mhurhangee/patent-ind-claim-en huggingface dataset:
A drive unit for a hybrid vehicle, the drive unit configured to distribute output power of an engine to a first motor having a generating function and to an output member , and to add output power of a second motor driven by electric power generated by the first motor to power delivered from the output member , the drive unit comprising: a first planetary gear unit that is configured to perform a differential action between a first input element to which the output power of the engine is applied, a first reaction element connected to the first motor , and a first output element ; a second planetary gear unit that is configured to perform a differential action between a second input element connected to the first output element , a second output element , and a second reaction element ; a first clutch (CL1) that is configured selectively to connect any one of the first input element and the first reaction element to the second reaction element ; a second clutch (CL2) that is configured selectively to connect at least two elements of the second planetary gear unit to rotate the second planetary gear unit integrally ; and a differential gear unit as a final reduction to which a torque is delivered from the output member ; wherein the output member is connected to the second output element ; wherein an output torque of the second motor is synthesized with the torque delivered from the output member to the differential gear unit . a first planetary gear unit that is configured to perform a differential action between a first input element to which the output power of the engine is applied, a first reaction element connected to the first motor , and a first output element ; a second planetary gear unit that is configured to perform a differential action between a second input element connected to the first output element , a second output element , and a second reaction element ; a first clutch (CL1) that is configured selectively to connect any one of the first input element and the first reaction element to the second reaction element ; a second clutch (CL2) that is configured selectively to connect at least two elements of the second planetary gear unit to rotate the second planetary gear unit integrally ; and a differential gear unit as a final reduction to which a torque is delivered from the output member ; wherein the output member is connected to the second output element ; wherein an output torque of the second motor is synthesized with the torque delivered from the output member to the differential gear unit .
A drug delivery hub , comprising: a hub housing defining a housing volume , wherein the hub housing is configured to directly couple with a mask defining a patient cavity; a reservoir disposed at least partially within the housing volume, wherein the reservoir comprises a reservoir volume configured to dispense a medicament ; a nebulizer channel in fluid communication with the reservoir volume and configured to be in fluid communication with the patient cavity when the hub is coupled with the mask; and a gas channel in fluid communication with the nebulizer channel, wherein the gas channel is configured to receive a gas flow (G) from a port on the mask and direct the gas flow toward the patient cavity through the nebulizer channel, drawing a portion of the medicament from the reservoir through the nebulizer channel with the gas flow toward the patient cavity. a hub housing defining a housing volume , wherein the hub housing is configured to directly couple with a mask defining a patient cavity; a reservoir disposed at least partially within the housing volume, wherein the reservoir comprises a reservoir volume configured to dispense a medicament ; a nebulizer channel in fluid communication with the reservoir volume and configured to be in fluid communication with the patient cavity when the hub is coupled with the mask; and a gas channel in fluid communication with the nebulizer channel, wherein the gas channel is configured to receive a gas flow (G) from a port on the mask and direct the gas flow toward the patient cavity through the nebulizer channel, drawing a portion of the medicament from the reservoir through the nebulizer channel with the gas flow toward the patient cavity.
Shrink tightening adapter for a collet chuck, which includes a rear conical holding region for mounting in a collet chuck, a front receptacle region for mounting a tool shank, and a through-opening which runs from a front end face of the receptacle region to a rear end face of the holding region , the clamping region of said through-opening extending into the rear holding region , wherein disposed in a central region of the through-opening are a plurality of slots which run radially outwards from the through-opening and are distributed across the circumference, the front ends of said slots being spaced apart from the front end face , and the rear ends of said slots being spaced apart from the rear end face .
A circuit, comprising: a semiconductor device having a field gate terminal (G) for controlling the electric field in a drift region of the semiconductor device ; and a feedback circuit configured to dynamically control a bias voltage applied to the field gate terminal (G) to achieve different semiconductor device characteristics in real-time in response to a time-varying signal at a further node in the circuit; the circuit being characterised in that the feedback circuit comprises an inverter connected between an output of the semiconductor device and the field gate terminal (G). a semiconductor device having a field gate terminal (G) for controlling the electric field in a drift region of the semiconductor device ; and a feedback circuit configured to dynamically control a bias voltage applied to the field gate terminal (G) to achieve different semiconductor device characteristics in real-time in response to a time-varying signal at a further node in the circuit; the circuit being characterised in that the feedback circuit comprises an inverter connected between an output of the semiconductor device and the field gate terminal (G).
