mhurhangee/ep-ind-claims huggingface dataset:
A method of communicating in a wireless communications system, the method comprising: receiving (455, 460, 465), by a station, a periodic scheduling indicator from an access point, the method further comprises; receiving a per user compression indicator and scheduling information from the access point, AP, wherein the periodic scheduling indicator indicates whether a periodic transmission is scheduled for the station, and wherein the compression indicator indicates whether the scheduling information for the particular station is compressed scheduling information and wherein each station in the system has its own compression indicator; determining, by the station, full scheduling information in accordance with the periodic scheduling indicator, the compression indicator and the scheduling information; and, transmitting, by the station, a packet in accordance with the full scheduling information to the AP. receiving (455, 460, 465), by a station, a periodic scheduling indicator from an access point, the method further comprises; receiving a per user compression indicator and scheduling information from the access point, AP, wherein the periodic scheduling indicator indicates whether a periodic transmission is scheduled for the station, and wherein the compression indicator indicates whether the scheduling information for the particular station is compressed scheduling information and wherein each station in the system has its own compression indicator; determining, by the station, full scheduling information in accordance with the periodic scheduling indicator, the compression indicator and the scheduling information; and, transmitting, by the station, a packet in accordance with the full scheduling information to the AP.
Hob module with a housing, a setting plate provided on the upper side of the housing and a vapor extractor device with a fan in order to suck away hazes and vapors produced during cooking from the upper side of the setting plate downwards in a flow direction, wherein an air inflow chamber is formed in the housing, which air inflow chamber is accessible from the outside through an air inlet opening provided in the setting plate and wherein the fan is accommodated in the housing downstream of the air inlet chamber, wherein the extractor device has a holder for a grease filter in front of the fan in the flow direction and comprises fastening means for attaching an odour filter, and wherein the fastening means for the odour filter are provided between the holder for the grease filter and the fan in the housing as viewed in the flow direction, characterized in that the fastening means for the odour filter have a receptacle which is accessible from a front side of the hob module and into which an odour filter can be inserted from the front side of the hob module, and in that the receptacle is accessible from the front side of the hob module and has a downwardly pointing insertion opening into which an odour filter can be inserted from the front side of the hob module by sliding it upwards from below.
A storage means, in particular a tray, for receiving food and/or luxury food, in particular meat, fish and poultry, with a base body on which food can be stored, wherein the base body has at least one identification means permanently connected thereon, wherein the identification means is configured such that it is able to interact in a contactless manner with a separate electronic theft detection device and/or information reading device, characterized in that the base body is constructed in a multilayered manner, wherein the identification means is arranged, preferably completely embedded, between two layers (11, 12).
A computer-implemented method comprising: determining a flight path for an aerial vehicle; aggregating risk-related data retrieved for the flight path and areas within a threshold distance of the flight path; calculating at least one risk area corresponding to a geographic area along the flight path based on the aggregated risk-related data; predicting a risk level for the at least one risk area based on the aggregated risk-related data for the at least one risk area; generating a representation of the at least one risk area as a virtual obstacle object, wherein the virtual obstacle object is a three-dimensional volume, wherein the at least one risk area forms the footprint of the virtual obstacle object, and wherein the volume extends vertically from the ground, at the at least one risk area, up to a height that is proportional to the respective risk level; and rendering the virtual obstacle object in a user interface of a device in relation to the flight path. determining a flight path for an aerial vehicle; aggregating risk-related data retrieved for the flight path and areas within a threshold distance of the flight path; calculating at least one risk area corresponding to a geographic area along the flight path based on the aggregated risk-related data; predicting a risk level for the at least one risk area based on the aggregated risk-related data for the at least one risk area; generating a representation of the at least one risk area as a virtual obstacle object, wherein the virtual obstacle object is a three-dimensional volume, wherein the at least one risk area forms the footprint of the virtual obstacle object, and wherein the volume extends vertically from the ground, at the at least one risk area, up to a height that is proportional to the respective risk level; and rendering the virtual obstacle object in a user interface of a device in relation to the flight path.
