mhurhangee/ep-ind-claims huggingface dataset:
A luminaire, comprising: a head spreader and a heat sink thermally coupled to and disposed diametrically outboard of the heat spreader, the heat spreader having a front side; an outer optic securely retained relative to at least one of the heat spreader and the heat sink; and a light source disposed in thermal communication with the heat spreader, then light source comprising a plurality of light emitting diodes (LEDs); wherein the heat spreader, the heat sink and the outer optic, in combination, have an overall height H and an overall outside width dimension D such that the ratio of H/D is equal to or less than 0,25 and the heat spreader and the heat sink are integrally formed such that a heat flow path from the light source through the heat spreader to the heat sink is continuous and uninterrupted; wherein the combination defined by the heat spreader, the heat sink and the outer optic, is so dimensioned as to cover an opening defined by a nominally sized four-inch can light fixture; and, cover an opening defined by a nominally sized four-inch electrical junction box, whereby four inches are equal to 10,16 cm; and wherein the heat sink forms a trim plate of the luminaire; the heat spreader (105, 305) and the heat sink (110, 310) define a base, characterised in that a back side of the heat spreader and the heat sink, opposite a front surface of the trim plate, comprises a plurality of heat sink fins integrally formed on the heat spreader and the heat sink, and air flow channels configured and disposed to transport heat generated by the light source away from the light source. a head spreader and a heat sink thermally coupled to and disposed diametrically outboard of the heat spreader, the heat spreader having a front side; an outer optic securely retained relative to at least one of the heat spreader and the heat sink; and a light source disposed in thermal communication with the heat spreader, then light source comprising a plurality of light emitting diodes (LEDs); wherein the heat spreader, the heat sink and the outer optic, in combination, have an overall height H and an overall outside width dimension D such that the ratio of H/D is equal to or less than 0,25 and the heat spreader and the heat sink are integrally formed such that a heat flow path from the light source through the heat spreader to the heat sink is continuous and uninterrupted; wherein the combination defined by the heat spreader, the heat sink and the outer optic, is so dimensioned as to cover an opening defined by a nominally sized four-inch can light fixture; and, cover an opening defined by a nominally sized four-inch electrical junction box, whereby four inches are equal to 10,16 cm; and wherein the heat sink forms a trim plate of the luminaire; the heat spreader (105, 305) and the heat sink (110, 310) define a base, characterised in that a back side of the heat spreader and the heat sink, opposite a front surface of the trim plate, comprises a plurality of heat sink fins integrally formed on the heat spreader and the heat sink, and air flow channels configured and disposed to transport heat generated by the light source away from the light source.
An outdoor fitness equipment comprising a support (3, 3a, 3b) for a weight element (7, 7a), wherein the weight element (7, 7a) is fastened to the support (3, 3a, 3b), wherein the weight element (7, 7a) is slidably mounted on the support (3, 3a, 3b), wherein the support (3, 3a, 3b) forms a movement path for the weight element (7, 7a), wherein the support (3, 3a, 3b) is rigidly connected to the ground, on which the outdoor fitness equipment is standing, in order to define the movement path of the support (3, 3a, 3b) in space, and wherein the movement path has a change of direction.
A method of edge sealing for a secondary lithium battery, comprising steps of: drawing a 3D model of a battery edge to be edge sealed of a secondary lithium battery, and inputting the 3D model into a 3D printer; positioning the secondary lithium battery to be edge sealed in a 3D printing area, and fixing a relative position of the secondary lithium battery in the 3D printing area; simulating, by the 3D printer, the battery edge according to the 3D model and setting a printing path; adding edge sealing glue in a printing head of the 3D printer, moving the printing head according to the set printing path and in the meantime printing with a pair of symmetrically arranged gluing injectors of the printing head that are provided with gluing needles, the gluing needles being respectively located adjacent to two opposite sides of the battery edge, and simultaneously moving along the printing path with a same moving rate and a same glue extruding rate, to print glue of a uniform volume on the two sides of the battery edge, so that edge sealing glue printed covers the battery edge; solidifying the edge sealing glue. drawing a 3D model of a battery edge to be edge sealed of a secondary lithium battery, and inputting the 3D model into a 3D printer; positioning the secondary lithium battery to be edge sealed in a 3D printing area, and fixing a relative position of the secondary lithium battery in the 3D printing area; simulating, by the 3D printer, the battery edge according to the 3D model and setting a printing path; adding edge sealing glue in a printing head of the 3D printer, moving the printing head according to the set printing path and in the meantime printing with a pair of symmetrically arranged gluing injectors of the printing head that are provided with gluing needles, the gluing needles being respectively located adjacent to two opposite sides of the battery edge, and simultaneously moving along the printing path with a same moving rate and a same glue extruding rate, to print glue of a uniform volume on the two sides of the battery edge, so that edge sealing glue printed covers the battery edge; solidifying the edge sealing glue.
