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The tripod is made of aluminum, which allows them to be sterilized at any temperature; this material provides lightness and durability. It can be used in water baths. The tripod has an individual packaging. Designed for storing test tubes.

Purpose: Temperature measurement, sampling of molten metal Scope of application: Oxygen converters Measuring range: from 1400 to 1800 °C - metal temperature from 0.010 to 0.200% - carbon content Accuracy: 0 + 3 °C at 1554 °C; (from 5 to 10) mV (depending on the oxygen activity level) The shape of the selected metal mold: Circle: diameter 34 mm, thickness 12 mm Oval: diameter 34mm, length 42mm, thickness 12 mm Deoxidizer: Without deoxidizer, aluminum, zirconium, titanium Measurement time: 8 sec Tube Length: from 100 to 2500 mm (other lengths are available on request) Slag Cap: Steel, Aluminum, Copper, cardboard Type of NSH: B, S, R

A hydrogen production plant is a special equipment designed to produce hydrogen gas and oxygen by electrochemical decomposition of water into its main elements (in short, electrolysis of water). Today there are three ways to implement the electrolysis technology of hydrogen production, differing in the type of electrolyte used and the conditions of electrolysis. The electrolysis plant has a modular type of construction. A standard stationary installation consists of one or more electrolysis units and one process unit. The number of electrolysis units depends on the performance of the installation and the need to reserve electrolyzers (for objects of increased responsibility).

BASIC EQUIPMENT The base is a collapsible frame made of rectangular steel profile, painted with powder paint (RAL 7035) with the texture of shagreen leather Hidden fasteners Two easily removable rear screens (RAL 7035) and one non-removable (RAL 5023) Adjustable supports (0-40 mm)

Technical specifications: DC voltage Measuring range 2 mv-1000 V Measurement error ± (0.001 - 0.004)% AC voltage Measuring range 1 mV - 700 V Measurement error ± (0.1-8)% Frequency range 10 Hz -1 MHz

They are designed for carrying out various technological processes at temperatures from 40 to 500 oC, in vacuum up to 1x10−3 mmHg, or in an inert gas of high purity. They are used for drying, light annealing, aging, low and medium tempering in an oxidizing environment, degassing of ferrous and non-ferrous metals (including copper and copper alloys), or any other materials processed under similar conditions. The program setting of heat treatment modes including vacuuming, high purity inert gas intake with repeated vacuuming allows heating in an oxidizing environment with high purity of the surfaces of the processed parts, without scale formation and oxidation.

Technical characteristics: NIP, KG101 Discreteness, g1,0 External calibration The size of the weighing platform, mm350x320 The smallest weighing limit, g50 Accuracy class according to GOST OIML R 76-1-2011II high Limits of error allowed during initial verification, goth 50g to 50kg incl. ±5.0; sv.50kg to 52kg incl. ±10.0 Dust and moisture protection (IP)54/65 (on request) Setting time, s, no more than 3 Weight adjustment 40kgF2* 7 years warranty

The working surface is combined: the main table top TRESPA TopLabPlus 16/23mm with a side made of composite material based on epoxy resins (the height of the side above the table top is 7 mm, the depth is 30 mm) with a depth of 650 mm / an auxiliary table top made of TRESPA material with a depth of 150 mm Length, mm: 1800 Depth, mm: 800 Height, mm: 900 BASIC EQUIPMENT The base is a collapsible frame made of rectangular steel profile, painted with powder paint (RAL 7035) with the texture of shagreen leather Hidden fasteners Two easily removable rear screens (RAL 7035) and one non-removable (RAL 5023) Rear side boxes Adjustable supports (0-40 mm)

The principle of operation: The controlled extended product (pipe, rolled or wire) is passed through the working area of the flaw detector. When a defective area is detected, the flaw detector included in the automated system sends a signal to trigger the paint meter actuator, as a result of which the paint from the marker's aerosol can is applied to the surface of the controlled product through a window in the device housing. Features and benefits: - Any standard aerosol cans with a diameter of 68 mm can be used in the flaw detector; - Easy replacement of the cylinder; - The device does not require connection to the pneumatic line; - High performance; - The design of the CD-1 defect meter allows connection to any standard AC and DC electrical networks with rated voltages from 12 to 380 V. Scope of application: The CD-1 automatic paint sprayer is an auxiliary equipment and is used in conjunction with flaw detectors as part of in–line automated lines for marking defects in quality control of extended products made of various materials, ferrous and non-ferrous metals and alloys - welded, hot-rolled and cold-drawn pipes, rolled products, wire and products made of them. The flaw detector can be used both in the production process and during input control on the consumer side at machine-building, transport, chemical and oil and gas enterprises. *Custom-made versions for rated voltages can be of: 12, 24, 48, 110, 127, 220, 380V.

Designed for evaporation and recrystallization of chemicals. Made of TS glass according to GOST 21400-75.TU 4320-012-29508133-2009.

The first Russian In situ bioprinter for printing in the wound bed is a robotic complex for studying surface damage to restore tissues and organs directly in the patient's body. The in situ bioprinter is suitable for biomedical research in the field of tissue engineering in the laboratory. The bioprinter works with various types of hydrogels (including collagen of the first type) with the addition of cells, growth factors, etc. The printing time depends on the size of the defect and takes about 5 minutes on average. The device complex consists of a 6-axis robot, a 3D scanner and a biomaterial dispenser. The printing process includes scanning, tracing, and applying the material. Currently, the In situ bioprinter is at the stage of obtaining a medical device registration certificate for subsequent use in clinical practice. Improved wound healing dynamics strongly suggest that in situ bioprinting can be used as a new successful therapeutic method for the treatment of soft tissue defects. Significant advantages: ● Performs bioprinting even on a dynamically changing surface (optional: adaptation to micro-movements or breathing of the patient) ● Versatile in the use of different types of hydrogels (both sodium alginate and collagen; with and without cells, etc.) An important feature of the In situ bioprinter is that the bioprinter is suitable for various industries and can act as a "classic" 3D printer.