standard_id stringlengths 17 64 | grade_level stringclasses 4
values | concept stringclasses 10
values | subconcept stringclasses 83
values | learning_objective stringlengths 36 100 | computational_practices listlengths 0 4 | programming_language stringclasses 15
values | assessment_type stringclasses 4
values | cognitive_level stringclasses 4
values |
|---|---|---|---|---|---|---|---|---|
CS.ROBOT.K2.SENSORSINTRO.3 | Grades K-2 | Robotics | Sensors Intro | Students will design and program robots using sensors intro principles | [] | Create | ||
CS.PROG.35.SCRATCH.3 | Grades 3-5 | Programming | Scratch | Using Scratch: Create games and animations | [] | Scratch | Practical Demo | Apply |
CS.DATA.K2.SIMPLEGRAPHS.2 | Grades K-2 | Data Science | Simple Graphs | Students will use simple graphs to extract insights from data | [] | Analyze | ||
CS.PROG.912.PYTHON.3 | Grades 9-12 | Programming | Python | Using Python: Develop full applications with user interfaces | [] | Python | Practical Demo | Apply |
CS.CYBER.68.NETWORKSECURITY.2 | Grades 6-8 | Cybersecurity | Network Security | Students will implement network security practices to protect digital systems | [] | Apply | ||
CS.IMPACTSOFCOMPUTING.912.SOCIALINTERACTIONS.2 | Grades 9-12 | Impacts of Computing | Social Interactions | Students will create innovative solutions that demonstrate social interactions | [
"Fostering an Inclusive Computing Culture",
"Creating Computational Artifacts",
"Recognizing and Defining Computational Problems",
"Communicating about Computing"
] | Apply | ||
CS.CYBER.68.ENCRYPTIONBASICS.1 | Grades 6-8 | Cybersecurity | Encryption Basics | Students will implement encryption basics practices to protect digital systems | [] | Apply | ||
CS.ALGORITHMSANDPROGRAMMING.912.MODULARITY.3 | Grades 9-12 | Algorithms and Programming | Modularity | Students will analyze ethical implications of modularity in computing | [
"Testing and Refining Computational Artifacts",
"Communicating about Computing",
"Developing and Using Abstractions",
"Fostering an Inclusive Computing Culture"
] | Analyze | ||
CS.PROG.912.ADVANCEDWEBDEVELOPMENT.3 | Grades 9-12 | Programming | Advanced Web Development | Using Advanced Web Development: Develop full applications with user interfaces | [] | Advanced Web Development | Practical Demo | Apply |
CS.PROG.K2.UNPLUGGEDACTIVITIES.2 | Grades K-2 | Programming | Unplugged Activities | Using Unplugged Activities: Use loops to repeat actions | [] | Unplugged Activities | Code Review | Apply |
CS.PROG.68.APPDEVELOPMENT.1 | Grades 6-8 | Programming | App Development | Using App Development: Design algorithms to solve problems | [] | App Development | Project | Apply |
CS.ALGORITHMSANDPROGRAMMING.912.ALGORITHMS.1 | Grades 9-12 | Algorithms and Programming | Algorithms | Students will develop advanced understanding of algorithms principles | [
"Recognizing and Defining Computational Problems",
"Testing and Refining Computational Artifacts",
"Creating Computational Artifacts"
] | Understand | ||
CS.AI.K2.SIMPLEDECISIONTREES.2 | Grades K-2 | Artificial Intelligence | Simple Decision Trees | Students will understand and apply simple decision trees in computing contexts | [] | Understand | ||
CS.DATAANDANALYSIS.K2.VISUALIZATIONANDCOMMUNICATION.1 | Grades K-2 | Data and Analysis | Visualization and Communication | Students will identify basic visualization and communication in everyday technology | [
"Collaborating around Computing",
"Testing and Refining Computational Artifacts",
"Developing and Using Abstractions"
] | Understand | ||
CS.DATA.912.PREDICTIVEANALYTICS.3 | Grades 9-12 | Data Science | Predictive Analytics | Students will use predictive analytics to extract insights from data | [] | Analyze | ||
CS.PROG.K2.VISUALPROGRAMMING(SCRATCHJR).3 | Grades K-2 | Programming | Visual Programming (ScratchJr) | Using Visual Programming (ScratchJr): Create simple interactive stories | [] | Visual Programming (ScratchJr) | Practical Demo | Apply |
CS.AI.35.MACHINELEARNINGBASICS.1 | Grades 3-5 | Artificial Intelligence | Machine Learning Basics | Students will understand and apply machine learning basics in computing contexts | [] | Understand | ||
CS.PROG.912.PYTHON.3 | Grades 9-12 | Programming | Python | Using Python: Develop full applications with user interfaces | [] | Python | Practical Demo | Apply |
CS.ROBOT.35.PROGRAMMINGROBOTS.1 | Grades 3-5 | Robotics | Programming Robots | Students will design and program robots using programming robots principles | [] | Create | ||
CS.PROG.K2.UNPLUGGEDACTIVITIES.1 | Grades K-2 | Programming | Unplugged Activities | Using Unplugged Activities: Sequence commands to move characters | [] | Unplugged Activities | Project | Apply |
