mhurhangee/ep-ind-claims huggingface dataset:
Surgical microscope comprising an optical system for imaging an object region into an image plane (27a, 27b, 27c) of an image capturing system by way of an optical beam path, comprising a first optical assembly through which the optical beam path passes; and comprising a second optical assembly that is disposed in the optical beam path on the side of the first optical assembly that faces away from the object region, wherein the second optical assembly is embodied as a system that at least partly compensates a longitudinal chromatic aberration of the first optical assembly that occurs in the wavelength range of the light between 625 nm ≤ λ ≤ 850 nm, characterized in that the first optical assembly is an achromatic system, which is corrected for light at a first wavelength and at a second wavelength, wherein the first wavelength lies in the wavelength region of λ ≈ 486 nm and the second wavelength lies in the wavelength region of λ ≈ 656 nm and only normal glasses are used for achromatization, the chromatic aberration of the light in said normal glasses being approximately 5-times as large in the near infrared and in the infrared than in the visible spectral range, wherein the sign of the chromatic aberrations in the near infrared and in the infrared is opposite to the sign of the chromatic aberrations in the visible spectral range and the second optical assembly is an apochromat or semi-apochromat that is corrected for light at the first wavelength, which lies in the wavelength region of λ ≈ 486 nm, and for light at the second wavelength, which lies in the wavelength region of λ ≈ 656 nm, and for light at a third wavelength, which lies in the wavelength region of λ ≈ 588 nm.
A powder polishing device, provided with two substantially opposite connecting sections (61, 62), the connecting sections (61, 62) are designed to hold a powder chamber, said powder polishing device comprising a jamming mechanism designed to move at least one of the connecting sections (61, 62) such that the powder chamber can be locked characterized in that the jamming mechanism comprises a spring mechanism, a pneumatic system, an electric motor, a mechanical lever system and/or a magnet.
A pulsed electromagnetic field therapy device comprising: a parallel resonant circuit comprising a capacitor connected in parallel with an inductor without a switch between the capacitor and the inductor in the parallel resonant circuit, wherein the parallel resonant circuit is configured to generate a pulsed electromagnetic field comprising a sequence of damped sinusoidal electromagnetic oscillations in the inductor while electrical energy is stored in the parallel resonant circuit, and wherein the inductor is configured to be placed relative to a part of a body to provide the pulsed electromagnetic field to the part of the body; the device further comprising: a power source; and a switch, external to the parallel resonant circuit, which is configured to: selectively connect the parallel resonant circuit to the power source for a current ramping period during which a current (I) in the inductor is increased to reach a desired current, and at the end of the current ramping period disconnect the parallel resonant circuit from the power source by opening the switch, wherein the parallel resonant circuit generates the sequence of damped sinusoidal electromagnetic oscillations in the inductor whilst the switch is open. a parallel resonant circuit comprising a capacitor connected in parallel with an inductor without a switch between the capacitor and the inductor in the parallel resonant circuit, wherein the parallel resonant circuit is configured to generate a pulsed electromagnetic field comprising a sequence of damped sinusoidal electromagnetic oscillations in the inductor while electrical energy is stored in the parallel resonant circuit, and wherein the inductor is configured to be placed relative to a part of a body to provide the pulsed electromagnetic field to the part of the body; the device further comprising: a power source; and a switch, external to the parallel resonant circuit, which is configured to: selectively connect the parallel resonant circuit to the power source for a current ramping period during which a current (I) in the inductor is increased to reach a desired current, and at the end of the current ramping period disconnect the parallel resonant circuit from the power source by opening the switch, wherein the parallel resonant circuit generates the sequence of damped sinusoidal electromagnetic oscillations in the inductor whilst the switch is open. a power source; and a switch, external to the parallel resonant circuit, which is configured to: selectively connect the parallel resonant circuit to the power source for a current ramping period during which a current (I) in the inductor is increased to reach a desired current, and at the end of the current ramping period disconnect the parallel resonant circuit from the power source by opening the switch, wherein the parallel resonant circuit generates the sequence of damped sinusoidal electromagnetic oscillations in the inductor whilst the switch is open.
