25 min read • 6,500 words

On Building in Regulated Industries: Why I Chose the Hardest Path

The pharmaceutical industry rewards patience, discipline, and the ability to navigate systematic complexity. Most founders avoid it. That is precisely why I chose to build NovaPharm Healthcare in the UK under MHRA and EU-GMP regulation. This essay explains why regulated industries are structurally different from software, why most founders rationally flee them, and why that exodus creates sustainable advantage for those willing to absorb the friction.

The Structural Reality of Regulated Industries

Regulated industries—pharma, healthcare, infrastructure, energy, defense, finance—operate under fundamentally different constraints than software. The difference is not cosmetic. It is architectural.

In pharmaceutical distribution, the regulatory framework is not a hurdle to jump once and forget. It is a permanent operating structure. The MHRA (Medicines and Healthcare Products Regulatory Agency) in the UK, the EMA (European Medicines Agency) in Europe, and the FDA in the United States enforce standards through multiple layers: manufacturing authorization, quality assurance, cold-chain compliance, and Good Manufacturing Practice (GMP)[1]. Each layer has inspection cycles, documentation requirements, and audit obligations that run continuously throughout the life of the business.

To obtain a parallel import license in the UK—the pathway I am pursuing—requires submission of a simplified application with a £2,400 fee for basic products, extending to £5,969 for more complex applications[2]. This sounds modest. The reality is far more intricate. The application demands proof of: (1) quality control systems compliant with UK GMP standards; (2) pharmacovigilance capability; (3) wholesaler and distributor licensing; (4) verification systems for the Falsified Medicines Directive (FMD); and (5) supply chain traceability[2]. Processing times average 90 working days, though actual timelines often extend to 150-210 days when MHRA requests clarifications or conducts site inspections.

Regulatory Approval Timelines: Pharma vs Software
Days from application to market launch
Software MVP 30 days MHRA Parallel Import 90 days MHRA Standard Drug 210 days MHRA (actual 2024) 333 days FDA Standard Review 18 months (540 days) Clinical Trial (all phases) 7-10 years
Sources: MHRA 2024-2025 data, FDA standard timelines, clinical trial industry averages. Software MVP based on typical lean startup deployment cycles. Grayscale intensities represent timeline length.

For new pharmaceutical products, the approval timeline is more demanding. The MHRA's standard national procedure takes approximately 210 days, though as of January 2024, the actual average exceeded 333 days for established medicines[3]. The newer International Recognition Procedure (IRP), leveraging pre-approval from reference regulators (FDA, EMA, TGA, PMDA), compresses this to 60 days (Route A) or 110 days (Route B), but eligibility is restricted to products previously approved in those jurisdictions[3].

For the FDA, standard new drug approval takes approximately 10 months for priority review and up to 18 months for standard review[4]. The FDA's user fees for clinical drug applications reached $4.3 million in fiscal year 2025, up from $4.0 million the prior year[4]. This does not include the cost of conducting the clinical trials themselves, which can range from $4.5 million for Phase I oncology trials to $50-100 million for Phase III trials[5].

This temporal and financial asymmetry has profound implications. In software, founders can iterate rapidly: launch an MVP in weeks, measure product-market fit within months, pivot in response to user feedback, and achieve profitability in 18-24 months if disciplined. In pharma, the feedback loop spans years. The MHRA will not approve a parallel import license without inspecting your sites and verifying systems. Manufacturing audits are conducted on risk-based schedules, with some sites facing comprehensive GMP inspections every 2-4 years[1].

Clinical Trial Costs by Phase (2025)
Average cost in USD millions
$100M $50M $10M $4.5M Phase I $13M Phase II $50-100M Phase III
Source: Clinical trial cost analysis 2025. Phase I: safety and dosage (20-100 participants). Phase II: efficacy and side effects (100-300 participants). Phase III: confirmation at scale (300-3,000 participants). Darker shades represent higher costs.

