Pakistan’s PFX (Pakistan Fighter Experimental) programme—publicly showcased at IDEAS 2024— is framed as a 4.5 gen leap focused on sensor, electronic warfare (EW), and avionics sovereignty. This article explains the programme’s aims and architecture, traces the JF-17’s evolution to Block III (KLJ-7A AESA radar, expanded EW/defensive aids, modern cockpit and HMD/S), and outlines weapons options and export context.

Over the past two decades, the Pakistan Air Force (PAF) has modernised along three reinforcing lines:

(I)  Recapitalising legacy fleets through co-development and licence production,

(ii) Growing airborne sensing and battle management capacity, and

(iii)  Iterating avionics faster than airframes.

The CAC/PAC JF-17 programme replaced ageing A-5/F-7/Mirage types and, crucially, established a domestic assembly and upgrade base at PAC Kamra. In parallel, PAF added AEW&C capacity (Saab 2000 Erieye and Chinese ZDK-03), tightening the sensor-to-shooter chain and informing doctrine for distributed air defence and strike control. More recently, the induction of the J-10C in 2022 provided a medium-weight node with advanced radar and weapons to complement the JF-17’s light/affordable mass.

Against this backdrop, the Pakistan Fighter Experimental concept (PFX) was presented at IDEAS 2024 in Karachi. PFX is framed as a 4.5-generation push expected to conclude its initial development cycle before decade’s end. Rather than a clean-sheet stealth jet on day one, PFX is positioned as an integration and sovereignty programme: drive ownership of the high-value stack – AESA radar, electronic warfare (EW), mission computing, and secure national datalinks – while using the JF-17 industrial line as the pragmatic launch pad.

Concretely, PFX is already moving in near-term spirals via an operational upgrade track colloquially dubbed PFX Alpha, coordinated through NASTP. The idea is to mature indigenous radar/EW/avionics increments on in-service airframes (starting with late-build JF-17s), collect test data, and de-risk the eventual PFX air vehicle. This “systems-first” staging acknowledges earlier lessons (e.g., Project Azm’s difficulties) and keeps capability flowing to squadrons while deeper R&D proceeds.

Technically, three levers define PFX’s early emphasis.

•  First, AESA-first sensors: Local content in T/R modules and beam-forming hardware, plus growth modes (TWS, SAR/GMTI) and reliability targets (MTBCF) that enable persistent multi-role tasking.

• Second, EW as a system: Indigenous ESM/ELINT receivers and DRFM-based self/stand-in jamming fused with RWR/MAWS and, ultimately, AESA-assisted jamming.

•  Third, open architecture and sovereign links: A hardened mission computer and national waveform/crypto to federate fighters, AEW, ground-based air defence (GBAD), and teaming with UCAVs/CCAs. Together, these shift centre-of-gravity from “airframe-first” to brains and network first.

JF-17 Block III is the immediate transition context. Block III centres on the NRIET/CETC KLJ-7A AESA (moving beyond the earlier mechanically-scanned KLJ-7), a wide-angle HUD and HMD/S, integrated MAWS/RWR, and a modernised mission-computer spine. Pakistan selected KLJ-7A for Block III after competitive evaluation; subsequent induction and carriage of the long-range PL-15/PL-15E BVRAAM validate the BVR leap implied by the avionics upgrade. In effect, Block III turns the JF-17 into a credible BVR-first light fighter and a ready host for PFX Alpha avionics/EW spirals.

From a management standpoint, PFX formalises a habit honed during sanctions: decouple airframe and avionics, preserve production momentum, and reintegrate electronics as sources and funding allow. PAC Kamra’s expanding role in structures, assembly and MRO, plus sustained collaboration with Chinese partners on airframes and sensors, provides the industrial scaffolding. The delta in PFX is ownership of software-heavy value – beamforming/ECCM, EW management, secure datalinks – so upgrade cycles shorten and exportable variants can be partitioned cleanly.

Programme Management and Industrial Model

The PAF manages fighter modernisation through a systems-first doctrine refined over two decades: preserve airframe momentum, iterate avionics on a decoupled track, and expand domestic sustainment so that upgrades and readiness are not hostage to external shocks. This operating model – proven on the CAC/PAC JF-17 line – underwrites PFX, which formalises sovereignty in the high-value layers (AESA, EW, mission computing, and secure datalinks) while leveraging the existing industrial base at PAC Kamra.

Governance logic: decouple, spiral, reintegrate. Sanctions constraints at the turn of the century forced a structural choice: separate the airframe programme from the electronics stack so that delays in one do not stall the other. That decision produced a repeatable pattern:

(1)   Field a robust baseline airframe;

(2) Run avionics/radar competitions in parallel;

(3) Spiral-in winning subsystems as they mature; and

(4) Keep software and integration pathways open for rapid refresh.

PFX takes this logic from platform practice to programme doctrine: an explicit spiral 3 pipeline (”PFX-Alpha”) to push indigenous radar/EW/avionics into service jets, harvest test data, and de-risk the eventual PFX air vehicle.

Institutional roles and workshare. PAC Kamra serves as the centre of gravity for structures, final assembly, avionics production/repair, and MRO. Under the JF-17 workshare, PAC manufactures a majority share of the airframe and executes final integration; that investment yields assured access to spares, lower life-cycle cost, and the ability to execute block upgrades at home. CAC/AVIC remain airframe and systems partners; CETC/NRIET anchors the KLJ-7/7A radar lineage. The Avionics Production Factory (APF) at Kamra extends repair/overhaul and licensed builds, and provides an institutional shell for future T/R module and beamforming work as PFX matures.

PFX-Alpha: the bridge from fleet to future. Operationally, PFX-Alpha is the near-term capability engine: an Operational Capability Upgrade (OCU) path for late-build JF-17s that prioritises radar/EW, open-architecture mission computing, and secure national datalinks.plus integration of new munitions (including indigenous A2G). Organisationally, the OCU is run through NASTP, which frames it as the first sequential step towards PFX while building local test/qualification capacity (anechoic/RCS/RF benches, EW range instrumentation). This “fleet first” staging keeps squadrons relevant and creates the data/QA backbone PFX will need in flight test.

Industrial model and supply security. The industrial design point is assured readiness. Three lines matter:

1. Domestic content and MRO. Expand the local content beyond structures into radar/EW LRUs and mission-computer boards; strengthen depot-level MRO and module-swap TAT to keep mission capable (MC) rates high.

2. Dual-source and buffer. Where parts cannot be localised, dual-source and hold buffer stocks (especially RF semiconductors and high-power GaN/PA modules).

3. Open interfaces. Enforce interface control documents (ICDs) and software modularity so that vendor rotation does not trigger system-wide requalification. This model reduces the cost/risk tail of long-life fleets and makes export support (MRO, spares pools, line modifications) a revenue engine rather than a drain.

Avionics and radar selection practice. On JF-17 Block III, the selection of the KLJ-7A AESA formalised the doctrine: pick a radar with multi-mode growth (TWS/SAR/GMTI), acceptable reliability (air-cooled architectures), and a vendor with integration & export posture aligned to Pakistan’s needs. PFX extends this logic by aiming to internalise more of the AESA value chain (T/R manufacture, beamforming, calibration/test) over time, while preserving upgrade freedom (future modes, cooperative EW, and datalink-driven sensor fusion).

Software, datalinks and IP governance. The heart of PFX is software: beam forming/ ECCM algorithms, EW threat libraries, and a secure, sovereign waveform. Programme rules emphasise:

• Partitioned software baselines (sovereign vs. exportable) to sustain exports without leaking core IP.

•  PKI and secure-boot across mission computers and radios to harden against tamper.

•  Data rights and toolchains retained in-country (build servers, firmware signing, EW library management).

Certification, compliance and exportability. To make sovereignty durable, PFX couples capability insertion with certifiable processes (DO-178C/254-like methods for software/hardware) and export control governance (feature-tiering, mode limiting, and redaction of sensitive ECCM). The result is a catalogue that can be sold with matching MRO/ToT packages, keeping PAC’s lines warm and feeding the R&D flywheel.

Risk register and mitigations. Supply chain fragility (RF semis, precision machining) is mitigated via dual-source and buffer. Vendor claims vs. fleet reality are handled by incremental spirals and instrumented trials before wide release. EW fratricide/interop risk is managed by common EW orchestration middleware and rigid emission deconfliction procedures. Workforce throughput risk is addressed by NASTP pipelines and vendor-shadow teams embedded at Kamra.

What changes with PFX. Relative to past practice, PFX shifts the centre of gravity from “airframe first” to “brains and network first” institutionalises a spiral pipeline (PFX-Alpha) to keep capability flowing, and deliberately grows the domestic share of radar/EW/mission-computer value. The end-state is not just a new aircraft; it is an industrial capability to continuously insert sensors, software, and network effects at home and for export.

PFX: Technical Aims and System Architecture

PFX is a systems-first programme that concentrates investment and governance on the high-value layers of a modern fighter: an active electronically scanned array (AESA) radar, an integrated electronic warfare (EW) complex, an open-architecture mission computer, and a sovereign, secure datalink fabric that fuses airborne and ground sensors. Rather than pursue a one-shot clean-sheet airframe, PFX proceeds in spirals, pushing sensors/EW/avionics increments into service aircraft (PFX-Alpha) while de-risking the eventual air vehicle. The aim is to localise more of the sensor/EW value chain, shrink upgrade cycles, and tighten the sensor-to-shooter loop across fighters, AEW, GBAD, and unmanned teammates.

