mhurhangee/ep-ind-claims huggingface dataset:
An analysis and diagnostic device for detecting stress in an experimentee comprising at least one sensor adapted to detect vital signals of the experimentee and to feed same to a memory unit, a voltage supply, and an evaluation unit connected to the memory unit, wherein a time-resolved configuration of the vital signals detected by the at least one sensor can be evaluated by means of the evaluation unit and wherein provided in the evaluation unit is a comparator adapted to diagnose stress by means of a comparison of the time-resolved configuration of the detected vital signals with time-resolved stress vital patterns stored in a data base, characterised in that the sensor is in the form of a bioacoustic sensor for the detection of intracoporeally produced sound, wherein there is further provided an alarm unit for alarming the experimentee or patient in the case of a stress situation.
A nursery fruit tree of at least double trunk type, wherein the nursery fruit tree is a hardwood fruit tree, and wherein the nursery fruit tree comprises a branched rootstock containing at least two branches, each branch grafted with a scion, wherein the at least two scions are scions of the same variety.
A therapeutic ultrasound system (100, 200, 300, 400) comprising: a treatment pulse unit (112, 408) configured to transmit an ultrasound pulse (118, 220, 313, 414) to a treatment region (119, 222, 314, 416, 618, 718, 820) of a subject, the treatment region comprising a plurality of microbubbles (120, 224, 418); an echo detection unit (124, 422) configured to receive one or more echoes (122, 226, 315, 420) responsive to the ultrasound pulse; a data processor (130, 228, 430) in communication with the echo detection unit (124, 422), the data processor configured to identify, using data associated with the echoes (122, 226, 315, 420), at least one echo signature indicative of a dynamic state of the microbubbles (120, 224, 418) in response to the ultrasound pulse; and a controller (110, 230, 406) in communication with the data processor (130, 228, 430), the controller configured to adjust one or more parameters of an additional ultrasound pulse transmitted to the treatment region (119, 222, 314, 416, 618, 718, 820) based on the at least one echo signature, characterized in that the controller (110, 230, 406) is further configured to match a duration of the additional ultrasound pulse (118, 220, 313, 414) to a duration of the at least one echo signature, wherein the at least one echo signature is derived from a sub-region (121, 223, 417) of the treatment region to which the ultrasound pulse is transmitted. a treatment pulse unit (112, 408) configured to transmit an ultrasound pulse (118, 220, 313, 414) to a treatment region (119, 222, 314, 416, 618, 718, 820) of a subject, the treatment region comprising a plurality of microbubbles (120, 224, 418); an echo detection unit (124, 422) configured to receive one or more echoes (122, 226, 315, 420) responsive to the ultrasound pulse; a data processor (130, 228, 430) in communication with the echo detection unit (124, 422), the data processor configured to identify, using data associated with the echoes (122, 226, 315, 420), at least one echo signature indicative of a dynamic state of the microbubbles (120, 224, 418) in response to the ultrasound pulse; and a controller (110, 230, 406) in communication with the data processor (130, 228, 430), the controller configured to adjust one or more parameters of an additional ultrasound pulse transmitted to the treatment region (119, 222, 314, 416, 618, 718, 820) based on the at least one echo signature, characterized in that the controller (110, 230, 406) is further configured to match a duration of the additional ultrasound pulse (118, 220, 313, 414) to a duration of the at least one echo signature, wherein the at least one echo signature is derived from a sub-region (121, 223, 417) of the treatment region to which the ultrasound pulse is transmitted.
