mhurhangee/ep-ind-claims huggingface dataset:
An illumination device comprising: • at least one light source generating a light beam (119, 207), said light beam propagates along an optical axis; • a projecting system positioned along said optical axis, said projecting system collects and projects at least a part of said light beam; • a light effect system positioned at least partial in said light beam and between said light source and said projecting system, said light effect system comprises light forming means (137, 201, 301, 401), comprising a number of annular gobo segments (203a-203e, 303a-303e, 403a-403f) arranged partially around the center (205, 305, 405) of said light forming means, where each of said annular gobo segment has an angular extent allowing said light beam to be enclosed by said annular gobo segment and an actuator adapted to rotate said light forming means around said center and an axis parallel with the optical axis of said light beam; and said projecting system is adapted to image at least a part of said light forming means at a target surface positioned a distance along said optical axis; characterized in that that said light forming means comprises an annular animation segment (211, 311, 411) forming an annular segment of said light forming means, wherein the angular extent of said animation segment is at least twice as big as the annular extent of at least one of said annular gobo segments and said animation segment comprises an animation pattern creating animation effects when said actuator rotates said light forming means in relation the light beam such that said light beam is positioned inside said annular animation segment. • at least one light source generating a light beam (119, 207), said light beam propagates along an optical axis; • a projecting system positioned along said optical axis, said projecting system collects and projects at least a part of said light beam; • a light effect system positioned at least partial in said light beam and between said light source and said projecting system, said light effect system comprises light forming means (137, 201, 301, 401), comprising a number of annular gobo segments (203a-203e, 303a-303e, 403a-403f) arranged partially around the center (205, 305, 405) of said light forming means, where each of said annular gobo segment has an angular extent allowing said light beam to be enclosed by said annular gobo segment and an actuator adapted to rotate said light forming means around said center and an axis parallel with the optical axis of said light beam;
Actuating apparatus for a brake device, preferably disc brake or block brake, of a rail vehicle, comprising a cylinder with a piston guided therein for actuating brake actuators, wherein the piston can be moved by changing the brake pressure applied on a pressure side of the piston in the cylinder, wherein as a function of the movement of the piston an air volume restricted at least by the cylinder and piston is changed, wherein the air volume is shut off from the environment in order to prevent a direct pressure equalisation between air volume and atmospheric pressure, and characterised in that at least one pressure equalisation means is connected to the air volume.
Clutch device (1, 1a) having a friction clutch (6, 6a) which is open in a non-actuated state and is pressed closed along an engagement travel (s) by an actuator by means of a lever spring (23, 23a), the actuator axially moving radially inner lever tips (25, 25a) of the lever spring (23, 23a) by means of an engagement bearing, the lever spring (23, 23a) being supported with respect to a clutch cover (10, 10a) on a ramp device of an automatically force-controlled adjusting device and moving the pressure plate (12, 12a) radially on the outside with respect to an axially fixed counterpressure plate (9, 9a), a sensor spring being clamped in with an action of force between the clutch cover (10, 10a) and the lever spring (23, 23a), the lever spring (23, 23a) having a degressive characteristic curve at least before a transmission of a clutch torque, and a contact force of the lever spring (23, 23a) decreasing in the case of wear between the lever spring (23, 23a) and the ramp device in a manner which is dependent on an installation position of the lever spring (23, 23a), which installation position changes in a wear-dependent manner, to such an extent that an adjustment ring of the ramp device can rotate with an axial compensation of the wear, characterized in that at least one energy store (37, 37a) which produces the engagement force (F) of the actuator in a continuously increasing manner over the engagement travel (s) is clamped in between the lever spring (23, 23a) and an axially fixed component.
Reduction-type device or differential-type device for an aircraft turbine engine, comprising a central sun gear with a rotation axis X, a ring gear extending around the axis X and the sun gear, a planetary carrier supporting an annular row of planet gears arranged between the sun gear and the ring gear, and engaged with the sun gear and the ring gear, the planet gears having rotation axes Y substantially parallel to said axis X, said sun gear comprising means for coupling to a shaft of the turbine engine and at least one of the planetary carrier and the ring gear comprising means to connect to another shaft of the turbine engine, each of said planet gears being rotationally guided by at least one bearing extending around a tubular support of axis Y of said planetary carrier, the tubular support comprising an inner cavity to receive the oil and substantially radial through-orifices for the passage of the oil from an internal annular surface of said tubular support to said at least one bearing, an oil-transfer member (60, 60') being mounted in said cavity and comprising at least one oil duct (68, 70) intended to be connected to oil supply means and which is connected to a ring (66, 66') that extends about the axis Y and delimits with said internal annular surface an annular space (84, 84') for the circulation of oil, the oil being intended to flow from said at least one duct into said space to form a film of oil in contact with said tubular support, and then to pass through said orifices, said member (60, 60') being characterized in that it comprises a first axial duct extending along the axis Y and at least a second radial duct extending between the first duct and said ring (66, 66'), said first duct being formed in a cylindrical portion of the member (60, 60'), and said at least one second duct being formed in a disc connecting said cylindrical portion to the inner periphery of the ring (66, 66').
