mhurhangee/ep-ind-claims huggingface dataset:
A refrigeration appliance having a sectional shelf assembly in a refrigeration cabin thereof, the shelf assembly comprising a front and a rear shelf units (2, 3) respectively neighboring in the depthwise direction of the refrigeration cabin, the front shelf unit being displaceable relative to first and second frames (4, 5) to which it is attached, wherein the front shelf unit - is a shelf section hingedly rotatable so as to be positioned under the first and second frames (4,5), - is sequentially movable away from the rear shelf unit and rotatable to take a rotated position relative to the shelf assembly plane, - is guidably movable through the first and second frames (4, 5) by means of first and second brackets (6, 7), wherein the first and second brackets (6, 7) - are fixedly attached to the front shelf unit, - are movably attached to the first and second frames (4, 5) by insertion of hinge portions into slideways of the first and second frames (4, 5), wherein - the rear shelf unit is supported on frame flanges in association with first and second frames (4,5), - the front shelf unit is supported on bracket flanges of first and second brackets (6,7), - the hinge portions are formed as longitudinal extensions extending parallel with the longitudinal axis of the slideways to ensure that the front shelf unit is maintained in a horizontal position independent of the place of the brackets (6, 7) in the slideways, - the slideways of the first and second frames (4, 5) comprise an outer distal end portion in the form of a rotation port, the rotation port allowing a 180-degree rotation of the hinge portions therein such that the hinge portions of the first and second brackets (6,7) can return back to the slideway, with the front shelf unit extending underneath the rear shelf unit. - is a shelf section hingedly rotatable so as to be positioned under the first and second frames (4,5), - is sequentially movable away from the rear shelf unit and rotatable to take a rotated position relative to the shelf assembly plane, - is guidably movable through the first and second frames (4, 5) by means of first and second brackets (6, 7), - are fixedly attached to the front shelf unit, - are movably attached to the first and second frames (4, 5) by insertion of hinge portions into slideways of the first and second frames (4, 5), wherein - the rear shelf unit is supported on frame flanges in association with first and second frames (4,5), - the front shelf unit is supported on bracket flanges of first and second brackets (6,7), - the hinge portions are formed as longitudinal extensions extending parallel with the longitudinal axis of the slideways to ensure that the front shelf unit is maintained in a horizontal position independent of the place of the brackets (6, 7) in the slideways, - the slideways of the first and second frames (4, 5) comprise an outer distal end portion in the form of a rotation port, the rotation port allowing a 180-degree rotation of the hinge portions therein such that the hinge portions of the first and second brackets (6,7) can return back to the slideway, with the front shelf unit extending underneath the rear shelf unit.
Bicycle control lever (10; 110) comprising luminous indicator means (40; 140), characterised by further comprising an inner half-shell (30, 310, 320; 130, 1310, 1320) and an outer half-shell (20; 120), wherein the luminous indicator means (40; 140) are arranged between the outer half-shell (20; 120) and the inner half-shell (30, 310, 320; 130, 1310, 1320), and wherein at least one region (28; 128) of the outer half-shell (20; 120) at the luminous indicator means (40; 140) is transparent.
An X-ray imaging system, comprising: an image acquisition system; at least one marker; and a marker detection system, wherein the X-ray image acquisition system comprises an X-ray source and, opposite said X-ray source across an examination region, an X-ray detector, the X-ray source configured to emit radiation in form of an X-ray beam detectable at the X-ray detector as a signal after passage of the X-ray beam through the examination region, wherein a field of view (FoV) of the image acquisition system is defined by a volume irradiatable by the X-ray beam, with said signal convertible into an image of a sample when said sample is resident in said field of view (FoV) during image acquisition, wherein the at least one marker is adapted to be spatially arranged in association with an area, characterised in that the at least one marker is configured to encode one or more image acquisition instructions, and in that the marker detection system is configured to issue a control signal to the X-ray imaging system in respect of said area when the detection system detects at least one of said at least one marker and thereby that i) the area is at least partly within the field of view (FoV) or ii) the area is within a predefined distance of the field of view (FoV), and in that the control signal corresponds to the one or more image acquisition instructions for the detected at least one of said at least one marker. an image acquisition system; at least one marker; and a marker detection system, wherein the X-ray image acquisition system comprises an X-ray source and, opposite said X-ray source across an examination region, an X-ray detector, the X-ray source configured to emit radiation in form of an X-ray beam detectable at the X-ray detector as a signal after passage of the X-ray beam through the examination region, wherein a field of view (FoV) of the image acquisition system is defined by a volume irradiatable by the X-ray beam, with said signal convertible into an image of a sample when said sample is resident in said field of view (FoV) during image acquisition, wherein the at least one marker is adapted to be spatially arranged in association with an area, characterised in that the at least one marker is configured to encode one or more image acquisition instructions, and in that the marker detection system is configured to issue a control signal to the X-ray imaging system in respect of said area when the detection system detects at least one of said at least one marker and thereby that i) the area is at least partly within the field of view (FoV) or ii) the area is within a predefined distance of the field of view (FoV), and in that the control signal corresponds to the one or more image acquisition instructions for the detected at least one of said at least one marker.
