mhurhangee/ep-ind-claims huggingface dataset:
Seal arrangement, comprising a space which is to be sealed and is filled at least partially with a medium to be sealed, and a machine element which is to be sealed and is configured as an axle or a shaft, with a face which is to be sealed and is enclosed by a sealing ring in a bearing manner and by a filter ring made from filter fleece, the filter ring being assigned in an adjacent manner at an axial spacing to the sealing ring on the side which faces the space to be sealed, characterized in that the filter ring encloses the face to be sealed of the machine element to be sealed at a radial spacing of ≤ 1 mm.
Method for determining foreign gases in ethylene with a degree of purity up to greater than 99%, wherein a sample of the ethylene in a measuring cell is irradiated with light, the wavelength of the light is varied in order to scan selected absorption lines of the foreign gases acetylene, carbon dioxide, carbon monoxide and ammonia in a wavelength-dependent manner, the light is detected after passing through the sample, and the concentrations of the foreign gases are determined on the basis of the wavelength-specific absorption of the light at the points of the scanned absorption lines, - wherein the light is generated in four wavelength ranges with the aid of four tunable lasers (16, 17, 18), of which the first wavelength range contains the wavelength of an absorption line selected from the the first wavelength range the wavelength of a from the acetylene absorption lines at 3.02575 μm, 3.0223 μm, 3.0099 μm or 7.423 μm for scanning purposes, - the second wavelength range contains the wavelength of an absorption line selected from the carbon dioxide absorption lines at 4.2347 μm, 4.2396 μm, 4.23225 μm or 4.2875 μm for scanning purposes, - the third wavelength range contains the wavelength of an absorption line selected from the carbon monoxide absorption lines at 4.61 μm, 4.58765 μm or 4.74515 μm for scanning purposes and - the fourth wavelength range contains the wavelength of an absorption line selected from the ammonia absorption lines at 6.1496 μm, 6.4046 μm, 6.4066 μm or 6.18425 μm for scanning purposes, and wherein with the aid of the four tunable lasers (16, 17, 18) the light is generated in the time multiplex or simultaneously and is in the process modulated individually. - wherein the light is generated in four wavelength ranges with the aid of four tunable lasers (16, 17, 18), of which the first wavelength range contains the wavelength of an absorption line selected from the the first wavelength range the wavelength of a from the acetylene absorption lines at 3.02575 μm, 3.0223 μm, 3.0099 μm or 7.423 μm for scanning purposes, - the second wavelength range contains the wavelength of an absorption line selected from the carbon dioxide absorption lines at 4.2347 μm, 4.2396 μm, 4.23225 μm or 4.2875 μm for scanning purposes, - the third wavelength range contains the wavelength of an absorption line selected from the carbon monoxide absorption lines at 4.61 μm, 4.58765 μm or 4.74515 μm for scanning purposes and - the fourth wavelength range contains the wavelength of an absorption line selected from the ammonia absorption lines at 6.1496 μm, 6.4046 μm, 6.4066 μm or 6.18425 μm for scanning purposes,
A dihydroorotic acid dehydrogenase inhibitor for use in a method of immunosuppression or for use in a method of treating rheumatism, cancer, graft rejection in organ transplantation, diabetes, viral diseases, or Helicobacter pylori (H. pylori) -induced diseases, wherein the dihydroorotic acid dehydrogenase inhibitor comprises, as an active ingredient(s), one or two or more of compounds, optical isomers thereof and pharmaceutically acceptable salts thereof, as well as a pharmaceutically acceptable carrier, wherein the compounds are selected from the group consisting of: and
A piezoelectric/electrostrictive element (1, 1') comprising a piezoelectric/electrostrictive body (30, 30', 30") made of a piezoelectric/electrostrictive ceramic composition containing Pb(Ni 1/3 Nb 2/3)O 3 -PbTiO 3 -PbZrO 3 ternary solid solution system composition as a main component, and an electrode (10, 10') disposed on the piezoelectric/electrostrictive body, characterized in that the ternary solid solution system composition is represented by the following composition formula: (Pb 1-x Sr x)αSr x)α{Ti 1- y) a (Ni β/3 Nb 2/3) b (Al γ/2 Nb 1/2) c}O 3 (where 0.005≤x≤0.03, 0.45≤y≤0.54, 0.58≤a≤0.91,0.07≤b≤0.36, 0.02≤c≤0.08, 0.97≤α≤1.03, 0.97≤β≤1.03, 0.97≤γ≤1.03, and (a+b+c=1.000)).
