DREVO Coastal Green Belt Initiative

ENVIRONMENTAL IMPACT FRAMEWORK

FEASIBILITY STUDY & COST-BENEFIT ANALYSIS

TECHNICAL APPENDIX

MASTER PLAN & SPATIAL LAYOUT

ECONOMIC APPENDIX

RISK ASSESSMENT & GOVERNANCE FRAMEWORK

PILOT PHASE IMPLEMENTATION PLAN

NATIONAL BENEFITS ASSESSMENT

DREVO COASTAL GREEN BELT INITIATIVE

Integrated Coastal Protection, Desert Stabilization and Ecological Regeneration Program

Proposed Pilot Area:

Atlantic Coastal Corridor – Laayoune Region

Proposed Implementation:

Kingdom of Morocco (under applicable national and regional administrative frameworks)

1. Executive Summary

The DREVO Coastal Green Belt Initiative proposes the creation of a long-term ecological protection corridor along the Atlantic coastal zone.

The project aims to establish a multi-layered green belt between the ocean and inland desert areas through:

coastal stabilization;
dune control;
water harvesting;
solar-powered desalination;
soil regeneration;
nursery and greenhouse infrastructure;
sustainable agroforestry systems;
ecological job creation.

The project is designed as a scalable system beginning with a pilot section and gradually expanding into a larger regional ecological infrastructure corridor.

2. Strategic Objectives

Environmental Objectives

Reduce wind erosion.
Stabilize coastal dunes.
Improve soil moisture retention.
Increase biodiversity.
Create long-term vegetation cover.
Improve resilience to climate change.

Economic Objectives

Create local employment.
Develop nursery and seedling production.
Support sustainable agriculture.
Create biomass and compost resources.
Enable future production of fruits, oils and fodder.
Support carbon-credit opportunities.

Social Objectives

Training and education programs.
Local community participation.
Development of ecological infrastructure.
Creation of long-term regional value.

3. Core Concept

The project is based on a sequential ecological restoration model:

Wind Protection → Water Retention → Soil Formation → Vegetation Establishment → Productive Ecosystem

The objective is not simply to plant trees, but to create environmental conditions capable of sustaining vegetation with progressively lower external inputs.

4. Six-Zone Ecological Structure

Zone 1 – Coastal Salt Resistance Belt

Distance: 0–30 meters from shoreline

Functions:

salt spray protection;
surface stabilization;
pioneer vegetation establishment.

Zone 2 – Sand Fixation Belt

Distance: 30–100 meters

Functions:

dune stabilization;
reduction of wind velocity;
initial vegetation barrier.

Zone 3 – Soil Formation Belt

Distance: 100–300 meters

Functions:

compost integration;
microbiological activation;
establishment of pioneer tree systems.

Zone 4 – Water Distribution Belt

Distance: 300–800 meters

Functions:

swales and water retention structures;
shrub and tree development;
nursery integration.

Zone 5 – Productive Agroforestry Belt

Distance: 800 meters – 2 km

Functions:

fruit production;
agroforestry;
greenhouse systems;
economic output.

Zone 6 – Inland Desert Protection Belt

Distance: 2–5 km

Functions:

protection against advancing dunes;
wind barriers;
large-scale stabilization.

5. Water Infrastructure

The project combines multiple water sources:
solar desalination;
fog harvesting;
rainwater harvesting;
groundwater monitoring;
micro-relief water retention systems.
Water efficiency is prioritized over large-scale irrigation.

6. DREVO Solar Desalination System

Each modular unit includes:
solar reflector array;
thermal collector;
heat exchanger;
thin-film evaporation chamber;
separated condensation chamber;
brine management system.

Expected production: 100–200 liters of freshwater per unit per day under suitable climatic conditions.

7. Nursery and Greenhouse Infrastructure

Semi-underground greenhouses will be established for:
seed germination;
tree propagation;
acclimatization;
nursery production.
The nursery network will provide plant material for continuous restoration and expansion.

8. Marine Biomass Integration

Marine algae and seaweed may be used for:
compost production;
soil improvement;
mulch;
livestock feed supplements;
biological fertilizers.
This creates a circular ecological resource system between ocean and land.

9. Pilot Project

Initial Demonstration Corridor

Length: 5 km

Components:

desalination modules;
nursery facilities;
compost infrastructure;
dune stabilization structures;
vegetation establishment zones.
The pilot phase will generate operational data before larger-scale expansion.

10. Expected Outcomes

Within 3–5 years:

reduction of wind erosion;
stabilization of priority coastal areas;
formation of new soil layers;
establishment of vegetation corridors;
increased ecological resilience;
creation of local employment opportunities.

11. Long-Term Vision

The long-term objective is the development of a continuous ecological coastal protection corridor capable of:

protecting infrastructure;
reducing desertification;
supporting agriculture;
generating economic value;
improving environmental resilience.

The initiative is intended to serve as a model for coastal restoration in arid and semi-arid regions.

12. Partnership Opportunities

Potential partners may include:
governmental agencies;
regional development authorities;
environmental institutions;
universities;
climate and sustainability funds;
international ecological programs;
private sector investors.

Conclusion

The DREVO Coastal Green Belt Initiative proposes a practical, scalable and science-based approach to ecological restoration, combining renewable energy, water efficiency, soil regeneration and sustainable land management to create long-term environmental and economic value.

ENVIRONMENTAL IMPACT FRAMEWORK

DREVO COASTAL GREEN BELT INITIATIVE

Environmental Assessment and Sustainability Framework

1. Purpose

This Environmental Impact Framework (EIF) establishes the methodology for assessing, monitoring and improving environmental conditions throughout the implementation of the DREVO Coastal Green Belt Initiative.

The framework is designed to ensure that all project activities contribute positively to ecosystem restoration, climate resilience, biodiversity enhancement and sustainable land management.

2. Environmental Baseline

The project area is characterized by:
arid coastal climate;
strong Atlantic winds;
mobile sand formations;
low organic matter content;
limited natural vegetation cover;
high evaporation rates;
localized salinity stress;
vulnerability to desertification processes.

The project seeks to reverse these trends through ecological regeneration rather than intensive resource extraction.

3. Key Environmental Objectives

3.1 Soil Restoration

Objectives:
increase organic matter content;
improve soil structure;
increase infiltration capacity;
reduce erosion;
improve moisture retention.
Indicators:
soil organic carbon (%);
water infiltration rate;
soil moisture content;
topsoil depth development.
Target:
measurable increase in soil organic matter within 3–5 years.

3.2 Desertification Control

Objectives:
stabilize moving sand;
reduce wind erosion;
establish vegetation cover;
create permanent biological barriers.
Indicators:
dune movement rate;
vegetation cover percentage;
wind erosion measurements.
Target:
progressive stabilization of priority zones.

3.3 Water Efficiency

Objectives:
maximize water retention;
reduce runoff losses;
minimize groundwater extraction;
utilize renewable water sources.
Indicators:
water use per hectare;
freshwater production from desalination;
water retention capacity of restoration zones.
Target:
continuous reduction in irrigation demand through ecosystem maturation.

3.4 Biodiversity Enhancement

Objectives:
establish multi-layer vegetation systems;
support pollinators;
increase habitat diversity;
promote native and climate-adapted species.
Indicators:
number of plant species established;
pollinator observations;
bird species presence;
ecological habitat diversity.
Target:
annual increase in biodiversity indicators.

4. Climate Change Mitigation

The project contributes to climate mitigation through:
carbon sequestration;
soil carbon accumulation;
vegetation growth;
reduced land degradation.
Potential future participation in:
voluntary carbon markets;
climate adaptation programs;
ecosystem restoration initiatives.
Indicators:
biomass accumulation;
estimated carbon storage;
vegetation coverage growth.

