mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a flowmeter diagnostic tool comprising: interfacing the diagnostic tool with a flowmeter sensor assembly; inputting a base prover volume (BPV) into the diagnostic tool; inputting a desired number of passes per run into the diagnostic tool; receiving flowmeter data; calculating an estimated total prove time (TPT) necessary to pass a predetermined repeatability requirement, wherein calculating the TPT comprises utilizing an uncertainty coverage factor; calculating an estimated minimum number of runs needed to achieve the calculated TPT. interfacing the diagnostic tool with a flowmeter sensor assembly; inputting a base prover volume (BPV) into the diagnostic tool; inputting a desired number of passes per run into the diagnostic tool; receiving flowmeter data; calculating an estimated total prove time (TPT) necessary to pass a predetermined repeatability requirement, wherein calculating the TPT comprises utilizing an uncertainty coverage factor; calculating an estimated minimum number of runs needed to achieve the calculated TPT.
A portable heating system, comprising: a lower regulator comprising a conductive material and defining a fuel cavity , the lower regulator , when at a temperature above about 3°C (38° F), is configured to vaporize a liquid fuel mixture of propane and butane received within the fuel cavity and emit only vaporized fuel from the lower regulator ; an upper regulator , wherein the emitted vaporized fuel travels from the lower regulator to the upper regulator ; and a circuit with a processor that controls and monitors the release of the liquid fuel mixture received within the fuel cavity from a fuel cartridge . a lower regulator comprising a conductive material and defining a fuel cavity , the lower regulator , when at a temperature above about 3°C (38° F), is configured to vaporize a liquid fuel mixture of propane and butane received within the fuel cavity and emit only vaporized fuel from the lower regulator ; an upper regulator , wherein the emitted vaporized fuel travels from the lower regulator to the upper regulator ; and a circuit with a processor that controls and monitors the release of the liquid fuel mixture received within the fuel cavity from a fuel cartridge .
Device for industrial automation, comprising a housing and a valve unit arranged in the housing , which valve unit is designed as a pneumatic proportional valve, as well as a display device arranged on the housing for displaying status information about the valve unit, characterized in that the device is adapted to provide, on the basis of a setpoint value associated with the valve unit and an actual value associated with the valve unit, a deviation value and to display, according to the deviation value, a deviation indicator on the display device , wherein - the deviation indicator comprises a bar , whose size depends on the deviation value, wherein the bar extends to the right or to the left depending on the sign of the deviation value, or - the deviation indicator comprises a set point graphic element and a deviation graphic element formed as a marker , wherein, if the actual value is less than the setpoint, the marker is displayed to the left of the setpoint graphic element and, if the actual value is greater than the setpoint, the marker is displayed to the right of the setpoint graphic element . - the deviation indicator comprises a bar , whose size depends on the deviation value, wherein the bar extends to the right or to the left depending on the sign of the deviation value, or - the deviation indicator comprises a set point graphic element and a deviation graphic element formed as a marker , wherein, if the actual value is less than the setpoint, the marker is displayed to the left of the setpoint graphic element and, if the actual value is greater than the setpoint, the marker is displayed to the right of the setpoint graphic element .
An angle width estimation device comprising: a beam forming unit configured to acquire one reception array signal of a reflected wave from a target to be observed, and form, from the one reception array signal, a plurality of null beams by applying null beam forming to the reception array signal, each null beam having a null width which is width of the null in an arrival direction of the reflected wave, the null widths of the plurality of null beams being different from each other; and an angle width estimating unit configured to compare powers of the plurality of null beams formed by the beam forming unit with each other, and to estimate a null width indicating an angle width of the reflected wave by determining, on a basis of a comparison result of the powers, one of the null widths of the plurality of null beams. a beam forming unit configured to acquire one reception array signal of a reflected wave from a target to be observed, and form, from the one reception array signal, a plurality of null beams by applying null beam forming to the reception array signal, each null beam having a null width which is width of the null in an arrival direction of the reflected wave, the null widths of the plurality of null beams being different from each other; and an angle width estimating unit configured to compare powers of the plurality of null beams formed by the beam forming unit with each other, and to estimate a null width indicating an angle width of the reflected wave by determining, on a basis of a comparison result of the powers, one of the null widths of the plurality of null beams.
Wire guiding element , for guiding a wire to be wound in a wire winding machine , or for feeding a solder wire in a soldering machine or a welding filler in the form of a wire in a welding machine, having an outer body , in which a passage is formed for a wire, wherein the outer body is at least in sections variable in its shape, such that the shape of the passage also changes herein, characterised in that , the outer body has a plurality of adjustment elements , which, under the effect of an electrical voltage, an electrical current or a magnetic field as a physical regulating variable, change their shape, in particular, change their volumes, and wherein the outer body has means to selectively load the individual adjustment elements with the physical regulating variable electrical voltage, electrical current or magnetic field.
