Fuel is one of the largest running costs for commercial vehicle operators. A small change in fuel consumption can affect delivery margins, route planning, and monthly cash flow. That is why Farizon methanol engines attract attention from fleet owners who want to explore a different fuel option without changing the daily work of their vehicles.
Farizon promotes fuel savings of up to 50% in suitable operating conditions. This figure should not be treated as a fixed result for every vehicle or route. Actual performance depends on vehicle load, road conditions, driving habits, fuel prices, engine setup, and the local methanol supply network.
The practical question is simple: can a methanol engine support my work, my drivers, and my operating area?
How a Farizon methanol engine may reduce fuel costs
Methanol has a different chemical structure from diesel and petrol. A suitable engine system can be designed to use methanol as its main fuel, with control software and fuel components matched to its properties.
For a commercial fleet, the possible cost benefit comes from several areas:
- The local price gap between methanol and diesel or petrol
- Engine efficiency under common load conditions
- Route length and traffic levels
- Vehicle payload and idle time
- Fuel station access
- Maintenance planning
A vehicle that runs long fixed routes may have a clearer cost advantage than a vehicle that travels across regions with limited methanol availability.
For example, a city delivery company operating several medium-duty trucks on repeated routes could compare monthly fuel use before and after a controlled trial. The company would record mileage, cargo weight, idle hours, fuel volume, maintenance costs, and route conditions. This method provides more useful information than relying on a single fuel-saving claim.
What makes methanol suitable for some fleet operations
Methanol can be produced from different sources, including natural gas, coal, biomass, and some industrial processes. Its environmental impact depends on how it is produced, transported, and used.
A methanol engine may be a practical option for operators who have:
- Predictable daily routes
- Access to a reliable methanol refueling point
- Vehicles that return to a central depot
- High annual mileage
- A need to review fuel costs
- A local service team familiar with the powertrain
Fleet managers should also check cold-start performance, tank capacity, fuel storage rules, warranty terms, and parts supply before making a purchase decision.
A simple way to assess the real cost
I recommend using a route-based calculation rather than comparing fuel prices alone.
Record these figures for at least several weeks:
- Average daily mileage
- Average cargo weight
- Fuel used per 100 kilometers
- Fuel price per liter
- Idle time during loading and unloading
- Routine service costs
- Refueling time and distance
- Vehicle availability
The basic fuel cost formula is:
Fuel cost per 100 kilometers = fuel used per 100 kilometers × fuel price per liter
A methanol vehicle may use more liters than a diesel vehicle because methanol contains less energy per liter. The lower fuel price may still offset that difference, but the result must be checked with local figures.
The calculation should include downtime as well. A vehicle that needs a long detour to reach a methanol station may lose part of its fuel-cost benefit through extra mileage and driver hours.
Driving habits still affect efficiency
Engine technology does not remove the effect of driving behavior. Rapid acceleration, long idling, heavy loads, poor tire pressure, and frequent short trips can raise fuel use in any powertrain.
Drivers can support stable consumption by:
- Keeping a steady speed where road conditions allow
- Avoiding unnecessary idling
- Checking tire pressure on a regular schedule
- Using the correct loading method
- Following the recommended service plan
- Reporting unusual engine sounds or warning messages
A well-planned route can also produce better results than a small change in driving style. Combining deliveries, reducing empty mileage, and choosing suitable departure times may lower total operating cost.
Points to check before purchase
I would ask the supplier for clear technical information rather than relying only on promotional figures.
Useful questions include:
- What test conditions support the stated fuel-saving range?
- Which vehicle models use the methanol engine?
- What is the expected fuel use under city, highway, and loaded conditions?
- Where can the vehicle be serviced?
- How are methanol-related components protected?
- What warranty coverage is provided?
- Is methanol available along the planned routes?
- What are the recommended inspection intervals?
- How does the vehicle perform in the local climate?
A short demonstration drive is helpful, but a monitored fleet trial gives better evidence. One vehicle operating on the same route as existing diesel vehicles can show how the two systems compare under similar workloads.
Farizon methanol engines may offer a useful option for fleets that have stable routes, dependable fuel access, and a clear cost-control plan. The “up to 50% less fuel” message should be read as a possible result under certain conditions, not as a guaranteed saving.
The strongest decision comes from local data: real fuel prices, real cargo loads, real route distances, and real service costs. A careful trial can show whether methanol power fits the business before a larger fleet change is considered.
Fuel costs take a large share of a truck operator’s budget. Diesel prices can change from month to month, while long-distance routes, heavy loads, and idling can raise consumption even more.
That leads to a practical question: can methanol cut fuel costs in half?
The honest answer depends on local fuel prices, vehicle efficiency, route conditions, methanol supply, and maintenance costs. Farizon is drawing attention because its methanol-powered commercial vehicles offer another way to manage fuel spending without relying only on conventional diesel.
The cost gap starts with the fuel
Methanol is a liquid fuel that can be produced from several sources, including natural gas, coal, and renewable materials. It is already used in chemical production and has also been tested as a transport fuel in several markets.
The price difference between methanol and diesel varies by region. A fleet may see a clear fuel-cost advantage when methanol is priced lower on an energy-adjusted basis. The saving will not be the same for every route, though.
