mhurhangee/patent-ind-claim-en huggingface dataset:
A radio frequency identification (RFID) automatic vehicle identification (AVI) system configured to mitigate signal interference, the system comprising: a plurality of RFID readers (11, 15; 21, 24, 27), wherein a first RFID reader (11; 21) is connected to a second adjacent RFID reader (15; 24) through an input/output (I/O) line connected to an I/O port (12a,; 22a) of the first RFID reader (11; 21) and to an I/O port (16a; 25a) of the second adjacent RFID reader (16a; 25a); and a plurality of antennas (13a-d, 17a-d; 23a-d, 26a-d, 29a-d), wherein a first antenna (13d; 23d) is connected to the first RFID reader (11; 21) and a second antenna (17a; 26a) is connected to the second adjacent RFID reader (15; 24); wherein prior to the first RFID reader (11; 21) transmitting a signal through the first antenna (13d; 23d), the first RFID reader (11; 21) reads the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24), and if the signal on the I/O port (16a; 25a) indicates the second antenna (17a; 26a) is active, the first RFID reader (11; 21) inhibits transmission of the signal through the first antenna (13d; 23d), wherein the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24) is set to an active state while the second adjacent RFID reader (15; 24) is transmitting a signal over the second antenna (17a; 26a). a plurality of RFID readers (11, 15; 21, 24, 27), wherein a first RFID reader (11; 21) is connected to a second adjacent RFID reader (15; 24) through an input/output (I/O) line connected to an I/O port (12a,; 22a) of the first RFID reader (11; 21) and to an I/O port (16a; 25a) of the second adjacent RFID reader (16a; 25a); and a plurality of antennas (13a-d, 17a-d; 23a-d, 26a-d, 29a-d), wherein a first antenna (13d; 23d) is connected to the first RFID reader (11; 21) and a second antenna (17a; 26a) is connected to the second adjacent RFID reader (15; 24); wherein prior to the first RFID reader (11; 21) transmitting a signal through the first antenna (13d; 23d), the first RFID reader (11; 21) reads the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24), and if the signal on the I/O port (16a; 25a) indicates the second antenna (17a; 26a) is active, the first RFID reader (11; 21) inhibits transmission of the signal through the first antenna (13d; 23d), wherein the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24) is set to an active state while the second adjacent RFID reader (15; 24) is transmitting a signal over the second antenna (17a; 26a).
A method of wireless communication performed by a base station , comprising: determining a set of component carriers, CCs, comprising multiple groups of CCs; transmitting , to a user equipment , UE, an indication of the set of CCs; and transmitting, to the UE , a medium access control, MAC, control element, CE, indicating an update of a transmission configuration indicator, TCI, state and indicating to which group of CCs the UE is to apply an update of the TCI state. determining a set of component carriers, CCs, comprising multiple groups of CCs; transmitting , to a user equipment , UE, an indication of the set of CCs; and transmitting, to the UE , a medium access control, MAC, control element, CE, indicating an update of a transmission configuration indicator, TCI, state and indicating to which group of CCs the UE is to apply an update of the TCI state.
A recombinant Saccharomyces cerevisiae yeast cell comprising: a) a gene coding for an enzyme having glycerol-3-phosphate dehydrogenase activity, wherein said enzyme has a cofactor dependency for at least NADP + and/or for NADPH; b) a gene encoding an enzyme having at least NAD + dependent acetylating acetaldehyde dehydrogenase activity (EC 1.2.1.10); and c) a mutation or disruption in at least one gene selected from the group of GPD1 and GPD2. a) a gene coding for an enzyme having glycerol-3-phosphate dehydrogenase activity, wherein said enzyme has a cofactor dependency for at least NADP + and/or for NADPH; b) a gene encoding an enzyme having at least NAD + dependent acetylating acetaldehyde dehydrogenase activity (EC 1.2.1.10); and c) a mutation or disruption in at least one gene selected from the group of GPD1 and GPD2.
A method of wireless communication, comprising: receiving a first frequency domain, FD, unit configuration indicating a precoding matrix indicator, PMI, granularity; receiving a second FD unit configuration indicating a first set of configured FD units for which to report channel state information, CSI; determining a first number of FD units based on the first FD unit configuration and the first set of configured FD units; selecting a second number of FD units that is greater than or equal to the first number of FD units; and determining whether to transmit a CSI report based on whether the first number of FD units satisfies a first threshold value for configured FD units, or the second number of FD units satisfies a second threshold value for reported FD units, or the PMI granularity satisfies a FD unit threshold based on a configured bandwidth part size. receiving a first frequency domain, FD, unit configuration indicating a precoding matrix indicator, PMI, granularity; receiving a second FD unit configuration indicating a first set of configured FD units for which to report channel state information, CSI; determining a first number of FD units based on the first FD unit configuration and the first set of configured FD units; selecting a second number of FD units that is greater than or equal to the first number of FD units; and determining whether to transmit a CSI report based on whether the first number of FD units satisfies a first threshold value for configured FD units, or the second number of FD units satisfies a second threshold value for reported FD units, or the PMI granularity satisfies a FD unit threshold based on a configured bandwidth part size.
