mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a translational memory buffer (TMXB) device comprising: a scheduler to: identify a sequence of read returns to be sent to a host device, wherein the sequence of read returns is to comprise at least a first read return packet to comprise first read data responsive to a first read request and a second read return packet to comprise second read data responsive to a second read request, and the second return packet is to follow the first read return packet in the sequence; read return logic to: generate the first read return packet to comprise a header flit and the first read data, wherein the first read return packet comprises a first transaction identifier associated with the second read request; and generate the second read return packet, wherein the second read return packet is a headerless packet and comprises the second read data. a scheduler to: identify a sequence of read returns to be sent to a host device, wherein the sequence of read returns is to comprise at least a first read return packet to comprise first read data responsive to a first read request and a second read return packet to comprise second read data responsive to a second read request, and the second return packet is to follow the first read return packet in the sequence; read return logic to: generate the first read return packet to comprise a header flit and the first read data, wherein the first read return packet comprises a first transaction identifier associated with the second read request; and generate the second read return packet, wherein the second read return packet is a headerless packet and comprises the second read data. generate the first read return packet to comprise a header flit and the first read data, wherein the first read return packet comprises a first transaction identifier associated with the second read request; and generate the second read return packet, wherein the second read return packet is a headerless packet and comprises the second read data.
Drawer runner for drawer elements, in particular drawers or trays, movable relative to a carcass of a piece of furniture or household appliance, comprising - a carcass rail which can be secured to a carcass of the piece of furniture or household appliance directly or via a carcass bracket, - a running rail which can be secured to the movable drawer element and can be moved relative to the carcass rail either directly or via a central rail, - a conductor for the transmission of electrical energy to a power consumer arranged on the movable drawer element, characterized in that - a printed circuit board extending over the length of the carcass rail is arranged on the carcass rail or the carcass bracket, and - a contact apparatus having at least one electrically conductive contact element is arranged on the running rail, which in the mounted state is permanently in electrical contact with the printed circuit board, and a connecting element electrically connected to the contact element for connection to the movable drawer element. - a carcass rail which can be secured to a carcass of the piece of furniture or household appliance directly or via a carcass bracket, - a running rail which can be secured to the movable drawer element and can be moved relative to the carcass rail either directly or via a central rail, - a conductor for the transmission of electrical energy to a power consumer arranged on the movable drawer element, characterized in that - a printed circuit board extending over the length of the carcass rail is arranged on the carcass rail or the carcass bracket, and - a contact apparatus having at least one electrically conductive contact element is arranged on the running rail, which in the mounted state is permanently in electrical contact with the printed circuit board, and a connecting element electrically connected to the contact element for connection to the movable drawer element.
Intervertebral implant for insertion into an intervertebral disc space between two adjacent vertebral bodies (14, 16) of a human or animal spine, wherein the intervertebral implant has an implant top side, which defines a first vertebral body abutment face for abutting against a first vertebral body, and an implant bottom side, which defines a second vertebral body abutment face for abutting against a second vertebral body, wherein the intervertebral implant comprises a frame structure with at least two support elements, wherein the at least two support elements extend from the implant top side to the implant bottom side, and wherein the at least two support elements define support element longitudinal axes, which run transversely, in particular perpendicularly, to the first and/or second vertebral body abutment face (24, 26), characterized in that the frame structure comprises a first self-enclosed inner frame part and a second self-enclosed inner frame part, and in that the at least two support elements connect the two inner frame parts (36, 38) to one another by a direct connection of the inner frame parts (36, 38) to the at least two support elements.
