mhurhangee/ep-ind-claims huggingface dataset:
A device comprising: a rigid structure having a planar surface; a second rigid structure; a curved convex reflector fixed to the planar surface of the rigid structure; three or more photodetectors (424A, 424B, 424C, 424D) each operable to measure an illuminance of light incident on the photodetector; a light emitter operable to project light toward the curved reflector, wherein the curved reflector reflects respective portions of the projected light onto the three or more photodetectors, wherein the three or more photodetectors and the light emitter are fixed to a surface of the second rigid structure, wherein the light emitter and the three or more photodetectors are fixed with respect to each other, and wherein the rigid structure is movable in one or more degrees of freedom with respect to the light emitter and the three or more photodetectors; and at least one processor configured to perform operations comprising: measuring, by each photodetector of the three or more photodetectors, an illuminance of the respective portion of projected light incident on the photodetector; determining, based on the measured illuminances, a displacement of the rigid structure in one or more degrees of freedom with respect to a reference position of the rigid structure; and providing an output signal indicative of the displacement. a rigid structure having a planar surface; a second rigid structure; a curved convex reflector fixed to the planar surface of the rigid structure; three or more photodetectors (424A, 424B, 424C, 424D) each operable to measure an illuminance of light incident on the photodetector; a light emitter operable to project light toward the curved reflector, wherein the curved reflector reflects respective portions of the projected light onto the three or more photodetectors, wherein the three or more photodetectors and the light emitter are fixed to a surface of the second rigid structure, wherein the light emitter and the three or more photodetectors are fixed with respect to each other, and wherein the rigid structure is movable in one or more degrees of freedom with respect to the light emitter and the three or more photodetectors; and at least one processor configured to perform operations comprising: measuring, by each photodetector of the three or more photodetectors, an illuminance of the respective portion of projected light incident on the photodetector; determining, based on the measured illuminances, a displacement of the rigid structure in one or more degrees of freedom with respect to a reference position of the rigid structure; and providing an output signal indicative of the displacement. measuring, by each photodetector of the three or more photodetectors, an illuminance of the respective portion of projected light incident on the photodetector; determining, based on the measured illuminances, a displacement of the rigid structure in one or more degrees of freedom with respect to a reference position of the rigid structure; and providing an output signal indicative of the displacement.
Method for installing a clutch actuator for a clutch, for example a clutch for a vehicle, having the following features: a force transmission element which is configured to exert a force onto an actuating element of the clutch as a result of a movement along a movement direction, in order to bring about at least partial closing or opening of the clutch; a device for locking the force transmission element, which device is configured such that it can be transferred from a locked position into a released position, the device being configured in such a way that, in the locked position, it limits a movement of the force transmission element along the movement direction and, in the released position, releases the movement of the force transmission element along the movement direction, comprising the steps: providing of the clutch actuator in such a way that the device for locking the force transmission element is in the locked position and the movement of the force transmission element is limited by way of the device; mounting of the clutch actuator; and transferring of the clutch actuator into the released position. a force transmission element which is configured to exert a force onto an actuating element of the clutch as a result of a movement along a movement direction, in order to bring about at least partial closing or opening of the clutch; a device for locking the force transmission element, which device is configured such that it can be transferred from a locked position into a released position, the device being configured in such a way that, in the locked position, it limits a movement of the force transmission element along the movement direction and, in the released position, releases the movement of the force transmission element along the movement direction, comprising the steps: providing of the clutch actuator in such a way that the device for locking the force transmission element is in the locked position and the movement of the force transmission element is limited by way of the device; mounting of the clutch actuator; and transferring of the clutch actuator into the released position. providing of the clutch actuator in such a way that the device for locking the force transmission element is in the locked position and the movement of the force transmission element is limited by way of the device; mounting of the clutch actuator; and transferring of the clutch actuator into the released position.
