mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for an organic optoelectronic element, comprising a first compound for an organic optoelectronic element represented by a combination of Chemical Formula 1 and Chemical Formula 2; and a second compound for an organic optoelectronic element represented by one of Chemical Formula 3-I-1 to Chemical Formula 3-I-3: wherein, in Chemical Formula 1, Chemical Formula 2 and Chemical Formula 3-I-1 to Chemical Formula 3-I-3, Ar 1 and Ar 2 are independently a substituted or unsubstituted C6 to C30 aryl group, R 1 to R 3 are independently hydrogen, deuterium, or a cyano group, adjacent two of Chemical Formula 1 are linked with *'s of Chemical Formula 2, *'s in Chemical Formula 1 which are not linked with *'s of Chemical Formula 2 are independently CR a , R a is hydrogen, deuterium, a cyano group, a substituted or unsubstituted C1 to C10 alkyl group, a substituted or unsubstituted C6 to C20 aryl group, or a substituted or unsubstituted C2 to C30 heterocyclic group, L 1 to L 5 are independently a single bond or an unsubstituted C6 to C30 arylene group, Ar 3 is an unsubstituted C6 to C20 aryl group, Z 1 to Z 6 are independently N or CR b , at least two of Z 1 to Z 3 are N, at least two of Z 4 to Z 6 are N, R b , R c , R d , R e , and R 4 to R 8 are independently hydrogen, deuterium, a cyano group, a substituted or unsubstituted C1 to C10 alkyl group, or a substituted or unsubstituted C6 to C20 aryl group, and X 1 and X 2 are independently O or S. a first compound for an organic optoelectronic element represented by a combination of Chemical Formula 1 and Chemical Formula 2; and a second compound for an organic optoelectronic element represented by one of Chemical Formula 3-I-1 to Chemical Formula 3-I-3: wherein, in Chemical Formula 1, Chemical Formula 2 and Chemical Formula 3-I-1 to Chemical Formula 3-I-3, Ar 1 and Ar 2 are independently a substituted or unsubstituted C6 to C30 aryl group, R 1 to R 3 are independently hydrogen, deuterium, or a cyano group, adjacent two of Chemical Formula 1 are linked with *'s of Chemical Formula 2, *'s in Chemical Formula 1 which are not linked with *'s of Chemical Formula 2 are independently CR a , R a is hydrogen, deuterium, a cyano group, a substituted or unsubstituted C1 to C10 alkyl group, a substituted or unsubstituted C6 to C20 aryl group, or a substituted or unsubstituted C2 to C30 heterocyclic group, L 1 to L 5 are independently a single bond or an unsubstituted C6 to C30 arylene group, Ar 3 is an unsubstituted C6 to C20 aryl group, Z 1 to Z 6 are independently N or CR b , at least two of Z 1 to Z 3 are N, at least two of Z 4 to Z 6 are N, R b , R c , R d , R e , and R 4 to R 8 are independently hydrogen, deuterium, a cyano group, a substituted or unsubstituted C1 to C10 alkyl group, or a substituted or unsubstituted C6 to C20 aryl group, and X 1 and X 2 are independently O or S.
Valve for a hydraulic cylinder group adapted to control the oil flow to a cylinder of said hydraulic cylinder group , the cylinder being provided with a single hydraulic connection on one side only, the valve comprising: a. a body adapted to enclose a wall that defines a shutter cavity , b. a shutter sliding in said shutter cavity so as to provide a seal against the wall of said shutter cavity , c. a first connection for the connection to a pump adapted to provide an oil flow, d. a second connection for the connection to the cylinder of the hydraulic cylinder group , e. a third connection for the connection to a discharge tank, f. a pneumatic drive unit in which a first chamber (C1) is defined to axially move the shutter in the shutter cavity of the valve by a compressed air flow and define at least three different positions including a neutral position, a lifting position, and a lowered position, g. a limiting device that can be activated when the drive unit is in lifting position and being movable between a non-operating position in which the passage of compressed air from an inlet (S1) to the first chamber (C1) is allowed, and an operating position in which the first chamber (C1) of the drive unit is set to discharge and the pneumatic supply to the valve shutter is interrupted, characterized in that said limiting device is rigidly connected to said pneumatic drive unit at one end in which said first chamber (C1) is defined, and in that said limiting device includes a slider and an actuating element , said slider being movable by abutment of said actuating element against an actuating element fixable to a support structure of the hydraulic cylinder group in order to bring the limiting device selectively in the non-operating position or in the operating position. a. a body adapted to enclose a wall that defines a shutter cavity , b. a shutter sliding in said shutter cavity so as to provide a seal against the wall of said shutter cavity , c. a first connection for the connection to a pump adapted to provide an oil flow, d. a second connection for the connection to the cylinder of the hydraulic cylinder group , e. a third connection for the connection to a discharge tank, f. a pneumatic drive unit in which a first chamber (C1) is defined to axially move the shutter in the shutter cavity of the valve by a compressed air flow and define at least three different positions including a neutral position, a lifting position, and a lowered position, g. a limiting device that can be activated when the drive unit is in lifting position and being movable between a non-operating position in which the passage of compressed air from an inlet (S1) to the first chamber (C1) is allowed, and an operating position in which the first chamber (C1) of the drive unit is set to discharge and the pneumatic supply to the valve shutter is interrupted,
