mhurhangee/ep-ind-claims huggingface dataset:
A rotary pump, comprising a rotor (1, 1', 1") having delivery elements which deliver at least a portion of a fluid in the axial direction of the rotor, wherein at least one first delivery element (3, 3', 3") or a first group of delivery elements is provided for delivering at least a portion of the fluid in the axial direction in a first sense of direction (12, 13) and at least one second delivery element (4, 4', 4") or a second group of delivery elements is provided for delivering at least a portion of the fluid in the axial direction in a second sense of direction (17, 18) which is opposite the first sense of direction, and a hub (2, 2', 2", 2"') of the rotor is hollow, wherein a continuous fluid channel (16, 16') is formed along the axial direction inside the hub (2, 2', 2", 2'"), the channel in a first axial region, and more particularly at a first end-face end, having an intake opening and in a second axial region, and more particularly at a second end-face end, having a discharge opening,; the rotary pump being characterised in that the rotor is suspended with active magnetic bearings or the active axial magnetic force of the rotor; the first and second fluid flow are combined after passing through the first and second delivery elements (3, 3', 3", 4, 4', 4"); and the first and second delivery elements deliver the first and second fluid flows directed toward each other and the first and second fluid flows are deflected jointly to the outside. at least one first delivery element (3, 3', 3") or a first group of delivery elements is provided for delivering at least a portion of the fluid in the axial direction in a first sense of direction (12, 13) and at least one second delivery element (4, 4', 4") or a second group of delivery elements is provided for delivering at least a portion of the fluid in the axial direction in a second sense of direction (17, 18) which is opposite the first sense of direction, and a hub (2, 2', 2", 2"') of the rotor is hollow, wherein a continuous fluid channel (16, 16') is formed along the axial direction inside the hub (2, 2', 2", 2'"), the channel in a first axial region, and more particularly at a first end-face end, having an intake opening and in a second axial region, and more particularly at a second end-face end, having a discharge opening,
A system for storing hazardous waste material, the system comprising: a container configured to sealingly contain hazardous waste material; a first cell, the first cell comprising a first area for manipulating the container; and a second cell, the second cell comprising a second area for manipulating the container, the second cell being isolated from the first cell, the first cell held at a first pressure and the second cell held at a second pressure, the first pressure being less than the second pressure; and an interlock, coupling the first cell to the second cell; and by the first cell, second cell and interlock being configured to allow the container to be transferred from the first cell to the second cell while maintaining at least one seal between the first cell and the second cell; wherein the second cell comprises a baking and sealing station configured to seal a filling port (540, 640) of the container. a container configured to sealingly contain hazardous waste material; a first cell, the first cell comprising a first area for manipulating the container; and a second cell, the second cell comprising a second area for manipulating the container, the second cell being isolated from the first cell, the first cell held at a first pressure and the second cell held at a second pressure, the first pressure being less than the second pressure; and an interlock, coupling the first cell to the second cell; and by the first cell, second cell and interlock being configured to allow the container to be transferred from the first cell to the second cell while maintaining at least one seal between the first cell and the second cell; wherein the second cell comprises a baking and sealing station configured to seal a filling port (540, 640) of the container.
A method of preparing a sample for library amplification and subsequent amplification comprising the following steps: (a) on a provided nucleic acid-containing cellular sample; (b) lysing cells of the sample with a lysis reagent to liberate nucleic acid from within the cells of the cellular sample, thereby forming a lysate; and (c) amplifying the nucleic acid from the lysed samples to form amplified nucleic acids; (d) exposing the amplified nucleic acids to a solid surface with immobilized amplification primers, thereby immobilizing the amplified nucleic acids on the solid surface; and (e) clonally amplifying the immobilized, amplified nucleic acids on the solid surface to generate clusters; wherein there is no purification of the nucleic acid from the lysate prior to beginning the amplification step (c); and wherein amplifying the nucleic acid in step (c) comprises tagmentation. (a) on a provided nucleic acid-containing cellular sample; (b) lysing cells of the sample with a lysis reagent to liberate nucleic acid from within the cells of the cellular sample, thereby forming a lysate; and (c) amplifying the nucleic acid from the lysed samples to form amplified nucleic acids; (d) exposing the amplified nucleic acids to a solid surface with immobilized amplification primers, thereby immobilizing the amplified nucleic acids on the solid surface; and (e) clonally amplifying the immobilized, amplified nucleic acids on the solid surface to generate clusters;
Separating device having a housing, which forms an inlet for a mixed material stream, a first outlet for a first partial stream of the mixed material stream and a second outlet for a second partial stream of the mixed material stream, a radar device being provided, which is formed and arranged in such a way that, by means thereof, electromagnetic radiation can be emitted through an interior delimited by the housing in the direction of the first outlet and can be received again as reflected radiation, characterized in that the electromagnetic radiation emitted by the radar device covers the first outlet of the housing.
