mhurhangee/patent-ind-claim-en huggingface dataset:
Nuclear magnetic measuring device with a measuring device for carrying out nuclear magnetic measurements of a medium , wherein the measuring device comprises a control unit , a generator unit for generating excitation signals, a first conditioning unit for conditioning the excitation signals, an antenna unit for transmission of the conditioned excitation signals to the medium and for detecting reaction signals caused by the excitation signals in the medium, a second conditioning unit for conditioning the reaction signals, a receiving unit for receiving the conditioned reaction signals and a measuring signal path , wherein the measuring signal path comprises an excitation signal path and a reaction signal path , the excitation signal path leading the excitation signals from the generator unit via the first conditioning unit and the antenna unit to the medium and the reaction signal path leading the reaction signals from the medium via the antenna unit and the second conditioning unit to the receiving unit , wherein the antenna unit has an antenna signal path and the excitation signal path and the reaction signal path coincide in the antenna signal path , characterized in that the measuring device has a bypass signal path and a transmission unit , the bypass signal path and the transmission unit are connected to one another, and the transmission unit is designed for bi-directional transmission of signals between the bypass signal path and the antenna signal path , that a first changeover switch is arranged such that, in a first switching state, the generator unit is connected to the excitation signal path and, in a second switching state, the generator unit is connected to the bypass signal path , that a second changeover switch is arranged such that, in a first switching state, the receiving unit is connected to the reaction signal path and, in a second switching state, the receiving unit is connected to the bypass signal path , that the control unit is designed to first control the first changeover switch and the second changeover switch such that a part of the measuring signal path is bypassed by the bypass signal path and then to generate a test excitation signal with the generator unit , to receive a test reaction signal caused by the test excitation signal with the receiving unit , and to determine a property of the measuring signal path using the test excitation signal and the test reaction signal.
A pixel structure, comprising a plurality of pixel units arranged in an array, each pixel unit comprising a first sub-pixel , a second sub-pixel and a third sub-pixel , the second and third sub-pixels being common to four adjacent ones of the pixel units, wherein adjacent four third sub-pixels are arranged to define a quadrilateral encompassing not more and not less than one second sub-pixel and adjacent four first sub-pixels so that four pixel units are formed in which each of the four first sub-pixels is located between the second sub-pixel and a corresponding one of the four third sub-pixels , wherein the first sub-pixel has an area smaller than an area of the second and third sub-pixels , characterised in that each first sub-pixel resides on a line segment connecting centers of its adjacent second and third sub-pixels . wherein adjacent four third sub-pixels are arranged to define a quadrilateral encompassing not more and not less than one second sub-pixel and adjacent four first sub-pixels so that four pixel units are formed in which each of the four first sub-pixels is located between the second sub-pixel and a corresponding one of the four third sub-pixels , wherein the first sub-pixel has an area smaller than an area of the second and third sub-pixels , characterised in that each first sub-pixel resides on a line segment connecting centers of its adjacent second and third sub-pixels .
Apparatus , comprising a pressure chamber and a micropump in fluid connection with the pressure chamber , wherein the pressure chamber comprises a gas-carrying region and a liquid-carrying region , wherein the micropump is configured to generate a pneumatic pressure within the gas-carrying region that is lower than a fluid pressure of liquid flowing through the liquid-carrying region , and wherein a gas-permeable and liquid-impermeable separating element separates the gas-carrying region and the liquid-carrying region from each other at least in sections, wherein the micropump is disposed on the pressure chamber and the liquid-carrying region is a tube conduit running within the pressure chamber , wherein the tube conduit comprises, at least in sections, a material forming the gas-permeable and liquid-impermeable separating element , or wherein the separating element is a gas-permeable and liquid-impermeable membrane disposed between the gas-carrying region and the liquid-carrying region , wherein the apparatus comprises a liquid-delivering pump by means of which liquid can be delivered through the liquid-carrying region or wherein the micropump is configured to deliver liquid through the liquid-carrying region , and wherein the apparatus comprises a pressure sensor fluidically coupled to the gas-carrying region and a control connected to the pressure sensor and the liquid-delivering pump , wherein the control is configured to control the liquid-delivering pump in dependence on a signal of the pressure sensor such that the delivery rate of the liquid-delivering pump is increased until the pressure within the gas-carrying region reaches a threshold and such that the delivery rate of the liquid-delivering pump is lowered at a pressure exceeding a threshold within the gas-carrying region .
