mhurhangee/patent-ind-claim-en huggingface dataset:
A soft tissue suture repair system, comprising: a first suture limb ; a first tissue augmentation block configured to be disposed on the first suture limb such that the first tissue augmentation block extends along a first length of the first suture limb to increase a first tissue engaging surface area of the system along the first length; further comprising a threader having the first tissue augmentation block disposed thereon, the threader having a distal end configured to receive the first suture limb and dispose the first tissue augmentation block onto the first suture limb as the threader is moved with respect to the first tissue augmentation block; characterised in that the system further comprises an installation tool having: a handle portion ; and a cartridge having a length and a width that is sized to receive and retain the first tissue augmentation block disposed on the threader, with the threader extending through the entire length of the cartridge. a first suture limb ; a first tissue augmentation block configured to be disposed on the first suture limb such that the first tissue augmentation block extends along a first length of the first suture limb to increase a first tissue engaging surface area of the system along the first length; further comprising a threader having the first tissue augmentation block disposed thereon, the threader having a distal end configured to receive the first suture limb and dispose the first tissue augmentation block onto the first suture limb as the threader is moved with respect to the first tissue augmentation block; characterised in that the system further comprises an installation tool having: a handle portion ; and a cartridge having a length and a width that is sized to receive and retain the first tissue augmentation block disposed on the threader, with the threader extending through the entire length of the cartridge.
A method for the positioning of prosthetic teeth in a denture base , wherein at least one respective recess is provided in the basal side of the prosthetic teeth and/or a plurality of recesses are provided in the denture base in the surface pointing in the occlusal direction, wherein the prosthetic teeth are connected to the denture base by inserting pins into the recesses , wherein the pins are arranged at the basal side of the prosthetic teeth and/or in the occlusal direction on the denture base and/or the pins are connected as separate retaining pins to the prosthetic teeth and the denture base , wherein the pins have engaging means characterised in that the recesses have corresponding counter engaging means , such that, during insertion, the pins lock with the recesses in such a way that the prosthetic teeth are pulled by a mechanical tension against the denture base and connected to the denture base .
A drinking container, comprising: a top opening for dispensing a contained fluid; and a container connection device coupled to a bottom of the drinking container, the container connection device including a valve configured to permit fluid flow into the container through the bottom of the drinking container during a filling process by a dispensing connection device , the valve configured to provide a fluid tight seal after disconnecting from the dispensing connection device, characterized in that the container connection device is biased in a fluid-tight closed configuration via magnetic attraction between first and second components, each of the first and second components including a magnetic material. a top opening for dispensing a contained fluid; and a container connection device coupled to a bottom of the drinking container, the container connection device including a valve configured to permit fluid flow into the container through the bottom of the drinking container during a filling process by a dispensing connection device , the valve configured to provide a fluid tight seal after disconnecting from the dispensing connection device, characterized in that the container connection device is biased in a fluid-tight closed configuration via magnetic attraction between first and second components, each of the first and second components including a magnetic material.
A method for producing a composite laminate component for a wind turbine , comprising; assembling a laminated structure comprising at least two reinforced layers and a plurality of interleaf layers positioned adjacent to one of the at least two reinforced layers , placing the laminated structure into a mold, sequentially and independently transferring resin into each layer of the plurality of interleaf layers , and curing the transferred resin in the laminated structure to form a composite laminate component comprising the at least two reinforced layers , the plurality of interleaf layers , and cured resin . assembling a laminated structure comprising at least two reinforced layers and a plurality of interleaf layers positioned adjacent to one of the at least two reinforced layers , placing the laminated structure into a mold, sequentially and independently transferring resin into each layer of the plurality of interleaf layers , and curing the transferred resin in the laminated structure to form a composite laminate component comprising the at least two reinforced layers , the plurality of interleaf layers , and cured resin .
A system for wireless control a plurality of medical devices in a medical room comprising: two or more transceiver locator devices in the room for a time-of-flight arrangement configured to determine the presence of the medical devices in the room based on distance measurements between the plurality of medical devices and the respective transceiver locator devices; and a wireless controller configured to: rely on the two or more transceiver locator devices to determine the presence of medical devices located in the medical room, and wirelessly control only the medical devices determined to be located in the the medical room. two or more transceiver locator devices in the room for a time-of-flight arrangement configured to determine the presence of the medical devices in the room based on distance measurements between the plurality of medical devices and the respective transceiver locator devices; and a wireless controller configured to: rely on the two or more transceiver locator devices to determine the presence of medical devices located in the medical room, and wirelessly control only the medical devices determined to be located in the the medical room. rely on the two or more transceiver locator devices to determine the presence of medical devices located in the medical room, and wirelessly control only the medical devices determined to be located in the the medical room.
