Mobile robot block diagram

Mobile robot block diagram

Source publication
Article
Full-text available
In this study, a mobile robot carrying an on board camera is designed and implemented, which can be controlled remotely with wireless technology. Android operating system based tablet computers (controller) control mobile robot remotely and one android interface program is designed for remote control. Mobile robot is a microcontroller based embedde...

Context in source publication

Context 1
... part is called "Robot" from now on. The system block diagram can be seen in figure 1. After start, system begins to work. ...

Citations

... Mobile robots are used for a lot of applications which include surveillance, patrolling, emergency rescue operations, industrial automation, entertainment, museum guides, personal services, transportation, medical care, and etc. [11]. Using mobile robots can improve the lifestyle, careers, and productivity of people when mobile robots are integrated with devices and tools that can be efficiently utilized by people using their smart devices or computers [12]. ...
Conference Paper
Full-text available
The COVID-19 pandemic has brought crisis to people from around the world resulting to a transition from face-to-face classes to an online class in the academic sector. Graduation ceremonies also transition into an online ceremony where students passively attend the session. In this study, a Social Robot named “Gradbot” is developed to help the students participate actively in their online ceremonies. The Body frame was designed using Fusion360. The Gradbot is compose of the Arduino microcontroller, servo motors, Bluetooth module, mounted on a 2WD car chassis and was simulated using Tinkercad and MATLAB. This study also includes the investigation of the degrees of freedom, type of joints, workspace, and the cartesian product of the developed Gradbot.
... This approach faces disadvantages such as controlling is possible in low distance depends system, high cost for circuit construction and its quality depends on the recording quality of the microphone. Furthermore, [4,5] propose a new Bluetooth transmitter approach via smartphone. The control design in these works was simpler than the old type. ...
... The block editor is an environment where the designer can visually edit the logic of their application with color-coded blocks that interlock like puzzle pieces to explain the program. In the last decade, besides applications such as automation systems [10][11][12][13], air pollution monitoring systems [14], mobile phone applications [15], education [16,17], health [18], machine monitoring and control [19,20] Android applications are also used for robotic systems [21][22][23][24][25][26][27][28][29][30][31][32][33][34]. ...
... They installed the designed Android application on a tablet. They sent the images took from the camera placed on the robot to the tablet via Wi-Fi and sent the direction and speed values set from the tablet to the robot [25]. Ramya and Palaniappan performed a web-based remote control of a robot equipped with a motion sensor, camera and gas sensor for environmental safety. ...
Preprint
Full-text available
In this study, a Bluetooth-based Android application interface is developed to perform a manual and automatic control of a four-wheel-driven mobile robot designed for education, research, health, military, and many other fields. The proposed application with MIT App Inventor consists of three components: the main screen, the manual control screen, and the automatic control screen. The main screen is where the actions of the control preference selection such as manual control and automatic control and the Bluetooth connection between the mobile robot and Android phone occur. When the robot is operated manually for calibration or manual positioning purposes, the manual control screen is employed to adjust the desired robot movement and speed by hand. In the case of the need for automatic motion control, the desired robot position and speed data are inserted into the mobile robot processor through the automatic control screen. At the first stage of the work, the proposed Android application is developed with the design and block editors of the MIT App Inventor. The compiled application is then installed on the Android phone. Next, the communication between the Arduino microcontroller used for the robot control with the Bluetooth protocol and the Android application is established. The accuracy of the data dispatched to the Arduino is tested on the serial connection screen. It is validated that the data from the Android application is transferred to Arduino smoothly. At the end of this study, the manual and automatic controls of the proposed mobile robot are performed experimentally and success of the coordination between the Android application and the mobile robot are demonstrated.
... Nowadays, intelligent systems are developing extremely fast. This development comes with a set of major improvements of different communication systems both in everyday life and in the industrial environment [1][2]. The development of communication systems has developed major in recent years with the advent of microprocessors containing an increasing number large number of transistors and are becoming more efficient. ...
Article
Full-text available
The industrial environment is going through exponential changes, due to the diversity of technological solutions that appear more and more frequently and the increase of productivity at increasing capacities. Due to this fact in the industrial area the number of devices, processing systems, collaborative robots, mobile robots and industrial equipment is increasing more and more. Consequently, there is a need for communication and connectivity of entities, common physical or virtual functioning and decision making, all of which are fundamental to the transition to the new concept of Industry 4.0. This study presents how wireless communication can be achieved in a mobile robotic platform that serves an industrial sector with other equipment in the production area, such as industrial equipment, collaborative industrial robots or other mobile robots. Also in this paper is presented how to create an HMI interface for the mobile platform that can be accessed from a touchscreen display mounted on the robot or from any mobile device connected to the internet.
... The design of both Windows and Linux clients is based on Qt 5.0. Qt is cross-platform IDE, that is, when the source code was written on a platform, the source code can be compiled on the another platform and can be run without rewriting [9]. The design idea of client is still thread-oriented. ...
Article
Full-text available
In this paper, the modular design idea and MVC design pattern are used to study a control system of a wall-climbing robot applied to detecting the surface of large-scale tanks. The design mainly has two parts:hardware system and software system. The hardware system consists of power modules, sensor modules, control modules, and communication modules. The software system is composed of the robot control software, the robot remote control App based on Android devices, and the upper computer application program which can run in both Windows system and Linux system. Finally, the feasibility and robustness of the system are verified by experiments.
