mhurhangee/patent-ind-claim-en huggingface dataset:
Pane arrangement comprising: - a first pane and a second pane that are joined to one another by at least one intermediate layer , - an electro-optical functional element , comprising a first surface electrode , an electro-optical functional layer , and a second surface electrode , wherein the functional element is arranged between the first pane and the second pane , and the first surface electrode faces the first pane , and the second surface electrode faces the second pane , - a sensor electrode that is arranged between the first surface electrode and the first pane and the sensor electrode is capacitively coupled to the first surface electrode , - a capacitive electronic sensor system is electrically connected to the sensor electrode , wherein the sensitivity of the electronic sensor system is selected such that a capacitive switching region is expanded to the area of an orthogonal projection of the first surface electrode on the outer surface (IV) of the first pane, so that, when the outer surface (IV) of the first pane is touched above the first surface electrode by a human body part, such as a finger or a hand, or said human body part approaches the outer surface (IV) of the first pane above the first surface electrode , a switching signal is emitted. - a first pane and a second pane that are joined to one another by at least one intermediate layer , - an electro-optical functional element , comprising a first surface electrode , an electro-optical functional layer , and a second surface electrode , wherein the functional element is arranged between the first pane and the second pane , and the first surface electrode faces the first pane , and the second surface electrode faces the second pane , - a sensor electrode that is arranged between the first surface electrode and the first pane and the sensor electrode is capacitively coupled to the first surface electrode , - a capacitive electronic sensor system is electrically connected to the sensor electrode , wherein the sensitivity of the electronic sensor system is selected such that a capacitive switching region is expanded to the area of an orthogonal projection of the first surface electrode on the outer surface (IV) of the first pane, so that, when the outer surface (IV) of the first pane is touched above the first surface electrode by a human body part, such as a finger or a hand, or said human body part approaches the outer surface (IV) of the first pane above the first surface electrode , a switching signal is emitted.
Sealing arrangement for sealing between a first medium chamber filled with a first medium and a second medium chamber filled with a second medium, in the region of a movable component which is displaceable along a longitudinal axis of the movable component and/or is rotatably guided or guidable through the sealing arrangement along the longitudinal axis , wherein the sealing arrangement comprises a sealing element which comprises at least one dynamic sealing portion which is placed or placeable on the movable component , wherein the at least one dynamic sealing portion comprises at least two sealing lips between which a leakage reservoir is formed, wherein the leakage reservoir is partially delimited by two boundary surfaces of the sealing lips arranged facing one another, wherein the leakage reservoir is formed at least partially by a concave recess in at least one or between the at least two boundary surfaces of the sealing lips , characterised in that the sealing element comprises two dynamic sealing portions , wherein both dynamic sealing portions each have at least two sealing lips .
A waste storage device including a waste storage cassette receiving chamber characterised in that the waste storage device further comprises a waste storage cassette rotator comprising a handle , the waste storage cassette rotator being rotatably mounted in the chamber and configured to engage a waste storage cassette for manual rotation thereof relative to the chamber; wherein the waste storage cassette rotator comprises a lug arranged to engage, in use, a co-operating formation in the waste storage cassette for rotational engagement between the waste storage cassette rotator and the cassette as the waste storage cassette rotator is rotated.
