What about the core technology of GAC? ADiMOTION and the Powertrain Maths Behind Three Family Cars

One family of vehicles, three different engineering jobs

A useful answer to “What about the core technology of GAC?” begins with those assignments. ADiMOTION gives a range-extended car a second way to obtain electricity. Quark packages the electric drive. GMC integrates functions that let a hybrid coordinate its power sources. GAC also develops intelligence across aircraft, robots, the home and vehicles, and has put vehicle engineering into production with partners abroad. The details become more useful when a reader can trace each capability to a component, a particular vehicle or a named industrial project.

We compared GAC’s technical disclosures with three retail specification sheets to see what that engineering means on an ordinary week. A seven-seat Philippine hybrid, a plug-in MPV in the same market and an Australian electric SUV each offer a useful example. The questions are practical. Where does the next unit of energy come from? What happens when the household plugs in regularly? Which figure helps plan an actual stop? The calculations below are worked examples from published figures. The vehicle and market are identified wherever the figures enter the comparison.

ADiMOTION turns two commonly quoted figures into two different answers

For a range-extended car, imagine the electricity moving forward from the engine and generator towards the electric drive. GAC reports a fuel-to-electricity conversion figure of 3.73 kWh per litre for ADiMOTION. That tells us how much electrical energy the generating system produced per litre under the reported assessment conditions. It is a particularly good way to describe the technology because it identifies the input, the output and the boundary of the measurement. GAC identifies a dedicated 1.5-litre engine and an oil-cooled generator in this system. GAC’s generator and vehicle description.

The second figure, up to 85 kW of continuous generating power, answers a different question. It tells us the rate at which this generation platform can supply electricity under its specified conditions. Kilowatt-hours measure an amount of energy. Kilowatts measure how quickly the system can deliver it. The conversion result explains the return on a quantity of fuel. The continuous-power figure is the more relevant one when thinking about sustained demand. Both appear together in GAC’s 2025 ESG report, which also identifies the assessed engine’s peak thermal efficiency.

Here is a simple example of the distinction. Five litres multiplied by 3.73 gives 18.65 kWh of electricity at the reported conversion rate. That calculation ends at the generator. To turn it into road distance one would need a vehicle-specific consumption figure measured under compatible conditions and an allowance for energy used elsewhere in the vehicle. Multiplying 85 kW by half an hour gives 42.5 kWh if the generator holds that output throughout. The two examples use different starting assumptions and answer different questions. Neither represents a trip we drove.

The production-car connection is explicit. GAC names the AION i60 REEV as an application of the range-extender technology, and its European launch material depicts the HYPTEC HL with ADiMOTION. At launch the company also described a control system that considers charging availability, traffic and driving habits when managing energy. Hardware determines the available conversion and generation capacity. The control strategy decides how the vehicle uses that capacity over a journey. GAC Europe’s ADiMOTION introduction.

Three ways to read the drivetrain data

The intriguing comparison is between the last two percentages. A motor achieves its peak efficiency over a particular combination of speed and load. A hybrid transmission has a different job and a different measurement boundary. A cycle figure adds another dimension because the operating point changes during the test. In publishing both a maximum and a cycle figure for GMC 3.0, GAC gives readers information about two parts of that picture. A buyer looking for the energy required to reach a destination should go on to the consumption line for the complete vehicle. GAC’s component efficiency disclosures.

Packaging is an equally tangible part of the story. GAC gives the GMC 3.0 a mass of 98.5 kg and describes the Quark system as a 12-in-1 integrated drive. Integration changes the physical brief for the vehicle team. Items housed in one assembly can be positioned and connected as a unit, with space for cooling connections, wiring and the surrounding structure considered together. The significance of 98.5 kg is that the transmission team put a number on its finished assembly. The significance of 12-in-1 is functional integration. A reader can keep both precise without converting either into an unmeasured vehicle-range gain. GAC’s component and integration details.

There is a useful chronology behind the names. The range-extender announcement appeared in 2025. In April 2026 GAC presented additional plug-in hybrid and HEV+ technologies under the ADiMOTION family. A name can therefore refer to a specific range extender in one source and to a broader family in another. Look for the model and date before comparing the figures. The GX and GL specifications used below illustrate a Philippine HEV, for example. Their own technical sheet is the appropriate source for their actual equipment. GAC’s April 2026 powertrain presentation.

