mhurhangee/ep-ind-claims huggingface dataset:
A sealing arrangement, comprising a shaft as well as a sealing element with a ring-shaped basic body, wherein a surface contour of an interior surface (41, 42) of the basic body is complementary to a surface contour of an exterior surface (11, 12) of the shaft, such that the interior surface (41, 42) of the basic body, over the entire circumference of the shaft, may be brought into contact with the exterior surface (11, 12) of the shaft in order to generate a sealing connection between the sealing element and the shaft, wherein at least one projection of the sealing element engages in a recess of the shaft and/or at least one projection of the shaft engages in a recess of the shaft, characterized in that the basic body of the sealing element includes a core element, which is completely surrounded by an enveloping element, wherein a modulus of elasticity of the core element has a value of between 20 times and 200 times of the modulus of elasticity of the enveloping element.
Al-Cu-Mg-Li alloy with 3.7 - 3.9 % by weight Cu, 0.9 - 1.3 % by weight Li, 0.30 - 0.45 % by weight Mg, 0.10 - < 0.2 by weight Mn, 0.2 - 0.45 % by weight Ag, 0.09 - 0.13 % by weight Zr max. 0.07 % by weight Ti, wherein the Ti is present as TiB 2 or TiC, remainder Al, together with unavoidable impurities. 3.7 - 3.9 % by weight Cu, 0.9 - 1.3 % by weight Li, 0.30 - 0.45 % by weight Mg, 0.10 - < 0.2 by weight Mn, 0.2 - 0.45 % by weight Ag, 0.09 - 0.13 % by weight Zr max. 0.07 % by weight Ti, wherein the Ti is present as TiB 2 or TiC,
A high-voltage transformer (100, 600) comprising: a transformer core (115, 210, 620, 620-A, 620-B, 620-C, 620-D, 710, 711, 712, 713); at least one primary winding (225, 325, 615) wound once or less than once around the transformer core; a secondary winding (220, 415, 420, 625) wound around the transformer core a plurality of times; an input electrically coupled with the primary windings; and an output electrically coupled with the secondary windings, which is adapted to provide a voltage greater than 1200 volts wherein the secondary winding comprises at least a first group of windings wound around the transformer core at a first location and a second group of windings wound around the transformer core at a second location that is separate from the first location, the windings all are electrically serially coupled together, wherein the distance in a direction along the core between the first location and the second location is substantially larger than the distance in a direction along the core between respective windings in both the first group of windings and the second group of windings. a transformer core (115, 210, 620, 620-A, 620-B, 620-C, 620-D, 710, 711, 712, 713); at least one primary winding (225, 325, 615) wound once or less than once around the transformer core; a secondary winding (220, 415, 420, 625) wound around the transformer core a plurality of times; an input electrically coupled with the primary windings; and an output electrically coupled with the secondary windings, which is adapted to provide a voltage greater than 1200 volts wherein the secondary winding comprises at least a first group of windings wound around the transformer core at a first location and a second group of windings wound around the transformer core at a second location that is separate from the first location, the windings all are electrically serially coupled together, wherein the distance in a direction along the core between the first location and the second location is substantially larger than the distance in a direction along the core between respective windings in both the first group of windings and the second group of windings.
Use of an apparatus for the layer-by-layer production of three-dimensional objects from polymer powders, at least comprising a laser and a control unit which adjusts the laser to a duty factor of more than 60%, characterized in that the laser is controlled by means of pulse width modulation, where the switching frequency is at least 5 kHz.
Ground working system consisting of at least one self-propelled ground working implement (1.1, 1.2), wherein the ground working implement (1.1, 1.2) has a drive and a control unit, and having a working area bounded by a wire, wherein the ground working implement (1.1, 1.2) is designed to travel a route determined by the control unit in the working area, and having a base station with a transmitting unit electrically connected to the wire and configured to transmit a wire signal on the wire, wherein the electromagnetic field of the wire signal induces a receive signal in a receiver coil (6, 7) of the ground working implement (1.1, 1.2) and the control unit is configured to process the induced receive signal in the control unit, characterised in that the base station has a receiver unit and the receiver unit of the base station is configured to electrically receive the wire signal transmitted on the wire and to transfer it to a signal processing device, wherein the signal processing device is designed to compare the received wire signal to a predefined set signal and to change the transmitted wire signal if the electrically received wire signal deviates from the predefined set signal, wherein the receiver unit of the base station, the signal processing device of the base station and the transmitting unit of the base station form a control circuit together with the wire, which is connected to the base station in the form of a closed wire loop.
