mhurhangee/ep-ind-claims huggingface dataset:
A surveillance system (1,2) comprising at least one transmitter, each being adapted to transmit an electromagnetic signal, and at least one receiver, each being adapted to receive an electromagnetic signal, said system being further adapted to: - transmit, by use of one of the at least one transmitters, a first electromagnetic signal and a second electromagnetic signal, the second signal is succeeding the first signal, - receive said first and second electromagnetic signals, by use of one of the at least one receivers, the system further comprising means for comparing the received first signal and the received second signal in order to detect a difference, if present, in said two signals, said difference being caused by a physical change present in the signal path between at least one of the transmitting transmitters and at least one of the receiving receivers, said change occurring between initiation of transmittal of the first signal and termination of the receipt of the second signal, characterised in that, the transmitter(s) and the receiver(s) are components of a wireless network which transmitter(s) and receiver(s) are used both for data transmission and for transmitting and receiving said first and second signals. - transmit, by use of one of the at least one transmitters, a first electromagnetic signal and a second electromagnetic signal, the second signal is succeeding the first signal, - receive said first and second electromagnetic signals, by use of one of the at least one receivers,
Method for measuring at least one optically active object having an upper side and a lower side, wherein the at least one optically active object is irradiated with a measurement radiation and the radiation resulting therefrom is measured, wherein at least one measurement radiation passing through the optically active object is used as measurement radiation and the transmission radiation is measured and/or detected as resulting radiation, wherein furthermore at least one excitation radiation for exciting luminescence radiation in the material of the optically active object and/or in the material of a coating of the optically active object is used as measurement radiation and the luminescence radiation is measured and/or detected as resulting radiation, wherein the resulting luminescence radiation is used for triangulation of the surface(s) of the irradiated upper side and/or of the irradiated lower side of the optically active object, and wherein the resulting transmission radiation is used for determining the refractive power of the optically active object and/or of characteristic variables of the optically active object. wherein at least one measurement radiation passing through the optically active object is used as measurement radiation and the transmission radiation is measured and/or detected as resulting radiation, wherein furthermore at least one excitation radiation for exciting luminescence radiation in the material of the optically active object and/or in the material of a coating of the optically active object is used as measurement radiation and the luminescence radiation is measured and/or detected as resulting radiation, wherein the resulting luminescence radiation is used for triangulation of the surface(s) of the irradiated upper side and/or of the irradiated lower side of the optically active object, and wherein the resulting transmission radiation is used for determining the refractive power of the optically active object and/or of characteristic variables of the optically active object.
A method for encapsulating or encasing a preferably profiled scantling core, wherein the longitudinal axis of the scantling core extends along a height direction, and the cross-section of the scantling core lies normally to the longitudinal axis in a plane which is spanned by a depth direction and a width direction, or for encapsulating or encasing a door blank, which comprises two lateral edges and a bottom edge and an upper edge, wherein the edges (21, 22, 23) are preferably profiled or folded, and wherein the longitudinal axis of the two lateral edges extends along a height direction, having a resin mixture, preferably a polyurethane resin mixture, wherein a mould with the scantling core or door blank situated therein is filled with a predetermined quantity of resin mixture from bottom to top, characterized in that the scantling core or the door blank is positioned at least with its bottom edge and the two lateral edges in an aluminium mould which is upwardly open and stands perpendicularly with respect to a base, wherein the longitudinal axis of the scantling core or the door blank stands perpendicularly with respect to the base, and after a curing period the scantling core or the door blank encapsulated with the cured resin mixture is taken from the aluminium mould.
