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A living lab approach to co-designing climate adaptation strategies Cover

A living lab approach to co-designing climate adaptation strategies

Open Access
|Jan 2026

Figures & Tables

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Figure 1

Living labs methodology: participatory modelling framework for community-based climate adaptation.

Note: The analytical flow of the study and how experiential processes informed scenario development and model adjustments are shown.

Source: Adapted from Kolb (1984).

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Figure 2

Participatory workshops illustrating key engagement activities in the living lab.

Note: The farmers are collaborating through facilitated brainstorming, storytelling, mind mapping and sketching sessions.

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Figure 3

Participatory modelling sessions demonstrating farmers’ direct engagement with the AquaCrop configuration during the living lab.

Note: Farmers contributed crop characteristics, local rainfall behaviour and management practices. These discussions linked farmers’ experiential knowledge with model-based analysis.

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Figure 4

(a) Structured interviews used to assess farmers’ knowledge and interest through score-based evaluation and Likert-type scales, providing evidence of learning outcomes within the participatory modelling framework; and (b) farmer field schools conducted during the implementation phase, enabling feedback on practical challenges and refining the co-designed adaptation to local conditions.

Table 1

Challenges and their impacts on agricultural livelihoods.

ASPECT AND KEY PROBLEMDETAILS
Location of the problem40 acres of farmland
Affected stakeholdersFarming community (16 households out of 20)
Scale and severity of the problemYield losses: 50–70 tonnes depending on the variety grown
Income reductions: INR48,000–80,000/acre
Affects over 16 farmers, covering 28 acres
Root causes of the problemErratic monsoon rainfall caused by climate change, leading to inconsistent water availability
Timing of the impactDuring the Kharif season (May–August)
During the Rabi season (September–December)
Consequences for the communitySignificant yield reductions and income losses. Farmers abandon or lease their land. Weakens livelihoods, resilience and sustainability
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Figure 5

Proposed solutions integrating insights from participatory rural appraisal (PRA), co-design and technical analyses: (a) rainfall analysis during rice growing season; (b) gate irrigation technique on a man-made canal with gravity flow force; and (c) on-farm trenches: excavated around the farmlands

Note: Key for (a): red = high probability of a dry week; orange = low probability of a dry week; blue = high probability of a wet week (rain).

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Figure 6

Analytical pathway for interpreting mind mapping outputs.

Note: Mind maps generated during the co-design workshops were directly informed the co-designed solution of adjusting sowing time.

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Figure 7

Farmer’s sketch illustrating the seasonal water-flow patterns across fields.

Note: The participatory sketching exercise captured micro-topographical variations, runoff directions and water-logging zones that were not visible through secondary datasets.

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Figure 8

Relative yield resilience indicator for multiple sowing weeks under future climate scenarios (SSP245 and SSP585).

Note: Early sowing, particularly during the 38th Standard Meteorological Week (SMW), demonstrates consistently higher resilience across scenarios, supporting the co-designed adaptation strategy identified through participatory modelling.

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Figure 9

Water stress index (WSI) under future climate scenarios (SSP245 and SSP585).

Note: The distribution of WSI across sowing weeks illustrates differences in projected water stress.

Table 2

Impact of participatory modelling on farmers’ knowledge and adoption interest.

FARMER IDKNOWLEDGE (PRE-INTERVENTION) (%)KNOWLEDGE (POST-INTERVENTION) (%)INTEREST IN ADOPTION (PRE-INTERVENTION)INTEREST IN ADOPTION (POST-INTERVENTION)
Farmer 110%80%1/54/5
Farmer 220%90%2/55/5
Farmer 350%80%2/52/5 (no change)
Farmer 440%70%1/54/5
Farmer 540%70%2/54/5
Farmer 630%80%2/55/5
Farmer 720%80%1/54/5
Farmer 850%80%2/54/5
Farmer 950%90%Not interestedNot interested
Farmer 1020%90%1/54/5
Farmer 1140%40% (no change)2/54/5
Farmer 1210%10% (no change)1/51/5 (no change)
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Figure 10

Participatory implementation of the co-designed climate adaptation strategy.

Note: These real-world trials validated modelling insights and demonstrated the practical feasibility of the co-designed intervention, strengthening its legitimacy within the community.

DOI: https://doi.org/10.5334/bc.626 | Journal eISSN: 2632-6655
Language: English
Submitted on: Apr 14, 2025
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Accepted on: Jan 2, 2026
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Published on: Jan 21, 2026
Published by: Ubiquity Press
In partnership with: Paradigm Publishing Services
Publication frequency: 1 issue per year

© 2026 Masoud K. Barati, Soundharajan Bankaru-Swamy, published by Ubiquity Press
This work is licensed under the Creative Commons Attribution 4.0 License.