mhurhangee/ep-ind-claims huggingface dataset:
A base station apparatus configured to communicate with a first terminal apparatus, a second terminal apparatus, and a location server apparatus, the base station apparatus comprising: a physical signal generation unit configured to generate a narrowband positioning reference signal, NPRS, and a positioning reference signal, PRS; and a transmission unit configured to transmit the NPRS on first consecutive subframes to the first terminal apparatus and the PRS on second consecutive subframes to the second terminal apparatus, wherein the NPRS is mapped on a first resource block and the PRS is mapped on second resource blocks, the second resource blocks being at least six in quantity, the transmission unit is configured to transmit, to the location server apparatus, first information indicating a quantity of subframes of the first consecutive subframes and second information indicating a bandwidth of the PRS and a quantity of subframes of the second consecutive subframes, and a minimum quantity of consecutive subframes on which the NPRS is transmitted is larger than a minimum quantity of subframes on which the PRS is transmitted. a physical signal generation unit configured to generate a narrowband positioning reference signal, NPRS, and a positioning reference signal, PRS; and a transmission unit configured to transmit the NPRS on first consecutive subframes to the first terminal apparatus and the PRS on second consecutive subframes to the second terminal apparatus, wherein the NPRS is mapped on a first resource block and the PRS is mapped on second resource blocks, the second resource blocks being at least six in quantity, the transmission unit is configured to transmit, to the location server apparatus, first information indicating a quantity of subframes of the first consecutive subframes and second information indicating a bandwidth of the PRS and a quantity of subframes of the second consecutive subframes, and a minimum quantity of consecutive subframes on which the NPRS is transmitted is larger than a minimum quantity of subframes on which the PRS is transmitted.
A system for discharging product from a bag, the system comprising a vibration unit arranged to support the bag and to vibrate so that the product exits an opening of the bag, a conduit having an inlet that is located below the vibration unit to receive the product, a downstream equipment connected to the conduit to receive the product from the conduit, wherein a protective cage is arranged around the inlet of the conduit, the protective cage having an open position to allow access to the inlet, and a closed position to restrict access to the inlet, wherein the protective cage comprises an upper reinforcement rib that - extends along an upper section of the protective cage, - protrudes from the upper section, and characterized in that the rib has a number of through holes that extend along the upper section. - extends along an upper section of the protective cage, - protrudes from the upper section, and
Personal means of transport which enables the user to walk at faster speeds than normal walking, comprising a pair of wheeled shoes, or wheeled undersoles which can be attached to the base of ordinary shoe soles thanks to a quick-fastening contraption, and such that said wheeled shoes or undersoles are made up of a rear part and a front part, each comprising a top plate (1-11, 1-14) mounted on a chassis resting on at least one set of wheels or tracks which are in contact with the ground, wherein said rear and front parts are laterally articulated together in order to follow the natural movements of the heel in relation to the toes and the rear part with its set of wheels or tracks is either on or off the ground whilst the front part with its own set of wheels or tracks is respectively off or on the ground when the user is walking normally, and wherein said rear and front parts enable the user to walk at faster speeds, without making any changes to usual walking movements, pace, amplitude or longitudinal stability, and without any need to skate or gain momentum, thanks to a motor system coupled with driving wheels and made up of at least one motor powered by energy which can be kinetic, or electric, or gravitational potential, or elastic, or even of several motors combining part or all of said types of energy, with a control system constantly adjusting the engine torque, in one direction or the other, to be set at a compensation value (1-13a, 1-13b) keeping the speed of the driving wheels independent from the skidding force arising from the component parallel to the ground (1-5a, 1-5b) corresponding to the force exerted on each wheeled shoe or undersole by the supporting leg, whatever the value of angle α formed by the supporting leg in relation to the line perpendicular to the ground, and whatever the initial speed_of said wheeled shoe or undersole in relation to the ground.
