mhurhangee/ep-ind-claims huggingface dataset:
A self-locking device for a mountaineer or spelaeologist climbing up a rope comprising: - a main body having an inner face comprising a sliding seat for said rope, said sliding seat being at least partially defined by a part of the body of the device folded upon itself and at least partially defined at the bottom and/or laterally by the inner face of the body of the device; - a cam member associated with said body and able to tilt around an axis X from an open position to a position holding said rope; - means for containing said rope inside said seat; characterized in that said containment means comprise one or more pulleys (13a, 13b) associated with said body, which define to the top at least partially said sliding seat of the rope and are arranged so that their longitudinal axis Z lies on a plane parallel to the plane α of major extension of the body and perpendicular to the sliding direction of the rope. - a main body having an inner face comprising a sliding seat for said rope, said sliding seat being at least partially defined by a part of the body of the device folded upon itself and at least partially defined at the bottom and/or laterally by the inner face of the body of the device; - a cam member associated with said body and able to tilt around an axis X from an open position to a position holding said rope; - means for containing said rope inside said seat;
L-4-chlorokynurenine for use in a method of treating neuropathic pain, by administering a therapeutically effective amount of L-4-chlorokynurenine to a patient, wherein the L-4-chlorokynurenine is administered as a pharmaceutical composition comprising a unit dose of a therapeutically effective amount of L-4-chlorokynurenine that is formulated for oral administration, together with pharmaceutically acceptable carriers and excipients.
A touch panel comprising: a structure body, the structure body comprising: a substrate; a conducting layer provided on at least one surface of the substrate; and a light absorption layer provided on at least one surface of the conducting layer, wherein the conducting layer is a conducting pattern and the light absorption layer is a light absorption pattern provided on at least one surface of the conducting pattern and provided on at least a portion of regions corresponding to the conducting pattern, wherein the light absorption pattern is provided between the conducting layer and the substrate, characterized in that the light absorption layer comprises metal oxynitride, wherein the metal of the metal oxynitride is Mo and the conducting layer is Cu, the metal of the metal oxynitride is Al and the conducting layer is Al, the metal of the metal oxynitride is Cu and the conducting layer is Cu, or the metal of the metal oxynitride is Al and the conducting layer is Cu. a substrate; a conducting layer provided on at least one surface of the substrate; and a light absorption layer provided on at least one surface of the conducting layer, wherein the conducting layer is a conducting pattern and the light absorption layer is a light absorption pattern provided on at least one surface of the conducting pattern and provided on at least a portion of regions corresponding to the conducting pattern, wherein the light absorption pattern is provided between the conducting layer and the substrate,
An infusion-patch comprising: ∘ a cannula ∘ a base; ∘ at least one adhesive region in said base suitable for skin attachment; ∘ at least one skin-access area within said base; ∘ at least one conduit in fluid connection with said at least one skin-access area; and ∘ at least a first anesthetic-reservoir which may be removably attached and in fluid connection with said at least one skin-access area, wherein said at least one conduit facilitates the transfer of an anesthetic substance within said at least a first anesthetic-reservoir, promoting delivery of said anesthetic substance to said at least one skin-access area, and wherein said anesthetic substance delivered to said skin-access area may be at least partially replenished without removing said infusion-patch. ∘ a cannula ∘ a base; ∘ at least one adhesive region in said base suitable for skin attachment; ∘ at least one skin-access area within said base; ∘ at least one conduit in fluid connection with said at least one skin-access area; and ∘ at least a first anesthetic-reservoir which may be removably attached and in fluid connection with said at least one skin-access area,
An aminopyrazine according to Formula, wherein X is CR 1 or N; Y is selected from CF 3, -C -NR 3 R 4; O-R 6; SO 2 -R 6; R 1 is selected from H and halogen; R 2 is selected from SO 2 -R 5 and -C -R 10; R 3 and R 4 are independently selected from H and optionally substituted C 1 -C 6 alkyl; R 5 is selected from -NR 7 R 8 and R 9; R 6 is optionally substituted C 1 -C 6 alkyl; R 7 and R 8 are independently selected from H and optionally substituted C 1 -C 6 alkyl; R 9 is optionally substituted C 1 -C 6 alkyl or optionally substituted C 3 -C 8 cycloalkyl; R 10 is -NR 11 R 12; R 11 and R 12 are independently selected from H and optionally substituted C 1 -C 6 alkyl or NR 11 R 12 form together an optionally substituted heterocycloalkyl; as well as pharmaceutically acceptable salts, complexes, hydrates, solvates, or polymorphs, tautomers, geometrical isomers, optically active forms thereof, wherein optionally substituted refers to groups substituted with from 1 to 5 substituents selected from the group consisting of "C 1 -C 6 alkyl," " "C 3 -C 8 -cycloalkyl," "amino," "halogen," hydroxy, and nitro.
