mhurhangee/ep-ind-claims huggingface dataset:
An encoding method performed by an encoding apparatus, comprising: obtaining a first sequence used to encode K to-be-encoded bits, K being a positive integer, wherein the first sequence comprises sequence numbers of N polarized channels, the sequence numbers of the N polarized channels are arranged in the first sequence based on reliability of the N polarized channels, N is a mother code length of a polar code, N = 2 n, n is a positive integer, and K≤N, wherein the first sequence is all of or a subset of a second sequence, the second sequence comprises sequence numbers of N max polarized channels, the sequence numbers of the N max polarized channels are arranged in the second sequence based on reliability of the N max polarized channels, an order in which the sequence numbers of the polarized channels in the first sequence are arranged is consistent with an order in which sequence numbers less than N in the sequence numbers of the polarized channels in the second sequence are arranged, N max is a positive integer, N max ≥N: selecting sequence numbers of K polarized channels from the first sequence based on a reliability order; and placing the K to-be-encoded bits based on the selected sequence numbers of the K polarized channels, and performing polar code encoding on the K to-be-encoded bits, wherein N max =512, the second sequence is the sequence in Table Q12, characterized in that the Table Q12 is: selecting sequence numbers of K polarized channels from the first sequence based on a reliability order; and placing the K to-be-encoded bits based on the selected sequence numbers of the K polarized channels, and performing polar code encoding on the K to-be-encoded bits, wherein N max =512, the second sequence is the sequence in Table Q12, characterized in that the Table Q12 is:
A method for manufacturing an SOI wafer, comprising the steps of: forming a single-crystal silicon layer by a bonding method on a handle substrate selected from a material having a heat-resistant temperature of 800°C or above to obtain a bonded substrate; depositing amorphous silicon on the single-crystal silicon layer of the bonded substrate; and heating the bonded substrate after the depositing at 800°C or above to cause the amorphous silicon layer to crystallize in accordance with the orientation of the single crystal silicon layer, characterized in that the depositing of amorphous silicon on the single-crystal silicon layer of the bonded substrate is performed at a temperature of 540°C to 600°C forming a single-crystal silicon layer by a bonding method on a handle substrate selected from a material having a heat-resistant temperature of 800°C or above to obtain a bonded substrate; depositing amorphous silicon on the single-crystal silicon layer of the bonded substrate; and heating the bonded substrate after the depositing at 800°C or above to cause the amorphous silicon layer to crystallize in accordance with the orientation of the single crystal silicon layer, characterized in that the depositing of amorphous silicon on the single-crystal silicon layer of the bonded substrate is performed at a temperature of 540°C to 600°C
Steering column for a motor vehicle, comprising an outer casing unit which can be connected directly or indirectly to the motor vehicle and in which a casing tube is mounted adjustably in the longitudinal direction, in which a steering spindle is mounted rotatably about its longitudinal axis extending in the longitudinal direction, wherein an energy absorption element can be coupled between the casing unit and the casing tube, which can be plastically deformed with energy absorption during a relative movement of the casing unit and the casing tube in the longitudinal direction, wherein a retaining element is detachably connected to the casing pipe, wherein the energy absorption element is mounted between the retaining element and the casing tibe, and the retaining element has a retaining housing at least partially accommodating the energy absorption element, wherein the energy absorption element is accommodated in an interior of the retaining housing, characterized in in that the holding element has a fastening element for connection to the energy absorption element in order to form a positive-locking connection which is effective in the longitudinal direction, the fastening element being provided in the interior of the holding housing. an outer casing unit which can be connected directly or indirectly to the motor vehicle and in which a casing tube is mounted adjustably in the longitudinal direction, in which a steering spindle is mounted rotatably about its longitudinal axis extending in the longitudinal direction, wherein an energy absorption element can be coupled between the casing unit and the casing tube, which can be plastically deformed with energy absorption during a relative movement of the casing unit and the casing tube in the longitudinal direction, wherein a retaining element is detachably connected to the casing pipe, wherein the energy absorption element is mounted between the retaining element and the casing tibe, and the retaining element has a retaining housing at least partially accommodating the energy absorption element, wherein the energy absorption element is accommodated in an interior of the retaining housing, characterized in in that the holding element has a fastening element for connection to the energy absorption element in order to form a positive-locking connection which is effective in the longitudinal direction, the fastening element being provided in the interior of the holding housing.
Support arm for supporting an electrode of an arc furnace, comprising at least one support arm section, which comprises at least two extruded metal profile members (3, 21, 23) connected together, characterised in that the metal profile members (3, 21, 23) are connected together by way of at least one mechanically positive connection.
