mhurhangee/ep-ind-claims huggingface dataset:
A temperature controlled container comprising: a case including a storage space formed therein; a thermoelectric element; and a first heat transfer unit between the thermoelectric element and the storage space, the first heat transfer unit including a heat transfer case including an enclosed space formed therein, the heat transfer case having a larger width than the thermoelectric element in order to include a first portion facing the thermoelectric element and a second portion that does not face the thermoelectric element, characterized in that a phase change material and a plurality of heat transfer bodies are accommodated in the enclosed space of the heat transfer case, wherein the heat transfer body includes a first body portion in communication with the portion of the heat transfer case facing the thermoelectric element and a second body portion in communication with the portion of the heat transfer case that does not face the thermoelectric element, wherein the first body portion is in communication with the second body portion, wherein the plurality of heat transfer bodies is disposed radially in the enclosed space with the phase change material filled there-between. a case including a storage space formed therein; a thermoelectric element; and a first heat transfer unit between the thermoelectric element and the storage space, the first heat transfer unit including a heat transfer case including an enclosed space formed therein, the heat transfer case having a larger width than the thermoelectric element in order to include a first portion facing the thermoelectric element and a second portion that does not face the thermoelectric element, characterized in that a phase change material and a plurality of heat transfer bodies are accommodated in the enclosed space of the heat transfer case, wherein the heat transfer body includes a first body portion in communication with the portion of the heat transfer case facing the thermoelectric element and a second body portion in communication with the portion of the heat transfer case that does not face the thermoelectric element, wherein the first body portion is in communication with the second body portion, wherein the plurality of heat transfer bodies is disposed radially in the enclosed space with the phase change material filled there-between.
Microelectromechanical membrane arrangement (100; 200) comprising: a substrate which has a multiplicity of cutouts in a surface; a first electrically conductive electrode layer, which is arranged on the surface of the substrate and which has a multiplicity of first depressions corresponding to the cutouts of the substrate; and an electrically conductive membrane layer (2; 7), which can be deflected in a direction perpendicular to the surface of the substrate, is arranged over the first electrode layer and is spaced apart from said first electrode layer by a first distance value (x G); wherein the membrane layer has a multiplicity of second depressions formed over the first depressions; and wherein the second depressions are configured so as to engage in the first depressions one inside the other without any touching contact when the membrane layer is deflected perpendicular to the surface of the substrate; characterized by a second electrically conductive electrode layer, which is arranged over the membrane layer (2; 7), and which has a multiplicity of third depressions formed over the first depressions, wherein the first depressions, the second depressions and the third depressions are formed in relation to one another such that the second depressions engage in the first depressions one inside the other without any touching contact and the third depressions engage in the second depressions one inside the other without any touching contact when the membrane layer is deflected perpendicular to the surface of the substrate. a substrate which has a multiplicity of cutouts in a surface; a first electrically conductive electrode layer, which is arranged on the surface of the substrate and which has a multiplicity of first depressions corresponding to the cutouts of the substrate; and an electrically conductive membrane layer (2; 7), which can be deflected in a direction perpendicular to the surface of the substrate, is arranged over the first electrode layer and is spaced apart from said first electrode layer by a first distance value (x G); wherein the membrane layer has a multiplicity of second depressions formed over the first depressions; and wherein the second depressions are configured so as to engage in the first depressions one inside the other without any touching contact when the membrane layer is deflected perpendicular to the surface of the substrate; characterized by a second electrically conductive electrode layer, which is arranged over the membrane layer (2; 7), and which has a multiplicity of third depressions formed over the first depressions, wherein the first depressions, the second depressions and the third depressions are formed in relation to one another such that the second depressions engage in the first depressions one inside the other without any touching contact and the third depressions engage in the second depressions one inside the other without any touching contact when the membrane layer is deflected perpendicular to the surface of the substrate.
