mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device, comprising: a substrate; and at least two GaN-based light emitting diodes monolithically formed in a two dimensional pattern on the substrate, wherein each of the at least two GaN-based light emitting diodes comprises a n-type GaN-based semiconductor layer, light emitting layer and a p-type GaN-based semiconductor layer, and wherein two GaN-based light emitting diodes (α, β) among the at least two GaN-based light emitting diodes share an electrode with each other, the shared electrode being n-type, and characterized in that the light emitting device is configured to be driven by an AC power supply. a substrate; and at least two GaN-based light emitting diodes monolithically formed in a two dimensional pattern on the substrate, wherein each of the at least two GaN-based light emitting diodes comprises a n-type GaN-based semiconductor layer, light emitting layer and a p-type GaN-based semiconductor layer, and wherein two GaN-based light emitting diodes (α, β) among the at least two GaN-based light emitting diodes share an electrode with each other, the shared electrode being n-type, and characterized in that the light emitting device is configured to be driven by an AC power supply.
Oral and tooth care and cleaning agent which contains, based on its weight, a) 0.1 to 1% by weight of calcium glycerophosphate; b) 3 to 7% by weight of at least one potassium salt, wherein the agent contains less than 60% by weight of water. a) 0.1 to 1% by weight of calcium glycerophosphate; b) 3 to 7% by weight of at least one potassium salt,
A system for melting materials during the production of a glass or ceramic material, the system comprising: a melt tank having an interior with a width and a length; and an electrode array (100 1) comprising a plurality of elongate electrodes each extending at least partially across the width of the interior of the melt tank in a direction substantially perpendicular to the length of the interior of the melt tank; wherein each electrode within the electrode array (100 1) is spaced apart from an adjacent electrode within the electrode array (100 1) by from about 5 mm to 100 mm; wherein the electrode array is (100 1) configured such that during a heating operation, current flows between adjacent electrodes within the electrode array (100 1), such that heat is radiated from the electrodes to materials located within the interior of the melt tank. a melt tank having an interior with a width and a length; and an electrode array (100 1) comprising a plurality of elongate electrodes each extending at least partially across the width of the interior of the melt tank in a direction substantially perpendicular to the length of the interior of the melt tank; wherein each electrode within the electrode array (100 1) is spaced apart from an adjacent electrode within the electrode array (100 1) by from about 5 mm to 100 mm; wherein the electrode array is (100 1) configured such that during a heating operation, current flows between adjacent electrodes within the electrode array (100 1), such that heat is radiated from the electrodes to materials located within the interior of the melt tank.
Hanger for hanging garments, provided with a support part (2, 3) intended to support a garment, and a suspension part for hanging said hanger from an external structure that is not part of said hanger, said suspension part comprising an attachment element that consists of an adherent element that constitutes a flat surface at a free top end of said suspension part, said flat surface being provided with a magnet for removably hanging said suspension part to said external structure by magnetic adhesion of said flat surface to a ferromagnetic part of said external structure, characterised in that said suspension part comprises: - a first portion, integral with said support part (2, 3), and - a second portion, that comprises at one free end said attachment element, and which at the other end is joined to said first portion by articulation means that allow the rotation of said second portion with respect to said first portion. - a first portion, integral with said support part (2, 3), and - a second portion, that comprises at one free end said attachment element, and which at the other end is joined to said first portion by articulation means that allow the rotation of said second portion with respect to said first portion.
Multiple lighting safety device with an optical element embedded into lighting fixture wherein the front surface of the lighting fixture does not have any irregularities, where said optical element has a thickness S approximately equal to the thickness of the lighting fixture side, is adapted to be connected to one or more light sources at its rear, including the back of said optical element at least two surfaces (6, 8, 9, 10, 11) and capable of collecting the flux, front, inclined and side, emitted by the light source, and to guide, due to the difference of the refractive index, the luminous flux towards its front outside part in the frontal direction, wherein said optical element further comprises a recess, with at least one flat reflection surface (20, 22), or one rotational reflection surface (21, 23), wherein said reflection surface is capable of guiding the luminous flux of the light source through the side, diagonal and lower surfaces of the optical element; characterized in that said light source is composed of a pair of LEDs, the first of which makes most of the light flux for the frontal emission, and the second of which makes most of the light fluxes for inclined and side emission; whereinthe optical element has a front surface with a non protruding shape and the recess is located in said front surface, the recess having: - a flat reflection surface that is slanted to reflect the light source beams directed by the surfaces onto the inner side (8, 9, 10, 11) of the optical element towards the lower output surface; - and/or a slanted reflection surface to reflect the beams of the directed light source from the surfaces on the inside (8, 9, 10, 11) of the optical element towards the corner output surface; - and/or a flat reflection surface and/or a rotational reflection surface slanted to reflect the light source beams directed by the surfaces onto the inner side (8, 9, 10, 11) of the optical element towards the side output surface. - a flat reflection surface that is slanted to reflect the light source beams directed by the surfaces onto the inner side (8, 9, 10, 11) of the optical element towards the lower output surface; - and/or a slanted reflection surface to reflect the beams of the directed light source from the surfaces on the inside (8, 9, 10, 11) of the optical element towards the corner output surface; - and/or a flat reflection surface and/or a rotational reflection surface slanted to reflect the light source beams directed by the surfaces onto the inner side (8, 9, 10, 11) of the optical element towards the side output surface.