A method for determining a sequence group, comprising: determining (S102) a symbol index of a first specified orthogonal frequency division multiplexing, OFDM, symbol in a scheduling unit; and determining (S104) a sequence group used by a channel or a signal on the scheduling unit according to the symbol index, wherein the sequence group used by the channel or signal is determined by the following formula according to the symbol index: f gh n s , l = ∑ i = 0 7 c 8 N ∗ n S + l + i ⋅ 2 i mod Q ; u = f gh n s l + f ss mod Q ; wherein the u denotes an index of the sequence group, Q equals to a total number of sequence groups, a definition of f ss is determined by a cell physical ID, n s is a serial number of the scheduling unit, and l is the symbol index of the symbol in the scheduling unit, N is a number of symbols comprised in each scheduling unit; c( i ) is a pseudo-random sequence with an initial value of ⌊ n ID RS 30 ⌋ ; n ID RS is the cell physical ID of the cell, or a virtual cell physical ID configured by a higher layer. determining (S102) a symbol index of a first specified orthogonal frequency division multiplexing, OFDM, symbol in a scheduling unit; and determining (S104) a sequence group used by a channel or a signal on the scheduling unit according to the symbol index, wherein the sequence group used by the channel or signal is determined by the following formula according to the symbol index: f gh n s , l = ∑ i = 0 7 c 8 N ∗ n S + l + i ⋅ 2 i mod Q ; u = f gh n s l + f ss mod Q ; wherein the u denotes an index of the sequence group, Q equals to a total number of sequence groups, a definition of f ss is determined by a cell physical ID, n s is a serial number of the scheduling unit, and l is the symbol index of the symbol in the scheduling unit, N is a number of symbols comprised in each scheduling unit; c( i ) is a pseudo-random sequence with an initial value of ⌊ n ID RS 30 ⌋ ; n ID RS is the cell physical ID of the cell, or a virtual cell physical ID configured by a higher layer.
A portable pill dispenser , comprising: a container configured to house at least one pill therein; a housing attachable to the container ; a dispensing mechanism disposed within the housing , wherein the dispensing mechanism comprises an oscillating member configured to oscillate back-and-forth about a pivot point to dispense the at least one pill from the container , wherein the oscillating member comprises an elongated platform configured to oscillate about the pivot point , and wherein the elongated platform comprises a forward lip and a rear lip disposed on opposite sides of the pivot point at opposite ends of the elongated platform , wherein the forward lip and the rear lip rise up-and-down as the elongated platform oscillates back-and-forth; a ramp comprising an inlet and an outlet disposed within the housing configured to direct the at least one pill to the dispensing mechanism , wherein the forward lip moves up-and-down about the outlet and the rear lip moves up-and-down through an opening in the ramp ; an actuator in mechanical communication with the elongated platform on a first side of the pivot point about the rear lip ; and a spring in mechanical communication with the elongated platform on a second side of the pivot point about the forward lip , wherein the forward lip is biased by the spring in the upward position to prevent the pills from being dispensed, and wherein the actuator pivots the elongated platform to overcome the spring . a container configured to house at least one pill therein; a housing attachable to the container ; a dispensing mechanism disposed within the housing , wherein the dispensing mechanism comprises an oscillating member configured to oscillate back-and-forth about a pivot point to dispense the at least one pill from the container , wherein the oscillating member comprises an elongated platform configured to oscillate about the pivot point , and wherein the elongated platform comprises a forward lip and a rear lip disposed on opposite sides of the pivot point at opposite ends of the elongated platform , wherein the forward lip and the rear lip rise up-and-down as the elongated platform oscillates back-and-forth; a ramp comprising an inlet and an outlet disposed within the housing configured to direct the at least one pill to the dispensing mechanism , wherein the forward lip moves up-and-down about the outlet and the rear lip moves up-and-down through an opening in the ramp ; an actuator in mechanical communication with the elongated platform on a first side of the pivot point about the rear lip ; and a spring in mechanical communication with the elongated platform on a second side of the pivot point about the forward lip , wherein the forward lip is biased by the spring in the upward position to prevent the pills from being dispensed, and wherein the actuator pivots the elongated platform to overcome the spring .
