A South African
spaceport
Co ns ide rin g Q ual it y m anageme nt
s ys tem s
• I n t e rn at i o n a l s ta n da r d s
• S u s ta i na b l e d e v e l o p m e n t g oa l s
• T H E l aw
AFRICA’S SPACE IDENTITY Series
Natasha van Rooyen
SOUTH AFRICA’S
ROADMAP FOR
ENHANCING
1. The South African National Space Strategy (2008) calls for South
Africa to enhance its access to space for purposes such as
communication, remote sensing, and research, all of which could
be facilitated by having a local launch site.
Key objectives supporting spaceport development:
SOVEREIGN
-
Space infrastructure: The strategy emphasises the need to
develop robust infrastructure, which could be a foundation for
establishing a spaceport to improve local access to space for
satellite launches and scientific missions.
SPACE
-
Self-sufficiency in Space access: By having its own launch
capability, South Africa could reduce reliance on foreign launch
services and build sovereignty in space activities.
ACCESS TO
The South African National Space
Strategy (2008) outlines South
Africa’s goals to becoming a key
player in the global space industry
by building capabilities in satellite
development, space science, and
infrastructure. Included in this
long-term vision of building a
national space capacity, are
efforts to establish plans for a
spaceport.
2. The South African National Space Policy (2010) forms the legal
and strategic framework for all space-related activities in South
Africa. This policy aims to ensure that the country develops a
comprehensive national space program that includes launching
satellites, developing local expertise, and building space
infrastructure. The policy explicitly supports the development of
facilities such as launch sites and control centres.
Specific Considerations:
-
Space infrastructure: The policy encourages the development
of physical space infrastructure, which would naturally
encompass a launch site or spaceport for national missions
and international partnerships.
-
International collaboration: South Africa intends to
collaborate internationally in space activities, and a spaceport
could position the country as a strategic partner for global
space launch initiatives.
3. The White Paper on Science, Technology, and Innovation (2019)
emphasises innovation in key sectors, including space science, to
drive economic growth. It recognises space as a strategic frontier
for SA’s industrial and scientific advancement and highlights the
role of science and technology in contributing to infrastructure
development - critical in building a spaceport.
Key links to spaceport development:
Author:
Natasha van Rooyen
As part of the ‘Africa’s Space Identity’
series.
October 2024
Cape Town, South Africa
10.5281/zenodo-
Spaceport cover picture: Freepik AI
-
Innovation infrastructure: Encourages investment in
advanced scientific infrastructure, including space facilities, to
strengthen SA’s position as a spacefaring nation.
-
International competitiveness: Supports initiatives that allow
South Africa to compete globally in high-tech sectors, with
spaceport development providing a new area for international
engagement.
4. The South African Space Industry Framework -)
formalises SA’s efforts to grow its space industry. It highlights
space as a critical sector for industrial and technological
development – encouraging increased interest and more
discussion in setting up space facilities to support international
satellite launches.
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 2 of 19
Emerging themes:
-
Economic development and job creation: Developing
a spaceport aligns with national goals to stimulate job
creation, drive economic development, and position
South Africa as a hub for space activities in Africa.
-
Collaboration with industry: The framework
encourages partnerships between government and the
private sector, making spaceport development an
attractive area for investment and collaboration.
5. The Space Infrastructure Hub (SIH) -) forms
part of SA’s strategic infrastructure projects, and seeks to
develop space-related capabilities, including satellite
technology, ground stations, and other infrastructure
critical to the space industry. While a formal spaceport is
not explicitly mentioned, the hub aims to support the
country’s growing space ambitions. 1
Link to spaceport support:
-
The SIH intends to support the broader infrastructure
needed for a fully operational space sector, including
launch capabilities. The initiative is part of SA’s
economic reconstruction and recovery plan, which
could position a spaceport as a key investment
opportunity.
6. South Africa’s 2024 projected National Space Policy
Priorities
Although not yet fully formalised, spaceport development
could fall under the anticipated updates to South Africa’s
space policy in 2024, as space sector stakeholders are
expected to push for investment in infrastructure that
allows for satellite launching and space exploration
capabilities.2
Potential focus areas:
-
Sovereignty in space launch capabilities: Developing
a national spaceport would align with long-term
objectives of building sovereign space capabilities.
-
Competitiveness and sustainability: In line with
global trends, South Africa’s updated space policy is
likely to emphasise sustainability, safety, and
competitive advantage, which would apply directly to
spaceport development.
1
https://igd.org.za/2024/09/30/south-africa-is-expanding-its-space-portfolio-and-has-a-growing-list-of-partners/ |
https://www.sansa.org.za/wp-content/uploads/2024/05/Revised-Strategic-Plan-.pdf
2
At the time of preparing this paper, any formal plans for a spaceport in South Africa have not yet been publicised. However, there is
growing discussion within the space community, especially with increasing interest from the Denel Overberg Test Range (OTR) and the
South African National Space Agency (SANSA).
