odifying the tenets of space
power is the next step in the
Network Centric Warfare (NCW) development process. Tenets describe how
"power can be used to achieve military objectives." They are the
operational strategies that harmonize environmental constraints and
the principles of war.
Tenet 1: Centralised Control and Decentralised
Execution. Space capabilities enhance operations across areas of
Interest. Space assets available to our nation include military,
intelligence, commercial, civil and foreign. For this reason, space
operations are generally best planned and controlled in a centralised
manner. Centralised control and decentralised execution provides the
necessary oversight and ability to direct and coordinate component
space forces through mission-type orders, while allowing component
forces the flexibility to determine how they will employ their
resources to achieve the mission. Centralised control and
decentralised execution also provides the commander the centralised
oversight and control over forces via a daily tasking order, while
allowing the Services, the flexibility to determine which tactics,
techniques and procedures to use for a given space system and
operation.
Tenet 2: Flexibility and Versatility.
(a) Traditionally, most satellites have reduced
flexibility due to limitations in size, weight, power, cost and
accessibility. Although able to transition between support for both
theatre and global missions, satellites tend to host single missions
such as photo reconnaissance, communications, navigation, etc. Few
satellites support more than one type of mission. Furthermore, space
based assets are costly to manoeuvre and are not serviced in orbit.
For example, it may not be practical to move a single geosynchronous
early warning satellite out of one orbit and into another so that we
can gain a better opportunity to image a particular area. However,
increased flexibility can be obtained by either satellite
constellations as a whole or by designing new satellite systems
capable of providing multiple services.
(b) Satellites do offer increased options for the
joint force commander. The synergistic application of land and space
and space-based platforms increases the flexibility of the total
force. For instance, traditionally, communications are limited to
land-lines or aircraft relays. Navigation was primarily derived from
ground-station antennas, beacons, and transponders. Intelligence,
surveillance and reconnaissance (ISR) were provided mainly by
aircraft. Today, space-based capabilities allow for additional means
of communications, navigation, environmental monitoring and ISR.
Space-based sensors along with air-breathing counterparts bring
increased flexibility in force employment.
(c) Space forces, operate simultaneously at the
strategic, operational, and tactical levels of war, increasing their
versatility across the range of military operations. Missile warning
satellites, for example, traditionally have been used for detecting
intercontinental ballistic missile (ICBM) attacks on North America.
Yet, they can also be used for detecting short-range ballistic
missile (SRBM) and intermediate range ballistic missile (IRBM)
launches for theatres. The US, Defence Meteorological Satellite
Programme (DMSP) constellation, for example, not only provides
weather information directly to theatre for the tactical movement of
special operations forces, but also provides weather information for
planning campaigns and determining the types of munitions to be
utilised. At the same time, downlinked DMSP data is used to update
national weather forecast models for supporting the strategic
national-level activities. Communications satellites also offer
versatility as they support strategic direction and information
between the National Command Authority (NCA) and combatant
commanders down to operational and tactical level users of imagery.
Consequently, there have to be higher level joint even inter agency
control exercises.
Tenet 3 : Concentration. Space forces
contribute to the military's ability to concentrate effects.
Space-based ISR and information systems, combined with PGMs, have
eliminated the need, as in past conflicts, for many aircraft to attack
a single target. Today, a single aircraft can strike several targets.
For example, during Operation Allied Force, the US B-2s were
force multipliers because they struck an average of five individual
targets per sortie. Similar to low density and high demand (LD/HD)
assets, satellite lunch systems and other infrastructure for space
operations require careful prioritisation and balance. Force levels
sanctioned in yester years will bear little relevance to our future
needs.
Tenet 4 : Priority. The use of space forces
must be prioritised because the assets are finite. Space forces need
to be employed where they can make the greatest contribution to
satisfy critical national and theatre requirements. For example,
secure space based communications bandwidth derived from space-based
assets is limited, yet the demand continues to rise.
Tenet 5 : Balance. Space forces must be
balanced against competing priorities. Most space forces have global
capacity and coverage. Responsibility for commanding and controlling
them must reside with those who have a global view and the means to
execute this responsibility. Hence, need for a centralised authority
for coordinating and prioritising the use of space forces.
Tenet 6 : Initiative. Initiative sets or
changes the terms of battle by action and implies an offensive spirit
in the conduct of all operations. Applied to the force as a whole,
initiative requires constant effort to force the enemy to conform to
commanders' operational purposes and tempos, while retaining freedom
of action. It means depleting the enemy's options, while still, having
options of their own. Initiative is required of space forces to:-
(a) Achieve objectives.
