mhurhangee/ep-ind-claims huggingface dataset:
A work vehicle comprising: an engine that is mounted on a traveling body; a straight-traveling system transmission path including a first stepless transmission device; a turning system transmission path including a second stepless transmission device, the work vehicle being configured to combine an output of the straight-traveling system transmission path and an output of the turning system transmission path to drive left and right traveling units; characterized by a control section (813, 814) that controls the output of the straight-traveling system transmission path and the output of the turning system transmission path in cooperation with each other; and a driving force blocking mechanism (537, 539, 541) that blocks driving force transfer from the straight-traveling system transmission path, wherein in a case where driving force transfer from the straight-traveling system transmission path is blocked by the driving force blocking mechanism (537, 539, 541), the control section restricts the output of the turning system transmission path to inhibit mutually reverse rotation operations of the left and right traveling units. an engine that is mounted on a traveling body; a straight-traveling system transmission path including a first stepless transmission device; a turning system transmission path including a second stepless transmission device, the work vehicle being configured to combine an output of the straight-traveling system transmission path and an output of the turning system transmission path to drive left and right traveling units; characterized by a control section (813, 814) that controls the output of the straight-traveling system transmission path and the output of the turning system transmission path in cooperation with each other; and a driving force blocking mechanism (537, 539, 541) that blocks driving force transfer from the straight-traveling system transmission path, wherein in a case where driving force transfer from the straight-traveling system transmission path is blocked by the driving force blocking mechanism (537, 539, 541), the control section restricts the output of the turning system transmission path to inhibit mutually reverse rotation operations of the left and right traveling units.
A test apparatus for testing interoperability of a first device to communicate with a second device via wireless communication, said test apparatus comprising: a wireless interface configured to interface via wireless communication with at least first and second devices (32, 42); a processor; memory; and logic stored in memory and executed by the processor, characterized in that said logic causes the test apparatus to sequence through a plurality of wireless communication actions to communicate with a first device, monitors behavior of the first device during the actions, and stores characteristics of the monitored behavior in memory so that the test apparatus may be used to emulate the first device when wirelessly communicating with a second device. a wireless interface configured to interface via wireless communication with at least first and second devices (32, 42); a processor; memory; and logic stored in memory and executed by the processor, characterized in that said logic causes the test apparatus to sequence through a plurality of wireless communication actions to communicate with a first device, monitors behavior of the first device during the actions, and stores characteristics of the monitored behavior in memory so that the test apparatus may be used to emulate the first device when wirelessly communicating with a second device.
A method of operating a Graphics Processing Unit, GPU, and memory, the GPU and memory being coupled to a plurality of power devices, the method comprising: identifying, in response to a first signal received from a central processing unit, CPU, one or more power devices of the plurality of power devices coupled with portions of the GPU and/or the memory; in response to the first signal, disabling an output of the identified one or more power devices; and generating by the GPU, a first response signal in response to a bus configuration cycle received from the CPU while the output of the identified one or more power devices is disabled; wherein the first response signal is substantially similar to a second response signal that is generated by the GPU in response to the bus configuration cycle when the output of the one or more power devices is not disabled. identifying, in response to a first signal received from a central processing unit, CPU, one or more power devices of the plurality of power devices coupled with portions of the GPU and/or the memory; in response to the first signal, disabling an output of the identified one or more power devices; and generating by the GPU, a first response signal in response to a bus configuration cycle received from the CPU while the output of the identified one or more power devices is disabled; wherein the first response signal is substantially similar to a second response signal that is generated by the GPU in response to the bus configuration cycle when the output of the one or more power devices is not disabled.
