mhurhangee/ep-ind-claims huggingface dataset:
A smoke eliminator apparatus for removing smoke from a room or building comprising: a tube having a generally hollow interior, an exterior side, a top end having a first opening and a bottom end having a second opening for securing to a fire hose wherein in use a fluid moves through the second opening at the bottom end of the tube, through the interior of the tube and then out of the first opening at the top end of the tube, such that the movement of the fluid out of the first opening of the top end of the tube pulls smoke and/or heat out of a room in the direction of the fluid exiting the first opening at the top end by suction force of the fluid, and wherein the tube has a main body having a longitudinal axis and a generally U-shaped bend at the top end of the tube wherein the two legs of the u-shaped bend are generally perpendicular to the longitudinal axis defined by the main body of the tube and wherein the free end of the top end of the tube is positioned at a distance from the main body of the tube, a glass-breaking device having a generally cone-shaped tip extended out from the exterior side of the tube, located at he bottom of the u-shaped bend farthest away from the main body; wherein the generally cone-shaped tip is suitable for breaking glass or for creating a hole in a wall; and characterized by a nozzle located at an opening on a top portion of the u-shaped bend facing slightly backward and up wherein the nozzle allows the fluid to exit from the interior of the tube at a location other than the first opening at the top end of the tube. a tube having a generally hollow interior, an exterior side, a top end having a first opening and a bottom end having a second opening for securing to a fire hose wherein in use a fluid moves through the second opening at the bottom end of the tube, through the interior of the tube and then out of the first opening at the top end of the tube, such that the movement of the fluid out of the first opening of the top end of the tube pulls smoke and/or heat out of a room in the direction of the fluid exiting the first opening at the top end by suction force of the fluid, and wherein the tube has a main body having a longitudinal axis and a generally U-shaped bend at the top end of the tube wherein the two legs of the u-shaped bend are generally perpendicular to the longitudinal axis defined by the main body of the tube and wherein the free end of the top end of the tube is positioned at a distance from the main body of the tube, a glass-breaking device having a generally cone-shaped tip extended out from the exterior side of the tube, located at he bottom of the u-shaped bend farthest away from the main body; wherein the generally cone-shaped tip is suitable for breaking glass or for creating a hole in a wall; and characterized by a nozzle located at an opening on a top portion of the u-shaped bend facing slightly backward and up wherein the nozzle allows the fluid to exit from the interior of the tube at a location other than the first opening at the top end of the tube.
A method for color profiling of a display device, comprising: applying a plurality of digital color values to a reference display device, wherein the digital color values are located in a low saturation region of an input color space; measuring a plurality of physical color values output by the reference display device, the physical color values being associated with the applied digital color values; determining, based on the measured physical color values of the reference display device, a core mapping of digital color values of the low saturation region of the input color space to physical color values output by the reference display device; applying a plurality of digital color values to a display device, wherein the digital color values are located in a high saturation region of the input color space; measuring a plurality of physical color values (48, 50) output by the display device, the physical color values (48, 50) being associated with the applied digital color values; and generating color profile data for the display device by determining a mapping of digital color values of the full input color space to physical color values output by the display device, based on the measured physical color values and based on the core mapping, wherein the low saturation region comprises low saturation digital color values that are not comprised by the high saturation region. applying a plurality of digital color values to a reference display device, wherein the digital color values are located in a low saturation region of an input color space; measuring a plurality of physical color values output by the reference display device, the physical color values being associated with the applied digital color values; determining, based on the measured physical color values of the reference display device, a core mapping of digital color values of the low saturation region of the input color space to physical color values output by the reference display device; applying a plurality of digital color values to a display device, wherein the digital color values are located in a high saturation region of the input color space; measuring a plurality of physical color values (48, 50) output by the display device, the physical color values (48, 50) being associated with the applied digital color values; and generating color profile data for the display device by determining a mapping of digital color values of the full input color space to physical color values output by the display device, based on the measured physical color values and based on the core mapping, wherein the low saturation region comprises low saturation digital color values that are not comprised by the high saturation region.
