BAE Systems V2C2 Program

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Transcription:

BAE Systems V2C2 Program Presented at: NDIA Gun and Missile Systems Conference & Exhibition Presented by: Mr. Bruce Zierwick BAE Systems, Land & Armaments Minneapolis, Minnesota March 27-30, 2006 Slide 1

BAE Systems V2C2 Program The intent of this presentation is to provide an overview of BAE Systems 105mm Variable Volume Chamber Cannon (V2C2) program and show the flexibility and unique capabilities of the V2C2 that have been demonstrated over the past year. Slide 2

BAE Systems V2C2 Program Overview Began Internal Research & Development Program in March 2003 V2C2 Program Objectives: Identify & develop an innovative technology that would reduce the development and fielding costs for a new 105mm cannon: Provide a new 105mm cannon with enhanced performance Position BAE Systems to offer a 105mm cannon for FCS NLOS-C should that be the cannon of choice (decision to retain the 155mm NLOS-C cannon was made in March 2004) Reduce development costs and realize logistics benefits by using a currently fielded propellant Provide capability to optimize integrated armament-ammunition performance The V2C2 system solution enables: Fielding of improved 105mm artillery without development of new propellant Reductions in logistics tail and support costs Reductions in overall system weight for a given performance Slide 3

BAE Systems V2C2 Program Overview Development Team: BAE Systems: Project Lead & funding, System Design, Variable Volume Design, Seal Design, Integration, Test Projectile Fabrication ARDEC: Test Projectile Design, Laser Igniter, Internal Ballistics Analysis, Structural Component Design (Benet Labs) ARL: NGEN Internal Ballistic 2-D dp Analysis Watervliet Arsenal: Gun Tube and Breech Fabrication Contractual Arrangement All Work Conducted Under a Government/Contractor Cooperative Research and Development Agreement (CRADA) Integrated Team Approach with Work Split Between Organizations Based Upon Areas of Expertise to Leverage Strengths Slide 4

V2C2 Armament System Overview Variable Volume Chamber Cannon (V2C2) (Patented) Fully-Automated 105mm, 62-caliber Cannon Utilizes (M231 & M232) MACS Propellant Common to 155mm Artillery Fires Existing and Developmental 105mm Projectiles/Fuzes Extended Range (>30km assisted/24km unassisted) Estimated weight of Fully Automated Cannon < 2500 lb Slide 5

V2C2 Armament System Overview V2C2 Breech Configuration Breech Carrier Drive Motors Interrupted Threads Breech Assembly Breech Ring Exploded View (structural components) Breech Plug/Seal Assembly Slide 6

V2C2 Armament System Overview V2C2 Breech Operation 2 3 1 1. Raise Breech Carrier 2. Translate Breech Plug Assembly into Chamber to Set Chamber Volume 3. Rotate Breech Plug to Lock Slide 7

V2C2 Demonstrator System V2C2 Demonstrator Cannon Installed at Test Range Slide 8

V2C2 Test & Evaluation Summary Demonstrator Test Program (264 shots) Demonstrated acceptable internal ballistics behavior under all conditions of M231 and M232 propellant conditioning, zones, and charge placement Demonstrated muzzle velocity repeatability Demonstrated exceptional breech seal performance Demonstrated compatibility with MACS M232A1 charge Demonstrated compatibility with several current U.S. projectiles Demonstrated compatibility with Denel M2019 PFF projectile Breech Drive Brass Board Checkout Completed 20,000 cycle durability test to prove out automation Dual Axis Make-Break Motor Drive Brass Board Developed, tested and patented a dual axis make-break connector that allows drive motors to be mounted off recoiling mass Slide 9

Propellant Performance Testing Conducted testing of the MACS M232A1 charge which demonstrated the ability of the V2C2 cannon to take advantage of this new charge being fielded to 155mm artillery battalions. Demonstrated stable internal ballistic performance of the M232A1 charge at top four V2C2 zones Collected data on the internal ballistic performance of M232A1 charge in the V2C2 cannon M232A1 charge produces identical MV with slight increase in maximum chamber pressure as compared to M232 charge Demonstrated ability of V2C2 to utilize and/or correct for propellant performance changes or new projectiles in order to achieve optimal systems performance The V2C2 variable volume capability enables performance optimization by tuning chamber volume to achieve desired pressure and velocity Slide 10

