CN103127884A - Microwave field and electromagnetic field coupled thermal state gas-liquid-solid reaction apparatus - Google Patents
Microwave field and electromagnetic field coupled thermal state gas-liquid-solid reaction apparatus Download PDFInfo
- Publication number
- CN103127884A CN103127884A CN2013100615618A CN201310061561A CN103127884A CN 103127884 A CN103127884 A CN 103127884A CN 2013100615618 A CN2013100615618 A CN 2013100615618A CN 201310061561 A CN201310061561 A CN 201310061561A CN 103127884 A CN103127884 A CN 103127884A
- Authority
- CN
- China
- Prior art keywords
- liquid
- bed body
- electromagnetic field
- field
- microwave
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Granted
Links
Images
Landscapes
- Devices And Processes Conducted In The Presence Of Fluids And Solid Particles (AREA)
Abstract
The invention discloses a microwave field and electromagnetic field coupled thermal state gas-liquid-solid reaction apparatus. The apparatus comprises a three-phase reaction bed, disturbance heat particles, a fluidizing gas distribution device, a liquid phase injection device, a microwave field emission device and an electromagnetic field generation device. The apparatus simultaneously couples a microwave field with an electromagnetic field on the basis of an airflow field and a gravitation field, makes partial particles in the bed move and be heated in the multi-field, optimizes the heating mode and the current sharing mode of a traditional reactor, and realizes the heating function in the current sharing process, so the apparatus has multiple functions; the coupling of the electromagnetic field on the basis of the airflow field reinforces the disturbance in the bed, increases the gas-liquid-solid contact surface, and is in favor of the smooth implementation of a reaction; the superpose of the microwave field on the electric magnetic field obviously improves the heating efficiency and the heating rate of a reactor; and the microwave heating and the magnetic motion of particles are realized through heavy disturbance heat particles and lightweight disturbance heat particles.
Description
Technical field
The invention belongs to the multi-phase flow technology field that relates in biomass thermal chemical conversion process, be specifically related to the hot gas-liquid-solid phase reaction device that a kind of microwave field and electromagnetic field intercouple.
Background technology
The gas-liquid-solid phase reaction device is multi-phase physics operating means or chemistry and the bioreactor that a class has the essential industry using value.The gas-liquid-solid phase reaction device is by gas phase, liquid phase and solid phase three phase compositions, and wherein liquid phase is continuous phase, and gas phase is discrete phase, and solid particle is suspended in gas phase and liquid phase.When the gas-liquid-solid phase reaction device during as chemical reactor, be no matter gas phase as inert gas, or solid phase is as catalyst, disturbance in enhanced reactor, strengthen contact between phase and phase, for promoting that chemical reaction fast and effeciently carries out significant.
Different from the Dual-Phrase Distribution of Gas olid bed, in the gas-liquid-solid three-phase bed, gas only can pass bed with the form of bubble, this is very disadvantageous for gas phase and contacting of other two-phases, especially for uneven due to cloth wind in bed, the situation that air pocket and local dead band occur, because when bubble passes through bed, only there is the gas at bubble interface to contact with solid-liquid two on every side, and the gas of bubble inside can not directly contact with them, when bubble passed bed fast, this part gas was fled from bed with the short circuit form.For, generally take two kinds of measures to strengthen the mixing of gas-liquid-solid three-phase at present.The first measure is the appropriate design gas distributed system, guarantees that fluidisation is even.When gas entered liquid phase with air-flow by gas distributed system, bubble had just formed.The size of bubble is permitted multifactorial the impact, and as the physical property of gas, liquid and solid particle, the operating condition of bed and the geometry of reactor, the geometry of reactor mainly just refer to the cloth wind system.Simultaneously, when cloth wind is uneven, be prone to local dead band in bed, the appearance in dead band also can suppress the mixing of gas-liquid-solid three-phase greatly.The second measure is that inner member is installed in bed.In bubble moved upward process, on the one hand minute bubbles can become air pocket by coalescence, and on the other hand, air pocket can be out of shape, breaking forms minute bubbles, that is to say, the merging of bubble with break and deposit.The effect of inner member is exactly the poised state of destroying air bubble growth, and the mechanism that makes air pocket split into minute bubbles surpasses the mechanism that minute bubbles are merged into air pocket, thereby promotes the growth of more minute bubbles.
In addition, for the carrying out that promotes to react, actual chemical reaction all carries out at a certain temperature, and this just need to heat reactor.Traditional heating mode is nothing more than dual mode.The first is external heat, is wound around heating wire or adds mounting clip sleeve to flow through hot flue gas reactor is outside, and obviously, this mode of heating heat transfer efficiency is low, and the rate of heat addition is slow, nor is convenient to the amplification of reactor.The second is inner heating, is mainly to adopt the mode of coiled pipe to stretch in bed heat pipe, then leads to steam in pipe, by steam indirect bed internal reaction thing.Although this mode of heating all is greatly improved on the efficiency of heating surface and speed; but stretching in bed, pipe can affect to a great extent the flow behavior of bed inner fluid; further the impact reaction is carried out; simultaneously; the continuous friction of solid particle meeting tube wall in the goods fluid process; to the serious wear of pipe, can affect the safe operation of equipment.