A method for wireless communications at a user equipment, UE, comprising: receiving system information from a base station , the system information including a first bandwidth indication, wherein the first bandwidth indication corresponds to the cell-specific channel bandwidth or a maximum channel bandwidth supported by the base station or wherein the first bandwidth indication is a minimum bandwidth supported by the base station ; transmitting a connection establishment request to the base station based at least in part on the system information; receiving, from the base station responsive to the connection establishment request, an indication of a UE-specific channel bandwidth, wherein the UE-specific channel bandwidth is less than or equal to a cell-specific channel bandwidth and is based at least in part on a maximum supported bandwidth of the UE ; and communicating with the base station using the UE-specific channel bandwidth. receiving system information from a base station , the system information including a first bandwidth indication, wherein the first bandwidth indication corresponds to the cell-specific channel bandwidth or a maximum channel bandwidth supported by the base station or wherein the first bandwidth indication is a minimum bandwidth supported by the base station ; transmitting a connection establishment request to the base station based at least in part on the system information; receiving, from the base station responsive to the connection establishment request, an indication of a UE-specific channel bandwidth, wherein the UE-specific channel bandwidth is less than or equal to a cell-specific channel bandwidth and is based at least in part on a maximum supported bandwidth of the UE ; and communicating with the base station using the UE-specific channel bandwidth.
A forged mechanical part of steel comprising of the following elements, expressed in percentage by weight: 0 .15 % ≦ C ≦ 0 .22 %; 1.6 % ≦ Mn ≦ 2 .2 % ; 0.6 % ≦ Si ≦ 1 % ; 1 % ≦ Cr ≦ 1 .5 %; 0.01 % ≦ Ni ≦ 1%; 0 % ≦ S ≦ 0.06 % ; 0 % ≦ P ≦ 0.02 % ; 0 % ≦ N ≦ 0.013 % ; and can contain one or more of the following optional elements 0 % ≦ Al ≦ 0.06 % ; 0.03 % ≦ Mo ≦ 0.1 % ; 0 % ≦ Cu ≦ 0.5 % ; 0.01 % ≦ Nb ≦ 0.15 % ; 0.01 % ≦ Ti ≦ 0.03 % ; 0 % ≦ V ≦ 0.08 % ; 0.0015 % ≦ B ≦ 0.004 % ; 0 % ≦ Sn ≦ 0.1 % ; 0 % ≦ Ce ≦ 0 .1 % ; 0 % ≦ Mg ≦ 0 .010 % 0 % ≦ Zr ≦ 0.010 % the remainder composition being composed of iron and unavoidable impurities caused by processing, the microstructure of said steel having microstructure by area percentage comprising of cumulative presence of residual austenite and martensite-austenite island between 1 % and 20%, the remaining microstructure being bainite having at least 80%, wherein the fraction of grain boundaries of bainite with a misorientation angle of 59.5° are at least 7% and with an optional presence of martensite between 0% and 10% having an ultimate tensile strength of 1100 MPa or more, a yield strength of 800 MPa or more wherein the tensile strength and yield strength are measured according to NF EN ISO 6892-1 standard and an impact toughness equal to or greater than 70J/cm 2 measured at 20 °C in accordance with NF EN ISO 148-1 on a U-notched standard DVM specimen .
Device for protecting against solar radiation and/or precipitation, comprising a roof tarpaulin and a first frame , the roof tarpaulin having two opposing transverse sides extending in a transverse direction of the roof tarpaulin and two longitudinal sides connecting the transverse sides and extending in a longitudinal direction of the roof tarpaulin , a first of the transverse sides having first fastening means for fastening to a substrate , and the second of the transverse sides having second fastening means for fastening the roof tarpaulin to the first frame in such a way that the first frame supports the transverse side fastened thereto, at least in a portion of the transverse direction of the roof tarpaulin , shortening means being provided for shortening the free edge length of the longitudinal sides, characterized in that the roof tarpaulin in each case forms at least one pocket on the longitudinal sides that extends into the relevant edge of the roof tarpaulin .
