mhurhangee/ep-ind-claims huggingface dataset:
A dental appliance system, comprising: a first appliance (707-1, 807-1) of a series of appliances of a treatment plan, comprising a first shell having a plurality of cavities (607-1, 1107-1) therein and each cavity configured to receive at least one tooth of a first jaw and having a first number of bite adjustment structures (606-1, 706-1, 806-1, 1106-1) formed as part of the first shell, the first number of bite adjustment structures extending from a lingual surface of at least one of the plurality of cavities of an upper canine, wherein the first number of bite adjustment structures have a first shape and location specific to a first stage of the treatment plan; and a second appliance (707-2, 807-2) of the series of appliances, comprising a second shell having a plurality of cavities (607-2, 1107-2) therein and each cavity configured to receive at least one tooth of a second jaw and having a second number of bite adjustment structures (606-2, 1107-2) formed as part of the second shell, the second number of bite adjustment structures extending from at least one of the plurality of cavities and designed to make contact with the first number of bite adjustment structures, wherein the second number of bite adjustment structures includes a bite adjustment structure (606-2, 706-2, 806-2, 1106-2) that extends between a distal surface of a first cavity and a mesial surface of an adjacent cavity, wherein the second number of bite adjustment structures each have minimal contact with the front and back surfaces of the first and adjacent cavities. a first appliance (707-1, 807-1) of a series of appliances of a treatment plan, comprising a first shell having a plurality of cavities (607-1, 1107-1) therein and each cavity configured to receive at least one tooth of a first jaw and having a first number of bite adjustment structures (606-1, 706-1, 806-1, 1106-1) formed as part of the first shell, the first number of bite adjustment structures extending from a lingual surface of at least one of the plurality of cavities of an upper canine, wherein the first number of bite adjustment structures have a first shape and location specific to a first stage of the treatment plan; and a second appliance (707-2, 807-2) of the series of appliances, comprising a second shell having a plurality of cavities (607-2, 1107-2) therein and each cavity configured to receive at least one tooth of a second jaw and having a second number of bite adjustment structures (606-2, 1107-2) formed as part of the second shell, the second number of bite adjustment structures extending from at least one of the plurality of cavities and designed to make contact with the first number of bite adjustment structures, wherein the second number of bite adjustment structures includes a bite adjustment structure (606-2, 706-2, 806-2, 1106-2) that extends between a distal surface of a first cavity and a mesial surface of an adjacent cavity, wherein the second number of bite adjustment structures each have minimal contact with the front and back surfaces of the first and adjacent cavities.
A high-lift system of an aircraft having at least one drive unit, having at least one load station as well as having one or more transmissions for transmitting the drive energy of the drive unit to the at least one load station, characterized in that one or more of the transmissions are made as transmission shafts which consist of a material containing titanium or comprise a material containing titanium, wherein the material has a Young's modulus in the range of 100 to 120 GPa and/or a shear modulus in the range from 39 GPa to 42 GPa, wherein the transmission shaft is in communication with two connector elements (2, 3), and wherein one connector element consists of flanges for a releasable connection and the other connector element consists of external teeth.
An antibody or antigen-binding fragment thereof that specifically binds human LAG3 comprising: a light chain immunoglobulin comprising an amino acid sequence set forth in SEQ ID NO: 2, and a heavy chain immunoglobulin comprising an amino acid sequence set forth in SEQ ID NO: 1, wherein x 1 =E, X 2 =G and X 3 =L; or Xi=Q, X 2 =M and X 3 =M; or X 1 =E, X 2 =A and X 3 =L; or X 1 =E, X 2 =M and X 3 =L. a light chain immunoglobulin comprising an amino acid sequence set forth in SEQ ID NO: 2, and a heavy chain immunoglobulin comprising an amino acid sequence set forth in SEQ ID NO: 1, wherein x 1 =E, X 2 =G and X 3 =L; or Xi=Q, X 2 =M and X 3 =M; or X 1 =E, X 2 =A and X 3 =L; or X 1 =E, X 2 =M and X 3 =L.
