mhurhangee/ep-ind-claims huggingface dataset:
Laundry dryer with a washing drum, a door by means of which the washing drum can be closed, a fluff filter device in an air channel of an air circuit extending through the washing drum for keeping back at least a part of the washing fluffs transported in the process air, wherein the fluff filter device contains at least a filter bag with a bag opening and a bag interior space, wherein the laundry dryer is formed in such a way that the process air can be inserted into the interior of the bag through the bag opening, characterized in that the filter bag is arranged on the door of the laundry dryer.
Laminary material for preventing post-surgical adhesions, comprising an adherence layer for adherence to a desired site and an at least essentially parallel spacing layer attached to the adherence layer at a plurality of attachment points, the adherence layer comprising a first polymeric film made of a first biodegradable polymer and an adherence coating, the first polymeric film having an outer surface facing away from the spacing layer and an inner surface facing towards the spacing layer, and at least part of the outer surface of the first polymeric film being coated with the adherence coating, the spacing layer comprising a second polymeric film made of a second biodegradable polymer, the second polymeric film having an outer surface facing away from the adherence layer and an inner surface facing towards the adherence layer, whereby the adherence layer and the spacing layer define a cavity between said two layers, the cavity consisting of a plurality of interconnected compartments, which are defined by the attachment points. the spacing layer comprising a second polymeric film made of a second biodegradable polymer, the second polymeric film having an outer surface facing away from the adherence layer and an inner surface facing towards the adherence layer, whereby the adherence layer and the spacing layer define a cavity between said two layers, the cavity consisting of a plurality of interconnected compartments, which are defined by the attachment points.
A loader boom arm assembly for a loader work vehicle, the loader boom arm comprising: an arm assembly including: a first hollow beam formed from a material having a weight lighter than steel; a second hollow beam formed from the material; and a connection assembly having a first angled intermediate plate and a pair of knee plates formed from the material, with a portion of the first angled intermediate plate received within the first hollow beam at a first end and a second portion of the first angled intermediate plate received within the second hollow beam at a second end, the pair of knee plates cooperating to define a first channel that receives the end of the first hollow beam and a second channel that receives the second end of the second hollow beam such that the first end of the first hollow beam and the second end of the second hollow beam are between the pair of knee plates, wherein the first angled intermediate plate and the pair of knee plates are configured for interconnecting the first hollow beam with the second hollow beam at the first and second ends. a first hollow beam formed from a material having a weight lighter than steel; a second hollow beam formed from the material; and a connection assembly having a first angled intermediate plate and a pair of knee plates formed from the material, with a portion of the first angled intermediate plate received within the first hollow beam at a first end and a second portion of the first angled intermediate plate received within the second hollow beam at a second end, the pair of knee plates cooperating to define a first channel that receives the end of the first hollow beam and a second channel that receives the second end of the second hollow beam such that the first end of the first hollow beam and the second end of the second hollow beam are between the pair of knee plates, wherein the first angled intermediate plate and the pair of knee plates are configured for interconnecting the first hollow beam with the second hollow beam at the first and second ends.
An electronic device comprising: a memory storing instructions; and at least one processor configured to execute the instructions to: in response to an input, identify a machine learning, ML, model to be processed for responding to the input; divide the ML model into a plurality of sub-models by forking at least one smart contract; identify at least one other electronic device (100b-100n) which processes at least one sub-model of the plurality of sub-models; assign the at least one sub-model of the plurality of sub-models to the at least one other electronic device (100b-100n) to process the at least one sub-model of the plurality of sub-models; and receive from the at least one other electronic device (100b-100n) at least one output of the processed at least one sub-model of the plurality of sub-models to generate a response to the input. a memory storing instructions; and at least one processor configured to execute the instructions to: in response to an input, identify a machine learning, ML, model to be processed for responding to the input; divide the ML model into a plurality of sub-models by forking at least one smart contract; identify at least one other electronic device (100b-100n) which processes at least one sub-model of the plurality of sub-models; assign the at least one sub-model of the plurality of sub-models to the at least one other electronic device (100b-100n) to process the at least one sub-model of the plurality of sub-models; and receive from the at least one other electronic device (100b-100n) at least one output of the processed at least one sub-model of the plurality of sub-models to generate a response to the input. in response to an input, identify a machine learning, ML, model to be processed for responding to the input; divide the ML model into a plurality of sub-models by forking at least one smart contract; identify at least one other electronic device (100b-100n) which processes at least one sub-model of the plurality of sub-models; assign the at least one sub-model of the plurality of sub-models to the at least one other electronic device (100b-100n) to process the at least one sub-model of the plurality of sub-models; and receive from the at least one other electronic device (100b-100n) at least one output of the processed at least one sub-model of the plurality of sub-models to generate a response to the input.
