mhurhangee/ep-ind-claims huggingface dataset:
An integrated connector shield ring for shielding an aperture in a shielded enclosure, comprising: a chassis ground ring on a printed wiring board; and a metal ring having a first end electrically connected to an exterior of a connector in the aperture and a second end adapted to electrically connect to the chassis ground ring, characterised in that; the metal ring is adapted to move from an up/inspection position to a down/shielding position creating EMI shielding around the connector pins when the second end is connected to the chassis ground ring. a chassis ground ring on a printed wiring board; and a metal ring having a first end electrically connected to an exterior of a connector in the aperture and a second end adapted to electrically connect to the chassis ground ring, characterised in that; the metal ring is adapted to move from an up/inspection position to a down/shielding position creating EMI shielding around the connector pins when the second end is connected to the chassis ground ring.
An active implantable medical device comprising: an expandable stent; a flexible cover material positioned on at least an outer surface of the expandable stent; a nanoscale source of electrical energy embedded within the cover material, the nanoscale source of electrical energy comprising a piezoelectric material and/or a triboelectric material and being mechanically activatable to produce the electrical energy; and antimicrobial particles distributed on or within a surface region of the cover material, the antimicrobial particles comprising a metal selected from the group consisting of: silver, gold, and copper, and being electrically connected to the nanoscale source of electrical energy, wherein, when the active implantable medical device is placed in a body vessel and exposed to pressure changes and/or mechanical stresses, mechanical activation of the nanoscale source occurs, thereby enabling production of the electrical energy and powering of the antimicrobial particles. an expandable stent; a flexible cover material positioned on at least an outer surface of the expandable stent; a nanoscale source of electrical energy embedded within the cover material, the nanoscale source of electrical energy comprising a piezoelectric material and/or a triboelectric material and being mechanically activatable to produce the electrical energy; and antimicrobial particles distributed on or within a surface region of the cover material, the antimicrobial particles comprising a metal selected from the group consisting of: silver, gold, and copper, and being electrically connected to the nanoscale source of electrical energy, wherein, when the active implantable medical device is placed in a body vessel and exposed to pressure changes and/or mechanical stresses, mechanical activation of the nanoscale source occurs, thereby enabling production of the electrical energy and powering of the antimicrobial particles.
A mixing and application capsule for producing a dental preparation, wherein the mixing and application capsule has: a capsule body having a mixing chamber to receive a blend component and to mix the dental preparation made of the blend component and a fluid and having an outlet to discharge the dental preparation, a first plunger body, displaceable in the capsule body, which bounds the mixing chamber in the capsule body and which has both a channel to guide the fluid from a cavity into the mixing chamber and a projection, and a second plunger body, displaceable in the capsule body relative to the first plunger body, which has the cavity to receive the fluid, wherein the cavity is formed to receive the projection of the first plunger body, wherein the cavity is formed to receive a fluid capsule closed with a film or the second plunger body is in the form of a fluid capsule closed with a film, characterized in that the projection of the first plunger body has a cutting edge to cut open the film, wherein the cutting edge is arranged along the periphery of the projection. a capsule body having a mixing chamber to receive a blend component and to mix the dental preparation made of the blend component and a fluid and having an outlet to discharge the dental preparation, a first plunger body, displaceable in the capsule body, which bounds the mixing chamber in the capsule body and which has both a channel to guide the fluid from a cavity into the mixing chamber and a projection, and a second plunger body, displaceable in the capsule body relative to the first plunger body, which has the cavity to receive the fluid, wherein the cavity is formed to receive the projection of the first plunger body, wherein the cavity is formed to receive a fluid capsule closed with a film or the second plunger body is in the form of a fluid capsule closed with a film, characterized in that the projection of the first plunger body has a cutting edge to cut open the film, wherein the cutting edge is arranged along the periphery of the projection.
Self-piercing rivet for joining workpieces (34, 36), in particular made from high tensile steels, having a head which comprises a head diameter, and having a shank which comprises a shank diameter, wherein the shank, on the foot end located opposite the head, comprises an axial recess which has an axial depth, wherein the shank comprises a flat surface portion or a circular cutter on the foot end, wherein an axial circular recess is realized in a region of a transition portion between the head (12'; 12′′′; 12 IV; 12 V) and the shank (14'; 14"; 14′′′; 14 IV; 14 V) and characterized in that the axial circular recess is formed by a plurality of radii (RA1, RA2, RA3), wherein a second and a third radii (RA2, RA3) are curved in an identical manner, wherein the first radius is curved in the opposite direction and merges continuously into a chamfered outer portion of head, wherein the first radius connects to the second radius in the outward radial direction, the radii (RA1, RA2, RA3) being chosen in such a manner and connect to the adjacent portions in such a manner that the axial circular recess is formed substantially by a continuous form, and wherein the axial circular recess is formed such that a portion of the head protruding radially in relation to the shank is able to be bent in relation to a virtual radial plane, about a virtual circular rotational axis during a self-piercing riveting operation.
