Abstract: A pressure detection module includes a pressure joint. A force sensitive component of the module is connected to one end of the pressure joint. A strain gauge in attached to a surface of the force sensitive component. An electrical connector of the module has a seat and a pin that passes therethrough. An electrical connection board electrically connects the pin to the strain gauge. An end cap of the module includes a peripheral wall, an end wall, and an opening opposite to the end wall, the force sensitive component and the electrical connection board are accommodated in an inner cavity thereof. One end of the pressure joint is welded to the open end of the end cap. A socket is formed in the end wall of the end cap, and the seat is inserted into the socket and welded to the end wall.

Abstract: Sensor devices and methods of operating for use with catheter-based treatments of microcardial microvascular obstruction by infusion of fluids having protective agents into vasculature are provided herein. Such catheter devices can include a first lumen configured for advancement over a guidewire and for passage of fluid having protective agents after removal of the guidewire and a second lumen for inflation of an angioplasty balloon and can further include a temperature and/or pressure sensor mounted on the catheter body. Such catheter devices can further include use of a distal occlusive membrane between the angioplasty balloon and distal end to facilitate infusion into microvasculature. The occlusive membrane can be deployed by relative movement of concentric channels, thereby reducing the need for additional lumen while optimizing the size of the catheter device and lumens.

Abstract: A vacuum adsorption module includes a supporting block, a carrier installed and positioned on the supporting block, and a plurality of valves installed on the supporting block. The supporting block has a plurality of air connection holes, each row of air connection holes is connected to a total air path formed in the supporting block via a branch air path formed in the supporting block. The carrier has a plurality of air suction holes corresponding to the air connection holes. The valves control closing and opening of the branch air paths between the plurality of rows of air connection holes and the total air path. An adsorption length of the carrier in a column direction of the array is adjustable to match a length of an article to be adsorbed by the carrier by changing a number of the valves to be closed or opened.

Abstract: A force sensing device comprises a top cover, a base, and an elastic body arranged therebetween. The cover includes a sphere and a peripheral edge. The base includes a cylindrical body and a flange for fixing to a housing of a force sensor. An installation hole is formed in the cylindrical body for receiving the sphere. The sphere is rotatable within the hole such that the cover is rotatable relative to the base to a predetermined tilt position when subjected to an off-axis overload. When no load is applied to the cover, the peripheral edge of the cover and the flange of the base are separated by a distance to allow the cover to be moved relative to the base. When the cover is rotated to the predetermined tilt position, the peripheral edge of the cover leans against the flange of the base.

Abstract: A body of a sensor includes a wafer having a cavity and a membrane deflectable into the cavity under an applied force. The membrane has a first section and a second section. The first section of the membrane is more deflectable than the second section in a first range of the applied force and the second section is more deflectable than the first section in a second range of the applied force that is different than the first range.

Abstract: A connector assembly comprises a connector and a temperature sensor. The connector includes a connector housing formed with a sensor slot, and a conductive terminal arranged in the connector housing. The temperature sensor is inserted into the sensor slot and is adapted to detect a temperature of the conductive terminal in the connector. The sensor includes a shell having a first sidewall in thermal contact with the conductive terminal, and a second sidewall opposite to the first sidewall. The second sidewall defines an interference fit portion extending from an outer surface thereof. The interference fit portion forms an interference fit with an inner wall of the sensor slot. A remaining portion of the second sidewall except for the interference fit portion is separated from the inner wall of the sensor slot by a predetermined gap. The sensor further includes a temperature sensing element arranged in the shell.

Abstract: A connector assembly comprises a connector, a mating connector, and a locking device detachably mounted on the mating connector and adapted to lock the connector and the mating connector in a mating state. The connector includes a housing having an insertion hole, a terminal provided in the housing, and a temperature sensor inserted into the insertion hole of the housing and in thermal contact with the terminal to detect the temperature of the terminal.

Abstract: Pressure sensors that can be reliability operated with the maximum current flowing through the device restricted to 10 uA or below, or below 50 uA in a single-fault condition. This can provide at least a reduced need for the final medical device architect to consider potential risks from excessive current to the patient, simplifying the design and manufacturability of the medical device. An additional benefit is that the sensors are generally more accurate at lower current flow, as self-heating of the resistors and parasitic leakages are reduced, if the signal-to-noise problem is resolved.

Abstract: A pressure sensor includes a shell having an installation chamber and an inner cavity for accommodating a fluid, a pressure detection chip installed in the installation chamber of the shell for detecting a fluid pressure in the inner cavity, a circuit board installed in the installation chamber of the shell and electrically connected to the pressure detection chip, a cover installed in an opening of the installation chamber of the shell to seal the opening of the installation chamber, and a terminal passing through the cover and fixed to the cover. The circuit board has a conductive hole and the pressure sensor has an elastic conductive member arranged in the conductive hole. The elastic conductive member is in electrical contact with the terminal to electrically connect the terminal to the conductive hole.

Abstract: A load detector includes a housing having a height direction, and a load sensor provided within the housing. The load detector further includes a base platform, an elastic beam and an elastic member, the base being floatingly supported on the housing by the elastic beam, and the elastic member being provided on the base platform for receiving a load force. With the load force is applied to the elastic member, the elastic beam and the elastic member are simultaneously elastically deformed in the height direction, and the load force is transmitted to the load sensor via the base platform. The base platform is floatingly supported on the housing by the elastic beam, so that a high sensitivity of the load sensor may be enabled and the load sensor may be prevented from damage caused by excessive load.