A semiconductor device comprising a first substrate , at least one semiconductor chip directly or indirectly mounted to the first substrate , a white insulating layer formed on a surface of the first substrate and functioning as a reflecting material, and a wiring formed on the white insulating layer , wherein at least the surface of the first substrate is made of a metal, and the white insulating layer is formed on the surface of the first substrate by coating a liquid material, which contains SiO 2 in the form of nanoparticles and white inorganic pigment particles, and by baking the coated liquid material, and wherein a content of inorganic material in the white insulating layer is 95 % by weight or greater, and wherein a content of the white inorganic pigment in the white insulating layer is greater than 40 % by weight, and a content of the SiO 2 particles in the white insulating layer is 25 % by weight or greater. a first substrate , at least one semiconductor chip directly or indirectly mounted to the first substrate , a white insulating layer formed on a surface of the first substrate and functioning as a reflecting material, and a wiring formed on the white insulating layer , wherein at least the surface of the first substrate is made of a metal, and the white insulating layer is formed on the surface of the first substrate by coating a liquid material, which contains SiO 2 in the form of nanoparticles and white inorganic pigment particles, and by baking the coated liquid material, and wherein a content of inorganic material in the white insulating layer is 95 % by weight or greater, and wherein a content of the white inorganic pigment in the white insulating layer is greater than 40 % by weight, and a content of the SiO 2 particles in the white insulating layer is 25 % by weight or greater.
A fuel cell separator obtained by molding a composition comprising an epoxy resin and graphite powder, which separator is characterized in that the epoxy resin includes a base resin, a curing agent and a curing accelerator; the base resin includes a biphenyl novolak-type epoxy resin having an ICI viscosity at 150°C of from 0.03 to 0.12 Pa·s, wherein the ICI viscosity is measured as indicated in the description, the curing agent is a novolak-type phenolic resin having a weight-average molecular weight of from 420 to 1,500 and a dispersity of 2.0 or less; and wherein the proportion of biphenyl novolak-type epoxy resin in the base resin of the epoxy resin is at least 70 wt%.
A utility vehicle having a shaft that is rotatably drivable by an engine unit and having a braking device arranged in the region of the shaft , wherein the braking device comprises a control by means of which the engine unit can be regulated, a brake disk connected to the shaft , and a carrier with a brake caliper , wherein the brake caliper has a brake pad that can be pressed toward the brake disk by means of an actuator, and wherein the braking device has a parking brake mode in which the brake pad is permanently pressed against the brake disk to prevent a rolling of the utility vehicle, characterized in that the braking device comprises a measuring device that is electrically connected to the control and by means of which the instantaneous braking torque (D B ) occurring in the parking brake mode is measurable, with the shaft being drivable by a corresponding regulation of the engine unit on the basis of the measured braking torque (D B ) by a torque (D A ) equal in amount and opposite to the braking torque (D B ).
A method for preventing retraction of an aqueous drop on a hydrophobic surface comprising the steps of: a) preparing a composition comprising a nonionic surfactant mixture having a first nonionic surfactant and a second nonionic surfactant, dissolved in an aqueous media; and b) impinging said composition of step (a) on the hydrophobic surface; wherein the first nonionic surfactant is selected from the group consisting of 3,7,11,15-tetramethyl-1,2,3-hexadecanetriol, phytanetriol, glycerol monooleate (HLB of 3.8), glycerol monostearate (HLB 3.4), and acyl glycerol and said second nonionic surfactant is selected from the group consisting of Tween 20, Tween 40, Tween 80, PEO-PPO-PEO block copolymer, PEO-PPO diblock copolymer, and poloxamers, wherein the ratio of water to surfactant in the surfactant mixture is in the range of 95:5 to 99.9:0.1 by weight and the aqueous drop retraction is less than 5%. a) preparing a composition comprising a nonionic surfactant mixture having a first nonionic surfactant and a second nonionic surfactant, dissolved in an aqueous media; and b) impinging said composition of step (a) on the hydrophobic surface;
A pair of bonded substrates, comprising: a first substrate of a first material; a second substrate of the first material; and an adhesive bonding the first substrate to the second substrate, wherein the adhesive has compatibilizing chemically linked particles compatible with the first and second substrates; wherein the first material consists of carbon fiber reinforced polymer (CFRP) and the particles consist of one of either graphene oxide functionalized particles or graphene functionalized particles; or wherein the first material consists of aluminum and the particles consist of aluminum oxide; or wherein the first material consists of titanium and the particles consist of titanium oxide; or wherein the first material consists of magnesium and the particles consist of magnesium oxide. a first substrate of a first material; a second substrate of the first material; and an adhesive bonding the first substrate to the second substrate, wherein the adhesive has compatibilizing chemically linked particles compatible with the first and second substrates; wherein the first material consists of carbon fiber reinforced polymer (CFRP) and the particles consist of one of either graphene oxide functionalized particles or graphene functionalized particles; or wherein the first material consists of aluminum and the particles consist of aluminum oxide; or wherein the first material consists of titanium and the particles consist of titanium oxide; or wherein the first material consists of magnesium and the particles consist of magnesium oxide.