A microscope system configured to magnify a sample for observation, the microscope system comprising: a zoom instructing section configured to change a magnification for the sample; a zoom section configured to consecutively change the magnification for the sample within a predetermined magnification changeable range in accordance with an instruction from the zoom instructing section; a switching section including a plurality of objective lenses of different magnifications and configured to switch the objective lens placed in an observation optical path to intermittently change the magnification for the sample; a switching control section configured to control the switching section such that the objective lens placed in the observation optical path is switched, if the zoom instructing section performs an operation of causing the magnification to be changed and when the magnification changed in response to the operation falls outside the magnification changeable range of the zoom section; a zoom magnification determining section configured to determine the magnification (target magnification) of the zoom section required to keep a total magnification obtained after the switching of the objective lens equal to the total magnification obtained before the switching of the objective lens; and a zoom control section configured to control the zoom section such that the magnification of the zoom section is set equal to the target magnification determined by the zoom magnification determining section. a zoom instructing section configured to change a magnification for the sample; a zoom section configured to consecutively change the magnification for the sample within a predetermined magnification changeable range in accordance with an instruction from the zoom instructing section; a switching section including a plurality of objective lenses of different magnifications and configured to switch the objective lens placed in an observation optical path to intermittently change the magnification for the sample; a switching control section configured to control the switching section such that the objective lens placed in the observation optical path is switched, if the zoom instructing section performs an operation of causing the magnification to be changed and when the magnification changed in response to the operation falls outside the magnification changeable range of the zoom section; a zoom magnification determining section configured to determine the magnification (target magnification) of the zoom section required to keep a total magnification obtained after the switching of the objective lens equal to the total magnification obtained before the switching of the objective lens; and a zoom control section configured to control the zoom section such that the magnification of the zoom section is set equal to the target magnification determined by the zoom magnification determining section.
A system for recompressing a round bale into a square bale, comprising: a bottom platen (112, 514, 612, 1116); a fixed platen proximate the bottom platen (112, 514, 612, 1116); a transfer table (502, 1102, 1102', 1102") to receive the round bale, the transfer table (502, 1102, 1102', 1102") movable relative to the bottom platen (112, 514, 612, 1116) to transfer the round bale to the bottom platen (112, 514, 612, 1116) and to recompress the round bale; and characterized by, an upper platen (110, 610, 1110) rotatable relative to the bottom platen (112, 514, 612, 1116) and the fixed platen, the upper platen (110, 610, 1110) being rotatable between a first position to receive the round bale between the bottom platen (112, 514, 612, 1116), the fixed platen and the upper platen (110, 610, 1110), and a second position in which the upper platen (110, 610, 1110) cooperates with the transfer table (502, 1102, 1102', 1102") to recompress the round bale into the square bale. a bottom platen (112, 514, 612, 1116); a fixed platen proximate the bottom platen (112, 514, 612, 1116); a transfer table (502, 1102, 1102', 1102") to receive the round bale, the transfer table (502, 1102, 1102', 1102") movable relative to the bottom platen (112, 514, 612, 1116) to transfer the round bale to the bottom platen (112, 514, 612, 1116) and to recompress the round bale; and characterized by, an upper platen (110, 610, 1110) rotatable relative to the bottom platen (112, 514, 612, 1116) and the fixed platen, the upper platen (110, 610, 1110) being rotatable between a first position to receive the round bale between the bottom platen (112, 514, 612, 1116), the fixed platen and the upper platen (110, 610, 1110), and a second position in which the upper platen (110, 610, 1110) cooperates with the transfer table (502, 1102, 1102', 1102") to recompress the round bale into the square bale.
Traction control device for a vehicle with electromotive vehicle drive, which comprises one or more electric drive motors (M1 to M4), wherein in order to limit traction slip by means of a traction control device the rotational speed of the drive wheels (AR1 to AR4) is regulated by controlling the speed of the rotary field generated in at least one electric drive motor, characterised in that each electric drive motor (M1 to M4) is supplied by a controllable converter (U1 to U4) associated therewith, and in order to control the rotational speed the traction control device continuously communicates to each converter (U1 to U4) the maximum permissible rotational speed of the associated drive motor (M1 to M4) or drive wheel (AR1 to AR4).
A frame for an electrical heating device forming openings on opposite sides for the passage of a medium to be heated, wherein the frame includes two frame elements forming the openings and at least one intermediate frame element disposed in-between, which are respectively connectable with each other by way of interlocking locking elements (50, 52), and the elements forming the frame are formed in such a manner that a frame formed by the frame elements and the intermediate frame element forms a receiving space extending in the direction of passage of the medium to be heated, said receiving space being formed in such manner that it is adapted to receive a layered structure with several levels of corrugated fins and heat-generating elements (64, 66), characterized in that the locking elements (50, 52) on the two frame elements are formed in such manner that the frame elements are connectable by way of the interlocking locking elements (50, 52) to form a frame that forms a receiving space extending in the direction of passage of the medium to be heated for receiving a layered structure with one level of corrugated fins and heat-generating elements (64, 66).
