The action of MMPs can be controlled in a number of ways, but the main avenues explored are inhibition of their synthesis and transformation of the pro into active MMPs.
However, to the best of our knowledge, the literature precedent for the synthesis and further transformation of a δ-azido-didehydro α-amino acid ester is limited to this one example.
While many papers reported the synthesis and chemical transformations of x,x′-disubstituted-2,2′-bipyridine with x = 4, 5 or 6, this is not the case when x = 3.
Yang, J. et al. Chemical synthesis, doping, and transformation of magic-sized semiconductor alloy nanoclusters.
He, G., Wang, B., Nack, W. A. & Chen, G. Syntheses and transformations of α‐amino acids via palladium-catalyzed auxiliary-directed sp 3 C−H functionalization.
Highlights on Higher-Order Ambisonic: synthesis, capture, decoding, and transformation of sound fields.
It can be argued that the majority of the proteins detected participate in the synthesis, transformation, and degradation of both primary and secondary metabolites that play a role in plant architecture, reproduction, and defense against biotic and abiotic stresses [ 24].
Synthesis, structures and transformations of non-carbonyl chalcogenide-bridged clusters and polynuclear complexes of Groups 8 10 noble metals (Ru, Os, Rh, Ir, Pd, Pt) are considered.
The biological role of carnosine is illustrated by a clear correlation between its concentration and the functional activity of muscles, by the period of its accumulation related to a specific step of ontogeny, and by the presence of special enzymes providing synthesis and metabolic transformation of carnosine.
It is involved in the synthesis, storage, transformation, and degradation of a variety of substances, including pulmonary surfactant, fibrin, and other functionally diverse molecules (i.e., histamine, angiotensin, and prostaglandins).
