mhurhangee/patent-ind-claim-en huggingface dataset:
An air purification system including: an air purification apparatus comprising: an air inlet ; an air outlet for expelling air in a target direction into a region and including an adjustment mechanism arranged to adjust said target direction in response to a target direction adjustment signal for aiming the air outlet at the face of a person in said region; at least one pollutant removal structure in between the air inlet and the air outlet; an air displacement apparatus for displacing air from the air inlet to the air outlet through the at least one pollutant removal structure; a controller ; and a sensor adapted to determine a breathing parameter of the person, wherein the controller is configured to control the air purification apparatus for expelling said air as a function of said breathing parameter. an air inlet ; an air outlet for expelling air in a target direction into a region and including an adjustment mechanism arranged to adjust said target direction in response to a target direction adjustment signal for aiming the air outlet at the face of a person in said region; at least one pollutant removal structure in between the air inlet and the air outlet; an air displacement apparatus for displacing air from the air inlet to the air outlet through the at least one pollutant removal structure; a controller ; and a sensor adapted to determine a breathing parameter of the person, wherein the controller is configured to control the air purification apparatus for expelling said air as a function of said breathing parameter.
A communication apparatus comprising: a generator adapted to generate a control message by mapping a part of unicast resource assignment information to a first zone and mapping multicast resource assignment information intended for a group of a plurality of mobile stations to a second zone ; and a transmitter adapted to transmit the generated control message characterized in that the generator is adapted to map a remaining part of the unicast resource assignment information to a third zone ; the first zone includes a plurality of unicast Information Elements, IEs; the second zone includes a plurality of multicast IEs; the third zone includes another plurality of unicast IEs; and the third zone , the second zone and the first zone are located in a frequency domain in this order. a generator adapted to generate a control message by mapping a part of unicast resource assignment information to a first zone and mapping multicast resource assignment information intended for a group of a plurality of mobile stations to a second zone ; and a transmitter adapted to transmit the generated control message characterized in that the generator is adapted to map a remaining part of the unicast resource assignment information to a third zone ; the first zone includes a plurality of unicast Information Elements, IEs; the second zone includes a plurality of multicast IEs; the third zone includes another plurality of unicast IEs; and the third zone , the second zone and the first zone are located in a frequency domain in this order.
A control apparatus for a stepped automatic transmission in which one of a plurality of shift speeds is established by selectively engaging a plurality of frictional engagement elements (C1 to C4, B1, B2), the stepped automatic transmission mounted on a vehicle, the control apparatus comprising: an electronic control unit configured to perform a control of prohibiting a plurality of shift that is transitioning from an upshift speed change to a downshift speed change, for a predetermined period, when a downshift speed change requirement is requested by an occurrence of an accelerator depression operation during an inertia phase of the upshift speed change in a driven state of a vehicle, characterized in that an end of the predetermined period is a timing when a torque input to the automatic transmission becomes equal to or higher than a predetermined value through the accelerator depression operation.
A food processor comprising: a first food flow path extending from a first upstream portion to a first downstream portion , wherein the first food flow path is configured to pass a food product in a forward direction to be dispensed from the food processor and to pass a solution in the forward direction and in a reverse direction; a second food flow path extending from a second upstream portion to a second downstream portion, wherein the second food flow path is configured to pass a food product in a forward direction to be dispensed from the food processor and to pass a solution in the forward direction and in a reverse direction; a first bypass line configured to connect to the first food flow path ; a second bypass line configured to connect to the second food flow path ; and a pressure regulating valve configured to equalize the pressure within the first and second bypass lines , thereby balancing the flow of solution through each of the connected first and second food flow paths ; wherein the pressure regulating valve has a pressure regulating valve inlet and a pressure regulating valve outlet ; and wherein the pressure regulating valve inlet is configured to fluidly communicate with the first bypass line and the second bypass line . a first food flow path extending from a first upstream portion to a first downstream portion , wherein the first food flow path is configured to pass a food product in a forward direction to be dispensed from the food processor and to pass a solution in the forward direction and in a reverse direction; a second food flow path extending from a second upstream portion to a second downstream portion, wherein the second food flow path is configured to pass a food product in a forward direction to be dispensed from the food processor and to pass a solution in the forward direction and in a reverse direction; a first bypass line configured to connect to the first food flow path ; a second bypass line configured to connect to the second food flow path ; and a pressure regulating valve configured to equalize the pressure within the first and second bypass lines , thereby balancing the flow of solution through each of the connected first and second food flow paths ; wherein the pressure regulating valve has a pressure regulating valve inlet and a pressure regulating valve outlet ; and wherein the pressure regulating valve inlet is configured to fluidly communicate with the first bypass line and the second bypass line .
