mhurhangee/patent-ind-claim-en huggingface dataset:
A solar cell comprising: a crystalline silicon layer including a pn junction, the crystalline silicon layer including a first crystalline silicon layer of a first conductivity type and a second crystalline silicon layer of a second conductivity type formed on the first crystalline silicon layer to form the pn junction; an amorphous semiconductor layer formed on the first crystalline silicon layer , the amorphous semiconductor layer being made of hydrogenated amorphous silicon, a-Si:H; and a passivation layer formed on the second crystalline silicon layer ; wherein the amorphous semiconductor layer contains a dopant of the same conductivity type as the first crystalline silicon layer ; characterized in that : the amorphous semiconductor layer includes a first sublayer and a second sublayer , the second sublayer being formed on the first crystalline silicon layer , and the first sublayer being formed on the second sublayer , wherein the first sublayer and the second sublayer each have a thickness of 5nm; and the dopant concentration of the first sublayer of the amorphous semiconductor layer is 1 × 10 21 /cc and the dopant concentration of the second sublayer of the amorphous semiconductor layer is between 1×10 19 /cc and 1 × 10 21 /cc. a crystalline silicon layer including a pn junction, the crystalline silicon layer including a first crystalline silicon layer of a first conductivity type and a second crystalline silicon layer of a second conductivity type formed on the first crystalline silicon layer to form the pn junction; an amorphous semiconductor layer formed on the first crystalline silicon layer , the amorphous semiconductor layer being made of hydrogenated amorphous silicon, a-Si:H; and a passivation layer formed on the second crystalline silicon layer ; wherein the amorphous semiconductor layer contains a dopant of the same conductivity type as the first crystalline silicon layer ; characterized in that : the amorphous semiconductor layer includes a first sublayer and a second sublayer , the second sublayer being formed on the first crystalline silicon layer , and the first sublayer being formed on the second sublayer , wherein the first sublayer and the second sublayer each have a thickness of 5nm; and the dopant concentration of the first sublayer of the amorphous semiconductor layer is 1 × 10 21 /cc and the dopant concentration of the second sublayer of the amorphous semiconductor layer is between 1×10 19 /cc and 1 × 10 21 /cc. the amorphous semiconductor layer includes a first sublayer and a second sublayer , the second sublayer being formed on the first crystalline silicon layer , and the first sublayer being formed on the second sublayer , wherein the first sublayer and the second sublayer each have a thickness of 5nm; and the dopant concentration of the first sublayer of the amorphous semiconductor layer is 1 × 10 21 /cc and the dopant concentration of the second sublayer of the amorphous semiconductor layer is between 1×10 19 /cc and 1 × 10 21 /cc.
Lighting device with dynamic light effects for a passenger compartment of a motor vehicle , the lighting device comprising a lighting system configured to emit at least one light signal producing a dynamic effect of scrolling in the passenger compartment along the longitudinal axis of the vehicle and in the opposite direction to the direction of travel of the vehicle, characterized in that the device is configured to: identify the driving mode of the vehicle; determine the speed of travel of the vehicle; choose operating parameters of the lighting system in accordance with the speed of travel of the vehicle; activate the lighting system in accordance with said parameters, choosing the operating parameters comprising identifying one or more zones of the passenger compartment to be lit by the lighting system , the choice of the one or more zones of the passenger compartment to be lit depending on the driving mode of the vehicle.
A process of producing a polyurethane foam product, the process comprising contacting a halohydrin component with a polyurethane foam product pre-mix, wherein the halohydrin component includes a halohydrin compound selected from the group consisting of 3-chloro-1-propanol, 6-chloro-1-hexanol, 2-(2-chloroethoxy) ethanol, 1-chloro-2-propanol, chlorobutanol, 1-chloro-5-pentanol, 1-chloro-2,3 -propanediol, and combinations thereof. and wherein the polyurethane foam product pre-mix includes a silicon surfactant which is devoid of acyl groups.
