mhurhangee/patent-ind-claim-en huggingface dataset:
An orthopaedic surgical instrument comprising: a customized patient-specific instrument configured to be selectively attached at a predetermined location of a patient's bone, the customized patient-specific instrument comprising: a polymeric body including (i) a bone-facing surface having a customized patient-specific negative contour shaped to match and receive a corresponding positive contour of the patient's bone at the predetermined location, (ii) an outer surface positioned opposite the bone-facing surface , and (iii) an inner wall extending between a first opening defined in the bone-facing surface and a second opening defined in the outer surface , and a metallic coating positioned on a first section of the inner wall extending inwardly from the first opening and a second section of the inner wall extending inwardly from the second opening , characterised in that the metallic coating on the first section of the inner wall defines a first planar cutting guide surface and the metallic coating on the second section of the inner wall defines a second planar cutting guide surface , the first and second planar cutting guide surfaces being configured to guide a cutting tool , and wherein the inner wall includes a central section positioned between the first section and the second section , the central section being offset from the first section and the second section such that a distance greater than 0 mm is defined between the central section and each of the first section and the second section such that the central section is spaced apart from the cutting tool when the cutting tool is guided by the first and second planar cutting guide surfaces. a polymeric body including (i) a bone-facing surface having a customized patient-specific negative contour shaped to match and receive a corresponding positive contour of the patient's bone at the predetermined location, (ii) an outer surface positioned opposite the bone-facing surface , and (iii) an inner wall extending between a first opening defined in the bone-facing surface and a second opening defined in the outer surface , and a metallic coating positioned on a first section of the inner wall extending inwardly from the first opening and a second section of the inner wall extending inwardly from the second opening , characterised in that the metallic coating on the first section of the inner wall defines a first planar cutting guide surface and the metallic coating on the second section of the inner wall defines a second planar cutting guide surface , the first and second planar cutting guide surfaces being configured to guide a cutting tool , and wherein the inner wall includes a central section positioned between the first section and the second section , the central section being offset from the first section and the second section such that a distance greater than 0 mm is defined between the central section and each of the first section and the second section such that the central section is spaced apart from the cutting tool when the cutting tool is guided by the first and second planar cutting guide surfaces.
A device to record signals, which comprises a multiple of microneedles forming an array of microneedles; a chip comprising at least one comparator with adaptive level, a sequence control circuit, at least one capacitor stack built by n capacitors and 2n switches, at least one buffer capacitor outside the at least one capacitor stack, at least two additional switches outside the at least one capacitor stack and a CMOS-Logic, wherein n ∈ N , wherein the n capacitors are adapted to be sequentially charged by at least one microneedle of the array of microneedles, which functions as DC input source, one after the other and wherein the 2n switches of the capacitor stack couple the n capacitors selectively to at least one microneedle of the array of microneedles and wherein the buffer capacitor outside the at least one capacitor stack is dedicated to be charged from the n capacitors of the capacitor stack at once; an interposer layer comprising holes for the multiple of microneedles; a lid ; at least one coil; at least one sensor ; wherein the chip , is located on one surface of the interposer layer ; wherein the lid and the interposer layer form a capsule for the chip and the at least one coil; wherein the capsule carries an outer Far-Field electrode ; wherein each microneedle has a distal end which protrudes from the chip ; and wherein the device is adapted to be electrically self-sufficient due to harvesting of electrical energy on one or more microneedles from an electrical energy source of the surrounding. a multiple of microneedles forming an array of microneedles; a chip comprising at least one comparator with adaptive level, a sequence control circuit, at least one capacitor stack built by n capacitors and 2n switches, at least one buffer capacitor outside the at least one capacitor stack, at least two additional switches outside the at least one capacitor stack and a CMOS-Logic, wherein n ∈ N , wherein the n capacitors are adapted to be sequentially charged by at least one microneedle of the array of microneedles, which functions as DC input source, one after the other and wherein the 2n switches of the capacitor stack couple the n capacitors selectively to at least one microneedle of the array of microneedles and wherein the buffer capacitor outside the at least one capacitor stack is dedicated to be charged from the n capacitors of the capacitor stack at once; an interposer layer comprising holes for the multiple of microneedles; a lid ; at least one coil; at least one sensor ; wherein the chip , is located on one surface of the interposer layer ; wherein the lid and the interposer layer form a capsule for the chip and the at least one coil; wherein the capsule carries an outer Far-Field electrode ; wherein each microneedle has a distal end which protrudes from the chip ; and wherein the device is adapted to be electrically self-sufficient due to harvesting of electrical energy on one or more microneedles from an electrical energy source of the surrounding.
