Rudram Series Anti-Radiation Missiles: India’s Radar-Killing Air-to-Surface Solution


Rudram Series Anti-Radiation Missiles: India’s Radar-Killing Air-to-Surface Solution


The Rudram series (Sanskrit for “Roaring”) is a family of air-to-surface anti-radiation missiles (ARMs) developed by India’s Defence Research and Development Organisation (DRDO). Designed to neutralize enemy radar systems, communication networks, and other electromagnetic-emitting targets, the Rudram missiles are critical for Suppression of Enemy Air Defences (SEAD) and Destruction of Enemy Air Defences (DEAD) missions. The series, comprising Rudram-1, Rudram-2, and the under-development Rudram-3, enhances the Indian Air Force’s (IAF) ability to penetrate heavily defended airspace and strike high-value targets.

The Rudram-2, with an extended range of approximately 300 km, represents a significant advancement over its predecessor, Rudram-1, which has a range of 100–150 km. Equipped with advanced seekers, including Imaging Infrared (IIR) and Passive Homing Head (PHH), the Rudram series enables precise targeting of enemy radar and communication systems, even when they are switched off, using inertial navigation and memory tracking. Recent developments, such as the successful test of Rudram-2 in May 2024 and planned trials in 2025, underscore its growing role in India’s military modernization.

This article provides a detailed analysis of the Rudram series, covering its technical specifications, development history, strategic importance, recent tests, and future potential. Optimized for SEO, it serves as a definitive resource for defense enthusiasts, policymakers, and researchers seeking insights into India’s anti-radiation missile capabilities.


Origins of India’s Anti-Radiation Missile Ambitions

India’s pursuit of anti-radiation missile technology emerged in the 2000s as part of its broader effort to enhance air-to-ground strike capabilities. The IAF, tasked with countering advanced air defense systems fielded by adversaries like Pakistan and China, recognized the need for a dedicated ARM to neutralize enemy radar and communication networks. At the time, India relied on imported munitions, such as the Russian Kh-31P, for SEAD missions, which posed challenges in terms of cost, availability, and customization.

The Rudram program, initiated by DRDO in the early 2010s, aimed to develop an indigenous ARM capable of targeting a wide range of electromagnetic-emitting assets, including surveillance radars, fire control radars, and command-and-control centers. The program leveraged India’s expertise in missile technology, gained through projects like BrahMos, Akash, and Nag, to create a versatile, cost-effective solution for the IAF. The Rudram series was designed to be launched from frontline fighters like the Sukhoi Su-30 MKI, Mirage 2000, and potentially HAL Tejas, ensuring compatibility with India’s diverse aircraft fleet.

Evolution of the Rudram Missile Family

The Rudram series has progressed through several variants, each addressing specific operational requirements:

  • Rudram-1: The baseline variant, with a 100–150 km range, designed for SEAD missions. Successfully tested in 2020 and cleared for production.
  • Rudram-2: An advanced variant with a 300–350 km range, featuring dual configurations for anti-radiation and ground-attack roles. Tested in May 2024, with further trials planned for 2025.
  • Rudram-3: A hypersonic variant under development, with a reported range of 500–550 km, aimed at countering advanced air defense systems.
  • Ground-Based Rudram-2: A proposed surface-launched version, under consideration as of September 2024, for enhanced flexibility.

Key milestones include the first Rudram-1 test in 2014, operational validation in 2020, and the Rudram-2’s successful flight test in May 2024, which achieved a miss distance of less than 5 meters. The program’s focus on indigenization, with over 90% local content, aligns with India’s Make in India initiative.


The Rudram series is designed for precision strikes against enemy radar and communication systems. Below is a detailed breakdown of the specifications for each variant, based on verified data from credible sources.

