mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling play of a multimedia file, applied to a terminal device comprising a first screen and a second screen, comprising: receiving a bending input by a user to a target screen, the bending input being used to trigger changing of a folding angle between the first screen and the second screen; and adjusting a play parameter of a target multimedia file in response to the bending input, wherein the target screen is the first screen or the second screen, and the play parameter comprises play progress and/or play speed; and the method for controlling play of a multimedia file being characterized in that when the play parameter comprises a play progress and is adjusted based on a bending direction and a folding angle variation value of the bending input, for fast forward adjustment, fast forward duration is correlated with the folding angle variation value, and for fast backward adjustment, fast backward duration is correlated with the folding angle variation value; when the play parameter comprises the play progress and a play speed and is adjusted based on the bending direction, a bending speed and the folding angle variation value of the bending input, for the fast forward adjustment, a fast forward rate is correlated with the bending speed, and the fast forward duration is correlated with the folding angle variation value, for the fast backward adjustment, a fast backward rate is correlated with the bending speed, and the fast backward duration is correlated with the folding angle variation value. receiving a bending input by a user to a target screen, the bending input being used to trigger changing of a folding angle between the first screen and the second screen; and adjusting a play parameter of a target multimedia file in response to the bending input, wherein the target screen is the first screen or the second screen, and the play parameter comprises play progress and/or play speed; and the method for controlling play of a multimedia file being characterized in that when the play parameter comprises a play progress and is adjusted based on a bending direction and a folding angle variation value of the bending input, for fast forward adjustment, fast forward duration is correlated with the folding angle variation value, and for fast backward adjustment, fast backward duration is correlated with the folding angle variation value; when the play parameter comprises the play progress and a play speed and is adjusted based on the bending direction, a bending speed and the folding angle variation value of the bending input, for the fast forward adjustment, a fast forward rate is correlated with the bending speed, and the fast forward duration is correlated with the folding angle variation value, for the fast backward adjustment, a fast backward rate is correlated with the bending speed, and the fast backward duration is correlated with the folding angle variation value.
Method for managing, in a receiving entity (CL), data packets (I(i); Seg(i)) received from a transport layer connection set up with a sending entity (SRV), the connection comprising at least one stream in connected mode (Sf1), termed a first stream, and at least one stream in connectionless mode (Sf2, Sf3), termed a second stream, the management method being characterized in that it comprises a step of the receiving entity sending (E20; F20) a message (Ret I(i); Ret(i)), termed a return message, relating to at least one data packet of one of the first and second streams, the return message being sent to the sending entity on the second stream if the return message relates to at least one data packet (I(i)) of the first stream, and on the first stream if the return message relates to at least one data packet (Seg(i)) of the second stream.
A thermoplastic resin composition comprising 18 to 44 parts by mass of a copolymer (A) and 56 to 82 parts by mass of a copolymer (B) so that the total thereof is 100 parts by mass, and further comprising 0.1 to 0.3 parts by mass of an alkaline earth metal oxide (M) with respect to 100 parts by mass of the total of the graft copolymer (A) and the copolymer (B), wherein the graft copolymer (A) is a graft copolymer obtained by graft copolymerization of 35 to 65 parts by mass of a monomer mixture (II) containing 60 to 95 percent by mass of an aromatic vinyl based monomer and 5 to 40 percent by mass of a vinyl cyanide based monomer in the presence of 35 to 65 parts by mass of a composite rubber polymer (I), the polymer (I) being composed of 5 to 90 percent by mass of a diene rubber (i) and 95 to 10 percent by mass of a cross-linked acrylic acid ester polymer (ii), the rubber (i) being obtained by using a small particulate diene rubber and an acid group-containing copolymer, the polymer (I) having a mass average particle diameter of 180 to 500 nm, and the total of the composite rubber polymer (I) and the monomer mixture (II) being 100 parts by mass; and the copolymer (B) is a copolymer obtained by polymerization of a monomer mixture containing 60 to 95 percent by mass of an aromatic vinyl based monomer and 5 to 40 percent by mass of a vinyl cyanide based monomer.
