True-type anti-electricity-stealing practical training device

Abstract

The invention provides a real-type anti-electricity-stealing practical training device. The real-type anti-electricity-stealing practical training device comprises a power box and a line electricity-stealing simulation module, the power box is used for carrying out power supply control on the electricity utilization of the user; the line electricity stealing simulation module comprises a general meter concentrator simulation module, a straight-through meter type metering box simulation module, a mutual inductor type metering box simulation module and a single-phase metering box simulation module, and covers a three-phase straight-through metering box, a three-phase mutual inductor type metering box and a single-phase metering box; line electricity stealing points are arranged at different positions of the metering box. The real-type anti-electricity-stealing practical training device is used for simulating various electricity stealing modes, restoring live-action electricity stealing of a real site and checking the closed-loop process of anti-electricity-stealing checking and illegal processing, the ability of anti-electricity-stealing checking personnel to analyze and judge electricity stealing abnormities is improved, the ability of processing electricity stealing and defaulted electricity utilization is improved, and the purposes that trainees are trained to combat actually and come into work immediately are achieved.

Description

Technical Field

[0001] The invention relates to an anti-electricity theft simulation training device for power users, in particular to a real anti-electricity theft training device. Background Art

[0002] The problem of electricity theft has long been a "headache" that has troubled the power supply department. It is not only hated by power supply companies, but also seriously affects the stability and harmony of society. In order to prevent electricity theft, power supply companies have adopted a variety of measures, which have played some role, but the effect is minimal. Driven by economic interests, electricity thieves rack their brains and find ways to steal electricity, which not only increases the difficulty of anti-electricity theft work, but also brings challenges.

[0003] Therefore, mastering anti-electricity theft technology is one of the main means of anti-electricity theft training. The traditional anti-electricity theft training content is outdated, the training methods are single, and the training is mainly carried out in the form of traditional preaching and electricity theft case explanation training, which has little effect and is no longer suitable for the needs of modern power grids.

[0004] There are also some anti-electricity theft training devices, such as the Chinese invention patent application with application publication number CN 110009959 A, which provides an all-purpose power supply station training operating system and its anti-electricity theft training circuit. By setting the wiring mode of multiple electric energy meters in the anti-electricity theft training circuit, it can simulate various electric theft methods in the low-voltage power distribution system, so that the trainees of the substation can learn various electric theft principles and the actual circuit structure of electric theft more intuitively. However, the training content provided by the anti-electricity theft training device only includes two-household joint electric theft, zero-fire reverse connection electric theft, and simulated remote control electric theft. The types of electric theft cannot meet the requirements of anti-electricity theft technical training.

[0005] In order to solve the above problems, people have been seeking an ideal anti-electricity theft solution. Summary of the invention

[0006] The purpose of the present invention is to provide a real anti-electricity theft training device to address the deficiencies of the existing anti-electricity theft technology.

[0007] In order to achieve the above object, the technical solution adopted by the present invention is: A real anti-electricity theft training device, comprising a power supply box and a line electricity theft simulation module; The power supply box is used to supply power to the line power stealing simulation module; The line electricity theft simulation module includes a total meter concentrator simulation module, a through meter type meter box simulation module, a mutual inductor type meter box simulation module and a single-phase meter box simulation module; The total meter concentrator simulation module includes a secondary cable electricity theft simulation module connected to the power box, a joint junction box electricity theft simulation module connected to the secondary cable electricity theft simulation module, a meter tail electricity theft simulation module connected to the joint junction box electricity theft simulation module, and a total meter concentrator connected to the meter tail electricity theft simulation modules respectively; The through-meter meter box simulation module includes a meter tail power theft simulation module connected to the power box, a three-phase through-type simulation meter connected to the meter tail power theft simulation module, and a three-phase through-type load simulation module connected to the three-phase through-type simulation meter; The mutual inductor meter box simulation module includes a secondary cable electricity theft simulation module connected to the power box, a joint junction box electricity theft simulation module connected to the secondary cable electricity theft simulation module, a meter tail electricity theft simulation module connected to the joint junction box electricity theft simulation module, and a three-phase mutual inductance simulation meter connected to the meter tail electricity theft simulation module; and also includes a three-phase mutual inductance load simulation module and a three-phase line private connection electricity theft simulation module respectively connected to the power box; The single-phase meter box simulation module includes A-phase, B-phase, and C-phase single-phase meter box simulation modules; The A, B, and C phase single-phase meter box simulation modules all include 4 single-phase meter line electricity theft simulation modules, 4 single-phase meters, 4 single-phase load simulation modules, and 1 single-phase line private connection electricity theft simulation module; Each single-phase meter line electricity theft simulation module of the corresponding phase is respectively connected in series to the outgoing line terminal of the incoming line circuit breaker of the single-phase 12-meter meter box, the incoming and outgoing line terminals of a single-phase meter of the corresponding phase, and the incoming and outgoing line terminals of the outgoing line circuit breaker of the single-phase 12-meter meter box; Each single-phase load simulation module of the corresponding phase is connected in series between each single-phase meter of the corresponding phase and each single-phase meter line power theft simulation module.

[0008] Compared with the prior art, the present invention has outstanding substantive features and significant progress, specifically: The real anti-electricity theft training device provided by the present invention is used for anti-electricity theft technical training. By simulating and reproducing the common electricity theft types and electricity theft locations in on-site operations, the anti-electricity theft skills of electricity inspectors are trained and assessed, the technical analysis and judgment capabilities of anti-electricity theft personnel are improved, and the hands-on ability of anti-electricity theft personnel is enhanced, thereby achieving the purpose of anti-electricity theft skills training and assessment.

[0009] The present invention can truly reproduce the line theft, meter theft, user private connection theft, neutral line theft, etc. at different parts of the scene. The theft parts are independent and can be superimposed, which is convenient for practical operation training for beginners and intermediate and senior anti-theft inspectors. It can also be used to carry out anti-theft competitions and help power supply companies master the measurement, investigation and processing methods of anti-theft technology. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] Figure 1 It is a system block diagram of the present invention.

[0011] Figure 2 It is a wiring diagram of the meter tail electricity stealing simulation module of the present invention.

[0012] Figure 3 It is a wiring diagram of the electricity theft simulation module of the combined junction box of the present invention.

[0013] Figure 4 It is a wiring diagram of the secondary cable electricity theft simulation module of the present invention.

[0014] Figure 5 It is a wiring diagram of a three-phase inductive load simulation module of the present invention.

[0015] Figure 6 It is a wiring diagram of a three-phase direct-through load simulation module of the present invention.

[0016] Figure 7 It is a wiring diagram of a three-phase line privately connected electricity theft simulation module of the present invention.

[0017] Figure 8 It is a wiring diagram of a single-phase meter circuit electricity theft simulation module of the present invention.

[0018] Fig. 9 It is a wiring diagram of a single-phase load simulation module of the present invention.

[0019] Fig.10 It is a wiring diagram of a single-phase line privately connected electricity theft simulation module of the present invention. DETAILED DESCRIPTION

[0020] The technical solution of the present invention is further described in detail below through specific implementation methods.

