electric bus charging in city
Whitepaper

E-bus charging strategies

What kind of e-bus charging strategies exist and what is their impact on battery health and aging? This whitepaper provides these answers and shows how battery analytics can help operators make data-driven, informed decisions regarding the best charging strategies for their e-bus fleets.

from TWAICE
No items found.
Download the content

twaicetech

TWAICE helped me to learn more about: E-bus charging strategies read article here:

www.twaice.com/whitepaper/e-bus-charging-strategies

#thinktwaice

How to understand the impact of charging strategies on e-bus batteries

Introduction

If you visit a bus depot in a city, you get a good sense of the challenges faced by public transport providers who are transitioning from diesel to electric buses. Whilst the refueling structure for diesel buses is comparable to regular gas stations for consumers, the charging infrastructure for large e-bus fleets creates a major challenge for the organization of bus depots. More space is required, as well as technologies such as transmission network capacity and load planning.

Above all, charging strategies can have major implications for the overall health and lifetime of the battery. As the battery is generally the most expensive component of buses, bus fleet operators need to be aware of factors that can cause the battery to age faster. In this whitepaper, we explain the implications of different charging strategies on battery health and aging.

Download the whitepaper & read about the following topics:

  • Different charging strategies and their implications for the battery
  • Battery aging drivers
  • Effects of different charging strategies on battery aging
  • Battery analytics as a solution
Download the full whitepaper:
SURVEY

Share Your Insights in the BESS Industry

We are researching the challenges of managing and operating BESS.
Take part and receive early access to the report & battery-themed socks!​

Take part

Related Resources

Energy storage in front of mountains
WHITEPAPER

LFP in energy storage

Lithium-ion batteries play an essential role in the transition to renewable energies and in generating electricity from more reliable and sustainable technologies. NMC has been the widely used technology for the past years, but now LFP is increasing in popularity due to reasons such as cost and safety advantages. However, LFP comes with challenges, particularly regarding accurate state estimations.
Electrified street in mountains
WHITEPAPER

Batteries and their Global Warming Potential: a lifecycle view

Lithium-Ion-Batteries are a key technology for green energy, mobility, and for this reason a key technology to mitigate climate change. However, batteries have a significant environmental impact. This impact is created along various steps in the lifecycle, e.g. during the extraction of raw materials or production. This white paper will explore the various stages of a battery's life cycle and how they contribute to its overall Global Warming Potential (GWP).
Wind turbines over forest electricity
WHITEPAPER

Energy Storage Analytics

Battery storage systems are an essential component of the energy sector. However, they are complex systems that require special attention. The primary goal of storage owners is to maximize the profit possible from the storage system without taking on additional risk. This is where battery analytics comes into play.