Therefore, need hot gas-liquid-solid phase reaction device that a kind of microwave field and electromagnetic field intercouple to address the above problem.
Summary of the invention
Goal of the invention: the present invention is directed to the defective that in prior art, hot gas-liquid-solid phase reaction energy consumption is high, efficient is slow, the hot gas-liquid-solid phase reaction device that provides a kind of energy consumption is low, efficient is high microwave field and electromagnetic field to intercouple.
Technical scheme: for solving the problems of the technologies described above, the hot gas-liquid-solid phase reaction device that microwave field of the present invention and electromagnetic field intercouple adopts following technical scheme:
The hot gas-liquid-solid phase reaction device that a kind of microwave field and electromagnetic field intercouple comprises phase reaction bed, the hot particle of disturbance, fluidized gas distribution apparatus, liquid phase injection apparatus, microwave field emitter, electromagnetic field generation device; Described phase reaction bed comprises a body, is provided with exhaust outlet, discharging opening and discharge port on described bed body; The hot particle of described disturbance comprises the hot particle of heavy disturbance and the hot particle of lightweight disturbance, and the hot particle of described disturbance is arranged in described bed body; Described electromagnetic field generation device comprises current converter and electromagnet, and described current converter connects described electromagnet, and described electromagnet is symmetrically distributed in the surrounding of described bed body; Described microwave field emitter comprises microwave emitter, waveguide, is positioned at the filter band of described bed body inside upper part, be provided with the filtering hole on described filter band, described microwave emitter is arranged on four angles of described bed body, and described waveguide connects described microwave emitter and described bed body; Described liquid phase spraying system is arranged on the inside upper part of described bed body, described liquid phase injection apparatus comprises the liquid phase playpipe, described liquid phase playpipe stretches into described bed body and is arranged on the below of described filter band, be provided with spray-hole on described liquid phase playpipe, described liquid phase playpipe stretches into an end sealing of described bed body; Described fluidized gas distribution apparatus is arranged on the lower inside of described bed body, described fluidized gas distribution apparatus comprises female pipe, wind-distributing pipe and control valve, one end of described wind-distributing pipe connects the side of described female pipe, the other end of described wind-distributing pipe stretches into described bed body, be positioned on the described wind-distributing pipe of described bed body inboard and be provided with pore, be positioned on the wind-distributing pipe of the external side of described bed and be provided with described control valve.
Further, described bed body is cuboid bed body or cube bed body.
Further, the hot particle of described heavy disturbance comprises the first hollow ball shape shot and carborundum, and described carborundum is arranged in described the first hollow ball shape shot.Described the first hollow ball shape shot comprises two hemispherical shots, and two described hemispherical shots are closed together by the first high-temperature adhesives.The hot particle of described lightweight disturbance comprises the second hollow ball shape shot and polar molecule liquid, is provided with injection orifice on described the second hollow ball shape shot, and described polar molecule liquid is arranged in described the second hollow ball shape shot.Described the second hollow ball shape shot comprises two hemispherical shots, and two described hemispherical shots are closed together by the second high-temperature adhesives.Employing has the carborundum of very high dielectric constant and different densities and polar liquid as the polar molecule material, made the hot particle of disturbance of different densities, this has guaranteed that on the one hand particle is by Fast Heating, also impel on the other hand the hot particle of disturbance retainer shaft in fluid mapper process to being evenly distributed, to guarantee to realize the heating of three-phase and smashing of bubble at differing heights.
Further, being oriented straight up or straight down of described the above pore of wind-distributing pipe, the opposite direction of adjacent described the above pore of wind-distributing pipe.The aperture of adjacent wind-distributing pipe is towards the opposite, has avoided the deposition of solid phase particles at reactor bottom.
Further, along the fluidized wind flow direction, the aperture of described pore increases gradually.By offer aperture on wind-distributing pipe, and increase gradually along fluidized wind flow direction small aperture, the flow resistance of fluidized gas is equated, guaranteed that on same wind-distributing pipe, each small hole injection fluidized gas flow out equates, be conducive to the even fluidisation of an interior gas, liquid, solid three-phase, eliminated the dead band.
Further, along the mobile direction of jetting fluid, the aperture of described spray-hole increases gradually.Can guarantee that like this jetting fluid all equates in the pressure drop at spray-hole place, guarantee that jetting fluid equates from the flow that spray-hole ejects.
Further, described bed body inboard is provided with conduit saddle, and the end that described playpipe and wind-distributing pipe stretch into described bed body all is placed on described conduit saddle.