Hand tool device having a drive spindle having a tool flange for an extensive tool that is drivable in rotation, having a clamping nut that is able to be screwed onto the free end of the drive spindle and clamps the tool against the tool flange for conjoint rotation, and having a load-relief device that is arranged on the side of the tool away from the tool flange and has an actuating element, the axial extent of said load-relief device being reducible in order to release the clamping nut, wherein the load-relief device has a first functional part and a second functional part, between which a clamping body and an adjusting body are arranged, wherein the adjusting body prevents the clamping body from moving radially outwards, such that the clamping body supports the first functional part and the second functional part in the axial direction, characterized in that the actuating element is actuable in the axial direction and, in an unactuated first functional position, indirectly or directly prevents the adjusting body from moving radially outwards and, in an actuated second functional position, allows the adjusting body to move radially outwards, such that as a result the clamping body is also movable radially outwards and so a reduction in the axial extent of the load-relief device is achievable.
Method of melt-spinning and winding synthetic yarns, wherein a polymer melt is conveyed through a spin pump (2.1) and fed to a plurality of spinnerets (6.1-6.5) which extrude the polymer melt into a plurality of yarns respectively, wherein the yarns are wound into a plurality of bobbins by a winding device and wherein the spinnerets (6.1-6.5) are regularly maintained by wiping a spinneret nozzle plate (29.1), characterized in that, the maintenance of at least one of the spinnerets (6.1-6.5) is initiated by manually pressing a wiping button (5.1) which is connected to a machine control unit and the machine control unit generates a control command which is transmitted to a wiping robot, and in that, after manually pressing the wiping button (5.1), the machine control unit checks whether the winding device is in winding status and sends different control commands to the wiping robot based on different check results.
Garment, especially sports garment, comprising a substrate which covers a part of the body of the wearer of the garment, wherein the substrate is at least partially designed as an at least two-layer arrangement, wherein an inner layer is facing the body of the wearer and an outer layer is delimiting the outside of the garment, wherein the two layers (3, 4) form a pocket which is filled with a filling material and wherein the filling material are at least partially plastic particles which are arranged loosely in the pocket, characterized in that the plastic particles consist of expanded (foamed) plastic material of one or more of the group of thermoplastic polyolefin, thermoplastic polyurethane, thermoplastic elastomer and thermoplastic polyamide, wherein the extension of the plastic particles in the three spatial directions is between 1 mm and 5 mm, wherein the shape of the plastic particles is spherical or elliptical and wherein the pocket is filled with plastic particles and a wadding material.
An antenna arrangement, comprising: a first antenna element; a second antenna element; an inductance coil coupled to both the first antenna element and the second antenna element, wherein the first antenna element extends along a first spatial axis, the first antenna element configured to radiate an electromagnetic wave to the environment based on a first transmit signal fed to the first antenna element; the second antenna element extends along the first spatial axis, at least partly overlapping with the first antenna element, the second antenna element configured to radiate an electromagnetic wave to the environment based on a second transmit signal fed to the second antenna element, characterized in that the inductance coil is arranged at a cross point of the first antenna element and the second antenna element. a first antenna element; a second antenna element; an inductance coil coupled to both the first antenna element and the second antenna element, wherein the first antenna element extends along a first spatial axis, the first antenna element configured to radiate an electromagnetic wave to the environment based on a first transmit signal fed to the first antenna element; the second antenna element extends along the first spatial axis, at least partly overlapping with the first antenna element, the second antenna element configured to radiate an electromagnetic wave to the environment based on a second transmit signal fed to the second antenna element, characterized in that the inductance coil is arranged at a cross point of the first antenna element and the second antenna element.
