# Zimbabwe — State Action Plans

- **Source:** ICAO (state_action_plans)
- **Country code:** ZWE
- **Year:** 2022
- **Language:** en
- **Origin URL:** https://www.icao.int/sites/default/files/sp-files/environmental-protection/Documents/ActionPlan/APER_Zimbabwe-Action-Plan-for-CO2-reduction.pdf
- **Ingested:** 2026-06-15T11:52:22.614262+00:00
- **Extraction:** pymupdf

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i 
 
 
 
 
 
ZIMBABWE’S ACTION PLAN FOR CO2 
EMISSION REDUCTION FROM 
INTERNATIONAL AVIATION 
 
 
 
 
December 2021 
 
 
This State Action Plan was developed under the Second Phase of the ICAO Assistance Project - Capacity Building for CO2 Mitigation from 
International Aviation – Development of ICAO States’ Action Plans for 10 States. 
Project funded by the European Union

ii 
 
Table of contents 
 
 
Contents 
 
Table of Figures................................................................................................................. ii 
PREAMBLE ..................................................................................................................... iii 
Abbreviations ................................................................................................................... iv 
Acknowledgements ............................................................................................................v 
1. POINTS OF CONTACT ...............................................................................................1 
2. EXECUTIVE SUMMARY ...........................................................................................2 
3. INTRODUCTION..........................................................................................................3 
4. BACKGROUND: NATIONAL CIVIL AVIATION SECTOR .................................5 
5. NATIONAL ACTION PLAN TEAM ..........................................................................1 
6. BASELINE FOR CO2 EMISSIONS IN INTERNATIONAL AVIATION .............3 
7. SELECTED MITIGATION MEASURES ..................................................................7 
8. EXPECTED RESULTS: FUEL SAVINGS ...............................................................15 
9. ROADMAP FOR THE IMPLEMENTATION OF MITIGATION MEASURES 17 
10. ASSISTANCE NEEDS ..............................................................................................18 
ANNEX 1 – MITIGATION MEASURES .....................................................................19 
ANNEX 2 – Decision to Create the NAPT .....................................................................27 
 
Table of Figures 
Figure 1 - Map of Zimbabwe........................................................................................................... 3 
Figure 2 - Government of Zimbabwe Logos ................................................................................... 5 
Figure 3 - Civil Aviation Authority of Zimbabwe Logo ................................................................. 5 
Figure 4 - Aerial view of RG Mugabe International Airport........................................................... 6 
Figure 5 - Air Zimbabwe Boeing 767 aircraft ................................................................................. 7 
Figure 6 - Faastjet Embraer 145 aircraft .......................................................................................... 7 
Figure 7 - Charles Prince Airport .................................................................................................... 8 
Figure 8 - National Handling Company of Zimbabwe check-in counters ....................................... 8 
Figure 9 - Organisations represented in the NAPT ......................................................................... 1 
Figure 10 - NAPT structure ............................................................................................................. 2 
Figure 11 - Baseline for CO2 emissions .......................................................................................... 5 
Figure 12 - Expected results: Fuel savings .................................................................................... 15 
Figure 13 - State Action Plan Implementation Roadmap .............................................................. 17

iv 
 
Abbreviations 
ACZ 
Airports Company of Zimbabwe 
AGS 
Aviation Ground Services 
ATM 
Air Traffic Management 
CAAZ 
Civil Aviation Authority of Zimbabwe 
CO2 
Carbon Dioxide 
CORSIA Carbon Offsetting and Reduction Scheme in International Aviation 
DANTS Directorate of Air Navigation and Technical Services 
EU 
European Union 
EBT 
Environmental Benefits Tool 
GSE 
Ground Support Equipment 
ICAO 
International Civil Aviation Organisation 
LED 
Light Emitting Diode 
NAPT 
National Action Plan Team 
NHS 
National Handling Services 
PBN 
Performance Based Navigation 
RTK 
Revenue Tonne Kilometre 
SAP 
State Action Plan 
SARPs 
Standards and Recommended Practices 
SID 
Standard Instrument Departure 
STAR 
Standard Instrument Arrival

v 
 
Acknowledgements 
 
The Civil Aviation Authority of Zimbabwe acknowledges the valuable 
contributions of individuals, organisations, Ministries and Departments of 
Government and the aviation stakeholders which led to the final production 
of this SAP. Special mention goes to the members of the National Action Plan 
Team for their significant role towards the preparation of this action plan. 
 
The Authority also acknowledges the financial and technical support of the 
Phase II ICAO-EU Assistance Project on Capacity Building for Reduction of 
CO2 Emissions from International Aviation. Zimbabwe has benefited a lot 
from the support that was received in training personnel, researching on 
mitigation measures and suggestions on implementing the mitigation 
measures to reduce CO2 emissions in international aviation. 
 
The ICAO Secretariat also played an important role in facilitating the 
assistance from the EU funded programme as well as providing unending 
guidance at every stage of the project. That is truly appreciated. Special 
mention goes to the ICAO consultants without whose guidance and support 
this SAP would not have been possible. 
 
Finally, the commitment of the CAAZ staff, and especially the focal points, 
is much appreciated.

vi 
 
About the ICAO Capacity Building Project 
 
With the goal of assisting States in their efforts to mitigate CO2 emissions 
from international aviation, and to ensure that all States have the capacity 
required to develop their Action Plans and implement mitigation measures, 
ICAO launched in 2013 the first phase of the Assistance Project Capacity 
building for CO2 mitigation from international aviation, in partnership with 
the European Union (EU).  The project successfully supported 14 States in 
Africa and the Caribbean, and met all its expected results, exceeding the initial 
targets by its completion in 2019.  
Building on this successful partnership, ICAO initiated the second Phase of 
its Assistance Project with the European Union funding. The Project seeks to 
contribute to the mitigation of CO2 emissions from international civil aviation 
in the selected States by implementing capacity building activities to support 
the development of low carbon air transport and environmental sustainability. 
The EU’s overall Action under this second phase involves three Areas of 
Activities, with ICAO responsible for Area of Activity 1, funded at 1.5 
million, and focusing on the Preparation and/or update and implementation of 
ICAO’s State Actions Plans. 
Since 2020, ICAO has officially kicked off the implementation of the Second 
Phase entitled “Capacity Building for CO2 Mitigation from International 
Aviation-Development of ICAO States’ Action Plans for 10 States”, planned 
to be carried out until October 2023, and providing support to five States from 
the Eastern and Southern African Region (Botswana, Madagascar, Rwanda, 
Seychelles and Zimbabwe), and five from the Western and Central African 
Region (Benin, Cabo Verde, Côte d'Ivoire, Mali, and Senegal).  
For more information, visit  
https://www.icao.int/environmental-protection/Pages/ICAO_EU_II.aspx

1 
 
1. POINTS OF CONTACT 
 
Civil Aviation Authority of Zimbabwe 
Robert Gabriel Mugabe International Airport 
Harare, Zimbabwe 
 
Tel: +242-585009/20 
 
Sherphard Machingauta – Focal Person 
Focal Point – Environmental Protection  
Civil Aviation Authority of Zimbabwe 
Cell: +263-719-073-607/ +263-776-349-015 
Email: smachingauta@caaz.co.zw 
 
