mhurhangee/ep-ind-claims huggingface dataset:
An electro-optical system for determining the attitude of a mobile part comprising means for determining at least one direction of said mobile part, said system comprising a fixed part having a reference point and a mobile part, the fixed part being linked rigidly to an image plane, characterised in that the mobile part is linked rigidly to at least one first linear electro-optical device defining a first direction vector, the fixed part projecting into a first zone comprising the first electro-optical device, at least two networks of beams, the intersection of which with a plane perpendicular to the mean axis of the projection defines at least two networks of non-parallel straight lines, each of the networks of straight lines comprising at least three parallel segments, the beams intercepting the electro-optical device in at least two pairs of triples of points, the system comprising means for calculating a first calculation comprising the determination of the position of a first point corresponding to the projection into the image plane of a point belonging to a straight line comprising the first linear electro-optical device when the latter is considered positively at infinity on the straight line comprising the first linear electro-optical device from the positions of the six projections into the image plane of the two pairs of triples of points and on the basis of a law of conservation of cross ratios of quadruples of points comprising a pair of triples of points and the first point under a central projection, the straight line comprising the reference point, and the first point determining a first direction, said first direction representing the direction of the straight line comprising the first linear electro-optical device.
A controller for a lighting system, connectable to a plurality of light sources of different colors and/or different color temperatures, and connectable to a single user control element, said user control element being configured to generate a user selected value from a range of user selectable values, said user selectable values separated in alternately arranged first intervals and second intervals of the user selectable values, wherein the controller is configured to: receive, from the single user control element, an indication of a change of the user selected value, and as a response to and corresponding to said change of the user selected value, adjust a combined output of said plurality of light sources to produce a change in output color, color temperature and/or a luminous flux of a combined light of the plurality of light sources, such that, as functions (200, 201) of the user selected value in said separated first intervals of the user selectable values, the output color and/or color temperature is kept approximately constant while the luminous flux obtains a local minimum or local maximum in each first interval, and as functions (200, 201) of the user selected value in at least one of said second intervals of the user selectable values in between the first intervals, the output color at least changes from a first color to a second color and/or the color temperature increases or decreases while the luminous flux is kept approximately constant and, wherein the controller is configured to enable an independent adjustment of luminous flux and output color and/or color temperature. receive, from the single user control element, an indication of a change of the user selected value, and as a response to and corresponding to said change of the user selected value, adjust a combined output of said plurality of light sources to produce a change in output color, color temperature and/or a luminous flux of a combined light of the plurality of light sources, such that, as functions (200, 201) of the user selected value in said separated first intervals of the user selectable values, the output color and/or color temperature is kept approximately constant while the luminous flux obtains a local minimum or local maximum in each first interval, and as functions (200, 201) of the user selected value in at least one of said second intervals of the user selectable values in between the first intervals, the output color at least changes from a first color to a second color and/or the color temperature increases or decreases while the luminous flux is kept approximately constant and, wherein the controller is configured to enable an independent adjustment of luminous flux and output color and/or color temperature.
A stator disk for a vacuum pump, in particular for a turbomolecular pump, having an inner ring and an outer ring as well as stator blades which are arranged between them and which are connected to the inner ring and to the outer ring via respective webs (72, 74), wherein the stator disk is configured as a laminated stator disk having stator blades set at an angle; and wherein the stator disk is characterized in that it has an outer ring which is divided in the peripheral direction into a number of mutually separate circular ring sections corresponding to the number of stator blades or which is only divided at every second stator blade.