Dryer with a housing as well as a drying chamber for objects to be dried, a process air duct in which are located a heater for warming up the process air and a first fan, a motor for driving the drying chamber, a heat exchanger and a cold air section in the process air duct in the vented air dryer or in a cooling air duct in the recirculated air condenser dryer, wherein the cold air section is located between an entry (13, 20) for cold air and the heat exchanger, characterised in that a motor cooling duct branches off from the cold air section through which cold air is able to be applied to the motor.
A method for extracting natural gas or a mixture of oil and natural gas from a subterranean environment and converting it into a solid hydrate comprising: a) extracting natural gas or a mixture of oil and natural gas; b) optionally separating the natural gas from the mixture of oil and natural gas in a first tank or vessel; c) transporting the natural gas to a subsea second tank or vessel; d) introducing water into the subsea second tank or vessel, deep in the ocean; e) mixing the natural gas and water to form a natural gas clathrate hydrate, NGCH, and water slurry; f) removing excess water from the NGCH/water slurry to form a solid comprising a clathrate; and g) processing the solid comprising a clathrate into a transportable form. a) extracting natural gas or a mixture of oil and natural gas; b) optionally separating the natural gas from the mixture of oil and natural gas in a first tank or vessel; c) transporting the natural gas to a subsea second tank or vessel; d) introducing water into the subsea second tank or vessel, deep in the ocean; e) mixing the natural gas and water to form a natural gas clathrate hydrate, NGCH, and water slurry; f) removing excess water from the NGCH/water slurry to form a solid comprising a clathrate; and g) processing the solid comprising a clathrate into a transportable form.
Method for operating a Steckel mill having at least one reversing unit for rolling a rolled product and winding furnaces for the rolled product arranged on the entry side and the exit side with respect to the reversing unit, characterised in that: - in a step 1.: during rolling of the rolled product in the region of a head end of the rolled product, a target thickness d target of the rolled product is ignored, wherein a force regulation with a pre-determined force pattern is set, and - in a step 2.: while step 1 is carried out, at least one measured variable which correlates to a current thickness d current and/or a hardness of the rolled product is determined and is compared with a reference value, and - in a step 3.: if the determined measured variable reaches or falls below the reference value, the reversing unit is operated with the aim of achieving the target thickness d target of the rolled product, wherein, when the determined thickness d current is less than or equal to a target thickness d target, the force regulation is switched to a thickness regulation of the reversing unit. - in a step 1.: during rolling of the rolled product in the region of a head end of the rolled product, a target thickness d target of the rolled product is ignored, wherein a force regulation with a pre-determined force pattern is set, and - in a step 2.: while step 1 is carried out, at least one measured variable which correlates to a current thickness d current and/or a hardness of the rolled product is determined and is compared with a reference value, and - in a step 3.: if the determined measured variable reaches or falls below the reference value, the reversing unit is operated with the aim of achieving the target thickness d target of the rolled product, wherein, when the determined thickness d current is less than or equal to a target thickness d target, the force regulation is switched to a thickness regulation of the reversing unit.
An air pollution control apparatus (10A; 10B; 10C) comprising: a denitration unit that is configured to remove nitrogen oxides from a flue gas up to 1 ppm or less by ammonia, the flue gas being discharged from a boiler and containing nitrogen oxides, sulfur oxides, and carbon dioxide; a wet desulfurization unit that is installed on a gas flow downstream side of the denitration unit and is configured to remove the sulfur oxides in the flue gas up to 50 ppm or less by a limestone-gypsum method; a finish denitration and desulfurization unit that is installed on the gas flow downstream side of the wet desulfurization unit and is configured to perform finish denitration and desulfurization of NO 2 and SO 2 remaining in the flue gas up to 0.1 ppm or less and 1.0 ppm or less, respectively, by an absorbent liquid containing sulfite from SO 2 in the flue gas; a SO 2 alkali removal unit that is installed on the gas flow downstream side of the finish denitration and desulfurization unit and is configured to remove residual SO 2 in the flue gas up to 0.1 ppm or less by alkali; and a carbon dioxide recovery unit that is installed on the gas flow downstream side of the finish denitration and desulfurization unit and is configured to remove and recover the carbon dioxide in the flue gas by a CO 2 absorbent, wherein the finish denitration and desulfurization unit and the SO 2 alkali removal unit are provided between the wet desulfurization unit and the carbon dioxide recovery unit. a denitration unit that is configured to remove nitrogen oxides from a flue gas up to 1 ppm or less by ammonia, the flue gas being discharged from a boiler and containing nitrogen oxides, sulfur oxides, and carbon dioxide; a wet desulfurization unit that is installed on a gas flow downstream side of the denitration unit and is configured to remove the sulfur oxides in the flue gas up to 50 ppm or less by a limestone-gypsum method; a finish denitration and desulfurization unit that is installed on the gas flow downstream side of the wet desulfurization unit and is configured to perform finish denitration and desulfurization of NO 2 and SO 2 remaining in the flue gas up to 0.1 ppm or less and 1.0 ppm or less, respectively, by an absorbent liquid containing sulfite from SO 2 in the flue gas; a SO 2 alkali removal unit that is installed on the gas flow downstream side of the finish denitration and desulfurization unit and is configured to remove residual SO 2 in the flue gas up to 0.1 ppm or less by alkali; and a carbon dioxide recovery unit that is installed on the gas flow downstream side of the finish denitration and desulfurization unit and is configured to remove and recover the carbon dioxide in the flue gas by a CO 2 absorbent, wherein the finish denitration and desulfurization unit and the SO 2 alkali removal unit are provided between the wet desulfurization unit and the carbon dioxide recovery unit.
