mhurhangee/ep-ind-claims huggingface dataset:
A disassembling method of a mandrel, which disassembles the mandrel including a plurality of segments (20a, 30a, 20b, 30b, 20c, 30c) assembled in a tubular shape, into individual segments (20a, 30a, 20b, 30b, 20c, 30c), the plurality of segments (20a, 30a, 20b, 30b, 20c, 30c) having a substantially rectangular shape and being parts into which the mandrel is divided along a center axis direction, the mandrel being in a state in which the segments (20a, 30a, 20b, 30b, 20c, 30c) are joined together between a pair of support rings (40a, 40b) facing each other, the segments (20a, 30a, 20b, 30b, 20c, 30c) are each fastened to the support rings (40a, 40b) to form the tubular shape, and the mandrel is adhesively attached with a composite material structure on an outer peripheral surface thereof; characterized in that the disassembling method comprising: a rotation step of rotating the pair of support rings (40a, 40b) along with the mandrel to position a segment (20a, 30a, 20b, 30b, 20c, 30c) which is a detached target to an uppermost portion; and a segment detaching step of detaching the segment (20a, 30a, 20b, 30b, 20c, 30c) which is the detached target positioned at the uppermost portion, from the pair of support rings (40a, 40b); wherein in the segment detaching step, the segment (20a, 30a, 20b, 30b, 20c, 30c) which is the detached target is moved in a vertically downward direction to a position inside of the mandrel, between the pair of support rings (40a, 40b), and is carried out from between the pair of support rings (40a, 40b). a rotation step of rotating the pair of support rings (40a, 40b) along with the mandrel to position a segment (20a, 30a, 20b, 30b, 20c, 30c) which is a detached target to an uppermost portion; and a segment detaching step of detaching the segment (20a, 30a, 20b, 30b, 20c, 30c) which is the detached target positioned at the uppermost portion, from the pair of support rings (40a, 40b); wherein in the segment detaching step, the segment (20a, 30a, 20b, 30b, 20c, 30c) which is the detached target is moved in a vertically downward direction to a position inside of the mandrel, between the pair of support rings (40a, 40b), and is carried out from between the pair of support rings (40a, 40b).
A system for detection of speech related acoustic signals by using laser based detection, said system comprising: i) a mask configured for being worn over a face part of a speaker at least partially covering the speaker's mouth, said mask includes at least one reflective coating covering at least one area of said mask, said reflective coating is configured to reflect collimated electromagnetic signals; and ii) a laser microphone configured for detecting vibrations of said reflective coating for detection of acoustic signals associated with speech of the speaker by using collimated electromagnetic signals, said laser microphone is further configured for outputting an output signals indicative of the detected acoustic signals, wherein said mask and at least one reflective coating thereof are used for enhancing detection of vibrations resulting from speech carried out by the speaker wearing said mask. i) a mask configured for being worn over a face part of a speaker at least partially covering the speaker's mouth, said mask includes at least one reflective coating covering at least one area of said mask, said reflective coating is configured to reflect collimated electromagnetic signals; and ii) a laser microphone configured for detecting vibrations of said reflective coating for detection of acoustic signals associated with speech of the speaker by using collimated electromagnetic signals, said laser microphone is further configured for outputting an output signals indicative of the detected acoustic signals,
System comprising: - a first fastening plate for attachment to a vehicle of an assigned first vehicle type; - a second fastening plate for attachment to a vehicle of an assigned second vehicle type; - wherein the fastening plates are respectively configured to be attached to a right or to a left outer side of the vehicle; - a mounting plate having a first camera and a second camera; and - a housing for attachment to one of the fastening plates such that the first camera can see a region located laterally behind the vehicle and the second camera can see a region located laterally of the vehicle. - a first fastening plate for attachment to a vehicle of an assigned first vehicle type; - a second fastening plate for attachment to a vehicle of an assigned second vehicle type; - wherein the fastening plates are respectively configured to be attached to a right or to a left outer side of the vehicle; - a mounting plate having a first camera and a second camera; and - a housing for attachment to one of the fastening plates such that the first camera can see a region located laterally behind the vehicle and the second camera can see a region located laterally of the vehicle.
