Fleet Costs: What You Need To Know

Fleet Costs: What You Need To Know Despre Courier Van Operations In The UK

Fleet costs — the total expenditure a business incurs operating a commercial vehicle fleet — directly determine whether a courier operation runs at profit or loss. Fixed direct costs (leasing, insurance, salaries) combine with variable direct costs (fuel, maintenance, tolls, and compliance levies) to produce the Total Cost of Ownership (TCO) per vehicle. Managing this figure is the primary financial challenge every UK fleet manager faces in 2026 and beyond, as compounding pressures from macroeconomic inflation, the ZEV mandate, expanding Clean Air Zones, and surging insurance premiums push total per-vehicle annual costs well above pre-2022 baselines. I’ve spoken directly with fleet managers running 50+ vehicle courier operations, and the consistent message is that every cost category has moved against them simultaneously — capital acquisition, daily running costs, regulatory levies, and risk underwriting are all trending upward at once.

What Macroeconomic Factors Drive Up Courier Fleet Expenditure?

Global inflation and rising interest rates directly inflate the cost base for every UK courier fleet operator, applying distinct upward pressure on acquisition prices, financing repayments, and supply chain inputs before a single operational mile is driven.

How Does Inflation Affect Automotive Supply Chain Pricing?

Global inflation applies direct cost pressure to original equipment manufacturers (OEMs), which fleet operators absorb at the point of purchase or lease renewal. Steel, aluminium, copper wiring, and semiconductor components — all core inputs to van manufacturing — sustained price increases from 2021 onward. The London Metal Exchange recorded aluminium prices averaging over £2,000 per tonne through 2023 and into 2024, substantially above pre-pandemic norms. The correlation between rising interest rates și fleet financing costs is equally direct. When the Bank of England base rate increased from 0.1% in late 2021 to 5.25% by mid-2023, the monthly repayment on a typical business contract hire agreement for a medium wheelbase panel van rose by an estimated 18–22% in real terms. Fleet finance products — PCH, BCH, and finance lease — are all priced against base rate benchmarks. Higher rates translate into higher monthly payments, raising the total cost of ownership (TCO) before the vehicle has turned a wheel. The Society of Motor Manufacturers and Traders (SMMT) confirmed that new van list prices rose by an average of 14% between 2020 and 2023, driven by supply chain disruption and OEM cost pass-through strategies. In our experience reviewing fleet budgets, finance costs alone have increased annual expenditure by £800–£1,400 per vehicle compared to pre-2022 agreements.

How Does The UK ZEV Mandate Alter Market Dynamics?

The UK ZEV Mandate, enforced from January 2024, requires van manufacturers to meet escalating annual quotas for zero-emission vehicle sales as a percentage of total UK van registrations — starting at 10% in 2024 and rising to 70% by 2030. OEMs missing these quotas face non-compliance fines of £9,000 per vehicle deficit, a penalty structure mirroring the passenger car framework. The market consequence is direct: OEMs artificially inflate ICE diesel van list prices to cross-subsidise the discounting required to drive electric van uptake and hit mandated percentages. A manufacturer selling an electric van at a loss to hit quota recoups that margin from diesel buyers. This dynamic is already observable in list price movements from Ford, Stellantis, and Volkswagen Commercial Vehicles between 2023 and 2025. Fleet buyers purchasing diesel vans through 2025–2028 absorb cost pass-through from manufacturers managing their compliance position — a price dynamic unrelated to underlying vehicle production costs. Macro-level supply chain pressures establish why acquiring a new courier vehicle now demands a vastly expanded capital budget — the subject the following section addresses directly.

Why Is Capital Expenditure For New Vans Escalating?

Capital expenditure for new commercial vans — both diesel and electric — rises simultaneously, driven by separate but equally powerful forces: artificial diesel scarcity from production phase-down and persistent eLCV battery cost premiums.

Why Are Diesel Van Acquisition Costs Rising Despite Market Phasing?

Euro 6 diesel vans are being phased out of production as OEMs redirect manufacturing capacity toward zero-emission platforms. Reduced production volumes create artificial scarcity — fewer new units means dealerships hold less stock, and less stock reduces negotiating leverage for fleet buyers. Trade-in valuations on two-year-old diesel panel vans held at 58–65% of original list price in 2024, a figure that would have been considered exceptional in 2019. This residual value retention for late-model, low-mileage diesel stock carries a paradoxical effect: it raises the floor price of second-hand fleet acquisitions and reduces the depreciation relief that fleet managers previously used to offset total operating cost. Used diesel vans that previously depreciated 35% in year one now depreciate 18–22%, meaning the cost of entry into the used market has risen substantially. The fleet operator faces a dual bind — new diesel is scarce and expensive, while used diesel holds value and remains comparably costly.

