Gold nanoparticle ink JG-024UA
Product Introduction
Equipment Parameters
Specification: 3 mL (4.8 g)
JG-024UA is a highly conductive gold nanoparticle ink suitable for creating conductive traces on substrates such as paper, PET, glass, and polyimide. Specifically formulated for aerosol printing using ultrasonic atomization, this ink contains polymer additives that enhance adhesion to a wide range of substrates. After curing, it exhibits excellent resistance to water and isopropyl alcohol. Applications include general-purpose printing, biomedical uses, high-density interconnects, and fine-line printing. It is particularly well-suited for fine-line patterning, offers superior adhesion, and becomes water-resistant when fluoropolymer additives are incorporated, making it an ideal choice for plastic, glass, and metal substrates.
Parameter
| Description | Water-based nanoparticle ink |
| Viscosity | 6-10cp |
| Curing temperature | 140-250℃ |
| Resistivity | 1.9E-5 to 4.2E-4 (Ω-cm) |
| Average particle size distribution | 30-50nm |
| Gold content (solid content) | 40 wt% |
| Nebulizer | Ultrasonic nebulizer |
| Substrate | Plastic, glass, and metal |
Performance
Fluorinated polymer
It exhibits excellent adhesion and water resistance.
Download Materials
Software size:
596.4KB
File type:
PH1000 is an aqueous PEDOT/PSS dispersion, appearing as a blue liquid. It excels in the field of conductive chemistry and finds applications in next‑generation flexible displays, high‑performance electrolytic capacitors, antistatic and conductive protective and shielding layers, as well as OLEDs, OPVs, and printed electronics—just a small fraction of its many potential uses. It can be processed via screen printing, inkjet printing, gravure printing, slot‑die coating, spray coating, dip coating, and spin coating.
Silver Nanoparticle Ink JS-A426
JS-A426 is a conductive silver nanoparticle ink designed to create conductive traces on substrates such as paper, PET, glass, and polyimide. Formulated specifically for aerosol printing using ultrasonic atomization, JS-A426 contains polymer additives that enhance adhesion to a wide range of substrates. After curing, it exhibits resistance to water and IPA, making it well suited for plastic, glass, and metal substrates. Applications include general‑purpose printing as well as high‑density interconnect and fine‑line patterning. When cured with the addition of polyurethane, it delivers exceptional adhesion, further enhancing its suitability for plastic, glass, and metal substrates.
PH1000 is an aqueous PEDOT/PSS dispersion, a blue‑colored liquid. It excels in the field of conductive chemistry and finds applications in next‑generation flexible displays, high‑performance electrolytic capacitors, antistatic and conductive protective and shielding layers, as well as OLEDs, OPVs, and printed electronics—just a few among its many potential uses. It can be processed via screen printing, inkjet printing, gravure printing, slot‑die coating, spray coating, dip coating, and spin coating.
In today’s era of rapid technological advancement, soft robotics is transitioning from the laboratory to real-world applications—ranging from minimally invasive surgical instruments in medicine and flexible actuation units for wearable devices to precise motion control in microrobots—all of which hinge on breakthroughs in the core component: soft actuators. Traditional soft actuators either face challenges in miniaturization, lack design flexibility, or rely on wired power supplies that constrain mobility. A recent study published in Nano Letters, however, reports an MXene–cellulose nanofiber (CNF) composite actuator fabricated via aerosol jet printing (AJP), which simultaneously addresses three major bottlenecks—scalability, customization, and multi‑stimulus responsiveness—paving the way for the next generation of soft robotics.
As life sciences and electrical engineering converge, bioelectronic technologies have increasingly emerged as a driving force behind innovation in medicine, research, and industry. In particular, in the fields of tissue engineering and organ-on-a-chip modeling, developing efficient, flexible, and customizable electrode interfaces has become one of the key research priorities.
With the continuous advancement of neuroscience and bioelectronics, the development of high-performance, miniaturized, and personalized neural interfaces has become a major research focus. Traditional manufacturing techniques face limitations in terms of high precision, complex structures, and material diversity, underscoring the urgent need for a more flexible, precise, and efficient micro‑ and nanomanufacturing approach. Aerosol jet printing (AJP), as an emerging micro‑ and nanofabrication technology, is increasingly driving innovation in neural prosthetic devices thanks to its unique advantages.
AJ5X Mobile Phone Antenna Printing
AJ5X Five-Axis Equipment Prints the Earth on a Spherical Surface
AJ200 Circuit Interconnect Printing
Beijing Yunshang Intelligent Manufacturing Technology Co., Ltd.
Hotline(24 hours a day)
Headquarters Address: Room 708, Building 2, HICOOL Industrial Park, Nanfaxin, Shunyi District, Beijing
Follow
Customer service WeChat
WeChat Official Account
COPYRIGHT 2026 Beijing Yunshang Intelligent Manufacturing Technology Co., Ltd.
Powered by 300.cn Privacy Policy
YUNS-123456
Smart Customer Service
WhatsApp：864009005667
Company email：support@chinayuns.com
Telephone：400 900 5667