Military Things

"M10 Booker: When Billions of Dollars End in Failure"

noreply@blogger.com (don75ers) — Wed, 12 Aug 2026 18:56:42 -0700

The M10 Booker is the latest armored fighting vehicle or assault gun developed by General Dynamics Land Systems (GDLS) for the United States Army. Although visually and physically very similar to a light tank, the US Army officially categorizes it as a Mobile Protected Firepower (MPF) vehicle, not a Main Battle Tank (MBT).

Primary Functions

Infantry Support: Specifically designed to support Infantry Brigade Combat Teams.

Obstacle Destruction: Tasked with suppressing and destroying enemy fortifications, bunkers, trenches, and weapons systems.

Supplementary Protection: Provides secondary protection for infantry troops against enemy light armor.

Main Technical Specifications

Armament: Equipped with a 105 mm main gun (modeled after the M35) and a coaxial 7.62 mm machine gun.

Fire Control System: Uses a sophisticated system similar to the M1A2 Abrams tank, providing high accuracy and nighttime thermal vision capabilities.

Weight & Mobility: Weighing approximately 38 to 42 tons, this is significantly lighter than the Abrams, allowing two M10 Bookers to be transported simultaneously on a single C-17 Globemaster III cargo aircraft.

Speed: Capable of speeds up to 60 km/h (36 mph) with an operational range of approximately 560 km.

History and Development.

The M10 Booker stemmed from the US Army's need to fill a gap in its post-Cold War infantry combat capabilities, but the program underwent significant changes until its surprise cancellation.

The following is a chronological timeline of the vehicle's development:

1. Background (2013–2015)

Fires Gap: Since the retirement of the M551 Sheridan light tank in 1996, US light infantry and airborne forces have lacked an armored vehicle with a large, maneuverable gun.

New Strategy: In September 2015, the US Army released a combat vehicle modernization strategy document. They identified that Infantry Brigade Combat Teams (IBCTs) lacked protected direct fire support to penetrate enemy fortifications and bunkers.

2. Mobile Protected Firepower (MPF) Program (2016–2017)

Program Launch: To address this issue, the US Army launched a competitive program called Mobile Protected Firepower (MPF).

Initial Specifications: Key criteria initially included high air mobility (carryable by cargo aircraft), adequate artillery protection, and carrying a large-caliber weapon to penetrate enemy defenses.

3. Fierce Competition Between Two Giants (2018–2022)

Selected Candidates: In late 2018, the US Army selected two defense giants to build prototypes: BAE Systems and General Dynamics Land Systems (GDLS).

Field Trials: Beginning in 2020, prototypes from both vendors were tested live by soldiers to evaluate their performance.

Contract Award: In June 2022, GDLS's proposal, based on the Griffin II combat vehicle platform, was officially awarded the contract. The US Army ordered an initial batch of 96 vehicles.

4. Name Announcement and Initial Production (2023–2024)

On June 9, 2023, coinciding with the US Army's anniversary, the MPF vehicle was officially named the M10 Booker.

Origin of the Name: The name "Booker" honors two U.S. Army soldiers who died in battle: Private Robert D. Booker: Killed in World War II (1943) and received the Medal of Honor. Staff Sergeant Stevon A. Booker: Killed in the Iraq War (2003) during Operation Thunder Run in Baghdad and received the Distinguished Service Cross.

First Deliveries: Low-Rate Initial Production (LRIP) units began being delivered to the U.S. military for further operational testing in February 2024.

5. Technical Issues and Program Cancellation (2025)

Operational Challenges: Several critical issues emerged during testing. These included toxic gas leaks from the cannon into the turret after firing, as well as engine overheating under high-performance conditions.

Deviations from Concept: The biggest challenge centered on the vehicle's weight. Originally envisioned as an agile, airdroppable "light tank," the M10 Booker has ballooned to a nearly 42-ton vehicle (close to a heavy tank).

Official Termination: In May 2025, the US Secretary of Defense took the decisive step of officially canceling the M10 Booker project through a weapons procurement reform memorandum. The multibillion-dollar project was halted due to its perceived inefficiency, overburdened design, and overly overlapping duties with the Abrams main battle tank. The approximately 80 vehicles that had already been produced were eventually reclassified.

The world's first military submarine

noreply@blogger.com (don75ers) — Tue, 11 Aug 2026 20:24:14 -0700

The world's first military submarine used in combat was the Turtle, designed by American inventor David Bushnell in 1776. This vessel was used by American colonial forces to attack British warships during the American War of Independence.

Here's a timeline of the evolution of military submarines over time to get a more complete picture:

The First Military Submarines in History

The Turtle (1776): Uniquely shaped like a walnut or egg, this vessel was manually propelled using paddles and designed for a single crew. Its mission was to secretly attach explosives to the hulls of enemy ships underwater.

It was launched on September 7, 1776. The target was the British warship HMS Eagle. The mission failed due to the inability to attach the explosives to the hull.

The Turtle

Nautilus (1800): Designed by Robert Fulton for the French Navy, it was one of the first submarines to use an internal steering system and carry advanced explosives.

Nautilus

The First Modern Military Submarine

If the benchmark is a modern military submarine officially adopted into a structured naval fleet, then that status is held by:

USS Holland (SS-1)

USS Holland (SS-1): Officially commissioned by the United States Navy on October 12, 1900. Designed by John Philip Holland, this vessel was the world's first modern military submarine, combining an internal combustion engine (gasoline) for surface propulsion and a battery-powered electric motor for submersion. This submarine became the forerunner of the design of today's global submarine fleet.

The BUFF (Big Ugly Fat Fellow) - B-52

noreply@blogger.com (don75ers) — Mon, 10 Aug 2026 18:56:18 -0700

The largest and heaviest bomber currently in service with the United States military is the Big Ugly Fat Fellow—the Boeing B-52 Stratofortress.

Key Specifications of the B-52 Stratofortress

Wingspan: 56.4 meters (185 feet)

Fuselage length: 48.5 meters (159 feet 4 inches)

Empty weight: Approximately 83,915 kilograms

Maximum takeoff weight (MTOW): Up to 221,353 kilograms

Weapons payload capacity: Up to 31,751 kilograms (70,000 pounds) of bombs and missiles.

The Boeing B-52 Stratofortress was designed in the late 1940s as a long-range, nuclear-capable strategic bomber to replace the B-36 Peacemaker.

Origins and Cold War Era 1948 (Early Design Sketch):

Boeing initially proposed a turboprop-powered bomber design. However, the US Air Force (USAF) demanded greater speed. Over the course of a single weekend at a hotel, a team of Boeing engineers completely transformed the design into a swept-wing jet with eight jet engines.

1952 (First Flight): The YB-52 prototype first flew on April 15, 1952.

1955 (Entering Active Service): The B-52 officially entered service under the US Strategic Air Command (SAC) to serve as a key pillar of nuclear deterrence during the Cold War.

Variant Evolution and Modifications: Variants A through G:

Initial upgrades focused on increased fuel capacity, radar systems, and tail modifications.

B-52H Variant (Current Variant): This was the last variant produced (1961–1962). The H variant switched to using the much more efficient Pratt & Whitney TF33 turbofan engine and was equipped with a more modern electronic defense system. Role Conversion: Entering the Vietnam War (1960s), the B-52's function shifted from a high-altitude nuclear bomber to a conventional bomber conducting large-scale carpet bombing attacks from low and medium altitudes.

21st Century Modernization Program

Despite its age, the US continues to update the B-52H fleet to maintain its relevance into the 2050s through several key programs:

New Engine Replacement (CERP): The US replaced the aging TF33 engines with new Rolls-Royce F130 engines. This upgrade changed the aircraft variant's name to B-52J.

Radar Modernization: Installation of a new Active Electronically Scanned Array (AESA) radar system to improve long-range target detection.

Digital Weapon Systems: Modification of the internal bomb bay to accommodate the latest GPS-guided smart weapons (JDAM) and future hypersonic cruise missiles.

Here is a list of the major combat missions carried out by the B-52:

1. Vietnam War (1965–1973)

Operation Arc Light (1965): The B-52's first combat debut. The aircraft were deployed from Guam to carpet bomb Viet Cong bases and supply lines in the jungles of South Vietnam.

Operation Linebacker II (1972): Known as the "Christmas Bombings," this was the largest aerial bombing campaign after World War II, in which B-52s intensively attacked vital targets in North Vietnam (Hanoi and Haiphong) for 11 days to force them back to the negotiating table.

2. Gulf War / Operation Desert Storm (1991)

Major Psychological Impact: B-52s dropped approximately 40% of all bombs dropped by coalition forces during the war. Their massive carpet bombing raids were particularly effective in destroying the morale of the elite Iraqi Republican Guard troops in the desert.

Operation Secret Squirrel: Seven B-52s flew 35 hours non-stop, covering 22,500 km from Louisiana (USA) to the Middle East, only to launch secret laser-guided cruise missiles at targets in Iraq before returning home.