... The proposed system distinctive is exclusive within the sense that it is unique within the sense that it is a low-priced answer that many remotely manage a robot from any vary (by exploiting the internet) and additionally offers the live videos transmission. There is no constraint on any further process as everything is finished from a distant location [4]. ...
Article
Full-text available
We developed a sustainable surveillance robot that is cost effective using an Arduino microcontroller together with a motor shield and an Android smartphone that runs the Operating System. The robot consists of a video camera and wifi robot link. Smartphones come with superb hardware that satisfies the above needs. This can be leveraged upon through the use of APIs (Application Programming Interfaces) that is provided for the operating system. However, the building cost for the robot with a smartphone is greatly reduced. The robot can be remotely controlled using the wifi module and a microcontroller, smart phone interface embedded on the robot. The camera on the robot is used to capture and record real time video from the robot. The robot can be controlled based on visual feedback from the same smartphone. The four wheeled dc motors help to navigate the robot and ultrasonic sensor to avoid obstacles. The camera is attached to the wifi robot link which enables it to capture the environment or any object of concern. Experimental results with varied positions of obstacle show the flexibility of the robot to avoid it and have shown a decent performance and it is getting a communication range of nearly 50m, which is good enough for many surveillance applications.
... Gonca Ersahina et al have controlled mobile robot remotely with an android interface program. The developed android operating system makes the system more user friendly and it can be operated by more than one user on their own devices 22 From the above literature survey it can be seen that, existing seeding techniques are either complex or time consuming. Also wastage of seeds, lack of man power and several other aspects affects the yield production. ...
Article
Full-text available
Objective: The field of robotics can be modified with the combination of number of approaches such as, mechanical approach, software technology and electronic control system approach together. In the period of current globalization, scientists are trying to apprise advancements based on robotics which operates and performs tasks very effectively, efficiently and in lesser time. These progressions can be utilized to improve Indian traditional approach of farming. Since in Indian scenario, near about 70% population is reliant on agriculture. So the agricultural field in India should be improved to increase the yield. Agree rover is the best solution to meet the rising demand on quantity and quality of agriculture products and declining labor availability in rural farming areas. The main aim of the designed system is efficient utilization of resources and to reduce a laborious work. Method: The seed sowing operation is performed by the system using servomotor mechanism controlled by ARDUINO controller and robot motion is controlled by Internet of Things (IoT). The necessities for small scale seeding machines are, the system should be suitable for small field, simple in design and technology and ease of handling. Findings: The developed Agri-Rover satisfies all those parameters also reduce the human interference. Also increased speed of seed sowing, seed placement precisions made it usable. Improvement: Agri-Rover made of tough yet less cost material which made it low-cost for the small scale farmers.
... They can approach locations of interest to report sensory data and to show more detailed views of a suspicious area (Cassinis and Tampalini, 2007) To design and manufacture an agricultural robot the engineers need to design intelligent robot by efficient algorithm. Scientists, researchers, and academics, who work in embedded systems, bring new works to our world (Ersahin and Sedef, 2015) some example include a multi-arm robotic harvester (Zion et al., 2014), a strawberry-harvesting robot (Hayashi et al., 2010), an apple harvesting robot (De-An et al., 2011), an autonomous robot for white asparagus harvesting (Barawid Jr et al., 2007), a cherry-harvesting robot (Tanigaki et al., 2008), robots for tomato, petty-tomato, cucumber and grape harvesting (Kondo et al., 1996) and Stationary robots are used for sheep hearing (Tanner et al., 2001). ...
Article
Full-text available
Robotics can play a significant role to increase efficiency and lighten the farmer’s load. Despite challenges in the agricultural robotic designs, robots are capable of performing various tasks and changing themselves accordingly, based on specific conditions. To address modern problems in the agricultural field, an agricultural robot is one of the key technologies. Although agricultural robotic is still in the development stage, these particular robots have a bright future ahead. This paper proposes a new 5DOF articulated robotic arm design that would become a solution for heavy crop harvesting like pumpkin and cabbage.
... The signal from the USB camera is processed by a Raspberry Pi which resends it to the operator using a Wi-Fi module. There is an application on the tablet to display the image from the cameras and to control the robot [16]. ...
Article
Full-text available
The paper describes modifications of an inspection mobile robotic system. Those were carried out in order to increase the functional value of the current mobile robot. Fulfilling the required functions of the current system was evaluated in its functional tests. The acquired parameters of fulfilling the functions were compared with similar existing systems. Next, concepts of solutions for individual robot subsystems were designed and mutually compared. When designing the concepts of the subsystem for image processing from individual cameras, it was necessary to experimentally evaluate the speed of image digitalization by existing video converters. The paper also describes the used methodology of evaluation of image transmission delay from the robot camera to operator’s station. The final part of the paper focuses on evaluation of the achieved results and further suggestions for modifications of the robotic system which arose during the performed modifications.
... They can approach locations of interest to report sensory data and to show more detailed views of a suspicious area (Cassinis and Tampalini, 2007) To design and manufacture an agricultural robot the engineers need to design intelligent robot by efficient algorithm. Scientists, researchers, and academics, who work in embedded systems, bring new works to our world (Ersahin and Sedef, 2015) some example include a multi-arm robotic harvester (Zion et al., 2014), a strawberry-harvesting robot (Hayashi et al., 2010), an apple harvesting robot (De-An et al., 2011), an autonomous robot for white asparagus harvesting (Barawid Jr et al., 2007), a cherry-harvesting robot (Tanigaki et al., 2008), robots for tomato, petty-tomato, cucumber and grape harvesting (Kondo et al., 1996) and Stationary robots are used for sheep hearing (Tanner et al., 2001). ...