ASICC News
23 June 2008
INTERIM REPORT OF SENATE INQUIRY RELEASED
The Senate Economics Committee released its
Interim Report into Australia’s Space Science and Industry Sector on 23
June. A copy can be downloaded by following this
link.
The Interim Report extracts some of the key points from the 80 submissions
received and also highlights some important evidence arising from the
appearances before the Committee.
The Committee has invited supplementary submissions addressing the key
questions posed in the interim report. Further public hearings are to be
conducted before the preparation of a final report which is due in October.
ASICC will be monitoring the ongoing activities of this Committee and we
will prepare a supplementary submission.
1 May 2008
ASICC SUBMISSION TO SENATE INQUIRY
RELEASED
ASICC's Submission to the Senate Inquiry
into The Current State of Australia's Space Science & Industry Sector has
been released and can be downloaded by following this
link.
19 March 2008
Inquiry into The Current State of Australia's Space Science & Industry
Sector
On 19 March 2008, the Senate referred the following matter to the
Senate Standing Committee on Economics for report no later than October 2008
with an interim report by 23 June 2008:
The current state of Australia's space science and industry sector,
examining options to strengthen and expand Australia's position in fields
that strongly align with space science and industry, giving consideration to
any national strategic coordination requirements and taking into account
findings and policy options of the National Innovation System Review, with
particular reference to:
Australia's capabilities in space science, industry and education,
including:
- existing Australian activity of world-class standard, and areas in which
there is currently little or no activity but that are within the technical
and intellectual capacity of the country;
- arguments for and against expanded Australian activity in space science
and industry, including:
- an assessment of the risks to Australia's national interest of Australia's
dependence on foreign-owned and operated satellites,
- the potential benefits that could accrue to Australia through further
development of our space capability,
- economic, social, environmental, national security and other needs that
are not being met or are in danger of not being met by Australia's existing
space resources or access to foreign resources,
- impediments to strengthening and expanding space science and industry in
Australia, including limiting factors relating to spatial information and
global positioning systems, including but not limited to ground
infrastructures, intergovernmental arrangements, legislative arrangements
and government/industry coordination, and
- the goals of any strengthening and expansion of Australia's space
capability both in the private sector and across government; and
- realistic policy options that facilitate effective solutions to
cross-sector technological and organisational challenges, opportunity
capture and development imperatives that align with national need and in
consideration of existing world-class capability.
The Committee invites written submissions which should be sent to:
Committee Secretary
Senate Economics Committee
Department of the Senate
PO Box 6100
Parliament House
Canberra ACT 2600
Australia
11 February 2008
ASICC office holders for 2008 appointed
At the meeting of the Executive Council in
Canberra today, the following ASICC office holders for 2008 were appointed:
Chair: Kirby Ikin (Asia Pacific Aerospace Consultants)
Deputy Chair: Bill Barrett (Asia Pacific Aerospace Consultants)
Deputy Chair: Gordon Pike (SingTel Optus)
Secretary: Michael Davis (Adelta Legal)
Treasurer: David Ball
(Intelsat)
29 October 2007
new executive council elected at
ASICC AGM ON 18TH OCTOBER 2007
The Annual General Meeting of Australian
Space Industry Chamber of Commerce was held at the offices of Blake
Dawson Waldron in Sydney on Thursday 18th October 2007.
Click here to see a list of
Executive Council members elected at the meeting.
19 September 2007
FedSat falls silent - mission ends for Australia’s science satellite
Launched in December 2002 as Australia’s
first 21st century satellite, FedSat has finally ceased operations, a full
year later than expected and after completing 20,000 orbits of the earth
(about one billion kilometers).
The Australian satellite was developed by the Cooperative Research Centre
for Satellite Systems (CRCSS) as a scientific or research satellite and was
launched at the Tanegashima Space Centre in Japan.
Contact was lost with the satellite by the ground station at UniSA’s
Institute for Telecommunications Research a few months ago, after the first
signs that the batteries were finally failing and unable to continue to
supply power to keep the satellite functioning.
The FedSat mission was the first Australian scientific satellite placed in
orbit for more than 30 years and was used by the research community to
gather data on space weather and radiowave propagation. The 58 kg satellite
(the size of a bar fridge) also carried instruments used to test new
communications technologies and self-healing space computers.
Former CEO of the CRC for Satellite Systems, UniSA’s Pro Vice Chancellor for
IT Engineering and the Environment, Professor Andrew Parfitt says FedSat
represented a bold initiative by Australian researchers to re-engage
directly in space science and technology.