[0021] like Figure 1 As shown, a real anti-electricity theft training device is characterized by: comprising a power supply box and a line electricity theft simulation module; The power supply box is used to supply power to the line power stealing simulation module; The line electricity theft simulation module includes a total meter concentrator simulation module, a through meter type meter box simulation module, a mutual inductor type meter box simulation module and a single-phase meter box simulation module; The total meter concentrator simulation module includes a secondary cable electricity theft simulation module connected to the power box, a joint junction box electricity theft simulation module connected to the secondary cable electricity theft simulation module, a meter tail electricity theft simulation module connected to the joint junction box electricity theft simulation module, and a total meter concentrator connected to the meter tail electricity theft simulation modules respectively; The through-meter meter box simulation module includes a meter tail power theft simulation module connected to the power box, a three-phase through-type simulation meter connected to the meter tail power theft simulation module, and a three-phase through-type load simulation module connected to the three-phase through-type simulation meter; The mutual inductor meter box simulation module includes a secondary cable electricity theft simulation module connected to the power box, a joint junction box electricity theft simulation module connected to the secondary cable electricity theft simulation module, a meter tail electricity theft simulation module connected to the joint junction box electricity theft simulation module, and a three-phase mutual inductance simulation meter connected to the meter tail electricity theft simulation module; and also includes a three-phase mutual inductance load simulation module and a three-phase line private connection electricity theft simulation module respectively connected to the power box; The single-phase meter box simulation module includes A-phase, B-phase, and C-phase single-phase meter box simulation modules; The A, B, and C phase single-phase meter box simulation modules all include 4 single-phase meter line electricity theft simulation modules, 4 single-phase meters, 4 single-phase load simulation modules, and 1 single-phase line private connection electricity theft simulation module; Each single-phase meter line electricity theft simulation module of the corresponding phase is respectively connected in series to the outgoing line terminal of the incoming line circuit breaker of the single-phase 12-meter meter box, the incoming and outgoing line terminals of a single-phase meter of the corresponding phase, and the incoming and outgoing line terminals of the outgoing line circuit breaker of the single-phase 12-meter meter box; Each single-phase load simulation module of the corresponding phase is connected in series between each single-phase meter of the corresponding phase and each single-phase meter line power theft simulation module.

[0022] The line electricity theft simulation module of this embodiment covers the total meter concentrator, three-phase direct-through meter box, three-phase mutual inductor meter box and single-phase meter box. By setting electricity theft points at different positions of each meter box, the real scene of electricity theft is restored.

[0023] Electricity stealing simulation at the end of the meter Specifically, the three-phase mutual inductor meter box, the direct meter box and the main meter concentrator are all provided with the meter tail electricity theft simulation module; The output end of the meter tail electricity theft simulation module in the three-phase mutual inductor meter box is connected to the meter tail of the three-phase electric energy meter in the three-phase mutual inductor meter box, and the input end of the meter tail electricity theft simulation module in the three-phase mutual inductor meter box is connected to the joint junction box; The output end of the meter tail electricity theft simulation module in the three-phase direct-type meter box is connected to the meter tail of the three-phase electric energy meter in the three-phase direct-type meter box, and the input end of the meter tail electricity theft simulation module of the three-phase direct-type meter box is connected to the incoming line circuit breaker of the three-phase direct-type meter box; The output end of the meter tail electricity stealing simulation module in the total meter concentrator is connected to the meter tail of the three-phase electric energy meter in the total meter concentrator, and the input end of the meter tail electricity stealing simulation module in the total meter concentrator is connected to the joint junction box.

[0024] like Figure 2 As shown (taking a three-phase direct-type meter box as an example, other meter boxes are the same), the meter tail power theft simulation module includes a meter tail power theft point set at the meter tail of the three-phase electric energy meter; The electricity stealing points at the end of the meter include: The current bypassing electricity theft point includes: relay contact switches Y06, Y16, and Y26 which are arranged on the incoming lines of each phase of the three-phase electric energy meter and are connected to the outgoing lines of the corresponding phases of the three-phase electric energy meter and are used to realize the current bypassing the electric energy meter to steal electricity; The current short-circuit electricity theft point includes: relay contact switches Y03, Y13, and Y23 connected to the incoming and outgoing lines of each phase of the three-phase electric energy meter and used to realize the current short-circuit electricity theft of the electric energy meter at the end of the meter; The current reverse polarity electricity stealing point includes: relay contact switches Y04, Y05, Y14, Y15, Y24, and Y25 which are arranged on each phase incoming line of the three-phase electric energy meter and are connected to the corresponding phase outgoing line of the three-phase electric energy meter, and are arranged on each phase outgoing line of the three-phase electric energy meter and are connected to the corresponding phase incoming line of the three-phase electric energy meter, and are used to realize the current reverse polarity electricity stealing of the electric energy meter; The voltage phase-off stealing point includes: relay contact switches Y01, Y11, and Y21 which are arranged on the incoming lines of each phase of the three-phase electric energy meter and are used to realize the voltage phase-off stealing of the electric energy meter at the end of the meter.

[0025] The electricity stealing point 1 realizes the current bypassing the electric energy meter and stealing electricity by controlling relays Y06, Y16, and Y26. The electricity stealing point 2 realizes the short-circuiting of the electric energy meter at the end of the meter and stealing electricity by controlling relays Y03, Y13, and Y23. The electricity stealing point 3 realizes the reverse polarity of the electric energy meter current and stealing electricity by controlling relays Y04, Y05, Y14, Y15, Y24, and Y25. The electricity stealing point 4 realizes the voltage phase-off stealing of the electric energy meter at the end of the meter by controlling relays Y01, Y11, and Y21. The three-phase electric energy meter at the end of the three-phase mutual inductor meter box is connected to the output end of the meter end line stealing simulation module, and the terminal on the joint junction box is connected to the input end of the meter end stealing simulation module; the three-phase electric energy meter at the end of the three-phase direct-type meter box is connected to the output end of the meter end line stealing simulation module, and the incoming line circuit breaker of the three-phase direct-type meter box is connected to the input end of the meter end stealing simulation module. Specifically, the total power of the load power resistors of the three-phase mutual inductor meter box and the three-phase direct-through meter box is 660W, and each phase can provide 1A current.

[0026] In some exemplary embodiments, the meter tail electricity stealing simulation module is also provided with a contactor KM01 for current open circuit protection.

[0027] Combined junction box power theft simulation The combined junction box electricity theft simulation module includes a combined junction box and a combined junction box electricity theft point module; The insulating cover on the back of the joint junction box is opened, the voltage and current terminals of the inlet and outlet lines are cut open in the middle for insulation treatment, and the voltage and current terminals on the back of the joint junction box are connected to the input and output ends of the power stealing point module of the joint junction box respectively with lead wires; like Figure 3 As shown, the combined junction box power stealing point module includes: Relays K1, K5, K9, and K13 are arranged on the three-phase four-voltage lines of the power stealing point module of the joint junction box for realizing voltage line protection; wherein the relays K1, K5, K9, and K13 are disconnected when the power stealing point is set to avoid on-load switching of the power stealing point; Relays K2, K6, and K10 are arranged on the three-phase voltage lines of the power stealing point module of the joint junction box and are used to simulate the power stealing of components in series; Relays K3, K7, K11 are arranged on the three-phase voltage line of the power stealing point module of the joint junction box and after the relays K2, K6, K10, and are used to realize the three-phase voltage phase-break power stealing; Relays K14, K15, and K16 are connected to the three-phase current input and output lines of the power stealing point module of the combined junction box and are used to realize three-phase current short-circuit power stealing.

