mhurhangee/patent-ind-claim-en huggingface dataset:
A method for printing on a plurality of sheets , the method comprising the steps of: a) arranging the plurality of sheets on a support surface of an endless conveyor , the plurality of sheets including a first sheet and a second sheet being arranged at a sheet-to-sheet distance between one another; b) advancing the plurality of sheets on the support surface in a conveying direction along a print head assembly for applying droplets of ink on the sheets; c) providing a suction force through perforations arranged in the support surface for holding the plurality of sheets on the support surface, wherein the suction force provides an air flow through uncovered perforations present in the sheet-to-sheet distance in a print region between the print head assembly and the support surface; d) forming an image by the print head assembly on each of the plurality of sheets supported on the support surface of the conveyor by applying droplets of ink; characterised in that the method further comprises the step of: e) controlling the sheet-to-sheet distance in response to a dew formation attribute for indicating dew formation on the print head assembly. a) arranging the plurality of sheets on a support surface of an endless conveyor , the plurality of sheets including a first sheet and a second sheet being arranged at a sheet-to-sheet distance between one another; b) advancing the plurality of sheets on the support surface in a conveying direction along a print head assembly for applying droplets of ink on the sheets; c) providing a suction force through perforations arranged in the support surface for holding the plurality of sheets on the support surface, wherein the suction force provides an air flow through uncovered perforations present in the sheet-to-sheet distance in a print region between the print head assembly and the support surface; d) forming an image by the print head assembly on each of the plurality of sheets supported on the support surface of the conveyor by applying droplets of ink;
A vector by matrix multiplication, VMM, array comprising: a memory array of non-volatile memory cells arranged in rows and columns and configured to provide inputs to the VMM array on the control gate lines and the output of the VMM array on the source lines, wherein the current placed on each source line performs a summing function of all the memory cells connected to that particular source line; wherein the array comprises a logical cell comprising one or more non-volatile memory cells configured as coarse cells (4001-2, 4001-3) and one or more non-volatile memory cells configured as fine cells (4001-1), wherein during a programming operation one of N possible values is stored and verified in the logical cell by performing coarse programming and not fine programming on the one or more coarse cells (4001-2, 4100-3), performing fine programming on the one or more fine cells (4001-1), and verifying the logical cell has been correctly programmed to the one of N possible values. a memory array of non-volatile memory cells arranged in rows and columns and configured to provide inputs to the VMM array on the control gate lines and the output of the VMM array on the source lines, wherein the current placed on each source line performs a summing function of all the memory cells connected to that particular source line; wherein the array comprises a logical cell comprising one or more non-volatile memory cells configured as coarse cells (4001-2, 4001-3) and one or more non-volatile memory cells configured as fine cells (4001-1), wherein during a programming operation one of N possible values is stored and verified in the logical cell by performing coarse programming and not fine programming on the one or more coarse cells (4001-2, 4100-3), performing fine programming on the one or more fine cells (4001-1), and verifying the logical cell has been correctly programmed to the one of N possible values.
A time measurement method, wherein the method comprises: receiving , by a first device , a first packet from a second device by using a first antenna; transmitting , by the first device , a second packet to the second device by using a second antenna, wherein the first antenna and the second antenna are different antennas in the first device ; characterized by receiving , by the first device , an indication for a first transceiving delay from the second device, wherein the first transceiving delay is a delay from a time at which the second device transmits the first packet to a time at which the second device receives the second packet; and determining , by the first device , a round-trip time between the first device and the second device based on a calibration delay from the second antenna to the first antenna, a recording moment at which the first device receives the first packet, a recording moment at which the first device transmits the second packet, and the first transceiving delay, wherein the calibration delay from the second antenna to the first antenna is a delay in receiving, by the first device by using the first antenna, a wireless signal transmitted by the second antenna. receiving , by a first device , a first packet from a second device by using a first antenna; transmitting , by the first device , a second packet to the second device by using a second antenna, wherein the first antenna and the second antenna are different antennas in the first device ; characterized by receiving , by the first device , an indication for a first transceiving delay from the second device, wherein the first transceiving delay is a delay from a time at which the second device transmits the first packet to a time at which the second device receives the second packet; and determining , by the first device , a round-trip time between the first device and the second device based on a calibration delay from the second antenna to the first antenna, a recording moment at which the first device receives the first packet, a recording moment at which the first device transmits the second packet, and the first transceiving delay, wherein the calibration delay from the second antenna to the first antenna is a delay in receiving, by the first device by using the first antenna, a wireless signal transmitted by the second antenna.
