mhurhangee/ep-ind-claims huggingface dataset:
A system for manipulating components, comprising: a working surface; at least one discrete manipulable component; and at least one mobile agent, configured to manipulate at least one component on the working surface, comprising: a processor; a sensor, communicatively coupled to the processor, configured to detect the at least one component; a propulsion mechanism, communicatively coupled to the processor, configured to impart motive force to the mobile agent; and at least one actuator, communicatively coupled to the processor, configured to manipulate the at least one component responsive to instructions; and characterized in that: the mobile agent is configured to: request a component from a user; monitor an elapsed time against a time limit t a until an event matching the request occurs; and repeat the request for a component from a user when t a is exceeded up to a number of repeated requests A r have been made; wherein t a and A r are set according to a personality type of the mobile agent. a working surface; at least one discrete manipulable component; and at least one mobile agent, configured to manipulate at least one component on the working surface, comprising: a processor; a sensor, communicatively coupled to the processor, configured to detect the at least one component; a propulsion mechanism, communicatively coupled to the processor, configured to impart motive force to the mobile agent; and at least one actuator, communicatively coupled to the processor, configured to manipulate the at least one component responsive to instructions; and characterized in that: a processor; a sensor, communicatively coupled to the processor, configured to detect the at least one component; a propulsion mechanism, communicatively coupled to the processor, configured to impart motive force to the mobile agent; and at least one actuator, communicatively coupled to the processor, configured to manipulate the at least one component responsive to instructions; and characterized in that: the mobile agent is configured to: request a component from a user; monitor an elapsed time against a time limit t a until an event matching the request occurs; and repeat the request for a component from a user when t a is exceeded up to a number of repeated requests A r have been made; wherein t a and A r are set according to a personality type of the mobile agent. request a component from a user; monitor an elapsed time against a time limit t a until an event matching the request occurs; and repeat the request for a component from a user when t a is exceeded up to a number of repeated requests A r have been made; wherein t a and A r are set according to a personality type of the mobile agent.
A process for imaging a photoresist comprising the steps of a) forming a coating of a photoresist on a substrate; b) forming a barrier coating over the photoresist from a barrier coating solution; c) imagewise exposing the photoresist and the barrier coating using immersion lithography, further where the immersion lithography comprises an immersion liquid between the barrier coating and exposure equipment; and d) developing the coatings with an aqueous alkaline solution, where the barrier coating comprises an alkyl alcohol or carboxylate solvent and a polymer comprising an ionizable group, where the polymer comprising the ionizable group has a pKa ranging from -9 to 11, where the polymer has the structure where W is a spacer group, ZH is the ionizable group, and t=0-5, where R is a polymeric backbone and is selected from a multicyclic polymeric backbone, a monocyclic backbone, a linear aliphatic backbone, a branched aliphatic backbone, an aromatic backbone, a fluorinated alkyl backbone, and mixtures thereof, and where ZH is selected from -C(C n F 2n+1) 2 OH (n=1-8), -PhOH, SO 3 H, PO 3 H and CO 2 H, with the proviso that the barrier coating further comprises a photoactive compound or that the solvent further comprises an n-alkane solvent with the structure C n H 2n+2, where n is between 3 and 12. a) forming a coating of a photoresist on a substrate; b) forming a barrier coating over the photoresist from a barrier coating solution; c) imagewise exposing the photoresist and the barrier coating using immersion lithography, further where the immersion lithography comprises an immersion liquid between the barrier coating and exposure equipment; and d) developing the coatings with an aqueous alkaline solution, where the barrier coating comprises an alkyl alcohol or carboxylate solvent and a polymer comprising an ionizable group, where the polymer comprising the ionizable group has a pKa ranging from -9 to 11, where the polymer has the structure where W is a spacer group, ZH is the ionizable group, and t=0-5, where R is a polymeric backbone and is selected from a multicyclic polymeric backbone, a monocyclic backbone, a linear aliphatic backbone, a branched aliphatic backbone, an aromatic backbone, a fluorinated alkyl backbone, and mixtures thereof, and where ZH is selected from -C(C n F 2n+1) 2 OH (n=1-8), -PhOH, SO 3 H, PO 3 H and CO 2 H, with the proviso that the barrier coating further comprises a photoactive compound or that the solvent further comprises an n-alkane solvent with the structure C n H 2n+2, where n is between 3 and 12. where W is a spacer group, ZH is the ionizable group, and t=0-5, where R is a polymeric backbone and is selected from a multicyclic polymeric backbone, a monocyclic backbone, a linear aliphatic backbone, a branched aliphatic backbone, an aromatic backbone, a fluorinated alkyl backbone, and mixtures thereof, and where ZH is selected from -C(C n F 2n+1) 2 OH (n=1-8), -PhOH, SO 3 H, PO 3 H and CO 2 H, with the proviso that the barrier coating further comprises a photoactive compound or that the solvent further comprises an n-alkane solvent with the structure C n H 2n+2, where n is between 3 and 12.