[0028] By controlling relays K2, K6, and K10 to be energized, diodes are inserted in series in the three-phase voltage to achieve power theft by inserting components in series. By controlling relays K3, K7, and K11 to be energized, the three-phase voltage ABC in the joint junction box is controlled to be disconnected to steal power. By controlling relays K14, K15, and K16 to be energized, the three-phase current is controlled to be short-circuited to steal power.

[0029] Secondary cable power theft simulation The secondary cable power stealing simulation module includes a voltage line protection module, a voltage phase shift power stealing module, a series-connected component power stealing module, a voltage divider power stealing module, a secondary cable short-circuit power stealing module, a current phase sequence switching power stealing module, and a current shunt power stealing module; like Figure 4 As shown, the voltage line protection module includes: relays Y1, Y9, Y12, Y13, Y14, Y15, Y16, Y17, Y18, Y20, Y21, Y22, Y23, Y24, Y25, Y26, Y27, Y28, Y29, Y30, Y31, Y32, Y33, Y34, Y35, Y36, Y37, Y38, Y39, Y 17 , Y 25 ; The voltage phase-shifting power stealing module is arranged after the voltage line protection module and includes: The relays Y2 and Y3 are arranged on the A and B phase voltage lines of the secondary cable power stealing simulation module, and are connected to the B and A phase voltage lines to complete the phase shifting power stealing of the A phase voltage and the B phase voltage. 10 ; Relay Y is set on the B and C phase voltage lines of the secondary cable power stealing simulation module, and is connected to the C and B phase voltage lines to complete the phase shifting power stealing of the B phase voltage and the C phase voltage. 11 , Y 18 ; Relays Y3 and Y4 are arranged on the C and A phase voltage lines of the secondary cable power stealing simulation module, and are connected to the A and C phase voltage lines to complete the phase shifting power stealing of the C phase voltage and the A phase voltage. 19 ; The series-connected component power stealing module is arranged after the voltage phase-shift power stealing module and includes: The relays Y4 and Y5 are arranged on the three-phase voltage lines of the secondary cable power theft simulation module to simulate the power theft of components. 12 , Y 20 ; The voltage divider power stealing module is arranged after the serial component power stealing module, and comprises: A, B, C phase voltage dividers (voltage division 30%, 50%, 70%) respectively connected in series in the three-phase voltage loop; and Relays Y5, Y6, Y7, and Y8 are arranged in the A-phase voltage divider to simulate the A-phase voltage division power theft; Relay Y is set in the B phase voltage divider to simulate the B phase voltage division power theft 13 , Y 14 , Y 15 , Y 16 ; Relay Y is set in the C phase voltage divider to simulate the C phase voltage division power theft 21 , Y 22 , Y 23 , Y 24 ; The secondary cable short circuit electricity stealing module comprises: a relay Y connected to the three-phase current input and output lines of the secondary cable electricity stealing simulation module respectively, and used to simulate the secondary cable short circuit electricity stealing 26 , Y 27 , Y 28 ; The current phase sequence switching power stealing module is arranged after the secondary cable short-circuiting power stealing module, and comprises: Relays Y1#2 and Y11#2 are arranged on the A-phase and B-phase current incoming lines of the secondary cable power stealing simulation module and are connected to the B-phase and A-phase current incoming lines to complete the phase sequence switching of the A-phase incoming line current and the B-phase incoming line current power stealing; Relays Y12#2 and Y21#2 are arranged on the B-phase and C-phase current incoming lines of the secondary cable power stealing simulation module, and are connected to the C-phase and B-phase current incoming lines for completing the phase sequence switching of the B-phase incoming line current and the C-phase incoming line current power stealing; Relays Y22#2 and Y2#2 are arranged on the C and A phase current incoming lines of the secondary cable power stealing simulation module and are connected to the A and C phase current incoming lines to complete the phase sequence switching of the C phase incoming line current and the A phase incoming line current power stealing; Relays Y8#2 and Y18#2 are arranged on the A and B phase current output lines of the secondary cable power stealing simulation module and are connected to the B and A phase current output lines to complete the phase sequence switching of the A phase output line current and the B phase output line current power stealing; Relays Y19#2 and Y28#2 are arranged on the B and C phase current output lines of the secondary cable power theft simulation module and are connected to the C and B phase current output lines to complete the phase sequence switching of the B phase output line current and the C phase output line current power theft; Relays Y29#2 and Y9#2 are arranged on the C and A phase current output lines of the secondary cable power theft simulation module and are connected to the A and C phase current output lines to complete the phase sequence switching of the C phase output line current and the A phase output line current power theft; The current shunt electricity stealing module is arranged after the current phase sequence switching electricity stealing module, and comprises: A, B, C phase current shunts (shunting 30%, 50%, 70%) respectively connected in series to the three-phase current input and output lines; and Relays Y3#2, Y4#2, Y5#2, Y6#2, and Y7#2 are set in the A-phase current shunt to simulate the A-phase current shunt power theft; Relays Y13#2, Y14#2, Y15#2, Y16#2, and Y17#2 are set in the B-phase current shunt to simulate the B-phase current shunt power theft; Relays Y23#2, Y24#2, Y25#2, Y26#2, and Y27#2 are set in the C-phase current shunt to simulate the C-phase current shunt and electricity theft.

[0030] In the secondary cable power theft simulation, the A-phase voltage division power theft point (secondary cable power theft point 1) completes the A-phase voltage division by controlling relays Y5, Y6, Y7, Y8 and the A-phase voltage divider; The B phase voltage division and power stealing point (secondary cable power stealing point 1) is controlled by relay Y 13 , Y 14 , Y 15 , Y 16 and the B-phase voltage divider to complete the B-phase voltage division; The C phase voltage division and power stealing point (secondary cable power stealing point 1) is controlled by relay Y21 , Y 22 , Y 23 , Y 24 and the C-phase voltage divider to complete the C-phase voltage division; The phase-shifting power stealing point of phase A voltage and phase B voltage (secondary cable power stealing point 4) is controlled by relays Y2 and Y 10 Complete phase shifting of phase A voltage and phase B voltage; The phase-shifting power stealing point of the B-phase voltage and the C-phase voltage (secondary cable power stealing point 5) is controlled by the relay Y 11 , Y 18 Complete phase shifting of phase B voltage and phase C voltage; The phase-shifting power stealing point of phase C voltage and phase A voltage (secondary cable power stealing point 6) is controlled by relays Y3 and Y 19 Complete phase shifting of phase A voltage and phase C voltage; The power stealing point of the connected components (power stealing point 7 of the secondary cable) is controlled by relays Y4 and Y 12 , Y 20 Complete the three-phase voltage access diodes, Y1, Y9, Y 17 , Y 25 It is a voltage line protection relay that disconnects the load when switching power theft fault; The A-phase current shunt stealing point (secondary cable stealing point 8) completes the A-phase current shunt by controlling relays Y3#2, Y4#2, Y5#2, Y6#2, Y7#2 and the A-phase current shunt; The B-phase current shunt stealing point (secondary cable stealing point 9) completes the B-phase current shunt by controlling relays Y13#2, Y14#2, Y15#2, Y16#2, Y17#2 and the B-phase current shunt; The C-phase current shunt stealing point (secondary cable stealing point 10) completes the C-phase current shunt by controlling relays Y23#2, Y24#2, Y25#2, Y26#2, Y27#2 and the C-phase current shunt; The secondary cable short-circuit stealing point (secondary cable stealing point 11) is controlled by relay Y 26 , Y 27 , Y 28 Complete the short-circuiting of three-phase secondary cables respectively; The AB phase line current phase sequence switching power stealing point (secondary cable power stealing point 12) switches between Ia+ and Ib+ by controlling relays Y1#2 and Y11#2, and Y8#2 and Y18#2 relays switch between Ia- and Ib- phase sequence; The BC phase line current phase sequence switching power stealing point (secondary cable power stealing point 13) switches between Ib+ and Ic+ by controlling relays Y12#2 and Y21#2, and Y19#2 and Y28#2 relays switch between Ib- and Ic- phase sequence; The AC phase line current phase sequence switching power stealing point (secondary cable power stealing point 14) switches between Ia+ and Ic+ phase sequences by controlling relays Y2#2 and Y22#2, and switches between Ia- and Ic- phase sequences by controlling relays Y9#2 and Y29#2.