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 3 of 19
7. African Union Space Policy (2016)
As a member of the African Union (AU), South Africa is
actively involved in promoting regional space initiatives. The
African Space Policy aims to coordinate space efforts across
the continent, which could include the establishment of
spaceports. SA’s position as one of the continent’s leading
space nations makes it a natural candidate to host a regional
spaceport, which would support both national and
continental objectives.
Relevance to SA’s spaceport initiative:
SECURING
RESOURCES,
DEVELOPING TECH &
INFRASTRUCTURE
Initially established as a missile
testing site, the Denel Overberg Test
Range already has significant
aerospace capabilities, and the
geographical advantage of remote
locations needed for rocket launches.
Upgrading it into a spaceport would
require substantial investment in
infrastructure and adherence to
international launch standards.
3
-
Regional leadership: Hosting a spaceport would place
South Africa at the centre of Africa’s space activities,
contributing to regional and international collaborations.
-
Shared infrastructure: The AU encourages member
states to share space infrastructure, and South Africa
could offer its spaceport facilities for launches by other
African nations.
In 2024, South Africa continues to evolve its space policy, driven
by the South African National Space Agency (SANSA) and aligned
with both national and continental strategies, particularly the
African Space Policy.
With the country’s increased focus on space weather, satellite
development, and broader space infrastructure. SANSA has
been actively working to enhance its capabilities, including
expanding the 24/7 Space Weather Centre, crucial for supporting
the aviation sector and mitigating space weather impacts.
In terms of spaceport development, South Africa is exploring
concrete steps in establishing its own launch capabilities by
20283. While the nation has a strong foundation in satellite
design and has collaborated internationally for launches, the
goal is to domestically launch satellites. This would not only
boost national space capabilities but also position South Africa
as a key player in the African and global space industries. The
SIH project, which seeks to secure investor funding, is also a
major step towards realising this vision.
The Denel Overberg Test Range is considered an ideal candidate
for a potential spaceport due to its remote location, existing
testing infrastructure, and aerospace capabilities.
https://mybroadband.co.za/news/science/555301-south-africas-big-rocket-launch-plans.html
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 4 of 19
WHO ARE
THE ROLE PLAYERS?
The development of South Africa's proposed spaceport or launch facility, and its active future
utilisation (for testing and/or launch services), involves a diverse range of stakeholders from
government, private companies, research institutions, and international partnerships.
Current and potential key Role Players or Stakeholders in establishing a South African spaceport
1
▪
▪
▪
▪
2
▪
▪
▪
Space Industry
Association of South
Africa (SIASA)
Aerospace Maritime
and Defence
Industries Association
of South Africa (AMD)
International Civil
Aviation Organization
(ICAO)
▪
▪
▪
▪
▪
▪
▪
▪
▪
▪
▪
▪
Pan-African Space industry
network
BRICS (Brazil, Russia, India,
China, South Africa) space
initiative
European Space Agency (ESA)
NASA
Department of Science and
Innovation (DSI)
South African National Space
Agency (SANSA)
Department of Trade, Industry
and Competition (DTIC)
Denel Overberg Test Range (OTR)
Aerospace Systems Research
Institute (ASRI)
TF Design Group
Dragonfly Aerospace
SCS Aerospace Group
PyraLink Aerospace
Space Advisory Company (SAC)
NewSpace Systems
CubeSpace
4
▪
▪
5
▪
▪
▪
▪
University of KwaZulu-Natal (UKZN ASReG)
Stellenbosch University
Cape Peninsula University of
Technology (CPUT)
University of Cape Town (UCT)
▪
▪
▪
▪
International Organisation for
Standardisation (ISO)
International Astronautical Federation
(IAF)
United Nations Office for Outer Space
Affairs (UNOOSA)
African Union (AU)
OTHER ROLEPLAYERS:
▪
▪
3
South African Technical and Vocational
Education and Training (TVET) Colleges
South African National Defence Force
(SANDF) Training Centres
Sector Education and Training Authorities
(SETA) and Quality Committee for Trades
and Occupations (QCTO)
▪
▪
▪
National Aerospace Centre (NAC)
Council for Scientific and Industrial Research
(CSIR)
South African Civil Aviation Authority (SACAA)
Indigenous and local communities
Diagram 1: Current and potential key role players in establishing a South African spaceport (Model: N. van Rooyen, Oct 2024)
Current and potential key Role Players or Stakeholders in establishing a South African spaceport
CURRENT / POTENTIAL
STAKEHOLDERS
ROLE
Note: This does not represent an exhaustive list of
stakeholders involved in any current or potential
development.
GOVERNMENT BODIES
Department of Science
and Innovation (DSI)
Responsible for overseeing and funding space-related initiatives, including
infrastructure like launch facilities.
South African National
Space Agency (SANSA)
Leads the national space strategy and promotes space science, technology, and
innovation within South Africa. SANSA will likely have a key role in coordinating
spaceport operations.
Department of Trade,
Industry and Competition
(DTIC)
Focuses on industrialisation policies, crucial for creating partnerships and
fostering the growth of the space industry.
Denel Overberg Test
Range (OTR)
Denel is responsible for managing and maintaining the OTR as part of its broader
portfolio of aerospace and defence tech. The facility will serve as a key site for
rocket testing and launches. Regarding a potential spaceport, the OTR is likely to
play a critical role due to its existing infrastructure for rocket and missile testing,
telemetry, and aerospace capabilities – and ideal candidate for conversion or
expansion into a commercial space launch facility.