Flexible stent comprising: a helical portion comprising a plurality of side-by-side, individual helical elements helically wound about an axis of said stent , said helical portion being expandable radially upon deployment and compressible, expandable and bendable in a deployed state; and a strut portion on either side of said helical portion , said strut portion comprising axially aligned strut elements having a first end connected to said helical elements of said helical portion , said strut portion being radially expandable upon deployment, the stent further comprising one or more additional said helical portions and one or more additional said strut portions , wherein each of said one or more additional said helical portions 303, 309) is respectively connected to a second end of one of said strut portions , said helical portions being connected respectively to said strut portions such that each of said helical portions is interposed between a pair of said strut portions , wherein a gap length is the distance between two adjacent helical elements of a helical portion , and one of said helical portions has a higher ratio of a sum of gap lengths to a length of the helical portion than a ratio of a sum of gap lengths to a length of a second one of said helical portions , and wherein one of said strut portions has less strut elements than a second of said strut portions . a helical portion comprising a plurality of side-by-side, individual helical elements helically wound about an axis of said stent , said helical portion being expandable radially upon deployment and compressible, expandable and bendable in a deployed state; and a strut portion on either side of said helical portion , said strut portion comprising axially aligned strut elements having a first end connected to said helical elements of said helical portion , said strut portion being radially expandable upon deployment, the stent further comprising one or more additional said helical portions and one or more additional said strut portions , wherein each of said one or more additional said helical portions 303, 309) is respectively connected to a second end of one of said strut portions , said helical portions being connected respectively to said strut portions such that each of said helical portions is interposed between a pair of said strut portions , wherein a gap length is the distance between two adjacent helical elements of a helical portion , and one of said helical portions has a higher ratio of a sum of gap lengths to a length of the helical portion than a ratio of a sum of gap lengths to a length of a second one of said helical portions , and wherein one of said strut portions has less strut elements than a second of said strut portions .
A shoe sole comprising a shock absorber comprising a three-dimensional structure (S) composed of a unit structure (U) repeatedly, regularly and continuously arranged in at least one direction, the unit structure (U) being a three-dimensional shape formed by a wall having an external shape defined by a pair of parallel planes or curved surfaces, wherein the three-dimensional structure (S) is a triply periodic minimal surface with a thickness added thereto; when such unit structures (U) each occupy a hexahedral space representing a unit space and defined by mutually orthogonal three sides having a first side extending in an axial direction in which the shock absorber exhibits a shock absorbing function as the shock absorber receives a load and second and third sides each extending from one end of the first side in a direction orthogonal to the axial direction, and the first side has a length L1 and a longer one of the second and third sides has a length L2, the three-dimensional structure (S) including as the unit structure (U) a unit structure satisfying 1.1 ≤ L1/L2 ≤ 4.0, and wherein the shock absorber is disposed such that the axial direction is orthogonal to a tread . wherein the three-dimensional structure (S) is a triply periodic minimal surface with a thickness added thereto; when such unit structures (U) each occupy a hexahedral space representing a unit space and defined by mutually orthogonal three sides having a first side extending in an axial direction in which the shock absorber exhibits a shock absorbing function as the shock absorber receives a load and second and third sides each extending from one end of the first side in a direction orthogonal to the axial direction, and the first side has a length L1 and a longer one of the second and third sides has a length L2, the three-dimensional structure (S) including as the unit structure (U) a unit structure satisfying 1.1 ≤ L1/L2 ≤ 4.0, and wherein the shock absorber is disposed such that the axial direction is orthogonal to a tread .
A sensor targeted to be mounted on a plenoptic camera , the sensor comprising a plurality of microimage areas , each microimage area targeted to sense a microimage refracted by a microlens array , each microimage area being at least partially covered by a color filter array , wherein the color saturation of the color filter array decreases when getting away from a centroid (x i,j , y i,j ) of the microimage area .