A method of receiving data by a user equipment from a network in a wireless communication system, the method comprising: receiving a paging message; based on the paging message including downlink data for the user equipment, transmitting a radio resource control, RRC, connection request message including acknowledgement information informing an acknowledgement of the downlink data; and receiving an RRC connection reject message including information informing that the acknowledgement information is confirmed by the network, based on receiving the RRC connection reject message, terminating an RRC connection establishment procedure started by transmission of the RRC connection request message. receiving a paging message; based on the paging message including downlink data for the user equipment, transmitting a radio resource control, RRC, connection request message including acknowledgement information informing an acknowledgement of the downlink data; and receiving an RRC connection reject message including information informing that the acknowledgement information is confirmed by the network, based on receiving the RRC connection reject message, terminating an RRC connection establishment procedure started by transmission of the RRC connection request message.
A device comprised by a user terminal provided with a removable storage medium configured to store therein subscriber information, the device comprising: a controller configured to control a cell reselection in an idle mode, wherein the removable storage medium is configured to store therein a preconfigured frequency as a frequency available for a D2D proximity service, and in case that the user terminal in the idle mode determines to start the D2D proximity service, the controller is configured to set the preconfigured frequency as a frequency of a highest priority in the cell reselection, and use the preconfigured frequency to perform the D2D proximity service, even in case that an appropriate cell belonging to the preconfigured frequency is not discovered in the cell reselection. a controller configured to control a cell reselection in an idle mode, wherein the removable storage medium is configured to store therein a preconfigured frequency as a frequency available for a D2D proximity service, and in case that the user terminal in the idle mode determines to start the D2D proximity service, the controller is configured to set the preconfigured frequency as a frequency of a highest priority in the cell reselection, and use the preconfigured frequency to perform the D2D proximity service, even in case that an appropriate cell belonging to the preconfigured frequency is not discovered in the cell reselection. set the preconfigured frequency as a frequency of a highest priority in the cell reselection, and use the preconfigured frequency to perform the D2D proximity service, even in case that an appropriate cell belonging to the preconfigured frequency is not discovered in the cell reselection.
A method comprising: obtaining, at an elimination point device in a network, a master secret from a network controller; assessing, by the elimination point device and using the master secret, whether an incoming packet received by the elimination point device from a redundant path between the elimination point device and a replication point device in the network includes a valid message integrity check, MIC, wherein the incoming packet is a 1+1 packet redundancy; determining, by the elimination point device, whether the incoming packet was injected maliciously into the redundant path, based on the assessment of the incoming packet; and initiating, by the elimination point device, performance of a mitigation action in the network, when the elimination point device determines that the incoming packet was injected maliciously into the redundant path. obtaining, at an elimination point device in a network, a master secret from a network controller; assessing, by the elimination point device and using the master secret, whether an incoming packet received by the elimination point device from a redundant path between the elimination point device and a replication point device in the network includes a valid message integrity check, MIC, wherein the incoming packet is a 1+1 packet redundancy; determining, by the elimination point device, whether the incoming packet was injected maliciously into the redundant path, based on the assessment of the incoming packet; and initiating, by the elimination point device, performance of a mitigation action in the network, when the elimination point device determines that the incoming packet was injected maliciously into the redundant path.
An electronic apparatus case (1, 101, 102, 201, 301, 401, 501, 601) provided with a ventilation portion on one surface of the case, wherein the ventilation portion includes: an outer wall portion provided with a ventilation port; an inner wall portion provided with a ventilation port formed in a staggered manner with respect to the ventilation port of the outer wall portion; a discharge port provided between the outer wall portion and the inner wall portion; and a filter member for reducing an entry speed of a foreign substance, wherein the filter member is opposite to the ventilation port of the inner wall portion and/or the ventilation port of the outer wall portion, wherein the ventilation port (12, 24) of the inner wall portion is formed in a staggered manner with respect to the ventilation port of the outer wall portion in a longitudinal direction of the outer wall portion. an outer wall portion provided with a ventilation port; an inner wall portion provided with a ventilation port formed in a staggered manner with respect to the ventilation port of the outer wall portion; a discharge port provided between the outer wall portion and the inner wall portion; and a filter member for reducing an entry speed of a foreign substance, wherein the filter member is opposite to the ventilation port of the inner wall portion and/or the ventilation port of the outer wall portion, wherein the ventilation port (12, 24) of the inner wall portion is formed in a staggered manner with respect to the ventilation port of the outer wall portion in a longitudinal direction of the outer wall portion.
A composition comprising 90-99.9% (w/w) elemental alpha sulfur and 0.01-10% (w/w) highly polar components, and optionally comprising one or more pharmaceutically acceptable excipients, wherein said highly polar components are selected from the group consisting of sodium polythionate, potassium polythionate, ammonium polythionate, calcium polythionate, polythionic acids, sodium thiosulfate, potassium thiosulfate, ammonium thiosulfate, calcium thiosulfate, sodium sulfate, potassium sulfate, and ammonium sulfate, wherein the composition comprises at least 96% bioactive zerovalent sulfur that readily undergoes bioconversion into hydrogen sulfide.