What Are The Upfront Capital Barriers For Electric Light Commercial Vehicles?

Electric light commercial vehicles (eLCVs) — battery-electric vans with a gross vehicle weight under 3.5 tonnes — carry a persistent acquisition price premium over equivalent diesel models. As of Q1 2025, a battery-electric medium wheelbase panel van from a mainstream manufacturer (Stellantis e-Dispatch, Ford E-Transit Custom) retails at approximately £35,000–£48,000 list price, versus £28,000–£36,000 for a comparable diesel variant. The differential originates in lithium-ion battery pack costs, which fleet cost management guidance from Webfleet identifies as the single largest variable in eLCV TCO calculations. Beyond vehicle acquisition, depot charging infrastructure represents a substantial hidden CapEx requirement. Installing a 22kW three-phase AC charge point costs approximately £1,500–£3,500 per unit after groundworks. A DC rapid charger capable of 50–150kW output — necessary for multi-shift courier operations requiring midday top-ups — runs £15,000–£40,000 per unit installed, depending on grid capacity upgrades required. A regional logistics depot running 20 eLCVs on double shifts could face infrastructure investment of £80,000–£150,000 before a single electric mile is driven. Battery weight also reduces payload capacity relative to diesel equivalents. A Ford E-Transit Custom carries approximately 80kg less payload than its diesel counterpart due to battery mass. For courier operations carrying high-density parcel loads, this forces additional vehicle sorties or route restructuring, increasing energy consumption per parcel delivered.

Escalating acquisition costs establish the capital baseline; energy market volatility then governs how daily operational expenditure compounds on top of it.

How Do Energy Markets Drive Operational Expenditure?

Energy market volatility directly governs the pence-per-mile running cost for every vehicle in a courier fleet, and the instability creates serious problems for contract pricing and P&L forecasting regardless of whether the fleet runs diesel or electric.

What Drives Volatility In Wholesale Diesel Pricing?

Wholesale diesel prices benchmark against Brent Crude oil, priced in US dollars and traded globally. Geopolitical supply disruption — OPEC+ production cuts, Middle East conflict escalation, or sanctions on Russian crude — transmits directly into UK pump prices within days. RAC fuel watch data shows UK commercial diesel pump prices fluctuated between 152p and 197p per litre between January 2023 and December 2024, a 29% swing that makes accurate cost-per-mile forecasting extremely difficult across 12-month fleet contracts. UK fuel duty, frozen at 52.95p per litre since March 2022 and extended through 2025, has provided short-term relief. The risk is abrupt removal — a return to inflation-linked fuel duty indexation would add approximately 5p–7p per litre overnight, inflating annual diesel costs for a 50-vehicle courier fleet by £35,000–£55,000. A medium-duty courier van averaging 25,000 miles annually at 35mpg consumes approximately 3,247 litres of diesel per year. At a 10p per litre price swing, that single vehicle’s annual fuel cost changes by £325. Multiplied across a 100-vehicle fleet, that produces a £32,500 variance from a single market movement.

Why Does Commercial EV Charging Create New Cost Disparities?

Commercial EV charging costs split decisively between overnight depot tariffs and public rapid charging networks, and the gap between them defines fleet profitability. Overnight depot charging on a commercial electricity tariff typically delivers energy at 12p–18p per kWh, producing a cost-per-mile figure of approximately 3p–5p for a typical eLCV. Public rapid charging networks — GRIDSERVE, Osprey, and Pod Point among them — charge 55p–85p per kWh, pushing cost-per-mile to 14p–22p, broadly comparable to diesel. Courier operations that cannot guarantee depot return between shifts are systematically penalised by this pricing structure. The operational dependency on public charging infrastructure is not merely an inconvenience — it fundamentally undermines the business case for eLCV adoption where routes exceed 150–180 miles per shift. Geographical taxation layers a further cost dimension on top of energy volatility, as the next section demonstrates.

Which Regulatory Taxes And Emission Zones Increase Last-Mile Logistics Costs?