“The FedSat mission provided valuable experimental infrastructure and a
wealth of scientific data that will continue to be of use,” Prof Parfitt
says.
“Unfortunately the demise of FedSat means we no longer have a space asset
with which to conduct new science - at least for the time being.”
With the closure of the CRCSS in December 2005, the Australian Government
through the Department of Defence assumed ownership of FedSat in order to
extend the initial three-year mission and gather further scientific data for
the benefit of the Australian research community.
“The extra data collected has added to the already considerable FedSat
legacy,” Prof Parfitt says.
“The Australian space science community is now developing its first decadal
plan to ensure that Australia remains engaged in space science and
technology at an appropriate level.”
18 October 2006
US
Announces New National Space Policy
For the first time in ten years the US President has
enunciated a new over-arching space policy for the US Government.
According to the new policy document, authorised by
President Bush on 31st August 2006, the conduct of US space programs and
activities will be a top priority, guided by principles that include a
commitment to the exploration and use of outer space by all nations for
peaceful purposes and the rejection of any claims to sovereignty over outer
space.
However in a notable development in its international space
policy, the US now explicitly asserts a right to preserve its rights,
capability and freedom of action in space including taking those actions
necessary to preserve its space capabilities and denying adversaries the use
of space capabilities hostile to US national interests.
To download a copy of the policy document, click
here.
18 October 2006
SPACE: THE FINAL BUSINESS FRONTIER
An interesting paper was presented recently at the Space
2006 Conference on the results of a business case study of the
emerging entrepreneurial space industry in the U.S.
One of the conclusions is that the commercial space industry
in the US is slowly developing into a purely private and sustainable
marketplace. Indications include the fact that private spending on
space-related activities has now surpassed that of the government. However,
the high cost and high risk, low operational flexibility of launching a
payload to orbit remains one of the greatest barriers for an expanding
commercial space market, particularly in view of the global oversupply of
launch services.
Other observations in the paper include the following:
-
Non-traditional investors are entering the industry.
According to the authors, 'These tend to be high net worth individuals who
are not solely driven by profit incentive, but also by personal interest,
altruism, and a desire to challenge the establishment and make a difference
in the industry.'
-
While multiple players are pursuing the sub-orbital tourism
market, there is a high degree of demand uncertainty as to the number of
passengers and at what price point will drive the industry and there are
significant regulatory and legal hurdles that have yet to be overcome.
-
Space ventures enjoy public fascination and bipartisan
support. This should continue to be strong as space tourism industry ramps
up. Non-market risks are minimal and manageable.
To download a copy of the paper, click
here.
29 May 2006
ASICC promoteS Australian participation in microsat missions
During a recent visit to
Australia, the Canadian aerospace company ComDev presented a novel concept
which might enable Australian organisations to collaborate with the Canadian
Space Agency and ComDev on microsatellite missions.
ASICC provided ComDev’s
representative, Mr. Richard Kolacz, with a number of industry contacts and
co-hosted a presentation to the Sydney based space community at CSIRO
Industrial Physics in Lindfield on 4 May 2006.
The Canadian Space Agency plans
to launch a microsatellite every two years. ComDev will be the provider of
the satellite bus and will arrange the launch and it has invited Australia
to participate in defining the missions and developing the payloads. This
type of collaboration has the potential to significantly lower the actual
cost required for Australian participation to a few million dollars per
program.
Commenting on the visit, ASICC’s
Deputy Chair, Bill Barrett said:
“From my individual discussions with the attendees and Mr. Kolacz it seems
that the concept of a collaborative approach to microsat projects
coordinated by ComDev and the Canadian Space Agency has generated a lot of
interest, particularly since it has the potential to enable Australian
concepts and instruments to participate in space missions for significantly
reduced costs."
"The meeting also served an
important secondary purpose in bringing together many space interested
organisations and individuals based in Sydney who had not met each other
before. This is one of the key goals of ASICC and from that perspective
ASICC feels that this meeting was a great success” Mr Barrett added.
25 January 2006
ASICC Chairman Welcomes National Space Policy Initiative
The Chairman of the Australian Space
Industry Chamber of Commerce, Kirby Ikin, today welcomed Senator Grant
Chapman's call for a whole of government national space
policy.
"The fact that Senator Chapman has received positive responses from the
Prime Minister and other Cabinet Ministers to his recent submission is very
good news for the Australian space community" Mr Ikin said.
"I congratulate Senator Chapman on his untiring efforts as an advocate for
the space industry and in his initiative in establishing the Space Policy
Advisory Group involving many of the leading Australian space players."
