Studio Aletheia | Grade 10 Mastery Pathways
Studio Aletheia Science Standards System

Grade 10 · Human Systems Mastery Pathways

In Grade 10, students branch into three distinct mastery pathways: Biomedical, Engineering, or Computational. While the specific content differs, all students apply the same rigorous design, modeling, and validation processes to complex SDG systems.

10 GRADE PATHWAYS
HS DOMAINS 15
DSP PRACTICES DESIGN + VALIDATE
SDG TAGGED Specialized

Shared Grade 10 Commitments

Regardless of pathway, all students adhere to these standards of practice.

Work within the same eight SDG systems.

The problems (Water, Energy, Health) remain shared; the tools to solve them diverge.

Use real-world datasets and case studies.

Students move beyond textbook examples to messy, authentic data.

Apply formal design, modeling, and validation processes.

Solutions must be tested against constraints, not just conceptualized.

Justify decisions using evidence, constraints, and ethics.

Students must defend their choices against competing priorities.

Produce artifacts suitable for portfolio and external review.

Work products are designed to be shared with authentic audiences beyond the classroom.

System ID SA-10-IHSS-180
Cadence Design → Validate
Mode Specialization

What Grade 10 adds to the system: Depth through specialization. Branching feels earned and inevitable. Portfolios become meaningful and comparable across pathways.

Console Panel
FILTER · QUICK LINKS

Mastery Pathways

Select a pathway in the console above to filter the standards.

Pathway A: Biomedical Systems

BM1-BM5
10-BM1
Biological Systems and Homeostasis
Good Health Stability Intervention
  • 10-BM1.1 Students model biological systems and explain how stability is maintained under stress.
  • 10-BM1.2 Students analyze how environmental conditions disrupt homeostasis.
  • 10-BM1.3 Students evaluate interventions that restore system balance.

Hands-on STEM

Physiological modeling, exposure simulations, response analysis.

10-BM2
Environmental Health and Exposure
Water · Land Pathways Risk
  • 10-BM2.1 Students trace exposure pathways from environment to body.
  • 10-BM2.2 Students analyze dose, duration, and susceptibility.
  • 10-BM2.3 Students design mitigation strategies to reduce risk.

Hands-on STEM

Contamination modeling, risk assessment labs, intervention testing.

10-BM3
Disease Systems and Population Health
Health · Cities Spread Capacity
  • 10-BM3.1 Students model disease spread and population-level health outcomes.
  • 10-BM3.2 Students analyze healthcare system capacity and access.
  • 10-BM3.3 Students evaluate prevention strategies and public health tradeoffs.

Hands-on STEM

Epidemiological simulations, intervention comparison, capacity modeling.

10-BM4
Biomedical Innovation and Ethics
Industry Equity Ethics
  • 10-BM4.1 Students evaluate biomedical technologies for effectiveness and equity.
  • 10-BM4.2 Students analyze ethical considerations in medical decision-making.
  • 10-BM4.3 Students defend innovation choices using evidence and ethics.

Hands-on STEM

Case analysis, device evaluation, ethics modeling.

10-BM5
Biomedical System Design Capstone
Capstone Validation Audience
  • 10-BM5.1 Students design a biomedical solution addressing an SDG-linked health challenge.
  • 10-BM5.2 Students validate designs using biological evidence and constraints.
  • 10-BM5.3 Students present findings to an authentic audience.

Pathway B: Engineering Systems

EN1-EN5
10-EN1
Engineered Systems and Constraints
Infra · Cities Networks Tradeoffs
  • 10-EN1.1 Students analyze engineered systems as interconnected networks.
  • 10-EN1.2 Students identify constraints, failure modes, and performance limits.
  • 10-EN1.3 Students evaluate tradeoffs in design decisions.

Hands-on STEM

System mapping, constraint modeling, performance testing.

10-EN2
Energy and Resource Engineering
Energy · Production Flows Efficiency
  • 10-EN2.1 Students model energy and material flows through engineered systems.
  • 10-EN2.2 Students analyze efficiency and loss quantitatively.
  • 10-EN2.3 Students design systems that optimize resource use.

Hands-on STEM

Energy audits, flow modeling, optimization challenges.

10-EN3
Water, Transport, and Civic Infrastructure
Water · Cities Reliability Resilience
  • 10-EN3.1 Students evaluate infrastructure systems that move water and people.
  • 10-EN3.2 Students analyze reliability under stress conditions.
  • 10-EN3.3 Students design resilient infrastructure solutions.

Hands-on STEM

Stress testing, infrastructure simulations, redesign challenges.

10-EN4
Sustainable Manufacturing and Materials
Production Life-cycle Circular
  • 10-EN4.1 Students analyze production systems and material life cycles.
  • 10-EN4.2 Students evaluate sustainability and environmental impact.
  • 10-EN4.3 Students design improved manufacturing processes.

Hands-on STEM

Life-cycle analysis, material testing, circular design challenges.

10-EN5
Engineering System Design Capstone
Capstone Data Technical
  • 10-EN5.1 Students design an engineered system addressing an SDG challenge.
  • 10-EN5.2 Students validate designs using performance data and constraints.
  • 10-EN5.3 Students present designs to technical reviewers.

Pathway C: Computational Systems

CS1-CS5
10-CS1
Data Systems and Representation
All SDGs Bias Uncertainty
  • 10-CS1.1 Students design data models representing real-world systems.
  • 10-CS1.2 Students analyze data quality, bias, and uncertainty.
  • 10-CS1.3 Students visualize system behavior over time.

Hands-on STEM

Dataset construction, visualization, error analysis.

10-CS2
Algorithmic Modeling of Systems
Energy · Health Algorithms Control
  • 10-CS2.1 Students translate system behavior into algorithms.
  • 10-CS2.2 Students model feedback and control using code or logic rules.
  • 10-CS2.3 Students test and debug system models.

Hands-on STEM

Rule-based simulations, flowchart modeling, algorithm refinement.

10-CS3
Automation, Sensing, and Control
Infra · Cities Sensors Logic
  • 10-CS3.1 Students analyze automated system behavior.
  • 10-CS3.2 Students evaluate sensor-based decision-making.
  • 10-CS3.3 Students design basic control systems.

Hands-on STEM

Sensor simulations, control logic modeling, automation testing.

10-CS4
Decision Support and Optimization
Production Optimization Tradeoffs
  • 10-CS4.1 Students build computational tools that support system decisions.
  • 10-CS4.2 Students evaluate tradeoffs using optimization techniques.
  • 10-CS4.3 Students analyze unintended consequences of automation.

Hands-on STEM

Optimization modeling, scenario testing, decision analysis.

10-CS5
Computational System Design Capstone
Capstone Models Communication
  • 10-CS5.1 Students design a computational solution addressing an SDG challenge.
  • 10-CS5.2 Students validate models using data and test cases.
  • 10-CS5.3 Students present tools and findings to technical and nontechnical audiences.