№ files_lp_4_process_3_094077
File format: docx
Character count: 2123
File size: 2931 KB
Research article detailing the design, implementation, and testing of a portable air pollution analyzer that measures PM10 levels and displays the Air Quality Index using Arduino and sensor technology.
Year:
2024
Region / City:
Dhaka, Bangladesh
Topic:
Air Quality Monitoring
Document Type:
Journal Article
Institution / Publisher:
Science Domain International (SDI)
Author:
Iftekhar Uddin Mullick, Khan Atik Faisal, Tarikul Islam Nishat, Muhibul Haque Bhuyan
Target Audience:
Researchers and students in Electrical and Electronic Engineering
Study Period:
September 2023 – February 2024
Publication Date:
12 April 2024
Volume:
26
Issue:
3
Pages:
163–174
ISSN:
2582-2926
DOI:
https://doi.org/10.9734/jerr/2024/v26i51143
URL:
https://journaljerr.com/index.php/JERR/article/view/1143
Methodology:
Hardware-software design using Arduino Uno and DSM501A dust sensor to measure PM10 and determine air quality
Price: 8 / 10 USD
The file will be delivered to the email address provided at checkout within 12 hours.
The file will be delivered to the email address provided at checkout within 12 hours.
Don’t have cryptocurrency yet?
You can still complete your purchase in a few minutes:- Buy Crypto in a trusted app (Coinbase, Kraken, Cash App or any similar service).
- In the app, tap Send.
- Select network, paste our wallet address.
- Send the exact amount shown above.
The final amount may vary slightly depending on the payment method.
The file will be sent to the email address provided at checkout within 24 hours.
The product description is provided for reference. Actual content and formatting may differ slightly.
Year:
2023
Region / City:
Aberdeen Proving Grounds, MD
Theme:
Tactical Cyber and Network Operations
Document Type:
Performance Work Statement (PWS)
Organization:
U.S. Army
Author:
U.S. Army
Target Audience:
Military and Defense Personnel
Period of Effectiveness:
72 months (with 24-month base period and two 24-month option periods)
Approval Date:
03JAN2023
Modification Date:
None specified
Document Type:
Learning activity instructions
Subject:
Electronics and sensor circuits
Topic:
Building a gas sensor circuit using Arduino
Components:
Arduino UNO R3, MQ-135 gas sensor, 0.96” OLED display, jumper wires, 9V AC/DC power adapter
Required Materials:
Arduino UNO R3 board, MQ-135 gas sensor module, OLED display, eight colored jumper wires, power adapter
Connection Interface:
Arduino pin connections to OLED display and MQ-135 sensor
Connection Details:
VCC, GND, SCL, SDA, AO, DO pin mapping between components
Instruction Format:
Step-by-step participant instructions with wiring table and diagrams
Figures Referenced:
Figure 1 wire connection diagram; Figure 2 voltage regulator location; Figure 3 reset button location
Software / Tools Referenced:
Fritzing
Audience:
Students participating in instructor-led electronics activity
Supervision Requirement:
Instructor verification before powering the circuit
Power Supply:
9V DC input via AC/DC adapter
Safety Considerations:
Static electricity precautions and heat from Arduino voltage regulator
Learning Context:
Classroom or workshop electronics activity
Year:
Not specified
Region / City:
Not specified
Topic:
Arduino programming, electronics
Document Type:
Course syllabus
Institution:
Not specified
Author:
Not specified
Target Audience:
Students interested in Arduino programming and electronics
Period of Action:
Not specified
Approval Date:
Not specified
Modification Date:
Not specified
Journal:
INTERNATIONAL JOURNAL OF THERMODYNAMICS (IJOT)
Volume:
21
Issue:
1
Pages:
1–5
Year:
2018
ISSN:
1301-9724
e-ISSN:
2146-1511
DOI:
10.5541/ijot.5000209000
Website:
www.ijoticat.com
Published online:
March 1, 2018
Received:
28 November 2016
Revised:
17 November 2017
Accepted:
21 January 2018