A wavelength-converting nonlinear hybrid waveguide comprising: a nonlinear crystal substrate; a layer of laser-fabricated damage tracks in the nonlinear crystal substrate, wherein the laser-fabricated damage tracks have a crystalline structure different from an undamaged crystalline structure of the nonlinear crystal substrate; at least one laser-fabricated ridge region on a top surface of the nonlinear crystal substrate, the at least one laser-fabricated ridge region being configured to allow formation of an optical mode, the optical mode substantially delimited by said at least one laser-fabricated ridge region and the layer of damage tracks; and a dielectric layer on a top surface of the nonlinear crystal substrate. a nonlinear crystal substrate; a layer of laser-fabricated damage tracks in the nonlinear crystal substrate, wherein the laser-fabricated damage tracks have a crystalline structure different from an undamaged crystalline structure of the nonlinear crystal substrate; at least one laser-fabricated ridge region on a top surface of the nonlinear crystal substrate, the at least one laser-fabricated ridge region being configured to allow formation of an optical mode, the optical mode substantially delimited by said at least one laser-fabricated ridge region and the layer of damage tracks; and a dielectric layer on a top surface of the nonlinear crystal substrate.
A device comprising one or more processors configured to: a) obtain, via one or more sensors, a signal related to a heart rhythm of a subject and a signal related to a glucose level of interstitial fluid of the subject; b) analyze changes in heart rate variability of the subject based on the heart rhythm signal; c) analyze changes in the glucose level of the interstitial fluid based on the interstitial glucose level signal; and d) predict, for a physiological condition of the subject for which the glucose level of the interstitial fluid is a surrogate measurement, whether there is a change in the physiological condition of the subject during a time period, wherein the predicition is based on the changes in the heart rate variability and the changes in the glucose level of the interstitial fluid. a) obtain, via one or more sensors, a signal related to a heart rhythm of a subject and a signal related to a glucose level of interstitial fluid of the subject; b) analyze changes in heart rate variability of the subject based on the heart rhythm signal; c) analyze changes in the glucose level of the interstitial fluid based on the interstitial glucose level signal; and d) predict, for a physiological condition of the subject for which the glucose level of the interstitial fluid is a surrogate measurement, whether there is a change in the physiological condition of the subject during a time period, wherein the predicition is based on the changes in the heart rate variability and the changes in the glucose level of the interstitial fluid.
A heating element comprising: an adhesive film prepared using a composition for the adhesive film including an adhesive resin, an initiator, a crosslinking agent and an ultraviolet curable compound; and a conductive heating pattern provided on the adhesive film, wherein the adhesive film is configured to perform an adhesive strength decrement of 30% or greater in response to an external stimulus based on adhesive strength before the external stimulus, wherein the external stimulus is ultraviolet radiation, wherein the ultraviolet curable compound is included in a side chain of the adhesive resin by substituting 5 to 90 mol% of a crosslinking functional group of the adhesive resin, wherein the adhesive strength is determined by: - forming a metal film having a width of 25 mm on the adhesive film; - measuring a force required to peel off the adhesive film from the metal film to an angle of 180° at a rate of 300 mm/s and at room temperature. an adhesive film prepared using a composition for the adhesive film including an adhesive resin, an initiator, a crosslinking agent and an ultraviolet curable compound; and a conductive heating pattern provided on the adhesive film, wherein the adhesive film is configured to perform an adhesive strength decrement of 30% or greater in response to an external stimulus based on adhesive strength before the external stimulus, wherein the external stimulus is ultraviolet radiation, wherein the ultraviolet curable compound is included in a side chain of the adhesive resin by substituting 5 to 90 mol% of a crosslinking functional group of the adhesive resin, wherein the adhesive strength is determined by: - forming a metal film having a width of 25 mm on the adhesive film; - measuring a force required to peel off the adhesive film from the metal film to an angle of 180° at a rate of 300 mm/s and at room temperature. - forming a metal film having a width of 25 mm on the adhesive film; - measuring a force required to peel off the adhesive film from the metal film to an angle of 180° at a rate of 300 mm/s and at room temperature.
A connection pin for mounting in a through-hole provided in a component carrier of an electronic assembly, the connection pin comprising an anchoring part adapted for insertion into said through-hole, a contact part adapted to extend outside said through-hole and provided with a protruding elongated interconnection member at a free end thereof, and a flange part adapted to abut against said component carrier and located between said anchoring part and said contact part and wherein the flange part has a contact side adapted for abutment against the component carrier, wherein the connection pin is provided with an internal cavity, and the internal cavity is provided with an outer opening at a free end of the anchoring part, wherein the respective shapes of the interconnection member and the internal cavity are such that the interconnection member is adapted for insertion into a corresponding internal cavity of another similar connection pin, characterized in that the internal cavity has at least one inner opening, adjacent to the flange part, that said contact side is provided with at least one groove communicating with said inner opening, and that the at least one groove stretches from the inner opening to a corresponding groove opening in an external axial surface of the flange part, whereby solder may be dispensed through the outer opening and into the internal cavity and flow from the internal cavity through the at least one inner opening and into said at least one groove.
