mhurhangee/patent-ind-claim-en huggingface dataset:
A Bernoulli gripper for ophthalmic lenses , the Bernoulli gripper comprising: a gripper body with a first cavity corresponding in shape to an optic zone of an ophthalmic lens; and a first channel formed within the gripper body, the first channel penetrating the first cavity at one end and comprising a first port in the gripper body at another end of the first channel; wherein the first channel is enabled to supply a fluid medium from the first port to the first cavity at a first velocity such that the ophthalmic lens positioned with the optic zone in proximity to the first cavity is subject to a first pressure force against the first cavity by a Bernoulli effect; characterised in that the ophthalmic lens is an intraocular lens comprising the optic zone and a haptic , and in that the Bernoulli gripper further comprises a mechanical stop to detain the haptic and prevent rotation of the ophthalmic lens. a gripper body with a first cavity corresponding in shape to an optic zone of an ophthalmic lens; and a first channel formed within the gripper body, the first channel penetrating the first cavity at one end and comprising a first port in the gripper body at another end of the first channel; wherein the first channel is enabled to supply a fluid medium from the first port to the first cavity at a first velocity such that the ophthalmic lens positioned with the optic zone in proximity to the first cavity is subject to a first pressure force against the first cavity by a Bernoulli effect; characterised in that the ophthalmic lens is an intraocular lens comprising the optic zone and a haptic , and in that the Bernoulli gripper further comprises a mechanical stop to detain the haptic and prevent rotation of the ophthalmic lens.
An optical tomography system configured for automated detection and monitoring of dysplasia by analyzing feature data from 3D images of cells obtained from a sputum specimen obtained from a subject comprising: a sample adequacy classifier coupled to receive the feature data and generate a sample adequacy value; a normal/abnormal cell classifier coupled to receive the feature data and detect normal and abnormal cells; characterised in that it further comprises an abnormal cell classifier coupled to the normal/abnormal cell classifier to receive data for the abnormal cells and further classify the abnormal cells into cancerous and pre-cancerous cells; a pre-cancerous cell classifier coupled to the abnormal cell classifier to receive pre-cancerous cell data and identify each pre-cancerous cell as pre-cancerous cells of glandular origin or dysplastic; a dysplastic cell classifier coupled to pre-cancerous cell classifier to receive dysplastic cell data and further classify dysplastic cells as mild to moderate dysplasia, moderate to severe dysplasia, or severe dysplasia; and a treatment protocol generator is adapted to receive classification data from the abnormal cell classifier, the pre-cancerous cell classifier, and the dysplastic cell classifier and responsively generate a protocol to administer a cancer chemoprevention pharmaceutical to the subject over a predetermined time period if indicated by the detection of cancer, pre-cancerous or dysplastic cells. a sample adequacy classifier coupled to receive the feature data and generate a sample adequacy value; a normal/abnormal cell classifier coupled to receive the feature data and detect normal and abnormal cells; characterised in that it further comprises an abnormal cell classifier coupled to the normal/abnormal cell classifier to receive data for the abnormal cells and further classify the abnormal cells into cancerous and pre-cancerous cells; a pre-cancerous cell classifier coupled to the abnormal cell classifier to receive pre-cancerous cell data and identify each pre-cancerous cell as pre-cancerous cells of glandular origin or dysplastic; a dysplastic cell classifier coupled to pre-cancerous cell classifier to receive dysplastic cell data and further classify dysplastic cells as mild to moderate dysplasia, moderate to severe dysplasia, or severe dysplasia; and a treatment protocol generator is adapted to receive classification data from the abnormal cell classifier, the pre-cancerous cell classifier, and the dysplastic cell classifier and responsively generate a protocol to administer a cancer chemoprevention pharmaceutical to the subject over a predetermined time period if indicated by the detection of cancer, pre-cancerous or dysplastic cells.
A sheet (S) for a laser printer , the sheet comprising: a plurality of fibers (F); and a binding agent (B) for binding the plurality of fibers, wherein an abundance of the binding agent at the surfaces of the sheet is in the range of 20.0% or more and 80% or less when an abundance of the binding agent at the center of the sheet in a thickness direction of the sheet is taken as 100.0%, and a surface resistivity Rs (Ω/□) of the sheet is 1.0 × 10 12 (Ω/□) or less. a plurality of fibers (F); and a binding agent (B) for binding the plurality of fibers, wherein an abundance of the binding agent at the surfaces of the sheet is in the range of 20.0% or more and 80% or less when an abundance of the binding agent at the center of the sheet in a thickness direction of the sheet is taken as 100.0%, and a surface resistivity Rs (Ω/□) of the sheet is 1.0 × 10 12 (Ω/□) or less.