(b) Take the offensive.
(c) Achieve unity of command.
(d) Maintain security.
(e) Surprise the adversary.
Tenet 7 : Agility. The tenet of agility arises
primarily from concerns over the security of space systems. Agility is
the ability of friendly forces to react faster than the enemy and is a
prerequisite for seizing and holding the initiative. It is as much a
mental as a physical quality. Agility can be both physical and
virtual. Physical agility is the ability to move space forces or use
alternate equipment in reaction to adversary's actions. Virtual
agility is the ability to change operating characteristics without
moving or changing equipment. Agility is the linchpin for the
protection and preservation of space forces during hostilities, and
without it, a space-faring nation risks losing its space assets during
war. Agility includes two sub-elements. First, it is necessary to
maintain a situational awareness to detect threats to space systems.
Second, space operators must be prepared to react to threats as they
arise. Contingency plans need to be well understood and exercised.
Tenet 8 : Synergy. The tenet of synergy arises
from the tie between space and terrestrial forces. Synergy is the
ability to "produce effects well beyond the proportion of each
mission's individual contribution to the campaign". Space forces are
inextricably linked to the earth and their operations provide a force
multiplier to achieve desired objectives. The force multiplier effect
of spacecraft providing information superiority is well known, e.g.,
the role of the Global Positioning System (GPS) in precision-guided
munitions. Unity of command also has implications for synergy since
some centralised control is needed to ensure compatibility and not to
overwhelm the user with unnecessary information. If space forces
operate in an uncoordinated manner, it can cause information overload
and become a detriment to the combatant commander. Space systems work
best when they are operated cooperatively rather than competitively.
Counterspace
Counterspace operations consist of those operations
conducted to attain and maintain a desired degree of space superiority
by allowing friendly forces to exploit space capabilities while
negating an adversary's ability to do the same. Counterspace
operations include two elements – offensive and defensive
counterspace, both predicated on space surveillance and other
intelligence.
Offensive Counterspace (OCS) operations preclude an
adversary from exploiting space to his advantage. Should policy allow,
OCS actions may target an adversary's space system, forces and
information links, or third-party space capabilities supporting those
forces, using lethal or nonlethal means. Possible methods include the
use of deception, disruption, denial, degradation and destruction of
space capabilities. The "Five Ds" represent a continuum of options,
from spoofing the enemy to hard-kill of a space asset. However, there
are tradeoffs along the continuum. At the destruction end of the
continuum, space force can be confident that an adversary's space
assets and the effect it produced have been eliminated. However, there
may be undesirable collateral effects, such as added debris threats in
orbit, or negative world opinion. At the deception end of the
continuum, space force may have less confidence in achieving the
desired effect, but have more confidence in not producing any adverse
collateral effects. The five methods involve the following :-
(a) Deception employs manipulation, distortion,
or falsification of information to induce adversaries to react in a
manner contrary to their interests.
(b) Disruption is the temporary impairment of
some or all of a space system's capability to produce effects,
usually without physical damage.
(c) Denial is the temporary elimination of some
or all of a space system's capability to produce effects, usually
without physical damage.
(d) Degradation is the permanent impairment of
some or all of a space system's capability to produce effects,
usually with physical damage.
(e) Destruction is the permanent elimination of
all of a space system's capabilities to produce effects, usually
with physical damage.
Spacelift
Spacelift projects power by delivering satellites,
payloads and material, to or through space. There can be three
strategies and one emerging strategy for Spacelift.
(a) Launch to deploy achieves a satellite
system's designated initial operational capability. This strategy
uses a launch-on-schedule approach where launches are planned in
advance and executed in accordance with the launch schedule.
(b) Launch to sustain re-places satellites
nearing the end of their useful life, predicted to fail, or that
have failed.
(c) Launch to augment increases operational
capability above the designed operational capability in response to
war, crisis, or contingency.
(d) Launch to operate is an emerging strategy to
increase the useful life of space assets through schedules or
on-demand launches providing space support such as refuelling
repair.
Command and Control (C
includes
both the process by which the commander decides actions to be taken
and the associated people and systems that implement the decision.