[0031] Three-phase inductive load simulation The three-phase inductive load simulation module includes a first resistive load simulation module, a first inductive load simulation module, a first capacitive load simulation module, and an AC contactor KM1-1 for controlling the three-phase inductive simulation meter to access the three-phase inductive load simulation module; like Figure 5 As shown, the first resistive load simulation module includes: Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-1 and the load resistor R1-1 connected in series in sequence; Connected to the B-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-2 and the load resistor R1-2 connected in series in sequence; Connected to the C-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-3 and the load resistor R1-3 connected in series in sequence; The first inductive load simulation module includes: Connected to the A-phase voltage line of the three-phase inductive load simulation module, and connected in series with the relay Y1-4 and the load inductor L1-1; Connected to the B-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-5 and the load inductor L1-2 connected in series in sequence; Connected to the C-phase voltage line of the three-phase inductive load simulation module, and connected in series with the relay Y1-6 and the load inductor L1-3; The first capacitive load simulation module comprises: Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-7 and the anti-inrush current resistor R1-10 connected in series in sequence; Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-8 and the anti-shock current resistor R1-11 connected in series in sequence; Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-9 and the anti-shock current resistor R1-12 connected in series in sequence; Capacitors C11 to C13 connected to the three-phase voltage line after the surge current resistance R1-11, R1-11, R1-12 in a triangle connection; The discharge resistors R41 to R49 are connected to the three-phase voltage lines after the anti-inrush current resistors R1-11, R1-11, and R1-12 in a triangle connection manner.

[0032] The load resistor R1-1 and the relay Y1-1 are the A-phase resistive load, the load resistor R1-2 and the relay Y1-2 are the B-phase resistive load, and the load resistor R1-3 and the relay Y1-3 are the C-phase resistive load; Inductor L1-1 and relay Y1-4 are the inductive loads of phase A, inductor L1-2 and relay Y1-5 are the inductive loads of phase B, and inductor L1-3 and relay Y1-6 are the inductive loads of phase C; Capacitor C11, anti-shock current resistor R1-10, discharge resistor R41-R43 and relay Y1-7 are A compatibility loads, capacitor C12, anti-shock current resistor R1-11, discharge resistor R44-R46 and relay Y1-8 are B compatibility loads, capacitor C13, anti-shock resistor R1-12, discharge resistor R47-R49 and relay Y1-9 are C compatibility loads; The AC contactor KM1-1 is controlled by relay Y1-10. When switching between loads, the AC contactor KM1-1 is disconnected first, and then closed after the switching is completed. The cooling fan power supply is connected in parallel with the AC contactor KM1-1 coil. When the load is connected, the fan starts to dissipate heat. Each phase load can be independently set as inductive, capacitive or resistive load without affecting each other.

[0033] Simulation of private connection of three-phase lines to steal electricity The three-phase line private connection and electricity theft simulation module includes a resistive private connection load simulation module and an AC contactor KM2 for controlling the three-phase phase inductive simulation meter to access the three-phase line private connection and electricity theft simulation module; it is used to simulate the private connection of the line trunk line to steal electricity, the private household stealing the total meter electricity, and can arbitrarily control the private connection trunk line ABC phases to draw electricity.

[0034] like Figure 7 As shown, the resistive private load simulation module includes: Connected to the A-phase voltage line of the three-phase line private power theft simulation module, and the relay Y1-11 and the load resistor R4 connected in series in sequence; Connected to the B-phase voltage line of the three-phase line private power theft simulation module, and the relay Y1-12 and the load resistor R5 connected in series in sequence; It is connected to the C-phase voltage line of the three-phase line private power theft simulation module, and is connected in series with the relay Y1-13 and the load resistor R6.

[0035] The load resistor R4 and the relay Y1-11 are the A-phase privately connected loads, the load resistor R5 and the relay Y1-12 are the B-phase privately connected loads, the load resistor R6 and the relay Y1-13 are the C-phase privately connected loads, and the KM2 is an AC contactor, which is controlled by the relay Y1-14. The AC contactor KM2 is disconnected first, and then the corresponding resistors R4-R6 are connected and then the AC contactor KM2 is closed. The cooling fan power supply is connected in parallel with the AC contactor KM2 coil package. When the load resistors R4-R6 are connected, the fan starts to dissipate heat.

[0036] Three-phase direct load simulation The three-phase direct-type load simulation module includes a second resistive load simulation module, a second inductive load simulation module, a second capacitive load simulation module, and an AC contactor KM1-2 for controlling the three-phase direct-type simulation meter to access the three-phase direct-type load simulation module; like Figure 6 As shown, the second resistive load simulation module includes: Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-1 and the load resistor R2-1 connected in series in sequence; Connected to the B-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-2 and the load resistor R2-2 connected in series in sequence; Connected to the C-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-3 and the load resistor R2-3 connected in series in sequence; The second inductive load simulation module includes: Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and connected in series with the relay Y2-4 and the load inductor L2-1; Connected to the B-phase voltage line of the three-phase direct-type load simulation module, and connected in series with the relay Y2-5 and the load inductor L2-2; Connected to the C-phase voltage line of the three-phase direct-type load simulation module, and connected in series with the relay Y2-6 and the load inductor L2-3; The second capacitive load simulation module comprises: Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-7 and the anti-inrush current resistor R2-10 connected in series in sequence; Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-8 and the anti-inrush current resistor R2-11 connected in series in sequence; Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-9 and the anti-inrush current resistor R2-12 connected in series in sequence; Capacitors C21 to C23 connected to the three-phase voltage line after the surge current resistance resistors R2-11, R2-11, and R2-12 in a triangle connection; The discharge resistors R41' to R49' are connected to the three-phase voltage lines after the anti-inrush current resistors R2-11, R2-11, and R2-12 in a triangle connection manner.

[0037] The load resistor R2-1 and relay Y2-1 are A-phase resistive loads, the load resistor R2-2 and relay Y2-2 are B-phase resistive loads, and the load resistor R2-3 and relay Y2-3 are C-phase resistive loads; the inductor L2-1 and relay Y2-4 are A-phase inductive loads, the inductor L2-2 and relay Y2-5 are B-phase inductive loads, and the inductor L2-3 and relay Y2-6 are C-phase inductive loads; the capacitor C21, the anti-inrush current resistor R2-10, the discharge resistor R41'-R43' and the relay Y2-7 are A-phase compatible loads, the capacitor C22, The anti-impact current resistor R2-11, the discharge resistor R44'-R46' and the relay Y2-8 are B compatible loads, and the capacitor C23, the anti-impact resistor R2-12, the discharge resistor R47'-49' and the relay Y2-9 are C compatible loads; the AC contactor KM1-2 is controlled by the relay Y2-10; when switching between resistive loads, the AC contactor KM1-2 is disconnected first, and then the AC contactor KM1-2 is closed after the conversion is completed. The cooling fan power supply is connected in parallel with the AC contactor KM1-2 coil package, and the fan starts to dissipate heat when the resistive load is connected. Each phase load can be independently set to inductive, capacitive or resistive load without affecting each other.