An alkoxysilyl group-containing hydrogenated block copolymer obtainable by introducing an alkoxysilyl group into a hydrogenated block copolymer that is obtained by hydrogenating 90% or more of the carbon-carbon unsaturated bonds of the main chain, the side chain, and the aromatic ring of a block copolymer that comprises at least two polymer blocks and at least one polymer block, the polymer block including a repeating unit derived from an aromatic vinyl compound as a main component, the polymer block including a repeating unit derived from a linear conjugated diene compound as a main component, and a ratio (wA:wB) of a weight fraction wA of the polymer block in the block copolymer to a weight fraction wB of the polymer block in the block copolymer being 20:80 to 60:40.
A foreign object emulation device (60; 160; 260) for testing foreign object detection of a wireless power device (10; 20) having at least one wireless power coil (24; 14), wherein the foreign object emulation device (60; 160; 260) is in operative communication with a processing means (61; 42; 52), wherein the foreign object emulation device (60; 160; 260) comprises: a main body (68; 168; 268) being arranged with at least one emulated object (66; 166a-b; 266), a sensor unit comprising at least one temperature sensor configured to transmit temperature data to the processing means (61; 42; 52), wherein the temperature data is indicative of the temperature of the at least one emulated object (66; 166a-b; 266), and means for causing a controlled relative movement between the at least one emulated object (66; 166a, 166b) and the wireless power device (10; 20) being tested, wherein the means for causing controlled relative movement is in operative communication with a drive unit. a main body (68; 168; 268) being arranged with at least one emulated object (66; 166a-b; 266), a sensor unit comprising at least one temperature sensor configured to transmit temperature data to the processing means (61; 42; 52), wherein the temperature data is indicative of the temperature of the at least one emulated object (66; 166a-b; 266), and means for causing a controlled relative movement between the at least one emulated object (66; 166a, 166b) and the wireless power device (10; 20) being tested, wherein the means for causing controlled relative movement is in operative communication with a drive unit.
A method of producing a corresponding acetal compound which comprises reacting a benzal halide compound represented by formula (wherein, Q represents a hydrogen atom or a halogen atom, X represents a halogen atom, and Ar represents a phenyl group optionally substituted with at least one group selected from the group consisting of alkyl groups having 1 to 4 carbon atoms and halogen atoms.) and an alcohol compound in the presence of at least one alkaline earth metal compound selected from the group consisting of alkaline earth metal oxides, alkaline earth metal hydroxides and alkaline earth metal carbonates.
A user equipment comprising: at least one processor, and at least one memory storing instructions that, when executed by the at least one processor, cause the user equipment to: receive, over a third generation partnership project, 3GPP, access, a notifying message regarding a non-3GPP access, wherein the user equipment is registered to a communication network simultaneously via the 3GPP access and via the non-3GPP access, and wherein the user equipment is in a connection management idle state over the non-3GPP access. at least one processor, and at least one memory storing instructions that, when executed by the at least one processor, cause the user equipment to: receive, over a third generation partnership project, 3GPP, access, a notifying message regarding a non-3GPP access, wherein the user equipment is registered to a communication network simultaneously via the 3GPP access and via the non-3GPP access, and wherein the user equipment is in a connection management idle state over the non-3GPP access.
A method for an apparatus for a UE, user equipment, the method comprising: receiving a RRC, radio resource control, configuration, for identifying a RLC-Rx, radio link control receive, link source of packets; decoding, for storage in a memory of the apparatus, a first packet at a first RLC-Rx link; decoding, for storage in the memory, a second packet at a second RLC-Rx link; determining, in a PDCP, packet data convergence protocol, entity, a first sequence number, SN, and a first hyper frame number, HFN, of the first packet decoded at the first RLC-Rx link and a second SN and a second HFN of the second packet decoded at the second RLC-Rx link, wherein the first HFN comprises one or more first HFN bits and the second HFN comprises one or more second HFN bits; and removing, at the PDCP entity and in advance of delivery of the first and second packets to an upper layer, the second packet decoded at the second RLC-Rx link based at least in part on the second SN and at least one of one or more the second HFN bits being a duplicate of the first SN and at least one of the one or more first HFN bits; determining, at the PDCP entity or a RRC entity, that a RLC route is to be switched between the first RLC-Rx link and the second RLC-Rx link; notifying, using a PDCP-Tx, PDCP transmitter, that the RLC route has switched; and reestablishing, using the RRC entity of the UE, a RLC entity. receiving a RRC, radio resource control, configuration, for identifying a RLC-Rx, radio link control receive, link source of packets; decoding, for storage in a memory of the apparatus, a first packet at a first RLC-Rx link; decoding, for storage in the memory, a second packet at a second RLC-Rx link; determining, in a PDCP, packet data convergence protocol, entity, a first sequence number, SN, and a first hyper frame number, HFN, of the first packet decoded at the first RLC-Rx link and a second SN and a second HFN of the second packet decoded at the second RLC-Rx link, wherein the first HFN comprises one or more first HFN bits and the second HFN comprises one or more second HFN bits; and removing, at the PDCP entity and in advance of delivery of the first and second packets to an upper layer, the second packet decoded at the second RLC-Rx link based at least in part on the second SN and at least one of one or more the second HFN bits being a duplicate of the first SN and at least one of the one or more first HFN bits; determining, at the PDCP entity or a RRC entity, that a RLC route is to be switched between the first RLC-Rx link and the second RLC-Rx link; notifying, using a PDCP-Tx, PDCP transmitter, that the RLC route has switched; and reestablishing, using the RRC entity of the UE, a RLC entity.