A pretreatment control apparatus comprising: an acquisition portion configured to acquire, via a reader , identification information capable of identifying a treatment medium; a first transmission portion configured to transmit a pretreatment instruction based on the identification information acquired by the acquisition portion, to a pretreatment portion which performs a pretreatment with respect to the treatment medium; and a second transmission portion configured to transmit a transmission instruction for identified print data based on the identification information read by the reader, to a storage device (14; 34; 54; 64) which stores print data. an acquisition portion configured to acquire, via a reader , identification information capable of identifying a treatment medium; a first transmission portion configured to transmit a pretreatment instruction based on the identification information acquired by the acquisition portion, to a pretreatment portion which performs a pretreatment with respect to the treatment medium; and a second transmission portion configured to transmit a transmission instruction for identified print data based on the identification information read by the reader, to a storage device (14; 34; 54; 64) which stores print data.
A method of making a micro-device with a capping structure, comprising: providing a base substrate on which there is a micro-electronic and/or micro-mechanic component attached or integrated; providing a cap substrate of a glass material, i.e. a non-crystalline or amorphous material and that exhibits a glass transition when heated towards the liquid state, preferably a material selected from borofloat glasses, quartz, metallic alloys, AlO x , and polymers; making micro-depressions in said cap substrate to a predetermined depth; metallizing only the walls of the depressions in the cap substrate ; providing electrical connection through the cap substrate by thinning the cap substrate on the opposite side from where the micro-depressions are made, wherein the thinning is stopped before the metal is exposed and making openings to expose the metal, and metallizing the openings to provide contact and to hermetically seal the through connection; bonding together the base substrate and the cap substrate , such that there is an electrical contact between the component on the base substrate and the metallized depressions in the cap substrate . providing a base substrate on which there is a micro-electronic and/or micro-mechanic component attached or integrated; providing a cap substrate of a glass material, i.e. a non-crystalline or amorphous material and that exhibits a glass transition when heated towards the liquid state, preferably a material selected from borofloat glasses, quartz, metallic alloys, AlO x , and polymers; making micro-depressions in said cap substrate to a predetermined depth; metallizing only the walls of the depressions in the cap substrate ; providing electrical connection through the cap substrate by thinning the cap substrate on the opposite side from where the micro-depressions are made, wherein the thinning is stopped before the metal is exposed and making openings to expose the metal, and metallizing the openings to provide contact and to hermetically seal the through connection; bonding together the base substrate and the cap substrate , such that there is an electrical contact between the component on the base substrate and the metallized depressions in the cap substrate .
A projection system for projecting an image fit for a shape of an object , the projection system comprising: an invisible light projector for projecting a predetermined invisible light image onto the object via invisible light; an imaging unit for capturing an image of the invisible light projected from the invisible light projector ; an image generator for measuring a shape of the object based on the image captured by the imaging unit to generate image data showing image content for projection onto the object in accordance with the measured shape; and a visible light projector for projecting the image content shown by the image data onto the object via visible light, wherein the invisible light projector is configured to emit pulsed invisible light to project said invisible light image, wherein said invisible light image is a measurement pattern with a pulse width having a timing superposed on a frame period for projecting one frame of said image content projected by the visible light projector, and wherein the imaging unit is configured to capture said image in accordance with the timing of the pulsed invisible light emission; characterized by said pulse width being smaller than said frame period for projecting one frame of said image content projected by the visible light projector , and by the amount of the pulsed invisible light emitted for the duration of the pulse width being larger than the amount of the visible light emitted by the visible light projector for the same duration. an invisible light projector for projecting a predetermined invisible light image onto the object via invisible light; an imaging unit for capturing an image of the invisible light projected from the invisible light projector ; an image generator for measuring a shape of the object based on the image captured by the imaging unit to generate image data showing image content for projection onto the object in accordance with the measured shape; and a visible light projector for projecting the image content shown by the image data onto the object via visible light, wherein the invisible light projector is configured to emit pulsed invisible light to project said invisible light image, wherein said invisible light image is a measurement pattern with a pulse width having a timing superposed on a frame period for projecting one frame of said image content projected by the visible light projector, and wherein the imaging unit is configured to capture said image in accordance with the timing of the pulsed invisible light emission; characterized by said pulse width being smaller than said frame period for projecting one frame of said image content projected by the visible light projector , and by the amount of the pulsed invisible light emitted for the duration of the pulse width being larger than the amount of the visible light emitted by the visible light projector for the same duration.