A process for the treatment of industrial alkaline streams comprising sulfide and carbonate, comprising the steps of: a) providing an industrial alkaline stream comprising sulfide and carbonate, b) supplying the industrial alkaline stream to a bioreactor comprising sulfide oxidizing bacteria and removing sulfide from the industrial alkaline stream by subjecting said stream to sulfide oxidizing bacteria in the presence of oxygen, and supplying a pH adjustment agent to the bioreactor to maintain a pH in the range 8 to 11, to oxidize the sulfide to elemental sulfur, c) withdrawing from the bioreactor a treated industrial alkaline stream comprising elemental sulfur, wherein a portion of the sulfide oxidizing bacteria is removed from the bioreactor and mixed with the industrial alkaline stream prior to supplying the industrial alkaline stream to the bioreactor in step b), and wherein the pH adjustment agent is selected from carbon dioxide, sour gas, hydrochloric acid, nitric acid and phosphoric acid. a) providing an industrial alkaline stream comprising sulfide and carbonate, b) supplying the industrial alkaline stream to a bioreactor comprising sulfide oxidizing bacteria and removing sulfide from the industrial alkaline stream by subjecting said stream to sulfide oxidizing bacteria in the presence of oxygen, and supplying a pH adjustment agent to the bioreactor to maintain a pH in the range 8 to 11, to oxidize the sulfide to elemental sulfur, c) withdrawing from the bioreactor a treated industrial alkaline stream comprising elemental sulfur,
Fastening device for releasably fastening a load device to a guiding device, having: a load-bearing structure with a fastening unit and with a closure unit; wherein the fastening unit is able to be connected to the guiding unit; wherein the closure unit is configured for releasable fastening of the load device; wherein the closure unit has at least three projections which are arranged with predefined spacings (d) along a periphery of the load-bearing structure; wherein each projection of the at least three projections has a closure element which is able to be moved between a closed state and an open state; wherein in each case two adjacent projections together form a cutout for receiving the load device or a part of the load device. a load-bearing structure with a fastening unit and with a closure unit; wherein the fastening unit is able to be connected to the guiding unit; wherein the closure unit is configured for releasable fastening of the load device; wherein the closure unit has at least three projections which are arranged with predefined spacings (d) along a periphery of the load-bearing structure; wherein each projection of the at least three projections has a closure element which is able to be moved between a closed state and an open state; wherein in each case two adjacent projections together form a cutout for receiving the load device or a part of the load device.
A management method transient operation of a powertrain of a diesel thermal vehicle with manual gearbox equipped with an intake system for fresh air and recycled exhaust gases, a unit for treating the exhaust gases by selective catalytic reduction of nitrogen oxides and a unit for treating the exhaust gases by catalytic oxidation, comprising the steps consisting of: - detecting a load and/or rpm increase demand, - increasing an intake air flow rate of the power train to satisfy the load and/or rpm increase demand, and wherein the air flow rate is increased by prioritizing a recirculated exhaust gas intake according to at least: - of a precursor liquid level of a nitrogen oxide reducer in a storage tank of the vehicle, and/or - of a temperature of the exhaust gas treatment unit of the vehicle by selective catalytic reduction of nitrogen oxides, and/or - of an ignition state of the exhaust gas treatment unit by catalytic oxidation. - detecting a load and/or rpm increase demand, - increasing an intake air flow rate of the power train to satisfy the load and/or rpm increase demand, and wherein the air flow rate is increased by prioritizing a recirculated exhaust gas intake according to at least: - of a precursor liquid level of a nitrogen oxide reducer in a storage tank of the vehicle, and/or - of a temperature of the exhaust gas treatment unit of the vehicle by selective catalytic reduction of nitrogen oxides, and/or - of an ignition state of the exhaust gas treatment unit by catalytic oxidation. - of a precursor liquid level of a nitrogen oxide reducer in a storage tank of the vehicle, and/or - of a temperature of the exhaust gas treatment unit of the vehicle by selective catalytic reduction of nitrogen oxides, and/or - of an ignition state of the exhaust gas treatment unit by catalytic oxidation.