5. Marine Ecosystem Protection

The project shall ensure that:
no untreated pollutants enter marine environments;
seawater intake systems minimize ecological disturbance;
brine disposal complies with environmental standards;
seaweed harvesting remains sustainable.
Monitoring:
coastal water quality;
salinity impacts;
marine biodiversity observations.

6. Brine Management Strategy

Solar desalination produces concentrated brine.
Management measures:
dedicated evaporation basins;
salt recovery opportunities;
prevention of uncontrolled discharge;
monitoring of salinity accumulation.
Environmental objective:
zero uncontrolled brine discharge into restoration zones.

7. Soil Biology Program

The project promotes biological soil development through:
compost systems;
microbial inoculation;
mycorrhizal fungi integration;
organic matter incorporation;
seaweed-based amendments.
Indicators:
microbial activity;
earthworm populations;
fungal colonization;
organic matter content.

8. Vegetation Monitoring

Monitoring categories:

Pioneer Species

Purpose:
stabilization;
soil initiation.

Shrubs

Purpose:
wind reduction;
habitat creation.

Trees

Purpose:
microclimate creation;
biomass accumulation;
ecosystem development.
Indicators:
survival rate;
annual growth;
canopy development.
Target:
minimum 75% survival after establishment period.

9. Social and Environmental Benefits

Expected benefits:
reduction of land degradation;
improved environmental quality;
creation of green infrastructure;
increased ecological resilience;
educational opportunities;
local employment creation.

10. Monitoring Schedule

Quarterly

vegetation survival;
water system performance;
erosion assessment.

Annual

biodiversity survey;
soil analysis;
carbon estimation;
environmental performance review.

Every Five Years

full environmental impact reassessment;
adaptation of management plans.

11. Risk Management

Potential risks:
prolonged drought;
extreme wind events;
salinity accumulation;
invasive species;
infrastructure damage.
Mitigation measures:
phased implementation;
diversified vegetation;
modular water systems;
continuous monitoring.

12. Environmental Success Criteria

The project shall be considered environmentally successful if it achieves:
measurable reduction in erosion;
stabilization of sand movement;
increased soil organic matter;
increased vegetation cover;
increased biodiversity;
reduced dependence on external irrigation;
long-term ecosystem resilience.

Conclusion

The DREVO Coastal Green Belt Initiative is designed as a regenerative environmental system that integrates water management, soil restoration, biodiversity enhancement and climate adaptation to create a resilient coastal landscape capable of supporting both ecological and socio-economic development.

FEASIBILITY STUDY & COST-BENEFIT ANALYSIS

MOROCCAN GREEN LINE

National Coastal Regeneration Initiative

Preliminary Feasibility Study

Pilot Corridor (5 km)

1. EXECUTIVE SUMMARY

The Moroccan Green Line is a proposed long-term coastal regeneration program designed to establish a resilient ecological corridor along Morocco's Atlantic coastline.

The initiative combines:
coastal protection;
dune stabilization;
renewable water production;
ecological restoration;
agroforestry development;
tourism infrastructure;
climate adaptation measures.

The purpose of this feasibility study is to evaluate technical viability, environmental impact, economic benefits and long-term sustainability.

2. PROJECT OVERVIEW

Pilot Corridor

Length:5 km

Average Width:5 km

Total Area:Approximately 2,500 hectares

Implementation Period:5 years

Operational Horizon:25+ years

3. TECHNICAL FEASIBILITY

Coastal Conditions

Advantages:
strong solar resource;
Atlantic humidity influence;
large available land areas;
low competing land use.
Challenges:
sand movement;
high evaporation rates;
salinity;
strong winds.
Assessment:
Technical feasibility is considered HIGH.

Water Production

Primary Sources:
solar desalination;
fog harvesting;
water retention systems;
groundwater monitoring.
Assessment:
Technically feasible using existing technologies.

Vegetation Establishment

Strategy:
Phase-based ecological restoration.
Assessment:
Feasible with climate-adapted species and controlled irrigation during establishment.

4. ENVIRONMENTAL FEASIBILITY

Expected Benefits:
dune stabilization;
reduction of erosion;
increased vegetation cover;
biodiversity enhancement;
soil regeneration.
Assessment:
Environmental feasibility is HIGH.

5. SOCIAL FEASIBILITY

Benefits:
local employment;
training opportunities;
regional development;
educational programs.
Potential Risks:
insufficient stakeholder engagement.
Mitigation:
community participation programs;
local hiring strategies.
Assessment:
Social feasibility is HIGH.

6. ECONOMIC FEASIBILITY

Initial Investment

Pilot Corridor:
Estimated CAPEX:

€2–3 million

Annual Operating Costs

Estimated OPEX:

€500,000–700,000 per year

Revenue Potential

Sources:
nurseries;
agroforestry;
compost products;
seaweed products;
tourism;
environmental services;
carbon finance.
Projected Mature Revenue:

€1–2 million per year.

7. COST-BENEFIT ANALYSIS

Direct Benefits

Employment

Pilot:

50–80 jobs

Regional Scale:

300–500 jobs

Water Production

Pilot:

9,000–11,000 m³/year

Regional Scale:

55,000–110,000 m³/year

Agricultural Production

Future outputs:
olives;
dates;
figs;
pomegranates;
carob products.

Indirect Benefits

Tourism

Potential creation of:
eco-tourism destinations;
botanical parks;
recreational zones;
educational facilities.

Infrastructure Protection

Benefits:
reduced sand encroachment;
lower maintenance costs;
improved land stability.

Environmental Value

Benefits:
carbon sequestration;
biodiversity restoration;
ecosystem services.

8. COST OF INACTION

Without intervention:
Potential future costs include:
increasing desertification;
infrastructure protection expenses;
reduced land productivity;
loss of ecological value.
The cost of inaction is expected to exceed the cost of proactive restoration.

9. FINANCIAL SCENARIOS

Conservative Scenario

Annual Revenue:

€500,000–800,000

Break-even:

8–10 years

Base Scenario

Annual Revenue:

€1–2 million

Break-even:

5–7 years

Optimistic Scenario

Annual Revenue:

€2–4 million

Break-even:

4–6 years

10. TOURISM DEVELOPMENT POTENTIAL

Potential Destinations:

Atlantic Green Parks

Ocean Oasis Parks

Green Desert Route

Royal Coastal Gardens

Atlantic Palm Oases

International Ecological Festival

Expected Impact:
Creation of a new category of tourism:

"Coastal Desert Ecotourism"

11. CLIMATE FINANCE POTENTIAL

Possible funding sources:
climate adaptation programs;
carbon markets;
biodiversity funds;
international environmental grants.
Assessment:
Strong potential for blended financing.

12. RISK ASSESSMENT SUMMARY

Main Risks:
water availability;
extreme climate conditions;
funding continuity.
Risk Level:

MODERATE

Mitigation:
modular implementation;
diversified financing;
phased expansion.

13. OVERALL FEASIBILITY ASSESSMENT

Category

Assessment

Technical

High

Environmental

High

Social

High

Economic

Medium–High

Strategic

Very High

14. RECOMMENDATION

The Moroccan Green Line should proceed to:

Phase 1

Detailed Site Survey

Phase 2

Pilot Corridor Implementation (5 km)

Phase 3

Performance Evaluation

Phase 4

Expansion to 15 km and 30 km corridors

CONCLUSION

The Moroccan Green Line demonstrates strong technical, environmental and strategic feasibility.

The initiative offers Morocco a unique opportunity to combine climate adaptation, coastal protection, renewable water production, ecological restoration and sustainable regional development within a single long-term national program.

