mhurhangee/ep-ind-claims huggingface dataset:
An aluminum alloy brazing sheet for brazing aluminum in an inert gas atmosphere without using flux, the brazing sheet comprising a core material and a filler metal, one side or each side of the core material being clad with the filler metal, the core material being formed of an aluminum alloy that consists of 0.2 to 1.3 mass% of Mg and optionally one element or two or more elements selected among 0.5 to 1.8 mass% of Mn, 1.0 mass% or less of Si, 1.0 mass% or less of Fe, 0.5 mass% or less of Cu, 0.5 mass% or less of Zn, 0.2 mass% or less of Ti, and 0.5 mass% or less of Zr, with the balance being aluminum and unavoidable impurities, the filler metal consisting of 6 to 13 mass% of Si and 0.004 to 0.1 mass% of Li and optionally one element or two or more elements selected among 0.004 to 0.2 mass% of Bi, 0.05 to 0.4 mass% of Mg, 0.002 to 0.05 mass% of Sr, 0.003 to 0.07 mass% of Sb, 0.05 to 0.8 mass% of Fe, 0.05 to 0.2 mass% of Mn, and 0.01 to 0.15 mass% of Ti, with the balance being aluminum and unavoidable impurities, the brazing sheet having been subjected to an acid etching treatment with an etching depth of 5 nm or more, which treatment removes a surface oxide film from the brazing sheet, and an oil solution that decomposes when heated at 200 to 380 °C in an inert gas having been applied to the brazing sheet in an amount of 500 mg/m 2 or more after the acid etching treatment.
Refrigerant circuit comprising a first heat exchanger forming a condenser, a second heat exchanger forming an evaporator, a first compressor, a second compressor, a first expansion valve, a second expansion valve, a cylinder able to separate the liquid phase and the gaseous phase of the refrigerant, characterized in that it comprises a third heat exchanger forming an evaporator and redirection means for redirecting the flow of refrigerant and capable of making the refrigerant circulate in a loop passing at least in succession through the first compressor, the first heat exchanger, the first expansion valve, the cylinder, the gaseous phase of the refrigerant coming from the cylinder being mixed with a first part of the liquid phase of the refrigerant coming from the cylinder before passing through the third heat exchanger then again through the first compressor, while a second part of the liquid phase of the refrigerant coming from the cylinder passes through the second expansion valve, the second heat exchanger and the second compressor before passing once again through the first compressor.
A particle comprising a composition containing a matrix and a radical initiator selected from a peroxide and azo radical initiator wherein the particle is selected from aramid, polyester, polyamide, cellulose, and glass and wherein the particle is a continuous fiber, chopped fiber, staple fiber or pulp, fibrid, or fibril.
A method for producing a doped tungsten oxide material, comprising the steps of: 1) forming a solution or dispersion of tungsten containing precursor material, wherein the concentration of the precursor material is from 0.1 wt.% to 20 wt.%; 2) adding acid to adjust the pH value of the solution or the dispersion to 1 to 3, and performing acidification to form an intermediate; 3) transferring the intermediate to a hydrothermal reaction vessel and heating to 90 to 200 °C for 1 to 96 hr to dehydrate the intermediate to form a tungsten oxide material; and 4) immersing the tungsten oxide material in a solution of different dopant elements, separating by centrifuging, and then heating for 4 to 8 hours at 200 to 800 °C to form the doped tungsten oxide material. 1) forming a solution or dispersion of tungsten containing precursor material, wherein the concentration of the precursor material is from 0.1 wt.% to 20 wt.%; 2) adding acid to adjust the pH value of the solution or the dispersion to 1 to 3, and performing acidification to form an intermediate; 3) transferring the intermediate to a hydrothermal reaction vessel and heating to 90 to 200 °C for 1 to 96 hr to dehydrate the intermediate to form a tungsten oxide material; and 4) immersing the tungsten oxide material in a solution of different dopant elements, separating by centrifuging, and then heating for 4 to 8 hours at 200 to 800 °C to form the doped tungsten oxide material.