Kudzai F. Ndidzano – Alternate Focal Person 
Deputy Director, Climate Change Management Department 
Ministry of Environment, Climate, Tourism and Hospitality Industry 
11th Floor, Kaguvi Building, Cnr 4th/Central Avenue, Harare 
Cell: +263 712 831 800 / +263 773 842 029  
Email: kudzie013@gmail.com

2 
 
2. EXECUTIVE SUMMARY 
 
This action plan provides an overview of the primary initiatives of the Civil 
Aviation Authority of Zimbabwe (CAAZ) in partnership with the 
Zimbabwean aviation industry and other Zimbabwean Government 
Departments to reduce carbon dioxide emissions from international aviation 
in Zimbabwe. CAAZ is committed to managing the carbon footprint of 
Zimbabwean aviation industry while simultaneously enhancing its safety and 
efficiency. ICAO methodology was used in preparation of this State Action 
Plan. 
Recognizing the effects of global warming, Zimbabwe has been sincerely 
exerting efforts to minimize the aviation’s carbon footprint through measures 
such as, but not limited to, air traffic improvements, airport initiatives as well 
as aircraft emissions reduction measures. 
Taking into account achievements to date, the SAP sets a goal to reduce CO2 
emissions from aviation activities, which is expected to contribute to global 
efforts in line with the broad international consensus in line with ICAO Doc 
9988. To help reach this goal, the SAP identifies five key measures that are 
expected to have the greatest environmental impact: 
- Aircraft related technology development 
- Improved ATM and Infrastructure use 
- Operational improvements 
- Market based measures 
- Airport improvements 
The SAP is a living document that will be constantly reviewed through: 
- Regular meetings of the NAPT and aviation stakeholders 
- Annual reporting on the progress towards achieving the SAP’s 
target 
- A review of the SAP within three years 
This plan is supported with funding from the ICAO-EU Assistance Project 
Phase II, on Capacity Building for CO2 Mitigation from International 
Aviation. Zimbabwe is committed to continuing the implementation of 
concrete actions towards a greener aviation.

3 
 
3. INTRODUCTION 
 
Zimbabwe is a landlocked country located in Southern Africa. It shares 
borders with Zambia to the North-West, Mozambique to the East, South 
Africa to the South and Botswana to the South-West.  
 
 
Figure 1 - Map of Zimbabwe

4 
 
Table 1- Facts about Zimbabwe 
Zimbabwe Facts 
Capital city: Harare 
Population: 14.86 million (World Bank 2020) 
Location: Borders Zambia, Mozambique, Botswana and South Africa 
Climate: Tropical; moderated by altitude; rainy season (November to 
March) 
 
Area: 390,580 sq km 
   Water: 3,910 sq km 
    Land: 386,670 sq km 
 
Gross Domestic Product: $16.93 billion (World Bank) 
 
CO2 emissions: 0.85 metric tons per capita (World Bank) 
Table 1- Facts about Zimbabwe 
 
Zimbabwe is home to the Mighty Victoria Falls, locally known as Mosi-oa-
Tunya - The Smoke That Thunders. It is one of UNESCO’s Seven Wonders 
of the World. Apart from tourism, agriculture and mining are some of the 
activities that support the Zimbabwean economy.  
To support the tourism, agriculture and mining industries mentioned above, 
the country is connected through a network of roads, rail, and air transport. 
There are eight (8) airports located in Harare, Bulawayo, Victoria Falls, 
Masvingo, Buffalo Range, Kariba and Hwange.

5 
 
4. BACKGROUND: NATIONAL CIVIL AVIATION SECTOR 
 
The civil aviation sector is under the control of the Ministry of Transport and 
Infrastructural Development. It oversees the whole transport sector in 
Zimbabwe. The environment and climate change portfolio is under the 
Ministry of Environment, Climate, Tourism and Hospitality Industry. The fuel 
and energy portfolio is managed by the Ministry of Energy and Power 
Development.  
 
The safety regulation of the aviation sector is managed by the Civil Aviation 
Authority of Zimbabwe (CAAZ). Until 2020, the safety regulator, CAAZ, was 
also responsible for operation of the airports in Zimbabwe. However, 
following a recommendation from ICAO, the airports management was 
separated from the regulator. The regulator now focuses on safety and security 
regulation of the aviation industry in Zimbabwe. Such an arrangement 
removes the potential conflict of interest that existed when the regulator was 
also an operator. 
 
 
Figure 3 - Civil Aviation Authority of Zimbabwe Logo 
Ministry of Transport 
and Infrastructural 
Development 
Ministry of Environment, 
Climate, Tourism and 
Hospitality Industry 
Figure 2 - Government of Zimbabwe Logos

6 
 
 
The Airports Company of Zimbabwe (ACZ) operates eight (8) airports 
located in Harare, Bulawayo, Victoria Falls, Masvingo, Buffalo Range, 
Kariba, and Hwange. The main airports where scheduled international flights 
operate are; Robert Gabriel Mugabe International Airport in Harare, Joshua 
Mqabuko Nkomo International Airport in Bulawayo, and Victoria Falls 
International Airport. These three airports receive scheduled services from 
among themselves as well as regional and international flights. The RG 
Mugabe International Airport has one of the longest runways in the region at 
4,725 metres. The other five airports are used by mainly private and general 
charter aviation operators to access the tourist resorts in those areas. 
 
 
 
 
Figure 4 - Aerial view of RG Mugabe International Airport 
 
Even though the CAAZ was split to separate the airports service provider and 
the regulator, the air navigation services provider remained as a directorate 
within the CAAZ. The Directorate of Air Navigation and Technical Services 
(DANTS) is responsible for providing air traffic management and air traffic 
services in the state.

7 
 
Two local airlines are currently certified to provide scheduled services in 
Zimbabwe. These are Air Zimbabwe and Fastjet Zimbabwe. They provide 
services to the three international airports in Zimbabwe, namely, Robert 
Gabriel Mugabe International Airport in Harare, Joshua Mqabuko Nkomo 
International Airport in Bulawayo and Victoria Falls International Airport. 
They also connect passengers to regional destinations like Johannesburg in 
South Africa and Dar es Salaam in Tanzania with direct flights.  
 
 
Figure 5 - Air Zimbabwe Boeing 767 aircraft 
 
 
Figure 6 - Faastjet Embraer 145 aircraft

8 
 
Several foreign operators also service the three main international airports and 
connect these to both regional and international destinations. Some of the 
foreign airlines that fly to Zimbabwe include Emirates, Ethiopian Airlines, 
Qatar, Kenya Airways British Airways, Rwandair, South African Airways, 
South African Airlink, Air Tanzania and Mozambican Airlines.  
 
Charles Prince Airport on the western outskirts of Harare is home to a number 
of private charter operators. These provide air connectivity to the airports not 
serviced by the scheduled airlines and the many airstrips dotted around the 
country and mainly in or near the wildlife parks.  
 
 
Figure 7 - Charles Prince Airport 
 
The three international airports are serviced by two ground handling 
organization namely National Handling Services (NHS) and Aviation Ground 
Services (AGS). Although the companies handle both passengers and cargo, 
NHS specializes in passenger services while AGS specializes in cargo 
services. 
 
 
Figure 8 - National Handling Company of Zimbabwe check-in counters

9 
 
 
Aviation fuel is provided by Puma and a consortium called Harare Airport 
Fueling Service. The consortium is made up of all the major fuel supplies in 
Zimbabwe who share the infrastructure at the airport while selling fuel to the 
operators. Both Avgas and Jet-A1 are available at all the international airports. 
 
