Metrology

Appointment: continuous measurement of the volumetric activity of radioactive aerosols caused by technogenic alpha-emitting nuclides; sound feed/light signaling in case the measured values of volumetric activity exceed the established threshold levels. Features: stationary placement in places where the air parameters of the working area are monitored; connection to a BN-01 type pump unit or other external sampling device; USB service interface for diagnostics, configuration, verification.

A simple and inexpensive radiation monitoring system for radiation-hazardous facilities, such as radionuclide source storages, isotope warehouses, clinical radionuclide diagnostics and therapy departments, PET centers, metrological laboratories where work with ionizing radiation sources is carried out, etc.

The smart probe of relative humidity and temperature L=150 mm SSVL.150 is designed to measure the temperature of gaseous materials without mechanical impurities and aggressive vapors, relative humidity by direct contact of the probe with the measuring object and transmitting the measured value via Bluetooth to devices with the installed ThermoMonitor based on the Android program. Operating conditions of the smart probe SSVL.150 Ambient temperature, °C: -20...+55. Relative humidity, %: not more than 80 at T=35 °C. Atmospheric pressure, kPa: 86...106. Functionality of the smart probe SSVL.150 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 principle of operation of the means of magnetic particle control The portable device UNM-2000/6000 of the MANUL series is a magnetic particle flaw detector that provides measurements by the applied field method and the residual magnetization method using direct, alternating and pulsed current with specified parameters. External magnetizing devices included in the kit (solenoids, electromagnets, contact devices for connecting cables) allow for longitudinal, transverse and circular magnetization of the object under study. A special magnetic powder, dry or in the form of an emulsion, is applied to the controlled surface. Inhomogeneities of the magnetic field in the places of defects lead to the accumulation of powder particles, thus "showing" a hidden picture. Design features and advantages of the UNM-2000/6000 powder flaw detector: In the MANUL series, the UNM-2000/6000 device is capable of providing the highest magnetization current (up to 6000 A in pulse mode), which allows you to control products having a large mass or size, as well as those made of magnetohard alloys; The device can be included in automated quality control stands: there are network interfaces (LAN, Bluetooth, Wi-Fi) for connection; microprocessor control provides storage and reproduction of magnetization and demagnetization parameters, logging of control results, automatic demagnetization; The design is modular, allows for changes to implement the individual wishes of the customer; It fully complies with the following standards: GOST R 56512-2015, GOST R 53700-2009 (ISO 9934-3:2002), GOST R 50.05.06-2018, GOST R ISO 10893-5-2016, GOST ISO 17638-2018 , RD 34.17.102-88, RD-13-05-2006 and other Russian and foreign standards regarding the requirements for magnetizing devices and magnetic particle flaw detectors; It is approved for use by industry regulatory documents, in particular, by the Russian Railways. Scope of application Magnetic powder control devices are widely used in various industries, construction and transport, from steel and pipe rolling plants to organizations engaged in the operation and repair of machines, mechanisms and vehicles. Magnetic powder flaw detectors belong to the means of non-destructive testing and therefore can be used to detect defects in products and structures operating under pressure, including at chemical and oil and gas industry enterprises, as well as during the operation of pipelines. In particular, devices for monitoring by the magnetic powder method have proven themselves well at Russian Railways and metro enterprises engaged in the operation and repair of rolling stock, including for the control of shafts, wheels and wheel pairs, gearboxes, springs, couplers and other loaded components and parts. Technical specifications: Magnetization currents: Variable, Pulse, Rectified (only for solenoid and electromagnet) The measurement error of the magnetization current is no more than 10%. Characteristics of the pulse current: The repetition frequency of unipolar current pulses during magnetization and of multipolar current pulses during demagnetization is (2 ± 0.2) Hz. The duration of the current pulses is at least 1.5 ms. Magnetic characteristics of the solenoid: The maximum alternating magnetic field in the center of a single solenoid is at least 100 A/cm. The maximum alternating magnetic field on the axis in the center between two solenoids located at a distance of 200 mm is at least 60 A/cm. The maximum permanent magnetic field in the center of a single solenoid is at least 80 A/cm. The maximum permanent magnetic field on the axis in the center between two solenoids located at a distance of 200 mm is at least 50 A/cm. Values of magnetization currents: The maximum alternating magnetization current in the unwound cable is 6 m × 50 mm2 and on the electrical contacts is at least 2000 A. The maximum pulse magnetization current in an unwound cable of 4 m × 10 mm2 and on electrical contacts is at least 6000 A. The current adjustment range in the solenoids and the electromagnet is from 0.5 to 4.5 A. Characteristics of the electromagnet: The maximum alternating magnetic field in the air gap of the electromagnet depending on the interpolar distance is as follows: - in the 140 mm gap: at least 75 A/cm; - in the 40 mm gap: at least300 A/cm. The maximum constant magnetic field in the air gap of the electromagnet depending on the interpolar distance is as follows: - in the 140 mm gap: at least 100 A/cm; - in the 40 mm gap: at least 400 A/cm. Operating mode: The operating mode is cyclic: magnetization/pause. The magnetization time is adjustable from 1 to 40 s. The demagnetization time is adjustable from 5 to 60 seconds. Demagnetization of parts is performed automatically. The time of setting the operating mode is no more than 15 seconds. The duration of continuous operation is at least 8 hours. Power supply parameters: The device is powered by an AC power supply with a voltage of 220 V and a frequency of 50 Hz. The power consumed from the network is no more than 5 kVA. Overall characteristics: Overall dimensions of the device (w × h × d) – no more than 267×245×465 mm. The weight of the device is not more than 50 kg. Other characteristics: The average worktime before failure is at least 12500 hours. The average recovery time is no more than 6 hours. The average service life of the device is at least 10 years. Сompliance with standards The device fully complies with the requirements of GOST R 56512-2015, GOST R 53700-2009 (ISO 9934-3:2002), GOST R 50.05.06-2018, GOST R ISO 10893-5-2016, GOST ISO 17638-2018, RD 34.17.102-88 and RD-13-05-2006 in terms of the requirements for magnetizing devices and magnetic particle flaw detectors. Identification of the load. It performs automatic identification of the types of connected load: cables, solenoids and electromagnet. Control of the connected load current It allows you to control the current of the connected AC/DC electromagnets and solenoids. The kit includes: 1 Electrical contact with cable, cross section 50 mm2, length 3m 2 Solenoid cable, 3m long 3 Solenoid cable, 0.5m long 4 Magnetizing cable, cross section 10 mm2, length 6m 5 Magnetizing cable, cross section 50 mm2, length 6m 6 Solenoid - 2pcs 7 The electromagnet is manual 8 Trolley 9 Power unit UNM 2000/6000

