mhurhangee/ep-ind-claims huggingface dataset:
A lightweight container having a planked support frame made of frame profiles, characterized in that the frame profiles of the support frame are connected to each other by nodes which are designed to be flexible and the planking consists of thin supporting structured or hybrid metal panels configured for buckling or of sandwich panels with thin cover layers which are each attached to the frame profiles.
A sensor system, the system comprising: a drive shaft; a engagement member supported on the drive shaft; a motor configured to drive the drive shaft and the engagement member supported on the drive shaft; a detectable feature comprising a rotary member supported on the drive shaft such that movement of the drive shaft by the motor changes a state of the detectable feature; at least one sensor arranged to detect the state of the detectable feature; and circuitry configured to provide a signal in response to a change in the state of the detectable feature detected by the at least one sensor; the system further comprising: a housing for containing the at least one sensor and the rotary member, the housing having: at least one seating surface for supporting a respective sensor of the at least one sensor; at least one arm member configured to bias a respective sensor of the at least one sensor against the seating surface to retain alignment of the at least one sensor relative to the drive shaft. a drive shaft; a engagement member supported on the drive shaft; a motor configured to drive the drive shaft and the engagement member supported on the drive shaft; a detectable feature comprising a rotary member supported on the drive shaft such that movement of the drive shaft by the motor changes a state of the detectable feature; at least one sensor arranged to detect the state of the detectable feature; and circuitry configured to provide a signal in response to a change in the state of the detectable feature detected by the at least one sensor; the system further comprising: a housing for containing the at least one sensor and the rotary member, the housing having: at least one seating surface for supporting a respective sensor of the at least one sensor; at least one arm member configured to bias a respective sensor of the at least one sensor against the seating surface to retain alignment of the at least one sensor relative to the drive shaft. at least one seating surface for supporting a respective sensor of the at least one sensor; at least one arm member configured to bias a respective sensor of the at least one sensor against the seating surface to retain alignment of the at least one sensor relative to the drive shaft.
A method for preloading data of a file, comprising the following steps: - defining a plurality of bins of predetermined sizes in a file, - for each input and/or output operation executed on the file, determining the bin involved in the operation, - counting the number of input and/or output operations executed in each bin of the file by taking into account only a predetermined number of last operations on the whole file, and - when the sum of the operations counted in one bin is greater than a predetermined threshold, loading, in a memory medium, at least one area of the file determined on the basis of this bin, characterized in that the area of the file is centered on a median of positions of at least some of the operations involving the bin or a position of the area of the file is determined as follows: - identifying a predetermined number of last input and/or output operations involving the bin that has reached the predetermined threshold for triggering loading and indexing them according to their order of arrival, - determining by linear regression a linear regression line in a reference frame using the index of the operations and of offset values as coordinates, - centering the area of the file on an offset determined by a function of the linear regression line for an index greater than those of the operations that made it possible to determine the line. - defining a plurality of bins of predetermined sizes in a file, - for each input and/or output operation executed on the file, determining the bin involved in the operation, - counting the number of input and/or output operations executed in each bin of the file by taking into account only a predetermined number of last operations on the whole file, and - when the sum of the operations counted in one bin is greater than a predetermined threshold, loading, in a memory medium, at least one area of the file determined on the basis of this bin, characterized in that the area of the file is centered on a median of positions of at least some of the operations involving the bin or a position of the area of the file is determined as follows: - identifying a predetermined number of last input and/or output operations involving the bin that has reached the predetermined threshold for triggering loading and indexing them according to their order of arrival, - determining by linear regression a linear regression line in a reference frame using the index of the operations and of offset values as coordinates, - centering the area of the file on an offset determined by a function of the linear regression line for an index greater than those of the operations that made it possible to determine the line.
