CN205942329U - Arsenic ion concentration real -time processing's embedded device that exceeds standard in sewage - Google Patents
Arsenic ion concentration real -time processing's embedded device that exceeds standard in sewage Download PDFInfo
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- CN205942329U CN205942329U CN201620830311.5U CN201620830311U CN205942329U CN 205942329 U CN205942329 U CN 205942329U CN 201620830311 U CN201620830311 U CN 201620830311U CN 205942329 U CN205942329 U CN 205942329U
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- 239000010865 sewage Substances 0.000 title claims abstract description 53
- HAYXDMNJJFVXCI-UHFFFAOYSA-N arsenic(5+) Chemical compound [As+5] HAYXDMNJJFVXCI-UHFFFAOYSA-N 0.000 title claims abstract description 30
- 239000007788 liquid Substances 0.000 claims abstract description 50
- 238000001514 detection method Methods 0.000 claims abstract description 45
- 229910000635 Spelter Inorganic materials 0.000 claims abstract description 36
- 230000005611 electricity Effects 0.000 claims abstract description 18
- 238000004832 voltammetry Methods 0.000 claims abstract description 15
- 238000005086 pumping Methods 0.000 claims description 31
- 239000013078 crystal Substances 0.000 claims description 8
- 239000003990 capacitor Substances 0.000 claims description 4
- 230000003321 amplification Effects 0.000 claims 1
- 238000003199 nucleic acid amplification method Methods 0.000 claims 1
- 238000005868 electrolysis reaction Methods 0.000 abstract 1
- 238000007689 inspection Methods 0.000 description 9
- 238000010586 diagram Methods 0.000 description 6
- 239000002351 wastewater Substances 0.000 description 6
- 229910052785 arsenic Inorganic materials 0.000 description 5
- RQNWIZPPADIBDY-UHFFFAOYSA-N arsenic atom Chemical compound [As] RQNWIZPPADIBDY-UHFFFAOYSA-N 0.000 description 5
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 description 4
- RECVMTHOQWMYFX-UHFFFAOYSA-N oxygen(1+) dihydride Chemical compound [OH2+] RECVMTHOQWMYFX-UHFFFAOYSA-N 0.000 description 3
- 239000000463 material Substances 0.000 description 2
- 238000000034 method Methods 0.000 description 2
- 238000011897 real-time detection Methods 0.000 description 2
- QNVKOSLOVOTXKF-UHFFFAOYSA-N 4-[(2-amino-3,5-dibromophenyl)methylamino]cyclohexan-1-ol;hydron;chloride Chemical compound Cl.NC1=C(Br)C=C(Br)C=C1CNC1CCC(O)CC1 QNVKOSLOVOTXKF-UHFFFAOYSA-N 0.000 description 1
- OKTJSMMVPCPJKN-UHFFFAOYSA-N Carbon Chemical compound [C] OKTJSMMVPCPJKN-UHFFFAOYSA-N 0.000 description 1
- 238000003723 Smelting Methods 0.000 description 1
- 229960000985 ambroxol hydrochloride Drugs 0.000 description 1
- 230000009286 beneficial effect Effects 0.000 description 1
- 230000015572 biosynthetic process Effects 0.000 description 1
- 229910052799 carbon Inorganic materials 0.000 description 1
- 238000010276 construction Methods 0.000 description 1
- 238000005516 engineering process Methods 0.000 description 1
- 230000007613 environmental effect Effects 0.000 description 1
- 239000007789 gas Substances 0.000 description 1
- 229910001385 heavy metal Inorganic materials 0.000 description 1
- 239000002440 industrial waste Substances 0.000 description 1
- 238000000465 moulding Methods 0.000 description 1
- 238000003786 synthesis reaction Methods 0.000 description 1
Abstract
The utility model relates to an arsenic ion concentration real -time processing's embedded device that exceeds standard in sewage belongs to electron technical field. The utility model discloses electricity generation circuit module links to each other with screw, battery respectively, single -chip computer control module respectively with battery, alarm circuit module, regularly circuit module, electrical control valve I, detect circuit module, the circuit module that bleeds, electrical control valve II, electrical control valve III and workbin control circuit module link to each other, single -chip computer control module 0 connects the detection case, detection case, spelter are connected respectively to the detection circuitry module, through positive pole voltammetry electrolysis spelter generate current signal, workbin control circuit module is connected with container case, level sensor respectively, the liquid level variation of the solution of level sensor test container incasement to workbin control circuit module department sends a signal. The utility model discloses a detection, alarm and integrated treatment when reasonable constitution and connecting makes it can realize effectively that the arsenic ion exceeds standard.
Description
Technical field
The utility model is related to a kind of embedded equipment of arsenic ion concentration over-standard real-time processing in sewage, belongs to electronics skill
Art field.
Background technology
Develop rapidly with industrial, factory's quantity is also increasing rapidly.The industry that factory produces during producing
Waste water and industrial waste gas increase in a large number.Substantial amounts of arsenic is contained in the sewage producing in the smelting process of some heavy metals, these
Sewage is directly discharged among river after simply being processed, and the vegetation for lower reaches of river and the domestic water of the people are made
Become pollution.
Set up the embedded equipment of arsenic ion concentration over-standard real-time processing in sewage, need to consider arsenic ion concentration in sewage
Connectivity problem between the composition of the embedded equipment of exceeded real-time processing and composition.