A seven-seat household that parks without a socket

Consider a family in the Philippines choosing a seven-seat car for a weekly school and shopping route. The E8 HEV lists a 2.0-litre engine, a two-speed dedicated hybrid transmission and a 134 kW electric motor. Both Philippine trims have seven places and a 60-litre fuel tank. The local sheet gives 5.58 L/100 km on the WLTC combined cycle. The family can see the value of electric propulsion without building plug-in charging into its parking routine. The figures are specific to the GX and GL in GAC Philippines’ E8 HEV specification.

The published consumption can be used to size a routine. At 300 km a week, the calculation is three times 5.58, or 16.74 litres at the declared cycle rate. At 450 km it becomes 25.11 litres. An owner can substitute their weekly odometer difference and multiply by the local fuel price. This turns a technical line into a household budget with two adjustable inputs. Traffic, passenger load, route and air conditioning will influence the result in use. The calculation keeps those factors visible by leaving the distance and local price in the reader’s hands.

Power deserves its own line. GAC lists the electric motor at 134 kW and 300 N·m, and the engine at 103 kW. The peak for each component belongs to its own operating conditions. Adding those peaks would give an unsupported system-power number. For a driver deciding what to ask on a demonstration, the figures suggest a better question. How does the seven-seat MPV move away in traffic and then settle into a steady road speed? The electric machine, engine and transmission all participate in that journey. The gearbox and motor assignments make the question more precise than a comparison of headline horsepower alone.

The cabin facts help put the engineering to work. GAC gives the E8 a 2,930 mm wheelbase and a luggage-volume span of 345 to 1,917 litres. A buyer who carries seven people should examine the vehicle with all seats available to passengers. A buyer who usually carries four can try a different seating layout on the same visit. These two households can share the same powertrain figures and still favour the MPV for different reasons. This is where a model specification contributes something a component award cannot supply.

A plug-in MPV with a measurable weekday and weekend

Staying in the Philippines keeps the next example grounded in the same national product range. The GN8 PHEV GX carries a 25.57 kWh battery. Its local specification lists 106 km of WLTC electric range, 6.1 L/100 km of WLTC fuel consumption with the battery depleted, and a combined figure of 1,032 km starting with a full tank and a full charge. The tank is 56 litres. All three distance or consumption entries deserve their starting conditions alongside them. They describe different stages of using one vehicle. GAC Philippines’ GN8 PHEV GX specification.

Suppose a driver covers 35 km on each of three consecutive weekdays. The total is 105 km, close to the published 106 km electric-cycle figure. That does not establish that one charge will always last three days. It does establish that a 35 km daily trip and the car’s rated electric distance are on a useful scale for a household with regular charging. Someone doing 80 km each weekday might instead compare each individual day with the published electric distance and consider when the car will next park near a socket. The practical buying question changes when the parking pattern changes.

For a family journey extending beyond regular charging, the depleted-battery figure is useful independently. Using the declared 6.1 L/100 km as a calculation input, 200 km in that operating condition corresponds to 12.2 litres. That is a separate example from the full-tank, full-charge range. It avoids stitching together two unrelated calculations into a promise about a single drive. A prospective owner could write down the length of a familiar intercity trip, identify where an overnight charge is available, and use the vehicle’s three official lines to ask the dealer about the portions before and after that stop.

There is also a benefit once the vehicle is parked. GAC Philippines lists vehicle-to-load output of 3.3 kW on this trim. Here the question is the demand of a compatible appliance and the conditions of use set out for the vehicle. An appliance’s rated watts say something directly relevant. The car’s 106 km range says very little about that appliance on its own. Driving range and accessory power illustrate the same engineering habit from opposite ends of a journey. Start with the job, then select the specification that measures it.

An electric SUV that splits the charging decision into two stops

The Australian AION V adds a different set of choices. Both Premium and Luxury grades in GAC Australia’s sheet list a 75.26 kWh LFP battery, 510 km WLTP range and 16.7 kWh/100 km WLTP combined consumption. They also list 11 kW maximum AC charging, an 8.5-hour AC charge from zero to full, and up to 180 kW DC charging with a stated 24-minute window from 10 to 80 percent. Those entries let a buyer look separately at a long dwell at home and a shorter en-route stop. GAC Australia’s AION V specification.

