mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, through higher layer signaling, information for enabling frequency hopping; receiving, through a physical downlink control channel, PDCCH, downlink control information, DCI, for scheduling multiple transport blocks, TBs, characterized in that wherein, for a case where a number of the multiple TBs is 2, i) the DCI includes a single value related to a starting HARQ process ID for determining HARQ process IDs for the 2 TBs, and ii) the UE determines, based on a repetition number configured for the 2 TBs, whether a 1-bit field of the DCI is related to a redundancy version, RV, or frequency hopping; in a case of the repetition number = 1, the 1-bit field is related to the RV; and in a case of the repetition number > 1, the 1-bit field is related to the frequency hopping, and wherein the single value related to a starting HARQ process ID is not included in the DCI for a case where the number of the multiple TBs is 8. receiving, through higher layer signaling, information for enabling frequency hopping; receiving, through a physical downlink control channel, PDCCH, downlink control information, DCI, for scheduling multiple transport blocks, TBs, characterized in that wherein, for a case where a number of the multiple TBs is 2, i) the DCI includes a single value related to a starting HARQ process ID for determining HARQ process IDs for the 2 TBs, and ii) the UE determines, based on a repetition number configured for the 2 TBs, whether a 1-bit field of the DCI is related to a redundancy version, RV, or frequency hopping; in a case of the repetition number = 1, the 1-bit field is related to the RV; and in a case of the repetition number > 1, the 1-bit field is related to the frequency hopping, and in a case of the repetition number = 1, the 1-bit field is related to the RV; and in a case of the repetition number > 1, the 1-bit field is related to the frequency hopping, and wherein the single value related to a starting HARQ process ID is not included in the DCI for a case where the number of the multiple TBs is 8.
A cargo management system comprising: a cargo shuttle having a top surface configured to support cargo; a bushing slide plate, wherein the top surface is parallel to the bushing slide plate; an actuator coupled to the bushing slide plate, wherein the actuator is configured to extend the bushing slide plate from the cargo shuttle in a first direction normal to a face of the top surface of the cargo shuttle; an aft shuttle drive belt coupled to the cargo shuttle; and a forward shuttle drive belt coupled to the cargo shuttle. a cargo shuttle having a top surface configured to support cargo; a bushing slide plate, wherein the top surface is parallel to the bushing slide plate; an actuator coupled to the bushing slide plate, wherein the actuator is configured to extend the bushing slide plate from the cargo shuttle in a first direction normal to a face of the top surface of the cargo shuttle; an aft shuttle drive belt coupled to the cargo shuttle; and a forward shuttle drive belt coupled to the cargo shuttle.
Elevator car comprising a frame and a removable cover plate, the cover plate comprising: at least one aperture formed in a first end of the cover plate allowing at least one fixing element extending from the frame to pass through the at least one aperture for fixing the cover plate to the frame; and at least one permanent magnet provided at an opposing second end of the cover plate and/or at a portion of the frame abutting the second end of the cover plate; wherein the at least one permanent magnet is configured for fixing the second end of the cover plate to a portion of the frame; and characterized in that the second end of the cover plate is provided with a c-shaped profile configured for embracing a portion of the frame when the cover plate is mounted to the frame. at least one aperture formed in a first end of the cover plate allowing at least one fixing element extending from the frame to pass through the at least one aperture for fixing the cover plate to the frame; and at least one permanent magnet provided at an opposing second end of the cover plate and/or at a portion of the frame abutting the second end of the cover plate; wherein the at least one permanent magnet is configured for fixing the second end of the cover plate to a portion of the frame; and characterized in that the second end of the cover plate is provided with a c-shaped profile configured for embracing a portion of the frame when the cover plate is mounted to the frame.
