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--- |
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license: creativeml-openrail-m |
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language: |
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- en |
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tags: |
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- code |
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- computerscience |
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- education |
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- k-12 |
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- k12 |
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- technology |
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- tech |
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pretty_name: K-12 Computer Science Curriculum Standards Dataset |
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size_categories: |
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- n<1K |
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--- |
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# π K-12 Computer Science Comprehensive Standards Dataset |
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## π Dataset Overview |
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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. |
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### π― Key Features |
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- **π Comprehensive Coverage**: 696 standards across 5 major CS areas |
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- **π Grade Progressive**: Age-appropriate learning objectives K-12 |
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- **ποΈ Standards Aligned**: Based on CSTA 2017 and ISTE 2024 frameworks |
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- **π Real-World Connected**: Links to industry applications and workforce needs |
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- **π¬ Research Ready**: Structured for educational AI and learning analytics |
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- **π― Assessment Ready**: Complete with cognitive levels and evaluation frameworks |
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## π Dataset Statistics |
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| Metric | Value | Description | |
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|--------|-------|-------------| |
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| **Total Standards** | 696 | Complete learning objectives | |
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| **Training Examples** | 556 (80%) | For model training | |
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| **Test Examples** | 140 (20%) | For evaluation | |
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| **Grade Levels** | 4 bands | K-2, 3-5, 6-8, 9-12 | |
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| **CS Concepts** | 10 areas | Traditional + emerging technologies | |
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| **Programming Languages** | 15 types | Age-appropriate progression | |
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| **Subconcepts** | 83 topics | Detailed subject breakdown | |
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## π Content Breakdown |
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### Core Areas Covered |
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| Area | Standards | Grade Range | Focus | |
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|------|-----------|-------------|-------| |
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| **π₯οΈ Computing Systems** | 36 | K-12 | Hardware, software, troubleshooting | |
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| **π Networks & Internet** | 36 | K-12 | Cybersecurity, protocols, communication | |
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| **π Data & Analysis** | 48 | K-12 | Collection, visualization, inference | |
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| **βοΈ Algorithms & Programming** | 60 | K-12 | Computational thinking, coding | |
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| **π Impacts of Computing** | 36 | K-12 | Ethics, society, culture | |
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| **π» Programming Languages** | 225 | K-12 | ScratchJr β Java/Python/C++ | |
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| **π€ Artificial Intelligence** | 65 | K-12 | Pattern recognition β deep learning | |
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| **π Cybersecurity** | 65 | K-12 | Password safety β penetration testing | |
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| **π Data Science** | 65 | K-12 | Simple graphs β big data analytics | |
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| **π€ Robotics** | 60 | K-12 | Robot movement β AI robotics | |
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### Programming Language Progression |
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#### Elementary (K-2) |
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- Visual Programming (ScratchJr) |
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- Unplugged Activities |
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- Basic sequencing and loops |
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#### Elementary (3-5) |
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- Scratch programming |
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- Hour of Code activities |
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- Basic robotics programming |
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#### Middle School (6-8) |
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- Python fundamentals |
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- JavaScript basics |
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- App development introduction |
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- Web design basics |
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#### High School (9-12) |
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- Java programming |
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- C++ development |
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- Advanced web development |
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- Data science applications |
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- AI/ML programming basics |
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## π Educational Framework Alignment |
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### CSTA K-12 Computer Science Standards (2017) |
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**Core Concepts Covered:** |
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1. **Computing Systems** - Hardware/software interactions, troubleshooting |
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2. **Networks and the Internet** - Communication, cybersecurity, protocols |
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3. **Data and Analysis** - Collection, organization, visualization, modeling |
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4. **Algorithms and Programming** - Computational thinking, code development |
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5. **Impacts of Computing** - Social, ethical, cultural implications |
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**Computational Thinking Practices:** |
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- Fostering an Inclusive Computing Culture |
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- Collaborating around Computing |
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- Recognizing and Defining Computational Problems |
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- Developing and Using Abstractions |
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- Creating Computational Artifacts |
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- Testing and Refining Computational Artifacts |
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- Communicating about Computing |
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### ISTE Computational Thinking Competencies (2024) |
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**Educator Competencies Supported:** |
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- **Computational Thinking (Learner)** - Professional development goals |
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- **Equity Leader** - Inclusive computing practices |
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- **Collaborating Around Computing** - Cross-discipline integration |
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- **Creativity & Design** - Human-centered design thinking |
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- **Integrating Computational Thinking** - Cross-curricular applications |
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## π οΈ Technical Implementation |
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### Hardware/Platform Progression |
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#### K-2 (Ages 5-7) |
