mhurhangee/ep-ind-claims huggingface dataset:
Hydraulic steering system comprising a steering unit and a priority valve, said steering unit comprising a working port arrangement (L, R) having two working ports, a supply port arrangement (P, T) having a high pressure port and a low pressure port, a load sensing port, a main flow path having a main bleed and a metering device and being arranged between said high pressure port and said working port arrangement (L, R), an amplification flow path having an amplification bleed (Au) and being arranged between said high pressure port and said working port arrangement (L, R), said main bleed and said amplification bleed (Au) being controlled together by means of a steering handle and being closed in neutral position of said steering handle, wherein said priority valve comprises a priority outlet connected to said high pressure port of said steering unit, a valve element moveable in a priority direction to connect an inlet of said priority valve to said priority outlet, and a load sensing connection connected to said load sensing port of said steering unit, said priority outlet being connected to said load sensing connection via a priority valve bleed, a pressure at a point downstream said priority bleed acting on said valve element in said priority direction, wherein said load sensing port is connected to said low pressure port via a drain bleed (Ad) being open in neutral position of said steering handle and closing upon actuation of said steering handle out of said neutral position, characterized in that the drain bleed (Ad) closes gradually over the entire control range while the main bleed and the amplification bleed (Au) open in parallel.
Printing system for producing a digital printed image, in particular on a textile, having a data server which is designed to receive image data of a print order via a network, the internet, from an external storage medium or in the form of a print order directly produced on the data server, different printing apparatuses with respectively at least one digital print head, in particular an inkjet print head, which is designed to receive and print at least one print file for a print order, and a first raster image processor module which is provided on the data server and designed to make available the received image data of the print order as a converted file format that can be read and processed in the form of the digital printed image by the printing apparatuses, wherein the image data in the converted file format can be transmitted to the printing apparatuses, characterized in that each of the printing apparatuses in each case has a second raster image processor module which is adapted to the respective printing apparatus and designed in each case to adapt the image data in the converted file format in a printer-specific manner prior to the printing of the corresponding digital printed image and in that the printing apparatuses have reproduction means which are designed to display graphically and/or numerically the transmitted image data in the converted file format as a preliminary printed image to be expected.
Control unit comprising a printed circuit board which has a first plug element which is designed to be joined to a second plug element to form a plug connection, wherein the printed circuit board has a first side, which is equipped with first components and has conductor tracks, and a second side, and wherein the first plug element is securely mechanically connected to the first side of the printed circuit board in a contact and fastening region of the first side, and has first electrical contacts which are electrically conductively connected to at least one of the first components by metal structures running on or within the printed circuit board, and wherein the first plug element is designed to be securely mechanically connected to the second plug element, wherein on one side of the printed circuit board, opposite the region of the printed circuit board on which the first contacts are arranged, at least one spacer is located, which is designed in terms of its shape and arrangement to limit a bending of the printed circuit board in a first direction (-Z), which occurs when the first plug element and the second plug element are plugged together, wherein the control unit has a housing which delimits an interior of the control unit, and in that the printed circuit board is arranged in the housing such that the printed circuit board divides the interior into a first interior region delimited by the first side and a second interior region delimited by the second side, wherein electrical contacts of the first plug element that are designed to produce the plug connection lie entirely in the first interior region of the control unit, wherein the control unit has a pin holder in which portions of the first contacts are embedded, and wherein the pin holder is supported on the inner face of the control unit housing in abutment therewith, characterized in that the pin holder is electrically insulating and is supported on the inner face of the control unit housing in abutment therewith in such a way that forces that occur when the plug connection is released are absorbed and deformation of the printed circuit board in a second direction (+z) opposite the first direction (-z) is prevented, in that the second side has a contact and fastening region which is opposite the contact and fastening region of the first side and in which second electrical components are arranged and/or in which conductor tracks run, in that soldering pads, to which first contacts are soldered, are arranged on the first side of the printed circuit board, wherein the first contacts are SMD soldering contacts that do not pass through the printed circuit board.
