mhurhangee/patent-ind-claim-en huggingface dataset:
A parallel processing apparatus comprising: a plurality of compute nodes ; and a job management device configured to allocate computational resources of the plurality of compute nodes to jobs, the job management device including a determination unit configured to calculate a resource search time range (912, T11) based on the largest value from among respective scheduled execution time periods of a plurality of jobs existing at a time when the calculating of the resource search time range (912, T11) is performed, the plurality of jobs including a job being executed and a job waiting for execution, and a search unit configured to search for free computational resources to be allocated to a job waiting for execution that is a processing target among the plurality of jobs, from among computational resources of the plurality of compute nodes within the resource search time range (912, T11), by backfill scheduling, wherein the determination unit is configured to calculate the resource search time range (912, T11) by adding the largest value among the respective scheduled execution time periods of the plurality of jobs to a start time point of the resource search time range (912, T11). a plurality of compute nodes ; and a job management device configured to allocate computational resources of the plurality of compute nodes to jobs, the job management device including a determination unit configured to calculate a resource search time range (912, T11) based on the largest value from among respective scheduled execution time periods of a plurality of jobs existing at a time when the calculating of the resource search time range (912, T11) is performed, the plurality of jobs including a job being executed and a job waiting for execution, and a search unit configured to search for free computational resources to be allocated to a job waiting for execution that is a processing target among the plurality of jobs, from among computational resources of the plurality of compute nodes within the resource search time range (912, T11), by backfill scheduling, a determination unit configured to calculate a resource search time range (912, T11) based on the largest value from among respective scheduled execution time periods of a plurality of jobs existing at a time when the calculating of the resource search time range (912, T11) is performed, the plurality of jobs including a job being executed and a job waiting for execution, and a search unit configured to search for free computational resources to be allocated to a job waiting for execution that is a processing target among the plurality of jobs, from among computational resources of the plurality of compute nodes within the resource search time range (912, T11), by backfill scheduling, wherein the determination unit is configured to calculate the resource search time range (912, T11) by adding the largest value among the respective scheduled execution time periods of the plurality of jobs to a start time point of the resource search time range (912, T11).
Lighting apparatus for a motor vehicle, comprising - a light deflection unit which has at least two light deflection elements which can be electronically controlled independently of one another and can be aligned in their spatial orientation via actuation, wherein the light deflection elements , in a first actuation position, are designed to deflect light impinging on them in a direction predetermined by their spatial orientation, whereby a first changeable light image having a variable and adjustable light distribution can be provided; - a light source by means of which light can be radiated into the light deflection unit , wherein the lighting apparatus further comprises a light-shaping element , and at least one light deflection element in a second actuation position is designed to deflect light into the light-shaping elements , characterized in that the light-shaping element is designed as a projection lens having an upstream demodulation element which comprises at least two light deflection elements which can be electronically actuated independently of one another and can be aligned in their spatial orientation via actuation, and is designed to provide in the same radiated light as a second light image with an always constant light distribution, wherein light radiated into the light deflection unit by the light source is fully used at any point in time for the provision of the first and/or second light image . - a light deflection unit which has at least two light deflection elements which can be electronically controlled independently of one another and can be aligned in their spatial orientation via actuation, wherein the light deflection elements , in a first actuation position, are designed to deflect light impinging on them in a direction predetermined by their spatial orientation, whereby a first changeable light image having a variable and adjustable light distribution can be provided; - a light source by means of which light can be radiated into the light deflection unit , wherein the lighting apparatus further comprises a light-shaping element , and at least one light deflection element in a second actuation position is designed to deflect light into the light-shaping elements ,
A goggle device for fluorescence imaging configured to be worn by a user and comprising: a head-mounted display configured to switch between optical see-through and video see-through modes wherein said head-mounted display comprises: a first organic light emitting diode configured to display images to a right eye of a user; a second organic light emitting diode configured to display images to a left eye of the user; a combiner; and a liquid crystal shutter configured to transmit light when a voltage is applied thereto; a complementary metal-oxide-semiconductor (CMOS) imaging sensor; a control module configured to interface between said CMOS imaging sensor and a computing device; and a near infrared light source. a head-mounted display configured to switch between optical see-through and video see-through modes wherein said head-mounted display comprises: a first organic light emitting diode configured to display images to a right eye of a user; a second organic light emitting diode configured to display images to a left eye of the user; a combiner; and a liquid crystal shutter configured to transmit light when a voltage is applied thereto; a first organic light emitting diode configured to display images to a right eye of a user; a second organic light emitting diode configured to display images to a left eye of the user; a combiner; and a liquid crystal shutter configured to transmit light when a voltage is applied thereto; a complementary metal-oxide-semiconductor (CMOS) imaging sensor; a control module configured to interface between said CMOS imaging sensor and a computing device; and a near infrared light source.
