mhurhangee/ep-ind-claims huggingface dataset:
A system for detecting behaviour of a mobile telecommunications device in a telecommunications network, the system comprising: a telecommunications network configured to identify at least one mobile telecommunications device, the telecommunications network comprising a base station, wherein the base station is configured to receive signals from the mobile telecommunications device and further to process the received signals into signaling transmitted within the telecommunications network, the telecommunications network is arranged to monitor in the signalling transmitted within the telecommunications network an occurrence of a predetermined signal associated with the mobile telecommunications device and representing an interaction between network devices, and is arranged to register when the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network, characterized in that the telecommunications network is further configured to register that the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network in detecting when the occurrence exceeds a predetermined temporal rate by measuring if the time elapsed between successive occurrences is less than a predetermined time interval. a telecommunications network configured to identify at least one mobile telecommunications device, the telecommunications network comprising a base station, wherein the base station is configured to receive signals from the mobile telecommunications device and further to process the received signals into signaling transmitted within the telecommunications network, the telecommunications network is arranged to monitor in the signalling transmitted within the telecommunications network an occurrence of a predetermined signal associated with the mobile telecommunications device and representing an interaction between network devices, and is arranged to register when the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network, characterized in that the telecommunications network is further configured to register that the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network in detecting when the occurrence exceeds a predetermined temporal rate by measuring if the time elapsed between successive occurrences is less than a predetermined time interval.
A manufacture equipment for a large-area perovskite film, wherein the equipment comprises a vacuum chamber provided with a substrate heater therein for accommodating a substrate; a first evaporation case and a second evaporation case are disposed under the substrate heater in the vacuum chamber, the first evaporation case has an open upper end, the second evaporation case is provided with a plurality of gas pipes vertically disposed on an upper end surface thereof, the first evaporation case is embedded above the second evaporation case, the upper ends of the respective gas pipes penetrate through a bottom surface of the first evaporation case and protrude inside the first evaporation case, and a damper is disposed between the first evaporation case and the substrate heater to be opened and closed, the first evaporation case is connected with a first carrier-gas pipe communicating with an external carrier-gas source; a first raw material heating box is provided on the first carrier-gas pipe, and the first raw material heating box is connected with a first raw material feeding mechanism; a second raw material heating box is provided on the second carrier-gas pipe, and the second raw material heating box is connected with a second raw material feeding mechanism; the raw material feeding mechanisms serve for feeding raw materials to the raw material boxes, a heat-tracing heater is disposed inside the vacuum chamber, the heat-tracing heater is provided alone surrounding, in a conformal manner, sidewalls and bottom of the first evaporation case and the second evaporation case. the equipment comprises a vacuum chamber provided with a substrate heater therein for accommodating a substrate; a first evaporation case and a second evaporation case are disposed under the substrate heater in the vacuum chamber, the first evaporation case has an open upper end, the second evaporation case is provided with a plurality of gas pipes vertically disposed on an upper end surface thereof, the first evaporation case is embedded above the second evaporation case, the upper ends of the respective gas pipes penetrate through a bottom surface of the first evaporation case and protrude inside the first evaporation case, and a damper is disposed between the first evaporation case and the substrate heater to be opened and closed, the first evaporation case is connected with a first carrier-gas pipe communicating with an external carrier-gas source; a first raw material heating box is provided on the first carrier-gas pipe, and the first raw material heating box is connected with a first raw material feeding mechanism; a second raw material heating box is provided on the second carrier-gas pipe, and the second raw material heating box is connected with a second raw material feeding mechanism; the raw material feeding mechanisms serve for feeding raw materials to the raw material boxes, a heat-tracing heater is disposed inside the vacuum chamber, the heat-tracing heater is provided alone surrounding, in a conformal manner, sidewalls and bottom of the first evaporation case and the second evaporation case.
