CN109248788A - Rotary adaptive coalescence optimum voltage formal character system - Google Patents
Rotary adaptive coalescence optimum voltage formal character system Download PDFInfo
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- CN109248788A CN109248788A CN201811305337.8A CN201811305337A CN109248788A CN 109248788 A CN109248788 A CN 109248788A CN 201811305337 A CN201811305337 A CN 201811305337A CN 109248788 A CN109248788 A CN 109248788A
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- coalescence
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- cabin
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- 238000004581 coalescence Methods 0.000 title claims abstract description 100
- 230000003044 adaptive effect Effects 0.000 title claims abstract description 12
- 239000002245 particle Substances 0.000 claims abstract description 53
- 239000000428 dust Substances 0.000 claims abstract description 43
- 238000005192 partition Methods 0.000 claims abstract description 28
- NJPPVKZQTLUDBO-UHFFFAOYSA-N novaluron Chemical compound C1=C(Cl)C(OC(F)(F)C(OC(F)(F)F)F)=CC=C1NC(=O)NC(=O)C1=C(F)C=CC=C1F NJPPVKZQTLUDBO-UHFFFAOYSA-N 0.000 claims description 8
- 239000004744 fabric Substances 0.000 claims 1
- 239000011859 microparticle Substances 0.000 abstract description 15
- 230000000694 effects Effects 0.000 abstract description 12
- 238000005367 electrostatic precipitation Methods 0.000 abstract description 6
- 230000005684 electric field Effects 0.000 description 18
- 239000003500 flue dust Substances 0.000 description 7
- 238000000034 method Methods 0.000 description 6
- 230000005611 electricity Effects 0.000 description 3
- 239000000446 fuel Substances 0.000 description 2
- 230000009286 beneficial effect Effects 0.000 description 1
- 235000019504 cigarettes Nutrition 0.000 description 1
- 238000002485 combustion reaction Methods 0.000 description 1
- 238000010586 diagram Methods 0.000 description 1
- 238000010410 dusting Methods 0.000 description 1
- 235000013399 edible fruits Nutrition 0.000 description 1
- 230000005685 electric field effect Effects 0.000 description 1
- 239000008187 granular material Substances 0.000 description 1
- 238000012544 monitoring process Methods 0.000 description 1
- 239000013618 particulate matter Substances 0.000 description 1
Classifications
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B03—SEPARATION OF SOLID MATERIALS USING LIQUIDS OR USING PNEUMATIC TABLES OR JIGS; MAGNETIC OR ELECTROSTATIC SEPARATION OF SOLID MATERIALS FROM SOLID MATERIALS OR FLUIDS; SEPARATION BY HIGH-VOLTAGE ELECTRIC FIELDS
- B03C—MAGNETIC OR ELECTROSTATIC SEPARATION OF SOLID MATERIALS FROM SOLID MATERIALS OR FLUIDS; SEPARATION BY HIGH-VOLTAGE ELECTRIC FIELDS
- B03C3/00—Separating dispersed particles from gases or vapour, e.g. air, by electrostatic effect
- B03C3/34—Constructional details or accessories or operation thereof
- B03C3/66—Applications of electricity supply techniques
- B03C3/68—Control systems therefor
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- Engineering & Computer Science (AREA)
- Automation & Control Theory (AREA)
- Electrostatic Separation (AREA)
Abstract
Rotary adaptive coalescence optimum voltage formal character system, belongs to electrostatic precipitation field.It is mainly solving the technical problems that in order to which determination reaches applied voltage form required for the optimal coalescence effect of microparticle.It is by preceding dedusting dust collecting pole plate, preceding flue lower wall, flue entrance, preceding flue upper wall, preceding dedusting discharge plate, flue collector particle diameter distribution sensor, preceding upper dust board, preceding upper oblique cover plate, first partition, first coalescence face pole plate, shell on rotatable cabin, upper cover plate, upper fixed link, first coalescence post pole plate, upper flat plate, upper oblique cover plate afterwards, upper dust board afterwards, first cohesion cabin particle diameter distribution sensor, rear pass upper wall, dedusting discharge plate afterwards, flue outlet, dedusting dust collecting pole plate afterwards, rear pass lower wall, first sensor strut, rotating shaft support bar afterwards, second sensor strut, relative coding angular transducer composition.It is mainly used for electrostatic precipitation field.
