mhurhangee/ep-ind-claims huggingface dataset:
Retaining element, more particularly made of a metal sheet, for at least one solar element, more particularly solar module and/or solar collector, having a base forming a contact surface for the retaining element, having two supports (6a, 6b) for the solar element projecting from the base to different heights and having connecting elements provided on end faces (7a, 7b) of the retaining element, which have at least one, more particularly hole-shaped, recess (8a, 8b) and at least one lug (9a, 9b), which lug (9a, 9b) is shaped for insertion into such a recess (8a, 8b), characterized in that at least one recess (8a, 8b) and at least one lug (9a, 9b) are provided in each case next to one another on the end faces (7a, 7b).
A microelectronic device comprising: - a substrate; - a semiconductor layer comprising several first areas superposed on top of one another and forming an electrical conduction channel of the microelectronic device; - an electrostatic control gate; - a gate dielectric layer or a ferroelectric memory layer, such that parts of the gate dielectric layer or of the ferroelectric memory layer are each arranged between a part (106, 108) of the electrostatic control gate and one amongst the first areas of the semiconductor layer; - dielectric spacers arranged against sidewalls of the electrostatic control gate; - source / drain regions electrically coupled to the first areas of the semiconductor layer by second areas of the semiconductor layer, the second areas of the semiconductor layer extending between the source / drain regions and the dielectric spacers; and wherein the second areas of the semiconductor layer form a continuous layer with the first areas, characterized in that the second areas are arranged directly against and in contact with the dielectric or ferroelectric memory layer. - a substrate; - a semiconductor layer comprising several first areas superposed on top of one another and forming an electrical conduction channel of the microelectronic device; - an electrostatic control gate; - a gate dielectric layer or a ferroelectric memory layer, such that parts of the gate dielectric layer or of the ferroelectric memory layer are each arranged between a part (106, 108) of the electrostatic control gate and one amongst the first areas of the semiconductor layer; - dielectric spacers arranged against sidewalls of the electrostatic control gate; - source / drain regions electrically coupled to the first areas of the semiconductor layer by second areas of the semiconductor layer, the second areas of the semiconductor layer extending between the source / drain regions and the dielectric spacers; and wherein the second areas of the semiconductor layer form a continuous layer with the first areas, characterized in that the second areas are arranged directly against and in contact with the dielectric or ferroelectric memory layer.
A rotary coring bit for use in rotary sidewall coring in a wellbore, the coring bit comprising: a rotary coring bit body forming a core chamber within, the core chamber having a longitudinal axis; and a core catching torsion spring disposed within the core chamber, the core catching torsion spring being moveable between a radially expanded position and a radially contracted position which is capable of gripping a core sample within the core chamber, wherein the core catching torsion spring is a helical spring having a helical spring axis, wherein the helical spring axis coincides with the longitudinal axis of the core chamber; characterized in that: the core catching torsion spring is moved from the radially contracted position to the radially expanded position by frictional contact between the core catching torsion spring and a sidewall of the wellbore as the rotary bit body is rotated; wherein the core catching torsion spring includes a first spring end and a second spring end; and the first spring end is secured to the rotary bit body. a rotary coring bit body forming a core chamber within, the core chamber having a longitudinal axis; and a core catching torsion spring disposed within the core chamber, the core catching torsion spring being moveable between a radially expanded position and a radially contracted position which is capable of gripping a core sample within the core chamber, wherein the core catching torsion spring is a helical spring having a helical spring axis, wherein the helical spring axis coincides with the longitudinal axis of the core chamber; characterized in that: the core catching torsion spring is moved from the radially contracted position to the radially expanded position by frictional contact between the core catching torsion spring and a sidewall of the wellbore as the rotary bit body is rotated; wherein the core catching torsion spring includes a first spring end and a second spring end; and the first spring end is secured to the rotary bit body. the core catching torsion spring is moved from the radially contracted position to the radially expanded position by frictional contact between the core catching torsion spring and a sidewall of the wellbore as the rotary bit body is rotated; wherein the core catching torsion spring includes a first spring end and a second spring end; and the first spring end is secured to the rotary bit body.
