mhurhangee/ep-ind-claims huggingface dataset:
Method of fabricating an optical device 300, the method comprising the steps of: - depositing a photoresist layer on a carrier, said photoresist layer containing at least one optical component (30,40), - determining the position of the at least one optical component (30,40) inside the photoresist layer before exposing the photoresist layer to a first radiation (λ1), said first radiation (λ1) being capable of transforming the photoresist layer from an unmodified state to a modified state, - elaborating a device pattern (PP, PP') based on the position of the at least one optical component (30,40), and - fabricating the elaborated device pattern by locally exposing the photoresist layer to the first radiation (λ1) and locally transforming the photoresist layer from the unmodified state to the modified state, characterized in that said step of determining the position of the at least one optical component (30,40) inside the photoresist layer includes: - generating a second radiation (λ2) that is incapable of transforming the photoresist layer from the unmodified state to the modified state, and - observing the response of the at least one optical component (30,40) to the second radiation (λ2), wherein - said at least one optical component (30,40) is adapted to generate a third radiation (λ3) in response to being exposed to the second radiation (λ2), and - said step of observing the response of the at least one optical component (30,40) includes detecting and/or evaluating the third radiation (λ3). - depositing a photoresist layer on a carrier, said photoresist layer containing at least one optical component (30,40), - determining the position of the at least one optical component (30,40) inside the photoresist layer before exposing the photoresist layer to a first radiation (λ1), said first radiation (λ1) being capable of transforming the photoresist layer from an unmodified state to a modified state, - elaborating a device pattern (PP, PP') based on the position of the at least one optical component (30,40), and - fabricating the elaborated device pattern by locally exposing the photoresist layer to the first radiation (λ1) and locally transforming the photoresist layer from the unmodified state to the modified state, - generating a second radiation (λ2) that is incapable of transforming the photoresist layer from the unmodified state to the modified state, and - observing the response of the at least one optical component (30,40) to the second radiation (λ2), wherein - said at least one optical component (30,40) is adapted to generate a third radiation (λ3) in response to being exposed to the second radiation (λ2), and - said step of observing the response of the at least one optical component (30,40) includes detecting and/or evaluating the third radiation (λ3).
A socket fusion jig comprising: a first jaw block with a pipe saddle connected thereto; a second jaw block with a coupling saddle connected thereto, wherein the coupling saddle is for engaging a pipe coupling, and wherein the pipe saddle is spaced from the coupling saddle and is for engaging a pipe; a first input link rotatable about a center axis at a first end thereof; a second input link rotatable about a center axis at a first end thereof, wherein simultaneous rotation of the first and second input links moves the coupling saddle laterally relative to the pipe saddle; and characterized by a stab depth indicator (156,158) for setting a proper stab depth of the pipe into the coupling. a first jaw block with a pipe saddle connected thereto; a second jaw block with a coupling saddle connected thereto, wherein the coupling saddle is for engaging a pipe coupling, and wherein the pipe saddle is spaced from the coupling saddle and is for engaging a pipe; a first input link rotatable about a center axis at a first end thereof; a second input link rotatable about a center axis at a first end thereof, wherein simultaneous rotation of the first and second input links moves the coupling saddle laterally relative to the pipe saddle; and characterized by a stab depth indicator (156,158) for setting a proper stab depth of the pipe into the coupling.
A method of communication traffic management on a portable communication device having a computer processor (130, 160) and a network connection (210, 220, 230) to a computer server for transmitting or receiving data with the processor over a network, the method comprising: identifying, by a traffic manager application running on the processor, a first application running on the processor and delivering first data to or from the server over the network; intercepting, by the traffic manager application, electronic traffic of the first data to or from the first application; storing, by the traffic manager application, the first data in a memory of the portable communication device; and controlling, by the traffic manager application, a rate of delivery of the first data stored in the memory to or from the first application along a data path internal to the portable communication device between the first application and the traffic manager application. identifying, by a traffic manager application running on the processor, a first application running on the processor and delivering first data to or from the server over the network; intercepting, by the traffic manager application, electronic traffic of the first data to or from the first application; storing, by the traffic manager application, the first data in a memory of the portable communication device; and controlling, by the traffic manager application, a rate of delivery of the first data stored in the memory to or from the first application along a data path internal to the portable communication device between the first application and the traffic manager application.
