CN203602383U - High-frequency water treatment circuit with low-frequency enveloped carrier waves - Google Patents
High-frequency water treatment circuit with low-frequency enveloped carrier waves Download PDFInfo
- Publication number
- CN203602383U CN203602383U CN201320746790.9U CN201320746790U CN203602383U CN 203602383 U CN203602383 U CN 203602383U CN 201320746790 U CN201320746790 U CN 201320746790U CN 203602383 U CN203602383 U CN 203602383U
- Authority
- CN
- China
- Prior art keywords
- capacitor
- resistance
- pin
- circuit
- frequency
- 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 - Lifetime
Links
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 title claims abstract description 88
- 230000005672 electromagnetic field Effects 0.000 claims abstract description 48
- 238000001914 filtration Methods 0.000 claims abstract description 27
- 239000003990 capacitor Substances 0.000 claims description 261
- 238000001514 detection method Methods 0.000 claims description 43
- 230000033228 biological regulation Effects 0.000 claims description 30
- 238000006243 chemical reaction Methods 0.000 claims description 24
- 230000001681 protective effect Effects 0.000 claims description 24
- 150000001875 compounds Chemical class 0.000 claims description 18
- 230000000903 blocking effect Effects 0.000 claims description 15
- 230000000694 effects Effects 0.000 claims description 12
- 238000005070 sampling Methods 0.000 claims description 10
- FGRBYDKOBBBPOI-UHFFFAOYSA-N 10,10-dioxo-2-[4-(N-phenylanilino)phenyl]thioxanthen-9-one Chemical compound O=C1c2ccccc2S(=O)(=O)c2ccc(cc12)-c1ccc(cc1)N(c1ccccc1)c1ccccc1 FGRBYDKOBBBPOI-UHFFFAOYSA-N 0.000 claims description 3
- TVEXGJYMHHTVKP-UHFFFAOYSA-N 6-oxabicyclo[3.2.1]oct-3-en-7-one Chemical compound C1C2C(=O)OC1C=CC2 TVEXGJYMHHTVKP-UHFFFAOYSA-N 0.000 claims description 3
- 102100028043 Fibroblast growth factor 3 Human genes 0.000 claims description 3
- 108050002021 Integrator complex subunit 2 Proteins 0.000 claims description 3
- 230000000087 stabilizing effect Effects 0.000 claims description 3
- 230000005764 inhibitory process Effects 0.000 abstract description 3
- 239000002131 composite material Substances 0.000 abstract 1
- 241000894006 Bacteria Species 0.000 description 28
- 238000000034 method Methods 0.000 description 15
- 230000012010 growth Effects 0.000 description 13
- 230000001954 sterilising effect Effects 0.000 description 12
- 238000004659 sterilization and disinfection Methods 0.000 description 12
- 230000008569 process Effects 0.000 description 9
- VTYYLEPIZMXCLO-UHFFFAOYSA-L Calcium carbonate Chemical compound [Ca+2].[O-]C([O-])=O VTYYLEPIZMXCLO-UHFFFAOYSA-L 0.000 description 8
- 239000011575 calcium Substances 0.000 description 6
- 238000005516 engineering process Methods 0.000 description 5
- 230000006698 induction Effects 0.000 description 5
- 239000011777 magnesium Substances 0.000 description 5
- 244000005700 microbiome Species 0.000 description 5
- 241000195493 Cryptophyta Species 0.000 description 4
- 230000008859 change Effects 0.000 description 4
- 230000004060 metabolic process Effects 0.000 description 4
- 229910021645 metal ion Inorganic materials 0.000 description 4
- BHPQYMZQTOCNFJ-UHFFFAOYSA-N Calcium cation Chemical compound [Ca+2] BHPQYMZQTOCNFJ-UHFFFAOYSA-N 0.000 description 3
- 229910001424 calcium ion Inorganic materials 0.000 description 3
- 238000001816 cooling Methods 0.000 description 3
- 239000000498 cooling water Substances 0.000 description 3
- BERDEBHAJNAUOM-UHFFFAOYSA-N copper(I) oxide Inorganic materials [Cu]O[Cu] BERDEBHAJNAUOM-UHFFFAOYSA-N 0.000 description 3
- 230000007423 decrease Effects 0.000 description 3
- 230000005684 electric field Effects 0.000 description 3
- SZVJSHCCFOBDDC-UHFFFAOYSA-N ferrosoferric oxide Chemical group O=[Fe]O[Fe]O[Fe]=O SZVJSHCCFOBDDC-UHFFFAOYSA-N 0.000 description 3
- 239000001257 hydrogen Substances 0.000 description 3
- 229910052739 hydrogen Inorganic materials 0.000 description 3
- 150000002500 ions Chemical class 0.000 description 3
- 239000000463 material Substances 0.000 description 3
- 239000003206 sterilizing agent Substances 0.000 description 3
- 229910021532 Calcite Inorganic materials 0.000 description 2
- OYPRJOBELJOOCE-UHFFFAOYSA-N Calcium Chemical compound [Ca] OYPRJOBELJOOCE-UHFFFAOYSA-N 0.000 description 2
- 241000589248 Legionella Species 0.000 description 2
- 208000007764 Legionnaires' Disease Diseases 0.000 description 2
- 230000001580 bacterial effect Effects 0.000 description 2
- 229910052791 calcium Inorganic materials 0.000 description 2
- 229910000019 calcium carbonate Inorganic materials 0.000 description 2
- 230000001413 cellular effect Effects 0.000 description 2
- 239000013043 chemical agent Substances 0.000 description 2
- 230000007797 corrosion Effects 0.000 description 2
- 238000005260 corrosion Methods 0.000 description 2
- 238000002425 crystallisation Methods 0.000 description 2
- 238000010586 diagram Methods 0.000 description 2
- 102000004169 proteins and genes Human genes 0.000 description 2
- 108090000623 proteins and genes Proteins 0.000 description 2
- 239000000126 substance Substances 0.000 description 2
- PXFBZOLANLWPMH-UHFFFAOYSA-N 16-Epiaffinine Natural products C1C(C2=CC=CC=C2N2)=C2C(=O)CC2C(=CC)CN(C)C1C2CO PXFBZOLANLWPMH-UHFFFAOYSA-N 0.000 description 1
- ZAMOUSCENKQFHK-UHFFFAOYSA-N Chlorine atom Chemical compound [Cl] ZAMOUSCENKQFHK-UHFFFAOYSA-N 0.000 description 1
- RYGMFSIKBFXOCR-UHFFFAOYSA-N Copper Chemical compound [Cu] RYGMFSIKBFXOCR-UHFFFAOYSA-N 0.000 description 1
- FYYHWMGAXLPEAU-UHFFFAOYSA-N Magnesium Chemical compound [Mg] FYYHWMGAXLPEAU-UHFFFAOYSA-N 0.000 description 1
- JLVVSXFLKOJNIY-UHFFFAOYSA-N Magnesium ion Chemical compound [Mg+2] JLVVSXFLKOJNIY-UHFFFAOYSA-N 0.000 description 1
- IOVCWXUNBOPUCH-UHFFFAOYSA-M Nitrite anion Chemical compound [O-]N=O IOVCWXUNBOPUCH-UHFFFAOYSA-M 0.000 description 1
- CBENFWSGALASAD-UHFFFAOYSA-N Ozone Chemical compound [O-][O+]=O CBENFWSGALASAD-UHFFFAOYSA-N 0.000 description 1
- 240000004808 Saccharomyces cerevisiae Species 0.000 description 1
- 238000003723 Smelting Methods 0.000 description 1
- 229910000831 Steel Inorganic materials 0.000 description 1
- 238000004458 analytical method Methods 0.000 description 1
- 230000005540 biological transmission Effects 0.000 description 1
- 230000015556 catabolic process Effects 0.000 description 1
- 210000004027 cell Anatomy 0.000 description 1
- 210000002421 cell wall Anatomy 0.000 description 1
- 239000000460 chlorine Substances 0.000 description 1
- 229910052801 chlorine Inorganic materials 0.000 description 1
- 230000001276 controlling effect Effects 0.000 description 1
- 239000002826 coolant Substances 0.000 description 1
- 229910052802 copper Inorganic materials 0.000 description 1
- 239000010949 copper Substances 0.000 description 1
- LBJNMUFDOHXDFG-UHFFFAOYSA-N copper;hydrate Chemical compound O.[Cu].[Cu] LBJNMUFDOHXDFG-UHFFFAOYSA-N 0.000 description 1
- 239000013078 crystal Substances 0.000 description 1
- 230000008025 crystallization Effects 0.000 description 1
- KRFJLUBVMFXRPN-UHFFFAOYSA-N cuprous oxide Chemical compound [O-2].[Cu+].[Cu+] KRFJLUBVMFXRPN-UHFFFAOYSA-N 0.000 description 1
- 230000034994 death Effects 0.000 description 1
- 238000000354 decomposition reaction Methods 0.000 description 1
- 230000005611 electricity Effects 0.000 description 1
- 210000003495 flagella Anatomy 0.000 description 1
- 125000004435 hydrogen atom Chemical group [H]* 0.000 description 1
- 238000009434 installation Methods 0.000 description 1
- 230000033001 locomotion Effects 0.000 description 1
- 229910052749 magnesium Inorganic materials 0.000 description 1
- 229910001425 magnesium ion Inorganic materials 0.000 description 1
- 238000012423 maintenance Methods 0.000 description 1
- 230000000813 microbial effect Effects 0.000 description 1
- 239000000203 mixture Substances 0.000 description 1
- 230000035764 nutrition Effects 0.000 description 1
- 235000016709 nutrition Nutrition 0.000 description 1
- 230000003647 oxidation Effects 0.000 description 1
- 238000007254 oxidation reaction Methods 0.000 description 1
- 150000003016 phosphoric acids Chemical class 0.000 description 1
- 230000000704 physical effect Effects 0.000 description 1
- 238000000053 physical method Methods 0.000 description 1
- 230000005855 radiation Effects 0.000 description 1
- 150000003839 salts Chemical class 0.000 description 1
- 239000002455 scale inhibitor Substances 0.000 description 1
- 239000007787 solid Substances 0.000 description 1
- 238000001179 sorption measurement Methods 0.000 description 1
- 239000010959 steel Substances 0.000 description 1
- 230000009885 systemic effect Effects 0.000 description 1
- 230000014616 translation Effects 0.000 description 1
- 238000003911 water pollution Methods 0.000 description 1
Images
Landscapes
- Inverter Devices (AREA)
Abstract
The utility model relates to the technical field of energy-saving and environment-friendly water treatment, in particular relates to a high-frequency water treatment circuit with low-frequency enveloped carrier waves. The high-frequency water treatment circuit comprises a power supply circuit, a high-frequency and low-frequency signal generating circuit, a subaudio-frequency generating circuit and an inductance coil, wherein the power supply circuit is used for rectifying and filtering mains supply by virtue of a low-frequency rectifier filter to obtain a direct-current voltage, the direct-current voltage supplies a working power supply to the high-frequency and low-frequency signal generating circuit and the subaudio-frequency generating circuit, the high-frequency and low-frequency signal generating circuit generates a path of low-frequency half-wave signals and a path of high-frequency half-wave signals respectively, the subaudio-frequency generating circuit generates a path of low-frequency alternating current and a path of high-frequency alternating current respectively, the path of low-frequency alternating current is output to a first terminal of the inductance coil, and the path of high-frequency alternating current is output to a second terminal of the inductance coil and emitted to a water body by virtue of the inductance coil to form a high-frequency alternating electromagnetic field of the low-frequency enveloped carrier waves. The high-frequency water treatment circuit disclosed by the utility model outputs a high-power composite subaudio-frequency alternating electromagnetic field by virtue of a relatively low frequency, so that the scale inhibition and scale removal efficiency is high.
Description
Technical field
The utility model relates to energy-conserving and environment-protective water-treatment technology field, particularly relates to a kind of High-frequency water treatment circuit of low frequency envelope carrier wave.
