mhurhangee/patent-ind-claim-en huggingface dataset:
A suture bridge , comprising: an elongated rigid insert including a first material; and a deformable shell including a second material, the second material being differentthan the first material, the insert and the shell collectively forming a bridge body having a first leg including a first patient contacting surface configured to contact a patient's skin, a second leg spaced from the first leg and including a second patient contacting surface configured to contact the patient's skin, a first support connected to the first leg , a second support connected to the second leg , a first slot at least partially formed through a portion of the first leg , and a portion of the first support , a second slot at least partially formed through a portion of the second leg , and a portion of the second support , and a traversing member extending between the first support and the second support wherein the shell partially surrounds the rigid insert, the shell covers the surface of the rigid insert on a patient contacting surface side. an elongated rigid insert including a first material; and a deformable shell including a second material, the second material being differentthan the first material, the insert and the shell collectively forming a bridge body having a first leg including a first patient contacting surface configured to contact a patient's skin, a second leg spaced from the first leg and including a second patient contacting surface configured to contact the patient's skin, a first support connected to the first leg , a second support connected to the second leg , a first slot at least partially formed through a portion of the first leg , and a portion of the first support , a second slot at least partially formed through a portion of the second leg , and a portion of the second support , and a traversing member extending between the first support and the second support wherein the shell partially surrounds the rigid insert, the shell covers the surface of the rigid insert on a patient contacting surface side.
A tire comprising: a tread block or rib used in a tire tread of the tire ; and different sized first and second domes provided on a road engaging first surface of the tread block or rib wherein the first dome is disposed on the first surface and protrudes outwardly from the first surface, and each of the first and second domes has a convex profile, characterized in that the second dome is located on top of the first dome so that the second dome protrudes outwardly from the first dome , the first dome forming a first spheroid-shaped surface defined by a single first radius (R1) of curvature and the second dome forming a second spheroid-shaped surface defined by a single second radius (R2) of curvature wherein the first radius (R1) of curvature is different from the second radius (R2) of curvature. a tread block or rib used in a tire tread of the tire ; and different sized first and second domes provided on a road engaging first surface of the tread block or rib wherein the first dome is disposed on the first surface and protrudes outwardly from the first surface, and each of the first and second domes has a convex profile, characterized in that the second dome is located on top of the first dome so that the second dome protrudes outwardly from the first dome , the first dome forming a first spheroid-shaped surface defined by a single first radius (R1) of curvature and the second dome forming a second spheroid-shaped surface defined by a single second radius (R2) of curvature wherein the first radius (R1) of curvature is different from the second radius (R2) of curvature.
A wide area distributed computing center network system characterized in that the system comprises: one or more data centers , each data center comprising one or more master servers , communicatively connected to each other and to a plurality of distributed computing centers , each of the plurality of distributed computing centers comprising cloud servers , wherein the one or more master servers of the one or more data centers are configured to synchronize data received from the cloud servers of the plurality of distributed computing centers to maintain consistency and uniformity of digital reality and user data across the cloud servers , wherein the distributed computing centers form a wide area distributed computing center network configured to provide real-time responsive location-based services in three-dimensional space; and wherein the one or more master servers of each of the one or more data centers is/are configured to perform dynamic network slicing and quality of service management through management of the distributed computing centers . one or more data centers , each data center comprising one or more master servers , communicatively connected to each other and to a plurality of distributed computing centers , each of the plurality of distributed computing centers comprising cloud servers , wherein the one or more master servers of the one or more data centers are configured to synchronize data received from the cloud servers of the plurality of distributed computing centers to maintain consistency and uniformity of digital reality and user data across the cloud servers , wherein the distributed computing centers form a wide area distributed computing center network configured to provide real-time responsive location-based services in three-dimensional space; and wherein the one or more master servers of each of the one or more data centers is/are configured to perform dynamic network slicing and quality of service management through management of the distributed computing centers .
An exhaust system comprising: an exhaust pipe including a straight portion , and a bent portion that is bent and extends from a downstream end of the straight portion ; a muffler provided on a downstream side of the exhaust pipe ; and a reinforcing member , characterized in that the straight portion of the exhaust pipe is connected with an upstream end of the muffler through the bent portion ; and the reinforcing member is provided so as to extend across a downstream end portion of the straight portion , and an upstream end portion of the muffler , and wherein: the reinforcing member is formed so as to have an arc-shaped section that is curved along an outer periphery of the straight portion and an outer periphery of the muffler . an exhaust pipe including a straight portion , and a bent portion that is bent and extends from a downstream end of the straight portion ; a muffler provided on a downstream side of the exhaust pipe ; and a reinforcing member , characterized in that the straight portion of the exhaust pipe is connected with an upstream end of the muffler through the bent portion ; and the reinforcing member is provided so as to extend across a downstream end portion of the straight portion , and an upstream end portion of the muffler , and wherein: the reinforcing member is formed so as to have an arc-shaped section that is curved along an outer periphery of the straight portion and an outer periphery of the muffler .
