mhurhangee/patent-ind-claim-en huggingface dataset:
Aerated food composition having a continuous fat phase, the composition comprising between 20 and 60 wt.% of fat and between 40 and 80 wt.% of non-fat solids having a particle size distribution D90 of less than 250 μm, as measured by laser light scattering, the fat comprising a high-melting fat, a medium-melting fat, and a low-melting fat, wherein the aerated composition comprises, on a total fat basis, less than 50 wt.% of saturated fatty acids, between 9 and 60 wt.% of monounsaturated fatty acid, and less than 30 wt.% of polyunsaturated fatty acid, and wherein the high-melting fat has a melting point between 35 °C and 80 °C, the medium-melting fat has a melting point between 15 °C and 30 °C and the low-melting fat has a melting point between -50 °C and 5 °C and the aerated food composition is prepared by a method comprising the steps: providing a composition comprising the non-fat solids and the fat, the continuous fat phase comprised within the composition being liquid; letting the composition perform a first crystallization event; aerating the composition; and controlling the temperature of the aerated composition to allow a second crystallization event in the composition. between 20 and 60 wt.% of fat and between 40 and 80 wt.% of non-fat solids having a particle size distribution D90 of less than 250 μm, as measured by laser light scattering, the fat comprising a high-melting fat, a medium-melting fat, and a low-melting fat, wherein the aerated composition comprises, on a total fat basis, less than 50 wt.% of saturated fatty acids, between 9 and 60 wt.% of monounsaturated fatty acid, and less than 30 wt.% of polyunsaturated fatty acid, and wherein the high-melting fat has a melting point between 35 °C and 80 °C, the medium-melting fat has a melting point between 15 °C and 30 °C and the low-melting fat has a melting point between -50 °C and 5 °C and the aerated food composition is prepared by a method comprising the steps: providing a composition comprising the non-fat solids and the fat, the continuous fat phase comprised within the composition being liquid; letting the composition perform a first crystallization event; aerating the composition; and controlling the temperature of the aerated composition to allow a second crystallization event in the composition. providing a composition comprising the non-fat solids and the fat, the continuous fat phase comprised within the composition being liquid; letting the composition perform a first crystallization event; aerating the composition; and controlling the temperature of the aerated composition to allow a second crystallization event in the composition.
A printing head module for being disposed above a base of a 3-D printing apparatus to print a 3-D object , comprising: a 3-D print head , comprising a melting module and a base-material nozzle to melt and print a 3-D printing base material on the base to form a plurality of stacking layers ; an ink-jet print head , connected to the 3-D print head , wherein the ink-jet print head comprises an ink nozzle to dispense an ink on each of the stacking layers to form a plurality of ink layers ; and characterized in that the print head module comprises : a baking module , whereby the baking module is disposed between the 3-D print head and the ink-jet print head and comprising: a fan module , comprising an air-discharge side facing the base to provide an air flow (A2); a discharge casing , disposed on the air-discharge side ; and a heating module , disposed between the fan module and the discharge casing to heat the air flow (A2), and the air flow (A2) heated by the heating module being discharged via the discharge casing to bake and dry each of the ink layers on each of the stacking layers . a 3-D print head , comprising a melting module and a base-material nozzle to melt and print a 3-D printing base material on the base to form a plurality of stacking layers ; an ink-jet print head , connected to the 3-D print head , wherein the ink-jet print head comprises an ink nozzle to dispense an ink on each of the stacking layers to form a plurality of ink layers ; and characterized in that the print head module comprises : a baking module , whereby the baking module is disposed between the 3-D print head and the ink-jet print head and comprising: a fan module , comprising an air-discharge side facing the base to provide an air flow (A2); a discharge casing , disposed on the air-discharge side ; and a heating module , disposed between the fan module and the discharge casing to heat the air flow (A2), and the air flow (A2) heated by the heating module being discharged via the discharge casing to bake and dry each of the ink layers on each of the stacking layers . a fan module , comprising an air-discharge side facing the base to provide an air flow (A2); a discharge casing , disposed on the air-discharge side ; and a heating module , disposed between the fan module and the discharge casing to heat the air flow (A2), and the air flow (A2) heated by the heating module being discharged via the discharge casing to bake and dry each of the ink layers on each of the stacking layers .
