Qualification Of ITEX-07 Explosive For Fuze Applications. (Tel: +49 (0)

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Qualification Of For Fuze Applications Dr. Rainer Schirra DynITEC GmbH (Tel: +49 (0) 2241 208 4929 email: rainer.schirra@dynitec.com) Jason Fitzgerald-Smith Dr. Helmut Zöllner Alberto Carrillo DynITEC GmbH DynITEC GmbH BAE Systems 1

PBXN-7 / PBXN-7 Composition 35 % TATB 60 % Copolymer (VITON A) 5 % Specification MIL-DTL-82874B Qualified by the US-Navy PBXN-7 manufactured with OSI-TATB, evaluated by the US Navy, has enhanced shock insensitiveness To describe its improved IM property, this variant of PBXN-7 for future military use has been designated 2

Qualification Time Schedule DynITEC Physical tests and thermal characteristics (related to detonating devices) Finished Jan 08 Additional tube tests in summer 08 WIWEB Tests according to STANAG 4170 / TL 1376-0800 / AOP-7 Sep 08 Jan 09 Contracted by DynITEC QinetiQ EMTAP-Tests (No 35, No 41, No 42) Expected in May 09 Schutzvermerk nach ISO 16016 beachten 3

Friction / Impact Friction Friction Impact Impact No-Go Go No-Go Go No-Go Go No-Go Go [N] [N] [J] [J] [N] [N] [J] [J] 96 96 108 108 20,0 20,0 22,0 22,0 144 144 160 160 6,5 6,5 7,0 7,0 144 144 160 160 8,5 8,5 9,0 9,0 128 128 144 144 5,5 5,5 6,0 6,0 120 120 128 128 6,0 6,0 6,5 6,5 120 120 128 128 9,0 9,0 9,5 9,5 50,0 70,0 90,0 110,0 130,0 150,0 170,0 190,0 50,0 70,0 90,0 110,0 130,0 150,0 170,0 190,0 Friction [N] Friction [N] Test set-ups and procedures according to BAM Determination of no-go-level: Highest level with no reaction or no detonation in 6 tests. AOP-7 min. requirements for booster explosives 80 N for friction and 3 J for impact 5,0 10,0 15,0 20,0 25,0 5,0 10,0 15,0 20,0 25,0 Impact [J] Impact [J] 4

Ignition Temperature Temperature Temperature [ C] [ C] 270 270 290 290 240 240 280 280 > 310 > 310 280 280 Wood s Metal Bath Test in accordance with DynITEC-procedure 3010 AOP-7 min. requirements for booster explosives > 180 C at 5 C/min 200,0 220,0 240,0 260,0 280,0 300,0 320,0 200,0 220,0 240,0 260,0 280,0 300,0 320,0 Temperature [ C] Temperature [ C] 5

Minimum Priming Charge Test No-Go No-Go Go Go [mg] [mg] [mg] [mg] 50 50 60 60 90 90 100 100 30 30 40 40 25 25 30 30 5 5 10 10 >110 >110 Special DynITEC-method to evaluate explosives for use in detonating devices Determination of the minimum amount of primary explosive to get a reliable initiation of the (secondary) explosive under investigation Primary explosive (lead azide 94oD) is changed in 5mg-intervals 0,0 20,0 40,0 60,0 80,0 100,0 0,0 20,0 40,0 60,0 80,0 100,0 Lead azide [mg] Lead azide [mg] 6

Booster-Gap-Test Go No-Go Go No-Go [mm] [mm] [mm] [mm] 13 13 14 14 10 10 12 12 19 19 20 20 16 16 20 20 21 21 25 25 < 5 < 5 Test based on STANAG 4363 and AOP-21 Designed for explosive components (boosters and leads) Acceptance criteria for boosters < 28mm water gap 0,0 5,0 10,0 15,0 20,0 25,0 30,0 0,0 5,0 10,0 15,0 20,0 25,0 30,0 Water Gap [mm] Water Gap [mm] Booster DM 1291; Loading pressure: 0,7 kbar 7

Tube Test Electrically Heated Slow Heating (EMTAP No 42) Test results Heating rate 1 K/min Reaction time 2:49 [h:m] Reaction temperature ca. 195 C Six fragments Reaction type: Cat 2 Deflagration 8

