mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming and filling a container with an end product, the method comprising the steps of: locating a heated preform within a mold assembly defining the shape of the container ; engaging a portion of a blow nozzle assembly with the preform ; introducing the end product into the preform under pressure to simultaneously form the container from the preform and fill the container with the end product; disengaging the portion of the blow nozzle assembly from the preform after forming of the container ; removing the filled container from the mold assembly ; the method being characterized by the further method step of discharging and directing a stream of cleaning medium toward the blow nozzle assembly after the disengaging step, whereby residual end product is removed from the blow nozzle assembly . locating a heated preform within a mold assembly defining the shape of the container ; engaging a portion of a blow nozzle assembly with the preform ; introducing the end product into the preform under pressure to simultaneously form the container from the preform and fill the container with the end product; disengaging the portion of the blow nozzle assembly from the preform after forming of the container ; removing the filled container from the mold assembly ; the method being characterized by the further method step of discharging and directing a stream of cleaning medium toward the blow nozzle assembly after the disengaging step, whereby residual end product is removed from the blow nozzle assembly .
An in-flight service cart for use on an aircraft for maintaining a payload within a selected temperature range, said in-flight service cart including: a housing having a storage volume; and at least one thermally insulated container removably mounted within the housing , said thermally insulated container having: an outer casing ; a thermally conductive inner casing comprising a substantially cuboid receptacle having a payload volume for storing foodstuffs within the inner casing, the material of said inner casing having a thermal conductivity of at least 100 W/m.K; thermal insulation located between the outer casing and the inner casing , said thermal insulation including at least one vacuum insulation panel (9a-e); an opening at one side of the substantially cuboid receptacle providing access to the payload volume; a door for closing the opening , said door is hinged at a substantially vertical edge of the thermally insulated container when the container is in its normal operating orientation; and at least one thermal energy storage unit located within the inner casing , said thermal energy storage unit including a phase change material that is arranged to change phase at a temperature greater than or equal to -10°C, wherein the thermal energy storage unit(s) is positioned in thermal contact with the inner casing , the arrangement being such that the inner casing provides a thermally conductive pathway for conducting heat entering the container to the thermal energy storage unit .
A method comprising: detecting that a wearable computing device is worn by a user; detecting that an electronic device is operating in a first mode, wherein the electronic device is selected from a group consisting of: a mobile phone, a tablet, and a laptop computer operating the wearable computing device in a private mode based on detecting that the wearable computing device is worn by a user and that the electronic device is operating in the first mode wherein the private mode provides at least a private data element that is not available when the wearable computing device is not in the private mode; detecting that the electronic device is operating in a second mode; and operating the wearable computing device in a public mode based on detecting that the wearable computing device is worn by a user and that the electronic device is operating in the second mode wherein the public mode provides at least a public data element that is not secure; blocking an alert when the wearable device is in the public mode; and providing the alert when the wearable device is in the private mode. detecting that a wearable computing device is worn by a user; detecting that an electronic device is operating in a first mode, wherein the electronic device is selected from a group consisting of: a mobile phone, a tablet, and a laptop computer operating the wearable computing device in a private mode based on detecting that the wearable computing device is worn by a user and that the electronic device is operating in the first mode wherein the private mode provides at least a private data element that is not available when the wearable computing device is not in the private mode; detecting that the electronic device is operating in a second mode; and operating the wearable computing device in a public mode based on detecting that the wearable computing device is worn by a user and that the electronic device is operating in the second mode wherein the public mode provides at least a public data element that is not secure; blocking an alert when the wearable device is in the public mode; and providing the alert when the wearable device is in the private mode.
Electrical contacting device for an electric machine having - a brush device , - a slip ring device which is rotatably mounted in relation to the brush device and which is in electrical contact with the brush device , - a fan for conveying a coolant and - a housing in which the brush device , the slip ring device and the fan are arranged, wherein - the housing has an opening for the coolant to flow in and wherein - a first air guide element which is arranged in the housing such that it guides the coolant flowing in through the opening into an area in which the brush device and the slip ring device are in electrical contact, characterised in that - the first air guide element surrounds the slip ring device along the latter's circumferential direction. - a brush device , - a slip ring device which is rotatably mounted in relation to the brush device and which is in electrical contact with the brush device , - a fan for conveying a coolant and - a housing in which the brush device , the slip ring device and the fan are arranged, wherein - the housing has an opening for the coolant to flow in and wherein - a first air guide element which is arranged in the housing such that it guides the coolant flowing in through the opening into an area in which the brush device and the slip ring device are in electrical contact, characterised in that - the first air guide element surrounds the slip ring device along the latter's circumferential direction.