Description
Technical field
The invention belongs to electrostatic precipitation field, rotary adaptive coalescence optimum voltage formal character system is referred in particular to.
Background technique
In the improvement of atmosphere pollution, the improvement of microparticle is a big problem.Since the partial size of microparticle is very small, such as
Well-known PM2.5.Microparticle is all difficult to obtain satisfied effect using filter bag method and the method for electrostatic precipitation.?
Electrostatic methods handle microparticle object when, by coalescence, by microparticle coalescence at bulky grain, then by electrostatic precipitation processes be compared with
Good method.Usual coalescence type has: the coulomb coalescence of heteropolarity electrically charged particle, same polarity electrically charged particle are in alternating electric field
Coalescence, coalescence etc. of the heteropolarity electrically charged particle in alternating electric field, these coalescence modes need additional different electric field, direct current
, AC field.Additional different voltage is just needed in order to generate different internal electric fields.DC electric field needs DC voltage, hands over
Galvanic electricity field needs alternating voltage.Since there are many type of fuel, which kind of electric field is suitble to the coalescence of particulate matter after which kind of fuel combustion
It is uncertain.In order to reaching the optimal coalescence effect of microparticle, optimal electric field form is needed, thus is needed optimal additional
Voltage form.For this purpose, the invention proposes rotary adaptive coalescence optimum voltage formal character systems.
Summary of the invention
In order to which determination reaches applied voltage form required for the optimal coalescence effect of microparticle, the invention proposes rotations
Rotatable adaptive coalescence optimum voltage formal character system.
The technical solution adopted by the present invention to solve the technical problems is: apparatus of the present invention are by preceding dedusting dust collecting pole plate, preceding
Flue lower wall, flue entrance, preceding flue upper wall, preceding dedusting discharge plate, flue collector particle diameter distribution sensor, preceding upper dust board,
Preceding upper oblique cover plate, first partition, the first coalescence face pole plate, shell, upper cover plate, upper fixed link, the first coalescence post pole on rotatable cabin
Plate, upper flat plate, afterwards upper oblique cover plate, upper dust board, the first cohesion cabin particle diameter distribution sensor, rear pass upper wall, rear dedusting are put afterwards
Electrode plate, flue outlet, rear dedusting dust collecting pole plate, rear pass lower wall, first sensor strut, rear rotating shaft support bar, second pass
Sensor strut, descends dust board afterwards, descends oblique cover plate, rotatable cabin lower casing, lower fixation afterwards the second cohesion cabin particle diameter distribution sensor
Bar, pedestal, lower plate, lower cover plate, the second coalescence face pole plate, front lower oblique cover plate, front lower dust board, second partition, the second coalescence
Post pole plate, shaft, front rotary shaft support rod, single-chip microcontroller, stepper motor, third partition, 3rd sensor strut, third cohesion cabin grain
Diameter distribution sensor, third coalescence face pole plate, micro machine case, third coalescence post pole plate, rotatable cabin side shell, relative coding angle
Sensor composition, it is characterized in that: the same flue lower wall of preceding dedusting dust collecting pole plate is connected, preceding dedusting dust collecting pole plate is in preceding flue lower wall
Top, preceding the same dedusting discharge plate of flue upper wall is connected, and the same flue upper wall of flue collector particle diameter distribution sensor is connected, main
Flue particle diameter distribution sensor is connected in the lower section of preceding flue upper wall, preceding upper the same flue upper wall of dust board, and preceding upper oblique cover plate is same
Preceding flue upper wall is connected, and preceding upper oblique cover plate is connected with upper cover plate, and upper oblique cover plate is connected with upper cover plate afterwards, and upper oblique cover plate is the same as rear cigarette afterwards
Road upper wall is connected, and upper dust board is connected with rear pass upper wall afterwards, and shell is same as above fixed link and is connected on rotatable cabin, the first coalescence face pole
Plate is same as above fixed link and is connected, and upper flat plate is same as above fixed link and is connected, and the first coalescence face pole plate is connected with upper flat plate, rear dedusting discharge electrode
