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Brian G Alberding

Explore the profile of Brian G Alberding including associated specialties, affiliations and a list of published articles. Areas
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Articles 23
Citations 40
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Recent Articles
1.
Alberding B, Woodward J, Shaw P, Hanssen L, Cooksey C, Rice J
Appl Opt . 2022 Apr; 61(11):2957-2966. PMID: 35471271
The standard uncertainty of detector-based radiance and irradiance responsivity calibrations in the short-wave infrared (SWIR) traditionally has been limited to around 1% or higher by the poor spatial uniformity of...
2.
Riedel-Topper M, Wirick S, Hadler J, Alberding B, Stromberg C, Heilweil E
J Laser Appl . 2019 Apr; 30. PMID: 30983843
Ultrafast lasers have become increasingly important as research tools in laboratories and commercial enterprises suggesting laser safety, personal protection and awareness become ever more important. Laser safety eyewear are typically...
3.
Biacchi A, Le S, Alberding B, Hagmann J, Pookpanratana S, Heilweil E, et al.
ACS Nano . 2018 Sep; 12(10):10045-10060. PMID: 30247875
Colloidal-based solution syntheses offer a scalable and cost-efficient means of producing 2D nanomaterials in high yield. While much progress has been made toward the controlled and tailorable synthesis of semiconductor...
4.
Stromberg C, Hadler J, Alberding B, Heilweil E
J Laser Appl . 2018 Jan; 29(4). PMID: 29353984
Ultrafast laser systems are becoming more widespread throughout the research and industrial communities yet eye protection for these high power, bright pulsed sources still require scrupulous characterization and testing before...
5.
Alberding B, Thurber W, Heilweil E
J Opt Soc Am B . 2017 Sep; 34(7):1392-1406. PMID: 28924327
Charge carrier conductivity and mobility for various semiconductor wafers and crystals were measured by ultrafast above bandgap, optically excited Time-Resolved Terahertz Spectroscopy (TRTS) and Hall Van der Pauw contact methods...
6.
Alberding B, DeSario P, So C, Dunkelberger A, Rolison D, Owrutsky J, et al.
J Phys Chem C Nanomater Interfaces . 2017 Sep; 121(7):4037-4044. PMID: 28890744
Thin-film ruthenium dioxide (RuO) is a promising alternative material as a conductive electrode in electronic applications because its rutile crystalline form is metallic and highly conductive. Herein, a solution-deposition multi-layer...
7.
Dunkelberger A, Compton R, DeSario P, Weidinger D, Spann B, Pala I, et al.
Plasmonics . 2017 May; 12(3):743-750. PMID: 28503102
Solution-deposited nanoscale films of RuO ("nanoskins") are effective transparent conductors once calcined to 200 °C. Upon heating the nanoskins to higher temperature the nanoskins show increased transmission at 550 nm....
8.
Alberding B, Kushto G, Lane P, Heilweil E
Appl Phys Lett . 2016 Nov; 108(22). PMID: 27818524
Non-contact, optical time-resolved terahertz spectroscopy (TRTS) has been used to study the transient photoconductivity of nanometer-scale metallic films deposited on fused quartz substrates. Samples of 8 nm thick gold or...
9.
Alberding B, Biacchi A, Walker A, Heilweil E
J Phys Chem C Nanomater Interfaces . 2016 Oct; 120(88):15395-15406. PMID: 27766125
Tin(II) monosulfide (SnS) is a semiconductor material with an intermediate band gap, high absorption coefficient in the visible range, and earth abundant, non-toxic constituent elements. For these reasons, SnS has...
10.
Alberding B, Chisholm M, Durr C, Gallucci J, Ghosh Y, Spilker T
Dalton Trans . 2014 Jun; 43(29):11397-403. PMID: 24930899
From the reactions between Mo2(T(i)PB)4, where T(i)PB = 2,4,6-triisopropylbenzoate and two equivalents of the carboxylic acid LH (LH = 4-nitrobenzoic acid and 4'-nitro[1,1'-biphenyl]-4-carboxylic acid) the compounds trans-M2(T(i)PB)2L2 have been prepared:...