A separator for a rechargeable lithium battery comprising a porous substrate and a coating layer disposed on at least one surface of the porous substrate, wherein the coating layer comprises a binder comprising polyurethane and polyvinyl alcohol and inorganic particles, and the polyurethane and the polyvinyl alcohol are included in a weight ratio of 5 : 5 to 9 : 1, wherein the binder further comprises a (meth)acryl-based resin and wherein the polyurethane is a polyether-based polyurethane. a porous substrate and a coating layer disposed on at least one surface of the porous substrate, wherein the coating layer comprises a binder comprising polyurethane and polyvinyl alcohol and inorganic particles, and the polyurethane and the polyvinyl alcohol are included in a weight ratio of 5 : 5 to 9 : 1, wherein the binder further comprises a (meth)acryl-based resin and wherein the polyurethane is a polyether-based polyurethane.
A method of obtaining a magnetic resonance, "MR," spectrum of a voxel in an MR image of an object, the method comprising: generating, based on MRI data corresponding to RF signals received from the object, an MR image for display on an image outputting unit ; accepting, via a user interface , a selection of a voxel of interest "VOI" or a region of interest "ROI" including the VOI, on the MR image output by the image outputting unit , for a specific portion of the object; configuring (S100) a sampling pattern of k-space data that includes the VOI in the MR image; sampling (S200) predetermined data from the k-space data based on the configured sampling pattern; obtaining (S300) an MR spectrum of the VOI by using the sampled data; and displaying the MR spectrum of the VOI on the image outputting unit , characterized in that the sampling pattern includes at least two different patterns configured according to a sine-shaped energy distribution of the k-space data to be sampled. generating, based on MRI data corresponding to RF signals received from the object, an MR image for display on an image outputting unit ; accepting, via a user interface , a selection of a voxel of interest "VOI" or a region of interest "ROI" including the VOI, on the MR image output by the image outputting unit , for a specific portion of the object; configuring (S100) a sampling pattern of k-space data that includes the VOI in the MR image; sampling (S200) predetermined data from the k-space data based on the configured sampling pattern; obtaining (S300) an MR spectrum of the VOI by using the sampled data; and displaying the MR spectrum of the VOI on the image outputting unit , characterized in that the sampling pattern includes at least two different patterns configured according to a sine-shaped energy distribution of the k-space data to be sampled.
A method for filling a cavern of a cavern storage facility for natural gas, characterized by - the introduction of a heat exchanger coil or a pipe (coil tubing) into a cased bore hole , which leads from the earth's surface to the cavern head , up to the cavern head , - the termination an outlet of the heat exchanger coil or the line with a baffle plate , - the introduction of 10 m 3 to 50 m 3 LNG into the heat exchanger coil or into the pipe, - waiting until the pressure in the cavern of the cavern storage facility has risen again to 70% to 120% of the original pressure, - the re-introduction of 10 m 3 to 50 m 3 of LNG into the heat exchanger coil or into the pipe, - wherein the waiting and re-introduction are repeated until a pre-selected filling quantity of the cavern storage is reached. - the introduction of a heat exchanger coil or a pipe (coil tubing) into a cased bore hole , which leads from the earth's surface to the cavern head , up to the cavern head , - the termination an outlet of the heat exchanger coil or the line with a baffle plate , - the introduction of 10 m 3 to 50 m 3 LNG into the heat exchanger coil or into the pipe, - waiting until the pressure in the cavern of the cavern storage facility has risen again to 70% to 120% of the original pressure, - the re-introduction of 10 m 3 to 50 m 3 of LNG into the heat exchanger coil or into the pipe, - wherein the waiting and re-introduction are repeated until a pre-selected filling quantity of the cavern storage is reached.
