mhurhangee/ep-ind-claims huggingface dataset:
An oral care implement comprising: a handle comprising a first component constructed of a first material and a second component constructed of a second material; the first component comprising: first, second and third depressions (206, 207, 208) formed into an outer surface of the first component; and a first through-hole extending from a floor of the second depression to a floor of the third depression, the first through-hole extending through sidewalls (213, 214) of the first depression; and the second component comprising: a first portion disposed within the first depression, a second portion disposed within the second depression, and a third portion disposed within the third depression; and the first, second and third portions (301, 302, 303) connected together to form an integral mass of the second material. a handle comprising a first component constructed of a first material and a second component constructed of a second material; the first component comprising: first, second and third depressions (206, 207, 208) formed into an outer surface of the first component; and a first through-hole extending from a floor of the second depression to a floor of the third depression, the first through-hole extending through sidewalls (213, 214) of the first depression; and the second component comprising: a first portion disposed within the first depression, a second portion disposed within the second depression, and a third portion disposed within the third depression; and the first, second and third portions (301, 302, 303) connected together to form an integral mass of the second material. first, second and third depressions (206, 207, 208) formed into an outer surface of the first component; and a first through-hole extending from a floor of the second depression to a floor of the third depression, the first through-hole extending through sidewalls (213, 214) of the first depression; and the second component comprising: a first portion disposed within the first depression, a second portion disposed within the second depression, and a third portion disposed within the third depression; and the first, second and third portions (301, 302, 303) connected together to form an integral mass of the second material. a first portion disposed within the first depression, a second portion disposed within the second depression, and a third portion disposed within the third depression; and the first, second and third portions (301, 302, 303) connected together to form an integral mass of the second material.
A vehicle steering system transmission comprising: a housing; an input shaft journalled to the housing; an output shaft journalled to the housing; a steering column coupled to the output shaft; the output shaft being coupled to a steering rack; an electric motor connected to the housing and coupled to the input shaft; the input shaft and the output shaft being coupled by a first belt; the input shaft and the output shaft being coupled by a second belt; and the input shaft and the output shaft being coupled by a third belt, characterised in that: the steering column is coupled to one end of the output shaft, and the other end of the output shaft is coupled to the steering rack; the input shaft and the output shaft are coupled by a first pair of sprockets (206, 306) having the first belt trained therebetween and having a first ratio; the input shaft and the output shaft are coupled by a second pair of sprockets (203, 309) having the second belt trained therebetween and having a second ratio; and the input shaft and the output shaft are coupled by a third pair of sprockets (204, 303) having the third belt trained therebetween and having a third ratio; wherein the first, second and third belts (400, 500, 600) are arranged on two common axes, defined by the input and output shafts (200, 300). a housing; an input shaft journalled to the housing; an output shaft journalled to the housing; a steering column coupled to the output shaft; the output shaft being coupled to a steering rack; an electric motor connected to the housing and coupled to the input shaft; the input shaft and the output shaft being coupled by a first belt; the input shaft and the output shaft being coupled by a second belt; and the input shaft and the output shaft being coupled by a third belt, the steering column is coupled to one end of the output shaft, and the other end of the output shaft is coupled to the steering rack; the input shaft and the output shaft are coupled by a first pair of sprockets (206, 306) having the first belt trained therebetween and having a first ratio; the input shaft and the output shaft are coupled by a second pair of sprockets (203, 309) having the second belt trained therebetween and having a second ratio; and the input shaft and the output shaft are coupled by a third pair of sprockets (204, 303) having the third belt trained therebetween and having a third ratio; wherein the first, second and third belts (400, 500, 600) are arranged on two common axes, defined by the input and output shafts (200, 300).