An in-vehicle control device comprising a multicore microcomputer having plural cores (2, 3), a shared memory shared by said plural cores (2,3), writing means for performing data communication between said plurality of cores (2, 3) by writing data of a core register into a region of the shared memory, wherein the cores (2, 3) have different functional safety levels (ASIL, QM), and safety level regions (8, 9) are set in said region of the shared memory, wherein a first core is assigned with an ASIL function characterized in that a second core is assigned with a QM function, and wherein the shared memory comprises an ASIL safety level memory region and a QM safety level memory region, said writing are configured to perform said data communication between said plurality of cores (2, 3) by writing data of said core register into a region of the shared memory using a hardware function, wherein the hardware function is direct memory access, and wherein the writing means is configured to write data from the second core to an ASIL region of the shared memory using the hardware function when communicating from the second core to the first core. a multicore microcomputer having plural cores (2, 3), a shared memory shared by said plural cores (2,3), writing means for performing data communication between said plurality of cores (2, 3) by writing data of a core register into a region of the shared memory, wherein the cores (2, 3) have different functional safety levels (ASIL, QM), and safety level regions (8, 9) are set in said region of the shared memory, wherein a first core is assigned with an ASIL function characterized in that a second core is assigned with a QM function, and wherein the shared memory comprises an ASIL safety level memory region and a QM safety level memory region, said writing are configured to perform said data communication between said plurality of cores (2, 3) by writing data of said core register into a region of the shared memory using a hardware function, wherein the hardware function is direct memory access, and wherein the writing means is configured to write data from the second core to an ASIL region of the shared memory using the hardware function when communicating from the second core to the first core.
A container for liquids comprising a cap, wherein the cap includes: a body configured to be attached to an upper surface of the container, and a perforation platform comprising a plurality of protruding perforating elements (4a,4b), so that the perforation platform is displaced vertically with respect to the cap body from a resting position to a working position, wherein the perforating elements perforate the upper surface of the container; in the resting position, the perforation platform is horizontally aligned with the upper surface of the cap body, while, in the working position, the perforation platform is displaced vertically, and in its entirety, a distance so that the protruding perforating elements (4a,4b) exclusively penetrate the upper surface of the container and with the perforation platform remaining in a parallel position to the upper surface of the cap; and which is characterised in that the perforation platform also comprises a drinking orifice which cooperates with one of the protruding perforating elements when the protruding perforating element perforates the upper surface of the container. a body configured to be attached to an upper surface of the container, and a perforation platform comprising a plurality of protruding perforating elements (4a,4b), so that the perforation platform is displaced vertically with respect to the cap body from a resting position to a working position, wherein the perforating elements perforate the upper surface of the container; in the resting position, the perforation platform is horizontally aligned with the upper surface of the cap body, while, in the working position, the perforation platform is displaced vertically, and in its entirety, a distance so that the protruding perforating elements (4a,4b) exclusively penetrate the upper surface of the container and with the perforation platform remaining in a parallel position to the upper surface of the cap; and which is characterised in that the perforation platform also comprises a drinking orifice which cooperates with one of the protruding perforating elements when the protruding perforating element perforates the upper surface of the container.
A method (300; 400; 500) for direct mode channel access in a time division multiple access (TDMA) system, the method (300; 400; 500) comprising: assigning a radio operating in the TDMA system to transmit on a desired time slot of a direct mode channel; initiating (305; 405; 505) a request for a direct mode transmission from the radio on the direct mode channel; determining (315; 415; 508, 555), by the radio, whether there is communication activity present in the desired time slot or in one or more undesired time slots of the direct mode channel; when there is no communication activity present (345; 445) in the desired time slot, and there is communication activity present (355; 465) in the one or more undesired time slots: aligning (360; 470; 570), by the radio, a slot timing to a slot timing of the communication activity in the undesired time slot; and adjusting (365; 475; 575), by the radio, the slot timing from the undesired time slot to the desired time slot; transmitting (335; 435; 550) with the adjusted slot timing, by the radio, on the desired time slot. assigning a radio operating in the TDMA system to transmit on a desired time slot of a direct mode channel; initiating (305; 405; 505) a request for a direct mode transmission from the radio on the direct mode channel; determining (315; 415; 508, 555), by the radio, whether there is communication activity present in the desired time slot or in one or more undesired time slots of the direct mode channel; when there is no communication activity present (345; 445) in the desired time slot, and there is communication activity present (355; 465) in the one or more undesired time slots: aligning (360; 470; 570), by the radio, a slot timing to a slot timing of the communication activity in the undesired time slot; and adjusting (365; 475; 575), by the radio, the slot timing from the undesired time slot to the desired time slot; aligning (360; 470; 570), by the radio, a slot timing to a slot timing of the communication activity in the undesired time slot; and adjusting (365; 475; 575), by the radio, the slot timing from the undesired time slot to the desired time slot;
A proximity fuze for a projectile (30, 50, 70) comprising: a plurality of RF antenna (32, 38, 42) having at least one rear-facing lobe (36, 44) configured to receive pulsed radiation (21, 52, 72) directly from an RF source and at least three forward-facing lobes (34, 40) configured to receive reflections (26, 54, 74) of said pulsed radiation from a target (20, 56, 76); and a multi-channel receiver (58, 78, 80) comprising a plurality of processing channels coupled to said plurality of RF antenna, each said channel configured to receive and condition the RF signal to feed an A/D converter to produce a sequence of digital samples, and a digital signal processor configured to process a phase relationship between the digital samples from each of said three or more forward-facing lobes and the rear-facing lobe to generate via triangulation a sequence of angle-to-target estimates and to process the angle-to-target estimates to issue a detonation command to detonate an explosive warhead. a plurality of RF antenna (32, 38, 42) having at least one rear-facing lobe (36, 44) configured to receive pulsed radiation (21, 52, 72) directly from an RF source and at least three forward-facing lobes (34, 40) configured to receive reflections (26, 54, 74) of said pulsed radiation from a target (20, 56, 76); and a multi-channel receiver (58, 78, 80) comprising a plurality of processing channels coupled to said plurality of RF antenna, each said channel configured to receive and condition the RF signal to feed an A/D converter to produce a sequence of digital samples, and a digital signal processor configured to process a phase relationship between the digital samples from each of said three or more forward-facing lobes and the rear-facing lobe to generate via triangulation a sequence of angle-to-target estimates and to process the angle-to-target estimates to issue a detonation command to detonate an explosive warhead.
