Monografie
Towards understanding the interaction of water with α-Al2O3 surfaces: a sum frequency generation perspective
- Sprache
-
Englisch
- Identifier
-
120573547X
Thema
Water; Comprehension
Beteiligte Personen und Organisationen
Yue, Yanhua
- DOI
-
10.17169/refubium-26561
- URN
- Rechteinformation
-
Der Zugriff auf das Objekt ist unbeschränkt möglich.
- Letzte Aktualisierung
-
26.01.2023, 13:58 MEZ
Objekttyp
- Monografie
Beteiligte
- Yue, Yanhua
Ähnliche Objekte (12)
Towards a comprehensive understanding of alexithymia
Understanding the Interaction of CO and O2 with MgO(001) and Supported Metal Atoms: Towards Single-Atom Catalysis
Combining Data Sources: A Path to Improved Understanding and Prediction
Under the influence: Understanding the thermodynamic and optical properties of stimuli-responsive complex organic systems
Mechanistic and quantitative understanding of antibiotic resistance and adaptation of Escherichia coli under levofloxacin exposure
Understanding Toll-like Receptor Modulation Through Machine Learning
Understanding deformation patterns of rocks and characterizing their relationship to subduction interface processes and rheology at different depths (10-60 km)
Living with the enemy: Understanding the dynamics of host defences against persistent bacterial infections
Using Automation, Theory and Machine Learning to Gain Mechanistic Understanding of Chemical Glycosylation
Towards Diamond-Based Photocatalysts : Spectroscopic Investigations at the Diamond-Water Interface
Shining New Light on Water Electrolysis: Probing Electrolytic Water Splitting on Au and Pt with Micron Spatial and Femtosecond Temporal Resolution
Groundwater-stream water interactions: point and distributed measurements and innovative upscaling technologies
Towards a comprehensive understanding of alexithymia
Understanding the Interaction of CO and O2 with MgO(001) and Supported Metal Atoms: Towards Single-Atom Catalysis
Combining Data Sources: A Path to Improved Understanding and Prediction
Under the influence: Understanding the thermodynamic and optical properties of stimuli-responsive complex organic systems
Mechanistic and quantitative understanding of antibiotic resistance and adaptation of Escherichia coli under levofloxacin exposure
Understanding Toll-like Receptor Modulation Through Machine Learning
Understanding deformation patterns of rocks and characterizing their relationship to subduction interface processes and rheology at different depths (10-60 km)
Living with the enemy: Understanding the dynamics of host defences against persistent bacterial infections
Using Automation, Theory and Machine Learning to Gain Mechanistic Understanding of Chemical Glycosylation
Towards Diamond-Based Photocatalysts : Spectroscopic Investigations at the Diamond-Water Interface
Shining New Light on Water Electrolysis: Probing Electrolytic Water Splitting on Au and Pt with Micron Spatial and Femtosecond Temporal Resolution
Groundwater-stream water interactions: point and distributed measurements and innovative upscaling technologies
Towards a comprehensive understanding of alexithymia
Understanding the Interaction of CO and O2 with MgO(001) and Supported Metal Atoms: Towards Single-Atom Catalysis
Combining Data Sources: A Path to Improved Understanding and Prediction
Under the influence: Understanding the thermodynamic and optical properties of stimuli-responsive complex organic systems
Mechanistic and quantitative understanding of antibiotic resistance and adaptation of Escherichia coli under levofloxacin exposure
Understanding Toll-like Receptor Modulation Through Machine Learning
Understanding deformation patterns of rocks and characterizing their relationship to subduction interface processes and rheology at different depths (10-60 km)
Living with the enemy: Understanding the dynamics of host defences against persistent bacterial infections
Using Automation, Theory and Machine Learning to Gain Mechanistic Understanding of Chemical Glycosylation
Towards Diamond-Based Photocatalysts : Spectroscopic Investigations at the Diamond-Water Interface
Shining New Light on Water Electrolysis: Probing Electrolytic Water Splitting on Au and Pt with Micron Spatial and Femtosecond Temporal Resolution