mhurhangee/ep-ind-claims huggingface dataset:
Surface treatment process of a substrate of flexible material having a thickness of between 15 and 500 μm comprising the following steps: STEP 1 - placing the flexible material to be treated in the plasma reactor on the grounded electrode, or arranged at a distance of between 0.1 mm and 100 mm from said grounded electrode. STEP 2 - evacuation and degassing step, wherein the entire system is evacuated and brought to low pressures, higher than 10 -6 mbar. STEP 3 - filling the reactor with the process gas up to a pressure of between 0.001 and 10 mbar. STEP 4 - room temperature plasma production and flexible substrate treatment step, with exposure times ranging from 10 seconds to 20 minutes in the presence of a metal agent and obtainment of the treated flexible material, wherein said metal agent is selected among: a. a metal precursor in vapour phase mixed with the process gas b. nanometric metal powders mixed with the process gas or contained in the process chamber c. metal coming from the sputtering process of the material covering or constituting the antenna or electrode connected to the power generator for generating the plasma, STEP 5 - treated flexible substrate recovery step. STEP 1 - placing the flexible material to be treated in the plasma reactor on the grounded electrode, or arranged at a distance of between 0.1 mm and 100 mm from said grounded electrode. STEP 2 - evacuation and degassing step, wherein the entire system is evacuated and brought to low pressures, higher than 10 -6 mbar. STEP 3 - filling the reactor with the process gas up to a pressure of between 0.001 and 10 mbar. STEP 4 - room temperature plasma production and flexible substrate treatment step, with exposure times ranging from 10 seconds to 20 minutes in the presence of a metal agent and obtainment of the treated flexible material, wherein said metal agent is selected among: a. a metal precursor in vapour phase mixed with the process gas b. nanometric metal powders mixed with the process gas or contained in the process chamber c. metal coming from the sputtering process of the material covering or constituting the antenna or electrode connected to the power generator for generating the plasma, a. a metal precursor in vapour phase mixed with the process gas b. nanometric metal powders mixed with the process gas or contained in the process chamber c. metal coming from the sputtering process of the material covering or constituting the antenna or electrode connected to the power generator for generating the plasma, STEP 5 - treated flexible substrate recovery step.
Gear wheel machine, in particular a pump or a motor, having at least two gear wheels (12; 13) which mesh with one another in external engagement, wherein the at least two gear wheels are surrounded by a housing (31; 40; 41) having a low-pressure and a high-pressure connection (32; 33), wherein each gear wheel (12; 13) has at least one bearing peg which is rotatably mounted in an associated bearing body that is received in the housing (31; 40; 41) such that it can slide along the axis of rotation of the associated gear wheel (12; 13), characterized in that at least one piezo film is arranged between the bearing body and the housing (31; 40; 41).
Handling device for handling a burner of a stationary gas turbine during assembly and disassembly, comprising a base body having at least one contact surface designed to contact a rear end surface of a burner, fixing means for fixing the base body to said rear end surface of the burner, and two arms (12, 13) fixed to and protruding from said base body to different sides of the contact surface,wherein each arm (12, 13) is provided with receiving means (14, 15), which are designed for removably receiving a fixing component of a lifting appliance and which are spaced apart from each other in the longitudinal direction of a burner during its handling, characterized in that the arms (12, 13) are rotatably fixed to the base body and are lockable in different rotating positions.
A method of processing a resistive memory cell (336; 440), comprising: forming an opening (308; 408) in a stack (300; 400) having a silicon material (304; 404) and an oxide material (306; 406) on the silicon material (304; 404); and forming an oxide material (332; 442) in the opening (308; 408) adjacent the silicon material (304; 404), wherein the oxide material (332; 442) formed in the opening (308; 408) confines filament formation in the resistive memory cell (336; 440) to an area enclosed by the oxide material (332; 442) formed in the opening (308; 408), characterised in that forming the oxide material (332; 442) in the opening adjacent the silicon material (304; 404) includes oxidizing the silicon material (304; 404) adjacent the opening (308; 408) such that a portion of the silicon material (304; 404) is consumed. forming an opening (308; 408) in a stack (300; 400) having a silicon material (304; 404) and an oxide material (306; 406) on the silicon material (304; 404); and forming an oxide material (332; 442) in the opening (308; 408) adjacent the silicon material (304; 404), wherein the oxide material (332; 442) formed in the opening (308; 408) confines filament formation in the resistive memory cell (336; 440) to an area enclosed by the oxide material (332; 442) formed in the opening (308; 408), characterised in that forming the oxide material (332; 442) in the opening adjacent the silicon material (304; 404) includes oxidizing the silicon material (304; 404) adjacent the opening (308; 408) such that a portion of the silicon material (304; 404) is consumed.
