Faculty

Institution

Unit

Venue

Brian Landi

Application Lead-Energy Domain-PhD Engineering Associate Professor

Rochester Institute of Technology

Affiliations

Kate Gleason College of Engineering

Chemical Engineering

Brian Landi is currently serving as a Chemical Engineering Application Lead-Energy Domain-PhD Engineering Associate Professor at Rochester Institute of Technology.

Honors

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Experiences

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Education

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Brian Landi

Rochester Institute of Technology

Application Lead-Energy Domain-PhD Engineering Associate Professor

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materials science nanotechnology nanoengineering nanomaterials materials engineering applied physics electrical engineering carbon nanotubes electronic materials mechanical engineering carbon-based materials energy storage advanced energy material energy storage materials advanced materials material chemistry optoelectronics advanced electrode material material research electrochemical energy storage electronics lithium-ion batteries composite science mechanical science nanoparticle research thermal engineering surface nanotechnology sustainable energy technologies renewable energy storage solid-state electronics additive manufacturing semiconductor nanostructures organic electronics energy storage devices membrane science interface science lithium ion batteries semiconductor technology power electronics nanometrology surface modification energy engineering single-wall carbon nanotubes battery configuration chemical vapor deposition nanomechanics power generation surface nanoengineering surface functionalization functional nanomaterials nanobiotechnology nanoscale chemistry laser science nanorobotics nanoscale science electrode-electrolyte interfaces material innovation purity assessment single-walled carbon nanotubes ion irradiation dispersion solid-state chemistry charge transport material properties in-situ conversion free-standing anodes conductive additives laser vaporization synthesis lithium ion battery multi-walled carbon nanotubes gas-phase surface functionalization space power applications fuel cell applications multiwalled carbon nanotubes silicon-carbon nanotube anodes energy intensity energy environment chemical engineering

Video Presentations

Notable Scholarly Works

Notable Federal Grants

Collaborators

Oxide-Free Titanium–Carbon Nanotube Hybrid Conductors From Inert Atmosphere Hot Filament Chemical Vapor Deposition. ACS Applied Engineering Materials (2025)

carbon-based materialsmaterials sciencenanoelectronicsnanoengineeringcarbon nanotubeschemical engineeringchemical vapor depositionnanomaterialselectrical insulationmaterial researchapplied physicsadvanced materialsnano energymaterial chemistry

Chemically Doped, Purified Bulk Multi-Walled Carbon Nanotube Conductors With Enhanced Ac Conductivity to 40 Ghz. Carbon (2024)

Samuel J. BoydJamie E. RossiSteven J. WeinsteinBrian J. LandiIvan Puchades

carbon-based materialsnanotechnologycharge separationcondensed matterchemistrynanoengineeringpower electronicsadvanced electrode materialelectronicsmaterials sciencecarbon nanotubeschemical engineeringnanomaterialselectronic materialsionic conductorsmaterials engineeringorganic electronicsenhanced ac conductivitymaterial chemistry

Free‐Standing, Transparent Carbon Nanotube Thin Films With High Specific Shielding Effectiveness. Advanced Materials Technologies (2024)

Samuel J. BoydJamie E. RossiDaniel L. BroderickIvan PuchadesBrian J. Landi

materials sciencenanotechnologycarbon nanotubescarbonnanomaterialstribologymaterial researchbiomolecular engineeringfibersadvanced materialsadvanced functional materialsthin filmshigh-performance materialsgraphene nanoribbonsmaterial innovationbiomedical engineeringmaterial performance

Selective Chemical Doping of Carbon Nanotube Conductors to Reduce Contact Resistance With Copper in Ultrasonic Welds. Carbon (2024)

Daniel L. BroderickSamuel J. BoydJamie E. RossiBrian J. Landi

materials sciencenanotechnologynanoengineeringcontact resistanceultrasonic weldsmaterials engineeringnanomaterialsmechanical engineeringapplied physicsadvanced materialscarbon nanotube conductorsprinted electronicsselective chemical dopingelectronic materials

Carbon Nanotube Survivability in Marine Environments and Method for Biofouling Removal. Biofouling (2022)

Jamie E. RossiChristopher M. SchauermanColleen C. LawlorCory D. CressMatthew J. GanterAndrew R. BucossiBrian J. Landi

materials sciencecarbon nanotubesenvironmental engineering

Electrical Performance Retention of Chemically Doped Carbon Nanotube Wires. Meeting abstracts/Meeting abstracts (Electrochemical Society. CD-ROM) (2020)

Karen J. SouleAndrew R. BucossiCory D. CressBrian J. Landi

electrochemistrymaterials sciencenanoengineeringnanotechnologycarbon nanotubestechnologyelectronicsmaterials engineeringorganic electronicselectrical performance retentionelectrical engineering

Enhanced Copper–Carbon Nanotube Hybrid Conductors With Titanium Adhesion Layer. Journal of Materials Science (2020)

Dylan J. McIntyreRyan K. HirschmanIvan PuchadesBrian J. Landi

materials sciencenanotechnologynanoengineeringadvanced electrode materialtechnologymaterial propertiesmaterials engineeringnanomaterialsmetallic nanomaterialsmechanical engineeringtitanium adhesion layermaterial researchlayered materialsadvanced materialsmaterial innovationinterface scienceelectronic materials