Hob module for installation below a worktop, the worktop being the worktop of a kitchen unit or a cooking island or the top of a table, comprising at least one induction device, at least one generator device which is connected to the induction device via at least one line, and at least one support device on which at least the induction device and the generator device are accommodated, the support device being designed as a liquid-tight separating device, the induction device, in the installed state, being arranged above the support device on the side of the support device facing the worktop and the generator device being arranged below the separating device on the side facing away from the worktop, at least one line feedthrough being provided in the support device, characterised in that the line feedthrough has at least one contour which at least temporarily prevents the penetration of liquids and/or at least one sealing device is arranged in the line feedthrough. at least one induction device, at least one generator device which is connected to the induction device via at least one line, and at least one support device on which at least the induction device and the generator device are accommodated, the support device being designed as a liquid-tight separating device, the induction device, in the installed state, being arranged above the support device on the side of the support device facing the worktop and the generator device being arranged below the separating device on the side facing away from the worktop, at least one line feedthrough being provided in the support device, characterised in that the line feedthrough has at least one contour which at least temporarily prevents the penetration of liquids and/or at least one sealing device is arranged in the line feedthrough.
A printing unit preferably for an indirect digital printing machine, comprising: - a plurality of rollers (10, 12) mutually tangential and counter-rotating for transferring ink to a printing support, said plurality of rollers comprising at least a first printing roller and a counter-roller; - a head for the emitting of ink onto said first printing roller when it is in a working position; - displacement means for moving said head towards and/or away said first printing roller; - a second printing roller arranged in a waiting position; characterised in that said printing unit also comprises: - transfer means operating between said waiting position and said working position for moving said second printing roller from said waiting position to said working position so that when said first printing roller ends the printing cycle it is removed and replaced by said second printing roller in said working position. - a plurality of rollers (10, 12) mutually tangential and counter-rotating for transferring ink to a printing support, said plurality of rollers comprising at least a first printing roller and a counter-roller; - a head for the emitting of ink onto said first printing roller when it is in a working position; - displacement means for moving said head towards and/or away said first printing roller; - a second printing roller arranged in a waiting position; - transfer means operating between said waiting position and said working position for moving said second printing roller from said waiting position to said working position so that when said first printing roller ends the printing cycle it is removed and replaced by said second printing roller in said working position.
A method of driving a bistable electro-optic display having a plurality of pixels wherein, in a pixel undergoing a white-to-white transition and lying adjacent at least one other pixel undergoing a readily visible white-to-black transition, there is applied to the pixel under going said white-to-white transition one or more balanced pulse pairs and at least one top-off pulse, the top-off pulse comprising a single white-going drive pulse, wherein each balanced pulse pair comprises a pair of drive pulses of opposing polarities such that the net impulse of the balanced pulse pair is substantially zero, the method being characterized in that the combination of one or more balanced pulse pairs and at least one top-off pulse is applied only when the display is above a predetermined temperature, and when the display is below the predetermined temperature, in a pixel undergoing a white-to-white transition and lying adjacent at least one other pixel undergoing a readily visible white-to-black transition, there is applied to the pixel one or more balanced pulse pairs but no top-off pulse.
