mhurhangee/ep-ind-claims huggingface dataset:
A method for additive manufacturing an optical element (708,808) formed of layers (710,810), the method comprising: positioning a diffuser (736, 850) between a light source and a light polymerizable liquid, wherein the diffuser (736, 850) is in contact with the light polymerizable liquid; wherein the light polymerizable liquid is a UV light polymerizable resin (706, 806); and for each of the layers (710, 810) of the optical element (708,808), shining a pattern of light from the light source through the diffuser (736, 850) onto the light polymerizable liquid to homogeneously polymerize the layer (710, 810) wherein the light (740,840) impinging on the UV light polymerizable resin from the light source is changed from directional to non-directional wherein the resin (706,806) is in contact with a transparent portion (732, 850) of a tank (702,802) in which the resin (706, 806) is contained, said transparent portion (732, 850) is between the light source and a support (704, 804) for the optical element (708, 808) so that the light (740, 840) from the light source passes through the transparent portion (732, 850) to polymerize the resin (706, 806). positioning a diffuser (736, 850) between a light source and a light polymerizable liquid, wherein the diffuser (736, 850) is in contact with the light polymerizable liquid; wherein the light polymerizable liquid is a UV light polymerizable resin (706, 806); and for each of the layers (710, 810) of the optical element (708,808), shining a pattern of light from the light source through the diffuser (736, 850) onto the light polymerizable liquid to homogeneously polymerize the layer (710, 810) wherein the light (740,840) impinging on the UV light polymerizable resin from the light source is changed from directional to non-directional wherein the resin (706,806) is in contact with a transparent portion (732, 850) of a tank (702,802) in which the resin (706, 806) is contained, said transparent portion (732, 850) is between the light source and a support (704, 804) for the optical element (708, 808) so that the light (740, 840) from the light source passes through the transparent portion (732, 850) to polymerize the resin (706, 806).
Packing tool (102; 202; 302) of a sheet metal flank (104; 204; 304) including: - a matrix (106; 206, 306) with a hollow central portion (108; 208; 308) and one peripheral portion (110; 210; 310); - a punch (112; 212; 312) able to cooperate with the hollow portion of the matrix in order to grab the sheet flane; - a glasshouse arranged laterally at the punch and cooperating with the peripheral portion of the matrix to form a restraint zone (116, 116'; 216; 316) of the sheet metal flane; characterized as the sheet flane restraint area includes a clamping subzone (118; 218; 318) of the said sheet metal flane and at least one guidance sub-area (120,120'; 220; 320,320') without tightening of the said flan placed outside the clamping sub-area in relation to the hollow portion and punch, the guiding sub-area(s) (120,120'; 220; 320,320') comprising an outer part of constant height and an inner part adjacent to the tightening subzone, the inner part being of decreasing height (H') by approaching the said tightening subzone, the constant height "H" at the level of the outer part of the guidance subzone being equal to the distance between the matrix and the clamp at the level of the clamping subzone when the cutter tightens the sheet flane on the matrix, plus a set between 0.2mm and 1mm, preferably a set between 0.3mm and 0.7mm, and the inner part of the subzone(s) guidance includes surfaces facing the matrix and the flan greenhouse inclined by an angle (excl. 3°), preferably by less than 1.5°, more preferably by less than 1°. - a matrix (106; 206, 306) with a hollow central portion (108; 208; 308) and one peripheral portion (110; 210; 310); - a punch (112; 212; 312) able to cooperate with the hollow portion of the matrix in order to grab the sheet flane; - a glasshouse arranged laterally at the punch and cooperating with the peripheral portion of the matrix to form a restraint zone (116, 116'; 216; 316) of the sheet metal flane;
A method comprising facilitating a processing of and/or processing data and/or information and/or at least one signal, the data and/or information and/or at least one signal based, at least in part, on the following: at least one determination of contextual information for at least one first device and at least one second device, wherein the contextual information is based at least in part on proximity of the at least one first device and the at least one second device; a processing of the contextual information to determine one or more functions to deactivate at the at least one first device; an activation of the one or more functions at the at least one second device when the at least one first device and the at least one second device are getting apart beyond a predetermined distance; a transfer of the one or more functions from the at least one first device to the at least one second device; and a deactivation of the one or more functions at the at least one first device. at least one determination of contextual information for at least one first device and at least one second device, wherein the contextual information is based at least in part on proximity of the at least one first device and the at least one second device; a processing of the contextual information to determine one or more functions to deactivate at the at least one first device; an activation of the one or more functions at the at least one second device when the at least one first device and the at least one second device are getting apart beyond a predetermined distance; a transfer of the one or more functions from the at least one first device to the at least one second device; and a deactivation of the one or more functions at the at least one first device.