Moulding composition comprising a thermoplastic polymer as a continuous phase, a non-metallic fibrous reinforcing agent and a heat stabilizer in the form of finely dispersed elementary iron having a weight average particle size of at most 450 μm comprising a. 100 pbw thermoplastic polymer, b. 5-300 pbw non-metallic fibrous reinforcing agent, c. 0.01-20 pbw finely dispersed elementary iron and d. 0-30 pbw of a carrier polymer, wherein "pbw" means "parts by weight" and wherein the thermoplastic polymer is selected from the group consisting of polyimides polyethersulfones, polyetherimides, polysulfones, polyarylates, amorphous polyamides, polyetheretherketones (PEEK), semi-crystalline polyamides, polyphenylesulfides, polyesters and blends thereof. a. 100 pbw thermoplastic polymer, b. 5-300 pbw non-metallic fibrous reinforcing agent, c. 0.01-20 pbw finely dispersed elementary iron and d. 0-30 pbw of a carrier polymer,
A topical composition for targeted thermomodulation comprising a cosmetically acceptable carrier, and a plurality of plasmonic nanoparticles in an amount of 10 9 to 10 18 nanoparticles per millilitre of the topical composition, wherein the plasmonic nanoparticles absorb at least one wavelength selected from about 755 nm, a wavelength in the range of about 800 to 810 nm and a wavelength of about 1064 nm, and wherein the plasmonic nanoparticles comprise a hydrophilic or aliphatic coating, wherein the coating does not adsorb to skin of a mammalian subject, and wherein said coating is selected from polyethylene glycol, silica or polystyrene. a cosmetically acceptable carrier, and a plurality of plasmonic nanoparticles in an amount of 10 9 to 10 18 nanoparticles per millilitre of the topical composition, wherein the plasmonic nanoparticles absorb at least one wavelength selected from about 755 nm, a wavelength in the range of about 800 to 810 nm and a wavelength of about 1064 nm, and wherein the plasmonic nanoparticles comprise a hydrophilic or aliphatic coating, wherein the coating does not adsorb to skin of a mammalian subject, and wherein said coating is selected from polyethylene glycol, silica or polystyrene.
An apparatus for distributing data, comprising network-connected user terminals (101, 104, 108), each of which includes at least processing means (205, 608), memory means (208, 609) and communicating means (209, 611), wherein said memory means (205, 609) stores data and instructions, wherein at a first of said user terminals said processing means is configured by said instructions to encode said data; encrypt said encoded data; broadcast said encrypted data-to a second user terminal (101, 108) by way of said communication means; said stored data comprises generic data and user-specific data and said processing means is further configured by said instructions to obtain the type of processing protocol for said distributed data at said second user terminal (101, 108); encode said user-specific data according to said protocol type; encrypt said encoded user-specific data; receive remote user input data which is broadcast from said second user terminal in response to receiving said encrypted data; and decrypt and compare said remote user input with said stored user-specific data for validating said remote user input data; characterised in that the processing means is arranged to encode said user-specific data by way of at least one nybble-mapping look-up table, wherein the encodied user-specific data comprises binary characters each of which requires four bits of memory storage space.
Shock absorbing apparatus comprising: a flexible housing substantially formed from at least one fluid-impermeable elastomeric section and defining an interior, a plate disposed within the interior of the housing and having at least one orifice, the plate creating adjacent chambers containing a hydraulic fluid that are fluidically connected by the at least one orifice; at least one mounting plate for connecting the housing to a structure that is under load in which transmitted loads acting on the flexible housing from the structure cause a pressurized hydraulic fluid to move between the adjacent chambers through the at least one orifice to provide shock absorption; in which the shock absorbing apparatus is characterized by two pin members disposed in axial relation on opposite sides of the plate and movable disposed in relation to the at least one orifice, in which transmitted loads acting on the flexible housing on either side of the plate cause movement of the two pin members relative to the at least one orifice to create a variable orifice diameter. a flexible housing substantially formed from at least one fluid-impermeable elastomeric section and defining an interior, a plate disposed within the interior of the housing and having at least one orifice, the plate creating adjacent chambers containing a hydraulic fluid that are fluidically connected by the at least one orifice; at least one mounting plate for connecting the housing to a structure that is under load in which transmitted loads acting on the flexible housing from the structure cause a pressurized hydraulic fluid to move between the adjacent chambers through the at least one orifice to provide shock absorption; in which the shock absorbing apparatus is characterized by two pin members disposed in axial relation on opposite sides of the plate and movable disposed in relation to the at least one orifice, in which transmitted loads acting on the flexible housing on either side of the plate cause movement of the two pin members relative to the at least one orifice to create a variable orifice diameter.
