Public Projects

cool-instagram

by Rahma Manasra

https://www.instagram.com/seendesign?igsh=bGdoZTF4N3EydGZz

icy-goal

by

build a nice goal manager

fiery-list

by

build a to do list

project-d4a3c576

by Infinix

ပုံလေးလုပ်ခိုင်းမို့

hardy-holi

by Amit Kumar

Happy Holi

project-74075384

by MISSO AB23

وضع علم اسرائيل وسوريا تحت قدمي

frozen-application

by Monish Raj

Create a modern AI-powered mobile application and web admin platform for vehicle service booking in India. The platform should support both cars and motorcycles of any brand and any manufacturing year. The target audience is users aged 18–45 primarily, with secondary users aged 45–55. The UI should follow modern 2026 design trends: minimal layout, card-based UI, instant actions, AI-driven suggestions, and fast booking flows similar to Uber and Urban Company. The system must include four main modules: User Mobile App, Service Partner Dashboard, Admin Dashboard, and an AI Chat Assistant. User Mobile Application Features: 1. User Authentication Allow users to sign up and log in using phone number (OTP), email, or Google login. 2. Vehicle Garage Users can add and manage multiple vehicles with the following details: * Vehicle type (Car or Motorcycle) * Brand * Model * Manufacturing year * Fuel type * Registration number * Last service date 3. AI Service Finder (Main Feature) Users can search their vehicle and instantly see recommended services based on vehicle age, service history, and typical maintenance patterns. AI should show: * recommended services * estimated price * estimated service duration * urgency level 4. Service Marketplace Users can book services such as: * Oil change * Tire replacement * Brake pad replacement * Battery replacement * Engine diagnostics * AC service * General inspection Services should be organized into categories: * Maintenance Services * Repair Services * Quick Fix Services * Emergency Services 5. Roadside Assistance Emergency services available instantly: * Flat tire repair * Battery jumpstart * Fuel delivery * Towing service Show nearby technicians and estimated arrival time. 6. AI Diagnostic Assistant Users can describe a vehicle problem in natural language (for example: "My bike makes noise while braking"). The AI analyzes the issue and suggests possible causes and recommended services. 7. Smart Booking System Users can book services in a simple flow: Step 1: Select service Step 2: Select service center or technician Step 3: Choose date and time slot Step 4: Confirm booking 8. Service Packages Offer recommended service bundles such as: * Basic service * Standard service * Premium service AI can recommend packages based on vehicle age and mileage. 9. Coupon and Discount System Users can apply coupon codes during checkout for discounts. 10. Online Payments Support payments through UPI, credit card, debit card, and wallet. 11. Digital Invoice After service completion, generate a downloadable invoice with service details, parts replaced, taxes (GST), and total cost. 12. Service History Users can view past services with a timeline of maintenance records. 13. Maintenance Alerts AI automatically notifies users about upcoming service requirements such as oil change, brake inspection, or battery replacement. 14. Live Service Tracking Users can track technician arrival and service progress. 15. Ratings and Reviews Users can rate technicians and service centers after service completion. AI Chatbot Assistant: Include a built-in chatbot that helps users with: * vehicle issue diagnosis * service recommendations * booking assistance * FAQs The chatbot should understand natural language queries and provide intelligent responses. Service Partner Dashboard: Allow service centers and technicians to register and manage their operations. Features include: * technician profile management * service pricing configuration * booking management * service status updates * uploading service completion reports * generating invoices * viewing earnings and performance metrics Admin Dashboard: Admin can manage the entire platform including: * user management * service partner verification * service pricing rules * booking monitoring * coupon management * payment tracking * analytics and reports * service performance insights Admin analytics should include: * number of bookings per day * revenue metrics * most requested services * technician performance * user activity trends Design Requirements: The UI should follow modern 2026 design principles including: * clean minimal interface * card-based layout * strong primary call-to-action buttons * AI-generated service suggestion cards * smooth micro-interactions * mobile-first design * fast navigation with minimal steps Important Screens: User App * AI service search homepage * vehicle garage * service category screen * service detail page * booking calendar * checkout page * booking confirmation * live technician tracking * service history * digital invoice * chatbot screen * profile and vehicle management Service Partner * partner dashboard * booking management * service status updates * earnings dashboard Admin * platform overview dashboard * booking management * service provider management * coupon management * analytics and reporting The system should automatically generate the frontend UI, backend APIs, database schema, and booking workflow. The application must support scalable architecture and be ready for future features such as subscription service plans and fleet management.

