In this lesson, students will learn about compound conditionals by playing the “Boole Says” game. Then, students will apply their knowledge as they predict, run, and investigate compound conditional structures written in Twine.
Students use pair programming to trace, annotate and debug a prewritten Twine story. Students then add modifications to the existing code and extend the story.
In this activity, students will use a model of a computer, taking the form of a sort of board game, to explore writing programs that include input, output, variables, and arithmetic. Students will read, write, and debug pseudocode as they work on solving simple programming problems using manipulatives. This lesson is part of the ECS+Python lesson set, providing supplemental Python curricular material for the Exploring Computer Science curriculum.
"In this lesson, students will read and trace a “Hello World'' Python program to learn how to display simple output. Then, they will create an “Addition Calculator” to learn how to work with variables and arithmetic operators. At the end, students will modify and complete partially-written Python programs, applying their knowledge of variables and arithmetic operations. This lesson is part of CodeVA's ECS+Python lesson set, providing alternative units for the Exploring Computer Science curriculum covering basic Python coding concepts.
In this project, students create a program that performs calculations on input values to produce formatted output. Students will choose a project to create from a list of three options, or generate their own option that meets the activity requirements. This lesson is part of CodeVA's ECS+Python lesson set, providing alternative units for the Exploring Computer Science curriculum covering basic Python coding concepts.
In this lesson, students will explore the “Testing Random Numbers” program to learn how to generate random numbers and use if-statements to make comparisons. Then, they will create a “Roll the Dice Game” to learn how to work conditionals and random numbers. At the end, students will create a simple program applying their knowledge of randomization and conditional control structures. This lesson is part of CodeVA's ECS+Python lesson set, providing alternative units for the Exploring Computer Science curriculum covering basic Python coding concepts.
In this lesson, students will implement Python programs that use “while” loops and logical operations as they consider how they might make their programs more interactive and control the flow of commands in their programs. They’ll read and modify examples, explore the new concepts through paired programming, and complete a short mini-project where they will demonstrate their new skills. This lesson is part of CodeVA's ECS+Python lesson set, providing alternative units for the Exploring Computer Science curriculum covering basic Python coding concepts.
In this lesson, students will implement Python programs that use “while” loops and logical operations as they consider how they might make their programs more interactive and control the flow of commands in their programs. They’ll read and modify examples, explore the new concepts through paired programming, and complete a short mini-project where they will demonstrate their new skills. This lesson is part of CodeVA's ECS+Python lesson set, providing alternative units for the Exploring Computer Science curriculum covering basic Python coding concepts.
In this lesson, students engage in a historical jigsaw activity focused on westward expansion. The lesson ends with a coding project where students create “postcards” by coding with Twine, expressing the perspectives of different groups experiencing the effects of westward expansion.
Students will craft a Twine program with variables, conditionals, and relational expressions for a historical narrative on Westward Expansion. Students choose a project from a choice board & test products regularly during construction. Programs should offer multiple outcomes based on the user's choices or actions."
Can you see how far you can catapult a Pom Pom? I want to see! We are going to be building a catapult from scratch. Your goal is to see if you can catapult your Pom Pom at least 3 feet.
This resource is a comprehensive unit of instruction created and piloted by the ACSE Region III team over the 2022-23 school year. This unit, which is accessible through multiple links to include worksheets, slidedecks, teacher suggestions and planning documents, includes all components of the instruction with SOL connections and is intended to join Computer Science standards to an ELA content area.
Students will analyze a provided math problem with an incorrect answer (bug). Students will demonstrate their understanding of the process by identifying the error, solving the problem correctly and providing an explanation. Math problem solving directly correlates with the step by step process that computer science debugging requires. The purpose of this experience is to provide a jumping off point for a deeper understanding of the Computer Science SOLs. This could be the first time your students are exposed to the vocabulary (algorithm, bug, debugging) and can provide a good foundation of the understanding of the vocabulary in a concrete, low-technology way.
This performance task has the students working as bookkeepers for a P.P.E. Manufacturing Company to see how many P.P.E. they sold by adult and children sizes over a 2-3 month period of time and if their price of production vs cost for consumers to buy was enough that they made a profit or if they needed to make adjustments. This performance task has the students using PEMDAS to better understand how Algorithms and Programming are used in our everyday lives.
Students will create a flowchart to demonstrate order of operations. They will use the flowchart to be able to solve a mathematical problem.
In this performance task, students will have the opportunity to demonstrate the use of flowcharts in Google Draw and then create their own flowchart to show their understanding of the Order of Operations.
Your task as an astronomer is to model the solar system using technology. You and your crew are just one group that have been asked by NASA to chart the solar system in order to create a simulation model for future astronauts. After you have accomplished this, you will present your model to the Director of NASA. They have given you several requirements for the simulation. Your simulation should include a map of the solar system that shows the appropriate distance, location, size and relation to the sun amongst the eight planets. You and your team can use a variety of options to complete your simulation. These include Google Suite tools (such as Google Slides, Google Docs, Jamboard, or any equivalent tool such as Microsoft Office), Coding resources (Scratch.edu, tynker.edu) or 3D printing software (Tinkercad) to present. Your map should also include a short descriptive paragraph for each planet explaining its distance, location, size, and at least 3 facts about the planet. If creating a video, you will still want to include descriptions for the planets as well as the three facts. Presentation to “NASA Directors” must answer the question: how does this simulation/model help future scientists?
Students will create a flowchart showing the evolution of a specific technology including failed attempts at advancement. This task includes research and understanding the iterative process. Easily differentiated.
In this lesson, the student will develop a simple addition algorithm using a flow chart. Students will then translate the flowchart into programming instructions that can be input into the Java language to complete their first addition Java program. Students will then expand on this program to include allowing the user to input the integers from the Java scanner.
The goal of this activity is to build critical thinking skills and excitement for Computer Science / Computational Thinking, while laying a foundation of fundamental programming concepts. By scaffolding basic concepts like sequencing and algorithms in an unplugged activity, students who are intimidated by computers can still build a foundation of understanding. In this lesson, students will learn how to develop an algorithm and encode it into a program.By "programming" one another to draw pictures, students experience some of the core concepts of programming in a fun and accessible way. The class will start by having students view a video of a simple program demonstrating how to develop instructions for building a peanut butter and jelly sandwich. Students will start with simple shapes, and progress to the coding of a specific drawing that other students will then try to replicate (“running the program”). If there is a desire to have a more of a Math slant on the lesson, the drawing could take place on graph paper. Students would then use the coordinates to complete the drawing.