Propellant Compatibility V2C2 Zoning Solution & Ballistics M2019 PFF & M913* Projectiles 105mm 62 Cal., 5.7 M Shot Travel Zone Charge Solution Chamber Volume (in 3 ) Peak Breech Pressure (psi) Muzzle Velocity M2019/M913* (m/s) Max Range M2019/M913* (km) 6 3 M232A1 700 54,089 996 / 1020 30.7 / 31.7 5 3 M232A1 800 47,063 958 / 981 29.0 / 30.5 4 2 M232A1 500 36,660 824 / 844 23.8 / 26.2 3 2 M232A1 800 23,032 744 / 762 21.2 / 23.5 2 1 M231 500 24,931 537 / 550 15.0 / 16.8 1 1 M231 800 15,540 484 / 496 13.5 / 15.2 * Tested using surrogate projectile with iron rotating band Results support use of fielded and developmental 105mm Projectiles to extended ranges with acceptable range overlap Slide 11

U.S. Projectile Compatibility Predictions (ARDEC) Projectile compatibility of current 105 inventory was based on surrogate projectile test data and ARDEC models: Evaluated projectile interface to V2C2 Chamber Determined current pressure, MV, acceleration, and spin limitations of eleven (11) inventoried 105MM rounds Assessed limitations based on firing tables, aeroballistics GTRAJ code, Interface Control Documents, projectile drawings, historical rotating band analyses and structural engineering assessments Compared current limitations against V2C2 zoning data for 155 MACS Calculated current M913 projectile slug Pressure Ratio and compared to actual firing data using the surrogate projectile Pressure ratio was utilized to attune calculation of predicted accelerations for each of the eleven rounds Inspected recovered projectile hardware from V2C2 Firing (Projectile Slugs with Iron Rotating Band and AMODEL Obturator) Analyzed Rotating Band Wear measurements Generated V2C2 Projectile-Zone Compatibility Chart based on all information available to date Projectile structural compatibility is based on current use limits while rotating band assessments are based on test data and wear models Slide 12

U.S. Projectile Compatibility Predictions (ARDEC) Projectile M1 HE M60 Smoke M84A1 smoke Current Max Range 11.5 Km 11.5 Km 11.5 Km Current MV Limits 502.4 M/S 491.4 M/S 503 M/S Zone 1 R R R Zone 2 Zone 3 Tested, Sp Similar to Tested Zone 4 Zone 5 M314A3 Illum 11.5 Km 492.4 M/S R, Sp Similar to M444 ICM 11.5 Km 497 M/S R Similar to, Sp M548 HE RA 15 Km 563 M/S V, Sp V, Sp, R V,Sp,R,S M760 HE 14 Km 658.3 M/S, Sp M913 HE RA 19 Km 673.3 M/S Surrogate Testing, Sp M915 DPICM 14 Km 637.3 M/S Plan to test in 2006, Sp M916 DPICM M927 HERA 14 Km 488.4 M/S 15 Km 496.6 M/S R, Sp Similar to Similar to, Sp, Sp Current Projectile Limits Exceeded (R = rotating band, V = velocity, Sp = spin, S = structural) = Rounds can be fired = Rounds Marginal = Not Recommended Slide 13

Projectile Compatibility Summary Special surrogate test slug: Test slug was designed by ARDEC to simulate the physical characteristics of the M913 with a welded iron rotating band Performed successfully at all zones up to zone 6 (1010 m/s) which would propel the M913 with modified rotating band to 31.7 km range Given the base pressures, rotating band performance, and projectile design integrity, the results indicate a strong potential for the M913 with an iron rotating band to be utilized at zone 6 Limited testing of 2 U.S projectiles to date M1 HE projectile: performed well at zone 3 (750 m/s, 16.5 km) M84 Smoke projectile: performed well at zone 3 (750 m/s, 16.5 km) All projectiles were fired with snap-on obturators Only necessary when used beyond current performance levels Given the similarity in design of the M1 and M84 to the M60, M314, M444 there is a high probability that these projectiles can be utilized to zone 3 Similarities of the M916 and M927 to the M913 may allow both of these projectiles to be utilized at zone 3, but material differences make them unlikely to function beyond zone 3 Slide 14

Projectile Performance Summary Projectile Type M913 HERA based on Surrogate Test Slug Predicted V2C2 Maximum Range Capability 31.7 km @ zone 6 30.5 km @ zone 5 Current known capability with existing guns 19.0 km M1 HE as tested M84 as tested M2019 PFF 16.5 km @ zone 3 16.5 km @ zone 3 30.7 km @ zone 6 11.5 km 11.5 km 30.0 km The V2C2 cannon with MACS propellant allows standard projectiles with snap-on obturators to achieve greater ranges than currently possible with existing 105mm cannons Slide 15

Conclusion BAE Systems 105mm Variable Volume Chamber (V2C2) Long Range, Light Weight Cannon demonstrates that 105mm artillery cannons can effectively use the same propellant system as their bigger brother the 155 Eliminates the time and expense of developing and type classifying a new propellant system in order to field a long range 105mm capability Variable volume technology provides unparalleled flexibility in changing parts of the weapon/charge/propellant equation Offers potential for reduced logistics burdens given that one propellant system fits all Slide 16