mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: transmitting, by a base station, a subframe that includes a physical downlink shared channel, PDSCH, region to a user equipment,UE, the PDSCH region of the subframe including a reference signal,RS, section and a data section, wherein the RS section includes a beam-scanning subsection, a transmit,TX, beam-tracking subsection, a receive,RX, beam-tracking subsection, and a channel state information, CSI, subsection, wherein reference signals in beam-scanning subsection are used to evaluate different combinations of TX and RX analog beams for use in a future directional data transmission; reference signals in the TX beam-tracking subsection are used to update TX analog beams; reference signals in the RX beam-tracking subsection are used to update RX analog beams, wherein the TX analog beams are base station transmit beams, and the RX analog beams are UE receive beams, wherein beam scanning reference signals have finer beams than beam-tracking reference signals. transmitting, by a base station, a subframe that includes a physical downlink shared channel, PDSCH, region to a user equipment,UE, the PDSCH region of the subframe including a reference signal,RS, section and a data section, wherein the RS section includes a beam-scanning subsection, a transmit,TX, beam-tracking subsection, a receive,RX, beam-tracking subsection, and a channel state information, CSI, subsection, wherein reference signals in beam-scanning subsection are used to evaluate different combinations of TX and RX analog beams for use in a future directional data transmission; reference signals in the TX beam-tracking subsection are used to update TX analog beams; reference signals in the RX beam-tracking subsection are used to update RX analog beams, wherein the TX analog beams are base station transmit beams, and the RX analog beams are UE receive beams, wherein beam scanning reference signals have finer beams than beam-tracking reference signals.
An edible chocolate product comprising - between 50.0 and 99.0% (w/w) chocolate, preferably between 85.0 and 95.0% (w/w) chocolate; and - between 1.0 and 50.0% (w/w) of a dry powdered fermented plant product, preferably between 5.0 and 15.0% (w/w) of dry powdered fermented plant product; wherein said dry powdered fermented plant product is a flour derived from fermented cereals, pseudo-cereals, fractions of cereals, fractions of pseudo-cereals, or combinations thereof. - between 50.0 and 99.0% (w/w) chocolate, preferably between 85.0 and 95.0% (w/w) chocolate; and - between 1.0 and 50.0% (w/w) of a dry powdered fermented plant product, preferably between 5.0 and 15.0% (w/w) of dry powdered fermented plant product; wherein said dry powdered fermented plant product is a flour derived from fermented cereals, pseudo-cereals, fractions of cereals, fractions of pseudo-cereals, or combinations thereof.
A pressure pulsation dampening system of a reciprocating pump that pressurizes a working fluid, the pressure pulsation dampening system comprising: a hydraulic cylinder having a piston movably disposed within a housing and dividing the housing into a working fluid chamber and a hydraulic fluid chamber, wherein the working fluid chamber is in fluid communication with an outlet of the reciprocating pump; a valve in fluid communication with the hydraulic fluid chamber, the valve actuatable to a first configuration, wherein pressurized hydraulic fluid is supplied to the hydraulic fluid chamber 240, and to a second configuration, wherein hydraulic fluid is exhausted from the hydraulic fluid chamber 240; and a controller operable to actuate the valve to the first configuration and to the second configuration; characterised in that the piston is movable relative to the housing under pressure from working fluid in the working fluid chamber and hydraulic fluid in the hydraulic fluid chamber, whereby working fluid is relieved from the outlet of the reciprocating pump to the working fluid chamber or supplied to the outlet from the working fluid chamber. a hydraulic cylinder having a piston movably disposed within a housing and dividing the housing into a working fluid chamber and a hydraulic fluid chamber, wherein the working fluid chamber is in fluid communication with an outlet of the reciprocating pump; a valve in fluid communication with the hydraulic fluid chamber, the valve actuatable to a first configuration, wherein pressurized hydraulic fluid is supplied to the hydraulic fluid chamber 240, and to a second configuration, wherein hydraulic fluid is exhausted from the hydraulic fluid chamber 240; and a controller operable to actuate the valve to the first configuration and to the second configuration; characterised in that the piston is movable relative to the housing under pressure from working fluid in the working fluid chamber and hydraulic fluid in the hydraulic fluid chamber, whereby working fluid is relieved from the outlet of the reciprocating pump to the working fluid chamber or supplied to the outlet from the working fluid chamber.
