Diode laser spectroscopy has emerged as a powerful and versatile analytical technique, utilizing compact and efficient semiconductor lasers to study the interaction of light with matter. With its high sensitivity, real-time measurement capabilities, and non-invasive nature, diode laser spectroscopy has found applications in life science research, environmental monitoring, and industrial settings. Over the years, significant improvements in diode laser technology have expanded its spectral range and improved performance, allowing for the detection and analysis of gases, liquids, and solids. Additionally, the development of multi-wavelength diode lasers has further enhanced the capabilities of diode laser spectroscopy, enabling simultaneous measurements at different wavelengths for more comprehensive analysis. Diode laser spectroscopy has the capability to utilize multiple techniques, including pathlength enhancement methods and modulation techniques, in order to enhance sensitivity and accuracy. This versatile tool plays an important role in environmental analysis, process monitoring, quality control, and biomolecular research. Ongoing developments in diode laser spectroscopy continue to push the boundaries, enabling new applications and contributing to scientific and industrial advancements.
The overarching goal of this Research Topic is to explore and highlight advancements in diode laser spectroscopy and their application in life science research, environmental monitoring, and industrial settings. By leveraging the potential of diode laser spectroscopy, we aim to address the existing need for improved analytical techniques in these domains. Achieving accurate and real-time analysis of diverse substances and processes is a key challenge, often hindered by the limited sensitivity, speed, and non-invasiveness of traditional methods. To overcome these limitations, our objective is to explore how diode laser spectroscopy can provide reliable and efficient solutions, identifying its potential in addressing specific challenges faced in these applications. We will also investigate innovative techniques, developments in laser technology, and novel applications, advancing analytical capabilities for more precise and comprehensive analysis, enhanced detection limits, and real-time monitoring.
Ultimately, our objective is to provide insights and knowledge that will contribute to the development of cutting-edge solutions, facilitating breakthroughs in life science research, environmental monitoring, and industrial processes.
We invite authors to explore a wide range of themes within the scope of this Research Topic, including novel applications of diode laser spectroscopy, the development and optimization of techniques for improved sensitivity and real-time measurements, integration with other analytical techniques, advancements in diode laser technology, and applications in specific fields such as biomedical diagnostics, environmental analysis, and process monitoring.
We welcome original research articles, reviews papers as well as short communications that contribute to the understanding and enhancement of diode laser spectroscopy in the mentioned areas. Manuscripts should provide new insights, present experimental or theoretical studies, and highlight the potential impact of the research on the field.
Topics of potential interest with a specific emphasis on diode laser spectroscopy include, but are not limited to:
1. Non-invasive physiological monitoring and medical diagnostics
2. Real-time breath gas analysis
3. Environmental monitoring and pollution control
4. Combustion diagnostics and emission control
5. Fast chemical reactions and reaction kinetics
6. Integrated optical sensing platforms and instrumentation
7. Diode laser-based sensors for industrial process monitoring and quality control
8. Portable and miniaturized diode laser spectroscopy devices for field applications
9. Data analysis and signal processing methods for diode laser spectroscopy data
10. Advanced light sources
Dr. Ramin Ghorbani is employed as a software engineer by ALTEN Technology USA and is currently serving in the Vehicle Platform department at Nikola Corporation.
Keywords:
diode laser, spectroscopy, optical sensing, life science, environmental monitoring, industrial applications, medical diagnostics, breath gas analysis, physiological monitoring, combustion diagnostics, emission, fast chemical reactions, sensing platforms, trace gas detection, data analysis, signal processing
Important Note:
All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.
Diode laser spectroscopy has emerged as a powerful and versatile analytical technique, utilizing compact and efficient semiconductor lasers to study the interaction of light with matter. With its high sensitivity, real-time measurement capabilities, and non-invasive nature, diode laser spectroscopy has found applications in life science research, environmental monitoring, and industrial settings. Over the years, significant improvements in diode laser technology have expanded its spectral range and improved performance, allowing for the detection and analysis of gases, liquids, and solids. Additionally, the development of multi-wavelength diode lasers has further enhanced the capabilities of diode laser spectroscopy, enabling simultaneous measurements at different wavelengths for more comprehensive analysis. Diode laser spectroscopy has the capability to utilize multiple techniques, including pathlength enhancement methods and modulation techniques, in order to enhance sensitivity and accuracy. This versatile tool plays an important role in environmental analysis, process monitoring, quality control, and biomolecular research. Ongoing developments in diode laser spectroscopy continue to push the boundaries, enabling new applications and contributing to scientific and industrial advancements.
The overarching goal of this Research Topic is to explore and highlight advancements in diode laser spectroscopy and their application in life science research, environmental monitoring, and industrial settings. By leveraging the potential of diode laser spectroscopy, we aim to address the existing need for improved analytical techniques in these domains. Achieving accurate and real-time analysis of diverse substances and processes is a key challenge, often hindered by the limited sensitivity, speed, and non-invasiveness of traditional methods. To overcome these limitations, our objective is to explore how diode laser spectroscopy can provide reliable and efficient solutions, identifying its potential in addressing specific challenges faced in these applications. We will also investigate innovative techniques, developments in laser technology, and novel applications, advancing analytical capabilities for more precise and comprehensive analysis, enhanced detection limits, and real-time monitoring.
Ultimately, our objective is to provide insights and knowledge that will contribute to the development of cutting-edge solutions, facilitating breakthroughs in life science research, environmental monitoring, and industrial processes.
We invite authors to explore a wide range of themes within the scope of this Research Topic, including novel applications of diode laser spectroscopy, the development and optimization of techniques for improved sensitivity and real-time measurements, integration with other analytical techniques, advancements in diode laser technology, and applications in specific fields such as biomedical diagnostics, environmental analysis, and process monitoring.
We welcome original research articles, reviews papers as well as short communications that contribute to the understanding and enhancement of diode laser spectroscopy in the mentioned areas. Manuscripts should provide new insights, present experimental or theoretical studies, and highlight the potential impact of the research on the field.
Topics of potential interest with a specific emphasis on diode laser spectroscopy include, but are not limited to:
1. Non-invasive physiological monitoring and medical diagnostics
2. Real-time breath gas analysis
3. Environmental monitoring and pollution control
4. Combustion diagnostics and emission control
5. Fast chemical reactions and reaction kinetics
6. Integrated optical sensing platforms and instrumentation
7. Diode laser-based sensors for industrial process monitoring and quality control
8. Portable and miniaturized diode laser spectroscopy devices for field applications
9. Data analysis and signal processing methods for diode laser spectroscopy data
10. Advanced light sources
Dr. Ramin Ghorbani is employed as a software engineer by ALTEN Technology USA and is currently serving in the Vehicle Platform department at Nikola Corporation.
Keywords:
diode laser, spectroscopy, optical sensing, life science, environmental monitoring, industrial applications, medical diagnostics, breath gas analysis, physiological monitoring, combustion diagnostics, emission, fast chemical reactions, sensing platforms, trace gas detection, data analysis, signal processing
Important Note:
All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.