mhurhangee/patent-ind-claim-en huggingface dataset:
Circuit arrangement for reducing a DC flux component in the soft-magnetic core of a transformer, comprising a compensation winding (CW) that is magnetically coupled to the core of the transformer, wherein a diode (D1), and in series therewith a current-limiting reactor (L), are connected to the compensation winding, by means of which the voltage induced in the compensation winding (CW) is rectified, characterized in that the current-limiting reactor (L) is constructed from partial inductances that are able to be switched by means of semiconductor switches (S1, S2, S3, ... SN) and therefore has an adjustable inductance, such that the DC current can be changed by connecting in and disconnecting partial inductances (L1, L2, L3, L4), wherein the switchable partial inductances (L1, L2, L3, L4) are arranged so as to be able to be connected in series.
A method for testing an autonomous vehicle, comprising: obtaining (S201) detection information of the autonomous vehicle, wherein the detection information is used to indicate a test result obtained when a detecting apparatus in the autonomous vehicle tests the autonomous vehicle; and generating (S202) a test interface according to the detection information, and displaying the test interface the method characterized in that : wherein the test interface comprises a vehicle environment display interface and at least one of the following: a monitoring warning display interface, a debugging problem recording interface, and a path display interface; wherein the vehicle environment display interface is configured to display a surrounding environment of the autonomous vehicle during the test; the monitoring warning display interface is configured to display warning information of the autonomous vehicle during the test; the debugging problem recording interface is configured to display and record debugging problem information of the autonomous vehicle during the test; and the path display interface is configured to display path information of the autonomous vehicle during the test. obtaining (S201) detection information of the autonomous vehicle, wherein the detection information is used to indicate a test result obtained when a detecting apparatus in the autonomous vehicle tests the autonomous vehicle; and generating (S202) a test interface according to the detection information, and displaying the test interface the method characterized in that : wherein the test interface comprises a vehicle environment display interface and at least one of the following: a monitoring warning display interface, a debugging problem recording interface, and a path display interface; wherein the vehicle environment display interface is configured to display a surrounding environment of the autonomous vehicle during the test; the monitoring warning display interface is configured to display warning information of the autonomous vehicle during the test; the debugging problem recording interface is configured to display and record debugging problem information of the autonomous vehicle during the test; and the path display interface is configured to display path information of the autonomous vehicle during the test. wherein the test interface comprises a vehicle environment display interface and at least one of the following: a monitoring warning display interface, a debugging problem recording interface, and a path display interface; wherein the vehicle environment display interface is configured to display a surrounding environment of the autonomous vehicle during the test; the monitoring warning display interface is configured to display warning information of the autonomous vehicle during the test; the debugging problem recording interface is configured to display and record debugging problem information of the autonomous vehicle during the test; and the path display interface is configured to display path information of the autonomous vehicle during the test.
A magnetic body inspection device comprising: a detection unit including a differential coil for detecting a magnetic flux of a wire rope (W); and a detection signal acquisition unit configured to acquire a detection signal of the differential coil, wherein the differential coil includes at least a first receiving coil and a second receiving coil , the first receiving coil and the second receiving coil being differentially connected, wherein the first receiving coil and the second receiving coil are arranged so that detection surfaces thereof are opposed to each other, wherein the differential coil is provided to output a differential signal between one end portion of the first receiving coil in the first direction in which the wire rope extends and the other end portion of the second receiving coil in the first direction in which the wire rope extends, and wherein the first receiving coil and the second receiving coil are a rectangular coil provided in a flat-plate shaped board , characterised in that the first receiving coil and the second receiving coil are arranged so that the wire rope (W) is interposed between the opposed detection surfaces, wherein in the first receiving coil and the second receiving coil, a width (W1, W3) in a second direction substantially perpendicular to a first direction in which the wire rope extends in the detection surface is greater than a width (W2, W4) in the first direction so as to acquire the detection signal at only a portion in the first direction in which the wire rope extends in the first receiving coil and the second receiving coil. a detection unit including a differential coil for detecting a magnetic flux of a wire rope (W); and a detection signal acquisition unit configured to acquire a detection signal of the differential coil, wherein the differential coil includes at least a first receiving coil and a second receiving coil , the first receiving coil and the second receiving coil being differentially connected, wherein the first receiving coil and the second receiving coil are arranged so that detection surfaces thereof are opposed to each other, wherein the differential coil is provided to output a differential signal between one end portion of the first receiving coil in the first direction in which the wire rope extends and the other end portion of the second receiving coil in the first direction in which the wire rope extends, and wherein the first receiving coil and the second receiving coil are a rectangular coil provided in a flat-plate shaped board , characterised in that the first receiving coil and the second receiving coil are arranged so that the wire rope (W) is interposed between the opposed detection surfaces, wherein in the first receiving coil and the second receiving coil, a width (W1, W3) in a second direction substantially perpendicular to a first direction in which the wire rope extends in the detection surface is greater than a width (W2, W4) in the first direction so as to acquire the detection signal at only a portion in the first direction in which the wire rope extends in the first receiving coil and the second receiving coil.