Beneficial effect: the hot gas-liquid-solid phase reaction device that microwave field of the present invention and electromagnetic field intercouple has the following advantages:
1, be coupled simultaneously on the basis of airflow field and gravitational field microwave field and electromagnetic field of the present invention, make an interior part particle move in many and heat, optimized heating mode and the current-sharing mode of traditional reactor, realized the heating function in the current-sharing process, made this device have multifunctionality;
2, coupled electromagnetic field on the basis of airflow field, make particle be subject to the electromagnetic force of horizontal direction when vertical direction is subject to gravity and fluid drag force, and level moves back and forth under the magnetic field force effect that changes magnetic direction with certain frequency, can smash air pocket like this, strengthen disturbance in bed, increased the contact-making surface of gas, liquid, solid three-phases, what be conducive to react carries out smoothly;
3, the microwave field that superposes on the basis of electromagnetic field, by microwave fast heating at the hot particle of continuous moving disturbance, make particle at inside reactor with heat point source mode directly rapidly circumference fluid and solid particle, changed in the outside traditional heating pattern of using electric-heating-wire-heating and passing through the heat pipe indirect of reactor, obviously improved the efficiency of heating surface and the rate of heat addition of reactor;
4, by the hot particle of heavy disturbance and the hot particle of lightweight disturbance, heating using microwave and the magnetization motion of particle have been realized.
Description of drawings
Fig. 1 is the structural representation of the hot gas-liquid-solid phase reaction device that intercouples of microwave field of the present invention and electromagnetic field;
Fig. 2 is the sectional view of the hot gas-liquid-solid phase reaction device B-B face that intercouples of microwave field of the present invention and electromagnetic field;
Fig. 3 is the sectional view of the hot gas-liquid-solid phase reaction device A-A face that intercouples of microwave field of the present invention and electromagnetic field;
Fig. 4 is the hot particle schematic diagram of hot gas-liquid-solid phase reaction device heavy disturbance that microwave field of the present invention and electromagnetic field intercouple;
Fig. 5 is the hot particle schematic diagram of hot gas-liquid-solid phase reaction device lightweight disturbance that microwave field of the present invention and electromagnetic field intercouple.
The specific embodiment
Below in conjunction with the drawings and specific embodiments, further illustrate the present invention, should understand these embodiment only is used for explanation the present invention and is not used in and limits the scope of the invention, after having read the present invention, those skilled in the art all fall within the application's claims limited range to the modification of the various equivalent form of values of the present invention.
See also Fig. 1, Fig. 2 and shown in Figure 3, the hot gas-liquid-solid phase reaction device that microwave field of the present invention and electromagnetic field intercouple comprises phase reaction bed, the hot particle of disturbance, fluidized gas distribution apparatus, liquid phase injection apparatus, microwave field emitter, electromagnetic field generation device.The phase reaction bed comprises a body 1, is provided with exhaust outlet 8, discharging opening 9 and discharge port 17 on bed body 1.Bed body 1 is cuboid bed body or cube bed body.Bed body 1 is of a size of: width W=990mm, depth D=900mm, height H=1500mm.Solid particle 13 adopts catalyst granules, and liquid phase reactor thing 5 is the water bio oil, and temperature is 60 ℃, and fluidized gas is hydrogen, and temperature is 25 ℃.Liquid reactants 5 and solid particle 13 are placed in a body 1.
Electromagnetic field generation device comprises current converter 18 and electromagnet 6, and current converter 18 connects electromagnet 6, and electromagnet 6 is symmetrically distributed in the surrounding of a body 1.Concrete, electromagnet 6 is arranged symmetrically in a body 1 surrounding, is connected with current converter 18 by wire 19; Automatic switchover by power supply changeover device, the electromagnet that is arranged symmetrically with in bed body surrounding produces the both positive and negative polarity electromagnetic field with frequency f=1/ (5W) ~ 1/W, wherein, W is a bed body width, and the hot particle of disturbance is in turning movement back and forth on the bed cross section under the effect of electromagnetic field.
The microwave field emitter comprises microwave emitter 22, waveguide 21, is positioned at the filter band 2 of a body 1 inside upper part, is provided with filtering hole 3 on filter band 2, and microwave emitter 22 is arranged on four angles of a body 1, and waveguide 21 connects microwave emitters 22 and bed bodies 1.Microwave emitter 22 is arranged on four angles of a body 1, one end is connected with waveguide, the microwave that produces passes through waveguide 21 to the interior emission of bed body 1, the microwave of emission comes back reflective in space in bed by bed body 1 wall and filter band 2, add the hot particle of thermal agitation, the hot particle of disturbance passes to bed interior liquid reactants and a solid particle to heat by convection current and conduction pattern again, offers the filtering hole on filter band, and the aperture is between 5 ~ 10mm.
