mhurhangee/patent-ind-claim-en huggingface dataset:
A decoration element comprising: a light reflective layer ; and a light absorbing layer provided on the light reflective layer , wherein the light reflective layer is a discontinuous film, wherein the light reflective layer has surface resistance of 20 ohm/square or greater, measured as disclosed in the description, wherein the light reflective layer comprises one or more types of material selected from indium (In), titanium (Ti), tin (Sn), silicon (Si) and germanium (Ge), wherein the light absorbing layer comprises one or more types of materials selected from oxynitrides of indium (In), tin (Sn), silicon (Si), aluminum (Al), copper (Cu), nickel (Ni), vanadium (V), tungsten (W), tantalum (Ta), molybdenum (Mo), neodymium (Nd), titanium (Ti), iron (Fe), chromium (Cr), cobalt (Co), gold (Au) or silver (Ag), wherein the light reflective layer has a structure of two or more islands, wherein an area of the horizontal cross-sectional area of each of the islands is 10 -14 m 2 or less. a light reflective layer ; and a light absorbing layer provided on the light reflective layer , wherein the light reflective layer is a discontinuous film, wherein the light reflective layer has surface resistance of 20 ohm/square or greater, measured as disclosed in the description, wherein the light reflective layer comprises one or more types of material selected from indium (In), titanium (Ti), tin (Sn), silicon (Si) and germanium (Ge), wherein the light absorbing layer comprises one or more types of materials selected from oxynitrides of indium (In), tin (Sn), silicon (Si), aluminum (Al), copper (Cu), nickel (Ni), vanadium (V), tungsten (W), tantalum (Ta), molybdenum (Mo), neodymium (Nd), titanium (Ti), iron (Fe), chromium (Cr), cobalt (Co), gold (Au) or silver (Ag), wherein the light reflective layer has a structure of two or more islands, wherein an area of the horizontal cross-sectional area of each of the islands is 10 -14 m 2 or less.
Thermal separation unit for an agricultural working machine in the form of a baling press or a bale wrapper, which thermal separation unit is provided for cutting through a binding means and comprises a heat source for cutting through the binding means , characterized in that the thermal separation unit comprises a stabilizing body which has a tapering region at a working end and forms a contact surface for the binding means at the working end , which contact surface extends linearly in a longitudinal direction , a heating conductor being integrated into the separation unit as a heat source, the heating conductor extending in the longitudinal direction at the working end and being inserted into the stabilizing body or being attached to the stabilizing body .
A transapically-implanted mitral valve flexible closure plate blocking body, characterized by comprising: a flexible closure plate , two guide wires , two guide rings , two hooks and a fixation plug , wherein the fixation plug is configured to be fixedly implanted at a cardiac apex of the heart, the flexible closure plate is configured to be located at an anterior and posterior leaflet junction of the heart, the hooks are configured to be fixedly implanted on each of the left and right mitral valve annuluses (2.1) at the anterior and posterior leaflet commissures, the left and right guide wires respectively pass through the hook on the same side and are fixedly connected to the flexible closure plate in the upper portion on the same side, a lower left portion and a lower right portion of the flexible closure plate are fixedly connected with the corresponding guide ring , and the left and right guide wires respectively pass through the corresponding guide ring on the same side and are fixedly connected to the fixation plug .
A reduced pressure generating assembly , comprising: a suction chamber with a longitudinal axis comprising a proximal end , a distal end , a distal end wall , a collection chamber and a working chamber ; a piston assembly separating the collection chamber and the working chamber and configured to traverse the longitudinal axis of the suction chamber while maintaining a substantially airtight seal; a force exerting member within the working chamber , wherein a distal end of the force exerting member is attached to the piston assembly ; characterised in that : the distal end wall comprises a distal opening and a conduit ; the conduit comprises a conduit lumen with a conduit opening , which are in fluid communication with the collection chamber via the distal opening ; the conduit further comprises an inner conduit located in the conduit lumen , in which the inner conduit comprises an inner conduit lumen and an inner conduit opening ; and a chamber slit seal is located about the inner conduit opening , wherein the chamber slit seal is configured with a normally closed configuration to block fluid communication through the conduit lumen. a suction chamber with a longitudinal axis comprising a proximal end , a distal end , a distal end wall , a collection chamber and a working chamber ; a piston assembly separating the collection chamber and the working chamber and configured to traverse the longitudinal axis of the suction chamber while maintaining a substantially airtight seal; a force exerting member within the working chamber , wherein a distal end of the force exerting member is attached to the piston assembly ; characterised in that : the distal end wall comprises a distal opening and a conduit ; the conduit comprises a conduit lumen with a conduit opening , which are in fluid communication with the collection chamber via the distal opening ; the conduit further comprises an inner conduit located in the conduit lumen , in which the inner conduit comprises an inner conduit lumen and an inner conduit opening ; and a chamber slit seal is located about the inner conduit opening , wherein the chamber slit seal is configured with a normally closed configuration to block fluid communication through the conduit lumen. the distal end wall comprises a distal opening and a conduit ; the conduit comprises a conduit lumen with a conduit opening , which are in fluid communication with the collection chamber via the distal opening ; the conduit further comprises an inner conduit located in the conduit lumen , in which the inner conduit comprises an inner conduit lumen and an inner conduit opening ; and a chamber slit seal is located about the inner conduit opening , wherein the chamber slit seal is configured with a normally closed configuration to block fluid communication through the conduit lumen.