A multi-purpose bin, the bin comprising: a top piece, wherein at least one opening (12, 57, 67) is provided in the top piece for the deposit of materials into the bin; two first side pieces (17, 63, 73), and two second side pieces, wherein the first and second side pieces are substantially rectangular in shape and the height of the side pieces is greater than the width of the side pieces, the second side pieces are bisected into two halves (19, 54, 84) by a vertical hinge positioned centrally therein and further comprise a plurality of hinge components on each of the opposing sides parallel to the vertical hinge, and the first side pieces (17, 63, 73) include a hinge component on the sides joined with the second side pieces, characterized in that the top piece is bisected into two halves (11, 61) by a horizontal hinge positioned therein, comprises a plurality of hinge components on each of the opposing ends parallel to the horizontal hinge, and further comprises at least one handle consisting of a plurality of cutouts (13, 63) positioned on either side of the horizontal hinge, the multi-purpose bin further comprises a bottom piece (15, 52), wherein the bottom piece is bisected into two halves (16, 76) by a horizontal hinge and further comprises a plurality of hinge components on each of the opposing ends parallel to the horizontal hinge, and the first side pieces (17, 63, 73) include a plurality of hinge components on each of the four sides of the pieces. a top piece, wherein at least one opening (12, 57, 67) is provided in the top piece for the deposit of materials into the bin; two first side pieces (17, 63, 73), and two second side pieces, wherein the first and second side pieces are substantially rectangular in shape and the height of the side pieces is greater than the width of the side pieces, the second side pieces are bisected into two halves (19, 54, 84) by a vertical hinge positioned centrally therein and further comprise a plurality of hinge components on each of the opposing sides parallel to the vertical hinge, and the first side pieces (17, 63, 73) include a hinge component on the sides joined with the second side pieces, characterized in that the top piece is bisected into two halves (11, 61) by a horizontal hinge positioned therein, comprises a plurality of hinge components on each of the opposing ends parallel to the horizontal hinge, and further comprises at least one handle consisting of a plurality of cutouts (13, 63) positioned on either side of the horizontal hinge, the multi-purpose bin further comprises a bottom piece (15, 52), wherein the bottom piece is bisected into two halves (16, 76) by a horizontal hinge and further comprises a plurality of hinge components on each of the opposing ends parallel to the horizontal hinge, and the first side pieces (17, 63, 73) include a plurality of hinge components on each of the four sides of the pieces.
A field effect transistor having a source, a drain, and a gate having a gate length, comprising a doped well, a screening region contacting the doped well and positioned below the gate, a low-dopant channel region having a doping concentration less than 5x10 17 atoms/cm 3, the low dopant channel region being situated between the drain and the source, and between the screening region and the gate, and a threshold voltage tuning region between the low-dopant channel region and the screening region, wherein the source and drain are doped with a first type of dopant, and the screening region, low-dopant channel region and the threshold voltage tuning region are doped with a second type of dopant, characterized in that the screening region sets a depletion depth, and there is not a local minimum between the threshold voltage tuning region and the screening region in a depth profile of the second type of dopant.
Optical measuring instrument for quantitatively determining an optical property of a liquid sample, with a transparent cylindrical measuring cuvette that defines an axial symmetry axis and contains the liquid sample, and an optical measuring arrangement for quantitatively determining the optical property of the liquid sample in the measuring cuvette, characterised in that the optical measuring instrument includes a mechanical cleaning arrangement with contactless transmission of power for cleaning the inside of the measuring cuvette, wherein the cleaning arrangement has: an external magnetic working platform, which is arranged coaxially to the symmetry axis, can be moved in a translational manner parallel to the symmetry axis and rotated around the symmetry axis, surrounds the cylindrical measuring cuvette on the outside in a ring-like manner, and which has at least one translational mechanism magnet element and at least one rotational mechanism magnet element, and an internal magnetic cleaning unit, which is arranged inside of the measuring cuvette, can be rotated and moved in a translational manner, has a cleaning body, has at least one translational mechanism magnet element and at least one rotational mechanism magnet element, wherein the translational mechanism magnet elements (32, 52) as well as the rotational mechanism magnet elements (34, 54) of the working platform and the cleaning unit are intercoupled, respectively, in such a contactless and magnetic manner that the cleaning unit follows the working platform in a translational and rotational manner. an external magnetic working platform, which is arranged coaxially to the symmetry axis, can be moved in a translational manner parallel to the symmetry axis and rotated around the symmetry axis, surrounds the cylindrical measuring cuvette on the outside in a ring-like manner, and which has at least one translational mechanism magnet element and at least one rotational mechanism magnet element, and an internal magnetic cleaning unit, which is arranged inside of the measuring cuvette, can be rotated and moved in a translational manner, has a cleaning body, has at least one translational mechanism magnet element and at least one rotational mechanism magnet element, wherein the translational mechanism magnet elements (32, 52) as well as the rotational mechanism magnet elements (34, 54) of the working platform and the cleaning unit are intercoupled, respectively, in such a contactless and magnetic manner that the cleaning unit follows the working platform in a translational and rotational manner.
