Author ORCID Identifier
Document Type
Thesis
Date of Award
Fall 8-12-2013
Keywords
Adhesive Dispensing, Epoxies, Gage R&R, Jetting, Printed Circuit Board, Process Capability Index, Semiconductors, Statistical Process Control, Surface Mount Technology, Underfill Materials
Degree Name
Master of Science in Industrial Engineering (MSIE)
Department
Systems Science and Industrial Engineering
First Advisor
Dr. Daryl Santos
Second Advisor
Dr. Nagen Nagarur
Third Advisor
Tom Karlinski
Abstract
With the high pace of innovation in the semiconductor manufacturing industry, there has been an increasing demand for more energy efficient and environmental friendly products. This research relates to a complex process of fluid dispensing at low volumes on a printed circuit board. Currently, a more refined non-contact dispensing terminology named “Streaming” is widely used to stream out material at low volumes for various applications. The key solution is to frame a dispensing method that lends itself most closely to the requirements of a specific production process.
This study represents a detailed approach of dispensing low volumes of materials in terms of weight per pulse having target weight being less than or equivalent to 0.050 mg. This feature is defined through characterizing the dispensing pump to get the desired weight per pulse with good weight repeatability, dot diameter repeatability, dot quality, and process capability through experimental design runs.
Recommended Citation
AGARWAL, SUNNY, "Low Volume Dispensing with High Speed Dispensers" (2013). Graduate Dissertations and Theses. 438.
https://orb.binghamton.edu/dissertation_and_theses/438
Included in
Complex Fluids Commons, Electro-Mechanical Systems Commons, Electronic Devices and Semiconductor Manufacturing Commons, Industrial Engineering Commons, Manufacturing Commons, Other Operations Research, Systems Engineering and Industrial Engineering Commons, Polymer and Organic Materials Commons, Process Control and Systems Commons, Semiconductor and Optical Materials Commons