Abstract: A pressure sensor is disclosed, which includes a substrate attached to an object being tested, a force transmission structure connected to the substrate, and a pressure measuring circuit; the force transmission structure includes a first elastomer and a second elastomer arranged alternately in sequence, the adjacent first elastomer and second elastomer are abutted against each other, and rigidity of the second elastomer is lower than rigidity of the first elastomer; the pressure measuring circuit is provided with at least two resistors, at least one of the resistors is provided at a position of the substrate corresponding to the second elastomer, and the at least one of the resistors is a strain sensing resistor configured to detect deformation of the second elastomer. An electronic terminal is also provided, which includes an object being tested, the pressure sensor, and a pressure sensing detection circuit electrically connected to the strain sensing resistor.

Abstract: The pressure sensing device includes a substrate and a pressure sensor. The pressure sensor used is a thin-film piezoresistive sensor with a certain area, and a power wire, a ground wire, and two differential wires are led out from ends of the pressure sensor respectively, and the pressure sensor is arranged on the substrate. The substrate is simply attached to the object being tested that is to be subjected to pressure, the pressure sensor is connected to a pressure sensing detection circuit, the object being tested deforms under pressure, and the thin-film piezoresistive sensor deforms as the substrate deforms. The deformation of the substrate is detected through detecting the voltage drop between the two differential wires, which is converted to obtain the pressure on the object being tested, thereby realizing a pressure-sensitive touch function. A pressure sensing method and an electronic terminal with the pressure sensing device are also provided.

Abstract: In a pressure sensing structure, a first elastic carrier is arranged on a first mounting surface of a substrate, an electronic component is arranged on the elastic carrier; when the substrate is deformed, the elastic carrier is bent and deformed with the deflection of the substrate; the substrate is configured to amplify a strain signal, deflection amount of the substrate may be detected by the strain sensing element, recognizable electric signal is output by a signal measuring circuit. The pressure sensing structure is a sensor structure with high precision, high reliability and high sensitivity. The pressure sensing structure is attached to a panel or a side frame of an electronic product, when the panel or the side frame is pressed, the deflection is detected by the strain sensing element and the recognizable electric signal is output by the signal measuring circuit.

Abstract: A key unit and a key array, the key unit includes a pressing panel, a key unit sensor assembly and a double-sided adhesive tape connected between the key unit sensor assembly and the pressing panel; the key unit sensor assembly includes a substrate, a first group of sensors and a second group of sensors; the first group of sensors are distributed at a central zone of the substrate, the central zone is corresponding to a key center on the pressing panel; two groups of sensors are arranged on the substrate, the first group of sensors are distributed at the central zone of the substrate, the second group of sensors are distributed at a zone of the substrate adjacent to an edge, the first group of sensors and the second group of sensors are used to detect different pressure values of the zone.

Abstract: Provided is a pressure sensing device, which includes one or more pressure sensing sheet and a first substrate for supporting the pressure sensing sheet. The pressure sensing sheet is connected with the first substrate through welding, a welding spot of the welding is configured for deformation transfer and electrical signal transmission. The pressure sensing sheet includes a second substrate, at least one pressure sensing component, and a plurality of pads. The pressure sensing component is arranged at a lower surface and/or an upper surface of the substrate, the pads are arranged at the upper surface of the second substrate and are conductively connected with the pressure sensing component for deformation transfer and electrical signal transmission. The deformation is transferred to the substrate of the pressure sensing sheet through the pads when the pressure sensing device deforms.

Abstract: In the pressure sensor, at least two resistors are simultaneously molded at the first mounting surface and the second mounting surface of the substrate component ensuring uniformity and consistency of resistance of all resistors, at least one of resistors is a strain sensing resistor, and the resistors are electrically connected to form a pressure measuring circuit. Connecting the pressure sensor to the desired panel to accurately detect the curved deformation amount of the panel. The resistors in a pressure measuring circuit are adjacently distributed, and the resistance value of the resistor changes with temperature at the same time, so that the influence of the temperature change on the pressure measuring circuit is very small, and the interference against the external environment is good.

