HIGH-PERFORMANCE, LOW-TECH
  • Projects
    • Environment Box
    • Passive Refrigeration
    • Water Cooling
    • Fog Catching
    • Roof Geometries
    • Optimal Insulation
    • Cooler Windcatcher
    • Green Machine
    • Mitigating Humidity
    • Convective Air Flow
    • Styrene Reuse
    • Thermal Reflection
    • ETFE Rigidification
    • Phase Change Materials
    • Polar Reflection
    • Cavity Depth Variation
    • Vapor Permeability
    • Algae Facade
    • Moisture Buffering
    • Engineered Geometries
    • Recycled Desiccant Materials
    • Living Wall
    • Solar Shading Facades
    • SHADESin.reACTION
    • Low-Fab Dehumidification
    • Breathing Wall
    • Urban Heat Island
    • Acoustical Design
    • Latent Heat of PCM's
    • Insulative Qualities of Air
  • About
  • Lectures
    • Building Science Basics I
    • Building Science Basics II
    • Research & Literature Review
    • Scales of Fabrication
    • Electronics
    • Methodology
    • Graphical Excellence
    • Moving Graphics
  • Assignments
    • 1: Research Proposal
    • 2: Prototype
    • 3: Data
    • 4: Design Proposal
    • Presentation & Paper
  • Workshops
    • Thermal Scavenger Hunt
    • Balance Point Game
    • Advanced Shop Training
    • Basic Electronics
    • Advanced Electronics
    • Excel & Illustrator
    • Data Visualization
    • Videos
    • Animations
  • Syllabus
  • Resources

1. Abstract

Thermal control of interior spaces is largely regulated by mechanical ventilation systems, which contribute to the built environment's enormous share of carbon emissions. Especially in regions where temperatures swing drastically from day to night, peak loads strain grid infrastructure and produce untenable energy costs. Alternative strategies to mitigate energy demand for heating or cooling utilize inherent characteristics of the natural environment.  Many such tactics employ material properties in order to achieve thermal comfort without carbon intensive energy consumption. The thermal performance of phase change materials (PCMs) to store energy in the form of latent heat, provokes the exploration of related strategies in building application simulations.

2. Research Question


​What is the latent heat storage and release potential of non-toxic, accessible phase change materials?


3. Proposal

We will conduct a series of tests to measure the capacities of coconut oil to store and release latent heat. The scope of the study may cover also the energy released during phase change transition, as this provides a direct connection to material performance in the built environment.

Objectives of Test

1. Simulate daytime heat gains.

2.  Record pre/post heat gain temps of the selected phase change materials.

3. Record air temperature as affected by the heat fusion process.


4. Hypothesis

By inserting coconut oil into the testing box, we predict that the air temperature will heat up more slowly than if no material was inserted, and likewise we predict that cooling after the bulb is turned off will happen slower as the PCM resolidifies.

5. Mockup

Below are diagrams of initial mockup assembly. Development and refinement to this design is seen in subsequent steps of the project.


Picture

Proposal

Background

Construction

Methodology

Results

  • Projects
    • Environment Box
    • Passive Refrigeration
    • Water Cooling
    • Fog Catching
    • Roof Geometries
    • Optimal Insulation
    • Cooler Windcatcher
    • Green Machine
    • Mitigating Humidity
    • Convective Air Flow
    • Styrene Reuse
    • Thermal Reflection
    • ETFE Rigidification
    • Phase Change Materials
    • Polar Reflection
    • Cavity Depth Variation
    • Vapor Permeability
    • Algae Facade
    • Moisture Buffering
    • Engineered Geometries
    • Recycled Desiccant Materials
    • Living Wall
    • Solar Shading Facades
    • SHADESin.reACTION
    • Low-Fab Dehumidification
    • Breathing Wall
    • Urban Heat Island
    • Acoustical Design
    • Latent Heat of PCM's
    • Insulative Qualities of Air
  • About
  • Lectures
    • Building Science Basics I
    • Building Science Basics II
    • Research & Literature Review
    • Scales of Fabrication
    • Electronics
    • Methodology
    • Graphical Excellence
    • Moving Graphics
  • Assignments
    • 1: Research Proposal
    • 2: Prototype
    • 3: Data
    • 4: Design Proposal
    • Presentation & Paper
  • Workshops
    • Thermal Scavenger Hunt
    • Balance Point Game
    • Advanced Shop Training
    • Basic Electronics
    • Advanced Electronics
    • Excel & Illustrator
    • Data Visualization
    • Videos
    • Animations
  • Syllabus
  • Resources