mhurhangee/ep-ind-claims huggingface dataset:
A method for a user device comprising a first module for implementing a secure cellular network user device functionality for a secure cellular network, a second module for implementing a functionality for another type of a cellular network and three or more air interfaces comprising a secured cellular air interface of the secure cellular network, usable by the first module, and a cellular air interface of the cellular network, usable by the second module, and one or more further air interfaces providing short range wireless access and being usable by the first module and the second module, the method comprising: sending, by the first module, in response to receiving (202, 303, 6-1), in the user device by the first module, over a secured network connection via the secured cellular air interface, a remote management message to temporarily disable the functionality of the user device in a secure cellular network to where the secured network connection is established, to the second module a command to enter a disabled operation mode; disabling (203, 305, 307, 6-9), by the second module, in response to the command, in the user device one or more air interfaces, that are usable by the second module, said air interfaces including the cellular air interface of the cellular network; setting (203, 305, 307, 6-6), by the user device, in response to the message, user interfaces in the user device off; and allowing (204, 306) control information exchange via the secured cellular air interface with the secure cellular network over the secured network connection. sending, by the first module, in response to receiving (202, 303, 6-1), in the user device by the first module, over a secured network connection via the secured cellular air interface, a remote management message to temporarily disable the functionality of the user device in a secure cellular network to where the secured network connection is established, to the second module a command to enter a disabled operation mode; disabling (203, 305, 307, 6-9), by the second module, in response to the command, in the user device one or more air interfaces, that are usable by the second module, said air interfaces including the cellular air interface of the cellular network; setting (203, 305, 307, 6-6), by the user device, in response to the message, user interfaces in the user device off; and allowing (204, 306) control information exchange via the secured cellular air interface with the secure cellular network over the secured network connection.
An organic-inorganic hybrid perovskite of formula below: [ 1-2.48p-b 3.48p+b] (1+2p-y)/(1+p) (Pb) 1-p-m m (X 1) 3-y-q (X 2) q in which: - A represents a cation chosen from Cs, Rb and a monovalent organic cation comprising an ammonium or carboxamidamidium group, - B represents a monovalent organic cation of formula below: R 1 -(CH 2) z- R 2 in which: - R 2 represents an ammonium or carboxamidamidium group, - z represents 1, 2 or 3, and - R 1 represents -H, -OH, -SH, -CN or a halogen, with the proviso that B is other than A, - X 1 and X 2 represent a halide, with the proviso that X 1 and X 2 are different from each other, - p is a number greater than 0 and less than or equal to 0.30, - b is a number greater than or equal to -0.30 and less than or equal to 0.30, with the proviso that b is greater than -3.48p and is less than (1 - 2.48p), - y represents a number greater than 0 and less than or equal to p, - q represents a number greater than or equal to 0 and less than or equal to (3-y), - M represents a divalent metal cation, and - m represents a number greater than or equal to 0 and less than or equal to (1-p). - A represents a cation chosen from Cs, Rb and a monovalent organic cation comprising an ammonium or carboxamidamidium group, - B represents a monovalent organic cation of formula below: R 1 -(CH 2) z- R 2 in which: - R 2 represents an ammonium or carboxamidamidium group, - z represents 1, 2 or 3, and - R 1 represents -H, -OH, -SH, -CN or a halogen, with the proviso that B is other than A, - X 1 and X 2 represent a halide, with the proviso that X 1 and X 2 are different from each other, - p is a number greater than 0 and less than or equal to 0.30, - b is a number greater than or equal to -0.30 and less than or equal to 0.30, with the proviso that b is greater than -3.48p and is less than (1 - 2.48p), - y represents a number greater than 0 and less than or equal to p, - q represents a number greater than or equal to 0 and less than or equal to (3-y), - M represents a divalent metal cation, and - m represents a number greater than or equal to 0 and less than or equal to (1-p). - R 2 represents an ammonium or carboxamidamidium group, - z represents 1, 2 or 3, and - R 1 represents -H, -OH, -SH, -CN or a halogen, with the proviso that B is other than A, - X 1 and X 2 represent a halide, with the proviso that X 1 and X 2 are different from each other, - p is a number greater than 0 and less than or equal to 0.30, - b is a number greater than or equal to -0.30 and less than or equal to 0.30, with the proviso that b is greater than -3.48p and is less than (1 - 2.48p), - y represents a number greater than 0 and less than or equal to p, - q represents a number greater than or equal to 0 and less than or equal to (3-y), - M represents a divalent metal cation, and - m represents a number greater than or equal to 0 and less than or equal to (1-p).