Denel Spaceteq
A state-owned company under Denel Dynamics, created to leverage SA's existing
satellite and space tech capabilities. Since its formation, Spaceteq has been
central to projects like the development of the EO-SAT1, an Earth observation
satellite designed to support the African Resource Management (ARM)
Constellation. Denel Spaceteq’s involvement in a potential spaceport is aligned
with its role in advancing satellite technology and space asset manufacturing,
which may be integrated into launch operations.4
SA PRIVATE COMPANIES
4
Aerospace Systems
Research Institute (ASRI)
ASRI’s involvement is closely tied to its broader space propulsion program, which
includes both suborbital and orbital capabilities. The University of KwaZulu-Natal
(UKZN) and private-sector partners like TF Design Group are also collaborating
with ASRI on these projects, showcasing a blend of academic and industrial
contributions towards SA's space goals. ASRI plays a pivotal role in advancing
SA's spaceport and launch site initiatives:5
- ASRI unveiled a new suborbital sounding rocket launch facility at the OTR
(W/Cape), funded by the DSI (a significant development in SA’s space
infrastructure).
- Launch of ASRI’s Phoenix hybrid rockets, and other solid-propellant vehicles
used by NASA and ESA.
The OTR facility strengthens the country’s potential to develop orbital satellite
launch capabilities, a major leap forward for Africa’s space industry.
TF Design Group
Collaborating with ASRI, TF Design is involved in the engineering and
manufacturing of space propulsion systems.
Dragonfly Aerospace
Focuses on design and manufacture of high-performance optical imaging
systems and satellite manufacturing, including payloads. Dragonfly could
potentially support the spaceport initiative with satellite deployment capabilities,
which would streamline its deployment process, making it a strong contender for
domestic launch services.
https://spaceinafrica.com/2019/04/09/newspaceafrica-column-denelspaceteq/#:~:text=%E2%80%9CThe%20SA%20Cabinet%20deliberated%20on,National%20Space%20Agency%20(SANSA).
5
https://spaceinafrica.com/2024/10/04/asri-in-south-africa-unveils-new-suborbital-sounding-rocket-launch-facility/ |
https://www.defenceweb.co.za/aerospace/aerospace-aerospace/key-opportunities-exist-for-south-africa-in-the-space-sector/
SCS Aerospace Group
This company is a key contributor to the SA aerospace industry and has the
potential to play a significant role in supporting the setup of a locally driven
launch ecosystem through their satellite systems and manufacturing (design and
assembly of small satellites - the nSight1 nanosatellite was deployed from the
ISS as part of the European QB50 project). This expertise could provide a steady
demand for launch services at a new spaceport, including a pipeline of satmanufacturing, in-orbit testing, and data processing as part of downstream
services.6 In addition, their local and international collaborative approach
(NewSpace Systems, Stellenbosch University and Nelson Mandela University)
demonstrates their capability in commercial and scientific missions.
The group’s resources include rare Manufacturing, Assembly, Integration, and
Testing (MAIT) facilities, being critical for preparing payloads for launch. A
spaceport in South Africa would benefit from these facilities for pre-launch
satellite integration, final assembly, and quality checks, allowing SCS Aerospace
to act as a support base for launch-ready satellite projects. This involvement
would enhance both the operational and economic feasibility of a South African
spaceport while driving technological self-sufficiency and regional collaboration
in space activities.
PyraLink Aerospace
SA’s only upstream rocket development company – specialising in rocket
solutions and launch services. Positioned as a prime candidate to leverage a
local spaceport for launching national and commercial satellites. A newer
entrant (founded in 2022), PyraLink has a strong focus on rocket solutions and
launch services. It brands itself as "Africa's Gateway to Space" and is involved in
developing spacecraft components specifically for national security satellites.
As SA’s sole upstream rocket company, PyraLink is likely to play a critical role in
the provision of rockets and associated launch services for an SA spaceport.7
Space Advisory Company
(SAC)
Involved in satellite mission design and engineering. A local launch facility would
benefit its clients and partners by providing convenient and cost-effective access
to space.
NewSpace Systems
Develops high-reliability spacecraft components and works with many
international clients. A local spaceport would offer them an opportunity to test
and launch payloads domestically.
CubeSpace
Specialising in small satellite systems. CubeSpace is likely to use local launch
services to support its efforts in the small-sat and CubeSat markets.
UNIVERSITIES & RESEARCH INSTITUTIONS
University of KwaZuluNatal (UKZN - ASReG)
UKZN’s Aerospace Systems Research Group (ASReG) plays a significant role in
the development of space propulsion technology, such as the Phoenix hybrid
rocket program, which supports suborbital launches.
Stellenbosch University
Known for its engineering and satellite research programs, Stellenbosch
University is involved in space technology education and development.
Cape Peninsula University
of Technology (CPUT)
CPUT has an active nanosatellite development program, which aligns with the
country's space industry goals.