A method of testing whether a patient suffering of multiple myeloma will respond or not to a DNA methyltransferase inhibitor (DNMTi) comprising: i. determining the expression level (ELi) of the 47 genes G 1 -G 47 from table A in a biological sample obtained from said patient ii. comparing the expression level (ELi) determined at step i) with a predetermined reference level (ELRi) iii. calculating the DMS score trough the following formula DMS = ∑ i = 1 n βi × Ci wherein βi represent the regression β coefficient reference value for the gene G i and Ci = 1 if the expression of the gene G i (ELi) is higher than the predetermined reference level (ELRi) or Ci = -1 if the expression of the gene (ELi) is lower than or equal to the predetermined reference level (ELRi) iv. comparing the score DMS determined at step iii) with a predetermined reference value DMS R v. and concluding that the patient will respond to the DNMTi when the DMS score is higher than the predetermined reference value DMS R or concluding that the patient will not respond to the DNMTi when the DMS score is lower than the predetermined reference value DMS R. i. determining the expression level (ELi) of the 47 genes G 1 -G 47 from table A in a biological sample obtained from said patient ii. comparing the expression level (ELi) determined at step i) with a predetermined reference level (ELRi) iii. calculating the DMS score trough the following formula DMS = ∑ i = 1 n βi × Ci wherein βi represent the regression β coefficient reference value for the gene G i and Ci = 1 if the expression of the gene G i (ELi) is higher than the predetermined reference level (ELRi) or Ci = -1 if the expression of the gene (ELi) is lower than or equal to the predetermined reference level (ELRi) iv. comparing the score DMS determined at step iii) with a predetermined reference value DMS R v. and concluding that the patient will respond to the DNMTi when the DMS score is higher than the predetermined reference value DMS R or concluding that the patient will not respond to the DNMTi when the DMS score is lower than the predetermined reference value DMS R.
A method for optically blurring the appearance of skin imperfections selected from the group consisting of wrinkles, fine lines, and pores comprising the step of applying to the skin an amount of a skin care or make-up composition effective to optically blur the appearance of said skin imperfections, wherein the skin care or make-up composition comprises a gel comprising: (a) a fractal gel network of nanoparticles; and (b) translucent macroscopic particles of a silicone cross-polymer enveloped in said fractal network of nanoparticles; wherein the nanoparticles are inorganic nanoparticles having a particle size of between 50 to 900 nm and a refractive index of from 1.38 to 2; and wherein the macroscopic particles have a refractive index of from 1.38 to 1.6; and wherein the gel is an aqueous gel and the fractal particle network is obtained by forming an aqueous dispersion of first and second nanoparticles with oppositely charged zeta potentials at a given pH; and wherein the oppositely charged nanoparticles coalesce to form the fractal network.
A solid paste composition for heat cooking satisfying the requirements to below. The composition has an insoluble dietary fiber content of 2.0 mass % or more in terms of dry mass basis. The composition has a starch content of 15 mass % or more in terms of dry mass basis. The composition has a protein content of 5.5 mass % or more in terms of dry mass basis. When at least one frozen section A of the composition prepared under [Condition A] below is subjected to CBB (Coomassie Brilliant Blue) staining and observed, both and are satisfied. The ratio of [the number of CBB-stained sites having areas of 200μm 2 or more and degree of roundness of 0.3 or more] to [the number of CBB-stained sites having areas of 30μm 2 or more] is 3% or more. The ratio of [the total area of CBB-stained sites having areas of 200μm 2 or more and degrees of roundness of 0.3 or more] to [the total section area of the composition] is 0.4% or more. [Condition A] The composition is heated in water at 90°C for 6 minutes and then frozen at - 25°C, and the frozen composition is cut along a certain cut plane A into a section having a thickness of 30 μm, which section is used as a frozen composition section A. The composition has an insoluble dietary fiber content of 2.0 mass % or more in terms of dry mass basis. The composition has a starch content of 15 mass % or more in terms of dry mass basis. The composition has a protein content of 5.5 mass % or more in terms of dry mass basis. When at least one frozen section A of the composition prepared under [Condition A] below is subjected to CBB (Coomassie Brilliant Blue) staining and observed, both and are satisfied. The ratio of [the number of CBB-stained sites having areas of 200μm 2 or more and degree of roundness of 0.3 or more] to [the number of CBB-stained sites having areas of 30μm 2 or more] is 3% or more. The ratio of [the total area of CBB-stained sites having areas of 200μm 2 or more and degrees of roundness of 0.3 or more] to [the total section area of the composition] is 0.4% or more. [Condition A] The composition is heated in water at 90°C for 6 minutes and then frozen at - 25°C, and the frozen composition is cut along a certain cut plane A into a section having a thickness of 30 μm, which section is used as a frozen composition section A.