Capital requirements reflect this friction. Biotech startups in 2025 raise a median of $18.6 million across approximately three funding rounds[6]. Pharmaceutical distribution companies, even when leveraging parallel import (a less capital-intensive pathway than novel drug development), require capital for: warehouse infrastructure compliant with GDP (Good Distribution Practice) standards; cold-chain logistics; staffing for quality assurance and regulatory affairs; and working capital for inventory and compliance systems. The median biotech company has raised approximately $30-39 million by growth stages[6].

Why Founders Avoid These Industries

The venture capital ecosystem has decisively voted with its capital. Biotech and pharma companies attracted just 8% of total VC funding in 2025, down from approximately 20% in 2020[7]. Software and SaaS startups, by contrast, captured over 60% of VC funding in 2024-2025, driven by rapid deployment cycles, scalability without physical constraints, and predictable unit economics[7].

Venture Capital Allocation by Sector (2020-2025)
% of total VC funding
Software/SaaS (2025) 60% Biotech/Pharma (2020) 20% Biotech/Pharma (2025) 8% 60% decline in pharma VC share
Source: VC funding analysis 2020-2025. Biotech/pharma share dropped from 20% to 8% while software captured 60%+ of capital deployment. Darker bars indicate higher funding allocation.

The reason is economic and rational. Venture capital funds operate on 7-10 year horizons, targeting 20%+ annual returns. These fund mechanics align poorly with regulated industries for three specific reasons:

First: Risk Asymmetry

Clinical drug development has a 90% failure rate[5]. Even compounds that reach Phase III trials—after consuming $50+ million in development costs—fail at a 35-42% rate[5]. The reasons are well documented: 40-50% of failures stem from lack of efficacy, 30% from toxicity, and the remainder from poor drug properties or commercial misalignment[5]. For pharmaceutical distribution, the risk profile is lower—parallel import leverages already-approved medicines, removing clinical risk—but regulatory compliance remains binary: obtain your license or cease operations.

Second: Long Feedback Loops

In SaaS, founders learn within 6-12 months whether their product solves a real problem. They can measure monthly recurring revenue (MRR), customer acquisition cost (CAC), and churn rates in real time. In pharma, feedback spans years. A manufacturing facility cannot scale until it obtains GMP certification—a process requiring design, validation, and inspection that extends 18-36 months[1]. An import license cannot expand to new products until those products are approved by MHRA, a process that demands 150-210 days per product plus dossier preparation spanning 3-6 months[2][3].

Third: Capital Lock-in

Once a pharmaceutical company invests in a manufacturing facility, regulatory approval pathway, or supply chain infrastructure, that capital is largely sunk. The facility cannot be repurposed to manufacture cosmetics or dietary supplements without new GMP validation. A distribution license for one product cannot be redeployed to another therapeutic area without new applications and approvals[2]. Venture capital prizes flexibility; regulated industries punish it.

Why That Avoidance Creates Opportunity

The flight of capital and talent from regulated industries creates a paradoxical opportunity: reduced competition, sustainable moats, and pricing power unavailable in saturated software markets.

The pharmaceutical industry shows genuine evidence of these dynamics. In the generic and parallel import distribution space, the number of active competitors is constrained. The UK pharmaceutical logistics market, valued at £11.28 billion (2025), is dominated by large multinational players like DHL Supply Chain, UPS, and Cencora[8]. However, the market segments geographically: importers and parallel traders must maintain separate compliance infrastructure for UK, EU, and other jurisdictions due to regulatory fragmentation.

Entry barriers in regulated industries are self-reinforcing. The regulatory framework itself becomes a moat. Consider: a competitor entering the parallel import space must:

  • Register with MHRA and obtain a wholesale distributor license (£5,969 fee plus 90-day review cycle)[2]
  • Demonstrate GMP compliance, including facility inspection[1]
  • Establish relationships with active substance manufacturers and product importers
  • Build Quality Assurance and Regulatory Affairs expertise (typically requiring 2-3 regulatory professionals at £70-120K salaries)
  • Implement FMD-compliant serialization and traceability systems[2]

The cumulative cost exceeds £500,000-1,000,000 in capital and 12-18 months in calendar time before first product approval. For a software startup, that capital and time suffices to build, ship, and monetize a functional product. In pharma, it suffices to prepare to apply for regulatory permission.