Electro-pneumatic parking brake arrangement, comprising a 3 by 2 pneumatically controlled valve having a fluid connection from an output port (3.3) to a control port (3.4) for defining the valve switching position by the output pressure and providing control pressure for a relay valve setting up a parking brake pressure in a springbrake chamber of a brake cylinder through an output port of the relay valve, characterised in that a variable pressure level which is feeding an inlet port (3.1) of the pneumatically controlled valve is provided by two 3 by 2 magnet valves (1, 2), further comprising: - a fluid connection to the parking brake pressure supply input provided through the parking brake check valve by inlet port (1.2) of load magnet valve, and - a fluid connection to the ambient pressure provided by exhaust port (2.2) of the exhaust magnet valve, and - a fluid connection from an outlet port (1.3) of load magnet valve to an inlet port (2.1) of the exhaust valve and the inlet port (3.1) of the pneumatically controlled valve, and - a fluid connection from an outlet port (2.3) of the exhaust valve to an inlet port (1.1) of the load valve. - a fluid connection to the parking brake pressure supply input provided through the parking brake check valve by inlet port (1.2) of load magnet valve, and - a fluid connection to the ambient pressure provided by exhaust port (2.2) of the exhaust magnet valve, and - a fluid connection from an outlet port (1.3) of load magnet valve to an inlet port (2.1) of the exhaust valve and the inlet port (3.1) of the pneumatically controlled valve, and - a fluid connection from an outlet port (2.3) of the exhaust valve to an inlet port (1.1) of the load valve.
Method for operating a heat pump in a motor vehicle, in particular hybrid or electric vehicle, wherein the heat pump has a refrigeration circuit with at least - a refrigerant compressor for compressing a refrigerant to a high pressure p HD, wherein the high pressure p HD results from ambient conditions and a vehicle state, - a heating heat exchanger for transferring heat energy from the refrigerant to an air mass flow for a vehicle interior compartment in order to provide a setpoint heat flow, - an expansion element, and - an evaporator, wherein the following steps are carried out: (a) determining, from the ambient conditions and the vehicle state, a potential or actual reduction of the high pressure p HD which leads to the setpoint heat flow not being achieved, and (b) increasing the high pressure p HD by way of a reduced flow cross section and the expansion element, such that the setpoint heat flow is achieved, characterized in that the method is carried out if a vehicle standstill is to be expected from the vehicle state, wherein, as a relevant measurement variable of the vehicle state, a profile with respect to time of a deceleration of the vehicle speed is taken into consideration, and/or a profile with respect to time of the actuation of an accelerator pedal and/or brake pedal is taken into consideration. - a refrigerant compressor for compressing a refrigerant to a high pressure p HD, wherein the high pressure p HD results from ambient conditions and a vehicle state, - a heating heat exchanger for transferring heat energy from the refrigerant to an air mass flow for a vehicle interior compartment in order to provide a setpoint heat flow, - an expansion element, and - an evaporator, (a) determining, from the ambient conditions and the vehicle state, a potential or actual reduction of the high pressure p HD which leads to the setpoint heat flow not being achieved, and (b) increasing the high pressure p HD by way of a reduced flow cross section and the expansion element, such that the setpoint heat flow is achieved,
A nuclear power plant building comprising a building body portion and a roof (1, 2, 3, 4) covering over the building body portion, the building body portion being formed in a rectangular shape in plane cross section by four outer walls, the building body portion having four angles that are corners of the building body portion in plane cross-section, the roof being of a shell construction, wherein: the roof comprises a horizontal slab located at a central portion, roof oblique slabs arranged around the horizontal slab, corner oblique slabs arranged at the oblique positions of the horizontal slab and corner horizontal slabs arranged at the end portions of the corner oblique slabs and at four angles of the roof; and corner walls each to bridge between adjacent outer walls are provided at the four angle portions of the body portion of the building and under the corner horizontal slabs. the roof comprises a horizontal slab located at a central portion, roof oblique slabs arranged around the horizontal slab, corner oblique slabs arranged at the oblique positions of the horizontal slab and corner horizontal slabs arranged at the end portions of the corner oblique slabs and at four angles of the roof; and corner walls each to bridge between adjacent outer walls are provided at the four angle portions of the body portion of the building and under the corner horizontal slabs.
