mhurhangee/patent-ind-claim-en huggingface dataset:
A feeding unit for feeding a food product for a machine for making filled pasta, the feeding unit comprising at least one feed duct having a main direction of extension D, an outlet and an inlet , located on a lateral surface of the feed duct , for the food product ; a first sleeve fitted coaxially over the duct and rotatable relative to the duct about an axis of rotation R in order to regulate the cross section of the inlet; an actuator comprising a stem inserted in the first sleeve and movable along the main direction of extension D between a first, retracted operating position and a second, extracted operating position to allow the food product to enter the feed duct and to push at least one single portion of food product out of the duct through the outlet , the feeding unit comprises a second sleeve , fitted between the first sleeve and the stem , the stem sliding inside the second sleeve and the first sleeve rotating on the second sleeve ; the second sleeve having an outside surface whose cross section is circular in profile; characterized in that the second sleeve has an inside surface whose cross section is not circular in profile, the stem having a cross section whose outer profile corresponds to a profile of the cross section of the inside surface of the second sleeve .
A screen control device comprising: a screen that is disposed at a front portion of a saddled vehicle and that shields the body of a driver of the saddled vehicle from an airflow; a motor that moves the screen upward and downward along a guide ; and a position detection means that detects a position of the screen ; characterized in that the screen control device further comprises an output detection means that detects an output of the motor , wherein the screen control device further includes a motor output setting means that changes the output of the motor in accordance with a detection value of the position detection means when the screen is driven in a downward direction, and wherein the motor output setting means changes the output of the motor in response to the screen reaching a predetermined intermediate position (S1, S2) between an uppermost position (UP) and a lowermost position (LO) of the screen , wherein the screen control device further comprises a storage means that stores a minimum output for driving (MIN) that is required for driving the screen in the downward direction, wherein the predetermined intermediate position (S1, S2) includes a first intermediate position (S1) and a second intermediate position (S2) below the first intermediate position (S1), and wherein the motor output setting means drives the motor by a limited output (LIM), which is obtained by adding a predetermined addable output (A) to the driving minimum output (MIN), upon the screen reaching the second intermediate position (S2). a screen that is disposed at a front portion of a saddled vehicle and that shields the body of a driver of the saddled vehicle from an airflow; a motor that moves the screen upward and downward along a guide ; and a position detection means that detects a position of the screen ; characterized in that the screen control device further comprises an output detection means that detects an output of the motor , wherein the screen control device further includes a motor output setting means that changes the output of the motor in accordance with a detection value of the position detection means when the screen is driven in a downward direction, and wherein the motor output setting means changes the output of the motor in response to the screen reaching a predetermined intermediate position (S1, S2) between an uppermost position (UP) and a lowermost position (LO) of the screen , wherein the screen control device further comprises a storage means that stores a minimum output for driving (MIN) that is required for driving the screen in the downward direction, wherein the predetermined intermediate position (S1, S2) includes a first intermediate position (S1) and a second intermediate position (S2) below the first intermediate position (S1), and wherein the motor output setting means drives the motor by a limited output (LIM), which is obtained by adding a predetermined addable output (A) to the driving minimum output (MIN), upon the screen reaching the second intermediate position (S2).
An anchor delivery system for treatment of body tissue comprising: an anchor assembly, the anchor assembly including a first anchor component a second anchor component , and a connector; and a delivery device , the delivery device including a needle assembly , wherein the first anchor component is positioned within the needle assembly , a needle deploy actuator , configured to be directly actuated by a user to accomplish automated deployment into the body tissue of the needle assembly , a spool assembly configured to control the position of the needle assembly , characterized in that the delivery device further including a retract lever configured to be directly actuated by a user, and the lever is configured to accomplish manual withdrawal of the needle assembly from the body tissue, and wherein the first anchor component is configured to stay in the body when the needle assembly is withdrawn. an anchor assembly, the anchor assembly including a first anchor component a second anchor component , and a connector; and a delivery device , the delivery device including a needle assembly , wherein the first anchor component is positioned within the needle assembly , a needle deploy actuator , configured to be directly actuated by a user to accomplish automated deployment into the body tissue of the needle assembly , a spool assembly configured to control the position of the needle assembly , characterized in that the delivery device further including a retract lever configured to be directly actuated by a user, and the lever is configured to accomplish manual withdrawal of the needle assembly from the body tissue, and wherein the first anchor component is configured to stay in the body when the needle assembly is withdrawn.
A steerable antenna assembly "SAA" for receiving a plurality of incident radio frequency "RF" signals at a plurality of incident angles , the SAA comprising: an approximately spherical dielectric lens "SDL" having a front hemispherical surface and a back hemispherical surface , the SDL being operable to receive and focus the plurality of incident RF signals to create a plurality of focused RF signals at a plurality of focal points approximately along the back hemispherical surface of the SDL, the plurality of focal points having positions along the back hemispherical surface of the SDL that correspond to the plurality of incident angles of the plurality of incident RF signals; a waveguide aperture block "WAB" positioned adjacent to the back hemispherical surface of the SDL, the WAB being in signal communication with the back hemispherical surface of the SDL, the WAB being operable to receive the plurality of focused RF signals; a switch aperture matrix "SAM" in signal communication with the WAB, the SAM being operable to electronically steer a beam of a radiation pattern produced by the SAA, the SAM being operable to switch between the plurality of focused RF signals based on electronically steering the beam; a radial aperture combiner "RAC" in signal communication with SAM, the RAC being operable to produce a received RF signal from the plurality of focused RF signals; and a stepper motor configured to selectively rotate the WAB and SDL based on a control signal from a controller. an approximately spherical dielectric lens "SDL" having a front hemispherical surface and a back hemispherical surface , the SDL being operable to receive and focus the plurality of incident RF signals to create a plurality of focused RF signals at a plurality of focal points approximately along the back hemispherical surface of the SDL, the plurality of focal points having positions along the back hemispherical surface of the SDL that correspond to the plurality of incident angles of the plurality of incident RF signals; a waveguide aperture block "WAB" positioned adjacent to the back hemispherical surface of the SDL, the WAB being in signal communication with the back hemispherical surface of the SDL, the WAB being operable to receive the plurality of focused RF signals; a switch aperture matrix "SAM" in signal communication with the WAB, the SAM being operable to electronically steer a beam of a radiation pattern produced by the SAA, the SAM being operable to switch between the plurality of focused RF signals based on electronically steering the beam; a radial aperture combiner "RAC" in signal communication with SAM, the RAC being operable to produce a received RF signal from the plurality of focused RF signals; and a stepper motor configured to selectively rotate the WAB and SDL based on a control signal from a controller.
Method for transmitting data via a high-voltage line or a medium-voltage line, in which method a first primary frequency channel (A1) is used to transmit data from a first data transmission device (TRA1) to a second data transmission device (TRB1) and first frequency channel allocation information (SMA1) is transmitted on a first secondary frequency channel (MA1), characterized in that a third data transmission device (TRA2) receives the first frequency channel allocation information (SMA1) on the first secondary frequency channel (MA1) from the first data transmission device (TRA1), or in that the second data transmission device (TRB1) receives the first frequency channel allocation information (SMA1) on the first secondary frequency channel (MA1) from the first data transmission device (TRA1) and forwards it to the third data transmission device (TRA2), in that the third data transmission device (TRA2) determines the signal strength of the first frequency channel allocation information (SMA1) received, and forwards the first frequency channel allocation information (SMA1) and the signal strength to a fourth data transmission device (TRB2) on a second secondary frequency channel (MA2) such that the fourth data transmission device (TRB2) recognizes allocation of the first primary frequency channel (A1) and releases said frequency channel (A1) for its own use to transmit data using the third data transmission device (TRA2) if the signal strength of the frequency channel allocation information (SMA1) received at the third data transmission device (TRA2) falls below a first threshold value.
An electrical switching device (100; 650; 700) comprising: a first movable contact (110; 710); a second movable contact (120; 720); a blocking member (140; 740) configured for engagement with said second movable contact (120; 720); an arresting member (130; 730) configured for selective engagement with said first movable contact (110; 710) such that, when engaged, movement of said first movable contact (110; 710) is prevented in a first direction (A); and an actuator configured to adjust the position of said arresting member (130; 730) to effect opening and closing of the electrical switching device (100; 650; 700); wherein during opening of said electrical switching device (100; 650; 700), said actuator removes said arresting member (130; 730) from engagement with said first movable contact (110; 710) such that said first movable contact (110; 710) and said second movable contact (120; 720) move in the first direction (A) until said second movable contact (120; 720) engages said blocking member (140; 740), wherein after said second movable contact (120; 720) engages said blocking member (140; 740), said first movable contact (110; 710) continues moving in the first direction (A), thereby causing said first movable contact (110; 710) to separate from said second movable contact (120; 720). a first movable contact (110; 710); a second movable contact (120; 720); a blocking member (140; 740) configured for engagement with said second movable contact (120; 720); an arresting member (130; 730) configured for selective engagement with said first movable contact (110; 710) such that, when engaged, movement of said first movable contact (110; 710) is prevented in a first direction (A); and an actuator configured to adjust the position of said arresting member (130; 730) to effect opening and closing of the electrical switching device (100; 650; 700); wherein during opening of said electrical switching device (100; 650; 700), said actuator removes said arresting member (130; 730) from engagement with said first movable contact (110; 710) such that said first movable contact (110; 710) and said second movable contact (120; 720) move in the first direction (A) until said second movable contact (120; 720) engages said blocking member (140; 740), wherein after said second movable contact (120; 720) engages said blocking member (140; 740), said first movable contact (110; 710) continues moving in the first direction (A), thereby causing said first movable contact (110; 710) to separate from said second movable contact (120; 720).