[0038] Single-phase meter line power theft simulation Each single-phase meter line electricity theft simulation module of phases A, B, and C includes: The first and seventh relays are connected in series between the No. 1 terminal of the single-phase meter and the live wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box, and the first relay is also connected to the neutral wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box; A third relay connected in series between the No. 2 terminal of the single-phase meter and the live wire inlet terminal of the outgoing line circuit breaker of the single-phase 12-position meter box, and the third relay is also connected to the No. 4 terminal of the single-phase meter; The second and eighth relays are connected in series between the No. 3 terminal of the single-phase meter and the live wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box, and the second relay is also connected to the neutral wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box; A fourth relay connected in series between terminal No. 4 of the single-phase meter and the neutral line inlet terminal of the outlet circuit breaker of the single-phase 12-position meter box, and the fourth relay is also connected to terminal No. 2 of the single-phase meter; a tenth relay connected in series between the connection point between the seventh relay and the first relay and terminal No. 2 of the single-phase meter; A fifth relay connected in series between the live wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box and the live wire inlet terminal of the outgoing line circuit breaker of the single-phase 12-meter meter box; A sixth relay connected in series between the neutral line outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box and the neutral line inlet terminal of the outgoing line circuit breaker of the single-phase 12-meter meter box; Installed on the neutral line of the outgoing circuit breaker of the single-phase 12-meter meter box, as the ninth relay of the neutral line connection and household electricity theft control relay; The ninth relay of each single-phase meter line electricity theft simulation module of phase A is connected to the zero line outlet terminal of the outlet circuit breaker of the single-phase 12-meter meter box of a single-phase meter line electricity theft simulation module of phase B, and the ninth relay of the single-phase meter line electricity theft simulation module of phase B is connected to the zero line outlet terminal of the outlet circuit breaker of the single-phase 12-meter meter box of the single-phase meter line electricity theft simulation module corresponding to phase A; In phase C, the ninth relay of every two single-phase meter line electricity theft simulation modules is respectively connected to the neutral line output terminal of the output circuit breaker of the single-phase 12-meter meter box of another single-phase meter line electricity theft simulation module.

[0039] like Figure 8 As shown, in phase A, the single-phase meter line electricity theft simulation module of the 1# single-phase meter (1# user) includes relay Y1, relay Y2, relay Y3, relay Y4, relay Y5, relay Y6, relay Y7, relay Y8, relay Y9, relay Y10; the single-phase meter line electricity theft simulation module of the 2# single-phase meter includes relay 2-Y1, relay 2-Y2, relay 2-Y3, relay 2-Y4, relay 2-Y5, relay 2-Y6, relay 2-Y7, relay 2-Y8, relay 2-Y9, relay 2-Y10; In phase B, the single-phase meter line electricity theft simulation module of the 1# single-phase meter (5# user) includes relay Y11, relay Y12, relay Y13, relay Y14, relay Y15, relay Y16, relay Y17, relay Y18, relay Y19, and relay Y20; the single-phase meter line electricity theft simulation module of the 2# single-phase meter (6# user) includes relay 2-Y11, relay 2-Y12, relay 2-Y13, relay 2-Y14, relay 2-Y15, relay 2-Y16, relay 2-Y17, relay 2-Y18, relay 2-Y19, and relay 2-Y20; In phase C, the single-phase meter line electricity theft simulation module of the 1# single-phase meter (9# user) includes relay Y21, relay Y22, relay Y23, relay Y24, relay Y25, relay Y26, relay Y27, relay Y28, relay Y29, and relay Y30; the single-phase meter line electricity theft simulation module of the 2# single-phase meter (10# user) includes relay 2-Y21, relay 2-Y22, relay 2-Y23, relay 2-Y24, relay 2-Y25, relay 2-Y26, relay 2-Y27, relay 2-Y28, relay 2-Y29, and relay 2-Y30; The power theft simulation modules of other single-phase meter lines of ABC phases are arranged in sequence, which will not be described here. Figure 8 shown.

[0040] For user #1, relays Y1, Y2, Y3, Y4, and Y9 are energized, simulating the reverse connection of the neutral and live wires to steal electricity. At this time, there is no current at terminals 1-2 of the energy meter, and the neutral current is normal. Relays Y5 and Y6 are energized to simulate private connection and electricity theft. At this time, the energy meter under-measures and the neutral and live currents are unbalanced. Relays Y7 and Y10 are energized, and the energy meter current shows that the live current is a constant small current, the active power of the energy meter is negative, and the neutral current of the energy meter is normal. Relay Y10 is energized, the live current of the energy meter is small, and the neutral current is normal. Relays Y8 and Y9 are energized, zero is cut off before the meter, simulating electricity theft by borrowing zero; For user #5, relays Y11, Y12, Y13, Y14, and Y19 are energized to simulate the reverse connection of the neutral and live wires to steal electricity. At this time, there is no current at terminals 1-2 of the energy meter, and the neutral current is normal. Relays Y15 and Y16 are energized to simulate private connection and electricity theft. At this time, the energy meter under-measures and the zero-line current is unbalanced; relays Y17 and Y20 are energized, the energy meter current shows that the live line current is a constant small current, the active power of the energy meter is negative, and the zero-line current of the energy meter is normal; relay Y20 is energized, the live line current of the energy meter is small, and the zero-line current is normal; Relays Y18 and Y19 are energized, zero is cut off before the meter, simulating electricity theft by borrowing zero.

[0041] For user 9#, relays Y21, Y22, Y23, Y24, and Y29 are energized to simulate the reverse connection of the neutral and live wires to steal electricity. At this time, there is no current at terminals 1-2 of the energy meter, and the neutral current is normal. Relays Y25 and Y26 are energized to simulate private connection and electricity theft. At this time, the energy meter under-measures and the zero-line current is unbalanced; relays Y27 and Y30 are energized, the energy meter current shows that the live line current is a constant small current, the active power of the energy meter is negative, and the zero-line current of the energy meter is normal; relay Y30 is energized, the live line current of the energy meter is small, and the zero-line current is normal; Relays Y28 and Y29 are energized, zero is cut off before the meter, simulating theft of electricity by borrowing zero.

[0042] For user 1# and user 5#, relays Y9 and Y19 are energized, simulating users of phase A and phase B, and the two households jointly steal electricity through their neutral lines. At this time, the neutral and live line currents of user 1# and user 5# are inconsistent.

[0043] At 9# user and 10# user, relays Y29 and Y2-29 are energized, simulating the user of phase C, and the two households jointly steal electricity through their neutral lines. At this time, the neutral and live line currents of 9# user and 10# user are inconsistent.

[0044] User# 2, user# 3, and user# 4 are the same as user# 1, user# 6, user# 7, and user# 8 are the same as user# 5, and user# 10, user# 11, and user# 12 are the same as user# 9, and will not be repeated here.

