Verifying Newton's second law: the relationship between force and acceleration

This experiment investigates the relationship betwen mass, net force, and acceleration in accordance with Newton's second law of motion. A cart was set up on a near-frictionless plane with a pulley system and accelerated by a constant pulling force generated by a 0.100 kg weight. For each of six mass configurations, three trials were conducted, recording the time taken for the cart to travel a fixed distance of 0.800 m. Acceleration was calculated independently for each trial to capture variability, with averages and standard deviations computed as additional supporting evidence. Results demonstrated a clear inverse relationship: the average acceleration decreased from approximately 1.70 m/s2 at 0 g to 0.57 m/s2 at 1.000 kg, with low standard deviations indicating consistency across trials. For the 0 g mass configuration, calculated accelerations for individual trials ranged from 1.37-1.93 m/s2, while for the 1.000 kg mass, accelerations ranged from 0.44-0.66 m/s2. These findings confirm an inverse relationship between mass and acceleration under a constant force, aligning with Newton's prediction that F=ma and supporting the law's applicability in controlled experimental settings.

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Publication Details

Journal
Journal of Science & Engineering
Published
2024-12-06
DOI
https://doi.org/10.64804/x6mcn388
Primary Topic
Experimental and Theoretical Physics Studies
Type
article
Field-Weighted Citation Impact
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article

Verifying Newton's second law: the relationship between force and acceleration

Jianzhong Lin, Dia Avalur, Srilekha Dantu, Anika Tokala
Journal of Science & Engineering
Experimental and Theoretical Physics Studies
article

Verifying Newton's second law: the relationship between force and acceleration

Jianzhong Lin, Dia Avalur, Srilekha Dantu, Anika Tokala
article en

Abstract

This experiment investigates the relationship betwen mass, net force, and acceleration in accordance with Newton's second law of motion. A cart was set up on a near-frictionless plane with a pulley system and accelerated by a constant pulling force generated by a 0.100 kg weight. For each of six mass configurations, three trials were conducted, recording the time taken for the cart to travel a fixed distance of 0.800 m. Acceleration was calculated independently for each trial to capture variability, with averages and standard deviations computed as additional supporting evidence. Results demonstrated a clear inverse relationship: the average acceleration decreased from approximately 1.70 m/s2 at 0 g to 0.57 m/s2 at 1.000 kg, with low standard deviations indicating consistency across trials. For the 0 g mass configuration, calculated accelerations for individual trials ranged from 1.37-1.93 m/s2, while for the 1.000 kg mass, accelerations ranged from 0.44-0.66 m/s2. These findings confirm an inverse relationship between mass and acceleration under a constant force, aligning with Newton's prediction that F=ma and supporting the law's applicability in controlled experimental settings.

Journal of Science & EngineeringVol. 1(1)
Engineering and Science University Magnet School (US)
Openalex Percentile: Top 74%
Experimental and Theoretical Physics Studies
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