University of Cape Town
(UCT)
Involved in aerospace engineering and policy research, which could feed into
strategic planning for the spaceport.
6
https://www.unoosa.org/documents/pdf/unispace/plus50/Presentations_SYMPOSIUM/1.pdf | https://www.gov.za/speeches/scienceand-technology-deployment-south-african-nanosatellite-international-space-station
7
https://startuplist.africa/startup/pyralink-aerospace
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 7 of 19
VOCATIONAL COLLEGES & SKILLS DEVELOPMENT
South African Technical and
Vocational Education and
Training (TVET) Colleges
Essential for providing technical and engineering skills training to support the
aerospace industry, from fabrication to rocket engineering.
South African National
Defence Force (SANDF)
Training Centres
With connections to the aerospace and defence sectors, SANDF offers relevant
training in high-tech fields related to space infrastructure.
Sector Education and
Training Authorities (SETA)
and Quality Committee for
Trades and Occupations
(QCTO)
Responsible for overseeing workforce skills and occupational development. In
the context of a spaceport, the Transport Education and Training Authority
(TETA) and Manufacturing, Engineering, and Related Services SETA (MERSETA)
would likely focus on Aerospace engineering and tech training to support rocket
launches, satellite deployment, and space operations. Moreover, skill sets such
as Logistics and transport management to handle the complex supply chains,
infrastructure, and operational needs of the spaceport (including maintenance
and operational roles, mechanics, electricians, and control systems
specialists).
INTERNATIONAL ASSOCIATIONS & STANDARDS BODIES
International Organisation
for Standardisation (ISO)
Various ISO standards, especially ISO 9001 and AS9100, are critical for
spaceport safety and quality management.
International Astronautical
Federation (IAF)
South Africa is a member of IAF, which connects the country to global space
policy and regulatory frameworks.
United Nations Office for
Outer Space Affairs
(UNOOSA)
UNOOSA governs international space law, and its regulations will influence the
development of South Africa’s spaceport in alignment with global legal
standards.
African Union (AU)
Through its space policy, the AU is driving continental collaboration and
support for member states' space endeavours, including South Africa.
KEY INDUSTRY ASSOCIATIONS
Space Industry Association of
South Africa (SIASA)
Represents the interests of South African companies and stakeholders
involved in the space sector.
Aerospace Maritime and
Defence Industries Association
of South Africa (AMD)
AMD promotes the aerospace and defence sectors, playing a role in
facilitating partnerships for spaceport developments.
International Civil Aviation
Organization (ICAO)
Given the overlap between space and air travel, ICAO’s standards on
airspace management will be essential for launch site regulation.
POTENTIAL INTERNATIONAL COLLABORATORS
Pan-African Space industry
network
SA holds strong Pan-African ties through regional space cooperation
initiatives (AUSP, AfSA) including countries such as Nigeria, Egypt, Kenya,
and Algeria, who could utilise an SA spaceport to launch African-owned
satellites and create a stronger pan-African space network.
BRICS (Brazil, Russia, India,
China, South Africa) space
initiative
SA has long-standing ties in space technology with Roscosmos, particularly
in satellite development and space science research. Brazil, as another
BRICS member, has engaged with South Africa in the African Resource
Management Constellation (ARMC), which aims to launch satellites for
Earth observation across Africa.
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 8 of 19
The Indian Space Research Organisation (ISRO) also has an established
relationship with SA in satellite data sharing, Earth observation, and disaster
management, with frequent launches of small satellites for international
clients requiring southern hemisphere positioning.
SA and China collaborate on space science, satellite programs, and
infrastructure development (with China providing satellite tech to SA). An SA
spaceport would further boost cooperation, allowing China to launch from
Africa as part of its global space strategy.
European Space Agency (ESA)
ESA has worked with South Africa in the past and could aid in technical
aspects of spaceport and satellite operations. With SA being a partner in
several EU-funded space programs and initiatives, there are also strong ties
with France (being involved in space launch services). A local spaceport
would complement ESA’s presence in Africa, allowing Europe to use SA
facilities to boost satellite coverage over the continent.
NASA
With South Africa collaborating on various space missions, NASA may
contribute to or share expertise in developing spaceport infrastructure. SA
has signed several agreements with U.S. private companies on space
research and Earth observation. A spaceport would offer an ideal location
for launches targeting specific orbits and could attract U.S. companies
looking for cost-effective alternatives.
OTHER ROLE PLAYERS
National Aerospace Centre
(NAC)
Focuses on aerospace research and development and plays a key role in
advancing space technologies in the country.
Council for Scientific and
Industrial Research (CSIR)
CSIR contributes research and development, particularly in advanced
manufacturing and aerospace systems, which would be pivotal for the
spaceport.
South African Civil Aviation
Authority (SACAA)
Involved in regulating airspace and ensuring the safety and compliance of
aerospace operations.
Indigenous and local
communities
Indigenous, local communities can contribute their knowledge and
perspectives, particularly regarding land use, cultural preservation, and
sustainability practices. Respecting local cultural heritage sites and
integrating indigenous environmental practices into the planning phase
would ensure that the spaceport aligns with SA’s values of inclusivity and
environmental stewardship. This helps create a balance between
technological advancement and the protection of local traditions and
ecosystems. Additional benefits would be job creation, economic
opportunities, STEM education and youth engagement, environmental
stewardship, social and economic upliftment, partnership with local
governance, tourism, and cultural exchange.