Polymer comprising as part of its polymer backbone a moiety of Formula: where one of R 6 to R 10 represents A-O- and one of R 6 to R 10 represents -O-B and the remainder of R 6 to R 10 represent H, where A and B represent the remainder of the polymer backbone and may be the same or different.
Household dishwasher with at least one washing liquor pump, which is embodied as a recirculation pump in a washing liquor circulation system, and with at least one sorption drying device, which comprises at least one sorption container with reversibly dehydratable sorption drying material and at least one fan unit and/or at least one heating device assigned to the sorption container as electrical components, the one or more electrical components (HZ1, LT) of which can be actuated with at least one monitoring/control device, characterised in that the inspection/control device derives at least one control signal for setting one or more electrical components (HZ1, LT) of the sorption drying device from the particular volume flow effected by the washing liquor pump.
An apparatus for treating obesity in a human or animal mammal patient, the apparatus comprising: two or more volume filling device segments (10, 561a-d) adapted to be assembled to an implantable volume filling device of a controlled size, wherein the assembled volume filling device is adapted to be at least substantially invaginated by a stomach wall portion of the patient, wherein said assembled volume filling device is adapted to be placed with the outer surface of the device resting against the stomach wall, such that the volume of the food cavity is reduced in size by a volume substantially exceeding the volume of the assembled volume filling device, when the assembled volume filling device is invaginated in the stomach wall, and wherein said assembled volume filling device is adapted to disassemble into its volume filling device segments if the assembled volume filling device leaves its implanted invaginated stomach position and inadvertently penetrates the stomach wall to become located inside the stomach, wherein said segments are adapted to separately pass through the food passage way, thereby reducing risk for causing obstruction/ileus in the patient's intestine.
Rear axle of a motor vehicle comprising: - two longitudinally-oriented wheel support arms which each comprise a bore; - a transversely-oriented tubular composite material crossmember and two end segments that are respectively secured by means of an adhesive bond in the bores of the longitudinal wheel support arms, characterized in that the axle comprises retention means (40, 46) for transmitting a transverse shear load produced by the crossmember under the effect of a torsion load as far as the arm. - two longitudinally-oriented wheel support arms which each comprise a bore; - a transversely-oriented tubular composite material crossmember and two end segments that are respectively secured by means of an adhesive bond in the bores of the longitudinal wheel support arms,
A sheet molding compound comprising a reinforcing fiber and a resin composition, having a weight content of the reinforcing fiber of 40% or more and 60% or less, having a porosity of 5% by volume or more and 30% by volume or less, and satisfying the following formulas in dynamic viscoelasticity measurement at 25°C: 10 5 Pa ≤ G ′ s ≤ 10 9 Pa 1 ≤ G ′ s / G " s ≤ 5 G'(s): Storage modulus [Pa] of sheet molding compound at 25°C G"(s): Loss modulus [Pa] of sheet molding compound at 25°C, wherein the resin composition is a thermosetting resin composition, and the resin composition comprises a component, and a component: component: an isocyanate compound component: an epoxy resin having one or more hydroxyl groups and two or more epoxy groups in one molecule, wherein the component and the component in the resin composition satisfy the following formula: 1 ≤ I / W ≤ 2 I: Number of isocyanate groups of component in resin composition W: Total number of hydroxyl groups in resin composition, Wherein porosity, storage modulus G' (s) and loss modulus G"(s) are measured by the methods as described in the description. G'(s): Storage modulus [Pa] of sheet molding compound at 25°C G"(s): Loss modulus [Pa] of sheet molding compound at 25°C, wherein the resin composition is a thermosetting resin composition, and the resin composition comprises a component, and a component: component: an isocyanate compound component: an epoxy resin having one or more hydroxyl groups and two or more epoxy groups in one molecule, component: an isocyanate compound component: an epoxy resin having one or more hydroxyl groups and two or more epoxy groups in one molecule, wherein the component and the component in the resin composition satisfy the following formula: 1 ≤ I / W ≤ 2 I: Number of isocyanate groups of component in resin composition W: Total number of hydroxyl groups in resin composition, Wherein porosity, storage modulus G' (s) and loss modulus G"(s) are measured by the methods as described in the description. I: Number of isocyanate groups of component in resin composition W: Total number of hydroxyl groups in resin composition, Wherein porosity, storage modulus G' (s) and loss modulus G"(s) are measured by the methods as described in the description.