Apparatus for the positioning of a cloth piece on a sewing machine, comprising a positioning device which comprises a plate from whose surface a first abutment element protrudes and on which at least one blowing device is arranged which has a blowing opening flush to the surface of the plate; at least one through opening being formed in the plate, characterized in that this opening is arranged between the first abutment element and the blowing device, so that once the cloth piece has been arranged on the plate, the cloth piece is sent in abutment on the first abutment element because the cloth piece is moved by the air that is blown on the surface of the plate by the blowing device, the air going out of the plate through the opening.
A method of supporting wireless communication, comprising: receiving inputs from one or more radios (220a-220n) among multiple radios (220a-220n) operating concurrently in each decision period when the one or more radios have planned activity in an upcoming time interval; determining controls for at least one radio (220a-220n) among the multiple radios (220a-220n) based on the received inputs to mitigate interference in the upcoming time interval between the at least one radio (220a-220n) and the one or more radios (220a-220n) having the planned activity, wherein determining controls for the at least one radio comprises: determining at least one setting for at least one configurable parameter of the at least one radio (220a-220n), determining performance of another radio (220a-220n) from the one or more radios (220a-220n) having the planned activity based on the at least one setting, retaining the at least one setting if the determined performance is acceptable, and changing the at least one setting if the determined performance is unacceptable; and sending the controls to the at least one radio (220a-220n). receiving inputs from one or more radios (220a-220n) among multiple radios (220a-220n) operating concurrently in each decision period when the one or more radios have planned activity in an upcoming time interval; determining controls for at least one radio (220a-220n) among the multiple radios (220a-220n) based on the received inputs to mitigate interference in the upcoming time interval between the at least one radio (220a-220n) and the one or more radios (220a-220n) having the planned activity, wherein determining controls for the at least one radio comprises: determining at least one setting for at least one configurable parameter of the at least one radio (220a-220n), determining performance of another radio (220a-220n) from the one or more radios (220a-220n) having the planned activity based on the at least one setting, retaining the at least one setting if the determined performance is acceptable, and changing the at least one setting if the determined performance is unacceptable; and determining at least one setting for at least one configurable parameter of the at least one radio (220a-220n), determining performance of another radio (220a-220n) from the one or more radios (220a-220n) having the planned activity based on the at least one setting, retaining the at least one setting if the determined performance is acceptable, and changing the at least one setting if the determined performance is unacceptable; and sending the controls to the at least one radio (220a-220n).
An adaptive optics instrument that comprises: - an actuating device (1, 1A, 1B) comprising: - a plurality of electric contacts (A1, A2, A3, A4, B1, B2, B3, B4), to which control voltages (V A1, V A2, V A3, V A4, V B1, V B2, V B3, V B4) are applied; - an actuating circuit element (10, 101A, 101B, 102) comprising an actuating electrode of electrically resistive material, which is electrically connected to said electric contacts and extends between said electric contacts, said actuating electrode providing an actuating voltage (V A, V B) that is variable in the space, along said actuating electrode between said electric contacts, when a current circulates along said actuating electrode, the value of said actuating voltage depending on the value of the control voltages applied to said electric contacts and on the value of the voltage drop due to the circulation of current along said actuating electrode; - a deformable optical element (40, 41, 42), which is operatively associated to said actuating circuit element, the adaptive optics instrument being chracterized in that said actuating electrode facing with areas that extend between said electric contacts and along which is provided the actuating voltage variable in the space said deformable optical element in such a way that the actuating voltage, which is generated by said actuating electrode, causes a mechanical deformation of said deformable optical element. - an actuating device (1, 1A, 1B) comprising: - a plurality of electric contacts (A1, A2, A3, A4, B1, B2, B3, B4), to which control voltages (V A1, V A2, V A3, V A4, V B1, V B2, V B3, V B4) are applied; - an actuating circuit element (10, 101A, 101B, 102) comprising an actuating electrode of electrically resistive material, which is electrically connected to said electric contacts and extends between said electric contacts, said actuating electrode providing an actuating voltage (V A, V B) that is variable in the space, along said actuating electrode between said electric contacts, when a current circulates along said actuating electrode, the value of said actuating voltage depending on the value of the control voltages applied to said electric contacts and on the value of the voltage drop due to the circulation of current along said actuating electrode; - a deformable optical element (40, 41, 42), which is operatively associated to said actuating circuit element, the adaptive optics instrument being chracterized in that said actuating electrode facing with areas that extend between said electric contacts and along which is provided the actuating voltage variable in the space said deformable optical element in such a way that the actuating voltage, which is generated by said actuating electrode, causes a mechanical deformation of said deformable optical element.