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 9 of 19
PHASES IN
ESTABLISHING A
spaceport
Several recent publications outline steps and considerations for
establishing a national spaceport, focusing on regulatory, economic,
and logistical requirements. In general, starting a spaceport requires a
comprehensive feasibility study to evaluate location, environmental
impact, and local infrastructure. For instance, the U.S. Federal Aviation
Administration (FAA) guidelines provide a structured approach, detailing
required licenses, environmental assessments, and public safety
measures. 8
Key criteria also include:
-
proximity to the equator for efficient launches,
-
coastline access, and
-
population density in nearby areas.
Economically, spaceport development is tied closely to commercial
launch demand, with funding often requiring public-private partnerships
to balance high initial costs.
Spaceport case studies
Public backing is also critical, as taxpayer support may be necessary for
infrastructure or environmental impact studies. For example, spaceport
America in New Mexico succeeded partly due to public sales tax
support, although other projects like the Oklahoma spaceport have
struggled without similar community backing.
Notably, other than South African intentions, Africa is set to see its first
dedicated spaceport in Djibouti9, a $1 billion project being developed in
partnership with Hong Kong-based Touchroad International. Positioned
to handle launches for commercial and governmental clients, this
spaceport will likely facilitate new opportunities for African space
endeavours (expected completion is projected around 2028).
In India, plans for a spaceport on Kulasekharapattinam in Tamil Nadu
have gained traction. Managed by the Indian Space Research
Organisation (ISRO), this site is being prepared to support India's
booming space launch industry, particularly for smaller satellite
missions. Given India's history in satellite deployment, this location is
expected to augment ISRO’s capabilities and lessen dependence on
existing facilities like the Sriharikota Range.
For Indonesia, the island of Biak has been earmarked for its first
spaceport, with government initiatives and legislation supporting the
project as part of Indonesia's aim to be a regional space power. The
project’s strategic location near the equator offers advantages for
launching payloads into space more efficiently. This site aligns with
Indonesia's broader space policy, which emphasises regional leadership
and commercial space activities.
https://www2.deloitte.com/content/dam/Deloitte/us/Documents/consulting/us-spaceports-of-the-future.pdf |
https://www.astralytical.com/insights/americas-spaceports-power-and-peril | https://www.ntu.edu.sg/cas/newsevents/news/details/the-state-of-african-space-industry
8
https://research.hktdc.com/en/article/MTI4NDg3NjU1Nw | https://spaceinafrica.com/2024/03/04/growing-the-african-space-agencyfrom-the-ground-up-a-case-study-of-nigeria/
9
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 10 of 19
Internationally, lessons can be learned from recent expansions at existing
spaceports, such as the UAE's Al Ain spaceport project, which highlights
the importance of aligning regulatory policies with local and international
space industry standards.
The above developments mark a growing interest in space infrastructure in
these regions, though each project is at varying stages and has faced
unique challenges, including funding, regulatory, and environmental
concerns.
Spaceport project development
Developing a spaceport is a multifaceted endeavour, involving stages that
each serve unique functions to bring the project to successful completion.
spaceport projects typically progress through several defined phases:
-
planning and site selection,
-
infrastructure development,
-
regulatory compliance,
-
operational testing, and
-
eventual launch readiness.
Each of these stages is essential in ensuring the facility’s technical viability,
operational safety, and alignment with national and international aerospace
standards.
The initial phase, focused on planning and site selection, is critical for
determining the best location and layout for the spaceport, factoring in
environmental, geographic, and logistical considerations. For instance,
proximity to the equator or coastlines can reduce launch costs, while
minimising environmental impact remains a priority. This phase often
involves feasibility studies, engagement with local stakeholders, and landuse planning, creating a strong foundation for subsequent construction and
regulatory phases.
Once construction begins, spaceport developers prioritise infrastructure
development, from constructing launch pads to establishing support
facilities like control centres, vehicle assembly buildings, and safety zones.
Parallel to construction, obtaining regulatory approvals at both national and
international levels is essential for adhering to space safety protocols and
environmental standards (like those outlined in ISO 14620 or ISO 9001 for
aerospace applications). This groundwork leads to the final phase of
operational testing and training, where systems are validated to ensure
safe, reliable operations.
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Page 11 of 19
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
Part of the ‘Africa Space Identity’ series | Author: Natasha van Rooyen – October 2024
Applicable ISO
Standards
Feasibility study and concept development
Assess geographical,
environmental, and economic
ISO 9001:2015 (Quality
factors. Conduct stakeholder
Management Systems)
engagement with government,
ISO 14001 (Environmental
private sector, and space
Management Systems)
agencies.
Legal and regulatory framework setup
Ensure compliance with
international space laws, air
traffic control regulations, &
ISO 9001:2015 (Quality
environmental standards.
Management Systems)
Obtain necessary permits and
licenses for operation.