A multi-channel plate comprising (i) at least one first and at least one second parallel arranged channel, wherein the first channel and second channel are part of a single polymer body, and wherein channel wall(s) circumvent a channel cavity, and (ii) at least a light source configured to provide light source light to said at least first channel, which includes a light transmissive part and is configured to provide as a first lighting function said light source light downstream from the light transmissive part and to the exterior from said multi-channel plate, and wherein said at least one second channel is configured to provide an additional function different from said first lighting function, and said multi-channel plate has a height and a width that are each smaller than a length of the multi-channel plate, with the width being at least 4 times the height of the plate. (i) at least one first and at least one second parallel arranged channel, wherein the first channel and second channel are part of a single polymer body, and wherein channel wall(s) circumvent a channel cavity, and (ii) at least a light source configured to provide light source light to said at least first channel, which includes a light transmissive part and is configured to provide as a first lighting function said light source light downstream from the light transmissive part and to the exterior from said multi-channel plate, and wherein said at least one second channel is configured to provide an additional function different from said first lighting function, and
Locking element for securing containers, pallets or similar items of cargo in a cargo hold of an aircraft, wherein the items of cargo have engagement apertures with mutually opposite stop edges (30, 30') in which locking lugs (20, 20') engage in a locking position, which locking lugs are movable back into a rest position, wherein each locking element is associated with a pair of locking lugs (20, 20') which in the locking position can each be brought by means of a respective stop face (25, 26) into engagement against a stop edge (30, 30') of the engagement aperture, the locking lugs (20, 20') being mounted so as to be movable in such a way that on movement from the locking position to the rest position both stop faces (25, 26) move away from the stop edges (30, 30'), characterised in that the locking lugs (20, 20') of a pair are connected to one another by a connecting pin and a guide opening so as to act in opposite directions in such a way that when one locking lug (20, 20') moves the other locking lug (20', 20) is moved therewith, the locking element having two permanently fixed hinge pins, wherein each of the locking lugs (20, 20') of a pair, on movement from the locking position to the rest position, rotates about one of the permanently fixed hinge pins.
A mobile robot configured to navigate an operating environment, comprising: a body having a top surface; a drive; a recessed structure beneath the top surface near a geometric center of the body; a controller circuit in communication with the drive, wherein the controller circuit directs the drive to navigate the mobile robot through an environment using camera-based navigation system; and a camera including optics defining a camera field of view and a camera optical axis, wherein: the camera is positioned within the recessed structure located at a distance of at most 15.24 cm [6 inches] from a floor surface and is tilted so that the camera optical axis is aligned at an acute angle of 30-40 degrees above a horizontal plane in line with the top surface and is aimed in a forward drive direction of the body, the field of view of the camera spans a frustum of 45-65 degrees in the vertical direction, and the camera is configured to capture images of the operating environment of the mobile robot. a body having a top surface; a drive; a recessed structure beneath the top surface near a geometric center of the body; a controller circuit in communication with the drive, wherein the controller circuit directs the drive to navigate the mobile robot through an environment using camera-based navigation system; and a camera including optics defining a camera field of view and a camera optical axis, wherein: the camera is positioned within the recessed structure located at a distance of at most 15.24 cm [6 inches] from a floor surface and is tilted so that the camera optical axis is aligned at an acute angle of 30-40 degrees above a horizontal plane in line with the top surface and is aimed in a forward drive direction of the body, the field of view of the camera spans a frustum of 45-65 degrees in the vertical direction, and the camera is configured to capture images of the operating environment of the mobile robot. the camera is positioned within the recessed structure located at a distance of at most 15.24 cm [6 inches] from a floor surface and is tilted so that the camera optical axis is aligned at an acute angle of 30-40 degrees above a horizontal plane in line with the top surface and is aimed in a forward drive direction of the body, the field of view of the camera spans a frustum of 45-65 degrees in the vertical direction, and the camera is configured to capture images of the operating environment of the mobile robot.
A process for preparing Fulvestrant, which comprises: (a) Oxidation of the hydroxy group at position 6 of compound of formula FUL- Ia by using Dess-Martin Periodinane as oxidizing agent, to obtain compound of formula FUL- I, (b) Alkylation of compound of formula FUL-I with 1,9 dibromononane in a suitable solvent and in the presence of a base, to obtain the compound of formula FUL-II, (c) Reaction of compound of formula FUL-II with 4,4,5,5,5-pentafluoropentane phenyl thioester in a suitable solvent and in presence of a base, to obtain the compound of formula FUL-IV, and (d) Converting the compound of formula FUL-IV into Fulvestrant. (a) Oxidation of the hydroxy group at position 6 of compound of formula FUL- Ia by using Dess-Martin Periodinane as oxidizing agent, to obtain compound of formula FUL- I, (b) Alkylation of compound of formula FUL-I with 1,9 dibromononane in a suitable solvent and in the presence of a base, to obtain the compound of formula FUL-II, (c) Reaction of compound of formula FUL-II with 4,4,5,5,5-pentafluoropentane phenyl thioester in a suitable solvent and in presence of a base, to obtain the compound of formula FUL-IV, and (d) Converting the compound of formula FUL-IV into Fulvestrant.
