Original Article
Climate Change and Biodiversity Loss: A Critical Analysis of the Triple Planetary Crisis
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Richa Bansal 1* 1 Assistant Professor, Government
College for Girls, Patiala, India |
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ABSTRACT |
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Climate change and biodiversity loss constitute two interdependent dimensions of the contemporary environmental emergency, increasingly conceptualized within the framework of the “triple planetary crisis,” alongside pollution[1]. This paper critically examines the reciprocal relationship between climate change and biodiversity loss, emphasizing their cumulative impacts on ecosystem stability, human well-being, and sustainable development. Drawing on recent peer-reviewed literature and global environmental assessment reports, the study synthesizes evidence on how climate-induced stressors—such as rising temperatures, altered precipitation patterns, and extreme climatic events—accelerate biodiversity decline across terrestrial and aquatic ecosystems[2]. Conversely, biodiversity degradation weakens ecosystem resilience and undermines natural climate regulation mechanisms, including carbon sequestration[3]. Using a qualitative integrative methodology, the paper argues that fragmented governance structures limit effective responses to interconnected planetary crises. The study concludes that integrated, ecosystem-based strategies are essential for addressing climate change and biodiversity loss simultaneously. Keywords: Climate Change, Biodiversity Loss,
Triple Planetary Crisis, Ecosystem Resilience, Environmental Governance,
Anthropocene |
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INTRODUCTION
Background of the Study
Climate change has
emerged as one of the most significant drivers of environmental transformation
in the Anthropocene, fundamentally altering Earth’s climate systems[4].
Rising global temperatures, driven primarily by anthropogenic greenhouse gas
emissions, have intensified extreme weather events, disrupted hydrological
cycles, and increased sea levels worldwide[5].
Parallel to this, biodiversity loss has accelerated at unprecedented rates,
with current extinction levels rivaling those
observed during historical mass extinction events[6].
Biodiversity underpins ecosystem services essential for human survival,
including food production, climate regulation, and disease control. Recognizing
the interconnected nature of these challenges, the United Nations Environment
Programme conceptualizes climate change, biodiversity loss, and pollution as
the “triple planetary crisis” threatening planetary stability[7].
Research Gap
Despite extensive
scholarship on climate change and biodiversity loss, much of the literature
treats these phenomena in isolation[8].
Climate research often prioritizes mitigation technologies and emission
trajectories, while biodiversity studies emphasize conservation strategies
without fully integrating climatic drivers[9].
This disciplinary separation obscures feedback mechanisms through which
biodiversity loss exacerbates climate vulnerability and vice versa.
Furthermore, few studies critically situate these interactions within the
broader framework of the triple planetary crisis, particularly from a
governance-oriented perspective[10].
Problem Statement
The absence of
integrated analytical and policy frameworks addressing climate change and
biodiversity loss has resulted in fragmented environmental governance.
Sector-specific interventions frequently fail to address cumulative ecological
impacts, thereby weakening ecosystem resilience and sustainability outcomes[11].
Objectives AND Research Questions
This study aims to
critically analyze the interrelationship between
climate change and biodiversity loss within the framework of the triple
planetary crisis. It seeks to examine recent empirical trends, assess dominant
theoretical perspectives, identify research gaps, and propose integrated
sustainability pathways[12].
The central research question is: How does climate change interact with
biodiversity loss, and what are the implications for integrated environmental
governance?
Contribution of the Study
By synthesizing
interdisciplinary scholarship, this study contributes to environmental theory
by advancing a holistic analytical framework. It also informs policy discourse
by emphasizing the necessity of integrated climate–biodiversity strategies
aligned with global sustainability goals[13].
The paper proceeds with a critical literature review, followed by methodology,
results, discussion, and conclusion.
Literature Review
Recent studies
demonstrate that climate change significantly accelerates biodiversity loss
through habitat degradation, phenological shifts, and altered species
distributions[14].
Empirical evidence suggests that even moderate global warming substantially
increases extinction risks for climate-sensitive species[15].