Background technology
In daily water consumption, contain a large amount of carbanion (CO
3 2-) and calcium (Ca
2+), magnesium (Mg
2+) ion, in the time that water temperature raises, calcium, magnesium ion are combined with carbanion, generate the calcium carbonate (CaCO that is insoluble in water
3) etc., and separate out with solid form, this is incrustation scale, be attached to system heat exchanger surface, compact structure crystallization, the existence of this layer of material has seriously reduced the thermal conductivity of heat-transfer surface, the equipment heat exchange efficiency of causing sharply declines, cannot reach service requirements, cause industrial heat exchange systemic breakdown, have a strong impact on whole system continuously, safety, steady running.Existing water treatment method mainly contains chemical treatment method and physical treatment method, general chemical treatment method, in water, add the chemical agent of enough functions, prevent fouling interpolation Scale inhibitors etc., its main drawback is that phosphoric acid salt and the nitrite in chemical agent is the abundant nutrition source of algea and bacteria, easily produces water pollution.
General physical method commonly adopts the water technology in electric field or magnetic field, utilize additional alternation higher frequency electromagnetic field, change the structural form of crystal, reach antiscale and scale removal object, meanwhile, adopt alternation higher frequency electromagnetic field, can also break up microorganism wall and cytolemma, make it can not in water, survive, breed, reach the object of sterilization, sterilizing.But the water treatment electrical equipment of this technology needs high frequency electric source power supply, this high-frequency power supply circuit is generally made up of direct supply, high-frequency inverter circuit and telefault, described direct supply obtains low-voltage DC by civil power through the rectification of low frequency rectifier filer and filtering, obtain high-frequency alternating current through high-frequency inverter circuit high-frequency inversion again, then gained high-frequency alternating current is promoted and is transmitted in water body and forms high-frequency alternating electromagnetic field through telefault energy, water issues the variation of raw physicals and structure in the effect of high-frequency alternating electromagnetic field.The required required electric current of single telefault of the water yield of for example supposing normal processing Qm3 is IA, the fixed voltage of required high-frequency power supply circuit is UV, in the case of keep the fixed voltage of high-frequency power supply circuit be U constant, need to process the water yield of 10Qm3 time, need the electric current of 10IA to process, conventionally need to adopt 10 telefaults to obtain same water treatment effect by prior art, this needs 10 groups of high-frequency power supply circuits to drive respectively 10 telefaults, this can cause cost to rise, the volume of product is also larger, be difficult for installation and maintenance, certainly, also can also adopt 1 group of high-frequency power supply circuit to drive 10 telefaults, but this mode, according to the voltage equation U=(R+j ω X of higher frequency electromagnetic field resistance circuit) * I, calculate impedance Z=R+j ω X=U/I, j ω X is induction reactance, due to ω=2 π f, because the fixed voltage of high-frequency power supply circuit is that U is constant, 10 telefaults adopt series connection, water treatment frequency f is constant, impedance has become Z '=10Z, according to I=U/Z ', calculating actual electric current is 0.1IA, even if increase the voltage U of high-frequency power supply circuit, do not reach required IA electric current yet, therefore do not reach the water treatment effect needing.Therefore prior art is subject to the impact of ω=2 π f, connect in a high-frequency power supply circuit time at 10 telefaults, be difficult to realize the in the situation that of high frequency f, obtaining large electric current I, this high-frequency alternating electromagnetic field cannot realize the water treatment object of big yield being carried out to same texts.
Utility model content
Solve the problems of the technologies described above, the utility model provides a kind of High-frequency water treatment circuit of low frequency envelope carrier wave, can realize and adopt one group of high-frequency power supply circuit to carry out large driven current density to multiple telefaults, realize and the in the situation that of high frequency f, obtain large electric current, and big yield is carried out to the water treatment object of same texts, and this circuit structure is simple, with low cost, scale removal efficiency is high, can realize multiple telefaults connects into a high-frequency power supply circuit, the in the situation that of high frequency f, still can keep lower induction reactance j ω X, and then guarantee passing through smoothly of large electric current.
In order to achieve the above object, the technical scheme that the utility model adopts is, a kind of High-frequency water treatment circuit of low frequency envelope carrier wave, comprise: power source circuit, low-and high-frequency signal generating circuit, subaudio frequency circuit for generating and telefault, described power source circuit obtains direct supply by civil power through the rectification of low frequency rectifier filer and filtering, this direct supply provides working power for low-and high-frequency signal generating circuit and subaudio frequency circuit for generating, described low-and high-frequency signal generating circuit generates respectively low frequency half-wave voltage signal He Yi road, a road high-frequency half-wave signal, this low frequency half-wave voltage signal and high-frequency half-wave signal generate low-frequency alternating electric current He Yi road, a road high-frequency alternating electric current by subaudio frequency circuit for generating respectively, one road low-frequency alternating electric current exports telefault the first terminals to, one road high-frequency alternating electric current exports telefault the second terminals to, be transmitted in water body and form the high-frequency alternating electromagnetic field of low frequency envelope carrier wave by telefault, also be compound subaudio frequency alternating electromagnetic field.
Further, described telefault is one or more telefaults, and after the plurality of telefault adopts series system to connect, one end is connected to low-frequency alternating electric current, and the other end is connected to high-frequency alternating electric current.
Further, described power source circuit comprises filter protective circuit, bridge rectifier circuit, bleeder circuit, switch power supply circuit for generating, switch transformer, reaction circuit, filter regulator circuit and voltage-stabilized power supply circuit, civil power is through filter protective circuit, after the rectifying and wave-filtering of bridge rectifier circuit, input to bleeder circuit dividing potential drop and export a road bleeder circuit to switch power supply circuit for generating, the size of current of this switch power supply circuit for generating trip switch transformer output, switch transformer is exported road direct supply output+36V direct supply after filter regulator circuit filtering voltage regulation, be somebody's turn to do+36V direct supply is exported one tunnel+5V direct supply after connecting voltage-stabilized power supply circuit, switch transformer is exported another road direct supply and is connected to reaction circuit, this reaction circuit is for detection of output voltage, and this output voltage is fed back to switch power supply circuit for generating, and then trip switch transformer stable output+36V direct supply.
Further, described filter protective circuit is by anti-lightning strike resistance R v, filter capacitor CX1 and choke coil L1 are in parallel to be formed, this filter protective circuit input terminus is connected in parallel on civil power two ends, two input terminuss of the rectifier bridge BR of this filter protective circuit output termination bridge rectifier circuit, rectifier bridge BR output positive and negative charge parallel voltage-stabilizing capacitor C 1 positive and negative electrode, after electric capacity of voltage regulation C1 voltage stabilizing, export bleeder circuit to, bleeder circuit is by resistance R 2, resistance R 12 and resistance R 4 are in series, switch power supply circuit for generating is by switching power source chip U1, capacitor C 2, resistance R 3, Zener diode VR1, blocking diode D1, resistance R 1, capacitor C 4, capacitor C 3 and resistance R 5 form, divider resistance R4 output Yi road divides the X pin that is crimped to switching power source chip U1 to provide electric current for this pin, capacitor C 2 is in parallel with Zener diode VR1 after connecting with resistance R 3, after connecting with blocking diode D1 again, be connected in parallel on the elementary input of switch transformer T1, and the anode of this blocking diode D1 is also connected with the D pin of switching power source chip U1, in the time that switch signal turns 0 by 1, form the anti-D pin that is added in switching power source chip U1 of high pressure and carry out pressure release, effect is the D pin of protection switch power supply chip U1, the S pin of switching power source chip U1 is connected with rectifier bridge BR cathode output end, this end is also connected with the F pin of switching power source chip U1 simultaneously, resistance R 1 one end is connected with rectifier bridge BR cathode output end, resistance R 1 the other end is connected with the L pin of switching power source chip U1, resistance R 1 is for detection of the voltage of supply after rectification, resistance R 5 one end are connected with the C pin of switching power source chip U1, this end is also connected with capacitor C 4 one end, resistance R 5 the other ends are connected with the positive pole of capacitor C 3, this end is connected to rectifier bridge BR cathode output end after being also connected with capacitor C 4 the other ends again,
Filter regulator circuit comprises capacitor C 11, resistance R 11, diode D3, capacitor C 7, capacitor C 6, capacitor C 8, capacitor C 12, diode D6 and capacitor C 5, first secondary coil one end of switch transformer T1 and the anodic bonding of diode D3, this end is also connected with one end of capacitor C 11, the other end of capacitor C 11 is connected with resistance R 11 one end, resistance R 11 the other ends are connected with the negative electrode of diode D3, this end is also connected with capacitor C 7 is anodal, capacitor C 7 negative poles are connected with the first secondary coil the other end of switch transformer T1, and this end is ground terminal, capacitor C 6, the positive and negative electrode of capacitor C 8 and capacitor C 12 is connected in parallel on respectively between the positive and negative electrode of capacitor C 7 successively, capacitor C 12 just very+36V DC power output end, the anode of diode D6 is connected with second subprime coil one end of switch transformer T1, the negative electrode of diode D6 is connected with the positive pole of capacitor C 5, the negative pole of capacitor C 5 is connected with the second subprime coil the other end of switch transformer T1, diode D6 and capacitor C 5 are for voltage regulation filtering,
Described voltage-stabilized power supply circuit is made up of voltage stabilized source chip Q1, capacitor C 19, capacitor C 13, be somebody's turn to do+36V direct supply is connected with the Vin end of voltage stabilized source chip Q1, this end is connected with one end of capacitor C 19, the other end ground connection of capacitor C 19, the Vout end of voltage stabilized source chip Q1 is +5V DC power output end, this end is connected with the positive pole of capacitor C 13 simultaneously, the minus earth of capacitor C 13
Described reaction circuit is by feeding back chip U2 and resistance R 6, resistance R 7, resistance R 8, resistance R 9, resistance R 10, resistance R 13, diode D4, capacitor C 9, capacitor C 10 and diac U3 form, feedback chip U2 collection+36V direct supply, resistance R 9, resistance R 13 and resistance R 10 sample circuit in series be right+sampling of 36V direct supply, and provide a voltage for the trigger electrode of diac U3, feedback detection chip U2 model is PC817A, 3 pin of feedback detection chip U2 are connected with the negative electrode of diode D6, 4 pin of feedback detection chip U2 are connected with the C pin of switching power source chip U1, resistance R 7 one terminations+36V direct supply, this end is also connected with 1 pin of feedback detection chip U2, the negative electrode of resistance R 7 another terminating diode D4, the anode of diode D4 is connected with resistance R 6 one end, this end is also connected with 2 pin of feedback detection chip U2, resistance R 6 the other ends are connected with the negative electrode of diac U3, this end is also connected to the trigger electrode of diac U3 after series capacity C9 and resistance R 8, the negative electrode of diode D4 is also connected with the positive pole of capacitor C 10, the minus earth of capacitor C 10, one end of resistance R 10 is connected with the trigger electrode of diac U3, the other end ground connection of resistance R 10.
Further, described low-and high-frequency signal generating circuit comprises 12F series microprocessor U5, the vdd pin of this microprocessor U5 is connected with power source circuit+5V DC power output end, the GP2 pin of this microprocessor U5 is Enable Pin EN, the pin of this microprocessor U5 is connected with Vdd pin after connecing a resistance R 20, GP4 and the GP5 pin of this microprocessor U5 are unsettled, the GP1 pin of this microprocessor U5 is exported a road low frequency half-wave voltage signal OUT1, the GP0 pin of this microprocessor U5 is exported a road high-frequency half-wave signal OUT2, the VSS pin ground connection of this microprocessor U5.
