Lime - #RideGreen represents a significant player in the urban micromobility market, offering electric scooters and bicycles through a location-based rental system. Developed by Neutron Holdings, Inc., the Android application serves as the primary interface for accessing these vehicles across participating cities worldwide, positioning itself as an eco-friendly alternative to traditional transportation methods. The application's core functionality revolves around a three-step process: account creation, vehicle location via interactive map, and QR code-based unlocking. The map interface displays available vehicles with real-time location data, battery levels, and pricing information. Payment processing occurs within the app, with ride costs calculated based on time and distance. Safety features include speed limit enforcement (approximately 20km/h as noted by users), helmet reminders, and riding guidelines integrated into the user experience. User experience demonstrates generally intuitive design with clear visual hierarchy prioritizing vehicle discovery and ride initiation. The interface maintains functional simplicity while providing necessary details like ride history, payment methods, and support options. Real-world usage patterns show peak demand during commute hours and weekend tourism, with vehicle availability varying significantly by location and time of day. The requirement for constant smartphone connectivity during rides presents both convenience and potential reliability concerns. User feedback trends indicate high satisfaction with convenience and environmental benefits, though technical issues merit consideration. Jared Graf (2025-09-05) noted the platform's value for 'saving gas and exploring large areas,' while Melinda Ang (2025-09-01) appreciated safety-conscious speed limits. Critical feedback from Wild Evergreen (2025-06-28) and antoine turner (2025-07-30) highlights ongoing issues with ride-ending processes, including continued time accrual during app processing and connectivity-dependent termination that can result in overcharges. The application demonstrates strengths in urban mobility accessibility and environmental impact reduction, though limitations include geographic availability constraints and reliability concerns regarding ride termination. Ideal use cases involve short-distance urban travel, first/last-mile connections to public transit, and recreational city exploration where vehicle density supports reliable access. The platform succeeds as a micromobility solution when infrastructure and vehicle supply align with user demand patterns.