A mutein, selected from muteins of streptavidin, wherein the mutein (a) contains at least one mutation in the region of the amino acid positions 117 to 121 of wild type/Wt streptavidin that comprises amino acid residues 14 to 139 as shown in Fig. 4 (SEQ ID NO: 212) and (b) has a binding affinity that is at least 1.1 times higher expressed by the ratio of the respective K d than each of (i) the streptavidin mutein of SEQ ID NO: 112, or (ii) the streptavidin mutein of SEQ ID NO: 113, or (iii) wild type-streptavidin of SEQ ID NO: 212 for peptide ligands comprising the amino acid sequence Trp-Ser-His-Pro-Gln-Phe-Glu-Lys depicted as SEQ ID NO: 100, wherein the mutein carries at sequence position 117 a charged amino acid residue selected from Glu, Asp or Arg or an hydrophilic amino acid residue selected from Asn, Gln, Leu, Met, Ser, Ala or Gly, wherein the mutein carries at sequence position 120 an amino acid residue selected from Ser, Ala, Gly or Met, and wherein the mutein carries at sequence position 121 a hydrophobic amino acid residue selected from Leu, Val, Ile, Trp, Tyr, Phe, or Met. (a) contains at least one mutation in the region of the amino acid positions 117 to 121 of wild type/Wt streptavidin that comprises amino acid residues 14 to 139 as shown in Fig. 4 (SEQ ID NO: 212) and (b) has a binding affinity that is at least 1.1 times higher expressed by the ratio of the respective K d than each of (i) the streptavidin mutein of SEQ ID NO: 112, or (ii) the streptavidin mutein of SEQ ID NO: 113, or (iii) wild type-streptavidin of SEQ ID NO: 212 (i) the streptavidin mutein of SEQ ID NO: 112, or (ii) the streptavidin mutein of SEQ ID NO: 113, or (iii) wild type-streptavidin of SEQ ID NO: 212
A computer implemented method for identifying wireless link interferences, the method comprising: measuring an amount of performance loss for each wireless link (SWL1-SWL3) of a set of wireless links due to interferences; measuring a use of a wireless medium by each wireless link of the set of wireless links; allocating each measurement to at least a given time interval of a set of time intervals to generate a set of data, wherein the allocation is performed in a weighted manner based on a time overlap between a time during which the measurements are performed and each time interval of the set of time intervals, wherein the allocation of at least one measurement is performed in a weighted manner with two time intervals of the set of time intervals; and identifying, based on the set of data, at least a first wireless link within the set of wireless links that is causing interference. measuring an amount of performance loss for each wireless link (SWL1-SWL3) of a set of wireless links due to interferences; measuring a use of a wireless medium by each wireless link of the set of wireless links; allocating each measurement to at least a given time interval of a set of time intervals to generate a set of data, wherein the allocation is performed in a weighted manner based on a time overlap between a time during which the measurements are performed and each time interval of the set of time intervals, wherein the allocation of at least one measurement is performed in a weighted manner with two time intervals of the set of time intervals; and identifying, based on the set of data, at least a first wireless link within the set of wireless links that is causing interference.