A propeller intended to be assembled to an electric motor of the rotary-cage brushless synchronous type having a hollow central shaft, comprising a hub and a plurality of blades, characterized in that at least one blade of the propeller comprises a plurality of light-emitting diodes, and in that the propeller further comprises: - a device for controlling the light-emitting diodes; - a communication device positioned on the propeller hub so as to communicate with a communication device of an electric motor via the hollow shaft of said motor; and - the diode control device being adapted to communicate with the communication device of the propeller in order to emit and/or receive commands. - a device for controlling the light-emitting diodes; - a communication device positioned on the propeller hub so as to communicate with a communication device of an electric motor via the hollow shaft of said motor; and - the diode control device being adapted to communicate with the communication device of the propeller in order to emit and/or receive commands.
Foundation pile for wind turbines comprising at least two foundation pile segments which are connected to one another in such a way that the longitudinal axes thereof extend substantially collinearly to one another, at least two of the foundation pile segments each having a recess in their jacket walls, characterized in that, in at least one foundation pile segment, at least one recess extends to both end faces (12, 13) of the foundation pile segment, and in that said recess is a through-opening in the jacket wall.
Rechargeable dehumidifier comprising a casing with at least one first opening (1.1) and open on the top configuring a first internal cavity (1.2), a first lid arranged upon the casing, characterised in that provided within the first cavity (1.2) is a container that in turn comprises a body (3.1) that is open on the top which configures a second cavity (3.2), with a second lid (3.3) provided upon the body (3.1) and having at least one second opening (3.4), on the second lid (3.3) is provided a desiccant agent such that the water absorbed by it is collected in the body (3.1) when it falls by gravity.
Sanitary appliance (101, 102) comprising: - a receptacle provided with a flow surface and at least one outlet provided with a valve, - a sensor (20, 21, 22) for sensing liquid flow at a sensing location of the flow surface, which sensor (20, 21, 22) is arranged in proximity to said sensing location, - a controller for receiving a sensor signal and controlling opening and/or closing the valve on the basis of the sensor signal, wherein the sensor (20, 21, 22) comprises a resonant circuit. - a receptacle provided with a flow surface and at least one outlet provided with a valve, - a sensor (20, 21, 22) for sensing liquid flow at a sensing location of the flow surface, which sensor (20, 21, 22) is arranged in proximity to said sensing location, - a controller for receiving a sensor signal and controlling opening and/or closing the valve on the basis of the sensor signal,
Method for producing an argon-rich stream from a mixture formed by a purge fluid in an ammonia production plant and containing hydrogen, methane, nitrogen and argon wherein: i) the mixture is separated by at least one phase separator (7, 17) to produce at least a hydrogen-enriched gas and a hydrogen-depleted liquid ii) at least one portion of the hydrogen-depleted liquid is sent to a separation element to form an overhead gas and a bottoms liquid iii) at least one portion of the bottoms liquid of the separation element is sent to a methane separation column to produce a methane-enriched bottoms liquid and a methane-depleted overhead gas iv) at least one portion of the methane-depleted overhead gas is sent to a nitrogen/argon separation column to form a nitrogen-enriched fluid as overhead of said column and an argon-rich liquid as bottoms of said column serving as product characterised in that the separation element is a methane scrubbing column, the bottoms liquid of the separation element sent to the methane separation column is a bottoms liquid of the methane scrubbing column, the at least one portion of the hydrogen-depleted liquid is sent to the bottoms of the scrubbing column and at least one portion of the methane-enriched bottoms liquid is sent to the overhead of the methane scrubbing column. i) the mixture is separated by at least one phase separator (7, 17) to produce at least a hydrogen-enriched gas and a hydrogen-depleted liquid ii) at least one portion of the hydrogen-depleted liquid is sent to a separation element to form an overhead gas and a bottoms liquid iii) at least one portion of the bottoms liquid of the separation element is sent to a methane separation column to produce a methane-enriched bottoms liquid and a methane-depleted overhead gas iv) at least one portion of the methane-depleted overhead gas is sent to a nitrogen/argon separation column to form a nitrogen-enriched fluid as overhead of said column and an argon-rich liquid as bottoms of said column serving as product
A method for producing a twin rail comprising at least two rails, viz. a first rail and a second rail, each rail having two flanks defining therebetween an opening slot through which an engaging mounting element can be introduced in the rail (2, 3), the twin rail being assembled from two profiles (6, 7), which each extend over the entire length of the twin rail and which are each produced from a profiled, stripshaped sheet metal, characterized in that, during or after the production of the profile, fastening portions are bent out from the sheet metal, said fastening portions being spaced apart in the longitudinal direction of the future twin rail, and the two profiles (6, 7) being connected to one another by fastening the fastening portions of a first profile to the fastening portions of a second profile.
