mhurhangee/patent-ind-claim-en huggingface dataset:
A lithium ion battery module, comprising: - a housing ; and - a cell assembly disposed within the housing and comprising a plurality of pouch battery cells held within the cell assembly by a plurality of cell frames , wherein each pouch battery cell has a corresponding cell frame , and wherein each cell frame comprises: - a first frame piece positioned on and contacting a first side of a pouch battery cell of the plurality of battery cells and comprising a first ring ; and - a second frame piece positioned on and contacting a second side of the pouch battery cell opposite the first side and comprising a second ring , wherein the first and second rings are positioned above a terminal surface and between terminals of the pouch battery cell and are disposed directly adjacent to one another to form a portion of an annular passage; and - wherein a fastener of the cell assembly extends through the annular passage to physically couple the first frame piece and the second frame piece together and thereby form the cell frame . - a housing ; and - a cell assembly disposed within the housing and comprising a plurality of pouch battery cells held within the cell assembly by a plurality of cell frames , wherein each pouch battery cell has a corresponding cell frame , and wherein each cell frame comprises: - a first frame piece positioned on and contacting a first side of a pouch battery cell of the plurality of battery cells and comprising a first ring ; and - a second frame piece positioned on and contacting a second side of the pouch battery cell opposite the first side and comprising a second ring , wherein the first and second rings are positioned above a terminal surface and between terminals of the pouch battery cell and are disposed directly adjacent to one another to form a portion of an annular passage; and - wherein a fastener of the cell assembly extends through the annular passage to physically couple the first frame piece and the second frame piece together and thereby form the cell frame . - a first frame piece positioned on and contacting a first side of a pouch battery cell of the plurality of battery cells and comprising a first ring ; and - a second frame piece positioned on and contacting a second side of the pouch battery cell opposite the first side and comprising a second ring , wherein the first and second rings are positioned above a terminal surface and between terminals of the pouch battery cell and are disposed directly adjacent to one another to form a portion of an annular passage; and - wherein a fastener of the cell assembly extends through the annular passage to physically couple the first frame piece and the second frame piece together and thereby form the cell frame .
A positioning information determining method, wherein the method comprises: receiving, by a positioning management device, first information sent by a terminal device, wherein the first information comprises a plurality of antenna identifiers of the terminal device and local antenna coordinates corresponding to each antenna identifier; receiving, by the positioning management device, measurement information sent by the terminal device, wherein the measurement information comprises the plurality of antenna identifiers of the terminal device and a measurement result that is of a downlink reference signal and that corresponds to each antenna identifier; and determining, by the positioning management device, positioning information of the terminal device based on the first information and the measurement information, wherein the positioning information comprises one or more of the following information: absolute coordinates of the terminal device, orientation or posture information of the terminal device, a rotation angle of the terminal device, or uptilt and downtilt angles of the terminal device, wherein the first information further comprises local coordinates of a reference point of the terminal device and/or an antenna identifier that is of the terminal device and that corresponds to the reference point, and the absolute coordinates of the terminal device are absolute coordinates of the reference point of the terminal device. receiving, by a positioning management device, first information sent by a terminal device, wherein the first information comprises a plurality of antenna identifiers of the terminal device and local antenna coordinates corresponding to each antenna identifier; receiving, by the positioning management device, measurement information sent by the terminal device, wherein the measurement information comprises the plurality of antenna identifiers of the terminal device and a measurement result that is of a downlink reference signal and that corresponds to each antenna identifier; and determining, by the positioning management device, positioning information of the terminal device based on the first information and the measurement information, wherein the positioning information comprises one or more of the following information: absolute coordinates of the terminal device, orientation or posture information of the terminal device, a rotation angle of the terminal device, or uptilt and downtilt angles of the terminal device, wherein the first information further comprises local coordinates of a reference point of the terminal device and/or an antenna identifier that is of the terminal device and that corresponds to the reference point, and the absolute coordinates of the terminal device are absolute coordinates of the reference point of the terminal device.
