mhurhangee/ep-ind-claims huggingface dataset:
On-Board Charger, OBC, for electric or hybrid cars, comprising: - at least one external container; - at least one electronic power circuit housed inside said at least one external container and configured for conversion of an input current/voltage into a predefined output current/voltage; - at least one liquid cooling circuit made at a portion of said at least one external container for cooling said at least one electronic power circuit; - wherein said at least one external container comprises a housing body of said at least one electronic power circuit made of a polymeric material and comprising at least one portion provided with said at least one liquid cooling circuit; characterized in that said at least one external container further comprises: - at least one shielding metal sheet extending over the entire outer surface of said housing body for shielding electromagnetic waves generated by said at least one electronic power circuit; - at least one metal closure cover of said housing body; - at least one heat dissipation metal jig, provided with at least one housing seat for said at least one electronic power circuit and associated with at least one inner portion of said housing body, said at least one liquid cooling circuit being composed of at least one inter-space defined between said inner portion of the housing body and said at least one heat dissipation metal jig. - at least one external container; - at least one electronic power circuit housed inside said at least one external container and configured for conversion of an input current/voltage into a predefined output current/voltage; - at least one liquid cooling circuit made at a portion of said at least one external container for cooling said at least one electronic power circuit; - wherein said at least one external container comprises a housing body of said at least one electronic power circuit made of a polymeric material and comprising at least one portion provided with said at least one liquid cooling circuit; - at least one shielding metal sheet extending over the entire outer surface of said housing body for shielding electromagnetic waves generated by said at least one electronic power circuit; - at least one metal closure cover of said housing body; - at least one heat dissipation metal jig, provided with at least one housing seat for said at least one electronic power circuit and associated with at least one inner portion of said housing body, said at least one liquid cooling circuit being composed of at least one inter-space defined between said inner portion of the housing body and said at least one heat dissipation metal jig.
An HF filter arrangement having at least two cavity resonators (2, 3) which are coupled to one another via a common cavity resonator wall or via cavity resonator walls which are in each case electrically connected to one another, wherein a coupling window is integrated in the common cavity resonator wall or in the cavity resonator walls which are electrically connected to one another, which coupling window is completely enclosed by an electrically conductive material and has integrated therein a coupling means with variably adjustable capacitance, characterized in that the coupling means comprises an electrically conductive rod element having a rod axis and two rod element ends (10, 11), which rod element is connected on both sides via the two rod element ends (10, 11) in an electrically conductive manner to the electrically conductive material that encloses the coupling window, and that at least two finger elements (12, 13), which are electrically connected to one another and are made of electrically conductive material, are electrically insulated with respect to the rod element and are fastened to the rod element in such a manner that the finger elements (12, 13) are rotatably mounted around a rotation axis that coincides with the rod axis.
A plate heat exchanger for treatment of a feed, the plate heat exchanger including a plate package comprising a plurality of heat exchanging plates arranged in a successive order forming first plate interspaces and second plate interspaces in an alternating order in the plate package, each first plate interspace defines an evaporation section for evaporating the feed, the evaporation section extends in a longitudinal direction between an upper border fluidly connecting the evaporation section to a first separation section and a lower border at which opposing heat exchanging plates are sealed together, the evaporation section further extends in a transversal direction between a first side border and a second side border at which side borders opposing heat exchanging plates are sealed together, the evaporation section defines: a feed inlet located adjacent the lower border for introducing the feed in liquid form into the evaporation section, a heat exchanging zone adjacent the upper border, the heat exchanging zone being formed by ridges and valleys in the opposing heat exchanging plates which are arranged such that opposing ridges of the opposing heat exchanging plates abut each other, a passage located between the lower border and the heat exchanging zone and extending from the feed inlet in the transversal direction for receiving the feed from the feed inlet and allowing a uniform distribution of the feed over the heat exchanging zone, and characterised by a transition zone separating the heat exchanging zone and the passage, the maximum distance between opposing heat exchanging plates in the transition zone being smaller than the maximum distance between opposing heat exchanging plates in the passage and in the heat exchanging zone. a feed inlet located adjacent the lower border for introducing the feed in liquid form into the evaporation section, a heat exchanging zone adjacent the upper border, the heat exchanging zone being formed by ridges and valleys in the opposing heat exchanging plates which are arranged such that opposing ridges of the opposing heat exchanging plates abut each other, a passage located between the lower border and the heat exchanging zone and extending from the feed inlet in the transversal direction for receiving the feed from the feed inlet and allowing a uniform distribution of the feed over the heat exchanging zone, and characterised by a transition zone separating the heat exchanging zone and the passage, the maximum distance between opposing heat exchanging plates in the transition zone being smaller than the maximum distance between opposing heat exchanging plates in the passage and in the heat exchanging zone.
