mhurhangee/patent-ind-claim-en huggingface dataset:
A pouch case for receiving and packaging an electrode assembly , the pouch case comprising: a first receiving part and a second receiving part which are concavely formed; a sealing part formed along an outer portion of the pouch case so as to surround the first receiving part and the second receiving part ; and a partitioning part formed between the first receiving part and the second receiving part and protruding from a bottom surface of each receiving part to partition the first receiving part and the second receiving part , wherein the partitioning part includes: a first partitioning part having an upper end having a height lower than that of the sealing part and partitioning the first receiving part and the second receiving part at a middle of the partitioning part; a second partitioning part having an upper surface having the same height as that of the sealing part at both ends of the partitioning part; and a third partitioning part connecting the first partitioning part and the second partitioning part to each other, wherein the first partitioning part includes a curved part having an upper end portion formed in a curved cross section. a first receiving part and a second receiving part which are concavely formed; a sealing part formed along an outer portion of the pouch case so as to surround the first receiving part and the second receiving part ; and a partitioning part formed between the first receiving part and the second receiving part and protruding from a bottom surface of each receiving part to partition the first receiving part and the second receiving part , wherein the partitioning part includes: a first partitioning part having an upper end having a height lower than that of the sealing part and partitioning the first receiving part and the second receiving part at a middle of the partitioning part; a second partitioning part having an upper surface having the same height as that of the sealing part at both ends of the partitioning part; and a third partitioning part connecting the first partitioning part and the second partitioning part to each other, wherein the first partitioning part includes a curved part having an upper end portion formed in a curved cross section. a first partitioning part having an upper end having a height lower than that of the sealing part and partitioning the first receiving part and the second receiving part at a middle of the partitioning part; a second partitioning part having an upper surface having the same height as that of the sealing part at both ends of the partitioning part; and a third partitioning part connecting the first partitioning part and the second partitioning part to each other, wherein the first partitioning part includes a curved part having an upper end portion formed in a curved cross section.
Extractor hood comprising a viewing hood and at least one inner element for covering the distance between a suction opening and an outlet opening of the viewing hood , wherein the inner element has an air passage , via which air can be guided to the outlet opening , the air passage of the inner element has a size and shape which correspond to the size and shape of the outlet opening of the viewing hood , the inner element covers the entire suction opening in a perpendicular projection onto the suction opening, apart from the air passage for supplying air to the outlet opening of the viewing hood, and the inner element is connected to the viewing hood , characterised in that the inner element consists of an elastically deformable plastic.
Method for drying hygroscopic material , comprising the steps: a) supplying hygroscopic material in a drying chamber comprising a drying medium , wherein the hygroscopic material is wood, peat or biomass, b) supplying energy to the drying chamber , c) detecting the drying medium's dry bulb temperature in the drying chamber and providing an output signal for the detected dry bulb temperature, d) detecting the drying medium's wet bulb temperature in the drying chamber and providing an output signal for the detected wet bulb temperature, e) detecting the temperature of the hygroscopic material's surface layer and providing an output signal for the detected surface temperature, characterized by the step: f) utilizing the output signal for the detected dry bulb temperature, the output signal for the detected wet bulb temperature and the output signal for the detected surface temperature as an indication of the hygroscopic material's surface moisture content for regulating the properties of the drying medium , wherein at the beginning of the drying process, if the surface is saturated with moisture, the surface temperature of the hygroscopic material corresponds to the wet bulb temperature of the drying medium, wherein, as drying proceeds, the surface temperature more and more reaches the dry bulb temperature of the drying medium, and the surface of the hygroscopic material reaches an equilibrium surface moisture content when the surface has a temperature equal to the drying medium's dry bulb temperature, wherein a measure of the surface moisture content of the hygroscopic material is obtained from the relation between the surface temperature and the dry bulb temperature, and the relation between the surface temperature and the wet bulb temperature, and wherein said measure of the surface moisture content of the hygroscopic material is used for the regulating of the properties of the drying medium and for