Method for sampling and extracting pollutants in a fluid, wherein one uses one and the same ready-to-use, single-use sampling cartridge to perform in a first step said sampling in passive mode or in active mode, and in a second step the extraction of the collected pollutants by thermal desorption and circulation of a carrier gas through said cartridge without the need to open it thus preserving the integrity of its content and avoiding any risk of cross-contamination, the sampling step being carried out by means of the sole sampling cartridge or of a sampling device (2, 3, 5) containing said cartridge, and the extraction step being carried out by means of an extracting device or of a sampling and extracting device containing said cartridge, said sampling cartridge comprising an envelope out of an inert material, containing an adsorbent material, being filed with an inert gas under pressure so that this overpressure constitutes an indicator that allows checking the presence of a pressure in cartridge and thus checking the tightness of cartridge before using it, and sealed in a leaktight manner by two caps (11, 12) located at both ends (100, 101) of the envelope (10, 10', 10"), each cap (11, 12) having an opening (111, 121) closed by a pierceable seal (110, 120) made of a silicone film and at least one barrier layer.
Method for monitoring a busbar in an electrical power supply system for the occurrence of shorts, wherein - the busbar has a feeder and at least two outgoers (12a, 12b, 12c), - an outgoer protective device (16a, 16b, 16c) is provided on each outgoer (12a, 12b, 12c) and monitors the respective outgoer (12a, 12b, 12c) for shorts, and - a feeder protective device is provided on the feeder and monitors the busbar for shorts, and wherein - in the event of a short in one of the outgoers (for example 12a), the outgoer protective device (for example 16a) associated with this outgoer (for example 12a) emits a blocking signal to the feeder protective device, which blocking signal delays or blocks tripping of a circuit breaker which is arranged on the feeder, - the outgoer protective devices (16a, 16b, 16c) repeatedly send communication messages (T a, T b, T c) via a data transmission bus to the feeder protective device, - the feeder protective device checks the reception of the communication messages (T a, T b, T c), characterized in that - the feeder protective device classifies an outgoer protective device (for example 16a) such as this as being faulty from which no communication messages (for example T a) are received within a defined time period, when communication messages (for example T b, T c) have been received from at least one other outgoer protective device (for example 16b, 16c) during the same time period, and - if at least one outgoer protective device (for example 16a) is classified as faulty, prevents the feeder protective device from implementing a blocking signal. - the busbar has a feeder and at least two outgoers (12a, 12b, 12c), - an outgoer protective device (16a, 16b, 16c) is provided on each outgoer (12a, 12b, 12c) and monitors the respective outgoer (12a, 12b, 12c) for shorts, and - a feeder protective device is provided on the feeder and monitors the busbar for shorts, and wherein - in the event of a short in one of the outgoers (for example 12a), the outgoer protective device (for example 16a) associated with this outgoer (for example 12a) emits a blocking signal to the feeder protective device, which blocking signal delays or blocks tripping of a circuit breaker which is arranged on the feeder, - the outgoer protective devices (16a, 16b, 16c) repeatedly send communication messages (T a, T b, T c) via a data transmission bus to the feeder protective device, - the feeder protective device checks the reception of the communication messages (T a, T b, T c), characterized in that - the feeder protective device classifies an outgoer protective device (for example 16a) such as this as being faulty from which no communication messages (for example T a) are received within a defined time period, when communication messages (for example T b, T c) have been received from at least one other outgoer protective device (for example 16b, 16c) during the same time period, and - if at least one outgoer protective device (for example 16a) is classified as faulty, prevents the feeder protective device from implementing a blocking signal.
Dosing device comprising a container having an opening, a plug arranged at the opening of the container and having a first orifice, and a mobile mechanism on the first orifice of the plug to open or close as necessary the plug and thus the dosing device; characterised in that the plug comprises: a first outer part, arranged around a connection to the container, the connection being placed at the opening of the container, so as to be able to rotate around said connection, and further comprising a sealing part also arranged in front of the opening and provided with the first orifice; and a second outer part, arranged in front of the sealing part and comprising a second orifice, while being able to rotate with respect to the first outer part so as to give as necessary a superposition of variable surface area, or an absence of superposition, of the second orifice over the first orifice.