Simultaneously, ecosystem degradation reduces carbon sequestration capacity,
intensifying atmospheric greenhouse gas concentrations and reinforcing climate
change[16].
The Anthropocene
framework situates human activity as the dominant force shaping Earth systems,
while socio-ecological resilience theory emphasizes feedback loops between
ecological integrity and human systems[17].
However, although global initiatives such as the Paris Agreement and the
Kunming–Montreal Global Biodiversity Framework acknowledge interconnections,
policy coherence remains weak[18].
This review highlights a critical gap between integrative theory and fragmented
governance practices.
Methodology and Materials and Methods
This study adopts
a qualitative integrative research design based on systematic analysis of
secondary data[19].
Peer-reviewed journal articles indexed in Scopus and Web of Science, alongside
authoritative reports from IPCC, IPBES, UNEP, and the Convention on Biological
Diversity published between 2018 and 2024, constituted the primary data sources[20].
A thematic content analysis approach was employed to identify recurring
patterns related to climate drivers, biodiversity responses, ecosystem
services, and governance frameworks[21].
Comparative synthesis ensured analytical rigor and triangulation of findings[22].
Results
The analysis
reveals a consistent rise in global mean temperature anomalies alongside a
pronounced decline in biodiversity indicators[23].
Regions experiencing rapid climatic shifts—such as tropical forests, coral reef
systems, and polar ecosystems—exhibited the highest biodiversity vulnerability[24].
The results indicate strong spatial overlap between climate stress hotspots and
areas of significant biodiversity loss[25].
Discussion
The findings
corroborate earlier research emphasizing the bidirectional relationship between
climate change and biodiversity loss[26].
Unlike single-issue studies, this analysis highlights the compounded effects of
climate stress, pollution, and land-use change. The discussion underscores the
urgency of integrated governance frameworks and ecosystem-based climate
solutions to address interconnected planetary crises[27].
Conclusion
This study
critically examined climate change and biodiversity loss within the framework
of the triple planetary crisis. The findings confirm that these challenges are
mutually reinforcing and cannot be effectively addressed in isolation[28].
By advancing an integrated analytical perspective, the study contributes to
both environmental theory and sustainability practice. While reliance on
secondary data represents a limitation, future research should prioritize
empirical modeling and region-specific analyses to
strengthen integrated environmental governance[29].
ACKNOWLEDGMENTS
None.
[1] Intergovernmental Panel on Climate Change (IPCC). AR6
Synthesis Report: Climate Change 2023. Intergovernmental Panel on Climate
Change, 2023. This report provides the most authoritative scientific assessment
of climate change, including observed trends, future risks, and mitigation
pathways.
[2] Pörtner, Hans-Otto, et al.
“Climate Change Impacts on Biodiversity and Ecosystems.” Science, vol. 374, no.
6571, 2021. This study examines how climate change affects biodiversity across
terrestrial, freshwater, and marine ecosystems.
[3] Le Quéré, Corinne, et al. “Global Carbon Budget 2023.”
Earth System Science Data, vol. 15, 2023. The article analyzes
global carbon emissions and the role of natural ecosystems in carbon
sequestration.
[4] Intergovernmental Panel on Climate Change (IPCC). AR6
Synthesis Report: Climate Change 2023. IPCC, 2023. Referenced for evidence on
rising global temperatures and climatic extremes.
[5] Intergovernmental Panel on Climate Change (IPCC).
Climate Change 2023: Synthesis Report. IPCC, 2023. Used to support discussions
on climate-driven environmental transformations.
[6] Intergovernmental Science-Policy Platform on
Biodiversity and Ecosystem Services (IPBES). Global Assessment Report on
Biodiversity and Ecosystem Services. IPBES Secretariat, 2019. This report
documents global biodiversity decline and ecosystem
degradation.
[7] United Nations Environment Programme (UNEP). Making
Peace with Nature. United Nations Environment Programme, 2022. Introduces the
concept of the “triple planetary crisis.”