A polyester copolymer, having a number average molecular weight of equal to or more than 4000 grams/mole, determined through gel permeation chromatography at 25 °C using polystyrene standards and using a mixture of chloroform and 2-chlorophenol in a volumetric ratio of 6:4 (chloroform:2-chlorophenol) as eluent, and having a glass transition temperature of less than 160°C, measured using differential scanning calorimetry with a heating rate of 10 °C/ minute in a nitrogen atmosphere, which copolymer contains: (a) in the range from equal to or more than 45 mole % to equal to or less than 50 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of one or more bicyclic diol monomer units, wherein such one or more bicyclic diol monomer units is/are derived from one or more bicyclic diols chosen from the group consisting of isosorbide, isoidide, isomannide, 2,3:4,5-di-O-methylene-galactitol and 2,4:3,5-di-O-methylene-D-mannitol; (b) in the range from equal to or more than 25 mole % to equal to or less than 49.9 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of an oxalate monomer unit; (c) in the range from equal to or more than 0.1 mole % to equal to or less than 25 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of one or more linear C3-C12 dicarboxylate monomer units; and (d) optionally equal to or more than 0 mole % to equal to or less than 5 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of one or more additional monomer units. (a) in the range from equal to or more than 45 mole % to equal to or less than 50 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of one or more bicyclic diol monomer units, wherein such one or more bicyclic diol monomer units is/are derived from one or more bicyclic diols chosen from the group consisting of isosorbide, isoidide, isomannide, 2,3:4,5-di-O-methylene-galactitol and 2,4:3,5-di-O-methylene-D-mannitol; (b) in the range from equal to or more than 25 mole % to equal to or less than 49.9 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of an oxalate monomer unit; (c) in the range from equal to or more than 0.1 mole % to equal to or less than 25 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of one or more linear C3-C12 dicarboxylate monomer units; and (d) optionally equal to or more than 0 mole % to equal to or less than 5 mole %, based on the total amount of moles of monomer units within the polyester copolymer, of one or more additional monomer units.
A humidity controller comprising a refrigerant circuit configured to perform a refrigeration cycle by circulating a refrigerant, a variable capacity compressor , first and second adsorbent heat exchangers each supporting an adsorbent thereon and a switching mechanism connected to the refrigerant circuit , the switching mechanism being a four-way switching valve including a slidable valve element , and the humidity controller being configured to cause the valve element to slide to reverse the direction of the refrigerant circulation flow such that an operation in which one of the first and second adsorbent heat exchangers serves as an evaporator and the other serves as a condenser and an operation in which the one of the first and second adsorbent heat exchangers serves as a condenser and the other serves as an evaporator are carried out alternately, wherein air humidified by the adsorbent heat exchanger serving as the condenser or air dehumidified by the adsorbent heat exchanger serving as the evaporator is suppliable to the inside of a room, and a control means configured to control the capacity of the compressor , characterised by a differential pressure detection means configured to detect the difference between high pressure and low pressure in the refrigeration cycle of the refrigerant circuit and the control means being configured to reduce the capacity of the compressor when the detected value of the differential pressure detection means exceeds a reduction threshold so as to avoid that the valve element cannot slide or that the four-way switching valve is broken.
An all- trans retinoic acid injectable formulation, comprising all- trans retinoic acid and a solubilizer, wherein the solubilizer is a lipid consisting of hydrogenated soybean phosphatidylcholine (HSPC), cholesterol and pegylated phospholipid.
