3268results about "Evaporator accessories" patented technology

The present disclosure relates to a cyclone dust collecting apparatus for a vacuum cleaner having a high fine dust collecting efficiency. The cyclone dust collecting apparatus includes a first cyclone having an air suction hole through which dust-laden air is drawn-in, the first cyclone forcing the dust-laden air to downwardly whirl in a space under the air suction hole so as to centrifugally separate dust from the dust-laden air; a second cyclone disposed inside the first cyclone, the second cyclone forcing semi-clean air entering from the first cyclone to downwardly whirl so as to centrifugally separate fine dust from the semi-clean air; and an air guiding member forcing the semi-clean air discharged from the first cyclone to directly enter the second cyclone and, the air guiding member having a plurality of guiding blades radially disposed in at least one circular shape based on a vertical axis of the second cyclone.

The invention provides a Yunjie mill. The Yunjie mill adopts a Yunjie mill main engine composed of a shell body, a rotor with a powder mill and a grading function and an inner circulating pipe, so that materials are pulverized and dried at the same time in a high-speed circulating flowing process in an inner circulating channel composed of an inner circulating pipe, a pulverizing impeller, a spacebetween the pulverizing impeller and an inner wall of a barrel body and the like; a wall remaining problem of the inner circulating channel is solved by utilizing an impact effect of a high-speed material flow; the wall remaining problem of an outer circulating channel is solved by controlling the moisture content of materials, discharged by the main engine, through a grading impeller; the defects of equipment in the inventive patent 2015110139212 are overcome and a method and a product of the inventive patent 2015110139212 are economically realized; the invention provides an application method of the Yunjie mill, so that the drying and pulverizing problem of high-moisture and high-viscosity materials including vegetable materials, meat, liquid materials and the like is solved; a solutionwith good economical efficiency is provided for processing feed and preparing a medicine which takes a volatile component as a functional component.

A compact evaporation apparatus includes an evaporator vessel with a sloped, bottom chamber. A combustion chamber is mounted to a top of the vessel, with a burner mounted to a top of the combustion chamber, the combustion chamber sized to achieve total combustion of an air/gas mixture supplied to the burner before being released below a liquid surface in the vessel. At least one turbulence diverter plate is located within the vessel beneath the liquid surface, the diverter plate being a submerged perforated plate extending horizontally from the combustion chamber, such that hot combustion gasses are released below the diverter plate, and as large gas bubbles rise to the surface they pass through small perforations in the diverter plate, thereby breaking large, hot gas bubbles into small bubbles, the gas to liquid contact area being maximized to increase system efficiency.

The inventive device is embodied in the form of a chamber-oven for diffusing vapour and saturated hot air which circulate in a closed circuit by natural convection. Said device is embodied in the form of a domestic-use solar energy collecting device provided with a greenhouse whose surface is equal to 1 m² and produces from 50 to 100 litres/day of distilled water. The device comprises a distillation unit arranged between two furnaces (59′, 79′) in a temperature-controlled container (48′). Said distillation unit comprises 100 flat thin hollow plates having a surface of 20 dm² by face and an active volume of 200 dm³. The fine and tensioned walls (54) of said plates are provided with a hydrophilic coating (60′) and internal (56′) and inter-plate (58′) spaces. The lower chimney (59′) comprises a greenhouse (118′, 119′) whose bottom is embodied in the form of an impermeable black layer provided with a thin hydrophilic carpet on the rear part thereof. Saturated hot air at a temperature of 80° C. enters inside (56′) hollow plates from bellow and exits from the top at a temperature of 50° C. A high chimney (79′) is provided with a monoblock heat exchanger (84′) which is transversed by a non-potable water to be distilled which, afterwards is spread warm (40° C.) over the hydrophilic coating (60′). During passage through the heat exchanger (84) the air is cooled to 30° C. and moved down by gravity to the inter-plate spaces (58′) and exits therefrom at a temperature of 78° C. The distilled water condensed in the plates and by the heat exchanger is collected and removed. Brine is received in the bottom of the inter-plate space and distributed along the thin hydrophilic carpet of the bottom (122′) of the greenhouse. An air current passes along said hot carpet is heated and saturated and enters the plates. The brine liquor finally flows in an air-preheating tank (63′) which is emptied each morning. The greenhouse can be substituted by a heating tube transversed by a heating fluid or associated with another steam-jet tube. The more powerful chamber-ovens can produce at least 200 m³/day of distilled water for collective consumption. Said invention can be used for salt removal from seawater, co-generating electricity and potable water and for producing food concentrates.