Handheld power tool having a gear mechanism and a torque clutch which has a limiting unit which is assigned to the gear mechanism and which is assigned a transmission element which is acted on by at least one spring element, wherein a torque level of the torque clutch can be set at least within predetermined limits via an operating element actuated by a user, wherein the limiting unit has at least one latching body (250, 251) which engages in the transmission element at least in certain portions in the axial direction of the torque clutch, wherein the transmission element has at least one cutout for axially receiving at least one latching body (250, 251) at least in certain portions, and the at least one cutout is formed in the manner of an opening (262, 263), and the at least one latching body (250, 251) is ball-shaped, wherein the at least one ball-shaped latching body (250, 251) engages in the opening (262, 263) at least in certain portions, or the at least one cutout has a polygonal basic surface area, and the at least one latching body is cylindrical in form, wherein the at least one cylindrical latching body engages in the at least one cutout at least in certain portions, characterized in that a diameter (D A) of the at least one cutout is less than a diameter (D K) of the at least one ball-shaped latching body (250, 251), or a circumferential width of the at least one cutout is less than a diameter (D Z) of the at least one cylindrical latching body.
Method to decelerate a vehicle comprising a combustion engine, a gearbox, driving wheels and a drive shaft arranged between the gearbox and the driving wheels, which combustion engine comprises: - at least one cylinder to which fuel is supplied in order to operate the combustion engine; - a piston arranged in the/each cylinder, - at least one inlet valve in the/ each cylinder, which inlet valve is connected with an inlet system; - a first camshaft, which controls the at least one inlet valve; - at least one exhaust valve arranged in the/each cylinder, which exhaust valve is connected with an exhaust system; - a second camshaft, which controls the at least one exhaust valve; and - a crankshaft, which controls each camshaft (22, 28), characterised in that the method comprises the following steps: a) to close the fuel supply to the/all cylinders, b) to phase-shift each camshaft (22, 28) in relation to the crankshaft, to a position where no air is supplied to the exhaust system when the pistons move forwards and backwards in the/each cylinder, c) to control the gearbox to engage a gear that increases the crankshaft's engine speed, which entails that the vehicle's speed decreases. d) to phase-shift the first camshaft between +75° and +85° crankshaft degrees, preferably +80°, and e) to phase-shift the second camshaft between -75° and -85° crankshaft degrees, preferably -80°. f) to phase-shift each camshaft (22, 28) with a phase-shifting device arranged for each camshaft (22, 28). - at least one cylinder to which fuel is supplied in order to operate the combustion engine; - a piston arranged in the/each cylinder, - at least one inlet valve in the/ each cylinder, which inlet valve is connected with an inlet system; - a first camshaft, which controls the at least one inlet valve; - at least one exhaust valve arranged in the/each cylinder, which exhaust valve is connected with an exhaust system; - a second camshaft, which controls the at least one exhaust valve; and - a crankshaft, which controls each camshaft (22, 28), a) to close the fuel supply to the/all cylinders, b) to phase-shift each camshaft (22, 28) in relation to the crankshaft, to a position where no air is supplied to the exhaust system when the pistons move forwards and backwards in the/each cylinder, c) to control the gearbox to engage a gear that increases the crankshaft's engine speed, which entails that the vehicle's speed decreases. d) to phase-shift the first camshaft between +75° and +85° crankshaft degrees, preferably +80°, and e) to phase-shift the second camshaft between -75° and -85° crankshaft degrees, preferably -80°. f) to phase-shift each camshaft (22, 28) with a phase-shifting device arranged for each camshaft (22, 28).
A forward firing fragmentation warhead, comprising: a case (18, 232) formed of a material that is pulverized with a mass efficiency no greater than 1% upon detonation; an explosive (30, 238) in said case; an initiator (32,244) to initiate detonation; and a forward-firing fragmentation (38,250) assembly including a fragmentation layer (40,252) that expels fragments (40,254) with a mass efficiency of at least 70% upon detonation of the explosive and means (48, 240, 252) to shape the pattern density of expelled fragments into a forward-firing pattern; characterised in that the fragmentation assembly means includes a pattern shaper between said explosive and said fragmentation layer; and facing surfaces (46,52) of the explosive and pattern shaper are non-planar and conformal to change the relative velocities of a propagating pressure wave across an aft surface of the fragmentation assembly to shape the pattern density of expelled metal fragments. a case (18, 232) formed of a material that is pulverized with a mass efficiency no greater than 1% upon detonation; an explosive (30, 238) in said case; an initiator (32,244) to initiate detonation; and a forward-firing fragmentation (38,250) assembly including a fragmentation layer (40,252) that expels fragments (40,254) with a mass efficiency of at least 70% upon detonation of the explosive and means (48, 240, 252) to shape the pattern density of expelled fragments into a forward-firing pattern; the fragmentation assembly means includes a pattern shaper between said explosive and said fragmentation layer; and facing surfaces (46,52) of the explosive and pattern shaper are non-planar and conformal to change the relative velocities of a propagating pressure wave across an aft surface of the fragmentation assembly to shape the pattern density of expelled metal fragments.