A method for processing metallized ceramic substrates, wherein a. a laser scribe line is generated as a predetermined breaking line in the metallized ceramic substrate using a laser beam; and/or b. an at least partial cutting through of the metallized ceramic substrate is carried out using a laser beam; wherein the processing is performed using a p-sec IR laser, characterized in that the light of the laser is absorbed by the ceramic substrate and the metal coating of the metallized ceramic substrate, in that in the generation of the laser scribe line as a nominal break line or in the cutting through a pulse duration of the laser is used which is selected such that the laser scribe line contains less than 30 vol. % and more than 0.1 vol. % of the melt phase of the ceramic material of the metallized ceramic substrate, that the processing speed of the p-sec laser is at least 0.05 m/sec and at most 19 m/sec and the depth of the laser scribe line is 5 to 50 % of the layer thickness of the ceramic substrate. a. a laser scribe line is generated as a predetermined breaking line in the metallized ceramic substrate using a laser beam; and/or b. an at least partial cutting through of the metallized ceramic substrate is carried out using a laser beam;
A check valve for an aircraft galley plumbing system, comprising: a valve body including an inlet port for a potable water supply line; first and second outlet ports leading to a distribution manifold, including quick disconnect fittings located at the first and second outlet ports, where the quick disconnects include reverse flow inhibitors to seal the valve when no conduit is connected to the outlet ports; a vertical channel through the valve body for draining water through the valve; a pressure line connection port; and a piston reciprocating across said vertical channel and biased by a spring and in fluid communication with the pressure line connection port, such that when a water pressure is introduced from a water pressure line to the pressure line connection port sufficient to collapse said spring, then the piston blocks said channel, and when the water pressure is insufficient to collapse said spring then the piston retracts to open said channel, allowing fluid to pass thereinthrough. a valve body including an inlet port for a potable water supply line; first and second outlet ports leading to a distribution manifold, including quick disconnect fittings located at the first and second outlet ports, where the quick disconnects include reverse flow inhibitors to seal the valve when no conduit is connected to the outlet ports; a vertical channel through the valve body for draining water through the valve; a pressure line connection port; and a piston reciprocating across said vertical channel and biased by a spring and in fluid communication with the pressure line connection port, such that when a water pressure is introduced from a water pressure line to the pressure line connection port sufficient to collapse said spring, then the piston blocks said channel, and when the water pressure is insufficient to collapse said spring then the piston retracts to open said channel, allowing fluid to pass thereinthrough.
A kit of parts for a functional toy, comprising: - one or more connector(s) having a first end, a second end, and a radially extending flange placed between the two ends, - one or more foam element(s) with at least one essentially planar surface, said surface comprising at least one prepared opening extending perpendicular to the planar surface for receiving at least the first end of the connector, wherein the connector flange is configured as a stopper for the insertion of the first end into the foam element opening, and wherein the kit of parts are configured such that when the first end is inserted into the foam element opening to the stopper position, and a further suitable amount of force is applied to the connector in the direction of the connector insertion, the flange of the connector is countersunk into the surface of the foam element, and remains countersunk after the further force is removed due to the frictional force between the connector and the opening. - one or more connector(s) having a first end, a second end, and a radially extending flange placed between the two ends, - one or more foam element(s) with at least one essentially planar surface, said surface comprising at least one prepared opening extending perpendicular to the planar surface for receiving at least the first end of the connector, wherein the connector flange is configured as a stopper for the insertion of the first end into the foam element opening, and
Connection between two adapter parts (1, 2) of a supporting apparatus which can be constructed in a modular manner for supporting tools, workpieces or the like, wherein the respective adapter part (1 or 2) has an attachment (17 or 18), as well as having a connecting clip which, on sides of the attachments (17, 18) which face away from one another, engages behind the attachments (17, 18) which are positioned facing one another, and fixes the attachments (17, 18) to one another in an axial and radial manner, as well as having a device for fixing the attachments (17, 18) to one another in a non-rotatable manner, characterized in that the device for fixing the attachments (17, 18) to one another in a non-rotatable manner has a positive locking part which is arranged between the two attachments (17, 18) and engages in the two attachments (17, 18) in a positive locking manner for the non-rotatable fixing.
Operating method for a driver assistance system for the longitudinal control of a vehicle with respect to another vehicle, preferably for the control of the velocity and/or inter-vehicle distance, wherein the longitudinal control of the vehicle is carried out as a function of at least one parameter which can be derived from a vehicle class of the other vehicle, wherein a predefined number of vehicle classes is provided, and at least one of these classes is determined as a function of a detected distance, a height and a width of the other vehicle and is taken into account for the longitudinal control of the vehicle, characterized by the steps: determining a 3-dimensional trajectory of the other vehicle as a function of a measured distance and a changing angle of incidence of the other vehicle, wherein the angle of incidence is the angle between the direction of travel of the vehicle and a distance vector relating to the other vehicle, and correcting a changing width and/or height of an outline (4A-4G) of the other vehicle as a function of the determined 3-dimensional trajectory of the other vehicle, so that the outline (4A-4G) can be evaluated without geometric distortion and its type identified in order to determine the vehicle class. determining a 3-dimensional trajectory of the other vehicle as a function of a measured distance and a changing angle of incidence of the other vehicle, wherein the angle of incidence is the angle between the direction of travel of the vehicle and a distance vector relating to the other vehicle, and correcting a changing width and/or height of an outline (4A-4G) of the other vehicle as a function of the determined 3-dimensional trajectory of the other vehicle, so that the outline (4A-4G) can be evaluated without geometric distortion and its type identified in order to determine the vehicle class.