"ASICC played a key role in its deliberations. The Space Policy Advisory
Group was chaired ASICC Executive Council member, Roy Sach, and Executive
Council members Roger Franzen, Bill Barrett, Michael Davis, John Douglas,
Andrew Parfitt and Brett Biddington were all contributors to the
submission."
"We await the outcome of the Government's deliberations. We are convinced
that the time is right for the Government to recognise the importance of a
strategic space policy that will protect our vital national interests and
recognise the importance of Australia as a participant, rather than as a
spectator, in the international space community."
20 January 2006
SPACE: A Priority for Australia
"Australia's national security and strategic interests, spanning most
government portfolios and essential industry sectors, demand nationally
coordinated action on space-related issues," Senator Grant Chapman (Liberal
SA), Chairman of the Federal Government's Industry and Resources Committee,
said today.
This call for action came in Senator Chapman’s space policy submission
‘SPACE: A PRIORITY FOR AUSTRALIA’, which he has presented for consideration
by the Prime Minister and Cabinet Ministers over the coming months.
Since April 2005, Senator Chapman has developed the submission and
established his Space Policy Advisory Group made up of academic, industry
and other experts from across Australia to assist.
Senator Chapman has been a long-standing advocate on space policy issues.
“Australia has not assessed the strategic importance and relevance of space
and, therefore, has been unable to make well-informed, nationally
coordinated decisions on space-related issues," Senator Chapman said.
"It will be fundamentally important to make a policy agency, such as the
Department of Prime Minister and Cabinet, responsible for overseeing an
Australian space policy framework.
"Present arrangements are not in our best national interests.
"Failure to take appropriate nationally coordinated action will be to our
peril.
"My submission calls for action,” Senator Chapman said.
“It is not immediately apparent that we are so reliant on space-based and
space-related technologies.
“Space technologies are essential to resolve vital national interest issues
which span a wide range of portfolios together with products and services
used by industry, government and citizens.
* To download an Executive Summary of
‘SPACE: A PRIORITY FOR AUSTRALIA’, click
here
11 January 2006
ESA and ANU Develop New Ion Engine
The European Space Agency and the Australian
National University have successfully tested a new design of spacecraft ion
engine that dramatically improves performance over present thrusters and
marks a major step forward in space propulsion capability.
Ion engines are a form of electric
propulsion and work by accelerating a beam of positively charged particles
(or ions) away from the spacecraft using an electric field. ESA is currently
using electric propulsion on its Moon mission, SMART-1. The new engine is
over ten times more fuel efficient than the one used on SMART-1. "Using a
similar amount of propellant as SMART-1, with the right power supply, a
future spacecraft using our new engine design wouldn't just reach the Moon,
it would be able to leave the Solar System entirely," says Dr Roger Walker
of ESA's Advanced Concepts Team, Research Fellow in Advanced Propulsion and
Technical Manager of the project.
The new experimental engine, called the
Dual-Stage 4-Grid (DS4G) ion thruster, was designed and built under a
contract with ESA in the extremely short time of four months by a dedicated
team at the Australian National University. "The success of the DS4G
prototype shows what can be achieved with the passion and drive of a capable
and committed team. It was an incredible experience to work with ESA to
transform such an elegant idea into a record-breaking reality", says Dr.
Orson Sutherland, the engine's designer and head of the development team at
the ANU. During November 2005, the DS4G engine was tested for the first time
in ESA's Electric Propulsion Laboratory at ESTEC in the Netherlands, with
support from Dr Sutherland and ESA test engineers.
Traditional ion engines use three closely
separated perforated grids containing thousands of millimetre-sized holes
attached to a chamber containing a reservoir of the charged particles. The
first grid has thousands of volts applied, and the second grid operates at
low voltage. The voltage difference over the gap between the two grids
creates an electric field that acts to simultaneously extract and accelerate
the ions out of the chamber and into space in a single step. The higher the
voltage difference, the faster the ions are expelled and the greater the
fuel efficiency of the thruster. However, at higher voltage differences
approaching five thousand volts (5kV), some of the ions collide with the
second grid as they are accelerated, thus eroding and damaging the grid and
thereby limiting its lifetime in space.
The DS4G ion engine utilises a different
concept first proposed in 2001 by David Fearn, a pioneer of ion propulsion
in the UK, which solves this limitation by performing a two-stage process to
decouple the extraction and acceleration of ions using four grids. In the
first stage, the first two grids are closely spaced and both are operated at
very high voltage and a low voltage difference between the two (3 kV)
enables the ions to be safely extracted from the chamber without hitting the
grids. Then, in the second stage, two more grids are positioned at a greater
distance 'downstream' and operated at low voltages. The high voltage
difference between the two pairs of grids powerfully accelerates the
extracted ions.