1. Rudram-1

  • Type: Air-to-Surface Anti-Radiation Missile
  • Range: 100–150 km (some sources report up to 250 km depending on launch altitude)
  • Speed: Mach 2 (approximately 2,400 km/h)
  • Length: ~5.5 meters
  • Diameter: 0.3 meters
  • Weight: ~600 kg
  • Warhead: 60–200 kg (Pre-Fragmented or High-Explosive, depending on mission)
  • Propulsion: Solid-fuel rocket motor
  • Guidance:
    • Primary: Passive Homing Head (PHH) for anti-radiation missions, detecting radio frequency (RF) emissions
    • Secondary: Inertial Navigation System (INS) with GPS updates for memory tracking
  • Maneuverability: Up to 20g, capable of engaging moving or switched-off targets
  • Launch Platform: Sukhoi Su-30 MKI, Mirage 2000, HAL Tejas (planned)
  • Launch Altitude: 1–15 km
  • Accuracy (CEP): <5 meters, validated in 2020 tests
  • Status: Operational, production underway by Bharat Dynamics Limited (BDL)
  • Engagement Conditions: All-weather, day/night
  • Targets: Surveillance radars, fire control radars, communication hubs, bunkers

Overview: Rudram-1 is India’s first indigenous ARM, designed for SEAD missions to neutralize enemy air defense radars. Its PHH seeker detects RF emissions from distances exceeding 100 km, while INS and memory tracking enable strikes on targets that switch off their radars to evade detection. The missile’s Mach 2 speed and 100–150 km range allow IAF fighters to engage from safe standoff distances.

Strategic Role: Rudram-1 enables the IAF to disrupt enemy air defenses, paving the way for follow-on strikes by aircraft or missiles. Its integration with the Su-30 MKI enhances India’s offensive capabilities against adversaries like Pakistan’s HQ-9 and China’s S-400 systems.

2. Rudram-2

  • Type: Air-to-Surface Anti-Radiation and Ground-Attack Missile
  • Range: 300–350 km
  • Speed: Mach 2–5.5 (supersonic, with hypersonic potential in some configurations)
  • Length: ~6 meters
  • Diameter: ~0.3 meters
  • Weight: ~700 kg
  • Warhead: 60–200 kg (Pre-Fragmented, High-Explosive, or Thermobaric, configurable)
  • Propulsion: Dual-pulse solid-fuel rocket motor
  • Guidance:
    • Anti-Radiation: Passive Homing Head (PHH) with wideband RF detection
    • Ground-Attack: Imaging Infrared (IIR) seeker for precision strikes
    • Secondary: INS/GPS with memory tracking and data-link updates
  • Maneuverability: Up to 25g
  • Launch Platform: Sukhoi Su-30 MKI, Mirage 2000, HAL Tejas, MiG-29K (planned)
  • Launch Altitude: 3–15 km
  • Accuracy (CEP): <5 meters, validated in May 2024 tests
  • Status: Successfully tested in May 2024, advanced trials planned for 2025
  • Engagement Conditions: All-weather, day/night
  • Targets: Radars, communication systems, command centers, bunkers, hardened targets

Overview: Rudram-2 is an advanced variant with dual configurations: one for anti-radiation missions and another for ground-attack roles. Its extended 300–350 km range and IIR seeker enable precise strikes against a variety of targets, including those in heavily defended areas. The missile’s dual-pulse motor enhances range and terminal-phase maneuverability, while its ECCM capabilities resist jamming. The successful test on May 29, 2024, from a Su-30 MKI off Odisha validated all trial objectives, achieving a direct hit.

Strategic Role: Rudram-2’s extended range and versatility make it a force multiplier for SEAD and DEAD missions, allowing the IAF to neutralize advanced air defense systems and strike high-value targets from long standoff distances. Its planned integration with MiG-29K expands its role to naval operations.

3. Rudram-3 (Under Development)

  • Type: Hypersonic Air-to-Surface Anti-Radiation Missile
  • Range: 500–550 km (reported)
  • Speed: Mach 5–7 (hypersonic)
  • Length: ~6.5 meters (estimated)
  • Diameter: ~0.35 meters (estimated)
  • Weight: ~800 kg (estimated)
  • Warhead: 200 kg (High-Explosive or Penetrator, configurable)
  • Propulsion: Scramjet or advanced solid-fuel rocket motor (speculated)
  • Guidance:
    • Primary: Advanced PHH with multi-band RF detection
    • Secondary: IIR seeker, INS/GPS, data-link
  • Maneuverability: Up to 30g (estimated)
  • Launch Platform: Su-30 MKI, Rafale, AMCA (planned)
  • Launch Altitude: 5–20 km (estimated)
  • Accuracy (CEP): Not publicly disclosed, expected <5 meters
  • Status: Under development, trials expected by 2028
  • Engagement Conditions: All-weather, day/night
  • Targets: Advanced radars, C3I systems, ballistic missile launchers, strategic assets

Overview: Rudram-3 is a hypersonic ARM designed to counter next-generation air defense systems, such as China’s HQ-26 and Russia’s S-500. Its reported 500–550 km range and Mach 5–7 speed make it a game-changer for long-range SEAD missions. The missile’s advanced seekers and hypersonic profile ensure penetration of heavily defended airspace.