3. NATO Bombing of Yugoslavia / Operation Allied Force (1999)

B-52s were deployed from air bases in the UK to launch conventional cruise missiles. This mission aimed to disable Serbia's military infrastructure and air defense systems to halt the ethnic cleansing campaign in Kosovo.

4. Afghanistan War / Operation Enduring Freedom (2001)

Close Air Support (CAS): The role of the B-52 shifted dramatically in this era. Thanks to the adoption of GPS technology and modern targeting pods, the B-52 was able to loiter at high altitudes and drop precision-guided smart bombs like JDAMs to destroy Taliban defense lines and mountain bunker complexes.

5. Counter-ISIS Operations in Iraq and Syria (2016)

After a decade-long absence from the Middle East, B-52s returned to service and flew approximately 1,800 combat sorties, delivering precision strikes that contributed significantly to the collapse of ISIS's territorial power in the region.

6. Operation Epic Fury in Iran (2026)

Latest Campaign: Under the command of U.S. Central Command (USCENTCOM), B-52s deployed alongside B-1B and B-2 Spirit bombers. In their opening missions, these bombers struck more than 1,700 air defense targets, ballistic missile facilities, and command posts in Iran in less than 100 hours.

This is the world's largest bombers today - Tupolev Tu-160

noreply@blogger.com (don75ers) — Sun, 9 Aug 2026 19:29:32 -0700

Currently, the world's largest operational bomber is the Tupolev Tu-160 (NATO reporting name: Blackjack, Russian nickname: "White Swan"). This Soviet-made supersonic military aircraft has a length of 54.1 meters and a maximum takeoff weight of 275 tons.

Tu-160 Specifications and Advantages

Dimensions: Length 54.1 meters, maximum wingspan of 55.7 meters.

Weight: Empty weight approximately 110 tons and maximum takeoff weight of 275 tons.

Speed: Capable of supersonic speeds above Mach 2 (over 2,000 km/h), making it the fastest bomber currently in service.

Weapons Capacity: Capable of carrying up to 40 tons of weapons in its bomb bay, including nuclear-armed cruise missiles.

Compared to American air giants like the Boeing B-52 Stratofortress, which has a speed of Mach 0.86, a takeoff weight of 220 tons, and a payload capacity of 31.5 tons, the Tupolev Tu-160 was developed by the Soviet Union in the 1970s in response to the United States' strategic bomber project, the B-1A Lancer. The Soviet Union needed a long-range, nuclear-capable supersonic bomber capable of penetrating enemy air defenses at high speed.

1. Design Competition (1967–1972)

The project began with a supersonic strategic bomber competition in 1967. The Tupolev Design Bureau competed closely against Myasishchev (designing the M-18) and Sukhoi (designing the T-4). Although Myasishchev's design was considered excellent, the Soviet government awarded the design to the Tupolev Design Bureau because they were considered to have the best technical and manufacturing capabilities. Full development was under the close supervision of legendary engineer Valentin Bliznyuk.

2. First Flight and Operations (1981–1994)

The first prototype successfully made its maiden flight on December 18, 1981. Mass production was approved in 1984 at the Kazan Aviation Plant (KAPO). It entered active service with the Soviet Air Force in April 1987. After a total of 36 units were produced, construction was temporarily halted in 1994 due to the post-Soviet economic crisis.

3. Impact of the Collapse of the Soviet Union

When the Soviet Union dissolved, the Tu-160 fleet was divided between Russia and Ukraine. Ukraine inherited 19 Tu-160s, but unable to finance their operation, it destroyed some of them and returned eight to Russia in exchange for gas debt repayment.

4. Modern Revival (Tu-160M)

In 2015, the Russian Ministry of Defense decided to revive the mass production line of this bomber. The deeply modernized variant, codenamed Tu-160M/M2, successfully made its maiden flight in early 2022. This new version is equipped with more fuel-efficient NK-32-02 engines, fully digital avionics, advanced radar, and a new electronic defense system to face modern warfare.

The following is a list of important missions that have been and are routinely carried out by the Tu-160 fleet:

1. Combat Deployments Military Intervention in Syria (November 2015): This was the first combat debut in the history of the Tu-160. A Tu-160 squadron flew directly from a base in Russia to launch Kh-101 stand-off cruise missiles. These missiles successfully destroyed various strategic targets of militant groups, such as command centers and weapons depots in Idlib and Aleppo.

Russia-Ukraine War: Russia began actively deploying its Tu-160 bomber fleet to launch waves of long-range cruise missiles. Intensive deployments were recorded in Russia's strategic counteroffensive to destroy military and energy infrastructure targets deep inside Ukraine.

2. Long-Range Patrol Missions & Show of ForceArctic and North Sea Patrols: Tu-160 squadrons routinely conduct marathon flights in international neutral zones such as over the Barents Sea, the Norwegian Sea, and the Arctic region. These flights often last up to 16 hours non-stop with simulated mid-air refueling and escort by MiG-31 fighter jets.

Transatlantic Flights to Venezuela (2008 & 2018): To assert its global influence, Russia once flew a pair of Tu-160s across the Atlantic Ocean to Venezuela. These long-range missions involved joint exercises in the Caribbean, right in the United States' backyard.

3. Aviation World Record-BreakingLongest Flight Record (2020): Two Tu-160 crew members set a world record for the longest non-stop flight for a supersonic bomber. They flew non-stop for 25 hours, covering more than 20,000 kilometers over international ocean before returning to base

Today's advanced military radars...

noreply@blogger.com (don75ers) — Tue, 4 Aug 2026 19:52:53 -0700

The most advanced military radars today are dominated by GaN (Gallium Nitride)-based Active Electronically Scanned Array (AESA) technology, which is capable of detecting small radar cross-section targets such as stealth aircraft and hypersonic missiles. Current leading systems include the AN/SPY-6 and AN/SPY-7 from the United States, the YLC-8B from China, and the S-400 Triumf (with the 91N6E radar) from Russia.

AN/SPY-6 (AMDR)

AN/SPY-6 (AMDR) - USA:

Manufacturer: Raytheon (RTX).

Advantages: High-power digital AESA radar for Arleigh Burke-class destroyers. Capable of tracking hundreds of air, ballistic, and surface targets simultaneously with sensitivity tens of times greater than legacy radars.

AN/SPY-7

AN/SPY-7 (AESA S-band) - USA:

Manufacturer: Lockheed Martin.

Advantages: Based on Gallium Nitride technology, originally derived from the Long Range Discrimination Radar (LRDR) to detect intercontinental ballistic missiles and space objects with extreme accuracy. Used in the Aegis system on land and on frigates of several allied nations.

YLC-8B 3D

YLC-8B 3D (UHF Band) - China:

Manufacturer: Nanjing Research Institute.

Advantages: Specifically designed as a "stealth aircraft hunter" (such as the F-35 or B-2). Operates in the low-band UHF band to evade modern radar-absorbing materials, with a detection range of up to 700 km.

AN/TPY-2

AN/TPY-2 - USA:

Manufacturer: Raytheon.

Advantages: High-performance ground-based radar integrated with the Terminal High Altitude Area Defense (THAAD) ballistic missile defense system, capable of distinguishing between live warheads and decoys outside the atmosphere.

91N6E & 96L6E

91N6E & 96L6E (S-400/S-500 System) - Russia:

Manufacturer: Almaz-Antey.

Advantages: Combines long-range target acquisition and high-altitude tracking radars. Capable of tracking hundreds of targets within a radius of up to 600 km and simultaneously directing missiles at high-speed targets.

"Have you ever heard of the most horrific battle of World War II?"

noreply@blogger.com (don75ers) — Mon, 3 Aug 2026 21:26:09 -0700

For Japanese soldiers in February 1945, the Ramree Island Swamp was hell. Trapped in quicksand, surrounded by Allied forces, and surrounded by swamp predators. It was a war tragedy that was once considered the greatest animal attack disaster in history, before being corrected by modern science.

The Battle of Ramree Island lasted for approximately six weeks in early 1945, as part of the Allied Operation Matador to seize strategic air bases from the Japanese.

1. Initial Allied Landings (January 21, 1945)

Air and Sea Assault: Allied forces began the operation with a massive bombardment using the battleship HMS Queen Elizabeth and RAF fighter jets to destroy Japanese coastal defenses.

Land Invasion: The 71st Indian Infantry Brigade landed on the northern tip of Ramree Island. Japanese troops from the 121st Infantry Regiment, led by Kancho Shigetone, put up fierce resistance but were outnumbered.

2. Capture of Kyaukpyu (January 22-25, 1945)

Port Capture: The Allies captured the important port city of Kyaukpyu in the north.

Retreat to the South: Under heavy Allied artillery pressure, the Japanese defense line was breached. Japanese troops began retreating south of the island toward the mangrove swamps inland.

3. Allied Encirclement and Blockade (Early February 1945)

Entrapment: British-Indian forces cut off Japanese escape routes on land, while the Allied Navy blockaded the waters using motor patrol boats (ML).

