mhurhangee/ep-ind-claims huggingface dataset:
Stacked microstrip antenna having the following layer construction: - a ground surface, - a dielectric layer, adjoining the top side of the ground surface, - a lower patch element, adjoining the top side of the dielectric layer, - a dielectric separator layer, above the lower patch element, - an upper patch element, which adjoins the top side of the dielectric separator layer, wherein - the dielectric separator layer has only one or two air cavities (20, 21) between lower and upper patch element, characterized in that - the lower patch element adjoins the underside of the dielectric separator layer; - the dielectric layer between ground surface and lower patch element consists of a solid material without cavities. - a ground surface, - a dielectric layer, adjoining the top side of the ground surface, - a lower patch element, adjoining the top side of the dielectric layer, - a dielectric separator layer, above the lower patch element, - an upper patch element, which adjoins the top side of the dielectric separator layer, wherein - the dielectric separator layer has only one or two air cavities (20, 21) between lower and upper patch element, - the lower patch element adjoins the underside of the dielectric separator layer; - the dielectric layer between ground surface and lower patch element consists of a solid material without cavities.
A method of receiving, performed by a user equipment, UE, Master Information Block, MIB, in a wireless communication system supporting a Narrow Band-Internet of Things, NB-IoT, the method comprising: receiving (S2110, S2410), from a base station, BS, a narrowband synchronization signal, NBSS, through a narrowband, NB; acquiring (S2120, S2420), based on the NBSS, time synchronization and frequency synchronization with the BS; and receiving (S2130, S2430), from the BS, the MIB related to the NB-IoT through a narrowband physical broadcast channel, N-PBCH, wherein the MIB includes operation mode information indicating an operation mode of the NB-IoT system, and legacy cell-specific reference signal, CRS, sequence index information of 5 bits, and wherein the legacy CRS sequence index information is associated with (i) a physical resource block, PRB, index of a PRB related to a legacy CRS and (ii) a channel raster offset. receiving (S2110, S2410), from a base station, BS, a narrowband synchronization signal, NBSS, through a narrowband, NB; acquiring (S2120, S2420), based on the NBSS, time synchronization and frequency synchronization with the BS; and receiving (S2130, S2430), from the BS, the MIB related to the NB-IoT through a narrowband physical broadcast channel, N-PBCH, wherein the MIB includes operation mode information indicating an operation mode of the NB-IoT system, and legacy cell-specific reference signal, CRS, sequence index information of 5 bits, and wherein the legacy CRS sequence index information is associated with (i) a physical resource block, PRB, index of a PRB related to a legacy CRS and (ii) a channel raster offset. (i) a physical resource block, PRB, index of a PRB related to a legacy CRS and (ii) a channel raster offset.
A method for producing a fullerene derivative which is a mono(organo)fullerene derivative, a di(organo)fullerene derivative, a tri(organo)fullerene derivative or a tetra(organo)fullerene derivative comprising the organic group addition step A for adding an organic group by reacting at least a Grignard reagent and a polar substance with a fullerene or fullerene derivative, in which the polar substance having the donor number of 25 or more is used in an amount of 3 to 60 equivalents of the fullerene or fullerene derivative to which the organic group is added.
A compound having a structure selected from: and wherein wherein R 1 in Formula I is: ∼N(CH 3)CH 2 CH 2 OCH 3 (Compound 7); ∼CH 2 CH(CH 3)OH (Compound 8); or ∼N(CH 2 CH 2 OCH 3) 2 (Compound 9), and pharmaceutically acceptable salts and solvates of each of the foregoing.