Design and planning
Develop detailed plans for
infrastructure, logistics, safety,
ISO 9001:2015 (Quality
and operational procedures.
Management Systems)
Involve architectural and
AS 9100 (Aerospace Quality
aerospace engineering
Management)
expertise for site layout and
launch systems.
Construction and infrastructure development
ISO 9001:2015 (Quality
Management Systems)
Build physical structures
AS 9100 (Aerospace Quality
(launch pads, control centers,
Management)
fueling stations). Set up
ISO 14001 (Environmental
communication and safety
Management Systems)
systems.
ISO 45001 (Occupational
Health and Safety)
Testing and Certification
ISO 9001:2015 (Quality
Test all systems, from ground
Management Systems)
control to launch vehicles.
AS 9100 (Aerospace Quality
Ensure that all components
Management)
comply with international
ISO 45001 (Occupational
standards.
Health and Safety)
Operational readiness
Activity
Train personnel, establish
operational workflows, and
initiate pre-launch protocols.
ISO 9001:2015 (Quality
Management Systems)
ISO 14001 (Environmental
Management Systems)
ISO 27001 (Information
Security Management)
Roles / Skill Sets
required
QMS Steps
-
-
-
-
-
-
-
-
-
-
Document control &
stakeholder
requirements
management.
Risk assessment &
analysis (ISO 9001).
•
•
•
Legal compliance
documentation (ISO
9001).
Regulatory audit
processes (ISO 9001).
•
•
Process-based
approach for managing
design specifications
(AS 9100).
Configuration
management and
product verification.
•
Supplier and
contractor quality
control (ISO 9001, ISO
45001).
Waste & environmental
impact management
(ISO 14001).
Non-conformance
management &
corrective actions (AS
9100).
Safety & hazard
analysis (ISO 45001).
Training and
certification programs
for staff (ISO 9001).
Security protocols for
data and
communications (ISO
27001).
•
•
•
•
•
•
•
•
•
•
•
•
•
•
Project managers
Space law experts
Environmental
scientists
Economists
Legal advisors
Government liaison
officers
Compliance
specialists
Aerospace
engineers
Architects
QMS designers
Risk management
specialists
Civil engineers
Construction
project managers
Safety officers
Quality assurance
testers
Aerospace safety
experts
Certification bodies
Training and
development
specialists
Systems analysts
Cybersecurity
experts
Launch Operations and Maintenance
Manage launch schedules,
ensure consistent quality
management practices, and
monitor compliance with
safety standards.
ISO 9001:2015 (Quality
Management Systems)
ISO 27001 (Information
Security Management)
ISO 45001 (Occupational
Health and Safety)
-
Process control for
launch operations (AS
9100).
Monitoring and
measurement of
system performance
(ISO 9001).
•
•
•
•
Launch operation
controllers
Aerospace
engineers
Safety managers
Quality auditors
QUALITY
MANAGEMENT
AND
INTERNATIONAL
STANDARD S
Applying quality management systems (QMS), ISO standards, and legal
considerations in the design, development, and operation of a potential
South African spaceport would provide several strategic benefits.
Primarily, implementing QMS frameworks like:
-
ISO 9001 and ISO 14620 (space system safety)
ensures that processes across the spaceport’s lifecycle are consistent,
efficient, and focused on quality and safety.
QMS helps streamline operations, optimise resource usage, and maintain
rigorous safety protocols - essential in high-stakes environments like
spaceports, where small errors can lead to costly delays or safety risks.
This systematic approach to quality reduces the risk of failure in launch
operations and builds trust among stakeholders and prospective clients.
Moreover, adhering to ISO standards aligns the spaceport with
international best practices, positioning South Africa competitively in the
global space industry.
By following recognised standards like:
-
ISO 27001 for information security and ISO 14001 for environmental
management,
the spaceport can demonstrate commitment to both technological
reliability and environmental responsibility.
This commitment is crucial for attracting private sector investments and
international partnerships, as companies prefer launching from facilities
that meet strict compliance requirements. Furthermore, ISO certification
can serve as a powerful differentiator, showing potential clients that the
spaceport operates with high standards of quality and regulatory
adherence.
INCORPORATING
SUSTAINABLE
DEVELOPMENT
GOALS (SDGs)
Applying SDGs to the design, development, and operation of a spaceport
would ensure that the project aligns with broader national and global
sustainability priorities, enhancing its social and environmental value.
-
SDG 9 (Industry, Innovation, and Infrastructure) is particularly
relevant as it encourages the development of resilient infrastructure
and supports technological advancement, which a spaceport
inherently requires. By fostering innovation and infrastructure, South
Africa can contribute to job creation, technological development, and
skills growth, helping to establish the country as a space industry
leader in Africa.
-
SDG 13 (Climate Action) also holds importance for spaceport
development. spaceports have potential environmental impacts due
to emissions and land use, so it is crucial to integrate sustainable
practices that minimise ecological harm. Following ISO 14001
standards for environmental management and designing operations
with an eco-friendly approach can mitigate negative impacts, allowing
the spaceport to serve as a model of sustainable industrial
development. Environmental assessments, renewable energy
sources, and efficient resource use can ensure the facility aligns with
climate goals and supports South Africa’s commitments to reducing
carbon footprints and protecting biodiversity.