A fluid sampler system, comprising: at least one sample reservoir ; a fluidic head comprising: a gas aperture capable of communication with a pressurized gas source , a conduit capable of communication with a liquid contained in the at least one sample reservoir , and a seal capable of forming a compression seal to the at least one sample reservoir when gas pressure is applied to the at least one sample reservoir through the gas aperture to enable displacement of a portion of the liquid through the conduit ; a fluid detector in line with the conduit capable of measuring a sample flow rate, sample volume or fluid interface; a pressure controller capable of controlling the pressure of the gas source ; and a positioning apparatus capable of moving the fluidic head to at least one sample reservoir , after positioning the fluidic head above the at least one sample reservoir , wherein the system is capable of transferring a sample aliquot into the conduit by controlling the filling of the conduit , by submerging the conduit in the liquid , wherein the fluidic head forms a compression seal to the at least one sample reservoir , controlling the pressure in the at least one sample reservoir such that the entire sample reservoir is pressurized, thereby displacing the sample into the conduit , and retracting the conduit from the liquid while the reservoir remains pressurized by the fluidic head . a gas aperture capable of communication with a pressurized gas source , a conduit capable of communication with a liquid contained in the at least one sample reservoir , and a seal capable of forming a compression seal to the at least one sample reservoir when gas pressure is applied to the at least one sample reservoir through the gas aperture to enable displacement of a portion of the liquid through the conduit ; a fluid detector in line with the conduit capable of measuring a sample flow rate, sample volume or fluid interface; a pressure controller capable of controlling the pressure of the gas source ; and a positioning apparatus capable of moving the fluidic head to at least one sample reservoir , after positioning the fluidic head above the at least one sample reservoir , wherein the system is capable of transferring a sample aliquot into the conduit a fluid detector in line with the conduit capable of measuring a sample flow rate, sample volume or fluid interface; a pressure controller capable of controlling the pressure of the gas source ; and a positioning apparatus capable of moving the fluidic head to at least one sample reservoir , after positioning the fluidic head above the at least one sample reservoir , wherein the system is capable of transferring a sample aliquot into the conduit by controlling the filling of the conduit , by submerging the conduit in the liquid , wherein the fluidic head forms a compression seal to the at least one sample reservoir , controlling the pressure in the at least one sample reservoir such that the entire sample reservoir is pressurized, thereby displacing the sample into the conduit , and retracting the conduit from the liquid while the reservoir remains pressurized by the fluidic head .
An image forming apparatus , comprising: a printer unit configured to print a sheet with a plurality of single colors and generate a correction sheet including a plurality of single color regions at different positions along a travel direction of the correction sheet between a first reference region and a second reference region, the first and second reference regions being a reference color; an image reading unit configured to read the correction sheet; a processor configured to calculate a shift amount in a main scanning direction of the printer unit for each single color region in the plurality of single color regions based on RGB luminance values of the single color region as obtained from the correction sheet by the image reading unit and to correct a printer scan position along the main scanning direction for each single color in the plurality of single colors corresponding to the single color regions using the calculated shift amounts for the single color regions; and an alignment sensor at a position away from a center of the sheet in the main scanning direction, wherein the processor varies a clock for an exposure source for each of the single colors so that a correction amount for the printer scan position for each of the single colors is larger near the center of the sheet in the main scanning direction than at an edge of the sheet. a printer unit configured to print a sheet with a plurality of single colors and generate a correction sheet including a plurality of single color regions at different positions along a travel direction of the correction sheet between a first reference region and a second reference region, the first and second reference regions being a reference color; an image reading unit configured to read the correction sheet; a processor configured to calculate a shift amount in a main scanning direction of the printer unit for each single color region in the plurality of single color regions based on RGB luminance values of the single color region as obtained from the correction sheet by the image reading unit and to correct a printer scan position along the main scanning direction for each single color in the plurality of single colors corresponding to the single color regions using the calculated shift amounts for the single color regions; and an alignment sensor at a position away from a center of the sheet in the main scanning direction, wherein the processor varies a clock for an exposure source for each of the single colors so that a correction amount for the printer scan position for each of the single colors is larger near the center of the sheet in the main scanning direction than at an edge of the sheet.
