mhurhangee/ep-ind-claims huggingface dataset:
Distribution homogenizing device for homogenizing the distribution of the refrigerant inside tubes (10, 10a, 10b) of a heat exchanger, the distribution homogenizing device comprising a pipe provided with at least one window through which the refrigerant is able to enter the pipe and at least one orifice through which the refrigerant is able to leave the pipe, the pipe housing at least one mixing member designed to direct the refrigerant from a centre of the pipe towards an internal face of the pipe, in which the mixing member comprises at least one shaft equipped with at least one centrifugal wall, in which the centrifugal wall comprises mixing elements which are borne by the shaft and which are separated from one another by at least one notch, characterized in that each mixing element comprises at least two mixing motifs which are identical and of opposite winding direction to one another.
An apparatus comprising: an electrolytic cell comprising an electrolytic bath; - an inert anode body electrically connected to the electrolytic cell for directing current into the electrolytic bath, the inert anode body having at least one sidewall, wherein the sidewall perimetrically surrounds a hole therein, the hole having an upper opening in the top of the anode body and axially extending into the anode body; and - a pin having; -- a first end connected to a current supply, and -- a second end opposite the first end, wherein the second end extends down into the hole via the upper opening of the anode body and ends at a position inside the hole that is above a bath-vapor interface defined by the electrolytic bath, characterized in that the first end of the pin is fitted into and retained within a refractory material the apparatus further comprising: a conductive member which extends from the second end of the pin to below the bath-vapor interface; and a filler retained in the hole between an inner surface of the inert anode body, and the pin and the conductive member, wherein the filler promotes electrical communication between the pin, the conductive member and the inert anode body. - an inert anode body electrically connected to the electrolytic cell for directing current into the electrolytic bath, the inert anode body having at least one sidewall, wherein the sidewall perimetrically surrounds a hole therein, the hole having an upper opening in the top of the anode body and axially extending into the anode body; and - a pin having; -- a first end connected to a current supply, and -- a second end opposite the first end, wherein the second end extends down into the hole via the upper opening of the anode body and ends at a position inside the hole that is above a bath-vapor interface defined by the electrolytic bath, -- a first end connected to a current supply, and -- a second end opposite the first end, wherein the second end extends down into the hole via the upper opening of the anode body and ends at a position inside the hole that is above a bath-vapor interface defined by the electrolytic bath, a conductive member which extends from the second end of the pin to below the bath-vapor interface; and a filler retained in the hole between an inner surface of the inert anode body, and the pin and the conductive member, wherein the filler promotes electrical communication between the pin, the conductive member and the inert anode body.
Device for generating gas by placing a liquid reactant in contact with a solid element, comprising a liquid reactant tank and a reaction chamber intended to contain the solid element, wherein the tank and the reaction chamber are separated in a sealed manner by a mobile wall, with an outlet port for collecting the gas generated in the reaction chamber and means for injecting the liquid reactant onto the solid element, which injection means pass through the mobile wall and are capable of moving into the solid element, the injection means being integrally with the mobile wall and comprising at least one tube passing through the mobile wall and connecting the tank and the reaction chamber, said tube comprising a first axial end (16.1) opening in the tank and a second axial end (16.2) opening in the reaction chamber, said second axial end (16.2) moving in the solid element, and the mobile wall being connected to an endless screw mechanism.
An additive for a silicone encapsulant, said additive having the structure: wherein R 1 and R 2 are each -O-Si(R 4)(R 5)(R 6) and each of R 4, R 5, and R 6 is independently chosen from C 1 -C 10 hydrocarbyl groups, C 1 -C 10 alkyl groups, C 2 -C 10 alkenyl groups, and C 6 -C 10 aryl groups, and wherein R 3 is independently chosen from C 1 -C 10 hydrocarbyl groups, C 1 -C 10 alkyl groups, C 2 -C 10 alkenyl groups, and C 6 -C 10 aryl groups. wherein R 1 and R 2 are each -O-Si(R 4)(R 5)(R 6) and each of R 4, R 5, and R 6 is independently chosen from C 1 -C 10 hydrocarbyl groups, C 1 -C 10 alkyl groups, C 2 -C 10 alkenyl groups, and C 6 -C 10 aryl groups, and wherein R 3 is independently chosen from C 1 -C 10 hydrocarbyl groups, C 1 -C 10 alkyl groups, C 2 -C 10 alkenyl groups, and C 6 -C 10 aryl groups.