A helmet comprising: two layers (2, 3) configured to slide with respect to each other; and wherein the surface of one or both layers comprises a sliding facilitator to improve slidability between the two layers, characterised in that the sliding facilitator comprises (i) an organic polymer, a polysiloxane and a surfactant; (ii) an organic polymer and a copolymer based on a polysiloxane and an organic polymer; or (iii) a non-elastomeric cross-linked polymer obtained or obtainable by subjecting a polysiloxane and an organic polymer to a cross-linking reaction. two layers (2, 3) configured to slide with respect to each other; and wherein the surface of one or both layers comprises a sliding facilitator to improve slidability between the two layers, characterised in that the sliding facilitator comprises (i) an organic polymer, a polysiloxane and a surfactant; (ii) an organic polymer and a copolymer based on a polysiloxane and an organic polymer; or (iii) a non-elastomeric cross-linked polymer obtained or obtainable by subjecting a polysiloxane and an organic polymer to a cross-linking reaction. (i) an organic polymer, a polysiloxane and a surfactant; (ii) an organic polymer and a copolymer based on a polysiloxane and an organic polymer; or (iii) a non-elastomeric cross-linked polymer obtained or obtainable by subjecting a polysiloxane and an organic polymer to a cross-linking reaction.
A posture adaptive work chair comprising: a seat sub-assembly having a front edge and a seat base sub-assembly; a pair of a spine members cantilevered from the font edge of the seat sub-assembly; a back sub-assembly supported by the pair of spine members, the back sub-assembly is configured to flex in multiple axes based on direction of load applied by a user; and a tilt limit lever movably coupled to the seat base sub-assembly; said tilt limit lever being configured to enable tilting of the back-sub assembly to a plurality of tilt positions (132, 132', 132"); wherein the tilt limit lever is movably connected to a tilt lever connector so that radial movement of the tilt limit lever results in linear motion of the tilt lever connector; characterized in that the tilt limit lever comprises a tilt angle position snap configured to engage with at least one tilt angle position slot (142, 142', 142") for each tilt position (132, 132', 132") when said tilt limit lever moves radially about a pivot of the tilt limit lever and in that the tilt lever connector is rotatably connected to a backrest stopper so that linear motion of the tilt limit lever connector results in rotary motion of the backrest stopper being configured to engage with a back-spine connector at each tilt position (132, 132', 132"). a seat sub-assembly having a front edge and a seat base sub-assembly; a pair of a spine members cantilevered from the font edge of the seat sub-assembly; a back sub-assembly supported by the pair of spine members, the back sub-assembly is configured to flex in multiple axes based on direction of load applied by a user; and a tilt limit lever movably coupled to the seat base sub-assembly; said tilt limit lever being configured to enable tilting of the back-sub assembly to a plurality of tilt positions (132, 132', 132"); wherein the tilt limit lever is movably connected to a tilt lever connector so that radial movement of the tilt limit lever results in linear motion of the tilt lever connector; characterized in that the tilt limit lever comprises a tilt angle position snap configured to engage with at least one tilt angle position slot (142, 142', 142") for each tilt position (132, 132', 132") when said tilt limit lever moves radially about a pivot of the tilt limit lever and in that the tilt lever connector is rotatably connected to a backrest stopper so that linear motion of the tilt limit lever connector results in rotary motion of the backrest stopper being configured to engage with a back-spine connector at each tilt position (132, 132', 132").
Method for producing a three-dimensional structure having the steps: - Adding or applying particles on or into a carrier element (1; 7; 16), a plurality of at least some interlinked cavities being formed between the particles and the particles coming into contact with one another at points of contact, - Connecting the particles to one another at the points of contact by coating the arrangement of particles and carrier element, at least some of the cavities being penetrated by the layer produced during the coating process, wherein after the particles have been coated and connected the carrier element (1; 7; 16) and, if applicable, the particles not being coated are removed, at least partly, and wherein the coating process is performed by means of a CVD method and in particular by means of atomic layer deposition or atomic vapor deposition. - Adding or applying particles on or into a carrier element (1; 7; 16), a plurality of at least some interlinked cavities being formed between the particles and the particles coming into contact with one another at points of contact, - Connecting the particles to one another at the points of contact by coating the arrangement of particles and carrier element, at least some of the cavities being penetrated by the layer produced during the coating process,
A microclimate management system comprising a support device including a mattress and a person contacting surface, a fluid supply coupled with the support device and supplying fluid to the support device, a controller operatively coupled to the fluid supply and including an instruction set, the instruction set causing the controller to regulate the fluid supply, and at least one sensor operatively coupled to the controller configured to provide a signal indicative of at least one of the temperature and relative humidity of at least a portion of the person contacting surface, the regulation by the controller being to maintain at least a portion of the person contacting surface within a predetermined operating range, the support device including a topper supported on the mattress and defining the person contacting surface; characterized in that the system includes sensors for sensing the temperature of the area proximate one of the mattress and the topper, and a sensor for sensing the relative humidity of at least a portion of the contacting surface, and in that the controller is operable to calculate a heat withdrawal capacity of at least a portion of the person contacting surface as a function of the temperature of at least a portion of the contacting surface, the relative humidity of at least a portion of the contacting surface, and the temperature of an area proximate one of the mattress and the topper, and to regulate the fluid supply as a function of the heat withdrawal capacity to maintain at least a portion of the person contacting surface within the predetermined operating range.