Abstract: A luminous pressure sensor comprises a feedback assembly capable of emitting light when pressure is applied thereto, and a pressure sensing layer. A sensing plate is provided between the feedback assembly and the pressure sensing layer, and is connected to the feedback assembly and the pressure sensing layer via a connecting adhesive layer. The sensing plate is provided with at least one pressing structure thereon for concentrating pressing force. A touch control button may comprise the luminous pressure sensor, and an electronic device may comprise the touch control button. The luminous pressure sensor has a simple structure and a low manufacturing cost, and is easy to assemble and to commercialize.

Abstract: A computing device configured to take action based on user touch position and force comprises a touch system and a strain amplifying force sensing structure attached to an underside of the touch system. The strain amplifying force sensing structure comprises a force sensing layer and a support plate with a strain amplifying structure.

Abstract: In the pressure sensor of the present application, at least two resistors are simultaneously formed on the foldable portion and the fixed portion to ensure the uniformity and consistency of the resistance values of all the resistors, and at least one is a strain sensing resistor R1, the foldable portion is folded to the fixed portion, and the resistors are electrically connected to form a pressure measuring circuit. Connecting the pressure sensor to the desired panel can accurately detect the curved deformation of the panel. The resistors in a pressure measuring circuit are adjacently distributed, and the resistance value of the resistor changes with temperature at the same time, so that the influence of the temperature change on the pressure measuring circuit is very small, and the interference against the external environment is good.

Abstract: Pressure applied to the surface of a first panel is measured by a simple beam-type pressure-sensing assembly, said pressure-sensing assembly being in contact with the first panel and a second panel by means of first supports and a second support. When a user applies pressure to a pressing area, the pressure is transferred to an elastic bearing plate; the pressure is then evenly concentrated on the elastic bearing plate; having pressure applied thereto, the elastic bearing plate is then deformed; a pressure sensor detects the deformation of the elastic bearing plate, and then the pressure sensor outputs a pressure signal to a pressure-sensing detection circuit to analyze, process, and then output to a processor for execution of an operation.

Abstract: The invention disclosed is a pressure sensor, comprising: a pressure sensing plate and a strain sensing unit which are arranged in a stacked manner, wherein the thickness of the pressure sensing plate is 0.2 3 mm, and the material of the pressure sensing plate is an elastic material with a Young's modulus not greater than 120 GPa. Also disclosed is a display apparatus, comprising a panel, a pressure sensing plate and a strain sensing unit which are arranged in a stacked manner in sequence, wherein the thickness of the pressure sensing plate is 0.2 3 mm, and the material of the pressure sensing plate is an elastic material with a Young's modulus not greater than 120 GPa. Also disclosed is an electronic device comprising the pressure sensor, and an electronic device comprising the display apparatus.

Abstract: A pressure sensing device of the present invention comprises a top panel, a first sensing board member, a second sensing board member, and a control circuit board. The first sensing board member is provided with cut-out patterns, comprising pressure concentration point positions. The upper surface of the first sensing board member with cut-out patterns is connected via a first connecting material to the top panel. The second sensing board member is connected to a lower surface of the first sensing board member. The control circuit board is electrically connected to a second sensing board member. The present application also provides an area pressure measuring apparatus, a touch control board, and a display apparatus.

Abstract: The present invention provides a pressure sensing structure and a touch-control apparatus. The pressure sensing structure comprises a substrate divided into a strain-concentrating region and a region outside of the strain-concentrating region, and sensors arranged at a central portion or an edge of the strain-concentrating region, wherein a thickness of the substrate at the strain-concentrating region is smaller than that of the region outside of the strain-concentrating region. Thus, the pressure-concentrating region is pressure sensitive and has obvious strain, so that a detectable electrical signal can be generated when a pressure is applied to the surface of the substrate. More specifically, the touch-control apparatus comprises at least one pressure sensing structure. The pressure sensing structure can be operated flexibly. It is easy to control its cost. It is suitable for environments with high requirements for dust control and security, and it has wide applications.