Enhanced Saltwater Stability of Cnt Wires Under Electrical Bias. Carbon (2020)

Alex C. TomkiewiczCory D. CressBrian J. Landi

materials sciencenanotechnologynanoengineeringcarbonmaterials engineeringmechanical engineeringcnt wiresthermal engineeringelectrical biassaltwater stabilityelectrical engineering

Experimental Design for Co2 Laser Cutting of Sub-Millimeter Features in Very Large-Area Carbon Nanotube Sheets. Optics & Laser Technology (2020)

Andrew R. BucossiJamie E. RossiBrian J. LandiIvan Puchades

nanotechnologyexperimental designoptoelectronicsadvanced manufacturing technologiesmechanical engineeringapplied physicsoptical engineeringnanoengineeringlaser processing technologylaser scienceadvanced laser processingadditive manufacturingmaterials sciencemanufacturing technologycarbon nanotubesmaterial machiningprecision engineeringadvanced materialssub-millimeter features

Integrated Titanium-Carbon Nanotube Conductors via Joule-Heating Driven Chemical Vapor Deposition. ECS Transactions (2020)

Dylan J. McIntyreAnthony P. LeggieroRichard K. HailstoneIvan PuchadesCory D. CressBrian J. Landi

electrochemistrymaterials sciencenanotechnologynanoengineeringsurface nanotechnologyelectronicsmaterials engineeringchemical vapor depositionnanomaterialsmechanical engineeringtitanium-carbon nanotube conductorsprinted electronicselectrical engineering

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Brian Landi

Application Lead-Energy Domain-PhD Engineering Associate Professor

Rochester Institute of Technology

Affiliations

Kate Gleason College of Engineering

Chemical Engineering

Brian Landi is currently serving as a Chemical Engineering Application Lead-Energy Domain-PhD Engineering Associate Professor at Rochester Institute of Technology.

Honors

Create free account to unlock more features

Experiences

Create free account to unlock more features

Education

Create free account to unlock more features

Brian Landi

Rochester Institute of Technology

Application Lead-Energy Domain-PhD Engineering Associate Professor

You can click a keyword to filter the displayed items

Video Presentations

Notable Scholarly Works

Notable Federal Grants

Collaborators

Oxide-Free Titanium–Carbon Nanotube Hybrid Conductors From Inert Atmosphere Hot Filament Chemical Vapor Deposition. ACS Applied Engineering Materials (2025)

Chemically Doped, Purified Bulk Multi-Walled Carbon Nanotube Conductors With Enhanced Ac Conductivity to 40 Ghz. Carbon (2024)

Samuel J. BoydJamie E. RossiSteven J. WeinsteinBrian J. LandiIvan Puchades

Free‐Standing, Transparent Carbon Nanotube Thin Films With High Specific Shielding Effectiveness. Advanced Materials Technologies (2024)

Samuel J. BoydJamie E. RossiDaniel L. BroderickIvan PuchadesBrian J. Landi

Selective Chemical Doping of Carbon Nanotube Conductors to Reduce Contact Resistance With Copper in Ultrasonic Welds. Carbon (2024)

Daniel L. BroderickSamuel J. BoydJamie E. RossiBrian J. Landi

Carbon Nanotube Survivability in Marine Environments and Method for Biofouling Removal. Biofouling (2022)

Jamie E. RossiChristopher M. SchauermanColleen C. LawlorCory D. CressMatthew J. GanterAndrew R. BucossiBrian J. Landi

materials sciencecarbon nanotubesenvironmental engineering

Electrical Performance Retention of Chemically Doped Carbon Nanotube Wires. Meeting abstracts/Meeting abstracts (Electrochemical Society. CD-ROM) (2020)

Karen J. SouleAndrew R. BucossiCory D. CressBrian J. Landi

electrochemistrymaterials sciencenanoengineeringnanotechnologycarbon nanotubestechnologyelectronicsmaterials engineeringorganic electronicselectrical performance retentionelectrical engineering

Enhanced Copper–Carbon Nanotube Hybrid Conductors With Titanium Adhesion Layer. Journal of Materials Science (2020)

Dylan J. McIntyreRyan K. HirschmanIvan PuchadesBrian J. Landi

Enhanced Saltwater Stability of Cnt Wires Under Electrical Bias. Carbon (2020)

Alex C. TomkiewiczCory D. CressBrian J. Landi

materials sciencenanotechnologynanoengineeringcarbonmaterials engineeringmechanical engineeringcnt wiresthermal engineeringelectrical biassaltwater stabilityelectrical engineering

Experimental Design for Co2 Laser Cutting of Sub-Millimeter Features in Very Large-Area Carbon Nanotube Sheets. Optics & Laser Technology (2020)

Andrew R. BucossiJamie E. RossiBrian J. LandiIvan Puchades

Integrated Titanium-Carbon Nanotube Conductors via Joule-Heating Driven Chemical Vapor Deposition. ECS Transactions (2020)

Dylan J. McIntyreAnthony P. LeggieroRichard K. HailstoneIvan PuchadesCory D. CressBrian J. Landi

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