mhurhangee/patent-ind-claim-en huggingface dataset:
Plug-in contact for an electrical charging plug-in connector , having: a contact element (3, 3', 3") which has a contact region (5, 5', 5"), with at least one spring-mounted contact means (9a - 9n, 9a' - 9n', 9a" - 9n"), and a connection region (7, 7', 7") for connection of an electrical conductor; a cooling element (11, 11', 11") which is arranged at least regionally around the contact region (5, 5', 5"); and a heat-conducting element (15, 15', 15") which is arranged between the cooling element (11, 11', 11") and the contact element (3, 3', 3"), characterized in that the heat-conducting element (15, 15', 15") is of elastic form and thermally and mechanically contacts the cooling element (11, 11', 11") and the contact element (3, 3', 3"). a contact element (3, 3', 3") which has a contact region (5, 5', 5"), with at least one spring-mounted contact means (9a - 9n, 9a' - 9n', 9a" - 9n"), and a connection region (7, 7', 7") for connection of an electrical conductor; a cooling element (11, 11', 11") which is arranged at least regionally around the contact region (5, 5', 5"); and a heat-conducting element (15, 15', 15") which is arranged between the cooling element (11, 11', 11") and the contact element (3, 3', 3"), characterized in that the heat-conducting element (15, 15', 15") is of elastic form and thermally and mechanically contacts the cooling element (11, 11', 11") and the contact element (3, 3', 3").
A method of fabricating a composite part, the method comprising the following steps: - forming a fiber preform for the part that is to be obtained by depositing a plurality of fiber structures impregnated with a thermoplastic polymer onto a surface, with deposition being performed by automated fiber placement; - eliminating the thermoplastic polymer present in the preform by dissolution with a solvent; and - injecting a liquid impregnation composition into the pores of the fiber preform after eliminating the thermoplastic polymer in order to form a matrix in the pores of the fiber preform. - forming a fiber preform for the part that is to be obtained by depositing a plurality of fiber structures impregnated with a thermoplastic polymer onto a surface, with deposition being performed by automated fiber placement; - eliminating the thermoplastic polymer present in the preform by dissolution with a solvent; and - injecting a liquid impregnation composition into the pores of the fiber preform after eliminating the thermoplastic polymer in order to form a matrix in the pores of the fiber preform.
A mobile crane comprising: a base vehicle ; a slewing base slewably supported by the base vehicle ; a boom derrickably supported by the slewing base ; a derrick cylinder raising and lowering the boom ; a jib support removably attached to a tip of the boom ; a luffing jib derrickably supported by the jib support ; a first mast rotatably supported by the jib support or the luffing jib ; a second mast rotatably supported by the jib support ; a first tension link connecting the luffing jib and the first mast to each other; a second tension link connecting the first mast and the second mast to each other; a winch hoisting down a rope connected to the second mast to rotate the second mast to a side of the luffing jib and hoisting up the rope to rotate the second mast to a side opposite to the luffing jib ; an operating unit outputting a signal according to a user operation of derrick of the boom ; and a control unit controlling an operation of the derrick cylinder and the winch , wherein the control unit causes the derrick cylinder to raise the boom in response to a signal output from the operating unit, characterized in that the control unit stops the derrick cylinder in response to a derrick angle (γ) of the boom reaching a maximum angle corresponding to a hoisted-down length (β) of the rope . a base vehicle ; a slewing base slewably supported by the base vehicle ; a boom derrickably supported by the slewing base ; a derrick cylinder raising and lowering the boom ; a jib support removably attached to a tip of the boom ; a luffing jib derrickably supported by the jib support ; a first mast rotatably supported by the jib support or the luffing jib ; a second mast rotatably supported by the jib support ; a first tension link connecting the luffing jib and the first mast to each other; a second tension link connecting the first mast and the second mast to each other; a winch hoisting down a rope connected to the second mast to rotate the second mast to a side of the luffing jib and hoisting up the rope to rotate the second mast to a side opposite to the luffing jib ; an operating unit outputting a signal according to a user operation of derrick of the boom ; and a control unit controlling an operation of the derrick cylinder and the winch , wherein the control unit causes the derrick cylinder to raise the boom in response to a signal output from the operating unit, characterized in that the control unit stops the derrick cylinder in response to a derrick angle (γ) of the boom reaching a maximum angle corresponding to a hoisted-down length (β) of the rope .