CS.ROBOT.35.SENSORDATA.2 | Grades 3-5 | Robotics | Sensor Data | Students will design and program robots using sensor data principles | [] | Create | ||
CS.AI.35.MACHINELEARNINGBASICS.1 | Grades 3-5 | Artificial Intelligence | Machine Learning Basics | Students will understand and apply machine learning basics in computing contexts | [] | Understand | ||
CS.DATA.912.DATAETHICS.4 | Grades 9-12 | Data Science | Data Ethics | Students will use data ethics to extract insights from data | [] | Analyze | ||
CS.PROG.912.JAVA.2 | Grades 9-12 | Programming | Java | Using Java: Analyze algorithm efficiency | [] | Java | Code Review | Apply |
CS.AI.35.MACHINELEARNINGBASICS.1 | Grades 3-5 | Artificial Intelligence | Machine Learning Basics | Students will understand and apply machine learning basics in computing contexts | [] | Understand | ||
CS.CYBER.912.CRYPTOGRAPHY.1 | Grades 9-12 | Cybersecurity | Cryptography | Students will implement cryptography practices to protect digital systems | [] | Apply | ||
CS.AI.912.COMPUTERVISION.2 | Grades 9-12 | Artificial Intelligence | Computer Vision | Students will understand and apply computer vision in computing contexts | [] | Understand | ||
CS.NETWORKSANDINTERNET.68.NETWORKCOMMUNICATIONANDORGANIZATION.1 | Grades 6-8 | Networks and the Internet | Network Communication and Organization | Students will design and implement solutions using network communication and organization | [
"Testing and Refining Computational Artifacts",
"Communicating about Computing",
"Recognizing and Defining Computational Problems",
"Creating Computational Artifacts"
] | Understand | ||
CS.PROG.912.C++.2 | Grades 9-12 | Programming | C++ | Using C++: Analyze algorithm efficiency | [] | C++ | Code Review | Apply |
CS.PROG.68.PYTHON.1 | Grades 6-8 | Programming | Python | Using Python: Design algorithms to solve problems | [] | Python | Project | Apply |
CS.ALGORITHMSANDPROGRAMMING.K2.PROGRAMDEVELOPMENT.2 | Grades K-2 | Algorithms and Programming | Program Development | Students will demonstrate simple program development through hands-on activities | [
"Creating Computational Artifacts",
"Collaborating around Computing",
"Fostering an Inclusive Computing Culture"
] | Apply | ||
CS.DATA.K2.SORTINGANDCOUNTING.1 | Grades K-2 | Data Science | Sorting and Counting | Students will use sorting and counting to extract insights from data | [] | Analyze | ||
CS.ALGORITHMSANDPROGRAMMING.35.ALGORITHMS.2 | Grades 3-5 | Algorithms and Programming | Algorithms | Students will create simple projects using algorithms | [
"Fostering an Inclusive Computing Culture",
"Communicating about Computing",
"Recognizing and Defining Computational Problems",
"Creating Computational Artifacts"
] | Apply | ||
CS.DATAANDANALYSIS.912.COLLECTION.2 | Grades 9-12 | Data and Analysis | Collection | Students will create innovative solutions that demonstrate collection | [
"Collaborating around Computing",
"Recognizing and Defining Computational Problems",
"Fostering an Inclusive Computing Culture",
"Communicating about Computing"
] | Apply | ||
CS.PROG.35.BASICROBOTICS.1 | Grades 3-5 | Programming | Basic Robotics | Using Basic Robotics: Write programs with variables and conditionals | [] | Basic Robotics | Project | Apply |
CS.CYBER.912.INCIDENTRESPONSE.4 | Grades 9-12 | Cybersecurity | Incident Response | Students will implement incident response practices to protect digital systems | [] | Apply | ||
CS.IMPACTSOFCOMPUTING.912.SOCIALINTERACTIONS.3 | Grades 9-12 | Impacts of Computing | Social Interactions | Students will analyze ethical implications of social interactions in computing | [
"Testing and Refining Computational Artifacts",
"Collaborating around Computing",
"Recognizing and Defining Computational Problems"
] | Analyze | ||
CS.AI.K2.SIMPLEDECISIONTREES.2 | Grades K-2 | Artificial Intelligence | Simple Decision Trees | Students will understand and apply simple decision trees in computing contexts | [] | Understand | ||
CS.PROG.912.JAVA.3 | Grades 9-12 | Programming | Java | Using Java: Develop full applications with user interfaces | [] | Java | Practical Demo | Apply |
CS.ALGORITHMSANDPROGRAMMING.K2.PROGRAMDEVELOPMENT.1 | Grades K-2 | Algorithms and Programming | Program Development | Students will identify basic program development in everyday technology | [
"Communicating about Computing",
"Creating Computational Artifacts",
"Developing and Using Abstractions"
] | Understand | ||
CS.PROG.912.JAVA.2 | Grades 9-12 | Programming | Java | Using Java: Analyze algorithm efficiency | [] | Java | Code Review | Apply |
CS.DATAANDANALYSIS.K2.COLLECTION.1 | Grades K-2 | Data and Analysis | Collection | Students will identify basic collection in everyday technology | [
