mhurhangee/ep-ind-claims huggingface dataset:
A microchip adapted to be mounted in a mount part of an analyzing apparatus having a light source and a detection unit, the microchip including: a translucent member; a flow channel adapted for receiving a sample, the flow channel formed by a groove in a top face of the translucent member where light flux from the light source enters, and wherein the flow channel is arranged to receive light flux from the light source; and an aperture formed at a side of the translucent member where the light flux goes out of the translucent member, in a position corresponding to the flow channel such that most of the light flux which passes through the flow channel enters into the aperture, wherein: the aperture has a light go-through surface configured to allow some of the light flux coming from the flow channel and passing through the translucent member to go out of the translucent member and reach the detection unit, and a light reflective surface configured to reflect the rest of the light flux coming from the flow channel and passing through the translucent member toward a side face of the translucent member, and a width size of the light go-through surface is smaller than a width size of the flow channel in a cross-section perpendicular to a lengthwise direction of the flow channel. a translucent member; a flow channel adapted for receiving a sample, the flow channel formed by a groove in a top face of the translucent member where light flux from the light source enters, and wherein the flow channel is arranged to receive light flux from the light source; and an aperture formed at a side of the translucent member where the light flux goes out of the translucent member, in a position corresponding to the flow channel such that most of the light flux which passes through the flow channel enters into the aperture, wherein: the aperture has a light go-through surface configured to allow some of the light flux coming from the flow channel and passing through the translucent member to go out of the translucent member and reach the detection unit, and a light reflective surface configured to reflect the rest of the light flux coming from the flow channel and passing through the translucent member toward a side face of the translucent member, and a width size of the light go-through surface is smaller than a width size of the flow channel in a cross-section perpendicular to a lengthwise direction of the flow channel. the aperture has a light go-through surface configured to allow some of the light flux coming from the flow channel and passing through the translucent member to go out of the translucent member and reach the detection unit, and a light reflective surface configured to reflect the rest of the light flux coming from the flow channel and passing through the translucent member toward a side face of the translucent member, and a width size of the light go-through surface is smaller than a width size of the flow channel in a cross-section perpendicular to a lengthwise direction of the flow channel.
A control device for a powder spray coating device, the control device having the following: - an assessment device for assessing the operational reliability; - an enabling device for enabling operation; and - a first communication interface for data reception and/or for data exchange with a powder spray coating device connected thereto, the first communication interface being designed for receiving at least one code from the powder spray coating device and passing it on to the assessment device, the assessment device being designed for assessing on the basis of the at least one code, in particular by comparison with a specified or specifiable comparative code, whether or not reliable operation is ensured and for passing on the assessment result to the enabling device, and the enabling device being designed for enabling operation if the assessment result is positive, the control device being characterized in that the enabling device is designed for activating an oscillator to generate an oscillating voltage to enable operation and wherein the enabling device is formed as a switching device, and the switching device being arranged in a feed line or in a return line between the oscillator for generating an oscillating voltage for the powder spray coating device and the powder spray coating device. - an assessment device for assessing the operational reliability; - an enabling device for enabling operation; and - a first communication interface for data reception and/or for data exchange with a powder spray coating device connected thereto,
A check valve assembly for well stimulation operations comprising: a valve body having an axially extending passageway including an inlet and a valve body seat, the valve body having a first discharge port extending in a first lateral direction from the passageway; a valve cap slidably engagable with the valve body, the valve cap having an opening with a valve cap seat; a piston disposed within the passageway, the piston having first and second sealing surfaces and open and closed positions, in the closed position, the first sealing surface engages the valve body seat to prevent fluid communication between the inlet and the first discharge port, in the open position, the second sealing surface engages the valve cap seat allowing fluid communication between the inlet and the first discharge port; and a spring disposed within the passageway between the piston and the valve cap, the spring biasing the piston toward the closed position. a valve body having an axially extending passageway including an inlet and a valve body seat, the valve body having a first discharge port extending in a first lateral direction from the passageway; a valve cap slidably engagable with the valve body, the valve cap having an opening with a valve cap seat; a piston disposed within the passageway, the piston having first and second sealing surfaces and open and closed positions, in the closed position, the first sealing surface engages the valve body seat to prevent fluid communication between the inlet and the first discharge port, in the open position, the second sealing surface engages the valve cap seat allowing fluid communication between the inlet and the first discharge port; and a spring disposed within the passageway between the piston and the valve cap, the spring biasing the piston toward the closed position.
