mhurhangee/patent-ind-claim-en huggingface dataset:
A shelf assembly for a refrigerator comprising a food compartment and a door configured to provide access to the food compartment, the food compartment comprising a rear wall and a pair of opposed side walls extending normal from the rear wall, the shelf assembly comprising: a frame including two opposed side arms and one middle support arm that are arranged in parallel and project normally from the rear wall; a first shelf portion comprising a first planar support surface that is arranged normal to the rear wall and the pair of opposed side walls; and a second shelf portion comprising a second planar support surface , the second shelf portion being slidably moveable relative to the first shelf portion between an extended position and a retracted position, wherein at the extended position, the second shelf portion is arranged relative to the first shelf portion such that the second planar support surface is substantially coplanar with the first planar support surface and the second planar support surface is located generally between the first planar support surface and one of the side walls , wherein at the retracted position, a majority of the second planar support surface is arranged subjacent to the first planar support surface , wherein the second shelf portion comprises a rear bearing member , and further comprising a rear track arranged substantially parallel to the rear wall and configured to guide the rear bearing member as the second shelf portion is slidably moved between the extended and retracted positions. a frame including two opposed side arms and one middle support arm that are arranged in parallel and project normally from the rear wall; a first shelf portion comprising a first planar support surface that is arranged normal to the rear wall and the pair of opposed side walls; and a second shelf portion comprising a second planar support surface , the second shelf portion being slidably moveable relative to the first shelf portion between an extended position and a retracted position, wherein at the extended position, the second shelf portion is arranged relative to the first shelf portion such that the second planar support surface is substantially coplanar with the first planar support surface and the second planar support surface is located generally between the first planar support surface and one of the side walls , wherein at the retracted position, a majority of the second planar support surface is arranged subjacent to the first planar support surface , wherein the second shelf portion comprises a rear bearing member , and further comprising a rear track arranged substantially parallel to the rear wall and configured to guide the rear bearing member as the second shelf portion is slidably moved between the extended and retracted positions.
Generator for an absorption machine comprising a frame defining an inner volume comprising a first zone comprising a desorber configured to receive a working solution comprising a refrigerant and an absorbent and intended for the production of refrigerant vapour, characterised in that the desorber comprises a falling film plate exchanger, and in that the frame comprises a second zone arranged above the first zone comprising an adiabatic rectifier comprising a plurality of adiabatic plates and intended for the removal of absorbent vapour traces in the refrigerant vapour produced in the first zone , the desorber and the rectifier are fluidically connected by superposition of the plurality of adiabatic plates and of falling film plates , the adiabatic plates and the falling film plates being arranged against one another, such that the falling film plates extend into a plane containing the directions x and y and the adiabatic plates extend into a plane containing the directions y and z.
Plug connector module for a modular industrial plug connector, wherein the plug connector module has a base body , a holding plate and at least one contact element , - wherein the at least one contact element has a contact region and a cable connection region and is held in the plug connector module by the holding plate , - wherein the base body has at least one opening for receiving the contact region of the at least one contact element and - wherein the holding plate has at least one opening for receiving the cable connection region of the at least one contact element , characterized in that the base body and the holding plate are reversibly latched to one another and in that the holding plate has securing lugs for securing the plug connector module in a holding frame for a modular industrial plug connector. - wherein the at least one contact element has a contact region and a cable connection region and is held in the plug connector module by the holding plate , - wherein the base body has at least one opening for receiving the contact region of the at least one contact element and - wherein the holding plate has at least one opening for receiving the cable connection region of the at least one contact element , the base body and the holding plate are reversibly latched to one another and in that the holding plate has securing lugs for securing the plug connector module in a holding frame for a modular industrial plug connector.
A flexographic printing plate comprising: a relief layer provided with a non-image area , and an image area having an uneven structure formed on a surface thereof, wherein a concave portion constituting the uneven structure is formed of a plurality of grooves having a fixed width extending in one direction, a depth of the concave portion is 2 to 20 μm, and each of the plurality of grooves is arranged in an orthogonal direction orthogonal to the one direction, characterized in that : the grooves have two or more kinds of widths. a relief layer provided with a non-image area , and an image area having an uneven structure formed on a surface thereof, wherein a concave portion constituting the uneven structure is formed of a plurality of grooves having a fixed width extending in one direction, a depth of the concave portion is 2 to 20 μm, and each of the plurality of grooves is arranged in an orthogonal direction orthogonal to the one direction, characterized in that : the grooves have two or more kinds of widths.
