Stefan Lach

Dr. Stefan Lach

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Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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21 December 2011 in Advanced Functional Materials
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Journal Article
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SLStefan Lach
Stefan Lach
AAAnna Altenhof
Anna Altenhof
KTKartick Tarafder
Kartick Tarafder
FSFelix Schmitt
Felix Schmitt
EAEhesan Ali
Ehesan Ali
CZChristiane Maria Ziegler
Christiane Maria Ziegler

1 July 2019 in Physical Chemistry Chemical Physics
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Journal Article
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SLStefan Lach
Stefan Lach
AAAnna Altenhof
Anna Altenhof
SSShengwei Shi
Shengwei Shi
MFMats Fahlman
Mats Fahlman
CZChristiane Maria Ziegler
Christiane Maria Ziegler
Understanding the very promising, highly spin polarized, foundation system TCNE/Co(100) for future spintronic architecture, using an advanced multi method approach.

11 February 2024 in ACS Applied Materials & Interfaces
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Journal Article
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RRRobert Ranecki
Robert Ranecki
BBBenedikt Baumann
Benedikt Baumann
SLStefan Lach
Stefan Lach
CZChristiane Maria Ziegler
Christiane Maria Ziegler

29 June 2023 in The Journal of Physical Chemistry C
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Journal Article
Closed access
RRRobert Ranecki
Robert Ranecki
SLStefan Lach
Stefan Lach
ALAnne Lüpke
Anne Lüpke
Eva RentschlerEva Rentschler
Eva Rentschler
CZChristiane Maria Ziegler
Christiane Maria Ziegler

9 September 2022 in The Journal of Physical Chemistry C
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Journal Article
Closed access
RRRobert Ranecki
Robert Ranecki
SLStefan Lach
Stefan Lach
ALAnne Lüpke
Anne Lüpke
AAAngeliki Athanasopoulou
Angeliki Athanasopoulou
Eva RentschlerEva Rentschler
Eva Rentschler
CZChristiane Maria Ziegler
Christiane Maria Ziegler

10 March 2025 in Solids
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Journal Article
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FPFrederik Pütz
Frederik Pütz
RBRichard Blättner
Richard Blättner
YKYves Kurek
Yves Kurek
LBLukas Bolz
Lukas Bolz
SESwen Ehnert
Swen Ehnert
CZChristiane Maria Ziegler
Christiane Maria Ziegler
Large organic molecules and metal complexes are promising candidates for organic electronics, optoelectronics, and spintronics, with interfaces to metals being critical. Clean preparation in ultra-high vacuum (UHV) is ideal, but many systems are fragile and cannot be thermally sublimed. This study details the preparation of thin films of the metallacrown Cu(II)[12-MCCu(II)N(Shi)-4] (short: CuCu4) from the liquid phase using electrospray injection (ESI) and, in particular, liquid injection (LI). Both methods produce films with intact CuCu4 complexes, but they differ in the amount of co-adsorbed solvent molecules. Enhancements using an argon stream perpendicular to the molecular beam significantly reduce these contaminants. An additional effect occurs due to the counterions (HNEt3)2 of CuCu4. They are co-deposited by LI, but not by ESI. The advantages and limitations of the LI method are discussed in detail. The CuCu4 films prepared by different methods were analyzed with infrared (IR) spectroscopy, ultraviolet and X-ray photoelectron spectroscopy (UPS, XPS), and scanning tunneling microscopy (STM). For thicker films, ex situ and in situ prepared CuCu4 films to exhibit similar properties, but for studying interface effects or ultrathin films, in situ preparation is necessary.