mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire comprising lug grooves (12a, 12b, 12c, 12d, 12e, 12f) and widthwise sipes (13a, 13b, 13c, 13d, 13e, 13f, 13g, 13h) on a surface of a tread, characterized in that: a rubber composition used in the tread comprises a rubber component including 50 mass% or more of at least one type of isoprene-based rubber selected from the group consisting of natural rubber and synthetic isoprene rubber, a thermoplastic resin, and a filler including 70 mass% or more of silica, an amount of the thermoplastic resin is 5 to 40 parts by mass per 100 parts by mass of the rubber component, and in the rubber composition, tanδ at 0°C is 0.5 or less, a difference between tanδ at 30°C and tanδ at 60°C is 0.070 or less, and a storage modulus at a dynamic strain of 1% and 0°C is 20 MPa or less; wherein the loss tangent tanδ at 0°C, 30°C, and 60°C and the storage modulus at 0°C are measured under the conditions of an initial strain of 2%, a dynamic strain of 1%, and a frequency of 52 Hz; and a tread edge component ratio of the tread as defined by Expression is 6.0 to 8.0; Expression: tread edge component ratio = (sum of tire widthwise extending length of the lug grooves (12a, 12b, 12c, 12d, 12e, 12f) and tire widthwise extending length of the widthwise sipes (13a, 13b, 13c, 13d, 13e, 13f, 13g, 13h) on the surface of the tread, where the widthwise extending lengths are a projected length in the tire width direction)/(tire circumferential length, where the tire circumferential length is a length measured at the tire equatorial plane). a rubber composition used in the tread comprises a rubber component including 50 mass% or more of at least one type of isoprene-based rubber selected from the group consisting of natural rubber and synthetic isoprene rubber, a thermoplastic resin, and a filler including 70 mass% or more of silica, an amount of the thermoplastic resin is 5 to 40 parts by mass per 100 parts by mass of the rubber component, and in the rubber composition, tanδ at 0°C is 0.5 or less, a difference between tanδ at 30°C and tanδ at 60°C is 0.070 or less, and a storage modulus at a dynamic strain of 1% and 0°C is 20 MPa or less; wherein the loss tangent tanδ at 0°C, 30°C, and 60°C and the storage modulus at 0°C are measured under the conditions of an initial strain of 2%, a dynamic strain of 1%, and a frequency of 52 Hz; and a tread edge component ratio of the tread as defined by Expression is 6.0 to 8.0; Expression: tread edge component ratio = (sum of tire widthwise extending length of the lug grooves (12a, 12b, 12c, 12d, 12e, 12f) and tire widthwise extending length of the widthwise sipes (13a, 13b, 13c, 13d, 13e, 13f, 13g, 13h) on the surface of the tread, where the widthwise extending lengths are a projected length in the tire width direction)/(tire circumferential length, where the tire circumferential length is a length measured at the tire equatorial plane).
A computer implemented method of compositing multiple images, the method comprising: providing a plurality of graphics buffers representing a plurality of individual images, respectively, wherein the individual images represent a plurality of graphic layers, respectively, to be composited into a composite image; wherein the images, represented by the graphic layers, have any size and are arranged in any order and/or position with respect to the composite image; subdividing an image area of the composite image into a plurality of cells such that for each one of the cells, all of any graphic layers that overlap within the cell overlap throughout the cell; determining, for each one of the cells, a respective composition operation applicable to compose the graphic layers that intersect the respective one of the cells; determining, for each one of the cells, from a plurality of processors one or more processor able to perform the respective composition operation; and assigning, for each one of the cells, a processor from the determined one or more processors according to routing rules; and performing, for each one of the cells, the determined respective composition operation to generate the respective one of the cells with the assigned processor. providing a plurality of graphics buffers representing a plurality of individual images, respectively, wherein the individual images represent a plurality of graphic layers, respectively, to be composited into a composite image; wherein the images, represented by the graphic layers, have any size and are arranged in any order and/or position with respect to the composite image; subdividing an image area of the composite image into a plurality of cells such that for each one of the cells, all of any graphic layers that overlap within the cell overlap throughout the cell; determining, for each one of the cells, a respective composition operation applicable to compose the graphic layers that intersect the respective one of the cells; determining, for each one of the cells, from a plurality of processors one or more processor able to perform the respective composition operation; and assigning, for each one of the cells, a processor from the determined one or more processors according to routing rules; and performing, for each one of the cells, the determined respective composition operation to generate the respective one of the cells with the assigned processor.