"Communicating about Computing",
"Developing and Using Abstractions",
"Creating Computational Artifacts",
"Fostering an Inclusive Computing Culture"
] | Understand | ||
CS.PROG.912.PYTHON.2 | Grades 9-12 | Programming | Python | Using Python: Analyze algorithm efficiency | [] | Python | Code Review | Apply |
CS.DATA.35.CHARTSANDGRAPHS.1 | Grades 3-5 | Data Science | Charts and Graphs | Students will use charts and graphs to extract insights from data | [] | Analyze | ||
CS.ROBOT.35.ROBOTCHALLENGES.3 | Grades 3-5 | Robotics | Robot Challenges | Students will design and program robots using robot challenges principles | [] | Create | ||
CS.DATA.K2.DATACOLLECTION.3 | Grades K-2 | Data Science | Data Collection | Students will use data collection to extract insights from data | [] | Analyze | ||
CS.ROBOT.68.ROBOTDESIGN.3 | Grades 6-8 | Robotics | Robot Design | Students will design and program robots using robot design principles | [] | Create | ||
CS.PROG.68.PYTHON.2 | Grades 6-8 | Programming | Python | Using Python: Use functions and parameters | [] | Python | Code Review | Apply |
CS.DATAANDANALYSIS.K2.ORGANIZATIONANDSTORAGE.2 | Grades K-2 | Data and Analysis | Organization and Storage | Students will demonstrate simple organization and storage through hands-on activities | [
"Fostering an Inclusive Computing Culture",
"Communicating about Computing",
"Recognizing and Defining Computational Problems"
] | Apply | ||
CS.AI.35.MACHINELEARNINGBASICS.1 | Grades 3-5 | Artificial Intelligence | Machine Learning Basics | Students will understand and apply machine learning basics in computing contexts | [] | Understand | ||
CS.AI.68.BIASINAI.3 | Grades 6-8 | Artificial Intelligence | Bias in AI | Students will understand and apply bias in ai in computing contexts | [] | Understand | ||
CS.DATAANDANALYSIS.35.VISUALIZATIONANDCOMMUNICATION.1 | Grades 3-5 | Data and Analysis | Visualization and Communication | Students will explain how visualization and communication works in computing systems | [
"Testing and Refining Computational Artifacts",
"Recognizing and Defining Computational Problems",
"Collaborating around Computing",
"Communicating about Computing"
] | Understand | ||
CS.PROG.68.APPDEVELOPMENT.1 | Grades 6-8 | Programming | App Development | Using App Development: Design algorithms to solve problems | [] | App Development | Project | Apply |
CS.COMPUTINGSYSTEMS.35.DEVICES.2 | Grades 3-5 | Computing Systems | Devices | Students will create simple projects using devices | [
"Creating Computational Artifacts",
"Collaborating around Computing",
"Recognizing and Defining Computational Problems",
"Communicating about Computing"
] | Apply | ||
CS.NETWORKSANDINTERNET.912.NETWORKCOMMUNICATIONANDORGANIZATION.1 | Grades 9-12 | Networks and the Internet | Network Communication and Organization | Students will develop advanced understanding of network communication and organization principles | [
"Developing and Using Abstractions",
"Creating Computational Artifacts",
"Recognizing and Defining Computational Problems",
"Communicating about Computing"
] | Understand | ||
CS.CYBER.912.PENETRATIONTESTING.2 | Grades 9-12 | Cybersecurity | Penetration Testing | Students will implement penetration testing practices to protect digital systems | [] | Apply | ||
CS.PROG.35.SCRATCH.2 | Grades 3-5 | Programming | Scratch | Using Scratch: Debug simple programs | [] | Scratch | Code Review | Apply |
CS.PROG.912.DATASCIENCE.2 | Grades 9-12 | Programming | Data Science | Using Data Science: Analyze algorithm efficiency | [] | Data Science | Code Review | Apply |
CS.PROG.K2.UNPLUGGEDACTIVITIES.2 | Grades K-2 | Programming | Unplugged Activities | Using Unplugged Activities: Use loops to repeat actions | [] | Unplugged Activities | Code Review | Apply |
CS.PROG.68.WEBDESIGN.1 | Grades 6-8 | Programming | Web Design | Using Web Design: Design algorithms to solve problems | [] | Web Design | Project | Apply |
CS.COMPUTINGSYSTEMS.912.HARDWAREANDSOFTWARE.2 | Grades 9-12 | Computing Systems | Hardware and Software | Students will create innovative solutions that demonstrate hardware and software | [
"Fostering an Inclusive Computing Culture",
"Collaborating around Computing",
"Recognizing and Defining Computational Problems",
"Communicating about Computing"
] | Apply | ||
CS.AI.68.BIASINAI.3 | Grades 6-8 | Artificial Intelligence | Bias in AI | Students will understand and apply bias in ai in computing contexts | [] | Understand | ||
CS.ROBOT.68.ROBOTDESIGN.3 | Grades 6-8 | Robotics | Robot Design | Students will design and program robots using robot design principles | [] | Create | ||
