Abstract Photosystem I (PS I) has a symmetric structure with two highly similar branches of
pigments at the center that are involved in electron transfer, but shows very different …

Immobilized enzymes find applications in many areas such as pharmacy, medicine, food
production and environmental protection. However, protecting these biocatalysts against …

FTIR spectroscopy accompanied by quantum chemical simulations can reveal important
information about molecular structure and intermolecular interactions in the condensed …

Superbase‐derived ionic liquids (SILs) are promising sorbents to tackle the carbon
challenge featured by tunable interaction strength with CO2 via structural engineering …

With increasing environmental pollution, the utilization of green techniques, such as
photocatalysis, is required to degrade harmful sources without secondary pollution. In this …

In recent years there has been interest in incorporating substituted 1, 4-naphthoquinones
(NQs) into the A 1 binding site in photosystem I (PSI) photosynthetic protein complexes. This …

In photosystem I (PSI) complexes at room temperature electron transfer from A 1–to FX is an
order of magnitude faster on the B-branch compared to the A-branch. One factor that might …

Infrared absorption bands associated with the neutral state of quinones in the A 1 binding
site in photosystem I (PSI) have been difficult to identify in the past. This problem is …

Time-resolved infrared (IR) spectroscopy is a well established technique for the study of
photobiological systems. In this review attention is focused on technical improvements …

Time–resolved step-scan Fourier transform infrared difference spectroscopy has been used
to study cyanobacterial photosystem I photosynthetic reaction centers from Synechocystis …