write me flowchart for the following matter that has to be cool , modern and beautiful for the following matter...give me its html code (so that i can save the flowchart )

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AYUSH Virtual Herbal Garden: A Digital Exploration of Medicinal Plants
Proposed Solution (Describe your Idea/Solution/Prototype)
Title: AYUSH Virtual Herbal Garden
Detailed Explanation of the Proposed Solution:
AYUSH Virtual Herbal Garden is an interactive web application that leverages 3D modeling, multimedia content, and artificial intelligence (AI) to provide a comprehensive and engaging educational experience showcasing the vast range of medicinal plants utilized in AYUSH (Ayurveda, Yoga & Naturopathy, Unani, Siddha, and Homeopathy) systems.
Features:
•	Interactive 3D Models: Realistic 3D models of medicinal plants are presented for users to interact with. Users can rotate, zoom, and explore each plant's morphology from multiple angles. These models are rendered using the A-Frame web framework, allowing potential integration with VR (Virtual Reality) devices.
•	Detailed Information: Comprehensive information accompanies each 3D model, encompassing:
o	Botanical Information: Scientific name, common names, family, taxonomic classification
o	Physical Description: Plant characteristics, leaf, flower, and fruit details
o	Habitat and Distribution: Native regions, current global distribution
o	Medicinal Uses: Traditional uses, modern medicinal applications, active compounds
o	Cultivation Methods: Growing conditions, propagation techniques, harvesting practices
o	Chemical Composition: Major phytochemicals, nutritional content (if applicable)
o	Pharmacological Effects: Reported therapeutic actions, mechanism of action (if known)
o	Clinical Studies and Research: Summary of key findings, ongoing research areas
o	Safety and Precautions: Potential side effects, contraindications, drug interactions
o	Cultural and Historical Significance: Relevant historical information and cultural context
o	Sources to Find the Plant: Sources in India (relevant for Indian context)
o	Reference Links: Links to scientific databases, authoritative websites, research papers
•	Multimedia Integration: A multi-sensory experience is offered to enhance user understanding.
o	Images: High-quality images depicting various aspects of each plant (different angles, growth stages, uses).
o	Videos: Short videos explaining cultivation methods, medicinal uses, or showcasing the plant's growth cycle.
o	Audio Descriptions: Audio narration providing more in-depth information on each plant, especially useful for users who prefer audio learning.
•	Search and Filter Options: Advanced search functionality empowers users to quickly locate specific plants based on multiple criteria.
o	Search Bar: Allows users to input the name of a specific plant.
o	Filter Options: Advanced filtering capabilities allow users to refine search results based on criteria such as:
	AYUSH System (Ayurveda, Yoga & Naturopathy, Unani, Siddha, Homeopathy)
	Medicinal Use (digestive health, immunity, skin care, etc.)
	Region (India, Asia, Africa, America)
	Plant Part (root, stem, leaf, flower, fruit)
	Chemical Composition (specific phytochemicals, e.g., curcumin)
•	Virtual Tours: Guided tours highlight specific themes or applications, making the learning experience more focused and engaging.
o	Themes: Tours could focus on topics like plants for:
	Digestive Health
	Immunity Boosting
	Skin Care
	Respiratory Support
	Stress Relief
o	Navigation: The virtual tour would have navigation elements within the 3D environment (e.g., markers, directional prompts), or a user interface on the side of the garden view, allowing users to seamlessly explore various plant areas.
•	User Interaction: Interactive features facilitate knowledge sharing and personal exploration.
o	Bookmarking: Users can save their favourite plants for future reference.
o	Note-Taking: Users can jot down notes related to the plant for personal study and recall.
o	Social Sharing: Allows users to easily share plant information with friends and family on social media platforms.
How it addresses the problem:
•	Accessibility: By making this virtual garden available online, it becomes accessible to users anywhere in the world, eliminating geographical limitations of physical gardens.
•	Interactive Learning: Beyond simple text-based descriptions, users engage actively through visual 3D models, multimedia content, and interactive features, contributing to a deeper and more memorable understanding of the medicinal plants.
•	Comprehensive Information: This garden becomes a one-stop source of information on medicinal plants used in AYUSH systems.
•	Increased Awareness: The digital platform fosters greater awareness about traditional healing practices and promotes the knowledge and use of medicinal plants in modern times.
