mhurhangee/ep-ind-claims huggingface dataset:
A fluid filter, in particular a urea solution filter, having - a filter housing formed by a pot and a lid, in which a ring filter element is arranged, through which flow passes radially and which separates an untreated space from a clean space and which has an upper and a lower end disc (9, 8), - a heating device, which allows heating of the fluid to be filtered, - wherein a port into which the heating device can be inserted is provided on the filter housing, wherein the port separates the heating device from the fluid to be heated, characterised in that the port extends into an interior of the ring filter element. - a filter housing formed by a pot and a lid, in which a ring filter element is arranged, through which flow passes radially and which separates an untreated space from a clean space and which has an upper and a lower end disc (9, 8), - a heating device, which allows heating of the fluid to be filtered, - wherein a port into which the heating device can be inserted is provided on the filter housing, wherein the port separates the heating device from the fluid to be heated,
A monolithic superplastic forming/diffusion bonding sandwich structure comprising a core sandwiched between first and second face sheets, the core including a plurality of cells, wherein the plurality of cells are pyramid-shaped, the first face sheet having a plurality of openings for allowing noise and air to enter into the cells, and wherein the core includes a perforated septum between the first and the second face sheet, a first plurality of cells between the septum and the second face sheet, and a second plurality of cells between the septum and the first face sheet.
A system comprising an aircraft engine, a starter motor, an engine fuel delivery system, an engine ignition system, and a controller communicatively coupled to the starter motor, engine fuel delivery system, engine ignition system and an operator control input device coupled to the controller, the controller being configured to automatically initiate operation of the starter motor as needed to start the aircraft engine while the aircraft engine is not running, wherein the controller has a first mode in which the controller automatically initiates operation of the starter motor and automatically provides fuel and ignition to the aircraft engine, and wherein the controller has a second mode in which the controller stops the operation of the starter motor and stops fuel and ignition from being provided to the aircraft engine based on an operator-selectable control input received from the operator control input device, wherein the operator control input device has one setting corresponding to the first mode, another setting corresponding to the second mode, and a third mode in which the controller initiates operation of the starter motor, but disables the providing of fuel and ignition to the aircraft engine, based on an input received from the operator control input device, and wherein the operator control input device has respective settings corresponding to the first, second, and third modes.
An ambulatory therapeutic fluid delivery device, the device comprising: at least one housing connectable to a cannula, the at least one housing retaining a reservoir to hold the therapeutic fluid; a mechanically powered pumping mechanism to cause delivery of at least some of the fluid from the reservoir, the mechanically-powered pumping mechanism being configured to operate without using electrically-generated power; and a power-transfer mechanism to transfer manually-delivered power provided by a user to mechanically actuate the pumping mechanism; characterized by further comprising: a cradle unit configured to receive the at least one housing retaining the reservoir, the cradle unit being securable to skin of a patient; and a counter to display a value representative of an amount of therapeutic fluid delivered by operation of the device or discrete bolus doses of the fluid from the reservoir. at least one housing connectable to a cannula, the at least one housing retaining a reservoir to hold the therapeutic fluid; a mechanically powered pumping mechanism to cause delivery of at least some of the fluid from the reservoir, the mechanically-powered pumping mechanism being configured to operate without using electrically-generated power; and a power-transfer mechanism to transfer manually-delivered power provided by a user to mechanically actuate the pumping mechanism; characterized by further comprising: a cradle unit configured to receive the at least one housing retaining the reservoir, the cradle unit being securable to skin of a patient; and a counter to display a value representative of an amount of therapeutic fluid delivered by operation of the device or discrete bolus doses of the fluid from the reservoir.
A ferrite material, characterised in that it has the following chemical formula: (100-x) (Li a Mn b Ti c Zn d Co e Cu f Al g Ni h Mg i Fe j O 4+γ) + x (with a flux or a mixture of fluxes of Bi 2 O 3 or V 2 O 5 or B 2 O 3 or Cu0 or CaO or Na 2 O or SiO 2 or P 2 O 5) with x being a molar percentage and 0 < x < 10, with: − 0.02 < γ < 0.02 0 < a ≤ 0.5 0 < b ≤ 0.2 0 < c ≤ 0.1 0 ≤ d ≤ 0.25 0 < e ≤ 0.05 0.01 ≤ f ≤ 0.2 0 ≤ g ≤ 0.1 0 ≤ h < 0.1 0 ≤ i < 0.1 0 < j < 2.4
A method of operating an insert safety valve in a subterranean well, the method comprising: installing the insert safety valve in a flow passage which extends longitudinally through an outer safety valve; characterised by making electrical contact between at least one first electrical connector of the insert safety valve and at least one second electrical connector; and operating the insert safety valve, thereby selectively permitting and preventing flow through the flow passage; wherein electrical current flow between the at least one second electrical connector and the insert safety valve causes the insert safety valve to operate. installing the insert safety valve in a flow passage which extends longitudinally through an outer safety valve; characterised by making electrical contact between at least one first electrical connector of the insert safety valve and at least one second electrical connector; and operating the insert safety valve, thereby selectively permitting and preventing flow through the flow passage; wherein electrical current flow between the at least one second electrical connector and the insert safety valve causes the insert safety valve to operate.
