
Microplastics Laboratory Sampling & Analysis
Olympian Water Testing is your NY, NJ & CT leading microplastics laboratory expert. On the forefront of waterborne microplastics for 35 years, we provide advanced microplastics drinking water tests via Polymerase Chain Reaction (PCR).
How Microplastics Enter Tap Water
On Site
Water Testing
Services
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Why Choose Olympian™ for Water Testing

Expertise and Experience
Our team of experienced scientists and technicians are experts in the field of microplastics testings. Their extensive knowledge and dedication to high standards guarantee that your water is tested by the best in the industry.

Accuracy and Precision
Our state-of-the-art partner laboratories and advanced analytical techniques, such as FTIR and SEM, ensure that our microplastics detection is highly accurate and precise. This means you can trust your results to be reliable and detailed.

Quick
Turnaround
We understand the urgency of identifying contamination, so we offer a fast and efficient testing process. Our streamlined procedures ensure you receive your comprehensive report promptly without sacrificing quality.

Accredited Laboratory Testing
Our microplastics in drinking water testing services are conducted in accredited laboratories that adhere to the highest standards of quality and precision. These labs are recognized for their rigorous testing protocols and commitment to excellence.

Best Price Guarantee
We offer competitive pricing for our high-quality services, ensuring you receive the best value for your investment in water safety. Our transparent pricing structure means no hidden fees, providing cost-effective solutions for all your testing needs.
Microplastics size
Microplastics are generally defined as polymeric particles between 1µm to 5000µm (5 mm) in size in any one dimension, present in waste water, rivers, lakes and oceans. Due to the small size, they may not be easily removed during the waste water filtration processes and can enter the ecosystem, negatively impacting the environment. The common sources of microplastics are: additives in personal care products, synthetic fibers, resin pellets, tire recycling, medical products, abrasion and exfoliating beads used in furniture and insulation, fragments of larger plastic items as they degrade from the effects of ultraviolet rays and other weathering factors. Microplastics can potentially leach toxic chemicals, including endocrine disruption chemicals, such as bisphenol A and phthalates.

Small Microplastic
1 µm

E.coli Bacteria
2 µm

Sand Granule
100 µm

1 Cent Coin Thick
2000 µm (2mm)

Sesame Seed
5000 µm (5mm)

Big Microplastic
5000 µm (5mm)
Figure 1: Microscopic image of 100ml filtered laboratory prepared particle free water used for sample preparation, filter rinse and glassware cleaning. No microplastic particles are detected.
| Analyte | Particle Free Laboratory Water |
|---|---|
| Target Concentration | 0 microplastic particles/ml |
| Measured Concentration | 0 microplastic particles/ml |
| Acceptance Criteria | 0 microplastic particles/ml |
| Analyte | NIST p-styrene spheres (10μm nominal diameter) |
|---|---|
| Target Concentration | 6176 particles/ml |
| Measured Concentration | 6012 particles/ml |
| Percent Recovery (PR) | 97.3% |
| Acceptance Criteria | +10% (PR) (90-110%) |
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FAQs
The most common method for detecting and analyzing microplastics in drinking water involves a combination of filtration, microscopy, and spectroscopic techniques. The process typically begins with collecting water samples, which are then filtered through fine mesh filters to capture particles. After filtration, the retained particles are examined under a microscope to identify and count potential microplastics based on their size, shape, and color.
To confirm the plastic nature and determine the polymer type of these particles, spectroscopic methods such as Fourier Transform Infrared (FTIR) spectroscopy or Raman spectroscopy are employed. These techniques provide molecular-level information by analyzing the vibrational characteristics of the particles, allowing precise identification of the polymers. This combination of filtration, microscopy, and spectroscopy is widely regarded as a reliable and comprehensive approach for microplastics detection and analysis in drinking water.
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