A method comprising: receiving, by a wireless device, one or more radio resource control messages (2715, 2815, 2915, 3515, 3715) comprising configuration parameters for a plurality of cells, wherein the configuration parameters comprise: at least one first parameter indicating a first power saving mode associated with a cross-slot scheduling for a first cell of the plurality of cells; and at least one second parameter indicating a second power saving mode associated with a cross-slot scheduling for a second cell of the plurality of cells, wherein the second cell is different from the first cell; receiving downlink control information, DCI, (2730, 2830, 2930, 3210, 3530, 3730, 3830, 3915, 4015, 4125, 4210) indicating the first power saving mode associated with the cross-slot scheduling for the first cell; and based on a determination that physical downlink shared channel, PDSCH, resources are associated with the cross-slot scheduling for the first cell: receiving, via at least one PDSCH resource, of the PDSCH resources associated with the cross-slot scheduling for the first cell, and based on application of the at least one first parameter associated with the cross-slot scheduling for the first cell, at least one downlink transport block (3545, 3745, 3835, 4140, 4260). receiving, by a wireless device, one or more radio resource control messages (2715, 2815, 2915, 3515, 3715) comprising configuration parameters for a plurality of cells, wherein the configuration parameters comprise: at least one first parameter indicating a first power saving mode associated with a cross-slot scheduling for a first cell of the plurality of cells; and at least one second parameter indicating a second power saving mode associated with a cross-slot scheduling for a second cell of the plurality of cells, wherein the second cell is different from the first cell; at least one first parameter indicating a first power saving mode associated with a cross-slot scheduling for a first cell of the plurality of cells; and at least one second parameter indicating a second power saving mode associated with a cross-slot scheduling for a second cell of the plurality of cells, wherein the second cell is different from the first cell; receiving downlink control information, DCI, (2730, 2830, 2930, 3210, 3530, 3730, 3830, 3915, 4015, 4125, 4210) indicating the first power saving mode associated with the cross-slot scheduling for the first cell; and based on a determination that physical downlink shared channel, PDSCH, resources are associated with the cross-slot scheduling for the first cell: receiving, via at least one PDSCH resource, of the PDSCH resources associated with the cross-slot scheduling for the first cell, and based on application of the at least one first parameter associated with the cross-slot scheduling for the first cell, at least one downlink transport block (3545, 3745, 3835, 4140, 4260).
A self-vector having a nucleic acid sequence at least 95% identical to SEQ ID NO:1 (BHT-3021) for use in reducing the frequency of CD8 T cells reactive to proinsulin in a method for the treatment or prevention of insulin-dependent diabetes mellitus (IDDM) in a subject.
An endoscopic surgical device, comprising: a rotating spool assembly having a hub, an arm contiguous with the hub, and a rotating spool inserted through the arm, the hub having an opening formed therein; a valve assembly having a mating stem member, a sealing member, and a flushing port member, the mating stem member having a lumen extending through a longitudinal center thereof and having the sealing member extending thereacross, the lumen being aligned on a proximal end of the mating stem member with the opening in the rotating spool assembly, and the valve assembly being coupled to a distal end of the rotating spool assembly; characterised by a braided cord having first and second single filaments, the single filaments being braided together at a proximal end of the braided cord and separated at a distal end of the braided cord, the proximal end of the braided cord being configured to attach to the rotating spool, the distal end of the braided cord being configured to pass through the lumen of the mating stem member, a plurality of beads being formed along a length of each of the first and second single filaments at the distal end of the braided cord, the plurality of beads being positioned such that no two beads are at a same distance from the proximal end of the braided cord. a rotating spool assembly having a hub, an arm contiguous with the hub, and a rotating spool inserted through the arm, the hub having an opening formed therein; a valve assembly having a mating stem member, a sealing member, and a flushing port member, the mating stem member having a lumen extending through a longitudinal center thereof and having the sealing member extending thereacross, the lumen being aligned on a proximal end of the mating stem member with the opening in the rotating spool assembly, and the valve assembly being coupled to a distal end of the rotating spool assembly; characterised by a braided cord having first and second single filaments, the single filaments being braided together at a proximal end of the braided cord and separated at a distal end of the braided cord, the proximal end of the braided cord being configured to attach to the rotating spool, the distal end of the braided cord being configured to pass through the lumen of the mating stem member, a plurality of beads being formed along a length of each of the first and second single filaments at the distal end of the braided cord, the plurality of beads being positioned such that no two beads are at a same distance from the proximal end of the braided cord.