An integrated circuit which, in operation, controls a process of a transmitting device for determining radio resources to be used for a data transmission from the transmitting device via a sidelink interface to one or more receiving devices, wherein the process comprises: performing a resource sensing procedure so as to acquire information about radio resources usable for the transmitting device to transmit data at a later point in time, after data becomes available for transmission, performing an autonomous radio resource allocation to select radio resources within a transmission window to be used for transmitting the data, based on the information acquired by the resource sensing procedure during a sensing window before the data became available for transmission, and wherein the autonomous radio resource allocation comprises selecting radio resources in primary subframes of the transmission window preferably over radio resources in secondary subframes of the transmission window, and wherein the secondary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did not perform the resource sensing procedure, and the primary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did perform the resource sensing procedure. performing a resource sensing procedure so as to acquire information about radio resources usable for the transmitting device to transmit data at a later point in time, after data becomes available for transmission, performing an autonomous radio resource allocation to select radio resources within a transmission window to be used for transmitting the data, based on the information acquired by the resource sensing procedure during a sensing window before the data became available for transmission, and wherein the autonomous radio resource allocation comprises selecting radio resources in primary subframes of the transmission window preferably over radio resources in secondary subframes of the transmission window, and wherein the secondary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did not perform the resource sensing procedure, and the primary subframes in the transmission window correspond to those subframes in the sensing window during which the transmitting device did perform the resource sensing procedure.
Tool (1, 31, 33) for fine machining of surfaces such as cleaning, grinding or polishing, comprising a work equipment carrier (2, 27) which, on a component side, supports an assemblage of individually replaceable strip-shaped slat holders having clustered or individual slats, which are each oriented away from the work equipment carrier (2, 27), characterised in that the slat holders, on the side thereof which faces the component side of the work equipment carrier (2, 27), and the work equipment carrier (2, 27), on the component side, are provided with hook elements (8, 29) and hook receptacles (9, 28), respectively, which can be brought together so as to be complementary to one another and to be perpendicular to the component side, the slat holders being supplied to the working equipment carrier (2, 27) from the component side.
A fluorinated copolymer composition comprising an ethylene/tetrafluoroethylene copolymer and copper oxide, wherein the ethylene/tetrafluoroethylene copolymer has repeating units based on ethylene, repeating units based on tetrafluoroethylene and repeating units based on another monomer excluding ethylene and tetrafluoroethylene, copolymerizable with ethylene and tetrafluoroethylene, in a molar ratio of the repeating units based on ethylene to the repeating units based on tetrafluoroethylene of from 38/62 to 44/56, and contains the repeating units based on another monomer in an amount of from 0.1 to 2.6 mol% in all the repeating units of the ethylene/tetrafluoroethylene copolymer; the content of the copper oxide is from 0.5 to 5 ppm based on the ethylene/tetrafluoroethylene copolymer; and the volume flow rate of the fluorinated copolymer composition at 297°C is from 15 to 150 g/10 min measured using a melt flow tester manufactured by TechnoSeven Co., Ltd. under a load of 5 kg at a temperature of 297°C.