mhurhangee/patent-ind-claim-en huggingface dataset:
A movable support device for a person, in particular a disabled person, for use with a sanitary apparatus, the movable support device comprising - a base plate adapted to be arranged movably on a floor, the plate having a thickness along a first axis (Z) and at least a base portion delimited by first opposite ends along a second axis (X) orthogonal to the first axis (Z) and by second opposite ends along a third axis (Y) orthogonal to the first and to the second axes (Z, X); - a structural support assembly for supporting the upper limbs of the person in an evacuation position, the assembly comprising a first structure and a second structure respectively fixed to the first ends and extending along the third axis (Y) beyond one of the second ends ; and - a footboard comprising at least a support surface for supporting the feet of the person, further comprising - first elastic means that couple the footboard to the base portion resiliently parallel to the first axis (Z); wherein the base plate defines an empty volume to house the sanitary apparatus, the empty volume being adjacent to the base portion along the third axis (Y) between the first and the second structures , characterized in that the base portion defines a seat in which the footboard is housed and guided so that the footboard translates parallel to itself along the first axis (Z) in response to a weight of the person against the action of the first elastic means . - a base plate adapted to be arranged movably on a floor, the plate having a thickness along a first axis (Z) and at least a base portion delimited by first opposite ends along a second axis (X) orthogonal to the first axis (Z) and by second opposite ends along a third axis (Y) orthogonal to the first and to the second axes (Z, X); - a structural support assembly for supporting the upper limbs of the person in an evacuation position, the assembly comprising a first structure and a second structure respectively fixed to the first ends and extending along the third axis (Y) beyond one of the second ends ; and - a footboard comprising at least a support surface for supporting the feet of the person, further comprising - first elastic means that couple the footboard to the base portion resiliently parallel to the first axis (Z); wherein the base plate defines an empty volume to house the sanitary apparatus, the empty volume being adjacent to the base portion along the third axis (Y) between the first and the second structures , characterized in that
A retort stable dairy concentrate having 38 to 50 percent total solids, the stable dairy concentrate comprising: 38 to 50 percent total solids including dairy solids, sugar, and fat, wherein the dairy solids comprise fat, protein, lactose, minerals, acids, enzymes, and vitamins; the dairy solids being present in an amount up to 26 percent and comprising an amount of lactose of 0.25 to 2 percent lactose by weight of the concentrate; the sugar, which is sucrose, being present in an amount of 20 to 30 percent of the concentrate; and the amount of total sugar relative to the amount of total dairy solids in a ratio of 1:1 to 3.5:1 such that the dairy concentrate exhibits a phase transmission separation rate from 0.5 to 33 TpH measured from 0 to 5000 seconds by measuring the percent transmission of near-infrared light along the length of a sample while the sample is spinning and plotting the integrated present transmission of the sample from top to bottom against time in accordance with the description; wherein the concentrate has a ratio of protein to fat of from 0.5 to 0.9. 38 to 50 percent total solids including dairy solids, sugar, and fat, wherein the dairy solids comprise fat, protein, lactose, minerals, acids, enzymes, and vitamins; the dairy solids being present in an amount up to 26 percent and comprising an amount of lactose of 0.25 to 2 percent lactose by weight of the concentrate; the sugar, which is sucrose, being present in an amount of 20 to 30 percent of the concentrate; and the amount of total sugar relative to the amount of total dairy solids in a ratio of 1:1 to 3.5:1 such that the dairy concentrate exhibits a phase transmission separation rate from 0.5 to 33 TpH measured from 0 to 5000 seconds by measuring the percent transmission of near-infrared light along the length of a sample while the sample is spinning and plotting the integrated present transmission of the sample from top to bottom against time in accordance with the description; wherein the concentrate has a ratio of protein to fat of from 0.5 to 0.9.
