mhurhangee/ep-ind-claims huggingface dataset:
A liquid material dispenser (180b 220, 220a) utilizing pressurized air from a pressurized air source to dispense liquid material, the dispenser comprising: a manifold (182b, 222) adapted to receive liquid material, said manifold having a first liquid material passage for supplying a first liquid material stream and a second liquid material passage for supplying a second liquid material stream; a first dispensing nozzle (184, 230) communicating with said first liquid material passage, said first dispensing nozzle having a first air passageway adapted to communicate with the pressurized air source; and a second dispensing nozzle (184, 220) coupled with said second liquid material passage, said second dispensing device having a second air passageway adapted to communicate with the pressurized air source; characterized by said first dispensing nozzle further comprising a first control (196, 232) communicating with said first air passageway (196, 232) and said second dispensing nozzle further comprising a second control (196, 232) communicating with said second air passageway; and wherein said first control is operative to adjust a first flow rate directly at said first dispensing nozzle and said second control is operative to adjust a second flow rate directly at said second dispensing nozzle independent of said first flow rate. a manifold (182b, 222) adapted to receive liquid material, said manifold having a first liquid material passage for supplying a first liquid material stream and a second liquid material passage for supplying a second liquid material stream; a first dispensing nozzle (184, 230) communicating with said first liquid material passage, said first dispensing nozzle having a first air passageway adapted to communicate with the pressurized air source; and a second dispensing nozzle (184, 220) coupled with said second liquid material passage, said second dispensing device having a second air passageway adapted to communicate with the pressurized air source; characterized by said first dispensing nozzle further comprising a first control (196, 232) communicating with said first air passageway (196, 232) and said second dispensing nozzle further comprising a second control (196, 232) communicating with said second air passageway; and wherein said first control is operative to adjust a first flow rate directly at said first dispensing nozzle and said second control is operative to adjust a second flow rate directly at said second dispensing nozzle independent of said first flow rate.
A method performed by a data processing apparatus, the method comprising: storing authentication tokens corresponding to known users of a device; receiving an utterance from a speaker; classifying the utterance as spoken by a particular known user of the known users; and providing a query that includes a representation of the utterance, the authentication tokens corresponding to each of the known users of the device, and a flag set for the authentication token corresponding to the particular known user to indicate the utterance was classified as spoken by the particular known user. storing authentication tokens corresponding to known users of a device; receiving an utterance from a speaker; classifying the utterance as spoken by a particular known user of the known users; and providing a query that includes a representation of the utterance, the authentication tokens corresponding to each of the known users of the device, and a flag set for the authentication token corresponding to the particular known user to indicate the utterance was classified as spoken by the particular known user.
An HDM2-p53 interaction inhibitor for use in the treatment of cancer, wherein the drug is administered on two different administration days within a treatment cycle, wherein the first administration day and second administration day are interrupted by a short administration-free period, and the second administration day of the first or earlier treatment cycle and the first administration of the following cycle are interrupted by a long administration-free period, wherein the short administration-free period is composed of from 4 to 8 days, and the long administration-free period is composed of from 13 to 27 days, and wherein the treatment is composed of at least 2 treatment cycles. wherein the drug is administered on two different administration days within a treatment cycle, wherein the first administration day and second administration day are interrupted by a short administration-free period, and the second administration day of the first or earlier treatment cycle and the first administration of the following cycle are interrupted by a long administration-free period, wherein the short administration-free period is composed of from 4 to 8 days, and the long administration-free period is composed of from 13 to 27 days, and wherein the treatment is composed of at least 2 treatment cycles.
