mhurhangee/ep-ind-claims huggingface dataset:
Fender arrangement for docking a marine vessel with a boat landing of a marine offshore structure such as a wind power plant, including at least one fender unit (12, 13) composed of elastically deformable material and provided with a receiving recess for a docking rail of said boat landing, characterized in that the fender unit (12, 13) exhibits an internal deformation control cavity positioned at a distance from the receiving recess within the fender unit (12, 13) and extending at least along the width of said receiving recess, controlling deformation of the fender unit (12, 13) into forming a gripping hold of a docking rail by compression of the internal deformation control cavity when the fender unit (12, 13) is pressed against the docking rail.
A method for manufacturing a hot-pressed member, the method comprising: heating a steel sheet to be hot-pressed having a coated layer provided directly on a surface thereof, wherein the melting point of the coated layer is not lower than 800°C and a coating weight of the coated layer per side is from 45 to 90 g/m 2, up to a temperature in the range of the Ac 3 transformation point to 1000°C at a heating rate not less than 3°C/s; and hot-pressing the heated steel sheet.
A flight control system for a helicopter having a main rotor and a tail rotor, comprising: an automatic rotor speed control configured to transition the main rotor and the tail rotor between a high speed and a low speed in response to a plurality of received information without pilot action, wherein said plurality of received information comprises a height above ground level, a knot indicated air speed, an outside air temperature, a barometric altitude, a pressure altitude, a density altitude, and an engine operational status, said automatic rotor speed control configured to transition the main rotor and the tail rotor from the low speed to the high speed if any one of said plurality of received information comprises at least one of a plurality of inhibits, wherein said automatic rotor speed control is configured to transition the main rotor and the tail rotor from the low speed to the high speed if said plurality of received information comprises at least one of said plurality of inhibits being received for a predetermined period of time, wherein, for a given inhibit, the automatic rotor speed control is configured to prevent return to the low speed until said plurality of information comprises an associated acceptance condition, characterized in that the given inhibit has a first threshold value and the associated acceptance condition has a second threshold value different from the first threshold value. an automatic rotor speed control configured to transition the main rotor and the tail rotor between a high speed and a low speed in response to a plurality of received information without pilot action, wherein said plurality of received information comprises a height above ground level, a knot indicated air speed, an outside air temperature, a barometric altitude, a pressure altitude, a density altitude, and an engine operational status, said automatic rotor speed control configured to transition the main rotor and the tail rotor from the low speed to the high speed if any one of said plurality of received information comprises at least one of a plurality of inhibits, wherein said automatic rotor speed control is configured to transition the main rotor and the tail rotor from the low speed to the high speed if said plurality of received information comprises at least one of said plurality of inhibits being received for a predetermined period of time, wherein, for a given inhibit, the automatic rotor speed control is configured to prevent return to the low speed until said plurality of information comprises an associated acceptance condition, characterized in that the given inhibit has a first threshold value and the associated acceptance condition has a second threshold value different from the first threshold value.
A process of preparation of a biodegradable polymer scaffold useful for tissue engineering, therapeutic compound delivery and/or wound dressing, wherein said process comprises a. spreading surfactant coated polymer particles on a support; b. soaking said particles with alcohol; and c. washing the above with water to obtain the polymer scaffold. a. spreading surfactant coated polymer particles on a support; b. soaking said particles with alcohol; and c. washing the above with water to obtain the polymer scaffold.
Inner tray, placed in a chamber, comprising a plurality of parallel beams, located in a common horizontal plane and fixed via their ends to the chamber wall, and, between said beams and supported thereby, rows of adjacent rectangular plates, completely covering the space between the beams, the supporting edges of the plates through which said plates rest on the beams, being folded downward by two substantially right-angle folds, characterized in that each of the edges of the plates, perpendicular to the beams, is folded so as to form a female part or a male part capable of nesting respectively in a male part or a female part formed by the folded edge of the adjacent plate.
