BioGeometry Research
Alongside its practical applications, BioGeometry has been explored through experimental projects, academic research, instrument-based measurement, agricultural trials, and participant-reported experiences.
These draw on different methods, from numerical measurements and comparisons to documented observations and direct participant feedback.
Each investigation is best considered on its own merits, according to the methods used, what was measured or observed, and the conclusions the evidence can reasonably support.
Areas of Research
Physiological Measurement
Automobile Environment
In one automobile experiment, physiological activity was recorded using EEG, ECG, EMG, eye movement, respiration, heart rate, and other measures. A double-blind block design was used to compare periods with and without a BioGeometry shape in the vehicle.
The measurements showed reduced physiological stress markers when the BioGeometry shape was present, including changes in brainwave activity, breathing frequency, eye movement, and blood oxygen saturation.
Aircraft Environment
Separate work aboard a Boeing 747-400 used a BioPulsar-Reflexograph to take biofeedback measurements from two crew members, comparing readings taken inside the BioGeometry-treated aircraft with measurements taken outside the aircraft for one of them.
The project reported readings inside the aircraft that were closer to its benchmark for balanced electrical organ activity than those recorded outside the aircraft.
Experimental Research
Building Materials
A 2014 study published in the World Journal of Medical Sciences examined 42 adult male rats divided into three groups: a control group, a group housed in cages constructed from selected Egyptian building materials, and a third group housed under the same conditions with BioGeometry shapes incorporated. Blood analysis and histological examination were carried out following a 12-week experimental period.
The BioGeometry group showed histological findings described as close to normal, and one biochemical marker (T3, a thyroid hormone) showed a statistically significant improvement relative to the untreated group; the researchers concluded that the shapes demonstrated a protective role against the effects observed in the study.
Wi-Fi Environments
A separate study published in Bioscience Research in 2018 investigated Wi-Fi exposure using 18 rats randomly assigned to three groups: control, Wi-Fi exposed, and Wi-Fi exposed with BioGeometry shapes present. The experiment ran for 17 weeks and measured biochemical markers including melatonin, HSP-70, MDA and GSH, alongside histopathological examination of brain tissue.
The Wi-Fi-exposed group showed reduced melatonin, increased HSP-70 and changes in markers of oxidative stress. In the group exposed to Wi-Fi with BioGeometry shapes present, these measured changes were reversed towards control levels, while microscopic examination showed normal histological features in the brain regions examined.
Agriculture & Farming
Poultry Research
A project undertaken with the Nutrinor Cooperative in Quebec followed successive poultry production cycles from August 2013 to October 2014. In the experimental poultry house, approximately 9,000 chickens per batch were divided between groups raised under different feeding conditions, with production outcomes including mortality, weight, and growth duration recorded over time.
Across nine consecutive production batches, chickens were successfully raised without antibiotics or anticoccidials and, according to Nutrinor, with zero medical intervention. Mortality remained comparable to conventionally raised chickens — and was slightly better on several occasions — while weight and growth duration were also comparable.
After seven batches in the experimental poultry house, the work was extended to a regular production house containing 45,000 chickens, where Nutrinor reported the same results. An additional batch subsequently continued the outcome, bringing the total number of chickens involved to more than 150,000. Nutrinor described the project as a success and formally recommended the methodology.
Preliminary work with Nutrinor also recorded cow milk leukocyte counts, with the project documentation showing a marked decline during the later part of the monitoring period.
BioGeometry research has additionally explored plant cultivation and other agricultural applications.
In 2017, BioGeometry Canada and Apex Engineering documented a proof-of-concept environmental harmonisation study involving the 14-acre Lake Guenevere in Florida and its surrounding ecosystem. At the outset, the lake was experiencing excessive algae and water-lily growth, poor water clarity, black organic deposits, and a pungent odour.
Over the course of the study, the report documented significantly improved water clarity, disappearance of the pungent odour, control of excessive algae growth, and increased fish, waterfowl, and other wildlife activity. For nearly two years, the lake also remained free from the chemical treatments that had previously been used regularly.
An unexpected event provided a further observation. When a principal BioGeometry Water Shape was displaced from its intended position, algae growth and the pungent odour returned. After a replacement was correctly positioned, the report states that water quality improved, algae were again controlled, and the odour disappeared within a few days.
By June 2016, a homeowner who had observed the lake for nine years reported being able to see the lake bottom at least 20 feet from the shore — something he said he had never previously been able to do.
The results were documented primarily through qualitative observation of changes within the ecosystem over a two-year period.
Community Swiss Projects — Hemberg & Hirschberg
Questionnaires and observations gathered directly from participating communities provide another form of evidence, documenting residents' experiences and wider environmental observations over time.
Dr Karim’s Office, BioGeometry Centre, Cairo — Marking a Postgraduate Thesis on BioGeometry Applications
Academic Research
University Studies
Formal master's and doctoral research, including work at Cairo University and Alexandria University, has explored BioGeometry across architecture, interior design, and environmental applications.
These studies extend the academic investigation of BioGeometry across different subjects and research questions, using methodologies appropriate to their respective fields.
Understanding the Evidence
Research can produce different kinds of information
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01 — Measured Results
A value recorded using an instrument or other defined quantitative measure — physiological readings, biochemical markers, mortality rates, or production data.
Provides quantitative data showing what was measured under the conditions studied.
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02 — Comparative Results
Outcomes from different groups or conditions compared against each other — including control and experimental groups.
Shows how measured outcomes differed between the conditions being investigated.
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03 — Observed Outcomes
Changes documented through observation rather than numerical measurement — such as vegetation, animal behaviour, water clarity, or other environmental changes.
Documents changes observed within an environment over time.
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04 — Participant-Reported Experience
People describing changes they personally experienced — including questionnaires and resident reports from community projects.
Provides a record of how participants experienced changes before, during, and following an intervention.
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05 — Academic Research
BioGeometry principles investigated within master's, doctoral, and other university research.
Represents formal academic investigation of BioGeometry across different disciplines, methodologies, and areas of application.
Why These Distinctions Matter
Research can tell us different things depending on how it is designed and what it sets out to investigate. Physiological measurements, controlled experiments, environmental observations, participant experiences, and academic studies each contribute a different perspective.
Considered together, they reveal the breadth of enquiry surrounding BioGeometry while allowing each investigation to be understood according to its own methods, findings, and scope.
An Evolving Field of Enquiry
BioGeometry research continues to develop across different disciplines and areas of application. Further independent research, replication, and larger studies will build upon the work already undertaken and contribute to a deeper understanding of BioGeometry and its applications.