A structural joint, comprising: a first tubular structural member (12, 86) having a first mating face at one end of the first structural member (12, 86), the first mating face having a two dimensional profile; a second tubular structural member having a second mating face at one end of the second structural member and positioned proximate to the first mating face of the first structural member (12, 86), the second mating face having a two dimensional profile that is similar to the two dimensional profile of the first mating face; a splice plate (14, 88) secured to the first structural member (12, 86) at the first mating face and removably secured to the second structural member at the second mating face and/or a splice plate (14,88) secured to the second structural member at the second mating face and removably secured to the first structural member (12, 86) at the first mating face; and fasteners which removably attach the splice plate (14, 88) to the first and/or second structural member (12, 88,10), wherein a portion of the two dimensional profile of the second mating face rests on a portion of the two dimensional profile of the first mating face of the first structural member when the second structural member is positioned proximate to the first structural member such that the two dimensional profiles have a nesting nature. a first tubular structural member (12, 86) having a first mating face at one end of the first structural member (12, 86), the first mating face having a two dimensional profile; a second tubular structural member having a second mating face at one end of the second structural member and positioned proximate to the first mating face of the first structural member (12, 86), the second mating face having a two dimensional profile that is similar to the two dimensional profile of the first mating face; a splice plate (14, 88) secured to the first structural member (12, 86) at the first mating face and removably secured to the second structural member at the second mating face and/or a splice plate (14,88) secured to the second structural member at the second mating face and removably secured to the first structural member (12, 86) at the first mating face; and fasteners which removably attach the splice plate (14, 88) to the first and/or second structural member (12, 88,10), wherein a portion of the two dimensional profile of the second mating face rests on a portion of the two dimensional profile of the first mating face of the first structural member when the second structural member is positioned proximate to the first structural member such that the two dimensional profiles have a nesting nature.
A multi-attachment accessory holder, comprising: a main body; and a magnet tray on the main body configured to hold a magnet; and an ancillary accessory configured to removably attach the multi-attachment accessory holder to an object; characterised in that the multi-attachment accessory holder comprises: one or more coupling points on the main body for attaching the ancillary accessory to the main body; and a dowel pin on a first end of the ancillary accessory; wherein at least one of the one or more coupling points comprises a receiving portion to accept the dowel pin; and wherein the main body is configured to couple a first side of the main body to a welding accessory. a main body; and a magnet tray on the main body configured to hold a magnet; and an ancillary accessory configured to removably attach the multi-attachment accessory holder to an object; characterised in that the multi-attachment accessory holder comprises: one or more coupling points on the main body for attaching the ancillary accessory to the main body; and a dowel pin on a first end of the ancillary accessory; wherein at least one of the one or more coupling points comprises a receiving portion to accept the dowel pin; and wherein the main body is configured to couple a first side of the main body to a welding accessory. one or more coupling points on the main body for attaching the ancillary accessory to the main body; and a dowel pin on a first end of the ancillary accessory; wherein at least one of the one or more coupling points comprises a receiving portion to accept the dowel pin; and wherein the main body is configured to couple a first side of the main body to a welding accessory.
A method of boot time determination of calibration parameters for an external memory component coupled to a circuit, the circuit comprising a primary SoC and a secondary SoC, wherein the external memory component is off-chip to the primary and secondary SoCs and is coupled to the secondary SoC and wherein the calibration parameters comprise timing parameters for communicating between a CPU of the secondary SoC and the external memory component across frequency and voltage, the method comprising: controlling boot of the secondary SoC by the primary SoC; receiving previous calibration parameters and a corresponding checksum and/or authentication tag for the external memory component at the secondary SoC from the primary SoC, wherein the secondary SoC is configured to calibrate the external memory component; determining validity of the previous calibration parameters by the secondary SoC by calculating a checksum and/or authentication tag for the previous calibration parameters and determining if the calculated checksum and/or authentication tag matches the received checksum and/or authentication tag; if the previous calibration parameters are determined to be valid, operating the external memory component by the secondary SoC based on the previous calibration parameters; and if the previous calibration parameters are determined to be invalid, determining new calibration parameters for the external memory component by the secondary SoC and operating the external memory component using the new calibration parameters. controlling boot of the secondary SoC by the primary SoC; receiving previous calibration parameters and a corresponding checksum and/or authentication tag for the external memory component at the secondary SoC from the primary SoC, wherein the secondary SoC is configured to calibrate the external memory component; determining validity of the previous calibration parameters by the secondary SoC by calculating a checksum and/or authentication tag for the previous calibration parameters and determining if the calculated checksum and/or authentication tag matches the received checksum and/or authentication tag; if the previous calibration parameters are determined to be valid, operating the external memory component by the secondary SoC based on the previous calibration parameters; and if the previous calibration parameters are determined to be invalid, determining new calibration parameters for the external memory component by the secondary SoC and operating the external memory component using the new calibration parameters.
