3 Amazing Battery Technologies That Might Power the Future

Battery Technologies

Battery Technologies are getting better day by day. With the world’s population currently above 7 billion individuals and anticipated to climb up even greater to a minimum of 11 billion in the upcoming 80 years, it requires severe issues to be dealt with. Due to this reason, the progressively increasing population in combination with raised ecological obstacles is threatening our currently very finely extended energy resources.

There is a requirement for more power; eco-friendly and clean one. The benefits of eco-friendly and clean energy are too various to state. The first one is that the actions of people who are overwhelming the environment with harmful waste gases like carbon dioxide and other emissions are substantially lowered, thus leading to a decrease in global warming.

Also, it leads to enhanced health as water and air contamination which are triggered by emissions from natural gas and coal are considerably minimized, consequently enhancing the health of everyone. With alternatives in power and battery technologies, new jobs are produced, and the economy is enhanced. It is likewise less expensive and more in our interest instead of what we’re used to presently.

Issues to Overcome with The Current Battery Technology

Presently, our techniques of energy storage are formed by Li ion batteries, and this is at the innovative level of such technologies. Although Li-ion batteries have a higher energy density, it discharges by themselves, has a low upkeep rate, does not require to be primed and is offered in a range of designs, there are numerous drawbacks to their usage too. Some of these downsides consist of the requirement for security of the batteries and cells from over-discharging or overcharging as they are not as strong as other kinds of rechargeable technologies.

Another downside is that they experience ageing, which is not just dependent on time but also reliant on the discharge and charge cycles that the batteries go through. Another downside is the problem of transportation. Transportation is restricted to ships as numerous airline companies have actually lowered the number of Li-ion batteries they carry on board.

Apart from that, it is also more expensive than other kinds of battery technologies (above 40 % more pricey than Ni-Cd cells). Furthermore, there is the fact that it is still an immature technology in spite of being here for a long time. Technology is evolving and does not stay continuous; for this reason, there is a requirement to enhance it. Moving forward into tomorrow, what can we anticipate? What battery technologies could be better which can be established?

Let’s start by quickly being familiarized with some battery fundamentals. A battery is simply a collection of a couple of cells, with each having its anode (negative electrode) and cathode (positive electrode). Making use of various materials and chemicals then impacts the battery’s properties and identifies just how much energy is to be kept or released and just how much it can supply along with the cycling capacity. A lot of battery businesses are continuously investigating to find chemistries that are more budget-friendly, denser, light-weight, and effective. In this post, we will have a look at the 3 disruptive battery technologies that might power the future:

Lithium Sulfur Battery Technologies

In Li-ion batteries, the primary products are layered in between the lithium ions utilizing a steady host structure during its discharge as well as charge. In Lithium-Sulfur batteries shortly known as Li-S, such host structures don’t exist. While the battery discharges, the lithium anode is consumed, and sulfur is transformed into different chemical compounds. The reverse process occurs when the battery is charged.


The first benefit is that Li-S uses really light and active materials. Sulfur is the cathode while lithium is the anode. This is the reason its energy density is incredibly high (as much as 4 times more than that of Li-ion batteries). This makes it perfect for space aviation along with space industries.


To make it much better enhance its life span and likewise increase its particular energy density, there is a requirement for more research study and advancement. It is anticipated to take a minimum of 5 years prior to it is prepared for an application as more tasks need to be performed.

Sodium-Ion Battery Technologies

The working systems of sodium-ion (Na-ion) resemble that of Lithium-ion with the basic distinction being that lithium is changed with sodium in sodium-ion. Various ranges of sodium-based products can be utilized as the battery’s positive electrode, which is fixed when it pertains to efficiency; for instance, longer cycling capacity or life.


Sodium-ion batteries offer multiple benefits. One of them is that it is a more affordable choice than the Li-ion battery (up to 30 % for each cell). But, the sodium-ion battery can’t be compared with Li-ion in terms of weight, energy density, or volume. It may just be fitting for fixed applications where all the above-mentioned are not required. These might also include storing extra electricity produced from renewable energy sources such as solar or wind.


Because most of the cell and the entire production procedure is the very same as that of modern Li-ion batteries, there will be more concentration on electrode materials.

Battery Technologies

Solid-State Battery Technologies

In a contemporary Li-ion battery, there is an ionic conductivity across the electrodes. This means that ions move between electrodes using a liquid electrolyte as a form of transportation. In all the batteries of solid-state, the electrolyte which is in the liquid form is changed by a solid substance, which regardless still enables lithium ions to move within it.

This is an old idea that is for sure, however in the last 10 years (thanks to research studies and a number of discoveries), now solid electrolytes can take the place of liquid electrolytes with a greater level of ionic conductivity showing a close similarity to that of the liquid electrolyte consequently bridging this specific technological barrier.


The very first benefit would be a significant enhancement in the safe usage of batteries and cells, and this is primary since inorganic solid electrolytes do not catch fire when heated up, unlike what is accessible with solid electrolytes.

Secondly, given that it has actually a minimized rate of self-discharge, it enables more high-voltage and ingenious high capacity products, therefore, bringing about lighter and denser batteries which include much better security efficiency as well as extended shelf-life of the battery. Because the battery can show a higher power-to-weight ratio, it might be a much better fit for electrical automobiles.


As technological development continues, it is anticipated that all types of solid-state batteries will quickly be flooding the marketplace. The very first of such might be solid-state batteries that are developed with graphite-based anodes, which will produce more enhanced security and energy maximization. As time advances, lighter solid-state battery technologies, which will utilize metal lithium anode, will be offered commercially.

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