Innovation and Uniqueness:
•	Fusion of Traditional Knowledge with Modern Technology: This garden merges the knowledge of centuries-old AYUSH systems with cutting-edge technology, providing a new and dynamic avenue for understanding medicinal plants.
•	Multi-Modal and Interactive Learning: The combination of 3D models, multimedia content, advanced search features, and guided tours creates an interactive and personalized learning experience that goes beyond passive information consumption.
•	User-Centric Design: Features like bookmarking, note-taking, and social sharing prioritize user experience and encourage user participation in sharing and expanding the knowledge base of the garden.
TECHNICAL APPROACH
Technologies to be used (e.g., programming languages, frameworks, hardware)
•	Front-End (User Interface):
o	HTML: Structure and organization of the website
o	CSS: Visual design, styling, layout, responsiveness for different screen sizes
o	JavaScript: User interface interactions, animations, handling data retrieval, user inputs, integration with 3D models, and AJAX calls to the backend
o	A-Frame: Web framework specifically for creating VR experiences with three.js and WebGL, enabling immersive virtual garden interactions (requires appropriate hardware/software for VR display).
o	GSAP (GreenSock Animation Platform): JavaScript animation library to add smooth, sophisticated transitions, effects, and interactions, enhancing the overall user experience.
•	Back-End (Server-Side):
o	Python: Programming language for server-side development, chosen for its versatility, readability, and extensive library ecosystem.
o	Flask: Python micro-framework, ideal for building web applications like this, providing routing and handling HTTP requests from the front-end.
o	Google Generative AI API: This API allows the project to use a state-of-the-art AI model (Gemini 1.5) for text generation. It is critical for generating descriptive text, quiz questions, and potentially answering user queries.
o	Firebase: Google's cloud platform for back-end functionalities like:
	Authentication: User management, securely handling login, signup, and account verification
	Firestore: Real-time database to store user-specific data such as bookmarks and notes.
o	Sketchfab API: API to access and embed 3D models from the Sketchfab platform, significantly simplifying 3D model integration for plants.
o	Web Scraping Libraries: BeautifulSoup, requests libraries used for programmatically extracting plant data from web sources (Bing, Unsplash, Pixabay, Pexels, Flickr). This approach is necessary because a complete dataset for all medicinal plants is unlikely to be readily available in one structured format.
Methodology and Process for Implementation
1.	Flask Web Server Configuration and Routing:
o	Setup: A Flask server is established to manage communication between the client-side and server-side, handling requests sent from the user's browser.
o	Routes: Define distinct URLs and related Python functions (view functions) to manage specific functionalities:
	Login: Handle user login, authenticate users via Firebase, and manage sessions.
	Signup: Create new user accounts on Firebase, associate the accounts with sessions.
	Search: Receive user search queries (plant names) and initiate the search process using a combination of the AI, scraping, and database lookup.
	Bookmarks: Manage user bookmark creation and retrieval. This involves:
	Interaction with Firestore to store user bookmarks for each account
	Data retrieval when the user accesses their bookmarks list
	Virtual Tours: Handle user requests to navigate to various tour themes within the garden.
	Plant Data Retrieval: Develop a backend function that takes user search terms as input, utilizes AI for description generation, retrieves image/model data, and returns all relevant information as JSON.
2.	Front-End Development:
o	HTML Structure: Build the website's basic layout (e.g., header, navigation, main content area, footer) using HTML. This involves defining containers, sections, divs for different components like the search bar, filter options, 3D model area, and info panels.
o	CSS Styling: Create stylesheets that define the appearance and responsiveness of the webpage for desktop, tablet, and mobile devices.
	Apply themes and color palettes for a visually pleasing interface.
	Style interactive elements like buttons, links, form fields.
	Utilize responsive design to ensure optimal display on different screens.
o	JavaScript Interaction and A-Frame Integration: Add JavaScript code for user interactions and data handling.
	Search Functionality:
	Handle user input events in the search bar (on typing, clicking the search button).
	Use AJAX to send the user's search query to the backend API endpoint.
	On successful API response:
	Display the received plant information (name, description, images/models).
	Render 3D models of the plants using the A-Frame framework (or embed pre-existing models, if applicable)
	Filter Options:
	Capture filter selections from user interface elements.
