OOIR: Observatory of International Research

Papers

(The H4-Index of Analyst is 28. The table below lists those papers that are above that threshold based on CrossRef citation counts [max. 250 papers]. The publications cover those that have been published in the past four years, i.e., from 2021-04-01 to 2025-04-01.)

Article	Citations
Contents list	90
Self-service aptamer-free molecularly imprinted paper-based sensor for high-sensitivity visual detection of influenza H5N1	69
Contents list	68
Curcumin/kaolin composite for advanced latent fingerprint imaging with fluorescence quantification	62
A mitochondria-targeted iridium(iii) complex-based sensor for endogenous GSH detection in living cells	61
Rapid identification of pathogenic bacteria from clinical positive blood cultures via virus-like magnetic bead enrichment and MALDI-TOF MS profiling	59
Outstanding Reviewers for Analyst in 2023	58
Voltammetry of monovalent cations at the 2D/3D water interface formed by using a slit-like graphene-membrane nanofluidic device	57
A steam-mediated isothermal amplification and flocculation-based detection platform for electricity-free point of care diagnostics	55
PET-based aqueous-stable two-phase perovskite nanoprobe for quantification of capsaicin in food samples	46
Surface plasmon resonance aptasensor for soluble ICAM-1 protein in blood samples	45
Molecularly imprinted electrochemical aptasensor based on functionalized graphene and nitrogen-doped carbon quantum dots for trace cortisol assay	39
Enhanced TNT vapor sensing through a PMMA-mediated AIPE-active monocyclometalated iridium(iii) complex: a leap towards real-time monitoring	38
Inside front cover	36
Contents list	36
Small-molecule fluorescent probes for bioactive species in inflammatory disease: arthritis, pneumonia and hepatitis	36
Front cover	35
Back cover	35
Contents list	35
Contents list	35
Front cover	34
Inside front cover	34
Back cover	32
Back cover	32
Back cover	32

Front cover	31
Back cover	31
Back cover	28
Contents list	28
Contents list	28
Identifying the grade of bladder cancer cells using microfluidic chips based on impedance	28