mhurhangee/ep-ind-claims huggingface dataset:
A laminate formed to be at least triple-layered, comprising a layer as specified below between two fiber-reinforced resin sheets, wherein when the total thickness of the fiber-reinforced resin sheets is divided by the entire thickness of layer, the value is 0.5 to 3.0: Layer: a resin sheet, having a displacement of 21 mm or greater measured when test force (kN) is attenuated 85% from its peak value in an S-S waveform curve obtained by high-speed puncture testing, wherein an impact-absorbing energy is calculated in accordance with the standards in ISO 6603-2 using the impact tester Hydroshot HITS-P10 made by Shimadzu Corporation, a 100 mm×100 mm test piece is cut out from a 2 mm-thick sheet and test conditions are set to be striker diameter of 12 mm, hole diameter of pressing jig of 76 mm, and velocity at impact of 5 m/sec, wherein the resin in the resin sheet of layer is one type selected from among <1> to <5> below: <1> a resin mixture formed by adding a thermoplastic elastomer resin with a density of 0.86 to 0.92 g/cm 3 to a polyamide resin; <2> a resin mixture formed by adding a thermoplastic elastomer resin with a density of 0.86 to 0.92 g/cm 3 to a polypropylene resin; <3> a polycarbonate resin, having a melt volume rate of 9cm 3 /10 min or lower when measured under conditions of 300°C and a load of 1.2 kg; <4> a resin which comprises a polyamide resin and α-olefin polymer, and the α-olefin polymer is combined at 0 to 50 parts by weight per 100 parts by weight of the polyamide resin; and <5> a resin which comprises a polypropylene resin and an elastomer, the elastomer is combined at 0 to 60 parts by weight per 100 parts by weight of the polypropylene resin, and the elastomer is an ethylene/α-olefin copolymer with a density of 0.86 to 0.92 g/cm 3. <1> a resin mixture formed by adding a thermoplastic elastomer resin with a density of 0.86 to 0.92 g/cm 3 to a polyamide resin; <2> a resin mixture formed by adding a thermoplastic elastomer resin with a density of 0.86 to 0.92 g/cm 3 to a polypropylene resin; <3> a polycarbonate resin, having a melt volume rate of 9cm 3 /10 min or lower when measured under conditions of 300°C and a load of 1.2 kg; <4> a resin which comprises a polyamide resin and α-olefin polymer, and the α-olefin polymer is combined at 0 to 50 parts by weight per 100 parts by weight of the polyamide resin; and <5> a resin which comprises a polypropylene resin and an elastomer, the elastomer is combined at 0 to 60 parts by weight per 100 parts by weight of the polypropylene resin, and the elastomer is an ethylene/α-olefin copolymer with a density of 0.86 to 0.92 g/cm 3.
A resonator, comprising: a resonant chamber (ioa; 10b) defined by a first wall, a second wall opposing said first wall and side walls extending between said first wall and said second wall; pairs (20a; 20b) of resonant posts, each pair of resonant posts comprising a first resonant post (6a; 6b) having a planar surface separated from a second resonant post (4a; 4b) having a planar surface by an intra-pair gap located between said planar surfaces and located in proximity with each other for magnetic field coupling between said first resonant post and said second resonant post, said first resonant post being grounded on said first wall and extending into said resonant chamber from said first wall, said second resonant post being grounded on said second wall and extending into said resonant chamber from said second wall; and wherein said pairs of resonant posts are separated by an inter-pair gap (40a, 40b) and located in proximity with each other for magnetic field coupling between said pairs of resonant posts and wherein said pairs of resonant posts are arranged in rows and columns of a grid or an 'N x N' matrix, and wherein said planar surfaces of said resonant posts are positioned so that each intra-pair gap is orientated to be transverse to said rows and columns. a resonant chamber (ioa; 10b) defined by a first wall, a second wall opposing said first wall and side walls extending between said first wall and said second wall; pairs (20a; 20b) of resonant posts, each pair of resonant posts comprising a first resonant post (6a; 6b) having a planar surface separated from a second resonant post (4a; 4b) having a planar surface by an intra-pair gap located between said planar surfaces and located in proximity with each other for magnetic field coupling between said first resonant post and said second resonant post, said first resonant post being grounded on said first wall and extending into said resonant chamber from said first wall, said second resonant post being grounded on said second wall and extending into said resonant chamber from said second wall; and wherein said pairs of resonant posts are separated by an inter-pair gap (40a, 40b) and located in proximity with each other for magnetic field coupling between said pairs of resonant posts and wherein said pairs of resonant posts are arranged in rows and columns of a grid or an 'N x N' matrix, and wherein said planar surfaces of said resonant posts are positioned so that each intra-pair gap is orientated to be transverse to said rows and columns.
