Tell me about your driving
I'll understand your current vehicle, fuel and service expenses, typical journeys, budget and charging options.
Hi, I’m Clive Lander. I’ll personally help you understand what your current vehicle really costs, compare realistic alternatives, and decide whether switching makes financial sense — without the sales pressure.
Cars, trucks, bakkies, bikes and solar charging — all part of the bigger transport-cost picture.
From your first conversation to a practical recommendation — with a real person reviewing your situation.
I'll understand your current vehicle, fuel and service expenses, typical journeys, budget and charging options.
I compare keeping your vehicle with suitable petrol, hybrid or electric alternatives, including the important hidden costs.
I'll talk through a written cost comparison and clear recommendation, with time for your questions.
Move the numbers to match your driving. This is a quick energy-and-servicing estimate — a full consultation also considers purchase costs, finance, depreciation and suitability.
Includes your servicing assumptions. Not a total ownership saving. Purchase price, trade-in, finance, insurance, charging installation and depreciation are excluded.
Get a proper financial comparisonDifferent drivers. Different challenges. One aim: help you make a smarter transport decision.
Thinking about replacing your car? Understand what it actually costs to keep, and which alternatives are worth considering.
More than one car? Have solar or considering a charger? I connect the whole picture so the savings are realistic.
Identify the routes and vehicles where electrification could work — and where it might not be practical yet.
Indicative launch fees, subject to scope confirmation. Travel, unusual data requirements and applicable VAT, if any, are quoted separately. Ongoing fleet monitoring is available from R1,500/month.
There are more electric cars, SUVs, bakkies and commercial vehicles to choose from in South Africa. Battery sizes, charging speeds and range figures can be confusing — and the most expensive EV isn't necessarily the best one for your needs.
I'll help you choose with confidence. Tell me how you drive, what you need to carry, where you can charge and how much you want to spend. I'll research suitable new EVs available in South Africa and explain the genuine strengths and drawbacks of each.
There's no universal “best EV”. A city commuter, a family doing long-distance trips and a business needing a bakkie can have completely different needs.
Typical kilometres, freeway speed, frequent routes and realistic range between charging stops.
Home plug or wallbox, workplace and solar charging, public connector types and charging time.
Passengers, luggage, ground clearance, local road conditions, payload and towing where needed.
Purchase price, warranty, battery type, local service support, insurance and resale uncertainty.
For every shortlisted EV, I'll explain what makes it a good fit, what compromises to expect and the questions worth asking before signing an order.
Through EVSA (EV Savings Advisor), I believe the decision to change vehicles should start with clear numbers, not a sales pitch.
As an EV owner with hands-on experience of electric driving, battery monitoring and solar energy systems, I understand how vehicle choice, charging and everyday running costs fit together.
When you book an assessment, you'll deal with me personally. I'll look at your current expenses and driving needs, discuss suitable vehicles, and explain whether it makes more sense to keep your car, switch, or wait.
I examine each vehicle's mileage, route, downtime, running costs and charging opportunities to identify where electrification may provide a sound return.
Explore a fleet assessment
Hybrid cars combine a combustion engine with electrical assistance. They can be excellent in traffic—but the way you drive matters as much as the badge on the boot.
I compare the costs across town, mixed driving and the open freeway before recommending one.
A small motor-generator assists the engine and may recover energy while slowing. A typical mild hybrid cannot drive on electricity alone.
The petrol engine and electric motor can propel the car together or, in some conditions, electrically for short periods. Braking recovers energy into a small battery.
A larger battery enables longer electric driving when charged externally. Once the battery is depleted, it normally operates more like a hybrid petrol car.
Definitions: U.S. Department of Energy – hybrid vehicles ↗ and plug-in hybrids ↗.
The battery isn't a second fuel tank filled with free energy. Full hybrids recover some braking energy and can operate the engine more efficiently, but electrical conversion also has losses.
Frequent braking provides chances to recover energy; electric assistance and engine-off time can cut petrol consumption substantially.
Some braking and acceleration still help the hybrid, but higher-speed stretches reduce the share of driving helped by regeneration.
Little braking means little energy to recover. The engine does most of the work; aerodynamics, gearing, engine efficiency and added mass determine the result.
Yes, it is possible for some particular vehicle comparisons. At steady highway speeds, regenerative braking contributes very little, while the hybrid may be carrying added battery and motor mass. If an equivalent petrol-only car has favourable gearing, lower mass or a more efficient operating point, it can match or beat that hybrid's highway consumption. But many well-engineered hybrids still use less fuel than their petrol equivalents, even on the freeway. The vehicle model and real highway test data decide.