A multi-species antivenom composition comprising a phage-expressed peptide that binds to a target common to more than one animal venoms; and a pharmaceutically acceptable carrier, wherein the peptide comprises SEQ ID NO:1 , SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO: 9, SEQ ID NO: 10, SEQ ID NO: 11, SEQ ID NO: 12, and any combination thereof.
A self-standing electrode comprising: a composite of an electrode active material, and carbon nanotubes; and a battery tab attachment structure embedded in the composite, wherein the composite is co-deposited below and above the battery tab attachment structure , wherein the electrode has an overall length, an overall width, and an overall thickness, and the battery tab attachment structure has a width that is 1% to 100% of the overall width of the electrode, wherein the battery tab attachment structure protrudes outside of the electrode providing an electric tab attachment spot. a composite of an electrode active material, and carbon nanotubes; and an electrode active material, and carbon nanotubes; and a battery tab attachment structure embedded in the composite, wherein the composite is co-deposited below and above the battery tab attachment structure , wherein the electrode has an overall length, an overall width, and an overall thickness, and the battery tab attachment structure has a width that is 1% to 100% of the overall width of the electrode, wherein the battery tab attachment structure protrudes outside of the electrode providing an electric tab attachment spot.
A macro evolved Node B 'eNB' configured to: transmit to a user equipment 'UE' device a sub-cell identifier CSI-RS ID in downlink control information 'DCI'; wherein the sub-cell identifier is included as part of a multi-bit channel state information reference signal 'CSI-RS' and includes 2 bits; wherein the sub-cell identifier is used by the macro eNB in conjunction with a scrambling code identity value to initialize a pseudo-random sequence generator of the eNB that generates a sequence equation to generate a reference signal 'RS' to be sent to the UE device to facilitate demodulation by the UE device of multiple-input, multiple-output communications, wherein an initialization value, c init , is determined by the sequence equation: c init = ⌊ n s / 2 ⌋ + 1 × 2 N ID cell + 1 × 2 16 + CSI − RS ID × 2 8 + n SCID wherein n s is a slot number in a radio frame, N ID cell is a physical cell layer identity n SCID is the scrambling code identity value, and CSI-RS ID is the sub-cell identifier. transmit to a user equipment 'UE' device a sub-cell identifier CSI-RS ID in downlink control information 'DCI'; wherein the sub-cell identifier is included as part of a multi-bit channel state information reference signal 'CSI-RS' and includes 2 bits; wherein the sub-cell identifier is used by the macro eNB in conjunction with a scrambling code identity value to initialize a pseudo-random sequence generator of the eNB that generates a sequence equation to generate a reference signal 'RS' to be sent to the UE device to facilitate demodulation by the UE device of multiple-input, multiple-output communications, wherein an initialization value, c init , is determined by the sequence equation: c init = ⌊ n s / 2 ⌋ + 1 × 2 N ID cell + 1 × 2 16 + CSI − RS ID × 2 8 + n SCID wherein n s is a slot number in a radio frame, N ID cell is a physical cell layer identity n SCID is the scrambling code identity value, and CSI-RS ID is the sub-cell identifier.
Charging device , in particular, for a vehicle (F), wherein a contact plate is formed with a plurality of positioning elements and at least one connecting element is provided for power transmission, wherein the connecting element engages into one of the positioning elements in a position-independent and flexible manner when merging with the contact plate , and the contact plate is constructed in a multi-layered manner, wherein at least one isolation layer and at least one contact layer are provided intersecting through this in an alternating manner, characterized in that , within the connecting element , at least one contact body is arranged, which can partially brought out of the connecting element upon the exertion of force in order to connect to the contact layer of a positioning element , wherein a contact area is arranged in the contact plate .