Frame tube protection for detachable attachment to a frame tube to be protected and in particular a down tube of a bicycle frame , comprising in particular a one-piece cover element , which is designed such that it extends along the frame tube to be protected when the frame tube protection is mounted on the bicycle frame and in this case has a mounting side facing towards the frame tube and an outer side facing away from the frame tube , wherein the mounting side has the following: at least one clamping means for fixing at least one cable pull , for example a switching and/or brake cable pull, in a clamping space on the cover element before the frame tube protection is fastened to the frame tube to be protected, characterised by at least one fastening means for detachably fastening the frame tube protection , together with the cable pull fixed in the clamping space , to the frame tube to be protected, wherein the fastening means has at least one fastening extension , which extends from the mounting side of the cover element in direction to the frame tube to be protected and can be introduced into a fastening extension receptacle on the frame tube in a detachably locking manner.
An immunomodulatory protein, comprising at least one affinity modified CD80 immunoglobulin superfamily (IgSF) domain comprising one or more amino acid substitution(s) in a wild-type CD80 IgSF domain, wherein the at least one affinity modified CD80 IgSF domain has increased binding to at least two cognate binding partners compared to the wild-type CD80 IgSF domain, wherein the affinity modified CD80 IgSF domain specifically binds non-competitively to the at least two cognate binding partners and the at least two cognate binding partners are CD28 and PD-L1, and wherein the affinity modified CD80 IgSF domain comprises at least 85% sequence identity to a wild-type CD80 IgSF domain or a specific binding fragment thereof contained in the sequence of amino acids set forth in SEQ ID NO: 1.
A method for processing a print job by a printing system and a finishing system resulting in an end product, the printing system comprising a printer user interface , a print controller , the finishing system being an in-line or near-line finishing system and comprising a finishing controller for controlling the finishing process by means of a collection of finishing templates stored in memory of the finishing controller , and the printing system and the finishing system being connected via a digital connection, the method comprising the steps of - the print controller receiving the print job comprising a plurality of print job settings, - the print controller establishing via the printer user interface of the printing system without using a user interface of the finishing system, an identifier of a finishing template from the collection of finishing templates in accordance with at least one print job setting of the plurality of print job settings, - the print controller sending the established identifier of the finishing template to the finishing system , - the finishing controller receiving the established identifier of the finishing template, - the printing system printing the print job, - the finishing system retrieving the finishing template identified by the received identifier from memory of the finishing controller , - the finishing system preparing a state of the finishing system according to the retrieved finishing template, and - the finishing system finishing the print job according to the retrieved finishing template. - the print controller receiving the print job comprising a plurality of print job settings, - the print controller establishing via the printer user interface of the printing system without using a user interface of the finishing system, an identifier of a finishing template from the collection of finishing templates in accordance with at least one print job setting of the plurality of print job settings, - the print controller sending the established identifier of the finishing template to the finishing system , - the finishing controller receiving the established identifier of the finishing template, - the printing system printing the print job, - the finishing system retrieving the finishing template identified by the received identifier from memory of the finishing controller , - the finishing system preparing a state of the finishing system according to the retrieved finishing template, and - the finishing system finishing the print job according to the retrieved finishing template.
A rack-and-pinion steering apparatus comprising: a rack shaft having rack teeth and configured to move in an axial direction to steer steered wheels of a vehicle; a pinion shaft having pinion teeth and configured to rotate in accordance with steering operation of a steering wheel ; and a housing that supports the rack shaft and the pinion shaft and that houses a meshing area between the rack teeth and the pinion teeth , wherein when the steering wheel is in a neutral position, the pinion teeth mesh with the rack teeth at a rotational position of the pinion shaft , the rotational position minimizing torque required to move the rack shaft in the axial direction during one rotation of the pinion shaft , and the pinion shaft has a pinion-teeth section provided with the pinion teeth , characterized in that a central axis (C) of the pinion shaft is curved, and the rotational position maximizes a distance from the central axis (C) of the pinion-teeth section of the pinion shaft to the rack shaft during the one rotation of the pinion shaft . a rack shaft having rack teeth and configured to move in an axial direction to steer steered wheels of a vehicle; a pinion shaft having pinion teeth and configured to rotate in accordance with steering operation of a steering wheel ; and a housing that supports the rack shaft and the pinion shaft and that houses a meshing area between the rack teeth and the pinion teeth , wherein when the steering wheel is in a neutral position, the pinion teeth mesh with the rack teeth at a rotational position of the pinion shaft , the rotational position minimizing torque required to move the rack shaft in the axial direction during one rotation of the pinion shaft , and the pinion shaft has a pinion-teeth section provided with the pinion teeth , characterized in that a central axis (C) of the pinion shaft is curved, and the rotational position maximizes a distance from the central axis (C) of the pinion-teeth section of the pinion shaft to the rack shaft during the one rotation of the pinion shaft .