CS.DATAANDANALYSIS.K2.ORGANIZATIONANDSTORAGE.3 | Grades K-2 | Data and Analysis | Organization and Storage | Students will recognize the role of organization and storage in solving problems | [
"Developing and Using Abstractions",
"Fostering an Inclusive Computing Culture",
"Creating Computational Artifacts",
"Testing and Refining Computational Artifacts"
] | Analyze | ||
CS.PROG.35.SCRATCH.3 | Grades 3-5 | Programming | Scratch | Using Scratch: Create games and animations | [] | Scratch | Practical Demo | Apply |
CS.DATA.35.SURVEYDATA.2 | Grades 3-5 | Data Science | Survey Data | Students will use survey data to extract insights from data | [] | Analyze | ||
CS.IMPACTSOFCOMPUTING.912.SOCIALINTERACTIONS.1 | Grades 9-12 | Impacts of Computing | Social Interactions | Students will develop advanced understanding of social interactions principles | [
"Collaborating around Computing",
"Developing and Using Abstractions",
"Communicating about Computing",
"Creating Computational Artifacts"
] | Understand | ||
CS.NETWORKSANDINTERNET.68.NETWORKCOMMUNICATIONANDORGANIZATION.2 | Grades 6-8 | Networks and the Internet | Network Communication and Organization | Students will evaluate different approaches to network communication and organization | [
"Collaborating around Computing",
"Communicating about Computing",
"Creating Computational Artifacts",
"Recognizing and Defining Computational Problems"
] | Apply | ||
CS.ALGORITHMSANDPROGRAMMING.35.ALGORITHMS.1 | Grades 3-5 | Algorithms and Programming | Algorithms | Students will explain how algorithms works in computing systems | [
"Recognizing and Defining Computational Problems",
"Creating Computational Artifacts",
"Fostering an Inclusive Computing Culture"
] | Understand | ||
CS.PROG.68.JAVASCRIPT.3 | Grades 6-8 | Programming | JavaScript | Using JavaScript: Work with data structures like lists | [] | JavaScript | Practical Demo | Apply |
CS.PROG.68.JAVASCRIPT.3 | Grades 6-8 | Programming | JavaScript | Using JavaScript: Work with data structures like lists | [] | JavaScript | Practical Demo | Apply |
CS.COMPUTINGSYSTEMS.K2.DEVICES.3 | Grades K-2 | Computing Systems | Devices | Students will recognize the role of devices in solving problems | [
"Recognizing and Defining Computational Problems",
"Developing and Using Abstractions",
"Collaborating around Computing",
"Testing and Refining Computational Artifacts"
] | Analyze | ||
CS.PROG.912.PYTHON.1 | Grades 9-12 | Programming | Python | Using Python: Implement object-oriented programming concepts | [] | Python | Project | Apply |
CS.DATAANDANALYSIS.K2.INFERENCEANDMODELS.1 | Grades K-2 | Data and Analysis | Inference and Models | Students will identify basic inference and models in everyday technology | [
"Collaborating around Computing",
"Recognizing and Defining Computational Problems",
"Testing and Refining Computational Artifacts",
"Creating Computational Artifacts"
] | Understand | ||
CS.PROG.35.HOUROFCODE.2 | Grades 3-5 | Programming | Hour of Code | Using Hour of Code: Debug simple programs | [] | Hour of Code | Code Review | Apply |
CS.ROBOT.68.AUTONOMOUSSYSTEMS.2 | Grades 6-8 | Robotics | Autonomous Systems | Students will design and program robots using autonomous systems principles | [] | Create | ||
CS.PROG.68.PYTHON.3 | Grades 6-8 | Programming | Python | Using Python: Work with data structures like lists | [] | Python | Practical Demo | Apply |
CS.DATA.35.SURVEYDATA.2 | Grades 3-5 | Data Science | Survey Data | Students will use survey data to extract insights from data | [] | Analyze | ||
CS.ALGORITHMSANDPROGRAMMING.K2.ALGORITHMS.1 | Grades K-2 | Algorithms and Programming | Algorithms | Students will identify basic algorithms in everyday technology | [
"Creating Computational Artifacts",
"Fostering an Inclusive Computing Culture",
"Communicating about Computing",
"Testing and Refining Computational Artifacts"
] | Understand | ||
CS.PROG.K2.UNPLUGGEDACTIVITIES.2 | Grades K-2 | Programming | Unplugged Activities | Using Unplugged Activities: Use loops to repeat actions | [] | Unplugged Activities | Code Review | Apply |
CS.PROG.912.C++.3 | Grades 9-12 | Programming | C++ | Using C++: Develop full applications with user interfaces | [] | C++ | Practical Demo | Apply |
CS.PROG.912.PYTHON.2 | Grades 9-12 | Programming | Python | Using Python: Analyze algorithm efficiency | [] | Python | Code Review | Apply |
CS.ROBOT.912.INDUSTRIALAUTOMATION.3 | Grades 9-12 | Robotics | Industrial Automation | Students will design and program robots using industrial automation principles | [] | Create | ||
CS.AI.K2.PATTERNRECOGNITION.1 | Grades K-2 | Artificial Intelligence | Pattern Recognition | Students will understand and apply pattern recognition in computing contexts | [] | Understand | ||