The test model achieved voltage differences
as high as 30kV and produced an ion exhaust plume that travelled at 210,000
m/s, over four times faster than state-of-the-art ion engine designs
achieve. This makes it four times more fuel efficient, and also enables an
engine design which is many times more compact than present thrusters,
allowing the design to be scaled up in size to operate at high power and
thrust. Due to the very high acceleration, the ion exhaust plume was very
narrow, diverging by only 3 degrees, which is five times narrower than
present systems. This reduces the fuel needed to correct the orientation of
spacecraft from small uncertainties in the thrust direction.
There is of course still a great deal of
work to be done before the new engine design can fly in space. "Working with
our industrial partners, the next challenge is to transition this promising
new engine design from laboratory experiment to spacecraft flight model and
properly define the new missions that it will enable", says José Gonzalez
del Amo, Head of Electric Propulsion at ESA. The flight-suitable engines
must then be tested: and for ion engines this is a long process.
Since they must operate continuously in
space for tens of thousands of hours providing a small thrust, ground tests
in a vacuum facility must last several thousand hours to prove their
reliability. Only after all this could the first flight models be launched.
Once ready, these engines will be able to
propel spacecraft to the outermost planets, the newly discovered planetoids
beyond Pluto and even further, into the unknown realm of interstellar space
beyond the Solar System. Closer to home, these supercharged ion engines
could figure prominently in the human exploration of space. With an adequate
supply of electrical power, a small cluster of larger, high power versions
of the new engine design would provide enough thrust to propel a crewed
spacecraft to Mars and back.
"This is an ultra-ion engine. It has
exceeded the current crop by many times and opens up a whole new frontier of
exploration possibilities," says Dr Walker.
2nd June 2005
MINING
SPACE TECHNOLOGY TO IMPROVE LIFE ON AND UNDER THE GROUND
(AUSTRALIAN SPACE NETWORK & AUSTRALIAN SPACE INDUSTRY CHAMBER OF COMMERCE
MEDIA RELEASE)
While Mars Express is searching for water ice
beneath the surface of Mars, European Space Agency ground-penetrating radar
technology will be searching for water and measuring salinity beneath the
surface of Western Australia.
Being able to detect underground water from the air and to determine its
salinity is of great interest for the management of water resources in
Australia. The Australian Space Network (ASN) and the Australian Space
Industry Chamber of Commerce (ASICC) are pleased to announce that
ground-penetrating radar trials are planned to be held in Western Australia
later this year to see which of three competing systems is the most suitable
for water detection and salinity measurement.
This study is the result of a series of workshops held over the last year
aimed at applying space technology developed for European Space Agency (ESA)
projects to the minerals, mining and exploration sector here in Australia.
“ESA has a well-developed technology transfer practice, including a
specialty in mining and exploration.” said Philip Young, Coordinator of the
Australian Space Network, “They were happy to participate in these workshops
organised by ASICC and ASN through an Innovation Access Program Grant from
the Department of Industry, Science and Resources. The workshops
demonstrated that leading edge technologies developed for space use have
direct application here on earth. The capabilities of modern ground
penetrating radar units generated a lot of interest from in the resources
sector and it was even more pleasing to see the interest shown by
environmentalists and agricultural researchers.”
While the pilot project to identify underground water should lead to a
reasonable airborne survey business with benefits to the mining community,
the big payoff for Australia could well come from better understanding of
ground water and salinity, particularly in Western Australia where water has
surfaced as a political issue.
Another high priority area is mine safety. When material is removed from
underground, the surrounding rock becomes stressed. Cracks develop and if
they are not detected in time for the mine to be strengthened in the right
places, it is possible to have catastrophic collapses. Cave-ins can cost
lives, damage machinery and cause extended mine closures, with costs of up
to $50,000 for each hour of down-time. ESA, working with Mirarco of Canada
and RST Radar Systemtechnik of Germany, has had great success using
hand-held ground-penetrating units to detect cracks in potash mines in
Canada. A feasibility study being considered is to see whether similar
results can be achieved in coal mines in eastern Australia.