A radio frequency power system comprising: a plurality of bias modules configured to generate respectively a plurality of direct current, DC, bias voltages, the outputs of the plurality of bias modules being combined to generate an envelope signal (V ENVELOPE ); a single switch (SW) configured to (i) receive current from each of the plurality of bias modules, and (ii) control flow of the current from each of the plurality of bias modules to generate a radio frequency bias voltage signal (V RFBIAS ) to a first matching network ; wherein the first matching network is configured to (i) receive the radio frequency bias voltage signal (V RFBIAS ), and (ii) based on the radio frequency bias voltage signal (V RFBIAS ), supply at least a portion of a radio frequency output voltage signal (V RFOUT ) to an electrode of a substrate support in a processing chamber ; and a control module connected to the switch (SW) and configured to control a state of the switch based on the radio frequency output voltage signal to shape a waveform of the radio frequency bias voltage signal (V RFBIAS ). a plurality of bias modules configured to generate respectively a plurality of direct current, DC, bias voltages, the outputs of the plurality of bias modules being combined to generate an envelope signal (V ENVELOPE ); a single switch (SW) configured to (i) receive current from each of the plurality of bias modules, and (ii) control flow of the current from each of the plurality of bias modules to generate a radio frequency bias voltage signal (V RFBIAS ) to a first matching network ; wherein the first matching network is configured to (i) receive the radio frequency bias voltage signal (V RFBIAS ), and (ii) based on the radio frequency bias voltage signal (V RFBIAS ), supply at least a portion of a radio frequency output voltage signal (V RFOUT ) to an electrode of a substrate support in a processing chamber ; and a control module connected to the switch (SW) and configured to control a state of the switch based on the radio frequency output voltage signal to shape a waveform of the radio frequency bias voltage signal (V RFBIAS ).
A hair cleansing composition comprising: a 1% to 50% by weight of one or more cleansing surfactants; b 0.1% to 5% by weight of a pressure sensitive adhesive, said pressure sensitive adhesive being a random copolymer comprising i An acrylic group having a side chain with at least 4 carbons; and ii A C 1 -C 6 side chain acrylic; and c 0.5% to 3% by weight of a silicone. a 1% to 50% by weight of one or more cleansing surfactants; b 0.1% to 5% by weight of a pressure sensitive adhesive, said pressure sensitive adhesive being a random copolymer comprising i An acrylic group having a side chain with at least 4 carbons; and ii A C 1 -C 6 side chain acrylic; and i An acrylic group having a side chain with at least 4 carbons; and ii A C 1 -C 6 side chain acrylic; and c 0.5% to 3% by weight of a silicone.
Thermally insulating spacer profile made of a plastics material, for facade and glass roof constructions, wherein the spacer profile comprises: a basic body extending in a longitudinal direction of the spacer profile with an outer contour which is substantially rectangular or trapezoid-shaped in a cross-section perpendicular to the longitudinal direction; wherein the basic body comprises a first transverse wall and a second transverse wall (152; 154) which are connected to one another by a single side wall element and are held at a pre-set spacing h; wherein the side wall element ends with a first end at a first edge region of the first transverse wall and with a second end at a first edge region of the second transverse wall ; wherein the side wall element forms a path for thermal conduction from the first transverse wall to the second transverse wall , said path having a length approximately 1.1 or more times the spacing h; and comprising a strip-like anchoring protrusion which is held on the first transverse wall and which extends from the basic body in a direction opposite to the second transverse wall ; wherein the spacer profile comprises, in cross-section, on at least one of the first and second transverse walls and/or on a portion of the side wall element , a profiling which is configured as a screw guide; characterized in that the anchoring protrusion comprises two substantially parallel wall portions. a basic body extending in a longitudinal direction of the spacer profile with an outer contour which is substantially rectangular or trapezoid-shaped in a cross-section perpendicular to the longitudinal direction; wherein the basic body comprises a first transverse wall and a second transverse wall (152; 154) which are connected to one another by a single side wall element and are held at a pre-set spacing h; wherein the side wall element ends with a first end at a first edge region of the first transverse wall and with a second end at a first edge region of the second transverse wall ; wherein the side wall element forms a path for thermal conduction from the first transverse wall to the second transverse wall , said path having a length approximately 1.1 or more times the spacing h; and comprising a strip-like anchoring protrusion which is held on the first transverse wall and which extends from the basic body in a direction opposite to the second transverse wall ; wherein the spacer profile comprises, in cross-section, on at least one of the first and second transverse walls and/or on a portion of the side wall element , a profiling which is configured as a screw guide; characterized in that the anchoring protrusion comprises two substantially parallel wall portions.