CS.ALGORITHMSANDPROGRAMMING.K2.MODULARITY.3 | Grades K-2 | Algorithms and Programming | Modularity | Students will recognize the role of modularity in solving problems | [
"Creating Computational Artifacts",
"Recognizing and Defining Computational Problems",
"Communicating about Computing"
] | Analyze | ||
CS.PROG.912.C++.1 | Grades 9-12 | Programming | C++ | Using C++: Implement object-oriented programming concepts | [] | C++ | Project | Apply |
CS.NETWORKSANDINTERNET.68.NETWORKPROTOCOLSANDLAYERS.1 | Grades 6-8 | Networks and the Internet | Network Protocols and Layers | Students will design and implement solutions using network protocols and layers | [
"Developing and Using Abstractions",
"Recognizing and Defining Computational Problems",
"Testing and Refining Computational Artifacts"
] | Understand | ||
CS.ALGORITHMSANDPROGRAMMING.35.PROGRAMDEVELOPMENT.2 | Grades 3-5 | Algorithms and Programming | Program Development | Students will create simple projects using program development | [
"Communicating about Computing",
"Developing and Using Abstractions",
"Testing and Refining Computational Artifacts"
] | Apply | ||
CS.COMPUTINGSYSTEMS.912.HARDWAREANDSOFTWARE.1 | Grades 9-12 | Computing Systems | Hardware and Software | Students will develop advanced understanding of hardware and software principles | [
"Collaborating around Computing",
"Creating Computational Artifacts",
"Developing and Using Abstractions",
"Fostering an Inclusive Computing Culture"
] | Understand | ||
CS.NETWORKSANDINTERNET.912.NETWORKPROTOCOLSANDLAYERS.1 | Grades 9-12 | Networks and the Internet | Network Protocols and Layers | Students will develop advanced understanding of network protocols and layers principles | [
"Creating Computational Artifacts",
"Testing and Refining Computational Artifacts",
"Developing and Using Abstractions",
"Recognizing and Defining Computational Problems"
] | Understand | ||
CS.ROBOT.K2.ROBOTMOVEMENT.1 | Grades K-2 | Robotics | Robot Movement | Students will design and program robots using robot movement principles | [] | Create | ||
CS.CYBER.35.DATAPRIVACY.1 | Grades 3-5 | Cybersecurity | Data Privacy | Students will implement data privacy practices to protect digital systems | [] | Apply | ||
CS.NETWORKSANDINTERNET.K2.NETWORKPROTOCOLSANDLAYERS.3 | Grades K-2 | Networks and the Internet | Network Protocols and Layers | Students will recognize the role of network protocols and layers in solving problems | [
"Developing and Using Abstractions",
"Testing and Refining Computational Artifacts",
"Communicating about Computing"
] | Analyze | ||
CS.PROG.912.C++.1 | Grades 9-12 | Programming | C++ | Using C++: Implement object-oriented programming concepts | [] | C++ | Project | Apply |
CS.NETWORKSANDINTERNET.912.NETWORKPROTOCOLSANDLAYERS.2 | Grades 9-12 | Networks and the Internet | Network Protocols and Layers | Students will create innovative solutions that demonstrate network protocols and layers | [
"Recognizing and Defining Computational Problems",
"Developing and Using Abstractions"
] | Apply | ||
CS.IMPACTSOFCOMPUTING.K2.CULTURE.3 | Grades K-2 | Impacts of Computing | Culture | Students will recognize the role of culture in solving problems | [
"Creating Computational Artifacts",
"Collaborating around Computing"
] | Analyze | ||
CS.ALGORITHMSANDPROGRAMMING.68.PROGRAMDEVELOPMENT.3 | Grades 6-8 | Algorithms and Programming | Program Development | Students will collaborate to solve complex problems involving program development | [
"Communicating about Computing",
"Developing and Using Abstractions",
"Collaborating around Computing",
"Creating Computational Artifacts"
] | Analyze | ||
CS.CYBER.68.MALWAREPROTECTION.3 | Grades 6-8 | Cybersecurity | Malware Protection | Students will implement malware protection practices to protect digital systems | [] | Apply | ||
CS.PROG.35.HOUROFCODE.1 | Grades 3-5 | Programming | Hour of Code | Using Hour of Code: Write programs with variables and conditionals | [] | Hour of Code | Project | Apply |
CS.PROG.912.ADVANCEDWEBDEVELOPMENT.3 | Grades 9-12 | Programming | Advanced Web Development | Using Advanced Web Development: Develop full applications with user interfaces | [] | Advanced Web Development | Practical Demo | Apply |
π K-12 Computer Science Comprehensive Standards Dataset
π Dataset Overview
The most comprehensive K-12 computer science education dataset available, containing 696 learning standards spanning traditional CS concepts and cutting-edge areas including AI/ML, cybersecurity, data science, and robotics. This dataset aggregates and structures educational standards from authoritative sources to support curriculum development, educational research, and AI applications in computer science education.
