mhurhangee/patent-ind-claim-en huggingface dataset:
A headset comprising: an ear cup, comprising: a speaker having a main sound emission direction, a rotatable dial configured to effect movement of the speaker laterally across a plane of the ear cup along a pre-determined path at least substantially perpendicular to the main sound emission direction upon actuation of the rotatable dial ; characterized in that the ear cup further comprises: a link mechanism ; wherein the link mechanism comprises a first link , a second link , and a third link ; wherein the speaker is mounted on the first link and on the second link ; wherein the first link comprises a rail; wherein the speaker is mounted in the rail; wherein the speaker is mounted to a first end of the second link ; wherein the second link and the third link are pivotally connected; wherein the third link and the first link are pivotally connected. a speaker having a main sound emission direction, a rotatable dial configured to effect movement of the speaker laterally across a plane of the ear cup along a pre-determined path at least substantially perpendicular to the main sound emission direction upon actuation of the rotatable dial ; characterized in that the ear cup further comprises: a link mechanism ; wherein the link mechanism comprises a first link , a second link , and a third link ; wherein the speaker is mounted on the first link and on the second link ; wherein the first link comprises a rail; wherein the speaker is mounted in the rail; wherein the speaker is mounted to a first end of the second link ; wherein the second link and the third link are pivotally connected; wherein the third link and the first link are pivotally connected. a link mechanism ; wherein the link mechanism comprises a first link , a second link , and a third link ; wherein the speaker is mounted on the first link and on the second link ; wherein the first link comprises a rail; wherein the speaker is mounted in the rail; wherein the speaker is mounted to a first end of the second link ; wherein the second link and the third link are pivotally connected; wherein the third link and the first link are pivotally connected.
A method of making a gas separation membrane comprising: dissolving a poly(ether- b -amide) (PEBA) copolymer in a solvent to form a polymer solution; casting the polymer solution into a mold; evaporating the solvent to form a film; submerging the film in a crosslinking solution to form a crosslinked film, wherein the crosslinking solution comprises a diisocyanate polyether according to formula (I): wherein: R 6 is independently an alkyl or -H; x is from 1 to 200; and R 1 , R 2 , R 3 , R 4 , R 5 , R 7 , R 8 , R 9 , R 10 , and R 11 is independently -C=N=O, alkyl or -H, provided that at least one and not more than two of R 1 , R 2 , R 3 , R 4 and R 5 is -C=N=O and at least one and not more than two of R 7 , R 8 , R 9 , R 10 , and R 11 is independently -C=N=O; and drying the film to form the gas separation membrane. dissolving a poly(ether- b -amide) (PEBA) copolymer in a solvent to form a polymer solution; casting the polymer solution into a mold; evaporating the solvent to form a film; submerging the film in a crosslinking solution to form a crosslinked film, wherein the crosslinking solution comprises a diisocyanate polyether according to formula (I): wherein: R 6 is independently an alkyl or -H; x is from 1 to 200; and R 1 , R 2 , R 3 , R 4 , R 5 , R 7 , R 8 , R 9 , R 10 , and R 11 is independently -C=N=O, alkyl or -H, provided that at least one and not more than two of R 1 , R 2 , R 3 , R 4 and R 5 is -C=N=O and at least one and not more than two of R 7 , R 8 , R 9 , R 10 , and R 11 is independently -C=N=O; and drying the film to form the gas separation membrane. R 6 is independently an alkyl or -H; x is from 1 to 200; and R 1 , R 2 , R 3 , R 4 , R 5 , R 7 , R 8 , R 9 , R 10 , and R 11 is independently -C=N=O, alkyl or -H, provided that at least one and not more than two of R 1 , R 2 , R 3 , R 4 and R 5 is -C=N=O and at least one and not more than two of R 7 , R 8 , R 9 , R 10 , and R 11 is independently -C=N=O; and
A power train system comprising: an internal combustion engine ; a fuel reforming means which introduces carbon dioxide and hydrogen into a methane conversion catalyst to synthesize an auxiliary fuel, the carbon dioxide having been separated from exhaust gas emitted from the internal combustion engine ; a fuel supplying means which supplies the auxiliary fuel, together with a main fuel, to the internal combustion engine; an ignition means which ignites an air-fuel mixture supplied to the internal combustion engine ; and a control means which controls the fuel supplying means and the ignition means, wherein the control means includes an ignition timing correction means which adjusts a combustion start timing of the air-fuel mixture by the ignition means depending on a temperature of the methane conversion catalyst . an internal combustion engine ; a fuel reforming means which introduces carbon dioxide and hydrogen into a methane conversion catalyst to synthesize an auxiliary fuel, the carbon dioxide having been separated from exhaust gas emitted from the internal combustion engine ; a fuel supplying means which supplies the auxiliary fuel, together with a main fuel, to the internal combustion engine; an ignition means which ignites an air-fuel mixture supplied to the internal combustion engine ; and a control means which controls the fuel supplying means and the ignition means, wherein the control means includes an ignition timing correction means which adjusts a combustion start timing of the air-fuel mixture by the ignition means depending on a temperature of the methane conversion catalyst .