An aerosol-generating element for generating an aerosol in a shisha device , the aerosol-generating element comprising: - a receptacle for receiving an aerosol-forming substrate ; and - a photonic device configured to generate a beam of IR radiation ; wherein the aerosol-generating element is arranged to heat the aerosol-forming substrate by directing the beam of IR radiation onto the aerosol-forming substrate, and wherein the photonic device comprises an IR laser diode. - a receptacle for receiving an aerosol-forming substrate ; and - a photonic device configured to generate a beam of IR radiation ; wherein
A robotic finger comprising: a vibrator for vibrating in vibratory motion cycles; a contact pad in communication with the vibrator for frictionally contacting an object at a surface contact region of the object, wherein the vibratory motion of the vibrator generates vibratory motion in the contact pad back and forth along an axis of vibration and a net displacement of the object along a selected direction along the axis of vibration; and a transmission system in communication with the vibrator for rotating the vibrator and the vibration axis to a desired azimuth angle. a vibrator for vibrating in vibratory motion cycles; a contact pad in communication with the vibrator for frictionally contacting an object at a surface contact region of the object, wherein the vibratory motion of the vibrator generates vibratory motion in the contact pad back and forth along an axis of vibration and a net displacement of the object along a selected direction along the axis of vibration; and a transmission system in communication with the vibrator for rotating the vibrator and the vibration axis to a desired azimuth angle.
A method for controlling binding of a data flow to a bearer, comprising: sending, by a policy and charging rules function device, a target Quality of Service ,QoS, parameter, and a identifier of a policy and charging control, PCC, rule to a policy and charging enforcement function, receiving , by the policy and charging enforcement function device , indication information and the identifier of the PCC rule from the policy and charging rules function device , wherein the indication information comprises the target QoS parameter and the PCC rule is indicated by the received identifier of the PCC rule; changing, by the policy and charging enforcement function device , a QoS parameter in the PCC rule to the target QoS parameter, binding, by the policy and charging enforcement function device , to a target bearer according to the changed PCC rule, a data flow indicated by the identifier of the data flow in the PCC rule. sending, by a policy and charging rules function device, a target Quality of Service ,QoS, parameter, and a identifier of a policy and charging control, PCC, rule to a policy and charging enforcement function, receiving , by the policy and charging enforcement function device , indication information and the identifier of the PCC rule from the policy and charging rules function device , wherein the indication information comprises the target QoS parameter and the PCC rule is indicated by the received identifier of the PCC rule; changing, by the policy and charging enforcement function device , a QoS parameter in the PCC rule to the target QoS parameter, binding, by the policy and charging enforcement function device , to a target bearer according to the changed PCC rule, a data flow indicated by the identifier of the data flow in the PCC rule. receiving , by the policy and charging enforcement function device , indication information and the identifier of the PCC rule from the policy and charging rules function device , wherein the indication information comprises the target QoS parameter and the PCC rule is indicated by the received identifier of the PCC rule; changing, by the policy and charging enforcement function device , a QoS parameter in the PCC rule to the target QoS parameter, binding, by the policy and charging enforcement function device , to a target bearer according to the changed PCC rule, a data flow indicated by the identifier of the data flow in the PCC rule.
A near-eye display device comprising: a right display projector and a left display projector ; a right expansion optic configured to receive a right display image from the right display projector and to release an expanded form of the right display image; a left expansion optic configured to receive a left display image from the left display projector and to release an expanded form of the left display image; a right inertial measurement unit IMU fixedly coupled to the right display projector, and a left IMU fixedly coupled to the left display projector; a plurality of angle-sensitive pixel ASP elements each responsive to an angle of light of a display image received into the right or left expansion optic; and a computer configured to: receive output from each of the right IMU, the left IMU and the plurality of ASP elements, and render display data for the right and left display projectors based in part on the output from each of the right IMU, the left IMU and the plurality of ASP elements, thereby providing predefined stereo disparity between the expanded forms of the right and left display images. a right display projector and a left display projector ; a right expansion optic configured to receive a right display image from the right display projector and to release an expanded form of the right display image; a left expansion optic configured to receive a left display image from the left display projector and to release an expanded form of the left display image; a right inertial measurement unit IMU fixedly coupled to the right display projector, and a left IMU fixedly coupled to the left display projector; a plurality of angle-sensitive pixel ASP elements each responsive to an angle of light of a display image received into the right or left expansion optic; and a computer configured to: receive output from each of the right IMU, the left IMU and the plurality of ASP elements, and render display data for the right and left display projectors based in part on the output from each of the right IMU, the left IMU and the plurality of ASP elements, thereby providing predefined stereo disparity between the expanded forms of the right and left display images. receive output from each of the right IMU, the left IMU and the plurality of ASP elements, and render display data for the right and left display projectors based in part on the output from each of the right IMU, the left IMU and the plurality of ASP elements, thereby providing predefined stereo disparity between the expanded forms of the right and left display images.