Composite body designed as a plant pot, seed tray or planter made of a composite material in the form of a biodegradable composition, comprising at least the following components: - leather fibers, preferably in the form of chrome-free leather shavings, - reinforcing fibers made of a natural fiber material to stabilize and reinforce the leather fibers, - a binding agent for binding and fixing the leather and reinforcing fibers in a composite structure, - wax for coating the composite structure. - leather fibers, preferably in the form of chrome-free leather shavings, - reinforcing fibers made of a natural fiber material to stabilize and reinforce the leather fibers, - a binding agent for binding and fixing the leather and reinforcing fibers in a composite structure, - wax for coating the composite structure.
A computer-implemented method of using a feedforward table to control a surgical system component, comprising: receiving an operating set point; determining if a stored feedforward term exists in a feedforward table for the operating set point, wherein the feedforward table comprises a plurality of set points; if the feedforward term does not exist for the operating set point, changing a value associated with the system component in increments using controller output to move a performance parameter of the system to within a first acceptable tolerance of the desired operating set point; determining if a measure of steady state error for the system is within a second acceptable tolerance; if the measure of steady state error for the system is within the second acceptable tolerance, recording the value as the corresponding feedforward term in the feedforward table for the current operating set point; if the measure of steady state error for the system is not within the second acceptable tolerance, not recording the value as the corresponding feedforward term in the feedforward table for the current operating set point; if the feedforward term does exist for the operating set point, controlling the component using controller output that corresponds to the feedforward term associated with the desired operating set point to move a performance parameter of the system toward the desired operating set point; when a change to the system is detected that is associated with possible changes to the feedforward terms, generating one or more new feedforward terms for the feedforward table. receiving an operating set point; determining if a stored feedforward term exists in a feedforward table for the operating set point, wherein the feedforward table comprises a plurality of set points; changing a value associated with the system component in increments using controller output to move a performance parameter of the system to within a first acceptable tolerance of the desired operating set point; determining if a measure of steady state error for the system is within a second acceptable tolerance; recording the value as the corresponding feedforward term in the feedforward table for the current operating set point; not recording the value as the corresponding feedforward term in the feedforward table for the current operating set point; controlling the component using controller output that corresponds to the feedforward term associated with the desired operating set point to move a performance parameter of the system toward the desired operating set point; when a change to the system is detected that is associated with possible changes to the feedforward terms, generating one or more new feedforward terms for the feedforward table.
A method of destructive opening cigarette packs in which the packs are successively mechanically deformed by deflection of at least one wall of each pack toward the outside of the pack, then the deflected wall of the pack is incised from the outside and a pack opening element is slid between the deflected wall of the pack and the cigarettes contained therein, and the pack is opened from the inside by means of the pack opening element.
An air-refrigerant cooling apparatus (1, 1a, 1b) comprising: a compressor configured to compress refrigerant air; a water-cooled heat exchanger connected to an outlet of said compressor; a heat exchanger configured to cool said refrigerant air discharged from said compressor through said water-cooled heat exchanger; an expansion turbine configured to expand said refrigerant air discharged from said heat exchanger; a defroster configured to remove moisture from said refrigerant air discharged from said expansion turbine; a cooled chamber supplied with said refrigerant air from said defroster, said refrigerant air discharged from said cooled chamber being supplied to said compressor; a cooled chamber bypass pipe configured to allow said refrigerant air discharged from said defroster to bypass said cooled chamber and to enter a pipe connected to an outlet of said cooled chamber; characterized in that the air-refrigerant cooling apparatus (1, 1a, 1b) comprises: a defrosting bypass pipe branched from a pipe connected to an outlet of said compressor through said water-cooled heat exchanger, and configured to allow said refrigerant air discharged from said compressor through said water-cooled heat exchanger to bypass said heat exchanger and expansion turbine and to be supplied to said defroster. a compressor configured to compress refrigerant air; a water-cooled heat exchanger connected to an outlet of said compressor; a heat exchanger configured to cool said refrigerant air discharged from said compressor through said water-cooled heat exchanger; an expansion turbine configured to expand said refrigerant air discharged from said heat exchanger; a defroster configured to remove moisture from said refrigerant air discharged from said expansion turbine; a cooled chamber supplied with said refrigerant air from said defroster, said refrigerant air discharged from said cooled chamber being supplied to said compressor; a cooled chamber bypass pipe configured to allow said refrigerant air discharged from said defroster to bypass said cooled chamber and to enter a pipe connected to an outlet of said cooled chamber; characterized in that the air-refrigerant cooling apparatus (1, 1a, 1b) comprises: a defrosting bypass pipe branched from a pipe connected to an outlet of said compressor through said water-cooled heat exchanger, and configured to allow said refrigerant air discharged from said compressor through said water-cooled heat exchanger to bypass said heat exchanger and expansion turbine and to be supplied to said defroster.