Structural assembly for a fluid-flow machine, provided with: - a main flow path boundary confining a main flow path of a fluid-flow machine, wherein at least one row of blades each with one blade end is arranged in the main flow path, wherein a gap exists between the blade ends of the at least one row of blades and the main flow path boundary, and wherein there is a rotating relative movement between the blades of a blade row and the main flow path boundary, and - at least one secondary flow duct, having in the main flow path boundary an opening (111, 112) each at ends spaced apart in the flow direction, such that the secondary flow duct is connected to the main flow path via the two openings (111, 112), wherein - the structural assembly has at least one support component and at least one replaceable plug connected directly or indirectly to the support component, and - the replaceable plug includes a part-section of a secondary flow duct, wherein the part-section complements at least one further part-section of the secondary flow duct extending outside the plug in the structural assembly to form a secondary flow duct which is continuous between its openings (111, 112), characterized in that the support component is designed such that for the purposes of fitting and removing of the replaceable plug, direct access to the replaceable plug is possible from the side facing away from the main flow path, so that the replaceable plug can be replaced from that side of the support component facing away from the main flow path without removing other structural components. - a main flow path boundary confining a main flow path of a fluid-flow machine, wherein at least one row of blades each with one blade end is arranged in the main flow path, wherein a gap exists between the blade ends of the at least one row of blades and the main flow path boundary, and wherein there is a rotating relative movement between the blades of a blade row and the main flow path boundary, and - at least one secondary flow duct, having in the main flow path boundary an opening (111, 112) each at ends spaced apart in the flow direction, such that the secondary flow duct is connected to the main flow path via the two openings (111, 112), wherein - the structural assembly has at least one support component and at least one replaceable plug connected directly or indirectly to the support component, and - the replaceable plug includes a part-section of a secondary flow duct, wherein the part-section complements at least one further part-section of the secondary flow duct extending outside the plug in the structural assembly to form a secondary flow duct which is continuous between its openings (111, 112),
A lever type connector assembly comprising a lever type connector and a mating connector, wherein the lever type connector is mated with a mating connector by operating a rotatable lever with a mating portion thereof being received in a receiving space of the mating connector, wherein the lever type connector comprises: a lever side housing that holds a plurality of lever side contacts; an outer housing that is located to cover the lever side housing; a wire cover mounted to the outer housing; a lever rotatably mounted to the wire cover to be rotatable between a mating start position and a mating completion position; and a cam mechanism that has a cam groove and is moved by rotation of the lever, wherein the mating connector includes: a cam protrusion inserted into the cam groove; a mating housing that holds mating contacts electrically connected to the lever side contacts, wherein the cam protrusion is formed on the mating housing; and characterised in that a rib is placed between the lever side housing and the mating housing in a position corresponding to the cam protrusion, said rib is formed integrally with an outer surface of the lever side housing facing the mating housing, said rib is a cam protrusion displacement restricting body which fills a gap between the lever side housing and the mating housing to restrict displacement of the mating housing. a lever side housing that holds a plurality of lever side contacts; an outer housing that is located to cover the lever side housing; a wire cover mounted to the outer housing; a lever rotatably mounted to the wire cover to be rotatable between a mating start position and a mating completion position; and a cam mechanism that has a cam groove and is moved by rotation of the lever, a cam protrusion inserted into the cam groove; a mating housing that holds mating contacts electrically connected to the lever side contacts, wherein the cam protrusion is formed on the mating housing; and characterised in that a rib is placed between the lever side housing and the mating housing in a position corresponding to the cam protrusion, said rib is formed integrally with an outer surface of the lever side housing facing the mating housing, said rib is a cam protrusion displacement restricting body which fills a gap between the lever side housing and the mating housing to restrict displacement of the mating housing.
A coating liquid for producing a gas barrier laminate, the coating liquid containing a carboxyl group-containing polymer (a), polyvalent metal-containing particles (b), a surfactant (c), a silicon-containing compound (d), and an organic solvent (e), wherein the silicon-containing compound (d) is at least one selected from a group consisting of silane coupling agents represented by general formulas and below, and hydrolysates and condensates thereof, an equivalence ratio (b t /a t) of a product (b t) of a number of moles and a valency of a polyvalent metal contained in the polyvalent metal particles (b) relative to a number of moles (a t) of carboxyl groups contained in the carboxyl group-containing polymer (a) is 0.45 or more and 0.9 or less, and a molar ratio (d t /a t) of a number of moles (d t) of the silicon-containing compound (d) relative to a number of moles (a t) of the carboxyl groups is 0.7% or more and 7.5% or less, d t in the molar ratio (d t /a t) being the number of moles of the silicon-containing compound (d) when converted to the silane coupling agent; Si(OR 1) 3 Z 1... Si(R 2)(OR 3) 2 Z 2... wherein, in general formula 1, R 1 is an alkyl group having 1 to 6 carbon atoms, which may be the same or different, and Z 1 is a group containing an epoxy group, and in general formula, R 2 is a methyl group, R 3 is an alkyl group having 1 to 6 carbon atoms, which may be the same or different, and Z 2 is a group containing an epoxy group. the silicon-containing compound (d) is at least one selected from a group consisting of silane coupling agents represented by general formulas and below, and hydrolysates and condensates thereof, an equivalence ratio (b t /a t) of a product (b t) of a number of moles and a valency of a polyvalent metal contained in the polyvalent metal particles (b) relative to a number of moles (a t) of carboxyl groups contained in the carboxyl group-containing polymer (a) is 0.45 or more and 0.9 or less, and a molar ratio (d t /a t) of a number of moles (d t) of the silicon-containing compound (d) relative to a number of moles (a t) of the carboxyl groups is 0.7% or more and 7.5% or less, d t in the molar ratio (d t /a t) being the number of moles of the silicon-containing compound (d) when converted to the silane coupling agent; Si(OR 1) 3 Z 1... Si(R 2)(OR 3) 2 Z 2... wherein, in general formula 1, R 1 is an alkyl group having 1 to 6 carbon atoms, which may be the same or different, and Z 1 is a group containing an epoxy group, and in general formula, R 2 is a methyl group, R 3 is an alkyl group having 1 to 6 carbon atoms, which may be the same or different, and Z 2 is a group containing an epoxy group.