A catalyst part for a lead-acid battery, comprising: a catalyst layer comprising a catalyst to accelerate a reaction for generating water or water vapor from oxygen and hydrogen; an arrangement through which at least part of the water or water vapor is condensed and flowed back to the inside of the battery; and a member capable of promoting the condensation of at least part of the water or water vapor, on the catalyst layer; wherein the catalyst part is gas permeable as a whole, and wherein the condensation-promoting member is a hydrophilic porous member. a catalyst layer comprising a catalyst to accelerate a reaction for generating water or water vapor from oxygen and hydrogen; an arrangement through which at least part of the water or water vapor is condensed and flowed back to the inside of the battery; and a member capable of promoting the condensation of at least part of the water or water vapor, on the catalyst layer; wherein the catalyst part is gas permeable as a whole, and wherein the condensation-promoting member is a hydrophilic porous member.
Siphon for discharging condensate produced during the cooling of the exhaust gas in heating appliances using calorific value, namely the condensate produced during the cooling of the exhaust gas from the water vapour that is present, comprising a fixed condensate container in which a liquid guide is present, the liquid guide having a condensate inlet and a condensate outlet , the liquid guide having a vertical deflection, the upper edge of the lowest point of the liquid guide being arranged lower than the lower edge of the highest point of the liquid guide, the condensate outlet having, at least in a section thereof, a venting device via which pressure can be equalised relative to the surroundings by means of a gas flow, characterised in that the venting device is made of porous sintered plastic.
A multilayered sintered plate comprising: a backing plate; and a porous sintered alloy layer which is integrally joined to one surface of said backing plate, wherein said porous sintered alloy layer is composed of 30 to 50% by mass of nickel, 1 to 10% by mass of phosphorus, 2.5 to 10% by mass of tin, and the balance iron and inevitable impurities, and has a structure which includes a matrix phase containing an iron-nickel-tin alloy and a hard phase precipitated in the matrix phase and containing a nickel-phosphorus-iron-tin alloy.
An electrospun fiber scaffold comprising: at least one layer of biocompatible electrospun polymer fibers having an orientation relative to one another that is generally parallel, random, or both; and optionally, at least one type of biological cell; the scaffold having a shape selected of an arteriovenous shunt having varying compliance from an arterial side to a venous side thereof through different fiber orientation, material, graft thickness, processing method or a combination thereof. at least one layer of biocompatible electrospun polymer fibers having an orientation relative to one another that is generally parallel, random, or both; and optionally, at least one type of biological cell; the scaffold having a shape selected of an arteriovenous shunt having varying compliance from an arterial side to a venous side thereof through different fiber orientation, material, graft thickness, processing method or a combination thereof.
A method for transceiving a message of an apparatus, comprising: listening for a probe request packet transmitted from another apparatus through a predetermined channel, wherein the probe request packet includes information related to the another apparatus and a first user message input by a first user of the another apparatus; obtaining the first user message from the probe request packet and displaying the first user message on the apparatus, the method characterized by : based on a second user message as a response to the first user message being received via an input by a second user, generating a probe response packet including the second user message, the second user being a user of the apparatus; and transmitting the probe response packet including the second user message to the another apparatus. listening for a probe request packet transmitted from another apparatus through a predetermined channel, wherein the probe request packet includes information related to the another apparatus and a first user message input by a first user of the another apparatus; obtaining the first user message from the probe request packet and displaying the first user message on the apparatus, the method characterized by : based on a second user message as a response to the first user message being received via an input by a second user, generating a probe response packet including the second user message, the second user being a user of the apparatus; and transmitting the probe response packet including the second user message to the another apparatus. based on a second user message as a response to the first user message being received via an input by a second user, generating a probe response packet including the second user message, the second user being a user of the apparatus; and transmitting the probe response packet including the second user message to the another apparatus.
