mhurhangee/ep-ind-claims huggingface dataset:
Optical device comprising an exit portion provided with an exit face and arranged to emit, through the exit face, light rays coming from a first light source and from a second light source, the device comprising: - a first light guide configured to propagate the light rays coming from the first light source towards the exit portion; - a second light guide, distinct from the first light guide and configured to propagate the light rays coming from the second source towards the exit portion, and the exit portion being integrated into the first light guide, this device being characterized by the fact that the exit portion comprises an extension of the first light guide oriented along the thickness of the first light guide. - a first light guide configured to propagate the light rays coming from the first light source towards the exit portion; - a second light guide, distinct from the first light guide and configured to propagate the light rays coming from the second source towards the exit portion, and
The method of preparation of an activated carbon-TiO 2 composite, characterised in that an undried, liquid molasses is mixed with TiO 2, dried, crushed, carbonised in inert atmosphere at the temperature range of 400-1000°C, and then the carbonaceous raw material and TiO 2 are treated with a solution of HCl, washed with distilled water and dried at the temperature range of 50-250°C.
Non-therapeutic use of at least one compound of the formula I in which R1, R2, R4 and R5 stand, independently of one another, for a radical selected from H and t-butyl, in which R3 stands for a radical selected from - H, OH, OCOCH 3, O(CH 2 CH 2 O) n H, where n = 1 to 20, halogen, - straight-chain or branched alkyl group having 1 to 20 C atoms, which may optionally be substituted by one or more OH groups and/or may be interrupted by one or more groups selected from -O-, -(C=O)-, - O- and cyclohexylene, - straight-chain or branched O-alkyl group having 1 to 20 C atoms, and in which R6 stands for a radical selected from CH 3, CH 2 CH(CH 3)OH and CH 2 CH 2 OH, as antimicrobial active compound. in which R1, R2, R4 and R5 stand, independently of one another, for a radical selected from H and t-butyl, in which R3 stands for a radical selected from - H, OH, OCOCH 3, O(CH 2 CH 2 O) n H, where n = 1 to 20, halogen, - straight-chain or branched alkyl group having 1 to 20 C atoms, which may optionally be substituted by one or more OH groups and/or may be interrupted by one or more groups selected from -O-, -(C=O)-, - O- and cyclohexylene, - straight-chain or branched O-alkyl group having 1 to 20 C atoms, - H, OH, OCOCH 3, O(CH 2 CH 2 O) n H, where n = 1 to 20, halogen, - straight-chain or branched alkyl group having 1 to 20 C atoms, which may optionally be substituted by one or more OH groups and/or may be interrupted by one or more groups selected from -O-, -(C=O)-, - O- and cyclohexylene, - straight-chain or branched O-alkyl group having 1 to 20 C atoms,
Control valve, in particular for pressurized fluids, having - a housing with at least two ports; - at least one connecting element which is fastened to the housing and has an inner tube inserted in one of said ports; - a movable control element with a first passage which, in a first control-element position, interconnects a first one and a second one of said ports and, in at least one further control-element position, does not interconnect these two ports; and a seal which is arranged between the inner tube and the control element and is fastened to the inner tube, characterized in that the connecting element has a flange, which engages over the port, and is fastened to the housing by means of a latching connection. - a housing with at least two ports; - at least one connecting element which is fastened to the housing and has an inner tube inserted in one of said ports; - a movable control element with a first passage which, in a first control-element position, interconnects a first one and a second one of said ports and, in at least one further control-element position, does not interconnect these two ports; and a seal which is arranged between the inner tube and the control element and is fastened to the inner tube, characterized in that the connecting element has a flange, which engages over the port, and is fastened to the housing by means of a latching connection.
An air suspension device comprising: an air suspension body in which opposite end openings of a tubular membrane member in which a gas is sealed are connected to an upper surface plate and a lower surface plate; an intermediate member disposed below the lower surface plate and having a vertically extending through-hole formed in the center thereof; a body rubber part which elastically connects the lower surface plate and the intermediate member; a support member disposed below the intermediate member and provided with an upwardly protruding inner protrusion in the center thereof; and an elastic body which elastically connects the intermediate member and the support member, wherein an inner circumferential surface of the through-hole and an outer circumferential surface of the inner protrusion face each other across the elastic body, characterised in that a recess that is recessed upward is formed in a portion within a lower surface of the body rubber part, the portion facing an upper end of the inner protrusion through the through-hole; and an inner diameter of the recess is larger than an outer diameter of the inner protrusion. an air suspension body in which opposite end openings of a tubular membrane member in which a gas is sealed are connected to an upper surface plate and a lower surface plate; an intermediate member disposed below the lower surface plate and having a vertically extending through-hole formed in the center thereof; a body rubber part which elastically connects the lower surface plate and the intermediate member; a support member disposed below the intermediate member and provided with an upwardly protruding inner protrusion in the center thereof; and an elastic body which elastically connects the intermediate member and the support member, wherein an inner circumferential surface of the through-hole and an outer circumferential surface of the inner protrusion face each other across the elastic body, characterised in that a recess that is recessed upward is formed in a portion within a lower surface of the body rubber part, the portion facing an upper end of the inner protrusion through the through-hole; and an inner diameter of the recess is larger than an outer diameter of the inner protrusion.