Strategic Role: Rudram-3 will enhance India’s ability to conduct deep-strike operations, targeting strategic assets like missile launchers and command centers, thereby strengthening deterrence against regional adversaries.

4. Ground-Based Rudram-2 (Proposed)

  • Type: Surface-to-Surface Anti-Radiation Missile
  • Range: 300–350 km (estimated)
  • Speed: Mach 2–5.5
  • Length: ~6 meters
  • Diameter: ~0.3 meters
  • Weight: ~750 kg
  • Warhead: 60–200 kg
  • Propulsion: Dual-pulse solid-fuel rocket motor
  • Guidance: PHH, IIR, INS/GPS
  • Launch Platform: Mobile launcher (truck-based)
  • Accuracy (CEP): Not publicly disclosed
  • Status: Proposed in September 2024, under evaluation
  • Engagement Conditions: All-weather, day/night
  • Targets: Radars, communication systems, command centers

Overview: The ground-based Rudram-2, proposed in September 2024, aims to provide a surface-launched option for SEAD missions, enhancing flexibility for the Indian Army and Navy. Its design is based on the air-launched Rudram-2, with adaptations for mobile launchers.

Strategic Role: A ground-based variant would enable rapid deployment in contested areas, complementing air-launched Rudram missiles and expanding India’s SEAD capabilities.


Role in India’s Air Warfare Strategy

The Rudram series is a critical enabler of India’s offensive air warfare strategy, addressing threats from advanced enemy air defense systems:

  • Pakistan: Pakistan’s air defense network, including Chinese-supplied HQ-9 and LY-80 systems, relies heavily on radar and communication hubs. Rudram-1 and Rudram-2’s ability to neutralize these assets from 100–300 km allows the IAF to create safe corridors for strike aircraft.
  • China: China’s S-400, HQ-26, and Type 055 destroyers pose significant challenges along the Line of Actual Control (LAC) and in the Indian Ocean Region. Rudram-2’s 300 km range and Rudram-3’s hypersonic speed will counter these systems, enabling deep-strike operations.
  • Asymmetric Threats: The proliferation of mobile radars and communication systems in asymmetric warfare underscores Rudram’s role in targeting dynamic, high-value assets.

The missiles’ fire-and-forget capability and memory tracking reduce pilot exposure to enemy countermeasures, while their all-weather performance ensures operational flexibility.

Contribution to Self-Reliance

The Rudram series, with over 90% indigenous content, supports India’s Make in India initiative. Developed by DRDO’s Research Centre Imarat (RCI) and manufactured by BDL, the program strengthens India’s defense-industrial base, involving over 200 Indian industries. Its cost-effectiveness, estimated at $500,000–$1 million per missile, compared to the American AGM-88 HARM (~$2 million), makes it a viable alternative for the IAF.

Operational Roles

  • SEAD Missions: Neutralizes enemy radars and communication systems, enabling IAF aircraft to operate in contested airspace.
  • DEAD Missions: Destroys radar installations, command centers, and bunkers, permanently degrading enemy air defenses.
  • Ground Attack (Rudram-2): Targets hardened structures, missile launchers, and other high-value assets, expanding its utility beyond anti-radiation roles.
  • Naval Operations: Potential integration with MiG-29K for maritime SEAD, targeting enemy ships and coastal defenses.

These roles ensure the Rudram series’ relevance across conventional and asymmetric warfare scenarios.


Guidance and Seeker Technology

The Rudram series’ advanced seekers are its defining feature:

  • Passive Homing Head (PHH): Detects RF emissions from radars and communication systems over 100 km, enabling anti-radiation strikes. The PHH’s wideband capability covers multiple frequency bands, resisting frequency hopping.
  • Imaging Infrared (IIR) Seeker (Rudram-2): Provides precision targeting for ground-attack missions, effective in low-visibility conditions. The IIR seeker was validated in May 2024 tests.
  • Inertial Navigation System (INS)/GPS: Ensures accurate navigation over long ranges, with memory tracking to strike switched-off targets.
  • Data-Link Updates: Allows mid-course corrections, enhancing accuracy against moving targets.
  • ECCM: Advanced electronic counter-countermeasures resist jamming, ensuring reliability in contested environments.