A method comprising: receiving, by a computing system, infrared, IR, image data of an inner surface of a lens of a head-mountable device , HMD, wherein the image data is captured while the inner surface of the lens is illuminated with infrared light; detecting, by the computing system, in the IR image data of the inner surface of the lens, a reflection of an eye area on the inner surface of the lens ; detecting, by the computing system, in the IR image data of the inner surface of the lens , a variable IR interaction pattern of the lens , wherein the IR interaction pattern forms an IR-detectable machine readable code; determining, by the computing system, a lens that corresponds to the detected variable IR interaction pattern ; calibrating, by the computing system, an eye-analysis process based on the determined lens; and after calibrating the eye-analysis process, applying the eye-analysis process to the reflection of the eye area to determine position and/or orientation data corresponding to an eye or whether the eye is open or closed. receiving, by a computing system, infrared, IR, image data of an inner surface of a lens of a head-mountable device , HMD, wherein the image data is captured while the inner surface of the lens is illuminated with infrared light; detecting, by the computing system, in the IR image data of the inner surface of the lens, a reflection of an eye area on the inner surface of the lens ; detecting, by the computing system, in the IR image data of the inner surface of the lens , a variable IR interaction pattern of the lens , wherein the IR interaction pattern forms an IR-detectable machine readable code; determining, by the computing system, a lens that corresponds to the detected variable IR interaction pattern ; calibrating, by the computing system, an eye-analysis process based on the determined lens; and after calibrating the eye-analysis process, applying the eye-analysis process to the reflection of the eye area to determine position and/or orientation data corresponding to an eye or whether the eye is open or closed.
A phase plug for a loudspeaker having a driven diaphragm , the phase plug comprising a surface which in use is disposed adjacent to the diaphragm , said surface comprising an annular surface which is generally planar, and lies in two orthogonal directions, a third orthogonal direction defining an axis (X) which is parallel to the axis along which the diaphragm is, in use, driven, wherein at least a portion of the said annular surface comprises concave depressions formed in the annular surface of the phase plug and/or undulations formed in the annular surface of the phase plug , said undulations protruding from a general plane of the annular surface in either or both directions in the direction of the axis (X) and extending around the annular surface , such that, as successive radial cross-sections through said annular surface are generated by rotating a plane about the axis (X), said annular surface has a periodically varying shaped surface which varies periodically for successive cross-sections as the angle of rotation increases.
A stretching apparatus for manufacturing a separator, comprising: a first stretching machine including three or more rolls (R11-R16), wherein first unit sections (S11-S16) having different stretching ratios are formed between two rolls (R11-R16) that rotate at different speeds and are adjacent to each other; and a second stretching machine arranged in parallel with the first stretching machine, the second stretching machine including three or more rolls (R21-R26), wherein second unit sections (S21-S26) having different stretching ratios are formed between two rolls (R21-R26) of the second stretching machine that rotate at different speeds and are adjacent to each other, wherein an overall stretching ratio of the first stretching machine and an overall stretching ratio of the second stretching machine are the same, and wherein at least one stretching ratio of the first unit section (S11-S16) and at least one stretching ratio of the second unit section (S21-S26) are different from each other. a first stretching machine including three or more rolls (R11-R16), wherein first unit sections (S11-S16) having different stretching ratios are formed between two rolls (R11-R16) that rotate at different speeds and are adjacent to each other; and a second stretching machine arranged in parallel with the first stretching machine, the second stretching machine including three or more rolls (R21-R26), wherein second unit sections (S21-S26) having different stretching ratios are formed between two rolls (R21-R26) of the second stretching machine that rotate at different speeds and are adjacent to each other, wherein an overall stretching ratio of the first stretching machine and an overall stretching ratio of the second stretching machine are the same, and wherein at least one stretching ratio of the first unit section (S11-S16) and at least one stretching ratio of the second unit section (S21-S26) are different from each other.