A simple calculation can help:
Fuel cost per 100 kilometers = fuel use per 100 kilometers × fuel price
For example, a diesel truck may use 30 liters per 100 kilometers. A methanol truck may consume more liquid fuel because methanol contains less energy per liter. The lower price of methanol must be compared with its higher volume use.
This is why I would not judge the business case by looking at the pump price alone.
How Farizon fits into the discussion
Farizon, a commercial vehicle brand under Geely, has developed methanol-powered models for freight and logistics work. Its methanol vehicles are designed around the needs of commercial operators, where fuel use, payload, driving range, service access, and uptime all affect operating cost.
A methanol powertrain can offer several practical benefits:
- A liquid-fuel format that can be handled through a refueling process similar to other liquid fuels
- Lower dependence on diesel in markets with methanol supply
- Potential reductions in fuel spending when local methanol prices are favorable
- A powertrain option for fleets that are not ready to move fully to battery-electric trucks
- A possible fit for fixed routes with known refueling points
Farizon’s approach matters because commercial transport needs more than a new fuel. Operators need vehicles that can complete daily routes, carry the planned load, and return to service without long delays.
Can the saving reach 50 percent?
It may be possible in a specific operating environment, but it should not be treated as a standard result.
A fleet manager should review at least five figures:
Local diesel price
Use the actual commercial price paid by the fleet, not a general retail figure.
Local methanol price
Check whether the supply is stable throughout the year. A low quoted price has limited value if the nearest station is far from the route.
Vehicle fuel consumption
Compare tested data with the conditions the truck will face. Mountain roads, traffic, cold weather, payload, and driver habits can change fuel use.
Maintenance and service costs
Methanol vehicles may require service procedures and parts suited to the fuel system. The local technician network should be part of the calculation.
Daily route distance
A truck traveling 300 kilometers every day has a different payback profile from a vehicle covering 80 kilometers.
A useful comparison looks like this:
| Item |
Diesel truck |
Methanol truck |
| Fuel use per 100 km |
Actual fleet data |
Actual test or fleet data |
| Fuel price |
Local diesel price |
Local methanol price |
| Fuel cost per 100 km |
Calculated result |
Calculated result |
| Maintenance cost |
Service records |
Quoted service plan |
| Refueling access |
Existing network |
Route-based availability |
This method gives a clearer picture than using a headline saving figure.
A route example
Imagine a delivery company running one truck for 24,000 kilometers each month.
The company records:
- Diesel consumption: 30 liters per 100 kilometers
- Methanol consumption: 45 liters per 100 kilometers
- Diesel price: $1.20 per liter
- Methanol price: $0.55 per liter
The monthly fuel calculation would be:
Diesel:
24,000 ÷ 100 × 30 × $1.20 = $8,640
Methanol:
24,000 ÷ 100 × 45 × $0.55 = $5,940
The fuel-cost difference is about 31 percent in this example. It does not reach half, yet the reduction may still matter to a high-mileage fleet.
If the methanol price falls, the diesel price rises, or the vehicle uses less fuel than the estimate, the gap may become wider. If methanol supply costs more or the truck operates on difficult terrain, the difference may shrink.
The numbers should come from the route, not from a general claim.
What I would check before buying
I would ask the supplier for a complete operating plan.
Route coverage
Where can the truck refuel? Can the vehicle complete its daily work with the available stations?
Payload effect
Does the truck maintain the required payload under the chosen configuration?
Cold-weather performance
How does the fuel system perform in the lowest temperatures found on the route?
Service support
Which workshops can inspect the vehicle? How quickly can common parts be supplied?
Fuel quality
What methanol grade does the vehicle require? Is quality checked across the supply chain?
Warranty terms
Which components are covered, and what maintenance records are required?
Resale and fleet expansion
Can the business add more vehicles later without creating a separate service and fuel system?
These questions can prevent a low fuel price from turning into a high operating burden.
Methanol compared with other alternatives
Battery-electric trucks can work well for short and predictable routes when charging access is strong. Hydrogen vehicles may suit some long-distance applications, though fuel stations and vehicle prices remain key factors. Diesel still offers broad refueling access in many regions.
Methanol sits between familiar liquid-fuel operation and lower-carbon transport goals. It may suit logistics companies that want to test a different fuel while keeping a refueling process that is easier to fit into existing work patterns.
Its environmental profile also depends on how the methanol is produced. Methanol made from fossil sources does not carry the same emissions profile as methanol made from renewable or captured-carbon pathways. Operators should review the full fuel source before making an environmental claim.
A sensible fleet decision
I would start with a pilot vehicle rather than replacing an entire fleet at once.
Track the truck for several months across normal routes. Record:
- Fuel use
- Fuel price
- Distance traveled
- Payload
- Maintenance visits
- Refueling time
- Driver feedback
- Route delays
Compare these records with a similar diesel vehicle working on the same route. This creates a useful operating baseline.
Methanol may reduce fuel costs by a large margin for some fleets, including cases where the saving approaches half. That result depends on local conditions and verified vehicle data. Farizon’s methanol vehicles give operators another option, yet the best choice still comes from a route-level calculation.
A lower pump price can attract attention. A complete cost review shows whether the vehicle truly fits the business.