Biodegradable textile materials characterized in that they contain a plurality of fibers prepared from a melt of a homogeneous polymer mixture having average molecular mass in the range of 100 000 - 270 000, glass transition temperature of 45 - 47°C, melting temperature of 149- 152°C and enthalpy of fusion above 30J/g, consisting in 82-98% wt. of a copolymer of lactide and glycolide having average molecular mass 190 000 - 300 000, glass transition temperature 53 - 60 ° C, a melting point of 152- 155 ° C and a heat of fusion above 41J / g, 2-18% wt. of atactic poly(hydroxybutyrate) and of unreacted monomers in the amount not exceeding 2 % wt.
A cysteine sulfinate desulfinase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein proline, which is an amino acid corresponding to position 302 of SEQ ID NO: 3, is substituted with serine.
Apparatus for converting mechanical energy into electrical energy, comprising: - a first generator having electrical electrodes (11a, 11b) and an electroactive polymer, - a second generator having electrical electrodes (12a, 12b) and an electroactive polymer, - an actuator for introducing mechanical energy into the first generator and into the second generator, - power electronics for applying an electrical voltage (U L1, U L2) to the electrodes (11a, 11b; 12a, 12b), the electroactive polymer of the first generator being set up to have a compressive force applied to it in response to a displacement of the actuator, and the electroactive polymer of the second generator being set up to have a tensile force applied to it in response to the displacement, characterized in that the power electronics comprise an intermediate circuit capacitance (C v), the intermediate circuit capacitance (C v) storing energy received by means of the second generator and providing at least some of the received energy for charging the first generator. - a first generator having electrical electrodes (11a, 11b) and an electroactive polymer, - a second generator having electrical electrodes (12a, 12b) and an electroactive polymer, - an actuator for introducing mechanical energy into the first generator and into the second generator, - power electronics for applying an electrical voltage (U L1, U L2) to the electrodes (11a, 11b; 12a, 12b),
A heat exchanger, made of a plastic material, comprising a stack of plates, whose adjacent plates are spaced apart from each other so that the stack of plates has a set of intermediate spaces enabling a circulation of fluid between these plates, the set of intermediate spaces comprises a plurality of multi-fluid intermediate spaces, each multi-fluid intermediate space being intended for the circulation of several fluids between two adjacent plates of the stack of plates, each of said multi-fluid intermediate spaces being partitioned into several compartments sealingly separated from each other, each compartment being configured for the circulation of a fluid among the plurality of fluids, and each compartment being in fluid communication with one of the compartments of a distinct multi-fluid intermediate space among the plurality of multi-fluid intermediate spaces characterized in that each multi-fluid intermediate space comprises an inner wall extending therethrough so as to sealingly separate at least two adjacent compartments of this multi-fluid intermediate space, and the inner wall is configured to enable a heat exchange between the fluids circulating in these at least two adjacent compartments.