A method for producing a clad duct from a laminate having a first edge and a second opposed edge and comprising a rigid foam insulation panel bonded to a sheet of thermoplastic material , said method comprising the steps of removing material from the exposed side of said rigid foam insulation panel to produce at least first and second V-shaped, linear grooves having depths about equal to the thickness of the rigid foam insulation panel , heating a portion of the sheet of thermoplastic material in the vicinity of the bottom of said first V-shaped groove until that portion of the sheet becomes pliable, bending the sheet where the sides of the first V-shaped groove intersect until the V-shaped groove closes, cooling the sheet to or below a temperature at which the sheet retains its bent shape, repeating the heating, bending and cooling steps for the second V-shaped groove , and any additional V-shaped groove , and sealing the first edge and the second edge .
A method performed by a terminal in a communication system, the method comprising: receiving , in a connected mode, channel measurement configuration information from a base station; measuring , in an idle mode, channel information based on the channel measurement configuration information; identifying whether the measured channel information is affected by an interference between communication modules of the terminal; generating reporting information based on the measured channel information excluding channel information which is affected by the interference between communication modules of the terminal, wherein excluding the interference between communication modules of the terminal includes filtering the measured channel information through an L3 filtering process; and transmitting the generated reporting information to the base station. receiving , in a connected mode, channel measurement configuration information from a base station; measuring , in an idle mode, channel information based on the channel measurement configuration information; identifying whether the measured channel information is affected by an interference between communication modules of the terminal; generating reporting information based on the measured channel information excluding channel information which is affected by the interference between communication modules of the terminal, wherein excluding the interference between communication modules of the terminal includes filtering the measured channel information through an L3 filtering process; and transmitting the generated reporting information to the base station.
Method for operating a sensor for detecting at least one portion of a measurement gas component with bound oxygen in a measurement gas, in particular in an exhaust gas of an internal combustion engine, comprising a sensor element , wherein the sensor element has a first pump cell which has an outer pump electrode and an inner pump electrode and is present at a first cavity connected to the measurement gas, a reference cell which has a Nernst electrode and a reference electrode and is present at a reference gas space , and a second pump cell which has a pump electrode and a counter-electrode and is present at a second cavity , wherein the counter-electrode of the second pump cell is in the reference gas space , wherein an electronic control device , which has at least a first separate terminal (P1) for the first pump cell and a second separate terminal (P2) for the second pump cell , is connected to the sensor element , wherein the first pump cell is connected to the first separate terminal (P1) by means of an electrically conductive connection , wherein the second pump cell is connected to the second separate terminal (P2) by means of an electrically conductive connection , wherein a measurement resistor is provided in the electrically conductive connection which connects the second pump cell to the second separate terminal (P2), wherein the control device is used to carry out a current and/or voltage excitation of the second pump cell in order to generate a measurement signal at the measurement resistor , wherein a predetermined electrical voltage (U P2 ) is applied to the second pump cell , wherein a voltage excitation of the second pump cell is carried out, wherein the predetermined electrical voltage (U P2 ) is increased for a first predetermined time and the predetermined electrical voltage (U P2 ) is reduced for a second predetermined time , wherein an integral of the applied electrical voltage has a value of zero for the first predetermined time and the second predetermined time , wherein the electrically conductive connection which connects the second pump cell to the second separate terminal (P2) is identified as intact if the measurement signal has a value not equal to zero for the first predetermined time and the second predetermined time and is identified as defective if the measurement signal has a value of zero for the first predetermined time and the second predetermined time .