An opening device for coplanar doors of wardrobes and/or similar furnishing accessories suitable for being applied to a wardrobe, comprising a guide attachable above or below a frame of the wardrobe, longitudinally extended and suitable for allowing the sliding of a mobile unit (19, 19') of the opening device connectable to a door via a first lever (26, 26') and a second lever (28, 28') both hinged with respect to said mobile unit (19, 19') and to said door so as to define a jointed quadrilateral mechanism co-operating with rods or arms (42; 86) of said mobile unit (19, 19') coupled with guide-blocks secured or integral to said guide for the opening/closing of the door with a rotary translation motion, said device comprising at least one carriage (54, 56) engaged and slidable with respect to a plate-guide (50, 52) secured to the door and hinge restrained to at least one hinge (60, 62) attached with one end to said at least one carriage (54, 56) and with the other end attachable to a vertical shoulder of the frame, with said at least one carriage (54, 56) and at least one hinge (60, 62) coordinated with the movement of said first and second lever (26, 26' and 28, 28'), the device characterized in that it is provided with a locking element or hook attached at one end of one or both the plate guides (50, 52), suitable for engaging with said at least one carriage (54, 56) for locking/unlocking of the sliding movement of said door parallel to the frame and provided, at one of its ends, with two opposite projecting portions defining a transverse opening which extends and widens, inside the body of the hook, in a pocket with a substantially circular profile suitable for receiving a pin projecting from the carriage (54, 56) and having a substantially rectangular cross-sectional profile, said pin rotating with the hinge (60, 62) during the opening and closing of the door, the opening device comprising an upper carriage and a lower carriage that are, respectively, sliding along an upper plate-guide and a lower plate-guide, parallel and opposite, transversely attachable on the internal front and along the height development of the door, the opening device comprising an upper hinge and a lower hinge respectively hinged with one end to the upper carriage and to the lower carriage and with another end to a vertical shoulder of the frame, the upper hinge and the lower hinge each comprising a load-bearing lever and a secondary lever placed below said load-bearing lever, with said levers which are both hinged with one end to a connecting rod in turn hinged respectively to the carriage (54, 56) and with an opposite end hinged to a shoulder attachment element rigidly attachable to a vertical shoulder of the wardrobe.
A computer-implemented method of determining a frequency drift of a clock of a mobile communication device, comprising: receiving a terrestrial-based positioning signal at a first positioning engine of the mobile communication device controlled by the clock; receiving a Global Navigation Satellite System "GNSS" positioning signal at a second positioning engine of the mobile communication device controlled by the clock, wherein the terrestrial-based positioning signal and the GNSS positioning signal are received substantially simultaneously; determining a first position from the terrestrial-based positioning signal; determining a second position from the GNSS positioning signal; determining a difference between the first position and the second position; and determining the frequency drift by calculating a frequency drift for which the difference between the first position and the second position is reduced to within a suitable criterion or to a minimum amount. receiving a terrestrial-based positioning signal at a first positioning engine of the mobile communication device controlled by the clock; receiving a Global Navigation Satellite System "GNSS" positioning signal at a second positioning engine of the mobile communication device controlled by the clock, wherein the terrestrial-based positioning signal and the GNSS positioning signal are received substantially simultaneously; determining a first position from the terrestrial-based positioning signal; determining a second position from the GNSS positioning signal; determining a difference between the first position and the second position; and determining the frequency drift by calculating a frequency drift for which the difference between the first position and the second position is reduced to within a suitable criterion or to a minimum amount.