AESA-first sensors. The radar thrust prioritises

(i) multi-mode capability (TWS, SAR/GMTI, maritime),

(ii) reliability/MTBCF improvements, and

(iii) increasing local content in T/R modules and beam forming hardware.

On JF-17 Block III, PAF selected the KLJ-7A AESA, which open literature describes as supporting multi-target track/engage and improved ECCM; vendor statements cited by trade media have referenced fighter-sized detections at nominal ranges and the ability to track ­15 targets and engage several concurrently. PFX extends this logic by building domestic capacity around array manufacturing, calibration, and mode growth, while keeping upgrade freedom for future waveforms and cooperative sensing.

EW as a system. PFX treats EW as a federated system, not a bolt-on. The target stack includes: wideband ESM/ELINT receivers; DRFM-based self-protection and stand-in jamming; AESA-assisted jamming modes; and tight fusion with the defensive aids suite (RWR/MAWS/CMDS). Orchestration middleware is required to

(i)   Deconflict emissions so jammers do not blind own-ship sensors,

(ii)  Prioritise effects by phase of flight (ingress/strike/egress), and

(iii)  Expose machine-to-machine hooks for UCAV/CCA escort jammers.

Instrumented range trials (X bands) with red/blue cells are integral to tune tactics and avoid EW fratricide.

Open mission computing. The mission-computer spine follows open-architecture principles: clean interface control documents (ICDs), process isolation for safety-critical and mission-apps, and a development tool chain owned incountry. Sovereign control over beam forming/ ECCM code and EW threat libraries is a central design rule. Practically, the stack should support:

(i)    Fast mode insertion for radar/EW.

(ii)   Plug-in sensor/ weapon drivers.

(iii)  Deterministic timing for sensor fusion, and

(iv)  Exportable partitions so features can be tiered by customer without exposing core IP.

Sovereign datalinks and sensor fusion. A secure national waveform (or a hardened gateway layer between mixed vendors) underwrites PFX’s network effects. The fabric must: authenticate with a sovereign PKI; support low-latency target handoff from AEW to shooter; and bridge airborne and GBAD/ISR nodes. Planning targets include: AEW shooter hand-off <200 ms for BVR stacks; time-synchronised tracks across fighters/ AEW/ GBAD; and graceful-degradation modes for GPS-denied or EMCON-constrained operations. Crypto keying and emergency revocation procedures are part of the operational concept.

Manned-unmanned teaming (MUM-T). PFX assumes teaming with UCAVs and collaborative combat aircraft (CCA): attritable escorts for jamming/decoy roles; stand-in ISR/targeting; and weapons trucks to extend magazine depth. The mission computer and datalink layers therefore expose human-in-the-loop control, autonomy guard-rails (fail-safe behaviours and ROE thresholds), and data taps for post-mission learning.

Test, calibration and sustainment. Delivering sensor/EW sovereignty requires ground infrastructure: anechoic chambers and array calibration benches; RCS ranges; EW test ranges with threat emitters; and avionics repair/overhaul lines. PAC Kamra’s Avionics Production Factory (APF) anchors radar/avionics MRO today; PFX’s roadmap expands that role toward board-level manufacture, T/R module test, and long-term software sustainment. Depot-level processes (fast line-replaceable unit swaps, LO coating repair where applicable) are part of the sortie-generation calculus, not an afterthought.

Architecture checklist (engineering view).

•  AESA: front-end (array, T/R modules, phase shifters) with calibration & BIT; beamforming DSP with mode growth (TWS/SAR/GMTI).

• EW complex: ESM/ELINT receivers; DRFM jammers; DASS fusion (RWR/MAWS/CMDS); EW orchestration server for emission control.

•  Mission computer: partitioned OS; deterministic middleware; plug-in radar/EW/weapon apps; secureboot and code-signing.

• Datalink: sovereign waveform or gateway; PKI; AEW/GBAD bridging; low-latency hand-off targets; GPS-denial resilience.

• Test & MRO: anechoic/RCS/EW ranges; APF upgrade lines for radar/EW LRUs; software toolchains and EW library management.

Indicative KPIs and milestones.

These KPIs are engineering waypoints to steer PFX-Alpha spirals; the precise values will be tuned as flight-test evidence accrues. The governing idea remains constant: own the brains and the network, shorten the upgrade loop, and make sovereignty durable through tooling, test, and software ownership.

JF-17 Block III: Avionics, Radar, and Cockpit

Block III is the operational bridge into the PFX era. Its centrepiece is the NRIET/CETC KLJ-7A AESA radar, wrapped in a modernised mission-computer spine, an integrated defensive-aids suite (DAS), and an updated human.machine interface (HMI) comprising a wide-angle HUD and helmet-mounted display/sight (HMD/S). The design intent is twofold:

(i)   Shift the JF-17 from a budget multi-role fighter to a BVR-first light fighter with credible electronic protection; and

(ii) Provide an open, software-forward backbone for rapid capability insertion in the PFX spirals.

KLJ-7A AESA radar (modes, reliability, growth). KLJ-7A replaces the earlier mechanically scanned KLJ-7 with a solid-state AESA that supports multimode tasking. Air-to-air modes include search, track-while-scan (TWS), and multi-target engagement; air-to-surface modes include strip/spot synthetic aperture radar (SAR) and ground moving target indication (GMTI). In maritime roles, sea-search and surface-track modes support anti-ship targeting. Open literature attributes improved ECCM and LPI behaviours to the array’s agile beam forming; vendor quoted figures (as relayed by trade media) describe fighter-sized detections at nominal ranges with the ability to track on the order of ­15 targets and engage several concurrently. Architecturally, Block III emphasises reliability and maintainability: modular line-replaceable units (LRUs), on-board built-intest (BIT) for fault isolation, and thermal design choices (air-cooled subarrays) intended to balance cost, weight, and mean time between critical failures (MTBCF). Growth provisions include room for mode expansion (e.g., higher-resolution SAR, cooperative EW-assisted modes) and tighter coupling to the mission-computer fusion layer.

Defensive-aids suite and EW coupling. Block III’s defensive-aids suite (DAS) integrates a radar warning receiver (RWR), missile-approach warning sensors (MAWS), and a countermeasures dispensing system (CMDS) under unified control. The EW manager fuses RWR and MAWS cues with radar/HMD/S symbology to shorten pilot reaction time and to coordinate expendables and jamming under emission-control rules. In line with PFX’s “EW-as-a-system” intent, the Block III avionics spine exposes interfaces for external escort/stand-in jammers and future AESA-assisted jamming behaviours, while enforcing deconfliction so self-protection effects do not blind own-ship sensors.

Cockpit & human machine interface. The HMI moves to a pilot-centric layout: a wide-angle holographic HUD for primary flight and weapon symbology; a helmet-mounted display/sight (HMD/S) enabling high off-boresight cueing and cue-to slew of sensors and missiles; and enlarged multi-function displays (MFDs) with page sets for radar, EW, stores, and targeting pod video. Hands-on-throttle-and-stick (HOTAS) mappings reduce head down time for air-to-air merges and time-critical surface strikes. Symbology integrates datalink tracks (friend/hostile/unknown), EW threat rings, launch-acceptability regions (LAR) for BVR shots, and cueing for PL-10-class WVR missiles.

Mission computer, data buses, and software. Block III’s mission-computer spine adopts open-architecture design: clean interface control documents (ICDs); partitioned software to separate safety-critical functions from mission apps; deterministic middleware for sensor fusion; and digital backbone buses (hybrid Ethernet/MIL-STD style) for growth. This enables:

1. rapid mode insertion for radar/EW,

2. plug-in drivers for new sensors and weapons,

3. low-latency fusion of on-board and off-board tracks, and

4. exportable software partitions for feature-tiering.

Built-in-test, crash/error logging, and sovereign code-signing/secure-boot are used to harden field updates and preserve data rights.

Sensor fusion and AEW/GBAD hand-off. The avionics layer fuses KLJ-7A tracks with HMD/S line-of-sight, DAS cues, targeting-pod video, and off-board datalink tracks (e.g., AEW hand-offs). Operator-visible effects include: stable track quality across sensors, lower shot-latency for BVR employment, and improved ID confidence when EO/SAR corroborates radar returns. Planning targets for the PFX era emphasise sub-200 ms hand-off latency from AEW to shooter for BVR stacks and robust operation under EMCON or GPS denial (via  INS centric timelines and waveform agility).

Targeting and stores (management context). Block III commonly pairs with the WMD class targeting pod for EO/laser designation. Stores management software spans BVR/WVR A2A (e.g., PL-15/PL-10 families where integrated), precision A2G glide weapons (e.g., LS-6/GB-6 series), maritime missiles (e.g., C-802/CM-802AKG), and SEAD options (e.g., LD-10), with page sets for pre-planned (PP) and target-of-opportunity (TOO) flows.

Growth, maintenance, and sustainment. Block III’s avionics were specified with sustainment in mind: fast LRU swaps, accessible trays for radar/EW modules, and support tooling for BIT and calibration at PAC depots. Software refresh cadence is governed by flight-safety gates and cyber/crypto policies (secure-boot, PKI, and emergency key revocation). These practices tie directly to sortie-generation metrics and underpin the PFX goal of shortening the sensor/software upgrade loop.

Weapons Integration

Block III shifts the JF-17 from a budget multi-role fighter to a BVR-first light fighter with credible standoff and SEAD options, while preserving growth room for PFX spirals in radar/EW and networking. This section summarises air-to-air, air-to-surface & maritime, and SEAD/DEAD integrations for procedural context.