A slide rack carousel for holding a plurality of glass slide racks for use in a digital slide scanning apparatus, the slide rack carousel comprising: a slide rack carousel base having a lower surface, an upper surface, and an exterior edge which is adjacent to an exterior portion of the upper surface of the slide rack carousel base, wherein the exterior edge of the slide rack carousel base is generally circular from a top view perspective, wherein at least a portion of the upper surface of the slide rack carousel base is angled downward towards a center of the slide rack carousel base, and wherein the angle is at least 1 degree, wherein the upper surface is configured to receive at least one glass slide rack of the plurality of glass slide racks to bias the at least one slide rack towards the center of the slide rack carousel base, and wherein the slide rack carousel base is configured to rotate 360 degrees in at least one direction. a slide rack carousel base having a lower surface, an upper surface, and an exterior edge which is adjacent to an exterior portion of the upper surface of the slide rack carousel base, wherein the exterior edge of the slide rack carousel base is generally circular from a top view perspective, wherein at least a portion of the upper surface of the slide rack carousel base is angled downward towards a center of the slide rack carousel base, and wherein the angle is at least 1 degree, wherein the upper surface is configured to receive at least one glass slide rack of the plurality of glass slide racks to bias the at least one slide rack towards the center of the slide rack carousel base, and wherein the slide rack carousel base is configured to rotate 360 degrees in at least one direction.
System (100, 200) for the internal cleaning of at least one workpiece fluid duct (110, 112, 410, 412) of at least one workpiece (102, 402), arranged in a workpiece application region (114, 414), by means of a process fluid (183, 189, 483, 489), for example cleaning fluid (183, 483) and/or scavenging fluid (189, 489), with a device (160, 460) for conducting at least one process fluid (183, 189, 483, 489) through the workpiece fluid duct (110, 112, 410, 412), which device contains a line system (178, 478) for at least one process fluid (183, 189, 483, 489) and which device has at least one adapter element (162, 420), connectable to the workpiece (102, 402), for feeding process fluid (183, 189, 483, 489) into the workpiece fluid duct (110, 112, 410, 412) and at least one further adapter element (170, 428), connectable to the workpiece (102, 402), for recirculating process fluid (183, 189, 483, 489) out of the workpiece fluid duct (110, 112, 410, 412) into the line system (178, 478), the workpiece fluid duct (110, 112, 410, 412) being connectable to a device (118, 418) for checking the leak-tightness of the at least one workpiece fluid duct (110, 112, 410, 412), characterized in that the device (118, 418) for checking the leak-tightness contains a line system (138, 438) for a fluid test medium (147, 447) and has at least one adapter element (120, 420), connectable to the workpiece (102, 402), for feeding fluid test medium (147, 447) into the at least one workpiece fluid duct (110, 112) and comprises at least one further adapter element (128, 428), connectable to the workpiece (102, 402), for discharge of fluid test medium out of the at least one workpiece fluid duct (110, 112).
An apparatus for dispensing sections of a paper web, comprising a cutting roller for cutting the paper web; and a pressing roller disposed to press the paper web onto said cutting roller, said pressing roller being connected to a drive, and driving said cutting roller via the paper web, characterized in that the driven pressing roller is disposed outlet-sided downstream of the cutting roller, and is shorter than said cutting roller, thereby providing sufficient space for drive elements.
