Non-enzymatic electrochemical detection of H2O2 by assembly of CuO nanoparticles and black phosphorus nanosheets for early diagnosis of periodontitis

Mechanochemical synthesis of an AIE-TICT-ESIPT active orange-emissive chemodosimeter for selective detection of hydrogen peroxide in aqueous media and living cells, and solid-phase quantitation using a smartphone

“…Thus, the probe, BTPAB, was synthesized by all-throughout mechanochemistry in a simple, green and economical manner with a good overall yield avoiding any work-up steps. The probe BTPAB and its intermediates were characterized by 1 H and 13 C NMR, and HR-MS. Next, the photophysical behavior of the fluorescent azine-based AIEgen, BTPA was extensively studied before studying sensing events using its protected form, BTPAB.…”

“…The United States Environment Protection Agency (US-EPA) has set a maximum permissible limit of up to 50 ppm for H 2 O 2 in drinking water. 11 To date, many tools have been developed to detect H 2 O 2 , such as electrochemical methods, [12][13][14] spectrophotometry, 15,16 chromatography, 17,18 and so on. [19][20][21] However, many of them are not viable for portable use due to shortcomings like the high cost of equipment, the tedious analytical procedure, or time-consuming detection processes.…”

ZnO@C Microballs Wrapped with Ni(OH)2 Nanofilms for Electrochemical Sensing of Glucose and Hydrogen Peroxide

“…[10,13] Typically, controlled shape metal oxide/hydroxide nano/ microstructures are considered an auspicious choice to construct enzyme-free electrodes for electrochemical sensing of glucose and H 2 O 2 . [14][15][16][17][18] In this regard, controlled shape metal oxide nano/micro architectures, such as cuprous oxide (Cu 2 O), [13,19,20] nickel oxide (NiO), [21] cupric oxide (CuO), [22] zinc oxide (ZnO), [15,23] iron ferrite (Fe 3 O 4 ), [7,14] and cobalt oxide (CoO) [24] have been designed for efficient monitoring of glucose or H 2 O 2 . Typically, semiconductor ZnO nano/micro materials with controlled morphology could be promising to design efficient electrochemical sensors owe to their distinctive characteristics, including high surface area, good adsorption capacity, chemical stability, and biocompatibility.…”

Synthesis and Characterization of CuO@PANI composite: A new prospective material for electrochemical sensing

“…Hence, The NPs-modified electrode enhanced signal responsiveness, sensitivity, and repeatability [23][24][25][26][27], and it has several bioscience applications.Furthermore, the characteristics of composite materials are determined by the morphology of the phases, which must be regulated across many length scales [25][26][27][28]. As a result, the creation of such materials is a "land of multidisciplinarity", requiring chemists, physicists, material scientists, and engineers to collaborate together.CuO NPs have been popular in bio-electrochemical and electrochemical operations in recent years due to their capacity to promote electron transmission in various types of sensors [29][30][31][32] and update the electrode surface in batteries and supercapacitors [33][34][35][36]. CuO NPs can be used in electronics, coatings, ceramics, catalysis, petrochemical products, and a variety of other applications.…”

“…CuO NPs have been popular in bio-electrochemical and electrochemical operations in recent years due to their capacity to promote electron transmission in various types of sensors [29][30][31][32] and update the electrode surface in batteries and supercapacitors [33][34][35][36]. CuO NPs can be used in electronics, coatings, ceramics, catalysis, petrochemical products, and a variety of other applications.…”