High-security lock for a secure storage unit, comprising at least one mechanically functioning lock module and a control module equipped with a data receiving interface, wherein the lock module and the control module are designed and provided to be electronically and mechanically separated from one another and/or connected to one another according to the plug-and-play principle, wherein the lock module and the control module each comprise their own program memory (36; 46) having preinstalled subprograms (36a, 36b, 36c; 46a, 46b, 46c) which encode functions of the lock module and/or the control module, wherein the subprograms (46a, 46b, 46c) preinstalled in the program memory of the control module only encode the functions of the control module and the subprograms (36a, 36b, 36c) preinstalled in the program memory of the lock module only encode the functions of the lock module, wherein the data receiving interface is designed and provided to transmit a functionality code and, separately from that, a licence key to the control module and the lock module, wherein the lock module and the control module each comprise an evaluation unit (18a; 18b), and wherein the two evaluation units (18a; 18b) are designed and provided to compare a comparison licence key (38a; 38b) which can be generated by a licence algorithm with the licence key and evaluate the functionality code, and to transfer at least one confirmation data record (48a, 48b, 48c) to the program memory of the lock module in order to unlock or lock at least one subprogram (36a, 36b, 36c) of the lock module, and to the program memory of the control module in order to unlock or lock at least one subprogram (46a, 46b, 46c) of the control module, wherein the licence key is a data record which is generated from at least three further data records (12, 13, 14), wherein the further data records include a serial number of the control module, a serial number of the lock module and the functionality code, wherein the functionality code is dependent on the subprograms (36a, 36b, 36c; 46a, 46b, 46c) to be unlocked or locked in the program memories (36; 46).
A resource configuration method, comprising: configuring, by a base station, M channel quality measurement processes for a user equipment UE in N time units in a time unit set, wherein each channel quality measurement process is corresponding to one piece of reference signal configuration information, the reference signal configuration information is used by the UE to perform channel quality measurement based on a configured reference signal, the M channel quality measurement processes comprise L types of channel quality measurement processes, each type of channel quality measurement process comprises a maximum of N channel quality measurement processes, and L<=M<=L*N, characterized in that the time unit set is notified by the base station to the UE by using a control channel.
An emulsion of an aqueous phase in an lipid phase characterized in that: a. The aqueous phase is dispersed throughout the lipid phase in the form of droplets, the lipid in the lipid phase being crystalline; and in that b. The aqueous phase comprises from 5 to 60wt% of a sweetener based on the total weight of the emulsion; and in that c. The emulsion comprises an emulsifier; and in that d. Non-fatty cocoa solids and/or non-fatty milk solids are present in the lipid phase, and in that e. The emulsion comprises from 10 to 70wt% of aqueous phase, based on the total weight of the emulsion, and from 35 to 90wt% of lipid phase, based on the total weight of the emulsion, and has a temperature of 8°C or lower, preferably of 0°C or lower. a. The aqueous phase is dispersed throughout the lipid phase in the form of droplets, the lipid in the lipid phase being crystalline; and in that b. The aqueous phase comprises from 5 to 60wt% of a sweetener based on the total weight of the emulsion; and in that c. The emulsion comprises an emulsifier; and in that d. Non-fatty cocoa solids and/or non-fatty milk solids are present in the lipid phase, and in that e. The emulsion comprises from 10 to 70wt% of aqueous phase, based on the total weight of the emulsion, and from 35 to 90wt% of lipid phase, based on the total weight of the emulsion, and has a temperature of 8°C or lower, preferably of 0°C or lower.