An NFC-enabled mobile device for supporting one or a plurality of proximity services and for communicating with an NFC reader supporting one or a plurality of proximity services, wherein the NFC reader is arranged to scan for an NFC-enabled mobile device which comes into proximity, to support a specific communication protocol and operating system, to send over an NFC protocol a service advertisement message comprising one or more unique identifiers of advertised proximity services to the NFC-enabled mobile device, and, when a communication channel with an NFC-enabled mobile device has been established, to use operating system specific commands for exercising a service it is defined for, without knowing a priori whether such service is hosted by the NFC-enabled mobile device, wherein in the NFC-enabled mobile device each supported proximity service corresponds to a specific operating system running on a specific secure element (106, 108, 112, 114) comprised in the NFC-enabled mobile device and different combinations of operating systems and secure elements are possible including that two different operating systems run on a single secure system, that a same operating system runs on different secure elements, and two different operating systems run on different secure elements, wherein the NFC-enabled mobile device comprises a plurality of data sets and each data set corresponds to a supported proximity service, wherein the NFC-enabled mobile device is arranged to determine whether it supports an advertised proximity service, upon receipt of a service advertisement message comprising a unique identifier of the advertised proximity service from an NFC reader, by searching for the advertised proximity service in said data sets, wherein each data set contains a mapping of a unique identifier of a proximity service to the specific operating system and the specific secure element corresponding to said proximity service, and wherein the NFC-enabled mobile device, in response to a service advertisement message, over an NFC protocol, which advertises a sequence of more than one supported proximity services that are interrelated in that they together form a transaction, is further arranged to activate the advertised sequence of proximity services and to exercise the sequence of proximity services to complete the transaction, wherein each proximity service corresponds to a combination of a specific operating system and a specific secure element of the NFC-enabled device.
Housing cover for an electronics housing, comprising: - a cover base body, particularly pot-shaped and/or metallic, with a cover floor (221+) featuring an opening, as well as a circumferential cover side panel (221#), adjacent to an edge of the cover floor; - a window pane made from translucent, particularly transparent, material located on the side of the cover floor (221 +) facing toward the cover side panel (221#) in such a way that it seals the floor opening, as well as - a contact disc, particularly metallic and/or annular, located on a side of the window pane facing away from the cover floor, particularly for the galvanic connection of the window pane and the cover side panel, - wherein the cover side panel (221 #) has a groove, particularly a circumferential groove, on an inner side facing towards the window pane, and - wherein the contact disc -- has a contact area (223+) supported on the window pane, particularly galvanically connected to the window pane or directly in contact with the window pane, as well as -- an outer edge with a multitude of teeth (223#) formed in the edge which mesh with the groove. - a cover base body, particularly pot-shaped and/or metallic, with a cover floor (221+) featuring an opening, as well as a circumferential cover side panel (221#), adjacent to an edge of the cover floor; - a window pane made from translucent, particularly transparent, material located on the side of the cover floor (221 +) facing toward the cover side panel (221#) in such a way that it seals the floor opening, as well as - a contact disc, particularly metallic and/or annular, located on a side of the window pane facing away from the cover floor, particularly for the galvanic connection of the window pane and the cover side panel, - wherein the cover side panel (221 #) has a groove, particularly a circumferential groove, on an inner side facing towards the window pane, and - wherein the contact disc -- has a contact area (223+) supported on the window pane, particularly galvanically connected to the window pane or directly in contact with the window pane, as well as -- an outer edge with a multitude of teeth (223#) formed in the edge which mesh with the groove. -- has a contact area (223+) supported on the window pane, particularly galvanically connected to the window pane or directly in contact with the window pane, as well as -- an outer edge with a multitude of teeth (223#) formed in the edge which mesh with the groove.
A method for locating loss of a service packet, the method being applied to a Virtual extensible Local Area Network Tunnel End Point, VTEP, comprising: obtaining a simulation packet for simulating a service forwarding path for routing a service packet from the VTEP to another VTEP; wherein the service packet is a packet that was sent from a first Virtual Machine, VM, accessing the VTEP, was routed through the service forwarding path by the VTEP, and did not reach a second VM accessing the another VTEP, and packet character parameters of the simulation packet are identical to packet character parameters of the service packet; calculating an outer User Datagram Protocol, UDP, source port number based on the packet character parameters of the simulation packet according to a local chip forwarding logic; performing a Virtual extensible Local Area Network, VXLAN, encapsulation for the simulation packet based on the outer UDP source port number and a VXLAN tunnel identification which is stored in a local register entry; wherein, the local register entry matches with the simulation packet; a value of the first reserve field of a VXLAN header of the simulation packet is a set value; forwarding the simulation packet with the VXLAN encapsulation through the VXLAN tunnel corresponding to the VXLAN tunnel identification, so that each device on the service forwarding path which has received the simulation packet with the VXLAN encapsulation sends a packet loss locating parameter to a packet loss locating device, which determines a packet loss location on the service forwarding path based on a device identity in the last received packet loss locating parameter. obtaining a simulation packet for simulating a service forwarding path for routing a service packet from the VTEP to another VTEP; wherein the service packet is a packet that was sent from a first Virtual Machine, VM, accessing the VTEP, was routed through the service forwarding path by the VTEP, and did not reach a second VM accessing the another VTEP, and packet character parameters of the simulation packet are identical to packet character parameters of the service packet; calculating an outer User Datagram Protocol, UDP, source port number based on the packet character parameters of the simulation packet according to a local chip forwarding logic; performing a Virtual extensible Local Area Network, VXLAN, encapsulation for the simulation packet based on the outer UDP source port number and a VXLAN tunnel identification which is stored in a local register entry; wherein, the local register entry matches with the simulation packet; a value of the first reserve field of a VXLAN header of the simulation packet is a set value; forwarding the simulation packet with the VXLAN encapsulation through the VXLAN tunnel corresponding to the VXLAN tunnel identification, so that each device on the service forwarding path which has received the simulation packet with the VXLAN encapsulation sends a packet loss locating parameter to a packet loss locating device, which determines a packet loss location on the service forwarding path based on a device identity in the last received packet loss locating parameter.