A system for power smoothing in power distribution, comprising: a power multiplying network coupled to a power distribution network, the power multiplying network comprising a multiply-connected, velocity inhibiting circuit constructed from a number of lumped-elements comprising a number of discrete, two-terminal, concentrated electrical elements, wherein the multiply-connected, velocity inhibiting circuit is configured to multiply power and to inhibit a velocity of a propagation of an electromagnetic wave through the power multiplying network; and wherein the power multiplying network is configured to store power from and supply power to the power distribution network. a power multiplying network coupled to a power distribution network, the power multiplying network comprising a multiply-connected, velocity inhibiting circuit constructed from a number of lumped-elements comprising a number of discrete, two-terminal, concentrated electrical elements, wherein the multiply-connected, velocity inhibiting circuit is configured to multiply power and to inhibit a velocity of a propagation of an electromagnetic wave through the power multiplying network; and wherein the power multiplying network is configured to store power from and supply power to the power distribution network.
A method for automatically, with the aid of a processor, determining a surface degeneration of a first surface of a siphoning self-emptying measurement chamber of a urine measurement system, the first surface being intended to come into contact with urine, the method comprises the following main steps: a) repeatedly measuring one or more capacitive values of the first surface, forming capacitive measurements; b) storing all, or representative instants of the capacitive measurements; c) deciding, based on changes of the stored capacitive measurements, that a significant surface degeneration of the first surface has occurred, and wherein the deciding is performed by comparing the latest value with earlier values, such that a first lowest value measured during a first predetermined period, or a second lowest value measured during a second predetermined period, is compared to a latest lowest value measured during a latest period, wherein each period comprises at least one emptying procedure of the siphoning self-emptying measurement chamber, and if the latest lowest value is found to be higher by a predetermined amount than the first alternatively the second, lowest values, then it is decided that a significant surface degeneration of the first surface has occurred. a) repeatedly measuring one or more capacitive values of the first surface, forming capacitive measurements; b) storing all, or representative instants of the capacitive measurements; c) deciding, based on changes of the stored capacitive measurements, that a significant surface degeneration of the first surface has occurred, and wherein the deciding is performed by comparing the latest value with earlier values, such that a first lowest value measured during a first predetermined period, or a second lowest value measured during a second predetermined period, is compared to a latest lowest value measured during a latest period, wherein each period comprises at least one emptying procedure of the siphoning self-emptying measurement chamber, and if the latest lowest value is found to be higher by a predetermined amount than the first alternatively the second, lowest values, then it is decided that a significant surface degeneration of the first surface has occurred.
