mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating cell-specific signals using an antenna array with dual-polarized antenna elements, the method being performed by a network device , the method comprising: obtaining (S102) antenna weights for two sector-specific signals, each sector-specific signal giving rise to a respective sector-specific radiation pattern ; generating (S106) a first cell-specific signal, the first cell-specific signal giving rise to a first cell-specific radiation pattern , wherein antenna weights for the first cell-specific signal are determined such that the radiation pattern matches both sector-specific radiation patterns ; and generating (S108) a second cell-specific signal, the second cell-specific signal giving rise to a radiation pattern (170a") identical to the first cell-specific radiation pattern , wherein antenna weights for the second cell-specific signal are identical to the antenna weights for the first cell-specific signal except that the first cell-specific signal and the second cell-specific signal have mutually orthogonal polarization, and wherein a phase shift is applied to separate the first cell-specific signal and the second cell-specific signal by 180 degrees. obtaining (S102) antenna weights for two sector-specific signals, each sector-specific signal giving rise to a respective sector-specific radiation pattern ; generating (S106) a first cell-specific signal, the first cell-specific signal giving rise to a first cell-specific radiation pattern , wherein antenna weights for the first cell-specific signal are determined such that the radiation pattern matches both sector-specific radiation patterns ; and generating (S108) a second cell-specific signal, the second cell-specific signal giving rise to a radiation pattern (170a") identical to the first cell-specific radiation pattern , wherein antenna weights for the second cell-specific signal are identical to the antenna weights for the first cell-specific signal except that the first cell-specific signal and the second cell-specific signal have mutually orthogonal polarization, and wherein a phase shift is applied to separate the first cell-specific signal and the second cell-specific signal by 180 degrees.
A method of wireless communication in a network including a peer to peer communications system and a cellular communications system, which is an LTE system, comprising: receiving, at a user equipment , first peer-to-peer communications using a first channelization structure and a waveform; and transmitting, by the user equipment , second peer-to-peer communications using a second channelization structure and the waveform, characterized in that : the second channelization structure comprises a channel used for transmitting in the second peer-to-peer communications a synchronization signal, PSS/SSS, that is mapped to resources of a channel for communicating a sounding reference signal, SRS, in uplink cellular communications receiving, at a user equipment , first peer-to-peer communications using a first channelization structure and a waveform; and transmitting, by the user equipment , second peer-to-peer communications using a second channelization structure and the waveform, characterized in that : the second channelization structure comprises a channel used for transmitting in the second peer-to-peer communications a synchronization signal, PSS/SSS, that is mapped to resources of a channel for communicating a sounding reference signal, SRS, in uplink cellular communications
A method for preparing a silicate luminescent material, comprising: adding silicon dioxide aerogel into a solution of salt of metal M according to molar ratio of M to Si which defined as y, mixing and stirring uniformly said silicon dioxide aerogel and said solution of salt of metal M at 50°C to 75°C to obtain mixture solution, sonicating said mixture solution, drying the mixture solution obtained from sonicating at 60°C to 150°C, grinding mixture solid obtained from drying uniformly, calcining said mixture solid at 600°C to 1200°C to obtain silicon dioxide aerogel containing M ion, said M is selected from at least one of Ag, Au, Pt, Pd, and Cu metal nanoparticles, y has a value range of 0<y ≤1×10 -2 ; weighing source compound of Li, source compound of Ca, source compound of Tb and said silicon dioxide aerogel containing M ion according to molar ratio of Li, Ca, Tb and Si elements at 2:(1-x):x:1, mixing and grinding uniformly to obtain mixture material, x has a value range of 0<x≤0.2; and calcining said mixture material at 500°C to 1000°C, and reducing said mixture material under reducing atmosphere at 800°C to 1200°C, cooling mixture material obtained from reducing to room temperature, grinding to obtain silicate luminescent material has a general molecular formula of Li 2 Ca 1-x SiO 4 :Tb x ,M y , of which Tb and M are doped particles that doped in Li 2 Ca 1-x SiO 4 . adding silicon dioxide aerogel into a solution of salt of metal M according to molar ratio of M to Si which defined as y, mixing and stirring uniformly said silicon dioxide aerogel and said solution of salt of metal M at 50°C to 75°C to obtain mixture solution, sonicating said mixture solution, drying the mixture solution obtained from sonicating at 60°C to 150°C, grinding mixture solid obtained from drying uniformly, calcining said mixture solid at 600°C to 1200°C to obtain silicon dioxide aerogel containing M ion, said M is selected from at least one of Ag, Au, Pt, Pd, and Cu metal nanoparticles, y has a value range of 0<y ≤1×10 -2 ; weighing source compound of Li, source compound of Ca, source compound of Tb and said silicon dioxide aerogel containing M ion according to molar ratio of Li, Ca, Tb and Si elements at 2:(1-x):x:1, mixing and grinding uniformly to obtain mixture material, x has a value range of 0<x≤0.2; and calcining said mixture material at 500°C to 1000°C, and reducing said mixture material under reducing atmosphere at 800°C to 1200°C, cooling mixture material obtained from reducing to room temperature, grinding to obtain silicate luminescent material has a general molecular formula of Li 2 Ca 1-x SiO 4 :Tb x ,M y , of which Tb and M are doped particles that doped in Li 2 Ca 1-x SiO 4 .