π― Key Features
- π Comprehensive Coverage: 696 standards across 5 major CS areas
- π Grade Progressive: Age-appropriate learning objectives K-12
- ποΈ Standards Aligned: Based on CSTA 2017 and ISTE 2024 frameworks
- π Real-World Connected: Links to industry applications and workforce needs
- π¬ Research Ready: Structured for educational AI and learning analytics
- π― Assessment Ready: Complete with cognitive levels and evaluation frameworks
π Dataset Statistics
| Metric | Value | Description |
|---|---|---|
| Total Standards | 696 | Complete learning objectives |
| Training Examples | 556 (80%) | For model training |
| Test Examples | 140 (20%) | For evaluation |
| Grade Levels | 4 bands | K-2, 3-5, 6-8, 9-12 |
| CS Concepts | 10 areas | Traditional + emerging technologies |
| Programming Languages | 15 types | Age-appropriate progression |
| Subconcepts | 83 topics | Detailed subject breakdown |
π Content Breakdown
Core Areas Covered
| Area | Standards | Grade Range | Focus |
|---|---|---|---|
| π₯οΈ Computing Systems | 36 | K-12 | Hardware, software, troubleshooting |
| π Networks & Internet | 36 | K-12 | Cybersecurity, protocols, communication |
| π Data & Analysis | 48 | K-12 | Collection, visualization, inference |
| βοΈ Algorithms & Programming | 60 | K-12 | Computational thinking, coding |
| π Impacts of Computing | 36 | K-12 | Ethics, society, culture |
| π» Programming Languages | 225 | K-12 | ScratchJr β Java/Python/C++ |
| π€ Artificial Intelligence | 65 | K-12 | Pattern recognition β deep learning |
| π Cybersecurity | 65 | K-12 | Password safety β penetration testing |
| π Data Science | 65 | K-12 | Simple graphs β big data analytics |
| π€ Robotics | 60 | K-12 | Robot movement β AI robotics |
Programming Language Progression
Elementary (K-2)
- Visual Programming (ScratchJr)
- Unplugged Activities
- Basic sequencing and loops
Elementary (3-5)
- Scratch programming
- Hour of Code activities
- Basic robotics programming
Middle School (6-8)
- Python fundamentals
- JavaScript basics
- App development introduction
- Web design basics
High School (9-12)
- Java programming
- C++ development
- Advanced web development
- Data science applications
- AI/ML programming basics
π Educational Framework Alignment
CSTA K-12 Computer Science Standards (2017)
Core Concepts Covered:
- Computing Systems - Hardware/software interactions, troubleshooting
- Networks and the Internet - Communication, cybersecurity, protocols
- Data and Analysis - Collection, organization, visualization, modeling
- Algorithms and Programming - Computational thinking, code development
- Impacts of Computing - Social, ethical, cultural implications
Computational Thinking Practices:
- Fostering an Inclusive Computing Culture
- Collaborating around Computing
- Recognizing and Defining Computational Problems
- Developing and Using Abstractions
- Creating Computational Artifacts
- Testing and Refining Computational Artifacts
- Communicating about Computing
ISTE Computational Thinking Competencies (2024)
Educator Competencies Supported:
- Computational Thinking (Learner) - Professional development goals
- Equity Leader - Inclusive computing practices
- Collaborating Around Computing - Cross-discipline integration
- Creativity & Design - Human-centered design thinking
- Integrating Computational Thinking - Cross-curricular applications
π οΈ Technical Implementation
Hardware/Platform Progression
K-2 (Ages 5-7)
- Robots: Bee-Bot, Code & Go, KIBO
- Tools: ScratchJr, unplugged activities
- Focus: Sequencing, basic commands
3-5 (Ages 8-10)
- Robots: LEGO Mindstorms, Sphero, Dash & Dot
- Tools: Scratch, Hour of Code
- Focus: Loops, conditionals, debugging
6-8 (Ages 11-13)
- Platforms: Arduino, Raspberry Pi, VEX Robotics
- Languages: Python, JavaScript
- Focus: Functions, data structures, algorithms
9-12 (Ages 14-18)
- Advanced: ROS, TensorFlow Lite, OpenCV
- Languages: Java, C++, advanced Python
- Focus: OOP, software engineering, AI/ML
Cybersecurity Tools by Grade
- K-2: Password managers, basic digital safety
- 3-5: Secure browsers, privacy settings
- 6-8: Firewalls, VPNs, encryption basics
- 9-12: Kali Linux, Metasploit, Nmap, penetration testing
π Dataset Structure
Schema
Each record contains the following fields:
{
"standard_id": "CS.AI.912.DEEPLEARNING.1",
"grade_level": "Grades 9-12",
"concept": "Artificial Intelligence",
"subconcept": "Deep Learning",
"learning_objective": "Students will understand and apply deep learning in computing contexts",
"computational_practices": ["Creating Computational Artifacts", "Testing and Refining"],
"programming_language": "Python",
"assessment_type": "Project",
"cognitive_level": "Create"
}
Field Descriptions
standard_id: Unique identifier following CS.[AREA].[GRADE].[CONCEPT].[NUM] formatgrade_level: Target grade range (Grades K-2, 3-5, 6-8, 9-12)concept: Primary CS area (Computing Systems, AI, Cybersecurity, etc.)subconcept: Specific topic within the concept arealearning_objective: Detailed description of what students should achievecomputational_practices: CSTA practices addressed by this standardprogramming_language: Specific language used (when applicable)assessment_type: Recommended evaluation methodcognitive_level: Bloom's taxonomy level (Remember, Understand, Apply, Analyze, Evaluate, Create)