A method for providing a surround view image, the method comprising the following steps: receiving camera extrinsic parameters of a plurality of vehicle cameras (22-2n) of a vehicle ; generating, by each vehicle camera (22-2n) of the plurality of vehicle cameras (22-2n), respective camera images, wherein each camera image at least partially overlaps with at least one further camera image; generating, for each vehicle camera (22-2n), a respective three-dimensional point cloud indicating coordinates of objects in a surrounding of said vehicle camera (22-2n), based on the camera image generated by said vehicle camera (22-2n); providing semantical annotations for the point clouds , wherein the semantical annotations comprise the identification of certain objects; computing coordinate transformations for registering point clouds corresponding to camera images which at least partially overlap, and comprising the step of applying an iterative closest point algorithm to the point clouds , wherein a distance function applied to the points of the point cloud is weighted based on the semantical annotations of the point clouds ; updating the camera extrinsic parameters based on the computed coordinate transformations; and generating a surround view image from the camera images, using the updated camera extrinsic parameters and the computed coordinate transformations. receiving camera extrinsic parameters of a plurality of vehicle cameras (22-2n) of a vehicle ; generating, by each vehicle camera (22-2n) of the plurality of vehicle cameras (22-2n), respective camera images, wherein each camera image at least partially overlaps with at least one further camera image; generating, for each vehicle camera (22-2n), a respective three-dimensional point cloud indicating coordinates of objects in a surrounding of said vehicle camera (22-2n), based on the camera image generated by said vehicle camera (22-2n); providing semantical annotations for the point clouds , wherein the semantical annotations comprise the identification of certain objects; computing coordinate transformations for registering point clouds corresponding to camera images which at least partially overlap, and comprising the step of applying an iterative closest point algorithm to the point clouds , wherein a distance function applied to the points of the point cloud is weighted based on the semantical annotations of the point clouds ; updating the camera extrinsic parameters based on the computed coordinate transformations; and generating a surround view image from the camera images, using the updated camera extrinsic parameters and the computed coordinate transformations.
A thermal sublimation paper for printing with inks containing a sublimable dye, especially with inkjet inks, wherein a porous hydrophilic thermal transfer layer for printing is formed on a porous base paper, characterized in that in the thermal transfer layer there are thermoplastic particles with a particle size of 0.3 to 5 μm and a melting point of 35°C to 190°C as well as hydrophilic monomers, oligomers or polymers, wherein the thermal transfer layer contains 5 to 65 wt.% thermoplastic particles.
A suture clip for securing one or more sutures, comprising: a generally disk-shaped body having an annular outer body ; a first tab extending radially inwardly from a first side of the annular outer body ; and a second tab extending radially inwardly from a second, opposing side of the annular outer body ; a first slot and a second slot passing through a thickness of the suture clip and separating the annular outer body from lateral sides of the first tab and second tab ; and a suture engagement slot passing through a thickness of the suture clip between the first tab and the second tab and connecting the first and second slots , the suture engagement slot being sized to receive and hold one or more sutures between the first and second tabs ; characterized in that the first and second slots comprise stepped portions configured to align the suture clip on a rail of a clip deployment device. a generally disk-shaped body having an annular outer body ; a first tab extending radially inwardly from a first side of the annular outer body ; and a second tab extending radially inwardly from a second, opposing side of the annular outer body ; a first slot and a second slot passing through a thickness of the suture clip and separating the annular outer body from lateral sides of the first tab and second tab ; and a suture engagement slot passing through a thickness of the suture clip between the first tab and the second tab and connecting the first and second slots , the suture engagement slot being sized to receive and hold one or more sutures between the first and second tabs ; characterized in that the first and second slots comprise stepped portions configured to align the suture clip on a rail of a clip deployment device.