Trapped in the Mangrove Forest: Approximately 1,000 Japanese soldiers refused to surrender. They were forced into a 16-kilometer maze of mangrove swamps to cross a tributary to the main island of Burma (Myanmar).

4. A Terrifying Night in the Swamps (February 19, 1945)

Extreme Conditions: This night marked the culmination of the tragedy. Japanese soldiers were trapped chest-deep in mud, without clean water, and swarmed by malarial mosquitoes and flies.

Estuarine Crocodile Attack: The swamp was home to giant saltwater crocodiles. As Japanese soldiers attempted to cross in the dark, some were attacked by crocodiles. However, the greatest casualties that night were caused by Allied artillery fire, which continuously bombarded the swamp area indiscriminately.

This story was recorded by Guinness World Records as the "Worst Disaster Caused by an Animal/Crocodile Attack on Man" based on the memoirs of Canadian naturalist Bruce Stanley Wright. However, modern historians and herpetologists (reptiles) have clarified the facts.

Claims that 1,000 or 400 soldiers were eaten alive by crocodiles in a single night are considered biologically inaccurate, as the local crocodile population could not have sustained such a large feeding fest without disrupting the ecosystem.

Crocodile attacks did occur, but crocodiles were more likely scavengers, coming across the bodies of soldiers who had died in battle or due to the extreme conditions of the swamp. Historians estimate that only 10 to 15 people were killed by crocodiles while crossing the tidal river.

5. End of the Battle (February 22, 1945)

Partial Evacuation: Of the approximately 1,000 soldiers who entered the swamp, about 500 managed to escape from the island thanks to a secret rescue operation by small Japanese boats.

Surrender: Approximately 20 severely wounded and starving Japanese soldiers eventually surrendered and were taken prisoner by the Allies. The rest died in the swamp from battle wounds, dehydration, tropical diseases, drowning, and predator attacks.

The rejuvenation and retrofit process of the former ITS Giuseppe Garibaldi aircraft carrier by the Indonesian Ministry of Defense

noreply@blogger.com (don75ers) — Sun, 2 Aug 2026 20:20:06 -0700

The rejuvenation and retrofit process of the former ITS Giuseppe Garibaldi aircraft carrier by the Indonesian Ministry of Defense and PT PAL Indonesia is focused on three main aspects: service life extension, operational adaptation, and integration of Indonesian Navy doctrine. Because this ship is over 40 years old, a comprehensive repair is needed so that it can be operated optimally until 2040.

The following are the main points that will be worked on in the rejuvenation process:

1. Modernization of Propulsion and Electrical Systems

Replacement of Main Generators: Vital components such as old diesel generators will be replaced with new ones to ensure a stable supply of electrical power to all ship systems.

Turbine System Overhaul: Complete maintenance (overhaul) on 4 Fiat gas turbine units to ensure the ship remains able to reach safe operational speeds in Indonesian waters.

2. Hull Overhaul and Interior Refurbishment

Hull Structure Repair: Corrosion check, steel plate reinforcement, and hull repainting using a special anti-marine biota coating.

Safety Standardization: Rejuvenation of the fire suppression system, renewal of rescue facilities, and adaptation of crew accommodation space to meet the comfort and safety standards of the Indonesian Navy regulations.

3. Combat Management System (CMS) & Weapons

Integration TNI Communication System Installation: Installation of integrated tactical communication devices so that this aircraft carrier can be directly connected to the TNI Network Centric Warfare data network.

New Weapon Installation: Integration of the Close-In Weapon System (CIWS) and air defense missile launchers that are aligned with the Indonesian Navy command ammunition inventory.

Sensor and Radar Update: Replacement or improvement of the function of air/surface search radars and sonar systems to be able to detect modern threats.

4. Flight Deck Function Modifications

Conversion into a Helicopter/Drone Carrier: Since Indonesia does not possess a vertical takeoff and landing (STOVL) fighter jet such as the AV-8B Harrier or F-35B, the deck will be modified specifically to operate rotorcraft (AKS/transport helicopters) and tactical drones (high-powered drones).

Air Navigation System Upgrades: Installation of helicopter landing visual aids and an aerial refueling system on the deck.

The retrofit (repair and modernization) cost of the ITS Giuseppe Garibaldi light aircraft carrier, donated by Italy to Indonesia, is estimated to range between IDR 7.2 trillion and IDR 16.8 trillion ($450 million US). The Indonesian Ministry of Defense initially set an initial estimate of IDR 7.2 trillion to IDR 7.5 trillion. However, in discussions with Commission I of the Indonesian House of Representatives (DPR RI), this figure has the potential to increase to IDR 16.8 trillion depending on the final specifications, technological adjustments, and installation of weapons systems requested by the Indonesian Navy.

Today's Advanced Landmines

noreply@blogger.com (don75ers) — Wed, 29 Jul 2026 19:01:37 -0700

Today's advanced landmines utilize smart technologies such as non-contact electronic sensors, remote control (man-in-the-loop) systems, and self-destruct mechanisms. Prime examples include the operator-controlled XM7 Spider (AS), the airborne GATOR System (AS), and smart mines with acoustic/seismic sensors.

German electronic sensor mine (DM22 PARM (PanzerAbwehrRichtMine) anti-tank directional mine

1. Smart Off-Route/Anti-Tank Mines:

The electronic sensors in advanced landmines work by physically detecting changes in the environment without the need for direct contact (non-contact fusion sensors). Smart mines combine several types of sensors to ensure the target is a real enemy, not an animal or civilian.

1. Acoustic (Sound) Sensor
How it works: A miniature internal microphone listens to surrounding sound frequencies.
Function: Recognizes specific sound signatures from tank engines, heavy vehicles, or human footsteps.
2. Seismic (Vibration) Sensor
How it works: Geophones inside the mine detect vibration waves traveling through the ground. Function: Activates the mine from sleep mode to standby mode when it detects vibrations from approaching vehicles or troops.
3. Magnetic (Field Change) Sensor
How it works: Measures disturbances or fluctuations in the surrounding Earth's magnetic field. Function: Detects large metal deposits in the hulls of tanks or military vehicles passing over it.

Rheinmetall Area Defence Weapon (ADW) electronic sensor mines

4. Active/Passive Infrared (IR) Sensor
How it works: Passive sensors detect heat radiation from bodies or engines, while active sensors emit an invisible laser beam.
Function: Acts as a virtual tripwire that triggers an explosion when the beam line is broken by an object.
5. Processor Algorithm (Microprocessor)
How it works: Acts as the "brain" that combines all data from the above sensors (sensor fusion). Function: Ensures the mine only detonates if the target criteria are met (e.g., ground vibrations and the sound of a tank engine simultaneously), so it cannot be fooled by conventional mine clearance methods.

2. Remotely Controlled Mines (Man-in-the-Loop Networked Mines):

XM7 Spider remote control mine

An example is the United States' XM7 Spider. This mine does not detonate automatically, but is controlled by a human through a control console. If a cable or sensor is touched, the system sends a signal to the operator instead of immediately detonating indiscriminately.

3. Scatterable Mines:

An example is the GATOR system or BLU-92/B mine, which can be deployed massively by aircraft, helicopters, or artillery rockets over an area. This type of mine is equipped with an internal timer to deactivate or self-destruct after the mission is completed to prevent long-term harm to civilians.

Gator Mine

Quick-spread mines on helicopters before deploying

CURRENT STATE-OF-THE-ART SMART BOMBS

noreply@blogger.com (don75ers) — Mon, 27 Jul 2026 21:04:19 -0700

The most advanced and lethal smart bombs (Precision-Guided Munitions) in the world today are the US-made GBU-53/B StormBreaker (by Raytheon) and the French-made AASM Hammer (by Safran). These two munitions lead the field in global technology; rather than relying solely on standard GPS—which is susceptible to jamming—they utilize tri-mode seeker systems and specialized propulsion motors. Below is a list of the world's most advanced smart bombs and their status in Indonesia:

GBU-53/B

1. GBU-53/B StormBreaker (United States) – Smartest & Multi-Sensor.

This compact bomb represents the pinnacle of smart bomb technology, featuring a tri-mode seeker within a single warhead. Technology: Combines Millimeter-Wave Radar (detecting targets through storms or smoke), Imaging Infrared (visually distinguishing targets), and Semi-Active Laser guidance. Advantages: Capable of tracking and striking fast-moving targets even in extreme weather conditions. Its compact size allows stealth fighters like the F-35 to carry large numbers of these bombs in their internal weapon bays.

AASM Hammer

2. AASM Hammer (France) – Rocket-Propelled Smart Bomb.

The AASM Hammer is a modular smart kit that transforms "dumb" bombs into long-range smart munitions. This weapon has garnered global attention due to its cutting-edge performance on various battlefields. Technology: Uses a combination of INS/GPS guidance augmented by Infrared (IR) or Laser sensors. Advantages: Features a rocket booster motor at the rear. Fighter jets can release the bomb from a safe standoff distance of up to 70 kilometers, even at low altitudes or extreme (off-axis) angles. Indonesian Context: The 250 kg version of the AASM Hammer smart bomb has officially entered service with the Indonesian Air Force (TNI AU) alongside the arrival of the Dassault Rafale fighter jet fleet.