Use of an aluminum alloy consisting of: 4 to 6 % by weight of magnesium; 0.3 to 0.9 % by weight of ferrum; 0.1 to 0.6 % by weight of manganese; and 0.2 to 2 % by weight of silicon, with the remaining rest being aluminum, for producing an escalator step or auto-walk pallet as a mechanical part, wherein the escalator step or autowalk pallet is made by die-casting. 4 to 6 % by weight of magnesium; 0.3 to 0.9 % by weight of ferrum; 0.1 to 0.6 % by weight of manganese; and 0.2 to 2 % by weight of silicon,
A glove, in particular a glovebox glove, characterized in that an identification means is disposed on an end portion of a cuff of the glove, wherein the identification means is an RFID chip with a support matrix of e.g. glass or plastic.
Method for recording digitized video, audio and additional system data, wherein a defined video frame rate or field rate and a defined audio sample rate are used, including the steps of - receiving constant length digital data including camera data and constant length timecode data; - generating a first KLV encoded packet (PicI) containing a full frame or field of the digitized video data (V P), wherein the first packet (PicI) has predetermined constant size; - generating a second KLV encoded packet (AudI) containing digitized audio data (V A) substantially corresponding, within a predefined range, to said digitized video data of the first packet (PicI), wherein the digitized audio data is an integer number of audio samples that is determined by the video frame rate or field rate and the audio sample rate; - determining the difference (max A -L A) between said amount of data of the second KLV encoded packet (AudI) and a predefined maximum amount (max A) of data; - generating a third KLV encoded packet (DatI) containing at least the timecode data (V DA) and default data (V DP), wherein the amount of the default data (V DP) is said difference (max A -L A) plus a non-negative integer constant; and - recording an application packet (CP_3) containing at least the first (PicI), second (AudI) and third (DatI) KLV encoded packets. - receiving constant length digital data including camera data and constant length timecode data; - generating a first KLV encoded packet (PicI) containing a full frame or field of the digitized video data (V P), wherein the first packet (PicI) has predetermined constant size; - generating a second KLV encoded packet (AudI) containing digitized audio data (V A) substantially corresponding, within a predefined range, to said digitized video data of the first packet (PicI), wherein the digitized audio data is an integer number of audio samples that is determined by the video frame rate or field rate and the audio sample rate; - determining the difference (max A -L A) between said amount of data of the second KLV encoded packet (AudI) and a predefined maximum amount (max A) of data; - generating a third KLV encoded packet (DatI) containing at least the timecode data (V DA) and default data (V DP), wherein the amount of the default data (V DP) is said difference (max A -L A) plus a non-negative integer constant; and - recording an application packet (CP_3) containing at least the first (PicI), second (AudI) and third (DatI) KLV encoded packets.
