mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for providing unified memory feature of a graphics processor, comprising: setting an address field for a memory access to indicate whether to support a first virtual address size for managing allocation of non-shared virtual memory or to support a second virtual address size for managing allocation of shared virtual memory that is shared between the graphics processor and a host; and reading, with a memory management unit, MMU, of the graphics processor, the address field for the memory access to determine whether to support the first virtual address size for user mode managing allocation of non-shared virtual memory or to support the second virtual address size for system mode managing allocation of shared virtual memory, characterized by: upon determining a first logical value for the address field: appending, with the MMU, a device base address to the first address size to support the second virtual address size for system mode managing allocation of shared virtual memory; and relocating a system mode managed allocation of shared virtual memory from a first region to a second region of a virtual address space. setting an address field for a memory access to indicate whether to support a first virtual address size for managing allocation of non-shared virtual memory or to support a second virtual address size for managing allocation of shared virtual memory that is shared between the graphics processor and a host; and reading, with a memory management unit, MMU, of the graphics processor, the address field for the memory access to determine whether to support the first virtual address size for user mode managing allocation of non-shared virtual memory or to support the second virtual address size for system mode managing allocation of shared virtual memory, characterized by: upon determining a first logical value for the address field: appending, with the MMU, a device base address to the first address size to support the second virtual address size for system mode managing allocation of shared virtual memory; and relocating a system mode managed allocation of shared virtual memory from a first region to a second region of a virtual address space. appending, with the MMU, a device base address to the first address size to support the second virtual address size for system mode managing allocation of shared virtual memory; and relocating a system mode managed allocation of shared virtual memory from a first region to a second region of a virtual address space.
Optical position-measuring device for detecting the relative position of a scanning unit and of a scale (Mf) movable thereto in at least one measuring direction (Mr), in which - the scale (Mf) is designed as a combined module which comprises at least one reflector element (R1, R2; Pr; R) as well as a measuring graduation (Gf) and a transparent support body, and the measuring graduation (Gf) is arranged on one side of the support body, while the at least one reflector element (R1, R2; Pr; R) is arranged on the opposite side of the support body, and - the scanning unit is assigned a light source and one or more detector elements (PE-1, PE0, PE+1), and - the scanning unit comprises splitting means which split the beam emitted by the light source into at least two partial beams in the measuring direction (Mr) which propagate after splitting in the direction of the scale (Mf). - the scale (Mf) is designed as a combined module which comprises at least one reflector element (R1, R2; Pr; R) as well as a measuring graduation (Gf) and a transparent support body, and the measuring graduation (Gf) is arranged on one side of the support body, while the at least one reflector element (R1, R2; Pr; R) is arranged on the opposite side of the support body, and - the scanning unit is assigned a light source and one or more detector elements (PE-1, PE0, PE+1), and - the scanning unit comprises splitting means which split the beam emitted by the light source into at least two partial beams in the measuring direction (Mr) which propagate after splitting in the direction of the scale (Mf).
Light-emitting module, notably for a motor vehicle, including a translucent or transparent material body having: - an entry face for light rays produced by one or more light sources; - a first reflection face with an edge for cutting off the rays coming from the entry face; - an exit face for light rays in an exit beam along an optical axis of the module; - a second reflection face for reflecting toward the exit face rays coming from the first reflection face, characterized in that the cut-off edge is formed by the intersection of the first reflection face with an intermediate face situated between the first reflection face and the second reflection face, said first reflection face and said intermediate face forming a concave profile, the second reflection face extending between the intermediate face and the exit face. - an entry face for light rays produced by one or more light sources; - a first reflection face with an edge for cutting off the rays coming from the entry face; - an exit face for light rays in an exit beam along an optical axis of the module; - a second reflection face for reflecting toward the exit face rays coming from the first reflection face,
A method of identifying and/or tracking deformation in a mechanical part made of composite material for a turbine engine, the part comprising a preform of fiber material together with resin, the method being characterized in that it consists in: • incorporating metallic particles in the preform and/or the resin while fabricating the part; • subjecting the mechanical part to a first X-ray inspection so as to obtain first information about the positions of particles within the part; then • subjecting the mechanical part to a second X-ray inspection on a later occasion so as to obtain second information about the positions of particles within the part; and • identifying the part and/or deducing the deformation of its internal structure by comparing the first and second information about the positions of particles within the part as obtained respectively with the first X-ray and the second X-ray inspections. • incorporating metallic particles in the preform and/or the resin while fabricating the part; • subjecting the mechanical part to a first X-ray inspection so as to obtain first information about the positions of particles within the part; then • subjecting the mechanical part to a second X-ray inspection on a later occasion so as to obtain second information about the positions of particles within the part; and • identifying the part and/or deducing the deformation of its internal structure by comparing the first and second information about the positions of particles within the part as obtained respectively with the first X-ray and the second X-ray inspections.