A method for producing a bandpass filter comprising a laminate including a reflective laminated film formed of a plurality of light reflecting layers disposed adjacent to one another and a light absorbing layer, the method comprising: a step of applying a first composition containing a liquid crystal compound having a polymerizable group and a dextrorotatory chiral agent to form a coating film and forming a light reflecting layer Xa formed by irradiating the coating film with light and immobilizing a dextrorotatory cholesteric liquid crystalline phase; a step of applying a second composition containing a liquid crystal compound having a polymerizable group and a levorotatory chiral agent to form a coating film and forming a light reflecting layer Xb formed by irradiating the coating film with light and immobilizing a levorotatory cholesteric liquid crystalline phase; and a step of applying a third composition containing a color material to form the light absorbing layer; wherein the reflective laminated film reflects light in at least a part of a wavelength range of 650 to 1200 nm; and wherein the light absorbing layer has a maximum transmittance of 70% or more at a wavelength of 700 nm or more and a maximum transmittance of 30% or less at a wavelength of 400 nm or more and less than 700 nm. a step of applying a first composition containing a liquid crystal compound having a polymerizable group and a dextrorotatory chiral agent to form a coating film and forming a light reflecting layer Xa formed by irradiating the coating film with light and immobilizing a dextrorotatory cholesteric liquid crystalline phase; a step of applying a second composition containing a liquid crystal compound having a polymerizable group and a levorotatory chiral agent to form a coating film and forming a light reflecting layer Xb formed by irradiating the coating film with light and immobilizing a levorotatory cholesteric liquid crystalline phase; and a step of applying a third composition containing a color material to form the light absorbing layer; wherein the reflective laminated film reflects light in at least a part of a wavelength range of 650 to 1200 nm; and wherein the light absorbing layer has a maximum transmittance of 70% or more at a wavelength of 700 nm or more and a maximum transmittance of 30% or less at a wavelength of 400 nm or more and less than 700 nm.
A method of producing an ultra-high Dk material which comprises contacting and reacting: a) a fluoroalkyl methacrylate; b) an alkyl glycol dimethacrylate; c) a hydrophilic agent; d) a methacryl functional tris(trimethylsiloxy)silane; e) a methacryl functional terminated polydimethylsiloxane; and f) styrylethyltris(trimethylsiloxy)silane, the reaction being conducted within an inert atmosphere at a pressure of at least 172 kPa (25 pounds per square inch) and for a period of time and at a temperature sufficient to produce the ultra-high Dk material. a) a fluoroalkyl methacrylate; b) an alkyl glycol dimethacrylate; c) a hydrophilic agent; d) a methacryl functional tris(trimethylsiloxy)silane; e) a methacryl functional terminated polydimethylsiloxane; and f) styrylethyltris(trimethylsiloxy)silane,
Flowmeter for flow measurement of a flowing medium having a measuring tube and a measuring device housing, that a reinforcement structure is assigned to the measuring tube and/or the measuring device housing, and that the reinforcement structure consists of at least one reinforcement unit - preferably of several reinforcement units, wherein at least one reinforcement structure is provided, at least on one side, with an end cap that can be screwed onto the reinforcement unit, and wherein the measuring device housing is assigned a preferably plate-like supporting element at least on one side characterized in that at least one reinforcement unit consists of two reinforcement elements, wherein the reinforcement unit consists of one reinforcement pipe and of one reinforcement bolt penetrating the reinforcement pipe, wherein the length of the reinforcement pipe corresponds to the effective length of the measuring tube, so that the pressing of the preferably plate-like supporting elements against the measuring device housing leads to a pressing against the reinforcement pipe.
A method for communicating between a first passive subscriber and a second passive subscriber of a bus system, wherein a first differential double line and a second differential double line are used for the communication, wherein an original static pattern with a predetermined bit length is transmitted via the first differential double line, wherein the original static pattern defines a transmit-receive clock, wherein original user data are transmitted via the second differential double line, wherein the original user data comprise a transmit data word having the predetermined bit length, wherein the first passive subscriber encodes the original static pattern in a first transmit SERDES element and transmits it via the first differential double line as an encoded static pattern to the second passive subscriber, and encodes the original user data synchronized in time with the original static pattern in a second transmit SERDES element and transmits it via the second differential double line to the second passive subscriber as encoded user data, wherein the second passive subscriber receives the encoded static pattern and the encoded user data, wherein the second passive subscriber generates a sampling clock and a clock synchronous to the transmit-receive clock from the encoded static pattern, wherein the sampling clock comprises a first phase offset with regard to the transmit-receive clock, wherein the synchronous clock comprises a second phase offset with regard to the transmit-receive clock, wherein the second passive subscriber decodes the encoded static pattern with the aid of a first receive SERDES element and decodes the encoded user data with the aid of a second receive SERDES element, thus obtaining a receive data word, wherein the first receive SERDES element and the second receive SERDES element are operated based on the sampling clock, wherein the receive data word is output synchronously with the synchronous clock.