An AlNiCo-based magnetic particle which is a hard magnetic particle comprising: a core particle which is an AlNiCo-based alloy containing 4 to 12% of Al, 10 to 20% of Ni, 15 to 25% of Co, 1 to 10% of Ti, 0.5 to 5% of Cu, a remainder of Fe, and other inevitable impurities, based on a % by weight; and an inorganic shell covering the core particle, wherein the core particle is an ultrafine particle having D 50 of 12 μm or less, the D 50 being a particle size corresponding to 50% in a particle size cumulative distribution of the core particles, and characterised in that the core particle has a composition uniformity of the following Equations 1, 2, and 3: 10 ≤ UNF Al ≤ 200 10 ≤ UNF Ni ≤ 200 10 ≤ UNF Co ≤ 200 wherein UNF (Al) is a value obtained by dividing an average Al composition among the core particles by a standard deviation of an Al composition, based on a % by weight of the composition, UNF (Ni) is a value obtained by dividing an average Ni composition among the core particles by a standard deviation of a Ni composition, based on the % by weight of the composition, and UNF (Co) is a value obtained by dividing an average Co composition among the core particles by a standard deviation of a Co composition, based on the % by weight of the composition, the average composition and the standard deviation for each element being calculated from at least 50 core particles. the core particle is an ultrafine particle having D 50 of 12 μm or less, the D 50 being a particle size corresponding to 50% in a particle size cumulative distribution of the core particles, and characterised in that the core particle has a composition uniformity of the following Equations 1, 2, and 3: 10 ≤ UNF Al ≤ 200 10 ≤ UNF Ni ≤ 200 10 ≤ UNF Co ≤ 200 wherein UNF (Al) is a value obtained by dividing an average Al composition among the core particles by a standard deviation of an Al composition, based on a % by weight of the composition, UNF (Ni) is a value obtained by dividing an average Ni composition among the core particles by a standard deviation of a Ni composition, based on the % by weight of the composition, and UNF (Co) is a value obtained by dividing an average Co composition among the core particles by a standard deviation of a Co composition, based on the % by weight of the composition, the average composition and the standard deviation for each element being calculated from at least 50 core particles.
A thyroid hormone analogue for use in a method for treating alpha-thalassemia, wherein that thyroid hormone analogue is Triac (i.e. 3,3',5-triiodothyroacetic acid).
A method for monitoring a parameter of the quality of yarn or a parameter of a sensor in an electronic yarn cleaner having an optical detector with a sensor having one or two rows of individual optical elements (41, 42) having a rectangular shape made by CMOS technology and that produce an analog output signal proportional to irradiation intensity on the respective optical element (41, 42), wherein a value of intensity of the irradiation is monitored during a measurement cycle, the method comprising: for the parameter of the quality of yarn or the parameter of the sensor that is monitored in each measurement cycle, selecting a number of the optical elements (41, 42) within at least one of the rows of optical elements, for constituting an active zone monitoring the output analog signals of the optical elements of the active zone; evaluating the parameter of the quality of yarn or the parameter of the sensor as a function of the output analog signals from the optical elements (41, 42) within the active zone; wherein for monitored parameter of the quality of yarn, a lowest possible number of the optical elements (41, 42) in the active zone are monitored whose respective output analog signal changes due to a change in the yarn quality parameter; and wherein for monitored parameter of the sensor, a highest possible number of the optical elements (41, 42) in the active zone whose respective output analog signal is not affected by a yam image projection are monitored. for the parameter of the quality of yarn or the parameter of the sensor that is monitored in each measurement cycle, selecting a number of the optical elements (41, 42) within at least one of the rows of optical elements, for constituting an active zone monitoring the output analog signals of the optical elements of the active zone; evaluating the parameter of the quality of yarn or the parameter of the sensor as a function of the output analog signals from the optical elements (41, 42) within the active zone; wherein for monitored parameter of the quality of yarn, a lowest possible number of the optical elements (41, 42) in the active zone are monitored whose respective output analog signal changes due to a change in the yarn quality parameter; and wherein for monitored parameter of the sensor, a highest possible number of the optical elements (41, 42) in the active zone whose respective output analog signal is not affected by a yam image projection are monitored.
