synthesis, computational structural data, experimental studies of novel abpbcc material for sensor, tribological and anti-diabetics applications

Geometries and vibrational frequencies of 2-amino-4-(4-benzyloxyphenyl)-5,10-dioxo-5,10-dihydro-4h-benzo[g]chromene-3-carbonitrile (abpbcc) in the ground state were determined through quantum based chemically referred computational outcomes. the density functional theory method was employed, along with the 6–31g (d, p) and 6–311g++ (d, p) basis sets. the abpbcc spectroscopic computations are confirmed by utilizing gaussian 16w to optimize the structure and bond parameter investigation. the macro-abpbcc is analyzed for morphological behavior using sem with 100 micrometer scaling and no flaws. the specific representation of application in electronic field by electronic filters used by macro-scaled abpbcc is 4.7966 microns for the optoelectronic filtering setup as incoming data; the voltage regulated outcome by using a zener diode shows 12% increase compared to the normal case for veneered abpbcc. the m8 thread of tribological source compared with uncoated and coated surfaces and is with veneered abpbcc, showing 2.25% increased output for wear and tear of sample case by case may be vary based on sample composition and size may vary, adjusted by 0.303 kn. the macro-abpbcc is analyzed for red led based sensor work with for 9% sensitivity, 8% sensitivity, and 7% sensitivity for 308 k, 298 k, and 288 k as esteem viz., respectively. the macro-abpbcc is a negative photoconductivity specimen applied for a projected photo-detecting unit. the micro-abpbcc is subjected to anti-diabetic use as the μ-abpbcc with 100 microns scaling has 78.66 μg/ml as ic50 for the alpha-amylase based outcome, and micro form is better suited than macro-scaled abpbcc for anti-diabetics.