A body weight support system, comprising: a support track having a first portion, a second portion, and a third portion disposed between the first portion and the second portion, a slope of each of the first portion and the second portion being substantially equal to zero, a slope of the third portion being non-zero; and a trolley having a support assembly and a drive assembly, the support assembly configured to support at least a portion of a body weight of a user, the drive assembly configured to movably suspend the trolley from the support track, the drive assembly having a drive wheel configured to move the trolley along the first portion of the support track when the user walks along a first surface having an elevation, along the second portion of the support track when the user walks along a second surface separate from the first surface and having an elevation different from the elevation of the first surface, and along the third portion of the support track as the user moves between the first surface and the second surface, the drive assembly having a gear configured to engage a set of protrusions along the third portion of the support track to maintain an amount of traction as the drive wheel moves the trolley along the third portion of the support track, each of the first portion and the second portion of the support track being devoid of protrusions. a support track having a first portion, a second portion, and a third portion disposed between the first portion and the second portion, a slope of each of the first portion and the second portion being substantially equal to zero, a slope of the third portion being non-zero; and a trolley having a support assembly and a drive assembly, the support assembly configured to support at least a portion of a body weight of a user, the drive assembly configured to movably suspend the trolley from the support track, the drive assembly having a drive wheel configured to move the trolley along the first portion of the support track when the user walks along a first surface having an elevation, along the second portion of the support track when the user walks along a second surface separate from the first surface and having an elevation different from the elevation of the first surface, and along the third portion of the support track as the user moves between the first surface and the second surface, the drive assembly having a gear configured to engage a set of protrusions along the third portion of the support track to maintain an amount of traction as the drive wheel moves the trolley along the third portion of the support track, each of the first portion and the second portion of the support track being devoid of protrusions.
A mowing machine, comprising at least one mowing unit, with a downstream unit for processing harvested material cut by the mowing unit arranged downstream said mowing unit, wherein the mowing unit can be driven from a drive train, which at one side of the mowing unit comprises an input transmission, to which the cutting elements of the mowing unit can be coupled, and wherein the downstream unit can be driven by being coupled to the drive train and/or to the mowing unit, wherein the at least one mowing unit is hinged, by means of a support arm, in a manner to be pivotable about a horizontal pivot axis facing the direction of travel between a lowered, laterally protruding operating position and an upper transport position, on an attachment block and/or a machine frame portion, on which an intermediate and/or transfer gearbox is provided, from which the input transmission arranged at the interior side of the mowing unit can be driven, characterized in that the downstream unit includes a transversal conveyor, wherein the drive train is guided from the side of the input transmission to another side of the mowing unit and a coupling transmission, connected to the drive train, for driving the transversal conveyor is provided at the said other side.
A process for filling one or more etched holes defined in a surface of a wafer substrate, said process comprising the steps of: (i) depositing a layer of a thermoplastic first polymer onto the surface and into each hole; (ii) reflowing the first polymer; (iii) exposing the wafer substrate to a controlled oxidative plasma so as to reveal the surface; (iv) optionally repeating steps (i) to (iii); (v) depositing a layer of a photoimageable second polymer so as to overfill each hole with said second polymer; (vi) selectively removing the second polymer from regions outside a periphery of the holes to provide overfilled holes, the selective removing comprising exposure and development of the second polymer; and (vii) planarizing the surface to provide one or more holes filled with a plug comprising the first and second polymers, each plug having a respective upper surface coplanar with the surface of the wafer substrate, wherein the first and second polymers are different. (i) depositing a layer of a thermoplastic first polymer onto the surface and into each hole; (ii) reflowing the first polymer; (iii) exposing the wafer substrate to a controlled oxidative plasma so as to reveal the surface; (iv) optionally repeating steps (i) to (iii); (v) depositing a layer of a photoimageable second polymer so as to overfill each hole with said second polymer; (vi) selectively removing the second polymer from regions outside a periphery of the holes to provide overfilled holes, the selective removing comprising exposure and development of the second polymer; and (vii) planarizing the surface to provide one or more holes filled with a plug comprising the first and second polymers, each plug having a respective upper surface coplanar with the surface of the wafer substrate,
An airfoil, comprising a structure and a double airfoil (100, 200) mounted on said structure, said structure being controlled angularly around a generally vertical axis depending on conditions, the double airfoil comprising a fore flap and an aft flap at least one of which has a fore-to-aft asymmetry and separated by a slit, where each flap comprises a series of shape members (110; 210) distributed in height, wherein said structure comprises a fore mast and an aft mast connected by a boom member and by a gaff member, wherein the shape members of the fore flap are traversed by the fore mast while being able to turn around an axis defined thereby, wherein the shape members of the aft flap are traversed by the aft mast while being able to turn around an axis defined thereby, and wherein said structure is capable of turning on an axis of rotation formed by the fore mast, wherein each of the fore and aft flaps (100, 200) comprise a top member (110a; 210a) capable of sliding along its respective mast (310; 320) independently of the other, wherein the airfoil further comprises either one halyard capable of hoisting, hauling down and reefing the fore and aft flaps together, or two halyards (400A, 400B) capable of independently hoisting, hauling down and reefing the fore and aft flaps, and wherein the fore mast and the associated fore shape members comprises a longitudinal rib-and-recess cooperating arrangement (310c, 310d, 110c, 110d), in which the recesses (110c, 110d) are of greater angular width than the ribs (310c, 310d) for limiting the angular displacement of the fore shape members relative to the fore mast while allowing said fore shape members to slide along said fore mast.