A method for producing zeolite, zeolite-like or zeotype encapsulated metal nanoparticles, the method comprises the steps of: 1) Adding one or more metal precursors to a silica or alumina source; 2) Reducing the one or more metal precursors to form metal nanoparticles on the surface of the silica or alumina source; 3) Passing a gaseous hydrocarbon, alkyl alcohol or alkyl ether over the silica or alumina source with the supported metal nanoparticles to form a carbon template coated zeolite, zeolite-like or zeotype precursor composition comprising carbon coated metal nanoparticles; 4a) Adding a structure directing agent to the carbon template coated zeolite, zeolite-like or zeotype precursor composition so that the silica or alumina is dissolved in an aqueous alkaline media creating a supersaturated solution from which a zeolite, zeolite-like or zeotype gel composition is formed around the carbon template; 4b) Crystallising the zeolite, zeolite-like or zeotype gel composition by subjecting said composition to a hydrothermal treatment; 5) Removing the carbon template and structure directing agent and isolating the resulting zeolite, zeolite-like or zeotype encapsulated metal nanoparticles and wherein step 1 is performed at a temperature of from 50°C to 150°C. 1) Adding one or more metal precursors to a silica or alumina source; 2) Reducing the one or more metal precursors to form metal nanoparticles on the surface of the silica or alumina source; 3) Passing a gaseous hydrocarbon, alkyl alcohol or alkyl ether over the silica or alumina source with the supported metal nanoparticles to form a carbon template coated zeolite, zeolite-like or zeotype precursor composition comprising carbon coated metal nanoparticles; 4a) Adding a structure directing agent to the carbon template coated zeolite, zeolite-like or zeotype precursor composition so that the silica or alumina is dissolved in an aqueous alkaline media creating a supersaturated solution from which a zeolite, zeolite-like or zeotype gel composition is formed around the carbon template; 4b) Crystallising the zeolite, zeolite-like or zeotype gel composition by subjecting said composition to a hydrothermal treatment; 5) Removing the carbon template and structure directing agent and isolating the resulting zeolite, zeolite-like or zeotype encapsulated metal nanoparticles and wherein step 1 is performed at a temperature of from 50°C to 150°C.
Wheel for at least partially muscle-powered vehicles and in particular two-wheeled vehicles comprising a hub and a rim having a plurality of spoke holes and a plurality of spoke systems for connecting the hub with the rim, wherein a spoke system comprises at least one spoke and a spoke nipple, wherein at least one reinforcing unit is provided with a through hole between the rim and the spoke nipple, wherein the reinforcing unit comprises a convex inner rim contact surface for resting on a concave alignment area of the rim matched thereto, and wherein the reinforcing unit comprises a concave outside surface at which a nipple accommodation is provided at a depression having a concave nipple contact surface with a narrower curvature to accommodate a matched, convex supporting area of the spoke nipple, characterized in that the reinforcing unit is a disk type and is configured curved in the peripheral direction about at least one longitudinal axis and that the thickness of the reinforcing unit, apart from the tapered down, central nipple accommodation, varies over the entire reinforcing unit by less than 25%.
A method for sintering dental restorations, the method comprising: providing a monolithic sintering support having an open porosity of at least 25 % and comprising a surface; positioning a dental restoration in direct contact with the surface, wherein the dental restoration is shaded; and sintering the dental restoration while the dental restoration is in direct contact with the surface of the monolithic sintering support to form a sintered dental restoration, wherein the surface is defined at least partially by a recess, and wherein positioning a dental restoration in direct contact with the surface includes positioning a dental restoration at least partially in the recess. providing a monolithic sintering support having an open porosity of at least 25 % and comprising a surface; positioning a dental restoration in direct contact with the surface, wherein the dental restoration is shaded; and sintering the dental restoration while the dental restoration is in direct contact with the surface of the monolithic sintering support to form a sintered dental restoration, wherein the surface is defined at least partially by a recess, and wherein positioning a dental restoration in direct contact with the surface includes positioning a dental restoration at least partially in the recess.
A soundproof cover for covering a target object, the soundproof cover comprising: a sound absorbing sheet formed in a planar shape from a sound absorbing material and configured for covering a surface of the target object; and a reinforcing member disposed in a position suitable to engage with an engaged portion (2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h) of the target object and positioning the sound absorbing sheet with respect to the target object with at least a portion of the sound absorbing sheet exposed, wherein the reinforcing member comprises: a first reinforcing portion (31, 51) which is an elongate member and is disposed in a position suitable to engage with a first engaged portion (2a, 2b, 2c, 2d) of the target object; and a second reinforcing portion (32, 33, 52, 53, 54) which is an elongate member and is disposed in a position different from the first reinforcing portion, the soundproof cover being characterized in that: the sound absorbing sheet comprises a plurality of heat dissipating fins (12, 22, 23) on a front surface thereof. a sound absorbing sheet formed in a planar shape from a sound absorbing material and configured for covering a surface of the target object; and a reinforcing member disposed in a position suitable to engage with an engaged portion (2a, 2b, 2c, 2d, 2e, 2f, 2g, 2h) of the target object and positioning the sound absorbing sheet with respect to the target object with at least a portion of the sound absorbing sheet exposed, wherein the reinforcing member comprises: a first reinforcing portion (31, 51) which is an elongate member and is disposed in a position suitable to engage with a first engaged portion (2a, 2b, 2c, 2d) of the target object; and a second reinforcing portion (32, 33, 52, 53, 54) which is an elongate member and is disposed in a position different from the first reinforcing portion, a first reinforcing portion (31, 51) which is an elongate member and is disposed in a position suitable to engage with a first engaged portion (2a, 2b, 2c, 2d) of the target object; and a second reinforcing portion (32, 33, 52, 53, 54) which is an elongate member and is disposed in a position different from the first reinforcing portion, the soundproof cover being characterized in that: the sound absorbing sheet comprises a plurality of heat dissipating fins (12, 22, 23) on a front surface thereof.