A polymeric matting article comprising: a web of extruded polymer monofilaments, the polymer monofilaments being heat welded at junctions to form a matrix of tangled monofilament; and at least one pair of interlocking formations; wherein the web is configured to be foldable onto itself and secured in a folded position by engaging the pair of interlocking formations. a web of extruded polymer monofilaments, the polymer monofilaments being heat welded at junctions to form a matrix of tangled monofilament; and at least one pair of interlocking formations; wherein the web is configured to be foldable onto itself and secured in a folded position by engaging the pair of interlocking formations.
A device for removing the husks of a corncob , characterized in that a working region (A) is equipped, wherein the working region (A) is provided for arranging a corncob along a longitudinal axis (X) and is divided into a first sub-region (A1) and a second sub-region (A2) along the longitudinal axis (X), in that a first gripping unit (B1) is provided which is designed to carry out a gripping process in a first base position (G1) which is located in the first sub-region (A1) in order to grip a first part of the husks of the corncob , and in that a first guide unit (FE1), preferably a driven first guide unit (FE1), is provided for the first gripping unit (B1), wherein the first guide unit (FE1) is designed to move the first gripping unit (B1) from the first base position (G1) along a first movement path (P1) in order to exert a lateral force (F1y), which runs outwards laterally relative to the longitudinal axis (X), onto the first part of the husks (20`) and remove the first part of the husks (20`) from the corncob in a radial direction.
A method for wireless communication at a user equipment , comprising: pre-configuring or semi-statically configuring the user equipment with a time domain energy signature pattern associated with a channel reservation waveform; receiving a signal in a shared radio frequency spectrum band , from a first radio access technology, the signal comprising a pattern of energy periods that includes at least one high energy period and at least one low energy period ; detecting that the received signal is associated with the channel reservation waveform based on the pattern of energy periods ; determining the energy level of the received signal during the at least one low energy period of the pattern of energy periods ; determining that the energy level of the received signal during the at least one low energy period is associated with a collision occurring between the first communication and a second communication from a second RAT by comparing the energy level of the received signal during the at least one low energy period with the energy level expected, based on the channel reservation waveform, during the low energy period ; and reporting collision feedback to a node of a wireless communications network associated with the user equipment based at least in part on the determining . pre-configuring or semi-statically configuring the user equipment with a time domain energy signature pattern associated with a channel reservation waveform; receiving a signal in a shared radio frequency spectrum band , from a first radio access technology, the signal comprising a pattern of energy periods that includes at least one high energy period and at least one low energy period ; detecting that the received signal is associated with the channel reservation waveform based on the pattern of energy periods ; determining the energy level of the received signal during the at least one low energy period of the pattern of energy periods ; determining that the energy level of the received signal during the at least one low energy period is associated with a collision occurring between the first communication and a second communication from a second RAT by comparing the energy level of the received signal during the at least one low energy period with the energy level expected, based on the channel reservation waveform, during the low energy period ; and reporting collision feedback to a node of a wireless communications network associated with the user equipment based at least in part on the determining .
A method for preparing electrocompetent yeast cells comprising the steps of: a) growing yeast cells to an OD 600 of between 1.0 to 2; b) washing the cells with cold water; c) washing the cells with a cold solution comprising sorbitol and CaCh; d) incubating the cells with a solution comprising lithium acetate and tris-(2-carboxyethyl)-phosphine (TCEP); e) washing the cells with a cold solution comprising sorbitol and CaCh; f) resuspending the cells in a solution comprising sorbitol; and g) optionally, suitably storing said cells. a) growing yeast cells to an OD 600 of between 1.0 to 2; b) washing the cells with cold water; c) washing the cells with a cold solution comprising sorbitol and CaCh; d) incubating the cells with a solution comprising lithium acetate and tris-(2-carboxyethyl)-phosphine (TCEP); e) washing the cells with a cold solution comprising sorbitol and CaCh; f) resuspending the cells in a solution comprising sorbitol; and g) optionally, suitably storing said cells.
