Abstract:
A return container for a sensor device and methods of forming a sensor device return container are disclosed. Generally, the apparatus may include a deflecting blade, a handle, and an indicator. The deflecting blade has a shaft and planar portion extending from respective ends. The planar portion can be placed proximate a working surface associated with a conveyor bearing and movable to provide the tension force on the belt. The handle is connected to the shaft and provides a torque when the handle is moved about an axis of the shaft. As an initial torque is applied to the shaft, the planar portion applies a first force against the working surface. The indicator is on the handle and measures the tension force on the belt when the handle provides a sufficiently increased torque such that the planar portion minimally deflects the working surface to a predetermined position.
Abstract:
The present invention is to provide an imperceptible motion sensing device, which includes a non-conductive elastomer made of a pliable and elastic non-conductor (e.g., polyurethane) and having a bumpy side formed with at least one sunken portion thereon, at least one conductive fiber positioned in the at least one sunken portion respectively (e.g., by sewing), and a conductive elastomer made of a pliable and elastic conductor (e.g., a conductive foam or conductive rubber) and provided on the bumpy side of the non-conductive elastomer. When the sensing device is compressed by an external force, corresponding portions of the conductive elastomer and the non-conductive elastomer are compressed and deformed, causing contact and hence electrical connection between the conductive elastomer and the at least one conductive fiber. Thus, the imperceptible motion sensing device not only provides more accurate and more sensitive signal detection, but also ensures consistent performance even after long-term use.
Abstract:
A high-accuracy load measuring apparatus capable of enlarging a measurement range includes a loading section provided at one end of a long and narrow beam. A support supports the beam at a side closer to the other end of the beam than the loading section. A displacement sensor includes a capacitive sensor and is provided to measure a displacement of the loading section. The beam includes a pair of long and narrow plate-like legs arranged in parallel while being spaced apart in a thickness direction and a connecting portion connecting ends of the plate-like legs at a side of the loading section. The beam is supported on the support to have a changeable length between a supported position by the support and the loading section. Each plate-like leg includes a slot, which is a long and narrow hole formed along a length direction in a widthwise central part.
Abstract:
A case accommodates a manipulated surface portion. A distortion member has a joint portion, which is connected with a periphery of the manipulated surface portion at one end, and a fixed portion fixed to the case at the other end. The distortion member has a movement transmission surface between the joint portion and the fixed portion. The movement transmission surface is movable according to a manipulating force caused by pressure applied to the manipulated surface portion. A distortion detection unit is adhered to the movement transmission surface and configured to detect a distortion of the movement transmission surface caused by a movement of the distortion member. The manipulated surface portion and the movement transmission surface are located on the same plane.
Abstract:
A reversible force measuring device that can comprise at least one cavity, at least one load receiving area, and at least one indicating material; wherein the indicating material moves in or out of the at least one cavity as its volume changes to indicate the magnitude and/or direction of the applied loads. A reversible force measuring device that can comprise at least one cavity, at least one load receiving area, and at least one indicating material; a fastener causes the indicating material to move in and out of the at least one cavity to indicate the magnitude and/or direction of the applied loads. A reversible force measuring device comprising at least two independent cavities, at least one load receiving area, and at least one indicating material; wherein the difference in volume changes indicates the force as the indicating material moves in or out of the at least two cavities.
Abstract:
A bicycle crank arm comprises a first crank arm member having a first sensor-mounting surface and a second crank arm member having a second sensor-mounting surface. A first sensor is mounted to the first sensor-mounting surface, and a second sensor mounted to the second sensor-mounting surface.
Abstract:
An impact sensor system for a vehicle that includes a frame member having a cavity and a chamber arranged within the cavity. The chamber includes two ends with different cross-sectional areas. The impact sensor system further includes a sensor coupled to the chamber that generates a signal indicative of a pressure change within the chamber caused by an impact to the frame member.
Abstract:
An occupant detection sensor includes a sensor member disposed on a surface of a vehicle seat and detecting sitting of an occupant, a wiring member electrically coupling the sensor member with an external device, and a covering member covering the sensor member and the wiring member. The wiring member and the covering member are included in a coupling section that is disposed along the surface of the vehicle seat. The coupling section includes a bent portion and a stress absorbing portion that absorbs stress generated at the bent portion.
Abstract:
A sensing insert device (100) is disclosed for measuring a parameter of the muscular-skeletal system. The sensing insert device (100) can be temporary or permanent. Used intra-operatively, the sensing insert device (100) comprises an insert dock (202) and a sensing module (200). The sensing module (200) is a self-contained encapsulated measurement device having at least one contacting surface that couples to the muscular-skeletal system. The sensing module (200) comprises one or more sensing assemblages, electronic circuitry (307), an antenna (2302), and communication circuitry (320). The sensing assemblages are between a top plate (1502) and a bottom plate (1504) in a sensing platform (121). The sensing assemblages comprise a load disc (2004) and a piezo-resistive sensor (2002) to measure the parameter. An elastic support structure or springs (1108) is coupled between the top plate (1502) and the bottom plate (1504) to prevent cantilevering of a surface.
Abstract:
A device for measuring forces and a method of making the same is disclosed. The device comprises a boss structure within a diaphragm cavity, wherein the boss structure has substantially parallel sidewalls. One or more sensors are installed proximate to the diaphragm to sense flexure in the diaphragm, which is controlled by the boss structure.