Final Assessment

FEASIBLE

SCALABLE

STRATEGICALLY SIGNIFICANT

RECOMMENDED FOR PILOT IMPLEMENTATION

TECHNICAL APPENDIX

Engineering Framework

DREVO Coastal Green Belt Initiative

1. Engineering Purpose

This Technical Appendix defines the engineering framework for the design, construction and operation of the DREVO Coastal Green Belt Initiative.

The framework integrates:
coastal stabilization;
dune control;
water harvesting;
solar desalination;
soil regeneration;
nursery infrastructure;
ecological restoration systems.

2. Pilot Corridor

Reference Pilot

Length:5 km

Width:0–5 km inland

Total Area:Approximately 2,500 hectares

Implementation Approach:
Modular ecological restoration corridor.

3. Six-Zone Engineering Structure

Zone 1

Coastal Salt Buffer Zone

Distance:0–30 m

Purpose:
protection from salt spray;
shoreline stabilization;
surface protection.
Engineering Components:
stone semicircles;
micro-catchments;
surface roughness structures;
halophyte planting pockets.
Typical Dimensions:

Micro-catchment diameter:0.5–1.0 m

Depth:10–20 cm

Spacing:1–2 m

Zone 2

Sand Stabilization Zone

Distance:30–100 m

Purpose:
sand fixation;
reduction of wind velocity;
vegetation establishment.
Engineering Components:
checkerboard stabilization grids;
half-moon basins;
shrub rows.
Typical Dimensions:

Grid size:1×1 m or 2×2 m

Half-moon radius:1–2 m

Spacing:3–5 m

Zone 3

Soil Formation Zone

Distance:100–300 m

Purpose:
soil development;
compost integration;
biological activation.
Engineering Components:
zai pits;
compost pits;
infiltration trenches.
Typical Dimensions:

Zai pit:40–60 cm diameter

Depth:20–40 cm

Spacing:1–2 m

Trench width:40–60 cm

Trench depth:30–50 cm

Zone 4

Water Distribution Zone

Distance:300–800 m

Purpose:
water retention;
tree establishment;
nursery support.
Engineering Components:
swales;
retention basins;
storage reservoirs;
distribution lines.
Typical Dimensions:

Swale width:0.5–1.0 m

Depth:0.5–0.8 m

Spacing:10–25 m

Zone 5

Productive Agroforestry Zone

Distance:800 m–2 km

Purpose:
food production;
agroforestry;
nursery operations.
Engineering Components:
tree basins;
irrigation lines;
greenhouse clusters.

Tree basin diameter:1–2 m

Depth:0.6–1.0 m

Zone 6

Inland Desert Protection Zone

Distance:2–5 km

Purpose:
dune stabilization;
wind reduction;
protection of productive areas.
Engineering Components:
anti-dune barriers;
stabilization grids;
windbreak corridors.

Barrier spacing:5–15 m

Barrier height:0.3–0.6 m

4. Artificial Terrain System

The terrain system forms the structural backbone of the project.
Objectives:
increase infiltration;
reduce runoff;
reduce erosion;
capture airborne sand.
Primary Structures:
half-moons;
swales;
infiltration trenches;
dune barriers;
micro-catchments.

5. Water Infrastructure

Water Sources

Primary:
seawater desalination;
fog harvesting;
rainfall harvesting.
Secondary:
groundwater monitoring wells.

Water Storage

Pilot 5 km Corridor:

Storage Capacity:200–300 m³

Recommended Layout:
central storage reservoirs;
distributed buffer tanks;
local irrigation nodes.

6. DREVO Solar Desalination Unit

Purpose

Renewable freshwater production from seawater.

Main Components

Reflector field

Thermal collector

Heat exchanger

Thin-film evaporator

Condensation chamber

Brine management system

Reference Configuration

Reflector Area:

25 m²

Solar Input:

Approx. 150–200 kWh/day

Expected Freshwater Production:

100–200 liters/day per unit

Operational Temperature:

50–70°C

Brine Management

Options:
evaporation ponds;
salt recovery;
controlled disposal systems.
Requirement:
No discharge into restoration zones.

7. Greenhouse Infrastructure

Type

Semi-underground greenhouses.
Purpose:
seed propagation;
seedling production;
acclimatization.

Standard Greenhouse

Dimensions:

Width:3 m

Length:8 m

Area:24 m²

Depth:1–1.5 m

Pilot Requirement (5 km)

Main Greenhouses:16

Acclimatization Units:8

Total:24 greenhouse structures

8. Compost Infrastructure

Purpose:
soil formation;
moisture retention;
biological activation.

Compost Pits

Diameter:1–2 m

Depth:1–1.5 m

Compost Trenches

Width:1–2 m

Depth:1–1.5 m

Length:10–50 m

Pilot Corridor

Compost Nodes:

200–400

Compost Trenches:

50–100

9. Fog Harvesting Infrastructure

Purpose:
Atmospheric water collection.

Standard Unit

Net Area:20–40 m²

Production:Highly site-dependent

Function:
Supplementary water source.

Pilot Corridor

20–50 fog collection units

10. Nursery System

Purpose:
Independent production of restoration plants.

Functions:

seed collection;
propagation;
acclimatization;
distribution.
Annual Capacity Target:

10,000–50,000 seedlings

11. Seaweed Utilization System

Marine biomass applications:
compost;
mulch;
soil amendments;
livestock feed supplements.
Preferred Species:
Ulva spp.
Gracilaria spp.
Sargassum spp.

12. Monitoring Infrastructure

Installed Systems:
weather stations;
groundwater monitoring wells;
soil monitoring points;
vegetation monitoring plots.
Monitoring Frequency:
Quarterly and annual assessments.

13. Pilot Infrastructure Summary (5 km)

Solar Desalination Units:30–60

Greenhouses:24

Water Storage:200–300 m³

Fog Collectors:20–50

Compost Nodes:200–400

Compost Trenches:50–100

Monitoring Stations:5–10

14. Scalability

Pilot Phase:5 km

Expansion Phase:15 km

Regional Deployment:30 km+

The engineering framework is modular and can be replicated without redesign of core infrastructure.

Conclusion

The DREVO Engineering Framework combines renewable energy, ecological restoration, water efficiency and regenerative land management into a scalable coastal infrastructure system designed for long-term environmental resilience and sustainable development.

MASTER PLAN & SPATIAL LAYOUT

DREVO Coastal Green Belt Initiative

Pilot Phase: 5 km

Expansion Phases: 15 km and 30 km

1. MASTER PLAN VISION

The DREVO Coastal Green Belt is designed as a continuous ecological corridor connecting:

Atlantic Ocean

Coastal Protection Belt

Soil Formation Belt

Productive Agroforestry Belt

Inland Desert Protection Belt

The system functions as an integrated environmental infrastructure network rather than a conventional plantation.