An axial piston pump, comprising: a cylinder block having one or more cylinder bores ; and one or more piston assemblies; wherein number of piston assemblies matches number of cylinder bores ; wherein each of the piston assemblies having a piston being disposed reciprocating in each of the cylinder bores ; each piston being fitted with a metallic sealing ring, which is a helical spring tube type dynamic rotary seal , for reducing leakage and keeping concentric of the piston within its corresponding cylinder bore ; characterized in that the helical spring tube type dynamic rotary seal comprising C-shaped partial rings having male and female dovetails on two ends of each C-shaped partial ring ; wherein the C-shaped partial rings being progressively joined by the male and female dovetails to form a helical spring tube type dynamic rotary seal ; and wherein the helical spring tube type dynamic rotary seal being further grinded on the inner diameter and outer diameter of the helical spring tube type dynamic rotary seal to make four different diameter circles, with two of the diameter circles on the inside and two of the diameter circles on the outside of the helical spring tube type dynamic rotary seal to form a seal assembly. a cylinder block having one or more cylinder bores ; and one or more piston assemblies; wherein number of piston assemblies matches number of cylinder bores ; wherein each of the piston assemblies having a piston being disposed reciprocating in each of the cylinder bores ; each piston being fitted with a metallic sealing ring, which is a helical spring tube type dynamic rotary seal , for reducing leakage and keeping concentric of the piston within its corresponding cylinder bore ; characterized in that the helical spring tube type dynamic rotary seal comprising C-shaped partial rings having male and female dovetails on two ends of each C-shaped partial ring ; wherein the C-shaped partial rings being progressively joined by the male and female dovetails to form a helical spring tube type dynamic rotary seal ; and wherein the helical spring tube type dynamic rotary seal being further grinded on the inner diameter and outer diameter of the helical spring tube type dynamic rotary seal to make four different diameter circles, with two of the diameter circles on the inside and two of the diameter circles on the outside of the helical spring tube type dynamic rotary seal to form a seal assembly.
A signal transmission method, comprising: determining , by user equipment, UE, a feature parameter of the UE, wherein the feature parameter of the UE comprises at least one of the following: an index of a reference signal received power range, an index of a coverage enhancement range, a service type , a delay requirement and a power saving requirement; and determining , by the UE, according to a preset correspondence between the feature parameter and a function of a physical uplink control channel, PUCCH, which the UE supports using, a function of the PUCCH which the UE supports using, which is corresponding to the feature parameter of the UE ; and the preset correspondence between the feature parameter and a function of the PUCCH which the UE supports using is: if the feature parameter belongs to a first feature parameter set, the UE supports using a function in a first function set of the PUCCH, and if the feature parameter belongs to a second feature parameter set, the UE supports using a function in a second function set of the PUCCH, wherein the function in the first function set and the function in the second function set are not completely the same; wherein functions in the first function set of the PUCCH includes: a function of reporting channel quality information, a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received; and wherein functions in the second function set of PUCCH includes: a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received. an index of a reference signal received power range, an index of a coverage enhancement range, a service type , a delay requirement and a power saving requirement; and determining , by the UE, according to a preset correspondence between the feature parameter and a function of a physical uplink control channel, PUCCH, which the UE supports using, a function of the PUCCH which the UE supports using, which is corresponding to the feature parameter of the UE ; and the preset correspondence between the feature parameter and a function of the PUCCH which the UE supports using is: if the feature parameter belongs to a first feature parameter set, the UE supports using a function in a first function set of the PUCCH, and if the feature parameter belongs to a second feature parameter set, the UE supports using a function in a second function set of the PUCCH, wherein the function in the first function set and the function in the second function set are not completely the same; wherein functions in the first function set of the PUCCH includes: a function of reporting channel quality information, a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received; and wherein functions in the second function set of PUCCH includes: a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received.
A method performed by a base unit, the method comprising: transmitting higher layer parameters to configure two or more sounding reference signal, SRS, resource sets for a non-codebook based physical uplink share channel, PUSCH, transmission, wherein each SRS resource set is associated with a non-zero power, NZP, channel state information reference signal, CSI-RS; and transmitting one downlink control information, DCI, including two or more SRS indicator, SRI, fields for indicating the SRS resources defined in each corresponding SRS resource set, wherein all of the SRS resources in the same SRS resource set are configured with the same spatial relation information. transmitting higher layer parameters to configure two or more sounding reference signal, SRS, resource sets for a non-codebook based physical uplink share channel, PUSCH, transmission, wherein each SRS resource set is associated with a non-zero power, NZP, channel state information reference signal, CSI-RS; and transmitting one downlink control information, DCI, including two or more SRS indicator, SRI, fields for indicating the SRS resources defined in each corresponding SRS resource set, wherein all of the SRS resources in the same SRS resource set are configured with the same spatial relation information.
