Products
  • Products
  • Categories
  • Blog
  • Podcast
  • Application
  • Document
|
GET A QUOTE
/ {{languageFlag}}
Select Language
Stanford Advanced Materials {{item.label}}
Stanford Advanced Materials
/ {{languageFlag}}
Select Language
Stanford Advanced Materials {{item.label}}

Graphene Growth and Adherence to Silicon Wafers

Researchers at the National University of Singapore have unveiled a process in which graphene may be filmed onto silicon wafers via a growth process, increasing the effectiveness of face to face transfer of the material. Similar to the film adhesion of water, the graphene spreads out exponentially upon a silicon surface to coat it completely. The process revolutionizes the methodology in which graphene is adhered for technological use. 

Graphene Onto A Silicon Wafer 

This new process is the first for not only transfer, but reproduction of graphene onto silicon wafers and chips. This breaks from the industry standard of painting, where a liquid graphene is rolled onto silicon then allowed to dry as application. This standard method though used to develop graphene sheets up to 30 inches in length, caused issues by allowing impurities and defects to form in the layering process. Folds, cracks, and wrinkles were standard issues, and were acceptable in product loss due to a lack of more reliable methods. This has now changed with the growth and transfer method. 

The process will allow a seed of graphene to be adhered to a silicon base then allowed to grow exponentially in natural parameters to fill a space. The graphene acts as an almost organic reaction, spreading out across its growing medium to cover and coat the silicon surface. This process reduces impurities added from the roll on process, and will give the graphene the edge when creating new surface area. The bonus research conducted, though primarily focused on silicon adhesion, suggests that graphene may well be utilized as a growth attachment to other materials. 

Proof in the Pudding 

During the investigative and experimental stages, thin ribbons of graphene were applied to silicon base structures and atomic force microscopy was utilized to capture the growth potential. At the same time, electrodes funneled charges through the growing surface plate to measure conductivity in order to ensure a viable product at the end of the experiment. This coinciding experiment showed no loss of conductivity in the process, demonstrating the process will be a viable solution to the roll and dry methods previously used. 

Undoubtedly, this new process of placing graphene on silicon wafers will revolutionize the industry, with immediate benefits realized in limited impurities, lowered labor hours for application, and an increase in profitability realized from lessening application time.

About the author

Chin Trento

Chin Trento holds a bachelor’s degree in applied chemistry from the University of Illinois. His educational background gives him a broad base from which to approach many topics. He has been working with writing advanced materials for over four years in Stanford Advanced Materials (SAM). His main purpose in writing these articles is to provide a free, yet quality resource for readers. He welcomes feedback on typos, errors, or differences in opinion that readers come across.

REVIEWS
{{viewsNumber}} Thought On "{{blogTitle}}"
{{item.created_at}}

{{item.content}}

blog.levelAReply (Cancle reply)

Your email address will not be published. Required fields are marked*

Comment
Name *
Email *
{{item.children[0].created_at}}

{{item.children[0].content}}

{{item.created_at}}

{{item.content}}

blog.MoreReplies

LEAVE A REPLY

Your email address will not be published. Required fields are marked*

Comment
Name *
Email *

Related News & Articles

MORE >>
Understanding Catalyst Poisoning in Precious Metal Catalysts: Causes, Problems, and Solutions

this blog will discuss in detail the mechanisms and applications of precious metal catalysts, examine the causes and effects of catalyst poisoning, and propose measures to enhance their anti-poisoning capabilities and service life.

READ MORE >
A Closer Look at Piezoelectric Crystal

The discovery and application of piezoelectric crystals such as quartz, lithium niobate, and lithium tantalate have not only profoundly influenced the direction of modern scientific and technological progress but also demonstrated the great potential of materials science in solving real-world problems.

READ MORE >
D33 Values in Piezoelectric Crystals: Implications for Practical Applications

Discover how d33 values in piezoelectric crystal materials influence their efficiency and performance in practical applications, including sensors, actuators, and energy harvesters. This article delves into the factors affecting d33 and its critical role in optimizing piezoelectric technologies.

READ MORE >
Leave A Message
Leave A Message
* Your Name:
* Your Email:
* Product name:
* Your Phone:
* Comments: