mhurhangee/patent-ind-claim-en huggingface dataset:
A battery string comprising: two or more monoblock VRLA batteries wired in series, wherein a total voltage of the battery string is at least 12 volts; each monoblock battery comprises an alternating sequence of positive and negative electrodes, a separator is disposed between each of the electrodes, the separator comprises a microporous polyolefin layer including a surfactant, said microporous polyolefin layer being sandwiched between two layers of absorptive glassmat (AGM) material, wherein the microporous polyolefin layer is ribbed, embossed, and/or textured, and wherein the surfactant suppresses an overcharge potential for one or more of the monoblock batteries and/or decreases grid corrosion occurring for one or more of the monoblock batteries wherein the surfactant comprises a non-ionic surfactant. two or more monoblock VRLA batteries wired in series, wherein a total voltage of the battery string is at least 12 volts; each monoblock battery comprises an alternating sequence of positive and negative electrodes, a separator is disposed between each of the electrodes, the separator comprises a microporous polyolefin layer including a surfactant, said microporous polyolefin layer being sandwiched between two layers of absorptive glassmat (AGM) material, wherein the microporous polyolefin layer is ribbed, embossed, and/or textured, and wherein the surfactant suppresses an overcharge potential for one or more of the monoblock batteries and/or decreases grid corrosion occurring for one or more of the monoblock batteries wherein the surfactant comprises a non-ionic surfactant.
A kit comprising: (a) a passive RFID equipped mold tag configured to be affixed to or within a recess of a surface in a tire mold; and (b) an epoxy or silicone based material configured to permanently affix the passive RFID equipped mold tag to or within the recess of the surface in the tire mold, characterised in that : both the passive RFID equipped mold tag and the epoxy or silicone based material are configured to withstand repeated thermal expansion and contraction associated with tire vulcanization. (a) a passive RFID equipped mold tag configured to be affixed to or within a recess of a surface in a tire mold; and (b) an epoxy or silicone based material configured to permanently affix the passive RFID equipped mold tag to or within the recess of the surface in the tire mold,
A control device for a vehicle (500; 501), comprising: an accelerator position sensor that detects an accelerator opening; a torque adjustment mechanism that adjusts a torque of a drive source (10; 300) of the vehicle (500; 501) ; and a controller that controls the torque adjustment mechanism based on the accelerator opening detected by the accelerator position sensor , wherein the controller sets a target acceleration based on the accelerator opening, and sets a target torsion angle of a drive shaft that drives a wheel of the vehicle (500; 501) based on the target acceleration, characterized in that the controller sets a target torque of the drive source (10; 300) by adding a first torque according to the target torsion angle of the drive shaft and a second torque according to a torsion angular velocity of the drive shaft to achieve the target torsion angle, and controls the torque adjustment mechanism based on the target torque. an accelerator position sensor that detects an accelerator opening; a torque adjustment mechanism that adjusts a torque of a drive source (10; 300) of the vehicle (500; 501) ; and a controller that controls the torque adjustment mechanism based on the accelerator opening detected by the accelerator position sensor , wherein the controller sets a target acceleration based on the accelerator opening, and sets a target torsion angle of a drive shaft that drives a wheel of the vehicle (500; 501) based on the target acceleration, characterized in that the controller sets a target torque of the drive source (10; 300) by adding a first torque according to the target torsion angle of the drive shaft and a second torque according to a torsion angular velocity of the drive shaft to achieve the target torsion angle, and controls the torque adjustment mechanism based on the target torque.
A method , uniquely and successively iterated for each of a plurality of load cells, comprising: identifying a vibrational frequency produced on a load cell (121 or 405) (step 210) when a state of the load cell (121 or 405) indicates that the load cell (121 or 405) is likely not in use (step 211); recognizing the vibrational frequency as noise (step 220); and adjusting the load cell (121 or 405) to remove the vibrational frequency from signals produced by the load cell (121 or 405) when the vibrational frequency is present (step 230). identifying a vibrational frequency produced on a load cell (121 or 405) (step 210) when a state of the load cell (121 or 405) indicates that the load cell (121 or 405) is likely not in use (step 211); recognizing the vibrational frequency as noise (step 220); and adjusting the load cell (121 or 405) to remove the vibrational frequency from signals produced by the load cell (121 or 405) when the vibrational frequency is present (step 230).
