mhurhangee/ep-ind-claims huggingface dataset:
An oil monitoring system (300, 320), comprising: at least one oil sensing unit (118, 120, 118A, 118B, 120A, 120B, 342, 344) to provide at least one oil condition signal from at least one location (110A, 116A) within a rotary meter to be monitored, at least one location (110A, 116A) comprising a magnetic meter housing or a thrust housing, and the at least one oil condition signal representing a quality indicative of meter health; one or more alarm signaling interfaces (128, 130); and a main control unit configured to be coupled to at least one oil condition sensing unit (118, 120, 118A, 118B, 120A, 120B, 342, 344) and the one or more alarm signaling interfaces (128, 130); wherein the main control unit is configured to: detect a condition of oil at the at least one location (110A, 116A) using the at least one oil condition sensing unit (118, 120, 118A, 118B, 120A, 120B, 342, 344), wherein the condition comprises any one or more of: oil level loss due to seepage into a metering chamber, colour, aeration, contamination, and another quality indicative of meter health; and control at least one of the one or more alarm signaling interfaces (128, 130) to provide an alarm in response to the condition of oil detected. at least one oil sensing unit (118, 120, 118A, 118B, 120A, 120B, 342, 344) to provide at least one oil condition signal from at least one location (110A, 116A) within a rotary meter to be monitored, at least one location (110A, 116A) comprising a magnetic meter housing or a thrust housing, and the at least one oil condition signal representing a quality indicative of meter health; one or more alarm signaling interfaces (128, 130); and a main control unit configured to be coupled to at least one oil condition sensing unit (118, 120, 118A, 118B, 120A, 120B, 342, 344) and the one or more alarm signaling interfaces (128, 130); wherein the main control unit is configured to: detect a condition of oil at the at least one location (110A, 116A) using the at least one oil condition sensing unit (118, 120, 118A, 118B, 120A, 120B, 342, 344), wherein the condition comprises any one or more of: oil level loss due to seepage into a metering chamber, colour, aeration, contamination, and another quality indicative of meter health; and control at least one of the one or more alarm signaling interfaces (128, 130) to provide an alarm in response to the condition of oil detected. detect a condition of oil at the at least one location (110A, 116A) using the at least one oil condition sensing unit (118, 120, 118A, 118B, 120A, 120B, 342, 344), wherein the condition comprises any one or more of: oil level loss due to seepage into a metering chamber, colour, aeration, contamination, and another quality indicative of meter health; and control at least one of the one or more alarm signaling interfaces (128, 130) to provide an alarm in response to the condition of oil detected.
System for treating hydrogen and/or oxygen gases produced by water electrolysis and serving to feed a combustion, characterized in that it comprises at least one heat exchanger, in which the gas(es) can circulate to be cooled or heated, said heat exchanger being immersed in a reactive compound (2 or 3) which is contained in an enclosure and which is itself traversed by the gas(es), said reactive compound and the gas(es) undergoing a physicochemical modification that generates an endothermic or exothermic reaction when they are brought into contact.
Strut intended to be interposed between a chassis and a stub axle of a motor vehicle, the strut comprising: - a shock absorber comprising a cylindrical body in which an axial rod is mounted telescopically, a first free end being intended to be fixed to the chassis and a second end being intended to be fixed to the stub axle; - a pneumatic spring comprising a rigid pneumatic cylinder coaxial to the shock absorber, which radially delimits a working chamber in which a piston is slidingly housed, the shock absorber rod passing through the working chamber, the pneumatic cylinder being fixed relative to the shock absorber rod and the piston being fixed to the shock absorber body; - a helical spring coaxial to the shock absorber and interposed axially between a face fixed relative to the shock absorber rod and a face fixed relative to the shock absorber body; characterized in that the piston bears axially against the axial end of the shock absorber body through which the shock absorber rod passes. - a shock absorber comprising a cylindrical body in which an axial rod is mounted telescopically, a first free end being intended to be fixed to the chassis and a second end being intended to be fixed to the stub axle; - a pneumatic spring comprising a rigid pneumatic cylinder coaxial to the shock absorber, which radially delimits a working chamber in which a piston is slidingly housed, the shock absorber rod passing through the working chamber, the pneumatic cylinder being fixed relative to the shock absorber rod and the piston being fixed to the shock absorber body; - a helical spring coaxial to the shock absorber and interposed axially between a face fixed relative to the shock absorber rod and a face fixed relative to the shock absorber body;
A liquid sealing agent for heating installations, consisting of a mixture of 7.2-10.7 wt.% cellulose paste, 7.2-10.7 wt.% preservative, 0.95-1.4 wt.% cellulose fibres, 0.14-0.22 wt.% sodium hydroxide solution 10%, wherein the remaining weight proportion of up to 100 wt.% is filled up with water,