The third project under active consideration generated from the workshops is
to develop a more accurate gravity meter. Airborne gravity surveys have
proven to be extremely valuable in mineral exploration, not so much for
direct detection of minerals but as a useful method of characterising the
geology of the area being surveyed. This, when combined with other
geophysical knowledge and techniques, improves the probability of
exploration success. Changes in the gravity field are subtle and data from
existing instruments tend to be distorted due to factors such as turbulence
around the aircraft. While GPS signals are used to good effect at the
moment, there remain limitations on the resolution of the information
acquired. Development of a better instrument, employing different techniques
and using the Galileo navigation satellite network, will take some time but
will result in a more accurate instrument that could lead to discoveries of
minerals and gas fields worth hundreds of millions of dollars.
There is a common view that investments in space might be of interest to
scientists but do not benefit the economy as a whole. According to Young,
nothing could be further from the truth. These workshops prove that space
technology has direct application here on earth for one of Australia’s
biggest industries, the resource sector. “ESA’s total annual budget is
around €5 billion. The benefits of a major resource discovery in Australia
could meet or even exceed that figure. The social benefits derived from a
better understanding of agriculture, pollutant flows, weather and better
water management could be even greater. The technologies developed for space
can often have an even greater impact when employed here on earth.
MEDIA CONTACT:
Philip Young
Network Coordinator, Australian Space Network
Member of the Executive Council, Australian Space Industry Chamber of
Commerce
0412 018 410
philipyoung@optusnet.co.au
17 February 2005
NASA's New Procurement
Policy - Space Opportunities for Australia
BACKGROUND
NASA is actively seeking
international collaboration as part of the new NASA initiative to return to
the Moon and Mars. This is highlighted by a directive from NASA to purchase
the best goods and services for each mission regardless of where they are
located in the world. This is a dramatic shift away from NASA's previous
"buy American only" policy and opens the door to NASA for Australian
organisations.
In an attempt to understand the capabilities and interests of organisations
around the world NASA is conducting a series of high-level workshops as a
means of identifying key capabilities and to allow a registration of
interest for participation in various NASA programs along the way to the
overall goal. The first of these workshops took place in Washington, D.C.
from 16-18 November 2004. This workshop was by invitation only and was
directed to the Space Agencies of the world.
Despite the lack of a Space Agency, Australia is seen as a key country by
NASA and received an invitation to attend. The invitation was extended to
the CSIRO and Dr. Grant Griffiths, Assistant Chief of CSIRO Industrial
Physics, represented Australia at this forum. As a result of this initial
workshop NASA has established 20 points of contact (POC's) for distributing
information. Most of these POC's are within the major space agencies
worldwide. NASA is very keen to engage organisations in Australia and
despite the fact that Australia does not have a Space Agency NASA has
nevertheless established a POC in Australia through CSIRO Industrial Physics
in the person of Grant Griffiths. ASICC is also working directly with NASA
and CSIRO to help distribute the information and to find ways to maximise
the opportunity for Australian organisations.
The next NASA workshop is the Space Science Directorate Workshop in
Washington on 9-10 March 2005. This is by invitation only and Australia will
be represented. On 11 March 2005 NASA will conduct an Industry Day in
Washington to brief interested organisations on its needs for the new
mission requirements. This is open to any organisation worldwide that is
interested in participating in the NASA initiatives. Interested
organisations are invited to register at a website on a first come, first
served basis. The website is under construction and the access details will
be made available when these are released.
CAPABILITIES SOUGHT BY NASA
NASA has a specific list of
capabilities that are considered essential to these new missions. NASA would
like countries to comment on their current capabilities in the following
fields and their ability to be utilised in support of the planned missions.
Note that capability in many of these areas need not necessarily be space
qualified at the moment, i.e. a strong background in robotics would be of
interest even if there has been no focus on work in space.
1. High-Energy Power and Propulsion
2. In-Space Transportation
3. Advanced Telescopes and Observatories
4. Communication and Navigation
5. Robotic Access to Planetary Surfaces
6. Human Planetary Landing Systems
7. Human Health and Support Systems
8. Human Exploration Systems and Mobility
9. Autonomous Systems and Robotics
10. Transformational Spaceport/Range
11. Scientific Instruments/Sensors
12. In Situ Resource Utilization
13. Advanced Modelling, Simulation, Analysis
14. Systems Engineering Cost/Risk Analysis
15. Nanotechnology
ASICC is in the process of compiling a database of Australian organisations
with expertise in the above fields in an effort to promote Australian
capabilities in these NASA projects. If your organisation is interested in
being included in this database please email our Deputy Chairman,
Bill Barrett, with your
relevant contact details and information about your capabilities in the
relevant areas of the NASA list. ASICC will incorporate this into our
database for use in the ongoing discussions with NASA.
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