mhurhangee/patent-ind-claim-en huggingface dataset:
A product for tissue treatment, comprising: a body having an elongate length and a width, and including a centerline extending the length of the body and separating the body into a first half and a second half; at least a first component formed in the first half of the body, the first component comprising one or more holes or slits passing through the body on one side of the centerline; and at least a second component formed in the second half of the body, the second component comprising one or more tabs on an opposing side of the centerline, the one or more tabs being opposed to and aligned with the one or more holes or slits; wherein the tab has two opposing extensions, wherein the product is configured to be at least partially wrapped around or positioned onto tissue or an implant, wherein the product comprises a tissue matrix, and wherein the first and second components are complementary relative to each other and are configured to interlock relative to each other or to the tissue to maintain the product at least partially wrapped around or positioned on the tissue or the implant. a body having an elongate length and a width, and including a centerline extending the length of the body and separating the body into a first half and a second half; at least a first component formed in the first half of the body, the first component comprising one or more holes or slits passing through the body on one side of the centerline; and at least a second component formed in the second half of the body, the second component comprising one or more tabs on an opposing side of the centerline, the one or more tabs being opposed to and aligned with the one or more holes or slits; wherein the tab has two opposing extensions, wherein the product is configured to be at least partially wrapped around or positioned onto tissue or an implant, wherein the product comprises a tissue matrix, and wherein the first and second components are complementary relative to each other and are configured to interlock relative to each other or to the tissue to maintain the product at least partially wrapped around or positioned on the tissue or the implant.
A crossed-dipoles antenna element comprising: a first balun-fed dipole comprising a first substrate, a lower slot carved out of the first substrate, and a first feed-line printed on the first substrate, the first feed-line being routed around the lower slot; and a second balun-fed dipole comprising a second substrate, an upper slot carved out of the second substrate, and a second feed-line printed on the second substrate, wherein the second feed-line is routed beneath the upper slot, wherein a longest segment of the first feed-line is longer than a longest segment of the second feed-line, and wherein the second feed-line includes at least one more segment than the first feed-line; characterized in that the first balun-fed dipole further comprises a first tuning-stub , and the second balun-fed dipole further comprises a second tuning-stub , wherein a longest segment of the first tuning-stub is longer than a longest segment of the second tuning-stub, and wherein the second tuning-stub includes at least one more segment than the first tuning-stub, the at least one more segment being bent with respect to the longest segment of the second tuning-stub, such that the second tuning-stub has approximately the same length as the first tuning-stub. a first balun-fed dipole comprising a first substrate, a lower slot carved out of the first substrate, and a first feed-line printed on the first substrate, the first feed-line being routed around the lower slot; and a second balun-fed dipole comprising a second substrate, an upper slot carved out of the second substrate, and a second feed-line printed on the second substrate, wherein the second feed-line is routed beneath the upper slot, wherein a longest segment of the first feed-line is longer than a longest segment of the second feed-line, and wherein the second feed-line includes at least one more segment than the first feed-line; characterized in that the first balun-fed dipole further comprises a first tuning-stub , and the second balun-fed dipole further comprises a second tuning-stub , wherein a longest segment of the first tuning-stub is longer than a longest segment of the second tuning-stub, and wherein the second tuning-stub includes at least one more segment than the first tuning-stub, the at least one more segment being bent with respect to the longest segment of the second tuning-stub, such that the second tuning-stub has approximately the same length as the first tuning-stub.