An oral dosage formulation that is a tablet comprising an intra-granular component, an extra-granular component, and a film coating component wherein the intra-granular component comprises 55% to 75% by weight of {[5-(3-chlorophenyl)-3-hydroxypyridine-2-carbonyl]amino}acetic acid, or a pharmaceutically acceptable salt thereof, 15% to 35% by weight of an insoluble diluent or carrier, 2.0% to 4.0% by weight of a disintegrant, and 1.8% to 3.8% by weight of a diluent or filler; wherein the extra-granular component comprises 2.0% to 4.0% by weight of a disintegrant, 0.15% to 0.35% by weight of a glidant, and 0.35% to 1.15% by weight of a lubricant; wherein the film coating component comprises 1.0% to 8% by weight of a tablet coating; and wherein the weight is the total weight of all intra-granular and extra-granular components. wherein the intra-granular component comprises 55% to 75% by weight of {[5-(3-chlorophenyl)-3-hydroxypyridine-2-carbonyl]amino}acetic acid, or a pharmaceutically acceptable salt thereof, 15% to 35% by weight of an insoluble diluent or carrier, 2.0% to 4.0% by weight of a disintegrant, and 1.8% to 3.8% by weight of a diluent or filler; 55% to 75% by weight of {[5-(3-chlorophenyl)-3-hydroxypyridine-2-carbonyl]amino}acetic acid, or a pharmaceutically acceptable salt thereof, 15% to 35% by weight of an insoluble diluent or carrier, 2.0% to 4.0% by weight of a disintegrant, and 1.8% to 3.8% by weight of a diluent or filler; wherein the extra-granular component comprises 2.0% to 4.0% by weight of a disintegrant, 0.15% to 0.35% by weight of a glidant, and 0.35% to 1.15% by weight of a lubricant; 2.0% to 4.0% by weight of a disintegrant, 0.15% to 0.35% by weight of a glidant, and 0.35% to 1.15% by weight of a lubricant; wherein the film coating component comprises 1.0% to 8% by weight of a tablet coating; and wherein the weight is the total weight of all intra-granular and extra-granular components.
Method for producing a Fiber Metal Laminate component of an airplane, using a manipulator system with an end effector and a control assigned to the manipulator system, wherein at least one metal layer and at least one unhardened fiber layer are being stacked onto each other in a mould by the manipulator system in a stacking sequence, wherein each stacking cycle comprises picking up a metal layer or a fiber layer from a respective supply stack (8, 9) according to the stacking sequence, transporting the layer (5, 6) to the mould, placement of the layer (5, 6) at a deposition surface in the mould according to the stacking sequence and depositing the so placed layer (5, 6) onto the deposition surface, characterized in that after being picked up from the supply stack (8, 9) and before being deposited onto the deposition surface, the layer (5, 6) to be stacked is being deformed by the end effector as to adapt the form of the layer (5, 6) to the form of the deposition surface and that at least one metal layer and at least one fiber layer are each being picked up and deformed via one and the same end effector and in that the end effector comprises a number of gripping elements for gripping the layer (5, 6) during pick up, wherein the gripping elements are being activated separately or in groups by the control.
