3510 results about "Body positions" patented technology

A golf club (40) having a club head (42) with a face component (60) and an aft body (61) is disclosed herein. The face component (60) has a striking plate port ion (72) and a return portion (74). The aft-body (61) is composed of a crown portion (62), a sole portion (64) and optionally a ribbon section (90). The face component (60) is composed of a metal material, and the aft-body (61) is preferably composed of a non-metal material such as a composite material or a thermoplastic material. The face component (60) is bonded to the aft-body (61) with a leading edge (180) of an undercut portion (62a and 64a) of the aft-body positioned a distance of 0.100 inch to 0.500 inch from the interior surface (60a) of the face component (60) in order to reduce the stress on the bonded joint of between the face component (60) and the aft-body (61). The club head (42) has a volume in the range of 290 cubic centimeters to 600 cubic centimeters, a weight in the range of 165 grams to 300 grams, and a striking plate portion (72) surface area in the range of 4.00 square inches to 7.50 square inches.

A method for indirectly assessing the gesture, posture or movement of a body part of a person includes transmitting an ultrasound signal into the soft tissue, particularly the muscle, of body part and manipulating the reflected ultrasound signal to obtain parameter data. The parameter data is compared to reference information to obtain gesture, posture or movement information for the body part. Apparatus includes an ultrasound transmitter and receiver for transmitting, a signal processor, and a processor for storing reference information and determining gesture, posture or movement information for the body part.

System comprised of a portable medical device and method for registering at least one of electrocardiographic (ECG), magnetocardiographic (MCG), physical activity, body position, respiration, temperature, blood pressure, vasomotor activity, blood flow, neural activity, and other physiological, and health data, extracting and representing the most significant parameters from time series (trends) of said data. The system achieves the necessary sensitivity (signal-to-noise ratio) in order to miniaturize the device by collecting data of at least one fiducial point in a cardiac complex over a period of at least one, and preferably, several seconds, and extracting the underlying typical patterns from these data. Due to the miniaturization (pocket-size), the system can be implemented in a shape of a pen (or another miniature shape) that can be worn in a pocket.

A permanent connector interconnects a hard-line coaxial cable to a connection housing. A contact is interconnected with and extends coaxially through a connector body. A collet one-piece with the contact receives a central conductor of the coaxial cable, while a sealing member and mandrel receive an outer conductor of the coaxial cable between them. A compression body positioned radially adjacent a portion of the connector body moves axially between first and second positions, wherein when the compression body is in its first position, the coaxial cable is removable from within the connector, and when the compression body is in its second position, the coaxial cable is not removable from within the connector. The compression body acts indirectly upon the sealing member so that an electrical connection is made between the sealing member and the outer conductor of the cable when the compression body is in its second position.

A method for enhancing driver safety through body position monitoring with remote sensors, and furnishing feedback in response to vehicle motion, driver activities, and external driving conditions, wherein the method includes: monitoring and characterizing signals from at least one sensor mounted on the body of a driver; monitoring and characterizing signals from at least one vehicle mounted sensor; determining driver activity based on disambiguating the signals from the driver and vehicle mounted sensors; providing feedback to the driver based on the determined driver activity, vehicle motion, and external driving conditions; and wherein the feedback is employed to modify driver behavior and enhance driver safety.

Design structures for high-voltage integrated circuits. The design structure, which is formed using a semiconductor-on-insulator (SOI) substrate, may include device structure with a semiconductor body positioned between first and second gate electrodes. The first and second gate electrodes and the semiconductor body may be formed from the monocrystalline SOI layer of the SOI substrate. A dielectric layer separates each of the first and second gate electrodes from the semiconductor body. These dielectric layers are formed by defining trenches in the SOI layer and filling the trenches with a dielectric material, which may occur concurrently with a process forming other device isolation regions.

A golf club (40) having a club head (42) with a face component (60) and an aft body (61) is disclosed herein. The face component (60) has a striking plate portion (72) and a return portion (74). The aft-body (61) is composed of a crown portion (62), a sole portion (64) and optionally a ribbon section (90). The face component (60) is composed of a metal material, and the aft-body (61) is preferably composed of a non-metal material such as a composite material or a thermoplastic material. The face component (60) is bonded to the aft-body (61) with a leading edge (180) of an undercut portion (62a and 64a) of the aft-body positioned a distance of 0.100 inch to 0.500 inch from the interior surface (60a) of the face component (60) in order to reduce the stress on the bonded joint of between the face component (60) and the aft-body (61). The club head (42) has a volume in the range of 290 cubic centimeters to 600 cubic centimeters, a weight in the range of 165 grams to 300 grams, and a striking plate portion (72) surface area in the range of 4.00 square inches to 7.50 square inches.

