mhurhangee/ep-ind-claims huggingface dataset:
A radiation treatment system comprising: an X-ray imaging device; a treatment-delivering X-ray source configured to direct treatment X-rays to a target volume; an imaging X-ray source configured to direct imaging X-rays through the target volume and toward the X-ray imager; and a processor configured to: direct a pulse of imaging X-rays through a target volume and onto the X-ray imaging device, so that a portion of the imaging X-rays is incident on a photodetector Z (301, 1001) included in a pixel detector element of the X-ray imaging device and an image signal output by the photodetector accumulates in a signal integrator disposed within the pixel detector element; direct a pulse of treatment X-rays through the target volume; and while directing the pulse of treatment X-rays onto the target volume, prevent the image signal from accumulating in the signal integrator. an X-ray imaging device; a treatment-delivering X-ray source configured to direct treatment X-rays to a target volume; an imaging X-ray source configured to direct imaging X-rays through the target volume and toward the X-ray imager; and a processor configured to: direct a pulse of imaging X-rays through a target volume and onto the X-ray imaging device, so that a portion of the imaging X-rays is incident on a photodetector Z (301, 1001) included in a pixel detector element of the X-ray imaging device and an image signal output by the photodetector accumulates in a signal integrator disposed within the pixel detector element; direct a pulse of treatment X-rays through the target volume; and while directing the pulse of treatment X-rays onto the target volume, prevent the image signal from accumulating in the signal integrator. direct a pulse of imaging X-rays through a target volume and onto the X-ray imaging device, so that a portion of the imaging X-rays is incident on a photodetector Z (301, 1001) included in a pixel detector element of the X-ray imaging device and an image signal output by the photodetector accumulates in a signal integrator disposed within the pixel detector element; direct a pulse of treatment X-rays through the target volume; and while directing the pulse of treatment X-rays onto the target volume, prevent the image signal from accumulating in the signal integrator.
A soft decision method for demodulating a received signal of a square Quadrature Amplitude Modulation, QAM, consisting of an in-phase signal component β and a quadrature phase signal component α, comprising: obtaining 2n conditional probability vector values, each being a soft decision value corresponding to one of 2n bit positions, using a function including a conditional determination operation from the quadrature phase component α and the in-phase component β of the received signal, wherein the conditional probability vector values corresponding to the first to n th bits are calculated by substituting one of the in-phase signal component β and the quadrature phase signal component α into a first demodulation method, and wherein the conditional probability vector values corresponding to the (n+1) th to 2n th bits are calculated by substituting the other one of the in-phase signal component β and the quadrature phase signal component α into the first demodulation method. obtaining 2n conditional probability vector values, each being a soft decision value corresponding to one of 2n bit positions, using a function including a conditional determination operation from the quadrature phase component α and the in-phase component β of the received signal, wherein the conditional probability vector values corresponding to the first to n th bits are calculated by substituting one of the in-phase signal component β and the quadrature phase signal component α into a first demodulation method, and wherein the conditional probability vector values corresponding to the (n+1) th to 2n th bits are calculated by substituting the other one of the in-phase signal component β and the quadrature phase signal component α into the first demodulation method.
Tyre with radial carcass reinforcement, the inflation pressure of which is greater than or equal to 6 bar, comprising a crown reinforcement, itself capped radially by a tread, the said tread being connected to two beads, comprising a bead wire, by two sidewalls, the said carcass reinforcement being made up of two layers (2, 6) of textile reinforcing elements, a first layer of carcass reinforcement being turned up around the bead wire in each of the beads, the ends of the said first layer of carcass reinforcement being radially on the outside of the radially outermost point of the bead wire in each bead and the second layer of carcass reinforcement extending from one bead to the other without any turnup around the bead wire in each of the beads, its ends being axially on the outside of the axially outermost point of the bead wire in each bead, the said tyre comprising in each sidewall a first filling element, axially on the inside of the exterior surface of a sidewall and axially on the outside of the turnup of the first layer of carcass reinforcement, and made of a rubber compound having a secant elastic modulus under tension at 10% elongation of Mj, each bead comprising a second filling element made of a rubber compound having a secant elastic modulus under tension at 10% elongation of Mt, extending the bead wire core radially towards the outside, characterized in that each of the layers of carcass reinforcement has a breaking force per unit width higher than 2250 daN/dm, in that the minimum strength per unit width, measured for an elongation of less than 10%, of the second layer of carcass reinforcement is strictly greater than a value equal to 20% of the minimum strength per unit width, measured for an elongation of less than 10%, of the first layer of carcass reinforcement, the minimum strength measurement being determined by the minimum gradient of the elongation curve between 0 and 10% over a range of 2%, in that the reinforcing elements of the two layers of carcass reinforcement have a thread count of less than 750 tex, in that the elongation of the reinforcing elements of the second layer of carcass reinforcement is greater than 4% under a force of 20 daN and in that the secant elastic modulus values under tension at 10% elongation, Mt, Mj, satisfy the relationship Mt/Mj ≥ 1.
