mhurhangee/patent-ind-claim-en huggingface dataset:
A mixture of polyalkylsiloxanes obtainable through a hydrosilylation reaction wherein a mixture of ethylenically unsaturated olefins consisting of a) 10-30 mol% of one or more polyene(s) having one terminal double bond which is either monosubstituted or geminal disubstituted and one or more tri- or tetrasubstituted double bond(s), wherein said terminal double bond and said one or more tri- or tetrasubstituted double bond(s) are preferably non-conjugated, wherein said polyene(s) are preferably terpenes, more preferably ( R )-limonene, ( S )-limonene or a mixture thereof, and b) 70-90 mol% of monounsaturated olefins with 6 to 15 carbon atoms, preferably 1-dodecene, is reacted with an amount of one or more polyalkylhydrosiloxanes in the presence of a hydrosilylation catalyst while each polyalkylhydrosiloxane comprises a repeating unit according to the general structure (I): with n indicating the number of repeating units being in a range of from 5 to 10,000, preferably 10 to 100, more preferably 25; with the residue R 1 being selected from linear or branched alkyl groups with less than 6 carbon atoms. a) 10-30 mol% of one or more polyene(s) having one terminal double bond which is either monosubstituted or geminal disubstituted and one or more tri- or tetrasubstituted double bond(s), wherein said terminal double bond and said one or more tri- or tetrasubstituted double bond(s) are preferably non-conjugated, wherein said polyene(s) are preferably terpenes, more preferably ( R )-limonene, ( S )-limonene or a mixture thereof, and b) 70-90 mol% of monounsaturated olefins with 6 to 15 carbon atoms, preferably 1-dodecene, is reacted with an amount of one or more polyalkylhydrosiloxanes in the presence of a hydrosilylation catalyst while each polyalkylhydrosiloxane comprises a repeating unit according to the general structure (I): with n indicating the number of repeating units being in a range of from 5 to 10,000, preferably 10 to 100, more preferably 25; with the residue R 1 being selected from linear or branched alkyl groups with less than 6 carbon atoms.
A system comprising: a flow cell comprising a first channel (56A, L1, L2) and a second channel (56B, L3, L4); a plurality of flow paths to fluidically connect with the flow cell to support analytes of interest when the flow cell is mounted in the system; a flow path selector valve coupled to the flow paths; a pump to fluidically connect with the flow cell and to displace fluids through one of the flow paths selected by the flow path selector valve during an analysis operation; and control circuitry operatively coupled to the flow path selector valve, the control circuity having one or more processors and a memory to store computer-executable instructions which, when executed by the one or more processors, control the one or more processors to command the flow path selector valve to select the selected flow path, wherein the plurality of flow paths comprises a first flow path to provide fluid flow through the first channel (56A, L1, L2) of the flow cell, a second flow path to provide fluid flow through the second channel (56B, L3, L4) of the flow cell, the second flow path different from the first flow path wherein the flow path selector valve is controllable to select the first flow path , the second flow path , and both the first flow path and the second flow path . a flow cell comprising a first channel (56A, L1, L2) and a second channel (56B, L3, L4); a plurality of flow paths to fluidically connect with the flow cell to support analytes of interest when the flow cell is mounted in the system; a flow path selector valve coupled to the flow paths; a pump to fluidically connect with the flow cell and to displace fluids through one of the flow paths selected by the flow path selector valve during an analysis operation; and control circuitry operatively coupled to the flow path selector valve, the control circuity having one or more processors and a memory to store computer-executable instructions which, when executed by the one or more processors, control the one or more processors to command the flow path selector valve to select the selected flow path, wherein the plurality of flow paths comprises a first flow path to provide fluid flow through the first channel (56A, L1, L2) of the flow cell, a second flow path to provide fluid flow through the second channel (56B, L3, L4) of the flow cell, the second flow path different from the first flow path wherein the flow path selector valve is controllable to select the first flow path , the second flow path , and both the first flow path and the second flow path .
A positioning device for positioning a component from a top down, said device comprising: a screw threaded into a top surface of a body ; a plurality of balls positioned within a curved channel in the body where a top one of the balls is coupled to the screw , wherein the curved channel has a general J-shape where the curved channel extends downward from the screw , then towards a back surface of the body , and then towards a front surface of the body ; and a pin positioned within and extending out of a front surface of the body , said pin being coupled to a bottom one of the balls , wherein threading the screw into the body causes the screw to push downward on the balls which causes the balls to push on the pin and extend it out of the body . a screw threaded into a top surface of a body ; a plurality of balls positioned within a curved channel in the body where a top one of the balls is coupled to the screw , wherein the curved channel has a general J-shape where the curved channel extends downward from the screw , then towards a back surface of the body , and then towards a front surface of the body ; and a pin positioned within and extending out of a front surface of the body , said pin being coupled to a bottom one of the balls , wherein threading the screw into the body causes the screw to push downward on the balls which causes the balls to push on the pin and extend it out of the body .