A terminal device comprising: a selection unit configured to select a physical uplink control channel, PUCCH, resource, from a first PUCCH resource on a first serving cell in a first subframe and a second PUCCH resource on a second serving cell in the first subframe; and a transmission unit configured to transmit a scheduling request; wherein the transmission unit is configured to transmit the scheduling request by using the PUCCH resource that has been selected and a PUCCH format 1, in a case that neither transmission of a first Hybrid Automatic Repeat reQuest ACKnowledgement, HARQ-ACK, using a predetermined PUCCH format on the first serving cell nor transmission of a second HARQ-ACK using the predetermined PUCCH format on the second serving cell takes place in the first subframe, wherein in a case that the transmission of the first HARQ-ACK using the predetermined PUCCH format on the first serving cell and the transmission of the second HARQ-ACK using the predetermined PUCCH format on the second serving cell take place in the first subframe, the scheduling request is multiplexed with each of the first HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the first serving cell and the second HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the second serving cell. a selection unit configured to select a physical uplink control channel, PUCCH, resource, from a first PUCCH resource on a first serving cell in a first subframe and a second PUCCH resource on a second serving cell in the first subframe; and a transmission unit configured to transmit a scheduling request; wherein the transmission unit is configured to transmit the scheduling request by using the PUCCH resource that has been selected and a PUCCH format 1, in a case that neither transmission of a first Hybrid Automatic Repeat reQuest ACKnowledgement, HARQ-ACK, using a predetermined PUCCH format on the first serving cell nor transmission of a second HARQ-ACK using the predetermined PUCCH format on the second serving cell takes place in the first subframe, wherein in a case that the transmission of the first HARQ-ACK using the predetermined PUCCH format on the first serving cell and the transmission of the second HARQ-ACK using the predetermined PUCCH format on the second serving cell take place in the first subframe, the scheduling request is multiplexed with each of the first HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the first serving cell and the second HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the second serving cell.
An environmental-friendly paintbrush, comprising a handle ; a bristle-implanting brush head ; and a metal plate , the bristle-implanting brush head having one end provided with a bristle material-laying trough and another end being connected with the handle ; a plastic block placed inside the bristle material-laying trough ; and bristle material filled in an interstitial space between the plastic block and the bristle-implanting brush head ; wherein the plastic block is formed with a metal-laying trough and the metal plate is set inside the metal-laying trough , two ends of the bristle material-laying trough being formed with metal slots formed inside the bristle-implanting brush head , and two ends of the metal plate being slotted into the metal slots , wherein the plastic block has a V-shaped cross section, and the plastic block has one end located at a bottom end of the bristle-laying trough and another end provided with the metal-laying trough .
A cellulose-based 3D-shaped substrate comprising native cellulosic fibres and non-fibrous cellulosic material, the substrate being obtainable by a method comprising (i) providing a cellulose-based substrate precursor material comprising native cellulosic fibres, (ii) a 3D-shaping step of and a cellulose dissolution step of cellulose-based substrate precursor material to produce a substrate with a 3D-shape comprising dissolved cellulose; and (iii) a reprecipitation step in which the dissolved cellulose is reprecipitated. (i) providing a cellulose-based substrate precursor material comprising native cellulosic fibres, (ii) a 3D-shaping step of and a cellulose dissolution step of cellulose-based substrate precursor material to produce a substrate with a 3D-shape comprising dissolved cellulose; and (iii) a reprecipitation step in which the dissolved cellulose is reprecipitated.
An apparatus for generating an electrical current from a temperature differential in an ablutionary fitting , the apparatus comprising: a heat transfer plate having a projection configured to directly contact water carried in a first region of the fitting ; and a thermoelectric module comprising one or more thermoelectric elements (97a-c), the thermoelectric elements (97a-c) configured to be thermally coupled between the heat transfer plate and a housing of the ablutionary fitting in a second region of the ablutionary fitting , the thermoelectric elements (97a-c) also being configured to generate electricity from a temperature differential between water carried in the first and second regions of the ablutionary fitting . a heat transfer plate having a projection configured to directly contact water carried in a first region of the fitting ; and a thermoelectric module comprising one or more thermoelectric elements (97a-c), the thermoelectric elements (97a-c) configured to be thermally coupled between the heat transfer plate and a housing of the ablutionary fitting in a second region of the ablutionary fitting , the thermoelectric elements (97a-c) also being configured to generate electricity from a temperature differential between water carried in the first and second regions of the ablutionary fitting .
