Humanitarian Assistance Disaster Recovery
In November 2013 Super Typhoon Haiyan
ravaged several Philippine islands leaving 10,000 dead and displacing over
600,000 people in its wake. Haiyan’s destruction left survivors with no food,
water or medicine. Relief operations were hampered because roads, airports and
bridges had been destroyed or were covered in wreckage. An outpouring of
support from many countries and agencies converged to help the victims but food
and other aid were delayed because of the conditions (Mogato & Ong, 2013) . In situations like
this a cost-effective way of assessing the damage and surveying potential
routes or avenues of approach for relief workers can be achieved through the
use of man-portable unmanned aerial system (UAS). This request for proposal
lays out the requirements for a small UAS to perform on-demand aerial
surveillance. Timeline for system development is six months, ideally to have a
low-rate initial production in time for typhoon season.
High Level Requirements
The UAS shall be transportable in a hardened transit case weighing
no more than 50 lbs.; shall cost less than $100,000; shall be capable of flight
up to 500 feet altitude above ground level (AGL) ; shall be capable of
sustained flight (at loiter speed) in excess of one hour; shall be capable of
covering an operational radius of one mile; shall be deployable and on station
(i.e., in air over mission area) in less than 15 minutes; shall be capable of
manual and autonomous operation; shall provide capture of telemetry, including
altitude, magnetic heading, latitude/longitude; position, and orientation
(i.e., pitch, roll, and yaw); shall provide power to payload, telemetry
sensors, and data-link; shall provide capability to orbit (i.e., fly in
circular pattern around) or hover over an object of interest .
Major Base Requirements and Derived
Requirements
1. Transportability
1.1 Transit case, fully filled with all system equipment,
shall weigh less than 50 lbs
1.2 Transit case shall contain all necessary system
components
1.3 Transit case shall have secure compartments/cutouts
for each component
1.4 Transit case shall be durable to withstand damage when
dropped from a height of seven feet
1.5 Transit case, when properly used and secured, shall
provide protection for all components contained within
2.
Air Vehicle (UAV)
2.1 The
UAV shall be capable of flying up to 500 feet above ground level
2.2 The
UAV shall be capable of operating in excess of one hour
2.3 The
UAV shall be capable of operating at a range of four miles
2.5 The
UAV shall have an assembly time of less than 15 minutes upon unpacking
2.6 The
UAV shall be capable of being recharged from universal vehicle 12volt power
source
3.
Payload
3.1 The
payload shall be capable of color daytime video operation up to 500 feet AGL
3.2 The
payload shall be capable of infrared (IR) video operation up to 500 feet AGL
3.3 The
payload shall be interoperable with C2 and data-link
3.4 The
payload shall use power provided by air vehicle element
4.
Testing Requirements
4.1
Transportability
4.1.1
Storage
4.1.1.1 Inspect transit case compartments are suitable
for component parts
4.1.1.2 Test fit all system components in transit case
compartments
4.1.1.3 Weigh fully loaded transit case; ensure weight
is less than 50 lbs
4.1.2
Durability
4.1.2.1 Perform drop test from height of seven feet
4.1.2.2 Verify transit case durability to withstand
seven foot drop
4.1.2.3 Inspect system components for damage
4.1.2.4 Perform drop test from height of 10 feet
4.1.2.5 Inspect transit case and system components for
damage
4.2 Air
Vehicle (UAV)
4.2.1 Perform load/stress tests on UAV fuselage
4.2.2 Perform load/stress tests on UAV flight control
systems
4.2.3 Perform load/stress tests on UAV power plant
4.2.6 Check for overheating
4.2.7 Check for security of connectors
4.2.8 Confirm acceptable performance of radio
transmission and reception
4.2.9 Confirm optimal antennae location and position
4.3 Payload
4.3.1 Perform system interoperability testing with Ground Control
System
4.3.2 Test color daytime video
operation (ground test)
4.3.3
Test infrared (IR) video operation (ground test)
4.3.4
Test payload operations at operating altitude and range
This is a fast development and
delivery project of a high quality system at a low investment cost. An
iterative type framework development such as the Rapid Application Development
(RAD) approach is appropriate for this project because the aim is to build a high
quality system quickly (six months) with key emphasis on fulfilling a
business need. Risks are reduced by breaking the project into smaller segments
and providing more ease of change during development. Subsystem design and
development of the air vehicle, payload, power plant, GCS, and peripherals such
as transit case can happen simultaneously. RAD is suitable for small to medium
scale projects of short duration with a focused scope and a well-defined and
narrow business objective (Selecting A Development Approach, 2005) . A sample schedule
for this type of project is shown on Figure 1.
Reference
Mogato, M., & Ong, R. (2013, November 10). Philippines
storm kills estimated 10,000, destruction hampers rescue efforts. Retrieved
May 8, 2014, from Reuters:
http://www.reuters.com/article/2013/11/10/us-philippines-typhoon-idUSBRE9A603Q20131110
Selecting A Development Approach. (2005, February 17). Retrieved May 8, 2014, from
Centers for Medicare & Medicaid Services:
http://www.cms.gov/Research-Statistics-Data-and-Systems/CMS-Information-Technology/XLC/Downloads/SelectingDevelopmentApproach.pdf
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