A) 420 mm B) 100 mm C) 50 cm D) 76.2 mm
A) 2003 B) 1991 C) 1946 D) 1887
A) A barrel length of over 30 metres B) A weight exceeding 22,000 kg C) A ball diameter of more than 50 cm D) A firing range of over 100 kilometres
A) Dulle Griet B) Pumhart von Steyr C) Faule Mette D) Mons Meg
A) To reduce the financial cost of the weapon B) To increase the rate of fire C) To improve accuracy over long distances D) To increase the effect of the projectiles
A) They embedded themselves deep into the stone B) They caused the cannon to overheat instantly C) They ricocheted harmlessly D) They shattered upon impact
A) A shortage of stone cannonballs B) They were too accurate for siege warfare C) Logistical demands and high costs D) Lack of iron for manufacturing
A) Sir William Armstrong B) Ali C) Orban D) Raghunatha Nayak
A) Steel B) Bell metal bronze C) Copper D) Forged iron bars
A) To pierce iron armour B) To provide anti-aircraft defense C) To serve as railway artillery D) To launch projectiles into the stratosphere
A) Dora B) Big Bertha C) Paris Gun D) Schwerer Gustav
A) Ease of concealment B) Greater mobility C) Higher rate of fire D) Cheaper manufacturing costs
A) 211 mm B) 420 mm C) 800 mm D) 305 mm
A) V-3 London Gun B) Paris Gun C) Schwerer Gustav D) Big Bertha
A) RAF bombing raids on bunkers B) The weapon cracked after six rounds C) Insufficient range to reach London D) The war ended before testing
A) Mark 7 B) Project HARP C) Saddam Hussein D) Gerald Bull
A) Project Babylon orbital gun B) Electro-Magnetic Laboratory Rail Gun C) GC-45 howitzer D) Mark 7 cannon
A) The British government B) Canadian aerospace engineers C) Saddam Hussein D) The US Navy
A) 1990 B) 1991 C) 1980 D) 1960
A) 9,000 km/h B) Mach 5 C) 5,600 km/h D) 406 mm per second
A) Welded end-to-end B) Bolted to concrete foundations C) Stacked side-by-side D) Mounted on rotating platforms
A) 9,000 mph B) 16 mph C) 406 mph D) 5,600 mph |