Administration
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- Donald Biggar Willett Professor in Engineering
- Head, Department of Bioengineering
HEADResearch AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
- Bioimaging at Multi-Scale
- Computational and Systems Biology
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Assistant Director, Master of Engineering Program
- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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Academic HourlyResearch AreasBioimaging at Multi-Scale
Bioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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Undergraduate Programs Coordinator
- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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Assistant Director of Facilities
- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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Associate Head of Graduate Programs
- Bioengineering
- Cancer Community @ Illinois
- Carle Biomedical Research Center
- Carle Foundation Hospital
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
- Bioimaging at Multi-Scale
-
Research AreasBioimaging at Multi-Scale
Bioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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OFFICE ADMINISTRATOR
- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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Associate Head of Undergraduate Programs
- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
- Bio-Micro and Nanotechnology
- Bioimaging at Multi-Scale
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Graduate Programs Coordinator
- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education
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LAB COORD
- Bioengineering
Research AreasBioimaging at Multi-ScaleBioimaging at Multi-Scale
Developing technologies for quantitative imaging of the structure and function of biological systems.
- Biosensors
- Multi-Scale Tissue Engineering
- Nanomedicine
- Bio-Micro/Nanotechnology
Bio-Micro and NanotechnologyBio-Micro and Nanotechnology
Developing molecular scale materials to Lab-on-Chip devices to sense, manipulate, and re-engineer molecular and cellular structure and function.
Synthetic BioengineeringSynthetic Bioengineering
Forward engineering and design using biological components at all scales, both in-vitro and in-vivo, with applications in human health, and sustainability.
Molecular, Cellular and Tissue EngineeringMolecular, Cellular and Tissue Engineering
Drug delivery, stem cell engineering, development of biomaterials, and approaches for regenerative medicine aimed at improving the understanding and treatment of diseases.
Computational and Systems BiologyComputational and Systems Biology
Computational medicine, systems biology, and computational biophysics - utilizing high-performance computation, large-scale informatics, and control systems to very large-scale complex systems of cell networks to generate a new understanding of human health.
Research and BME EducationResearch in BME Education