Automated
Robotic System for
Urban Pollution
Control
This project proposes an innovative approach to urban waste
management by developing an IoT-based robotic cleaning system.
This system aims to address the challenges of space constraints,
accessibility, safety, and specialized techniques associated with
waste management in urban areas.
Problem Statement
Space Constraints
Urban areas often face limited space for waste storage and disposal, leading to
overcrowding and environmental hazards.
Accessibility Issues
Reaching certain areas for cleaning, such as narrow alleys or hard-to-reach corners,
can be challenging for traditional methods.
Safety Concerns
Manual waste collection can pose risks to workers, especially in areas with heavy
traffic or hazardous materials.
Specialized Techniques
Specific types of waste, such as hazardous materials or bulky items, require
specialized handling and disposal methods.
Scope
1 Waste Data Collection
The system will gather
information about the amount of
waste and locations requiring
cleaning in a specific urban
region.
2 Autonomous Cleaning
Robots
A network of autonomous
cleaning robots will be deployed,
equipped with sensors and
connectivity to enhance waste
collection and cleaning efficiency.
3 Data Visualization and
Monitoring
Residents and city administration
will have access to a spatial
database and maintenance
records, allowing them to track
cleaning activities.
Objective
The primary objective is to design and implement an IoT-enabled robotic system capable of effectively cleaning and
maintaining urban last-mile environments, often inaccessible or dangerous.
The system will analyze waste accumulation data to identify patterns, high-frequency locations, and seasonal trends in
waste generation. This data will be used to optimize robotic cleaning routes and schedules.
Methodology
1 Literature Review
Research existing robotic cleaning technology and smart waste management systems to inform future design considerations.
2 System Design
Select robotic systems with cleaning mechanisms suitable for urban environments, equip robots with appropriate sensors for waste detection, and
design a communication network for data collection and transmission.
3 Hardware Development
Build or customize robots for specific cleaning tasks, ensure reliable connectivity and sufficient battery life for prolonged operations.
4 Software Development
Set up a server to aggregate and process data from multiple robotic cleaning units, develop a web and mobile application for data visualization,
interaction, and status monitoring.
5 Data Analysis
Analyze waste accumulation data to determine patterns, high-frequency locations, and seasonal trends in waste generation, and use the analyzed data
to optimize robotic cleaning routes and schedules.
Outcome: Product
Robotic Cleaning Units
Cost-effective, IoT-enabled robotic cleaners that can be
easily deployed in various urban locations. These robots
will be capable of detecting waste, collecting it, and
transmitting real-time data to a central server.
Data Aggregation Platform
A cloud-based or local server platform that aggregates
data from multiple robotic cleaners, providing a
centralized database for analysis and optimization.
Outcome: Simulation Model
Waste Accumulation Simulation
A simulation model that visualizes waste accumulation
patterns in different urban environments, considering
factors such as foot traffic, proximity to residential areas,
and public events.
Impact Assessment Tool
A model to assess the potential impact of new urban
developments, public events, or changes in foot traffic
on waste levels, assisting policymakers in effective
planning.
Outcome: Application
A user-friendly application for residents and
city officials to access real-time cleaning
status and alerts from robotic units, view
historical trends in waste levels and cleaning
frequency, receive notifications when high
waste levels are detected, report additional
cleaning requests or contribute data for
optimization, and access educational
resources to raise awareness on
responsible waste disposal and encourage
public participation in cleanliness efforts.

Multidisciplinary Minor Smart Cities Students

  • 1.
    Automated Robotic System for UrbanPollution Control This project proposes an innovative approach to urban waste management by developing an IoT-based robotic cleaning system. This system aims to address the challenges of space constraints, accessibility, safety, and specialized techniques associated with waste management in urban areas.
  • 2.
    Problem Statement Space Constraints Urbanareas often face limited space for waste storage and disposal, leading to overcrowding and environmental hazards. Accessibility Issues Reaching certain areas for cleaning, such as narrow alleys or hard-to-reach corners, can be challenging for traditional methods. Safety Concerns Manual waste collection can pose risks to workers, especially in areas with heavy traffic or hazardous materials. Specialized Techniques Specific types of waste, such as hazardous materials or bulky items, require specialized handling and disposal methods.
  • 3.
    Scope 1 Waste DataCollection The system will gather information about the amount of waste and locations requiring cleaning in a specific urban region. 2 Autonomous Cleaning Robots A network of autonomous cleaning robots will be deployed, equipped with sensors and connectivity to enhance waste collection and cleaning efficiency. 3 Data Visualization and Monitoring Residents and city administration will have access to a spatial database and maintenance records, allowing them to track cleaning activities.
  • 4.
    Objective The primary objectiveis to design and implement an IoT-enabled robotic system capable of effectively cleaning and maintaining urban last-mile environments, often inaccessible or dangerous. The system will analyze waste accumulation data to identify patterns, high-frequency locations, and seasonal trends in waste generation. This data will be used to optimize robotic cleaning routes and schedules.
  • 5.
    Methodology 1 Literature Review Researchexisting robotic cleaning technology and smart waste management systems to inform future design considerations. 2 System Design Select robotic systems with cleaning mechanisms suitable for urban environments, equip robots with appropriate sensors for waste detection, and design a communication network for data collection and transmission. 3 Hardware Development Build or customize robots for specific cleaning tasks, ensure reliable connectivity and sufficient battery life for prolonged operations. 4 Software Development Set up a server to aggregate and process data from multiple robotic cleaning units, develop a web and mobile application for data visualization, interaction, and status monitoring. 5 Data Analysis Analyze waste accumulation data to determine patterns, high-frequency locations, and seasonal trends in waste generation, and use the analyzed data to optimize robotic cleaning routes and schedules.
  • 6.
    Outcome: Product Robotic CleaningUnits Cost-effective, IoT-enabled robotic cleaners that can be easily deployed in various urban locations. These robots will be capable of detecting waste, collecting it, and transmitting real-time data to a central server. Data Aggregation Platform A cloud-based or local server platform that aggregates data from multiple robotic cleaners, providing a centralized database for analysis and optimization.
  • 7.
    Outcome: Simulation Model WasteAccumulation Simulation A simulation model that visualizes waste accumulation patterns in different urban environments, considering factors such as foot traffic, proximity to residential areas, and public events. Impact Assessment Tool A model to assess the potential impact of new urban developments, public events, or changes in foot traffic on waste levels, assisting policymakers in effective planning.
  • 8.
    Outcome: Application A user-friendlyapplication for residents and city officials to access real-time cleaning status and alerts from robotic units, view historical trends in waste levels and cleaning frequency, receive notifications when high waste levels are detected, report additional cleaning requests or contribute data for optimization, and access educational resources to raise awareness on responsible waste disposal and encourage public participation in cleanliness efforts.