mhurhangee/ep-ind-claims huggingface dataset:
Assembly of an interior trim element of an automotive vehicle and of a decorative member, characterised in that: - the decorative member comprises at least one locking element and the trim element has at least one first orifice which is complementary to this locking element, - the decorative member comprises at least one retaining hook comprising a tab which extends from a first end, which is connected to the decorative member, to a second end, which is provided with a limit stop, and the dashboard has at least one second orifice which allows passage of the limit stop through the dashboard, - the second orifice is adapted to allow a displacement of the retaining hook, in a sliding direction, between a first position in which the limit stop is opposite this second orifice, and a second position in which the limit stop is opposite a limit stop zone which is provided on the dashboard, characterised in that - the locking element, the retaining hook, the first orifice and the second orifice are designed with respect to each other so that the locking element is opposite the first orifice only when the retaining hook is in its second position. - the decorative member comprises at least one locking element and the trim element has at least one first orifice which is complementary to this locking element, - the decorative member comprises at least one retaining hook comprising a tab which extends from a first end, which is connected to the decorative member, to a second end, which is provided with a limit stop, and the dashboard has at least one second orifice which allows passage of the limit stop through the dashboard, - the second orifice is adapted to allow a displacement of the retaining hook, in a sliding direction, between a first position in which the limit stop is opposite this second orifice, and a second position in which the limit stop is opposite a limit stop zone which is provided on the dashboard, characterised in that - the locking element, the retaining hook, the first orifice and the second orifice are designed with respect to each other so that the locking element is opposite the first orifice only when the retaining hook is in its second position.
A method for enabling context aware actions among heterogeneous Internet of Things,,IoT, devices, comprising: receiving, at an IoT device (510; 520; 530), data representing a context of each of a first set of IoT devices in an IoT network; receiving, at the IoT device (510; 520; 530), data representing a current state of each of a second set of IoT devices in the IoT network; and determining, by the IoT device (510; 520; 530), an action to perform at a target IoT device based on the received data representing the context of each of the first set of IoT devices and the received data representing the current state of each of the second set of IoT devices. receiving, at an IoT device (510; 520; 530), data representing a context of each of a first set of IoT devices in an IoT network; receiving, at the IoT device (510; 520; 530), data representing a current state of each of a second set of IoT devices in the IoT network; and determining, by the IoT device (510; 520; 530), an action to perform at a target IoT device based on the received data representing the context of each of the first set of IoT devices and the received data representing the current state of each of the second set of IoT devices.
Shuttle vehicle for transporting stored goods in a shelving system, containing: a chassis having wheels (14-1,..., 14-4) mounted thereon in order to move the shuttle vehicle along guide rails (16-1, 16-2) of the shelving system; at least one telescopic guide rail (18-1, 18-2) which is mounted on the chassis in such a way that its travel direction deviates by an angle of substantially 90° relative to those of the guide rails (16-1, 16-2) of the shelving system; wherein at least one telescopic system is provided with telescopic wheels (22-1,..., 22-4) mounted thereon in order to extend and retract the telescopic system in a plane relative to the chassis along the at least one telescopic guide rail (18-1, 18-2) having: a base support element to which the telescopic wheels (22-1,..., 22-4) are fastened by means of wheel suspensions (28-1, 28-2, 28-3); characterised in that the telescopic system comprises a lifting system in order to fasten a loading surface of the telescopic system to the base support element in a height-adjustable manner. a chassis having wheels (14-1,..., 14-4) mounted thereon in order to move the shuttle vehicle along guide rails (16-1, 16-2) of the shelving system; at least one telescopic guide rail (18-1, 18-2) which is mounted on the chassis in such a way that its travel direction deviates by an angle of substantially 90° relative to those of the guide rails (16-1, 16-2) of the shelving system; wherein at least one telescopic system is provided with telescopic wheels (22-1,..., 22-4) mounted thereon in order to extend and retract the telescopic system in a plane relative to the chassis along the at least one telescopic guide rail (18-1, 18-2) having: a base support element to which the telescopic wheels (22-1,..., 22-4) are fastened by means of wheel suspensions (28-1, 28-2, 28-3); characterised in that the telescopic system comprises a lifting system in order to fasten a loading surface of the telescopic system to the base support element in a height-adjustable manner. a base support element to which the telescopic wheels (22-1,..., 22-4) are fastened by means of wheel suspensions (28-1, 28-2, 28-3); characterised in that the telescopic system comprises a lifting system in order to fasten a loading surface of the telescopic system to the base support element in a height-adjustable manner.