GBU-57A/B MOP

3. GBU-57A/B MOP (Massive Ordnance Penetrator) – The Ultimate Bunker Buster.

If the benchmark is the size and penetration capability against underground facilities, the Boeing-made GBU-57 MOP reigns supreme. Specifications: It boasts a massive weight of 13.6 tons. Key Features: Guided by advanced GPS and equipped with a smart fuse system, the bomb can calculate the layers of concrete flooring before detonating precisely at the heart of a nuclear facility or a deeply buried underground bunker.

Domestic Smart Bomb Innovation (Indonesia).

Indonesia, through its domestic defense industry, has also successfully developed smart bomb technology independently:

B250ST

B250ST (Smart Kit): A collaborative product between PT Sari Bahari and a strategic partner from the United Arab Emirates (UAE). This device is a smart kit (comprising flight wings and a guidance unit) attached to a standard 250 kg bomb, enabling it to glide up to 50 km with high precision. Notably, the system is designed to be compatible with both NATO-standard fighter jets (such as the F-16) and Russian-standard aircraft (such as the Sukhoi).

Sukhoi Su-30MK2 – The roar of the Indonesian Air Force's Flanker, a steadfast guardian of the nation's airspace.

noreply@blogger.com (don75ers) — Sun, 26 Jul 2026 19:46:14 -0700

The Sukhoi Su-30MK2 is a multi-role fighter aircraft actively operated by the Indonesian Air Force (TNI AU). Based at Air Squadron 11, Sultan Hasanuddin Air Force Base (Lanud), Makassar.

The Sukhoi Su-30MK2 is a long-range, twin-seat multi-role fighter (strike fighter) designed for air superiority as well as ground and maritime strike missions. This Russian-made aircraft is equipped with state-of-the-art avionics and possesses a massive weapons payload capacity.

Key Technical Specifications:
Crew: 2 (Pilot and Weapon Systems Officer).

Dimensions: Length 21.9 meters, wingspan 14.7 meters, height 6.36 meters.

Engines: 2 × Saturn Lyulka AL-31F turbofans.

Maximum Speed: Mach 2 (approx. 2,120 km/h) at altitude.

Range: 3,000 km without aerial refueling.

Payload Capacity: Capable of carrying a weapon load of up to 8,000 kg.

Radar System: Uses the N001VEP radar, optimized for scanning aerial targets while simultaneously guiding anti-ship missiles.

Weaponry Systems:

The Su-30MK2 features 12 external weapon hardpoints for carrying combinations of missiles, rockets, and bombs:

Internal Cannon: 1 × 30mm GSh-30-1 autocannon (carrying 150 rounds).

Air-to-Air Missiles:

R-73 (AA-11 Archer): Short-range infrared-homing missile for close-range combat (dogfighting).

R-27 (AA-10 Alamo): Medium-range missile with semi-active radar or infrared guidance.

RVV-AE / R-77 (AA-12 Adder): Long-range missile with active radar guidance (fire-and-forget).

R-77 (AA-12 Adder)

Air-to-Surface Missiles (Ground Attack & Anti-Ship):

Kh-31A: Supersonic missile designed to strike surface ships.

Kh-31 Air to Surface Missile

Kh-31P: Anti-radiation missile for destroying enemy air defense radars.

Kh-29T and Kh-59ME: TV/laser-guided missiles for precision strikes against ground targets.

Kh-29T missile test firing

Bombs & Rockets:

Various conventional bombs (FAB series), laser-guided smart bombs (KAB-500/1500), and launchers. unguided rockets (S-8, S-13, S-25).

KAB-1500 Bom

The following is a brief chronology of the procurement of the Sukhoi family of aircraft (including the Su-30MK2 variant) by the Indonesian Air Force (TNI AU):

1. Initiation and Early Era (2003)

Background: An initial plan to purchase 12 Su-30KI units during President Soeharto's era (1996) was cancelled due to the monetary crisis. Execution: During President Megawati Soekarnoputri's term, a new contract was agreed upon directly with Russian President Vladimir Putin. Indonesia purchased the first four units—comprising two Su-27SKs and two Su-30MKs—for USD 192 million. These aircraft arrived in mid-2003 without a weapons package.

2. Addition of Modern Variants (2007–2010)

Under the administration of President Susilo Bambang Yudhoyono (SBY), Indonesia expanded this fighter jet fleet. In 2007, a contract worth USD 300 million was signed to purchase six additional fighter jets: three Su-27SKMs and three of the maritime strike variant, the Su-30MK2. All these aircraft were delivered in stages, with the process completed in 2010.

3. Completing a Full Squadron (2011–2013)

To achieve the ideal fleet size, the Ministry of Defence signed a follow-up contract worth USD 470 million to acquire six additional Su-30MK2 variant units. These six aircraft arrived in stages throughout 2013. With the arrival of this final batch, the TNI AU officially possessed a total of 16 Sukhoi-family fighter jets (a mix of Su-27 and Su-30 models), forming a full squadron within Air Squadron 11 at Sultan Hasanuddin Air Force Base.

The Formidable Weaponry of The Indonesian Air Force's (TNI-AU) Rafale fighter jets

noreply@blogger.com (don75ers) — Fri, 24 Jul 2026 21:17:57 -0700

The Indonesian Air Force's (TNI-AU) Rafale fighter jets can carry a variety of advanced weaponry, including Meteor missiles, AASM Hammer smart bombs, and the internal GIAT 30 cannon. This comprehensive weapons package was procured alongside the contract for the Rafale jets themselves. The government has officially showcased and handed over this modern weaponry to the Indonesian Air Force during a defense equipment handover ceremony.

- Meteor Missile (Air-to-Air):

The Meteor missile is currently the world's most lethal Beyond Visual Range Air-to-Air Missile (BVRAAM), manufactured by MBDA (a European consortium).

Key Advantages of the Meteor Missile:

High-Speed Aerial "Sniper": Capable of reaching speeds of Mach 4 (nearly 5,000 km/h) to intercept enemy aircraft from extreme distances.

Extreme Range: Boasts an operational firing range of 100–200 kilometers, allowing Rafale pilots to engage enemies beyond visual range.

Smart Ramjet Engine: Unlike conventional missiles that run out of fuel as they approach their target, the Meteor's ramjet engine provides constant thrust throughout the entire flight.

No-Escape Zone: Features the largest "no-escape zone" radius in its class (approximately 60 km), making it extremely difficult for enemy aircraft to evade, even with extreme maneuvering. The acquisition of this weapon is highly exclusive, as not all nations purchasing the Rafale are granted permission by the European manufacturer to possess this active radar-guided missile.

Indonesia has officially secured this long-range Beyond Visual Range (BVR) strike missile. The addition of the Meteor missile positions Indonesia as one of the fighter jet operators with the most lethal long-range air combat capabilities in the Indo-Pacific region.

- AASM Hammer Smart Bomb (Air-to-Ground):

The AASM Hammer is a modular, precision-guided smart bomb system manufactured by the French company Safran Electronics & Defense.

Key Features and Advantages of the AASM Hammer:

Hybrid Guidance System: Utilizes a sophisticated combination of GPS and INS (Inertial Navigation System). Advanced variants can be equipped with infrared sensors (for stationary targets like buildings or bridges) or laser sensors to engage moving targets such as combat vehicles.

Standoff Strike Capability: Equipped with a small rocket booster (range extension kit) and additional wings, the system boasts an operational range exceeding 60–70 km. Rafale pilots can release the bomb from a safe distance without entering the range of enemy radar or air defenses.

Launch Flexibility: Remarkably, the bomb can be released from very low altitudes or over rugged, hilly terrain, yet still climb and glide with precision toward the target.

High Payload Capacity: A single Indonesian Air Force (TNI-AU) Rafale fighter jet can carry up to six AASM Hammer bombs during a single tactical mission.

The variant officially acquired by the TNI-AU is the AASM-250 Hammer. This variant utilizes the standard NATO MK82 conventional bomb warhead, weighing approximately 250 kg (500 lbs). Notably, through a Technology Transfer (ToT) program, the Ministry of Defence has established a partnership to enable partial production of these smart bombs in Indonesia. PT Pindad is slated to manufacture the bomb bodies and handle explosive filling, while Safran (France) supplies the smart guidance and control systems.

- GIAT 30 Internal Cannon:

A 30mm caliber automatic cannon manufactured by Nexter (formerly GIAT Industries), France.

This cannon is specifically designed for close-range air combat (dogfighting) and high-speed tactical ground attacks.

The weapon is directly integrated into the airframe of every F4-standard Rafale aircraft.