The liquid phase spraying system is arranged on the inside upper part of a body 1, the liquid phase injection apparatus comprises liquid phase playpipe 10, liquid phase playpipe 10 stretches into a body 1 and is arranged on the below of filter band 2, is provided with spray-hole 4 on liquid phase playpipe 10, and liquid phase playpipe 10 stretches into an end sealing of a body 1.Concrete, liquid phase playpipe 10 passes a body 1 left side wall and enters in a body 1, on the conduit saddle 7 that an end that enters a body 1 is placed on bed body 1 Right Inboard top is connected; Equidistantly offer spray-hole 4 with distance 30 ~ 50mm on liquid phase playpipe 10, the direction of adjacent spray-hole 4 and vertical plane angle are ± 30 °, and along liquid flow direction, spray-hole 4 apertures increase gradually; Liquid phase playpipe 10 near bed body 1 front and back side wall surface is 50 ~ 80mm with the wall distance, and the spacing between adjacent liquid phase playpipe 10 is 80 ~ 150mm.
Bed body 1 inboard is provided with conduit saddle 7, and the end that liquid phase playpipe 10 and wind-distributing pipe 14 stretch into a body 1 all is placed on conduit saddle 7.Wherein, conduit saddle 1 is distributed in a body 1 lower inside and inside upper part.
The fluidized gas distribution apparatus is arranged on the lower inside of a body 1, the fluidized gas distribution apparatus comprises female pipe 16, wind-distributing pipe 14 and control valve 15, one end of wind-distributing pipe 14 connects the side of female pipe 16, the other end of wind-distributing pipe 14 stretches into a body 1, be positioned on the wind-distributing pipe 14 of a body 1 inboard and be provided with pore 20, be positioned on the wind-distributing pipe 14 in a body 1 outside and be provided with control valve 15.On wind-distributing pipe 14 pore 20 be oriented straight up or straight down, on adjacent wind-distributing pipe 14, pore 20 is towards the opposite.Concrete, the mother of fluidized gas distribution apparatus manages 16 and is connected with an end of every wind-distributing pipe 14, and fluidized wind is managed 16 uniform distributions to each wind-distributing pipe 14 by mother, and by being arranged on control valve 15 adjust fluxes on wind-distributing pipe 14; Wind-distributing pipe 14 passes a body 1 right side wall and enters in a body 1, and the other end is placed on the conduit saddle 7 that is connected with the left inside side lower part of bed body 1; On wind-distributing pipe 14,30 ~ 50mm equidistantly offers pore with distance, and along the fluidized wind flow direction, air vent aperture increases gradually; Wind-distributing pipe 14 near bed body 1 front and back side wall surface is 40 ~ 75mm with the wall distance, the pore 20 of offering on wind-distributing pipe 14 is oriented straight down or straight up, aperture on adjacent wind-distributing pipe 14 is towards the opposite, spacing between wind-distributing pipe 14 is 80 ~ 150mm, all the other wind-distributing pipes 14 successively side by side and pore towards being staggered in arrangement.The pore 20 of adjacent wind-distributing pipe 14 is towards the opposite, has avoided the deposition of solid phase particles at reactor bottom.Along the fluidized wind flow direction, the aperture of pore 20 increases gradually.By offer pore on wind-distributing pipe, and increase gradually along fluidized wind flow direction air vent aperture, the flow resistance of fluidized gas is equated, guaranteed that on same wind-distributing pipe, each small hole injection fluidized gas flow out equates, be conducive to the even fluidisation of an interior gas, liquid, solid three-phase, eliminated the dead band.
See also Fig. 4 and shown in Figure 5, the hot particle of disturbance comprises the hot particle 11 of heavy disturbance and the hot particle 12 of lightweight disturbance, and the hot particle of disturbance is arranged in a body 1.
The hot particle 11 of heavy disturbance comprises the first hollow ball shape shot 23 and carborundum 25, and carborundum 25 is arranged in the first hollow ball shape shot 23.The first hollow ball shape shot 23 comprises two hemispherical shots, and two hemispherical shots are closed together by the first high-temperature adhesives 24.Concrete making step: the particle diameter of the hot particle 11 of heavy disturbance is normal distribution between 10 ~ 20mm, made by the hemispherical shot.During making, first carborundum 25 is respectively charged into the hemisphere shot, then smear the first high-temperature adhesives 24 in shot edge, again that two hemispherical shots that fill up carborundum 25 are closed, and put into drying box, drying is 5 hours at the temperature of 80 ℃, and hot particle 11 density of this heavy disturbance of making are at 4500 ~ 6400kg/m
3Between.Employing has very high dielectric constant and highdensity carborundum as the polar molecule material, has made the hot particle 11 of heavy disturbance.
