mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument, comprising: a power circuit comprising a first power source and a first switch; a microcontroller; an attachment portion comprising: a first electrical contact (4001b, 4001c, 4001d, 4001e) in signal communication with said microcontroller; and a control circuit in signal communication with said microcontroller, wherein said control circuit comprises a second switch; characterised in that said attachment portion further comprises: a second electrical contact coupled to said power circuit; wherein said control circuit further comprises a second power source and a shaft attachment sensor configured to detect an attachment state of said attachment portion; and wherein said second switch switches said first switch, when said shaft attachment sensor detects a detached attachment state, to decouple said second electrical contact and said first power source. a power circuit comprising a first power source and a first switch; a microcontroller; an attachment portion comprising: a first electrical contact (4001b, 4001c, 4001d, 4001e) in signal communication with said microcontroller; and a control circuit in signal communication with said microcontroller, wherein said control circuit comprises a second switch; characterised in that said attachment portion further comprises: a second electrical contact coupled to said power circuit; wherein said control circuit further comprises a second power source and a shaft attachment sensor configured to detect an attachment state of said attachment portion; and wherein said second switch switches said first switch, when said shaft attachment sensor detects a detached attachment state, to decouple said second electrical contact and said first power source.
Latching device for locking and unlocking a tiltable cab for a commercial vehicle having a chassis structure, comprising: - a shaft extending preferably substantially transversely to the longitudinal direction of the commercial vehicle, and - a lever arrangement which serves to actuate the shaft and is preferably coupled mechanically to the shaft, wherein the cab can be moved to a tilted-down state and to a tilted-up state, and in addition can be unlocked and/or locked in the tilted-down state, by actuating only the lever arrangement, characterized in that - rotation of the shaft and therefore of the lever arrangement is prevented in the tilted-up state of the cab, and - the lever arrangement can adopt a deployed position, in which it can be folded, rotated and/or swivelled, and a retracted stowage position, in which it can be stowed below the cab while its handle (26") remains freely accessible. - a shaft extending preferably substantially transversely to the longitudinal direction of the commercial vehicle, and - a lever arrangement which serves to actuate the shaft and is preferably coupled mechanically to the shaft, - rotation of the shaft and therefore of the lever arrangement is prevented in the tilted-up state of the cab, and - the lever arrangement can adopt a deployed position, in which it can be folded, rotated and/or swivelled, and a retracted stowage position, in which it can be stowed below the cab while its handle (26") remains freely accessible.
Device for identifying equipment, in particular metallurgical vessels, in a metallurgical industrial plant, comprising an identification tag attached to the equipment, a receiving device and an evaluation unit, which recognizes the equipment on the basis of the identification tag, the identification tag being a three-dimensional identification tag, in particular a perforated plate or a plate having three-dimensional patterns, characterized in that - the receiving device is a time of flight camera with a photonic mixing device sensor, which camera captures the equipment with the three-dimensional identification tag, - an evaluation unit suitable for unambiguously identifying the equipment on the basis of the captured equipment with the three-dimensional identification tag. - the receiving device is a time of flight camera with a photonic mixing device sensor, which camera captures the equipment with the three-dimensional identification tag, - an evaluation unit suitable for unambiguously identifying the equipment on the basis of the captured equipment with the three-dimensional identification tag.
A thermal type flow sensor for measuring a fluid flow rate by using a heating resistor, a first heating resistor for measuring the fluid flow rate; a second heating resistor which is disposed at both sides of said first heating resistor on a support for said first heating resistor to heat said support wherein the second heating resistor heats the support in order to prevent heat transfers; characterized by a current control circuit (101, 102) for controlling a heating resistor supply current flowing through said first and second heating resistors (7, 10) so that a temperature of said second heating resistor is higher than that of said first heating resistor and thereby the temperature of said support has a minimum point at a position between said first heating resistor and said second heating resistor.
A method by a wireless device, the method comprising: receiving information relating to a Narrowband Secondary Synchronization Signal, NSSS, transmit diversity scheme, the information indicating the number of NSSS occasions that use different NSSS transmit diversity configurations, and wherein the received indication is for use in performing at least one measurement across the NSSS occasions. receiving information relating to a Narrowband Secondary Synchronization Signal, NSSS, transmit diversity scheme, the information indicating the number of NSSS occasions that use different NSSS transmit diversity configurations, and wherein the received indication is for use in performing at least one measurement across the NSSS occasions.