A monoamine compound represented by Formula 1: wherein in Formula 1, Y is O or S, p and q are each independently an integer of 0 to 4, Ar 1 is a substituted or unsubstituted C 6 to C 30 aryl group, a substituted or unsubstituted C 2 to C 30 heteroaryl group, or represented by Formula 2, R 1 and R 2 are each independently a hydrogen atom, a deuterium atom, a halogen atom, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 30 aryl group, a substituted or unsubstituted C 2 to C 30 heteroaryl group, or represented by Formula 2, wherein one and only one of Ar 1, R 1, and R 2 is represented by Formula 2: wherein in Formula 2, Ar 2 is a substituted or unsubstituted C 6 to C 30 aryl group or a substituted or unsubstituted C 2 to C 30 heteroaryl group, L 1, and L 2 are each independently a direct linkage, a substituted or unsubstituted C 6 to C 30 arylene group or a substituted or unsubstituted C 2 to C 30 heteroarylene group, a, and b are each independently an integer of 0 to 3, and Ar 3 is represented by Formula 3: wherein in Formula 3, X is O or S, R 3 and R 4 are each independently a hydrogen atom, a deuterium atom, a halogen atom, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 30 aryl group, a substituted or unsubstituted C 2 to C 30 heteroaryl group, or combined with an adjacent group to form a ring, m is an integer of 0 to 3, and n is an integer of 0 to 4. Y is O or S, p and q are each independently an integer of 0 to 4, Ar 1 is a substituted or unsubstituted C 6 to C 30 aryl group, a substituted or unsubstituted C 2 to C 30 heteroaryl group, or represented by Formula 2, R 1 and R 2 are each independently a hydrogen atom, a deuterium atom, a halogen atom, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 30 aryl group, a substituted or unsubstituted C 2 to C 30 heteroaryl group, or represented by Formula 2, wherein one and only one of Ar 1, R 1, and R 2 is represented by Formula 2: Ar 2 is a substituted or unsubstituted C 6 to C 30 aryl group or a substituted or unsubstituted C 2 to C 30 heteroaryl group, L 1, and L 2 are each independently a direct linkage, a substituted or unsubstituted C 6 to C 30 arylene group or a substituted or unsubstituted C 2 to C 30 heteroarylene group, a, and b are each independently an integer of 0 to 3, and Ar 3 is represented by Formula 3: X is O or S, R 3 and R 4 are each independently a hydrogen atom, a deuterium atom, a halogen atom, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 30 aryl group, a substituted or unsubstituted C 2 to C 30 heteroaryl group, or combined with an adjacent group to form a ring, m is an integer of 0 to 3, and n is an integer of 0 to 4.
Electronic device such as a camera for a vehicle, including: - a supporting frame, - a main electronic substrate, provided with at least one electric or electronic component or circuit and coupled to the supporting frame; - wherein the supporting frame has at least one main projecting tab, capable to occupy a non-twisted position or a twisted position, wherein the main projecting tab, when in the twisted position, is providing an attachment of the main electronic substrate to the supporting frame, the electronic device including a main cover part, and wherein said at least one of the main projecting tab: - when in the non-twisted position, is interfering with the main cover part, so as to prevent an assembly operation of the main cover part to the electronic device; - when in the twisted position, is not interfering with the main cover part, so as to allow an assembly operation of the main cover part to the electronic device. - a supporting frame, - a main electronic substrate, provided with at least one electric or electronic component or circuit and coupled to the supporting frame; - wherein the supporting frame has at least one main projecting tab, capable to occupy a non-twisted position or a twisted position, wherein the main projecting tab, when in the twisted position, is providing an attachment of the main electronic substrate to the supporting frame, the electronic device including a main cover part, and wherein said at least one of the main projecting tab: - when in the non-twisted position, is interfering with the main cover part, so as to prevent an assembly operation of the main cover part to the electronic device; - when in the twisted position, is not interfering with the main cover part, so as to allow an assembly operation of the main cover part to the electronic device. - when in the non-twisted position, is interfering with the main cover part, so as to prevent an assembly operation of the main cover part to the electronic device; - when in the twisted position, is not interfering with the main cover part, so as to allow an assembly operation of the main cover part to the electronic device.