A method performed by a terminal in a wireless communication system, the method comprising: transmitting a random access preamble to a base station; receiving a random access response, RAR, medium access control, MAC, protocol data unit, PDU including a plurality of MAC subPDUs from the base station, wherein one or more MAC subPDUs among the plurality of MAC subPDUs include a MAC RAR and a MAC subheader corresponding to the MAC RAR; identifying that a first MAC subPDU among the plurality of MAC subPDUs includes a random access preamble identifier, RAPID, that corresponds to the transmitted random access preamble, in a first MAC subheader; identifying whether the RAPID in the first MAC subheader corresponds to one of RAPIDs for system information, SI, request or not; and identifying a presence of a MAC RAR in the first MAC subPDU based on whether the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request or not, wherein the MAC RAR is not included in the first MAC subPDU and the first MAC subheader is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request, and wherein the first MAC subheader and the MAC RAR is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader does not correspond to one of the RAPIDs for SI request. transmitting a random access preamble to a base station; receiving a random access response, RAR, medium access control, MAC, protocol data unit, PDU including a plurality of MAC subPDUs from the base station, wherein one or more MAC subPDUs among the plurality of MAC subPDUs include a MAC RAR and a MAC subheader corresponding to the MAC RAR; identifying that a first MAC subPDU among the plurality of MAC subPDUs includes a random access preamble identifier, RAPID, that corresponds to the transmitted random access preamble, in a first MAC subheader; identifying whether the RAPID in the first MAC subheader corresponds to one of RAPIDs for system information, SI, request or not; and identifying a presence of a MAC RAR in the first MAC subPDU based on whether the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request or not, wherein the MAC RAR is not included in the first MAC subPDU and the first MAC subheader is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request, and wherein the first MAC subheader and the MAC RAR is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader does not correspond to one of the RAPIDs for SI request.
A composition for treating a joint condition, comprising: a formulation comprising high molecular weight hyaluronic acid; and at least one stabilizer, wherein the stabilizer increases stability of the formulation; and at least one additional component which is lyophilized glycosaminoglycan; wherein the additional component is present within the composition at a ratio of HA to additional component in the range of about 1:0.005 to 1:100; wherein the at least one stabilizer is present in a range of about 0.1% to 50% by weight of the composition; wherein the term "glycosaminoglycan," or "GAG" refers to heparin, heparin sulfate, chondroitin, chondroitin sulfate, keratan sulfate, or dermatan sulfate; wherein the "at least one stabilizer" is selected from the list consisting of saccharides, disaccharides, modified saccharides, sugar alcohols and polysaccharides. a formulation comprising high molecular weight hyaluronic acid; and at least one stabilizer, wherein the stabilizer increases stability of the formulation; and at least one additional component which is lyophilized glycosaminoglycan; wherein the additional component is present within the composition at a ratio of HA to additional component in the range of about 1:0.005 to 1:100; wherein the at least one stabilizer is present in a range of about 0.1% to 50% by weight of the composition; wherein the term "glycosaminoglycan," or "GAG" refers to heparin, heparin sulfate, chondroitin, chondroitin sulfate, keratan sulfate, or dermatan sulfate; wherein the "at least one stabilizer" is selected from the list consisting of saccharides, disaccharides, modified saccharides, sugar alcohols and polysaccharides.
A powder conveying injector for conveying coating powder which comprises a drive nozzle and a collecting nozzle, wherein the collecting nozzle comprises a stream collecting channel disposed axially opposite from the drive nozzle at a distance, wherein an injector housing is further provided in which at least the drive nozzle is at least partially accommodated in preferably removable or replaceable manner, and wherein the collecting nozzle and the drive nozzle are consolidated as a single component such that - when the drive nozzle is replaced - said drive nozzle can only be replaced simultaneously with the collecting nozzle.
An inductor, comprising an inductor winding, a housing, and a thermally conductive packaging material, wherein the inductor winding is disposed in the housing; the thermally conductive packaging material is potted in the housing to fill a gap between the inductor winding and the housing; the thermally conductive packaging material comprises a first packaging layer and a second packaging layer, and a coefficient of thermal conductivity of the first packaging layer is greater than a coefficient of thermal conductivity of the second packaging layer; and the housing comprises a heat dissipation wall and a packaging wall, and the first packaging layer is closer to the heat dissipation wall than the second packaging layer, wherein the inductor winding comprises a magnetic core and an inductor coil, the magnetic core comprises a winding region, the inductor coil is wound around the winding region of the magnetic core, characterised in that the heat dissipation wall has a better heat dissipation effect than the packaging wall, the first packaging layer includes a first packaging region and a second packaging region, the first packaging region is located between the inductor coil and the heat dissipation wall, the second packaging region is located between the winding region and the heat dissipation wall, and a coefficient of thermal conductivity of the first packaging region is greater than a coefficient of thermal conductivity of the second packaging region. characterised in that the heat dissipation wall has a better heat dissipation effect than the packaging wall, the first packaging layer includes a first packaging region and a second packaging region, the first packaging region is located between the inductor coil and the heat dissipation wall, the second packaging region is located between the winding region and the heat dissipation wall, and a coefficient of thermal conductivity of the first packaging region is greater than a coefficient of thermal conductivity of the second packaging region.