A method for routing data at a rack comprising a plurality of servers and at least two top-of-rack switches, the method comprising: on each of the plurality of servers, duplicating data signals on two network interfaces of a network interface card, each of the network interfaces communicatively coupled to a different one of the two top-of-rack switches via a physical or media layer switch; activating a control signal to indicate an active communication path from one of the switches to one or more of the servers, the active communication path corresponding to a first of the two network interfaces; in response to detecting a failure of the active communication path, modifying, by at least one of the switches or one of the servers, the control signal to indicate a switch to the second of the two network interfaces, wherein the active and alternate communication paths are pre-provisioned to forward current session traffic addressed to one of the plurality of servers using path labels; and diverting data signals of the current session traffic via the alternate communication path using the path labels. on each of the plurality of servers, duplicating data signals on two network interfaces of a network interface card, each of the network interfaces communicatively coupled to a different one of the two top-of-rack switches via a physical or media layer switch; activating a control signal to indicate an active communication path from one of the switches to one or more of the servers, the active communication path corresponding to a first of the two network interfaces; in response to detecting a failure of the active communication path, modifying, by at least one of the switches or one of the servers, the control signal to indicate a switch to the second of the two network interfaces, wherein the active and alternate communication paths are pre-provisioned to forward current session traffic addressed to one of the plurality of servers using path labels; and diverting data signals of the current session traffic via the alternate communication path using the path labels.
A chimeric construct comprising an interferon attached to an antibody that is an intact immunoglobulin that specifically binds to a CD33 tumor associated antigen, wherein the antibody is attached to the interferon by a proteolysis resistant peptide linker, wherein the linker is selected from the group consisting of SGGGGS (SEQ ID NO:58) and AEAAAKEAAAKAGS (SEQ ID NO:59), and wherein the construct, when contacted to a tumor cell, results in the killing or inhibition of growth or proliferation of the tumor cell.
A valve assembly , comprising: a valve housing ; and a handle that is movable about an actuation axis to actuate a valve actuator within the valve housing between an open position and a closed position; wherein the handle has a first opening and the valve housing has a second opening , wherein when the valve actuator is in the closed position the first opening aligns with the second opening to enable receipt of a lockout member that prevents movement of the valve actuator from the closed position to the open position; characterized in that the valve actuator is a multi-turn actuator; in which the open position of the multi-turn actuator includes rotational amounts of 360 degrees and greater than 360 degrees from the closed position. a valve housing ; and a handle that is movable about an actuation axis to actuate a valve actuator within the valve housing between an open position and a closed position; wherein the handle has a first opening and the valve housing has a second opening , wherein when the valve actuator is in the closed position the first opening aligns with the second opening to enable receipt of a lockout member that prevents movement of the valve actuator from the closed position to the open position; characterized in that the valve actuator is a multi-turn actuator; in which the open position of the multi-turn actuator includes rotational amounts of 360 degrees and greater than 360 degrees from the closed position.
A mechanical fastener for securing first and second loops of suture , comprising: a crimpable cylindrical sleeve ; a first snare forming a first loop extending from the sleeve in a first direction and having a first length , and comprising a twisted tail ; a second snare forming a second loop longer than the first loop and extending from the sleeve in a second direction; characterised in that the first and second loops extend from opposite ends of the sleeve . a crimpable cylindrical sleeve ; a first snare forming a first loop extending from the sleeve in a first direction and having a first length , and comprising a twisted tail ; a second snare forming a second loop longer than the first loop and extending from the sleeve in a second direction; characterised in that the first and second loops extend from opposite ends of the sleeve .
A method for scrubbing a marine vessel flue gas containing particulates and sulfur dioxide comprising: spraying an alkaline fluid into the flue gas to produce a saturated flue gas stream containing the alkaline fluid; flowing the saturated flue gas stream containing the alkaline fluid through a venturi to cause the particulates in the flue gas to impact the alkaline fluid and react at least a portion of the sulfur dioxide with the alkaline fluid; characterized in that the method further comprises: flowing the flue gas through a separator downstream of the venturi for separating water from the flue gas, wherein the separator is a scrubber, wherein the scrubber has a disengaging zone for receiving flue gas that has passed through the venturi and at least one packing section for receiving flue gas after it passes through the disengaging zone , and in that the alkaline fluid comprises sea water employed with the addition of an alkaline reductant selected from sodium bicarbonate, sodium carbonate or a combination thereof. spraying an alkaline fluid into the flue gas to produce a saturated flue gas stream containing the alkaline fluid; flowing the saturated flue gas stream containing the alkaline fluid through a venturi to cause the particulates in the flue gas to impact the alkaline fluid and react at least a portion of the sulfur dioxide with the alkaline fluid; characterized in that the method further comprises: flowing the flue gas through a separator downstream of the venturi for separating water from the flue gas, wherein the separator is a scrubber, wherein the scrubber has a disengaging zone for receiving flue gas that has passed through the venturi and at least one packing section for receiving flue gas after it passes through the disengaging zone , and in that the alkaline fluid comprises sea water employed with the addition of an alkaline reductant selected from sodium bicarbonate, sodium carbonate or a combination thereof.