A composition comprising (i) a crosslinkable polymer compound comprising a crosslinkable group and being capable of showing at least one of a light emitting property and charge transportability, and (ii) a crosslinkable low molecular weight compound having a single molecular weight which is 1x10 2 or more and less than 1x10 4, comprising a crosslinkable group and being capable of showing at least one of a light emitting property and charge transportability, characterised in that one of said crosslinkable polymer compound and said crosslinkable low molecular weight compound has a group represented by any of formulae (Z-1) and (Z-2) as said crosslinkable group, and the other has a group represented by formula (Z-5) as said crosslinkable group: in the formulae (Z-1), (Z-2) and (Z-5), each R C represents a hydrogen atom, an alkyl group, an alkoxy group, an alkylthio group, an aryl group, an aryloxy group, an arylthio group, an arylalkyl group, an arylalkoxy group, an arylalkylthio group, an amino group, a silyl group, a halogen atom, an acyl group, an acyloxy group, an imine residue, a carbamoyl group, an acid imide group, a monovalent heterocyclic group, a carboxyl group, a cyano group or a nitro group, and the group represented by R C may have a substituent, wherein the plurality of R C may be the same or different. (i) a crosslinkable polymer compound comprising a crosslinkable group and being capable of showing at least one of a light emitting property and charge transportability, and (ii) a crosslinkable low molecular weight compound having a single molecular weight which is 1x10 2 or more and less than 1x10 4, comprising a crosslinkable group and being capable of showing at least one of a light emitting property and charge transportability,
Control apparatus for a vehicle with a printer module, which has a paper roll for printing out vehicle-relevant and/or driver-relevant data, and a computer unit by means of which data transmission between the control apparatus and the printer module can be undertaken and the computer unit serves for handling and/or processing and/or storing vehicle-relevant and driver-relevant data in an electronic memory unit of the control apparatus, wherein the printer module is arranged in a shaft of the control apparatus to be removable, characterised in that apart from the printer interface an auxiliary interface is arranged in the shaft and an extension module, which is similarly connectible with the control apparatus by way of the printer interface arranged in the shaft and/or auxiliary interface, is insertable into the shaft instead of the printer module, and the extension model has a respective extension interface by means of which at least one communications module and/or printer module is or are connectible with the control apparatus by way of a printer adapter.
Turbomachine turbine assembly with a longitudinal axis comprising: - an exhaust casing, - an ejection cone arranged downstream of the exhaust casing, the ejection cone comprising an outer annular wall for the flow of a primary air stream and an acoustic box arranged radially inside said outer annular wall, the acoustic box comprising a radially inner annular wall, - a connection member interposed longitudinally between the exhaust casing and the inner annular wall of the ejection cone, the connection member being fastened to the exhaust casing and to the inner annular wall, characterized in that the upstream end of the outer annular wall is connected to the connection member with a degree of freedom in the radial direction and a degree freedom in the longitudinal direction. - an exhaust casing, - an ejection cone arranged downstream of the exhaust casing, the ejection cone comprising an outer annular wall for the flow of a primary air stream and an acoustic box arranged radially inside said outer annular wall, the acoustic box comprising a radially inner annular wall, - a connection member interposed longitudinally between the exhaust casing and the inner annular wall of the ejection cone, the connection member being fastened to the exhaust casing and to the inner annular wall,
An apparatus to control temperature of an integrated circuit, IC, the apparatus comprising: a plurality of thermal sensors, each of the plurality of thermal sensors to be located in an area in the IC to record a die temperature at a location in its associated area; and a thermal controller coupled to the plurality of thermal sensors to perform thermal throttling of the IC to reduce the temperature of the IC in response to the die temperature recorded by any one thermal sensor of the plurality of thermal sensors being greater than an individual temperature threshold for said any one thermal sensor, the individual temperature threshold for each thermal sensor being based on a maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and power supplied to a plurality of areas of the IC; an update module to be coupled to a memory (501; 630), the update module to update the individual temperature threshold for each of the plurality of thermal sensors if the power supplied to one or more areas of the plurality of areas changes; wherein the individual temperature threshold for each thermal sensor is based on a difference between the maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and a sum of a product of each power supplied to each area of the plurality of areas and a weighting factor associated with said each power supplied to each area. a plurality of thermal sensors, each of the plurality of thermal sensors to be located in an area in the IC to record a die temperature at a location in its associated area; and a thermal controller coupled to the plurality of thermal sensors to perform thermal throttling of the IC to reduce the temperature of the IC in response to the die temperature recorded by any one thermal sensor of the plurality of thermal sensors being greater than an individual temperature threshold for said any one thermal sensor, the individual temperature threshold for each thermal sensor being based on a maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and power supplied to a plurality of areas of the IC; an update module to be coupled to a memory (501; 630), the update module to update the individual temperature threshold for each of the plurality of thermal sensors if the power supplied to one or more areas of the plurality of areas changes; wherein the individual temperature threshold for each thermal sensor is based on a difference between the maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and a sum of a product of each power supplied to each area of the plurality of areas and a weighting factor associated with said each power supplied to each area.