Combination of an omnidirectionally mobile driving platform and at least one separate working device, wherein the driving platform comprises: - a chassis, - a control device arranged on the chassis and adapted to autonomously navigate the omnidirectionally mobile driving platform on a ground in dependence of its environment by the control device automatically controlling at least three wheels, - at least one coupling device connected to the chassis and adapted to couple the at least one separate working device to the mobile platform in order to autonomously move the working device coupled by means of the coupling device in the vicinity of the mobile platform under the control of the control device of the mobile platform, and wherein the at least one separate working device comprises its own work control (8.1) for controlling the working functions of the working device, characterized in that the control device of the mobile platform is designed and set up to autonomously navigate the mobile platform on a ground in dependence of its environment, considering control commands of the work control (8.1), in such a way that the work control (8.1) sends the necessary travel speed commands to the control device of the omnidirectionally mobile platform and the working device follows the travel of the omnidirectionally mobile platform without any further navigation intelligence of its own. - a chassis, - a control device arranged on the chassis and adapted to autonomously navigate the omnidirectionally mobile driving platform on a ground in dependence of its environment by the control device automatically controlling at least three wheels, - at least one coupling device connected to the chassis and adapted to couple the at least one separate working device to the mobile platform in order to autonomously move the working device coupled by means of the coupling device in the vicinity of the mobile platform under the control of the control device of the mobile platform, and wherein the at least one separate working device comprises its own work control (8.1) for controlling the working functions of the working device, characterized in that the control device of the mobile platform is designed and set up to autonomously navigate the mobile platform on a ground in dependence of its environment, considering control commands of the work control (8.1), in such a way that the work control (8.1) sends the necessary travel speed commands to the control device of the omnidirectionally mobile platform and the working device follows the travel of the omnidirectionally mobile platform without any further navigation intelligence of its own.
Method for saving power for tag talks first data transmission in a radio frequency identification, RFID, system including a tag containing a non-volatile memory, a digital block and an analogue block and a static random access memory, wherein tag talks first data of the non-volatile memory are prefetched from the non-volatile memory into the digital block and the tag talks first data will be stored in the static random access memory embedded in the digital block to allow switching the non volatile memory into power down mode during tag talks first data transmission.
A method for constructing an array, comprising: a) chemically synthesizing a set of oligonucleotides directly on a solid substrate, wherein each oligonucleotide encodes a peptide of interest; b) attaching one or more additional oligonucleotides comprising an untranslated region, and a sequence encoding an affinity tag to each oligonucleotide encoding the peptide of interest, to create an extended oligonucleotide on the solid substrate, wherein the extended oligonucleotide comprises a capture agent capable of selectively binding to the affinity tag; c) performing in vitro transcription and translation utilizing each extended oligonucleotide as a template for production of a peptide comprising the peptide of interest and the affinity tag; and d) capturing the peptide produced in step (c) by interaction between the affinity tag and the capture agent of the extended oligonucleotide; thereby attaching the produced peptide on the solid substrate. a) chemically synthesizing a set of oligonucleotides directly on a solid substrate, wherein each oligonucleotide encodes a peptide of interest; b) attaching one or more additional oligonucleotides comprising an untranslated region, and a sequence encoding an affinity tag to each oligonucleotide encoding the peptide of interest, to create an extended oligonucleotide on the solid substrate, wherein the extended oligonucleotide comprises a capture agent capable of selectively binding to the affinity tag; c) performing in vitro transcription and translation utilizing each extended oligonucleotide as a template for production of a peptide comprising the peptide of interest and the affinity tag; and d) capturing the peptide produced in step (c) by interaction between the affinity tag and the capture agent of the extended oligonucleotide; thereby attaching the produced peptide on the solid substrate.
