mhurhangee/ep-ind-claims huggingface dataset:
A method for filling a first interpane space of an insulating glass unit with multiple insulating gases, said method comprising: inserting a first gas filling tube into the first interpane space of the insulating glass unit for filling the first interpane space with the multiple gases; providing a control unit with gas filling data for determining the respective amounts of each of said multiple insulating gases to fill said first interpane space; using said control unit to sequentially control a flow of each of said multiple insulating gases to the first gas filling tube, wherein said flow of each of said multiple insulating gases is controlled by the control unit to provide the respective amount of each of said multiple insulating gases according to the gas filling data; removing the first gas filling tube from the first interpane space; and sealing the first interpane space. inserting a first gas filling tube into the first interpane space of the insulating glass unit for filling the first interpane space with the multiple gases; providing a control unit with gas filling data for determining the respective amounts of each of said multiple insulating gases to fill said first interpane space; using said control unit to sequentially control a flow of each of said multiple insulating gases to the first gas filling tube, wherein said flow of each of said multiple insulating gases is controlled by the control unit to provide the respective amount of each of said multiple insulating gases according to the gas filling data; removing the first gas filling tube from the first interpane space; and sealing the first interpane space.
A process of preparing a gelled food concentrate, said concentrate comprising: a 45-80% by weight of water; b 22.5-35% by weight of edible salt based on water, said edible salt being selected from sodium chloride, potassium chloride and combinations thereof; c type A gelatine having a bloom strength of at least 80; d non-gelling hydrolysed gelatine having a bloom strength of 0 and a molecular weight in the range of 10,000 to 40,000 g/mol; e at least 0.1 % by weight of taste imparting ingredients based on water, said taste imparting ingredients being selected from sugars, edible acids and glutamate; wherein the combination of water, the edible salt, the type A gelatine, the non-gelling hydrolysed gelatine, and the taste imparting ingredients constitutes at least 70 wt.% of the gelled food concentrate; and wherein the process comprises combining 100 parts by weight of water with X parts by weight of the type A gelatine and Y parts by weight of the non-gelling hydrolysed gelatine, wherein: • 4.0 ≤ X · B f ≤ 18 • 0.7 ≤ Y ≤ 43 • X · B f + Y ≥ 17.5 • B f = < B > 250 and B f ≥ 0.78 and • < B > is the average bloom strength of the type A gelatine. a 45-80% by weight of water; b 22.5-35% by weight of edible salt based on water, said edible salt being selected from sodium chloride, potassium chloride and combinations thereof; c type A gelatine having a bloom strength of at least 80; d non-gelling hydrolysed gelatine having a bloom strength of 0 and a molecular weight in the range of 10,000 to 40,000 g/mol; e at least 0.1 % by weight of taste imparting ingredients based on water, said taste imparting ingredients being selected from sugars, edible acids and glutamate; • 4.0 ≤ X · B f ≤ 18 • 0.7 ≤ Y ≤ 43 • X · B f + Y ≥ 17.5 • B f = < B > 250 and B f ≥ 0.78 and • < B > is the average bloom strength of the type A gelatine.
Monitoring system for monitoring and setting at least one air parameter in a room, the monitoring system comprising a fume extraction device, a sensor, at least one monitoring unit, which is provided separately from the sensor and is connected to the sensor via a wireless communications link of a communications network, and at least one mobile terminal device of the communications network, characterised in that the fume extraction device comprises at least the one sensor for acquiring the at least one air parameter and at least one wireless communications interface for communication with the at least one mobile terminal device of the communications network so that at least sensor data from the at least one sensor can be transmitted from the fume extraction device to the part of the monitoring unit which is provided in the mobile terminal device in the form of an application, said part serving for outputting and further processing monitoring results, for activating warning mechanisms and/or for actuating home automation devices.
An emedastine-containing tape preparation comprising: a support film, and a pressure-sensitive adhesive layer laminated on the support film, wherein the pressure-sensitive adhesive layer comprises emedastine, a fumarate salt of an organic amine, and a pressure-sensitive adhesive. wherein the organic amine comprises an organic amine selected from the group consisting of monoethanolamine, diethanolamine, triethanolamine, monoisopropanolamine, and polyethyleneimine. a support film, and a pressure-sensitive adhesive layer laminated on the support film, wherein the pressure-sensitive adhesive layer comprises emedastine, a fumarate salt of an organic amine, and a pressure-sensitive adhesive. wherein the organic amine comprises an organic amine selected from the group consisting of monoethanolamine, diethanolamine, triethanolamine, monoisopropanolamine, and polyethyleneimine.