Content of the invention
The utility model provides a kind of embedded equipment of arsenic ion concentration over-standard real-time processing in sewage, for solution
Certainly to the connectivity problem between setting up the composition of the embedded equipment of arsenic ion concentration over-standard real-time processing in sewage and constituting.
The technical solution of the utility model is：The embedded equipment of arsenic ion concentration over-standard real-time processing in a kind of sewage,
Including screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module
6th, detection case 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve
II 13, container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described circuit for alarming module 4 includes resistance R1, resistance R2, resistance R3, resistance R4, resistance R5, resistance R6, amplifier
Fa1, electric capacity C1, electric capacity C2, loudspeaker V2, NE555 chip；Wherein one end of resistance R1, R2 and single chip control module 5 interface phase
Even, the other end of resistance R1 is connected with the in-phase input end of amplifier Fa1, and the other end of resistance R2 is anti-phase with amplifier Fa1's
Input is connected, and one end of resistance R3 is connected on resistance R2, and the other end of resistance R3 connects the output end of amplifier Fa1, electricity
Resistance R4 one end, resistance R4 one end is also connected with NE555 chip, and the resistance R4 other end connects resistance R5 one end, NE555 chip, resistance
The R5 other end connects NE555 chip, and electric capacity C2 one end is connected on loudspeaker V2, and the electric capacity C2 other end connects NE555 chip, electric capacity
C1 one end connects resistance R5, and the electric capacity C1 other end connects electric capacity C2, and resistance R6 one end is connected to loudspeaker V2 one end, and resistance R6 is another
End connects NE555 chip.
Described timing circuit module 6 includes electric capacity C13, electric capacity C14, crystal oscillator X, 80C51 single-chip microcomputer, amplifier
V1, resistance R7；Wherein crystal oscillator X and 80C51 single-chip microcomputer carry out in parallel, then are connected with electric capacity C13, electric capacity C14, shape
Become the circuit of a closure, one end of resistance R7 is connected with single chip control module 5 interface, the resistance R7 other end is mono- with 80C51
Piece machine interface is connected, and one end of amplifier V1 is connected with single chip control module 5 interface, and the amplifier V1 other end is mono- with 80C51
Piece machine interface is connected.
Described pumping circuit module 11 includes resistance R8, resistance R9, switch K5, relay coil P1, contactor coil P2；
Wherein one end of resistance R8 is connected with single chip control module 5 interface, and the other end of resistance R8 is connected with one end of switch K5, opens
The other end of K5 closing is connected with one end of relay coil P2, and relay coil P2 and contactor coil P1 is connected in parallel on circuit
In, the other end of relay coil P1 is connected with resistance R9, and the other end of resistance R9 is connected with single chip control module 5 interface.
Described testing circuit module 10 includes resistance R10, resistance R11, resistance R12, resistance R13, resistance R14, resistance
R15, amplifier L1, amplifier L2, AT89C51 chip；Wherein resistance R11 one end is connected with single chip control module 5 interface, electricity
On another in-phase input end terminating at amplifier L1 of resistance R11, one end of resistance R12 is connected with resistance R11, and resistance R12 is another
Terminate on the inverting input of amplifier L1, resistance R13 one end is connected with single chip control module 5 interface, and resistance R13 is another
Terminate on resistance R12, the in-phase input end of amplifier L2 is connected to one end of resistance R11, the inverting input of amplifier L2
It is connected on resistance R13, the output end of amplifier L2 is connected to resistance R15 one end, and the output end of amplifier L1 connects resistance R14
One end, the resistance R15 other end connects AT89C51 chip, and the resistance R14 other end connects AT89C51 chip.
Described hopper control circuit module 17 includes amplifier OP1, resistance R16, electric capacity C3, electric capacity C4, electric capacity C5, electric capacity
C6, electric capacity C7, electric capacity C8, electric capacity Cx, electric capacity C9, electric capacity C10, switch K1, switch K2, switch K3, switch K4；Wherein electric capacity
C8, C9 one end is grounded, another termination capacitor Cx of electric capacity C8, C9 one end, switch K3 one end ground connection, and electric capacity C3 one end is grounded, electric capacity
C3 another termination switch K3 other end, electric capacity Cx one end, switch K4 one end is connected with single chip control module 5 interface, switchs K4
Another terminate on electric capacity C4, one end of electric capacity C4 ground connection, the another of electric capacity C4 terminates at electric capacity Cx one end, and switch K1 mono- terminates
Ground, switch K1 is another to be terminated on switch K2, and electric capacity C10 one end is grounded, and electric capacity C10 is another to be terminated on switch K2, electric capacity C5
One end is connected on switch K2, and electric capacity C5 is another to be terminated on the in-phase input end of amplifier OP1, and electric capacity C7 and resistance R16 is carried out
One end in parallel is linked into the output of amplifier OP1, and the other end is connected with one end of electric capacity C6, switch K2, and electric capacity C6's is another
One end is connected to the inverting input of amplifier OP1.