A method of providing, for display at a mobile computing device, a pedestrian route associated with an indoor facility, the method comprising: localizing the mobile computing device at a first position associated with the indoor facility; comparing a unique identifier of the mobile computing device with a database comprising credentials assigned to a set of mobile computing devices, each credential having historical trajectory information associated with it, the assignment of a credential to a mobile computing device being based on a user attribute associated with the mobile computing device, wherein the historical trajectory information is trajectory information pertaining to mobile computing devices, which have previously traversed the indoor facility, and wherein the trajectory information includes a sequence of positions constituting a route taken by the respective mobile devices, and dwell times of the respective mobile computing devices at positions along the sequence of positions constituting the route; based on the comparing, determining a credential associated with the mobile computing device; and communicating, for display at the mobile computing device, the pedestrian route from the first position to at least a second position associated with the indoor facility, the pedestrian route being determined at least partly based on the historical trajectory information associated with the credential. localizing the mobile computing device at a first position associated with the indoor facility; comparing a unique identifier of the mobile computing device with a database comprising credentials assigned to a set of mobile computing devices, each credential having historical trajectory information associated with it, the assignment of a credential to a mobile computing device being based on a user attribute associated with the mobile computing device, wherein the historical trajectory information is trajectory information pertaining to mobile computing devices, which have previously traversed the indoor facility, and wherein the trajectory information includes a sequence of positions constituting a route taken by the respective mobile devices, and dwell times of the respective mobile computing devices at positions along the sequence of positions constituting the route; based on the comparing, determining a credential associated with the mobile computing device; and communicating, for display at the mobile computing device, the pedestrian route from the first position to at least a second position associated with the indoor facility, the pedestrian route being determined at least partly based on the historical trajectory information associated with the credential.
Method for polishing an optical surface by means of a polishing tool, the polishing method comprising: • a step of receiving a surface, during which an optical surface to be polished is received, • a configuration step, during which the polishing machine comprising a polishing tool is configured, • a polishing step, during which the optical surface is polished by means of the polishing machine configured during the configuration step, the method being characterised in that: • during the configuration step, the polishing machine is configured in such a way that: ▪ the angle of inclination (α) of the pin is greater than or equal to 2° and less than or equal to 20°, ▪ the inner cusp point is greater than or equal to -10 mm and less than or equal to 10 mm, ▪ the outer cusp point is greater than or equal to R-15mm and less than or equal to R-5mm, with R being the half-diameter of the circle circumscribed on the surface to be polished, expressed in millimetres; ▪ the speed of advance is greater than or equal to 100 mm/min and less than or equal to 2000 mm/min; ▪ the speed of rotation of the surface to be polished is greater than or equal to 500 rpm and less than or equal to 3000 rpm; and ▪ the bearing force is greater than or equal to 50 N and less than or equal to 180 N. • a step of receiving a surface, during which an optical surface to be polished is received, • a configuration step, during which the polishing machine comprising a polishing tool is configured, • a polishing step, during which the optical surface is polished by means of the polishing machine configured during the configuration step, • during the configuration step, the polishing machine is configured in such a way that: ▪ the angle of inclination (α) of the pin is greater than or equal to 2° and less than or equal to 20°, ▪ the inner cusp point is greater than or equal to -10 mm and less than or equal to 10 mm, ▪ the outer cusp point is greater than or equal to R-15mm and less than or equal to R-5mm, with R being the half-diameter of the circle circumscribed on the surface to be polished, expressed in millimetres; ▪ the speed of advance is greater than or equal to 100 mm/min and less than or equal to 2000 mm/min; ▪ the speed of rotation of the surface to be polished is greater than or equal to 500 rpm and less than or equal to 3000 rpm; and ▪ the bearing force is greater than or equal to 50 N and less than or equal to 180 N. ▪ the angle of inclination (α) of the pin is greater than or equal to 2° and less than or equal to 20°, ▪ the inner cusp point is greater than or equal to -10 mm and less than or equal to 10 mm, ▪ the outer cusp point is greater than or equal to R-15mm and less than or equal to R-5mm, with R being the half-diameter of the circle circumscribed on the surface to be polished, expressed in millimetres; ▪ the speed of advance is greater than or equal to 100 mm/min and less than or equal to 2000 mm/min; ▪ the speed of rotation of the surface to be polished is greater than or equal to 500 rpm and less than or equal to 3000 rpm; and ▪ the bearing force is greater than or equal to 50 N and less than or equal to 180 N.