A wind turbine system, comprising: a blade (104, 106) comprising an airfoil; a sensing device (110, 112, 114, 116, 118) disposed on a surface of the airfoil, wherein the sensing device (110, 112, 114, 116, 118) generates signals that are representative of pressure deflection on the surface of the airfoil; a processing subsystem that is operable to: receive location details of the sensing device (110, 112, 114, 116, 118) and a transfer function corresponding to the airfoil, wherein the transfer function is a function which gives an angle of attack on the surface of the airfoil based upon the location of a stagnation point; determine a location of a stagnation point on the surface of the airfoil based upon the signals and the location details; determine an angle of attack on the surface of the airfoil in real-time based upon the location of the stagnation point and the transfer function; and control the blade (104, 106) based upon the angle of attack. a blade (104, 106) comprising an airfoil; a sensing device (110, 112, 114, 116, 118) disposed on a surface of the airfoil, wherein the sensing device (110, 112, 114, 116, 118) generates signals that are representative of pressure deflection on the surface of the airfoil; a processing subsystem that is operable to: receive location details of the sensing device (110, 112, 114, 116, 118) and a transfer function corresponding to the airfoil, wherein the transfer function is a function which gives an angle of attack on the surface of the airfoil based upon the location of a stagnation point; determine a location of a stagnation point on the surface of the airfoil based upon the signals and the location details; determine an angle of attack on the surface of the airfoil in real-time based upon the location of the stagnation point and the transfer function; and control the blade (104, 106) based upon the angle of attack. receive location details of the sensing device (110, 112, 114, 116, 118) and a transfer function corresponding to the airfoil, wherein the transfer function is a function which gives an angle of attack on the surface of the airfoil based upon the location of a stagnation point; determine a location of a stagnation point on the surface of the airfoil based upon the signals and the location details; determine an angle of attack on the surface of the airfoil in real-time based upon the location of the stagnation point and the transfer function; and control the blade (104, 106) based upon the angle of attack.
Brake disc with a friction ring (101a, 101b) which consists at least in part of a first material, and a brake pot which consists at least in part of a second material which is different from the first material, the friction ring (101a, 101b) having a collar (201, 202, 203) which is configured in the axial direction, and the collar (201, 202, 203) being connected by means of at least one connecting element to an edge of the brake pot, which edge is directed axially towards the friction ring (101a, 101b), the edge and/or the collar being of planar configuration at least in the region (201, 302) of the at least one connecting element, and the edge and/or the collar being configured in a circular manner with a partially curved shell face, and the shell face being of planar configuration at least in the region (201, 302) which is in contact with the connecting element.
An electronic assembly for an electronic device, said electronic assembly comprising several runtime environments at least one of which is called trusted environment and at least another of which is called versatile environment, the trusted environment being implemented using a secure processor that can be a processor dedicated to this task or have other functions, and a secure rewritable non-volatile memory, and based on a trusted operating system, the versatile runtime environment being based on a versatile operating system, allowing to run applications of various origins such as the internet, and comprising: a module for recognizing a security anomaly of the versatile operating system; and a module for deactivating, in response to said recognition, at least one secure function of said electronic device used by applications of the versatile operating system; said deactivation, however, allowing the use of said electronic device in a degraded mode, said electronic assembly being characterized in that these two modules are run under the dependence of the trusted operating system, said trusted operating system and said versatile operating system being stored in a memory of said electronic assembly running on said electronic assembly, said at least one secure function being: an application (APP 0, APP 1, APP 2) of a secure element, run by said electronic device; or a function for accessing at least one sensitive data of a secure element, for example cryptographic keys, said sensitive data being accessible by said electronic device. a module for recognizing a security anomaly of the versatile operating system; and a module for deactivating, in response to said recognition, at least one secure function of said electronic device used by applications of the versatile operating system; said deactivation, however, allowing the use of said electronic device in a degraded mode, said electronic assembly being characterized in that these two modules are run under the dependence of the trusted operating system, said trusted operating system and said versatile operating system being stored in a memory of said electronic assembly running on said electronic assembly, said at least one secure function being: an application (APP 0, APP 1, APP 2) of a secure element, run by said electronic device; or a function for accessing at least one sensitive data of a secure element, for example cryptographic keys, said sensitive data being accessible by said electronic device. an application (APP 0, APP 1, APP 2) of a secure element, run by said electronic device; or a function for accessing at least one sensitive data of a secure element, for example cryptographic keys, said sensitive data being accessible by said electronic device.