A method for relay transmission, the method being applied to a relay user equipment, UE, and comprising: receiving (S301, S401) a first message transmitted by a network device, the first message containing information of a back-off, BO, timer, and the BO timer being used for congestion control; and during running of the BO timer, restraining from performing a relay service for a remote UE; characterized in that restraining from performing the relay service for the remote UE comprises: restraining from transmitting a message used for device discovering; and restraining from responding to a message for searching the relay UE transmitted by a remote UE. receiving (S301, S401) a first message transmitted by a network device, the first message containing information of a back-off, BO, timer, and the BO timer being used for congestion control; and during running of the BO timer, restraining from performing a relay service for a remote UE; characterized in that restraining from performing the relay service for the remote UE comprises: restraining from transmitting a message used for device discovering; and restraining from responding to a message for searching the relay UE transmitted by a remote UE. restraining from transmitting a message used for device discovering; and restraining from responding to a message for searching the relay UE transmitted by a remote UE.
An onboard automatic parking system for a vehicle comprising: an automatic parking unit (20; 120; 220) suited to control a maneuver of the vehicle in or out of a park area secured by a remotely controlled access system; a communication circuit (14; 114; 214) suited to send a wireless instruction for operating the access system; and a human machine interface (30; 130; 230) suited to monitor the communication circuit (14; 114; 214) to send the wireless instruction upon actuation of the human machine interface (30; 130; 230), wherein transmission of the wireless instruction by the data communication circuit is synchronized with the maneuver; wherein the automatic parking unit computes an appropriate time to operate the access system; wherein the automatic parking unit communicates said appropriate time to the human machine interface such that the human machine interface controls operation of the access system at said appropriate time; wherein the human machine interface (30; 130; 230) is also suited to command the automatic parking unit (20; 120; 220) that controls the maneuver subsequent to actuation of said human machine interface (30; 130; 230). an automatic parking unit (20; 120; 220) suited to control a maneuver of the vehicle in or out of a park area secured by a remotely controlled access system; a communication circuit (14; 114; 214) suited to send a wireless instruction for operating the access system; and a human machine interface (30; 130; 230) suited to monitor the communication circuit (14; 114; 214) to send the wireless instruction upon actuation of the human machine interface (30; 130; 230), wherein transmission of the wireless instruction by the data communication circuit is synchronized with the maneuver; wherein the automatic parking unit computes an appropriate time to operate the access system; wherein the automatic parking unit communicates said appropriate time to the human machine interface such that the human machine interface controls operation of the access system at said appropriate time; wherein the human machine interface (30; 130; 230) is also suited to command the automatic parking unit (20; 120; 220) that controls the maneuver subsequent to actuation of said human machine interface (30; 130; 230).
Device for manufacturing a book on demand, comprising: - a cover printing or receiving station arranged to respectively print or receive a cover, - a book block printing or receiving station arranged to respectively print or receive a book block, - a binding station arranged to assemble the book block and the cover, - transport means arranged and/or programmed to transport the cover and/or the book block between the different stations, said device being arranged to deposit adhesive on an adhesive bonding area of the cover inside the binding station before adhesive bonding of the cover and the book block, forming a book the device comprising heating means arranged to heat and/or maintain at a heated temperature adhesive deposited on the adhesive bonding area of the cover before adhesive bonding of the cover and the book block, the device being characterized in that the heating means comprise: - means for generating heat, - a mouth arranged to limit the extent of the diffusion of this heat, - a controller arranged and/or programmed to control an opening of the mouth as a function of a quantity and/or a width of adhesive deposited on the adhesive bonding area and/or as a function of a thickness of the book block. - a cover printing or receiving station arranged to respectively print or receive a cover, - a book block printing or receiving station arranged to respectively print or receive a book block, - a binding station arranged to assemble the book block and the cover, - transport means arranged and/or programmed to transport the cover and/or the book block between the different stations, said device being arranged to deposit adhesive on an adhesive bonding area of the cover inside the binding station before adhesive bonding of the cover and the book block, forming a book - means for generating heat, - a mouth arranged to limit the extent of the diffusion of this heat, - a controller arranged and/or programmed to control an opening of the mouth as a function of a quantity and/or a width of adhesive deposited on the adhesive bonding area and/or as a function of a thickness of the book block.