4.1 Air Traffic Movements 
 
Tables 1 and 2 show the number of passengers on international flights that 
used the Zimbabwean airports. The 2020 figures were greatly affected by the 
restrictions brought about by the COVID-19 pandemic. It is hoped that the 
passenger and flight movements will begin improving beyond the 2019 
figures since many would have received the COVID-19 vaccination. 
 
International passenger movements 2019 
Month 
Passengers 
January 
119,194 
February 
89,852 
March 
98,845 
April 
112,961 
May 
98,664 
June 
94,169 
July 
104,854 
August 
129,174 
September 
109,522 
October 
101,574 
November 
93,243 
December 
120,759 
Total 
1,272,811 
Table 2 - International Passenger Movements 2019 
 
International aircraft movements 2019 
Month 
International Flights 
January 
1,976 
February 
1,735 
March 
2,088 
April 
2,064 
May 
2,161

10 
 
June 
2,125 
July 
2,281 
August 
2,252 
September 
2,084 
October 
2,073 
November 
1,848 
December 
2,010 
Total 
24,697 
Table 3 - International Aircraft Movements 2019

1 
 
5. NATIONAL ACTION PLAN TEAM 
 
 
The National Action Plan Team (NAPT) is composed of representatives from 
the CAAZ, DANTS, airlines, ACZ, Ministries responsible for Transport and 
Environment, ground handling companies and fueling companies. The 
President of the NAPT is the Director-General of CAAZ. He is deputized by 
the Director of Flight Safety and Standards of CAAZ. 
 
 
 
The NAPT was formed through Decision No. 1/CAAZ/SAP/18/2/2021 by the 
Director-General of CAAZ on the 18th of February 2021 (See Annex 2). 
Through that decision, the NAPT was assigned the roles of development of 
the state action plan, raising awareness to all stakeholders on activities to 
reduce CO2 emissions in international aviation and development of the 
implementation plan. 
 
The members of the NAPT were nominated by their respective organizations 
and were tasked with contributing ideas that would help to reduce the 
emissions of carbon dioxide within their sector. Five meetings were held at 
the NAPT level, while numerous meetings were conducted at sub-sectoral 
level where specific actions related to that sector were discussed. 
 
Ministry of 
Transport and 
Infrastructural 
Development 
Ministry of 
Environment, 
Climate, Tourism 
and Hospitality 
Industry 
Figure 9 - Organisations represented in the NAPT

2 
 
 
 
Figure 10 - NAPT structure 
 
 
 
 
 
 
 
 
President – Director General – CAAZ 
Vice President – Director Flight 
Safety & Standards – CAAZ 
State Focal Person – CAAZ 
Min. of 
Environment rep.
Airlines reps.
Air Zim & Fastjet
Min. of Transport 
rep.
Ground Handlers 
reps. NHS & AGS
Alternate State Focal Person – Min. 
of Environment
Director Air 
Navigation rep. 
Fueling Companies 
reps
Airports Company 
of Zim. Rep.
Secretariat

3 
 
6. BASELINE FOR CO2 EMISSIONS IN INTERNATIONAL 
AVIATION 
 
The baseline scenario is intended to reasonably represent the fuel 
consumption and traffic that would occur in the absence of action to reduce 
CO2 emissions. It was calculated according to the methodology given into the 
ICAO Doc 9988. 
 
6.1. 
Data Collection 
 
Definition of international flights 
Zimbabwe followed the ICAO methodology for accounting of CO2 
emissions. The State reports the CO2 emissions from international flights 
operated by aircraft registered in Zimbabwe. An international flight is defined 
as the operation of an aircraft from take-off at an aerodrome in Zimbabwe and 
landing at an aerodrome of another state or its territories. Therefore, the fuel 
data that was collected was from two local airlines, Air Zimbabwe and Fastjet, 
and for their international flights only.  
 
Definition of Time Horizon and intermediate years 
Fuel data was collected for the years 2018 and 2019. However, only the fuel 
data for the year 2019 was used to calculate the baseline. Accurate data from 
previous years could not be obtained while 2020 data was affected by the 
suspension of international flights to/from Zimbabwe due to the COVID-19 
pandemic. Inclusion of such 2020 data in the determination of the baseline 
would have affected its accuracy.  
 
The year 2050 was selected as the time horizon for the determination of the 
baseline. 
 
Historical fuel consumption 
The table below displays the total fuel consumption for international flights 
in litres and kilogrammes and the resultant CO2 emissions for local 
Zimbabwean airlines in the year 2019.

4 
 
 
- The density of fuel 0.8 kgs/litre 
- The mass of CO2 is 3.16 kgs of CO2 per kilogramme of fuel 
 
Year 
Total Fuel 
(Litres) 
Total Fuel 
(KGs) 
Total CO2 Emissions 
(KGs) 
2019 
13,108,638.39 
10,486,910.71 
(10,486.9 tons) 
33,138,637.85 
(33,138.6 tons) 
Table 4 - Fuel Usage 2019 
The RTK for the year 2019 was 14,982,924. It was calculated according to 
the formular given into the ICAO Doc 9988 and using also the Environment 
Benefit Tool (EBT). It is determined by dividing the payload in tonnes by the 
total distance flown in the same period. 
 
The fuel efficiency is a ratio of the fuel used in litres to the RTK and was 
calculated as 0.70. It will be assumed that the fuel efficiency will remain 
constant in the absence of any mitigating measures. 
 
Air transport activity growth forecast 
Based on the ICAO Circular 333, the forecast air transport activity (RTK) 
growth for the African region is 4% per annum.  
 
The summary of the historical fuel consumption and CO2 emissions for 
Zimbabwe that are used in this State Action Plan are: 
 
2019 Fuel Consumption (Litres) 
13,108,638.39 Litres 
2019 Fuel Consumption (KGs) 
10,486,910.71 KGs 
2019 CO2 Emissions 
33,138,637.85 KGs 
RTK 
14,982,924 
Fuel efficiency 
0.70 
Number of aircraft 
8 
Air transport growth estimate 
4% 
Table 5 - Summary of Fuel Usage Data

5 
 
6.2. 
Calculation method 
 
The EBT provided by ICAO to assist states in determine environmental 
benefits was used to calculate the baseline value for Zimbabwe.  
 
Each of the two Zimbabwe operators has less than 10 aircraft in its fleet. 
Therefore, Method A of the EBT was used.  
 
6.3. 
Results 
 
The baseline obtained for CO2 emissions up to 2050 is depicted in tabular and 
graphical formats in the following tables. According to these tables, in the 
absence of mitigating measures, CO2 emissions from international aviation 
will grow from 33,138.64 tonnes in 2019 to 107,700.57 tonnes of CO2 in 
2050, which represents an increase of 225% in 30 years. 
 