Described electric control valve I 8, electric control valve II 13, electric control valve III 15 structure are identical, and wherein electric control valve I 8 includes electricity
Resistance R17, resistance R18, resistance R19, resistance R20, resistance R21, electric capacity C11, resistor Y1, electric capacity C12, TS555CN chip；Its
Middle resistance R17 one end is connected with single chip control module 5 interface, and the resistance R17 other end is connected with resistor Y1, and resistor Y1 is also
It is connected with resistance R18, TS555CN chip interface, one end of electric capacity C11 is connected on TS555CN chip interface, and electric capacity C11 is another
One end is connected on electric capacity C12, and one end of electric capacity C12 connects resistance R20 one end, and the C12 other end connects electric capacity C11, resistance R20 mono-
End is also connected with TS555CN chip interface, and the resistance R20 other end connects TS555CN chip interface, and one end of resistance R21 is connected to
At resistance R20, the resistance R21 other end connects resistance R19 one end, and one end of resistance R18 connects TS555CN chip interface, R18's
The other end is connected to TS555CN chip interface, and the resistance R19 other end is connect with single chip control module 5 interface, TS555CN chip
Mouthful.
Described electricity-generating circuit module 2 includes resistance R22, resistance R23, resistance R24, resistance R25, electric capacity C15, diode
D1, diode D2, diode D3, diode D4, diode D5, diode D6, diode D7, diode D8, diode D9,
89C51 single-chip microcomputer；Wherein one end of resistance R22, one end of resistance R24, the positive pole of diode D1, the negative pole of diode D5 all connect
In resistance R23 end, the other end of resistance R22 is connected with diode D2 positive pole, diode D6 negative pole, the resistance R23 other end
It is connected with diode D3 positive pole, diode D7 negative pole, the other end of resistance R24 and diode D4 positive pole, diode D8 negative pole phase
Even, the positive pole of diode D1 is connected with the negative pole of diode D5, the negative pole of diode D1 respectively with diode D2, D3, D4 negative pole
It is connected, the positive pole of diode D5 connects the positive pole of diode D6, D7, D8,5 points of 89C51 single-chip microcomputer, single chip control module respectively
It is not connected with the negative pole of diode D3, resistance R25 one end is connected at electric capacity C15, the resistance R25 other end and diode D4 negative pole
Connect, the negative pole of diode D9 is connected at electric capacity C15, and the positive pole of diode D9 is connected with 89C51 interface microcontroller, electric capacity
C15 is also connected with the interface of 89C51 single-chip microcomputer, and 89C51 interface microcontroller is connected with the positive pole of diode D7, and diode D7 is just
Pole is also connected with single chip control module 5 interface, and the negative pole of diode D8 connects the positive pole of D4, and diode D7 negative pole is just connecting D3
Pole, diode D6 negative pole connects D2 positive pole.
Described single chip control module 5 can adopt 80C51 single-chip microcomputer.
Operation principle of the present utility model is：
Anode voltammetry, the method reference are used for arsenic ion Concentration Testing in sewage《Ambroxol hydrochloride is in carbon
The research of paste electrode Anodic voltammetry》In thought.The program is primarily with respect to the arsenic in waste water ion concentration of plant emissions
Real-time detection, if occurring, arsenic in waste water ion concentration is exceeded to carry out integrated treatment to it.
Wherein single chip control module 5 issues a signal at timing circuit module 6, sets the time interval of response.When
When reaching setting time, timing circuit module 6 issues a signal at single chip control module 5, and single chip control module 5 sends letter
Number at pumping circuit module 11, pumping circuit module 11 receives the waste water suction discharged detection after signal by pipeline 12
In case 7.Detect whether the arsenic ion concentration in water is exceeded, and current signal is passed to testing circuit module 10 by anode voltammetry
Place.If arsenic in waste water ion concentration is exceeded, testing circuit module 10 transmits a signal at single chip control module 5, single-chip microcomputer control
Molding block 5 transmits a signal at circuit for alarming module 4, carries out alarm sounds；Single chip control module 5 transmits a signal to electrically-controlled valve
At door III 15, open electric control valve III 15 input aqua calcis and synthesis is carried out for exceeded sewage；Single-chip Controlling mould
Block 5 transmits a signal at electric control valve I 8, opens electric control valve I 8 and releases the waste water in detection case 7.Liquid level sensor 16 for
Aqua calcis liquid level in container case 14 carries out real-time detection, when the liquid level in container case 14 is less than given threshold, material
Think that control circuit module 17 transmits a signal at single chip control module 5, single chip control module 5 transmits a signal to electric control valve
At II 13, open electric control valve II 13 and aqua calcis is injected in container case 14.
Wherein electricity-generating circuit module 2 is connected with screw 1, and current scour screw 1 goes to and generated electricity.Electricity-generating circuit mould
Block 2 is connected with battery 3, and generating power by water current is carried out being stored at battery 3.Battery 3 and liquid level sensor 16, electrically operated valve
II 13, electrically operated valve III 15, hopper control circuit module 17, timing circuit module 6, pumping circuit module 11, detection case 7, electricity
Control valve I 8, testing circuit module 10, circuit for alarming module 4 are connected, and are powered for them.The arrangement achieves self-powered and
The functions such as automation, energy-conserving and environment-protective, real-time control.
The beneficial effects of the utility model are：Make it can be effectively realized arsenic ion by rational composition and its connection
When exceeded detection, alarm and integrated treatment；Save the trouble of manpower detection, ensure that in water quality, arsenic content is up to standard, safely, in fact
When, environmental protection.