Method for manufacturing compound material wafers, in particular silicon on insulator type wafers, comprising the steps: a) providing an initial donor substrate , b) forming an insulating layer over the initial donor substrate , c) forming a predetermined splitting area in the initial donor substrate , d) attaching the initial donor substrate to a handle substrate , and e) detaching the donor substrate at the predetermined splitting area , thereby transferring a layer of the initial donor substrate onto the handle substrate to form a compound material wafer , and further comprising at least one thermal treatment step configured to at least partially reduce, in particular by dissolution, oxygen precipitates and/or nuclei, in the initial donor substrate and/or the remainder of the donor substrate , wherein the remainder of the donor substrate is reused as initial donor substrate , wherein steps b) to e) are repeated at least once before further thermal treatment step is carried out, and wherein at least one of the at least one thermal treatment step is carried out between step a) and b); and characterised in that said at least one of the at least one thermal treatment steps is a rapid thermal oxidation step. a) providing an initial donor substrate , b) forming an insulating layer over the initial donor substrate , c) forming a predetermined splitting area in the initial donor substrate , d) attaching the initial donor substrate to a handle substrate , and e) detaching the donor substrate at the predetermined splitting area , thereby transferring a layer of the initial donor substrate onto the handle substrate to form a compound material wafer , and
A hydraulic head assembly comprising: a hydraulic head having a first bore and a pumping chamber ; an adapter having a second bore , the adapter being connected to said hydraulic head such that said first and second bores form a substantially continuous pumping element bore; and a pumping element disposed within said pumping element bore for pressurising fuel in the pumping chamber ;and a collection chamber ; wherein a first seal is formed between the pumping element and the hydraulic head ; and a second seal is formed between the pumping element and the adapter , wherein the hydraulic head comprises a turret through which the first bore extends, the adapter being connected to said turret , wherein the adapter comprises a mounting section for mounting the adapter to the hydraulic head and, wherein the mounting section comprises a collar for cooperating with the turret , wherein the collar is an interference fit with an external sidewall of the turret , characterized in that a leakage path is formed between the turret and the adapter and, the collection chamber is in communication with the leakage path and , the adapter comprises a backleak bore . a hydraulic head having a first bore and a pumping chamber ; an adapter having a second bore , the adapter being connected to said hydraulic head such that said first and second bores form a substantially continuous pumping element bore; and a pumping element disposed within said pumping element bore for pressurising fuel in the pumping chamber ;and a collection chamber ; wherein a first seal is formed between the pumping element and the hydraulic head ; and a second seal is formed between the pumping element and the adapter , wherein the hydraulic head comprises a turret through which the first bore extends, the adapter being connected to said turret , wherein the adapter comprises a mounting section for mounting the adapter to the hydraulic head and, wherein the mounting section comprises a collar for cooperating with the turret , wherein the collar is an interference fit with an external sidewall of the turret , characterized in that a leakage path is formed between the turret and the adapter and, the collection chamber is in communication with the leakage path and , the adapter comprises a backleak bore .
A computer implemented method for allocating frequency channels among a set of neighboring access points (1-10), the method comprises: - computing one or more activity-based distances for every possible combination of two access points within the set of neighboring access points by using a dynamic time warping algorithm, wherein each activity-based distance of the one or more activity-based distances represents a similarity between two temporal sequences of a frequency channel's usage of the two access points, wherein the two temporal sequences are from the two access points, respectively, from the set of neighboring access points, and wherein each activity-based distance is inversely proportional to the duration of a time overlap of a same frequency channel used by the two access points during the two temporal sequences; and - allocating frequency channels to all access points from the set of neighboring access points based on the one or more activity-based distances, wherein the step of allocating the frequency channels is performed by minimizing a sum of the time overlaps of the same frequency channel. - computing one or more activity-based distances for every possible combination of two access points within the set of neighboring access points by using a dynamic time warping algorithm, wherein each activity-based distance of the one or more activity-based distances represents a similarity between two temporal sequences of a frequency channel's usage of the two access points, wherein the two temporal sequences are from the two access points, respectively, from the set of neighboring access points, and wherein each activity-based distance is inversely proportional to the duration of a time overlap of a same frequency channel used by the two access points during the two temporal sequences; and wherein each activity-based distance of the one or more activity-based distances represents a similarity between two temporal sequences of a frequency channel's usage of the two access points, wherein the two temporal sequences are from the two access points, respectively, from the set of neighboring access points, and wherein each activity-based distance is inversely proportional to the duration of a time overlap of a same frequency channel used by the two access points during the two temporal sequences; and - allocating frequency channels to all access points from the set of neighboring access points based on the one or more activity-based distances, wherein the step of allocating the frequency channels is performed by minimizing a sum of the time overlaps of the same frequency channel.