A segment routing-based data transmission method performed by a first network device, wherein the method comprises: • receiving (S 301) a first packet from a second network device, wherein the first packet comprises a first segment identifier, SID; • obtaining (S 302), based on the first SID, a first network slice identifier corresponding to the first network device; • generating (S 303) a second packet based on the first packet, wherein the second packet comprises the first network slice identifier, wherein ∘ in a first alternative, a flow label field in an internet protocol version 6, IPv6, packet header of the second packet comprises the first network slice identifier, or ∘ in a second alternative instead of the first alternative, a hop-by-hop, HBH, extension header of the second packet comprises the first network slice identifier; and • sending (S 304) the second packet. • receiving (S 301) a first packet from a second network device, wherein the first packet comprises a first segment identifier, SID; • obtaining (S 302), based on the first SID, a first network slice identifier corresponding to the first network device; • generating (S 303) a second packet based on the first packet, wherein the second packet comprises the first network slice identifier, wherein ∘ in a first alternative, a flow label field in an internet protocol version 6, IPv6, packet header of the second packet comprises the first network slice identifier, or ∘ in a second alternative instead of the first alternative, a hop-by-hop, HBH, extension header of the second packet comprises the first network slice identifier; and ∘ in a first alternative, a flow label field in an internet protocol version 6, IPv6, packet header of the second packet comprises the first network slice identifier, or ∘ in a second alternative instead of the first alternative, a hop-by-hop, HBH, extension header of the second packet comprises the first network slice identifier; and • sending (S 304) the second packet.
A nacelle assembly for a bypass gas turbine engine comprising: a core nacelle defined about an engine centerline axis (A); a fan nacelle mounted at least partially around said core nacelle to define a fan bypass flow path ; and a variable area fan nozzle in communication with said fan bypass flow path , said variable area fan nozzle having a first fan nacelle section and a second fan nacelle section , said second fan nacelle section axially movable relative said first fan nacelle section to define an auxiliary port to vary a fan nozzle exit area and adjust fan bypass airflow, characterized by said second fan nacelle section including an increased airfoil leading edge region relative to a baseline configuration with a radius less than 0.05δ where δ represents an upstream boundary layer thickness; said upstream boundary thickness layer being a turbulent boundary layer expanding from said first fan nacelle section, said turbulent boundary layer occurring at 0.8 M and 10668 m, wherein said leading edge region provides an increase in leading edge radius relative to said baseline configuration, and wherein said leading edge radius is 0.1δ to 0.5δ. a core nacelle defined about an engine centerline axis (A); a fan nacelle mounted at least partially around said core nacelle to define a fan bypass flow path ; and a variable area fan nozzle in communication with said fan bypass flow path , said variable area fan nozzle having a first fan nacelle section and a second fan nacelle section , said second fan nacelle section axially movable relative said first fan nacelle section to define an auxiliary port to vary a fan nozzle exit area and adjust fan bypass airflow, characterized by said second fan nacelle section including an increased airfoil leading edge region relative to a baseline configuration with a radius less than 0.05δ where δ represents an upstream boundary layer thickness; said upstream boundary thickness layer being a turbulent boundary layer expanding from said first fan nacelle section, said turbulent boundary layer occurring at 0.8 M and 10668 m, wherein said leading edge region provides an increase in leading edge radius relative to said baseline configuration, and wherein said leading edge radius is 0.1δ to 0.5δ.
Air filter element for insertion into an air filter housing , wherein the air filter element features: an inflow surface , an outflow surface , a filter medium , a filter element holding apparatus , wherein the filter medium extends between the inflow surface and the outflow surface in an axial direction (A) of the air filter element , wherein the filter element holding apparatus is connected to the filter medium , wherein the filter element holding apparatus extends between the inflow surface and the outflow surface along at least one part of the circumference of the filter medium , wherein the filter element holding apparatus features a holding arrangement projecting radially away from the filter medium and wherein the air filter element features a plurality of corners and two opposing filter medium lateral faces each, characterized in that on the opposing filter medium lateral faces each an end disk is attached to which the holding arrangement is provided which features a plurality of radially projecting bulges which are each disposed in the corners of the two opposing filter medium lateral faces and extend substantially only over one of the filter medium lateral faces , and that the holding arrangement features at least one recess in axial direction (A) designed as blind hole or through hole, wherein the recess is designed to receive a projection on the air filter housing side.