A method for selecting cellulose-containing used textiles, the method comprising: determining a quality criterion which is indicative for the quality, in particular the average degree of polymerization, of the cellulose; comparing the determined quality criterion with a predefined quality criterion; and based on the result of the determination: supplying first cellulose-containing used textiles whose quality criterion does not correspond to the predefined quality criterion to a method for manufacturing a paper material ; supplying second cellulose-containing used textiles whose quality criterion corresponds to the predefined quality criterion to a method for manufacturing a regenerated cellulosic molded body, in particular a lyocell method or a viscose method, in particular a carbamate method or a cold alkali method. determining a quality criterion which is indicative for the quality, in particular the average degree of polymerization, of the cellulose; comparing the determined quality criterion with a predefined quality criterion; and based on the result of the determination: supplying first cellulose-containing used textiles whose quality criterion does not correspond to the predefined quality criterion to a method for manufacturing a paper material ; supplying second cellulose-containing used textiles whose quality criterion corresponds to the predefined quality criterion to a method for manufacturing a regenerated cellulosic molded body, in particular a lyocell method or a viscose method, in particular a carbamate method or a cold alkali method. supplying first cellulose-containing used textiles whose quality criterion does not correspond to the predefined quality criterion to a method for manufacturing a paper material ; supplying second cellulose-containing used textiles whose quality criterion corresponds to the predefined quality criterion to a method for manufacturing a regenerated cellulosic molded body, in particular a lyocell method or a viscose method, in particular a carbamate method or a cold alkali method.
A humidification chamber configured to hold a volume of liquid and comprising: at least one side wall; a top wall connected to the at least one side wall; a base surface connected to the at least one side wall; a cavity being at least partially defined by the at least one side wall and the top wall; an inlet port extending from the top wall and defining a passage into the cavity of the humidification chamber through the top wall; and an outlet port extending from the top wall and defining a passage out of the cavity of the humidification chamber through the top wall; characterized in that : said humidification chamber further comprises at least one protrusion in the top wall that is configured to mate with at least one corresponding recess of a sensor cartridge module of a heater base to guide insertion of the humidification chamber on the heater base . at least one side wall; a top wall connected to the at least one side wall; a base surface connected to the at least one side wall; a cavity being at least partially defined by the at least one side wall and the top wall; an inlet port extending from the top wall and defining a passage into the cavity of the humidification chamber through the top wall; and an outlet port extending from the top wall and defining a passage out of the cavity of the humidification chamber through the top wall; characterized in that : said humidification chamber further comprises at least one protrusion in the top wall that is configured to mate with at least one corresponding recess of a sensor cartridge module of a heater base to guide insertion of the humidification chamber on the heater base .
A method for analyzing digital holographic microscopy, DHM, data for hematology applications, the method comprising: receiving a DHM image, u, acquired using a digital holographic microscopy system ; identifying one or more erythrocytes in the DHM image; characterized in that the method comprises: for each respective erythrocyte included in the one or more erythrocytes, estimating a cell thickness value, z, for the respective erythrocyte using a parametric model, wherein the parametric model is a biconcave model for the erythrocyte surface representation, wherein the biconcave model is the Evans-Fung Model given by the following equation z ρ = ± 1 − ρ R 2 c 0 + c 1 ρ R 2 + c 2 ρ R 4 wherein R is the radius of the cell, ρ is the horizontal distance from the center of the cell, parameters c0, c1 and c2 used in the parametric model are determined by minimizing a sum squared error, SSE thickness , between a depth map estimated from the parametric model and a depth observed from the DHM image, wherein SSE thickness is given by the following equation SSE thickness = ∑ p z ρ − u ρ 2 2 and calculating a cell volume value for the respective erythrocyte using the cell thickness value. receiving a DHM image, u, acquired using a digital holographic microscopy system ; identifying one or more erythrocytes in the DHM image; characterized in that the method comprises: for each respective erythrocyte included in the one or more erythrocytes, estimating a cell thickness value, z, for the respective erythrocyte using a parametric model, wherein the parametric model is a biconcave model for the erythrocyte surface representation, wherein the biconcave model is the Evans-Fung Model given by the following equation z ρ = ± 1 − ρ R 2 c 0 + c 1 ρ R 2 + c 2 ρ R 4 wherein R is the radius of the cell, ρ is the horizontal distance from the center of the cell, parameters c0, c1 and c2 used in the parametric model are determined by minimizing a sum squared error, SSE thickness , between a depth map estimated from the parametric model and a depth observed from the DHM image, wherein SSE thickness is given by the following equation SSE thickness = ∑ p z ρ − u ρ 2 2 and calculating a cell volume value for the respective erythrocyte using the cell thickness value.