Air-to-Air (BVR/WVR)

BVR : Open-source imagery and defence reporting in 2024.2025 confirm the carriage of the PL-15/PL-15E family on JF-17 Block III airframes, marking the platform¡¯s intended move to a long-range BVR posture. Earlier SD-10/PL-12 remains in service as a cost-effective medium-range option and for mixed loads.

WVR : The PL-10E combined with the Block III HMD/S provides high off-boresight cueing and closein agility. The cockpit/HOTAS updates and datalinked track symbology shorten the sensor-to-shooter loop in merges.

Air-to-Surface & Maritime. Block III’s stores management and mission computer support a mixed A2G/maritime loadout consistent with prior public material on the JF-17 family. Representative categories include:

• Precision glide munitions: LS-6/GB-6 families (pre-planned and target-of-opportunity workflows), providing JSOW-like employment logic.

• Maritime/land-attack: C-802/C-802AK (pre-planned and inertial/radar-guided antiship) and CM-802AKG man-in-the-loop cruise missile (TV/INS), used for land/sea targets depending on variant.

• Targeting/sensor pods: WMD-7 EO/laser pod for search/track/designation and LGB guidance; cockpit pages provide PP/TOO flows, video, and line-of-sight cueing. Operational specifics vary by customer configuration and export controls;

in all cases, standoff employment doctrine integrates AEW hand-offs and GBAD deconfliction through the datalink layer.

SEAD/DEAD. For suppression and destruction of enemy air defences, Block III leverages the LD-10 anti-radiation missile, an ARM derived from the SD-10/PL-12 body with a passive seeker for emitter homing. In PFX spirals, EW orchestration (RWR/MAWS, AESA-assisted jamming, and escort jammer control) is intended to reduce EW fratricide and to shape survivable ingress/egress windows for ARM shots.

Stores management, datalink employment, and fusion. The stores management system (SMS) communicates with weapons via a MIL-STD-style digital bus and presents PP/TOO flows for glide weapons, ARM hand-offs, and antiship profiles. The fusion layer combines KLJ-7A tracks, EW cues, HMD/S line-of-sight, and AEW datalink tracks for mid-course updates (BVR) and launch acceptability region (LAR) computations. PFX targets sub-200 ms AEW¡æshooter hand-off to improve first-shot probability in BVR stacks.

Configuration variance and export posture. Exact weapon compatibility depends on customer licensing, export approvals, and software baselines. Programme practice emphasises partitioned software so export tiers can be configured without exposing sovereign ECCM, threat libraries, or datalinks.

Exports, Sustainment, and MRO Implications

PFX treats sustainment as a design domain, not an afterthought. Pakistan Aeronautical Complex (PAC) Kamra¡¯s factories.notably the Avionics Production Factory (APF) and Aircraft Rebuild Factory (ARF).provide the industrial backbone for line, intermediate, and depot maintenance, with an explicit roadmap to expand radar/EW repair and software sustainment as PFX spirals mature. For export users, the same infrastructure enables MRO, spares pooling, and upgrade paths aligned to partitioned software baselines.

Sustainment philosophy and industrial posture. The near-term goal is assured readiness: keep mission-capable (MC) rates high via fast line-replaceable unit (LRU) swaps, strong depot capacity, and tight feedback from flightlines to engineering. Structurally, the JF-17 programme already localises a majority share of the airframe and final assembly at PAC Kamra; PFX shifts more of the high-value sustainment into avionics/radar/EW, shortening upgrade loops and insulating fleets from external shocks.

PAC Kamra roles (APF/ARF) and today’s scope. APF originated as a radar maintenance centre and now covers a wide span of avionics work, including repair/overhaul and MRO for ground and airborne radars, integration, and production support. ARF executes overhauls for fighter/trainer/transports (e.g., JF-17, F-7P/PG, K-8, C-130 props), plus structures and accessories. These roles let PAC perform depot-level inspections, structural work, and avionics repair under one campus, reducing cycle time for major checks and upgrades.

Radar & EW sustainment under PFX. Block III’s KLJ-7A AESA introduces new MRO needs: array health monitoring, subarray T/R module test, and calibration within anechoic facilities. PFX spirals add:

1. Array & RF benches: verification of T/R gain/phase, noise figure, sidelobe control; environmental/thermal screens.

2. Calibration infrastructure: near-field scanning, boresight tools, and automated built-in test (BIT) upload paths.

3. EW complex MRO: DRFM jammers, ESM/ELINT receivers, DASS integration (RWR/MAWS/CMDS) with orchestration middleware.

4. Sovereign software sustainment: beamforming/ECCM code, EW threat-library curation, secureboot/ PKI pipelines for field updates. These investments make radar/EW support domestic, cut shipping delays, and enable faster mode insertions (e.g., SAR/GMTI refinements, cooperative EW behaviours).

Supply chain, spares and repairables. To stabilise MC rates, PAC’s provisioning model builds buffer stocks of high-failure LRUs and dualsources items that cannot yet be localised (notably RF semiconductors and high-power GaN/PAs). Repairables flow to APF benches for triage and board-level fix; rotables (e.g., pumps, actuators) cycle through ARF. Standard work cards and failure trend dashboards drive procurement and obsolescence actions.

Condition-based and AI-enabled maintenance. PFX incorporates condition-based maintenance (CBM): streaming health data from engines, avionics, and AESA BIT is analysed to predict failures and schedule interventions before AOG events. International practice (e.g., USAF’s PANDA predictive-maintenance programme) shows that ML-driven anomaly detection and fleet-wide pattern mining can raise availability and reduce life-cycle cost; PFX adopts the same principles with sovereign toolchains and on-prem data lakes for security.

Software, data rights, and export baselines. Sovereign control of mission-computer images, radar/EW firmware, and threat libraries is central to MRO. PFX standardises:

• Partitioned baselines (sovereign vs. exportable) so exports can be supported without exposing core ECCM or crypto.

•  Secure-boot/PKI across mission computers and radios, with emergency key revocation procedures and audit trails.

• Tooling in-country: build servers, code-signing, calibration databases, and EW library management hosted at PAC/NASTP.

Export customer support and regional hubs. For export operators, PAC offers MRO and line-mod services backed by Kamra depots, with options to stand-up second-line hubs (inspection benches, calibration rigs, spares vaults) in-country. Software partitions allow feature tiering to match licensing; common training syllabi and documentation reduce error rates and turnaround time.

Indicative sustainment KPIs (planning targets)

These values are engineering waypoints; actual thresholds will be tuned by flightline evidence and reliability growth curves. The governing idea remains constant: own the sensors/EW/software sustainment stack, reduce external exposure, and convert MRO into an export-grade service line.

Conclusion

This article set out the PFX programme as a systems-first path that shifts the centre of gravity from airframes to avionics, electronic warfare, mission computing, and sovereign datalinks. JF-17 Block III operates as the practical bridge: KLJ-7A AESA, an integrated defensive-aids suite, an open mission computer spine, and a cockpit with HMD/S that together enable a BVR-first posture and rapid capability insertion.

The programme logic consolidates a decouple, spiral, and reintegrate model through PFX-Alpha, using inservice airframes to mature radar, EW, and software increments while de-risking the eventual air vehicle. The industrial posture at PAC Kamra anchors structures, MRO, and avionics work, and provides the scaffolding for deeper ownership of beamforming, EW libraries, and secure waveform management.

Within this architecture, weapons integration across A2A, A2G/maritime, and SEAD is framed as an expression of the avionics spine and datalink fabric rather than a standalone catalogue. Sustainment is treated as a design domain, with APF/ARF capacity, condition-based maintenance, and partitioned software baselines positioned to keep availability high and upgrade cycles short.

In sum, PFX is presented as a governance and integration pattern that continuously inserts sensor, software, and network effects across the force, with JF-17 Block III as the near-term carrier and the industrial base in place to sustain momentum.

The post Pakistan Fighter Experimental (PFX) appeared first on IMR.

In the volatile landscape of South Asian countries around India, the military’s role in internal crises is both constitutionally defined and politically sensitive. The summer of 2024 and 2025 presented critical moments to test the civil-military frameworks that define democratic governance. Recent events in Bangladesh and Nepal-confronted with massive Gen Z-driven protests-have exposed a troubling trend: armies that hesitate to act when ordered, allowing unrest to escalate and civilian authority to erode. This stands in stark contrast to the Indian Army, which has consistently upheld its apolitical ethos, professional conduct and constitutional mandate, even in the most politically charged situations.

In Bangladesh, Prime Minister Sheikh Hasina’s government faced the “Job Quota” protests since early July 2024 that spiralled into anti-government uprising. The army was formally deployed at midnight July 19. Despite being deployed on July 19, the Bangladesh army exhibited considerable reluctance to take effective measures in the initial stages to bring the situation under control and prevent the protesters from marching towards Dhaka. Widespread violence led to attacks on minorities, wrecking of public property, including Indira Gandhi Cultural Centre in Dhaka, ransacking business establishments, destruction of the Banglabandhu museum besides others. This allowed the situation to become uncontrollable.