Important: A hybrid using more petrol on the freeway than it uses in town does not, by itself, mean it is worse than an equivalent petrol-only car.
Try town, mixed and freeway driving to see how the comparison can change.
In this illustration, stop-start driving favours the hybrid.
| Driving | Petrol ICE / month | Hybrid / month | HEV difference |
|---|---|---|---|
| Town | R3,840 | R2,256 | Save R1,584 |
| Mixed | R3,216 | R2,592 | Save R624 |
| Freeway | R2,736 | R2,880 | Extra R144 |
These six consumption figures are hypothetical, not measurements of a particular petrol/hybrid model pair. They demonstrate a possible highway disadvantage, not a typical or universal result. Enter independently measured consumption for the actual vehicles you want to compare. Petrol only; excludes purchase price, depreciation, service, insurance, financing, tax, and PHEV electricity. For a PHEV, charging frequency and electricity expenses must also be modelled.
A South African test reported 4.6 L/100 km in simulated city driving and 6.7 L/100 km on a 120 km/h-style highway run for the same hybrid vehicle. This is not a comparison with a petrol-only Corolla Cross. Toyota lists 4.3 L/100 km combined for the hybrid and 6.8 L/100 km combined for its petrol counterpart in its official specification sheet; those are cycle claims, not separate highway results.
Sources: SA real-world testing ↗ · Toyota SA specifications ↗ · Highway hybrid-efficiency overview ↗
A full battery-electric vehicle (BEV) changes how you refuel. I help you understand the real charging options in South Africa before you make the switch.
There are public EV chargers across South Africa, and the networks are growing. GridCars operates an extensive national AC and DC charging network, and its official live map below shows charging locations and reported connector status. Public charging is not yet as widespread as petrol stations, so I always recommend checking the specific routes you travel.
CHARGE is also developing an independent, solar-and-battery-powered off-grid network, with hubs listed on the N3 and N12. These are separate networks: don't assume every CHARGE site appears on the GridCars map.
GridCars: Search its network map for AC and DC chargers, with reported availability and connector details. Its ChargePocket app also helps with charging sessions.
CHARGE: See its listed off-grid, solar-powered highway hubs, including N3 Roadside, N3 Tugela and N12 Wolmaransstad. Its national network is still expanding.
Many BEVs can charge using a compatible portable EV charging cable (EVSE) connected to a suitable standard 230 V household socket. At a conservative 10 A, that's around 2.3 kW — slow, but often useful for replenishing normal daily driving overnight.
Safety matters: have the socket, wiring, earthing and protection checked by a qualified electrician; follow the vehicle and EVSE ratings. Never use a multiplug or extension lead, and stop if the plug or socket becomes hot.
Electricity is available at homes, businesses, farms and workplaces — potentially far more charging locations than places selling petrol or diesel. But an ordinary socket is not automatically a safe, accessible or permitted charging point. For longer journeys, I assess the actual public chargers on your route and your ability to charge where you park.
Sources: GridCars EV Drivers, GridCars Live Map, CHARGE Hubs and EV Charge South Africa charging guidance. Network information is subject to change.
A battery warranty is not an expiry date. Most current EVs are built for long service lives. A drive battery normally loses some usable capacity gradually, rather than suddenly failing at a particular birthday or kilometre reading. Exactly how long it lasts depends on chemistry, temperature, charging, usage and the particular model.
| SA brand / model example | Traction battery warranty |
|---|---|
| BYD EV models | 8 years / 200,000 km |
| Geely E2 / E5 | 8 years / 200,000 km |
| Volvo electric models | 8 years / 160,000 km |
| GWM ORA | 8 years / 150,000 km |
Whichever limit comes first normally applies. Capacity-retention guarantees, repair criteria, exclusions and transfer rules differ. Always request the exact battery warranty certificate for the model and year before paying a deposit.
These are different studies with different populations, methods and time spans. None predicts an individual vehicle's battery health. Most newer vehicles have not yet reached 15–20 years of age.
As one explicit example, Volvo says its electric-car batteries are engineered to last beyond 15 years or 300,000 km—well beyond its eight-year / 160,000 km warranty. Other manufacturers use different engineering targets, so I would not claim the same lifespan for every brand. A common 70% or 80% state-of-health (SoH) threshold is a capacity benchmark, not a universal instruction to replace a safe, functioning battery.
At 70% SoH, a car that originally provided 400 km in comparable conditions might still provide roughly 280 km. The range is lower, but the vehicle may remain perfectly useful. SoH is only one health metric; cell faults, resistance, power capability and safety condition also matter.
Source: Volvo South Africa battery design and warranty information ↗. The 400-to-280 km example is illustrative and assumes range scales with usable capacity under unchanged conditions.