A method performed by a packet data network, PDN, gateway, PGW,, in a communication network for facilitating handover of a user equipment, UE, from access via a cellular telecommunication access path to access via a wireless local area network, WLAN, access path, characterized in that the method comprising: providing internet protocol, IP, access to the UE via the cellular telecommunication access path; receiving a request indicating the handover of the UE from the cellular telecommunication access path to the WLAN access path; switching IP access path of the UE, from the cellular telecommunication access path to the WLAN access path, after a delay provided by a first timer, wherein the first timer has a timer value to allow the UE to receive data over the cellular telecommunication access path while a WLAN access interface of the UE is not configured, and wherein the WLAN access interface of the UE is configured with an IP address via Dynamic Host Configuration Protocol, DHCP; and sending instructions, for releasing communication resources for the cellular telecommunication access path, after a delay provided by a second timer, wherein the second timer has a timer value to ensure that the release of the communication resources for the cellular communication access path occurs after the WLAN access interface is configured in the UE, wherein the handover is triggered by a handover indicator included in an authentication request from the UE, or included in a PDN connection setup request from the UE, and wherein the timer value of the first timer is smaller than the timer value of the second timer. providing internet protocol, IP, access to the UE via the cellular telecommunication access path; receiving a request indicating the handover of the UE from the cellular telecommunication access path to the WLAN access path; switching IP access path of the UE, from the cellular telecommunication access path to the WLAN access path, after a delay provided by a first timer, wherein the first timer has a timer value to allow the UE to receive data over the cellular telecommunication access path while a WLAN access interface of the UE is not configured, and wherein the WLAN access interface of the UE is configured with an IP address via Dynamic Host Configuration Protocol, DHCP; and sending instructions, for releasing communication resources for the cellular telecommunication access path, after a delay provided by a second timer, wherein the second timer has a timer value to ensure that the release of the communication resources for the cellular communication access path occurs after the WLAN access interface is configured in the UE, wherein the handover is triggered by a handover indicator included in an authentication request from the UE, or included in a PDN connection setup request from the UE, and wherein the timer value of the first timer is smaller than the timer value of the second timer.
A turbine blade for a gas turbine engine, the turbine blade comprising an airfoil which comprises pressure and suction side walls joined to one another at leading and trailing edges and extending in a radial direction, a serpentine cooling passage provided between the pressure and suction side walls, a passageway adjoining a passage wall and fluidly interconnected to an upstream turn that has radially spaced apart innermost and outermost contours, the innermost contour provided at the wall, and a resupply hole configured to exit downstream from the innermost contour, wherein the serpentine cooling passage includes first, second and third passageways, the first and second passageways separated by a first wall and fluidly interconnected to one another by a first turn, the second and third passageways separated by a second wall and fluidly interconnected to one another by a second turn, the passageway corresponding to the third passageway, the passage wall corresponding to the second wall, the upstream turn corresponding to the second turn, and the turbine blade comprises a root including an inlet passage (110a, 110b), wherein the inlet passage (110a, 110b) is fluidly interconnected to the first passageway, characterised in that: the resupply hole fluidly interconnects the inlet passage (110a, 110b) to the third passageway.
A protecting assembly for protecting an outputting electrode piece of a battery module, comprising a base and an upper cover; the base being capable of being fixed to an end plate of the battery module, the upper cover and the base being capable of being connected with each other to form a receiving cavity that is capable of receiving the outputting electrode piece of the battery module; the base comprising a basic body and a first side plate, the first side plate extending upwardly from an end of the basic body in a transverse direction; the upper cover comprising a top wall, a first side wall, two second side walls, the first side wall extending downwardly from an end of the top wall in the transverse direction, the two second side walls extending downwardly from two ends of the top wall in the longitudinal direction respectively; characterized in that two ends of the basic body in a longitudinal direction being provided with first grooves; the upper cover further comprises a limiting wall extending downwardly from a lower end of each of the two second side walls and being inclined toward a direction away from the first side wall; the limiting walls being capable of being inserted into the first grooves, the first side wall being capable of latching with the first side plate. the base being capable of being fixed to an end plate of the battery module, the upper cover and the base being capable of being connected with each other to form a receiving cavity that is capable of receiving the outputting electrode piece of the battery module; the base comprising a basic body and a first side plate, the first side plate extending upwardly from an end of the basic body in a transverse direction; the upper cover comprising a top wall, a first side wall, two second side walls, the first side wall extending downwardly from an end of the top wall in the transverse direction, the two second side walls extending downwardly from two ends of the top wall in the longitudinal direction respectively; characterized in that two ends of the basic body in a longitudinal direction being provided with first grooves; the upper cover further comprises a limiting wall extending downwardly from a lower end of each of the two second side walls and being inclined toward a direction away from the first side wall; the limiting walls being capable of being inserted into the first grooves, the first side wall being capable of latching with the first side plate.