A cosmetic method for treating dry skin comprising topically applying to skin in need thereof a topical skin composition comprising an effective amount of Silybum marianum extract and Momordica grosvenori fruit extract, wherein the Silybum marianum extract is a hydroalcoholic extract and the Momordica grosvenori fruit extract is a hydroglycolic extract, wherein the composition is formulated for dry skin and wherein the composition further includes an effective amount of Linum usitatissimum seed extract and hydrolyzed algin, wherein the Linum usitatissimum seed extract is a hydroglycolic extract and wherein the hydrolyzed algin is obtained from Laminaria digitata or is an aqueous solution of an oligosaccharide produced by controlled enzymatic depolymerization of membranous polysaccharides from Laminaria digitata, wherein topical application of the composition treats the skin.
A surgical instrument system , comprising: a base including a mounting platform , a first carrier including a mounting block configured to be selectively positioned on the mounting platform and a post extending at a non-orthogonal angle relative to the mounting block, the post including a distal end that is sized to be received in a passageway of a prosthetic femoral component , and a second carrier configured to be selectively positioned on the mounting platform in place of the first carrier, characterized in that the second carrier includes a first clamp plate and a second clamp plate that are moveable to grip a prosthetic tibial component between the first clamp plate and the second clamp plate. a base including a mounting platform , a first carrier including a mounting block configured to be selectively positioned on the mounting platform and a post extending at a non-orthogonal angle relative to the mounting block, the post including a distal end that is sized to be received in a passageway of a prosthetic femoral component , and a second carrier configured to be selectively positioned on the mounting platform in place of the first carrier, characterized in that the second carrier includes a first clamp plate and a second clamp plate that are moveable to grip a prosthetic tibial component between the first clamp plate and the second clamp plate.
A memory device for a printing device component, the memory device comprising: compressed coefficients that, when decompressed by a printing device, form difference entries, wherein each difference entry of the difference entries represents a difference of a value of a corresponding entry of a halftone table and a value of a corresponding entry of a reference table ; and healing parameter values specifying a healing process to apply to a reconstructed halftone table produced using said coefficients once decompressed, wherein the healing process specified by the healing parameter values enforces monotonicity in an increase in pulse width modulation values for controlling a pixel, wherein the compressed coefficients and the healing parameter values are accessible by the printing device to reconstruct a halftone table used in halftone printing by the printing device. compressed coefficients that, when decompressed by a printing device, form difference entries, wherein each difference entry of the difference entries represents a difference of a value of a corresponding entry of a halftone table and a value of a corresponding entry of a reference table ; and healing parameter values specifying a healing process to apply to a reconstructed halftone table produced using said coefficients once decompressed, wherein the healing process specified by the healing parameter values enforces monotonicity in an increase in pulse width modulation values for controlling a pixel, wherein the compressed coefficients and the healing parameter values are accessible by the printing device to reconstruct a halftone table used in halftone printing by the printing device.
An epicyclic gear train defining a central longitudinal axis , the epicyclic gear train comprising a central sun gear , an outer ring gear , and a number of planet gears which are mounted to a planet carrier (40; 140), the planet gears rotating about respective planet gear axes , the planet gears disposed in meshed engagement with the central sun gear and the outer ring gear , the planet carrier (40; 140) including first and second carrier plates (48a, 48b; 148a, 148b), the first and second carrier plates (48a, 48b; 148a, 148b) being parallel to each other and axially spaced apart to support the planet gears therebetween at aligned gear mounting points on each of the first and second carrier plates (48a, 48b; 148a, 148b), the planet carrier (40; 140) having center links (50; 150) extending radially outward relative to the longitudinal axis and axially disposed between the carrier plates (48a, 48b; 148a, 148b), characterised in that : the planet carrier (40; 140) includes a centrally disposed torque transfer coupling (44; 144) concentric with the longitudinal axis , a torque transmission point (54; 154) at an axial end of the torque transfer coupling (44; 144), the first and second carrier plates (48a, 48b; 148a, 148b) extending radially from the torque transfer coupling (44; 144), the first and second carrier plates (48a, 48b; 148a, 148b) connected to the torque transfer coupling (44; 144) only by the center links (50; 150), the first carrier plate (48a; 148a) being closer to the torque transmission point (54; 154) than the second carrier plate (48b; 148b), and the second carrier plate (48b; 148b) having a stiffness that is greater than that of the first carrier plate (48a; 148a).
