mhurhangee/patent-ind-claim-en huggingface dataset:
A system for detecting distortion in a component of a gas turbine engine , the system comprising: a component of a gas turbine engine , having at least one detectable datum marker configured between layers of the component ; and a non-destructive inspection tool configured to monitor a location of the at least one detectable datum marker over time, wherein distortion of the component is detected as a function of movement of the location of the at least one detectable datum marker embedded within the gas turbine engine component . a component of a gas turbine engine , having at least one detectable datum marker configured between layers of the component ; and a non-destructive inspection tool configured to monitor a location of the at least one detectable datum marker over time, wherein distortion of the component is detected as a function of movement of the location of the at least one detectable datum marker embedded within the gas turbine engine component .
Non-contacting conveyance equipment for conveying a plate-like member (W) in a non-contacting manner, comprising: a plate-like base body ; and a plurality of swirl flow-forming bodies provided at the base body , wherein each of the plurality of swirl flow-forming bodies includes: a column-shaped main body; a cylindrical chamber formed inside the main body, that has an opening at one end; a flat end face formed at a surface of the main body, on which the cylindrical chamber is opened; a jetting port provided at a side wall part of an inner circumferential surface of the cylindrical chamber ; a fluid introduction port provided at a side wall part of an outer circumferential surface of the main body; and a fluid passage that connects the fluid introduction port to the jetting port , the non-contacting conveyance equipment being characterized in that : the fluid passage is arranged so that a direction in which a fluid flows out of the cylindrical chamber along the end face is substantially parallel to a line that extends from a center of gravity of the plate-like member (W) being conveyed in the non-contacting manner by the non-contacting conveyance equipment, toward an outer circumference of the plate-like member. a plate-like base body ; and a plurality of swirl flow-forming bodies provided at the base body , wherein each of the plurality of swirl flow-forming bodies includes: a column-shaped main body; a cylindrical chamber formed inside the main body, that has an opening at one end; a flat end face formed at a surface of the main body, on which the cylindrical chamber is opened; a jetting port provided at a side wall part of an inner circumferential surface of the cylindrical chamber ; a fluid introduction port provided at a side wall part of an outer circumferential surface of the main body; and a fluid passage that connects the fluid introduction port to the jetting port , a column-shaped main body; a cylindrical chamber formed inside the main body, that has an opening at one end; a flat end face formed at a surface of the main body, on which the cylindrical chamber is opened; a jetting port provided at a side wall part of an inner circumferential surface of the cylindrical chamber ; a fluid introduction port provided at a side wall part of an outer circumferential surface of the main body; and a fluid passage that connects the fluid introduction port to the jetting port , the non-contacting conveyance equipment being characterized in that : the fluid passage is arranged so that a direction in which a fluid flows out of the cylindrical chamber along the end face is substantially parallel to a line that extends from a center of gravity of the plate-like member (W) being conveyed in the non-contacting manner by the non-contacting conveyance equipment, toward an outer circumference of the plate-like member.
A hydraulic boom recovery system for a mobile construction vehicle, comprising: a boom ; a cylinder for powering the boom ; an accumulator that is configured to recover potential energy from the cylinder pressure from the lowering of the boom ; a pump that is configured to supply pressure to the cylinder ; and a sensor that is configured to sense an oncoming ground reaction between the boom and the ground; characterized in that , in response to the sensed reaction, the accumulator stops recovering and the pump provides pressure to the cylinder for the boom to dig into the ground. a boom ; a cylinder for powering the boom ; an accumulator that is configured to recover potential energy from the cylinder pressure from the lowering of the boom ; a pump that is configured to supply pressure to the cylinder ; and a sensor that is configured to sense an oncoming ground reaction between the boom and the ground; characterized in that , in response to the sensed reaction, the accumulator stops recovering and the pump provides pressure to the cylinder for the boom to dig into the ground.
A modular composition comprising 1) an siRNA; 2) one or more linkers, which may be the same or different, selected from Table 2, wherein the linkers are attached to the guide strand of the siRNA at the 2'-position of the ribose rings excluding the terminal 3'- and/or 5'-positions of the guide strand, or wherein the linkers are attached to the passenger strand of the siRNA at the 2'-position of the ribose rings excluding the terminal 3'- and/or 5'-positions of the passenger strand; and 3) one or more peptides, which may be the same or different, selected from SEQ ID NOs: 28, 29, 33, 36, 40, 50, 51, 52, 53, 54, 55, 56, 57, 58 and 59, wherein the peptides are attached to the linkers. 1) an siRNA; 2) one or more linkers, which may be the same or different, selected from Table 2, wherein the linkers are attached to the guide strand of the siRNA at the 2'-position of the ribose rings excluding the terminal 3'- and/or 5'-positions of the guide strand, or wherein the linkers are attached to the passenger strand of the siRNA at the 2'-position of the ribose rings excluding the terminal 3'- and/or 5'-positions of the passenger strand; and 3) one or more peptides, which may be the same or different, selected from SEQ ID NOs: 28, 29, 33, 36, 40, 50, 51, 52, 53, 54, 55, 56, 57, 58 and 59, wherein the peptides are attached to the linkers.