A dog toilet having a front-rear direction, a left-right direction, and an up-down direction that are perpendicular to one another, the dog toilet comprising: a bottom portion; a urination detection sensor capable of detecting whether there is urination by a dog; a wall portion provided to surround the bottom portion; an access opening provided in the wall portion on one side in the frontrear direction with respect to a front-rear-direction center position; and a feeder configured to supply food from a feeding port based on a detection result of the urination detection sensor, the feeding port being provided on another side in the front-rear direction with respect to the front-rear-direction center position, wherein a liquid-absorbent absorbent member that absorbs urine is arranged in the bottom portion, and an area of a portion of the absorbent member located on the other side in the front-rear direction is larger than an area of a portion of the absorbent member located on the one side in the front-rear direction. a bottom portion; a urination detection sensor capable of detecting whether there is urination by a dog; a wall portion provided to surround the bottom portion; an access opening provided in the wall portion on one side in the frontrear direction with respect to a front-rear-direction center position; and a feeder configured to supply food from a feeding port based on a detection result of the urination detection sensor, the feeding port being provided on another side in the front-rear direction with respect to the front-rear-direction center position, wherein a liquid-absorbent absorbent member that absorbs urine is arranged in the bottom portion, and an area of a portion of the absorbent member located on the other side in the front-rear direction is larger than an area of a portion of the absorbent member located on the one side in the front-rear direction.
A polyethylene having a multimodal molecular weight distribution, comprising: (i) 20-70% wt of a lower molecular weight ethylene homopolymer; (ii) 20-70% wt of a first higher molecular weight ethylene copolymer; and (iii) 0.5-9.5% wt of a second higher molecular weight ethylene copolymer, wherein said second higher molecular weight ethylene copolymer has a greater weight average molecular weight than said first higher molecular weight ethylene copolymer. (i) 20-70% wt of a lower molecular weight ethylene homopolymer; (ii) 20-70% wt of a first higher molecular weight ethylene copolymer; and (iii) 0.5-9.5% wt of a second higher molecular weight ethylene copolymer,
A Lactobacillus strain selected from any one of strains DSM 23090, DSM 23091, DSM 23200, DSM 23092, DSM 23093, DSM 23201, DSM 23174, DSM 23121 and DSM 26024.
A method for covering a primary element (20; 30) for optical spectacles, wherein at least a partial embedding of the primary element (20; 30) is implemented by an outer covering lining (21; 31) in order to obtain a functional element (2; 3) of optical spectacles, said covering method being characterized in that it comprises the following steps: - preparing a molding composition comprising at least a mixture of cork particles into a thermoformable elastomeric material; - making a first embedding member (25; 35) and a second embedding member (26; 36) by molding the molding composition, the first embedding member (25; 35) having a first outer face (250; 350) and a first inner face (251; 351) in which is formed a first groove (252; 352) bordered by at least one first bearing area (253; 353), and the second embedding member (26; 36) having a second outer face (260; 360) and a second inner face (261; 361) in which is formed a second groove (263; 362) bordered by at least one second bearing area (263; 363); - positioning the first embedding member (25; 35) and the second embedding member (26; 36) around the primary element (20; 30), such that said primary element (20; 30) is positioned inside the first groove (252; 352) and the second groove (263; 362), and that the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363) are in contact with one another; - securing the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363), so that the first embedding member (25; 35) and the second embedding member (26; 36) form the outer covering lining (21; 31) embedding at least partially the primary element (20; 30). - preparing a molding composition comprising at least a mixture of cork particles into a thermoformable elastomeric material; - making a first embedding member (25; 35) and a second embedding member (26; 36) by molding the molding composition, the first embedding member (25; 35) having a first outer face (250; 350) and a first inner face (251; 351) in which is formed a first groove (252; 352) bordered by at least one first bearing area (253; 353), and the second embedding member (26; 36) having a second outer face (260; 360) and a second inner face (261; 361) in which is formed a second groove (263; 362) bordered by at least one second bearing area (263; 363); - positioning the first embedding member (25; 35) and the second embedding member (26; 36) around the primary element (20; 30), such that said primary element (20; 30) is positioned inside the first groove (252; 352) and the second groove (263; 362), and that the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363) are in contact with one another; - securing the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363), so that the first embedding member (25; 35) and the second embedding member (26; 36) form the outer covering lining (21; 31) embedding at least partially the primary element (20; 30).