The Rudram-2’s dual-seeker configuration (PHH + IIR) enables versatile mission profiles, while Rudram-3’s speculated multi-band seekers will counter advanced stealth radars.

Warhead Design

The Rudram series offers configurable warheads:

  • Pre-Fragmented (60–200 kg): Optimized for radar and communication systems, maximizing shrapnel damage.
  • High-Explosive (60–200 kg): Effective against bunkers and command centers.
  • Thermobaric (Rudram-2): Designed for hardened targets, creating a high-pressure blast.
  • Penetrator (Rudram-3, speculated): For deep-buried or fortified targets, such as missile silos.

The warhead’s modularity ensures mission-specific lethality, validated in tests achieving a 5-meter miss distance.

Propulsion System

  • Rudram-1: Single-stage solid-fuel rocket motor, providing Mach 2 speed and 100–150 km range.
  • Rudram-2: Dual-pulse solid-fuel rocket motor, extending the range to 300–350 km and enabling terminal-phase acceleration for hypersonic potential (Mach 5.5 in some configurations).
  • Rudram-3: Speculated scramjet or advanced rocket motor, achieving Mach 5–7 and 500–550 km range.

The dual-pulse motor enhances range and maneuverability, critical for evading enemy interceptors.

Launch Platforms

  • Sukhoi Su-30 MKI: Primary platform, carrying 2–4 Rudram missiles, validated in 2020 and 2024 tests.
  • Mirage 2000: Planned for 2025 trials, expanding IAF compatibility.
  • HAL Tejas: Under integration, enhancing indigenous fighter capabilities.
  • MiG-29K: Showcased with Rudram-2 in February 2025, indicating naval applications.
  • Rafale and AMCA (Future): Planned for Rudram-3, ensuring compatibility with next-generation platforms.

The missiles’ launch altitude range (1–20 km) enables flexible engagement profiles, from low-level strikes to high-altitude standoff attacks.

All-Weather and Memory Tracking

Rudram’s all-weather capability, validated in May 2024 tests, ensures operations in:

  • Adverse Conditions: Fog, rain, or dust storms, common in India’s border regions.
  • Low Visibility: Nighttime engagements, critical for surprise attacks.
  • Switched-Off Targets: INS and memory tracking allow strikes on radars that power down to evade detection, a unique feature highlighted in X posts.

Key Milestones

  • Early 2010s: Rudram program initiated by DRDO, focusing on anti-radiation technology.
  • 2014: First Rudram-1 prototype test, validating propulsion and guidance.
  • October 9, 2020: Rudram-1 successfully tested from Su-30 MKI off Balasore, achieving a direct hit on a radar target.
  • 2019–2020: Multiple Rudram-1 trials, confirming 100–150 km range and 5-meter accuracy.
  • 2022: Rudram-1 cleared for production, with IAF ordering an estimated $1.7 billion worth of missiles.
  • May 29, 2024: Rudram-2 tested from Su-30 MKI, validating 300–350 km range, IIR seeker, and dual-role capability.
  • February 10, 2025: Rudram-2 showcased with MiG-29K at a naval exhibition, indicating maritime integration.
  • April 2025: Reports of planned Rudram-2 trials from Mirage 2000, focusing on ECCM and multi-target engagement.

Recent Developments (2024–2025)

  • May 2024: Rudram-2’s successful test off Odisha demonstrated a 350 km range and direct hit, meeting all trial objectives. The test validated the IIR seeker’s performance in ground-attack mode.
  • September 2024: DRDO proposed a ground-based Rudram-2, with potential trials in 2025, to enhance Army and Navy SEAD capabilities.
  • February 2025: Rudram-2’s display with MiG-29K at a defense exhibition signaled its readiness for naval operations, targeting coastal radars and ships.
  • March–April 2025: Planned trials for Rudram-2 from Mirage 2000, focusing on integration and advanced seeker performance in contested environments.

These developments reflect DRDO’s commitment to operationalizing the Rudram series and expanding its platform compatibility.