A method of operating a transmitting user equipment, Tx UE, in a wireless communication system, the method comprising: receiving, by the Tx UE, a first radio resource control, RRC, configuration-related message including information on whether sidelink hybrid automatic repeat request, HARQ, related to a logical channel group is enable or disable; and transmitting, by the Tx UE, a message indicating enable or disable of the HARQ along with data to a receiving UE, Rx UE, through a Physical Sidelink Shared Channel, PSSCH, wherein the message is used by the Rx UE to determine whether to transmit a HARQ acknowledgment/negative acknowledgment, ACK/NACK, for the message. receiving, by the Tx UE, a first radio resource control, RRC, configuration-related message including information on whether sidelink hybrid automatic repeat request, HARQ, related to a logical channel group is enable or disable; and transmitting, by the Tx UE, a message indicating enable or disable of the HARQ along with data to a receiving UE, Rx UE, through a Physical Sidelink Shared Channel, PSSCH, wherein the message is used by the Rx UE to determine whether to transmit a HARQ acknowledgment/negative acknowledgment, ACK/NACK, for the message.
An apparatus comprising: means for applying a first voltage (V IN) to a first transistor among a plurality of transistors (710a,710b,710k) coupled in a stack, the first voltage having a direct current, DC, component; means for applying a second voltage (V BULK) to bulk nodes of the plurality of transistors (710a,710b,710k), the second voltage being lower than the DC component of the first voltage; and means for maintaining matching bias conditions for the plurality of transistors (710a,710b,710k) when turned off comprising means for maintaining zero drain-to-source voltage for each of the plurality of transistors (710a,710b,710k) with a resistor (740a,740b,740k) coupled between the source and drain of each transistor (710a,710b,710k); wherein the resistor has a value larger than an impedance of each transistor when turned off. means for applying a first voltage (V IN) to a first transistor among a plurality of transistors (710a,710b,710k) coupled in a stack, the first voltage having a direct current, DC, component; means for applying a second voltage (V BULK) to bulk nodes of the plurality of transistors (710a,710b,710k), the second voltage being lower than the DC component of the first voltage; and means for maintaining matching bias conditions for the plurality of transistors (710a,710b,710k) when turned off comprising means for maintaining zero drain-to-source voltage for each of the plurality of transistors (710a,710b,710k) with a resistor (740a,740b,740k) coupled between the source and drain of each transistor (710a,710b,710k); wherein the resistor has a value larger than an impedance of each transistor when turned off.
An access control reader (112, 416) controlling access to a protected physical asset, comprising: a processor; a wireless communication interface; a lock control mechanism; and a memory storing instructions that, when executed by the processor, cause the processor to: identify, with a processor and based on information received via a wireless interface of an access control reader (112, 416), a plurality of mobile devices within communication range of the access control reader (112, 416); receive first information from at least one of the plurality of mobile devices, the first information corresponding to a first distance between at least two of the plurality of mobile devices; receive second information from at least one of the plurality of mobile devices, the second information corresponding to a second distance between at least two of the plurality of mobile devices; and make an ingress or egress determination for a user of at least one of the plurality of the mobile devices with respect to the protected physical asset based on the first information and the second information. a processor; a wireless communication interface; a lock control mechanism; and a memory storing instructions that, when executed by the processor, cause the processor to: identify, with a processor and based on information received via a wireless interface of an access control reader (112, 416), a plurality of mobile devices within communication range of the access control reader (112, 416); receive first information from at least one of the plurality of mobile devices, the first information corresponding to a first distance between at least two of the plurality of mobile devices; receive second information from at least one of the plurality of mobile devices, the second information corresponding to a second distance between at least two of the plurality of mobile devices; and make an ingress or egress determination for a user of at least one of the plurality of the mobile devices with respect to the protected physical asset based on the first information and the second information. identify, with a processor and based on information received via a wireless interface of an access control reader (112, 416), a plurality of mobile devices within communication range of the access control reader (112, 416); receive first information from at least one of the plurality of mobile devices, the first information corresponding to a first distance between at least two of the plurality of mobile devices; receive second information from at least one of the plurality of mobile devices, the second information corresponding to a second distance between at least two of the plurality of mobile devices; and make an ingress or egress determination for a user of at least one of the plurality of the mobile devices with respect to the protected physical asset based on the first information and the second information.