A system for inspecting a body, the body comprising a first end side, a second end side, and cells extending through the body from the first end side to the second end side, the system comprising: multiple light sources configured to project light through and out of multiple corresponding groups (142, 144, 146) of the cells; a target configured to display the light projected through and out of the multiple corresponding groups (142, 144, 146) of the cells; an imaging system configured to determine multiple locations of the displayed light on the target; and a system processor configured to compare the determined multiple locations of the displayed light with respective locations of the multiple light sources and calculate, from the comparison thereof, at least one of a pointing angle and a pointing vector for the multiple corresponding groups (142, 144, 146) of the cells. multiple light sources configured to project light through and out of multiple corresponding groups (142, 144, 146) of the cells; a target configured to display the light projected through and out of the multiple corresponding groups (142, 144, 146) of the cells; an imaging system configured to determine multiple locations of the displayed light on the target; and a system processor configured to compare the determined multiple locations of the displayed light with respective locations of the multiple light sources and calculate, from the comparison thereof, at least one of a pointing angle and a pointing vector for the multiple corresponding groups (142, 144, 146) of the cells.
A subtilisin, recombinant polypeptide or active fragment thereof, wherein said subtilisin, polypeptide or fragment comprises a DLGDXXRFGX a GLLXXXXAVX (SEQ ID NO: 26) motif, wherein X is any amino acid and X a is N or S, and wherein said subtilisin, polypeptide or fragment comprises an amino acid sequence having at least 85% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 15, and wherein said subtilisin, polypeptide or fragment has protease activity over a broad range of pH conditions.
An integrated circuit, comprising: one or more bit cells; a word line (404, 604, 804) coupled to the one or more bit cells; a dummy word line (406, 606, 806) arranged with the word line to have a capacitance therebetween; and an assist circuit (102, 350, 500) configured to control the word line and the dummy word line, to assert the word line, and transition the dummy word line after the word line is asserted in order to reduce a voltage of the asserted word line, thereby providing read assist to the one or more bit cells. one or more bit cells; a word line (404, 604, 804) coupled to the one or more bit cells; a dummy word line (406, 606, 806) arranged with the word line to have a capacitance therebetween; and an assist circuit (102, 350, 500) configured to control the word line and the dummy word line, to assert the word line, and transition the dummy word line after the word line is asserted in order to reduce a voltage of the asserted word line, thereby providing read assist to the one or more bit cells. to control the word line and the dummy word line, to assert the word line, and transition the dummy word line after the word line is asserted in order to reduce a voltage of the asserted word line, thereby providing read assist to the one or more bit cells.
A cooling machine for a reefer container, the cooling machine comprising one or more evaporator fans and a back-plate, the back-plate being mounted on one side of the cooling machine for side facing the inside of the reefer container for thereby forming an end wall in a cooling compartment of the container, the back-plate comprising a fan grille, wherein the back-plate includes a grille or grating provided at an upper part of the back-plate, wherein the one or more evaporator fans are placed to draw in return air in the cooling machine characterized in that the grille or grating is formed integral with the back-plate.
A resin composition for sealing semiconductor comprising: a maleimide-based compound represented by a following general formula; at least one of benzoxazine-based compounds represented by a following general formula and a following general formula; a curing catalyst; and an inorganic filler, wherein in said general formulae, and, each of X 2, X 3 and X 4 independently represents an alkylene group having 1 to 10 carbon atoms, a group represented by a following general formula, a group represented by a formula "-SO 2 -" or "-CO-", an oxygen atom or a single bond, each of R 2, R 3 and R 4 independently represents a hydrocarbon group having 1 to 6 carbon atoms, each of b, d and e independently represents an integer of 0 to 4, and c is an integer of 0 to 3, and n 1 is an integer of 1 or more, wherein in said general formula, Y represents a hydrocarbon group of 6 to 30 carbon atoms having an aromatic ring, and n 2 is an integer of 0 or more. a maleimide-based compound represented by a following general formula; at least one of benzoxazine-based compounds represented by a following general formula and a following general formula; a curing catalyst; and an inorganic filler, wherein in said general formulae, and, each of X 2, X 3 and X 4 independently represents an alkylene group having 1 to 10 carbon atoms, a group represented by a following general formula, a group represented by a formula "-SO 2 -" or "-CO-", an oxygen atom or a single bond, each of R 2, R 3 and R 4 independently represents a hydrocarbon group having 1 to 6 carbon atoms, each of b, d and e independently represents an integer of 0 to 4, and c is an integer of 0 to 3, and n 1 is an integer of 1 or more, wherein in said general formula, Y represents a hydrocarbon group of 6 to 30 carbon atoms having an aromatic ring, and n 2 is an integer of 0 or more.