A shelf power supply device comprising a strip-shaped power supply cavity , a fixed power supply terminal and a power supply head , wherein: the strip-shaped power supply cavity is provided with a strip-shaped mounting hole extending along the length direction of its side wall; the fixed power supply terminal is arranged inside the strip-shaped power supply cavity ; the power supply head is positioned on the strip-shaped mounting hole , and comprises a power supply part located inside the strip-shaped power supply cavity and an output part located outside the strip-shaped power supply cavity ; the shelf power supply device further comprises a flexible wire having two ends, wherein the power supply head is positioned to be slidable on the strip-shaped mounting hole and the flexible wire is arranged inside the strip-shaped power supply cavity , and a first end of the flexible wire is connected to the fixed power supply terminal and a second end of the flexible wire is connected to the power supply part , wherein , when the power supply head is far from or close to the fixed power supply terminal , the flexible wire is stretched or bent correspondingly in the strip-shaped power supply cavity , characterized in that the fixed power supply terminal comprises a power supply wire passing through the strip-shaped power supply cavity and fixed at both ends thereof and a power supply block fixedly connected to the power supply wire and connected to the flexible wire . the strip-shaped power supply cavity is provided with a strip-shaped mounting hole extending along the length direction of its side wall; the fixed power supply terminal is arranged inside the strip-shaped power supply cavity ; the power supply head is positioned on the strip-shaped mounting hole , and comprises a power supply part located inside the strip-shaped power supply cavity and an output part located outside the strip-shaped power supply cavity ; the shelf power supply device further comprises a flexible wire having two ends, wherein the power supply head is positioned to be slidable on the strip-shaped mounting hole and the flexible wire is arranged inside the strip-shaped power supply cavity , and a first end of the flexible wire is connected to the fixed power supply terminal and a second end of the flexible wire is connected to the power supply part , wherein , when the power supply head is far from or close to the fixed power supply terminal , the flexible wire is stretched or bent correspondingly in the strip-shaped power supply cavity , characterized in that the fixed power supply terminal comprises a power supply wire passing through the strip-shaped power supply cavity and fixed at both ends thereof and a power supply block fixedly connected to the power supply wire and connected to the flexible wire .
An apparatus for delivering tumor treating fields to a subject's body, the apparatus comprising: a plurality of electrically-coupled electrode elements (101A; 401A; 401B) to be located on a subject's body and able to deliver tumor treating fields to the subject's body, whereby at least one of the electrode elements (101A; 401A; 401B) comprises a dielectric layer having a first surface (101B; 201A; 201B; 201C; 201D; 201E; 201F; 301A; 301B; 301C; 301D; 301E) to face the subject's body for capacitively delivering said tumor treating fields to the subject's body, and a second surface (102B; 202A; 202B; 202C; 202D; 202E; 202F) opposite the first surface (101B; 201A; 201B; 201C; 201D; 201E; 201F; 301A; 301B; 301C; 301D; 301E), characterised in that at least one of the first surface (101B; 201A; 201B; 201C; 201D; 201E; 201F; 301A; 301B; 301C; 301D; 301E) and the second surface (102B; 202A; 202B; 202C; 202D; 202E; 202F) of the dielectric layer is a non-planar surface.
A method for wireless communication comprising: generating , via an electronic hardware processor, a clear to transmit message indicating an uplink transmission opportunity and a request for two or more stations to concurrently transmit uplink data at a specific time; transmitting , via the electronic hardware processor, the clear to transmit message to the two or more stations; and receiving , via the electronic hardware processor, a plurality of uplink data transmissions at the specific time from at least two stations of the two or more stations; further comprising generating the clear to transmit message to further include a common information field including information common to all of the two or more stations, and two or more individual information fields corresponding to each of the two or more stations respectively; further comprising generating the clear to transmit message to further include a duration field including a value for each of the two or more stations to copy into a length field of an L-SIG field of the uplink data transmissions; further comprising generating the clear to transmit message to further include an indication in the common information field of whether the two or more stations are to include packet extension symbols at an end of the plurality of uplink data transmissions. generating , via an electronic hardware processor, a clear to transmit message indicating an uplink transmission opportunity and a request for two or more stations to concurrently transmit uplink data at a specific time; transmitting , via the electronic hardware processor, the clear to transmit message to the two or more stations; and receiving , via the electronic hardware processor, a plurality of uplink data transmissions at the specific time from at least two stations of the two or more stations; further comprising generating the clear to transmit message to further include a common information field including information common to all of the two or more stations, and two or more individual information fields corresponding to each of the two or more stations respectively; further comprising generating the clear to transmit message to further include a duration field including a value for each of the two or more stations to copy into a length field of an L-SIG field of the uplink data transmissions; further comprising generating the clear to transmit message to further include an indication in the common information field of whether the two or more stations are to include packet extension symbols at an end of the plurality of uplink data transmissions.