Actuator mechanism for adjusting at least one angular position of a mirror element in an exterior mirror device for a motor vehicle, comprising a base element and a mirror element movably coupled with the base element, which mirror element comprises a mirror support for supporting a mirror surface, the mirror element further being rotatable relative to the base element about at least a first pivoting axis with the aid of a first electric motor, wherein the first pivoting axis is placed as to extend, during use, substantially parallel to the mirror surface in case the mirror surface is a flat mirror surface or substantially parallel to a flat plane which directionally approximates the mirror surface as well as possible in case the mirror surface is a curved mirror surface, wherein the first electric motor extends in a longitudinal direction which is substantially transverse to a supporting surface of the mirror support on which supporting surface, during use, the mirror surface is supported by the mirror support, characterized in that the first electric motor is housed at least partly, preferably substantially, in the base element or the mirror element.
A method for processing information, performed by a first device, comprising: acquiring first identity information of a first security domain, the first identity information comprising security domain identifier information, sduuid, of the first security domain, wherein two devices that are not in the same security domain cannot access the IOT devices in each other's security domain; obtaining first discovery request information based on the first identity information, wherein the first discovery request information is configured to retrieve a target resource of a target device matching the first identity information, wherein the target device is a server device and the target resource is an /oic/res resource; and transmitting the first discovery request information to at least one second device in a local area network, LAN. acquiring first identity information of a first security domain, the first identity information comprising security domain identifier information, sduuid, of the first security domain, wherein two devices that are not in the same security domain cannot access the IOT devices in each other's security domain; obtaining first discovery request information based on the first identity information, wherein the first discovery request information is configured to retrieve a target resource of a target device matching the first identity information, wherein the target device is a server device and the target resource is an /oic/res resource; and transmitting the first discovery request information to at least one second device in a local area network, LAN.
Curing agent composition for a multi-component epoxy resin composition, comprising at least one first polyamine and at least one second polyamine, and at least one polyphenol comprising a bisphenol from the group of bisphenol A and bisphenol F or comprising a bisphenol from the group of bisphenol A and bisphenol F in combination with a novolac resin as an accelerator, wherein the first polyamine corresponds to the following general formula: where R 1 and R 2 represent, independently of one another, -H or -CH 3 or together represent an optionally substituted C 3 - to C 8 - hydrocarbon chain, which is connected to form a cycle, and R 3 represents -H, -CH 3, -CH 2 -CH 2 -NH 2 or -CH 2 -CH 2 -NH-CH 2 -CH 2 -NH 2, and wherein the second polyamine corresponds to the following general formula or: where R 1 and R 2 represent, independently of one another, -H or -CH 3, and X represents NH, O or S. wherein the first polyamine corresponds to the following general formula: where R 1 and R 2 represent, independently of one another, -H or -CH 3 or together represent an optionally substituted C 3 - to C 8 - hydrocarbon chain, which is connected to form a cycle, and R 3 represents -H, -CH 3, -CH 2 -CH 2 -NH 2 or -CH 2 -CH 2 -NH-CH 2 -CH 2 -NH 2, R 1 and R 2 represent, independently of one another, -H or -CH 3 or together represent an optionally substituted C 3 - to C 8 - hydrocarbon chain, which is connected to form a cycle, and R 3 represents -H, -CH 3, -CH 2 -CH 2 -NH 2 or -CH 2 -CH 2 -NH-CH 2 -CH 2 -NH 2, and wherein the second polyamine corresponds to the following general formula or: where R 1 and R 2 represent, independently of one another, -H or -CH 3, and X represents NH, O or S. R 1 and R 2 represent, independently of one another, -H or -CH 3, and X represents NH, O or S.