A method for manufacturing plastic containers, the method comprising, for each container: (a) a preform supply step in which a plastic preform containing air is supplied; (b) a thermal conditioning step in which the preform is heated at a preform temperature over the glass temperature of the preform material, (c) an inserting step in which the preform is inserted in a mold having a mold cavity; and (d) a forming step in which the preform is expanded to a container having the shape of the mold cavity by means of a forming liquid; characterized in that the method comprises a gaseous product injection step (g) between steps (b) and (d), and during said gaseous product injection step, a gaseous product is injected into the preform containing air, said gaseous product being absorbable by said forming liquid, the injection conditions of the gaseous product being determined such that the injected gaseous product expels said air out of the preform. (a) a preform supply step in which a plastic preform containing air is supplied; (b) a thermal conditioning step in which the preform is heated at a preform temperature over the glass temperature of the preform material, (c) an inserting step in which the preform is inserted in a mold having a mold cavity; and (d) a forming step in which the preform is expanded to a container having the shape of the mold cavity by means of a forming liquid;
An electrolyte solution for lithium ion secondary cell, comprising: 10 volume% to 20 volume% of ethylene carbonate and propylene carbonate as a cyclic carbonate; 0.38 mol/L to 0.75 mol/L of at least one selected from lithium hexafluorophosphate (LiPF 6), lithium tetrafluoroborate (LiBF 4), or lithium bis(oxalate)borate (LiBOB) as a first lithium salt; and a lithium imide salt, wherein the lithium imide salt is lithium bis(trifluoromethanesulfonyl)imide (LiTFSI), wherein a sum of the lithium imide salt and the first lithium salt is in a range of 0.5 mol/L to 1.5 mol/L, and a mole ratio of the cyclic carbonate/the first lithium salt is in a range of 3.5 to 4.5. 10 volume% to 20 volume% of ethylene carbonate and propylene carbonate as a cyclic carbonate; 0.38 mol/L to 0.75 mol/L of at least one selected from lithium hexafluorophosphate (LiPF 6), lithium tetrafluoroborate (LiBF 4), or lithium bis(oxalate)borate (LiBOB) as a first lithium salt; and a lithium imide salt, wherein the lithium imide salt is lithium bis(trifluoromethanesulfonyl)imide (LiTFSI), wherein a sum of the lithium imide salt and the first lithium salt is in a range of 0.5 mol/L to 1.5 mol/L, and a mole ratio of the cyclic carbonate/the first lithium salt is in a range of 3.5 to 4.5.
A pharmaceutical composition comprising: a taxane; and first and second surfactants in respective amounts that enhance at least one of taxane solubility and absorption of the taxane in a synergistic manner; wherein the taxane is dissolved in the surfactants, and wherein the pharmaceutical composition is formulated for oral administration and forms a micellar suspension on contact with gastrointestinal fluids. a taxane; and first and second surfactants in respective amounts that enhance at least one of taxane solubility and absorption of the taxane in a synergistic manner; wherein the taxane is dissolved in the surfactants, and wherein the pharmaceutical composition is formulated for oral administration and forms a micellar suspension on contact with gastrointestinal fluids.
A conductive polymer solution having a conductive polymer and a solvent, wherein the conductive polymer comprises a pi-conjugated conductive polymer, a polyanion with which the pi-conjugated conductive polymer is doped, and an oxirane or oxetane group-containing compound that reacts with an anion making no contribution to the dope in the polyanion, characterized in that the oxirane or oxetane group-containing compound is needed to increase the acidity derived from the anion in a range of pH acidity between 2.0 to 6.0, and the solution has a pH in the range of 2.0 to 6.0. the conductive polymer comprises a pi-conjugated conductive polymer, a polyanion with which the pi-conjugated conductive polymer is doped, and an oxirane or oxetane group-containing compound that reacts with an anion making no contribution to the dope in the polyanion, characterized in that the oxirane or oxetane group-containing compound is needed to increase the acidity derived from the anion in a range of pH acidity between 2.0 to 6.0, and the solution has a pH in the range of 2.0 to 6.0.