Elevator cage with a three-part telescoping cage apron containing - three essentially plate-shaped telescoping elements (10, 11, 12), which are movable from a retracted position into an extended condition, whereby the upper telescoping element is a basis element fixed unmovably to the elevator cage, which basis element in the retracted condition of the elevator cage apron essentially overlaps the other telescoping elements which are movable relatively to the basis element - a manually operated locking device, which interlocks the cage apron in the retracted condition and contains at least one locking element (3a and 3c, respectively) fixed to the basis element, and at least one locking unit (5a and 5c, respectively), which is fixed to the lowermost telescoping element and which in the locked condition of the cage apron meshes with the locking element (3a and 3c, respectively) and - an element which affects the moving out motion of the cage apron characterised in that the element for affecting the moving out motion of the cage apron is a damping element which slows down the moving out motion of the cage apron and that at least one unlocking element is provided for unlocking the locking unit. - three essentially plate-shaped telescoping elements (10, 11, 12), which are movable from a retracted position into an extended condition, whereby the upper telescoping element is a basis element fixed unmovably to the elevator cage, which basis element in the retracted condition of the elevator cage apron essentially overlaps the other telescoping elements which are movable relatively to the basis element - a manually operated locking device, which interlocks the cage apron in the retracted condition and contains at least one locking element (3a and 3c, respectively) fixed to the basis element, and at least one locking unit (5a and 5c, respectively), which is fixed to the lowermost telescoping element and which in the locked condition of the cage apron meshes with the locking element (3a and 3c, respectively) and - an element which affects the moving out motion of the cage apron characterised in that the element for affecting the moving out motion of the cage apron is a damping element which slows down the moving out motion of the cage apron and that at least one unlocking element is provided for unlocking the locking unit.
An expandable vertical garden system comprising: [a] frame; [b] drip irrigation pipe(s); [c] drainage pipe(s); [d] drain tray; and optionally [e] pots or plant containers; wherein said frame comprises: [i] holes for inserting screws which get drilled into the support wall/ framework; [ii] cavity wherein pots can be snapped in and snapped out; [iii] support elements in each cavity for the pots to get good anchorage; [iv] small holes above each cavity, wherein the clip to hold horizontal irrigation pipe can be fixed in; [v] a large hole at the bottom of the frame for inserting the drain tray; [vi] a cavity on rear side of each frame wherein the drainage pipe can be fixed. [a] frame; [b] drip irrigation pipe(s); [c] drainage pipe(s); [d] drain tray; and optionally [e] pots or plant containers; wherein said frame comprises: [i] holes for inserting screws which get drilled into the support wall/ framework; [ii] cavity wherein pots can be snapped in and snapped out; [iii] support elements in each cavity for the pots to get good anchorage; [iv] small holes above each cavity, wherein the clip to hold horizontal irrigation pipe can be fixed in; [v] a large hole at the bottom of the frame for inserting the drain tray; [vi] a cavity on rear side of each frame wherein the drainage pipe can be fixed. [i] holes for inserting screws which get drilled into the support wall/ framework; [ii] cavity wherein pots can be snapped in and snapped out; [iii] support elements in each cavity for the pots to get good anchorage; [iv] small holes above each cavity, wherein the clip to hold horizontal irrigation pipe can be fixed in; [v] a large hole at the bottom of the frame for inserting the drain tray; [vi] a cavity on rear side of each frame wherein the drainage pipe can be fixed.
Method for heating an electrically conductive fluid comprising steps of: - circulating the fluid in a circuit from an inlet to an outlet, through an inlet path of the circuit in which the fluid flows in a first average direction, and through an outlet path of the circuit in which the fluid flows in a second average direction substantially opposite to the first direction, - subjecting the fluid to ohmic heating while the fluid flows through the outlet path, characterized in that it further comprises a step of transferring heat from the fluid flowing through the outlet path to the fluid flowing through the inlet path by thermal conduction through an at least partially electrically insulated partition wall (1, 1A, 1B) separating said inlet path and said outlet path. - circulating the fluid in a circuit from an inlet to an outlet, through an inlet path of the circuit in which the fluid flows in a first average direction, and through an outlet path of the circuit in which the fluid flows in a second average direction substantially opposite to the first direction, - subjecting the fluid to ohmic heating while the fluid flows through the outlet path, characterized in that it further comprises a step of transferring heat from the fluid flowing through the outlet path to the fluid flowing through the inlet path by thermal conduction through an at least partially electrically insulated partition wall (1, 1A, 1B) separating said inlet path and said outlet path.