A vacuum coating device for coating a steel plate , comprising: a crucible , an induction heater provided on the periphery of the crucible , a flow distribution box connected to the top of said crucible via a steam pipe , wherein said steam pipe is provided with a pressure regulating valve , said flow distribution box is provided inside with a horizontal pressure stabilizing plate , said flow distribution box is connected on the top with a nozzle , a deflector being arranged above said nozzle along the emitting direction of the steam, and wherein a distance Da from nozzle outlet to steel plate is 10-200 mm, a height Db of said deflector is 10-199 mm; a distance Dc from top of said deflector to steel plate is 1~190 mm; an angle Dd between said deflector and said nozzle outlet is 60°~135°; wherein Da, Db, Dc, and Dd satisfy the following relationships: Da = Db + Dc ; when Da=100~200mm and Db=(1/5~1/2)Da, Dd=60°~90°; when Da=100-200mm and Db=(1/2~2/3)Da, Dd=70°~110°; when Da=100-200mm and Db=(2/3~4/5)Da, Dd=80°~135°; when Da=10~100mm and Db=(1/5~1/2)Da, Dd=60°~100°; when Da=10~100mm and Db=(1/2~2/3)Da, Dd=70°~120°; when Da=10~100mm and Db=(2/3~4/5)Da, Dd=80°~135°. a crucible , an induction heater provided on the periphery of the crucible , a flow distribution box connected to the top of said crucible via a steam pipe , wherein said steam pipe is provided with a pressure regulating valve , said flow distribution box is provided inside with a horizontal pressure stabilizing plate , said flow distribution box is connected on the top with a nozzle , a deflector being arranged above said nozzle along the emitting direction of the steam, and wherein a distance Da from nozzle outlet to steel plate is 10-200 mm, a height Db of said deflector is 10-199 mm; a distance Dc from top of said deflector to steel plate is 1~190 mm; an angle Dd between said deflector and said nozzle outlet is 60°~135°; wherein Da, Db, Dc, and Dd satisfy the following relationships: Da = Db + Dc ; when Da=100~200mm and Db=(1/5~1/2)Da, Dd=60°~90°; when Da=100-200mm and Db=(1/2~2/3)Da, Dd=70°~110°; when Da=100-200mm and Db=(2/3~4/5)Da, Dd=80°~135°; when Da=10~100mm and Db=(1/5~1/2)Da, Dd=60°~100°; when Da=10~100mm and Db=(1/2~2/3)Da, Dd=70°~120°; when Da=10~100mm and Db=(2/3~4/5)Da, Dd=80°~135°.
A composition comprising a CRISPR-Cas chimeric guide, said CRISPR-Cas chimeric guide comprising a guide sequence, a tracr sequence and a tracr mate sequence, the guide sequence being capable of hybridizing to a target sequence in a genomic locus of interest in a cell, wherein at least one loop of the CRISPR-Cas chimeric guide is modified by the insertion of distinct RNA sequence(s) that bind to one or more adaptor proteins, and wherein the adaptor protein is associated with one or more functional domains, optionally wherein one or more adaptor proteins is present and bound to the distinct RNA sequence(s) inserted into the at least one loop of the CRISPR-Cas chimeric guide.
Heat exchanger plate, which has a plate body formed from at least two plate elements and at least one connection piece for a cooling fluid, which are joined together by soldering, wherein the connecting piece has a joining section which is joined in a receiving section of the plate body formed between the plate elements , wherein a solder resist means is provided which limits the solder flow when producing the solder connection, characterized in that the joining section has two outwardly directed longitudinal webs and the receiving section has two longitudinal grooves extending in the region of the joining plane (FE) between the plate elements , wherein the longitudinal webs run in the longitudinal grooves .
