mhurhangee/ep-ind-claims huggingface dataset:
A method of liquefaction of a feed gas stream using a closed loop refrigeration system, the method comprising the steps of: (a) compressing a gaseous refrigerant stream in at least one compressor; (b) cooling at least a portion of the compressed gaseous refrigerant stream in a first heat exchanger (114, 214); (c) expanding a first portion (150, 250) of the cooled, compressed gaseous refrigerant stream (148, 248) from the first heat exchanger (114, 214) in a first expander to provide a first expanded gaseous refrigerant stream, wherein the first expanded gaseous refrigerant stream exiting the first expander is substantially vapor; (d) cooling and substantially liquefying a feed gas stream (100, 301) to form a substantially liquefied feed gas stream in a second heat exchanger (110, 310) through indirect heat exchange against a first portion of the first expanded gaseous refrigerant stream from the first expander, characterized in that the method further comprises the step of: (e) further cooling a second portion of the cooled, compressed gaseous refrigerant stream (148, 248) from the first heat exchanger (114, 214) in a third heat exchanger by indirect heat exchange with a second portion of the first expanded gaseous refrigerant stream from the first expander, wherein the first heat exchanger (114, 214) and the third heat exchanger may be combined into one heat exchanger. (a) compressing a gaseous refrigerant stream in at least one compressor; (b) cooling at least a portion of the compressed gaseous refrigerant stream in a first heat exchanger (114, 214); (c) expanding a first portion (150, 250) of the cooled, compressed gaseous refrigerant stream (148, 248) from the first heat exchanger (114, 214) in a first expander to provide a first expanded gaseous refrigerant stream, wherein the first expanded gaseous refrigerant stream exiting the first expander is substantially vapor; (d) cooling and substantially liquefying a feed gas stream (100, 301) to form a substantially liquefied feed gas stream in a second heat exchanger (110, 310) through indirect heat exchange against a first portion of the first expanded gaseous refrigerant stream from the first expander, characterized in that the method further comprises the step of: (e) further cooling a second portion of the cooled, compressed gaseous refrigerant stream (148, 248) from the first heat exchanger (114, 214) in a third heat exchanger by indirect heat exchange with a second portion of the first expanded gaseous refrigerant stream from the first expander,
A method for manufacturing a super-junction, comprising: providing a substrate_doped with a first doping density; forming a p-type region doped with a second doping density within the substrate doped with the first doping density through a transmutation doping process by taking a first mask with a pattern of the p-type region doped with the second doping density, wherein the second doping density is higher than the first doping density; forming an n-type region doped with a third doping density within the substrate doped with the first doping density through a transmutation doping process by taking a second mask with a pattern of the n-type region doped with the third doping density, wherein the third doping density is higher than the first doping density; and performing annealing treatment; wherein the forming the p-type region doped with the second doping density within the substrate doped with the first doping density through the transmutation doping process comprises: forming a high-energy photon beam by using a photon source; and forming the p-type region doped with the second doping density within the substrate doped with the first doping density by a nuclear reaction started by particle radiation on the substrate doped with the first doping density by using the high-energy photon beam; wherein the energy of the high-energy photon beam is between 17.5 MeV and 22.5 MeV. providing a substrate_doped with a first doping density; forming a p-type region doped with a second doping density within the substrate doped with the first doping density through a transmutation doping process by taking a first mask with a pattern of the p-type region doped with the second doping density, wherein the second doping density is higher than the first doping density; forming an n-type region doped with a third doping density within the substrate doped with the first doping density through a transmutation doping process by taking a second mask with a pattern of the n-type region doped with the third doping density, wherein the third doping density is higher than the first doping density; and performing annealing treatment; wherein the forming the p-type region doped with the second doping density within the substrate doped with the first doping density through the transmutation doping process comprises: forming a high-energy photon beam by using a photon source; and forming the p-type region doped with the second doping density within the substrate doped with the first doping density by a nuclear reaction started by particle radiation on the substrate doped with the first doping density by using the high-energy photon beam; wherein the energy of the high-energy photon beam is between 17.5 MeV and 22.5 MeV. forming a high-energy photon beam by using a photon source; and forming the p-type region doped with the second doping density within the substrate doped with the first doping density by a nuclear reaction started by particle radiation on the substrate doped with the first doping density by using the high-energy photon beam; wherein the energy of the high-energy photon beam is between 17.5 MeV and 22.5 MeV.
