mhurhangee/ep-ind-claims huggingface dataset:
A subsea switchgear apparatus comprising - a frame, - at least one electrical power inlet mounted to the frame, - at least one electrical power outlet mounted to the frame, - a distribution chamber mounted to the frame, and - electrical connections arranged in the distribution chamber for electrically connecting the respective circuit breaker of a canister to the associated power inlet and power outlet of the switchgear apparatus; wherein the chamber of the respective canister is separated from the distribution chamber by a pressure barrier, characterized in that the switchgear apparatus comprises - at least one canister, which is mounted to the distribution chamber and comprises a chamber accommodating at least one high voltage circuit breaker. - a frame, - at least one electrical power inlet mounted to the frame, - at least one electrical power outlet mounted to the frame, - a distribution chamber mounted to the frame, and - electrical connections arranged in the distribution chamber for electrically connecting the respective circuit breaker of a canister to the associated power inlet and power outlet of the switchgear apparatus; wherein the chamber of the respective canister is separated from the distribution chamber by a pressure barrier, characterized in that the switchgear apparatus comprises - at least one canister, which is mounted to the distribution chamber and comprises a chamber accommodating at least one high voltage circuit breaker.
Plug, particularly for the electrical connection of a load in a motor vehicle with a plug housing with a cable bushing and at least one opening assigned to an electrical plug contact (74, 76, 82, 84), and which comprises a plug base part forming the cable bushing and a housing top part comprising the at least one opening, which are interconnected by mounting therebetween a shield attachment which is exposed on the outside on the plug housing, wherein the shield attachment is guided from the outside of the plug housing inwards and is contactable with a shield of a cable, characterized in that the shield attachment forms a plurality of shield contacts which are arranged and distributed on the circumference of the plug housing and are formed at the free end of spring arms of the shield attachment which are movably held in the plug housing.
An apparatus configured to provide a signal which generates a haptic effect, said apparatus comprising means configured to: receive at least one signal comprising a haptic signal part and an audio signal part; separate the at least one signal to generate at least one haptic signal and at least one audio signal; process separately the at least one haptic signal to generate at least one processed haptic signal and the at least one audio signal to generate at least one processed audio signal, wherein the means configured to process separately is configured to apply a gain control or volume control or muting to the at least one haptic signal and to apply a gain control or volume control or muting to the at least one audio signal; separately route the at least one processed haptic signal as a first output signal to a first output and the at least one processed audio signal as a second output signal to a second output based on signal information; apply routing specific processing separately to the first output signal and the second output signal to generate a processed first output signal and a processed second output signal, wherein the means configured to apply routing specific processing is configured to equalise and/or tune the first output signal and equalise and/or tune the second output signal based on hardware providing a respective haptic effect and a respective acoustic effect; and output the processed first output signal such that it generates the haptic effect and the processed second output signal such that it generates an acoustic effect. receive at least one signal comprising a haptic signal part and an audio signal part; separate the at least one signal to generate at least one haptic signal and at least one audio signal; process separately the at least one haptic signal to generate at least one processed haptic signal and the at least one audio signal to generate at least one processed audio signal, wherein the means configured to process separately is configured to apply a gain control or volume control or muting to the at least one haptic signal and to apply a gain control or volume control or muting to the at least one audio signal; separately route the at least one processed haptic signal as a first output signal to a first output and the at least one processed audio signal as a second output signal to a second output based on signal information; apply routing specific processing separately to the first output signal and the second output signal to generate a processed first output signal and a processed second output signal, wherein the means configured to apply routing specific processing is configured to equalise and/or tune the first output signal and equalise and/or tune the second output signal based on hardware providing a respective haptic effect and a respective acoustic effect; and output the processed first output signal such that it generates the haptic effect and the processed second output signal such that it generates an acoustic effect.
