mhurhangee/ep-ind-claims huggingface dataset:
A method for direct bonding between a lower substrate and an upper substrate comprising the following steps: a) Providing a support, b) Positioning the lower substrate on the support, the support being configured so as to raise a portion of the lower substrate, c) Positioning the upper substrate above the lower substrate, d) Authorizing the gravitational fall of the upper substrate on the lower substrate so as to form an initial contact point between the upper substrate and the lower substrate, located on the raised portion of the lower substrate, and e) Completing the contacting of the upper substrate and of the lower substrate so as to bond the upper substrate and the lower substrate by direct bonding. a) Providing a support, b) Positioning the lower substrate on the support, the support being configured so as to raise a portion of the lower substrate, c) Positioning the upper substrate above the lower substrate, d) Authorizing the gravitational fall of the upper substrate on the lower substrate so as to form an initial contact point between the upper substrate and the lower substrate, located on the raised portion of the lower substrate, and e) Completing the contacting of the upper substrate and of the lower substrate so as to bond the upper substrate and the lower substrate by direct bonding.
A portable thermoelectric potential detector, comprising a test fixture for fixing a sample to be tested, a probe assembly unit adapted to detect the sample to be tested, a collection and control unit adapted to control the probe assembly and adapted to collect a voltage signal of the probe assembly, and a probe cooling unit wherein, the probe assembly unit comprises two probe assemblies, each probe assembly includes a probe for loading on the surface of the sample to be tested and a linear motor for driving the probe to move and load on the surface of the sample to be tested; an output of the linear motor is connected to the probe; the collection and control unit is electrically connected to the linear motor, and is further configured to transmit a first control signal for controlling a moving distance and a loading force of the linear motor; the probe assembly is removably connected with the probe cooling unit; when the probe assembly is connected with the probe cooling unit, the probe assembly is in a cooling state.
Device for ultrasound screening (10, 20, 30, 40) comprising a screen frame (11, 21, 31, 41), a screen fabric (12, 22, 32, 42) arranged in the screen frame (11, 21, 31, 41), at least one ultrasound converter (15, 25, 35, 45) for generation of ultrasonic vibrations, and at least one means (13, 23, 33a, 33b, 43a, 43b) for introducing ultrasonic vibrations into the screen fabric (12, 22, 32, 42), wherein the means (13, 23, 33a, 33b, 43a, 43b) for introducing ultrasonic vibrations into the screen fabric (12, 22, 32, 42) is in a sound-conducting connection with the ultrasound converter (15, 25, 35, 45), wherein at least one of the means (13, 23, 33a, 33b, 43a, 43b) for introducing ultrasonic vibrations into the screen fabric (12, 22, 32, 42) is arranged movably relative to the screen fabric (12, 22, 32, 42) so that the location on the screen fabric (12, 22, 32, 42) at which the introduction of the ultrasonic vibrations into the screen fabric (12, 22, 32, 42) by the means (13, 23, 33a, 33b, 43a, 43b) for introducing the ultrasonic vibrations into the screen fabric (12, 22, 32, 42) takes place can be varied by movement of the means (13, 23, 33a, 33b, 43a, 43b) for introducing ultrasonic vibrations into the screen fabric (12, 22, 32, 42) relative to the screen fabric (12, 22, 32, 42), characterised in that the means (13, 23, 33a, 33b, 43a, 43b, 53) for introducing ultrasonic vibrations into the screen fabric (12, 22, 32, 42, 53) is movable so that each point on the screen fabric (12, 22, 32, 42, 52) can be brought into contact with a segment of the means (13, 23, 33a, 33b, 43a, 43b, 53) for introducing ultrasonic vibrations into the screen fabric (12, 22, 32, 42, 52).