Plastic housing for electronic devices, in particular remote controls, comprising a first housing part and a second housing part, wherein the first housing part has a joining surface facing the second housing part, and the second housing part has a joining surface facing the first housing part, wherein the two housing parts (3, 4) are assembled such that the joining surfaces rest against each other, and wherein the joining surfaces are in the form of mitred surfaces, characterized in that contact surfaces to support ejector pins are formed at or on the mitred surfaces, where the housing parts (3, 4) are recessed.
Compounds containing borate anions of formula la [B(R f) x (OR*) 3-x-y y] - la in which x is 1 or 2, y is 0 or 1 and x+y is < 3, R f denotes straight-chain or branched perfluoroalkyl groups having 1 to 4 C atoms, C 6 F 5, C 6 H 5, partially fluorinated phenyl or phenyl which is monosubsituted or disubstituted by perfluoroalkyl groups having 1 to 4 C atoms and R* denotes straight-chain or branched alkyl groups having 1 to 4 C atoms.
A front-end system for a radio device for constant envelope modulation schemes, comprising a converter, the converter comprising a mixer configured for down-converting a received radio frequency signal into a received baseband signal by using a local oscillator signal generated by a signal generator, said converter further comprises a quantizer arranged for quantizing said received baseband signal into a received digital baseband signal, characterized in that the signal generator is configured to receive said received digital baseband signal and to adjust, based on said received digital baseband signal, the phase of said local oscillator signal such that said local oscillator signal is synchronized in phase with the radio frequency signal, wherein said received digital baseband signal represents the difference in phase or frequency of the local oscillator signal with respect to said received radio frequency signal.
Use of a therapeutically effective amount of isolated and enriched human umbilical cord blood derived CD133 + /CD34 + endothelial precursor cells, wherein at least 75% of the cells are CD133 +, and isolated and enriched human bone marrow derived mesenchymal stem cells containing surface antigens identified by monoclonal antibodies SH2, SH3 or SH4 for the manufacture of a medicament for treating an ischemic tissue in a subject in need thereof.
A method for reversing a vehicle combination comprising a towing vehicle and at least one trailer, said method comprising: reversing the vehicle combination, determining whether a jack-knifing condition is about to occur by comparing a predicted future estimate of the articulation angle (Φ) with a maximum safe articulation angle (Φ lim), and, when it is determined that the jack-knifing condition is about to occur, performing at least one of the following steps: issue a warning signal, and initiate a braking action for the vehicle combination, characterized in that: the maximum safe articulation angle (Φ lim) is estimated by at least performing the following steps: receiving a preset maximum safe articulation angle (Φ lim) for the towing vehicle or the vehicle combination, receiving a signal being indicative of an articulation angle (Φ) of the vehicle combination during forward driving of the vehicle combination, and updating the maximum safe articulation angle (Φ lim) when the articulation angle (Φ) of the vehicle combination during forward driving is larger than the preset maximum safe articulation angle (Φ lim); and in that the predicted future estimate of the articulation angle (Φ) is based on an estimated driver reaction time for initiating a braking action. reversing the vehicle combination, determining whether a jack-knifing condition is about to occur by comparing a predicted future estimate of the articulation angle (Φ) with a maximum safe articulation angle (Φ lim), and, when it is determined that the jack-knifing condition is about to occur, performing at least one of the following steps: issue a warning signal, and initiate a braking action for the vehicle combination, characterized in that: issue a warning signal, and initiate a braking action for the vehicle combination, characterized in that: the maximum safe articulation angle (Φ lim) is estimated by at least performing the following steps: receiving a preset maximum safe articulation angle (Φ lim) for the towing vehicle or the vehicle combination, receiving a signal being indicative of an articulation angle (Φ) of the vehicle combination during forward driving of the vehicle combination, and updating the maximum safe articulation angle (Φ lim) when the articulation angle (Φ) of the vehicle combination during forward driving is larger than the preset maximum safe articulation angle (Φ lim); and in that the predicted future estimate of the articulation angle (Φ) is based on an estimated driver reaction time for initiating a braking action. receiving a preset maximum safe articulation angle (Φ lim) for the towing vehicle or the vehicle combination, receiving a signal being indicative of an articulation angle (Φ) of the vehicle combination during forward driving of the vehicle combination, and updating the maximum safe articulation angle (Φ lim) when the articulation angle (Φ) of the vehicle combination during forward driving is larger than the preset maximum safe articulation angle (Φ lim); and in that the predicted future estimate of the articulation angle (Φ) is based on an estimated driver reaction time for initiating a braking action.