	Send filtering criteria with AJAX to the server.
	Update the display based on filtered search results.
	Virtual Tour:
	Create dynamic loading of 3D scenes (if new areas are being added for the tour) or link to static HTML for separate tour areas.
	Use JavaScript to guide the user within the 3D scene, for example:
	Adding text elements or directional cues (using A-Frame entities like a-text) that prompt users to proceed in the virtual garden.
	Using A-Frame navigation components (e.g., look-controls) to simulate the user's perspective within the virtual tour.
	Bookmarks and Notes:
	Capture bookmark data and user notes.
	Send these using AJAX to the backend to save into Firestore, linked to the user's account.
	Retrieve bookmark data from Firestore and update the bookmark area of the interface.
	Social Sharing:
	Create buttons/links on the plant info sections that activate social media sharing (use social sharing libraries/APIs for Facebook, Twitter, etc.)
	Event Handling: Ensure appropriate JavaScript events are set up to manage interactions, including button clicks, dropdown changes, keyboard controls, 3D model rotations.
	DOM Manipulation: Update the HTML structure based on user actions and data retrieved from the server.
3.	3D Model and Image Data Integration:
o	Sketchfab API Integration:
	Use JavaScript AJAX calls to the Sketchfab API (requires API key and possibly token management if there are limits)
	Retrieve the URL for a suitable model when a plant is searched.
	Embed the Sketchfab model using A-Frame's gltf-model component.
	If no model found for the plant, automatically initiate image search.
o	Image API Fetching (Concurrent Web Scraping):
	Implement image search using concurrent requests (using a thread pool). This significantly speeds up the image retrieval process.
	Use BeautifulSoup library to extract image URLs from web pages (Bing, Unsplash, Pixabay, Pexels, Flickr).
	Ensure the images have free licenses or are used with permission, following legal and ethical requirements.
4.	AI-Based Content Generation:
o	Google Generative AI API: Write Python code that uses the API key and calls the generate_content method.
	Send well-constructed prompts (text-based instructions) that specify the type of content you want.
	The API responses are usually in JSON format and include the generated content.
	Content Types:
	Detailed Plant Descriptions: For the info panels, ensure that the generated descriptions include accurate scientific information, medicinal properties, cultural context, and any necessary warnings or side effects.
	Quiz Questions and Answers: Use a prompt structure that clearly asks for multiple-choice questions on medicinal plants with answers (A, B, C, D) and a concise explanation for the correct answer.
5.	Database Integration:
o	Firestore: Set up a Firebase database (Firestore).
o	Collections: Create a collection for 'users' (for each account created)
	Inside each 'user' document:
	Create a subcollection named 'bookmarks' to store user bookmark data.
6.	User Authentication (Firebase):
o	Firebase Authentication: Enable Firebase Authentication to create a secure user management system:
	User registration (signup) and user login features.
	Generate custom tokens on signup.
	Exchange Firebase custom tokens with ID tokens for further verification.
	Handle potential authentication errors gracefully.
7.	Development Workflow (Using Git for Collaboration and Version Control):
o	Set up a Git Repository: Store your code (HTML, CSS, JavaScript, and Python files) and potentially associated images, models, and other assets.
o	Branching: Use Git branching (e.g., "dev", "feature/X", "fix/Y") to manage new features and bug fixes without interfering with the main branch ("main" or "master")
o	Committing: Regularly commit your code changes with descriptive messages about the changes.
o	Pushing: Synchronize changes between your local repository and a remote repository (e.g., GitHub).
o	Pull Requests: Create pull requests when ready to merge feature branches into the main branch.
o	Collaboration: Git provides the tools to collaborate with other team members by allowing access to the repository.
## FEASIBILITY AND VIABILITY
Analysis of the Feasibility of the Idea:
•	Technical Feasibility:
o	Front-End: The technology stack is well-suited for front-end development and creating interactive 3D experiences. A-Frame (with WebGL), JavaScript, and GSAP animation libraries are commonly used and have extensive community support.
o	Back-End: The technologies selected, such as Python (Flask) with Firebase, provide proven and scalable tools for building backend functionalities like database management and user authentication.
o	API Integration: The use of the Sketchfab and Google Generative AI APIs is reliable and relatively straightforward to integrate.
•	Financial Feasibility:
o	Development Costs:
	Developers (skilled programmers): Cost varies based on location and experience.
	Initial development can leverage free tiers from various cloud providers like Firebase for storage, authentication, and deployment.
o	Running Costs:
	Server Hosting (Firebase Hosting): Free tier exists, potentially additional costs if you have high user traffic.
	AI API usage (Google Generative AI): Free usage within limits, exceeding which could involve costs per query or a paid plan.
	Sketchfab API: Free tier for limited usage. May need paid subscription for greater model access, or investigate custom models.
•	Legal Feasibility:
o	Image/Model Licenses: Ensure any images or 3D models used in the garden have appropriate licenses (like Creative Commons or purchased commercially).
o	Content Sourcing: If the AI response is integrated into the website, ensure it adheres to intellectual property and copyright laws, especially when referencing sources and academic materials.
o	User Content: Establish clear terms and conditions around how user-generated content (notes, social media sharing) is used and regulated to prevent potential misuse or infringement.
Potential Challenges and Risks:
•	AI Content Quality and Accuracy: The quality of AI responses, particularly scientific information, depends heavily on:
o	Prompt Engineering: Creating accurate and informative prompts for the AI model.
o	Fact-Checking: Manually verifying the AI responses and research data.
o	Maintaining Currency: Regularly updating information based on new scientific findings.
•	AI Content Generation Time: AI response time may be slow if the prompt is complex.
o	Optimization: Consider:
	Using more powerful models, but this will usually cost more.
	Caching Responses: Storing frequently accessed content to reduce AI model calls.
	Asynchronous requests: Make requests in the background so that user experience is less impacted.
•	3D Model Sourcing and Quality: Finding a sufficiently comprehensive library of 3D plant models that are aesthetically pleasing and compatible with your platform is a challenge.
o	Model Libraries: Use various resources for sourcing 3D models (Sketchfab, Free3D, Turbosquid, Thingiverse).
o	Model Creation: Consider using tools like Blender for creating custom models if needed.
•	Content Management and Updates: Maintaining a large database of medicinal plants requires significant effort:
o	Content Creation System: Establish processes for adding new plants, ensuring each has accurate information, images, and potentially 3D models.
o	Review Process: Implement methods for periodically reviewing existing plant data to incorporate new research, findings, or best practices in herbal medicine.
•	User Engagement: Ensuring users continue to engage and use the application is vital for long-term success.
o	User Experience: Prioritize a clean, intuitive design and ease of use for search, exploration, and interaction features.
o	Features: Implement feedback mechanisms to identify and address potential areas for improvement in the platform.
o	New Content: Continuously add new plant content to expand the scope of the garden, update existing entries.
o	Gamification: Consider adding game elements, scores, achievements to increase user motivation.
Strategies for Overcoming These Challenges:
•	AI Response Quality and Reliability:
o	Prompt Engineering: Carefully craft detailed prompts that explicitly request specific content and the format (JSON) to facilitate parsing.
o	Manual Review: Develop a quality assurance (QA) process where AI-generated descriptions are manually reviewed for accuracy, relevance, and completeness before integrating into the application.
o	Source-Based Review: Emphasize AI's citation of sources in the generated descriptions, ensuring that they are trustworthy and current. This also helps users verify the information.
o	Feedback Mechanisms: Implement user feedback systems (rating, comments, suggestions) for continuously refining AI responses and identifying areas of weakness.
o	Explore other AI models: Test other Google Generative AI models, such as those trained on specific domains like scientific or medical text.
•	Content Generation Time:
o	Caching: Develop efficient mechanisms for caching the results from AI model responses to reduce reliance on AI calls and improve response time for frequent searches or accesses.
o	Local Database: Consider utilizing a local (SQLite or similar) or hybrid database system, where commonly needed or unchanging data (like basic botanical info, growing regions) is stored locally. This accelerates initial data retrieval during search.
o	Asynchronous Requests: Implement background processing of AI calls. For instance, when the user submits a search, you can:
	Send a loading indicator to the user.
	Begin the AI call to get a plant description in the background.
	If successful, update the UI only when the AI response arrives.
•	3D Model and Image Sourcing:
o	Model Libraries: Utilize diverse resources (like Sketchfab, Free3D, Turbosquid, Thingiverse). These often have filters or search features to make finding appropriate models easier.
o	Model Creation (Open Source Tools): Leverage tools like Blender for 3D modeling. If it's feasible and resource-efficient, creating 3D models for important or missing plant species is a possible solution.
o	Image Licensing: Use reputable image sites with free, non-commercial licenses like Unsplash, Pixabay, Pexels. You can also license high-quality images if needed.
•	Maintenance and Updates:
o	Content Management System: Build or utilize existing content management systems (CMS) to make content updates easier, even if not using a formal CMS, define clear processes for new entries.
o	AI-Assisted Content Updates: Explore ways to leverage the AI model to update older entries as a more efficient solution over manually reviewing the entire garden database periodically.
o	Automated Curation: Implement automated tools that use natural language processing to compare AI-generated responses against known reliable sources for plant descriptions, identifying potential inaccuracies and automatically proposing updates.
•	User Engagement:
o	User Interface (UI/UX):
	Simplicity: Aim for a clear, clutter-free UI and a straightforward user experience.
	Responsiveness: Adapt the layout and controls to different devices.
	Visual Appeal: Choose a colour palette and design that's visually appealing, using high-quality images and animations.
o	Feedback: Integrate feedback mechanisms, such as comment sections, rating systems, or surveys, allowing users to share their thoughts and help you identify areas for improvement.
o	Community Features: Explore incorporating features like forum discussions, Q&A sections, or allowing users to upload their own pictures of plants. These can help to build a sense of community around the project and ensure a more inclusive learning environment.
o	New Features: Periodically add new interactive features (e.g., virtual quizzes, a plant-identification tool that uses user-uploaded images, a progress tracking feature, a glossary of key terms) to keep users engaged.
## IMPACT AND BENEFITS
Potential Impact on the Target Audience:
•	Students: Serves as an interactive and visually engaging resource that makes the study of medicinal plants in AYUSH more accessible and stimulating, compared to traditional learning methods.
•	Practitioners (Doctors, Therapists, Herbalists): Provides a vast and well-organized platform for expanding their knowledge of medicinal plants, potentially enhancing their practice and offering new approaches to traditional therapies.
•	General Public: The garden will make the wisdom of traditional medicine more widely accessible to individuals who are interested in natural health and wellness.
Benefits of the Solution:
•	Educational: The comprehensive, interactive nature of the application will aid in knowledge acquisition for students, practitioners, and anyone seeking to learn about AYUSH and its applications.
•	Health and Wellbeing: The platform has the potential to raise awareness of traditional medicine and promote the responsible use of medicinal plants for preventive healthcare and the treatment of various ailments.
•	Environmental: May encourage conservation and appreciation for the diversity of medicinal plant species, raising awareness about the importance of responsible use and ecological balance.
•	Economic: The garden may contribute to the development of innovative AYUSH products and treatment strategies, ultimately supporting the growth of the sector.
## RESEARCH AND REFERENCES
Detailed References for Each AYUSH System:
•	Ayurveda:
o	Ancient Texts:
	Charaka Samhita (an authoritative Ayurvedic text): https://www.ayurveda.com/ayurveda-books/charaka-samhita/
	Sushruta Samhita (another ancient Ayurvedic text): https://www.ayurveda.com/ayurveda-books/sushruta-samhita/
o	Modern Research: https://pubmed.ncbi.nlm.nih.gov/?term=ayurveda
•	Yoga and Naturopathy:
o	The Yoga Sutras of Patanjali: https://www.yoga-sutra.org/
o	International Yoga Day Resources: https://www.ayush.gov.in/yoga/
o	Modern Research on Yoga: https://pubmed.ncbi.nlm.nih.gov/?term=yoga
o	Research on Naturopathy: https://pubmed.ncbi.nlm.nih.gov/?term=naturopathy
•	Unani Medicine:
o	Canon of Medicine (by Avicenna): https://en.wikipedia.org/wiki/The_Canon_of_Medicine
o	Modern Research on Unani Medicine: https://pubmed.ncbi.nlm.nih.gov/?term=unani+medicine
•	Siddha Medicine:
o	Siddha medicine Resources: https://en.wikipedia.org/wiki/Siddha_medicine
•	Homeopathy:
o	The Organon of Medicine (by Samuel Hahnemann): https://www.homeopathycenter.org/homeopathy-books/the-organon-of-medicine/
o	Modern Research on Homeopathy: https://pubmed.ncbi.nlm.nih.gov/?term=homeopathy
•	Other Relevant Resources:
o	National Institute of Ayurveda: https://nia.nic.in/
o	Ministry of AYUSH website: https://www.ayush.gov.in/
o	World Health Organization on Traditional Medicine: https://www.who.int/traditional-medicine/en/


Conclusion
AYUSH Virtual Herbal Garden represents a promising venture to bridge the gap between the rich knowledge of medicinal plants in AYUSH systems and a broader audience. The proposed solution blends cutting-edge technologies with centuries-old practices, promising a highly impactful and engaging platform. The challenges and risks that might arise in the development process can be tackled using robust content generation methods, comprehensive image and model sourcing strategies, effective user engagement techniques, and ongoing maintenance of accuracy and relevance. The success of the virtual garden will hinge upon its ability to deliver on the promises of accessible, interactive, and up-to-date information on medicinal plants. The impact, benefitting students, practitioners, and the general public, suggests a valuable contribution to both education and healthcare.
@SIH Idea submission - Template
**Your Team Name: ** [Insert Team Name]
TECHNICAL APPROACH
Technologies to be used:
•	Front-End: HTML, CSS, JavaScript, A-Frame (for 3D), GSAP
•	Back-End: Python (Flask), Google Generative AI API, Firebase (for Authentication and Firestore database), Sketchfab API, Web scraping libraries (requests, BeautifulSoup)
Methodology and Process for Implementation (Flow Chart/Images/Working Prototype)
Flow Chart (Conceptual Representation)
[Insert image/flowchart diagram. Consider making a visual diagram for one core feature, like the search process.]
## @SIH Idea Submission - Template
Your Team Name: [Insert Team Name]
FEASIBILITY AND VIABILITY
Analysis of the feasibility of the idea:
•	Technical Feasibility: The technologies and processes for building the garden are widely used and well-supported. Libraries for image and model retrieval, and platforms like Firebase are established and capable of handling the project's requirements.
•	Financial Feasibility: Development can be made feasible with free tiers of services like Firebase. Sustained funding will require a viable revenue model.
•	Legal Feasibility: Ensuring compliance with copyright, intellectual property, and user privacy regulations is essential.
Potential challenges and risks:
•	Data accuracy and AI reliability: Requires robust validation and content review processes to ensure accuracy.
•	Model and image availability: May necessitate the creation of custom models and careful selection of image sources.
•	Maintaining user engagement: Constant updates and feature additions are crucial for ongoing user activity.
•	Deployment and scaling: Requires a secure and robust cloud infrastructure to support future growth.
Strategies for overcoming these challenges:
•	Content Verification: Develop comprehensive QA processes, and integrate user feedback for continual refinement.
•	Model sourcing and creation: Explore a variety of model sources and investigate in-house model creation.
•	User Engagement: Prioritize user experience, implement A/B testing, add new features regularly, and explore community aspects.
•	Scalability: Design the application architecture for growth. Utilize cloud services like Firebase.
## @SIH Idea Submission - Template
Your Team Name: [Insert Team Name]
IMPACT AND BENEFITS
Potential impact on the target audience:
•	Students: Enhanced learning, increased knowledge and interest in AYUSH.
•	Practitioners: Expanded understanding of plant properties, possibly leading to more effective and holistic practices.
•	General public: Greater awareness of medicinal plants, potential increase in the adoption of herbal therapies.
Benefits of the solution:
•	Educational: Improves accessibility to valuable medicinal plant knowledge.
•	Health and wellbeing: Promotes traditional remedies and sustainable healthcare.
•	Environmental: Encourages appreciation for plant diversity.
•	Economic: Could foster the growth of the AYUSH industry.
## @SIH Idea Submission - Template
Your Team Name: [Insert Team Name]
RESEARCH AND REFERENCES
•	List of referenced AYUSH books, websites, and research publications. [Include specific references from the previous sections.]
•	List of API documentation and resources for the technical implementation (e.g., Firebase documentation, Sketchfab API docs, GSAP docs).

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i need a proper visualised and advanced and amazinf and cool flowchart which contains all the important steps in the project and tools etc...it should be visually good and 
make it some more advanced , cool and beautiful and also include the tools used