mhurhangee/ep-ind-claims huggingface dataset:
A method for scheduling communication for accessory devices paired with a source device, the method comprising: by the source device: establishing a first wireless connection with a primary accessory device of a pair of accessory devices; when the primary accessory device supports scheduled communication using time slot masking: obtaining from the primary accessory device communication time slot availability requirements; providing to the primary accessory device a time slot mask that specifies time slot availability requirements for communication between the source device and the primary accessory device over a cycle of time slots; and communicating with the primary accessory device in accordance with the time slot mask, wherein the time slot mask indicates one or more time slots during which the primary accessory device can communicate with a secondary accessory device paired via a second wireless connection. establishing a first wireless connection with a primary accessory device of a pair of accessory devices; when the primary accessory device supports scheduled communication using time slot masking: obtaining from the primary accessory device communication time slot availability requirements; providing to the primary accessory device a time slot mask that specifies time slot availability requirements for communication between the source device and the primary accessory device over a cycle of time slots; and communicating with the primary accessory device in accordance with the time slot mask, wherein the time slot mask indicates one or more time slots during which the primary accessory device can communicate with a secondary accessory device paired via a second wireless connection. obtaining from the primary accessory device communication time slot availability requirements; providing to the primary accessory device a time slot mask that specifies time slot availability requirements for communication between the source device and the primary accessory device over a cycle of time slots; and communicating with the primary accessory device in accordance with the time slot mask, wherein the time slot mask indicates one or more time slots during which the primary accessory device can communicate with a secondary accessory device paired via a second wireless connection.
A method for distinguishing between sources of simultaneous touch events on a touch sensitive device, the touch sensitive device comprising a plurality of row conductors and a plurality of column conductors, the plurality of row conductors crossing each of the plurality of column conductors such that a touch event proximate to a row conductor of the plurality of row conductors and a column conductor of the plurality of column conductors causes a change in capacitive coupling between the row conductor and the column conductor, the method comprising: simultaneously transmitting each of a plurality of unique orthogonal row signals on a respective ones of at least some of the plurality of row conductors, each of the plurality of unique orthogonal row signals being different from each other of the plurality of unique orthogonal row signals; detecting an amount of each of the plurality of unique orthogonal row signals present on each of the plurality of column conductors, and simultaneously detecting an amount of at least one of the plurality of unique orthogonal row signals present on at least one row conductor or at least one column conductor, the at least one of the plurality of unique orthogonal row signals being present due to a user of the touch sensitive device making at least two touches or near touches on the touch sensitive device, and the at least one of the plurality of unique orthogonal row signals passing though the body of the user between the two touches or near touches; and associating each of the plurality of simultaneous touch events with a discrete source based on the at least one of the plurality of unique orthogonal row signals present due to the user making at least two touches or near touches on the touch sensitive device. simultaneously transmitting each of a plurality of unique orthogonal row signals on a respective ones of at least some of the plurality of row conductors, each of the plurality of unique orthogonal row signals being different from each other of the plurality of unique orthogonal row signals; detecting an amount of each of the plurality of unique orthogonal row signals present on each of the plurality of column conductors, and simultaneously detecting an amount of at least one of the plurality of unique orthogonal row signals present on at least one row conductor or at least one column conductor, the at least one of the plurality of unique orthogonal row signals being present due to a user of the touch sensitive device making at least two touches or near touches on the touch sensitive device, and the at least one of the plurality of unique orthogonal row signals passing though the body of the user between the two touches or near touches; and associating each of the plurality of simultaneous touch events with a discrete source based on the at least one of the plurality of unique orthogonal row signals present due to the user making at least two touches or near touches on the touch sensitive device.
A delivery device comprising: a handle assembly; a piston mount having a distal portion, the distal portion including a stop extending radially from and fixed to the distal portion; and a capsule assembly including a helical compression spring and a plurality of retraction members secured about a distal end of the compression spring; wherein tensioning of the retraction members compresses the compression spring against the stop. a handle assembly; a piston mount having a distal portion, the distal portion including a stop extending radially from and fixed to the distal portion; and a capsule assembly including a helical compression spring and a plurality of retraction members secured about a distal end of the compression spring; wherein tensioning of the retraction members compresses the compression spring against the stop.