Startup Capital Requirements: Software vs Pharma Distribution
Initial capital to first revenue (£ thousands)
Cost Component Software SaaS Pharma Distribution
Team (12 months) £150K £340K
Infrastructure/Facility £20K £100K
Regulatory/Licensing £5K £50K
Working Capital/Inventory £25K £500K
Total Seed Capital £200K £990K
Time to First Revenue 6-12 months 18-24 months
Software assumes 2-person founder team with external development. Pharma assumes lean 4-person team with regulatory/QA specialists. Both assume UK-based operations.

This friction is not temporary. The regulatory obligations persist indefinitely. Every year, MHRA conducts risk-based inspections of manufacturing and distribution sites[1]. Every product requires pharmacovigilance monitoring and periodic safety updates. These obligations consume internal resources continuously, creating structural cost barriers that protect incumbents and deter entrants.

Pricing power in regulated industries also exceeds that in software markets. In pharma, demand is inelastic: patients require medicines regardless of price; physicians prescribe based on clinical need, not cost; and reimbursement systems (NHS in the UK, Medicare in the US) guarantee purchase for approved products[9]. A pharmaceutical distributor that secures exclusive sourcing arrangements for high-demand generics or parallel-imported medicines can command stable margins.

Case Context: Pharmaceutical Distribution in the UK

To ground this analysis, let me outline how the pharmaceutical distribution market functions and why it exemplifies the principles above.

The UK pharmaceutical market is worth £48.45 billion in 2025, growing at a 9.63% CAGR through 2032[10]. The market is segmented into manufacturers, wholesalers/distributors, and retailers (pharmacies). This structure is mandated by regulation: only licensed wholesalers and registered pharmacies can legally dispense medicines to patients[2].

Within this structure, parallel import represents a legitimate arbitrage opportunity. Because pharmaceutical prices vary across EU member states—set by national governments rather than manufacturers—a medicine approved in Spain at €50 per pack may be approved in the UK at £70[9]. A parallel importer can legally purchase the medicine in Spain, repackage it with UK-specific labeling and pharmacovigilance information, and resell it in the UK at £65, capturing value while offering NHS and patients cost savings.

However, executing this is not trivial. The importer must:

  • Identify products with sufficient price differentials to justify the cost and risk of parallel import
  • Obtain source materials from licensed manufacturers or wholesalers in the source country
  • Conduct bioequivalence or quality assessment to ensure the product meets UK specifications
  • Obtain MHRA parallel import license, submitting a dossier demonstrating quality parity and compliance (£2,400-£5,969, 90-210 days)[2][3]
  • Manage cold-chain logistics, including temperature-controlled warehousing and transportation
  • Implement FMD compliance, including unique product identifiers and serialization[2]

For a startup, these costs are real but not insurmountable. A lean parallel import operation might require:

  • Founder/business development: £80K/year
  • Regulatory Affairs specialist: £70K/year
  • Quality Assurance lead: £80K/year
  • Operations/Finance: £60K/year
  • IT systems (FMD, serialization): £30-50K/year

Total operating cost: approximately £320-340K/year. Add rent for a GMP-compliant warehouse (£50-100K/year), and working capital for inventory (£500K-1M for a 10-product portfolio), and the startup requires £1-1.5M in seed capital and 18-24 months to first revenue.

This is high for a software startup but modest for pharma. Crucially, once achieved, the barriers to a competitor replicating this model are substantial: relationships with sources, regulatory approvals for specific products, GMP facility certification, and operational expertise take years to build.

Operator's Reality

The day-to-day experience of building in this environment differs fundamentally from software.

Speed is not the metric. In software, founders obsess over deployment velocity. In pharma, speed is often a distraction. What matters is completeness, accuracy, and compliance. An MHRA application submitted with incomplete data will be rejected and must be resubmitted in full—adding 3-6 months to the timeline[3]. A manufacturing facility that cuts corners on GMP compliance may trigger a warning letter, forcing remediation and temporary loss of operating rights[1].