Brief description
Fig. 1 is overall construction drawing of the present utility model；
Fig. 2 is circuit for alarming module circuit diagram of the present utility model；
Fig. 3 is timing circuit module circuit diagram of the present utility model；
Fig. 4 is pumping circuit figure of the present utility model；
Fig. 5 is the testing circuit module circuit diagram of utility model；
Fig. 6 is hopper control circuit module circuit diagram of the present utility model；
Fig. 7 is the electric control valve circuit diagram of utility model；
Fig. 8 is electricity-generating circuit module circuit diagram of the present utility model；
In figure is respectively numbered：1- screw, 2- electricity-generating circuit module, 3- battery, 4- circuit for alarming module, 5- single-chip microcomputer
Control module, 6- timing circuit module, 7- detection case, 8- electric control valve I, 9- spelter, 10- testing circuit module, 11- pumping electricity
Road module, 12- sewage conduct, 13- electric control valve II, 14- container case, 15- electric control valve III, 16- liquid level sensor, 17- material
Case control circuit module.
Specific embodiment
Embodiment 1：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described circuit for alarming module 4 includes resistance R1, resistance R2, resistance R3, resistance R4, resistance R5, resistance R6, amplifier
Fa1, electric capacity C1, electric capacity C2, loudspeaker V2, NE555 chip；Wherein one end of resistance R1, R2 and single chip control module 5 interface phase
Even, the other end of resistance R1 is connected with the in-phase input end of amplifier Fa1, and the other end of resistance R2 is anti-phase with amplifier Fa1's
Input is connected, and one end of resistance R3 is connected on resistance R2, and the other end of resistance R3 connects the output end of amplifier Fa1, electricity
Resistance R4 one end, resistance R4 one end is also connected with NE555 chip, and the resistance R4 other end connects resistance R5 one end, NE555 chip, resistance
The R5 other end connects NE555 chip, and electric capacity C2 one end is connected on loudspeaker V2, and the electric capacity C2 other end connects NE555 chip, electric capacity
C1 one end connects resistance R5, and the electric capacity C1 other end connects electric capacity C2, and resistance R6 one end is connected to loudspeaker V2 one end, and resistance R6 is another
End connects NE555 chip.
Described timing circuit module 6 includes electric capacity C13, electric capacity C14, crystal oscillator X, 80C51 single-chip microcomputer, amplifier
V1, resistance R7；Wherein crystal oscillator X and 80C51 single-chip microcomputer carry out in parallel, then are connected with electric capacity C13, electric capacity C14, shape
Become the circuit of a closure, one end of resistance R7 is connected with single chip control module 5 interface, the resistance R7 other end is mono- with 80C51
Piece machine interface is connected, and one end of amplifier V1 is connected with single chip control module 5 interface, and the amplifier V1 other end is mono- with 80C51
Piece machine interface is connected.
Described pumping circuit module 11 includes resistance R8, resistance R9, switch K5, relay coil P1, contactor coil P2；
Wherein one end of resistance R8 is connected with single chip control module 5 interface, and the other end of resistance R8 is connected with one end of switch K5, opens
The other end of K5 closing is connected with one end of relay coil P2, and relay coil P2 and contactor coil P1 is connected in parallel on circuit
In, the other end of relay coil P1 is connected with resistance R9, and the other end of resistance R9 is connected with single chip control module 5 interface.
Described testing circuit module 10 includes resistance R10, resistance R11, resistance R12, resistance R13, resistance R14, resistance
R15, amplifier L1, amplifier L2, AT89C51 chip；Wherein resistance R11 one end is connected with single chip control module 5 interface, electricity
On another in-phase input end terminating at amplifier L1 of resistance R11, one end of resistance R12 is connected with resistance R11, and resistance R12 is another
Terminate on the inverting input of amplifier L1, resistance R13 one end is connected with single chip control module 5 interface, and resistance R13 is another
Terminate on resistance R12, the in-phase input end of amplifier L2 is connected to one end of resistance R11, the inverting input of amplifier L2
It is connected on resistance R13, the output end of amplifier L2 is connected to resistance R15 one end, and the output end of amplifier L1 connects resistance R14
One end, the resistance R15 other end connects AT89C51 chip, and the resistance R14 other end connects AT89C51 chip.
Described hopper control circuit module 17 includes amplifier OP1, resistance R16, electric capacity C3, electric capacity C4, electric capacity C5, electric capacity
C6, electric capacity C7, electric capacity C8, electric capacity Cx, electric capacity C9, electric capacity C10, switch K1, switch K2, switch K3, switch K4；Wherein electric capacity
C8, C9 one end is grounded, another termination capacitor Cx of electric capacity C8, C9 one end, switch K3 one end ground connection, and electric capacity C3 one end is grounded, electric capacity
C3 another termination switch K3 other end, electric capacity Cx one end, switch K4 one end is connected with single chip control module 5 interface, switchs K4
Another terminate on electric capacity C4, one end of electric capacity C4 ground connection, the another of electric capacity C4 terminates at electric capacity Cx one end, and switch K1 mono- terminates
Ground, switch K1 is another to be terminated on switch K2, and electric capacity C10 one end is grounded, and electric capacity C10 is another to be terminated on switch K2, electric capacity C5
One end is connected on switch K2, and electric capacity C5 is another to be terminated on the in-phase input end of amplifier OP1, and electric capacity C7 and resistance R16 is carried out
One end in parallel is linked into the output of amplifier OP1, and the other end is connected with one end of electric capacity C6, switch K2, and electric capacity C6's is another
One end is connected to the inverting input of amplifier OP1.
