
On 15 October 2024, a fuel tanker exploded in Majiya, Jigawa State, Nigeria, killing 209 people and injuring 124 others. The involved tanker came from Kano and had driven around 110 kilometers on its way to Yobe State on 15 October. While traveling on an expressway near the town of Majiya in Jigawa State, the tanker. . 167 families were affected by the explosion and the property damage cost millions of Naira. Haruna Mairiga, the head of the Emergency Management Agency in Jigawa State, said that a. . • • • [pdf]
(AP Photo/Sani Maikatanga) ABUJA, Nigeria (AP) — Nigerian authorities have announced measures to correct lapses that resulted in the deaths of more than 140 people in an explosion on Wednesday as they were trying to scoop up fuel from an overturned fuel tanker in one of the deadliest road accidents ever in the West African nation.
At least 70 people were killed and more injured in northern Nigeria on Saturday when a petrol tanker truck overturned, spilling fuel that exploded, the country's national emergency agency said.
Survivors and relatives try to find peace after 170 mostly young people died after a tanker exploded in Jigawa State. People prepare bodies for burial on Wednesday, October 16, 2024 following a tanker explosion in Majia town, Nigeria [Sani Maikatanga/AP Photo]
Fuel tanker explosions are not unusual in Africa’s most populous country, where oil supplies are frequently dispatched by road. Previous fires have led to multiple casualties. In 2020, more than 500 people lost their lives in more than 1,500 fuel tanker accidents recorded that year, according to Nigeria’s road safety agency.
REUTERS/Tife Owolabi Acquire Licensing Rights WARRI, Nigeria/LONDON, Feb 4 (Reuters) - An oil vessel used for storage that exploded off the coast of Nigeria this week had not been maintained for sometime and had technical issues, two sources and an environmental group said on Friday, as its wreckage lay in the sea after the fire was put out.
People gather near the remains of a fuel tanker that exploded in Majia, Nigeria [Ali Rabiu Ali/Al Jazeera] “Those that were injured are being taken care of in various hospitals across the state and neighbouring state,” Abdullahi said, thankful to those who provided help.

Various research teams are experimenting with aluminium to produce better batteries. Requirements include cost, durability, capacity, charging speed, and safety. In 2021, researchers announced a cell that used a 3D structured anode in which layers of aluminium accumulate evenly on an interwoven carbon fiber structure via covalent bonding as the battery is charged. The thicker anode features faster kinetics, and the prototype operated for 10. [pdf]
US scientists claim to duplicate AI model for peanuts This new aluminum-ion battery could be a long-lasting, affordable, and safe way to store energy. American Chemical Society Researchers have developed a new aluminum-ion battery that could address critical challenges in renewable energy storage.
The specific energy of these batteries can be as high as 400 Wh/kg, which enables their use as reserve energy sources in remote areas. Aluminum-air batteries with high energy and power densities were described in the early 1960s. However, practical commercialization never began because this system presents some critical technological limitations.
Chaopeng Fu, in Energy Storage Materials, 2022 Rechargeable aluminum-ion (Al-ion) batteries have been highlighted as a promising candidate for large-scale energy storage due to the abundant aluminum reserves, low cost, high intrinsic safety, and high theoretical energy density.
In 2015, Dai group at Stanford University revealed a novel aluminum-ion (Al-ion) battery which can be fully charged within one minute and the charge/discharge cycles can be up to 7500 cycles . The schematic of the Al-ion battery is shown in Fig. 7. The paper showed that the first aluminum-ion battery could be stable and cycle for a long time.
The biggest caveat of this aluminum-based battery is its energy density, which is significantly lower than that of competing technologies at around 150 watt-hours per kilogram. This corresponds to just one-third to one-fifth of the currently best solid-state batteries and Li-ion batteries, but it still compares well to a typical household battery.
Aluminum-ion batteries (AIBs) are a new and exciting technology that could change the way we store energy. Researchers are developing them as an alternative to lithium-ion batteries, the most popular rechargeable battery type. But what makes aluminum-ion batteries different? How do they work, and why should we care?

Most OEMs and battery manufacturers have built or are planning to build gigafactories to produce lithium-ion batteries at scale, either independently or through joint ventures, yet developing gigafactories is challenging. Even the most experienced battery manufacturers commonly encounter start-of. . A successful gigafactory project needs a highly competent and productive workforce, both during construction and in the subsequent operation of the factory. One of the most important practices here is to make the local labor. . To avoid delays and cost overruns, companies need to consider sourcing—particularly battery manufacturing equipment. [pdf]
This article focuses on three key measures for preventing or responding to EV battery shortages: industrialization and scale-up of gigafactories, strategies to find and retain talent, and establishment of a robust and efficient supply chain.
McKinsey’s report suggests the possibility of a slight shortage in 2030 as the battery sector continues to vie with steel and other sectors for Class 1 nickel.
In fact, the battery supply chain risks facing a situation similar to the current semiconductor chip shortage, where demand growth has outstripped capital investment in new supply. Furthermore, environmental, social, and governance (ESG) factors will play a more significant role—raising another set of issues that companies need to address.
All aspects of the battery value chain are expected to grow rapidly through 2030, with cell production and material extraction being the largest markets (Exhibit 2). That growth will likely create ongoing supply chain challenges.
The global demand for raw materials for batteries such as nickel, graphite and lithium is projected to increase in 2040 by 20, 19 and 14 times, respectively, compared to 2020. China will continue to be the major supplier of battery-grade raw materials over 2030, even though global supply of these materials will be increasingly diversified.
Ensuring a reliable supply of critical battery raw materials will be crucial to the global push to net-zero, especially with demand for battery electric vehicles (BEV) picking up pace towards the end of this decade, a new report by McKinsey finds.
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