mhurhangee/ep-ind-claims huggingface dataset:
A method for modulating a signal by generating data for transmission suitable for transmission from a subscriber unit to a base station in a communication system wherein the method comprises the steps of: mapping first channel symbols; modulating said first channel symbols with a first orthogonal code; gain adjusting the first orthogonal code modulated channel symbols; mapping second channel symbols; modulating said second channel symbols with a second orthogonal code; gain adjusting the second orthogonal code modulated channel symbols; mapping third channel symbols; modulating said third channel symbols with a third orthogonal code; gain adjusting the third orthogonal code modulated channel symbols; summing said gain adjusted first orthogonal code modulated channel symbols with gain adjusted pilot symbols, yielding in-phase data; summing said gain adjusted second orthogonal code modulated channel symbols with the gain adjusted third orthogonal code modulated channel symbols, yielding quadrature phase data; and complex multiplying said in-phase data and said quadrature phase data with an in-phase spreading code and a quadrature-phase spreading code to generate an in-phase term and a quadrature-phase term; wherein said first, second and third orthogonal codes have different lengths. mapping first channel symbols; modulating said first channel symbols with a first orthogonal code; gain adjusting the first orthogonal code modulated channel symbols; mapping second channel symbols; modulating said second channel symbols with a second orthogonal code; gain adjusting the second orthogonal code modulated channel symbols; mapping third channel symbols; modulating said third channel symbols with a third orthogonal code; gain adjusting the third orthogonal code modulated channel symbols; summing said gain adjusted first orthogonal code modulated channel symbols with gain adjusted pilot symbols, yielding in-phase data; summing said gain adjusted second orthogonal code modulated channel symbols with the gain adjusted third orthogonal code modulated channel symbols, yielding quadrature phase data; and complex multiplying said in-phase data and said quadrature phase data with an in-phase spreading code and a quadrature-phase spreading code to generate an in-phase term and a quadrature-phase term; wherein said first, second and third orthogonal codes have different lengths.
A method performed by a pilot terminal assisting a pilot (620, 720) to remotely control an aircraft, the method comprising: performing pilot authentication based on a first challenge-response process with an authentication server (610, 710); transmitting first flight information to the authentication server (610, 710); receiving a first authentication token provided in response to verification of the first flight information in the authentication server (610, 710); transmitting the first authentication token to an aircraft system; receiving a second authentication token from the aircraft system, the second authentication token being transmitted by the authentication server (610, 710) to the aircraft system when authentication for a security manager (630, 730) boarding the aircraft succeeds based on a second challenge-response process performed between the aircraft system and the authentication server (610, 710), wherein the second authentication token corresponds to that provided to the aircraft system in response to verification by the authentication server (610, 710) for second flight information transmitted by the aircraft system to the authentication server (610, 710); and sharing a session key and a message authentication code key, which will be used to transmit remote control related data, with the aircraft system, when mutual authentication between the pilot terminal and the aircraft system, which is performed based on the first authentication token and the second authentication token, succeeds. performing pilot authentication based on a first challenge-response process with an authentication server (610, 710); transmitting first flight information to the authentication server (610, 710); receiving a first authentication token provided in response to verification of the first flight information in the authentication server (610, 710); transmitting the first authentication token to an aircraft system; receiving a second authentication token from the aircraft system, the second authentication token being transmitted by the authentication server (610, 710) to the aircraft system when authentication for a security manager (630, 730) boarding the aircraft succeeds based on a second challenge-response process performed between the aircraft system and the authentication server (610, 710), wherein the second authentication token corresponds to that provided to the aircraft system in response to verification by the authentication server (610, 710) for second flight information transmitted by the aircraft system to the authentication server (610, 710); and sharing a session key and a message authentication code key, which will be used to transmit remote control related data, with the aircraft system, when mutual authentication between the pilot terminal and the aircraft system, which is performed based on the first authentication token and the second authentication token, succeeds.
A mounting system comprising a magnet core, which is arranged inside a magnet coil and has a cylindrical, elongate receiving region, and a rapid-mounting mandrel provided for insertion into the receiving region, on which rapid-mounting mandrel a discoid workpiece driver, which is in a plane normal to the central axis of the receiving region, is detachably fastened, wherein one of the elements (magnet core and rapid-mounting mandrel) has a non-magnetic rapid-mounting device formed in the magnet core for mounting the rapid-mounting mandrel.
