Heart Aerospace ES-30: Comprehensive Flight Guide for MSFS 2024

It includes startup procedures, detailed flight phases, system management, and power operations.

1. Aircraft Overview

General Specifications

  • Type: Hybrid-electric regional airliner.
  • Capacity: 30 passengers.
  • Powerplant:
    • Four electric motors for propulsion.
    • Two turbogenerators for range extension and energy generation in hybrid mode.
  • Performance:
    • Range (Electric-Only): ~200 km (~124 miles).
    • Range (Hybrid Mode): ~400 km (~249 miles).
  • Design Features:
    • Quiet operation.
    • Eco-friendly hybrid-electric propulsion.
    • Designed for short-haul regional operations.

Key Considerations

  • Takeoff Power: The electric motors alone cannot reliably generate enough thrust for a full takeoff under heavier payloads in MSFS2024. Hybrid mode is required for all standard takeoff operations.
  • Electric Efficiency: Best used for cruise and descent phases where lower power is sufficient.

4. Taxiing

  • Mode: Electric-Only.
  • Procedure:
    • Use low thrust settings to conserve battery charge.
    • Monitor power flow to ensure efficient energy usage.
  • Considerations:
    • Avoid unnecessary stop-and-go to minimize energy draw.

5. Takeoff

Takeoff Procedure (Hybrid Mode)

  1. Throttle Configuration:
  • Advance throttles to maximum for hybrid power.
  1. V-Speeds:
  • V1: ~95 knots IAS (decision speed).
  • VR: ~100 knots IAS (rotation speed).
  • V2: ~110 knots IAS (takeoff safety speed).
  1. Climb Phase:
  • Maintain V2+10 (~120 knots IAS) until reaching a safe altitude (~400 ft AGL).
  • Retract Flaps 2 → Flaps 1 at ~140 knots IAS.
  • Retract Flaps 1 → Up at ~160 knots IAS.

Electric-Only Takeoff (bearly feasible):

  • Recommended for light/empty payloads and longer runways.
  • Performance may limit climb rate and takeoff weight.

6. Climb

Hybrid Mode Climb:

  1. Initial Climb:
  • Climb rate: ~1,500 ft/min.
  • Speed: Maintain ~180 knots IAS after flap retraction.
  1. Cruise Climb Transition:
  • Reduce climb rate to ~1,000 ft/min as you approach FL100–FL150.
  • Transition to electric-only mode at cruise altitude if battery levels allow.

7. Cruise

  • Optimal Altitude: FL100–FL150.
  • Cruise Speed: ~180 knots IAS (~200 knots TAS at FL150).
  • Power Mode:
    • Electric-Only: For routes under 200 km.
    • Hybrid Mode: For routes exceeding 200 km to ensure range.
  • System Monitoring:
    • Check battery charge and turbogenerator fuel levels.
    • Adjust power settings for efficiency.

8. Descent

Descent Planning:

  • Calculate TOD:
    TOD = Altitude to Lose Ă· 300 x 100.
  • Example: For 10,000 ft descent, start ~33 NM from the destination.

Descent Procedure:

  1. Initial Descent:
  • Rate: ~1,500 ft/min.
  • Speed: ~230 knots IAS.
  1. Intermediate Descent:
  • Rate: ~1,000 ft/min.
  • Speed: ~230 knots IAS.
  1. Below FL100:
  • Rate: ~800 ft/min.
  • Speed: ~200 knots IAS.

9. Approach and Landing

Approach Configuration:

  • Flaps and Speeds:
    • Flaps 1: ~160 knots IAS.
    • Flaps 2: ~140 knots IAS.
    • Full Flaps: ~120 knots IAS.
  • Landing Speed (Vapp): ~110 knots IAS.

Landing Procedure:

  1. Final Descent:
  • Maintain a stable approach path.
  1. Touchdown:
  • Speed: ~105 knots IAS.
  • Apply minimal braking to conserve energy.
  1. Taxi to Gate:
  • Use electric-only power.