An image relaying device, comprising: a shaft; an objective lens at a distal end of the shaft; an optically transparent window region in a proximal end region of the image relaying device; an optical system (33, 35, 36, 42) in the shaft, the optical system (33, 35, 36, 42) relaying an image produced by the objective lens to the proximal end region in a way that the relayed image can be captured through the window region; a reflecting interface bending the optical system's (33, 35, 36, 42) optical axis, characterized by an adjustment mechanism (44, 45, 46) facilitating adjustment of the position of the reflecting interface, wherein the optical system's (33, 35, 36, 42) optical axis at the window region is orthogonal or substantially orthogonal to the optical system's (33, 35, 36, 42) optical axis in the shaft, wherein the adjustment mechanism (44, 45, 46) is configured to facilitate translational displacement of the reflecting interface in a direction parallel to the longitudinal axis of the shaft. a shaft; an objective lens at a distal end of the shaft; an optically transparent window region in a proximal end region of the image relaying device; an optical system (33, 35, 36, 42) in the shaft, the optical system (33, 35, 36, 42) relaying an image produced by the objective lens to the proximal end region in a way that the relayed image can be captured through the window region; a reflecting interface bending the optical system's (33, 35, 36, 42) optical axis, characterized by an adjustment mechanism (44, 45, 46) facilitating adjustment of the position of the reflecting interface, wherein the optical system's (33, 35, 36, 42) optical axis at the window region is orthogonal or substantially orthogonal to the optical system's (33, 35, 36, 42) optical axis in the shaft, wherein the adjustment mechanism (44, 45, 46) is configured to facilitate translational displacement of the reflecting interface in a direction parallel to the longitudinal axis of the shaft.
An image processing apparatus comprising: target value calculation means for calculating, as a target value, a value related to a target tone in a predetermined region in input image data, based on pixel values of pixels included in the region; holding means for holding a threshold value matrix including a plurality of threshold values; distribution order determination means for determining a distribution order that is a priority order of arranging ON dots, and output value determination means for determining an output value indicating whether to turn on or off at least one pixel included in the predetermined region based on the target value and the priority order, characterized in that the distribution order determination means is configured to calculate, as an evaluation value for each pixel, a difference between a pixel value of each pixel representing the input image data and a threshold value in the threshold value matrix corresponding to the pixel for each pixel included in the region and to determine the distribution order by sorting the evaluation values, and the output value determination means is configured to determine an arrangement of ON dots in the predetermined region with reference to the evaluation values until the value in the predetermined region reaches the target value. target value calculation means for calculating, as a target value, a value related to a target tone in a predetermined region in input image data, based on pixel values of pixels included in the region; holding means for holding a threshold value matrix including a plurality of threshold values; distribution order determination means for determining a distribution order that is a priority order of arranging ON dots, and output value determination means for determining an output value indicating whether to turn on or off at least one pixel included in the predetermined region based on the target value and the priority order, characterized in that the distribution order determination means is configured to calculate, as an evaluation value for each pixel, a difference between a pixel value of each pixel representing the input image data and a threshold value in the threshold value matrix corresponding to the pixel for each pixel included in the region and to determine the distribution order by sorting the evaluation values, and the output value determination means is configured to determine an arrangement of ON dots in the predetermined region with reference to the evaluation values until the value in the predetermined region reaches the target value.
An apparatus for producing aligned carbon nanotube aggregates, the apparatus comprising: a growth unit including a growth furnace for growing therein the aligned carbon nanotube aggregates on a substrate supporting a catalyst on a surface of the substrate; and first gas mixing prevention means for preventing gas present outside the growth furnace from flowing into the growth furnace, the first gas mixing prevention means including: a first seal gas ejection section for ejecting a seal gas along an opening plane of at least one of (i) an opening of the growth furnace through which opening the substrate is transferred into the growth furnace and (ii) an opening of the growth furnace through which opening the substrate is transferred out of the growth furnace; and a first exhaust section for sucking and exhausting the seal gas out of the apparatus, so that the seal gas does not flow into the growth furnace through the opening of the growth furnace. a growth unit including a growth furnace for growing therein the aligned carbon nanotube aggregates on a substrate supporting a catalyst on a surface of the substrate; and first gas mixing prevention means for preventing gas present outside the growth furnace from flowing into the growth furnace, the first gas mixing prevention means including: a first seal gas ejection section for ejecting a seal gas along an opening plane of at least one of (i) an opening of the growth furnace through which opening the substrate is transferred into the growth furnace and (ii) an opening of the growth furnace through which opening the substrate is transferred out of the growth furnace; and a first exhaust section for sucking and exhausting the seal gas out of the apparatus, so that the seal gas does not flow into the growth furnace through the opening of the growth furnace. a first seal gas ejection section for ejecting a seal gas along an opening plane of at least one of (i) an opening of the growth furnace through which opening the substrate is transferred into the growth furnace and (ii) an opening of the growth furnace through which opening the substrate is transferred out of the growth furnace; and a first exhaust section for sucking and exhausting the seal gas out of the apparatus, so that the seal gas does not flow into the growth furnace through the opening of the growth furnace.