Exceptional Rate of Fire: Capable of firing 2,500 rounds per minute. This extreme speed is crucial in modern air combat, as the firing window against a rapidly maneuvering enemy aircraft typically lasts less than one second. High Projectile Velocity: Projectiles travel at a muzzle velocity of 1,025 meters per second (exceeding Mach 3), ensuring high penetration power and accuracy. Ammunition Capacity: The Rafale carries 125 rounds of 30 × 150 mm ammunition. Although the quantity may seem modest, the rate of fire is optimized for short bursts—lasting approximately 0.5 to 1 second—which are highly lethal. Maximum Destructive Power: Uses Armor-Piercing Incendiary (API) or High Explosive Incendiary (HEI) ammunition.

A single hit or two from these large-caliber rounds is sufficient to destroy an enemy fighter jet or tear through light armored vehicles on the ground. Electric System Advantage: Unlike American fighter jet cannons (such as the M61 Vulcan) that utilize a rotating barrel system (Gatling gun), the GIAT 30 employs an electrically driven, single-barrel revolver system. This design eliminates the need for a barrel spin-up or "warm-up" period, allowing the first round to be fired instantly.

Russian/Chinese Flanker Family Fighter Aircraft: Su-27, J-11, Su-30, J-19

noreply@blogger.com (don75ers) — Tue, 21 Jul 2026 20:53:01 -0700

Russian/Chinese Flanker Family Fighter Aircraft: Su-27, J-11, Su-30, J-19

Broadly speaking, these aircraft share the same design lineage (the Sukhoi Su-27 Flanker family), yet they represent different generations, functions, and countries of origin. Key differences lie in their roles (air superiority vs. multi-role), avionics and radar technology, and the use of Chinese domestic components to replace Russian parts.

1. Sukhoi Su-27 (Russia) – "The Original Blueprint"

Context: This is the original base platform designed by the Soviet Union in the 1980s to counter the United States' F-15 fighter jet.

SU-27

Characteristics: Focused purely on air-to-air combat (air superiority). The aircraft is highly agile in maneuvering (dogfighting) but features outdated analog avionics and lacks optimal capability for dropping smart bombs on ground targets.

2. Shenyang J-11 (China) – "China's Domestic Version of the Su-27"

Context: China initially purchased Su-27s from Russia and subsequently obtained a license to assemble them domestically under the designation J-11A.

J-11

Development (J-11B): China later deviated from its licensing agreement and began producing the J-11B variant. While physically identical to the Su-27, its structural materials were lightened using carbon fiber, its engines were replaced with Chinese-made WS-10s, and its radar and cockpit systems were upgraded with Chinese electronic technology. Its primary role remains air superiority.

3. Sukhoi Su-30 (Russia) – "The Russian Two-Seat Strike Variant"

Context: Developed by Russia after recognizing the need for the Su-27 to possess ground and maritime strike capabilities (multi-role). Characteristics: This aircraft requires a two-seat configuration (pilot in front, weapons operator in the rear) to facilitate the division of tasks when engaging ground targets. China imported the Su-30MKK variant from Russia in the early 2000s before developing its own multi-role jets.

SU-30

4. Shenyang J-16 (China) – "The Ultimate Evolution"

Context: The J-16 is the product of combining the physical airframe characteristics of the Su-30MKK (twin-cockpit design and robust dual-wheel landing gear) with China's next-generation avionics technology.

Why is the J-16 Superior?:

The J-16 surpasses Russian Su-30 technology by integrating AESA radar (offering far more precise long-range detection and tracking, as well as resistance to signal jamming) and radar-absorbent airframe coatings (which absorb radar waves to reduce detectability). Its weaponry includes state-of-the-art Chinese missiles, such as the PL-15, which boasts a greater range than the missiles carried by the Russian Su-30.

J-16

Brief Conclusion

Ranked by technological evolution: Su-27 (Original Russian, Air-to-Air) → J-11 (Chinese version of the Su-27) → Su-30 (Russian evolution for ground attack) → J-16 (The pinnacle of Chinese modification, featuring the most modern radar and missiles).

The Shenyang J-11 (Jian-11) - China's version of the SU-27

noreply@blogger.com (don75ers) — Mon, 20 Jul 2026 19:57:38 -0700

The Shenyang J-11 (Jian-11) is a Chinese twin-engine air superiority fighter developed by Shenyang Aircraft Corporation. This fourth-generation aircraft was originally a license-built variant of the Russian Sukhoi Su-27SK, which was later modified and produced independently using domestically developed avionics and weapons.

History and Variants
Initially, China purchased a license from Russia in 1995 to produce 200 Su-27SKs. However, China canceled the license after assembling approximately 100 units due to the desire to use its own avionics and radar systems. This resulted in a fully locally developed variant, the J-11B.

Specifications

The initial variant (J-11A) used Russian components, while the modern variant (J-11B/BG) uses entirely domestic Chinese technology.
The following are the main technical specifications of the J-11 (based on the standard J-11B variant):
Physical Characteristics: Crew: 1 (or 2 for the J-11BS trainer/combat variant)
Maximum Takeoff Weight (MTOW): 33,000 kg

Combat Performance
Engine: 2 × Shenyang WS-10A Taihang turbofans (the J-11A variant uses the Russian Saturn AL-31F engine)
Maximum Speed: Mach 2.25 (approximately 2,500 km/h at altitude)
Combat Radius: 1,500 km without refueling in the air
Long Range (Ferry Distance): 3,530 km
Maximum Altitude: 19,000 meters (62,500 ft)
Rate of Climb: 300 m/s

Armament and Weapons
The J-11 has 10 hardpoints (hardpoints) on its fuselage and wings to carry a total weapons load of up to 8,000 kg, including:
Internal Cannon: 1 × 30 mm GSh-30-1 autocannon (with 150 rounds).
Air-to-Air Missiles:
J-11A: Russian R-77 (medium-range) and R-73 (short-range) missiles.
J-11B/BG: Chinese PL-12 or PL-15 (long-range active radar-guided) and PL-8 or PL-10 (short-range infrared) missiles.
Bombs & Rockets: Various types of laser- or satellite-guided smart bombs (KAB-500 or Chinese LT type) and unguided rocket launchers for ground attack.

Avionics and Radar

J-11B Radar: Uses a Chinese-made Type 1493 Pulse-Doppler radar capable of tracking up to 20 air targets simultaneously and engaging four of them simultaneously.
J-11BG Radar (Modernized): Uses a modern, advanced AESA (Active Electronically Scanned Array) radar that is resistant to electronic jamming and has a much wider detection range.
Optical System: Equipped with an electro-optical sensor (IRST) device in front of the cockpit to track enemy aircraft through engine heat without turning on the radar (silent mode).

The only country currently using the Shenyang J-11 fighter jet is China.
The estimated total number of Shenyang J-11 fighter jets currently in service with the Chinese military is between 300 and 440.

This fighter jet is not exported to other countries, and no other country plans to use it. This is due to several main reasons:
License Agreement with Russia: The J-11 was born from a license for a Russian-made aircraft, the Sukhoi Su-27SK. Under the initial agreement with Sukhoi, China was prohibited from exporting these Flanker-based imitation platforms to the international market to avoid direct competition with the indigenous Russian fighter jets.
Domestic Defense Priorities: The J-11 variants (primarily the J-11B and J-11D) were specifically designed to meet the air superiority requirements of the PLAAF and PLAAF.

Iranian Civilian Aircraft Missile Shot by US Warship (Iran Air - 655)

noreply@blogger.com (don75ers) — Sun, 19 Jul 2026 20:42:58 -0700

The Iran Air Flight 655 tragedy was the shooting down of an Iranian civilian commercial airliner by the United States warship USS Vincennes over the Persian Gulf on July 3, 1988. This tragic incident killed all 290 passengers and crew, including 66 children and infants.

illustration

Brief Chronology of Events

Flight Route: The Iran Air Airbus A300 took off from Bandar Abbas, Iran, bound for Dubai, United Arab Emirates.

Gulf Conflict: At the time, the Persian Gulf situation was tense due to the Iran-Iraq War. The USS Vincennes was engaged in a firefight with Iranian military speedboats.

Mistaken Identification: The USS Vincennes crew detected the aircraft through its Aegis radar system but mistakenly identified it as an Iranian F-14 Tomcat fighter jet preparing to attack.

USS Vincennes

Missile Execution: The captain of the USS Vincennes, William Chapel Roger III (Capt. Will Rogers), ordered the missile launch. A US warship fired two RIM-66 Standard MR (SM-1MR) surface-to-air missiles, instantly destroying the aircraft in mid-air over the Strait of Hormuz.

RIM-66 Standard MR (SM-1MR) surface-to-air missiles

Impact and Aftermath

Losses: A total of 290 people died, making it one of the deadliest aviation disasters in history.

The majority of victims were Iranian citizens (254), followed by citizens of the United Arab Emirates, India, Pakistan, Yugoslavia, and Italy.

Debris of Iran Air Flight 655

United States Position: The US government expressed deep regret for the loss of civilian life, but never issued a formal apology for the military action.

Compensation: Through a 1996 settlement at the International Court of Justice, the US agreed to pay $61.8 million in compensation to the families of the Iranian victims.