An imaging device comprising: a first substrate including a pixel and a pixel control line; and a second substrate, the first substrate and the second substrate being stacked on each other, wherein the second substrate includes a row drive unit and a failure detector, one end of the pixel control line is connected to the row drive unit via a first connection electrode, the other end of the pixel control line is connected to the failure detector via a second connection electrode, the row drive unit is configured to supply a control signal for controlling operation of the pixel to the pixel via the pixel control line and via the first connection electrode, and the failure detector is configured to detect a failure in accordance with the control signal supplied via the first connection electrode, the pixel control line, and the second connection electrode, wherein the failure detector is connected to the pixel via the pixel control line and via the second connection electrode, and wherein the row drive unit is connected to the pixel via the pixel control line and via the first connection electrode. a first substrate including a pixel and a pixel control line; and a second substrate, the first substrate and the second substrate being stacked on each other, wherein the second substrate includes a row drive unit and a failure detector, one end of the pixel control line is connected to the row drive unit via a first connection electrode, the other end of the pixel control line is connected to the failure detector via a second connection electrode, the row drive unit is configured to supply a control signal for controlling operation of the pixel to the pixel via the pixel control line and via the first connection electrode, and the failure detector is configured to detect a failure in accordance with the control signal supplied via the first connection electrode, the pixel control line, and the second connection electrode, wherein the failure detector is connected to the pixel via the pixel control line and via the second connection electrode, and wherein the row drive unit is connected to the pixel via the pixel control line and via the first connection electrode.
An extended release dosage form with an absorption window at the upper gastrointestinal tract comprising an extended release platform and a retention enabling platform; wherein the extended release platform is a pharmaceutical composition comprising a tablet core and a coating membrane, the tablet core comprises a drug-containing layer, and the coating membrane comprises cellulose acetate and copovidone, wherein the weight of the cellulose acetate is 50-70% of the weight of the coating membrane, the weight of the copovidone is 30-50% of the weight of the coating membrane; wherein the retention enabling platform is used for maintaining the extended release platform in the oral cavity, and at least one end of the retention enabling platform is connected with a cover, so that the extended release platform can be retained in the retention enabling platform; the drug-containing layer comprises active pharmaceutical ingredients and excipients, and the active pharmaceutical ingredient is one or more of levodopa and carbidopa. wherein the extended release platform is a pharmaceutical composition comprising a tablet core and a coating membrane, the tablet core comprises a drug-containing layer, and the coating membrane comprises cellulose acetate and copovidone, wherein the weight of the cellulose acetate is 50-70% of the weight of the coating membrane, the weight of the copovidone is 30-50% of the weight of the coating membrane; wherein the retention enabling platform is used for maintaining the extended release platform in the oral cavity, and at least one end of the retention enabling platform is connected with a cover, so that the extended release platform can be retained in the retention enabling platform; the drug-containing layer comprises active pharmaceutical ingredients and excipients, and the active pharmaceutical ingredient is one or more of levodopa and carbidopa.
A surgical port assembly comprising: a body attachable to a patient at an incision in a skin surface of the patient to facilitate deployment of instruments in the patient via the incision, said body having a main axis oriented substantially transversely to the patient's skin surface upon disposition of said body in the incision; a main first plate mounted to said body substantially transversely to said axis, said first plate having a first opening and a second opening, the main plate rotatable within the body; a second plate disposed within the main first plate rotatably disposed in said first opening for turning about an auxiliary axis substantially parallel to said main axis; at least one first tubular member attached to said second plate and extending in at least one direction away from said second plate; and a second tubular member attached to said first plate at said second opening extending in at least one direction away from said first plate.
A surfactant suitable for polymerization, comprising a compound of formula (b): R 1b -C(=O)-(CR 2b 2) n -(OR 3b) p -(CR 4b 2) q -L-A b (b) wherein R 1b is a linear or branched unsubstituted C 1-3 -alkyl group; R 2b is H; n is an integer of 5 to 25; R 3b is optionally substituted C 1-10 -alkylene; q is an integer of 0 to 5; R 4b is H; p is an integer of 0 or 1; L is a single bond; and A b is -SO 3 X b or -COOX b, wherein X b is H, a metal atom, NR 5b 4 wherein R 5b each independently is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally substituted. R 1b is a linear or branched unsubstituted C 1-3 -alkyl group; R 2b is H; n is an integer of 5 to 25; R 3b is optionally substituted C 1-10 -alkylene; q is an integer of 0 to 5; R 4b is H; p is an integer of 0 or 1; L is a single bond; and A b is -SO 3 X b or -COOX b, wherein X b is H, a metal atom, NR 5b 4 wherein R 5b each independently is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally substituted.