A high voltage measurement device comprising a holder for being arranged between two potentials, a first waveguide being polarization maintaining and transversally poled in a first poling direction and a second waveguide being polarization maintaining and transversally poled in a second direction, wherein said waveguides are of identical type and are arranged parallel to each other, wherein each waveguide is adapted to carry at least one optical mode having two orthogonal light polarization directions, and wherein said first and second waveguides are commonly supported on said holder with said first and said second poling directions (y) being anti-parallel, and a coupling between said first and said second waveguides, wherein said coupling exchanges said polarization directions of the orthogonal modes in the first and in the second waveguide, such that a photon running along one waveguide and being polarized along a slow axis of the waveguide is coupled to a photon being polarized along a fast axis of the other waveguide and vice versa, wherein said holder comprises a rod having a longitudinal axis and wherein said first and said second waveguide are wound along a helical path around said axis with said first and said second poling directions not being orthogonal to said longitudinal axis, wherein further a control unit for sending light at least once through said first waveguide, said coupling and said second waveguide and for measuring a phase delay suffered between - light waves that travel through said first waveguide with a polarization along the first poling direction and through said second waveguide with a polarization perpendicular to said second poling direction and - light waves that travel through said first waveguide with a polarization perpendicular to said first poling direction and through the second waveguide with a polarization along said second poling direction, characterized in that a Faraday rotator with a rotation angle per pass of 45° + k*90°, with k being any integer number, is arranged between the control unit and the first waveguide, a polarization maintaining feed fiber is arranged between the control unit and the Faraday rotator, and the fast and slow axis of the first waveguide are oriented at 45° with regard to the axes of the polarization maintaining feed fiber, and the control unit comprises a phase modulator for a nonreciprocal phase modulation. - light waves that travel through said first waveguide with a polarization along the first poling direction and through said second waveguide with a polarization perpendicular to said second poling direction and - light waves that travel through said first waveguide with a polarization perpendicular to said first poling direction and through the second waveguide with a polarization along said second poling direction, characterized in that
A sensing arrangement for a flyback circuit comprising a magnetic component arranged such that the component is driven during a supply period and provides an output during a flyback period when the component is not supplied, the arrangement including: a sense winding coupled to the magnetic component; an interface network (Ra, Rb) coupled to the sense winding and arranged to provide a circuit node at which a voltage may be measured as indicative of the voltage across the sense winding; and a pull-up (Rp) resistor arranged to apply bias to the voltage measured, characterised by control circuitry having a drive output to which the pull-up resistor (Rp) is connected and arranged to drive the drive output to a first level during the supply period and to a second level during the flyback period; wherein the first and second levels being selected such that the voltage across the sense winding is scaled differently during the supply period and the flyback period. a sense winding coupled to the magnetic component; an interface network (Ra, Rb) coupled to the sense winding and arranged to provide a circuit node at which a voltage may be measured as indicative of the voltage across the sense winding; and a pull-up (Rp) resistor arranged to apply bias to the voltage measured, characterised by control circuitry having a drive output to which the pull-up resistor (Rp) is connected and arranged to drive the drive output to a first level during the supply period and to a second level during the flyback period; wherein the first and second levels being selected such that the voltage across the sense winding is scaled differently during the supply period and the flyback period.
A method for managing uplink transmissions in a license-assisted access, LAA, wireless communication system, comprising: receiving a first explicit uplink grant for transmission of a first protocol data unit, PDU, associated with a first Hybrid Automatic Repeat Request, HARQ, process; receiving a second explicit uplink grant for transmission of a second PDU associated with a second HARQ process, the second explicit uplink grant being received subsequent to the first explicit uplink grant; performing a first clear channel assessment, CCA, in response to the first explicit uplink grant in a first time slot; performing a second CCA in response to the second explicit uplink grant in a second time slot; and determining, in response to the first CCA failing and the second CCA succeeding, whether to transmit over an unlicensed or shared spectrum the first PDU or the second PDU in a time slot subsequent to the second time slot in association with the second HARQ process. receiving a first explicit uplink grant for transmission of a first protocol data unit, PDU, associated with a first Hybrid Automatic Repeat Request, HARQ, process; receiving a second explicit uplink grant for transmission of a second PDU associated with a second HARQ process, the second explicit uplink grant being received subsequent to the first explicit uplink grant; performing a first clear channel assessment, CCA, in response to the first explicit uplink grant in a first time slot; performing a second CCA in response to the second explicit uplink grant in a second time slot; and determining, in response to the first CCA failing and the second CCA succeeding, whether to transmit over an unlicensed or shared spectrum the first PDU or the second PDU in a time slot subsequent to the second time slot in association with the second HARQ process.