A process for converting an ester group of a polymer to an acid group comprising: forming a reaction mixture having an atmosphere having a concentration of oxygen of less than 5 ppm, the reaction mixture comprising an aqueous strong base solution and a polymer having a pendant ester of an acid group which hydrolyzes to produce a polymer comprising the pendant acid group or a salt thereof and an alcohol, the polymer is produced in kilogram scale quantities.
A head-mounted display device, comprising: a first positive lens, a second positive lens and a micro-display component arranged coaxially and sequentially, wherein a light incident surface of the first positive lens is close to a light emergent surface of the second positive lens, and a light incident surface of the second positive lens is close to the micro-display component characterised in that the light emergent surface of the second positive lens is a convex Fresnel surface, and the light incident surface of the first positive lens is a planar Fresnel surface.
A formed article comprising a methacrylic resin, wherein the formed article is a sheet which is a planar formed article with a thickness of more than 250 μm, wherein the methacrylic resin comprises a structural unit derived from methyl methacrylate, wherein a total content of the structural unit derived from methyl methacrylate is not less than 90% by mass, wherein the methacrylic resin has a molecular weight M A of not less than 30 thousand and not more than 100 thousand wherein the molecular weight M A is a molecular weight in terms of polystyrene corresponding to the retention time having the value of the maximum strength in a chromatogram of the methacrylic resin obtained by gel permeation chromatography, a ratio of area S gA to area S A of 45 to 80%, wherein the area S gA is an area of a region enclosed by an approximate curve and a base line of the chromatogram, the area S A is an area of a region enclosed by the chromatogram and its base line, and the approximate curve is obtained by fitting only data having the strength of not less than 70% relative to the value of the maximum strength in the chromatogram to a Gaussian function by the method of nonlinear least squares, and a ratio Mw gA /Mn gA of a weight average molecular weight Mw gA to a number average molecular weight Mn gA of not less than 1.01 and not more than 1.20 wherein the weight average molecular weight Mw gA and the number average molecular weight Mn gA are a weight average molecular weight and a number average molecular weight respectively in terms of polystyrene computed based on the approximate curve obtained by the fitting. a ratio of area S gA to area S A of 45 to 80%, wherein the area S gA is an area of a region enclosed by an approximate curve and a base line of the chromatogram, the area S A is an area of a region enclosed by the chromatogram and its base line, and the approximate curve is obtained by fitting only data having the strength of not less than 70% relative to the value of the maximum strength in the chromatogram to a Gaussian function by the method of nonlinear least squares, and a ratio Mw gA /Mn gA of a weight average molecular weight Mw gA to a number average molecular weight Mn gA of not less than 1.01 and not more than 1.20 wherein the weight average molecular weight Mw gA and the number average molecular weight Mn gA are a weight average molecular weight and a number average molecular weight respectively in terms of polystyrene computed based on the approximate curve obtained by the fitting.