A method for user equipment capable of performing carrier aggregation by using multiple component carriers, the method comprising: receiving, from a base station: a first timer value of Discontinuous Reception Inactivity Timer (drx-InactivityTimer), a second timer value of DRX Retransmission Timer (drx-RetransmissionTimer), and a third timer value of DRX Short Cycle Timer (drxShortCycleTimer), the drxShortCycleTimer being used for all of the multiple component carriers; and starting or restarting the drx-InactivityTimer if Physical Downlink Control Channel (PDCCH) in a component carrier among the multiple component carriers indicates a downlink transmission; starting a Hybrid Automatic Repeat reQuest (HARQ) Round Trip Time timer corresponding to a HARQ process for the component carrier if PDCCH in the component carrier indicates the downlink transmission; starting the drx-RetransmissionTimer corresponding to the HARQ process for the component carrier if the HARQ RTT Timer expires and if data of the HARQ process was not successfully decoded; starting or restarting the drxShortCycleTimer linked to all of the multiple component carriers and using a short DRX cycle if the drx-InactivityTimer expires; and using a long DRX cycle on all of the multiple component carriers if the drxShortCycleTimer expires. receiving, from a base station: a first timer value of Discontinuous Reception Inactivity Timer (drx-InactivityTimer), a second timer value of DRX Retransmission Timer (drx-RetransmissionTimer), and a third timer value of DRX Short Cycle Timer (drxShortCycleTimer), the drxShortCycleTimer being used for all of the multiple component carriers; and a first timer value of Discontinuous Reception Inactivity Timer (drx-InactivityTimer), a second timer value of DRX Retransmission Timer (drx-RetransmissionTimer), and a third timer value of DRX Short Cycle Timer (drxShortCycleTimer), the drxShortCycleTimer being used for all of the multiple component carriers; and starting or restarting the drx-InactivityTimer if Physical Downlink Control Channel (PDCCH) in a component carrier among the multiple component carriers indicates a downlink transmission; starting a Hybrid Automatic Repeat reQuest (HARQ) Round Trip Time timer corresponding to a HARQ process for the component carrier if PDCCH in the component carrier indicates the downlink transmission; starting the drx-RetransmissionTimer corresponding to the HARQ process for the component carrier if the HARQ RTT Timer expires and if data of the HARQ process was not successfully decoded; starting or restarting the drxShortCycleTimer linked to all of the multiple component carriers and using a short DRX cycle if the drx-InactivityTimer expires; and using a long DRX cycle on all of the multiple component carriers if the drxShortCycleTimer expires.
A fan section for a gas turbine engine comprising a fan containment case assembly including: an outer case extending about an axis; a thermally conforming liner assembly radially inward of the outer case, the liner assembly including a shell; a wrap radially outward of the shell; and a ballistic liner between the outer case and the wrap, wherein the wrap has a first fiber construction, and the ballistic liner has a second fiber construction that differs from the first fiber construction in stiffness, characterised in that: the first fiber construction of the wrap is made of substantially non-impregnated fibers, such that less than 5% of the fibers of the fiber construction of the wrap are impregnated. an outer case extending about an axis; a thermally conforming liner assembly radially inward of the outer case, the liner assembly including a shell; a wrap radially outward of the shell; and a ballistic liner between the outer case and the wrap, wherein the wrap has a first fiber construction, and the ballistic liner has a second fiber construction that differs from the first fiber construction in stiffness, characterised in that: the first fiber construction of the wrap is made of substantially non-impregnated fibers, such that less than 5% of the fibers of the fiber construction of the wrap are impregnated.
An agent for coloring keratinic fibers, containing at least two preparations and that are packaged separately from one another, and optionally a further preparation that is packaged separately from and, which preparations are mixed immediately before use to form an application mixture, wherein i. preparation a) contains at least one oxidation dye precursor and b) paraffin oil, and ii. preparation is flowable and contains, based on its weight, c) at least one oxidizing agent and d) xanthan gum. i. preparation a) contains at least one oxidation dye precursor and b) paraffin oil, and a) contains at least one oxidation dye precursor and b) paraffin oil, ii. preparation is flowable and contains, based on its weight, c) at least one oxidizing agent and d) xanthan gum. c) at least one oxidizing agent and d) xanthan gum.
A cylinder block made of aluminum or aluminum alloy with a spray coating disposed on an inner peripheral surface of a cylinder bore of the cylinder block; wherein the spray coating contains 0.005% to 0.14% by mass of carbon, 0.01% to 3.0% by mass of nickel, 10% to 20.5% by mass of chromium, 0.05% to 1.5% by mass of silicon, 1.5% or less by mass of manganese, 0.4% or less by mass of molybdenum, 0.5% or less by mass of niobium, less than 0.5% by mass of copper, and a balance is iron and inevitable impurities; the spray coating has a composition that forms a martensite + ferrite region in the Schaeffler diagram, and the composition in which a nickel equivalent NiE and a chromium equivalent CrE in the Schaeffler diagram satisfy a relationship expressed by the following Formulae to NiE ≤ 0.95 CrE − 8.59 NiE ≤ 4.1 and CrE ≥ 10 wherein the martensite + ferrite region in the Schaeffler diagram is a region expressed by the following Formulae to NiE > 0.3273 CrE − 4.0909 NiE < − 0.8125 CrE + 19.5 Ni > 0 and NiE < 1.1228 CrE − 8.4211 wherein the nickel equivalent NiE and the chromium equivalent CrE in the Schaeffler diagram are expressed respectively by the following Formulae and NiE = % Ni + 30 × % C + 0.5 × % Mn and CrE = % Cr + % Mo + 1.5 × % Si + 0.5 × % Nb and the spray coating has a two-phase structure formed of a martensite phase and a ferrite phase. the spray coating contains 0.005% to 0.14% by mass of carbon, 0.01% to 3.0% by mass of nickel, 10% to 20.5% by mass of chromium, 0.05% to 1.5% by mass of silicon, 1.5% or less by mass of manganese, 0.4% or less by mass of molybdenum, 0.5% or less by mass of niobium, less than 0.5% by mass of copper, and a balance is iron and inevitable impurities; the spray coating has a composition that forms a martensite + ferrite region in the Schaeffler diagram, and the composition in which a nickel equivalent NiE and a chromium equivalent CrE in the Schaeffler diagram satisfy a relationship expressed by the following Formulae to NiE ≤ 0.95 CrE − 8.59 NiE ≤ 4.1 and CrE ≥ 10 wherein the martensite + ferrite region in the Schaeffler diagram is a region expressed by the following Formulae to NiE > 0.3273 CrE − 4.0909 NiE < − 0.8125 CrE + 19.5 Ni > 0 and NiE < 1.1228 CrE − 8.4211 wherein the nickel equivalent NiE and the chromium equivalent CrE in the Schaeffler diagram are expressed respectively by the following Formulae and NiE = % Ni + 30 × % C + 0.5 × % Mn and CrE = % Cr + % Mo + 1.5 × % Si + 0.5 × % Nb and the spray coating has a two-phase structure formed of a martensite phase and a ferrite phase.