An anti-counterfeiting medium comprising: a recording medium; a polarizer layer arranged on a part of the recording medium and configured to irreversibly vary an efficiency of changing light irradiated to the polarizer layer into polarized light, by means of a specific external stimulation which is irradiation by a laser; and an image continuously formed across the recording medium and the polarizer layer, wherein: the image includes a first portion formed in the recording medium and a second portion formed in the polarizer layer; the first portion has a color different from that of a portion where the first portion is not formed in the recording medium; and the second portion has a lower efficiency of changing the light irradiated to the polarizer layer into polarized light than in a portion where the second portion is not formed in the polarizer layer, characterized in that the polarizer layer is provided thereon with a shieling layer that partially shields the laser. a recording medium; a polarizer layer arranged on a part of the recording medium and configured to irreversibly vary an efficiency of changing light irradiated to the polarizer layer into polarized light, by means of a specific external stimulation which is irradiation by a laser; and an image continuously formed across the recording medium and the polarizer layer, wherein: the image includes a first portion formed in the recording medium and a second portion formed in the polarizer layer; the first portion has a color different from that of a portion where the first portion is not formed in the recording medium; and the second portion has a lower efficiency of changing the light irradiated to the polarizer layer into polarized light than in a portion where the second portion is not formed in the polarizer layer, characterized in that the polarizer layer is provided thereon with a shieling layer that partially shields the laser. the image includes a first portion formed in the recording medium and a second portion formed in the polarizer layer; the first portion has a color different from that of a portion where the first portion is not formed in the recording medium; and the second portion has a lower efficiency of changing the light irradiated to the polarizer layer into polarized light than in a portion where the second portion is not formed in the polarizer layer, characterized in that the polarizer layer is provided thereon with a shieling layer that partially shields the laser.
Combined heat and power generation arrangement having an evaporator, wherein the evaporator is set up to transform a working medium from a first state, in particular a liquid state, into a vaporous state, a turbine for converting thermal energy into mechanical work, wherein the turbine is coupled to the evaporator in such a manner that the working medium can be supplied from the evaporator to the turbine in the vaporous state, a heat exchanger which is coupled to the turbine so that the working medium can be supplied from the turbine in the vaporous state to the heat exchanger, wherein the heat exchanger can be coupled to a useful heat arrangement in such a manner that thermal energy can be delivered from the working medium to a useful fluid of the useful heat arrangement, a condenser to which the working medium can be supplied from the heat exchanger in the vaporous state, wherein the condenser is set up to transform the working medium from the vaporous state into the first state by means of cooling, and wherein the condenser is coupled to the evaporator so that the working medium can be supplied in the first state from the condenser to the evaporator, and characterized in that the combined heat and power generation arrangement has a first recuperator with a first fluid course and a second fluid course, wherein the first recuperator is coupled to the heat exchanger and to the condenser in such a manner that the working medium can be supplied from the heat exchanger to the first fluid course and can furthermore be supplied from the first fluid course to the condenser, wherein the first recuperator is furthermore coupled to the condenser and to the evaporator in such a manner that the working medium can be supplied from the condenser to the second fluid course and can furthermore be supplied from the second fluid course to the evaporator, and wherein the first fluid course and the second fluid course are arranged in relation to one another in such a manner that thermal energy can be transferred from the working medium in the first fluid course to the working medium in the second fluid course.
A carrier system for a vehicle, comprising: a frame being shaped and sized to mate and secure a recreational article; and a vacuum device having a pad shaped and sized to removably seat with a vehicle to form a vacuum cavity, a pump attached to the pad, in fluid communication with the vacuum cavity and having a plunger, and an indicator positioned on the plunger to indicate the level of vacuum pressure within the vacuum cavity, characterised in that the frame has first and second mounts (14, 16) sized and shaped to couple with recreational articles, a plurality of said vacuum devices attached to the frame configured to detachably attach to a mounting surface of a vehicle, the frame being generally arcuate, and further comprising a front frame member pivotally connected to a rear frame member so as to pivot between an operating position and a storage position, and in that the system further comprises a front crossbar and a rear crossbar extending generally perpendicularly from the rear frame member, the crossbars (22,23) having respective ends sized and shaped to mate with respective vacuum devices, the rear crossbar comprising left and right portions that pivotally attach to the rear frame member to accommodate undulating surfaces on the vehicle. a frame being shaped and sized to mate and secure a recreational article; and a vacuum device having a pad shaped and sized to removably seat with a vehicle to form a vacuum cavity, a pump attached to the pad, in fluid communication with the vacuum cavity and having a plunger, and an indicator positioned on the plunger to indicate the level of vacuum pressure within the vacuum cavity, characterised in that the frame has first and second mounts (14, 16) sized and shaped to couple with recreational articles, a plurality of said vacuum devices attached to the frame configured to detachably attach to a mounting surface of a vehicle, the frame being generally arcuate, and further comprising a front frame member pivotally connected to a rear frame member so as to pivot between an operating position and a storage position, and in that the system further comprises a front crossbar and a rear crossbar extending generally perpendicularly from the rear frame member, the crossbars (22,23) having respective ends sized and shaped to mate with respective vacuum devices, the rear crossbar comprising left and right portions that pivotally attach to the rear frame member to accommodate undulating surfaces on the vehicle.
