mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a heat exchanger configured to encircle and be coupled to a multi-axis gimbal , the heat exchanger comprising: an inlet configured to receive fluid containing heat generated by an equipment package carried by the gimbal; multiple heat rejection interfaces configured to reject the heat from the fluid into surrounding air in order to cool the fluid; and an outlet configured to provide the cooled fluid from the heat exchanger to the equipment package; wherein the heat rejection interfaces of the heat exchanger extend around the heat exchanger and are configured to reject the heat from the fluid regardless of a direction in which the gimbal is pointing the equipment package. a heat exchanger configured to encircle and be coupled to a multi-axis gimbal , the heat exchanger comprising: an inlet configured to receive fluid containing heat generated by an equipment package carried by the gimbal; multiple heat rejection interfaces configured to reject the heat from the fluid into surrounding air in order to cool the fluid; and an outlet configured to provide the cooled fluid from the heat exchanger to the equipment package; an inlet configured to receive fluid containing heat generated by an equipment package carried by the gimbal; multiple heat rejection interfaces configured to reject the heat from the fluid into surrounding air in order to cool the fluid; and an outlet configured to provide the cooled fluid from the heat exchanger to the equipment package; wherein the heat rejection interfaces of the heat exchanger extend around the heat exchanger and are configured to reject the heat from the fluid regardless of a direction in which the gimbal is pointing the equipment package.
A method of removing carbon dioxide from a CO 2 source, the method including the steps of: - feeding potassium chloride from a potassium supply chain to an electrolyser process to produce chlorine , hydrogen and potassium hydroxide , wherein power is delivered from a power plant to the electrolyser process, - feeding the potassium hydroxide as makeup to a second process, which is a CO 2 removal unit which has an absorber for scrubbing flue gas emitted by the power plant using a recirculating lean carbonate stream , wherein the flue gas contains nitrogen dioxide and sulfur dioxide, which are absorbed in the absorber as potassium nitrate and sulfate, - venting the flue gas having residual CO 2 to the atmosphere, - transferring solvent which is rich in carbon dioxide from the absorber to a separate CO 2 regenerator , wherein the solvent is processed, wherein the CO 2 regenerator draws energy from a power plant for the CO2 removal step, - removing carbon dioxide as a pure gas stream in a CO 2 regeneration column, - regenerating the feed for recirculation of the lean solvent back to the CO 2 absorber , - removing potassium sulfate/nitrate by-product(s) from the recirculating solvent stream and feeding these by-products back into the potassium supply chain . - feeding potassium chloride from a potassium supply chain to an electrolyser process to produce chlorine , hydrogen and potassium hydroxide , wherein power is delivered from a power plant to the electrolyser process, - feeding the potassium hydroxide as makeup to a second process, which is a CO 2 removal unit which has an absorber for scrubbing flue gas emitted by the power plant using a recirculating lean carbonate stream , wherein the flue gas contains nitrogen dioxide and sulfur dioxide, which are absorbed in the absorber as potassium nitrate and sulfate, - venting the flue gas having residual CO 2 to the atmosphere, - transferring solvent which is rich in carbon dioxide from the absorber to a separate CO 2 regenerator , wherein the solvent is processed, wherein the CO 2 regenerator draws energy from a power plant for the CO2 removal step, - removing carbon dioxide as a pure gas stream in a CO 2 regeneration column, - regenerating the feed for recirculation of the lean solvent back to the CO 2 absorber , - removing potassium sulfate/nitrate by-product(s) from the recirculating solvent stream and feeding these by-products back into the potassium supply chain .