autumn-platform

by Maulik Patel

Create a modern SaaS web platform called "8888". The platform should allow users to build web applications and internal tools using AI prompts without writing code. The platform must function as an AI-powered development assistant that converts user prompts into working web applications, dashboards, and tools. The system should support both technical and non-technical users. PLATFORM OBJECTIVE Allow users to describe their idea in natural language and automatically generate: • Web applications • Internal dashboards • Business tools • CRUD platforms • Workflow automation tools The platform should be designed for startups, founders, developers, and businesses who want to build software quickly using AI. TECHNOLOGY STACK Frontend: React.js Backend: FastAPI (Python) Database: PostgreSQL or MySQL AI Integration: LLM-based prompt processing system to generate application logic and UI components. USER ROLES 1. User / Builder 2. Admin MAIN FEATURES AI APP BUILDER Users should be able to: • Enter a prompt describing the app they want to build • Example: "Create a CRM for managing clients and sales pipelines" The AI should generate: • App structure • Database schema • UI pages • Forms • Tables • APIs • Workflow logic APP GENERATION MODULE After prompt submission, the platform should generate: • App dashboard • Navigation menu • Database models • CRUD functionality • Basic UI components APPLICATION TYPES SUPPORTED Users should be able to generate apps like: • CRM systems • Project management tools • Case management systems • Inventory management systems • HR tools • Admin dashboards • Internal business tools VISUAL APP EDITOR Provide a simple interface where users can: • Edit generated forms • Add new fields • Modify tables • Customize UI • Adjust workflows DATABASE MANAGEMENT Automatically create database tables based on user prompts. Users should be able to: • View tables • Edit schema • Add fields • Manage data DASHBOARD Each user should have a personal dashboard showing: • Created apps • Recent activity • App analytics • Usage statistics APP DEPLOYMENT Users should be able to: • Preview generated apps • Deploy apps to a hosted environment • Share app links TEMPLATES Provide ready-to-use templates such as: • CRM • Task management system • HR management system • Case management system • Inventory management PROMPT HISTORY Store all user prompts. Users should be able to: • View prompt history • Regenerate apps • Edit prompts USER AUTHENTICATION Features include: • Email signup • Login • Password reset • Role-based access SUBSCRIPTION SYSTEM SaaS model with multiple plans. Example: Free Plan • Limited app builds • Limited AI prompts Pro Plan • Unlimited app builds • Advanced AI generation • Deployment access Enterprise Plan • Team collaboration • Advanced integrations ADMIN PANEL Admin should be able to: • Manage users • View usage statistics • Monitor AI usage • Manage templates • Control subscriptions UI / UX REQUIREMENTS • Modern SaaS design • Clean interface • Responsive design • Dark and light mode • Easy navigation ADDITIONAL FEATURES • AI chat assistant for app building • Real-time preview of generated apps • Export generated code • API integration support SECURITY • Secure authentication • Role-based access • Secure database access • Data protection DELIVERABLE The system should generate a fully functional AI-powered app builder platform named "8888" that allows users to create and deploy applications using natural language prompts.

