RU2656670C1 - Intelligent control system of boiler house - Google Patents

Abstract

FIELD: data processing; control systems.

SUBSTANCE: invention relates to automatic systems for measuring, transmitting and converting signals, recognizing, presenting, reproducing data, manipulation of information carriers, namely, to alert users through messages about the state of the system, including monitoring devices for monitoring and testing of boiler houses. Automatic control system of the boiler house, containing the controller module, the input and output modules, while the basic functionality is equipped with a microcontroller, an integrated GSM/GPRS module, with an antenna connected, server part, RS-232/RS-485 interfaces and interfaces of analog and discrete sensor input signals, software, in addition, the remote server is configured to create a database and personal cabinet of the user.

EFFECT: this allows to create an automatic process control system (APCS), a system for remote monitoring and control of territorially distributed monitoring objects without additional communication devices.

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Description

The invention relates to automatic systems for measuring, transmitting and converting signals, recognizing, presenting, reproducing data, manipulating storage media, and in particular to notifying users through messages about the state of the system, including monitoring devices for monitoring and testing boiler rooms.

Known intelligent wireless and wired device control (Publication number US 20160358722. Publ. 08.12.2016), in which the microcontroller is connected to a household unit controlled by a microcontroller. The microcontroller is connected to the wireless unit, so that the household can be controlled wirelessly (for example, from a smart phone, tablet, laptop and / or personal computer). In an embodiment, there is a household breaker unit or automatic power off bank that protects various devices in the house from power line failures. In an embodiment of the invention, the household appliance is a switch, such as a solenoid for turning on and off the electrical appliance. In an embodiment of the invention, the household appliance has various parameters that can be set remotely by sending wireless signals to the microcontroller.

A known controller containing a programmable logic matrix, the outputs of which are connected with relay actuators, including a reverse shift register, a pulse generator, the first and second logic elements "AND", the first and second logic elements "FORBID" and RS-trigger, the output of the generator connected to the first input of the first element "AND" and to the first input of the second element "AND", the output of the first element "AND" is connected to the direct input of the first element "FORBID", the output of the second element "AND" is connected to the direct input of the second of the “FORBID” element, the output of the last register cell is connected to the inverting input of the first “FORBID” element, the output of which is connected to the direct register shift bus, the output of the first register cell is connected to the inverting input of the second “FORBID” element, the output of which is connected to the reverse register bus , the outputs of the register are connected to the inputs of the programmable logic matrix, the direct output of the RS-trigger is connected to the second input of the first element "And", the inverse output of the RS-trigger is connected to the second input of the second element "And" the first input of the RS-flip-flop is connected to the start bus of the controller, and the second input of the RS-flip-flop is connected to the bus of its stop (Patent No. 115133 RU. Publ. 04/20/2012).

Known cogeneration system with a configuration for installation in existing equipment boiler / emergency generator, in which the control processor is in communication with the generator, the latter is turned on and off depending on the amount of heat or cooling required, the cost of fuel and electrical indicators. These data can be obtained using the links of the coherence system in real time via the Internet (Publication number US 20160301344. Published. 10/13/2016).

A known control data control method is intended for controlling the control data used to control the telecommunication terminal by means of the internal smart network switch attached to it, and the control data in the selected smart network switch is centrally controlled and, on demand, transferred to the internal switch, which using these control data exercises control of the telecommunications terminal (Patent No. 2526921 RU. Publish. 08.27.2014).

However, the known method relates to data acquisition and processing systems, has a specific and narrow scope. The mentioned method does not provide for the connection of analog and digital (discrete) sensors having a design and scope different from the functionality and scope of the claimed system.

