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Space Governance and Stakeholders Roles 5th Manfred Lachs Conference
Montreal 5-6 May 2017
ByTommaso Sgobba and Isabelle Rongier
International Association for the Advancement of Space Safety
International Association for the Advancement of Space Safety 1
The Skills Gap
International Association for the Advancement of Space Safety 2
Licensing of commercial safety-risky activities is traditionally performed by a governmentregulatory body that has the responsibility for:
- levying safety requirements
- performing surveillance activities, and
- certifying compliance
However, considering the ever-widening technical skill gap between high-tech industryand traditional government regulatory organizations, such way of operations is becomingimpractical in many advanced technological fields.
Space has some additional peculiarities: 1) skills gap between countries withlong tradition of government space programs, and countries which arenewcomers in the space arena; 2) skills gap within a country with specializedknowledge residing in a different government organization (e.g. national spaceagency, e.g. NASA vs FAA).
International Association for the Advancement of Space Safety 3
Bridging the skills gap withina country
(Human Spaceflight)
The Case of Commercial Human Spaceflight in US
Current U.S. commercial space legislation limits FAA licensing to the protection of public safety
during launch and re-entry operations.
International Association for the Advancement of Space Safety 4
However, there is one remarkable exception
that applies to operators providing commercial
transportation services to the International
Space Station under the terms of NASA’s
Commercial Crew Program (CCP). They are
required to obtain a NASA safety certificate for
the safety of humans on board, as foreseen by
the original agreements signed by governments
participating to the ISS program (NASA OIG,
2016).
The Case of Commercial Human Spaceflight in US
The safety policy document ESMD-CCTSCR-12.10 “Commercial Crew Transportation System
Certification Requirements for NASA Low Earth Orbit Missions” includes four parts:
a) Certification Process: outlining scope and elements of the certification process: validation of
the technical and performance requirements/standards; verification of compliance with
requirements/standards; consideration of operational experience; and acceptance of residual
technical risk due to hazards, waivers, non-compliances, etc.
b) Documentation: compilation of plans and documents required for submittal at project
milestones to collectively prove that the system meets technical requirements and is safe.
c) Safety Requirements: system capabilities in three primary categories of system safety,
crew/human control of the system, and crew survival/aborts.
d) Standards: in the fields of engineering, safety, and medical/health, subdivided in those that
must either be met as written, or equivalent alternate proposed to NASA Technical Authority
for approval, or representing recommended best practices.
International Association for the Advancement of Space Safety 5
Verifying compliance with performance requirements is not easy task
Because it is simply impossible to formulate prescriptive requirements (i.e. detailed safety
design solutions) for something that never existed before, space agencies use to issue
safety and technical requirements that are goal/performance oriented.
Being performance requirements generic, verification of compliance is a crucial task demanding
highly-skilled interdisciplinary competences.
International Association for the Advancement of Space Safety 6
During safety reviews of a CCP spacecraft, a NASA
multidisciplinary panel of experts will identify issues and make
recommendations, but cannot impose design or operational
solutions. However, NASA Technical Authority can refuse to
accept a risk.
Even if FAA would have the responsibility to regulate
human spaceflight in US, it would not have the skills.
Third party certification: the example of Classification Societies
International Association for the Advancement of Space Safety 7
In the second half of the 18th century, marine insurers based at Lloyd's coffee house in
London, developed a system for the independent inspection of ships presented to them for
insurance coverage. In 1760, a committee was formed for with the express purpose of
classifying the condition of each ship on an annual basis. In 1834, the Lloyd's Register of
British and Foreign Shipping was reconstituted as a self-standing 'classification society'.
Following the example, a number of Classification Societies were established worldwide.
Nowadays, Classification Societies act as a “Recognized
Organizations” carrying out statutory surveys and
certification as delegated by national maritime
administrations (flag administrations).
Building a Commercial Space Safety Institute
International Association for the Advancement of Space Safety 8
No matter how much the cost of spaceflight will be slashed, without advancing the safety of
space vehicles there will be no growth, no expansion and perhaps no future at all for the
commercial human spaceflight industry.
