1. AITC
–
Evaluating
Australia’s
Capability
to
Build
and
Test
an
Instrument
for
Earth
Observation
When
evaluating
Australia’s
capability
to
manufacture
space
based
instruments
and
satellites,
it
is
important
to
consider
our
space
manufacturing
heritage,
heritage
with
comparable
technologies,
access
to
relevant
component
suppliers
and
manufacturing
supply
chains,
and
access
to
essential
infrastructure.
It
is
also
important
to
consider
the
benefit
to
the
Australian
economy
and
the
broader
impact
of
supporting
advanced
manufacturing
in
the
space
sector
in
Australia.
In
the
1990s
Australia
contributed
significant
hardware
components
to
the
European
Space
Agency
Along-­‐track
Scanning
Radiometer
(ATSR)
for
the
ERS-­‐1
satellite,
the
ATSR2
for
the
ERS-­‐2
satellite
and
the
Advanced-­‐ATSR
(AATSR)
for
the
Envisat
satellite.
Building
on
this
experience
the
Australian
National
University
(ANU)
and
Auspace
designed,
built
and
tested
the
Endeavour
Space
Telescope,
which
flew
on
the
Space
Shuttle
in
1995,
and
the
CRC
for
Satellite
Systems
was
established
to
manage
the
specification,
assembly,
integration,
test
and
launch
of
the
FedSat
satellite
in
2002.
The
similarity
between
space-­‐based
systems
and
modern
astronomical
instrumentation,
offered
an
opportunity
to
utilize
expertise
and
infrastructure
across
these
domains
to
produce
precision
instrumentation
for
some
of
the
leading
astronomical
observatories
around
the
world,
including
the
Near-­‐infrared
Integral-­‐Field
Spectrograph
(NIFS)
for
the
Gemini
Observatory
in
Hawaii.
The
ANU
and
the
Australian
Astronomical
Observatory
(AAO)
have
developed
an
international
reputation
for
quality
and
reliability,
which
has
culminated
in
Australia
becoming
a
10
percent
partner
in
the
$1
billion
Giant
Magellan
Telescope
(GMT)
and
being
awarded
two
competitive
contracts
for
first
light
instruments.
The
ANU
GMT
Integral-­‐Field
Spectrograph
(GMTIFS)
is
a
$30
million
near-­‐infrared,
combined
integral-­‐
field
spectrograph
and
imager
with
diffraction-­‐limited
angular
resolution.
This
cryogenic
instrument
operates
in
space-­‐like
thermal
and
vacuum
conditions.
It
will
be
assembled
in
the
clean
room
at
the
ANU
Advanced
Instrumentation
and
Technology
Centre
(AITC)
and
tested
in
the
AITC
Space
Simulation
Facility.
The
GMTIFS
utilizes
the
most
sensitive
infrared
detectors
in
the
world,
and
managing
the
associated
ITAR
requirements
is
part
of
the
regular
operations
of
the
AITC.
To
serve
advanced
manufacturing
projects
in
space
and
astronomy,
access
to
high-­‐end
component
suppliers
and
international
manufacturing
supply
chains
are
essential.
This
access
is
well
established
and
often
draws
on
supply
chains
that
support
other
advanced
manufacturing
activities
such
as
aerospace.
This
access
is
both
essential
to
the
success
of
the
space
and
astronomy
projects
and
important
for
supporting
the
viability
of
local
companies
by
increasing
their
access
to
international
supply
chains
and
high
value-­‐add
projects.
The
final
critical
component
is
access
to
essential
infrastructure.
The
development
of
precision
instrumentation
for
space
and
astronomy
both
require
access
to
specialist
infrastructure
for
assembly,
integration
and
test.
With
the
establishment
of
the
AITC
Australia’s
immediate
and
short-­‐
term
requirements
are
met.
The
AITC
provides
the
end-­‐to-­‐end
facilities
for
the
integration
of
precision
instrumentation
as
well
as
their
test
and
evaluation,
including
the
launch
certification
of
space
systems.
Australia
is
now
well
positioned
to
define,
design,
build
and
test
an
optical,
infrared,
or
hyperspectoral
Earth
Observation
instrument
that
could
be
hosted
on
an
international
satellite
and
meet
the
needs
of
the
growing
geospatial
industry.
Based
on
experience
with
comparable
astronomical
instruments,
and
taking
into
consideration
the
materials,
processes
and
tests
needed
to
certify
it
for
reliable
space
operation,
it
is
estimated
that
a
medium
to
high-­‐resolution
instrument
could
be
delivered
for
approx.
$30
million.
After
considering
Australia’s
ability
to
deliver
an
Earth
Observation
instrument
that
meets
Australia’s
needs
it
is
important
to
consider
the
impact
on
the
Australian
economy,
the
benefits
to
Australian
industry
and
the
development
of
skills
in
Australian
that
make
it
important
to
build
it
in
Australia.
Since
its
establishment
in
2006,
the
AITC
has
enabled
instrumentation
projects
to
the
value
of
$117.8
million
including
export
contracts
to
the
value
of
$18.4
million.
This
includes
the
successful
delivery
of
five
Australian
Space
Research
Program
(ASRP)
projects
with
a
total
value
of
$16.8
million
including:
the
Australian
Plasma
Thruster,
the
Automated
Laser
Tracking
of
Space
Debris,
Antarctic
Broadband,
Greenhouse
Gas
Monitor
and
the
NASA
GRACE
Follow-­‐on.
It
also

2. includes
$40
million
for
the
Space
Environment
Research
Centre,
which
further
develops
the
use
of
adaptive
optics
for
commercial
space
debris
tracking,
and
supporting
EOS
Space
Systems
in
the
delivery
of
a
commercial
contract
to
provide
a
laser
ranging
telescope
with
adaptive
optics
for
the
Korean
Astronomy
and
Space
Science
Institute
(KASI)
valued
at
$6.4
million.
The
AITC
supports
Australia’s
future
competitiveness
by
supporting:
fundamental
research;
applied
research;
the
translation
of
research
into
industry
applications;
test
and
evaluation
services
for
industry;
and
the
training
of
the
future
workforce.
By
working
in
partnership
with
industry
on
real
projects,
the
AITC
provides
training
programs
to
close
the
gap
between
industry,
research
and
education,
and
ensure
Australia’s
future
workforce
needs
are
met.
An
investment
in
a
geospatial
instrument
built
in
Australia
would
increase
Australia’s
competitiveness
in
the
global
space
and
spatial
market
by
connecting
the
value
chain
in
Australia
and
connecting
Australian
industry
with
the
international
market.
The
astronomical
community
has
a
long
and
successful
heritage
of
scientists
and
engineers
working
together
to
specify
and
build
instruments
that
draw
on
bleeding
edge
technologies
to
deliver
world-­‐class
research.
The
delivery
of
a
geospatial
instrument
in
Australia
is
the
opportunity
for
the
geospatial
community
to
replicate
this
success
by
specifying
an
instrument
that
delivers
economic
returns
along
the
whole
value
chain
from
advanced
manufacturing,
to
ground
station
support,
data
collection
and
processing,
data
analysis,
and
the
delivery
of
geospatial
products
and
services.