A method for the preparation of isotopically labelled hydrogen peroxide, characterized by including a reaction between the compound 2-alkylanthraquinone denoted with Formula and a reducing agent NaBX 4 dissolved in alcohol, wherein the reaction is carried out in a mixture of toluene and methyl acetate in a volume ratio 1:1 at a temperature between 15 and 40 °C and in equivalent amounts of 2-alkylanthraquinone and the reducing agent NaBX 4, or up to 10 vol % excess of the reducing agent NaBX 4, wherein the compound 2-alkylanthrahydroquinone denoted with Formula is produced, which is rinsed with water and oxidised with an equivalent amount of Y 2, to obtain an isotopically labelled hydrogen peroxide of Formula wherein R represents hydrogen, alkyl, substituted alkyl, cycloalkyl, substituted cycloalkyl, aryl or substituted aryl, and when X represents hydrogen H, Y represents oxygen isotope 17 O or 18 O, and when X represents deuterium, Y represents oxygen. and a reducing agent NaBX 4 dissolved in alcohol, wherein the reaction is carried out in a mixture of toluene and methyl acetate in a volume ratio 1:1 at a temperature between 15 and 40 °C and in equivalent amounts of 2-alkylanthraquinone and the reducing agent NaBX 4, or up to 10 vol % excess of the reducing agent NaBX 4, wherein the compound 2-alkylanthrahydroquinone denoted with Formula is produced, which is rinsed with water and oxidised with an equivalent amount of Y 2, to obtain an isotopically labelled hydrogen peroxide of Formula wherein R represents hydrogen, alkyl, substituted alkyl, cycloalkyl, substituted cycloalkyl, aryl or substituted aryl, and when X represents hydrogen H, Y represents oxygen isotope 17 O or 18 O, and when X represents deuterium, Y represents oxygen.
A fixing structure for a stator core, comprising: a stator core having one end (41 a) and the other end (41 b) axially spaced from each other; a ring member located on an outer circumferential side of said stator core and holding said stator core; and a tubular case housing said stator core and said ring member, and having a fixing portion which fixes said ring member, and a fitting portion on which said ring member fits, wherein said ring member extends from said one end (41 a) side to said other end (41 b) side of said stator core, said ring member is fixed to said fixing portion on said one end side, and abuts and fits on the fitting portion on said other end (41 b) side, an inner diameter of said fitting portion is smaller than an inner diameter of said fixing portion, and at said one end (41 a), a gap is radially provided between said ring member and said case, said case has an opening portion through which said stator core is inserted and a bottom portion on the opposite side of said opening portion, said ring member is fixed to said fixing portion by a bolt, and an axial length of said fitting portion abutting said ring member is shorter than a length of a portion of said bolt fitted into said case, characterized in that said ring member is apart from said bottom portion. a stator core having one end (41 a) and the other end (41 b) axially spaced from each other; a ring member located on an outer circumferential side of said stator core and holding said stator core; and a tubular case housing said stator core and said ring member, and having a fixing portion which fixes said ring member, and a fitting portion on which said ring member fits, wherein said ring member extends from said one end (41 a) side to said other end (41 b) side of said stator core, said ring member is fixed to said fixing portion on said one end side, and abuts and fits on the fitting portion on said other end (41 b) side, an inner diameter of said fitting portion is smaller than an inner diameter of said fixing portion, and at said one end (41 a), a gap is radially provided between said ring member and said case, said case has an opening portion through which said stator core is inserted and a bottom portion on the opposite side of said opening portion, said ring member is fixed to said fixing portion by a bolt, and an axial length of said fitting portion abutting said ring member is shorter than a length of a portion of said bolt fitted into said case, characterized in that said ring member is apart from said bottom portion.
A method for authenticating a physical location of a target node (110, 520), the method comprising: sending, by at least one trusted node (120, 130, 530, 540, 550) with a known physical location, an inquiry message to the target node; receiving, by the target node, the inquiry message; sending, by the target node, a response message to the at least one trusted node; receiving, by the at least one trusted node, the response message; calculating a ranging measurement from the target node to the at least one trusted node by using an amount of time elapsed from the sending of the inquiry message to the receiving of the response message; and authenticating the physical location of the target node by using the ranging measurement from the target node to the at least one trusted node; wherein the physical location of the at least one trusted node is obtained via satellite geolocation techniques that use at least one authentication signal, comprising an initial security key and shared liveness information, in order to obtain the physical location of the at least one trusted node, wherein the shared liveness information is provided through a satellite spot beam and is for use in a derivation allowing for different security keys to be used every time the target node authenticates itself to the trusted node. sending, by at least one trusted node (120, 130, 530, 540, 550) with a known physical location, an inquiry message to the target node; receiving, by the target node, the inquiry message; sending, by the target node, a response message to the at least one trusted node; receiving, by the at least one trusted node, the response message; calculating a ranging measurement from the target node to the at least one trusted node by using an amount of time elapsed from the sending of the inquiry message to the receiving of the response message; and authenticating the physical location of the target node by using the ranging measurement from the target node to the at least one trusted node; wherein the physical location of the at least one trusted node is obtained via satellite geolocation techniques that use at least one authentication signal, comprising an initial security key and shared liveness information, in order to obtain the physical location of the at least one trusted node, wherein the shared liveness information is provided through a satellite spot beam and is for use in a derivation allowing for different security keys to be used every time the target node authenticates itself to the trusted node.