A collected living tissue cryopreserving appliance for cryopreserving a collected living tissue piece in a sealed state, said collected living tissue cryopreserving appliance comprising a tissue piece holder capable of holding said living tissue piece and a resin-made accommodating bag which is capable of accommodating said tissue piece holder therein, sealable by being heat-sealed after accommodating said tissue piece holder therein, and resistant to liquid nitrogen, wherein said tissue piece holder comprises a plate-shaped body part composed of a thermally conductive plate-shaped lower member and a plate-shaped upper member fixed to an upper surface of said thermally conductive plate-shaped lower member and a covering sheet held by said plate-shaped body part; said tissue piece holder has a tissue piece placing part formed of a cut-out part provided on said plate-shaped upper member and a part, of said upper surface of said thermally conductive plate-shaped lower member , which is disposed at said cut-out part ; and said covering sheet is capable of entirely covering said tissue piece placing part and a peripheral portion of said tissue piece placing part .
Riveting device for assembling two parts together, each comprising a bore and being articulated about the axis of said bores , said device comprising an outer rivet comprising a tubular body of circular outer transversal cross-section, capable of being simultaneously inserted into the bore of the two parts and provided with one of the longitudinal ends thereof of a flange , and an inner rivet comprising a solid cylindrical body , capable of being inserted inside the tubular body and coming substantially perpendicularly from a flange , said tubular body having an outer diameter slightly less than the diameter of said bores and a length D between the rear face of the flange thereof and the opposite end thereof at most equal to the sum of the thicknesses of the parts , said cylindrical body having a homothetic outer transversal cross-section and of dimensions slightly less than the inner transversal cross-section of the tubular body , said device being characterised in that the outer rivet cannot be deformed and in that the cylindrical body of the inner rivet can be deformed in order to crimp the inner rivet on said outer rivet and has a length slightly greater than that of the tubular body when the riveting device is implemented on the parts to be assembled, i.e. when the rear face of said flange is in contact with one of said parts and the rear face of said flange is in contact with the other of said parts .
A method for the production of plant oil from a non-algal plant cell suspension culture, the method comprising - (i) maintaining a cell suspension culture of oil-producing non-algal plant cells at a selected pH of less than 7.0, in isolation from intact plants, in a cell suspension culture nutrient medium under controlled and sterile conditions, wherein the nutrient medium comprises carbohydrate as a source of energy, salts, vitamins, amino acids, minerals, plant growth hormones and other compounds, and a buffer that maintains the cell suspension culture medium at around the selected pH, such that the cultured cells synthesise and secrete plant oil into the cell suspension culture nutrient medium; and (ii) extracting the thus secreted plant oil from the cell suspension culture nutrient medium. (i) maintaining a cell suspension culture of oil-producing non-algal plant cells at a selected pH of less than 7.0, in isolation from intact plants, in a cell suspension culture nutrient medium under controlled and sterile conditions, wherein the nutrient medium comprises carbohydrate as a source of energy, salts, vitamins, amino acids, minerals, plant growth hormones and other compounds, and a buffer that maintains the cell suspension culture medium at around the selected pH, such that the cultured cells synthesise and secrete plant oil into the cell suspension culture nutrient medium; and (ii) extracting the thus secreted plant oil from the cell suspension culture nutrient medium.
A neutralization plate comprising: a main body ; a pair of upper arms extending upwards from the main body a pair of lower arms extending downward from the main body to form a generally X-shape with the pair of upper arms; a horizontal channel formed across a rear side of a midsection of the main body; an aperture formed in the main body between the pair of lower arms and contiguous to a bottom edge of the horizontal channel; and a lower chute formed between the aperture and a lower edge of the horizontal channel; wherein the lower chute is configured for ends of a suture looped through a fractured bone to be passed through the aperture and down the lower chute to a front side of the main body to be anchored separately from the fractured bone. a main body ; a pair of upper arms extending upwards from the main body a pair of lower arms extending downward from the main body to form a generally X-shape with the pair of upper arms; a horizontal channel formed across a rear side of a midsection of the main body; an aperture formed in the main body between the pair of lower arms and contiguous to a bottom edge of the horizontal channel; and a lower chute formed between the aperture and a lower edge of the horizontal channel; wherein the lower chute is configured for ends of a suture looped through a fractured bone to be passed through the aperture and down the lower chute to a front side of the main body to be anchored separately from the fractured bone.