A tow prepreg comprising a reinforcing fiber bundle impregnated with a matrix resin composition, wherein the matrix resin composition contains a component (A), a component (B), a component (C), and a component (D), wherein the component (A) is an epoxy resin, the component (B) is dicyandiamide, the component (C) is a curing accelerator, and the component (D) is a core-shell type rubber particle and a content of the component (D) with respect to 100 parts by mass of the component (A) is from 20 to 70 parts by mass, a viscosity of the matrix resin composition is from 3 Pa·s to 80 Pa·s at 30°C, and a minimum viscosity to be obtained when a viscosity of the matrix resin composition is measured by raising a temperature from room temperature to 130°C at a rate of temperature rise of 2.0°C/min is from 0.04 Pa·s to 1 Pa·s using the method and apparatus described in the present specification
An overvoltage protection circuit comprising at least one energy-absorbing module , said energy-absorbing module including: - at least one metal-oxide varistor, MOV , - a gas arrestor connected in series with said at least one MOV , said overvoltage protection circuit further including a transient discriminative module connected in parallel with the energy-absorbing module , said transient discriminative module including an avalanche diode , wherein - the said at least one energy-absorbing module includes a resistance in parallel with said gas arrestor , and wherein - the circuit including a back-up module connected in parallel with said energy-absorbing module , said backup module including at least one further metal-oxide varistor (MOV) , characterized in that the circuit in the back-up module is configured to offer a redundancy protection, if the energy-absorbing module fails, wherein said back-up module includes at least one fuse element connected in series with said at least one further MOV , wherein the said transient discriminative module includes a series connection of the avalanche diode and a capacitor , wherein said circuit includes an isolation module connected in series with said energy-absorbing module , connected between said energy-absorbing module and earth (E), wherein said isolation module includes at least one further switching device and wherein the further switching device comprises a further gas arrester (GDT) . - at least one metal-oxide varistor, MOV , - a gas arrestor connected in series with said at least one MOV , said overvoltage protection circuit further including a transient discriminative module connected in parallel with the energy-absorbing module , said transient discriminative module including an avalanche diode , wherein - the said at least one energy-absorbing module includes a resistance in parallel with said gas arrestor , and wherein - the circuit including a back-up module connected in parallel with said energy-absorbing module , said backup module including at least one further metal-oxide varistor (MOV) ,
An apparatus for coding digital video, the apparatus comprising: a processor configured to: identify a first reference block in a first time instance of a reference view, V0, using a disparity vector associated with a current video block of a current view, V1; identify a second reference block of the reference view, V0, in a second time instance distinct from the first time instance, using the first reference block of the reference view, V0, and motion information associated with the current video block of the current view and a motion compensated block of the current view, V1; determine the motion compensated block using the motion information associated with the current video block of the current view, V1; determine a residual predictor block based on a difference between the second reference block and the first reference block multiplied by a weighting factor; and code the current video block using the motion compensated block and the residual predictor block. identify a first reference block in a first time instance of a reference view, V0, using a disparity vector associated with a current video block of a current view, V1; identify a second reference block of the reference view, V0, in a second time instance distinct from the first time instance, using the first reference block of the reference view, V0, and motion information associated with the current video block of the current view and a motion compensated block of the current view, V1; determine the motion compensated block using the motion information associated with the current video block of the current view, V1; determine a residual predictor block based on a difference between the second reference block and the first reference block multiplied by a weighting factor; and code the current video block using the motion compensated block and the residual predictor block.
A nickel electroplating composition comprising one or more sources of nickel ions, one or more sources of acetate ions, sodium saccharinate and one or more N-benzylpyridinium sulfonate compounds having formula: wherein R 1 and R 2 are independently chosen from hydrogen, hydroxyl and (C 1 -C 4 ) alkyl.