A display device comprising: a first substrate; a second substrate; a display unit disposed between the first substrate and the second substrate, the display unit including a pixel, wherein the pixel includes a sub-pixel having an organic light emitting diode (132, 134, 136) located in an emission region ER and a transparent window located in a transparent region TR; a camera unit disposed on one side of the first substrate and arranged to capture an image through the transparent window in the transparent region TR, the camera unit including at least one camera module; and a mirror member disposed on one side of the second substrate, wherein the mirror member includes mirror patterns disposed on the one side of the second substrate, the mirror patterns being located in a mirror region MR. and wherein the mirror patterns are located in the mirror region MR only, characterised in that the mirror member further includes a mirror layer disposed on the mirror patterns and on the one side of the second substrate, the mirror layer being located in the emission region ER, the mirror region MR and the transparent region TR. a first substrate; a second substrate; a display unit disposed between the first substrate and the second substrate, the display unit including a pixel, wherein the pixel includes a sub-pixel having an organic light emitting diode (132, 134, 136) located in an emission region ER and a transparent window located in a transparent region TR; a camera unit disposed on one side of the first substrate and arranged to capture an image through the transparent window in the transparent region TR, the camera unit including at least one camera module; and a mirror member disposed on one side of the second substrate,
A system for catheter advancement and delivery comprising: a first delivery catheter having a first lumen; a first anchor within the first lumen of the first delivery catheter; an implantable guide element fixedly attached to the first anchor; a second delivery catheter having a second lumen configured to allow passage of the implantable guide element therethrough such that the second delivery catheter is able to be advanced over the implantable guide element; and a second anchor within the second lumen of the second delivery catheter and configured to be slidably coupled to the implantable guide element, wherein the system further comprises a termination catheter for cutting of the implantable guide element configured to be advanced over the implantable guide element. a first delivery catheter having a first lumen; a first anchor within the first lumen of the first delivery catheter; an implantable guide element fixedly attached to the first anchor; a second delivery catheter having a second lumen configured to allow passage of the implantable guide element therethrough such that the second delivery catheter is able to be advanced over the implantable guide element; and a second anchor within the second lumen of the second delivery catheter and configured to be slidably coupled to the implantable guide element, wherein the system further comprises a termination catheter for cutting of the implantable guide element configured to be advanced over the implantable guide element.
Actuating drive (10, 210) for a motor vehicle, in particular a motor vehicle seat, having a) an electric motor which has an output shaft, b) a gear mechanism (100, 200) which is connected to the output shaft and which has a gear housing (120, 220), and having c) a gear retention device (160, 260) which supports the gear housing (120, 220) pivotably about a pivot axis (165, 265), wherein a shaft portion (126, 226) of the gear housing (120, 220) in alignment with the pivot axis (165, 265) is at least partially surrounded by a curved retention member (170, 270) of the gear retention device (160, 260), wherein the output shaft is arranged outside the curved retention member (170, 270), characterized in that the curved retention member (170, 270) has a first bearing shell (171, 271), and a closure member (180, 280) has a second bearing shell (185, 285) and the first bearing shell (171, 271) and the second bearing shell (185, 285) complement each other to form a hub which supports the shaft portion (126, 226). a) an electric motor which has an output shaft, b) a gear mechanism (100, 200) which is connected to the output shaft and which has a gear housing (120, 220), and having c) a gear retention device (160, 260) which supports the gear housing (120, 220) pivotably about a pivot axis (165, 265), wherein a shaft portion (126, 226) of the gear housing (120, 220) in alignment with the pivot axis (165, 265) is at least partially surrounded by a curved retention member (170, 270) of the gear retention device (160, 260),
Coupling which makes it possible to connect the ends of two pipelines, characterized in that it comprises a mixture of PVDF homopolymer and of glass fibres and in that it exhibits a stress at the yield point, measured in tension at 23°C according to Standard ISO 527, of greater than or equal to 60 MPa.
A method for determining junk information,comprising pre-defining junk information keywords in data samples; computing keyword scores for each of the keywords; filtering of the data samples using the keyword scores into either a junk information category or a non-junk information category; characterized by obtaining a current filtering index value for a filtering result of the data samples that is based on the keyword scores and the keywords, wherein the current filtering index value is indicative of a false-positive filter rate for data samples erroneously filtered into the junk information category or a true positive filter rate for data samples correctly filtered into the junk information category and determining whether the filtering index value satisfies an evaluation index, and if not satisfied, revising the keywords or the keyword scores and repeating the filtering of the data samples and the obtaining a current filtering index value; and if satisfied, storing at least one of the keywords or the keyword scores.