HMS HOOD - "The Mighty Hood" Symbol of British Maritime Power

noreply@blogger.com (don75ers) — Thu, 9 Jul 2026 21:27:25 -0700

HMS Hood (51) was an Admiral-class battlecruiser of the Royal Navy, built at the end of World War I. She was renowned as a symbol of British maritime power and held the title of the world's largest warship for 20 years after being commissioned in 1920. Due to her size and formidable reputation, the British nicknamed her "The Mighty Hood."

Here are key points about the history and specifications of HMS Hood:

Design and Characteristics:

Type of Ship: Battlecruiser, designed to have the high speed of a cruiser but with the heavy armament of a battleship.

Main Armament: Equipped with eight 15-inch (381 mm) guns mounted in four double turrets.

Speed: Capable of a top speed of up to 32 knots (approximately 59 km/h), making it one of the fastest capital ships of its time.

Military Role and Service

Naval Diplomacy: Throughout the 1920s and 1930s, HMS Hood served as the flagship, frequently undertaking Empire Cruises to showcase British military might.

World War II: At the outbreak of war, the ship actively operated in the Atlantic Ocean, escorting convoys and hunting German warships.

Tragedy of the Battle of the Denmark Strait

Sink: HMS Hood's tragic end occurred on May 24, 1941, during the Battle of the Denmark Strait.

Cause: While attempting to engage the modern German battleship Bismarck, a single shot from the Bismarck penetrated Hood's ammunition magazine. The massive explosion instantly tore the ship apart, and Hood sank in less than three minutes.

Casualties: Of the 1,418 crew members, only three survived. This incident became one of the greatest maritime disasters and losses in the history of the Royal Navy.

The wreck of HMS Hood was finally discovered in July 2001 at a depth of approximately 2,800 meters on the seabed of the Denmark Strait.

World Special Forces Combat Tactics

noreply@blogger.com (don75ers) — Mon, 6 Jul 2026 03:18:52 -0700

World Special Forces combat tactics center on the principles of high efficiency, speed, and extreme secrecy to accomplish missions impossible for regular troops.

Here is an overview of the main combat tactics they employ in the field:

1. CQB (Close Quarters Battle) & Urban Combat

Short Room Clearance: The technique of clearing a building or room in seconds using special formations (such as Fatal Funnel and Room Clearing).

Instant Surprise: Using stun bombs (flashbangs) to blind the enemy before simultaneously breaking in.

High Accuracy: Reflexive shooting with precision aiming at very close range to avoid civilian casualties.

2. Three-Dimensional Infiltration (Land, Sea, Air)

Air (HAHO = High Altitude High Opening/HALO = High Altitude Low Opening): Parachuting from extreme altitudes (up to 30,000 feet) to infiltrate enemy territory undetected by airborne radar.

Sea (Diving Frog): Infiltrate using a submarine or mini underwater vehicle, then swim silently to the enemy's shore using special rebreather diving equipment.

Land (Silent Infiltration): Move in small teams (usually 4–8 people) through rough terrain at night with the aid of night vision goggles.

3. Counter-Terrorism Operations & Hostage Rescue

Simultaneous Attack: Storm a target from multiple entry points simultaneously (doors, windows, roofs) to break the enemy's focus.

Real-Time Intelligence: Use micro drones, thermal sensors, and signal intercepts to determine the enemy's position before attacking.

Lightning Extraction: Rescue hostages and immediately leave the location using a stealth helicopter within minutes of neutralizing the target.

4. Psychological Warfare & Combat Intelligence

Sabotage Behind Enemy Lines: Covertly destroy enemy supply chains, communication lines, or weapons depots without triggering open warfare.

Long Range Reconnaissance: Disguising and blending into the local environment for weeks to map out enemy forces before the main force moves.

The five most effective and deadly special forces

noreply@blogger.com (don75ers) — Thu, 2 Jul 2026 19:04:41 -0700

The most effective and deadly special forces today are the Navy SEALs (particularly Team 6) of the United States and the Special Air Service (SAS) of the United Kingdom, due to their global operational track record, mission success rate, and extreme selection and training standards. Here is a list of elite forces recognized worldwide for their effectiveness and combat capabilities:

Navy SEALs (United States): Famous for high-profile global counter-terrorism operations (such as the hunt for Osama bin Laden / Operation Neptune Spear (2011)) and top-secret international hostage rescue missions. Their "Hell Week" training is one of the toughest measures of mental and physical endurance in the world.

Special Air Service (SAS) (United Kingdom): Pioneers of modern warfare tactics and global counter-terrorism. The SAS is known for its motto "Who Dares Wins" and has a brutal selection process, selecting only the best candidates.

Example of a successful mission: Operation Nimrod (1980), the rescue of 26 hostages from the Iranian Embassy in London, which was seized by terrorists.

Sayeret Matkal (Israel): A highly reliable reconnaissance and counter-terrorism unit in the Middle East, known for its expertise in hostage rescue operations abroad with highly tactical planning.

Example of a successful mission: Operation Thunderbolt / Entebbe (1976), the rescue of More than 100 Jewish hostages were held on a hijacked plane parked at Entebbe Airport, Uganda.

GIGN (France): One of the most respected counter-terrorism units, with a historically remarkable record of success in handling hostage crises.

Successful missions: Rescue of an Air France Airbus A300 (1994), Freeing all 229 passengers on Air France Flight 8969, which was hijacked by heavily armed terrorists in Marseille.

Kopassus (Indonesia): Globally recognized, these Red Berets hold a very high ranking (once ranked as one of the 5th best in the world). Their prowess is recognized in history for Operation Woyla (1981), which successfully freed hostages from a hijacked plane in a record time of less than 5 minutes (3 minutes).

Freeing hostages on a Garuda Indonesia DC-9 "Woyla" hijacked by radical groups at Don Mueang Airport, Bangkok, Thailand.

Tactical Vehicles, Armored Personnel Carriers (APC), and Tanks Produced in Indonesia

noreply@blogger.com (don75ers) — Wed, 1 Jul 2026 23:48:29 -0700

Indonesia produces various tactical vehicles, armored personnel carriers (APC), and tanks through its domestic defense industry, primarily PT Pindad. This industry continues to grow to meet the needs of the Indonesian National Armed Forces (TNI) and the export market.

The following is a complete list of tactical vehicles, APC, and tanks produced in Indonesia, along with their manufacturers:

Tank

Tiger (Harimau) Medium Tank: Produced by PT Pindad in collaboration with the Turkish company FNSS. This tank is equipped with a 105mm cannon and is specifically designed for tropical terrain.

Harimau Medium Tank

Armored Personnel Carrier (APC)

Anoa 6x6: Produced by PT Pindad. This wheeled armored vehicle has various variants, including personnel carriers, ambulances, command vehicles, and logistics vehicles.

Anoa 6x6

Badak 6x6: Produced by PT Pindad. This vehicle is a penetration/fire support variant equipped with a 90mm Cockerill cannon turret.

Badak 6x6

Sanca 4x4: Produced by PT Pindad in collaboration with Thales Australia. This vehicle is a mine-resistant armored vehicle (MRAP) based on the Bushmaster platform.

Sanca 4x4

Tactical Vehicles

Maung 4x4: Produced by PT Pindad. This light vehicle is designed for close-quarters combat and rapid mobilization in difficult terrain.

Maung 4x4

Komodo 4x4: Produced by PT Pindad. This reconnaissance vehicle has a bullet-resistant armored body and a missile-launching variant (Mistral).

Komodo 4x4 + Mistral

ILV (Indonesian Light Strike Vehicle): Produced by PT Jala Berikat Nusantara Perkasa. This light assault vehicle is used by special forces for rapid operations.

ILV

P6 ATAV: Produced by PT Sentra Surya Ekajaya (SSE Defence). This light attack vehicle (all-terrain assault vehicle) is widely used by Kopassus and Paskhas.

P6 ATAV

P2 Pakci: Produced by PT Sentra Surya Ekajaya (SSE Defence). This light armored vehicle is designed for tactical police and military needs.

P2 Pakci

The KJ-2000 - Mainring

noreply@blogger.com (don75ers) — Tue, 30 Jun 2026 21:17:56 -0700

The KJ-2000 (NATO reporting name: Mainring) is a second-generation airborne early warning and control (AEW&C/AWACS) aircraft developed by China for the People's Liberation Army Air Force (PLAAF). It serves as a strategic "eye in the sky" to detect enemy targets and coordinate fighter jets on the battlefield.

Key points about the KJ-2000 military aircraft are as follows:

Development & Airframe

Il-76 Base: The KJ-2000 is built using a modified airframe from the Russian Ilyushin Il-76 heavy transport aircraft.

Quantity Limitations: Due to its heavy reliance on the supply of Il-76 airframes from Russia, the number of KJ-2000s produced is very limited (estimated at only 4-5 units).

Maiden Flight: The aircraft successfully made its maiden flight in 2003.

Radar System & Capabilities

Fixed AESA Radar: Unlike Western AWACS aircraft (such as the E-3 Sentry) whose radar dishes rotate, the circular radome atop the KJ-2000 is static (non-rotating). It houses three Active Electronically Scanned Array (AESA) antennas arranged in a triangle to provide full 360-degree radar coverage.

