CN209456108U - Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid - Google Patents

Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid Download PDF

Info

Publication number
CN209456108U
CN209456108U CN201822073590.7U CN201822073590U CN209456108U CN 209456108 U CN209456108 U CN 209456108U CN 201822073590 U CN201822073590 U CN 201822073590U CN 209456108 U CN209456108 U CN 209456108U
Authority
CN
China
Prior art keywords
liquid
gas
liquid separation
pipe
high viscosity
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.)
Expired - Fee Related
Application number
CN201822073590.7U
Other languages
Chinese (zh)
Inventor
张川
王保文
赵冰超
徐维晖
何小可
马帅帅
王贵红
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
North China University of Water Resources and Electric Power
Original Assignee
North China University of Water Resources and Electric Power
Priority date (The priority date 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 date listed.)
Filing date
Publication date
Application filed by North China University of Water Resources and Electric Power filed Critical North China University of Water Resources and Electric Power
Priority to CN201822073590.7U priority Critical patent/CN209456108U/en
Application granted granted Critical
Publication of CN209456108U publication Critical patent/CN209456108U/en
Expired - Fee Related legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Abstract

A kind of gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, including container, container is made of the liquid-phase collection area of the gas-liquid separation zone on the top of mutual connection and lower part, inlet is linked on gas-liquid separation zone top, inlet is connected to the liquid distributor laid in gas-liquid separation zone, liquid distributor bottom is provided with fluid hole, one row's liquid sheet breakup pipe is at least set in the gas-liquid separation zone below liquid distributor, two liquid sheet breakup pipes are at least arranged in parallel in every row's liquid sheet breakup pipe, adjacent row liquid sheet breakup pipe is staggered, connecting tube is set at the top of gas-liquid separation zone, liquid-phase collection area bottom is provided with liquid outlet, lower vessel portion is provided with inert gas cross over pipe, inert gas cross over pipe is extend into liquid-phase collection area.The utility model has following technical effect: gassiness high viscosity liquid is distributed on liquid distributor be crushed by liquid distributor by the utility model makes hydrogen be sufficiently separated out from liquid, rise under the bubbling effect of inert gas gas vent simultaneously, so that hydrogen be promoted quickly fully to be discharged upwards from liquid phase.