A method of making a vacuum insulating glass unit, the method comprising: forming nickel-inclusive thin film coatings around peripheral edges of first major surfaces of first and second substrates, wherein at least one of the first and second substrates is a heat-treated glass substrate; placing a plurality of spacers on the first major surface of the first substrate; placing a solid solder pre-form alloy material over and contacting the nickel-inclusive thin film coating formed on the first major surface of the first substrate; bringing together the first and second substrates such that the first major surfaces thereof face one another to form a subassembly; forming an edge seal, in vacuo, by reactively reflowing the solid pre-form alloy material, such that nickel from the nickel-inclusive thin film coatings diffuses into the alloy material and vice versa; and following the formation of the edge seal, which then includes inter-metallic compounds, further evacuating a cavity formed between the first and second substrates in making the VIG unit, wherein the solid solder pre-form alloy material includes Sn and at least one other material selected from the group consisting of metalloids, or Zintl anions from group 13, 14, 15 or 16, and wherein the solid solder pre-form alloy material excludes Pb. forming nickel-inclusive thin film coatings around peripheral edges of first major surfaces of first and second substrates, wherein at least one of the first and second substrates is a heat-treated glass substrate; placing a plurality of spacers on the first major surface of the first substrate; placing a solid solder pre-form alloy material over and contacting the nickel-inclusive thin film coating formed on the first major surface of the first substrate; bringing together the first and second substrates such that the first major surfaces thereof face one another to form a subassembly; forming an edge seal, in vacuo, by reactively reflowing the solid pre-form alloy material, such that nickel from the nickel-inclusive thin film coatings diffuses into the alloy material and vice versa; and following the formation of the edge seal, which then includes inter-metallic compounds, further evacuating a cavity formed between the first and second substrates in making the VIG unit, wherein the solid solder pre-form alloy material includes Sn and at least one other material selected from the group consisting of metalloids, or Zintl anions from group 13, 14, 15 or 16, and wherein
Pump for dispensing a liquid product, comprising: - a tubular body extending along a central axis between a first and a second end, delimiting inwardly a dosing chamber and having an orifice for admitting a liquid product into the dosing chamber near said first end, - an inlet valve (10, 11) adapted to selectively block the inlet orifice, - a nozzle mounted axially mobile inside the body between a distant position and a close position with respect to the inlet orifice, said nozzle being returned elastically towards the distant position, - an annular piston mounted to slide axially inside the body and on the nozzle, the piston and the base comprising annular bearing surfaces adapted to come into mutual contact and form an outlet valve selectively blocking the outlet valve, said pump being characterised in that said nozzle comprises an axially extended actuation tube delimiting an outlet conduit, an extended insert fitted to the actuation tube and having a base disposed inside the dosing chamber facing the inlet orifice, and an orifice for releasing the liquid product towards the outlet conduit, and in that a swivel is arranged between the insert and the actuation tube. - a tubular body extending along a central axis between a first and a second end, delimiting inwardly a dosing chamber and having an orifice for admitting a liquid product into the dosing chamber near said first end, - an inlet valve (10, 11) adapted to selectively block the inlet orifice, - a nozzle mounted axially mobile inside the body between a distant position and a close position with respect to the inlet orifice, said nozzle being returned elastically towards the distant position, - an annular piston mounted to slide axially inside the body and on the nozzle, the piston and the base comprising annular bearing surfaces adapted to come into mutual contact and form an outlet valve selectively blocking the outlet valve,
A key for a cylinder lock with a shaft and a handle, with profile grooves (6, 7) arranged on broad sides of the shaft opposite one another and arranged parallel to the shaft, characterized in that the shaft has a tapered section (12, 14, 15) and that the tapered section (12, 14, 15) generates a constant reduction of the thickness of the shaft extending from the handle toward the key tip and that the shaft close to the handle is thicker than close to the key tip.
A battery separator for a lithium ion battery comprising: a co-extruded, multi-layered microporous membrane having a thickness in the range of 4-50 μm and at least two layers, one layer being made of polyethylene and the other being made of polypropylene and having a uniform thickness defined by a standard deviation of < 0.80 μm.
An endoscopic system, comprising: an endoscopic imager configured to capture image frames of a target site within a living body; and a processor configured to: apply a spatial transform to a preliminary set of image frames, the spatial transform converting the image frames into cylindrical coordinates; calculate a map image from the spatially transformed image frames, each pixel position in the map image being defined with a vector of fixed dimension; calculate a scale space representation of the map image; capture further images comprising a plurality of independent regions; develop a non-linear spatial transform comprising independent spatial transforms for each of the independent regions when a predetermined amount of image data for each of the independent regions has been acquired; and derive a structure from motion depth map from the non-linear spatial transform. an endoscopic imager configured to capture image frames of a target site within a living body; and a processor configured to: apply a spatial transform to a preliminary set of image frames, the spatial transform converting the image frames into cylindrical coordinates; calculate a map image from the spatially transformed image frames, each pixel position in the map image being defined with a vector of fixed dimension; calculate a scale space representation of the map image; capture further images comprising a plurality of independent regions; develop a non-linear spatial transform comprising independent spatial transforms for each of the independent regions when a predetermined amount of image data for each of the independent regions has been acquired; and derive a structure from motion depth map from the non-linear spatial transform. apply a spatial transform to a preliminary set of image frames, the spatial transform converting the image frames into cylindrical coordinates; calculate a map image from the spatially transformed image frames, each pixel position in the map image being defined with a vector of fixed dimension; calculate a scale space representation of the map image; capture further images comprising a plurality of independent regions; develop a non-linear spatial transform comprising independent spatial transforms for each of the independent regions when a predetermined amount of image data for each of the independent regions has been acquired; and derive a structure from motion depth map from the non-linear spatial transform.