An assembly for adjusting a printhead of a printer, the assembly comprising: a first bracket; a second bracket; a positioning element attached to the second bracket; an adjusting element for engaging the positioning element to adjust the position of the first bracket with respect to the position of the second bracket; characterized in a camshaft rotatably engaging the adjusting element, wherein the adjusting element engages the positioning element to slide the second bracket laterally across the first bracket. a first bracket; a second bracket; a positioning element attached to the second bracket; an adjusting element for engaging the positioning element to adjust the position of the first bracket with respect to the position of the second bracket; characterized in a camshaft rotatably engaging the adjusting element, wherein the adjusting element engages the positioning element to slide the second bracket laterally across the first bracket.
A method for determining transmission power value in a wireless communication system, the method being performed by a user equipment, UE, and comprising the steps of: determining a transmission power value to use for an uplink control channel using an offset value corresponding to a number of antennas to be used for the uplink control channel; and transmitting the uplink control channel with the determined transmission power value. determining a transmission power value to use for an uplink control channel using an offset value corresponding to a number of antennas to be used for the uplink control channel; and transmitting the uplink control channel with the determined transmission power value.
An optical waveguide, comprising: a first optical region and a second optical region for transmitting an image beam, a plate body, a plurality of first light-guiding optical elements, and a plurality of optical coupling-out structures, wherein: the plate body comprises a light-entering side, wherein the first optical region is located between the light-entering side and the second optical region, wherein the plate body comprises a first surface and a second surface opposite to each other, and a light-guiding plane is located between the first surface and the second surface and parallel to the first surface and the second surface; each of the first light-guiding optical elements is a layer disposed on the light-guiding plane in the plate body and is parallel with the light-guiding plane, wherein the light-guiding plane is located in the first optical region, a spacing exists between the adjacent first light-guiding optical elements, the image beam transmitting to the light-guiding plane is separated into a plurality of sub image beams, transmission paths of the sub image beams are at least partially different, and the sub image beams in the first optical region are transmitted via total reflection to the second optical region; and the optical coupling-out structures are disposed in the plate body and are located in the second optical region. the plate body comprises a light-entering side, wherein the first optical region is located between the light-entering side and the second optical region, wherein the plate body comprises a first surface and a second surface opposite to each other, and a light-guiding plane is located between the first surface and the second surface and parallel to the first surface and the second surface; each of the first light-guiding optical elements is a layer disposed on the light-guiding plane in the plate body and is parallel with the light-guiding plane, wherein the light-guiding plane is located in the first optical region, a spacing exists between the adjacent first light-guiding optical elements, the image beam transmitting to the light-guiding plane is separated into a plurality of sub image beams, transmission paths of the sub image beams are at least partially different, and the sub image beams in the first optical region are transmitted via total reflection to the second optical region; and the optical coupling-out structures are disposed in the plate body and are located in the second optical region.
Ventilation vent for a ventilation system of a motor vehicle for directed air flow, which flows in a flow direction, to a passenger compartment of the motor vehicle, the vent comprising a housing and a panel device having a first panel portion and a second panel portion, a slot-shaped air gap being formed between the first panel portion and the second panel portion, and comprising a first air-guiding lamella having a first front lamella end in the flow direction and a first rear lamella end, the first air-guiding lamella being held about a first pivot axis so as to be pivotable relative to the panel device, a lamella width of the first air-guiding lamella extending in parallel with the air gap, the first air-guiding lamella being aligned in front of the first panel portion in the flow direction, the ventilation vent comprising a second air-guiding lamella having a second front lamella end in the flow direction and a second rear lamella end, the second air-guiding lamella being held about a second pivot axis so as to be pivotable relative to the panel device, a lamella width of the second air-guiding lamella extending in parallel with the air gap, the second air-guiding lamella being aligned in front of the second panel portion in the flow direction, and the first air-guiding lamella and the second air-guiding lamella being mechanically coupled to one another such that pivoting of the first air-guiding lamella causes pivoting of the second air-guiding lamella, characterized in that a first shielding lamella is arranged on the first front lamella end, which first shielding lamella extends in a direction facing away from the air gap and is designed to shield a lamella side of the first air-guiding lamella facing away from the air gap from the air flow, the first shielding lamella being curved, and a radius of curvature of the curvature of the first shielding lamella being defined by the first pivot axis.