An air data sensing line-replaceable unit comprising: at least one pressure sensor; and at least one probe or port coupled to the at least one pressure sensor, wherein the at least one probe or port conduits air located outside the air data sensing line-replaceable unit to the at least one pressure sensor, wherein the at least one probe or port and the at least one pressure sensor are connected to each other by a permanent connection; and wherein the at least one pressure sensor generates an electrical signal, wherein the at least one pressure sensor communicates the electrical signal to at least one electronic system (115, 116) over a communication medium, wherein the at least one electronic system (115, 116) converts the electrical signal to a digital signal, wherein the at least one electronic system (115, 116) is separate from the line-replaceable unit. at least one pressure sensor; and at least one probe or port coupled to the at least one pressure sensor, wherein the at least one probe or port conduits air located outside the air data sensing line-replaceable unit to the at least one pressure sensor, wherein the at least one probe or port and the at least one pressure sensor are connected to each other by a permanent connection; and wherein the at least one pressure sensor generates an electrical signal, wherein the at least one pressure sensor communicates the electrical signal to at least one electronic system (115, 116) over a communication medium, wherein the at least one electronic system (115, 116) converts the electrical signal to a digital signal, wherein the at least one electronic system (115, 116) is separate from the line-replaceable unit. wherein the at least one probe or port conduits air located outside the air data sensing line-replaceable unit to the at least one pressure sensor, wherein the at least one probe or port and the at least one pressure sensor are connected to each other by a permanent connection; and wherein the at least one pressure sensor generates an electrical signal, wherein the at least one pressure sensor communicates the electrical signal to at least one electronic system (115, 116) over a communication medium, wherein the at least one electronic system (115, 116) converts the electrical signal to a digital signal, wherein the at least one electronic system (115, 116) is separate from the line-replaceable unit.
A machine-readable symbol reader (100; 200; 300; 400) to read machine-readable symbols, the machine-readable symbol reader comprising: a housing (101; 201; 301; 401) having an optical chamber (123; 223; 323; 423); an image sensor (122; 222; 322; 422) having at least one portion exposed to an interior of the optical chamber (123; 223; 323; 423); an aiming beam illumination source (120; 220; 320; 420) to emit light; a first optical component (147; 247; 347; 447) that reflects a portion of the light emitted by the illumination source as a first beam (149; 249; 349; 449) characterized in that a second portion (152; 252; 352; 452) of the light emitted by the illumination source passes the first optical component; and a second optical component (148; 248; 348; 448) that reflects at least some of the second portion of the light as a second beam (157; 257; 357; 457), so that the first and at least the second beams which exit the housing (101; 201; 301; 401) remain parallel with an optical image sensing axis (127; 227; 327; 427) of the machine-readable symbol reader over at least a depth of field of the image sensor (122; 222; 322; 422). a housing (101; 201; 301; 401) having an optical chamber (123; 223; 323; 423); an image sensor (122; 222; 322; 422) having at least one portion exposed to an interior of the optical chamber (123; 223; 323; 423); an aiming beam illumination source (120; 220; 320; 420) to emit light; a first optical component (147; 247; 347; 447) that reflects a portion of the light emitted by the illumination source as a first beam (149; 249; 349; 449) characterized in that a second portion (152; 252; 352; 452) of the light emitted by the illumination source passes the first optical component; and a second optical component (148; 248; 348; 448) that reflects at least some of the second portion of the light as a second beam (157; 257; 357; 457), so that the first and at least the second beams which exit the housing (101; 201; 301; 401) remain parallel with an optical image sensing axis (127; 227; 327; 427) of the machine-readable symbol reader over at least a depth of field of the image sensor (122; 222; 322; 422).
A terminal device, comprising a touch display screen, having a preset area, the preset area comprising an ordinary pixel set and a standby pixel set, wherein pixels contained in the ordinary pixel set are controlled to emit light when the touch display screen is in a state for display or in a special state for fingerprint collection, and pixels contained in the standby pixel set are controlled to emit light only when the touch display is in the special state; an application processor, AP, configured to control pixels contained in the ordinary pixel set and the standby pixel set in the preset area to emit light, the light emitted by the pixels being configured to illuminate a fingerprint of a user; and an optical fingerprint sensor, disposed under the preset area and configured to perform fingerprint collection on the fingerprint of the user illuminated by the light emitted by the pixels.
A pump device (P3-P6) comprising: a positive-displacement pump; a cyclone filter provided on an intake side of the positive-displacement pump; and a non-positive-displacement pump provided on an intake side of the cyclone filter, wherein the positive-displacement pump, the cyclone filter, and the non-positive-displacement pump are linearly coupled and arranged in a vertical direction; and characterised in that the cyclone filter comprises a primary cyclone (200, 200A) and a secondary cyclone, each of the primary cyclone and the secondary cyclone is equipped with a mechanism (200c, 300c) through which separated foreign substances are expelled, and a discharge rate of the non-positive-displacement pump is set higher than a discharge rate of the positive-displacement pump.