An assembly for dividing up rotor blades for wind turbines, having a dividing unit , to which a rotor blade can be fed via a feed device and which comprises a handling robot and a sensor device such that the handling robot is combined with a device for carrying out a jet cutting process having a jet cutting nozzle assembly which outputs a cutting medium and can be positioned inside a working space which is accessible by the robot kinematics of the handling robot and can be sensed by the sensor device to generate spatially resolved sensor signals, a control unit being provided which is data-connected to the sensor device and controls the handling robot on the basis of the spatially resolved sensor signals, the device for carrying out the jet cutting process comprising the jet cutting nozzle assembly attached to the end manipulator arm of the handling robot , a high-pressure pipe connected to said jet cutting nozzle assembly in a fluid-tight manner, and a high-pressure pump , which is connected to the high-pressure pipe and is connected to or can be connected via a fluid interface to a reservoir storing the cutting medium, the working space providing a floor region in which a collection basin is arranged, which is connected to a processing system in which the cutting medium is cleaned of material particles and which feeds the cleaned cutting medium via a line directly or indirectly to the device for carrying out the jet cutting process, characterised in that a) the dividing unit , comprising the handling robot , the sensor device , the device for carrying out the jet cutting process, comprising the jet cutting nozzle assembly , the high-pressure pipe connected to the latter in a fluid-tight manner, and the high-pressure pump connected to the high-pressure pipe, b) the control unit , and c) the processing system for the cutting medium are designed in terms of size, weight and arrangement such that the dividing unit and control unit and processing unit are arranged on a street-legal, mobile platform for the purposes of transport, and that the feed device provides a cable pull device and a support for the rotor blade . a) the dividing unit , comprising the handling robot , the sensor device , the device for carrying out the jet cutting process, comprising the jet cutting nozzle assembly , the high-pressure pipe connected to the latter in a fluid-tight manner, and the high-pressure pump connected to the high-pressure pipe, b) the control unit , and c) the processing system for the cutting medium are designed in terms of size, weight and arrangement such that the dividing unit and control unit and processing unit are arranged on a street-legal, mobile platform for the purposes of transport, and that the feed device provides a cable pull device and a support for the rotor blade .
An anti-human PD-1-binding monospecific monoclonal antibody that comprises a Variable Heavy Chain Domain and a Variable Light Chain Domain, wherein: said Variable Heavy Chain Domain comprises the amino acid sequence of SEQ ID NO: 147, and said Variable Light Chain Domain comprises the amino acid sequence of SEQ ID NO: 153 for use in combination with one or more additional molecules that are effective in stimulating an immune response, wherein said one or more additional molecules are antibodies, in stimulating a T-cell mediated immune response of a subject in need thereof.
Compacting device for a drafting system of a spinning machine, in particular a ring spinning machine, for compacting a drafted sliver, comprising a compacting zone, in which a suction flow is produced perpendicularly to the fibre transport direction by means of a suction opening , wherein the compacting device comprises a suction shoe having the suction opening , a compacting apron which wraps around an output top roller and the suction shoe in the region of the suction opening and has defined through-openings which are permeable to the suction flow, and an output bottom roller which bears against the compacting apron in the region of the output top roller , with a compacting element having a guide roller , which can be arranged in the region of the compacting zone opposite the suction opening so as to be rotatable in the fibre transport direction that the sliver comes into engagement with the guide roller , wherein the guide roller in engagement with the sliver presses the sliver - in relation to the transport direction of the sliver - against the compacting apron in the region in front of the pair of output rollers of the compacting device formed by the output top roller and output bottom roller .
A device, comprising: a scanner disposed in a scan zone to image a medium traveling across the scan zone ; a transparent member disposed over the scan zone ; characterized in that : a media ramp is disposed adjacent to the scan zone to direct the medium to an exit; and a first film element is disposed underneath the transparent member and adjacent to the scan zone at a first end and disposed to extend over at least a portion of the media ramp at a second end. a scanner disposed in a scan zone to image a medium traveling across the scan zone ; a transparent member disposed over the scan zone ; characterized in that : a media ramp is disposed adjacent to the scan zone to direct the medium to an exit; and a first film element is disposed underneath the transparent member and adjacent to the scan zone at a first end and disposed to extend over at least a portion of the media ramp at a second end. a media ramp is disposed adjacent to the scan zone to direct the medium to an exit; and a first film element is disposed underneath the transparent member and adjacent to the scan zone at a first end and disposed to extend over at least a portion of the media ramp at a second end.