A holographic display system, comprising: an eye tracker configured to determine a position of a feature of an eye; a light source configured to output image light; and a digital dynamic hologram configured to receive the image light from the light source and spatially modulate the image light based on a target image to form a reconstructed image in the eye, wherein the target image includes a plurality of image pixels, each image pixel having a target intensity; wherein the digital dynamic hologram is configured, for each of a plurality of display pixels corresponding to the plurality of image pixels, to modulate a phase of an incident wavefront of the image light based on the target intensity of the corresponding image pixel to output an actual intensity, wherein a difference between the target intensity and the actual intensity is based on a noise threshold that is determined based on the position of the pixel within the reconstructed image relative to the position of the feature of the eye; and wherein the reconstructed image includes noise that is non-uniformly distributed across the reconstructed image based on the position of the feature of the eye. an eye tracker configured to determine a position of a feature of an eye; a light source configured to output image light; and a digital dynamic hologram configured to receive the image light from the light source and spatially modulate the image light based on a target image to form a reconstructed image in the eye, wherein the target image includes a plurality of image pixels, each image pixel having a target intensity; wherein the digital dynamic hologram is configured, for each of a plurality of display pixels corresponding to the plurality of image pixels, to modulate a phase of an incident wavefront of the image light based on the target intensity of the corresponding image pixel to output an actual intensity, wherein a difference between the target intensity and the actual intensity is based on a noise threshold that is determined based on the position of the pixel within the reconstructed image relative to the position of the feature of the eye; and wherein the reconstructed image includes noise that is non-uniformly distributed across the reconstructed image based on the position of the feature of the eye.
Method for surveying underground construction sites (211,216) such as tunnels, sewers, mine galleries, subways, wherein pipe jacking (1,2,3,4,5,6) or tubbing is optionally taking place, in particular for directional control in construction work or for re-surveying, wherein the construction occurs at a fixed location or is moved with the pipe jack (1,2,3,4,5,6) through the subsurface and wherein the construction sites and/or the position of the pipe jack device (1,2,3,4,5,6) are surveyed, characterised in that, adjustable and/or mountable and removable survey marks are fixed on the construction site floor, wherein the survey marks a) are formed by at least temporarily remaining change plates on the construction site floor and measuring instruments (30,67,71,91,92,95,96) are placed over the change plates and contactlessly aligned onto the change plates or directly or indirectly mounted on the change plates or b) are formed by at least temporarily remaining films on the construction site floor, and measuring instruments (30,67,71,91,92,95,96) are placed over the films and contactlessly aligned onto the films or directly or indirectly mounted on the films. a) are formed by at least temporarily remaining change plates on the construction site floor and measuring instruments (30,67,71,91,92,95,96) are placed over the change plates and contactlessly aligned onto the change plates or directly or indirectly mounted on the change plates or b) are formed by at least temporarily remaining films on the construction site floor, and measuring instruments (30,67,71,91,92,95,96) are placed over the films and contactlessly aligned onto the films or directly or indirectly mounted on the films.