An electric vehicle driving device comprising: a first motor; a second motor; a transmission device to which power of at least one of the first motor and the second motor is transmitted; and an output member that rotates with power output from the transmission device, wherein a rotation axis of the first motor, a rotation axis of the second motor, and a rotation axis of the transmission device are arranged in parallel to a rotation axis of the output member, when seen from an axial direction parallel to the rotation axis of the output member, the rotation axis of the first motor is located on one side of a straight line passing through the rotation axis of the output member and the rotation axis of the transmission device and the rotation axis of the second motor is located on the other side of the straight line, characterized in that a distance to the rotation axis of the first motor from the straight line and a distance to the rotation axis of the second motor from the straight line are equal to each other. a first motor; a second motor; a transmission device to which power of at least one of the first motor and the second motor is transmitted; and an output member that rotates with power output from the transmission device, wherein a rotation axis of the first motor, a rotation axis of the second motor, and a rotation axis of the transmission device are arranged in parallel to a rotation axis of the output member, when seen from an axial direction parallel to the rotation axis of the output member, the rotation axis of the first motor is located on one side of a straight line passing through the rotation axis of the output member and the rotation axis of the transmission device and the rotation axis of the second motor is located on the other side of the straight line, characterized in that a distance to the rotation axis of the first motor from the straight line and a distance to the rotation axis of the second motor from the straight line are equal to each other.
An optic (10, 910) used for producing a desired beam pattern, comprising: a body portion having a height and a thickness (332, 1002), and at least one sidewall profile; an input port integrally formed with the body portion for receiving light from a light source, a straight section where the two side walls are substantially parallel to each other and a tapered section where the two side walls taper inward towards each other from the straight section to the input port, such that transition from the straight section to the tapered section is positioned in relation to the input port so as to control horizontal distribution of light emitted from the optic; at least one leg portion formed as part of said body portion; at least one alignment feature (308, 309) formed as part of said at least one leg portion, said at least one alignment feature (308, 309) for controlling the alignment of said optic in relation to said light source; a blending wall operably associated with said input port, said blending wall providing a smooth blended foreground portion of said desired beam pattern irrespective of the placement of said light source in relation to said input port; a first notch operable with said blending wall for providing a cutoff toward the top portion of said desired beam pattern; and an output surface formed as part of said body portion on the opposite side of said body portion in relation to said input port, that has an optical focus near said notch. a body portion having a height and a thickness (332, 1002), and at least one sidewall profile; an input port integrally formed with the body portion for receiving light from a light source, a straight section where the two side walls are substantially parallel to each other and a tapered section where the two side walls taper inward towards each other from the straight section to the input port, such that transition from the straight section to the tapered section is positioned in relation to the input port so as to control horizontal distribution of light emitted from the optic; at least one leg portion formed as part of said body portion; at least one alignment feature (308, 309) formed as part of said at least one leg portion, said at least one alignment feature (308, 309) for controlling the alignment of said optic in relation to said light source; a blending wall operably associated with said input port, said blending wall providing a smooth blended foreground portion of said desired beam pattern irrespective of the placement of said light source in relation to said input port; a first notch operable with said blending wall for providing a cutoff toward the top portion of said desired beam pattern; and an output surface formed as part of said body portion on the opposite side of said body portion in relation to said input port, that has an optical focus near said notch.
A luminaire elongated in a longitudinal direction, comprising a board arranged on a mounting body and having a plurality of LED units arranged side by side and spaced apart from one another in the longitudinal direction, and a cover, wherein the cover comprises a light exit portion which is arranged vertically above the board and within the horizontal extension of which the board is arranged at least in sections, the cover having wall regions which, starting from the light exit portion, extend vertically towards the mounting body and are supported on the mounting body, the LED units being arranged between the wall regions in a transverse direction which runs perpendicular to the longitudinal direction and perpendicular to the vertical direction, characterized in that the luminaire comprises a stabilizer element which is a one-piece plastic element disposed between the mounting body and the light exit portion of the cover and which has webs extending along the transverse direction between the wall regions which are arranged side by side and spaced apart from each other in the longitudinal direction and which are supported on the mounting body, wherein the webs are spaced apart vertically from the light exit portion by less than 1 mm and the light exit portion has a thickness along the vertical direction of less than 3 mm.