A method for delivering a binary media viewer application to a client device , the method being performed by a media server system and comprising: receiving a request for media content from the client device ; delivering an agent program to said client device , said agent program adapted to execute in a runtime environment on said client device ; receiving information from said agent program regarding a platform of said client device , the platform corresponding to said client device's hardware and software including said client device's central processing unit and operating system; delivering a platform specific binary media viewer application to said client device , said application being adapted to execute on said platform of said client device ; and delivering an encoded media stream corresponding to the requested media content to said client device , the encoded media stream being adapted to be displayed on said client device using said platform specific binary media viewer application . receiving a request for media content from the client device ; delivering an agent program to said client device , said agent program adapted to execute in a runtime environment on said client device ; receiving information from said agent program regarding a platform of said client device , the platform corresponding to said client device's hardware and software including said client device's central processing unit and operating system; delivering a platform specific binary media viewer application to said client device , said application being adapted to execute on said platform of said client device ; and delivering an encoded media stream corresponding to the requested media content to said client device , the encoded media stream being adapted to be displayed on said client device using said platform specific binary media viewer application .
A method comprising the steps of: sending a packet from source compute instance in a virtual network to a destination compute instance via a destination virtual network interface card, destination VNIC, within a first virtual layer 2 network; evaluating an access control list, ACL, for the packet with a source virtual network interface card, source VNIC; embedding ACL information relevant to the packet in the packet; forwarding the encapsulated packet to a virtual switching and routing service, VSRS, the VSRS coupling a first virtual layer 2 network, VLAN, with a second network; identifying with the VSRS the destination VNIC within the first virtual layer 2 network for delivery of the packet based on information received with the packet and mapping information contained within a mapping table; accessing with the VSRS the ACL information from the packet; applying the accessed ACL information to the packet. sending a packet from source compute instance in a virtual network to a destination compute instance via a destination virtual network interface card, destination VNIC, within a first virtual layer 2 network; evaluating an access control list, ACL, for the packet with a source virtual network interface card, source VNIC; embedding ACL information relevant to the packet in the packet; forwarding the encapsulated packet to a virtual switching and routing service, VSRS, the VSRS coupling a first virtual layer 2 network, VLAN, with a second network; identifying with the VSRS the destination VNIC within the first virtual layer 2 network for delivery of the packet based on information received with the packet and mapping information contained within a mapping table; accessing with the VSRS the ACL information from the packet; applying the accessed ACL information to the packet.
An electronic device comprising: a display panel (DP) including an antenna (ANT), the antenna comprises: a first antenna portion (API); a second antenna portion (AP2) spaced apart from the first antenna portion (AP1) in a first direction (DR1); and a plurality of intermediate antenna (MAP) portions disposed between the first antenna portion (AP1) and the second antenna portion (AP2) and electrically connected to the first antenna portion (AP1) and the second antenna portion (AP2), wherein the first antenna portion (AP1) comprises a first pattern portion (PP1) and a first line portion (LP1) having a first width (WD1) in a second direction (DR2) crossing the first direction (DR1), and the second antenna portion (AP2) comprises a second pattern portion (PP2) and a second line portion (LP2) having a second width (WD2) in the second direction (DR2) that is larger than the first width (WD1). a display panel (DP) including an antenna (ANT), the antenna comprises: a first antenna portion (API); a second antenna portion (AP2) spaced apart from the first antenna portion (AP1) in a first direction (DR1); and a plurality of intermediate antenna (MAP) portions disposed between the first antenna portion (AP1) and the second antenna portion (AP2) and electrically connected to the first antenna portion (AP1) and the second antenna portion (AP2), wherein the first antenna portion (AP1) comprises a first pattern portion (PP1) and a first line portion (LP1) having a first width (WD1) in a second direction (DR2) crossing the first direction (DR1), and the second antenna portion (AP2) comprises a second pattern portion (PP2) and a second line portion (LP2) having a second width (WD2) in the second direction (DR2) that is larger than the first width (WD1). a first antenna portion (API); a second antenna portion (AP2) spaced apart from the first antenna portion (AP1) in a first direction (DR1); and a plurality of intermediate antenna (MAP) portions disposed between the first antenna portion (AP1) and the second antenna portion (AP2) and electrically connected to the first antenna portion (AP1) and the second antenna portion (AP2), wherein the first antenna portion (AP1) comprises a first pattern portion (PP1) and a first line portion (LP1) having a first width (WD1) in a second direction (DR2) crossing the first direction (DR1), and the second antenna portion (AP2) comprises a second pattern portion (PP2) and a second line portion (LP2) having a second width (WD2) in the second direction (DR2) that is larger than the first width (WD1).