A wax mold injection molding apparatus comprising: a vacuum chamber; a nozzle connected to the vacuum chamber; and a pressure sensor for measuring a pressure in the vacuum chamber, wherein: the wax mold injection molding apparatus is adapted for vacuuming of a mold using the vacuum chamber and wax injection to the mold after the vacuuming, through the nozzle, and characterized by further comprising an operation control unit adapted to control a time duration of performing the vacuuming and/or the wax injection based on a pressure in the vacuum chamber. a vacuum chamber; a nozzle connected to the vacuum chamber; and a pressure sensor for measuring a pressure in the vacuum chamber, wherein: the wax mold injection molding apparatus is adapted for vacuuming of a mold using the vacuum chamber and wax injection to the mold after the vacuuming, through the nozzle, and characterized by further comprising an operation control unit adapted to control a time duration of performing the vacuuming and/or the wax injection based on a pressure in the vacuum chamber. the wax mold injection molding apparatus is adapted for vacuuming of a mold using the vacuum chamber and wax injection to the mold after the vacuuming, through the nozzle, and characterized by further comprising an operation control unit adapted to control a time duration of performing the vacuuming and/or the wax injection based on a pressure in the vacuum chamber.
The use of an antimicrobial composition for preparation of medicine for killing or inactivating microorganisms on mammalian tissue, the antimicrobial composition comprising: an antiseptic selected from the group consisting of biguanides, bisbiguanides polymeric quaternary ammonium compounds, silver and its complexes, small molecule quaternary ammonium compounds; and combinations thereof, a hydrophilic component selected from polyhydric alcohols, lower alkyl ethers, short chain esters, and combinations thereof, wherein the hydrophilic component is a material that will disperse or dissolve in deionized water at a temperature of 23°C in an amount of at least 10% by weight, a surfactant selected from cationic surfactants, amphoteric surfactants, nonionic surfactants, and mixtures thereof; wherein the nonionic surfactants are selected from poloxamers, sorbitan fatty acid esters, and mixtures thereof, a hydrophobic vehicle; wherein the antimicrobial composition comprises less than 5 wt-% water based on the ready to use composition; and wherein when the composition includes an amphiphilic antiseptic, the surfactant is a component separate from the amphiphilic antiseptic. an antiseptic selected from the group consisting of biguanides, bisbiguanides polymeric quaternary ammonium compounds, silver and its complexes, small molecule quaternary ammonium compounds; and combinations thereof, a hydrophilic component selected from polyhydric alcohols, lower alkyl ethers, short chain esters, and combinations thereof, wherein the hydrophilic component is a material that will disperse or dissolve in deionized water at a temperature of 23°C in an amount of at least 10% by weight,
A salt of a cyclohexane derivative N'-[trans-4-[2-[4-(benzo[b]thiophen-7-yl)piperazin-1-yl]ethyl]cyclohexyl]-N,N-dimethyl urea of Formula I, wherein the salt comprises an anion, and the anion is a maleate ion,
An ultrasound testing system, comprising: an ultrasound probe; a radiofrequency tag; and an authorized source configured to send authenticated commands to the RF tag; wherein the RF tag is characterized by being configured to: store a unique identifier of the ultrasound probe and probe information regarding the ultrasound probe including an ultrasound probe certificate comprising permissions for the use of the ultrasound probe; wirelessly transmit the unique identifier and at least a portion of the probe information in response to receipt of a near-field communication from the authorized source for one or more new certificates to update the ultrasound probe certificate; and receive from the authorized source a link to a network resource storing the one or more certificates. an ultrasound probe; a radiofrequency tag; and an authorized source configured to send authenticated commands to the RF tag; wherein the RF tag is characterized by being configured to: store a unique identifier of the ultrasound probe and probe information regarding the ultrasound probe including an ultrasound probe certificate comprising permissions for the use of the ultrasound probe; wirelessly transmit the unique identifier and at least a portion of the probe information in response to receipt of a near-field communication from the authorized source for one or more new certificates to update the ultrasound probe certificate; and receive from the authorized source a link to a network resource storing the one or more certificates. store a unique identifier of the ultrasound probe and probe information regarding the ultrasound probe including an ultrasound probe certificate comprising permissions for the use of the ultrasound probe; wirelessly transmit the unique identifier and at least a portion of the probe information in response to receipt of a near-field communication from the authorized source for one or more new certificates to update the ultrasound probe certificate; and receive from the authorized source a link to a network resource storing the one or more certificates.