Method for the positionally accurate installation of a wire guide on a torch head for a coating system for thermal coating, including the following steps: by using an image capture device that has a predetermined spatial relationship with respect to the torch head, capturing an image that shows at least a portion of the torch head and at least a portion of the wire guide positioned on the torch head; processing the image to identify at least one first feature of the wire guide, based on which first feature a position of the wire guide on an axis in the image can be determined, and at least one second feature of the portion of the torch head, based on which second feature a reference position of the portion of the torch head in the image can be determined; determining the position of the wire guide based on the at least one identified first feature; determining the reference position of the portion of the torch head based on the at least one identified second feature; and moving the wire guide along the axis until the position of the wire guide has a predetermined positional relationship with respect to the reference position of the portion of the torch head. by using an image capture device that has a predetermined spatial relationship with respect to the torch head, capturing an image that shows at least a portion of the torch head and at least a portion of the wire guide positioned on the torch head; processing the image to identify at least one first feature of the wire guide, based on which first feature a position of the wire guide on an axis in the image can be determined, and at least one second feature of the portion of the torch head, based on which second feature a reference position of the portion of the torch head in the image can be determined; determining the position of the wire guide based on the at least one identified first feature; determining the reference position of the portion of the torch head based on the at least one identified second feature; and moving the wire guide along the axis until the position of the wire guide has a predetermined positional relationship with respect to the reference position of the portion of the torch head.
A fusion protein comprising: (i) a guide nucleotide sequence-programmable DNA binding protein domain which is programmed to bind to a target DNA sequence by a guide RNA (gRNA); (ii) a linker comprising 8 of SEQ ID NO: 183; and (iii) a Gin recombinase catalytic domain which binds to a gix core or gix-related core sequence and which has an amino acid sequence that has at least 95% sequence identity with SEQ ID NO: 713, which comprises residue 127L and optionally at least one of residues 106Y, 136R, and 137F relative to SEQ ID NO: 713, and wherein the gix core or gix-related core sequence is separated from at least one binding site of the gRNA by 3 to 6 base pairs. (i) a guide nucleotide sequence-programmable DNA binding protein domain which is programmed to bind to a target DNA sequence by a guide RNA (gRNA); (ii) a linker comprising 8 of SEQ ID NO: 183; and (iii) a Gin recombinase catalytic domain which binds to a gix core or gix-related core sequence and which has an amino acid sequence that has at least 95% sequence identity with SEQ ID NO: 713, which comprises residue 127L and optionally at least one of residues 106Y, 136R, and 137F relative to SEQ ID NO: 713, and wherein the gix core or gix-related core sequence is separated from at least one binding site of the gRNA by 3 to 6 base pairs.
Multifunctional plaster (100, 100a, 100b), wherein the plaster (100, 100a, 100b) comprises the following components - a first component in the form of a carrier material (1, 1a-1l) consisting of singular carrier material grains (1, 1a-1l) of expanded glass hollow spheres with air or vacuum inclusions (10a-10g) or ceramic micro hollow spheres with air or vacuum inclusions (10a-10g), - a second component in the form of granules (2a-21) of marble, granite, quartz, soapstone, vermiculite, silicon carbide or graphite, - a third component in the form of a binding agent (3a-3m) in the form of resin, adhesive, polysaccharides, starch or gelatin and wherein the mixing ratio between the carrier material (1, 1a-1l) and the granules (2a-21) is in a range from 0.1:1 to 8:1, but preferably about 4:1 and wherein the percentage deviation from the smallest outer to the largest outer diameter of the carrier material grain (1, 1a-1l) and the granule grain (2a-2l) is in a range of 2.5 % to 75 %, but preferably 25 %, so that when bonding the carrier material (1, 1a-1l) with the granule (2a-2l), air channels (4a-4i) remain in place. - a first component in the form of a carrier material (1, 1a-1l) consisting of singular carrier material grains (1, 1a-1l) of expanded glass hollow spheres with air or vacuum inclusions (10a-10g) or ceramic micro hollow spheres with air or vacuum inclusions (10a-10g), - a second component in the form of granules (2a-21) of marble, granite, quartz, soapstone, vermiculite, silicon carbide or graphite, - a third component in the form of a binding agent (3a-3m) in the form of resin, adhesive, polysaccharides, starch or gelatin and wherein the mixing ratio between the carrier material (1, 1a-1l) and the granules (2a-21) is in a range from 0.1:1 to 8:1, but preferably about 4:1
A power interface, comprising: a body portion adapted to be connected with a circuit board; multiple data pins spaced from one another, the data pins being connected with the body portion; and multiple power pins spaced from one another, the power pins being connected with the body portion, the power pins being spaced from the data pins, each power pin comprising at least one first contact surface adapted to be electrically connected with a conductive member and at least one second contact surface adapted to be wrapped with an insulating coating portion, at least one protrusion being arranged on the second contact surface to increase a current load capacity of the power pin, characterized in that there are two first contact surfaces, and the two first contact surfaces being positioned on two opposite sidewalls of the power pin. a body portion adapted to be connected with a circuit board; multiple data pins spaced from one another, the data pins being connected with the body portion; and multiple power pins spaced from one another, the power pins being connected with the body portion, the power pins being spaced from the data pins, each power pin comprising at least one first contact surface adapted to be electrically connected with a conductive member and at least one second contact surface adapted to be wrapped with an insulating coating portion, at least one protrusion being arranged on the second contact surface to increase a current load capacity of the power pin, characterized in that there are two first contact surfaces, and the two first contact surfaces being positioned on two opposite sidewalls of the power pin.