A triazole silane compound represented by the chemical formula: in the formula, X 1 and X 2 are the same as or different from each other and each represents a hydrogen atom, a linear or branched alkyl group having a carbon number of 1 to 12, a phenyl group, a benzyl group, an amino group, or an alkylthio group having a carbon number of 1 to 6; m represents an integer of 1 to 12; R represents a methyl group or an ethyl group; provided that the case where X 1 and X 2 are simultaneously hydrogen atoms is excluded.
Use of a composition as an alternative refrigerant for R410A, wherein the composition comprises a refrigerant comprising HFC-32, HFO-1234yf and HFO-1132a, wherein, when the mass% of HFC-32, HFO-1132a and HFO-1234yf based on their sum in the refrigerant is respectively represented by x, y and z, coordinates (x,y,z) in a ternary composition diagram in which the sum of HFC-32, HFO-1132a and HFO-1234yf is 100 mass% are within the range of a figure surrounded by line segments QU, UV and VQ that connect the points Q, U and V: Q (59.1, 12.7, 28.2), U (59.0, 5.5, 35.5), and V (52.5, 8.4, 39.1), or on the line segments, the line segment VQ is represented by coordinates (y=0.0083x 2 -0.2719x-0.1953), the line segment UV is represented by coordinates (y=0.0026x 2 -0.7385x+39.946), and the line segment QU is a straight line. the line segment VQ is represented by coordinates (y=0.0083x 2 -0.2719x-0.1953), the line segment UV is represented by coordinates (y=0.0026x 2 -0.7385x+39.946), and the line segment QU is a straight line.
A modular lubricating central unit, for lubricating mechanical systems in general, comprising at least one oil source adapted to supply a plurality of supply and return lines, each of which is coupled to a user device, each of said lines being a completely independent one both in setting its parameters and in its operation, said supply lines being separated from said return lines thereby each said line may start and end its operating cycle independently of any other lines which would start in an overlapping relationship, said oil source comprising a hydraulic motor pump adapted to take oil from a respective oil tank including a respective oil level indicator, characterized in that said lubricating central unit comprises a first source of the first oil, adapted to supply a first oil to a supply line and return line oil dispenser, said first oil source being constituted by a hydraulic motor pump adapted to take oil from an oil tank including a respective oil level indicator, a second oil source and a third oil source, each of which comprises a respective oil tank (122, 222), each oil source (2, 102, 202) being coupled to the supply line and return line oil dispenser by respective and independent supply and return lines, the first source being coupled to the dispenser by a first supply line and a first return line, the second source being coupled to the dispenser by a second supply line and a second return line, the third source being coupled to the oil dispenser by a third supply line and a third return line, the first supply line of the first oil connecting the oil dispenser to a respective distributing manifold in turn connected to a switching device, the switching device sending the first oil to a valve block which, through a respective valve and a pressure switch, sends the first oil to the user device, the return oil passing through the valve block and, through the first return line, arriving at the oil dispenser by passing through the distributing manifold and a stabilizing valve, the second supply line of the second oil connecting the dispenser to a respective distributing manifold, in turn connected to a switching device, the switching device sending the second oil to a valve block which, through a respective valve and a pressure switch, sends the first oil to the user device, the second return oil passing through the valve block and, through the second return line, arriving at the dispenser by passing through the distributing manifold and a stabilizing valve, the third supply line of the third oil connecting the dispenser to a respective distributing manifold, in turn connected to a switching device, the switching device sending the third oil to a valve block which, through a respective valve and a pressure switch, sends the third oil to the user device, the third return oil passing through the valve block and, through the third return line arriving at the dispenser, by passing through the distributing manifold and a stabilizing valve.
Electrochromic structure of cementitious material comprising at least one electrochromic device formed in at least one cavity, wherein the at least one electrochromic device contains a first electrochromic element and an electrically conductive electroactive element, insulated from each other by an electrolyte, and further comprising means of application of a difference of potential between the first electrochromic element and the electroactive element, and wherein: a) the means of application of a difference of potential are included in the cementitious material; b) the cavity is formed in the surface of the structure of cementitious material; c) the electrically conductive electroactive element is deposited on the cavity; d) the electrolyte is deposited on the electroactive element; e) the first electrochromic element is deposited on the electrolyte. a) the means of application of a difference of potential are included in the cementitious material; b) the cavity is formed in the surface of the structure of cementitious material; c) the electrically conductive electroactive element is deposited on the cavity; d) the electrolyte is deposited on the electroactive element; e) the first electrochromic element is deposited on the electrolyte.