 
Figure 11 - Baseline for CO2 emissions 
0,60
0,65
0,70
0,75
0,80
0,85
0,90
0,95
1,00
30 000 000
40 000 000
50 000 000
60 000 000
70 000 000
80 000 000
90 000 000
100 000 000
110 000 000
Fuel Efficiency 
(L/tkm)
CO2 Emissions
(kg)
Baseline for CO2 emissions from 
International Aviation
CO2 Emissions (kg)
Fuel Efficiency (L/tkm)

6 
 
 
 
Year 
International 
RTK ('000) 
International 
Fuel Burn 
(Tonnes) 
Efficiency (Fuel 
Burn/RTK) 
CO2 Emissions 
(Tonnes) 
2019 
14,982.92 
10,486.91 
0,87 
33,138.64 
2020 
14,982.92 
10,486.91 
0,87 
33,138.64 
2021 
14,982.92 
10,486.91 
0,87 
33,138.64 
2022 
14,982.92 
10,486.91 
0,87 
33,138.64 
2023 
16,855.79 
11,797.77 
0,87 
37,280.95 
2024 
16,855.79 
11,797.77 
0,87 
37,280.95 
2025 
18,728.66 
13,108.64 
0,87 
41,423.30 
2026 
18,728.66 
13,108.64 
0,87 
41,423.30 
2027 
18,728.66 
13,108.64 
0,87 
41,423.30 
2028 
20,601.52 
14,419.50 
0,87 
45,565.62 
2029 
20,601.52 
14,419.50 
0,87 
45,565.62 
2030 
22,474.39 
15,730.37 
0,87 
49,707.97 
2031 
22,474.39 
15,730.37 
0,87 
49,707.97 
2032 
24,347.25 
17,041.23 
0,87 
53,850.29 
2033 
24,347.25 
17,041.23 
0,87 
53,850.29 
2034 
26,220.12 
18,352.09 
0,87 
57,992.60 
2035 
26,220.12 
18,352.09 
0,87 
57,992.60 
2036 
28,092.98 
19,662.96 
0,87 
62,134.95 
2037 
29,965.85 
20,973.82 
0,87 
66,277.27 
2038 
29,965.85 
20,973.82 
0,87 
66,277.27 
2039 
31,838.71 
22,284.68 
0,87 
70,419.59 
2040 
33,711.58 
23,595.55 
0,87 
74,561.94 
2041 
33,711.58 
23,595.55 
0,87 
74,561.94 
2042 
35,584.44 
24,906.41 
0,87 
78,704.26 
2043 
37,457.31 
26,217.28 
0,87 
82,846.60 
2044 
39,330.18 
27,528.14 
0,87 
86,988.92 
2045 
41,203.04 
28,839.00 
0,87 
91,131.24 
2046 
43,075.91 
30,149.87 
0,87 
95,273.59 
2047 
43,075.91 
30,149.87 
0,87 
95,273.59 
2048 
44,948.77 
31,460.73 
0,87 
99,415.91 
2049 
46,821.64 
32,771.59 
0,87 
103,558.22 
2050 
48,694.50 
34,082.46 
0,87 
107,700.57 
Table 6 - Estimated CO2 Emissions

7 
 
 
7. SELECTED MITIGATION MEASURES 
 
This section explores the mitigation measures identified in Zimbabwe to 
reduce CO2 emissions from international aviation. It first provides an 
overview of the national experience with sustainable fuels ambitions and 
landscape in the State that could be leveraged to support the transition to a 
sustainable aviation. It further presents the measures quantified in this Action 
Plan. The selected mitigation measures are described in more detail in Annex 
1. 
 
7.1. 
Overview of Zimbabwe’s experience with sustainable fuels 
 
Zimbabwe has a subtropical climate with many local variations. The southern 
areas are known for their heat and aridity, parts of the central plateau receive 
frost in winter, the Zambezi valley is also known for its extreme heat and the 
Eastern Highlands usually experience cool temperatures and the highest 
rainfall in the country. 
In pursuit of sustainability and environment protection in the energy sector, 
the Government of Zimbabwe embarked on various projects to produce 
sustainable fuels. The main focus was on Biodiesel and Ethanol with Jatropha 
and Sugar cane as feedstocks respectively. 
 Biodiesel from Jatropha 
Jatropha (Jatropha curcas) was introduced into Zimbabwe in the 1940s and 
can grow well in all parts of the country except forest prone and water-logged 
areas. A high concentration of Jatropha is in the drier warm north-eastern 
districts of the country, in Mutoko, Uzumba-Maramba-Pfungwe (UMP) and 
Mudzi in Mashonaland East Province. These areas are all characterized by 
well-drained soils with good aeration and low nutrient content. 
Commercial exploitation of the plant started in 2005 when the Government of 
Zimbabwe launched the National Biodiesel Project (NBP) and Finealt 
Engineering Pvt Ltd (FE) was designated the Special Purpose Vehicle (SPV) 
to spearhead research and production of biodiesel production using jatropha

8 
 
seed as raw material. Awareness on growing jatropha as a cash crop for 
biodiesel production is now widely known through the country through FE’s 
efforts. Sustainable and effective jatropha production technologies have been 
developed by FE. 
Feedstock Production 
FE has started developing a 6000ha commercial 
estate in Nyakadecha in Mudzi district. FE is implementing a hybrid jatropha 
production model that combines production from Company-owned estate 
(Nyakadecha) and out-grower scheme. It is envisaged that the hybrid 
feedstock generation model is effective in balancing the trade-offs between 
the interests of rural communities (out-growers), investors and national 
development. Mutoko, Mudzi and UMP out grower farmers are supplying 
about 250 tons of Jatropha every year This model allows for easy control of 
feedstock quality, quantity and diseases outbreaks. The Company owned 
estate also allows for research or breeding, and creates employment for rural 
communities. 
Bio-diesel Production 
All Jatropha harnessed from out growers and FE 
plantations is transported to and stored at Mutoko in readiness for Biodiesel 
production at the Plant Site. The production Plant’s current capacity is 3000 
litres per day. Jatropha seeds are sieved to remove foreign objects. The seeds 
are then pressed using an oil pressing machine to get oil and jatropha cake. 
The pressed oil collects in a sedimentation tank where oil and sediments 
separate. The oil is further filtered using a filter press to obtain clean oil. A 
methoxide catalyst (Methanol and KOH) is prepared in the catalyst 
preparation tank, KOH being 10% mass of methanol. The clean oil and 
catalyst are reacted in the pump agitated reactor where biodiesel is produced 
through trans etherification reaction which takes about an hour. The reaction 
mixture is then pumped into settler tanks where phase separation by gravity 
takes place for about 24hrs resulting in biodiesel on top and crude glycerin 
below. Biodiesel is then passed into an intermediate tank for temporal storage 
and to allow further settling out of residual glycerin. Samples of biodiesel are 
then taken for quality testing and once the biodiesel meets standard 
specifications, it is then pumped to the main storage tanks ready for use.

9 
 
 Ethanol from sugar cane 
Ethanol has been produced in Zimbabwe for over 40 years, for both alcohol 
and transportation fuel purposes and our local fuel contained ethanol blends 
of between 10-25% from the 70’s up until the late 90’s.  This blending was 
introduced to alleviate fuel shortages and high petrol prices and production 
only ceased due to drought in Lowveld and a crash in the international oil 
price.  All cars in the county during this 20-year period ran on an ethanol blend 
of up to 25% with no compatibility issues. The Green Fuel Ethanol Project 
was awarded National Project Status by the Government of Zimbabwe due to 
the significant benefits it brings to the country which include job creation and 
employment in agriculture and technology, Clean, renewable fuel at the pump, 
Fuel Security, foreign currency savings, balance of trade, Cheaper, local fuel. 
Green Fuel’s plant was established in 2011 and its first ethanol manufactured 
that year. Zimbabwe has a long history of viable sugar cane production in the 
Lowveld, and ethanol from sugar cane has been used as a fuel extender (blend) 
for over 40 years.  
The introduction of sugarcane and highly mechanized farming techniques 
resulted in 3,500 hectares under cultivation in Middle Sabi (with a target of 
9,500 hectares) and approximately 6,000 hectares in Chisumbanje (with a 
target of 36,000 hectares provided that investment is made available). Within 
an 18-month period, the Macdom (Chisumbanje) and Rating (Middle Sabi) 
Estates were transformed into successful sugarcane estates. As a result, 
significant investment was made into the infrastructure of the estates, 
including pump houses, roads and buildings. 
As such, all land that the Chisumbanje Estate occupies (currently around 
9,375 hectares) falls within and under the ambit of the BOT held with ARDA 
and within the 40,000-hectare concession that is under a valid lease agreement 
between ARDA and the Rural District Council. 
⇒ Ethanol Use in Zimbabwe  
The Green Fuel Ethanol Project was awarded National Project Status by the 
Government of Zimbabwe due to the significant benefits it brings to the 
country. Job creation and employment in agriculture and technology – The