Regulatory taxation — Clean Air Zone daily charges, Vehicle Excise Duty, and pending road user charging — adds a distinct and growing cost layer to last-mile courier operations in UK urban areas, with charges scaling sharply for operators running older non-compliant stock.

How Are Expanding Clean Air Zones Imposing Geographical Levies?

Clean Air Zones (CAZs) now operate across Birmingham, Bradford, Bristol, Bath, Portsmouth, Sheffield, and Newcastle, with further schemes in development across Greater Manchester and other metropolitan authorities. Non-compliant vans — typically pre-Euro 6 diesel or pre-Euro 6d petrol — face daily charges of £9–£100 depending on the zone’s classification tier and vehicle category. For a national courier fleet operating across multiple cities, the administrative burden of managing CAZ compliance is substantial. Each zone operates with different compliance criteria, different exemption rules, and different payment platforms. A dispersed fleet of 80 vehicles may require a dedicated compliance officer and specialist software simply to track and pay daily charges accurately, adding indirect overhead costs that don’t appear on a vehicle-by-vehicle cost sheet. I’ve reviewed cost modelling for mid-size courier operators running 60–80 vehicles, and CAZ charges alone can represent £40,000–£120,000 per year in direct charges when pre-Euro 6 stock is still being run through compliance zones pending replacement.

Will Declining Fuel Duty Revenues Trigger Pay-Per-Mile Road Pricing?

The UK government’s fiscal dependency on fuel duty faces a structural shortfall as fleets electrify, with fuel duty currently generating approximately £25 billion annually for HM Treasury. A fully electrified fleet produces zero fuel duty revenue, a gap the Office for Budget Responsibility has explicitly modelled as a growing fiscal risk through the late 2020s. Road user charging (RUC) — structured as a dynamic per-mile levy based on vehicle weight, emission class, and peak-hour congestion — represents the most widely discussed replacement mechanism. Commercial vehicles, which cause disproportionate road wear relative to passenger cars, would face higher per-mile rates under most modelling frameworks. A heavy-use courier van travelling 30,000 miles per year could face annual RUC charges of £1,500–£4,000 depending on the rate structure adopted — a cost currently absent from every fleet financial model. Taxation exposure feeds directly into the risk underwriting environment that governs fleet insurance premiums, as the following section details.

Why Are Commercial Fleet Insurance Premiums Escalating?

Commercial fleet insurance premiums for courier operators have risen by 15–35% year-on-year between 2022 and 2025, driven by converging repair cost inflation, theft surges, driver risk profile changes, and the emerging complexity of electric LCV claims.

Cum se face ADAS Repair Costs And Parts Inflation Drive Premium Increases?

Advanced driver-assistance systems (ADAS) embedded in windscreens and bumpers have increased the baseline cost of low-speed collision repairs substantially, directly elevating claim valuations across all commercial fleet policies. A standard commercial van windscreen fitted with a front-facing camera, lane-departure sensor, and rain detection module now costs three to four times more to replace than a plain glass equivalent — every replacement requires recalibration of the full ADAS suite. A low-speed shunt that scratches a painted bumper containing radar sensors or parking sonar generates a repair bill far exceeding the visible damage. Pre-ADAS, a minor collision cost £800–£1,200 to repair. Post-ADAS, the same incident frequently attracts bodyshop invoices of £2,500–£4,500 once sensor replacement, ADAS recalibration, and ECU reprogramming are factored in. The Association of British Insurers (ABI) reported that the average cost of a vehicle insurance claim reached a record high of £4,800 in 2023 — a 32% increase from 2019 — driven primarily by escalating parts and labour costs. Insurers price this elevated average repair cost directly into fleet premiums. Vehicle Off Road (VOR) time compounds the financial pressure further. Global semiconductor shortages have extended lead times on many ADAS-specific parts, extending VOR periods. Longer VOR durations generate courtesy vehicle costs that inflate individual claim payouts and push fleet loss ratios upward at renewal. Any Qualified Driver (AQD) policies — where any licenced employee drives any fleet vehicle — carry heightened exposure here, because driver familiarity with ADAS-equipped vehicles varies significantly across a courier workforce.

How Does Electric LCV Repair Complexity Inflate Insurance Claim Costs?