A method for drilling a wellbore, comprising: providing a steering assembly having steerable bit shaft, a tool face of said bit shaft controllable by an electric motor disposed within said steering assembly; determining a torque versus temperature characteristic of said electric motor over a range of operating temperatures under a pristine no load condition with fresh clean oil and new bearings; coupling a drill bit to said bit shaft; coupling said steering assembly along a drill string; rotating said drill string in a first direction to rotate a housing of said steering assembly and said drill bit to drill said wellbore to a first depth while at least occasionally operating said electric motor to control said tool face; determining a first torque value and a first temperature value of said electric motor under a no load condition at said first depth in the absence of any drilling fluid flow when there is no operational load; and comparing said first torque and temperature values to said torque versus temperature characteristic to determine a change in load of said electric motor. providing a steering assembly having steerable bit shaft, a tool face of said bit shaft controllable by an electric motor disposed within said steering assembly; determining a torque versus temperature characteristic of said electric motor over a range of operating temperatures under a pristine no load condition with fresh clean oil and new bearings; coupling a drill bit to said bit shaft; coupling said steering assembly along a drill string; rotating said drill string in a first direction to rotate a housing of said steering assembly and said drill bit to drill said wellbore to a first depth while at least occasionally operating said electric motor to control said tool face; determining a first torque value and a first temperature value of said electric motor under a no load condition at said first depth in the absence of any drilling fluid flow when there is no operational load; and comparing said first torque and temperature values to said torque versus temperature characteristic to determine a change in load of said electric motor.
A connector part for use underwater or in a wet or severe environment, comprising - a pin projecting axially forwardly from a support, - a sliding carriage which is in sealing engagement with the pin, the sliding carriage being movable between an unmated position and a mated position along the pin, the sliding carriage being in sealing engagement with the pin both in the unmated and in the mated position, and - a diaphragm enclosing a volume around the pin, the diaphragm having a first sealing portion that is mounted to and sealed to the sliding carriage so that it is movable together with the sliding carriage, the diaphragm having further a second sealing portion that is sealed to a portion of the connector part which is stationary relative to the pin and the support and arranged, in the unmated position, backwardly of the sliding carriage. - a pin projecting axially forwardly from a support, - a sliding carriage which is in sealing engagement with the pin, the sliding carriage being movable between an unmated position and a mated position along the pin, the sliding carriage being in sealing engagement with the pin both in the unmated and in the mated position, and - a diaphragm enclosing a volume around the pin, the diaphragm having a first sealing portion that is mounted to and sealed to the sliding carriage so that it is movable together with the sliding carriage, the diaphragm having further a second sealing portion that is sealed to a portion of the connector part which is stationary relative to the pin and the support and arranged, in the unmated position, backwardly of the sliding carriage.
A method of disposing a corrosion resistant system to a substrate, comprising: applying a plating material to the substrate; forming a chemical conversion coating solution by combining a solvent, at least one corrosion inhibitive cation comprising at least one of zinc, calcium, strontium, magnesium or aluminum, a corrosion inhibitive anion comprising silicate, and a complexing agent comprising at least one of ethylenediaminetetraacetic acid (EDTA), nitrilotriacetic acid, oxalic acid, formic acid, acetic acid, tartaric acid, nicotinic acid, citric acid, or malonic acid; applying the chemical conversion coating solution to the plating material on the substrate; drying the chemical conversion coating solution to form a chemical conversion coating; forming a corrosion resistant coating by combining a corrosion inhibition composition and an application vehicle; and applying the corrosion resistant coating to the chemical conversion coating; wherein the corrosion inhibition composition comprises a zinc oxide, a zinc phosphate, a calcium silicate, an aluminum phosphate, a zinc calcium strontium aluminum orthophosphate silicate hydrate, a molybdate compound, and/or a silicate compound. applying a plating material to the substrate; forming a chemical conversion coating solution by combining a solvent, at least one corrosion inhibitive cation comprising at least one of zinc, calcium, strontium, magnesium or aluminum, a corrosion inhibitive anion comprising silicate, and a complexing agent comprising at least one of ethylenediaminetetraacetic acid (EDTA), nitrilotriacetic acid, oxalic acid, formic acid, acetic acid, tartaric acid, nicotinic acid, citric acid, or malonic acid; applying the chemical conversion coating solution to the plating material on the substrate; drying the chemical conversion coating solution to form a chemical conversion coating; forming a corrosion resistant coating by combining a corrosion inhibition composition and an application vehicle; and applying the corrosion resistant coating to the chemical conversion coating; wherein the corrosion inhibition composition comprises a zinc oxide, a zinc phosphate, a calcium silicate, an aluminum phosphate, a zinc calcium strontium aluminum orthophosphate silicate hydrate, a molybdate compound, and/or a silicate compound.