The measurement instrument includes an attribute information output section to output attribute information about the attributes of the measurement instrument as an electric physical value. The attribute information is based on at least one of the conditions including a resistance of the attribute information output section, a location of the attribute information output section, and the size of a region on which the attribute information output section is formed. The attribute information may be used to select the calibration curve suitable for the measurement instrument. The attribute information may be one that relates to a specific measurement standard applied to the measurement instrument.

Provided is a vacuum devolatilizer for use in a polymer manufacturing or processing plant. The devolatilizer comprises a vacuum chamber having an inlet for a polymer melt, an outlet for a polymer melt, a vacuum port through which volatiles may be removed and a stirrer shaft port for the entry of a stirrer shaft. The stirrer shaft passes through the at least one stirrer shaft port and extends into the vacuum chamber and carries an agitation means. The stirrer shaft seal is associated with each stirrer shaft port for sealing against the stirrer shaft and each stirrer shaft seal has an external portion outside the vacuum chamber. The devolatilizer is provided with a motor located outside of the vacuum chamber for rotating shaft and comprises means for blanketing the external portion of the stirrer shaft seal with a low oxygen content gas or vapor, e.g., nitrogen, helium, steam, or carbon dioxide.

A cyclone dust-separating unit is provided that includes a whirling current generating unit to rotate air drawn in through a suction nozzle, and a dust collecting bin having opened and closed ends to collect and store dust separated by a whirling current. The generating unit and the bin are separate tube members, and the generating unit includes a cyclone body having a first end with an air inlet and a second end with an air outlet, a spiral guide member on the first end to guide air flowed in through the air inlet in a spiral shape, an outflow pipe on the second end to extend to the outside of the cyclone body while penetrating through the air outlet, and a dust guide to connect a dust discharging opening with the opened end and to guide dust or dirt discharged through the dust discharging opening, to the opened end.

Methods and devices are provided for an energy-efficient distillation system (42). An energy-efficient distillation system (42) can include a fluid inlet (24), one or more heat-yielding purification elements (7, 15, 44) downstream of the fluid inlet (24), one or more heat pipes (6), and a fluid outlet (23) downstream of the heat-yielding purification element (7, 15, 44). The heat-yielding purification element (7, 15, 44) can be, for example, a degasser (7), a demister (15), or an evaporation chamber (44). A heat pipe (6) has a first end operably connected to the heat-generating purification element(s) (7, 15, 44), a second end operably connected to the fluid inlet (24), and a body therebetween. The heat pipe (6) is configured to transfer latent heat energy from the first end to the second end, thereby heating a fluid (8) within the fluid inlet (24). The distillation system (42) can also include one or more descaling elements (21) for reducing scale formation of the fluid (8).

A multi-phase separation system utilized to remove contaminants from fluids includes a pre-filtering module for filtering a contaminated fluid to provide a filtered contaminated fluid. A condenser module receives the filtered contaminated fluid and a contaminated gas phase for condensing the contaminated gas phase to a contaminated liquid. A phase reaction chamber converts the filtered contaminated fluid to a contaminated mist wherein the mist is subjected to a low energy, high vacuum environment for providing a first change of phase by separating into a contaminated gas phase and a liquid mist phase. The contaminated gas phase is carried out of the phase reaction chamber by a carrier air. A vacuum pump provides the low energy, high vacuum environment in the phase reaction chamber and delivers the contaminated gas phase to the condenser module for condensation providing a second change of phase.

