
Researchers within the University of Maryland’s A. James Clark School of Engineering, have now developed a NASICON-based solid-state sodium battery (SSSB) architecture that outperforms current sodium-ion batteries in its ability to use sodium metal as the anode for higher energy density, cycle it at record high rates, and all with a more stable ceramic electrolyte that is not flammable like current liquid electrolytes. [pdf]
Sodium solid-state batteries are energy storage devices whose mechanisms are rather intricate, involving several interconnected chemical and electrochemical processes. As a result, utilizing advanced characterization techniques to disentangle and comprehend these processes is essential for advancing high-performance sodium solid-state batteries.
Then, focusing on solid electrolytes, the key scientific challenges faced by solid-state sodium-ion batteries were systematically discussed, and the application of interface modification in enhancing solid-state electrolytes was reviewed. Finally, the future industrial development of solid-state sodium-ion batteries was prospected.
Finally, the future industrial development of sodium-ion solid-state batteries is prospected. Sodium-ion batteries have abundant sources of raw materials, uniform geographical distribution, and low cost, and it is considered an important substitute for lithium-ion batteries.
The development of functional sodium-containing solid-state batteries (SSBs) depends on advancing solid-state electrolyte (SSE) materials with high ionic conductivity and exceptional chemical-electrochemical stability, which continues to pose significant challenges.
This limitation significantly restricts the energy density of sodium solid-state batteries. Clearly, overcoming the high-voltage stability issue of sodium sulfide solid-state electrolytes is a critical challenge for their commercialization. 5.
Sodium solid-state battery characterization technology Sodium solid-state batteries are energy storage devices whose mechanisms are rather intricate, involving several interconnected chemical and electrochemical processes.

The impact of pressure on battery performance has two sides: appropriate pressure can ensure close contact between various components of the battery, prevent poor electrode interface contact, and improve the deposition mode of lithium ions, thereby enhancing the cycling stability of the battery.. The impact of pressure on battery performance has two sides: appropriate pressure can ensure close contact between various components of the battery, prevent poor electrode interface contact, and improve the deposition mode of lithium ions, thereby enhancing the cycling stability of the battery.. October 9, 2024 | A common concern with solid-state batteries is the need to maintain tight contacts between layers, as there is no liquid that can access voids and ensure conductivity; volume changes associated with lithium deposition further compound this issue. A common solution is the. . They found that applying a compression force across a solid electrolyte material [gray disk] caused the dendrite [dark line at left] to stop moving from one electrode toward the other [the round metallic patches at each side] and instead veer harmlessly sideways, toward the direction of the force. [pdf]
SSLB, solid-state lithium metal battery. From the engineering point of view, the target stack pressure values should be ideally <0.1 MPa (a few MPa may also be technically acceptable) to meet industrial-scale production requirements 126, whereas the stack pressure in most current SSLB studies (>10 MPa) is much higher than this.
The development of solid-state batteries has encountered a number of problems due to the complex interfacial contact conditions between lithium (Li) metal and solid electrolytes (SEs). Recent experiments have shown that applying stack pressure can ameliorate these problems.
Particularly, a pressure of at least 3 kPa is required for a better contact for a current of 0.1 mA/cm 2, while at least 1 MPa pressure is needed to improve the interface under a current of 2.0 mA/cm 2. The guiding principles disclosed here may prove beneficial for the development of future solid-state batteries.
They studied the effect of pressure on the growth of lithium dendrites in solid-state lithium symmetric batteries. It was found that at a pressure of 110 kPa, a large number of lithium dendrites formed, and more porous structures appeared on the lithium electrode after cycling.
By Kyle Proffitt October 9, 2024 | A common concern with solid-state batteries is the need to maintain tight contacts between layers, as there is no liquid that can access voids and ensure conductivity; volume changes associated with lithium deposition further compound this issue.
Solid-state lithium-ion batteries promise to be more safe, lightweight, and compact than their conventional counterparts. However, metal spikes can grow inside them, leading to short-circuit breakdowns. Now a new study finds that applying pressure on these batteries may be a simple way to prevent such failures.

Under an expanded Joint Development Agreement, Solid Power has granted the BMW Group a research and development license to Solid Power’s all-solid-state cell design and manufacturing know-how.. Under an expanded Joint Development Agreement, Solid Power has granted the BMW Group a research and development license to Solid Power’s all-solid-state cell design and manufacturing know-how.. BMW intends to duplicate Solid Power's pilot production lines at its own facility in Germany and produce prototype cells based on Solid Power’s proprietary technology. . Under an expanded Joint Development Agreement, Solid Power has granted the BMW Group a research and development license to Solid Power’s all-solid-state cell design and manufacturing know-how. The broadened relationship provides significant benefits to both companies, including conducting. . This morning, Solid Power announced that long-time investor BMW Group is expanding an existing joint development agreement to license its technology in order to build its own solid-state batteries in Germany. Under the agreement, BMW will gain access to Solid Power’s battery research and. [pdf]
Under the agreement, BMW will gain access to Solid Power’s battery research and development, cell design, and manufacturing expertise to expedite the technology alongside its partner. That being said, Solid Power isn’t licensing all of its technology.
BMW, an investor in Solid Power, already has an agreement to receive finished battery cells. Solid Power, which went public in December last year, is among a group of companies trying to create next-generation batteries for electric vehicles, aiming to solve some issues related to lithium-ion batteries that are currently is use.
This morning, Solid Power announced that long-time investor BMW Group is expanding an existing joint development agreement to license its technology in order to build its own solid-state batteries in Germany.
By gaining a license to Solid Power’s research and development, cell design, and manufacturing practices, BMW Group intends to duplicate Solid Power’s pilot production line at its own facility in Germany in order to produce prototype batteries cells of its own.
To do so, the BMW Group will develop innovative production processes and systems, which will then be installed at the 14,000 m² pilot plant. Using production processes and systems also employed in standard production, the company will be able to demonstrate the industrial feasibility of future battery cell generations.
REUTERS/Bob Strong Purchase Licensing Rights Dec 21 (Reuters) - Solid Power Inc (SLDP.O) said on Wednesday it will offer some intellectual property rights related to its solid-state batteries to BMW (BMWG.DE) and allow production of the battery cells at the automaker's facilities in Germany.
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