In a significant development, on the evening of August 3, over two weeks after the initial deployment, the Army Chief, General Waker-Uz-Zaman held a meeting with his generals and made a pivotal decision: the military would not open fire on civilians to enforce the curfew that Prime Minister Hasina had called for. This represented the military effectively disobeying civilian authority by deciding which orders to follow and which to refuse. While the Army’s humanitarian concern of collateral civilian deaths was understandable, inaction violated a fundamental principle of civil-military relations: once a civilian government orders military deployment, the military executes that order or resigns in protest. It does not selectively comply. The consequence was that Hasina, losing military support, was forced to resign on August 5, not because her order was unconstitutional, but because the military refused to enforce it. This represents a subtle coup d’état, where the military effectively vetoed civilian authority by refusing orders. Whether Hasina was autocratic or her policies were parochial become irrelevant; the mechanism through which she was removed-military refusal to obey civilian orders-violated democratic principles of civil-military relations.

Nepal’s experience in 2025 mirrored Bangladesh’s trajectory. Protests erupted over digital censorship, evolving into broader anti-corruption demonstrations again led by Gen G. The youth was frustrated with unemployment, economic inequality, and endemic corruption. Again these protests engulfed the whole country. As demonstrations intensified, Prime Minister Oli’s government faltered. The government in Nepal called out the army to maintain law and order sometimes on the night of September 8-9. On the morning of September 9, the Army Chief with other top civilian functionaries met at the Prime Minister’s residence. During this crucial meeting Oli was informed that the situation had spiralled beyond control. Reports indicate that the Army Chief Sigdel advised Oli to resign, stating that the military could only stabilize the country if the Prime Minister relinquished power. Initially reluctant, Oli eventually agreed to step down. By early afternoon on September 9, protesters had vandalized the Parliament building, other public and private property. The army had several units located within walking distance of critical government buildings but hesitated to intervene to protect the Parliament, Supreme Court, and other important and historical structures from being set ablaze.

In both cases, Bangladesh and Nepal, the consequences were predictable: loss of control, regime collapse, and a vacuum of authority. The constitutions and statutes of Bangladesh and Nepal clearly define the military’s secondary task: to assist civil authorities in times of crisis. This mandate is not discretionary-it is binding. The military’s failure to act decisively when ordered undermined democratic stability and emboldened agitators. The core issue in Bangladesh and Nepal was not lack of capability-it was the exercise of discretion where none was warranted. Armies are not courts. Their role is not to adjudicate the correctness of government orders but to execute them within the bounds of legality and national interest. When armies begin to weigh the political implications of orders, they risk becoming political actors themselves. This undermines civilian supremacy, erodes public trust, and destabilizes democratic institutions. This is particularly dangerous in fragile democracies, where institutional checks are weak and public sentiment volatile. Military hesitation can embolden agitators, weaken governance, and invite external interference

India’s experience offers a compelling counterpoint. The Indian army has long been recognized for its secular, apolitical conduct and disciplined execution of government directives. During Operation Blue Star in 1984, the army was ordered to clear Sikh separatists from the Golden Temple, a mission fraught with religious and political sensitivities. The army did not hesitate. It acted swiftly, fulfilling its constitutional duty without passing judgment on the political context. Similarly, in the aftermath of the Godhra riots in 2002, the Indian army was deployed to restore public order. It moved decisively, securing affected areas and preventing further violence. In both cases, the army did not sit in judgment-it acted as the stabilizing force it was meant to be. Once a government order is given within constitutional parameters, the military’s professional obligation is execution with discipline and competence. The events in Bangladesh and Nepal underscore the urgent need to reaffirm civil-military boundaries. Democracies must ensure clear protocols for military deployment in internal crises, training and doctrine that reinforce apolitical conduct. India’s model, despite its own challenges, offers valuable lessons. The Indian army’s disciplined recognition of supremacy of civilian authority has helped preserve democratic stability even in moments of deep national crisis. When armies hesitate, nations falter.

The post Generals are not Arbiters appeared first on IMR.

After a long hiatus marked by minimal diplomatic interactions, Pakistan and the US have witnessed a significant renewal in their engagement over the past few months. This discernible reset in US-Pakistan relations is characterized by enhanced defence cooperation, economic agreements, and high-level symbolism. Pakistan’s Army Chief has made two official visits to the US in as many months, reflecting a change in the approach of the US. Unprecedented invitations to a private White House lunch with President Donald Trump and the change of command at CENTCOM highlight the reestablishment of close military-to-military and diplomatic ties. The Trump administration has also recalibrated its approach to Pakistan, unveiling a “massive” oil exploration and development deal, and discussing broader cooperation in critical minerals, trade, technology, and counterterrorism. Although several factors have contributed to this shift, media coverage has particularly emphasized Pakistan’s endorsement of Trump for the Nobel Peace Prize as a personal glorification, along with the signing of a deal with World Liberty Financial, a cryptocurrency firm connected to the US President’s family. Underlying strategic reasons include possible future assistance in addressing Iran if required, changing regional dynamics marked by rising US-India trade tensions, new US tariffs on Indian goods, and Washington’s growing frustration with India over its increasing purchases of Russian oil and arms. Unlike in the past, Pakistan is positioning itself as a multidimensional partner of the US to enhance its leverage, not just as a security enabler.

The use of terrorism against India as an instrument of state policy by Pakistan began in 1989. Pakistan’s importance to Washington has fluctuated—peaking during periods such as the anti-Soviet jihad in Afghanistan in the late 1980s, US military engagement in Afghanistan post-9/11, and more recently when Pakistan has been viewed as a facilitator in the Afghan peace process. Historically, terrorist activities in J&K have tended to increase whenever Pakistan’s strategic utility to the United States has risen. Relying on US support as a shield, Islamabad has perceived greater latitude to support proxy war operations with reduced fear of international repercussions and strong punitive measures. During these periods, Pakistan has benefited from increased political leverage and aid flows, while militant groups operating in J&K have often found greater freedom of action. The highest numbers of terrorist killings in J&K occurred during the 1990s and early 2000s, which were the peak years of militancy. During this period, a large portion of the overall casualties—estimated at around 41,000 deaths, including civilians, security personnel, and terrorists—took place. In the 2010s, escalations in terror attacks like the 2016 Uri attack and the 2019 Pulwama attack coincided with critical moments in US-Pakistan cooperation in Afghanistan. Therefore, empirically, the Kargil conflict of 1999 and other surges in violence occurred during or just after periods of intense US-Pakistan cooperation. However, despite periods of global anti-terror pressure, infrastructure and support for militants have persisted in Pakistan, with the involvement of the Inter-Services Intelligence (ISI) in training, arming, and financing these groups.

Operation Sindoor, initiated on May 7, 2025, in the aftermath of the Pahalgam terror attack that claimed the lives of 26 innocent civilians, achieved its strategic and military objectives decisively. These objectives were to punish the perpetrators and planners of terror, destroy their infrastructure, demonstrate resolve, raise costs, impose caution on Pakistan, and thus restore deterrence that had waned since the Balakot air strikes five years ago. India has also adopted a declaratory policy on May 10, stating that any future act of terror will be considered an act of war against the country and will be responded to accordingly. This being an inflection point, the India-Pakistan equation has changed permanently by introducing the certainty of retaliation to every attack. However, it is important to distinguish between high-profile terrorist attacks like Mumbai, Uri, Pulwama, and Pahalgam, and localized, low-intensity terrorist incidents in J&K, which has been suffering from militancy abetted by Pakistan since the late 1980s. These low-intensity attacks, which have been occurring in J&K regularly, cannot be construed as a loss of deterrence.

Now, with Pakistan’s utility to the US having surged, it will be emboldened to continue the proxy war against India and keep tensions simmering. Therefore, terrorist actions below the tolerance threshold—restricted to J&K, targeted killings of migrants, tactical actions on the Line of Control (LC), and trans-LC firing—are likely to continue. The current estimated number of active terrorists in J&K, according to police and intelligence reports, is around 120, with 61 being foreign terrorists. Therefore, to make up numbers, a spike in infiltration of terrorists across the borders in J&K is very likely in the next few months before winter snows make passage across the LC in Kashmir difficult. Murmurs of statehood being restored in J&K are also likely to build pressure on Pakistan to direct terrorist handlers to initiate incidents to demonstrate that it is a disputed territory. These efforts will be complemented by increased narcotics smuggling—especially using drones—incitement of communal violence, and the smuggling of fake Indian currency notes, among other activities aimed at destabilizing India.

This can be related to recent media reports and intelligence inputs alluding to Pakistan having reactivated and rebuilt over 15 terrorist training camps and launch pads within the last 90 days in Pakistan-occupied Kashmir (POK), following India’s Operation Sindoor. Pakistan’s ISI and other government agencies are reportedly providing substantial funding—estimated at more than PKR100 crore—and logistical support to rebuild these camps. The reconstructed camps are smaller in size to avoid detection and are equipped with advanced technological counter-surveillance measures such as radar camouflage, satellite masking, and drone usage. These camps are located across various places in POK, including Kel, Shardi, Dudhniyal, Athmuqam, Jura, Leepa Valley, Tandpani, Nayyali, Jankot, Chakothi, and others. Additionally, four launch pads along the International Border in the Jammu region have also been reactivated. The terrorists are apparently using lessons from Operation Sindoor by employing smaller camps of about two dozen militants and dispersing locations to evade Indian intelligence and military forces. The rebuilt infrastructure efficiently supports recruitment, training, and operational planning for attacks in J&K.

Until US interests shift and Pakistan feels greater pressure to curb such activities again, the security forces need to retain and sustain a robust counter-infiltration posture on the LC, as well as an extensive counter-terrorism grid in the depth areas of J&K, irrespective of overall violence levels. At present, there is no room for complacency or lowering the guard, given the improved security situation in J&K. The gains made by the security forces should not be squandered at this stage.