A biopsy needle assembly configured for use with a tissue biopsy device , the biopsy needle assembly comprising: an outer tubular member comprising a distal end portion configured to sever a first portion of a tissue sample, wherein the outer tubular member further comprises a lumen ; and a cutting member slidably disposed within the outer tubular member , wherein the cutting member comprises a distal end portion , and wherein the distal end portion of the cutting member is configured to displace toward a central axis of the outer tubular member to sever a second portion of the tissue sample; and wherein the distal end portion of the cutting member further comprises a tab , characterized in that the distal end portion of the outer tubular member further comprises a proximal opening and a distal opening , wherein the tab is configured to extend out of the lumen of the outer tubular member through the proximal opening and into the lumen of the outer tubular member through the distal opening , and wherein displacement of a portion of the tab into the lumen of the outer tubular member from outside the outer tubular member is configured to sever the second portion of the tissue sample. an outer tubular member comprising a distal end portion configured to sever a first portion of a tissue sample, wherein the outer tubular member further comprises a lumen ; and a cutting member slidably disposed within the outer tubular member , wherein the cutting member comprises a distal end portion , and wherein the distal end portion of the cutting member is configured to displace toward a central axis of the outer tubular member to sever a second portion of the tissue sample; and wherein the distal end portion of the cutting member further comprises a tab , characterized in that the distal end portion of the outer tubular member further comprises a proximal opening and a distal opening , wherein the tab is configured to extend out of the lumen of the outer tubular member through the proximal opening and into the lumen of the outer tubular member through the distal opening , and wherein displacement of a portion of the tab into the lumen of the outer tubular member from outside the outer tubular member is configured to sever the second portion of the tissue sample.
A broadcast signal transmitting method comprising: generating (S1110) a first bitstream comprising encoded data; generating (S1120) a second bitstream by adding zero bits to the first bitstream, based on a difference between a modem data rate and a codec data rate; generating a scrambled second bitstream by scrambling, by a first scrambler, a first portion of the second bitstream, which corresponds to the encoded data, and scrambling, by a second scrambler, a second portion of the second bitstream, which corresponds to the zero bits, separately from the first portion; generating (S1130) a third bitstream by channel encoding the scrambled second bitstream by adding zero padding information about the zero bits to a preamble of the second bitstream; and transmitting (S1140) a carrier signal generated by modulating the third bitstream. generating (S1110) a first bitstream comprising encoded data; generating (S1120) a second bitstream by adding zero bits to the first bitstream, based on a difference between a modem data rate and a codec data rate; generating a scrambled second bitstream by scrambling, by a first scrambler, a first portion of the second bitstream, which corresponds to the encoded data, and scrambling, by a second scrambler, a second portion of the second bitstream, which corresponds to the zero bits, separately from the first portion; generating (S1130) a third bitstream by channel encoding the scrambled second bitstream by adding zero padding information about the zero bits to a preamble of the second bitstream; and transmitting (S1140) a carrier signal generated by modulating the third bitstream.
Addition-curable silicone composition comprising, as essential ingredients, (A) organopolysiloxane having at least two aliphatic unsaturated hydrocarbon groups per molecule and a kinematic viscosity, as measured at 25°C using an Ubbelohde-type Ostwald viscometer, of from 60 to 100,000 mm 2 /s; (B) organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms (SiH groups) per molecule, in an amount such that the ratio of the number of SiH groups to the total number of aliphatic unsaturated hydrocarbon groups in component (A) is from 0.5 to 5; and (C) an effective amount of hydrosilylation catalyst particles that have a microcapsule structure in which a platinum family metal catalyst-containing organic compound or polymeric compound (C') serves as a core material and a three-dimensional crosslinked polymeric compound obtained by polymerizing at least one type of polyfunctional monomer (C") serves as a wall material, and for which [solubility parameter δ of (C")] - [solubility parameter δ of (C')] is 1.0 or more, the solubility parameters δ of (C") and (C') being calculated as set out in the description. (A) organopolysiloxane having at least two aliphatic unsaturated hydrocarbon groups per molecule and a kinematic viscosity, as measured at 25°C using an Ubbelohde-type Ostwald viscometer, of from 60 to 100,000 mm 2 /s; (B) organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms (SiH groups) per molecule, in an amount such that the ratio of the number of SiH groups to the total number of aliphatic unsaturated hydrocarbon groups in component (A) is from 0.5 to 5; and (C) an effective amount of hydrosilylation catalyst particles that have a microcapsule structure in which a platinum family metal catalyst-containing organic compound or polymeric compound (C') serves as a core material and a three-dimensional crosslinked polymeric compound obtained by polymerizing at least one type of polyfunctional monomer (C") serves as a wall material, and for which [solubility parameter δ of (C")] - [solubility parameter δ of (C')] is 1.0 or more, the solubility parameters δ of (C") and (C') being calculated as set out in the description. a platinum family metal catalyst-containing organic compound or polymeric compound (C') serves as a core material and a three-dimensional crosslinked polymeric compound obtained by polymerizing at least one type of polyfunctional monomer (C") serves as a wall material, and for which [solubility parameter δ of (C")] - [solubility parameter δ of (C')] is 1.0 or more, the solubility parameters δ of (C") and (C') being calculated as set out in the description.