10 
 
ethanol project currently employs over 3,000 people and this will only 
increase as the project expands. State of the art harvesting techniques have 
also been introduced and all local employees have been trained by experts 
from Brazil, ensuring that new skills are introduced into, and kept within the 
country. With the investment, it was initially projected that 36,500 fully 
trained, local Zimbabweans could be employed by 2025. 
Fuel Security, foreign currency savings, balance of trade – The use of ethanol 
provides Zimbabwe with fuel security by offering a reduced reliance on 
imported petroleum products. This, in turn, reduces the trade deficit with 
domestic ethanol production, replacing petroleum imports. Ethanol is an 
import replacement product – this essentially means that the foreign currency 
usually used to purchase petroleum product from foreign oil companies 
remains in Zimbabwe, thereby improving Zimbabwe’s current liquidity 
challenges. With every percentage of increased ethanol use, Zimbabwe 
improves its fuel security by being less affected by oil price fluctuations. At a 
blended rate of 20% (E20), approximately US$3,8 million per month will 
remain in Zimbabwe, replacing imported fuel. 
Clean, renewable fuel at the pump – The use of ethanol in the place of 
unleaded petrol decreases harmful greenhouse gas emissions by up to 90%. In 
particular, it significantly reduces CO2 emissions because it uses materials 
(i.e. sugarcane plants) that absorb CO2 during the growing process. Most 
recent studies have shown a positive energy balance for ethanol of between 
23 and 40 percent. 
Cheaper local fuel – Ethanol is sold at a significantly cheaper price than petrol, 
which means that blending will reduce the cost of fuel at the pump. These 
savings offer consumers more spending power as the money remains within 
Zimbabwe. 
Increased Rural Development/Community Growth – The Chipinge district 
was considered one of the least developed in Zimbabwe, nicknamed 
‘Mugowa’ (semi-desert). Extremely low incomes and dryland farming have 
historically fueled migration into South Africa. With massive job creation 
brought on by the project, over $2 million is now injected into the local

11 
 
community each month as salaries, rent, transport and procurement. Banks 
and cell phone towers have opened in Checheche – a growth point that has 
applied for town status due to the ethanol project. Local businesses are 
thriving and social services such as healthcare facilities, roads, churches and 
schools are being refurbished and revived. In addition, 10% of all land 
cultivated for sugarcane is developed by Green Fuel and distributed to small-
scale farmers for their own use. On completion, this will equate to a total of 
5,000 hectares of flood irrigation for smallholders in Middle Sabi and 
Chisumbanje. More than 10,000 families will benefit from this investment of 
approximately $50 million. 
 CHALLENGES 
Over the years, Finealt Engineering Pvt. Ltd has been pursuing the out-grower 
scheme where it was purchasing jatropha feedstock from the communities in 
Mutoko, Mudzi and UMP. Although the purchased quantities of the feedstock 
could meet the R&D demands of the NBP, there were not enough for 
commercial biodiesel production purposes. Lack of Funding and Technology 
has also negatively impacted the production of Bio Diesel in Zimbabwe. 
Although the ethanol project has been largely successful in Zimbabwe, lack 
of capacity has also affected the project and the Government has had to 
continually review downwards the mandatory petrol blending requirements 
because of ethanol shortage. 
 ZIMBABWE’S READINESS FOR SUSTAINABLE AVIATION 
FUELS 
Zimbabwe has the capacity to move towards SAFs building on the existing 
infrastructure, research and experience already acquired through ethanol and 
Jatropha. Being an agro economy and having favorable climate and geology, 
Zimbabwe has the capacity to increase production of feedstock for both 
jatropha and ethanol to meet future SAF requirements. This of course needs 
to be supported by adequate funding and technical support.

12 
 
7.2. 
Technology and Standards 
 
The State can reduce the amount of CO2 that is emitted during flights by 
adopting a policy to encourage aircraft operators to replace their fleet with 
newer and more modern aircraft. Modern technologies which are fuel efficient 
are utilized in the construction of newer aircraft. For example, latest models 
of turbine engines have a higher by-pass ratio when compared to older models 
which have a low by-pass ratio if any. The airframe construction is relatively 
lighter since the introduction of composite materials in aircraft construction. 
The newer aircraft have been retrofitted with computerized avionics systems 
which are compact and much lighter in weight when compared to the older 
systems. The resultant is reduced fuel consumption per the same routes and 
while passenger and cargo loads are increased.    
 
Generally, many operators in the region have been dependent on second-hand 
aircraft that would have been retired by the huge international airlines as the 
purchase price or lease fees of the newer aircraft is prohibitive. The State will 
look into financing assistance to enable the upcoming airlines in Zimbabwe 
to acquire a more modern fleet. 
 
 
7.3. 
Improved ATM and Infrastructure use 
 
The Directorate of Air Navigation and Technical Services has implemented 
Performance Based Navigation (PBN) operations on about half of the routes 
in Zimbabwe. The rest still utilize conventional navigation. Implementation 
of PBN routing in the whole airspace will permit flexible routes and increased 
fuel savings by the operators. 
 
The Victoria Falls Airport has procedures for both SID and STAR and is 
awaiting training of controllers and full implementation of the system. The 
current upgrade of the Robert Gabriel Mugabe International Airport will 
include the implementation of the SID and STAR procedures. It is envisaged 
that implementation of these will reduce the en-route fuel burn.

13 
 
7.4. 
Operational improvements 
 
The two local airlines, Air Zimbabwe and Fastjet, will implement measures 
to improve the efficiency of their operations. These will include possible 
introduction of single engine taxi, reducing the use of flaps for take3-off and 
landing. Zimbabwe’s airports have some of the longest runways in the region 
and operators will aim to minimize the use of thrust reversers during landing.  
 
Implementation of these measures will require research to determine 
recommendations from the aircraft manufacturers as well as train the crews 
on the implementation of such measures to reduce the fuel burn.  
 
7.5. 
Market-based measures 
 
The State aims to voluntarily participate in CORSIA. It is anticipated that 
CORSIA will mitigate CO2 emissions by compensating elsewhere, the effects 
of CO2 emissions. The State will encourage all operators to voluntarily 
participate in this program so as to offset CO2 emissions generated in 
international aviation. 
 
Zimbabwe targets to offset at least 20% of the CO2 produced in international 
civil flight by the local airlines. CORSIA represents the largest mitigating 
measure that Zimbabwe aims to implement in the fight to reduce CO2 
emissions. 
 