The invention relates to a heat cycle extraction concentration method for traditional Chinese medicine. According to the method, a suit of equipment is used, heat cycle and solvent cycle are reached through microcomputer control in a sealing system consisting of extraction and concentration, and the temperature, pressure and flow speed are controllable (low temperature extraction is permitted), thus the energy consumption and solvent consumption are furthest saved, and the extracting solution quality is improved and stabilized. The system mainly consists of a traditional Chinese medicine extracting tank, a filter, an extracting solution heat exchanger, a rising film evaporator, a gas-liquid separator, a steam compressor, a circulating pump, a concentrated liquor tank, a PLC full automatic control system, an operating platform, an electric instrument control cabinet and a valve. A fully sealed negative pressure extraction concentration system is formed in the extracting tank, the rising film evaporator and the gas-liquid separator, so that automatic heat conversion and condensate water reutilization during the medicine cycle extraction concentration process are realized, the degree of automation, safety performance and environmental performance are improved, and the method is convenient to operate, low in energy consumption and low in human cost.

Crystalline alpha-lactose monohydrate is recovered frown a viscous lactose-containing aqueous liquid by subjecting said liquid to simultaneous heating, removal of evaporated vapor and mechanical agitation at high shear rate to provide a crystallization promoting decrease of the viscosity of the liquid with crystals formed and suspended therein to progressively concentrate the agitated liquid and simultaneously crystallize lactose therefrom. Subsequent cooling, drying, and disintegration yield particulate alpha-lactose monohydrate.

The invention discloses an MVR continuous evaporation system. The system can be applied to the requirements on different evaporation pressures, and automatic control of continuous and stable feeding and continuous discharging can be realized. The system disclosed by the invention comprises a raw material balance tank, a main body evaporator, a gas-liquid separator, a condensate storage tank, a steam compressor, a vacuum system and at least three heat exchange devices which are connected by virtue of pipelines, control valves and related pumps, wherein the bottom of the raw material balance tank is connected with the inlet of a feeding pump and is connected with an interval inlet of the top end of the main body evaporator by virtue of a heat exchange device; multiple evaporation intervals are contained in the main body evaporator; a gas-liquid collection cavity is formed in the bottom end of the main body evaporator and is connected with the next evaporation interval by virtue of a booster pump; the concentrated solution in the final evaporation interval is used for preheating the raw materials by virtue of the heat exchange devices; the shell pass of the main body evaporator is connected with the condensate storage tank; and steam condensate is connected with the heat exchange devices by virtue of the condensate storage tank, and the raw materials can be preheated.

An apparatus for generating purified liquid from an input liquid, comprises, an evaporation chamber, wherein the evaporation chamber is flooded with the input liquid; and a condensation chamber having channels, wherein the channels are disposed in the input liquid, wherein liquid-saturated gases are generated from the input liquid in the evaporation chamber, wherein the liquid-saturated gases are guided into a first end of the channels, and wherein the purified liquid is outputted at a second end of the channels.

The invention discloses a full-automatic descaling multi-effect evaporator, which comprises a heater and an evaporation chamber, wherein a granule distributor which can make fluid be distributed to tube nests of the heater uniformly is arranged at the bottom of the heater; and a granule separator is also arranged between the heater and the evaporation chamber. Due to the adoption of the technical scheme, the full-automatic descaling multi-effect evaporator has the advantages that a descaling process can be simplified, heat transfer is enhanced, and a heat transfer coefficient is increased, so that the evaporator can clean and remove scales online to realize continuous production. According to the optimized technical scheme, an intensifier ring is arranged in the granule separator, and a granule separation chamber and a granule storage chamber are also formed in the granule separator, so that liquid forms a vortex which rotates at high speed when passing through the cylindrical granule separation chamber under the action of centrifugal force formed by the intensifier ring to do circular rotary motion, so that granular solids are separated from the liquid quickly.