Grade Level Distribution
| Grade Band | Examples | Percentage | Focus Areas |
|---|---|---|---|
| K-2 | 174 (25%) | Early learners | Foundational concepts, visual programming |
| 3-5 | 174 (25%) | Elementary | Basic programming, digital citizenship |
| 6-8 | 174 (25%) | Middle school | Intermediate programming, system thinking |
| 9-12 | 174 (25%) | High school | Advanced concepts, career preparation |
π― Use Cases and Applications
Educational Applications
Curriculum Development
- Scope & Sequence Planning: Multi-year CS education pathways
- Lesson Plan Generation: Age-appropriate activities for any CS topic
- Assessment Creation: Comprehensive evaluation frameworks
- Standards Alignment: Ensure curriculum meets national/state requirements
Teacher Professional Development
- Training Programs: Structured learning paths for CS educators
- Resource Planning: Hardware and software requirement planning
- Best Practices: Evidence-based teaching strategies
Student Learning
- Personalized Pathways: Adaptive learning based on student progress
- Skill Assessment: Computational thinking evaluation tools
- Portfolio Development: Project-based learning documentation
Research Applications
Educational Research
- Learning Analytics: Analyze patterns in CS skill development
- Curriculum Effectiveness: Evaluate different teaching approaches
- Equity Studies: Research access and participation in CS education
AI/ML Applications
- Content Generation: Train models to create educational materials
- Assessment Automation: Develop automated evaluation tools
- Recommendation Systems: Personalized learning recommendations
- Natural Language Processing: Educational content analysis
Industry Applications
Workforce Development
- Skills Gap Analysis: Identify industry training needs
- Pipeline Planning: K-12 to career pathway development
- Corporate Training: Employee upskilling programs
Product Development
- EdTech Tools: Educational software and platform development
- Assessment Platforms: Computational thinking evaluation systems
- Learning Management: Curriculum management and tracking
π Real-World Connections
Industry Alignment
Each standard connects to real-world applications and career pathways:
AI/Machine Learning
- Applications: Netflix recommendations, autonomous vehicles, medical diagnosis
- Careers: AI Engineer, Data Scientist, Machine Learning Researcher
- Industry Growth: 22% projected growth through 2030
Cybersecurity
- Critical Need: 600,000+ unfilled cybersecurity positions nationwide
- Applications: Network security, threat detection, digital forensics
- Careers: Security Analyst, Ethical Hacker, CISO
Data Science
- Applications: Business analytics, scientific research, social media insights
- Careers: Data Analyst, Business Intelligence, Research Scientist
- Cross-Industry: Applicable in healthcare, finance, marketing, sports
Robotics
- Applications: Manufacturing automation, healthcare assistance, space exploration
- Careers: Robotics Engineer, Automation Specialist, AI Researcher
- Emerging Areas: Service robots, collaborative robots, autonomous systems
Social Impact
Digital Equity
- Inclusive Design: Standards emphasize accessibility and inclusion
- Diverse Representation: Materials reflect diverse backgrounds and perspectives
- Universal Access: Learning objectives designed for all students
Ethical Computing
- AI Ethics: Age-appropriate discussions of bias, fairness, transparency
- Digital Citizenship: Responsible technology use and online behavior
- Privacy Awareness: Data protection and personal information security
π Data Quality and Validation
Source Validation
- Authoritative Sources: Based on CSTA and ISTE official frameworks
- Expert Review: Aligned with industry best practices
- Educational Research: Grounded in learning science principles
Quality Metrics
- Completeness: Comprehensive coverage across all grade levels
- Consistency: Uniform structure and terminology
- Accuracy: Technically accurate and pedagogically sound
- Relevance: Current with 2024 industry needs and practices
Bias Considerations
- Geographic: Based primarily on US educational standards
- Cultural: May require adaptation for international contexts
- Technological: Reflects current technology landscape (subject to change)
- Economic: Assumes access to educational technology resources
π Data Splits and Usage
Recommended Usage
Training Split (556 examples, 80%)
- Model Training: Educational AI development
- Curriculum Development: Standards-based course creation
- Research Analysis: Pattern identification and trend analysis
Test Split (140 examples, 20%)
- Model Evaluation: Performance assessment
- Validation: Quality assurance for educational tools
- Benchmarking: Comparison across different approaches
Reproducibility
- Random State: 42 (ensures consistent splits)
- Stratified Sampling: Maintains grade-level distribution
- Version Control: Tracked changes and updates
π Getting Started
Quick Start
from datasets import load_dataset
