This thesis aims to improve the user's orientation in terrain using his smartphone and augmented reality. By combining these two elements and cost-free OpenStreetMap database of geographic data, is possible to show nearby map features from the maps or show additional information about nearby objects. The resulting technology is used in implemented iOS application called Water Radar. This application displays nearby water streams (or other water objects) relative to the GPS position of the user. The application also uses Google Elevation API, in order to enable displayed water streams to follow the landscape.

This thesis is focused on Augementied reality in mobile applications. The aim of the thesis is to create mobile application that provides its users with the view of the past of selected buildings. At the beginning of the thesis, the reader is presented with various methods and technologies for working with augmented reality. Based on the theorie obtained in first chapters, a mobile application was designed and implemented. The final mobile application allows its users to view historical buildings.

This master's thesis emerges from the research in the field of uniform marker fields for augmented reality and broadens it by the possibility of generating colored marker fields based on arbitrary pictures. The thesis describes basics of augmented reality and explains the ideas from the Uniform Marker Fields paper. Presented is a program for generating colored marker fields as well as a tool for detecting markers and evaluating success rate of the detection. In addition, the work proposes a study of color constancy in the process of printing and recording. This study exceeds the scope of the requirements for this master's thesis; the knowledge can be used in arbitrary applications that use colors to code information. Finally, the integration of the knowledge into the marker field generating algorithm and resulting improvement of detection success rate are discussed.

The diploma thesis is concerned with the research of integration of augmented reality into the testbed Industry 4.0. Testbed is presenting automated robotic barman intended for practical demonstration and verification of concepts such as Industry 4.0 or a digital factory. The integration of augmented reality is realized via an Android application and creates the AR information system of the testbed. The theoretical part of the thesis is about Industry 4.0, the construction of the testbed and technologies of augmented reality used during implementation of the application. The practical part deals with the implementation and testing of the application. The conclusion includes an evaluation of the goals of the thesis.

The master's thesis deals with the design of an augmented reality application for production machine maintenance. The thesis consists of two parts: the theoretical and the design part. The first part of the thesis summarizes the subject matter of augmented reality from a general point of view. It also includes an overview of leading manufacturers. The practical part of the thesis deals with application design. It contains the thought process from the database creation to the final prototype. Several possible solutions are listed, and the most suitable one is selected. The conclusion of the thesis contains a discussion of the results obtained, and practical recommendations for future uses.

The goal of this diploma thesis is to explore possibilities and principals of virtual and augmented reality, especially in relation to use in the factories of Industry 4.0. Introduce also a optical location systems VICON and OptiTrack. . It also studies the possibilities of 3D visualization of technical objects using viewing glasses and selects a suitable framework for creating an augmented reality focused on the environment of MS Windows, UNITY 3D engine and the C# programming language. Last chapter designes and developes software solution depicting an artificial scene in viewing glasses.

This thesis deals with the detection of Uniform Marker Fields and the position of a camera in a space. The steps of the UMF detection, the Windows Phone 8 platform, DirectX working and the concept of augmented reality are described in the thesis. Implementation and design of the demo application together with the whole architecture of the project is described in the thesis. The result of the thesis is an application using the UMF detector and plotting a 3D object into a scene. Finally the application is tested and evaluated.

Tato práce stručně popisuje moderní metody v rozšířené realitě a dále se zabývá generováním a detekcí Uniform Marker Fields. Hlavním cílem je zlepšovat markery známé jako Unifrom Checker-Board Marker Fields. Toho je dosaženo několika vylepšeními návrhu těchto markerů. Mezi hlavní patří využití širší barevné palety, zaměření na podobnost s vybraným obrázkem a změna tvaru modulů. Výsledný algoritmus byl navržen ke generování právě takových markerů. Výstupem jsou esteticky vypadající markery, které umožňují spolehlivou detekci i v případě výrazného překrytí nebo za špatných světelných podmínek.

This thesis describes design and implementation of augmented reality system for Android platform using location sensors. The application serves as a navigation and displays geographical points of interest. Thesis deals with augmented reality on mobile devices, describes design of own framework and mentions the details about implementation of selected problems. Finally, the results are evaluated.

This thesis focuses on the application of the tangible user interface and spatial augmented reality principals for playing board games. For this purpose, a system called interactive table was developed. It is both hardware and software solution. The hardware part solves the installation of a depth camera and a projector located above the table. The software solution deals with calibration of the depth camera and projector system using known procedures for camera calibration on the one hand, on the other hand it solves tasks from the field of computer vision. This perceptional part is the core of the whole thesis and for the purposes of playing board games it provides information about the location of the physical game object, physical game board and the calculations of mask for masking distracting objects. An educational application was developed for the purposes of demonstration of the system options. The interactive table offers new possibilities for playing board games in a real-world environment by the combination of the augmented reality elements with real-world objects and the related new user experience.