7.6. 
Airport Improvements 
 
Two airports, JM Nkomo and Victoria Falls were upgraded in the past few 
years. The upgrades included installation of LED in the offices and parts of 
the runway. The airport buildings now have larger windows which take 
advantage of the ever-available sunlight in this part of the world.  
 
Since Zimbabwe has sunshine all year round, a possible further improvement 
is the installation of solar glass windows on the existing airport buildings as 
well as solar farms to provide the bulk of electrical needs at the airport. Solar

14 
 
glass windows can be installed to existing windows by fitting them with 
photovoltaic glazing. The solar energy captured by the solar cells is converted 
to renewable electricity and can be used to power electrical appliances. In 
addition, there are huge tracts of appropriate land around all the airports where 
solar farms could be installed. The drawback though, could be high initial 
investment cost to install the solar systems when compared to the seemingly 
cheaper electricity from the national grid. The Airports Company of 
Zimbabwe will require financial assistance to implement solar systems at the 
airports. 
 
In addition, the ground handling companies propose to implement measures 
to enhance GSE management. These measures will include replacement of 
diesel-powered tractors and tugs by those that use cleaner energy fuel or 
electricity, and by minimizing the distances travelled by the GSE through the 
designation of parking areas that are close to the aircraft parking.

15 
 
8. EXPECTED RESULTS: FUEL SAVINGS 
 
The implementation of the mitigation measures selected by Zimbabwe will 
lead to the reduction of an average 15,462 tonnes of CO2 emissions from 
international aviation per year. 
 
This quantification was performed using both a State methodology and 
ICAO’s rule of thumb.  
 
The expected results over the baseline horizon are depicted in the table below. 
The following figure provides a graphical representation of these results and 
compares the fuel burn before implementation of mitigation measures to the 
fuel burn after the implementation of the mitigation measures. 
 
 
Figure 12 - Expected results: Fuel savings 
 0,600
 0,650
 0,700
 0,750
 0,800
 0,850
 0,900
 0,950
 1,000
0
20 000 000
40 000 000
60 000 000
80 000 000
100 000 000
120 000 000
Fuel Efficiency 
(L/tkm)
CO2 Emissions 
(kg)
Expected Results
Baseline - CO2
E. Results - CO2 (trend)
Baseline - Fuel Efficiency
E. Results - Fuel Efficiency

16 
 
Year 
Annual Fuel 
burn before 
implementation 
of mitigation 
actions (Tonnes) 
Annual Fuel 
burn after 
implementation 
of mitigation 
actions (Tonnes) 
Annual Fuel 
savings (Tonnes) 
CO2 Saving 
(Tonnes) 
2019 
10,486.91 
10,486.91 
0.00 
0.0 
2020 
10,486.91 
10,486.91 
0.00 
0.0 
2021 
10,486.91 
10,004.11 
482.80 
1,525.6 
2022 
10,486.91 
7,273.76 
3,213.15 
10,153.6 
2023 
11,797.77 
8,456.10 
3,341.68 
10,559.7 
2024 
11,797.77 
8,322.43 
3,475.35 
10,982.1 
2025 
13,108.64 
9,494.28 
3,614.36 
11,421.4 
2026 
13,108.64 
9,349.70 
3,758.93 
11,878.2 
2027 
13,108.64 
9,810.24 
3,298.39 
10,422.9 
2028 
14,419.50 
10,989.17 
3,430.33 
10,839.8 
2029 
14,419.50 
10,851.96 
3,567.54 
11,273.4 
2030 
15,730.37 
12,020.12 
3,710.25 
11,724.4 
2031 
15,730.37 
11,871.71 
3,858.66 
12,193.4 
2032 
17,041.23 
13,028.23 
4,013.00 
12,681.1 
2033 
17,041.23 
12,867.71 
4,173.52 
13,188.3 
2034 
18,352.09 
14,011.63 
4,340.46 
13,715.9 
2035 
18,352.09 
13,838.01 
4,514.08 
14,264.5 
2036 
19,662.96 
14,968.31 
4,694.64 
14,835.1 
2037 
20,973.82 
16,091.39 
4,882.43 
15,428.5 
2038 
20,973.82 
15,896.09 
5,077.73 
16,045.6 
2039 
22,284.68 
17,003.85 
5,280.84 
16,687.4 
2040 
23,595.55 
18,103.48 
5,492.07 
17,354.9 
2041 
23,595.55 
17,883.80 
5,711.75 
18,049.1 
2042 
24,906.41 
18,966.19 
5,940.22 
18,771.1 
2043 
26,217.28 
20,039.44 
6,177.83 
19,521.9 
2044 
27,528.14 
21,103.19 
6,424.94 
20,302.8 
2045 
28,839.00 
22,157.06 
6,681.94 
21,114.9 
2046 
30,149.87 
23,200.65 
6,949.22 
21,959.5 
2047 
30,149.87 
22,922.68 
7,227.19 
22,837.9 
2048 
31,460.73 
23,944.45 
7,516.28 
23,751.4 
2049 
32,771.59 
24,954.67 
7,816.93 
24,701.5 
2050 
34,082.46 
25,952.85 
8,129.60 
25,689.6 
Table 7 - Expected Results After Implementing Mitigation Measures

17 
 
9. ROADMAP FOR THE IMPLEMENTATION OF 
MITIGATION MEASURES 
 
Zimbabwe plans to implement all the selected mitigation measures to reduce 
CO2 emissions in international aviation by 2026. To some degree, has already 
started implementing some of the mitigation measures to reduce CO2. The 
state is at an advanced state to voluntarily participate in CORSIA before the 
end of the first half of 2022. A solar farm is under construction very close to 
Victoria Falls Airport, while lights for runway markings have been converted 
to solar power.  
The table below details the implementation roadmap of this state action plan:  
 
Figure 13 - State Action Plan Implementation Roadmap

18 
 
10. ASSISTANCE NEEDS 
 
Zimbabwe will require assistance in the following areas: 
 
- Since this is the first time that the State will be implementing measures to 
reduce carbon emissions in international aviation, it will be beneficial to 
provide step by step assistance as was provided during the development of 
the SAP. There is need for assistance to develop specific operating 
regulations based on the ICAO SARPs in Annex 16. Regulations will 
provide a sound legal basis to encourage aviation stakeholders to 
implement the mitigation measures recorded in the SAP. 
 
- As an area that has not been receiving much attention within the local 
aviation industry, there is need to provide comprehensive training to all the 
stakeholders on the benefits and methods of implementing the mitigation 
measures on reduction of CO2 emissions. The state will benefit from 
assistance that can be made available to train the various stakeholders. 
 
- Many of the proposed mitigation measures require a huge financial outlay 
for them to be realized. For example, the airports are currently operating 
using electricity from the national grid. That national electricity grid 
infrastructure is already in place and airports benefit from a prioritized 
electricity supply system. The introduction of alternative cleaner sources 
of energy like solar, will require investments in solar panels, battery banks 
and so forth which were likely not a priority for those organisations. 
Assistance with financing for such projects will be required if they are to 
be taken on board.