2. SPATIAL ORGANIZATION

General Cross Section

ATLANTIC OCEAN

│

├──────────────────────────────

│ ZONE 1

│ Coastal Salt Buffer

│ 0–30 m

├──────────────────────────────

│ ZONE 2

│ Sand Stabilization Belt

│ 30–100 m

├──────────────────────────────

│ ZONE 3

│ Soil Formation Belt

│ 100–300 m

├──────────────────────────────

│ ZONE 4

│ Water Distribution Belt

│ 300–800 m

├──────────────────────────────

│ ZONE 5

│ Productive Agroforestry Belt

│ 800–2000 m

├──────────────────────────────

│ ZONE 6

│ Inland Desert Protection Belt

│ 2000–5000 m

└──────────────────────────────

DESERT INTERIOR

3. PILOT CORRIDOR (5 KM)

Dimensions

Length:5 km

Average Width:5 km

Area:≈ 2,500 hectares

Main Functional Nodes

Coastal Restoration Nodes

Spacing:every 250 m

Functions:

dune stabilization

pioneer vegetation

erosion control

Total:20 nodes

Water Nodes

Spacing:every 500 m

Functions:

water storage

pumping

monitoring

Total:10 nodes

Desalination Clusters

Spacing:every 500–1000 m

Functions:

freshwater production

local distribution

Total:5–10 clusters

Greenhouse & Nursery Clusters

Spacing:every 1 km

Functions:

propagation

acclimatization

seedling production

Total:5 clusters

4. SERVICE ROAD NETWORK

Primary Service Road

Runs parallel to the coast.
Purpose:

maintenance access

equipment movement

emergency response

Width:4–6 m

Length:5 km

Secondary Tracks

Connect:

desalination units

reservoirs

nurseries

monitoring stations

Width:2–3 m

5. WATER MASTER PLAN

Water Production

Solar Desalination Clusters

Each Cluster:

6–12 desalination units

Output:

600–2400 liters/day

Total Pilot Output

5–10 clusters

Expected Production:

6–24 m³/day

Water Storage Network

Central Reservoirs

Capacity:50–100 m³ each

Quantity:3–4

Distributed Reservoirs

Capacity:5–20 m³ each

Quantity:20–40

Emergency Reserve

Minimum:

7 days of operational demand

6. GREENHOUSE MASTER PLAN

Cluster Structure

Each Cluster Contains:

3–4 main greenhouses

1–2 acclimatization units

compost area

seed storage

water tanks

Pilot Totals

Main Greenhouses:16

Acclimatization Units:8

Total:24

7. COMPOST MASTER PLAN

Compost Zones

Located primarily in:

Zone 3Zone 4

Infrastructure

Compost Pits

200–400

Distributed in restoration grids.

Compost Trenches

50–100

Integrated with water infiltration structures.

8. FOG HARVESTING NETWORK

Placement

Highest priority:

ridges

elevated points

exposed wind corridors

Pilot Installation

20–50 fog harvesting units

Net Area:20–40 m² each

9. MONITORING NETWORK

Environmental Monitoring Stations

Quantity:5–10

Measure:

wind

humidity

temperature

soil moisture

salinity

Groundwater Monitoring Wells

Quantity:10–20

Measure:

water level

salinity

seasonal variation

10. VEGETATION MASTER PLAN

Phase 1

Years 0–1

Priority:

Zone 6

Zone 2

Species:

Tamarix

Prosopis

Acacia

Atriplex

Phase 2

Years 1–2

Priority:

Zone 3

Species:

Acacia tortilis

Leucaena

Sesbania

Moringa

Phase 3

Years 2–4

Priority:

Zone 4

Species:

Carob

Ziziphus

Acacia albida

Phase 4

Years 3–6

Priority:

Zone 5

Species:

Olive

Fig

Pomegranate

Date Palm

11. EXPANSION PLAN

Stage I

Pilot:5 km

Purpose:Validation

Stage II

Expansion:15 km

Purpose:Regional Demonstration Corridor

Stage III

Expansion:30 km+

Purpose:Integrated Coastal Green Belt

12. LANDSCAPE ARCHITECTURE CONCEPT

The corridor shall not be designed as a uniform plantation.
Instead, it will consist of:

ecological cells

restoration modules

vegetation clusters

water nodes

productivity zones

This increases resilience and reduces environmental risk.

13. TARGET OUTCOMES (5 KM PILOT)

After 5 Years:

stabilized dunes

permanent vegetation cover

active soil formation

functioning water network

nursery production system

productive agroforestry areas

measurable biodiversity increase

14. LONG-TERM REGIONAL VISION

The DREVO Coastal Green Belt can evolve into a continuous ecological infrastructure corridor protecting coastal lands while creating:

environmental resilience

food production

economic opportunities

climate adaptation capacity

ecosystem restoration at regional scale

MASTER PLAN SUMMARY

Pilot Area:5 km

Expansion Potential:30 km+

Core Systems:

✓ Coastal Protection✓ Desert Stabilization✓ Solar Desalination✓ Water Harvesting✓ Soil Regeneration✓ Nurseries & Greenhouses✓ Agroforestry Production✓ Biodiversity Restoration

The project is designed as a modular, scalable and climate-resilient landscape restoration framework.

ECONOMIC APPENDIX

Financial and Socio-Economic Framework

DREVO Coastal Green Belt Initiative

1. PURPOSE

This Economic Appendix provides a preliminary financial framework for the implementation of the DREVO Coastal Green Belt Initiative.

The document evaluates:
capital investment requirements;
operational costs;
economic outputs;
employment creation;
long-term financial sustainability;
regional development impact.

2. PROJECT SCALE

Pilot Phase

Length:5 km

Area:≈ 2,500 ha

Implementation Period:5 years

Expansion Phase

Length:15 km

Area:≈ 7,500 ha

Regional Phase

Length:30 km

Area:≈ 15,000 ha

3. CAPITAL EXPENDITURE (CAPEX)

Pilot Phase (5 km)

Category

Estimated Cost (€)

Site surveys & design

100,000

Terrain shaping

250,000

Dune stabilization

200,000

Solar desalination units

600,000

Water storage

150,000

Greenhouses

180,000

Nursery infrastructure

120,000

Compost infrastructure

80,000

Monitoring systems

70,000

Roads and access

150,000

Contingency (15%)

255,000

Total CAPEX (5 km)

≈ €2.15 million

Expansion (15 km)

Estimated CAPEX

€5.5–7.0 million

Regional Deployment (30 km)

Estimated CAPEX

€10–15 million

depending on infrastructure density.

4. OPERATIONAL EXPENDITURE (OPEX)

Annual Costs (Pilot)

Category

€/year

Personnel

250,000

Equipment maintenance

80,000

Water systems

70,000

Greenhouse operation

40,000

Monitoring

25,000

Transport

50,000

Consumables

35,000

Total Annual OPEX

≈ €550,000/year

5. EMPLOYMENT IMPACT

Direct Jobs (Pilot)

Function

Jobs

Project management

Engineers

Technicians

Nursery staff

Greenhouse staff

Restoration workers

Monitoring team

Direct Employment

≈ 49 jobs

Indirect Employment

Expected:

50–150 additional jobs

through:
transport;
local suppliers;
agricultural activities;
ecosystem services.

6. REVENUE STREAMS

The project is designed around multiple income sources.

A. Nursery Production

Annual production:

10,000–50,000 seedlings

Potential revenue:

€50,000–250,000/year

B. Agroforestry Products

Future production:
olives;
figs;
pomegranates;
dates;
carob.
Potential revenue:

€200,000–1,000,000/year

depending on maturity.

C. Seaweed Products

Potential outputs:
compost;
mulch;
biofertilizers;
feed additives.
Potential revenue:

€50,000–300,000/year

D. Soil Products

Products:
compost;
biochar blends;
soil conditioners.
Potential revenue:

€30,000–150,000/year

E. Carbon Credits

Potential future participation in voluntary carbon markets.
Estimated future value:

€100,000–500,000/year

depending on certification and project scale.

7. FINANCIAL PROJECTION

Pilot Phase (Illustrative)

Year

Revenue (€)

OPEX (€)

Net Result (€)

100,000

550,000

-450,000

200,000

560,000

-360,000

450,000

600,000

-150,000

800,000

650,000

+150,000

1,200,000

700,000

+500,000

8. ECONOMIC MULTIPLIER EFFECT

Expected secondary benefits:
land value enhancement;
infrastructure protection;
reduced dune management costs;
increased agricultural potential;
tourism and educational opportunities.