A method of deacidizing a natural gas comprising H 2 S and COS, wherein the following stages are carried out: a) contacting the natural gas with a first absorbent solution stream in a first absorption section (C1a) so as to obtain a H 2 S-depleted gaseous effluent and a H 2 S-laden absorbent solution, b) feeding the H 2 S-depleted gaseous effluent into a reactor comprising a solid catalyst that performs a reaction of hydrolysis of the COS to H 2 S and CO 2 so as to obtain a COS-depleted gaseous effluent, said catalyst being a titanium oxide, then c) contacting the COS-depleted gaseous effluent with a second absorbent solution stream in a second absorption section (C1b) so as to obtain a treated gas and a partially H 2 S-laden absorbent solution, and d) regenerating the H 2 S-laden absorbent solution so as to obtain a regenerated absorbent solution stream, a method wherein, in stage a), first absorbent solution stream comprises a first portion of said regenerated absorbent solution stream obtained in stage d), and partially H 2 S-laden absorbent solution, in stage c), second absorbent solution stream comprises a second portion of said regenerated absorbent solution stream obtained in stage d), wherein the first portion comprises at least 70 vol.% of the regenerated absorbent solution stream obtained in stage d) and the second portion comprises less than 30 vol.% of the regenerated absorbent solution stream obtained in stage d). a) contacting the natural gas with a first absorbent solution stream in a first absorption section (C1a) so as to obtain a H 2 S-depleted gaseous effluent and a H 2 S-laden absorbent solution, b) feeding the H 2 S-depleted gaseous effluent into a reactor comprising a solid catalyst that performs a reaction of hydrolysis of the COS to H 2 S and CO 2 so as to obtain a COS-depleted gaseous effluent, said catalyst being a titanium oxide, then c) contacting the COS-depleted gaseous effluent with a second absorbent solution stream in a second absorption section (C1b) so as to obtain a treated gas and a partially H 2 S-laden absorbent solution, and d) regenerating the H 2 S-laden absorbent solution so as to obtain a regenerated absorbent solution stream,
Activation arrangement for moveable flap devices, for an airfoil, rotor blade, which comprise a pressure side and a suction side, wherein the airfoil, rotor blade comprises at least one recess and at least one air guide arrangement, wherein the air guide arrangement comprises at least one base element, at least one actuator element, and at least one air guide element, wherein the base element is arranged in at least the recess, wherein at least one free end of the air guide element is arranged on the base element, wherein the air guide element with the base element encloses at least one receiving space in which the actuator element is arranged, characterized in that the actuator element comprises at least one spacer element arranged integrally thereon in the profile longitudinal direction.
An internal combustion engine comprising an ignition coil device, the ignition coil device comprising: a coil case, wherein an annular elastic body is mounted over an outer periphery of said coil case, said coil case is inserted in a socket portion of a plug hole formed in a cylinder head, wherein the elastic body is pressed against an inner surface of the plug hole to ensure a waterproof sealing of an opening of the plug hole, characterized in that an air path which communicates the inside and the outside of a plug hole with each other and being formed upstream and downstream of a filter in a part of the coil case and between said coil case and said elastic body, wherein the filter is disposed in a filter fitted area in said air path to close the air path such as to prevent intrusion of water into the plug hole, is made of a thin film resin member with a porous structure, and is permeable to gas but not to liquid, wherein an enlarged path portion of the air path is formed in the filter fitted area where the elastic body an the coil case face each other. a coil case, wherein an annular elastic body is mounted over an outer periphery of said coil case, said coil case is inserted in a socket portion of a plug hole formed in a cylinder head, wherein the elastic body is pressed against an inner surface of the plug hole to ensure a waterproof sealing of an opening of the plug hole, characterized in that an air path which communicates the inside and the outside of a plug hole with each other and being formed upstream and downstream of a filter in a part of the coil case and between said coil case and said elastic body, wherein the filter is disposed in a filter fitted area in said air path to close the air path such as to prevent intrusion of water into the plug hole, is made of a thin film resin member with a porous structure, and is permeable to gas but not to liquid, wherein an enlarged path portion of the air path is formed in the filter fitted area where the elastic body an the coil case face each other.