Process for the production of additive for catalysts for fluid catalytic cracking (FCC), characterized in that it comprises the following stages: 1) provide a suspension of zeolite that is selective for light olefins; 2) bring a modifying agent, reagent "X", in contact with the suspension of zeolite that is selective for light olefins from step ; 3) provide a hydrosol of inorganic oxide; 4) mix the hydrosol from step with the zeolite suspension from step ; 5) dry the suspension resulting from step in a spray-dryer; wherein said reagent "X" is an aqueous solution of cations of aluminium or of alkaline-earth metal in the presence of phosphate. 1) provide a suspension of zeolite that is selective for light olefins; 2) bring a modifying agent, reagent "X", in contact with the suspension of zeolite that is selective for light olefins from step ; 3) provide a hydrosol of inorganic oxide; 4) mix the hydrosol from step with the zeolite suspension from step ; 5) dry the suspension resulting from step in a spray-dryer;
A nonaqueous electrolyte energy storage device comprising: a positive electrode including a positive electrode mix containing a phosphorus atom; and a nonaqueous electrolyte containing an imide salt, wherein a peak attributed to P2p appears at a position corresponding to 135 eV or less in an X-ray photoelectron spectroscopic spectrum of the positive electrode mix, wherein the position of said peak in the X-ray photoelectron spectroscopic spectrum is determined by a method disclosed in paragraphs and of the description. a positive electrode including a positive electrode mix containing a phosphorus atom; and a nonaqueous electrolyte containing an imide salt, wherein a peak attributed to P2p appears at a position corresponding to 135 eV or less in an X-ray photoelectron spectroscopic spectrum of the positive electrode mix, wherein the position of said peak in the X-ray photoelectron spectroscopic spectrum is determined by a method disclosed in paragraphs and of the description.
A three-phase/two-phase rotary transformer , comprising a first single-phase rotary transformer and a second single-phase rotary transformer , said first transformer comprising a first body made of ferromagnetic material defining a first annular slot of axis A, an n' 1 -turn first toroidal coil of axis A in the first slot , a second body made of ferromagnetic material defining a second annular slot of axis A that is open towards said first slot , and an n 2 -turn second toroidal coil of axis A in the second slot ; said second transformer comprising a third body made of ferromagnetic material defining a third annular slot of axis A, an n 1 -turn third toroidal coil of axis A in the third slot , a fourth body made of ferromagnetic material defining a fourth annular slot of axis A that is open towards said third slot , and an n 2 -turn fourth toroidal coil of axis A in the fourth slot , wherein one terminal (Oap) of the first coil is connected to the midpoint (Obp, Ocp) of the third coil , said first body , said first coil , said third body , and said third coil being stationary relative to one another and forming a three-phase portion of the transformer , said second body , said second coil , said fourth body , and said fourth coil being stationary relative to one another and forming a two-phase portion of the transformer , and said three-phase portion and said two-phase portion being movable in rotation about the axis A relative to each other.
A control mechanism for controlling dispensing of fluid from a container , the control mechanism comprising: a motor ; a gear arrangement operably connected to the motor ; and an actuator operably connected to the gear arrangement and configured to actuate an outlet of the container to dispense fluid therefrom under operation of the motor; characterized in that the gear ratio of the gear arrangement is at least 190:1, and the motor comprises a stall torque of no more than 70gcm. a motor ; a gear arrangement operably connected to the motor ; and an actuator operably connected to the gear arrangement and configured to actuate an outlet of the container to dispense fluid therefrom under operation of the motor; characterized in that the gear ratio of the gear arrangement is at least 190:1, and the motor comprises a stall torque of no more than 70gcm.
A process for purifying of a raw gas containing mainly C1-C5 hydrocarbons and carbon dioxide, and impurities of organic and inorganic sulfur compounds, halogenated and non-halogenated volatile organic compounds, oxygen, nitrogen and water, without substantially oxidizing the C1-C5 hydrocarbons and without substantially oxidizing the organic and inorganic sulfur compounds to sulfur trioxide, the process comprises the steps of contacting the raw gas at a temperature of between 200 and 450° C in one or more oxidation steps with a selective oxidation catalyst and oxidizing selectively in part or in full the organic and inorganic sulfur compounds and the halogenated and non-halogenated volatile organic compounds to carbon dioxide, water, sulfur dioxide and hydrogen halides; and removing at least part of excess of oxygen contained in the raw gas in the one or more oxidation steps by adding lower alcohols, lower ethers, hydrogen or combinations thereof to the raw gas upstream to at least one of the one or more oxidation steps and oxidizing the lower alcohols, lower ethers or hydrogen or combinations thereof to carbon dioxide and water with the at least part of the excess of oxygen; withdrawing and cooling a hot exit gas from the one or more oxidation steps comprising the C1-C5 hydrocarbons, sulfur dioxide, carbon dioxide, water, hydrogen halides and being essentially free of oxygen; and introducing the cooled exit gas into a purification step and removing the sulfur dioxide and the hydrogen halides, from the cooled exit gas; and collecting a purified exit gas comprising the C1-C5 hydrocarbons, carbon dioxide and water.