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- **Robots**: Bee-Bot, Code & Go, KIBO |
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- **Tools**: ScratchJr, unplugged activities |
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- **Focus**: Sequencing, basic commands |
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#### 3-5 (Ages 8-10) |
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- **Robots**: LEGO Mindstorms, Sphero, Dash & Dot |
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- **Tools**: Scratch, Hour of Code |
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- **Focus**: Loops, conditionals, debugging |
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#### 6-8 (Ages 11-13) |
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- **Platforms**: Arduino, Raspberry Pi, VEX Robotics |
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- **Languages**: Python, JavaScript |
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- **Focus**: Functions, data structures, algorithms |
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#### 9-12 (Ages 14-18) |
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- **Advanced**: ROS, TensorFlow Lite, OpenCV |
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- **Languages**: Java, C++, advanced Python |
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- **Focus**: OOP, software engineering, AI/ML |
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### Cybersecurity Tools by Grade |
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- **K-2**: Password managers, basic digital safety |
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- **3-5**: Secure browsers, privacy settings |
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- **6-8**: Firewalls, VPNs, encryption basics |
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- **9-12**: Kali Linux, Metasploit, Nmap, penetration testing |
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## π Dataset Structure |
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### Schema |
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Each record contains the following fields: |
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```json |
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{ |
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"standard_id": "CS.AI.912.DEEPLEARNING.1", |
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"grade_level": "Grades 9-12", |
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"concept": "Artificial Intelligence", |
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"subconcept": "Deep Learning", |
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"learning_objective": "Students will understand and apply deep learning in computing contexts", |
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"computational_practices": ["Creating Computational Artifacts", "Testing and Refining"], |
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"programming_language": "Python", |
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"assessment_type": "Project", |
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"cognitive_level": "Create" |
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} |
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``` |
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### Field Descriptions |
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- **`standard_id`**: Unique identifier following CS.[AREA].[GRADE].[CONCEPT].[NUM] format |
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- **`grade_level`**: Target grade range (Grades K-2, 3-5, 6-8, 9-12) |
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- **`concept`**: Primary CS area (Computing Systems, AI, Cybersecurity, etc.) |
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- **`subconcept`**: Specific topic within the concept area |
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- **`learning_objective`**: Detailed description of what students should achieve |
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- **`computational_practices`**: CSTA practices addressed by this standard |
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- **`programming_language`**: Specific language used (when applicable) |
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- **`assessment_type`**: Recommended evaluation method |
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- **`cognitive_level`**: Bloom's taxonomy level (Remember, Understand, Apply, Analyze, Evaluate, Create) |
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### Grade Level Distribution |
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| Grade Band | Examples | Percentage | Focus Areas | |
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|------------|----------|------------|-------------| |
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| **K-2** | 174 (25%) | Early learners | Foundational concepts, visual programming | |
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| **3-5** | 174 (25%) | Elementary | Basic programming, digital citizenship | |
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| **6-8** | 174 (25%) | Middle school | Intermediate programming, system thinking | |
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| **9-12** | 174 (25%) | High school | Advanced concepts, career preparation | |
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## π― Use Cases and Applications |
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### Educational Applications |
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#### Curriculum Development |
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- **Scope & Sequence Planning**: Multi-year CS education pathways |
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- **Lesson Plan Generation**: Age-appropriate activities for any CS topic |
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- **Assessment Creation**: Comprehensive evaluation frameworks |
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- **Standards Alignment**: Ensure curriculum meets national/state requirements |
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#### Teacher Professional Development |
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- **Training Programs**: Structured learning paths for CS educators |
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- **Resource Planning**: Hardware and software requirement planning |
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- **Best Practices**: Evidence-based teaching strategies |
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#### Student Learning |
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- **Personalized Pathways**: Adaptive learning based on student progress |
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- **Skill Assessment**: Computational thinking evaluation tools |
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- **Portfolio Development**: Project-based learning documentation |
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### Research Applications |
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#### Educational Research |
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- **Learning Analytics**: Analyze patterns in CS skill development |
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- **Curriculum Effectiveness**: Evaluate different teaching approaches |
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- **Equity Studies**: Research access and participation in CS education |
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#### AI/ML Applications |
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- **Content Generation**: Train models to create educational materials |
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- **Assessment Automation**: Develop automated evaluation tools |
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- **Recommendation Systems**: Personalized learning recommendations |
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- **Natural Language Processing**: Educational content analysis |
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### Industry Applications |
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#### Workforce Development |
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- **Skills Gap Analysis**: Identify industry training needs |
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- **Pipeline Planning**: K-12 to career pathway development |
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- **Corporate Training**: Employee upskilling programs |
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#### Product Development |
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- **EdTech Tools**: Educational software and platform development |
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- **Assessment Platforms**: Computational thinking evaluation systems |
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- **Learning Management**: Curriculum management and tracking |
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## π Real-World Connections |
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### Industry Alignment |