A high-frequency surgical device for treatment of a tissue surface, comprising an electrode unit , in the case of which a first electrode is formed in a flat manner on a working surface , which is intended for tissue contact and which protrudes in a convex manner, and comprising a high-frequency generator , which comprises a high-frequency voltage source and to the one pole of which the first electrode can be connected for operation, wherein the high-frequency surgical device is formed and set up to create a plasma in a conductive liquid, wherein a second electrode , which can be connected to the same pole , is formed in a flat manner on the working surface , wherein a control unit is connected and formed to initially connect the first electrode to create a plasma by means of the first electrode , and to then additionally connect the second electrode , and wherein the control unit is formed to be additionally connected after detection of the ignition of the plasma by measuring the voltage between two poles of the high-frequency voltage source with the help of a measurement circuit .
A structural member comprising: a pair of opposing flanges with a first round flange having a substantially circular cross sectional shape and a first chamfered surface extending longitudinally along the length thereof, a second round flange substantially parallel to the first round flange, the second round flange having a substantially circular cross sectional shape and a second chamfered surface extending longitudinally along the length thereof, an elongate web disposed between the first and second round flange, the web having: a first face configured to contact the first chamfered surface, a second face configured to contact the second chamfered surface, an upper edge , and a lower edge , wherein the first round flange, the second round flange and the elongate web are secured together to form a structurally integral unit in which at least part of the first face of the web is in contact with at least part of the first chamfered surface of the first round flange, and at least part of the second face of the web is in contact with at least part of the second chamfered surface of the second round flange, and wherein the first and second chamfered surfaces are laminated along the sides and lengths of the web. a pair of opposing flanges with a first round flange having a substantially circular cross sectional shape and a first chamfered surface extending longitudinally along the length thereof, a second round flange substantially parallel to the first round flange, the second round flange having a substantially circular cross sectional shape and a second chamfered surface extending longitudinally along the length thereof, an elongate web disposed between the first and second round flange, the web having: a first face configured to contact the first chamfered surface, a second face configured to contact the second chamfered surface, an upper edge , and a lower edge , a first face configured to contact the first chamfered surface, a second face configured to contact the second chamfered surface, an upper edge , and a lower edge , wherein the first round flange, the second round flange and the elongate web are secured together to form a structurally integral unit in which at least part of the first face of the web is in contact with at least part of the first chamfered surface of the first round flange, and at least part of the second face of the web is in contact with at least part of the second chamfered surface of the second round flange, and wherein the first and second chamfered surfaces are laminated along the sides and lengths of the web.
An antibacterial nonwoven member comprising a nonwoven mass containing a piezoelectric body , the piezoelectric body having a first piezoelectric body and a second piezoelectric body; and a plurality of yarns having a first yarn made from the first piezoelectric body and a second yarn made from the second piezoelectric body ; the first yarn generating a positive electric charge when an external force is applied and the second yarn generating a negative electric charge when an external force is applied, wherein the antibacterial nonwoven member inhibits growth of bacteria due to an electric charge generated when an external force is applied to the piezoelectric body. comprising a nonwoven mass containing a piezoelectric body , the piezoelectric body having a first piezoelectric body and a second piezoelectric body; and a plurality of yarns having a first yarn made from the first piezoelectric body and a second yarn made from the second piezoelectric body ; the first yarn generating a positive electric charge when an external force is applied and the second yarn generating a negative electric charge when an external force is applied, wherein the antibacterial nonwoven member inhibits growth of bacteria due to an electric charge generated when an external force is applied to the piezoelectric body.
An adjustable handling wheel mechanism for handling and movement of furniture, comprising a supporting member attachable to a base frame of the furniture, and at least two arms characterized in that at least one arm is a supporting arm of the adjustable handling wheel and at least one arm is control arm comprising a slotted link , in which a sliding member moves freely, at least at one end, whereas both arms are interconnected wherein the supporting arm is attached to the supporting member using a first pin at one end and at its other end is attached to the adjustable handling wheel using a second pin , wherein above this joint the supporting arm is coupled with the control arm which is attached to the supporting member using a fourth pin at the opposite end of the control arm , wherein the supporting arm bears the adjusting handling wheel which moves from at least one position to another position using the third pin in the sliding member of the slotted link of the control arm , wherein the particular position of the adjustable handling wheel is defined by the third pin of the supporting arm according to location of this third pin in the slotted link of the control arm .