A first device in a wireless communication system supporting ranging capability, the first device comprising: a processor configured to generate a ranging control message, RCM, comprising a multiple message receipt confirmation request, MMRCR, information, the MMRCR information indicating whether multiple message receipt confirmation is requested or not; a transceiver (210a...n) operably connected to the processor, the transceiver configured to transmit, to a second device, the generated RCM in a ranging block including a plurality of ranging rounds; and receive, from the second device, a multiple message receipt confirmation message, MMRCM, to confirm receipt of multiple messages, wherein the MMRCM comprises a Ranging Multiple Message Receipt Confirmation IE, RMMRC IE, that includes an MMRC list length field and an MMRC list field, and the MMRC list length field indicates a number of elements in the MMRC list field, and the MMRC list field comprises an address field, an MMRC bitmap length field, and an MMRC bitmap field comprising a binary bitmap string. a processor configured to generate a ranging control message, RCM, comprising a multiple message receipt confirmation request, MMRCR, information, the MMRCR information indicating whether multiple message receipt confirmation is requested or not; a transceiver (210a...n) operably connected to the processor, the transceiver configured to transmit, to a second device, the generated RCM in a ranging block including a plurality of ranging rounds; and receive, from the second device, a multiple message receipt confirmation message, MMRCM, to confirm receipt of multiple messages, wherein the MMRCM comprises a Ranging Multiple Message Receipt Confirmation IE, RMMRC IE, that includes an MMRC list length field and an MMRC list field, and the MMRC list length field indicates a number of elements in the MMRC list field, and the MMRC list field comprises an address field, an MMRC bitmap length field, and an MMRC bitmap field comprising a binary bitmap string.
A method for monitoring performance of a horse, the method using one of more reference signals derived from an apparatus for monitoring performance, the method comprising: (a) providing a girth for attaching to a horse, the girth comprising apparatus having two or more of physiological, biochemical, kinematic, and environmental sensors (10, 18, 21, 22) and a processor to record one or more signals from said sensors (10, 18, 21, 22), wherein the sensors (10, 18, 21, 22) comprise at least an accelerometer sensor and a position sensor; (b) attaching the girth to the horse; (c) obtaining accelerometer data and position data using said two or more sensors (10, 18, 21, 22); (d) the apparatus having a means of re-transmitting the data to an external device for storage, display or analysis; (e) transmitting said accelerometer data and said position data to said external device (14, 16); (f) using said accelerometer data and position data to determine at least a stride length of the horse by combining speed data derived from the position data from the position sensor and accelerometer data derived from the accelerometer sensor, wherein said sensors (10, 18, 21, 22) are only in the girth. (a) providing a girth for attaching to a horse, the girth comprising apparatus having two or more of physiological, biochemical, kinematic, and environmental sensors (10, 18, 21, 22) and a processor to record one or more signals from said sensors (10, 18, 21, 22), wherein the sensors (10, 18, 21, 22) comprise at least an accelerometer sensor and a position sensor; (b) attaching the girth to the horse; (c) obtaining accelerometer data and position data using said two or more sensors (10, 18, 21, 22); (d) the apparatus having a means of re-transmitting the data to an external device for storage, display or analysis; (e) transmitting said accelerometer data and said position data to said external device (14, 16); (f) using said accelerometer data and position data to determine at least a stride length of the horse by combining speed data derived from the position data from the position sensor and accelerometer data derived from the accelerometer sensor,
A positive electrode active material used for a positive electrode for a lithium-ion secondary battery, the positive electrode active material consisting of: a positive electrode active material particle A expressed by General Formula: Li α Ni x Co y Mn (1-x-y)O 2 (where 0<α≤1.15, 0.7≤x≤0.9, 0<y≤0.2, and 0<(1-x-y)); and one kind or two or more kinds of positive electrode active material particles B selected from a positive electrode active material particle B 1 expressed by General Formula (B 1): Li β Ni a Co b Al (1-α-b) O 2 (where 0<β≤1.15, 0.7≤a≤0.9, 0<b≤0.2, and 0<(1-a-b)), and a positive electrode active material particle B 2 expressed by General Formula (B 2): Li β -Ni a Co b Mn (1-a-b)O 2 (where 0<β≤1.15, 0.2≤a≤0.6, 0<b≤0.8, and 0<(1-a-b)),. a positive electrode active material particle A expressed by General Formula: Li α Ni x Co y Mn (1-x-y)O 2 (where 0<α≤1.15, 0.7≤x≤0.9, 0<y≤0.2, and 0<(1-x-y)); and one kind or two or more kinds of positive electrode active material particles B selected from a positive electrode active material particle B 1 expressed by General Formula (B 1): Li β Ni a Co b Al (1-α-b) O 2 (where 0<β≤1.15, 0.7≤a≤0.9, 0<b≤0.2, and 0<(1-a-b)), and a positive electrode active material particle B 2 expressed by General Formula (B 2): Li β -Ni a Co b Mn (1-a-b)O 2 (where 0<β≤1.15, 0.2≤a≤0.6, 0<b≤0.8, and 0<(1-a-b)),.
