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Porsche 718 EV Keeps Mid-Engine Feel with Rear Battery
- October 8, 2026
- Posted by: Clean Energy Skills
- Category: EV

Estimated reading time: 5 minutes · Last updated:
Porsche’s forthcoming 718 EV continues the Boxster and Cayman lineage but replaces the underfloor skateboard battery with a rear-mounted E-Core pack located just aft of the passenger compartment. That E-Core battery layout is meant to preserve the low seating position and the mid-engined balance that defined the gas 718s, leaving 55.2 percent of the weight over the rear axle in the prototype we rode. Porsche confirmed at its Capital Markets Day that the 718 EV is due in 2027, and an 800-volt electrical architecture will support rapid charging. A passenger ride at Porsche’s Weissach test track suggested the package keeps the handling character owners expect.
Key takeaways
- Launch timing: Porsche confirmed the 718 EV will arrive in 2027.
- Battery placement: The 718 EV uses an E-Core battery positioned immediately aft of the seats rather than a skateboard-style pack installed under the cabin floor.
- Rear weight: The prototype positioned 55.2 percent of its weight at the rear, versus 59.8 percent for the combustion 718.
- Electrical system: Porsche says the car will run on an 800-volt architecture and will include the Taycan-derived E-Shift feature.
Table of contents
Why Porsche put the battery behind the seats
Porsche’s E-Core architecture places the traction battery where the internal‑combustion engine used to sit: directly behind the occupants. The company frames this as a packaging choice to keep the cockpit low and to retain the 718’s mid‑engine proportions rather than adopting the common skateboard arrangement that tucks cells beneath the floor.
That decision changes the car’s mass distribution relative to a conventional EV. Porsche provided a direct comparison: the gas 718 had 59.8 percent of its mass over the rear axle, while the electric prototype measured 55.2 percent. The figure is lower than the burn‑out 718’s but still firmly rear‑biased, and Porsche says the battery is structurally integrated into the chassis to maintain rigidity.
Physically shifting the battery rearward also frees the floor under the cabin, which is one reason the 718 EV’s seating position stays low and the car’s proportions remain close to the combustion model. The approach is a deliberate attempt to preserve the occupational experience that defined the Boxster and Cayman lines.
How the prototype felt at Weissach
Car and Driver rode as a passenger in a lightly camouflaged prototype around Porsche’s Weissach test track and reported handling that recalls a mid‑engine sports car more than a typical EV. From the low seating position you can feel the car rotate into a corner; the prototype we rode was rear‑drive and appeared willing to change direction without excessive understeer.
The ride remained composed over curbs and through rapid transitions, with suspension compliance that buffers harsh inputs. Porsche engineers told the ride‑along driver they were using an E-Shift mode to simulate gearchanges and engine sound — a software layer that provides auditory and tactile reference points that drivers on track found useful.
Because this was a passenger evaluation rather than a timed test, Porsche declined to provide power, range, or final curb weight numbers. Still, the subjective impression from Weissach was that the rear‑mounted battery and chassis calibration largely preserved the 718’s agility despite the EV hardware.
What Porsche has confirmed about hardware and software
Porsche disclosed three concrete technical points: the E-Core battery location, the inclusion of E-Shift (software that simulates gear changes and engine cues), and an 800-volt electrical architecture to enable high-speed charging. The E-Shift system is the same driving‑feel feature introduced on the Taycan and adapted for the 718 EV.
The automaker has also said the battery structure is designed for repeatable performance, implying thermal management and power delivery tuned for track use. Porsche did not publish cell chemistry, usable capacity, or target charging rates in kilowatts, so those operational specifics remain undisclosed.
On drive arrangement, the prototype we rode was rear-wheel drive; Porsche has not stated whether that will be the sole configuration or if multi‑motor all‑wheel‑drive variants will appear later in the model cycle.
Missing numbers that matter for buyers
Vehicle dynamics and a low cockpit are important to enthusiasts, but prospective buyers also need power, range, weight, and price — none of which Porsche has released for the 718 EV. Without official motor counts, kilowatt outputs, usable battery capacity, and final curb weight, it is impossible to place the car precisely against rivals or to predict usable range under spirited driving.
Porsche’s confirmation of an 800-volt system signals the potential for fast charging speeds in principle, but peak charging power and how the chemistry holds up over repeated track sessions are open questions. Those are the details that will determine whether the electric 718 will truly match the sustained performance and usability of its gas predecessors.
| Item | Detail |
|---|---|
| Architecture | E-Core: battery behind seats (structural integration) |
| Prototype drive layout | Rear-wheel drive (prototype) |
| Rear weight | 55.2 percent (718 EV prototype) vs 59.8 percent (gas 718) |
| Charging voltage | 800 volts |
How this could play out
The case for
- The rear-mounted battery preserves a low seating position and mid‑engine proportions, which could keep enthusiast interest high.
- An 800-volt architecture would allow shorter charging stops if Porsche publishes competitive peak charging rates.
The case against
- If curb weight or battery capacity are unfavorable, keen handling may be outweighed by poor real-world range or economy.
- Track durability questions — cell chemistry and thermal management under repeated hard use — could force conservative power limits that blunt performance.
What to be careful about
- Porsche has not released power, range, curb weight, or pricing, leaving buyers unable to compare total ownership trade-offs.
- A rear-mounted battery alters crash and thermal packaging; unproven durability under track stress could require compromises in power delivery.
- Relying on E-Shift for driver feedback may not satisfy purists if simulated cues replace mechanical feel.
The bottom line
Porsche has chosen an unconventional path for the 718 EV by mounting the battery behind the seats in an E-Core structure that aims to keep the low cockpit and handling balance of the 718 lineage. The prototype we rode at Weissach felt close to that goal, but crucial buyer questions remain unanswered: motor layout, power, usable battery capacity, range, curb weight and price. Those specifics — and independent range and durability tests once the car is revealed in 2027 — will determine whether the electric 718 delivers both the sensation and the real-world usability that enthusiasts expect.
What to watch
- Watch for Porsche to announce final power and range figures; no date has been set.
- Watch for the 718 EV’s full public unveiling and pricing details in 2027.
- Watch for first independent range and track durability tests after customer deliveries begin in 2027.
Frequently asked questions
When will the Porsche 718 EV go on sale?
Porsche has said the 718 EV is due in 2027, but the company has not published exact production start or delivery dates.
How does the 718 EV’s weight distribution compare to the gas model?
Porsche provided a direct comparison: the combustion 718 put 59.8 percent of its weight over the rear axle, while the electric prototype measured 55.2 percent at the rear.
What charging speeds will the 718 EV support?
Porsche confirmed an 800-volt electrical architecture intended for fast charging, but it has not released peak charging power in kilowatts or official plug‑to‑plug times.
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