A system for joining two pipe ends (2, 2A) with the same outside diameters and the same wall thicknesses in a mutually non-rotatable extension of each other with coinciding central axes, and having two pipe ends (2,2A) and a joint sleeve, wherein the pipe ends (2, 2A) are inserted from each end and are kept joined in a joint sleeve having a cylindrical pipe section, wherein movements in the radial direction are prevented by frictional engagement between the joint sleeve and each of the two pipe ends (2, 2A) and pulling out of the pipe ends (2, 2A) from the joint sleeve are prevented by a sprung detent deformed during the insertion of each pipe end, wherein the mutual rotation about the central axis between the two pipe ends (2, 2A) is prevented by engagement between toothings in the axial direction at the two pipe ends (2, 2A), the toothing in the axial direction at each pipe end (2, 2A) having at least one radial angular section of each pipe end (2, 2A), which in the longitudinal direction is retracted from the foremost edge of the pipe end, wherein the retracted annular section receives and is filled by the non-retracted radial angular section of the opposite pipe end, a shape-complementary joint being established when the toothing of the pipe ends engage in the joint sleeve, wherein the retracted radial angular section of one pipe end in the axial direction is longer in the axial direction than the retracted angular section of the other pipe end, so that when the two pipe ends (2, 2A) are positioned in the joint sleeve at least one gap is formed, where the pipe ends (2, 2A) are not in contact with each other, and the gap or gaps are completely or partially filled by a protrusion inside the joint sleeve when the pipe ends (2, 2A) are joined therein, the protrusion having the same inside diameter as the inside diameter at the two pipe ends (2, 2A).
Electrical machine, in particular permanent-magnet synchronous machine, comprising a stator, a rotor which is mounted such that it can rotate within the stator, and an air gap which is arranged between the stator and the rotor, wherein the rotor has at least one rotor body, one cuboidal permanent magnet in the interior of the rotor body and one flux barrier in the region between the permanent magnet and the surface of the rotor body, wherein the permanent magnet is arranged in a pole of the rotor and wherein pole gaps are formed at an edge of the pole, wherein the cross section of the permanent magnet is rectangular and wherein the flux barrier is slot-like, wherein a thickness of the permanent magnet or of the flux barrier is in each case the smaller dimension of the two dimensions of the corresponding rectangular or slot-like cross section, wherein the thickness h b of the flux barrier is lower than the thickness h m of the permanent magnet and greater than the width of the air gap, wherein the flux barrier has a projection in the region of the surface of the rotor body, characterized in that the projection is directed in the direction of the pole gaps.
. A method of displaying information using a computer, comprising: the computer producing, from information that includes graph information and geographic information, a graph drawing comprising a plurality of nodes and a plurality of edges; the computer retrieving map information corresponding to the geographic information; and the computer displaying a view comprising an overlay of the graph drawing and the map information; wherein the plurality of nodes comprises a plurality geographically-linked nodes which are linked to geographic information comprising a geographic location, and a plurality of logical nodes having no geographic location, characterized in the following steps: - positioning the plurality of geographically-linked nodes over the correct position on the map according to the linked geographic information; and - positioning the plurality of logical nodes using an automatic graph layout, the automated graph layout taking into consideration the positions of the plurality of geographically-linked nodes, wherein the plurality of geographically-linked nodes is different from the plurality of logical nodes. the computer producing, from information that includes graph information and geographic information, a graph drawing comprising a plurality of nodes and a plurality of edges; the computer retrieving map information corresponding to the geographic information; and the computer displaying a view comprising an overlay of the graph drawing and the map information; wherein the plurality of nodes comprises a plurality geographically-linked nodes which are linked to geographic information comprising a geographic location, and a plurality of logical nodes having no geographic location, characterized in the following steps: - positioning the plurality of geographically-linked nodes over the correct position on the map according to the linked geographic information; and - positioning the plurality of logical nodes using an automatic graph layout, the automated graph layout taking into consideration the positions of the plurality of geographically-linked nodes, wherein - positioning the plurality of geographically-linked nodes over the correct position on the map according to the linked geographic information; and - positioning the plurality of logical nodes using an automatic graph layout, the automated graph layout taking into consideration the positions of the plurality of geographically-linked nodes, wherein the plurality of geographically-linked nodes is different from the plurality of logical nodes.
