mhurhangee/ep-ind-claims huggingface dataset:
A mantle block for chimneys with a multi-shell structure with inner pipe and thermal insulation, wherein the mantle block is designed as a thin-walled hollow block, in the cavity of which the inner pipe for flue gas guidance and the thermal insulation surrounding the inner pipe can be arranged, produced from a concrete mixture, wherein the concrete mixture has a bulk density of less than 1300 kg/m 3, characterized in that the mantle block, in the dry state, along a flow direction (z) oriented perpendicularly to the outer surface of the mantle block, has a leakage volume flow of less than 1.4 (m 3 /h)/m 2 for a wall thickness (x) of up to 5 cm, at a differential pressure of 50 Pa and relative to the outer surface of the mantle block, wherein the concrete mixture is prepared from a formulation comprising a plasticiser, and wherein the formulation has a w/c ratio of > 0.6.
A turbine engine air flow guide assembly comprising: - a structural arm and - at least one guide vane, located at the lower surface of the structural arm and comprising a leading edge, a trailing edge and a camber line extending between the leading edge and the trailing edge, wherein the vane and the arm extend radially about an axis (X-X) of the turbine engine and define an air flow channel therebetween, and the structural arm comprises: - an upstream end, with respect to the air flow direction in the channel, having a guide vane profile and comprising a leading edge aligned with the leading edge of the vane, and - a shoulder located at the lower surface of the arm, defining a throat in the channel upstream of which the channel is convergent and downstream of which it is divergent, the area (A throat) of the section of the channel at the throat being comprised between 0.7 and 0.9 times the area (A inlet) of the section of the channel at the leading edges (22, 32) of the vane and of the arm. - a structural arm and - at least one guide vane, located at the lower surface of the structural arm and comprising a leading edge, a trailing edge and a camber line extending between the leading edge and the trailing edge, - an upstream end, with respect to the air flow direction in the channel, having a guide vane profile and comprising a leading edge aligned with the leading edge of the vane, and - a shoulder located at the lower surface of the arm, defining a throat in the channel upstream of which the channel is convergent and downstream of which it is divergent,
A method for obtaining a material for the constitution of an osteomimetic endo-osseous implant of medical or veterinary use, characterized in that it comprises the steps consisting in: i. obtaining a homogeneous mixture consisting in a biocompatible thermoplastic polymer and tricalcium phosphate in the beta form (β TCP), iv. incorporating adenosine monophosphate into the mixture ii. subjecting that mixture to an injection or extrusion molding operation by a screw injection machine, at an injection temperature at least equal to the melting temperature of the said polymer and a pressure of between 70 MPa and 140 MPa so as to transform said tricalcium phosphate into a non-stoichiometric calcium apatite 3(Ca 3 (PO 4) 2) 2 Ca similar to that of bone. i. obtaining a homogeneous mixture consisting in a biocompatible thermoplastic polymer and tricalcium phosphate in the beta form (β TCP), iv. incorporating adenosine monophosphate into the mixture ii. subjecting that mixture to an injection or extrusion molding operation by a screw injection machine, at an injection temperature at least equal to the melting temperature of the said polymer and a pressure of between 70 MPa and 140 MPa so as to transform said tricalcium phosphate into a non-stoichiometric calcium apatite 3(Ca 3 (PO 4) 2) 2 Ca similar to that of bone.
A crystalline monohydrate of a lactic acid salt of a compound of Formula I: having an X-ray powder diffraction pattern comprising characteristic peaks, in terms of 2θ, at 17.6°, 19.3°, and 26.0°.