A medical device comprising: a surgical needle; and an elongated mesh suture having a first end attached to the surgical needle and a second end located away from the surgical needle, the elongated mesh suture comprising: a tubular wall; a hollow core inside the tubular wall; and a plurality of pores extending through the tubular wall, each of the plurality of pores having a pore size between 200 microns and 2.5 millimeters, to facilitate tissue integration through the pores and thus the tubular wall of the elongated mesh suture when introduced into a body, wherein the elongated mesh suture has a uniform diameter from the first end to the second end; and an anchor attached to the second end of the elongated mesh suture for preventing the second end from being pulled through tissue during use, wherein the anchor has a dimension that is larger than the uniform diameter of the elongated mesh suture. a surgical needle; and an elongated mesh suture having a first end attached to the surgical needle and a second end located away from the surgical needle, the elongated mesh suture comprising: a tubular wall; a hollow core inside the tubular wall; and a plurality of pores extending through the tubular wall, each of the plurality of pores having a pore size between 200 microns and 2.5 millimeters, to facilitate tissue integration through the pores and thus the tubular wall of the elongated mesh suture when introduced into a body, wherein the elongated mesh suture has a uniform diameter from the first end to the second end; and an anchor attached to the second end of the elongated mesh suture for preventing the second end from being pulled through tissue during use, wherein the anchor has a dimension that is larger than the uniform diameter of the elongated mesh suture. a tubular wall; a hollow core inside the tubular wall; and a plurality of pores extending through the tubular wall, each of the plurality of pores having a pore size between 200 microns and 2.5 millimeters, to facilitate tissue integration through the pores and thus the tubular wall of the elongated mesh suture when introduced into a body, wherein the elongated mesh suture has a uniform diameter from the first end to the second end; and an anchor attached to the second end of the elongated mesh suture for preventing the second end from being pulled through tissue during use, wherein the anchor has a dimension that is larger than the uniform diameter of the elongated mesh suture.
Motor vehicle door latch with a chassis-side latch housing, which comprises a latch case with a locking mechanism accommodated therein (6, 7) and a latch lid connected or connectable to the latch case, with a hood- or door-side locking bolt, or vice versa, and with a closure and/or opening device (8, 9), whereby the closure and/or opening device (8, 9) attacks externally on the latch housing for its shifting in respect of a static basic element during a closure / opening process, whereby the closure and/or opening device (8, 9) crucially comprises a swing arm and a pawl attacking the latch housing, characterized in that the pawl grasps behind a protrusion on the latch housing to adjust the latch housing.