Detection Range: This radar system, designed by NRIET (Nanjing Research Institute of Electronic Technology), is capable of tracking airborne targets up to a maximum range of 470 kilometers.

Multi-Target: The KJ-2000 is capable of simultaneously tracking and following dozens to hundreds of targets in the air, including detecting low-flying cruise missile threats.

Successors to the KJ-2000

Due to supply constraints on large commercial airframes from abroad, China subsequently developed new early warning aircraft variants based on domestically designed aircraft, such as the KJ-500 (based on the Shaanxi Y-9) and the KJ-600 for carrier operations.

The Sukhoi Su-47 Berkut

noreply@blogger.com (don75ers) — Mon, 29 Jun 2026 03:03:40 -0700

The Sukhoi Su-47 Berkut is an experimental supersonic technology demonstrator developed by JSC Sukhoi Company in Russia. This aircraft is iconic and easily recognizable due to its unique forward-swept wing configuration. Characteristics and Key Facts: Development Purpose: Designed from the outset as a testbed and technology foundation, not for mass production as an operational fighter jet.

Wing Design: The inverted wing design provides exceptional agility and maneuverability at extreme angles of attack. Performance: Capable of reaching a supersonic cruise speed of 1,800 km/h.

Technological Legacy: The advanced technology and composite materials tested on the Su-47 later became a crucial foundation for the development of Russian fifth-generation fighter jets such as the Sukhoi Su-57.

The development history of the Sukhoi Su-47 Berkut is one of the most ambitious and dramatic stories in the Russian military aerospace industry. The project evolved from Cold War ambitions to its survival amidst the economic crisis following the collapse of the Soviet Union.

Here is a chronological timeline of the Su-47's development history:

1. Project Origins (1980s) 1983 — Soviet Air Force Order: The project was officially launched by order of the Soviet Air Force. Sukhoi was tasked with researching the potential benefits of a forward-swept wing configuration. Preliminary Design (S-32): In its initial phase, the design was codenamed S-32. Sukhoi aimed to achieve close-range dogfighting capabilities unmatched by Western fighter jets.

2. Collapse of the Soviet Union & Financial Crisis (1991) State Funding Freeze: When the Soviet Union collapsed in 1991, the Russian economy experienced a severe crisis. Military budgets were slashed, and state funding for the S-32 project was officially frozen.

Sukhoi's Self-Funding: Realizing that this research was too valuable to waste, the Sukhoi Company took a bold step. They self-funded the continuation of the project using profits from export sales of Sukhoi Su-27 fighter jets abroad.

3. Transformation into the S-37 and First Flight (1996–1997)

1996 — Leak: The existence of this secret project was accidentally revealed when a photograph of a miniature black model of the aircraft with the number "32" on his desk appeared in a Russian military magazine. The design code was later changed to S-37.

September 25, 1997 — First Flight: The first (and only) physical prototype successfully took off for the first time, piloted by test pilot Igor Kozintsev (some accounts say Igor Votintsev). The aircraft was powered by a pair of Soloviev D-30F6 engines borrowed from a MiG-31 interceptor as a temporary solution.

4. Becoming the Su-47 and Supersonic Testing (2000–2002)

August 2000 — Breaking the Supersonic Limit: The S-37 successfully completed its first supersonic flight test.

2002 — Rebranding to Su-47: Sukhoi officially changed the aircraft's codename from S-37 to Su-47 Berkut to enhance its international marketing appeal and affirm its status as the pinnacle of Russian aerospace innovation.

5. End of Program and Technological Legacy Despite its impressive displays at the MAKS airshow in Moscow, material limitations at the time meant the inverted wing was subjected to excessive wing-twisting at high speeds. Due to maintenance costs and the risk of wing fatigue, the project never progressed to mass production. The sole surviving Su-47 was converted into a "flying laboratory." Through this laboratory, test data on composite materials, internal weapons bays, and digital fly-by-wire systems were directly translated into the development of Russia's current modern stealth jet, the Sukhoi Su-57.

Guided artillery shells (munitions) - M982 Excalibur, 2K25 Krasnopol, Leonardo Vulcano

noreply@blogger.com (don75ers) — Fri, 26 Jun 2026 01:26:44 -0700

Guided artillery shells (or munitions) are modern artillery projectiles equipped with an internal guidance system to change their flight direction in mid-air to hit targets with a very high degree of accuracy. Unlike conventional artillery shells, which rely on calculated firing angles and are susceptible to misses due to wind or weather factors, these smart munitions can self-correct their trajectory after being fired from the cannon barrel.

Guidance System Types

Satellite System (GPS/INS): Uses global positioning coordinates to guide the projectile directly to a predetermined stationary target.

Laser Guidance (Semi-Active Laser): Requires a ground operator or drone to "spotlight" the target using a laser beam. The bullet's sensor then tracks the laser reflection, making it highly effective against moving targets.

Self-Sensing Guidance (Infrared/Radar): Equipped with a self-contained seeker to automatically detect the heat signature (infrared) or radar of enemy armored vehicles.

Examples of Popular Guided Artillery Rounds

Some of the most well-known guided artillery munitions used in modern combat include:

M982 Excalibur

M982 Excalibur (United States/Sweden)

Caliber: 155mm.

Guidance System: GPS and Inertial Guidance.

Advantages: Compatible with modern howitzer systems such as the M777 and CAESAR, it boasts extreme accuracy with a radius of error of less than 2 meters.

2K25 Krasnopol

2K25 Krasnopol (Russia)

Caliber: 152mm or 155mm.

Guidance System: Semi-automatic laser.

Advantages: Extremely lethal against moving vehicles such as tanks because the round travels directly to the target's laser beam.

Leonardo Vulcano

Leonardo Vulcano (Italy)

Caliber: 127mm (naval) and 155mm (land artillery).

Guidance System: GPS/INS combined with optional laser guidance.

Advantages: Uses a sub-caliber, sabot-loaded design, allowing it to achieve extremely long ranges (up to 70 km).

Key Advantages in Combat

Logistical Efficiency: Drastically reduces the number of rounds fired; one smart round is often sufficient to replace dozens of conventional rounds.

Reduced Collateral Damage: High accuracy ensures military targets are destroyed without excessive damage to surrounding civilian areas.

Surprise Effect: Capable of destroying high-value enemy targets (such as command posts or radars) with the first shot.

The Northrop Grumman B-21 Raider

noreply@blogger.com (don75ers) — Wed, 24 Jun 2026 18:07:43 -0700

The Northrop Grumman B-21 Raider is a sixth-generation stealth strategic bomber developed for the United States Air Force (USAF). Designed to carry both conventional and nuclear weapons, it spearheads the US's long-range strike force, capable of penetrating the world's most robust air defenses.

Stealth Technology & Capabilities: Features an updated flying wing design with advanced radar-absorbing materials, making it highly difficult to detect.

Range & Flexibility: It has a very long range and is designed to be less reliant on tanker aircraft, allowing it to operate for extended periods in a variety of mission zones.

Operational & Crewing: The aircraft has a two-pilot capacity (although it can be flown by a single pilot) and is also designed with potential unmanned autonomous capabilities.

Naming: The name "Raider" honors the historic Doolittle Raid of World War II.

Launch & Delivery Status: First introduced in December 2022. The aircraft is currently in mass production and is scheduled to enter service at US military bases in 2027.

The Northrop Grumman B-21 Raider development process is highly classified but tightly structured.

1. Initial Development Timeline

2011–2015 (Initiation & Contracting): The US Air Force (USAF) began planning the long-range bomber program in 2011. In October 2015, Northrop Grumman won the prime contract to develop the aircraft.

December 2022 (Public Launch): The first B-21 Raider prototype is officially unveiled to the public for the first time at the Palmdale, California, production facility.

November 2023 (First Flight): The B-21 Raider successfully conducts its first test flight from Palmdale to Edwards Air Force Base to begin the intensive air testing phase.

2. Modern Development Methods (Digital Engineering)

One of the main reasons why the B-21's development has not experienced significant delays (unlike the F-35 fighter jet) is the use of digital technologies:

Digital Twin: The aircraft was designed and tested virtually thousands of times before a physical replica was built.

Open Systems Architecture: The bomber's software is designed for easy updating. If new radar or weapons technology emerges in the future, engineers can simply add new programs without having to physically disassemble the aircraft.

Isolated Avionics Testing: Before flight, the B-21's navigation and computer systems underwent over 1,000 hours of testing using a modified commercial aircraft as a flying laboratory.

3. Current Production Status

The B-21 Raider program has shifted from the experimental phase to the Low-Rate Initial Production (LRIP) Phase.

Massive Funding: The U.S. government is providing an additional $4.5 billion to accelerate manufacturing capacity. At the same time, Northrop Grumman is investing up to $3 billion independently to upgrade its manufacturing infrastructure.

Production Quota Increase: Consistently positive testing has led the US military to request an increase in production from 10 units per production batch to 12 units per production batch.