A method implemented in a wireless transmit receive unit, WTRU , the method comprising: the WTRU operating in a first scheduling mode for device-to-device communication, wherein in the first scheduling mode the WTRU uses resources scheduled by a network entity for device-to-device communications; the WTRU detecting that a radio resource control, RRC, timer is running, wherein the detection indicates a failure condition; and the WTRU switching from the first scheduling mode for device-to-device communication to a second scheduling mode for device-to-device communication based on detecting that the RRC timer is running, wherein in the second scheduling mode the WTRU autonomously selects a resource from a resource pool for the WTRU to use for one or more device-to-device communications. the WTRU operating in a first scheduling mode for device-to-device communication, wherein in the first scheduling mode the WTRU uses resources scheduled by a network entity for device-to-device communications; the WTRU detecting that a radio resource control, RRC, timer is running, wherein the detection indicates a failure condition; and the WTRU switching from the first scheduling mode for device-to-device communication to a second scheduling mode for device-to-device communication based on detecting that the RRC timer is running, wherein in the second scheduling mode the WTRU autonomously selects a resource from a resource pool for the WTRU to use for one or more device-to-device communications.
An implantable medical system comprising: a first optical sensor configured to generate a first electrical signal; a second optical sensor configured to generate a second electrical signal; wherein each of the first and second optical sensors comprise at least one light source and at least one light detector , and the first and second electrical signals are indicative of the intensity of the light detected by the at least one light detector of the respective sensor, so that said first and second electrical signals change as a function of the amount of blood within the artery; and a processor configured to receive the first electrical signal and the second electrical signal, to detect an arterial pulse of the patient based on the first and second electrical signals, and to determine whether the arterial pulse is a spurious pulse based on the first and second electrical signals; and characterized in that the first optical sensor and the second optical sensor are adapted for implantation along an artery of a patient, such that the second optical sensor is downstream of the first optical sensor relative to the direction of blood flow in the artery; and the processor is configured to determine whether the arterial pulse is a spurious pulse by at least determining whether the first and second signal characteristics occurred within a predetermined range of time, and if the first and second characteristics occurred within the predetermined range of time, the processor is configured to determine that the detected arterial pulse is the spurious pulse. a first optical sensor configured to generate a first electrical signal; a second optical sensor configured to generate a second electrical signal; wherein each of the first and second optical sensors comprise at least one light source and at least one light detector , and the first and second electrical signals are indicative of the intensity of the light detected by the at least one light detector of the respective sensor, so that said first and second electrical signals change as a function of the amount of blood within the artery; and a processor configured to receive the first electrical signal and the second electrical signal, to detect an arterial pulse of the patient based on the first and second electrical signals, and to determine whether the arterial pulse is a spurious pulse based on the first and second electrical signals; and characterized in that the first optical sensor and the second optical sensor are adapted for implantation along an artery of a patient, such that the second optical sensor is downstream of the first optical sensor relative to the direction of blood flow in the artery; and the processor is configured to determine whether the arterial pulse is a spurious pulse by at least determining whether the first and second signal characteristics occurred within a predetermined range of time, and if the first and second characteristics occurred within the predetermined range of time, the processor is configured to determine that the detected arterial pulse is the spurious pulse.
A method for uplink, UL, multi-user, MU, transmission by a station, STA, in a wireless communication system, the method comprising: receiving a trigger frame including resource allocation information indicating a resource for the UL MU transmission from an access point, AP; transmitting a UL frame in response to the trigger frame to the AP; and receiving an acknowledgement frame in response to the UL frame from the AP, wherein the UL frame includes legacy fields, a high-efficiency-SIGNAL-A, HE-SIG-A, field, a high efficiency-short training field, HE-STF, a high-efficiency-long training field, HE-LTF, and a data field, wherein the UL frame does not include a high-efficiency-SIGNAL-B, HE-SIG-B, field, wherein the HE-STF, the HE-LTF, and the data field are transmitted in the resource based on the resource allocation information. receiving a trigger frame including resource allocation information indicating a resource for the UL MU transmission from an access point, AP; transmitting a UL frame in response to the trigger frame to the AP; and receiving an acknowledgement frame in response to the UL frame from the AP, wherein the UL frame includes legacy fields, a high-efficiency-SIGNAL-A, HE-SIG-A, field, a high efficiency-short training field, HE-STF, a high-efficiency-long training field, HE-LTF, and a data field, wherein the UL frame does not include a high-efficiency-SIGNAL-B, HE-SIG-B, field, wherein the HE-STF, the HE-LTF, and the data field are transmitted in the resource based on the resource allocation information.