A process for producing 2,3,3,3-tetrafluoropropene, which comprises reacting a raw material compound composed of at least one of 1,1-dichloro-2,3,3,3-tetrafluoropropene and 1-chloro-2,3,3,3-tetrafluoropropene, and hydrogen, in a gas phase in the presence of a catalyst, wherein the catalyst is a palladium catalyst supported on active carbon, and the ratio of the hydrogen to the raw material compound to be introduced to a catalyst layer packed with the palladium-supporting active carbon is at most 0.7 as represented by the ratio of the number of moles of the hydrogen to the number of moles of chlorine atoms in the raw material compound (H 2 /Cl).
A fluoride-releasing mineral trioxide aggregate dental material for use in caries treatment and/or prevention which comprises: a) more than 50 % by dry weight of a flash setting high aluminate cement powder or Portland cement-like powder without gypsum addition (CSA cement), comprising: more than 60 % calcium oxide; more than 15 % silica, and such that the CSA cement comprises more than 50 % calcium silicates including alite (tricalcium silicate or C3S) and belite (dicalcium silicate or C2S), with a C/S ratio above 2.0; more than 3 % alumina, and such that the CSA cement comprises more than 7 % calcium aluminates; less than 10 % sulphates (SO 3); altogether with a particle surface area of more than 200 m 2 /kg; and b) 0.1-49.9 % by dry weight of one or more fluoride-containing additives with a particle surface area of 200 to 300,000 m 2 /kg; and c) 1-49.9 % by dry weight of one or more further additives with a particle surface area of 200 to 300,000 m 2 /kg; and d) a hydration liquid optionally comprising more than 0.001 % by weight of the liquid of one or more soluble powder additives; and e) 0.001-10.0 % by weight of the liquid of one or more superplasticizers; and wherein said hydration liquid, d), constitutes 10-45 % by weight based on the total weight of the MTA dental material. a) more than 50 % by dry weight of a flash setting high aluminate cement powder or Portland cement-like powder without gypsum addition (CSA cement), comprising: more than 60 % calcium oxide; more than 15 % silica, and such that the CSA cement comprises more than 50 % calcium silicates including alite (tricalcium silicate or C3S) and belite (dicalcium silicate or C2S), with a C/S ratio above 2.0; more than 3 % alumina, and such that the CSA cement comprises more than 7 % calcium aluminates; less than 10 % sulphates (SO 3); altogether with a particle surface area of more than 200 m 2 /kg; and more than 60 % calcium oxide; more than 15 % silica, and such that the CSA cement comprises more than 50 % calcium silicates including alite (tricalcium silicate or C3S) and belite (dicalcium silicate or C2S), with a C/S ratio above 2.0; more than 3 % alumina, and such that the CSA cement comprises more than 7 % calcium aluminates; less than 10 % sulphates (SO 3); altogether with a particle surface area of more than 200 m 2 /kg; and b) 0.1-49.9 % by dry weight of one or more fluoride-containing additives with a particle surface area of 200 to 300,000 m 2 /kg; and c) 1-49.9 % by dry weight of one or more further additives with a particle surface area of 200 to 300,000 m 2 /kg; and d) a hydration liquid optionally comprising more than 0.001 % by weight of the liquid of one or more soluble powder additives; and e) 0.001-10.0 % by weight of the liquid of one or more superplasticizers; and wherein said hydration liquid, d), constitutes 10-45 % by weight based on the total weight of the MTA dental material.