Described electric control valve I 8, electric control valve II 13, electric control valve III 15 structure are identical, and wherein electric control valve I 8 includes electricity
Resistance R17, resistance R18, resistance R19, resistance R20, resistance R21, electric capacity C11, resistor Y1, electric capacity C12, TS555CN chip；Its
Middle resistance R17 one end is connected with single chip control module 5 interface, and the resistance R17 other end is connected with resistor Y1, and resistor Y1 is also
It is connected with resistance R18, TS555CN chip interface, one end of electric capacity C11 is connected on TS555CN chip interface, and electric capacity C11 is another
One end is connected on electric capacity C12, and one end of electric capacity C12 connects resistance R20 one end, and the C12 other end connects electric capacity C11, resistance R20 mono-
End is also connected with TS555CN chip interface, and the resistance R20 other end connects TS555CN chip interface, and one end of resistance R21 is connected to
At resistance R20, the resistance R21 other end connects resistance R19 one end, and one end of resistance R18 connects TS555CN chip interface, R18's
The other end is connected to TS555CN chip interface, and the resistance R19 other end is connect with single chip control module 5 interface, TS555CN chip
Mouthful.
Described electricity-generating circuit module 2 includes resistance R22, resistance R23, resistance R24, resistance R25, electric capacity C15, diode
D1, diode D2, diode D3, diode D4, diode D5, diode D6, diode D7, diode D8, diode D9,
89C51 single-chip microcomputer；Wherein one end of resistance R22, one end of resistance R24, the positive pole of diode D1, the negative pole of diode D5 all connect
In resistance R23 end, the other end of resistance R22 is connected with diode D2 positive pole, diode D6 negative pole, the resistance R23 other end
It is connected with diode D3 positive pole, diode D7 negative pole, the other end of resistance R24 and diode D4 positive pole, diode D8 negative pole phase
Even, the positive pole of diode D1 is connected with the negative pole of diode D5, the negative pole of diode D1 respectively with diode D2, D3, D4 negative pole
It is connected, the positive pole of diode D5 connects the positive pole of diode D6, D7, D8,5 points of 89C51 single-chip microcomputer, single chip control module respectively
It is not connected with the negative pole of diode D3, resistance R25 one end is connected at electric capacity C15, the resistance R25 other end and diode D4 negative pole
Connect, the negative pole of diode D9 is connected at electric capacity C15, and the positive pole of diode D9 is connected with 89C51 interface microcontroller, electric capacity
C15 is also connected with the interface of 89C51 single-chip microcomputer, and 89C51 interface microcontroller is connected with the positive pole of diode D7, and diode D7 is just
Pole is also connected with single chip control module 5 interface, and the negative pole of diode D8 connects the positive pole of D4, and diode D7 negative pole is just connecting D3
Pole, diode D6 negative pole connects D2 positive pole.
Embodiment 2：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described circuit for alarming module 4 includes resistance R1, resistance R2, resistance R3, resistance R4, resistance R5, resistance R6, amplifier
Fa1, electric capacity C1, electric capacity C2, loudspeaker V2, NE555 chip；Wherein one end of resistance R1, R2 and single chip control module 5 interface phase
Even, the other end of resistance R1 is connected with the in-phase input end of amplifier Fa1, and the other end of resistance R2 is anti-phase with amplifier Fa1's
Input is connected, and one end of resistance R3 is connected on resistance R2, and the other end of resistance R3 connects the output end of amplifier Fa1, electricity
Resistance R4 one end, resistance R4 one end is also connected with NE555 chip, and the resistance R4 other end connects resistance R5 one end, NE555 chip, resistance
The R5 other end connects NE555 chip, and electric capacity C2 one end is connected on loudspeaker V2, and the electric capacity C2 other end connects NE555 chip, electric capacity
C1 one end connects resistance R5, and the electric capacity C1 other end connects electric capacity C2, and resistance R6 one end is connected to loudspeaker V2 one end, and resistance R6 is another
End connects NE555 chip.
Embodiment 3：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described timing circuit module 6 includes electric capacity C13, electric capacity C14, crystal oscillator X, 80C51 single-chip microcomputer, amplifier
V1, resistance R7；Wherein crystal oscillator X and 80C51 single-chip microcomputer carry out in parallel, then are connected with electric capacity C13, electric capacity C14, shape
Become the circuit of a closure, one end of resistance R7 is connected with single chip control module 5 interface, the resistance R7 other end is mono- with 80C51
Piece machine interface is connected, and one end of amplifier V1 is connected with single chip control module 5 interface, and the amplifier V1 other end is mono- with 80C51
Piece machine interface is connected.
Embodiment 4：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described pumping circuit module 11 includes resistance R8, resistance R9, switch K5, relay coil P1, contactor coil P2；
Wherein one end of resistance R8 is connected with single chip control module 5 interface, and the other end of resistance R8 is connected with one end of switch K5, opens
The other end of K5 closing is connected with one end of relay coil P2, and relay coil P2 and contactor coil P1 is connected in parallel on circuit
In, the other end of relay coil P1 is connected with resistance R9, and the other end of resistance R9 is connected with single chip control module 5 interface.
Embodiment 5：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described testing circuit module 10 includes resistance R10, resistance R11, resistance R12, resistance R13, resistance R14, resistance
R15, amplifier L1, amplifier L2, AT89C51 chip；Wherein resistance R11 one end is connected with single chip control module 5 interface, electricity
On another in-phase input end terminating at amplifier L1 of resistance R11, one end of resistance R12 is connected with resistance R11, and resistance R12 is another
Terminate on the inverting input of amplifier L1, resistance R13 one end is connected with single chip control module 5 interface, and resistance R13 is another
Terminate on resistance R12, the in-phase input end of amplifier L2 is connected to one end of resistance R11, the inverting input of amplifier L2
It is connected on resistance R13, the output end of amplifier L2 is connected to resistance R15 one end, and the output end of amplifier L1 connects resistance R14
One end, the resistance R15 other end connects AT89C51 chip, and the resistance R14 other end connects AT89C51 chip.