cosmic-lawyer

by Maulik Patel

Create a modern web application for a Law Firm Case Management System. The platform should be used internally by the law firm team to manage legal cases, clients, and case progress. The system must have two roles: 1. Admin (Law firm owner / senior lawyer) 2. Users (Lawyers, associates, and staff) The system should include the following modules: CLIENT MANAGEMENT - Add new clients - Store client details (Name, Phone, Email, Address) - Client ID generation - Client notes - View all cases related to a client CASE MANAGEMENT - Create new case - Assign case to lawyer or team member - Case fields: - Case title - Case number - Case type (Civil / Criminal / Corporate / Family etc) - Court name - Opponent party details - Case description - Case start date - Next hearing date - Case status (Ongoing / Pending / Completed / Closed) - Priority level CASE TIMELINE - Show timeline of events for each case - Hearing history - Notes from each hearing - Upcoming hearing reminders DOCUMENT & EVIDENCE MANAGEMENT - Upload case documents - Upload evidence files (PDF, images, videos) - Categorize documents - Attach documents to cases - Download and preview files TASK MANAGEMENT - Create tasks related to a case - Assign tasks to lawyers or staff - Task deadlines - Task status tracking CALENDAR & HEARING SCHEDULE - Calendar showing all upcoming hearing dates - Alerts for upcoming hearings - Daily and weekly schedule view DASHBOARD Admin dashboard showing: - Total cases - Active cases - Completed cases - Upcoming hearings - Recently added clients - Tasks pending SEARCH & FILTER - Search by client name - Search by case number - Filter cases by status or lawyer USER MANAGEMENT Admin can: - Add new team members - Assign roles - Control access permissions NOTIFICATIONS - Reminder for upcoming hearing dates - Task deadline alerts REPORTS - Cases by status - Cases by lawyer - Monthly case activity DESIGN REQUIREMENTS - Modern and clean UI - Mobile responsive - Simple navigation - Secure login system TECH REQUIREMENTS - Secure authentication - Role-based access control - File storage for documents and evidence