An apparatus comprising: a sensor comprising one or more thermally sensitive components, the sensor being gimbal mountable to a space or air-borne vehicle, the sensor including a component configured to at least partially adjust a center-of-gravity of the sensor and to at least partially receive and store thermal energy from the one or more thermally sensitive components; a radiator configured to dissipate thermal energy to an ambient environment; and wherein the component is thermally coupled between the radiator and the one or more thermally sensitive components, and the radiator is configured to receive thermal energy from the component. a sensor comprising one or more thermally sensitive components, the sensor being gimbal mountable to a space or air-borne vehicle, the sensor including a component configured to at least partially adjust a center-of-gravity of the sensor and to at least partially receive and store thermal energy from the one or more thermally sensitive components; a radiator configured to dissipate thermal energy to an ambient environment; and the component is thermally coupled between the radiator and the one or more thermally sensitive components, and the radiator is configured to receive thermal energy from the component.
A heat exchange device for air cooling for conditioning and climate control systems for server rooms and the like, which comprises: - an air/air heat exchanger, designed to be passed through by a primary air stream along a first trajectory from an intake region to an outflow region and by a secondary air stream along a second trajectory from a corresponding intake region to a corresponding outflow region, - water dispensing means adapted to wet said heat exchanger downward from above, - means of collecting the water that descends from the heat exchanger, - a recirculation pump for returning the air-cooling water from the collection means up to the dispensing means arranged above the heat exchanger, being characterized in that said water dispensing means comprise a plurality of nozzles arranged side by side, or rows of nozzles (18, 19, 20, 21, 22, 23), which are adapted to dispense water with a flow-rate that decreases starting from said intake region for the primary air stream toward said outflow region of said heat exchanger. - an air/air heat exchanger, designed to be passed through by a primary air stream along a first trajectory from an intake region to an outflow region and by a secondary air stream along a second trajectory from a corresponding intake region to a corresponding outflow region, - water dispensing means adapted to wet said heat exchanger downward from above, - means of collecting the water that descends from the heat exchanger, - a recirculation pump for returning the air-cooling water from the collection means up to the dispensing means arranged above the heat exchanger,
A working fluid composition for a refrigerating machine, comprising: a refrigerating machine oil comprising, as a base oil, a mixed ester of a complex ester obtainable by synthesis of at least one polyhydric alcohol selected from neopentyl glycol, trimethylolpropane and pentaerythritol, a C6-C12 polybasic acid, and a C4-C18 monohydric alcohol or a C4-C18 monocarboxylic fatty acid, and a polyol ester obtainable by synthesis of at least one polyhydric alcohol selected from neopentyl glycol, trimethylolpropane, pentaerythritol and dipentaerythritol, and a C4-C18 monocarboxylic fatty acid, in a mass ratio of the complex ester/ the polyol ester of 5/95 to 95/5, wherein the kinematic viscosity of the complex ester is 40 to 400 mm 2 /s at 40°C; and a hydrocarbon refrigerant having 3 or 4 carbon atoms, wherein a refrigerant dissolved viscosity, at a temperature of 80°C and an absolute pressure of 1.5 MPa, and is measured according to the description paragraph, is 1.0 mm 2 /s or more. a refrigerating machine oil comprising, as a base oil, a mixed ester of a complex ester obtainable by synthesis of at least one polyhydric alcohol selected from neopentyl glycol, trimethylolpropane and pentaerythritol, a C6-C12 polybasic acid, and a C4-C18 monohydric alcohol or a C4-C18 monocarboxylic fatty acid, and a polyol ester obtainable by synthesis of at least one polyhydric alcohol selected from neopentyl glycol, trimethylolpropane, pentaerythritol and dipentaerythritol, and a C4-C18 monocarboxylic fatty acid, in a mass ratio of the complex ester/ the polyol ester of 5/95 to 95/5, wherein the kinematic viscosity of the complex ester is 40 to 400 mm 2 /s at 40°C; and a hydrocarbon refrigerant having 3 or 4 carbon atoms, wherein a refrigerant dissolved viscosity, at a temperature of 80°C and an absolute pressure of 1.5 MPa, and is measured according to the description paragraph, is 1.0 mm 2 /s or more.
