Network


Latest external collaboration on country level. Dive into details by clicking on the dots.

Hotspot


Dive into the research topics where Peng-Fei Fu is active.

Publication


Featured researches published by Peng-Fei Fu.


electronic components and technology conference | 2013

Low cost, room temperature debondable spin-on temporary bonding solution: A key enabler for 2.5D/3D IC packaging

Ranjith Samuel John; Herman Meynen; Sheng Wang; Peng-Fei Fu; Craig Rollin Yeakle; Sang Wook W. Kim; Lyndon Larson; Scott Sullivan

We report the development of a bi-layer spin on temporary bonding solution (TBS) which eliminates the need for specialized equipment for wafer pretreatment to enable bonding or wafer post treatment for debonding. Thus it greatly increases the throughput of the temporary bonding/debonding process. It also provides a total thickness variation (TTV) of less than 1 μm for spin coated films on both 200 mm and 300 mm wafers which enable the TTV of 300 mm bonded pairs to be 2-3 μm for bumped wafers using 70 and 100 μm thick adhesive films after backgrinding for an unoptimized bonding process. Furthermore, we have demonstrated the chemical and thermal stability of both the material and the bonded pair by exposing the bonded wafer pair to common chemicals (phosphoric acid, nitric acid, organic solvents etc.) and temperature conditions (up to 300 C) used in the TSV process. Additionally, the time taken for the entire spin coat-bond-debond process was less than 15 minutes with room for further improvement. Based on the current results, it is expected that the current bi-layer based temporary bonding solution has the potential to play an important role in enabling the high volume manufacturing of 2.5D/3D IC stacking.


ieee international d systems integration conference | 2013

Cost-effective temporary bonding and debonding material solution towards high-volume manufacturing 2.5D/3D through-silicon via integrated circuits

Yann Civale; Herman Meynen; Ranjith Samuel John; Peng-Fei Fu; Craig Rollin Yeakle; Sheng Wang; Stefan Krausse; Thomas Rapps; Stefan Lutter

Dow Corning developed a silicone-based room temperature temporary bonding and mechanical debonding solution to overcome the current limitations of existing materials and processes for next generation of 2.5D & 3D IC packages; The material properties make possible the use of a simple process sequence which includes material spin coating, room temperature bonding and mechanical debonding. Whereas the Dow Corning bi-layer approach has been reported recently [1], this study focuses on bonding and debonding performance obtained with SUSS MicroTec automated bonding and debonding equipment and for adhesive layer thickness in the range of 100 μm. The results reported in this study, particularly the good process control and ability to debond with a low force (<;30 N) while keeping the overall sequence short and thus cost-effective, make the Dow Corning temporary bonding and debonding approach a versatile solution towards the validation of the TSV technology for a wide range of 2.5D and 3D stacked ICs applications.


electronics packaging technology conference | 2013

An innovative and low cost Bi-layer method for temporary bonding

Jürgen Burggraf; Harald Wiesbauer; Julian Bravin; Thomas Uhrmann; Herman Meynen; Yann Civale; Ranjith Samuel John; Sheng Wang; Peng-Fei Fu; Craig Rollin Yeakle

The purpose of this work was to demonstrate the compatibility of Dow Cornings temporary bonding solution with EVGs 850XT universal temporary bonding and debonding platform. The proposed process made use of well-known processing steps and processing modules like spin coating. The process consisted of a release layer (Dow Corning® WL-3001 Bonding Release) and an adhesive layer (Dow Corning® WL-4050 or WL-4030 Bonding Adhesive) using an EVG® 850TB - 300 mm XT frame. Both layers of material were applied by spin coating on the device wafer side. In the frame of this study, silicon carriers were used. Bonding was performed under vacuum at room temperature. A post bonding bake step was applied using a hotplate. After subsequent backside processing steps, the room temperature debonding was performed.


Archive | 2005

Method for Forming Anti-Reflective Coating

Peng-Fei Fu; Eric Scott Moyer; Craig Rollin Yeakle


Archive | 2006

Antireflective coating material

Peng-Fei Fu; Eric Scott Moyer


Archive | 2010

Method And Materials For Double Patterning

Peng-Fei Fu; Eric Scott Moyer; Jason Suhr


Archive | 2013

DI-T-BUTOXYDIACETOXYSILANE-BASED SILSESQUIOXANE RESINS AS HARD-MASK ANTIREFLECTIVE COATING MATERIAL AND METHOD OF MAKING

Peng-Fei Fu; Eric Scott Moyer; Jason Suhr


Archive | 2012

Photo-patternable and developable silsesquioxane resins for use in device fabrication

Peng-Fei Fu; Eric Scott Moyer; Jason Suhr


Archive | 2009

Switchable antireflective coatings

Peng-Fei Fu; Eric Scott Moyer; Jason Suhr


Archive | 2009

Wet-etchable antireflective coatings

Peng-Fei Fu; Eric Scott Moyer; Craig Rollin Yeakle

Collaboration


Dive into the Peng-Fei Fu's collaboration.

Top Co-Authors

Avatar
Top Co-Authors

Avatar
Top Co-Authors

Avatar
Top Co-Authors

Avatar
Top Co-Authors

Avatar
Researchain Logo
Decentralizing Knowledge