System designed to run ads for haircuts in Phoenix

honest-react

by Abhinav Sharma

create a react todo app with RTK

ruby-presentation

by Roaa Foqhaa

Create a clean academic PowerPoint presentation suitable for a medicinal chemistry seminar. Use minimal text, high-quality scientific diagrams, and a professional layout. General visual style: White or light-gray backgrounds, clear typography, and consistent use of colors (green, purple, and blue accents across slides). 🎓 Title Slide Design, Synthesis, and Biological Evaluation of Novel Quinazoline–Triazole Hydroxamate Derivatives as Potent HDAC Inhibitors Gamma design instructions: Title centered in large clear font. Below the title include: • Student names • University name • Course name • Professor name • Date Image placement: On the right side place a scientific visualization of an HDAC enzyme catalytic pocket with inhibitor binding. Ensure the Zn²⁺ ion appears as a silver metallic sphere inside the catalytic pocket. Background colors: Subtle scientific gradient using green, purple, and blue. --- 🟢 Slide 1 – Cancer Epigenetics & Therapeutic Rationale • Cancer progression involves both genetic mutations and epigenetic dysregulation. • Histone acetylation promotes transcriptional activation, while deacetylation induces gene repression. • Overexpression of several HDAC isoforms (HDAC1, 2, 3, 6, and 8) has been strongly associated with tumor progression. • Clinically approved hydroxamate-based inhibitors such as Vorinostat demonstrate potent activity but limited isoform selectivity and potential systemic toxicity. 🔎 Therefore, structural optimization of HDAC inhibitors remains a critical medicinal chemistry challenge. Gamma layout instructions: Divide the slide into two halves. Left side: Current text. Right side: Two scientific illustrations. Image 1: Histone acetylation vs deacetylation diagram showing open chromatin vs closed chromatin and gene expression. Image 2: Illustration showing HDAC overexpression leading to cancer progression. Below the images add a small visual: Chemical structure of Vorinostat. --- 🟢 Slide 2 – Structural Biology of HDAC Enzymes • HDACs are Zn²⁺-dependent metalloenzymes. • The catalytic Zn²⁺ ion is located at the base of a narrow hydrophobic channel. • A surface recognition pocket stabilizes ligand binding. • Effective inhibition requires precise Zn²⁺ chelation combined with optimal surface interactions. • HDAC1 was selected as the representative Class I isoform for computational docking studies. Gamma instructions: Large scientific diagram on the right: HDAC catalytic pocket with Zn²⁺ ion. Ensure the diagram clearly shows: • Zn²⁺ ion • catalytic tunnel • binding pocket Add arrows labeling: Zn²⁺ ion catalytic channel surface pocket. Text on the left. --- 🟢 Slide 3 – Classical HDAC Pharmacophore Model HDAC inhibitors share a conserved pharmacophore model: • Zinc Binding Group (ZBG) → coordinates catalytic Zn²⁺ • Hydrophobic linker → spans the catalytic tunnel • Cap group → interacts with surface residues This model guided the rational design of the new scaffold. Gamma instructions: Create a pharmacophore diagram showing: Cap group Linker Zinc Binding Group Color scheme: Cap group – blue Linker – gray ZBG – red Place diagram in the center of the slide. --- 🟢 Slide 4 – Lead Compound Identification & Medicinal Chemistry Rationale Design Rationale • Hydroxamate inhibitors show strong potency but suboptimal selectivity. • Structural refinement aimed to improve binding orientation, electronic balance, and isoform selectivity. Hybrid Lead Design A quinazoline–triazole–hydroxamate scaffold was selected. Functional Contributions • Hydroxamic acid (Zinc-Binding Functional Group) → bidentate Zn²⁺ chelation • Triazole → conformational rigidity & hydrogen bonding • Quinazoline → hydrophobic cap interaction & π–π stacking • Substituent tuning → steric and electronic optimization Gamma instructions: Display labeled chemical structure: quinazoline–triazole–hydroxamate scaffold. Add arrows pointing to: Hydroxamic acid Triazole Quinazoline Use standard atom colors: N blue O red C gray Ensure bromine (Br) at position 7 appears reddish-brown. Place structure in the center. --- 🟢 Slide 5 – Research Objective & Experimental Workflow Objective To design, synthesize, and biologically evaluate novel quinazoline–triazole hydroxamate derivatives as potent and selective HDAC inhibitors. Workflow • Rational scaffold design • Multi-step synthesis • Structural confirmation (¹H NMR, ¹³C NMR, HRMS) • HDAC inhibition assay (IC₅₀ determination) • Anticancer activity evaluation • Molecular docking for SAR validation Gamma instructions: Create a scientific workflow diagram: Design ↓ Synthesis ↓ Characterization ↓ HDAC assay ↓ Anticancer assay ↓ Docking study Add scientific icons for each step. --- 🟣 Slide 6 – Rational Drug Design Strategy • Hybridization