ENERGY STORAGE SYSTEMS LABORATORY
MISSION
The Laboratory of Energy storage systems will forward knowledge in materials and systems for energy storage by conducting research at the frontiers of the field, and educate students, young researchers within the stated fields to the benefit of Kazakhstan’s society.
VISION
Laboratory with the reputation of a world-class research institution recognized for its innovation, excellence and discovery, which will attract the best students and staff not only in Kazakhstan but worldwide. LESS will strive for international preeminence in advanced materials and systems for energy storage as will be indicated by highly-cited scholarly publications, outstanding leadership in the profession, and the education of a diverse group of highly-qualified graduates.
MAIN RESEARCH AREAS
Synthesis of functional nano-materials and their characterization. Energy materials. Powders, thin film and fiber materials for energy applications. Nanomaterials and nanotechnology. Ceramics and carbon materials. Adsorbents and foam materials. Preparation and characterization methods and application

Development of advanced materials for high performance energy storage devices, including lithium-ion batteries, sodium-ion batteries, lithium-sulfur batteries, and aqueous rechargeable batteries; design of next generation energy conversion and storage devices (flexible/transparent/micro batteries etc.)

Development of innovative high energy density batteries for grid connection of renewable sources and green transport

Mathematical modelling, including computational fluid dynamics of batteries and related topics

EQUIPMENT

FIELD EMISSION SCANNING ELECTRON MICROSCOPE model JSM-IT800HL
The JSM-IT800 incorporates our "In-lens Schottky Plus field emission electron gun" for high resolution imaging to fast elemental mapping, and an innovative electron optical control system "Neo Engine", as well as a system of seamless GUI "SEM Center" for fast elemental mapping with a fully embedded JEOL energy dispersive X-ray spectrometer (EDS), as a common platform.
The JSM-IT800 allows for the replacement of the objective lens of the SEM as a module, offering different versions to satisfy various users requirements. With the JSM-IT800, five versions are available with different objective lenses: a hybrid lens version (HL), which is a general-purpose FE-SEM; a super hybrid lens version (SHL/SHLs, two versions with different functions), which enables higher resolution observation and analysis; and the newly-developed semi-in-lens version (i/is, two versions with different functions), which is suited for the observation of semiconductor devices.
Furthermore, the JSM-IT800 can also be equipped with a new Scintillator Backscattered Electron Detector (SBED) and a Versatile Backscattered Electron Detector (VBED). The SBED enables the acquisition of images with high responsiveness and produces sharp material contrast even at a low accelerating voltage, while the VBED can help obtain images of 3D, topography and material contrasts. Thus, the JSM-IT800 can help users to obtain information that was not obtainable and to solve problems in measurement.
TriStar II Plus (Micromeritics)
High Throughput Surface Area and Porosity Analyzer.
The Micromeritics TriStar II Plus is a fully automated surface area and porosity analyzer that delivers a rapid high throughput analysis with high accuracy.
Analyzer provides an efficient high throughput system with three sample ports operating simultaneously and independently. For additional throughput, up to four units can be operated with one computer. Surface areas as low as 0.01 m 2 /g can be measured with the standard nitrogen system. Micromeritics MicroActive data reduction and control software enables the user to interactively calculate surface area and porosity. User-selectable data ranges through the graphic interface allow direct modeling for BET, BJH, t-Plot, Langmuir, and DFT interpretation
The simultaneous thermal analyzer NETZSCH STA 449 F3 Jupiter®
The simultaneous thermal analyzer NETZSCH STA 449 F3  Jupiter® allows the measurement of mass changes and thermal effects between -150°C and 2400°C.
The high flexibility caused by the various sensors, the great variety of sample crucibles and the wide TGA-measuring range make the system applicable for analysis of all kinds of materials including also inhomogenous substances. Easily interchangeable sample holders allow the optimal system adaption to the diverse application areas (TGA, TGA-DTA and TGA-DSC measurements). Various furnaces, easy interchangeable by the user, cover the complete temperature range (please see accessories).
Through to the vacuum tight design measurements at defined atmospheres (e.g. inert) are possible. The system is controlled by a newly developed integrated digital electronic device. The analysis of measuring data runs under a standard PC and the well-proven Windows® software.
High Low Temperature Test Chamber
Neware high low temperature test chambers are available in a variety of configurations that can meet your specific temperature, humidity, and safety protection requirements. The high low temperature test chamber aims to test the performance of batteries under a simulated harsh climate conditions, which can provide a good reference for the researchers and engineers at the product design and development stage.
Neware Battery Tester
The Neware Battery Tester is a state-of-the-art instrument designed for high-accuracy testing, analysis, and characterization of various battery chemistries including Li-ion, LiFePO₄, NiMH, and more.