An assembly of an aircraft passenger seat assembly and an aircraft deck, the seat assembly being mounted onto the aircraft deck, the deck comprising spaced longitudinally-extending seat tracks ; the seat assembly comprising: (a) a seat frame on which is mounted at least one seat back , a seat pan and a plurality of seat legs ; characterized in that the seat assembly further comprises : (b) at least one seat floor panel , the or each seat floor panel having an integrated floor panel seat track mounted therein, the at least one floor panel configured to be mounted onto the aircraft deck between the spaced longitudinally-extending deck seat tracks , each integrated floor panel seat track being laterally-offset relative to the longitudinally-extending deck seat tracks ; (c) a mounting rail adapted to be mounted onto an aircraft fuselage sidewall ; and (d) leg track fasteners for detachably securing the seat legs to the floor panel seat tracks and frame seat fasteners for mounting the seat frame to the sidewall mounted rail. the seat assembly being mounted onto the aircraft deck, the deck comprising spaced longitudinally-extending seat tracks ; the seat assembly comprising: (a) a seat frame on which is mounted at least one seat back , a seat pan and a plurality of seat legs ; (a) a seat frame on which is mounted at least one seat back , a seat pan and a plurality of seat legs ; characterized in that the seat assembly further comprises : (b) at least one seat floor panel , the or each seat floor panel having an integrated floor panel seat track mounted therein, the at least one floor panel configured to be mounted onto the aircraft deck between the spaced longitudinally-extending deck seat tracks , each integrated floor panel seat track being laterally-offset relative to the longitudinally-extending deck seat tracks ; (c) a mounting rail adapted to be mounted onto an aircraft fuselage sidewall ; and (d) leg track fasteners for detachably securing the seat legs to the floor panel seat tracks and frame seat fasteners for mounting the seat frame to the sidewall mounted rail. (b) at least one seat floor panel , the or each seat floor panel having an integrated floor panel seat track mounted therein, the at least one floor panel configured to be mounted onto the aircraft deck between the spaced longitudinally-extending deck seat tracks , each integrated floor panel seat track being laterally-offset relative to the longitudinally-extending deck seat tracks ; (c) a mounting rail adapted to be mounted onto an aircraft fuselage sidewall ; and (d) leg track fasteners for detachably securing the seat legs to the floor panel seat tracks and frame seat fasteners for mounting the seat frame to the sidewall mounted rail.
A device for changing bending tools in a bending machine for bending metal sheets, in particular in a press brake, comprising at least one tool magazine for storing the bending tools , which, when positioned in a working area of the bending machine , cause the metal sheets to bend, wherein the at least one tool magazine is arranged on a frame which is configured to be positioned in a free-standing manner without a mechanical connection to the bending machine in an operating position of the device , wherein a robot is arranged on the frame for automatically inserting the bending tools from the at least one tool magazine into the working area of the bending machine and for automatic storage of the bending tools from the working area in the at least one tool magazine , wherein the robot , during operation of the device , moves in the operating position between the at least one tool magazine and the working area of the bending machine , in order to automatically insert and automatically store the bending tools , characterised in that the at least one tool magazine can be moved out of the frame from a first position into a second position, in which at least a part of the tool magazine that can be moved out lies in a contact-free manner within the bending machine . wherein the at least one tool magazine is arranged on a frame which is configured to be positioned in a free-standing manner without a mechanical connection to the bending machine in an operating position of the device , wherein a robot is arranged on the frame for automatically inserting the bending tools from the at least one tool magazine into the working area of the bending machine and for automatic storage of the bending tools from the working area in the at least one tool magazine , wherein the robot , during operation of the device , moves in the operating position between the at least one tool magazine and the working area of the bending machine , in order to automatically insert and automatically store the bending tools , characterised in that the at least one tool magazine can be moved out of the frame from a first position into a second position, in which at least a part of the tool magazine that can be moved out lies in a contact-free manner within the bending machine .