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
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-
SDG 4 (Quality Education) and SDG 8 (Decent Work and
Economic Growth) underscore the importance of educational
outreach and workforce development associated with the
spaceport. Building partnerships with local universities, technical
colleges, and SETAs can drive STEM education and vocational
training, empowering communities with high-demand skills. This
would not only create job opportunities but also enhance the local
talent pool, fostering an inclusive economy and positioning South
Africa as a space industry hub.
The spaceport’s adherence to QMS and legal frameworks can therefore
support sustainability, ethical practices, and economic growth in
alignment with these SDGs, adding significant value to the project and
its role in South Africa’s future.
Project Activity
Applying the Sustainable Development Goals
Feasibility study and concept development
Assess geographical, environmental, and economic factors.
Conduct stakeholder engagement with government, private
sector, and space agencies.
SDG 9 (Industry, Innovation, and Infrastructure)
SDG 17 (Partnerships for the Goals).
Legal and regulatory framework setup
Ensure compliance with international space laws, air traffic
control regulations, & environmental standards. Obtain
necessary permits and licenses for operation.
SDG 16 (Peace, Justice, and Strong Institutions).
Design and planning
Develop detailed plans for infrastructure, logistics, safety, and
operational procedures. Involve architectural and aerospace
engineering expertise for site layout and launch systems.
SDG 7 (Affordable and Clean Energy) for
sustainable energy solutions.
Construction and infrastructure development
Build physical structures (launch pads, control centers, fueling
stations). Set up communication and safety systems.
SDG 13 (Climate Action)
SDG 11 (Sustainable Cities and Communities).
Testing and Certification
Test all systems, from ground control to launch vehicles.
Ensure that all components comply with international standards.
SDG 9 (Industry, Innovation, and Infrastructure) for
ensuring technology integration.
Operational readiness
Train personnel, establish operational workflows, and initiate
pre-launch protocols.
SDG 8 (Decent Work and Economic Growth)
SDG 4 (Quality Education).
Launch Operations and Maintenance
Manage launch schedules, ensure consistent quality
management practices, and monitor compliance with safety
standards.
SDG 12 (Responsible Consumption and
Production)
SDG 9 (Industry, Innovation, and Infrastructure).
A South African spaceport - Considering QMS, ISO, SDGs, and the Law
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PROTECTING
SOVEREIGNTY:
LEGAL
PRINCIPLES,
STATUTES AND
CONVENTIONS
Incorporating legal parameters is equally essential, as South Africa’s
spaceport would need to comply with both national and international
space law, including treaties like the Outer Space Treaty and national
legislation for space governance. Proper legal compliance not only
ensures safe and ethical operations but also protects South Africa’s
sovereignty and establishes it as a responsible player in the global space
arena.
There are several international and regional laws and conventions that
would be relevant to developing and operating a spaceport in South
Africa. The key ones that address safety, environmental protection, and
international cooperation are:
1. Outer Space Treaty (1967)
Formally called the Treaty on Principles Governing the Activities of States
in the Exploration and Use of Outer Space, including the Moon and Other
Celestial Bodies, is the foundational framework for international space
law. It establishes that space exploration should benefit all countries,
prohibits the placement of nuclear weapons in space, and declares
outer space as free for exploration by all countries while forbidding any
one nation from claiming sovereignty over celestial bodies.
2. UNCOPUOS Guidelines
These guidelines address the sustainable use of outer space and
encourage nations to implement best practices for preventing space
debris, sharing information transparently, and mitigating the
environmental impact of space activities. They are designed to support
the long-term sustainability of space for peaceful purposes, in line with
international cooperation principles.
3. The Chicago Convention (1944)
Formally known as the Convention on International Civil Aviation, this
treaty underpins the regulation of international air travel. As a launch site
would involve aerospace travel, the Chicago Convention’s guidelines for
air traffic and flight safety would need to be incorporated, especially in
managing airspace coordination around launches.
4. ITU Radio Regulations
Spaceports and launch facilities rely on effective communication and
tracking, making the International Telecommunication Union (ITU)
regulations relevant. These rules govern the allocation of radio
frequencies for space operations, which are essential for satellite and
launch vehicle tracking, telemetry, and communication.
5. The Liability Convention (1972)
Known as the Convention on International Liability for Damage Caused
by Space Objects, this agreement stipulates that launching states are
responsible for any damage caused by their space objects, both in
space and on Earth. For South Africa, this means comprehensive risk
assessments and insurance policies to cover any potential damage from
launches.
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6. Convention on Environmental Impact Assessment in a
Transboundary Context (Espoo Convention)
Though South Africa is not a direct signatory, the principles of this United
Nations Economic Commission for Europe (UNECE) convention are
relevant, especially if a launch or spaceport could have environmental
effects beyond South Africa’s borders. Implementing an Environmental
Impact Assessment (EIA) is crucial, aligning with both the Espoo
principles and South African environmental laws.