An optimization program for optimizing mounting work of mounting electronic components on a multiple-board printed panel using a mounting machine provided with multiple component holding tools , the multiple-board printed panel being defined as a panel with multiple boards (112a-c) of electronic circuit board patterns on which multiple electronic components (114a-118p) are to be mounted, the optimization program comprising: a first setting means configured to set a mounting work order of mounting electronic components (114a-I, 116a-116I, 118a-188I) by the mounting machine such that electronic components to be held by the multiple component holding tools together in one go are electronic components planned to be mounted on a single one of the electronic circuit board patterns from the multiple electronic circuit board patterns, characterized in that the optimization program further comprises a second setting means configured to set a mounting work order of mounting the electronic components (114m-118p) by the mounting machine such that, in a case in which, after the mounting work order of the electronic components is set by the first setting means, a quantity of the electronic components not set in the mounting work order of the electronic components set by the first setting means from among all the electronic components planned to be mounted on the electronic circuit board pattern is smaller than a quantity of the multiple component holding tools, electronic components to be held by the multiple component holding tools together in one go are electronic components of two or more electronic circuit board patterns from the multiple electronic circuit board patterns that were not set in the mounting work order of the electronic components set by the first setting means. a first setting means configured to set a mounting work order of mounting electronic components (114a-I, 116a-116I, 118a-188I) by the mounting machine such that electronic components to be held by the multiple component holding tools together in one go are electronic components planned to be mounted on a single one of the electronic circuit board patterns from the multiple electronic circuit board patterns, characterized in that the optimization program further comprises a second setting means configured to set a mounting work order of mounting the electronic components (114m-118p) by the mounting machine such that, in a case in which, after the mounting work order of the electronic components is set by the first setting means, a quantity of the electronic components not set in the mounting work order of the electronic components set by the first setting means from among all the electronic components planned to be mounted on the electronic circuit board pattern is smaller than a quantity of the multiple component holding tools, electronic components to be held by the multiple component holding tools together in one go are electronic components of two or more electronic circuit board patterns from the multiple electronic circuit board patterns that were not set in the mounting work order of the electronic components set by the first setting means.
An air delivery system for providing a supply of air from a source of air at positive pressure to a patient, the air delivery system comprising: an interfacing structure located at the entrance to the airways of the patient; and a manifold adapted to connect with the source of air at positive pressure; a pair of tubes , each tube being connected to the manifold and adapted to extend from a respective side of the manifold at or in front of the crown of the patient's head, along a respective side of the patient's face between a patient's eye and a patient's ear and deliver the supply of air to the interfacing structure, a back strap provided to the tubes and adapted to engage the back of the patient's head; wherein each tube has at least one portion that is structured to allow movement between an open phase in which the tube allows the flow of air without undue resistance and at least a partially collapsed phase in which the tube is at least partially collapsed to restrict or prevent the flow of air; wherein each tube has sufficient strength to maintain the open phase without being pressurized; and wherein each tube is molded from silicone material. an interfacing structure located at the entrance to the airways of the patient; and a manifold adapted to connect with the source of air at positive pressure; a pair of tubes , each tube being connected to the manifold and adapted to extend from a respective side of the manifold at or in front of the crown of the patient's head, along a respective side of the patient's face between a patient's eye and a patient's ear and deliver the supply of air to the interfacing structure, a back strap provided to the tubes and adapted to engage the back of the patient's head; wherein each tube has at least one portion that is structured to allow movement between an open phase in which the tube allows the flow of air without undue resistance and at least a partially collapsed phase in which the tube is at least partially collapsed to restrict or prevent the flow of air; wherein each tube has sufficient strength to maintain the open phase without being pressurized; and wherein each tube is molded from silicone material.
A hybrid module for a motor vehicle for coupling an internal combustion engine, comprising: - a disconnect clutch , with which a torque can be transmitted from the internal combustion engine to the hybrid module and with which the hybrid module can be separated from the internal combustion engine, - an electrical machine for generating a drive torque with a rotor , - a dual-clutch device , with which the torque can be transmitted from the electrical machine and/or from the disconnect clutch to a drivetrain, with a first partial clutch and a second partial clutch , - a disconnect clutch actuation system for actuation of the disconnect clutch , a first actuation system for actuation of the first partial clutch and a second actuation system for actuation of the second partial clutch , wherein the actuation systems are arranged side by side in the axial direction, characterized in that at least one of the actuation systems has a substantially annular piston-cylinder unit , the piston of which can be substantially axially displaced in a translational manner, and furthermore has an annular actuation bearing which allows a rotational relative movement between the piston-cylinder unit and a coupling element to be actuated, wherein the radial extension of the piston-cylinder unit has a greater radial distance with respect to a rotational axis of the rotor than a circular path of a respective actuation bearing to the rotational axis of the rotor . - a disconnect clutch , with which a torque can be transmitted from the internal combustion engine to the hybrid module and with which the hybrid module can be separated from the internal combustion engine, - an electrical machine for generating a drive torque with a rotor , - a dual-clutch device , with which the torque can be transmitted from the electrical machine and/or from the disconnect clutch to a drivetrain, with a first partial clutch and a second partial clutch , - a disconnect clutch actuation system for actuation of the disconnect clutch , a first actuation system for actuation of the first partial clutch and a second actuation system for actuation of the second partial clutch ,
A crystal of N-[(R)-1-{(S)-2-hydroxy-2-phenylpropylamino}propan-2-yl]isoquinoline-6-sulfonamide dihydrochloride anhydride having characteristic peaks at 2θ angles of 6.8±0.1°, 10.0±0.1°, 12.7±0.1°, 14.6±0.1°, 14.8±0.1°, 16.2±0.1°, 17.4±0.1°, 17.8±0.1°, 19.510.1°, 20.0±0.1°, 21.6±0.1°, 24.7±0.1°, 25.5±0.1°, 25.8±0.1°, 29.8±0.1°, 39.5±0.1°, and 44.9±0.1° in powder X-ray diffraction spectrum.