An electrostatic spray dryer for drying liquid into powder including an elongated body defining a drying chamber, a spray nozzle assembly at one end of the drying chamber and a filter element housing and powder collection chamber at an opposite end. A non-structural non-metallic liner is disposed within the elongated body in spaced relation to an inner wall surface for defining an internal drying zone. The liner is releasably supported within the body for enabling selective removal and replacement following a particular usage. The illustrated elongated body has a modular construction comprising a plurality of modules, with at least one being selectively removable and replacement for altering the length of the drying chamber for a particular spray application. The liner also is replaceable with a liner of a length corresponding to the altered length of the drying chamber or with a different diameter for a particular usage.

The invention relates to a standard gas distribution device for a gas testing system. The standard gas distribution device comprises a carrier gas bottle and at least one raw gas bottle, wherein the carrier gas bottle is used for providing carrier gas; the raw gas bottle is used for providing raw gas; a gas outlet of the raw gas bottle is communicated with a mixing chamber through a raw gas delivery pipe; a raw gas mass flow controller which is used for regulating and controlling the delivery flow of the raw gas is arranged on the raw gas delivery pipe; a gas outlet of the carrier gas bottle is communicated with the mixing chamber through a carrier gas delivery pipe, and is communicated with the mixing chamber through a liquid saturated steam delivery mechanism capable of delivering liquid saturated steam into the mixing chamber; a carrier gas mass flow controller which is used for regulating and controlling the delivery flow of the carrier gas is arranged on the carrier gas delivery pipe; the mixing chamber can uniformly mix the carrier gas, the raw gas and/or the liquid saturated steam, and outputs needed standard gas. The standard gas distribution device is compact in structure, can distribute various kinds of standard gas, and is high in degree of automation, wide in application range, safe and reliable.

The invention relates to an energy-saving evaporating process and equipment for a L-phenylalanine brine solution, belonging to the technical field of efficient energy saving and environmental protection. The process comprises the following steps of: preheating a 1 percent concentration of feed solution to 50-60 DEG C with a preheater 4; making the preheated feed solution enter the tube pass and shell pass of a falling film evaporator 7 and a climbing film evaporator 8 for secondary vapor heat exchange at 78-80 DEG C, heating to 70 DEG C, and evaporating in a way of combining a falling film with a climbing film to generate secondary vapor and a concentrated solution; making the secondary vapor and the concentrated solution enter a separator 9 for vapor-liquid separation; making the separated secondary vapor enter a centrifugal compressor 10 for compressing and increasing caloric content, heating to 78-80 DEG C for serving as a heating source of the evaporators 7 and 8, and heating and evaporating the feed solution; discharging the concentrated solution of which the concentration is controlled at 3 percent from the separator 9, and returning the concentrated solution of which the concentration does not reach 3 percent to the climbing film evaporator 8 for continually evaporating and concentrating. The system has the advantages of self-heat balance, small using amount of live vapor, low running cost, high efficiency and saving in energy.

An in-tube auto-cleaning antiscale falling-film evaporation device. A few fluidized cleaning ceramic balls are added into mother liquor. Uniformly-distributed film-forming screws not only realizes automatic uniform distribution of liquid in each heating tube, but also promotes uniform film formation on tube inner walls. Liquid film screws and steam screws mounted in the heating tubes can significantly increase circumferential component velocities of falling-film liquid flow and secondary steam flow, enhance convection heat transfer of the liquid film, reduce the amount of splashing liquid foams falling directly, enable the fluidized ceramic balls to generate centrifugal force so as to tightly adhere to the tube inner walls for effective cleaning and scale prevention. A lower tube case is provided with a secondary steam liquid foam separation structure, and a circulating tank meeting crystallization requirements, and the structure is compact. The fluidized ceramic balls realize circulating cleaning through venturis, and the concentration of the fluidized balls is adjusted through a by-pass valve. Therefore, the evaporation device which can prevent scale formation in heat tube inner walls can realize auto-cleaning high yield and energy saving, meet requirements for long-term continuous production, and is especially suitable for heat pump evaporation.