Description

Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid
Technical field
The utility model belongs to bio-hydrogen production technology field, and gassiness height is viscous during relating in particular to a kind of biological hydrogen production Spend the gas-liquid separation equipment of liquid.
Background technique
Biological hydrogen production is the fertile process of hydrogen that microorganism utilizes organic substrates to realize by fermentation method.In the process Middle organic substrates and more intermediate metabolites can exist simultaneously in liquid phase environment.
Usually exist and is not limited to following organic carbon source and nitrogen source ingredient.They are as follows in 20 DEG C of viscosity reference value (unit: 10-3pas):
Glucose: 4300-8600(is different according to concentration and becomes) glycerol: 1500 lactic acid: 5-60 acetic acid: 2.9
Butyric acid: 2.8 malic acid: 6.5 ethyl alcohol: 4.1 formic acid: 7.3 water: 1.0
It can be seen that the viscosity of these organic principles is all larger than the viscosity of pure water.Because what is contained in liquid phase is a variety of organic Ingredient so that intermolecular hydrogen bond increases, therefore increases intermolecular active force.And viscosity is defined as: at a distance of unit away from From two liquid layers, so that the liquid layer of unit area is maintained the required shear force of unit speed difference.Therefore, the increase of intermolecular force is led The viscosity of liquid phase is caused to obviously increase compared with pure water.
Hydrogen results from liquid phase, and needs to be precipitated from liquid phase to collect.It is analyzed from mechanics principle, to make hydrogen from liquid It is mutually precipitated, it is necessary to hydrogen gas bubbles be made to overcome the resistance of gravity and gas liquid film in floating-upward process.And the increase of liquid phase viscosity Obviously increase the resistance in hydrogen floating-upward process.The precipitation of hydrogen is therefore more difficult.
Due to being existed simultaneously in liquid phase environment during biological hydrogen production: microorganism, organic substrates, small hydrogen The Multiple components such as gas bubble, the viscosity of liquid phase are often much higher than equality of temperature with the viscosity of the water of pressure, so that generated small Hydrogen gas bubbles are difficult to both quickly and thoroughly from liquid phase separation.
Summary of the invention
The utility model provides a kind of gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, can be fast The gassiness high viscosity liquid generated during biological hydrogen production is fully carried out gas-liquid separation by speed.
The purpose of this utility model is achieved in that
A kind of gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, including container, container is by mutual The gas-liquid separation zone on the top of connection and the liquid-phase collection area of lower part are constituted, and are linked with inlet on gas-liquid separation zone top, into Liquid mouth is connected to the liquid distributor laid in gas-liquid separation zone, liquid distributor bottom is provided with fluid hole, the gas below liquid distributor One row's liquid sheet breakup pipe is at least set in liquid Disengagement zone, and two liquid sheet breakup pipes, phase is at least arranged in parallel in every row's liquid sheet breakup pipe Neighbour's row's liquid sheet breakup pipe is staggered, and connecting tube is arranged at the top of gas-liquid separation zone, and liquid-phase collection area bottom is provided with liquid outlet, Lower vessel portion is provided with inert gas cross over pipe, inert gas cross over pipe is extend into liquid-phase collection area.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, is arranged at the top of gas-liquid separation zone There is gas phase collecting region, connecting tube stretches in the top half of gas phase collecting region, is provided with hydrogen at the top of gas phase collecting region Outlet.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, extend into the lazy of liquid-phase collection area Upward gas vent is provided on property gas cross over pipe.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, the gas vent are at least two It is a, and uniform cloth is on the inert gas cross over pipe for extending into liquid-phase collection area.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, sets in the bottom in liquid-phase collection area It is equipped with liquid storage well, liquid outlet is provided with the bottom of liquid storage well.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, sets in the bottom of gas phase collecting region Be equipped with return pipe, return pipe and inert gas cross over pipe connection, and be provided on inert gas cross over pipe air pump and gas into Probe tube, in gas into being provided with valve on probe tube.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, the section of gas-liquid separation zone are upper It is narrow lower wide trapezoidal.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, the section in the liquid-phase collection area For rectangle.
The above-mentioned gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, the height in the liquid-phase collection area It is the 1/3 of separation area height.
Compared with the existing technology, the utility model has following technical effect: the utility model passes through liquid distributor for gassiness height Viscous liquid, which is distributed on liquid distributor be crushed, makes hydrogen be sufficiently separated out from liquid, while in inert gas gas vent Bubbling effect it is lower rise, so that hydrogen be promoted quickly fully to be discharged upwards from liquid phase.
Detailed description of the invention
Fig. 1 is the utility model structure diagram.
Specific embodiment