Ask for the high-voltage battery warranty document, its minimum guaranteed capacity if specified, how battery SoH is measured, and whether coverage transfers to the next owner. For a used EV, request a credible battery-health report. Then compare battery chemistry and thermal management—not just advertised range.
The upfront price is a fair concern. A new electric vehicle can still cost more than an equivalent petrol car, and buying a newer car is not automatically cheaper than keeping one you already own. But EVs are no longer limited to luxury models, and the purchase price is only one part of the financial decision.
Illustrative published starting prices in October 2026:
These are starting prices, not like-for-like comparisons with petrol vehicles. Specifications, availability and dealer quotes can change.
Western Cape Government EV price guide ↗Example assumptions: petrol car 7 L/100 km at R24/L; EV 16 kWh/100 km at R3.25/kWh; 90% charging efficiency. Your actual costs depend on your car, tariff, mileage and charging method. This is not a total ownership saving.
I compare the cost of keeping your current vehicle with buying a petrol, hybrid or electric replacement—including trade-in value, repayments and interest, insurance, servicing, tyres, charger installation, expected depreciation and your driving needs. If an EV doesn't make financial sense for you yet, I'll say so.
Sources: Western Cape Government EV guide and Geely South Africa price listing. Prices and illustrative energy calculations are not quotations.
My first question is always: “How many kilometres do you travel every day?”
Most people compare an EV's range with how far they can drive on a full petrol tank. But the everyday experience can be quite different: if you can reliably charge at home overnight, you can start each morning with a replenished battery rather than having to stop at a fuel station when the tank gets low.
A cautious illustration is to use 200 km per day and leave roughly 50 km as a buffer, then recharge at home. This only works if 250 km is a realistic range in your conditions—not just the brochure figure.
This is a mathematical illustration assuming 200 km every weekday for all 52 weeks; holidays and actual schedules will change the annual total. It doesn't mean the car can cover 52,000 km on one charge.
If an EV uses 18 kWh/100 km, 200 km requires approximately 36 kWh from the battery or 40 kWh from the socket at 90% charging efficiency.
Approximate idealised charging times at the stated input power, not guaranteed results. A suitable wallbox and electrical installation are much more practical than a standard plug for repeated 200 km days. Confirm your EV's onboard AC charging limit and your home's available supply.
That's when usable highway range, route elevation, weather, vehicle load, battery reserve and verified public fast-charger locations become important. I check these against your real journeys rather than assuming an EV suits everyone.
Some affordable South African EVs quote well over 250 km on a full charge, but certain entry versions and motorway conditions can give less. I'll compare realistic daily distance, home charging hours and occasional long-distance travel before recommending a model.
Further reading: Western Cape Government EV guide — claimed versus estimated real-world range and AutoTrader South Africa highway-range testing. The 250 km / 200 km scenario and recharge calculations are illustrative, not specific model specifications.
My response: for daily driving, in a correctly chosen EV, charging can actually save you time.
When I get home, I drive into my garage, spend about 15 seconds plugging in and carry on with my day. The car charges while I'm doing something else. With enough overnight charging capacity for my driving, I start the next morning ready to go—without making a separate stop for fuel.
Example: 2 stops per week, taking 15 minutes each, over a four-week month.
Example: 15 seconds to plug in, on 5 days a week, over a four-week month.
Imagine having to drive 5 km each way just to refuel, instead of stopping somewhere already on your route.
The example: 8 fuel stops × 10 km return = 80 km. At an average of 40 km/h, the detours take 120 minutes. At 7 L/100 km and R24/L, those 80 km burn 5.6 L and cost approximately R134.
120 minutes at fuel stations + 120 minutes driving to and from them − 5 minutes plugging in at home = 235 minutes saved in a four-week period. That's before counting the extra approximately R134 of fuel consumed on dedicated detours.
The biggest time advantage is for routine daily driving with reliable parking and home or workplace charging. A long road trip may involve planned public fast-charging stops, and a driver who cannot charge where they park may spend more time charging. I check daily kilometres, parking, charger power and occasional longer routes before recommending a vehicle.
If the fuel station is already on your usual route, you may have little or no extra detour. The additional distance, driving time and fuel cost above are illustrative and apply to a dedicated refuelling trip.
The real question isn't just “How long does it take to charge?”—it's “How much time will charging actually take out of my day?”
My response: an EV doesn't normally arrive home with a completely empty battery. I can top up when electricity is available and use the range already stored in the battery during an outage. Unlike a petrol vehicle, I don't need to wait until nearly empty before refuelling.