A microcontroller device for automatic control and control of the burner ignition and combustion process is known, comprising a burner, a trigger device, a shut-off valve, a flame detector, a high voltage transformer containing a microcontroller connected through its zero line to the zero port with the trigger device made in the form of a button Start-up of the device, and through its zero, first, second and third lines of the first port connected respectively with the first inputs of the control unit of the high-voltage transformer, b the control valve for the shut-off valve, the switching unit for the air injection engine and the control unit for supplying power, the second outputs of which are connected respectively to the diagnostic units of the high-voltage transformer, shut-off valve, motor and power supply, and the outputs of the diagnostic units are connected to the microcontroller through its first, second, third and the fourth line of the zero port, respectively, while the first output of the power supply control unit is connected to the second input of the control unit of the high voltage transformer, by its first output with the input of a high-voltage transformer, the output of which is connected to the ignition electrode installed in the nozzle of the burner; with the second input of the switching unit of the air injection engine connected to its first output with the air injection engine; with the input of the air pressure sensor and the input of the gas pressure sensor, the output of which is connected to the input of the diagnostic unit of the gas pressure sensor, connected by its output along the fifth line of the zero port to the microcontroller; with the second input of the shut-off valve control unit, the first output of which is connected to the shut-off valve input, while the output of the air pressure sensor is connected to the input of its diagnostic unit, connected by its output along the sixth line of the zero port to the microcontroller, and the flame sensor electrode installed in the nozzle burner, connected to the input of the unit for detecting the presence of flame and diagnosing false alarms, the output of which is connected through the seventh line of the zero port to the microcontroller connected through its third port to the communication link with the upper-level computer, the first line being the connection of the microcontroller output to the input of this unit, and the microcontroller connecting its input to the first output of the communication unit with the upper-level computer, the second output of which is connected by a two-wire twisted pair cable to the upper level computer, for power supply The device serves as a standard power source by connecting the zero and phase of the source with the second and third inputs of the power supply control unit, and the constant voltage of the source serves as a power supply for the microcontroller and other lementov scheme (Patent №2211406 RU. Publ. August 27, 2003).

However, the known microcontroller device relates to automatic burner control systems in boiler rooms, furnaces, etc., has a specific and narrow scope, it does not provide for the connection of analog and digital (discrete) sensors. In addition, the device does not provide automatic control of technological processes in areas other than the functionality and scope of the claimed system.

A well-known information-measuring and control system for optimizing the production and consumption of thermal energy at distributed heat supply facilities, comprising a first circuit with a heat source (gas boiler), a heat exchanger, a second circuit of the heating network, a temperature sensor in the direct pipe of the first circuit, a temperature sensor in the return pipe of the second the circuit, the pressure sensor in the direct pipe of the second circuit, the control unit of the combustion process in the boiler, into which the gas flow regulator is additionally introduced, dates gas flow meter, fan, air temperature sensor, air flow sensor, exhaust gas temperature sensor, heat energy meter, multichannel microprocessor-based energy-saving control unit for heat energy production, memory block, information reception dispatch center, heat supply system, heat energy consumption control unit moreover, the first circuit with a heat source (gas boiler), the first output of which is connected to the input of the temperature sensor of the exhaust gases and through the heat exchanger is connected with about the second circuit of the heating network, connected to the input of the temperature sensor in the direct pipeline of the first circuit, the three outputs of the second circuit are connected to the inputs of the temperature sensor in the return pipe, the pressure sensor in the direct pipe, the meter of the generated heat energy, the outputs of which are connected to the inputs of the multi-channel microprocessor control unit energy saving in the production of thermal energy, the output of the gas supply regulator through the gas flow sensor is connected to the first input of the boiler, the fan output is ohm air temperature sensor, air flow sensor is connected to the second input of the boiler, the outputs of the gas flow sensor, air flow sensor, air temperature sensor, exhaust gas temperature sensor are connected to the inputs of a multi-channel microprocessor-based energy saving control unit for the production of thermal energy, the first output of which is connected to the input of the memory unit, the second output is connected to the input of the dispatch center for receiving information, the second, third, fourth inputs of the dispatch center for receiving information and a heating system, through control nodes consumption of thermal energy fourth, fifth and sixth outputs of the second circuit are connected to inputs of heating systems, yield dispatch center receiving information through the node control the combustion process in the boiler is connected to a gas supply and fan control inputs (Patent №2525811 RU. Publ. 08/20/2014).

However, the known system relates to systems for collecting and processing data, as well as automatic control of technological processes in heat supply systems of cities and other settlements, and it does not provide for the use of analog and digital (discrete) sensors.

A known system (100) for predicting grazing in a turbine, comprising: a monitoring system (110) configured to generate operating values (112) for a turbine based on information received from the turbine; a correlation device (114), configured to generate at least one correlation value (115) based on said operating values (112), which establishes a correlation of the first working value with the second working value; a variable calculator (116) configured to generate at least one calculated variable (118) based on one of the aforementioned operating values (112); and a predictor (120) grazing, which generates a prediction (122) grazing on the basis of the aforementioned at least one correlation value (115) and the aforementioned at least one calculated value (Patent No. 2602318 RU. Publish. November 20, 2016).