A nut for fastening on a screw, wherein the nut has a screw intake with a threaded hole for receiving the screw and at least one slot which cuts through the nut wall of the screw intake and divides the screw intake into at least two regions (11, 12), wherein the regions (11, 12) of the screw intake comprise a plurality of thread grooves, in particular three or four thread grooves, and wherein the regions (11, 12) of the screw intake are arranged on inwardly resilient retaining brackets which are connected to one another in a connecting region remote from the screw intake and are shaped in such a manner that a workpiece to be connected or fastened by means of the nut or an end of a pipe clamp can be encompassed from the outside in such a manner that the regions (11, 12) of the screw intake can be pressed apart, wherein in the case of a radial pressure generated by the external and/or internal thread, the diameter of the threaded hole of the nut can be enlarged to such an extent that the axial hold between nut and screw is temporarily no longer given, characterized in that on both sides of the slot on the regions (11, 12) of the screw intake and/or on the holding brackets, an opening element is arranged in each case, which are in each case formed in the shape of a flat web, wherein the height of the opening elements as viewed in the direction of the longitudinal axis of a screw corresponds to the height of the regions (11, 12) of the screw intake, and wherein an intermediate space, which widens outwardly in the radial direction relative to the screw intake, is formed between the opening elements. wherein the regions (11, 12) of the screw intake comprise a plurality of thread grooves, in particular three or four thread grooves, and wherein the regions (11, 12) of the screw intake are arranged on inwardly resilient retaining brackets which are connected to one another in a connecting region remote from the screw intake and are shaped in such a manner that a workpiece to be connected or fastened by means of the nut or an end of a pipe clamp can be encompassed from the outside in such a manner that the regions (11, 12) of the screw intake can be pressed apart, wherein in the case of a radial pressure generated by the external and/or internal thread, the diameter of the threaded hole of the nut can be enlarged to such an extent that the axial hold between nut and screw is temporarily no longer given, characterized in that on both sides of the slot on the regions (11, 12) of the screw intake and/or on the holding brackets, an opening element is arranged in each case, which are in each case formed in the shape of a flat web, wherein the height of the opening elements as viewed in the direction of the longitudinal axis of a screw corresponds to the height of the regions (11, 12) of the screw intake, and wherein an intermediate space, which widens outwardly in the radial direction relative to the screw intake, is formed between the opening elements.
System for checking the electrical insulation in converters for electric cars, the system comprising a plurality of voltage generators (G1-Gn, G1, G2) connected to respective output lines (L1-Ln) to be monitored of a high-voltage converter for electric vehicles and connected to the ground of said converter, at least one current detection unit (U, U1, U2) operatively connected to said voltage generators (G1-Gn, G1, G2) and configured to detect any current present on said voltage generators (G1-Gn, G1, G2) and to generate at least one warning signal in the event of detection of said current, and at least one insulation transformer (T1, T2, T) placed between said voltage generators (G1-Gn, G1, G2) and said current detection unit (U, U1, U2).
A touch sensitive display device, comprising: a touch sensitive display configured to detect a contact from a touch input gesture; a storage unit configured to store information describing a predetermined touch input gesture for executing a display of a text input box and a virtual keyboard on the touch sensitive display; a touch recognition unit configured to compare the touch input gesture detected from the touch sensitive display to the information describing the predetermined touch input gesture; and a system controller configured to control the display of the text input box and the virtual keyboard on the touch sensitive display when the touch input gesture is recognized as being substantially similar to the predetermined touch input gesture for executing the display of the text input box, the virtual keyboard being displayed along with the text input box, characterized in that: the touch input gesture comprises a letter component and a line component for determining display attributes of the text input box and the virtual keyboard, and the letter component is used for determining language setting of the virtual keyboard and the line component is used for determining size characteristic of the text input box. a touch sensitive display configured to detect a contact from a touch input gesture; a storage unit configured to store information describing a predetermined touch input gesture for executing a display of a text input box and a virtual keyboard on the touch sensitive display; a touch recognition unit configured to compare the touch input gesture detected from the touch sensitive display to the information describing the predetermined touch input gesture; and a system controller configured to control the display of the text input box and the virtual keyboard on the touch sensitive display when the touch input gesture is recognized as being substantially similar to the predetermined touch input gesture for executing the display of the text input box, the virtual keyboard being displayed along with the text input box, the touch input gesture comprises a letter component and a line component for determining display attributes of the text input box and the virtual keyboard, and the letter component is used for determining language setting of the virtual keyboard and the line component is used for determining size characteristic of the text input box.
