mhurhangee/ep-ind-claims huggingface dataset:
A communication device for handling a hybrid automatic repeat request, hereafter referred to as HARQ, transmission, the communication device comprising: a storage unit, for storing instructions of: performing a first downlink, hereafter referred to as DL, reception in a first subframe from a serving cell; and transmitting a first HARQ feedback in a second subframe to the serving cell in response to the first DL reception, wherein the second subframe is determined according to the first subframe and a sum of a predetermined timing and a first HARQ timing; wherein the predetermined timing is a fixed value stored in the communication device, or is configured by the serving cell; wherein the first HARQ timing is dynamically or semi-statically configured; and a processing circuit, coupled to the storage unit, configured to execute the instructions stored in the storage unit. performing a first downlink, hereafter referred to as DL, reception in a first subframe from a serving cell; and transmitting a first HARQ feedback in a second subframe to the serving cell in response to the first DL reception, wherein the second subframe is determined according to the first subframe and a sum of a predetermined timing and a first HARQ timing; wherein the predetermined timing is a fixed value stored in the communication device, or is configured by the serving cell; wherein the first HARQ timing is dynamically or semi-statically configured; and a processing circuit, coupled to the storage unit, configured to execute the instructions stored in the storage unit.
A CVD reactor with a flat component (11, 12), wherein the component (11, 12, 15, 17) exhibits two broad sides (3, 3') that run parallel to each other and are spaced apart from each other by a thickness (d), wherein an outer edge of each broad side (3, 3') transitions without any kinks into an edge of an outer peripheral side, forming an edge rounding with an edge rounding radius and an edge rounding arc length (α), wherein the thickness (d) is substantially less than a circle diameter that is surface-equivalent to the broad side surface, wherein the component (11, 12, 15, 17) forms a core body whose material exhibits a greater coefficient of thermal expansion than the material of a coating with which the broad sides (3, 3') and peripheral side are coated at a coating temperature greater than the room temperature, so that the coating exhibits a compressive stress at room temperature, characterized in that the edge rounding arc length (α) is greater than 90° to reduce the stress between the coating and core body.
An electronic device, comprising: a first foldable main body; a second foldable main body, disposed on a side of the first foldable main body; a rotating shaft, disposed between the first foldable main body and the second foldable main body, wherein the first foldable main body and the second foldable main body are rotationally connected to each other by the rotating shaft; and a detection assembly, configured to detect a relative angle between the first foldable main body and the second foldable main body, wherein the detection assembly comprises a first detection part and a second detection part, the first detection part is fixed relative to one of the first foldable main body or the second foldable main body, and the second detection part is fixed relative to the other one of the first foldable main body or the second foldable main body; characterized in that the second detection part comprises a plurality of capacitors, wherein the capacitors are disposed at intervals in a rotating direction of the first foldable main body and the second foldable main body, capacitances of the capacitors are different from one another, the first detection part is switchably connected to the capacitors, and in a case that the first detection part is connected to one of the capacitors, the first detection part is conducted with the second detection part to form a detection loop, wherein distances between all the adjacent capacitors are the same, and capacitances between all the adjacent capacitors increase or decrease at a preset gradient. a first foldable main body; a second foldable main body, disposed on a side of the first foldable main body; a rotating shaft, disposed between the first foldable main body and the second foldable main body, wherein the first foldable main body and the second foldable main body are rotationally connected to each other by the rotating shaft; and a detection assembly, configured to detect a relative angle between the first foldable main body and the second foldable main body, wherein the detection assembly comprises a first detection part and a second detection part, the first detection part is fixed relative to one of the first foldable main body or the second foldable main body, and the second detection part is fixed relative to the other one of the first foldable main body or the second foldable main body; characterized in that the second detection part comprises a plurality of capacitors, wherein the capacitors are disposed at intervals in a rotating direction of the first foldable main body and the second foldable main body, capacitances of the capacitors are different from one another, the first detection part is switchably connected to the capacitors, and in a case that the first detection part is connected to one of the capacitors, the first detection part is conducted with the second detection part to form a detection loop, wherein distances between all the adjacent capacitors are the same, and capacitances between all the adjacent capacitors increase or decrease at a preset gradient.
