mhurhangee/ep-ind-claims huggingface dataset:
A work vehicle comprising: an upper structure; a work device which is attached to the upper structure; a counter weight which is disposed at the rear of the upper structure; an engine room in which an engine is mounted and which is disposed in front of the counter weight; a first vertical rib and a second vertical rib which are provided on the main frame of the upper structure so as to extend in parallel with each other in a front/rear direction so that a region on the main frame is divided into three regions consisting of a center region which is formed between the first vertical rib and the second vertical rib, a first side region which is located on an opposite side to the second vertical rib with interposition of the first vertical rib, and a second side region which is located on an opposite side to the first vertical rib with interposition of the second vertical rib; a slewing motor (8, 21) which slews the upper structure, which is disposed in the center region of the three regions on the main frame and which includes an electric motor; and an inverter for controlling the electric motor, characterized in that: the inverter is disposed side by side with the second vertical rib or the first vertical rib in a tool chamber which is located on the main frame and in front of the engine room so as to be located on a side of and near the electric motor and a rear side of the first side region or the second side region. an upper structure; a work device which is attached to the upper structure; a counter weight which is disposed at the rear of the upper structure; an engine room in which an engine is mounted and which is disposed in front of the counter weight; a first vertical rib and a second vertical rib which are provided on the main frame of the upper structure so as to extend in parallel with each other in a front/rear direction so that a region on the main frame is divided into three regions consisting of a center region which is formed between the first vertical rib and the second vertical rib, a first side region which is located on an opposite side to the second vertical rib with interposition of the first vertical rib, and a second side region which is located on an opposite side to the first vertical rib with interposition of the second vertical rib; a slewing motor (8, 21) which slews the upper structure, which is disposed in the center region of the three regions on the main frame and which includes an electric motor; and an inverter for controlling the electric motor, characterized in that: the inverter is disposed side by side with the second vertical rib or the first vertical rib in a tool chamber which is located on the main frame and in front of the engine room so as to be located on a side of and near the electric motor and a rear side of the first side region or the second side region.
A method for facilitating management of hardware resources used by a computing system, comprising: accepting a resource acquisition request from a resource consumer through a multifunction API, to access any individual function performed by a multifunction hardware resource, wherein the multifunction API is configured to facilitate (i) device enumeration of functions performed by the multifunction hardware device and (ii) device acquisition for authentication and verification purposes and (iii) locking of the multifunction hardware device after acquisition thereof; communicating with a device driver associated with the multifunction hardware resource and dedicated to the requested individual function; and responsive to communication with the device driver, acquiring the multifunction hardware device for purposes of allowing access to the multifunction hardware device in accordance with the resource acquisition request. accepting a resource acquisition request from a resource consumer through a multifunction API, to access any individual function performed by a multifunction hardware resource, wherein the multifunction API is configured to facilitate (i) device enumeration of functions performed by the multifunction hardware device and (ii) device acquisition for authentication and verification purposes and (iii) locking of the multifunction hardware device after acquisition thereof; communicating with a device driver associated with the multifunction hardware resource and dedicated to the requested individual function; and responsive to communication with the device driver, acquiring the multifunction hardware device for purposes of allowing access to the multifunction hardware device in accordance with the resource acquisition request.