19 
 
ANNEX 1 – MITIGATION MEASURES  
 
List of selected mitigation measures 
 
No 
Keyword 
Description 
Start 
date 
End 
date 
Expected 
results 
Stakeholde
rs 
Cost 
Assista
nce 
needs 
Required 
actions 
Fuel 
saving
s per 
year 
 
Technology Standards 
1 
Purchase of 
new Aircraft 
Older aircraft use more fuel for the same 
distance travelled than newer aircraft. 
Further, selection of more efficient aircraft 
can reduce the fuel consumption per given 
flight. The airlines in Zimbabwe use a 
Boeing 737-200 and Embraer 145 
respectively. Replacement of these aircraft 
with newer aircraft will reduce the fuel 
consumption and subsequently the carbon 
emissions. The airline which uses the B737-
200 proposes to purchase newer versions of 
the B737 and the airline which uses ERJ145 
proposes to replace the aircraft with 
Bombardier Q400 aircraft which have 
turboprop engines. These aircraft will ensure 
reduced carbon dioxide emissions into the 
atmosphere. 
2022 
2024 
482.8 
tons of 
fuel = 
482.8 * 
3.16 = 
1,525 
tons CO2 
Air 
Zimbabwe 
and Fastjet 
One B737-
800 = $82m 
and 3*new 
Q400s 
*$27m = 
$81m. The 
total 
replacement 
cost will be 
$163m 
Financin
g  
Replace 
current fleet 
with newer 
and more 
economic 
aircraft 
 482.8 
tons of 
fuel = 
482.8 
* 3.16 
= 
1,525 
tons 
CO2 
 
Sustainable Aviation Fuels 
2 
 
 
Feasibility 
studies 
 
Conduct a feasibility study to evaluate the  
capacity to move towards SAFs building on 
the existing infrastructure and encourage and 
promote their use of in aviation sector 
2022 
2023 
N/A 
CAAZ 
Min of 
Energy & 
Min of Env 
TBD 
Funds & 
Technic
al 
support 
Technical 
expertise 
N/A

20 
 
 
Improved ATM and infrastructure use 
3 
3.1 a(iv) 
Improve the 
use of 
optimum 
routings 
Introduce flexible flightable routes. 
Introduction of routes that are requested by 
the operator based on his/her fuel saving 
calculations.  
2022 
2026 
reduced 
flight 
time 
DANTS 
Aircraft 
operators 
  
No 
  
  
4 
Improve fuel 
efficient 
departure and 
approach 
procedures 
This mitigating measure aims to introduce 
PBN SID and PBN STAR. SID and STAR 
procedures will reduce restrictions during 
climb and descend. The procedures will 
allow continuous climb and descend and 
reduce the amount of fuel used in those 
phases of flight. All international airports in 
Zimbabwe are currently utilizing ATC 
clearances for climb or descend. These 
procedures have too many restrictions which 
result in increased fuel burn. The current 
status of the three international airports in 
Zimbabwe is as follows: (1) FVFA - Charts 
and procedures were developed. There is 
need for training the ATC staff on 
application of the procedures. (2) FVJM - 
The GNSS procedures and charts are 
outstanding. Once those are developed, 
training will need to be provided for the ATC 
staff.  (3) FVRG - The GNSS procedures and 
charts are outstanding. Once those are 
developed, training will need to be provided 
for the ATC staff. 
2022 
2023 
STAR = 
63.7 tons    
------------
-----            
For SID = 
27.3 tons    
------------
----              
Total = 
91 tons of 
fuel  = 
287.6 
tons of 
CO2 
DANTS 
and aircraft 
operators 
Training for 
FVFA = 
$25k, 
Implementati
on of 
procedures 
and training 
for FVRG 
and FVJN = 
$70k. Total = 
$95,000 
Yes 
Financing the 
charting of 
the 
remaining 
airports and 
training of 
ATC 
personnel 
STAR 
= 63.7 
tons       
--------
--------
-             
For 
SID = 
27.3 
tons       
--------
--------    
Total = 
91 
tons of 
fuel  = 
287.6 
tons of 
CO2 
5 
Fully utilize 
airspace 
capabilities 
(en-route PBN) 
The Zimbabwean airspace currently has 50% 
of the airspace as PBN routes. The remaining 
50% is still conventional and requires the 
aircraft to follow predetermined waypoints 
2022 
2023 
39.36 
tons of 
fuel = 
124.38 
DANTS 
aircraft 
operators 
Training for 
ATC - $25k 
Charting - 
$30k 
Yes 
Training of 
ATS 
Provider 
personnel, 
39.36 
tons of 
fuel = 
124.38

21 
 
which increases the distance travelled. The 
PBN routes are mainly in the upper airspace. 
The routes allow the aircraft to navigate by 
using non ground based routes which are 
more accurate and allow a more direct 
routing. 
tons of 
CO2 
financing for 
the charting 
tons of 
CO2 
6 
Airspace 
management 
Coordination of activation and deactivation 
of military airspace  
2022 
2023 
reduction 
of 
restricted 
airspace 
DANTS 
Civil and 
military 
  
  
  
  
 
More efficient operations 
7 
Engine wash 
The air which is sucked into an aircraft 
engine is full of contaminants in the form of 
dirt, oil, soot and other impurities in the air. 
These contaminants gradually build up in the 
compressor and reduce its efficiency and 
ultimately increase fuel consumption. 
Regular engine washing prevents 
accumulation of these contaminants and 
improves the engine efficiency as well as 
reduce fuel consumption.  
2022 
2022 
25.91 
tons of 
fuel 
=81.88 
tons of 
CO2 
Air 
Zimbabwe 
and Fastjet 
Purchase of 
compressor 
wash 
equipment 
for current 
fleet = $10k 
Yes 
Financing for 
the purchase 
of the 
compressor 
wash 
equipment 
25.91 
tons of 
fuel 
=81.88 
tons of 
CO2 
8 
Single engine 
taxi 
The use of one-engine-out taxi techniques is 
on the rise as one means to reduce fuel burn. 
By shutting down a single engine of the 
aircraft when it lands, airlines can reduce 
carbon emissions produced by a considerable 
margin. 
2022 
2023 
86.35 
tons of 
fuel = 
272.87 
tons of 
CO2 
Air 
Zimbabwe 
and Fastjet 
Training of 
crews on 
single engine 
taxi - $20k 
yes  
Researching 
on single 
engine taxi 
operations 
for the 
aircraft type, 
training of 
crews on 
single engine 
taxiing, 
verifying 
with 
86.35 
tons of 
fuel = 
272.87 
tons of 
CO2

22 
 
equipment 
manufacturer
s if aircraft 
are certified 
for single 
engine taxi 
9 
Minimizing 
reversers use 
The airports in Harare and Victoria Falls 
have some of the longest runways in 
Southern Africa. Such long runways allow 
the pilot to bring the aircraft to a halt without 
depending on thrust reversers which 
accelerate the engine to maximum power in-
order to reduce speed. Other non-fuel 
dependant braking systems e.g., flaps and 
spoilers can be used to reduce the aircraft 
speed upon landing. 
2022 
2024 
62.42 
tons of 
fuel = 
197.25 
tons of 
CO2 
Air 
Zimbabwe 
and Fastjet 
training of 
crews on 
minimized 
reverser 
usage 
$20k 
Implement 
procedures 
for crews to 
reduce thrust 
reverser use 
especially in 
Harare and 
Victoria Falls 
62.42 
tons of 
fuel = 
197.25 
tons of 
CO2 
10 
4 c 
Selecting 
aircraft best 
suited to the 
mission 
The smallest aircraft owned by the 
Zimbabwean airlines has a capacity for 50 
passengers. Yet there are some routes where 
the passengers are may be less than that 
figure. Airlines will save fuel when they 
select aircraft where the load factors justify 
the use of the selected equipment. The 
airlines could also benefit by consolidating 
flights or code-share partnerships especially 
on routes which they both operate, and 
passenger numbers are generally low. Such 
an arrangement will ensure that those 
payloads are maximized per specific quantity 
of fuel 
2022 
2024 
Reduced 
carbon 
emissions 
per 
passenger 
Air 
Zimbabwe 
and Fastjet 
nil 
no 
Code share 
agreements 
between 
airlines 
flying the 
same route, 
purchase of 
new aircraft 
in some 
cases 
  