A method of inspecting data traffic in a telecommunications network, the method comprising: a node (210; 220) of the telecommunications network receiving data packets of a flow; the node (210; 220) forwarding the received data packets of the flow to a downstream node (220; 230) of the telecommunications network; the node (210; 220) taking a decision whether to perform inspection of a payload section of at least one data packet of the flow at the node (210; 220) to classify the flow, said decision taken by the node (210; 220) being based on a capacity of the node (210;220) to perform said inspection at the node (210; 220); the node (210; 220) indicating a result of said decision to the downstream node (220; 230); in response to said decision being to perform said inspection at the node (210; 220), the node performing said inspection to obtain a partial classification of the flow; and the node (210; 220) indicating the partial classification of the flow to the downstream node (220; 230). a node (210; 220) of the telecommunications network receiving data packets of a flow; the node (210; 220) forwarding the received data packets of the flow to a downstream node (220; 230) of the telecommunications network; the node (210; 220) taking a decision whether to perform inspection of a payload section of at least one data packet of the flow at the node (210; 220) to classify the flow, said decision taken by the node (210; 220) being based on a capacity of the node (210;220) to perform said inspection at the node (210; 220); the node (210; 220) indicating a result of said decision to the downstream node (220; 230); in response to said decision being to perform said inspection at the node (210; 220), the node performing said inspection to obtain a partial classification of the flow; and the node (210; 220) indicating the partial classification of the flow to the downstream node (220; 230).
Input unit for a reverse vending machine, wherein the input unit has: • a conveying unit with at least one conveying belt (5-1, 5-2) for receiving and transporting along a transporting direction an empty container placed on the at least one conveying belt (5-1, 5-2), • wherein the at least one conveying belt (5-1, 5-2) circulates on a conveying-belt carrying arm (7-1, 7-2) which, at one end thereof, is coupled to the conveying unit in a releasable manner by a displacement-action coupling device (33-1, 33-2) and a pivoting-action coupling device (31-1, 31-2); and a guide structure (9; 63-1, 63-2) for carrying and guiding the conveying unit along the transporting direction relative to a housing of the reverse vending machine. • a conveying unit with at least one conveying belt (5-1, 5-2) for receiving and transporting along a transporting direction an empty container placed on the at least one conveying belt (5-1, 5-2), • wherein the at least one conveying belt (5-1, 5-2) circulates on a conveying-belt carrying arm (7-1, 7-2) which, at one end thereof, is coupled to the conveying unit in a releasable manner by a displacement-action coupling device (33-1, 33-2) and a pivoting-action coupling device (31-1, 31-2); and
A headphone socket, wherein the headphone socket comprises: a headphone socket body and a spring plate part; the spring plate part is clamped into the headphone socket body, and the spring plate part comprises: a microphone spring plate, a grounded spring plate, a right-earpiece spring plate, an identifying spring plate configured to detect charging availability, a headphone availability detection spring plate, and a left-earpiece spring plate; and the identifying spring plate configured to detect charging availability is configured to be in contact with a right-channel terminal of a headphone plug that is inserted into the headphone socket, so that a device at which the headphone socket is located can charge headphones by using the microphone spring plate that is configured to be in contact with a microphone terminal of the headphone plug; wherein in a process of inserting the headphone plug into the headphone socket, the identifying spring plate configured to detect charging availability is configured to be in contact with the right-channel terminal after the microphone spring plate is configured to be in contact with the microphone terminal of the headphone plug; and wherein in a process of pulling out the headphone plug from the headphone socket, the microphone spring plate is configured to break off contact with the microphone terminal of the headphone plug after the identifying spring plate configured to detect charging availability is configured to break off contact with the right-channel terminal.
A method for manufacturing an apicoectomy guide plate, comprising steps of: a) scanning oral cavity characteristics of a patient to obtain a tooth jaw image model, a soft tissue image model, an alveolar bone image model, a tooth crown image model and a tooth root image model, the tooth root image model defined with at least one affected area; b) calculating position relations of the tooth jaw image model corresponding to the soft tissue image model and the alveolar bone image model to determine at least one osteotomy and apicoectomy procedure, which communicates from an outer peripheral surface of the tooth jaw image model to the affected area, and establishing a guide plate model corresponding to the tooth jaw image model and the osteotomy and apicoectomy procedure; and c) outputting the apicoectomy guide plate constructed according to the guide plate model, the apicoectomy guide plate comprising a connecting portion corresponding to the soft tissue image model and the tooth crown image model, and a positioning portion corresponding to the affected area and comprising at least one pre-drilled hole corresponding to the osteotomy and apicoectomy procedure. a) scanning oral cavity characteristics of a patient to obtain a tooth jaw image model, a soft tissue image model, an alveolar bone image model, a tooth crown image model and a tooth root image model, the tooth root image model defined with at least one affected area; b) calculating position relations of the tooth jaw image model corresponding to the soft tissue image model and the alveolar bone image model to determine at least one osteotomy and apicoectomy procedure, which communicates from an outer peripheral surface of the tooth jaw image model to the affected area, and establishing a guide plate model corresponding to the tooth jaw image model and the osteotomy and apicoectomy procedure; and c) outputting the apicoectomy guide plate constructed according to the guide plate model, the apicoectomy guide plate comprising a connecting portion corresponding to the soft tissue image model and the tooth crown image model, and a positioning portion corresponding to the affected area and comprising at least one pre-drilled hole corresponding to the osteotomy and apicoectomy procedure.