Pneumatically driven apparatus, comprising a pneumatic rotary vane motor, a working element realizing a working movement, when the motor is activated, and at least one gear arrangement functionally located between the motor and the working element for transmitting a rotational movement and torque from the motor to the working element in order to realize the working movement, wherein the motor comprises a housing defining an essentially cylindrical chamber extending along a cylinder axis, and an essentially cylindrical rotor located in the chamber and extending along and rotatable about a rotational axis running parallel to the cylinder axis, the rotor comprising a plurality of radially movable vanes forced radially outwards during rotation of the rotor, wherein the at least one gear arrangement is embodied as a magnetic gear arrangement using magnetic fields to transmit the rotational movement and torque from the motor to the working element without mechanical contact, the magnetic gear arrangement comprising three principle components (50; 52; 54), all three of which may rotate relative to each other about rotational axes running parallel or coaxial in respect to one another, a first one of the three components with a first number (n_input) of magnetic pole pairs generates a first magnetic field, a second one of the three components with a second number (n_output) of magnetic pole pairs generates a second magnetic field, and a third one of the three components comprises a third number (n_pp) of ferromagnetic pole pieces, the third component (50, 51) acting as a passive part of a magnetic circuit between the first and second components (52, 54), characterised in that the rotor of the pneumatic motor comprises permanent magnets attached thereto between the vanes thereby making the rotor of the pneumatic motor form the first or the second component (52; 54) of the magnetic gear arrangement.
A reduced-pressure treatment system for treating a tissue site on a patient, the system comprising: a manifold member for distributing reduced pressure to the tissue site; a sealing drape for placing over the tissue site and manifold member and operable to form a fluid seal over the tissue site and manifold member; a reduced-pressure subsystem for delivering a reduced pressure to the sealing drape; and characterised in that the reduced-pressure treatment system further comprises a support member for disposing proximate the tissue site and the manifold member; and a debridement mechanism comprising a debridement implement having a debridement arm having a proximal end and a distal end, the proximal end coupled to the support member and the distal end operable to engage undesired tissue, the debridement mechanism being for debriding the tissue site under the influence of reduced pressure. a manifold member for distributing reduced pressure to the tissue site; a sealing drape for placing over the tissue site and manifold member and operable to form a fluid seal over the tissue site and manifold member; a reduced-pressure subsystem for delivering a reduced pressure to the sealing drape; and characterised in that the reduced-pressure treatment system further comprises a support member for disposing proximate the tissue site and the manifold member; and a debridement mechanism comprising a debridement implement having a debridement arm having a proximal end and a distal end, the proximal end coupled to the support member and the distal end operable to engage undesired tissue, the debridement mechanism being for debriding the tissue site under the influence of reduced pressure.
A Hf-containing, gamma prime nickel-based superalloy, consisting of: 10 wt% to 22 wt% cobalt; 9 wt% to 14 wt% chromium; 0 wt% to 10 wt% tantalum; 2 wt% to 6 wt% aluminum; 2 wt% to 6 wt% titanium; 1.5 wt% to 6 wt% tungsten; 1.5 wt% to 5.5 wt% molybdenum; 0 wt% to 3.5 wt% niobium; 0.01 wt% to 1.0 wt% hafnium; 0.02 wt% to 0.1 wt% carbon; 0.01 wt% to 0.4 wt% boron; 0.15 wt% to 1.3 wt% zirconium; and optionally up to 2.5% rhenium, up to 2% vanadium, up to 2% iron, and/or up to 0.1% magnesium; and the balance nickel and impurities. 10 wt% to 22 wt% cobalt; 9 wt% to 14 wt% chromium; 0 wt% to 10 wt% tantalum; 2 wt% to 6 wt% aluminum; 2 wt% to 6 wt% titanium; 1.5 wt% to 6 wt% tungsten; 1.5 wt% to 5.5 wt% molybdenum; 0 wt% to 3.5 wt% niobium; 0.01 wt% to 1.0 wt% hafnium; 0.02 wt% to 0.1 wt% carbon; 0.01 wt% to 0.4 wt% boron; 0.15 wt% to 1.3 wt% zirconium; and