A system configured for treating pain in a patient, the system comprising: an implantable neurostimulator including a controller, memory and telemetry circuitry; an implantable lead connected to the neurostimulator, the lead having at least one electrode wherein at least one of the at least one electrodes is configured to be positioned near a dorsal root ganglion associated with the pain; and a non-implantable programmer including a controller, memory and telemetry circuitry, wherein the programmer is configured to select at least one stimulation parameter for providing energy to the at least one of the at least one electrodes for providing selective stimulation of at least a portion of the dorsal root ganglion, wherein the selective stimulation is for providing a massaging sensation for treating the pain, and wherein the telemetry circuitry of the programmer is configured to send instructions to the neurostimulator for providing the energy to the at least one of the at least one electrodes and for providing the massaging sensation for treating the pain, characterized in that the system comprises a sensor configured to detect muscle contractions and positionable to detect contractions of a muscle innervated by motor nerves exiting close to the dorsal root ganglion and in that the programmer is configured to adjust a stimulation frequency from a frequency above 10 Hz to a frequency at which a muscle contraction is first detected by the sensor and to then increase the stimulation frequency to a frequency of 16-20 Hz to transition to treatment. an implantable neurostimulator including a controller, memory and telemetry circuitry; an implantable lead connected to the neurostimulator, the lead having at least one electrode wherein at least one of the at least one electrodes is configured to be positioned near a dorsal root ganglion associated with the pain; and a non-implantable programmer including a controller, memory and telemetry circuitry, wherein the programmer is configured to select at least one stimulation parameter for providing energy to the at least one of the at least one electrodes for providing selective stimulation of at least a portion of the dorsal root ganglion, wherein the selective stimulation is for providing a massaging sensation for treating the pain, and wherein the telemetry circuitry of the programmer is configured to send instructions to the neurostimulator for providing the energy to the at least one of the at least one electrodes and for providing the massaging sensation for treating the pain, characterized in that the system comprises a sensor configured to detect muscle contractions and positionable to detect contractions of a muscle innervated by motor nerves exiting close to the dorsal root ganglion and in that the programmer is configured to adjust a stimulation frequency from a frequency above 10 Hz to a frequency at which a muscle contraction is first detected by the sensor and to then increase the stimulation frequency to a frequency of 16-20 Hz to transition to treatment.
A method of forming doped regions by diffusion in gallium nitride materials, the method comprising: providing a substrate structure including a gallium nitride layer; forming a mask on the gallium nitride layer, the mask exposing one or more portions of a top surface of the gallium nitride layer; depositing a magnesium-containing gallium nitride layer on the one or more portions of the top surface of the gallium nitride layer; concurrently with depositing the magnesium-containing gallium nitride layer, forming one or more magnesium-doped regions in the gallium nitride layer by diffusing magnesium into the gallium nitride layer through the one or more portions, wherein the magnesium-containing gallium nitride layer provides a source of magnesium dopants; removing the magnesium-containing gallium nitride layer; and removing the mask. providing a substrate structure including a gallium nitride layer; forming a mask on the gallium nitride layer, the mask exposing one or more portions of a top surface of the gallium nitride layer; depositing a magnesium-containing gallium nitride layer on the one or more portions of the top surface of the gallium nitride layer; concurrently with depositing the magnesium-containing gallium nitride layer, forming one or more magnesium-doped regions in the gallium nitride layer by diffusing magnesium into the gallium nitride layer through the one or more portions, wherein the magnesium-containing gallium nitride layer provides a source of magnesium dopants; removing the magnesium-containing gallium nitride layer; and removing the mask.
Method for producing a large-calibre warhead with a warhead casing that encloses an explosive charge consisting of a plastic-bonded explosive material, wherein a compensation layer consisting of an elastic material is arranged between the explosive charge and the inner wall of the warhead casing, wherein a double inner coating (9, 10) is provided as a compensation layer, having the features: a) a first coating which has weak adhesiveness and serves as a bonding layer is first applied to the inner wall of the warhead casing, b) after the first coating has dried, a second coating, which consists of plastic and contains material that matches the plastic binder of the explosive charge that is to be introduced into the warhead casing, is applied to the first coating, and c) after the polymerization of the second coating, the plastic-bonded explosive charge is introduced into the internally coated warhead casing by a pouring method, wherein a separation of the bonded connection between the explosive charge and the second coating once the constituents of the explosive charge have polymerized is no longer possible. a) a first coating which has weak adhesiveness and serves as a bonding layer is first applied to the inner wall of the warhead casing, b) after the first coating has dried, a second coating, which consists of plastic and contains material that matches the plastic binder of the explosive charge that is to be introduced into the warhead casing, is applied to the first coating, and c) after the polymerization of the second coating, the plastic-bonded explosive charge is introduced into the internally coated warhead casing by a pouring method, wherein a separation of the bonded connection between the explosive charge and the second coating once the constituents of the explosive charge have polymerized is no longer possible.
A method of cultivating soil and sowing seed, the method comprising breaking up soil by pulling laterally spaced apart digging tines through uncultivated soil, the spacing between the digging tines and their depth being such as to create a corresponding plurality of trenches of broken up soil separated by strips of undisturbed soil, and depositing seed in the formed trenches to either side of the centre of the trench by first and second seeding tines (16,18).