A bispecific antibody wherein the bispecific antibody is a full-length antibody, comprising a first antibody variable domain that specifically binds to CD3 and a second antibody variable domain that specifically binds to BCMA, wherein the first antibody variable domain comprises: a heavy chain variable region comprising (i) a VH CDR1 comprising the sequence shown in SEQ ID NO: 331; (ii) a VH CDR2 comprising the sequence shown in SEQ ID NO: 336; and (iii) a VH CDR3 comprising the sequence shown in SEQ ID NO: 335; and a light chain variable region comprising (i) a VL CDR1 comprising the sequence shown in SEQ ID NO: 343; (ii) a VL CDR2 comprising the sequence shown in SEQ ID NO: 341; and (iii) a VL CDR3 comprising the sequence shown in SEQ ID NO: 342; and the second antibody variable domain comprises: a heavy chain variable region comprising (i) a VH CDR1 comprising the sequence shown in SEQ ID NO: 156; (ii) a VH CDR2 comprising the sequence shown in SEQ ID NO: 158; and (iii) a VH CDR3 comprising the sequence shown in SEQ ID NO: 155; and a light chain variable region comprising (i) a VL CDR1 comprising the sequence shown in SEQ ID NO: 209; (ii) a VL CDR2 comprising the sequence shown in SEQ ID NO: 221; and (iii) a VL CDR3 comprising the sequence shown in SEQ ID NO: 225. a heavy chain variable region comprising (i) a VH CDR1 comprising the sequence shown in SEQ ID NO: 331; (ii) a VH CDR2 comprising the sequence shown in SEQ ID NO: 336; and (iii) a VH CDR3 comprising the sequence shown in SEQ ID NO: 335; and a light chain variable region comprising (i) a VL CDR1 comprising the sequence shown in SEQ ID NO: 343; (ii) a VL CDR2 comprising the sequence shown in SEQ ID NO: 341; and (iii) a VL CDR3 comprising the sequence shown in SEQ ID NO: 342; and the second antibody variable domain comprises: a heavy chain variable region comprising (i) a VH CDR1 comprising the sequence shown in SEQ ID NO: 156; (ii) a VH CDR2 comprising the sequence shown in SEQ ID NO: 158; and (iii) a VH CDR3 comprising the sequence shown in SEQ ID NO: 155; and a light chain variable region comprising (i) a VL CDR1 comprising the sequence shown in SEQ ID NO: 209; (ii) a VL CDR2 comprising the sequence shown in SEQ ID NO: 221; and (iii) a VL CDR3 comprising the sequence shown in SEQ ID NO: 225.
A method comprising: allocating at least one control channel to a user for at least one of uplink and downlink directions in a network; and arranging the at least one control channel as at least a part of a modular structure comprising modular code blocks of at least two different sizes, wherein the modular structure is formed as a tree where each code block defines one node of the tree characterized in that the nodes comprise signalling entries coded by a given code rate, the signalling entries include information blocks, and each information block of a signalling entry is rate matched to a node of the tree. allocating at least one control channel to a user for at least one of uplink and downlink directions in a network; and arranging the at least one control channel as at least a part of a modular structure comprising modular code blocks of at least two different sizes, wherein the modular structure is formed as a tree where each code block defines one node of the tree characterized in that the nodes comprise signalling entries coded by a given code rate, the signalling entries include information blocks, and each information block of a signalling entry is rate matched to a node of the tree.
A neural stimulator, comprising a sensory input device for collecting sensory information; at least one electrode suitable for contact with neural tissue; and a processing circuit coupled to said sensory input device and said electrode, the processing circuit configured: (a) for a first period of 0.1 to 50 seconds, to energize said electrode at a level according to data from said sensory input device and (b) for a second period of 1 to 100 milliseconds, in order to reset the neural response to stimulation, either: (i) to energize said electrode at a level below a threshold of perception, or (ii) not to energize said electrode, wherein the lengths of the first period and the second period are programmable. a sensory input device for collecting sensory information; at least one electrode suitable for contact with neural tissue; and a processing circuit coupled to said sensory input device and said electrode, the processing circuit configured: (a) for a first period of 0.1 to 50 seconds, to energize said electrode at a level according to data from said sensory input device and (b) for a second period of 1 to 100 milliseconds, in order to reset the neural response to stimulation, either: (i) to energize said electrode at a level below a threshold of perception, or (ii) not to energize said electrode, (a) for a first period of 0.1 to 50 seconds, to energize said electrode at a level according to data from said sensory input device and (b) for a second period of 1 to 100 milliseconds, in order to reset the neural response to stimulation, either: (i) to energize said electrode at a level below a threshold of perception, or (ii) not to energize said electrode, (i) to energize said electrode at a level below a threshold of perception, or (ii) not to energize said electrode, wherein the lengths of the first period and the second period are programmable.
