Fecha de publicación
Nº de solicitud
|1.||WO||WO/2013/180591 - PROCESS CONTROL LOOP CURRENT VERIFICATION||05.12.2013||
|PCT/RU2012/000422||ROSEMOUNT INC.||VARNAK, Valentin Gennadyevich|
Some embodiments are directed to a process device (102) comprising a process variable sensor (120) configured to generate an output signal (126) indicative of a sensed process variable; loop current output circuitry (122) configured to control a loop current on a two wire process control loop (106) to a value based on the output signal; loop current measurement circuitry (140) coupled to the process control loop and configured to generate a measured loop current value (142) based on the loop current; and loop current verification circuitry (124) configured to approximate the loop current value based on the output signal and properties of a low pass filter (150, 156), and generate a diagnostic signal (144) based on a comparison of the approximated loop current value (164) and the measured loop current value.
|2.||WO||WO/2013/180593 - METHOD FOR DETERMINING AN OIL-AND-GAS SATURATION INDEX BY A GEOPHYSICAL WELL-INVESTIGATION SYSTEM ON THE BASIS OF PULSED NEUTRON LOGGING METHODS||05.12.2013||
|PCT/RU2012/000470||OBSCHESTVO S OGRANICHENNOY OTVETSTVENNOSTYU "SPLIT"||BELOKHIN, Vasily Sergeevich|
The proposed method can be used in geophysics. The method consists in carrying out measurements by a pulsed neutron logging method and calculating a macroscopic section of thermal neutron absorption in the rock, and determining the macro-component composition of rocks, including porosity, by a geophysical well-investigation system, wherein, in order to calculate the macroscopic section of thermal neutron absorption by stratum water and hydrocarbons, use is made of the elemental composition and density thereof, and the hydrocarbon saturation is calculated in relation to gas (formula I) and to oil (formula II). In order to calculate the macroscopic sections of thermal neutron absorption by macro-components forming a solid rock phase, a collection of core samples from exploratory wells is additionally prepared, and the mineral and elemental composition of the samples and sample weight loss upon heating are measured in said collection, a mineral-component rock model is formed and macroscopic sections of thermal neutron absorption for each macro-component forming the solid rock phase are calculated. The invention increases the accuracy of determining the hydrocarbon content.
|3.||WO||WO/2013/180596 - "DOLG M3" TACTICAL GUN BELT||05.12.2013||
|PCT/RU2013/000102||KHARLAMPOV, Vladimir Vladimirovich||KHARLAMPOV, Vladimir Vladimirovich|
The invention relates to gun technology and, specifically, to belts for a gun used by special detachments. The tactical gun belt comprises a length-adjustable sling in the form of a loop, a carrying-sling clamp on the barrel, a rapidly detachable element for fixing to the gun barrel block and an element for fixing to the gun butt, or an element for fixing to the rear carrying-sling clamp on the gun breech, a sling-adjustment unit, and a tightening strap which passes through the sling-adjustment unit, wherein one end of said sling is fixed via the rapidly detachable element to the carrying-sling clamp on the barrel, and the other end is left free. The novelty resides in the fact that the belt additionally comprises a rapid-adjustment unit through which the sling in the form of a loop passes. Such an embodiment of a gun belt makes it possible very rapidly to adjust the length of the belt and to incorporate a large adjustment margin of the basic loop, which makes it possible to transform and use the belt on virtually any type of personal small arms: on submachine guns, automatic rifles, sniper rifles, smooth-bore guns, etc.
|4.||WO||WO/2013/180597 - DEVICE FOR PROTECTING THE UNDER-ENGINE PART OF A VEHICLE (ALTERNATIVES)||05.12.2013||
|PCT/RU2013/000150||KAZANTSEV, Konstantin Sergeevich||KAZANTSEV, Konstantin Sergeevich|
The utility model relates to equipment for vehicles, and is specifically intended for protecting the under-engine space of a car from mechanical damage of the engine crankcase, gearbox and distributor box in the event of collision with an obstacle, and from the ingress of dirt, from chemical agents used for treating roads for black ice and from other negative effects. The device for protecting the under-engine part of a vehicle according to three alternatives comprises a monolithic panel provided with elements for fastening said panel to corresponding parts of the vehicle, with reinforcing elements and with functional openings, wherein the monolithic panel is formed from sheet steel, the external and internal surfaces of which are provided with a zinc-containing coating, and the reinforcing elements are in the form of transverse relief elements, the axes of which intersect the longitudinal axis of the monolithic panel, and/or are in the form of at least one longitudinal profile with a downwards deflection. The sheet steel has a thickness of 1.0-3.5 mm, the zinc-containing coating is formed by a hot or cold galvanization method and has a thickness of 40-200 μm. The technical result is an expansion of the range of collision-protecting, corrosion-resisting means for protecting the under-engine space of a vehicle, which ensure that the vehicle operates reliably, even at reduced temperatures.