Range: 0.8-20.0 m/s; Accuracy characteristics: PG±(0.3+0.05V) m/s; The power is supplied from a 4.8 V battery. The power consumption is 0.1 VA. Application conditions: For primary measuring transducers: from minus 30C to plus 50C in the range of 1.0–20.0 m/s; For digital measuring console: from minus 10C to plus 50C; Relative humidity 45-80% at temperature (25±10)With; Continuous operation time at negative temperatures up to minus 30C is no more than 1 hour.

METOLAB 202 is a stationary automatic hardness tester designed to measure the hardness parameters of various materials and products on the A, B, C Rockwell scales and the HR15N, HR30N, HR30T, HR45N Super-Rockwell scales. The device has a large and bright display, which displays all the necessary service information, and is also equipped with a built-in mini-printer, so that it is possible to quickly print out the information received on paper. Other features of the METOLAB 202 hardness tester include a fully Russified menu, a wide range of measured values, as well as full compliance of measurements with current standards, including BS.EN 10109 and ISO716. The stationary METOLAB 202 hardness tester allows you to apply a loading force in 15, 30, 45, 60, 100, 150 kgf and preload 3 kgf, 10 kgf. The device is entered in the State Register of Measuring Instruments of the Russian Federation (GRSI) under the number 65128-16 and comes with a certificate of primary verification (on request). Regulatory and technical documents establishing requirements for the METOLAB 202 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. Distinctive features of the stationary METOLAB 202 hardness tester: All measurements take place in fully automatic mode; The ability to set the upper and lower measurement limits, audible alarm when the results exceed the set values; Opportunity to process statistical data – calculation of minimum/average/maximum values, as well as other functions; Conversion of the obtained results into the Vickers, Brinell and Super-Rockwell scales; Correction for curvature of cylindrical and spherical parts; Simple and intuitive interface in Russian. Basic package of delivery: Stationary Metolab 202 Rockwell 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 and Super-Rockwell Hardness Measures; User Manual.