A medical device, comprising: a head portion including a light source ; and a handle portion coupled to the head portion, the handle portion including: one or more processors ; one or more non-transitory computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. a head portion including a light source ; and a handle portion coupled to the head portion, the handle portion including: one or more processors ; one or more non-transitory computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. one or more processors ; one or more non-transitory computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. receiving an indication associated with adjusting an output of the light source; determining an amount of current drawn by the light source; characterised by further comprising: determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source. determining, based at least in part on the amount of current drawn, a type of the light source; determining, based at least in part on the type of the light source, an amount of time associated with disabling the light source; and causing a voltage to be supplied to the light source.
A user plane resource management method for a communication system comprising a user plane network element adapted to perform user plane functions of a node and a control plane network element adapted to perform control plane functions of the node, wherein the node is one of a serving gateway or a packet data network gateway, comprising: receiving , by the user plane network element, a data transmission channel establishment request message sent by the control plane network element, wherein the data transmission channel establishment request message is used to instruct the user plane network element to establish a data transmission channel in the communication system; establishing , by the user plane network element, the data transmission channel based on current user plane resource status information, and assigning a channel identifier identifying the data transmission channel; and sending , by the user plane network element, the channel identifier to the control plane network element, wherein the establishing , by the user plane network element, the data transmission channel based on current user plane resource status information comprises: selecting, by the user plane network element, based on a load balancing principle, a target resource block from a plurality of internal resource blocks, wherein each of the plurality of internal resource blocks is a physical board of the user plane network element or a virtual machine obtained after the physical board of the user plane network element is virtualized based on a virtualization technology. receiving , by the user plane network element, a data transmission channel establishment request message sent by the control plane network element, wherein the data transmission channel establishment request message is used to instruct the user plane network element to establish a data transmission channel in the communication system; establishing , by the user plane network element, the data transmission channel based on current user plane resource status information, and assigning a channel identifier identifying the data transmission channel; and sending , by the user plane network element, the channel identifier to the control plane network element, wherein the establishing , by the user plane network element, the data transmission channel based on current user plane resource status information comprises: selecting, by the user plane network element, based on a load balancing principle, a target resource block from a plurality of internal resource blocks, wherein each of the plurality of internal resource blocks is a physical board of the user plane network element or a virtual machine obtained after the physical board of the user plane network element is virtualized based on a virtualization technology.
A composite cathode active material comprising: a core comprising a lithium transition metal oxide, wherein the lithium transition metal oxide is represented by Formula 1 and has a layered crystalline phase belonging to the Space Group R 3m; and a coating layer on a surface of the core, wherein the coating layer is formed by cobalt hydroxide (Co(OH) 2 ): <Formula 1> Li x Co 1-y-z Ni y Mg q Ti r O 2 wherein, in Formula 1, 1.00≤x≤1.04, 0.05≤y≤0.1, 0<q<0.005, 0<r<0.005, 0.001≤q+r≤0.007. a core comprising a lithium transition metal oxide, wherein the lithium transition metal oxide is represented by Formula 1 and has a layered crystalline phase belonging to the Space Group R 3m; and a coating layer on a surface of the core, wherein the coating layer is formed by cobalt hydroxide (Co(OH) 2 ): <Formula 1> Li x Co 1-y-z Ni y Mg q Ti r O 2 wherein, in Formula 1, 1.00≤x≤1.04, 0.05≤y≤0.1, 0<q<0.005, 0<r<0.005, 0.001≤q+r≤0.007.
A composite durable airplane cabin structure, wherein said structure is configured to be positioned in a central part of an airplane fuselage and forms a cabin segment for a crew and passengers, whereby a passenger bench is arranged in the cabin segment , characterized in that the cabin segment constitutes a spatial frame formed by mutually coupled elements of the passenger bench, said elements comprising a backrest framing , a seat framing , an armrest framing , and complementary elements , said spatial frame stiffening the airplane cabin.