A method of controlling a downhole tool in a well with a downhole processing device, the method comprising the steps of:- storing data received from an RFID tag reader during a first timing operation in a data storage device, wherein the RFID tag reader is adapted to read data from and/or transmit data to a passing RFID tag; checking the data storage device for any stored data received from the RFID tag reader at least once during or following the first timing operation, wherein the RFID tag reader further comprises an RFID antenna adapted to read data from the RFID tag that is moveable with respect to the RFID antenna; and storing data received from a downhole fluid pressure pulse sensor during a second timing operation in the data storage device, wherein the downhole fluid pressure pulse sensor is capable of at least receiving a signal sent via changes in pressure of downhole fluid in communication with the downhole fluid pressure pulse sensor; checking the data storage device for any stored data received from the downhole fluid pressure pulse sensor at least once during or following the second timing operation; wherein each of the first and second timing operations is based upon the time provided by a clock of the downhole processing device; and wherein the first and second timing operations comprise respective first and second timers; controlling the downhole tool based upon instructions contained in the stored data; including providing respective switches (351, 401) operable to enable or disable the RFID tag reader and downhole fluid pressure pulse sensor respectively; programming the RFID tag at the surface, by the operator, with data to provide a signal or instructions that can be received by the RFID tag reader, and moving the RFID tag down the well from the surface into the vicinity of the RFID tag reader to provide said data to the data storage device such that the downhole processing device is instructed to operate or actuate the downhole tool; changing the pressure of downhole fluid in the vicinity of the downhole fluid pressure pulse sensor by changing the pressure of fluid at the surface of the well to send a signal to the downhole fluid pressure pulse sensor via changes in pressure of downhole fluid in communication with the downhole fluid pressure pulse sensor, wherein the signal is received by the downhole fluid pressure pulse sensor which provides said data to the data storage device such that the downhole processing device is instructed to operate or actuate the downhole tool; and when the respective switches (351, 401) are actuated for the RFID tag reader and the downhole fluid pressure pulse sensor, the downhole processing device operates the respective first and second timing operations in parallel with each other but looks for valid data flag(s) in the data storage device in series.
A process for applying materials that are flowable when heated onto synthetic substrates comprising precisely applying a heat activatable flowable material onto one or more predetermined locations of one or more surfaces of synthetic substrates which are flexible films of polyethylene terephthalate, polybutylene terephthalate, polyamide or polyolefines and do not melt below 120 °C; wherein the flowable material is extruded at a temperature that it bonds to the surface of the substrate which is below that at which it can be activated and then cools to provide a solid dry to the touch material on the substrate ready for subsequent heat activation; wherein the activatable flowable materials is applied in a first physical state and is thereafter activated by exposure to heat to cause the flowable material to transform to a second physical state; and wherein the material is applied at a temperature in the range 60 to 120 °C and is activated at a temperature in the range 220 °C to 350 °C.
A method for connecting an electric vehicle with a charging station for charging, the electric vehicle including a charging interface (132, 230) on a roof of the electric vehicle and the charging station including an overhead charging head (122, 224) configured to engage with the charging interface to charge the electric vehicle, the method comprising: identifying the electric vehicle as it approaches the charging station; determining a position of the electric vehicle relative to the charging station; lowering the charging head onto a landing pad of the electric vehicle, wherein the lowering includes (a) determining if the charging head has landed on the landing pad of the vehicle and (b) lifting the charging head off the vehicle if it is determined that the charging head has not landed on the landing pad; when it is determined that the charging head has landed on the landing pad, automatically controlling the electric vehicle to position the electric vehicle in a desired location after lowering; and establishing electrical connection between the electric vehicle and the charging station after positioning; and initiating current flow from the charging head to the electric vehicle after the establishing. identifying the electric vehicle as it approaches the charging station; determining a position of the electric vehicle relative to the charging station; lowering the charging head onto a landing pad of the electric vehicle, wherein the lowering includes (a) determining if the charging head has landed on the landing pad of the vehicle and (b) lifting the charging head off the vehicle if it is determined that the charging head has not landed on the landing pad; when it is determined that the charging head has landed on the landing pad, automatically controlling the electric vehicle to position the electric vehicle in a desired location after lowering; and establishing electrical connection between the electric vehicle and the charging station after positioning; and initiating current flow from the charging head to the electric vehicle after the establishing.