A method of handling Time-Sensitive Networking, TSN, over a radio access network, RAN , the method comprising the steps of: receiving system information from a radio base station (200; 1400; 1612; 1720) of the RAN , wherein the system information is implicative or indicative of support for TSN through the radio base station (200; 1400; 1612; 1720); and establishing or initiating to establish , depending on the received system information , at least one TSN stream of the TSN through the radio base station (200; 1400; 1612; 1720). receiving system information from a radio base station (200; 1400; 1612; 1720) of the RAN , wherein the system information is implicative or indicative of support for TSN through the radio base station (200; 1400; 1612; 1720); and establishing or initiating to establish , depending on the received system information , at least one TSN stream of the TSN through the radio base station (200; 1400; 1612; 1720).
A computer-implemented method for classifying an agent controlling a client device requesting content from a server, comprising: monitoring, by a classification server , a plurality of events associated with an interaction made by a client device with a server ; storing, by the classification server in a memory, a record of the monitored events in an order and timing in which the events occurred; comparing, by the classification server , the record of the monitored events against probabilistic models of expected inter-event times; determining, by the classification server based on the comparison, a classification time representing a time at which the classification server can classify an agent controlling the client device with a predetermined level of confidence; and classifying, by the classification server , at or after the determined classification time, the agent controlling the client device as legitimate or illegitimate based on the events and the order of events in the record. monitoring, by a classification server , a plurality of events associated with an interaction made by a client device with a server ; storing, by the classification server in a memory, a record of the monitored events in an order and timing in which the events occurred; comparing, by the classification server , the record of the monitored events against probabilistic models of expected inter-event times; determining, by the classification server based on the comparison, a classification time representing a time at which the classification server can classify an agent controlling the client device with a predetermined level of confidence; and classifying, by the classification server , at or after the determined classification time, the agent controlling the client device as legitimate or illegitimate based on the events and the order of events in the record.
A cosmetics applicator made of plastic and having a bristle carrier and having bristles integrally bonded therewith as a single part, the bristle carrier being a permanent magnet while the bristles as such are non-magnetic, wherein the bristle carrier comprises a core made of a first plastic filled with magnetic particles and forming an interface at least at the outer circumference thereof, said interface being enclosed by a layer of a second, non-magnetic plastic, wherein the first and the second plastic are preferably welded to each other and the second plastic is softer and/or more elastic than the first plastic, and wherein the second plastic is integrally connected to the bristles as a single piece.
A communication unit configured to communicate according to a protocol in which unit addresses are not of a predetermined length, the communication unit configured to: send a discovery request to a discoverable unit ; receive a discovery response from the discoverable unit , the discovery response comprising an address field of length unknown to the communication unit , the discovery response further comprising a flag following the address field, wherein the address field is populated with bits all having a first bit value, the flag having a second bit value different to the first bit value; and determine the address field length by counting the number of bits prior to the flag. send a discovery request to a discoverable unit ; receive a discovery response from the discoverable unit , the discovery response comprising an address field of length unknown to the communication unit , the discovery response further comprising a flag following the address field, wherein the address field is populated with bits all having a first bit value, the flag having a second bit value different to the first bit value; and determine the address field length by counting the number of bits prior to the flag.