A system for iterative ray tracing, comprising: receiving a first input comprising data indicative of an oblique incidence, OI, ionogram at an image processing module (304, 502); reducing at least one of noise and other spurious signals in the data, with the image processing module to programically produce a first output comprising first output data; autoscaling the first output data received from the image processing module, with an autoscaling and extraction module (306, 504) to programically produce a second output comprising data indicative of a separated O- trace and an X- trace; and iteratively processing the second output received from the autoscaling and extraction module, with an inversion module (308, 506), to programically predict an electron density profile over a measurement region. receiving a first input comprising data indicative of an oblique incidence, OI, ionogram at an image processing module (304, 502); reducing at least one of noise and other spurious signals in the data, with the image processing module to programically produce a first output comprising first output data; autoscaling the first output data received from the image processing module, with an autoscaling and extraction module (306, 504) to programically produce a second output comprising data indicative of a separated O- trace and an X- trace; and iteratively processing the second output received from the autoscaling and extraction module, with an inversion module (308, 506), to programically predict an electron density profile over a measurement region.
Electrical machine, comprising: - a rotatably mounted rotor with a plurality of rotor poles, - a stator with a plurality of stator teeth (301, 303) which are arranged so as to face the rotor poles, wherein - a non-wound stator tooth is provided between two stator teeth which are each individually wound with turns of at least one coil, and wherein each of the coils is associated with a phase, characterized in that each phase is connected to a separate single-phase converter; wherein a width of the two wound stator teeth is greater than a width of the non-wound stator tooth, wherein a ratio of the width of a wound stator tooth to the width of the non-wound stator tooth is greater than or equal to 1.5 and less than or equal to 2.5. - a rotatably mounted rotor with a plurality of rotor poles, - a stator with a plurality of stator teeth (301, 303) which are arranged so as to face the rotor poles, wherein - a non-wound stator tooth is provided between two stator teeth which are each individually wound with turns of at least one coil, and wherein each of the coils is associated with a phase, characterized in that each phase is connected to a separate single-phase converter; wherein a width of the two wound stator teeth is greater than a width of the non-wound stator tooth, wherein a ratio of the width of a wound stator tooth to the width of the non-wound stator tooth is greater than or equal to 1.5 and less than or equal to 2.5.
An aqueous liquid fabric care composition comprising acetic acid; and one or more fragrance materials, wherein the one or more fragrance materials is characterized by a logP of no greater than 2.5, wherein the logP is determined as described herein; wherein the fabric care composition is characterized by a neat pH of from 2 to 4. acetic acid; and one or more fragrance materials, wherein the one or more fragrance materials is characterized by a logP of no greater than 2.5, wherein the logP is determined as described herein; wherein the fabric care composition is characterized by a neat pH of from 2 to 4.
A bioreactor vessel (12, 112), comprising: a bottom; a peripheral sidewall, the bottom and the peripheral sidewall defining an interior space (18, 118) for receiving a flexible bioprocessing bag; a recess in the bottom for receiving a base plate (310, 410, 510) of the flexible bioprocessing bag; and a locking mechanism configured to retain the base plate (310, 410, 510) in the recess and to secure the base plate (310, 410, 510) to the bottom of the bioreactor vessel (12, 112); and wherein: the locking mechanism includes a latch (324, 326); wherein the latch (324, 326, 440, 540) is moveable between an engagement position where the latch (324, 326, 440, 540) engages the base plate (310, 410, 510) when the base plate (310, 410, 510) is positioned in the recess in the bottom of the bioreactor vessel (12, 112) to retain the base plate (310, 410, 510) in the recess, and a clearance position where the base plate (310, 410, 510) can be withdrawn from the recess. a bottom; a peripheral sidewall, the bottom and the peripheral sidewall defining an interior space (18, 118) for receiving a flexible bioprocessing bag; a recess in the bottom for receiving a base plate (310, 410, 510) of the flexible bioprocessing bag; and a locking mechanism configured to retain the base plate (310, 410, 510) in the recess and to secure the base plate (310, 410, 510) to the bottom of the bioreactor vessel (12, 112); and wherein: the locking mechanism includes a latch (324, 326); wherein the latch (324, 326, 440, 540) is moveable between an engagement position where the latch (324, 326, 440, 540) engages the base plate (310, 410, 510) when the base plate (310, 410, 510) is positioned in the recess in the bottom of the bioreactor vessel (12, 112) to retain the base plate (310, 410, 510) in the recess, and a clearance position where the base plate (310, 410, 510) can be withdrawn from the recess.