Method for detecting a target molecule in a sample by mass spectrometry, in which: a) the molecules of the sample are ionized, by means of at least one ionization device, so as to obtain molecular ions, b) the following steps (i) and (ii) are carried out n times, n being equal to 2, 3 or 4: (i) at least one ion obtained in the preceding step is selected, according to the target molecule, in a mass analyser, and (ii) said at least one ion thus selected is fragmented in a fragmentation cell, c) at least two different ions obtained in step b) are trapped in a mass analyser which is an ion trap, said at least two ions thus trapped being characteristic of the target molecule and having a mass-to-charge ratio m/z characteristic of the target molecule, d) said characteristic ions thus trapped are ejected from the mass analyser, and e) said characteristic ions thus ejected are detected by means of a detection device, characterized in that the characteristic ions are ejected simultaneously in step d) and detected simultaneously in step e). a) the molecules of the sample are ionized, by means of at least one ionization device, so as to obtain molecular ions, b) the following steps (i) and (ii) are carried out n times, n being equal to 2, 3 or 4: (i) at least one ion obtained in the preceding step is selected, according to the target molecule, in a mass analyser, and (ii) said at least one ion thus selected is fragmented in a fragmentation cell, (i) at least one ion obtained in the preceding step is selected, according to the target molecule, in a mass analyser, and (ii) said at least one ion thus selected is fragmented in a fragmentation cell, c) at least two different ions obtained in step b) are trapped in a mass analyser which is an ion trap, said at least two ions thus trapped being characteristic of the target molecule and having a mass-to-charge ratio m/z characteristic of the target molecule, d) said characteristic ions thus trapped are ejected from the mass analyser, and e) said characteristic ions thus ejected are detected by means of a detection device,
An abrasive article comprising ceramic shaped abrasive particles retained in a binder , wherein the ceramic shaped abrasive particles have four major sides (81a, 82a 83a, 84a) joined by six common edges , wherein each one of the four major sides contacts three other of the four major sides, and wherein the six common edges have lengths within +/-20 percent of a nominal length. wherein the ceramic shaped abrasive particles have four major sides (81a, 82a 83a, 84a) joined by six common edges , wherein each one of the four major sides contacts three other of the four major sides, and wherein the six common edges have lengths within +/-20 percent of a nominal length.
A bearing device that supports a rotary member to a fixed member via a rolling bearing and comprises a displacement measuring unit for measuring an axial direction displacement of the rotary member by supplying compressed gas into a gap to be measured (g) between the rotary member and the fixed member in the vicinity of the rolling bearing, the gap being formed between a surface of the rotary member and a surface of the fixed member, which face each other in an axial direction of the rotary member, the displacement measuring unit including at least one displacement detecting unit having a compressed gas injection nozzle for injecting compressed gas into the gap to be measured, and at least one pressure loss measuring unit for measuring a pressure loss of the compressed gas supplied to the displacement detecting unit, each of the at least one displacement detecting unit having at least one gas collection groove for collecting the compressed gas injected into the gap to be measured from the compressed gas injection nozzle, the at least one gas collection groove being formed on one side or both sides of an axis of the compressed gas injection nozzle, characterized in that : an outer ring spacer and an inner ring spacer are disposed in contact with the rolling bearing between the rotary member and the fixed member; and the compressed gas injection nozzle of each said displacement detecting unit is formed in the outer ring spacer, and the gap to be measured is formed between the outer ring spacer and the inner ring spacer. the displacement measuring unit including at least one displacement detecting unit having a compressed gas injection nozzle for injecting compressed gas into the gap to be measured, and at least one pressure loss measuring unit for measuring a pressure loss of the compressed gas supplied to the displacement detecting unit, each of the at least one displacement detecting unit having at least one gas collection groove for collecting the compressed gas injected into the gap to be measured from the compressed gas injection nozzle, the at least one gas collection groove being formed on one side or both sides of an axis of the compressed gas injection nozzle, characterized in that : an outer ring spacer and an inner ring spacer are disposed in contact with the rolling bearing between the rotary member and the fixed member; and the compressed gas injection nozzle of each said displacement detecting unit is formed in the outer ring spacer, and the gap to be measured is formed between the outer ring spacer and the inner ring spacer. an outer ring spacer and an inner ring spacer are disposed in contact with the rolling bearing between the rotary member and the fixed member; and the compressed gas injection nozzle of each said displacement detecting unit is formed in the outer ring spacer, and the gap to be measured is formed between the outer ring spacer and the inner ring spacer.