A method for synchronizing data within a distributed ledger network comprising a plurality of member nodes connected via a data communications system, the method comprising, at a first member node: storing first storage data representing blocks of a first blockchain and second storage data representing blocks of at least a second blockchain; extending the first blockchain in response to at least one block being created at said first member node, adding data representing said at least one block to said first storage data; transmitting outbound synchronization data to at least one other member node of the distributed ledger network, the outbound synchronization data comprising data representative of said at least one block; receiving inbound synchronization data from a second member node of the distributed ledger network, the inbound synchronization data comprising data representative of one or more blocks of the second blockchain; and adding the data representing said one or more blocks of the second blockchain to the second storage data, wherein the method further comprises transmitting at least a given type of outbound synchronization data, transmissions of the given type of outbound synchronization data being separated by respective time intervals, wherein during a time interval between one, and the next transmission of the given type of outbound synchronization data, a plurality of blocks of said first blockchain are created, and wherein said next transmission comprises data representing said plurality of blocks. storing first storage data representing blocks of a first blockchain and second storage data representing blocks of at least a second blockchain; extending the first blockchain in response to at least one block being created at said first member node, adding data representing said at least one block to said first storage data; transmitting outbound synchronization data to at least one other member node of the distributed ledger network, the outbound synchronization data comprising data representative of said at least one block; receiving inbound synchronization data from a second member node of the distributed ledger network, the inbound synchronization data comprising data representative of one or more blocks of the second blockchain; and adding the data representing said one or more blocks of the second blockchain to the second storage data, wherein the method further comprises transmitting at least a given type of outbound synchronization data, transmissions of the given type of outbound synchronization data being separated by respective time intervals, wherein during a time interval between one, and the next transmission of the given type of outbound synchronization data, a plurality of blocks of said first blockchain are created, and wherein said next transmission comprises data representing said plurality of blocks.
A method for determining the number of nucleic acid molecules (NAMs) in a group of NAMs, comprising i) subjecting the group of NAMs to a chemical mutagenesis which mutates only select nucleic acid bases in the group of NAMs at a rate of 10% to 90% thus forming a group of mutagenized NAMs (mNAMs) from the NAMs; ii) amplifying the group of mNAMs; iii) obtaining sequences of the mNAMs in the group of amplified mNAMs; and iv) counting the number of different sequences obtained in step (iii) to determine the number of unique mNAMs in the group of mNAMS, thereby determining the number of NAMs in the group of NAMs. i) subjecting the group of NAMs to a chemical mutagenesis which mutates only select nucleic acid bases in the group of NAMs at a rate of 10% to 90% thus forming a group of mutagenized NAMs (mNAMs) from the NAMs; ii) amplifying the group of mNAMs; iii) obtaining sequences of the mNAMs in the group of amplified mNAMs; and iv) counting the number of different sequences obtained in step (iii) to determine the number of unique mNAMs in the group of mNAMS,
A fused ceramic particle having the following chemical composition, in percentages by weight based on the oxides and for a total of 100%: 50 % < ZrO 2 + HfO 2 < 70 %; 10 % < SiO 2 < 30 %; 6.5 % < MgO < 9.5 %; Al 2 O 3 in a quantity such that the MgO/Al 2 O 3 weight ratio ranges between 2.4 and 6.6; 0.25 % < Y 2 O 3; CeO 2 < 10 %; and less than 0.6% of other oxides, wherein HfO 2 denotes only traces of hafnium oxide, this oxide always being naturally present in sources of zirconia in quantities generally less than 2%.
A terminal apparatus comprising: a reception unit configured to monitor a Narrow Band Physical Downlink Control Channel, NB-PDCCH; and a medium access control layer processing unit configured to perform a DRX functionality that controls monitoring of the NB-PDCCH, wherein the medium access control layer processing unit starts a downlink HARQ RTT timer in a case that the NB-PDCCH indicates a downlink transmission, starts an uplink HARQ RTT timer in a case that the NB-PDCCH indicates an uplink transmission, starts a drx-InactivityTimer in a case that the downlink HARQ RTT timer expires, stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the downlink transmission, starts the drx-InactivityTimer in a case that the uplink HARQ RTT timer expires, and stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the uplink transmission. a reception unit configured to monitor a Narrow Band Physical Downlink Control Channel, NB-PDCCH; and a medium access control layer processing unit configured to perform a DRX functionality that controls monitoring of the NB-PDCCH, wherein the medium access control layer processing unit starts a downlink HARQ RTT timer in a case that the NB-PDCCH indicates a downlink transmission, starts an uplink HARQ RTT timer in a case that the NB-PDCCH indicates an uplink transmission, starts a drx-InactivityTimer in a case that the downlink HARQ RTT timer expires, stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the downlink transmission, starts the drx-InactivityTimer in a case that the uplink HARQ RTT timer expires, and stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the uplink transmission. starts a downlink HARQ RTT timer in a case that the NB-PDCCH indicates a downlink transmission, starts an uplink HARQ RTT timer in a case that the NB-PDCCH indicates an uplink transmission, starts a drx-InactivityTimer in a case that the downlink HARQ RTT timer expires, stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the downlink transmission, starts the drx-InactivityTimer in a case that the uplink HARQ RTT timer expires, and stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the uplink transmission.