Operational Target: The first operational delivery to Ellsworth Air Force Base remains on schedule for 2027. The USAF is committed to purchasing a minimum of 100 aircraft, with the potential to increase to 145 aircraft in the future.

Scorpène-class submarines - Indonesian Project (Scorpène Evolved)

noreply@blogger.com (don75ers) — Tue, 23 Jun 2026 21:04:47 -0700

The Scorpène-class submarines are a class of modern diesel-electric attack submarines jointly developed by France's Naval Group (formerly DCNS) and Spain's Navantia shipyard. These stealthy submarines are designed for multi-role operations, including anti-ship warfare, anti-submarine warfare, special operations, and intelligence gathering.

Indonesian Project (Scorpène Evolved)

Indonesia, through the Ministry of Defense, has officially activated the procurement contract for two of the latest variant of the Scorpène Evolved submarines. Through a transfer of technology (ToT) system, these submarines are being built entirely domestically by PT PAL Indonesia in Surabaya in collaboration with Naval Group.

The project has entered the initial steel cutting qualification phase and is targeted to begin full physical construction by the middle of this year.

Key Specifications & Advantages

Dimensions & Weight: Approximately 71 to 72 meters long with a displacement ranging from 1,600 to 2,000 tons.

Battery Technology: The Indonesian Scorpène Evolved variant uses advanced Lithium-Ion (LiB) Battery technology. This technology provides high power efficiency and enables underwater operations of up to 80 days.

Diving Capability & Speed: Capable of diving to depths of more than 300–350 meters with a maximum speed of over 20 knots while submerged.

Armament: Equipped with six launch tubes that can carry up to 18 heavy weapons, including a combination of torpedoes, anti-ship missiles, and sea mines.

Combat Management System: Integrates the SUBTICS automated tactical system that combines command and weapon control data, and acoustic sensors, resulting in a crew of only approximately 31 to 32.

Global Users

Besides Indonesia, which is currently developing its own, the Scorpène-class submarine has been successfully operated and built by several other maritime nations:

India: Building six submarines under Project P-75 (the final unit, INS Vaghsheer, was delivered in early 2025).

Brazil: Operating the larger Riachuelo-class Scorpène.

Malaysia: Operating two Scorpène-class submarines, delivered in 2009 and 2010.

Chile: Became the first country to order and operate this class.

Russian Tu-160M VS US B-1B Lancer

noreply@blogger.com (don75ers) — Mon, 22 Jun 2026 23:23:17 -0700

Despite their very similar visual design with variable-sweep wings, the Russian Tu-160M is much larger, faster, and retains strategic nuclear capability, while the US B-1B Lancer is smaller, slower, and has been fully modified for conventional, non-nuclear missions. The Tu-160 was designed as a launch platform for long-range nuclear-tipped cruise missiles, firing from a safe distance, while the B-1B Lancer was originally designed for low-level supersonic air penetration but is now tasked with dropping conventional smart bombs in conflict zones.

Here are the key differences between the two supersonic heavy bombers:

Specifications and Key Characteristics Comparison

Size & Weight

Tupolev Tu-160M: Much larger; maximum takeoff weight exceeds 275,000 kg.

Rockwell B-1B Lancer: Smaller; maximum takeoff weight is approximately 216,000 kg.

Maximum Speed

Tupolev Tu-160M: Reaches Mach 2.05 (Highly supersonic at high altitude).

Rockwell B-1B Lancer: Limited to Mach 1.25 (Optimized for low speeds near the ground).

Tu-160M

Nuclear Capability

Tupolev Tu-160M: Retains nuclear option (Carries Kh-102 nuclear cruise missiles).

Rockwell B-1B Lancer: Completely nuclear-free (Conventional weapons only since the START treaty).

Primary Role

Tupolev Tu-160M: Stand-off Missile Carrier (Launches missiles from safe areas).

Rockwell B-1B Lancer: Tactical/Strategic Penetrator (Direct conventional precision bombing).

Crew Size: 4 personnel in all aircraft

Differences in Design and Operational Philosophy

Dimensions and Speed: The Tu-160M (nicknamed the White Swan) has a 20% larger fuselage than the B-1B Lancer. The Tu-160M's engines are much more powerful, allowing it to reach twice the speed of sound (Mach 2) to escape after launching a missile. In contrast, the B-1B Lancer sacrifices high speed for a smaller radar cross-section (RCS) design to make it less detectable by enemy radar.

B1B LANCER

Armament Type: The Tu-160M relies on internal rotary launchers carrying long-range cruise missiles such as the Kh-101 (conventional) and Kh-102 (nuclear). The B-1B Lancer has a more flexible internal payload capacity to carry up to 24 satellite-guided smart bombs (JDAMs), conventional bombs, or long-range anti-ship missiles.

Modernization: The Tu-160M variant is the latest Russian upgrade equipped with new NK-32-02 engines, fully digital avionics, and modern radar defense systems. Meanwhile, the US Air Force's (USAF) B-1B Lancer fleet continues to undergo radar system upgrades and the integration of advanced conventional weapons, although it is planned to be gradually retired as the future B-21 Raider stealth bomber becomes fully operational.

The Cheongung Missile System II (MSAM-II)

noreply@blogger.com (don75ers) — Fri, 19 Jun 2026 20:37:13 -0700

The Cheongung Missile System II (MSAM-II) is a semi-mobile, medium-range surface-to-air missile (SAM) system developed by South Korea. It was designed by the Agency for Defense Development (ADD) and manufactured by defense company LIG Nex1. This sophisticated weapon functions to intercept air targets such as jet aircraft, helicopters, and enemy ballistic missiles.

Main and Technical Components

Each Cheongung II system battery is an integrated combat unit:

Launch Vehicle: Using the KIA 8x8 KM1500 military truck platform that carries a vertical missile container.

Multifunction Radar: Equipped with active homing radar technology to detect and track multiple targets at once.

Fire Control Center: Mobile command unit to monitor the defense situation and execute launches.

Logistics Vehicle: Consisting of a transloader truck and an independent power generation unit.

Main Features of the Cheongung II

System Advanced Technology: Adopting the technology base of famous Russian air defense systems such as the S-350E and S-400 in collaboration with Almaz-Antey.

Interception Capability: Capable of destroying air threats with a highly accurate hit-to-kill method.

High Mobility: All components are mounted on heavy-duty wheeled vehicles so they are easy to move to various battlefields.

Status International Operations: This system has proven its effectiveness in real-world combat and has attracted the interest of many countries:

United Arab Emirates & Saudi Arabia: Have successfully used this system to intercept regional air attack threats.

Indonesia: Based on a Jane's defense intelligence report, the Indonesian Ministry of Defense has issued a Letter of Intent (LOI) to explore the acquisition of this defense system to modernize the national defense equipment.

Development of the Cheongung II Missile System (MSAM-II)

1. Initial Collaboration with Russia (Cheongung I Era)

The development of the system's foundation began through a strategic partnership between South Korea's Agency for Defense Development (ADD) and the legendary Russian defense manufacturers Almaz-Antey and Fakel. South Korea adopted the 9M96 missile technology base used in the Russian S-350E and S-400 defense systems. Through this collaboration, South Korea successfully localized the software and multifunctional radar technology. The results of this initial phase gave birth to the Cheongung I (KM-SAM Block I), which officially entered service in 2015/2016, but its capabilities at that time were still limited to downing enemy conventional fighter aircraft at altitudes of approximately 20–40 km.

2. Technological Leap to Cheongung II (Starting in 2012)

The Cheongung II (KM-SAM Block II) project was initiated in 2012 to upgrade its function from mere anti-aircraft to tactical ballistic missile interception. Successful Test: In 2016, the missile prototype achieved a 100% intercept success rate in dozens of test firings at the Anheung test center. Declared Combat Ready: In June 2017, the South Korean military declared the system ready for mass production. The South Korean Army received its first operational battery in late 2020.

3. Two-Stage Modernization Phase & KAMD Integration (2024–2027)

The Defense Acquisition Program Administration (DAPA) divides the Cheongung II modernization roadmap into two major parts:

First Phase (Completed 2024): Complete the core development of the self-propelled launcher unit and the production of the main interceptor system.

Second Phase (Starting July 2025 - Target 2027): The South Korean government is allocating a budget of KRW 644 billion to conduct a mass upgrade of the old Cheongung I fleet directly to the Cheongung II standard. The upgrade focuses on improving the battle control station and embedding an advanced multifunctional AESA Radar to expand the low-flying detection range while tracking simultaneous targets with precision. KAMD System: Cheongung II is integrated as a low-altitude bastion of the national layered air defense ecosystem called Korea Air and Missile Defense (KAMD) along with L-SAM missiles.

4. Real-Time Combat Proofing (March 2026)

The system's development achieved its highest level of validation when the United Arab Emirates' (UAE) Cheongung II battery faced its first real-time combat encounter against ballistic missile and drone attacks. The system recorded a 96% operational interception success rate, earning it combat-proven status and boosting its popularity in the global export market.