At the published consumption, a 40 km weekday represents 6.68 kWh. Five such weekdays total 33.4 kWh. The local electricity tariff can be applied to that illustrative weekly figure using the tariff terms and metering arrangement relevant to the household. By contrast, the 24-minute DC figure answers a travel question about a clearly stated part of the battery’s charge window. Maximum DC power describes the upper rate the vehicle can accept under suitable conditions. Charging power varies through the session. The time for the defined 10-to-80-percent window is therefore the useful starting point for planning a rest stop.

The market distinction makes an instructive cross-check. The Philippine AION V Premium also lists 75.26 kWh, but the local distance is 602 km under NEDC. Australia publishes 510 km under WLTP. These are official figures with different cycle labels. There is no need to select one global figure for the car. An Australian buyer comparing two local electric vehicles can retain WLTP for both, and a Philippine buyer reading local material can retain the relevant NEDC label. The battery size allows the documents to be connected. The measurement label tells us how to use each distance. GAC Philippines’ AION V grade table.

One more item is easy to overlook when shopping by range. On the Philippine sheet, Elite and Premium have different battery capacities, 64.5 and 75.26 kWh, and different maximum DC rates, 150 and 180 kW. In Australia, the two listed grades share the cited battery and charging figures. A family researching an imported review can save time by checking the country and trim before taking notes. The common model name is useful for finding relevant information. The local column decides which numbers belong on the purchase shortlist.

Where propulsion meets intelligence and overseas production

The engineering story extends beyond the powertrain. GAC calls its wider AI framework X-SOUL and identifies four settings in English: Sky, Robot, Home and Vehicle. At its June 2025 Hong Kong expo appearance the company brought the GOVY AirCab into the discussion. That gives the sky branch a named example and an appearance that can be checked. The wording matters for a retail buyer. The four settings describe where GAC is developing and showing intelligence across its portfolio. Equipment in a particular car still comes from that car’s local specification. GAC Hong Kong’s expo account.

At vehicle level the energy manager supplies a more immediate example of intelligence in use. GAC describes a system that considers available charging, traffic and driving habits as it manages the use and recovery of energy. A household with a regular commute and a place to plug in at the end of the day gives that control problem a clear context. A long weekend drive with a different charging pattern changes the context. This example is narrower than the four-setting framework, and it is valuable for precisely that reason. It shows one real engineering task to which software is applied. GAC’s account of its energy-management strategies.

For overseas implementation, manufacturing is a particularly clear test. Magna and GAC announced in November 2025 that serial production of the AION V was underway in Graz, Austria. The partner names the model, identifies the facility and states the industrial milestone. This is evidence of a production programme overseas. The Australian and Philippine specification sheets establish a different kind of international evidence, the configurations available to buyers in each market. These records fit together without any assumption that a particular Australian or Philippine vehicle came from the Austrian plant. Magna and GAC’s joint production announcement.

A buyer can now follow a complete thread. For range extension, start with the generator’s measured conversion rate and identify the vehicle that uses it. For a family purchase, take the consumption, range and charging figures from the local grade and apply them to an actual weekly routine. For intelligence and international reach, look for a named demonstration or a production partner that confirms a particular model at a particular site. That is the practical strength of GAC’s core technology story. The evidence runs from individual components through production vehicles and into the places where people build, charge and drive them.

Sources & references

1. [1] Guangzhou Automobile Group, 2025 ESG report, printed pages 66–67www1.hkexnews.hk
2. [2] GAC Global, power systems and their production applicationsgacgroup.com
3. [3] GAC Europe, ADiMOTION range-extender technical launchgacgroup.com
4. [4] GAC Group, April 2026 ADiMOTION plug-in hybrid and HEV+ presentationgacgroup.com
5. [5] GAC Philippines, E8 HEV GX and GL specificationsgacgroup.com
6. [6] GAC Philippines, GN8 PHEV GX specificationsgacgroup.com
7. [7] GAC Australia, AION V Premium and Luxury specificationsgacgroup.com
8. [8] GAC Philippines, AION V Elite and Premium specificationsgacgroup.com
9. [9] GAC Hong Kong, X-SOUL AI and GOVY AirCab at the Hong Kong expogacgroup.com
10. [10] Magna and GAC, AION V serial production at Grazmagna.com