A filling element (1, 1') for tires of off-road motor vehicles, comprising a body (2,2') in elastomeric expanded material, having a shape of a toroid, characterized in that said filling element is provided on the surface with circular grooves (3, 3'), concentric to a generatrix of said toroid, said grooves being substantially equidistant between each other.
Method for the production of urea from ammonia and carbon dioxide in a urea plant, wherein the urea plant contains a high-pressure synthesis section comprising a horizontal pool condenser, wherein the horizontal pool condenser comprises a first heat exchanging section and a second heat exchanging section, and a shell section, wherein the method comprises condensing carbamate in a high pressure process medium in the shell section, thereby releasing heat, wherein the method comprises receiving a medium pressure urea-containing solution in said first heat exchanging section, wherein said medium pressure urea-containing solution also contains ammonium carbamate, and receiving low pressure steam condensate in said second heat exchanging section, wherein the method further comprises exchanging heat from said high pressure process medium to said medium pressure urea-containing solution, thereby decomposing ammonium carbamate in said medium pressure urea-containing solution into NH 3 and CO 2, wherein the method further comprises exchanging heat from the high pressure process medium in the shell section to said low pressure steam condensate in said second heat exchanging section to produce low pressure steam, wherein high pressure is defined as a pressure above 100 bar (10 MPa), medium pressure as a pressure between 10-25 bar (1-2.5 MPa) and low pressure as a pressure between 2-10 bar (0.2-1 MPa).
A magnesium alloy, consisting of, by percentage of weight: 0.5 to 8.0 percent ytterbium; 0.1 to 2.0 percent calcium; and 0.2 to 6.0 percent zinc; and optionally up to 4.0 percent scandium; up to 2.0 percent yttrium; 0.05 to 1.0 percent manganese; up to 1.0 percent zirconium; and up to 2.0 percent aluminum, wherein the balance up to 100% by weight is magnesium. 0.5 to 8.0 percent ytterbium; 0.1 to 2.0 percent calcium; and 0.2 to 6.0 percent zinc; up to 4.0 percent scandium; up to 2.0 percent yttrium; 0.05 to 1.0 percent manganese; up to 1.0 percent zirconium; and up to 2.0 percent aluminum,
A resin composition, comprising components (a) to (c) below: (a) at least one 2-methylene-1,3-dicarbonyl compound, (b) an initiator comprising at least one basic substance, and (c) an anionic polymerization inhibitor comprising at least one borate ester compound; wherein the 2-methylene-1,3-dicarbonyl compound is a compound comprising at least one structural unit represented by formula below. (a) at least one 2-methylene-1,3-dicarbonyl compound, (b) an initiator comprising at least one basic substance, and (c) an anionic polymerization inhibitor comprising at least one borate ester compound;
Temperature sensor having a sensor element, a holding plate having a contact surface and at least one electrical supply which is guided from the sensor element through an opening in the holding plate, wherein a guide element is arranged on the side of the holding plate which is opposite the contact surface or on a front side of the holding plate, through which guide element the electrical supply is guided through in such a way that at least the end of the guided section of the electrical supply facing the sensor element is spaced apart from each section of the holding plate in the direction perpendicular to the contact surface and is secured against shifting in each direction, if necessary, except for the extension direction of the electrical supply, characterised in that the guide element is a metal block with a bore hole, through which the guided section of the electrical supply is guided.
A non-aqueous composition comprising: (a) 7 - 10% by weight of particulate ascorbic acid; (b) 20 to 30% by weight of a silicone containing compound; and (c) 40 to 50% by weight of an essential oil, wherein the essential oil is sesame oil wherein the particulate ascorbic acid is suspended in the silicone containing compound, and wherein at least 50% of the initial amount of the ascorbic acid in the composition remains stable when the composition is stored for at least 1 month at room temperature. (a) 7 - 10% by weight of particulate ascorbic acid; (b) 20 to 30% by weight of a silicone containing compound; and (c) 40 to 50% by weight of an essential oil, wherein the essential oil is sesame oil wherein the particulate ascorbic acid is suspended in the silicone containing compound, and wherein at least 50% of the initial amount of the ascorbic acid in the composition remains stable when the composition is stored for at least 1 month at room temperature.