Technical Challenges

  • Seeker Development: Early Rudram-1 seekers faced issues with detecting low-power or frequency-hopping radars. The wideband PHH, introduced by 2020, resolved this, achieving detection beyond 100 km.
  • Integration: Adapting Rudram for multiple platforms (Su-30 MKI, Mirage 2000, Tejas) required extensive avionics modifications, delaying trials.
  • Test Failures: A reported Rudram test failure in May 2024 raised concerns, but subsequent successes clarified it as a minor glitch in a secondary system, not the missile itself.

These challenges were overcome through iterative testing and collaboration with IAF and HAL.

Strategic Concerns

  • Regional Arms Race: Pakistan’s acquisition of Chinese HQ-9 and LY-80 systems, and China’s S-400 deployments, necessitate continuous Rudram upgrades. Rudram-2’s 300 km range addresses this, but Rudram-3’s hypersonic capability is critical for future threats.
  • Comparison with Global ARMs: Some X users argue that Rudram’s range and speed lag behind the American AGM-88E AARGM (300 km, Mach 2+) or Russian Kh-31PD (250 km, Mach 3). However, Rudram’s memory tracking and indigenous supply chain provide strategic advantages.
  • Production Scalability: Limited production capacity at BDL has constrained Rudram-1 deployment, though the $1.7 billion IAF order signals increased investment.

India maintains that the Rudram series is a defensive asset, aligned with its strategic objectives and regional security needs.


Rudram-2 and Rudram-3 Development

  • Rudram-2: Advanced trials in 2025 will focus on Mirage 2000 integration and multi-target engagement, with induction expected by 2026. Its naval integration with MiG-29K will enhance maritime SEAD capabilities.
  • Rudram-3: With a 500–550 km range and hypersonic speed, Rudram-3 will target advanced air defenses and strategic assets. Trials are planned for 2028, with integration on Rafale and AMCA.
  • Ground-Based Rudram-2: If approved, trials in 2025–2026 will enable surface-launched SEAD, expanding Army and Navy roles.

Integration with Emerging Platforms

  • HAL Tejas: Rudram-1 and Rudram-2 integration will boost the indigenous fighter’s SEAD capabilities, supporting Make in India.
  • Rafale: Rudram-3’s planned integration will leverage Rafale’s advanced avionics for long-range strikes.
  • AMCA: The Advanced Medium Combat Aircraft will carry Rudram-3, ensuring compatibility with India’s 5th-generation fighter.
  • Naval Platforms: Rudram-2’s MiG-29K integration, showcased in February 2025, paves the way for maritime SEAD missions.

Technological Upgrades

DRDO is exploring:

  • Hypersonic Propulsion: Scramjet technology for Rudram-3, achieving Mach 5–7.
  • Multi-Spectral Seekers: Combining PHH, IIR, and millimeter-wave seekers for enhanced detection in contested environments.
  • AI-Driven Guidance: Autonomous target selection for dynamic battlefields, reducing pilot workload.

These upgrades will ensure the Rudram series’ relevance against future air defense systems.

Strategic and Export Potential

  • Regional Deterrence: Rudram-2 and Rudram-3 will strengthen India’s position against Pakistan and China, enabling penetration of layered air defenses.
  • Export Opportunities: As an indigenous system, Rudram could attract interest from friendly nations, such as Vietnam or UAE, subject to export controls.
  • Global Leadership: The Rudram series positions India as a leader in anti-radiation missile technology, rivaling Western and Russian systems.

Rudram-2 vs. AGM-88E AARGM (USA)

MissileCountryRange (km)SpeedGuidanceWarhead
Rudram-2India300–350Mach 2–5.5PHH/IIR/INS60–200 kg
AGM-88E AARGMUSA300Mach 2+PHH/MMW/INS65 kg

Analysis: Rudram-2’s 300–350 km range matches the AARGM, but its IIR seeker and dual-role capability provide greater versatility. The AARGM’s millimeter-wave (MMW) seeker excels in adverse weather, but Rudram’s lower cost and memory tracking offer strategic advantages.

Rudram-2 vs. Kh-31PD (Russia)

MissileCountryRange (km)SpeedGuidanceWarhead
Rudram-2India300–350Mach 2–5.5PHH/IIR/INS60–200 kg
Kh-31PDRussia250Mach 3PHH/INS110 kg

Analysis: Rudram-2’s longer range and IIR seeker outperform the Kh-31PD, which lacks ground-attack capability. Rudram’s indigenous design ensures supply chain security, unlike the imported Kh-31PD.