A method of forming an elastic film stretchable structure comprising: a supply step of interposing an elastic film between a first sheet layer and a second sheet layer in a stretched state in a machine direction; and a bonding step of passing the first sheet layer, the second sheet layer, and the elastic film interposed therebetween in the stretched state, between an anvil roll having a plurality of protrusions arranged at intervals in a predetermined pattern on an outer peripheral surface, and at least one ultrasonic horn facing the outer peripheral surface of the anvil roll, and forming sheet bonded portions by welding the first sheet layer and the second sheet layer only at portions interposed between the plurality of protrusions and the ultrasonic horn, wherein the anvil roll includes a region having the protrusions, the region includes a site in which welding is performed by at least one ultrasonic horn, the site has a portion in which an area rate of the protrusions changes in a roll circumferential direction, and a difference between a maximum value and a minimum value in a change of the area rate of the protrusions in the roll circumferential direction is 4.5% or less, wherein the area rate is determined according to the description. a supply step of interposing an elastic film between a first sheet layer and a second sheet layer in a stretched state in a machine direction; and a bonding step of passing the first sheet layer, the second sheet layer, and the elastic film interposed therebetween in the stretched state, between an anvil roll having a plurality of protrusions arranged at intervals in a predetermined pattern on an outer peripheral surface, and at least one ultrasonic horn facing the outer peripheral surface of the anvil roll, and forming sheet bonded portions by welding the first sheet layer and the second sheet layer only at portions interposed between the plurality of protrusions and the ultrasonic horn, wherein the anvil roll includes a region having the protrusions, the region includes a site in which welding is performed by at least one ultrasonic horn, the site has a portion in which an area rate of the protrusions changes in a roll circumferential direction, and a difference between a maximum value and a minimum value in a change of the area rate of the protrusions in the roll circumferential direction is 4.5% or less, wherein the area rate is determined according to the description.
An SRAM memory (100, 200) including a burst mode address comparator (101, 300)comprising: an address memory configured to store a first row address for a first read operation; a latch configured to set a latch output signal responsive to a second row address for a write operation following the first read operation being equal to the first row address; a first plurality of logic gates configured to assert a bit comparison word responsive to a current row address for the SRAM memory being equal to the first row address; a first transistor configured to switch off during each write operation and to switch on during each read operation; a second transistor having a first terminal coupled to a burst mode node for a burst mode signal and having a second terminal coupled to ground through the first transistor; and a second plurality of logic gates (330, 335) configured to switch on the second transistor to ground the burst mode node responsive to an assertion of the bit comparison word while the latch output signal is asserted and to not switch on the second transistor responsive to an assertion of the bit comparison word while the latch output signal is reset. an address memory configured to store a first row address for a first read operation; a latch configured to set a latch output signal responsive to a second row address for a write operation following the first read operation being equal to the first row address; a first plurality of logic gates configured to assert a bit comparison word responsive to a current row address for the SRAM memory being equal to the first row address; a first transistor configured to switch off during each write operation and to switch on during each read operation; a second transistor having a first terminal coupled to a burst mode node for a burst mode signal and having a second terminal coupled to ground through the first transistor; and a second plurality of logic gates (330, 335) configured to switch on the second transistor to ground the burst mode node responsive to an assertion of the bit comparison word while the latch output signal is asserted and to not switch on the second transistor responsive to an assertion of the bit comparison word while the latch output signal is reset.
An optical sensor module, the optical sensor module comprising: an optical sensor array of optical detectors, arranged below a display panel to receive probe light that is generated when a finger is illuminated by a light source and returned from the display panel, the probe light being used for detecting a fingerprint of the finger; an array of optical collimators located between the display panel and the optical sensor array to collect the probe light returned from the display panel and to separate probe light from different locations while directing the collected probe light to the optical sensor array, wherein the array of optical collimators is spaced from the optical sensor array to effectuate a pinhole camera effect that enhances an optical imaging resolution of the optical sensor array, and an optical layer between the optical collimators and the display panel to select angled probe light returned from the display panel to enter the optical collimators while reducing an amount of the returned probe light that is perpendicular to the display panel wherein the optical layer includes an optical diffraction pattern that diffracts the returned probe light to direct the angled probe light returned from the display panel to enter the optical collimators. an optical sensor array of optical detectors, arranged below a display panel to receive probe light that is generated when a finger is illuminated by a light source and returned from the display panel, the probe light being used for detecting a fingerprint of the finger; an array of optical collimators located between the display panel and the optical sensor array to collect the probe light returned from the display panel and to separate probe light from different locations while directing the collected probe light to the optical sensor array, wherein the array of optical collimators is spaced from the optical sensor array to effectuate a pinhole camera effect that enhances an optical imaging resolution of the optical sensor array, and an optical layer between the optical collimators and the display panel to select angled probe light returned from the display panel to enter the optical collimators while reducing an amount of the returned probe light that is perpendicular to the display panel wherein the optical layer includes an optical diffraction pattern that diffracts the returned probe light to direct the angled probe light returned from the display panel to enter the optical collimators.