[0045] Single-phase load simulation The single-phase load simulation module includes a load resistor, a load inductor, an anti-impact resistor, a discharge resistor, a load capacitor, an AC contactor, a relay I, a relay II, and a relay III; The AC contactor is arranged at the input end of the single-phase load simulation module, and is used to control the single-phase load simulation module to be connected to the single-phase meter box simulation module; The load resistor, the load inductor, the anti-shock resistor, and the load capacitor are sequentially connected in series and connected to the corresponding phase voltage line and the N-phase voltage line of the single-phase load simulation module; The relay I is connected in parallel to both ends of the load resistor, the relay II is connected in parallel to both ends of the load inductor, the relay III is connected in parallel to both ends of the anti-shock resistor and the load capacitor connected in series, and the discharge resistor is connected in parallel to both ends of the load capacitor.

[0046] like Fig. 9 As shown, in the single-phase load simulation module of user 1#, the load resistor R1 and relay K1-1 constitute a resistive load, the load inductor L1 and relay K1-2 constitute an inductive load, the anti-shock resistor R2, the load capacitor C1, the discharge resistors R3-R5 and relay K1-3 constitute a capacitive load, the corresponding relays are energized, and the load is cut off; relay K1-4 and AC contactor YM1 are protection devices. When the load is switched, YM1 is disconnected first, and then closed after the load conversion is completed to avoid switching the load relay under load.

[0047] In the single-phase load simulation module of user 2#, the load resistor R6 and relay K1-5 form a resistive load, the load inductor L2 and relay K1-6 form an inductive load, the anti-shock resistor R7, the load capacitor C2, the discharge resistor R8-R10 and relay K1-7 form a capacitive load, the corresponding relay is energized, and the load is cut off; relay K1-8 and AC contactor YM1 are protection devices. When the load is switched, YM1 is disconnected first, and then closed after the load conversion is completed to avoid switching the load relay under load.

[0048] In the single-phase load simulation module of user 3#, the load resistor R11 and relay K1-9 form a resistive load, the load inductor L3 and relay K1-10 form an inductive load, the anti-shock resistor R12, the load capacitor C3, the discharge resistors R13-R15 and relay K1-11 form a capacitive load, the corresponding relays are energized, and the load is cut off; relay K1-12 and AC contactor YM3 are protection devices. When the load is switched, YM3 is disconnected first, and then closed after the load conversion is completed to avoid switching the load relay under load.

[0049] In the single-phase load simulation module of user 4#, the load resistor R16 and relay K1-13 form a resistive load, the load inductor L4 and relay K1-14 form an inductive load, the anti-shock resistor R17, the load capacitor C4, the discharge resistor R18-R20 and relay K1-15 form a capacitive load, the corresponding relay is energized, the load is cut off, the relay K1-16 and the AC contactor YM4 are protection devices, when the load is switched, YM4 is disconnected first, and then closed after the load switch is completed to avoid switching the load relay under load.

[0050] The single-phase load simulation modules of users 5#-8# and users 9#-12# are the same as those of users 1#-4#, and will not be described in detail here.

[0051] Simulation of unauthorized connection of single-phase line to steal electricity The single-phase line private connection electricity theft simulation module is used for simulating the private connection of single-phase black households to steal electricity from the mains, which includes private connection of phase A, phase B, and phase C, which are independently set and do not affect each other. The private connection power of each phase is 220W and the private connection current is 1A. Fig.10 As shown, it simulates the private connection and electricity theft of three single-phase users, and the three single-phase users privately connect to phases A / B / C to steal electricity. The private connection to phase A includes a load resistor R1, an AC contactor YM13, and a relay Y4-1; the private connection to phase B includes a load resistor R21, an AC contactor YM14, and a relay Y4-2; the private connection to phase C includes a load resistor R41, an AC contactor YM15, and a relay Y4-3. Relays Y4-9 and Y4-10 are used to control the start of the fan for heat dissipation when the load resistors of the three single-phase private electricity theft users are connected; Relays Y4-11, Y4-12, Y4-13, Y4-14, Y4-15, and Y4-16 are used to control the start-up of fans for heat dissipation when the loads of users 1# and 2#, users 3# and 4#, users 5# and 6#, users 7# and 8#, users 9# and 10#, and users 11# and 12# are connected.

Claims

1. A real anti-electricity theft training device, characterized by: Including power supply box and line power theft simulation module; The power supply box is used to supply power to the line power stealing simulation module; The line electricity theft simulation module includes a total meter concentrator simulation module, a through meter type meter box simulation module, a mutual inductor type meter box simulation module and a single-phase meter box simulation module; The total meter concentrator simulation module includes a secondary cable electricity theft simulation module connected to the power box, a joint junction box electricity theft simulation module connected to the secondary cable electricity theft simulation module, a meter tail electricity theft simulation module connected to the joint junction box electricity theft simulation module, and a total meter concentrator connected to the meter tail electricity theft simulation modules respectively; The through-meter meter box simulation module includes a meter tail power theft simulation module connected to the power box, a three-phase through-type simulation meter connected to the meter tail power theft simulation module, and a three-phase through-type load simulation module connected to the three-phase through-type simulation meter; The mutual inductor meter box simulation module includes a secondary cable electricity theft simulation module connected to the power box, a joint junction box electricity theft simulation module connected to the secondary cable electricity theft simulation module, a meter tail electricity theft simulation module connected to the joint junction box electricity theft simulation module, and a three-phase mutual inductance simulation meter connected to the meter tail electricity theft simulation module; and also includes a three-phase mutual inductance load simulation module and a three-phase line private connection electricity theft simulation module respectively connected to the power box; The single-phase meter box simulation module includes A-phase, B-phase, and C-phase single-phase meter box simulation modules; The A, B, and C phase single-phase meter box simulation modules all include 4 single-phase meter line electricity theft simulation modules, 4 single-phase meters, 4 single-phase load simulation modules, and 1 single-phase line private connection electricity theft simulation module; Each single-phase meter line electricity theft simulation module of the corresponding phase is respectively connected in series to the outgoing line terminal of the incoming line circuit breaker of the single-phase 12-meter meter box, the incoming and outgoing line terminals of a single-phase meter of the corresponding phase, and the incoming and outgoing line terminals of the outgoing line circuit breaker of the single-phase 12-meter meter box; Each single-phase load simulation module of the corresponding phase is connected in series between each single-phase meter of the corresponding phase and each single-phase meter line power theft simulation module.