predicting the end of the drying process before it happens. a) supplying hygroscopic material in a drying chamber comprising a drying medium , wherein the hygroscopic material is wood, peat or biomass, b) supplying energy to the drying chamber , c) detecting the drying medium's dry bulb temperature in the drying chamber and providing an output signal for the detected dry bulb temperature, d) detecting the drying medium's wet bulb temperature in the drying chamber and providing an output signal for the detected wet bulb temperature, e) detecting the temperature of the hygroscopic material's surface layer and providing an output signal for the detected surface temperature, f) utilizing the output signal for the detected dry bulb temperature, the output signal for the detected wet bulb temperature and the output signal for the detected surface temperature as an indication of the hygroscopic material's surface moisture content for regulating the properties of the drying medium ,
A method for producing an electronic component comprising barrier layers for the encapsulation of the component, comprising the following steps: - providing a substrate with at least one functional layer , - applying at least one first barrier layer on the functional layer by means of plasma-enhanced atomic layer deposition (PEALD), wherein the first barrier layer comprises one or more materials chosen from: - oxide with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - nitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - oxynitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - indium tin oxide, - aluminum zinc oxide, and - applying at least one second barrier layer on the functional layer by means of plasma-enhanced chemical vapor deposition (PECVD), a layer sequence composed of at least two layers comprising different materials is applied as the second barrier layer and the at least two layers comprising different materials comprise a layer comprising an oxide and a layer comprising a nitride, - applying a protective layer comprising a plastic material on the first and second barrier layers . - providing a substrate with at least one functional layer , - applying at least one first barrier layer on the functional layer by means of plasma-enhanced atomic layer deposition (PEALD), wherein the first barrier layer comprises one or more materials chosen from: - oxide with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - nitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - oxynitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - indium tin oxide, - aluminum zinc oxide, and - oxide with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - nitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - oxynitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - indium tin oxide, - aluminum zinc oxide, - applying at least one second barrier layer on the functional layer by means of plasma-enhanced chemical vapor deposition (PECVD), a layer sequence composed of at least two layers comprising different materials is applied as the second barrier layer and the at least two layers comprising different materials comprise a layer comprising an oxide and a layer comprising a nitride, - applying a protective layer comprising a plastic material on the first and second barrier layers .
An apparatus of a user equipment, UE , operable to perform device to device, D2D, discovery in a wireless network, the apparatus comprising: one or more processors configured to: receive a temporary identification and a cell identification for D2D discovery from an enhanced node B, eNB; identify, from the temporary identification and the cell identification, a resource block index per slot per cell, a slot index in each discovery zone, and a discovery sequence index; determine a UE D2D discovery resource from a mapping rule based, in part, on the resource block index per slot per cell, the slot index in each discovery zone, and the discovery sequence index, said mapping rule defining that a slot index in each discovery zone can be different in a next discovery zone for two UEs, with said index being the same in a current discovery zone, or that a resource block index per slot per cell can be different in a next discovery zone for one UE, wherein the mapping rule computes a new resource block index by modulating the sum of the resource block index and the discovery sequence index by 78; and encode a D2D discovery message for transmission from the UE using the UE D2D discovery resource. receive a temporary identification and a cell identification for D2D discovery from an enhanced node B, eNB; identify, from the temporary identification and the cell identification, a resource block index per slot per cell, a slot index in each discovery zone, and a discovery sequence index; determine a UE D2D discovery resource from a mapping rule based, in part, on the resource block index per slot per cell, the slot index in each discovery zone, and the discovery sequence index, said mapping rule defining that a slot index in each discovery zone can be different in a next discovery zone for two UEs, with said index being the same in a current discovery zone, or that a resource block index per slot per cell can be different in a next discovery zone for one UE, wherein the mapping rule computes a new resource block index by modulating the sum of the resource block index and the discovery sequence index by 78; and encode a D2D discovery message for transmission from the UE using the UE D2D discovery resource.