Electric LCV repair complexity inflates insurance claim costs because insurers frequently write off vehicles following minor chassis damage that compromises the battery casing — a component accounting for 30–40% of total vehicle value. The battery pack in a commercial electric van sits low in the chassis for weight distribution. Any sub-frame impact that breaches the battery enclosure triggers a full structural safety assessment. Most insurers class this as an automatic write-off rather than a repair, because the labour cost of disassembly, cell-level inspection, and recertification exceeds the vehicle’s market value at that stage. A severe shortage of high-voltage (HV) certified mechanics compounds this across the UK. The Institute of the Motor Industry (IMI) estimates the UK will need over 100,000 additional EV-qualified technicians by 2030 to service the projected electric vehicle parc — a skills gap already inflating repair labour rates on commercial EV claims. The HV-qualified commercial vehicle technician commands a labour rate materially higher than a conventional diesel technician, a gap that feeds directly into repair settlement values and fleet insurance premiums. Premiums for electric LCVs currently run 10–15% above equivalent diesel policies on many fleet contracts, precisely because actuarial claims data remains thin and repair costs are unpredictable.

What Other Factors Escalate Fleet Insurance Costs?

Theft claims targeting keyless-entry commercial vans and driver cohort risk profiles each apply independent upward pressure on fleet-wide premium calculations. The British Vehicle Rental and Leasing Association (BVRLA) reported that van theft rose considerably across 2023 and 2024, with relay-attack theft of keyless vans as the primary driver. Courier fleets, which frequently park overnight on residential streets rather than secure compounds, face disproportionate exposure to this risk category. Driver shortage pressures across the logistics sector have forced many courier operators to accept drivers with shorter track records and less verified experience. Statistically younger or less experienced driver cohorts generate higher claim frequencies, which insurers reflect in fleet-wide premium calculations. The interaction between telematics data and insurance pricing offers one genuinely effective mitigation route. Insurers including Aviva, AXA, and specialist fleet underwriters now offer telematics-linked policies where documented improvements in fleet cost management and driver behaviour monitoring directly reduce renewal premiums. Fleets that demonstrate year-on-year improvements in harsh braking events, speeding incidents, and idling time have achieved documented premium reductions of 8–18% at renewal. Passive renewal strategies — accepting insurer-quoted increases without counter-data — systematically erode fleet profitability. Managing premium exposure demands active intervention: regular driver licence checks, DVLA mandate compliance, dash-cam installation, GPS tracking across all fleet assets, and documented driver risk profiling.

Insurance cost control requires active data deployment; the same telematics infrastructure that suppresses premiums also drives the broader TCO mitigation strategies that protect overall fleet profitability.

How Can Courier Fleets Mitigate Rising Total Cost Of Ownership?

Courier fleets mitigate rising TCO by combining telematics-driven behavioural intervention with a strategic shift from vehicle ownership to contract hire — two levers that attack variable costs and capital risk simultaneously.

How Does Telematics Software Suppress Variable Running Costs?

Telematics software suppresses variable running costs by extracting CAN bus telemetry data to eradicate engine idling, reduce aggressive throttle inputs, and dynamically reroute multi-drop manifests in real time. CAN bus (Controller Area Network) telemetry captures raw vehicle data — engine RPM, throttle position, brake force, idle duration — and transmits it to a fleet management platform. The platform converts raw signals into driver behaviour scores. Drivers who idle excessively, accelerate harshly, or brake late consume measurably more fuel per kilometre and generate higher wear rates on brakes and tyres. I’ve seen fleets reduce fuel spend by 8–12% within three months of deploying driver scoring purely by making the data visible to drivers and managers. The behavioural change doesn’t require enforcement — visibility alone drives correction. Dynamic rerouting addresses stem mileage — the distance a driver travels between stops that generates no revenue. Multi-drop manifests optimised in real time by routing algorithms reduce total daily kilometres per vehicle. Fewer kilometres produce lower fuel spend, lower tyre wear, and fewer maintenance intervals triggered by mileage thresholds.

• Idle reduction — telematics flags vehicles idling beyond a set threshold, cutting fuel waste at collection points and depots
• Throttle coaching — in-cab audio or visual prompts correct aggressive acceleration before fuel damage accumulates
• Optimizarea rutelor — algorithmic sequencing of drop points reduces stem mileage and total drive time per manifest
• Maintenance scheduling — mileage and engine-hour data triggers preventative servicing before breakdowns occur, converting reactive repair spend into planned cost

When Should Fleets Move From Ownership To Contract Hire?