9. COST OF INACTION

Without intervention:
Potential risks include:
increased dune movement;
infrastructure exposure;
soil degradation;
reduced land productivity;
higher future restoration costs.

The project should therefore be considered both a restoration initiative and a preventative investment.

10. PUBLIC VALUE CREATION

The project contributes to:

✓ Climate adaptation

✓ Coastal protection

✓ Employment generation

✓ Food security

✓ Biodiversity restoration

✓ Water resilience

✓ Sustainable regional development

11. RETURN ON INVESTMENT (PRELIMINARY)

Pilot Phase:

Estimated break-even:Year 5–7

Regional Phase:

Estimated break-even:Year 6–10

Depending on:
vegetation establishment success;
water production efficiency;
agroforestry productivity;
carbon market participation.

12. FUNDING STRUCTURE

Potential sources:

Public

Regional development programs

Climate adaptation funds

Environmental restoration budgets

International

Green Climate Fund

Adaptation Fund

Global Environment Facility

UN environmental programs

Private

Impact investors

ESG investment funds

Carbon market participants

Agroforestry investors

13. LONG-TERM ECONOMIC VISION

The DREVO Coastal Green Belt is intended to become:
a self-sustaining ecological infrastructure system;
a regional restoration model;
a source of employment and productive landscapes;
a climate adaptation asset for future generations.

ECONOMIC SUMMARY

Pilot Phase (5 km)

CAPEX:≈ €2.15 million

Annual OPEX:≈ €550,000

Direct Jobs:≈ 50

Indirect Jobs:50–150

Potential Mature Revenue:€1–2 million/year

Projected Break-even:5–7 years

Strategic Value:Long-term environmental and economic resilience.

RISK ASSESSMENT & GOVERNANCE FRAMEWORK

DREVO Coastal Green Belt Initiative

Governance, Risk Management and Operational Framework

1. PURPOSE

This document establishes the governance structure, risk assessment methodology, decision-making processes and operational responsibilities for the DREVO Coastal Green Belt Initiative.

The framework aims to ensure:
transparency;
accountability;
environmental compliance;
financial sustainability;
stakeholder participation;
long-term project resilience.

2. GOVERNANCE PRINCIPLES

The project shall be governed according to the following principles:

Sustainability

All activities must contribute to long-term ecological restoration.

Transparency

Financial and operational reporting shall be publicly available to relevant stakeholders.

Scientific Validation

Engineering and ecological decisions shall be evidence-based.

Local Participation

Local communities should be involved whenever possible.

Adaptive Management

Management strategies shall be adjusted based on monitoring results.

3. GOVERNANCE STRUCTURE

Steering Committee

Responsibilities:
strategic decisions;
budget approval;
expansion approval;
major partnerships.
Composition:
government representatives;
environmental experts;
engineering advisors;
project management.

Technical Advisory Board

Responsibilities:
engineering review;
environmental assessment;
scientific oversight.
Members:
hydrologists;
ecologists;
agronomists;
renewable energy specialists.

Project Management Unit (PMU)

Responsibilities:
daily operations;
procurement;
reporting;
contractor coordination.

Local Operations Teams

Responsibilities:
planting;
maintenance;
monitoring;
infrastructure operation.

4. DECISION-MAKING FRAMEWORK

Strategic Decisions

Examples:
project expansion;
major budget changes;
infrastructure modifications.
Approval Level:

Steering Committee

Technical Decisions

Examples:
species selection;
engineering adaptations;
monitoring protocols.
Approval Level:

Technical Advisory Board

Operational Decisions

Examples:
maintenance schedules;
staffing;
procurement.
Approval Level:

Project Management Unit

5. STAKEHOLDER FRAMEWORK

Key stakeholders may include:

Government Agencies

environmental authorities;
regional development authorities;
water management agencies;
agricultural departments.

Academic Institutions

universities;
research centers;
environmental laboratories.

Local Communities

workers;
cooperatives;
farmers;
educational groups.

Private Sector

engineering companies;
renewable energy providers;
environmental technology firms.

6. RISK MANAGEMENT APPROACH

Risk management follows four steps:

Step 1

Risk Identification

Step 2

Risk Assessment

Step 3

Mitigation Planning

Step 4

Continuous Monitoring

7. ENVIRONMENTAL RISKS

Risk E1

Extreme Drought

Probability:High

Impact:High

Mitigation:
phased planting;
drought-resistant species;
water storage reserves;
adaptive irrigation.

Risk E2

Sand Encroachment

Probability:High

Impact:High

Mitigation:
stabilization grids;
dune barriers;
pioneer vegetation.

Risk E3

Salinity Accumulation

Probability:Medium

Impact:High

Mitigation:
drainage systems;
salinity monitoring;
controlled irrigation.

Risk E4

Biodiversity Imbalance

Probability:Medium

Impact:Medium

Mitigation:
diverse species mix;
ecological monitoring.

8. WATER RISKS

Risk W1

Lower-than-Expected Water Production

Probability:Medium

Impact:High

Mitigation:
multiple water sources;
reserve capacity;
phased expansion.

Risk W2

Desalination System Failure

Probability:Medium

Impact:Medium

Mitigation:
modular design;
spare parts inventory;
redundancy.

Risk W3

Groundwater Salinity Increase

Probability:Medium

Impact:High

Mitigation:
monitoring wells;
controlled extraction;
alternative sources.

9. ENGINEERING RISKS

Risk T1

Infrastructure Damage from Wind

Probability:High

Impact:Medium

Mitigation:
reinforced structures;
wind-resistant design.

Risk T2

Solar Equipment Degradation

Probability:Medium

Impact:Medium

Mitigation:
regular maintenance;
protective coatings.

Risk T3

Reservoir Failure

Probability:Low

Impact:High

Mitigation:
inspection schedules;
backup storage.

10. FINANCIAL RISKS

Risk F1

Cost Overruns

Probability:Medium

Impact:High

Mitigation:
contingency budgets;
phased procurement.

Risk F2

Funding Delays

Probability:Medium

Impact:High

Mitigation:
diversified funding sources;
reserve funds.

Risk F3

Revenue Underperformance

Probability:Medium

Impact:Medium

Mitigation:
multiple revenue streams;
conservative projections.

11. OPERATIONAL RISKS

Risk O1

Insufficient Skilled Personnel

Probability:Medium

Impact:Medium

Mitigation:
training programs;
partnerships with universities.

Risk O2

Equipment Maintenance Delays

Probability:Medium

Impact:Medium

Mitigation:
maintenance contracts;
spare equipment inventory.

Risk O3

Supply Chain Disruptions

Probability:Medium

Impact:Medium

Mitigation:
local sourcing whenever possible;
inventory planning.

12. SOCIAL RISKS

Risk S1

Insufficient Community Engagement

Probability:Medium

Impact:High

Mitigation:
local employment;
consultation programs;
education initiatives.

Risk S2

Stakeholder Conflict

Probability:Low

Impact:Medium

Mitigation:
transparent communication;
independent mediation procedures.

13. COMPLIANCE FRAMEWORK

The project shall comply with:
environmental regulations;
water management regulations;
labor laws;
health and safety requirements;
land use regulations.
All permits shall be obtained prior to implementation.

14. REPORTING FRAMEWORK

Monthly

operational reports;
maintenance reports.

Quarterly

financial reports;
environmental monitoring reports.

Annual

independent audit;
environmental performance review;
strategic assessment.