Autonomous agricultural machine comprising a frame with an inverted U-shaped section, to which at least one front wheel and at least one rear wheel is connected, defining a track, the frame having two sides, corresponding to the arms of the inverted U, and a roof, corresponding to the base of the inverted U, the autonomous agricultural machine further comprising a heat engine system including an engine , characterized in that the autonomous agricultural machine comprises a cooling system having an air circulation duct arranged in the upper part of the frame , directly under the roof, the air circulation duct having at least one opening for allowing the intake of outside air into the air circulation duct and an upper air outlet for expelling hot air upwards, above the roof, the cooling system also comprising a ventilation device for ensuring the circulation of air in the air circulation duct , the air circulation duct being configured to allow the circulation of air for cooling the engine , in particular for cooling a flow of water circulating in the engine and/or a flow of oil circulating in hydraulic circuits of hydraulic systems of the autonomous agricultural machine .
A grooming tool , comprising: a. an elongated outer surface having i. first end, and ii. a second end opposite the first end, b. an inner surface , c. a plurality of protrusions located on the outer surface at the first end, d. one or more blade slits located at the second end extending through the outer surface, and e. one or more blades extending along the length of the outer surface and having blade edges characterized in that the blade edges are connected to an adjustment mechanism located on the grooming tool, and in that the grooming tool further comprises: f. an actuator , in mechanical connection with the adjustment mechanism, having a blade activation setting wherein the blade edges extend above a rim of the one or more slits when the actuator is at the blade activation setting and a blade deactivation setting wherein the blade edges lie below the rim of the one or more slits when the actuator is at the blade deactivation setting, g. wherein the blade is movable perpendicular to the outer surface of the grooming tool through the blade slit. a. an elongated outer surface having i. first end, and ii. a second end opposite the first end, i. first end, and ii. a second end opposite the first end, b. an inner surface , c. a plurality of protrusions located on the outer surface at the first end, d. one or more blade slits located at the second end extending through the outer surface, and e. one or more blades extending along the length of the outer surface and having blade edges f. an actuator , in mechanical connection with the adjustment mechanism, having a blade activation setting wherein the blade edges extend above a rim of the one or more slits when the actuator is at the blade activation setting and a blade deactivation setting wherein the blade edges lie below the rim of the one or more slits when the actuator is at the blade deactivation setting, g. wherein the blade is movable perpendicular to the outer surface of the grooming tool through the blade slit.
A composition comprising: (a) a thermoplastic olefin resin comprising a polyolefin and an elastomer, wherein the thermoplastic olefin resin is present in the composition at an amount of about 80% to about 95%, by weight, based on the total weight of the composition, and the thermoplastic olefin resin comprises: (i) a polyolefin comprising a blend of two or more polypropylene homopolymers, and a propylene-ethylene copolymer having a polymeric chain that includes a random assortment of the monomers , wherein the polyolefin is present at an amount of about 40% to about 65%, by weight, based on a total weight of the composition, and (ii) an elastomer, wherein the elastomer is present at an amount of about 25% to about 45%, by weight, based on the total weight of the composition; (b) a filler component comprising a plurality of carbon fibers, wherein the filler component is present at an amount of about 1% to about 15%, by weight, based on the total weight of the composition; (c) a compatibilizer, wherein the compatibilizer is present at an amount of about 0.5% to about 10%, by weight, based on the total weight of the composition; and (d) an additive package, wherein the additive package is present at an amount of about 0.5% to about 10%, by weight, based on the total weight of the composition; wherein the composition has a density of about 0.90 g/cm 3 to about 0.98 g/cm 3 . (a) a thermoplastic olefin resin comprising a polyolefin and an elastomer, wherein the thermoplastic olefin resin is present in the composition at an amount of about 80% to about 95%, by weight, based on the total weight of the composition, and the thermoplastic olefin resin comprises: (i) a polyolefin comprising a blend of two or more polypropylene homopolymers, and a propylene-ethylene copolymer having a polymeric chain that includes a random assortment of the monomers , wherein the polyolefin is present at an amount of about 40% to about 65%, by weight, based on a total weight of the composition, and (ii) an elastomer, wherein the elastomer is present at an amount of about 25% to about 45%, by weight, based on the total weight of the composition; (i) a polyolefin comprising a blend of two or more polypropylene homopolymers, and a propylene-ethylene copolymer having a polymeric chain that includes a random assortment of the monomers , wherein the polyolefin is present at an amount of about 40% to about 65%, by weight, based on a total weight of the composition, and (ii) an elastomer, wherein the elastomer is present at an amount of about 25% to about 45%, by weight, based on the total weight of the composition; (b) a filler component comprising a plurality of carbon fibers, wherein the filler component is present at an amount of about 1% to about 15%, by weight, based on the total weight of the composition; (c) a compatibilizer, wherein the compatibilizer is present at an amount of about 0.5% to about 10%, by weight, based on the total weight of the composition; and (d) an additive package, wherein the additive package is present at an amount of about 0.5% to about 10%, by weight, based on the total weight of the composition;