A coding apparatus comprising: a down-sampling section that lowers a sampling rate of an input acoustic signal; a base layer coding section that encodes an input acoustic signal of which sampling rate is lowered and obtains first coding information; a decoding section that generates a decoded signal based on said first coding information; an up-sampling section that raises a sampling rate of said decoded signal to a rate identical to that of said input acoustic signal; an enhancement layer coding section that uses a parameter generated in decoding processing of said decoding section, encodes a difference value between said input acoustic signal and said decoded signal of which sampling rate is raised, and obtains second coding information; and a multiplexing section that multiplexes said first coding information and said second coding information; characterized in that wherein said enhancement layer coding section is adapted to convert the base layer LPC coefficients input from the decoding section to the enhancement layer LPC coefficients based on a preset conversion table, calculate a spectral envelope based on the enhancement layer LPC coefficients, and use said spectral envelope in at least one of spectrum normalization or vector quantization for coding processing. a down-sampling section that lowers a sampling rate of an input acoustic signal; a base layer coding section that encodes an input acoustic signal of which sampling rate is lowered and obtains first coding information; a decoding section that generates a decoded signal based on said first coding information; an up-sampling section that raises a sampling rate of said decoded signal to a rate identical to that of said input acoustic signal; an enhancement layer coding section that uses a parameter generated in decoding processing of said decoding section, encodes a difference value between said input acoustic signal and said decoded signal of which sampling rate is raised, and obtains second coding information; and a multiplexing section that multiplexes said first coding information and said second coding information; characterized in that wherein said enhancement layer coding section is adapted to convert the base layer LPC coefficients input from the decoding section to the enhancement layer LPC coefficients based on a preset conversion table, calculate a spectral envelope based on the enhancement layer LPC coefficients, and use said spectral envelope in at least one of spectrum normalization or vector quantization for coding processing.
A bicycle comprising a suspension system (115, 540, 102, 202, 302) comprising: a first connection structure operably coupling each of a front frame (112, 212, 312, 412, 512, 612) and a rear frame (114, 214, 314, 414, 514, 714) together; and a first sliding body (622, 623, 288, 388, 488, 788) pivotally coupled to the rear frame (114, 214, 314, 414, 514, 714) and characterised in that the first sliding body is configured to first travel in a first direction along a substantially linear travel path and then in a second direction opposite the first direction along the substantially linear travel path as the suspension system (115, 540, 102, 202, 302) moves between a relatively uncompressed stage to a relatively compressed stage. a first connection structure operably coupling each of a front frame (112, 212, 312, 412, 512, 612) and a rear frame (114, 214, 314, 414, 514, 714) together; and a first sliding body (622, 623, 288, 388, 488, 788) pivotally coupled to the rear frame (114, 214, 314, 414, 514, 714) and characterised in that the first sliding body is configured to first travel in a first direction along a substantially linear travel path and then in a second direction opposite the first direction along the substantially linear travel path as the suspension system (115, 540, 102, 202, 302) moves between a relatively uncompressed stage to a relatively compressed stage.
A three-phase AC induction motor control device configured to control a torque based on a two-axis orthogonal coordinate system in synchronization with a power supply angular frequency, the control device comprising a non-interference controller configured to receive a motor rotation speed, a torque command value, and a power supply voltage as an input and compute a torque axis non-interference compensation voltage and a magnetic flux axis non-interference compensation voltage by referencing a map stored in advance; characterized by a non-interference magnetic flux response filter configured to perform filtering including a direct transfer term and a rotor magnetic flux response delay, for the torque axis non-interference compensation voltage.
A reaction vessel assembly for use in a thermal cycling reaction, the assembly comprising at least one reaction vessel having a mouth, a body, and a tip; and a casing defining a cavity having an opening, the casing further having an engaging surface opposed to the opening; wherein in a first configuration the reaction vessel is received within the cavity of the casing via the opening, and in a second configuration the reaction vessel is not within the cavity and the engaging surface of the casing engages with the mouth of the reaction vessel to close the mouth.