15. KEY PERFORMANCE INDICATORS (KPIs)

Environmental

vegetation survival rate;
soil organic matter increase;
dune stabilization progress.

Water

freshwater production;
water efficiency;
storage reliability.

Economic

jobs created;
operational cost efficiency;
revenue generation.

Social

local participation;
training activities;
stakeholder satisfaction.

16. CRISIS MANAGEMENT PLAN

Emergency procedures shall be established for:
extreme weather events;
infrastructure failure;
water shortages;
environmental incidents.
A crisis response team shall be designated.

17. PROJECT EXIT AND SUCCESSION STRATEGY

The project should ultimately transition toward:
local operational capacity;
self-sustaining management systems;
long-term environmental stewardship.

GOVERNANCE SUMMARY

Governance Model:Multi-stakeholder, science-based, transparent.
Primary Risks:Water availability, dune movement, funding continuity.
Risk Strategy:Modular implementation, diversification, continuous monitoring.

Success Criteria:Ecological restoration, operational sustainability, economic viability and long-term resilience.

PILOT PHASE IMPLEMENTATION PLAN

YEAR 3 OPERATIONAL PROGRAM

DREVO Coastal Green Belt Initiative

Pilot Corridor: 5 km

Operational Year: Year 3

1. YEAR 3 OBJECTIVE

Year 3 marks the transition from ecosystem establishment to ecosystem development.
Primary objectives:
increase vegetation density;
expand productive agroforestry systems;
begin fruit tree establishment;
increase freshwater production;
improve soil quality;
strengthen economic outputs;
prepare expansion to 15 km.

2. TARGETS FOR YEAR 3

Vegetation

Target Survival Rate:≥ 80%

Additional Planting:

10,000–20,000 shrubs

3,000–5,000 trees

50,000–100,000 grass and groundcover plants

Soil

Targets:

+0.5–1.0% organic matter increase

expanded compost network

active fungal and microbial development

Water

Targets:

25–30 m³/day freshwater production

full operation of storage network

improved irrigation efficiency

3. YEAR 3 PRIORITIES

Priority 1:Consolidation of Zones 2–4

Priority 2:Expansion of Zone 5 agroforestry

Priority 3:First commercial production

Priority 4:Preparation of 15 km expansion study

4. QUARTER 1 (JAN–MAR)

Vegetation Assessment

Activities:

survival audit

GPS vegetation survey

replacement planning

KPI:

≥80% survival

Soil Assessment

Activities:

soil sampling

salinity monitoring

organic matter testing

KPI:

annual improvement trend confirmed

Water System Maintenance

Activities:

desalination inspection

reservoir inspection

pipeline inspection

KPI:

95% operational uptime

5. QUARTER 2 (APR–JUN)

Expansion Planting

Target:

2,000–3,000 trees

Main Species:

Acacia albida

Moringa

Carob

Ziziphus

Compost Expansion

Construction:

50 new compost pits

10–20 new compost trenches

Seaweed Program

Activities:

collection

compost integration

soil amendment trials

Target:

200–500 tonnes/year biomass utilization

6. QUARTER 3 (JUL–SEP)

Productive Zone Development

Zone 5 Expansion

Species:

Olive

Fig

Pomegranate

Date Palm

Target:

500–1,000 productive trees

Irrigation Optimization

Activities:

drip system upgrades

water efficiency monitoring

Target:

15–20% reduction in water consumption per plant

Nursery Expansion

Annual Capacity Target:

50,000 seedlings

7. QUARTER 4 (OCT–DEC)

Ecosystem Evaluation

Activities:

biodiversity survey

vegetation mapping

carbon estimation

Expansion Planning

Activities:

engineering review

financial review

design of 15 km expansion

Annual Report

Preparation of:

environmental report

technical report

economic report

8. INFRASTRUCTURE PROGRAM

Solar Desalination

Year 3 Goal:
Increase installed capacity to:

30–60 operational units

Production Target:

25–30 m³/day

Water Storage

Target Capacity:

300–500 m³

Fog Harvesting

Expansion:

10–20 additional fog collectors

Target Total:

30–50 units

Greenhouses

Target:

24 operational structures

Capacity:

50,000 seedlings/year

9. PLANTING PROGRAM

Zone 3

Species:

Acacia tortilis

Prosopis

Leucaena

Target:

1,000–2,000 trees

Zone 4

Species:

Moringa

Carob

Ziziphus

Acacia albida

Target:

1,500–2,500 trees

Zone 5

Species:

Olive

Fig

Pomegranate

Date Palm

Target:

500–1,000 trees

10. EMPLOYMENT PLAN

Direct Employment

Year 3:

60–80 full-time equivalent positions

Seasonal Employment

Additional:

20–50 workers

during planting periods

11. BUDGET (YEAR 3)

Category

Budget (€)

Personnel

300,000

Infrastructure Maintenance

120,000

Water Systems

100,000

Nursery Operations

80,000

Compost Program

40,000

Monitoring

30,000

Logistics

60,000

Contingency

70,000

Total Year 3 Budget

≈ €800,000

12. REVENUE TARGETS

Revenue Source

Target (€)

Seedlings

150,000

Compost Products

50,000

Seaweed Products

50,000

Agroforestry Products

150,000

Grants & Programs

200,000

Total Revenue Target

≈ €600,000

13. YEAR 3 KPIs

Environmental:

✓ 80% vegetation survival

✓ Soil organic matter increase

✓ Reduced dune movement

✓ Biodiversity growth

Water:

✓ 25–30 m³/day freshwater

✓ 95% infrastructure uptime

Economic:

✓ €600,000 revenue

✓ 60–80 jobs

Social:

✓ local workforce participation

✓ training programs operational

14. YEAR 3 SUCCESS CRITERIA

The Year 3 Pilot Phase shall be considered successful if:
the ecological system becomes self-reinforcing;
productive agroforestry begins generating income;
water infrastructure meets operational targets;
vegetation survival remains above 80%;
preparation for 15 km expansion is completed.

YEAR 3 SUMMARY

Project Status:Transition from establishment to productivity.
Primary Focus:Soil → Water → Agroforestry → Economic Output.

Strategic Outcome:Creation of a functioning coastal ecological corridor capable of long-term expansion.

NATIONAL BENEFITS ASSESSMENT

DREVO Coastal Green Belt Initiative

Strategic National Benefits Assessment for the Kingdom of Morocco

1. EXECUTIVE SUMMARY

The DREVO Coastal Green Belt Initiative is designed not only as an environmental restoration project but as a strategic national infrastructure investment.

The project supports Morocco's long-term objectives in:
climate adaptation;
desertification control;
water resilience;
food security;
renewable energy utilization;
employment generation;
regional development.

The initiative aligns with Morocco's vision for sustainable development in the southern regions and may serve as a demonstration model for arid coastal restoration worldwide.

2. NATIONAL STRATEGIC VALUE

Climate Resilience

The project creates a permanent ecological buffer between the Atlantic coast and inland desert areas.

Benefits:
reduced vulnerability to desertification;
improved landscape stability;
increased resilience to climate change.

Coastal Protection

Benefits:
dune stabilization;
reduction of wind erosion;
protection of roads and infrastructure;
long-term landscape management.

Water Security

Benefits:
decentralized freshwater production;
reduced dependence on transported water;
development of renewable water infrastructure.

Renewable Energy Integration

Benefits:
solar-powered desalination;
low-carbon water production;
demonstration of innovative renewable technologies.