2. The real anti-electricity theft training device according to claim 1 is characterized by: The three-phase mutual inductor meter box, the direct meter box and the main meter concentrator are all provided with the meter tail electricity theft simulation module; The output end of the meter tail electricity theft simulation module in the three-phase mutual inductor meter box is connected to the meter tail of the three-phase electric energy meter in the three-phase mutual inductor meter box, and the input end of the meter tail electricity theft simulation module in the three-phase mutual inductor meter box is connected to the joint junction box; The output end of the meter tail electricity theft simulation module in the three-phase direct-type meter box is connected to the meter tail of the three-phase electric energy meter in the three-phase direct-type meter box, and the input end of the meter tail electricity theft simulation module of the three-phase direct-type meter box is connected to the incoming line circuit breaker of the three-phase direct-type meter box; The output end of the meter tail electricity theft simulation module in the total meter concentrator is connected to the meter tail of the three-phase electric energy meter in the total meter concentrator, and the input end of the meter tail electricity theft simulation module in the total meter concentrator is connected to the joint junction box; The meter tail electricity theft simulation module includes a meter tail electricity theft point arranged at the meter tail of the three-phase electric energy meter; The electricity stealing points at the end of the meter include: The current bypassing electricity theft point includes: relay contact switches Y06, Y16, and Y26 which are arranged on the incoming lines of each phase of the three-phase electric energy meter and are connected to the outgoing lines of the corresponding phases of the three-phase electric energy meter and are used to realize the current bypassing the electric energy meter to steal electricity; The current short-circuit electricity theft point includes: relay contact switches Y03, Y13, and Y23 connected to the incoming and outgoing lines of each phase of the three-phase electric energy meter and used to realize the current short-circuit electricity theft of the electric energy meter at the end of the meter; The current reverse polarity electricity stealing point includes: relay contact switches Y04, Y05, Y14, Y15, Y24, and Y25 which are arranged on each phase incoming line of the three-phase electric energy meter and are connected to the corresponding phase outgoing line of the three-phase electric energy meter, and are arranged on each phase outgoing line of the three-phase electric energy meter and are connected to the corresponding phase incoming line of the three-phase electric energy meter, and are used to realize the current reverse polarity electricity stealing of the electric energy meter; The voltage phase-off stealing point includes: relay contact switches Y01, Y11, and Y21 which are arranged on the incoming lines of each phase of the three-phase electric energy meter and are used to realize the voltage phase-off stealing of the electric energy meter at the end of the meter.

3. The real anti-electricity theft training device according to claim 1 is characterized by: The combined junction box electricity theft simulation module includes a combined junction box and a combined junction box electricity theft point module; The insulating cover on the back of the joint junction box is opened, the voltage and current terminals of the inlet and outlet lines are cut open in the middle for insulation treatment, and the voltage and current terminals on the back of the joint junction box are connected to the input and output ends of the power stealing point module of the joint junction box respectively with lead wires; The combined junction box power theft point module comprises: Relays K1, K5, K9, and K13 are arranged on the three-phase four-voltage lines of the power stealing point module of the joint junction box for realizing voltage line protection; wherein the relays K1, K5, K9, and K13 are disconnected when the power stealing point is set to avoid on-load switching of the power stealing point; Relays K2, K6, and K10 are arranged on the three-phase voltage lines of the power stealing point module of the joint junction box and are used to simulate the power stealing of components in series; Relays K3, K7, K11 are arranged on the three-phase voltage line of the power stealing point module of the joint junction box and after the relays K2, K6, K10, and are used to realize the three-phase voltage phase-break power stealing; Relays K14, K15, and K16 are connected to the three-phase current input and output lines of the power stealing point module of the combined junction box and are used to realize three-phase current short-circuit power stealing.

4. The real anti-electricity theft training device according to claim 1 is characterized by: The secondary cable power stealing simulation module includes a voltage line protection module, a voltage phase shift power stealing module, a series-connected component power stealing module, a voltage divider power stealing module, a secondary cable short-circuit power stealing module, a current phase sequence switching power stealing module, and a current shunt power stealing module; The voltage line protection module includes: relays Y1, Y9, Y12, Y13, Y14, Y15, Y16, Y17, Y18, Y20, Y21, Y22, Y23, Y24, Y25, Y26, Y27, Y28, Y29, Y30, Y31, Y32, Y33, Y34, Y35, Y36, Y37, Y38, Y39, Y40, 17 , Y 25 ; The voltage phase-shifting power stealing module is arranged after the voltage line protection module and includes: The relays Y2 and Y3 are arranged on the A and B phase voltage lines of the secondary cable power stealing simulation module, and are connected to the B and A phase voltage lines to complete the phase shifting power stealing of the A phase voltage and the B phase voltage. 10 ; Relay Y is set on the B and C phase voltage lines of the secondary cable power stealing simulation module, and is connected to the C and B phase voltage lines to complete the phase shifting power stealing of the B phase voltage and the C phase voltage. 11 , Y 18 ; Relays Y3 and Y4 are arranged on the C and A phase voltage lines of the secondary cable power stealing simulation module, and are connected to the A and C phase voltage lines to complete the phase shifting power stealing of the C phase voltage and the A phase voltage. 19 ; The series-connected component power stealing module is arranged after the voltage phase-shift power stealing module and includes: The relays Y4 and Y5 are arranged on the three-phase voltage lines of the secondary cable power theft simulation module to simulate the power theft of components. 12 , Y 20 ; The voltage divider power stealing module is arranged after the serial component power stealing module, and comprises: A, B, and C phase voltage dividers respectively connected in series in the three-phase voltage loop; and Relays Y5, Y6, Y7, and Y8 are arranged in the A-phase voltage divider to simulate the A-phase voltage division power theft; Relay Y is set in the B phase voltage divider to simulate the B phase voltage division power theft 13 , Y 14 , Y 15 , Y 16 ; Relay Y is set in the C phase voltage divider to simulate the C phase voltage division power theft 21 , Y 22 , Y 23 , Y 24 ; The secondary cable short circuit electricity stealing module comprises: a relay Y connected to the three-phase current input and output lines of the secondary cable electricity stealing simulation module respectively, and used to simulate the secondary cable short circuit electricity stealing 26 , Y 27 , Y 28 ; The current phase sequence switching power stealing module is arranged after the secondary cable short-circuiting power stealing module, and comprises: Relays Y1#2 and Y11#2 are arranged on the A-phase and B-phase current incoming lines of the secondary cable power stealing simulation module and are connected to the B-phase and A-phase current incoming lines to complete the phase sequence switching of the A-phase incoming line current and the B-phase incoming line current power stealing; Relays Y12#2 and Y21#2 are arranged on the B-phase and C-phase current incoming lines of the secondary cable power stealing simulation module and are connected to the C-phase and B-phase current incoming lines to complete the power stealing by switching the phase sequence of the B-phase incoming line current and the C-phase incoming line current; Relays Y22#2 and Y2#2 are arranged on the C and A phase current incoming lines of the secondary cable power stealing simulation module and are connected to the A and C phase current incoming lines to complete the phase sequence switching of the C phase incoming line current and the A phase incoming line current power stealing; Relays Y8#2 and Y18#2 are arranged on the A and B phase current output lines of the secondary cable power stealing simulation module and are connected to the B and A phase current output lines to complete the phase sequence switching of the A phase output line current and the B phase output line current power stealing; Relays Y19#2 and Y28#2 are arranged on the B and C phase current output lines of the secondary cable power stealing simulation module and are connected to the C and B phase current output lines to complete the phase sequence switching of the B phase output line current and the C phase output line current power stealing; Relays Y29#2 and Y9#2 are arranged on the C and A phase current output lines of the secondary cable power stealing simulation module and are connected to the A and C phase current output lines to complete the phase sequence switching of the C phase output line current and the A phase output line current power stealing; The current shunt power stealing module is arranged after the current phase sequence switching power stealing module, and comprises: A, B, and C phase current shunts respectively connected in series to the three-phase current input and output lines; and Relays Y3#2, Y4#2, Y5#2, Y6#2, and Y7#2 are set in the A-phase current shunt to simulate the A-phase current shunt power theft; Relays Y13#2, Y14#2, Y15#2, Y16#2, and Y17#2 are set in the B-phase current shunt to simulate the B-phase current shunt power theft; Relays Y23#2, Y24#2, Y25#2, Y26#2, and Y27#2 are set in the C-phase current shunt to simulate the C-phase current shunt and electricity theft.

