Kâğıt Tabanlı Mikro Akışkan Kolorimetrik Sensör Sistemleri
Kimyasal sensör sistemleri, bilim ve teknolojideki ilerlemenin güzel bir örneği olarak karşımıza çıkan multidisipliner bir alandır. Kimyasal sensörler, algılayıcı tabaka, iletim sistemi ve sinyal okuma sistemlerinin entegre halde bulunduğu analitik cihazlardır. Hassasiyeti ve seçiciliği yüksek, düşük maliyetli, kullanımı kolay, taşınabilirlik gibi kriterlere sahip olmak zorundadır. Kriterleri sağlayabilmek için temel bilim ve mühendislikten faydalanılmaktadır. Multidisipliner çalışmaların ürünü ve sensör sistemlerinde büyük avantaj sağlayan önemli yapılardan biri de mikro akışkan sistemlerdir. Mikro akışkan sistemler, polidimetilsiloksan (PDMS), cam, kâğıt gibi farklı malzeme türleriyle 100 nm-100 µm arasında değişebilen kanal yapıların üretilebilme teknolojisidir. Her malzemenin kendine has avantaj ve dezavantajı bulunmakla beraber Whitesides Grubu’nun 2007 yılında Kâğıt Tabanlı Mikro akışkan (µPAD) Sensörlerle yapmış olduğu çığır açıcı çalışmalarla, μPAD kimyasal sensörlerin giyilebilir, klinik, gıda ve çevre gibi farklı alanlarda uygulamalarının her geçen gün arttığı görülmektedir. Bu derleme makalede, kâğıt tabanlı mikro akışkan sistemlerin tarihçesi, kâğıdın desenlendirmesi ve kimyasal sensör uygulamaları aktarılmaktadır.
Anahtar Kelimeler:
Kâğıt, Mikro akışkan, Kimyasal Sensör, Biyosensör, Kolorimetrik.
Paper Based Microfluidic Colorimetric Sensor Systems
Chemical sensor systems is a multidisciplinary field that stands out as a good example of progress in science and technology. Chemical sensors are analytical devices in which the sensing layer, transmission system and signal reading systems are integrated. It has to have criteria such as high sensitivity and selectivity, low cost, easy to use, portability. Basic science and engineering are used to meet the criteria. One of the important structures that provide great advantages in sensor systems and the product of multidisciplinary studies is microfluidic systems. Microfluidic systems are the technology of producing channel structures ranging from 100 nm to 100 µm with different material types such as polydimethylsiloxane (PDMS), glass, and paper. Although each material has its own advantages and disadvantages, it is seen that the applications of μPAD chemical sensors in different fields such as wearable, clinical, food and environment are increasing day by day with the breakthrough studies carried out by the Whitesides Group with Paper-Based Microfluidic (µPAD) Sensors in 2007. In this review article, the history of paper-based microfluidic systems, patterning of paper and chemical sensor applications are presented.
Keywords:
Paper, Microfluidics, Chemical Sensors, Biosensors, Colorimetric.,
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- ISSN: 2667-8764
- Başlangıç: 2019
- Yayıncı: Selim TAŞKAYA
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