Abstract: A sensor assembly includes a sensor generating a sensor signal, an output unit and a condition unit receiving the sensor signal output from the sensor, and a test line connected to the sensor and the condition unit. The output unit outputs a signal output representative of a state detected by the sensor. The condition unit outputs a condition output representative of a condition of the sensor. The test line is bidirectional and outputs the condition output.

Abstract: A pressure sensor includes a housing, a pressure detection chip, a circuit board and a terminal assembly. The housing defines an installation chamber and an inner cavity for accommodating fluid. The pressure detection chip is fixed within the installation chamber of the housing and is adapted to detect fluid pressure in the inner cavity. The circuit board is fixed within the installation chamber of the housing and electrically connects to the pressure detection chip. The terminal assembly includes a cover rotatably installed in an opening of the installation chamber of the housing and an elastic output terminal that passes through and is fixed to the cover.

Abstract: A force sensor includes a force-sensing elastomer, a thermal conductivity component adapted to transfer an external load to the force-sensitive elastomer, a plurality of strain gauges attached to the force-sensitive elastomer, and a circuit board. The circuit board electrically connects the plurality of strain gauges to a detection circuit adapted to detect a strain of the force-sensitive elastomer. A peripheral part of the force-sensitive elastomer is in contact with the thermal conductivity component, and a remaining part of the force-sensitive elastomer is separated from the thermal conductivity component. The plurality of strain gauges are attached to the remaining part of the force-sensitive elastomer and do not contact the thermal conductivity component.

Abstract: An implantable pressure sensor is disclosed that has a small diameter and eliminates any dead zone in the flow of the pressure transmission medium, and is thus particularly adapted for implantation. In one embodiment the pressure sensor comprises a body including a cavity for receiving a liquid, and a planar mounting surface extending in an axial direction of the body. A diaphragm is attached to the pressure sensor body for transmitting an external medium pressure to the liquid in the cavity. A pressure detection chip is mounted on the mounting surface of the pressure sensor body for detecting a pressure of the liquid within the cavity, and a circuit hoard is mounted on the planar mounting surface of the body and is electrically connected to the pressure detection chip resulting in a device of smaller diameter particularly suited for implantation.

Abstract: Weigh-in-motion sensors comprise a beam including a plate with a load-bearing surface, and a tube portion including a base wall and a cover and defining a cavity therebetween. A sensing package is disposed within the cavity and is under pre-load with the cover and the base wall. The sensing package comprises a piezoelectric element. The base wall includes an aperture extending from a mounting surface to the cavity. The aperture includes a fastener therein to secure the sensing package within the cavity. The fastener is sized having a cross-section dimension taken through a center axis of the fastener that is greater than that of a cross-section dimension of the piezoelectric element taken along the fastener center axis. In an example, the fastener has a cross-section dimension sized about 10 percent or greater in dimension than that of the respective cross-section dimension of the piezoelectric element.

Abstract: A sensor assembly includes a carrier having a base wall and a pair of side walls extending from the base wall, and a sensor mounted on the base wall between the side walls. Each of the side walls has a side step between a first side section and a second side section extending from the first side section along a longitudinal direction of the carrier. A sensor die of the sensor is spaced in a width direction perpendicular to the longitudinal direction by a first lateral gap distance from the first side section and by a second lateral gap distance from the second side section. The second lateral gap distance is greater than the first lateral gap distance.

Abstract: A sealing pin includes a body part and an end part connected to the body part. The body part is insertable into a liquid filling path of a pressure sensor. The body part has a groove on an outer surface. The end part seals a liquid filling port of the liquid filling path. When the sealing pin is inserted into the liquid filling path, an external media pressure applied to a diaphragm of the pressure sensor is transmitted to a pressure detection chip of the pressure sensor through a liquid in the groove.

Abstract: A sensor includes a sealing tape having a first folding line and a second folding line, and an electronic component adhered to a middle area between the first folding line and the second folding line. A first side area of the sealing tape is folded along the first folding line and adhered to the middle area to cover the electronic component. A second side area of the sealing tape is folded along the second folding line and adhered to the first side area to hermetically wrap the electronic component in the sealing tape.

Abstract: A sensing device includes a body having a first chamber, a second chamber, and a liquid path which are filled with a liquid, the liquid path communicates with the second chamber, a pressure difference detection chip installed in the first chamber, and a pressure detection chip installed in the first chamber. The pressure difference detection chip seals an opening of the liquid path disposed on a bottom surface of the first chamber. The pressure difference detection chip detects a liquid pressure difference between the first chamber and the second chamber. The pressure detection chip detects a liquid pressure in the first chamber.

Abstract: Pressure sensor systems that include a pressure sensor die and other components in a small, space-efficient package, where the package allow gas or liquid to reach either or both sides of a membranes of the pressure sensor die. A package can include a substrate and a cap, where either or both the substrate and the cap divide the package internally into two chambers. The substrate can have a solid bottom layer, a middle layer having a slot or path running a portion of the length of the layer, and a top layer having two through-holes that provide access to the slot or path. The cap can have two ports. A first port can lead to a first chamber where a top side of a pressure sensor is in the first chamber. A second port can lead to a second chamber and the slot or path, where the slot or path leads to a bottom side of the pressure sensor.