A laser system, comprising: a first laser cavity (30a-30d) configured to output a laser light along a first path; a first mirror (20a-20d) configured to receive the laser light from the first laser cavity (30a-30d), and redirect the laser light along a second path that is different than the first path; a second mirror configured to receive the laser light from the first mirror (20a-20d), and redirect the laser light along a third path that is different than the first path and the second path; a beam splitter located at a first position on the third path; a beam combiner located at a second position on the third path; and a coupling lens assembly including a lens located at a third position on the third path, wherein the coupling lens assembly is configured to move the lens in x-, y-, and z-directions. a first laser cavity (30a-30d) configured to output a laser light along a first path; a first mirror (20a-20d) configured to receive the laser light from the first laser cavity (30a-30d), and redirect the laser light along a second path that is different than the first path; a second mirror configured to receive the laser light from the first mirror (20a-20d), and redirect the laser light along a third path that is different than the first path and the second path; a beam splitter located at a first position on the third path; a beam combiner located at a second position on the third path; and a coupling lens assembly including a lens located at a third position on the third path, wherein the coupling lens assembly is configured to move the lens in x-, y-, and z-directions.
Exhaust gas treatment device for an exhaust gas system of an internal combustion engine, especially of a motor vehicle, - comprising a housing, the casing of which encloses a receiving space in the circumferential direction, - comprising at least one exhaust gas treatment element, which is arranged in the receiving space, - comprising a bearing layer which is made of resilient bearing material, encloses at least one exhaust gas treatment element in the circumferential direction and rests on at least one exhaust gas treatment element - comprising an insulating layer which is made of a thermally insulating, pressure-resistant insulating material and encloses the bearing layer in the circumferential direction within the casing, - the insulating layer being designed such that it is pressure-resistant and transmitting radially oriented compressive forces between the casing and bearing layer which are introduced by the bearing layer to the at least one exhaust gas treatment element, characterised in that, the insulating layer contains a plurality of insulating bodies which follow each other in the circumferential direction and extend across a circumferential portion in each case. - comprising a housing, the casing of which encloses a receiving space in the circumferential direction, - comprising at least one exhaust gas treatment element, which is arranged in the receiving space, - comprising a bearing layer which is made of resilient bearing material, encloses at least one exhaust gas treatment element in the circumferential direction and rests on at least one exhaust gas treatment element - comprising an insulating layer which is made of a thermally insulating, pressure-resistant insulating material and encloses the bearing layer in the circumferential direction within the casing, - the insulating layer being designed such that it is pressure-resistant and transmitting radially oriented compressive forces between the casing and bearing layer which are introduced by the bearing layer to the at least one exhaust gas treatment element,
LED dimming module comprising two LED strings (1,2), the first LED string comprising at least one color converted blue or UV LED and the second LED string comprising at least one amber light emitting LED, the LED module further comprising control means connected to the first and second LED string (1, 2), said control means being designed to selectively vary a current provided to the first LED string such that a non-linear dimming curve of the resulting emitted light of the LED dimming module is obtained, characterized in that said dimming curve approaching the planckian curve on the CIE chromaticity diagram, wherein the dimming curve of the resulting emitted light of the dimming module deviates from the Planckian dimming curve on the CIE chromaticity diagram for each x-value of the Planckian curve by less than y= +/-0.02, more preferably by less than y= +/-0.01 from the corresponding y-value of the Planckian curve, wherein a constant current is provided to the second LED string.
Device to release from an implant bed in the device a self-expanding implant by pulling back proximally, the length of the implant, a rolling membrane forming part of the device with an inner sleeve that extends distally to the distal end of the implant and an outer sleeve that extends proximally, from the distal end of the inner sleeve, the outer sleeve, during said release, pulling the distal end of the inner sleeve back proximally over the abluminal surface of the remainder of the inner sleeve, proximal of its distal end, and characterized by a slitter, that is caused to move proximally contemporaneously with the outer sleeve, to slit the inner sleeve progressively, starting at a distal point in the inner sleeve, and progressing proximally along the length of the inner sleeve.