Horizontal conveying device for carrying and conveying a pallet for the parking of a vehicle, comprising - at least one bearing element (3, 4, 5, 6), - a plurality of rollers (10, 12) for conveying and carrying a pallet, -- which, in a direction of conveyance (x, y), are rotatably mounted one after another on the at least one bearing element (3, 4, 5, 6), and -- which form at least two rows that are distanced apart transversely to the direction of conveyance (x, y), - at least one electric drive motor for the rotational driving of the rollers (10, 12), wherein the rollers (10, 12) respectively have a guide portion for guiding the pallet and at least one rolling portion (36, 37), arranged alongside the guide portion, for carrying and conveying the pallet, wherein the guide portion has at least two guide walls (42, 43), characterized in that the guide walls (42, 43) run at an angle α to one another, wherein: 10° ≤ α ≤ 170° obtains, in that the guide portion, on associated guide surfaces, is formed of a metallic material, and in that the at least one rolling portion (36, 37), on a running surface (L 1, L 2), is formed of a plastics material. - at least one bearing element (3, 4, 5, 6), - a plurality of rollers (10, 12) for conveying and carrying a pallet, -- which, in a direction of conveyance (x, y), are rotatably mounted one after another on the at least one bearing element (3, 4, 5, 6), and -- which form at least two rows that are distanced apart transversely to the direction of conveyance (x, y), -- which, in a direction of conveyance (x, y), are rotatably mounted one after another on the at least one bearing element (3, 4, 5, 6), and -- which form at least two rows that are distanced apart transversely to the direction of conveyance (x, y), - at least one electric drive motor for the rotational driving of the rollers (10, 12), wherein the rollers (10, 12) respectively have a guide portion for guiding the pallet and at least one rolling portion (36, 37), arranged alongside the guide portion, for carrying and conveying the pallet,
A solar cell assembly comprising: a support comprising a first side and an opposing second side; a first conductive layer comprising a first conductive portion disposed on the first side of the support; a second conductive layer comprising a second conductive portion disposed on the second side of the support; a plurality of solar cells (200, 201, 202, 203, 204, 205, 206, 207) mounted on the first side of the support, each solar cell of the plurality of solar cells comprising a top surface including a contact of a first polarity type, and a rear surface including a contact of a second polarity type; the contact of second polarity type of each of the plurality of solar cells making electrical contact with the first conductive portion of the first conductive layer; a plurality of conductive interconnects extending from the first side of the support to the second conductive layer, each respective interconnect making electrical contact with the contact of the first polarity type of a respective solar cell and extending through a respective via (140,141, 142, 143, 144, 145, 146, 147; 150; 160; 740, 741, 742, 743, 744, 745, 746, 747) to make electrical contact with the second conductive layer disposed on the second side of the support; a first terminal of the solar cell assembly disposed on the second side of the support and connected to the second conductive portion; and a second terminal of the solar cell assembly disposed on the first side of the support and connected to the first conductive portion. a support comprising a first side and an opposing second side; a first conductive layer comprising a first conductive portion disposed on the first side of the support; a second conductive layer comprising a second conductive portion disposed on the second side of the support; a plurality of solar cells (200, 201, 202, 203, 204, 205, 206, 207) mounted on the first side of the support, each solar cell of the plurality of solar cells comprising a top surface including a contact of a first polarity type, and a rear surface including a contact of a second polarity type; the contact of second polarity type of each of the plurality of solar cells making electrical contact with the first conductive portion of the first conductive layer; a plurality of conductive interconnects extending from the first side of the support to the second conductive layer, each respective interconnect making electrical contact with the contact of the first polarity type of a respective solar cell and extending through a respective via (140,141, 142, 143, 144, 145, 146, 147; 150; 160; 740, 741, 742, 743, 744, 745, 746, 747) to make electrical contact with the second conductive layer disposed on the second side of the support; a first terminal of the solar cell assembly disposed on the second side of the support and connected to the second conductive portion; and a second terminal of the solar cell assembly disposed on the first side of the support and connected to the first conductive portion.
A filter candle for treating water, adapted for being connected to a filter head, comprising a housing that is filled with an ion exchange material for softening the water to be treated, wherein the filter candle has a head with one inlet and at least two outlets, wherein water that can be introduced into the filter head at a first outlet is more softened than water that can be introduced into the filter head at a second outlet.
A cleaner holder for supporting a cleaner and a cleaning module which can be detachably coupled to the cleaner, comprising: a base; a stand extending upward from the base; a support body coupled to an upper portion of the stand and having a cleaner support surface protruding so that the cleaner can be seated on the cleaner support surface; and a cleaning module support coupled to the stand, and positioned in a space between the support body and the base for supporting the cleaning module, characterized in that the cleaning module support includes: a stand coupling portion coupled to the stand and having a hollow, through which the cleaning module support can be coupled to or separated from the stand; and a module coupling portion which protrudes outside from the stand coupling portion and to which the cleaning module can be coupled. a base; a stand extending upward from the base; a support body coupled to an upper portion of the stand and having a cleaner support surface protruding so that the cleaner can be seated on the cleaner support surface; and a cleaning module support coupled to the stand, and positioned in a space between the support body and the base for supporting the cleaning module, characterized in that the cleaning module support includes: a stand coupling portion coupled to the stand and having a hollow, through which the cleaning module support can be coupled to or separated from the stand; and a module coupling portion which protrudes outside from the stand coupling portion and to which the cleaning module can be coupled. a stand coupling portion coupled to the stand and having a hollow, through which the cleaning module support can be coupled to or separated from the stand; and a module coupling portion which protrudes outside from the stand coupling portion and to which the cleaning module can be coupled.