3. CONTRIBUTION TO MOROCCO'S NATIONAL PRIORITIES

The project contributes to:

Environmental Priorities

✓ Combating desertification

✓ Ecosystem restoration

✓ Biodiversity enhancement

✓ Sustainable land management

Economic Priorities

✓ Regional development

✓ Job creation

✓ Agricultural diversification

✓ Climate investment attraction

Social Priorities

✓ Local employment

✓ Skills development

✓ Community participation

✓ Youth engagement

4. LAND PROTECTION IMPACT

Pilot Phase (5 km)

Approximate protected area:

2,500 hectares

Expansion Phase (15 km)

Approximate protected area:

7,500 hectares

Regional Deployment (30 km)

Approximate protected area:

15,000 hectares

5. DESERTIFICATION CONTROL BENEFITS

Expected outcomes:
stabilization of priority dune systems;
reduction of sand movement;
increased vegetation cover;
improved soil formation.
Long-term effect:
Reduced future costs associated with land degradation and infrastructure protection.

6. WATER BENEFITS

Pilot Phase

Target production:

25–30 m³/day

Annual production:

9,000–11,000 m³/year

Regional Scale (30 km)

Potential production:

150–300 m³/day

Annual production:

55,000–110,000 m³/year

7. EMPLOYMENT BENEFITS

Direct Jobs

Pilot Phase

50–80 jobs

15 km Expansion

150–250 jobs

30 km Deployment

300–500 jobs

Indirect Jobs

Expected additional employment:
transport;
maintenance;
agriculture;
processing;
tourism;
environmental services.
Potential:

500–1,000 indirect jobs.

8. AGRICULTURAL BENEFITS

Potential future production:
olives;
dates;
figs;
pomegranates;
carob;
fodder crops;
nursery plants.
Benefits:
diversification of agricultural activity;
increased local production;
development of agroforestry systems.

9. NURSERY INDUSTRY DEVELOPMENT

Annual seedling production potential:

Pilot Phase

10,000–50,000 seedlings

Regional Phase

100,000–500,000 seedlings

Benefits:
reduced dependence on imported plant material;
support for future restoration projects.

10. CARBON SEQUESTRATION BENEFITS

Long-Term Potential

Vegetation establishment contributes to:
biomass accumulation;
soil carbon storage;
carbon sequestration.
Potential future participation in:
voluntary carbon markets;
climate finance mechanisms.

11. BIODIVERSITY BENEFITS

Expected improvements:
increased vegetation diversity;
pollinator habitat creation;
bird habitat establishment;
improved ecological connectivity.
Benefits extend beyond project boundaries.

12. EDUCATION AND RESEARCH BENEFITS

The project can function as:
a living laboratory;
a demonstration site;
a training center.
Potential partnerships:
Moroccan universities;
international research institutions;
climate adaptation programs.

13. TECHNOLOGY DEVELOPMENT BENEFITS

Demonstration of:
solar desalination;
fog harvesting;
regenerative land management;
ecological engineering.
Potential export of expertise to other arid regions.

14. ECONOMIC MULTIPLIER EFFECT

Expected secondary economic impacts:
local procurement;
logistics services;
equipment supply;
training services;
tourism and educational visits.

15. REGIONAL DEVELOPMENT BENEFITS

Particularly relevant for southern regions:
Benefits include:
infrastructure enhancement;
employment opportunities;
environmental stability;
improved investment attractiveness.

16. COST AVOIDANCE BENEFITS

Without intervention:
Potential future costs:
increased dune management;
infrastructure protection expenses;
land degradation;
reduced productivity.
The project functions as a preventative investment.

17. INTERNATIONAL POSITIONING

The initiative may strengthen Morocco's position as:
a regional leader in climate adaptation;
a pioneer in arid-land restoration;
a developer of renewable water solutions;
a participant in global sustainability initiatives.

18. ESTIMATED NATIONAL IMPACT (30 KM CORRIDOR)

Indicator

Estimated Value

Protected Land

15,000 ha

Direct Jobs

300–500

Indirect Jobs

500–1,000

Freshwater Production

55,000–110,000 m³/year

Seedling Production

100,000–500,000/year

Carbon Sequestration

Significant long-term potential

Biodiversity Impact

Positive regional enhancement

CONCLUSION

The DREVO Coastal Green Belt Initiative represents a strategic investment in environmental resilience, water security, employment generation and sustainable regional development.

Beyond ecological restoration, the project creates a long-term national asset capable of supporting climate adaptation, economic diversification and infrastructure protection while contributing to Morocco's broader sustainable development objectives.

Strategic Vision

"Transforming vulnerable coastal desert landscapes into resilient ecological and economic corridors for future generations."

🇲🇦 الخط الأخضر المغربي

إطار الإرث الملكي الوطني

المملكة المغربية

رؤية استراتيجية للأجيال القادمة

2027 – 2050

مقدمة

على مر العصور، ارتبطت قوة الدول العظمى بقدرتها على بناء إرث دائم يتجاوز حدود جيل واحد.

وتُقاس عظمة المشاريع الوطنية ليس فقط بما تحققه اليوم، بل بما تتركه للأجيال القادمة من موارد وفرص واستقرار وازدهار.

ويأتي مشروع الخط الأخضر المغربي باعتباره رؤية وطنية طويلة الأمد تهدف إلى المساهمة في بناء إرث بيئي واقتصادي وعلمي مستدام للمملكة المغربية.

مفهوم الإرث الوطني

الإرث الوطني لا يقتصر على المباني أو البنية التحتية.

بل يشمل:

الموارد الطبيعية المحمية؛

الأمن المائي؛

المعرفة العلمية؛

التنمية الاقتصادية؛

جودة الحياة؛

استدامة الأجيال القادمة.

الرؤية الملكية للإرث الوطني

بحلول عام 2050، يمكن أن يشكل الخط الأخضر المغربي أحد أهم المشاريع البيئية والتنموية في تاريخ المملكة الحديثة.

ويهدف إلى إنشاء:

إرث مائي

إرث بيئي

إرث علمي

إرث اقتصادي

إرث سياحي

إرث حضاري

الإرث المائي

يهدف المشروع إلى تعزيز قدرة المملكة على مواجهة تحديات المياه عبر:

تطوير حلول مائية مستدامة؛

تنويع مصادر المياه؛

تخزين الموارد المائية؛

تحسين إدارة المياه.

الهدف النهائي:

تعزيز الأمن المائي الوطني على المدى الطويل.

الإرث البيئي

يساهم المشروع في:

حماية الساحل الأطلسي؛

تثبيت الكثبان الرملية؛

استعادة التربة؛

زيادة الغطاء النباتي؛

حماية التنوع البيولوجي.

الإرث العلمي

يقترح المشروع إنشاء منظومة بحثية وطنية متخصصة في:

استعادة النظم البيئية؛

إدارة المياه؛

التكيف المناخي؛

الزراعة في المناطق الجافة؛

التقنيات البيئية.

المركز المغربي للتجديد البيئي

رؤية مستقبلية لإنشاء مركز وطني ودولي للبحث والتطوير في مجالات:

المياه؛

المناخ؛

البيئة الساحلية؛

الاقتصاد الأخضر.

الإرث الاقتصادي

يمكن أن يساهم المشروع في:

خلق فرص عمل جديدة؛

دعم الاستثمار؛

تطوير الاقتصاد الأخضر؛

دعم المقاولات المحلية؛

تنمية الأقاليم الساحلية.

الإرث السياحي

يوفر المشروع الأساس لإنشاء وجهات سياحية بيئية جديدة، مثل:

المنتزهات الأطلسية الخضراء

حدائق الساحل الملكية

واحات المحيط الأطلسي

مسارات الصحراء والمحيط

إرث الأقاليم الجنوبية

يمكن للمشروع أن يدعم التنمية طويلة الأمد للأقاليم الجنوبية عبر:

تحسين البيئة المحلية؛

تعزيز جاذبية الاستثمار؛

تطوير السياحة المستدامة؛

خلق فرص اقتصادية جديدة.