Heat exchanger comprising at least one heat transfer surface , which is connected to a heat-conducting structure , the heat-conducting structure containing at least two heat-conducting grids , which are integrally bonded to one another, characterized in that the heat-conducting structure has a porosity of about 70% to about 90%.
A device for decreasing the temperature of a sample comprising: (a) a carrier substrate with a lower side for accommodating a sample and with an upper side , which is exposed for a supply of a liquid ; (b) a pressure tank adapted for holding a fluid, the pressure tank comprising an outlet valve located at the bottom; (c) a supply line connecting the outlet valve with the upper side of the carrier substrate , wherein the supply line is adapted to pass the liquid with a pressure higher than the atmospheric pressure through it; and (d) an expansion chamber surrounding the upper side of the carrier substrate , wherein the pressure tank is mounted to the upper side of the carrier substrate , to keep the supply line as short as possible. (a) a carrier substrate with a lower side for accommodating a sample and with an upper side , which is exposed for a supply of a liquid ; (b) a pressure tank adapted for holding a fluid, the pressure tank comprising an outlet valve located at the bottom; (c) a supply line connecting the outlet valve with the upper side of the carrier substrate , wherein the supply line is adapted to pass the liquid with a pressure higher than the atmospheric pressure through it; and (d) an expansion chamber surrounding the upper side of the carrier substrate ,
A signal transmission apparatus , comprising: a transmitting unit configured to, after a period of time of receiving a downlink signal related to beam failure recovery and before receiving or applying activation signaling or reconfiguration signaling, transmit an uplink signal in a first cell by using a spatial domain transmission filter identical to a spatial domain transmission filter transmitting an uplink signal related to beam failure recovery or receiving a downlink reference signal, characterized in that when a second cell where the uplink signal related to beam failure recovery is transmitted is a different cell from the first cell, the transmitting unit is configured to transmit the uplink signal in the first cell by using the spatial domain transmission filter identical to the spatial domain transmission filter receiving the downlink reference signal. a transmitting unit configured to, after a period of time of receiving a downlink signal related to beam failure recovery and before receiving or applying activation signaling or reconfiguration signaling, transmit an uplink signal in a first cell by using a spatial domain transmission filter identical to a spatial domain transmission filter transmitting an uplink signal related to beam failure recovery or receiving a downlink reference signal, characterized in that when a second cell where the uplink signal related to beam failure recovery is transmitted is a different cell from the first cell, the transmitting unit is configured to transmit the uplink signal in the first cell by using the spatial domain transmission filter identical to the spatial domain transmission filter receiving the downlink reference signal.
A cartridge for an aerosol generating device , comprising a mouthpiece body with an outer surface and an inner air channel , an aerosol generator ; and a liquid reservoir , wherein the aerosol generator is a heater configured to heat liquid from the liquid reservoir to form aerosol, wherein the inner air channel comprises an air channel inner surface and a mouthpiece opening at a mouth end of the inner air channel , the mouthpiece opening being an outlet configured for a first part of a flow of aerosol accessible to a mouth of a user, wherein the mouthpiece body comprises a plurality of nasal airflow passages , which extend from the air channel inner surface to the outer surface of the mouthpiece body , wherein at least one of the nasal airflow passages is an outlet configured for a second part of the flow of aerosol accessible to a nose of the user as aroma, the cartridge being configured to dispense the aroma through the at least one nasal passage driven by a puff of the user and corresponding to the frequency and intensity of the puffing. a mouthpiece body with an outer surface and an inner air channel , an aerosol generator ; and a liquid reservoir , wherein the aerosol generator is a heater configured to heat liquid from the liquid reservoir to form aerosol, wherein the inner air channel comprises an air channel inner surface and a mouthpiece opening at a mouth end of the inner air channel , the mouthpiece opening being an outlet configured for a first part of a flow of aerosol accessible to a mouth of a user, wherein the mouthpiece body comprises a plurality of nasal airflow passages , which extend from the air channel inner surface to the outer surface of the mouthpiece body , wherein at least one of the nasal airflow passages is an outlet configured for a second part of the flow of aerosol accessible to a nose of the user as aroma, the cartridge being configured to dispense the aroma through the at least one nasal passage driven by a puff of the user and corresponding to the frequency and intensity of the puffing.