A measuring system intended to be immersed in a liquid, including at least one sensor (C1, C2, C3, C4) of at least one parameter, said sensor (C1, C2, C3, C4) including at least one sensitive surface allowing the sensor to measure said parameter, said sensitive surface being intended to be in contact with the liquid, and an anti-fouling device (DA1, DA2, DA3, DA4) including at least one element disposed near at least part of the sensitive surface , means for vibrating said element so as to generate an acoustic wave capable of at least limiting the attachment of microorganisms to the sensitive surface by repelling or detaching said microorganism by moving the liquid between the element and the sensitive surface , and a control unit configured to control the means for vibrating the element .
A method comprising: acquiring data associated with a field operation of equipment in a geologic environment ; filtering the data using a filter wherein the filter consists of, along a dimension, a single maximum positive value that decreases to a single minimum negative value that increases to approximately zero ; and based on the filtering, issuing a control signal to the equipment in the geologic environment . acquiring data associated with a field operation of equipment in a geologic environment ; filtering the data using a filter wherein the filter consists of, along a dimension, a single maximum positive value that decreases to a single minimum negative value that increases to approximately zero ; and based on the filtering, issuing a control signal to the equipment in the geologic environment .
A solid-state electroactive polymer actuator (SSEPA) comprising: - one layer or two layers of an electroactive polymer (EAP) composition, the EAP composition comprising about 15-60 wt% of a first film-forming polymer, about 5-40 wt% of an electroactive polymer, and about 10-40 wt% of a first plasticizer; - one layer of a solid-state polymer electrolyte (SPE) composition, the SPE composition comprising about 20-60 wt% of a second plasticizer, about 10-60 wt% of a second film-forming polymer, and about 5-25 wt% of an ionizable salt; - wherein, when two layers of the EAP composition are present, the SPE composition layer is sandwiched between the two EAP composition layers and adhered thereto; - wherein, when one layer of the EAP composition is present, one side of the SPE composition layer is attached to the EAP composition layer. - one layer or two layers of an electroactive polymer (EAP) composition, the EAP composition comprising about 15-60 wt% of a first film-forming polymer, about 5-40 wt% of an electroactive polymer, and about 10-40 wt% of a first plasticizer; - one layer of a solid-state polymer electrolyte (SPE) composition, the SPE composition comprising about 20-60 wt% of a second plasticizer, about 10-60 wt% of a second film-forming polymer, and about 5-25 wt% of an ionizable salt; - wherein, when two layers of the EAP composition are present, the SPE composition layer is sandwiched between the two EAP composition layers and adhered thereto; - wherein, when one layer of the EAP composition is present, one side of the SPE composition layer is attached to the EAP composition layer.
A method for aligning dental arch pairs , the method being performed by a processor and comprising steps of: receiving a first digital 3D model of at least a portion of a person's mandible and a second a digital 3D model of at least a portion of the person's maxilla; estimating a first representative plane in the first digital 3D model for the mandible and a second representative plane in the second digital 3D model for the maxilla; a first transforming step of transforming the first digital 3D model and the second digital 3D model such that the first representative plane and the second representative plane are each aligned with respective coordinate systems; a second transforming step of transforming the first digital 3D model and the second digital 3D model such that the mandible and the maxilla in the digital 3D models are each aligned with a same coordinate system; and bringing the first digital 3D model into bite alignment with the second digital 3D model, after the transforming steps, such that the mandible is bite-aligned with the maxilla in the digital 3D models, wherein the method further comprises detecting whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla, and wherein the second transforming step comprises a different in-plane rotation depending on whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla. receiving a first digital 3D model of at least a portion of a person's mandible and a second a digital 3D model of at least a portion of the person's maxilla; estimating a first representative plane in the first digital 3D model for the mandible and a second representative plane in the second digital 3D model for the maxilla; a first transforming step of transforming the first digital 3D model and the second digital 3D model such that the first representative plane and the second representative plane are each aligned with respective coordinate systems; a second transforming step of transforming the first digital 3D model and the second digital 3D model such that the mandible and the maxilla in the digital 3D models are each aligned with a same coordinate system; and bringing the first digital 3D model into bite alignment with the second digital 3D model, after the transforming steps, such that the mandible is bite-aligned with the maxilla in the digital 3D models, wherein the method further comprises detecting whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla, and wherein the second transforming step comprises a different in-plane rotation depending on whether the first digital 3D model represents a full-arch or a quadrant arch of the mandible and whether the second digital 3D model represents a full-arch or a quadrant arch of the maxilla.