An autonomous mobile apparatus comprising: a casing; a running gear adapted to move the casing on a floor surface; a driving force source adapted to drive the running gear; a controller adapted to control the driving force source so that the casing autonomously moves on the floor surface; a bumper that is provided on a front side of the casing; and a camera unit disposed on a rear side of a side face of the casing to take a photograph an area behind the casing, wherein a photographing range (Rp) of the camera unit includes an upper range (RpU) provided above a horizontal direction (h), and a lower range (RpL) provided below the horizontal direction (h) when the casing is placed on the floor surface configured to be horizontal, and the upper range (RpU) is wider than the lower range (RpL). a casing; a running gear adapted to move the casing on a floor surface; a driving force source adapted to drive the running gear; a controller adapted to control the driving force source so that the casing autonomously moves on the floor surface; a bumper that is provided on a front side of the casing; and a camera unit disposed on a rear side of a side face of the casing to take a photograph an area behind the casing, wherein a photographing range (Rp) of the camera unit includes an upper range (RpU) provided above a horizontal direction (h), and a lower range (RpL) provided below the horizontal direction (h) when the casing is placed on the floor surface configured to be horizontal, and the upper range (RpU) is wider than the lower range (RpL).
A method for heat treatment of an Alloy 282 which has been subjected to an initial solution annealing followed by cooling, and where the Alloy 282 is joined together with an Alloy 718 prior to the heat treatment, wherein alloy 282 is defined in the AMS standard 5951 and alloy 718 is defined in the AMS standards 5662, 5596 and 5383, whereby the combined unit is subject to the heat treatment, the method comprising the steps of: a) heating the joined Alloys 282 and 718 at a temperature between 954°C and 1010°C, ± 14 degrees, and during 0.5 to 2 hours, ± 10 minutes, until the gamma prime phase in Alloy 282 is sufficiently dissolved; b) cooling the joined Alloys 282 and 718 to a temperature sufficiently low and below 594 °C, and at a cooling rate sufficiently high, to suppress gamma prime precipitation in alloy 282; c) heating the joined Alloys 282 and 718 at 760°C ± 14 degrees for 5 hours ± 10 minutes followed by cooling to 650°C ± 14 degrees, wherein cooling from 760°C to 650°C is performed at an average rate of 56°C ± 8°C per hour; and d) holding the Alloys at 650°C ± 14 degrees for 1 hour ± 10 minutes. a) heating the joined Alloys 282 and 718 at a temperature between 954°C and 1010°C, ± 14 degrees, and during 0.5 to 2 hours, ± 10 minutes, until the gamma prime phase in Alloy 282 is sufficiently dissolved; b) cooling the joined Alloys 282 and 718 to a temperature sufficiently low and below 594 °C, and at a cooling rate sufficiently high, to suppress gamma prime precipitation in alloy 282; c) heating the joined Alloys 282 and 718 at 760°C ± 14 degrees for 5 hours ± 10 minutes followed by cooling to 650°C ± 14 degrees, wherein cooling from 760°C to 650°C is performed at an average rate of 56°C ± 8°C per hour; and d) holding the Alloys at 650°C ± 14 degrees for 1 hour ± 10 minutes.
A transport device for transporting objects along a transport track comprising: - a rail which defines the transport track; - at least one slide which is travelably guided at the rail and which is configured to receive at least one object to be transported; - a coupling element which is provided at the slide and via which the slide can be driven; - at least one first drive unit having a first drive means for driving the slide along a first transport section of the transport track; and - a second drive unit having a second drive means (44, 46) for driving the slide along a second transport section of the transport track, wherein the coupling element is configured to be in engagement in a force-fitting manner with the first drive means in the region of the first transport section; wherein the coupling element is further configured to be in engagement in a shape-fitting manner or in a shape-fitting and force-fitting manner with the second drive means (44, 46) in the region of the second transport section; characterized in that the coupling element is supported by means of at least one first spring and by means of at least one second spring at the slide, with the at least one first spring being seated upstream of the at least one second spring in a first transport direction of the slide; wherein the coupling element has a free travel with respect to the at least one second spring such that on a deflection of the first spring, the at least one second spring does not develop any effect until the overcoming of the free travel. - a rail which defines the transport track; - at least one slide which is travelably guided at the rail and which is configured to receive at least one object to be transported; - a coupling element which is provided at the slide and via which the slide can be driven; - at least one first drive unit having a first drive means for driving the slide along a first transport section of the transport track; and - a second drive unit having a second drive means (44, 46) for driving the slide along a second transport section of the transport track, wherein the coupling element is configured to be in engagement in a force-fitting manner with the first drive means in the region of the first transport section; wherein the coupling element is further configured to be in engagement in a shape-fitting manner or in a shape-fitting and force-fitting manner with the second drive means (44, 46) in the region of the second transport section; characterized in that the coupling element is supported by means of at least one first spring and by means of at least one second spring at the slide, with the at least one first spring being seated upstream of the at least one second spring in a first transport direction of the slide; wherein the coupling element has a free travel with respect to the at least one second spring such that on a deflection of the first spring, the at least one second spring does not develop any effect until the overcoming of the free travel.