Exposure device for exposing planar material, the planar material having a first side and a second side opposite the first side and the exposure device having a first exposure unit and a transport unit, characterised in that the first exposure unit comprises at least one segment having a light source and is designed to be rotatable about a pin, the first exposure unit being able to assume a first position and a second position by rotation about the pin and the first exposure unit and the transport unit being configured such that in the first position of the first exposure unit, the first side of the planar material is supplied and moved past the first exposure unit for exposure, and in the second position of the first exposure unit, the second side of the planar material is supplied and moved past the first exposure unit for exposure.
Gas meter comprising: an external housing; a measuring assembly; an inlet pipe for the gas admission within the meter; an outlet pipe for the gas exhaust outside the meter; and an inlet cavity coupled to the inlet pipe for receiving the gas from the inlet pipe; an outlet path coupled to the outlet pipe for flowing the gas from the measuring assembly towards the outlet pipe; a shut-off valve coupled to the inlet cavity for allowing or blocking the gas flow toward the measuring assembly; wherein the inlet cavity surrounds the outlet path; characterised in that: the external housing is the housing of the gas meter; and the inlet cavity, the outlet path and the shut-off valve are placed within said housing. an external housing; a measuring assembly; an inlet pipe for the gas admission within the meter; an outlet pipe for the gas exhaust outside the meter; and an inlet cavity coupled to the inlet pipe for receiving the gas from the inlet pipe; an outlet path coupled to the outlet pipe for flowing the gas from the measuring assembly towards the outlet pipe; a shut-off valve coupled to the inlet cavity for allowing or blocking the gas flow toward the measuring assembly; wherein the inlet cavity surrounds the outlet path; characterised in that: the external housing is the housing of the gas meter; and the inlet cavity, the outlet path and the shut-off valve are placed within said housing. the external housing is the housing of the gas meter; and the inlet cavity, the outlet path and the shut-off valve are placed within said housing.
An apparatus for housing a rotatable component (40a-h), comprising: a first casing; a second casing spaced apart from the first casing and defining a gap therebetween; a cooling fluid manifold (24, 26) coupled to a source of a cooling fluid; and a stack of plates coupled to the first and second casings (18, 20) and extending therebetween to fill the gap 21 such that the first and second casings (18, 20) and the stack of plates define at least a portion of a pressurized containment area therein, the stack of plates including a bore in which the rotatable component is received, and further defining process fluid flowpaths configured to direct process fluid to and/or from the rotatable component (40a-h), the stack of plates being in fluid communication with the cooling fluid manifold and configured to transfer heat from the process fluid to the cooling fluid. a first casing; a second casing spaced apart from the first casing and defining a gap therebetween; a cooling fluid manifold (24, 26) coupled to a source of a cooling fluid; and a stack of plates coupled to the first and second casings (18, 20) and extending therebetween to fill the gap 21 such that the first and second casings (18, 20) and the stack of plates define at least a portion of a pressurized containment area therein, the stack of plates including a bore in which the rotatable component is received, and further defining process fluid flowpaths configured to direct process fluid to and/or from the rotatable component (40a-h), the stack of plates being in fluid communication with the cooling fluid manifold and configured to transfer heat from the process fluid to the cooling fluid.
A composition comprising five non-identical overlapping T cell receptor γ alternate reading frame protein (TARP) peptides, wherein the amino acid sequences of the five overlapping TARP peptides consist of SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8 and SEQ ID NO: 9.
In vitro method for separating and isolating various cells by means of microparticles, characterized in that microparticles are used on the surface of which at least two antibodies of different target cell specificity are bound adsorptively or covalently or non-covalently, wherein the antibodies are being treated by known methods such that for each target cell specificity of an antibody a different procedure for dissolving the direct bridge connection between the antibody and the target cell, or between the antibody and the microparticles is provided, and the microparticle-antibody complexes are brought into contact with a liquid containing the target cells and subsequently the microparticle-antibody-target cell complexes are first isolated by known methods and then the target cells are detached sequentially by cleaving the respective bridge connection.