A compound shown by general formula, or a pharmaceutically acceptable salt thereof: wherein, X 1, X 2, X 3, X 4 each independently are N or C(R 1), and X 5 is N or C(R 2); R 1 is hydrogen atom, fluorine atom, chlorine atom or C 1-4 -alkyl; R 2 is hydrogen atom, C 1-4 -alkyl, or C 3-6 -cycloalkyl; -A= and -B= each independently are -N- or -C=, and one of -A= and -B= is -N-; L 1 is -CH 2 -; W is -C OH; L 2 is -CH 2 -; X-L 3 -Y is X-N(R 5a)-C -Y, and R 5a is hydrogen atom or methyl; X is phenyl, and the X optionally can be substituted with 1 or 2 substituents independently selected from the following substituents: fluorine atom, chlorine atom, methyl, ethyl or trifluormethyl; Y is phenyl or naphthyl, and the Y optionally can be substituted with 1, 2, or 3 substituents independently selected from the following substituents: fluorine atom, chlorine atom, bromine atom, cyano, methyl, ethyl, isopropyl, tert-butyl or trifluoromethyl. wherein, X 1, X 2, X 3, X 4 each independently are N or C(R 1), and X 5 is N or C(R 2); R 1 is hydrogen atom, fluorine atom, chlorine atom or C 1-4 -alkyl; R 2 is hydrogen atom, C 1-4 -alkyl, or C 3-6 -cycloalkyl; -A= and -B= each independently are -N- or -C=, and one of -A= and -B= is -N-; L 1 is -CH 2 -; W is -C OH; L 2 is -CH 2 -; X-L 3 -Y is X-N(R 5a)-C -Y, and R 5a is hydrogen atom or methyl; X is phenyl, and the X optionally can be substituted with 1 or 2 substituents independently selected from the following substituents: fluorine atom, chlorine atom, methyl, ethyl or trifluormethyl; Y is phenyl or naphthyl, and the Y optionally can be substituted with 1, 2, or 3 substituents independently selected from the following substituents: fluorine atom, chlorine atom, bromine atom, cyano, methyl, ethyl, isopropyl, tert-butyl or trifluoromethyl.
An electrode including: an active material having a surface wherein the active material is selected from the group consisting of silicon, silicon containing materials including silicon oxides, composites and alloys, tin, a tin containing materials including tin oxides, composites and alloys, germanium, a germanium containing material including germanium oxides, composites and alloys, carbon, graphite, sulphur, LiFePO 4, and mixed metal oxides which include one or more of cobalt, lithium, nickel, iron and manganese; and an oligomeric metal-ligand complex associated with the active material surface, the oligomeric metal-ligand complex including at least one ligand datively bonded to a metal ion and wherein the metal of the oligomeric metal-ligand complex is selected from the group consisting of chromium, ruthenium, iron, cobalt, aluminium, zirconium, and rhodium; wherein the metal ion is associated with the active material surface through a dative bond and, optionally, wherein the surface is encapsulated by a layer of the oligomeric metal-ligand complex. an active material having a surface wherein the active material is selected from the group consisting of silicon, silicon containing materials including silicon oxides, composites and alloys, tin, a tin containing materials including tin oxides, composites and alloys, germanium, a germanium containing material including germanium oxides, composites and alloys, carbon, graphite, sulphur, LiFePO 4, and mixed metal oxides which include one or more of cobalt, lithium, nickel, iron and manganese; and an oligomeric metal-ligand complex associated with the active material surface, the oligomeric metal-ligand complex including at least one ligand datively bonded to a metal ion and wherein the metal of the oligomeric metal-ligand complex is selected from the group consisting of chromium, ruthenium, iron, cobalt, aluminium, zirconium, and rhodium;