Ingemar Lundström

Ingemar Lundström is a distinguished Professor at Linköping University, Sweden, with an extensive research portfolio spanning sensor technology, optical sensing, and biomedical applications. With over 619 publications and 26,413 citations, his work has significantly impacted the field of chemical and biosensors. His research spans multiple disciplines including physics, engineering, and biomedical sciences, focusing on the development of innovative sensing technologies.

Lundström's primary research interests encompass Surface Plasmon Resonance, Nanoplasmonics, Electronic Tongue Systems, and Biosensors. His work has pioneered the development of optical sensor arrays using porphyrins and pH indicators for diverse applications from water quality monitoring to biomedical diagnostics. A significant portion of his research focuses on Computer Screen Photoassisted Technology (CSPT), which leverages ubiquitous computer hardware for chemical analysis, reducing costs and increasing accessibility of sensor systems.

Analysis of his recent publications reveals a strong focus on nanoplasmonic sensors for biomedical applications, particularly in the detection of IgG aggregates during monoclonal antibody production. His work bridges fundamental physics with practical engineering solutions, with applications spanning environmental monitoring, biopharmaceutical production, and clinical diagnostics. Lundström has also contributed significantly to pharmacological research, particularly regarding calmangafodipir and its superoxide dismutase mimetic properties.

• Extensive publication record with high impact (h-index 85)
• Pioneering work in optical sensor arrays and electronic tongue systems
• Development of affordable sensing technologies using ubiquitous hardware
• Significant contributions to nanoplasmonics and biosensor development
• Interdisciplinary research bridging physics, engineering, and biomedical applications

Lundström's research group has developed innovative approaches for real-time monitoring in bioproduction processes, particularly for monoclonal antibody purification. His work on the Computer Screen Photoassisted Technique has enabled the creation of low-cost, accessible sensor systems that can be integrated with existing telecommunication infrastructure. While specific grant information isn't provided in the source material, his extensive publication record across numerous high-impact journals suggests substantial research funding support throughout his career.