However, the known system has a specific scope and is not analogous to the claimed system.

The well-known cellular warning and control system XITAL GSM-4, GSM-8, GSM-12 allows for dispatching of remote objects: boiler room, heat station, pump station, transformer, refrigerator, drying chamber, server room, tanks (Electronic resource: http: / /www.ksytal.ru/price.htm).

The disadvantage of this system is the limited number of simultaneously connected sensors and actuators, within the same controller with connected expansion units, limited possibilities for connecting sensors with an analog output signal and limited possibilities for automatic control of technological processes.

A known system for automatically controlling the heating of a building with a programmable logic controller containing sensors for the outdoor temperature in the room, an automatic controller, temperature regulators for network water and heat load, an external disturbance compensation device, adders, in which the automatic sensor further includes a logic unit, the inputs of which are connected to the signal the current time of day and a signal of the current date, the output of the logic unit is connected to three adders, the first adder is executed with the possibility of inverting the actual air temperature signal arriving at it in a heated room and is connected to a second adder, configured to invert the signal arriving at it from the outdoor temperature sensor, the output of the second adder through the amplification unit is connected to the input of the third adder (Patent No. 109583 RU. Publ. October 20, 2011).

However, in the known system there is no possibility of remote control of an object or group of objects, including geographically distributed ones. In addition, in the mentioned system there is no possibility of implementing additional functionality within the same controller with connected expansion modules, depending on the scale of the task and the required functionality during design.

Known programmable logic controller containing a microprocessor, a local bus, the address and data lines of which are connected respectively to the outputs of the address and to the inputs and outputs of the microprocessor, two-port static RAM, bus interfaces such as VME and ISA, ROM, EEPROM, real time clock, keyboard controller , system controller, universal programmable watchdog timer, RS232 and RS485 serial channel interfaces, peripheral bus whose address and data lines are connected respectively to address lines ROM and EEPROM data, and the data line of the peripheral bus is connected to the data lines of the keyboard controller and the real-time clock, characterized in that the programmable logic controller is equipped with a submodule interface connected via buffer address amplifiers and data transmitters and receivers to the address and data lines of the peripheral bus, respectively while the address inputs and the input-output data of the static RAM are connected respectively through the buffer amplifiers addresses and receivers-data transmitters to the address lines and data l the local bus, and to the address inputs and to the data I / O of the static RAM are connected via address and data receivers-transmitters of the address and data lines of the VME bus interface, respectively, of the address line and data of the ISA bus interface, respectively, through the buffer address amplifiers and receivers data transmitters to the address lines and data of the local bus, in addition, the address lines and data of the peripheral bus are connected respectively through buffer address amplifiers and data receivers-transmitters with the address lines and data of the local the main bus, the address and data lines of the system controller are connected to the address and data lines of the peripheral bus, and the inputs and outputs of the interfaces of serial channels of the RS232 and RS485 type and the universal watchdog are connected directly to the microprocessor (Patent No. 2101757 RU. Publ. January 10, 1998).

The disadvantage of the controller described above is the inability to remotely control an object or group of objects, including geographically distributed ones, without the use of additional communication devices. In addition, in the mentioned system there is no possibility of implementing additional functionality within the same controller with connected expansion modules, depending on the scale of the task and the required functionality during design.

A well-known complex of software and hardware tools for automating technological processes contains workstations and servers integrated via a local Ethernet computer network based on personal electronic computers (PCs), as well as controllers and functional modules. Functional (MF) programmable logic integrated circuits (FPGAs) built into each module supporting the "flashing" of virtually any signal processing and control algorithms that are adequate to the tasks that the designer assigns to this module. There are three options for building systems based on the complex: centralized management; local management; distributed management. In all three variants, the central processor module (under software control) performs the initial configuration of functional modules, the exchange of information, monitoring and diagnostics of software and hardware (Patent No. 2279117 RU. Published on June 27, 2006).

However, the known system has a complex design solution with multiple logical connections, which involves the use of interface converters in each individual function block.

A well-known complex of software and hardware automation control and management, including a common data bus and at least one controller containing input / output modules for input and processing signals from sensors and output control signals of actuators, and processor modules for controlling modules I / O and actuators via I / O modules, in which I / O and processor modules are connected to a common data bus that combines the functions of the system control buses levers, field buses and a local network, with the possibility of forming a single network of devices and generating requests to any of these devices and answering requests addressed to them, which provides access to the data of each of the devices, as from the devices included in the same controller, and from external devices, including those included in other controllers, and the access of devices of each controller to the data of external devices, including those included in other controllers (Patent No. 2349949 RU. Publ. March 20, 2009).