Further, described subaudio frequency circuit for generating comprises STI6201 series full-bridge power amplifier chips U4, capacitor C 14, capacitor C 15, capacitor C 16, capacitor C 17, capacitor C 18, resistance R 14, resistance R 15, resistance R 16, resistance R 17, resistance R 18, resistance R 19, diode D5 and diode D2, ground connection after the VREF pin series capacity C18 of this full-bridge power amplifier chips U4, after the INT2 pin series resistance R15 of full-bridge power amplifier chips U4, be connected with the GP1 pin of microprocessor U5, after the IN1 pin series resistance R14 of full-bridge power amplifier chips U4, be connected with the GP0 pin of microprocessor U5, the SENSE pin ground connection of full-bridge power amplifier chips U4, after the ENABLE pin series resistance R18 of full-bridge power amplifier chips U4, be connected to the GP2 pin Enable Pin EN of microprocessor U5, the NC pin of full-bridge power amplifier chips U4 is unsettled, the equal ground connection of GND pin of full-bridge power amplifier chips U4, after the OUT2 pin series capacity C15 of full-bridge power amplifier chips U4, be connected to the BOOT2 pin of full-bridge power amplifier chips U4, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with the negative electrode of diode D5, the plus earth of diode D5, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with resistance R 16 one end, resistance R 16 the other ends are high-frequency alternating current output terminal OUTPUT2, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with resistance R 19 one end, after resistance R 19 the other end series capacity C14, be connected with resistance R 17 one end, this end is also connected with the OUT1 pin of full-bridge power amplifier chips U4, the other end of resistance R 17 is low-frequency alternating current output terminal OUTPUT1, the OUT1 pin of full-bridge power amplifier chips U4 is connected with the negative electrode of diode D2, the plus earth of diode D2, after the OUT1 pin series capacity C16 of full-bridge power amplifier chips U4, be connected with the BOOT1 pin of full-bridge power amplifier chips U4, the negative electrode of diode D2 is connected with the BOOT1 pin of full-bridge power amplifier chips U4, the plus earth of diode D2, be connected to+36V of the VS pin DC power output end of full-bridge power amplifier chips U4, this end is ground connection after series capacity C17 also, this low-frequency alternating current output terminal OUTPUT1 connects one end of telefault, this high-frequency alternating current output terminal OUTPUT2 connects the other end of telefault.
Further, described power source circuit comprises filter protective circuit, bridge rectifier circuit, bleeder circuit, switch power supply circuit for generating, switch transformer, reaction circuit, filter regulator circuit and voltage-stabilized power supply circuit, civil power is through filter protective circuit, after the rectifying and wave-filtering of bridge rectifier circuit, input to bleeder circuit dividing potential drop and export a road bleeder circuit to switch power supply circuit for generating, the size of current of this switch power supply circuit for generating trip switch transformer output, switch transformer is exported road direct supply output+36V direct supply after filter regulator circuit filtering voltage regulation, be somebody's turn to do+36V direct supply is exported one tunnel+5V direct supply He Yi road+15V direct supply after inputing to voltage-stabilized power supply circuit, switch transformer is exported another road direct supply and is connected to reaction circuit, this reaction circuit is for detection of output voltage, and this output voltage is fed back to switch power supply circuit for generating, and then trip switch transformer stable output+36V direct supply.
Further, described filter protective circuit is by anti-lightning strike resistance R v1, filter capacitor CX1, choke coil L1 and electric capacity of voltage regulation C10 form, this anti-lightning strike resistance R v1 is connected in parallel on civil power two ends, this filter capacitor CX1 is in parallel with anti-lightning strike resistance R v1, choke coil L1 two input terminuss are in parallel with filter capacitor CX1, choke coil L1 two exports two input terminuss of the rectifier bridge BR1 of termination bridge rectifier circuit, rectifier bridge BR1 cathode output end connects the positive pole of electric capacity of voltage regulation C10, rectifier bridge BR1 cathode output end connects the negative pole of electric capacity of voltage regulation C10, bleeder circuit is by resistance R 3, resistance R 5 and resistance R 13 form, resistance R 3, after resistance R 5 and resistance R 13 are connected successively, another free termination electric capacity of voltage regulation C10 positive pole of this resistance R 3, another free termination electric capacity of voltage regulation C10 negative pole of resistance R 13, switch power supply circuit for generating comprises switching power source chip U3, capacitor C 4, resistance R 4, pressure sensitive diode VR1, diode D3, resistance R 6, capacitor C 17, capacitor C 18 and resistance R 10, divider resistance R13 output Yi road divides the X pin that is crimped to switching power source chip U3 to provide electric current for this pin, capacitor C 4 is in parallel with Zener diode VR1 after connecting with resistance R 4, after connecting with blocking diode D3 again, be connected in parallel on the elementary input of switch transformer T1, and the anode of this blocking diode D3 is also connected with the D pin of switching power source chip U1, in the time that switch signal turns 0 by 1, form the anti-D pin that is added in switching power source chip U1 of high pressure and carry out pressure release, effect is the D pin of protection switch power supply chip U1, the S pin of switching power source chip U1 is connected with rectifier bridge BR1 cathode output end, this end is also connected with the F pin of switching power source chip U1 simultaneously, resistance R 6 one end are connected with rectifier bridge BR cathode output end, resistance R 6 the other ends are connected with the L pin of switching power source chip U1, resistance R 6 is for detection of the voltage of supply after rectification, resistance R 10 one end are connected with the C pin of switching power source chip U1, this end is also connected with capacitor C 17 one end, resistance R 10 the other ends are connected with the positive pole of capacitor C 18, this end is connected to rectifier bridge BR1 cathode output end after being also connected with capacitor C 17 the other ends again,
Filter regulator circuit comprises capacitor C 2, resistance R 1, diode D1, capacitor C 6, capacitor C 7, capacitor C 8, capacitor C 9, diode D2 and capacitor C 11, first secondary coil one end of switch transformer T1 and the anodic bonding of diode D1, this end is also connected with one end of capacitor C 2, the other end of capacitor C 2 is connected with resistance R 1 one end, resistance R 1 the other end is connected with the negative electrode of diode D1, this end is also connected with capacitor C 6 is anodal, capacitor C 6 negative poles are connected with the first secondary coil the other end of switch transformer T1, and this end is ground terminal, capacitor C 7, the positive and negative electrode of capacitor C 8 and capacitor C 9 is connected in parallel on respectively between the positive and negative electrode of capacitor C 6 successively, capacitor C 9 just very+36V DC power output end, the anode of diode D2 is connected with second subprime coil one end of switch transformer T1, the negative electrode of diode D2 is connected with the positive pole of capacitor C 11, the negative pole of capacitor C 11 is connected with the second subprime coil the other end of switch transformer T1, diode D2 and capacitor C 11 are for voltage regulation filtering,
Described voltage-stabilized power supply circuit comprises voltage stabilized source chip Q1, voltage stabilized source chip Q2, capacitor C 1, capacitor C 3 and capacitor C 5, should+36V direct supply respectively with voltage stabilized source chip Q1, the Vin end of voltage stabilized source chip Q2 connects, this end is also connected with one end of capacitor C 3, the other end ground connection of capacitor C 3, the Vout end of voltage stabilized source chip Q1 is +5V DC power output end, this end is connected with one end of capacitor C 5 simultaneously, the GND of the other end of capacitor C 5 and voltage stabilized source chip Q1 holds together ground connection, the Vout end of voltage stabilized source chip Q2 is +15V DC power output end, this end is connected with one end of capacitor C 1 simultaneously, the GND of the other end of capacitor C 1 and voltage stabilized source chip Q2 holds together ground connection,
Described reaction circuit comprises feedback chip U2 and resistance R 7, resistance R 8, resistance R 9 diode D6, resistance R 11, resistance R 12, resistance R 14, diac U4, capacitor C 16 and capacitor C 19, feedback chip U2 collection+36V direct supply, resistance R 7, resistance R 8 and resistance R 14 sample circuit in series be right+sampling of 36V direct supply, and provide a voltage for the trigger electrode of diac U4, feedback detection chip U2 model is PC817A, 3 pin of feedback detection chip U2 are connected with the negative electrode of diode D2, 4 pin of feedback detection chip U2 are connected with the C pin of switching power source chip U1, resistance R 9 one terminations+36V direct supply, this end is also connected with 1 pin of feedback detection chip U2, the negative electrode of resistance R 9 another terminating diode D6, the anode of diode D6 is connected with resistance R 11 one end, this end is also connected with 2 pin of feedback detection chip U2, resistance R 11 the other ends are connected with the negative electrode of diac U4, this end is also connected to the trigger electrode of diac U4 after series capacity C16 and resistance R 12, the negative electrode of diode D6 is also connected with the positive pole of capacitor C 19, the minus earth of capacitor C 19, one end of resistance R 14 is connected with the trigger electrode of diac U4, the other end ground connection of resistance R 14,
Further, described low-and high-frequency signal generating circuit comprises 12F series microprocessor U1, and the vdd pin of this microprocessor U1 is connected with power source circuit+5V DC power output end, and the GP2 pin of this microprocessor U1 is Enable Pin EN, this microprocessor U5's
after pin series resistor R2, be connected with Vdd pin, this end is connected with+5V DC power output end, GP4 and the GP5 pin of this microprocessor U1 are unsettled, the GP1 pin of this microprocessor U1 is exported a road low frequency half-wave voltage signal OUT1, the GP0 pin of this microprocessor U1 is exported a road high-frequency half-wave signal OUT2, the VSS pin ground connection of this microprocessor U1.
Further, described subaudio frequency circuit for generating comprises the first half-bridge driven chip U5 and the second half-bridge driven chip U6 of IR2 series, the 3rd power tube Q3, the 4th power tube Q4, the 5th power tube Q5, the 6th power tube Q6, capacitor C 12, capacitor C 13, capacitor C 14 and capacitor C 15, the VCC port of the first half-bridge driven chip U5 and power source circuit+15V DC power supply terminal is connected, the first port of half-bridge driven chip U5 and the GP2 port of microprocessor U1 are connected, the first IN port of half-bridge driven chip U5 and the GP1 port of microprocessor U1 are connected, the HO port of the first half-bridge driven chip U5 is connected with the G utmost point of the 4th power tube Q4, the LO port of the first half-bridge driven chip U5 is connected with the G utmost point of the 6th power tube Q6, after the VS port series capacity C12 of the first half-bridge driven chip U5, be connected to the VB port of the first half-bridge driven chip U5, this port is also connected with the negative electrode of diode D4, the anode of diode D4 is connected with the VCC port of the first half-bridge driven chip U5, be connected to+15V direct supply after the COM port series capacity C14 of the first half-bridge driven chip U5, ground connection after the COM port of the first half-bridge driven chip U5 is also connected with the S utmost point of the 6th power tube Q6, the VCC port of the second half-bridge driven chip U6 and power source circuit+15V direct supply downlink connection, the second port of half-bridge driven chip U6 and the GP2 port of microprocessor U1 are connected, the second IN port of half-bridge driven chip U6 and the GP0 port of microprocessor U1 are connected, the HO port of the second half-bridge driven chip U6 is connected with the G utmost point of the 3rd power tube Q3, the LO port of the second half-bridge driven chip U6 is connected with the G utmost point of the 5th power tube Q5, after the VS port series capacity C13 of the second half-bridge driven chip U1, be connected to the VB port of the second half-bridge driven chip U6, this end is also connected with the negative electrode of diode D5, the anode of diode D5 is connected with the VCC port of the second half-bridge driven chip U6, be connected to+15V direct supply after the COM port series capacity C15 of the second half-bridge driven chip U6, ground connection after the COM port of the second half-bridge driven chip U6 is also connected with the S utmost point of the 5th power tube Q5, the S of the 4th power tube Q4 is low-frequency alternating current output terminal OUTPUT1 very, the S utmost point of the 3rd power tube Q3 connects as being high-frequency alternating current output terminal OUTPUT2, this low-frequency alternating current output terminal OUTPUT1 connects one end of telefault, this high-frequency alternating current output terminal OUTPUT2 connects the other end of telefault.
A High-frequency water treatment process for low frequency envelope carrier wave, is applicable to foregoing circuit, comprises the following steps:
Step 1, power source circuit obtain direct supply by civil power through the rectification of low frequency rectifier filer and filtering, and this direct supply provides working power for low-and high-frequency signal generating circuit and subaudio frequency circuit for generating,
Step 3, low frequency half-wave voltage signal He Yi road, a road high-frequency half-wave signal generate low-frequency alternating electric current He Yi road, a road high-frequency alternating electric current by subaudio frequency circuit for generating respectively,
Step 4, this road low-frequency alternating electric current are connected to telefault the first terminals, this road high-frequency alternating electric current is connected to telefault the second terminals, being transmitted in water body and being formed the high-frequency alternating electromagnetic field of low frequency envelope carrier wave by telefault, is also compound subaudio frequency alternating electromagnetic field.
