SUMMARY
The spring constant of a vertical spring can be calculated using Hooke's Law, represented by the formula k = mg/x. In a discussion involving a mass of 100 g causing a spring to stretch by 2.0 cm, the correct spring constant was determined to be 49.1 N/m after converting units to standard SI measurements. Additionally, the force required to compress the spring by 0.5 cm was calculated to be 0.25 N, with a clarification that the negative sign in Hooke's Law indicates direction, not magnitude. The discussion also touched on the energy stored in a spring and the implications of changing the spring's length on its frequency.
PREREQUISITES
- Understanding of Hooke's Law and its formula k = mg/x
- Knowledge of unit conversion to standard SI units (e.g., grams to kilograms, centimeters to meters)
- Familiarity with the concept of elastic potential energy in springs
- Basic principles of mechanics related to forces and motion
NEXT STEPS
- Research the derivation and applications of Hooke's Law in various contexts
- Learn about the energy stored in springs and the formula for elastic potential energy (U = 1/2 k x²)
- Explore the effects of spring length on frequency and oscillation in mechanical systems
- Investigate real-world applications of spring constants in engineering and design
USEFUL FOR
Students studying physics, particularly those focusing on mechanics, as well as engineers and anyone involved in designing or analyzing spring systems.