A MEMS microphone comprising a base structure ; a piezoelectric resonator body having a first end and a second end , the first end being fixedly supported by the base structure and the second end being free such that the piezoelectric resonator body is cantilevered from the base structure ; a first electrode connected to the piezoelectric resonator body ; a second electrode connected to the piezoelectric resonator body ; a controller including at least one circuit connected to the first and second electrodes and configured to drive the piezoelectric resonator body at a shear resonance frequency of the piezoelectric resonator body and to detect a difference in the shear resonance frequency from a baseline resonance frequency resulting from a sound pressure; wherein the piezoelectric resonator body is formed in a plane; and the controller is configured to drive the piezoelectric resonator body to resonate in the plane of the piezoelectric resonator body ; wherein the piezoelectric resonator body is configured such that the sound pressure deflects the piezoelectric resonator body at least partially out of the plane, causing the difference in the shear resonance frequency from the baseline resonance frequency; wherein an acoustic leak path is defined separating the second end of the piezoelectric resonator body from the base structure in the plane of the piezoelectric body; wherein the acoustic leak path is defined having an arcuate shape, and the acoustic leak path surrounds an arc of between 300 degrees and 350 degrees around the piezoelectric resonator body; wherein the first electrode is plated on a first side of the piezoelectric resonator body and the second electrode is plated on a second opposite side of the piezoelectric resonator body ; and wherein the first and second electrodes each include a circular electrode portion, and the circular electrode portion of the first electrode has a different surface area than the circular electrode portion of the second electrode .
Method for receiving and processing optical signals coming from an object , for example an extended object such as a missile, by means of an optical apparatus comprising an adaptive optical unit which compensates disturbances in the wavefronts of the optical signals that occur on account of refractive index variations in the air when passing through the atmosphere, wherein the adaptive optical unit contains at least one deformable mirror for compensating the atmospheric wavefront disturbances, disposed downstream of which there is a beam splitter from which a first light beam of the light beam coming from the deformable mirror reaches an observation device and from which a second light beam is output coupled and fed to at least one wavefront sensor for measuring the remaining disturbances of the wavefront, wherein the signals of the wavefront sensor are converted into control signals by means of an online computer and are fed to the deformable mirror and wherein the online computer is chosen in such a way that the measurement and correction of the wavefront disturbances are performed multiple times within the time period specified by the atmospheric time constant, characterized in that , within the time period specified by the atmospheric time constant, the image field of the optical apparatus is scanned by displacing the beam axis of the second light beam on the wavefront sensor in N successive time intervals and the wavefronts of the N individual images, respectively lying within the isoplanatic angle, are corrected and in that the corrected N individual images are initially buffer stored in the memory of a computer and subsequently stitched together to form an overall image by the computer .
An endoscope system comprising: an endoscope having a tip ; a circuit board , having a processing element and memory, positioned within said tip; at least two cameras positioned in said tip, wherein each of said two cameras is in electrical communication with the circuit board; a video controller external to said endoscope for concurrently controlling the at least two cameras, wherein the video controller is configured to generate a plurality of signals specific to each of the at least two cameras and a plurality of shared signals which are not specific to each of the at least two cameras; and a cable for electrically connecting the video controller and circuit board, wherein the circuit board is adapted to process at least one of the plurality of shared signals, using said processing element, to generate signals specific to each of the at least two cameras; wherein at least one of the plurality of shared signals includes synchronization signals for the at least two cameras and/or wherein at least one of the plurality of shared signals includes clock signals for the at least two cameras. an endoscope having a tip ; a circuit board , having a processing element and memory, positioned within said tip; at least two cameras positioned in said tip, wherein each of said two cameras is in electrical communication with the circuit board; a video controller external to said endoscope for concurrently controlling the at least two cameras, wherein the video controller is configured to generate a plurality of signals specific to each of the at least two cameras and a plurality of shared signals which are not specific to each of the at least two cameras; and a cable for electrically connecting the video controller and circuit board, wherein the circuit board is adapted to process at least one of the plurality of shared signals, using said processing element, to generate signals specific to each of the at least two cameras; wherein at least one of the plurality of shared signals includes synchronization signals for the at least two cameras and/or wherein at least one of the plurality of shared signals includes clock signals for the at least two cameras.
