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

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

 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

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

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.