|5.||WO||WO/2013/180598 - REACTOR ASSEMBLY||05.12.2013||
|PCT/RU2013/000226||MOROZOV, Oleg Nikolaevich||MOROZOV, Oleg Nikolaevich|
The invention relates to nuclear power engineering, specifically to nuclear reactors, and can be used for the production of heat energy and electrical energy, for the combustion of transuranic nuclides and also for the production of nuclear fuel and radioactive materials. The reactor assembly comprises a reactor, the vessel (1) of which contains a reactor core, a cooling circuit for said reactor core comprising a heat exchanger connected to a coolant circulation line, and also a tank for the emergency dumping of fuel solution, connected to the reactor core. The reactor core in the reactor vessel takes the form of two cavities ("a" and "b") separated by a partition (2) installed in the vessel, the cavities being interconnected at the bottom part of the reactor vessel by means of a gap (3) formed between the lower edge of the partition (2) and the bottom of the vessel, and at the top of the reactor vessel by means of pipelines (4), each of which is equipped with a circulation pump (5), and wherein the assembly is equipped with at least one tank (6) positioned in one of the reactor cores and connected to the heat exchanger of the cooling circuit of said core, and wherein a plurality of containers may be installed in the reactor core, each of which is connected to the coolant circulation line.
|6.||WO||WO/2013/180601 - VIDEO PROJECTOR||05.12.2013||
|PCT/RU2013/000439||KOMPANETS, Igor Nikolaevich||KOMPANETS, Igor Nikolaevich|
The invention relates to optoelectronics and is used in information visualization, display, storage and processing devices and systems having a high information capacity: in two-dimensional and three-dimensional projection displays, devices and systems of optical advertising and show business. The video projector comprises a liquid-crystal micro-display based on an FLCoS structure with smectic liquid crystals, an optical unit for reading information formed in the FLCoS structure, a light source and projection optics, both being optically linked to the FLCoS structure and to a screen onto which the information is projected, wherein the material used in the FLCoS structure is low-voltage smectic liquid crystal with a compensated helicoid, providing a physically realizable, uninterrupted, half-tone, anhysteretic modulation characteristic by virtue of a certain proportional relationship of parameters, lasers emitting red, green and blue light serve as a light source in three different RGB color channels, the unit for reading information is provided with a cell with smectic liquid crystal in order to prevent the three types of light from creating interference, said cell performing rapid electrically-controllable spacial phase modulation of the light, and a two-dimensional scanner is provided for the formation on the screen of information files with differing geometrical configurations, said scanner being optically coupled with the information reader unit and the screen onto which information is projected.
|7.||WO||WO/2013/180602 - FERROELECTRIC LIQUID CRYSTAL DISPLAY CELL||05.12.2013||
|PCT/RU2013/000440||KOMPANETS, Igor Nikolaevich||KOMPANETS, Igor Nikolaevich|
The invention relates to optoelectronics and is used in information visualization, display, storage and processing devices and systems: in two-dimensional and three-dimensional displays, for instance those of computers and televisions, in light modulators such as spacial light modulators, and in image processing and recognition devices. The display cell comprises two flat transparent plates arranged in parallel one above the other, one side of each plate having polarizers applied thereto, the other side having transparent conductive coatings connected to a source of alternating electric voltage, on the surface of which conductive coatings a preferred direction is set for providing a unidirectional orientation of liquid crystal molecules, and also comprises ferroelectric liquid crystal which is located in the space between the transparent conducting coatings of the plates and which experiences changes in the optical anisotropy thereof under the influence of an electric field, wherein the ferroelectric liquid crystal is chosen to be non-helicoidal, having properties of rotational viscosity, spontaneous polarization, and modulus of elasticity, which modulus of elasticity determines the longitudinal deformation of smectic layers, which properties maintain a certain proportional relationship relative to one another, thus providing for periodic spacial longitudinal deformations of the smectic layers and a characteristic dependence of the birefringence of the display cell on the frequency of changes in the electric field.