A method of producing particulate sodium-potassium niobate represented by the formula: Na x K (1-x) NbO 3, comprising the steps of: (a) mixing a niobium-containing solution with an alkaline solution having a concentration of 0.1 to 30 mol/L, to prepare a suspension; (b) still standing the suspension at between 80°C and 150°C for 12 to 48 hours; (c) performing solvothermal reaction of the suspension at between 150°C and 300°C for 1 to 12 hours; and (d) separating the particulate sodium-potassium niobate from a reaction mixture, wherein the alkaline solution contains Na + ion and K + ion, wherein the x is in the range of 0.05 ≤ x ≤ 0.8. (a) mixing a niobium-containing solution with an alkaline solution having a concentration of 0.1 to 30 mol/L, to prepare a suspension; (b) still standing the suspension at between 80°C and 150°C for 12 to 48 hours; (c) performing solvothermal reaction of the suspension at between 150°C and 300°C for 1 to 12 hours; and (d) separating the particulate sodium-potassium niobate from a reaction mixture,
A method for generating a sedation level estimate, the method comprising: receiving an electroencephalography, EEG, signal from a sensor electrode attached to a patient, the EEG signal comprising a plurality of channels; segmenting the EEG signal into smaller epochs for each channel; extracting features of the EEG signal in each epoch, the features comprising time domain features, frequency domain features, and entropy domain features; determining a median of features among the plurality of channels for each epoch; determining, by a classifier, a probabilistic estimate of a patient sedation; generating, using a determined correlation, a sedation level estimate, the sedation level estimate comprising a continuous sedation score; and displaying an indication of the sedation level estimate. receiving an electroencephalography, EEG, signal from a sensor electrode attached to a patient, the EEG signal comprising a plurality of channels; segmenting the EEG signal into smaller epochs for each channel; extracting features of the EEG signal in each epoch, the features comprising time domain features, frequency domain features, and entropy domain features; determining a median of features among the plurality of channels for each epoch; determining, by a classifier, a probabilistic estimate of a patient sedation; generating, using a determined correlation, a sedation level estimate, the sedation level estimate comprising a continuous sedation score; and displaying an indication of the sedation level estimate.
A temperature detection apparatus for a resolver comprising: a resolver with an excitation coil and an output coil wound thereon, the excitation coil in use being subjected to an excitation voltage and the output coil outputting a voltage signal corresponding to the excitation voltage, a voltage detection circuit configured to detect at least a phase of the excitation voltage; a signal detection circuit configured to detect at least a phase of an electric signal correlated with the excitation voltage, and a temperature calculation circuit (32, 34) configured to calculate a temperature of the resolver based on a phase difference between the phase of the excitation voltage detected by the voltage detection circuit and the phase of the electric signal detected by the signal detection circuit, said temperature detection apparatus being characterised in that said electric signal correlated with said excitation voltage is an excitation current, and in that the temperature calculation circuit is further configured to calculate or detect the phase difference (Δα) between the excitation voltage and the excitation current based on the phase (αV) of said excitation voltage and the phase (αI) of said excitation current. a resolver with an excitation coil and an output coil wound thereon, the excitation coil in use being subjected to an excitation voltage and the output coil outputting a voltage signal corresponding to the excitation voltage, a voltage detection circuit configured to detect at least a phase of the excitation voltage; a signal detection circuit configured to detect at least a phase of an electric signal correlated with the excitation voltage, and a temperature calculation circuit (32, 34) configured to calculate a temperature of the resolver based on a phase difference between the phase of the excitation voltage detected by the voltage detection circuit and the phase of the electric signal detected by the signal detection circuit, said temperature detection apparatus being characterised in that said electric signal correlated with said excitation voltage is an excitation current, and in that the temperature calculation circuit is further configured to calculate or detect the phase difference (Δα) between the excitation voltage and the excitation current based on the phase (αV) of said excitation voltage and the phase (αI) of said excitation current.