A combination radio frequency identification ("RFID") / electronic article surveillance ("EAS") system , the system comprising: an RFID reader generating RFID interrogation signals ; an EAS transmitter generating EAS interrogation signals; and a security tag arranged to receive the EAS and RFID interrogation signals and transmit a response signal, the security tag comprising: a radio frequency identification ("RFID") device; a first antenna circuit coupled to the RFID device, the first antenna circuit adapted to decode interrogation signals from an RFID reader ; and a second antenna circuit coupled to the RFID device, the second antenna circuit adapted to induce energy from signals received from at least the EAS transmitter ; characterized in that the EAS transmitter is or comprises an EAS pedestal or EAS transmit antennas embedded in a shelf reader system. an RFID reader generating RFID interrogation signals ; an EAS transmitter generating EAS interrogation signals; and a security tag arranged to receive the EAS and RFID interrogation signals and transmit a response signal, the security tag comprising: a radio frequency identification ("RFID") device; a first antenna circuit coupled to the RFID device, the first antenna circuit adapted to decode interrogation signals from an RFID reader ; and a second antenna circuit coupled to the RFID device, the second antenna circuit adapted to induce energy from signals received from at least the EAS transmitter ; characterized in that a radio frequency identification ("RFID") device; a first antenna circuit coupled to the RFID device, the first antenna circuit adapted to decode interrogation signals from an RFID reader ; and a second antenna circuit coupled to the RFID device, the second antenna circuit adapted to induce energy from signals received from at least the EAS transmitter ; characterized in that the EAS transmitter is or comprises an EAS pedestal or EAS transmit antennas embedded in a shelf reader system.
Sight glass for mounting in a hole, provided with radially inwardly extending protrusions, in a sheet material wall of a housing, for example switchgear housing, which sight glass comprises a body with a mounting surface and a cylindrical wall arranged on the mounting surface and extending perpendicular from said mounting surface , wherein a number of L-shaped slots are provided in the radially outer surface of the cylindrical wall , wherein a gasket is arranged on the mounting surface and encloses the cylindrical wall , characterized in that the body and cylindrical wall are of a monolithic transparent material, wherein the gasket is fused to the monolithic transparent material, such as obtained by 2K injection moulding and wherein the gasket is provided with widening extensions , which extensions extend into the body , and wherein some of the L-shaped slots are provided with a notch in radial direction at the end wall of the slot to ensure that the protrusions of a hole, in which the sight glass is to be mounted, do not extend fully against the end wall . the body and cylindrical wall are of a monolithic transparent material, wherein the gasket is fused to the monolithic transparent material, such as obtained by 2K injection moulding and wherein the gasket is provided with widening extensions , which extensions extend into the body , and wherein some of the L-shaped slots are provided with a notch in radial direction at the end wall of the slot to ensure that the protrusions of a hole, in which the sight glass is to be mounted, do not extend fully against the end wall .
Method for removing a support of an object from volume data representing a radiation image of said object by - subjecting said volume data to a coarse filtering process comprising the following steps - applying a first thresholding process with a coarse threshold value to said volume data to obtain a binarized result, - extracting connected components from said binarized result, - obtaining a first classification by assigning either a support type class or a non-support type class to a connected component thereby generating a support mask and a non-support mask, - subjecting said volume data additionally to an iterative low threshold filtering process under successively lower thresholding value to correct the results of said first thresholding process so as to obtain a corrected result, said iterative low threshold filtering process comprising a shape based filtering step based on a convex hull of said connected components, - subjecting said corrected result to a location based filtering process. - subjecting said volume data to a coarse filtering process comprising the following steps - applying a first thresholding process with a coarse threshold value to said volume data to obtain a binarized result, - extracting connected components from said binarized result, - applying a first thresholding process with a coarse threshold value to said volume data to obtain a binarized result, - extracting connected components from said binarized result, - obtaining a first classification by assigning either a support type class or a non-support type class to a connected component thereby generating a support mask and a non-support mask, - subjecting said volume data additionally to an iterative low threshold filtering process under successively lower thresholding value to correct the results of said first thresholding process so as to obtain a corrected result, said iterative low threshold filtering process comprising a shape based filtering step based on a convex hull of said connected components, - subjecting said corrected result to a location based filtering process.