A direct vertebral rotation instrument comprising: a first jaw; a second jaw; and a hinge connecting the first jaw and the second jaw, characterized in that: the first and second jaws have interior faces including a compliant material. a first jaw; a second jaw; and a hinge connecting the first jaw and the second jaw, characterized in that: the first and second jaws have interior faces including a compliant material. the first and second jaws have interior faces including a compliant material.
A polymerization catalyst comprising: a metal complex obtained by mixing at least one ketimine derivative selected from the group consisting of a β-ketimine compound and a tautomer thereof with a compound having at least one metal selected from among Group 4 and 5 transitional metals; an organoaluminum compound; and a halogen compound having a structure in which chlorine is bonded to tertiary carbon or tertiary silicon, wherein the organoaluminum compound is an aluminoxane compound. a metal complex obtained by mixing at least one ketimine derivative selected from the group consisting of a β-ketimine compound and a tautomer thereof with a compound having at least one metal selected from among Group 4 and 5 transitional metals; an organoaluminum compound; and a halogen compound having a structure in which chlorine is bonded to tertiary carbon or tertiary silicon, wherein the organoaluminum compound is an aluminoxane compound.
Premix burner for a heat generator, essentially comprising a swirl generator, having at least two burner shells which complement one another to form an axially conically widening swirl space and which mutually define, in axial cone longitudinal direction, tangential slots through which combustion air is introduced into the swirl space, and means for feeding a fuel into the combustion air flow arranged at least in sections along the tangential slots, a central fuel lance accommodated at the initial part of the swirl space; a mixing tube downstream of the swirl generator for homogeneously mixing fuel and combustion air before introducing the fuel-air-mixture into a combustion chamber, where ignition occurs, a transition piece between the swirl generator and the mixing tube for transferring the flow of combustion air and fuel from the swirl generator into the mixing tube, characterized in that the transition piece comprises an inlet, connected to the swirl generator, an outlet, connected to the mixing tube, and a continuing flow limiting interior contour between said inlet and said outlet without any abrupt inflections, wherein in an inlet section said interior contour is curved radially inwards with a concave shape towards the inner diameter of the mixing tube and wherein at the outlet the interior contour is flush with an interior flow limiting contour of the mixing tube; wherein the transition piece starts at the leading edges of the shells at the downstream end of the tangential slots in the swirl generator 1; wherein at this point the flow limiting contour enters a radially inwards curved section and the downstream ends of the conical shells adjoin the interior contour in this radially inwards curved section; wherein the maximal gradient of the curved section of the interior contour is at the starting point; wherein in downstream direction the gradient is uniformly declining; and wherein when the gradient approaches zero, the effective diameter of the mixing tube is reached.
A control method of a washing machine having a water tub and a rotary drum rotatably mounted therein to receive laundry, comprising: supplying detergent and water into the water tub after laundry is loaded in the rotary drum; performing a washing operation to wash the laundry in the rotary drum with bubbles generated by a first bubble generation operation; performing a second bubble generation operation to introduce bubbles in the water tub and the rotary drum after the washing operation and upon determining that a drainage operation has started; and performing the drainage operation to remove water and wash residue from the washing machine, characterized in that the bubbles generated during the second bubble generation operation create a swift current which causes the wash residue to float so that wash residue can be discharged together with water during the drainage operation. supplying detergent and water into the water tub after laundry is loaded in the rotary drum; performing a washing operation to wash the laundry in the rotary drum with bubbles generated by a first bubble generation operation; performing a second bubble generation operation to introduce bubbles in the water tub and the rotary drum after the washing operation and upon determining that a drainage operation has started; and performing the drainage operation to remove water and wash residue from the washing machine, characterized in that the bubbles generated during the second bubble generation operation create a swift current which causes the wash residue to float so that wash residue can be discharged together with water during the drainage operation.