Tensioning device for a traction mechanism drive which is disposed on an internal combustion engine and has a drive wheel arranged on a drive shaft of a machine, one or more additional driving wheels (5, 6) and a continuously revolving traction means which wraps around the drive wheel and the additional driving wheels (5, 6), wherein the tensioning device comprises two tensioning arms (13, 14), having tensioning wheels (9, 10) which are mounted thereon and apply tensioning force to the traction means in front of and behind the drive wheel in the direction of revolution, and has a spring means, which generates the tensioning force, and a tensioner housing, characterized in that the tensioner housing movably supports only one of the tensioning arms and the other tensioning arm is fastened to the tensioner housing, wherein a mounting of the tensioner housing, which mounting is pivotable about the axis of the drive shaft, is provided on the machine and the movably mounted tensioning arm has a circular-arc-shaped bearing portion, the spring means is configured as a circular-arc-shaped helical compression spring, and the tensioner housing has a correspondingly circular-are-shaped duct, in which the bearing portion of the tensioning arm and the helical compression spring, which is clamped between the said tensioning arm and the tensioner housing, are movably accommodated on the circular arc.
A navigation unit for use by a user, comprising: at least one sensor; a processing unit coupled to the sensor, wherein the processing unit is configured to generate navigation-related output derived at least in part on information output by the sensor; a wireless interface coupled to the processing unit; and an attachment interface used to attach the navigation unit to a user, wherein the navigation unit is configured to transmit using the wireless interface the navigation-related output to a portable device over a wireless communication link; wherein the wireless interface is arranged to receive at least one of the following from the portable device: global positioning system information output by a global positioning system receiver included in the portable device, time difference of arrival (TDOA) information output by a time difference of arrival interface included in the portable device, and time of arrival information output by a time of arrival interface included in the portable device and wherein at least one of the global positioning system information, the time difference of arrival (TDOA) information, and the time of arrival information is used by the processing unit to generate the navigation-related output. at least one sensor; a processing unit coupled to the sensor, wherein the processing unit is configured to generate navigation-related output derived at least in part on information output by the sensor; a wireless interface coupled to the processing unit; and an attachment interface used to attach the navigation unit to a user, wherein the navigation unit is configured to transmit using the wireless interface the navigation-related output to a portable device over a wireless communication link; wherein the wireless interface is arranged to receive at least one of the following from the portable device: global positioning system information output by a global positioning system receiver included in the portable device, time difference of arrival (TDOA) information output by a time difference of arrival interface included in the portable device, and time of arrival information output by a time of arrival interface included in the portable device and wherein at least one of the global positioning system information, the time difference of arrival (TDOA) information, and the time of arrival information is used by the processing unit to generate the navigation-related output. global positioning system information output by a global positioning system receiver included in the portable device, time difference of arrival (TDOA) information output by a time difference of arrival interface included in the portable device, and time of arrival information output by a time of arrival interface included in the portable device and wherein at least one of the global positioning system information, the time difference of arrival (TDOA) information, and the time of arrival information is used by the processing unit to generate the navigation-related output.
Method for coating or filling the folds of a folded catheter balloon, in that a delivery device in the form of a syringe, needle or nozzle, to deliver a continuous flow of a composition including active ingredient, is moved relative to the folded catheter balloon along the fold, wherein the catheter balloon and the delivery device both move relative to each other.
A rotary wireless access terminal with a grounding structure, characterized in that the rotary wireless access terminal comprises: a structural part, as well as a main board and metal rotating shaft, which are arranged in the structural part, of the wireless access terminal; the metal rotating shaft is connected with an external interface of the wireless access terminal; wherein the grounding structure comprises a metal dome and characterised in that the grounding structure further comprises an insulating film, and the wireless access terminal further comprises a circuit shielding casing arranged on the main board, wherein the insulating film is arranged on the circuit shielding casing, one end of the metal dome is connected with the metal rotating shaft, while the other end of the metal dome is coupled to the circuit shielding casing through the insulating film, and wherein the metal dome and the circuit shielding casing form a capacitive coupling effect.
A welding assembly with a welding device and a welding component connected to the welding device and with a HF ignition unit for generating a HF ignition voltage (u Z) for HF ignition of an arc for welding, a data line being provided between the welding device and the welding component, and data communication between the welding device and the welding component being implemented via the data line, characterized in that a decoupling apparatus is provided in which a first data line portion of the data line is connected to a first coupling element and a second data line portion of the data line is connected to a second coupling element, and the first coupling element and the second coupling element being interconnected via a wireless coupling path for galvanic separation of the data line, and in that a separate power supply (22a, 22b) is provided for each of the first coupling element and the second coupling element, and the power supplies (22a, 22b) of the first coupling element and of the second coupling element are decoupled from one another for a HF voltage on the data line as a result of the HF ignition voltage (u Z).