A button assembly configured to be mounted to a substrate, the button assembly comprising: a chassis attachable to the substrate; a movable button; one or more button sensors operable to sense the movable button; and one or more biasing assembly; wherein the one or more biasing assembly is arranged to bias the movable button towards a predetermined position and characterised in that the chassis comprises a base and a flange to constrain the movable button and the flange is releasably attached to the base to mount the movable button removably relative to the chassis.
A vehicle comprising, a vehicular component comprising an illumination device installed on a roof part of the vehicle and configured to cover an interior space of the vehicle from above, characterised in that the illumination device includes a light source unit and a plurality of light emitting units , wherein the light emitting units are configured to emit light toward the outside of the vehicle by light emitted from the light source unit and are provided along an outer peripheral edge of the roof part in a top view of the vehicle, wherein the vehicle is capable of travelling in an automatic driving mode, and wherein the vehicle is configured such that the light emitting units are turned on during the automatic driving mode, wherein the light emitting units of the illumination device are provided above any light emitting unit of a headlamp, a brake lamp and a turn signal lamp, wherein in a top view of the vehicle, the light source unit is provided on the center of the roof part with respect to the light emitting units , wherein a light guide member is provided between the light source unit and each of the light emitting units wherein the light guide member guides the light emitted from the light source unit to each of the light emitting units , and wherein the light guide member is configured by an optical fiber or a plurality of optical fibers . a vehicular component comprising an illumination device installed on a roof part of the vehicle and configured to cover an interior space of the vehicle from above, characterised in that the illumination device includes a light source unit and a plurality of light emitting units , wherein the light emitting units are configured to emit light toward the outside of the vehicle by light emitted from the light source unit and are provided along an outer peripheral edge of the roof part in a top view of the vehicle, wherein the vehicle is capable of travelling in an automatic driving mode, and wherein the vehicle is configured such that the light emitting units are turned on during the automatic driving mode, wherein the light emitting units of the illumination device are provided above any light emitting unit of a headlamp, a brake lamp and a turn signal lamp, wherein in a top view of the vehicle, the light source unit is provided on the center of the roof part with respect to the light emitting units , wherein a light guide member is provided between the light source unit and each of the light emitting units wherein the light guide member guides the light emitted from the light source unit to each of the light emitting units , and wherein the light guide member is configured by an optical fiber or a plurality of optical fibers .
A silicon photomultiplier array comprising: a plurality of microcells each configured to provide a pulse output in response to an incident radiation, each microcell including circuitry configured to enable and disable the pulse output; a row counter connected to a predefined row among the plurality of microcells, and configured to count a latch signal output of each microcell of the predefined row; a pixel controller connected to the row counter, the pixel controller configured to provide a signal to a control logic circuit of each of the plurality of microcells; and the row counter configured to provide a dark count high indication signal to the pixel controller ; each of the plurality of microcells including a cell disable switch and a self-test circuit ; and wherein the pulse output is disabled when the cell disable switch is in a first state. a plurality of microcells each configured to provide a pulse output in response to an incident radiation, each microcell including circuitry configured to enable and disable the pulse output; a row counter connected to a predefined row among the plurality of microcells, and configured to count a latch signal output of each microcell of the predefined row; a pixel controller connected to the row counter, the pixel controller configured to provide a signal to a control logic circuit of each of the plurality of microcells; and the row counter configured to provide a dark count high indication signal to the pixel controller ; each of the plurality of microcells including a cell disable switch and a self-test circuit ; and wherein the pulse output is disabled when the cell disable switch is in a first state.