A light emitting device comprising: a conductive support member; a reflective layer below the conductive support member; a second conductive type semiconductor layer below the reflective layer; an active layer below the second conductive type semiconductor layer; a first conductive type semiconductor layer below the active layer; and an intermediate refraction layer below the first conductive type semiconductor layer; wherein the first semiconductor layer, the active layer, and the second conductive type semiconductor layer constitute a light emitting structure, wherein the intermediate refraction layer comprises a plurality of polygonal columns or a plurality of cylinders that are spaced apart from one another, wherein the intermediate refraction layer comprises at least one of AlN, GaN, AlGaN, InGaN, AlInGaN, AlInN, and InN, and wherein the light emitting structure is obtained by being horizontally and/or vertically grown on the intermediate refraction layer through an epitaxy lateral growth process, characterised in that the intermediate refraction layer includes a first material having a first refractive index that is smaller than a second refractive index of a second material of the first conductive type semiconductor layer and is greater than a third refractive index of air and in that portions of the light emitting structure are grown in spaces between the polygonal columns of the intermediate refraction layer. a conductive support member; a reflective layer below the conductive support member; a second conductive type semiconductor layer below the reflective layer; an active layer below the second conductive type semiconductor layer; a first conductive type semiconductor layer below the active layer; and an intermediate refraction layer below the first conductive type semiconductor layer; wherein the first semiconductor layer, the active layer, and the second conductive type semiconductor layer constitute a light emitting structure, wherein the intermediate refraction layer comprises a plurality of polygonal columns or a plurality of cylinders that are spaced apart from one another, wherein the intermediate refraction layer comprises at least one of AlN, GaN, AlGaN, InGaN, AlInGaN, AlInN, and InN, and wherein the light emitting structure is obtained by being horizontally and/or vertically grown on the intermediate refraction layer through an epitaxy lateral growth process, characterised in that the intermediate refraction layer includes a first material having a first refractive index that is smaller than a second refractive index of a second material of the first conductive type semiconductor layer and is greater than a third refractive index of air and in that portions of the light emitting structure are grown in spaces between the polygonal columns of the intermediate refraction layer.