The utility model is by adopting technique scheme, and compared with prior art, tool has the following advantages:
The High-frequency water treatment circuit of a kind of low frequency envelope of the utility model carrier wave, produce respectively low frequency signal He Yi road, a road high-frequency signal, again this low frequency signal and high-frequency signal are exported respectively to the two ends of telefault, thereby direct supply is changed into the high-frequency alternating electric current of a road low frequency envelope carrier wave, this exchange current is compound subaudio frequency electric current, be transmitted in water body and form compound subaudio frequency alternating electromagnetic field by telefault, can realize and adopt one group of high-frequency power supply circuit to drive the telefault of multiple series connection, and make each telefault in the situation that of high frequency f, obtain large electric current, and then big yield is carried out to the water treatment object of same texts, and simple in structure, with low cost, scale removal efficiency is high.By low frequency signal and high-frequency signal being exported respectively to the two ends of telefault, export the high-frequency alternating electric current of a road low frequency envelope carrier wave in telefault side, this exchange current is compound subaudio frequency electric current, telefault by this compound subaudio frequency current emission in water body and form compound subaudio frequency alternating electromagnetic field, can drive telefault in the situation that of high frequency f, can keep lower induction reactance j ω X, and then guarantee passing through smoothly of large electric current.
Accompanying drawing explanation
Fig. 1 is the schematic circuit diagram of embodiment 1 of the present utility model;
Fig. 2 is the schematic circuit diagram of implementation column 2 of the present utility model;
Fig. 3 is the output waveform figure of implementation column 1 and 2 of the present utility model.
Embodiment
Now with embodiment, the utility model is further illustrated by reference to the accompanying drawings.
Embodiment 1:
As a specific embodiment, as shown in Figure 1, the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave of the present utility model, comprise: power source circuit 1, low-and high-frequency signal generating circuit 2, subaudio frequency circuit for generating 3 and telefault (not shown), described power source circuit 1 obtains direct supply by civil power through the rectification of low frequency rectifier filer and filtering, this direct supply provides working power for low-and high-frequency signal generating circuit 2 and subaudio frequency circuit for generating 3, described low-and high-frequency signal generating circuit 2 generates respectively low frequency half-wave voltage signal He Yi road, a road high-frequency half-wave signal, this low frequency half-wave voltage signal and high-frequency half-wave signal generate low-frequency alternating electric current He Yi road, a road high-frequency alternating electric current by subaudio frequency circuit for generating 3 respectively, one road low-frequency alternating electric current exports telefault the first terminals to, one road high-frequency alternating electric current exports telefault the second terminals to, be transmitted in water body and form the high-frequency alternating electromagnetic field of low frequency envelope carrier wave by telefault, also be compound subaudio frequency alternating electromagnetic field.
In the present embodiment, described power source circuit comprises filter protective circuit, bridge rectifier circuit, bleeder circuit, switch power supply circuit for generating, switch transformer, reaction circuit, filter regulator circuit and voltage-stabilized power supply circuit, civil power is through filter protective circuit, after the rectifying and wave-filtering of bridge rectifier circuit, input to bleeder circuit dividing potential drop and export a road bleeder circuit to switch power supply circuit for generating, the size of current of this switch power supply circuit for generating trip switch transformer output, switch transformer is exported road direct supply output+36V direct supply after filter regulator circuit filtering voltage regulation, be somebody's turn to do+36V direct supply is exported one tunnel+5V direct supply after connecting voltage-stabilized power supply circuit, switch transformer is exported another road direct supply and is connected to reaction circuit, this reaction circuit is for detection of output voltage, and this output voltage is fed back to switch power supply circuit for generating, and then trip switch transformer stable output+36V direct supply.
In the present embodiment, described telefault number is 10, and after these 10 telefaults adopt series system to connect, one end is connected to low-frequency alternating electric current, and the other end is connected to high-frequency alternating electric current.In fact, this telefault can also be >=1 any number.
Particularly, described filter protective circuit is by anti-lightning strike resistance R v, filter capacitor CX1 and choke coil L1 are in parallel to be formed, this filter protective circuit input terminus is connected in parallel on civil power two ends, two input terminuss of the rectifier bridge BR of this filter protective circuit output termination bridge rectifier circuit, rectifier bridge BR output positive and negative charge parallel voltage-stabilizing capacitor C 1 positive and negative electrode, after electric capacity of voltage regulation C1 voltage stabilizing, export bleeder circuit to, bleeder circuit is by resistance R 2, resistance R 12 and resistance R 4 are in series, switch power supply circuit for generating is by switching power source chip U1, capacitor C 2, resistance R 3, Zener diode VR1, blocking diode D1, resistance R 1, capacitor C 4, capacitor C 3 and resistance R 5 form, the concrete model of this switching power source chip U1 is NCP13337, divider resistance R4 output Yi road divides the X pin that is crimped to switching power source chip U1 to provide electric current for this pin, capacitor C 2 is in parallel with Zener diode VR1 after connecting with resistance R 3, after connecting with blocking diode D1 again, be connected in parallel on the elementary input of switch transformer T1, and the anode of this blocking diode D1 is also connected with the D pin of switching power source chip U1, in the time that switch signal turns 0 by 1, form the anti-D pin that is added in switching power source chip U1 of high pressure and carry out pressure release, effect is the D pin of protection switch power supply chip U1, the S pin of switching power source chip U1 is connected with rectifier bridge BR cathode output end, this end is also connected with the F pin of switching power source chip U1 simultaneously, resistance R 1 one end is connected with rectifier bridge BR cathode output end, resistance R 1 the other end is connected with the L pin of switching power source chip U1, resistance R 1 is for detection of the voltage of supply after rectification, when the voltage of supply after rectification is lower than 100V or when exceeding 450V, switching power source chip U1 quits work.Resistance R 1 is for detection of the voltage of supply after rectification, resistance R 5 one end are connected with the C pin of switching power source chip U1, this end is also connected with capacitor C 4 one end, and resistance R 5 the other ends are connected with the positive pole of capacitor C 3, and this end is connected to rectifier bridge BR cathode output end after being also connected with capacitor C 4 the other ends again;
Filter regulator circuit comprises capacitor C 11, resistance R 11, diode D3, capacitor C 7, capacitor C 6, capacitor C 8, capacitor C 12, diode D6 and capacitor C 5, first secondary coil one end of switch transformer T1 and the anodic bonding of diode D3, this end is also connected with one end of capacitor C 11, the other end of capacitor C 11 is connected with resistance R 11 one end, resistance R 11 the other ends are connected with the negative electrode of diode D3, this end is also connected with capacitor C 7 is anodal, capacitor C 7 negative poles are connected with the first secondary coil the other end of switch transformer T1, and this end is ground terminal, capacitor C 6, the positive and negative electrode of capacitor C 8 and capacitor C 12 is connected in parallel on respectively between the positive and negative electrode of capacitor C 7 successively, capacitor C 12 just very+36V DC power output end, the anode of diode D6 is connected with second subprime coil one end of switch transformer T1, the negative electrode of diode D6 is connected with the positive pole of capacitor C 5, the negative pole of capacitor C 5 is connected with the second subprime coil the other end of switch transformer T1, diode D6 and capacitor C 5 are for voltage regulation filtering,
Described voltage-stabilized power supply circuit is made up of voltage stabilized source chip Q1, capacitor C 19, capacitor C 13, be somebody's turn to do+36V direct supply is connected with the Vin end of voltage stabilized source chip Q1, this end is connected with one end of capacitor C 19, the other end ground connection of capacitor C 19, the Vout end of voltage stabilized source chip Q1 is +5V DC power output end, this end is connected with the positive pole of capacitor C 13 simultaneously, the minus earth of capacitor C 13
Described reaction circuit is by feeding back chip U2 and resistance R 6, resistance R 7, resistance R 8, resistance R 9, resistance R 10, resistance R 13, diode D4, capacitor C 9, capacitor C 10 and diac U3 form, feedback chip U2 collection+36V direct supply, resistance R 9, resistance R 13 and resistance R 10 sample circuit in series be right+sampling of 36V direct supply, and provide a voltage for the trigger electrode of diac U3, feedback detection chip U2 model is PC817A, 3 pin of feedback detection chip U2 are connected with the negative electrode of diode D6, 4 pin of feedback detection chip U2 are connected with the C pin of switching power source chip U1, resistance R 7 one terminations+36V direct supply, this end is also connected with 1 pin of feedback detection chip U2, the negative electrode of resistance R 7 another terminating diode D4, the anode of diode D4 is connected with resistance R 6 one end, this end is also connected with 2 pin of feedback detection chip U2, resistance R 6 the other ends are connected with the negative electrode of diac U3, this end is also connected to the trigger electrode of diac U3 after series capacity C9 and resistance R 8, the negative electrode of diode D4 is also connected with the positive pole of capacitor C 10, the minus earth of capacitor C 10, one end of resistance R 10 is connected with the trigger electrode of diac U3, the other end ground connection of resistance R 10.When output exceed+36V of direct supply time, diac U3 will conducting, the feedback voltage that feeds back chip U2 also just raises, impel the output of switching power source chip U1 to decline, make the output direct supply of switch transformer T decline, and then remain on+36V, otherwise, when the direct supply of output is during lower than+36V, the trigger voltage of diac U3 reduces, and the output of switching power source chip U1 improves, and the output direct supply of switch transformer T is raise, so repeatedly, make the be stabilized in+36V of direct supply of output.
In the present embodiment, described low-and high-frequency signal generating circuit comprises 12F series microprocessor U5, the vdd pin of this microprocessor U5 is connected with power source circuit+5V DC power output end, the GP2 pin of this microprocessor U5 is Enable Pin EN, the pin of this microprocessor U5 is connected with Vdd pin after connecing a resistance R 20, GP4 and the GP5 pin of this microprocessor U5 are unsettled, the GP1 pin of this microprocessor U5 is exported a road low frequency half-wave voltage signal OUT1, the GP0 pin of this microprocessor U5 is exported a road high-frequency half-wave signal OUT2, the VSS pin ground connection of this microprocessor U5.
Described subaudio frequency circuit for generating comprises STI6201 series full-bridge power amplifier chips U4, capacitor C 14, capacitor C 15, capacitor C 16, capacitor C 17, capacitor C 18, resistance R 14, resistance R 15, resistance R 16, resistance R 17, resistance R 18, resistance R 19, diode D5 and diode D2, ground connection after the VREF pin series capacity C18 of this full-bridge power amplifier chips U4, after the INT2 pin series resistance R15 of full-bridge power amplifier chips U4, be connected with the GP1 pin of microprocessor U5, after the IN1 pin series resistance R14 of full-bridge power amplifier chips U4, be connected with the GP0 pin of microprocessor U5, the SENSE pin ground connection of full-bridge power amplifier chips U4, after the ENABLE pin series resistance R18 of full-bridge power amplifier chips U4, be connected to the GP2 pin Enable Pin EN of microprocessor U5, the NC pin of full-bridge power amplifier chips U4 is unsettled, the equal ground connection of GND pin of full-bridge power amplifier chips U4, after the OUT2 pin series capacity C15 of full-bridge power amplifier chips U4, be connected to the BOOT2 pin of full-bridge power amplifier chips U4, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with the negative electrode of diode D5, the plus earth of diode D5, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with resistance R 16 one end, resistance R 16 the other ends are high-frequency alternating current output terminal OUTPUT2, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with resistance R 19 one end, after resistance R 19 the other end series capacity C14, be connected with resistance R 17 one end, this end is also connected with the OUT1 pin of full-bridge power amplifier chips U4, the other end of resistance R 17 is low-frequency alternating current output terminal OUTPUT1, the OUT1 pin of full-bridge power amplifier chips U4 is connected with the negative electrode of diode D2, the plus earth of diode D2, after the OUT1 pin series capacity C16 of full-bridge power amplifier chips U4, be connected with the BOOT1 pin of full-bridge power amplifier chips U4, the negative electrode of diode D2 is connected with the BOOT1 pin of full-bridge power amplifier chips U4, the plus earth of diode D2, be connected to+36V of the VS pin DC power output end of full-bridge power amplifier chips U4, this end is ground connection after series capacity C17 also, this low-frequency alternating current output terminal OUTPUT1 connects one end of telefault, this high-frequency alternating current output terminal OUTPUT2 connects the other end of telefault.