. A method of determining by a computer system at least one current value of at least one occupancy parameter relating to a portion of a space located in the vicinity of a motorized land vehicle, the method comprising steps for obtaining historical occupancy data, said historical occupancy data being generated when at least one sensing device arranged in the vehicle detects the presence of an obstacle, obtaining current occupancy data, said current occupancy data being generated by determining whether a signal is emitted by the detection apparatus, the method being characterized in that it comprises a step for obtaining an instantaneous speed value of the vehicle, and, when said instantaneous speed value is less than a first threshold, determining the distance of the vehicle from said portion and, if the distance is less than a second threshold, determining the current value of the occupancy parameter using the historical occupancy data and the current occupancy data. obtaining current occupancy data, said current occupancy data being generated by determining whether a signal is emitted by the detection apparatus, the method being characterized in that it comprises a step for obtaining an instantaneous speed value of the vehicle, and, when said instantaneous speed value is less than a first threshold, determining the distance of the vehicle from said portion and, if the distance is less than a second threshold, determining the current value of the occupancy parameter using the historical occupancy data and the current occupancy data.
A power system for an industrial facility , said power system comprising a hybrid solid oxide fuel cell (HSOFC) system coupled to at least one DC load and to at least one AC load , wherein the at least one DC load defines a DC power demand value and the at least one AC load defines an AC power demand value, characterized in that the DC power demand value and the AC power demand value define a power demand ratio defining the proportion of total power draw consumed by the at least one DC load and the at least one AC load , said HSOFC system configured to generate DC power and generate AC power, with a power generation ratio substantially complementary to the power demand ratio so that the power generation ratio remains substantially constant while a total power demand, comprising a sum of the DC power demand value and the AC power demand value, changes.
A valve comprising an inlet connector arranged to receive fluid from a fluid flow line to an interior part of a closed housing, and an outlet connector arranged to deliver fluid to the fluid flow line from the interior part of the closed housing, a fluid flow path through the valve thereby being defined, the fluid flow path providing a fluid connection from the inlet connector to the outlet connector , a first valve member and a second valve member arranged inside the housing, the first valve member and the second valve member being movable relative to each other, and the first valve member and the second valve member defining a fluid passage arranged in the fluid flow path, a size of the fluid passage being determined by a relative position of the first valve member and the second valve member , an actuator arranged inside the housing for driving movements of the first valve member and/or the second valve member , said actuator being arranged directly in a flow of fluid flowing in the fluid flow path during operation of the valve , and a first housing part and a second housing part , the first housing part and the second housing part forming a closed housing of the valve , wherein the first housing part and the second housing part are made from a sheet metal material, and wherein the first housing part and the second housing part have been joined to form the closed housing by means of welding, characterized by a first sealing member arranged to provide sealing between the first valve member and the second valve member at an outlet side of the fluid passage, and a second sealing member arranged to provide sealing between the first valve member and the second valve member at an inlet side of the fluid passage.
Fluid distributor module for a modular temperature control system of an energy store, in particular a cooling system for vehicle batteries, having at least one first module interface for connection to at least one further fluid distributor module, having at least one first distributor interface for connection to at least one cooling element , and having at least one fluid channel , wherein at least one first section of the fluid distributor module is formed from a first material and at least one second section of the fluid distributor module is formed from a second material, wherein the second section has a lower stiffness than the first material, and wherein a second distributor interface is provided for connection to a cooling element , characterized in that the first distributor interface and the second distributor interface are formed in the first section , and in that the first section and the second section are integrally formed cohesively on one another.
A variable vane assembly , comprising: a trunnion of a variable vane; an elastomeric bushing bonded to the trunnion ; and an outer bushing bonded to the elastomeric bushing ; characterised in that : the inner elastomeric bushing and the outer bushing are configured to rotate together with the variable vane, and the outer bushing , the inner elastomeric bushing , and the trunnion each have a cylindrical cross-section. a trunnion of a variable vane; an elastomeric bushing bonded to the trunnion ; and an outer bushing bonded to the elastomeric bushing ; characterised in that : the inner elastomeric bushing and the outer bushing are configured to rotate together with the variable vane, and the outer bushing , the inner elastomeric bushing , and the trunnion each have a cylindrical cross-section.
