mhurhangee/patent-ind-claim-en huggingface dataset:
A middle frame , comprising a middle plate , at least one middle element , at least one welding platform , and an outer frame , wherein the at least one middle element is fixedly connected to an edge of the middle plate ; the at least one welding platform is fixedly connected to an inner side of the outer frame ; and the at least one welding platform on the outer frame is in welded connection with the at least one middle element on the middle plate ; wherein the middle plate is made of an aluminum alloy, and the outer frame is made of stainless steel or titanium alloys; the middle frame is characterized in that : the at least one middle element is in embedded in the edge of the middle plate by casting; wherein the at least one middle element is made of a first metal material; the at least one welding platform is made of a second metal material; a main element of the first metal material is the same as that of the second metal material; both weight percentage content of the main element in the first metal material and weight percentage content of the main element in the second metal material are greater than or equal to a threshold; and the threshold ranges from 60% to 100%. the at least one middle element is fixedly connected to an edge of the middle plate ; the at least one welding platform is fixedly connected to an inner side of the outer frame ; and the at least one welding platform on the outer frame is in welded connection with the at least one middle element on the middle plate ; wherein the middle plate is made of an aluminum alloy, and the outer frame is made of stainless steel or titanium alloys; the middle frame is characterized in that : the at least one middle element is in embedded in the edge of the middle plate by casting; wherein the at least one middle element is made of a first metal material; the at least one welding platform is made of a second metal material; a main element of the first metal material is the same as that of the second metal material; both weight percentage content of the main element in the first metal material and weight percentage content of the main element in the second metal material are greater than or equal to a threshold; and the threshold ranges from 60% to 100%. the at least one middle element is in embedded in the edge of the middle plate by casting; wherein the at least one middle element is made of a first metal material; the at least one welding platform is made of a second metal material; a main element of the first metal material is the same as that of the second metal material; both weight percentage content of the main element in the first metal material and weight percentage content of the main element in the second metal material are greater than or equal to a threshold; and the threshold ranges from 60% to 100%.
A handheld module comprising: a battery ; an electro-mechanical interface that is configured to removably attach the handheld module to an image capture module that includes a mechanical stabilization system , wherein, when attached to the image capture module, the handheld module forms a communication link to the image capture module via the electro-mechanical interface and supplies power from the battery to the image capture module via conductors of the electro-mechanical interface; and a display that is configured to present images captured by the image capture module and received from the image capture module via the communication link, wherein a surface of the handheld module is arranged to be substantially flush with a gimbal of the mechanical stabilization system when the image capture module is attached to the handheld module. a battery ; an electro-mechanical interface that is configured to removably attach the handheld module to an image capture module that includes a mechanical stabilization system , wherein, when attached to the image capture module, the handheld module forms a communication link to the image capture module via the electro-mechanical interface and supplies power from the battery to the image capture module via conductors of the electro-mechanical interface; and a display that is configured to present images captured by the image capture module and received from the image capture module via the communication link, wherein a surface of the handheld module is arranged to be substantially flush with a gimbal of the mechanical stabilization system when the image capture module is attached to the handheld module.
Integrated circuit , comprising a first chip having a high-voltage transistor in depletion mode and a second chip having a device in enhancement mode, the first chip having, on a front face, first gate , source and drain contact pads, and the second chip having second gate , source and drain contact pads; the integrated circuit being characterized in that : • the first chip and the second chip are mutually joined at the respective front faces thereof and form a stack , the surface area of the front face of the first chip being greater than that of the second chip such that a peripheral portion of the front face of the first chip is not masked by the second chip , • the first chip has at least one additional contact pad arranged on the front face thereof, which contact is electrically isolated from the high-voltage transistor in depletion mode and is in contact with the second gate contact pad , • the first gate contact pad is in contact with the second source contact pad and/or the first source contact pad is in contact with the second drain contact pad , • the first gate contact pad and the additional contact pad extend in the peripheral portion of the first chip , at least in part. • the first chip and the second chip are mutually joined at the respective front faces thereof and form a stack , the surface area of the front face of the first chip being greater than that of the second chip such that a peripheral portion of the front face of the first chip is not masked by the second chip , • the first chip has at least one additional contact pad arranged on the front face thereof, which contact is electrically isolated from the high-voltage transistor in depletion mode and is in contact with the second gate contact pad , • the first gate contact pad is in contact with the second source contact pad and/or the first source contact pad is in contact with the second drain contact pad , • the first gate contact pad and the additional contact pad extend in the peripheral portion of the first chip , at least in part.
