Safety Reinvented Fabrication of Glass Cleaning Robot to Enhance Residential Safety Measures

Using its pneumatic suction cups, this little window climbing robot should be able to clean and wash a pretty big area of outdoor office windows on high-rise buildings without human intervention. The robot will autonomously clean the room's windows in a predetermined pattern after being manually connected to the outer surface of the window. This study presents the results of an investigation into the potential of a robot called the Modular Glass Cleaning Robot (MGCR) to aid in the cleaning process. The suggested scheme's efficacy will be assessed by cross-validating it with the standard model known as the Conventional Glass Cleaning Robot (CGCR). One kind of robot that has recently evolved is the window cleaner. No matter the size of your building, this robot can find a job here. The primary objective is to develop a robot capable of swiftly and effectively cleaning glass windows, regardless of the location's inherent dangers. Hubbot, a robotic structure, is developed by this system. A combination of linear and rotational movements, as well as the ability to extend and retract the legs and avoid obstacles, will be accomplished. Its construction is both basic and lightweight. To simplify things, instead of a multi-joint legged moving structure, we'll see a hub and a few symmetrical legs. From a weight-saving standpoint, a hanging, reversible motor drives a rack and pinion gear. Furthermore, three distinct bearing configurations demonstrate a structural optimization of the rotating mechanism. Finding the optimal one that both keeps the robot's cost down and guarantees the shaft's stiffness is the goal. Lastly, the exploded picture of the entire structure is provided, along with a functional embodiment design that includes three mechanisms: adhesion, actuation, and movement. The detailed sequence formulations of the four movements are indicated. The designed robot is lightweight, small size and cheap because it is driven only by one rotary actuator and system of properly arranged conventional belts and pulleys. It detects the window frame using a series of optical sensors and suction cups that adhere to the window glass. Based on the data collected by the sensors, the microcontroller is programmed to direct the robot's movements in a predetermined pattern. So far, there are no competitive items on the market that are similarly priced.

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Publication Details

Published
2024-12-12
DOI
https://doi.org/10.1109/icses63760.2024.10910689
Citations
2
Primary Topic
Educational Robotics and Engineering
Type
article
Field-Weighted Citation Impact
0.69
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article

Safety Reinvented Fabrication of Glass Cleaning Robot to Enhance Residential Safety Measures

Maram Y. Al-Safarini, Chandrasekaran Venkatraman, K. Kannan, T. Jayakumar et al.
2 citations
Educational Robotics and Engineering
0.69
article

Safety Reinvented Fabrication of Glass Cleaning Robot to Enhance Residential Safety Measures

Maram Y. Al-Safarini, Chandrasekaran Venkatraman, K. Kannan, T. Jayakumar, M Madhini., Giri Jayant
article en
2 citations

Abstract

Using its pneumatic suction cups, this little window climbing robot should be able to clean and wash a pretty big area of outdoor office windows on high-rise buildings without human intervention. The robot will autonomously clean the room's windows in a predetermined pattern after being manually connected to the outer surface of the window. This study presents the results of an investigation into the potential of a robot called the Modular Glass Cleaning Robot (MGCR) to aid in the cleaning process. The suggested scheme's efficacy will be assessed by cross-validating it with the standard model known as the Conventional Glass Cleaning Robot (CGCR). One kind of robot that has recently evolved is the window cleaner. No matter the size of your building, this robot can find a job here. The primary objective is to develop a robot capable of swiftly and effectively cleaning glass windows, regardless of the location's inherent dangers. Hubbot, a robotic structure, is developed by this system. A combination of linear and rotational movements, as well as the ability to extend and retract the legs and avoid obstacles, will be accomplished. Its construction is both basic and lightweight. To simplify things, instead of a multi-joint legged moving structure, we'll see a hub and a few symmetrical legs. From a weight-saving standpoint, a hanging, reversible motor drives a rack and pinion gear. Furthermore, three distinct bearing configurations demonstrate a structural optimization of the rotating mechanism. Finding the optimal one that both keeps the robot's cost down and guarantees the shaft's stiffness is the goal. Lastly, the exploded picture of the entire structure is provided, along with a functional embodiment design that includes three mechanisms: adhesion, actuation, and movement. The detailed sequence formulations of the four movements are indicated. The designed robot is lightweight, small size and cheap because it is driven only by one rotary actuator and system of properly arranged conventional belts and pulleys. It detects the window frame using a series of optical sensors and suction cups that adhere to the window glass. Based on the data collected by the sensors, the microcontroller is programmed to direct the robot's movements in a predetermined pattern. So far, there are no competitive items on the market that are similarly priced.

Zarqa University (JO), ASA College (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 22%
Educational Robotics and Engineering
0.69
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