A flowback concentrate comprising an anionic dimer surfactant comprising one or more compounds having the structure wherein each n individually is 6 to 22, each M is individually hydrogen, sodium, potassium, NH 4 , primary ammonium, secondary ammonium, tertiary ammonium, quaternary ammonium, or mixtures thereof with the proviso that at least one M is not hydrogen; an anionic monomer surfactant; 0.01 wt% to 5 wt% of a demulsifier selected from polyethylenimine alkoxylates, alkoxylated alkylphenol formaldehyde resins, alkoxylated amine-modified alkylphenol formaldehyde resins, ethylene oxide/propylene oxide copolymers, crosslinked ethylene oxide/propylene oxide copolymers, and mixtures thereof; and a water source, a coupling agent, or a combination of both.
A surgical instrument, comprising: an elongate shaft assembly defining a shaft axis (SA-SA); an end effector mounting assembly movably coupled to said elongate shaft assembly for selective articulation about an articulation axis that is transverse to said shaft axis; first and second jaws (6310 and 6360, 6410 and 6460) movably coupled to said end effector mounting assembly such that said first and second jaws are each movable relative to each other and said shaft axis between an open position and a closed position; means for selectively applying a closing motion to said first and second jaws and an opening motion to said first and second jaws to selectively move said first and second jaws from said closed position to said open position, said means comprising an axially movable end effector closure sleeve configured to engage portions of said first and second jaws when said end effector closure sleeve is axially moved in a first direction; characterized in that said first and second jaws are each movable relative to each other and said shaft axis between the open position and the closed position such that application of the closing motion to said first and second jaws by said end effector closure sleeve causes one of said first and second jaws to move to said closed position at a closure rate that differs from another closure rate at which the other of said first and second jaws moves to said closed position. an elongate shaft assembly defining a shaft axis (SA-SA); an end effector mounting assembly movably coupled to said elongate shaft assembly for selective articulation about an articulation axis that is transverse to said shaft axis; first and second jaws (6310 and 6360, 6410 and 6460) movably coupled to said end effector mounting assembly such that said first and second jaws are each movable relative to each other and said shaft axis between an open position and a closed position; means for selectively applying a closing motion to said first and second jaws and an opening motion to said first and second jaws to selectively move said first and second jaws from said closed position to said open position, said means comprising an axially movable end effector closure sleeve configured to engage portions of said first and second jaws when said end effector closure sleeve is axially moved in a first direction; characterized in that said first and second jaws are each movable relative to each other and said shaft axis between the open position and the closed position such that application of the closing motion to said first and second jaws by said end effector closure sleeve causes one of said first and second jaws to move to said closed position at a closure rate that differs from another closure rate at which the other of said first and second jaws moves to said closed position.
A method for wireless communications by a user equipment, comprising: receiving, from a base station, an uplink grant comprising one or more downlink assignment index, DAI, bits; determining a number of bits to use to transmit an acknowledgement, ACK, based on the DAI bits; and transmitting, to the base station, the ACK using the determined number of bits; characterized in that the user equipment and base station are configured with a semi-static HARQ-ACK codebook size, and wherein a number of DAI bits is one and the one DAI bit indicates whether or not to transmit the ACK. receiving, from a base station, an uplink grant comprising one or more downlink assignment index, DAI, bits; determining a number of bits to use to transmit an acknowledgement, ACK, based on the DAI bits; and transmitting, to the base station, the ACK using the determined number of bits; characterized in that the user equipment and base station are configured with a semi-static HARQ-ACK codebook size, and wherein a number of DAI bits is one and the one DAI bit indicates whether or not to transmit the ACK.