|8.||WO||WO/2013/180603 - METHOD OF PRODUCTION OF BIOLOGICALLY ACTIVE COMPLEX-POWDER FROM THE YOUNG SHOOTS OF SEA BUCKTHORN||05.12.2013||
|PCT/RU2013/000445||ODINETS, Aleksei Glebovich||ODINETS, Aleksei Glebovich|
A method for preparing a biologically active complex comprises grinding raw material from shoots buckthorn knife mill to an average size of 0.5 mm pieces, mixing in a paddle mixer stainless steel crushed plant material and ascorbic acid, and to produce 100 kg of a powder of the active complex taken 95.5 kg milled buckthorn shoots and 5.0 kg ascorbic acid as well as the subsequent treatment of the mixture the solid phase mechanochemical grinding plant material in a roller mill under intensive mechanical treatment in the presence of solid food reagents to give a fine powder of composite particles with the size 70-300 microns, and the cells disrupted particles the introduction of the solid particulate reactant, wherein the composite particles comprise finer particles 200-800 nm plant materials. The raw material is made from harvested in early spring the young shoots up to 400 mm and the diameter of the lower cut no more than 5 mm, covered with silvery scales and stellate hairs kidney spherical, with 2-3 outer scales, covered with copper-bronze scales containing extractives extracted with 70% alcohol, at least 12% relative humidity of no more than 12%>total ash max 5%, impurities not exceeding 1%, and the chopped raw material, wherein the particles not passing through a sieve with openings of 0.5 mm, not more than 10%. The result is a simplification of the production technology, improve productivity (product yield per unit weight of raw material) and the duration of storage, preventing product contamination with toxic substances, reduction of production costs, ensuring the safety of chemical production.
|9.||WO||WO/2013/180592 - A METHOD AND SYSTEM FOR EVALUATING A DAM||05.12.2013||
|PCT/RU2012/000432||SIEMENS AKTIENGESELLSCHAFT||MANGUTOV, Oleg Vladimirovitch|
The invention provides a method for evaluating a dam (DM), including the steps of exerting a seismic excitation to the dam (DM), acquiring seismic waves by a plurality of sensors (S) located in a vicinity of the seismic excitation; reading current measurement values from the plurality of sensors (S); reading historic measurement values from a database (DB), the historic measurement values being determined by an excitation and a location of sensors (S) which are substantially similar to the current measurement; conducting a comparison of the current measurement values with the historic measurement values by considering an analytical model of the dam (DM) and determining a degree of overlap of the comparison and interpreting the dam (DM) stability in view of said degree.
|10.||WO||WO/2013/180594 - METHOD FOR ISOMERIZING С4-С7 PARAFFINIC HYDROCARBONS||05.12.2013||
|PCT/RU2012/000873||JOINT STOCK COMPANY SCIENTIFIC INDUSTRIAL ENTERPRISE NEFTEHIM||SHAKUN, Alexander Nikitovich|
The invention relates to a method for isomerizing С4-С7 paraffinic hydrocarbons in order to produce high-octane petroleum components and can be used in the petroleum-processing and petrochemical industries. The С4-С7 paraffinic hydrocarbons are subjected to isomerization on a porous zirconium oxide catalyst with an average pore diameter within the range of 8 to 24 nm in a hydrogen medium at a temperature of 100-250°С, a pressure of 1.0-5.0 MPa, a molar ratio of Н2: hydrocarbons (0.1-5): 1, a feed space velocity of 0.5-6.0 h-1 and stabilization of the isomerization product and (or) fractionation with isolation of the individual hydrocarbons or high-octane fractions. The zirconium oxide catalyst has the following composition: 97.00-99.90% by mass of a carrier, including: 60.00-86.00% by mass of zirconium oxide, 10.00-30.00% by mass of aluminium oxide, 0.05-2.00% by mass of titanium oxide, 0.05-2.00% by mass of manganese oxide, 0.05-2.00% by mass of iron oxide, 3.00-20.00% by mass of SO42- or WO32-, and 0.10-3.00% by mass of a hydrogenating component. Elements such as Pt, Pd, Ni, Zn and Ga are used as the hydrogenating component. The proposed method ensures a stable isomerization depth of unbranched С4-С7 paraffinic hydrocarbons over the course of the entire operating period of the catalyst and after regeneration of the latter.