A drill guide for use in drilling a tibial tunnel in a knee joint having a femur with an intercondylar roof and a trochlear groove, and a tibia having a tibial eminence, said drill guide comprising: a guide assembly comprising: a positioning member including an inferior end; and a guide arm extending from the positioning member and including a trochlear tip for engaging the intercondylar roof; and a drill sleeve comprising: a body attached to the inferior end; and an aperture extending along a drilling axis of the body ; characterized in that the drill sleeve further comprises a distal end having a patient-specific surface configured to engage an anterior surface of the tibia inferior of the tibial eminence, the distal end comprising a removable tip which includes the patient-specific surface . a guide assembly comprising: a positioning member including an inferior end; and a guide arm extending from the positioning member and including a trochlear tip for engaging the intercondylar roof; and a positioning member including an inferior end; and a guide arm extending from the positioning member and including a trochlear tip for engaging the intercondylar roof; and a drill sleeve comprising: a body attached to the inferior end; and an aperture extending along a drilling axis of the body ; characterized in that the drill sleeve further comprises a distal end having a patient-specific surface configured to engage an anterior surface of the tibia inferior of the tibial eminence, a body attached to the inferior end; and an aperture extending along a drilling axis of the body ; characterized in that the drill sleeve further comprises a distal end having a patient-specific surface configured to engage an anterior surface of the tibia inferior of the tibial eminence,
A modular tool for installing a platform into a tower section of a wind turbine tower , comprising a first body element , a second body element , wherein each body element has a first base plate , on which the tower section rests in use of the modular tool , and a second base plate , which rests on a foundation in use of the modular tool , wherein the base plates are spaced apart from each other and are arranged parallel to each other, and at least one connecting beam (53 - 55) that detachable connects the body elements to each other and that defines a width (w) of a gap between the body elements ; characterised in that the modular tool, further comprises pivotable adjustment devices (73 - 76) on which the tower section rests in use of the modular tool , and in that each adjustment device (73 - 76) comprises an adjustable bolt that can be received in a flange of the tower section .
A gel comprising a colloid dispersed in a lyotropic nematic liquid crystal, the lyotropic nematic liquid crystal comprising defect lines formed by the colloid, wherein the lyotropic nematic liquid crystal comprises a nematogen dissolved or suspended in a liquid, the liquid comprising water, glycerol, ethanol, an organic oil or a silicone oil, the nematogen is selected from mineral particles and organic material, and wherein the gel comprises the colloid in a volume fraction of 10-55%. the lyotropic nematic liquid crystal comprises a nematogen dissolved or suspended in a liquid, the liquid comprising water, glycerol, ethanol, an organic oil or a silicone oil, the nematogen is selected from mineral particles and organic material, and wherein the gel comprises the colloid in a volume fraction of 10-55%.
A method of obtaining an image from an image sensor provided in a vehicle, the method comprising: obtaining a vehicle speed of the vehicle; obtaining an initial image from the image sensor, said initial image including an object; applying an image recognizing scheme to determine a type of the object included in the initial image; adjusting a shutter speed of the image sensor based on the vehicle speed and the determined type of the object included in the initial image wherein: when the type of the object is determined to be a neighboring vehicle the shutter speed is adjusted to be faster than when the type of the object is determined to be a pedestrian or a stationary object ; and when the type of the object is determined to be a pedestrian, the shutter speed is adjusted to be slower than when the type of the object is determined to be a neighboring vehicle and faster than when the type of the object is determined to be a stationary object; adjusting either one or both of an international organization for standardization sensitivity (ISO) of the image sensor and an aperture of the image sensor based on the vehicle speed; and obtaining the image from the image sensor based on the adjusted shutter speed and the adjusted either one or both of the ISO and the aperture. obtaining a vehicle speed of the vehicle; obtaining an initial image from the image sensor, said initial image including an object; applying an image recognizing scheme to determine a type of the object included in the initial image; adjusting a shutter speed of the image sensor based on the vehicle speed and the determined type of the object included in the initial image wherein: when the type of the object is determined to be a neighboring vehicle the shutter speed is adjusted to be faster than when the type of the object is determined to be a pedestrian or a stationary object ; and when the type of the object is determined to be a pedestrian, the shutter speed is adjusted to be slower than when the type of the object is determined to be a neighboring vehicle and faster than when the type of the object is determined to be a stationary object; when the type of the object is determined to be a neighboring vehicle the shutter speed is adjusted to be faster than when the type of the object is determined to be a pedestrian or a stationary object ; and when the type of the object is determined to be a pedestrian, the shutter speed is adjusted to be slower than when the type of the object is determined to be a neighboring vehicle and faster than when the type of the object is determined to be a stationary object; adjusting either one or both of an international organization for standardization sensitivity (ISO) of the image sensor and an aperture of the image sensor based on the vehicle speed; and obtaining the image from the image sensor based on the adjusted shutter speed and the adjusted either one or both of the ISO and the aperture.