The hot particle 12 of lightweight disturbance comprises on the second hollow ball shape shot 26 and polar molecule liquid 29, the second hollow ball shape shots 26 and is provided with injection orifice 28, and polar molecule liquid 29 is arranged in the second hollow ball shape shot 26.The second hollow ball shape shot 26 comprises two hemispherical shots, and two hemispherical shots are closed together by the second high-temperature adhesives 27.Concrete making step: the particle diameter of the hot particle 12 of lightweight disturbance is normal distribution between 5 ~ 15mm, made by the hemispherical shot.During making, first smear the second high-temperature adhesives 27 two hemispherical shot edges, then closed, and put into drying box, drying is 5 hours at the temperature of 80 ℃, and then steel ball is taken out, adopt syringe holder polar molecule liquid 29 to inject steel balls by injection orifice 28, wait fill with after, use again the second high-temperature adhesives 27 closed injection holes 28, and put into drying box, and drying is 3 hours at the temperature of 80 ℃, and the hot grain density 12 of the lightweight disturbance of making like this is at 2000 ~ 3600kg/m
3Between.Employing has very high dielectric constant and low-density polar liquid as the polar molecule material, has made the hot particle 12 of lightweight disturbance.
Employing has the carborundum of very high dielectric constant and different densities and polar liquid as the polar molecule material, made the hot particle of disturbance of different densities, this has guaranteed that on the one hand particle is by Fast Heating, also impel on the other hand the hot particle of disturbance retainer shaft in fluid mapper process to being evenly distributed, to guarantee to realize the heating of three-phase and smashing of bubble at differing heights.
Concrete experimental procedure:
At first catalyst granules and the hot particle of disturbance are put into a body 1 in the 4:1 ratio, open the liquid phase injection apparatus and introduce the water bio oil.10 liquid phase playpipes 10 pass a body 1 wall from bed body 1 left side and enter in a body 1, liquid phase playpipe 10 stretch into be placed on after a body 1 one ends sealings with conduit saddle 7 that bed body 1 Right Inboard top is connected on, and keep the distance of 5mm with the right side wall, liquid phase playpipe 10 near bed body 1 front and back side wall surface is 45mm with the wall distance, and the distance between adjacent liquid phase playpipe 10 is 90mm, offer spray-hole 4 on the tube wall of every liquid phase playpipe 10, spray-hole 4 diameters near bed body 1 left side wall are 4mm, then increase gradually along the mobile direction of jetting fluid, until near bed body 1 right side wall, spray-hole 4 diameters are 8mm, like this, jetting fluid all equates in the pressure drop at spray-hole 4 places, guaranteed that the water bio oil equates from the flow that spray-hole 4 ejects.Spray-hole 4 at pipe end is 45mm with the tube wall distance, and adjacent spray-hole 4 spacings are 50mm, and the direction of adjacent spray-hole 4 and vertical plane angle are ± 30 °.
Simultaneously, fluidized gas hydrogen is introduced female pipe 16, female pipe 16 is dispensed to hydrogen every wind-distributing pipe 14 again.Wind-distributing pipe 14 passes a body 1 wall from bed body 1 right side and enters in a body 1, be placed on the conduit saddle 7 that is connected with the left inside side lower part of bed body 1 after other end sealing, and with the distance of left side wall maintenance 5mm.Like this, wind-distributing pipe 14 length in bed body 1 are 985mm, wind-distributing pipe 14 near bed body 1 front and back side wall surface is 45mm with the wall distance, and the distance between adjacent wind-distributing pipe 14 is 90mm, simultaneously, offer pore 20 on the tube wall of every wind-distributing pipe 14, pore 20 diameters near bed body 1 right side wall are 2mm, then increase gradually along the fluidized gas flow direction, until near wall on the left of the bed body, pore 20 diameters are 6mm, like this, fluidized gas all equates in the pressure drop at pore 20 places, has guaranteed that hydrogen equates from the flow that aperture 20 ejects.Pore 20 at pipe end is 45mm with the tube wall distance, and adjacent pore 20 spacings are 50mm.The pore 20 of adjacent wind-distributing pipe 14 is towards difference, and wind-distributing pipe 14 pores 20 near wall are oriented straight down, and wind-distributing pipe 14 pores 20 that are adjacent are oriented straight up, so the sample interlaced arrangement.Hydrogen enters in a body 1 by pore 15, and keeping apparent cross section gas speed is to change between 0.5 ~ 2m/s, and bed begins fluidisation like this, and hydrogen passes bed with bubble form, and solid particle is suspended in air-flow and liquid stream.