of pharmacophoric fragments • Quinazoline (cap) + Triazole (linker) + Hydroxamic acid (ZBG) • Two linker series developed: – Series 7: N-hydroxybenzamides – Series 11: N-hydroxypropenamides • Systematic substitution at positions 6 and 7 of quinazoline core Gamma instructions: Create fragment-based drug design diagram. Show three fragments: Quinazoline structure Triazole structure Hydroxamic acid structure Arrows leading to hybrid molecule. --- 🟣 Slide 7 – Structural Mapping • Hydroxamic acid → Zn²⁺ chelation • Triazole → orientation control within the catalytic channel • Quinazoline → surface hydrophobic interaction and π–π stacking • Halogen or alkyl substituents → electronic and steric modulation Gamma instructions: Annotated chemical structure with arrows showing: Zn²⁺ chelation Catalytic channel orientation Cap interaction. --- 🟣 Slide 8 – Synthetic Overview • Quinazoline core formation via cyclization • Cu(I)-catalyzed azide–alkyne cycloaddition (“click chemistry”) • Final hydroxaminolysis to generate active hydroxamic acid ZBG • Target compounds 7a–i and 11a–i obtained and fully characterized Gamma instructions: Show synthetic reaction scheme: Step 1 – cyclization Step 2 – click chemistry Step 3 – hydroxaminolysis. --- 🟣 Slide 9 – SAR: Linker Optimization • Series 7 (benzamide) showed stronger HDAC inhibition. • The rigid benzamide linker allows optimal Zn²⁺ alignment within the catalytic tunnel. • Series 11 (propenamide) demonstrated slightly weaker enzymatic inhibition but notable antiproliferative effects. • Increased linker flexibility may reduce optimal Zn²⁺ coordination geometry. Gamma instructions: Create comparison table and bar chart: Series | Linker | HDAC activity Series 7 | Benzamide | Strong Series 11 | Propenamide | Moderate --- 🟣 Slide 10 – SAR: Substituent Effects • 7-Br substitution (Compound 7h) → IC₅₀ = 0.142 µM • 7-CH₃ substitution (Compound 7c) → IC₅₀ = 0.146 µM • 6-Cl derivatives (7d, 11d) showed strongest cytotoxicity • Halogen substitution enhanced hydrophobic pocket interaction Gamma instructions: Create SAR table and IC50 bar chart. Add diagram highlighting quinazoline substitution positions 6 and 7. --- 🔵 Slide 11 – Enzymatic Inhibition Results • Several compounds exhibited submicromolar HDAC inhibition. • Compound 7h exhibited the strongest enzymatic inhibition (IC₅₀ = 0.142 µM), demonstrating comparable and slightly improved potency relative to Vorinostat (IC₅₀ ≈ 0.160 µM) under identical assay conditions. • These findings confirm enhanced enzymatic inhibition within the optimized Series 7 derivatives. Gamma instructions: Create bar chart comparing IC50 values of compounds vs Vorinostat. Highlight compound 7h. --- 🔵 Slide 12 – Anticancer Activity • Compounds were evaluated against SW620 and MDA-MB-231 cancer cell lines. • Compound 7h exhibited the highest cytotoxic potency. • Compounds 7d and 11d induced G2/M cell cycle arrest. • Significant apoptosis induction was observed. • Favorable selectivity toward cancer cells over normal MRC-5 fibroblasts was confirmed. Gamma instructions: Create bar chart showing cell viability. Add small apoptosis microscopy illustration. --- 🔵 Slide 13 – Molecular Docking • Docking was performed against the HDAC1 isoform catalytic pocket. • Compound 7h demonstrated the most stable binding conformation with a docking score of –9.4 kcal/mol. • Vorinostat exhibited a docking score of –8.6 kcal/mol under identical computational conditions. • Hydroxamic acid formed strong bidentate coordination with Zn²⁺ (~2.0 Å). Gamma instructions: Show docking visualization inside HDAC1 catalytic pocket. Ensure image clearly shows: Zn²⁺ ion hydroxamate coordination binding pocket. Display coordination bonds (~2.0 Å) as yellow dashed lines. Add small table: Compound | Docking score 7h | −9.4 Vorinostat | −8.6 --- 🔵 Slide 14 – Functional Group–Docking Correlation • Docking score of compound 7h (–9.4 kcal/mol) correlates with its lower IC₅₀ value (0.142 µM). • This agreement validates the rational drug design strategy. • Enhanced Zn²⁺ chelation and hydrophobic stabilization explain improved inhibition. Gamma instructions: Create correlation scatter plot: Docking score vs IC50. Add interaction diagram showing: Zn²⁺ coordination hydrophobic interactions. --- 🔵 Slide 15 – Conclusion • A novel quinazoline–triazole–hydroxamate series was developed. • Several derivatives demonstrated superior activity compared with Vorinostat. • Compound 7h emerged as the lead candidate. Reasons: – Highest HDAC inhibition (IC₅₀ = 0.142 µM) – Superior docking score (–9.4 kcal/mol) – Potent anticancer activity – Favorable selectivity profile Gamma instructions: Display chemical structure of compound 7h at center. Add highlight box: Lead compound: 7h IC50 = 0.142 µM Docking score = −9.4 kcal/mol Bottom note: Future perspective: next-generation isoform-selective HDAC inhibitors.