The author is a former Vice Chief of Army Staff

The post NATIONAL SECURITY – Renewed US-Pakistan Engagement appeared first on IMR.

The post Pakistan’s Ababeel (Shaheen) Missile Fails Again appeared first on IMR.

The post Satellite Images Indicate Indian Strike on Pakistan’s Kirana Hills appeared first on IMR.

Operation Sindoor, the Tri-Services joint operation, was launched in the early morning hours of May 07, 2025, in response to the dastardly, heinous and religiously provocative terrorist attack on innocent Indian civilians at Pahalgam on April 22, 2025. Op Sindoor was a stupendous success and achieved its laid-down military objectives in less than four days. While the success of Op Sindoor should be celebrated for its decisiveness, highly professional and integrated execution, the Indian Armed Forces also need to do a comprehensive, honest, and unbiased analysis of the entire operation to draw the correct lessons and prepare for future more challenging battles. During Op Sindoor, a disturbing facet was noticed; there was significant military collaboration between Pakistan and its all-weather friend China. Turkey also provided military support to Pakistan not only in the run-up to Op Sindoor but even during the conflict. India needs to be cognisant of the increasingly collaborative approach of China and Pakistan and the possibility of a full-fledged two-front war. A few enduring takeaways from Op Sindoor are highlighted in the succeeding paragraphs

Defence Budget Enhancement

The defence budget of India for financial year (FY) 25 is approx. USD 79 billion (fourth largest in the world), which is slightly less than 2% of our GDP. However, it is significantly smaller than the defence budget of our Northern adversary (China) for FY 25, which is USD 245 billion. It needs to be enhanced to approximately 2.5% of GDP as there are several critical capability gaps in the technological upgradation and modernisation of our Armed Forces. This enhanced commitment of funds for external security is absolutely essential for expeditiously developing our military capabilities and capacities to deter our adversaries to our West and North. We need to develop disruptive or asymmetric capabilities for credible deterrence. ’Deterrence is costly, but wars are even costlier’ is a well-known military adage. Presently, India cannot afford to get embroiled in an unnecessary conflict that diverts our focus from our nation’s economic growth.  India needs to ensure that national security is embedded into the edifice of financial security, implying that economic growth cannot be achieved in an unstable geopolitical environment.  India has to achieve its goal of becoming a high-income nation before we become old. We need to wisely utilise our demographic dividend to accelerate our technological, economic and military development and achieve our goal of becoming ‘Viksit Bharat’ by 2047.

Joint and Integrated Operations

Whenever the three Services have planned their operations jointly and executed their plans in an integrated and synergistic manner, they have achieved sensational victories. The only previous example of synergistically executed operations by the Indian Armed Forces has been the 1971 war. One of the most heart-warming features of Op Sindoor was the precise articulation of the national and military objectives and complete synergy was achieved not only amongst the three Services but the Civil-Military fusion as well. Op Sindoor was a jointly planned and synergistically executed operation, wherein the core strengths of the three Services were individually applied towards attaining the common overall military objective. Another feature of Op Sindoor that needs to be stressed is that the overall integrated plans were made under the aegis of the CDS while the individual Service plans were executed under the skilful and professional tutelage of the three Service chiefs. The strengths of this highly successful joint and integrated operations should be thoroughly analysed while finalising and implementing the impending Integrated Theatre Commands. Op Sindoor’s success was also attributable to the ‘whole of nation’ approach – wherein all the diplomatic, informational, military and economic (DIME) measures were synergised to achieve the stated military objective of dismantling the Pakistan military-supported and sponsored terrorist infrastructure and establishing credible deterrence for the future. Any terrorism-related misadventure by Pakistan in the future would incite an even stronger response from India (costs would be higher for Pakistan) is the point that has been made amply clear to Pakistan.

Primacy of Air Power

Op Sindoor’s success has once again very empathetically reiterated the undisputed primacy of air power, which implies that a nation needs to succeed in the air operations to win the war. The same is however not true for land or naval operations. During any conventional or even sub-conventional contingencies, air power is always the fastest to respond and can hit the enemy’s Centres of Gravity simultaneously. In Op Sindoor, air power was used by India in an offensive, unrestrained, precise and calibrated manner for the first time after the 1971 war, and it produced exceptional results wherein the shock and awe of the sustained IAF air strikes forced Pakistan to ask for a ceasefire in slightly less than four days. Op Sindoor is the shortest military operation executed either by India or any other country, wherein the laid-down military objectives were achieved, and operations ceased within a total of 90 hours. The Balakot air strike in the aftermath of the Pulwama incident was the first time that India offensively used air power in pursuit of the national interests in a sub-conventional contingency.  In Op Sindoor, the use of air power in a sub-conventional contingency was taken to the next level with the simultaneous air strikes on nine terrorist training camps/infrastructure in Pakistan and Pakistan occupied Kashmir (PoK). Op Sindoor emphatically demonstrated that calibrated, deliberate and focused use of air power in sub-conventional contingency is non-escalatory. Air power can be utilised offensively in both conventional and sub-conventional operations, even under the nuclear overhang. Op Sindoor also unequivocally emphasised air power’s ability to produce strategic effects using long-range precision weapons with minimum collateral damage without crossing the international borders (IB) and remaining within the bounds of escalatory control.

Equipping IAF Appropriately

Op Sindoor demonstrated the precision, lethality and coercive impact of IAF offensive air strikes. The offensive air strikes had a profoundly demoralising effect on Pakistan’s national morale and war-waging capability. It forced the Pakistanis to throw in the towel and ask for a ceasefire. The IAF is presently grappling with an acute shortage of fighter aircraft due to the repeated extended timelines in the indigenous fighter aircraft development programme and the time-consuming, cumbersome and inefficient defence acquisition procedures (with the delays in procurement of 114 x MRFA aircraft). IAF is also facing a crippling shortage of force multipliers (AWACS and AARs) for supporting offensive air operations. IAF’s fighter squadron strength has dropped to a precarious level (31 Squadrons), the lowest level in the past five decades. These shortages of fighters and force multipliers need to be addressed on a war footing, which has also been recommended by the high-powered defence committee led by Defence Secretary in March 2025. There is an urgent need to build up IAF capabilities expeditiously so as to bridge the large capability gaps with our Northern adversary and also be able to cater for a two-front conflict.

Offensive Air Power – Fighter or UAV Dilemma?

The self-defence capabilities of the modern-day manned fighters combined with the precision, lethality and load-carrying capability; better Situational Awareness and decision-making ability in complex situations mandates that manned fighters would remain the primary aerial offensive platforms in the foreseeable future. In spite of the rapidly increasing capabilities and ranges of Unmanned Aerial Vehicles (FPV drones, loitering munitions, swarm drones and UCAVs), UAVs still have problems of survivability in contested air spaces and are capable of carrying out only limited damage to the adversarial weapon systems. UAVs would increasingly take on a lot of roles of manned aircraft but aerial offence would continue to be predominantly the preserve of manned fighters. UAVs would complement manned fighters in offensive aerial operations rather than replace them in the foreseeable future.

Space Based Capability (ISR, PNT & Communication) Enhancement

The limited number of Indian electro-optical and radar imaging, communications, and Positioning, Navigation and Timing (PNT) satellites performed creditably and provided accurate targeting data and other support services for the air operations during Op Sindoor. However, we were forced to utilise commercial imagery data (Maxar, etc.) to beef up the layered targeting imagery provided by our domestic satellites or for Battle Damage Assessment (BDA). India needs to accelerate the proposed timelines for the launches of our Space-based Surveillance network (SBS-3) satellites to shorten the revisit times to approximately 2 hours (Chinese ISR satellites presently have a revisit time of approximately 30 mts). India also needs to replace the old life-expired NavIC satellites with new satellites expeditiously, strengthen the ground segment and upgrade the NavIC services to NavIC 2.0.

Focus on Defence R&D and Induction of State-of-the-art Technologies

The mil-technological edge of India vis-a-vis Pakistan that was amply visible during Op Sindoor needs to be further enhanced while making all endeavours to narrow down the mil-technological edge that China presently enjoys with regard to India. This needs to be achieved through a dedicated focus on the development of cutting-edge technologies like high-power jet engines, hypersonics, long-range precision weapons and Artificial Intelligence and their rapid induction into the Services. A holistic approach towards technology development must be fostered wherein failure must be accepted as a stepping stone to success. The MoD’s defence R&D budget needs to be enhanced significantly, and guidance and hand-holding must be provided to the private defence industry and start-ups. MoD must encourage and foster collaboration amongst the DPSUs, the private defence industry, the start-ups and the academia.

Strengthen Atmanirbharta

Op Sindoor demonstrated the stupendous success of India’s Atmanirbharta initiatives. The sterling performance and contribution of the indigenous weapon systems and weapon platforms to the success of the operations was indeed commendable and needs to be sustained. Though the gestation period for indigenous development of weapon systems is always much longer, the services must continue to encourage and support the indigenisation process. All the players – the DPSUs, the three services, the private industry, the start-ups and the academia need to be fully involved and supportive of the indigenisation process. The Atmanirbharta initiative needs to be further strengthened with a ‘whole-of-nation’ approach and be made more broad-based. The indigenous development programs of Tejas Mk1A, Tejas Mk II, AMCA, the 110 kN high-performance jet engine, long-range precision weapons, larger range BVR AAMs (Astra- II, III), Ghatak UCAV, swarm drones, larger range DEW C-UAS systems and the CATS air warrior program need to be focused upon and speeded up.