A refrigerator comprising: a main body provided with a storage chamber (11, 12); a door to open or close the storage chamber (11, 12); and an ice maker to make ice cubes, wherein the door comprises a receiving chamber provided at a front surface of the door, the receiving chamber being recessed and receiving the ice maker therein; wherein the door further comprises an auxiliary door to open or close the receiving chamber; characterized in that the refrigerator further comprises a dispenser arranged at a lower side of the ice maker in the receiving chamber to discharge ice cubes made by the ice maker to the outside; and wherein the auxiliary door is provided with an ice cube discharge hole to receive ice cubes discharged through the dispenser at the outside of the door. a main body provided with a storage chamber (11, 12); a door to open or close the storage chamber (11, 12); and an ice maker to make ice cubes, wherein the door comprises a receiving chamber provided at a front surface of the door, the receiving chamber being recessed and receiving the ice maker therein; wherein the door further comprises an auxiliary door to open or close the receiving chamber; characterized in that the refrigerator further comprises a dispenser arranged at a lower side of the ice maker in the receiving chamber to discharge ice cubes made by the ice maker to the outside; and wherein the auxiliary door is provided with an ice cube discharge hole to receive ice cubes discharged through the dispenser at the outside of the door.
A method for producing pumice blocks filled with insulation material comprising the following sequential steps: a) mixing grinded/sieved pumice aggregate, cement and water within a mixer for obtaining pumice mortar, b) casting the obtained fresh pumice mortar into molds for obtaining blocks with at least one cavity, c) applying pressure on to the upper surface of the molded mortar, d) removing the pressed blocks from the molds, e) pouring readily prepared insulation material into at least one cavity of each block for partially filling the same up to %90 of the height of said cavity, f) curing the obtained blocks in a hardening chamber, g) pouring the same insulation material into the partially filled cavity for completely filling the same, h) curing the obtained blocks in a hardening chamber, i) scalping the cured blocks for bringing the same into pre-defined dimensions, j) packaging the obtained pumice blocks. a) mixing grinded/sieved pumice aggregate, cement and water within a mixer for obtaining pumice mortar, b) casting the obtained fresh pumice mortar into molds for obtaining blocks with at least one cavity, c) applying pressure on to the upper surface of the molded mortar, d) removing the pressed blocks from the molds, e) pouring readily prepared insulation material into at least one cavity of each block for partially filling the same up to %90 of the height of said cavity, f) curing the obtained blocks in a hardening chamber, g) pouring the same insulation material into the partially filled cavity for completely filling the same, h) curing the obtained blocks in a hardening chamber, i) scalping the cured blocks for bringing the same into pre-defined dimensions, j) packaging the obtained pumice blocks.
A heater, comprising: a light-emitting tube; and a multilayer film formed on an outer surface of the light-emitting tube, wherein the multilayer film is formed by alternately stacking a low-refractive index film and a high-refractive index film, and the film thickness of the low-refractive index film farthest from the light-emitting tube is 2.0 times or more the film thicknesses of the other low-refractive index films, and the film thickness of the high-refractive index film closest to the light-emitting tube is equal to or larger than the film thicknesses of the other high-refractive index films, and characterized by the film thickness of the low-refractive index film farthest from the light-emitting tube is 4.0 times or less the film thicknesses of the other low-refractive index films. a light-emitting tube; and a multilayer film formed on an outer surface of the light-emitting tube, wherein the multilayer film is formed by alternately stacking a low-refractive index film and a high-refractive index film, and the film thickness of the low-refractive index film farthest from the light-emitting tube is 2.0 times or more the film thicknesses of the other low-refractive index films, and the film thickness of the high-refractive index film closest to the light-emitting tube is equal to or larger than the film thicknesses of the other high-refractive index films, and characterized by the film thickness of the low-refractive index film farthest from the light-emitting tube is 4.0 times or less the film thicknesses of the other low-refractive index films.