A method for optimising a short-term stability of a clock pulse of a clock source synchronised with a first longterm stable reference-clock source with the following method steps: Transmission of clock-cycle numbers of a first reference clock of the first reference-clock source (2 1 , 2 2 , 2 3 , 2 4 ) to the clock source between an initialisation time and, in each case, several times, within a data-packet orientated network , Adjustment of the clock pulse of the clock source by controlling a difference between clock-cycle numbers of the first reference clock received in the clock source and clock-cycle numbers of the first reference clock between the initialisation time and the respective reception times of the clock-cycle numbers of the first reference clock, wherein the received clock-cycle numbers of the first reference clock are matched with a frequency of a frequency oscillator integrated in a phase-locked loop for the controlling, Transmission of clock-cycle numbers of a second reference clock of the data packet which receives the clock-cycle number from at least one second, free-running reference-clock source (11 1 , 11 2 ) at individual times to the clock source , and Limiting of the difference between the clock pulse of the clock source and each second reference clock to a first adjustable threshold value. Transmission of clock-cycle numbers of a first reference clock of the first reference-clock source (2 1 , 2 2 , 2 3 , 2 4 ) to the clock source between an initialisation time and, in each case, several times, within a data-packet orientated network , Adjustment of the clock pulse of the clock source by controlling a difference between clock-cycle numbers of the first reference clock received in the clock source and clock-cycle numbers of the first reference clock between the initialisation time and the respective reception times of the clock-cycle numbers of the first reference clock, wherein the received clock-cycle numbers of the first reference clock are matched with a frequency of a frequency oscillator integrated in a phase-locked loop for the controlling, Transmission of clock-cycle numbers of a second reference clock of the data packet which receives the clock-cycle number from at least one second, free-running reference-clock source (11 1 , 11 2 ) at individual times to the clock source , and Limiting of the difference between the clock pulse of the clock source and each second reference clock to a first adjustable threshold value.
A SOC estimating apparatus , comprising: a measuring unit configured to measure a current and voltage of a battery cell and output the measured current information and the measured voltage information; and a control unit configured to receive the current information and the voltage information from the measuring unit, calculate a charging and discharging time during which the battery cell is charged or discharged and a charging and discharging interruption time during which the charging and discharging is interrupted, estimate a first SOC of the battery cell according to the current information during the charging and discharging time, determine whether or not to estimate a second SOC of the battery cell according to the voltage information based on a comparison result of the charging and discharging interruption time and a preset reference time, estimate the second SOC of the battery cell when it is determined that the second SOC should be estimated, estimate a third SOC by performing a weighted summation to the first SOC and the second SOC based on the charging and discharging interruption time when the second SOC is estimated, and determine the estimated third SOC as the SOC of the battery cell. a measuring unit configured to measure a current and voltage of a battery cell and output the measured current information and the measured voltage information; and a control unit configured to receive the current information and the voltage information from the measuring unit, calculate a charging and discharging time during which the battery cell is charged or discharged and a charging and discharging interruption time during which the charging and discharging is interrupted, estimate a first SOC of the battery cell according to the current information during the charging and discharging time, determine whether or not to estimate a second SOC of the battery cell according to the voltage information based on a comparison result of the charging and discharging interruption time and a preset reference time, estimate the second SOC of the battery cell when it is determined that the second SOC should be estimated, estimate a third SOC by performing a weighted summation to the first SOC and the second SOC based on the charging and discharging interruption time when the second SOC is estimated, and determine the estimated third SOC as the SOC of the battery cell.