A novel laser transfer process for direct writing of electronic and sensor materials

Piqué, Alberto; Chrisey, Douglas B.; Auyeung, R. C. Y.; Fitzgerald, James W.; Wu, Houzheng; McGill, R. Andrew; Lakeou, S.; Wu, Peter; Nguyễn, Việt Hương; Duignan, Michael T.

doi:10.1007/s003390051400

Cited by 192 publications

(114 citation statements)

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“…MAPLE DW was developed at the Naval Research Laboratory primarily for the fabrication of conformal, mesoscale (1 µm to 1 mm) passive electronic components [7][8][9][10], but it has many clear advantages for battery fabrication. The procedures for MAPLE DW processing are summarized schematically in Fig.…”

Section: Direct-write Microbatteriesmentioning

confidence: 99%

“…For instance, the battery design can be easily reconfigured to alter the battery discharge profile and match a desired power demand. MAPLE DW also has been used successfully to transfer all the components needed for battery systems, including metal interconnects, multilayer capacitors, inductors, and resistors [7][8][9][10], to ultimately expedite the fabrication of complete battery systems. The process is also not limited to flat surfaces, enabling the deposition of batteries onto unconventional substrates.…”

Section: Q314mentioning

confidence: 99%

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Direct Write Microbatteries for Next-Generation Microelectronic Devices

et al. 2001

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Microbatteries and integrated microbattery systems are likely to be the sole power source or a power-source component for the next generation of microelectronic devices. As part of the LEAPS (Laser Engineering of Advanced Power Sources) program, custom-designed microbatteries and ultracapacitors will be integrated in microelectronic circuits for optimum performance. The Naval Research Laboratory's Matrix-Assisted Pulsed-Laser Deposition Direct-Write (MAPLE DW) process is used to rapidly fabricate various primary and secondary (non-rechargeable and chargeable) electrochemical power sources. This laser forward-transfer process can be used to transfer any type of battery material and battery material mixtures, including polymers, hydrated oxides, metals, and corrosive electrolytes. Additional laser micromachining capabilities are used to tailor the battery sizes, interfaces, and configurations. Examples are given for planar RuO 2 ultracapacitors and stacked alkaline batteries.

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Section: Direct-write Microbatteriesmentioning

confidence: 99%

Section: Q314mentioning

confidence: 99%

Direct Write Microbatteries for Next-Generation Microelectronic Devices

et al. 2001

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“…Despite process improvements in various ways [43][44][45][46][47], the high potential of LIFT for liquid-metal deposition has not been met as the deposited features are poorly controlled. This for example results in deposition of one main droplet surrounded by smaller satellite droplets, the deposition of many particles [18], or a significant uncertainty in the deposition location due to a limited control of the ejection angle [48].…”

Section: Research Objectivesmentioning

confidence: 99%

“…The Matrix-Assisted Pulsed Laser Evaporation -Direct Write (MAPLE-DW) technique, as proposed by Piqué et al [43], combines the established MatrixAssisted Pulsed Laser Evaporation and the LIFT process, see figure 2.2 (c). It provides higher flexibility regarding the choice the of the donor material than the original LIFT process, as it limits the affect of the incident laser pulse on the donor material and therefore prevents the transferred donor from damage.…”

Section: Matrix-assisted Pulsed Laser Evaporation -Direct Writementioning

confidence: 99%

“…Similar to the DRL-LIFT process, the heat that is generated by the absorbed laser beam, only evaporates the additional matrix material, which subsequently releases the donor material and provides the thrust to transfer the remaining particles towards the receiving substrate. Due to the flexibility of MAPLE-DW a variety of materials, including metals [43] and cells [71] were successfully deposited.…”

Section: Matrix-assisted Pulsed Laser Evaporation -Direct Writementioning

confidence: 99%

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Laser-induced forward transfer of pure metals

Pohl¹

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Direct Laser Printing for Organic Electronics

Makrygianni

Papazoglou

Zergioti

2015

Wiley Encyclopedia of Electrical and Electronics Engineering

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This article reviews the latest developments as well as the background and the evolution of direct laser printing of various materials for organic electronics applications. Current technological trends require the precise deposition of highly resolved features, which preserve their structural and electronic properties upon transfer, while increasing the number of components that can be integrated in a single device. Direct laser printing techniques meet these requirements and examples of selected applications, including chemical sensors and biosensors, organic thin‐film transistors, organic light‐emitting diodes, and power generating devices, are presented highlighting the potential incorporation of lasers into the direct printing of entire devices and components. In particular, the successful laser printing of polymers, metals, semiconducting inks, and viable biological materials such as DNA, proteins, and enzymes with high spatial resolution offers unique advantages compared to traditional inkjet and thin‐film techniques. Moreover, the mechanisms of liquid‐ and solid‐phase laser printing are investigated through time‐resolved studies, while postprinting processes such as laser sintering, a process used for the formation of conductive features on laser‐printed metallic nanoparticle patterns, are also discussed in this article.

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A novel laser transfer process for direct writing of electronic and sensor materials

Cited by 192 publications

References 0 publications

Direct Write Microbatteries for Next-Generation Microelectronic Devices

Direct Write Microbatteries for Next-Generation Microelectronic Devices

Laser-induced forward transfer of pure metals

Direct Laser Printing for Organic Electronics

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