A molded product produced using a thermoplastic polymer composition comprising: a block copolymer having a number average molecular weight of 30,000 to 200,000, or a hydrogenated product thereof, which has a polymer block mainly composed of α-methylstyrene units and a polymer block mainly composed of conjugated diene compound units or isobutylene units; an acryl-based polymer, and optionally a softening agent at a ratio satisfying the following formulae and: 0.05 ≤ W II / W I ≤ 2 0 ≤ W III / W I + W II + W III ≤ 0.5 wherein W, W, and W represent the contents (by mass) of the block copolymer, the acryl-based polymer, and the softening agent, respectively, in the thermoplastic polymer composition; and having a sea-island structure in which the acryl-based polymer is dispersed in the form of particles in a continuous phase including the block copolymer, in which the average dispersed particle diameter of the dispersed particles of the acryl-based polymer is 200 nm or less, and 35% or more of the dispersed particles have dispersed particle diameters of 40 nm or more and less than 60 nm. a block copolymer having a number average molecular weight of 30,000 to 200,000, or a hydrogenated product thereof, which has a polymer block mainly composed of α-methylstyrene units and a polymer block mainly composed of conjugated diene compound units or isobutylene units; an acryl-based polymer, and
A case configurable in an open position and a closed position, the case comprising: a first body portion comprising an inner surface, wherein the inner surface of the first body portion defines a first cavity extending into the first body portion to receive a first hearing device in the open position; and a second body portion movably coupled to the first body portion and comprising an inner surface, wherein the inner surface of the second body portion defines a second cavity extending into the second body portion to receive a second hearing device in the open position, wherein the first body portion retains the second hearing device and the second body portion retains the first hearing device in the closed position, and wherein the first hearing device is completely contained within the first body portion when received by the first body portion and the second hearing device is completely contained within the second body portion when received by the second body portion. a first body portion comprising an inner surface, wherein the inner surface of the first body portion defines a first cavity extending into the first body portion to receive a first hearing device in the open position; and a second body portion movably coupled to the first body portion and comprising an inner surface, wherein the inner surface of the second body portion defines a second cavity extending into the second body portion to receive a second hearing device in the open position, wherein the first body portion retains the second hearing device and the second body portion retains the first hearing device in the closed position, and wherein the first hearing device is completely contained within the first body portion when received by the first body portion and the second hearing device is completely contained within the second body portion when received by the second body portion.
Conveying method, in which a conveying vehicle conveys an electrically driven motor vehicle during assembly of the motor vehicle, characterized in that the conveying vehicle uses energy which is stored in a traction battery of the motor vehicle.
A device, comprising: a substrate having a first side and a second side, wherein the substrate comprises a light guiding layer having a first light guiding layer part and a second light guiding layer part separated from the first light guiding layer part, the first light guiding layer part and the second light guiding layer part each having a multi-layered structure; an adhesive layer formed on the first side of the substrate that is configured to adhere to an object; an ultraviolet transparent region formed on the first side of the substrate without overlapping with the adhesive layer, wherein the ultraviolet transparent region is configured for placement adjacent to a surface of the object that is subject to undergo treatment upon the adhesive layer adhering to the object; an ultraviolet transparent window formed on the second side of the substrate; and an ultraviolet radiation source, coupled to the second side of the substrate, that is configured to emit ultraviolet radiation through the ultraviolet transparent window towards the ultraviolet transparent region and onto the surface of the object. a substrate having a first side and a second side, wherein the substrate comprises a light guiding layer having a first light guiding layer part and a second light guiding layer part separated from the first light guiding layer part, the first light guiding layer part and the second light guiding layer part each having a multi-layered structure; an adhesive layer formed on the first side of the substrate that is configured to adhere to an object; an ultraviolet transparent region formed on the first side of the substrate without overlapping with the adhesive layer, wherein the ultraviolet transparent region is configured for placement adjacent to a surface of the object that is subject to undergo treatment upon the adhesive layer adhering to the object; an ultraviolet transparent window formed on the second side of the substrate; and an ultraviolet radiation source, coupled to the second side of the substrate, that is configured to emit ultraviolet radiation through the ultraviolet transparent window towards the ultraviolet transparent region and onto the surface of the object.