A method for tethering wireless audio devices, comprising: establishing a first wireless connection between an intermediary device and a primary audio device; receiving a random resolvable address by the intermediary device from a secondary audio device, the random resolvable address including a dynamically changing identifier that prevents unique identification of the secondary audio device unless an entity attempting the identification has a corresponding identity resolving key, wherein the intermediary device does not have the identity resolving key associated with the random resolvable address; transmitting the random resolvable address to the primary audio device from the intermediary device via the first wireless connection; transmitting an instruction to the primary audio device from the intermediary device, via the first wireless connection, to analyze broadcasted data from nearby audio devices for a matching audio device having broadcasted data corresponding to the random resolvable address, and to initiate a second wireless connection with the matching audio device; and transmitting audio data to the primary audio device from the intermediary device via the first wireless connection for streaming the audio data from the primary audio device to the secondary audio device, identified to the primary audio device as the matching audio device, via the second wireless connection. establishing a first wireless connection between an intermediary device and a primary audio device; receiving a random resolvable address by the intermediary device from a secondary audio device, the random resolvable address including a dynamically changing identifier that prevents unique identification of the secondary audio device unless an entity attempting the identification has a corresponding identity resolving key, wherein the intermediary device does not have the identity resolving key associated with the random resolvable address; transmitting the random resolvable address to the primary audio device from the intermediary device via the first wireless connection; transmitting an instruction to the primary audio device from the intermediary device, via the first wireless connection, to analyze broadcasted data from nearby audio devices for a matching audio device having broadcasted data corresponding to the random resolvable address, and to initiate a second wireless connection with the matching audio device; and transmitting audio data to the primary audio device from the intermediary device via the first wireless connection for streaming the audio data from the primary audio device to the secondary audio device, identified to the primary audio device as the matching audio device, via the second wireless connection.
Fastening arrangement having a grommet which is to be fixed to a fastening element, wherein the grommet has two mutually opposite, spaced-apart flanges (4, 5) which come into contact with the surface of the fastening element when the grommet has been fixed there, characterized in that the two flanges (4, 5) are connected to one another, so as to form apertures, by means of at least one connecting web, preferably multiple connecting webs.
A tiller comprising a rotary tilling operation section whose upper portion is covered with a fender; an auxiliary wheel disposed in front of the rotary tilling operation section for adjusting a depth of plowing; and a pivot arm pivotably mounted on a machine body to undergo pivotal movement in a vertical plane for adjusting a height of the auxiliary wheel, characterized in that the pivot arm includes a lever mounted thereon and comprising a grip operable in a vertical direction by a human operator for adjusting the angle of the pivot arm, and in that the grip is provided on the lever in such a manner that the grip is located at a position higher than the auxiliary wheel when the pivot arm is located at a lowest pivotal position thereof and that the grip is located immediately above the fender at least when the pivot arm is located at a highest pivotal position thereof.
A method of providing a synchronized laser scanning system by simplifying operation of an acoustooptical modulator, abbreviated AOM, used to modulate a laser beam and improving phase control of the laser beam, including: digitally computing sample points of a wave form with wave form amplitude modulation and phase control that represent image pattern data; providing a digital-to-analog converter, abbreviated DAC, for converting the digital wave form sample points to an analog radio frequency, abbreviated RF, signal, wherein the analog RF signal has a frequency that is an integer multiple of the image pattern data frequency; and applying the analog RF signal to an AOM transducer to modulate a laser beam and create an image. digitally computing sample points of a wave form with wave form amplitude modulation and phase control that represent image pattern data; providing a digital-to-analog converter, abbreviated DAC, for converting the digital wave form sample points to an analog radio frequency, abbreviated RF, signal, wherein the analog RF signal has a frequency that is an integer multiple of the image pattern data frequency; and applying the analog RF signal to an AOM transducer to modulate a laser beam and create an image.