A waveguide device (100, 200), comprising: a substrate (110, 210) having an upper surface and a first width; a cladding layer (120, 220) over the upper surface of the substrate, the cladding layer comprising a first material having a first refractive index, wherein the cladding layer has a second width that is less than the first width; and an optical core (130, 230) embedded in and surrounded by the cladding layer, the optical core comprising a second material having a second refractive index that is higher than the first refractive index such that an optical signal will propagate through the optical core; wherein the cladding layer that surrounds the optical core has a thickness configured to substantially confine acoustic waves to the cladding layer when the optical signal propagates through the optical core; wherein the waveguide device is an acoustic ridge or rib waveguide, and is configured to generate a counter-propagating Stokes wave when the optical signal propagates through the optical core. a substrate (110, 210) having an upper surface and a first width; a cladding layer (120, 220) over the upper surface of the substrate, the cladding layer comprising a first material having a first refractive index, wherein the cladding layer has a second width that is less than the first width; and an optical core (130, 230) embedded in and surrounded by the cladding layer, the optical core comprising a second material having a second refractive index that is higher than the first refractive index such that an optical signal will propagate through the optical core; wherein the cladding layer that surrounds the optical core has a thickness configured to substantially confine acoustic waves to the cladding layer when the optical signal propagates through the optical core; wherein the waveguide device is an acoustic ridge or rib waveguide, and is configured to generate a counter-propagating Stokes wave when the optical signal propagates through the optical core.
Pad device for the transfer of force to an anterior chest wall during cardiopulmonary resuscitation, characterized by at least two pad elements (100, 200) adapted to be positioned on an anterior chest wall surface, a hinge mechanism connecting the at least two pad elements, the at least two pad elements being movably mounted to the hinge mechanism, such that the hinge mechanism cooperatively responds to a force applied when the patient is receiving a CPR.
A multimode optical amplifier (101; 102; 103; 104; 105; 106) comprising: an optical resonator which includes an amplification fiber that is capable of amplifying signal light having one propagation mode and signal light having more than one propagation mode and which is configured to resonate at least one propagation mode that is included in the signal light amplified by the amplification fiber; an excitation light source which is configured to output excitation light for exciting the amplification fiber; and a multiplexer which is configured to multiplex the signal light and the excitation light, wherein the optical resonator includes a gain clamp setting unit which is configured to set gain clamp for at least one propagation mode among a plurality of propagation modes resonating in the optical resonator. an optical resonator which includes an amplification fiber that is capable of amplifying signal light having one propagation mode and signal light having more than one propagation mode and which is configured to resonate at least one propagation mode that is included in the signal light amplified by the amplification fiber; an excitation light source which is configured to output excitation light for exciting the amplification fiber; and a multiplexer which is configured to multiplex the signal light and the excitation light, wherein the optical resonator includes a gain clamp setting unit which is configured to set gain clamp for at least one propagation mode among a plurality of propagation modes resonating in the optical resonator.
A method for monitoring the condition of a heat exchanger in an air circuit of an aircraft, said heat exchanger being for cooling air extracted from a primary hot air source of the aircraft, said method being characterised in that it comprises the following steps: - acquiring temperature measurements made by a probe disposed at an outlet of said heat exchanger, said acquiring being performed when the air circuit is fed by a secondary hot air source downstream of said heat exchanger and the primary hot air source being cut off, - selecting a relevant temperature measurement from said temperature measurements, said relevant temperature measurement being representative of a stabilisation phase included in a predetermined observation time period, - comparing said relevant temperature measurement with an alert threshold, and - evaluating a leakage level in the heat exchanger based on said comparison. - acquiring temperature measurements made by a probe disposed at an outlet of said heat exchanger, said acquiring being performed when the air circuit is fed by a secondary hot air source downstream of said heat exchanger and the primary hot air source being cut off, - selecting a relevant temperature measurement from said temperature measurements, said relevant temperature measurement being representative of a stabilisation phase included in a predetermined observation time period, - comparing said relevant temperature measurement with an alert threshold, and - evaluating a leakage level in the heat exchanger based on said comparison.