A system for bone fixation comprising (a) one or more plates (11, 12) comprising one or more fastener openings through which one or more fasteners can be passed to affix the plate to at least two vertebrae, the fastener openings passing from a top surface through the plate to a bottom surface, the bottom surface for positioning adjacent the vertebrae; (b) one or more blockers, wherein the blockers are arranged adjacent the top surface and have at least one end which protrudes into a fastener opening, wherein the blockers are slidably attached so that they may be moved laterally perpendicular to a longitudinal axis of the plate capable of allowing the one or more fasteners to be installed into a respective vertebrae, and also capable of automatically preventing the one or more fasteners from substantially backing out of a respective fastener opening; and one or more spring elements, wherein the one or more plates (11, 12) comprise one or more openings passing from the top surface through the plate to the bottom surface, the openings each configured to receive one of the spring elements beneath the one of the blockers, the spring elements configured to enable automatic return of a blocker to a home position in which the blocker prevents the respective fastener from substantially backing out. (a) one or more plates (11, 12) comprising one or more fastener openings through which one or more fasteners can be passed to affix the plate to at least two vertebrae, the fastener openings passing from a top surface through the plate to a bottom surface, the bottom surface for positioning adjacent the vertebrae; (b) one or more blockers, wherein the blockers are arranged adjacent the top surface and have at least one end which protrudes into a fastener opening,
Method for milling an opencast mining surface or for milling off layers of an asphalt or concrete traffic surface with a milling machine removing the ground surface, - by milling the ground surface along a predetermined milling track having a predetermined length, - by transporting the milled material via a conveying device to at least one container of a truck that travels along next to the milling machine, said truck having a predetermined maximum loading volume per load, and - by replacing a fully loaded truck with an unloaded truck when the maximum loading volume of a truck load has been reached, characterized by - calculation of the maximum total loading volume resulting over the length of the current milling track as a function of the current effective working width and a milling depth that has been optimized in relation to a predetermined, preferably maximum milling power, - calculation of the number of truck loads required for the maximum total loading volume of a milling track, - determination of an effective total loading volume of the current milling track, which results from the volume of the nearest whole number of loads, and - adjustment of the adjustable total milling volume of the milling machine over the length of the milling track to match the effective total loading volume that results in a whole number of loads. - by milling the ground surface along a predetermined milling track having a predetermined length, - by transporting the milled material via a conveying device to at least one container of a truck that travels along next to the milling machine, said truck having a predetermined maximum loading volume per load, and - by replacing a fully loaded truck with an unloaded truck when the maximum loading volume of a truck load has been reached, - calculation of the maximum total loading volume resulting over the length of the current milling track as a function of the current effective working width and a milling depth that has been optimized in relation to a predetermined, preferably maximum milling power, - calculation of the number of truck loads required for the maximum total loading volume of a milling track, - determination of an effective total loading volume of the current milling track, which results from the volume of the nearest whole number of loads, and - adjustment of the adjustable total milling volume of the milling machine over the length of the milling track to match the effective total loading volume that results in a whole number of loads.
A method for forming a junction diode, the method comprising: a) forming semiconductor pillars, the pillars comprising an amorphous alloy of silicon and germanium; characterised by b) crystallizing said pillars by heating said pillars at a first temperature for at least 30 minutes; and c) further heating said pillars at a second temperature, wherein the second temperature is higher than the first temperature, for about 120 seconds or less. a) forming semiconductor pillars, the pillars comprising an amorphous alloy of silicon and germanium; characterised by b) crystallizing said pillars by heating said pillars at a first temperature for at least 30 minutes; and c) further heating said pillars at a second temperature, wherein the second temperature is higher than the first temperature, for about 120 seconds or less.
An aqueous sealing agent composition for a non-aqueous electrolyte battery, comprising an aqueous dispersion in an amount of 70 to 97 wt% in terms of weight of a solid content, the aqueous dispersion containing a conjugated diene-based polymer in an amount of 20 wt% or more in terms of weight of a solid content, wherein the conjugated diene-based polymer is at least one of polybutadiene and polyisoprene.
Dryer having a drying chamber for the articles to be dried, a supply air duct, a process air duct in which there is disposed a heater for heating the process air and the heated process air can be guided by means of a blower over the articles to be dried and directed via an exhaust air duct to an exhaust air outlet, characterised in that the process air duct splits at a branching-off point into a recirculated air duct to the heater and the exhaust air duct which leads to the exhaust air outlet, that an internally and/or externally cleanable lint filter is disposed in the recirculated air duct and the recirculated air duct joins the supply air duct upstream of the heater, and that the lint filter is internally cleanable and is provided with a cleaning device (22,23,25,26,28).