Then, be arranged symmetrically with electromagnet 6 at bed body 1 surrounding wall, and be connected with current converter 18 by wire 19.After starting power supply, power supply changeover device 18 cuts off current direction automatically with frequency f=0.2Hz, makes the electromagnet 6 that is arranged symmetrically with constantly change both positive and negative polarity all around, like this, also automatically changes with frequency f=0.2Hz at the electromagnetic field of bed body 1 interior generation.During due to the bed fluidisation, bubble mainly moves upward, therefore, the interior solid particle of bed body 1 spreads strongly vertically, and fainter in radial diffusion, but is constantly changing under the electromagnetic force of size and Orientation, the radial diffusion of the hot particle of disturbance obviously strengthens, at rapid movement radially in bed body 1, in motion process, destroy the bubble that moves upward and also it is broken, like this, the fluidization quality in bed body 1 is significantly improved.Meanwhile, microwave emitter 22 is arranged in four corners of a body 1, an end is connected with waveguide 21, and offers the filtering hole 3 that diameter is 8mm on the filter band 2 that is arranged on a body 1 top.During startup, the microwave that produces is launched in bed by waveguide 21, the microwave of emission comes back reflective in space in bed by bed body 1 wall and filter band 2, add the hot particle of thermal agitation, the hot particle of disturbance passes to bed interior liquid reactants and a solid particle to heat by convection current and conduction pattern again, because the hot particle of heavy disturbance is different from the polar material of the hot particle of lightweight disturbance, therefore, their temperature under same microwave field strength is also different.By changing the watt level of microwave generator 22, the intensity of microwave field can change thereupon, when microwave field strength is large, the temperature of the hot particle of disturbance is high, and when microwave field strength hour, the temperature of the hot particle of disturbance is low, finally, an interior temperature of charge is remained between 130 ~ 150 ℃.In this temperature range, in bed, water bio oil and hydrogen are under the effect of catalyst, and quick and complete generation chemical reaction generates multicomponent oxygen-bearing liquid fuel, and discharges from discharging opening 9.
The hot gas-liquid-solid phase reaction device that microwave field of the present invention and electromagnetic field intercouple has the following advantages:
1, be coupled simultaneously on the basis of airflow field and gravitational field microwave field and electromagnetic field of the present invention, make the interior part particle of a body move in many and heat, optimized heating mode and the current-sharing mode of traditional reactor, realized the heating function in the current-sharing process, made this device have multifunctionality.
2, coupled electromagnetic field on the basis of airflow field, make particle be subject to the electromagnetic force of horizontal direction when vertical direction is subject to gravity and fluid drag force, and level moves back and forth under the magnetic field force effect that changes magnetic direction with certain frequency, can smash air pocket like this, strengthen disturbance in bed, increased the contact-making surface of gas, liquid, solid three-phases, what be conducive to react carries out smoothly.
3, the microwave field that superposes on the basis of electromagnetic field, by microwave fast heating at the hot particle of continuous moving disturbance, make particle at inside reactor with heat point source mode directly rapidly circumference fluid and solid particle, changed in the outside traditional heating pattern of using electric-heating-wire-heating and passing through the heat pipe indirect of reactor, obviously improved the efficiency of heating surface and the rate of heat addition of reactor.
4, by offer aperture on wind-distributing pipe, and increase gradually along fluidized wind flow direction small aperture, the flow resistance of fluidized gas is equated, guaranteed that the fluidized gas flow that on same wind-distributing pipe, each pore ejects equates, be conducive to the even fluidisation of an interior gas, liquid, solid three-phase, eliminated the dead band, simultaneously, the aperture of adjacent wind-distributing pipe is towards the opposite, has also avoided the deposition of solid phase particles at reactor bottom.
5, the perfect adaptation by hollow magnetic steel ball and polar molecule material builds the hot particle of disturbance, heating using microwave and the magnetization motion of particle have been realized, simultaneously, employing has the carborundum of very high dielectric constant and different densities and polar liquid as the polar molecule material, made the hot particle of disturbance of different densities, this has guaranteed that on the one hand particle is by Fast Heating, also impel on the other hand the hot particle of disturbance retainer shaft in fluid mapper process to being evenly distributed, to guarantee to realize the heating of three-phase and smashing of bubble at differing heights.
Claims (10)
1. the hot gas-liquid-solid phase reaction device that intercouples of a microwave field and electromagnetic field, is characterized in that, comprises phase reaction bed, the hot particle of disturbance, fluidized gas distribution apparatus, liquid phase injection apparatus, microwave field emitter, electromagnetic field generation device; Described phase reaction bed comprises a body (1), is provided with exhaust outlet (8), discharging opening (9) and discharge port (17) on described bed body (1); The hot particle of described disturbance comprises the hot particle of heavy disturbance (11) and the hot particle of lightweight disturbance (12), and the hot particle of described disturbance is arranged in described bed body (1); Described electromagnetic field generation device comprises current converter (18) and electromagnet (6), and described current converter (18) connects described electromagnet (6), and described electromagnet (6) is symmetrically distributed in the surrounding of described bed body (1); Described microwave field emitter comprises microwave emitter (22), waveguide (21), is positioned at the filter band (2) of described bed body (1) inside upper part, be provided with filtering hole (3) on described filter band (2), described microwave emitter (22) is arranged on four angles of described bed body (1), and described waveguide (21) connects described microwave emitter (22) and described bed body (1); Described liquid phase spraying system is arranged on the inside upper part of described bed body (1), described liquid phase injection apparatus comprises liquid phase playpipe (10), described liquid phase playpipe (10) stretches into described bed body (1) and is arranged on the below of described filter band (2), be provided with spray-hole (4) on described liquid phase playpipe (10), described liquid phase playpipe (10) stretches into an end sealing of described bed body (1); Described fluidized gas distribution apparatus is arranged on the lower inside of described bed body (1), described fluidized gas distribution apparatus comprises female pipe (16), wind-distributing pipe (14) and control valve (15), one end of described wind-distributing pipe (14) connects the side of described female pipe (16), the other end of described wind-distributing pipe (14) stretches into described bed body (1), be positioned on the inboard described wind-distributing pipe (14) of described bed body (1) and be provided with pore (20), be positioned on the wind-distributing pipe (14) in described bed body (1) outside and be provided with described control valve (15).
2. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 1 and electromagnetic field, is characterized in that, described bed body (1) is cuboid bed body or cube bed body.
3. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 1 and electromagnetic field, it is characterized in that, the hot particle of described heavy disturbance (11) comprises the first hollow ball shape shot (23) and carborundum (25), and described carborundum (25) is arranged in described the first hollow ball shape shot (23).
4. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 5 and electromagnetic field, it is characterized in that, described the first hollow ball shape shot (23) comprises two hemispherical shots, and two described hemispherical shots are closed together by the first high-temperature adhesives (24).
5. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 1 and electromagnetic field, it is characterized in that, the hot particle of described lightweight disturbance (12) comprises the second hollow ball shape shot (26) and polar molecule liquid (29), be provided with injection orifice (28) on described the second hollow ball shape shot (26), described polar molecule liquid (29) is arranged in described the second hollow ball shape shot (26).
6. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 7 and electromagnetic field, it is characterized in that, described the second hollow ball shape shot (26) comprises two hemispherical shots, and two described hemispherical shots are closed together by the second high-temperature adhesives (27).
7. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 1 and electromagnetic field, it is characterized in that, being oriented straight up or straight down of the above pore of described wind-distributing pipe (14) (20), the opposite direction of the above pore of adjacent described wind-distributing pipe (14) (20).
8. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 1 and electromagnetic field, is characterized in that, along the fluidized wind flow direction, the aperture of described pore (20) increases gradually.
9. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 1 and electromagnetic field, is characterized in that, along the jetting fluid direction that flows, the aperture of described spray-hole (4) increases gradually.
10. the hot gas-liquid-solid phase reaction device that intercouples of microwave field as claimed in claim 1 and electromagnetic field, it is characterized in that, described bed body (1) inboard is provided with conduit saddle (7), and the end that described playpipe (10) and wind-distributing pipe (14) stretch into described bed body (1) all is placed on described conduit saddle (7).
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN201310061561.8A CN103127884B (en) | 2013-02-27 | 2013-02-27 | Microwave field and electromagnetic field coupled thermal state gas-liquid-solid reaction apparatus |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN201310061561.8A CN103127884B (en) | 2013-02-27 | 2013-02-27 | Microwave field and electromagnetic field coupled thermal state gas-liquid-solid reaction apparatus |
Publications (2)
Publication Number | Publication Date |
---|---|
CN103127884A true CN103127884A (en) | 2013-06-05 |
CN103127884B CN103127884B (en) | 2015-01-28 |
Family
ID=48488711
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
CN201310061561.8A Expired - Fee Related CN103127884B (en) | 2013-02-27 | 2013-02-27 | Microwave field and electromagnetic field coupled thermal state gas-liquid-solid reaction apparatus |
Country Status (1)
Country | Link |
---|---|
CN (1) | CN103127884B (en) |
Cited By (5)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN106890604A (en) * | 2017-03-29 | 2017-06-27 | 天津西敦津洋环保科技有限公司 | A kind of hybrid particles suspension system |
CN106902713A (en) * | 2017-03-29 | 2017-06-30 | 天津西敦津洋环保科技有限公司 | A kind of box-cage type distribution of particles mini system and its application |
CN106904729A (en) * | 2017-03-29 | 2017-06-30 | 天津西敦津洋环保科技有限公司 | A kind of hybrid particles system and method for sewage disposal |
CN107433494A (en) * | 2017-07-13 | 2017-12-05 | 浙江大学城市学院 | A kind of thread mixing rotation magnetic force internal pressure vessel walls flow polishing machine |
CN108311066A (en) * | 2017-01-18 | 2018-07-24 | 四川大学 | Microwave treatment multiphase fluidized-bed reactor and the technique for handling ardealite |
Citations (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
US3440731A (en) * | 1966-02-08 | 1969-04-29 | Atomic Energy Commission | Magnetically stabilized fluidized bed |
