mhurhangee/ep-ind-claims huggingface dataset:
Method for tracking of a finite amount of liquid volume which is individualized in volume units (Vu), each volume unit (Vu) comprising a defined subset of volume from the finite amount of liquid volume, and whereby the liquid volume is moved as volume units (Vu) and/or a volume unit batch (nVu) along a series of blocks (B1, B2, B3, Bn,...) in a network, comprising the steps of: a. Generating an identification representative of the specific liquid volume upon generation of said liquid volume; b. Storing said identification on a wirelessly readable communication unit applied on a single volume unit (Vu) and/or a single volume unit batch (nVu) of the liquid volume; c. Reading said identification by means of at least one first data acquisition unit upon movement of the single volume unit (Vu) into a specific block in the network, and enriching the identification with a specific block identification to form a first block identification and storing said first block identification on a distributed ledger; d. Repeating step c. for each movement of the single unit from a parent block into a child block thereby storing a number n of subsequent block identifications on the distributed ledger for each block the movement into is performed, and characterized in, that e. A physical access to the volume unit in any one of the blocks in the network is recorded by means of the wirelessly readable communication unit and reflected in a subsequent reading of the identification as outlined in any one of steps c) and d), thereby recording the corresponding defined subset of volume of the volume unit as consumed. a. Generating an identification representative of the specific liquid volume upon generation of said liquid volume; b. Storing said identification on a wirelessly readable communication unit applied on a single volume unit (Vu) and/or a single volume unit batch (nVu) of the liquid volume; c. Reading said identification by means of at least one first data acquisition unit upon movement of the single volume unit (Vu) into a specific block in the network, and enriching the identification with a specific block identification to form a first block identification and storing said first block identification on a distributed ledger; d. Repeating step c. for each movement of the single unit from a parent block into a child block thereby storing a number n of subsequent block identifications on the distributed ledger for each block the movement into is performed, and characterized in, that e. A physical access to the volume unit in any one of the blocks in the network is recorded by means of the wirelessly readable communication unit and reflected in a subsequent reading of the identification as outlined in any one of steps c) and d), thereby recording the corresponding defined subset of volume of the volume unit as consumed.
A laminating device, comprising: a first conveying device configured to convey a film-like structure; a second conveying device arranged along a conveying direction of the first conveying device, a conveying speed of the first conveying device being greater than that of the second conveying device, the second conveying device receiving the film-like structure conveyed by the first conveying device, the film-like structure forming a folded portion on the second conveying device; and a laminating apparatus configured to convey an object to be laminated and receive the film-like structure conveyed by the second conveying device, wherein the film-like structure with the folded portion is laminated with the object to be laminated on the laminating apparatus. a first conveying device configured to convey a film-like structure; a second conveying device arranged along a conveying direction of the first conveying device, a conveying speed of the first conveying device being greater than that of the second conveying device, the second conveying device receiving the film-like structure conveyed by the first conveying device, the film-like structure forming a folded portion on the second conveying device; and a laminating apparatus configured to convey an object to be laminated and receive the film-like structure conveyed by the second conveying device, wherein the film-like structure with the folded portion is laminated with the object to be laminated on the laminating apparatus.
A method for transmitting downlink beam information by a mobile station in a wireless communication system, the method comprising: transmitting, to a base station, uplink reference signals through a plurality of uplink beams; detecting a downlink beam mismatch between the base station and the mobile station; if the downlink beam mismatch is detected, identifying (304 ∼ 308) at least one downlink beam among a plurality of downlink beams of the base station based on measurements of downlink reference signals; and transmitting, to the base station, feedback information of the at least one downlink beam. transmitting, to a base station, uplink reference signals through a plurality of uplink beams; detecting a downlink beam mismatch between the base station and the mobile station; if the downlink beam mismatch is detected, identifying (304 ∼ 308) at least one downlink beam among a plurality of downlink beams of the base station based on measurements of downlink reference signals; and transmitting, to the base station, feedback information of the at least one downlink beam.