An assembly that is configured to be coupled to and communicate with a 3D printer having a printer head, the assembly comprising: a color-application unit positionable upstream of the 3D printer, the color application unit configured to receive a filament and direct the filament to the printer head of the 3D printer, wherein the filament includes a first filament portion and a second filament portion, the first filament portion defining an interior surface of the filament; a color applicator coupled to the color-application unit, the color applicator operable to selectively apply color to the interior surface of the filament; and a coupler positioned downstream of the color applicator and configured to join the first filament portion to the second filament portion to form the filament. a color-application unit positionable upstream of the 3D printer, the color application unit configured to receive a filament and direct the filament to the printer head of the 3D printer, wherein the filament includes a first filament portion and a second filament portion, the first filament portion defining an interior surface of the filament; a color applicator coupled to the color-application unit, the color applicator operable to selectively apply color to the interior surface of the filament; and a coupler positioned downstream of the color applicator and configured to join the first filament portion to the second filament portion to form the filament.
Method of processing an initial digital image I IN (p) made up of pixels (p), said method comprising at least the following successive steps: Step 1: calculating the logarithm of the initial image in order to obtain a first intermediate image Log(I IN (p)); Step 2: filtering said first intermediate image using a low-frequency filter in order to obtain a second intermediate image BF(p); Step 3: determining the value of the minimum intensity (Min BF) and the value of the maximum intensity (Max BF) in the low-frequency image obtained in the previous step; Step 4: calculating a third intermediate image Log(I OUT (p)) using the following linear combination: Log I OUT p = Log I IN p − BF p. K 1. BF p + K 2 + K 3. BF p + K 4 K1, K2, K3 and K4 being constants dependent upon the difference between the value of the maximum intensity (Max BF) and the value of the minimum intensity (Min BF) or the value of the minimum intensity (Min BF); Step 5: calculating the final image I OUT (p) by applying the exponential function to the third intermediate image Log(I OUT (p)). Step 1: calculating the logarithm of the initial image in order to obtain a first intermediate image Log(I IN (p)); Step 2: filtering said first intermediate image using a low-frequency filter in order to obtain a second intermediate image BF(p); Step 3: determining the value of the minimum intensity (Min BF) and the value of the maximum intensity (Max BF) in the low-frequency image obtained in the previous step; Step 4: calculating a third intermediate image Log(I OUT (p)) using the following linear combination: Log I OUT p = Log I IN p − BF p. K 1. BF p + K 2 + K 3. BF p + K 4 K1, K2, K3 and K4 being constants dependent upon the difference between the value of the maximum intensity (Max BF) and the value of the minimum intensity (Min BF) or the value of the minimum intensity (Min BF); Step 5: calculating the final image I OUT (p) by applying the exponential function to the third intermediate image Log(I OUT (p)).
A holder comprising two parallel holding profiles (5, 6) spaced from each other which can be mounted on a space limiting structure (3, 4) by means of at least two anchoring brackets and which serve for holding a fire protection pane, wherein the anchoring brackets are screwed or welded to the one holding profile and serve as positioning means for the second holding profile, characterized by at least two other brackets designed as locking brackets and arranged on one of the two holding profiles (5, 6) in a pivoting manner, which brackets can be locked with and unlocked from the other holding profile.