A container for an aerosol-generating system, comprising: a plurality of blister capsules each capsule comprising: a blister shell ; a volatile liquid disposed in the blister shell ; and a film configured to seal the blister shell , characterised in that the film and the blister shell are frangible; the container for an aerosol-generating system further comprising a hollow tubular canister comprising: a first end ; a second end ; and a mixing chamber disposed between the first end and the second end , wherein at least one blister capsule is coupled to the first end and at least one blister capsule is coupled to the second end . a plurality of blister capsules each capsule comprising: a blister shell ; a volatile liquid disposed in the blister shell ; and a film configured to seal the blister shell , characterised in that the film and the blister shell are frangible; the container for an aerosol-generating system further comprising a blister shell ; a volatile liquid disposed in the blister shell ; and a film configured to seal the blister shell , characterised in that the film and the blister shell are frangible; the container for an aerosol-generating system further comprising a hollow tubular canister comprising: a first end ; a second end ; and a mixing chamber disposed between the first end and the second end , wherein at least one blister capsule is coupled to the first end and at least one blister capsule is coupled to the second end . a first end ; a second end ; and a mixing chamber disposed between the first end and the second end , wherein at least one blister capsule is coupled to the first end and at least one blister capsule is coupled to the second end .
A blood pumping device comprising at least a first pump , and at least a first pump actuating means for inducing a blood flow in a body's circulatory system, said pump comprising one upper chamber having an inlet channel and one lower chamber having an outlet channel , said upper and lower chambers are separated by a movable valve plane provided with a valve and said pump actuating means is configured to apply a movement to said valve plane in an upward and downward direction between said upper and lower chambers in response to control signals from a control unit, such that when said valve plane moves in an upward direction, the valve provided in the valve plane is in an open position allowing a flow of blood from the upper chamber to the lower chamber , and when the valve plane moves in a downward direction the valve is in the closed position and blood is ejected from the lower chamber through the outlet channel characterized in that a bottom part of the lower chamber is provided with a bag-like portion which bends between 90 to 340°, more preferably between 100 to 300°, more preferably between 105 to 200°, and most preferably between 110 to 150°.
A data transmission method, comprising: determining (S10), by a first network device, that a terminal device enters a radio resource control RRC inactive state; characterized in that the method further comprises: sending (s11, s21), by the first network device, a first message to a second network device, wherein the first message is used to configure the second network device to transmit data for the terminal device in the RRC inactive state, wherein the first message comprises identification information of the first network device, identification information of the terminal device, a bearer that needs to be provided by the second network device for transmitting data for the terminal device in the RRC inactive state, and address information of the bearer on an Xn interface of the first network device; and receiving (s12, s22), by the first network device, an acknowledgment message that is for the first message and that is sent by the second network device. determining (S10), by a first network device, that a terminal device enters a radio resource control RRC inactive state; characterized in that the method further comprises: sending (s11, s21), by the first network device, a first message to a second network device, wherein the first message is used to configure the second network device to transmit data for the terminal device in the RRC inactive state, wherein the first message comprises identification information of the first network device, identification information of the terminal device, a bearer that needs to be provided by the second network device for transmitting data for the terminal device in the RRC inactive state, and address information of the bearer on an Xn interface of the first network device; and receiving (s12, s22), by the first network device, an acknowledgment message that is for the first message and that is sent by the second network device. sending (s11, s21), by the first network device, a first message to a second network device, wherein the first message is used to configure the second network device to transmit data for the terminal device in the RRC inactive state, wherein the first message comprises identification information of the first network device, identification information of the terminal device, a bearer that needs to be provided by the second network device for transmitting data for the terminal device in the RRC inactive state, and address information of the bearer on an Xn interface of the first network device; and receiving (s12, s22), by the first network device, an acknowledgment message that is for the first message and that is sent by the second network device.