Method for the operation of a vehicle combination consisting of two or more mechanically-coupled, individually or collectively-driven vehicles (100, 101, 102, 1nn; 110, 111, 11n) in such a way that a correct track course is followed, characterised in that each axle follows exactly the track course of the first axle, in an electronically controlled manner, wherein the automatic control (303, 304, 305; 401 - 403) of the secondary axles is determined by the angular positions of the first axle and the angles between the vehicles (100, 101, 102, Inn; 110, 111, 11n) together with the vehicle geometry and wherein in order to control the secondary axles an electronic map is used which is guided along the vehicle (100, 101, 102, 1nn; 110, 111, 11n) in a computer-controlled manner, by the position of the first axle being detected and the position of the virtual rail being defined, the electronic map is created with the help of the steering angle in the guide computer, which determines the target positions of the track of the secondary axles as the virtual rail.
A cutting tool (100, 100A-E, 100K-N, 100P, 220) comprising: a body; an aperture defined through the body; a blade (130, 130A-B) coupled to the body, the blade (130, 130A-B) having a cutting edge (132, 132A-B) extending into the aperture; and, at least one protrusion extending from the body into the aperture, the at least one protrusion having an end portion proximate the cutting edge (132, 132A-B) and configured to impede access to the cutting edge (132, 132A-B); characterized in that the at least one protrusion comprises at least one fin (142, 143, 145, 148, 174, 176, 178, 182, 186) oriented generally perpendicularly to a plane of the blade (130, 130A-B). a body; an aperture defined through the body; a blade (130, 130A-B) coupled to the body, the blade (130, 130A-B) having a cutting edge (132, 132A-B) extending into the aperture; and, at least one protrusion extending from the body into the aperture, the at least one protrusion having an end portion proximate the cutting edge (132, 132A-B) and configured to impede access to the cutting edge (132, 132A-B); the at least one protrusion comprises at least one fin (142, 143, 145, 148, 174, 176, 178, 182, 186) oriented generally perpendicularly to a plane of the blade (130, 130A-B).
A method for milling at least a portion of a workpiece (600, 1102, 1202, 1302) by a cutting tool (300, 1304, 1604) of a numerical control machine, the numerical control machine having associated therewith a processor and a memory, comprising: determining one or more constraints on a tool axis vector of the cutting tool (300, 1304, 1604) based, at least in part, on a domain mapping, wherein the domain mapping maps a location of the tool axis vector in a first subset of a three-dimensional (3-D) space to a location in a second space; setting the tool axis vector direction at one or more points along a toolpath in accordance with the one or more constraints; and outputting instructions based, at least in part, on the toolpath to cause a milling machine to mill at least a portion of the workpiece (600, 1102, 1202, 1302). determining one or more constraints on a tool axis vector of the cutting tool (300, 1304, 1604) based, at least in part, on a domain mapping, wherein the domain mapping maps a location of the tool axis vector in a first subset of a three-dimensional (3-D) space to a location in a second space; setting the tool axis vector direction at one or more points along a toolpath in accordance with the one or more constraints; and outputting instructions based, at least in part, on the toolpath to cause a milling machine to mill at least a portion of the workpiece (600, 1102, 1202, 1302).