A fan hub for a turbine engine having a rotational axis and supporting a fan blade, wherein the fan blade includes an airfoil comprising pressure and suction sides extending in a radial direction from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip, wherein the airfoil has a relationship between an axial leading edge location and a span position that is at least a third order polynomial with a U-shaped curve having an initial negative slope followed by a positive slope, the positive slope leans aftward and the negative slope leans forward, the curve having a critical point in the range of 30-50% span position at which the curve changes from the negative slope to the positive slope; characterised in that the curve is linear from 55% span to 75% span and this portion of the positive slope increases at a rate of about 2.22 mm (0.0875 inch) per 1% span, +/- 1.01 mm (+/-0.04 inch) per 1% span.
An additive fabrication device configured to form layers of material on a build platform, each layer of material being formed so as to contact a container (106, 302) in addition to the build platform and/or a previously formed layer of material, the additive fabrication device comprising: a container (106, 302); and a movable wiper, the wiper comprising: a wiper arm (202, 402); and a wiper blade (201, 401) characterised in that said wiper blade is coupled to said wiper arm using a pivoting coupling (203, 403), the pivoting coupling allowing the wiper blade to move in a direction away from the surface of the container to allow the wiper to continue its motion substantially unimpeded, through rotation of the wiper blade around the pivoting coupling. a container (106, 302); and a movable wiper, the wiper comprising: a wiper arm (202, 402); and a wiper blade (201, 401) characterised in that said wiper blade is coupled to said wiper arm using a pivoting coupling (203, 403), the pivoting coupling allowing the wiper blade to move in a direction away from the surface of the container to allow the wiper to continue its motion substantially unimpeded, through rotation of the wiper blade around the pivoting coupling. a wiper arm (202, 402); and a wiper blade (201, 401) characterised in that said wiper blade is coupled to said wiper arm using a pivoting coupling (203, 403), the pivoting coupling allowing the wiper blade to move in a direction away from the surface of the container to allow the wiper to continue its motion substantially unimpeded, through rotation of the wiper blade around the pivoting coupling.
Tube made of elastomeric material for an air conditioning system or other system which is on-board of a motor-vehicle, intended to be fitted over a metal connecting element, and to be locked onto the latter by means of a metal clamping element that is clamped around said tube with a crimping operation, wherein said tube comprises at least one body formed of polymeric elastomeric material supplemented with carbon-based nanofillers, said body including: - an outer surface with one or more piezo-resistive areas where said polymeric material supplemented with carbon-based nanofillers has been made locally piezo-resistive by laser irradiation, so as to define one or more electric deformation sensors configured to detect the pressure exerted above said piezo-resistive areas, - one or more conductive paths where said polymeric material supplemented with carbon-based nanofillers has been made locally electrically-conductive by laser irradiation, so as to define one or more electrical connection lines of said one or more piezo-resistive areas, wherein electrodes may be associated with said body, in such a way that said piezo-resistive areas can be used to verify the correct execution of said crimping operation. - an outer surface with one or more piezo-resistive areas where said polymeric material supplemented with carbon-based nanofillers has been made locally piezo-resistive by laser irradiation, so as to define one or more electric deformation sensors configured to detect the pressure exerted above said piezo-resistive areas, - one or more conductive paths where said polymeric material supplemented with carbon-based nanofillers has been made locally electrically-conductive by laser irradiation, so as to define one or more electrical connection lines of said one or more piezo-resistive areas, wherein electrodes may be associated with said body, in such a way that said piezo-resistive areas can be used to verify the correct execution of said crimping operation.
