mhurhangee/ep-ind-claims huggingface dataset:
A portable interdental toothbrush comprising: a bottle-shaped cleaning solution tube adapted to receive a cleaning solution; and a brush assembly in which an assembly groove hole is formed on one end and a brush is fixed to the other end, and characterized by further comprising: an elastic ball which can be expanded and contracted and is disposed on a tip of the cleaning solution tube inside the brush assembly, and wherein the bottle-shaped cleaning solution tube further comprises a tube body in which a cleaning solution is received; and an assembly protrusion protruded from the tube body with a smaller diameter than that of the tube body, and wherein the assembly protrusion comprises a discharge hole adapted to discharge the cleaning solution, and the assembly protrusion is adapted to be inserted and assembled in the assembly groove hole of the brush assembly, and wherein the assembly protrusion of the cleaning solution tube is adapted to move forward and backward in the assembly groove hole to contract and expand the elastic ball to close and open the outflow grooves and passing grooves. a bottle-shaped cleaning solution tube adapted to receive a cleaning solution; and a brush assembly in which an assembly groove hole is formed on one end and a brush is fixed to the other end, and characterized by further comprising: an elastic ball which can be expanded and contracted and is disposed on a tip of the cleaning solution tube inside the brush assembly, and wherein the bottle-shaped cleaning solution tube further comprises a tube body in which a cleaning solution is received; and an assembly protrusion protruded from the tube body with a smaller diameter than that of the tube body, and wherein the assembly protrusion comprises a discharge hole adapted to discharge the cleaning solution, and the assembly protrusion is adapted to be inserted and assembled in the assembly groove hole of the brush assembly, and wherein the assembly protrusion of the cleaning solution tube is adapted to move forward and backward in the assembly groove hole to contract and expand the elastic ball to close and open the outflow grooves and passing grooves.
A backlight unit, comprising: a frame having a bottom area and a sidewall area extended from the bottom area; a reflection sheet positioned on the frame, the reflection sheet having a coupling hole and a cut portion connected to the coupling hole; a single substrate positioned in the coupling hole; and; an optical assembly mounted on the single substrate, the optical assembly having a lower surface, wherein the reflection sheet is configured to reflect light emitted by the optical assembly, and comprises a first sheet area corresponding to the bottom area of the frame and a second sheet area corresponding to the sidewall area of the frame, wherein the cut portion is cut in the first sheet area from a portion abutting on one side of the single substrate, wherein the single substrate faces a part of the lower surface and the reflection sheet faces another part of the lower surface. a frame having a bottom area and a sidewall area extended from the bottom area; a reflection sheet positioned on the frame, the reflection sheet having a coupling hole and a cut portion connected to the coupling hole; a single substrate positioned in the coupling hole; and; an optical assembly mounted on the single substrate, the optical assembly having a lower surface, wherein the reflection sheet is configured to reflect light emitted by the optical assembly, and comprises a first sheet area corresponding to the bottom area of the frame and a second sheet area corresponding to the sidewall area of the frame, wherein the cut portion is cut in the first sheet area from a portion abutting on one side of the single substrate, wherein the single substrate faces a part of the lower surface and the reflection sheet faces another part of the lower surface.