Fleets should move from ownership to contract hire when vehicle depreciation risk, residual value uncertainty, and unplanned maintenance costs exceed the predictable fixed payments available through an operating lease. The financial logic is direct. A fleet that owns its vehicles absorbs full depreciation — the gap between purchase price and residual value at disposal. For diesel LCVs, residual values face structural pressure as Clean Air Zones expand and retrofit cost uncertainty grows. For electric LCVs, residual values remain genuinely uncertain because battery degradation curves and second-life demand are still being established by the market. Contract hire transfers depreciation risk to the leasing company. The fleet operator pays a fixed monthly rental for a defined term and mileage. At contract end, the vehicle returns to the lessor — the operator carries no residual value exposure. Contract hire penetration across UK van fleets has grown consistently as residual value uncertainty around alternative fuel vehicles has increased; operators are actively choosing fixed-cost structures over ownership-model exposure to depreciation swings. Contract hire agreements commonly bundle fixed-cost preventative maintenance packages covering scheduled servicing, tyres, and roadside assistance. This converts an unpredictable variable cost into a known monthly overhead — precisely the financial predictability a courier operation’s P&L requires. TCO mitigation strategies manage current cost pressures; the long-term trajectory of fleet economics depends on how battery technology and depot automation mature over the next decade.

Will Electric Fleet Maturation Stabilise Delivery Costs Long-Term?

Electric fleet maturation will stabilise delivery costs over a 10–15 year horizon as solid-state battery technology extends vehicle lifespans, reduces mid-life replacement costs, and improves residual values — but the path to stability involves significant near-term capital and operational friction.

How Will Solid-State Batteries Alter Future Vehicle Lifespans?

Solid-state batteries will extend commercial van lifespans by producing high-density battery architectures designed to outlast the physical chassis — a reversal of the current position where the battery pack is the primary life-limiting component of an electric LCV. Current lithium-ion battery packs in commercial vans degrade to approximately 70–80% of original capacity over 8–10 years of cycle use, at which point range reduction begins to impair operational utility. Fleet operators must then either accept reduced range, fund a mid-life battery replacement at five-figure cost, or dispose of the vehicle at a point where residual values are suppressed by battery condition. Solid-state batteries — which replace the liquid electrolyte with a solid ceramic or polymer conductor — produce higher energy density, faster charge cycles, and materially slower degradation rates. Toyota, QuantumScape, and Solid Power have published projections indicating solid-state cells could retain 90%+ capacity over 15+ years of commercial use, with commercial vehicle production timelines projected between 2027 and 2030. The downstream TCO consequences are measurable:

• Mid-life battery replacement costs reduce or disappear entirely
• Vehicle chassis serviceable life extends to match battery longevity
• Secondary-market residual values increase as buyers gain confidence in battery state-of-health
• Insurance write-off thresholds shift, because battery replacement no longer dominates the repair cost calculation

What Is The Financial Impact Of Autonomous Depot Yard Operations?

Autonomous depot yard operations reduce fleet operating costs by removing the labour overhead of shunting vehicles and pre-loading cages — activities that consume driver hours, generate overtime liability, and introduce human-error damage at the yard gate. Autonomous shunting vehicles — low-speed electric tractors guided by LiDAR, GPS geo-fencing, and yard management software — reposition trailers and swap bodies without a human driver. Robotic pre-loading systems sort, sequence, and load delivery cages according to route manifests, removing the manual handling stage entirely. The financial model for autonomous yard operations produces two measurable outcomes:

• Labour overhead reduction — depot headcount decreases as autonomous systems cover shunting and loading shifts, including nights and weekends where human labour attracts premium rates
• Algorithmic cost predictability — automated systems generate consistent, data-driven cost-per-move figures divorced from absenteeism, overtime, and human error damage events

I see autonomous yard technology as the single most structurally transformative development in depot economics over the next decade. The capital cost of implementation is substantial upfront, but the payback period shortens sharply as labour costs rise and system reliability matures. The shift toward algorithmic cost-modelling — where each depot movement carries a known, stable cost — resolves one of the most persistent pain points in fleet financial planning: the unpredictable human variable.

Întrebări frecvente

How much does it cost to run a courier van fleet per year in the UK?