A vibratory finishing machine, said machine comprising a finishing unit, said finishing unit comprising a tub suitable for containing finishing media, said tub being mounted on a plurality of springs connected to a base and being mechanically associated with vibratory means, the machine further comprising a frame configured to hold at least one workpiece to be subjected to vibratory finishing, wherein said frame is provided with an element capable of supporting by clamping one side of the workpiece to be machined and with a moving component operated by a jack or a pneumatic cylinder to act on the opposite side of the workpiece, for the automatic fastening in a working position of the workpiece and in that said machine is provided with a fixed support structure, said fixed support structure being external to said finishing unit, wherein the fixed support structure is associated with a mobile structure configured to bring said frame from a first position of assembly of the piece to be processed to a second position in which the piece is immersed in the finishing media inside the tub and vice versa.
Method for assisting a driver in performing lateral guidance of a vehicle on a carriageway, wherein the method has the following steps: - displaying a read-in image on a display unit to the driver, wherein the image has been recorded by a camera and represents surroundings of the vehicle; - reading in an operator control signal which has been input at an operator control interface by the driver; - selecting an object, contained in the image, using the operator control signal; - displaying a mark (310, 500, 600) on the display unit, wherein the mark (310, 500, 600) is displayed in a region of the image which represents the object; and - using the object to determine at least one longitudinal control parameter for a route to be travelled on by the vehicle, in order to assist the driver in performing lateral guidance of the vehicle on the carriageway, characterized in that in the display step information relating to a parameter with respect to a time up to a collision with the object is also displayed, together with the mark (310, 500, 600) on the display unit, wherein the information is displayed in a region of the image which represents the object. - displaying a read-in image on a display unit to the driver, wherein the image has been recorded by a camera and represents surroundings of the vehicle; - reading in an operator control signal which has been input at an operator control interface by the driver; - selecting an object, contained in the image, using the operator control signal; - displaying a mark (310, 500, 600) on the display unit, wherein the mark (310, 500, 600) is displayed in a region of the image which represents the object; and - using the object to determine at least one longitudinal control parameter for a route to be travelled on by the vehicle, in order to assist the driver in performing lateral guidance of the vehicle on the carriageway, characterized in that in the display step information relating to a parameter with respect to a time up to a collision with the object is also displayed, together with the mark (310, 500, 600) on the display unit, wherein the information is displayed in a region of the image which represents the object.
A method used to handle piece goods being moved one after another in at least one row, in which method - immediately consecutive piece goods in a row without spaces or with minimal spaces are transported as closed formation, and - at least one transported piece good is seized in a clamping manner from the closed formation, is spatially separated from the closed formation, and is brought into a defined relative target position (P1, P2, P3, P4, P5, P6, P7, P8) and/or target alignment in relation to subsequent piece goods, characterised in that - the at least one piece good, while it is seized in a clamping manner, is preceded by at least one further non-seized piece good and/or one further piece good that has not been separated from the closed formation, and wherein - resulting herefrom, the at least one further non-seized piece good is pushed together with the at least one piece good seized in a clamping manner into a particular at least one further target position (P1, P2, P3, P4, P5, P6, P7, P8) and/or target alignment. - immediately consecutive piece goods in a row without spaces or with minimal spaces are transported as closed formation, and - at least one transported piece good is seized in a clamping manner from the closed formation, is spatially separated from the closed formation, and is brought into a defined relative target position (P1, P2, P3, P4, P5, P6, P7, P8) and/or target alignment in relation to subsequent piece goods, characterised in that - the at least one piece good, while it is seized in a clamping manner, is preceded by at least one further non-seized piece good and/or one further piece good that has not been separated from the closed formation, and wherein - resulting herefrom, the at least one further non-seized piece good is pushed together with the at least one piece good seized in a clamping manner into a particular at least one further target position (P1, P2, P3, P4, P5, P6, P7, P8) and/or target alignment.
A local network node for providing a user equipment with a local connection to a mobile network, the network having one or more cells overlapping the coverage area of the local network node, comprising: a processor arranged to receive from the user equipment one or more parameters related to the power of the downlink between the user equipment and the local network node, measured by the user equipment at a plurality of locations within the desired coverage area of the local network node; a measurement processor for determining a transmit power for the downlink between the local network node and the user equipment, based on the measured parameters, and the minimum required power for the correct reception of a downlink signal at the user equipment. a processor arranged to receive from the user equipment one or more parameters related to the power of the downlink between the user equipment and the local network node, measured by the user equipment at a plurality of locations within the desired coverage area of the local network node; a measurement processor for determining a transmit power for the downlink between the local network node and the user equipment, based on the measured parameters, and the minimum required power for the correct reception of a downlink signal at the user equipment.