A method of virtually designing a post and core restoration (21;321;721;1006) adapted for attachment in a damaged tooth (24;301;701) of a patient, where the damaged tooth comprises a bore (308; 708a,708b) for receiving the post (26;326;726a,726b;1011) of the post and core, wherein the method comprises: - obtaining a 3D image comprising a first 3D scan comprising at least a part of the damaged tooth (24;301;701); - providing a digital 3D shape adapted to fit the bore (308; 708a,708b) of the damaged tooth (24;301;701), wherein the digital 3D shape is at least a part of a component adapted for fitting to the damaged tooth, where the component comprises at least a post part (26;326;726a,726b;1011) adapted for fitting in the bore (308; 708a,708b) of the damaged tooth (24;301;701) and the digital 3D shape of the component is a digital 3D shape of a scan pin (309;1400;1500) comprising an inner part and an outer part, where the outer part of the scan pin is located at least partly outside the tooth, and the inner part of the scan pin is located at least partly in the tooth, where the inner part of the scan pin corresponds to the post part; - virtually matching the first 3D scan of the tooth and the digital 3D shape, where the matching comprises matching a surface region in the first 3D scan of the tooth (24;301;701); with a corresponding surface region of the digital 3D shape, such that at least part digital 3D shape is represented relative to the first 3D scan of the tooth (24;301;701); - virtually designing the post and core restoration (21;321;721;1006) based on the representation of the digital 3D shape relative to the first 3D scan of the tooth (24;301;701). - obtaining a 3D image comprising a first 3D scan comprising at least a part of the damaged tooth (24;301;701); - providing a digital 3D shape adapted to fit the bore (308; 708a,708b) of the damaged tooth (24;301;701), wherein the digital 3D shape is at least a part of a component adapted for fitting to the damaged tooth, where the component comprises at least a post part (26;326;726a,726b;1011) adapted for fitting in the bore (308; 708a,708b) of the damaged tooth (24;301;701) and the digital 3D shape of the component is a digital 3D shape of a scan pin (309;1400;1500) comprising an inner part and an outer part, where the outer part of the scan pin is located at least partly outside the tooth, and the inner part of the scan pin is located at least partly in the tooth, where the inner part of the scan pin corresponds to the post part; - virtually matching the first 3D scan of the tooth and the digital 3D shape, where the matching comprises matching a surface region in the first 3D scan of the tooth (24;301;701); with a corresponding surface region of the digital 3D shape, such that at least part digital 3D shape is represented relative to the first 3D scan of the tooth (24;301;701); - virtually designing the post and core restoration (21;321;721;1006) based on the representation of the digital 3D shape relative to the first 3D scan of the tooth (24;301;701).