Coronary sinus ring apparatus, including an elongated body for deployment in a coronary sinus, an aperture in a long side of the body, at least a partial lumen extending from one end of the elongated body to at least the aperture, and a guide within the elongated body positioned and shaped to guide an element inserted along the lumen to the aperture. Apparatus for treating a heart, including a delivery tube sized for and adapted for insertion into a body, a sharp tip adapted to be pushed through cardiac muscle, an elongate tensioning element, and a foldable anchor adapted to couple the elongate tension element to cardiac muscle tissue, wherein the delivery tube encloses one or both of the elongate tensioning element and the foldable anchor. Related apparatus is also described.

Devices, systems and methods provide passive patient monitoring of such parameters as body motion, body position, respiratory rate and / or heart rate. Passive monitoring generally involves a sensor device having at least two piezoelectric sensors, provided on a surface, such as a bed, chair, operating table or the like, so that a patient may be coupled with the device by simply allowing the patient to lie, sit, lean, stand on or wear the surface. In one embodiment, multiple patients in a general care area of a hospital may be continuously monitored via multiple passive monitoring devices. If a patient fails to meet one or more predefined threshold criteria or has a negative physiological trend, the system may activate an alarm.

System comprised of a portable medical device and method for non-contact registering at least one of electrocardiographic (ECG), magnetocardiographic (MCG), physical activity, body position, respiration, temperature, blood pressure, vasomotor activity, blood flow, neural activity, and other physiological, and health data, extracting and representing the most significant parameters from time series (trends) of said data. The system achieves the necessary sensitivity (signal-to-noise ratio) in order to miniaturize the device by collecting data of at least one fiducial point in a cardiac complex over a period of at least one, and preferably, several seconds, and extracting the underlying typical patterns from these data. Due to the miniaturization (pocket-size), the system can be implemented in a shape of a pen (or another miniature shape) that can be worn in a pocket.

A radar fall detector system. The radar fall detector system includes transmitter and receiver antennae and a signal processor that processes a reflected signal. Doppler analysis of the reflected signal determines a subject's activity and condition, and its distance to a floor.

A plug component for use with coaxial connector systems having a plug component and a threaded jack component is provided. This plug component includes a first electrical contact; a second electrical contact positioned around the first electrical contact, wherein the second electrical contact further includes a plurality of outwardly-biased protrusions; a body positioned around the second electrical contact, wherein the body is adapted to receive the outwardly-biased protrusions formed on the second electrical contact and form a ground plane therewith; at least one biasing member positioned around the body, wherein the biasing member provides linear force sufficient to urge the second electrical contact against a jack component for maintaining a ground plane therewith; and a locking device positioned around the biasing member and the body, wherein the locking device is adapted to mechanically engage the threaded area on the jack component for attaching the plug component to the jack component.

The Personnel And Vehicle Identification System Using Three Factors of Authentication (PAVIS-3) invention is a novel approach that combines the three authentication factors using contactless token, contactless biometric, and the unique position of said biometric presented by a person to allow rapid authentication and access to a base or building. This invention has the real potential to reduce manpower at base gates, building, and greatly improve system security. A vehicle with a contactless token such as an RFID, proximity chip, or barcode, approaches an entry lane at a base, the contactless token is read, verified, (first factor) queuing the individual's file with a biometric template and personal identification position. The biometric image is taken, reduced to a template, compared with the template in the database and if matched (second factor) the body position is examined to see if it matches the personal identification position (third factor) as a normal or covert distressed signal. If normal the vehicle is given a green light, if any match fails the vehicle is directed to the visitor's lane.

An article of footwear having an upper and a sole is disclosed. The sole of the article of footwear includes a midsole having a support portion and a plurality of projections extending from the support portion. The sole of the article of footwear also includes a plate contacting the support portion having a body positioned in an area between the plurality of projections. The plate further includes a plurality of openings which correspond to the plurality of projections and allow the projections to extend below the body of the plate. The plate further includes a plurality of cantilever elements extending on at least one side and on the bottom of each of the plurality of projections. The projections and the corresponding cantilever elements interact with one another to form a plurality of lugs located on the sole of the article of footwear.

A controller for providing user input of a desired direction of motion or orientation for a transporter. The controller has an input for receiving specification by a user of a value based on a detected body orientation of the user. User-specified input may be conveyed by the user using any of a large variety of input modalities, including: ultrasonic body position sensing; foot force sensing; handlebar lean; active handlebar; mechanical sensing of body position; and linear slide directional input. An apparatus that may include an active handlebar is provided for prompting a rider to be positioned on a vehicle in such a manner as to reduce lateral instability due to lateral acceleration of the vehicle.