A mobile terminal, comprising: a first body; a second body connected to the first body; a first input unit including a touchscreen, the first input unit being on an outer surface of the first body; a second input unit on the second body, the first and second body being configured to move relative to one another such that the second input unit is covered when the mobile terminal is closed, and the second input unit is completely exposed when the mobile terminal is open; and characterized by further comprising a control unit configured to display a first display, including a first text field, a first keypad, on the touchscreen when the mobile terminal is closed, and automatically replace the first display on the touchscreen with a second display on the touchscreen when the mobile terminal is opened, the second display including a second text field related to the first text field, a second keypad different from the second input unit and the first keypad, and without the first keypad. a first body; a second body connected to the first body; a first input unit including a touchscreen, the first input unit being on an outer surface of the first body; a second input unit on the second body, the first and second body being configured to move relative to one another such that the second input unit is covered when the mobile terminal is closed, and the second input unit is completely exposed when the mobile terminal is open; and characterized by further comprising a control unit configured to display a first display, including a first text field, a first keypad, on the touchscreen when the mobile terminal is closed, and automatically replace the first display on the touchscreen with a second display on the touchscreen when the mobile terminal is opened, the second display including a second text field related to the first text field, a second keypad different from the second input unit and the first keypad, and without the first keypad.
Dispenser pump for pumping a fluid from a reservoir to a dispenser head, comprising a dip tube for being inserted into the fluid located inside the reservoir, a cylinder housing connected with the dip tube, a piston pipe guided in longitudinal direction by the cylinder housing for pumping the fluid from the dip tube via the cylinder housing to the dispenser head, wherein the piston pipe comprises a connecting area for connecting the dispenser head to the piston pipe, a top part connected with the piston pipe, a bottom part connected with the cylinder housing and a spring bellow for pushing the piston pipe in a direction outwards the cylinder housing, a connection opening at a lower axial end of the spring bellow is connected with the bottom part via a lower retainer ring located inside the spring bellow and/or a connection opening at a higher axial end of the spring bellow is connected with the top part via a higher retainer ring located inside the spring bellow, characterised in that, the lower retainer ring and/or higher retainer ring provide an undercut comprising a retainer surface pointing away from the bigger part of the spring bellow, wherein the retainer surface of the undercut of the lower retainer ring and/or higher retainer ring blocks an axial movement of the spring bellow back into a detached position; or in that; the spring bellow is connected with the lower retainer ring and/or with the higher retainer ring by 2-component injection or insertion molding; and in that one part of the spring bellow surrounding the connection opening is unmovably fixed to the bottom part by means of the lower retainer ring for providing a defined unrolling of the spring bellow over the bottom part and/or one part of the spring bellow surrounding the connection opening is unmovably fixed to the top part by means of the higher retainer ring for providing a defined unrolling of the spring bellow over the top part, so that the spring bellow unrolls over the top part and/or the bottom part when compressed between the top part and the bottom part.
An information processing apparatus for generating a map for use in rendering a three-dimensional scene, the apparatus comprising: analyzing means for analyzing an importance distribution in a render range for which the three-dimensional scene is to be rendered, wherein the importance distribution is analyzed in a perspective of a light source; generation means for generating an importance map, the importance map indicating the analyzed importance distribution; acquiring means for performing principal component analysis on the importance distribution obtained by the analyzing means, hereby acquiring (S203; S303,S304; S503,S504) eigenvectors of the distribution; determining means for determining (S203; S305) a rotation angle, wherein the rotation angle is determined as the angle between the first eigenvector and the horizontal axis of the importance map; rotation means for rotating the importance map by the determined rotation angle; and generation means for generating the map by a rectilinear texture warping of the rotated importance map. analyzing means for analyzing an importance distribution in a render range for which the three-dimensional scene is to be rendered, wherein the importance distribution is analyzed in a perspective of a light source; generation means for generating an importance map, the importance map indicating the analyzed importance distribution; acquiring means for performing principal component analysis on the importance distribution obtained by the analyzing means, hereby acquiring (S203; S303,S304; S503,S504) eigenvectors of the distribution; determining means for determining (S203; S305) a rotation angle, wherein the rotation angle is determined as the angle between the first eigenvector and the horizontal axis of the importance map; rotation means for rotating the importance map by the determined rotation angle; and generation means for generating the map by a rectilinear texture warping of the rotated importance map.
Surgical bone preparation instrument comprising a main body terminated by a contacting surface adapted to abut on a bone, and a sliding body equipped with a cutting element and which is movable in translation with respect to the main body, the bone preparation instrument including a cutting depth control ring that is adjustable by a single hand, which forms an abutment surface against the movement of one of the main body and the sliding body when the sliding body reaches an adjusted cutting depth corresponding to an adjustment position of the control ring, characterised in that the main body comprises a radial pin extending in an oblong hole of the sliding body, the abutment surface of the cutting depth control ring acting as an axial stop on the radial pin.