An electric vehicle supply equipment, comprising: a plurality of first power supply modules (112, 114, 116) electrically coupled to each other in series at output, and configured to provide a charging current (Ic) and a charging voltage (Vc) to charge an electric vehicle; and a control circuit configured to output at least one first voltage control signal (CS V) to control at least one of the first power supply modules to be operated in a constant voltage mode; characterized in that the control circuit is configured to output a first current control signal (CS_I) to control the other one of the first power supply modules to be operated in a constant current mode, wherein the charging current provided by the other one of the first power supply modules operated in the constant current mode is controlled by the first current control signal (CS_I) outputted from the control circuit, and an output voltage of the at least one of the first power supply modules operated in the constant voltage mode is controlled by the at least one first voltage control signal from the control circuit, wherein the first current control signal (CS_I) includes a current command value to identify a target current value to serve as a constant current remained by the other one of the first power supply modules operated in the constant current mode, and the at least one first voltage control signal (CS_V) includes a voltage command value to identify a target voltage value to serve as a constant voltage remained by the at least one of the first power supply modules operated in the constant voltage mode. a plurality of first power supply modules (112, 114, 116) electrically coupled to each other in series at output, and configured to provide a charging current (Ic) and a charging voltage (Vc) to charge an electric vehicle; and a control circuit configured to output at least one first voltage control signal (CS V) to control at least one of the first power supply modules to be operated in a constant voltage mode; characterized in that the control circuit is configured to output a first current control signal (CS_I) to control the other one of the first power supply modules to be operated in a constant current mode, wherein the charging current provided by the other one of the first power supply modules operated in the constant current mode is controlled by the first current control signal (CS_I) outputted from the control circuit, and an output voltage of the at least one of the first power supply modules operated in the constant voltage mode is controlled by the at least one first voltage control signal from the control circuit, wherein the first current control signal (CS_I) includes a current command value to identify a target current value to serve as a constant current remained by the other one of the first power supply modules operated in the constant current mode, and the at least one first voltage control signal (CS_V) includes a voltage command value to identify a target voltage value to serve as a constant voltage remained by the at least one of the first power supply modules operated in the constant voltage mode.
A mechanically activated stretch laminate comprising: a first substrate; an elastic film attached to the first substrate via an adhesive such that the first substrate is attached to the elastic film on a face of the film; at least one tack down region disposed proximate to an end of the stretch laminate; and characterized in that it comprises an activation region disposed interior of the tack down region, and that the adhesive in the activation region includes a plurality of stripes having a distance between adjacent stripes and each stripe having a stripe width, wherein a ratio of the stripe width to the distance between adjacent stripes in a portion of the activation region is less than about 1 and greater than 0.33. a first substrate; an elastic film attached to the first substrate via an adhesive such that the first substrate is attached to the elastic film on a face of the film; at least one tack down region disposed proximate to an end of the stretch laminate; and characterized in that it comprises an activation region disposed interior of the tack down region, and that the adhesive in the activation region includes a plurality of stripes having a distance between adjacent stripes and each stripe having a stripe width, wherein a ratio of the stripe width to the distance between adjacent stripes in a portion of the activation region is less than about 1 and greater than 0.33.
Process to prepare an aviation fuel and an automotive gas oil from a source of mineral derived gas oil, wherein from the mineral derived gas oil a low boiling fraction is isolated for use as an aviation fuel or as an aviation fuel component and wherein the remaining part of the mineral derived gas oil is blended with a Fischer-Tropsch derived kerosene fraction and/or a Fischer-Tropsch derived gas oil fraction to obtain a blend suited for use as at least part of an automotive gas oil, wherein the low boiling fraction boils for more than 90 vol% at from 130 to 300°C, has a density from 775 to 840 kg/m 3, an initial boiling point in the range 130 to 160°C and a final boiling point in the range 220 to 300°C.
A sensor arrangement comprising a sensor and an image control, the sensor comprising an array of electrostatic sensor elements (3, 30), each sensor element capable of producing a respective output signal when the sensor is directed to a region of an object being sensed, the output signals being separately available at the sensor output to provide information relating to the electrostatic charge distribution across the region, the image control receiving the output signals from each or selected electrostatic sensor elements to define an electrostatic charge distribution image, the sensor arrangement characterised in that within the array of sensor elements a visual image camera is provided to provide a visual image and the image control receives image signals from the visual image camera to define the visual image, the image control including a mixer to receive the electrostatic charge distribution image and the visual image, either as a full frame or part frame, and the mixer combining the electrostatic charge distribution image and the visual image by proportionate overlay defined by a predetermined relative ratio specified by the image control.
