Equipment

The PCU-1 laboratory catalytic unit is designed to perform the following tasks: 1. Educational and scientific research of chemical processes; 2. Improvement of current industrial processes and development of new ones; 3. Studies of homogeneous and heterogeneous catalysts. The PCU-1 laboratory catalytic unit is manufactured in accordance with the technical requirements of customers so as to correspond to a wide range of technological parameters. Additionally, embedded equipment is designed to control the flow of raw materials and products, as well as data collection and processing. The unit can be subsequently modernized for new purposes. Main advantages: 1. A reliable and high-precision system of control and regulation of technological parameters; 2. Easy replacement of catalyst samples; 3. The possibility of conducting long-term tests in continuous mode; 4. The possibility of upgrading the unit for new purposes; 5. The possibility of conducting tests in flow and flow-circulation modes; 6. Control and accurate reproduction.

A feature of the POWDIX 600 X-ray diffractometer scheme is the vertical Bragg-Brentano optical scheme with a fixed horizontal sample position, which makes working with powdery materials, gels and other viscous substances more practical and convenient. The high detector resolution and precise positioning of the POWDIX 600 X-ray goniometer achieve an accuracy better than +/- 0.02° (2θ) over the entire angular range. In the POWDIX 600 diffractometer, the X-ray tube is cooled by an integrated closed water circuit, which can be serviced by any laboratory employee. A wide variety of sample holders (holder for massive samples, holder with rotation, phoneless cuvettes) expands the functionality of the POWDIX 600 and makes it an invaluable tool for scientific research in solid-state physics, materials science, chemistry, geology and other fields of science The diffractometer is included in the Russian State Register of Measuring Instruments.

The surface smart probe L=1000 mm SZPV.1000 is designed to measure the temperature of various materials by direct contact of the probe with the measuring object and transmitting the measured value via Bluetooth to devices with the ThermoMonitorbased on the Android program. Operating conditions of the SZPV.1000 smart probe Ambient temperature, °C: -20...+55. Relative humidity, %: not more than 80 at T=35 °C. Atmospheric pressure, kPa: 86...106. Functionality of the SZPV.1000 smart probe Measurement of physical quantities with a resolution of 0.01. Recording of measured values at intervals from 5 seconds to 23 hours 59 minutes 59 seconds (only smart probes with built-in memory). Transmitting data about measured physical quantities via Bluetooth to a device with the ThermoMonitor based on the Android program. Transmitting information about the state of charge of the built-in battery via Bluetooth to a device with the ThermoMonitor based on the Android program. Automatic transition to sleep mode after 50 seconds. The ability to connect an external power supply. Possibility of calibration.

The set of devices is designed for installation in a vertical position of nine working viscometers in the bath of the VIS T 06 liquid thermostat when they are verified.

Overall dimensions with raised protective shield 1805x800x2270 mm Overall dimensions with lowered protective shield 1805x800x2100 mm The diameter of the exhaust pipe is 200 mm Weight 300 kg Power supply 220 V, 50 Hz, 16 A

Multifunctional hardware and software complex for mobile and airborne laser scanning from unmanned aerial vehicles (UAVs). Main areas of use: › engineering surveys; › creation of three-dimensional models of infrastructure facilities; › certification and diagnostics of the state of roads and railways; › creating GIS for various purposes; › and other. The UAV laser scanner weighs 1.5 kg, which makes it easy to install on a wide range of UAVs. The AGM-MS3 laser scanner is designed for fully autonomous operation with minimal operator involvement, making shooting easy, fast and convenient. The possibility of integrating an external camera, from panoramic to thermal imaging, opens up a limitless number of applications.

Designed for the preparation of samples in the form of compressed tablets with a diameter of 3.5 mm, consisting of the test substance in a mixture with microcrystalline potassium bromide (KBr). - the principle of operation of the device is based on creating the pressure necessary for pressing due to a mechanical lever system - the press is made of high-quality alloy hardened steel - for the manufacture of a tablet with a diameter of 3.5 mm, a minimum amount of the test substance and KBr is required - for the study of finished samples on a Fourier spectrometer, a vertical or horizontal microfocusing prefix is used