Rudram-3 vs. YJ-91 (China)

MissileCountryRange (km)SpeedGuidanceWarhead
Rudram-3India500–550Mach 5–7PHH/IIR/INS200 kg
YJ-91China200Mach 3PHH/INS165 kg

Analysis: Rudram-3’s hypersonic speed and 500–550 km range far surpass the YJ-91, making it a superior choice for deep-strike SEAD missions. Its advanced seekers will counter China’s stealth radars, providing a strategic edge.


The Rudram series anti-radiation missiles represent a leap forward in India’s air-to-surface strike capabilities, designed to neutralize enemy radar and communication systems with precision and range. Rudram-1, with its 100–150 km range, has established India’s SEAD capabilities, while Rudram-2, with a 300–350 km range and dual-role functionality, enhances versatility for both anti-radiation and ground-attack missions. The under-development Rudram-3, with its hypersonic speed and 500–550 km range, promises to counter next-generation air defenses, ensuring India’s strategic edge.

Recent advancements, including the May 2024 Rudram-2 test and planned 2025 trials with Mirage 2000, highlight the series’ operational maturity. With over 90% indigenous content and integration across platforms like Su-30 MKI, MiG-29K, and Tejas, the Rudram series strengthens India’s self-reliance and deterrence against regional adversaries. This article provides a comprehensive guide to the Rudram missiles, optimized for both readers and search engines, and serves as a valuable resource for understanding India’s anti-radiation missile technology.


  • Wikipedia: Rudram (missile)
  • Army Recognition: India Successfully Tests Rudram-II, June 3, 2024
  • Amigos IAS: Anti-Radiation Missile RudraM-2, May 31, 2024
  • idrw.org: DRDO Proposes Ground-Based RudraM-2, September 29, 2024
  • Times of India: India Test-Fires RudraM-II, May 29, 2024
  • Mathrubhumi: Rudram, the Hypersonic Nemesis, July 4, 2024
  • Daijiworld: RudraM-II Missile Proves Efficacy, May 30, 2024
  • Compass: RudraM-II Missile, May 30, 2024
  • idrw.org: RudraM-II Showcased with MiG-29K, February 10, 2025
  • The Defense Post: India Flight Tests RudraM-II, May 30, 2024
  • Deagel: Rudram Missile, May 29, 2024
  • Quora: RudraM-II Missile, May 30, 2024
  • LinkedIn: DRDO to Expand Rudram-2 Trials, 2025
  • Janes: India Tests RudraM-II, May 30, 2024
  • IAS Gyan: RudraM-II Missile, May 30, 2024
  • YouTube: How Do Rudram Missiles Destroy Radars?
  • Instagram: RUDRAM-2 Explained, 2024
  • Indian Defense News: Strategic Significance of Rudram, July 3, 2024
  • Quora: What is Rudram Missile?
  • SOFREP: India to Arm Jets with Rudram, December 1, 2022
  • Airpra: Rudram 1 Missile, September 15, 2023
  • Daily Pioneer: India Gets Desi Anti-Radar Missile, October 10, 2020
  • Defence.in: Su-30MKI with RudraM-III, May 3, 2024
  • X Posts: @alpha_defense, @AdithyaKM_, @DefenceDecode, @Sputnik_India, @NavCom24, @Varun55484761, @Ray70409890, @GODOFPARADOXES

Note: All information has been cross-checked for accuracy. X posts are treated as inconclusive unless corroborated by authoritative sources. Speculative details, such as Rudram-3’s exact specifications, are clearly marked as estimates based on available data.

Keywords: Rudram missile, anti-radiation missile, air-to-surface missile, Rudram-2, Rudram-1, Rudram-3, DRDO, Indian Air Force, SEAD missions, 2025 developments.



Disclaimer: The information presented in this article is primarily sourced from publicly available open-source content on the internet. While every effort has been made to provide accurate and detailed insights, the content is intended mainly as a script for YouTube videos and may contain unintentional errors or omissions. Readers are encouraged to verify facts independently and use this content for general informational purposes only.

|

|

, ,

|


Leave a Reply

Your email address will not be published. Required fields are marked *

This site uses Akismet to reduce spam. Learn how your comment data is processed.