An optical member comprising: a light-transmitting substrate having a surface including an optically effective area and an optically non-effective area , the optically effective area and the optically non-effective area being located adjacent relative to each other; the optically effective area and the optically non-effective area forming an angle of not less than 45 degrees and not more than 90 degrees on the border thereof, wherein the optical member has a light-shielding film arranged in the optically non-effective area of the substrate, and the optically non-effective area of the substrate has a fine rugged structure and the light-shielding film arranged on the fine rugged structure in a boundary area extending along the border of the optically effective area and the optically non-effective area, wherein the fine rugged structure is a sub-wavelength structure; and wherein the optical member is a lens having a concave surface, and wherein the optical member has the fine rugged structure arranged on the optically effective area; characterized in that the fine rugged structure is formed continuously from the optically effective area so as to cross the border of the optically effective area; the optically non-effective area has an area other than the boundary area in which the light-shielding film is arranged and in which no fine rugged structure is arranged; and the optically effective area and the optically non-effective area are located adjacent to each other at the concave surface side of the lens. a light-transmitting substrate having a surface including an optically effective area and an optically non-effective area , the optically effective area and the optically non-effective area being located adjacent relative to each other; the optically effective area and the optically non-effective area forming an angle of not less than 45 degrees and not more than 90 degrees on the border thereof, wherein the optical member has a light-shielding film arranged in the optically non-effective area of the substrate, and the optically non-effective area of the substrate has a fine rugged structure and the light-shielding film arranged on the fine rugged structure in a boundary area extending along the border of the optically effective area and the optically non-effective area, wherein the fine rugged structure is a sub-wavelength structure; and wherein the optical member is a lens having a concave surface, and wherein the optical member has the fine rugged structure arranged on the optically effective area; characterized in that the fine rugged structure is formed continuously from the optically effective area so as to cross the border of the optically effective area; the optically non-effective area has an area other than the boundary area in which the light-shielding film is arranged and in which no fine rugged structure is arranged; and the optically effective area and the optically non-effective area are located adjacent to each other at the concave surface side of the lens.
A rail vehicle comprising one or more car sections, the car sections each including a car body comprising lifting points provided on the lateral longitudinal sides of the car sections for the engagement of lifting tools, the lifting points being elastically mounted on the car body , wherein - each of the lifting points includes a receptacle for the operative connection to an insertion pin of the lifting tool, the receptacle being connected to the car body via at least one spring-loaded device ; and - a pivot bearing is provided as an interface between the car body and the receptacle , the receptacle being connected to the car body by the spring-loaded device and the pivot bearing . - each of the lifting points includes a receptacle for the operative connection to an insertion pin of the lifting tool, the receptacle being connected to the car body via at least one spring-loaded device ; and - a pivot bearing is provided as an interface between the car body and the receptacle , the receptacle being connected to the car body by the spring-loaded device and the pivot bearing .
A compound of formula (I) wherein X is CH or N; Z is selected from the group consisting of (5-6 membered)-heteroaryl and aryl, wherein any of such heteroaryl and aryl may be optionally substituted by one or more groups selected from (C 1 -C 3 )alkyl- and halo; R 1 is H or (C 1 -C 4 )alkyl; R 2 is heteroaryl wherein any of such heteroaryl may be optionally substituted by one or more groups selected from (C 1 -C 3 )alkyl, (C 1 -C 6 )haloalkyl and halo; R 3 is H or (C 1 -C 4 )alkyl; Y is H or -O(C 1 -C 4 )alkyl. X is CH or N; Z is selected from the group consisting of (5-6 membered)-heteroaryl and aryl, wherein any of such heteroaryl and aryl may be optionally substituted by one or more groups selected from (C 1 -C 3 )alkyl- and halo; R 1 is H or (C 1 -C 4 )alkyl; R 2 is heteroaryl wherein any of such heteroaryl may be optionally substituted by one or more groups selected from (C 1 -C 3 )alkyl, (C 1 -C 6 )haloalkyl and halo; R 3 is H or (C 1 -C 4 )alkyl; Y is H or -O(C 1 -C 4 )alkyl.