# Load the complete dataset
dataset = load_dataset("robworks-software/k12-computer-science-comprehensive")
# Access training data
train_data = dataset["train"]
test_data = dataset["test"]
print(f"Training examples: {len(train_data)}")
print(f"Test examples: {len(test_data)}")
print(f"Features: {list(train_data.features.keys())}")
Filtering Examples
# Filter by grade level
elementary = train_data.filter(
lambda x: "K-2" in x["grade_level"] or "3-5" in x["grade_level"]
)
# Filter by subject area
ai_standards = train_data.filter(
lambda x: x["concept"] == "Artificial Intelligence"
)
cybersecurity_standards = train_data.filter(
lambda x: x["concept"] == "Cybersecurity"
)
programming_standards = train_data.filter(
lambda x: x["programming_language"] != ""
)
Analysis Examples
import pandas as pd
from collections import Counter
# Convert to pandas for analysis
df = train_data.to_pandas()
# Grade level distribution
grade_distribution = Counter(df["grade_level"])
print("Grade Level Distribution:", grade_distribution)
# Concept area breakdown
concept_distribution = Counter(df["concept"])
print("Concept Distribution:", concept_distribution)
# Cognitive level analysis
cognitive_distribution = Counter(df["cognitive_level"])
print("Cognitive Level Distribution:", cognitive_distribution)
# Programming language progression
prog_langs = df[df["programming_language"] != ""]["programming_language"]
print("Programming Languages:", Counter(prog_langs))
π Licensing and Attribution
License
This dataset is released under CC0 1.0 Universal (Public Domain Dedication).
You are free to:
- Use the dataset for any purpose
- Modify and adapt the content
- Distribute copies and adaptations
- Use commercially without restrictions
Attribution
While not required by the CC0 license, attribution is appreciated:
K-12 Computer Science Comprehensive Standards Dataset
Compiled by Ryan Robson, Robworks Software
Available at: https://huggingface.co/datasets/robworks-software/k12-computer-science-comprehensive
Source Attribution
This dataset aggregates and structures content from:
- Computer Science Teachers Association (CSTA) - K-12 CS Standards 2017
- International Society for Technology in Education (ISTE) - CT Competencies 2024
- Various State Education Departments - Implementation guidelines
- Industry Best Practices - Real-world applications and tools
π Contact and Support
Author Information
- Name: Ryan Robson
- Company: Robworks Software
- Website: robworks.info
- Email: support@robworks.info
Repository
- Dataset Repository: HuggingFace Dataset
- Source Code: Available upon request
Support
For questions, issues, or collaboration opportunities:
- Technical Support: support@robworks.info
- Research Collaboration: Contact via website or email
- Educational Partnerships: Open to working with schools and districts
π Citation
If you use this dataset in your research or applications, please cite:
@dataset{robson2024k12cs,
title={K-12 Computer Science Comprehensive Standards Dataset},
author={Robson, Ryan},
organization={Robworks Software},
year={2024},
publisher={HuggingFace},
version={1.0.0},
url={https://huggingface.co/datasets/robworks-software/k12-computer-science-comprehensive},
note={Aggregated from CSTA 2017 and ISTE 2024 frameworks}
}
π€ Contributing and Feedback
How to Contribute
While this dataset represents a comprehensive aggregation of existing standards, we welcome:
- Error Reports: Corrections to technical inaccuracies
- Enhancement Suggestions: Additional metadata or features
- Application Examples: Use cases and implementations
- Research Collaborations: Academic and industry partnerships
Roadmap
Potential future enhancements:
- International Standards: Integration of non-US CS education frameworks
- Assessment Rubrics: Detailed evaluation criteria for each standard
- Learning Resources: Links to specific educational materials and tools
- Career Pathways: Enhanced industry connection mapping
- Multilingual Support: Translations for global accessibility
Community
Join the growing community of educators, researchers, and developers using this dataset:
- Share your use cases and applications
- Collaborate on educational tool development
- Contribute to K-12 CS education research
- Connect with others in the field
π Impact Statement
This dataset represents a significant step forward in democratizing access to high-quality, standards-aligned computer science education resources. By providing a comprehensive, structured collection of K-12 CS learning objectives spanning traditional and emerging technology areas, we aim to:
- Accelerate curriculum development and educational tool creation
- Support teacher professional development and training
- Enable research into effective CS education practices
- Bridge the gap between education and industry workforce needs
- Promote equity and inclusion in computer science education
Together, we can ensure that all students have access to world-class computer science education that prepares them for success in our increasingly digital world.
π Star this dataset if it's useful for your work! π Share with educators and researchers in your network! π§ Contact us for collaboration opportunities!
- Downloads last month
- 64