A hot water and distillation apparatus configured to simultaneously produce distilled water and hot water, wherein the hot water and distillation apparatus comprises: - a hot water tank ; - a condensation and evaporation chamber ; - an (feed water) evaporation tray provided in the condensation and evaporation chamber ; - a heat source thermally connected to the evaporation tray , wherein the hot water and distillation apparatus is configured to condensate evaporated feed water from the evaporation tray by means of heat exchange between the hot water tank and a condensation surface , wherein the condensation surface is provided at the outside surface of the hot water tank , wherein the hot water and distillation apparatus comprises a distillate collection member configured to collect distillate , characterised in that - the hot water tank is cylindrical or is the shape of a coiled tube, - at least the central portion of the top portion of the evaporation and condensation chamber is cylindrical (having a circular cross-sectional area) and that the hot water tank is arranged eccentrically relative to the evaporation and condensation chamber , - the evaporation tray and the distillate collection member are arranged in the lower portion of the evaporation and condensation chamber and below the hot water tank , and - the hot water tank , the evaporation tray and the distillate collection member are all arranged in the condensation and evaporation chamber , whereby the hot water tank is formed and positioned in the condensation and evaporation chamber in such a manner that the vapour from the evaporation tray is forced to flow one predefined way around the hot water tank , wherein the vapour initially flows through a relatively wide passage followed by a gradually narrower passage while moving along the outer surface of the hot water tank . - a hot water tank ; - a condensation and evaporation chamber ; - an (feed water) evaporation tray provided in the condensation and evaporation chamber ; - a heat source thermally connected to the evaporation tray , - the hot water tank is cylindrical or is the shape of a coiled tube, - at least the central portion of the top portion of the evaporation and condensation chamber is cylindrical (having a circular cross-sectional area) and that the hot water tank is arranged eccentrically relative to the evaporation and condensation chamber , - the evaporation tray and the distillate collection member are arranged in the lower portion of the evaporation and condensation chamber and below the hot water tank , and - the hot water tank , the evaporation tray and the distillate collection member are all arranged in the condensation and evaporation chamber ,
A method of displaying augmented reality, AR, elements on a display system of a construction machine (100; 200; 300), the method comprising: detecting a position of the construction machine in a world reference frame; detecting an orientation of the construction machine; detecting a position of an operator of the construction machine in a machine reference frame; characterized in that the method further comprises determining a position of the operator in the world reference frame based on the position of the operator in the machine reference frame, the position of the construction machine in the world reference frame, and the orientation of the construction machine; generating the AR elements based on the position of the operator in the world reference frame and a position of the display system in the world reference frame; and displaying the AR elements on the display system. detecting a position of the construction machine in a world reference frame; detecting an orientation of the construction machine; detecting a position of an operator of the construction machine in a machine reference frame; characterized in that the method further comprises determining a position of the operator in the world reference frame based on the position of the operator in the machine reference frame, the position of the construction machine in the world reference frame, and the orientation of the construction machine; generating the AR elements based on the position of the operator in the world reference frame and a position of the display system in the world reference frame; and displaying the AR elements on the display system.