A terminal apparatus comprising: a transmitter configured to map a PUSCH to a SC-FDMA symbol of a special subframe, based on an RRC layer parameter number of data symbols for PUSCH in UpPTS, symPUSCH_UpPTS, to transmit the PUSCH, wherein the special subframe includes at least a Guard Period, GP, field and an Uplink Pilot Time Slot, UpPTS, field; and a transmit power control unit configured to determine the power control adjustment for the current PUSCH transmission parameter f c (i), based on at least whether the RRC layer parameter symPUSCH UpPTS is configured for the terminal apparatus, and calculate transmit power for PUSCH transmission in a subframe i, based on at least the parameter f c (i), wherein the parameter f c (i) is given based on the equation: f c i = f c i − 1 + δ PUSCH , c i − K PUSCH , wherein δ PUSCH,c is a correction value received in a DCI format and is referred to as a TPC command, and wherein: in a case that the RRC layer parameter symPUSCH_UpPTS is not configured for the terminal apparatus, and the subframe i is not an uplink subframe, δ PUSCH,c is set to 0, and in a case that the RRC layer parameter symPUSCH_UpPTS is configured for the terminal apparatus, and the subframe i is a downlink subframe, δ PUSCH,c is set to 0. a transmitter configured to map a PUSCH to a SC-FDMA symbol of a special subframe, based on an RRC layer parameter number of data symbols for PUSCH in UpPTS, symPUSCH_UpPTS, to transmit the PUSCH, wherein the special subframe includes at least a Guard Period, GP, field and an Uplink Pilot Time Slot, UpPTS, field; and a transmit power control unit configured to determine the power control adjustment for the current PUSCH transmission parameter f c (i), based on at least whether the RRC layer parameter symPUSCH UpPTS is configured for the terminal apparatus, and calculate transmit power for PUSCH transmission in a subframe i, based on at least the parameter f c (i), wherein the parameter f c (i) is given based on the equation: f c i = f c i − 1 + δ PUSCH , c i − K PUSCH , wherein δ PUSCH,c is a correction value received in a DCI format and is referred to as a TPC command, and wherein: in a case that the RRC layer parameter symPUSCH_UpPTS is not configured for the terminal apparatus, and the subframe i is not an uplink subframe, δ PUSCH,c is set to 0, and in a case that the RRC layer parameter symPUSCH_UpPTS is configured for the terminal apparatus, and the subframe i is a downlink subframe, δ PUSCH,c is set to 0. in a case that the RRC layer parameter symPUSCH_UpPTS is not configured for the terminal apparatus, and the subframe i is not an uplink subframe, δ PUSCH,c is set to 0, and in a case that the RRC layer parameter symPUSCH_UpPTS is configured for the terminal apparatus, and the subframe i is a downlink subframe, δ PUSCH,c is set to 0.
A dual-modulation system for modulating laser light comprising: a polarizing beamsplitter for splitting said laser light into first and second polarized beams having mutually orthogonal polarizations; a polarization sensitive phase spatial light modulator for beam steering the second polarized beam ; a mechanical amplitude spatial light modulator for amplitude modulating a combination of (i) the first polarized beam and (ii) a beam-steered polarized beam as beam steered by the phase spatial light modulator , the mechanical amplitude spatial light modulator being configured to receive the first and the beam-steered polarized beams from two different respective directions, so as to form an amplitude modulated combination of the first and the beam-steered polarized beams; a half-wave plate for rotating the polarization of one of the first and the beam-steered polarized beams, prior to combination thereof on the mechanical amplitude spatial light modulator , such that the first and the beam-steered polarized beams have same polarization when received by the mechanical amplitude spatial light modulator ; and a filter for removing, from the amplitude modulated combination of the first and the beam-steered polarized beams, one or more of a plurality of diffraction orders introduced by the mechanical amplitude spatial light modulator , to generate filtered, modulated output light . a polarizing beamsplitter for splitting said laser light into first and second polarized beams having mutually orthogonal polarizations; a polarization sensitive phase spatial light modulator for beam steering the second polarized beam ; a mechanical amplitude spatial light modulator for amplitude modulating a combination of (i) the first polarized beam and (ii) a beam-steered polarized beam as beam steered by the phase spatial light modulator , the mechanical amplitude spatial light modulator being configured to receive the first and the beam-steered polarized beams from two different respective directions, so as to form an amplitude modulated combination of the first and the beam-steered polarized beams; a half-wave plate for rotating the polarization of one of the first and the beam-steered polarized beams, prior to combination thereof on the mechanical amplitude spatial light modulator , such that the first and the beam-steered polarized beams have same polarization when received by the mechanical amplitude spatial light modulator ; and a filter for removing, from the amplitude modulated combination of the first and the beam-steered polarized beams, one or more of a plurality of diffraction orders introduced by the mechanical amplitude spatial light modulator , to generate filtered, modulated output light .
