The Black Powder Pakistan Cannot Afford to Overlook

As the battery market heads towards $2.69 billion, the real opportunity lies beyond assembly—in advanced materials, domestic manufacturing and technological self-reliance. Every battery has a materials story. Behind the familiar phone, solar inverter, electric motorcycle and backup power system lies a complex chain of minerals, chemicals and engineered materials. Pakistan is expanding its battery market, but an important question remains: how much value can the country capture if critical materials continue to arrive from abroad? One overlooked material deserves particular attention: acetylene black, a highly conductive form of carbon used in specialized industrial applications, including batteries. It is not ordinary soot, nor is it interchangeable with every grade of commercial carbon black. Its value lies in its carefully controlled properties, which can help improve electrical connectivity in battery electrodes. Pakistan already has experience in conventional carbon-black production. National Petrocarbon, for example, identifies itself as a domestic producer supplying the rubber and tyre industries. Yet conventional carbon black and high-performance battery-grade conductive carbon serve different specifications and markets. Developing the latter requires materials engineering, stringent quality control and sustained investment in research.

The commercial opportunity is substantial. According to Mordor Intelligence’s Pakistan Battery Market report, the country’s battery market was valued at approximately $1.48 billion in 2025. It is projected to reach $1.65 billion in 2026 and $2.69 billion by 2031, representing a compound annual growth rate of 10.25 per cent over 2026–2031. These are market-research estimates, rather than official government statistics. The composition of this market matters as much as its size. Lead-acid batteries accounted for an estimated 69.3 per cent of market revenue in 2025, reflecting their established role in automobiles, uninterruptible power supplies and backup systems. Meanwhile, lithium-ion batteries are projected to grow at approximately 14 per cent annually through 2031. The lithium-ion segment alone could expand from $429.48 million in 2026 to $826.56 million in 2031.

A lithium-ion battery is not simply a container filled with chemicals. Its electrodes combine active materials, conductive additives and binders. The active materials store and release energy; the binders hold the electrode structure together; and conductive carbon helps electrons travel through the electrode network. Different carbon materials serve different purposes. Graphite is widely used as an anode material in conventional lithium-ion batteries, whereas conductive carbon black helps establish electrical connections within electrodes. Acetylene black is one specialized conductive-carbon option. Its suitability depends on the battery chemistry, electrode formulation and required performance. The distinction is commercially important. Producing ordinary carbon black does not automatically establish the capability to manufacture battery-grade acetylene black. Purity, particle structure, surface characteristics, conductivity, dispersion and batch-to-batch consistency must meet customer specifications.

Pakistan possesses mineral resources that could support a broader materials-based industrial strategy. The Associated Press of Pakistan reported in January 2024 that Sindh’s mineral resources included bentonite, limestone, China clay and other industrial minerals, while resources reported across Pakistan included graphite, copper, cobalt, silica and nickel. The report also highlighted the need to develop industries that process resources into higher-value products rather than exporting them in raw form. However, mineral occurrence is not the same as a commercially viable supply chain. Battery-grade graphite, specialized conductive carbon and other advanced materials require appropriate feedstocks, processing technologies, purification, testing and reliable industrial-scale production. Geological surveys, mineral characterization and economic feasibility studies must precede investment decisions. The opportunity is to connect mining with chemistry, materials science, manufacturing and quality assurance. Universities, industrial laboratories and private companies can jointly investigate carbon processing, conductive additives, electrode formulations and materials suited to Pakistan’s growing energy-storage market.

Pakistan should begin with a national battery-materials assessment. The Ministry of Industries and Production, Ministry of Energy, engineering universities and battery manufacturers should establish actual import volumes, prices, grades, end uses and projected demand for acetylene black, conductive carbon black, graphite, electrolytes, separators and other essential inputs. The next step should be a targeted research and development programme. Universities and industrial partners could establish pilot facilities to evaluate locally available feedstocks, develop purification and processing methods, and test materials against internationally recognized specifications. Public funding should be linked to measurable milestones, independent technical validation and credible industrial demand.

Pakistan must also develop standards for battery performance, fire safety, materials quality, recycling and responsible disposal. Lead-acid battery recycling already provides an industrial foundation, but lithium-ion batteries introduce different chemical, fire and waste-management risks. A domestic battery ecosystem must include safe collection, recycling infrastructure and appropriate environmental safeguards. Pakistan does not need to manufacture every battery component immediately. It needs a sequenced strategy that identifies where domestic production is technically feasible, commercially competitive and strategically valuable. Acetylene black offers a useful starting point because it illustrates a wider industrial challenge: a country can possess raw materials, manufacture familiar products and still depend on imported specialized inputs. Closing that gap requires scientific capability, patient capital, reliable standards and sustained collaboration between government, academia and industry.

The next phase of Pakistan’s battery story should not be measured only by how many batteries are assembled or sold. It should also be measured by how much domestic technological capability, skilled employment, export potential and industrial value are created along the supply chain. The black powder inside a battery may be invisible to consumers. The economic opportunity it represents should not be invisible to policymakers.