الإرث للأجيال القادمة

إن الهدف النهائي للمبادرة هو ترك بيئة أكثر استدامة للأجيال المقبلة من خلال:

زيادة الموارد الطبيعية؛

تحسين جودة الحياة؛

تعزيز الأمن المائي؛

توفير فرص اقتصادية مستدامة.

رؤية عام 2100

لا تقتصر الرؤية على عام 2050 فقط.

بل تهدف إلى أن يصبح الخط الأخضر المغربي بحلول نهاية القرن:

أحد أهم الأصول البيئية الوطنية

نموذجاً عالمياً للتنمية المستدامة

رمزاً للريادة المغربية في حماية البيئة والمناخ

الأثر الوطني المتوقع

بحلول اكتمال المشروع، يمكن أن يسهم في:

تعزيز الأمن المائي؛

حماية السواحل؛

استعادة النظم البيئية؛

زيادة جاذبية المملكة للاستثمار والسياحة؛

تعزيز مكانة المغرب الدولية.

الرسالة الختامية

إن بناء الإرث الحقيقي لا يتم عبر مشاريع قصيرة الأجل، بل عبر رؤى طويلة المدى تستثمر في الإنسان والطبيعة والمعرفة.

ويمثل الخط الأخضر المغربي فرصة للمساهمة في بناء إرث وطني دائم يعزز ازدهار المملكة المغربية ويحافظ على مواردها للأجيال القادمة.

🇲🇦 الخط الأخضر المغربي

من المحيط إلى الواحة

بناء إرث أخضر للأجيال القادمة

مقدم من

مبادرة DREVO الدولية للتنمية المستدامة

يمثلها:

أوليكساندر رود

مؤسس جمعية DREVO – سويسرا

مؤسس ومطور مشروع الخط الأخضر المغربي

🇲🇦 الخط الأخضر المغربي

الميثاق الملكي للمياه والمناخ 2050

المملكة المغربية

رؤية وطنية للأمن المائي والمرونة المناخية

الديباجة

إدراكاً للأهمية الاستراتيجية للمياه باعتبارها أساس الحياة والتنمية والاستقرار،

ووعياً بالتحديات المناخية المتزايدة التي تواجه العالم خلال القرن الحادي والعشرين،

وإيماناً بالدور الريادي للمملكة المغربية في حماية البيئة وتعزيز التنمية المستدامة،

يقدم هذا الميثاق إطاراً استراتيجياً طويل الأمد يهدف إلى تعزيز الأمن المائي والمرونة المناخية وحماية الموارد الطبيعية للأجيال القادمة.

الرؤية الوطنية 2050

بحلول عام 2050 تسعى المملكة المغربية إلى ترسيخ مكانتها كدولة رائدة في:

الأمن المائي المستدام

التكيف مع التغير المناخي

حماية النظم البيئية

الإدارة المتكاملة للموارد الطبيعية

التنمية الخضراء منخفضة الانبعاثات

المبادئ الأساسية

المبدأ الأول

الماء ثروة وطنية استراتيجية

تُعد الموارد المائية أحد أهم الأصول الوطنية ويجب إدارتها بكفاءة واستدامة.

المبدأ الثاني

المناخ مسؤولية مشتركة

يتطلب التكيف مع التغير المناخي تعاون جميع المؤسسات والقطاعات والمجتمعات.

المبدأ الثالث

الطبيعة شريك في التنمية

تُعد النظم البيئية السليمة جزءاً أساسياً من البنية التحتية الوطنية.

المبدأ الرابع

الاستثمار في المستقبل

كل استثمار في المياه والتربة والغطاء النباتي يمثل استثماراً في أمن وازدهار الأجيال القادمة.

الأهداف الاستراتيجية

الأمن المائي

تعزيز تنوع واستدامة الموارد المائية من خلال:

التحلية المستدامة؛

حصاد الضباب؛

إعادة استخدام المياه؛

تجميع مياه الأمطار؛

تخزين المياه.

حماية الموارد الطبيعية

دعم:

حماية التربة؛

استعادة الأراضي المتدهورة؛

تثبيت الكثبان الرملية؛

حماية السواحل.

التكيف المناخي

رفع قدرة المملكة على مواجهة:

موجات الجفاف؛

التصحر؛

ارتفاع درجات الحرارة؛

الضغوط البيئية المتزايدة.

الأمن المائي الوطني

يهدف الميثاق إلى دعم إنشاء منظومة وطنية متكاملة تشمل:

موارد مائية تقليدية

موارد مائية غير تقليدية

بنية تحتية طبيعية للمياه

حلول مبتكرة منخفضة التكلفة

البنية التحتية الطبيعية

يشجع الميثاق على تعزيز قدرة الأنظمة الطبيعية على تخزين المياه من خلال:

الغطاء النباتي؛

تحسين خصوبة التربة؛

حماية الأحواض المائية؛

استعادة الأنظمة البيئية.

الأقاليم الجنوبية

تمثل الأقاليم الجنوبية مجالاً استراتيجياً لتطبيق الحلول المبتكرة في:

الأمن المائي

مكافحة التصحر

التنمية البيئية

البحث العلمي

الاقتصاد الأخضر

الابتكار والبحث العلمي

يدعم الميثاق تطوير برامج وطنية للبحث في:

إدارة المياه؛

تحلية المياه بالطاقة المتجددة؛

حصاد الضباب؛

التكيف المناخي؛

استعادة النظم البيئية.

التعليم والتوعية

يشجع الميثاق على:

نشر ثقافة المحافظة على المياه؛

تعزيز التعليم البيئي؛

دعم برامج التوعية المجتمعية؛

إشراك الشباب في مبادرات الاستدامة.

الشراكات الوطنية والدولية

يعتمد تحقيق أهداف الميثاق على التعاون بين:

المؤسسات الحكومية؛

الجامعات ومراكز البحث؛

القطاع الخاص؛

المجتمع المدني؛

الشركاء الدوليين.

الالتزام تجاه الأجيال القادمة

يؤكد هذا الميثاق أن إدارة المياه والمناخ ليست مسؤولية الحاضر فقط، بل أمانة تجاه الأجيال المقبلة.

ويجب أن تستند جميع السياسات والمشاريع طويلة الأمد إلى مبادئ:

الاستدامة

العدالة بين الأجيال

الكفاءة

الابتكار

المسؤولية البيئية

رؤية 2050

بحلول عام 2050 يمكن للمملكة المغربية أن تحقق:

منظومة مائية أكثر مرونة؛

قدرة أعلى على مواجهة الجفاف؛

سواحل أكثر استدامة؛

أنظمة بيئية أكثر صحة؛

اقتصاداً أخضر أكثر قوة؛

مكانة دولية رائدة في الأمن المائي والتكيف المناخي.

الأثر الوطني المتوقع

مائياً

تعزيز الأمن المائي الوطني.

بيئياً

استعادة النظم البيئية وحماية التنوع البيولوجي.

اقتصادياً

دعم التنمية والاستثمار الأخضر.

اجتماعياً

تحسين جودة الحياة وتعزيز الاستقرار المجتمعي.

استراتيجياً

تعزيز صمود المملكة أمام التحديات المستقبلية.

الإعلان الختامي

إن المياه والمناخ يمثلان أساس استقرار وازدهار المملكة المغربية.

ويشكل هذا الميثاق دعوة وطنية للعمل المشترك من أجل بناء مستقبل أكثر أمناً واستدامة للأجيال الحالية والقادمة.