A laminated metal sheet, comprising: a metal sheet; a first polyester resin layer formed on a surface of the metal sheet to become an outer surface side of a container after the container is formed; and a second polyester resin layer formed on a surface of the metal sheet to become an inner surface side of the container after the container is formed, wherein the first polyester resin layer contains: 30% by mass to 60% by mass of copolymerized polyethylene terephthalate having a copolymerization component content of less than 6 mol%; and 40% by mass to 70% by mass of polybutylene terephthalate, the second polyester resin layer is copolymerized polyethylene terephthalate having a copolymerization component content of less than 14 mol%, residual orientations of the first and second polyester resin layers are less than 20%, determined in accordance with the X-ray diffraction method indicated in the section of the description with the heading "Residual orientation", and where a sheet thickness reduction rate of a can wall in forming the metal sheet into a can body is A%, a film thickness of the first polyester resin layer before the forming is X μm, and a film thickness of the second polyester resin layer before the forming is Y μm, the film thicknesses X and Y of the first and the second polyester resin layers before the forming respectively satisfy the following expression and expression: X × 1 − A / 100 > 7 and Y × 1 − A / 100 > 10 a metal sheet; a first polyester resin layer formed on a surface of the metal sheet to become an outer surface side of a container after the container is formed; and a second polyester resin layer formed on a surface of the metal sheet to become an inner surface side of the container after the container is formed, wherein the first polyester resin layer contains: 30% by mass to 60% by mass of copolymerized polyethylene terephthalate having a copolymerization component content of less than 6 mol%; and 40% by mass to 70% by mass of polybutylene terephthalate, 30% by mass to 60% by mass of copolymerized polyethylene terephthalate having a copolymerization component content of less than 6 mol%; and 40% by mass to 70% by mass of polybutylene terephthalate, the second polyester resin layer is copolymerized polyethylene terephthalate having a copolymerization component content of less than 14 mol%, residual orientations of the first and second polyester resin layers are less than 20%, determined in accordance with the X-ray diffraction method indicated in the section of the description with the heading "Residual orientation", and where a sheet thickness reduction rate of a can wall in forming the metal sheet into a can body is A%, a film thickness of the first polyester resin layer before the forming is X μm, and a film thickness of the second polyester resin layer before the forming is Y μm, the film thicknesses X and Y of the first and the second polyester resin layers before the forming respectively satisfy the following expression and expression: X × 1 − A / 100 > 7 and Y × 1 − A / 100 > 10
Radar sensor for motor vehicles, having a transmitting and receiving part which has a mixer for mixing a transmitted signal with a received signal, an evaluation circuit which is connected to an output of the mixer by means of a DC voltage coupling device, and a compensation device (24, 30) for compensating for a DC voltage offset in the output signal from the mixer, the compensation device being divided into a coarse compensation device and a fine compensation device in the evaluation circuit, characterized in that the coarse compensation device is formed by current sources in the transmitting and receiving part and is designed to compensate for temporally constant components of the DC voltage offset already in the transmitting and receiving part using load resistances of the mixer.
A material useful as a wipe comprising: an outer surface made from at least one nonwoven spunmelt polymer web, wherein such article has capacity to retain at least about 10% more particles than a comparable nonwoven material that differs insofar as all the multi-lobal fiber is replaced with round fibers, wherein said web has 100% by weight of multi-lobal fibers with tetra-lobal, penta-lobal or hexa-lobal cross-sections.
Measurement method, in which, at the start of a measurement chain, a measured variable is picked up and is further-processed over the course of the measurement chain by means of conversion to give a measurement result, the original or converted measured variable being modulated at a predetermined modulation frequency (f 0) at a first point in the measurement chain, characterized - in that, at a second point in the measurement chain, which is after the first point in the direction of further-processing, a variable is added to the converted measured variable, said variable having the same frequency (f 0) as the modulation but being shifted with respect to this through a predetermined phase angle (φ 0), with the result that the measurement result contains a vector described by amplitude (|S2|) and phase (φ), - in that the measurement chain is calibrated using different known values for the measured variable, with different vectors being obtained which define a characteristic, and - in that an unknown value for the measured variable is determined from that point of the characteristic at which the vector (S2 F) obtained in the process or its extension intersects the characteristic. - in that, at a second point in the measurement chain, which is after the first point in the direction of further-processing, a variable is added to the converted measured variable, said variable having the same frequency (f 0) as the modulation but being shifted with respect to this through a predetermined phase angle (φ 0), with the result that the measurement result contains a vector described by amplitude (|S2|) and phase (φ), - in that the measurement chain is calibrated using different known values for the measured variable, with different vectors being obtained which define a characteristic, and - in that an unknown value for the measured variable is determined from that point of the characteristic at which the vector (S2 F) obtained in the process or its extension intersects the characteristic.
A liposomal formulation containing an epirubicin characterised in that it contains an epirubicin in liposome comprising HSPC/Chol/ DSPE-PEG 2000 5.5:4:0.5 mol/mol vesicles forming a composition of lipid components in the ratio of 1 part by mass of the epirubicin per 3 to 12 parts by mass of the lipid components, and a 300mM solution of ascorbic acid or a salt thereof, preferably ammonium ascorbate or 300mM solution of folic acid or a salt thereof, preferably ammonium folate or 300mM solution of pantothenic acid, preferably an ammonium salt thereof or 300mM solution of methothrexate or an ammonium salt thereof.