A variable vane assembly, comprising: a trunnion of a variable vane; an elastomeric bushing bonded to the trunnion; and an outer bushing bonded to the elastomeric bushing; characterised in that: the inner elastomeric bushing and the outer bushing are configured to rotate together with the variable vane, and the outer bushing, the inner elastomeric bushing, and the trunnion each have a cylindrical cross-section. a trunnion of a variable vane; an elastomeric bushing bonded to the trunnion; and an outer bushing bonded to the elastomeric bushing; characterised in that: the inner elastomeric bushing and the outer bushing are configured to rotate together with the variable vane, and the outer bushing, the inner elastomeric bushing, and the trunnion each have a cylindrical cross-section.
A method for providing a voice service at an access point, AP, in a wireless local area network, WLAN, the method comprising: detecting a change in a total number of voice calls; if the change in the total number of voice calls is detected, determining a channel status based on the total number of voice calls, an amount of data traffic of the AP, and a wireless channel usage of the AP; if the determined channel status is a first status, determining a first setting of enhanced distributed channel access, EDCA, parameters for increasing a service quality of the voice calls; if the determined channel status is a second status, determining a second setting of the EDCA parameters for increasing a throughput of a data service while maintaining service quality of the voice calls; transmitting information related to the EDCA parameters set based on the determined first setting or the determined second setting; and providing a voice service by applying the EDCA parameters. detecting a change in a total number of voice calls; if the change in the total number of voice calls is detected, determining a channel status based on the total number of voice calls, an amount of data traffic of the AP, and a wireless channel usage of the AP; if the determined channel status is a first status, determining a first setting of enhanced distributed channel access, EDCA, parameters for increasing a service quality of the voice calls; if the determined channel status is a second status, determining a second setting of the EDCA parameters for increasing a throughput of a data service while maintaining service quality of the voice calls; transmitting information related to the EDCA parameters set based on the determined first setting or the determined second setting; and providing a voice service by applying the EDCA parameters.
A laser processing method of irradiating a substrate having a front face formed with a laminate part including a plurality of functional devices with laser light while locating a light-converging point within the substrate so as to form a modified region to become a start point for cutting within the substrate along a line to cut of the substrate, wherein the substrate is a semiconductor substrate made of silicon, the method comprising the steps of: forming a first modified region along the line to cut at a position where a distance between the front face and the end part of the first modified region on the front face side is 5 μm to 15 μm; and forming at least one row of a second modified region along the line to cut at a position between the first modified region and a rear face of the substrate, wherein the first and second modified regions include a molten processed region, characterized by bonding a protective tape to the object so as to cover the laminate part, and fixing the object such that the rear face of the substrate faces up, then irradiating the substrate with the laser light so as to form the modified region while using the rear face as a laser light entrance surface, after forming the first modified region and the at least one row of the second modified region, bonding an expandable tape to the rear face, and after peeling off the protective tape, expanding the expandable tape so as to start fractures from the modified regions, thereby cutting the substrate and laminate part along the line to cut, wherein the light-converging point of the laser light is located at a position distanced by 50 μm to [(the substrate thickness) x 0.9] μm from the rear face or located at a position distanced by 20 μm to 110 μm from the rear face when forming the second modified region. forming a first modified region along the line to cut at a position where a distance between the front face and the end part of the first modified region on the front face side is 5 μm to 15 μm; and forming at least one row of a second modified region along the line to cut at a position between the first modified region and a rear face of the substrate, wherein the first and second modified regions include a molten processed region, characterized by bonding a protective tape to the object so as to cover the laminate part, and fixing the object such that the rear face of the substrate faces up, then irradiating the substrate with the laser light so as to form the modified region while using the rear face as a laser light entrance surface, after forming the first modified region and the at least one row of the second modified region, bonding an expandable tape to the rear face, and after peeling off the protective tape, expanding the expandable tape so as to start fractures from the modified regions, thereby cutting the substrate and laminate part along the line to cut, wherein the light-converging point of the laser light is located at a position distanced by 50 μm to [(the substrate thickness) x 0.9] μm from the rear face or located at a position distanced by 20 μm to 110 μm from the rear face when forming the second modified region.
