FlexArm’s Tapping Solutions Help Launcher Deliver More Satellites to Orbit

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FlexArm has collaborated with Launcher, a startup based in New York City, to help them develop the world’s most efficient rocket for delivering small satellites to orbit. The key factor in Launcher’s achievement is their use of high-performance copper alloy for their E-2 Engines, which are 3D printed to reduce the amount of propellant required to reach orbit. This enables Launcher to deliver more satellite cargo per rocket than ever before.

To achieve this feat, Launcher required an effective tapping solution for their rocket launchers. The launchers have eight holes that require NPT taps ranging in size from 2″ to 1-1/4″. Initially, the Launcher team intended to tap the holes manually. However, they soon realized that keeping the metal chips out of the cooling chamber would not be feasible. Therefore, they sought out FlexArm for assistance in developing a solution chamber. Printing in a single piece reduces costs and enables the highest performance regenerative cooling design. 

Rocket Launcher

FlexArm provided a hydraulic arm with a multi-position head that could handle up to 811 ft/lbs of torque and do horizontal tapping. The engineering team at FlexArm developed a fixture that securely held the combustion chamber in place, ensuring correct alignment. The fixture held the part horizontally and rotated 360 degrees within it, enabling FlexArm to reach all eight holes easily with the multi-position head.

 

FlexArm created a prototype to test the fixture before tapping the actual part, ensuring the project’s success. This was crucial as it was Launcher’s first E-2 combustion chamber, and depth control was a key concern to avoid the threads going in too deep and the risk of cracking the rocket. The tapping process was conducted with air blown into the chamber to keep the metal chips out of the cooling chamber.

FlexArm is collaborating with OSG to provide the NPT taps required for this application. With their expertise, they helped select the following taps. 

2″ – 11-1/2 NPT – EDP 1311000

1-1/2″-11-1/2 NPT – EDP 1310900

1-1/4″-11-1/2 NPT – EDP 1310808

7/8-14 UNF-2B – EDP 2939208

The partnership between Launcher and FlexArm emphasizes the significance of collaboration in achieving significant advancements in the space industry. With Launcher’s groundbreaking technology and FlexArm’s tapping solutions, the space industry is poised to experience further progress in the future.

 

In conclusion, FlexArm is proud to have been part of Launcher’s journey in pushing boundaries and achieving new heights in the space industry. With their focus on precision and durability, FlexArm has become a trusted partner for companies in various fields, including aerospace, automotive, defense, agriculture, and truck& trailer. Their partnership with Launcher in the space industry is just one example of how they continue to push the boundaries of innovation and collaboration. FlexArm’s proven track record of success makes them a reliable partner for any company looking to improve its tapping process.

Check out this exciting video of us tapping this rocket .Watch how the FlexArm performs

on this amazing 3D printed part.

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Standard Features

  • Hand Pendant
  • 22″ Touch Screen Monitor
  • Omron FlexCNC Controller
  • Mobile Control Panel
  • Through Spindle Coolant 
  • Auto Tool Changer 
  • Flood Coolant
HP
Max RPM
FT/LBS
Series

18

4000

92

C-20-02 / C-10-02

18

6000

61

C-20-02 / C-10-02

33

12000

61

CM-20-02

Auto Stand-Off – This is currently defined to be surface stand-off and not to be confused with vector stand-off in 5-axis mode. The current auto stand-off is based on a changing surface and will adjust vertically based on the angle of the “A” Axis, so there is five (5) axis taken into account during the calculations, but this is not the same as the tool vector stand-off. There is the ability to do the vector stand-off change while the machine is running manually with buttons on the screen.

Z-Reader Probe – The Z-Reader is a device for mapping the location of the surface. It can be controlled manually & programmatically. The option is NOT active while cutting & is retracted out of harm’s way. It can be triggered to verify the surface at every pierce before the cutting process starts, or it could be used to drive surface mapping of the whole part before cutting starts. It begins with initialization or zeroing of the device to the surface at the beginning of a program and then accumulates or tracks the difference from that zeroing effort.

Automatic Edge Finder – The edge finder is or can be utilized manually (Jogging Method & Screen Buttons), programmatically (M & G codes), or fully automatic routine (dedicated program). This option sets offsets & program rotation to match the orientation & location on the cutting table.

AC Unit Installed on Electrical Cabinet – The unit is mounted on the cabinet’s High Power (480v) side. It is close to the location where the drives are mounted. This option keeps the cabinet temperature stable and allows heat dissipation faster. The servo drives for all axes are the most significant contributors to heat inside the electrical cabinet.

5-Axis Renishaw CalibrationThe calibration unit is a Renishaw model APCA45 with a modified spherical stylus. The device has a retractable cover and air purge to clear debris & dust during the activation process. It mounts to a swing arm controlled by a pneumatic rotary, so it is out of the way during regular operation and swings into the calibration position for calibration only. 

HP
Max RPM
FT/LBS
Series

18

4000

92

G-20-06 / G-10-06

18

6000

61

G-20-06 / -10-06

40

4000

217

GM-20-06 / G-20-06 / G-10-06

40

6000

145

G-20-06 / G-20-06 / G-10-06