A method for recovering an acid gas from a liquid acid gas-rich absorbent comprising the steps of: a. Providing the liquid acid gas-rich absorbent stream having absorbed acid gas therein, b. separating acid gas from the acid gas-rich absorbent stream in a stripping column using a gaseous stripping medium in order to provide a acid gas-containing gas stream and a liquid acid gas-lean absorbent stream, c. transferring heat from the acid gas-containing gas stream to a stream of heat transfer fluid in order to provide a cooled acid gas-containing stream and a heated stream (L4'), d. separating the heated stream (L4') into a recovered gaseous stripping medium and a liquid heat carrier, and e. providing the recovered stripping medium directly or indirectly to the stripping column; wherein the heat transfer in step c. is provided by bringing the heat transfer fluid in direct contact with the acid gas-containing gas stream to obtain the heated stream (L4') and a cooled acid gas containing gas stream. a. Providing the liquid acid gas-rich absorbent stream having absorbed acid gas therein, b. separating acid gas from the acid gas-rich absorbent stream in a stripping column using a gaseous stripping medium in order to provide a acid gas-containing gas stream and a liquid acid gas-lean absorbent stream, c. transferring heat from the acid gas-containing gas stream to a stream of heat transfer fluid in order to provide a cooled acid gas-containing stream and a heated stream (L4'), d. separating the heated stream (L4') into a recovered gaseous stripping medium and a liquid heat carrier, and e. providing the recovered stripping medium directly or indirectly to the stripping column;
A gas turbine engine comprising: a compressor section; a combustor in fluid communication with the compressor section; a turbine section in fluid communication with the combustor; said combustor further comprising a combustor region defined by at least one bulkhead panel, and at least one heat shield panel (250,300,400) interior to said combustor region, wherein said combustor further comprises an outer diameter combustor shell and an inner diameter combustor shell, at least one of said outer diameter combustor shell and said inner diameter combustor shell includes a protrusion (232,242) into said combustor, and an edge of said heat shield panel (250,300,400) is axially positioned between said protrusion (232,242) and said bulkhead panel relative to an axis defined by said gas turbine engine; characterised in that: said at least one heat shield panel (250,300,400) is connected to said bulkhead panel via an interference fit, wherein said interference fit is an interference fit between said protrusion (232,242), said bulkhead panel and one of said inner diameter edge and said outer diameter edge of said heat shield panel (250,300,400). a compressor section; a combustor in fluid communication with the compressor section; a turbine section in fluid communication with the combustor; said combustor further comprising a combustor region defined by at least one bulkhead panel, and at least one heat shield panel (250,300,400) interior to said combustor region, wherein said combustor further comprises an outer diameter combustor shell and an inner diameter combustor shell, at least one of said outer diameter combustor shell and said inner diameter combustor shell includes a protrusion (232,242) into said combustor, and an edge of said heat shield panel (250,300,400) is axially positioned between said protrusion (232,242) and said bulkhead panel relative to an axis defined by said gas turbine engine; characterised in that: said at least one heat shield panel (250,300,400) is connected to said bulkhead panel via an interference fit, wherein said interference fit is an interference fit between said protrusion (232,242), said bulkhead panel and one of said inner diameter edge and said outer diameter edge of said heat shield panel (250,300,400).
Arrangement of an electricity meter and a connecting device for the electricity meter, which has a housing from whose base, placeable against a carrier plate of the connecting device, contact elements (L1-L3) corresponding to at least one current phase protrude, said contact elements (L1-L3) being configured to be fed through openings in the carrier plate, wherein said contact elements can be connected to connecting elements (12, 12') supplying and drawing current on the side of the carrier plate facing away from the electricity meter by translation of the housing guided on the carrier plate, wherein the connecting elements on the contact elements (L1-L3) grip in forceps fashion, by means of springy jaws (13, 14) which are spreadable by the translation motion of the contact elements (L1-L3) characterised in that the electricity meter is guided on the carrier plate by means of slotted openings in the carrier plate and comprises hooks protruding at four corners of the base of the housing, which hooks engage in the slotted openings and grip behind the carrier plate as the electricity meter is translated.