Assembly of load-retaining bars for the loading space of a motor vehicle in order to secure the transportation of any type of load arranged in this space, comprising at least one main bar which has an external surface and which is able to be mounted vertically in the loading space of the vehicle, at least one auxiliary bar which has two ends and which is mounted perpendicularly between main bars and/or between one main bar and a mounting on the body of the vehicle and which thus defines a mounting direction, and means for fastening at least one end of the said auxiliary bar to at least one main bar, characterized in that the said fastening means comprise: - at least one pair of support elements which project from the said external surface of the said main bar, the said support elements being arranged on both sides of the said mounting direction; - an end-piece arranged at least at one end of the said auxiliary bar, the said end-piece having two notches oriented in a direction substantially perpendicular to the said mounting direction, each of the said notches having a base against which there bears one of the said support elements under the effect of the weight of the said auxiliary bar when the said auxiliary bar is mounted on the said main bar. - at least one pair of support elements which project from the said external surface of the said main bar, the said support elements being arranged on both sides of the said mounting direction; - an end-piece arranged at least at one end of the said auxiliary bar, the said end-piece having two notches oriented in a direction substantially perpendicular to the said mounting direction, each of the said notches having a base against which there bears one of the said support elements under the effect of the weight of the said auxiliary bar when the said auxiliary bar is mounted on the said main bar.
A nickel based alloy consisting of, in weight percentage: carbon from 0.5 to 1.5; chromium from 25 to 35; tungsten from 12 to 18; iron from 3.5 to 8.5; molybdenum from 1 to 8; manganese up to about 0.50; silicon up to about 1.0; up to a total of 1.5 cobalt, vanadium, titanium, niobium, hafnium, zirconium, tantalum, rare earth, yttrium, copper, sulfur, phosphorus or nitrogen; and the balance nickel from 30 to 45 and incidental impurities.
A vehicle headlamp comprising a main lighting module arranged to emit a main light beam corresponding to a low beam, a plurality of adjacent complementary lighting modules (3, 3', 3"), each arranged to emit a complementary light beam (74, 73, 72) different from said main light beam means for adjusting the elevation and azimuth of each of said light modules (2, 2', 2", 3, 3', 3"), and a control unit, characterized in that the adjusting means is capable of adjusting the elevational and azimuthal orientation of each of said complementary light modules independently of each other so as to perform a plurality of distinct photometric functions and in that the complementary modules (3, 3', 3") are arranged and controlled by the control unit which is able to control the lighting intensity and the orientation of each of the complementary lighting modules in order to project their beams (74, 73, and 72) from a side face of the main beam according to the angle of rotation of the steering wheel of the vehicle in order to achieve a continuous complementary lighting of the main beam during a turn.
A dynamic projection system suitable for an automobile, comprising a light source, a collimating lens, a first microlens array, an LCD projection source and a second microlens array, characterized in that the dynamic projection system further comprises a polarization grating used for separating P-polarized light and S-polarized light, and a wave plate array, and the wave plate array comprises a plurality of 1/2 wave plates arranged at intervals; and the polarization grating is arranged in front of the first microlens array and the second microlens array, the 1/2 wave plates and the LCD projection source are arranged between the first microlens array and the second microlens array, and the 1/2 wave plates are arranged in front of the LCD projection source to play a role in converting one of the P-polarized light and the S-polarized light into the other one of the P-polarized light and the S-polarized light. the dynamic projection system further comprises a polarization grating used for separating P-polarized light and S-polarized light, and a wave plate array, and the wave plate array comprises a plurality of 1/2 wave plates arranged at intervals; and the polarization grating is arranged in front of the first microlens array and the second microlens array, the 1/2 wave plates and the LCD projection source are arranged between the first microlens array and the second microlens array, and the 1/2 wave plates are arranged in front of the LCD projection source to play a role in converting one of the P-polarized light and the S-polarized light into the other one of the P-polarized light and the S-polarized light.