A clutch assembly (26; 52; 52A; 52B; 52C; 52D; 152; 652; 752) comprising: a clutch mechanism (30; 54; 54A; 54B; 54C; 54D; 154; 654; 754) having an input member (34; 54-1; 54-1A; 54-1B; 54-1C; 54-1D; 154-1), an output member (36; 54-2; 54-2A; 54-2B; 54-2C; 54-2D; 154-2), and an actuating mechanism (38; 54-6; 54A-6; 54B-6; 54C-6; 54D-6; 154-6; 554-6; 654-6) to govern selective torque transmission from the input member to the output member, wherein the actuating mechanism is powered by electrical current; and characterized in that the clutch assembly further comprises a vibrational energy harvesting device (32; 56; 56A; 56B; 56C; 56D; 156; 256; 356; 456; 656) electrically connected to the actuating mechanism, wherein the vibrational energy harvesting device is configured to scavenge available vibrational energy to generate the electrical current that powers the actuating mechanism. a clutch mechanism (30; 54; 54A; 54B; 54C; 54D; 154; 654; 754) having an input member (34; 54-1; 54-1A; 54-1B; 54-1C; 54-1D; 154-1), an output member (36; 54-2; 54-2A; 54-2B; 54-2C; 54-2D; 154-2), and an actuating mechanism (38; 54-6; 54A-6; 54B-6; 54C-6; 54D-6; 154-6; 554-6; 654-6) to govern selective torque transmission from the input member to the output member, wherein the actuating mechanism is powered by electrical current; and characterized in that the clutch assembly further comprises a vibrational energy harvesting device (32; 56; 56A; 56B; 56C; 56D; 156; 256; 356; 456; 656) electrically connected to the actuating mechanism, wherein the vibrational energy harvesting device is configured to scavenge available vibrational energy to generate the electrical current that powers the actuating mechanism.
Handle comprising a cap and a frame suitable for being fixed to the outer surface of a vehicle door, said outer surface defining a reference plane of the frame, which frame is provided with a fulcrum around which a lever suitable for being pulled for opening said door can rotate, as well as with an auxiliary body which can include a lock for locking or unlocking said door, characterized in that said auxiliary body comprises two fins (14, 15) and is covered by the cap, wherein the cap is provided with guide (8, 9) and fastening (12, 13, 16, 17) means respectively for the coupling with complementary guide (10, 11) and fastening (14, 15) means of the auxiliary body, in that said fastening means (12, 13, 16, 17) of the cap comprise first teeth (12, 13) and second teeth (16, 17) wherein the two fins (14,15) are suitable for engaging with the first (12, 13) and second (16, 17) teeth of the cap.
A child seat attached to a vehicle, comprising: a frame body which is contained in a base supporting a main body seating and restraining a child, which stiffens the base, and which is fixed and disposed in the base so that a front end is exposed from a notch formed in the base; a rotational support attached to a site exposed at the base front end of the frame body to be rotatable around the frame body, and containing a lock mechanism capable of being locked and unlocked at a predetermined angle with respect to the frame body; and a support leg including a leg support capable of adjusting and holding a leg portion coupled to the rotational support at a predetermined length, wherein the base is fixed onto a vehicle seat, the support leg is rotated around the rotational support and adjusted to have a predetermined length at a base front end position, and the base is stably held by abutting a bottom plate of the leg support on a vehicle body floor, wherein the frame body comprises a pipe material that is processed substantially into u-shape including a front end frame located on the front end of the base, and a hardened frame connecting both sides of the front end frame and extending in a longitudinal direction of the base, and the rotational support is rotatably attached to the front end frame, characterized in that the lock mechanism locks by inserting a lock pin biased by a biaser contained in inner portion into a through-hole formed in the frame body, and unlocks by pulling out the leg portion of the support leg from the rotational support by a predetermined distance against the biaser. a frame body which is contained in a base supporting a main body seating and restraining a child, which stiffens the base, and which is fixed and disposed in the base so that a front end is exposed from a notch formed in the base; a rotational support attached to a site exposed at the base front end of the frame body to be rotatable around the frame body, and containing a lock mechanism capable of being locked and unlocked at a predetermined angle with respect to the frame body; and a support leg including a leg support capable of adjusting and holding a leg portion coupled to the rotational support at a predetermined length, wherein the base is fixed onto a vehicle seat, the support leg is rotated around the rotational support and adjusted to have a predetermined length at a base front end position, and the base is stably held by abutting a bottom plate of the leg support on a vehicle body floor, wherein the frame body comprises a pipe material that is processed substantially into u-shape including a front end frame located on the front end of the base, and a hardened frame connecting both sides of the front end frame and extending in a longitudinal direction of the base, and the rotational support is rotatably attached to the front end frame, characterized in that the lock mechanism locks by inserting a lock pin biased by a biaser contained in inner portion into a through-hole formed in the frame body, and unlocks by pulling out the leg portion of the support leg from the rotational support by a predetermined distance against the biaser.