A method for the production of a molding inoculant with the following steps: - mixing an inoculant powder, characterized by - adding 0.5-9% by weight of water glass or a silicic acid ester as a binder, - pressing the molding inoculant comprising the inoculant powder in a press that acts on both sides and comprises two press punches that move toward each other during pressing with a specific pressure of 50 to 500 N/mm 2 for 2 to 3 seconds, as well as - oven-free drying of the molding inoculant by press drying. - mixing an inoculant powder, - adding 0.5-9% by weight of water glass or a silicic acid ester as a binder, - pressing the molding inoculant comprising the inoculant powder in a press that acts on both sides and comprises two press punches that move toward each other during pressing with a specific pressure of 50 to 500 N/mm 2 for 2 to 3 seconds, as well as - oven-free drying of the molding inoculant by press drying.
An illumination unit comprising: a first reflector; a second reflector facing the first reflector and spaced apart from the first reflector; a light source module arranged between the first reflector and the second reflector; and a supporting member for supporting the second reflector, wherein the supporting member comprises at least one inflection point, wherein the supporting member comprises a first surface facing a lower surface of the second reflector and attached to the lower surface of second reflector, and a second surface opposite to the first surface, wherein the first surface includes first and second inclined surfaces arranged adjacent to each other at opposite sides of the inflection point, and wherein a plurality of projections protrude from the second surface to predetermined heights, respectively, and characterizedin that each projection is an empty projection wherein a plurality of grooves are formed at the first surface of the supporting member, said grooves being arranged to correspond to respective projections. a first reflector; a second reflector facing the first reflector and spaced apart from the first reflector; a light source module arranged between the first reflector and the second reflector; and a supporting member for supporting the second reflector, wherein the supporting member comprises at least one inflection point, wherein the supporting member comprises a first surface facing a lower surface of the second reflector and attached to the lower surface of second reflector, and a second surface opposite to the first surface, wherein the first surface includes first and second inclined surfaces arranged adjacent to each other at opposite sides of the inflection point, and wherein a plurality of projections protrude from the second surface to predetermined heights, respectively, and characterizedin that each projection is an empty projection wherein a plurality of grooves are formed at the first surface of the supporting member, said grooves being arranged to correspond to respective projections.
A radiating integrated antenna unit, comprising: two radiating elements; and an integrated filtering device for supporting the two radiating elements thereon, each integrated filtering device comprising two band-pass filters and a PCB serving as a filter lid of both the band-pass filters and covered on top ends of the filters; and the two radiating elements extend upwards from a top surface of the PCB; wherein each radiating element is dual-polarized with one monopole for each polarization; each monopole comprises two radiating arms and one balun such that each adiating element has two baluns and four arms; wherein the four arms are configured as a radiating plate with a adiating surface thereon; anc wherein each balun comprises a substrate, a primary feed line printed on one face of the of the substrate and a secondary feed line printed on the other face of the substrate; wherein the substrates of the two baluns are crossed to each other; wherein a primary slot is formed within the primary feed line; a secondary slot adjacent to the primary slot is formed within the primary feed line; and a combination of both primary and secondary slots has a low frequency cut-off. two radiating elements; and an integrated filtering device for supporting the two radiating elements thereon, each integrated filtering device comprising two band-pass filters and a PCB serving as a filter lid of both the band-pass filters and covered on top ends of the filters; and the two radiating elements extend upwards from a top surface of the PCB; wherein each radiating element is dual-polarized with one monopole for each polarization; each monopole comprises two radiating arms and one balun such that each adiating element has two baluns and four arms; wherein the four arms are configured as a radiating plate with a adiating surface thereon; anc wherein each balun comprises a substrate, a primary feed line printed on one face of the of the substrate and a secondary feed line printed on the other face of the substrate; wherein the substrates of the two baluns are crossed to each other; wherein a primary slot is formed within the primary feed line; a secondary slot adjacent to the primary slot is formed within the primary feed line; and a combination of both primary and secondary slots has a low frequency cut-off.