A power battery top cap structure, comprising: a first electrode assembly comprising a first electrode column, a first seal member, and a first connection block, wherein the first electrode column comprises an upper section and a lower section, both a material forming the upper section and a material forming the first connection block comprise a first base metal, a material forming the lower section comprises a second base metal, wherein the first base metal is different from the second base metal, wherein the upper section comprises a step portion, and the lower section is joined with a bottom surface of the upper section, and wherein the first seal member comprises an extending portion; a top cap piece comprising a first electrode column hole, wherein the upper section passes through the first electrode column hole, wherein the step portion and the lower section are below the top cap piece, the extending portion is disposed between a lower surface of the top cap piece and the step portion, the first connection block is above the top cap piece, and a top portion of the upper section is connected with the first connection block; and a second electrode assembly that is attached to the top cap piece. a first electrode assembly comprising a first electrode column, a first seal member, and a first connection block, wherein the first electrode column comprises an upper section and a lower section, both a material forming the upper section and a material forming the first connection block comprise a first base metal, a material forming the lower section comprises a second base metal, wherein the first base metal is different from the second base metal, wherein the upper section comprises a step portion, and the lower section is joined with a bottom surface of the upper section, and wherein the first seal member comprises an extending portion; a top cap piece comprising a first electrode column hole, wherein the upper section passes through the first electrode column hole, wherein the step portion and the lower section are below the top cap piece, the extending portion is disposed between a lower surface of the top cap piece and the step portion, the first connection block is above the top cap piece, and a top portion of the upper section is connected with the first connection block; and a second electrode assembly that is attached to the top cap piece.
A cooling system comprising - at least one first component , which is to be cooled and into which a first coolant line opens, wherein - a first ventilation line is fluidically connected to the first component for ventilating the first component in such a way that - the first ventilation line opens into a second coolant line , wherein - the second coolant line is formed as coolant path in a second component , which is to be cooled, or wherein - the second coolant line leads to the second component , wherein the first ventilation line opens into the second coolant line outside of the second component , characterized in that - the first component is formed as turbine housing of an exhaust-gas turbocharger , wherein the second component is formed as compressor housing of the exhaust-gas turbocharger . - at least one first component , which is to be cooled and into which a first coolant line opens, wherein - a first ventilation line is fluidically connected to the first component for ventilating the first component in such a way that - the first ventilation line opens into a second coolant line , wherein - the second coolant line is formed as coolant path in a second component , which is to be cooled, or wherein - the second coolant line leads to the second component , wherein the first ventilation line opens into the second coolant line outside of the second component , characterized in that - the first component is formed as turbine housing of an exhaust-gas turbocharger , wherein the second component is formed as compressor housing of the exhaust-gas turbocharger .
A wind turbine blade for a horizontal axis wind turbine , wherein the wind turbine blade extends in a longitudinal direction parallel to a longitudinal axis and having a tip end and a root end , and wherein the wind turbine blade further comprises a shell body , and wherein the wind turbine blade further comprises a root end flange at the root end of the blade and which comprises a ring-shaped body that extends circumferentially along the entire root end , the root end flange preferably made from a metal, such as stainless steel, characterised in that the root end flange comprises an inwardly extending protrusion with a distal plate part arranged in a distance from the ring body, wherein the root end is configured to be connected to a pitch bearing, the root end flange being separate and distinct from the pitch bearing.
A method for wireless communications by a user equipment, UE , comprising: during initial access of a cell, determining a default first periodicity of a physical downlink control channel, PDCCH, monitoring window to monitor for at least a first PDCCH scheduling remaining minimum system information, RMSI; after the initial access, determining a second periodicity of the PDCCH monitoring window to monitor at least a second PDCCH scheduling RMSI based on the default first periodicity or based on an indication received in a previous RMSI from the cell; determining a first time offset within the PDCCH monitoring window to monitor for the first PDCCH and a second time offset within the PDCCH monitoring window to monitor for the second PDCCH; monitoring in the PDCCH monitoring window for at least the first PDCCH during initial access at the default first periodicity and the first time offset; and monitoring in the PDCCH monitoring window for at least the second PDCCH at the second periodicity and the second time offset after the initial access. during initial access of a cell, determining a default first periodicity of a physical downlink control channel, PDCCH, monitoring window to monitor for at least a first PDCCH scheduling remaining minimum system information, RMSI; after the initial access, determining a second periodicity of the PDCCH monitoring window to monitor at least a second PDCCH scheduling RMSI based on the default first periodicity or based on an indication received in a previous RMSI from the cell; determining a first time offset within the PDCCH monitoring window to monitor for the first PDCCH and a second time offset within the PDCCH monitoring window to monitor for the second PDCCH; monitoring in the PDCCH monitoring window for at least the first PDCCH during initial access at the default first periodicity and the first time offset; and monitoring in the PDCCH monitoring window for at least the second PDCCH at the second periodicity and the second time offset after the initial access.