A computer-implemented method for a status update of a tuple in a database, the database being a column store database in which compression is applied along columns, characterized in that the database table storing the tuple comprises a column for a first binary status field and a column for a second binary status field, wherein the value of a binary status field of the tuple is a null value if the binary status of the tuple is a first status and is a time stamp if the binary status of the tuple is a second status; and in that the method comprises the step of updating a null value of the first binary status field of the tuple in the database by means of inserting an updated version of the tuple into the database using an insert-only approach, wherein the value of said first binary status field of said updated version of the tuple contains a time stamp, and marking the latest valid version of the tuple as out-dated by in-place inserting a time stamp into the second binary status field of said latest valid version of the tuple, wherein the columns containing said first and second binary status fields are stored uncompressed. wherein the value of a binary status field of the tuple is a null value if the binary status of the tuple is a first status and is a time stamp if the binary status of the tuple is a second status; and in that inserting an updated version of the tuple into the database using an insert-only approach, wherein the value of said first binary status field of said updated version of the tuple contains a time stamp, and marking the latest valid version of the tuple as out-dated by in-place inserting a time stamp into the second binary status field of said latest valid version of the tuple,
A circuit interrupter configured to interrupt flow of current through a circuit during an over current condition; the circuit interrupter comprises: two contacts (26,28) configured to remain in contact when a current flowing through the two contacts (26,28) is less than a threshold value; a tripping mechanism configured to separate the two contacts (26,28) when the current equals or exceeds the threshold value; a permanent magnet for generating a magnetic field for extinguishing an electric arc formed between the two contacts (26,28) of the circuit interrupter when the two contacts (26,28) are separated; characterized in that the permanent magnet is disposed on one surface of the circuit interrupter; and the circuit interrupter further comprises an electrode configured to generate an electric field when the two contacts (26,28) are separated; wherein the magnetic field and the electric field act to extinguish an electric arc formed between two contacts (26,28) of the circuit interrupter when the two contacts (26,28) are separated, and the electric field and the magnetic field stretching an electric arc formed between two contacts (26,28) of the circuit interrupter when the two contacts (26,28) are separated. two contacts (26,28) configured to remain in contact when a current flowing through the two contacts (26,28) is less than a threshold value; a tripping mechanism configured to separate the two contacts (26,28) when the current equals or exceeds the threshold value; a permanent magnet for generating a magnetic field for extinguishing an electric arc formed between the two contacts (26,28) of the circuit interrupter when the two contacts (26,28) are separated; characterized in that the permanent magnet is disposed on one surface of the circuit interrupter; and the circuit interrupter further comprises an electrode configured to generate an electric field when the two contacts (26,28) are separated; wherein the magnetic field and the electric field act to extinguish an electric arc formed between two contacts (26,28) of the circuit interrupter when the two contacts (26,28) are separated, and the electric field and the magnetic field stretching an electric arc formed between two contacts (26,28) of the circuit interrupter when the two contacts (26,28) are separated.
A method for leak testing a commercial aircraft fuel tank comprising: providing an environment within the tank that is at a lower humidity than the environment surrounding the tank in which air drawn into a dehumidifier is drawn from the tank resulting in a quasi-closed loop humidity reduction system; and using a thermographic imaging system to identify any leaks associated with the tank, based on evaporative cooling that occurs when a portion of the lower humidity environment escapes from the tank and mixes with the higher humidity environment surrounding the tank. providing an environment within the tank that is at a lower humidity than the environment surrounding the tank in which air drawn into a dehumidifier is drawn from the tank resulting in a quasi-closed loop humidity reduction system; and using a thermographic imaging system to identify any leaks associated with the tank, based on evaporative cooling that occurs when a portion of the lower humidity environment escapes from the tank and mixes with the higher humidity environment surrounding the tank.
Thermally expandable thermoplastic microspheres comprising a polymer shell made from ethylenically unsaturated monomers encapsulating a propellant, said ethylenically unsaturated monomers comprising from 20 to 80 wt% of acrylonitrile and from 1 to 70 wt% of vinyl ether having only one carbon-to-carbon double bond, the total amount of acrylonitrile and vinyl ether having only one carbon-to-carbon double bond being from 30 to 100 wt% of the ethylenically unsaturated monomers.
A computer-implemented method for generating a patient-specific anatomical atlas, the method comprising: using a generic anatomical atlas for a plurality of patients of a patient population, registering said generic anatomical atlas to each of a plurality of images of an anatomical region, wherein different ones of images correspond to different patients of the patient population to obtain respective patient-population anatomical atlases; registering each of the respective patient-population anatomical atlases to an anatomical image of a current patient to obtain respective patient-specific anatomical atlases; and determining an average of the patient-specific anatomical atlases to obtain an average patient-specific anatomical atlas; wherein the registering of the patient-population anatomical atlases includes at least one of: an anisotropic scaling in different directions relative to landmarks registered in the anatomical image of the current patient; and a non-linear scaling at different distances from a landmark registered in the anatomical image of the current patient. using a generic anatomical atlas for a plurality of patients of a patient population, registering said generic anatomical atlas to each of a plurality of images of an anatomical region, wherein different ones of images correspond to different patients of the patient population to obtain respective patient-population anatomical atlases; registering each of the respective patient-population anatomical atlases to an anatomical image of a current patient to obtain respective patient-specific anatomical atlases; and determining an average of the patient-specific anatomical atlases to obtain an average patient-specific anatomical atlas; wherein the registering of the patient-population anatomical atlases includes at least one of: an anisotropic scaling in different directions relative to landmarks registered in the anatomical image of the current patient; and a non-linear scaling at different distances from a landmark registered in the anatomical image of the current patient. an anisotropic scaling in different directions relative to landmarks registered in the anatomical image of the current patient; and a non-linear scaling at different distances from a landmark registered in the anatomical image of the current patient.