A method of determining a condition of an elevator car operating panel, the method comprising: controlling a plurality of light sources of the car operating panel to turn on all of the plurality of light sources; obtaining an image of the car operating panel that indicates an actual illumination of all of the light sources, respectively; determining, from the obtained image, if there are any differences between an expected illumination and the actual illumination of any of the light sources; and providing an indication of the condition of the elevator car operating panel including information regarding any determined differences between the expected illumination and the actual illumination, characterized in that the determining comprises: recognizing the expected illumination of at least one of the light sources in at least a first portion of the obtained image; comparing at least a second portion of the obtained image to the first portion; and determining whether at least one light source in the second portion has the expected illumination based on the comparing. controlling a plurality of light sources of the car operating panel to turn on all of the plurality of light sources; obtaining an image of the car operating panel that indicates an actual illumination of all of the light sources, respectively; determining, from the obtained image, if there are any differences between an expected illumination and the actual illumination of any of the light sources; and providing an indication of the condition of the elevator car operating panel including information regarding any determined differences between the expected illumination and the actual illumination, characterized in that the determining comprises: recognizing the expected illumination of at least one of the light sources in at least a first portion of the obtained image; comparing at least a second portion of the obtained image to the first portion; and determining whether at least one light source in the second portion has the expected illumination based on the comparing. recognizing the expected illumination of at least one of the light sources in at least a first portion of the obtained image; comparing at least a second portion of the obtained image to the first portion; and determining whether at least one light source in the second portion has the expected illumination based on the comparing.
A process for coating a substrate, comprising: applying a one-component waterborne base coating composition onto a substrate, the base coating composition comprising a first aqueous epoxy acrylate/polyurethane dispersion; applying a one-component waterborne top coating composition wet-on-wet onto the applied base coating composition after the applied base coating composition develops a pendulum hardness of at least 50% of a pendulum hardness that would be exhibited by the base coating composition after UV cure, the top coating composition comprising a mixture of a second aqueous epoxy acrylate/polyurethane dispersion and an aqueous polyester acrylate/polyurethane dispersion; and exposing the applied coating compositions to UV radiation to simultaneously cure both the base coating composition and the top coating composition; wherein the first aqueous epoxy aqueous acrylate/polyurethane dispersion may be the same or different than the second aqueous epoxy acrylate/polyurethane dispersion. applying a one-component waterborne base coating composition onto a substrate, the base coating composition comprising a first aqueous epoxy acrylate/polyurethane dispersion; applying a one-component waterborne top coating composition wet-on-wet onto the applied base coating composition after the applied base coating composition develops a pendulum hardness of at least 50% of a pendulum hardness that would be exhibited by the base coating composition after UV cure, the top coating composition comprising a mixture of a second aqueous epoxy acrylate/polyurethane dispersion and an aqueous polyester acrylate/polyurethane dispersion; and exposing the applied coating compositions to UV radiation to simultaneously cure both the base coating composition and the top coating composition; wherein the first aqueous epoxy aqueous acrylate/polyurethane dispersion may be the same or different than the second aqueous epoxy acrylate/polyurethane dispersion.
Method for producing a rotor for a synchronous reluctance machine, with the method steps of: a. stacking a rotor core as a laminated core made up of multiple laminations, which comprise flux-directing portions referred to as the d axis and flux-directing portions referred to as the q axis, the laminations each being formed with cutouts in the direction of the q axis to form flux barriers of the laminated core, b. filling the individual flux barriers of the laminated core with a plastics material containing permanently magnetic particles, by injection moulding, c. aligning the contained permanently magnetic particles by applying an external magnetic field such that the magnetic permeability in the q direction of the rotor is reduced as compared with non-filled flux barriers of the laminated core. a. stacking a rotor core as a laminated core made up of multiple laminations, which comprise flux-directing portions referred to as the d axis and flux-directing portions referred to as the q axis, the laminations each being formed with cutouts in the direction of the q axis to form flux barriers of the laminated core, b. filling the individual flux barriers of the laminated core with a plastics material containing permanently magnetic particles, by injection moulding, c. aligning the contained permanently magnetic particles by applying an external magnetic field such that the magnetic permeability in the q direction of the rotor is reduced as compared with non-filled flux barriers of the laminated core.
A video processing method comprising: storing chunks (12, 14) of encoded video data of a streamed video bitstream partitioned into multiple chunks (12, 14), each chunk (12, 14) of said multiple chunks starts (12, 14) with an independently decodable picture; decoding encoded video data of said streamed video bitstream to form decoded video data to be output for display; and discarding a selected portion of said stored chunks (12,14) for a previous, already played out part of said streamed video bitstream while keeping selected stored chunks for said previous, already played out part of said streamed video bitstream stored as time non-adjacent navigation tune-in points distributed throughout said previous, already played out part of said streamed video bitstream. storing chunks (12, 14) of encoded video data of a streamed video bitstream partitioned into multiple chunks (12, 14), each chunk (12, 14) of said multiple chunks starts (12, 14) with an independently decodable picture; decoding encoded video data of said streamed video bitstream to form decoded video data to be output for display; and discarding a selected portion of said stored chunks (12,14) for a previous, already played out part of said streamed video bitstream while keeping selected stored chunks for said previous, already played out part of said streamed video bitstream stored as time non-adjacent navigation tune-in points distributed throughout said previous, already played out part of said streamed video bitstream.