[8] Díaz, Sandra, et al. “Pervasive Human-Driven Decline
of Life on Earth Points to the Need for Transformative Change.” Science, vol.
366, no. 6471, 2019. This work highlights human-driven biodiversity loss.
[9] Urban, Mark C. “Accelerating Extinction Risk from
Climate Change.” Science, vol. 348, no. 6234, 2015. Demonstrates how climate
change increases extinction risk across species.
[10] Folke, Carl, et al.
“Our Future in the Anthropocene Biosphere.” Ambio,
vol. 50, 2021. Discusses socio-ecological resilience and human–nature
interactions.
[11] United Nations
Environment Programme (UNEP). Making
Peace with Nature. UNEP, 2022. Referenced for governance challenges
in addressing environmental crises.
[12] Convention on
Biological Diversity (CBD). Kunming–Montreal
Global Biodiversity Framework. CBD Secretariat, 2022. Used to
support discussion on global biodiversity policy commitments.
[13] Folke, Carl, et al. “Our Future in the Anthropocene
Biosphere.” Ambio, 2021. Cited for theoretical
contributions to sustainability and resilience thinking.
[14] Urban, Mark C.
“Accelerating Extinction Risk from Climate Change.” Science,
2015. Referenced for empirical evidence linking warming to biodiversity loss
[15] Pörtner, Hans-Otto, et al. “Climate Change
Impacts on Biodiversity and Ecosystems.” Science, 2021. Supports
arguments on species vulnerability to climate change.
[16] Le Quéré, Corinne, et al. “Global Carbon Budget 2023.”
Earth System Science Data, 2023. Referenced for the climate–ecosystem feedback
mechanism.
[17] Folke, Carl, et al. Ambio, 2021. Used to
explain feedback loops between ecological degradation and human systems.
[18] Convention on
Biological Diversity (CBD). Kunming–Montreal Global Biodiversity
Framework. 2022. Cited to highlight policy gaps in biodiversity
governance.
[19] Creswell, John W.,
and J. David Creswell. Research Design:
Qualitative, Quantitative, and Mixed Methods Approaches. 5th ed.,
SAGE Publications, 2018. Provides methodological justification for qualitative
integrative research design.
[20] Intergovernmental
Panel on Climate Change (IPCC); Intergovernmental Science-Policy Platform on
Biodiversity and Ecosystem Services (IPBES); United Nations Environment
Programme (UNEP). Referenced collectively for
triangulation of global environmental data and assessments.
[21] Braun, Virginia, and
Victoria Clarke. “Using Thematic Analysis in Psychology.” Qualitative
Research in Psychology, vol. 3, no. 2, 2006. Referenced for
thematic content analysis methodology.
[22] Patton, Michael
Quinn. Qualitative Research & Evaluation
Methods. 4th ed., SAGE Publications, 2015. Used to justify
analytical rigor and comparative synthesis.
[23] Intergovernmental
Panel on Climate Change (IPCC). AR6 Synthesis
Report. 2023. Cited for global temperature and climate trend data.
[24] Intergovernmental
Science-Policy Platform on Biodiversity and Ecosystem Services (IPBES).
Global Assessment Report. 2019. Referenced for
biodiversity hotspot and vulnerability analysis.
[25] Pörtner, Hans-Otto, et al. Science,
2021. Used to support findings on spatial overlap between climate stress and
biodiversity loss.
[26] Díaz, Sandra, et al. Science, 2019. Referenced in discussion for confirmation of compounded biodiversity decline.
[27] United Nations
Environment Programme (UNEP). Making
Peace with Nature. 2022. Used to interpret policy implications of
the findings.
[28] Folke, Carl, et al. Ambio,
2021. Referenced in conclusion for integrated sustainability perspectives.
[29] Intergovernmental Panel on Climate Change (IPCC). AR6
Synthesis Report. 2023. Cited to support future research and policy
recommendations.
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