A process for treating a solid waste containing material, comprising: separating the solid waste containing material to produce at least a plastics fraction, an organic fraction, and a residual fraction; subjecting at least a portion of the plastics fraction to plastics processing to produce at least one hydrocarbon product; subjecting a first portion of the organics fraction to bio-ethanol production; subjecting a second portion of the organics fraction to bio-coal production; and supplying at least a portion of the residual fraction to a thermal reactor to produce an inert material and heat energy, wherein said bio-ethanol production comprises: enzymatically treating the first portion of the organics fraction to produce a sugar-enriched stream; fermenting at least a portion of the sugar-enriched stream to produce an ethanol containing stream; and separating ethanol from the ethanol containing stream to produce a bio-ethanol product, and wherein said bio-coal production comprises: subjecting the second portion of the organics fraction to hydrothermal carbonization to produce a thermally treated stream such as coal sludge; and removing water from the thermally treated stream to produce a bio-coal product. separating the solid waste containing material to produce at least a plastics fraction, an organic fraction, and a residual fraction; subjecting at least a portion of the plastics fraction to plastics processing to produce at least one hydrocarbon product; subjecting a first portion of the organics fraction to bio-ethanol production; subjecting a second portion of the organics fraction to bio-coal production; and supplying at least a portion of the residual fraction to a thermal reactor to produce an inert material and heat energy, wherein said bio-ethanol production comprises: enzymatically treating the first portion of the organics fraction to produce a sugar-enriched stream; fermenting at least a portion of the sugar-enriched stream to produce an ethanol containing stream; and separating ethanol from the ethanol containing stream to produce a bio-ethanol product, enzymatically treating the first portion of the organics fraction to produce a sugar-enriched stream; fermenting at least a portion of the sugar-enriched stream to produce an ethanol containing stream; and separating ethanol from the ethanol containing stream to produce a bio-ethanol product, and wherein said bio-coal production comprises: subjecting the second portion of the organics fraction to hydrothermal carbonization to produce a thermally treated stream such as coal sludge; and removing water from the thermally treated stream to produce a bio-coal product. subjecting the second portion of the organics fraction to hydrothermal carbonization to produce a thermally treated stream such as coal sludge; and removing water from the thermally treated stream to produce a bio-coal product.
A radio access network entity, comprising: a transceiver configured to receive information and to send information, and a processor configured to process received and configured information and to output processing results, wherein the processed information comprises at least - an indication from a mobility management entity whether a single-radio voice call continuity handover is permitted for a subscriber's terminal, - an indication whether the subscriber's terminal is capable of participating in a single-radio voice call continuity handover, - an indication whether respective access entities are capable of at least one of participating in a single-radio voice call continuity handover and handling packet switched services, - an indication of the service domain of a service provided to the respective subscriber's terminal in an ongoing session, wherein the processor is configured to output as a processing result, a list of target access network entities eligible in the network for handover for the respective user's terminal, and wherein the transceiver is configured to send the list of target access network entities to the respective subscriber's terminal that has the ongoing session, for performing measurements on the target access entities that are contained in the list. a transceiver configured to receive information and to send information, and a processor configured to process received and configured information and to output processing results, wherein the processed information comprises at least - an indication from a mobility management entity whether a single-radio voice call continuity handover is permitted for a subscriber's terminal, - an indication whether the subscriber's terminal is capable of participating in a single-radio voice call continuity handover, - an indication whether respective access entities are capable of at least one of participating in a single-radio voice call continuity handover and handling packet switched services, - an indication of the service domain of a service provided to the respective subscriber's terminal in an ongoing session, - an indication from a mobility management entity whether a single-radio voice call continuity handover is permitted for a subscriber's terminal, - an indication whether the subscriber's terminal is capable of participating in a single-radio voice call continuity handover, - an indication whether respective access entities are capable of at least one of participating in a single-radio voice call continuity handover and handling packet switched services, - an indication of the service domain of a service provided to the respective subscriber's terminal in an ongoing session, wherein the processor is configured to output as a processing result, a list of target access network entities eligible in the network for handover for the respective user's terminal, and wherein the transceiver is configured to send the list of target access network entities to the respective subscriber's terminal that has the ongoing session, for performing measurements on the target access entities that are contained in the list.