A submersible pump with a pump casing which can be dipped into a liquid which is to be pumped out, and has a suction inlet and a pressure outlet, wherein the liquid can be drawn into the pump casing via the suction inlet and can be discharged under pressure via the pressure outlet, and with a control unit which is coupled with a sensor unit arranged on the outside of the casing for switching on and off the submersible pump dependent on the liquid level of the liquid surrounding the pump, characterised in that the sensor unit is configured as a structural unit held vertically adjustably on the pump casing with a sensor housing, in which two electrodes (62, 63) which can be wetted with liquid are arranged spaced apart from each other.
A composition of polyether polyol resins (hydroxyfunctional oligo or poly ether) obtained by the reaction of at least one polyol having at least three hydroxyl groups and a mixture of the α,α-branched alkane carboxylic glycidyl esters which are derived from butene oligomers characterized in that the sum of the concentration of the blocked (with a secondary or a tertiary carbon atoms in the β position) and of the highly branched isomers (having at least 5 methyl groups) is maximum 55%, preferably below 40%, and most preferably below 30% weight on total composition, the % weight is measured by gas chromatography using the method described in the present specification.
An operation method of a base station, the operation method comprising: transmitting, to a user equipment, UE, downlink control information, DCI, including scheduling information of a data channel in a search space; determining a first subcarrier for mapping a demodulation reference signal, DMRS, of the data channel depending on a type of the search space in which the DCI is transmitted; mapping the DMRS of the data channel to resource elements, REs, which are determined based on the first subcarrier; and transmitting, to the UE, the data channel including the DMRS mapped to the REs based on the scheduling information included in the DCI, wherein the first subcarrier is determined as a lowest-numbered subcarrier in a lowest-numbered resource block, RB, of a common RB grid when the type of the search space is a UE-specific search space, USS. transmitting, to a user equipment, UE, downlink control information, DCI, including scheduling information of a data channel in a search space; determining a first subcarrier for mapping a demodulation reference signal, DMRS, of the data channel depending on a type of the search space in which the DCI is transmitted; mapping the DMRS of the data channel to resource elements, REs, which are determined based on the first subcarrier; and transmitting, to the UE, the data channel including the DMRS mapped to the REs based on the scheduling information included in the DCI, wherein the first subcarrier is determined as a lowest-numbered subcarrier in a lowest-numbered resource block, RB, of a common RB grid when the type of the search space is a UE-specific search space, USS.
A method of storing and retrieving digital data in polynucleotides: encoding digital data in a payload sequence; associating the payload sequence with a unique primer; enzymatically synthesizing a polynucleotide (112; 202) having a sequence that includes a unique primer binding site that hybridizes with the unique primer, the payload sequence, and a homopolymer primer binding site; contacting the polynucleotide (112; 206) with the unique primer, a homopolymer primer that hybridizes to the homopolymer primer binding site, and a polymerase chain reaction reaction mixture; selectively amplifying, by PCR, the polynucleotide; sequencing the polynucleotide to generate sequence data; and decoding the sequence data to retrieve the digital data. encoding digital data in a payload sequence; associating the payload sequence with a unique primer; enzymatically synthesizing a polynucleotide (112; 202) having a sequence that includes a unique primer binding site that hybridizes with the unique primer, the payload sequence, and a homopolymer primer binding site; contacting the polynucleotide (112; 206) with the unique primer, a homopolymer primer that hybridizes to the homopolymer primer binding site, and a polymerase chain reaction reaction mixture; selectively amplifying, by PCR, the polynucleotide; sequencing the polynucleotide to generate sequence data; and decoding the sequence data to retrieve the digital data.