A method comprising: causing , by at least one processor , multiple transmitters of a radar system to simultaneously emit multiple electromagnetic, EM, signals across multiple channels by causing the transmitters to emit the EM signals as sequential spatial blocks, each spatial block having multiple slots outnumbering the channels; causing , by the processor , multiple receivers of the radar system to obtain reflections of the EM signals from one or more objects ; causing , by the processor , multiple phase shifters of the radar system to introduce at least one phase shift in the EM signals or the reflections, each slot corresponding to a specific code of phase shifts applied by the phase shifters across the channels during that slot; applying , by the processor , a respective Fast-Fourier Transformation to the reflections to generate complex observations at each of the channels during each of the slots; determining , by the processor , based on the complex observations, whether a Doppler phase shift between two of the slots has multiple possible values, wherein the specific code of phase shifts corresponding to at least two of the slots is a same code of phase shifts; and responsive to determining that the Doppler phase shift between two of the slots has multiple possible values, outputting , by the processor , an indication of a mixed Doppler interval detected in that spatial block. causing , by at least one processor , multiple transmitters of a radar system to simultaneously emit multiple electromagnetic, EM, signals across multiple channels by causing the transmitters to emit the EM signals as sequential spatial blocks, each spatial block having multiple slots outnumbering the channels; causing , by the processor , multiple receivers of the radar system to obtain reflections of the EM signals from one or more objects ; causing , by the processor , multiple phase shifters of the radar system to introduce at least one phase shift in the EM signals or the reflections, each slot corresponding to a specific code of phase shifts applied by the phase shifters across the channels during that slot; applying , by the processor , a respective Fast-Fourier Transformation to the reflections to generate complex observations at each of the channels during each of the slots; determining , by the processor , based on the complex observations, whether a Doppler phase shift between two of the slots has multiple possible values, wherein the specific code of phase shifts corresponding to at least two of the slots is a same code of phase shifts; and responsive to determining that the Doppler phase shift between two of the slots has multiple possible values, outputting , by the processor , an indication of a mixed Doppler interval detected in that spatial block.
A laser processing head, configured to transmit laser to a workpiece to be processed, wherein, the laser processing head comprises: a first-level nozzle , a focus lens , which is arranged at an upstream direction of the first-level nozzle , and a second-level nozzle , which is arranged at a downstream direction of the first-level nozzle and connected with the first-level nozzle ; wherein, an inner diameter of the second-level nozzle gradually decreases in the downstream direction, and a minimum inner diameter of the first-level nozzle is larger than an inner diameter of a tail end of the second-level nozzle ; the laser processing head further comprises a first cavity configured to receive a first fluid and a second cavity configured to receive a second fluid that envelops the first fluid; the first cavity is connected with the first-level nozzle ; the second cavity is connected with the second-level nozzle ; the first cavity is arranged at the upstream direction of the first-level nozzle ; characterized in that : an outer wall of the first-level nozzle is designed to be curved surface forming a gradually decreased diameter; a section of the second-level nozzle , which has a greater inner diameter, is arranged to enclose a periphery of the first-level nozzle , forming an arc-shaped region between the outer wall of the first-level nozzle and an inner wall of the second-level nozzle ; the second cavity is arranged between the outer wall of the first-level nozzle and the inner wall of the second-level nozzle , and in the arc-shaped region. a first-level nozzle , a focus lens , which is arranged at an upstream direction of the first-level nozzle , and a second-level nozzle , which is arranged at a downstream direction of the first-level nozzle and connected with the first-level nozzle ; wherein, an inner diameter of the second-level nozzle gradually decreases in the downstream direction, and a minimum inner diameter of the first-level nozzle is larger than an inner diameter of a tail end of the second-level nozzle ; the laser processing head further comprises a first cavity configured to receive a first fluid and a second cavity configured to receive a second fluid that envelops the first fluid; the first cavity is connected with the first-level nozzle ; the second cavity is connected with the second-level nozzle ; the first cavity is arranged at the upstream direction of the first-level nozzle ; characterized in that : an outer wall of the first-level nozzle is designed to be curved surface forming a gradually decreased diameter; a section of the second-level nozzle , which has a greater inner diameter, is arranged to enclose a periphery of the first-level nozzle , forming an arc-shaped region between the outer wall of the first-level nozzle and an inner wall of the second-level nozzle ; the second cavity is arranged between the outer wall of the first-level nozzle and the inner wall of the second-level nozzle , and in the arc-shaped region.
