mhurhangee/ep-ind-claims huggingface dataset:
An optical communication cable bundle comprising: a bundle jacket including an inner surface defining a bundle passage and an outer surface defining an exterior surface of the cable bundle, wherein the bundle jacket is an outermost layer of the cable bundle; and a plurality of optical fiber subunits located within the bundle passage and surrounded by the bundle jacket, each optical fiber subunit comprising: a subunit jacket defining a subunit passage; and a plurality of optical fibers located with the subunit passage; wherein a thickness of the bundle jacket is less than a thickness of each of the subunit jackets and the bundle jacket is extruded tight around the subunit jackets to couple the subunits and the bundle jacket; and wherein each of the subunit jackets is formed from a first extrudable polymer material that includes a fire resistant material having an oxygen limiting index of greater than 40%, wherein the bundle jacket is formed from a second extrudable polymer material having an oxygen limiting index of less than 40%. a bundle jacket including an inner surface defining a bundle passage and an outer surface defining an exterior surface of the cable bundle, wherein the bundle jacket is an outermost layer of the cable bundle; and a plurality of optical fiber subunits located within the bundle passage and surrounded by the bundle jacket, each optical fiber subunit comprising: a subunit jacket defining a subunit passage; and a plurality of optical fibers located with the subunit passage; wherein a thickness of the bundle jacket is less than a thickness of each of the subunit jackets and the bundle jacket is extruded tight around the subunit jackets to couple the subunits and the bundle jacket; and wherein each of the subunit jackets is formed from a first extrudable polymer material that includes a fire resistant material having an oxygen limiting index of greater than 40%, wherein the bundle jacket is formed from a second extrudable polymer material having an oxygen limiting index of less than 40%. a subunit jacket defining a subunit passage; and a plurality of optical fibers located with the subunit passage; wherein a thickness of the bundle jacket is less than a thickness of each of the subunit jackets and the bundle jacket is extruded tight around the subunit jackets to couple the subunits and the bundle jacket; and wherein each of the subunit jackets is formed from a first extrudable polymer material that includes a fire resistant material having an oxygen limiting index of greater than 40%, wherein the bundle jacket is formed from a second extrudable polymer material having an oxygen limiting index of less than 40%.
A method for a first user equipment, first UE, to transmit and receive a signal in a wireless communication system supporting device-to-device, D2D, communication, the method comprising: receiving a radio resource control, RRC, signal related to D2D communication from an eNB; receiving a discovery signal from one or more second UEs; transceiving a D2D synchronization signal for D2D communication with the one or more second UEs; transceiving a resource allocation signal with the one or more second UEs; transceiving a D2D communication signal with the one or more second UEs based on the resource allocation signal, the method being characterized in that: if a plurality of signals from among the discovery signal, the D2D synchronization signal, the resource allocation signal, and the D2D communication signal are received in a same time unit, the first UE prioritizes, at processing, a first signal over a second signal within the received plurality of the signals, wherein if the D2D synchronization signal and another signal, within the plurality of signals, are received in the same time unit, the first UE prioritizes the D2D synchronization signal over the another signal. receiving a radio resource control, RRC, signal related to D2D communication from an eNB; receiving a discovery signal from one or more second UEs; transceiving a D2D synchronization signal for D2D communication with the one or more second UEs; transceiving a resource allocation signal with the one or more second UEs; transceiving a D2D communication signal with the one or more second UEs based on the resource allocation signal, the method being characterized in that: if a plurality of signals from among the discovery signal, the D2D synchronization signal, the resource allocation signal, and the D2D communication signal are received in a same time unit, the first UE prioritizes, at processing, a first signal over a second signal within the received plurality of the signals, wherein if the D2D synchronization signal and another signal, within the plurality of signals, are received in the same time unit, the first UE prioritizes the D2D synchronization signal over the another signal. if a plurality of signals from among the discovery signal, the D2D synchronization signal, the resource allocation signal, and the D2D communication signal are received in a same time unit, the first UE prioritizes, at processing, a first signal over a second signal within the received plurality of the signals, wherein if the D2D synchronization signal and another signal, within the plurality of signals, are received in the same time unit, the first UE prioritizes the D2D synchronization signal over the another signal.
