Arduino Clinostat

Explore the wonders of plant growth in microgravity

About Arduino Clinostat

STIMULATE MICROGRAVITY CONDITION

Ardiuno Clinostat brings space science research to your classroom

since 2025

Ardiuno Clinostat brings space science research to your classroom

since 2025

Gravity affects how plants grow, causing roots to move downward and stems to rise upward. This response, called gravitropism, is essential for life on Earth. But in space or microgravity, plants grow differently, which helps scientists understand biology beyond Earth.

Microgravity occurs when the effect of gravity is reduced, similar to conditions in space. Clinostats help create microgravity-like environments on Earth by rotating biological samples continuously, removing the constant gravitational pull in one direction.

Our Arduino-based Clinostat provides an affordable way to study plant growth under simulated microgravity. With simple electronics and programmable speed, it helps students and researchers explore space science at a low cost, promoting innovation and learning.

Making Process Of Clinostat

Making Agar-Agar Solution

Boil 50ml of water and add 5gm of agar-agar bacteriological powder. Stir continuously until fully dissolved for use, boil it for 15-20 minutes. Let it solidify for 1-2 hrs.

Seed Mounting

Place 9 seed in a square pattern(3*3 grid) on the solidified agar surface using twezeer. Ensure equal spacing for uniform growth and microphyle facing downwards.

Final Device

Now connect all the component according the givencircut diagram, now mount petri dish on it let it rotate for 12-24 hrs, observe it and if possible click pictures for better observation ,this time duration may vary due to factors such as humidity, temperature and type of seed.

THE

Beginner’s Guide

MATERIAL REQUIRED:-

1:- Arduino UNO
2:- Mini servo motor
3:-Agar-Agar bacteriological powder
4:-Petri dish
5:-Bread board
6:-LED

HOW TO CONNECT ALL THE COMPONENTS?

STEP 1 :- Connect servo signal to digital pin 8, Servo GND to arduino GND and servo VCC to 3.3volt.
STEP 2 :- similarly connect LED to ardiuno.
STEP 3 :- connect ardiuno with power.

CODE:-

#include Servo clinostatServo; // Create servo object void setup() { clinostatServo.attach(8); // Attach servo signal to pin D8 } void loop() { // Move from 0 to 180 degrees for (int pos = 0; pos <= 180; pos += 1) { clinostatServo.write(pos); delay(15); // Adjust delay for speed } // Move from 180 back to 0 degrees for (int pos = 180; pos >= 0; pos -= 1) { clinostatServo.write(pos); delay(15); // Adjust delay for speed } }

How we made Arduino clinostat

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Services offered by us

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Microgravity simulations

We share complete details of creating microgravity-like condition using clinostat

Expert mentorship

Expert mentors guide you in using Ardiuno Clinostat and understanding microgravity science

Research insights

Gain deep insights into plant growth under microgravity using Ardiuno Clinostat

Transforming plant science education with innovation and dedication

Shubham Sagar

Ardiuno Clinostat opened up new avenues for my research! This technology allowed me to explore plant growth in ways I never thought possible.

Get in touch with us

Darbhanga, Bihar, India

rishavkmishra2009@gmail.com
shubh171010@gmail.com

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