A bidirectional hatch for a passenger aircraft, comprising: at least one hatch panel configured to be disposed in an overhead area of the aircraft and capable of transitioning from a closed state to an open state when the hatch is activated, the hatch panel having an inner portion and an outer portion , the inner portion is configured to swing downward from the overhead area of the aircraft when transitioning from the closed state to the open state, the outer portion is configured to pivot upward when transitioning from the closed state to the open state; at least one ascent/descent device coupled to the inner portion, the ascent/descent device including a telescoping ladder comprising at least two telescoping vertical struts connected by a plurality of rungs , the struts and the rungs fashioned of a rigid material; the telescoping ladder configured to deploy toward a deck located beneath the overhead area of the aircraft when the hatch is activated, and the struts configured to remain in a rigid state when the telescoping ladder has deployed toward the deck; the ascent/descent device configured to, in its deployed state, allow at least one individual to 1) descend from the overhead area to the deck and 2) ascend from the deck to the overhead area. at least one hatch panel configured to be disposed in an overhead area of the aircraft and capable of transitioning from a closed state to an open state when the hatch is activated, the hatch panel having an inner portion and an outer portion , the inner portion is configured to swing downward from the overhead area of the aircraft when transitioning from the closed state to the open state, the outer portion is configured to pivot upward when transitioning from the closed state to the open state; at least one ascent/descent device coupled to the inner portion, the ascent/descent device including a telescoping ladder comprising at least two telescoping vertical struts connected by a plurality of rungs , the struts and the rungs fashioned of a rigid material; the telescoping ladder configured to deploy toward a deck located beneath the overhead area of the aircraft when the hatch is activated, and the struts configured to remain in a rigid state when the telescoping ladder has deployed toward the deck; the ascent/descent device configured to, in its deployed state, allow at least one individual to 1) descend from the overhead area to the deck and 2) ascend from the deck to the overhead area.
Closing device for closing an outer skin opening of a surface vessel , comprising a plurality of substantially vertically arranged closure lamellae (12 1 , 12 2 ), and a drive device by means of which the closure plates (12 1 , 12 2 ) can be actuated for displacement between a closed position and an open position, and wherein the closure lamellae (12 1 , 12 2 ) are held in relation to one another in an upper and a lower end region via sliding elements in an upper and a lower guide rail of the closure device respectively, in that, on displacement from the closed position into the open position, the closure lamellae (12 1 , 12 2 ) unfold alternately towards one another in order to assume the open position, characterized in that the sliding elements of adjacent closure lamellae (12 1 , 12 2 ) are connected to one another in each case via connecting links , adjacent sliding elements being connected to one another via connecting pins by means of the connecting links , each connecting link being pivotable about a vertical axis with respect to the respective connecting pins , so that adjacent sliding elements are connected to one another in the manner of chain links via the connecting links , the connecting links being arranged on the inside of the sliding elements with respect to the closure plates . a plurality of substantially vertically arranged closure lamellae (12 1 , 12 2 ), and a drive device by means of which the closure plates (12 1 , 12 2 ) can be actuated for displacement between a closed position and an open position, and wherein the closure lamellae (12 1 , 12 2 ) are held in relation to one another in an upper and a lower end region via sliding elements in an upper and a lower guide rail of the closure device respectively, in that, on displacement from the closed position into the open position, the closure lamellae (12 1 , 12 2 ) unfold alternately towards one another in order to assume the open position, characterized in that the sliding elements of adjacent closure lamellae (12 1 , 12 2 ) are connected to one another in each case via connecting links , adjacent sliding elements being connected to one another via connecting pins by means of the connecting links , each connecting link being pivotable about a vertical axis with respect to the respective connecting pins , so that adjacent sliding elements are connected to one another in the manner of chain links via the connecting links , the connecting links being arranged on the inside of the sliding elements with respect to the closure plates .
A temperature sensor , comprising: a thermistor element in which a pair of lead-out wires are connected to a thermistor; lead wires respectively connected to the pair of lead-out wires ; and a resin coating layer covering the thermistor element and connection parts at which the lead-out wires are respectively connected to the lead wires , wherein the resin coating layer includes an inner layer and an outer layer , the inner layer seals the thermistor element and the connection parts and is made of an inner layer resin material that is made of a fluorine resin, and the outer layer is disposed around the inner layer , is made of an outer layer resin material that is made of a fluorine resin and has heat shrinkability and a melting point higher than a melting point of the inner layer resin material, and has a flat surface that is to be brought into surface contact with a temperature detected surface of a detection object and that is capable of being deformed following the temperature detected surface when a load (F) is applied to the resin coating layer to press the temperature sensor against the temperature detected surface . a thermistor element in which a pair of lead-out wires are connected to a thermistor; lead wires respectively connected to the pair of lead-out wires ; and a resin coating layer covering the thermistor element and connection parts at which the lead-out wires are respectively connected to the lead wires , wherein the resin coating layer includes an inner layer and an outer layer , the inner layer seals the thermistor element and the connection parts and is made of an inner layer resin material that is made of a fluorine resin, and the outer layer is disposed around the inner layer , is made of an outer layer resin material that is made of a fluorine resin and has heat shrinkability and a melting point higher than a melting point of the inner layer resin material, and has a flat surface that is to be brought into surface contact with a temperature detected surface of a detection object and that is capable of being deformed following the temperature detected surface when a load (F) is applied to the resin coating layer to press the temperature sensor against the temperature detected surface .