A manufacturing method of a copper bonded part in which a first copper member and a second copper member are bonded together, the first copper member and the second copper member being made of copper or a copper alloy, at least one of the first copper member and the second copper member including a copper porous body made of copper or a copper alloy, the manufacturing method comprising: a bonding material disposing step of disposing a bonding material between the first copper member and the second copper member; and a reduction sintering step of heating and holding the first copper member, the second copper member, and the bonding material in a reducing atmosphere in a range of 600°C or higher and 1,050°C or lower, wherein the bonding material contains a copper oxide or a mixture of metallic copper and the copper oxide in which a molar ratio between copper and oxygen is set to be in a range (Cu:O) of 1:0.3 to 1.0, and has at least one of copper oxide powder or metallic copper powder, an average particle diameter D of the copper oxide powder or the metallic copper powder is in a range of 0.05×Dp≤D≤2×Dp with respect to an average pore diameter Dp of the copper porous body, where the average particle diameter of the powder is defined as the 50% particle diameter measured using a laser diffraction and scattering-type particle size distribution instrument, and the average pore diameter, Dp is defined as Dp=4V/A, where A is the total pore specific surface area and V the total pore volume measured using a mercury penetration method, and a bonding layer made of metallic copper is formed between the first copper member and the second copper member. a bonding material disposing step of disposing a bonding material between the first copper member and the second copper member; and a reduction sintering step of heating and holding the first copper member, the second copper member, and the bonding material in a reducing atmosphere in a range of 600°C or higher and 1,050°C or lower, wherein the bonding material contains a copper oxide or a mixture of metallic copper and the copper oxide in which a molar ratio between copper and oxygen is set to be in a range (Cu:O) of 1:0.3 to 1.0, and has at least one of copper oxide powder or metallic copper powder, an average particle diameter D of the copper oxide powder or the metallic copper powder is in a range of 0.05×Dp≤D≤2×Dp with respect to an average pore diameter Dp of the copper porous body, where the average particle diameter of the powder is defined as the 50% particle diameter measured using a laser diffraction and scattering-type particle size distribution instrument, and the average pore diameter, Dp is defined as Dp=4V/A, where A is the total pore specific surface area and V the total pore volume measured using a mercury penetration method, and a bonding layer made of metallic copper is formed between the first copper member and the second copper member.
A cosmetic container, comprising: a discharge unit discharging cosmetics; a discharge plate provided at one side of the discharge unit, including at least one discharge hole through which the cosmetics pass, and exposed to an outside to allow a user's puff to contact; and a diffusion portion provided between the discharge unit and the discharge plate and including a diffusion space for delivering the cosmetics to the at least one discharge hole, wherein the diffusion portion comprises a close contact surface provided on an outer side of the diffusion space and making a close surface contact with the discharge plate to form sealing. a discharge unit discharging cosmetics; a discharge plate provided at one side of the discharge unit, including at least one discharge hole through which the cosmetics pass, and exposed to an outside to allow a user's puff to contact; and a diffusion portion provided between the discharge unit and the discharge plate and including a diffusion space for delivering the cosmetics to the at least one discharge hole, wherein the diffusion portion comprises a close contact surface provided on an outer side of the diffusion space and making a close surface contact with the discharge plate to form sealing.
A monoclonal antibody to KIR2DS1 or a fragment comprising an antigen-binding region thereof, which specifically binds to KIR2DS1 and does not cross-react with KIR2DL1, 2 and 3 and KIR2DS2, that includes: VL comprising an amino acid sequence of SEQ ID NO: 1 as CDR1, comprising an amino acid sequence of SEQ ID NO: 2 as CDR2, and comprising an amino acid sequence of SEQ ID NO: 3 as CDR3; and VH comprising an amino acid sequence of SEQ ID NO: 4 or SEQ ID NO: 5 as CDR1, comprising an amino acid sequence of SEQ ID NO: 6 as CDR2, and comprising an amino acid sequence of any one selected from the group consisting of SEQ ID NO: 7, SEQ ID NO: 8, and SEQ ID NO: 9 as CDR3. VL comprising an amino acid sequence of SEQ ID NO: 1 as CDR1, comprising an amino acid sequence of SEQ ID NO: 2 as CDR2, and comprising an amino acid sequence of SEQ ID NO: 3 as CDR3; and VH comprising an amino acid sequence of SEQ ID NO: 4 or SEQ ID NO: 5 as CDR1, comprising an amino acid sequence of SEQ ID NO: 6 as CDR2, and comprising an amino acid sequence of any one selected from the group consisting of SEQ ID NO: 7, SEQ ID NO: 8, and SEQ ID NO: 9 as CDR3.
A method of fabricating diamond semiconductors, the method including the steps of: selecting a diamond material having a diamond lattice; introducing boron acceptor dopant atoms of a concentration of between 5 x 10 8 /cm 2 and 5 x 10 10 /cm 2 to the diamond lattice by ion implantation, to create ion tracks; introducing phosphorous substitutional dopant atoms to the diamond lattice by ion implantation, through the ion tracks; and annealing the diamond lattice. selecting a diamond material having a diamond lattice; introducing boron acceptor dopant atoms of a concentration of between 5 x 10 8 /cm 2 and 5 x 10 10 /cm 2 to the diamond lattice by ion implantation, to create ion tracks; introducing phosphorous substitutional dopant atoms to the diamond lattice by ion implantation, through the ion tracks; and annealing the diamond lattice.