Process of chemical treatment of black paste resulting from opening alkaline or zinc-carbon batteries or mixtures thereof, comprising the following steps: a) cutting zinc-carbon, alkaline batteries or mixtures thereof, with selective dry extraction of black paste; b) washing the black paste with water to separate the potassium hydroxide of the alkaline batteries or the ammonium chloride of zinc-carbon batteries, or both, in the form of a solution, and recovering the black paste fraction that is insoluble in water; c) treatment of the wet black paste resulting from step b) with an aqueous solution of sulfuric acid, achieving the solubilisation of metallic zinc and of its compounds and of manganese compounds, and the salification of the residual potassium hydroxide with the formation of potassium sulfate; d) separating the insoluble residue of black paste consisting of manganese dioxide and carbon from the sulfuric solution; e) treating the sulfuric solution obtained in step d) with oxalic acid in sub-stoichiometric amounts compared to zinc, obtaining the precipitation of zinc oxalate; f) separation of zinc oxalate from the sulfuric solution; g) electrolysis of the acid solution with formation of MnO 2 at the anode; g') treating the solution recovered after step g) with further oxalic acid, to complete the precipitation of zinc residues. a) cutting zinc-carbon, alkaline batteries or mixtures thereof, with selective dry extraction of black paste; b) washing the black paste with water to separate the potassium hydroxide of the alkaline batteries or the ammonium chloride of zinc-carbon batteries, or both, in the form of a solution, and recovering the black paste fraction that is insoluble in water; c) treatment of the wet black paste resulting from step b) with an aqueous solution of sulfuric acid, achieving the solubilisation of metallic zinc and of its compounds and of manganese compounds, and the salification of the residual potassium hydroxide with the formation of potassium sulfate; d) separating the insoluble residue of black paste consisting of manganese dioxide and carbon from the sulfuric solution; e) treating the sulfuric solution obtained in step d) with oxalic acid in sub-stoichiometric amounts compared to zinc, obtaining the precipitation of zinc oxalate; f) separation of zinc oxalate from the sulfuric solution; g) electrolysis of the acid solution with formation of MnO 2 at the anode; g') treating the solution recovered after step g) with further oxalic acid, to complete the precipitation of zinc residues.
A turbine blade comprising an impingement cooling mechanism that ejects a cooling gas toward a blade main body from a plurality of impingement holes formed in a facing member that is disposed facing the blade main body , wherein blocking plates that inhibit the intrusion of a crossflow (CF), which is a flow formed by the cooling gas after being ejected from the impingement holes and which flows toward a trailing edge portion of the blade main body whereby a portion of the crossflow (CF) may be possibly used to film cool the blade surface, into the region between the impingement holes and the blade main body are installed on, with respect to the crossflow (CF), at least the upstream side of impingement hole groups , each of which is made of five impingement holes ; and turbulent flow promoting portions are provided in the flow path (R) of the crossflow (CF) regulated by the blocking plates , the flow path (R) of the crossflow (CF) is formed between adjacent impingement hole groups and adjacent blocking plates , characterized in that the blocking plates and the turbulent flow promoting portions are adjacent along the direction perpendicular to the flow path (R).
A heat exchanger for cooling a fluid in a flow path and containing a component liable to phase change below a temperature thereof, the heat exchanger comprising a series of tubes for the passage of coolant and is characterised by an injector for introducing an anti-freeze component into the fluid in the flow path; wherein the injector is an antifreeze injector, such as a methanol injector arranged for connection to a source of methanol, and wherein the antifreeze injector comprises a plurality of injection portions and is arranged to inject a more concentrated antifreeze at a first injection portion in a first region of air flow and a more water-diluted antifreeze at a second injection portion which is more upstream than the first injection portion at a second region of air flow that is warmer than the first region.
A column-shaped polycrystalline silicon rod with polycrystalline silicon radially disposed around a silicon core wire, wherein at a cross section face, which is obtained by a perpendicular cut with respect to the rod's axial direction, the value of the ratio of the area of coarse crystal particles, which have a diameter in their longitudinal direction of 50 μm or more, observed at the cross section face excluding the core wire part is 20% or more.