A method for fabricating a ceramic component for use in a turbine engine, the method comprising: infiltrating the porous structure with a mixture that includes a preceramic polymer material and a filler, the filler including at least one free metal selected from a group consisting of silicon, boron, titanium, vanadium, chromium, zirconium, niobium, molybdenum, ruthenium, rhodium, hafnium, tantalum, tungsten, rhenium, osmium, iridium and combinations thereof; rigidizing the preceramic polymer material to form a green body; and thermally treating the green body to convert the rigidized preceramic polymer material into a ceramic matrix within pores of the porous structure , wherein the thermal treatment or a second, further thermal treatment, is used to cause the at least one free metal to move to internal porosity defined by the ceramic matrix and that results from the conversion of rigidized preceramic polymer material to ceramic, or residual open pores of the porous structure , so that a free metal at least partially fills the internal porosity or open pores of the ceramic component , wherein the filler includes ceramic particles coated with the at least one free metal . infiltrating the porous structure with a mixture that includes a preceramic polymer material and a filler, the filler including at least one free metal selected from a group consisting of silicon, boron, titanium, vanadium, chromium, zirconium, niobium, molybdenum, ruthenium, rhodium, hafnium, tantalum, tungsten, rhenium, osmium, iridium and combinations thereof; rigidizing the preceramic polymer material to form a green body; and thermally treating the green body to convert the rigidized preceramic polymer material into a ceramic matrix within pores of the porous structure , wherein the thermal treatment or a second, further thermal treatment, is used to cause the at least one free metal to move to internal porosity defined by the ceramic matrix and that results from the conversion of rigidized preceramic polymer material to ceramic, or residual open pores of the porous structure , so that a free metal at least partially fills the internal porosity or open pores of the ceramic component , wherein the filler includes ceramic particles coated with the at least one free metal .
An isolated antibody or antibody fragment thereof which immunospecifically binds to Complement Factor H (CFH) protein, wherein the antibody or antibody fragment thereof binds to an epitope of PIDNGDIT (SEQ ID NO: 3) within short consensus repeat (SCR) 19 of the CFH protein, and wherein the antibody or antibody fragment comprises: (a) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:73 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:84; (b) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:74 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:83; (c) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:75 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:85; (d) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:78 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:88; or (e) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:79 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:89. (a) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:73 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:84; (b) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:74 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:83; (c) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:75 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:85; (d) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:78 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:88; or (e) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:79 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:89.
A method for software management comprising: receiving , by a UPnP device, a software installation command sent by a first control device, installing , by the UPnP device, software on the UPnP device according to the software installation command and saving an identification of the first control device; receiving , by the UPnP device, a software management command for managing the software sent by a second control device, and acquiring an identification of the second control device; and executing , by the UPnP device, the software management command only when the identification of the second control device is consistent with the identification of the first control device; characterized in that the identification of the first control device is carried in the software installation command, and in that the identification of the second control device is carried in the software management command. receiving , by a UPnP device, a software installation command sent by a first control device, installing , by the UPnP device, software on the UPnP device according to the software installation command and saving an identification of the first control device; receiving , by the UPnP device, a software management command for managing the software sent by a second control device, and acquiring an identification of the second control device; and executing , by the UPnP device, the software management command only when the identification of the second control device is consistent with the identification of the first control device; characterized in that the identification of the first control device is carried in the software installation command, and in that the identification of the second control device is carried in the software management command.
A method for processing three-dimensional data, comprising: acquiring three-dimensional point cloud data to be processed; mapping the three-dimensional point cloud data into a two-dimensional image space to obtain a first depth map; acquiring target pixels of a target object having the same depth value and similar positions in the first depth map; replacing the depth value of each target pixel with an inverse of the depth value, thereby changing the occlusion relation between the target objects contained in the first depth map; performing an expansion processing on the first depth map after changing an occlusion relation between target objects contained in the first depth map, wherein the expansion processing is implemented by performing a convolution between a structure element and a target object, such that, if there is overlap between the structure element and the target object during a process of moving the structure element, then a position where the structure element overlaps with the target object is recorded, wherein the structure element is a geometrical shape, such as a diamond structure element or a square element; and changing the occlusion relation between the target objects contained in the first depth map subject to the expansion processing to obtain a second depth map matched to the three-dimensional point cloud data. acquiring three-dimensional point cloud data to be processed; mapping the three-dimensional point cloud data into a two-dimensional image space to obtain a first depth map; acquiring target pixels of a target object having the same depth value and similar positions in the first depth map; replacing the depth value of each target pixel with an inverse of the depth value, thereby changing the occlusion relation between the target objects contained in the first depth map; performing an expansion processing on the first depth map after changing an occlusion relation between target objects contained in the first depth map, wherein the expansion processing is implemented by performing a convolution between a structure element and a target object, such that, if there is overlap between the structure element and the target object during a process of moving the structure element, then a position where the structure element overlaps with the target object is recorded, wherein the structure element is a geometrical shape, such as a diamond structure element or a square element; and changing the occlusion relation between the target objects contained in the first depth map subject to the expansion processing to obtain a second depth map matched to the three-dimensional point cloud data.