Plate is connected with rear pass upper wall, and the first cohesion cabin particle diameter distribution sensor is connected with first sensor strut, and shaft is passed with first
Sensor strut is connected, and the first coalescence post pole plate is connected with shaft, and the second coalescence post pole plate is connected with shaft, second sensor strut
It is connected with shaft, the second cohesion cabin particle diameter distribution sensor is connected with second sensor strut, and micro machine case passes through relative coding
Angular transducer is connected with shaft, and the same rotating shaft support bar of relative coding angular transducer is connected, the rear same shaft of rotating shaft support bar
It is connected, first partition is connected with shaft, and second partition is connected with shaft, and rear rotating shaft support bar is connected with pedestal, front rotary shaft support
Bar is connected with pedestal, and rear dedusting dust collecting pole plate is connected with rear pass lower wall, and lower oblique cover plate is connected with rear pass lower wall afterwards, rear lower block
Dirt plate is connected with rear pass lower wall, and lower oblique cover plate is connected with lower cover plate afterwards, and second partition is connected with rotatable cabin lower casing, lower fixation
Bar is connected with rotatable cabin lower casing, and lower fixed link is connected with the second coalescence face pole plate, and first partition is connected with shell on rotatable cabin,
Lower fixed link is connected with lower plate, and lower plate is connected with the second coalescence face pole plate, and front lower oblique cover plate is connected with lower cover plate, preceding oblique
The same flue lower wall of cover board is connected, and front lower the same flue lower wall of dust board is connected, the same single-chip microcontroller of flue collector particle diameter distribution sensor
It is connected, the first cohesion cabin particle diameter distribution sensor is connected with single-chip microcontroller, and the second cohesion cabin particle diameter distribution sensor is the same as single-chip microcontroller phase
Even, third agglomerates cabin particle diameter distribution sensor and is connected with single-chip microcontroller, and stepper motor is connected with single-chip microcontroller, relative coding angle sensor
Device is connected with single-chip microcontroller；The length of first sensor strut is equal to the length of second sensor strut；First sensor strut
Length is equal to the length of 3rd sensor strut；The length of first partition is equal to the length of third partition；The length of first partition
Equal to the length of second partition.
This system is divided into three cabins, respectively the first coalescence cabin, the second coalescence cabin, third coalescence cabin.In first coalescence cabin
There are the first coalescence face pole plate and the first coalescence post pole plate, the first coalescence face pole plate and the first coalescence post pole plate are connect into high pressure respectively and handed over
The two poles of the earth in galvanic electricity source are high-voltage alternating electric field in this way between two pole plates in the first coalescence cabin；Have in second coalescence cabin
Second coalescence face pole plate and the second coalescence post pole plate are connect high voltage direct current by two coalescence face pole plates and the second coalescence post pole plate respectively
The anode and cathode in source are high voltage direct current negative electric field in this way between two pole plates in the second coalescence cabin；In third coalescence cabin
There are third coalescence face pole plate and third coalescence post pole plate, third coalescence face pole plate and third coalescence post pole plate are connect into high straightening respectively
The cathode and anode in galvanic electricity source are high voltage direct current positive electric field in this way between two pole plates in third coalescence cabin.
Since laminar flow of the microparticle object in flue is complicated, microparticle is distributed not in the different points in flue cross section
Together, coalescence effect is also different.In order to accurately compare high voltage direct current positive electric field, high voltage direct current negative electric field, high-voltage alternating electric field, three
The coalescence effect of which kind of electric field of person is more preferable, devises circular flue being divided into trisection, in such a way that circular flue rotates,
So that each coalescence cabin is may be at position different in flue, thus eliminate in flue position difference to coalescence effect bring
It influences.