Combined Joint All Domain Command and Control (CJADCC)

The IACCS and Akashteer were a huge success, the backbone of the Integrated Air Defence network centricity, and they were crucial enablers for air defence operations during Op Sindor. The IACCS and Akshteer Integrated Air Defence System endowed its numerous users with an unmatched Situational Awareness that significantly reduced the OODA (Observe, Orient, Decide and Act) loop, the Sensor-to Shooter time-lag and ensured the protection of the Indian air space. India mus further enhance this network by integrating the naval sensors and their C&C network (Trigun) with IACCS. Simultaneously, India needs to start working on upgrading the integrated Tri-Service C&C network to the Combined Joint All Domain Command and Control (CJADCC), which would be capable of coordinating and controlling all the sensors and shooters in multiple domains (all five domains) – Air, Land, Sea, Space and Cyberspace.

Information Warfare/Cognitive Warfare

Information/Cognitive Warfare has become increasingly critical in shaping the strategic narrative as the perception battle is being intensely monitored and commented upon by the international media. The briefings done by the DGMOs of the three services were comprehensive and done professionally. They were very well received not only by the national but also by the international media. They helped in shaping the strategic narrative. In all future operations, this system of briefings by the DGMOs of the three services should be followed, with interim briefings  by the Ministry of External Affairs (MEA) and MoD representatives.

Conclusion

India needs to prepare for the future and expeditiously build up the capabilities of our Armed Forces as future battles/wars would be appreciably more intense, more widespread (probably two-front) and multi-domain (encompassing Land, Sea, Air, Space, Cyberspace and the Cognitive domains.)  Future wars would have a greater infusion of technology and artificial intelligence and would be increasingly fought in the digital and shadowy grey zones of cyberspace, space and cognitive domains. It would need an integrated ‘Whole-of-Nation’ approach with even greater Civilian Military Fusion for ensuring success.

Courtesy: Centre for Air Power Studies

The post INDIA-PAKISTAN Op Sindoor’s Enduring Takeaways appeared first on IMR.

Fully Owned Chinese Companies in India

Fully owned Chinese companies operate in India, particularly in electronics, mobile manufacturing, and other industrial sectors. These companies have established manufacturing units and local operations to cater to India’s large consumer base.

Implications of Chinese Investments

• Economic Integration: Chinese companies have embedded themselves deeply into India’s technology and consumer markets, particularly through investments in startups and manufacturing.

• Geopolitical Concerns: Given border tensions between India and China, these investments have raised concerns about economic dependence and security risks.

• Regulatory Challenges: India has tightened FDI norms for countries sharing borders post-2020, slowing down new investments from China.

• Market Influence: Chinese companies dominate sectors like smartphones (72% market share), creating significant economic leverage.

While Chinese investments have contributed to India’s economic growth, they remain a point of contention due to geopolitical sensitivities and concerns about strategic dependencies.

Investment Comparison From Other Countries

Chinese investments in India are relatively smaller compared to those from other major countries, yet they are strategically significant due to their concentration in high-growth sectors like technology, electronics, and infrastructure. Their scale is dwarfed by contributions from other major economies like Japan and the U.S., which offer greater diversification and long-term partnerships across multiple industries.

Here’s a comparison of Chinese investments with other countries and the implications:

• FDI Stock: Official figures place Chinese investments in India at $2.5 billion, though estimates including indirect investments suggest a total closer to $17 billion.

• Key Sectors: Chinese investments are concentrated in electronics (e.g., Xiaomi, Vivo), mobile manufacturing, infrastructure (e.g., Sinosteel, Sino Hydro Corporation), and technology startups (e.g., Alibaba’s stake in Paytm and BigBasket).

• Dominance in Consumer Electronics: Chinese companies like Xiaomi and Vivo dominate the Indian smartphone market, collectively holding over 72% of market share.

Japan: Japan has invested $42.55 billion in India from April 2000 to March 2024, making it the fifth-largest FDI contributor. In 2023 alone, Japanese FDI exceeded $5 billion, focusing on sectors like automobiles (Suzuki, Toyota), infrastructure (high-speed rail), and electronics manufacturing.

United States: The U.S. is one of the largest investors in India, with cumulative FDI exceeding $50 billion. American companies are prominent in technology (Google, Amazon), defense, and pharmaceuticals.

European Union: EU nations collectively contribute substantial FDI to India across diverse sectors like renewable energy, automotive manufacturing, and financial services.

The implications of Chginese investments in India are as follows;

Strategic Leverage: While Chinese investments are smaller compared to Japan or the U.S., they are concentrated in critical sectors like technology and consumer goods, giving China significant economic leverage.

Geopolitical Concerns: India’s tightened FDI norms since 2020 reflect concerns about national security and dependency on Chinese capital.

Economic Diversification: Countries like Japan and the U.S. provide broader sectoral diversification compared to China’s focus on electronics and infrastructure.

China-Plus-One Strategy: India is actively attracting investments from other nations as part of this strategy to reduce dependency on China.

How is Chinese Investment Regulated in India

The Indian government has implemented stringent regulations for Chinese Foreign Direct Investment (FDI) due to security concerns and geopolitical sensitivities. These measures were introduced in April 2020 through Press Note 3 (Pn3), which mandates prior government approval for all investments from countries sharing land borders with India, including China.

The key regulations for Chinese FDI in India are as follows:

Mandatory Government Approval. All investments originating from China, or where the beneficial owner is Chinese (directly or indirectly), require prior approval from the Indian government. This applies to new investments, infusion of funds into subsidiaries, and share transfers within Chinese group companies. Approval is required regardless of the sector, although sensitive sectors like defense, telecommunications, and private security face additional scrutiny.

Security Clearance. Investments in sensitive sectors are subject to clearance by the Ministry of Home Affairs (MHA), which can extend the approval process by 1-2 weeks beyond the standard 10-14 weeks.

Restrictions on Portfolio Investments. Since 2023, foreign portfolio investors (FPIs) with significant Chinese holdings must disclose ultimate beneficial ownership to obtain registration from the Securities and Exchange Board of India (SEBI). Applications from Chinese-linked FPIs face enhanced scrutiny.

Exceptions. Existing investments by Chinese companies are not impacted by these rules unless additional funds are infused or shares are transferred within group companies. Multilateral banks or funds in which India is a member are exempt from these restrictions.

Sector-Specific Rules. While 100% FDI is allowed in several sectors under the automatic route, investments from China must follow the approval route even in sectors otherwise open to automatic investment. Sensitive sectors have additional conditions.

Some of the implications of this policy are as follows;

• The approval process for Chinese FDI now takes 10-14 weeks or longer, significantly delaying business operations compared to pre-2020 norms.
• Law enforcement agencies closely monitor Chinese companies for compliance with tax, customs, and security regulations.
• Many Indian startups previously benefited from Chinese capital through venture funding. These restrictions have reduced access to such funding, pushing startups to seek alternative sources.
• India’s regulatory framework for Chinese FDI reflects its cautious approach to balancing economic opportunities with national security concerns. While these measures have slowed down Chinese investments, they aim to safeguard India’s strategic interests amidst geopolitical tensions.

The post CHINA Chinese Investments in Critical Sectors in India appeared first on IMR.

The United States military is among the most formidable and extensively deployed armed forces globally. With a global presence spanning across numerous continents, it is involved in numerous operations, from peacekeeping missions to strategic deterrence, humanitarian relief efforts, and active combat. Understanding the global presence of the U.S. military demands a thorough dive into its deployment numbers, the strategic interests motivating its global footprint, and the obstacles and critiques it encounters. This article discusses ten major concerns connected to the global deployment of U.S. military, offering a full analysis of the topic.

1. Global Deployment Statistics and Locations

As of 2023, the U.S. military maintains a strong presence in over 70 nations globally, with roughly 200,000 troops stationed abroad. This extensive network of installations and personnel is essential to the U.S. defense strategy, facilitating power projection and maintaining worldwide influence. The military’s presence is particularly prominent in crucial regions including Japan, Germany, South Korea, and the Middle East.

— Japan: The United States military has maintained a presence in Japan since the conclusion of World War II, with approximately 50,000 personnel stationed there, particularly at the Kadena Air Base in Okinawa. Japan serves as a major center for U.S. military operations in the Asia-Pacific area.

— Germany: Germany hosts roughly 35,000 U.S. military personnel, principally stationed at bases like Ramstein Air Base, which acts as a logistical hub for U.S. operations in Europe, the Middle East, and Africa.

— South Korea: The U.S. maintains a presence of approximately 28,500 troops in South Korea, which serves as a fundamental element of its military strategy in Asia, intended to deter North Korean aggression and ensure security assurances to the South Korean government.

The United States sustains a substantial presence in the Middle East, especially in Iraq, Kuwait, Bahrain, and Saudi Arabia, with thousands of troops engaged in counterterrorism operations, regional security, and support for allies such as Israel.

This deployment serves various purposes, including deterring potential adversaries, providing security to U.S. allies, and ensuring the free flow of trade and resources.

2. Historical Context

The development of the U.S. military’s international presence originated with the conclusion of World War II, when the U.S. ascended as a predominant superpower. Following the war, the U.S. aimed to sustain military dominance and exert influence worldwide, chiefly by establishing overseas military installations.

— Post-World War II: Following World War II, the U.S. military assisted in the reconstruction of Europe and Japan. The creation of permanent bases in Europe and the Pacific helped the U.S. to maintain a strategic presence, ensuring that the balance of power stayed in its favor during the early years of the Cold War.