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Each standard connects to real-world applications and career pathways: |
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#### AI/Machine Learning |
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- **Applications**: Netflix recommendations, autonomous vehicles, medical diagnosis |
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- **Careers**: AI Engineer, Data Scientist, Machine Learning Researcher |
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- **Industry Growth**: 22% projected growth through 2030 |
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#### Cybersecurity |
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- **Critical Need**: 600,000+ unfilled cybersecurity positions nationwide |
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- **Applications**: Network security, threat detection, digital forensics |
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- **Careers**: Security Analyst, Ethical Hacker, CISO |
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#### Data Science |
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- **Applications**: Business analytics, scientific research, social media insights |
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- **Careers**: Data Analyst, Business Intelligence, Research Scientist |
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- **Cross-Industry**: Applicable in healthcare, finance, marketing, sports |
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#### Robotics |
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- **Applications**: Manufacturing automation, healthcare assistance, space exploration |
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- **Careers**: Robotics Engineer, Automation Specialist, AI Researcher |
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- **Emerging Areas**: Service robots, collaborative robots, autonomous systems |
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### Social Impact |
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#### Digital Equity |
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- **Inclusive Design**: Standards emphasize accessibility and inclusion |
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- **Diverse Representation**: Materials reflect diverse backgrounds and perspectives |
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- **Universal Access**: Learning objectives designed for all students |
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#### Ethical Computing |
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- **AI Ethics**: Age-appropriate discussions of bias, fairness, transparency |
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- **Digital Citizenship**: Responsible technology use and online behavior |
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- **Privacy Awareness**: Data protection and personal information security |
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## π Data Quality and Validation |
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### Source Validation |
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- **Authoritative Sources**: Based on CSTA and ISTE official frameworks |
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- **Expert Review**: Aligned with industry best practices |
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- **Educational Research**: Grounded in learning science principles |
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### Quality Metrics |
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- **Completeness**: Comprehensive coverage across all grade levels |
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- **Consistency**: Uniform structure and terminology |
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- **Accuracy**: Technically accurate and pedagogically sound |
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- **Relevance**: Current with 2024 industry needs and practices |
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### Bias Considerations |
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- **Geographic**: Based primarily on US educational standards |
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- **Cultural**: May require adaptation for international contexts |
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- **Technological**: Reflects current technology landscape (subject to change) |
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- **Economic**: Assumes access to educational technology resources |
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## π Data Splits and Usage |
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### Recommended Usage |
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#### Training Split (556 examples, 80%) |
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- **Model Training**: Educational AI development |
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- **Curriculum Development**: Standards-based course creation |
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- **Research Analysis**: Pattern identification and trend analysis |
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#### Test Split (140 examples, 20%) |
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- **Model Evaluation**: Performance assessment |
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- **Validation**: Quality assurance for educational tools |
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- **Benchmarking**: Comparison across different approaches |
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### Reproducibility |
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- **Random State**: 42 (ensures consistent splits) |
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- **Stratified Sampling**: Maintains grade-level distribution |
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- **Version Control**: Tracked changes and updates |
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## π Getting Started |
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### Quick Start |
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```python |
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from datasets import load_dataset |
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# Load the complete dataset |
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dataset = load_dataset("robworks-software/k12-computer-science-comprehensive") |
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# Access training data |
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train_data = dataset["train"] |
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test_data = dataset["test"] |
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print(f"Training examples: {len(train_data)}") |
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print(f"Test examples: {len(test_data)}") |
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print(f"Features: {list(train_data.features.keys())}") |
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``` |
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### Filtering Examples |
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```python |
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# Filter by grade level |
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elementary = train_data.filter( |
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lambda x: "K-2" in x["grade_level"] or "3-5" in x["grade_level"] |
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) |
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# Filter by subject area |
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ai_standards = train_data.filter( |
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lambda x: x["concept"] == "Artificial Intelligence" |
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) |
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cybersecurity_standards = train_data.filter( |
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lambda x: x["concept"] == "Cybersecurity" |
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) |
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programming_standards = train_data.filter( |
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lambda x: x["programming_language"] != "" |
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) |
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``` |
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### Analysis Examples |
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```python |
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import pandas as pd |
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from collections import Counter |
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# Convert to pandas for analysis |
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df = train_data.to_pandas() |
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# Grade level distribution |
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grade_distribution = Counter(df["grade_level"]) |
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print("Grade Level Distribution:", grade_distribution) |
