mhurhangee/patent-ind-claim-en huggingface dataset:
A robotic vacuum cleaner comprising a housing , a drive arrangement being configured to drive the vacuum cleaner along a surface to be cleaned, a vacuum producing unit , a debris receptacle , and a nozzle inlet arranged in a portion of the housing facing the surface to be cleaned, wherein the nozzle inlet comprises a frame structure forming an opening , the opening being arranged in fluid communication with the debris receptacle and the vacuum producing unit being arranged in fluid communication with the opening , wherein the frame structure has a leading edge portion and opposite thereto a trailing edge portion , the leading edge portion and the trailing edge portion border to the opening , the frame structure comprises a base portion extending substantially in parallel with the surface to be cleaned, the base portion extending at a first level, characterised in that the leading edge portion comprises at least two distance members forming there between a channel to the opening , the channel having a delimiting surface extending at a second level substantially in parallel with the first level, wherein the first level is arranged closer to the surface to be cleaned than the second level, wherein each distance member has a substantially triangular cross section extending substantially in parallel with the first plane, the distance member extending between the first level and the second level with a top of the substantially triangular cross section facing outwardly from the opening and a base of the substantially triangular cross section extending in parallel with the opening , and wherein side surfaces of the distance member extend substantially from the top to the base of the substantially triangular cross section, at least a portion of the side surfaces extending substantially perpendicularly to the base portion .
An orthotic to be placed between the foot and the insole within the shoes for people with mild and moderate neuromuscular deficiency, wherein said orthotic is configured to be not externally visible when positioned inside a shoe, said orthotic comprises a thin slab divided into three areas: a posterior semirigid area that is adapted, in use, to wrap around from the bottom and contours the heel, an intermediate area , and an anterior terminal area being equipped with lateral and medial containing wings and ending, in use, at the anterior line of the medial metatarsal heads ; characterised in said intermediate area being more flexible than said posterior semirigid area and said anterior terminal area , and in that said said intermediate area being saddle-shaped and supporting the arch of the foot.
A carrier substrate for electrical components , wherein the carrier substrate has a primary layer made of ceramic and at least one metal layer bonded to the primary layer , wherein the at least one metal layer has at least one recess on the side facing the primary layer , wherein the recess in the metal layer is configured to form an expansion joint in a region adjacent to a peripheral course of the primary layer , wherein - the recess in the metal layer is formed to form an expansion joint in an area adjacent to a peripheral course of the primary layer without the recess serving as expansion joint being covered by the primary layer, or - a side of the clearance that is open towards the primary layer is partially covered by the primary layer, characterized in that the recess is filled with a filler material which has a lower coefficient of expansion and/or a higher modulus of elasticity than a material from which the metal layer is made. - the recess in the metal layer is formed to form an expansion joint in an area adjacent to a peripheral course of the primary layer without the recess serving as expansion joint being covered by the primary layer, or - a side of the clearance that is open towards the primary layer is partially covered by the primary layer, characterized in that the recess is filled with a filler material which has a lower coefficient of expansion and/or a higher modulus of elasticity than a material from which the metal layer is made.
A processor, comprising: one or more processor resources comprising one or more vector register files; and a plurality of hardware threads communicably coupled to the one or more processor resources, wherein the processor is to permit accesses to the one or more vector register files by a subset of hardware threads of the plurality of hardware threads and to exclude a remainder of the plurality of hardware threads from accessing the one or more vector register files, wherein a number of hardware threads in the subset of hardware threads is more than one but less than a total number of hardware threads of the plurality of hardware threads, wherein the subset of hardware threads having a permission of simultaneous accesses to the one or more processor resources are fixed in hardware, and wherein responsive to detecting a program running on a hardware threads that is not one of the subset of hardware threads attempts to access the one or more vector register files, the processor is to: swap the program out of the first hardware thread onto a memory; and swap the program from the memory onto a second hardware thread that is one of the subset of hardware threads. one or more processor resources comprising one or more vector register files; and a plurality of hardware threads communicably coupled to the one or more processor resources, wherein the processor is to permit accesses to the one or more vector register files by a subset of hardware threads of the plurality of hardware threads and to exclude a remainder of the plurality of hardware threads from accessing the one or more vector register files, wherein a number of hardware threads in the subset of hardware threads is more than one but less than a total number of hardware threads of the plurality of hardware threads, wherein the subset of hardware threads having a permission of simultaneous accesses to the one or more processor resources are fixed in hardware, and wherein responsive to detecting a program running on a hardware threads that is not one of the subset of hardware threads attempts to access the one or more vector register files, the processor is to: swap the program out of the first hardware thread onto a memory; and swap the program from the memory onto a second hardware thread that is one of the subset of hardware threads. swap the program out of the first hardware thread onto a memory; and swap the program from the memory onto a second hardware thread that is one of the subset of hardware threads.