A cap for closing a container, the cap comprising: a cap body for contacting an open end of the container; and at least one connector mounted to an exterior of said cap body for coupling said cap body to the container, said at least one connector including an engaging piece, wherein an initial movement of said at least one connector causes said engaging piece to contact the container, and wherein a further movement of said at least one connector causes said engaging piece to affix said cap body to the container, characterized in that the engaging piece contacts a sidewall of the container and said at least one connector further includes a lever. a cap body for contacting an open end of the container; and at least one connector mounted to an exterior of said cap body for coupling said cap body to the container, said at least one connector including an engaging piece, wherein an initial movement of said at least one connector causes said engaging piece to contact the container, and wherein a further movement of said at least one connector causes said engaging piece to affix said cap body to the container, characterized in that the engaging piece contacts a sidewall of the container and said at least one connector further includes a lever.
A remote device (14, 14', 14", 14''') for receiving wireless power from an inductive power supply, said remote device comprising: - a secondary coil (22, 22', 22", 22''') arranged to receive the wireless power from the inductive power supply at an operating power transfer frequency; - a rectifier (30, 30', 30", 30'''); - a charging circuit (32, 32', 32", 32'''); - a battery (34, 34', 34", 34'''); - a main circuit (36, 36', 36", 36'''); - one or more identification capacitors (38', 38", 38a-c''') connected in parallel to the secondary coil that are configured to provide one or more predetermined resonant identification frequencies different from the operating power transfer frequency, wherein the one or more predetermined resonant identification frequencies identify a class of the remote device; wherein all the remote devices operating within a given set of operating parameters are assigned the same class; - a load enable delay circuit (54', 54", 54''') arranged to prevent the charging circuit and/or the main circuit from receiving power for a period of time sufficient for the one or more identification capacitors to establish resonance when the power supply is cycling through each of the identification frequencies and for that resonance to be conveyed to the power supply through reflected impedance; and wherein the one or more predetermined resonant identification frequencies are configured to allow the class of the remote device to be identified by the inductive power supply. - a secondary coil (22, 22', 22", 22''') arranged to receive the wireless power from the inductive power supply at an operating power transfer frequency; - a rectifier (30, 30', 30", 30'''); - a charging circuit (32, 32', 32", 32'''); - a battery (34, 34', 34", 34'''); - a main circuit (36, 36', 36", 36'''); - one or more identification capacitors (38', 38", 38a-c''') connected in parallel to the secondary coil that are configured to provide one or more predetermined resonant identification frequencies different from the operating power transfer frequency, wherein the one or more predetermined resonant identification frequencies identify a class of the remote device; wherein all the remote devices operating within a given set of operating parameters are assigned the same class; - a load enable delay circuit (54', 54", 54''') arranged to prevent the charging circuit and/or the main circuit from receiving power for a period of time sufficient for the one or more identification capacitors to establish resonance when the power supply is cycling through each of the identification frequencies and for that resonance to be conveyed to the power supply through reflected impedance; and
An apparatus comprising: - means for storing classifier parameters, and - means for using a classifier and the classifier parameters to determine a category of at least one data composition, the at least one data composition comprising utility usage information concerning a utility unit, wherein the category comprises a life condition present in the at least one utility unit, wherein the life condition comprises at least one of: whether the utility unit is occupied by humans, whether the utility unit is occupied by a teen-aged human, whether the utility unit is occupied by at least one toddler, whether humans in the utility unit watch television in excess of a first threshold time per day, whether humans in the utility unit play video games in excess of a second threshold time per day and whether humans inhabiting the utility unit are employed outside of the utility unit, and in that the apparatus is further configured to trigger a modification in a utility delivery network as a response to the determined category, characterized in that the modification in the utility delivery network comprises either prioritizing higher the utility unit, thereby decreasing risk that the utility unit experiences an interruption in receiving the utility, or prioritizing lower the utility unit. - means for storing classifier parameters, and - means for using a classifier
Ear protector comprising an earpiece with a sound damping filter, comprising a membrane mounted on a membrane support, wherein the membrane support is mounted in a sound channel of the ear protector connecting an inside and outside of the ear protector, characterized in that the membrane is composed of a non-porous material enabling water vapour molecules to be transported through the membrane from the inside to the outside of the ear protector by way of absorption and evaporation process and preventing the transmission of water from the outside to the inside of the ear protector.