A hand tool with an incorporated burner comprising: - a casing; - a burner housed in the casing and connected to an electrically conducting component; - a trigger mounted on the casing and movable along a direction (D-D); - an ignition abutment; and - a piezoelectric igniter; wherein the trigger comprises an open actuation housing receiving the piezoelectric igniter, said actuation housing having an open end facing the ignition abutment so that the piezoelectric igniter is placed facing the ignition abutment and that a displacement of the trigger in an actuation direction (Sa) is capable of forcing the piezoelectric igniter against the ignition abutment for producing a spark at the burner via the electrically conducting component; the hand tool being characterized in that the trigger and the casing comprise mechanical means (42, 54) with shape complementarity which are separable by elastic deformation, so that the trigger and the piezoelectric igniter form a take-down unit by separation of the mechanical means from the trigger and the casing, the take-down unit being removable from the casing without opening of the casing. - a casing; - a burner housed in the casing and connected to an electrically conducting component; - a trigger mounted on the casing and movable along a direction (D-D); - an ignition abutment; and - a piezoelectric igniter;
A solid lipstick composition comprising: (a) from 1% to 25% by weight of at least one silicone acrylate copolymer; (b) from 5% to 35% by weight of at least one polypropylsilsesquioxane film forming resin; (c) from 10% to 20% by weight of at least one wax selected from polyethylene wax, stearoxydimethicone, behenoxy dimethicone, stearyl dimethicone, cetearyl dimethicone, and mixtures thereof; (d) from 30% to 70% by weight of at least one volatile hydrocarbon solvent; (e) optionally at least one colorant; and (f) optionally at least one filler; wherein the sum of the weight per cent of the at least one silicon acrylate copolymer (a) and the at least one polypropylsilsesquioxane film forming resin (b) is less than or equal to 20%; wherein the ratio of the silicon acrylate copolymer (a) to the at least one polypropylsilsesquioxane film forming resin (b) is from 1:1 to 1:2.5; the composition having a hardness of at least 40 gf for a sample of 8.1 mm diameter stick; the weights being relative to the weight of the composition. (a) from 1% to 25% by weight of at least one silicone acrylate copolymer; (b) from 5% to 35% by weight of at least one polypropylsilsesquioxane film forming resin; (c) from 10% to 20% by weight of at least one wax selected from polyethylene wax, stearoxydimethicone, behenoxy dimethicone, stearyl dimethicone, cetearyl dimethicone, and mixtures thereof; (d) from 30% to 70% by weight of at least one volatile hydrocarbon solvent; (e) optionally at least one colorant; and (f) optionally at least one filler;
A method in a network node for handling scheduling of a wireless device in a communications network, wherein the network node is adapted to communicate with the wireless device over a radio channel, the method comprising: dynamically allocating (401, 501) a set of non-consecutive subframes in which the network node is to transmit data to the wireless device or receive data from the wireless device; and transmitting (402, 502) a multi-Time Transmission Interval, TTI, scheduling message to the wireless device, which multi-TTI scheduling message comprises information indicating the dynamically allocated non-consecutive subframes, wherein the information indicating the dynamically allocated non-consecutive subframes further indicates a multi-TTI subframe pattern corresponding to non-consecutive subframes where the network node shall receive data from the wireless device or transmit data to the wireless device such that the multi-TTI subframe pattern indicates which subframes are on and may be allocated and which subframes are off and not to be allocated, and wherein the multi-TTI scheduling message further comprises information indicating a number of on subframes, or information indicating a number of consecutive subframes associated with a time interval. dynamically allocating (401, 501) a set of non-consecutive subframes in which the network node is to transmit data to the wireless device or receive data from the wireless device; and transmitting (402, 502) a multi-Time Transmission Interval, TTI, scheduling message to the wireless device, which multi-TTI scheduling message comprises information indicating the dynamically allocated non-consecutive subframes,
A motor vehicle engine comprising an air filter unit, which in turn comprises a housing mounted on the engine, said housing including an air inlet and being capable of accommodating an air filtering means therein, and including a wall extending to contact against a surface of the engine, such that, in use, one part (H, I) of the engine is isolated from another part (K, X, G) of the engine by the wall; characterized in that the housing is arranged as an upper boundary to at least two air circulation areas (ACF, ACX), one on each side of said wall, where air may circulate between the housing and the engine; and in that the wall and an underside of the housing define enclosures (ACF, ACX) that, in use, spatially isolate fuel carrying components (H, I) of the engine from high temperature components (K, X, G) of the engine.