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# Concept area breakdown |
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concept_distribution = Counter(df["concept"]) |
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print("Concept Distribution:", concept_distribution) |
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# Cognitive level analysis |
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cognitive_distribution = Counter(df["cognitive_level"]) |
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print("Cognitive Level Distribution:", cognitive_distribution) |
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# Programming language progression |
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prog_langs = df[df["programming_language"] != ""]["programming_language"] |
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print("Programming Languages:", Counter(prog_langs)) |
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``` |
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## π Licensing and Attribution |
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### License |
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This dataset is released under **CC0 1.0 Universal (Public Domain Dedication)**. |
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You are free to: |
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- **Use** the dataset for any purpose |
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- **Modify** and adapt the content |
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- **Distribute** copies and adaptations |
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- **Use commercially** without restrictions |
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### Attribution |
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While not required by the CC0 license, attribution is appreciated: |
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``` |
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K-12 Computer Science Comprehensive Standards Dataset |
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Compiled by Ryan Robson, Robworks Software |
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Available at: https://huggingface.co/datasets/robworks-software/k12-computer-science-comprehensive |
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``` |
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### Source Attribution |
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This dataset aggregates and structures content from: |
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- **Computer Science Teachers Association (CSTA)** - K-12 CS Standards 2017 |
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- **International Society for Technology in Education (ISTE)** - CT Competencies 2024 |
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- **Various State Education Departments** - Implementation guidelines |
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- **Industry Best Practices** - Real-world applications and tools |
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## π Contact and Support |
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### Author Information |
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- **Name**: Ryan Robson |
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- **Company**: Robworks Software |
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- **Website**: [robworks.info](https://robworks.info) |
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- **Email**: [support@robworks.info](mailto:support@robworks.info) |
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### Repository |
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- **Dataset Repository**: [HuggingFace Dataset](https://huggingface.co/datasets/robworks-software/k12-computer-science-comprehensive) |
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- **Source Code**: Available upon request |
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### Support |
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For questions, issues, or collaboration opportunities: |
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- **Technical Support**: [support@robworks.info](mailto:support@robworks.info) |
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- **Research Collaboration**: Contact via website or email |
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- **Educational Partnerships**: Open to working with schools and districts |
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## π Citation |
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If you use this dataset in your research or applications, please cite: |
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```bibtex |
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@dataset{robson2024k12cs, |
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title={K-12 Computer Science Comprehensive Standards Dataset}, |
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author={Robson, Ryan}, |
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organization={Robworks Software}, |
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year={2024}, |
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publisher={HuggingFace}, |
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version={1.0.0}, |
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url={https://huggingface.co/datasets/robworks-software/k12-computer-science-comprehensive}, |
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note={Aggregated from CSTA 2017 and ISTE 2024 frameworks} |
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} |
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``` |
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## π€ Contributing and Feedback |
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### How to Contribute |
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While this dataset represents a comprehensive aggregation of existing standards, we welcome: |
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- **Error Reports**: Corrections to technical inaccuracies |
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- **Enhancement Suggestions**: Additional metadata or features |
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- **Application Examples**: Use cases and implementations |
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- **Research Collaborations**: Academic and industry partnerships |
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### Roadmap |
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Potential future enhancements: |
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- **International Standards**: Integration of non-US CS education frameworks |
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- **Assessment Rubrics**: Detailed evaluation criteria for each standard |
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- **Learning Resources**: Links to specific educational materials and tools |
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- **Career Pathways**: Enhanced industry connection mapping |
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- **Multilingual Support**: Translations for global accessibility |
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### Community |
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Join the growing community of educators, researchers, and developers using this dataset: |
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- **Share** your use cases and applications |
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- **Collaborate** on educational tool development |
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- **Contribute** to K-12 CS education research |
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- **Connect** with others in the field |
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--- |
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## π Impact Statement |
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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: |
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- **Accelerate** curriculum development and educational tool creation |
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- **Support** teacher professional development and training |
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- **Enable** research into effective CS education practices |
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- **Bridge** the gap between education and industry workforce needs |
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- **Promote** equity and inclusion in computer science education |
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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. |
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--- |
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**π Star this dataset** if it's useful for your work! |
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**π Share** with educators and researchers in your network! |
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**π§ Contact us** for collaboration opportunities! |