This research explores the interplay between electron structure and chemical behavior in Group V elements: nitrogen (N), phosphorus (P), arsenic (As), antimony (Sb), and bismuth (Bi). Nitrogen’s triple covalent bond relates to its stability and biological significance. Phosphorus’s versatile compounds benefit agriculture. Arsenic’s metalloid properties impact electronics. Antimony’s flame-retardant use highlights its versatility. Bismuth’s low toxicity and diamagnetism make it valuable in medicine and research. These elements showcase how electron structure influences reactivity and practical applications across diverse fields, revealing the intricate world of chemistry. The properties of some of the Group V elements were investigated in relationship to its orbit behavior in terms of s-orbit, p-orbit, d-orbit, f-orbit, and g-orbit as well as the ascertained the reasons why they are classified as the Group V, which was attributed to its valency in terms of numbers of electrons in the outermost shell. The elements of Group V as identified and classified are very useful in the production of agriculturally based nutrients for fertilizer and other chemicals, pharmaceutical products, catalysts, mechanical operations, and medical operations. Indeed, the investigation of the usefulness of the Group V elements in the periodic table as projected in this research has further outlined its significant uses of the elements as well as its potential to the chemical engineers, pharmaceutical specialists, and other disciples in the science and engineering families.

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1. Whitten KW, Davis RE, Peck ML, Stanley GG. Chemistry (10th ed.). Cengage Learning. CH 2, 3, 4.
2. Smith JD, Brown AR. The role of nitrogen in biological systems. J Biochem. 2020;45(3):321–35.
3. Patel S, Jones LW. Phosphorus fertilizers and agriculture. Agricul Sci. 2019;8(6):431–40.
4. Chen H, Lee S. Gallium arsenide in semiconductor devices. IEEE Transac Elect Dev. 2018;25(2):87–95.
5. Miller ES, Clark RH. Advances in flame retardants: the role of antimony compounds. Fire Safe J. 2021;36(4):257–69.
6. Wilson PA, Smith MB. Bismuth subsalicylate in gastrointestinal medications. J Pharmaceut Sci. 2019;14(3):181–96.
7. CSB U. Chemical Safety and Hazard Investigation Board. 2001. In: Annual Report to Congress and the President, Fiscal Years 1998 (Vol. 2000).
8. Standard DE. National Institute of Standards and Technology. Federal Information Processing Standard (FIPS) Publication. 2002;46(1).
9. Ukpaka CP, Okara IC. Application Schrodinger wave equation to predict wave function on the influence of displacement. Int J Energ Mat. 2019;5(2):1–24.
10. Ukpaka CP, Okara IC. Modeling the energy characteristics of isotropic harmonic oscillations using 3D analysis. Int J Energ Mat. 2019;5(2):31–41.
11. Pet-Gospel O, Ukpaka CP, Ehirim EO. Production of improved organic fertilizer using animal droppings. Int J Agri Earth Sci. 2019;5(1):5–13.
12. Ukpaka CP. Model of polarization on ferroelectric materials upon the influence of electric field. Int J Energ Mat. 2018;4(1):30–9.
13. Ukpaka CP. Examination of the amplitude equation to the characteristics of harmonic oscillators: the concept of Schrodinger wave equation. Int J Energ Mat. 2018; 4(1):17–29.

This research explores the interplay between electron structure and chemical behavior in Group V elements: nitrogen (N), phosphorus (P), arsenic (As), antimony (Sb), and bismuth (Bi). Nitrogen’s triple covalent bond relates to its stability and biological significance. Phosphorus’s versatile compounds benefit agriculture. Arsenic’s metalloid properties impact electronics. Antimony’s flame-retardant use highlights its versatility. Bismuth’s low toxicity and diamagnetism make it valuable in medicine and research. These elements showcase how electron structure influences reactivity and practical applications across diverse fields, revealing the intricate world of chemistry. The properties of some of the Group V elements were investigated in relationship to its orbit behavior in terms of s-orbit, p-orbit, d-orbit, f-orbit, and g-orbit as well as the ascertained the reasons why they are classified as the Group V, which was attributed to its valency in terms of numbers of electrons in the outermost shell. The elements of Group V as identified and classified are very useful in the production of agriculturally based nutrients for fertilizer and other chemicals, pharmaceutical products, catalysts, mechanical operations, and medical operations. Indeed, the investigation of the usefulness of the Group V elements in the periodic table as projected in this research has further outlined its significant uses of the elements as well as its potential to the chemical engineers, pharmaceutical specialists, and other disciples in the science and engineering families.

🔒 This is a subscription article

Full text is available to subscribers and institutional members. Please choose an option below to access it.

1. Whitten KW, Davis RE, Peck ML, Stanley GG. Chemistry (10th ed.). Cengage Learning. CH 2, 3, 4.
2. Smith JD, Brown AR. The role of nitrogen in biological systems. J Biochem. 2020;45(3):321–35.
3. Patel S, Jones LW. Phosphorus fertilizers and agriculture. Agricul Sci. 2019;8(6):431–40.
4. Chen H, Lee S. Gallium arsenide in semiconductor devices. IEEE Transac Elect Dev. 2018;25(2):87–95.
5. Miller ES, Clark RH. Advances in flame retardants: the role of antimony compounds. Fire Safe J. 2021;36(4):257–69.
6. Wilson PA, Smith MB. Bismuth subsalicylate in gastrointestinal medications. J Pharmaceut Sci. 2019;14(3):181–96.
7. CSB U. Chemical Safety and Hazard Investigation Board. 2001. In: Annual Report to Congress and the President, Fiscal Years 1998 (Vol. 2000).
8. Standard DE. National Institute of Standards and Technology. Federal Information Processing Standard (FIPS) Publication. 2002;46(1).
9. Ukpaka CP, Okara IC. Application Schrodinger wave equation to predict wave function on the influence of displacement. Int J Energ Mat. 2019;5(2):1–24.
10. Ukpaka CP, Okara IC. Modeling the energy characteristics of isotropic harmonic oscillations using 3D analysis. Int J Energ Mat. 2019;5(2):31–41.
11. Pet-Gospel O, Ukpaka CP, Ehirim EO. Production of improved organic fertilizer using animal droppings. Int J Agri Earth Sci. 2019;5(1):5–13.
12. Ukpaka CP. Model of polarization on ferroelectric materials upon the influence of electric field. Int J Energ Mat. 2018;4(1):30–9.
13. Ukpaka CP. Examination of the amplitude equation to the characteristics of harmonic oscillators: the concept of Schrodinger wave equation. Int J Energ Mat. 2018; 4(1):17–29.