A circuit for electrically actuating a two-piece tailgate of a vehicle, which is formed by a top part and a bottom part, wherein the circuit has a control unit and a first switch and a second switch, which can be attached to the bottom part and are connected to the control unit, wherein the first switch is used to release the bottom part, and wherein the first switch is used to actuate a bottom lock, which is provided to ensure the connection and release of the bottom part to or from the bodywork, characterized in that the second switch is used to release the tailgate from the bodywork, wherein the second switch is used to actuate control elements (30, 30'), which can be arranged in the luggage compartment of the bodywork, and to actuate the bottom lock, with which the connection and release of the two-piece tailgate to or from the bodywork can be ensured.
A rail grinding machine for grinding rails of a track, having - a machine frame, - a plurality of guiding rollers which are rotatably mounted on the machine frame for manually shifting the rail grinding machine on rails, - a cross slide which is directly mounted on the machine frame and is displaceable in a transverse direction (y), - at least one grinding unit (61, 62) which is arranged at the cross slide, and - a coarse positioning device for coarse positioning of the cross slide in the transverse direction (y), characterized by a fine positioning device for fine positioning of the cross slide in the transverse direction (y). - a machine frame, - a plurality of guiding rollers which are rotatably mounted on the machine frame for manually shifting the rail grinding machine on rails, - a cross slide which is directly mounted on the machine frame and is displaceable in a transverse direction (y), - at least one grinding unit (61, 62) which is arranged at the cross slide, and - a coarse positioning device for coarse positioning of the cross slide in the transverse direction (y),
A drilling oil, comprising mixed C15 and C17 linear olefins, wherein a weight ratio of C15 linear olefin to C17 linear olefin is 99: 1 - 1:99, a weight ratio of internal olefin relative to a sum of α-olefin and internal olefin of the mixed C15 and C17 linear olefins is at least 0.1, and the drilling oil has (i) a flash point of 85°C or more, (ii) a pour point of less than - 5°C, (iii) a density of 0.77 - 0.81 g/cm 3 and (iv) a kinematic viscosity of 1.9 - 3.5 cSt (1.9 - 3.5 mm 2 /s; 40°C).
A method for updating software in a memory space in a device belonging to the distributed domain of a house automation system, comprising: - forming a binary file of encrypted, intended updated contents of said memory space, - using a publicly available protocol to packetize said binary file into one or more transmission packets, - transferring said one or more transmission packets to said device through a control connection of said house automation system, - reconstructing said binary file at said device, and - writing the contents of said binary file into said memory space; characterised by prior to transferring said one or more transmission packets to said device the method comprises using the control connection of said house automation system to interrogate (402,403) said device of contents of a memory map maintained by said device, and selecting the intended updated contents of said memory space based on the contents of the memory map the device sent in response to said interrogating. - forming a binary file of encrypted, intended updated contents of said memory space, - using a publicly available protocol to packetize said binary file into one or more transmission packets, - transferring said one or more transmission packets to said device through a control connection of said house automation system, - reconstructing said binary file at said device, and - writing the contents of said binary file into said memory space; characterised by prior to transferring said one or more transmission packets to said device the method comprises using the control connection of said house automation system to interrogate (402,403) said device of contents of a memory map maintained by said device, and selecting the intended updated contents of said memory space based on the contents of the memory map the device sent in response to said interrogating.
A method of forming end-form structures from recycled plastics, the method comprising: i) providing a plurality of noodles of molten agglomerated plastic; ii) delivering the molten agglomerated plastic noodles to a shaper in the form of a sloping, rotating cylindrical tube; iii) forming an end-form of agglomerated plastic noodles in the shaper by controlling movement and/or position of the shaper, the end-form comprising the agglomerated plastic noodles welded together with voids therebetween; and iv) cooling at least an outer profile of the end-form to form the structure. i) providing a plurality of noodles of molten agglomerated plastic; ii) delivering the molten agglomerated plastic noodles to a shaper in the form of a sloping, rotating cylindrical tube; iii) forming an end-form of agglomerated plastic noodles in the shaper by controlling movement and/or position of the shaper, the end-form comprising the agglomerated plastic noodles welded together with voids therebetween; and iv) cooling at least an outer profile of the end-form to form the structure.
Laminated glazed automotive vehicle roof comprising two, external and internal, glass sheets and interlayer sheets (5,9,6,7,8) assembling the glass sheets, and comprising, placed between the two glass sheets, a control assembly for controlling the light transmission of LC (liquid-crystal film) type, and lighting elements based on light-emitting diodes, characterized in that the choice of the diodes, of their power supply and of their arrangement in the laminate is such that during continuous operation the temperature in the laminate remains below 100°C.