As shown in Figure 1, a kind of gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, including container, Container is made of the liquid-phase collection area 8 of the gas-liquid separation zone 11 on the top of mutual connection and lower part, is joined on gas-liquid separation zone top It is connected with inlet 1, inlet is connected to the liquid distributor 13 laid in gas-liquid separation zone, and liquid distributor bottom is provided with fluid hole 14, row's liquid sheet breakup pipe 12 is at least set in the gas-liquid separation zone below liquid distributor, and every row's liquid sheet breakup pipe is at least parallel Two liquid sheet breakup pipes are set, and adjacent row liquid sheet breakup pipe is staggered, and connecting tube 4, liquid phase are arranged at the top of gas-liquid separation zone Collecting region bottom is provided with liquid outlet 10, lower vessel portion is provided with inert gas cross over pipe 5, inert gas cross over pipe is extend into In liquid-phase collection area.
The utility model is provided with gas phase collecting region 2 at the top of gas-liquid separation zone, and connecting tube 4 stretches to gas phase collecting region In top half, hydrogen discharge 3 is provided at the top of gas phase collecting region.The bottom of gas phase collecting region is provided with reflux Pipe, return pipe and 5 connection of inert gas cross over pipe, and it is provided on inert gas cross over pipe air pump 7 and gas is kept forging ahead sample pipe 6, in gas into being provided with valve on probe tube, gas in applying argon gas and operation when gas starts into probe tube 6 as whole device Sampler body is examined;Air pump 7 is for recycling argon gas in the device, to implement to be bubbled to liquid-phase collection area.It extend into liquid phase receipts Upward gas vent 15, the gas vent at least two are provided on the inert gas cross over pipe of Ji Qu, and uniformly cloth is being stretched Enter onto the inert gas cross over pipe in liquid-phase collection area, the bottom in liquid-phase collection area is provided with liquid storage well 9, liquid outlet 10 is arranged There is the bottom of liquid storage well, 9 depth of liquid storage well is the 1/3 of rectangle part height.The size phase of the size of liquid outlet 10 and inlet 1 Together.
The utility model gas phase collecting region 2 is in rectangle, should highly be not less than the 1/2 of 11 height of gas-liquid separation zone.Volume is not Less than the cumulative volume flow of a hour of inlet tube 1.
The section of the gas-liquid separation zone of the utility model be it is up-narrow and down-wide trapezoidal, ensure isolated hydrogen in this way When flowing upwards out gas-liquid separation device can because of channel cross-section reduction and ramp up, to guarantee have at connecting tube 4 Enough flow velocitys create necessary condition for subsequent Hydrogen collection.
The section in the liquid-phase collection area is rectangle, and such structure makes the fine hydrogen bubble of remaining with liquid phase, It will not be stopped by shell wall surface in the movement for the disengaging liquid phase that floats.The vertical height of the part is 11 height of gas-liquid separation zone 1/3。
This hair inert gas selects the inert gas for being greater than hydrogen, and the utility model selects argon gas.Due to inert gas Chemical property torpescence, a possibility that reaction with hydrogen.In addition, argon molecules amount is apparently higher than hydrogen convenient for separation, it is Subsequent argon gas recirculation operation provides necessary support foundation.The inert gas that specific gravity is greater than hydrogen can be used.
The course of work of the utility model is as follows:
Inert gas (argon gas) is filled by liquid-phase collection by inert gas cross over pipe from valve by inert gas first Gassiness high viscosity liquid after being full of, is flowed into liquid distributor 13 from inlet 1, gassiness high viscosity liquid is logical by area and gas-liquid separation zone It crosses the fluid hole 14 being evenly distributed on liquid distributor to flow out, under the effect of gravity, drops to the liquid for being fixed on device inner space Film is crushed on pipe 12.The liquid film of gassiness high viscosity liquid is destroyed under the action of shock, therefore hydrogen is precipitated from liquid phase.Liquid film Level runs through broken pipe in the device, and vertically at least arranges 3 rows, to realize the multiple broken of liquid film, promotes to contain Hydrogen in gas high viscosity fluid is sufficiently precipitated.Finally, the liquid-phase collection area 8 below the device is fallen under liquid.It has been precipitated Hydrogen because specific gravity be far below argon gas, can along connecting tube 4 flow into gas phase collecting region 2, and converge at 2 upper space.Connecting tube 4 The elevation for protruding into gas phase collecting region 2 should be greater than 1/2 or more of 2 height of gas phase collecting region.The lower part of gas phase collecting region 2 is via inertia Gas cross over pipe 5 is connected with liquid-phase collection area.Inert gas cross over pipe 5 is connected with air pump 7, and is protruding into liquid-phase collection area 8 Horizontal segment, and several gas vents 15 are equidistantly opened up in the horizontal segment.In gas phase collecting region 2, since hydrogen specific gravity is much smaller than argon Gas, argon gas thus can natural subsidence and converge in the lower space of gas phase collecting region 2.Here argon gas under the action of air pump 7, It is returned to liquid-phase collection area 8, and disturbance is applied to the fluid in liquid-phase collection area 8 by uniformly distributed gas vent 15 again and is made With.From aperture flow out a large amount of argon gas bubbles under buoyancy, towards free surface at do macroscopic motion, make along journey in liquid phase Still remaining a small amount of fine hydrogen bubble in collecting region 8 is further taken out of under the sweeping along and drive of these argon gas bubbles Liquid-phase collection area 8 and be precipitated.
To sum up, the hydrogen isolated flows out the device from the hydrogen discharge 3 of the top, and the liquid isolated is by the device The lowermost liquid storage well 9, via liquid outlet 10 flow out the device, realize and fill the hydrogen in gassiness viscous fluid from liquid phase Divide isolated purpose.
Above-described is only preferred embodiments of the present invention, it is noted that for those skilled in the art For, under the premise of not departing from the utility model general idea, several changes and improvements can also be made, these also should be considered as The protection scope of the utility model, these all will not influence the effect and patent practicability of the utility model implementation.

