mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communication method, comprising: receiving multiple data streams, each data stream representing data for a separate user equipment; generating information symbols by multiplexing the multiple data streams; modulating each of the information symbols onto one of a set of two dimensional, 2D, orthogonal basis functions that spans at least a portion of bandwidth and time duration of an orthogonal time frequency space, OTFS, frame, wherein the set of 2D orthogonal basis functions comprises OTFS basis functions along a delay dimension and a Doppler dimension; and further processing and transmitting a transmission burst using a universal filtered multi-carrier, UFMC, technique, wherein the modulating the information symbols includes placing each information symbol on a grid along the delay dimension and the Doppler dimension, wherein at least one pilot symbol on the grid is surrounded by a rectangle of unused grid points, and wherein the modulating includes giving different ones of the set of 2D orthogonal basis functions within the OTFS frame to each user equipment to achieve multiplexing of the multiple data streams. receiving multiple data streams, each data stream representing data for a separate user equipment; generating information symbols by multiplexing the multiple data streams; modulating each of the information symbols onto one of a set of two dimensional, 2D, orthogonal basis functions that spans at least a portion of bandwidth and time duration of an orthogonal time frequency space, OTFS, frame, wherein the set of 2D orthogonal basis functions comprises OTFS basis functions along a delay dimension and a Doppler dimension; and further processing and transmitting a transmission burst using a universal filtered multi-carrier, UFMC, technique, wherein the modulating the information symbols includes placing each information symbol on a grid along the delay dimension and the Doppler dimension, wherein at least one pilot symbol on the grid is surrounded by a rectangle of unused grid points, and wherein the modulating includes giving different ones of the set of 2D orthogonal basis functions within the OTFS frame to each user equipment to achieve multiplexing of the multiple data streams.
A base station for facilitating a handover of a user device from the base station when operating as a source base station component in a first communications network of a E-UTRAN type to a target base station component in a second communications network of a GERAN type, the base station comprising: means for receiving, from a user device, a Cell Global ID for a cell of a neighbour base station component in the second communications network , from which Cell Global ID information for forming a Location Area Identification 'LAI' can be obtained, and an identifier for use in identifying a gateway component operating within a location area represented by said Location Area Identification 'LAI' and connected with the neighbour base station component, the identifier comprising a Routing Area Code 'RAC' associated with the cell of the neighbour base station component in the second communications network ; means for generating a handover request message in the first communications network , for handing over to said neighbour base station component operating as said target base station component, the handover request message comprising the Cell Global ID incorporating said information for forming said LAI and the Routing Area Code 'RAC' associated with the cell in the second communications network ; and means for transmitting the handover request message to the second communications network . means for receiving, from a user device, a Cell Global ID for a cell of a neighbour base station component in the second communications network , from which Cell Global ID information for forming a Location Area Identification 'LAI' can be obtained, and an identifier for use in identifying a gateway component operating within a location area represented by said Location Area Identification 'LAI' and connected with the neighbour base station component, the identifier comprising a Routing Area Code 'RAC' associated with the cell of the neighbour base station component in the second communications network ; means for generating a handover request message in the first communications network , for handing over to said neighbour base station component operating as said target base station component, the handover request message comprising the Cell Global ID incorporating said information for forming said LAI and the Routing Area Code 'RAC' associated with the cell in the second communications network ; and means for transmitting the handover request message to the second communications network .