10. Post-Flight Operations

  1. Shutdown:
  • Disarm electric motors.
  • Turn off turbogenerators if used.
  1. Battery Recharge:
  • Connect the aircraft to ground power immediately.
  1. System Checks:
  • Review energy consumption and performance logs.

11. Operational Notes

Energy Management:

  • Hybrid Mode: Use for takeoff, climb, and emergencies.
  • Electric-Only: Maximize during cruise and taxi phases.

Weight and Performance:

  • Adjust for payload and fuel to optimise range and climb performance.

12. Example Routes

Electric-Only Flights: If take-off weight allows

  1. Sydney (YSSY) → Newcastle (YWLM): ~117 km (~63 NM).
  2. Brisbane (YBBN) → Toowoomba (YBWW): ~125 km (~78 NM).

Hybrid Takeoff Flights:

  1. Melbourne (YMML) → Bendigo (YBDG): ~116 km (~72 NM).
  2. Adelaide (YPAD) → Port Lincoln (YPLC): ~250 km (~135 NM).
6 Likes

Please note - flightsimguides is a tag of a business name and website. (flighsimguides.shop). I have no problem if you want to add the tag, but please edit so it will be easy to understand where to find the aircraft, who publishes the data (and not flightsimguides.shop). Just to make sure we do not mislead anyone. Thank you.

can you link the page where the planes guides are?

flightsimguides tag removed as I think the OP misunderstood the purpose of the tag.

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Interesting. I did fly this plane in freeflight AND in career mode (I purchased it) and so far I did not find a “Hybrid” Mode. The Turboprops will hold the Plane in the air all right. But they did not load up your high voltage batteries.
Moreover the low voltage batterie drains regardless of what you do so that after aproximatly 45 Min into every flight your avionics will die.
I wonder how you could do a flightguide without noticing?
And yes - in freeflight you can reload your batterie in flight endlessly via EFB and in career mode there are other methods of cheating. But this is not my style of play so I abandoned the plane for now.
A “comprehensive” guide should inform about flaws that exists at the time of writing in my opinion.

And I checked their website and did not find it anyway.

Plus…technical data of planes are public from the producer companies

Thanks @ARTRAV that’s really interesting!

May I ask where/how did you get this information? Is it from pure in-sim testing?

I’m considering putting up a custom checklists from what I can find here and there, maybe I’ll share at some point..

Thanks for the tips. I find electric-only takeoffs quite feasible so long as you have the runway. I haven’t seen any definitive procedures for managing the batteries, but I have seen some YT videos that my be incorrect. Just reading up on Lithium batteries, and they suggest running the batteries down to 20-30 percent before fully charging them. I have seen suggestions for running one or two batteries at a time until they are depleted before switching over to the remaining banks. I’m guessing this would depend on how the batteries are designed for maintenance and whether they can be replaced individually or as a whole. I’m guessing turnaround charging time is also a factor. Does it take longer to charge one battery from 20% to 100%, or 4 batteries from 80% to 100%? If the goal is to save fuel costs, do you run the turbos at idle or turned off? I’m thinking they would be better on idle since they would be available immediately if needed.
Lately I have been flying fully electric with all batteries engaged and turbos on idle. Range is limited in this case. I have also tried climbing out with both sets together, and then setting the throttles to the top of the green zone for cruise. Lots of fun to be had with this aircraft!

More thoughts on this. I ran all engines to cruise, then parked the throttles at the top of the green arc. When the high voltage batteries reached 30%, I idled the electric engines, feathered the electric props, and turned off the HV batteries. I believe this is a mistake, as the landing gear and flaps will not deploy without the HV batteries turned on. Also, the props start windmilling again after you turn the HV batteries back on. I am thinking that when I reach 30% I’ll idle the electric engines, feather the props, leave the HV batteries on, and execute approach on turbos only. This is probably not ideal either, as it adds the extra step of unfeathering the electric props in the event that you need full power.

Final note. Electric propellers will not feather with the HV batteries on. I idled the electric engines at 35%, and I started my approach to KSEA. I was down to 32% at the gate.