A surgical coupling system comprising a first surgical coupling device and a second surgical coupling device each having at least two electrical coupling contacts (66, 67, 68, 69, 70, 71, 72, 73, 74) that are moveable mechanically into engagement with one another, wherein the first and the second coupling device (62, 64) are completely separated from each other in a separated position and are mechanically in engagement with one another in a mechanical coupling position, characterized by an electrical switching device which, in the coupling position, is moveable from an OFF position, in which at least one first electrical coupling contact (67, 68) of the first coupling device and at least one first electrical coupling contact (71, 72) of the second coupling device are out of engagement, into an ON position in which the at least one first electrical coupling contact (67, 68) of the first coupling device and the at least one first electrical coupling contact (71, 72) of the second coupling device are in electrically conductive contact or engagement, and/or vice versa.
Method of controlling a bottling plant, comprising the steps of: detecting an operating state of the bottling plant; determining whether for the detected operating state the energy consumption and/or the consumable consumption of at least one consumer of the bottling plant can be reduced; and if it is determined that the energy consumption and/or the consumable consumption of at least one consumer can be reduced: reducing the energy consumption and/or the consumable consumption of the at least one consumer by switching off the at least one consumer or by putting the at least one consumer in a stand-by state; wherein determining whether for the detected operating state the energy consumption and/or the consumable consumption of at least one consumer of the bottling plant can be reduced comprises an automatic matching with at least one predetermined operating state stored in a storage element together with a specification for an optimal energy consumption and/or consumable consumption of at least one consumer in the at least one predetermined operating state; characterized in that reducing the energy consumption and/or the consumable consumption is for a predetermined period; and wherein the predetermined period is selected depending on the detected operating state. detecting an operating state of the bottling plant; determining whether for the detected operating state the energy consumption and/or the consumable consumption of at least one consumer of the bottling plant can be reduced; and if it is determined that the energy consumption and/or the consumable consumption of at least one consumer can be reduced: reducing the energy consumption and/or the consumable consumption of the at least one consumer by switching off the at least one consumer or by putting the at least one consumer in a stand-by state; reducing the energy consumption and/or the consumable consumption of the at least one consumer by switching off the at least one consumer or by putting the at least one consumer in a stand-by state; wherein determining whether for the detected operating state the energy consumption and/or the consumable consumption of at least one consumer of the bottling plant can be reduced comprises an automatic matching with at least one predetermined operating state stored in a storage element together with a specification for an optimal energy consumption and/or consumable consumption of at least one consumer in the at least one predetermined operating state; characterized in that reducing the energy consumption and/or the consumable consumption is for a predetermined period; and wherein the predetermined period is selected depending on the detected operating state.
A refrigerator for a vehicle, comprising: a cavity having an open top; a machine room provided at a side of the cavity; a compressor provided at a front side in the machine room to compress a refrigerant; a condensation module provided at a rear side in the machine room to condense the refrigerant; an evaporation module in which the refrigerant condensed in the condensation module is supplied and evaporated and which is provided in the cavity; and a machine room cover for covering the machine room to enable air to be suctioned from a rear side of machine room cover, characterized in that an expansion valve for supplying refrigerant supplied to the evaporation module and a fourth passage for introducing refrigerant evaporated in the evaporation module into the compressor are bent with the same shape to come into contact with each other for regenerating heat through heat exchange. a cavity having an open top; a machine room provided at a side of the cavity; a compressor provided at a front side in the machine room to compress a refrigerant; a condensation module provided at a rear side in the machine room to condense the refrigerant; an evaporation module in which the refrigerant condensed in the condensation module is supplied and evaporated and which is provided in the cavity; and a machine room cover for covering the machine room to enable air to be suctioned from a rear side of machine room cover, characterized in that an expansion valve for supplying refrigerant supplied to the evaporation module and a fourth passage for introducing refrigerant evaporated in the evaporation module into the compressor are bent with the same shape to come into contact with each other for regenerating heat through heat exchange.