A cell capture system for receiving a fluid sample, the system comprising: (a) a cup comprising: (i) an upper portion , (ii) a ring having a periphery, wherein the upper portion is separably coupled to the ring by a frangible connection comprising a circumferential groove that defines a parting plane between the upper portion and the ring so that the upper portion can be separated from the ring upon application of torque sufficient to break the frangible connection, and (iii) a fluid permeable membrane attached to the periphery to produce a fluidic seal between the membrane and the ring, wherein a portion of the membrane is adapted to retain cells thereon; and (b) a base comprising a cylindrical wall configured to receive the ring. (a) a cup comprising: (i) an upper portion , (ii) a ring having a periphery, wherein the upper portion is separably coupled to the ring by a frangible connection comprising a circumferential groove that defines a parting plane between the upper portion and the ring so that the upper portion can be separated from the ring upon application of torque sufficient to break the frangible connection, and (iii) a fluid permeable membrane attached to the periphery to produce a fluidic seal between the membrane and the ring, wherein a portion of the membrane is adapted to retain cells thereon; and (i) an upper portion , (ii) a ring having a periphery, wherein the upper portion is separably coupled to the ring by a frangible connection comprising a circumferential groove that defines a parting plane between the upper portion and the ring so that the upper portion can be separated from the ring upon application of torque sufficient to break the frangible connection, and (iii) a fluid permeable membrane attached to the periphery to produce a fluidic seal between the membrane and the ring, wherein a portion of the membrane is adapted to retain cells thereon; and (b) a base comprising a cylindrical wall configured to receive the ring.
A retaining pin (100; 200), comprising: a retaining flange (120; 220) comprising a flange body (125; 225) having a top surface and a first end opposite a second end; an anti-rotation void (127; 227) defining a void through the flange body (125; 225) proximate the second end, wherein the anti-rotation void (127; 227) comprises an opening (128; 228) on an outer edge of the retaining flange (120; 220); a first arm (130; 230) defining a first circumferential edge of the anti-rotation void (127; 227) proximate the second end, the first arm (130; 230) comprising a first finger (135; 235) extending in a direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); a second arm (140; 240) defining a second circumferential edge of the anti-rotation void (127; 227) proximate the first end, the second arm (140; 240) comprising a second finger (145; 245) extending in the first direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); and a pin shaft coupled to the first end of the flange body (125; 225). a retaining flange (120; 220) comprising a flange body (125; 225) having a top surface and a first end opposite a second end; an anti-rotation void (127; 227) defining a void through the flange body (125; 225) proximate the second end, wherein the anti-rotation void (127; 227) comprises an opening (128; 228) on an outer edge of the retaining flange (120; 220); a first arm (130; 230) defining a first circumferential edge of the anti-rotation void (127; 227) proximate the second end, the first arm (130; 230) comprising a first finger (135; 235) extending in a direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); a second arm (140; 240) defining a second circumferential edge of the anti-rotation void (127; 227) proximate the first end, the second arm (140; 240) comprising a second finger (145; 245) extending in the first direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); and a pin shaft coupled to the first end of the flange body (125; 225).
An ultrapure synthetic amorphous carbon material comprising a total impurity content of less than 500 ppm of elements having atomic numbers ranging from 11 to 92 as measured by proton induced x-ray emission or wherein the total impurity content is less than 300 ppm, or preferably less than 200 ppm or more preferably less than 100 ppm, wherein the carbon material comprises a BET specific surface area of at least 1000 m 2 /g.
A medical device at least partially formed of a metal alloy which improves the strength and ductility of the medical device, said metal alloy consisting of rhenium, molybdenum, carbon, oxygen, nitrogen, less than 5 weight percent other metal and/or impurities, a content of said rhenium plus molybdenum constituting at least 95 weight percent of said metal alloy, said rhenium constituting at least 40 weight percent of said metal alloy, said molybdenum constituting at least 40 weight percent of said metal alloy, said metal alloy having a nitrogen content of less than 30 ppm, said metal alloy having a carbon content of up to 200 ppm, said metal alloy having an oxygen content of up to 100 ppm, said metal alloy having a carbon to oxygen atomic ratio of at least 2:1, said metal alloy having a carbon to oxygen atomic ratio of no more than 50:1, at least one region of said medical device including at least one of biological agent, polymer, micro-structure as defined in the description; said other metal including one or more metals selected from the group consisting of calcium, chromium, cobalt, copper, gold, iron, lead, magnesium, nickel, niobium, platinum, rare earth metals, silver, tantalum, titanium, tungsten, yttrium, zinc, and zirconium, wherein the combined content of titanium, yttrium and zirconium, if present, is ≤1 weight percent.