A method of editing the genome of a cell, wherein the cell is a primary hematopoietic cell or a primary hematopoietic stem cell, the method comprising: a) providing a reaction mixture comprising a Cas9 ribonucleoprotein complex and the cell, wherein the Cas9 ribonucleoprotein complex comprises a Cas9 nuclease domain and a guide RNA, wherein the guide RNA specifically hybridizes to a target region of the genome of the cell; and b) introducing the Cas9 ribonucleoprotein complex inside the cell via electroporation. a) providing a reaction mixture comprising a Cas9 ribonucleoprotein complex and the cell, wherein the Cas9 ribonucleoprotein complex comprises a Cas9 nuclease domain and a guide RNA, wherein the guide RNA specifically hybridizes to a target region of the genome of the cell; and b) introducing the Cas9 ribonucleoprotein complex inside the cell via electroporation.
An IC tag issuing apparatus for writing identification data to IC tags and issuing the result, the IC tags arranged in multiple rows aligned on an IC tag continuous body , the IC tag issuing apparatus comprising: a plurality of writing row antenna units arranged to face each row of the IC tags arranged in multiple rows, respectively, for writing the identification data to the IC tags by an electromagnetic induction method; an electric-wave antenna unit arranged at a downstream side in a conveyance direction of the IC tag continuous body from the plurality of writing row antenna units for writing the identification data to the IC tags by an electric wave method, wherein the communication region of the electric-wave antenna unit using the electric wave method is wider than that of the electromagnetic induction method; and a writing control unit for determining whether or not the identification data could be successfully written to each of the IC tags by the plurality of writing row antenna units , wherein the electric-wave antenna unit is adapted to write the identification data to the IC tags for which it is determined by the writing control unit that the identification data could not be written by the plurality of writing row antenna units . a plurality of writing row antenna units arranged to face each row of the IC tags arranged in multiple rows, respectively, for writing the identification data to the IC tags by an electromagnetic induction method; an electric-wave antenna unit arranged at a downstream side in a conveyance direction of the IC tag continuous body from the plurality of writing row antenna units for writing the identification data to the IC tags by an electric wave method, wherein the communication region of the electric-wave antenna unit using the electric wave method is wider than that of the electromagnetic induction method; and a writing control unit for determining whether or not the identification data could be successfully written to each of the IC tags by the plurality of writing row antenna units , wherein the electric-wave antenna unit is adapted to write the identification data to the IC tags for which it is determined by the writing control unit that the identification data could not be written by the plurality of writing row antenna units .
A wireless transmit/receive unit, WTRU, for synchronizing with a beamforming cellular communications network, the WTRU comprising: a processor configured to: receive, at the WTRU, within a beam, a SYNC burst set, comprising a plurality of SYNC bursts that each comprise multiple symbols, from the beamforming cellular communications network, wherein the plurality of SYNC bursts alternate in time between being oriented by a transmission and/or reception point, TRP, of the beamforming cellular communications network and being oriented by the WTRU, wherein during a SYNC burst oriented by the TRP a first number of beam directions are sequentially transmitted by the TRP and the WTRU is configured to receive using one or more of a second number of beam directions and wherein during a SYNC burst oriented by the WTRU one of said first number of beam directions is transmitted by the TRP and the WTRU is configured to sequentially receive using one or more of said second number of beam directions; and determine, from the SYNC burst set, the synchronization parameters for the WTRU to synchronize with the beamforming cellular communications network. receive, at the WTRU, within a beam, a SYNC burst set, comprising a plurality of SYNC bursts that each comprise multiple symbols, from the beamforming cellular communications network, wherein the plurality of SYNC bursts alternate in time between being oriented by a transmission and/or reception point, TRP, of the beamforming cellular communications network and being oriented by the WTRU, wherein during a SYNC burst oriented by the TRP a first number of beam directions are sequentially transmitted by the TRP and the WTRU is configured to receive using one or more of a second number of beam directions and wherein during a SYNC burst oriented by the WTRU one of said first number of beam directions is transmitted by the TRP and the WTRU is configured to sequentially receive using one or more of said second number of beam directions; and wherein during a SYNC burst oriented by the TRP a first number of beam directions are sequentially transmitted by the TRP and the WTRU is configured to receive using one or more of a second number of beam directions and wherein during a SYNC burst oriented by the WTRU one of said first number of beam directions is transmitted by the TRP and the WTRU is configured to sequentially receive using one or more of said second number of beam directions; and determine, from the SYNC burst set, the synchronization parameters for the WTRU to synchronize with the beamforming cellular communications network.