These work together, enabling a commander to plan, direct, coordinate
and control forces and operations. Satellite communications via the
Military Strategic and Tactical Relay System (MILSTAR) constellation
provide survivable communications for passing NCA strategic direction
to subordinate forces. The Defence Satellite Communications Systems (DSCS)
constellation provides communications flow between military tactical
units and operational-level commanders. The Ultra High Frequency (UHF)
follow-on constellation provides secure communications for naval
operations. Also, space-based imaging and other ISR collection
capability provide commanders and operational planners with vital
intelligence for the command and control of military forces. For force
protection, Defence Support Programme (DSP) satellites characterise
the stategic and tactical missile threat for rapid commander
assessments and subsequent, counterattack decision making.
Intelligence. Intelligence provides clear,
relevant, and timely analysis of foreign capabilities and intention
for the purpose of planning and conducting military operations. The
overall objective of intelligence is to enable commanders and combat
forces to know the enemy. Space assets support intelligence collection
and dissemination efforts by collecting and processing information on
adversaries and subsequent dissemination to forces. Space-based
systems are generally unobtrusive, and are an internationally accepted
means of gathering peacetime information without violating national
sovereignty.
Surveillance. Surveillance is the function of
systematically observing air, space, surface, or subsurface areas,
places, persons, or things, by aural, electronic, photographic, or
other means. For example, the Space Surveillance Network (SSN) allows
the United States to maintain awareness of the position, and
characteristics of man-made objects in earth orbit. In the future,
surveillance can also be achieved through over-head non-imaging
infrared (ONIR) satellites placed in geosynchronous orbit providing
theatre ballistic missile (TBM) detection, enabling increased theatre
force protection.
Reconnaissance. Reconnaissance complements
surveillance in obtaining, by visual observation or other detection
methods, specific information about the activities and resources of an
adversary or potential adversary. In addition, reconnaissance may
focus on securing data concerning the meteorological, hydrographic, or
geographic characteristics of a particular area. Multispectral and, in
the future, hyperspectral imagery obtained from space assets provides
a new dimension to imaging the battlespace.
Navigation and Timing. The function of
Navigation and Timing is to provide accurate location and time of
reference in support of strategic, operational, and tactical
operations. Navigation and Timing help all military forces to
precisely manoeuvre, synchronise actions, locate and recover downed
aircrew, and perform many other tasks. Space assets are becoming the
foundation upon which the Armed Forces navigate. However, potential
adversaries can exploit GPS navigation for their own operations, as
well as field their own space-based navigation and timing systems.
Counterland. Counterland involves those
operations conducted to attain and maintain a desired degree of
superiority over ground operations by neutralising enemy ground
forces. For air interdiction (AI) and close air support (CAS)
missions, space assets provide battlespace situational awareness.
Space-based C2 assets help commanders communicate, direct, and control
their Al and CAS missions.
Countersea. Countersea is a collateral function
that extends the application of air and space power into the maritime
environment. Currently, space lSR assets make their greatest
contribution to countersea in the realm of sea surveillance. Future
OCS assets may play an important role in countersea operations. For
example, they may degrade or eliminate adversary’s abilities to
observe the numbers, locations, or activities of friendly sea forces.
Sustain Operations. Once space systems are
included into operational war plans, every effort must be made to
sustain their operations. It may be more important to the commander to
continue receiving space support he is familiar with than testing
something new in the heat of battle. Space forces must be used wisely
so they will be available throughout the conflict. Sustaining space
operations will reduce the fog and friction of war. Sustainment of
operations include defensive operations, replenishment strategies, and
maintaining reserve capabilities.
Operational Art. Operational art comprises the
capabilities or techniques military organisations develop to maximise
the effectiveness of their forces. It is rooted in operational
experience and seeks to animate the tenets of power. Operational art
elements can be either backward-looking, or forward-looking based on
what experiences are considered most important to the organisation.
The attempt here is to articulate a forward-looking doctrine and
prescribe what should work in the future to make space forces as
effective as possible in the Indian context.
Doctrine is intended to guide the organisation for
training, equipping, end employment of military forces. Doctrine
guides these activities by codifying military judgment in a form that
is usable by developers and planners. A readily usable form of
doctrine is found in implementation strategies to guide acquisition
and employment activities. These strategies assist in the translation
of policy directives into force structure and employment concepts.
Implementation strategies can be categorised as either
force-development or force-employment oriented. Both types of
strategies should reflect the application of the operational art to
space missions.
IV
THREAT PERSPECTIVE
Global threat perceptions are going through a
radical change. The threat emanates from space too! From an Indian
centric view, China (coupled with Pakistan), the USA and Russia are
the main challenges. Developments, both in China and Pakistan, need to
be analysed from the military threat perspective. The capabilities of
the USA also have to be realistically factored in.