Adapter (10; 110) that can be placed and retained in position in a housing of support means (4; 104) of an optical collector of a motor vehicle, including a light source fastened to one face of the adapter, including on a face opposite the support face of said light source at least one receiving area (74; 90) of pressing means acting in a first direction, characterized in that the adapter includes elastic return means that can be compressed in a second direction other than said first direction, notably perpendicular to said first direction.
Transmitter device for an optical detection apparatus of a motor vehicle , which is configured in order to scan a surrounding region of the motor vehicle by means of a light beam and which comprises a light source for emitting the light beam and a deflecting unit , the deflecting unit being configured in order to deflect the light beam emitted onto the deflecting unit by the light source at different scanning angles (α), wherein the light source for emitting the light beam comprises at least two separately driveable transmitter elements , which are configured in order to emit the light beam onto the deflecting unit at angles of incidence (γ1, γ2) corresponding to predetermined setpoint values (-α3, -α2, -α1, α0, +α1, +α2, +α3) of the scanning angle (α) in order to generate a predetermined setpoint field of view of the transmitter device and wherein the deflecting unit comprises a tiltable mirror , which is configured in order to deflect the light beam emitted by the respective transmitter element at the setpoint value (-α3, -α2, -α1, α0, +α1, +α2, +α3) for the scanning angle (α) which corresponds to the respective angle of incidence (γ1, γ2), characterized in that the angles of incidence (γ1, γ2) of the light beam , which are provided by the transmitter elements , are predetermined as a function of tilt angles of the tiltable mirror .
A dipole antenna comprising: a balun, wherein the balun comprises two sides , the sides having metal contact end portions for electrical connection to a printed circuit board ; two radiating elements , each radiating element in coplanar relationship to a corresponding side of the balun; an antenna support member, having a spacer portion placed between the two sides of the balun, wherein the spacer portion separates one radiating element of the dipole antenna from another radiating element of the dipole antenna, and characterized in that the dipole antenna is a folded metal sheet antenna having three folds. a balun, wherein the balun comprises two sides , the sides having metal contact end portions for electrical connection to a printed circuit board ; two radiating elements , each radiating element in coplanar relationship to a corresponding side of the balun; an antenna support member, having a spacer portion placed between the two sides of the balun, wherein the spacer portion separates one radiating element of the dipole antenna from another radiating element of the dipole antenna, and characterized in that the dipole antenna is a folded metal sheet antenna having three folds.
A vector quantization apparatus configured for searching for a pulse using an algebraic codebook the algebraic codebook being formed with a plurality of code vectors, and configured for acquiring a code for a speech signal indicating a code vector that minimizes a coding distortion, the vector quantization apparatus comprising: a first vector calculation section configured for calculating a first reference vector by applying a parameter related to a speech spectrum characteristic to a target vector to be encoded; a second vector calculation section configured for calculating a second reference vector by multiplying the first reference vector by a filter having a high-pass characteristic; a polarity selecting section configured for generating a polarity vector by arranging a unit pulse in which one of the positive and the negative is selected as a polarity in a position of an element based on a polarity of the element of the second reference vector; a matrix calculation section configured for calculating a reference matrix by matrix calculation using the parameter related to the speech spectrum characteristic; and a pulse position search section configured for searching for an optimal pulse position that minimizes the coding distortion, wherein the polarity selecting section is configured for generating an adjusted vector by multiplying the first reference vector by the polarity vector and is configured for generating an adjusted matrix by multiplying the reference matrix by the polarity vector; and wherein the pulse position search section is configured for searching for the optimal pulse position using the adjusted vector and the adjusted matrix. a first vector calculation section configured for calculating a first reference vector by applying a parameter related to a speech spectrum characteristic to a target vector to be encoded; a second vector calculation section configured for calculating a second reference vector by multiplying the first reference vector by a filter having a high-pass characteristic; a polarity selecting section configured for generating a polarity vector by arranging a unit pulse in which one of the positive and the negative is selected as a polarity in a position of an element based on a polarity of the element of the second reference vector; a matrix calculation section configured for calculating a reference matrix by matrix calculation using the parameter related to the speech spectrum characteristic; and a pulse position search section configured for searching for an optimal pulse position that minimizes the coding distortion, wherein the polarity selecting section is configured for generating an adjusted vector by multiplying the first reference vector by the polarity vector and is configured for generating an adjusted matrix by multiplying the reference matrix by the polarity vector; and wherein the pulse position search section is configured for searching for the optimal pulse position using the adjusted vector and the adjusted matrix.