Seat assembly for a cabin of a means of transportation, having: - an aisle which is arranged in a longitudinal direction (x) of the cabin , - two mutually spaced cabin walls which are oriented at least regionally parallel to the aisle and laterally delimit the cabin , - two outer passenger seat regions which are separated from one another by the aisle and in each case adjoin one of the two cabin walls , wherein the outer passenger seat regions have at least one row of seats with a respective inner first seat module which faces the aisle , a central second seat module adjacent to the first seat module, and an outer third seat module adjoining the respective cabin wall , wherein each of the first and third seat modules has a seat and an ottoman paired with the seat or a foot rest at a distance from the respective seat, and the second seat module has a seat and a foot rest at a distance from this seat, wherein the third seat module is offset from the second seat module in the longitudinal direction (x) such that the seat of the third seat module adjoins the foot rest of the second seat module in the transverse direction, wherein the foot rest of the second seat module is a foldable foot rest which is configured to clear a floor located below the foot rest for reaching the seat of the second seat module if required, and wherein the seats of the seat modules in each case have a seat direction, said seat directions running parallel to the longitudinal axis (x) and being co-directional. - an aisle which is arranged in a longitudinal direction (x) of the cabin , - two mutually spaced cabin walls which are oriented at least regionally parallel to the aisle and laterally delimit the cabin , - two outer passenger seat regions which are separated from one another by the aisle and in each case adjoin one of the two cabin walls , wherein the outer passenger seat regions have at least one row of seats with a respective inner first seat module which faces the aisle , a central second seat module adjacent to the first seat module, and an outer third seat module adjoining the respective cabin wall , wherein each of the first and third seat modules has a seat and an ottoman paired with the seat or a foot rest at a distance from the respective seat, and the second seat module has a seat and a foot rest at a distance from this seat, wherein the third seat module is offset from the second seat module in the longitudinal direction (x) such that the seat of the third seat module adjoins the foot rest of the second seat module in the transverse direction, wherein the foot rest of the second seat module is a foldable foot rest which is configured to clear a floor located below the foot rest for reaching the seat of the second seat module if required, and wherein the seats of the seat modules in each case have a seat direction, said seat directions running parallel to the longitudinal axis (x) and being co-directional.
Antenna assembly for a sensor for facility automation, in particular for fill level or limit level monitoring, comprising: - a primary emitter arranged to transmit a radar signal, - a first lens for focusing the radar signal, - at least one second lens for optimizing the focused radar signal, wherein the second lens is spaced apart from the first lens and the primary emitter for thermally, electrically or medially decoupling the primary emitter and the first lens from the second lens ; characterized in that the antenna arrangement comprises a radio frequency attenuator in an edge region between the first and second lenses, the radio frequency attenuator is arranged to suppress side lobes of the radar signal. - a primary emitter arranged to transmit a radar signal, - a first lens for focusing the radar signal, - at least one second lens for optimizing the focused radar signal,
An apparatus comprising: a port to receive flow control units, flits, across a serial interconnect, the flits comprising a first flit and subsequent flits; and a protocol stack comprising: forward error correction, FEC, logic to identify a correctable error in the first flit using each of three error correcting code, ECC, groups , the FEC logic to correct the error using each of the ECC group; characterized by further comprising: an error log , the error log to log: a symbol number in the first flit corrected by each ECC group, and a magnitude of the error corrected by each ECC group in the first flit. a port to receive flow control units, flits, across a serial interconnect, the flits comprising a first flit and subsequent flits; and a protocol stack comprising: forward error correction, FEC, logic to identify a correctable error in the first flit using each of three error correcting code, ECC, groups , the FEC logic to correct the error using each of the ECC group; characterized by further comprising: an error log , the error log to log: a symbol number in the first flit corrected by each ECC group, and a magnitude of the error corrected by each ECC group in the first flit. an error log , the error log to log: a symbol number in the first flit corrected by each ECC group, and a magnitude of the error corrected by each ECC group in the first flit.
