54 Résultats de recherche correspondants Graphical Analysis
Simulations
- Ajustement des Courbes (HTML5)
- Distribution de l'échantillonage des projectiles (HTML5)
- Fourier : Faire des vagues (HTML5)
- Fourier: Création d'ondes
- Labo de données sur les projectiles (HTML5)
- Régression des moindres carrés (HTML5)
Activités
- Graphical Relationships in Electric Fields
- Conservation of Energy 2: graphs analysis
- Forces in 1 Dimension
- Resistance and Resistivity
- Introduction to Fourier Analysis
- Capacitors and Dielectrics
- Energy in a Skateboarder-Conservation of Energy
- Under Pressure _ Lab Activity Packet
- Phet Skate Park Inquiry Lab and Graphical Modelling Activity
- Experimental Design Practice
- equilibrium of forces
- Rubric for Simple Pendulums - What Affects the Period?
- UNDERSTANDING MEAN
- Proving Newton's Second Law
- Friction Quantitative Lab
- Light and Atoms
- POGIL-style simulation analysis
- Electricity Simulations Analysis
- Energy Analysis of a Mass Oscillating on a Spring
- Energy Skate Park Analysis Lab
- Discovering Beer’s Law by a Simulation-based Laboratory
- Cavendish Lab
- Adding vectors
- Forces and Motion: Finding the Mass of a Car
- Introduction to energy- a chemical context
- An Analysis of the Pendulum's Period Through PhET Simulation
- Linear and Quadratic Functions: analysis using graphing
- Electric Field Hockey Post-Game Analysis
- Virtual lab: Circuit Analysis - Series and Parallel Circuits
- Coulomb's Law Data Collection and Analysis (remote online learning)
- Blackbody Radiation updated from Michael P.
- Level 1 - Momentum Lab by Stephen N. Clontz, M. Ed.
- vectors
- Gravity Force Lab
- Greenhouse Effect: Good or Bad?
- Quantitative Predictions of Projectile Motion
- Forces at equilibrium
- Vectors worksheet
- Vector
- motion along straight line with constant acceleration
- Hooke's Law
- Moving Man Multiple Representations
- The x and y's of Gas Properties
- Projectile launch angle vs displacement
- Hooke's Law and the Spring Constant
- Modeling Paradigm Lab- 2nd Law
- Predicting the impact point in horizontal launch simulations
- Atomic Models and Spectroscopy