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We're here to help you find itThe "Mixed Reality (AR & VR) With Unity 3D & Microsoft HoloLens" course offers a comprehensive dive into the realms of Augmented Reality (AR), Virtual Reality (VR), and Mixed Reality (MR). Participants will gain an in-depth understanding of the essential hardware and software components, interaction fundamentals, and types of holographic applications. The course is structured to guide learners through Unity 3D's interface and tools, enabling them to create Immersive environments, work with Models, materials, textures, and develop Interactive 3D terrains.
Through practical lessons, students will explore Game object manipulation, Lighting, Camera techniques, and Scripting to bring their games and applications to life. The course also covers advanced topics like Collision detection, Particle systems, Animations, Audio integration, and User interface creation, culminating in the design and deployment of a game. By integrating with Microsoft HoloLens and its SDK, students will learn to create Spatial mappings and understand Holograms, Gaze, gesture, and voice controls, preparing them for HoloLens training and HoloLens 2 training. This course is a stepping stone for learners aiming to excel in the field of Mixed Reality development.
Successfully delivered 24 sessions for over 25 professionals
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♱ Excluding VAT/GST
Classroom Training price is on request
You can request classroom training in any city on any date by Requesting More Information
To ensure that students are well-prepared and can successfully undertake training in the Mixed Reality (AR & VR) with Unity 3D & Microsoft HoloLens course, the following are the minimum required prerequisites:
These prerequisites are designed to be accessible to a wide range of learners, ensuring that even those with limited experience in certain areas can still engage with the course material effectively.
Explore the forefront of immersive tech with our Mixed Reality course, using Unity 3D & Microsoft HoloLens to create engaging AR & VR experiences.
Game Developers
Software Engineers interested in AR/VR
Unity Developers
AR/VR Enthusiasts and Hobbyists
Interactive Media Designers
3D Artists and Animators
UX/UI Designers for AR/VR
Product Managers exploring AR/VR solutions
Educational Technologists
R&D Professionals
AR/VR Content Creators
Technical Architects
Innovation Managers
Startups focusing on AR/VR products
Students and Educators in Computer Science/IT
Professional Trainers and Simulators
Marketing Professionals looking to use AR/VR for campaigns
IT Consultants who advise on emerging technologies
This course provides a comprehensive understanding of Mixed Reality using Unity 3D & Microsoft HoloLens, covering AR/VR principles, Unity development, and HoloLens integration.
Virtual Reality (VR) is a technology that creates a simulated environment where users can interact with 3D worlds using special electronic devices, like headsets. Unlike traditional screens, VR places the user inside an experience, allowing them to look around, move, and hear as if they're in a digital world. This immersive setup is used in various fields including gaming, education, and training, offering a lifelike experience where practical skills can be enhanced without real-world risks.
Unity 3D is a powerful game development platform that provides users with a comprehensive set of tools and a user-friendly interface to create immersive 3D content. Its interface includes areas such as the Scene View, where you can interact with and arrange your game objects visually; the Game View, which shows you what your completed scene will look like; the Hierarchy Window, displaying all objects in the current scene; the Project Window, listing all files associated with your project; and the Inspector Window, used to edit the properties of selected objects to refine your game or application.
Augmented Reality (AR) enhances the real world by overlaying digital information such as images, sounds, or other data onto our environment. Unlike virtual reality, which creates entirely artificial environments, AR uses the existing environment and adds to it in real-time, enriching the way we perceive our surroundings. Applications range from gaming and entertainment to education and training. For example, Microsoft HoloLens training utilizes AR to provide immersive learning experiences, making complex subjects more accessible and engaging. By integrating digital elements with the real world, AR opens up innovative possibilities in various fields including healthcare, engineering, and retail.
Immersive environments create a virtual or augmented reality that users can interact with, feeling as though they are part of that digital world. Technologies like Microsoft Hololens extend these capabilities by superimposing digital content onto the real world through wearable devices. Users can see, manipulate, and interact with 3D holographic images as if they were real objects in their physical space, making it widely useful for training, education, and design. Hololens training helps users to efficiently integrate and utilize these advanced features in various professional and creative contexts.
Models in technology refer to digital representations of objects or systems, often used in simulations, animations, and design. Materials are the attributes assigned to these models that define their physical properties, like color, reflectivity, and texture. Textures are the detailed images or patterns applied to the surface of a model to give it a realistic appearance, influencing its visual characteristics. These components are crucial in creating detailed and immersive virtual environments, necessary for applications like gaming, virtual reality, and training simulations, including those with Microsoft HoloLens.
Interactive 3D terrains are digital representations of geographical areas that users can explore and manipulate in three dimensions. These terrains are used in various applications such as video games, virtual reality, and simulation training. They provide an immersive experience by allowing users to interact with the environment in real-time, altering features like topography and vegetation as needed. By simulating real-world conditions, interactive 3D terrains are also valuable in educational and planning contexts, aiding in better understanding and decision-making regarding physical spaces.
Lighting in photography and videography is the deliberate use of light to achieve a certain aesthetic or practical effect. It involves strategically placing light sources to illuminate the subject, enhance its appearance, and convey the desired mood or emotion. Different techniques, such as key lighting, fill light, and backlighting, are employed to control shadows, emphasize texture, and add depth to the scene. Good lighting techniques are crucial for creating visually compelling images and can drastically improve the quality of the photos or videos, regardless of whether natural or artificial sources are used.
Game object manipulation in digital environments, such as in video games or virtual simulations, involves controlling and altering the properties and behaviors of objects within a game. This includes moving, rotating, or resizing game elements, as well as adjusting their physical properties like mass, friction, or elasticity. The manipulation process enables developers and designers to create interactive and dynamic gaming experiences, where objects respond realistically to user inputs and environmental factors, enhancing the immersive quality and engagement of the game. This skill is essential in game development workflows and is often enhanced by using various software tools and programming techniques.
Camera techniques involve using various settings, movements, and angles to effectively capture images or video. Key techniques include framing, which dictates the composition of the shot; focus, controlling which elements are clear; and exposure, determining how light or dark the image is. Camera movement, like panning or zooming, can add dynamism to shots. Additionally, the choice of lenses and lighting play crucial roles in affecting the mood and clarity of the final product. Mastering these techniques allows for more expressive and impactful visual storytelling.
Scripting refers to writing small programs or scripts that automate tasks within a software environment. These scripts are written in a scripting language, which is designed to integrate and communicate with other programming languages. Scripting makes it easier to create complex processes that work interactively with operating systems or applications. It is particularly useful for simplifying repetitive tasks, managing files, and accessing system functionality. This automation helps increase efficiency and can significantly reduce the possibility of human error, making it an essential skill in many technological fields.
Collision detection is a computing process used to determine when two or more objects in a digital environment interact or touch each other. It’s crucial in various fields such as video games, virtual reality, and simulations to ensure realistic behaviors and interactions within the software environment. By identifying these interactions, systems can generate appropriate responses, such as sounds, visual feedback, or changes in object motion, enhancing the user's experience and realism of the digital simulation. This technology is essential for creating dynamic and immersive environments where objects respond to each other realistically.
Particle systems are a technique used in computer graphics to simulate complex phenomena like fire, smoke, and explosions, which are difficult to model with conventional rendering techniques. The concept involves creating a system of many tiny particles that move according to set rules or simulated physical laws. Each particle represents a small portion of the larger phenomenon and, when viewed together, they create a believable, dynamic effect. This method is widely used in video games, animations, and visual effects to create realistic environments and dramatic visuals.
Animations are visual representations that create the illusion of movement by displaying a series of pictures or frames. They are used in various media forms like films, video games, and user interfaces to tell stories or demonstrate functions, enhancing user engagement and understanding. Techniques in animation range from traditional hand-drawn methods to computer-generated imagery (CGI), which allows creators to design complex and detailed visuals that can be combined with interactive elements, such as in virtual reality environments or educational software.
Audio integration refers to the process of incorporating sound within various systems and applications, enhancing user experience through audio cues, music, and voice interactions. In technology, it involves embedding audio components that allow devices to receive and transmit sound effectively. This is crucial in developing interactive environments, multimedia presentations, and improving accessibility in software applications. Managing audio properly ensures clear sound quality and synchronization with visual elements, which is essential for creating immersive and intuitive user interfaces in various digital and electronic platforms.
User interface creation involves designing the part of software that people interact with. It aims to make digital interactions as intuitive and efficient as possible, often involving the layout of screens, buttons, icons, and text. Designers consider user experience, ensuring the interface is accessible and enjoyable to use. Effective user interfaces blend aesthetic appeal with functionality, enabling users to navigate software effortlessly and complete their tasks without confusion. The process typically starts with understanding user needs, followed by sketching, prototyping, and user testing to refine the interface.
Spatial mapping is a technology used in augmented reality systems, such as the Microsoft HoloLens, to digitally map and understand the physical environment. This process allows devices to place and interact with virtual objects within a real-world context accurately. This capability is crucial for applications in training, gaming, and professional design, where interacting with virtual elements in a realistic way enhances user experience and effectiveness. Spatial mappings create a bridge between the digital and physical realms, providing a comprehensive and immersive way to engage with augmented realities.
Holograms are three-dimensional images created by projecting light patterns from a laser. Unlike regular images, holograms appear to have depth and can be viewed from different angles. This technology is not just for visuals; it can enrich training and presentations, creating interactive, lifelike experiences. For instance, with Microsoft HoloLens training, users can learn in an augmented reality setting where digital content is overlaid on the real world, enhancing the learning process. HoloLens 2 training enhances this further by offering more advanced features, providing professionals with cutting-edge tools to master their skills in a more engaging environment.
Gaze, gesture, and voice controls are cutting-edge interaction techniques used primarily in augmented reality environments like those offered by Microsoft HoloLens. Gaze control involves directing the interface or interacting with elements through eye movement. Gesture control allows users to manipulate virtual objects or navigate menus through hand and body motions. Voice control enables command execution and navigation using spoken instructions. Together, these controls provide a hands-free, intuitive way for users to engage with digital content, enhancing the experience in training programs, gaming, and professional applications.
Explore the forefront of immersive tech with our Mixed Reality course, using Unity 3D & Microsoft HoloLens to create engaging AR & VR experiences.
Game Developers
Software Engineers interested in AR/VR
Unity Developers
AR/VR Enthusiasts and Hobbyists
Interactive Media Designers
3D Artists and Animators
UX/UI Designers for AR/VR
Product Managers exploring AR/VR solutions
Educational Technologists
R&D Professionals
AR/VR Content Creators
Technical Architects
Innovation Managers
Startups focusing on AR/VR products
Students and Educators in Computer Science/IT
Professional Trainers and Simulators
Marketing Professionals looking to use AR/VR for campaigns
IT Consultants who advise on emerging technologies
This course provides a comprehensive understanding of Mixed Reality using Unity 3D & Microsoft HoloLens, covering AR/VR principles, Unity development, and HoloLens integration.