Method for repairing a turbine-engine component, such as a turbine nozzle (10, D), this component comprising an annular wall supporting an abradable ring, the method comprising first-repair steps consisting of: a) removing a first abradable ring, the brazing for fixing the ring to the annular wall, and an inner peripheral part (D') of the annular wall, and b) fixing a second abradable ring to the annular wall by brazing, characterised in that the second abradable ring has the finished dimensions (r1'), the first repair not having a step of grinding of the second ring after fixing thereof to the annular wall. a) removing a first abradable ring, the brazing for fixing the ring to the annular wall, and an inner peripheral part (D') of the annular wall, and b) fixing a second abradable ring to the annular wall by brazing,
A build material container outlet structure comprising: a connector comprising an interface surface and an adaptor to receive a nozzle structure of an external aspiration system; a socket recessed from the interface surface to receive a data interconnect structure of the nozzle structure, the data interconnect structure comprising a data interface; a data contact disposed in the socket to engage with the data interface of the data interconnect structure when the nozzle structure is in an engagement position; and an activation structure disposed on the interface surface to engage a switch element in the nozzle structure of the external aspiration system when the nozzle structure is held in the engagement position. a connector comprising an interface surface and an adaptor to receive a nozzle structure of an external aspiration system; a socket recessed from the interface surface to receive a data interconnect structure of the nozzle structure, the data interconnect structure comprising a data interface; a data contact disposed in the socket to engage with the data interface of the data interconnect structure when the nozzle structure is in an engagement position; and an activation structure disposed on the interface surface to engage a switch element in the nozzle structure of the external aspiration system when the nozzle structure is held in the engagement position.
A dump body, adapted to assume a loaded condition, for a working machine, the dump body comprising two main plates (20a, 20b) for creating a load receiving surface, the two main plates being joined to each other by a weld joint, wherein the dump body comprises a backing plate arranged on said two main plates (20a, 20b) at the inside of the dump body, said backing plate covering the weld joint and being joined to the two main plates by means of the weld joint, characterized in that said backing plate comprises free longitudinal edges (24, 25).
Blower for an internal combustion engine with an electric motor comprising a stator and a rotor which is attached to a drive shaft a housing which surrounds the electric motor a conveying channel (46, 40) configured in the housing, an intake port delimiting an intake channel, and an exhaust port delimiting an exhaust channel, an impeller which is attached to the drive shaft and via which fluid can be conveyed from the intake channel via the conveying channel (46, 40) to the outlet channel, wherein an electronics chamber is configured in the housing, in which an electronic board with electronic components is arranged, via which the electric motor can be controlled, wherein the housing comprises an opening, via which the electronics chamber is fluidically connected to the intake channel and wherein the electronics chamber is arranged on a side of the electric motor axially opposite to the impeller, characterized in that the housing delimiting the electronics chamber and the intake port comprise a common wall surface in which the opening for connecting the intake channel to the electronics chamber is configured, and in that the intake port extends at least along the axial length of the electric motor and the electronics chamber to the conveying channel (46, 40). an electric motor comprising a stator and a rotor which is attached to a drive shaft a housing which surrounds the electric motor a conveying channel (46, 40) configured in the housing, an intake port delimiting an intake channel, and an exhaust port delimiting an exhaust channel, an impeller which is attached to the drive shaft and via which fluid can be conveyed from the intake channel via the conveying channel (46, 40) to the outlet channel, wherein an electronics chamber is configured in the housing, in which an electronic board with electronic components is arranged, via which the electric motor can be controlled, wherein the housing comprises an opening, via which the electronics chamber is fluidically connected to the intake channel and wherein the electronics chamber is arranged on a side of the electric motor axially opposite to the impeller, characterized in that the housing delimiting the electronics chamber and the intake port comprise a common wall surface in which the opening for connecting the intake channel to the electronics chamber is configured, and in that the intake port extends at least along the axial length of the electric motor and the electronics chamber to the conveying channel (46, 40).