A method of making a first article comprising a functionalized substrate, the method comprising: providing a solid polymeric substrate; generating free radicals on a surface of the solid polymeric substrate to form a treated substrate; and reacting the free radicals of the treated substrate with a fluid comprising a thiocarbonylthio-containing compound to covalently bond a plurality of thiocarbonylthio-containing groups directly to carbon atoms in a polymeric backbone of the solid polymeric substrate and forming the functionalized substrate. providing a solid polymeric substrate; generating free radicals on a surface of the solid polymeric substrate to form a treated substrate; and reacting the free radicals of the treated substrate with a fluid comprising a thiocarbonylthio-containing compound to covalently bond a plurality of thiocarbonylthio-containing groups directly to carbon atoms in a polymeric backbone of the solid polymeric substrate and forming the functionalized substrate.
An electric heater comprising: a substrate; an outer pattern part (31 to 35) disposed on one surface of the substrate and to connect with a pair of first electrodes (39A, 39B); a first inner pattern part (51A to 56A, 61A to 65A) disposed on the one surface of the substrate, to be apart from the outer pattern part (31 to 35), and to connect with a pair of second electrodes (69A, 69B) spaced apart from the pair of first electrodes (39A, 39B); and a second inner pattern part (51B to 56B, 61B to 65B) disposed on the one surface of the substrate and spaced apart from the first inner pattern part (51A to 56A, 61A to 65A), wherein the outer pattern part (31 to 35) surrounds the first inner pattern part (51A to 56A, 61A to 65A) and the second inner pattern part (51B to 56B, 61B to 65B), characterized in that the second inner pattern part (51B to 56B, 61B to 65B) is connected to the pair of second electrodes (69A, 69B) in parallel with the first inner pattern part (51A to 56A, 61A to 65A). a substrate; an outer pattern part (31 to 35) disposed on one surface of the substrate and to connect with a pair of first electrodes (39A, 39B); a first inner pattern part (51A to 56A, 61A to 65A) disposed on the one surface of the substrate, to be apart from the outer pattern part (31 to 35), and to connect with a pair of second electrodes (69A, 69B) spaced apart from the pair of first electrodes (39A, 39B); and a second inner pattern part (51B to 56B, 61B to 65B) disposed on the one surface of the substrate and spaced apart from the first inner pattern part (51A to 56A, 61A to 65A), wherein the outer pattern part (31 to 35) surrounds the first inner pattern part (51A to 56A, 61A to 65A) and the second inner pattern part (51B to 56B, 61B to 65B), characterized in that the second inner pattern part (51B to 56B, 61B to 65B) is connected to the pair of second electrodes (69A, 69B) in parallel with the first inner pattern part (51A to 56A, 61A to 65A).
Motor vehicle component in the form of a guide rod of a chassis comprising a plurality of structural components (4, 5) in the form of guide rod shells, wherein the components (4, 5) are joined together in the region of contact surfaces (6, 7) and are joined in a form-locking or material-locking manner at at least one contact point, wherein the components (4, 5) configured as guide rod shells have a middle section that is U-shaped in cross section with edge transitions (13, 14) pointing away from the contact surfaces (6, 7), wherein the contact surfaces (6, 7) begin at a distance from the transitions (13, 14), wherein a gap (11, 12) is formed between the components (4, 5) designed as guide rod shells at the edge of the contact surfaces (6, 7), characterised in that the components (4, 5) are adhered to one another in the region of the contact surfaces (6, 7) with the formation of an adhesive gap and then are joined in a force-fitting, form-fitting or and/or material-fitting manner at the at least one contact point, wherein the adhesive used is hardened by the cathode immersion lacquering of the connected components (4, 5), wherein the gap width of the edge gap (11, 12) is greater than the gap width of the adhesive gap to take in excess adhesive in order to prevent the inlet of liquid or dirt between the contact surfaces (6, 7).