An adjustable distance sleeve (1; 1'; 1"; 1''') by means of which a distance between a first (B1) and a second component (B2) is bridgeable by adjusting a length of the distance sleeve (1; 1'; 1"; 1'''), wherein the distance sleeve (1; 1'; 1"; 1''') comprises the following features: a. an outer sleeve having a central thread opening , b. a hollow cylindrical inner sleeve (30; 30'; 30"; 30''') arranged adjustably in the central thread opening , the inner sleeve (30; 30'; 30"; 30''') having an outer thread at a radial outer side which corresponds to an inner thread of the thread opening , and the distance sleeve (1; 1'; 1"; 1''') is characterized by c. an axial collar extending axially from a face side of the outer sleeve at which a radially extending abutment disc is arranged in a rotation-proof manner, wherein d. the abutment disc comprises at least one fastening feature extending in the direction of the outer sleeve into a portion between abutment disc and outer sleeve by means of which a form-fit rotation lock and/or a force-fit rotation lock is establishable in an opening of the first component (B1), wherein e. the outer sleeve and the abutment disc comprise each an outer contour extending radially beyond the axial collar for forming a fastening gap portion. a. an outer sleeve having a central thread opening , b. a hollow cylindrical inner sleeve (30; 30'; 30"; 30''') arranged adjustably in the central thread opening , the inner sleeve (30; 30'; 30"; 30''') having an outer thread at a radial outer side which corresponds to an inner thread of the thread opening , and the distance sleeve (1; 1'; 1"; 1''') is characterized by c. an axial collar extending axially from a face side of the outer sleeve at which a radially extending abutment disc is arranged in a rotation-proof manner, wherein d. the abutment disc comprises at least one fastening feature extending in the direction of the outer sleeve into a portion between abutment disc and outer sleeve by means of which a form-fit rotation lock and/or a force-fit rotation lock is establishable in an opening of the first component (B1), wherein e. the outer sleeve and the abutment disc comprise each an outer contour extending radially beyond the axial collar for forming a fastening gap portion.
A computer-implemented method of geological imaging using an object store based on cloud storage, the method comprising the steps of: (a) hierarchically combining at least a plurality of prestack images (233-1) from the object store to generate a hierarchically stacked image, wherein the hierarchically stacked image is generated by combining at least a plurality of stacked images comprising a stacked image (234-1), and wherein the stacked image (234-1) is generated by combining at least the plurality of prestack images (233-1); (b) generating, based at least on the hierarchically stacked image, a quality measure of a prestack image (233-1) of the plurality of prestack images; (c) further combining , based at least on the quality measure, the plurality of prestack images to generate an enhanced stacked image (234-2); (d) substituting the stacked image in the plurality of stacked images used to generate the hierarchically stacked image with the enhanced stacked image (234-2); (e) further combining , subsequent to performing step (d), the plurality of stacked images now including the enhanced stack image (234-2), to generate an enhanced hierarchically stacked image, wherein the enhanced stacked image and the enhanced hierarchically stacked image are generated using failure recovery metadata ; (f) deleting at least a subset of the plurality of prestack images from the object store subsequent to performing steps (c) and (e); and (g) presenting the enhanced hierarchically stacked image. (a) hierarchically combining at least a plurality of prestack images (233-1) from the object store to generate a hierarchically stacked image, wherein the hierarchically stacked image is generated by combining at least a plurality of stacked images comprising a stacked image (234-1), and wherein the stacked image (234-1) is generated by combining at least the plurality of prestack images (233-1); (b) generating, based at least on the hierarchically stacked image, a quality measure of a prestack image (233-1) of the plurality of prestack images; (c) further combining , based at least on the quality measure, the plurality of prestack images to generate an enhanced stacked image (234-2); (d) substituting the stacked image in the plurality of stacked images used to generate the hierarchically stacked image with the enhanced stacked image (234-2); (e) further combining , subsequent to performing step (d), the plurality of stacked images now including the enhanced stack image (234-2), to generate an enhanced hierarchically stacked image, wherein the enhanced stacked image and the enhanced hierarchically stacked image are generated using failure recovery metadata ; (f) deleting at least a subset of the plurality of prestack images from the object store subsequent to performing steps (c) and (e); and (g) presenting the enhanced hierarchically stacked image.