Advancing space safety engineering applications, research, and education should be a primary
strategic business goal of industry as a whole. Industry should build on the experience
accumulated in more than 50 years of government space programs, and cooperate within
industry and with regulatory bodies to advance safety as common strategic goal. For such
purpose, commercial human spaceflight industry should consider establishing a Commercial Space
Safety Institute (CSSI) as a non-for-profit organization funded by industry but independent and
separated from trade organizations.
The CSSI would provide standardization and safety certification services commercial human
spaceflight industry. The SSI should be a “recognized organization” approved by and operating
under oversight of a national regulatory entity. The Commercial Space Safety Institute would also
coordinate, support and promote research in the field of space safety engineering, support
educational programs, and provide professional training opportunities to members.
Building a Commercial Space Safety Institute
International Association for the Advancement of Space Safety 9
International Association for the Advancement of Space Safety 7
Bridging the skills gap between countries(Space Debris Mitigation)
Good intention – inadequate action!
International Association for the Advancement of Space Safety 11
For space debris, we are still in the phase of promoting awareness, collecting statistics,
and issuing guidelines. In 2007, the United Nations General Assembly endorsed the
COPUOS Space Debris Mitigation Guidelines. In 2011, ISO standard 24113 on “Space Debris
Mitigation” was issued which is policy guidelines saying ‘what’ needs to be done and not ‘how’
to do it. While some countries and organizations have already taken the step of
mandating its implementation in their space programs (as the French Space Operation
Act), worldwide implementation is still largely pending.
Good intention – inadequate action!
International Association for the Advancement of Space Safety 12
As a minimum, we can say that the progress made until now does not match the seriousness
of the problem. A growing problem that the arrival of newcomers, launches of CubeSats, and plans
for mega constellation will further exacerbate.
As of January 2017 (Source ESA)
Verifying/enforcing compliance: the IAQG example
International Association for the Advancement of Space Safety 13
The establishment of an international (government) organization to verify/enforce
compliance is not on the table. The alternative is to look for an industry initiative, and the
IAQG is an interesting model.
In 1998 major aerospace primes having recognized that they were often sharing the same supply
chain, decided to set up a non-profit organization, the International Aerospace Quality Group
(IAQG), with the responsibility to adapt the ISO quality standard (ISO 9001) to the need of the
aerospace industry, to develop supporting ‘best-practices’, and to establish a unique system of
compliance verification and enforcement through shared auditing. Nowadays AS/EN 9100, the
IAQG aerospace quality standard, is used worldwide, recognized by major government regulatory
body, and implemented by suppliers and primes as well.
Establishing the Institute for Space Debris Prevention and Control (ISDPC)
International Association for the Advancement of Space Safety 14
The issue of space debris mitigation is not only a matter of political will but also of
access to skilled human resources which are rare outside major space agencies
and industry.
In 2013, the IAASS presented at the 50th COPUOS STSC session the concept of
setting up a non-profit organization (on the model of IAQG), as a collaborative
consortium of industry, open to the participation of experts from government
organizations, for implementing processes for verifying compliance with ISO space
debris standard. The Institute would also make available to all stakeholders in space
activity, whether large or small, expert assessments for safe space operations.
Conclusion
International Association for the Advancement of Space Safety 15
Future space governance should move away from classical model of separation of roles between
government regulatory bodies and industry, and move towards a closer collaboration.
The space industry should develop a notion of space safety and
sustainability as their own collective national and international
responsibility. Under the oversight of relevant regulatory bodies and with
the benefit of international cooperation, “industry should establish
specialized institutes, as industry created, independent, self-
policing entities aimed at developing, adopting, and enforcing
standards of excellence to ensure continuous safe access and
operational integrity of space operations”*.
* Paraphrase of the recommendation of the Presidential Committee that investigated the 2010 Deepwater
Horizon oil rig disaster in the Gulf of Mexico.
Announcement
International Association for the Advancement of Space Safety 16