A method of acquisition of layer-2, L2, addresses seen in a tunnel for an end user device at a user plane function, UPF, entity, wherein the UPF entity is a core Ethernet switch, the method comprising the steps of receiving, by the UPF entity, a request from a session management function, SMF, entity for notifying any source L2 address detected on said tunnel by the UPF entity; detecting, by the UPF entity, an L2 packet with new source L2 address on the tunnel; and sending, by the UPF entity, the new source L2 address detected on the tunnel to the SMF entity; receiving, by the UPF entity, a first request update message from the SMF entity, wherein the first request update message comprises an L3 address and an L2 address map; in response to the first request update message, updating, by the UPF entity, address resolution protocol, ARP/Internet Protocol version 6, IPv6 Neighbour cache with the L3 address and the L2 address map; wherein the tunnel between the UPF entity and the network terminating the end user device is setup by a user plane setup message initiated by a session management function, SMF, entity towards the UPF entity and associated with Ethernet type protocol data unit, PDU, sessions; and wherein the tunnel setup at the UPF entity is towards Access Network ,AN. . receiving, by the UPF entity, a request from a session management function, SMF, entity for notifying any source L2 address detected on said tunnel by the UPF entity; detecting, by the UPF entity, an L2 packet with new source L2 address on the tunnel; and sending, by the UPF entity, the new source L2 address detected on the tunnel to the SMF entity; receiving, by the UPF entity, a first request update message from the SMF entity, wherein the first request update message comprises an L3 address and an L2 address map; in response to the first request update message, updating, by the UPF entity, address resolution protocol, ARP/Internet Protocol version 6, IPv6 Neighbour cache with the L3 address and the L2 address map; wherein the tunnel between the UPF entity and the network terminating the end user device is setup by a user plane setup message initiated by a session management function, SMF, entity towards the UPF entity and associated with Ethernet type protocol data unit, PDU, sessions; and wherein the tunnel setup at the UPF entity is towards Access Network ,AN. .
An automated driving system comprising: a first sensor providing first sensor data; a second sensor providing second sensor data, wherein the second sensor is a camera and the first sensor is a different type of sensor; and a processor communicatively coupled to the first sensor and the second sensor , wherein the processor is configured to: apply a first weight to the first sensor data and a second weight to the second sensor data, wherein the first weight and second weight are variable based on ambient light; merge the first and second weighted sensor data into a common three-dimensional coordinate system to create a representation of an image for a field of view corresponding to a direction of travel; identify one or more objects in the field of view; and generate one or more drive control signals to control a motion of the vehicle in response to the one or more objects in the field of view. a first sensor providing first sensor data; a second sensor providing second sensor data, wherein the second sensor is a camera and the first sensor is a different type of sensor; and a processor communicatively coupled to the first sensor and the second sensor , wherein the processor is configured to: apply a first weight to the first sensor data and a second weight to the second sensor data, wherein the first weight and second weight are variable based on ambient light; merge the first and second weighted sensor data into a common three-dimensional coordinate system to create a representation of an image for a field of view corresponding to a direction of travel; identify one or more objects in the field of view; and generate one or more drive control signals to control a motion of the vehicle in response to the one or more objects in the field of view.
A heat exchanger for an internal combustion engine , the heat exchanger comprising: a main body having an inlet configured to receive a coolant from the internal combustion engine on a first side thereof and to pass the coolant therethrough including via a main coolant outlet passage to an outlet for the coolant to pass back to the internal combustion engine on the first side , the main body having a fluid inlet to receive a fluid, pass the fluid in a heat exchange relationship with the coolant and output the fluid from the main body at a fluid outlet ; a manifold coupled to the main body on a second side , the manifold in fluid communication with the main coolant outlet passage configured to receive a portion of the coolant from the main body ; and one or more outlet ports fluidly connected to the manifold and configured to pass the portion of the coolant to one or more engine auxiliary systems ; characterized in that the main body has a plurality of mounting flanges configured to mount the heat exchanger to the internal combustion engine , wherein one of the plurality of mounting flanges includes an aperture that forms the inlet to receive the coolant and second of the plurality of mounting flanges includes an aperture that forms the outlet for the coolant to return from the main body back to the internal combustion engine . a main body having an inlet configured to receive a coolant from the internal combustion engine on a first side thereof and to pass the coolant therethrough including via a main coolant outlet passage to an outlet for the coolant to pass back to the internal combustion engine on the first side , the main body having a fluid inlet to receive a fluid, pass the fluid in a heat exchange relationship with the coolant and output the fluid from the main body at a fluid outlet ; a manifold coupled to the main body on a second side , the manifold in fluid communication with the main coolant outlet passage configured to receive a portion of the coolant from the main body ; and one or more outlet ports fluidly connected to the manifold and configured to pass the portion of the coolant to one or more engine auxiliary systems ; characterized in that the main body has a plurality of mounting flanges configured to mount the heat exchanger to the internal combustion engine , wherein one of the plurality of mounting flanges includes an aperture that forms the inlet to receive the coolant and second of the plurality of mounting flanges includes an aperture that forms the outlet for the coolant to return from the main body back to the internal combustion engine .