— Cold War Era: The U.S. military’s international presence markedly increased during the Cold War, motivated by the necessity to curb the proliferation of communism. This era witnessed U.S. military installations in areas such as Western Europe, the Middle East, and the Asia-Pacific, alongside augmented defense budgets to bolster military readiness against the Soviet Union and its allies.

— Post-9/11: The attacks on September 11, 2001, marked a new chapter in U.S. military operations. The U.S. military’s involvement in the Middle East and Central Asia expanded significantly, especially during the invasions of Afghanistan and Iraq. The United States established military installations in Iraq, Afghanistan, and adjacent nations to counter terrorism and foster regional stability.

3. Strategic Interests

U.S. military deployments are influenced by a confluence of strategic interests, encompassing alliances, security imperatives, economic considerations, and access to essential resources.

— Alliances: The U.S. military presence globally underpins a network of alliances, notably NATO, which is essential to the U.S. security strategy. These alliances allow the U.S. to sustain a worldwide presence and offer security assurances to nations that may otherwise be susceptible to regional threats.

— Security: The primary reason for U.S. military deployments is national security. The deployment of soldiers in critical places enables the U.S. to swiftly address emergent threats, including conventional combat, terrorism, and weapons proliferation.

— Economic Interests: The U.S. military guarantees access to international markets and resources. The U.S. sustains a presence in the Middle East to secure the stability of oil markets and facilitate unobstructed transit through vital maritime chokepoints such as the Strait of Hormuz.

— Power Projection: The U.S. military presence facilitates worldwide power projection, discouraging enemies from undertaking aggressive acts against American interests and sustaining the U.S.’s status as a global leader.

4. Presence in the Middle East

The U.S. military has maintained a significant presence in the Middle East for numerous decades, with the region being pivotal to U.S. foreign policy. U.S. engagement in the Middle East is motivated by a confluence of geopolitical, economic, and security factors.

— Counterterrorism: Following the 9/11 attacks, the U.S. military’s engagement in the Middle East became predominantly centered on counterterrorism efforts. U.S. forces were dispatched to Afghanistan to dismantle al-Qaeda and subsequently engaged in Iraq to counter the emergence of ISIS.

— Support for Allies: The United States has historically been a strategic friend of Israel, offering military funding and support in return for a robust and stable partner in the area. The U.S. has sustained military alliances with nations such as Saudi Arabia, Qatar, and the UAE, thereby assuring regional stability and resource accessibility.

— Iran: A large component of U.S. military activity in the Middle East is intended at opposing Iran’s influence in the region. The U.S. has stationed troops in countries like Bahrain and Kuwait to counter Iranian military activity and maintain a check on Iran’s nuclear ambitions.

NATO and European Presence

The United States’ dedication to NATO and its military deployment in Europe are essential elements of its comprehensive military strategy. The U.S. has been a cornerstone of NATO, both in terms of military backing and leadership.

— Countering Russian Aggression: In recent years, the U.S. military has ramped up its presence in Europe in response to Russia’s aggressive actions, particularly its annexation of Crimea in 2014 and the invasion of Ukraine in 2022. U.S. forces are stationed in NATO nations such as Poland, the Baltic states, and Germany, offering a formidable deterrent to Russian expansionism.

— European Security: The U.S. presence in Europe protects the defense of NATO member nations and promotes regional security. Alongside mitigating Russian threats, U.S. forces also engage in peacekeeping operations in regions such as the Balkans and partake in collaborative training exercises with NATO allies.

6. Presence in the Asia-Pacific Region

The U.S. military maintains a substantial presence in the Asia-Pacific region to ensure stability in one of the world’s most dynamic and critical areas.

— Japan: The U.S. maintains a military presence in Japan to ensure regional stability, particularly in light of North Korea’s growing missile capabilities and China’s rising influence. The United States extends security assurances to Japan via the U.S.-Japan Security Treaty.

— South Korea: South Korea serves as a crucial ally in the region, hosting U.S. troops to counter North Korean hostility. The United States and South Korea engage in collaborative military drills to maintain preparedness for potential conflict on the Korean Peninsula.

— China’s Ascendancy: With the expansion of China’s influence, the U.S. military has boosted its presence in the Asia-Pacific region to counteract China’s assertive maneuvers in the South China Sea and its escalating military capabilities. This encompasses a forward-deployed naval presence and air bases within the region.

7. Military Spending and Budget

Maintaining a global military presence comes at a tremendous financial expense. The U.S. defense budget is the largest in the world, at about $750 billion annually. This budget allocates resources for personnel, equipment, operating expenditures, and the building and maintenance of military installations globally.

— Global Defense Expenditure: U.S. military spending makes for a considerable share of global defense expenditures, which raises problems about sustainability and priorities. Critics contend that the United States allocates excessive resources to military operations overseas, therefore overlooking home concerns.

— Costs of Stationing Troops: Deploying military forces overseas incurs significant costs. The annual expense of sustaining U.S. bases in Germany is projected to exceed $30 billion. The financial impact is significant, despite modest offsets from host governments.

— Strategic Allocation: Although the U.S. military’s expenditure guarantees preparedness and international supremacy, there are persistent discussions on the potential reallocation of these resources to confront emerging threats such as cybercrime, climate change, and pandemics.

8. Forward Presence Strategy

The notion of forward presence pertains to the U.S. military’s strategy of deploying forces overseas to dissuade possible rivals and provide assurance to allies. This presence allows the U.S. to respond rapidly to potential crises and provides a concrete reminder of American military strength.

— Deterrence and Assurance: Forward presence functions to dissuade adversaries and to reassure U.S. allies of America’s commitment to their security. This is especially crucial in areas such as Eastern Europe and the Asia-Pacific, where the U.S. military presence can deter hostile acts.

— Swift Reaction: Forward presence allows the U.S. to swiftly address conflicts or emergencies, frequently eliminating the necessity to send forces from the U.S. mainland. This skill is essential in situations where time is crucial, such as in a possible battle with China or Russia.

9. Obstacles and Critiques

Notwithstanding its strategic benefits, the global presence of the U.S. military has encountered criticism and obstacles.

— Overextension: One of the primary concerns is the overextension of U.S. forces. The military’s vast responsibilities abroad can strain resources, weaken readiness, and create vulnerabilities if new conflicts occur.

— Monetary Expenditures: The expenditure on global military bases and operations is substantial, and detractors contend that these resources could be more effectively allocated to domestic infrastructure, healthcare, and education.

— Impact on Local Populations: The presence of foreign military bases has proved controversial in several countries. Some perceive the U.S. as a protector of security, while others regard its military presence as an intrusive force that undermines local life and sovereignty.

10. Prospective Trajectories and Policy Transformations

The future of U.S. military engagement overseas will hinge on evolving geopolitical circumstances. With China and Russia emerging as principal adversaries, the U.S. may prioritize military presence in these regions.

— Pivot to Asia: The Obama administration’s “Pivot to Asia” plan prioritized reallocating military assets to the Asia-Pacific region to address China’s ascendance. This trend is expected to persist, with an increased emphasis on naval and aerial capabilities in the region.

— NATO and Russian Aggression: NATO’s role will continue to be a cornerstone of U.S. military policy, particularly in light of Russia’s activities in Ukraine. Increased military support for Eastern European nations and a strengthened deterrence posture will certainly remain a focus.

— Ascendant Hazards: Future policy changes will be influenced by rising threats like as cyber warfare, climate change, and the spread of weapons of mass destruction. The United States may modify its worldwide presence to tackle these issues, emphasizing new technology and multinational collaborations.

Final Assessment

The global presence of the U.S. military is a cornerstone of its defense policy, ensuring global influence, regional stability, and the ability to respond to emergencies in real time. This extensive deployment has considerable advantages, including deterrence and force projection, although it also presents substantial obstacles, such as overextension, financial strains, and local population complaints. As global dynamics continue to alter, the future of U.S. military policy will depend on how well it adapts to emerging challenges and maintains a balance between global force projection and domestic goals.

The post GEOPOLITICS U.S. Military’s Global Presence appeared first on IMR.

Afghanistan

The Taliban almost certainly will remain firmly in control of Afghanistan during the next year and continue to combat ISIS-Khorasan and anti-Taliban resistance groups, though these groups still conduct deadly attacks in country. The Taliban also continues to restrict al-Qa’ida and its affiliates’ activities in accordance with the Taliban’s perception of its Doha Agreement obligations, though some al-Qa’ida elements probably circumvent these restrictions to provide modest covert support to the Tehrik-e Taliban Pakistan militant group. Low-level Taliban members continue to kill or arrest former Afghan government and military personnel, but senior regime leaders probably are not directing this campaign.

The Taliban has made some progress toward gaining de facto recognition with regional partners, despite persistent concerns about the state of human rights, inclusive representation in government, and militancy in Afghanistan. Iran has met with the Taliban to discuss water rights and threats posed by terrorist groups, particularly ISIS-Khorasan and Jaysh al-Adl.

India is pursuing low-level engagement with the Taliban, focused on humanitarian assistance, countering terrorism, and enabling private sector growth.

• Russia is continuing to deepen its relationship with the Taliban, expressing its intent to formally recognize the government and cooperate against terrorism. In September 2024, the Russia Ministry of Foreign Affairs spokesperson emphasized Russian efforts to remove the Taliban from Russia’s list of terrorist groups and develop multilateral cooperation while blaming the West for instability in the country.