However, the known software and hardware complex is rather laborious and difficult to implement, despite the fact that it has a common Ethernet-based data bus, which is more difficult to implement communication between devices, since it involves the use of converters.

In addition, the well-known complex does not have a built-in GSM / GPRS module, and does not allow the use of wireless communication channels without the use of additional communication devices.

The objective of the present invention is to expand the modification of automation of technological processes, as well as means of collecting and processing data, as well as signaling. The result is manifested in the possibility of: building automatic process control systems (APCS), remote monitoring and control of geographically distributed objects of control, by expanding the system’s functionality by expanding the range of simultaneously connected sensors, devices, devices and controllers, expansion modules, in the possibility of wired and wireless connection of sensors, the ability to connect sensors via several independent channels, the ability to transmit data over wireless single networks without additional communication devices.

The task is solved in that in the automatic control system of the boiler room, containing the controller module, input and output signal modules, the basic functionality is equipped with a microcontroller, an integrated GSM / GPRS module, with an antenna, server part, RS-232 / RS-485 interfaces and interfaces input signals of analog and discrete sensors, software. In addition, the remote server is configured to create a database and user account.

It is advisable to expand the range of automatic control of the technological process in the system by expanding the functionality on the basis of the basic functionality with the ability to connect additional expansion modules for reading data from devices and controllers with communication interfaces and equipped with a top-level PC server.

It is advisable, to connect a larger number of modules to the controller, in the system, expansion modules, when connected, to connect to the controller module using the I2C data protocol, to execute the common data bus with the maximum allowable capacity.

It is advisable to unify data in the system to transfer data to the upper level using the HTTP protocol.

In an embodiment of the invention, in the system, the controller module by means of expansion modules of the output signals has the ability to control signals in the form of current, voltage, digital discrete signals, as well as pulse-width modulation.

It is advisable to increase the range of functional use in the system using the RS-485 interface to connect expansion modules at a distance of no more than 1000 meters from the installation site of the controller.

In an option to improve the reliability of the system, it is advisable to expand the expansion modules and the controller module, equipped with built-in microprocessors.

It is advisable, to create a backup in case of failure of one controller module, to connect several controller modules to the system.

It is advisable to expand the range of use of the system in it to use the expansion module for wireless connections. In addition, in the expansion module for wireless connections, provide for the use of two devices, namely the "receiver module" and "transmitter module".

It is advisable, in order to evaluate in real time the technological potential of the system, connect the remote server to the Internet, have ports for receiving data via HTTP, to display data in a browser window on work PCs / stations or on mobile devices.

It is advisable to control data and make decisions in real time, to transmit data in the form of CMC and / or dial-up to a telephone number.

The present invention is illustrated by a detailed description and diagrams, which depict the logical connections between elements of the system in the basic and advanced functionality:

FIG. 1 is a block diagram of a basic functionality according to the invention.

FIG. 2 is a block diagram of an extended functionality according to the invention.

Abbreviations used in the description text:

Pulse Width Modulation (PWM)

Based on the automatic control system of boiler houses, the task can be implemented in both basic and advanced functionality.

The basic functionality (Fig. 1) of the system, containing module 1 of the controller, is equipped with a microcontroller 2, an integrated module 3 GSM / GPRS with a connected antenna 4, server part 5, interfaces 6 (RS-232 / RS-485), interfaces 7 of the analog input signals and discrete sensors. At the same time, GSM / GPRS module 3 allows you to send data about the state of the monitoring object in the form of CMC and / or dial-up to a phone number, as well as via the Internet in the form of e-mail and / or send data to server 5 or a workstation via HTTP. In addition, the server part has a remote server 5 with the ability to archive data and monitor monitoring objects in real time.