A process for making an oligosaccharide, or a glycoside of said oligosaccharide, by glycosylating a carbohydrate acceptor which is a monosaccharide or disaccharide and which is not sucrose, or a glycoside of said acceptor, comprising the steps of: a) providing a cell that can internalize said acceptor into said cell and comprises - a recombinant gene encoding a glycosyl transferase which is able to transfer a glycosyl residue of an activated sugar nucleotide to said acceptor, internalized in said cell, and - a biosynthetic pathway to make said activated sugar nucleotide in said cell, b) culturing said cell in the presence of said acceptor and sucrose, and c) separating said oligosaccharide from said cell, from the culture medium or from both, said process being characterized in that said cell also comprises one or more genes encoding a heterologous PTS-dependent sucrose utilization transport system, so that said cell can use sucrose as a carbon source for making said activated sugar nucleotide and as an energy source for making said oligosaccharide, wherein the glycosyl transferase is selected from the group consisting of β-1,3-N-acetylglucosaminyl transferase, β-1,6-N-acetylglucosaminyl transferase, β-1,3-galactosyl transferase, β-1,4-galactosyl transferase, α-1,2-fucosyl transferase, α-1,3-fucosyl transferase and α-1,4-fucosyl transferase. a) providing a cell that can internalize said acceptor into said cell and comprises - a recombinant gene encoding a glycosyl transferase which is able to transfer a glycosyl residue of an activated sugar nucleotide to said acceptor, internalized in said cell, and - a biosynthetic pathway to make said activated sugar nucleotide in said cell, - a recombinant gene encoding a glycosyl transferase which is able to transfer a glycosyl residue of an activated sugar nucleotide to said acceptor, internalized in said cell, and - a biosynthetic pathway to make said activated sugar nucleotide in said cell, b) culturing said cell in the presence of said acceptor and sucrose, and c) separating said oligosaccharide from said cell, from the culture medium or from both, said process being characterized in that said cell also comprises one or more genes encoding a heterologous PTS-dependent sucrose utilization transport system, so that said cell can use sucrose as a carbon source for making said activated sugar nucleotide and as an energy source for making said oligosaccharide, wherein the glycosyl transferase is selected from the group consisting of β-1,3-N-acetylglucosaminyl transferase, β-1,6-N-acetylglucosaminyl transferase, β-1,3-galactosyl transferase, β-1,4-galactosyl transferase, α-1,2-fucosyl transferase, α-1,3-fucosyl transferase and α-1,4-fucosyl transferase.
A degradable polyethylene glycol derivative represented by the following formula: wherein m is 1 - 7, n1 and n2 are each independently 45 - 682, p is 1 - 4, R is an alkyl group having 1 - 4 carbon atoms, Z is an oligopeptide with 2 - 8 residues composed of neutral amino acids excluding cysteine wherein the oligopeptide for Z is an oligopeptide having at least one hydrophobic neutral amino acid having a hydropathy index of not less than 2.5, Q is a residue of a compound having 2 - 5 active hydrogens, X is a functional group capable of reacting with a bio-related substance, and L 1, L 2, L 3, L 4 and L 5 are each independently a single bond or a divalent spacer.
An ablation catheter system comprising: a catheter having a catheter channel; an inner channel placed in and along the catheter channel; a tubular braided element having an outer circumferential surface and a lumen, said tubular braided element being sized and shaped to be enclosed inside said catheter channel when in a compressed configuration and to be expanded in a target area of a blood vessel in an expanded configuration, characterized in that the tubular braided element comprises a proximal end and a distal end and the proximal end is connected to the inner walls of said inner channel; and the system further comprises: a longitudinal maneuvering element which is mechanically connected to a the distal end of said tubular braided element and set to pull said distal end into said lumen so as to curve radially and outwardly a plurality of annular continuous segments of said expanded tubular braided element around an imaginary torus in a sequential manner such that the tubular braided element is rolled back into the channel. a catheter having a catheter channel; an inner channel placed in and along the catheter channel; a tubular braided element having an outer circumferential surface and a lumen, said tubular braided element being sized and shaped to be enclosed inside said catheter channel when in a compressed configuration and to be expanded in a target area of a blood vessel in an expanded configuration, characterized in that the tubular braided element comprises a proximal end and a distal end and the proximal end is connected to the inner walls of said inner channel; and the system further comprises: a longitudinal maneuvering element which is mechanically connected to a the distal end of said tubular braided element and set to pull said distal end into said lumen so as to curve radially and outwardly a plurality of annular continuous segments of said expanded tubular braided element around an imaginary torus in a sequential manner such that the tubular braided element is rolled back into the channel.
An oral care kit, comprising: an applicator comprising: a handle, and a tip comprising a porous material wherein the tip is adjacent to the handle characterized in that the porous material has a compression load deflection greater than 7.929kPa (1.15 psi) @ 25%. an applicator comprising: a handle, and a tip comprising a porous material wherein the tip is adjacent to the handle characterized in that the porous material has a compression load deflection greater than 7.929kPa (1.15 psi) @ 25%.