A low and medium voltage electrical enclosure comprising a supporting structure which defines an internal space delimited by walls forming one or more compartments housing one or more electrical apparatuses, wherein at least one of said walls is provided with one or more venting openings that put into communication said internal space with the outside of said low and medium voltage electrical enclosure and/or one of said compartments with a second compartment, said one or more venting openings being provided with a cover closing a corresponding venting opening in a first - closed - operating condition at first predetermined temperatures and with an actuating device adapted to open said cover in a second - open - operating condition at second predetermined temperatures, and wherein said actuating device comprises an actuating mechanism having a Shape Memory Alloy-based (SMA-based) actuating element having a first dimension at said first predetermined temperatures reversibly changeable into a second dimension at said second predetermined temperatures, the reversible change of dimension of said SMA-based actuating element from said first dimension to said second dimension determining the reversible movement of said cover from said first - closed -operating condition to said second - open - operating condition, and vice-versa, wherein said cover is hinged on a rim of a corresponding opening and pivotally movable between said first - closed -operating condition to said second - open - operating condition, wherein said SMA-based actuating element comprises a bar or wire having a first predetermined length at said first predetermined temperatures and a second predetermined length at second first predetermined temperatures, characterized in that said actuating mechanism comprises a lever having a first end operatively connected to said cover and a second end operatively connected to a first end of said bar or wire , said lever being hinged on two protrusions extending from an internal rim portion of said venting openings toward said internal space at an intermediate point between said first end and said second end .
A method implemented by a computing device , the method comprising: launching , by a pre-boot environment , a pre-boot launch enclave, LE, that is at least a private region in a memory that is protected from other processes or programs running or operating in the memory; creating , by the pre-boot LE, a launch token for a pre-boot quoting enclave, QE, that is at least a private region in the memory that is protected from other processes or programs running or operating in the memory; authenticating , by the pre-boot LE, the launch token; launching , by the pre-boot environment with the launch token in response to the authentication, the pre-boot QE; generating , by the pre-boot QE, a public provisioning key, a private provisioning key, and an attestation key; verifying , by the pre-boot QE with a public key, authenticity of a device of the computing device; securing , by the pre-boot QE with the public provisioning key, private provisioning key, and the public key, a communication channel with the device; encrypting , by the pre-boot QE with a system specific seal key, the public provisioning key, the private provisioning key, and the attestation key; and storing , by the pre-boot QE, the encrypted public provisioning key, the encrypted private provisioning key, and the encrypted attestation key in the device. launching , by a pre-boot environment , a pre-boot launch enclave, LE, that is at least a private region in a memory that is protected from other processes or programs running or operating in the memory; creating , by the pre-boot LE, a launch token for a pre-boot quoting enclave, QE, that is at least a private region in the memory that is protected from other processes or programs running or operating in the memory; authenticating , by the pre-boot LE, the launch token; launching , by the pre-boot environment with the launch token in response to the authentication, the pre-boot QE; generating , by the pre-boot QE, a public provisioning key, a private provisioning key, and an attestation key; verifying , by the pre-boot QE with a public key, authenticity of a device of the computing device; securing , by the pre-boot QE with the public provisioning key, private provisioning key, and the public key, a communication channel with the device; encrypting , by the pre-boot QE with a system specific seal key, the public provisioning key, the private provisioning key, and the attestation key; and storing , by the pre-boot QE, the encrypted public provisioning key, the encrypted private provisioning key, and the encrypted attestation key in the device.