mhurhangee/patent-ind-claim-en huggingface dataset:
A draining valve for draining the condensate of a condensation boiler, the valve extending along an axis (A) and comprising a body valve ; a condensate feeding inlet and a condensate draining outlet on opposite sides of the body valve along the axis (A); a floating shutter housed inside the body valve and comprising a first face facing the feeding inlet and a second face facing the draining outlet ; the floating shutter being selectively movable relative to the body valve along the axis (A) between: - a first raised position in which the floating shutter is raised by the floating force generated by the condensate against the second face and opens a main draining channel; and - a second lowered position in which the floating shutter is lowered in abutment against the draining outlet for closing the main draining channel; characterised in that the floating shutter is also configured for selectively opening a secondary draining channel when in the second lowered position a force higher than a predetermined value acts on the first face . - a first raised position in which the floating shutter is raised by the floating force generated by the condensate against the second face and opens a main draining channel; and - a second lowered position in which the floating shutter is lowered in abutment against the draining outlet for closing the main draining channel;
A polyamide resin composition comprising 100 parts by mass of a polyamide resin (A), which is selected from the group consisting of nylon 6, nylon 66, nylon 46, nylon 410, nylon 610, nylon 1010, nylon 56, nylon 6T/66, nylon 6T/6I, nylon 6T/12, nylon 6T/5T, nylon 6T/M5T, nylon 6T/6, nylon 5T/10T, nylon 9T, nylon 10T and nylon 12T and having a melting point of 170°C to 330°C, and 0.1 part by mass or more and 10 parts by mass or less of an ammonium salt (B) represented by the chemical formula (R(COO - ) 2 ·(NH 4 + ) 2 ), wherein R represents a C 4-10 divalent aliphatic group, wherein said polyamide resin (A) has a relative viscosity (ηr) as measured at 25°C is in the range of 1.5 to 8.0 in a 98% concentrated sulfuric acid solution having a resin concentration of 0.01 g/ml, wherein said polyamide resin (A) has an amide group concentration of 7.0 mmol/g or more and 10.0 mmol/g or less, wherein the amide group concentration is measured by the method of the description, wherein said polyamide resin composition has a sea-island structure in which the sea phase is constituted by said polyamide resin (A) alone, and the island phase is constituted by said ammonium salt (B) alone, and wherein said island phase has an average diameter of 5 nm or more and 100 nm or less, wherein the island phase average diameter is measured by the method of the description.
A display device , comprising: a display panel ; a module cover coupled with the display panel , the module cover positioned at a rear of the display panel ; a rear cover configured to be slidably coupled to the module cover , the rear cover positioned at a rear of the module cover ; a mold portion coupled with one of the module cover and the rear cover ; and a coupling portion coupled with another of the module cover and the rear cover , the coupling portion corresponding to the mold portion , wherein the display device includes a first long side (LS1), a second long side (LS2) opposite the first long side (LS1), a first short side (SS1) adjacent to the first and the second long sides (LS1, LS2), and a second short side (SS2) opposite the first short side (SSI); characterized in that the mold portion is configured to be slidably coupled to the coupling portion by being slid in a direction (DR2) parallel to the short sides (SS1, SS2) of the display device and extending between the long sides (LS1, LS2) for slidably coupling the rear cover to the module cover. a display panel ; a module cover coupled with the display panel , the module cover positioned at a rear of the display panel ; a rear cover configured to be slidably coupled to the module cover , the rear cover positioned at a rear of the module cover ; a mold portion coupled with one of the module cover and the rear cover ; and a coupling portion coupled with another of the module cover and the rear cover , the coupling portion corresponding to the mold portion , wherein the display device includes a first long side (LS1), a second long side (LS2) opposite the first long side (LS1), a first short side (SS1) adjacent to the first and the second long sides (LS1, LS2), and a second short side (SS2) opposite the first short side (SSI); characterized in that the mold portion is configured to be slidably coupled to the coupling portion by being slid in a direction (DR2) parallel to the short sides (SS1, SS2) of the display device and extending between the long sides (LS1, LS2) for slidably coupling the rear cover to the module cover.
