mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus (200; 250) for a communications system, comprising: a controller module (230; 280), adapted to obtain information regarding a Hybrid Automatic Repeat Request, HARQ, round trip time, RTT, in an HARQ process, to arrange one or more almost blank sub-frame(s) in one or more frame(s) according to the HARQ RTT information and to generate a sub-frame pattern describing the arrangement of the almost blank sub-frame(s), ABS(s), wherein the HARQ RTT is defined by the communications system; and a transceiver module, adapted to transmit at least a signal carrying information regarding the sub-frame pattern to a peer communications apparatus in the communications system. a controller module (230; 280), adapted to obtain information regarding a Hybrid Automatic Repeat Request, HARQ, round trip time, RTT, in an HARQ process, to arrange one or more almost blank sub-frame(s) in one or more frame(s) according to the HARQ RTT information and to generate a sub-frame pattern describing the arrangement of the almost blank sub-frame(s), ABS(s), wherein the HARQ RTT is defined by the communications system; and a transceiver module, adapted to transmit at least a signal carrying information regarding the sub-frame pattern to a peer communications apparatus in the communications system.
A method of wireless communication, comprising: determining a first uplink, UL, power limitation for a first transmission time interval, TTI, duration based at least in part on a first power control parameter for the first TTI duration; determining a second UL power limitation for a second TTI duration based at least in part on a second power control parameter for the second TTI duration, wherein the second TTI duration is greater than the first TTI duration; transmitting during a first TTI having the first TTI duration based at least in part on the first UL power limitation and the second UL power limitation, wherein transmitting during the first TTI comprises: transmitting a first message during the first TTI having the first TTI duration based at least in part on the first UL power limitation; and transmitting a second message during a second TTI having the second TTI duration based at least in part on the second UL power limitation, wherein the second TTI comprises the first TTI; and adjusting a cell maximum transmit power parameter included in both the first UL power limitation and the second UL power limitation based at least in part on the second TTI comprising the first TTI. determining a first uplink, UL, power limitation for a first transmission time interval, TTI, duration based at least in part on a first power control parameter for the first TTI duration; determining a second UL power limitation for a second TTI duration based at least in part on a second power control parameter for the second TTI duration, wherein the second TTI duration is greater than the first TTI duration; transmitting during a first TTI having the first TTI duration based at least in part on the first UL power limitation and the second UL power limitation, wherein transmitting during the first TTI comprises: transmitting a first message during the first TTI having the first TTI duration based at least in part on the first UL power limitation; and transmitting a second message during a second TTI having the second TTI duration based at least in part on the second UL power limitation, wherein the second TTI comprises the first TTI; and transmitting a first message during the first TTI having the first TTI duration based at least in part on the first UL power limitation; and transmitting a second message during a second TTI having the second TTI duration based at least in part on the second UL power limitation, wherein the second TTI comprises the first TTI; and adjusting a cell maximum transmit power parameter included in both the first UL power limitation and the second UL power limitation based at least in part on the second TTI comprising the first TTI.
A method for placing pieces (P-1 to P-4) intended to be cut automatically from a fabric having a pattern that repeats at a predetermined pitch, called pattern pitch, the method comprising a step of: a- determining a list of pieces to be placed on the fabric; characterised by the steps of: b- for at least one piece of the placement, calculating a contour to be placed (Cp) around the piece, the contour comprising a variable margin in order to avoid an overlap between adjacent pieces, the margin being a function of a predefined rate of variation of the fabric and of at least one predetermined constraint of placement of the piece on the fabric; and c- developing a theoretical placement of the pieces on the fabric taking into account the contour to be placed of each piece. a- determining a list of pieces to be placed on the fabric; b- for at least one piece of the placement, calculating a contour to be placed (Cp) around the piece, the contour comprising a variable margin in order to avoid an overlap between adjacent pieces, the margin being a function of a predefined rate of variation of the fabric and of at least one predetermined constraint of placement of the piece on the fabric; and c- developing a theoretical placement of the pieces on the fabric taking into account the contour to be placed of each piece.