An antenna component comprising: a first portion comprising, a first gasket channel (35a, 35b, 35c) configured to receive a first compressible sealing component (3a, 3b, 3c), and a second gasket channel (45a, 45b, 45c), the second gasket channel (45a, 45b, 45c) being substantially perpendicular to the first gasket channel (35a, 35b, 35c) and configured to receive a second compressible sealing component (4a, 4b, 4c), the first compressible sealing component (3a, 3b, 3c) and the second compressible sealing component (4a, 4b, 4c) being separate compressible sealing components; a third portion configured to be connected to the first portion and a second portion in a same plane as the second gasket channel (45a, 45b, 45c), wherein the first gasket channel (35a, 35b, 35c) and an associated first sealing component (3a, 3b, 3c) are further configured to compress a second sealing component (4a, 4b, 4c) by an amount within a compression range to maintain a seal at a point of contact between the first (3a, 3b, 3c) and second (4a, 4b, 4c) compressible sealing components when said first, second and third portions are connected, and wherein the compression range comprises a range of 20% to 35% of an uncompressed, cross sectional diameter of the second compressible sealing component (4a, 4b, 4c). a first gasket channel (35a, 35b, 35c) configured to receive a first compressible sealing component (3a, 3b, 3c), and a second gasket channel (45a, 45b, 45c), the second gasket channel (45a, 45b, 45c) being substantially perpendicular to the first gasket channel (35a, 35b, 35c) and configured to receive a second compressible sealing component (4a, 4b, 4c), the first compressible sealing component (3a, 3b, 3c) and the second compressible sealing component (4a, 4b, 4c) being separate compressible sealing components; a third portion configured to be connected to the first portion and a second portion in a same plane as the second gasket channel (45a, 45b, 45c),
A vacuum packaging method, comprising the successive steps of: degassing inside a packaging bag by decompressing inside a chamber to a first set pressure that has been set in advance wherein the packaging bag has received a packaged object including a liquid and is accommodated in the chamber without closing a filling opening (Ba) of the packaging bag; characterised in that it further comprises the steps of; inflating the packaging bag by closing the filling opening of the packaging bag, and in this state, decompressing inside the chamber and stopping decompression at a second set pressure such that the second set pressure inside the chamber is lower than the pressure inside the packaging bag; releasing gas from inside the packaging bag into the chamber by opening the filling opening; and returning the inside of the chamber to atmospheric pressure by, after sealing the filling opening, performing atmospheric release. degassing inside a packaging bag by decompressing inside a chamber to a first set pressure that has been set in advance wherein the packaging bag has received a packaged object including a liquid and is accommodated in the chamber without closing a filling opening (Ba) of the packaging bag; characterised in that it further comprises the steps of; inflating the packaging bag by closing the filling opening of the packaging bag, and in this state, decompressing inside the chamber and stopping decompression at a second set pressure such that the second set pressure inside the chamber is lower than the pressure inside the packaging bag; releasing gas from inside the packaging bag into the chamber by opening the filling opening; and returning the inside of the chamber to atmospheric pressure by, after sealing the filling opening, performing atmospheric release.
Device for measuring a particle beam including a first part, designated central part, a second part, designated peripheral part, a front face and a rear face, the front face being parallel to the rear face; - the central part comprising means for forming a space charge zone intended to be traversed by a particle beam to measure, charge carriers of a first type and of a second type being generated by said beam when the latter traverses the space charge zone; - the peripheral part comprising means for collecting at least one type of charge carrier among the first type or the second type of charge carriers generated at the level of the space charge zone; the peripheral part surrounding the central part such that a particle beam can traverse the central part without traversing the peripheral part, the device for measuring being characterized in that it comprises an orifice being arranged at the level of the rear face, in a region of the central part such that the thickness of said region of the central part along an axis normal to the front face is less than the thickness of the peripheral part along said normal axis. - the central part comprising means for forming a space charge zone intended to be traversed by a particle beam to measure, charge carriers of a first type and of a second type being generated by said beam when the latter traverses the space charge zone; - the peripheral part comprising means for collecting at least one type of charge carrier among the first type or the second type of charge carriers generated at the level of the space charge zone;