Build an Inclinometer

Purpose

To build a device that will trace the lines of the Earth's magnetic field.


Additional information

An inclinometer, also commonly known as a clinometer, tilt meter, and gradient meter, is a device used to measure angles of slope, inclination, and elevation in relation to gravitational pull. Measuring both incline (upward / positive slopes) and decline (downward / negative slopes), this device is used in a number of areas, such as astronomy, surveying, and engineering.


Our Sponsors


Required materials

  • Small Styrofoam ball (available at any crafts store)
  • Wire hanger
  • Wire clippers
  • Knitting needle
  • Compass
  • 2 glasses (tumblers) of equal size
  • Protractor
  • Wood block that is at least a couple inches larger than the protractor
  • Strong bar magnet
  • Tape

Estimated Experiment Time

About 30 minutes


Step-By-Step Procedure

  • 1. Clip a straight piece of wire from the wire hanger. Do so by clipping the left-bottom of the hanger with the wire clippers and then doing the same on the right-bottom of the hanger. Discard the reaming hanger.
  • 2. Push the hanger through the center of the Styrofoam ball. The ball should rest in the center of the wire, with equal lengths of wire exposed on each side. See Figure 1.
  • 3. Carefully stick the needle through the Styrofoam ball at an angle that is perpendicular to the wire. The needle will need be placed slightly above-center or below-center so it's insertion does not get blocked by the hanger wire. See Figure 2.
  • 4. Place the glasses (tumblers) on a flat surface a few inches apart. Place your compass assembly on top of the glasses so that the compass needle is resting on each glass. The Styrofoam ball and wire should be suspending in the air between the glasses. See Figure 3.
  • 5. Adjust the glasses so that the hanger is pointing in the north-south position.
  • 6. Now it's time to charge up the hanger with the magnet. Rub the northern pole end of the magnet several times on the north side of the hanger. The northern tip of the hanger will become polarized (charged) as a north-seeking compass needle.
  • 7. Set the woodblock on a flat surface. Use tape to attach the protractor to the wood block in an upside down position, so that the flat edge of the protractor rests against the top of the wood block.
  • 9. Move the wood block, with the curved end of the protractor facing down, between the glasses so that it is located beside the Styrofoam ball.
  • 10. Wait and allow the hanger (compass needle) to settle into position. Observe the angle that it rests at.

Note

The configuration of the Inclinometer could be tricky the first time. Don't rush through the project! Follow the steps carefully and take your time. If your first Inclinometer doesn't quite work out, try again until you get it right.

Figures & Illustrations

Figure 1Figure 2Figure 3
Figure 1Figure 2Figure 3


Observation

In which direction would your needle point if you were to take your inclinometer to the North Pole? How about the South Pole? Why is it that a north seeking needle can point to the North Pole when like poles repel and opposite poles attract?


Result

The earth's magnetic force causes the magnetized needle to dip between the glasses at a 45 degree angle. This phenomenon mimics the function of an Inclinometer. If you were to take your compass to the North Pole and charge it, the needle would point upward.


Additional Resources


Take a moment to visit our table of Periodic Elements page where you can get an in-depth view of all the elements, complete with the industry first side-by-side element comparisons!


Your email:
Your name:
Recipient email:
Recipient name:
Message:
 

Print this page   Bookmark this page  

Hide/View all projects Hide all projects Hide/View all projects

All Projects List

  • Accelerate Rusting
  • Acids And Bases
  • Additive Colors
  • Ant Microphotography
  • Apple Mummy
  • Balloon Rocket Car
  • Barney Banana
  • Bending Water
  • Bernoulli’s Principle
  • Blind Spot in Vision
  • Boiling Point of Water
  • Build an Inclinometer
  • Caffeine And Typing
  • Candy Molecules
  • Capillarity of Soils
  • Checking vs. Savings
  • Clean Cleaners
  • Cleaning Oil Spills
  • Climbing Colors
  • Cloud Cover
  • CO2 & Photosynthesis
  • Collecting DNA
  • Colorful Celery
  • Colors And Temperature
  • Composition of a Shell
  • Computer Passwords
  • Corrosiveness of Soda
  • Create a Heat Detector
  • Create Lightening
  • Cultivate Slime Molds
  • Desalinate Sea Water
  • Detergents and Plants
  • Dissolving in Liquids
  • Dissolving Solutes
  • Distillation of Water
  • Double Color Flower
  • Egg in a Bottle
  • Enzyme Activity
  • Eroding Away
  • Evaportating Liquids
  • Expanding Soap
  • Extracting Starch
  • Fans And Body Temp
  • Fertilizer & Plants
  • Filtration of Water
  • Floating Ball Experiment
  • Floating Balloon
  • Fog Formation
  • Font and Memory
  • Food and Academics
  • Friction And Vibration
  • Fruit Battery Power
  • Full and Low Fat Foods
  • Galileo's Experiment
  • Gas To Liquid
  • Grape Juice & Cleaners
  • Gravity and Plants
  • Green Slime
  • Growing a Crystal
  • Growing Bread Mold
  • Haemoglobin Binding
  • Hard vs. Soft Water
  • Homemade Floam
  • Home-made Geodes
  • Home-Made Glue #1
  • Homemade Snowflakes
  • Home-made Stethoscope
  • Homemade Volcano
  • Human Battery Power
  • Inertia of an Egg
  • Information and CD’s
  • Invisible Ink
  • Isolation of DNA
  • Jar Compass
  • Lemon Floaties
  • Levers And Force
  • Lift an Ice Cube
  • Light Colors and Plants
  • Long Lasting Bubbles
  • Magic Balloons
  • Magnified Light
  • Make a Compost Pile
  • Make a Fuse Model
  • Make a Parallel Circuit
  • Make An Elevator
  • Make Limestone
  • Make Objects Float
  • Make your own sundial
  • Matchbox Guitar
  • Math and Gender
  • Mean, Median and Range
  • Measuring Air Pollution
  • Mentos Soda Volcano
  • Microbial Contaminants
  • Milky Plastic
  • Mini Greenhouse
  • Missing Reflection
  • Molls Experiment
  • Music and Plants
  • Musical Bottles
  • Nocturnal Plants
  • Ocean Life & Oil Spills
  • Ocean Temperature
  • Optical Mice
  • Oral Bacteria
  • Orange Water Volume
  • Organic vs. Inorganic
  • Osmosis
  • Oxygen & Photosynthesis
  • Paper Bridge
  • Paper Marbling
  • Pascal’s Law
  • Play-Doh and Volume
  • Preserve Spider Webs
  • Pressure Volcano
  • Pulse Rates
  • Pythagorean Tuning
  • Refraction in Water
  • Rollercoasters & Loops
  • Rubber Heat Reaction
  • Rubbery Egg
  • Rust and Moisture
  • Search Engines
  • Secondary Colors
  • Seed Germination
  • Separate Salt And Pepper
  • Snappy Sounds
  • Soil Erosion
  • Soil vs. Hydroponics
  • Sound Waves
  • Spectrum through Water
  • Speed of Decomposition
  • Speed of Dissolving
  • Spore Prints
  • Static Electricity
  • Statistics and M&M’s
  • Stem-less Flowers
  • Super Strength Egg
  • Temperature and CPUs
  • Thirsty Rocks
  • Tornado Demonstration
  • Translucent Egg
  • Transpiration in Plants
  • Typing and Speed
  • Vibrating Coin
  • Volcanic Gas
  • Water and Living Things
  • Water Displacement
  • Water Evaporation
  • Water pH