Which driving mode have you selected?

Came across the latest technical details on Owner Discussion: BYD Integrated Heat Pump 2.0 & 16-in-1 Thermal Module: How It Cuts Winter Range Loss by 25% — Thoughts & Specs Breakdown and thought I'd start a thread so we can compare notes and see what fellow owners think:

1. Key Highlights & What Stood Out to Me

In 2026 models built on e-Platform 3.0 Evo, BYD has upgraded its thermal management system to an Integrated 16-in-1 Thermal Management Module:

• Scavenges waste heat simultaneously from the SiC motor inverter, stator windings, on-board charger, BMS, and ambient air down to -30°C.
• Combines with High-Frequency Pulse Self-Heating (which uses the traction motor's inverter phases to warm the LFP cells internally from the inside out at 4°C per minute) so cold-soaked winter DC fast charging hits peak speed immediately.

2. Closer Look at the Specs & Hardware Packaging

Technical Parameter	Official BYD Specification & Benchmark
Platform Architecture	e-Platform 3.0 Evo with CTB (Cell-to-Body) Integration
Drivetrain & Peak RPM	23,000 RPM Traction Motor (Up to 390 kW / 690 Nm AWD)
DC Fast Charging Peak	Up to 230 kW CCS2 (10% to 80% SOC in ~24 Minutes)
Chassis & Safety	DiSus-C Adaptive Damping + 5-Star ANCAP/Euro NCAP (93% Child)

3. What Do Fellow BYD Owners Think?

How do you see this fitting into your garage or next EV upgrade over the next 12–24 months? Keen to hear real-world thoughts from Atto 3, Seal, Dolphin, Sealion, and Shark 6 owners!

Executive Summary & Key Takeaways: BYD's flagship engineering division has completed official high-speed and Nürburgring Nordschleife testing with the 1,300 hp (960 kW) Yangwang U9 Quad-Motor Electric Supercar, clocking a verified 391.94 km/h (243.5 mph) top speed and a 7:17.900 Nürburgring lap time!

1. Platform Engineering & Core Hardware Breakdown

Figure 1: Denza Z9 GT & Luxury Lineup — showcasing BYD’s flagship e³ tri-motor torque vectoring and active rear-wheel steering.

• Powered by an 80 kWh high-discharge LFP Blade Battery proving that lithium-iron-phosphate chemistry can sustain extreme continuous track discharge and 500 kW dual-gun DC fast charging.
• Features DiSus-X active hydraulic body control capable of independent four-wheel vertical, pitch, and roll stabilization in milliseconds.

2. Technical Specifications & Architecture Comparison

Figure 2: Off-Road & Hydraulic Control: Denza B5 / B8 body-on-frame DMO 4x4 chassis equipped with DiSus-P active hydraulic suspension.

Below is the complete engineering and specification breakdown across the export powertrain and chassis architecture:

Technical Parameter	Official BYD Specification & Benchmark
Flagship Platforms	e³ Tri-Motor / e⁴ Quad-Motor & DMO 4x4 Super Hybrid
Active Suspension Suite	DiSus-C (Damping), DiSus-A (Air) & DiSus-P (Hydraulic)
Rear-Axle Steering	Up to ±10° Counter-Phase Steering (4.62m Turning Radius)
Peak System Power	505 kW to 710 kW (965 hp) with Millisecond Torque Vectoring

3. Real-World Ownership Impact, Safety & Regional Availability

From a long-term ownership perspective, the combination of Cobalt-Free LFP Blade Battery chemistry, Cell-to-Body (CTB) / Cell-to-Chassis (CTC) structural rigidity, and over-the-air (DiLink OTA) software refinement ensures strong residual values and low scheduled maintenance costs across both right-hand-drive (ANZ/UK) and European markets.

Executive Summary & Key Takeaways: BYD has dropped a bombshell on the dual-cab ute market: the BYD Shark 6 Launch Edition (321 kW / 650 Nm DMO Plug-In Hybrid) has officially launched at $57,900 AUD plus on-road costs in Australia (and $69,990 NZD in New Zealand)!

1. Platform Engineering & Core Hardware Breakdown

Figure 1: BYD Shark 6 DMO Plug-In Hybrid Ute — longitudinal 1.5T hybrid generator paired with dual electric axles and independent coil suspension.

Standard equipment includes 12-speaker Dynaudio sound, Heads-Up Display (W-HUD), heated & ventilated front seats, 360° camera, 6.6 kW V2L outlets (3 in tub + 1 in cabin), and independent front & rear double-wishbone coil suspension. Website crashed within 20 minutes from over 4,000 deposits!

2. Technical Specifications & Architecture Comparison

Figure 2: Chassis & Utility Detail:CTC (Cell-to-Chassis) structural Blade Battery integration and 6.6 kW V2L tub power architecture.

Below is the complete engineering and specification breakdown across the export powertrain and chassis architecture:

Technical Parameter	Official BYD Specification & Benchmark
Platform Architecture	DMO Super Hybrid Body-on-Frame (CTC Ladder Chassis)
Combined System Output	321 kW (430 hp) / 650 Nm Dual-Motor AWD
Battery Chemistry & Capacity	29.58 kWh LFP Blade Battery + 6.6 kW V2L Discharge
Suspension Layout	Front & Rear Independent Double-Wishbone Coil Springs

3. Real-World Ownership Impact, Safety & Regional Availability

From a long-term ownership perspective, the combination of Cobalt-Free LFP Blade Battery chemistry, Cell-to-Body (CTB) / Cell-to-Chassis (CTC) structural rigidity, and over-the-air (DiLink OTA) software refinement ensures strong residual values and low scheduled maintenance costs across both right-hand-drive (ANZ/UK) and European markets.

After 20,000 km 6-Month Report of home charging with a solar-aware smart wallbox (Zappi / Evnex / Fronius Wattpilot), here is the real-world cost and efficiency breakdown for BYD owners.

Setup & Surplus Solar Capture:

• Solar Divert Mode (1.4 kW – 7.2 kW dynamic modulation): The BYD onboard AC charger smoothly tracks surplus rooftop solar down to 6A (1.4 kW) without tripping contactors.
• Off-Peak EV Tariff (Midnight – 6:00 AM): Using the wallbox schedule rather than the in-car schedule avoids any handshake sleep timeout on older EVSE firmware.