A device connectable to a virtual reality headset and to a portable computing platform , the device comprising: an illuminator configured to illuminate a proximity of a user wearing the virtual reality headset with patterned light; a camera configured to capture reflections of the patterned light coming from at least one object located at the proximity of the user; and a pre-processor configured to: perform initial image processing of data related to the captured reflections from the camera, and communicate the data after initial image processing to a processor of the portable computing platform to generate a depth map of the at least one object based on the reflections, wherein the portable computing platform is external to the device, and the device is configured to be attached to the virtual reality headset, wherein the device further comprises a visible light camera and wherein 2D images of the at least one object are obtained from the visible light camera and are communicated to the portable communication device; and wherein the illuminator and the camera capturing reflections of the patterned light are operating at an infrared range. an illuminator configured to illuminate a proximity of a user wearing the virtual reality headset with patterned light; a camera configured to capture reflections of the patterned light coming from at least one object located at the proximity of the user; and a pre-processor configured to: perform initial image processing of data related to the captured reflections from the camera, and communicate the data after initial image processing to a processor of the portable computing platform to generate a depth map of the at least one object based on the reflections, wherein the portable computing platform is external to the device, and the device is configured to be attached to the virtual reality headset, wherein the device further comprises a visible light camera and wherein 2D images of the at least one object are obtained from the visible light camera and are communicated to the portable communication device; and wherein the illuminator and the camera capturing reflections of the patterned light are operating at an infrared range.
A process for the preparation of small aromatic compounds from black liquor comprising: • providing black liquor that derives from alkaline treatment of wood chips, wherein the wood chips are derived from hardwood and wherein said black liquor is selected from the group consisting of Kraft Northern Hardwood, Kraft Southern Hardwood and Soda Southern Hardwood; • subjecting the black liquor to a pyrolysis treatment, which is carried out without the addition of a catalyst, to yield a pyrolysed black liquor gas and a solid mass comprising char and salts in a first reactor, wherein the salts substantially derive from the treatment of black liquor; • contacting at least part of the pyrolysed black liquor gas with a catalyst in a second reactor, which is different from the first reactor to provide a conversion treatment to yield a conversion product, and wherein the catalyst has a largest internal pore size in the range of 4.5 to 12Å;and • recovering small aromatic compounds from the conversion product. • providing black liquor that derives from alkaline treatment of wood chips, wherein the wood chips are derived from hardwood and wherein said black liquor is selected from the group consisting of Kraft Northern Hardwood, Kraft Southern Hardwood and Soda Southern Hardwood; • subjecting the black liquor to a pyrolysis treatment, which is carried out without the addition of a catalyst, to yield a pyrolysed black liquor gas and a solid mass comprising char and salts in a first reactor, wherein the salts substantially derive from the treatment of black liquor; • contacting at least part of the pyrolysed black liquor gas with a catalyst in a second reactor, which is different from the first reactor to provide a conversion treatment to yield a conversion product, and wherein the catalyst has a largest internal pore size in the range of 4.5 to 12Å;and • recovering small aromatic compounds from the conversion product.
A work vehicle comprising: a vehicle body ; a plurality of traveling devices for driving traveling; a plurality of articulated link mechanisms having at least two or more joints and supporting the plurality of traveling devices to the vehicle body, with allowing the plurality of traveling devices to be elevated/lowered independently of each other; a driving mechanism capable of changing respective postures of the plurality of articulated link mechanisms independently of each other; and a plurality of turning mechanisms configured to support the respective plurality of the articulated link mechanisms to the vehicle body, with allowing the link mechanisms to be orientation-changeable about a vertical axis; characterized in that the turning mechanism includes a vehicle side support portion detachably connected to a frame of the vehicle body , and a hydraulic cylinder for a turning operation for changing an orientation of the articulated link mechanism about the vertical axis relative to the vehicle side support member; the hydraulic cylinder has a first end portion connected to a base end portion of the articulated link mechanism and a second end portion connected to the vehicle side support portion ; and the base end portion of the articulated link mechanism is supported by the vehicle side support portion of the turning mechanism to be pivotable about the vertical axis. a vehicle body ; a plurality of traveling devices for driving traveling; a plurality of articulated link mechanisms having at least two or more joints and supporting the plurality of traveling devices to the vehicle body, with allowing the plurality of traveling devices to be elevated/lowered independently of each other; a driving mechanism capable of changing respective postures of the plurality of articulated link mechanisms independently of each other; and a plurality of turning mechanisms configured to support the respective plurality of the articulated link mechanisms to the vehicle body, with allowing the link mechanisms to be orientation-changeable about a vertical axis; characterized in that the turning mechanism includes a vehicle side support portion detachably connected to a frame of the vehicle body , and a hydraulic cylinder for a turning operation for changing an orientation of the articulated link mechanism about the vertical axis relative to the vehicle side support member; the hydraulic cylinder has a first end portion connected to a base end portion of the articulated link mechanism and a second end portion connected to the vehicle side support portion ; and the base end portion of the articulated link mechanism is supported by the vehicle side support portion of the turning mechanism to be pivotable about the vertical axis.