China: Militarisation of Space Programme
It was in mid 1950's that China initiated its
nuclear warfare development programme. This was coupled with the
search plans for space. Achievements in space commenced with launch of
China's first satellite in 1970. It launched three satellites with one
rocket in 1981. It commenced geo-synchronous satellite system in 1983
and by 1986 it had launched 18 satellites. The launch of DFH
communication satellites series have contributed toward China becoming
a major force in Space Programme. China launched more than 30
satellites between 2001 and 2005. Technological assistance from
European countries has been coming to China regularly. The US waived
sanctions against China for post missile technology transfer to
Pakistan and Iran, which in fact has boosted its space programme.
China got technical support from western countries with its first
military space programme in 1955. It went commercial in 1986 by
capitalising on the black period in the USA after the accident of
Challenger series forcing the USA to use Chinese launch facilities.
The military implications of these achievements are enumerated below
:-
(a) Micro Satellites. The PRC has been
exploring the possibilities of micro- satellites, which are smaller
than most satellites and, therefore, less expensive. A satellite in
this category, Tsinghua was launched on 28 June 2003, by a Russian
booster. It was a joint project of Tsinghua University of Beijing
and Surrey Satellite Technology Limited (UK). It is a 50 Kg bird and
its launch has put China into the selected bracket of countries that
can design and operate micro and nano-sized satellites. This success
has implications for both China's scientific programmes as well as
for enhanced military satellite capabilities. It is equipped with a
CCD camera that can image objects up to 39m in three spectral bands.
(In India too, Anna University at Madras has completed a micro
satellite project of 30 kg. Our Armed Forces should also get
involved in such projects.)
(b) Electronic Intelligence. China on 16
Oct 2003 launched Electronic intelligence (elint) Module with three
downward looking antennas for detecting signals from ground.
(c) Command and Control Networks. China
launched its first military communications satellite in January 2000
as part of the People's Liberation Army Command and Control network
linking forces for combat. These will be netted to airborne and
ground based sensors to give ballistic missile, cruise missile,
aircraft and ships a seamless tactical-to-strategic targeting
capability. This is supposed to be China's first advanced technology
spy satellite. Studies are under way to develop a Global Mobile
Satellite Information System (GMSIS), which would provide personnel
hand-held communications via 18 to 24 satellites in medium orbits.
China is developing a new generation of photo-reconnaissance
satellites, the FSW-3 series, which will provide one metre
resolution. The Chinese national Remote Sensing Centre also receives
imagery from US LANDSAT, French SPOT, Israeli EROS and Russian
remote sensing satellites. So far they have developed three models
of recoverable reconnaissance satellites (FSVVI/2/3) and launched 18
of them for military operations. These capabilities when applied in
our region will obviously facilitate China's military operations
against India.
(d) Multiple Military Roles. China
understands the monopolistic space exploitation by countries that
'control' satellite technologies and hence is engaged in development
of indigenous substitutes. Over the last 30 years China has
gradually developed a multi-functional, multi-orbit space
infrastructure composed of various satellites. These would play
multiple military roles.
(e) PRC Research. The PRC has conducted
research since' the 1950s, including biological and life support
research, for placing astronauts into orbit. Pursuant to its 921
Project, the PRC's plan since the 1980s has included concepts, for
Space Shuttle-like spacecraft, recoverable capsules, and a space
station. These have military implications. They would be able to
train their spaceman and manage the environment from the perspective
of military missions.
(f) Increasing Space Launch capabilities.
In 1996, two PRC astronauts began training at the Gagarin cosmonaut
Training Centre, Russia, for its manned space programme. PRC is the
only third nation, after Russia and the United States, to have
placed men in orbit in their own satellite programme. China launched
its first long-distance rocket carrier, on 18 May 1980. China
launched its first unmanned spacecraft Shenzhou I, on 20 November
1999. China opened 21
century with Shenzhou-2 spacecraft launch thus demonstrating growing
capability. The extended mission of SZ-2 orbital module has shown
that China is capable of maintaining an orbiting platform for a
prolonged period. Such a capability is an important step torwards
China's eventual goal of establishing its own permanent manned
presence in space. China is pushing ahead with a plan to put its
astronauts in space and has also reiterated its goal, for their
Space Flights for Lunar and Mars Explorations. The long March 2EA is
likely to replace long March 2E as Chinese heaviest launch vehicle.