A method of transmitting an uplink, UL, signal by a user equipment , UE, in a wireless communication system, the method comprising: receiving , through a physical downlink control, PDCCH, signal, downlink control information, DCI, regarding a semi-persistent scheduling, SPS, physical uplink shared channel, PUSCH; and transmitting an SPS PUSCH signal based on the DCI, characterized in that , the UE is configured for simultaneous PUSCH and physical uplink control channel, PUCCH, transmission, the SPS PUSCH signal is a subslot-based SPS PUSCH signal, the DCI includes a specific field regarding an uplink demodulation reference signal, UL DMRS, for demodulation of the subslot-based SPS PUSCH signal, the specific field is set to either a first value or a second value, the first value indicating that the UL DMRS is not transmitted in at least one subslot among one or more subslots in which the subslot-based SPS PUSCH signal is transmitted, and the second value indicating that the UL DMRS is transmitted in all the one or more subslots in which the subslot-based SPS PUSCH signal is transmitted, and the UE determines whether to transmit uplink control information, UCI, in a specific subslot, through the subslot-based SPS PUSCH signal or through a PUCCH signal, based on whether the specific field is set to the first value or the second value. receiving , through a physical downlink control, PDCCH, signal, downlink control information, DCI, regarding a semi-persistent scheduling, SPS, physical uplink shared channel, PUSCH; and transmitting an SPS PUSCH signal based on the DCI, characterized in that , the UE is configured for simultaneous PUSCH and physical uplink control channel, PUCCH, transmission, the SPS PUSCH signal is a subslot-based SPS PUSCH signal, the DCI includes a specific field regarding an uplink demodulation reference signal, UL DMRS, for demodulation of the subslot-based SPS PUSCH signal, the specific field is set to either a first value or a second value, the first value indicating that the UL DMRS is not transmitted in at least one subslot among one or more subslots in which the subslot-based SPS PUSCH signal is transmitted, and the second value indicating that the UL DMRS is transmitted in all the one or more subslots in which the subslot-based SPS PUSCH signal is transmitted, and the UE determines whether to transmit uplink control information, UCI, in a specific subslot, through the subslot-based SPS PUSCH signal or through a PUCCH signal, based on whether the specific field is set to the first value or the second value.
A process for laundering textiles in a tunnel washer comprising two or more compartments, wherein the textiles are transported from compartment to compartment in a predetermined pace, water is transported through the tunnel washer in counter-current, and a halogen-free washing liquor is supplied to one or more compartments, wherein said washing liquor is partially or completely irradiated with UV radiation, characterized in that said washing liquor comprises hydrogen peroxide and/or peracid in a solvent, especially water.
A method for producing a green body (9a to 9c) for a nuclear fuel body, comprising the steps of: a) creating a 3D production control model for the green body (9a to 9c); b) providing a metal or a mixture of metals and/or a metalloid or mixtures thereof suited for the use in the nuclear fuel body in form of at least one aqueous solution (1a, 1b, ..., 1n), wherein, in case of at least two aqueous solutions (1a, 1b, ..., 1n) are used, said at least two aqueous solutions differ from each other in terms of composition and/or isotope concentration; c) providing a gelation agent in form of a gelation fluid ; d) mixing one of the at least one aqueous solutions (1a, 1b, ..., 1n) with the gelation fluid at a first temperature to form a feed solution mixture wherein the first temperature is chosen to suppress an internal gelation of the feed solution mixture prior to its ejection; e) ejecting the feed solution mixture by an inkjet printing process to the green body under construction; f) heating the ejected feed solution mixture on the green body under construction to a gelation temperature wherein the gelation temperature is chosen to fix the ejected feed solution mixture on the green body under construction; and g) repeating the steps e) and f) according to the 3D production control model until a desired form of the green body (9a to 9c) will have been achieved; and h) heating the green body to a third temperature under given atmosphere to achieve the formation of the nuclear fuel body and/or to partially or fully sinter the green body for the nuclear fuel body. a) creating a 3D production control model for the green body (9a to 9c); b) providing a metal or a mixture of metals and/or a metalloid or mixtures thereof suited for the use in the nuclear fuel body in form of at least one aqueous solution (1a, 1b, ..., 1n), wherein, in case of at least two aqueous solutions (1a, 1b, ..., 1n) are used, said at least two aqueous solutions differ from each other in terms of composition and/or isotope concentration; c) providing a gelation agent in form of a gelation fluid ; d) mixing one of the at least one aqueous solutions (1a, 1b, ..., 1n) with the gelation fluid at a first temperature to form a feed solution mixture wherein the first temperature is chosen to suppress an internal gelation of the feed solution mixture prior to its ejection; e) ejecting the feed solution mixture by an inkjet printing process to the green body under construction; f) heating the ejected feed solution mixture on the green body under construction to a gelation temperature wherein the gelation temperature is chosen to fix the ejected feed solution mixture on the green body under construction; and g) repeating the steps e) and f) according to the 3D production control model until a desired form of the green body (9a to 9c) will have been achieved; and h) heating the green body to a third temperature under given atmosphere to achieve the formation of the nuclear fuel body and/or to partially or fully sinter the green body for the nuclear fuel body.
A keyboard, comprising: a circuit board including a contact terminal; a key cap; a housing including at least one key cap hole configured to penetrate the key cap; an elastic support member configured to support the key cap for moving the key cap and to press the contact terminal while the key cap moves in a downward direction; a link configured to guide an elevation movement of the key cap by connecting a first end of the link to the bottom of the key cap; a rotational support plate configured to be connected to a second end of the link and to rotate on the center of the elastic support member; and a fixing support plate including a circular groove configured to internally accommodate the rotational support plate, wherein the key cap is configured to stop moving in the downward direction by the housing according to rotation of the rotational support plate. a circuit board including a contact terminal; a key cap; a housing including at least one key cap hole configured to penetrate the key cap; an elastic support member configured to support the key cap for moving the key cap and to press the contact terminal while the key cap moves in a downward direction; a link configured to guide an elevation movement of the key cap by connecting a first end of the link to the bottom of the key cap; a rotational support plate configured to be connected to a second end of the link and to rotate on the center of the elastic support member; and a fixing support plate including a circular groove configured to internally accommodate the rotational support plate, wherein the key cap is configured to stop moving in the downward direction by the housing according to rotation of the rotational support plate.
A plugged honeycomb structure for a diesel particulate filter, the plugged honeycomb structure having a plurality of cells functioning as fluid passages separated by porous partition walls and having plugging portions arranged in such a manner that each of adjacent cells is plugged in one fluid passage end portion of the honeycomb structure at the mutually opposite end from that at which the other of the adjacent cells is plugged; wherein the plugged honeycomb structure has a cutout portion in a part of one fluid passage end portion, and predetermined cells constituting the cutout portion are plugged in such a manner that each of adjacent cells of said predetermined cells is plugged in one said end portion at the mutually opposite end from that at which the other of the adjacent cells is plugged; wherein a plurality of honeycomb segments are integrally bonded by means of a bonding material layer ; the cutout portion is formed in units of honeycomb segments by making the length in an axial direction of at least one of the honeycomb segment shorter than that of the other honeycomb segments ; and the cutout portion is formed in a fluid inflow hole side end portion of the honeycomb structure, and the relation between (a) an average thickness Ts(in), on the fluid in flow hole side end face , of the bonding material layer bonding the short segment and a long segment being one of the other honeycomb segments together, and (b) an average thickness T (in), on the fluid inflow hole side end face, of the bonding material layer bonding the short segment with another short segment or bonding the long segment with another long segment is Ts in > T in .
A power machine comprising: a carrier comprising a supporting frame , an operator compartment and a joystick controller disposed in the operator compartment and configured to generate movement signals in response to operator movement of the joystick controller; an attachment detachably coupled to the power machine; a carrier control unit disposed on the carrier and configured to receive the movement signals from the joystick controller; an attachment control unit disposed on the attachment and configured to control movement of the attachment; a network coupling the carrier control unit to the attachment control unit and configured to carry instructions from the carrier control unit to the attachment control unit; characterized by the following features: a state selection input disposed in the operator compartment to select one of at least two operational states including a carrier state and an attachment state, the carrier control unit configured to control operation of the carrier in response to operator movement of the joystick controller while in the carrier state, and the attachment control unit configured to control operation of the attachment in response to operator movement of the joystick controller while in the attachment state. a carrier comprising a supporting frame , an operator compartment and a joystick controller disposed in the operator compartment and configured to generate movement signals in response to operator movement of the joystick controller; an attachment detachably coupled to the power machine; a carrier control unit disposed on the carrier and configured to receive the movement signals from the joystick controller; an attachment control unit disposed on the attachment and configured to control movement of the attachment; a network coupling the carrier control unit to the attachment control unit and configured to carry instructions from the carrier control unit to the attachment control unit;
Dishwasher (GS), in particular a household dishwasher, comprising at least one washing container (SPB) and at least one sorption drying system (TS) for drying items to be washed, wherein the sorption drying system (TS) comprises at least one sorption container (SB) comprising reversibly dehydratable sorption material (ZEO), said container being connected to the washing container (SPB) by means of at least one air-guiding channel (LK) for the generation of an air flow (LS1), characterised in that an amount by weight of sorption material (ZEO) of substantially between 0.2 and 5 kg is accommodated in the sorption container (SB) which is embodied to absorb an amount of water substantially between 150 and 400 ml.
