Towards high-performance Li-ion batteries via optimized three-dimensional micro-lattice electrode architectures

Zhu, Yi; Li, Jie; Saleh, Mohammad Sadeq; Pham, Hiep; Plateau, Tazdik Patwary; Panat, Rahul; Park, Jong‐Hyun

doi:10.1016/j.jpowsour.2020.228593

Cited by 19 publications

(15 citation statements)

References 58 publications

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“…[67] The LFP/LTO full cell of 8 × 8 mm 2 footprint exhibited a discharge capacity of 102 mAh.g À 1 at 0.2 C after 35 cycles. [66,68] The printed 3D LIMB displayed a high areal-energy density of 9.7 J.cm À 2 at a power density of 2.7 mW.cm À 2 , which demonstrates the capability of 3D printing to construct high-aspect structures within a small area. [69,70] While interweaving electrode network and multicoaxialcable battery designs have been recently proposed, [25,71] the main use of FDM is for the fabrication of planar electrodes for LIBs.…”

Section: Electrochemically-active Materials and Cost-effective Methodmentioning

confidence: 88%

“…Recently, an LIMB having a micro‐lattice‐architecture, was fabricated by Zho et al, with the use of aerosol jet printing [67] . The LFP/LTO full cell of 8×8 mm 2 footprint exhibited a discharge capacity of 102 mAh.g −1 at 0.2 C after 35 cycles [66,68] . The printed 3D LIMB displayed a high areal‐energy density of 9.7 J.cm −2 at a power density of 2.7 mW.cm −2 , which demonstrates the capability of 3D printing to construct high‐aspect structures within a small area [69,70] …”

Section: Electrochemically‐active Materials and Cost‐effective Methodmentioning

confidence: 91%

“…[65] An interdigitated LTO anode and LFP cathode were made by 3D printing to make full use of the limited space for enhanced electrochemical performance of LIMBs, (lithium-ion microbatteries). [66] Recently, an LIMB having a micro-latticearchitecture, was fabricated by Zho et al, with the use of aerosol jet printing. [67] The LFP/LTO full cell of 8 × 8 mm 2 footprint exhibited a discharge capacity of 102 mAh.g À 1 at 0.2 C after 35 cycles.…”

Section: Electrochemically-active Materials and Cost-effective Methodmentioning

confidence: 99%

“…While much can be gained by additive manufacturing, a great deal needs to be done before the commercialization of 3D-printed LIBs. [66] In Table 4 we compare the electrochemical characteristics of selected thin-film planar and 3D microbatteries. [37,41,[72][73][74][75][76][77][78] As can be seen from the table, although the state-of-the-art literature presents partial and/or non-detailed experimental results, 3D microbatteries are capable of achieving higher areal energy and power density for different types of active electrode materials, electrolytes, electrode designs and the methods of electrode fabrication.…”

Section: Electrochemically-active Materials and Cost-effective Methodmentioning

confidence: 99%

“…They used the direct ink writing (DIW) technique to fabricate the partly printed micro electromechanical system with embedded lithium MBs [65] . An interdigitated LTO anode and LFP cathode were made by 3D printing to make full use of the limited space for enhanced electrochemical performance of LIMBs, (lithium‐ion microbatteries) [66] . Recently, an LIMB having a micro‐lattice‐architecture, was fabricated by Zho et al, with the use of aerosol jet printing [67] .…”

Section: Electrochemically‐active Materials and Cost‐effective Methodmentioning

confidence: 99%

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How to Pack a Punch – Why 3D Batteries are Essential

Horowitz

Strauss

Peled

2021

Israel Journal of Chemistry

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The miniaturization of implantable medical devices, remote microsensors and transmitters, “smart” cards, and Internet of Things (IoT) systems is impeded by the absence of high‐performance micro‐size power sources. Insufficient areal energy density from thin‐film planar microbatteries has inspired a search for three‐dimensional microbatteries (3DMB) with the use of low‐cost and efficient micro‐ and nano‐scale materials and techniques. In our short review, we present our outlook on the state‐of‐the‐art development of advanced 3D‐microbattery designs and methods of the fabrication of electrode materials. Special attention is given to the 3D‐printing approach, which holds many opportunities for the mass production of microbatteries and their direct integration with electronic devices.

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Section: Electrochemically-active Materials and Cost-effective Methodmentioning

confidence: 88%

Section: Electrochemically‐active Materials and Cost‐effective Methodmentioning

confidence: 91%

Section: Electrochemically-active Materials and Cost-effective Methodmentioning

confidence: 99%

Section: Electrochemically-active Materials and Cost-effective Methodmentioning

confidence: 99%

Section: Electrochemically‐active Materials and Cost‐effective Methodmentioning

confidence: 99%

See 3 more Smart Citations

How to Pack a Punch – Why 3D Batteries are Essential

Horowitz

Strauss

Peled

2021

Israel Journal of Chemistry

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Updated Insights into 3D Architecture Electrodes for Micropower Sources

2021

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Microbatteries (MBs) and microsupercapacitors (MSCs) are primary on‐chip micropower sources that drive autonomous and stand‐alone microelectronic devices for implementation of the Internet of Things (IoT). However, the performance of conventional MBs and MSCs is restricted by their 2D thin‐film electrode design, and these devices struggle to satisfy the increasing IoT energy demands for high energy density, high power density, and long lifespan. The energy densities of MBs and MSCs can be improved significantly through adoption of a 2D thick‐film electrode design; however, their power densities and lifespans deteriorate with increased electrode thickness. In contrast, 3D architecture electrodes offer remarkable opportunities to simultaneously improve MB and MSC energy density, power density, and lifespan. To date, various 3D architecture electrodes have been designed, fabricated, and investigated for MBs and MSCs. This review provides an update on the principal superiorities of 3D architecture electrodes over 2D thick‐film electrodes in the context of improved MB and MSC energy density, power density, and lifespan. In addition, the most recent and representative progress in 3D architecture electrode development for MBs and MSCs is highlighted. Finally, present challenges are discussed and key perspectives for future research in this field are outlined.

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Hyper‐Thick Electrodes for Lithium‐Ion Batteries Enabled by Micro‐Electric‐Field Process

Plateau,

Boyer,

Park

2024

Advanced Science

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Increasing electrode thickness is a key strategy to boost energy density in lithium‐ion batteries (LIBs), which is essential for electric vehicles and energy storage applications. However, thick electrodes face significant challenges, including poor ion transport, long diffusion paths, and mechanical instability, all of which degrade battery performance. To overcome these barriers, a novel micro‐electric‐field (μ‐EF) process is introduced that enhances particle alignment during fabrication with reduced distance between anode and cathode. This process produces hyper‐thick (≈700 µm) electrodes with low tortuosity and improved ion diffusion. The μ‐EF electrodes achieve high areal capacities (≈8 mAh cm−2), while maintaining power density and long cycle life. The electrodes show stable performance under high C‐rate cycling and retain structural integrity after 1000 cycles at 2 C. By offering a scalable solution to the challenges of thick electrode fabrication, the μ‐EF process represents a significant advancement for high‐capacity LIBs in electric vehicles and energy storage systems.

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Towards high-performance Li-ion batteries via optimized three-dimensional micro-lattice electrode architectures

Cited by 19 publications

References 58 publications

How to Pack a Punch – Why 3D Batteries are Essential

How to Pack a Punch – Why 3D Batteries are Essential

Updated Insights into 3D Architecture Electrodes for Micropower Sources

Hyper‐Thick Electrodes for Lithium‐Ion Batteries Enabled by Micro‐Electric‐Field Process

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