A method for manufacturing a board body from a blank, the blank having a substantially rectangular three-dimensional concave shape, said method comprising the steps of: collecting, by means of a handling robot, the blank having the substantially rectangular three-dimensional concave shape from a loading area, moving the blank to a scanning area, scanning the substantially rectangular three-dimensional concave shape of the blank in three dimensions by means of a vision system, wherein the scanning produces a three dimensional virtual image of said blank; storing the three dimensional virtual image of said blank in a memory; calculating a three dimensional cutting path for milling the blank into said board body based on said three dimensional virtual image of the blank and user-selected parameters; moving the blank to a machining area by means of the handling robot; and milling the blank along the calculated three dimensional cutting path, by means of a machining robot configured to perform a milling machining operation, into the board body. collecting, by means of a handling robot, the blank having the substantially rectangular three-dimensional concave shape from a loading area, moving the blank to a scanning area, scanning the substantially rectangular three-dimensional concave shape of the blank in three dimensions by means of a vision system, wherein the scanning produces a three dimensional virtual image of said blank; storing the three dimensional virtual image of said blank in a memory; calculating a three dimensional cutting path for milling the blank into said board body based on said three dimensional virtual image of the blank and user-selected parameters; moving the blank to a machining area by means of the handling robot; and milling the blank along the calculated three dimensional cutting path, by means of a machining robot configured to perform a milling machining operation, into the board body.
A sealing material, comprising: a low melting point glass powder; a cellulose resin; a solvent; and a functional material comprising an inorganic powder whose surface has a modified layer, wherein the inorganic powder comprises any one or more of aluminum oxide, magnesium oxide, zinc oxide, zirconium oxide, silicon dioxide, titanium dioxide, boron oxide, diiron trioxide, calcium oxide, potassium oxide, sodium oxide and lithium oxide; and the modified layer is generated by a reaction of a dianhydride and a diamine. a low melting point glass powder; a cellulose resin; a solvent; and a functional material comprising an inorganic powder whose surface has a modified layer, wherein the inorganic powder comprises any one or more of aluminum oxide, magnesium oxide, zinc oxide, zirconium oxide, silicon dioxide, titanium dioxide, boron oxide, diiron trioxide, calcium oxide, potassium oxide, sodium oxide and lithium oxide; and the modified layer is generated by a reaction of a dianhydride and a diamine.
A rotorcraft with a housing assembly for supporting a rotating member of the rotorcraft, the housing assembly comprising: a bearing (18, 50) configured to axially, or radially, or both radially and axially support the member; a housing comprising a bearing support housing (16, 34, 124, 304, 322, 342) configured to support the bearing (18, 50) therein; and a liner (20, 38, 26, 300, 318, 340) positioned between the bearing support housing (16, 34, 124, 304, 322, 342) and the bearing, characterised in that the liner (20, 38, 26, 300, 318, 340) is made of a material selected from the group consisting of ceramic material, ceramic coated material, ceramic and metallic hybrid material, lightweight metallic material, lightweight metallic alloy material and lightweight metallic coated material, wherein a density of the liner material is less than that of steel, and wherein the rotating member is a drive shaft configured to transfer power between a source component and a destination component of an aircraft. a bearing (18, 50) configured to axially, or radially, or both radially and axially support the member; a housing comprising a bearing support housing (16, 34, 124, 304, 322, 342) configured to support the bearing (18, 50) therein; and a liner (20, 38, 26, 300, 318, 340) positioned between the bearing support housing (16, 34, 124, 304, 322, 342) and the bearing, characterised in that the liner (20, 38, 26, 300, 318, 340) is made of a material selected from the group consisting of ceramic material, ceramic coated material, ceramic and metallic hybrid material, lightweight metallic material, lightweight metallic alloy material and lightweight metallic coated material, wherein a density of the liner material is less than that of steel, and wherein the rotating member is a drive shaft configured to transfer power between a source component and a destination component of an aircraft.
Storage tank for accommodating a working medium, capable of freezing, for the exhaust-gas aftertreatment of auto-ignition internal combustion engines, with a delivery unit, with a suction line (30, 36,38) and with a pressure line (40, 52, 54), wherein formed in the suction line (30, 36, 38) is a siphon bend which is above a maximum fill level of the working medium in the storage tank by a height ΔH, wherein both the suction line (30, 36, 38) and the pressure line (40, 52, 54) are heatable and a maximum geodetic height of the siphon bend is above the maximum fill level, that is to say of the working medium stored in the storage tank, a first suction line portion situated before the siphon bend running through the working medium in the interior of the storage tank, characterized in that the delivery unit is situated below the tank base of the storage tank and a second suction line portion extends through the working medium, which is stored in the storage tank, downstream of the siphon bend.