Dishwasher, especially household dishwasher , with a control device for carrying out a washing cycle for cleaning items to be washed, with a washing compartment for accommodating the items to be washed during the washing cycle, with an inlet valve able to be opened and closed by the control device for filling the washing compartment with washing liquor (S), with a recirculation pump , comprising an electric motor, for recirculating washing liquor (S) present in the washing compartment , of which the speed (DZ) is able to be varied by the control device , and with a true running monitoring unit , embodied to monitor fluctuations of at least one electric operating parameter of the electric motor, for carrying out a true running check on the recirculation pump , wherein the wash cycle comprises at least one fill sequence (F), in which, during a fill phase (FP), the recirculation pump is switched on, with an algorithm for varying the speed (DZ) of the recirculation pump being provided for the fill phase (FP), with the algorithm comprising a variation step (VAS) for stepped variation of the speed (DZ) by a default value (VW) and a test step (PS) for carrying out a true running check, wherein the test step (PS) determines whether or not the recirculation pump is running true in the case of the speed which results in the previously implemented variation step (VAS), wherein the recirculation pump is running true if sufficient washing liquor (S) is available in the washing compartment to prevent air from being drawn out by means of the recirculation pump , characterised in that during the fill phase (FP) the inlet valve is opened and the recirculation pump is switched on and that for the fill phase (FP) the algorithm further comprises a modification step (VES) for modifying the default value (VW) for a renewed execution of the variation step (VAS) as a function of a result of the test step (PS), wherein the default value (VW) is greater than or equal to zero if the result of the test step (PS) is that the recirculation pump is not running true and wherein the default value (VW) is less than zero if the result of the test step (PS) is that the recirculation pump is not running true.
A method for charging an electric vehicle at a charging point of a set of charging points via an electric building connection supplied with supply mains voltage, wherein the charging points are connected to the electric building connection via a power cable and to an authorisation server via a network cable , wherein a current measuring device permanently determines the current currently flowing at the building connection and sends information about this by means of serial data transmission as a bus signal via the network cable to the charging points , wherein the method comprises using the charging point of the set of charging points : - receiving a charging authorisation for the electric vehicle from the authorisation server via the network cable using an Internet protocol, wherein the network cable thus serves simultaneously for the transmission of data using the Internet protocol via TCP/IP and for the transmission of the serial bus signal, - in response to receiving the charging authorisation, carrying out a charging process of the electric vehicle , wherein the charging process comprises providing the current transported from the building connection via the power cable to the electric vehicle as charging current, - at least during the charging process, checking whether the bus signal indicates a current overload at the building connection and, if a current overload is signalled, stopping the charging process. - receiving a charging authorisation for the electric vehicle from the authorisation server via the network cable using an Internet protocol, wherein the network cable thus serves simultaneously for the transmission of data using the Internet protocol via TCP/IP and for the transmission of the serial bus signal, - in response to receiving the charging authorisation, carrying out a charging process of the electric vehicle , wherein the charging process comprises providing the current transported from the building connection via the power cable to the electric vehicle as charging current, - at least during the charging process, checking whether the bus signal indicates a current overload at the building connection and, if a current overload is signalled, stopping the charging process.
Lock for the door of the box, especially in the collective deposit locker, remotely controlled by an access code, including a one-sided electromagnetic actuator built inside the box housing (whose core (8.1) drives the ejector lever of the lever system on the pivot (1.1) of the housing and which locks the box door away with ends of the hook (3.1.) of the latch projecting through the holes in the front wall of the housing and the foot (4.1) of the ejector pushes the door away from the front wall after lifting the hook (3.1) by the electromagnetic actuator with the movable core (8.1) ) towards the rear edge of the ejector , where the latch and the ejector are loaded with a spiral spring mounted on the pivot (1.1) towards the block with the hook (3.1) of the door and retraction of the foot (4.1) of the ejector ; in addition,in the lock, the hook (3.1) behind the front wall is covered from the front side and on both sides by the walls of the hook cover mounted on the pivot (1.1) ) and going through the hole in the front wall , characterized in that the lever system consists of two separate, flat lever elements of the latch and the ejector , adjacent to each other by faces and bearing mounted on the pivot (1.1) of the housing and acting on each other through protruding pins (3.2, 4.2) so that after swinging the hook (3.1) by the action of the electromagnetic actuator and after opening the ejector of the box door with the foot (4.1), the hook (3.1) returns to the closed position under the action of the spiral spring .
Diffractive microstructure comprising micro-protrusions or microgrooves or a combination thereof formed in a layer of a thermoplastic carbohydrate polymer, wherein said thermoplastic carbohydrate polymer has a glass transition point of less than 210 °C and is a hydrophobic starch ester having a degree of substitution of at least 1.7.