A method of facilitated recovery of regenerative cells from a tissue sample comprising accelerating and decelerating the tissue in the presence of proteolytic enzyme within a centrifuge, whereby the container for the tissue is fixed at an inverted rotor, which is oriented at a fixed angle between 1 degree and less than 90 degrees, and wherein repeated cycles of acceleration and deceleration are applied to the tissue so centrifugal forces drive the sample towards the outer, higher portion of the container, and at rest return the sample to the inner, lower portion of the container.
A data processing method comprising: Selecting (S910), as a codeword, one from among vectors, which are composed of multiple elements and have a predetermined size; Generating (S920) a helper matrix for moving real number data to the selected codeword on a spherical surface, wherein the real number data is at least one of biometric information data, voice information data, or location information data and Outputting (S930) the helper matrix. Selecting (S910), as a codeword, one from among vectors, which are composed of multiple elements and have a predetermined size; Generating (S920) a helper matrix for moving real number data to the selected codeword on a spherical surface, wherein the real number data is at least one of biometric information data, voice information data, or location information data and Outputting (S930) the helper matrix.
A dual layer ammonia slip catalyst comprising an SCR catalyst layer, an oxidation catalyst layer and a substrate, wherein the SCR catalyst layer comprises a molecular sieve or a vanadium/titania SCR catalyst and the oxidation catalyst layer comprises an oxidation catalyst comprising at least one first metal selected from the group consisting of copper (Cu), iron (Fe), cobalt (Co), nickel (Ni), and chromium (Cr) and a second metal which is manganese (Mn), where the ammonia slip catalyst does not comprise a platinum group metal and wherein the oxidation layer is positioned proximal to the substrate.
A wireless communication device comprising: a wireless communication unit that performs near field communication based on Bluetooth low energy, BLE, with another wireless communication device ; and a storage unit that stores an other-device address which is identification information of the other wireless communication device and which is acquired through the wireless communication unit; characterized by a processor that updates an own-device address of a random static type which is identification information of the wireless communication device , when receiving, from a user, an instruction for excluding the other-device address from a paired connection destination of the near field communication. a wireless communication unit that performs near field communication based on Bluetooth low energy, BLE, with another wireless communication device ; and a storage unit that stores an other-device address which is identification information of the other wireless communication device and which is acquired through the wireless communication unit; characterized by a processor that updates an own-device address of a random static type which is identification information of the wireless communication device , when receiving, from a user, an instruction for excluding the other-device address from a paired connection destination of the near field communication.
A welding system comprising a welding torch comprising a handle and a remote control system for said welding system , said remote control system comprising: - a control device ; and - control circuitry configured to select a first operating parameter adjustment for a first operating parameter of the welding system based on a first actuation of the control device , wherein the control device comprises a multi-axis control device disposed on an outer surface of the handle of the welding torch , and wherein the multi-axis control device is configured to adjust a first parameter when the multi-axis control device is actuated along a first axis and a second parameter when actuated along a second axis , and wherein the control device is actuated at a first magnitude and wherein the first operating parameter adjustment comprises a first adjustment to the first operating parameter, characterized in that the first operating parameter adjustment comprises a second adjustment to a rate of change of the first operating parameter, the control device is configured to move along multiples axes at once and the control circuitry is configured to select the first operating parameter adjustment based on a greatest unit vector of the first actuation. - a control device ; and - control circuitry configured to select a first operating parameter adjustment for a first operating parameter of the welding system based on a first actuation of the control device ,