A dome camera comprising: a hemispherical cover; a camera lens provided inside the hemispherical cover; and a darkening filter having a blocking area that blocks incident light, the darkening filter arranged between the hemispherical cover and the camera lens so as to partially block light entering the camera lens and to suppress image quality deterioration, or a polarizing filter arranged between the hemispherical cover and the camera lens so as to polarize light before entering the camera lens and to suppress image quality deterioration, wherein the camera lens is capable of rotating in a tilt direction, characterized in that a tilt rotation axis of the camera lens is positioned more in a zenith direction than a hemispherical center position of the spherical cover, wherein in a case a tilt angle (θ) of the camera lens exceeds a predetermined threshold angle, the darkening filter or the polarizing filter is inserted between the hemispherical cover and the camera lens. a hemispherical cover; a camera lens provided inside the hemispherical cover; and a darkening filter having a blocking area that blocks incident light, the darkening filter arranged between the hemispherical cover and the camera lens so as to partially block light entering the camera lens and to suppress image quality deterioration, or a polarizing filter arranged between the hemispherical cover and the camera lens so as to polarize light before entering the camera lens and to suppress image quality deterioration, wherein the camera lens is capable of rotating in a tilt direction, characterized in that a tilt rotation axis of the camera lens is positioned more in a zenith direction than a hemispherical center position of the spherical cover, wherein in a case a tilt angle (θ) of the camera lens exceeds a predetermined threshold angle, the darkening filter or the polarizing filter is inserted between the hemispherical cover and the camera lens.
An in-vehicle system for installation in a determination vehicle for determining yielding behaviors of other vehicles (30, 35), comprising: - an input sensor configured to receive a first input signal indicating a start of a driving maneuver of the determination vehicle and a second input signal indicating an end of a driving maneuver of the determination vehicle, - a vehicle data recording module configured to save recorded vehicle sensor data as recorded data in response to the first and second input signals indicating the start and end of the driving maneuver, and - a vehicle perception annotation module configured to automatically detect and label features in the recorded data, the features including features of the determination vehicle, features of other vehicles (30, 35) surrounding the determination vehicle, features of the road, and relative features of the other vehicles relative (30, 35) to the determination vehicle and of the determination vehicle to the road, characterized in that the vehicle perception annotation module is further configured to process the features of the road and the relative features of the determination vehicle to the road to identify and label a type of merging scenario, in that the input sensor is configured to receive the input signals from a navigation system, wherein the start and end of the driving maneuver are indicated by the determination vehicle being in a geographic proximity to a merge area and having passed through the merge area, respectively, and in that the in-vehicle system further comprises means configured to automatically determine from the features detected in the recorded data that a detected vehicle (30, 35) has yielded or not yielded to the determination vehicle based on a position of the detected vehicle (30, 35) relative to the determination vehicle at the start of the driving maneuver and a position of the detected vehicle (30, 35) relative to the determination vehicle at the end of the driving maneuver, and, in response to the determination, automatically label the detected vehicle (30, 35) as yielding or not yielding in the recorded data. - an input sensor configured to receive a first input signal indicating a start of a driving maneuver of the determination vehicle and a second input signal indicating an end of a driving maneuver of the determination vehicle, - a vehicle data recording module configured to save recorded vehicle sensor data as recorded data in response to the first and second input signals indicating the start and end of the driving maneuver, and - a vehicle perception annotation module configured to automatically detect and label features in the recorded data, the features including features of the determination vehicle, features of other vehicles (30, 35) surrounding the determination vehicle, features of the road, and relative features of the other vehicles relative (30, 35) to the determination vehicle and of the determination vehicle to the road,
Identification mat for identifying electrical components, with a plurality of identifying units wherein an identifying unit comprises a crossbar and a plurality of identification plates integrally moulded on the crossbar, wherein the identification units are connected to one another by means of a frame, wherein guiding means (18a, 18b) are provided on the frame to guide the identification mat in a printer, characterized in that (the identification mat is formed from an injection-moulded, amorphous plastic which can be more easily inscribed.
A chimeric adenoviral expression vector, said vector comprising an expression cassette comprising the following elements: (a) a first promoter operably linked to a nucleic acid encoding a toll-like receptor-3 (TLR-3) agonist, wherein the TLR-3 agonist is heterologous dsRNA and wherein the nucleic acid encoding the TLR-3 agonist comprises a sequence selected from the group consisting of: SEQ ID NOs: 3, 4, 5, 8, 9, 10, 11, and 12; and (b) a second promoter operably linked to a nucleic acid encoding an immunogenic heterologous polypeptide. (a) a first promoter operably linked to a nucleic acid encoding a toll-like receptor-3 (TLR-3) agonist, wherein the TLR-3 agonist is heterologous dsRNA and wherein the nucleic acid encoding the TLR-3 agonist comprises a sequence selected from the group consisting of: SEQ ID NOs: 3, 4, 5, 8, 9, 10, 11, and 12; and (b) a second promoter operably linked to a nucleic acid encoding an immunogenic heterologous polypeptide.