INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS | Volume IX Issue XI November 2025
In reference to Marten (Marten, 1982, 1988, 2001), the intricate matter of land use within the framework of
planning for biomass energy, with a specific emphasis on the creation of expansive plantations of energy trees
where it highlights how important it is to have a thorough biomass energy map to help policymakers and energy
planners make decisions. The research highlights planting energy trees while taking land availability,
environmental effects, and physical compatibility into account. It focuses on connecting appropriate land to the
correct energy farm and underlines the ramifications for agricultural chemicals, human populations, and water
quality. The environmental repercussions of energy farms are also covered in the text, including how they affect
aquatic ecosystems, soil conservation, and agricultural chemicals by runoff (Ketzer, 2020). In order to illustrate
the scope and effects of energy farms for land use, the text suggests utilising diagrams. It contrasts possible
effects on different types of land and how various farming practices affect the ecosystem. In order to support
national and international energy planning, it highlights the necessity of inventories as well as summaries of the
potential energy resources found in biomass (Martinho et al., 2024; Ali et al., 2024).
A study by Sulaiman et al. (2012) explores the potential of using waste biomass for cogeneration to generate
energy in Malaysia. It highlights the environmental benefits and significance of renewable energy production,
while also discussing challenges such as financial viability, biomass fuel supply uncertainties, and lack of
government support.34 The paper highlights the need for government policies, financial backing, and capacity
building to promote sustainable biomass energy development in Malaysia. It emphasises the importance of
integrating biomass energy data into databases, networking between countries, and establishing favourable
legislation and policies for biomass energy growth. Hence, the study by Sulaiman et al. (2012) underscores the
critical need for government support, financial backing, and capacity building to promote sustainable biomass
energy development in Malaysia, emphasising the importance of integrating biomass energy data, networking,
and favourable policies for successful implementation of waste-based biomass cogeneration in the country
(Wang, 2022).
Furthermore, a study by Nor Adilla (2022) offers a thorough analysis of the present state, regulations, and
implementation difficulties of biomass energy in Malaysia. It talks about how Malaysia's energy needs are
growing and how, in light of depleting fossil fuel supplies and detrimental environmental effects, we must switch
to sustainable renewable energy sources. The review study concentrates on the potential of biomass energy and
how it might help reduce greenhouse gas emissions, specifically, it looks at biomass from oil palm.36 Successful
bioenergy frameworks in Finland, Sweden, Thailand, and Indonesia are contrasted with Malaysia's policies,
bringing to light the difficulties encountered in implementing bioenergy on a large scale, including institutional
problems, market acceptance, technical obstacles, high capital costs, and environmental effects. The paper
highlights that in order to propel the expansion of biomass energy in the nation, concerted efforts, coherent
policies, and sustainable practices are key. In order to foster the expansion of biomass energy in Malaysia, the
research by Nor Adilla (2022) highlights the necessity of concerted efforts, coherent policies, and sustainable
practices. It also addresses important issues and highlights the potential of biomass energy to successfully satisfy
energy demands and decrease greenhouse gas emissions.
Furthermore, a research by Jåstad et al. (2023) uses a model to evaluate the consequences of commercial biomass
energy on carbon emissions while discussing the effects on land use and agriculture. It notes that while biomass
energy may lead to increased land-use change emissions by expanding production, it overall reduces
anthropogenic carbon emissions. Higher biomass energy productivity correlates with lower net emissions despite
increasing land-use change emissions. The introduction of efficient and affordable biomass technologies can
significantly lower total carbon emissions, although it may incentivize deforestation due to raised land rental
rates. A study long ago has already recognized the effect of biomass energy projects will cause deforestation on
our nature.
To conclude, biomass energy projects must be approached holistically, considering land tenure dynamics,
environmental impacts, socio-economic implications, and supportive policies and technologies. By tackling
these intricate problems, biomass energy may support inclusive and equitable development routes and help create
a more sustainable energy future.
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