Authors:
Elson Avallone; Paulo César Mioralli; Vicente Luiz Scalon; Alcides Padilha; Santiago del Rio Oliveira
Affiliations:
Instituto Federal de Educação, Ciência e Tecnologia de São Paulo; UNESP - Univ Estadual Paulista, Faculdade de Engenharia, Departamento de Engenharia Mecânica
Country:
Brazil
Type of document:
Research article
Field:
Thermodynamics; Solar radiation measurement; Thermal instrumentation
Keywords:
Pyranometer; Radiometer; Thermal sensor; Arduino
Abstract focus:
Design, calibration and dynamic modeling of a low-cost thermal pyranometer
Calibration method:
Comparison with commercial photodiode sensor
Estimated standard error:
20.8 W/m² (99% confidence level)
Estimated response time:
Approximately 1.5 minutes
Final cost of device:
US $ 60.00
Experiment Number:
8
Group:
B
Aim:
Write a program that asks the user for a number and outputs the number squared that is entered
Outcome:
Connectivity, configuration and serial communication with Arduino
Hardware Requirement:
Arduino, USB cable
Software Requirement:
Arduino IDE
Topic:
Arduino Serial Monitor and Serial Communication
Example Sketch:
ASCIITable
Boards Mentioned:
Arduino Uno, MEGA 2560
Baud Rate:
9600 baud
Number Range in Example:
33 to 126
Number Systems Used:
Decimal, Hexadecimal, Octal, Binary
Communication Interface:
USB connection between computer and Arduino
Type of Document:
Laboratory experiment instruction and tutorial
Year:
2025
Region / City:
Global
Topic:
Waste segregation, recycling, deep learning, object detection
Document Type:
Research paper
Organization / Institution:
Not specified
Author:
Not specified
Target Audience:
Researchers, environmental scientists, waste management professionals
Period of Validity:
Not specified
Approval Date:
Not specified
Modification Date:
Not specified
Year:
Not specified
Platform:
Intel Edison
Development Environment:
Arduino IDE 1.6.5
Programming Language:
Arduino (C/C++ based)
Network Configuration:
Custom HTTP port 1000
Referenced Examples:
WiFiWebServer Arduino example
Hardware Inputs:
Digital pins 2, 4, 6, 8
Primary Functionality:
Webpage hosting with background computations
Port Restrictions:
Avoid ports 22, 23, 80, 443
Update Mechanism:
Polling (with suggested interrupt-based improvement)
Type of Document:
Technical implementation notes
Document Type:
Learning activity instructions
Subject:
Electronics and sensor circuits
Topic:
Building a gas sensor circuit using Arduino
Components:
Arduino UNO R3, MQ-135 gas sensor, 0.96” OLED display, jumper wires, 9V AC/DC power adapter
Required Materials:
Arduino UNO R3 board, MQ-135 gas sensor module, OLED display, eight colored jumper wires, power adapter
Connection Interface:
Arduino pin connections to OLED display and MQ-135 sensor
Connection Details:
VCC, GND, SCL, SDA, AO, DO pin mapping between components
Instruction Format:
Step-by-step participant instructions with wiring table and diagrams
Figures Referenced:
Figure 1 wire connection diagram; Figure 2 voltage regulator location; Figure 3 reset button location
Software / Tools Referenced:
Fritzing
Audience:
Students participating in instructor-led electronics activity
Supervision Requirement:
Instructor verification before powering the circuit
Power Supply:
9V DC input via AC/DC adapter
Safety Considerations:
Static electricity precautions and heat from Arduino voltage regulator
Learning Context:
Classroom or workshop electronics activity
Year:
2026
Region / City:
Not specified
Topic:
Arduino programming, servo motor, force sensor
Document Type:
Source code
Organization / Institution:
Individual / Open-source community
Author:
Not specified
Target Audience:
Electronics hobbyists, programmers
Hardware:
Arduino board, servo motor, force-sensitive resistor
Input:
Button, potentiometer
Output:
Servo angle, PWM signal, Serial Monitor
Programming Language:
C++
Libraries:
Servo