A modular vacuum coater having at least one module comprising at least one coat zone with at least one source bay for a target material and at least one pumping zone with pumping means, characterized in that the pumping zone comprises at least one source bay for a target material so as to use this pumping zone as an additional coat zone, and in that at least one turbo-molecular pump is connected to the pumping zone.
A method comprising: determining a first pilot channel transmission power level for a first uplink carrier; determining a second pilot channel transmission power level for a second uplink carrier; and prioritizing, with a carrier management unit, the first and second uplink carriers based at least in part upon the first and second pilot channel transmission power levels, characterized in that the prioritizing the first and second uplink carriers comprises assigning a higher priority to the one of the first and second uplink carriers having a lower pilot channel transmission power level than the other uplink carrier. determining a first pilot channel transmission power level for a first uplink carrier; determining a second pilot channel transmission power level for a second uplink carrier; and prioritizing, with a carrier management unit, the first and second uplink carriers based at least in part upon the first and second pilot channel transmission power levels, characterized in that the prioritizing the first and second uplink carriers comprises assigning a higher priority to the one of the first and second uplink carriers having a lower pilot channel transmission power level than the other uplink carrier.
A bookbinding apparatus for bonding a cover sheet to an end portion of a bundle (Sa) of sheets and for producing a booklet (Sb) by wrapping the bundle of sheets with the cover sheet, the bookbinding apparatus comprising: a notch forming mechanism for forming notches, before each sheet is formed into the bundle of sheets, on an end side of the each sheet to be coated with adhesive, wherein the notch forming mechanism comprises knife-like blades which are raiseable and lowerable, a platelike receiving member fixed on a sheet conveyance path and configured to receive the knife-like blades, and a driving mechanism for raising and lowering the knife-like blades, wherein the notch forming mechanism is configured to form linear cuts (V') in each sheet on which an image is formed, wherein the linear cuts (V') are slits which are formed by the knife-like blades without generating paper scrap. a notch forming mechanism for forming notches, before each sheet is formed into the bundle of sheets, on an end side of the each sheet to be coated with adhesive, wherein the notch forming mechanism comprises knife-like blades which are raiseable and lowerable, a platelike receiving member fixed on a sheet conveyance path and configured to receive the knife-like blades, and a driving mechanism for raising and lowering the knife-like blades, wherein the notch forming mechanism is configured to form linear cuts (V') in each sheet on which an image is formed, wherein the linear cuts (V') are slits which are formed by the knife-like blades without generating paper scrap.
A photochemical reaction device, comprising: - a light source device as a photoirradiation device having a light emitting diode group with a plurality of light-emitting bodies (2, 116) on each of which a large number of light emitting diodes are mounted, their entirety being covered with a cylindrical light transmitting container, and - a power supply device (11, 21) to which the light source device (1, 117) is connected, wherein said power supply device (11, 21) comprises - a control circuit (7; 13; 23; 100) disposed at a central portion of the light source device (1, 117) for controlling a current from a power supply source supplied to the plurality of light emitting bodies (2, 116); - a cooling means provided on the back side of the light-emitting bodies and being capable of cooling surroundings by channeling a refrigerant; - a heat transfer means connecting said cooling means and said control circuit (7; 13; 23; 100) to each other; and - an insulating means comprising a sheet-like member and being interposed between said heat transfer means and said control circuit (7; 13; 23; 100) and in contact with both, and wherein said power supply device (11, 21) is configured such that heat generated from said control circuit (7; 13; 23; 100) is transferred to said heat transfer means through said insulating means and dissipated to said cooling means through said heat transfer means. - a light source device as a photoirradiation device having a light emitting diode group with a plurality of light-emitting bodies (2, 116) on each of which a large number of light emitting diodes are mounted, their entirety being covered with a cylindrical light transmitting container, and - a power supply device (11, 21) to which the light source device (1, 117) is connected, wherein said power supply device (11, 21) comprises - a control circuit (7; 13; 23; 100) disposed at a central portion of the light source device (1, 117) for controlling a current from a power supply source supplied to the plurality of light emitting bodies (2, 116); - a cooling means provided on the back side of the light-emitting bodies and being capable of cooling surroundings by channeling a refrigerant; - a heat transfer means connecting said cooling means and said control circuit (7; 13; 23; 100) to each other; and - an insulating means comprising a sheet-like member and being interposed between said heat transfer means and said control circuit (7; 13; 23; 100) and in contact with both, and