An isolated non-coding RNA (ncRNA) wherein the non-coding RNA is a non-coding RNA (ncRNA) released by an in vivo pathogen of an animal, and the non-coding RNA sequence is shown in SEQ ID NO.: 1.
A powered assembly, comprising: - at least one object that can be moved between a first configuration and a second configuration, the object being selected from the group consisting of window coverings, awnings, skylight coverings, curtains, and screens; - at least one motor (32; 50; 60); - at least one actuator coupled to the motor and the object to move the object when the motor is energized; and - at least first and second magnets (46, 48; 52; 56, 58; 62) juxtaposed with a rotating member and magnetically coupled thereto, the first magnet being oriented with its north pole toward the rotating member and the second magnet being oriented with its south pole toward the rotating member, the powered assembly being characterized in that the magnets are mounted on a housing of the motor and the magnets are positioned side by side each other on the housing of the motor. - at least one object that can be moved between a first configuration and a second configuration, the object being selected from the group consisting of window coverings, awnings, skylight coverings, curtains, and screens; - at least one motor (32; 50; 60); - at least one actuator coupled to the motor and the object to move the object when the motor is energized; and - at least first and second magnets (46, 48; 52; 56, 58; 62) juxtaposed with a rotating member and magnetically coupled thereto, the first magnet being oriented with its north pole toward the rotating member and the second magnet being oriented with its south pole toward the rotating member,
A process for preparation of a liquid organomagnesium precursor having formula {Mg(OR')X}.a{MgX 2}.b{Mg(OR') 2}.c{R'OH}, wherein R' is selected from a hydrocarbon group, X is selected from a halide group and a:b:c is in range of 0.1-99.8: 0.1-99.8: 0.1-99.8, said process comprising contacting a magnesium source with an organohalide and an alcohol in a solvent to form the organomagnesium precursor, wherein the liquid organomagnesium precursor is synthesized through a single step; wherein the magnesium source is reacted with the organohalide in a molar ratio between 1:20 to 1:0.2 and the magnesium source along with organohalide is reacted with the alcohol in a molar ratio between 1:20 to 1:0.2.
Hydrostatic radial piston machine, comprising lobes (6a, 6b) arranged in a circumferential direction on a cam body, wherein pistons (14, 14a, 14b) are movable relative to the cam body and are guided in cylinder holes, which are arranged in a cylinder block radially or in a star-shaped manner, wherein the lobes (6a, 6b) are divided into an active group and at least one switchable group in order to realize at least two displacement modes of the radial piston machine, characterized in that each piston (14, 14a, 14b) is individually pullable into the cylinder block by magnetic force and can be kept there in a retained position when the assigned cylinder hole is in operative connection with a lobe of the switchable group.
A vehicle radar system (3, 3', 3") comprising a radar front end which comprises transmitting means arranged for generating and transmitting sweep signals, and also receiveing means arranged for receiving reflected signals, the vehicle radar system (3, 3', 3") further comprising a plurality of Analog to Digital Converters (9, 10, 11, 12), ADCs, which are arranged to convert the received signals to a digital form and to transfer the converted digital signals to a first Digital Signal Processor, DSP, and a second DSP, where the vehicle radar system (3, 3', 3") further comprises a microcontroller unit, MCU, characterized in that the MCU is arranged to control the DSPs (18, 19) such that for one time frame, n, the first DSP is configured to function as a Master DSP and the second DSP is configured to function as a Slave DSP, and such that for the next time frame, n+1, the first DSP is configured to function as a Slave DSP and the second DSP is configured to function as a Master DSP, where, for each time frame, the Slave DSP is arranged to pre-process Fast Fourier Transform, FFT, data and to transfer said pre-processed FFT data to the Master DSP, which Master DSP is arranged to perform raw target calculations by means of the received pre-processed FFT data, where the MCU further is arranged to compare the raw target data from the first DSP and from the second DSP and, based on such comparisons, to determine a degree of functionality for the DSPs (18, 19).