The principle Analysis of the present embodiment:
Power source circuit 1 obtains direct supply by civil power through the rectification of low frequency rectifier filer and filtering, this direct supply is for low-and high-frequency signal generating circuit 2 and provide+36V of subaudio frequency circuit for generating 3 direct supply are as working power, the GP1 pin of microprocessor U5 in low-and high-frequency signal generating circuit 2 is exported a road low frequency half-wave voltage signal OUT1, the GP0 pin of this microprocessor U5 is exported a road high-frequency half-wave signal OUT2, and the GP2 pin of this microprocessor U5 is exported a road enable signal EN to subaudio frequency circuit for generating 3, low-frequency alternating current output terminal OUTPUT1 in subaudio frequency circuit for generating 3 connects one end of telefault, this high-frequency alternating current output terminal OUTPUT2 connects the other end of telefault, 10 telefaults of the present embodiment adopt cascaded structure, after series connection, two free ends of telefault are connected to respectively low-frequency alternating current output terminal OUTPUT1 and high-frequency alternating current output terminal OUTPUT2, now, in telefault load because one end is low-frequency alternating electric current, the other end is high-frequency alternating electric current, therefore, in telefault load output is the high-frequency alternating electromagnetic field of low frequency envelope carrier wave, we are referred to as envelope ripple, example as shown in Figure 3, the impedance of this envelope ripple is Z=R+j ω X=U/I, j ω X is induction reactance, wherein the f in ω=2 π f adopts the frequency f of low-frequency alternating electric current, as shown in Figure 3, the frequency f of low-frequency alternating electric current is 100HZ, its sampling period is 10ms, and the frequency f of high-frequency alternating electric current ' be 10KHZ, its sampling period is 10us, therefore due to Z=R+j ω X, in the π f of ω=2, having adopted the frequency f of low-frequency alternating electric current is 100HZ, the impedance of exporting when the impedance ratio of telefault output directly adopts high-frequency alternating electric current on telefault reduces greatly, even 10 telefaults adopt series connection, the impedance that its impedance sum is also still exported when directly adopting high-frequency alternating electric current on telefault, and then the high-frequency alternating electromagnetic field that makes this low frequency envelope carrier wave can be smoothly through telefault and is transmitted in water, form the high-frequency alternating electromagnetic field of low frequency envelope carrier wave, also be compound subaudio frequency alternating electromagnetic field.And subaudio frequency alternating electromagnetic field is while processing water, because the mode that has adopted 10 telefault series connection is connected to high-frequency power supply circuit load end of the present utility model, and in the compound subaudio frequency alternating electromagnetic field of its output owing to containing high-frequency alternating electric current, therefore its frequency f ' be that 10KHZ still can reach the high frequency frequency of processing the 10Qm3 water yield, therefore the present embodiment can only drive 10 telefaults with one group of high-frequency power supply circuit, owing to having adopted the high-frequency alternating electric current of low frequency envelope carrier wave of the present utility model, therefore by the electric current on each telefault because its impedance is all to adopt the impedance of low-frequency alternating electric current as virtual impedance, therefore can both guarantee required electric current I A by the electric current on each telefault, realize thus the in the situation that of high frequency f, the many groups of series connection telefault, still can make each telefault obtain needed large electric current I, owing to having adopted many groups telefault simultaneously, therefore the water yield of processing in the unit time also increases greatly, therefore high frequency water treatment circuit of the present utility model can be realized the water treatment object of big yield being carried out to same texts.
Certainly the frequency f scope that the present embodiment can also be realized the low-frequency alternating electric current that subaudio frequency circuit for generating 3 exports by algorithm is 10-500HZ, the frequency f of high-frequency alternating electric current ' scope is 1-25KHz.
Embodiment 2:
As shown in Figure 2, the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave of the present utility model, comprise: comprise power source circuit 1, low-and high-frequency signal generating circuit 2, subaudio frequency circuit for generating 3 and telefault (not shown), described power source circuit 1 obtains direct supply by civil power through the rectification of low frequency rectifier filer and filtering, this direct supply provides working power for low-and high-frequency signal generating circuit 2 and subaudio frequency circuit for generating 3, described low-and high-frequency signal generating circuit 2 generates respectively low frequency half-wave voltage signal He Yi road, a road high-frequency half-wave signal, this low frequency half-wave voltage signal and high-frequency half-wave signal generate low-frequency alternating electric current He Yi road, a road high-frequency alternating electric current by subaudio frequency circuit for generating 3 respectively, one road low-frequency alternating electric current exports telefault the first terminals to, one road high-frequency alternating electric current exports telefault the second terminals to, be transmitted in water body and form the high-frequency alternating electromagnetic field of low frequency envelope carrier wave by telefault, also be compound subaudio frequency alternating electromagnetic field.
In the present embodiment, described telefault number is 10, and after these 10 telefaults adopt series system to connect, one end is connected to low-frequency alternating electric current, and the other end is connected to high-frequency alternating electric current.In fact, this telefault can also be >=1 any number.
Described power source circuit comprises filter protective circuit, bridge rectifier circuit, bleeder circuit, switch power supply circuit for generating, switch transformer, reaction circuit, filter regulator circuit and voltage-stabilized power supply circuit, civil power is through filter protective circuit, after the rectifying and wave-filtering of bridge rectifier circuit, input to bleeder circuit dividing potential drop and export a road bleeder circuit to switch power supply circuit for generating, the size of current of this switch power supply circuit for generating trip switch transformer output, switch transformer is exported road direct supply output+36V direct supply after filter regulator circuit filtering voltage regulation, be somebody's turn to do+36V direct supply is exported one tunnel+5V direct supply He Yi road+15V direct supply after inputing to voltage-stabilized power supply circuit, switch transformer is exported another road direct supply and is connected to reaction circuit, this reaction circuit is for detection of output voltage, and this output voltage is fed back to switch power supply circuit for generating, and then trip switch transformer stable output+36V direct supply.
Described filter protective circuit is by anti-lightning strike resistance R v1, filter capacitor CX1, choke coil L1 and electric capacity of voltage regulation C10 form, this anti-lightning strike resistance R v1 is connected in parallel on civil power two ends, this filter capacitor CX1 is in parallel with anti-lightning strike resistance R v1, choke coil L1 two input terminuss are in parallel with filter capacitor CX1, choke coil L1 two exports two input terminuss of the rectifier bridge BR1 of termination bridge rectifier circuit, rectifier bridge BR1 cathode output end connects the positive pole of electric capacity of voltage regulation C10, rectifier bridge BR1 cathode output end connects the negative pole of electric capacity of voltage regulation C10, bleeder circuit is by resistance R 3, resistance R 5 and resistance R 13 form, resistance R 3, after resistance R 5 and resistance R 13 are connected successively, another free termination electric capacity of voltage regulation C10 positive pole of this resistance R 3, another free termination electric capacity of voltage regulation C10 negative pole of resistance R 13, switch power supply circuit for generating comprises switching power source chip U3, capacitor C 4, resistance R 4, pressure sensitive diode VR1, diode D3, resistance R 6, capacitor C 17, capacitor C 18 and resistance R 10, divider resistance R13 output Yi road divides the X pin that is crimped to switching power source chip U3 to provide electric current for this pin, capacitor C 4 is in parallel with Zener diode VR1 after connecting with resistance R 4, after connecting with blocking diode D3 again, be connected in parallel on the elementary input of switch transformer T1, and the anode of this blocking diode D3 is also connected with the D pin of switching power source chip U1, in the time that switch signal turns 0 by 1, form the anti-D pin that is added in switching power source chip U1 of high pressure and carry out pressure release, effect is the D pin of protection switch power supply chip U1, the S pin of switching power source chip U1 is connected with rectifier bridge BR1 cathode output end, this end is also connected with the F pin of switching power source chip U1 simultaneously, resistance R 6 one end are connected with rectifier bridge BR cathode output end, resistance R 6 the other ends are connected with the L pin of switching power source chip U1, resistance R 6 is for detection of the voltage of supply after rectification, resistance R 10 one end are connected with the C pin of switching power source chip U1, this end is also connected with capacitor C 17 one end, resistance R 10 the other ends are connected with the positive pole of capacitor C 18, this end is connected to rectifier bridge BR1 cathode output end after being also connected with capacitor C 17 the other ends again,
Filter regulator circuit comprises capacitor C 2, resistance R 1, diode D1, capacitor C 6, capacitor C 7, capacitor C 8, capacitor C 9, diode D2 and capacitor C 11, first secondary coil one end of switch transformer T1 and the anodic bonding of diode D1, this end is also connected with one end of capacitor C 2, the other end of capacitor C 2 is connected with resistance R 1 one end, resistance R 1 the other end is connected with the negative electrode of diode D1, this end is also connected with capacitor C 6 is anodal, capacitor C 6 negative poles are connected with the first secondary coil the other end of switch transformer T1, and this end is ground terminal, capacitor C 7, the positive and negative electrode of capacitor C 8 and capacitor C 9 is connected in parallel on respectively between the positive and negative electrode of capacitor C 6 successively, capacitor C 9 just very+36V DC power output end, the anode of diode D2 is connected with second subprime coil one end of switch transformer T1, the negative electrode of diode D2 is connected with the positive pole of capacitor C 11, the negative pole of capacitor C 11 is connected with the second subprime coil the other end of switch transformer T1, diode D2 and capacitor C 11 are for voltage regulation filtering,
Described voltage-stabilized power supply circuit comprises voltage stabilized source chip Q1, voltage stabilized source chip Q2, capacitor C 1, capacitor C 3 and capacitor C 5, should+36V direct supply respectively with voltage stabilized source chip Q1, the Vin end of voltage stabilized source chip Q2 connects, this end is also connected with one end of capacitor C 3, the other end ground connection of capacitor C 3, the Vout end of voltage stabilized source chip Q1 is +5V DC power output end, this end is connected with one end of capacitor C 5 simultaneously, the GND of the other end of capacitor C 5 and voltage stabilized source chip Q1 holds together ground connection, the Vout end of voltage stabilized source chip Q2 is +15V DC power output end, this end is connected with one end of capacitor C 1 simultaneously, the GND of the other end of capacitor C 1 and voltage stabilized source chip Q2 holds together ground connection,
Described reaction circuit comprises feedback chip U2 and resistance R 7, resistance R 8, resistance R 9 diode D6, resistance R 11, resistance R 12, resistance R 14, diac U4, capacitor C 16 and capacitor C 19, feedback chip U2 collection+36V direct supply, resistance R 7, resistance R 8 and resistance R 14 sample circuit in series be right+sampling of 36V direct supply, and provide a voltage for the trigger electrode of diac U4, feedback detection chip U2 model is PC817A, 3 pin of feedback detection chip U2 are connected with the negative electrode of diode D2, 4 pin of feedback detection chip U2 are connected with the C pin of switching power source chip U1, resistance R 9 one terminations+36V direct supply, this end is also connected with 1 pin of feedback detection chip U2, the negative electrode of resistance R 9 another terminating diode D6, the anode of diode D6 is connected with resistance R 11 one end, this end is also connected with 2 pin of feedback detection chip U2, resistance R 11 the other ends are connected with the negative electrode of diac U4, this end is also connected to the trigger electrode of diac U4 after series capacity C16 and resistance R 12, the negative electrode of diode D6 is also connected with the positive pole of capacitor C 19, the minus earth of capacitor C 19, one end of resistance R 14 is connected with the trigger electrode of diac U4, the other end ground connection of resistance R 14.
Described low-and high-frequency signal generating circuit comprises 12F series microprocessor U1, the vdd pin of this microprocessor U1 is connected with power source circuit+5V DC power output end, the GP2 pin of this microprocessor U1 is Enable Pin EN, after the pin series resistor R2 of this microprocessor U5, be connected with Vdd pin, this end is connected with+5V DC power output end, GP4 and the GP5 pin of this microprocessor U1 are unsettled, the GP1 pin of this microprocessor U1 is exported a road low frequency half-wave voltage signal OUT1, the GP0 pin of this microprocessor U1 is exported a road high-frequency half-wave signal OUT2, the VSS pin ground connection of this microprocessor U1.