Articles of apparel include: (a) a garment structure having one or more fabric elements structured and arranged to provide a close fit to at least one predetermined portion of a body (e.g., area(s) of the body for which enhanced position sensing and / or feedback are desired, such as the lower back, the arch of the foot, etc.); and (b) a body position feedback system engaged with or integrally formed as part of the garment structure. The body position feedback system may apply higher tensile or constricting (compressive) forces to selected portions of the wearer's body, which can help stimulate or interact with nerves and deep tissue receptors located in various portions of the body. The increased forces at selected locations of the body give the wearer sensory feedback regarding the position or orientation of these parts of the body and can improve or accelerate development of “muscle memory.”

The present invention relates to systems and methods for automatically and continuously regulating the level of nasal pressure to an optimal value during OSA treatment. OSA therapy is implemented by a device which automatically re-evaluates an applied pressure and continually searches for a minimum pressure required to adequately distend a patient's pharyngeal airway. For example, this optimal level varies with body position and stage of sleep throughout the night. In addition, this level varies depending upon the patient's body weight and whether or not alcohol or sleeping medicine has been ingested.

A health monitoring system is provided for a vehicle with an identity configured to travel on a surface. The system includes a body positioned on the surface and configured to stimulate a dynamic response from the vehicle as the vehicle travels over the body; a response sensor associated with the body and configured to measure the dynamic response from the vehicle; and an identification sensor associated with the body and configured to collect data corresponding to the identity of the vehicle.

The present invention relates to a system for enabling a moving person to control body movements to be performed by the person. The system comprises a video camera and a monitor for the output of the recorded video image as well as a means for inserting at least a mark indicating the position to reach during execution of a movement of a predetermined body position in the video image.

A stabilizer system for supporting a medical device includes a platform and a stabilizer body positioned on the platform and being slidably translatable about the platform. The platform includes a translation actuator configured to engage with a receiving member of the stabilizer body. Actuation of the translation actuator passes a force to the receiving member of the stabilizer body and causes the stabilizer body to translate relative to the platform. The stabilizer body includes a base and one or more support wings extending from the base to support a medical device. A straddle actuator is coupled to a support wing and is configured to engage with the medical device. Actuation of the straddle actuator passes a force to the medical device and causes at least a portion of the medical device to translate relative to the stabilizer body.

The device is a miniature, self-contained solid state orientation sensor. The unit utilizes three magnetometers and three accelerometers to calculate pitch, roll, and yaw (compass heading) angles relative to the earth's magnetic and gravitational fields. The three orientation angles are output in digital RS232 or optional multi-drop RS485. The device can also be programmed to provide raw accelerometer and magnetometer data in true physical units. The device is capable of measuring angles from 0 to 360 degrees on the yaw axis, 0 to 360 degrees on the pitch axis, and −70 to +70 degrees on the roll axis. The yaw output is compensated for errors due to pitch and roll using embedded algorithms. Applications include fast solid state compassing, robotics, virtual reality, down-hole well drilling, and body position tracking for biomedical and multimedia applications.

Methods, systems, and apparatuses are provided for detecting fall events of a person. Fall events are falls that are likely to occur, are occurring, or have occurred. Fall detectors and fall detector systems detect fall events of the person. Data relating to the person are received from sensors and analyzed to perform fall detection. Data relating to the person includes accelerations and forces experience by the person, changes in body position of the person, movements of the person, and body signals and sounds of the person. Neurological tests are administered to determine levels of responsiveness and awareness of the person in response to detections. Warnings are issued, and safety measures are deployed, in response to detections. Data relating to fall events are recorded and logged. Fall event histories based upon the logged data and fall detection algorithm performance are used to improve future fall detection and prediction.

A system and method of monitoring the position of a body part of a user. The system may be employed in athletic training, physical rehabilitation, or maintenance of proper body balance in daily activities. The system essentially creates a learning environment in which an athlete or physiotherapy patient is taught via immediate verbal feedback the proper body position to maintain for a particular sport or activity. The system includes one or more motion-detecting / signal-emitting units (“student units”) and one or more monitor / control units (“pro units”). Each student unit is mountable on the student user, and a position sensor within the unit senses a direction / magnitude of tilt / rotation relative to a predetermined reference position. The user of the pro unit can remotely monitor the positional information generated by the student unit via a wireless communications interface, as the user engages in the particular sport or activity. The pro user can change selected operational modes of the student unit based on the monitored angular / rotational position information.