A single-handle dual-control thermostatic valve comprises a valve core body, a valve jacket hermetically-connected with the upper part of the valve core body; and a valve seat located at the bottom of the valve core body, wherein the valve core body and the valve seat forms a space for accommodating a temperature regulating part and a water mixing zone; a flow part and a control part is provided in the valve jacket, while the upper end of a driving lever of the control part extends upwards out of the valve jacket, a hot water incoming channel (a), a cold water incoming channel (b), a hot water outgoing channel (c) and a cold water outgoing channel (d) are provided separately in the valve core body, and the hot water incoming channel and the cold water incoming channel penetrates through the valve core body; the valve core body has a hot water inlet which connects with the hot water outgoing channel and the water mixing zone and a cold water inlet which connects with the cold water outgoing channel and the water mixing zone, and the hot water inlet and the cold water inlet are located at the positions with different heights in the valve core body, a static ceramic chip having a hot water inlet passage, a hot water outlet passage, a cold water inlet passage and a cold water outlet passage is provided above the valve core body in the valve jacket, a dynamic ceramic chip having a hot water controlling channel and a cold water controlling channel is provided on the static ceramic chip, the dynamic ceramic chip is connected with the control part and can rotate and translate by the control part, wherein the hot water inlet passage, the hot water outlet passage, the cold water inlet passage and the cold water outlet passage are connected correspondingly with the hot water incoming channel, the hot water outgoing channel, the cold water incoming channel and the cold water outgoing channel of the valve core body respectively, the hot water controlling channel can open or shut off both the hot water inlet passage and the hot water outlet passage on the static ceramic chip, and the cold water controlling channel can open or shut off both the cold water inlet passage and the cold water outlet passage on the static ceramic chip, a mixed water outlet is located on the valve seat and connected with the water mixing zone, a water incoming end face of the hot water incoming channel and a water incoming end face of the cold water incoming channel are located on the bottom surface of the valve core body and are arc-shaped and the connection line between the midpoints of two arcs is axis X, characterized in that a water outgoing end face of the hot water incoming channel deflects 10-30° relative to axis X, the included angle between the edge of the hot water outgoing channel and the axis X is 5-15° and the included angle between the edge of the cold water outgoing channel and the axis X is 40-50°.
A method of manufacturing N,N- dimethyl-1,2,3-trithian-5-ylamine hydrochloride comprising the steps of: a) providing a mixture of thiosulfuric acid S, S' -[2-(dimethylamino)trimethylene] ester monosodium salt and sodium hydroxide; b) adding an aqueous saline solution to the mixture of thiosulfuric acid S, S' -[2-(dimethylamino)trimethylene] ester monosodium salt and sodium hydroxide, wherein the aqueous saline solution is added over the course of at least 3 hours; c) separating the phases of the mixture; d) collecting the solids from the mixture using filtration; e) washing the solids with organic solvent; and f) drying the solids, wherein the dried solids are N,N -dimethyl-1,2,3-trithian-5-ylamine hydrochloride. a) providing a mixture of thiosulfuric acid S, S' -[2-(dimethylamino)trimethylene] ester monosodium salt and sodium hydroxide; b) adding an aqueous saline solution to the mixture of thiosulfuric acid S, S' -[2-(dimethylamino)trimethylene] ester monosodium salt and sodium hydroxide, wherein the aqueous saline solution is added over the course of at least 3 hours; c) separating the phases of the mixture; d) collecting the solids from the mixture using filtration; e) washing the solids with organic solvent; and f) drying the solids,
A light emitting device comprising: a blue light emitting diode; and phosphors comprising first to third phosphors, wherein the first phosphor is excited by light emitted from the blue LED, emits light having a main wavelength of 495 nm to 510 nm, and comprises (Ba x,Sr 1-x)Si 2 O 2 N 2:Eu where 0<x<1, the second phosphor is excited by light emitted from the blue LED, emits light having a main wavelength of 555 nm to 575 nm, and comprises (Lu x,Gd 1-x) 3 Al 5 O 12:Ce where 0<x<1, and the third phosphor is excited by light emitted from the blue LED, emits light having a main wavelength of 580 nm to 605 nm, and comprises (Ca x,Sr 1-x)AlSiN 3:Eu where 0<x<1, wherein the first one of the phosphors occupied 10wt% to 25wt%, the second phosphor occupies 60 wt% to 80 wt%, and the third phosphor occupies 3 wt% to 20 wt%, and wherein the sum of the first, second and third phosphor occupy 100 wt%. a blue light emitting diode; and phosphors comprising first to third phosphors, wherein the first phosphor is excited by light emitted from the blue LED, emits light having a main wavelength of 495 nm to 510 nm, and comprises (Ba x,Sr 1-x)Si 2 O 2 N 2:Eu where 0<x<1, the second phosphor is excited by light emitted from the blue LED, emits light having a main wavelength of 555 nm to 575 nm, and comprises (Lu x,Gd 1-x) 3 Al 5 O 12:Ce where 0<x<1, and the third phosphor is excited by light emitted from the blue LED, emits light having a main wavelength of 580 nm to 605 nm, and comprises (Ca x,Sr 1-x)AlSiN 3:Eu where 0<x<1, wherein the first one of the phosphors occupied 10wt% to 25wt%, the second phosphor occupies 60 wt% to 80 wt%, and the third phosphor occupies 3 wt% to 20 wt%, and wherein the sum of the first, second and third phosphor occupy 100 wt%.