A sensor (200; 300) for the detection of gases by microwaves, the sensor comprising a sensor module comprised of a substrate and at least one active layer (210; 310) configured to allow microwave frequency signal flow, wherein the at least one active layer is a layer of a metal oxide of thickness ranging between 10 nm to 3 μm which exhibits a property variation when in contact with the gas and gas detection is determined as the microwave frequency signal flowing through the sensor is affected by the property variation, wherein the sensitivity of the sensor module is a function of the thickness of the at least one active layer.
A composition for acetone detection, wherein the said composition comprises: a. γ-ferric oxide (γ-Fe 2 O 3) in the range of 87.5-95.7 wt%, b. antimony (Sb) salt in the range of 2.9-9.9 wt %, and c. platinum (Pt) in the range of 0.5-2.6 wt %. a. γ-ferric oxide (γ-Fe 2 O 3) in the range of 87.5-95.7 wt%, b. antimony (Sb) salt in the range of 2.9-9.9 wt %, and c. platinum (Pt) in the range of 0.5-2.6 wt %.
Tyrosine kinase inhibitor for use in treating or preventing amyotrophic lateral sclerosis in a subject, wherein treating or preventing comprises: selection of a subject with amyotrophic lateral sclerosis or at risk for amyotrophic lateral sclerosis; and administration of an effective amount of the tyrosine kinase inhibitor to the subject, wherein the tyrosine kinase inhibitor is not Gleevec, wherein the tyrosine kinase inhibitor crosses the blood brain barrier, wherein the tyrosine kinase inhibitor is selected from the group consisting of nilotinib, bosutinib, and a combination thereof, and wherein the tyrosine kinase inhibitor is to be administered at a dosage of less than 10 mg/kg. selection of a subject with amyotrophic lateral sclerosis or at risk for amyotrophic lateral sclerosis; and administration of an effective amount of the tyrosine kinase inhibitor to the subject, wherein the tyrosine kinase inhibitor is not Gleevec, wherein the tyrosine kinase inhibitor crosses the blood brain barrier, wherein the tyrosine kinase inhibitor is selected from the group consisting of nilotinib, bosutinib, and a combination thereof, and wherein the tyrosine kinase inhibitor is to be administered at a dosage of less than 10 mg/kg.
Interleukin-2 (IL-2) for use in treating type I diabetes in a human subject, wherein IL-2 is to be administered at a dose of less than 3.5 MIU/day, wherein said 11-2 is human IL-2 or an active analogue thereof, which active analogue has at least 85% amino acid identity with human IL-2.
A communication device (100; 200), comprising: a radio element operatively coupled to a processor and to a memory, wherein the radio element sends and receives communication data to and from other communication devices within a network; and a speaker operatively coupled to the processor, the speaker configured to output a sound wave based on an output from the processor, wherein the processor is configured to store data in the memory indicating a predetermined order of time slots that are used for data communication within the network and a current status of each time slot within the network, and data further indicating that another communication device within the network is in the master state, wherein all communication devices within the network synchronize to the other communication device that is in the master state, wherein the processor determines a distance between the communication device and the other communication device that transmits communication data to the communication device, wherein a volume of the sound wave is reduced in proportion to the distance between the communication device and the other communication device; wherein when the distance is greater than or equal to a first threshold distance, the volume is zero; wherein the first threshold distance is at least 10 meters and less than 50 meters. a radio element operatively coupled to a processor and to a memory, wherein the radio element sends and receives communication data to and from other communication devices within a network; and a speaker operatively coupled to the processor, the speaker configured to output a sound wave based on an output from the processor, wherein the processor is configured to store data in the memory indicating a predetermined order of time slots that are used for data communication within the network and a current status of each time slot within the network, and data further indicating that another communication device within the network is in the master state, wherein all communication devices within the network synchronize to the other communication device that is in the master state, wherein the processor determines a distance between the communication device and the other communication device that transmits communication data to the communication device, wherein a volume of the sound wave is reduced in proportion to the distance between the communication device and the other communication device; wherein when the distance is greater than or equal to a first threshold distance, the volume is zero; wherein the first threshold distance is at least 10 meters and less than 50 meters.
A personal care device having one or more surfaces for slidably engaging skin and/or hair of a user, said one or more surfaces comprising a hard coating applied by a physical vapour deposition technique, a sputtering technique, or a chemical vapour deposition technique, said hard coating being modified by having particles incorporated therein, said particles having covalently attached thereto pendant hydrophilic polymer chains.