A subsea storage system, comprising: a subsea storage unit (15; 15'; 15"), comprising - a pressure hull having a cargo hold configured for storing cargo (3, 7), and the pressure hull having a movable hatch providing access to the cargo hold; and - a base (2; 8) configured for supporting the storage unit on a seabed; - a docking device connected to the subsea storage unit, characterised by: said docking device comprising a receptacle and proximity sensors; - the system further comprising a lifting wire connected to a connector, and the connector being configured to connect to the receptacle; wherein the receptacle comprises a plurality of spring-loaded pegs, and the connector comprises sockets, wherein the plurality of spring-loaded pegs are configured to be interlocked with the sockets in order to connect the connector to the receptacle; wherein the proximity sensors are configured to sense presence of the connector, and operate the pegs accordingly such that the connector is connected to the receptacle when the proximity sensors sense the presence of the connector. a subsea storage unit (15; 15'; 15"), comprising - a pressure hull having a cargo hold configured for storing cargo (3, 7), and the pressure hull having a movable hatch providing access to the cargo hold; and - a base (2; 8) configured for supporting the storage unit on a seabed; - a docking device connected to the subsea storage unit, - a pressure hull having a cargo hold configured for storing cargo (3, 7), and the pressure hull having a movable hatch providing access to the cargo hold; and - a base (2; 8) configured for supporting the storage unit on a seabed; - a docking device connected to the subsea storage unit, characterised by: said docking device comprising a receptacle and proximity sensors; - the system further comprising a lifting wire connected to a connector, and the connector being configured to connect to the receptacle; - the system further comprising a lifting wire connected to a connector, and the connector being configured to connect to the receptacle; wherein the receptacle comprises a plurality of spring-loaded pegs, and the connector comprises sockets, wherein the plurality of spring-loaded pegs are configured to be interlocked with the sockets in order to connect the connector to the receptacle; wherein the proximity sensors are configured to sense presence of the connector, and operate the pegs accordingly such that the connector is connected to the receptacle when the proximity sensors sense the presence of the connector.
An ultrasonic transducer (1, 1', 31, 31', 71, 71') comprising: piezoelectric elements (8 to 11); a pair of clamping members (2, 3) which clamp said piezoelectric elements (8 to 11); and a cylindrical cover member which is crimped or welded to at least one of said pair of clamping members (2, 3, 82, 83) in a state where said cover member cooperates with said pair of clamping members (2, 3, 82, 83) to surround said piezoelectric elements (8 to 11, 88 to 91), characterised in that said pair of clamping members (2, 3) have insertion portions (2a, 3a) which are inserted from one and other opening portions (12a, 12b) of said cylindrical cover member to clamp said piezoelectric elements (8, 9, 10, 11) placed inside said cylindrical cover member, respectively, and peripheral edge portions (12c, 12d) of said opening portions (12a, 12b) of said cylindrical cover member are each crimped or welded to a respective one of said insertion portions (2a, 3a) of said pair of clamping members (2, 3). piezoelectric elements (8 to 11); a pair of clamping members (2, 3) which clamp said piezoelectric elements (8 to 11); and a cylindrical cover member which is crimped or welded to at least one of said pair of clamping members (2, 3, 82, 83) in a state where said cover member cooperates with said pair of clamping members (2, 3, 82, 83) to surround said piezoelectric elements (8 to 11, 88 to 91), characterised in that said pair of clamping members (2, 3) have insertion portions (2a, 3a) which are inserted from one and other opening portions (12a, 12b) of said cylindrical cover member to clamp said piezoelectric elements (8, 9, 10, 11) placed inside said cylindrical cover member, respectively, and peripheral edge portions (12c, 12d) of said opening portions (12a, 12b) of said cylindrical cover member are each crimped or welded to a respective one of said insertion portions (2a, 3a) of said pair of clamping members (2, 3).
