Electrically Conductive Formulations Filled Nano Size Silver Filler for Ink-Jet Technology

Mościcki, Andrzej; Felba, Jan; Sobierajski, Tadeusz; Kudzia, J; Arp, Andreas; Meyer, Wilhelm

doi:10.1109/polytr.2005.1596484

Cited by 32 publications

(5 citation statements)

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“…One type (named as "type A") is characterized by very narrow size distribution (from 4 to 10 nm) [3,4]. This silver powder is received from silver salts of fatty acids during their thermal decomposition in an oxygen-free atmosphere (according to process proposed by Nagasawa et al [5]).…”

Section: Methods Of Obtaining Nano Sized Silvermentioning

confidence: 99%

Nano sized silver for electronic packaging

Felba

Fałat

Mościcki³

2013

2013 13th IEEE International Conference on Nanotechnology (IEEE-NANO 2013)

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Production of modern microelectronic devices needs advanced materials and packaging technologies oriented towards the miniaturization and high reliability of the systems. Nano sized silver can be treated as such advanced material and it is used in modern packaging technologies, especially for flexible electronics. The paper presents information about the practical use of silver particles with the size from 4 nanometers in materials for electronic packaging technologies.The special ink containing nanosilver is use for ink-jet printing electrically conductive structures. Such process can be applied for flexible electronics even when structures are printed on temperature sensitive materials. Ink-jet printing may be used for creating the conductive layers of microvias joining both sides of flexible substrates with acceptable level of resistance. Nano sized silver is also used as a component of hybrid filler for electrically and thermally conductive polymer based composites, although the role of nanosilver particles in transport of current or heat in such materials is limited. Nanosilver plays an increasingly important role in joints elements working at high temperatures. The sintering process is done at temperatures significantly below 300 °C and the highest shear strength of joined elements reached several dozens of MPa.J. Felba is with the Faculty

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Section: Methods Of Obtaining Nano Sized Silvermentioning

confidence: 99%

Nano sized silver for electronic packaging

Felba

Fałat

Mościcki³

2013

2013 13th IEEE International Conference on Nanotechnology (IEEE-NANO 2013)

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“…Conventional metallic materials have a high mechanical mismatch with biological tissues. Alternative soft conductive materials proposed for medical electronics include biocompatible versions of paints [156], [157], conductive adhesives [158], polymers [159], [160], [152], hydrogels [152], inks [161] and fluidic conductors [162]. The effective conductivity of the material is controlled by the conductivity of the material (fluid, ink, etc.…”

Section: Emerging Materials For Implantsmentioning

confidence: 99%

Next-Generation Healthcare: Enabling Technologies for Emerging Bioelectromagnetics Applications

Kiourti

Abbosh

Αθανασίου

et al. 2022

IEEE Open J. Antennas Propag.

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Rapid advances in antennas, propagation, electromagnetics, and materials are opening new and unexplored opportunities in body area sensing and stimulation. Next-generation wearables and implants are seamlessly providing round-the-clock monitoring. In turn, numerous applications are brought forward with the potential to ultimately transform healthcare, sports, consumer electronics, and beyond. This review paper provides a comprehensive overview, discusses challenges and opportunities, and indicates future directions for: (a) enabling technologies needed to make body area sensing and stimulation a reality, and (b) emerging bioelectromagnetics applications that may readily benefit from such technologies.

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“…Polymer composites containing nanosilver particles were printed with the Ink-Jet method in order to obtain a line or 'points' being electricity conductors or contacts in electronic assembly [17]. Khanna et al [18] in 2008 has worked based on thermal decomposition method for silver nanoparticles synthesized in order to use in Ink-Jet application.…”

Section: Conductive Inksmentioning

confidence: 99%

Evaluating silver tracks conductivity on flexible surfaces

Ghahremani

Babaei

Latifi

2015

Journal of Industrial Textiles

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The development of electric circuit fabrication on flexible polymer substrates has attracted significant interest as a pathway to low-cost, comfortable movement and large-area electronics among direct printing techniques. The term electronic textiles, or e-textiles, are used to denote the class of fabric structures that integrate electronic elements with textiles and can sense changes in its environment and respond to it. This new class of wearable electronic systems is being designed to meet new and innovative applications in the military, public safety, healthcare, space exploration, sports and consumer fitness fields. In this paper the inkjet printing technique (office thermal inkjet printer) was used as a simple method to chemically deposit silver Nanoparticles (85–300 nm) to the flexible surface. It is done by ejection of silver nitrate and ascorbic acid as a reducing agent to attain nanometals on the surface. Ink concentration and repeating the printing sequence of each ink determines molar ratio ejection of ink and is found to be necessary to be evaluated in order to attain the highest level of conductivity. The main purpose of this work is to gain the highest conductive printed tracks by using statistical design of experiment method on the fabric surface by applying inkjet technique. By optimizing the mentioned parameters, the highest conductivity of printed flexible tracks on the surface of paper is gained 8.0635 × 105 S/m and the result for polyester fabric is obtained 1.2417 × 104 S/m whereas metallic silver wire has a conductivity of 6.173 × 107 S/m.

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Electrically Conductive Formulations Filled Nano Size Silver Filler for Ink-Jet Technology

Cited by 32 publications

References 0 publications

Nano sized silver for electronic packaging

Nano sized silver for electronic packaging

Next-Generation Healthcare: Enabling Technologies for Emerging Bioelectromagnetics Applications

Evaluating silver tracks conductivity on flexible surfaces

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