

Novel Flow Solutions in Urology and Vascular Disease
Our Products
Noninvasive Urethro-Cystometer(NUC): A device for differential diagnosis of Lower Urinary Tract Symptoms (LUTS) in the elderly male. Licensed to a medical device company and currently being marketed.
The Biofluid Inflammometer™:
Advancing Physiologic Measurement Through Whole-Blood Rheology
Biofluid Technology, Inc. is developing an investigational point-of-care measurement platform designed to characterize the rheologic behavior of whole blood and explore its relationship to microvascular function, inflammation, and human disease.
Blood is not simply a carrier of biochemical markers. Its physical behavior—including viscosity and its response to changing shear conditions—can influence resistance to flow, tissue perfusion, and the microcirculatory environment. Yet these properties are not routinely characterized at the point of care.
The Biofluid Inflammometer™, built upon Biofluid Technology's Rapid Profile Viscometer (RPV) technology, is being developed to address this measurement gap. The platform is designed to rapidly characterize whole-blood rheology across a physiologically relevant range of shear conditions from a small-volume blood sample, creating a quantitative rheologic profile that can ultimately be evaluated alongside conventional clinical and laboratory information.
Our objective is to determine whether direct measurement of blood's physical behavior can provide useful physiologic information that complements traditional biochemical assessment and improves understanding of disease processes involving the microcirculation.
Technology Focus
Our development program is focused on an investigational measurement system designed to:
* Characterize whole-blood rheology across low, intermediate, and high shear conditions
* Generate quantitative rheologic profiles from small-volume blood samples
* Produce reproducible measurements suitable for scientific and translational investigation
* Integrate rheologic information with complementary clinical and laboratory data
* Support development of data-driven frameworks for investigating relationships among blood rheology, microvascular physiology, and disease
Current Development Program
Biofluid Technology has progressed from proof-of-concept development into systematic engineering verification and preclinical validation of the Biofluid Inflammometer™ platform.
Current work includes:
* Engineering refinement and characterization of the next-generation RPV platform
* Verification of the mathematical and analytical framework used to derive rheologic measurements
* Assessment of measurement precision, repeatability, and reproducibility
* Controlled testing using reference fluids and fresh human whole blood
* Characterization of whole-blood behavior across physiologically relevant shear conditions
* Development of standardized collection, measurement, and analytical workflows
* Preparation for subsequent translational and clinical investigation
This work is intended to establish the analytical performance and technical foundation necessary for rigorous evaluation of the platform in human studies.
Scientific Direction
Biofluid Technology's broader research program is exploring the hypothesis that the physical behavior of circulating blood contains physiologically meaningful information that is not fully represented by conventional biochemical biomarkers alone.
Changes in whole-blood rheology may reflect the combined influence of red blood cell properties, plasma composition, cellular interactions, hematocrit, and other factors affecting microvascular flow. By making these properties more readily measurable, the Biofluid Inflammometer™ is intended to provide a platform for investigating their relationships to inflammation, cardiovascular and microvascular dysfunction, and other systemic disease processes.
Our long-term goal is to help establish blood rheology as a practical, quantitative dimension of physiologic assessment and to determine where that information can meaningfully complement existing clinical measurements.
Development Pipeline
Our current development portfolio is centered on:
The Biofluid Inflammometer™ / Rapid Profile Viscometer (RPV) — an investigational platform for rapid characterization of whole-blood rheology across physiologically relevant shear conditions.
Biofluid Technology is also evaluating complementary measurement and analytical approaches that may expand the physiologic information obtainable from blood and support future generations of the platform.
Important Notice
The Biofluid Inflammometer™, Rapid Profile Viscometer (RPV), and other technologies under development by Biofluid Technology, Inc. are investigational. They have not been cleared or approved by the U.S. Food and Drug Administration and are not currently intended for diagnostic or clinical use.
Disclaimer: The medical devices described herein are limited by federal (U.S.) law to investigational use. They have not yet been approved for clinical diagnostic application.
About Us
BioFluid Technology is a development-stage medical device company established in 2010. Based on technology and expertise from scientists at the University of Pennsylvania, BioFluid Technology is focused on the research and development of patented physiologic measurement and diagnostic-enabling technologies designed to characterize the physical properties and flow characteristics of biological fluids.
Contact Us
BioFluid Technology Inc.
337 Fishers Road
Bryn Mawr, PA 19010
(610) 527-4530
Preferred Contact:
reuben.kron@biofluidtechnology.com
References

Urological Cystometry
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Noninvasive techniques for the measurement of isovolumetric bladder pressure. Blake C, Abrams P. J Urol. 2004 Jan;171(1):12-9.
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Noninvasive methods of diagnosing bladder outlet obstruction in men. Part 2: Noninvasive urodynamics and combination of measures. Belal M, Abrams P. J Urol. 2006 Jul;176(1):29-35.
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Positioning invasive versus noninvasive urodynamics in the assessment of bladder outlet obstruction. Arnolds M, Oelke M. Curr Opin Urol. 2009 Jan;19(1):55-62.
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Review of invasive urodynamics and progress towards non-invasive measurements in the assessment of bladder outlet obstruction. Griffiths CJ, Pickard RS. Indian J Urol. 2009 Jan;25(1):83-91.
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Non-invasive urodynamics predicts outcome prior to surgery for prostatic obstruction. Losco G, Keedle L, King Q. BJU Int. 2013 Nov;112 Suppl 2:61-4.
Cardiovascular Viscometry
Viscometry and COVID-19
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Maier, CL., Truong, AD., Auld, SC., Polly, DM., Tanksley, CL., Duncan, A. COVID-19-associated hyperviscosity: a link between inflammation and thrombophilia? Lancet. 2020, Jun 6;395(10239):1758-1759
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Ahmed, S., Zimba, O., Gasparyan, AY. Thrombosis in Coronavirus Disease 2019 (COVID-19) through the prism of Virchow's triad Clin Rheumatol 2020, Sep;39(9):2529-2543.
(under development)
Specialty Areas
Urology
Hematology
Rheumatology
Laboratory Medicine
Internal Medicine
Primary Care
Infectious Disease
Cardiovascular Disorders