Claims (9)

1. a kind of gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid, including container, it is characterised in that: hold Device is made of the liquid-phase collection area of the gas-liquid separation zone on the top of mutual connection and lower part, gas-liquid separation zone top be linked with into Liquid mouth, inlet are connected to the liquid distributor laid in gas-liquid separation zone, liquid distributor bottom are provided with fluid hole, under liquid distributor One row's liquid sheet breakup pipe is at least set in the gas-liquid separation zone in face, and two liquid sheet breakups are at least arranged in parallel in every row's liquid sheet breakup pipe Pipe, adjacent row liquid sheet breakup pipe are staggered, and connecting tube are arranged at the top of gas-liquid separation zone, liquid-phase collection area bottom is provided with out Liquid mouth is provided with inert gas cross over pipe in lower vessel portion, and inert gas cross over pipe is extend into liquid-phase collection area.
2. the gas-liquid separation device according to claim 1 for biological hydrogen production process gassiness high viscosity liquid, feature It is: is provided with gas phase collecting region at the top of gas-liquid separation zone, connecting tube stretches in the top half of gas phase collecting region, in gas Hydrogen discharge is provided at the top of phase collecting region.
3. the gas-liquid separation device according to claim 1 for biological hydrogen production process gassiness high viscosity liquid, feature It is: extend on the inert gas cross over pipe in liquid-phase collection area and be provided with upward gas vent.
4. the gas-liquid separation device according to claim 3 for biological hydrogen production process gassiness high viscosity liquid, feature It is: the gas vent at least two, and uniform cloth is on the inert gas cross over pipe for extending into liquid-phase collection area.
5. the gas-liquid separation device according to claim 1 for biological hydrogen production process gassiness high viscosity liquid, feature It is: the bottom in liquid-phase collection area is provided with liquid storage well, liquid outlet is provided with the bottom of liquid storage well.
6. the gas-liquid separation device according to claim 2 for biological hydrogen production process gassiness high viscosity liquid, feature It is: the bottom of gas phase collecting region is provided with return pipe, return pipe and inert gas cross over pipe connection, and joins in inert gas It is provided with air pump on siphunculus and gas is kept forging ahead sample pipe, in gas into being provided with valve on probe tube.
7. the gas-liquid separation device according to claim 1 for biological hydrogen production process gassiness high viscosity liquid, feature Be: the section of gas-liquid separation zone is up-narrow and down-wide trapezoidal.
8. the gas-liquid separation device according to claim 7 for biological hydrogen production process gassiness high viscosity liquid, feature Be: the section in the liquid-phase collection area is rectangle.
9. the gas-liquid separation device according to claim 8 for biological hydrogen production process gassiness high viscosity liquid, feature Be: the height in the liquid-phase collection area is the 1/3 of separation area height.
CN201822073590.7U 2018-12-11 2018-12-11 Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid Expired - Fee Related CN209456108U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201822073590.7U CN209456108U (en) 2018-12-11 2018-12-11 Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201822073590.7U CN209456108U (en) 2018-12-11 2018-12-11 Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid

Publications (1)

Publication Number Publication Date
CN209456108U true CN209456108U (en) 2019-10-01

Family

ID=68040254

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201822073590.7U Expired - Fee Related CN209456108U (en) 2018-12-11 2018-12-11 Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid

Country Status (1)

Country Link
CN (1) CN209456108U (en)

Similar Documents

Publication Publication Date Title
CN208786384U (en) Reaction kettle with anti-function of foaming
CN107674819B (en) Sample liquid drop particle forming device
BR112015017860B1 (en) MICROBUBBLES GENERATION METHOD
US3985622A (en) Method and apparatus for conducting fermentation
CN209456108U (en) Gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid
IE54797B1 (en) A process and a fermenter for the production of alcohol
CN109516518A (en) A kind of gas-liquid separation device for biological hydrogen production process gassiness high viscosity liquid
CN202072505U (en) Micro-nano gas floating separating device
CN203976796U (en) Biological fermentation tank with separated foamite system
CN104083891B (en) A kind of stereoscopic film spray percolation tower tray
GB1480428A (en) Method of and apparatus for removing dissolved gas from a liquid
CN201339027Y (en) Dissolved oxygen tower for fermentation
CN215939026U (en) Defoaming device for negative pressure concentrator
EP0190188A1 (en) Cell growth
CN107737466A (en) A kind of oil gas water horizontal three-phase separator is with oil and gas and water from method
CN201692697U (en) Oil-water separation curved-path device
CN207259493U (en) Form droplet particles chip structure
CN107715503A (en) A kind of liquid-gas separation device and its method
CN202105464U (en) Liquid defoaming device
CN211122404U (en) Constant-temperature desorption and gas collection device for coal bed gas
JP4249845B2 (en) Wet classification device and wet classification method
CN202277566U (en) Blood backflow-preventing medical transfusion device capable of multiple self exhausting
CN2778787Y (en) Device for filling liquid
CN208287551U (en) A kind of continuous separation equipment of static state
CN207079244U (en) A kind of bioreactor

Legal Events

Date Code Title Description
GR01 Patent grant
GR01 Patent grant
CF01 Termination of patent right due to non-payment of annual fee
CF01 Termination of patent right due to non-payment of annual fee

Granted publication date: 20191001

Termination date: 20211211