A method in an in-coverage, IC, user equipment, UE, for the IC UE to become a synchronization source for out-of-coverage UEs for device-to-device, D2D, communication, the method comprising: obtaining , by the IC UE, scanning parameters instructing the IC UE when to scan for out-of-network UEs signal, wherein the scanning parameters are sent by a Transmission Point, TP, in a system information block, SIB, wherein the SIB contains an idle flag and the scanning parameters , wherein the idle flag indicates whether an idle UE has a capability of becoming the synchronization source, wherein the scanning parameters comprise T1, T2, and T3, wherein T1 is a time gap between scanning windows, T2 is a length of time of the scanning window, and T3 is a total length of time for scanning; scanning , by the IC UE, for out-of-coverage synchronization signals according to the scanning parameters ; transmitting , by the IC UE, a measurement report to the TP in response to a reception of out-of-coverage synchronization signals, the measurement report comprising information of one or more received out-of-coverage synchronization signals; receiving , by the IC UE, a configuration message from the TP instructing the IC UE to become a synchronization source; and transmitting , by the IC UE, a D2D synchronization signal, D2DSS, for a duration of time or until instructed not to do so by the TP. obtaining , by the IC UE, scanning parameters instructing the IC UE when to scan for out-of-network UEs signal, wherein the scanning parameters are sent by a Transmission Point, TP, in a system information block, SIB, wherein the SIB contains an idle flag and the scanning parameters , wherein the idle flag indicates whether an idle UE has a capability of becoming the synchronization source, wherein the scanning parameters comprise T1, T2, and T3, wherein T1 is a time gap between scanning windows, T2 is a length of time of the scanning window, and T3 is a total length of time for scanning; scanning , by the IC UE, for out-of-coverage synchronization signals according to the scanning parameters ; transmitting , by the IC UE, a measurement report to the TP in response to a reception of out-of-coverage synchronization signals, the measurement report comprising information of one or more received out-of-coverage synchronization signals; receiving , by the IC UE, a configuration message from the TP instructing the IC UE to become a synchronization source; and transmitting , by the IC UE, a D2D synchronization signal, D2DSS, for a duration of time or until instructed not to do so by the TP.
A cantilever umbrella assembly, comprising: a canopy ; an upright pole including an upright guide surface; a runner coupled with the upright pole, the runner having a bearing coupled with the guide surface for guiding the runner along the upright pole; a clamp coupled with the runner for holding the runner at a selected elevation along the upright pole, the clamp being configured to apply pressure to the upright pole at positions along the upright pole; a transverse pole having an end coupled with the runner; a strut coupling an upper end of the upright pole with the transverse pole at a position along the length thereof; a deployable tension member with a second end disposed in the transverse pole and a first end coupled with the canopy; and a crank and a spool coupled with the second end of the tension member, the first end of the tension member being coupled with the canopy by means of a canopy frame member. a canopy ; an upright pole including an upright guide surface; a runner coupled with the upright pole, the runner having a bearing coupled with the guide surface for guiding the runner along the upright pole; a clamp coupled with the runner for holding the runner at a selected elevation along the upright pole, the clamp being configured to apply pressure to the upright pole at positions along the upright pole; a transverse pole having an end coupled with the runner; a strut coupling an upper end of the upright pole with the transverse pole at a position along the length thereof; a deployable tension member with a second end disposed in the transverse pole and a first end coupled with the canopy; and a crank and a spool coupled with the second end of the tension member, the first end of the tension member being coupled with the canopy by means of a canopy frame member.
A method comprising: receiving a first configuration for grantless uplink subframes from a network node via radio resource control signaling as a bitmap indicating for one or more subframes whether or not grantless uplink transmissions is allowed; receiving a second configuration for determining additional restrictions for grantless uplink subframes; and determining from the received second configuration when grantless uplink transmission is not allowed for at least one grantless uplink subframe, wherein the second configuration indicates that the grantless uplink transmission is not allowed in at least one of the following: in a same subframe as a scheduled uplink transmission; in a previous and the same subframe as the scheduled uplink transmission; in m subframes following a scheduled uplink transmission; and in m subframes following a correctly received scheduled uplink transmission, where value of m is either a predetermined or a configurable variable. receiving a first configuration for grantless uplink subframes from a network node via radio resource control signaling as a bitmap indicating for one or more subframes whether or not grantless uplink transmissions is allowed; receiving a second configuration for determining additional restrictions for grantless uplink subframes; and determining from the received second configuration when grantless uplink transmission is not allowed for at least one grantless uplink subframe, wherein the second configuration indicates that the grantless uplink transmission is not allowed in at least one of the following: in a same subframe as a scheduled uplink transmission; in a previous and the same subframe as the scheduled uplink transmission; in m subframes following a scheduled uplink transmission; and in m subframes following a correctly received scheduled uplink transmission, where value of m is either a predetermined or a configurable variable.