Extended functionality (Fig. 2) of the system, contains a controller module 1, an input signal expansion module 9, an output signal expansion module 10, a communication interface expansion module 11 and expansion modules 12 13 for wireless connections, equipped with a microcontroller 2, an integrated GSM / GPRS module 3 with connected antenna 4, server part 5, interfaces 6 (RS-232 / RS-485), interfaces 7 of the input signals of analog and discrete sensors. The input signal expansion module 9 is equipped with its own microcontroller 2, interfaces 7 of the input signals of analog and discrete sensors and is connected to the controller 1 via the I2C data bus 16. The output signal expansion module 10 is equipped with its own microcontroller 2, interfaces 8 of the output signals for controlling actuators and mechanisms, and is connected to the controller 1 via the I2C data bus 16. The communication interface expansion module 11 is equipped with its own microcontroller 2, interfaces 6 (RS-232 / RS-485) and is connected to the controller 1 via the I2C data bus 16, while the RS-485 interface allows you to connect expansion modules 9, 10, 11 at a considerable distance from the controller. The “receiver” module 12 for wireless connections is equipped with its own microcontroller 2, a WiFi / radio device 14 and is connected to the controller 1 via the I2C data bus 16, while the “receiver” module 12 monitors the status of the “transmitter” module 13 and makes requests for information transfer, information received from module 13 of the "transmitter" is fed to the microprocessor of module 1 of the controller. Module 13 “transmitter” for wireless connections is equipped with its own microcontroller 2, device 15 WiFi / radio transmitter, interfaces 6 (RS-232 / RS-485), interfaces 7 of the input signals of analog and discrete sensors and is connected to module 12 “receiver” wirelessly via WiFi and / or radio channels, while the “transmitter” module 13 collects information from the connected sensors, devices and / or controllers and transmits it to the “receiver” module 12 via wireless WiFi and radio communication channels. In addition, the modules 12, 13 for wireless connections allow you to connect sensors simultaneously on several independent channels (wired and wireless). Module 3 GSM / GPRS allows you to send data about the state of the monitoring object in the form of CMC and / or dial-up to a phone number, as well as via the Internet in the form of email and / or send data to server 5 or a workstation via HTTP. Module 9 expansion of the input signals allows you to connect sensors of various designs and types of output signals. Module 10 expansion of the output signals allows you to control the executing devices and mechanisms, signals in the form of current, voltage, digital discrete signals, as well as PWM. The module 11 expansion of communication interfaces allows you to connect devices and controllers from other manufacturers having these communication interfaces for remote reading and / or control. Modules 12, 13 for wireless connections allow you to connect sensors of various designs and types of output signals, as well as devices and controllers from other manufacturers that have communication interfaces for remote reading and / or control. The server part has a remote server 5 with the ability to archive data and monitor monitoring objects in real time, while the remote server 5 allows you to manage, monitor and analyze geographically distributed objects, including in real time.

The automatic control system operates as follows.

The signals from analog and digital (discrete) sensors are fed to the input interfaces 7 of the input signal expansion module 9 and / or the controller module 1 and / or the “transmitter” module 13 for wireless connections, and are processed by the microprocessor 2 of this module, after which they are processed and converted the data is sent to the microprocessor 2 of the module 1 of the controller and sent through module 3 GSM / GPRS to the server 5 of the upper level. In addition, the controller 1, upon the occurrence of a certain event, can generate messages about malfunctions and / or emergency situations and send these messages to the top-level server 5, as well as in the form of e-mail, CMC, or dialing to a phone number. At the same time, with the sending of data, the values of the control signals connected to the interfaces 8 of the output signals of the output signal expansion module 10 are calculated to control the actuators. In this case, the values of the generated control signals are also sent via the GSM / GPRS module 3 to the top-level server 5. Module 10 expansion of the output signals, thanks to its own microprocessor 2, can store the values of the control signals, with their subsequent overwriting, for a certain time. This allows in the event of a “disconnection” of communication with the controller 1, to calculate the average values of the control signals received before the “disconnection” of the connection and use these values for further control, until communication with the controller 1 is restored. In addition, the output signal expansion module 10 in the event of a “disconnection” of communication with controller 1, it can stop control by turning off the devices, completely closing or opening actuators (such as electric shutters) and resume control after communication is restored with troller 1. Information from devices and controllers of other manufacturers connected to interfaces 6 (RS-232 / RS-485) of module 1 of the controller and / or module 11 of the expansion of communication interfaces and / or module 13 of the "transmitter" for wireless connections are read by microprocessor 2 this module. After that, the information goes to the microprocessor 2 of the module 1 of the controller and is sent through module 3 GSM / GPRS to the server 5 of the upper level. At the same time, reading information from devices and controllers of other manufacturers comes from the table of data registers of devices and controllers. The information read in this way is sent to the remote server 5, where it is converted and inserted into the table of values for a particular device or controller. To transmit information from the sensor via several independent channels, a wired and wireless connection is used. In this case, the sensor is connected to the input interface 7 of the input signal expansion module 9 and / or the controller module 1 and to the input interface 7 of the “transmitter” module 13 for wireless connections, in which case the sensor is assigned a unique number in the system. Further, the information from the sensor is fed to the microprocessor 2 of the controller module 1 and, by the assigned number, the values received from the “transmitter” module 13 for wireless connections and from the input signal expansion module 9 and / or from the input interface 7 of the controller module 1 are compared. In this case, the polling time of the sensor and the value measured by the sensor are compared. If the received values are not equal, have a deviation or the sensor is unavailable on one of the channels, then the controller 1 generates a fault message and sends it via the GSM / GPRS communication module 3 to the remote server 5 and / or sends a message in the form of email, CMC, or dialing a phone number. Moreover, if the sensor is available in at least one of the channels, then controller 1 uses the data from the sensor for operation.