CN201711146U (en) * | 2010-06-07 | 2011-01-19 | 长春黄金研究院 | Reaction device capable of heating, aerating and stirring with microwave |
-
2013
- 2013-02-27 CN CN201310061561.8A patent/CN103127884B/en not_active Expired - Fee Related
Patent Citations (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
US3440731A (en) * | 1966-02-08 | 1969-04-29 | Atomic Energy Commission | Magnetically stabilized fluidized bed |
CN201711146U (en) * | 2010-06-07 | 2011-01-19 | 长春黄金研究院 | Reaction device capable of heating, aerating and stirring with microwave |
Non-Patent Citations (2)
Title |
---|
吕秀菊,曲红波,丛威,欧阳藩: "磁场流化床在生化工程中的应用", 《化工进展》 * |
金涌,亓平言: "磁场控制下的流-固相反应装置研究进展", 《化工进展》 * |
Cited By (9)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN108311066A (en) * | 2017-01-18 | 2018-07-24 | 四川大学 | Microwave treatment multiphase fluidized-bed reactor and the technique for handling ardealite |
CN108311066B (en) * | 2017-01-18 | 2021-04-13 | 四川大学 | Microwave treatment multiphase fluidized bed reactor and process for treating phosphogypsum |
CN106890604A (en) * | 2017-03-29 | 2017-06-27 | 天津西敦津洋环保科技有限公司 | A kind of hybrid particles suspension system |
CN106902713A (en) * | 2017-03-29 | 2017-06-30 | 天津西敦津洋环保科技有限公司 | A kind of box-cage type distribution of particles mini system and its application |
CN106904729A (en) * | 2017-03-29 | 2017-06-30 | 天津西敦津洋环保科技有限公司 | A kind of hybrid particles system and method for sewage disposal |
CN106902713B (en) * | 2017-03-29 | 2023-06-02 | 天津西敦津洋环保科技有限公司 | Box-cage type particle distribution small system and application thereof |
CN106890604B (en) * | 2017-03-29 | 2023-09-05 | 天津西敦津洋环保科技有限公司 | Mixed particle suspension system |
CN107433494A (en) * | 2017-07-13 | 2017-12-05 | 浙江大学城市学院 | A kind of thread mixing rotation magnetic force internal pressure vessel walls flow polishing machine |
CN107433494B (en) * | 2017-07-13 | 2023-12-22 | 浙江大学城市学院 | Spiral mixing rotary magnetic force pressure vessel inner wall mobile polishing machine |
Also Published As
Publication number | Publication date |
---|---|
CN103127884B (en) | 2015-01-28 |
Similar Documents
Publication | Publication Date | Title |
---|---|---|
CN103127884B (en) | Microwave field and electromagnetic field coupled thermal state gas-liquid-solid reaction apparatus | |
CN106475025B (en) | A kind of method that Impinging coaxial flow reactor continuously prepares nano material | |
CN106595356B (en) | Self-cleaning fluidized bed heat exchanger | |
CN102748955A (en) | Heat-energy recovery system of high-temperature material | |
CN108398040B (en) | Rotary heat exchanger | |
CN103353246A (en) | Recuperative heat exchanger of powder | |
CN104477915A (en) | Device for heating or drying materials and calcium carbide production equipment | |
CN204208551U (en) | A kind of chemical industry liquid reactions still | |
CN104482721A (en) | Two-tier fluidized bed | |
CN202063836U (en) | Beam type lime kiln | |
CN104096519B (en) | Fluidized-bed reactor and its application | |
CN103435253B (en) | Silica glass rotary cooling device | |
CN216632597U (en) | Conductive material superfine powder preparation device | |
CN102721030A (en) | Comprehensive recycling system of heat energy of yellow phosphorus furnace and working method thereof | |
CN215326964U (en) | Skid-mounted horizontal urea pyrolysis furnace | |
CN206408173U (en) | A kind of system of fast pyrogenation junked tire | |
CN203286889U (en) | Flash magnetization roasting furnace and flash magnetization roasting system | |
CN103464051A (en) | Spray granulation equipment used for catalyst assisted forming | |
CN109603286B (en) | The processing method of solidliquid mixture | |
CN203020825U (en) | Storing and heating device of particles of carbonic refractory products | |
CN201764809U (en) | Vertical heat treatment furnace | |
CN105854740A (en) | Self-cleaning fluidized bed reactor for carbon nanotube production | |
CN208990255U (en) | A kind of circulating evaporator with partition | |
CN103029928B (en) | Carbon-containing refractory product particle storage and heating device | |
CN111189317A (en) | High-temperature solid bulk material flow changing and air distribution cooling device |
Legal Events
Date | Code | Title | Description |
---|---|---|---|
C06 | Publication | ||
PB01 | Publication | ||
C10 | Entry into substantive examination | ||
SE01 | Entry into force of request for substantive examination | ||
C14 | Grant of patent or utility model | ||
GR01 | Patent grant | ||
CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20150128 Termination date: 20180227 |
|
CF01 | Termination of patent right due to non-payment of annual fee |