A system for immobilization of a patient body part for radiotherapy applications comprising: - a device comprising at least one flanged support member (3, 123, 303) which is suitable to be mounted to a fixation surface and is adapted to receive and retain at least two sheets (11, 11', 100, 100', 311, 311'), - a first sheet for covering the anatomical contours of a first area of said body part, and - a second sheet (11', 100', 311') for covering the anatomical contours of a second area of said body part which is not covered by the first sheet (11, 100, 311), said first sheet and second sheet (11', 100', 311') comprise each a circumferential rim (12, 12', 312, 312', 112, 112') which is provided with connection means (8, 8', 108, 108', 308, 308') for mounting said sheets to the flanged support member (3, 123, 303), wherein the flanged support member (3, 123, 303) and the circumferential rims (12, 12', 312, 312', 112, 112') have a U shape, are at least partially superimposable and whereby the system is adapted for supporting the immobilized body part free from the fixation surface (7, 127) by the two sheets and the device. - a device comprising at least one flanged support member (3, 123, 303) which is suitable to be mounted to a fixation surface and is adapted to receive and retain at least two sheets (11, 11', 100, 100', 311, 311'), - a first sheet for covering the anatomical contours of a first area of said body part, and - a second sheet (11', 100', 311') for covering the anatomical contours of a second area of said body part which is not covered by the first sheet (11, 100, 311), said first sheet and second sheet (11', 100', 311') comprise each a circumferential rim (12, 12', 312, 312', 112, 112') which is provided with connection means (8, 8', 108, 108', 308, 308') for mounting said sheets to the flanged support member (3, 123, 303),
A method of producing a solid fuel composition from a solid waste mixture without the formation of syngas, the method comprising: heating a solid waste mixture comprising between about 5% wt. and about 60% wt. mixed plastics within a process vessel to a temperature no greater than about 110 °C to separate the solid waste mixture into a dried solid waste mixture and vaporized compounds; removing the vaporized compounds from the process vessel; heating and mixing the dried solid waste mixture to at least 160 °C and below atmospheric pressure to form a heated solid waste mixture comprising melted mixed plastics; extruding the heated solid waste mixture from about 100 °C to about 260 °C to produce an extruded solid waste mixture; and cooling the extruded solid waste mixture to less than about 65 °C to form the solid fuel composition, having an energy content ranging between about 18,608 kJ/kg (8,000 BTU/Ib.) and about 32,564 kJ/kg (14,000 BTU/lb.), a density ranging between about 481 kg/m 3 (30 lb./ft 3) and about 1282 kg/m 3 (80 lb./ft 3), and a water content of less than about 1 wt. %. heating a solid waste mixture comprising between about 5% wt. and about 60% wt. mixed plastics within a process vessel to a temperature no greater than about 110 °C to separate the solid waste mixture into a dried solid waste mixture and vaporized compounds; removing the vaporized compounds from the process vessel; heating and mixing the dried solid waste mixture to at least 160 °C and below atmospheric pressure to form a heated solid waste mixture comprising melted mixed plastics; extruding the heated solid waste mixture from about 100 °C to about 260 °C to produce an extruded solid waste mixture; and cooling the extruded solid waste mixture to less than about 65 °C to form the solid fuel composition, having an energy content ranging between about 18,608 kJ/kg (8,000 BTU/Ib.) and about 32,564 kJ/kg (14,000 BTU/lb.), a density ranging between about 481 kg/m 3 (30 lb./ft 3) and about 1282 kg/m 3 (80 lb./ft 3), and a water content of less than about 1 wt. %.
A composition for removing a resist on a semiconductor substrate, comprising a carbon radical generating agent, an acid, a reducing agent, and [lV] an organic solvent, and having a pH of lower than 7, and comprising substantially no compound generating a fluorine ion, wherein "substantially" means an amount which has a potential risk to give an adverse effect to a silicon oxide film like that the silicon oxide film is dissolved or the like, and does not mean to exclude a commingling of an infinitesimal amount like a level of impurity.
An ultraviolet-emitting device (1,2,3,4) comprising: a light-emitting element (121,131) configured to emit an ultraviolet ray; a board on which the light-emitting element is placed; a fluorescent glass element (21, 24, 25, 26) placed at a position irradiated with the ultraviolet ray emitted by the light-emitting element (121, 131), and placed in a through hole formed through the board, and being adjacent to the light-emitting element (121,131), emitting fluorescence in a visible range by excitation of an ultraviolet ray; and a photodetection element configured to detect an intensity of the fluorescence emitted by the fluorescent glass element, wherein the photodetection element is placed on an opposite side of a placement side of the light-emitting element (121,131) with respect to the board, and wherein the fluorescent glass element is formed in a pillar shape and has, at one end, an inclined surface lower in a direction away from the light-emitting element, or the fluorescent glass element (24,25,26) is formed in a shape having a spherical surface. a light-emitting element (121,131) configured to emit an ultraviolet ray; a board on which the light-emitting element is placed; a fluorescent glass element (21, 24, 25, 26) placed at a position irradiated with the ultraviolet ray emitted by the light-emitting element (121, 131), and placed in a through hole formed through the board, and being adjacent to the light-emitting element (121,131), emitting fluorescence in a visible range by excitation of an ultraviolet ray; and a photodetection element configured to detect an intensity of the fluorescence emitted by the fluorescent glass element, wherein the photodetection element is placed on an opposite side of a placement side of the light-emitting element (121,131) with respect to the board, and wherein the fluorescent glass element is formed in a pillar shape and has, at one end, an inclined surface lower in a direction away from the light-emitting element, or the fluorescent glass element (24,25,26) is formed in a shape having a spherical surface.