Apparatus for statically quenching rods and tubes equipped with a main development axis and coming from a rolling plant, the apparatus comprising a seat for housing a rod or tube equipped with positioning axis, so that when the rod or tube is housed in the seat the main development axis of the rod or tube coincides with the positioning axis, a series of first external nozzles for dispensing quenching agent arranged around the positioning axis, wherein the first external nozzles are arranged along a curvilinear surface, substantially equidistant from the positioning axis, the first external nozzles being adjustable so as deliver a flow of quenching agent tangential to the surface of the rod or tube, wherein longitudinally moving means and lifting means are comprised for positioning the rod or tube coming from the rolling plant so that the main development axis of the rod or tube coincides with the positioning axis, characterized in that the curvilinear surface has an absence of first external nozzles which defines an opening at the bottom so that the first external nozzles are arranged asymmetrically, that possible detached pieces due to possible cracks fall freely and that the lifting means, supporting the product and permitting the evacuation, pass through the opening at the bottom of the curvilinear surface wherein the apparatus comprises rotating means in order to operate the rotation of a rod or tube about the main development axis, when the rod or tube is housed in the seat.
A load detection sensor (5A-5D) comprising: a first electrode sheet (6, 56, 66) including a first electrode (62, 66e1); a second electrode sheet (7, 57, 67) including a second electrode (72, 67e1) opposed to the first electrode; a spacer (8, 58, 68) interposed between the first electrode sheet (6, 56, 66) and the second electrode sheet (7, 57, 67), the spacer (8, 58, 68) having an opening (81, 58c) between the first electrode (62, 66e1) and the second electrode (72, 67e1); an annular member (9, 9A to 9D, 59) disposed in the opening (81, 58c); and an adhesive layer disposed at least either between the spacer (8, 58, 68) and the first electrode sheet (6, 56, 66) or between the spacer (8, 58, 68) and the second electrode sheet (7, 57, 67), characterized in that the annular member (9, 9A to 9D, 59) is in contact with at least one of the first electrode sheet (6, 56, 66) exposed at the opening (81, 58c) and the second electrode sheet (7, 57, 67) exposed at the opening (81, 58c), and has no adhesion to both of the first electrode sheet (6, 56, 66) and the second electrode sheet (7, 57, 67) the annular member (9, 9A to 9D, 59) has a vent (91A-91D) for deflation of air in the opening (81, 5) of the spacer (8, 58, 68). a first electrode sheet (6, 56, 66) including a first electrode (62, 66e1); a second electrode sheet (7, 57, 67) including a second electrode (72, 67e1) opposed to the first electrode; a spacer (8, 58, 68) interposed between the first electrode sheet (6, 56, 66) and the second electrode sheet (7, 57, 67), the spacer (8, 58, 68) having an opening (81, 58c) between the first electrode (62, 66e1) and the second electrode (72, 67e1); an annular member (9, 9A to 9D, 59) disposed in the opening (81, 58c); and an adhesive layer disposed at least either between the spacer (8, 58, 68) and the first electrode sheet (6, 56, 66) or between the spacer (8, 58, 68) and the second electrode sheet (7, 57, 67), characterized in that the annular member (9, 9A to 9D, 59) is in contact with at least one of the first electrode sheet (6, 56, 66) exposed at the opening (81, 58c) and the second electrode sheet (7, 57, 67) exposed at the opening (81, 58c), and has no adhesion to both of the first electrode sheet (6, 56, 66) and the second electrode sheet (7, 57, 67) the annular member (9, 9A to 9D, 59) has a vent (91A-91D) for deflation of air in the opening (81, 5) of the spacer (8, 58, 68).
Wind turbine rotor balancing method, the wind turbine comprising a rotor which comprises at least two blades, comprising the following steps: • a step of identifying a reference angular position for each of the at least two blades; • a step of calculating a magnitude ( m x) of rotor imbalance based on a mass ( M iT) of each of the at least two blades with respect to a centre of the rotor; and • a step of calculating a phase ( φ x) of rotor imbalance; • a balancing step, wherein the balancing step is carried out at least if the phase ( φ x) of rotor imbalance lies outside a permissible angular range relative to the reference angular positions; characterized in that the balancing step is carried out if the following condition is additionally met: • the difference between the masses of the at least two blades, difference calculated taking the blades two by two, | M iT ― M jT | ∀ i,j being i≠j, is above a first threshold value. • a step of identifying a reference angular position for each of the at least two blades; • a step of calculating a magnitude ( m x) of rotor imbalance based on a mass ( M iT) of each of the at least two blades with respect to a centre of the rotor; and • a step of calculating a phase ( φ x) of rotor imbalance; • a balancing step, wherein the balancing step is carried out at least if the phase ( φ x) of rotor imbalance lies outside a permissible angular range relative to the reference angular positions; • the difference between the masses of the at least two blades, difference calculated taking the blades two by two, | M iT ― M jT | ∀ i,j being i≠j, is above a first threshold value.