An introducer assembly for fitting an implantable medical device into a lumen of a patient, the implantable medical device being provided with a proximal end and a distal end; the introducer assembly being provided with a flexible carrier element for carrying a said implantable medical device, the carrier element including a distal end at which the implantable medical device is in use located, and a plurality of strut elements (102, 210) coupled at the distal end of the carrier element and operable to couple the distal end of the carrier element to the proximal end of the implantable medical device, the plurality of strut elements constituting pulling means to be able to provide pulling forces on the proximal end of the implantable medical device during deployment thereof, characterised in that the plurality of strut elements constitute pushing means to be able to provide pushing forces against the proximal end of the implantable medical device during deployment thereof.
A rail vehicle adapted to travel on one or two rails, the rail vehicle comprising: a car body, said car body being supported by wheels adapted to roll along said one or two rails, said car body having a passenger space and a stowage space, said passenger space being adapted to accommodate passengers, said stowage space having one or more stations, each for accommodating a light electric vehicle, each said station having: a chassis; a holding structure, said holding structure being operative to hold said light electric vehicle stationary, said holding structure comprises a recess in a surface of said chassis and a cover partially covering said recess, said cover having a notch with a receiving portion adapted to receive a grabbing portion exposed on a folded frame of a light electric vehicle; a locking mechanism, said locking mechanism being operative to retain the light electric vehicle in said holding structure; a power outlet, said power outlet being operative to deliver electrical power to a battery of the light electric vehicle via a matching connector on the grabbing portion of the light electric vehicle when the light electric vehicle is secured in said holding structure and connected to said power outlet, said power outlet being connected to an electrical power network of said rail vehicle; and each said station or the rail vehicle comprising a controller, said controller being operative to selectively send a release signal to said locking mechanism so as to release said locking mechanism, said controller being further operative to selectively operate said power outlet so as to deliver the electrical power. a chassis; a holding structure, said holding structure being operative to hold said light electric vehicle stationary, said holding structure comprises a recess in a surface of said chassis and a cover partially covering said recess, said cover having a notch with a receiving portion adapted to receive a grabbing portion exposed on a folded frame of a light electric vehicle; a locking mechanism, said locking mechanism being operative to retain the light electric vehicle in said holding structure; a power outlet, said power outlet being operative to deliver electrical power to a battery of the light electric vehicle via a matching connector on the grabbing portion of the light electric vehicle when the light electric vehicle is secured in said holding structure and connected to said power outlet, said power outlet being connected to an electrical power network of said rail vehicle; and each said station or the rail vehicle comprising a controller, said controller being operative to selectively send a release signal to said locking mechanism so as to release said locking mechanism, said controller being further operative to selectively operate said power outlet so as to deliver the electrical power.
Installation box for electrical and/or electronic installations, with a box body serving to accommodate at least one electrical/electronic component, comprising a base, a circumferential wall, and a mounting opening, which box body comprises at least one installation opening, enclosed by a soft plastic membrane (8, 8.1), located in the wall or, if present, in a transition surface between the wall and the base, which soft plastic membrane (8, 8.1) carries an opening handle (9, 9.1), characterised in that, on the side of the soft plastic membrane (8, 8.1) facing towards the inner side of the box, an opening handle (9, 9.1) for opening or removing the soft plastic membrane (8, 8.1) is formed projecting from the interior of the box, that the opening handle (9, 9.1) has an immersion contour (10, 10.1), with a tool reception opening facing towards the mounting opening of the box body for receiving a tool for opening or removing the soft plastic membrane (8, 8.1), and the immersion contour (10, 10.1) is enclosed by a surface section of the soft plastic membrane (8, 8.1), a front plate projecting from this surface section, and two side parts (20, 20.1) connecting the front plate to the surface section, and that the front plate (12, 12.1) transfers with its lower end section into the surface section of the soft plastic membrane (8, 8.1).
Sensor element of a capacitive sensor, comprising two or more layers of a substrate, between which the electrodes of the sensor are inserted, at least one heating element being integrated into the sensor element, characterised in that the electrodes and the at least one heating element are fused together in a hermetically sealed body.