Embodiment 6：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described hopper control circuit module 17 includes amplifier OP1, resistance R16, electric capacity C3, electric capacity C4, electric capacity C5, electric capacity
C6, electric capacity C7, electric capacity C8, electric capacity Cx, electric capacity C9, electric capacity C10, switch K1, switch K2, switch K3, switch K4；Wherein electric capacity
C8, C9 one end is grounded, another termination capacitor Cx of electric capacity C8, C9 one end, switch K3 one end ground connection, and electric capacity C3 one end is grounded, electric capacity
C3 another termination switch K3 other end, electric capacity Cx one end, switch K4 one end is connected with single chip control module 5 interface, switchs K4
Another terminate on electric capacity C4, one end of electric capacity C4 ground connection, the another of electric capacity C4 terminates at electric capacity Cx one end, and switch K1 mono- terminates
Ground, switch K1 is another to be terminated on switch K2, and electric capacity C10 one end is grounded, and electric capacity C10 is another to be terminated on switch K2, electric capacity C5
One end is connected on switch K2, and electric capacity C5 is another to be terminated on the in-phase input end of amplifier OP1, and electric capacity C7 and resistance R16 is carried out
One end in parallel is linked into the output of amplifier OP1, and the other end is connected with one end of electric capacity C6, switch K2, and electric capacity C6's is another
One end is connected to the inverting input of amplifier OP1.
Embodiment 7：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described electric control valve I 8, electric control valve II 13, electric control valve III 15 structure are identical, and wherein electric control valve I 8 includes electricity
Resistance R17, resistance R18, resistance R19, resistance R20, resistance R21, electric capacity C11, resistor Y1, electric capacity C12, TS555CN chip；Its
Middle resistance R17 one end is connected with single chip control module 5 interface, and the resistance R17 other end is connected with resistor Y1, and resistor Y1 is also
It is connected with resistance R18, TS555CN chip interface, one end of electric capacity C11 is connected on TS555CN chip interface, and electric capacity C11 is another
One end is connected on electric capacity C12, and one end of electric capacity C12 connects resistance R20 one end, and the C12 other end connects electric capacity C11, resistance R20 mono-
End is also connected with TS555CN chip interface, and the resistance R20 other end connects TS555CN chip interface, and one end of resistance R21 is connected to
At resistance R20, the resistance R21 other end connects resistance R19 one end, and one end of resistance R18 connects TS555CN chip interface, R18's
The other end is connected to TS555CN chip interface, and the resistance R19 other end is connect with single chip control module 5 interface, TS555CN chip
Mouthful.
Embodiment 8：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Described electricity-generating circuit module 2 includes resistance R22, resistance R23, resistance R24, resistance R25, electric capacity C15, diode
D1, diode D2, diode D3, diode D4, diode D5, diode D6, diode D7, diode D8, diode D9,
89C51 single-chip microcomputer；Wherein one end of resistance R22, one end of resistance R24, the positive pole of diode D1, the negative pole of diode D5 all connect
In resistance R23 end, the other end of resistance R22 is connected with diode D2 positive pole, diode D6 negative pole, the resistance R23 other end
It is connected with diode D3 positive pole, diode D7 negative pole, the other end of resistance R24 and diode D4 positive pole, diode D8 negative pole phase
Even, the positive pole of diode D1 is connected with the negative pole of diode D5, the negative pole of diode D1 respectively with diode D2, D3, D4 negative pole
It is connected, the positive pole of diode D5 connects the positive pole of diode D6, D7, D8,5 points of 89C51 single-chip microcomputer, single chip control module respectively
It is not connected with the negative pole of diode D3, resistance R25 one end is connected at electric capacity C15, the resistance R25 other end and diode D4 negative pole
Connect, the negative pole of diode D9 is connected at electric capacity C15, and the positive pole of diode D9 is connected with 89C51 interface microcontroller, electric capacity
C15 is also connected with the interface of 89C51 single-chip microcomputer, and 89C51 interface microcontroller is connected with the positive pole of diode D7, and diode D7 is just
Pole is also connected with single chip control module 5 interface, and the negative pole of diode D8 connects the positive pole of D4, and diode D7 negative pole is just connecting D3
Pole, diode D6 negative pole connects D2 positive pole.
Embodiment 9：As shown in figures 1-8, in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment, including
Screw 1, electricity-generating circuit module 2, battery 3, circuit for alarming module 4, single chip control module 5, timing circuit module 6, inspection
Measuring tank 7, electric control valve I 8, spelter 9, testing circuit module 10, pumping circuit module 11, sewage conduct 12, electric control valve II 13,
Container case 14, electric control valve III 15, liquid level sensor 16, hopper control circuit module 17；
Wherein electricity-generating circuit module 2 is connected with screw 1, battery 3 respectively, single chip control module 5 respectively with electric power storage
Pond 3, circuit for alarming module 4, timing circuit module 6, electric control valve I 8, testing circuit module 10, pumping circuit module 11, automatically controlled
Valve II 13, electric control valve III 15 are connected with hopper control circuit module 17, sewage conduct 12 connecting detection case 7；Testing circuit
Module 10 connecting detection case 7, spelter 9 respectively, is electrolysed spelter 9 by anode voltammetry and produces current signal；Hopper control circuit
Module 17 is connected with container case 14, liquid level sensor 16 respectively, the liquid level of the solution in liquid level sensor 16 detection container case 14
Change, and transmit a signal at hopper control circuit module 17.