Lighting and/or signalling device for a vehicle, comprising at least one first light source and at least one second light source , and at least one light reflector capable of reflecting the light emitted by said at least one first source and the light emitted by said at least one second source , - said at least one reflector having a paraboloid form comprising a plurality of segments comprising a central segment having a focus and at least one peripheral segment adjacent to said central segment , the peripheral segment having another focus, the device being characterized in that : - said first light source is disposed at the focus of said central segment , - said second light source is disposed at the focus of said at least one peripheral segment , preferentially of each peripheral segment , - said central segment is configured to reflect the light emitted by said at least one first light source , such that the device is capable of generating a light distribution of a daytime running light, and - said at least one peripheral segment is configured to reflect the light emitted by said at least one second light source , such that said device is capable of generating a light distribution of a main beam. - said at least one reflector having a paraboloid form comprising a plurality of segments comprising a central segment having a focus and at least one peripheral segment adjacent to said central segment , the peripheral segment having another focus, - said first light source is disposed at the focus of said central segment , - said second light source is disposed at the focus of said at least one peripheral segment , preferentially of each peripheral segment , - said central segment is configured to reflect the light emitted by said at least one first light source , such that the device is capable of generating a light distribution of a daytime running light, and - said at least one peripheral segment is configured to reflect the light emitted by said at least one second light source , such that said device is capable of generating a light distribution of a main beam.
A method of displaying an image, the method comprising: outputting (S310) a current frame of a video to a first area of a screen of the display apparatus; generating (S320 to S360) a plurality N of auxiliary images based on accumulated motion vector information comprised in the video, using each of a plurality N of frames of the video prior to or subsequent to the current frame; and outputting (S370) each of the N auxiliary images to a second area, surrounding the first area; wherein one of a frame placement position, a frame area enlargement and a frame rotation angle of the plurality N of auxiliary images is based on the accumulated motion vector. and wherein each of the plurality N of auxiliary images comprises at least a part of an image included in at least one frame which is placed prior to a current frame of the video. outputting (S310) a current frame of a video to a first area of a screen of the display apparatus; generating (S320 to S360) a plurality N of auxiliary images based on accumulated motion vector information comprised in the video, using each of a plurality N of frames of the video prior to or subsequent to the current frame; and outputting (S370) each of the N auxiliary images to a second area, surrounding the first area; wherein one of a frame placement position, a frame area enlargement and a frame rotation angle of the plurality N of auxiliary images is based on the accumulated motion vector. and wherein each of the plurality N of auxiliary images comprises at least a part of an image included in at least one frame which is placed prior to a current frame of the video.
An LED light source module, comprising: a sunflower radiator and an LED light source ; characterized in that a block structure formed of a graphene phase-change material is filled in the middle of the sunflower radiator; in that the surface of the sunflower radiator is coated with a graphene-containing fluororesin material; and in that the LED light source is connected to the sunflower radiator through a graphene-containing heat-conducting silicone grease. characterized in that a block structure formed of a graphene phase-change material is filled in the middle of the sunflower radiator; in that the surface of the sunflower radiator is coated with a graphene-containing fluororesin material; and in that the LED light source is connected to the sunflower radiator through a graphene-containing heat-conducting silicone grease.