A multichannel RF feedthrough comprising: an internal portion including a top surface on which first and second sets of traces are formed, each set of traces configured as an electrical communication channel to carry electrical data signals; an external portion including a bottom surface on which the first set of traces is formed and a top surface on which the second set of traces is formed; and a set of vias connecting the first set of traces between the top surface of the internal portion and the bottom surface of the external portion. an internal portion including a top surface on which first and second sets of traces are formed, each set of traces configured as an electrical communication channel to carry electrical data signals; an external portion including a bottom surface on which the first set of traces is formed and a top surface on which the second set of traces is formed; and a set of vias connecting the first set of traces between the top surface of the internal portion and the bottom surface of the external portion.
Method for adjusting the temperature of an exhaust gas treatment system located on the gas exhaust line of an internal combustion engine comprising: the combustion of fuel in a burner with the production of burnt gases; the supply of the said burnt gases into the treatment system; the burnt gases are mixed with the exhaust gases of the internal combustion engine; production of steam by heat transferred from gases leaving said treatment system; providing said steam to a steam engine; the method being characterized in that said steam engine is used to provide the internal combustion engine with torque and to operate an electric generator when more torque than needed for the traction is generated. the combustion of fuel in a burner with the production of burnt gases; the supply of the said burnt gases into the treatment system; the burnt gases are mixed with the exhaust gases of the internal combustion engine; production of steam by heat transferred from gases leaving said treatment system; providing said steam to a steam engine; the method being characterized in that said steam engine is used to provide the internal combustion engine with torque and to operate an electric generator when more torque than needed for the traction is generated.
A robotic electromechanical surgical instrument, comprising: a housing; an elongated shaft defining a longitudinal axis and extending distally from the housing; a wrist assembly supported on the elongated shaft and including a first joint coupled to a second joint, the first joint including a proximal segment defining a proximal arcuate surface and a distal segment defining a distal arcuate surface; an end effector coupled to the wrist assembly; a plurality of cables coupled to the wrist assembly, the plurality of cables movable to manipulate the first and second joints to enable the wrist assembly to articulate relative to the longitudinal axis; and wherein the proximal segment defines a proximal aperture and the distal segment defines a distal aperture, an electrical cable, the electrical cable disposed through the proximal aperture and the distal aperture and positioned relative to the proximal arcuate surface and the distal arcuate surface such that, and the proximal and distal aperture positioned and dimensioned such that, during articulation of the wrist assembly, the electrical cable rolls off of the distal arcuate surface as the electrical cable rolls on to the proximal arcuate surface, and the electrical cable rolls off of the proximal arcuate surface as the electrical cable rolls on to the distal arcuate surface, wherein the electrical cable is configured to transmit electrosurgical treatment energy to a portion of the end effector; and/or wherein the electrical cable is configured to transmit a sensor signal from the end effector. a housing; an elongated shaft defining a longitudinal axis and extending distally from the housing; a wrist assembly supported on the elongated shaft and including a first joint coupled to a second joint, the first joint including a proximal segment defining a proximal arcuate surface and a distal segment defining a distal arcuate surface; an end effector coupled to the wrist assembly; a plurality of cables coupled to the wrist assembly, the plurality of cables movable to manipulate the first and second joints to enable the wrist assembly to articulate relative to the longitudinal axis; and wherein the proximal segment defines a proximal aperture and the distal segment defines a distal aperture, an electrical cable, the electrical cable disposed through the proximal aperture and the distal aperture and positioned relative to the proximal arcuate surface and the distal arcuate surface such that, and the proximal and distal aperture positioned and dimensioned such that, during articulation of the wrist assembly, the electrical cable rolls off of the distal arcuate surface as the electrical cable rolls on to the proximal arcuate surface, and the electrical cable rolls off of the proximal arcuate surface as the electrical cable rolls on to the distal arcuate surface, wherein the electrical cable is configured to transmit electrosurgical treatment energy to a portion of the end effector; and/or wherein the electrical cable is configured to transmit a sensor signal from the end effector.