A lensless imaging system, comprising: at least one light detector configured to provide an image of an object based on a detected light input; a plurality of input control elements configured to control the light input detected by the detector, wherein the plurality of input control elements comprises a plurality of shutter elements in a shutter array placed in front of the light detector, the shutter elements being configured to be selectively opened and closed in order to allow the light detector to detect light or the shutter elements being individual mirror elements configured to be selectively controllable to selectively reflect light within the field of view of the light detector; and a processor configured to determine a collective point spread function from a plurality of point spread functions, each of the plurality of point spread functions being associated with one of the at least one of the shutter elements, wherein a point spread function associated with a shutter element is determined based on a physical parameter of the detector, a physical parameter of the shutter element and a distance to the object, and generate image data having a selected resolution or an enhanced resolution by using the image and the collective point spread function. at least one light detector configured to provide an image of an object based on a detected light input; a plurality of input control elements configured to control the light input detected by the detector, wherein the plurality of input control elements comprises a plurality of shutter elements in a shutter array placed in front of the light detector, the shutter elements being configured to be selectively opened and closed in order to allow the light detector to detect light or the shutter elements being individual mirror elements configured to be selectively controllable to selectively reflect light within the field of view of the light detector; and a processor configured to determine a collective point spread function from a plurality of point spread functions, each of the plurality of point spread functions being associated with one of the at least one of the shutter elements, wherein a point spread function associated with a shutter element is determined based on a physical parameter of the detector, a physical parameter of the shutter element and a distance to the object, and generate image data having a selected resolution or an enhanced resolution by using the image and the collective point spread function. determine a collective point spread function from a plurality of point spread functions, each of the plurality of point spread functions being associated with one of the at least one of the shutter elements, wherein a point spread function associated with a shutter element is determined based on a physical parameter of the detector, a physical parameter of the shutter element and a distance to the object, and generate image data having a selected resolution or an enhanced resolution by using the image and the collective point spread function.
Photocatalytic carbon dioxide reduction process carried out in liquid phase and/or in gas phase with irradiation, using a photocatalyst in porous monolith form containing at least one semiconductor, said process comprising the following steps: a) contacting a feedstock containing carbon dioxide and at least one sacrificial compound with a photocatalyst in the form of a porous monolith comprising a bulk density less than or equal to 0.25 g/mL and a type-I macroporous volume, of which the pore diameter is greater than 50 nm and less than or equal to 1000 nm, of between 0.1 and 3 mL/g; b) irradiating the photocatalyst with at least one irradiation source producing at least one wavelength lower than the bandgap of said photocatalyst, said step b) being carried out at a temperature of between -10°C and 200°C, and at a pressure of between 0.01 MPa and 70 MPa. a) contacting a feedstock containing carbon dioxide and at least one sacrificial compound with a photocatalyst in the form of a porous monolith comprising a bulk density less than or equal to 0.25 g/mL and a type-I macroporous volume, of which the pore diameter is greater than 50 nm and less than or equal to 1000 nm, of between 0.1 and 3 mL/g; b) irradiating the photocatalyst with at least one irradiation source producing at least one wavelength lower than the bandgap of said photocatalyst, said step b) being carried out at a temperature of between -10°C and 200°C, and at a pressure of between 0.01 MPa and 70 MPa.
A method for operating a flowmeter comprising: flowing a process fluid through the flowmeter; measuring a mass flow rate of the process fluid; totalizing the process fluid flowing through the flowmeter; the method characterized by: measuring a first flowmeter parameter, wherein measuring a first flowmeter parameter comprises measuring a magnitude of asymmetry between a magnitude of a first pick-off sensor measurement and a magnitude of a second pick-off sensor measurement; setting the measured mass flow rate to zero if the first flowmeter parameter differs from a predetermined threshold by a predetermined amount; and halting totalizing if the first flowmeter parameter differs from a predetermined threshold by a predetermined amount. flowing a process fluid through the flowmeter; measuring a mass flow rate of the process fluid; totalizing the process fluid flowing through the flowmeter; the method characterized by: measuring a first flowmeter parameter, wherein measuring a first flowmeter parameter comprises measuring a magnitude of asymmetry between a magnitude of a first pick-off sensor measurement and a magnitude of a second pick-off sensor measurement; setting the measured mass flow rate to zero if the first flowmeter parameter differs from a predetermined threshold by a predetermined amount; and halting totalizing if the first flowmeter parameter differs from a predetermined threshold by a predetermined amount. measuring a first flowmeter parameter, wherein measuring a first flowmeter parameter comprises measuring a magnitude of asymmetry between a magnitude of a first pick-off sensor measurement and a magnitude of a second pick-off sensor measurement; setting the measured mass flow rate to zero if the first flowmeter parameter differs from a predetermined threshold by a predetermined amount; and halting totalizing if the first flowmeter parameter differs from a predetermined threshold by a predetermined amount.
A pneumatic tire, which has a tread, the tread formed from a rubber composition, the rubber composition having an elongation at break of 540% or higher as measured in accordance with JIS K 6251:2010 under the following test conditions: Tensile rate: 8.3 m/sec, Temperature: 75°C, Specimen: No.3 dumbbell. Tensile rate: 8.3 m/sec, Temperature: 75°C, Specimen: No.3 dumbbell.