Display comprising: - a housing, - a light guide (50; 80) located inside the housing of the display, comprising an entrance face and an exit face opposite one another, connected to one another by a lateral wall, said light guide (50; 80) being shaped so as, on the one hand, to collect, via its entrance face, light radiation from outside the housing of the display, and, on the other hand, to guide said light radiation to its exit face, - a light sensor, arranged inside said housing, behind the exit face of the light guide (50; 80), suitable for delivering a signal representative of a light intensity that it receives, - an image generation unit suitable for generating at least one image, and - an optical projection assembly suitable for transmitting the image generated by the image generation unit in the direction of a partially transparent plate, distinct from said light guide, so as to form a virtual image in the field of view of a user and wherein a zone of interest is located approximately in the direction in which said virtual image is formed, characterized in that the lateral wall of the light guide (50; 80) of the display is shaped so that at least some stray light radiation entering the light guide (50; 80) from an angular zone extending beyond the zone of interest exits said light guide (50; 80) without reaching the exit face of the light guide (50; 80). - a housing, - a light guide (50; 80) located inside the housing of the display, comprising an entrance face and an exit face opposite one another, connected to one another by a lateral wall, said light guide (50; 80) being shaped so as, on the one hand, to collect, via its entrance face, light radiation from outside the housing of the display, and, on the other hand, to guide said light radiation to its exit face, - a light sensor, arranged inside said housing, behind the exit face of the light guide (50; 80), suitable for delivering a signal representative of a light intensity that it receives, - an image generation unit suitable for generating at least one image, and - an optical projection assembly suitable for transmitting the image generated by the image generation unit in the direction of a partially transparent plate, distinct from said light guide, so as to form a virtual image in the field of view of a user and wherein a zone of interest is located approximately in the direction in which said virtual image is formed,
Method for determining an elevation of an object at a lateral first location of the object using a microscope (10, 100, 200), which images the object with a point spread function in a z-direction that coincides with the elevation, comprising the following steps: - imaging the object with the microscope (10, 100, 200) in wide field and determining a wide field intensity (I W), - calculating a maximum intensity (I max *) expected at the first location by multiplying the wide field intensity (I W) with a specified scaling factor (Sk), - partially confocally imaging the object at the first location with the focus at a measurement position (zi) in the z-direction, wherein for the partially confocal recording a pinhole device (18, 118, 218) having an opening which is greater than a diffraction limit is used, and wherein the partially confocal imaging establishes a depth of field range and the focus is situated in the depth of field range, and determining a partially confocal intensity (I 1) of the partially confocal image at the first location, - calculating an intensity (I 1 *) corresponding to the point spread function at the first location by way of subtraction between the partially confocal intensity (I 1) and the product of the wide field intensity (I W) and a specified linking factor (Vk), - calculating a z-coordinate (z h) of the focus at which the point spread function is maximum using a previously known form of the point spread function, the calculated intensity (I 1 *) corresponding to the point spread function and the calculated expected maximum intensity (I max *), and - using the z-coordinate (z h) as the elevation of the object at the first location. - imaging the object with the microscope (10, 100, 200) in wide field and determining a wide field intensity (I W), - calculating a maximum intensity (I max *) expected at the first location by multiplying the wide field intensity (I W) with a specified scaling factor (Sk), - partially confocally imaging the object at the first location with the focus at a measurement position (zi) in the z-direction, wherein for the partially confocal recording a pinhole device (18, 118, 218) having an opening which is greater than a diffraction limit is used, and wherein the partially confocal imaging establishes a depth of field range and the focus is situated in the depth of field range, and determining a partially confocal intensity (I 1) of the partially confocal image at the first location, - calculating an intensity (I 1 *) corresponding to the point spread function at the first location by way of subtraction between the partially confocal intensity (I 1) and the product of the wide field intensity (I W) and a specified linking factor (Vk), - calculating a z-coordinate (z h) of the focus at which the point spread function is maximum using a previously known form of the point spread function, the calculated intensity (I 1 *) corresponding to the point spread function and the calculated expected maximum intensity (I max *), and - using the z-coordinate (z h) as the elevation of the object at the first location.