A sensor system for detecting the presence of water in an insulating material surrounding plant equipment and/or pipe work , the sensor system comprising: a plurality of sensors located in and spatially distributed over the insulating material, each sensor being operable to provide a sensor output indicative of the presence of water in an insulating material; at least one reference sensor operable to provide a reference sensor output indicative of the presence of water in an ambient environment in the vicinity of the plurality of sensors ; and a processor configured to receive the sensor outputs from the plurality of sensors and the reference sensor output; wherein the processor is configured to correlate the sensor outputs from the plurality of sensors and the reference sensor output to identify whether: - one or more of the plurality of sensors has a sensor output which closely follows the reference sensor output to determine that the one or more of the plurality of sensors is located in a substantially dry portion of the insulating material ; or - one or more of the plurality of sensors has a sensor output which deviates from the reference sensor output to determine that the one or more of the plurality of sensors is located in a substantially wet portion of the insulating material , and provide a correlation data output for use in evaluating a corrosion condition. a plurality of sensors located in and spatially distributed over the insulating material, each sensor being operable to provide a sensor output indicative of the presence of water in an insulating material; at least one reference sensor operable to provide a reference sensor output indicative of the presence of water in an ambient environment in the vicinity of the plurality of sensors ; and a processor configured to receive the sensor outputs from the plurality of sensors and the reference sensor output; wherein the processor is configured to correlate the sensor outputs from the plurality of sensors and the reference sensor output to identify whether: - one or more of the plurality of sensors has a sensor output which closely follows the reference sensor output to determine that the one or more of the plurality of sensors is located in a substantially dry portion of the insulating material ; or - one or more of the plurality of sensors has a sensor output which deviates from the reference sensor output to determine that the one or more of the plurality of sensors is located in a substantially wet portion of the insulating material , - one or more of the plurality of sensors has a sensor output which closely follows the reference sensor output to determine that the one or more of the plurality of sensors is located in a substantially dry portion of the insulating material ; or - one or more of the plurality of sensors has a sensor output which deviates from the reference sensor output to determine that the one or more of the plurality of sensors is located in a substantially wet portion of the insulating material , and provide a correlation data output for use in evaluating a corrosion condition.
Air outlet having a slot diffuser (S) with an outlet opening bounded by side cheeks (11.1 and 11.2) and a terminal box (A) assigned to the slot diffuser (S), a corner element (E) being provided for connecting the slot diffuser (S) to a terminal box (A), characterized in that the slot diffuser (S) has spacers which extend over the side cheeks (11.1 and 11.2), so that the side cheeks (11.1 and 11.2) maintain a distance from one another, and that clips (3.1, 3.2) of pincer-like design are formed on the corner element (E) and the corner element (E) is plugged onto these spacers by means of these clips (3.1, 3.2).
A method for handling of integrity check failures of packet data convergence protocol, PDCP, protocol data units, PDUs, by a user equipment, UE, in a wireless communication system, the method comprising: performing an integrity check at a PDCP layer on at least one radio bearer based on a message authentication code-integrity, MAC-I, of the PDCP PDU; determining whether the integrity check of the PDCP PDU received on the at least one radio bearer is successful or failed in case that the LTE is simultaneously connected to a master node, MN, and a secondary node, SN, for dual connectivity mode; discarding the PDCP PDU for which integrity check is failed; and indicating a radio resource control, RRC, layer about the integrity check failure on the at least one radio bearer in response to determining a trigger condition, characterized in that : - a PDCP termination point of each of the at least one radio bearer is determined in the MN in case that a security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an MN security key, and - a PDCP termination point of each of the at least one radio bearer is determined in the SN in case that the security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an SN security key. performing an integrity check at a PDCP layer on at least one radio bearer based on a message authentication code-integrity, MAC-I, of the PDCP PDU; determining whether the integrity check of the PDCP PDU received on the at least one radio bearer is successful or failed in case that the LTE is simultaneously connected to a master node, MN, and a secondary node, SN, for dual connectivity mode; discarding the PDCP PDU for which integrity check is failed; and indicating a radio resource control, RRC, layer about the integrity check failure on the at least one radio bearer in response to determining a trigger condition, characterized in that : - a PDCP termination point of each of the at least one radio bearer is determined in the MN in case that a security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an MN security key, and - a PDCP termination point of each of the at least one radio bearer is determined in the SN in case that the security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an SN security key. a PDCP termination point of each of the at least one radio bearer is determined in the MN in case that a security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an MN security key, and - a PDCP termination point of each of the at least one radio bearer is determined in the SN in case that the security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an SN security key.