Biosensing extracellular vesicles: contribution of biomolecules in affinity-based methods for detection and isolation
文献情報
A. Thuaire, G. Nonglaton, Y. Roupioz, C. Raillon
Extracellular Vesicles (EVs) are lipid vesicles secreted by cells that allow intercellular communication. They are decorated with surface proteins, which are membrane proteins that can be targeted by biochemical techniques to isolate EVs from background particles. EVs have recently attracted attention for their potential applications as biomarkers for numerous diseases. This review focuses on the contribution of biomolecules used as ligands in affinity-based biosensors for the detection and isolation of EVs. Capturing biological objects like EVs with antibodies is well described in the literature through different biosensing techniques. However, since handling proteins can be challenging due to stability issues, sensors using non-denaturable biomolecules are emerging. DNA aptamers, short DNA fragments that mimic antibody action, are currently being developed and considered as the future of antibody-like ligands. These molecules offer undeniable advantages: unparalleled ease of production, very high stability in air, similar affinity constants to antibodies, and compatibility with many organic solvents. The use of peptides specific to EVs is also an exciting biochemical solution to target EV membrane proteins and complement other probes. These different ligands have been used in several types of biosensors: electrochemical, optical, microfluidic using both generic probes (targeting widely expressed membrane proteins such as the tetraspanins) and specific probes (targeting disease biomarkers such as proteins overexpressed in cancer).
関連文献
Synthesis of a tweezer-like bis(arylthiaalkoxy)calix[4]arene as a cation sensor for ion-selective electrodes: an investigation of the influence of neighboring halogen atoms on cation selectivity‡
Xianshun Zeng, Langxing Chen, Xuebing Leng, Fengbo Xu, Qinshan Li, Xiwen He, Wenqin Zhang, Zheng-Zhi Zhang
DOI: 10.1039/B211381C
A general microcantilever surface modification method using a multilayer for biospecific recognition
Xiaodong Yan, Yuri Lvov, Hai-Feng Ji, Alok Singh, Thomas Thundat
DOI: 10.1039/B209944F
Manganese catalyzed N-alkylation of anilines with alcohols: ligand enabled selectivity
Vinod G. Landge, Akash Mondal, Vinit Kumar, Avanashiappn Nandakumar, Ekambaram Balaraman
DOI: 10.1039/C8OB01886C
Catalyst-free 1 : 2 annulation of quinolines with trifluoroacetylacetylenes: an access to functionalized oxazinoquinolines
K. V. Belyaeva, L. P. Nikitina, A. V. Afonin, A. V. Vashchenko, V. M. Muzalevskiy, V. G. Nenajdenko, B. A. Trofimov
DOI: 10.1039/C8OB02379D
Development of β-keto 1,3-dithianes as versatile intermediates for organic synthesis
Matthew J. Gaunt, Helen F. Sneddon, Peter R. Hewitt, Paolo Orsini, David F. Hook, Steven V. Ley.
DOI: 10.1039/B208982C
Dirhodium(ii)-catalyzed ortho C–H amination of sterically congested N,N-dialkylanilines
Motoki Ito, Tomoya Nakagawa, Kazuhiro Higuchi, Shigeo Sugiyama
DOI: 10.1039/C8OB01974F
Transition metal free decarboxylative fluoroalkylation of N-acrylamides with 3,3,3-trifluoro-2,2-dimethylpropanoic acid (TFDMPA)
Yingkun Shi, Hongqing Xiao, Xiu-Hua Xu, Yangen Huang
DOI: 10.1039/C8OB02457J
Preparation and use as spin trapping agents of new ester-nitrones
Ahmad Allouch, Valérie Roubaud, Robert Lauricella, Jean-Claude Bouteiller, Béatrice Tuccio
DOI: 10.1039/B210035E
Synthesis of stereochemically-biased spiropyrans by microwave-promoted, one-pot alkylation–condensation
Alexis Perry, Kane Davis, Lara West
DOI: 10.1039/C8OB01996G
Inherently chiral cone-calix[4]arenes via a subsequent upper rim ring-closing/opening methodology
José Augusto Berrocal, Matthew B. Baker, Laura Baldini, Alessandro Casnati, Stefano Di Stefano
DOI: 10.1039/C8OB01813H
こちらもおすすめ
N,N-二乙基-4-ブロモナフサルレン-1-カルボニルアミドはどのように合成されますか?
N,N-二乙基-4-ブロモナフサルレン-1-カルボニルアミドは、4-ブロモナフサルビンとN,N-ジエチルアミド基を有する反応物を用いて合成されます。触媒の使用は...
大黄酚-8-O-葡萄糖苷の市場動向や研究トレンドはどうですか?
大黄酚-8-O-葡萄糖苷の市場は、医薬品、機能食品、研究化学物質としての需要が高まっています。特に、その抗炎症作用や抗ウイルス作用に関する研究が増えています。価...
アトラキュリウム不純物5塩酸塩の物理化学的性質は何ですか?
アトラキュリウム不純物5塩酸塩のCAS番号は2048273-58-9です。この化合物は結晶性であり、分子量は約435.4 g/molです。水に溶けやすく、反応性...
2-イソブチルシクロヘキサン酮とは何ですか?
2-イソブチルシクロヘキサン酮は、CAS番号39207-65-3の化合物で、化学式はC11H20Oです。この化合物は、有機合成化学において重要な原料として使用さ...
2-溴-6-甲基烟酸を取り扱う際の実験室安全事項は何ですか?
この化合物は毒性と刺激性があります。密閉されたドラフトチャンバー内で処理し、PPE(ゴーグル、手袋)を使用してください。漏洩時は即座に通気し、適切な漏洩処理材を...
6-アミノニコニタルデオキシド塩化水和物の物理化学的性質は何ですか?
6-アミノニコニタルデオキシド塩化水和物のCAS番号は1588441-31-9です。この化合物は結晶性粉末で、分子量は220.63 g/molです。水に溶けやす...
塩酸中毒藜碱はどのように合成されますか?
塩酸中毒藜碱は、ピペリジンとピリジンの反応により合成されます。具体的には、ピペリジンとピリジンを反応させ、塩基触媒を使用してピペリジン環内 enters 3-ピ...
Methyl 4-(6-formyl-2-pyridinyl)benzoateに適用される法規ガイドラインは何ですか?
この化合物はCAS番号834884-81-0で、GHS分類では高毒性の危険性を持つと見なされます。REACH規則では登録が求められ、FDA/EPAでは環境、健康...
1-エチynyル-3-(三氟甲氧基)ベンゼンについて「に適用される法規ガイドラインは何ですか」
CAS番号 866683-57-0の1-エチynyル-3-(三氟甲氧基)ベンゼンは、GHS分類では易燃性化学品が該当し、REACH規則では特定の危険性を評価する...
メチル2-ブロモイソニコネートの代替品はありますか?
メチル2-ブロモイソニコネートの代替品には、メチルイソニコネートや他のブロモ化合物が含まれます。これらの代替物は、特定の用途に応じて選択されます。
掲載誌
Analyst

Analyst publishes analytical and bioanalytical research that reports premier fundamental discoveries and inventions, and the applications of those discoveries, unconfined by traditional discipline barriers.














