Build your own battery to power an electric car! Discover the chemical reactions that power batteries by finding oxidation numbers, balancing redox reactions, and experimenting with redox reactions in the lab.
High School
University / College
Oh no! Your electric car has broken down. Can you build your own battery to get moving again? Discover the chemical reactions that power batteries by finding oxidation numbers, balancing redox reactions, and experimenting with redox reactions in the lab, then make a recommendation to your friend Hansen about whether to replace his worn-out lead-acid battery with a new lithium-ion one.
Oxidation number and redox reactions
Join Dr. One in the redox chemistry lab to find out how redox reactions power batteries. Start by using the periodic table to predict the oxidation numbers of various compounds. Then balance the charges of half-reactions and see what happens to the oxidation numbers when electrons are lost or gained!
Redox potentials and balancing reactions
Develop and test a hypothesis about the reaction between copper and different aqueous solutions based on their reduction potentials. How can these potentials help you predict the direction of a redox reaction? Batteries can be both acidic and alkaline, so next up, join Dr. One to balance redox reactions one step at a time in both environments.
Optimize a galvanic cell
Now that you understand what a redox reaction is and what happens to the electrons, learn how this can be used to generate power in a galvanic cell. Experiment with different combinations of metal for the anode and cathode to find the most powerful duo. Will you be able to complete the reactivity series and discover another way of predicting the direction of redox reactions? Remember that you set out to find the best kind of battery to fix the electric car. With everything you now know about galvanic cells, what kind of battery do you recommend to your friend?
Length:
35
mins
Accessibility mode:
Available
Languages:
English (United States)
French
German
Italian
Spanish
At the end of this simulation, you will be able to:
Describe the concept of oxidation states and explain trends in the periodic table
Apply the rules for determining the oxidation state
Describe the role of the electron in reduction-oxidation
Predict the direction of redox reactions
Balance a redox reaction in both acidic and alkaline environments
At the end of this simulation, you will be able to:
University
NGSS
IB
AP
Engage students in science through interactive learning scenarios. Simulate experiments, train lab techniques, and teach theory through visual experiences that enhance long-term learning outcomes.
300+ Web-based simulations that can be played on laptops, Chromebooks, and tablets/iPads without installing any software
Teacher dashboard to automate grading and track student progress
Embedded quizzes to help students master science content
Library of learning resources, lab reports, videos, theory pages, graphics and more
Elevate your nursing program with UbiSim, a VR solution dedicated to clinical excellence.
Track student progress
Assess with customizable quizzes
Invite your students to play simulations
Explore over 300 Labster simulations
30 days for free, no credit card needed
Labster integrates with all major LMS (Learning Management Systems) so that educators can use their gradebooks to track students’ performance data and students can keep a record of their work. Labster is compatible with Canvas, Blackboard, Moodle, Google Classroom, Schoology, Sakai, and Brightspace / D2L. It’s also possible to use Labster without an LMS.