An injection molding machine comprising: an injection nozzle having a melt channel , an injection opening , an inlet port for the melt and a filter for filtering the molten resin within the injection nozzle , wherein the filter is configured to cooperate with the melt channel or a means arranged within the melt channel , such that during an injection phase of the injection molding machine, the molten resin is caused to flow through the filter and during a decompression phase of the injection molding machine, the molten material is caused to bypass the filter , characterized in that the filter is displaceable and displaced by the flow of molten material. an injection nozzle having a melt channel , an injection opening , an inlet port for the melt and a filter for filtering the molten resin within the injection nozzle , wherein the filter is configured to cooperate with the melt channel or a means arranged within the melt channel , such that during an injection phase of the injection molding machine, the molten resin is caused to flow through the filter and during a decompression phase of the injection molding machine, the molten material is caused to bypass the filter , characterized in that the filter is displaceable and displaced by the flow of molten material.
Cable transport installation, comprising: at least two carriers (4 to 10), a first hauling cable to haul a first carrier and describing a first closed loop, and a second hauling cable to haul a second carrier (4 to 10) and describing a second closed loop, the second loop surrounding the first loop so as to create a separating space between the first and second hauling cables the installation comprising a first drive means of the first hauling cable , provided with a first driving pulley and two diverting pulleys to divert the first hauling cable in the direction of the first driving pulley , and a second drive means of the second hauling cable provided with a second driving pulley and two diverting pulleys to divert the second hauling cable in the direction of the second driving pulley , the axes of rotation (A24, A25) of the driving pulleys being vertical, the second driving pulley being positioned inside the second closed loop, characterized in that the first driving pulley is positioned outside the first closed loop. at least two carriers (4 to 10), a first hauling cable to haul a first carrier and describing a first closed loop, and a second hauling cable to haul a second carrier (4 to 10) and describing a second closed loop, the second loop surrounding the first loop so as to create a separating space between the first and second hauling cables the installation comprising a first drive means of the first hauling cable , provided with a first driving pulley and two diverting pulleys to divert the first hauling cable in the direction of the first driving pulley , and a second drive means of the second hauling cable provided with a second driving pulley and two diverting pulleys to divert the second hauling cable in the direction of the second driving pulley , the axes of rotation (A24, A25) of the driving pulleys being vertical, the second driving pulley being positioned inside the second closed loop, characterized in that the first driving pulley is positioned outside the first closed loop.
A method for fabricating a physical dental bleaching tray useable to deliver a bleaching agent, comprising obtaining a three-dimensional digital representation of a patient's dentition comprising teeth and gingiva ; segmenting two or more of the teeth into individual tooth; identifying a facial surface of at least one of the segmented tooth; defining a facial surface portion comprising a surface area (8-6) that is at least partly bound by a virtual boundary (8-5) that is non-interfacing with the gingiva , wherein the facial surface portion includes a part of the, but not the whole, facial surface of the tooth, wherein the virtual boundary (8-5) comprises a curve that runs along a predefined distance from a section of a perimeter of the tooth, the section of the perimeter represents a border between the tooth and the gingiva ; and fabricating the physical dental bleaching tray comprising at least one cavity for receiving the patient's teeth and at least one receptacle that is generated based on the surface area, wherein the at least one receptacle is configured to receive a bleaching agent. obtaining a three-dimensional digital representation of a patient's dentition comprising teeth and gingiva ; segmenting two or more of the teeth into individual tooth; identifying a facial surface of at least one of the segmented tooth; defining a facial surface portion comprising a surface area (8-6) that is at least partly bound by a virtual boundary (8-5) that is non-interfacing with the gingiva , wherein the facial surface portion includes a part of the, but not the whole, facial surface of the tooth, wherein the virtual boundary (8-5) comprises a curve that runs along a predefined distance from a section of a perimeter of the tooth, the section of the perimeter represents a border between the tooth and the gingiva ; and fabricating the physical dental bleaching tray comprising at least one cavity for receiving the patient's teeth and at least one receptacle that is generated based on the surface area, wherein the at least one receptacle is configured to receive a bleaching agent.
Rear fairing of an engine pylon, the engine pylon being configured to attach an engine to a wing of an aircraft, said rear end cowling comprising a first part attached to one of the wing and the engine pylon, and a second part at the rear end, connected to the first part by a hinge and a traction device capable of holding the second part in a closed configuration in sealed continuity with the first part and one of the wing and the engine pylon to which the first part is attached, characterized in that the hinge and the traction device are made by independent means and separated from each other.