An artificial nuclease comprising (i) dimerizing catalytically active and catalytically inactive cleavage half domains, wherein the catalytically inactive cleavage half-domain comprises a mutation in the catalytic domain, and (ii) a DNA binding domain engineered to recognise a target sequence in a genomic or episomal region of interest, and wherein the DNA binding domain is a zinc finger domain, wherein the artificial nuclease is capable of binding to the target sequence and inducing a single-stranded cleavage within or near the target sequence in said genomic or episomal region. (i) dimerizing catalytically active and catalytically inactive cleavage half domains, wherein the catalytically inactive cleavage half-domain comprises a mutation in the catalytic domain, and (ii) a DNA binding domain engineered to recognise a target sequence in a genomic or episomal region of interest, and wherein the DNA binding domain is a zinc finger domain,
Ball screw assembly comprising - a screw provided with an outer thread; - a nut provided with an inner thread; - a series of balls able to circulate along a circulating path between the screw and the nut, along which the balls are engaged in the threads thereof; and - recirculating means defining a recirculating channel to carry balls from one end to the other end of said circulating path; in which the recirculating channel comprises a return channel defined by a longitudinal main hole in the nut and, between the ends of this return channel and the corresponding ends of said circulating path, deflecting channels (27, 28) which are defined respectively between deflecting elements (20, 21) engaged in respective holes (11, 12) traversing the thickness of the nut and local zones of surfaces of the respective holes (11, 12); and in which the deflecting elements (20, 21) are formed as one-piece units and comprise respective pick-up and release lugs engaged between the threads (3, 5) of the screw and the nut; characterized in that the axes of the holes (11, 12) in the nut, which receive the deflecting elements (20, 21), are placed in planes (P1, P2) which contain the axis of the longitudinal main hole and which are symmetrical with respect to a plane containing the axis of the nut and the axis of the longitudinal main hole in order to extend substantially tangentially to the location of the thread of the screw; in that the holes (11, 12) of the nut comprise successively, from the outside to the inside of the nut, cylindrical surfaces, convex toroidal surfaces and conical surfaces, the convex toroidal surfaces and the conical surfaces defining said local zones, the annular edges common to the cylindrical surfaces and the convex toroidal surfaces being, respectively, located at the inner generatrix of the longitudinal main hole in the said planes (P1, P2) such that the ends of the longitudinal main hole are formed in the respective cylindrical surfaces and that generatrices of the respective convex toroidal surfaces contained in the respective said planes (P1, P2) are joined tangentially to an inner generatrix of the longitudinal main hole, and in that the deflecting channels (27, 28) are formed respectively between said local zones of said convex toroidal surfaces and conical surfaces of the holes (11, 12) in the nut and surfaces of guiding grooves provided in the deflecting elements and facing the local zones, the guiding grooves having curved bottom parts of half-circular cross section which join tangentially end edges of the longitudinal main hole of the nut. - a screw provided with an outer thread; - a nut provided with an inner thread; - a series of balls able to circulate along a circulating path between the screw and the nut, along which the balls are engaged in the threads thereof; and - recirculating means defining a recirculating channel to carry balls from one end to the other end of said circulating path;
Use of surface-active or interface-active acyl glutamates for increasing the solubility in aqueous media of honokiol and/or magnolol, or magnolia bark extract having an effective content of honokiol and magnolol obtained from the bark of Magnolia grandiflora by extraction using supercritical CO 2 or ethanol or an ethanol/water mixture.