Solid matter valve for pressurized cans, in particular for the dispensing/discharging of assembly foams, with a valve disk , a valve body arranged in the valve disk , a stem mounted in a central cutout of the valve body and having at least one inlet opening for the contents of the pressurized can, said opening being cleared by actuation of the stem , with at least one discharge opening, a duct connecting the inlet opening with the discharge opening, at least one sealing element acting between the valve body and the stem , as well as a spring element , characterized in that the stem is designed so as to form two parts, on upper part being connected to a lower part in a form-closed or force-closed manner, a circumferential elastic diaphragm integrally connecting the valve body to the upper part of the stem , and the two parts of the stem forming a functional unit which accommodates the duct .
Variable-delivery pump device comprising, on the one hand, a pump body defining, alone or in collaboration with a support body, a circulation chamber with at least one inlet and at least one outlet , on the other hand an impeller or similar rotary member fixed to a drive shaft mounted with the ability to rotate in the pump body at a receiving housing , this impeller being of substantially cylindrical or discoid overall shape and arranged in the circulation chamber and, finally, a shutter element , able to move in translation in the direction of the longitudinal axis (AL) of the shaft of the impeller in the chamber and covering, adjustably, according to its axial position, at least part of the exterior periphery of the impeller , or not, a cam element , driven in rotation by an actuator and collaborating kinematically with said shutter element for the translational movement thereof, also being present inside the pump body , in which pump device the shutter element and the cam element have cylindrical walls (8' and 9') and in which the cam element has, on the external face (9") of its wall , at least one helical guideway on which there circulates at least one corresponding follower element of the shutter element , these elements (8 and 9) thus, by collaboration, forming a mechanism for converting a rotary movement of the cam element about the longitudinal axis (AL) into a translational movement of the shutter element along this axis (AL), which pump device is characterized in that the shutter element and the cam element are arranged concentrically about the receiving housing forming part of the pump body and receiving the shaft of the impeller , in that the rotary cam element is situated inside the sliding shutter element , in that the follower element at least present is secured to the internal face (8") of the wall of the shutter element , and in that the cam element and the shutter element by collaboration form a telescopic tubular assembly of which the longitudinal axis coincides with that (AL) of the shaft of the impeller . in which pump device the shutter element and the cam element have cylindrical walls (8' and 9') and in which the cam element has, on the external face (9") of its wall , at least one helical guideway on which there circulates at least one corresponding follower element of the shutter element , these elements (8 and 9) thus, by collaboration, forming a mechanism for converting a rotary movement of the cam element about the longitudinal axis (AL) into a translational movement of the shutter element along this axis (AL), which pump device is characterized in that the shutter element and the cam element are arranged concentrically about the receiving housing forming part of the pump body and receiving the shaft of the impeller , in that the rotary cam element is situated inside the sliding shutter element , in that the follower element at least present is secured to the internal face (8") of the wall of the shutter element , and in that the cam element and the shutter element by collaboration form a telescopic tubular assembly of which the longitudinal axis coincides with that (AL) of the shaft of the impeller .
A drawer assembly structure, comprising: a drawer body , comprising a front wall , a rear wall and two opposite side walls , all of which define a storage space , wherein a first jaw and a first limiter are provided on the side wall of the drawer body , characterized by a location hole on the front wall of the drawer body ; and by a slide assembly , comprising a slide support and a slide rail , wherein the slide support comprises a U-shaped portion and a first folded portion connected with the U-shaped portion fixedly, the U-shaped portion is configured for assembling the slide support and the slide rail , and the first folded portion is configured for assembling the drawer body and the slide support , the first folded portion is provided with a first slot , a first limiting hole . a shifter and a buckle corresponding to the shifter ; when the drawer body is assembled at a set position on the slide support , the first jaw is clipped into the first slot , the first limiter falls into the first limiting hole , and the buckle is located in the location hole ; when the drawer body body is disassembled from the slide support , the shifter is lifted to release the buckle from the location hole , and at least part of the drawer body is separated from the slide support . a drawer body , comprising a front wall , a rear wall and two opposite side walls , all of which define a storage space , wherein a first jaw and a first limiter are provided on the side wall of the drawer body , characterized by a location hole on the front wall of the drawer body ; and by a slide assembly , comprising a slide support and a slide rail , wherein the slide support comprises a U-shaped portion and a first folded portion connected with the U-shaped portion fixedly, the U-shaped portion is configured for assembling the slide support and the slide rail , and the first folded portion is configured for assembling the drawer body and the slide support , the first folded portion is provided with a first slot , a first limiting hole . a shifter and a buckle corresponding to the shifter ; when the drawer body is assembled at a set position on the slide support , the first jaw is clipped into the first slot , the first limiter falls into the first limiting hole , and the buckle is located in the location hole ; when the drawer body body is disassembled from the slide support , the shifter is lifted to release the buckle from the location hole , and at least part of the drawer body is separated from the slide support .