Adjustable seat device (10, 40), characterized in that it comprises: - a linear mount; - at least one upper means for supporting the linear mount configured to rest on a horizontal surface at the edge of a swimming pool, and at least one lower means for supporting the linear mount configured to rest on an inner wall of the pool; - a seat; - an upper seat bar, having one extremity equipped with a first seat slider configured to slide along the linear mount, and a means for locking the first slider in position on the linear mount; - a lower seat bar, having one extremity equipped with a second seat slider configured to slide along the linear mount, and a means for locking the second slider in position on the linear mount; characterized in that the two seat bars jointly bear the seat and are linked to each other by a pivoting connection, such that the seat sliders slide independently along the linear mount, the height of the seat being adjusted by sliding both seat sliders, and at least the spacing between the seat and the linear mount being adjusted by the respective sliding of the seat sliders. - a linear mount; - at least one upper means for supporting the linear mount configured to rest on a horizontal surface at the edge of a swimming pool, and at least one lower means for supporting the linear mount configured to rest on an inner wall of the pool; - a seat; - an upper seat bar, having one extremity equipped with a first seat slider configured to slide along the linear mount, and a means for locking the first slider in position on the linear mount; a first seat slider configured to slide along the linear mount, and a means for locking the first slider in position on the linear mount; - a lower seat bar, having one extremity equipped with a second seat slider configured to slide along the linear mount, and a means for locking the second slider in position on the linear mount; a second seat slider configured to slide along the linear mount, and a means for locking the second slider in position on the linear mount;
A MSBI1.176 or MSBI2.176 polynucleic acid comprising: (a) a nucleotide sequence depicted in Figure 1(c) or 1(d); (b) a nucleotide sequence being complementary to a nucleotide sequence of (a); or (c) a nucleotide sequence which is redundant as a result of the degeneracy of the genetic code compared to any of the above-given nucleotide sequences. (a) a nucleotide sequence depicted in Figure 1(c) or 1(d); (b) a nucleotide sequence being complementary to a nucleotide sequence of (a); or (c) a nucleotide sequence which is redundant as a result of the degeneracy of the genetic code compared to any of the above-given nucleotide sequences.
A structured light module, comprising: a plurality of light sources, simultaneously emitting a plurality beams of invisible light; and a single diffractive optical element, disposed over the plurality of light sources, and having a pseudo-random optical pattern groove, wherein the invisible light of each light source passes through the DOE and emits a beam of structured light (L31-L33), and the beam of structured light (L31-L33) comprises a pattern (F11-F13) corresponding to the pseudo-random optical pattern groove; wherein the DOE projects an overall structured light formed by superimposing a plurality beams of structured light (L31-L33), and there is an offset between different beams of structured light (L31-L33); characterized in that the plurality of light sources are arranged pseudo-randomly in a matrix. a plurality of light sources, simultaneously emitting a plurality beams of invisible light; and a single diffractive optical element, disposed over the plurality of light sources, and having a pseudo-random optical pattern groove, wherein the invisible light of each light source passes through the DOE and emits a beam of structured light (L31-L33), and the beam of structured light (L31-L33) comprises a pattern (F11-F13) corresponding to the pseudo-random optical pattern groove; wherein the DOE projects an overall structured light formed by superimposing a plurality beams of structured light (L31-L33), and there is an offset between different beams of structured light (L31-L33); characterized in that the plurality of light sources are arranged pseudo-randomly in a matrix.
A method of determining the depth of field for a predetermined distance by means of an optical measuring system including the steps: - manually optically focusing the optical measuring system by means of the human eye without projection onto a diffusing screen or an intermediary projection surface; - monitoring the movement of the mechanism of the optical measuring system during the focusing by means of a sensor; - determining and indicating the set distance from the movement, wherein the range of the depth of field to the set distance is arithmetically determined and indicated taking account of focal length, aperture, hyperfocal distance and scattering circles, characterised in that the determination of the set distance from the movement of the optical measuring system is effected tabularly. - manually optically focusing the optical measuring system by means of the human eye without projection onto a diffusing screen or an intermediary projection surface; - monitoring the movement of the mechanism of the optical measuring system during the focusing by means of a sensor; - determining and indicating the set distance from the movement, wherein the range of the depth of field to the set distance is arithmetically determined and indicated taking account of focal length, aperture, hyperfocal distance and scattering circles, characterised in that the determination of the set distance from the movement of the optical measuring system is effected tabularly.