• In January 2024, China’s President Xi accepted the diplomatic credentials of a Taliban- appointed ambassador. The Taliban’s focus on improving internal security and reducing violence has enabled some foreign investments from China, including oil extraction and copper mining activities in Afghanistan.

India

Indian Prime Minister Narenda Modi’s defense priorities will probably focus on demonstrating global leadership, countering China, and enhancing New Dehli’s military power. India views China as its primary adversary and Pakistan more an ancillary security problem to be managed, despite cross-border attacks in mid-May by both India’s and Pakistan’s militaries.

• Following a late April terrorist attack in Jammu and Kashmir, New Delhi conducted missile strikes on terrorism-related infrastructure facilities in Pakistan. The missile strike provoked multiple rounds of missile, drone, and loitering munition attacks, and heavy artillery fire, by both militaries from 7 to 10 May. As of 10 May, both militaries had agreed to a full ceasefire.

To counter Chinese influence and boost its global leadership role, India is giving priority to advancing its bilateral defense partnerships in the Indian Ocean region through exercises, training, arms sales, and information sharing. India also has increased trilateral engagement in the Indo-Pacific region and actively participates in multilateral fora such as the Quadrilateral, BRICS, Shanghai Cooperation Organization and ASEAN.

• In late October 2024, India and China reached an agreement to move forces away from the two remaining contested positions along the disputed Line of Actual Control in eastern Ladakh. The disengagement did not resolve the longstanding dispute about border demarcation but reduced some tension still lingering from a 2020 incident when troops on both sides were killed in a clash along the Line of Actual Control.

India almost certainly will continue promoting its “Made in India” initiative this year to build its domestic defense industry, mitigate supply chain concerns, and modernize its military.

India continued to modernize its military in 2024, conducting a test of the nuclear-capable developmental Agni-I Prime MRBM and the Agni-V multiple independently targetable reentry vehicle while also commissioning its second nuclear-powered submarine to strengthen its nuclear triad and bolster its ability to deter adversaries.

India will maintain its relationship with Russia through 2025 because it views its ties to Russia as important for achieving its economic and defense objectives and sees value in the relationship as a means to offset deepening Russia-China relations. Under Modi, India has reduced its procurement of Russian-origin military equipment but still relies on Russian spare parts to maintain and sustain its large inventory of Russian-origin tanks and fighter aircraft that form the backbone of its military’s ability to counter perceived threats from China and Pakistan.

Pakistan

During the next year, the Pakistani military’s top priorities are likely to remain cross-border skirmishes with regional neighbors, rising attacks by Tehrik-e Taliban Pakistan and Baloch nationalist militants, counterterrorism efforts, and nuclear modernization. Despite Pakistan’s daily operations during the past year, militants killed more than 2,500 people in Pakistan in 2024.

• Pakistan regards India as an existential threat and will continue to pursue its military modernization effort, including the development of battlefield nuclear weapons, to offset India’s conventional military advantage.

• Pakistan is modernizing its nuclear arsenal and maintaining the security of its nuclear materials and nuclear command and control. Pakistan almost certainly procures WMD-applicable goods from foreign suppliers and intermediaries.

• Pakistan primarily is a recipient of China’s economic and military largesse, and Pakistani forces conduct multiple combined military exercises every year with China’s PLA, including a new air exercise completed in November 2024. Foreign materials and technology supporting Pakistan’s WMD programs are very likely acquired primarily from suppliers in China, and sometimes are transshipped through Hong Kong, Singapore, Turkey, and the United Arab Emirates. However, terrorist attacks targeting Chinese workers who support China-Pakistan Economic Corridor projects has emerged as a point of friction between the countries; seven Chinese nationals were killed in Pakistan in 2024.

• Pakistan and Iran have taken steps, including high-level meetings, to deescalate tensions after the two countries conducted unilateral airstrikes on each other’s territory in January 2024 in response to cross-border terror attacks.

• In September 2024, Taliban and Pakistani border forces clashed near border posts, resulting in the death of eight Taliban fighters. In March 2025, Pakistan and the Afghanistan exchanged air and artillery strikes on each other’s territory, each citing alleged militant infrastructure as the targets.

===

Key Highlights from DIA’s Worldwide Threat Assessment 2025

China’s Strategic Posture:

• Accelerated PLA modernization aims to enable a Taiwan takeover by force if needed.

•  Massive investments in nuclear, space, cyber, and disinformation capabilities.

• Expanding global basing and maritime presence from Cambodia to Africa.

Russia’s War Trajectory:

• Sustained war in Ukraine with incremental gains, high human and material costs.

• Increasing use of cyberattacks, space-based weapons, and destabilization operations across Europe and Africa.

Tech-Driven Threat Evolution: AI, space, cyber, biotech, and unmanned systems are reshaping global conflict and espionage strategies.

Rising Adversarial Coordination: China, Russia, Iran, and NorthKorea are intensifying bilateral military, tech, and diplomatic collaboration to counter U.S. influence.

Hybrid and Asymmetric Warfare: From Iranian proxy strikes to North Korean missile exports and cybercrime, non-traditional threats are expanding in complexity and reach.

Homeland Vulnerabilities: U.S. infrastructure faces growing threats from drones, fentanyl trafficking, cyberattacks, and potential terrorist infiltrations via the southern border.

Global Flashpoints: The Taiwan Strait, South China Sea, Red Sea, and Central Asia remain hotspots for escalation with direct implications for U.S. and allied interests.

Bottom line: The security landscape is defined by hybrid conflict, deepening adversarial ties, and accelerating technology disruption.

Strategic foresight and resilience are no longer optional they’re imperative.

The post GEOPOLITICS DIA’s Assessment – Security Situation in South Asia appeared first on IMR.

China has lent substantial amounts to various countries for energy and infrastructure projects, primarily under its Belt and Road Initiative (BRI).

These debts reflect China’s extensive global investments in energy, transport, and connectivity projects, often resulting in significant financial obligations for borrowing nations.

Main projects Driving Pakistan’s Debt to China

Pakistan’s debt to China is primarily driven by projects under the China-Pakistan Economic Corridor (CPEC), a flagship initiative of China’s Belt and Road Initiative (BRI). Here are the main projects contributing to Pakistan’s debt:

Energy Projects. A significant portion of Pakistan’s debt stems from energy infrastructure, including coal, hydro, wind, and solar power plants. These projects were designed to address Pakistan’s chronic energy shortages but have resulted in substantial financial obligations due to high-interest loans and capacity payments owed to Chinese companies. Under the Energy Framework Agreement, Pakistan is required to allocate funds to ensure Chinese investors are compensated for any shortfalls, further adding to its financial burden.

Infrastructure Development. CPEC includes the construction of highways and motorways, such as the Karakoram Highway and the Multan-Sukkur Motorway, which aim to improve connectivity within Pakistan and with China. The modernization of Pakistan Railways, including the Main Line-1 (ML-1) project, is another key component of CPEC. This project alone is estimated to cost $6.8 billion.

Gwadar Port Development. The development of Gwadar Port and its associated infrastructure has been a central focus of CPEC. This includes port facilities, an international airport, and free trade zones aimed at making Gwadar a regional trade hub.

Special Economic Zones (SEZs). CPEC includes the establishment of SEZs across Pakistan to promote industrialization and attract foreign investment. However, these zones have yet to deliver significant economic benefits.

Pipelines and Energy Transmission. Projects include oil and gas pipelines as well as energy transmission lines to facilitate energy distribution across Pakistan.

While these projects have improved infrastructure and energy availability in Pakistan, they have also created a heavy debt burden due to high-interest loans, limited economic returns from the projects, and inefficiencies in project management. As of 2023, China accounted for approximately 30% of Pakistan’s external debt, with much of it tied to CPEC-related initiatives.

Debt Converted to Ownership

China’s “debt-trap diplomacy” refers to instances where countries, unable to repay loans for major infrastructure projects funded by China, have ceded control of strategic assets. Below are notable examples where this has occurred:

Sri Lanka. Sri Lanka leased the Hambantota Port to China Merchants Port Holdings for 99 years in 2017 after failing to repay $1.4 billion in loans from China. This has been widely cited as a classic example of debt-trap diplomacy, granting China strategic influence in the Indian Ocean.

Laos. In 2020, Laos ceded a 90% stake in its electricity grid (Électricité du Laos Transmission Company) to a Chinese company after struggling with debt repayments. This move gave China significant control over the country’s energy infrastructure, raising concerns about its ability to influence domestic energy supplies.

Tajikistan. Facing challenges in repaying Chinese loans, Tajikistan reportedly granted mining rights for gold and silver deposits to Chinese companies. This arrangement has been viewed as a way for China to secure valuable natural resources in exchange for debt relief.

Kyrgyzstan. Kyrgyzstan, heavily indebted to China, risks losing control over key infrastructure such as the Bishkek thermal power plant and the Datka-Kemin power transmission line if it defaults on its loans.

Zambia. There have been concerns that Zambia might lose control of ZESCO (electricity company) due to its inability to service Chinese loans tied to energy and infrastructure projects. While no formal transfer has occurred yet, the situation highlights the risks of debt dependency.

These examples illustrate how China’s lending practices can lead to significant economic and strategic leverage over borrowing nations, often involving critical infrastructure or natural resources. However, it is worth noting that some analysts argue that these cases are exceptions rather than standard practice and that many countries willingly accept such terms due to their pressing financial needs.

The post CHINA How China’s Debt Traps Work appeared first on IMR.