An anti-fouling segmented copolymer composition comprising: (a) one or more first soft segments selected from fluoropolymers having an average molecular weight from about 500 g/mol to about 20,000 g/mol, wherein said fluoropolymers are (α,ω)-hydroxyl-terminated, (α,ω)-amine-terminated, and/or (α,ω)-thiol-terminated; (b) one or more second soft segments selected from polyesters or polyethers, wherein said polyesters or polyethers are (α,ω)-hydroxyl-terminated, (α,ω)-amine-terminated, and/or (α,ω)-thiol-terminated; (c) one or more isocyanate species possessing an isocyanate functionality of 2 or greater, or a reacted form thereof; (d) one or more polyol or polyamine chain extenders or crosslinkers, or a reacted form thereof; and (e) a liquid additive selectively disposed in one of said first soft segments or said second soft segments, wherein the selectivity is at least 60%; and wherein said liquid additive: (i) is a freezing-point depressant for water; or (ii) is a lubricant; or (iii) is an electrolyte for use in battery or other energy-device applications; or (iv) includes alcohol groups, amine groups, thiol groups, or a combination thereof. (a) one or more first soft segments selected from fluoropolymers having an average molecular weight from about 500 g/mol to about 20,000 g/mol, wherein said fluoropolymers are (α,ω)-hydroxyl-terminated, (α,ω)-amine-terminated, and/or (α,ω)-thiol-terminated; (b) one or more second soft segments selected from polyesters or polyethers, wherein said polyesters or polyethers are (α,ω)-hydroxyl-terminated, (α,ω)-amine-terminated, and/or (α,ω)-thiol-terminated; (c) one or more isocyanate species possessing an isocyanate functionality of 2 or greater, or a reacted form thereof; (d) one or more polyol or polyamine chain extenders or crosslinkers, or a reacted form thereof; and (e) a liquid additive selectively disposed in one of said first soft segments or said second soft segments, wherein the selectivity is at least 60%; and (i) is a freezing-point depressant for water; or (ii) is a lubricant; or (iii) is an electrolyte for use in battery or other energy-device applications; or (iv) includes alcohol groups, amine groups, thiol groups, or a combination thereof.
A base station in a wireless cellular network, comprising: a beam forming module configured to form a transmission and a reception beam having a beam pattern with predetermined nulls, wherein the predetermined nulls are formed over selected elevation angles to reduce interference to and from proximate base stations (BSs); a simultaneous transmit and receive module configured to communicate with a transceiver of the base station that is configured to communicate with a user equipment in a full-duplex mode enabling the transceiver to simultaneously transmit and receive; and a weighting module configured to weight antenna elements in a planar array antenna of the base station to form the predetermined nulls over the selected elevation angles using, M vertically stacked antenna elements that are vertically weighted using: w v = a H φ 0 a φ 0 a H φ 0 + ∑ m ≠ 0 a φ m a H φ m + ε I − 1 wherein a ( φ 0) = [1 e jπ cos(φ 0) ··· e j ( M -1) π cos( φ 0)] T is an array vector toward main beam direction φ 0 in elevation angle, wherein m is an index of nulls into M vertically stacked antenna elements, wherein T is a transpose, wherein ε controls a depth of the predetermined nulls, wherein (·) H represents a complex conjugate transpose, and wherein I represents an identity matrix. a beam forming module configured to form a transmission and a reception beam having a beam pattern with predetermined nulls, wherein the predetermined nulls are formed over selected elevation angles to reduce interference to and from proximate base stations (BSs); a simultaneous transmit and receive module configured to communicate with a transceiver of the base station that is configured to communicate with a user equipment in a full-duplex mode enabling the transceiver to simultaneously transmit and receive; and a weighting module configured to weight antenna elements in a planar array antenna of the base station to form the predetermined nulls over the selected elevation angles using, M vertically stacked antenna elements that are vertically weighted using: w v = a H φ 0 a φ 0 a H φ 0 + ∑ m ≠ 0 a φ m a H φ m + ε I − 1 wherein a ( φ 0) = [1 e jπ cos(φ 0) ··· e j ( M -1) π cos( φ 0)] T is an array vector toward main beam direction φ 0 in elevation angle, wherein m is an index of nulls into M vertically stacked antenna elements, wherein T is a transpose, wherein ε controls a depth of the predetermined nulls, wherein (·) H represents a complex conjugate transpose, and wherein I represents an identity matrix.