A prosthetic heart valve comprising: a support structure ; leaflets attached to the support structure ; characterised in that it comprises connection means connected to, or formed by, the support structure and adapted to promote physical docking of a replacement heart valve to the prosthetic heart valve .
A direct-current power supply device for converting a first voltage that is an input voltage into a second voltage that is an output voltage, comprising: a charge storage unit including a first capacitor and a second capacitor ; a switching unit including a first switching element and a second switching element and a backflow preventing element configured to suppress a backflow of charges from the charge storage unit , the switching unit being configured to switch between a first mode and a second, boosting, mode, wherein the direct-current power supply device further comprises a switching control unit that is configured to, when transitioning the switching unit from the first mode in which on-duty of the first switching element and the second switching element is a first value to the second mode in which the on-duty of the first switching element and the second switching element is a second value larger than the first value, gradually change the on-duty from the first value to the second value, taking equal to or longer time than a first time and reduce stepwise a switching frequency of the first switching element and the second switching element after the on-duty has reached the second value, and wherein a middle point between the first switching element and the second switching element and a middle point between the first capacitor and the second capacitor are connected. a charge storage unit including a first capacitor and a second capacitor ; a switching unit including a first switching element and a second switching element and a backflow preventing element configured to suppress a backflow of charges from the charge storage unit , the switching unit being configured to switch between a first mode and a second, boosting, mode, wherein the direct-current power supply device further comprises a switching control unit that is configured to, when transitioning the switching unit from the first mode in which on-duty of the first switching element and the second switching element is a first value to the second mode in which the on-duty of the first switching element and the second switching element is a second value larger than the first value, gradually change the on-duty from the first value to the second value, taking equal to or longer time than a first time and reduce stepwise a switching frequency of the first switching element and the second switching element after the on-duty has reached the second value, and wherein a middle point between the first switching element and the second switching element and a middle point between the first capacitor and the second capacitor are connected.
An actuating means for a park lock arrangement , where the actuating means is arranged to switch between a release position and a lock position, where the actuating means comprises a lock section provided with a lock section bearing surface adapted to bear against an actuation end of a park pawl in the lock position, and a release section provided with a release section bearing surface adapted to bear against the actuation end of the park pawl (2; 42) in the release position, and where the actuating means comprises a flat upper bearing surface , wherein the lock section bearing surface is flat, and wherein the upper bearing surface and the lock section bearing surface are substantially parallel.
A wire harness comprising: a wire including a core wire and an insulating covering that covers the core wire ; an electromagnetic shielding member that covers and electromagnetically shields at least the core wire ; a path regulating member that has higher flexural rigidity than the wire and that is formed in an elongated shape; and an exterior member that covers the wire , the electromagnetic shielding member , and the path regulating member , wherein the wire is fixed along the path regulating member , and the electromagnetic shielding member is a braided member formed by braiding a plurality of metal wires, characterized in that : the path regulating member is formed of the same kind of metal as the electromagnetic shielding member , and the electromagnetic shielding member is in direct contact with the full length of the path regulating member . a wire including a core wire and an insulating covering that covers the core wire ; an electromagnetic shielding member that covers and electromagnetically shields at least the core wire ; a path regulating member that has higher flexural rigidity than the wire and that is formed in an elongated shape; and an exterior member that covers the wire , the electromagnetic shielding member , and the path regulating member , wherein the wire is fixed along the path regulating member , and the electromagnetic shielding member is a braided member formed by braiding a plurality of metal wires, characterized in that : the path regulating member is formed of the same kind of metal as the electromagnetic shielding member , and the electromagnetic shielding member is in direct contact with the full length of the path regulating member .