A method of coating a substrate comprising: to an assembly comprising a substrate , a porous matrix on the substrate , and an impregnating material on the porous matrix , wherein the porous matrix is in the form of a filter, a sponge, a honeycomb or a foam material, applying an amount of energy from an energy source effective to melt the impregnating material and a portion of the substrate such that the impregnating material impregnates the porous matrix ; and cooling the assembly to provide a coating comprising the impregnated porous matrix integrated with the substrate . wherein the porous matrix comprises a material having a higher melting temperature than that of the impregnating material . to an assembly comprising a substrate , a porous matrix on the substrate , and an impregnating material on the porous matrix , wherein the porous matrix is in the form of a filter, a sponge, a honeycomb or a foam material, applying an amount of energy from an energy source effective to melt the impregnating material and a portion of the substrate such that the impregnating material impregnates the porous matrix ; and cooling the assembly to provide a coating comprising the impregnated porous matrix integrated with the substrate . wherein the porous matrix comprises a material having a higher melting temperature than that of the impregnating material .
A method for controlling a waste heat recovery system associated with a powertrain of a vehicle , the powertrain comprising a combustion engine and a gearbox connected to the combustion engine , the waste heat recovery system comprising a working fluid circuit ; an evaporator ; an expander ; a condenser ; a reservoir for a working fluid (WF) and a pump arranged to pump the working fluid (WF) through the circuit , wherein the evaporator is arranged for heat exchange between the working fluid (WF) and at least one heat source , wherein the waste heat recovery system further comprises a cooling circuit arranged in connection to the condenser , and wherein the expander is mechanically connected to the powertrain , the method comprising the steps of: - predicting (s101) a downhill slope which will require braking of the vehicle; - reducing (s102) the temperature of the evaporator to a predetermined temperature; and - turning off (s103) the pump and thus the waste heat recovery system , characterized in that the step of reducing (s102) the temperature of the evaporator comprises to control the at least one heat source to bypass the evaporator . - predicting (s101) a downhill slope which will require braking of the vehicle; - reducing (s102) the temperature of the evaporator to a predetermined temperature; and - turning off (s103) the pump and thus the waste heat recovery system , characterized in that the step of reducing (s102) the temperature of the evaporator comprises to control the at least one heat source to bypass the evaporator .
Disk tool , in particular disk milling cutter or disk saw with - a disk-shaped basic body that has in the area of its circumferential surface - a multitude of circumferentially spaced, approximately L-shaped recessed seats , respectively with a seat top placed on a leg of the L-shaped seat and a seat bearing placed on the other leg of the L-shaped seat for a form-fitting receiving - of a respective cutting insert with a parallelepipedal or prismatic basic shape comprising at least one cutting edge and a lower contour that interacts with at least one seat top surface of the seat and a frontal contour that interacts with at least one seat bearing surface of the seat for the positive retaining of the cutting insert in the respective seat so that cutting forces arising transversely onto the cutting insert can be absorbed by the respective seat , wherein the seat bearing surface of the seat and a frontal bearing surface of the frontal contour of the cutting insert are designed as flat surfaces in the area of the mutual contact and wherein the respective cutting insert has a through bore extending between the lower contour and an upper surface opposed thereto for receiving a fastening bolt that is removably screwed into an associated threaded bore in the disk-shaped basic body, characterized in that the cutting insert forms an undercut in the area of the frontal contour with the seat in the area of the seat bearing surface in direction of the axis of the threaded bore of the basic body and parallel to the disk plane. - a disk-shaped basic body that has in the area of its circumferential surface - a multitude of circumferentially spaced, approximately L-shaped recessed seats , respectively with a seat top placed on a leg of the L-shaped seat and a seat bearing placed on the other leg of the L-shaped seat for a form-fitting receiving - of a respective cutting insert with a parallelepipedal or prismatic basic shape comprising at least one cutting edge and a lower contour that interacts with at least one seat top surface of the seat and a frontal contour that interacts with at least one seat bearing surface of the seat for the positive retaining of the cutting insert in the respective seat so that cutting forces arising transversely onto the cutting insert can be absorbed by the respective seat , wherein the seat bearing surface of the seat and a frontal bearing surface of the frontal contour of the cutting insert are designed as flat surfaces in the area of the mutual contact and wherein the respective cutting insert has a through bore extending between the lower contour and an upper surface opposed thereto for receiving a fastening bolt that is removably screwed into an associated threaded bore in the disk-shaped basic body, characterized in that the cutting insert forms an undercut in the area of the frontal contour with the seat in the area of the seat bearing surface in direction of the axis of the threaded bore of the basic body and parallel to the disk plane.