A small cell, wherein the small cell comprises: a first communications module , configured to perform , on a first beam pair, high frequency data communication with user equipment; a first sending module , configured to: when it is determined that the user equipment enters a dead zone state, send a synchronization indication signal to the user equipment, wherein the synchronization indication signal comprises at least quick synchronization indication information and user equipment information, and the user equipment information comprises user ID information, beam ID information of a beam pair, and cell ID information; a second sending module , configured to send , on a specified high frequency resource, a synchronization signal to the user equipment; and a second communications module , configured to: when receiving synchronization confirmation information of the user equipment, perform , on a second beam pair, the high frequency data communication with the user equipment according to second beam pair information in the synchronization confirmation information, wherein the second beam pair is a beam pair that has a greatest reference signal received power and that is obtained by the user equipment by performing measurement in a current synchronization process. a first communications module , configured to perform , on a first beam pair, high frequency data communication with user equipment; a first sending module , configured to: when it is determined that the user equipment enters a dead zone state, send a synchronization indication signal to the user equipment, wherein the synchronization indication signal comprises at least quick synchronization indication information and user equipment information, and the user equipment information comprises user ID information, beam ID information of a beam pair, and cell ID information; a second sending module , configured to send , on a specified high frequency resource, a synchronization signal to the user equipment; and a second communications module , configured to: when receiving synchronization confirmation information of the user equipment, perform , on a second beam pair, the high frequency data communication with the user equipment according to second beam pair information in the synchronization confirmation information, wherein the second beam pair is a beam pair that has a greatest reference signal received power and that is obtained by the user equipment by performing measurement in a current synchronization process.
Bogie for a rail vehicle, in particular configured as a driven bogie, having at least two wheelsets with wheels and a wheelset axle , a frame with at least two longitudinal carriers and at least one crossmember , and first primary suspension means suitable for suspending the wheelsets with respect to the frame, and wheelset bearings which mount the wheelsets in the frame, the longitudinal carriers being configured in each case as a self-supporting housing , by which the respective wheelset bearings of the two wheelsets are enclosed, at least one, preferably at least one per wheelset , of the first primary suspension means being configured in such a way that drive torque can be transmitted via it during operation, characterized in that the respective first primary suspension means are likewise enclosed by the self-supporting housing and in that the first primary suspension means are arranged within the respective wheelset bearings as viewed radially.
Method for controlling a railway vehicle , comprising the following steps: - moving the railway vehicle forward, wherein the railway vehicle is driven by a traction system , and - reception , by a control system of the railway vehicle , of a stop command defining an extreme stop position (Pa) located in front of the railway vehicle , characterized in that the method also comprises the following steps: - determination of a traction inhibition zone extending behind the extreme stop position (Pa), the terms in front of and behind being understood with respect to the direction of circulation of the vehicle , and - activation of a traction inhibition module preventing the traction system from driving the railway vehicle forward when the railway vehicle is in the traction inhibition zone. - moving the railway vehicle forward, wherein the railway vehicle is driven by a traction system , and - reception , by a control system of the railway vehicle , of a stop command defining an extreme stop position (Pa) located in front of the railway vehicle , - determination of a traction inhibition zone extending behind the extreme stop position (Pa), the terms in front of and behind being understood with respect to the direction of circulation of the vehicle , and - activation of a traction inhibition module preventing the traction system from driving the railway vehicle forward when the railway vehicle is in the traction inhibition zone.
Transmitter for Continuous Variable Quantum Key Distribution, CV-QKD, the transmitter comprising a signal generation unit configured to generate at least one CV-QKD signal and at least one reference signal having different frequencies and the same amplitude, wherein the signal generation unit includes a digital-to-analog converter, DAC, configured to generate the at least one CV-QKD signal and the at least one reference signal in an electrical domain of the transmitter , an amplitude modification element configured to reduce the amplitude of the at least one CV-QKD signal , wherein the amplitude modification element is configured to reduce the amplitude of the at least one CV-QKD signal in the electrical domain of the transmitter , and a signal transmission unit configured to optically transmit the at least one CV-QKD signal and the at least one reference signal , wherein the optical transmission unit includes an electro-optic modulator configured to convert the at least one CV-QKD signal and the at least one reference signal from the electrical domain into an optical domain of the transmitter . a signal generation unit configured to generate at least one CV-QKD signal and at least one reference signal having different frequencies and the same amplitude, wherein the signal generation unit includes a digital-to-analog converter, DAC, configured to generate the at least one CV-QKD signal and the at least one reference signal in an electrical domain of the transmitter , an amplitude modification element configured to reduce the amplitude of the at least one CV-QKD signal , wherein the amplitude modification element is configured to reduce the amplitude of the at least one CV-QKD signal in the electrical domain of the transmitter , and a signal transmission unit configured to optically transmit the at least one CV-QKD signal and the at least one reference signal , wherein the optical transmission unit includes an electro-optic modulator configured to convert the at least one CV-QKD signal and the at least one reference signal from the electrical domain into an optical domain of the transmitter .