Isolated DC-DC converter comprising: - a first arm comprising switches (MA1, MA2) in series, the first arm being connected to the input of the converter; - a second arm comprising switches (MB1, MB2) in series; - an inductor connected between the midpoints of the first and second arms; - a capacitor connected between the end terminals of the second arm; - a third arm comprising a magnetic component, the third arm being connected to the midpoint of the second arm; wherein successions of opening and closing of the switches (MA1, MA2, MB1, MB2) make it possible to convert an input voltage (Ue) into an output voltage (Vout) via the magnetic component. - a first arm comprising switches (MA1, MA2) in series, the first arm being connected to the input of the converter; - a second arm comprising switches (MB1, MB2) in series; - an inductor connected between the midpoints of the first and second arms; - a capacitor connected between the end terminals of the second arm; - a third arm comprising a magnetic component, the third arm being connected to the midpoint of the second arm;
A utility vehicle comprising at least one front ground-engaging member configured to contact a ground surface; at least one rear ground-engaging member configured to contact the ground surface; a drivetrain assembly operably coupled to the ground-engaging members; a frame supported by the ground-engaging members and extending along a longitudinal axis of the utility vehicle; a rear cargo bed assembly supported by the frame and extending over a portion of the rear ground-engaging member, the rear cargo bed assembly having a rear platform with at least a first seating position; and a rear cab frame assembly having an upright position and a collapsed position, the vehicle being characterized by a first height (h 1) from the ground surface when the rear cab frame is in the upright position and a second height (h 2) from the ground surface less than the first height when the rear cab frame is in the collapsed position, the second height being 182.8-213.36 cm (72-84 inches).
A vehicle propulsion system comprising: at least first and second electrical generators (15a, 15b), each being configured to provide electrical power to a respective first and second AC electrical network (16a, 16b); at least first and second AC electrical motors (19a, 19b) directly electrically coupled to respectively said first and second AC electrical networks (16a, 16b) and coupled to a respective propulsor (4a, 4b); and a DC electrical network electrically coupled to the first and second AC networks (16a, 16b) via respective first and second AC to DC converters (17a, 17b), and to a further electrical motor (19c, 19d), the further electrical motor being coupled to a propulsor (4c, 4d). at least first and second electrical generators (15a, 15b), each being configured to provide electrical power to a respective first and second AC electrical network (16a, 16b); at least first and second AC electrical motors (19a, 19b) directly electrically coupled to respectively said first and second AC electrical networks (16a, 16b) and coupled to a respective propulsor (4a, 4b); and a DC electrical network electrically coupled to the first and second AC networks (16a, 16b) via respective first and second AC to DC converters (17a, 17b), and to a further electrical motor (19c, 19d), the further electrical motor being coupled to a propulsor (4c, 4d).
A photocathode kit comprising: a photocathode including a substrate on which a photocathode film is formed on a first surface; a lens which converges excitation light to the photocathode film; and a holder that holds the substrate and the lens, wherein the holder has a hollow structure, with the lens being held in the hollow structure, and a retaining member that retains the photocathode film and the lens to be spaced apart by a predetermined distance, characterised in that the holder further has a gas vent which is a through hole communicating between the inside and the outside of the holder to prevent expansion of the gas inside the holder in vacuum. a photocathode including a substrate on which a photocathode film is formed on a first surface; a lens which converges excitation light to the photocathode film; and a holder that holds the substrate and the lens, wherein the holder has a hollow structure, with the lens being held in the hollow structure, and a retaining member that retains the photocathode film and the lens to be spaced apart by a predetermined distance, characterised in that the holder further has a gas vent which is a through hole communicating between the inside and the outside of the holder to prevent expansion of the gas inside the holder in vacuum.