An electronic device comprising: a substrate ; an integrated circuit ; the electronic device being characterized by : a layer of glue between the substrate and the integrated circuit ; a set of driving electrodes coupled to the glue and to the integrated circuit ; a receiving electrode coupled to the glue and to the integrated circuit ; a counter electrode coupled to the glue and to the substrate ; wherein the glue comprises conductive particles which electrically connect the receiving electrode , the counter electrode and at least a part of the set of driving electrodes , such that, if drive currents are provided to said set of driving electrodes , at least a part of the drive currents flows to the receiving electrode through the conductive particles and the counter electrode . a substrate ; an integrated circuit ; the electronic device being characterized by : a layer of glue between the substrate and the integrated circuit ; a set of driving electrodes coupled to the glue and to the integrated circuit ; a receiving electrode coupled to the glue and to the integrated circuit ; a counter electrode coupled to the glue and to the substrate ; wherein the glue comprises conductive particles which electrically connect the receiving electrode , the counter electrode and at least a part of the set of driving electrodes , such that, if drive currents are provided to said set of driving electrodes , at least a part of the drive currents flows to the receiving electrode through the conductive particles and the counter electrode . a layer of glue between the substrate and the integrated circuit ; a set of driving electrodes coupled to the glue and to the integrated circuit ; a receiving electrode coupled to the glue and to the integrated circuit ; a counter electrode coupled to the glue and to the substrate ; wherein the glue comprises conductive particles which electrically connect the receiving electrode , the counter electrode and at least a part of the set of driving electrodes , such that, if drive currents are provided to said set of driving electrodes , at least a part of the drive currents flows to the receiving electrode through the conductive particles and the counter electrode .
A charged particle system comprising: a charged particle source for producing charged particles; illumination optics for illuminating a sample with the charged particles; an objective lens for focusing the charged particles transmitted through the sample; an imaging deflector system disposed behind the objective lens and operative to deflect the charged particles; a detector having a detection surface and operative to detect the charged particles incident thereon and to output intensity information corresponding to the number of the detected charged particles; imaging optics disposed behind the imaging deflector system and operative to focus the charged particles as diffraction discs onto the detection surface ; a storage unit for storing the intensity information output from the detector ; and a controller for controlling the imaging deflector system ; characterized in that said controller controls said imaging deflector system to cause the charged particles passing through a given position of particle impingement on the sample to be deflected under successively different sets of deflection conditions so that different diffraction discs are brought successively into focus, each onto a different region (115a - 115d) of said detection surface ; and wherein said storage unit stores the intensity information for each set of said deflection conditions. a charged particle source for producing charged particles; illumination optics for illuminating a sample with the charged particles; an objective lens for focusing the charged particles transmitted through the sample; an imaging deflector system disposed behind the objective lens and operative to deflect the charged particles; a detector having a detection surface and operative to detect the charged particles incident thereon and to output intensity information corresponding to the number of the detected charged particles; imaging optics disposed behind the imaging deflector system and operative to focus the charged particles as diffraction discs onto the detection surface ; a storage unit for storing the intensity information output from the detector ; and a controller for controlling the imaging deflector system ; characterized in that said controller controls said imaging deflector system to cause the charged particles passing through a given position of particle impingement on the sample to be deflected under successively different sets of deflection conditions so that different diffraction discs are brought successively into focus, each onto a different region (115a - 115d) of said detection surface ; and wherein said storage unit stores the intensity information for each set of said deflection conditions.