This system provides for the connection of a large number of expansion modules 9, 10, 11, 12, 13, including controller modules 1, which allows you to connect an unlimited number of sensors, actuators, devices and controllers from other manufacturers to the system. Perform automatic process control based on values obtained from sensors. Read information from devices and controllers of other manufacturers. The system has the function of prompt informing when a certain event occurs. The ability to connect several modules 1 of the controllers allows them to be backed up, so in case of failure of one module 1 of the controller, its functions can be fully or partially taken over by another. All this allows us to build on the basis of the intelligent control system, automated process control systems (ACS TP) of various complexity, data acquisition and processing systems, alarm systems, as well as solve problems of increasing the system reliability by duplication and reservation of important sections of the project and control schemes .

The present invention allows to expand the modification of automation of technological processes by remote monitoring and control of objects of control, including from mobile devices.

In addition, the present invention allows to expand the range of simultaneous connection of an unlimited number of devices, sensors, devices and controllers of other manufacturers due to expansion modules, as well as the simultaneous control of an unlimited number of actuators and mechanisms.

In addition, the present invention allows for wired and wireless connection of sensors, as well as duplication of signals from sensors through several independent channels.

In addition, the present invention has the function of operational information in the event of emergency situations and / or malfunctions.

In addition, the present invention has a built-in GSM / GPRS module that allows you to transfer data remotely, without additional communications.

In addition, the present invention allows to increase the reliability of automation systems of technological processes, by duplication and reservation of important sections of the facility and control circuits.

In addition, the present invention allows to build, on its basis, automated process control systems of different complexity (ACS TP), data acquisition and processing systems, and alarm systems of various complexity.

Claims (13)

1. The automatic control system of the boiler room, containing a controller module, input and output signal modules, characterized in that the basic functionality is equipped with a microcontroller, an integrated GSM / GPRS module, with an antenna, a server part, RS-232 / RS-485 interfaces and input interfaces signals of analog and discrete sensors, software, in addition, the remote server is configured to generate a database and user account. 2. The system according to claim 1, characterized in that the advanced functionality is based on the basic functionality with the possibility of connecting additional expansion modules to it, reading data from devices and controllers with communication interfaces, and is equipped with a top-level PC server. 3. The system according to claim 1, characterized in that the expansion modules, when connected, are connected to the controller module via the I2C data protocol, the common data bus is made with the maximum allowable capacity. 4. The system according to p. 2, characterized in that the data is transmitted to the upper level by the HTTP protocol. 5. The system according to p. 3, characterized in that the controller module through the expansion modules of the output signals has the ability to control signals in the form of current, voltage, digital (discrete) signals, as well as pulse-width modulation (PWM). 6. The system of claim 1, characterized in that the RS-485 interface is used to connect expansion modules at a distance of not more than 1000 m from the controller installation site. 7. The system according to claim 2, characterized in that the expansion modules and the controller module are equipped with built-in microprocessors. 8. The system according to claim 1, characterized in that it has the ability to connect multiple controller modules. 9. The system according to claim 1, characterized in that it uses an expansion module for wireless connections. 10. The system according to p. 9, characterized in that the expansion module for wireless connections provides for the use of two devices, namely the "receiver module" and "transmitter module". 11. The system according to p. 1, characterized in that the remote server is connected to the Internet, has ports for receiving data via HTTP. 12. The system according to claim 11, characterized in that the data via the HTTP protocol is displayed in a browser window on work PCs / stations or on mobile devices. 13. The system according to claim 4, characterized in that the data is transmitted in the form of a CMC and / or dial-up to a telephone number.

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