A method for enhancing an image, comprising the steps of: constructing an input histogram corresponding to the image, the input histogram representing a pixel intensity distribution corresponding to the image; establishing a variable plateau profile to be applied to the input histogram; clipping the input histogram at the variable plateau profile to produce a clipped input histogram; constructing the cumulative histogram of the clipped input histogram; normalizing the cumulative histogram to produce a normalized cumulative histogram; and transforming the image using the normalized cumulative histogram to produce an enhanced output image corresponding to the input image, wherein at least a portion of the input image is enhanced in the output image; wherein the method includes establishing a plateau profile, for enhancing dark regions in the image, which decreases from a first bin to a last bin in the histogram to which the plateau profile is to be applied in the clipping process, constructing an input histogram corresponding to the image, the input histogram representing a pixel intensity distribution corresponding to the image; establishing a variable plateau profile to be applied to the input histogram; clipping the input histogram at the variable plateau profile to produce a clipped input histogram; constructing the cumulative histogram of the clipped input histogram; normalizing the cumulative histogram to produce a normalized cumulative histogram; and transforming the image using the normalized cumulative histogram to produce an enhanced output image corresponding to the input image, wherein at least a portion of the input image is enhanced in the output image; wherein the method includes establishing a plateau profile, for enhancing dark regions in the image, which decreases from a first bin to a last bin in the histogram to which the plateau profile is to be applied in the clipping process,
A therapeutic training device comprising a shallow housing of a specific shape having a quadratic top surface and comprising a user interface, a quadratic bottom surface and four thin rectangular side surfaces, said housing comprising an upwardly open cavity in said top surface, and wherein said housing further comprises: a flexible cover enclosing said cavity at least partially, said flexible cover having a size in the range between the size of a human fist and the size of a human foot, and defining a central part of the quadratic top surface, a force sensor placed inside said cavity and communicating with said user interface, said force sensor measuring the force applied on said user interface and generating a response signal, a source placed inside said cavity, said source being either - a light source and said flexible cover being transparent, said light source being visible through said flexible and transparent cover and/or - a sound source and said flexible cover being sound pervious, said sound source being audible through said flexible and sound pervious cover, a central processor placed inside said housing for activating said sources in accordance with a specific software and evaluating said response signal from said force sensor in accordance with said specific software, and a plurality of communication means located on said side surfaces controlled by said central processor and suitable for communicating with adjacent therapeutic training devices. a flexible cover enclosing said cavity at least partially, said flexible cover having a size in the range between the size of a human fist and the size of a human foot, and defining a central part of the quadratic top surface, a force sensor placed inside said cavity and communicating with said user interface, said force sensor measuring the force applied on said user interface and generating a response signal, a source placed inside said cavity, said source being either - a light source and said flexible cover being transparent, said light source being visible through said flexible and transparent cover and/or - a sound source and said flexible cover being sound pervious, said sound source being audible through said flexible and sound pervious cover, - a light source and said flexible cover being transparent, said light source being visible through said flexible and transparent cover and/or - a sound source and said flexible cover being sound pervious, said sound source being audible through said flexible and sound pervious cover, a central processor placed inside said housing for activating said sources in accordance with a specific software and evaluating said response signal from said force sensor in accordance with said specific software, and a plurality of communication means located on said side surfaces controlled by said central processor and suitable for communicating with adjacent therapeutic training devices.
Light-emitting device comprising: - a light-emitting semiconductor element which emits greenish white light during operation of the device, - a filter element which has a higher optical transmittance in a spectral region of red light than in a spectral region of blue and green light, wherein - the filter element is arranged in such a way with respect to the light-emitting semiconductor element that solely filtered light which passes through the filter element is emitted by the device during operation of the device, and - the light-emitting device is free of an additional light-emitting semiconductor element which emits red or amber light, characterised in that the filtered light is warm-white light with a colour temperature of less than 3300 K. - a light-emitting semiconductor element which emits greenish white light during operation of the device, - a filter element which has a higher optical transmittance in a spectral region of red light than in a spectral region of blue and green light, wherein - the filter element is arranged in such a way with respect to the light-emitting semiconductor element that solely filtered light which passes through the filter element is emitted by the device during operation of the device, and - the light-emitting device is free of an additional light-emitting semiconductor element which emits red or amber light, characterised in that the filtered light is warm-white light with a colour temperature of less than 3300 K.