A method for recovering hydrocarbons from a subterranean formation comprising at least one upper layer and at least one lower layer , the permeability of the upper layer being higher than the permeability of the lower layer ; the method comprising the steps of: - injecting a polymer solution , containing a polymer, into the upper layer ; - injecting an aqueous solution into the lower layer , the aqueous solution having a lower salinity than the polymer solution ; and - collecting hydrocarbons displaced by the injected polymer solution and/or the injected aqueous solution . - injecting a polymer solution , containing a polymer, into the upper layer ; - injecting an aqueous solution into the lower layer , the aqueous solution having a lower salinity than the polymer solution ; and - collecting hydrocarbons displaced by the injected polymer solution and/or the injected aqueous solution .
Installation box for electrical installation, wherein the box comprises a layer made of an electrically insulating plastics material, wherein said layer comprises openings for introducing cables and/or ductwork, and wherein a layer of flexible material is furthermore attached to the outside surface of the layer, wherein the flexible material covers at least said openings , wherein the flexible material is a substance having a material composition that comprises at least one intumescent material, characterised in that the flexible material comprises a material component of flexible material, and a material component of intumescent material, wherein cables or ductwork can be pushed through the flexible material. wherein the box comprises a layer made of an electrically insulating plastics material, wherein said layer comprises openings for introducing cables and/or ductwork, and wherein a layer of flexible material is furthermore attached to the outside surface of the layer, wherein the flexible material covers at least said openings , wherein the flexible material is a substance having a material composition that comprises at least one intumescent material, characterised in that the flexible material comprises a material component of flexible material, and a material component of intumescent material, wherein cables or ductwork can be pushed through the flexible material.
A method for improving the fireproofing performance of a potential burning damage area of a vehicle body by simulating calculation, characterized by the steps of : determining the potential burning damage area of the vehicle body; calculating a deformation amount of the vehicle body given that a predetermined high temperature load is exerted on the potential burning damage area; and on the basis of the deformation amount of the vehicle body, judging whether a space between a underbody suspension parts and rail surface satisfies traveling capability requirements at a safe speed after the deformation of the vehicle body; if not, performing fireproofing treatment on the potential burning damage area of the vehicle body, the manner of the performing fireproofing treatment to the potential burning damage area of the vehicle body comprises: sticking non-metal fireproof material of heat expansion onto the potential burning damage area of the vehicle body to restrain the deformation of the vehicle body arising from temperature rise of a fire, and the travelling capability requirements at a safe speed is to travel at a speed of 40km/h for 15 minutes. determining the potential burning damage area of the vehicle body; calculating a deformation amount of the vehicle body given that a predetermined high temperature load is exerted on the potential burning damage area; and on the basis of the deformation amount of the vehicle body, judging whether a space between a underbody suspension parts and rail surface satisfies traveling capability requirements at a safe speed after the deformation of the vehicle body; if not, performing fireproofing treatment on the potential burning damage area of the vehicle body, the manner of the performing fireproofing treatment to the potential burning damage area of the vehicle body comprises: sticking non-metal fireproof material of heat expansion onto the potential burning damage area of the vehicle body to restrain the deformation of the vehicle body arising from temperature rise of a fire, and the travelling capability requirements at a safe speed is to travel at a speed of 40km/h for 15 minutes.
Light source arrangement for use in an illumination apparatus of a medical-optical device, said illumination apparatus having an illumination light source and an illumination optical unit for illuminating an observation object with illumination light from the illumination light source , wherein the light source arrangement comprises at least one luminescence emitter as a primary light source, wherein the luminescence emitter is a light emitting diode, wherein the light source arrangement comprises an imaging optical unit , which generates an image of the at least one luminescence emitter with a defined magnification scale, said image forming the illumination light source for the illumination apparatus, characterized in that the image of the at least one luminescence emitter is formed with a magnification scale in the range of between 1.5x and 2.5x.