A dewatering apparatus for a fiber web machine comprising - a body being greater in its length than width; - a number of brackets (22.4) attached to the body spaced along the longitudinal direction of the body; - at least one foil blade attachment rail that is parallel to the body and fixed to the body via the brackets (22.4) for supporting a foil blade in the apparatus; and - a number of support ribs parallel to the brackets (22.4), to which support ribs the foil blade attachment rail is attached to by a retaining part, and in which the support ribs are fixed to the brackets (22.4) such that one or more support ribs are partly overlapping with, and against to one or more brackets (22.4); and wherein: - the support ribs are provided with at least one coupling slot into which the retaining part is fitted; and - the retaining part is arranged to extend via the slots of at least two support ribs; and that is characterized in that: the attachment between the support rib and the bracket (22.4) is arranged to the overlapping area. - a body being greater in its length than width; - a number of brackets (22.4) attached to the body spaced along the longitudinal direction of the body; - at least one foil blade attachment rail that is parallel to the body and fixed to the body via the brackets (22.4) for supporting a foil blade in the apparatus; and - a number of support ribs parallel to the brackets (22.4), to which support ribs the foil blade attachment rail is attached to by a retaining part, and in which the support ribs are fixed to the brackets (22.4) such that one or more support ribs are partly overlapping with, and against to one or more brackets (22.4); and wherein: - the support ribs are provided with at least one coupling slot into which the retaining part is fitted; and - the retaining part is arranged to extend via the slots of at least two support ribs; and that is characterized in that: the attachment between the support rib and the bracket (22.4) is arranged to the overlapping area. - the support ribs are provided with at least one coupling slot into which the retaining part is fitted; and - the retaining part is arranged to extend via the slots of at least two support ribs;
A refrigerator comprising a body, at least one door, at least one cooler/freezer compartment in which the food products and beverages are placed, an inner lining made of plastic material by way of extrusion, forming the inner surfaces of the body and the doors facing the compartments, having an upper layer made of glossy polystyrene based plastic material, an outer wall forming the outer side of the body and the doors, and an insulation volume provided between the inner lining and the outer wall, into which polyurethane is injected, the inner lining comprising a lower layer provided at the insulation volume side of the inner lining, contacting the polyurethane injected in the insulation volume, its surface contacting the polyurethane being roughened by adding a foaming agent to the polystyrene based main material, characterized by an interlayer made of polystyrene based plastic material of high resistance to the chemicals in polyurethane.
Exhaust-gas treatment unit, at least having: - a supply line for exhaust gas, having an entry opening and having an exit opening and having an exhaust-gas treatment body arranged in terms of flow between the entry opening and exit opening; - a housing into which the supply line extends by way of the exit opening and which forms an intermediate space at least around the supply line; - an outlet space in the housing, which outlet space is arranged laterally with respect to the supply line such that a non-rectilinear flow path, with at least one flow reversal, is formed from the exit opening of the supply line to the outlet space, characterized in that furthermore, a dividing device having guide elements is provided between the intermediate space and the outlet space, which intermediate space is designed such that Exhaust gas passing out of the intermediate space is divided into at least two partial streams (9, 10) which, in the direction of the outlet space, can be conducted into the outlet space in opposite directions by way of at least two openings (11, 12) that are formed by way of the dividing device. - a supply line for exhaust gas, having an entry opening and having an exit opening and having an exhaust-gas treatment body arranged in terms of flow between the entry opening and exit opening; - a housing into which the supply line extends by way of the exit opening and which forms an intermediate space at least around the supply line; - an outlet space in the housing, which outlet space is arranged laterally with respect to the supply line such that a non-rectilinear flow path, with at least one flow reversal, is formed from the exit opening of the supply line to the outlet space,
A method for continuously manufacturing aerosol generating articles, the method comprising: (i) providing a continuous web of an aerosol generating substrate, the continuous web including a substantially flat surface having a centre line; (ii) applying at least one susceptor patch to the substantially flat surface substantially along the centre line to leave an exposed region of the continuous web of aerosol generating substrate on each side of the at least one susceptor patch; (iii) cutting the exposed regions of the continuous web of aerosol generating substrate to form a plurality of aerosol generating strips (15, 16) on each side of the at least one susceptor patch; and (iv) forming the plurality of aerosol generating strips (15, 16) and the at least one susceptor patch into a continuous rod; wherein each of the plurality of aerosol generating strips (15, 16) has a width of between 0.1 mm and 5.0 mm; or wherein the at least one susceptor patch has a length of between 5 mm and 50 mm. (i) providing a continuous web of an aerosol generating substrate, the continuous web including a substantially flat surface having a centre line; (ii) applying at least one susceptor patch to the substantially flat surface substantially along the centre line to leave an exposed region of the continuous web of aerosol generating substrate on each side of the at least one susceptor patch; (iii) cutting the exposed regions of the continuous web of aerosol generating substrate to form a plurality of aerosol generating strips (15, 16) on each side of the at least one susceptor patch; and (iv) forming the plurality of aerosol generating strips (15, 16) and the at least one susceptor patch into a continuous rod; wherein each of the plurality of aerosol generating strips (15, 16) has a width of between 0.1 mm and 5.0 mm; or wherein the at least one susceptor patch has a length of between 5 mm and 50 mm. wherein each of the plurality of aerosol generating strips (15, 16) has a width of between 0.1 mm and 5.0 mm; or wherein the at least one susceptor patch has a length of between 5 mm and 50 mm.