A method of wireless communication at a user equipment, UE, , comprising: receiving , from a base station, on a physical downlink control channel, PDCCH, during a first PDCCH monitoring occasion, a first downlink control information, DCI, that schedules a physical downlink shared channel, PDSCH, for each of at least two component carriers, wherein the first DCI includes a counter downlink assignment index, DAI, that indicates a number of scheduled PDSCHs across the at least two component carriers up to a point that the first DCI was received, and a total DAI indicating a number of scheduled PDSCHs across the at least two component carriers; updating, with reference to rules configured in a codebook, bundled feedback information, based on the counter DAI and the total DAI in the received first DCI, and in response to receipt of the scheduled PDSCHs by the UE; and transmitting , to the base station, the bundled feedback information included in a physical uplink control channel, PUCCH, wherein the bundled feedback information is configured to include a position for hybrid automatic repeat request, HARQ,-Acknowledgement, ACK, bits corresponding to the PDSCH for each of the at least two component carriers. receiving , from a base station, on a physical downlink control channel, PDCCH, during a first PDCCH monitoring occasion, a first downlink control information, DCI, that schedules a physical downlink shared channel, PDSCH, for each of at least two component carriers, wherein the first DCI includes a counter downlink assignment index, DAI, that indicates a number of scheduled PDSCHs across the at least two component carriers up to a point that the first DCI was received, and a total DAI indicating a number of scheduled PDSCHs across the at least two component carriers; updating, with reference to rules configured in a codebook, bundled feedback information, based on the counter DAI and the total DAI in the received first DCI, and in response to receipt of the scheduled PDSCHs by the UE; and transmitting , to the base station, the bundled feedback information included in a physical uplink control channel, PUCCH, wherein the bundled feedback information is configured to include a position for hybrid automatic repeat request, HARQ,-Acknowledgement, ACK, bits corresponding to the PDSCH for each of the at least two component carriers.
A method for casting building material to form a construction element using a computer-controlled apparatus , the apparatus having a material deposition head in communication with a reservoir of formwork material and being movable within a build volume responsive to computer instructions, the method comprising the steps of: receiving, by the apparatus , computer instructions relating to a formwork geometry; moving the material deposition head within the build volume and selectively depositing the formwork material in specific locations to fabricate a formwork defining a three-dimensional casting surface , the formwork corresponding with the formwork geometry; pouring the building material in contact with the casting surface ; at least partially curing the building material in contact with the casting surface , thereby forming the construction element ; removing at least a portion of the formwork from the construction element ; and collecting and recirculating melted or dissolved removed formwork material to the reservoir to allow the removed formwork material to be re-used to fabricate a further formwork by the apparatus . receiving, by the apparatus , computer instructions relating to a formwork geometry; moving the material deposition head within the build volume and selectively depositing the formwork material in specific locations to fabricate a formwork defining a three-dimensional casting surface , the formwork corresponding with the formwork geometry; pouring the building material in contact with the casting surface ; at least partially curing the building material in contact with the casting surface , thereby forming the construction element ; removing at least a portion of the formwork from the construction element ; and collecting and recirculating melted or dissolved removed formwork material to the reservoir to allow the removed formwork material to be re-used to fabricate a further formwork by the apparatus .
A case of wrist-worn portable devices comprising a first compartment delimiting a first volume suitable for receiving a first device , said first compartment being delimited by at least one peripheral wall at a first opening in said case , said case comprising a second compartment delimiting a second volume and being able to be fixed removably to a mounting plate of said case extending along or parallel to a plane (P2) forming an obtuse angle (β) with a median plane (P1) of extension of the first compartment, said plate comprising an opening of a shape complementary to at least part of the second compartment, said opening and said plate forming a seat for wedging the second compartment with respect to the first compartment .
A method of forming an Al-Zn-Si-Mg alloy coating on a steel strip to form an Al-Zn-Mg-Si coated steel strip, the method including dipping steel strip into a bath of molten Al-Zn-Si-Mg alloy and forming a coating of the alloy on exposed surfaces of the steel strip, and the method being characterised by including (a) controlling the Ca composition of the molten coating bath to be at least 100 ppm, (b) controlling the Mg concentration of the molten coating bath to be more than 1.8% by weight Mg, and (c) controlling the rate of cooling of the coated steel strip after the coated steel strip leaves the molten coating bath to be greater than 10°C/s and less than 40°C/s while the coated strip temperature is between 400°C and 510°C, so that there is a uniform Al/Zn ratio across the surface of the coating formed on the steel strip.