An air-core dry-type reactor, comprising: a reactor build including a coil, a first spider and a second spider, coupled to the coil, respectively, the spiders (1111, 1140) having a plurality of arms (1113(1-n)) radiating from a central hub, the plurality of arms (1113(1-n)) having free ends (1117(1-n)) each of which having a hook like notch (1120(1-n)), the reactor build having an outermost surface; and a noise attenuating barrier positioned radially outward from the outermost surface of the reactor build, wherein the noise attenuating barrier is held in place using epoxy-impregnated fiberglass ties (1125(1-n)) which are wrapped around the hook like notch (1120(1-n)), the noise attenuating barrier having an innermost surface, wherein no portion of the outermost surface of the reactor build directly contacts the innermost surface of the noise attenuating barrier thereby creating a radial separation limiting structure-borne sound transmission from the reactor build to the noise attenuating barrier, and wherein the noise attenuating barrier comprises a plurality of sound absorbing panels (1130(1-m)) each including a plurality of layers, the plurality of layers includes a layer of dense sound absorbing material on a side closer to the reactor build and a layer of heavy mass sound barrier material on a side farther from the reactor build. a reactor build including a coil, a first spider and a second spider, coupled to the coil, respectively, the spiders (1111, 1140) having a plurality of arms (1113(1-n)) radiating from a central hub, the plurality of arms (1113(1-n)) having free ends (1117(1-n)) each of which having a hook like notch (1120(1-n)), the reactor build having an outermost surface; and a noise attenuating barrier positioned radially outward from the outermost surface of the reactor build, wherein the noise attenuating barrier is held in place using epoxy-impregnated fiberglass ties (1125(1-n)) which are wrapped around the hook like notch (1120(1-n)), the noise attenuating barrier having an innermost surface, wherein no portion of the outermost surface of the reactor build directly contacts the innermost surface of the noise attenuating barrier thereby creating a radial separation limiting structure-borne sound transmission from the reactor build to the noise attenuating barrier, and wherein the noise attenuating barrier comprises a plurality of sound absorbing panels (1130(1-m)) each including a plurality of layers, the plurality of layers includes a layer of dense sound absorbing material on a side closer to the reactor build and a layer of heavy mass sound barrier material on a side farther from the reactor build.
Aqueous cleansing composition for keratin fibres especially for human hair characterised in that it comprises three anionic surfactants wherein the first anionic surfactant is an alkyl ether sulphate surfactant according to the following general structure R 1 (OCH 2 CH 2) n OSO 3 M wherein R 1 is a saturated or unsaturated, branched or straight alkyl chain with 10 to 18C atoms, n is a number between 1 and 5 (the values are included) and M is a monovalent cation preferably selected from H, ammonium, sodium and potassium, and the second and the third anionic surfactants are amino acid surfactants selected from the following general structure wherein R 2 is a saturated or unsaturated, straight or branched alkyl chain with 7 to 17 C atoms, R 3 is H or a methyl, R 4 is H, COO - M +, CH 2 COO - M or COOH, n is 0 to 2, X is COO - or SO 3 - and M is independent from each other H, sodium, potassium or ammonium, and a non-ionic surfactant wherein it is free of amphoteric surfactants and the total surfactant concentration is in the range of 4 to 50% by weight calculated to the total of the composition. wherein R 1 is a saturated or unsaturated, branched or straight alkyl chain with 10 to 18C atoms, n is a number between 1 and 5 (the values are included) and M is a monovalent cation preferably selected from H, ammonium, sodium and potassium, and the second and the third anionic surfactants are amino acid surfactants selected from the following general structure wherein R 2 is a saturated or unsaturated, straight or branched alkyl chain with 7 to 17 C atoms, R 3 is H or a methyl, R 4 is H, COO - M +, CH 2 COO - M or COOH, n is 0 to 2, X is COO - or SO 3 - and M is independent from each other H, sodium, potassium or ammonium, and a non-ionic surfactant wherein it is free of amphoteric surfactants and the total surfactant concentration is in the range of 4 to 50% by weight calculated to the total of the composition.