A method performed by a computer device, the method comprising: detecting, by the computer device, a selection of an item in a content catalog; displaying, by the computer device, a drawing of a device corresponding to the selected item, wherein the device includes a plurality of components; requesting, by the computer device, a real-time bill of materials corresponding to the device from an enterprise resource planning system, in response to detecting the selection of the item; receiving, by the computer device, the requested real-time BOM from the ERP system; generating, by the computer device, a BOM table based on the received real-time BOM; matching, by the computer device, particular entries in the generated BOM table with particular ones of the plurality of components; detecting, by the computer device, selection of a component, of the plurality of components; determining, by the computer device, that the selected component corresponds to another device that includes another plurality of components; displaying, by the computer device, another drawing of the other device, in response to determining that the selected component corresponds to the other device; requesting, by the computer device, another real-time BOM corresponding to the other device from the ERP system, in response to displaying the other drawing; receiving, by the computer device, the requested other real-time BOM from the ERP system; generating, by the computer device, another BOM table based on the received other real-time BOM; and matching, by the computer device, particular entries in the generated other BOM table with particular ones of the other plurality of components. detecting, by the computer device, a selection of an item in a content catalog; displaying, by the computer device, a drawing of a device corresponding to the selected item, wherein the device includes a plurality of components; requesting, by the computer device, a real-time bill of materials corresponding to the device from an enterprise resource planning system, in response to detecting the selection of the item; receiving, by the computer device, the requested real-time BOM from the ERP system; generating, by the computer device, a BOM table based on the received real-time BOM; matching, by the computer device, particular entries in the generated BOM table with particular ones of the plurality of components; detecting, by the computer device, selection of a component, of the plurality of components; determining, by the computer device, that the selected component corresponds to another device that includes another plurality of components; displaying, by the computer device, another drawing of the other device, in response to determining that the selected component corresponds to the other device; requesting, by the computer device, another real-time BOM corresponding to the other device from the ERP system, in response to displaying the other drawing; receiving, by the computer device, the requested other real-time BOM from the ERP system; generating, by the computer device, another BOM table based on the received other real-time BOM; and
A cooking apparatus (100, 200, 300, 400, 500, 600) comprising: a housing (110, 210, 310, 410, 510, 610); a cooking compartment (120, 220, 320, 420, 520, 620) arranged at the housing, the cooking compartment being configured to form a first enclosed space in which food item can be received; a heating unit (130, 230, 330, 430, 530, 630) arranged inside a second enclosed space in the housing, wherein the cooking compartment comprises an air inlet (250, 350, 450, 550, 650) through which air can enter from a side of the cooking compartment, and an air outlet (252, 352, 452, 552, 652) through which air can exit from an opposite side of the cooking compartment, wherein the air inlet (250, 350, 450, 550, 650) and the air outlet (252, 352, 452, 552, 652) are disposed on opposite sides of the cooking compartment, and wherein the air inlet and the air outlet are connected to the second enclosed space such that air heated by the heating unit can circulate between the second enclosed space and the cooking compartment; characterized in that, the cooking apparatus further comprises a water reservoir (280, 380, 480, 580, 680) configured to store water, the water reservoir being connected to the heating unit (230, 330, 430, 530, 630) such that water can be delivered from the water reservoir to the heating unit for steam generation; wherein the cooking apparatus includes a convection heating function and a steam cooking function. a housing (110, 210, 310, 410, 510, 610); a cooking compartment (120, 220, 320, 420, 520, 620) arranged at the housing, the cooking compartment being configured to form a first enclosed space in which food item can be received; a heating unit (130, 230, 330, 430, 530, 630) arranged inside a second enclosed space in the housing, wherein the cooking compartment comprises an air inlet (250, 350, 450, 550, 650) through which air can enter from a side of the cooking compartment, and an air outlet (252, 352, 452, 552, 652) through which air can exit from an opposite side of the cooking compartment, wherein the air inlet (250, 350, 450, 550, 650) and the air outlet (252, 352, 452, 552, 652) are disposed on opposite sides of the cooking compartment, and wherein the air inlet and the air outlet are connected to the second enclosed space such that air heated by the heating unit can circulate between the second enclosed space and the cooking compartment; characterized in that, the cooking apparatus further comprises a water reservoir (280, 380, 480, 580, 680) configured to store water, the water reservoir being connected to the heating unit (230, 330, 430, 530, 630) such that water can be delivered from the water reservoir to the heating unit for steam generation; wherein the cooking apparatus includes a convection heating function and a steam cooking function.