Described subaudio frequency circuit for generating comprises the first half-bridge driven chip U5 and the second half-bridge driven chip U6 of IR2 series, the 3rd power tube Q3, the 4th power tube Q4, the 5th power tube Q5, the 6th power tube Q6, capacitor C 12, capacitor C 13, capacitor C 14 and capacitor C 15, the VCC port of the first half-bridge driven chip U5 and power source circuit+15V DC power supply terminal is connected, the first port of half-bridge driven chip U5 and the GP2 port of microprocessor U1 are connected, the first IN port of half-bridge driven chip U5 and the GP1 port of microprocessor U1 are connected, the HO port of the first half-bridge driven chip U5 is connected with the G utmost point of the 4th power tube Q4, the LO port of the first half-bridge driven chip U5 is connected with the G utmost point of the 6th power tube Q6, after the VS port series capacity C12 of the first half-bridge driven chip U5, be connected to the VB port of the first half-bridge driven chip U5, this port is also connected with the negative electrode of diode D4, the anode of diode D4 is connected with the VCC port of the first half-bridge driven chip U5, be connected to+15V direct supply after the COM port series capacity C14 of the first half-bridge driven chip U5, ground connection after the COM port of the first half-bridge driven chip U5 is also connected with the S utmost point of the 6th power tube Q6, the VCC port of the second half-bridge driven chip U6 and power source circuit+15V direct supply downlink connection, the second port of half-bridge driven chip U6 and the GP2 port of microprocessor U1 are connected, the second IN port of half-bridge driven chip U6 and the GP0 port of microprocessor U1 are connected, the HO port of the second half-bridge driven chip U6 is connected with the G utmost point of the 3rd power tube Q3, the LO port of the second half-bridge driven chip U6 is connected with the G utmost point of the 5th power tube Q5, after the VS port series capacity C13 of the second half-bridge driven chip U1, be connected to the VB port of the second half-bridge driven chip U6, this end is also connected with the negative electrode of diode D5, the anode of diode D5 is connected with the VCC port of the second half-bridge driven chip U6, be connected to+15V direct supply after the COM port series capacity C15 of the second half-bridge driven chip U6, ground connection after the COM port of the second half-bridge driven chip U6 is also connected with the S utmost point of the 5th power tube Q5, extremely all be connected to+36V of the D direct supply of the 3rd power tube Q3 and the 4th power tube Q4, the S utmost point of the 3rd power tube Q3 is connected with the D utmost point of the 6th power tube Q6, the S utmost point of the 4th power tube Q4 is connected with the D utmost point of the 5th power tube Q5, the S of the 3rd power tube Q3 is low-frequency alternating current output terminal OUTPUT1 very, the S utmost point of the 4th power tube Q4 connects as being high-frequency alternating current output terminal OUTPUT2, this low-frequency alternating current output terminal OUTPUT1 connects one end of telefault, this high-frequency alternating current output terminal OUTPUT2 connects the other end of telefault.
In the present embodiment, utilize MCU microprocessor U5 to produce 100Hz low-frequency square-wave and 10KHz high frequency square wave, 100Hz low-frequency square-wave is sent to the second half-bridge driven chip U6, and the square wave that produces respectively 180 ° of ordinary wave and paraphase drives the 3rd power tube Q3 and the 5th power tube Q5 to amplify output low frequency exchange current output terminal OUTPUT1 and is connected to telefault one end, in like manner 10KHz high frequency square wave is sent to the first half-bridge driven chip U5, the square wave that produces respectively 180 ° of ordinary wave and paraphase drives the 4th power tube Q4 and the 6th power tube Q6 to amplify output high-frequency alternating current output terminal OUTPUT2 and is connected to the telefault the other end, the 3rd power tube Q3, the 5th power tube Q5, what the 4th power tube Q4 and the 6th power tube Q6 formed is full-bridge topologies, the present embodiment also adopts 10 telefault cascaded structures, after series connection, two free ends of telefault are connected to respectively low-frequency alternating current output terminal OUTPUT1 and high-frequency alternating current output terminal OUTPUT2, now, in telefault load because one end is low-frequency alternating electric current, the other end is high-frequency alternating electric current, therefore, in telefault load output is the high-frequency alternating electromagnetic field of low frequency envelope carrier wave, we are referred to as envelope ripple, example as shown in Figure 3, the impedance of this envelope ripple is Z=R+j ω X=U/I, j ω X is induction reactance, wherein the f in ω=2 π f adopts the frequency f of low-frequency alternating electric current, as shown in Figure 3, the frequency f of low-frequency alternating electric current is 100HZ, its sampling period is 10ms, and the frequency f of high-frequency alternating electric current ' be 10KHZ, its sampling period is 10us, therefore due to Z=R+j ω X, in the π f of ω=2, having adopted the frequency f of low-frequency alternating electric current is 100HZ, the impedance of exporting when the impedance ratio of telefault output directly adopts high-frequency alternating electric current on telefault reduces greatly, even 10 telefaults adopt series connection, the impedance that its impedance sum is also still exported when directly adopting high-frequency alternating electric current on telefault, and then the high-frequency alternating electromagnetic field that makes this low frequency envelope carrier wave can be smoothly through telefault and is transmitted in water, form the high-frequency alternating electromagnetic field of low frequency envelope carrier wave, also be compound subaudio frequency alternating electromagnetic field.And subaudio frequency alternating electromagnetic field is while processing water, because the mode that has adopted 10 telefault series connection is connected to high-frequency power supply circuit load end of the present utility model, and in the compound subaudio frequency alternating electromagnetic field of its output owing to containing high-frequency alternating electric current, therefore its frequency f ' be that 10KHZ still can reach the high frequency frequency of processing the 10Qm3 water yield, therefore the present embodiment can only drive 10 telefaults with one group of high-frequency power supply circuit, owing to having adopted the high-frequency alternating electric current of low frequency envelope carrier wave of the present utility model, therefore by the electric current on each telefault because its impedance is all to adopt the impedance of low-frequency alternating electric current as virtual impedance, therefore can both guarantee required electric current I A by the electric current on each telefault, realize thus the in the situation that of high frequency f, the many groups of series connection telefault, still can make each telefault obtain needed large electric current I, owing to having adopted many groups telefault simultaneously, therefore the water yield of processing in the unit time also increases greatly, therefore high frequency water treatment circuit of the present utility model can be realized the water treatment object of big yield being carried out to same texts.
Certainly the frequency f scope that the present embodiment can also be realized the low-frequency alternating electric current that subaudio frequency circuit for generating 3 exports by algorithm is 10-500HZ, the frequency f of high-frequency alternating electric current ' scope is 1-25KHz.
Above-described embodiment 1 and embodiment 2 are all suitable for a kind of High-frequency water treatment process of low frequency envelope carrier wave, comprise the following steps:
Step 1, power source circuit obtain direct supply by civil power through the rectification of low frequency rectifier filer and filtering, and this direct supply provides working power for low-and high-frequency signal generating circuit and subaudio frequency circuit for generating,
Step 3, low frequency half-wave voltage signal He Yi road, a road high-frequency half-wave signal generate low-frequency alternating electric current He Yi road, a road high-frequency alternating electric current by subaudio frequency circuit for generating respectively,
Step 4, this road low-frequency alternating electric current are connected to telefault the first terminals, this road high-frequency alternating electric current is connected to telefault the second terminals, being transmitted in water body and being formed the high-frequency alternating electromagnetic field of low frequency envelope carrier wave by telefault, is also compound subaudio frequency alternating electromagnetic field.
High-frequency water treatment circuit scale inhibition, the scale removal principle of work of the low frequency envelope carrier wave of embodiment 1 and 2 of the present utility model are as follows:
Obtained the high-frequency alternating electromagnetic field of low frequency envelope carrier wave at telefault, that is to say compound subaudio frequency alternating electromagnetic field, act on water, because water is made up of a Sauerstoffatom and two hydrogen atoms, under normal circumstances, the water molecules in water is the form that is become water clusters by hydrogen bond association.Under the effect of compound subaudio frequency alternating electromagnetic field, water clusters (chain) increases, and the dipole polarity of water molecules strengthens, thereby has increased the solubleness of water to salt.Ca in negative pole and the water of dipole
2+, Mg
2+affine Deng positively charged ion, the CO in positive pole and the water of dipole
3 2-, SO
4 2-affine Deng negatively charged ion.A large amount of dipoles is enclosed in respectively Ca
2+, Mg
2+and CO
3 2-make Ca around,
2+, Mg
2+and CO
3 2-, SO
4 2-be spaced from each other, movement velocity reduces greatly, and the probability of collision combination reduces, thereby has effectively stoped CaCO
3, CaSO
4formation, reach scale inhibition object.
The utility model under higher-energy state, can change CaCO after processing by subaudio frequency alternating electromagnetic field
3crystallization forming process, make it generate loose foamed aragonite, suppressed fine and close calcite hard scale and generated.And Powdered incrustation scale can be taken away along with current.
Calcium ion is got rid of from water different from softening method, the utility model control incrustation scale is calcium ion and TDS, but they are dissolved in water are not precipitated out (or situation in the time of calcium ion high density form soft aragonite wash away with current).The utility model has two kinds of incrustation scale control modes.
1) increase the dissolving power of calcium carbonate etc., they are dissolved in water, do not have calcite or aragonite incrustation scale and generate.
2) state if dissolving power reaches capacity, what form is also in the soft dirty mode of aragonite.
The utility model can also comprise sterilization algal control system, and this sterilization algal control system comprises sterilization algal control signal generator and sterilization algal control treater.When system operation, sterilization algal control producer passes to treater sterilization algal control accurately signal, sterilization algal control treater can discharge a certain amount of metal ion in cooling water system, or in certain level, bacterium in cooling water system is killed and is suppressed the growth of algae by the redox potential in control water.
Certainly,, in the utility model,, after the processing by subaudio frequency alternating electromagnetic field for some time of the present utility model, have some important effects and occur when bacterium and microorganism.
Bacterium and yeast are conventionally very sensitive to electric field.Have the processing of electricimpulse can kill microorganisms and also electric field can optionally damage microbial film inside.Electromagnetic field radiation can kill bacterium or other similar cellular material.Sunlight middle-ultraviolet lamp can damage top layer, extracellular and cell died and peel off (Here it is why after our skin tanning can decortication).Same application of principle is in bacterium, and just bacterium has not had to protect them to exempt from injured thick cellular layer, and they will be died.
The composition of bacterium mainly contains hydrogen bond, the protein of DNA (by hydrogen bond chain of Protein formation), and cytolemma and miscellaneous part, they all have the two poles of the earth key.But after bacterium is processed by subaudio frequency alternating electromagnetic field, the two poles of the earth of bacterium, just along with electric wave changes, are suppressed bacterium division, can only be to extend to two ends.The flagellum of bacterium buckles, and most of bacteriums are attached on together mutually, and similar electricity is worn the process with electric smelting.All these all make bacterial growth be suppressed and control their metabolism.
After water is processed by subaudio frequency alternating electromagnetic field, the bacterial growth of water the inside will be suppressed, and in fact processed exceeding after 24 hours, total plate count will sharply decline, according to the difference of subaudio frequency alternating electromagnetism field frequencies range, the situation that total plate count declines is also different.
Utilize subaudio frequency alternating electromagnetic field to control the growth of bacterium, the frequency of subaudio frequency alternating electromagnetic field is a very important parameter.Same magnetic field intensity, some frequency range will promote the growth of bacterium or algae, rather than suppresses their growth.The utility model is selectively to carry out to determine this frequency range, to be used for suppressing and to control the growth of bacterium and algae in cooling-tower circulating water.
Under the good Reproduction Conditions of cooling tower, utilize subaudio frequency alternating electromagnetic field still can well control the growth rate of bacterium.Under the condition of cooling tower, in order effectively to control amount of bacteria, effectively sterilization is to carry out with bacterical growth rate control simultaneously.Well-known sterilizing agent mainly contains: ultraviolet ray, ozone and chlorine etc.But in any case, while utilizing them to process the bacterium in cooling tower, effect is all undesirable, it is mainly the kill ratio that has exceeded these sterilizing agents because of the growth rate of bacterium in cooling-tower circulating water.At this moment subject matter is not to solve the ability of killing that increases sterilizing agent, but should consider how to control the growth rate of bacterium.The main target of the utility model is exactly to control the growth rate of bacterium.
After utilizing subaudio frequency alternating electromagnetic field to process, not only the growth rate of bacterium has been subject to control, and its metabolism has also been subject to impact.In this case sterilization algal control treater is put in water and carried out disinfection, the adsorption of metal ions that sterilization algal control treater produces on cytolemma then the metabolism of destroy microorganisms and cell walls to kill these bacteriums, or the redox potential in change water can make the food source of the protein generation non-reversibility sex change of bacterium, the metabolism of disturbing bacterium and decomposition microorganism, thereby makes bacterium death.
In cooling-tower circulating water, if processed without subaudio frequency alternating electromagnetic field, only utilize the metal ion of above-mentioned concentration range or redox potential to control bacterium and comprise legionella, will realize that the quantity of total plate count and legionella can not effectively reach control criterion.