Method for straightening of strip-like or part products to be straightened, in particular of flat parts, and for cyclic supply to a following processing apparatus or machine, in particular a punch press, a shear or shaping machine, which has the following steps, feeding the product to be straightened to a first straightening unit and optionally straightening the product to be straightened in this first straightening unit, forwarding the product to be straightened without a loop to a second straightening unit and optionally straightening the product to be straightened in this second straightening unit, forwarding the product to be straightened without a loop to the following processing machine, wherein the extent of the forward feed to the following processing machine is controlled by means of an open-loop or closed-loop control device , which controls cyclic venting of the straightening units synchronously with the cycling of the following processing apparatus, wherein, following closure of the two position controllers of the two straightening units, the two straightening units are coupled via a synchronization bus, wherein the product to be straightened is forwarded with position accuracy and with synchronization of the two straightening units by means of a system superimposed on the two straightening units, which comprises a measuring device, in which position and torque of the individual straightening units and the movement of the product to be straightened are monitored, wherein, when the product to be straightened has reached its desired position, compensation of the torque acting on the product to be straightened with superimposed position stabilization is initiated in the higher-order system, and wherein the use of the first and/or the second straightening unit is controlled by means of the open-loop or closed-loop control device .
A fabricating apparatus comprising: a powder layer forming device configured to form a powder layer ; a fabrication liquid discharge device configured to discharge fabrication liquid onto the powder layer ; and a discharge controller configured to control the fabrication liquid discharge device to discharge first droplets of the fabrication liquid with a first kinetic energy and then discharge second droplets of the fabrication liquid with a second kinetic energy higher than the first kinetic energy, wherein the second droplets are discharged so that at least some of the second droplets overlaps the first droplets, characterized in that the discharge controller is configured to control discharge of the fabrication liquid discharge device such that a discharge speed of the first droplets is lower than a discharge speed of the second droplets. a powder layer forming device configured to form a powder layer ; a fabrication liquid discharge device configured to discharge fabrication liquid onto the powder layer ; and a discharge controller configured to control the fabrication liquid discharge device to discharge first droplets of the fabrication liquid with a first kinetic energy and then discharge second droplets of the fabrication liquid with a second kinetic energy higher than the first kinetic energy, wherein the second droplets are discharged so that at least some of the second droplets overlaps the first droplets, characterized in that the discharge controller is configured to control discharge of the fabrication liquid discharge device such that a discharge speed of the first droplets is lower than a discharge speed of the second droplets.
A secondary battery comprising: an alkaline electrolyte including zinc; and a negative electrode in contact with the alkaline electrolyte and including a conductive metal substrate having thereon (i) a coating of an amorphous metal alloy of electroless nickel and phosphorous, and (ii) a coating of the zinc during charge deposition. an alkaline electrolyte including zinc; and a negative electrode in contact with the alkaline electrolyte and including a conductive metal substrate having thereon (i) a coating of an amorphous metal alloy of electroless nickel and phosphorous, and (ii) a coating of the zinc during charge deposition.
Inkjet printer operable to print a print substrate made of textile, paper or plastic material, or the like; the inkjet printer comprises a sliding transfer surface to feed the print substrate in a feed direction ; a printing device arranged above the transfer surface to define, on the transfer surface , a printing station ; suction means arranged below the transfer surface to maintain the print substrate adhering to and stationary with respect to the transfer surface during sliding; wherein the inkjet printer comprises an adjustment unit to adjust planarity of the transfer surface wherein the adjustment unit is suitable for adjusting height of the transfer surface , wherein the suction means comprise at least one tank having a suction opening coupled to a lower surface of the transfer surface ; the adjustment unit comprises at least one adjusting device arranged in the tank , wherein the suction opening is engaged by a suction plate arranged in contact with the lower surface of the transfer surface ; the adjusting device is configured to correct any bending of the suction plate that may be caused by the suction, wherein the adjusting device comprises wedge means arranged in the tank and operable to move the suction plate , together with the transfer surface , in a direction perpendicular to the transfer surface , wherein the wedge means comprise at least a fixed member having an inclined surface, and at least a movable member coupled to the inclined surface of the fixed member so that a movement of the movable member parallel to the transfer surface results in a movement of the fixed member , together with the suction plate , in a direction perpendicular to the transfer surface , and wherein the movable member comprises a nut engaged by screw means .
Computer-aided method comprising identifying/detecting non-qualified services in a network of distributed services, comprising agreeing comparative interaction patterns between at least two services (CApp, PApp) in a contract (C), observing interaction patterns during the communication of the services (CApp, PApp) and comparing (M) the observed interaction patterns with the comparative interaction patterns, wherein the keys (key) required for a comparison (M) are maintained in a securable build time environment and are not available in the open runtime environment.