Exklusives Interview: Dieser Mann hat die Logistik in Deutschland verändert

Technological concepts, product features, and analysis (from the subtitles)

1) Vehicle/charging tech in practice (battery-electric trucking + expedition motorcycle)

• The host drives a battery-electric expedition motorcycle/vehicle setup experience while also interacting with battery-electric trucks.
• Reported practical electrical details:
  • USB-C power available under the motorcycle seat (with an anecdote of a USB-C cable breaking from rattling).
  • CCS connector used on the motorcycle (charging interface mentioned as important for practicality).
  • Consumption/route planning: after ~800 km, average consumption ~7.5 kWh/100 km (as stated), enabling roughly 120–130 km range at normal driving speeds.
• Emphasis that for longer trips you need the right energy-speed tradeoff:
  • Rapid acceleration matters less than matching consumption curves (e.g., performance/efficiency best at ~90–100 km/h averages vs. constant max speed).

2) Wrap/branding repair workflow (electric truck livery)

• A truck’s visual damage was fixed via partial rework:
  • The “blister”/upper edge damage was repaired by replacing only the affected upper section while keeping foil intact below.
  • Result: cheaper partial repairs while still achieving a near-symmetrical, acceptable finish.
• Truck branding includes advertising space:
  • Added “DL” (sponsor) logo.
  • Described as supporting worldwide spare parts supply and worldwide shipping.

3) E-Trucker / E-Trucker Manager software: backend-configured dispatch + edge-case charging logic

• A tutorial-like segment focuses on setting up E-Trucker Manager:
  • Backend configuration determines charging agreements and pricing rules (where charging is cheap vs. when it should only be used in emergencies).
  • After initial setup, it becomes simple for drivers:
    • Dispatchers plan routes/tours.
    • Drivers receive correct guidance.
• Supported “edge cases” (important for logistics operators):
  • Private locations not on public networks but reachable via roaming networks, with different prices per negotiated roaming location.
  • Private factory charging points unlocked with roaming card authorization, requiring a “Charge and Go” compatible setup.
  • Pricing differences by country.
  • Keeping agreements with trucks and charging partners up to date.
• Implementation support:
  • On-site onboarding or digital connection to help the company and improve the driver experience.

4) Quantified electrification strategy (freight logistics case study: Jansen)

This is the strongest “analysis” section: why and how a freight forwarder electrified and built infrastructure.

Fleet transformation and economics

• Company status:
  • 61 electric vehicles (EKW) on-site
  • 20 more on order
  • Total fleet: 85 vehicles (including some remaining diesel trucks)
  • Growth claim: ~50% sales growth last year
• Why diesel still exists (economic rationale):
  • Some routes are too short (e.g., internal transport / 40–50 km per day).
  • For these, electrification isn’t worthwhile because variable costs and toll savings don’t offset costs until electrics are fully depreciated.
• Operating model:
  • Diesel for local transport, electric for long-distance—electrics become economically viable with higher utilization and adequate route length.

Energy/infrastructure details (solar + storage + grid management)

• On-site energy system:
  • Solar roof system
  • Ground-mounted solar plant
• Reported production/consumption:
  • ~500,000 kWh produced so far this year (as stated)
  • ~1,000,000+ kWh consumed on premises (on-site)
• Charging approach:
  • Charging mostly happens “on the go” because many vehicles handle long-distance and don’t return to the yard often.
• Battery storage + transformer:
  • 1.1 MW storage system
  • 4 MW transformer station (not always used; grid peak management mentioned)
• Planning outlook:
  • Ordered another 20 electric vehicles for next spring.
  • Expect expansion especially for local public transport (as stated).

Infrastructure planning lessons learned

• They tried to build infrastructure in ~6 months, but vehicle delivery timing slipped:
  • Bottleneck: vehicle manufacturers’ delivery promises were more aggressive than reality.
• Technological progress:
  • New vehicle tech can reach ~750–800 kW (as mentioned).
  • Newer models show large improvements.

Driver adoption and operations risk handling

• Human factor:
  • Early driver skepticism (example: “How am I supposed to get to Hamburg with an EKW?”).
  • The company pushed for fleet-wide adoption rather than adding only one or two vehicles to avoid “stepchild” treatment.
• Battery depletion/stranding events:
  • One EV stranded ~3 km before a charging station; resolved with a tow truck from ~400 km away and service hotline procedures.
  • Another breakdown pushed ~600 meters to a charging point.
• Statistics claim:
  • Batteries rarely fully run down due to large buffers; once empty, drivers typically can plug back in and continue—simpler than diesel procedures.

5) Performance discussion: motorcycle power versions (WN7 A2 vs restricted)

• Detailed comparison of Honda WN7 variants:
  • “A2 unrestricted version” described as ~50 kW / ~68–70 hp.
• Differences described (mostly subjective/feel):
  • A2: much more brutal acceleration; visually identical but performance/torque feels stronger.
  • Eco vs Standard modes affect manageability.
• Riding/efficiency insight:
  • For long tours, optimal speed depends on range/charging power/consumption curve, not only whether it can do 130 km/h.

6) Charging tariff tactics while touring (road-trip planning)

• Uses tariff apps (e.g., ATC Map) to find special pricing:
  • Example: 19 cents/kWh for a weekend time window on a up to 400 kW charge (time-based discount).
• Charging workflow experimentation:
  • QR code payment.
  • PayPal terminal behavior.
  • Connector selection (e.g., “Connect 2” on the right).
• Practical preparation:
  • Plans include multi-adapter kits (3-phase adapters, extension cables, local electrician connections).
  • Mentions snow chains and recovery cushions as preparedness items (with cost/size considerations).

7) Public charging business case (TRG bonus concept)

• A charging stop at/near an “organic railway station” example:
  • Electric truck charging with a dedicated station.
• Claim:
  • Offering charging publicly can trigger TRG bonus.
• Reported cost example:
  • 28 cents/kWh gross (vs earlier 19 cents/kWh).

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Reviews/guides/tutorials explicitly implied

• Tutorial/config guide: Setting up E-Trucker Manager (backend agreements, charging rules, onboarding) and configuring complex pricing/roaming/factory charging edge cases.
• How-to/analysis guide: Economic decision framework for diesel vs electric routes (depreciation, toll savings, daily kilometers).
• Road-trip “how to” planning: Using tariff apps, adapters, and charging modes for efficient long-distance travel.

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Main speakers/sources (as identifiable from the subtitles)

• Der Interviewte / Company guest: Nanne Jansen (freight logistics company)
• Other credited participants/sources:
  • Dirk (designer at Intx/Intax — mentioned as “our designer here at Intx”)
  • Nico (worked on E-Trucker Manager setup/testing; test driver/dispatcher support mentioned)
  • Michael (driving school / preparation and motorcycle riding logistics)
  • “Elektroter” host / narrator (unnamed in subtitles; interviewer/vehicle traveler conducting interviews and demonstrations)