Conveying apparatus for use of a transporting mechanism for conveying printed products along a conveying route, wherein the conveying apparatus consists of guide-channel portions , which are connected to one another via flanges , are of tunnel-form design in a conveying direction and, opposite the transporting mechanism, which is movable on rollers, have a continuous opening on their underside for means which perform the task of conveying the printed products directly and/or indirectly along the conveying apparatus, wherein the interior of the guide-channel portions and of the flanges contains guide-rail elements (402-409; 402'-409'), which carry running-surface elements for the transporting mechanism, wherein, along the guide-channel portions and the associated flanges, the running-surface elements are supplemented by at least one means, and/or are provided with at least one measure, which create a continuous, planar transition for the rolling surface of the running-surface elements, said rolling surface being provided for the transporting mechanism, wherein the measure consists in providing at least one running-surface element with an excess length in relation to the length of the relevant guide-channel portion, and wherein the means provided is at least one adapter element in the form of a transition piece at least in the region of a separating plane (200/310; 310/320) between adjacent flanges, characterized in that the adapter element consists of at least two operatively connected transition pieces , which cover the transition extents of abutting flanges in a parallel state in the running direction, in that the overall width of said transition pieces corresponds approximately to the width of the running-surface elements, which adjoin at the respective stop location , and in that each transition piece, within the transition extent, has a mirror-inverted and oppositely arranged end chamfer in relation to the adjacent transition piece.
An air cleaner, comprising: a main body ; and a cylindrical case coupled to an outside of the main body , the cylindrical case having at least one suction inlet through which air is suctioned into the main body , wherein the main body includes at least one cylindrical filter and at least one filter frame that forms a mounting space for the at least one filter , and wherein, when the cylindrical case is opened, the at least one filter is extractable to the outside in a radial direction from the mounting space, wherein the cylindrical case includes a first part and a second part , wherein the first part and the second part each has a semi-cylindrical shape or a semi-cone shape, characterized in that the air cleaner further includes: a case support provided at a lower side of the cylindrical case , the case support including a grill insertion portion into which at least one support projection provided at a lower portion of the cylindrical case is inserted; at least one magnet provided at a upper portion of one of the main body or the cylindrical case ; and at least one metal piece provided at the other of the main body or the cylindrical case , the at least one metal piece being separately coupled to the at least one magnet . a main body ; and a cylindrical case coupled to an outside of the main body , the cylindrical case having at least one suction inlet through which air is suctioned into the main body , wherein the main body includes at least one cylindrical filter and at least one filter frame that forms a mounting space for the at least one filter , and wherein, when the cylindrical case is opened, the at least one filter is extractable to the outside in a radial direction from the mounting space, wherein the cylindrical case includes a first part and a second part , wherein the first part and the second part each has a semi-cylindrical shape or a semi-cone shape, characterized in that the air cleaner further includes: a case support provided at a lower side of the cylindrical case , the case support including a grill insertion portion into which at least one support projection provided at a lower portion of the cylindrical case is inserted; at least one magnet provided at a upper portion of one of the main body or the cylindrical case ; and at least one metal piece provided at the other of the main body or the cylindrical case , the at least one metal piece being separately coupled to the at least one magnet . a case support provided at a lower side of the cylindrical case , the case support including a grill insertion portion into which at least one support projection provided at a lower portion of the cylindrical case is inserted; at least one magnet provided at a upper portion of one of the main body or the cylindrical case ; and at least one metal piece provided at the other of the main body or the cylindrical case , the at least one metal piece being separately coupled to the at least one magnet .
A method of casting an engine , the method comprising: printing a single-piece core of the engine according to specifications in a three-dimensional print file, the specifications corresponding to each hollow interior feature of the engine ; and casting the engine using the single-piece core . printing a single-piece core of the engine according to specifications in a three-dimensional print file, the specifications corresponding to each hollow interior feature of the engine ; and casting the engine using the single-piece core .
A housing for accommodating an electronic functional element , which is made using an alkali titanium silicate glass and having components of the housing joined by said alkali titanium silicate glass; characterised in that the alkali titanium silicate glass has the following composition (in wt%): SiO 2 20-50 TiO 2 10-35 R 2 O 10-40 Al 2 O 3 0-5 CaO + SrO 0-5 P 2 O 5 0-5 V 2 O 5 0-5 B 2 O 3 0-5 Sb 2 O 3 0-1 SnO 2 0-5 Fe 2 O 3 < 1 CoO < 1 NiO < 1 ZnO 0-4 ZrO 2 0-4 F 0-2 M0O 3 0-1 N 2 O 5 0-6 SO 3 0-1.