An assembly for a cycle including: - a cycle frame comprising a head tube having a lower end opening and an upper end opening, and - a front fork including a fork crown topped by a steerer tube extending longitudinally inside the head tube and at least one branch extending from the fork crown in a direction opposite that of the steerer tube, to support a front wheel; characterized in that the steerer tube has an outer diameter smaller than 25 millimeters and in that the head tube has a stop zone extending downward below said lower end opening and forming a housing able to receive a rear zone of the fork crown placed across from said stop zone so as to produce a stop system able to limit movement of said fork crown in case of a frontal impact on the front wheel. - a cycle frame comprising a head tube having a lower end opening and an upper end opening, and - a front fork including a fork crown topped by a steerer tube extending longitudinally inside the head tube and at least one branch extending from the fork crown in a direction opposite that of the steerer tube, to support a front wheel;
Compounds of the formula I: in which A 1 and A 2 each, independently of one another, denote a radical selected from aromatic or heteroaromatic ring systems having 5 to 14, preferably 5 to 10, ring atoms, which may also be mono- or polysubstituted by L, L on each occurrence, identically or differently, denotes OH, CH 2 OH, F, Cl, Br, I, -CN, -NO 2, -NCO, -NCS, -OCN, -SCN, SF 5, -C(=O)N(R 0) 2, -C(=O)Y 1, -C(=O)R 0, -N(R°) 2, optionally substituted silyl, straight-chain or branched alkyl or alkoxy having 1 to 25 C atoms, or straight-chain or branched alkenyl, alkynyl, alkylcarbonyl, alkoxycarbonyl, alkylcarbonyloxy or alkoxycarbonyloxy having 2 to 25 C atoms, in which, in addition, one or more H atoms in all these groups may be replaced by F, Cl or CN, and Y 1 denotes halogen, R 1, independently of one another, denotes H, straight-chain or branched alkyl or alkoxy having 1 to 12 C atoms, in which, in addition, one or more CH 2 groups may be replaced by -O-, -S-, - -, - O-, -O -, -O O-, -CH=CH-, -C≡C-, -NR 0 -, - NR 0 -, -NR° - in such a way that O and/or S atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by F, Cl or CN, R 0 denotes H or C 1 -C 7 -alkyl, R 2 and R 3 denote a radical -A 1 -R 1, Z 2 denotes -C≡C- or a single bond, and m denotes 2, 3 or 4, for Z 2 = -C≡C- also m = 1. A 1 and A 2 each, independently of one another, denote a radical selected from aromatic or heteroaromatic ring systems having 5 to 14, preferably 5 to 10, ring atoms, which may also be mono- or polysubstituted by L, L on each occurrence, identically or differently, denotes OH, CH 2 OH, F, Cl, Br, I, -CN, -NO 2, -NCO, -NCS, -OCN, -SCN, SF 5, -C(=O)N(R 0) 2, -C(=O)Y 1, -C(=O)R 0, -N(R°) 2, optionally substituted silyl, straight-chain or branched alkyl or alkoxy having 1 to 25 C atoms, or straight-chain or branched alkenyl, alkynyl, alkylcarbonyl, alkoxycarbonyl, alkylcarbonyloxy or alkoxycarbonyloxy having 2 to 25 C atoms, in which, in addition, one or more H atoms in all these groups may be replaced by F, Cl or CN, and Y 1 denotes halogen, R 1, independently of one another, denotes H, straight-chain or branched alkyl or alkoxy having 1 to 12 C atoms, in which, in addition, one or more CH 2 groups may be replaced by -O-, -S-, - -, - O-, -O -, -O O-, -CH=CH-, -C≡C-, -NR 0 -, - NR 0 -, -NR° - in such a way that O and/or S atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by F, Cl or CN, R 0 denotes H or C 1 -C 7 -alkyl, R 2 and R 3 denote a radical -A 1 -R 1, Z 2 denotes -C≡C- or a single bond, and m denotes 2, 3 or 4, for Z 2 = -C≡C- also m = 1.
A cardboard for use as a gypsum board covering, wherein - the cardboard comprises a first side and a second side, - the cardboard has been treated, after lowering the pH, on its first side with a benzoic acid salt solution applied with a surface adhesive press in such a way that the dry cardboard contains 2 - 4 g/m 2, of benzoic acid salt, and - after the cardboard has been treated with the benzoic acid salt, dried, and cooled, the cardboard is treated to be water-repellent by treating the cardboard only on the first side with a polymer compound comprising waxy polymers that allow steam to permeate through the treated cardboard. - the cardboard comprises a first side and a second side, - the cardboard has been treated, after lowering the pH, on its first side with a benzoic acid salt solution applied with a surface adhesive press in such a way that the dry cardboard contains 2 - 4 g/m 2, of benzoic acid salt, and - after the cardboard has been treated with the benzoic acid salt, dried, and cooled, the cardboard is treated to be water-repellent by treating the cardboard only on the first side with a polymer compound comprising waxy polymers that allow steam to permeate through the treated cardboard.