A method for use in a multi-antenna transmitter device in wireless communication networks, of carrying out cyclic delay mapping processing on signals, wherein, the method carries out cyclic delay mapping processing on multiple branches of signals to be processed with varying cyclic delay mapping rules, so as to generate multiple branches of signals after cyclic delay mapping processing corresponding to the multiple transmitting antennas of said transmitter respectively, wherein the method comprises the steps of: a. judging whether a predefined condition is satisfied; c. in case that the predefined condition is satisfied, processing the multiple branches of signals to be processed with new cyclic delay mapping rules, so as to generate multiple branches of signals after cyclic delay mapping processing corresponding to the multiple transmitting antennas of said transmitter respectively; c'. in case that the predefined condition is not satisfied, processing the multiple branches of signals to be processed with cyclic delay mapping rules currently used, so as to generate multiple branches of signals after cyclic delay mapping processing corresponding to the multiple transmitting antennas of said transmitter respectively, and wherein the cyclic delay mapping rules currently used comprise: carrying out cyclic delay processing on the multiple branches of signals to be processed with a first cyclic delay parameter vector, so as to generate multiple branches of signals after cyclic delay processing, and mapping the multiple branches of signals after cyclic delay processing to the multiple transmitting antennas based on a first mapping manner, so as to generate multiple branches of signals after cyclic delay mapping processing corresponding to the multiple transmitting antennas respectively. carrying out cyclic delay processing on the multiple branches of signals to be processed with a first cyclic delay parameter vector, so as to generate multiple branches of signals after cyclic delay processing, and mapping the multiple branches of signals after cyclic delay processing to the multiple transmitting antennas based on a first mapping manner, so as to generate multiple branches of signals after cyclic delay mapping processing corresponding to the multiple transmitting antennas respectively.
A system comprising a dermal patch and an assistance system, wherein the dermal patch is equipped with a flat carrier material, having, in use, one side facing the skin and one side opposite the skin of a wearer of the dermal patch, wherein the carrier material on the side facing the skin is provided at least partially with an adhesive layer for fixing the dermal patch to the skin of the wearer, characterized in that the dermal patch comprises at least one first pocket section, which is accessible from the side opposite the skin, wherein the first pocket section comprises the assistance system, wherein the assistance system includes at least one: - processor; - storage; - communication unit including a mobile radio communication unit; and - power supply unit. - processor; - storage; - communication unit including a mobile radio communication unit; and - power supply unit.
A method for detecting a diol suspected to be present in a sample, comprising: contacting the sample with a nucleic acid or polypeptide probe covalently linked to one or more reactive organoboronic moiety that is capable of specifically binding to the diol under conditions for the diol to bind to the reactive organoboronic moiety; loading a charged polymeric scaffold, in the presence of the sample, through a pore of a device by applying a voltage across the pore, wherein the pore is located between two volumes of an interior space of said device, wherein the device is configured to pass the polymeric scaffold through the pore from one volume to the other volume, wherein the device further comprises a sensor configured to identify objects passing through the pore, and wherein the probe specifically recognizes and binds to a site on the polymeric scaffold; and determining with the sensor whether the probe bound to the polymeric scaffold is bound to the diol. contacting the sample with a nucleic acid or polypeptide probe covalently linked to one or more reactive organoboronic moiety that is capable of specifically binding to the diol under conditions for the diol to bind to the reactive organoboronic moiety; loading a charged polymeric scaffold, in the presence of the sample, through a pore of a device by applying a voltage across the pore, wherein the pore is located between two volumes of an interior space of said device, wherein the device is configured to pass the polymeric scaffold through the pore from one volume to the other volume, wherein the device further comprises a sensor configured to identify objects passing through the pore, and wherein the probe specifically recognizes and binds to a site on the polymeric scaffold; and determining with the sensor whether the probe bound to the polymeric scaffold is bound to the diol.
An item of support furniture for a standing passenger containing a frame with a support wherein it has a carrying beam and a seat tiltingly fixed to the carrying beam by a ball joint placed inside and along an axis of a spiral spring between the carrying beam and the seat, and the carrying beam is fastened to the frame tiltingly in a turning node and supported by a gas spring through the turning node, and on the other side the spring is fixed to the frame in another turning node below the turning node, which guarantees the change of the height of the location of the seat within the range of up to 100mm by the extension of a piston of the gas spring, and the tilting inclination of the seat surface from the horizontal position is within the range of maximum +/- 15 degrees laterally, and within the range +/- 10 degrees forwards and backwards.