The 800 ton booster, measuring 50m in height will be capable to lift
an 11.8 ton load into LEO. It is also developing 800 ton, 4 stage
booster launch vehicle with a capacity of lifting 23 ton pay load to
LEO/ 11 ton into GEO. In a long term scenario this would have
military implications of dominating the space environment which in
turn would cause military domination of the battle space on earth.
(g). Space Weapons. It is another field
which may be banned but nations are carrying out secret research and
trials. Enough documents have already revealed strides in
Anti-Satellite Weapons (ASW) system by the USA and Russia. These
weapons could be based both on kinetic and chemical energy. Some of
the systems which appear to be under trial are 'Rail guns', or
Directed Energy Weapons'. (DEW), like 'Particle Beams' High Powered
Microwave or LASERS'. The PRC is also believed to be developing
space-based and ground-based anti-satellite laser weapons. Such
weapons, would be of exceptional value for the control of space and
information. It is assessed that the PRC is moving towards the
deployment of such weapons. Based on the significant level of PRC-Russian
cooperation on weapons development, it is possible that the PRC will
be able to use enclear reactors to pump lasers with pulse energies
high enough to destroy satellites. In addition, Russian cooperation
could help the PRC to develop an advanced system using laser to
track and image satellites. PRC has the technical capability to
develop direct ascent anti-satellite weapons.
Over the last few years, china has been diligently
developing its space infrastructure with greater emphasis on
indigenous technology and has emerged as a force to reckon with in
military space. Reports indicate that China has completed ground tests
for an advanced anti-satellite (ASAT) weapon called 'Parasitic
Satellite' China is developing ASAT systems with both long and
short-terms strategic objectives. The long-term objectives are
probably to break the US monopoly in this field. China understands
that compared to the US, it lags far behind in terms of assets and
technology in the space arena and hence the best way to challenge the
sole space superpower is to possess offensive anti-space-based
weapons. It is also in the process of building lasers to destroy
satellites.
The PRC is believed to be developing a new, rocket
that will be able to carry larger payloads into orbit. Enhanced
capabilities for lifting heavier payloads would undoubtedly enhance
military capabilities in space. PRC papers have discussed the use of
cryogenic liquid propellant engines for this future rocket. One of the
engines the PRC could use is the RD-120. The PRC is known to have
acquired at least one of these engines from Russia during the 1990s.
The RD-120 is a liquid oxygen/kerosene engine that is used on the
second stage of the Zenith rocket, which is used on the multinational
Sea launch programme. Difficulties with the development of the new
engines for this rocket may have prompted the PRC to focus, in the
nearer term, on the proposed Long March 2E(A) and Long March 3B(A)
versions of the Long March rocket that will utilise improved strap-on
boosters to achieve greater payload-to-orbit capability.
Observations Pertaining to Chinese Developments
An analysis of the developments in China testify
it's growing military capabilities in space. The summary of
observations are as below :-
(a) Control on China's space programme rests with
the Central Military commission.
(b) China considers space holding the strategic
balance of power, in any future security matrix.
(c) China is programming full spectrum, end to
end research, design, trial, manufacture, producing and testing
system for both satellites and launch vehicles.
(d) Space is fast becoming a hub in China's
military strategy. They now enunciate a battle field 'Supremacy
Theory' which has following key components :-
(i) Information Warfare.
(ii) Fusing military and manned missions.
(iii) Improved resolution to 0.6 metres.
(iv) Plan military satellite controlled orbit
lasting for six days or more.
(e) As shown at the Hanover Expo 2000, China
plans multiple military mission capabilities to enable monitoring
targets on earth at least twice a day.
(f) Accelerate launch of micro-satellite probably
with military mission.
(g) Build competency for launch of satellite in
just 16 hours.
(h) Build to use ASW from existing configuration
of ICBM which will allow interception in the polar orbit used by
many US satellites.
(j) Launch more satellites to augment the
existing capability of their 'Beidon Navigation Test Satellite'
system (China's GPS navigation system).
(k) China has invested US $ 200 million in the
EU-Gallillo navigation system.
(I) China is advocating treaty to ban Space
Weapons. However, it makes no bones about working on ASW or Kinetic
Energy weapons or Jammers or parasite satellites or HPMs which are
ground based.