A pump fitting for a container of fluid comprising: an inlet adaptor for connection to an outlet of a container of fluid and including an inlet passage, an outlet passage for fluid and a pump housing between the inlet passage and the outlet passage, the pump housing containing a rotor rotatably received in an interior surface of the housing, the rotor including a housing-engaging surface (23, 24) co-operating with the interior surface of the housing to form a seal therebetween and also including at least one shaped surface (21, 22) radially inwardly of the housing-engaging surface (23,24) and forming with the interior surface of the housing a chamber (25,26) for conveying fluid from the inlet passage to the outlet passage on rotation of the rotor, a seal being provided between the outlet passage and the inlet passage, the seal being urged into engagement with the rotor to prevent fluid passing from the outlet passage to the inlet passage as the shaped surface (21, 22) rotates, the inlet passage, the outlet passage, the seal and the housing being formed as a one-piece moulding; characterized in that the pump housing has a smaller diameter than the diameter of the inlet passage. an inlet adaptor for connection to an outlet of a container of fluid and including an inlet passage, an outlet passage for fluid and a pump housing between the inlet passage and the outlet passage, the pump housing containing a rotor rotatably received in an interior surface of the housing, the rotor including a housing-engaging surface (23, 24) co-operating with the interior surface of the housing to form a seal therebetween and also including at least one shaped surface (21, 22) radially inwardly of the housing-engaging surface (23,24) and forming with the interior surface of the housing a chamber (25,26) for conveying fluid from the inlet passage to the outlet passage on rotation of the rotor, a housing-engaging surface (23, 24) co-operating with the interior surface of the housing to form a seal therebetween and also including at least one shaped surface (21, 22) radially inwardly of the housing-engaging surface (23,24) and forming with the interior surface of the housing a chamber (25,26) for conveying fluid from the inlet passage to the outlet passage on rotation of the rotor, a seal being provided between the outlet passage and the inlet passage, the seal being urged into engagement with the rotor to prevent fluid passing from the outlet passage to the inlet passage as the shaped surface (21, 22) rotates, the inlet passage, the outlet passage, the seal and the housing being formed as a one-piece moulding; characterized in that the pump housing has a smaller diameter than the diameter of the inlet passage.
Method for producing a press hardened part of heat treatable material having zones (2a, 2b) of different structure by partially heating a blank before the blank is processed, characterized by the steps of; arranging the blank in a furnace for heating the blank to a temperature equal to or above the austenitization temperature of the material of the blank to get the blank into an austenitic phase, arranging the heated blank in an infrared heating station, arranging a mask made of stainless steel or aluminum between an IR source and the blank, in parallel with the blank, to block IR radiation from reaching outside at least one first zone of the blank, partially heating, by means of IR radiation, said at least one first zone of the blank thereby keeping the at least one first zone of the blank in the austenitic phase and letting a second zone of the blank, outside said at least one first zone, to cool below the austenitization temperature, and arranging the blank in a processing unit for forming and quenching the blank to a press hardened part.
Method for detection and measurements of neutral hydrogen, oxygen or nitrogen atoms in a non-equilibrium gaseous medium, said method at least comprising: - Inserting at least one catalytic material into said non-equilibrium gaseous medium; - Heating said catalytic material to a preset temperature which is at least 100 K above the ambient temperature using a remote source of radiation, said remote source of radiation being a laser the radiation of which is guided with an optical fiber to the catalytic material; - Detecting said catalytic material temperature; - Controlling the power of said remote source of radiation in such a manner that the temperature of said catalytic material remains substantially at the preset temperature during the measurement of neutral hydrogen, oxygen or nitrogen atoms in said non-equilibrium gaseous medium; - Determining said power of said remote source employed to keep the preset temperature of said catalytic material; - Transforming said power of said remote source employed to keep the preset temperature of said catalytic material to the density of said neutral atoms in said non-equilibrium gaseous medium; - Storing and/or displaying of said density of neutral atoms in said non-equilibrium gaseous medium. - Inserting at least one catalytic material into said non-equilibrium gaseous medium; - Heating said catalytic material to a preset temperature which is at least 100 K above the ambient temperature using a remote source of radiation, said remote source of radiation being a laser the radiation of which is guided with an optical fiber to the catalytic material; - Detecting said catalytic material temperature; - Controlling the power of said remote source of radiation in such a manner that the temperature of said catalytic material remains substantially at the preset temperature during the measurement of neutral hydrogen, oxygen or nitrogen atoms in said non-equilibrium gaseous medium; - Determining said power of said remote source employed to keep the preset temperature of said catalytic material; - Transforming said power of said remote source employed to keep the preset temperature of said catalytic material to the density of said neutral atoms in said non-equilibrium gaseous medium; - Storing and/or displaying of said density of neutral atoms in said non-equilibrium gaseous medium.