The operator must internalize this differently. Perfectionism in execution is not a personality flaw; it is a business requirement. Documentation must be meticulous. SOPs (Standard Operating Procedures) must be comprehensive. Quality records must be auditable. When MHRA inspects a site, they audit not just current operations but records spanning 3-5 years prior[1].

Waiting becomes a structural component of the business plan. An MHRA application doesn't close after submission; the agency may issue questions (RFIs—Requests for Information) that pause the review clock for 30-90 days while the applicant responds[3]. A manufacturing facility doesn't become operational on day 1; validation and qualification can take 6-12 months post-construction.

Audits and inspections are continuous, not episodic. MHRA conducts risk-based inspections at intervals ranging from annual to every 5 years[1]. Each inspection is a 3-5 day event, requiring senior management presence, preparation of records, and walkthrough of systems.

Who This Path Is (and Is Not) For

This path is not for founders optimizing for rapid scale and exit. Venture capitalists chasing 10x growth in 3-5 years will find regulated industries frustrating. The time constants are longer, the feedback loops slower, the capital requirements higher.

This path is not for founders motivated by lifestyle or personal brand benefits. Tech entrepreneurship offers visibility and speaking opportunities. Pharma entrepreneurship is methodical, quiet, and unglamorous. Compliance meetings and quality audits do not generate viral content.

This path is also not for founders who lack capital. A software founder with £50K can launch a SaaS startup. A pharma founder with £50K cannot—not credibly. The minimum capital required is £500K-1M[12].

Conversely, this path is for founders committed to long-term value creation in capital-intensive, trust-critical industries.

It is for operators, not visionaries. Building in pharma rewards deep domain knowledge, regulatory expertise, operational discipline, and relationship management. The most successful entrants are specialists who have worked in the industry and understand its systems intimately.

It is for founders who can raise patient capital. Angel investors, family offices, and specialized life sciences venture funds understand pharma time constants. These capital sources are smaller than Sand Hill Road venture funds but more aligned to the business model.

It is for founders who value sustainable competitive advantage. If your goal is to build something defensible, profitable, and lasting—rather than optimizing for a quick exit—regulated industries are uniquely attractive. The regulatory moat persists as long as the business operates.

Closing Reflection

I chose to build NovaPharm Healthcare in the UK pharmaceutical distribution market because the barriers that scare away most founders—multi-year timelines, regulatory complexity, capital intensity, operational discipline—are precisely what create durable value.

This is not a path for everyone. It requires patience when software rewards speed. It demands compliance when startups prize disruption. It absorbs capital when lean methodologies dominate. But for operators willing to master the complexity, regulated industries offer what software increasingly cannot: genuine competitive advantage, defensible margins, and the satisfaction of building infrastructure that matters.

The hardest path is often the most rewarding—not because it is hard, but because so few are willing to walk it.

About the Author

Vishal Chakravarty is the Founder & CEO of NovaPharm Healthcare, a pharmaceutical distribution company operating under UK MHRA and EU-GMP regulation. He holds a BE in Mechanical Engineering from ITM University, Vadodara, and previously worked at Swiggy in operations and business development. His writing focuses on regulated industry strategy, operational excellence, and the economics of building durable businesses in capital-intensive sectors.

Selected References & Data Sources

Regulatory Framework & Timelines

Clinical Trials & Drug Development Costs

Venture Capital & Funding Data

  • [6] Biotech VC Funding Report. "2025 funding rounds analysis." Median raises by stage.
  • [7] VC Allocation Trends. "2020-2025 sector breakdown." European Biotechnology.

UK Pharmaceutical Market

  • [8] UK Pharma Logistics Market. "Market size and players 2025." £11.28B valuation.
  • [9] Pharmaceutical Pricing Europe. "Price differentials across EEA." 2025 analysis.
  • [10] Grand View Research. "UK Pharmaceutical Market Outlook 2025-2030."

Startup Economics

  • [12] Pharmaceutical Startup Analysis. "Capital requirements for distribution companies." Industry benchmarks 2025.