The proposed project is divided into two parts. The first part aims to create a modern green propellant (GP) for the automotive industry contains
attractive new energetic materials (EM), which will be developed and pilot-plant prepared during the project on the devices Explosia a.s. Modern
energetic materials will be energetically richer and technology of preparation will be simple. The research will also develop advanced production
technology of green propellant, through the use of new types of binders cellulose.
In the second part of the project we want to consider developing of advanced technology for preparing castable solid rocket propellant for large
caliber ammunition and air rescue systems. Component of casting technology research of castable solid rocket propellant will be research of new,
hygienically acceptable burning rate modifier to replace the commonly used lead compounds and research of modern monomers for phlegmatization
of nitroglycerine and gelation of nitrocellulose, from which the elements of castable solid rocket propellant will be prepared.

The project focuses on the development and production of environmentally acceptable precursors used for primary explosives in initiating systems. At the same time new thermostable phlegmatizates with new types of additives (e.g. polymers or metallic soaps) for the secondary initiator composition will be developed. These phlegmatizates find application as filling of secondary compositions of initiators (e.g. detonators) or boosters.

The present project aims to develop a centrifugal spinning technology to produce amorphous SiO2 nanofibers . These nanofibers will fulfill all
criteria for their industrial use in moisture-removal processes planned after the project ends. Efforts to optimize the technology will be undertaken
by the industrial parner (Pardam Ltd.), the stuff at University of Pardubice will care about R&D and characterization of nanofibers to have large
internal surface area, suitable porosity and OH-coverage.

The project focuses on investigations of chemical and electrochemical conditions that lead to highly ordered self-organized TiO2 nanotube layers prepared by anodization of Ti in suitable electrolytes. The enhancement of the lateral ordering gives great promise for enhancement of various properties of tinania nanotube layers that in turn can be used more efficiently for many functional applications, including photocatalysis, water splitting, solar cells. The main focus of the project is given on the electrolyte chemistry and search for the right electrochemical condition, since the electrolyte chemistry is the main factor influencing the growth of nanotube layers. The goal of the project is to identify such conditions that lead to the growth of ordered layers and have not been properly investigated and understood till now. We aim also towards synthesis of novel shapes of anodic TiO2 nanotubes with improved degree of ordering and highly ordered patterns, using Ti substrates with distinct surface locations by various lithographic techniques or indentation techniques

There is a need of the society to make use of novel designs and concepts of solar cells that would fulfil except stringent criteria of efficiency, stability, and low prize other requirements, such as flexibility, transparency, tunable cell size, yet having some esthetic features.
Therefore, the research of various solar cell technologies for diversified applications, such as for the building integrated photovoltaics, or powering mobile devices, has recently significantly moved forward all scientific and technological innovations in the photovoltaics. Even though there is still continuous research in the field of classical silicon solar cells (with their traditional field use), much more attention is given to alternative photovoltaic technologies that have the potential to boost the use of abundant solar-to-electricity conversion to power several years ago unpowerable devices and objects.

Herein, the research focus is given to a new concept of a solar cell that explores the best suitable materials from different fields of materials chemistry and physics that have not been put together so far. What is more, the solar cells is completely solid-state, rather inorganic with a small contribution of organic materials, so issues regarding stability are not necessarily raised here.

The new solar cell concept is based on the rational design, where:
1) the anode consist of based on highly ordered titania nanotube arrays - almost ideal material for the solar light absorption owing to its high surface and architecture, carried by either a glass or a polymer foil.
2) chalcogenide crystalline materials or push-pull organic materials represent suitable chromophores for absorbing visibile and near-IR light.
3) the circuit is closed by a conducting mesh covering carrier transferring layer and light-scattering agents.

The research topics proposed here are very important and cover high priority ?hot? research areas, but in the same time they are very complex and thus very multidisciplinary.

1. The preparation of a methodology to find out an optimal interaction of primary and secondary parameters influencing polygraphic products and
processes
2. The selection and the integration or the development of new measurement devices for the detection of primary and secondary paramaters
3. The development of an analytical system for displaying of the values of primary and secondary parameters
4. The preparation of the methodology for remedial measures
5. The development of an automatic system for the suggestion of the remedial measures

Advanced methods of physical deposition of thin films (radio-frequency magnetron sputtering, pulsed laser deposition, etc.) will be studied
in the frame of the project. The attention will be paid also to the fabrication of thin films from solution via spin coating method. Deposition
conditions will be optimized with the aim of fabrication of high quality thin chalcogenide films. Starting synthesized deposition materials
and prepared thin films will be characterized in detail by structural and optical methods. Thin chalcogenide films will be modified by the
influence of temperature or light, and also by dopants. The results of the project will lead to chalcogenide materials with innovative
properties, composition, and optimized conditions of deposition of their thin films.

The project is focused on two main targets:
1) Development of a software product (MIS) to support Lean Manufacturing tools in cooperation of CICERO Stapro Group s.r.o. with
the University of Pardubice and Novatisk a.s. printing house.
2) Development of an implementation methodology and Lean Manufacturing consulting activities, with regard to the specifics of Czech
printing industry.

In the frame of the project, high quality chalcogenide glasses and their amorphous thin films Ge-(As, Sb)-Se-(Te) will be fabricated
by pulsed laser deposition and by RF magnetron sputtering. The fabricated layers will be characterized in terms of the structure
(XPS, Raman spectroscopy), morphology (AFM, SEM-EDX), and optical properties (spectroscopic ellipsometry).
Fundamental knowledge on the etching mechanisms of chalcogenide glasses in high density plasmas will be obtained.
In particular surface structure of chalcogenide thin films will be explored by XPS before, during, and after inductively coupled plasma
etching. Plasma processes of potential interest for device patterning will be identified. Elementary patterns will be etched to evaluate
their application.

RESEARCH AND DEVELOPMENT OF A CO2 COMPENSATION SYSTEM IN THE PRINTING INDUSTRY