Safety device for a syringe for avoiding stab wounds, said syringe having a syringe body and a piercing means arranged at the distal end of the syringe body, said safety device comprising a sleeve element which extends in an axial direction and encloses the piercing means and the syringe body at least in part, and an inner element, at least portions of which are arranged inside the sleeve element and enclose the piercing means, wherein the inner element comprises a collar portion and a piercing means protection portion that encloses the piercing means, the collar portion being arranged on a distal end region of the syringe body such that it can rotate in a circumferential direction and fastening the safety device to the syringe body, characterised in that a predetermined breaking point being arranged between the collar portion and the piercing means protection portion, as a result of which the piercing means protection portion can be detached from the collar portion before the syringe is used, wherein the collar portion has at least one guide projection which engages in at least one guide slot of the sleeve element, the at least one guide slot having a curved path, wherein the predetermined breaking point is arranged between a distal end face of the collar portion and a proximal end of the piercing means protection portion, wherein the collar portion and the piercing means protection portion form the inner element in one piece.
Method for producing a multilayered electret structure, comprising the following method steps: a) providing a carrier with an electrode composed of conductive material; b) applying a first electret layer to the electrode; c) applying a second electret layer to the first electret layer in order to form the multilayered electret structure; d) charging a surface or a near-surface volume region of the second electret layer with charge carriers; e) subjecting the multilayered electret structure to a treatment, wherein the charge carriers flow away into the volume of the second electret layer and are retained in a boundary region between first electret layer and second electret layer, characterized in that the first electret layer is formed from an inorganic dielectric material with a high thermal charge carrier stability, and in that the second electret layer is formed from an organic dielectric material with a low thermal charge carrier stability, such that the thermal charge carrier stability of the first electret layer is higher than that of the second electret layer, wherein step e) is a thermal treatment, wherein the temperature is chosen such that the charged charge carriers have a significant mobility in the volume of the second electret layer and a non-significant mobility in the first electret layer, such that the mobility of the charged charge carriers is higher in the second electret layer than in the first electret layer. a) providing a carrier with an electrode composed of conductive material; b) applying a first electret layer to the electrode; c) applying a second electret layer to the first electret layer in order to form the multilayered electret structure; d) charging a surface or a near-surface volume region of the second electret layer with charge carriers; e) subjecting the multilayered electret structure to a treatment, wherein the charge carriers flow away into the volume of the second electret layer and are retained in a boundary region between first electret layer and second electret layer, characterized in that the first electret layer is formed from an inorganic dielectric material with a high thermal charge carrier stability, and in that the second electret layer is formed from an organic dielectric material with a low thermal charge carrier stability, such that the thermal charge carrier stability of the first electret layer is higher than that of the second electret layer, wherein step e) is a thermal treatment, wherein the temperature is chosen such that the charged charge carriers have a significant mobility in the volume of the second electret layer and a non-significant mobility in the first electret layer, such that the mobility of the charged charge carriers is higher in the second electret layer than in the first electret layer.
A method for emergency braking of a moving motor vehicle, comprising the steps of - continuously monitoring by sensor means whether there is reasons to prevent movement of the vehicle wherein said reasons comprise an open door, a loading and unloading ramp which has deployed, an engine bonnet which has opened and a loading hatch which has opened, and - automatically braking the vehicle if there is such reason, wherein the step of automatically braking the vehicle comprises the step of - activating (S2; S4a) an emergency brake function which caters for braking by means of the vehicle's service brake, and - continuously determining (S2b) the vehicle's actual speed and using said speed as a basis for controlling brake torque employed, on the basis of desired deceleration of the vehicle. - continuously monitoring by sensor means whether there is reasons to prevent movement of the vehicle wherein said reasons comprise an open door, a loading and unloading ramp which has deployed, an engine bonnet which has opened and a loading hatch which has opened, and - automatically braking the vehicle if there is such reason, wherein the step of automatically braking the vehicle comprises the step of - activating (S2; S4a) an emergency brake function which caters for braking by means of the vehicle's service brake, and - continuously determining (S2b) the vehicle's actual speed and using said speed as a basis for controlling brake torque employed, on the basis of desired deceleration of the vehicle.