Tube Test Fast Heating (EMTAP No 41) Test results Reaction after 339 s Two fragments Reaction type: Cat 2 Comparable to Rowanex 3601 Schutzvermerk nach ISO 16016 beachten 9

Tube Test Internal Ignition (EMTAP No 35) Test results Test results No fragments Reaction after 339 s Reaction type: Cat 1 Two fragments Comparable to Rowanex 3601 Reaction type: Cat 2 Comparable to Rowanex 3601 Schutzvermerk nach ISO 16016 beachten 10

WIWEB Test Results Characteristic Doc. (STANAG) Test Criteria for booster explosives (AOP-7) WIWEB DynITEC STANAG 4170 Vacuum Stability 4556 Gas liberation < 1.0 ml/g at 100 C for 40 h./. 24 h: 100 C: 0.04 ml/2.5g 150 C: 2.5 ml/2.5g Decomposition exotherm peak: DSC or Thermal Characterisation 4515 > 180 C at a heating rate of 5 C/min > 180 C 233.8 C TGA ok ok Ignition Temperature 4491 Wood's Metal Bath > 180 C at a heating rate of 5 C/min 231 C (270 C) Electrostatic Sensitivity 4490 Small-scale spark test National > 32 J./. Impact Sensitivity 4489 BAM-Test 3 J: No reaction (10 out of 10 trials) 7,5 J 20 J Friction Sensitivity 4487 BAM-Test 80 N: No reaction (10 out of 10 trials) 80 N 96 N Detonation Velocity AOP-7 7690 m/s./. Variation of properties ok AOP-7 with age (4 weeks / 80 C)./. response when ignited 4491 see EMTAP-tests TL 1376-0800 Heating Criteria for insensitive explosives Fast Cook Off (90 K/min) Reaction type 5 (burn) Type 5 Impact Shock Caliber 12.7 mm vo = 900 m/s Distance = 6 m Gap test Diameter: 21 mm Reaction type 5 (burn) Type 6 No detonation 15 mm to be determined EMTAP (Tube Tests) Internal Ignition No 35 Reaction category <= 2 Fast Heating No 41 Reaction category <= 2 Electrically Heated No 42 Reaction category <= 2 1 Test performed: Cat 1 1 Test performed: Cat 2 1 Test performed: Cat 2 11

Summary is qualified according to STANAG 4170. Preliminary EMTAP-tests show excellent IM-properties less than or equal to deflagration Cat 2 reaction. Thermal behaviour is dominated by : separate investigation & report. Material used for the insensitive booster of the new UK multi-purpose artillery fuze L166A1 (production starts in summer 2009). is currently being allocated an EX-number by the US DoD. 12

Thermal Stability (heating ramp) Heating rate: 3 K/h Sample volume: 8 cm 3 cube 13

Thermal Stability (isoperibolic) T isoperibolic : 195 C Sample volume: 1,7 cm 3 cube 14

Volume-dependent self-ignition temperatures for Volume SIT exp T_U krit.,theoret. 0,2 cm 3 L=0,003 m 1,0 cm3 L=0,005 m 1,7 cm 3 L=0,006 m 8 cm 3 L=0,01 m 203 C 203 C 197 C 197 C 194 C 195 C 190 C 190 C SIT exp : Self-ignition temperature determined by experiment T_U krit.,theoret.: Self-ignition temperature according to the thermal explosion theory 15

Volume-dependent self-ignition temperatures (acc. to thermal explosion theory) 16

Booster-Gap-Test: Experimental Setup Witness rod Firing setup Holder Holder Firing setup Center disc Booster Water gap PMMA-tube Donor charge Detonator No.8 Donor charge () Firing setup Schutzvermerk nach ISO 16016 beachten 17

Minimum Priming Charge Test Special DynITEC method to evaluate explosives for use in detonating devices Determination of the minimum amount of primary explosive to get a reliable initiation of the (secondary) explosive under investigation Primary explosive (lead azide 94oD) is changed in 5mgintervalls Drop ball Firing pin Plastic holder Metal tube Stab sensitive charge Lead azide Secondary explosive Witness plate Base Schutzvermerk nach ISO 16016 beachten 18