In the control of algae, principle is the same, and subaudio frequency alternating electromagnetic field plays synergy as a basic controlling effect and metal ion or redox potential.
Transmission subaudio frequency exchange current of the present utility model is during to telefault, and the energy in water strengthens, and the Sauerstoffatom in water is obtaining under certain energy situation, and the steel oxidation product of cooling water system can exist with magnet layer (Fe3O4) form of black; Or can exist with the oxide form of red Red copper oxide (Cu2O) with the copper material in water coolant.These Fe3O4 and Cu2O oxide compound are all more stable, fine and close, delay corrosion process and further worsen, thereby can effectively control the further corrosion of equipment.
Although specifically show and introduced the utility model in conjunction with preferred embodiment; but those skilled in the art should be understood that; not departing from the spirit and scope of the present utility model that appended claims limits; can make a variety of changes the utility model in the form and details, be protection domain of the present utility model.
Claims (9)
1. the High-frequency water treatment circuit of a low frequency envelope carrier wave, it is characterized in that: comprise power source circuit, low-and high-frequency signal generating circuit, subaudio frequency circuit for generating and telefault, described power source circuit obtains direct supply by civil power through the rectification of low frequency rectifier filer and filtering, this direct supply provides working power for low-and high-frequency signal generating circuit and subaudio frequency circuit for generating, described low-and high-frequency signal generating circuit generates respectively low frequency half-wave voltage signal He Yi road, a road high-frequency half-wave signal, this low frequency half-wave voltage signal and high-frequency half-wave signal generate low-frequency alternating electric current He Yi road, a road high-frequency alternating electric current by subaudio frequency circuit for generating respectively, one road low-frequency alternating electric current exports telefault the first terminals to, one road high-frequency alternating electric current exports telefault the second terminals to, be transmitted in water body and form the high-frequency alternating electromagnetic field of low frequency envelope carrier wave by telefault, also be compound subaudio frequency alternating electromagnetic field.
2. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 1, it is characterized in that: described power source circuit comprises filter protective circuit, bridge rectifier circuit, bleeder circuit, switch power supply circuit for generating, switch transformer, reaction circuit, filter regulator circuit and voltage-stabilized power supply circuit, civil power is through filter protective circuit, after the rectifying and wave-filtering of bridge rectifier circuit, input to bleeder circuit dividing potential drop and export a road bleeder circuit to switch power supply circuit for generating, the size of current of this switch power supply circuit for generating trip switch transformer output, switch transformer is exported road direct supply output+36V direct supply after filter regulator circuit filtering voltage regulation, be somebody's turn to do+36V direct supply is exported one tunnel+5V direct supply after connecting voltage-stabilized power supply circuit, switch transformer is exported another road direct supply and is connected to reaction circuit, this reaction circuit is for detection of output voltage, and this output voltage is fed back to switch power supply circuit for generating, and then trip switch transformer stable output+36V direct supply.
3. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 2, it is characterized in that: described filter protective circuit is by anti-lightning strike resistance R v, filter capacitor CX1 and choke coil L1 are in parallel to be formed, this filter protective circuit input terminus is connected in parallel on civil power two ends, two input terminuss of the rectifier bridge BR of this filter protective circuit output termination bridge rectifier circuit, rectifier bridge BR output positive and negative charge parallel voltage-stabilizing capacitor C 1 positive and negative electrode, after electric capacity of voltage regulation C1 voltage stabilizing, export bleeder circuit to, bleeder circuit is by resistance R 2, resistance R 12 and resistance R 4 are in series, switch power supply circuit for generating is by switching power source chip U1, capacitor C 2, resistance R 3, Zener diode VR1, blocking diode D1, resistance R 1, capacitor C 4, capacitor C 3 and resistance R 5 form, divider resistance R4 output Yi road divides the X pin that is crimped to switching power source chip U1 to provide electric current for this pin, capacitor C 2 is in parallel with Zener diode VR1 after connecting with resistance R 3, after connecting with blocking diode D1 again, be connected in parallel on the elementary input of switch transformer T1, and the anode of this blocking diode D1 is also connected with the D pin of switching power source chip U1, in the time that switch signal turns 0 by 1, form the anti-D pin that is added in switching power source chip U1 of high pressure and carry out pressure release, effect is the D pin of protection switch power supply chip U1, the S pin of switching power source chip U1 is connected with rectifier bridge BR cathode output end, this end is also connected with the F pin of switching power source chip U1 simultaneously, resistance R 1 one end is connected with rectifier bridge BR cathode output end, resistance R 1 the other end is connected with the L pin of switching power source chip U1, resistance R 1 is for detection of the voltage of supply after rectification, resistance R 5 one end are connected with the C pin of switching power source chip U1, this end is also connected with capacitor C 4 one end, resistance R 5 the other ends are connected with the positive pole of capacitor C 3, this end is connected to rectifier bridge BR cathode output end after being also connected with capacitor C 4 the other ends again,
Filter regulator circuit comprises capacitor C 11, resistance R 11, diode D3, capacitor C 7, capacitor C 6, capacitor C 8, capacitor C 12, diode D6 and capacitor C 5, first secondary coil one end of switch transformer T1 and the anodic bonding of diode D3, this end is also connected with one end of capacitor C 11, the other end of capacitor C 11 is connected with resistance R 11 one end, resistance R 11 the other ends are connected with the negative electrode of diode D3, this end is also connected with capacitor C 7 is anodal, capacitor C 7 negative poles are connected with the first secondary coil the other end of switch transformer T1, and this end is ground terminal, capacitor C 6, the positive and negative electrode of capacitor C 8 and capacitor C 12 is connected in parallel on respectively between the positive and negative electrode of capacitor C 7 successively, capacitor C 12 just very+36V DC power output end, the anode of diode D6 is connected with second subprime coil one end of switch transformer T1, the negative electrode of diode D6 is connected with the positive pole of capacitor C 5, the negative pole of capacitor C 5 is connected with the second subprime coil the other end of switch transformer T1, diode D6 and capacitor C 5 are for voltage regulation filtering,
Described voltage-stabilized power supply circuit is made up of voltage stabilized source chip Q1, capacitor C 19, capacitor C 13, be somebody's turn to do+36V direct supply is connected with the Vin end of voltage stabilized source chip Q1, this end is connected with one end of capacitor C 19, the other end ground connection of capacitor C 19, the Vout end of voltage stabilized source chip Q1 is +5V DC power output end, this end is connected with the positive pole of capacitor C 13 simultaneously, the minus earth of capacitor C 13
Described reaction circuit is by feeding back chip U2 and resistance R 6, resistance R 7, resistance R 8, resistance R 9, resistance R 10, resistance R 13, diode D4, capacitor C 9, capacitor C 10 and diac U3 form, feedback chip U2 collection+36V direct supply, resistance R 9, resistance R 13 and resistance R 10 sample circuit in series be right+sampling of 36V direct supply, and provide a voltage for the trigger electrode of diac U3, feedback detection chip U2 model is PC817A, 3 pin of feedback detection chip U2 are connected with the negative electrode of diode D6, 4 pin of feedback detection chip U2 are connected with the C pin of switching power source chip U1, resistance R 7 one terminations+36V direct supply, this end is also connected with 1 pin of feedback detection chip U2, the negative electrode of resistance R 7 another terminating diode D4, the anode of diode D4 is connected with resistance R 6 one end, this end is also connected with 2 pin of feedback detection chip U2, resistance R 6 the other ends are connected with the negative electrode of diac U3, this end is also connected to the trigger electrode of diac U3 after series capacity C9 and resistance R 8, the negative electrode of diode D4 is also connected with the positive pole of capacitor C 10, the minus earth of capacitor C 10, one end of resistance R 10 is connected with the trigger electrode of diac U3, the other end ground connection of resistance R 10.
4. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 2, it is characterized in that: described low-and high-frequency signal generating circuit comprises 12F series microprocessor U5, the vdd pin of this microprocessor U5 is connected with power source circuit+5V DC power output end, the GP2 pin of this microprocessor U5 is Enable Pin EN, this microprocessor U5's
pin is connected with Vdd pin after connecing a resistance R 20, GP4 and the GP5 pin of this microprocessor U5 are unsettled, the GP1 pin of this microprocessor U5 is exported a road low frequency half-wave voltage signal OUT1, and the GP0 pin of this microprocessor U5 is exported a road high-frequency half-wave signal OUT2, the VSS pin ground connection of this microprocessor U5.
5. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 2, it is characterized in that: described subaudio frequency circuit for generating comprises STI6201 series full-bridge power amplifier chips U4, capacitor C 14, capacitor C 15, capacitor C 16, capacitor C 17, capacitor C 18, resistance R 14, resistance R 15, resistance R 16, resistance R 17, resistance R 18, resistance R 19, diode D5 and diode D2, ground connection after the VREF pin series capacity C18 of this full-bridge power amplifier chips U4, after the INT2 pin series resistance R15 of full-bridge power amplifier chips U4, be connected with the GP1 pin of microprocessor U5, after the IN1 pin series resistance R14 of full-bridge power amplifier chips U4, be connected with the GP0 pin of microprocessor U5, the SENSE pin ground connection of full-bridge power amplifier chips U4, after the ENABLE pin series resistance R18 of full-bridge power amplifier chips U4, be connected to the GP2 pin Enable Pin EN of microprocessor U5, the NC pin of full-bridge power amplifier chips U4 is unsettled, the equal ground connection of GND pin of full-bridge power amplifier chips U4, after the OUT2 pin series capacity C15 of full-bridge power amplifier chips U4, be connected to the BOOT2 pin of full-bridge power amplifier chips U4, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with the negative electrode of diode D5, the plus earth of diode D5, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with resistance R 16 one end, resistance R 16 the other ends are high-frequency alternating current output terminal OUTPUT2, the OUT2 pin of full-bridge power amplifier chips U4 is also connected with resistance R 19 one end, after resistance R 19 the other end series capacity C14, be connected with resistance R 17 one end, this end is also connected with the OUT1 pin of full-bridge power amplifier chips U4, the other end of resistance R 17 is low-frequency alternating current output terminal OUTPUT1, the OUT1 pin of full-bridge power amplifier chips U4 is connected with the negative electrode of diode D2, the plus earth of diode D2, after the OUT1 pin series capacity C16 of full-bridge power amplifier chips U4, be connected with the BOOT1 pin of full-bridge power amplifier chips U4, the negative electrode of diode D2 is connected with the BOOT1 pin of full-bridge power amplifier chips U4, the plus earth of diode D2, be connected to+36V of the VS pin DC power output end of full-bridge power amplifier chips U4, this end is ground connection after series capacity C17 also, this low-frequency alternating current output terminal OUTPUT1 connects one end of telefault, this high-frequency alternating current output terminal OUTPUT2 connects the other end of telefault.
6. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 1, it is characterized in that: described power source circuit comprises filter protective circuit, bridge rectifier circuit, bleeder circuit, switch power supply circuit for generating, switch transformer, reaction circuit, filter regulator circuit and voltage-stabilized power supply circuit, civil power is through filter protective circuit, after the rectifying and wave-filtering of bridge rectifier circuit, input to bleeder circuit dividing potential drop and export a road bleeder circuit to switch power supply circuit for generating, the size of current of this switch power supply circuit for generating trip switch transformer output, switch transformer is exported road direct supply output+36V direct supply after filter regulator circuit filtering voltage regulation, be somebody's turn to do+36V direct supply is exported one tunnel+5V direct supply He Yi road+15V direct supply after inputing to voltage-stabilized power supply circuit, switch transformer is exported another road direct supply and is connected to reaction circuit, this reaction circuit is for detection of output voltage, and this output voltage is fed back to switch power supply circuit for generating, and then trip switch transformer stable output+36V direct supply.
7. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 6, is characterized in that:
Described filter protective circuit is by anti-lightning strike resistance R v1, filter capacitor CX1, choke coil L1 and electric capacity of voltage regulation C10 form, this anti-lightning strike resistance R v1 is connected in parallel on civil power two ends, this filter capacitor CX1 is in parallel with anti-lightning strike resistance R v1, choke coil L1 two input terminuss are in parallel with filter capacitor CX1, choke coil L1 two exports two input terminuss of the rectifier bridge BR1 of termination bridge rectifier circuit, rectifier bridge BR1 cathode output end connects the positive pole of electric capacity of voltage regulation C10, rectifier bridge BR1 cathode output end connects the negative pole of electric capacity of voltage regulation C10, bleeder circuit is by resistance R 3, resistance R 5 and resistance R 13 form, resistance R 3, after resistance R 5 and resistance R 13 are connected successively, another free termination electric capacity of voltage regulation C10 positive pole of this resistance R 3, another free termination electric capacity of voltage regulation C10 negative pole of resistance R 13, switch power supply circuit for generating comprises switching power source chip U3, capacitor C 4, resistance R 4, pressure sensitive diode VR1, diode D3, resistance R 6, capacitor C 17, capacitor C 18 and resistance R 10, divider resistance R13 output Yi road divides the X pin that is crimped to switching power source chip U3 to provide electric current for this pin, capacitor C 4 is in parallel with Zener diode VR1 after connecting with resistance R 4, after connecting with blocking diode D3 again, be connected in parallel on the elementary input of switch transformer T1, and the anode of this blocking diode D3 is also connected with the D pin of switching power source chip U1, in the time that switch signal turns 0 by 1, form the anti-D pin that is added in switching power source chip U1 of high pressure and carry out pressure release, effect is the D pin of protection switch power supply chip U1, the S pin of switching power source chip U1 is connected with rectifier bridge BR1 cathode output end, this end is also connected with the F pin of switching power source chip U1 simultaneously, resistance R 6 one end are connected with rectifier bridge BR cathode output end, resistance R 6 the other ends are connected with the L pin of switching power source chip U1, resistance R 6 is for detection of the voltage of supply after rectification, resistance R 10 one end are connected with the C pin of switching power source chip U1, this end is also connected with capacitor C 17 one end, resistance R 10 the other ends are connected with the positive pole of capacitor C 18, this end is connected to rectifier bridge BR1 cathode output end after being also connected with capacitor C 17 the other ends again,
Filter regulator circuit comprises capacitor C 2, resistance R 1, diode D1, capacitor C 6, capacitor C 7, capacitor C 8, capacitor C 9, diode D2 and capacitor C 11, first secondary coil one end of switch transformer T1 and the anodic bonding of diode D1, this end is also connected with one end of capacitor C 2, the other end of capacitor C 2 is connected with resistance R 1 one end, resistance R 1 the other end is connected with the negative electrode of diode D1, this end is also connected with capacitor C 6 is anodal, capacitor C 6 negative poles are connected with the first secondary coil the other end of switch transformer T1, and this end is ground terminal, capacitor C 7, the positive and negative electrode of capacitor C 8 and capacitor C 9 is connected in parallel on respectively between the positive and negative electrode of capacitor C 6 successively, capacitor C 9 just very+36V DC power output end, the anode of diode D2 is connected with second subprime coil one end of switch transformer T1, the negative electrode of diode D2 is connected with the positive pole of capacitor C 11, the negative pole of capacitor C 11 is connected with the second subprime coil the other end of switch transformer T1, diode D2 and capacitor C 11 are for voltage regulation filtering,
Described voltage-stabilized power supply circuit comprises voltage stabilized source chip Q1, voltage stabilized source chip Q2, capacitor C 1, capacitor C 3 and capacitor C 5, should+36V direct supply respectively with voltage stabilized source chip Q1, the Vin end of voltage stabilized source chip Q2 connects, this end is also connected with one end of capacitor C 3, the other end ground connection of capacitor C 3, the Vout end of voltage stabilized source chip Q1 is +5V DC power output end, this end is connected with one end of capacitor C 5 simultaneously, the GND of the other end of capacitor C 5 and voltage stabilized source chip Q1 holds together ground connection, the Vout end of voltage stabilized source chip Q2 is +15V DC power output end, this end is connected with one end of capacitor C 1 simultaneously, the GND of the other end of capacitor C 1 and voltage stabilized source chip Q2 holds together ground connection,
Described reaction circuit comprises feedback chip U2 and resistance R 7, resistance R 8, resistance R 9 diode D6, resistance R 11, resistance R 12, resistance R 14, diac U4, capacitor C 16 and capacitor C 19, feedback chip U2 collection+36V direct supply, resistance R 7, resistance R 8 and resistance R 14 sample circuit in series be right+sampling of 36V direct supply, and provide a voltage for the trigger electrode of diac U4, feedback detection chip U2 model is PC817A, 3 pin of feedback detection chip U2 are connected with the negative electrode of diode D2, 4 pin of feedback detection chip U2 are connected with the C pin of switching power source chip U1, resistance R 9 one terminations+36V direct supply, this end is also connected with 1 pin of feedback detection chip U2, the negative electrode of resistance R 9 another terminating diode D6, the anode of diode D6 is connected with resistance R 11 one end, this end is also connected with 2 pin of feedback detection chip U2, resistance R 11 the other ends are connected with the negative electrode of diac U4, this end is also connected to the trigger electrode of diac U4 after series capacity C16 and resistance R 12, the negative electrode of diode D6 is also connected with the positive pole of capacitor C 19, the minus earth of capacitor C 19, one end of resistance R 14 is connected with the trigger electrode of diac U4, the other end ground connection of resistance R 14.
8. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 6, it is characterized in that: described low-and high-frequency signal generating circuit comprises 12F series microprocessor U1, the vdd pin of this microprocessor U1 is connected with power source circuit+5V DC power output end, the GP2 pin of this microprocessor U1 is Enable Pin EN, after the pin series resistor R2 of this microprocessor U5, be connected with Vdd pin, this end is connected with+5V DC power output end, GP4 and the GP5 pin of this microprocessor U1 are unsettled, the GP1 pin of this microprocessor U1 is exported a road low frequency half-wave voltage signal OUT1, the GP0 pin of this microprocessor U1 is exported a road high-frequency half-wave signal OUT2, the VSS pin ground connection of this microprocessor U1.
9. the High-frequency water treatment circuit of a kind of low frequency envelope carrier wave according to claim 6, it is characterized in that: described subaudio frequency circuit for generating comprises the first half-bridge driven chip U5 and the second half-bridge driven chip U6 of IR2 series, the 3rd power tube Q3, the 4th power tube Q4, the 5th power tube Q5, the 6th power tube Q6, capacitor C 12, capacitor C 13, capacitor C 14 and capacitor C 15, the VCC port of the first half-bridge driven chip U5 and power source circuit+15V DC power supply terminal is connected, the first port of half-bridge driven chip U5 and the GP2 port of microprocessor U1 are connected, the first IN port of half-bridge driven chip U5 and the GP1 port of microprocessor U1 are connected, the HO port of the first half-bridge driven chip U5 is connected with the G utmost point of the 4th power tube Q4, the LO port of the first half-bridge driven chip U5 is connected with the G utmost point of the 6th power tube Q6, after the VS port series capacity C12 of the first half-bridge driven chip U5, be connected to the VB port of the first half-bridge driven chip U5, this port is also connected with the negative electrode of diode D4, the anode of diode D4 is connected with the VCC port of the first half-bridge driven chip U5, be connected to+15V direct supply after the COM port series capacity C14 of the first half-bridge driven chip U5, ground connection after the COM port of the first half-bridge driven chip U5 is also connected with the S utmost point of the 6th power tube Q6, the VCC port of the second half-bridge driven chip U6 and power source circuit+15V direct supply downlink connection, the second port of half-bridge driven chip U6 and the GP2 port of microprocessor U1 are connected, the second IN port of half-bridge driven chip U6 and the GP0 port of microprocessor U1 are connected, the HO port of the second half-bridge driven chip U6 is connected with the G utmost point of the 3rd power tube Q3, the LO port of the second half-bridge driven chip U6 is connected with the G utmost point of the 5th power tube Q5, after the VS port series capacity C13 of the second half-bridge driven chip U1, be connected to the VB port of the second half-bridge driven chip U6, this end is also connected with the negative electrode of diode D5, the anode of diode D5 is connected with the VCC port of the second half-bridge driven chip U6, be connected to+15V direct supply after the COM port series capacity C15 of the second half-bridge driven chip U6, ground connection after the COM port of the second half-bridge driven chip U6 is also connected with the S utmost point of the 5th power tube Q5, extremely all be connected to+36V of the D direct supply of the 3rd power tube Q3 and the 4th power tube Q4, the S utmost point of the 3rd power tube Q3 is connected with the D utmost point of the 6th power tube Q6, the S utmost point of the 4th power tube Q4 is connected with the D utmost point of the 5th power tube Q5, the S of the 3rd power tube Q3 is low-frequency alternating current output terminal OUTPUT1 very, the S utmost point of the 4th power tube Q4 connects as being high-frequency alternating current output terminal OUTPUT2, this low-frequency alternating current output terminal OUTPUT1 connects one end of telefault, this high-frequency alternating current output terminal OUTPUT2 connects the other end of telefault.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201320746790.9U CN203602383U (en) | 2013-11-25 | 2013-11-25 | High-frequency water treatment circuit with low-frequency enveloped carrier waves |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201320746790.9U CN203602383U (en) | 2013-11-25 | 2013-11-25 | High-frequency water treatment circuit with low-frequency enveloped carrier waves |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN203602383U true CN203602383U (en) | 2014-05-21 |
Family
ID=50715070
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201320746790.9U Expired - Lifetime CN203602383U (en) | 2013-11-25 | 2013-11-25 | High-frequency water treatment circuit with low-frequency enveloped carrier waves |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN203602383U (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN103626269A (en) * | 2013-11-25 | 2014-03-12 | 厦门绿信环保科技有限公司 | Low-frequency envelope carrier high-frequency water treatment circuit and method |
-
2013
- 2013-11-25 CN CN201320746790.9U patent/CN203602383U/en not_active Expired - Lifetime
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN103626269A (en) * | 2013-11-25 | 2014-03-12 | 厦门绿信环保科技有限公司 | Low-frequency envelope carrier high-frequency water treatment circuit and method |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN103626269B (en) | Low-frequency envelope carrier high-frequency water treatment circuit and method | |
| CN103159300B (en) | Method for removing pentavalent antimony pollutant in water through electrochemical method | |
| CN201501815U (en) | Scale and corrosion inhibition device | |
| CN102838214B (en) | Coil-winding type electronic induction water processing circuit and water processing method thereof | |
| CN105130018A (en) | Method and system for treating fluid of variable-frequency direct-current pulse electromagnetic field of electrostatic field | |
| CN102010073A (en) | Method for electrolyzing circulating cooling water and reverse osmosis concentrated water | |
| CN102863087B (en) | Magnetoelectricity collaborative industrial cycling cooling water scale resisting and bacteria inhibiting processor | |
| CN2725278Y (en) | Copper/silver ion sterilization device of intelligent water circulation system | |
| CN203602383U (en) | High-frequency water treatment circuit with low-frequency enveloped carrier waves | |
| CN102351323A (en) | Multi-function anti-scaling/descaling/bacterium-alga inhibition device | |
| CN103795287A (en) | Bipolar pulse power supply used for generating low-temperature plasma | |
| CN201873575U (en) | Scale inhibition and biological mucous membrane control device for plate type heat exchanger | |
| CN105060411A (en) | Internal electrolysis-electric flocculation method for processing phosphor-containing wastewater | |
| CN201825792U (en) | Electronic box structure for electrochemical water treatment device with stable water quality of circulating water | |
| CN107374547A (en) | Bactericidal device and household electrical appliance | |
| CN201864623U (en) | Array type circulating water treatment device without adding medicament | |
| CN204752338U (en) | Dirty device is inhaled in electrolysis | |
| TW202124292A (en) | Ozone supply method with water quality feedback function capable of automatically increasing ozone concentration without manual monitoring | |
| CN203568887U (en) | Electrolysis phosphorous removal device with efficient stirring device | |
| CN203568889U (en) | Double-aluminum-electrode electrolysis dephosphorization device | |
| CN202953875U (en) | Magnetoelectric cooperative type industrial circulating cooling water anti-scaling bacteriostatic processor | |
| CN202898117U (en) | Water purification and treatment device | |
| CN2898058Y (en) | High-frequency electrolytic water maker | |
| CN201942570U (en) | High-frequency water treatment device | |
| CN201530738U (en) | Novel water treatment device |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| CX01 | Expiry of patent term | ||
| CX01 | Expiry of patent term |
Granted publication date: 20140521 |