Apparatus for detecting spectra of light emanating from a plurality of reaction vessels in each of which a chemical or biochemical reaction may occur, the apparatus comprising: a plurality of reaction vessels, each reaction vessel comprising a receptacle portion in which the chemical or biochemical reaction may occur and within which light having a spectrum may be produced, the receptacle portion having an emitting area from which at least part of the produced light can emanate; a masking element having an array of apertures arranged so that there are at least two apertures adjacent each reaction vessel through which at least part of the produced light emanating through the respective emitting area can pass, each aperture being smaller than the emitting area of the receptacle portion of the respective reaction vessel ; a plurality of light waveguides comprising at least two light waveguides for each reaction vessel , each light waveguide arranged to guide the light from a respective aperture of the array of apertures in the masking element ; and a light detecting device for simultaneously receiving the light guided by the plurality of light waveguides for all of the reaction vessels in which light is produced and for simultaneously detecting spectra of the light received from the light waveguides, wherein one waveguide per reaction vessel is arranged to guide the light to one portion of the light detecting device for detecting one specific spectrum of the light and another waveguide per reaction vessel is arranged to guide the light to another portion of the light detecting device for detecting one specific spectrum of the light. a plurality of reaction vessels, each reaction vessel comprising a receptacle portion in which the chemical or biochemical reaction may occur and within which light having a spectrum may be produced, the receptacle portion having an emitting area from which at least part of the produced light can emanate; a masking element having an array of apertures arranged so that there are at least two apertures adjacent each reaction vessel through which at least part of the produced light emanating through the respective emitting area can pass, each aperture being smaller than the emitting area of the receptacle portion of the respective reaction vessel ; a plurality of light waveguides comprising at least two light waveguides for each reaction vessel , each light waveguide arranged to guide the light from a respective aperture of the array of apertures in the masking element ; and a light detecting device for simultaneously receiving the light guided by the plurality of light waveguides for all of the reaction vessels in which light is produced and for simultaneously detecting spectra of the light received from the light waveguides, wherein one waveguide per reaction vessel is arranged to guide the light to one portion of the light detecting device for detecting one specific spectrum of the light and another waveguide per reaction vessel is arranged to guide the light to another portion of the light detecting device for detecting one specific spectrum of the light.
An operation method of a terminal in a communication network, the operation method comprising: receiving, from a base station, a first higher layer signaling message (S1600) which includes information indicating that a multi-uplink grant used for scheduling a plurality of subframes is enabled among a single-uplink grant and the multi-uplink grant; transmitting a second message including an indicator indicating that the terminal supports a communication operation using the multi-uplink grant to the base station; detecting a control channel of a subframe #n transmitted from the base station (S1640); receiving the multi-uplink grant including a scheduling delay offset from the control channel; determining a position of a first subframe among the plurality of subframes scheduled by the multi-uplink grant using the scheduling delay offset; and transmitting the plurality of subframes scheduled by the multi-uplink grant to the base station (S1650) wherein the plurality of subframes include subframes #(n+l+k) to #(n+l+k+(N SF -1)), the subframe #(n+1+k) is the first subframe, n is an integer equal to or greater than 0, 1 is an integer equal to or greater than 4, k, which means the scheduling delay offset, is an integer equal to or greater than 0, and N SF is a number of the plurality of subframes. receiving, from a base station, a first higher layer signaling message (S1600) which includes information indicating that a multi-uplink grant used for scheduling a plurality of subframes is enabled among a single-uplink grant and the multi-uplink grant; transmitting a second message including an indicator indicating that the terminal supports a communication operation using the multi-uplink grant to the base station; detecting a control channel of a subframe #n transmitted from the base station (S1640); receiving the multi-uplink grant including a scheduling delay offset from the control channel; determining a position of a first subframe among the plurality of subframes scheduled by the multi-uplink grant using the scheduling delay offset; and transmitting the plurality of subframes scheduled by the multi-uplink grant to the base station (S1650) wherein the plurality of subframes include subframes #(n+l+k) to #(n+l+k+(N SF -1)), the subframe #(n+1+k) is the first subframe, n is an integer equal to or greater than 0, 1 is an integer equal to or greater than 4, k, which means the scheduling delay offset, is an integer equal to or greater than 0, and N SF is a number of the plurality of subframes.