With a suitable car and charging setup, even a few hours of electricity between outages can replace a meaningful part of the day's driving. I recommend checking your actual daily distance, parking, charging power and likely power-availability windows—not assuming an EV must recharge from 0% to 100% every night.
At about 2.3 kW, four hours of available electricity could replenish roughly 46 km of driving range.
At 7.4 kW, four hours of available electricity could replenish roughly 148 km of driving range.
Illustrative calculations: 18 kWh/100 km driving consumption, 90% charging efficiency, and full stated AC charging power. Actual results depend on the EV's onboard AC charger, supply, losses, battery temperature and driving conditions. A household socket must be checked for safe sustained use; never use an unsuitable extension lead, overloaded outlet or unverified wiring.
With some range already in the battery, I may be able to reach a public charger. Some charging sites have generators, solar panels or battery storage, but not all public chargers operate during outages. I would check live availability, backup-power status, access and connector compatibility before setting off.
South African examples: GridCars reports a nationwide network of charging locations, and CHARGE's N3 hubs are designed to operate off-grid using solar power and battery storage.
If regular outages, long daily journeys or no reliable home charging make that difficult, I'll take it into account when recommending a vehicle and charging plan. Talk to me about your driving and charging options ↗
References: GridCars home charging guidance, Cars.co.za on home-charging rates and safety, GridCars network, and CHARGE off-grid charging hubs.
The battery chemistry influences cost, weight, range and ageing. Neither is automatically "the best" for everyone—I consider your intended vehicle, mileage, charging habits and how long you plan to keep it.
Typical use: cost-conscious daily drivers, high-mileage fleets and people planning to retain their EV for many years.
Typical use: drivers whose highest priority is range, vehicle efficiency or packaging flexibility.
Laboratories often use 80% of initial capacity as a convenient test endpoint. A manufacturer's warranty might use a 70% capacity guarantee or a separate defect threshold. Neither threshold automatically means the car stops driving. Provided the battery remains safe and operational, it may continue serving its owner with less range, or be suitable for assessment for a second-life storage application.
Cell cycle-life studies also do not include every real-world cause of ageing. Calendar ageing, heat, pack balancing, charging power, depth of discharge and other factors can cause a vehicle battery to reach a practical or economic retirement point earlier.
Change the example assumptions to understand battery energy throughput. This is an illustrative cycle-equivalent calculation, not a car-life forecast or a battery guarantee.
Crucial: A result such as 1,000,000 km is not a claim an EV will last that far. It is a simple theoretical energy-throughput comparison based on selected laboratory-equivalent cycles. Real packs also age with time and heat; pack hardware, cell balancing, charging and driving conditions can dominate actual service life. Do not use these figures to predict warranty coverage, resale value or a replacement date. This tool uses an 80% laboratory endpoint: it cannot estimate kilometres to a particular manufacturer's 70% warranty threshold without additional vehicle-specific degradation data.
Cycle-life evidence: Natural Resources Canada reports LFP generally outlasting NMC in tested laboratory cells, with many LFP results exceeding 3,000 equivalent full cycles to 80% SoH and NMC datasets commonly around 1,000–2,500. Those are cell-test observations, not automotive pack warranties. The calculator defaults (LFP 3,000 / NMC 1,500) are illustrative within those published ranges.
Read Natural Resources Canada's battery chemistry benchmarks ↗ · Volvo's explanation of LFP and NMC ↗
Exactly what I'm here for.
No. Keeping your existing car, delaying a purchase, or choosing a hybrid may be the better financial choice. The recommendation follows your needs and the numbers.
No. I can compare municipal electricity, workplace charging and solar-assisted charging. What matters is your actual tariff, access to charging and usage pattern.
No. It estimates electricity, fuel and servicing costs. A paid analysis also addresses purchase and trade-in prices, financing, depreciation, insurance, charging installation, suitability and other risks.
Yes. Initial fleet assessments and personal consultations can be conducted online across South Africa. On-site work and travel can be discussed separately.
The core service is independent transport-cost analysis and practical recommendations, not vehicle sales, lending or insurance advice. Any referral relationship would be disclosed.
You’ll speak directly with Clive Lander, who will review your vehicle and driving details, agree on the scope and price with you, and personally discuss your recommendations.
Clive will review the details you provide and get in touch to discuss the appropriate next step. Any fee and deliverables will be agreed before paid work begins.
Tell me a little about your vehicle or fleet. I’m Clive Lander, and I’ll personally get in touch for a short, no-obligation conversation to see whether a detailed assessment makes sense.
Please don't include ID numbers, bank details or confidential financial documents in this first enquiry. I'll request any further details securely if necessary.
Tell me a little about your vehicle. I’ll be in touch directly.