A well system, comprising: a target wellbore that penetrates a subterranean formation ; a relief wellbore drilled toward the target wellbore and a target intercept location where a fluid flows into the target wellbore from the subterranean formation ; a bottom hole assembly coupled to a drill string extended into the relief wellbore and including a fiber optic ranging assembly having one or more fiber optic sensors (202a-g) positioned on a tubular member , wherein the one or more fiber optic sensors (202a-g) measure at least one of acoustic energy and thermal energy emitted by the fluid as it flows into the target wellbore ; and a computer system communicably coupled to the one or more fiber optic sensors (202a-g) to process measurements of the fluid obtained by the one or more fiber optic sensors (202a-g). a target wellbore that penetrates a subterranean formation ; a relief wellbore drilled toward the target wellbore and a target intercept location where a fluid flows into the target wellbore from the subterranean formation ; a bottom hole assembly coupled to a drill string extended into the relief wellbore and including a fiber optic ranging assembly having one or more fiber optic sensors (202a-g) positioned on a tubular member , wherein the one or more fiber optic sensors (202a-g) measure at least one of acoustic energy and thermal energy emitted by the fluid as it flows into the target wellbore ; and a computer system communicably coupled to the one or more fiber optic sensors (202a-g) to process measurements of the fluid obtained by the one or more fiber optic sensors (202a-g).
A method for decoding a video comprising: - decoding a partitioning tree structure corresponding to a partitioning process of a block of an image of the video; - decoding said block based at least on said partitioning tree structure; wherein a single partitioning tree structure is shared between luma and chroma blocks from a root node of the partitioning tree down to a switching node and separate partitioning tree structures are determined for luma blocks and for chroma blocks from the switching node down to a leaf node of the partitioning tree; the switching node being determined based on a partitioning block size. - decoding a partitioning tree structure corresponding to a partitioning process of a block of an image of the video; - decoding said block based at least on said partitioning tree structure;
An IL-15 heterodimeric protein, comprising: protein (I) and protein (II); wherein said protein (I) is a fusion protein reassembled and formed by IL-15 fused to a first Fc variant; said protein (II) is a fusion protein reassembled and formed by IL-15Rα or its variant fused to a second Fc variant; protein (I) and protein (II) form a stable heterodimeric protein by the interaction between the first Fc variant and the second Fc variant; wherein IL-15Rα variant is an extracellular domain portion of IL-15 Rα or functional fragment thereof, said functional fragment is a truncated form of IL-15Rα extracellular domain portion with 65 to 102 amino acids; wherein the first Fc variant and the second Fc variant are selected from Knob modified Fc and Hole modified Fc, respectively; and when the first Fc variant is a Knob modified Fc, the second Fc variant is a Hole modified Fc; or when the second Fc variant is a Knob modified Fc, the first Fc variant is a Hole modified Fc; and the first Fc variant and the second Fc variant are linked to the C-terminus of IL-15 and IL-15Rα. protein (I) and protein (II); wherein said protein (I) is a fusion protein reassembled and formed by IL-15 fused to a first Fc variant; said protein (II) is a fusion protein reassembled and formed by IL-15Rα or its variant fused to a second Fc variant; protein (I) and protein (II) form a stable heterodimeric protein by the interaction between the first Fc variant and the second Fc variant; wherein IL-15Rα variant is an extracellular domain portion of IL-15 Rα or functional fragment thereof, said functional fragment is a truncated form of IL-15Rα extracellular domain portion with 65 to 102 amino acids; wherein the first Fc variant and the second Fc variant are selected from Knob modified Fc and Hole modified Fc, respectively; and when the first Fc variant is a Knob modified Fc, the second Fc variant is a Hole modified Fc; or when the second Fc variant is a Knob modified Fc, the first Fc variant is a Hole modified Fc; and the first Fc variant and the second Fc variant are linked to the C-terminus of IL-15 and IL-15Rα.
A storage chip for use in an imaging cartridge, wherein the imaging cartridge is detachably installed in an imaging device, the storage chip comprises a communication unit, a control unit and a storage unit, wherein, the communication unit is configured to receive information sent by the imaging device and send information to the imaging device; the storage unit is configured to store at least mark information and information of multiple different serial numbers, an initial value of the mark information is information representing that the current sequence number is available; the control unit is configured to judge whether the mark information stored by the storage unit is the initial value when a preset condition is detected, if yes, then take the currently-selected serial number information as a selected sequence number of the storage chip; if not, then select another sequence number from the information of multiple different serial numbers in the storage unit as a selected sequence number of the storage chip; the control unit is further configured to judge whether the selected serial number is determined by the imaging device as legal according to a preset strategy, after sending serial number information to the imaging device, if yes, then remain the mark information as the initial value or update the mark information as the initial value; if not, then: modify the mark information to be information representing that the current sequence number is unavailable when the mark information is information representing that the current sequence number is available; or remain the mark information constant when the mark information is information representing that the current sequence number is unavailable.