take the next step, and then communicate that information to the person via a haptic device on the person's ankle or an audio, visual and/or vibration feedback display on an application on the person's smart phone. Three or more sensors in an insole between the person's foot and shoe determine the force of the person's leg. The force data is sent to a microprocessor where the force data is processed and compared with a baseline. If the processed data exceeds the baseline, the microprocessor will activate the haptic device on the person's ankle to vibrate and/or transmit the processed data through a wireless communications device to an application on a smart phone to activate an audio, visual and/or vibration feedback display on the application. The person will then safely take the next step.

Abstract: A feedback device determines when a person has placed enough weight upon his/her foot to safely take the next step, and then communicate that information to the person via a haptic device on the person's ankle or an audio, visual and/or vibration feedback display on an application on the person's smart phone. Three or more sensors in an insole between the person's foot and shoe determine the force of the person's leg. The force data is sent to a microprocessor where the force data is processed and compared with a baseline. If the processed data exceeds the baseline, the microprocessor will activate the haptic device on the person's ankle to vibrate and/or transmit the processed data through a wireless communications device to an application on a smart phone to activate an audio, visual and/or vibration feedback display on the application. The person will then safely take the next step.

Abstract: A feedback device determines when a person has placed enough weight upon his/her foot to safely take the next step, and then communicate that information to the person via a haptic device on the person's ankle or an audio, visual and/or vibration feedback display on an application on the person's smart phone. Five sensors in an insole between the person's foot and shoe determine the force of the person's leg. The five sensors in the insole will be positioned under the heel, the fifth metatarsal head, the first metatarsal head, the space between the second metatarsal head and the third metatarsal head, and the hallux (big toe).

Abstract: A feedback method determines when a person has placed enough weight upon his/her foot to safely take the next step. This real-time feedback method measures the force of a foot while standing and walking with multiple passive sensors in a shoe insole, processes the force data signals from the sensors by a microprocessor, controls the vibrations of a haptic device on the ankle of a person, stores data, and provides an audio, visual and/or vibration feedback display on an application on a smart phone.

Abstract: A shaft evaluation device and two sole evaluation devices communicate with a host device to collect, analyze, and store data related to a swing of athletic equipment. In a particular system and method, the shaft evaluation device transmits sensor data and notifies the host device that a swing has been detected, whereby the host device obtains sensor data collected by the two sole evaluation devices.

Abstract: This disclosure relates to an evaluation device and methods for evaluating the swing of a piece of athletic equipment. The evaluation device may include a microphone, an accelerometer, and a microcontroller configured to detect a stroke and ball strike and track the position of the athletic equipment in three-dimensional space. The evaluation device may also include a radio for wireless transmissions, a battery, and a sound tube connected to the microphone. The evaluation device can be used in conjunction with a host computer to store, and display data gathered by the evaluation device. In some methods, a stroke that is detected from a swing and a ball strike can be determined by comparing signals received from the accelerometer and the microphone to predetermined criteria.

Abstract: A system is described for managing administration of medical care. The system can include a patient record system that contains electronic records for patients in a hospital. The electronic records may include scheduling information for medicine administration to the patient. A display terminal can be connected to the patient record system and be configured to read an RFID tag on the patient. The display terminal can then identify the patient and display the patient's medicine schedule.

Abstract: A system is described for managing administration of medical care. The system can include a patient record system that contains electronic records for patients in a hospital. The electronic records may include scheduling information for medicine administration to the patient. A display terminal can be connected to the patient record system and be configured to read an RFID tag on the patient. The display terminal can then identify the patient and display the patient's medicine schedule.

Abstract: A system is described for managing administration of medical care. The system can include a patient record system that contains electronic records for patients in a hospital. The electronic records may include scheduling information for medicine administration to the patient. A display terminal can be connected to the patient record system and be configured to read an RFID tag on the patient. The display terminal can then identify the patient and display the patient's medicine schedule.

Abstract: A system is described for managing administration of medical care. The system can include a patient record system that contains electronic records for patients in a hospital. The electronic records may include scheduling information for medicine administration to the patient. A display terminal can be connected to the patient record system and be configured to read an RFID tag on the patient. The display terminal can then identify the patient and display the patient's medicine schedule.

Abstract: A system is described for managing administration of medical care. The system can include a patient record system that contains electronic records for patients in a hospital. The electronic records may include scheduling information for medicine administration to the patient. A display terminal can be connected to the patient record system and be configured to read an RFID tag on the patient. The display terminal can then identify the patient and display the patient's medicine schedule.

Abstract: A system is described for managing administration of medical care. The system can include a patient record system that contains electronic records for patients in a hospital. The electronic records may include scheduling information for medicine administration to the patient. A display terminal can be connected to the patient record system and be configured to read an RFID tag on the patient. The display terminal can then identify the patient and display the patient's medicine schedule.

Abstract: A system is described for managing data and information in a healthcare environment, such as a hospital. A handheld code scanner reads codes and either accepts data, or performs instructions based on the read code. The code scanner wirelessly transmits the codes or data to a central server which acts on the read code to carry out necessary functions. The system is useful for tracking patient data, such as for delivery of medicine. In addition, since the system can carry out instructions, it is useful for allowing healthcare workers to quickly and conveniently perform their duties without the necessity of sitting at a computer terminal.

Abstract: A system is described for managing data and information in a healthcare environment, such as a hospital. A handheld code scanner reads codes and either accepts data, or performs instructions based on the read code. The code scanner wirelessly transmits the codes or data to a central server which acts on the read code to carry out necessary functions. The system is useful for tracking patient data, such as for delivery of medicine. In addition, since the system can carry out instructions, it is useful for allowing healthcare workers to quickly and conveniently perform their duties without the necessity of sitting at a computer terminal.