A method of identifying a trophoblast in a maternal blood sample, the method comprising: (a) subjecting the maternal blood sample to a density gradient which separates nucleated cells from the plasma or the un-nucleated red blood cells, (b) permeablizing said nucleated cells of the maternal blood sample; (c) detecting in cells of the maternal blood sample expression of a trophoblast marker cytokeratin-7 with an antibody specific to said cytokeratin-7 expressed in said trophoblast cell, with the proviso that said maternal blood sample does not comprise a placental tissue; and (d) classifying cells exhibiting expression of said trophoblast marker as trophoblasts; thereby identifying the trophoblast in the maternal blood sample. (a) subjecting the maternal blood sample to a density gradient which separates nucleated cells from the plasma or the un-nucleated red blood cells, (b) permeablizing said nucleated cells of the maternal blood sample; (c) detecting in cells of the maternal blood sample expression of a trophoblast marker cytokeratin-7 with an antibody specific to said cytokeratin-7 expressed in said trophoblast cell, with the proviso that said maternal blood sample does not comprise a placental tissue; and (d) classifying cells exhibiting expression of said trophoblast marker as trophoblasts; thereby identifying the trophoblast in the maternal blood sample.
Cable-wrapping tape comprising a tape-shaped carrier comprising a woven textile fabric having warp threads and weft threads comprising a PET polymer material, wherein the warp and weft threads (2, 3) are formed of filament yarns, wherein the linear density of the weft threads is greater than the linear density of the warp threads and an adhesive coating on the carrier, wherein the linear density of the warp threads is not less than 20 dtex and not more than 40 dtex and the linear density of the weft threads is in the range from 155 dtex to 200 dtex, wherein the number of warp threads per cm is not less than 20 per cm and not more than 30 per cm, and the number of weft threads is not less than 28 per cm and not more than 40 per cm, and wherein the basis weight of carrier is not less than 40 g/sqm and not more than 100 g/sqm, wherein the warp threads and/or the weft threads are intermingled and/or textured.
Microbicidal composition which comprises: a) 0.5 to 15% by weight of a mixture of 2-methylisothiazolone and of 1,2-benzisothiazolone; wherein the BIT/MIT weight ratio is 1/4 to 4/1, b) 0.5 to 15% by weight of one or two organic amines selected from N-dodecylpropane-1,3-diamine and bis(aminopropyl) dodecylamine and c) 0.01 to 10% by weight one or more oxidizing agents selected from potassium iodate, sodium periodate, sodium bromate, H 2 O 2 and Cu salts, d) 40 to 98.99% by weight of solvents chosen from water, ethanol, propanols, benzyl alcohol, ethylene glycol, dipropylene glycol, butanediols, butyl glycol, butyl diglycol, phenoxyethanol, phenoxypropanols, glycerol, alkanediols and alkyl glycerol ethers, and mixtures thereof; said composition having a pH in the range from 8 to 10. a) 0.5 to 15% by weight of a mixture of 2-methylisothiazolone and of 1,2-benzisothiazolone; wherein the BIT/MIT weight ratio is 1/4 to 4/1, b) 0.5 to 15% by weight of one or two organic amines selected from N-dodecylpropane-1,3-diamine and bis(aminopropyl) dodecylamine and c) 0.01 to 10% by weight one or more oxidizing agents selected from potassium iodate, sodium periodate, sodium bromate, H 2 O 2 and Cu salts, d) 40 to 98.99% by weight of solvents chosen from water, ethanol, propanols, benzyl alcohol, ethylene glycol, dipropylene glycol, butanediols, butyl glycol, butyl diglycol, phenoxyethanol, phenoxypropanols, glycerol, alkanediols and alkyl glycerol ethers, and mixtures thereof;