A compound having Formula or a stereoisomer, a tautomer, an N-oxide, a hydrate, a solvate, or a pharmaceutically acceptable salt thereof, wherein X is N or CH; Yis O, S or NH; each R a and R b is independently C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 hydroxyalkyl or C 1-6 alkoxy-C 1-6 alkyl-; or R a and R b, together with the carbon atom to which they are attached, form C 3-8 cycloalkane or 3-8 membered heterocycle; each R 1, R 2, R 3, R 4 and R 5 is independently H, deuterium, F, Cl, Br, I, hydroxy, amino, nitro, cyano, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 hydroxyalkyl, C 1-6 aminoalkyl, C 1-6 alkoxy, C 1-6 alkylamino, C 1-6 haloalkoxy or C 1-6 alkoxy-C 1-6 alkyl; each R 6, R 7, R 8, R 9 and R 10 is independently H, deuterium, F, Cl, Br, I, hydroxy, amino, nitro, cyano, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 hydroxyalkyl, C 1-6 aminoalkyl, C 1-6 alkoxy, C 1-6 alkylamino, C 1-6 haloalkoxy or C 1-6 alkoxy-C 1-6 alkyl or C 3-8 cycloalkyl; R c is C 1-4 alkyl or C 3-6 cycloalkyl; with the proviso that the compound of Formula is not X is N or CH; Yis O, S or NH; each R a and R b is independently C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 hydroxyalkyl or C 1-6 alkoxy-C 1-6 alkyl-; or R a and R b, together with the carbon atom to which they are attached, form C 3-8 cycloalkane or 3-8 membered heterocycle; each R 1, R 2, R 3, R 4 and R 5 is independently H, deuterium, F, Cl, Br, I, hydroxy, amino, nitro, cyano, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 hydroxyalkyl, C 1-6 aminoalkyl, C 1-6 alkoxy, C 1-6 alkylamino, C 1-6 haloalkoxy or C 1-6 alkoxy-C 1-6 alkyl; each R 6, R 7, R 8, R 9 and R 10 is independently H, deuterium, F, Cl, Br, I, hydroxy, amino, nitro, cyano, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 hydroxyalkyl, C 1-6 aminoalkyl, C 1-6 alkoxy, C 1-6 alkylamino, C 1-6 haloalkoxy or C 1-6 alkoxy-C 1-6 alkyl or C 3-8 cycloalkyl; R c is C 1-4 alkyl or C 3-6 cycloalkyl; with the proviso that the compound of Formula is not
A method of synthesizing a global shutter image based on a rolling shutter image, the method comprising: using an elevation dataset corresponding to a rolling shutter image captured by a rolling shutter camera to define a 3D object space that includes information indicative of height of features in object space; projecting the rolling shutter image captured by the rolling shutter camera in a moving aerial camera system, the rolling shutter image having a plurality of scanlines having different associated position and pose information, to the 3D object space by projecting each scanline of the rolling shutter image from a camera optical center determined for the scanline using the position and pose information associated with the scanline, each scanline having a different camera optical center; and projecting, subsequently, from the 3D object space to a synthetic global shutter image. using an elevation dataset corresponding to a rolling shutter image captured by a rolling shutter camera to define a 3D object space that includes information indicative of height of features in object space; projecting the rolling shutter image captured by the rolling shutter camera in a moving aerial camera system, the rolling shutter image having a plurality of scanlines having different associated position and pose information, to the 3D object space by projecting each scanline of the rolling shutter image from a camera optical center determined for the scanline using the position and pose information associated with the scanline, each scanline having a different camera optical center; and projecting, subsequently, from the 3D object space to a synthetic global shutter image.