Colloidal silica particles each having a surface with a plurality of protrusions, characterized in that each of the protrusions includes a base portion and a distal portion the distance between which is defined as a height of the protrusion, the base portion having a width, the colloidal silica particles have a volume average particle diameter and include large colloidal silica particles that each have a particle diameter larger than the volume average particle diameter, an average of values respectively obtained by dividing the height of a protrusion on the surface of each of the large colloidal silica particles by the width of the base portion of the same protrusion is no less than 0.245, the length of a curve along the surface of each protrusion of each colloidal silica particle does not exceed one-fourth of a circumferential length of a maximum circle inscribed in a projected contour of an outer shape of the colloidal silica particle, the curve extending from the base portion of a protrusion to the opposite base portion of the protrusion and passing through a point on the protrusion furthest from the base portion.
A flame retardant poly(butylene terephthalate) composition comprising (a) a poly(butylene terephthalate) copolymer reaction product of 1,4-butanediol and a dimethyl terephthalate residual composition comprising a dimethyl terephthalate derived from a terephthalic-containing polyester homopolymer, terephthalic-containing polyester copolymer, or a combination thereof; and from more than 0 to less than 3.6 wt.% of a residual component selected from dimethyl isophthalate, cyclohexane dimethanol, diethylene glycol, triethylene glycol, and combinations thereof; and (b) a flame retarding amount of a brominated polycarbonate, wherein the flame retardant composition has a heat deflection temperature ranging from 61 °C to 74°C when measured at 1.82 MPa in accordance with ASTM Method D648. (a) a poly(butylene terephthalate) copolymer reaction product of 1,4-butanediol and a dimethyl terephthalate residual composition comprising a dimethyl terephthalate derived from a terephthalic-containing polyester homopolymer, terephthalic-containing polyester copolymer, or a combination thereof; and from more than 0 to less than 3.6 wt.% of a residual component selected from dimethyl isophthalate, cyclohexane dimethanol, diethylene glycol, triethylene glycol, and combinations thereof; and (b) a flame retarding amount of a brominated polycarbonate, wherein the flame retardant composition has a heat deflection temperature ranging from 61 °C to 74°C when measured at 1.82 MPa in accordance with ASTM Method D648.
A method for wireless communication at a user equipment, UE, the method comprising: receiving, as part of a broadcast from a network node, a first subset of one or more network encoded packets; decoding the first subset of one or more network encoded packets as a first subset of one or more successfully decoded packets; receiving, via a plurality of sidelink connections with a corresponding plurality of UEs, a second subset of one or more successfully decoded packets forwarded after successful receipt and decoding by the plurality of UEs from the network node; determining, based on the first subset of one or more successfully decoded packets and the second subset of one or more successfully decoded packets, a combined set of one or more successfully decoded packets from the network node; wherein the method is further characterised by transmitting feedback to the network node, wherein the feedback indicates a combination of the first subset of one or more successfully decoded packets and the second subset of one or more successfully decoded packets; and receiving a third subset of one or more network encoded packets from the network node based at least in part on transmitting the feedback, wherein the third subset of one or more network encoded packets is different from the first subset of one or more network encoded packets and excludes successfully decoded packets. receiving, as part of a broadcast from a network node, a first subset of one or more network encoded packets; decoding the first subset of one or more network encoded packets as a first subset of one or more successfully decoded packets; receiving, via a plurality of sidelink connections with a corresponding plurality of UEs, a second subset of one or more successfully decoded packets forwarded after successful receipt and decoding by the plurality of UEs from the network node; determining, based on the first subset of one or more successfully decoded packets and the second subset of one or more successfully decoded packets, a combined set of one or more successfully decoded packets from the network node; wherein the method is further characterised by transmitting feedback to the network node, wherein the feedback indicates a combination of the first subset of one or more successfully decoded packets and the second subset of one or more successfully decoded packets; and receiving a third subset of one or more network encoded packets from the network node based at least in part on transmitting the feedback, wherein the third subset of one or more network encoded packets is different from the first subset of one or more network encoded packets and excludes successfully decoded packets.
Polymer composition comprising, based on the total weight of the polymer composition: - at least one polyester; - at most 3.5 wt. % of at least one hindered amine compound, and - at least 0.3 wt. % of at least one phosphorous compound selected from the group consisting of phosphite esters, phosphonites and mixtures thereof. - at least one polyester; - at most 3.5 wt. % of at least one hindered amine compound, and - at least 0.3 wt. % of at least one phosphorous compound selected from the group consisting of phosphite esters, phosphonites and mixtures thereof.