A yarn break detector of a spinning machine, wherein the spinning machine has a ring plate, a ring fixed on the ring plate and a traveler slidably mounted on the ring, wherein the traveler is made of a magnetic material, wherein the yarn break detector detects the traveler to determine presence or absence of a yarn break, wherein the yarn break detector includes a magnet (14, 21) and a magnetometer (15, 15A) that are located on or above the ring plate, wherein the magnet magnetizes the traveler, characterized in that the magnetometer (15, 15A) is located at a position that is free from interference with the traveler on the ring having a greatest diameter, and the magnetometer (15, 15A) uses a magneto-impedance element to detect magnetism of the magnetized traveler.
Method for fitting light-emitting diodes to electronic printed circuit boards in an SMD construction, wherein the light-emitting diodes are measured and positioned by means of image processing systems, having the following method steps: - the light-emitting diodes are measured before the actual fitting procedure, preferably in the feeding belt and the position of the optically significant elements in respect of the overall component is determined and a first correction factor is calculated therefrom, - reference points available in the printed circuit board are determined and measured for further optical components, - at least one further correction factor is calculated from the reference points for further optical components, - during the fitting procedure, the predetermined mounting positions are corrected with the correction factors and an actual mounting position is determined, - the light-emitting diodes are attached at the actual mounting position, - wherein the further optical components are reflectors and/or lens systems. - the light-emitting diodes are measured before the actual fitting procedure, preferably in the feeding belt and the position of the optically significant elements in respect of the overall component is determined and a first correction factor is calculated therefrom, - reference points available in the printed circuit board are determined and measured for further optical components, - at least one further correction factor is calculated from the reference points for further optical components, - during the fitting procedure, the predetermined mounting positions are corrected with the correction factors and an actual mounting position is determined, - the light-emitting diodes are attached at the actual mounting position, - wherein the further optical components are reflectors and/or lens systems.
An apparatus comprising: a processor; a memory that stores code executable by the processor to: detect a new augmented reality, AR, placetime comprising a new AR position and/or a new AR time of an AR device; in response to detecting the new AR placetime, determine whether to redeploy a window; in response to determining to redeploy the window: calculate new window characteristics for the window at the new AR placetime based on previous window characteristics stored in memory; and display the window with the calculated new window characteristics; in response to determining to not redeploy the window: query a user for new window characteristics; receive new window characteristics from the user; and display the window with the new window characteristics received from the user. a processor; a memory that stores code executable by the processor to: detect a new augmented reality, AR, placetime comprising a new AR position and/or a new AR time of an AR device; in response to detecting the new AR placetime, determine whether to redeploy a window; in response to determining to redeploy the window: calculate new window characteristics for the window at the new AR placetime based on previous window characteristics stored in memory; and display the window with the calculated new window characteristics; in response to determining to not redeploy the window: query a user for new window characteristics; receive new window characteristics from the user; and display the window with the new window characteristics received from the user. detect a new augmented reality, AR, placetime comprising a new AR position and/or a new AR time of an AR device; in response to detecting the new AR placetime, determine whether to redeploy a window; in response to determining to redeploy the window: calculate new window characteristics for the window at the new AR placetime based on previous window characteristics stored in memory; and display the window with the calculated new window characteristics; in response to determining to not redeploy the window: query a user for new window characteristics; receive new window characteristics from the user; and display the window with the new window characteristics received from the user. calculate new window characteristics for the window at the new AR placetime based on previous window characteristics stored in memory; and display the window with the calculated new window characteristics; in response to determining to not redeploy the window: query a user for new window characteristics; receive new window characteristics from the user; and display the window with the new window characteristics received from the user. query a user for new window characteristics; receive new window characteristics from the user; and display the window with the new window characteristics received from the user.