Remote controller for an apparatus for supporting a patient, which apparatus has a support surface which can be adjusted by motor, the remote controller comprising an input device for entering control commands which can be transmitted to the apparatus for the purpose of adjusting the support surface, and the remote controller having at least one sensor (51, 52, 53, 54, 57, 58) which detects pick-up of the remote controller by a user, characterized in that the provision of control commands for the apparatus can be activated as a function of a sensor signal of the at least one sensor (51, 52, 53, 54, 57, 58), the remote controller having a plurality of sensors (51, 52, 53, 54, 57, 58) which detect pick-up of the remote controller by a user, and the provision of control commands for the apparatus being activatable only when at least two sensors (51, 52, 53, 54, 57, 58) detect pick-up of the remote controller by a user.
Method for the wet-treatment of items of laundry, with the items of laundry being washed in a pass-through washing machine having a prewash zone and a final wash zone and having water removed from them and being rinsed in at least one downstream spin dryer or laundry centrifuge or water-removal press, wherein before being rinsed the items of laundry are separated from at least a large portion of the bound final wash liquid from the pass-through washing machine by the spin dryer or laundry centrifuge or water-removal press and the free final wash liquid removed from the items of laundry by the spin dryer or laundry centrifuge or water-removal press or in the latter as well as a large portion of the bound final wash liquid are temporarily stored, characterized in that the rinse liquid which is produced during water-removal is temporarily stored separately from the final wash liquid which is separated from the items of laundry before rinsing, wherein the rinse liquid and the final wash liquid are collected in two separate storage tanks (20, 21) which are connected to the collection tank of the spin dryer or of water-removal press via an supply line, and are subsequently reused in the wet treatment of the pass-through washing machine
A gear-cutting machine in the form of a gear-hobbing machine, gear-grinding machine, power skiving machine or gear shaper for the rolling machining of gear teeth with a gear-cutting tool driven in a rotary movement around its tool axis, comprising an arrangement which has a tool holder for accommodating the gear-cutting tool and is rotatably mounted on a carrier (50, 40), allowing the tool axis to be set in a desired orientation, a movement device by means of which the rotary position of the arrangement can be set, and a locking device which allows the arrangement to be secured against being rotated out of a set rotary position, characterised by a protruding arm which is coupled in a non-rotating connection to the arrangement and is a functional element of the movement device, wherein the movement device has a counter-bearing (82, 80) that cooperates with the side of the protruding arm on the opposite side to the non-rotating connection, which counter-bearing is a functional element of the movement device and as such provides the counterforces facilitating the rotation of the arrangement in the form of support forces, whereas a drive for the movement device in an operating position of the gear-cutting machine is formed by a drive of a first linear carriage of the carrier (50, 40), said drive triggering a translational movement of the arrangement. an arrangement which has a tool holder for accommodating the gear-cutting tool and is rotatably mounted on a carrier (50, 40), allowing the tool axis to be set in a desired orientation, a movement device by means of which the rotary position of the arrangement can be set, and a locking device which allows the arrangement to be secured against being rotated out of a set rotary position, characterised by a protruding arm which is coupled in a non-rotating connection to the arrangement and is a functional element of the movement device, wherein the movement device has a counter-bearing (82, 80) that cooperates with the side of the protruding arm on the opposite side to the non-rotating connection, which counter-bearing is a functional element of the movement device and as such provides the counterforces facilitating the rotation of the arrangement in the form of support forces, whereas a drive for the movement device in an operating position of the gear-cutting machine is formed by a drive of a first linear carriage of the carrier (50, 40), said drive triggering a translational movement of the arrangement.