A method for improving the uniformity of a cured tire (40, 50, 100), comprising: determining, by one or more computing devices, an ablation pattern for each of a plurality of tracks about a bead (42, 250) of a tire (40, 50, 100); determining, by the one or more computing devices, a plurality of direct address commands for each ablation pattern based at least in part on an adjustment process (400, 410), each direct address command specifying one or more ablation parameters for an ablation segment (200, 210, 220, 230, 245) at an address on the bead (42, 250) of the tire (40, 50, 100), the adjustment process (400, 410) operable to increase azimuthal overlap at an azimuthal location on the tire (40, 50, 100) between two or more ablation segments (200, 210, 220, 230, 245) associated with different tracks of the plurality of tracks along the bead (42, 250) of the tire (40, 50, 100); and selectively removing tire material from the bead (42, 250) of the tire (40, 50, 100) based at least in part on the direct address commands; wherein the plurality of direct address commands are determined according to an adjustment process (400, 410) such that two or more ablation segments (200, 210, 220, 230, 245) can be ablated for two or more different tracks at the azimuthal location of the tire (40, 50, 100) without requiring azimuthal movement of the ablation device relative to the tire (40, 50, 100). determining, by one or more computing devices, an ablation pattern for each of a plurality of tracks about a bead (42, 250) of a tire (40, 50, 100); determining, by the one or more computing devices, a plurality of direct address commands for each ablation pattern based at least in part on an adjustment process (400, 410), each direct address command specifying one or more ablation parameters for an ablation segment (200, 210, 220, 230, 245) at an address on the bead (42, 250) of the tire (40, 50, 100), the adjustment process (400, 410) operable to increase azimuthal overlap at an azimuthal location on the tire (40, 50, 100) between two or more ablation segments (200, 210, 220, 230, 245) associated with different tracks of the plurality of tracks along the bead (42, 250) of the tire (40, 50, 100); and selectively removing tire material from the bead (42, 250) of the tire (40, 50, 100) based at least in part on the direct address commands;
Edge barrier element for use in building construction or the like, the edge barrier element being rectangular and having a first and a second horizontal edge (2, 2'), which are parallel to each other, and a first and a second vertical edge (3, 3'), which are parallel with each other and perpendicular to the first and second horizontal edge (2, 2'), the barrier element further comprising - a plurality of first steel wires (4, 4', 4"), which are arranged to connect the first and the second horizontal edge (2, 2'), and which are parallel with the first and the second vertical edge (3, 3') and between them, - a plurality of second steel wires (5, 5', 5", 5"'), which are arranged on a first side of the first steel wires (4, 4', 4"), perpendicular to them and attached to them by welding, whereby at least on the first and second horizontal edge (2, 2') third steel wires (6, 6') are arranged at a second side of the first steel wires (4, 4', 4"), so that the third steel wires (6, 6') are essentially opposite and parallel to corresponding second steel wires (5, 5', 5", 5"') on the first side of the first steel wires (4, 4', 4"). characterised in that the distance between the first steel wires (4, 4', 4") decreases from the first and second vertical edge (3, 3') towards the centre of the barrier element. - a plurality of first steel wires (4, 4', 4"), which are arranged to connect the first and the second horizontal edge (2, 2'), and which are parallel with the first and the second vertical edge (3, 3') and between them, - a plurality of second steel wires (5, 5', 5", 5"'), which are arranged on a first side of the first steel wires (4, 4', 4"), perpendicular to them and attached to them by welding,
Method for producing an element provided with a seamless cover, in particular a vehicle seat, wherein - a moulding (1.2) is applied to a carrier and secured to the carrier, and wherein - the carrier provided with the secured moulding (1.2) is applied to a non-visible surface side (2.2) facing away from the visible surface side (2.1) of the cover with the moulding-free surface side and is connected to the cover by a material bond, and wherein the seamless cover has a homogeneous outer contour formed by the moulding (1.2), wherein the moulding (1.2) is first of all secured to the carrier and the latter is subsequently connected to the cover by a material bond, wherein the moulding (1.2) is applied as a tab, pocket or loop. - a moulding (1.2) is applied to a carrier and secured to the carrier, and wherein - the carrier provided with the secured moulding (1.2) is applied to a non-visible surface side (2.2) facing away from the visible surface side (2.1) of the cover with the moulding-free surface side and is connected to the cover by a material bond, and wherein the seamless cover has a homogeneous outer contour formed by the moulding (1.2), wherein the moulding (1.2) is first of all secured to the carrier and the latter is subsequently connected to the cover by a material bond, wherein the moulding (1.2) is applied as a tab, pocket or loop.
A hydrogenated furan-2,5-dicarboxylic acid (FDCA) composition comprising: a) solids, wherein at least 98 wt.% of the solids are FDCA; b) 5-formyl furan-2-carboxylic acid (FFCA) in an amount of less than 500 ppm; and c) tetrahydrofuran-2,5-dicarboxylic acid (THFDCA) in an amount ranging from 10 ppm to less than 0.1 wt.%, in each case based on the weight of the solids, wherein the composition has a b* value of less than 4. a) solids, wherein at least 98 wt.% of the solids are FDCA; b) 5-formyl furan-2-carboxylic acid (FFCA) in an amount of less than 500 ppm; and c) tetrahydrofuran-2,5-dicarboxylic acid (THFDCA) in an amount ranging from 10 ppm to less than 0.1 wt.%, in each case based on the weight of the solids, wherein the composition has a b* value of less than 4. in each case based on the weight of the solids, wherein the composition has a b* value of less than 4.