A method for obtaining an n-type doped metal chalcogenide quantum dot solid-state film for steady-state probing of intraband absorption transitions or intraband photodetection, comprising: - forming a metal chalcogenide quantum dot solid-state film, and - carrying out an n-doping process on at least a plurality of the metal chalcogenide quantum dots of said metal chalcogenide quantum dot solid-state film so that they exhibit intraband absorption, wherein said n-doping process comprises: - partially substituting chalcogen atoms by halogen atoms in at least said plurality of metal chalcogenide quantum dots; and - providing a substance on at least said plurality of metal chalcogenide quantum dots, wherein said substance is made and arranged to avoid oxygen p-doping of the plurality of metal chalcogenide quantum dots. - forming a metal chalcogenide quantum dot solid-state film, and - carrying out an n-doping process on at least a plurality of the metal chalcogenide quantum dots of said metal chalcogenide quantum dot solid-state film so that they exhibit intraband absorption, wherein said n-doping process comprises: - partially substituting chalcogen atoms by halogen atoms in at least said plurality of metal chalcogenide quantum dots; and - providing a substance on at least said plurality of metal chalcogenide quantum dots, wherein said substance is made and arranged to avoid oxygen p-doping of the plurality of metal chalcogenide quantum dots. - partially substituting chalcogen atoms by halogen atoms in at least said plurality of metal chalcogenide quantum dots; and - providing a substance on at least said plurality of metal chalcogenide quantum dots, wherein said substance is made and arranged to avoid oxygen p-doping of the plurality of metal chalcogenide quantum dots.
A method to form a three-dimensional image inside transparent stone comprising the following process steps: - curving of the inner side of the said transparent stone, forming a space and leaving an outer shell (1.1), - making at least one first designing onto the inward facing surface of the said outer shell (1.1), - making at least one transparent filling layer onto the inward facing surface of the said outer shell (1.1), - making at least one second designing onto the inward facing surface of the said filling layer, - repeating one under the other of the designing and filling layer designing on the inward facing surface of the said filling layer as per the design, - connecting at least one three-dimensional object to the inward facing surface of the said filling layer at the very bottom, and closing the lower part of the stone. - curving of the inner side of the said transparent stone, forming a space and leaving an outer shell (1.1), - making at least one first designing onto the inward facing surface of the said outer shell (1.1), - making at least one transparent filling layer onto the inward facing surface of the said outer shell (1.1), - making at least one second designing onto the inward facing surface of the said filling layer, - repeating one under the other of the designing and filling layer designing on the inward facing surface of the said filling layer as per the design, - connecting at least one three-dimensional object to the inward facing surface of the said filling layer at the very bottom, and closing the lower part of the stone.
A development processing apparatus for producing a lithographic printing plate, comprising: a development section; a gum treatment section continuous to the development section; a second gum treatment section continuous to the gum treatment section, wherein the gum treatment section has a transport roller, a unit A supplying a washing solution to the transport roller, and a gum solution exhausting port, and wherein the second gum treatment section has a gum solution supplying unit for supplying gum solution to the gum treatment section, wherein the unit A supplying the washing solution is set to supply the washing solution on the transport roller in at least one point in time selected from the group consisting of a start of operation of the development processing apparatus, a time from an end of development processing to a start of next development processing, and an end of operation of the development processing apparatus. a development section; a gum treatment section continuous to the development section; a second gum treatment section continuous to the gum treatment section, wherein the gum treatment section has a transport roller, a unit A supplying a washing solution to the transport roller, and a gum solution exhausting port, and wherein the second gum treatment section has a gum solution supplying unit for supplying gum solution to the gum treatment section, wherein the unit A supplying the washing solution is set to supply the washing solution on the transport roller in at least one point in time selected from the group consisting of a start of operation of the development processing apparatus, a time from an end of development processing to a start of next development processing, and an end of operation of the development processing apparatus.