Flue dust enters circular flue, the electric field pair of preceding dedusting discharge plate and preceding dedusting dust collecting pole plate composition by flue entrance
The coarse granule of flue dust is dusted processing.Flue collector particle diameter distribution sensor monitoring treated flue dust microparticle distribution situation is simultaneously
It is sent to single-chip microcontroller.Treated, and the flue dust containing microparticle respectively enters three coalescence cabins.Respectively in three coalescence cabins
Internal electric field effect it is lower carry out coalescence, the particle situation after coalescence is coagulated by the first cohesion cabin particle diameter distribution sensor, second respectively
Poly- cabin particle diameter distribution sensor, third cohesion cabin particle diameter distribution sensor record and are sent to single-chip microcontroller.Single-chip microcontroller records data
Afterwards, issue instruction rotate stepper motor, the angle turned over is monitored by relative coding angular transducer and is sent to single-chip microcontroller, when turn
Axis turns over 120 degree of angles, and single-chip microcontroller issues instruction step motor stalls, turned over a freight space at this time.
Treated, and the flue dust containing microparticle respectively enters three coalescence cabins.Internal electric field in three coalescence cabins respectively
Effect is lower to carry out coalescence, and the particle situation after coalescence is respectively by the first cohesion cabin particle diameter distribution sensor, the second cohesion cabin partial size
Distribution sensor, third cohesion cabin particle diameter distribution sensor record and are sent to single-chip microcontroller.After single-chip microcontroller records data, sending refers to
Order rotates stepper motor, and the angle turned over is monitored by relative coding angular transducer and be sent to single-chip microcontroller, when shaft turns over 120
Angle is spent, single-chip microcontroller issues instruction step motor stalls, turned over a freight space at this time.
Treated, and the flue dust containing microparticle respectively enters three coalescence cabins.Internal electric field in three coalescence cabins respectively
Effect is lower to carry out coalescence, and the particle situation after coalescence is respectively by the first cohesion cabin particle diameter distribution sensor, the second cohesion cabin partial size
Distribution sensor, third cohesion cabin particle diameter distribution sensor record and are sent to single-chip microcontroller.Single-chip microcontroller is by three where cabin
Angle, the particle data in each cabin recorded respectively are averaged, are then compared, and determine the big cabin of particle size
For best coalescence cabin, institute's making alive is optimum voltage form.It then can achieve best coalescence effect by optimum voltage form making alive
Fruit.Flue dust after coalescence is again introduced into electric field and does final dusting processing, to reach good dust removing effects.
The beneficial effects of the invention are as follows can determine applied voltage required for reaching the optimal coalescence effect of microparticle
Form.It is mainly used for electrostatic precipitation field.
Detailed description of the invention
Present invention will be further explained below with reference to the attached drawings and examples.
Fig. 1 is the side sectional structural map of rotary adaptive coalescence optimum voltage formal character system.
Fig. 2 is coalescence cabin cross section right view.
Fig. 3 is circuit diagram of the invention.
Dedusting dust collecting pole plate before 1. in figure, flue lower wall before 2., 3. flue entrances, flue upper wall before 4., dedusting is put before 5.
Electrode plate, 6. flue collector particle diameter distribution sensors, upper dust board before 7., upper oblique cover plate before 8., 9. first partitions, 10. first is solidifying
And face pole plate, shell on 11. rotatable cabins, 12. upper cover plates, fixed link on 13., 14. first coalescence post pole plates, 15. upper flat plates,
16. upper oblique cover plate after, upper dust board after 17., 18. first cohesion cabin particle diameter distribution sensors, 19. rear pass upper walls remove after 20.
Dirt discharge plate, 21. flue outlets, dedusting dust collecting pole plate after 22., 23. rear pass lower walls, 24. first sensor struts, 25.
Rotating shaft support bar afterwards, 26. second sensor struts, 27. second cohesion cabin particle diameter distribution sensors, lower dust board after 28., 29.