A force application device for an aircraft pilot stick, the device comprising: - a mechanical joint configured to receive a lever of an aircraft pilot stick, the mechanical joint being rotatably movable about a roll axis and about a pitch axis, - a force motor comprising a motor shaft extending along a third axis, the rotation of the motor shaft about the third axis being linked to the rotation of the mechanical joint about an axis taken among the roll axis or the pitch axis, the force motor being configured to exert a resistive torque on the motor shaft, - a rheological brake comprising two facing parts (52a, 52b) facing each other, the brake comprising a volume delimited by said two facing parts, the volume being adapted to contain a rheological material, one of said two parts being arranged on the motor shaft and being rotatably movable about the third axis relative to the other of said two facing parts, - a control device controlled to apply an electromagnetic field within said volume so as to vary shear strength of the rheological material. - a mechanical joint configured to receive a lever of an aircraft pilot stick, the mechanical joint being rotatably movable about a roll axis and about a pitch axis, - a force motor comprising a motor shaft extending along a third axis, the rotation of the motor shaft about the third axis being linked to the rotation of the mechanical joint about an axis taken among the roll axis or the pitch axis, the force motor being configured to exert a resistive torque on the motor shaft, - a rheological brake comprising two facing parts (52a, 52b) facing each other, the brake comprising a volume delimited by said two facing parts, the volume being adapted to contain a rheological material, one of said two parts being arranged on the motor shaft and being rotatably movable about the third axis relative to the other of said two facing parts, - a control device controlled to apply an electromagnetic field within said volume so as to vary shear strength of the rheological material.
A gas analyzer comprising: an optical emitter configured to irradiate measurement light into a measurement region including a gas to be measured; a probe extending along an optical axis of the measurement light so as to overlap the measurement region inside the probe; a reflector configured to reflect the measurement light irradiated from the optical emitter and to be positioned at an opposite side of the probe from the optical emitter; an optical receiver configured to receive the measurement light reflected by the reflector; a calculation unit configured to control the operation of the gas analyzer including the optical emitter and optical receiver; and an alignment unit configured to expand a beam diameter of the measurement light at the reflector, wherein the alignment unit is configured to expand the beam diameter of the measurement light so that the beam diameter of the measurement light is greater than a width of the reflector in a direction substantially orthogonal to an optical axis of the measurement light. an optical emitter configured to irradiate measurement light into a measurement region including a gas to be measured; a probe extending along an optical axis of the measurement light so as to overlap the measurement region inside the probe; a reflector configured to reflect the measurement light irradiated from the optical emitter and to be positioned at an opposite side of the probe from the optical emitter; an optical receiver configured to receive the measurement light reflected by the reflector; a calculation unit configured to control the operation of the gas analyzer including the optical emitter and optical receiver; and an alignment unit configured to expand a beam diameter of the measurement light at the reflector, wherein the alignment unit is configured to expand the beam diameter of the measurement light so that the beam diameter of the measurement light is greater than a width of the reflector in a direction substantially orthogonal to an optical axis of the measurement light.
A power supply system for converting electrical power with redundant control, the power supply system comprising: a power conversion unit configured to provide a regulated output voltage; a first power supply controller, configured to control the power conversion unit such that the regulated output voltage is within a selected range; a second power supply controller, having a power supply controller diversity from the first power supply controller, configured to control the power conversion unit such that the regulated output voltage is within a selected range; and a controller selector, configured to enable either the first power supply controller or the second power supply controller, in response to a control signal from a logic control circuit; the power supply controller diversity is power supply requirement diversity; and wherein the first power supply controller has a first controller power input requirement defining a first input voltage characteristic; wherein the second power supply controller has a second controller power input requirement defining a second input voltage characteristic; the power supply requirement diversity is diversity between the first controller power input requirement and the second controller power input requirement that is selected from the group consisting of minimum startup voltage, minimum operating voltage, maximum startup voltage, and maximum operating voltage; wherein a difference between the first input voltage characteristic and the second first input voltage characteristic is at least 0.2 volts. a power conversion unit configured to provide a regulated output voltage; a first power supply controller, configured to control the power conversion unit such that the regulated output voltage is within a selected range; a second power supply controller, having a power supply controller diversity from the first power supply controller, configured to control the power conversion unit such that the regulated output voltage is within a selected range; and a controller selector, configured to enable either the first power supply controller or the second power supply controller, in response to a control signal from a logic control circuit; the power supply controller diversity is power supply requirement diversity; and wherein the first power supply controller has a first controller power input requirement defining a first input voltage characteristic; wherein the second power supply controller has a second controller power input requirement defining a second input voltage characteristic; the power supply requirement diversity is diversity between the first controller power input requirement and the second controller power input requirement that is selected from the group consisting of minimum startup voltage, minimum operating voltage, maximum startup voltage, and maximum operating voltage; wherein a difference between the first input voltage characteristic and the second first input voltage characteristic is at least 0.2 volts.