A semiconductor fabrication reactor, comprising: a rotable susceptor mounted to a top surface of a reactor chamber said reactor chamber comprising a bottom surface opposite said top surface, said susceptor comprising a face down surface that faces toward said bottom surface; sidewalls arranged between said top surface and said bottom surface, said susceptor arranged between said sidewalls and arranged between said top surface and said bottom surface; one or more wafers mounted to said face down surface of said susceptor, the rotation of said susceptor causing said wafers to rotate within said chamber; a heater to heat said susceptor; a chamber gas inlet (98, 124, 144, 154, 175), arranged to allow semiconductor growth gasses into said reactor chamber to deposit semiconductor material on said wafers, said inlet below said face down surface; and a chamber gas outlet (110, 149, 160) above the level of said wafers, the chamber gas outlet being arranged to allow gases to exit from the interior of said reactor changer above the level of said wafers, and characterised in that said susceptor can be moved up and down to vary the distance between said inlet (124, 144, 175) and said susceptor. a rotable susceptor mounted to a top surface of a reactor chamber said reactor chamber comprising a bottom surface opposite said top surface, said susceptor comprising a face down surface that faces toward said bottom surface; sidewalls arranged between said top surface and said bottom surface, said susceptor arranged between said sidewalls and arranged between said top surface and said bottom surface; one or more wafers mounted to said face down surface of said susceptor, the rotation of said susceptor causing said wafers to rotate within said chamber; a heater to heat said susceptor; a chamber gas inlet (98, 124, 144, 154, 175), arranged to allow semiconductor growth gasses into said reactor chamber to deposit semiconductor material on said wafers, said inlet below said face down surface; and a chamber gas outlet (110, 149, 160) above the level of said wafers, the chamber gas outlet being arranged to allow gases to exit from the interior of said reactor changer above the level of said wafers, and characterised in that said susceptor can be moved up and down to vary the distance between said inlet (124, 144, 175) and said susceptor.
A moving image processing program embedded on a non-transitory computer-readable recording medium that operates in a moving image processing device, allowing the moving image processing device to achieve: an image acquisition module configured to acquire a raw image that is captured using an imaging element; a demosaicing module configured to perform a demosaic process on the raw image to produce a demosaiced image; a filtering module configured to convert the demosaiced image into a plurality of reduced images whose resolutions vary in stages; a selection module configured to select a part of the raw image as a specific part, the specific part being a part of the raw image for which a high-quality image is necessary, and also to select one or more of the plurality of reduced images as a specified reduced image; and a transmission module configured to transmit to a host terminal for further image processing the specific part of the raw image and the specified reduced image that have been selected. an image acquisition module configured to acquire a raw image that is captured using an imaging element; a demosaicing module configured to perform a demosaic process on the raw image to produce a demosaiced image; a filtering module configured to convert the demosaiced image into a plurality of reduced images whose resolutions vary in stages; a selection module configured to select a part of the raw image as a specific part, the specific part being a part of the raw image for which a high-quality image is necessary, and also to select one or more of the plurality of reduced images as a specified reduced image; and a transmission module configured to transmit to a host terminal for further image processing the specific part of the raw image and the specified reduced image that have been selected.
A component mounter including a mounting head, a camera, a control device and a component transfer device with the component transfer device comprising: a pair of clamp members (12, 13) that face each other in a horizontal direction and that are configured to clamp a component by sandwiching the component so as to transfer the component to a component holding section of the mounting head of the component mounter; and a rotation drive source that is configured to rotate the clamp members (12, 13) around a center line of the horizontal direction when a component is clamped by the clamp members (12, 13), wherein the component transfer device is configured to transfer the component to the component holding section of the mounting head of the component mounter in a state with the component clamped by the clamping members (12, 13) and rotated 90 degrees or 180 degrees by the clamp members (12, 13) being rotated 90 degrees or 180 degrees by the rotation drive source, characterized by a reference mark section (42, 44) provided on a member that is configured to move together with the clamp members (12, 13) that are moved by the interval adjustment means, at a position capable of being imaged by the camera of the component mounter, and wherein the control device of the component mounter is configured to check the interval between the pair of clamp members (12, 13) with reference to the position of the reference mark section by recognizing the reference mark from an image of the reference mark section (42, 44) captured by the camera. a pair of clamp members (12, 13) that face each other in a horizontal direction and that are configured to clamp a component by sandwiching the component so as to transfer the component to a component holding section of the mounting head of the component mounter; and a rotation drive source that is configured to rotate the clamp members (12, 13) around a center line of the horizontal direction when a component is clamped by the clamp members (12, 13), wherein the component transfer device is configured to transfer the component to the component holding section of the mounting head of the component mounter in a state with the component clamped by the clamping members (12, 13) and rotated 90 degrees or 180 degrees by the clamp members (12, 13) being rotated 90 degrees or 180 degrees by the rotation drive source, characterized by a reference mark section (42, 44) provided on a member that is configured to move together with the clamp members (12, 13) that are moved by the interval adjustment means, at a position capable of being imaged by the camera of the component mounter, and wherein the control device of the component mounter is configured to check the interval between the pair of clamp members (12, 13) with reference to the position of the reference mark section by recognizing the reference mark from an image of the reference mark section (42, 44) captured by the camera.