A securing device for securing a front panel of a drawer to a drawer frame, having a holding element for securing to the front panel and a closing element for securing to the drawer frame, the closing element comprising a support and a closure having a holding segment supported rotatably about an axis of rotation on the support , a spring having an operative connection to the closure , and the closure being implemented for exposing a holding region of the holding element in an open rotational position of the closure , and for blocking the holding region in a closed position of the closure , wherein a transmission element is hinged to the closure by means of a rotating/sliding connection on the closure side spaced apart from the axis of rotation of the closure , wherein a rotating/sliding connection on the opener side having a first bearing element is disposed on the transmission element opposite the rotating/sliding connection on the closure side, wherein the rotating/sliding connection on the opener side produces a connection to a displaceably supported opener , wherein the rotating/sliding connection on the opener side comprises a first and a second control curve on which the first bearing element is guided, and wherein the two control curves intersect, characterized in that the rotating/sliding connection on the closure side comprises a first and a second guide curve , and that the two guide curves intersect. the closing element comprising a support and a closure having a holding segment supported rotatably about an axis of rotation on the support , a spring having an operative connection to the closure , and the closure being implemented for exposing a holding region of the holding element in an open rotational position of the closure , and for blocking the holding region in a closed position of the closure , wherein a transmission element is hinged to the closure by means of a rotating/sliding connection on the closure side spaced apart from the axis of rotation of the closure , wherein a rotating/sliding connection on the opener side having a first bearing element is disposed on the transmission element opposite the rotating/sliding connection on the closure side, wherein the rotating/sliding connection on the opener side produces a connection to a displaceably supported opener , wherein the rotating/sliding connection on the opener side comprises a first and a second control curve on which the first bearing element is guided, and wherein the two control curves intersect, characterized in that the rotating/sliding connection on the closure side comprises a first and a second guide curve , and that the two guide curves intersect.
Method for grinding a saw blade with a saw tooth profile which has an undercut with a rake angle (γ) and a tooth pitch which is repeated in the saw tooth profile and lies in a saw blade plane (E), using a grinding wheel with a wheel axis (A), a wheel plane (F) normal to the wheel axis (A) and a grinding contour which forms the radially outermost edge of the grinding wheel , the method comprising the following steps: - Scanning or traversing the saw tooth profile including the undercut in the area of at least one tooth pitch with the grinding wheel in any worn condition, in that the wheel plane (F) is inclined at the rake angle (γ) and it moves relative to the saw blade , while the wheel axis (A) remains in the saw blade plane (E), whereby the grinding wheel runs point by point or continuously along the entire length of the saw tooth profile of a tooth pitch and touches it at various points along its grinding contour at contact points , - Recording and storing a scanning profile which contains all positions of a virtual, stationary point on the grinding wheel , for example a wheel edge point, when touching at the contact points relative to the saw tooth profile , and together with the current grinding contour has a clearly defined correlation to the saw tooth profile , characterised by - Grinding of the saw blade with the same grinding wheel in the rotating state in all tooth pitches by guiding it along a grinding profile which is offset by a predetermined grinding depth from the scanning profile in the direction of the rake angle (γ). - Scanning or traversing the saw tooth profile including the undercut in the area of at least one tooth pitch with the grinding wheel in any worn condition, in that the wheel plane (F) is inclined at the rake angle (γ) and it moves relative to the saw blade , while the wheel axis (A) remains in the saw blade plane (E), whereby the grinding wheel runs point by point or continuously along the entire length of the saw tooth profile of a tooth pitch and touches it at various points along its grinding contour at contact points , - Recording and storing a scanning profile which contains all positions of a virtual, stationary point on the grinding wheel , for example a wheel edge point, when touching at the contact points relative to the saw tooth profile , and together with the current grinding contour has a clearly defined correlation to the saw tooth profile , characterised by - Grinding of the saw blade with the same grinding wheel in the rotating state in all tooth pitches by guiding it along a grinding profile which is offset by a predetermined grinding depth from the scanning profile in the direction of the rake angle (γ).