The composition of the PM-8 verification module Frequency comparator CHK7-1011; Universal frequency meter Ch3-89; AC voltage voltmeter VK3-78A; Universal voltmeter V7-81; AC voltage calibrator H5-5; High-frequency signal generator G4-227; High-frequency signal generator G4-229; High-frequency signal generator G4-230; Absorbed power wattmeter M3-108; Installation for measuring attenuation D1-24/1; Device for measuring attenuation stepwise D1-25; Computational modulation meter SK3-49; The meter-calibrator of the harmonic coefficient SK6-20; Spectrum analyzer SK4-"Belan 240"; VSWR panoramic meter R2-135; VSWR panoramic meter R2-137; A set of exemplary measures of the transmission coefficient H3-7; Oscilloscope S1-157/4; DC power supply B5-79/1; AC power source B2-7 (2 pcs.); Electronic switch of microwave signals; PC, printer; Basic load-bearing structures (BNC). Technical specifications Measuring ranges of electrical quantities: Constant electrical voltage from 3 MV to 1000 V Alternating electric voltage in the frequency range of 10 Hz ... 2000 MHz from 10 mV to 100 V Frequency of continuous electromagnetic oscillations from 0.001 Hz to 17.85 GHz The power of continuous electromagnetic oscillations in the frequency range of 20 MHz ... 17.85 GHz from 0.8 to 10 MW Attenuation of electromagnetic oscillations in the frequency range 0.1 MHz ... 17.85 GHz from 0 to120 dB VSWR in the frequency range 0.2 ... 17.85 GHz from 1.03 to 2 Harmonic coefficient in the frequency range of 10 Hz ... 8 GHz from 0.005 to 100 % The amplitude modulation coefficient in the carrier frequency range of 100 kHz ... 17.85 GHz from 0.1 to 100 % Frequency deviation in the carrier frequency range of 100 kHz ... 17.85 GHz from 5 Hz to 1 MHz Phase modulation index in the carrier frequency range 100 kHz ... 17.85 GHz from 1 to 100 radians Phase shift between two harmonic signals in the frequency range 0.1 MHz ... 17.85 GHz from 0 to 360o Ranges of reproduction of electrical quantities: Alternating electrical voltage in the frequency range of 10 Hz ... 2000 MHz from 3 MV to 3 V Harmonic (sinusoidal) signal at a load of 50 ohms in the frequency range of 0.001 Hz ... 30 MHz from 0.01 to 5 V Continuous electromagnetic oscillations in the frequency range of 9 kHz ... 17.85 GHz from minus 120 to 13 dBm 5 and 10 MHz reference frequency signal Attenuation of electromagnetic oscillations in the frequency range 0 ... 3 GHz from 0 to 86 dB Measurement errors of electrical quantities: Constant electrical voltage ± (0.0025 ... 16.7) % Alternating electric voltage in the frequency range 10 Hz ... 2000 MHz ± (0.2 ... 16) % Frequency of continuous electromagnetic oscillations ± (2·10-7 ... 4·10-3) Power of continuous electromagnetic oscillations in the frequency range 20 MHz ... 17.85 GHz ± (4 ... 6) % Attenuation of electromagnetic oscillations in the frequency range 0.1 MHz ... 17.85 GHz ± (0.01 ... 1.2) dB VSWR in the frequency range 0.2 ... 17.85 GHz ± (3 ... 5) K Harmonic coefficient in the frequency range 10 Hz ... 8 GHz ± (0.005 ... 6) % Amplitude modulation coefficient in the carrier frequency range 100 kHz ... 17.85 GHz ± (0.1 ... 9) % Frequency deviation in the carrier frequency range 100 kHz ... 17.85 GHz ± (0.2 ... 80) Hz Phase modulation index in the carrier frequency range 100 kHz ... 17.85 GHz ± (0.02 ... 5) radians Phase shift between two harmonic signals in the frequency range 0.1 MHz ... 17.85 GHz ± (0.01 ... 0.08) o Errors in the reproduction of electrical quantities: Alternating electrical voltage in the frequency range 10 Hz ... 2000 MHz ± (0.16 ... 10) % Harmonic (sinusoidal) signal at a load of 50 ohms in the frequency range 0.001 Hz ... 30 MHz ± (3 ... 5) %; Continuous electromagnetic oscillations in the frequency range of 9 kHz ... 17.85 GHz ± (0.5 ... 3) dB 5 and 10 MHz reference frequency signal ± (2·10-11 – 2,4·10-10) Attenuation of electromagnetic oscillations in the frequency range 0 ... 3 GHz ± (0.2 ... 1.4) dB General technical characteristics: The area occupied by the module is 6-12 m2 Weight, not more than 550 kg Power supply voltage from 198 to 242 V with a frequency of (50 ± 0.5) Hz Power consumption, no more than 3000 VA

Designed to measure the temperature of various materials by direct contact of the probe with the measuring object The smart air probe L=1000 mm SSV.1000P with built-in flash memory 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 ThermoMonitor. Android program is installed. Operating conditions of the SZV.1000P 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 smart probe SSV.1000P 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. Android program is installed. Transmitting information about the state of charge of the built-in battery via Bluetooth to a device with the ThermoMonitor, Android program installed. Automatic transition to sleep mode after 50 seconds. The ability to connect an external power supply. Possibility of calibration.

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.

Purpose: measurement of the product of the air kerma on the cross-sectional area of the X-ray beam at the output of the X-ray machine; determination of the power of the product of the air kerma on the cross-sectional area of the X-ray beam of light at the output of the X-ray machine; monitoring the stability of medical X-ray machines during their operation; verification of clinical dosimeters with pass-through ionization chambers (after certification as a working standard).