A method comprising: receiving at a network device, static profile comprising a static container for one or more properties associated with a virtual machine host hosting a virtual machine, the virtual machine being associated with a virtual interface, the static profile defining a context of the virtual machine host in which policies are interpreted; receiving at the network device, a dynamic profile comprising a dynamic policy that is interpreted based on the properties associated with the context of the virtual machine host; associating the dynamic profile with the static profile based on the operating environment of said virtual interface; identifying, by the dynamic profile, the configuration of the virtual interface based on the static profile and other attributes associated with the dynamic profile; and automatically updating the association of said dynamic profile and a static profile upon identifying a move of the virtual machine from the virtual machine host to an other virtual machine host, whereby the dynamic profile for the virtual interface associated with the virtual machine is associated with a static profile of the other virtual machine host; wherein the virtual machine has different policies associated therewith depending on the virtual machine host it is hosted by. receiving at a network device, static profile comprising a static container for one or more properties associated with a virtual machine host hosting a virtual machine, the virtual machine being associated with a virtual interface, the static profile defining a context of the virtual machine host in which policies are interpreted; receiving at the network device, a dynamic profile comprising a dynamic policy that is interpreted based on the properties associated with the context of the virtual machine host; associating the dynamic profile with the static profile based on the operating environment of said virtual interface; identifying, by the dynamic profile, the configuration of the virtual interface based on the static profile and other attributes associated with the dynamic profile; and automatically updating the association of said dynamic profile and a static profile upon identifying a move of the virtual machine from the virtual machine host to an other virtual machine host, whereby the dynamic profile for the virtual interface associated with the virtual machine is associated with a static profile of the other virtual machine host; wherein the virtual machine has different policies associated therewith depending on the virtual machine host it is hosted by.
An inhaler for delivering medication to a user, the inhaler comprising: a main body having a mouthpiece and a mouthpiece cover; a slider at least partially disposed within the main body; and an electronics module having a switch; wherein the electronics module is configured to be in an off state prior to a user moving the mouthpiece cover to expose the mouthpiece for the first time; wherein, when the mouthpiece cover is moved to expose the mouthpiece, the slider is configured to engage the switch, causing the electronics module to transition from the off state to an active state and to sense an inhalation by the user from the mouthpiece, and wherein the electronics module is configured to not return to the off state after the mouthpiece cover is moved to expose the mouthpiece for the first time by the user. a main body having a mouthpiece and a mouthpiece cover; a slider at least partially disposed within the main body; and an electronics module having a switch; wherein the electronics module is configured to be in an off state prior to a user moving the mouthpiece cover to expose the mouthpiece for the first time; wherein, when the mouthpiece cover is moved to expose the mouthpiece, the slider is configured to engage the switch, causing the electronics module to transition from the off state to an active state and to sense an inhalation by the user from the mouthpiece, and wherein the electronics module is configured to not return to the off state after the mouthpiece cover is moved to expose the mouthpiece for the first time by the user.
A device for preheating tire blanks, having a preheating chamber with a housing and at least one continuous conveying device which provides a carousel storage track, wherein the conveying device is arranged completely or partially inside the preheating chamber, and wherein - a carousel storage track start of the carousel storage track is provided at at least one inlet of the housing and is operatively coupled to a feed device, and - a carousel storage track end of the carousel storage track is provided at at least one outlet of the housing and is operatively coupled to an outward-conveying device, and - the feed device has at least one first inward-conveying unit designed to deliver tire blanks with a predetermined first temperature (T1R) to the carousel storage track start via the inlet, and - the outward-conveying device is designed to discharge both tire blanks with a second temperature (T2R) higher than the first temperature (T1R) of the tire blanks, and vulcanized tires with a second temperature (T2V) lower than the first temperature (T1V) of the vulcanized tires, via the outlet of the carousel storage track end, characterized in that the feed device has at least one second inward-conveying unit designed to deliver vulcanized tires to the carousel storage track start with a predetermined first temperature (T1V) which is higher than the first temperature (T1R) of the tire blanks. - a carousel storage track start of the carousel storage track is provided at at least one inlet of the housing and is operatively coupled to a feed device, and - a carousel storage track end of the carousel storage track is provided at at least one outlet of the housing and is operatively coupled to an outward-conveying device, and - the feed device has at least one first inward-conveying unit designed to deliver tire blanks with a predetermined first temperature (T1R) to the carousel storage track start via the inlet, and - the outward-conveying device is designed to discharge both tire blanks with a second temperature (T2R) higher than the first temperature (T1R) of the tire blanks, and vulcanized tires with a second temperature (T2V) lower than the first temperature (T1V) of the vulcanized tires, via the outlet of the carousel storage track end,