A cellulose powder comprising a cellulose type I: crystalline and having an average particle size of less than 30 μm, a bulk density of 0.1 to 0.45 g/cm 3, a tapping density of 0.1 to 0.5 g/cm 3, a repose angle of 35° to 50°, a specific surface area of greater than or equal to 0.1 and less than 20 m 2 /g, and an internal frictional angle of 36 to 42°, wherein the cellulose powder comprises particles having a secondary aggregation structure formed by aggregation of primary particles.
A system comprising: a stimulation generator configured to generate electrical stimulation; a sensing module configured to sense, via a plurality of electrodes (26, 28), electrical physiological signals generated by a patient; and a processing module configured to determine current source density values for the electrodes based on the electrical physiological signals, the processing module being configured to determine a power value for each of the plurality of electrodes, the power value indicating the power of the electrical physiological signals within a frequency band; determine second differences of the power values for the plurality of electrodes; and control the delivery of the electrical stimulation to the patient based on the second differences of the power values; wherein the processing module is configured to determine a plurality of first differences of the power values, each of the first differences determined based on a difference between power values of adjacent electrodes, and wherein the processing module is configured to determine the second differences based on differences between the first differences. a stimulation generator configured to generate electrical stimulation; a sensing module configured to sense, via a plurality of electrodes (26, 28), electrical physiological signals generated by a patient; and a processing module configured to determine current source density values for the electrodes based on the electrical physiological signals, the processing module being configured to determine a power value for each of the plurality of electrodes, the power value indicating the power of the electrical physiological signals within a frequency band; determine second differences of the power values for the plurality of electrodes; and control the delivery of the electrical stimulation to the patient based on the second differences of the power values; wherein determine a power value for each of the plurality of electrodes, the power value indicating the power of the electrical physiological signals within a frequency band; determine second differences of the power values for the plurality of electrodes; and control the delivery of the electrical stimulation to the patient based on the second differences of the power values; wherein the processing module is configured to determine a plurality of first differences of the power values, each of the first differences determined based on a difference between power values of adjacent electrodes, and wherein the processing module is configured to determine the second differences based on differences between the first differences.
An RFID reader apparatus, comprising: an enclosure (102; 200), the enclosure (102; 200) having a backplate and a plurality of sidewalls extending upwards from the perimeter of the backplate, one of the plurality of sidewalls having a reader slot (118; 208) formed therein, each of the plurality of sidewalls further comprising a flange (104; 206) extending outward from the top of the sidewall, each flange (104; 206) having a plurality of connection sites (106; 114); an inner antenna tray, the inner antenna tray sized to fit within an enclosure cavity defined by the plurality of sidewalls, the disposition of the inner antenna tray in the enclosure cavity defining a cable slot on the plane of the inner antenna tray, the cable slot permitting the passage of a cable from a top side of the inner antenna tray to a bottom side of the inner antenna tray; an antenna, the antenna sized to fit within a top enclosure cavity defined by the plurality of sidewalls and the inner antenna tray and disposed on the top side of the inner antenna tray, the antenna configured to broadcast and receive radio-frequency signals; and an RFID reader sized (118; 208) to fit within the reader slot (118; 208), the RFID reader comprising a processor and a memory, the memory comprising computer code executable by the processor to cause the RFID reader to communicate with one or more RFID tags in the field of operation of the antenna, capture data belonging to the one or more RFID tags, and interpret the data belonging to the one or more RFID tags, the RFID reader further comprising a data port. an enclosure (102; 200), the enclosure (102; 200) having a backplate and a plurality of sidewalls extending upwards from the perimeter of the backplate, one of the plurality of sidewalls having a reader slot (118; 208) formed therein, each of the plurality of sidewalls further comprising a flange (104; 206) extending outward from the top of the sidewall, each flange (104; 206) having a plurality of connection sites (106; 114); an inner antenna tray, the inner antenna tray sized to fit within an enclosure cavity defined by the plurality of sidewalls, the disposition of the inner antenna tray in the enclosure cavity defining a cable slot on the plane of the inner antenna tray, the cable slot permitting the passage of a cable from a top side of the inner antenna tray to a bottom side of the inner antenna tray; an antenna, the antenna sized to fit within a top enclosure cavity defined by the plurality of sidewalls and the inner antenna tray and disposed on the top side of the inner antenna tray, the antenna configured to broadcast and receive radio-frequency signals; and an RFID reader sized (118; 208) to fit within the reader slot (118; 208), the RFID reader comprising a processor and a memory, the memory comprising computer code executable by the processor to cause the RFID reader to communicate with one or more RFID tags in the field of operation of the antenna, capture data belonging to the one or more RFID tags, and interpret the data belonging to the one or more RFID tags, the RFID reader further comprising a data port.
