Honey jar with NMR spectrum lines swirling around, bees examining the spectrum.

Is Your Honey Real? How NMR Technology Can Help You Avoid Counterfeit Honey

Samir D’Costa monogram
Samir D’Costa in Science & Nature November 2026 • 4 min read.

"Discover how NMR metabolomics can differentiate between organic and conventional Italian honey, ensuring you're getting the real deal and avoiding fraudulent products."


Honey, a beloved natural product recognized for its numerous health benefits, has seen a surge in popularity, particularly in organic varieties. As organic agriculture gains traction, impacting social and political perspectives, the demand for organic honey has grown significantly. However, this increased demand has also led to concerns about the authenticity and quality of honey available on the market.

The rise of counterfeit honey poses a significant challenge to consumers and producers alike. Distinguishing between genuine organic honey and conventional or even fraudulent products has become increasingly difficult. Traditional methods of honey analysis often fall short in detecting subtle differences in composition, leaving consumers vulnerable to deception.

Nuclear Magnetic Resonance (NMR) spectroscopy emerges as a powerful tool in the fight against honey fraud. This advanced analytical technique offers a unique approach to differentiate between organic and conventional Italian honey by examining their metabolomic profiles. By identifying key metabolites and employing sophisticated chemometric analysis, NMR provides a reliable means of verifying the authenticity and origin of honey.

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NMR as a Multi-Parameter Honey Test

NMR spectroscopy is described as a widely accepted, promising method for honey analysis because it can classify botanical and geographical origins while quantifying multiple quality parameters in one experiment. A 2023 screening protocol analyzed the 1H NMR spectrum of a chloroform extract and used two parameters—the entomological factor (EF) and aromatic factor (AF)—without requiring detailed identification of marker signals. A 2026 review reports that NMR combined with chemometric tools has shown versatility and precision for honey authentication and classification. A review of 17 techniques, including NMR, also considered the advantages and disadvantages of analytical methods for detecting honey adulterants.

NMR-Based Metabolomics: A New Approach to Honey Authentication

Honey jar with NMR spectrum lines swirling around, bees examining the spectrum.

A recent study delved into the application of NMR spectroscopy combined with chemometrics to tackle the critical issue of distinguishing between organic and conventional Italian honeys. The research meticulously analyzed various types of Italian honey, including polyfloral, chestnut, and acacia varieties, to pinpoint the unique characteristics of each. By focusing on water-soluble compounds and leveraging orthogonal signal correction (OSC) filters, the study successfully identified key metabolites responsible for differentiating honey samples.

NMR spectroscopy works by exploiting the magnetic properties of atomic nuclei. When a sample is placed in a strong magnetic field and exposed to radio waves, the nuclei absorb energy and resonate at specific frequencies. These frequencies provide a wealth of information about the molecular composition of the sample. In the context of honey analysis, NMR can identify and quantify a wide range of metabolites, including sugars, organic acids, amino acids, and other compounds that contribute to the unique characteristics of honey.

  • Succinate and Acetate: These were found to be common compounds in conventional honey samples, acting as markers for their non-organic origin.
  • Kynurenate: Organic chestnut honeys displayed higher levels of kynurenate, setting them apart from their conventional counterparts.
  • HMF Content: The NMR analysis also quantified hydroxymethylfurfural (HMF), an indicator of honey freshness. The results confirmed that HMF levels in all samples were well below the acceptance limit, indicating good quality and freshness.
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Reviews Put Honey-Test Reports in Context

A review on honey authenticity summarizes recent reviews of adulteration and detection techniques, then examines analytical reports underlying a media article from late 2020. That article alleged foreign sugars in UK retailers’ own-brand honeys. The source frames its contribution as assessing the analytical reports in light of the wider review literature.

NMR and NIR Address Authentication Differently

A November 2025 article highlights a practical mini-tutorial on near-infrared (NIR) spectroscopy for honey authentication and quality assessment. It describes NIR as a fast, non-destructive tool for food-quality labs. Separately, a November 2024 article reports that NMR has proved effective at uncovering a wide range of adulteration methods by testing multiple parameters.

A Narrow Precedent in Greek Honey Research

A 2022 review reports that only one prior study had assessed the quality and authenticity of Greek honey using NMR spectroscopy. That study was limited to the sugar portion of the honey and determination of its chemical composition. The source identifies this as a narrow precedent for NMR-based Greek honey assessment.

The study's findings highlight the potential of NMR-based metabolomics as a robust and reliable method for honey authentication. By identifying key metabolites and employing statistical analysis, NMR can effectively differentiate between organic and conventional honey, providing consumers and producers with a valuable tool for verifying the authenticity and origin of honey products.

Protecting Consumers and Preserving Authenticity

The application of NMR technology offers a promising avenue for ensuring the authenticity and quality of honey. As concerns about counterfeit honey continue to grow, NMR-based metabolomics provides a reliable means of distinguishing between genuine organic and conventional products. By empowering consumers with knowledge and providing producers with a tool for verifying their products, NMR technology can play a crucial role in protecting the integrity of the honey market and preserving the trust of consumers.

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Honey’s Chemical Fingerprint

Bruker describes high-resolution 1H-NMR profiling as analysis of honey’s chemical fingerprint, which it says is unique to each batch. The company also presents NMR as a tool for detecting added sugars, identifying geographic origins, and analyzing honey’s chemical profile. It characterizes these capabilities as relevant to preventing food fraud and adulteration and to maintaining food-industry integrity.