Textile machine , comprising a plurality of workstations arranged next to one another, a service unit movable along the workstations for operating and/or maintaining the workstations , and a positioning system for positioning the service unit in front of a workstation , having a first positioning element and a second positioning element, the one positioning element being arranged on the service unit and the other positioning element being arranged on the workstation , wherein: - the first positioning element comprises a magnetic-field-producing element ; - the second positioning element comprises at least one first Hall sensor ; - the magnetic-field-producing element and the first Hall sensor are arranged in such a way that the first Hall sensor detects the magnetic-field-producing element when the service unit is positioned in front of the workstation ; - the second positioning element comprises a second Hall sensor , which is arranged next to the first Hall sensor in the direction of the travel path of the service unit in such a way that the first Hall sensor and the second Hall sensor detect the magnetic-field-producing element when a service unit is positioned in front of the workstation ; - means suitable for subtracting the signals of the first Hall sensor and of the second Hall sensor are provided, characterised in that the second positioning element comprises a third Hall sensor and a fourth Hall sensor , the third and fourth Hall sensors being arranged on both sides of the first and second Hall sensors in the direction of the travel path of the service unit , and that the textile machine is designed to reduce the speed of the service unit as soon as the third or fourth Hall sensor detects that the workstation has been reached and to then exactly position the service unit in front of the workstation by means of the first and second Hall sensors. - the first positioning element comprises a magnetic-field-producing element ; - the second positioning element comprises at least one first Hall sensor ; - the magnetic-field-producing element and the first Hall sensor are arranged in such a way that the first Hall sensor detects the magnetic-field-producing element when the service unit is positioned in front of the workstation ; - the second positioning element comprises a second Hall sensor , which is arranged next to the first Hall sensor in the direction of the travel path of the service unit in such a way that the first Hall sensor and the second Hall sensor detect the magnetic-field-producing element when a service unit is positioned in front of the workstation ; - means suitable for subtracting the signals of the first Hall sensor and of the second Hall sensor are provided,
A remanufacturing method of a developer accommodating unit including a flexible container configured to accommodate developer and provided with a plurality of openings (251h1-251h6) for discharging the developer into a frame member , and the frame member , said frame member being configured to accommodate the flexible container , the remanufacturing method being characterized by : refilling developer between the frame member and the flexible container .
A medical imaging apparatus comprising: an ultrasound probe configured to acquire ultrasound image data of an object; a memory unit configured to store the ultrasound image data of the object acquired by the ultrasound probe , and to store output image information of display devices and display device information including types of display devices ; a communication unit configured to wirelessly communicate with other display devices ; an input unit configured to receive an input of display device information including a type of a display device , and output image information of the display device ; and a processor configured to correct the ultrasound image data by using the output image information stored in the memory unit , which is corresponding to the input of the display device information including the type of the display device , among the output image information of the display devices stored in the memory unit ; wherein the communication unit is configured to transmit the corrected ultrasound image data to the display device , and to receive updated display device information and updated output image information wherein the memory unit is configured to store the updated display device information and the updated output image information. an ultrasound probe configured to acquire ultrasound image data of an object; a memory unit configured to store the ultrasound image data of the object acquired by the ultrasound probe , and to store output image information of display devices and display device information including types of display devices ; a communication unit configured to wirelessly communicate with other display devices ; an input unit configured to receive an input of display device information including a type of a display device , and output image information of the display device ; and a processor configured to correct the ultrasound image data by using the output image information stored in the memory unit , which is corresponding to the input of the display device information including the type of the display device , among the output image information of the display devices stored in the memory unit ; wherein the communication unit is configured to transmit the corrected ultrasound image data to the display device , and to receive updated display device information and updated output image information wherein the memory unit is configured to store the updated display device information and the updated output image information.