A laser module, comprising: a base comprising a first and second plurality of stepped height platforms (a - g, h - n); a plurality of laser sources, wherein a laser source is secured on each one of the first and second plurality of stepped platforms, each of the plurality of laser sources being configured to emit radiation in a first direction; a first plurality of reflectors, wherein each of the first plurality of reflectors is secured on one of the first plurality of stepped platforms (a - g) to receive radiation from the laser source located on the same one of the first plurality of stepped platforms (a - g) and to reflect the radiation in a second direction perpendicular to the first direction, wherein each of the first plurality of reflectors is located in a first plane; a second plurality of reflectors, wherein each of the second plurality of reflectors is secured on one of the second plurality of stepped platforms (h - n) to receive radiation from the laser source located on the same one of the second plurality of stepped platforms (h - n) and to reflect the radiation in a third direction that is generally opposite the second direction, wherein each of the second plurality of reflectors is located in a second plane, the second plane being a greater distance from the plurality of laser sources than the first plane; and an optical combiner that is configured to combine the radiation of the plurality of laser sources into a single beam that can be inputted on an optical fiber. a base comprising a first and second plurality of stepped height platforms (a - g, h - n); a plurality of laser sources, wherein a laser source is secured on each one of the first and second plurality of stepped platforms, each of the plurality of laser sources being configured to emit radiation in a first direction; a first plurality of reflectors, wherein each of the first plurality of reflectors is secured on one of the first plurality of stepped platforms (a - g) to receive radiation from the laser source located on the same one of the first plurality of stepped platforms (a - g) and to reflect the radiation in a second direction perpendicular to the first direction, wherein each of the first plurality of reflectors is located in a first plane; a second plurality of reflectors, wherein each of the second plurality of reflectors is secured on one of the second plurality of stepped platforms (h - n) to receive radiation from the laser source located on the same one of the second plurality of stepped platforms (h - n) and to reflect the radiation in a third direction that is generally opposite the second direction, wherein each of the second plurality of reflectors is located in a second plane, the second plane being a greater distance from the plurality of laser sources than the first plane; and an optical combiner that is configured to combine the radiation of the plurality of laser sources into a single beam that can be inputted on an optical fiber.
A drug infusion system (10, 60) comprising: a first infusion pump including a first processor and a first input device in operable communication with the first processor; and a second infusion pump including a second processor and a second input device in operable communication with the second processor, wherein either one of the first infusion pump or the second infusion pump can be designated as a master infusion pump such that the respective first or second processor of the master infusion pump (i) enables an operator to make a selection using the respective first or second input device, the selection specifying a preprogrammed combination of a plurality of drugs to be delivered to a patient using the first and second infusion pumps, the preprogrammed combination including a timed delivery start for each of the plurality of drugs such that the relationship between the time delivery starts of the plurality of drugs is specified, and (ii) commands the first infusion pump to deliver one or more drug of the combination to the patient and the second infusion pump to deliver one or more drug of the combination to the patient. a first infusion pump including a first processor and a first input device in operable communication with the first processor; and a second infusion pump including a second processor and a second input device in operable communication with the second processor, wherein either one of the first infusion pump or the second infusion pump can be designated as a master infusion pump such that the respective first or second processor of the master infusion pump (i) enables an operator to make a selection using the respective first or second input device, the selection specifying a preprogrammed combination of a plurality of drugs to be delivered to a patient using the first and second infusion pumps, the preprogrammed combination including a timed delivery start for each of the plurality of drugs such that the relationship between the time delivery starts of the plurality of drugs is specified, and (ii) commands the first infusion pump to deliver one or more drug of the combination to the patient and the second infusion pump to deliver one or more drug of the combination to the patient. (i) enables an operator to make a selection using the respective first or second input device, the selection specifying a preprogrammed combination of a plurality of drugs to be delivered to a patient using the first and second infusion pumps, the preprogrammed combination including a timed delivery start for each of the plurality of drugs such that the relationship between the time delivery starts of the plurality of drugs is specified, and (ii) commands the first infusion pump to deliver one or more drug of the combination to the patient and the second infusion pump to deliver one or more drug of the combination to the patient.
Apparatus for devolatilizing solvent-containing polycarbonate melts, characterized in that a flash devolatilizer is combined with a vented extruder, said flash devolatilizer being arranged atop a separator and connected directly thereto, the orifice (s) of the flash devolatilizer open in an unrestricted manner into this separator, and this separator is connected in an unrestricted and unblockable manner via the lower cone directly to an extruder housing of the vented extruder, and the inlet element of the flash devolatilizer is designed in the form of one or more essentially horizontal pipes with orifices at the bottom.