A workpiece-holding unit for installation on machining centers for connecting rods, comprising: - a crosspiece, which is adapted to be rotatably supported about its axis in front of a machining head of the machining center and has internal, hydraulic longitudinal ducts (M1-M8), which communicate with respective hydraulic outlets (M1'-M8') on the main faces (26, 28, 30, 32) of the crosspiece and are connected to hydraulic feed means, and - at least one workpiece-holding tool, which is installable on one of said main faces of the crosspiece and is provided with positioning mechanisms (283a, 292, 306, 310) and locking mechanisms (268, 324, 326) for at least one connecting rod, which are hydraulically operated via respective hydraulic lines (298-304, 320, 322 and 368, 370) leading at positions aligned to said hydraulic outlets (M1', M8'), each of said workpiece-holding tool being adapted to support two connecting rods arranged side-by-side on respective bases (270, 272), and said locking mechanisms comprising a support provided with two locking members (330, 332) counterposed to said bases (270, 272) and operatively connected to a hydraulic cylinder (326, 360, 362) for clamping said connecting rods between said locking members (330, 332) and said bases (270, 272), a first one of said bases having a first support surface arranged to support a respective connecting rod near its small end, and a second one of said bases having two support surfaces (272a, 272b) arranged to support the connecting rod at its big end at diametral opposite sides, and in that each of said locking members (330, 332) is hinged at a middle position to the support and is provided at its opposite ends with respective lower projections (338a, 338b) counteposed to support surfaces (272a, 272b) of second base, said support having a middle arm projecting from the middle in a T-shaped configuration, the free end of which swingingly lies on a pole. - a crosspiece, which is adapted to be rotatably supported about its axis in front of a machining head of the machining center and has internal, hydraulic longitudinal ducts (M1-M8), which communicate with respective hydraulic outlets (M1'-M8') on the main faces (26, 28, 30, 32) of the crosspiece and are connected to hydraulic feed means, and - at least one workpiece-holding tool, which is installable on one of said main faces of the crosspiece and is provided with positioning mechanisms (283a, 292, 306, 310) and locking mechanisms (268, 324, 326) for at least one connecting rod, which are hydraulically operated via respective hydraulic lines (298-304, 320, 322 and 368, 370) leading at positions aligned to said hydraulic outlets (M1', M8'),
Method for co-extruding an elongated food product comprising the following steps: a) providing a food dough; b) providing a viscous gelling agent comprising collagen; c) co-extruding a strand of food dough and an external layer of viscous gelling agent, wherein the viscous gelling agent at least partially encloses the strand of food dough; and d) performing at least one subsequent processing step, wherein the collagen is in the helical and/or crystalline form, characterised in that the method comprises the steps of: i) measuring the product characteristics including the pH, salt concentration and/or salt type of the viscous gelling agent provided in step b); ii) predicting the physical state transition point of the viscous gelling agent provided in step b) based on the product characteristics measured in step i); and iii) controlling the physical state of the collagen in step d) by balancing the pH, salt concentration and temperature to prevent conversion of the collagen into a collagen having a randomly coiled form. a) providing a food dough; b) providing a viscous gelling agent comprising collagen; c) co-extruding a strand of food dough and an external layer of viscous gelling agent, wherein the viscous gelling agent at least partially encloses the strand of food dough; and d) performing at least one subsequent processing step, i) measuring the product characteristics including the pH, salt concentration and/or salt type of the viscous gelling agent provided in step b); ii) predicting the physical state transition point of the viscous gelling agent provided in step b) based on the product characteristics measured in step i); and iii) controlling the physical state of the collagen in step d) by balancing the pH, salt concentration and temperature to prevent conversion of the collagen into a collagen having a randomly coiled form.