A projection system, comprising: a laser light source, the source providing light for further processing by the system; a collimating lens, the collimating lens substantially collimating the light from the laser light source; a fly's-eye lens, receiving substantially collimated light and providing a desired angular distribution of light; an integrating rod, receiving the light from the fly's-eye lens and transmitting the light downstream; and a first modulator, receiving the light from the integrating rod and performing additional modulation to the light for the system to project an image, wherein the fly's-eye lens comprises a plurality of optical elements; wherein the fly's-eye lens is set an optical distance from the integrating rod such that the optical elements of the fly's-eye lens produce a defocused overlapping pattern on the input of the integrating rod; and wherein the fly's-eye lens illuminates a first lens, the first lens focusing the light from the fly's-eye lens onto the input of the integrating rod, and the integrating rod is arranged directly subsequent to the first lens along the light path through the projection system. a laser light source, the source providing light for further processing by the system; a collimating lens, the collimating lens substantially collimating the light from the laser light source; a fly's-eye lens, receiving substantially collimated light and providing a desired angular distribution of light; an integrating rod, receiving the light from the fly's-eye lens and transmitting the light downstream; and a first modulator, receiving the light from the integrating rod and performing additional modulation to the light for the system to project an image, wherein the fly's-eye lens comprises a plurality of optical elements; wherein the fly's-eye lens is set an optical distance from the integrating rod such that the optical elements of the fly's-eye lens produce a defocused overlapping pattern on the input of the integrating rod; and wherein the fly's-eye lens illuminates a first lens, the first lens focusing the light from the fly's-eye lens onto the input of the integrating rod, and the integrating rod is arranged directly subsequent to the first lens along the light path through the projection system.
Illuminating device having an essentially plate-shaped base body , on the upper side of which a cooling element is arranged at least partially, which comprises cooling fins extending essentially perpendicular from the upper side of the base body and extending from the outer circumference of the base body in the direction of the longitudinal axis of the base body , and on the underside of which a holding or supporting element is attached comprising at least one lamp , wherein the upper side of the plate-shaped base body is approximately conical, cone-shaped, tapered, truncated cone shaped, convex, hemispherical, half dome shaped, basin-shaped, cup-shaped or bowl-shaped in cross-section in such a way that dirt, dust or other contaminants impinging on the upper side and/or impinging water or the similar media are routed from its longitudinal axis towards the outer circumference and can be discharged over the outer circumference , and wherein a support frame element , which comprises at least one optical element , is detachably connected to the holding or supporting element using a screw , plug-in and latch or bayonet connection.
A population of human T cells transduced with a vector expressing a chimeric antigen receptor wherein: at least 50% of the transduced human T cells are CD45R0+, CD62L+ and CD45Ra-, at least 10% of the cells are CD4+ at least 10% of the cells are CD8+, at least 10% of the cells that are CD45R0+, CD62L+ and CD45Ra- are also CD4+, and at least 10% of the cells that are CD45R0+, CD62L+ and CD45Ra- are also CD8+. at least 50% of the transduced human T cells are CD45R0+, CD62L+ and CD45Ra-, at least 10% of the cells are CD4+ at least 10% of the cells are CD8+, at least 10% of the cells that are CD45R0+, CD62L+ and CD45Ra- are also CD4+, and at least 10% of the cells that are CD45R0+, CD62L+ and CD45Ra- are also CD8+.
A wireless transmit and receive unit, WTRU, configured to receive data via a radio bearer wherein the data is divided at a Packet Data Convergence Protocol, PDCP, layer of a first evolved Node-B, eNB, into a first data stream comprising at least a first PDCP packet data unit, PDU, and a second data stream comprising at least a second PDCP PDU, wherein the second data stream is forwarded by an interworking function at the PDCP layer of the first eNB to a second eNB via an inter-eNB tunnel , the WTRU comprising: processor ; and a memory comprising instructions that when executed by the processor cause the WTRU to: receive, from the first eNB, the first data stream comprising at least the first PDCP PDU, receive, from the second eNB, the second data stream comprising at least the second PDCP PDU; and reorder at least the first PDCP PDU and the second PDCP PDU at a PDCP layer of the WTRU. processor ; and a memory comprising instructions that when executed by the processor cause the WTRU to: receive, from the first eNB, the first data stream comprising at least the first PDCP PDU, receive, from the second eNB, the second data stream comprising at least the second PDCP PDU; and reorder at least the first PDCP PDU and the second PDCP PDU at a PDCP layer of the WTRU. receive, from the first eNB, the first data stream comprising at least the first PDCP PDU, receive, from the second eNB, the second data stream comprising at least the second PDCP PDU; and reorder at least the first PDCP PDU and the second PDCP PDU at a PDCP layer of the WTRU.