A determination apparatus comprising: a receiving unit configured to receive operation information corresponding to an action being performed by a machine to be diagnosed and a detection signal of a physical quantity that changes according to the action of the machine ; a taking-out unit configured to take out, from the detection signal, an operation detection signal indicating that the machine is operating, based on the operation information; an extraction unit configured to extract feature information of the operation detection signal; a selection unit configured to select, from the feature information, feature information to be compared with a plurality of reference feature information; and a determining unit configured to determine a machining section of the machine in the feature information, based on the plurality of reference feature information and the feature information to be compared, characterised in that the operation information corresponds to an outward movement and a return movement of the action being performed by the machine , and in that the taking-out unit is further configured to perform a process of combining the operation information acquired in the outward movement with the operation information acquired in the return movement based on a determination that (a) a time from a stop of acquisition of the operation information of the outward movement to a start of acquisition of the operation information of the return movement is equal to or shorter than a threshold time and (b) the machine is in a predetermined operating state. a receiving unit configured to receive operation information corresponding to an action being performed by a machine to be diagnosed and a detection signal of a physical quantity that changes according to the action of the machine ; a taking-out unit configured to take out, from the detection signal, an operation detection signal indicating that the machine is operating, based on the operation information; an extraction unit configured to extract feature information of the operation detection signal; a selection unit configured to select, from the feature information, feature information to be compared with a plurality of reference feature information; and a determining unit configured to determine a machining section of the machine in the feature information, based on the plurality of reference feature information and the feature information to be compared, characterised in that the operation information corresponds to an outward movement and a return movement of the action being performed by the machine , and in that the taking-out unit is further configured to perform a process of combining the operation information acquired in the outward movement with the operation information acquired in the return movement based on a determination that (a) a time from a stop of acquisition of the operation information of the outward movement to a start of acquisition of the operation information of the return movement is equal to or shorter than a threshold time and (b) the machine is in a predetermined operating state.
A balanced pumping L-band optical fiber amplifier, characterized in comprising a first erbium-doped optical fiber (1-1), a second erbium-doped optical fiber (1-2), an absorbing erbium-doped optical fiber (1-3) and at least two pumping lasers, the first erbium-doped optical fiber (1-1), the second erbium-doped optical fiber (1-2) and the absorbing erbium-doped optical fiber (1-3) being sequentially arranged in this order, and the at least two pumping lasers providing pumping light to the first erbium-doped optical fiber (1-1) and the second erbium-doped optical fiber (1-2); wherein the first erbium-doped optical fiber (1-1) is injected with forward pumping light and backward pumping light by the at least two pumping lasers, the second erbium-doped optical fiber (1-2) is injected with forward pumping light and backward pumping light by the at least two pumping lasers, and the absorbing erbium-doped optical fiber (1-3) without pumping light injection is arranged downstream of the second erbium-doped optical fiber (1-2) to absorb amplified spontaneous emission, ASE, generated in the amplifier.
A system for waste system pressure management, comprising: an electronically controlled valve coupled to a suction path of an aircraft waste system; and a controller communicatively coupled to the electronically controlled valve, the controller configured to: determine a pressure differential between an aircraft cabin and a vacuum source for the suction path; and generate one or more signals to actuate the electronically controlled valve from a first position to a second position to regulate a pressure in the suction path when the pressure differential between the aircraft cabin and the vacuum source exceeds a threshold pressure differential, wherein the electronically controlled valve is configured to allow more airflow through the electronically controlled valve in the second position than in the first position. an electronically controlled valve coupled to a suction path of an aircraft waste system; and a controller communicatively coupled to the electronically controlled valve, the controller configured to: determine a pressure differential between an aircraft cabin and a vacuum source for the suction path; and generate one or more signals to actuate the electronically controlled valve from a first position to a second position to regulate a pressure in the suction path when the pressure differential between the aircraft cabin and the vacuum source exceeds a threshold pressure differential, wherein the electronically controlled valve is configured to allow more airflow through the electronically controlled valve in the second position than in the first position. determine a pressure differential between an aircraft cabin and a vacuum source for the suction path; and generate one or more signals to actuate the electronically controlled valve from a first position to a second position to regulate a pressure in the suction path when the pressure differential between the aircraft cabin and the vacuum source exceeds a threshold pressure differential, wherein the electronically controlled valve is configured to allow more airflow through the electronically controlled valve in the second position than in the first position.