An electric pump comprising: a pump portion including a pump housing and a gear pump which is housed in the pump housing, the pump portion suctioning and discharging a hydraulic fluid by a rotation of the gear pump; a motor portion arranged adjacent to the pump portion in a direction along an axis of the pump portion and including a rotor which rotates synchronously with the gear pump and coaxially with the axis, the motor portion including a stator which is arranged at an outer periphery of the rotor and disposed coaxially with the axis, the stator applying a rotation drive force to the rotor; and a resin portion integrally surrounding at least an outer periphery of the pump housing and an outer periphery of the stator, the resin portion being provided at outer peripheral surfaces of the stator of the motor portion and the pump housing of the pump portion, and the resin portion and the pump housing being firmly integrated with each other, characterized in that the pump housing includes a recess portion at an outer surface, the recess portion into which resin of the resin portion is fitted. a pump portion including a pump housing and a gear pump which is housed in the pump housing, the pump portion suctioning and discharging a hydraulic fluid by a rotation of the gear pump; a motor portion arranged adjacent to the pump portion in a direction along an axis of the pump portion and including a rotor which rotates synchronously with the gear pump and coaxially with the axis, the motor portion including a stator which is arranged at an outer periphery of the rotor and disposed coaxially with the axis, the stator applying a rotation drive force to the rotor; and a resin portion integrally surrounding at least an outer periphery of the pump housing and an outer periphery of the stator, the resin portion being provided at outer peripheral surfaces of the stator of the motor portion and the pump housing of the pump portion, and the resin portion and the pump housing being firmly integrated with each other, characterized in that the pump housing includes a recess portion at an outer surface, the recess portion into which resin of the resin portion is fitted.
A method for producing a semiconductor substrate, which comprises the steps of: (i) implanting hydrogen ions into a silicon wafer for an active layer having no oxide film on its surface to form a hydrogen ion implanted layer, (ii) implanting oxygen ions up to a position that a depth from the surface side of the hydrogen ion implantation is shallower than the hydrogen ion implanted layer, (iii) directly laminating the silicon wafer for an active layer at the ion implanted side to a silicon wafer for a support substrate, and then (iv) exfoliating the silicon wafer for an active layer at the hydrogen ion implanted layer, wherein the implantation dose of oxygen ions (D O) in step (ii) is within the range of 4.2 x 10 14 atoms/cm 2 < D O ≤ 2 x 10 16 atoms/cm 2. (i) implanting hydrogen ions into a silicon wafer for an active layer having no oxide film on its surface to form a hydrogen ion implanted layer, (ii) implanting oxygen ions up to a position that a depth from the surface side of the hydrogen ion implantation is shallower than the hydrogen ion implanted layer, (iii) directly laminating the silicon wafer for an active layer at the ion implanted side to a silicon wafer for a support substrate, and then (iv) exfoliating the silicon wafer for an active layer at the hydrogen ion implanted layer,
A radial shaft seal configured for receipt in a housing and about a shaft to sealingly isolate an air side of the shaft seal from an oil side of the shaft seal, comprising: an annular mounting portion; a seal lip having an annular sealing surface extending between an oil side end and a free air side end, said sealing surface being configured to extend axially relative to the shaft; characterized in that said radial shaft seal further comprises an annular bridge connected to said oil side end of said seal lip by a first hinge and to the shaft; to said mounting portion by a second hinge, said bridge extending from said first hinge to said second hinge in radially overlying relation to said seal lip; and an annular projection extending from said mounting portion axially away from said bridge, said projection having an oil side facing said seal lip and being configured to confront said air side end of said seal lip upon said seal lip pivoting about said first hinge toward said projection. an annular mounting portion; a seal lip having an annular sealing surface extending between an oil side end and a free air side end, said sealing surface being configured to extend axially relative to the shaft; characterized in that said radial shaft seal further comprises an annular bridge connected to said oil side end of said seal lip by a first hinge and to the shaft; to said mounting portion by a second hinge, said bridge extending from said first hinge to said second hinge in radially overlying relation to said seal lip; and an annular projection extending from said mounting portion axially away from said bridge, said projection having an oil side facing said seal lip and being configured to confront said air side end of said seal lip upon said seal lip pivoting about said first hinge toward said projection.