Metering installation for powder pigments, including: a weighing container a comprehensive weighing arrangement, a first conveying unit for transferring the powder pigments into the weighing container, a pneumatic conveying conduit and a funnel-shaped pressure container with compressed air applied, fitted with a seal and a curved outlet connector at the side; a comprehensive pneumatic second conveying unit, a consumer and, if necessary, an intermediate store, wherein the weighing container can be emptied into the second conveying unit and the conveying conduit leads into the consumer via the intermediate store if necessary, characterised in that the weighing container is located upstream of the pressure container, the weighing container having an outlet for weighed powder pigment and can be emptied via a closure, and that an injector tube fed with compressed air with exit openings at the side for the compressed air extends axially into the outlet connector of the pressure container in the direction of the conveying conduit. a weighing container a comprehensive weighing arrangement, a first conveying unit for transferring the powder pigments into the weighing container, a pneumatic conveying conduit and a funnel-shaped pressure container with compressed air applied, fitted with a seal and a curved outlet connector at the side; a comprehensive pneumatic second conveying unit, a consumer and, if necessary, an intermediate store, wherein the weighing container can be emptied into the second conveying unit and the conveying conduit leads into the consumer via the intermediate store if necessary, characterised in that the weighing container is located upstream of the pressure container, the weighing container having an outlet for weighed powder pigment and can be emptied via a closure, and that an injector tube fed with compressed air with exit openings at the side for the compressed air extends axially into the outlet connector of the pressure container in the direction of the conveying conduit.
A resin composition for solar cell encapsulant which comprises the following component and component: component: an ethylene/α-olefin copolymer having the following properties to: a branch number derived from comonomer and a total number of vinyl and vinylidene in the ethylene/a-olefin copolymer satisfy the following relationship of expression and the total number of vinyl and vinylidene in the ethylene/a-olefin copolymer is 0.17 or larger: N × V ≥ 10 wherein N and V are the number, as determined by NMR, per total of 1,000 carbon atoms contained in the main chain and side chain, an MFR (190°C, 21.18-N load) is 0.1-100 g/10 min, and a density is 0.860-0.920 g/cm 3, component: organic peroxide. component: an ethylene/α-olefin copolymer having the following properties to: a branch number derived from comonomer and a total number of vinyl and vinylidene in the ethylene/a-olefin copolymer satisfy the following relationship of expression and the total number of vinyl and vinylidene in the ethylene/a-olefin copolymer is 0.17 or larger: N × V ≥ 10 wherein N and V are the number, as determined by NMR, per total of 1,000 carbon atoms contained in the main chain and side chain, an MFR (190°C, 21.18-N load) is 0.1-100 g/10 min, and a density is 0.860-0.920 g/cm 3, a branch number derived from comonomer and a total number of vinyl and vinylidene in the ethylene/a-olefin copolymer satisfy the following relationship of expression and the total number of vinyl and vinylidene in the ethylene/a-olefin copolymer is 0.17 or larger: N × V ≥ 10 wherein N and V are the number, as determined by NMR, per total of 1,000 carbon atoms contained in the main chain and side chain, an MFR (190°C, 21.18-N load) is 0.1-100 g/10 min, and a density is 0.860-0.920 g/cm 3, component: organic peroxide.
A method for allocating a resource in a V2X system, comprising: allocating, by a network-side device, sub-frame resources for node devices initially accessing a cell, and notifying the initially allocated sub-frame resources to the node devices initially accessing the cell; and the method characterised by further comprising: determining, by the network-side device, colliding node devices among the node devices which have accessed the cell, reallocating sub-frame resources for the colliding node devices, and notifying the reallocated sub-frame resources respectively to the colliding node devices; wherein determining, by the network-side device, the colliding node devices comprises: determining, by the network-side device, the colliding node devices according to interference information related to a sub-frame resource with interference reported by the node devices which have accessed the cell; and determining, by the network-side device, the colliding node devices according to current positional information, of the node devices which have accessed the cell, reported by the node devices. determining, by the network-side device, colliding node devices among the node devices which have accessed the cell, reallocating sub-frame resources for the colliding node devices, and notifying the reallocated sub-frame resources respectively to the colliding node devices; wherein determining, by the network-side device, the colliding node devices comprises: determining, by the network-side device, the colliding node devices according to interference information related to a sub-frame resource with interference reported by the node devices which have accessed the cell; and determining, by the network-side device, the colliding node devices according to current positional information, of the node devices which have accessed the cell, reported by the node devices. determining, by the network-side device, the colliding node devices according to interference information related to a sub-frame resource with interference reported by the node devices which have accessed the cell; and determining, by the network-side device, the colliding node devices according to current positional information, of the node devices which have accessed the cell, reported by the node devices.