Pakistan : Second Experimental Satellite BADR-B
Under SUPARCO's programme for development of
indigenous capability to design, develop, fabricate and launch of low
cost satellites in low earth orbit, work on Pakistan's Second
Experimental Satellite, BADR-B was initiated. The success of BADR-1
mission had given the confidence and the infrastructure developed
during that mission provided a base line upon which further activities
of BADR-B satellite development were based. In addition to objectives
laid down for Badr-l, BADR-B had been designed to meet other useful
objectives as well. BADR-B, indigenously developed by SUPARCO, was
placed in a low earth (1000 km) sun-synchronous orbit, with a design
life of over two years. Weighing about 70 kg, its mission objectives
were:-
(a) Indigenous development of tow cost satellites
and creation of necessary infrastructure for systems, which can be
launched in space.
(b) Acquisition of know-how and technology for
taking pictures of earth from specialised digital camera.
It encouraged participation of the country's
academic and scientific community in the peaceful uses of space
telecommunication. BADR-B was launched in 1999 through the Russian
Space Agency. It was to carry the following four experiments
(payloads):
(a) Earth Imaging CCD Camera.
(b) Battery End-of-Charge Detector.
(c) Radiation Dosimeter.
(d) Store-and-forward Communications.
Pakistan is concerned that new technologies
developed in connection with space weapons, such as lasers and
particle beams, could be applied to conventional weapons.
Weaponisation of space could, entrench the inequitable use of outer
space to the detriment of developing States. However, Pakistan's case
is unique as its strategic alliance with China gives adequate
satellite coverage capabilities. It can be foreseen that their space
collaboration with China is likely to be on the lines of the nuclear
nexus.
Military Threats: World View
The US is the world leader followed by Russia in
space technology. In fact, Rumsfeld (former Defence Secretary) feared
that 'space could be the next Pearl Harbour for the US'. In 2002,
after report of the Rumsfeld space commission, President Bush withdrew
from the 30 year-old Antiballistic Missile Treaty (ABM) with Russia,
which banned space-based weapons.
The US has had space-based weapon systems on its
drawing board for years, including miniature satellites that can
attack other satellites, high-powered lasers, and even a space plane
that can drop weapons from orbit. Even Russia is understood to have
carried out ASW and AASW tests.
China, quite clearly, is doing a balancing act on
the space front. Overtly, it is spearheading an international movement
to ban conventional weapons from space alongwith Russia and a few
other countries. At the same time, as reports suggest, it is
discretely developing anti-space-based technology and formulating
tactics in order to target American military assets. China understands
the critical advantage the US had in the 1991 Gulf War as well as in
Kosovo, Afghanistan and the recent war in Iraq. China's PLA feels that
if a conflict breaks out in the Taiwan theatre, it can neutralise or
destroy the US space assets, and deny the Pentagon the asymmetric
advantage in space. China's development of military space capabilities
impinge on India's security. The datum line of analyses dictate the
necessity for India too becoming pro-active on this front.
The Bush Administration has made arrangements in
the defence budget for space-based weapons to defend satellites,
strike ground targets and defend against missile attacks. However, the
major hurdle in getting the new space initiative off the ground would
be convincing the Congress to approve its enormous price tag, which is
tentatively estimated at between 220 billion and one trillion. If Bush
manages to pass this hurdle successfully, then it could be the
beginning of the biggest and costliest space arms race in the
post-Cold War era. Taking a lead, India should start developing
concepts for protection of space assets.
V
WAY AHEAD FOR INDIAN ARMED FORCES
Force-Development Strategies
Force development strategies should address issues
related to the acquisition of space forces. In our case we are already
lagging far behind China. Many important characteristics of space
forces are determined during the acquisition phase because follow-on
operational innovations will be significantly constrained by the
design of the space system. Force-development strategies are intended
to describe general capabilities space forces need.
Modular Design
(a) Modular design is the ability to mix and
match different payloads between different types of space systems.
It applies equally to the space, control, and user segments,
although the emphasis is often placed on the space segment since it
is more difficult to change once it is launched.
(b) Modular design is also concerned with adding
ancillary payloads to spacecraft. Many of the operational art
elements advocate equipping all spacecraft with multiple subpayloads.
This idea is referred to as a multi-mission capability. It
envisioned a capability to: "defend friendly space systems by
avoiding or surviving attack and to promote deterrence by having the
ability to detect, identify, and neutralise threatening enemy
systems."
