Text Box:   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering   Advanced Materials Process Control Laboratory Boston University Manufacturing Engineering
 
Advanced Materials Process Control Laboratory
Boston University Manufacturing Engineering
Text Box: • Text Box:   Text Box:         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu, and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblenski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research, led by Professors Gevelber, Basu and Wroblenski, includes process modelling, sensor development, system and control design, experimental verification.         •Objective: improve materials processing capabilities by applying       controls-based approach. •Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost. •Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools. •Research includes process modelling, sensor development, system and control design, experimental verification.
 
 
 
 
•Objective: improve materials processing capabilities by applying
      controls-based approach.
•Enables development of new materials through greater control of material microstructure as well as improving yield and reducing cost.
•Projects include thin-film and coating processes (plasma & chemical vapor deposition, e-beam), bulk crystal growth. Applications span opto-electronics, communications, power systems, engines, and cutting tools.
•Research, led by Professors Gevelber, Basu, and Wroblewski, includes process modelling, sensor development, system and control design, experimental verification.