A motor-driven fan comprising a fan attachment structure for attaching said fan to an output shaft of a fan drive motor, wherein the fan includes: a fan body made of a resin and including impellers and a central cylindrical portion provided at a center of rotation thereof; and a cylindrical anti-slip member configured to be secured to the fan body by being inserted into the central cylindrical portion and to rotate integrally with the fan body, the anti-slip member having been molded out of a resin having higher mechanical strength than the resin that makes the fan body, wherein the output shaft is configured as a round bar and fitted into the anti-slip member so as to rotate integrally with the anti-slip member, and an outer peripheral surface of a portion of the anti-slip member inserted into the central cylindrical portion has two recesses, characterized in that the anti-slip member comprises a sloped surface located over an associated recess, the sloped surface being sloped such that it is the closer to the centerline of the anti-slip member the closer it is to the top of the anti-slip member, in that an inner peripheral surface of the central cylindrical portion has two fan's circular arc surfaces, and in that two flexible pieces are provided at the top of the central cylindrical portion, which are located at the fan's circular arc surfaces, whereby said flexible pieces abut with the sloped surfaces on insertion of the anti-slip member into the central cylindrical portion of the fan body.
Device for assembling an engine, intended to be incorporated into an assembly line, said device comprising a horizontal base, first means for rotation with respect to a first rotational axis perpendicular to the base, second means for rotation with respect to a second rotational axis perpendicular to the first rotational axis, a connecting interface intended to connect the engine to the base and means for reversibly fixing the interface on the base, characterized in that the means for reversibly fixing comprise a clamping bracket comprising centering means capable of being inserted in the corresponding through-holes on the interface and clamping means capable of fixing the removable interface on the clamping bracket.
A pharmaceutical composition comprising regorafenib, a hydrate, solvate, metabolite or pharmaceutically acceptable salt of regorafenib, or a polymorph thereof and at least one pharmaceutically acceptable excipient wherein the pharmaceutical composition is coated by a coating comprising a polyvinyl alcohol based polymer and optionally one or more further pharmaceutically acceptable excipients wherein said metabolite is selected from the group consisting of 4-[4-({[4-chloro-3-(trifluoromethyl)phenyl]carbamoyl}amino)-3-fluorophenoxy]-N-methylpyridine-2-carboxamide 1-oxide, 4-[4-({[4-chloro-3-(trifluoromethyl)phenyl]carbamoyl}amino)-3-fluorophenoxy]-N-(hydroxymethyl)pyridine-2-carboxamide, 4-[4-({[4-chloro-3-(trifluoromethyl)phenyl]carbamoyl}amino)-3-fluorophenoxy]pyridine-2-carboxamide and 4-[4-({[4-chloro-3-(trifluoromethyl)phenyl]carbamoyl}amino)-3-fluorophenoxy]pyridine-2-carboxamide 1-oxide.
An aircraft comprising: an aircraft cargo roller panel configured to facilitate loading aircraft cargo into a compartment of the aircraft, said aircraft cargo roller panel including one or more motive devices that are configured to engage the cargo to move it within the compartment; a plurality of load cells coupled to the aircraft cargo roller panel, each load cell of the plurality of load cells being configured to generate a load signal indicative of a load experienced by the load cell when the cargo is on the aircraft cargo roller panel; and a controller configured to receive load signals from the plurality of load cells and to determine, based on the load signals, a weight of the cargo, a center of gravity of the cargo, or both, said controller being further configured to: perform a comparison of the weight of the cargo, the center of gravity of the cargo, or both to acceptance criteria; and based on a result of the comparison, determine whether to accept the cargo, in response to accepting the cargo, the controller being configured to generate a control signal to enable the motive devices to engage the cargo and transport it within the compartment, the control signal being generated responsive to the load signals, said controller being configured to generate an override prompt based on a determination by the controller that the cargo is not accepted, wherein the override prompt enables a user to provide user credentials and to identify the cargo as accepted. an aircraft cargo roller panel configured to facilitate loading aircraft cargo into a compartment of the aircraft, said aircraft cargo roller panel including one or more motive devices that are configured to engage the cargo to move it within the compartment; a plurality of load cells coupled to the aircraft cargo roller panel, each load cell of the plurality of load cells being configured to generate a load signal indicative of a load experienced by the load cell when the cargo is on the aircraft cargo roller panel; and a controller configured to receive load signals from the plurality of load cells and to determine, based on the load signals, a weight of the cargo, a center of gravity of the cargo, or both, said controller being further configured to: perform a comparison of the weight of the cargo, the center of gravity of the cargo, or both to acceptance criteria; and based on a result of the comparison, determine whether to accept the cargo, perform a comparison of the weight of the cargo, the center of gravity of the cargo, or both to acceptance criteria; and based on a result of the comparison, determine whether to accept the cargo, in response to accepting the cargo, the controller being configured to generate a control signal to enable the motive devices to engage the cargo and transport it within the compartment, the control signal being generated responsive to the load signals, said controller being configured to generate an override prompt based on a determination by the controller that the cargo is not accepted, wherein the override prompt enables a user to provide user credentials and to identify the cargo as accepted.