A shelf, comprising: a shelf unit for containing goods; and a goods information obtaining device for obtaining goods information within the shelf unit, wherein the goods information obtaining device comprises at least one reflector and at least one image sensor for sensing a reflection image (40'; 40") of goods within the shelf unit that are reflected one or more times by the at least one reflector, wherein each of the at least one image sensor comprises a lens, wherein the lens has a viewing angle covering at least a portion of the at least one reflector, characterized in that the at least one reflector is located on one side of a top of the shelf unit close to the goods, wherein the height of the lens is configured to be flush with a bottom plane of the shelf unit. a shelf unit for containing goods; and a goods information obtaining device for obtaining goods information within the shelf unit, wherein the goods information obtaining device comprises at least one reflector and at least one image sensor for sensing a reflection image (40'; 40") of goods within the shelf unit that are reflected one or more times by the at least one reflector, wherein each of the at least one image sensor comprises a lens, wherein the lens has a viewing angle covering at least a portion of the at least one reflector, characterized in that the at least one reflector is located on one side of a top of the shelf unit close to the goods, wherein the height of the lens is configured to be flush with a bottom plane of the shelf unit.
A multilayer, sound dampening film comprising at least one quiet layer having noise dampening properties, the at least one quiet layer comprising a blend of a polymer resin and from 5 to 50 weight percent of a styrene-vinyl polyisoprene-styrene block-co-polyisoprene block triblock polymer, wherein the quiet layer has a Tangent Delta value of at least 0.27 determined in accordance with ASTM D 4065 at a temperature range between 17° C and 40° C.
An apparatus for reducing replays in an out-of-order processor, the apparatus comprising: a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is one of a plurality of specified load instructions directed to one of a plurality of non-core resources; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after a first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said one of a plurality of specified load instructions, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has retrieved said operand, and is configured to preclude assertion of any indications that would otherwise result in a replay event; load execution logic, coupled to said first reservation station, configured to receive and execute said first load micro instruction; and said plurality of non-core resources, comprising: a random access memory, configured to store microcode patches corresponding to the out-of-order processor which, upon initialization, accesses said random access memory to retrieve said microcode patches. a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is one of a plurality of specified load instructions directed to one of a plurality of non-core resources; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after a first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said one of a plurality of specified load instructions, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has retrieved said operand, and is configured to preclude assertion of any indications that would otherwise result in a replay event; load execution logic, coupled to said first reservation station, configured to receive and execute said first load micro instruction; and said plurality of non-core resources, comprising: a random access memory, configured to store microcode patches corresponding to the out-of-order processor which, upon initialization, accesses said random access memory to retrieve said microcode patches.
A method for producing and filling beverage containers that are thin-walled and/or that are at least partly dimensionally unstable under heat exposure, in particular, PET bottles or the like containers with low thermal stability, in which method the containers are produced by way of blow moulding preforms, are subsequently filled with a liquid, hot content, then impinged with a pressurised gas, and subsequently closed, wherein - the preforms and the containers formed therefrom are impinged during the blow moulding process with a blow moulding temperature of at least 80 °C and below 110 °C, wherein - the containers are treated and stretched during the blow moulding process by means of a liquid-cooled or by means of a gas-cooled stretching rod, wherein - gaseous or liquid nitrogen is used as pressurised gas, and wherein - the filling pressure is over 2 bar with the pressurised gas having been introduced. - the preforms and the containers formed therefrom are impinged during the blow moulding process with a blow moulding temperature of at least 80 °C and below 110 °C, wherein - the containers are treated and stretched during the blow moulding process by means of a liquid-cooled or by means of a gas-cooled stretching rod, wherein - gaseous or liquid nitrogen is used as pressurised gas, and wherein - the filling pressure is over 2 bar with the pressurised gas having been introduced.
A heat dissipation device, applied to a computing unit, comprising: a fan unit; a signal receiving unit, configured to receive a satellite positioning signal and generate a signal strength according to the satellite positioning signal; a time unit, configured to generate a real-time signal; a control unit, electrically connected to the fan unit, the signal receiving unit and the time unit; and an audio capturing unit, electrically connected to the control unit, configured to receive an ambient audio and generate volume according to the ambient audio; wherein, the control unit is configured to adjust the rotation speed of the fan unit according to the volume, the signal strength, and the real-time signal, wherein the volume is directly proportional to the rotation speed; wherein it is determined by means of generating the signal strength whether the heat dissipation device is indoors or outdoors, wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is less than a predetermined threshold, that the heat dissipation device is indoors, and wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is more than the predetermined threshold, that the heat dissipation device is outdoors. a fan unit; a signal receiving unit, configured to receive a satellite positioning signal and generate a signal strength according to the satellite positioning signal; a time unit, configured to generate a real-time signal; a control unit, electrically connected to the fan unit, the signal receiving unit and the time unit; and an audio capturing unit, electrically connected to the control unit, configured to receive an ambient audio and generate volume according to the ambient audio; wherein, the control unit is configured to adjust the rotation speed of the fan unit according to the volume, the signal strength, and the real-time signal, wherein the volume is directly proportional to the rotation speed; wherein it is determined by means of generating the signal strength whether the heat dissipation device is indoors or outdoors, wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is less than a predetermined threshold, that the heat dissipation device is indoors, and wherein the signal receiving unit is configured to determine, by confirming that the received signal strength is more than the predetermined threshold, that the heat dissipation device is outdoors.
A dextrogyrate compound of formula, or a pharmaceutically acceptable salt thereof, in the form of a single axially chiral isomer or enriched in an axially chiral isomer, "enriched in an axially chiral isomer" refers to the content of one of the axially chiral isomers is<100%, and ≥95%;