Floral and Bee Signals Help Check Origin

A study of an automatic NMR-based protocol reports that 1H NMR analysis of honey’s organic extracts can help confirm botanical origin because floral typologies have specific signals. The study also reports that signals from bee metabolites can help verify the honey’s entomological origin. It presents these signals as the basis for a screening method, while noting that detailed analysis is not required.

How honey-authentication results compare

A spot check of commercial honeys found questionable authenticity in 27% of samples, while an EU control plan found 14% did not meet authenticity benchmarks. These figures come from different checks and criteria, so they are not a direct measure of change over time.[1] [2]

NMR with multivariate analysis detected bee feeding with reported accuracies of 95.2% for one-dimensional and 90.5% for two-dimensional analysis in a set of honey samples and syrups. This addresses a specific form of adulteration, rather than establishing performance for every honey-authentication question.[3]

A brown-rice-syrup test quantitatively detected adulteration down to 5 wt%, while a barley-malt-syrup profiling approach identified additions at 5–10% in spiking studies. Those results concern different syrups and approaches, so their thresholds should not be treated as interchangeable.[1] [4]

What the reported detection figures measure

  • 65.8 % correct classificationIn a regional-origin test, five physicochemical measurements classified samples from five regions with 65.8% correctness. This shows that a small set of measurements can separate some origins, but the reported figure leaves a substantial share classified incorrectly.[5]

Reading the authentication evidence

The evidence describes several distinct tasks: identifying syrup addition, detecting bee feeding, and sorting honey by origin. A strong result for one task does not by itself establish the same reliability for the others.[1] [3] [5]

Chemical-profile comparison can reveal deviations even when individual testing parameters have been manipulated, but NMR’s sensitivity is insufficient for some foreign-sugar detection. A more sensitive mass-spectrometry approach was used for rice, beet, and high-fructose corn syrup, underscoring that methods can complement rather than replace one another.[6] [7]

What honey testing still needs to establish

  • How well does NMR profiling detect added sugars beyond the mannose marker on which the method was tested? The available evidence says fitness for that purpose still requires confirmation.[8]

Sources

  1. api.research-repository.uwa.edu.au (api.research-repository.uwa.edu.au)
  2. EU coordinated action to deter certain fraudulent practices in the honey sector - Publications Office of the EU(Abre una nueva ventana) (op.europa.eu)
  3. Honey authenticity: the opacity of analytical reports - part 1 defining the problem (pmc.ncbi.nlm.nih.gov)
  4. Detection of barley malt syrup as an adulterant in honey by 1H NMR profile. (pubmed.ncbi.nlm.nih.gov)
  5. Honey authenticity: analytical techniques, state of the art and challenges (pmc.ncbi.nlm.nih.gov)
  6. NMR reference database for authenticity control of honey: Max Rubner-Institut (www.mri.bund.de)
  7. Detection of Sugar Syrups in Honey Using Untargeted Liquid Chromatography–Mass Spectrometry and Chemometrics (pmc.ncbi.nlm.nih.gov)
  8. www.europarl.europa.eu (www.europarl.europa.eu)

About this Article -

Written with AI assistance from published research, and reviewed by the Mystum team. See our About page for more information.

Everything You Need To Know

1

What exactly is Nuclear Magnetic Resonance (NMR) spectroscopy and how does it work?

The process of Nuclear Magnetic Resonance (NMR) spectroscopy exploits the magnetic properties of atomic nuclei. When a honey sample is placed in a strong magnetic field and exposed to radio waves, the nuclei absorb energy and resonate at specific frequencies. These frequencies provide information about the molecular composition of the honey. In this context, NMR can identify and quantify metabolites like sugars, organic acids, and amino acids, which contribute to the unique characteristics of honey.

2

Why is it so difficult to identify counterfeit honey, and how does Nuclear Magnetic Resonance (NMR) technology help?

Counterfeit honey poses a significant challenge because it can be difficult to distinguish between genuine organic honey and conventional products using traditional methods. Nuclear Magnetic Resonance (NMR) spectroscopy, combined with chemometric analysis, addresses this by examining the metabolomic profiles of honey. This advanced technique allows for the identification of key metabolites that differentiate between organic and conventional honey. This differentiation helps protect consumers from fraudulent products and ensures they are receiving the authentic honey they expect.

3

What makes NMR-based metabolomics an important tool for honey authentication?

NMR-based metabolomics is important because it offers a robust and reliable method for honey authentication. By identifying key metabolites, such as Succinate and Acetate (found in conventional honey) and Kynurenate (found in organic chestnut honey), and employing statistical analysis, NMR can effectively differentiate between organic and conventional honey. This empowers consumers to make informed choices and provides producers with a tool to verify their products, protecting the integrity of the honey market.

4

What were the key findings regarding the specific metabolites in the different honey samples?

In the study, key metabolites like Succinate and Acetate were found to be common in conventional honey. Kynurenate levels were higher in organic chestnut honeys. The study also quantified Hydroxymethylfurfural (HMF), an indicator of honey freshness, which was found to be within acceptable limits in all samples. These findings are significant because they demonstrate the ability of Nuclear Magnetic Resonance (NMR) technology to identify specific markers that distinguish between different types of honey and assess its quality.

5

What are the implications of using Nuclear Magnetic Resonance (NMR) technology in the context of honey authenticity?

The implications of using Nuclear Magnetic Resonance (NMR) technology are significant for both consumers and producers. For consumers, it offers a way to verify the authenticity of the honey they purchase, ensuring they get what they pay for and protecting them from fraudulent products. For producers, it provides a tool to prove the quality and origin of their honey, enhancing their credibility and competitiveness in the market. Ultimately, NMR technology helps preserve the integrity of the honey market and the trust between consumers and producers.

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