(c) The term multi-mission was not used here
since it now carries a different connotation. Multi-mission is often
taken to mean combining primary spacecraft payloads such as adding
an imagery mission to a missile warning spacecraft. This may be a
good idea, under certain circumstances, but it is not generalisable
to all space forces.
(d) Modular design on the other hand emphasises
the ability to add general warfighting capabilities as an adjunct to
primary spacecraft mission.
Commercial Standards
Many of the functions required of military space
forces are common to commercial users and there is often no reason to
have unique military standards. This idea has been around for some
time and was the subject of an acquisition reform. In 1994, Secretary
of Defence, USA, issued a policy memorandum stating "the use of
military specifications and standards is authorised only as a last
resort, with an appropriate waiver." While commercial standards are
being pursued by the acquisition community for the potential cost
savings involved, this strategy also offers many force employment
benefits.
Adopting commercial standards should make space
forces more responsive in implementing these operational art
elements:-
(a) Standard Interfaces.
(b) Interoperability.
(c) Data Fusion.
Fielding space forces in this manner will
facilitate integration of space forces into theatre operations and
theatre Battle Management, Command, Control and Communication (BMC3)
systems. It will make space forces more flexible to operational
demands by allowing greater interoperability between service
components and commercial user equipment. It should also facilitate
rapid dissemination of space-derived information to terrestrial
forces.
Force Employment Strategies
Force-employment strategies differ from
force-development strategies in that they arise from use of the forces
rather than their design. For example, a space system can be designed
to be manoeuvrable, but if an attack warning is never received, the
spacecraft will not respond to defeat the threat. Employment
strategies can also allow space operators to possess capabilities not
originally considered when the space system was designed.
Operational Security
Most space systems are cloaked in a veil of
secrecy. A comprehensive plan can help prevent attacks on our space
forces by making it more difficult for an adversary to launch an
attack. It can create uncertainty as to the true nature of space
operations and deny the adversary needed targeting data. Although the
benefit to some space systems may be negligible, but it can be
particularly effective in protecting high-value assets.
Real Time Situational Awareness
Instant awareness is concerned with maintaining the
commander's situational awareness of space and enabling him to respond
effectively to an adversary's actions. Most attacks on space forces
can occur in a few minutes to hours. Short warning makes it imperative
to detect and respond to an attack as early as possible. Even if it is
not possible to protect the first system attacked, countermeasures can
be implemented to protect likely follow-on targets. Instant awareness
is supported by two operational art elements:-
(a) Attack Detection.
(b) Space Surveillance.
Decisive Action
Decisive action is the ability to expand space
operations to meet increased demand, sustain space operations in the
face of attack, and to retaliate against an adversary's actions in
space. Decisive action is supported by the following operational art
elements:-
(a) Manoeuvre.
(b) Autonomy.
(c) Training.
(d) Interoperability.
(e) Exploit Others.
(f) Launch on Demand.
(g) Reserve Modes.
Expanding Operations
Operational demands may require space forces to
support more users than originally envisioned. An ability to exploit
civil or commercial space systems may be vital to provide these
capabilities quickly. A launch on demand capability may be equally
important to expand space services by either deploying additional or
new forces. Regardless of the technique chosen, space forces must be
able to satisfy surges in user demand.
Sustaining Operations
Space operators must anticipate attacks on their
space forces during times of increased user demand. This will require
defensive measures for all space forces. Military space forces should
have a survivability advantage since many of the operational art
elements, such as, manoeuvre, autonomy, and reserve modes will be
features of the systems and should enable these forces to defeat or
withstand attacks. Civil commercial assets available will probably be
more vulnerable and defensive measures which can "umbrella" these
systems from attack should be employed. Possible examples include:
providing attack warning, destroying the attacking platform, and
intervening with other space assets to confuse or blunt the attack.
Retaliatory Operations
Retaliatory options are needed to ensure that a
balance of power can be maintained in space. As space forces become
even greater force multipliers, the temptation to deprive an adversary
access to space grows. The US currently would suffer the most from
losing its space forces so it maintains an ability to retaliate
effectively if those forces are attacked. The threat of a decisive US
response to space attacks may be sufficient to deter an attack.
Graceful Degradation
Graceful degradation is the ability of space forces
to absorb the loss of space assets in a pre-planned manner and extend
the time; space services are available to terrestrial forces. It
should be a characteristic of both individual space systems and space
forces as a whole. The following operational art elements contribute
to a graceful degradation capability:-
(a) Interoperability.
(b) Exploit Others.
(c) Data Fusion.
(d) Reserve Modes.