A vehicle comprising: - a chassis which has a longitudinal axis and which is supported by wheels (3, 4); - a cab mounted on the chassis, the cab including two side walls; - a wind deflecting assembly comprising at least two side deflector panels, each side deflector panel having a front edge linked to a rear portion of the corresponding side wall of the cab and a rear edge, and extending vertically over at least part of the height of the rear portion of the corresponding side wall of the cab; - a camera monitoring system, which includes a camera arranged on a supporting arm mounted on the cab, to provide a captured image of an area located rearward of the cab; characterized in that the vehicle further comprises at least one lighting device which is mounted on a side deflector panel and which includes at least one IR emitting light source. - a chassis which has a longitudinal axis and which is supported by wheels (3, 4); - a cab mounted on the chassis, the cab including two side walls; - a wind deflecting assembly comprising at least two side deflector panels, each side deflector panel having a front edge linked to a rear portion of the corresponding side wall of the cab and a rear edge, and extending vertically over at least part of the height of the rear portion of the corresponding side wall of the cab; - a camera monitoring system, which includes a camera arranged on a supporting arm mounted on the cab, to provide a captured image of an area located rearward of the cab;
A pharmaceutical agent for use in treating inner ear hearing impairment, resulting from apoptosis, comprising, as an active ingredient, a rapamycin derivative represented by the following formula II or a pharmaceutically acceptable salt thereof, wherein R 1 is a C 1 - 6 alkyl or a C 3 - 6 alkynyl, R 2 is H, -CH2-OH or -CH 2 -CH 2 -OH, and X is =O, (H, H) or (H, OH), wherein the inner ear hearing impairment resulting from apoptosis is caused by Pendred syndrome.
A device for mounting a vehicle attendant seat in a cabin of a vehicle, comprising: - a retaining body with a top edge, a bottom edge and a pivoting edge, - a receiving device for a vehicle attendant seat, which receiving device is arranged on the retaining body, - at least one pivoting means affixed to the pivoting edge of the retaining body, - at least one first locking means and - at least one elongated rail on which the at least one pivoting means is slidably held, which rail is connectable to a wall surface in the cabin of the vehicle, wherein external contours of the retaining body span a plane, and wherein the receiving device is arranged on a surface of the retaining body, which surface extends parallel to the plane, and is designed to mechanically connect the vehicle attendant seat to the retaining body. - a retaining body with a top edge, a bottom edge and a pivoting edge, - a receiving device for a vehicle attendant seat, which receiving device is arranged on the retaining body, - at least one pivoting means affixed to the pivoting edge of the retaining body, - at least one first locking means and - at least one elongated rail on which the at least one pivoting means is slidably held, which rail is connectable to a wall surface in the cabin of the vehicle,
A motor vehicle washing system washing brush construction, comprising a plurality of washing brush elements associated with a support tube, each said washing brush element comprising a plate body so die-cut as to form thereon a plurality of cuts providing a corresponding plurality of contoured strips joined by a central band element, characterized in that said central band element is wound on said support tube as to arrange said contoured strip on both sides of said central band element, with a pair of ring elements (6, 7) being threaded on said support tube, on both sides of said washing brush element to clamp said central band element so as to move the support tube contoured strips away from one another and cause opposite strips to move to one another, by pairs, thereby arranging said opposite strips with a substantially 90° relationship with respect to a tube axis.
Switching layer S for use in a switching element, where the switching layer S has at least two switching states and comprises - an upper switching layer plane USLP and a lower switching layer plane LSLP, and, arranged between USLP and LSLP, - a liquid-crystalline medium, where, in one of the switching states, parallel light rays which hit the upper switching layer plane USLP in the directions of incidence D= are deflected out of D= on passing through the switching layer S, so that, after leaving the lower switching layer plane LSLP, the originally parallel light rays are scattered in the forwards-scattering directions D < away from the lower switching layer plane LSLP and are thus scattered forwards, resulting in forwards scattering, which is measured as diffusive transmission T d, where T d is > 20%, and where T d is defined in accordance with the formula T d = I ≥ 2,5 ° / I tot ⋅ 100 % in which I ≥ 2.5° denotes the intensity of the large-angle scattering with scattering angles ≥ 2.5° and I tot denotes the intensity of the total transmission, characterised in that the liquid-crystalline medium does not include a polymer component, comprises a chiral dopant and has a clearing point of > 90°C. - an upper switching layer plane USLP and a lower switching layer plane LSLP, and, arranged between USLP and LSLP, - a liquid-crystalline medium, I ≥ 2.5° denotes the intensity of the large-angle scattering with scattering angles ≥ 2.5° and I tot denotes the intensity of the total transmission, characterised in that the liquid-crystalline medium does not include a polymer component, comprises a chiral dopant and has a clearing point of > 90°C.
Method for identifying the magnetic anisotropy of an electric rotating field machine, comprising a rotor and a stator, the rotating field machine being driven by clocked terminal voltages using the pulse width modulation method and the current of the rotating field machine being measured cyclically, the fundamental-wave voltage being superimposed by a periodic injection voltage, and the current inductance and/or admittance of the rotating field machine is calculated from the applied voltage and the measured current, with the purpose of determining the current rotor position, characterized in that the period of the injection voltage is shorter than twice the cycle time of the current measurement.