A tillage tine, comprising: a mounting base portion that is fitted to a mounting flange of a rotary tine shaft; a vertical blade portion that is formed from a planar plate that extends continuously in a lateral direction from the mounting base portion in side view to a lateral blade curve start portion when a surface having a rotation axis of the rotary tine shaft as a normal line is set as a side surface, and includes a cutting edge that is formed at a lower side via a step from a lower edge of the mounting base portion; and a lateral blade portion that extends continuously from the vertical blade portion with the lateral blade curve start portion as a boundary, is formed by including a width dimension not less than a width dimension of the mounting base portion from the vertical blade portion to a distal end side, is formed by gradually curving to an upper side in side view, and is formed from a curved plate that is curved to one side with the lateral blade curve start portion as the boundary. a mounting base portion that is fitted to a mounting flange of a rotary tine shaft; a vertical blade portion that is formed from a planar plate that extends continuously in a lateral direction from the mounting base portion in side view to a lateral blade curve start portion when a surface having a rotation axis of the rotary tine shaft as a normal line is set as a side surface, and includes a cutting edge that is formed at a lower side via a step from a lower edge of the mounting base portion; and a lateral blade portion that extends continuously from the vertical blade portion with the lateral blade curve start portion as a boundary, is formed by including a width dimension not less than a width dimension of the mounting base portion from the vertical blade portion to a distal end side, is formed by gradually curving to an upper side in side view, and is formed from a curved plate that is curved to one side with the lateral blade curve start portion as the boundary.
A plastics moulding process in which a first part (2, 3, 4) is moulded and a second part is moulded such that at least a part of its surface is in contact with a surface of the first part (2, 3, 4) during the moulding process with the surfaces that are in contact forming contact surfaces between the two parts (2, 3, 4; 5), the process being characterised in that the first part (2, 3, 4) is moulded firstly and, whilst at least the contact surface is still in a liquid or plastic state, applying to at least a part of the contact surface an attachment promoting powder which is a suitable grade of diatomaceous earth that has the characteristic of attaching to the plastic of the first part (2, 3, 4) to form a continuous or discontinuous layer thereof on the contact surface of the first part (2, 3, 4), and thereafter moulding the second part so as to contact the first part (2, 3, 4) at the contact surfaces such that the plastic of the second part attaches, before or as it solidifies, to the continuous or discontinuous layer of the attachment promoting powder and thereby to the first part (2, 3, 4) with the attachment promoting powder forming a continuous or discontinuous interlayer over the contact surface between the plastic of the first part (2, 3, 4) and the plastic of the second part.
A cooling system, comprising at least one electrical element, an electrically insulating medium for insulation of the at least one electrical element, at least one condenser configured to condense said medium from a gaseous state to a liquid state, and at least one heat-exchanging element fluidly connected to said at least one condenser and configured for thermal contact with the at least one electrical element for cooling the at least one electrical element by said medium, wherein said at least one heat-exchanging element is configured to evaporate said medium from a liquid state during cooling of the at least one electrical element and to discharge the evaporated medium, characterized in that the cooling system further comprises an enclosure enclosing said at least one electrical element, wherein said at least one heat-exchanging element is configured to discharge evaporated medium into said enclosure, and at least one circulation means configured to circulate said medium from said at least one condenser to said at least one heat-exchanging element, and to circulate said medium discharged from said at least one heat-exchanging element back to said at least one condenser.
A reagent for use in mass spectrometry, which is a compound of the general formula: Z 1 -L 1 -(CR 1 R 2)-S -CR 3 H-CH 2 -C(-L 2 -Z 2)R 4 (-L x -X) wherein Z 1 is charge unit carrying at least one charged moiety L 1 is a bond or a spacer, Z 2 is charge unit carrying at least one charged moiety, L 2 is a bond or a spacer, R 1, R 2, R 3, R 4 are independently hydrogen or C 1 -C 3 alkyl, X is a reactive group capable of reacting with an analyte molecule, whereby a covalent bond with the analyte molecule is formed, L x is a bond or spacer, and wherein the charge units Z 1 and Z 2 comprise each at least one positively charged moiety, or wherein the charge units Z 1 and Z 2 comprise each at least one negatively charged moiety. Z 1 is charge unit carrying at least one charged moiety L 1 is a bond or a spacer, Z 2 is charge unit carrying at least one charged moiety, L 2 is a bond or a spacer, R 1, R 2, R 3, R 4 are independently hydrogen or C 1 -C 3 alkyl, X is a reactive group capable of reacting with an analyte molecule, whereby a covalent bond with the analyte molecule is formed, L x is a bond or spacer, and wherein the charge units Z 1 and Z 2 comprise each at least one positively charged moiety, or wherein the charge units Z 1 and Z 2 comprise each at least one negatively charged moiety.