A marine propulsion system comprising: a marine propulsion unit including a propulsion generator , an engine configured to drive the propulsion generator , and an electric motor configured to drive the propulsion generator ; a first battery configured to supply power to a starter configured to start the engine ; a second battery configured to supply power to the electric motor ; characterized by a third battery configured to supply power to at least one of a plurality of devices in a marine vessel excluding the starter and the electric motor ; and a charge amount acquisition controller configured or programmed to perform a control to acquire a charge amount of at least one of the first battery , the second battery , or the third battery based on first power (P20, P10, P30) supplied from a power source to the first battery , the second battery , and the third battery , and second power (P11, P21, P31) supplied from the first battery , the second battery , and the third battery to devices in the marine vessel . a marine propulsion unit including a propulsion generator , an engine configured to drive the propulsion generator , and an electric motor configured to drive the propulsion generator ; a first battery configured to supply power to a starter configured to start the engine ; a second battery configured to supply power to the electric motor ; characterized by a third battery configured to supply power to at least one of a plurality of devices in a marine vessel excluding the starter and the electric motor ; and a charge amount acquisition controller configured or programmed to perform a control to acquire a charge amount of at least one of the first battery , the second battery , or the third battery based on first power (P20, P10, P30) supplied from a power source to the first battery , the second battery , and the third battery , and second power (P11, P21, P31) supplied from the first battery , the second battery , and the third battery to devices in the marine vessel .
A method of receiving a downlink signal by a user equipment, UE, from a base station in a wireless communication system supporting an unlicensed band, the method comprising: based on determination that (i) information indicating that a number of occupied symbols for a subframe#n of the unlicensed band is less than 14 is not received in a subframe#n-1 of the unlicensed band and (ii) the UE identifies that the occupied symbols for the subframe#n is less than 14 during the subframe#n, where n is an integer larger than 1, performing a reception of a first physical downlink control channel, PDCCH, comprising uplink scheduling information, in the subframe#n of the unlicensed band. based on determination that (i) information indicating that a number of occupied symbols for a subframe#n of the unlicensed band is less than 14 is not received in a subframe#n-1 of the unlicensed band and (ii) the UE identifies that the occupied symbols for the subframe#n is less than 14 during the subframe#n, where n is an integer larger than 1, performing a reception of a first physical downlink control channel, PDCCH, comprising uplink scheduling information, in the subframe#n of the unlicensed band.
A method for configuring a distributed microphone system comprising a plurality of microphone devices connected via a network, the method comprising: - analyzing first historical audio data received from a first microphone device of the plurality of microphone devices, - analyzing second historical audio data received from a second microphone device of the plurality of microphone devices, - comparing the first historical audio data to the second historical audio data to identify differences between the first historical audio data and the second historical audio data , and - assigning a priority level to the first and/or second microphone device based on the differences between the first historical audio data and the second historical audio data , wherein the priority level is indicative of a priority rule for analyzing future audio data recorded by the first and/or second microphone device, respectively, and/or wherein the priority level is indicative of a communication rule for communicating future audio data from the first and/or second microphone device, respectively, via the network. - analyzing first historical audio data received from a first microphone device of the plurality of microphone devices, - analyzing second historical audio data received from a second microphone device of the plurality of microphone devices, - comparing the first historical audio data to the second historical audio data to identify differences between the first historical audio data and the second historical audio data , and - assigning a priority level to the first and/or second microphone device based on the differences between the first historical audio data and the second historical audio data , wherein the priority level is indicative of a priority rule for analyzing future audio data recorded by the first and/or second microphone device, respectively, and/or wherein the priority level is indicative of a communication rule for communicating future audio data from the first and/or second microphone device, respectively, via the network.