A land-based seismic data collection system comprising: a case comprising a cap and a container, each of said cap and container (14, 16) having a cylindrical wall (18, 30) with an outer surface (24, 36) and an inner surface (26, 38) and a closed end (28, 40), each of said walls forming an open cylindrical end (29, 42) having a periphery, said cap and said container configured to join together to form an internal compartment; and a geophone disposed in said case characterized in that the case includes one or more external electrical contacts to permit external electrical contact with certain electrical components within the case, said one or more external electrical contacts being physically decoupled from rigid attachment to internal circuit board(s) of unit. a case comprising a cap and a container, each of said cap and container (14, 16) having a cylindrical wall (18, 30) with an outer surface (24, 36) and an inner surface (26, 38) and a closed end (28, 40), each of said walls forming an open cylindrical end (29, 42) having a periphery, said cap and said container configured to join together to form an internal compartment; and a geophone disposed in said case characterized in that the case includes one or more external electrical contacts to permit external electrical contact with certain electrical components within the case, said one or more external electrical contacts being physically decoupled from rigid attachment to internal circuit board(s) of unit.
Parallel starting system for starting an internal combustion engine, which parallel starting system has at least two starters (S1, S2) which are connected in parallel to one another, characterized in that a respective thermal switch (TS1, TS2) is associated with each of the starters and interrupts operation of the respectively associated starter in the event of a response, and in that the thermal switches (TS1, TS2) are connected in series in order to interrupt operation of all of the starters in the event of one of the said thermal switches being tripped.
Holding frame, into which plug-in connector modules can be inserted and which is provided for installation in a plug-in connector housing, wherein the holding frame comprises two halves (4, 5) which are connected to one another via a joint (2, 3), a first half and a second half, wherein the holding frame comprises at least one locking element and wherein the halves (4, 5) can be oriented in at least two positions relative to one another wherein the first locking element is fixed to the halves (4, 5) under prestress characterized in that the force resulting from the prestressing serves to fix the holding frame both in an open position and in a closed position, - in that the locking element comprises a sprung wire piece, which conforms to the frame shape of the holding frame, - in that the locking element is arranged below the joint (2, 3) counter to the insertion direction of the plug-in connector modules and thereby draws the halves (4, 5) directly together. - in that the locking element comprises a sprung wire piece, which conforms to the frame shape of the holding frame, - in that the locking element is arranged below the joint (2, 3) counter to the insertion direction of the plug-in connector modules and thereby draws the halves (4, 5) directly together.
A CMUT device comprising, a silicon substrate a cavity a membrane (13, 32), the membrane and the silicon substrate each being arranged to form a side of the cavity, said sides being located opposite to each other, a first electrode arranged adjacent and parallel to the cavity, being arranged contiguous to the silicon substrate, a second electrode (14, 33) arranged adjacent and parallel to the cavity, opposite to the first electrode, and being embedded in the membrane, characterised in that the CMUT device further comprises a temperature compensation means, such means being arranged to reduce a temperature induced deflection of the membrane by minimizing a thermally induced momentum of the membrane, wherein the temperature compensation means comprises a first compensating plate, the first compensating plate being composed of the same material as the second electrode, and being located on an outer surface of the membrane opposite to the cavity, on a side parallel to the cavity, the plate having a radius r b-top as measured from the centre point of the cavity such that r b-top ≤ r b, where r b is a radius of the second electrode as defined from the centre point of the cavity.
A method for filling holes that are left in a background of an image after cutting out objects from the background, comprising the steps of • acquiring an image from a camera observing a 3D scene; • segmenting the image by separating the objects from the background of the image; • filling corresponding holes left in the background by image inpainting, by mapping image data that corresponds to source patches (804a, 804b, 804c, 804d) comprising real image data to destination patches (803a, 803b, 803c, 803d) comprising unknown parts of the image, thereby filling the holes; wherein the mapping involves a transformation of the patches according to their spatial, that is, 3D relationship. characterised in that an unknown part of the image is known to comprise a landmark feature, wherein a landmark feature is an immobile background feature whose nominal location is known and is a linearly extended feature on a playing field, and the method comprises the step of • choosing a destination patch (803c, 803d) to cover at least part of the landmark feature, and searching the image for a matching source patch (804c, 804d) along the landmark. • acquiring an image from a camera observing a 3D scene; • segmenting the image by separating the objects from the background of the image; • filling corresponding holes left in the background by image inpainting, by mapping image data that corresponds to source patches (804a, 804b, 804c, 804d) comprising real image data to destination patches (803a, 803b, 803c, 803d) comprising unknown parts of the image, thereby filling the holes; wherein the mapping involves a transformation of the patches according to their spatial, that is, 3D relationship. • choosing a destination patch (803c, 803d) to cover at least part of the landmark feature, and searching the image for a matching source patch (804c, 804d) along the landmark.