The frequency meter is able to work both independently and as part of automated measuring systems with interfaces such as USB or RS-232. Technical specifications Frequency and period of sinusoidal signals (inputs A, B) 0.001 Hz - 300 MHz Frequency and period of video pulse signals (inputs A, B) 0.001 Hz - 300 MHz Frequency of continuous sinusoidal oscillations (input C) (0.3 – 37.5) GHz Pulse duration 10 ns - 1000 s The duration of the front, the decay of the pulses is 5 ns - 100 microseconds Time interval from -1000 to 1000 s Frequency measurement resolution 2x10-10 s/Rng The range of setting the trigger levels (inputs A, B) from minus 2.5 to 2.5 V The error of setting the trigger levels (inputs A, B) ± 0.05 V Input signal level: • for sinusoidal signal (inputs A, B) (0.03 - 10.0) V • for video pulse signal (inputs A, B) (0.1 - 10.0) V • for sinusoidal signal (input C) 50 MW - 5 MW Input resistance • Inputs A, B (50±2.5) ohms; (1±0.1) MOm/100 pF • Input With (50±2.5) ohms Nominal frequency value of the reference quartz oscillator 10 MHz Relative error in the frequency of the quartz oscillator, no more than ± 2x10-7 in 12 months Operating temperature range from minus 10 to 40 °C AC power supply 220 V, 50 Hz Power consumption, not more than 100 VA Overall dimensions, mm 299x136x436,5 Weight, not more than 8.5 kg

METOLAB 101 is an analog stationary hardness tester according to the Rockwell method, a modification of the METOLAB 100 hardness tester with an electromechanical loading system. The rest of the devices are identical. The stationary METOLAB 101 hardness tester is designed to measure the hardness of various materials using the Rockwell method, HRA, HRB and HRC scales. Due to its ease of operation, the stationary METOLAB 100 hardness tester can find its application in a wide variety of industries and production, as well as in educational institutions of various levels in the training of specialists. The stationary METOLAB 101 Rockwell hardness tester is included in the State Register of Measuring Instruments of Russia (GRSI) and comes with a certificate of primary verification (on request). The number in the GRSI is 65128-16. Distinctive features of the stationary METOLAB 101 Rockwell hardness tester: Simplicity and convenience in both operation and maintenance; Wide range of measured values; High degree of reliability; Low cost of measurements compared to competitors. Basic delivery package: Stationary METOLAB 101 hardness tester; Indenter with a ball (1.5875 mm) - 1 pc.; Conical diamond indenter (120°) - 1 pc.; Flat table SP1 (60 mm); V-shaped prismatic table SRP1 (40 mm); Rockwell hardness measures - 1 set; User Manual. Additional information: GOST standards and regulatory documents establishing requirements for the METOLAB 101 Rockwell hardness tester: GOST 8.064-94 GSI. State verification scheme for hardness measuring instruments on the Rockwell and Super-Rockwell scales; GOST 9013-59 Metals and alloys. Rockwell hardness measurement method. Scales A, B, C; GOST 22975-78 Metals and alloys. Rockwell hardness measurement method at low loads (Super-Rockwell); GOST 23677-79 Hardness testers for metals. General technical requirements.

The side, back walls and top are made of sheet metal. Automatic emergency power cut-off (16 A), two splash-proof sockets, a light-switch, an electrical box on the base panel's back. Flange to connect to exhaust system of ventilation (200 mm). The cabinat's base is a relocatable reinforced frame made of steel shaped tube on adjustable bearings. The exhaust box and the cabinet's base are painted with high-quality powder polymer paint, that protects the cabinet from the external effects of aggressive vapors, mechanical damage and high temperatures. Additionally, the cabinet can be equipped with a metal box for other supplementary equipment storage, consumables, tools.

The kit is designed to control the temperature and pressure of the coolant and archive the measured results for further documentation and analysis. The main purpose of the kit is to control the coolant parameter, monitor the pressure and pressure drop between the supply and return pipelines, and fix hydraulic shocks. Features of the CTP kit The CTP kit allows you to control the parameters of the coolant supply, temperature and pressure. The kit consists of a four-channel meter-recorder, which allows you to store 15,000 values in memory for each channel with an interval of 5 seconds. up to several hours, which allows you to take measurements and store data for up to 1 year. The CTP kit allows you to monitor temperature and pressure around the clock throughout the year, and if necessary, for a longer period. With the help of the CTP kit, we see all the dynamics of the development of the situation of changes in temperature and pressure of the coolant, including weekends (crimping, stopping, starting the heating network, operating modes). The kit allows you to increase the responsibility of personnel for compliance with technological regimes. There is a real-time indication that allows personnel to monitor the parameters of the supplied coolant. A set of TTP is usually installed at the border of responsibility, i.e. at the point where, according to the contract, the supplier is obliged to supply a certain amount of coolant with a specific temperature and pressure parameters.

Purpose: The device is designed to monitor compliance with the maximum permissible levels of high-frequency radiation (alternating electric field strength, alternating magnetic field strength and electromagnetic field energy flux density) at the workplaces of personnel servicing electrical and radio engineering installations and systems emitting an electromagnetic field, in accordance with GOST 12.1.006, GN 2.1.8./2.2.4.019 and San-PiN 2.2.4/2.1.8.055.