Tube assembly for forming a foundation pile, comprising a tube having a tube center line (S), which tube forms an interior space , wherein at the distal end or introduction end of the tube a drill head is situated, wherein the drill head is provided with at least one passage that opens to the outside and is capable of being brought into fluid communication with the interior space , wherein at the distal end of the tube and at the proximal side of the drill head a cross-plate is arranged, in particular attached to the drill head , which extends in radial outward direction relative to the tube center line(S) to outside of the tube and forms a circumferential flange, wherein the cross-plate is provided with apertures forming a passage for a flow of mixture of grout and soil material from the distal side of the cross-plate to its proximal side, and said tube assembly for forming a foundation pile being characterized in that the tube assembly is provided with lips extending from the cross-plate in distal direction and in rotation direction for providing a mixing action on soil material dislodged by the drill head and the grout, wherein the lips are formed by regularly spaced apart, arcuate cut-throughs cutting through the cross-plate , wherein the lips extend obliquely from the cross-plate in distal and tangential direction and, at the location of arcuate, more or less radial fold lines , are bent out towards the distal side of the cross-plate , so that the apertures are formed in the cross-plate , regularly distributed along the circumference.
Elastic element made of a plastic material for a device for dispensing fluids (L), comprising a tubular body that develops around a main longitudinal axis (X), said tubular body comprising at least one main portion that develops according to a spiral-shaped pattern and extends along the longitudinal direction between a first end portion and a second end portion opposite said first end portion , characterized in that said first end portion comprises a plurality of first projections extending from the internal surface of said tubular body towards the inner space defined by said tubular body and positioned substantially at a single longitudinal position of the elastic element at an extremity of the first end portion , and in that the plurality of first projections are configured to engage in corresponding first cavities of a bush of a mould for the production of the elastic element, so as to avoid rotation of the elastic element.
Method for producing a body component for a motor vehicle , which body component is formed by a main body formed from a single-layer or multi-layer laid scrim embedded in a plastics matrix and comprises at least one ventilation device , in particular for ventilating an interior of the motor vehicle , which ventilation device comprises at least one ventilation opening that can be reversibly closed by means of at least one ventilation flap element , wherein the method comprises the steps of: - providing at least one, in particular flat, layer of a single-layer or multi-layer laid scrim embedded in a plastics matrix in order to form the part or a part of the main body , - forming at least one opening in the main body in order to form at least one ventilation opening , or - providing at least one, in particular flat, layer of a single-layer or multi-layer laid scrim embedded in a plastics matrix having at least one opening in order to form the part or a part of the main body having at least one ventilation opening , and - attaching at least one ventilation flap element to the main body such that said element reversibly closes the at least one opening in the main body, at least in portions, in order to form the ventilation device . - providing at least one, in particular flat, layer of a single-layer or multi-layer laid scrim embedded in a plastics matrix in order to form the part or a part of the main body , - forming at least one opening in the main body in order to form at least one ventilation opening , or - providing at least one, in particular flat, layer of a single-layer or multi-layer laid scrim embedded in a plastics matrix having at least one opening in order to form the part or a part of the main body having at least one ventilation opening , and - attaching at least one ventilation flap element to the main body such that said element reversibly closes the at least one opening in the main body, at least in portions, in order to form the ventilation device .
Drive device for a windscreen wiper device in a vehicle, having a wiper shaft which is accommodated rotatably in a housing-side bearing dome , wherein a sealing ring is arranged in the region of the end side of the bearing dome , having a fastening ring which secures the sealing ring on the bearing dome and is fastened to the bearing dome , wherein the fastening ring is placed onto the end side of the bearing dome and is connected to the bearing dome in a mechanical, form-fitting and/or integrally bonded manner, characterized in that axially extending pins which serve for fastening a fastening ring made of plastic are injection moulded on the free end side of the bearing dome .
An optical waveguide element comprising: a substrate made of lithium niobate crystals; an optical waveguide formed in the substrate; and an electrode disposed on only one surface of the substrate to apply electric field to the optical waveguide, wherein the electrode consists of a contact metal film which is in direct contact with the substrate and a metal layer disposed only on the contact metal film, and as the contact metal film, a metal material whose standard enthalpy of formation per coordinate bond upon oxidation is greater than a standard enthalpy of formation per coordinate bond of niobium pentoxide is used. a substrate made of lithium niobate crystals; an optical waveguide formed in the substrate; and an electrode disposed on only one surface of the substrate to apply electric field to the optical waveguide, wherein the electrode consists of a contact metal film which is in direct contact with the substrate and a metal layer disposed only on the contact metal film, and as the contact metal film, a metal material whose standard enthalpy of formation per coordinate bond upon oxidation is greater than a standard enthalpy of formation per coordinate bond of niobium pentoxide is used.