Oblique cover plate is descended afterwards, and 30. rotatable cabin lower casings, 31. lower fixed links, 32. pedestals, 33. lower plates, 34. lower cover plates, 35. second is solidifying
And face pole plate, 36. front lower oblique cover plates, 37. front lower dust boards, 38. second partitions, 39. second coalescence post pole plates, 40. shafts,
41. front rotary shaft support rod, 42. single-chip microcontrollers, 43. stepper motors, 44. third partitions, 45. 3rd sensor struts, 46. thirds are solidifying
Poly- cabin particle diameter distribution sensor, 47. third coalescence face pole plates, 48. micro machine casees, 49. third coalescence post pole plates, 50. rotatable cabins
Side shell, 51. relative coding angular transducers.
Specific embodiment
In Fig. 1, the same flue lower wall 2 of preceding dedusting dust collecting pole plate 1 is connected, and preceding dedusting dust collecting pole plate 1 is in preceding flue lower wall 2
Top, the same dedusting discharge plate 5 of preceding flue upper wall 4 be connected, the same 4 phase of flue upper wall of flue collector particle diameter distribution sensor 6
Even, in the lower section of preceding flue upper wall 4, the same flue upper wall 4 of preceding upper dust board 7 is connected flue collector particle diameter distribution sensor 6, it is preceding on
The same flue upper wall 4 of oblique cover plate 8 is connected, and preceding upper oblique cover plate 8 is connected with upper cover plate 12, and upper oblique cover plate 16 is the same as 12 phase of upper cover plate afterwards
Even, upper oblique cover plate 16 is connected with rear pass upper wall 19 afterwards, and upper dust board 17 is connected with rear pass upper wall 19 afterwards, shell on rotatable cabin
11, which are same as above fixed link 13, is connected, and the first coalescence face pole plate 10 is same as above fixed link 13 and is connected, and ibid fixed link 13 is connected for upper flat plate 15,
First coalescence face pole plate 10 is connected with upper flat plate 15, and rear dedusting discharge plate 20 is connected with rear pass upper wall 19, the first cohesion cabin
Particle diameter distribution sensor 18 is connected with first sensor strut 24, and shaft 40 is connected with first sensor strut 24, the first coalescence
Positive plate 14 is connected with shaft 40, and the second coalescence positive plate 39 is connected with shaft 40, and second sensor strut 26 is the same as 40 phase of shaft
Even, the second cohesion cabin particle diameter distribution sensor 27 is connected with second sensor strut 26, and micro machine case 48 passes through relative coding angle
It spends sensor 51 to be connected with shaft 40, the same rotating shaft support bar 41 of relative coding angular transducer 51 is connected, rear rotating shaft support bar
25 are connected with shaft 40, and first partition 9 is connected with shaft 40, and second partition 38 is connected with shaft 40, and rear rotating shaft support bar 25 is same
Pedestal 32 is connected, and front rotary shaft support rod 41 is connected with pedestal 32, and rear dedusting dust collecting pole plate 22 is connected with rear pass lower wall 23, under rear
Oblique cover plate 29 is connected with rear pass lower wall 23, and lower dust board 28 is connected with rear pass lower wall 23 afterwards, afterwards the lower same lower cover of oblique cover plate 29
Plate 34 is connected, and second partition 38 is connected with rotatable cabin lower casing 30, and lower fixed link 31 is connected with rotatable cabin lower casing 30, lower fixation
Bar 31 is connected with the second coalescence face pole plate 35, and first partition 9 is connected with shell 11 on rotatable cabin, and lower fixed link 31 is the same as lower plate 33
It is connected, lower plate 33 is connected with the second coalescence face pole plate 35, and front lower oblique cover plate 36 is connected with lower cover plate 34, and front lower oblique cover plate 36 is same
Preceding flue lower wall 2 is connected, and the same flue lower wall 2 of front lower dust board 37 is connected.
In Fig. 2, third agglomerates cabin particle diameter distribution sensor 46 and is connected with 3rd sensor strut 45, the first cohesion cabin grain
Diameter distribution sensor 18 is connected with first sensor strut 24, and the second cohesion cabin particle diameter distribution sensor 27 is the same as second sensor branch
Bar 26 is connected, and shell 11 and rotatable cabin lower casing 30 and rotatable cabin side shell 50 surround a circle on rotatable cabin.