A shipping container comprising: a cradle portion, said cradle portion being formed of a first material and further comprising a rectangular base assembly having a stacking surface defined in each corner portion of said base assembly and a plurality of upright members arising from said corner portions of the base assembly; and a basket formed of a second material, said basket having a rectangular floor, a sidewall arising from a perimeter portion of said floor, said sidewall further comprising four corner portions in alignment with each corner portion of said base assembly, a stacking pad defined by an upper surface of each corner portion of said sidewall, a pocket defined in an upper portion of each corner portion of said side wall, each pocket being adjacent to and underneath one of said stacking pads; wherein the floor of said basket is supported by said base assembly and an upper portion of each said upright member is contained within one of said pockets. a cradle portion, said cradle portion being formed of a first material and further comprising a rectangular base assembly having a stacking surface defined in each corner portion of said base assembly and a plurality of upright members arising from said corner portions of the base assembly; and a basket formed of a second material, said basket having a rectangular floor, a sidewall arising from a perimeter portion of said floor, said sidewall further comprising four corner portions in alignment with each corner portion of said base assembly, a stacking pad defined by an upper surface of each corner portion of said sidewall, a pocket defined in an upper portion of each corner portion of said side wall, each pocket being adjacent to and underneath one of said stacking pads; a rectangular floor, a sidewall arising from a perimeter portion of said floor, said sidewall further comprising four corner portions in alignment with each corner portion of said base assembly, a stacking pad defined by an upper surface of each corner portion of said sidewall, a pocket defined in an upper portion of each corner portion of said side wall, each pocket being adjacent to and underneath one of said stacking pads; four corner portions in alignment with each corner portion of said base assembly, a stacking pad defined by an upper surface of each corner portion of said sidewall, a pocket defined in an upper portion of each corner portion of said side wall, each pocket being adjacent to and underneath one of said stacking pads;
Method of assembling a timepiece assortment (1, 11, 21) comprising the following steps: a) separately manufacturing a timepiece component (3, 13, 23) and a fixing element (7', 17', 27'), the fixing element (7', 17', 27') being manufactured from an at least partially amorphous metal alloy and said timepiece component (3, 13, 23) being manufactured from a different material from said fixing element (7', 17', 27'); b) partially inserting at least one portion of the timepiece component (3, 13, 23) into the thickness of the fixing element (7', 17', 27') heated to between its vitreous transition temperature (Tg) and its crystallisation temperature (Tx) in order to form a timepiece component (3, 13, 23)/fixing element (7, 17, 27) assembly; c) driving an arbor (5, 25) into a hole (8, 18, 28) of the fixing element (7, 17, 27) to form the timepiece assortment (1, 11, 21) leaving a gap between the timepiece component (3, 13, 23) and the arbor (5, 25). a) separately manufacturing a timepiece component (3, 13, 23) and a fixing element (7', 17', 27'), the fixing element (7', 17', 27') being manufactured from an at least partially amorphous metal alloy and said timepiece component (3, 13, 23) being manufactured from a different material from said fixing element (7', 17', 27'); b) partially inserting at least one portion of the timepiece component (3, 13, 23) into the thickness of the fixing element (7', 17', 27') heated to between its vitreous transition temperature (Tg) and its crystallisation temperature (Tx) in order to form a timepiece component (3, 13, 23)/fixing element (7, 17, 27) assembly; c) driving an arbor (5, 25) into a hole (8, 18, 28) of the fixing element (7, 17, 27) to form the timepiece assortment (1, 11, 21) leaving a gap between the timepiece component (3, 13, 23) and the arbor (5, 25).
An environment control system configured to adjust an environment using a target environment control device (2091 to 2097) provided in a target space, the environment control system comprising: a device information obtaining unit configured to obtain information regarding the target environment control device; and a storage unit storing a state of an environment to be achieved, characterized by: a calculation unit configured to calculate a control parameter of the target environment control device for achieving the state of the environment based on the information obtained by the device information obtaining unit from a reference environment control device or a reference environment sensor provided in a reference space which is different from the target space; and a control unit configured to control the target environment control device on a basis of the control parameter. a device information obtaining unit configured to obtain information regarding the target environment control device; and a storage unit storing a state of an environment to be achieved, characterized by: a calculation unit configured to calculate a control parameter of the target environment control device for achieving the state of the environment based on the information obtained by the device information obtaining unit from a reference environment control device or a reference environment sensor provided in a reference space which is different from the target space; and a control unit configured to control the target environment control device on a basis of the control parameter. a calculation unit configured to calculate a control parameter of the target environment control device for achieving the state of the environment based on the information obtained by the device information obtaining unit from a reference environment control device or a reference environment sensor provided in a reference space which is different from the target space; and a control unit configured to control the target environment control device on a basis of the control parameter.