A polypeptide that binds human B-cell receptor complex, wherein said polypeptide comprises: the amino acid sequence of an immunoglobulin light chain variable region (V L) that is a humanized variant of the light chain variable region of a native BCR complex antibody (BCC V L), wherein said amino acid sequence of said immunoglobulin light chain variable region (V L) is selected from the group consisting of SEQ ID NO: 12, SEQ ID NO: 14, SEQ ID NO: 16, SEQ ID NO: 18 and SEQ ID NO: 20; and the amino acid sequence of an immunoglobulin heavy chain variable region (V H) that is a humanized variant of the heavy chain variable region of a native BCR complex antibody (BCC V H), wherein said amino acid sequence of said immunoglobulin heavy chain variable region (V H) is selected from the group consisting of SEQ ID NO: 26, SEQ ID NO: 28, SEQ ID NO: 30 and SEQ ID NO: 36. the amino acid sequence of an immunoglobulin light chain variable region (V L) that is a humanized variant of the light chain variable region of a native BCR complex antibody (BCC V L), wherein said amino acid sequence of said immunoglobulin light chain variable region (V L) is selected from the group consisting of SEQ ID NO: 12, SEQ ID NO: 14, SEQ ID NO: 16, SEQ ID NO: 18 and SEQ ID NO: 20; and the amino acid sequence of an immunoglobulin heavy chain variable region (V H) that is a humanized variant of the heavy chain variable region of a native BCR complex antibody (BCC V H), wherein said amino acid sequence of said immunoglobulin heavy chain variable region (V H) is selected from the group consisting of SEQ ID NO: 26, SEQ ID NO: 28, SEQ ID NO: 30 and SEQ ID NO: 36.
A connection mechanism for actuating jaw members of a surgical instrument comprising: an inner shaft member configured to extend at least partially through an elongated shaft member of the surgical instrument and defining proximal and distal ends, the inner shaft member selectively movable in a longitudinal direction with respect to the elongated shaft member; characterised by the inner shaft member including at least one aperture defined therein and extending partially along the longitudinal direction of the inner shaft member and disposed distally from the proximal end; the inner shaft member configured to enable a drive collar member to slide on the inner shaft member and reciprocate along the longitudinal direction of the inner shaft member; and a drive collar stop member disposed to slide on the inner shaft member and to move along the longitudinal direction of the inner shaft member, wherein the drive collar stop member is movable in a direction relative to the longitudinal axis defined by the inner shaft member to engage the at least one aperture and limit further longitudinal motion of the drive collar member. an inner shaft member configured to extend at least partially through an elongated shaft member of the surgical instrument and defining proximal and distal ends, the inner shaft member selectively movable in a longitudinal direction with respect to the elongated shaft member; characterised by the inner shaft member including at least one aperture defined therein and extending partially along the longitudinal direction of the inner shaft member and disposed distally from the proximal end; the inner shaft member configured to enable a drive collar member to slide on the inner shaft member and reciprocate along the longitudinal direction of the inner shaft member; and a drive collar stop member disposed to slide on the inner shaft member and to move along the longitudinal direction of the inner shaft member,
A printing press, the printing press having at least one printing unit (200; 400), having at least one print head (212; 412) formed as an ink jet print head (212; 412) and at least one print substrate guide element (201; 401), rotatable about a respective rotational axis (207; 407), and wherein the at least one print head (212; 412) is configured to be movable along an adjusting path in at least one direction of adjustment and wherein the adjusting direction includes at least one component that is orthogonal to a specified axial direction, defined by the rotational axis (207; 407) of the at least one print substrate guide element (201; 401), characterized in that a feeding means is arranged to be movable along at least one feeding path within at least one printing unit (200; 400) at least temporarily for drawing in a print substrate and that at least parts of the at least one feeding path have a distance with respect to the axial direction of at least 2 cm from each target region of each nozzle of each print head (212; 412) of said printing unit (200; 400).
A method for operation of at least one node (104, 106, 108) of plurality of nodes (104, 106, 108) in a communication network, wherein a first node and a second node of the plurality of nodes (104, 106, 108) transmit bits simultaneously to perform a cryptographic key exchange process, comprising: generating, with a controller in the first node, a first jitter time offset randomly generated from within a predetermined time range; and transmitting, with a transceiver in the first node, a first data bit through an output of the transceiver that is connected to a shared communication medium, the first data bit being transmitted to the second node connected to the shared communication medium at a first time corresponding to the first jitter time offset added to a first predetermined transmission time, and receiving, with the transceiver in the first node, a further data bit being simultaneously transmitted by the second node, wherein the further data bit is transmitted according to a jitter time offset randomly generated by the second node. generating, with a controller in the first node, a first jitter time offset randomly generated from within a predetermined time range; and transmitting, with a transceiver in the first node, a first data bit through an output of the transceiver that is connected to a shared communication medium, the first data bit being transmitted to the second node connected to the shared communication medium at a first time corresponding to the first jitter time offset added to a first predetermined transmission time, and receiving, with the transceiver in the first node, a further data bit being simultaneously transmitted by the second node, wherein the further data bit is transmitted according to a jitter time offset randomly generated by the second node.