 
5. Market Based Measures

23 
 
11 
5 a  
Voluntary 
inclusion in 
CORSIA 
The State and the airline operators to join the 
CORSIA programme 
2022 
2022 
2,097.4 
tons of 
fuel = 
6,627.7 
tons of 
CO2 
Air 
Zimbabwe 
and Fastjet 
1 Training= 
$10,000.00    
2. 
Verification 
fees=$10,00.
00  
Yes 
1. Train 
personnel on 
CORSIA.  2. 
Select 
department 
to take 
ownership of 
program. 3. 
Document 
organizationa
l procedures. 
4. Develop 
CO2 
Emissions 
Report. 5. 
Select and 
approve 
verification 
body. 6. 
Submit 
verified CO2 
Emissions 
Report to the 
CAAZ. 
2,097.
4 tons 
of fuel 
= 
6,627.
7 tons 
of 
CO2 
 
7. Airport Improvements 
12 
7 a (i) Airfield 
improvements 
For FVRG in Harare, the runway lights 
operate for 24 hours a day. For FVFA they 
operate for 12 hours except for those times 
when special airport opening times are 
requested. For FVJN, they operate for 14 
hours. These lights have historically been 
halogen lights which draw huge currents. 
Replacement of these halogen lights with 
2022 
2024 
CO2 
savings = 
0.4 * 
1,726,307 
kwh * 
0.0003 = 
207 tons 
of CO2 
Airport 
operators 
US$1,5m 
No 
Replacement 
of halogen 
runway lights 
at FVRG, 
FVJN and 
FVFA with 
LED lights 
CO2 
saving
s = 0.4 
* 
1,726,
307 
kwh * 
0.0003 
= 207

24 
 
LED lights will greatly reduce the electrical 
consumption attributed to the runway lights. 
tons of 
CO2 
13 
7 a (v) 
Airfield 
improvements 
Aircraft are fitted with auxiliary power unit 
to provide electrical and pneumatic needs 
when the main engines are shut down. 
However, the auxiliary power unit uses fuel 
from the aircraft and adds to the aircraft's 
fuel usage per flight. Airlines could benefit 
by using existing ground power units 
connected to the airport's electrical supply 
and pre-conditioned air supply rather than 
use the APU. The APU may be switched on 
for the taxi to the gate and switched off once 
the ground sources are connected to the 
aircraft. This minimizes APU usage to about 
20% of the time on the ground.  
2022 
2024 
Fuel 
savings = 
0.75 hr * 
0.106 tons 
* 3,640 
FC = 289 
tons of 
CO2  
airport 
operators, 
ground 
handlers, 
airlines 
US$1m 
Yes 
Investment in 
ground 
power units 
and PCA 
units. It is 
also 
necessary to 
use GPUs 
and PCAs 
that utilize 
clean energy 
otherwise 
whatever 
gains were 
made by 
minimizing 
the use of 
APUs are 
negated. 
Revision of 
procedures 
by the 
airlines to 
minimize the 
use of APUs 
Fuel 
saving
s = 
0.75 hr 
* 
0.106 
tons * 
3,640 
FC = 
289 
tons of 
CO2  
14 
7 b (i)  
clean sources 
of energy 
The airports depend on the national electrical 
grid for its electrical energy demands. About 
50% of national power plants are powered by 
coal. Whenever the airports experience 
power cuts, standby diesel generators are 
used to power the airports. On average, 
power cuts are experienced about 5% of the 
2022 
2025 
Fuel 
savings = 
5,791,030 
* 0.0003 
= 1,737 
tons of 
CO2 
Airport 
operator  
ANS 
Provider 
Harare solar 
farm - 
US$1,2m         
Bulawayo 
solar farm - 
US$480k         
Victoria 
Yes 
Feasibility 
study 
Designing of 
solar farms, 
purchase, 
and 
installation 
Fuel 
saving
s = 
5,791,
030 * 
0.0003 
=

25 
 
time. Since the State has sunshine most of 
the time in the year, and the airports have 
vast tracts of open spaces, of solar glass 
windows can be constructed to replace at 
least the 55% of the power needs which are 
provided by non-clean energy sources.  
Falls solar 
farm - 
US$1,08m       
Total cost = 
US$2,76m 
of 
equipment,  
1,737 
tons of 
CO2 
15 
 7 b (ii) 
Infrastructure 
design 
Installation of new technology for HVAC 
control and new building designs 
2022 
2023 
reduced 
energy 
use  
Airport 
operator 
Yes 
Designing of 
HVAC 
systems and 
training of 
staff 
  
16 
7 b (iii) 
Reduce energy 
demand 
Switching off of unnecessary lights, promote 
use of stairs than lifts and use of lights with 
motion sensors 
2022 
2023 
reduced 
energy 
use 
Airport 
operator 
US$5,000 
Yes 
Training of 
staff. 
Conduct 
awareness 
seminars to 
sensitize staff 
on energy 
conservation.    
17 
7 c (i)  
Enhance 
Ground 
Support 
Equipment 
Much of the ground handling equipment 
(tow trucks, loaders, service vehicle etc.) run 
from diesel fuel. In the year 2019, for 27 
pieces of GSE, 68,000 liters of diesel were 
used. The GSE services both domestic and 
international flights. Coordination between 
airport operators and ground service 
providers can be implemented to park 
aircraft at positions where minimum travel of 
GSE is achieved. Further, by adopting lean 
management planning, the GSE providers 
can ensure that their GSE travel the 
minimum distance for the provision the 
2022 
2024 
reduced 
carbon 
emissions 
by the 
GSE 
Ground 
handlers 
US$20k 
Yes 
Training of 
airport and 
ground 
handling 
staff on lean 
management. 
Fuel 
saving
s = 
57.8 
tons * 
0.20 * 
2.28 = 
26.36 
tons of 
CO2

26 
 
 
 
 
 
required service. It is estimated that such 
activities will reduce the fuel used by 20%. 
17 
5.1 d (i) 
Conversion of 
GSE 
Much of the ground handling equipment 
(tow trucks, loaders, service vehicle etc.) run 
from diesel fuel. In the year 2019, for 27 
pieces of GSE, 68,000 liters of diesel were 
used. To reduce CO2 emissions, ground 
handlers are encouraged to replace at one 
half of their GSE with those that use cleaner 
fuels. This will reduce the carbon emissions 
by at least half. Each ground service operator 
should include reduced carbon emissions as a 
factor to consider when replacing its ground 
service equipment.  
2022 
2025 
reduced 
carbon 
emissions 
by the 
GSE 
Ground 
handlers 
US$1,2m 
Yes 
Replacement 
of diesel 
powered 
GSE with 
those that use 
cleaner fuels. 
Fuel 
saving
s = 
57.8 
tons * 
0.20 * 
2.28 = 
26.36 
tons of 
CO2

27 
 
ANNEX 2 – Decision to Create the NAPT