A resin composition exhibiting good heat resistance and insulation properties, comprising a polycarbonate resin; a vinyl-based copolymer; a fluorinated polyolefin; and a phosphorus-based flame retardant, wherein the phosphorus-based flame retardant is biphenyl-4,4'-diyl tetraphenyl bis(phosphate), wherein the polycarbonate resin includes (A-1) a first polycarbonate resin and (A-2) a second polycarbonate resin having a different weight average molecular weight, wherein a weight average molecular weight of the first polycarbonate resin (A-1) ranges from 25,000 g/mol to 32,000 g/mol, and a weight average molecular weight of the second polycarbonate resin (A-2) ranges from 20,000 g/mol to 25,000 g/mol, and wherein the polycarbonate resin includes 25 wt% to 65 wt% of the first polycarbonate resin (A-1), and 35 wt% to 75 wt% of the second polycarbonate resin (A-2) based on 100 wt%. a polycarbonate resin; a vinyl-based copolymer; a fluorinated polyolefin; and a phosphorus-based flame retardant, wherein the phosphorus-based flame retardant is biphenyl-4,4'-diyl tetraphenyl bis(phosphate),
Two-layer multi-strand cord (50; 60) comprising: - an internal layer of the cord made up of K≥1 internal strand(s) (Tl) wound in a helix about a main axis, the or each internal strand (Tl) having one layer of metal filaments and comprising Q>1 metal filaments wound in a helix about an axis; and - an external layer of the cord made up of L>1 external strands wound around the internal layer of the cord, each external strand having one layer (C1') of metal filaments (F1') and comprising Q'>1 metal filaments (F1') wound in a helix about an axis (B'), characterized in that: - the cord (50; 60) has a tangent modulus E2 ranging from 35 to 80 GPa; and - the energy-at-break indicator Er of the cord (50; 60), defined by Er = ∫ 0 At σ Ai × dAi where σ ( Ai) is the tensile stress in MPa measured at the elongation Ai and dAi is the elongation such that Er is strictly greater than 40 MJ/m 3. - an internal layer of the cord made up of K≥1 internal strand(s) (Tl) wound in a helix about a main axis, the or each internal strand (Tl) having one layer of metal filaments and comprising Q>1 metal filaments wound in a helix about an axis; and - an external layer of the cord made up of L>1 external strands wound around the internal layer of the cord, each external strand having one layer (C1') of metal filaments (F1') and comprising Q'>1 metal filaments (F1') wound in a helix about an axis (B'), - the cord (50; 60) has a tangent modulus E2 ranging from 35 to 80 GPa; and - the energy-at-break indicator Er of the cord (50; 60), defined by Er = ∫ 0 At σ Ai × dAi where σ ( Ai) is the tensile stress in MPa measured at the elongation Ai and dAi is the elongation such that Er is strictly greater than 40 MJ/m 3.
A method of calibrating a dual polarization radar system wherein a transmission signal from a radar transmitter is fed to a radar antenna, comprising the steps of: i) capturing a portion of the transmission signal to generate a test signal; ii) transmitting the test signal directly into the radar system from a test antenna (50, 122) mounted to radiate the test signal directly to the radar antenna; and, iii) calibrating the radar system receiver (60,116) according to the test signal; characterized by the step of: iv) modifying the phase and amplitude of the test signal to simulate a desired atmospheric condition. i) capturing a portion of the transmission signal to generate a test signal; ii) transmitting the test signal directly into the radar system from a test antenna (50, 122) mounted to radiate the test signal directly to the radar antenna; and, iii) calibrating the radar system receiver (60,116) according to the test signal; iv) modifying the phase and amplitude of the test signal to simulate a desired atmospheric condition.
Medical image registration method comprising: - receiving a medical image captured using a contrast agent; - determining a phase of the medical image by using a classification model which comprises an artificial intelligence model that outputs the phase of the medical image; and - registering the medical image to a reference image by using a registration model which comprise an artificial intelligence model for registering the medical image to the reference image, - wherein a plurality of registration models is provided for registering images of different phases and the registering comprises selecting one of the registration models to be used for registration, based on the phase of the medical image and a phase of the reference image. - receiving a medical image captured using a contrast agent; - determining a phase of the medical image by using a classification model which comprises an artificial intelligence model that outputs the phase of the medical image; and - registering the medical image to a reference image by using a registration model which comprise an artificial intelligence model for registering the medical image to the reference image, - wherein a plurality of registration models is provided for registering images of different phases and the registering comprises selecting one of the registration models to be used for registration, based on the phase of the medical image and a phase of the reference image.
A communication method, comprising: obtaining, by a first central unit CU, physical random access channel PRACH configuration information of N cells not supported by a first distributed unit DU that is connected to the first CU by using an F1 interface, the first CU and the first DU being parts of an access network device, wherein N is an integer greater than 0; and sending, by the first CU, the PRACH configuration information of the N cells to the first DU, wherein the N cells comprise a neighbour cell of a target cell, and the target cell is a cell supported by the first DU. obtaining, by a first central unit CU, physical random access channel PRACH configuration information of N cells not supported by a first distributed unit DU that is connected to the first CU by using an F1 interface, the first CU and the first DU being parts of an access network device, wherein N is an integer greater than 0; and sending, by the first CU, the PRACH configuration information of the N cells to the first DU, wherein the N cells comprise a neighbour cell of a target cell, and the target cell is a cell supported by the first DU.