Article comprising a closed envelope A formed from a supple material, preferably of the polyurethane-based plastic film type or of the silicone elastomer type, said closed envelope A containing as filling material a silicone gel obtained by crosslinking α silicone composition B that can be crosslinked into α gel by hydrosilylation, characterized in that said silicone composition B comprises at least one antiodor active principle C which is an aluminosilicate.
A microprocessor for executing instructions of the x86 instruction set architecture, ISA, comprising: hardware registers adapted to hold architected state of x86 ISA 32-bit EDX and EAX general purpose registers GPRs; and a hardware register adapted to hold architected state of x86 ISA 64-bit R8-R15 GPRs; a Model Specific Register, MSR, address space that includes MSRs of the microprocessor, each having a unique MSR address, wherein each of the x86 ISA 64-bit R8-R15 GPRs has a respective unique MSR address within the MSR address space; the microprocessor being characterized in that, while operating in an x86 ISA operating mode other than the x86 long mode, in response to an x86 ISA Read from Model Specific Register, RDMSR, instruction that specifies in the x86 ISA 32-bit ECX GPR the respective unique MSR address of one of the x86 ISA 64-bit R8-R15 GPRs, the microprocessor is adapted to read all 64 bits of the hardware register adapted to hold the architected state of the specified one of the x86 ISA 64-bit R8-R15 GPRs into the hardware registers adapted to hold the architected state of the x86 ISA 32-bit EDX and EAX registers. hardware registers adapted to hold architected state of x86 ISA 32-bit EDX and EAX general purpose registers GPRs; and a hardware register adapted to hold architected state of x86 ISA 64-bit R8-R15 GPRs; a Model Specific Register, MSR, address space that includes MSRs of the microprocessor, each having a unique MSR address, wherein each of the x86 ISA 64-bit R8-R15 GPRs has a respective unique MSR address within the MSR address space; the microprocessor being characterized in that, while operating in an x86 ISA operating mode other than the x86 long mode, in response to an x86 ISA Read from Model Specific Register, RDMSR, instruction that specifies in the x86 ISA 32-bit ECX GPR the respective unique MSR address of one of the x86 ISA 64-bit R8-R15 GPRs, the microprocessor is adapted to read all 64 bits of the hardware register adapted to hold the architected state of the specified one of the x86 ISA 64-bit R8-R15 GPRs into the hardware registers adapted to hold the architected state of the x86 ISA 32-bit EDX and EAX registers.
Knee joint endoprosthesis system with a tibia part, a meniscus part rotatably mountable on the tibia part and a femur part interacting with the meniscus part for formation of a knee joint endoprosthesis, the system comprising a rotation limiting device for limiting a rotational movement of the meniscus part relative to the tibia part, and the rotation limiting device being at least partially releasably connectable to the tibia part and/or to the meniscus part, a rotary bearing formed between the tibia part and the meniscus part being provided with a first bearing bolt which defines an axis of rotation perpendicular to a flat tibia slide surface of the tibia part, against which tibia slide surface a flat meniscus slide surface of the meniscus part lies, the knee joint endoprosthesis system comprising a coupling device for rotationally fixedly coupling a stop member to the tibia part, and the coupling device comprising a first and a second coupling member (108, 110) which engage with force locking and/or positive locking in a coupled position, and the first coupling member being arranged or formed on the stop member and the second coupling member on the tibia part, characterized in that the stop member, facing in the anterior direction, protrudes from the rotary bearing, and in that a second bearing bolt is provided, which is optionally connectable instead of the first bearing bolt to the tibia part.