7. The Space Debris Mitigation Guidelines of the United Nations
Committee on the Peaceful Uses of Outer Space (COPUOS)
These guidelines advise on minimising space debris, which is essential
for maintaining safety in space activities. South Africa’s spaceport
operations would need to implement debris mitigation strategies for
launch vehicles and other space activities, supporting SDG 13 (Climate
Action) by limiting the environmental impact on orbital space.
8. South African Environmental Legislation
Under South African law, several environmental regulations would apply,
such as the National Environmental Management Act (NEMA), which
mandates EIAs for large projects. Compliance with these requirements
ensures that the spaceport aligns with sustainability goals and respects
local ecosystems.
9. Convention on the Registration of Objects Launched into
Outer Space (1976)
This United Nations convention requires countries to register space
objects they launch, allowing for transparency and accountability in
space activities. A South African spaceport would need to adhere to this
convention, keeping records of all launches and reporting them
internationally.
10. Non-Proliferation of Nuclear Weapons (NPT) and Prevention
of an Arms Race in Outer Space (PAROS)
Although spaceports focus on commercial and civil uses, the NPT and
the PAROS principles (advocated by the UN) are crucial to prevent any
militarisation of space. South Africa’s adherence to non-proliferation
treaties underlines its commitment to peaceful space uses, in line with
SDG 16 (Peace, Justice, and Strong Institutions).
11. The Hague Code of Conduct against Ballistic Missile
Proliferation (HCOC)
As spaceports can potentially be used for launching ballistic-capable
rockets, adhering to the HCOC would assure other nations of South
Africa’s commitment to peaceful space exploration, reducing the risks of
military escalation related to launch capabilities.
12. African Union’s African Space Policy and Strategy
The African Space Policy encourages member countries to develop
space capabilities that support social and economic development.
South Africa’s adherence to this policy would promote regional
cooperation and shared objectives, ensuring that the spaceport’s
operations contribute to Africa’s collective space development goals.
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13. Cape Town Convention (2001)
Respecting legal and
process standards, coupled
with quality management
principles, South Africa
would reinforce its role as a
responsible spacefaring
nation, facilitating ethical,
secure, and globally
compliant space activities.
This would enhance the
spaceport’s appeal to
international partners and
clients, bolstering South
Africa’s reputation and
opportunities in the global
space economy.
Also known as the Convention on International Interests in Mobile
Equipment, the Cape Town Convention focuses on the protection of
high-value, mobile assets like spacecraft and aircraft. It establishes
international standards for registration, security interests, and legal
frameworks to protect the rights of asset owners and financiers. This
convention aims to enhance financial security for investors, making it
easier for countries and companies to acquire financing for spacerelated assets.
14. South African Space Affairs Act (1993)
This Act governs the country’s space-related activities, providing a
regulatory framework to ensure compliance with international space
treaties and conventions. It establishes the South African Council for
Space Affairs (SACSA), which oversees national space activities,
licensing, and adherence to safety and environmental standards,
ensuring that South Africa’s space activities align with peaceful
exploration and international obligations.
15. Air Traffic Navigation Services Act (1993)
This Act establishes the Air Traffic and Navigation Services (ATNS)
Company to provide air traffic services in South Africa’s controlled
airspace. It ensures the safe and efficient management of national
airspace, including areas potentially affected by rocket launches or
other aerospace activities. The Act is essential for coordinating launch
activities with general air traffic, ensuring that spaceport operations align
with national air traffic safety and navigation standards.
By pre-emptively addressing these legal and regulatory factors, the
spaceport can avoid potential disputes, align with the country’s strategic
space objectives, and foster a robust framework for sustainable growth.
Disclaimer
This document is an open-source knowledge resource designed
for educational and informational purposes. While every effort
has been made to ensure accuracy and reliability, the author
accepts no liability for errors, omissions, or outcomes arising
from its use. Users are encouraged to verify this information
through additional credible sources. This document is not
intended as a formal or exclusive resource on the subject.
If citing or referencing this document, please attribute the
content to Natasha van Rooyen and reference as follows:
A South African spaceport - Considering QMS, ISO,
SDGs, and the Law. Proper citation honours the author’s
work and supports principles of academic integrity and
knowledge sharing.
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References
-
United Nations Office for Outer Space Affairs. (1967). Outer Space Treaty. https://www.unoosa.org
-
United Nations Office for Outer Space Affairs. (1972). Convention on International Liability for Damage
Caused by Space Objects. https://www.unoosa.org/oosa/en/ourwork/spacelaw/treaties.html
-
International Organization for Standardization. (2021). ISO 9001: Quality Management Systems –
Requirements. Geneva: ISO.
-
International Organization for Standardization. (2021). ISO 14001: Environmental Management Systems –
Requirements. Geneva: ISO.
-
International Organization for Standardization. (2021). ISO 14620: Space Systems – Safety Requirements.
Geneva: ISO.
-
Government of South Africa. (1993). South African Space Affairs Act. https://www.gov.za
-
African Union Commission. (2016). African Union Space Policy and Strategy. Addis Ababa: African Union
Commission.
-
Touchroad International. (2023). Djibouti spaceport Project. https://africanews.space/
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