A transportation path changing device that changes a transportation path of a continuous sheet-like object that is being transported, the transportation path changing device comprising: an oscillating section that oscillates in an intersecting direction intersecting with a flow direction of the transported object, and that increases/decreases the length of the transportation path of the transported object; a first moving means that is connected to the oscillating section, and that moves the oscillating section in the intersecting direction; characterized by further comprising a second moving means that moves a portion or the entirety of the first moving means in the intersecting direction; and a control section that controls the first moving means and the second moving means. an oscillating section that oscillates in an intersecting direction intersecting with a flow direction of the transported object, and that increases/decreases the length of the transportation path of the transported object; a first moving means that is connected to the oscillating section, and that moves the oscillating section in the intersecting direction; characterized by further comprising a second moving means that moves a portion or the entirety of the first moving means in the intersecting direction; and a control section that controls the first moving means and the second moving means.
A method of conducting assays in a multi-well assay plate using an apparatus comprising a light detection subsystem, a liquid handling subsystem and a plate handling subsystem, wherein, for each individual well in a plurality of wells of the multi-well assay plate, an assay comprises, in series, the steps of: (a) adding sample to the individual well; (b) incubating said sample in the individual well during an incubation phase; and (c) adding reagent to the individual well; wherein the method comprises performing said assay for each of the individual wells in a continuous interleaved process, the continuous interleaved process comprising the steps of: (i) during the incubation phase of an assay of at least a previous well, performing step (a) for an assay for a next well; and (ii) when the previous well has reached the end of the incubation phase, performing step (c) for the previous well. wherein, for each individual well in a plurality of wells of the multi-well assay plate, an assay comprises, in series, the steps of: (a) adding sample to the individual well; (b) incubating said sample in the individual well during an incubation phase; and (c) adding reagent to the individual well; (a) adding sample to the individual well; (b) incubating said sample in the individual well during an incubation phase; and (c) adding reagent to the individual well; wherein the method comprises performing said assay for each of the individual wells in a continuous interleaved process, the continuous interleaved process comprising the steps of: (i) during the incubation phase of an assay of at least a previous well, performing step (a) for an assay for a next well; and (ii) when the previous well has reached the end of the incubation phase, performing step (c) for the previous well. (i) during the incubation phase of an assay of at least a previous well, performing step (a) for an assay for a next well; and (ii) when the previous well has reached the end of the incubation phase, performing step (c) for the previous well.
Combination of 3- -[3-(2-methoxyphenylthio)-2- -methyl-propyl]amino-3,4-dihydro-2H-1,5-benzoxathiepine, or one of the pharmaceutically acceptable salts thereof, and ivabradine, or one of the pharmaceutically acceptable salts thereof.
A method for preparing a copper-containing hydrogenation catalyst, comprising reducing a molded precursor of the copper-containing hydrogenation catalyst by supplying hydrogen gas or a mixture of hydrogen gas with an inert gas at a temperature of 50 to 150°C in the presence of a solvent to obtain the copper-containing hydrogenation catalyst, wherein the reduction is conducted at an average reduction velocity of the copper-containing hydrogenation catalyst of not more than 3.0% by weight/hour, wherein the average reduction velocity is determined as follows: average reduction velocity = 100 % by weight of reduction water / time taking to the reduction % by weight / hour, wherein the time taking to the reduction is the time from the start of increasing a temperature to the end of reduction, wherein the end of reduction is a point that an amount of water produced by the reduction reaches to not more than 0.1% by weight, and wherein the amount of water is determined from measurements of the concentration of water in the solvent at an inlet and at an outlet of a reactor used for performing said reduction over the time and calculating the difference, wherein the solvent is at least one selected from the group consisting of glyceride oil, fatty acid esters, aliphatic alcohols and hydrocarbons.
Use of lithium silicate glass ceramic, which comprises at least 6.5 wt.-%, preferably at least 7.0 wt.-%, particularly preferably at least 8.0 wt.-% and quite particularly preferably at least 10.0 wt.-% ZrO 2 and 60.0 to 71.0 wt.-% SiO 2 and comprises lithium metasilicate as main crystal phase and comprises more than 10 vol.-% of lithium metasilicate crystals, as dental material and in particular for coating dental restorations and for preparing dental restorations.
A cutting tool comprising a base body and a multi-layer coating applied thereto, which, possibly besides further layers, includes a plurality of main layers A and intermediate layers B applied alternately directly one upon the other, wherein the main layers A and the intermediate layers B are respectively metal oxide layers produced by the PVD process, the thickness of the main layers A is in the range of 4 nm to 1 μm, and the thickness of the intermediate layers B is in the range of 2 nm to 50 nm, wherein the ratio of the thicknesses of the intermediate layers B to the thicknesses of the main layers A is in the range of 1:2 to 1:100, and wherein within a main layer A the proportion of metal oxide in crystalline form decreases over the total thickness of the respective main layer A in the direction from the substrate outwardly from a proportion in the range of 100 to 90 % by volume of crystalline metal oxide to a proportion of at least 80 % by volume of crystalline metal oxide, and wherein the main layers A consist of AlCr mixed oxide and the intermediate layers B consist of Zr oxide, Y oxide or ZrY mixed oxide.
