CNT-1 is a compact and reliable microprocessor-based device designed for precise pulse counting in technological processes.
It is used in automation systems to monitor the number of products, cycles, machine revolutions, object passages through a control zone, and more.

Its flexible configuration allows the device to be used in manufacturing, transportation systems, packaging lines, machine tools, and other areas where reliable event counting is required.

⚙ Functional Capabilities:

• 🧮 Pulse counting with noise and interference filtering
• 🎯 Setpoints (limits) – output signal generation when the preset value is reached
• 🔄 Input operating modes – start/stop, block, reset
• ⚡ Equipment control via 2 digital outputs (switching mechanisms on/off, signaling)
• 🖥 Integration with industrial automation systems – via Modbus RTU or USB connection
• 💾 Data storage in non-volatile memory when power is off
• ⚙ Parameter configuration via PC or optional button panel

CNT-1 is a compact and reliable microprocessor-based device designed for precise pulse counting in technological processes.
It is used in automation systems to monitor the number of products, cycles, machine revolutions, object passages through a control zone, and more.

Its flexible configuration allows the device to be used in manufacturing, transportation systems, packaging lines, machine tools, and other areas where reliable event counting is required.

⚙ Functional Capabilities:

• 🧮 Pulse counting with noise and interference filtering
• 🎯 Setpoints (limits) – output signal generation when the preset value is reached
• 🔄 Input operating modes – start/stop, block, reset
• ⚡ Equipment control via 2 digital outputs (switching mechanisms on/off, signaling)
• 🖥 Integration with industrial automation systems – via Modbus RTU or USB connection
• 💾 Data storage in non-volatile memory when power is off
• ⚙ Parameter configuration via PC or optional button panel

QNT-1 is a high-precision microprocessor-based device designed for receiving, processing, and displaying signals from incremental encoders or other pulse sensors, with the capability to generate discrete control signals for external equipment.

🎯 Purpose:

The counter provides:

• 📡 Measurement of an input physical parameter (rotation angle, linear displacement, number of revolutions) from an incremental encoder.
• 🧮 Mathematical processing of input data (counting, scaling, filtering) with subsequent display of the current value on the built-in digital indicator.
• ⚡ Generation of discrete output signals for controlling actuators according to user settings.

🚀 Key Features and Functional Capabilities

🔄 Two operating modes:

• 📐 Quadrature counter – operates with two counting inputs (DI1, DI2), determining the counting direction based on the phase shift between the signals.
• 🎛 Command counter – operates with one counting input and a separate command input to set the counting direction.

🔌 Universal inputs:

• Supports connection of PNP/NPN-type sensors, dry contacts, high- and low-level sensors, and incremental encoders.
• 🛡 Galvanic isolation of the inputs ensures protection against industrial interference.

🌐 Data communication interfaces:

• RS-485 with Modbus RTU protocol support for integration into automated process control systems (APCS).
• USB port for direct PC connection and parameter configuration.

💡 Two discrete outputs (DO1, DO2):

Programmable setpoints SET POINT 1 and SET POINT 2 for output activation.

Capability to control loads: ⚙️ switching mechanisms on/off, 📢 signaling, ⏱ generating pulses of a specified duration.

QNT-11 is a high-precision microprocessor-based device designed for receiving, processing, and displaying signals from incremental encoders or other pulse sensors, with the capability to generate discrete control signals for external equipment.

🎯 Purpose:

The counter provides:

• 📡 Measurement of an input physical parameter (rotation angle, linear displacement, number of revolutions) from an incremental encoder.
• 🧮 Mathematical processing of input data (counting, scaling, filtering) with subsequent display of the current value on the built-in digital indicator.
• ⚡ Generation of discrete output signals for controlling actuators according to user settings.

🚀 Key Features and Functional Capabilities

🔄 Two operating modes:

• 📐 Quadrature counter – operates with two counting inputs (DI1, DI2), determining the counting direction based on the phase shift between the signals.
• 🎛 Command counter – operates with one counting input and a separate command input to set the counting direction.

🔌 Universal inputs:

• Supports connection of PNP/NPN-type sensors, dry contacts, high- and low-level sensors, and incremental encoders.
• 🛡 Galvanic isolation of the inputs ensures protection against industrial interference.

