Sipkens, Timothy A.; Menser, Jan; Dreier, Thomas; Schulz, Christof; Smallwood, Gregory J.; Daun, Kyle J.:
Laser-induced incandescence for non-soot nanoparticles : Recent trends and current challenges
In: Applied Physics B : Lasers and Optics, Vol. 128 (2022), No. 4, Article 72
2022article/chapter in journalOA Hybrid
Mechanical EngineeringFaculty of Engineering » Maschinenbau und Verfahrenstechnik » Institute for Energy and Materials Processes (EMPI) » Reactive Fluids
Related: 1 publication(s)
Title in English:
Laser-induced incandescence for non-soot nanoparticles : Recent trends and current challenges
Author:
Sipkens, Timothy A.
;
Menser, JanUDE
GND
1186946474
LSF ID
55229
ORCID
0000-0002-4483-1426ORCID iD
Other
connected with university
;
Dreier, ThomasUDE
LSF ID
47223
ORCID
0000-0001-8313-4992ORCID iD
Other
connected with university
;
Schulz, ChristofUDE
GND
1148037985
LSF ID
48807
ORCID
0000-0002-6879-4826ORCID iD
Other
connected with university
;
Smallwood, Gregory J.
;
Daun, Kyle J.
Year of publication:
2022
Open Access?:
OA Hybrid
Web of Science ID
PubMed ID
Scopus ID
Language of text:
English

Abstract in English:

Laser-induced incandescence (LII) is a widely used combustion diagnostic for in situ measurements of soot primary particle sizes and volume fractions in flames, exhaust gases, and the atmosphere. Increasingly, however, it is applied to characterize engineered nanomaterials, driven by the increasing industrial relevance of these materials and the fundamental scientific insights that may be obtained from these measurements. This review describes the state of the art as well as open research challenges and new opportunities that arise from LII measurements on non-soot nanoparticles. An overview of the basic LII model, along with statistical techniques for inferring quantities-of-interest and associated uncertainties is provided, with a review of the application of LII to various classes of materials, including elemental particles, oxide and nitride materials, and non-soot carbonaceous materials, and core–shell particles. The paper concludes with a discussion of combined and complementary diagnostics, and an outlook of future research.