Composition comprising: a) at least one support material which is porous; b) at least one metal selected from transition group VIII of the Periodic Table of the Elements; c) at least one compound of the formula a) at least one support material which is porous; b) at least one metal selected from transition group VIII of the Periodic Table of the Elements; c) at least one compound of the formula
A catheter assembly, comprising: a handle assembly; an elongated tubular shaft having a proximal portion at the handle assembly and a distal portion; a therapeutic assembly at the distal portion of the elongated shaft and adapted to be located at a target location within a blood vessel of a human patient; and an anti-resterilization component within the handle assembly, wherein the anti-resterilization component comprises an absorptive material configured to absorb and selectively retain ethylene oxide gas. a handle assembly; an elongated tubular shaft having a proximal portion at the handle assembly and a distal portion; a therapeutic assembly at the distal portion of the elongated shaft and adapted to be located at a target location within a blood vessel of a human patient; and an anti-resterilization component within the handle assembly, wherein the anti-resterilization component comprises an absorptive material configured to absorb and selectively retain ethylene oxide gas.
Device for supporting a longer coolant feed line for superconducting machines, with a hollow shaft, which is able to be connected in a first area (320") to the superconducting machine and inside which the coolant feed line for feeding coolant from the cooling unit to the superconducting machine is disposed, wherein the coolant feed line is able to be connected in a second area of the hollow shaft to the cooling unit and is fixed in this hollow shaft, wherein • a magnetic support is provided for the coolant feed line in the first area (320") of the hollow shaft and is disposed so that a radial, and thereby damping and/or centring force is exerted on the coolant feed line, and wherein • the magnetic support has a first and a second magnetic cylinder, wherein the first magnetic cylinder is disposed on the outer jacket of the coolant feed line and the second magnetic cylinder is disposed on the inner side of the hollow shaft so that first and second magnetic cylinders lie opposite one another in the radial direction, characterised in that the first magnetic cylinder is a cylinder made of material with good electrical conductivity with ohmic resistance. • a magnetic support is provided for the coolant feed line in the first area (320") of the hollow shaft and is disposed so that a radial, and thereby damping and/or centring force is exerted on the coolant feed line, and wherein • the magnetic support has a first and a second magnetic cylinder, wherein the first magnetic cylinder is disposed on the outer jacket of the coolant feed line and the second magnetic cylinder is disposed on the inner side of the hollow shaft so that first and second magnetic cylinders lie opposite one another in the radial direction,
A luminaire comprising an LED light source, wherein the LED light source comprises: - input terminals (K1, K2) for connection to a mains voltage supply source, - a protective earth terminal for coupling to a neutral of the mains voltage supply source, the protective earth terminal being coupled to the luminaire, - a rectifier coupled to the input terminals for rectifying the mains supply voltage supplied by the mains supply voltage source and comprising rectifier output terminals, - a DC-DC converter (CONV) for generating a DC current out of the rectified mains supply voltage, comprising converter input terminals connected to the rectifier output terminals and comprising a first converter output terminal and a second converter output terminal, - an LED load with an anode coupled to the first converter output terminal via a current control element for blocking a current flowing from the anode of the LED load to the first converter output terminal, and with a cathode coupled to the second converter output terminal via a first controllable switch having a control electrode coupled to first control circuitry for rendering the controllable switch non-conductive in case the LED light source is in standby mode, wherein the LED load is coupled with the luminaire by means of parasitic capacitances. - input terminals (K1, K2) for connection to a mains voltage supply source, - a protective earth terminal for coupling to a neutral of the mains voltage supply source, the protective earth terminal being coupled to the luminaire, - a rectifier coupled to the input terminals for rectifying the mains supply voltage supplied by the mains supply voltage source and comprising rectifier output terminals, - a DC-DC converter (CONV) for generating a DC current out of the rectified mains supply voltage, comprising converter input terminals connected to the rectifier output terminals and comprising a first converter output terminal and a second converter output terminal, - an LED load with an anode coupled to the first converter output terminal via a current control element for blocking a current flowing from the anode of the LED load to the first converter output terminal, and with a cathode coupled to the second converter output terminal via a first controllable switch having a control electrode coupled to first control circuitry for rendering the controllable switch non-conductive in case the LED light source is in standby mode, wherein the LED load is coupled with the luminaire by means of parasitic capacitances.