🌐 Data communication interfaces:

• RS-485 with Modbus RTU protocol support for integration into automated process control systems (APCS).
• USB port for direct PC connection and parameter configuration.

💡 Two discrete outputs (DO1, DO2):

• Programmable setpoints SET POINT 1 and SET POINT 2 for output activation.
• Capability to control loads: ⚙️ switching mechanisms on/off, 📢 signaling, ⏱ generating pulses of a specified duration.

CNT-4 is a compact and reliable microprocessor-based device that contains 4️⃣ independent simple pulse counters.
The device is designed for 🧮 counting pulses from primary sensors in order to determine:

• 📦 the quantity of produced goods (pieces, product groups),
• 📏 length,
• ⚖️ weight,
• 🛢 volume,
• 🚗 traveled distance.

✨ Distinctive features and functionality:

• 4️⃣ independent simple counters with the ability to ⏸ stop or 🔄 reset when the set value is exceeded (overflow).
• 🔌 Universal inputs supporting connection of:
  • 🔵 PNP/NPN-type sensors;
  • ⚪ dry contacts;
  • 💧 high- and low-level sensors.
• 4️⃣ discrete inputs for implementing control functions (via interface):
  • ▶️ START/STOP — start or stop counting;
  • 🚫 BLOCK — temporary blocking of counting;
  • 🔄 RESET — reset of the accumulated value.
• 4️⃣ discrete outputs for controlling external loads ⚙️ (actuators, 📢 signaling).
• 🌐 Communication interfaces:
  • 🔗 RS-485 with Modbus RTU protocol support — for integration into automated control systems;
  • 💻 USB port — for PC connection and parameter configuration.

📌 Purpose:

The MTL-32 microprocessor-based timer-counter is a universal multifunctional measuring and control device designed for:

• ⏳ Measuring the duration of processes over time (seconds, minutes, hours, days).
• 🔄 Counting the number of shaft and mechanism rotations.
• 📦 Counting products (pieces, units, or batches).
• 💧 Measuring the flow of liquids, gases, and bulk materials.
• ⚡ Registering the number of pulses from various types of sensors: contact, optical, inductive, capacitive, etc.

⚙️ Main functional features:

• Operating modes:
  • 🔢 Pulse counter — counting events from sensors or switching devices.
  • ⏱ Timer — counting down or measuring time intervals.
  • 🌀 Tachometer — measuring rotational speed.
  • 🛢 Dispenser / flow meter — controlling material flow over time or by the number of pulses.
• 🔌 Universal inputs with support for:
  • PNP and NPN-type sensors;
  • “dry contact”;
  • high- and low-level sensors;
  • incremental encoders (including quadrature output).
• 🎛 Three discrete inputs for implementing functions:
  • ▶️ Start/Stop of the process;
  • 🚫 Count blocking;
  • ♻️ Counter reset.
• 🌐 RS-485 interface with Modbus RTU support for connection to a PC, HMI, or SCADA systems.
• 💡 Two discrete outputs for controlling external loads or signaling, with configurable actuation logic.
• 🛡 Galvanic isolation of inputs, outputs, and interface from the power circuit.

📌 Purpose:

The MTL-32 microprocessor-based timer-counter is a universal multifunctional measuring and control device designed for:

• ⏳ Measuring the duration of processes over time (seconds, minutes, hours, days).
• 🔄 Counting the number of shaft and mechanism rotations.
• 📦 Counting products (pieces, units, or batches).
• 💧 Measuring the flow of liquids, gases, and bulk materials.
• ⚡ Registering the number of pulses from various types of sensors: contact, optical, inductive, capacitive, etc.

⚙️ Main functional features:

• Operating modes:
  • 🔢 Pulse counter — counting events from sensors or switching devices.
  • ⏱ Timer — counting down or measuring time intervals.
  • 🌀 Tachometer — measuring rotational speed.
  • 🛢 Dispenser / flow meter — controlling material flow over time or by the number of pulses.
• 🔌 Universal inputs with support for:
  • PNP and NPN-type sensors;
  • “dry contact”;
  • high- and low-level sensors;
  • incremental encoders (including quadrature output).
• 🎛 Three discrete inputs for implementing functions:
  • ▶️ Start/Stop of the process;
  • 🚫 Count blocking;
  • ♻️ Counter reset.
• 🌐 RS-485 interface with Modbus RTU support for connection to a PC, HMI, or SCADA systems.
• 💡 Two discrete outputs for controlling external loads or signaling, with configurable actuation logic.
• 🛡 Galvanic isolation of inputs, outputs, and interface from the power circuit.