A method for generating information, comprising: receiving (S101, S301, S401) a point cloud of a target scenario, and displaying a point cloud frame in the point cloud, wherein the target scenario refers to a scenario in a real physical world, and the point cloud includes at least one point cloud frame, the point cloud frame including a plurality of pieces of point data, the point data including three-dimensional coordinates and laser reflection intensity; receiving (S102, S302, S402) region selection information inputted by a user, the region selection information being sent by the user based on the displayed point cloud frame; processing point data in a target region corresponding to the region selection information by deletion, modification, or substitution to obtain a processed point cloud, wherein environmental change of the real physical environment is simulated by the processing; and sending (S104, S306, S405) the processed point cloud to a test vehicle, the processed point cloud being used for generation of positioning information. receiving (S101, S301, S401) a point cloud of a target scenario, and displaying a point cloud frame in the point cloud, wherein the target scenario refers to a scenario in a real physical world, and the point cloud includes at least one point cloud frame, the point cloud frame including a plurality of pieces of point data, the point data including three-dimensional coordinates and laser reflection intensity; receiving (S102, S302, S402) region selection information inputted by a user, the region selection information being sent by the user based on the displayed point cloud frame; processing point data in a target region corresponding to the region selection information by deletion, modification, or substitution to obtain a processed point cloud, wherein environmental change of the real physical environment is simulated by the processing; and sending (S104, S306, S405) the processed point cloud to a test vehicle, the processed point cloud being used for generation of positioning information.
A sealant liquid container for repairing an inflatable article, preferably a tyre, comprising a casing (3, 4, 6) defining an inner volume for a sealant liquid, a first inlet port for the inlet of a pressurized gas into the inner volume, an outlet port for injection of the sealant liquid following pressurization of the inlet port, a closing unit which can be configured between a closing position in which the sealant liquid is retained in the inner volume and an opening position reached following pressurization of the inlet port in which the inlet port and the outlet port are connected by means of the inner volume, characterized in that it comprises a second inlet port connected to the outlet port parallel to the first inlet port and a duct for connecting the second inlet port to the outlet port and surrounded by the inner volume.
A controller (101,102) for a High Voltage Direct Current, HVDC, system, the HVDC system comprising two stations (S1, S2) between which power is conducted via a pair of conductors (110; 120) connected between converters (111, 112, 121, 122) acting as rectifiers (111, 121) and inverters (112, 122) and a Dedicated Metallic Return, DMR, conductor or an Electrode Line, EL, installed between the neutral points of the stations (S1, S2), wherein the controller (101,102) comprises a converter firing controller controlled by a control subsystem and configured to output valve firing pulses according to a converter firing control sequence to the converters (111, 112, 121, 122) to generate a balanced current flow in the conductors (110; 120), characterized in that: - the control subsystem is configured to alter the converter firing control sequence generated by the firing controller such as to introduce unbalance of current flow in the DMR conductor or EL; and - the controller (101, 102) further comprises a fault locator configured to locate faults by measuring the current flowing in the DMR conductor or EL. - the control subsystem is configured to alter the converter firing control sequence generated by the firing controller such as to introduce unbalance of current flow in the DMR conductor or EL; and - the controller (101, 102) further comprises a fault locator configured to locate faults by measuring the current flowing in the DMR conductor or EL.
A process for making a patterned wavelength-selective film comprising: providing a substrate comprising an adhesive surface; providing a wavelength-selective film; applying a barrier at a second region and between the adhesive surface of the substrate and the wavelength-selective film separating the wavelength-selective film from the adhesive surface at the second region; securing the wavelength-selective film to the adhesive surface at a first region, apart from the second region; characterised in that the process further comprises removing portions of the wavelength-selective film from the second region to form patterned portions of the wavelength-selective film on the substrate at the first region. providing a substrate comprising an adhesive surface; providing a wavelength-selective film; applying a barrier at a second region and between the adhesive surface of the substrate and the wavelength-selective film separating the wavelength-selective film from the adhesive surface at the second region; securing the wavelength-selective film to the adhesive surface at a first region, apart from the second region; characterised in that the process further comprises removing portions of the wavelength-selective film from the second region to form patterned portions of the wavelength-selective film on the substrate at the first region.