A brewhouse facility (01, 16) for wort production having a wort cooler, by means of which the wort can be cooled from a hot wort temperature to a desired pitching temperature after cooking the wort and before adding yeast, wherein the wort cooler is formed in the type of a heat exchanger and is cooled by means of water, and having a main hot water tank, in which the water previously heated from a cold water temperature in the wort cooler can be stored at a hot water temperature, characterized in that a temporary storage tank is arranged downstream of the wort cooler, the water previously heated to a temporary temperature in the wort cooler being able to be buffered in said temporary storage tank, wherein the temporary temperature in the temporary storage tank is hotter than the hot water temperature of the water in the main hot water tank, wherein a heat exchanger is arranged downstream of the temporary storage tank, said heat exchanger being formed in the type of a mash heating device, by means of which mash can be heated before lautering.
Cosmetic or dermatological aerosol gel comprising water and 0.05 to 5% by weight acrylic acid/VP crosspolymer, based on the total mass of the gel without propellant, and 5 to 50% by weight dimethyl ether as propellant, based on the total mass of the aerosol gel including propellant, characterized in that no other propellants and/or thickeners are present and no other styling polymers are present.
A device for compacting a subsurface, comprising - an undercarriage having a baseplate arranged thereon, - an upper carriage, which is connected to the undercarriage in a force-transmitting manner and comprises a vibration exciter which sets at least the baseplate of the undercarriage in vibration during operation of the device, and - a contact plate, which is arranged on the baseplate, on an underside of the baseplate facing away from the upper carriage, and comes into direct contact with the subsurface to be compacted during operation of the device, the contact plate and the baseplate being connected to each other in a force-transmitting, non-destructively detachable manner, and the contact plate having at least one connection region, which engages in a directly interlocking manner with the baseplate and transmits the force between the contact plate and the baseplate during operation of the device, characterised in that wherein the connection region is moulded on the rest of the contact plate and, when the contact plate is in an installed state, fits around the baseplate in an interlocking manner from the underside of the baseplate, extends to an upper side of the baseplate facing the upper carriage and engages with the upper side there. - an undercarriage having a baseplate arranged thereon, - an upper carriage, which is connected to the undercarriage in a force-transmitting manner and comprises a vibration exciter which sets at least the baseplate of the undercarriage in vibration during operation of the device, and - a contact plate, which is arranged on the baseplate, on an underside of the baseplate facing away from the upper carriage, and comes into direct contact with the subsurface to be compacted during operation of the device,
Operating device for an air vent which has at least one pivotable slat, with a first operating lever which has a first lever arm, a second lever arm and a bearing element which is arranged between said lever arms and about which the first operating lever is mounted pivotably about a pivot axis, and with a second operating lever which has a first lever arm, a second lever arm and a bearing element which is arranged between said two lever arms and about which the second operating lever is mounted pivotably about a pivot axis, wherein the first lever arm of the second operating lever is coupled to the second lever arm of the first operating lever, and the second lever arm of the second operating lever can be coupled pivotably to the slat, characterized in that a housing part is provided which has a bearing receptacle (44, 46) for the bearing elements (38, 40) of the first and the second operating lever (22, 26).
A method of operating a radio station, comprising: transmitting a continuous control signal and a discontinuous data signal simultaneously; receiving first and second transmit power control commands; adjusting transmit power by • in response to the first power control commands, increasing transmit power by a power step, • in response to the second power control commands, decreasing transmit power by a power step, further comprising changing the power level of the control signal when initiating or terminating transmission of the data signal, and in response to initiating or terminating transmission of the data signal, temporarily modifying the response to the power control commands as a function of the magnitude or direction of the power level change of the control signal. transmitting a continuous control signal and a discontinuous data signal simultaneously; receiving first and second transmit power control commands; adjusting transmit power by • in response to the first power control commands, increasing transmit power by a power step, • in response to the second power control commands, decreasing transmit power by a power step, • in response to the first power control commands, increasing transmit power by a power step, • in response to the second power control commands, decreasing transmit power by a power step, further comprising changing the power level of the control signal when initiating or terminating transmission of the data signal, and in response to initiating or terminating transmission of the data signal, temporarily modifying the response to the power control commands as a function of the magnitude or direction of the power level change of the control signal.
A carboxyl-containing resin comprising a structure resulting from addition of a monocarboxylic acid to one or more of epoxy groups and addition of a polybasic acid to one or more of the other epoxy groups of a biphenyl novolac epoxy resin.