Above in conjunction with figure, specific embodiment of the present utility model is explained in detail, but the utility model does not limit
In above-mentioned embodiment, in the ken that those of ordinary skill in the art possess, can also be new without departing from this practicality
On the premise of type objective, various changes can be made.
Claims (8)
1. in a kind of sewage arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：Including screw（1）、
Electricity-generating circuit module（2）, battery（3）, circuit for alarming module（4）, single chip control module（5）, timing circuit module（6）、
Detection case（7）, electric control valve I（8）, spelter（9）, testing circuit module（10）, pumping circuit module（11）, sewage conduct
（12）, electric control valve II（13）, container case（14）, electric control valve III（15）, liquid level sensor（16）, hopper control circuit module
（17）；
Wherein electricity-generating circuit module（2）Respectively with screw（1）, battery（3）It is connected, single chip control module（5）Respectively with
Battery（3）, circuit for alarming module（4）, timing circuit module（6）, electric control valve I（8）, testing circuit module（10）, pumping
Circuit module（11）, electric control valve II（13）, electric control valve III（15）With hopper control circuit module（17）It is connected, sewage conduct
（12）Connecting detection case（7）；Testing circuit module（10）Connecting detection case respectively（7）, spelter（9）, by anode voltammetry electricity
Solution spelter（9）Produce current signal；Hopper control circuit module（17）Respectively with container case（14）, liquid level sensor（16）Even
Connect, liquid level sensor（16）Detection container case（14）The liquid level change of interior solution, and transmit a signal to hopper control circuit mould
Block（17）Place.
2. in sewage according to claim 1 arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：
Described circuit for alarming module（4）Including resistance R1, resistance R2, resistance R3, resistance R4, resistance R5, resistance R6, amplifier Fa1, electricity
Hold C1, electric capacity C2, loudspeaker V2, NE555 chip；Wherein one end of resistance R1, R2 and single chip control module（5）Interface is connected,
The other end of resistance R1 is connected with the in-phase input end of amplifier Fa1, the anti-phase input of the other end of resistance R2 and amplifier Fa1
End is connected, and one end of resistance R3 is connected on resistance R2, and the other end of resistance R3 connects the output end of amplifier Fa1, resistance R4
One end, resistance R4 one end is also connected with NE555 chip, and the resistance R4 other end connects resistance R5 one end, NE555 chip, and resistance R5 is another
One end connects NE555 chip, and electric capacity C2 one end is connected on loudspeaker V2, and the electric capacity C2 other end connects NE555 chip, electric capacity C1 mono-
End connects resistance R5, and the electric capacity C1 other end connects electric capacity C2, and resistance R6 one end is connected to loudspeaker V2 one end, and the resistance R6 other end is even
Connect NE555 chip.
3. in sewage according to claim 1 arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：
Described timing circuit module（6）Including electric capacity C13, electric capacity C14, crystal oscillator X, 80C51 single-chip microcomputer, amplifier V1, resistance
R7；Wherein crystal oscillator X and 80C51 single-chip microcomputer carry out in parallel, then are connected with electric capacity C13, electric capacity C14, form one
Circuit, one end of resistance R7 and the single chip control module of closure（5）Interface is connected, the resistance R7 other end and 80C51 single-chip microcomputer
Interface is connected, one end of amplifier V1 and single chip control module（5）Interface is connected, the amplifier V1 other end and 80C51 monolithic
Machine interface is connected.
4. in sewage according to claim 1 arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：
Described pumping circuit module（11）Including resistance R8, resistance R9, switch K5, relay coil P1, contactor coil P2；Wherein electricity
One end of resistance R8 and single chip control module（5）Interface is connected, and the other end of resistance R8 is connected with one end of switch K5, switch
The other end of K5 is connected with one end of relay coil P2, and relay coil P2 is in parallel with contactor coil P1 in circuit, continues
The other end of electric apparatus coil P1 is connected with resistance R9, the other end of resistance R9 and single chip control module（5）Interface is connected.
5. in sewage according to claim 1 arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：
Described testing circuit module（10）Including resistance R10, resistance R11, resistance R12, resistance R13, resistance R14, resistance R15, amplification
Device L1, amplifier L2, AT89C51 chip；Wherein resistance R11 one end and single chip control module（5）Interface is connected, resistance R11
On another in-phase input end terminating at amplifier L1, one end of resistance R12 is connected with resistance R11, and resistance R12 is another to be terminated at
On the inverting input of amplifier L1, resistance R13 one end and single chip control module（5）Interface is connected, another termination of resistance R13
On resistance R12, the in-phase input end of amplifier L2 is connected to one end of resistance R11, and the inverting input of amplifier L2 connects
On resistance R13, the output end of amplifier L2 is connected to resistance R15 one end, and the output end of amplifier L1 connects resistance R14 mono-
End, the resistance R15 other end connects AT89C51 chip, and the resistance R14 other end connects AT89C51 chip.