A method for trust-based orchestration in an edge computing environment, comprising: sending, by an edge orchestrator, to an edge node (804A, 804B) in the edge computing environment, an instruction to perform a workload, the edge node (804A, 804B) being in a group of edge nodes (804A, 804B) managed with a blockchain ledger (BC1, BC2); executing, by the edge node (804A, 804B), the workload to produce a result, and evaluating, by validator nodes (806A-806J) in the group of edge nodes (804A, 804B), this execution of the workload to produce a reputation score of the edge node (804A, 804B), wherein to produce the reputation of the edge node (804A, 804B), the validator nodes (806A-806J) collect telemetry on the edge node (804A, 804B) and the reputation of the edge node (804A, 804B) is based on the telemetry collected in addition to service level agreement, SLA, or key performance indicator, KPI, parameters, and the telemetry is based on resource utilization of the edge node (804A, 804B); and providing, by the edge node (804A, 804B), the result to the edge orchestrator. sending, by an edge orchestrator, to an edge node (804A, 804B) in the edge computing environment, an instruction to perform a workload, the edge node (804A, 804B) being in a group of edge nodes (804A, 804B) managed with a blockchain ledger (BC1, BC2); executing, by the edge node (804A, 804B), the workload to produce a result, and evaluating, by validator nodes (806A-806J) in the group of edge nodes (804A, 804B), this execution of the workload to produce a reputation score of the edge node (804A, 804B), wherein to produce the reputation of the edge node (804A, 804B), the validator nodes (806A-806J) collect telemetry on the edge node (804A, 804B) and the reputation of the edge node (804A, 804B) is based on the telemetry collected in addition to service level agreement, SLA, or key performance indicator, KPI, parameters, and the telemetry is based on resource utilization of the edge node (804A, 804B); and providing, by the edge node (804A, 804B), the result to the edge orchestrator.
A terminal device operating as a parent device in a network where one parent device performs one-on-many wireless communication with a plurality of child devices (20-1, 20-2, 20-3, 20-4, 20-5, 20-6), the terminal device comprising: a child device connecting unit which is arranged to establish a wireless connection with one child device in response to a predetermined trigger; the child device connecting unit being arranged to receive group information over the wireless connection from the child device, the group information representing a group made up of two or more child devices to which the child device belongs, and including information allowing determination of number or identification of remaining child devices belonging to the group to which the child device belongs; a management unit which is arranged to manage group information for identifying, based on the received group information, unconnected child devices belonging to the group; the child device connecting unit being arranged to transmit consecutively wireless connection setup requests to remaining child devices belonging to the group to establish wireless connections with them. a child device connecting unit which is arranged to establish a wireless connection with one child device in response to a predetermined trigger; the child device connecting unit being arranged to receive group information over the wireless connection from the child device, the group information representing a group made up of two or more child devices to which the child device belongs, and including information allowing determination of number or identification of remaining child devices belonging to the group to which the child device belongs; a management unit which is arranged to manage group information for identifying, based on the received group information, unconnected child devices belonging to the group; the child device connecting unit being arranged to transmit consecutively wireless connection setup requests to remaining child devices belonging to the group to establish wireless connections with them.
Seal element, constructed as a joint sealing tape for sealing a rim portion of a construction element against an adjacent connecting portion of a building, said seal element extending between a first section and a second section in a width direction and comprising transversely to the width direction in a thickness direction a mounting edge (18, 19), each of which turned toward said rim portion and said connecting portion respectively, and the seal element being profiled in such a manner that, in the absence of an external impact, the same has a larger thickness in the region of the first section than in the region of the second section and is compressible in such a manner that its thickness from the first section to the second section is substantially equal when installed between the rim portion and the connecting portion, and the first section and the second section being respectively located at the boundaries of the seal element in the width direction, characterized in that in the absence of an external impact, the thickness of the seal element decreases from the second section to the first section, then increases again and finally decreases again, the thickness thereof at the second section being smaller than at the first section, and that the joint sealing tape comprises a fourth section in the region of the first section, and a third section in the region of the second section such that the thickness of the sealing element first linearly declines from the third section located at the boundary of the seal element in the width direction of the joint sealing tape and then inclines again up to a maximum in the region of the fourth section, and that said maximum is offset inwards with respect to the first section by 1/4 or 1/5 of the width of the seal element.