Bernhard Schartel

Dr. Bernhard Schartel

orcid

Research Focus & Metrics

Academic Career Length

32Years (1995-Present)

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

Representative Publications

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21 May 2007 in Fire and Materials
Verified
Journal Article
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BSBernhard Schartel
Bernhard Schartel
THT Richard Hull
T Richard Hull

29 June 2018 in Angewandte Chemie International Edition
Verified
Journal Article
Open access
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MVMaria M. Velencoso
Maria M. Velencoso
ABAlexander Battig
Alexander Battig
JMJens Christian Markwart
Jens Christian Markwart
BSBernhard Schartel
Bernhard Schartel
FWFrederik R. Wurm
Frederik R. Wurm
The ubiquity of polymeric materials in daily life comes with an increased fire risk, and sustained research into efficient flame retardants is key to ensuring the safety of the populace and material goods from accidental fires. Phosphorus, a versatile and effective element for use in flame retardants, has the potential to supersede the halogenated variants that are still widely used today: current formulations employ a variety of modes of action and methods of implementation, as additives or as reactants, to solve the task of developing flame‐retarding polymeric materials. Phosphorus‐based flame retardants can act in both the gas and condensed phase during a fire. This Review investigates how current phosphorus chemistry helps in reducing the flammability of polymers, and addresses the future of sustainable, efficient, and safe phosphorus‐based flame‐retardants from renewable sources.

30 September 2010 in Materials
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Journal Article
Open access
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BSBernhard Schartel
Bernhard Schartel
Different kinds of additive and reactive flame retardants containing phosphorus are increasingly successful as halogen-free alternatives for various polymeric materials and applications. Phosphorus can act in the condensed phase by enhancing charring, yielding intumescence, or through inorganic glass formation; and in the gas phase through flame inhibition. Occurrence and efficiency depend, not only on the flame retardant itself, but also on its interaction with pyrolysing polymeric material and additives. Flame retardancy is sensitive to modification of the flame retardant, the use of synergists/adjuvants, and changes to the polymeric material. A detailed understanding facilitates the launch of tailored and targeted development.

1 August 2007 in Polymer Degradation and Stability
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Journal Article
Closed access
UBUlrike Braun
Ulrike Braun
BSBernhard Schartel
Bernhard Schartel
MFMario A. Fichera
Mario A. Fichera
CJChristian Jäger
Christian Jäger

1 December 2006 in Polymer
Verified
Journal Article
Closed access
UBUlrike Braun
Ulrike Braun
ABAliaksandr I. Balabanovich
Aliaksandr I. Balabanovich
BSBernhard Schartel
Bernhard Schartel
UKUta Knoll
Uta Knoll
JAJohannes Artner
Johannes Artner
DPDoris Pospiech
Doris Pospiech

1 May 2011 in European Polymer Journal
Verified
Journal Article
Closed access
BPB. Perret
B. Perret
BSBernhard Schartel
Bernhard Schartel
KSK. Stöß
K. Stöß
MCM. Ciesielski
M. Ciesielski
JDJ. Diederichs
J. Diederichs
Volker AltstädtVolker Altstädt
Volker Altstädt