A stator for a reciprocating motor comprising: an annular coil winding in which a coil is wound plural times and fixed and insulated by a bonding material which is coated on the circumferential surface of each coil, thereby being distributed between the windings; an insulation band formed in a circular band shape along an outer circumferential surface of the coil winding; an annular bobbin coupled to both outer side surfaces of the coil winding, for covering the coil winding together with the insulation band; a plurality of core blocks coupled on the bobbin in a circumferential direction; and an inner core disposed with a certain interval between an outer circumference thereof and an inner circumferential surface of the bobbin and the plurality of core blocks, wherein the insulation band is formed of a contractile tube which is contracted by heating, and wherein the bobbin is formed of two parts (510, 520), and the two separate parts (510, 520) are respectively coupled to respective side surfaces of the coil winding. an annular coil winding in which a coil is wound plural times and fixed and insulated by a bonding material which is coated on the circumferential surface of each coil, thereby being distributed between the windings; an insulation band formed in a circular band shape along an outer circumferential surface of the coil winding; an annular bobbin coupled to both outer side surfaces of the coil winding, for covering the coil winding together with the insulation band; a plurality of core blocks coupled on the bobbin in a circumferential direction; and an inner core disposed with a certain interval between an outer circumference thereof and an inner circumferential surface of the bobbin and the plurality of core blocks, wherein the insulation band is formed of a contractile tube which is contracted by heating, and wherein the bobbin is formed of two parts (510, 520), and the two separate parts (510, 520) are respectively coupled to respective side surfaces of the coil winding.
A storage battery unit integrally comprising: a storage battery; a controller that has a monitoring function configured to monitor the storage battery; a control power supply configured to supply the controller with operating power for operating the controller; a charging-discharging terminal for charging and discharging of the storage battery; and a switch disposed along a charging-discharging line between the charging-discharging terminal and the storage battery, wherein the controller is configured, as the monitoring function, to judge whether or not a malfunction of the storage battery is present, and also to control, when a malfunction occurs in the storage battery, a notification means so that the notification means gives a notification of the malfunction of the storage battery, characterized in that wherein the control power supply is connected to the charging-discharging line between the charging-discharging terminal and the switch, and is configured to receive electric power through the charging-discharging line to supply the controller with the operating power, and the switch is configured to be opened when the storage battery is not used. a storage battery; a controller that has a monitoring function configured to monitor the storage battery; a control power supply configured to supply the controller with operating power for operating the controller; a charging-discharging terminal for charging and discharging of the storage battery; and a switch disposed along a charging-discharging line between the charging-discharging terminal and the storage battery, wherein the controller is configured, as the monitoring function, to judge whether or not a malfunction of the storage battery is present, and also to control, when a malfunction occurs in the storage battery, a notification means so that the notification means gives a notification of the malfunction of the storage battery, characterized in that wherein the control power supply is connected to the charging-discharging line between the charging-discharging terminal and the switch, and is configured to receive electric power through the charging-discharging line to supply the controller with the operating power, and the switch is configured to be opened when the storage battery is not used.
A tire comprising: a pair of beads; at least one carcass ply extending from one bead to the other bead forming a pair of sidewall areas of the tire and a tread area of the tire; and, at least one layer of a knit fabric in the sidewall area of the tire, wherein the knit fabric has a warp and weft direction (500a, 500b) and comprises a first set of warp yarns and a second set of warp yarns, wherein the first set of warp yarns has a repeating pattern comprising: a first turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in a first direction, a second turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in a second direction opposite to the first direction, and wherein the second set of warp yarns has a repeating pattern comprising: a first turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in the second direction, a second turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in the first direction, and characterized in that the stitch shifts of the repeating pattern of the first set of warp yarns is a mirror image to the stitch shifts of the repeating pattern of the second set of warp yarns. a pair of beads; at least one carcass ply extending from one bead to the other bead forming a pair of sidewall areas of the tire and a tread area of the tire; and, at least one layer of a knit fabric in the sidewall area of the tire, wherein the knit fabric has a warp and weft direction (500a, 500b) and comprises a first set of warp yarns and a second set of warp yarns, wherein the first set of warp yarns has a repeating pattern comprising: a first turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in a first direction, a second turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in a second direction opposite to the first direction, and a first turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in a first direction, a second turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in a second direction opposite to the first direction, and a first turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in the second direction, a second turning stitch, a stitch shift traversing diagonally at least one wale per at least one course in the first direction, and