Journal of Food Processing & Technology

Food Quality: Role of Microneedle Technology in Modern Analytical Practices

Havet Ildephonse^* Department of Food Quality, University of Zagreb, Zagreb, Croatia
^*Correspondence: Havet Ildephonse, Department of Food Quality, University of Zagreb, Zagreb, Croatia, Email:

Received: 29-Mar-2024, Manuscript No. JFPT-24-25775; Editor assigned: 01-Apr-2024, Pre QC No. JFPT-24-25775 (PQ); Reviewed: 15-Apr-2024, QC No. JFPT-24-25775; Revised: 22-Apr-2024, Manuscript No. JFPT-24-25775 (R); Published: 29-Apr-2024, DOI: 10.35248/2157-7110.24.15.1102

Description

Food quality assurance is a critical aspect of the modern food industry, ensuring that the products reaching consumers are safe, nutritious, and of high quality. Traditional methods of quality control often involve destructive sampling and extensive laboratory testing, which can be time-consuming and costly. Recent advancements, however, are prepare for more efficient and less invasive techniques. One such promising innovation is the integration of microneedle technology with advanced analytical methods, which holds the potential to revolutionize food quality assurance [1-3].

Food quality assurance

The primary goal of food quality assurance is to ensure that food products meet regulatory standards and consumer expectations regarding safety, nutrition, and sensory qualities. This involves monitoring for contaminants, verifying ingredient authenticity, and assessing the overall quality of the food. Traditional methods typically involve taking samples from batches of products and analyzing them in a laboratory setting. While effective, these methods can be invasive, destroying the sample, and may not provide real-time data [4].

Microneedle technology: Advance in non-invasive sampling

Microneedles are tiny, needle-like structures that can penetrate surfaces to a minimal depth, enabling the extraction of small quantities of material without causing significant damage. Originally developed for medical applications, such as drug delivery and diagnostics, microneedle technology is now being explored for its potential in food quality assurance. Microneedles can be fabricated from various materials, including metals, polymers, and ceramics, and can be designed to have different shapes and sizes depending on the application. When applied to a food product, microneedles can extract samples of fluids or tissues without compromising the integrity of the food item. This non-invasive sampling method is particularly advantageous for quality assurance, as it allows for continuous monitoring without destroying the product [5,6].

Integrating microneedle technology with advanced analytical methods

The integration of microneedle technology with advanced analytical methods can significantly enhance food quality assurance processes. Here are some key ways this integration can be achieved:

Real-time monitoring: One of the most significant advantages of using microneedle technology in food quality assurance is the ability to perform real-time monitoring. Microneedles can be combined with sensors and analytical devices to provide immediate feedback on various quality parameters, such as pH, moisture content, and the presence of contaminants. For instance, electrochemical sensors integrated with microneedles can detect specific pathogens or chemical residues directly within the food matrix, providing rapid results that can inform timely decision-making [7].

Non-destructive testing: Traditional quality assurance methods often require the destruction of samples, which is not only wasteful but also limits the amount of testing that can be performed. Microneedles, on the other hand, allow for non- destructive testing. This means that food products can be tested multiple times throughout their shelf life, ensuring consistent quality without waste. For example, in the case of fruits and vegetables, microneedles can be used to monitor ripeness and detect early signs of spoilage without damaging the produce [8].

High sensitivity and specificity: Advanced analytical methods, such as mass spectrometry and chromatography, when combined with microneedle sampling, can offer high sensitivity and specificity in detecting contaminants and adulterants. Microneedles can extract minute samples that are then analyzed using these sophisticated techniques, enabling the detection of trace amounts of harmful substances, such as pesticides or heavy metals. This high level of sensitivity is critical for ensuring the safety and compliance of food products with regulatory standards [9,10].

Automation and high throughput: The integration of microneedle technology with automated analytical systems can lead to high-throughput screening of food products. Robotic systems equipped with microneedles can sample multiple products simultaneously and deliver the samples to analytical instruments for rapid analysis. This approach can significantly reduce the time and labor required for quality assurance, making it more efficient and cost-effective. For large-scale food manufacturers, this can translate into substantial savings and improved quality control.

The integration of microneedle technology with advanced analytical methods in food quality assurance holds great promise, but it also presents several challenges. One of the primary challenges is the development of microneedles that are suitable for different types of food products, each with unique physical and chemical properties. Additionally, ensuring the accuracy and reliability of the sensors and analytical methods used in conjunction with microneedles is crucial for the success of this technology. Research and development efforts are ongoing to address these challenges and to further refine the applications of microneedle technology in food quality assurance.

References

1. Martins ZE, Pinho O, Ferreira IM. Food industry by-products used as functional ingredients of bakery products. Trends Food Sci. 2017;67(1):106-128.

   [Crossref] [Google Scholar]

2. Nawaz F. Bakery industry in India needs improvements in hygiene and technology. 2019.

   [Google Scholar]

3. Hui YH, Corke H, De Leyn I, Nip WK, Cross NA. Bakery products: science and technology. John Wiley & Sons. 2008.

   [Crossref] [Google Scholar]

4. Alashbayeva L, Shansharova D, Mynbayeva A, Borankulova A, Soltybayeva B. Development of technology for bakery products. Food Science and Technology. 2021;41(1):775-81.

   [Google Scholar]

5. Perez-Hidalgo MA, Guerra-Hernández E, Garcia-Villanova B. Dietary fiber in three raw legumes and processing effect on chick peas by an enzymatic-gravimetric method. J Food Compos Anal. 1997;10(1):66-72.

   [Crossref] [Google Scholar]

6. Koubaier HB, Snoussi A, Essaidi I, Chabir M, Bouzouita N. Cake quality evaluation made of wheat–lentil flour blends. J New Sci. 2015.

   [Google Scholar]

7. WHO/FAO. Diet, nutrition and the prevention of chronic diseases. Report of a WHO/FAO expect consultation. World Health Organization Technical report series, WHO Geneva. 2003.

   [Crossref] [Google Scholar]

8. Ramzi M, Haghpanah S, Malekmakan L, Cohan N, Baseri A, Alamdari A. Anemia and iron deficiency in adolescent school girls in kavar urban area, southern iran. Iran Red Crescent Med J. 2011;13(2):128.

   [Google Scholar]

9. Killip S, Bennett JM, Chambers MD. Iron deficiency anemia. Am Fam Physician. 200;75(5):671-678.

   [Crossref] [Google Scholar]

10. Kanojia S. Development of value-added cookies incorporated with Spirulina platens is for the mitigation of malnutrition in children. Agriculture. 2022;5(1):102-108.

    [Google Scholar]