An aerial vehicle , comprising: an airframe; vertical propulsion units mounted to the airframe to provide vertical propulsion and physically organized into propulsion rings including at least an inner ring and an outer ring; a flight controller including logic that when executed by flight controller causes the aerial vehicle to perform operations including: determining whether an initial thrust command output vector results in a thrust command clipping of one of the vertical propulsion units; transferring torque associated with the initial thrust command output vector from each of the vertical propulsion units in the outer ring to the vertical propulsion units in the inner ring when the thrust command clipping of one of the vertical propulsion units in the outer ring occurs; determining a revised thrust command output vector after transferring the torque; and driving the vertical propulsion units according to the revised thrust command output vector. an airframe; vertical propulsion units mounted to the airframe to provide vertical propulsion and physically organized into propulsion rings including at least an inner ring and an outer ring; a flight controller including logic that when executed by flight controller causes the aerial vehicle to perform operations including: determining whether an initial thrust command output vector results in a thrust command clipping of one of the vertical propulsion units; transferring torque associated with the initial thrust command output vector from each of the vertical propulsion units in the outer ring to the vertical propulsion units in the inner ring when the thrust command clipping of one of the vertical propulsion units in the outer ring occurs; determining a revised thrust command output vector after transferring the torque; and driving the vertical propulsion units according to the revised thrust command output vector. determining whether an initial thrust command output vector results in a thrust command clipping of one of the vertical propulsion units; transferring torque associated with the initial thrust command output vector from each of the vertical propulsion units in the outer ring to the vertical propulsion units in the inner ring when the thrust command clipping of one of the vertical propulsion units in the outer ring occurs; determining a revised thrust command output vector after transferring the torque; and driving the vertical propulsion units according to the revised thrust command output vector.
A system for measuring tension, pressure and distance of joint tissue, the system comprising: a prosthetic inlay device comprising: at least two platform structures, wherein each of the platforms are supported on a scissor arm structure ; force sensing sensors ; and a connector cable coupled to the force sensing sensors characterized in that each of the platforms is supported on a coil spring (110, 114. 1110, 1114), and that one force sensing sensor is configured beneath each coil spring . at least two platform structures, wherein each of the platforms are supported on a scissor arm structure ; force sensing sensors ; and a connector cable coupled to the force sensing sensors characterized in that each of the platforms is supported on a coil spring (110, 114. 1110, 1114), and that one force sensing sensor is configured beneath each coil spring .
An ink supply apparatus for supplying ink to a printer, comprising: an ink filling port configured to receive inflow of ink; an ink storage section communicated with the ink filling port , and configured to store the ink; an ink flow path communicated with the ink storage section , and configured to allow the ink to flow from the ink storage section ; a displacement section defining a portion of the ink flow path, which is displaced according to internal pressure in the ink flow path so as to be detected by the printer; an ink supply port communicated with the ink flow path for supplying the ink from the ink flow path to the printer; characterized in that the ink supply apparatus further comprises a sealing structure sealing an inner section of the ink flow path in a low ink remaining amount state where a remaining amount of the ink in the ink storage section is a predetermined amount or less; and a communication port allowing the ink flow path to be communicated with the ink storage section . an ink filling port configured to receive inflow of ink; an ink storage section communicated with the ink filling port , and configured to store the ink; an ink flow path communicated with the ink storage section , and configured to allow the ink to flow from the ink storage section ; a displacement section defining a portion of the ink flow path, which is displaced according to internal pressure in the ink flow path so as to be detected by the printer; an ink supply port communicated with the ink flow path for supplying the ink from the ink flow path to the printer; characterized in that the ink supply apparatus further comprises a sealing structure sealing an inner section of the ink flow path in a low ink remaining amount state where a remaining amount of the ink in the ink storage section is a predetermined amount or less; and a communication port allowing the ink flow path to be communicated with the ink storage section .