Device for collecting samples from a bed of a waterbody, having a control unit to be positioned in a remote position; a top lift unit, which can be attached to a lifting and lowering unit of a vessel via a cable, such that it can be lifted and lowered relative to said bed of a waterbody; a corer unit, releasable attached to the top lift unit by a fixation unit and arranged for being at least partly driven into layers of the bed of a waterbody to collect the samples from there, when released from the top lift unit; wherein the top lift unit comprises a positioning unit bi-directionally communicating with the control unit for controlling the position of the corer unit, and the device comprises a depth stabilizer configured to keep the corer unit and top lift unit stable in a vertical direction when they are still attached and to level the top lift unit after the corer unit is released from the top lift unit. a control unit to be positioned in a remote position; a top lift unit, which can be attached to a lifting and lowering unit of a vessel via a cable, such that it can be lifted and lowered relative to said bed of a waterbody; a corer unit, releasable attached to the top lift unit by a fixation unit and arranged for being at least partly driven into layers of the bed of a waterbody to collect the samples from there, when released from the top lift unit; wherein the top lift unit comprises a positioning unit bi-directionally communicating with the control unit for controlling the position of the corer unit, and the device comprises a depth stabilizer configured to keep the corer unit and top lift unit stable in a vertical direction when they are still attached and to level the top lift unit after the corer unit is released from the top lift unit.
Method for graphically displaying a sectional image of an article under examination (1, 18) with objects (2, 17) located therein, in particular for displaying a sectional image of a building wall, wherein a locating sensor is moved over a section line on a surface of the article under examination (1, 18) during a scan to record the sectional image, wherein the sectional image is obtained from location data and a position of the locating sensor (3, 19), wherein the sectional image with the objects (2, 17) located in the article under examination (1, 18) is represented during the data capture by way of the locating sensor (3, 19), characterized in that regions of the article under examination (1, 18) that are not capturable owing to an obscuration by the objects (2, 17) to be located and regions of the article under examination (1, 18) that have already been captured by the locating sensor (3, 19) are represented in the sectional image in graphically different ways.
Measuring device for determining magnetic properties of a magnetisable test specimen, wherein the measuring device comprises a measuring coil winding, a measuring coil core and an energy supply device, wherein the measuring coil winding surrounds the measuring coil core and can be supplied with electrical energy by the energy supply device, and wherein the measuring device comprises a sensor device, which is configured and adapted to detect at least one characteristic variable for the magnetic properties of the magnetisable test specimen, characterised in that the energy supply device is configured and adapted in such a way that a high-current pulse can be generated by the energy supply device and conducted through the measuring coil winding, in that the measuring coil core comprises at least two magnetic flux passage surfaces arranged at a distance from one another, wherein the magnetisable test specimen can be arranged adjacent to the at least two magnetic flux passage surfaces during a measuring process in such a way that the high-current pulse that can be conducted through the measuring coil winding can cause a magnetic flux through the measuring coil core and the magnetisable test body, and in that the sensor device is configured and adapted in such a way that the sensor device can be used to detect a time characteristic of electrical parameters of the measuring coil winding.
Article of clothing, comprising a textile carrier material, which surrounds a body section of a wearer of the article of clothing, wherein an adhesion layer is arranged on the carrier material at that side of the carrier material which faces the body section, which adhesion layer contacts a part of the body section during the intended use of the article of clothing, wherein the article of clothing is cut in such a manner that it attaches itself with an elastic tension around the body section of the wearer of the article of clothing which body section is covered by the article of clothing and thereby the article of clothing is close-fitting to the skin of the wearer and so creates a defined compression which ensures a pressing of the adhesion layer on the skin, wherein the textile carrier material without adhesion layer expands itself by a first elastic amount of expansion (Δs 1) during application of a defined expansion force (F 0), characterized in that the textile carrier material with adhesion layer expands itself by a second elastic amount of expansion (Δs 2) during application of the expansion force (F 0) which is at least 65 % of the first elastic amount of expansion (Δs 1).
A process for the preparation of 1,4-butanediol and tetrahydrofuran said process comprising contacting furan with hydrogen and water in the presence of a supported catalytic composition comprising rhenium and palladium in a weight ratio of at least 1:1 and a total combined weight rhenium and palladium in the catalyst composition in the range of from 0.01 to 20 wt%.
Process for the recycling of an electrochemically active material, the process comprising the steps of: a) reacting the electrochemically active material with an oxidizing agent or a reducing agent in a solvent excluding the presence of a strong acid to produce a lithium salt and an electrochemically active material precursor precipitate; b) separating the electrochemically active material precursor precipitate from the lithium salt in solution; and c) regenerating the electrochemically active material from the electrochemically active material precursor, wherein the electrochemically active material is LiFePO 4 and the electrochemically active material precursor is FePO 4. a) reacting the electrochemically active material with an oxidizing agent or a reducing agent in a solvent excluding the presence of a strong acid to produce a lithium salt and an electrochemically active material precursor precipitate; b) separating the electrochemically active material precursor precipitate from the lithium salt in solution; and c) regenerating the electrochemically active material from the electrochemically active material precursor,