An RF switch comprising: a plurality of series-coupled RF switch cells coupled between a first RF input (RF 1 ) and a second RF input (RF2), each RF switch cell having an input; and a biasing network having a plurality of outputs configured for individually biasing each of the RF switch cell inputs to a distinct bias voltage based upon a rank number of the RF switch cell; wherein each RF switch cell of the plurality of series-coupled RF switch cells comprises a transistor (T 1 -T N ) having a control node forming the input of the RF switch cell; wherein the distinct bias voltages range from a first voltage associated with a first RF switch cell of the plurality of series-coupled RF switch cells to a second voltage associated with an intermediate RF switch cell of the plurality of series-coupled RF switch cells and different from the first voltage, and from a third voltage associated with a last RF switch cell of the plurality of series-coupled RF switch cells and different from the second voltage to the second voltage associated with the intermediate RF switch cell; characterized in that : the biasing network is adapted to supply the transistors of the first RF switch cell or the transistors of the last RF switch cell with a high negative bias voltage and the transistor of the intermediate RF switch cell with a low negative bias voltage. a plurality of series-coupled RF switch cells coupled between a first RF input (RF 1 ) and a second RF input (RF2), each RF switch cell having an input; and a biasing network having a plurality of outputs configured for individually biasing each of the RF switch cell inputs to a distinct bias voltage based upon a rank number of the RF switch cell; wherein each RF switch cell of the plurality of series-coupled RF switch cells comprises a transistor (T 1 -T N ) having a control node forming the input of the RF switch cell; wherein the distinct bias voltages range from a first voltage associated with a first RF switch cell of the plurality of series-coupled RF switch cells to a second voltage associated with an intermediate RF switch cell of the plurality of series-coupled RF switch cells and different from the first voltage, and from a third voltage associated with a last RF switch cell of the plurality of series-coupled RF switch cells and different from the second voltage to the second voltage associated with the intermediate RF switch cell; characterized in that : the biasing network is adapted to supply the transistors of the first RF switch cell or the transistors of the last RF switch cell with a high negative bias voltage and the transistor of the intermediate RF switch cell with a low negative bias voltage.
A consumable for a smoking substitute device , comprising: a heating device , for heating a vapourisable liquid; an electrical contact , for connecting to a power supply terminal of the smoking substitute device to the heating device; characterized in that a boss is located adjacent to the electrical contact; wherein the boss resists physical deformation of the electrical contact when it is connected to the power supply terminal of the smoking substitute device. a heating device , for heating a vapourisable liquid; an electrical contact , for connecting to a power supply terminal of the smoking substitute device to the heating device; characterized in that a boss is located adjacent to the electrical contact; wherein the boss resists physical deformation of the electrical contact when it is connected to the power supply terminal of the smoking substitute device.
Dismantlable device for transporting material, comprising a lower wall which has a lower frame , a lower plate , and releasable securing means for releasably securing said lower frame to said lower plate , said device also comprising an upper wall which has an upper frame , an upper plate , and releasable securing means for releasably securing said upper frame to said upper plate , said device also comprising lateral walls (4; 4') which each have a lateral frame (40; 40'), a lateral plate (41; 41'), and releasable securing means (42; 42') for releasably securing such a lateral frame (40; 40') to such a lateral plate (41; 41'), said device also comprising longitudinal walls (5; 5') which each have a longitudinal frame (50; 50') and of which at least one comprises at least one sectional door (6; 6A) that is movable between a closed position and an open position of the transport device , characterized in that the releasable securing means (22; 32; 42, 42') comprise at least one through-opening belonging to the lower , upper , or lateral (40; 40') frame, as applicable, said securing means comprise least one threaded insert belonging to the lower , upper , or lateral (41; 41') plate, as applicable, and said securing means comprise at least one screw which passes through such a through-opening and which interacts with such a threaded insert .