In Fig. 3, flue collector particle diameter distribution sensor 6 is connected with single-chip microcontroller 42, the first cohesion cabin particle diameter distribution sensor
18 are connected with single-chip microcontroller 42, and the second cohesion cabin particle diameter distribution sensor 27 is connected with single-chip microcontroller 42, and third agglomerates cabin particle diameter distribution
Sensor 46 is connected with single-chip microcontroller 42, and stepper motor 43 is connected with single-chip microcontroller 42, the same single-chip microcontroller of relative coding angular transducer 51
42 are connected.
Claims (5)
1. rotary adaptive coalescence optimum voltage formal character system, is entered by preceding dedusting dust collecting pole plate, preceding flue lower wall, flue
Mouth, preceding flue upper wall, preceding dedusting discharge plate, flue collector particle diameter distribution sensor, preceding upper dust board, preceding upper oblique cover plate, first
It is partition, the first coalescence face pole plate, shell on rotatable cabin, upper cover plate, upper fixed link, the first coalescence post pole plate, upper flat plate, rear oblique
Cover board, afterwards upper dust board, the first cohesion cabin particle diameter distribution sensor, rear pass upper wall, rear dedusting discharge plate, flue outlet,
Dedusting dust collecting pole plate, rear pass lower wall, first sensor strut, rear rotating shaft support bar, second sensor strut, the second cohesion afterwards
Cabin particle diameter distribution sensor descends dust board afterwards, descends oblique cover plate, rotatable cabin lower casing, lower fixed link, pedestal, lower plate, lower cover afterwards
Plate, the second coalescence face pole plate, front lower oblique cover plate, front lower dust board, second partition, the second coalescence post pole plate, shaft, front rotary shaft branch
Strut, single-chip microcontroller, stepper motor, third partition, 3rd sensor strut, third cohesion cabin particle diameter distribution sensor, third are solidifying
And face pole plate, micro machine case, third coalescence post pole plate, rotatable cabin side shell, relative coding angular transducer composition, feature
Be: preceding the same flue lower wall of dedusting dust collecting pole plate is connected, and preceding dedusting dust collecting pole plate is in the top of preceding flue lower wall, preceding flue upper wall
The same dedusting discharge plate is connected, and the same flue upper wall of flue collector particle diameter distribution sensor is connected, flue collector particle diameter distribution sensing
Device is connected in the lower section of preceding flue upper wall, preceding upper the same flue upper wall of dust board, and preceding upper the same flue upper wall of oblique cover plate is connected, preceding
Upper oblique cover plate is connected with upper cover plate, and upper oblique cover plate is connected with upper cover plate afterwards, and upper oblique cover plate is connected with rear pass upper wall afterwards, rear upper gear
Dirt plate is connected with rear pass upper wall, and shell is same as above fixed link and is connected on rotatable cabin, and the first coalescence face pole plate is same as above fixed link and is connected,
Upper flat plate is same as above fixed link and is connected, and the first coalescence face pole plate is connected with upper flat plate, and rear dedusting discharge plate is the same as rear pass upper wall phase
Even, the first cohesion cabin particle diameter distribution sensor is connected with first sensor strut, and shaft is connected with first sensor strut, and first
Coalescence post pole plate is connected with shaft, and the second coalescence post pole plate is connected with shaft, and second sensor strut is connected with shaft, and second is solidifying
Poly- cabin particle diameter distribution sensor is connected with second sensor strut, and micro machine case is by relative coding angular transducer with shaft phase
Even, the same rotating shaft support bar of relative coding angular transducer is connected, and rear rotating shaft support bar is connected with shaft, the same shaft of first partition
It is connected, second partition is connected with shaft, and rear rotating shaft support bar is connected with pedestal, and front rotary shaft support rod is connected with pedestal, rear dedusting
Dust collecting pole plate is connected with rear pass lower wall, and lower oblique cover plate is connected with rear pass lower wall afterwards, and lower dust board is the same as rear pass lower wall phase afterwards
Even, lower oblique cover plate is connected with lower cover plate afterwards, and second partition is connected with rotatable cabin lower casing, and lower fixed link is the same as rotatable cabin lower casing phase
Even, lower fixed link is connected with the second coalescence face pole plate, and first partition is connected with shell on rotatable cabin, and lower fixed link is the same as lower plate phase
Even, lower plate is connected with the second coalescence face pole plate, and front lower oblique cover plate is connected with lower cover plate, front lower the same flue lower wall phase of oblique cover plate
Even, front lower the same flue lower wall of dust board is connected, and flue collector particle diameter distribution sensor is connected with single-chip microcontroller, the first cohesion cabin partial size
Distribution sensor is connected with single-chip microcontroller, and the second cohesion cabin particle diameter distribution sensor is connected with single-chip microcontroller, and third agglomerates cabin partial size point
Cloth sensor is connected with single-chip microcontroller, and stepper motor is connected with single-chip microcontroller, and relative coding angular transducer is connected with single-chip microcontroller.