(e) Robustness.
Space Asset Models
Space assets architecture can be constructed for
various contingencies, ranging from benign to hostile scenarios
covering limited and wide area as per the battle plan.
Architecting the NCW Models
We can go for either modular approach or create
unique space assets and network which are area and mission specific.
The former approach is the preferred option, as it will give overall
economy, flexibility, better assurance level and simpler logistics.
Some of the futuristic Models are discussed in subsequent paragraphs.
Modular
Dual Use : Model A. In this case, all future
pay loads including civilian space pay loads should try to be dual use
i.e. civil and military applications. These capabilities be further
augmented by a supporting military mission, which can be launched on
demand. Obviously, this approach would be very cost effective but
would require interface with ISRO. This is viable option as ISRO has
already declared and invited partnership with the Indian Industries.
This would require a new space policy. A representative from the Armed
Forces should be included as member in the National Space Commission.
This aspect be also examined and added to the report of the recently
published PM's Task Force.
Mission Specific: Model B. This methodology
would imply purely military missions. There will not be enough
redundancy causing mission failures. However, it would enable
dedicated architecture for supporting terrestrial battle. It would be
on the lines of space Assets Models (SAM) for various military options
on contingencies, for air, land, and maritime operations. Some have
already been worked out and are contained in the Defence Vision
document. It would require correct interface and networking between
the three services whilst developing the projects. Thus there is a
necessity of formalising the integrated Space Cell through a
sanctioned PE at the earliest.
Mixed Application: Modei C. A holistic
examination leads to the necessity of adopting a mixed Model ‘C’. To
enable this to happen, there is a necessity of an inter-services
inter-departmental and ministry interface at various levels. The
optimum result in India's case may be achieved by this approach. This
would also allow evolution of many concepts till the time we mature to
raise an 'Unified Space Command' whose location could be decided on
existing command and control infrastructure built for space satellite
command at Bhopal. It would imply following a mixed application
approach.
The future projects of building the 'NCW'
capabilities through space assets be accordingly shaped and
engineered. Again the role of Headquarters IDS becomes primary for
developing this 'Networked Approach' to military problems.
India should plan a space college. This could be
progressed under the umbrella of the Indian National Defence
University (INDU) which is under raising. The location could be
Bangalore. This would enable focused studies on impact of space assets
on Air, land and maritime warfare capabilities. Focused studies on
minimising Network Centric capabilities should be part of this
institution.
Conclusion
Space dominance would be essential for effective
control of operations in future conflicts-both symmetric and
asymmetric. India needs to build capability for theatre level space
dominance in the near future which could expand to regional level.
Space dominance not only includes the ability to use own space assets
but also the ability to deny the use of space to the adversaries.
Therefore, for effective space dominance, we not only require robust
space assets and corresponding ground infrastructure, but also the
counterspace assets like ASAT capability.
Though, India is amongst the elite Space Club with
capability to not only design space payloads but also the launch
capability, in the recent years China has made fast progress in this
field with the help of Russians. China's space programme is directly
driven by the PLA with required budgetary support and it is presently
progressing at a fast pace and has ambition to compete with the US.
The Chinese developments are also beneficial to Pakistan being its
strategic ally. Therefore, India too needs to give the required thrust
to indigenous developments. For this purpose a consortium of DoS, DRDO,
Industry, and Academia is required to be formed which could give
impetus to indigenous developments. Till now India's space programme
has been mainly driven by the civilian requirements, and now there is
need for Defence to take the lead and steer the consortium through a
Tri-Service Space Command under Headquarters IDS based on the Defence
Space Vision 2020 crafted by it. Education, training and research and
development on space technology must be systematically adopted to
raise space warriors. Further, strategic and operational plans for
using satellites in next generation warfare must be worked out.
The implementation of a roadmap in the field of
communication, navigation and imagery capabilities through space needs
to be vigorously pursued. Analysing imagery for change detection and
correlation to extract intelligence is a priority area. India also
needs to reduce its dependence on GPS through expansion of IRNSS. In
case of space based communications, the networks need to be built
around the indigenous NMS and adequate security overlay provided.
India also needs to look at the ASAT capabilities being developed
by our adversaries and provide protection to Space based assets and
their corresponding ground segments. In addition, India also needs to
develop ASAT capabilities. Since, we support a ban on weaponisation of
space and ASAT weapons, we must develop soft kill technologies like
DEWs, Jammers, etc for denying space to adversaries, when required.