A method of determining a contention window for allocating bandwidth in a wireless multihop mesh network comprising a plurality of nodes, said nodes comprising a plurality of routers (202, 204, 206, 208) and at least one client connected to each of said routers, the network further comprising a bandwidth source, the method comprising the steps of: i) receiving information (304, 306) at a first of said plurality routers from each of the other routers (204, 206, 208), said information (304, 306) comprising the total number of hops from each of the other routers to the bandwidth source, the total number of clients connected to each of the other routers, the requested throughput of each client connected to each of the other routers, and the total number of hops between the first router and each of the other routers; ii) calculating a contention window for said first router based on the received information (304, 306), wherein the calculated contention window is larger if the first router is close to the bandwidth source, and the contention window is smaller if the first router is further away from the bandwidth source, and wherein the closer the first router is to the bandwidth source, the fewer the number of hops between the first router and the bandwidth source; and iii) setting the delay for a retransmission of data by the first router to the calculated contention window, wherein the retransmission of data follows an unsuccessful transmission of said data. i) receiving information (304, 306) at a first of said plurality routers from each of the other routers (204, 206, 208), said information (304, 306) comprising the total number of hops from each of the other routers to the bandwidth source, the total number of clients connected to each of the other routers, the requested throughput of each client connected to each of the other routers, and the total number of hops between the first router and each of the other routers; ii) calculating a contention window for said first router based on the received information (304, 306), wherein the calculated contention window is larger if the first router is close to the bandwidth source, and the contention window is smaller if the first router is further away from the bandwidth source, and wherein the closer the first router is to the bandwidth source, the fewer the number of hops between the first router and the bandwidth source; and iii) setting the delay for a retransmission of data by the first router to the calculated contention window, wherein the retransmission of data follows an unsuccessful transmission of said data.
A refrigerator comprising: a movable body disposed in an inner case, the inner case defining a storage compartment therein; a shelf connected to the movable body via a connection member; and a guard configured to surround an edge of the shelf, the guard having a size greater than a size of the shelf, the guard being provided with a protrusion member protruding toward the movable body, wherein the movable body is provided with a guide rail configured to guide a sliding movement of the protrusion member, characterized in that the guard is movable to the upper side of the shelf such that the guard is spaced apart from the shelf. a movable body disposed in an inner case, the inner case defining a storage compartment therein; a shelf connected to the movable body via a connection member; and a guard configured to surround an edge of the shelf, the guard having a size greater than a size of the shelf, the guard being provided with a protrusion member protruding toward the movable body, wherein the movable body is provided with a guide rail configured to guide a sliding movement of the protrusion member, characterized in that the guard is movable to the upper side of the shelf such that the guard is spaced apart from the shelf.
Incremental optical encoder, comprising a movable element and a fixed element, at least one pair (14, 15, 45, 46) formed by a light transmitter (14e, 15e, 40) and a light detector (14r, 15r, 41, 42) which are fixedly joined to the fixed element, the transmitter (14e, 15e, 40) producing a light radiation that the detector (14r, 15r, 41, 42) can detect, and at least one mark (16, 20) which is fixedly joined to the movable element during the movement of the movable element relative to the fixed element, the mark being able to be placed in the path of the light radiation in order to be detected by the detector (14r, 15r, 41, 42), the encoder further comprising a planar printed circuit which is fixedly joined to the fixed element and on which the pair (14, 15, 45, 46) comprising the transmitter (14e, 15e, 40) and the detector (14r, 15r, 41, 42) is arranged and an opaque cover which is fixedly joined to the printed circuit, the cover enabling the angular range of the light radiation to be limited, the mark forming an element which reflects the radiation originating from the transmitter (14e, 15e, 40) in the direction of the detector (14r, 15r, 41, 42), the cover enabling the establishment of direct radiation between the transmitter (14e, 15e, 40) and the detector (14r, 15r, 41, 42) to be prevented, characterised in that the cover surrounds the transmitter and/or the detector and comprises an aperture which defines the angular range, and in that the encoder comprises a cover which is adapted to interrupt the light radiation by blocking the aperture when the reflective element does not return the radiation transmitted by the transmitter (14e, 15e).
An isolated nucleic acid molecule i) comprising the nucleotide sequence according to SEQ ID NO: 1 encoding a protein with phytase activity or ii) having a sequence identity of at least 86 % to a nucleotide sequence according to SEQ ID NO: 1 encoding a protein with phytase activity, wherein the isolated nucleic acid molecule comprises codon-optimizing mutations with respect to a host cell organism, wherein the host cell organism is Pichia pastoris, and wherein the nucleic acid molecule differs from the corresponding wild type nucleotide coding sequence according to SEQ ID NO: 8 by the presence of at least 50 codon optimizing mutations. i) comprising the nucleotide sequence according to SEQ ID NO: 1 encoding a protein with phytase activity or ii) having a sequence identity of at least 86 % to a nucleotide sequence according to SEQ ID NO: 1 encoding a protein with phytase activity,