Tyre made of rubber material, comprising a tread , said tread having a plurality of grooves , each groove having a groove bottom , walls flanking the groove bottom and transition regions between the walls and the groove bottom , all or some of the grooves comprise a texture extending only over the groove bottom and over at least a part of the transition regions associated with this groove bottom, said texture contrasting with the rest of the tyre characterized in that the texture has a lightness, known as first lightness L*1, of between 6 and 15, and preferably between 8 and 9, and the rest of the tyre has a lightness, known as second lightness L*2, greater than or equal to 18 and less than or equal to 30, the lightness parameter characterizing the capacity of a surface to reflect light, lightness being expressed using a scale that ranges from 0 to 100 in accordance with the L*a*b* colour model adopted in 1976 by the International Commission on Illumination (CIE), where the value 100 represents white or total reflection, and the value 0 represents black or total absorption.
A light-emitting device comprising: a base; a light-emitting element disposed on the base; and a light-transmissive member covering the light-emitting element , wherein an upper surface of the light-transmissive member and an upper surface of the base each have projections, wherein the light-transmissive member comprises particles of at least one light-transmissive first filler , the particles of the at least one light-transmissive first filler having refractive indices smaller than a refractive index of a matrix of the light-transmissive member , wherein a part of the particles of the at least one light-transmissive first filler is exposed from the matrix of the light-transmissive member on the upper surface of the light-transmissive member , and wherein the base comprises: at least one lead electrode ; and a light-shielding member holding the at least one lead electrode , characterized in that the light-shielding member comprises: a resin matrix ; and particles of a second filler , a part of the particles of the second filler being exposed from the resin matrix of the light-shielding member on an upper surface of the light-shielding member , and projections on the upper surface of the light-shielding member being caused by the particles of the second filler . a base; a light-emitting element disposed on the base; and a light-transmissive member covering the light-emitting element , wherein an upper surface of the light-transmissive member and an upper surface of the base each have projections, wherein the light-transmissive member comprises particles of at least one light-transmissive first filler , the particles of the at least one light-transmissive first filler having refractive indices smaller than a refractive index of a matrix of the light-transmissive member , wherein a part of the particles of the at least one light-transmissive first filler is exposed from the matrix of the light-transmissive member on the upper surface of the light-transmissive member , and wherein the base comprises: at least one lead electrode ; and a light-shielding member holding the at least one lead electrode , at least one lead electrode ; and a light-shielding member holding the at least one lead electrode , characterized in that the light-shielding member comprises: a resin matrix ; and particles of a second filler , a resin matrix ; and particles of a second filler , a part of the particles of the second filler being exposed from the resin matrix of the light-shielding member on an upper surface of the light-shielding member , and projections on the upper surface of the light-shielding member being caused by the particles of the second filler .
A parameter configuration method, comprising: sending , by a network device , a radio resource control, RRC, signaling to a terminal , wherein the RRC signaling comprises parameters of phase tracking reference signal, PT-RS, and the parameters of PT-RS comprise at least one of resource element, RE, offset parameters and power offset parameters, the at least one of RE offset parameters and power offset parameters being in a one-to-one correspondence with a plurality of bandwidth parts, BWPs, in a carrier, with one RE offset parameter corresponding to one BWP and/or one power offset parameter corresponding to one BWP; and sending, by the network device, downlink control information, DCI, or media access control layer control element, MAC CE, to the terminal, wherein the DCI or the MAC CE is used for indicating an activated BWP, wherein the one-to-one correspondence is used to instruct the terminal to select one of the at least one of RE offset parameters and power offset parameters corresponding to the activated BWP. sending , by a network device , a radio resource control, RRC, signaling to a terminal , wherein the RRC signaling comprises parameters of phase tracking reference signal, PT-RS, and the parameters of PT-RS comprise at least one of resource element, RE, offset parameters and power offset parameters, the at least one of RE offset parameters and power offset parameters being in a one-to-one correspondence with a plurality of bandwidth parts, BWPs, in a carrier, with one RE offset parameter corresponding to one BWP and/or one power offset parameter corresponding to one BWP; and sending, by the network device, downlink control information, DCI, or media access control layer control element, MAC CE, to the terminal, wherein the DCI or the MAC CE is used for indicating an activated BWP, wherein the one-to-one correspondence is used to instruct the terminal to select one of the at least one of RE offset parameters and power offset parameters corresponding to the activated BWP.