A method for manufacturing a base fabric for an air bag, characterized in that , an aqueous resin composition containing a pigment, a reactive compound and a water-dispersible thermoplastic resin is applied to a woven/knitted fabric made of synthetic fiber and then subjected to a thermal treatment, wherein the pigment is dispersed in water using a surfactant and the water-dispersed liquid contains the reactive compound which reacts with the surfactant, wherein the reactive compound has an isocyanate group, wherein the surfactant is a nonionic surfactant containing a hydroxyl group, and wherein the mixing amount of the reactive compound having an isocyanate group to 100 parts by mass of a coating agent in terms of solid is 1 to 40 parts by mass.
A friction material composition comprising a binder, an organic filler, an inorganic filler, and a fibrous base material, wherein, with respect to the entire friction material composition, the friction material composition contains copper in an amount of at most 0.5 mass % as an element or contains no copper, the binder contains silicone-rubber dispersed phenolic resin in an amount of 5 to 10 mass %, the inorganic filler contains zirconium oxide in an amount of 20 to 33 mass %, and the inorganic filler contains titanate having a median size (D50) of 1 to 50 μm and a specific surface area of 0.5 to 10 m 2 /g in an amount of 10 to 30 mass %, wherein the median size (D50) is a size at 50 % in volume distribution obtained by laser diffraction and wherein the specific surface area is the specific surface area as determined by BET analysis using nitrogen gas as adsorption gas.
A method of synchronizing reception of communications by an end device that operates in a receiver-off-when-idle mode in a wireless mesh network , the method comprising: transmitting , by the end device , a parent request message to a parent device ; in response to the parent request message , receiving , from the parent device , a parent response message including an indication of a clock accuracy of the parent device ; determining , by the end device and based in part on the received indication of the clock accuracy of the parent device , parameters for synchronized reception of communications from the parent device ; transmitting , by the end device , a child request message including the parameters for synchronized reception of communications from the parent device , the transmitting being effective to cause the parent device to transmit communications to the end device based on the parameters, based at least in part on the received indication of the clock accuracy of the parent device , determining , by the end device , that the reception of communications from the parent device is no longer synchronized; and based on the determining the reception of communication is no longer synchronized: transmitting , by the end device , a resynchronization message to the parent device that is effective to resynchronize the reception of communications from the parent device . transmitting , by the end device , a parent request message to a parent device ; in response to the parent request message , receiving , from the parent device , a parent response message including an indication of a clock accuracy of the parent device ; determining , by the end device and based in part on the received indication of the clock accuracy of the parent device , parameters for synchronized reception of communications from the parent device ; transmitting , by the end device , a child request message including the parameters for synchronized reception of communications from the parent device , the transmitting being effective to cause the parent device to transmit communications to the end device based on the parameters, based at least in part on the received indication of the clock accuracy of the parent device , determining , by the end device , that the reception of communications from the parent device is no longer synchronized; and based on the determining the reception of communication is no longer synchronized: transmitting , by the end device , a resynchronization message to the parent device that is effective to resynchronize the reception of communications from the parent device .
An antibody, or antigen binding fragment, which is capable of binding to CTLA-4, having at least one light chain variable region incorporating the following CDRs: LC-CDR1: RATQGISSWLA (SEQ ID NO:5) LC-CDR2: AASSLQS (SEQ ID NO:6) LC-CDR3: QQANTLPLFT (SEQ ID NO:7); and having at least one heavy chain variable region incorporating the following CDRs: HC-CDR1: SNTAAWN (SEQ ID NO:8) HC-CDR2: RTYYRSKWYSDYGLSVKS (SEQ ID NO:9) HC-CDR3: EGSGGTLIY (SEQ ID NO:10).
