BUILDING MATERIAL STUDY: PROTECTIVE ROLE OF BIOGEOMETRY AGAINST INDOOR CHEMICALS

BUILDING MATERIAL STUDY: PROTECTIVE ROLE OF BIOGEOMETRY AGAINST INDOOR CHEMICALS

Why Indoor Environments Matter

Modern life keeps us indoors more than ever. In fact, studies suggest that people spend up to 90% of their time inside buildings, where air quality, materials, and environmental conditions play a major role in comfort and well-being.

Over the past decades, concerns about indoor environments have increased. Terms like “sick building syndrome” have emerged to describe situations where occupants experience discomfort linked to building conditions such as:

  • Reduced ventilation
  • Synthetic construction materials
  • Accumulation of chemical compounds and pollutants

As awareness grows, so does interest in approaches that aim to improve the overall quality of indoor spaces.

A Different Approach: BioGeometry

BioGeometry® is an approach developed by Dr. Ibrahim Karim that focuses on the relationship between form, proportion, and environmental quality.

Rather than addressing environmental factors only through physical or chemical means, BioGeometry explores how geometric design principles may influence the qualitative characteristics of a space.

It is described as a system that works with shape, orientation, and proportion to introduce a more balanced interaction between living systems and their surroundings.

The Study: Indoor Pollutants and Environmental Balance

A study published in the World Journal of Medical Sciences (2014) examined how BioGeometry elements might interact with indoor environmental conditions.

Study Design

Researchers used three groups of laboratory animals:

  • Control group – standard housing conditions
  • Group exposed to building materials – enclosed spaces built from common construction materials
  • BioGeometry group – identical environment with added BioGeometry elements

The goal was to observe how different environments might influence biological markers over time.

What Was Measured

The study evaluated several indicators, including:

  • Blood biochemical markers
  • Thyroid function
  • Tissue structure (lungs, liver, kidneys)

Microscopic examination revealed differences between the groups.

For example, the lung tissue images (pages 4–5) show that animals exposed to building materials displayed signs of inflammation and structural changes, while those in the BioGeometry-adjusted environment appeared closer to normal conditions.

Similarly, liver and kidney samples showed noticeable differences in tissue structure between the groups.

Observations from the Research

According to the study:

  • Exposure to certain indoor environments was associated with measurable biological changes
  • The group exposed to BioGeometry elements showed results that were closer to the control group
  • The observed effects were described as indirect, potentially linked to broader systemic responses

The authors suggest that these outcomes may relate to how environmental conditions interact with biological systems over time.

How BioGeometry Is Interpreted in This Context

Within this framework, BioGeometry is viewed as a method that:

  • Works through design and spatial relationships
  • Aims to introduce a more balanced environmental quality
  • May influence how living systems respond to their surroundings

Importantly, the study itself frames these effects as supportive rather than direct, emphasizing that any observed outcomes occur through complex biological responses rather than a single measurable mechanism.

A Broader Perspective

Research like this sits at the intersection of:

  • Architecture
  • Environmental science
  • Human and biological response to surroundings

While conventional approaches focus on measurable pollutants and ventilation, studies such as this explore whether design itself may play a role in how environments are experienced.

This remains an evolving area of study, inviting further research and discussion.

References & Further Reading

  • Sharaf, N.E. et al. (2014). Protective Role of BioGeometry Against Indoor Pollutants of Some Egyptian Building Materials in Adult Male Rats. World Journal of Medical Sciences, 10(3), 337–346.
  • Karim, I. (2007). Back to a Future for Mankind. Emerald Publishing, Cairo
  • Billionnet, C. et al. (2012). Indoor air quality and health effects. Annals of Epidemiology
  • Maroni, M. (2004). Indoor air quality and occupational health

Final Thought

As our built environments continue to evolve, so too does the way we think about them. Beyond materials and measurements, there is growing curiosity around how form, space, and proportion might contribute to a more supportive living environment.

BioGeometry represents one such perspective—inviting us to look not only at what surrounds us, but how it is shaped.

Back to blog