Treatment machine, for washing, thermally disinfecting and/or sterilizing objects, comprising at least a treatment chamber configured to house at least a container , the treatment machine comprising at least a mobile attachment device , positioned outside said treatment chamber and provided with a plurality of attachment elements able to be selectively activated to associate said attachment device in releasable mode with at least an element or part of said container , so as to move said container , by means of said attachment device , at least in an extraction step from the treatment chamber , said object-holding container and said attachment device being housed on a slider , said attachment device comprising at least a sliding block provided with a frame rotatable around an axis of rotation (X) and integrated with said attachment elements , said attachment elements being able to be selectively activated or deactivated by means of at least an actuator element , configured to cooperate with said frame so as to allow its rotation, said rotation alternately allowing the activation or deactivation of said attachment elements , the treatment machine being characterized in that said actuator element is associated with at least a shaft provided with suitable drive means positioned at the end of said slider opposite the end which, during use, is situated in proximity to the treatment chamber .
A variable lubricant vane pump for providing pressurized lubricant, with a static pump housing defining a pump inlet and a pump outlet , a shiftable control ring comprising at least one slide support surface and a rotatable pump rotor comprising several rotor vanes rotating within the control ring , the control ring being shiftable with respect to the pump rotor to thereby vary the eccentricity of the control ring with respect to the pump rotor for controlling the volumetric pump performance, and the static pump housing comprising a static control ring housing body radially surrounding and supporting the shiftable control ring , and two static pump housing lids axially supporting the control ring housing body and the shiftable control ring , characterized in that at least the control ring housing body is made of plastic, wherein the plastic control ring housing body comprises at least one metal slide support pad being fixed to the plastic control ring housing body and supporting the control ring slide support surface thereby providing a friction bearing for the shiftable control ring. a static pump housing defining a pump inlet and a pump outlet , a shiftable control ring comprising at least one slide support surface and a rotatable pump rotor comprising several rotor vanes rotating within the control ring , the control ring being shiftable with respect to the pump rotor to thereby vary the eccentricity of the control ring with respect to the pump rotor for controlling the volumetric pump performance, and the static pump housing comprising a static control ring housing body radially surrounding and supporting the shiftable control ring , and two static pump housing lids axially supporting the control ring housing body and the shiftable control ring , a static control ring housing body radially surrounding and supporting the shiftable control ring , and two static pump housing lids axially supporting the control ring housing body and the shiftable control ring , characterized in that at least the control ring housing body is made of plastic, wherein the plastic control ring housing body comprises at least one metal slide support pad being fixed to the plastic control ring housing body and supporting the control ring slide support surface thereby providing a friction bearing for the shiftable control ring.
A method of mass spectrometry comprising: mass selectively transmitting precursor ions from a mass analyser into a fragmentation or reaction device , wherein the mass to charge ratios of the ions transmitted varies with time; fragmenting the precursor ions in the fragmentation or reaction device so as to produce fragment or product ions; mass analysing and detecting the fragment or product ions; determining a time period over which a first fragment or product ion is detected; using said time period to determine a time period over which a precursor ion of said first fragment or product ion was transmitted by said mass analyser; and using the time period over which the precursor ion was transmitted by said mass analyser to determine a mass to charge ratio of said precursor ion; determining a time period over which a second fragment or product ion is detected; using this time period to determine a time period over which a precursor ion of said second fragment or product ion is transmitted by said mass analyser; and using the time period over which this precursor ion is transmitted by said mass analyser to determine a mass to charge ratio of this precursor ion; wherein the time period over which the first fragment or product ion is detected only partially overlaps with the time period over which the second fragment or product ion is detected; wherein the mass analyser that transmits the precursor ions to the fragmentation or reaction device is a mass filter. mass selectively transmitting precursor ions from a mass analyser into a fragmentation or reaction device , wherein the mass to charge ratios of the ions transmitted varies with time; fragmenting the precursor ions in the fragmentation or reaction device so as to produce fragment or product ions; mass analysing and detecting the fragment or product ions; determining a time period over which a first fragment or product ion is detected; using said time period to determine a time period over which a precursor ion of said first fragment or product ion was transmitted by said mass analyser; and using the time period over which the precursor ion was transmitted by said mass analyser to determine a mass to charge ratio of said precursor ion; determining a time period over which a second fragment or product ion is detected; using this time period to determine a time period over which a precursor ion of said second fragment or product ion is transmitted by said mass analyser; and using the time period over which this precursor ion is transmitted by said mass analyser to determine a mass to charge ratio of this precursor ion; wherein the time period over which the first fragment or product ion is detected only partially overlaps with the time period over which the second fragment or product ion is detected; wherein the mass analyser that transmits the precursor ions to the fragmentation or reaction device is a mass filter.