📌 Purpose:

The THM-1 tachometer is designed for use in automation and process control systems where it is necessary to:

• ⚙️ Measure the rotational speed of shafts in rotating mechanisms (motors, fans, pumps, drums, etc.).
• 🚚 Monitor the linear speed of moving objects (conveyors, belt conveyors, roller tracks).
• ⏱ Determine the operating time of units, equipment, and mechanisms in hours, minutes, or days.

⚙️ Functional Capabilities:

• 📏 Measurement of rotational speed with the ability to display in:
  • 🔄 rev/s – revolutions per second;
  • 🔄 rev/min – revolutions per minute;
  • 🔄 rev/h – revolutions per hour;
  • 📐 User-defined units – custom units via scaling factor.
• 📊 Frequency measurement range — from 0.5 Hz to 25 kHz.
• ⏳ Operating time measurement — from 1 s to 9999 days.
• 🔌 Supports connection of various primary sensors:
  • 🔵 Open-collector transistor sensors NPN and PNP;
  • ⚪ Reed switches.
• ⚡ Output elements:
  • 🛎 Relay output for signaling or controlling actuators;
  • 📤 Analog output (0…10 V or 4…20 mA) for transmitting measured values to external systems.
• 💾 Retention of settings and results in built-in non-volatile memory when power is off.

🌐 Interfaces & Communication:

• 🔗 RS-485 with Modbus RTU protocol — for integration into industrial control (SCADA, PLC) systems.
• 💻 USB port — for PC connection, parameter setup, and calibration.

💡 Additional Features:

• 🎯 Ability to set threshold values for relay output (SET POINT) with hysteresis.
• ▶️⏹ Operation in continuous measurement mode or start/stop control via discrete input.
• 🛡 Galvanic isolation of inputs, outputs, and interfaces from the power circuit.
• ⚡ Sensor power supply from a built-in +24 V source.

📌 Purpose:

The THM-11 tachometer is designed for use in automation and process control systems where it is necessary to:

• ⚙️ Measure the rotational speed of shafts in rotating mechanisms (motors, fans, pumps, drums, etc.).
• 🚚 Monitor the linear speed of moving objects (conveyors, belt conveyors, roller tracks).
• ⏱ Determine the operating time of units, equipment, and mechanisms in hours, minutes, or days.

⚙️ Functional Capabilities:

• 📏 Measurement of rotational speed with the ability to display in:
  • 🔄 rev/s – revolutions per second;
  • 🔄 rev/min – revolutions per minute;
  • 🔄 rev/h – revolutions per hour;
  • 📐 User-defined units – custom units via scaling factor.
• 📊 Frequency measurement range — from 0.5 Hz to 25 kHz.
• ⏳ Operating time measurement — from 1 s to 9999 days.
• 🔌 Supports connection of various primary sensors:
  • 🔵 Open-collector transistor sensors NPN and PNP;
  • ⚪ Reed switches.
• ⚡ Output elements:
  • 🛎 Relay output for signaling or controlling actuators;
  • 📤 Analog output (0…10 V or 4…20 mA) for transmitting measured values to external systems.
• 💾 Retention of settings and results in built-in non-volatile memory when power is off.

🌐 Interfaces & Communication:

• 🔗 RS-485 with Modbus RTU protocol — for integration into industrial control (SCADA, PLC) systems.
• 💻 USB port — for PC connection, parameter setup, and calibration.

💡 Additional Features:

• 🎯 Ability to set threshold values for relay output (SET POINT) with hysteresis.
• ▶️⏹ Operation in continuous measurement mode or start/stop control via discrete input.
• 🛡 Galvanic isolation of inputs, outputs, and interfaces from the power circuit.
• ⚡ Sensor power supply from a built-in +24 V source.