Sensor arrangement for determining a position and/or a position change of a measurement object, wherein the sensor arrangement has precisely one magnet , a rod-like member and a magnetic field sensor , wherein the magnet and the magnetic field sensor can be moved relative to each other in a movement direction x, wherein the magnet generates a magnetic field , wherein movements of the magnet and the measurement object or movements of the magnetic field sensor and the measurement object are coupled, wherein the rod-like member is formed from a ferromagnetic material and has a significantly larger dimension in the longitudinal direction than in the transverse direction, wherein a relative movement between the rod-like member and the magnet does not take place, wherein the rod-like member can actually be connected to the magnet , wherein the rod-like member directs the magnetic field of the magnet at least partially in the direction of the magnetic field sensor , wherein a portion of the magnetic field leaves the rod-like member at the longitudinal side thereof, whereby there can be detected at a surface of the rod-like member a magnetic field whose field strength decreases with increasing spacing from the magnet , wherein the rod-like member is arranged parallel with the movement direction x, wherein the magnetic field sensor is arranged at a longitudinal side of the rod-like member and in order to produce a measurement signal is configured from a portion of the magnetic field which is discharged from the rod-like member at one of the longitudinal sides of the rod-like member in the magnetic field sensor , whereby the position and/or position change of the measurement object can be determined from the measurement signal, wherein the magnet and rod-like member are adapted to each other in such a manner that the magnet imparts a non-linear magnetic field distribution along the member, wherein the magnetic field sensor has a non-linear characteristic line and wherein the non-linear magnetic field distribution along the rod-like member and the non-linear characteristic line of the magnetic field sensor are adapted to each other in such a manner that a measurement signal of the magnetic field sensor has a substantially linear characteristic line for the position and/or position change which is intended to be determined.
Method for delivering liquefied gas, especially hydrogen, by means of at least one mobile storage facility transported by lorry, comprising a step of filling the mobile storage facility with liquefied gas at a source plant , the mobile storage facility containing, after filling, liquefied gas and a fraction of the vaporized gas, the method comprising a movement of the mobile storage facility from the source plant to a receiving station and a transfer of liquefied gas from the mobile storage facility to the receiving station , characterized in that it comprises a step of interim cooling of the liquefied gas contained in the mobile storage facility between the source plant and the receiving station by means of a cooling device separate from the lorry and from the mobile storage facility and comprising a liquefied gas tank and a refrigerating element .
A substrate for use in an optical device, the substrate comprising a base layer and a black column spacer formed on the base layer , wherein the black column spacer has an optical density in a range of 1.1 to 4, wherein the top of the black column spacer is hemispherical, wherein the hemispherical portion has a height (H2) in a range of 6 μm to 20 μm and a width (W2) in a range of 12 μm to 40 μm, wherein a tapered portion, in which a cross-sectional trajectory of the black column spacer has a curved shape such that the curvature center is formed outside a cross section of the black column spacer , is formed at the bottom of the black column spacer , wherein a maximum curvature of a cross-sectional trajectory of a hemispherical portion of the black column spacer is 2,000 mm -1 or less, wherein the loss rate of spacers measured by attaching a Nichiban tape CT-24 to the surface of the base layer, on which the black column spacers are formed, wherein the Nichiban tape CT-24 is attached by applying a load of about 200 g thereon using a roller, with a rectangular attachment area of 24 mm in width and 40 mm in length and then peeling the Nichiban tape CT-24 in the longitudinal direction using a tensile tester at a peel rate of 30 mm/s and a peel angle of about 180 degrees is 15% or less, wherein the Nichiban tape CT-24 has a peel force of 3.72 to 4.16N/10mm and a peel angle of 180 degrees according to the JIS Z 1522 standard. wherein the black column spacer has an optical density in a range of 1.1 to 4, wherein the top of the black column spacer is hemispherical, wherein the hemispherical portion has a height (H2) in a range of 6 μm to 20 μm and a width (W2) in a range of 12 μm to 40 μm, wherein a tapered portion, in which a cross-sectional trajectory of the black column spacer has a curved shape such that the curvature center is formed outside a cross section of the black column spacer , is formed at the bottom of the black column spacer , wherein a maximum curvature of a cross-sectional trajectory of a hemispherical portion of the black column spacer is 2,000 mm -1 or less, wherein the loss rate of spacers measured by attaching a Nichiban tape CT-24 to the surface of the base layer, on which the black column spacers are formed, wherein the Nichiban tape CT-24 is attached by applying a load of about 200 g thereon using a roller, with a rectangular attachment area of 24 mm in width and 40 mm in length and then peeling the Nichiban tape CT-24 in the longitudinal direction using a tensile tester at a peel rate of 30 mm/s and a peel angle of about 180 degrees is 15% or less, wherein the Nichiban tape CT-24 has a peel force of 3.72 to 4.16N/10mm and a peel angle of 180 degrees according to the JIS Z 1522 standard.
Sealing wire made from an electrically conductive material, preferably a metal material, which is suitable to be pressed with a certain pressure, the sealing pressure, against a film to apply a seal to the film and which is provided as a closed loop, characterized in, that the sealing wire comprises an electrically conductive elastic element, namely a spring, used to tension the sealing wire.