2. rotary adaptive coalescence optimum voltage formal character system according to claim 1, it is characterized in that: first passes
The length of sensor strut is equal to the length of second sensor strut.
3. rotary adaptive coalescence optimum voltage formal character system according to claim 1, it is characterized in that: first passes
The length of sensor strut is equal to the length of 3rd sensor strut.
4. rotary adaptive coalescence optimum voltage formal character system according to claim 1, it is characterized in that: first every
The length of plate is equal to the length of third partition.
5. rotary adaptive coalescence optimum voltage formal character system according to claim 1, it is characterized in that: first every
The length of plate is equal to the length of second partition.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201811305337.8A CN109248788A (en) | 2018-11-05 | 2018-11-05 | Rotary adaptive coalescence optimum voltage formal character system |
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| Application Number | Priority Date | Filing Date | Title |
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| CN201811305337.8A CN109248788A (en) | 2018-11-05 | 2018-11-05 | Rotary adaptive coalescence optimum voltage formal character system |
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| CN201811305337.8A Pending CN109248788A (en) | 2018-11-05 | 2018-11-05 | Rotary adaptive coalescence optimum voltage formal character system |
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Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101869872A (en) * | 2010-05-17 | 2010-10-27 | 华北电力大学 | Bipolar charge reinforced fine particle aggregation device |
| CN207025595U (en) * | 2017-09-19 | 2018-02-23 | 东北师范大学 | Rotary negative pressure electrostatic vortex micronic dust passive electrode |
| CN107744882A (en) * | 2017-11-13 | 2018-03-02 | 东北师范大学 | Side wall based on Internet of Things can turn to split fan-shaped pole plate |
| CN108014921A (en) * | 2017-12-04 | 2018-05-11 | 东北师范大学 | Multisensor crop straw burning electrostatic mixture collection device |
| CN209124151U (en) * | 2018-11-05 | 2019-07-19 | 东北师范大学 | Rotary adaptive coalescence optimum voltage formal character system |
-
2018
- 2018-11-05 CN CN201811305337.8A patent/CN109248788A/en active Pending
Patent Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101869872A (en) * | 2010-05-17 | 2010-10-27 | 华北电力大学 | Bipolar charge reinforced fine particle aggregation device |
| CN207025595U (en) * | 2017-09-19 | 2018-02-23 | 东北师范大学 | Rotary negative pressure electrostatic vortex micronic dust passive electrode |
| CN107744882A (en) * | 2017-11-13 | 2018-03-02 | 东北师范大学 | Side wall based on Internet of Things can turn to split fan-shaped pole plate |
| CN108014921A (en) * | 2017-12-04 | 2018-05-11 | 东北师范大学 | Multisensor crop straw burning electrostatic mixture collection device |
| CN209124151U (en) * | 2018-11-05 | 2019-07-19 | 东北师范大学 | Rotary adaptive coalescence optimum voltage formal character system |
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