Pneumatic vehicle tyre having an asymmetrical tread profile with a tyre shoulder which, for use on the vehicle, faces the outer side OU and forms the outer shoulder and with a tyre shoulder which, for use on the vehicle, faces the inner side IN of the vehicle and forms the inner shoulder, and with a middle region of extent formed between the tyre shoulders in the axial direction A of the tyre, wherein in each tyre shoulder there is respectively formed a profile band (1, 3) which is made to extend over the circumference of the tyre and in the middle region of extent there is formed at least one profile band which is made to extend over the circumference of the tyre - for example a profile block row or a profile rib -, wherein the profile band formed on the outer shoulder is formed by a profile block row arranged facing the outer side OU and by a profile rib directly adjacent thereto towards the inner side IN in the axial direction A, wherein the profile rib of the outer shoulder is separated from the axially adjacent profile band of the middle region of extent by a circumferential groove, which is formed so as to extend over the circumference of the pneumatic vehicle tyre and has two groove walls and a groove base, of which the one groove wall forms a flank of the adjacent profile band of the middle region of extent and the other groove wall forms the flank of the profile rib that is facing the circumferential groove, wherein the profile block row of the profile band of the outer shoulder is formed by profile block elements arranged one behind the other over the circumference of the pneumatic vehicle tyre and spaced apart from one another by transversely or obliquely running transverse grooves and is bounded with respect to the profile rib by a flank, which is made to extend from the inside outwards in the radial sense up to the surface outwardly delimiting the profile block row in the radial direction R, characterized in that the profile rib of the profile band of the outer shoulder is bounded radially outwardly by a surface which is formed with a surface contour which, in the cross-sectional planes of the pneumatic vehicle tyre that contain the tyre axis, is continuously curved towards the tyre and with its curvature is made to extend from the flank of the profile rib that bounds the profile rib towards the circumferential groove towards the outer side OU in the axial direction A and intersects there the flank of the profile block row, and which contour is made to extend in the portions of circumferential extent between the adjacent profile block elements of the profile block row as a continuation of the curved surface into the transverse grooves and intersects there the groove base of the transverse grooves at the axial distance a > 0 mm from the flanks of the profile block rows within the ground contact width T A.
A method for wireless communications by a User Equipment, UE, (120, 120r, 120u, 120v, 120x, 120y) comprising: receiving, from a serving base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), an assignment of downlink resources on one or more special downlink subframes in which an interfering base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704) limits downlink transmissions in an effort to reduce interference to another base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704); receiving, from the serving base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), an assignment of uplink resources on one or more downlink subframes that are not limited to the special downlink subframes, wherein receiving the assignment of the uplink resources includes receiving the assignment of uplink resources in a physical downlink control channel, PDCCH; performing interference cancellation, IC, to cancel signals transmitted from the interfering base station when decoding the PDCCH; and transmitting to the serving base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), using the assigned uplink resources. receiving, from a serving base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), an assignment of downlink resources on one or more special downlink subframes in which an interfering base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704) limits downlink transmissions in an effort to reduce interference to another base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704); receiving, from the serving base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), an assignment of uplink resources on one or more downlink subframes that are not limited to the special downlink subframes, wherein receiving the assignment of the uplink resources includes receiving the assignment of uplink resources in a physical downlink control channel, PDCCH; performing interference cancellation, IC, to cancel signals transmitted from the interfering base station when decoding the PDCCH; and transmitting to the serving base station (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), using the assigned uplink resources.
Safety switch assembly comprising a safety switch and an actuator associated therewith, wherein a retaining unit is provided, by means of which the actuator is retained in a locking setting, wherein the safety switch comprises an auxiliary unlocking unit having a mechanically actuable actuating element, wherein actuation of the actuating element is converted only by a transmission element into a setting movement for the retaining unit, characterised in that a segment of the transmission element forms a pushrod and a segment of the transmission element forms a film hinge, which can be wound up on or unwound from a shaft of the actuating element.