An energy absorber , comprising: an intermediate portion interconnecting a first end and a second end , the intermediate portion and the first and second ends being on the same plane, the intermediate portion including curved portions (212-215; 312-315) configured and arranged to deform and begin to straighten when subjected to a pre-determined load to absorb energy from the pre-determined load; at least one first protrusion and at least one first notch in opposing portions of the first end and the intermediate portion; at least one second protrusion and at least one second notch in opposing portions of the second end and the intermediate portion; and wherein the first and second notches are configured and arranged to receive the respective first and second protrusions to prevent material from getting caught in the energy absorber, wherein the first and second protrusions move out of the respective first and second notches without deforming when subjected to the predetermined load and the first and second ends are pulled apart, and wherein the first and second protrusions simply move out of the respective first and second notches as the first and second ends are pulled apart. an intermediate portion interconnecting a first end and a second end , the intermediate portion and the first and second ends being on the same plane, the intermediate portion including curved portions (212-215; 312-315) configured and arranged to deform and begin to straighten when subjected to a pre-determined load to absorb energy from the pre-determined load; at least one first protrusion and at least one first notch in opposing portions of the first end and the intermediate portion; at least one second protrusion and at least one second notch in opposing portions of the second end and the intermediate portion; and wherein the first and second notches are configured and arranged to receive the respective first and second protrusions to prevent material from getting caught in the energy absorber, wherein the first and second protrusions move out of the respective first and second notches without deforming when subjected to the predetermined load and the first and second ends are pulled apart, and wherein the first and second protrusions simply move out of the respective first and second notches as the first and second ends are pulled apart.
A method performed by a skin imaging apparatus, comprising: determining at least one attribute associated with each of a plurality of skin features included in an image of skin; cropping the image of skin to generate a plurality of tile images, wherein one tile image is generated for each of the plurality of skin features, to isolate each skin feature from the other skin features; arranging the tile images in accordance with the at least one attribute associated with each of the plurality of skin features; and controlling a display device to display the arranged tile images of the plurality of skin features arranged in positions relative to each other in accordance with the at least one attribute, characterised in that , the at least one attribute includes at least one of a size, shape, color, pathological significance, pathological classification, or a change or a rate of change in the at least one attribute. determining at least one attribute associated with each of a plurality of skin features included in an image of skin; cropping the image of skin to generate a plurality of tile images, wherein one tile image is generated for each of the plurality of skin features, to isolate each skin feature from the other skin features; arranging the tile images in accordance with the at least one attribute associated with each of the plurality of skin features; and controlling a display device to display the arranged tile images of the plurality of skin features arranged in positions relative to each other in accordance with the at least one attribute, characterised in that , the at least one attribute includes at least one of a size, shape, color, pathological significance, pathological classification, or a change or a rate of change in the at least one attribute.
A battery charging apparatus, comprising: a battery unit which is chargeable; a battery charging unit for charging the battery unit; an interface unit arranged to communicate with the battery unit to receive information about the battery unit, said information comprising: a charge allowance capacity of the battery unit, a preset charge voltage, a preset charge current, and a preset charge capacity; and a controller arranged to control the interface unit to request said information from the battery unit; characterized in that the controller is further arranged to: adjust the preset charge voltage and the preset charge current of the battery unit, based on the received charge allowance capacity of the battery, when the charge allowance capacity received through the interface unit is a predetermined value or less; and control the battery charging unit to output the adjusted charge voltage and the adjusted charge current to charge the battery unit, wherein the controller is arranged to adjust the preset charge voltage by dropping the preset charge voltage of the battery unit to a predetermined value based on a difference between the preset charge capacity and the charge allowance capacity of the battery unit. a battery unit which is chargeable; a battery charging unit for charging the battery unit; an interface unit arranged to communicate with the battery unit to receive information about the battery unit, said information comprising: a charge allowance capacity of the battery unit, a preset charge voltage, a preset charge current, and a preset charge capacity; and a controller arranged to control the interface unit to request said information from the battery unit; characterized in that the controller is further arranged to: adjust the preset charge voltage and the preset charge current of the battery unit, based on the received charge allowance capacity of the battery, when the charge allowance capacity received through the interface unit is a predetermined value or less; and control the battery charging unit to output the adjusted charge voltage and the adjusted charge current to charge the battery unit, wherein the controller is arranged to adjust the preset charge voltage by dropping the preset charge voltage of the battery unit to a predetermined value based on a difference between the preset charge capacity and the charge allowance capacity of the battery unit. adjust the preset charge voltage and the preset charge current of the battery unit, based on the received charge allowance capacity of the battery, when the charge allowance capacity received through the interface unit is a predetermined value or less; and control the battery charging unit to output the adjusted charge voltage and the adjusted charge current to charge the battery unit, wherein the controller is arranged to adjust the preset charge voltage by dropping the preset charge voltage of the battery unit to a predetermined value based on a difference between the preset charge capacity and the charge allowance capacity of the battery unit.