Method for producing a coated piston, in particular a coated piston for an internal combustion engine, comprising the following steps: section-wise application of a coating composition, comprising a curable matrix, to the piston, in particular the piston shaft, application of solid lubricant particles in the form of one or more spatially delimited structure(s) to the still uncured coating composition, and curing the matrix in order to generate a sliding layer, wherein the solid lubricant particles applied in step are not dispersed in a polymer matrix. section-wise application of a coating composition, comprising a curable matrix, to the piston, in particular the piston shaft, application of solid lubricant particles in the form of one or more spatially delimited structure(s) to the still uncured coating composition, and curing the matrix in order to generate a sliding layer,
A system comprising: an aircraft winglet of an aircraft; and a light assembly comprising: an exterior skin coupled to the aircraft winglet, at least one interior surface of the exterior skin defining a cavity within the exterior skin; one or more illumination sources housed within the cavity; one or more sets of holes within the exterior skin, the one or more sets of holes configured to allow illumination generated by the one or more illumination sources to pass through the exterior skin; and one or more protection elements proximate to the one or more sets of holes. an aircraft winglet of an aircraft; and a light assembly comprising: an exterior skin coupled to the aircraft winglet, at least one interior surface of the exterior skin defining a cavity within the exterior skin; one or more illumination sources housed within the cavity; one or more sets of holes within the exterior skin, the one or more sets of holes configured to allow illumination generated by the one or more illumination sources to pass through the exterior skin; and one or more protection elements proximate to the one or more sets of holes. an exterior skin coupled to the aircraft winglet, at least one interior surface of the exterior skin defining a cavity within the exterior skin; one or more illumination sources housed within the cavity; one or more sets of holes within the exterior skin, the one or more sets of holes configured to allow illumination generated by the one or more illumination sources to pass through the exterior skin; and one or more protection elements proximate to the one or more sets of holes.
A hydrogel-forming material comprising: a lipid peptide-type gelator that is a compound of the following formula: where R 1 is a C 9-23 aliphatic group; R 2 is a hydrogen atom; R 3 is a -(CH 2) n -X group; n is a number from 1 to 4; and X is an amino group, a guanidino group, a -CONH 2 group, a 5-membered ring group optionally containing 1 to 3 nitrogen atoms, a 6-membered ring group optionally containing 1 to 3 nitrogen atoms, or a condensed ring group that contains a 5-membered ring and a 6-membered ring optionally containing 1 to 3 nitrogen atoms, and pharmaceutically usable salts thereof; water; and an additive including either an organic acid or an organic acid salt, wherein the organic acid is trimellitic acid, and the organic acid salt is a trimellitate. a lipid peptide-type gelator that is a compound of the following formula: where R 1 is a C 9-23 aliphatic group; R 2 is a hydrogen atom; R 3 is a -(CH 2) n -X group; n is a number from 1 to 4; and X is an amino group, a guanidino group, a -CONH 2 group, a 5-membered ring group optionally containing 1 to 3 nitrogen atoms, a 6-membered ring group optionally containing 1 to 3 nitrogen atoms, or a condensed ring group that contains a 5-membered ring and a 6-membered ring optionally containing 1 to 3 nitrogen atoms, and pharmaceutically usable salts thereof; water; and an additive including either an organic acid or an organic acid salt, wherein the organic acid is trimellitic acid, and the organic acid salt is a trimellitate. where R 1 is a C 9-23 aliphatic group; R 2 is a hydrogen atom; R 3 is a -(CH 2) n -X group; n is a number from 1 to 4; and X is an amino group, a guanidino group, a -CONH 2 group, a 5-membered ring group optionally containing 1 to 3 nitrogen atoms, a 6-membered ring group optionally containing 1 to 3 nitrogen atoms, or a condensed ring group that contains a 5-membered ring and a 6-membered ring optionally containing 1 to 3 nitrogen atoms, and pharmaceutically usable salts thereof; water; and an additive including either an organic acid or an organic acid salt, wherein the organic acid is trimellitic acid, and the organic acid salt is a trimellitate.