A flash separator (500; 500a, 500b) for the treatment of a fluid mixture containing liquefied methane and carbon dioxide, comprising a reservoir (501; 501a, 501b) having an inner chamber, at least one mixture inlet for the introduction of a mixture to be treated into said inner chamber, and at least one liquid phase outlet for the extraction of a separate liquid phase from said inner chamber, wherein the reservoir (501; 501a, 501b) comprises a first partition at least partially dividing said inner chamber into two regions (A, B) which are laterally adjacent to each other when observing the reservoir (501; 501a, 501b) in an operative position, wherein the mixture inlet is located in a first region of said two regions (A, B) and the liquid phase outlet is located in a second region of said two regions (A, B), and wherein said two regions (A, B) are in fluid communication with each other by means of a plurality of openings obtained in said first partition, characterized in that the openings in the first partition are located in a lower area thereof, when observing the reservoir (501; 501a, 501b) in an operative position thereof.
A method for use in a virtual host server for providing a virtual mobile phone interface, the method comprising: collecting, via the virtual host server, user phone data and phone interface information from a virtual mobile phone application running on a mobile phone device; receiving, at an authentication and control module, an access request associated with the mobile phone device from a user operating a client device; determining, by the authentication and control module, a level of access requested by the user in the access request; activating, by the virtual host server, a mobile phone emulator on a browser interface associated with the client device based on the level of access requested and phone interface information, wherein the activated mobile phone emulator uses the phone interface information to replicate, for providing the functionality of the mobile phone device, an interface of an operating system as provided on the mobile phone device when the phone interface information was collected; and wherein: in response to the user requesting a first level of access, the virtual host server disables the mobile phone device; and in response to the user requesting a second level of access, the virtual host server retrieves only the user phone data when activating the mobile phone emulator. collecting, via the virtual host server, user phone data and phone interface information from a virtual mobile phone application running on a mobile phone device; receiving, at an authentication and control module, an access request associated with the mobile phone device from a user operating a client device; determining, by the authentication and control module, a level of access requested by the user in the access request; activating, by the virtual host server, a mobile phone emulator on a browser interface associated with the client device based on the level of access requested and phone interface information, wherein the activated mobile phone emulator uses the phone interface information to replicate, for providing the functionality of the mobile phone device, an interface of an operating system as provided on the mobile phone device when the phone interface information was collected; and wherein: in response to the user requesting a first level of access, the virtual host server disables the mobile phone device; and in response to the user requesting a second level of access, the virtual host server retrieves only the user phone data when activating the mobile phone emulator. in response to the user requesting a first level of access, the virtual host server disables the mobile phone device; and in response to the user requesting a second level of access, the virtual host server retrieves only the user phone data when activating the mobile phone emulator.
A slide valve assembly for use in a compressor, the assembly comprising: a slide valve carriage, a volume slide valve mechanism that is slidably movable to control compressor volume ratio and power input to the compressor, and a capacity slide valve mechanism that is slidably movable to control compressor capacity, wherein the volume slide valve mechanism as well as the capacity slide valve mechanism are each slidably secured to the slide valve carriage, characterized in that the volume slide valve mechanism includes a first surface having a volume low pressure groove or channel, a second surface having a volume high pressure groove or channel, and a third surface having a volume low pressure groove or channel, the capacity slide valve mechanism includes a first surface, a second surface having a pair of capacity high pressure grooves or channels (88a; 88b), and a third surface having a capacity high pressure groove or channel and a capacity low pressure groove or channel, and the grooves or channels (86; 90; 92; 88a; 88b; 84; 82) of the volume slide valve mechanism and the capacity slide valve mechanism counter pressure and provide lubrication including an oil and gas mixture to ensure movement of and between the volume and capacity slide valve mechanisms (16; 14). a slide valve carriage, a volume slide valve mechanism that is slidably movable to control compressor volume ratio and power input to the compressor, and a capacity slide valve mechanism that is slidably movable to control compressor capacity, wherein the volume slide valve mechanism as well as the capacity slide valve mechanism are each slidably secured to the slide valve carriage, the volume slide valve mechanism includes a first surface having a volume low pressure groove or channel, a second surface having a volume high pressure groove or channel, and a third surface having a volume low pressure groove or channel, the capacity slide valve mechanism includes a first surface, a second surface having a pair of capacity high pressure grooves or channels (88a; 88b), and a third surface having a capacity high pressure groove or channel and a capacity low pressure groove or channel, and the grooves or channels (86; 90; 92; 88a; 88b; 84; 82) of the volume slide valve mechanism and the capacity slide valve mechanism counter pressure and provide lubrication including an oil and gas mixture to ensure movement of and between the volume and capacity slide valve mechanisms (16; 14).