A method for operating a switched-mode power supply, the method comprising: Synchronizing a phase and frequency of an asynchronous controller of the switched-mode power supply with a clock signal of a synchronous controller of the switched-mode power supply while the asynchronous controller is in control of a power stage of the switched-mode power supply; Concurrent with synchronizing the phase and frequency of the asynchronous controller with the clock signal of the synchronous controller, presetting, by means of a sample and hold unit, a state variable of the synchronous controller while the asynchronous controller is in control of the power stage of the switched-mode power supply, wherein presetting the state variable of the synchronous controller comprises setting an output of a compensation unit in the synchronous controller to a preset status; and transferring control of the power stage from the asynchronous controller to the synchronous controller after the phase and frequency of the asynchronous controller are synchronized with the clock signal of the synchronous controller and after the state variable of the synchronous controller is preset. Synchronizing a phase and frequency of an asynchronous controller of the switched-mode power supply with a clock signal of a synchronous controller of the switched-mode power supply while the asynchronous controller is in control of a power stage of the switched-mode power supply; Concurrent with synchronizing the phase and frequency of the asynchronous controller with the clock signal of the synchronous controller, presetting, by means of a sample and hold unit, a state variable of the synchronous controller while the asynchronous controller is in control of the power stage of the switched-mode power supply, wherein presetting the state variable of the synchronous controller comprises setting an output of a compensation unit in the synchronous controller to a preset status; and transferring control of the power stage from the asynchronous controller to the synchronous controller after the phase and frequency of the asynchronous controller are synchronized with the clock signal of the synchronous controller and after the state variable of the synchronous controller is preset.
A seat system, comprising: a door including a locking mechanism, the door being movable between an open position and a closed position; a seat mounted to the door and including a seat bottom movable between a stowed position and a deployed position; and the locking mechanism operatively coupled to the seat bottom and configured such that movement of the seat bottom from the stowed position to the deployed position when the door is in the closed position causes the locking mechanism to engage a fixed door-frame structure located adjacent the door and to immobilize the door against movement from the closed position, and movement of the seat bottom from the deployed position to the stowed position causes the locking mechanism to disengage from the fixed door-frame structure and to allow the door to be moved from the closed position. a door including a locking mechanism, the door being movable between an open position and a closed position; a seat mounted to the door and including a seat bottom movable between a stowed position and a deployed position; and the locking mechanism operatively coupled to the seat bottom and configured such that movement of the seat bottom from the stowed position to the deployed position when the door is in the closed position causes the locking mechanism to engage a fixed door-frame structure located adjacent the door and to immobilize the door against movement from the closed position, and movement of the seat bottom from the deployed position to the stowed position causes the locking mechanism to disengage from the fixed door-frame structure and to allow the door to be moved from the closed position.
Device for treating a strip-shaped metal material in metal processing, wherein the device comprises: at least one roller element (200, 301), preferably roller, roll or winder, which is provided for cross-sectional change, transport, storage, increase in tension and/or decrease in tension of the strip-shaped metal material, and a drive (10, 100), which comprises an electric motor, preferably a torque motor or synchronous motor, with a stator (12, 102, 102') and a rotor (11, 101, 101'), wherein the device further comprises a frame (202, 302), the rotor (11, 101, 101') is connected with the roller element (200, 301), whereby the rotation of the totor (11, 101, 101') is transmitted to the roller element (200, 301), and the stator (12, 102, 102') is directly mounted on the frame (202, 302) and/or the rotor (11, 101, 101') is directly connected with the roller element (200, 301) or a shaft (201, 304) of the roller element (200, 301), characterised in that the drive (10, 100) comprises at least one capturing magnet arranged to capture magnetic particles and keep them away from the electric motor. at least one roller element (200, 301), preferably roller, roll or winder, which is provided for cross-sectional change, transport, storage, increase in tension and/or decrease in tension of the strip-shaped metal material, and a drive (10, 100), which comprises an electric motor, preferably a torque motor or synchronous motor, with a stator (12, 102, 102') and a rotor (11, 101, 101'), wherein the device further comprises a frame (202, 302), the rotor (11, 101, 101') is connected with the roller element (200, 301), whereby the rotation of the totor (11, 101, 101') is transmitted to the roller element (200, 301), and the stator (12, 102, 102') is directly mounted on the frame (202, 302) and/or the rotor (11, 101, 101') is directly connected with the roller element (200, 301) or a shaft (201, 304) of the roller element (200, 301), characterised in that the drive (10, 100) comprises at least one capturing magnet arranged to capture magnetic particles and keep them away from the electric motor.