A method for the recycling of used or discarded portable electrical batteries, such as saline, alkaline and small button batteries, which contain recoverable components such as iron, zinc, manganese, carbon, copper and dangerous heavy metals and organic/organo-metallic compounds such as mercury, nickel, lead, silver, pitch, chlorides or fluorides, characterised in that , as a feedstock, scrap and other feedstock components are introduced into a melting furnace for cast iron containing manganese,scrap and other feedstock components, a quantity of used or discarded batteries in such a way that the quantity of manganese contained in these batteries corresponds to the quantity of manganese which must be introduced into the melting furnace in addition to the manganese contained in the scrap in order to obtain the required manganese content for the grade of cast iron in question, and in that a gas purification device is provided in the hot gas discharge path downstream of the melting furnace to capture and eliminate harmful elements such as mercury, chlorides or fluorides and heavy molecules such as furan and aromatic dioxins.
A signal sending method performed by a network device, comprising: determining a position of a synchronization signal block, SSB, to be sent; sending the SSB according to the determined position of the SSB to a terminal; wherein, the SSB carries information of time-frequency synchronization and cell identification; one SSB burst set comprises a preset quantity of repeatedly sent SSBs, and characterized in that the determining the position of the SSB to be sent comprises determining a candidate position of a first SSB of the preset quantity of repeatedly sent SSBs in a half frame, such that the candidate position offsets from a start point of the half frame by a fixed N quantity of orthogonal frequency division multiplexing, OFDM, symbols, wherein two adjacent SSBs of the preset quantity of repeatedly sent SSBs are spaced by an interval, N is a positive integer, and there is a correspondence between a value of N and a number of times the SSB is repeatedly sent, said correspondence enabling the terminal to determine the number of times the SSB is repeatedly sent from the value of N, wherein the interval is fixed. determining a position of a synchronization signal block, SSB, to be sent; sending the SSB according to the determined position of the SSB to a terminal; wherein, the SSB carries information of time-frequency synchronization and cell identification; one SSB burst set comprises a preset quantity of repeatedly sent SSBs, and characterized in that the determining the position of the SSB to be sent comprises determining a candidate position of a first SSB of the preset quantity of repeatedly sent SSBs in a half frame, such that the candidate position offsets from a start point of the half frame by a fixed N quantity of orthogonal frequency division multiplexing, OFDM, symbols, wherein two adjacent SSBs of the preset quantity of repeatedly sent SSBs are spaced by an interval, N is a positive integer, and there is a correspondence between a value of N and a number of times the SSB is repeatedly sent, said correspondence enabling the terminal to determine the number of times the SSB is repeatedly sent from the value of N, wherein the interval is fixed. determining a candidate position of a first SSB of the preset quantity of repeatedly sent SSBs in a half frame, such that the candidate position offsets from a start point of the half frame by a fixed N quantity of orthogonal frequency division multiplexing, OFDM, symbols, wherein two adjacent SSBs of the preset quantity of repeatedly sent SSBs are spaced by an interval, N is a positive integer, and there is a correspondence between a value of N and a number of times the SSB is repeatedly sent, said correspondence enabling the terminal to determine the number of times the SSB is repeatedly sent from the value of N, wherein the interval is fixed.
A change-tolerant method of generating an identifier for a plurality of assets associated with a computing environment with respect to embedded personalization information comprising a plurality of ciphertext constants, each of the assets having an asset parameter associated therewith, the method comprising: retrieving asset parameters for the plurality of assets; generating a share corresponding to each asset parameter by combining each asset parameter with a respective ciphertext constant of the plurality of ciphertext constants to generate a plurality of shares; applying a secret sharing algorithm to a plurality of subsets of shares to derive a plurality of candidate identifiers corresponding to the plurality of subsets of shares; and selecting a most prevalent candidate identifier from the plurality of candidate identifiers as a final identifier for the plurality of assets, wherein the secret sharing algorithm is a (M-k, N)-secret sharing algorithm, where N is the number of the plurality of shares, M<N, and k is equal to 1. retrieving asset parameters for the plurality of assets; generating a share corresponding to each asset parameter by combining each asset parameter with a respective ciphertext constant of the plurality of ciphertext constants to generate a plurality of shares; applying a secret sharing algorithm to a plurality of subsets of shares to derive a plurality of candidate identifiers corresponding to the plurality of subsets of shares; and selecting a most prevalent candidate identifier from the plurality of candidate identifiers as a final identifier for the plurality of assets,