An antibody comprising an antigen-binding domain and a human FcRn-binding domain, which has a human FcRn-binding activity at pH 5.5 and at pH 7.0 and a lower antigen-binding activity at pH 5.5 than at pH 7.0, wherein the human FcRn-binding activity at pH 7.0 and at 25°C is stronger than KD 3.2 μM, wherein the human FcRn-binding domain is an Fc domain resulting from substituting a different amino acid for at least one amino acid in the Fc domain of a human IgG1, IgG2, IgG3 or IgG4.
A percutaneous valve delivery system, comprising: an outer sheath; an inner catheter disposed within the outer sheath, the inner catheter including a plurality of lumens formed therein; a tubular extension extending distally from a distal end of the inner catheter; a nose cone attached to the tubular extension; a handle attached to the outer sheath, wherein the handle is configured to shift the outer sheath between a first position and a second position relative to the inner catheter; and a valve replacement implant releasably coupled to the inner catheter; characterized in that the tubular extension is axially movable relative to the inner catheter in a proximal direction during deployment of the valve replacement implant. an outer sheath; an inner catheter disposed within the outer sheath, the inner catheter including a plurality of lumens formed therein; a tubular extension extending distally from a distal end of the inner catheter; a nose cone attached to the tubular extension; a handle attached to the outer sheath, wherein the handle is configured to shift the outer sheath between a first position and a second position relative to the inner catheter; and a valve replacement implant releasably coupled to the inner catheter; characterized in that the tubular extension is axially movable relative to the inner catheter in a proximal direction during deployment of the valve replacement implant.
A wiring system suitable to be installed in a panelling inside a vehicle and comprising: - a flexible printed circuit board comprising: - a surface in turn comprising one or more electrical circuits formed by conductive strips and a plurality of electronic components connected to said conductive strips, - at least one extension or branch extending directly from said surface and also comprising conductive strips; characterized in that it further comprises: - at least one flexible flat cable joined to said at least one extension or branch, such that an electrical connection is formed between said flexible flat cable and said extension or branch, said at least one flexible flat cable being arranged to adapt to the structure or design of the element in which the wiring system is to be incorporated; wherein at least one of said flexible flat cables has a connector connected at the end opposite to the end joined to the corresponding extension or branch, and wherein the electrical connection between each extension or branch and each flexible flat cable is carried out by means of simple connectors providing mechanical and electrical connection simultaneously, said simple connectors being crimping clamps. - a flexible printed circuit board comprising: - a surface in turn comprising one or more electrical circuits formed by conductive strips and a plurality of electronic components connected to said conductive strips, - at least one extension or branch extending directly from said surface and also comprising conductive strips; - at least one flexible flat cable joined to said at least one extension or branch, such that an electrical connection is formed between said flexible flat cable and said extension or branch, said at least one flexible flat cable being arranged to adapt to the structure or design of the element in which the wiring system is to be incorporated;
A lamp, comprising a lamp body in a trough shape, a light source assembly, and a heat dissipation assembly; wherein, the heat dissipation assembly comprises an aluminum plate, a heat dissipation fin and a glass radiator; the aluminum plate is disposed on a trough wall of the lamp body; the heat dissipation fin is disposed on a side of the aluminum plate facing a trough bottom part of the lamp body; and the glass radiator is disposed on a side of the aluminum plate facing a trough top opening part of the lamp body; the light source assembly comprises a PCB board and a plurality of LED lamp beads; the PCB board is disposed on a side of the glass radiator facing away from the aluminum plate; and the plurality of LED lamp beads are arranged on a side of the PCB board facing away from the glass radiator forming a light emitting surface facing the trough top opening part.
An energy storage and recovery system device comprising a gearbox, wherein the gearbox comprises a first gear set comprising gears (18, 20, 22) wherein each gear of the first gear set is constantly meshed with a first intermediate gear mounted on a first shaft, and a second gear set comprising gears (19, 21, 23) wherein each gear of the second gear set is constantly meshed with a second intermediate gear mounted on a second shaft, and wherein each respective gear of the first gear set is paired to a respective gear of the second gear set, and is separated by a respective dedicated clutch (10, 12, 14) in series, wherein the first shaft is couplable to a flywheel arranged for energy storage, and the second shaft is couplable to a vehicle transmission, and wherein each respective clutch has a first side and a second side, wherein the first side of each respective clutch is connected to, and arranged to rotate with, the respective gear of the first gear set, and wherein the second side of each respective clutch is connected to, and arranged to rotate with, the respective gear of the second gear set, and wherein the clutches can be actuated individually to allow torque flow in either direction between the first gear set and the second gear set, wherein the device is configured to allow substantially continuous slippage of at least one clutch during torque transfer through the clutch.