An improved fodder-dispensing device, of the type used to dispense fodder for livestock, formed by a powered carriage adaptable to means for moving over the surface whereon said feeding takes place, which comprises, on the rear part in the direction of travel of the carriage, an unwinding zone having a first clearing surface (2.1) whereon a first cylindrical fodder bale is disposed and, on the front part, a bale deposit zone having a second inclined deposit surface (3.1), suitable for at least one additional bale, wherein this bale deposit zone is tiltable over the unwinding zone, wherein said unwinding zone comprises means for impelling the first bale towards the end of the carriage, said end having an opening wherethrough the unwound bale exits, whose height is defined by a series of blades that rotate about a horizontal point simultaneously with the action of the impelling means and, in their movement, push the bale towards the front part of the unwinding zone, causing the rotation and unwinding of the bale, characterised in that it comprises at least a first tilting storage and unloading platform (11, 12) disposed above the first clearing surface (2.1) or the second inclined surface (3.1) of the deposit zone, at a height being greater than that of the diameter of the bales disposed on said surfaces respectively and wherein said at least one tilting platform (11, 12) has a first end (11.1, 12.1) for unloading the bales to the powered carriage and a second, opposite end (11.2, 12.2) for retaining the bales, as well as securing means and tilting means of said at least one tilting platform (11, 12).
A security inspection system having - a luggage loading region for loading luggage of a person into at least one load carrier, - a luggage inspection station for an imaging examination of the luggage, - a luggage retrieval region with at least one buffer for multiple load carriers loaded with luggage, wherein each buffer is paired with a plurality of removal stations (6a, 6b, 6c) and a providing system for transferring a load carrier loaded with luggage from the buffer to one of the removal stations (6a, 6b, 6c), and - a transport system (8, 8') for transporting the load carriers loaded with luggage from the luggage loading region to the luggage retrieval region via the luggage inspection station and for transporting back empty load carriers to the luggage loading region, characterized in that the providing system - regardless of the order in which the load carriers have been introduced into the buffer - is designed to transfer each load carrier loaded with luggage located in the buffer in any order to each of the corresponding removal stations (6a, 6b, 6c). - a luggage loading region for loading luggage of a person into at least one load carrier, - a luggage inspection station for an imaging examination of the luggage, - a luggage retrieval region with at least one buffer for multiple load carriers loaded with luggage, wherein each buffer is paired with a plurality of removal stations (6a, 6b, 6c) and a providing system for transferring a load carrier loaded with luggage from the buffer to one of the removal stations (6a, 6b, 6c), and - a transport system (8, 8') for transporting the load carriers loaded with luggage from the luggage loading region to the luggage retrieval region via the luggage inspection station and for transporting back empty load carriers to the luggage loading region,
An aerosol-generating article for producing an inhalable aerosol upon heating, the aerosol-generating article comprising, in linear sequential arrangement: a first plug of filtration material; a rod of aerosol-generating substrate, wherein the rod of the aerosol-generating substrate is located immediately downstream of the first plug of filtration material and comprises at least 12 percent by weight of an aerosol former, and wherein the rod of aerosol-generating substrate has a length of from 5 millimetres to 50 millimetres; a hollow tube segment with a support function and comprising fibrous filtration material, the hollow tube segment located immediately downstream of the rod and in longitudinal alignment with the rod; a second plug of filtration material located downstream of the hollow tube segment; and an outer wrapper circumscribing the first plug, the rod, the support element, and the second plug; wherein the fibrous filtration material comprises fibres comprising a polyhydroxyalkanoate polymer or copolymer, the hollow tube segment comprising at least about 25 percent by weight of the PHA polymer or copolymer. a first plug of filtration material; a rod of aerosol-generating substrate, wherein the rod of the aerosol-generating substrate is located immediately downstream of the first plug of filtration material and comprises at least 12 percent by weight of an aerosol former, and wherein the rod of aerosol-generating substrate has a length of from 5 millimetres to 50 millimetres; a hollow tube segment with a support function and comprising fibrous filtration material, the hollow tube segment located immediately downstream of the rod and in longitudinal alignment with the rod; a second plug of filtration material located downstream of the hollow tube segment; and an outer wrapper circumscribing the first plug, the rod, the support element, and the second plug;