A lighting device comprising: a substrate defining a plane; at least one solid-state light source mounted on the substrate, wherein the at least one solid-state light source is arranged to emit light along an optical axis substantially perpendicular to the plane; an outer light-transmissive envelope arranged to receive light emitted by the at least one solid-state light source; and a light-transmissive wall (8; 20; 30) arranged at a circumference of the substrate and having an extension along the optical axis, wherein the light-transmissive wall (8; 20; 30) is curved towards the optical axis and comprises an edge portion (8a; 20a; 30a) distal to the substrate, wherein the edge portion (8a; 20a; 30a) is adapted to diffuse light from the at least one solid-state light source such that a shadow on the outer light-transmissive envelope is blurred, and wherein the shadow is caused by an electrical component which is mounted on the substrate and blocks light emitted by the at least one solid-state light source, characterized in that the edge portion (8a; 20a) comprises a serration. a substrate defining a plane; at least one solid-state light source mounted on the substrate, wherein the at least one solid-state light source is arranged to emit light along an optical axis substantially perpendicular to the plane; an outer light-transmissive envelope arranged to receive light emitted by the at least one solid-state light source; and a light-transmissive wall (8; 20; 30) arranged at a circumference of the substrate and having an extension along the optical axis, wherein the light-transmissive wall (8; 20; 30) is curved towards the optical axis and comprises an edge portion (8a; 20a; 30a) distal to the substrate, wherein the edge portion (8a; 20a; 30a) is adapted to diffuse light from the at least one solid-state light source such that a shadow on the outer light-transmissive envelope is blurred, and wherein the shadow is caused by an electrical component which is mounted on the substrate and blocks light emitted by the at least one solid-state light source, characterized in that the edge portion (8a; 20a) comprises a serration.
A method for transmitting a random access preamble to a base station at a user equipment, hereinafter 'UE', the method comprising: generating the random access preamble from a Zadoff-Chu sequence having a length 'N' and a root 'u' index, wherein the random access preamble is generated by a cyclic shift of the Zadoff-Chu sequence; and transmitting the generated random access preamble to the base station via a random access channel, the method characterized in that the cyclic shift of the Zadoff-Chu sequence is given by using a variable d u of a cyclic shift corresponding to a Doppler shift of one subcarrier spacing, the variable d u given by using the root index 'u', wherein parameters associated with defining the cyclic shift of the Zadoff-Chu sequence are differently defined based on whether the variable d u is less than 1/3 of the length N, wherein the parameters comprise a number G of one or more groups defined from the Zadoff-Chu sequence, a length S of each of the one or more groups, and a number P of one or more applicable cyclic shifts for each of the one or more groups. generating the random access preamble from a Zadoff-Chu sequence having a length 'N' and a root 'u' index, wherein the random access preamble is generated by a cyclic shift of the Zadoff-Chu sequence; and transmitting the generated random access preamble to the base station via a random access channel, the method characterized in that the cyclic shift of the Zadoff-Chu sequence is given by using a variable d u of a cyclic shift corresponding to a Doppler shift of one subcarrier spacing, the variable d u given by using the root index 'u', wherein parameters associated with defining the cyclic shift of the Zadoff-Chu sequence are differently defined based on whether the variable d u is less than 1/3 of the length N, wherein the parameters comprise a number G of one or more groups defined from the Zadoff-Chu sequence, a length S of each of the one or more groups, and a number P of one or more applicable cyclic shifts for each of the one or more groups.
Fitting unit for the sanitary sector, - with a base body having an axial direction, a wall section for mounting on a wall and a front section, - with a wall side on the wall section, the wall side being arranged at a first end of the base body in the axial direction, - with a front side at the front portion, the front side being arranged at a second end of the basic body which is opposite the first end in the axial direction, - with water connections at the wall section, - with at least one outlet which is connected to the water connections via water paths, wherein volumetric flows through the water paths can be regulated via regulating means, - with a temperature control element for setting a water temperature by means of the control means, and - with a volume control element for setting a volume of water by means of the control means, - wherein the temperature control element and the flow control element being arranged on the front section one after the other in the axial direction and between the front side and the wall side. characterised in - that wall section and front section are connected via at least one telescopic pipe in at least one bore (46, 46'), wherein the at least one telescopic pipe forms at least part of the waterways. - with a base body having an axial direction, a wall section for mounting on a wall and a front section, - with a wall side on the wall section, the wall side being arranged at a first end of the base body in the axial direction, - with a front side at the front portion, the front side being arranged at a second end of the basic body which is opposite the first end in the axial direction, - with water connections at the wall section, - with at least one outlet which is connected to the water connections via water paths, wherein volumetric flows through the water paths can be regulated via regulating means, - with a temperature control element for setting a water temperature by means of the control means, and - with a volume control element for setting a volume of water by means of the control means, - wherein the temperature control element and the flow control element being arranged on the front section one after the other in the axial direction and between the front side and the wall side. characterised in - that wall section and front section are connected via at least one telescopic pipe in at least one bore (46, 46'), wherein the at least one telescopic pipe forms at least part of the waterways.