A cyclic peptide of Formula I: H-Tyr-c[X 1 -X 2 -X 3 -X 4]-X 5, wherein X 1 and X 4 each independently is an acidic amino acid or a basic amino acid; X 2 is Phe; X 3 is an aromatic amino acid; X 5 is Ala-NHR, Arg-NHR, Asn-NHR, Asp-NHR, Cys-NHR, Glu-NHR, Gln-NHR, Gly-NHR, His-NHR, Ile-NHR, Leu-NHR, Met-NHR, Orn-NHR, Phe-NHR, Pro-NHR, Ser-NHR, Thr-NHR, Trp-NHR, Tyr-NHR, or Val-NHR, wherein R is H or an alkyl group; and there is an amide bond between an amino group and a carboxylic acid group on side chains of amino acids X 1 and X 4; with the proviso that when X 1 is an acidic amino acid, then X 4 is a basic amino acid; and when X 1 is a basic amino acid, then X 4 is an acidic amino acid; wherein X 1 is a D-amino acid. X 1 and X 4 each independently is an acidic amino acid or a basic amino acid; X 2 is Phe; X 3 is an aromatic amino acid; X 5 is Ala-NHR, Arg-NHR, Asn-NHR, Asp-NHR, Cys-NHR, Glu-NHR, Gln-NHR, Gly-NHR, His-NHR, Ile-NHR, Leu-NHR, Met-NHR, Orn-NHR, Phe-NHR, Pro-NHR, Ser-NHR, Thr-NHR, Trp-NHR, Tyr-NHR, or Val-NHR, wherein R is H or an alkyl group; and there is an amide bond between an amino group and a carboxylic acid group on side chains of amino acids X 1 and X 4; with the proviso that when X 1 is an acidic amino acid, then X 4 is a basic amino acid; and when X 1 is a basic amino acid, then X 4 is an acidic amino acid; wherein X 1 is a D-amino acid.
A method for acquiring port extension, PE, topology information, comprising: a controlling bridge, CB, sending a link layer discovery protocol, LLDP, message through a port connected to the PE; the PE receiving the LLDP message and setting the port which receiving that message as an upstream port, obtaining the address of the CB, and sending the LLDP message from the upstream port to the CB; the CB receiving the LLDP message sent by the PE and perceiving that the CB is connected to the PE; and the CB receiving Extended Port Create message sent by the PE and instantiating a corresponding instantiated port inside the CB; after the CB is connected to the PE, the CB sending a LLDP message to other PEs that connect with the PE, through the instantiated port inside the CB and extended port of the PE; the CB receiving a LLDP message sent by other PEs, and perceiving that the CB is connected to other PEs. a controlling bridge, CB, sending a link layer discovery protocol, LLDP, message through a port connected to the PE; the PE receiving the LLDP message and setting the port which receiving that message as an upstream port, obtaining the address of the CB, and sending the LLDP message from the upstream port to the CB; the CB receiving the LLDP message sent by the PE and perceiving that the CB is connected to the PE; and the CB receiving Extended Port Create message sent by the PE and instantiating a corresponding instantiated port inside the CB; after the CB is connected to the PE, the CB sending a LLDP message to other PEs that connect with the PE, through the instantiated port inside the CB and extended port of the PE; the CB receiving a LLDP message sent by other PEs, and perceiving that the CB is connected to other PEs.
Product surface having an opto-electronically readable code, which is formed by an arrangement of flat cells (6, 7) of different cell types, wherein - the cells (6, 7) are an integral part of the product surface, - the cells (6, 7) of each cell type each have a surface profile, - the surface profile of at least one cell type has at least one elevation and/or depression relative to the product surface, - the surface profile of a first cell type is designed relative to the surface profile of a second cell type such that the reflective properties of the surface profile of the first cell type differ from the reflective properties of the surface profile of the second cell type, - the surface profile of one cell type has elements which form a structure and/or a texture, characterized - in that element tips of two adjacent elements have a spacing of 0.01 mm to 0.8 mm, and - in that elements of a surface profile of one cell type have a height difference of 0.08 mm to 0.5 mm. - the cells (6, 7) are an integral part of the product surface, - the cells (6, 7) of each cell type each have a surface profile, - the surface profile of at least one cell type has at least one elevation and/or depression relative to the product surface, - the surface profile of a first cell type is designed relative to the surface profile of a second cell type such that the reflective properties of the surface profile of the first cell type differ from the reflective properties of the surface profile of the second cell type, - the surface profile of one cell type has elements which form a structure and/or a texture, characterized - in that element tips of two adjacent elements have a spacing of 0.01 mm to 0.8 mm, and - in that elements of a surface profile of one cell type have a height difference of 0.08 mm to 0.5 mm.