A control device for a vehicle gearbox, comprising: - a support casing, - a control lever pivotally mounted about an oscillation axis within said support casing and having an upper portion projecting from the support casing and carrying a lever handle, - a pivoting body rotatably mounted within said support casing about said oscillation axis and connected in rotation with said control lever about said oscillation axis, a connecting member for connection of one end of a gearbox control cable, said connecting member being connected to said pivoting body, wherein said connecting member is connected to said pivoting body by means of at least one adapter element, and wherein said adapter element and said pivoting body are configured so that they can be coupled with each other in different relative positions, so as to create different positions and/or different orientations of the control cable with respect to the pivoting body, said device being characterized in that said pivoting body has a cylindrical wall, or a cylindrical wall portion, having an axis substantially coincident with said oscillation axis and having a plurality of seats circumferentially spaced apart from each other and selectively engageable by said adapter element for selectively connecting said adapter element in different corresponding positions on said pivoting body. - a support casing, - a control lever pivotally mounted about an oscillation axis within said support casing and having an upper portion projecting from the support casing and carrying a lever handle, - a pivoting body rotatably mounted within said support casing about said oscillation axis and connected in rotation with said control lever about said oscillation axis, a connecting member for connection of one end of a gearbox control cable, said connecting member being connected to said pivoting body, wherein said connecting member is connected to said pivoting body by means of at least one adapter element, and wherein said adapter element and said pivoting body are configured so that they can be coupled with each other in different relative positions, so as to create different positions and/or different orientations of the control cable with respect to the pivoting body, said device being characterized in that said pivoting body has a cylindrical wall, or a cylindrical wall portion, having an axis substantially coincident with said oscillation axis and having a plurality of seats circumferentially spaced apart from each other and selectively engageable by said adapter element for selectively connecting said adapter element in different corresponding positions on said pivoting body.
A wing for an aircraft provided with a main wing and an arrangement of leading edge lifting bodies, which as seen with reference to the flow direction are arranged on the leading edge, which are adjustably arranged on the main wing one behind another as seen in the spanwise direction (S-T) of the main wing by means of respectively two positioning devices (V1, V2) spaced apart from one another in the spanwise direction (S-T) of the main wing, wherein the wing comprises a connecting device, which is extending in a longitudinal direction (L-K) and which is coupled to each of two adjacent leading edge lifting bodies, wherein the connecting device is executed such that in the event of a fracture of one positioning device of a leading edge lifting body external forces acting on the latter are transferred via the respective connecting device to the leading edge lifting bodies which are coupled via the connecting device and wherein the connecting device comprises a first connecting part which is rigid in the longitudinal direction (L-K) and which is attached to a first leading-edge lifting body and a second connecting part which is rigid in the longitudinal direction (L-K) and which is attached to a second adjacent leading-edge lifting body, situated near the first leading-edge lifting body, such that each connecting part (71, 72) cannot rotate with respect to the respective leading-edge lifting body, characterized in that the connecting parts (71, 72) are respectively connected with one another via an elastic bearing.
An inkjet ink comprising: an ink vehicle; a diethylene glycol C 3-8 alkyl ether; a first surfactant of formula; and and a second surfactant different than the first surfactant, wherein: R 4 is C 4-20 alkyl; and R 7 is selected from the group consisting of: H and CH 2 OH. an ink vehicle; a diethylene glycol C 3-8 alkyl ether; a first surfactant of formula; and and a second surfactant different than the first surfactant, wherein: R 4 is C 4-20 alkyl; and R 7 is selected from the group consisting of: H and CH 2 OH. R 4 is C 4-20 alkyl; and R 7 is selected from the group consisting of: H and CH 2 OH.
A T cell receptor, which has an activity of binding to SLLMWITQC-HLA A2 complex and comprises a TCR α chain variable domain and a TCR β chain variable domain, the TCR α chain variable domain comprises three CDR regions, and the TCR β chain variable domain comprises three CDR regions, wherein the TCR has a CDR selected from the group consisting of: TCR No. CDR1α CDR2α CDR3α CDR1β cDR2β CDR3β 19 TSINN IRSNERE MYDENGKII SGHDY FNNNVP ASSLGSNEQY 20 TSINN IRSNERE MYDQNGKII SGHDY FNNNVP ASSLGSNEQY.