A method comprising: by an aggregation node (19, 52, 300) of a plurality of aggregation nodes of a network, executing a control plane protocol to discover neighboring ones of the aggregation nodes of the network; responsive to receiving flood messages and determining that the flood messages do not include a layer two address for the aggregation node, modifying the flood messages by updating an intermediate node list of each of the flood messages to include a layer two address of the aggregation node, wherein the intermediate node list of each of the flood messages specifies layer two addresses and interfaces for all nodes that the respective flood message traversed within the network; by the aggregation node, sending the modified flood messages to discovered local neighbor nodes toward a centralized controller network device (35, 54) to establish a Source Routed Tunnel, SRT, control channel between the aggregation node and the centralized controller network device; receiving, by the aggregation node, a message from the controller via the established SRT control channel, wherein the message specifies directed Forwarding Information Base, FIB, state pre-computed by the centralized controller network device for configuring a forwarding plane of the aggregation node; and responsive to receiving the message, and by the aggregation node, installing the directed FIB state received in the message, wherein the directed FIB state comprises one or more Multiprotocol Label Switching, MPLS, labels for the aggregation node to use for sending packets on an Label Switched Path, LSP. by an aggregation node (19, 52, 300) of a plurality of aggregation nodes of a network, executing a control plane protocol to discover neighboring ones of the aggregation nodes of the network; responsive to receiving flood messages and determining that the flood messages do not include a layer two address for the aggregation node, modifying the flood messages by updating an intermediate node list of each of the flood messages to include a layer two address of the aggregation node, wherein the intermediate node list of each of the flood messages specifies layer two addresses and interfaces for all nodes that the respective flood message traversed within the network; by the aggregation node, sending the modified flood messages to discovered local neighbor nodes toward a centralized controller network device (35, 54) to establish a Source Routed Tunnel, SRT, control channel between the aggregation node and the centralized controller network device; receiving, by the aggregation node, a message from the controller via the established SRT control channel, wherein the message specifies directed Forwarding Information Base, FIB, state pre-computed by the centralized controller network device for configuring a forwarding plane of the aggregation node; and responsive to receiving the message, and by the aggregation node, installing the directed FIB state received in the message, wherein the directed FIB state comprises one or more Multiprotocol Label Switching, MPLS, labels for the aggregation node to use for sending packets on an Label Switched Path, LSP.
An eductor suitable for use in an assembly for preparing a liquid product, said eductor comprising a housing having a substantially cylindrical wall with a longitudinal axis extending from one end of the cylindrical wall to the other end of the cylindrical wall opposite the one end, said housing having a first liquid inlet at said one end of the cylindrical wall for supplying a first liquid to the eductor in a direction at least substantially parallel to the longitudinal axis, said housing comprising a second liquid inlet at said other end of the cylindrical wall for supplying a second liquid to the eductor in a direction having a component perpendicular to the longitudinal axis, said housing comprising a liquid product outlet for discharging a liquid product from the eductor in a direction at least substantially parallel to the longitudinal axis, said second liquid inlet of the eductor seen in longitudinal direction being positioned between the first liquid inlet and the liquid product outlet, said eductor further comprising an injector valve positioned within the cylindrical wall, said injector valve comprising an outer surface partly contacting an inner surface of the cylindrical wall and a central, longitudinal channel for supplying the first liquid from the first liquid inlet to the liquid product outlet, said injector valve further being displaceably arranged within the cylindrical wall from first position to a second position longitudinally spaced from the first position, and vice versa, characterized in that the injector valve on its outer surface comprises two annular protrusions (16, 17) which are spaced from each other by a distance that at least equals the distance between the first position and the second position of the injector valve, each of the annular protrusions (16, 17) engaging the inner surface of the cylindrical wall for forming a seal therewith, said annular protrusions (16, 17) together with the inner surface of the cylindrical wall forming an annular chamber, said protrusions being arranged for isolating the annular chamber from fluid communication with any environment outside the annular protrusions (16, 17) when said injector valve is positioned in the first position or the second position or any position in between and/or wherein the inner surface of the cylindrical wall comprises two annular protrusions (16, 17) which are spaced from each other by a distance that at least equals the distance between the first position and the second position of the injector valve, each of the annular protrusions (16, 17) engaging the outer surface of the injector valve for forming a seal therewith, said annular protrusions (16, 17) together with the outer surface of the injector valve forming an annular chamber, said protrusions being arranged for isolating the annular chamber from fluid communication with any environment outside the annular protrusions (16, 17) when said injector valve is positioned in the first position or the second position or any position in between.