An ammonia synthesis apparatus comprising an aqueous solution of an alkali as an electrolyte, the apparatus comprising: an electrolysis cell container; an anode and a cathode that are spaced apart from each other inside the electrolysis cell container and are formed of a porous metal; an electrode separation membrane that is located between the anode and the cathode and electrically separates the anode and the cathode; a dry or wet nitrogen supply unit that is disposed on the bottom of the electrolysis cell container for supplying a dry nitrogen gas or a wet nitrogen gas to the cathode through a porous metal membrane; a power device that is electrically connected with the anode and the cathode for supplying electrical power to the anode and the cathode; a water supply unit that comprises an electrolyte level for supplying water by measuring an electrolyte level; an electrolyte circulation unit that is disposed outside of and connected to the electrolysis cell container through an outlet and an inlet comprising a heater for heating an electrolyte discharged through the outlet and a pump for circulating the electrolyte heated by the heater to the inlet, wherein the electrolyte further comprises a nitrogen dissociation catalyst dispersed in the form of nanoparticles having a particle diameter in a range of 1 nm to 1000 nm, wherein the nitrogen dissociation catalyst is an alloy, an oxide, or a nitride formed of at least one selected from Sc, Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Y, Zr, Nb, Mo, Ru, Rh, Pd, Ag, Cd, Hf, Ta, W, Re, Os, Ir, Pt, and Au. an electrolysis cell container; an anode and a cathode that are spaced apart from each other inside the electrolysis cell container and are formed of a porous metal; an electrode separation membrane that is located between the anode and the cathode and electrically separates the anode and the cathode; a dry or wet nitrogen supply unit that is disposed on the bottom of the electrolysis cell container for supplying a dry nitrogen gas or a wet nitrogen gas to the cathode through a porous metal membrane; a power device that is electrically connected with the anode and the cathode for supplying electrical power to the anode and the cathode; a water supply unit that comprises an electrolyte level for supplying water by measuring an electrolyte level; an electrolyte circulation unit that is disposed outside of and connected to the electrolysis cell container through an outlet and an inlet comprising a heater for heating an electrolyte discharged through the outlet and a pump for circulating the electrolyte heated by the heater to the inlet, wherein the electrolyte further comprises a nitrogen dissociation catalyst dispersed in the form of nanoparticles having a particle diameter in a range of 1 nm to 1000 nm, wherein the nitrogen dissociation catalyst is an alloy, an oxide, or a nitride formed of at least one selected from Sc, Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Y, Zr, Nb, Mo, Ru, Rh, Pd, Ag, Cd, Hf, Ta, W, Re, Os, Ir, Pt, and Au.
An additive manufacturing system comprising: a dispensing device to deposit a layer of build material over a build surface; an applicator to apply a fusing agent and to apply a detailing agent on the layer of build material; a thermal energy source; a thermal imaging device; and a controller: to cause the dispensing device to deposit the layer of build material over the build surface; to cause the applicator to apply selectively the fusing agent to form an object portion in the layer of build material and to apply selectively the detailing agent to form a reference portion in the layer of build material; to cause the thermal energy source to heat the reference portion and to heat and fuse the object portion; to cause the thermal imaging device to measure a temperature of the reference portion; and to regulate a power level of the thermal energy source based on a comparison between the temperature of the reference portion and a temperature set-point for the reference portion, wherein the temperature set-point for the reference portion is based on a target temperature for the object portion. a dispensing device to deposit a layer of build material over a build surface; an applicator to apply a fusing agent and to apply a detailing agent on the layer of build material; a thermal energy source; a thermal imaging device; and a controller: to cause the dispensing device to deposit the layer of build material over the build surface; to cause the applicator to apply selectively the fusing agent to form an object portion in the layer of build material and to apply selectively the detailing agent to form a reference portion in the layer of build material; to cause the thermal energy source to heat the reference portion and to heat and fuse the object portion; to cause the thermal imaging device to measure a temperature of the reference portion; and to regulate a power level of the thermal energy source based on a comparison between the temperature of the reference portion and a temperature set-point for the reference portion, to cause the dispensing device to deposit the layer of build material over the build surface; to cause the applicator to apply selectively the fusing agent to form an object portion in the layer of build material and to apply selectively the detailing agent to form a reference portion in the layer of build material; to cause the thermal energy source to heat the reference portion and to heat and fuse the object portion; to cause the thermal imaging device to measure a temperature of the reference portion; and to regulate a power level of the thermal energy source based on a comparison between the temperature of the reference portion and a temperature set-point for the reference portion, wherein the temperature set-point for the reference portion is based on a target temperature for the object portion.