An individual access control portal comprising two panels or columns (1, 2) that define a through corridor, which panels or columns (1, 2) are equipped with sensors adapted to detect substances or materials liable to be carried by individuals travelling through the portal, the portal being equipped with a plurality of individual detection barriers (10, 20, 30, 40) distributed along the direction of passage through the portal and logic means attached to the plurality of barriers, characterized in that said logic means are adapted firstly to determine from the series of activations of said barriers (10, 20, 30, 40) the place and movement of an individual and secondly to establish the correlations existing between the movement of an individual and the signals output by the substance or material detection sensors, the logic means being adapted to detect the correlation between a peak output by the substance or material sensors and the simultaneous activation of two barriers (20, 30) located the nearest to the center of the portal.
Machine to carry out workings on a sheet of a material suitable to make containers, comprising: a fixed frame that defines a support plane for said sheet, and feed means configured to feed said sheet in a first longitudinal direction along said support plane, said fixed frame comprising at least a first transverse guide member disposed in a transverse direction, substantially perpendicular to said first longitudinal direction; a transverse working head, provided with a first cutting tool and/or a first creasing tool and guided by said first transverse guide member, to selectively carry out transverse cuttings and/or creasings on said sheet; one or more longitudinal working heads, each provided with a second cutting tool and/or a second creasing tool to selectively carry out longitudinal cuttings and/or creasings on said sheet, and each selectively positionable in a desired transverse position, guided by at least a second transverse guide member parallel to said first transverse guide member, to carry out longitudinal cuttings and/or creasings on said sheet; and positioning means (47, 48), configured to cooperate with each of said longitudinal workings heads in order to position it selectively in said desired transverse position, characterized in that said positioning means comprise a first transverse positioning device mounted on said transverse working head, and a second transverse positioning device mounted on said fixed frame and each configured to position each of said longitudinal working heads along said transverse direction, each of said longitudinal working heads being disposed between said first transverse guide member and said second transverse guide member and comprising sliding elements (34, 35) configured to cooperate slidingly with both said first transverse guide member and said second transverse guide member.
A multi-speed power shifted hybrid transmission, especially for a vehicle, comprising a housing, an input shaft connected to a prime mover, a first driveshaft, a second driveshaft being arranged concentric to the first driveshaft, each of the two driveshafts (13, 14) having a plurality of driving gearwheels (G12a, G3a, G4a, G5a; G6a) on them, at least one driven shaft (15, 18) with at least one driven gearwheel (G12b, G3b, G4b, G5b; G6b; GRb) on it meshing with the driving gearwheels (G12a, G3a, G4a, G5a; G6a) on said driveshafts (13, 14) thus forming gearings (G1/2, G3, G4, G5; G6; GR); a plurality of controllable clutches (C0, C1, C2, C3, C4), selectively connecting said gearwheels (G12a, G3a, G4a, G5a; G6a; G12b, G3b, G4b, G5b; G6b; GRb) to the corresponding shafts (13, 14), such as to engage the gearings (G1/2, G3, G4, G5; G6; GR) with different gear ratios, an electric machine with a rotor, a planetary gearset with at least three links, i.e. a first link, a second link, and a third link, with a controllable lock-up clutch, blocking relative rotation between the first driveshaft and the second driveshaft, wherein at least one of the gearings (G1/2, G3, G4, G5; G6) can be engaged with reversed gear ratio from the second driveshaft to any of the driven shafts (15, 18), wherein the first link is connected to the input shaft, the second link is connected to the second driveshaft, and the third link is kinematically connected to the rotor of said electric machine in a way that a speed ratio between the second link and the third link is negative for stopped first link, characterized in that the transmission further comprises a controllable friction clutch, connecting the input shaft kinematically to the first driveshaft, and a controllable brake device, blocking the rotation of the input shaft against the housing.
Sintered yttrium aluminum garnet, having formula Y 3 Al 5 O 12, having essentially no porosity and exhibiting an average grain size of from 1 μm to 2 μm when characterized by scanning electron microscopy, and being transparent for the light in the visible and infrared region, wherein said YAG was mixed with 0.15 to 0.35 wt% lithium fluoride (LiF), based on the YAG weight, and sintered by spark plasma at a temperature not higher than 1300°C.