Device for the manufacturing of three-dimensional objects by way of successive hardening of layers of a powder set-up material by means of electromagnetic radiation of particle radiation, on the points corresponding to the respective cross section of the object, in particular an SLM or SLS device, wherein the device comprises: a housing , in which a process chamber and at least one build chamber is arranged, wherein at least on build chamber comprises a carrying device for carrying the object inside of the build chamber ; a dosing chamber for storing the set-up material ; a coating device for applying the set-up material and a radiation device for radiating the applied layers of the set-up material , wherein the coating device is positioned so that it can be moved back and forth at least above the build chamber , for which purpose the coating device is positioned at least on one side on a guide device, wherein said and/or further guide devices for further elements movable within the process chamber is/are embodied as elements suspended from the ceiling area of the process chamber , in particular as suspended gantries ; characterised in that the gantry forms a base gantry on which one or several sub-gantries or exchange gantries are arranged. a housing , in which a process chamber and at least one build chamber is arranged, wherein at least on build chamber comprises a carrying device for carrying the object inside of the build chamber ; a dosing chamber for storing the set-up material ; a coating device for applying the set-up material and a radiation device for radiating the applied layers of the set-up material , wherein the coating device is positioned so that it can be moved back and forth at least above the build chamber , for which purpose the coating device is positioned at least on one side on a guide device, wherein said and/or further guide devices for further elements movable within the process chamber is/are embodied as elements suspended from the ceiling area of the process chamber , in particular as suspended gantries ; characterised in that the gantry forms a base gantry on which one or several sub-gantries or exchange gantries are arranged.
A method for switching a communication mode, performed by a terminal device , the method comprising: receiving first indication information from a network device , wherein the first indication information instructs the terminal device to switch from a current communication mode to a target communication mode, wherein the current communication mode and the target communication mode are any two of a first communication mode, a second communication mode, and a third communication mode, wherein the first communication mode is a communication mode in which the communication is performed via a Uu interface, the second communication mode is a communication mode in which the communication is performed via a direct-connection interface and controlled by the network device, and the third communication mode is a communication mode in which the communication is performed via a direct-connection interface and controlled by the terminal device; the method characterized by : when the terminal device is in a connected state, switching, the communication mode according to the first indication information ; when the terminal device is in an idle state, receiving second indication information from the network device, determining, based on the second indication information, whether to switch according to the first indication information; wherein the second indication information indicates a trigger event of switching, by the terminal device, from the current communication mode to the target communication mode. when the terminal device is in a connected state, switching, the communication mode according to the first indication information ; when the terminal device is in an idle state, receiving second indication information from the network device, determining, based on the second indication information, whether to switch according to the first indication information; wherein the second indication information indicates a trigger event of switching, by the terminal device, from the current communication mode to the target communication mode.
A method of operating a gas turbine engine comprising: driving a gear reduction using a fan drive turbine, said gear reduction for driving a fan rotor ; supplying oil to said gear reduction using a lubrication system , with an oil tank , the lubrication system including a lubricant pump ; and supplying a mixture of air and oil to an inlet of a deaerator , said deaerator including a separator for separating oil, and delivering separated air to an air outlet , and delivering separated oil back into an oil tank ; characterised in that : said separator includes a member having lubricant flow paths on both of two opposed sides; an inlet velocity to the deaerator is less than or equal to 14 feet /second (4.27 m/s), and an exit velocity from the deaerator of the separated air is less than or equal to 14 feet/second (4.27 m/s); said gear reduction includes a sun gear for driving intermediate gears and oil baffles are located circumferentially between said intermediate gears ; an oil capture gutter surrounds said gear reduction ; and a dwell time of oil in the oil tank as removed by said lubricant pump , on average, is five seconds or less. driving a gear reduction using a fan drive turbine, said gear reduction for driving a fan rotor ; supplying oil to said gear reduction using a lubrication system , with an oil tank , the lubrication system including a lubricant pump ; and supplying a mixture of air and oil to an inlet of a deaerator , said deaerator including a separator for separating oil, and delivering separated air to an air outlet , and delivering separated oil back into an oil tank ; said separator includes a member having lubricant flow paths on both of two opposed sides; an inlet velocity to the deaerator is less than or equal to 14 feet /second (4.27 m/s), and an exit velocity from the deaerator of the separated air is less than or equal to 14 feet/second (4.27 m/s); said gear reduction includes a sun gear for driving intermediate gears and oil baffles are located circumferentially between said intermediate gears ; an oil capture gutter surrounds said gear reduction ; and a dwell time of oil in the oil tank as removed by said lubricant pump , on average, is five seconds or less.