Specifications
CT Corsair   Final Report   May 2, 2014 
13 
4.3  Final Motor Specifications 
Although  final  motor  specifications  are  inherently  dependent  on  gearbox  ratio  selection,  the 
calculations performed in Section 5 dictate the systems overall speed and torque requirements. 
Table 4 contrasts the original Gyro IPT
TM
 specs with the new Corsair simulator specs. 
Criteria 
Gyro IPT
TM
Corsair Simulator 
Motor Type 
Induction 
Servo 
Speed 
26 rpm 
85 rpm 
Torque Output 
1212 in-lbs 
3500 in-lbs 
Power 
1.5 hp 
5 hp 
Table 4. Original Gyro IPT
TM
 Specifications vs. Corsair Simulator Specifications 
4.4  Parametric Model Development 
To perform a finite element analysis and derive the necessary torque 
equations, an accurate model of the simulator base was created. A 
parametric model was developed in Solidworks by replicating every 
component in the base critical to the structure as separate files. Each 
part was measured using calipers with tolerances of ±.001 in. These 
files were mated and given relations in an assembly drawing so valid 
point-to-point dimensions could be found. The accuracy of the upper 
scissor  arms  and  spring  measurements  were  imperative  to  the 
model’s success as those parts mate to the new lower scissor arms. 
The  upper  scissor  arm  model  was  exported  into  ABAQUS  to 
perform the finite element analysis. 
4.5  Prepar3D Compatibility 
Prepar3D is a flight simulation software developed 
by Lockheed Martin. Future design teams will work 
to integrate the simulator with a license of Prepar3D 
Academic  v  1.4.4747.0.  It  is  used  for  both 
entertainment  and  training  purposes.  The  user  is 
provided with an immersive cockpit experience and 
is  able  to  load  real-life  airports  and  environments. 
There is also a custom mission design option. 
Software development can be done using the SimConnect Developer SDK. Software add-ons are 
flexible  and  can  be  written  in  C,  C++  C#.net  or  VB.net.  Developers  are  free  to  add gauge 
processing, replace events, record and monitor flights, create custom missions, manipulate the 
weather, enable hardware with Prepar3D and control additional views and/or AI aircraft. The key 
to  communicating  with  the  simulator  hardware  is  the  development  of  a  custom  client  which 
communicates with the Prepar3D software in run time. This can be done by modifying source 
code and was outside the scope of Phase II. 
Figure 10. Rendering of Solidworks 
Parametric Model 
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Figure 11. Screenshot of Prepar3D Flight Simulation
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