A product assembly, comprising: a device having a first side and a second side, opposite the first side; a multi-layered printable structure configured to encase the device, the multi-layered printable structure including a first encasing subassembly positioned on the first side of the device and a second encasing subassembly positioned on the second side of the device, the first encasing subassembly including: a first fabric layer including at least polyurethane, the first fabric layer including a first side that is printable with water-based ink,; a first adhesive layer bonded to a second side of the first fabric layer; an ink migration barrier bonded to the first adhesive layer opposite the first fabric layer; a second adhesive layer bonded to the ink migration barrier opposite the first adhesive layer; and wherein the second encasing subassembly includes: a second fabric layer including at least polyurethane; a third adhesive layer bonded to a first side of the second fabric layer; and wherein the first and second encasing subassemblies are bonded around the device, so that the first side of the device is bonded to the second adhesive layer, and so that the second side of the device is bonded to the third adhesive layer. a device having a first side and a second side, opposite the first side; a multi-layered printable structure configured to encase the device, the multi-layered printable structure including a first encasing subassembly positioned on the first side of the device and a second encasing subassembly positioned on the second side of the device, the first encasing subassembly including: a first fabric layer including at least polyurethane, the first fabric layer including a first side that is printable with water-based ink,; a first adhesive layer bonded to a second side of the first fabric layer; an ink migration barrier bonded to the first adhesive layer opposite the first fabric layer; a second adhesive layer bonded to the ink migration barrier opposite the first adhesive layer; and a first fabric layer including at least polyurethane, the first fabric layer including a first side that is printable with water-based ink,; a first adhesive layer bonded to a second side of the first fabric layer; an ink migration barrier bonded to the first adhesive layer opposite the first fabric layer; a second adhesive layer bonded to the ink migration barrier opposite the first adhesive layer; and wherein the second encasing subassembly includes: a second fabric layer including at least polyurethane; a third adhesive layer bonded to a first side of the second fabric layer; and a second fabric layer including at least polyurethane; a third adhesive layer bonded to a first side of the second fabric layer; and wherein the first and second encasing subassemblies are bonded around the device, so that the first side of the device is bonded to the second adhesive layer, and so that the second side of the device is bonded to the third adhesive layer.
A system for softening materials at a tissue site, comprising: a contact layer formed from a compressible material and configured to be positioned adjacent the tissue site, the contact layer comprising a plurality of through-holes, wherein the contact layer has a thickness; a cover adapted to form a sealed space over the contact layer and the tissue site for receiving a negative pressure from a negative-pressure source; and wherein the through-holes are configured to receive tissue in the through-holes in response to negative pressure in the sealed space to form nodules in the tissue site, characterized by a retainer layer adapted to be positioned over the contact layer in the sealed space, wherein the retainer layer has a firmness factor that is less than a firmness factor of the contact layer, and the retainer layer limits the height of the nodules to the thickness of the contact layer under the negative pressure. a contact layer formed from a compressible material and configured to be positioned adjacent the tissue site, the contact layer comprising a plurality of through-holes, wherein the contact layer has a thickness; a cover adapted to form a sealed space over the contact layer and the tissue site for receiving a negative pressure from a negative-pressure source; and wherein the through-holes are configured to receive tissue in the through-holes in response to negative pressure in the sealed space to form nodules in the tissue site, characterized by a retainer layer adapted to be positioned over the contact layer in the sealed space, wherein the retainer layer has a firmness factor that is less than a firmness factor of the contact layer, and the retainer layer limits the height of the nodules to the thickness of the contact layer under the negative pressure.
A compound of formula wherein each R 1 is independently selected from hydrogen and halogen; n is 1, 2 or 3; R 2 is hydrogen or methyl; R 3 is a five membered heteroaryl group, selected from is a disubstitued bicyclo[1,1,1]pentane or disubstituted bicyclo[2,2,2]octane selected from X is nitrogen or carbon; or a pharmaceutically acceptable salt thereof. n is 1, 2 or 3; R 2 is hydrogen or methyl; R 3 is a five membered heteroaryl group, selected from is a disubstitued bicyclo[1,1,1]pentane or disubstituted bicyclo[2,2,2]octane selected from X is nitrogen or carbon;