Motor vehicle structure comprising a front compartment having side walls (17, 19), and a passenger compartment that is separated from said front compartment by a bulkhead, said bulkhead having a rigid cross member, said structure comprising two left and right bell-shaped suspension element supports (24, 26) arranged inside said front compartment close to said bulkhead, and that are respectively adjacent to said side walls (17, 19), each bell-shaped suspension element support (24, 26) having an internal face (28, 30) opposite the side wall (17, 19), said structure also comprising left and right spacers (32, 34) that extend respectively between said left and right bell-shaped suspension element supports (26, 24) and said rigid cross member, in a substantially longitudinal direction, characterized in that said spacers (32, 34) are respectively anchored to the internal faces (28, 30) of said two bell-shaped suspension element supports (26, 24), and in that said spacers (32, 34) each have a skirt-shaped edge that can be applied to said bell-shaped suspension element supports, and a folded edge extending between a free end and an opposing attachment end that is designed to be joined to said cross member, said spacers (32, 34) having a central portion joining said folded edge and said skirt-shaped edge together.
A method of registration of a UE by an access and mobility management function, AMF, in a wireless communication system, the method comprising: receiving a registration request message for requesting to register the UE from the UE; and transmitting a registration response message responsive to the registration request message to the UE, characterized in that the registration request message includes a session management, SM, message for requesting to establish a packet data unit, PDU, session for the UE and an indicator indicating whether the PDU session establishment is required. receiving a registration request message for requesting to register the UE from the UE; and transmitting a registration response message responsive to the registration request message to the UE, characterized in that the registration request message includes a session management, SM, message for requesting to establish a packet data unit, PDU, session for the UE and an indicator indicating whether the PDU session establishment is required.
A method, comprising: receiving, by a network entity, at least one request for availability information related to an availability of at least one resource of at least one network; determining, by the network entity, at least one probability of the availability of the at least one resource for at least one future time or during at least one future time period; determining, by the network entity and based on the at least one probability, at least one preferred future time or at least one preferred future time period of the availability of the at least one resource, and providing, by the network entity, the availability information, wherein the availability information identifies at least the at least one preferred future time or the at least one preferred future time period; wherein the at least one preferred future time or at least one preferred future time period has a highest relative probability relative to other times or time periods; and the at least one resource includes at least one of a subnetwork, a network function, a compute resource, a memory resource, and a virtualized resource. receiving, by a network entity, at least one request for availability information related to an availability of at least one resource of at least one network; determining, by the network entity, at least one probability of the availability of the at least one resource for at least one future time or during at least one future time period; determining, by the network entity and based on the at least one probability, at least one preferred future time or at least one preferred future time period of the availability of the at least one resource, and providing, by the network entity, the availability information, wherein the availability information identifies at least the at least one preferred future time or the at least one preferred future time period; wherein determining, by the network entity, at least one probability of the availability of the at least one resource for at least one future time or during at least one future time period; determining, by the network entity and based on the at least one probability, at least one preferred future time or at least one preferred future time period of the availability of the at least one resource, and providing, by the network entity, the availability information, wherein the availability information identifies at least the at least one preferred future time or the at least one preferred future time period; wherein the at least one preferred future time or at least one preferred future time period has a highest relative probability relative to other times or time periods; and the at least one resource includes at least one of a subnetwork, a network function, a compute resource, a memory resource, and a virtualized resource.
A method for supplying gas from a multi-container control system comprising the steps of: providing a multi-container control system comprising at least a first and second container (12, 14, 16, 18); providing enhanced backflow/backfill detection by monitoring over multiple time increments at least one process parameter of each of the containers (12, 14, 16, 18), said parameter selected from the group consisting of container weight, container weight rate change; and combinations thereof; preventing backflow/backfill of a first or second container (12, 14, 16, 18) without operator intervention by detecting whether there is a trend of increasing weight of the container, and if a trend of increasing weight of the container is detected providing for a protective control response; and providing a connectivity between system components, said components selected from the group consisting of gas sources, gas source containers, gas supply panels, and combinations thereof. providing a multi-container control system comprising at least a first and second container (12, 14, 16, 18); providing enhanced backflow/backfill detection by monitoring over multiple time increments at least one process parameter of each of the containers (12, 14, 16, 18), said parameter selected from the group consisting of container weight, container weight rate change; and combinations thereof; preventing backflow/backfill of a first or second container (12, 14, 16, 18) without operator intervention by detecting whether there is a trend of increasing weight of the container, and if a trend of increasing weight of the container is detected providing for a protective control response; and providing a connectivity between system components, said components selected from the group consisting of gas sources, gas source containers, gas supply panels, and combinations thereof.
A cable comprising at least one extruded layer, characterized in that the at least one extruded layer comprises metal particles as antimicrobial agent, said metal particles being embedded in said at least one extruded layer, the size of the metal particles ranging from 100 nm to 1000 μm and their quantity in the extruded layer ranging from 200 to 40 000 ppm.