A wavelength conversion member which is a molding of a resin material comprising a thermoplastic resin and a complex fluoride phosphor dispersed therein, wherein the thermoplastic resin is one or more resins selected from the group consisting of polyolefins, polystyrene, styrene copolymers, fluoro-resins, acrylic resins, nylon, polyester resins, polycarbonate resins, vinyl chloride resins and polyether resins, provided that the thermoplastic resin comprises at least 40% by weight of polypropylene; the complex fluoride phosphor is represented by the formula : A 2 (M 1-x Mn x )F 6 wherein M is one or more tetravalent elements selected from Si, Ti, Zr, Hf, Ge, and Sn, A is one or more alkali metals selected from Li, Na, K, Rb, and Cs and containing at least Na and/or K, and x is a number of 0.001 to 0.3, and has a particle size distribution as measured by dry laser diffraction scattering method in which the volume basis 50% cumulative particle diameter D50 is from 2 to 200 μm, the complex fluoride phosphor is dispersed in the thermoplastic resin in an amount of up to 30% by weight.
A camera module , comprising: a first camera comprising a lens; a second camera ; and a light guide component configured to collect light from outside and guide the light into the first camera , the light guide component disposed between the second camera and the first camera ; characterized in that the camera module further comprises: a housing accommodating the first camera and the light guide component ; and a bracket surrounding the housing , such that a direction of the lens of the first camera is coincident with a light exit direction of the light guide component and the first camera is prevented from being misaligned with the light guide component , wherein the bracket comprises at least one first positioning part configured to fix the bracket to a circuit board of a terminal . a first camera comprising a lens; a second camera ; and a light guide component configured to collect light from outside and guide the light into the first camera , the light guide component disposed between the second camera and the first camera ; characterized in that the camera module further comprises: a housing accommodating the first camera and the light guide component ; and a bracket surrounding the housing , such that a direction of the lens of the first camera is coincident with a light exit direction of the light guide component and the first camera is prevented from being misaligned with the light guide component , wherein the bracket comprises at least one first positioning part configured to fix the bracket to a circuit board of a terminal . a housing accommodating the first camera and the light guide component ; and a bracket surrounding the housing , such that a direction of the lens of the first camera is coincident with a light exit direction of the light guide component and the first camera is prevented from being misaligned with the light guide component , wherein the bracket comprises at least one first positioning part configured to fix the bracket to a circuit board of a terminal .
A feeding-bottle cover, comprising a breast-shaped feeding-bottle cover body , a heating component , a controlling component , and a scent volatilizing component wherein a nipple portion is provided on an upper surface of the feeding-bottle cover body , a feeding-bottle port is provided on a lower surface of the feeding-bottle cover body , and a channel is provided between the feeding-bottle port and the nipple portion ; the heating component and the controlling component are disposed inside the feeding-bottle cover body and electrically coupled to each other; and the scent volatilizing component is disposed on the upper surface of the feeding-bottle cover body and electrically connected to the controlling component . a nipple portion is provided on an upper surface of the feeding-bottle cover body , a feeding-bottle port is provided on a lower surface of the feeding-bottle cover body , and a channel is provided between the feeding-bottle port and the nipple portion ; the heating component and the controlling component are disposed inside the feeding-bottle cover body and electrically coupled to each other; and the scent volatilizing component is disposed on the upper surface of the feeding-bottle cover body and electrically connected to the controlling component .
An intelligent explosion-proof table comprising: a worktable and an explosion-proof box with an open top; said intelligent explosion-proof table being characterized in that : said worktable has an opening in the top surface of the worktable passing through in the vertical direction; said explosion-proof box being disposed so that the open top of said explosion-proof box is under the opening of the worktable , and a lifting plate which can be moved up and down and a support mechanism for driving the lifting plate to be lifted being provided inside the explosion-proof box , the lifting plate being used for placing a danger source, and the lifting plate matching with the opening and being capable of being raised into the opening . a worktable and an explosion-proof box with an open top; said intelligent explosion-proof table being characterized in that : said worktable has an opening in the top surface of the worktable passing through in the vertical direction; said explosion-proof box being disposed so that the open top of said explosion-proof box is under the opening of the worktable , and a lifting plate which can be moved up and down and a support mechanism for driving the lifting plate to be lifted being provided inside the explosion-proof box , the lifting plate being used for placing a danger source, and the lifting plate matching with the opening and being capable of being raised into the opening . said worktable has an opening in the top surface of the worktable passing through in the vertical direction; said explosion-proof box being disposed so that the open top of said explosion-proof box is under the opening of the worktable , and a lifting plate which can be moved up and down and a support mechanism for driving the lifting plate to be lifted being provided inside the explosion-proof box , the lifting plate being used for placing a danger source, and the lifting plate matching with the opening and being capable of being raised into the opening .