5. The real anti-electricity theft training device according to claim 1 is characterized by: The three-phase inductive load simulation module includes a first resistive load simulation module, a first inductive load simulation module, a first capacitive load simulation module, and an AC contactor KM1-1 for controlling the three-phase inductive simulation meter to access the three-phase inductive load simulation module; The first resistive load simulation module includes: Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-1 and the load resistor R1-1 connected in series in sequence; Connected to the B-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-2 and the load resistor R1-2 connected in series in sequence; Connected to the C-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-3 and the load resistor R1-3 connected in series in sequence; The first inductive load simulation module includes: Connected to the A-phase voltage line of the three-phase inductive load simulation module, and connected in series with the relay Y1-4 and the load inductor L1-1; Connected to the B-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-5 and the load inductor L1-2 connected in series in sequence; Connected to the C-phase voltage line of the three-phase inductive load simulation module, and connected in series with the relay Y1-6 and the load inductor L1-3; The first capacitive load simulation module comprises: Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-7 and the anti-inrush current resistor R1-10 connected in series in sequence; Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-8 and the anti-shock current resistor R1-11 connected in series in sequence; Connected to the A-phase voltage line of the three-phase inductive load simulation module, and the relay Y1-9 and the anti-shock current resistor R1-12 connected in series in sequence; Capacitors C11 to C13 connected to the three-phase voltage line after the surge current resistance R1-11, R1-11, R1-12 in a triangle connection; The discharge resistors R41 to R49 are connected to the three-phase voltage lines after the anti-inrush current resistors R1-11, R1-11, and R1-12 in a triangle connection manner.

6. The real anti-electricity theft training device according to claim 1 is characterized by: The three-phase line private connection electricity theft simulation module includes a resistive private connection load simulation module and an AC contactor KM2 for controlling the three-phase mutual inductive simulation meter to access the three-phase line private connection electricity theft simulation module; The resistive private load simulation module includes: Connected to the A-phase voltage line of the three-phase line private power theft simulation module, and the relay Y1-11 and the load resistor R4 connected in series in sequence; Connected to the B-phase voltage line of the three-phase line private power theft simulation module, and the relay Y1-12 and the load resistor R5 connected in series in sequence; It is connected to the C-phase voltage line of the three-phase line private power theft simulation module, and is connected in series with the relay Y1-13 and the load resistor R6.

7. The real anti-electricity theft training device according to claim 1 is characterized by: The three-phase direct-type load simulation module includes a second resistive load simulation module, a second inductive load simulation module, a second capacitive load simulation module, and an AC contactor KM1-2 for controlling the three-phase direct-type simulation meter to access the three-phase direct-type load simulation module; The second resistive load simulation module includes: Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-1 and the load resistor R2-1 connected in series in sequence; Connected to the B-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-2 and the load resistor R2-2 connected in series in sequence; Connected to the C-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-3 and the load resistor R2-3 connected in series in sequence; The second inductive load simulation module includes: Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and connected in series with the relay Y2-4 and the load inductor L2-1; Connected to the B-phase voltage line of the three-phase direct-type load simulation module, and connected in series with the relay Y2-5 and the load inductor L2-2; Connected to the C-phase voltage line of the three-phase direct-type load simulation module, and connected in series with the relay Y2-6 and the load inductor L2-3; The second capacitive load simulation module comprises: Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-7 and the anti-inrush current resistor R2-10 connected in series in sequence; Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-8 and the anti-inrush current resistor R2-11 connected in series in sequence; Connected to the A-phase voltage line of the three-phase direct-type load simulation module, and the relay Y2-9 and the anti-inrush current resistor R2-12 connected in series in sequence; Capacitors C21 to C23 connected to the three-phase voltage line after the surge current resistance resistors R2-11, R2-11, and R2-12 in a triangle connection; The discharge resistors R41' to R49' are connected to the three-phase voltage lines after the anti-inrush current resistors R2-11, R2-11, and R2-12 in a triangle connection manner.

8. The real anti-electricity theft training device according to claim 1 is characterized in that: Each single-phase meter line electricity theft simulation module of phases A, B, and C includes: The first and seventh relays are connected in series between the No. 1 terminal of the single-phase meter and the live wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box, and the first relay is also connected to the neutral wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box; A third relay connected in series between the No. 2 terminal of the single-phase meter and the live wire inlet terminal of the outgoing line circuit breaker of the single-phase 12-position meter box, and the third relay is also connected to the No. 4 terminal of the single-phase meter; The second and eighth relays are connected in series between the No. 3 terminal of the single-phase meter and the live wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box, and the second relay is also connected to the neutral wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box; A fourth relay connected in series between terminal No. 4 of the single-phase meter and the neutral line inlet terminal of the outlet circuit breaker of the single-phase 12-position meter box, and the fourth relay is also connected to terminal No. 2 of the single-phase meter; a tenth relay connected in series between the connection point between the seventh relay and the first relay and terminal No. 2 of the single-phase meter; A fifth relay connected in series between the live wire outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box and the live wire inlet terminal of the outgoing line circuit breaker of the single-phase 12-meter meter box; A sixth relay connected in series between the neutral line outlet terminal of the incoming line circuit breaker of the single-phase 12-meter meter box and the neutral line inlet terminal of the outgoing line circuit breaker of the single-phase 12-meter meter box; Installed on the neutral line of the outgoing circuit breaker of the single-phase 12-meter meter box, as the ninth relay of the neutral line connection and household electricity theft control relay; The ninth relay of each single-phase meter line electricity theft simulation module of phase A is connected to the zero line outlet terminal of the outlet circuit breaker of the single-phase 12-meter meter box of a single-phase meter line electricity theft simulation module of phase B, and the ninth relay of the single-phase meter line electricity theft simulation module of phase B is connected to the zero line outlet terminal of the outlet circuit breaker of the single-phase 12-meter meter box of the single-phase meter line electricity theft simulation module corresponding to phase A; In phase C, the ninth relay of every two single-phase meter line electricity theft simulation modules is respectively connected to the neutral line output terminal of the output circuit breaker of the single-phase 12-meter meter box of another single-phase meter line electricity theft simulation module.

9. The real anti-electricity theft training device according to claim 1 is characterized by: The single-phase load simulation module includes a load resistor, a load inductor, an anti-impact resistor, a discharge resistor, a load capacitor, an AC contactor, a relay I, a relay II, and a relay III; The AC contactor is arranged at the input end of the single-phase load simulation module, and is used to control the single-phase load simulation module to be connected to the single-phase meter box simulation module; The load resistor, the load inductor, the anti-shock resistor, and the load capacitor are sequentially connected in series and connected to the corresponding phase voltage line and the N-phase voltage line of the single-phase load simulation module; The relay I is connected in parallel to both ends of the load resistor, the relay II is connected in parallel to both ends of the load inductor, the relay III is connected in parallel to both ends of the anti-shock resistor and the load capacitor connected in series, and the discharge resistor is connected in parallel to both ends of the load capacitor.

10. The real anti-electricity theft training device according to claim 1 is characterized in that: The single-phase line private connection electricity theft simulation module includes independently set private connection phase A, private connection phase B, and private connection phase C; The private connection A phase includes a first load resistor, a first AC contactor and a relay A; The private connection B phase includes a second load resistor and a second AC contactor and a relay B; The privately connected C phase includes a third load resistor, a third AC contactor and a relay C.

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