Abstract: A pressure-sensitive touch screen comprises a substrate, first and second strain sensors and a detecting circuit electrically connected to the first and second strain sensors. The substrate is configured to at least laterally deform in response to a touch and has a peripheral area. The first and second strain sensors are disposed on the peripheral area of the substrate and are adjacent to one another. The first strain sensor changes resistance in response to touch-based lateral deformation of the substrate. The second strain sensor provides a reference resistance. The detecting circuit is configured to detect a touched location and measure a pressure, based on resistance of the first strain sensor, and to use the reference resistance of the second strain sensor to compensate for changes in environmental conditions.

Abstract: The present invention relates to a touch screen, and particularly to a pressure-sensitive touch screen and an electronic device. The present touch screen comprises a substrate which has an elastic deformation performance and is used by a user to operate and a strain sensor which is used for detecting lateral deformation of the substrate and is fixedly arranged at a peripheral location of a lower surface of the substrate, and further comprises a pressure bearing plate, wherein the pressure bearing plate is fixedly arranged at an upper surface of the substrate, and the location where the side edges of the pressure bearing plate are projected onto the strain sensor is located at a middle location of the strain sensor. Also provided is an electronic device containing the pressure-sensitive touch screen.

Abstract: The invention disclosed is a pressure sensor, comprising: a pressure sensing plate and a strain sensing unit which are arranged in a stacked manner, wherein the thickness of the pressure sensing plate is 0.2 3 mm, and the material of the pressure sensing plate is an elastic material with a. Young's modulus not greater than 120 GPa. Also disclosed is a display apparatus, comprising a panel, a pressure sensing plate and a strain sensing unit which are arranged in a stacked manner in sequence, wherein the thickness of the pressure sensing plate is 0.2 3 mm, and the material of the pressure sensing plate is an elastic material with a Young's modulus not greater than 120 GPa. Also disclosed is an electronic device comprising the pressure sensor, and an electronic device comprising the display apparatus.

Abstract: The present invention relates to technical field of electronic switch control and discloses a touch button, which comprises a panel and a hollow pad module; wherein, the panel is provided with a button area, and the pad module is arranged at an edge of the button area of the panel; the touch button further comprises at least one sensor configured to sense a pressure, and the sensor is arranged inside the pad module and abuts against the panel. By providing such a touch button, the panel of the touch button can be made of any material, and thus the application range of the touch button is enlarged. Moreover, the touch button has good durability, is beautiful, can identify touch pressures accurately, has high sensitivity, and brings convenience into the actual use.

Abstract: The present invention relates to the field of pressure sensor technologies, and discloses a discrete pressure sensor and an electronic device. The pressure sensor includes a pressure sensing chip and a force centralization sensing board component that is bonded onto the pressure sensing chip. The force centralization sensing board component has a hollowed area, the hollowed area has a force centralization position for centralizing force applied on the force centralization sensing board component, and the force centralization position is disposed against the pressure sensing chip. After pressure is applied in the hollowed area of the force centralization sensing board component, force is centralized to the force centralization position, conveyed to the pressure sensing chip in a centralized manner, and converted into control information to control an external electronic device through a circuit or the like of the electronic device.

Abstract: The disclosure relates to a displacement sensing touch panel and a touch screen using the touch panel. The touch panel includes a first panel, a second panel, and a displacement sensor sandwiched between the first panel and the second panel. The displacement sensor deforms when a pressure is applied to the first panel. The touch screen includes the touch panel, a controller where the touch positions and forces applied are deduced from the readings of the displacement sensor, and a display coupled to the controller and adjacent to the touch panel. Displacement information is collected through the displacement sensor to deduce the positions and magnitudes of the forces applied to the first panel of the touch panel or touch screen.

Abstract: The disclosure relates to a displacement sensing touch panel and a touch screen using the touch panel. The touch panel includes a first panel, a second panel, and a displacement sensor sandwiched between the first panel and the second panel. The displacement sensor deforms when a pressure is applied to the first panel. The touch screen includes the touch panel, a controller where the touch positions and forces applied are deduced from the readings of the displacement sensor, and a display coupled to the controller and adjacent to the touch panel. Displacement information is collected through the displacement sensor to deduce the positions and magnitudes of the forces applied to the first panel of the touch panel or touch screen.