A computer-implemented method for archiving data in a vault of a big data platform , comprising: receiving, by an engine of the big data platform, from an application layer , a first input of relationally stored data comprising a plurality of fields organized in a first data structure; receiving, by the engine , from the application layer , context information relevant to the first data structure, wherein the context information comprises time information, version information, source information, type information, and/or data object structure information; archiving, by the engine , in the vault of the big data platform , values of the plurality of fields and the context information organized as a second data structure different from the first data structure, the second data structure including a data object (X) comprising the values of the plurality of fields and reference data (R n ) wherein the reference data are providing various pieces of the context information regarding the data object (X); and wherein the vault is configured and utilized to archive snapshots of different versions of the data object (X) and reference data (R n ) regarding the data object (X); and wherein the vault allows object-based retrieval or object-wise operations using the archived data objects (X) and associated reference data (R n ). receiving, by an engine of the big data platform, from an application layer , a first input of relationally stored data comprising a plurality of fields organized in a first data structure; receiving, by the engine , from the application layer , context information relevant to the first data structure, wherein the context information comprises time information, version information, source information, type information, and/or data object structure information; archiving, by the engine , in the vault of the big data platform , values of the plurality of fields and the context information organized as a second data structure different from the first data structure, the second data structure including a data object (X) comprising the values of the plurality of fields and reference data (R n ) wherein the reference data are providing various pieces of the context information regarding the data object (X); and wherein the vault is configured and utilized to archive snapshots of different versions of the data object (X) and reference data (R n ) regarding the data object (X); and wherein the vault allows object-based retrieval or object-wise operations using the archived data objects (X) and associated reference data (R n ).
A user equipment in a communication network, the user equipment comprising: a processor; and a memory coupled to the processor, the memory having stored thereon executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a trigger message from a network server , wherein the trigger message comprises: an internet protocol address of the network server , a port number of the user equipment for receiving the trigger message, the port number having been advertised to the network server during registration of the user equipment with the network server , and trigger purpose information, wherein the trigger purpose information comprises a request to bootstrap with the user equipment ; and based on the trigger message, bootstrapping with the network server, wherein bootstrapping comprises performing authentication and security key establishment for a service. a processor; and a memory coupled to the processor, the memory having stored thereon executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a trigger message from a network server , wherein the trigger message comprises: an internet protocol address of the network server , a port number of the user equipment for receiving the trigger message, the port number having been advertised to the network server during registration of the user equipment with the network server , and trigger purpose information, wherein the trigger purpose information comprises a request to bootstrap with the user equipment ; and based on the trigger message, bootstrapping with the network server, wherein bootstrapping comprises performing authentication and security key establishment for a service. receiving a trigger message from a network server , wherein the trigger message comprises: an internet protocol address of the network server , a port number of the user equipment for receiving the trigger message, the port number having been advertised to the network server during registration of the user equipment with the network server , and trigger purpose information, wherein the trigger purpose information comprises a request to bootstrap with the user equipment ; and an internet protocol address of the network server , a port number of the user equipment for receiving the trigger message, the port number having been advertised to the network server during registration of the user equipment with the network server , and trigger purpose information, wherein the trigger purpose information comprises a request to bootstrap with the user equipment ; and based on the trigger message, bootstrapping with the network server, wherein bootstrapping comprises performing authentication and security key establishment for a service.
A space creating shower liner for a tub in combination with a shower rod having in use a distance to a floor, comprising a window , which is made of a flexible plastic, that is transparent or translucent, and that has a weight W to create the pivot effect for the liner comprising: a hoop fin rotatably and removably engaging the shower rod; a plurality of stiffening folds (210, 212. 214, 216, 218) providing partial stiffness to the window ; a window height (H) less than a distance from the shower rod in use to the floor; and a liner removably engaged to the window , comprising a liner height less than the distance from the shower rod in use to the floor, wherein the hoop fin causes the window and the liner to rotate about the shower rod, and wherein, once the liner is attached to the window , the combination of the window height (H) and the liner height is greater than or equal to the distance from the shower rod in use to the floor to prevent water from exiting the tub . a hoop fin rotatably and removably engaging the shower rod; a plurality of stiffening folds (210, 212. 214, 216, 218) providing partial stiffness to the window ; a window height (H) less than a distance from the shower rod in use to the floor; and a liner removably engaged to the window , comprising a liner height less than the distance from the shower rod in use to the floor, wherein the hoop fin causes the window and the liner to rotate about the shower rod, and wherein, once the liner is attached to the window , the combination of the window height (H) and the liner height is greater than or equal to the distance from the shower rod in use to the floor to prevent water from exiting the tub .
An X-ray imaging apparatus (IA) comprising an anti-scatter grid (ASG) for X-ray imaging comprising at least two sets (Mj) of linear x-radiation opaque strips (STj), each of the strips in the at least two sets having a respective longitudinal axis(Li), wherein there are at least two strips from different sets of the at least two sets that have non-parallel longitudinal axes, characterized in that the X-ray imaging apparatus (IA) has a plurality of X-ray sources (sj).