A process comprising: (a) introducing a feed stream comprising para-xylene into a reaction zone of an initial oxidation reactor, wherein said feed stream has one or more of the following characteristics- (i) contains meta-xylene in an amount in the range of from 20 to 800 parts per million by weight of said para-xylene (ppmw px), (ii) contains ortho-xylene in an amount in the range of from 10 to 300 ppmw px, (iii) contains meta-xylene, orthoxylene, ethylbenzene, and toluene, in combination, in an amount in the range of from 50 to 900 ppmw px; and (b) oxidizing at least a portion of said para-xylene in a liquid phase of a multi-phase reaction medium contained in said reaction zone. (a) introducing a feed stream comprising para-xylene into a reaction zone of an initial oxidation reactor, wherein said feed stream has one or more of the following characteristics- (i) contains meta-xylene in an amount in the range of from 20 to 800 parts per million by weight of said para-xylene (ppmw px), (ii) contains ortho-xylene in an amount in the range of from 10 to 300 ppmw px, (iii) contains meta-xylene, orthoxylene, ethylbenzene, and toluene, in combination, in an amount in the range of from 50 to 900 ppmw px; and (i) contains meta-xylene in an amount in the range of from 20 to 800 parts per million by weight of said para-xylene (ppmw px), (ii) contains ortho-xylene in an amount in the range of from 10 to 300 ppmw px, (iii) contains meta-xylene, orthoxylene, ethylbenzene, and toluene, in combination, in an amount in the range of from 50 to 900 ppmw px; and (b) oxidizing at least a portion of said para-xylene in a liquid phase of a multi-phase reaction medium contained in said reaction zone.
An apparatus for solidifying a polar substance, in particular water, the apparatus comprising a) a container, said container comprising i) a supply volume for containing the polar substance in liquid form, ii) an evaporation volume for retaining evaporated substance from the supply volume, iii) a hydrophobic condensation surface located within the evaporation volume, b) means for cooling the hydrophobic condensation surface to a temperature T cond below a solidification temperature T solid of the polar substance, c) means for removing solidified polar substance from the container, in particular from the supply volume of the container, characterized in that d) the hydrophobic condensation surface is oleophilic, preferably super-oleophilic. a) a container, said container comprising i) a supply volume for containing the polar substance in liquid form, ii) an evaporation volume for retaining evaporated substance from the supply volume, iii) a hydrophobic condensation surface located within the evaporation volume, i) a supply volume for containing the polar substance in liquid form, ii) an evaporation volume for retaining evaporated substance from the supply volume, iii) a hydrophobic condensation surface located within the evaporation volume, b) means for cooling the hydrophobic condensation surface to a temperature T cond below a solidification temperature T solid of the polar substance, c) means for removing solidified polar substance from the container, in particular from the supply volume of the container, characterized in that d) the hydrophobic condensation surface is oleophilic, preferably super-oleophilic.
A medical insertion apparatus comprising: - a screw nail body; and - an electrode surrounded by the screw nail body and having an exposed portion, wherein the exposed portion is exposed outside the screw nail body, - wherein the screw nail body has a through hole therein; - wherein the through hole extends from a first end of the screw nail body to a second end of the screw nail body along a longitudinal direction of the screw nail body; - wherein the exposed portion of the electrode is located at the second end of the screw nail body; and - wherein the electrode is detachably attached to the screw nail body; characterized in that - the electrode is adapted to be inserted through the second end of the screw nail body and is adapted to be screw-coupled with the screw nail body. - a screw nail body; and - an electrode surrounded by the screw nail body and having an exposed portion, wherein the exposed portion is exposed outside the screw nail body, - wherein the screw nail body has a through hole therein; - wherein the through hole extends from a first end of the screw nail body to a second end of the screw nail body along a longitudinal direction of the screw nail body; - wherein the exposed portion of the electrode is located at the second end of the screw nail body; and - wherein the electrode is detachably attached to the screw nail body; - the electrode is adapted to be inserted through the second end of the screw nail body and is adapted to be screw-coupled with the screw nail body.