A mass spectrometer having one or more ion transport optical systems (8-13) for transporting ions by an effect of an electric field between an ion source and an ion detector , the mass spectrometer being capable of performing an SIM or MRM measurement in which an operation of sequentially performing a mass spectrometry on each of a plurality of ions having previously specified mass-to-charge ratios is cyclically performed, and the mass spectrometer comprising: a) a voltage generator (21-26) for applying a direct-current voltage corresponding to the mass-to-charge of an ion to be monitored, to at least one of the ion transport optical systems (8-13) in the SIM or MRM measurement; characterized in that the mass spectrometer further comprises: b) a controller arranged to control the voltage generator (21-26) so that, in a pause time during which collection of detection data by the ion detector is suspended in conjunction with a switching of the mass-to-charge ratio of the ion to be monitored, if a polarity of the ion to be monitored in an SIM or MRM measurement is unchanged before and after the switching of the mass-to-charge ratio, then the direct-current voltage applied to the at least one ion transport optical system (8-13), while being switched from one specific level to another specific level in the pause time, is temporarily changed to either a level at which the direct-current voltage has a polarity different from the polarity of the direct-current voltage at those specific levels , or a level at which the direct-current voltage has the same polarity as the direct-current voltage at those specific levels yet has a smaller absolute value than the direct-current voltage at any of those specific levels . a) a voltage generator (21-26) for applying a direct-current voltage corresponding to the mass-to-charge of an ion to be monitored, to at least one of the ion transport optical systems (8-13) in the SIM or MRM measurement;
Method for producing a setting for crimping an object (O) on a surface of a non-ductile substrate , said setting comprising a girdle forming a bearing seat for one said object (O) and a plurality of deformable claws distributed on the periphery of the girdle and having a length such that a free end at least of each claw can be folded against the object (O) once the latter sits in the girdle , characterized in that it comprises the following steps: - metallization of at least a portion of the surface of said substrate on which the setting has to be formed; - production of the girdle of the setting in the portion of surface of the substrate previously metallized; - production of the claws by deposition of the metal wires on the portion of surface of the substrate previously metallized at the periphery of the girdle . - metallization of at least a portion of the surface of said substrate on which the setting has to be formed; - production of the girdle of the setting in the portion of surface of the substrate previously metallized; - production of the claws by deposition of the metal wires on the portion of surface of the substrate previously metallized at the periphery of the girdle .
A scanner providing a reading frequency different from an aiming frequency, comprising: an aimer (222.1) configured to provide aiming light having the aiming frequency to support aiming of the scanner at a machine-readable symbol, MRS ; an illuminator (222.2) configured to provide reading light, comprising a first plurality of frequencies, which illuminates the MRS to support optical reading of the MRS , wherein the first plurality of frequencies comprises at least the reading frequency; and an imaging sensor having an optical filter configured to receive reflected light from the MRS , wherein the reflected light includes a reflected aiming light and a reflected reading light, wherein the optical filter is configured to block the reflected aiming light of the aiming frequency, the imaging sensor being configured to: receive the reflected light from the MRS , and convert the reflected light to an electrical signal suitable for signal processing by the scanner ; characterized in that the scanner comprises an illuminator filter (320.2) integrated in the illuminator (222.2) that is configured to block the aiming frequency in the reading light provided by the illuminator (222.2). an aimer (222.1) configured to provide aiming light having the aiming frequency to support aiming of the scanner at a machine-readable symbol, MRS ; an illuminator (222.2) configured to provide reading light, comprising a first plurality of frequencies, which illuminates the MRS to support optical reading of the MRS , wherein the first plurality of frequencies comprises at least the reading frequency; and an imaging sensor having an optical filter configured to receive reflected light from the MRS , wherein the reflected light includes a reflected aiming light and a reflected reading light, wherein the optical filter is configured to block the reflected aiming light of the aiming frequency, the imaging sensor being configured to: receive the reflected light from the MRS , and convert the reflected light to an electrical signal suitable for signal processing by the scanner ; characterized in that the scanner comprises an illuminator filter (320.2) integrated in the illuminator (222.2) that is configured to block the aiming frequency in the reading light provided by the illuminator (222.2). receive the reflected light from the MRS , and convert the reflected light to an electrical signal suitable for signal processing by the scanner ; characterized in that the scanner comprises an illuminator filter (320.2) integrated in the illuminator (222.2) that is configured to block the aiming frequency in the reading light provided by the illuminator (222.2).