6. in sewage according to claim 1 arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：
Described hopper control circuit module（17）Including amplifier OP1, resistance R16, electric capacity C3, electric capacity C4, electric capacity C5, electric capacity C6, electricity
Hold C7, electric capacity C8, electric capacity Cx, electric capacity C9, electric capacity C10, switch K1, switch K2, switch K3, switch K4；Wherein electric capacity C8, C9 mono-
End ground connection, another termination capacitor Cx of electric capacity C8, C9 one end, switch K3 one end ground connection, electric capacity C3 one end is grounded, the electric capacity C3 other end
Connect the switch K3 other end, electric capacity Cx one end, switch K4 one end and single chip control module（5）Interface connects, and switchs the K4 other end
It is connected on electric capacity C4, one end ground connection of electric capacity C4, the another of electric capacity C4 terminates at electric capacity Cx one end, switch K1 one end ground connection, opens
Close another terminating at of K1 and switch on K2, electric capacity C10 one end is grounded, electric capacity C10 is another to be terminated on switch K2, and electric capacity C5 mono- terminates
On switch K2, electric capacity C5 is another to be terminated on the in-phase input end of amplifier OP1, and electric capacity C7 and resistance R16 carries out in parallel one
End is linked into the output of amplifier OP1, and the other end is connected with one end of electric capacity C6, switch K2, and the other end of electric capacity C6 is even
It is connected on the inverting input of amplifier OP1.
7. in sewage according to claim 1 arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：
Described electric control valve I（8）, electric control valve II（13）, electric control valve III（15）Structure is identical, wherein electric control valve I（8）Including electricity
Resistance R17, resistance R18, resistance R19, resistance R20, resistance R21, electric capacity C11, resistor Y1, electric capacity C12, TS555CN chip；Its
Middle resistance R17 one end and single chip control module（5）Interface connects, and the resistance R17 other end is connected with resistor Y1, resistor Y1
Also it is connected with resistance R18, TS555CN chip interface, one end of electric capacity C11 is connected on TS555CN chip interface, electric capacity C11
The other end is connected on electric capacity C12, and one end of electric capacity C12 connects resistance R20 one end, and the C12 other end connects electric capacity C11, resistance R20
One end is also connected with TS555CN chip interface, and the resistance R20 other end connects TS555CN chip interface, and one end of resistance R21 connects
At resistance R20, the resistance R21 other end connects resistance R19 one end, and one end of resistance R18 connects TS555CN chip interface, R18
The other end be connected to TS555CN chip interface, the resistance R19 other end and single chip control module（5）Interface, TS555CN core
Piece interface.
8. in sewage according to claim 1 arsenic ion concentration over-standard real-time processing embedded equipment it is characterised in that：
Described electricity-generating circuit module（2）Including resistance R22, resistance R23, resistance R24, resistance R25, electric capacity C15, diode D1, two poles
Pipe D2, diode D3, diode D4, diode D5, diode D6, diode D7, diode D8, diode D9,89C51 monolithic
Machine；Wherein one end of resistance R22, one end of resistance R24, the positive pole of diode D1, the negative pole of diode D5 are all connected on resistance R23
End, the other end of resistance R22 is connected with diode D2 positive pole, diode D6 negative pole, the resistance R23 other end and diode D3
Positive pole, diode D7 negative pole are connected, and the other end of resistance R24 is connected with diode D4 positive pole, diode D8 negative pole, diode D1
Positive pole be connected with the negative pole of diode D5, the negative pole of diode D1 is connected with diode D2, D3, D4 negative pole respectively, diode
The positive pole of D5 connects the positive pole of diode D6, D7, D8,89C51 single-chip microcomputer, single chip control module respectively（5）Respectively with two poles
The negative pole of pipe D3 connects, and resistance R25 one end is connected at electric capacity C15, and the resistance R25 other end is connected with diode D4 negative pole, and two
The negative pole of pole pipe D9 is connected at electric capacity C15, and the positive pole of diode D9 is connected with 89C51 interface microcontroller, electric capacity C15 also with
The interface of 89C51 single-chip microcomputer connects, and 89C51 interface microcontroller is connected with the positive pole of diode D7, the positive pole of diode D7 also with
Single chip control module（5）Interface is connected, and the negative pole of diode D8 connects the positive pole of D4, and diode D7 negative pole connects D3 positive pole,
Diode D6 negative pole connects D2 positive pole.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201620830311.5U CN205942329U (en) | 2016-08-03 | 2016-08-03 | Arsenic ion concentration real -time processing's embedded device that exceeds standard in sewage |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201620830311.5U CN205942329U (en) | 2016-08-03 | 2016-08-03 | Arsenic ion concentration real -time processing's embedded device that exceeds standard in sewage |
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| CN205942329U true CN205942329U (en) | 2017-02-08 |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN106125619A (en) * | 2016-08-03 | 2016-11-16 | 昆明理工大学 | The embedded equipment that in a kind of sewage, arsenic ion concentration over-standard processes in real time |
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Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN106125619A (en) * | 2016-08-03 | 2016-11-16 | 昆明理工大学 | The embedded equipment that in a kind of sewage, arsenic ion concentration over-standard processes in real time |
| CN106125619B (en) * | 2016-08-03 | 2018-10-02 | 昆明理工大学 | The embedded equipment that arsenic ion concentration over-standard is handled in real time in a kind of sewage |
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| CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20170208 Termination date: 20180803 |