Media binder arrangement comprising, a cover with a front, a back and a spine extending along a spine axis; at least one spring clamp attached to the spine and which spring clamp having a first side with a first clamping side edge and a second side with second clamping side edge which side edges (161, 171) exerting a spring force towards each other in an activated position and wherein the sides (16, 17) at a distance from the side edges (161, 171) are joined with a clamp base thereby defining an interior cavity in the spring clamp and each side (16, 17) having an acute angle towards the clamp base; a tension sheet mounted inside the cavity and protruding out from the cavity next to each of the respective side edges (161, 171) and firmly attached to the cover; a datum spacer mounted inside the cavity holding the tension sheet towards the clamp base of the spring clamp; characterized in that the interior cavity of said spring clamp additionally is formed with a datum spacer cavity having spacer walls (36, 37) limited from the sides (16, 17) by a bending and that the spacer walls (36, 37) have wall surfaces facing the clamp base for holding the datum spacer in abutment with the clamp base.
A self-expanding stent with a lumen and a longitudinal axis and comprising a series of zig-zag stenting rings (A, B, C, D, D1, D2, E, F) spaced along the axis and with adjacent said rings connected by connecting links (12, 14) spaced around the circumference of the rings, the series including a sequence of three such rings A, B, C with the links between any two axially adjacent rings A, B being circumferentially staggered relative to the links between the rings B and C, each ring (A, B, C, D, D1, D2, E, F) being constituted by a succession of alternating struts with points of inflection (16, 16', 16", 26, 30, 40) therebetween, there being at each axial end of each ring a plurality of points of inflection (16, 16', 16", 26, 30, 40) on the circumference between any two adjacent links (12, 14) located at that end of the ring, characterized in that: the stent has a leading end in which the said points of inflection are not staggered axially; the stent has a trailing end where the points of inflection at the end of the ring constituting the trailing end are staggered in their location along the longitudinal axis; and all struts in any particular stenting ring (A, B, C, D, D1, D2, E, F), which are separated from a link (12, 14) between that ring and another stenting ring by at least one point of inflection (16, 16', 16", 26, 30, 40), are substantially the same length. the stent has a leading end in which the said points of inflection are not staggered axially; the stent has a trailing end where the points of inflection at the end of the ring constituting the trailing end are staggered in their location along the longitudinal axis; and all struts in any particular stenting ring (A, B, C, D, D1, D2, E, F), which are separated from a link (12, 14) between that ring and another stenting ring by at least one point of inflection (16, 16', 16", 26, 30, 40), are substantially the same length.
Internal broaching machine comprising a machine frame in which a machine table with at least one seat for at least one workpiece is arranged, where an upper push carriage and a lower draw carriage are arranged to travel, each of which is provided with a tool holder, where at least one tool holder is in the form of a clamping vice with a collet chuck for clamping a broaching tool radially during the broaching process, characterised in that the collet chucks of the at least one tool holder delimit, in the clamped state, an inner contour convergent in the direction of the broaching tool which corresponds to the outer contour of a section of the shaft of the broaching tool, where the tool holder has a pressure sleeve which can be moved axially within the housing of the tool holder and by means of which the collet chucks can be moved radially, which pressure sleeve can be moved by an actuating element, moved radially by an axially moving slide, and having a cross section increasing at least partially in the radial direction, and which is arranged in a gap formed between the pressure sleeve and a stop element arranged within the housing, where the actuating element is formed by balls arranged in the gap.