A method for controlling a movable object , comprising: detecting a live object within a proximity of the movable object ; determining an operation mode to operate the movable object with the live object detected within the proximity of the movable object ; applying a control scheme associated with the operation mode to control an operation of the movable object , wherein the control scheme uses one or more control components to control a set of movement characteristics; the method being characterized in that it further comprises : limiting control gain for at least one control component in the control scheme when the live object is interacting with the movable object . detecting a live object within a proximity of the movable object ; determining an operation mode to operate the movable object with the live object detected within the proximity of the movable object ; applying a control scheme associated with the operation mode to control an operation of the movable object , wherein the control scheme uses one or more control components to control a set of movement characteristics;
An assembly comprising a valve plug adapted for sealing engagement with a seat ring , the valve plug comprising: a cylindrical body and an annular flange radially extending from the body, the annular flange having a groove ; a pair of bores disposed in the body, each bore having a first diameter (D1), a first end adapted to be in contact with a mounting portion , and a second end disposed within the body, each bore adapted to receive a fastener to couple the valve plug to the mounting portion ; a recess disposed at the second end of the bores ; and a sealing disk disposed within the groove of the annular flange , the sealing disk being a machined sealing disk , the sealing disk (268,) having a sealing surface adapted to engage a seating surface of the seat ring ; wherein the recess includes portions having a second diameter (D2) larger than the first diameter (D1) of the bore to form a stepped portion at the second end of each bore , characterised in that the assembly further comprises a retainer in contact with the valve plug to secure the valve plug to the mounting portion , a portion of the retainer disposed within the recess of the valve plug, and a screw head of each fastener adapted to be disposed within the retainer, wherein the valve plug and the fasteners are configured to be interchangeably used with a molded sealing disk molded to the groove of the valve plug such that fasteners are configured to couple the valve plug to the mounting portion without a retainer, a screw head of each fastener being adapted to be disposed within the recess to secure the valve plug to the mounting portion . a cylindrical body and an annular flange radially extending from the body, the annular flange having a groove ; a pair of bores disposed in the body, each bore having a first diameter (D1), a first end adapted to be in contact with a mounting portion , and a second end disposed within the body, each bore adapted to receive a fastener to couple the valve plug to the mounting portion ; a recess disposed at the second end of the bores ; and a sealing disk disposed within the groove of the annular flange , the sealing disk being a machined sealing disk , the sealing disk (268,) having a sealing surface adapted to engage a seating surface of the seat ring ; wherein the recess includes portions having a second diameter (D2) larger than the first diameter (D1) of the bore to form a stepped portion at the second end of each bore , characterised in that the assembly further comprises a retainer in contact with the valve plug to secure the valve plug to the mounting portion , a portion of the retainer disposed within the recess of the valve plug, and a screw head of each fastener adapted to be disposed within the retainer, wherein the valve plug and the fasteners are configured to be interchangeably used with a molded sealing disk molded to the groove of the valve plug such that fasteners are configured to couple the valve plug to the mounting portion without a retainer, a screw head of each fastener being adapted to be disposed within the recess to secure the valve plug to the mounting portion .
A method, comprising: receiving a first set of instructions for controlling a vehicle; receiving first message data, from a component of the vehicle, indicative of a status of the component; determining, based at least in part on the first message data, a first request to control the vehicle according to a first contingent set of instructions; executing, based at least in part on the first request, the first contingent set of instructions; setting a vehicle state as a contingent state indicative of controlling the vehicle according to a contingent set of instructions; receiving a second set of instructions for controlling the vehicle; receiving second message data from the component; determining, based at least in part on the second message data, a second request to control the vehicle according the second set of instructions; based at least in part on the vehicle state, determining to control the vehicle according to a second contingent set of instructions; receiving a release signal; and based at least in part on receiving the release signal, executing the second set of instructions. receiving a first set of instructions for controlling a vehicle; receiving first message data, from a component of the vehicle, indicative of a status of the component; determining, based at least in part on the first message data, a first request to control the vehicle according to a first contingent set of instructions; executing, based at least in part on the first request, the first contingent set of instructions; setting a vehicle state as a contingent state indicative of controlling the vehicle according to a contingent set of instructions; receiving a second set of instructions for controlling the vehicle; receiving second message data from the component; determining, based at least in part on the second message data, a second request to control the vehicle according the second set of instructions; based at least in part on the vehicle state, determining to control the vehicle according to a second contingent set of instructions; receiving a release signal; and based at least in part on receiving the release signal, executing the second set of instructions.
An introducer apparatus for facilitating subcutaneous implantation of a medical device , the apparatus comprising: a housing having a proximal end and a distal end , the housing defining at least one distal opening at or adjacent to the distal end ; an inserter configured to pass the medical device through the at least one distal opening of the housing and configured to extend at least partially through the at least one distal opening of the housing ; and a tunneler configured to extend distally of the housing , the tunneler being configured to be moveable relative to the housing and configured to be fully or partially retracted within the housing characterised in that the retraction within the housing is achieved through movement of at least a portion of the inserter in a proximal direction after extension of the inserter through the at least one distal opening of the housing . a housing having a proximal end and a distal end , the housing defining at least one distal opening at or adjacent to the distal end ; an inserter configured to pass the medical device through the at least one distal opening of the housing and configured to extend at least partially through the at least one distal opening of the housing ; and a tunneler configured to extend distally of the housing , the tunneler being configured to be moveable relative to the housing and configured to be fully or partially retracted within the housing characterised in that the retraction within the housing is achieved through movement of at least a portion of the inserter in a proximal direction after extension of the inserter through the at least one distal opening of the housing .