Running a courier van fleet in the UK costs between £18,000 and £32,000 per vehicle per year when total operating expenses are aggregated — covering finance, fuel or energy, insurance, maintenance, taxation, and compliance levies. The Society of Motor Manufacturers and Traders (SMMT) recorded a 14% average increase in new van list prices between 2020 and 2023 alone. Exact figures vary by vehicle type, mileage profile, and urban versus rural route mix. Electric van fleets reduce fuel costs substantially but introduce charging infrastructure capital requirements and higher acquisition prices that affect net annual TCO figures differently across fleet sizes.

How do Clean Air Zone charges accumulate across a multi-city courier operation?

Clean Air Zone charges accumulate per vehicle per entry, making multi-city courier operations with non-compliant stock one of the fastest-growing cost categories in last-mile logistics. A dispersed fleet of 80 vehicles operating daily across Birmingham, Bristol, Bath, and Sheffield can generate direct CAZ charges of £40,000–£120,000 annually, based on cost modelling we have reviewed for mid-size operators. Each zone uses different compliance thresholds and payment platforms, requiring dedicated administrative resource to track accurately. Pre-Euro 6 diesel vehicles attract the highest daily charge bands — replacement with Euro 6d or electric stock is the only structural resolution.

What government grants are currently available to help UK fleets buy electric vans?

The plug-in van grant, administered by the Office for Zero Emission Vehicles (OZEV), provides up to £2,500 off qualifying electric vans under 3.5 tonnes at the point of purchase, subject to eligibility criteria and available budget allocation. The Workplace Charging Scheme (WCS) contributes up to £350 per socket toward depot charging installation costs, capped at 40 sockets per applicant. These grants partially offset eLCV acquisition premiums but do not close the full £7,000–£12,000 price gap versus equivalent diesel models identified in current market data.

How does driver behaviour scoring through telematics reduce fleet insurance premiums?

Telematics driver scoring reduces fleet insurance premiums by supplying insurers with verified, continuous evidence of behavioural improvement across the entire fleet cohort. Insurers including Aviva and AXA offer telematics-linked policies where documented year-on-year reductions in harsh braking, speeding, and late-night driving directly reduce renewal premiums by 8–18%. The Association of British Insurers (ABI) recorded the average vehicle insurance claim reaching £4,800 in 2023 — a 32% rise from 2019 — meaning fleets that actively counter this trend with behavioural data hold a measurable negotiating position at renewal that non-instrumented fleets cannot replicate.

What residual value risk do fleet operators face when disposing of early-generation electric vans?

Early-generation electric van residual values remain structurally uncertain because battery degradation profiles, second-life demand, and charging infrastructure maturity are all still being established by the market. A fleet disposing of a 2021–2023 electric LCV faces valuation adjustments tied to measured battery state-of-health, which can vary significantly across vehicles of identical age and mileage. Contract hire insulates operators from this exposure by transferring residual value liability to the leasing company at contract end. Operators holding electric vans on outright purchase face disposal values that the used commercial vehicle market has not yet stabilised — a risk that solid-state battery adoption from 2027–2030 onward is projected to partially resolve.

Phil West

La Pegasus Couriers, avansarea în carieră nu este doar un concept, ci o realitate.
Mulți dintre managerii și personalul nostru de birou au fost cândva șoferi, ceea ce atestă oportunitățile de creștere în cadrul organizației noastre.
Compania a fost înființată în 1988 de Martin Smith, originar din Edinburgh, iar de atunci Phil West, un veteran al armatei scoțiene din Glasgow, a fost promovat în funcția de director.
Phil a făcut parte din afacere timp de opt ani înainte de a prelua conducerea în 2023. Datorită experienței și dedicării sale, Phil a reușit să ghideze Pegasus Couriers pentru a deveni un jucător important în industria de curierat.
Înainte de a se alătura companiei, Phil și-a servit țara ca medic în cadrul forțelor armate britanice, dobândind o experiență valoroasă în întreaga lume. S-a alăturat Pegasus Couriers ca șofer și a urcat rapid în ierarhie pentru a deveni manager, supervizând o echipă de șoferi de livrare. Sub conducerea sa, compania s-a extins la cinci depozite în Regatul Unit și continuă să crească.
Pegasus Couriers a cunoscut o creștere remarcabilă în ultimii ani datorită angajamentului nostru de a oferi servicii de livrare de top. Acum avem șase depozite situate strategic și o echipă de aproximativ 500 de șoferi de curierat de încredere. Lista noastră de clienți include companii majore de comerț electronic precum Amazon și Yodel, ceea ce este o dovadă a serviciilor excepționale pe care le oferim.