A computer-implemented method for reconstructing a 3D object with at least two telecentric line-scan cameras and at least one device configured to perform a relative motion of said 3D object with respect to said telecentric line-scan cameras enabling the acquisition of telecentric line-scan images, comprising the steps of a) providing for each telecentric line-scan camera a set of telecentric line-scan calibration images, where said set contains one or more images; b) performing a camera calibration based on said sets of telecentric line-scan calibration images; c) based on the result of said camera calibration, computing a telecentric rectification mapping that rectifies a telecentric line-scan image pair of a pair of telecentric line-scan cameras; d) providing a telecentric line-scan image pair for a pair of telecentric line-scan cameras of said 3D object; and e) rectifying said telecentric line-scan image pair with said telecentric rectification mapping, yielding a rectified telecentric line-scan image pair. a) providing for each telecentric line-scan camera a set of telecentric line-scan calibration images, where said set contains one or more images; b) performing a camera calibration based on said sets of telecentric line-scan calibration images; c) based on the result of said camera calibration, computing a telecentric rectification mapping that rectifies a telecentric line-scan image pair of a pair of telecentric line-scan cameras; d) providing a telecentric line-scan image pair for a pair of telecentric line-scan cameras of said 3D object; and e) rectifying said telecentric line-scan image pair with said telecentric rectification mapping, yielding a rectified telecentric line-scan image pair.
An optical wireless communication receiver apparatus for receiving data streams from at least one transmitter apparatus, each data stream encoded on a beam of light of a respective different wavelength or range of wavelengths propagating through free space between the at least one transmitter apparatus and the receiver apparatus, the apparatus comprising: a wavelength-selective element configured to receive the beams after their propagation through free space, wherein the wavelength-selective element is wavelength-sensitive such as to direct the selected at least one of the beams in a first direction relative to its direction of receipt based on its wavelength, and to direct at least one other of the beams in a second, different direction relative to its direction of receipt based on its wavelength, thereby to direct a selected at least one of the beams having a selected wavelength or range of wavelengths to a detector, wherein the detector is configured to receive said selected at least one of the beams and in response to output a detection signal, and the apparatus further comprises at least one control element operable to control at least one physical property of the wavelength-selective element thereby to select said at least one of the beams for direction by the wavelength-selective element to the detector. a wavelength-selective element configured to receive the beams after their propagation through free space, wherein the wavelength-selective element is wavelength-sensitive such as to direct the selected at least one of the beams in a first direction relative to its direction of receipt based on its wavelength, and to direct at least one other of the beams in a second, different direction relative to its direction of receipt based on its wavelength, thereby to direct a selected at least one of the beams having a selected wavelength or range of wavelengths to a detector, wherein the detector is configured to receive said selected at least one of the beams and in response to output a detection signal, and the apparatus further comprises at least one control element operable to control at least one physical property of the wavelength-selective element thereby to select said at least one of the beams for direction by the wavelength-selective element to the detector.
Fastening anchor for screwing into a borehole in a material, wherein the fastening anchor comprises a. a core with i. an insertion end, ii. an outer end opposite the latter, iii. a central longitudinal axis and iv. a screwing in direction parallel thereto, b. a cutting thread designed in one piece with the core and extending at least partly along a cutting section (As) for screwing the latter into the material with i. a cutting core diameter (D SK), ii. a cutting thread diameter (D SG) and iii. a cutting thread origin arranged at the insertion end c. a securing thread designed in one piece with the core and extending along a fastening section (A B) for securing a fastening element with i. a fastening core diameter (D BK) and ii. a fastening thread diameter (D BG), d. a torque transmission means arranged on the core for transmitting a screw-in torque of a screw-in tool to the core for screwing the latter into the material, characterised in that the fastening thread diameter (D BG) is smaller than the greatest cutting core diameter (D SK). a. a core with i. an insertion end, ii. an outer end opposite the latter, iii. a central longitudinal axis and iv. a screwing in direction parallel thereto, i. an insertion end, ii. an outer end opposite the latter, iii. a central longitudinal axis and iv. a screwing in direction parallel thereto, b. a cutting thread designed in one piece with the core and extending at least partly along a cutting section (As) for screwing the latter into the material with i. a cutting core diameter (D SK), ii. a cutting thread diameter (D SG) and iii. a cutting thread origin arranged at the insertion end i. a cutting core diameter (D SK), ii. a cutting thread diameter (D SG) and iii. a cutting thread origin arranged at the insertion end c. a securing thread designed in one piece with the core and extending along a fastening section (A B) for securing a fastening element with i. a fastening core diameter (D BK) and ii. a fastening thread diameter (D BG), i. a fastening core diameter (D BK) and ii. a fastening thread diameter (D BG), d. a torque transmission means arranged on the core for transmitting a screw-in torque of a screw-in tool to the core for screwing the latter into the material,