An optical scanning device comprising: a reflection member, which is swingable and configured for reflecting light or electromagnetic waves; a blocking unit that is provided in the reflection member to move in linkage with the reflection member and that is configured to block light or electromagnetic waves; and a sensor unit that includes an output unit, which is a light generator or an electromagnetic wave generator configured to output light or electromagnetic wave as a detection target and a detection unit, which is a light receiver or an electromagnetic wave receiver configured to detect the detection target, wherein the first and second blocking plates (401, 402) are made of a material through which the detection target does not pass, wherein, when the reflection member is in a predetermined swing angle range, the blocking unit blocks a path of the detection target between the output unit and the detection unit; characterized in that the sensor unit includes at least a first sensor unit and a second sensor unit along a swing trajectory of the blocking unit, the first sensor unit and the second sensor unit each facing an associated output unit, and the blocking unit includes at least a first blocking plate disposed on a lower side of the reflection member and a second blocking plate disposed on an upper side of the reflection member, so that the first blocking plate blocks light or electromagnetic waves incident on the first sensor unit and the second blocking plate blocks light or electromagnetic waves incident on the second sensor unit. a reflection member, which is swingable and configured for reflecting light or electromagnetic waves; a blocking unit that is provided in the reflection member to move in linkage with the reflection member and that is configured to block light or electromagnetic waves; and a sensor unit that includes an output unit, which is a light generator or an electromagnetic wave generator configured to output light or electromagnetic wave as a detection target and a detection unit, which is a light receiver or an electromagnetic wave receiver configured to detect the detection target, wherein the first and second blocking plates (401, 402) are made of a material through which the detection target does not pass, wherein, when the reflection member is in a predetermined swing angle range, the blocking unit blocks a path of the detection target between the output unit and the detection unit; characterized in that the sensor unit includes at least a first sensor unit and a second sensor unit along a swing trajectory of the blocking unit, the first sensor unit and the second sensor unit each facing an associated output unit, and the blocking unit includes at least a first blocking plate disposed on a lower side of the reflection member and a second blocking plate disposed on an upper side of the reflection member, so that the first blocking plate blocks light or electromagnetic waves incident on the first sensor unit and the second blocking plate blocks light or electromagnetic waves incident on the second sensor unit.
Passenger transport vehicle, with at least one holding bar, which is fastened with its one end to a roof section and with its other end to a floor area of the vehicle, wherein one of the two ends of the holding bar is fastened by means of a floating bearing that allows a translation of the holding bar in its longitudinal direction, wherein the floating bearing allows a rotation of the holding bar around a longitudinal axis (x) and a lateral axis (y) of the vehicle, characterised in that the other end of the holding bar is fastened in a torsion-resistant manner by means of an elastic bearing that allows tilting movements of the holding bar, wherein a lower end of the holding bar is fixedly connected to a bearing via an intermediate piece.
A mobile device comprising: a touch screen display; and, a detector configured to detect the orientation of the mobile device, wherein the mobile device is operable to: in response to the detector detecting a first orientation, providing a first direct navigation mode, and in response to the detector detecting a second orientation, providing a second indirect navigation mode, wherein the second indirect navigation mode enables the user to select or interact with content displayed on said touch screen display without having to touch said touch screen display at the location coincident with the location of said displayed content. a touch screen display; and, a detector configured to detect the orientation of the mobile device, in response to the detector detecting a first orientation, providing a first direct navigation mode, and in response to the detector detecting a second orientation, providing a second indirect navigation mode,
A blank for the production of a molded body, wherein the blank has a base and regions(14, 16, 18) that emanate therefrom and project above the base, from which at least a part of the molded body can be derived by working, and wherein the base is of a material different from that of the regions, the regions being glued into openings in the base, wherein at least one region projecting above the base and the base comprise sections of different strength, translucency, color, and/or fluorescence, characterized in that the at least one region projects above both sides of the base.
A clot retrieval device (2501, 2601) comprising an expandable body and an elongate shaft, the expandable body comprising a proximal section, a body section and a distal section, the body section comprising a framework of strut elements (2502, 2602) and at least one fibre assembly, the fibre assembly comprising a radiodense material; and wherein the fibre assembly comprises at least one fibre (2505, 2605) and at least one floating element (2506, 2608) located on the fibre (2505, 2605), the floating element (2506, 2608) comprising a radiodense material.