A method for producing a vinyl ether polymer having a hydroxyl group on the side chain, wherein the vinyl ether comprising a hydroxyl group is subjected to radical polymerization by using an oil-soluble azo polymerization initiator which is an ester type azo compound, in the presence of a mixed solvent comprising water and an organic solvent selected from alcohol or cyclic ether.
A refrigerator comprising: a cabinet comprising a storage compartment; a first door rotatably coupled to the cabinet to open and close the storage compartment; a second door rotatably coupled to the first door; a hinge connected to the second door and comprising a hinge shaft to rotate the second door with respect to the first door; a stopper that is configured to be rotated together with the second door; and a locking device to allow a rotation of the second door with respect to the first door when the first door is closed and to prevent a rotation of the second door with respect to the first door when the first door is opened; wherein the locking device comprises, a moving member moved downward while the first door is opened; and a hooking member moved by the moving member and that is configured to lock the stopper when the first door is opened, characterised in that the stopper is provided in the hinge. a cabinet comprising a storage compartment; a first door rotatably coupled to the cabinet to open and close the storage compartment; a second door rotatably coupled to the first door; a hinge connected to the second door and comprising a hinge shaft to rotate the second door with respect to the first door; a stopper that is configured to be rotated together with the second door; and a locking device to allow a rotation of the second door with respect to the first door when the first door is closed and to prevent a rotation of the second door with respect to the first door when the first door is opened; wherein the locking device comprises, a moving member moved downward while the first door is opened; and a hooking member moved by the moving member and that is configured to lock the stopper when the first door is opened, characterised in that the stopper is provided in the hinge.
Use of a double modified cationic guar comprising a) cationic modifying groups, and b) non ionic modifying groups being C 3 -C 22 alkyl or hydroxyalkyl groups, in a composition for hair treatment comprising an oil, to increase the selectivity of the treatment for damaged hair. a) cationic modifying groups, and b) non ionic modifying groups being C 3 -C 22 alkyl or hydroxyalkyl groups,
A coffee maker comprising: a. an upper structure comprising a filter and a measurement chamber; said measurement chamber comprises a TDS sensor, a temperature sensor and a fluid transfer system; b. a lower structure comprising a weight sensor; c. a plurality of connecting elements enacting said upper structure above said lower structure; and d. a carafe to be placed between said upper structure and lower structure; and e. a display panel showing data from said TDS sensor temperature sensor, or weight sensor. a. an upper structure comprising a filter and a measurement chamber; said measurement chamber comprises a TDS sensor, a temperature sensor and a fluid transfer system; b. a lower structure comprising a weight sensor; c. a plurality of connecting elements enacting said upper structure above said lower structure; and d. a carafe to be placed between said upper structure and lower structure; and e. a display panel showing data from said TDS sensor temperature sensor, or weight sensor.
A method for displaying an image for a head mounted display, HMD, comprising: generating one or more user interface, UI, elements for the image from an application; tagging an UI element as a non-persistent element or as a persistent element based on whether the UI element requires a user's focused attention, said tagging being performed based on the class or type of the UI element; rendering the UI element as stereoscopic images or as a monocular image based on whether the UI element is tagged as a non-persistent element or as a persistent element, re-tagging the UI element to change the UI element from the persistent element to the non-persistent element and vice versa, and rendering the UI element based on said re-tagging. generating one or more user interface, UI, elements for the image from an application; tagging an UI element as a non-persistent element or as a persistent element based on whether the UI element requires a user's focused attention, said tagging being performed based on the class or type of the UI element; rendering the UI element as stereoscopic images or as a monocular image based on whether the UI element is tagged as a non-persistent element or as a persistent element, re-tagging the UI element to change the UI element from the persistent element to the non-persistent element and vice versa, and rendering the UI element based on said re-tagging.