A thermoplastic composition comprising, 10-60 weight percent of a polyetherimide, a polyetherimide-siloxane, or a combination thereof; 35-60 weight percent of a thermoplastic polyester elastomer comprising a hard segment comprising a polyester block, and a soft segment, wherein the soft segment of the thermoplastic polyester elastomer comprises a polyether comprising a polybutylene ether, a polypropylene ether, a polyethylene ether, or a combination comprising at least one of the foregoing, preferably, a polybutylene ether; 0-20 weight percent of polyester; 0-50 weight percent of one or more flame retardants; and 0-20 weight percent of one or more additives; wherein the weight percent of each component is based on the total weight of the composition. 10-60 weight percent of a polyetherimide, a polyetherimide-siloxane, or a combination thereof; 35-60 weight percent of a thermoplastic polyester elastomer comprising a hard segment comprising a polyester block, and a soft segment, wherein the soft segment of the thermoplastic polyester elastomer comprises a polyether comprising a polybutylene ether, a polypropylene ether, a polyethylene ether, or a combination comprising at least one of the foregoing, preferably, a polybutylene ether; 0-20 weight percent of polyester; 0-50 weight percent of one or more flame retardants; and 0-20 weight percent of one or more additives; wherein the weight percent of each component is based on the total weight of the composition.
Semi-recumbent tandem comprising - a front wheel and a back wheel, - a front seat formed as a reclining seat, - a back seat arranged in an elevated manner compared with the front seat, - a handlebar, which is arranged between the front seat and the back seat and is connected to the steerable front wheel of the semi-recumbent tandem by means of a steering linkage, - a rear crank, which is assigned to the back seat, operated by a pedal and drivingly connected to the driven back wheel of the semi-recumbent tandem by means of a chain drive, - and a front crank, which is assigned to the front seat, operated by a pedal and connected to the driven back wheel of the semi-recumbent tandem by means of one or more chain drives, - the back seat, the back wheel, the handlebar and the rear crank being arranged in a rear region on a load-bearing tandem frame, - and the front seat, the front wheel and the front crank being arranged in a front region on the load-bearing tandem frame, - the front wheel being arranged between the front seat and the front crank, characterised in that - the load-bearing tandem frame has a first telescoping device between the front seat and the front wheel. - a front wheel and a back wheel, - a front seat formed as a reclining seat, - a back seat arranged in an elevated manner compared with the front seat, - a handlebar, which is arranged between the front seat and the back seat and is connected to the steerable front wheel of the semi-recumbent tandem by means of a steering linkage, - a rear crank, which is assigned to the back seat, operated by a pedal and drivingly connected to the driven back wheel of the semi-recumbent tandem by means of a chain drive, - and a front crank, which is assigned to the front seat, operated by a pedal and connected to the driven back wheel of the semi-recumbent tandem by means of one or more chain drives, - the back seat, the back wheel, the handlebar and the rear crank being arranged in a rear region on a load-bearing tandem frame, - and the front seat, the front wheel and the front crank being arranged in a front region on the load-bearing tandem frame, - the front wheel being arranged between the front seat and the front crank, - the load-bearing tandem frame has a first telescoping device between the front seat and the front wheel.
A connection system comprising: a float assembly comprising: a floating ring; and a float retainer disposed against the floating ring and adapted to be secured to a first object; and a locking assembly comprising: a locking collar; and a base retainer coupled to the locking collar and adapted to be attached to a second object and comprising an engagement member engaging the floating ring with the float retainer disposed between the floating ring and the locking assembly, wherein the locking collar is positionable between: a first configuration wherein the engagement member engages the floating ring wherein the float retainer is moveable relative to the locking assembly for adjusting the position of the first object relative to the second object, wherein the float assembly allows the floating ring to self center with respect to the locking assembly; and a second configuration wherein the engagement member engages the floating ring such that the float retainer is fixed relative to the base retainer. a float assembly comprising: a floating ring; and a float retainer disposed against the floating ring and adapted to be secured to a first object; and a floating ring; and a float retainer disposed against the floating ring and adapted to be secured to a first object; and a locking assembly comprising: a locking collar; and a base retainer coupled to the locking collar and adapted to be attached to a second object and comprising an engagement member engaging the floating ring with the float retainer disposed between the floating ring and the locking assembly, a locking collar; and a base retainer coupled to the locking collar and adapted to be attached to a second object and comprising an engagement member engaging the floating ring with the float retainer disposed between the floating ring and the locking assembly, a first configuration wherein the engagement member engages the floating ring wherein the float retainer is moveable relative to the locking assembly for adjusting the position of the first object relative to the second object, wherein the float assembly allows the floating ring to self center with respect to the locking assembly; and a second configuration wherein the engagement member engages the floating ring such that the float retainer is fixed relative to the base retainer.