7 research outputs found
Assessing the suitability of medial sural artery perforator flaps in tongue reconstruction – An outcome study - Fig 2
<p>(a) Intraoperative photograph demonstrating a subtotal hemiglossectomy defect. (b) Intraoperative harvest of a large MSAP flap from an overweight patient. The MSAP flap was of a suitable size for reconstruction of a subtotal glossectomy defect. (c) Photograph demonstrating the inset of the MSAP flap with good contouring and restoration of tongue form.</p
Postoperative photograph of a hemiglossectomy defect reconstructed with a MSAP flap.
<p>Postoperative photograph of a hemiglossectomy defect reconstructed with a MSAP flap.</p
Synthesis of Two-Dimensional (Cu–S)<i><sub>n</sub></i> Metal–Organic Framework Nanosheets Applied as Peroxidase Mimics for Detection of Glutathione
Facilely synthesized peroxidase-like nanozymes with high
catalytic
activity and stability may serve as effective biocatalysts. The present
study synthesizes peroxidase-like nanozymes with multinuclear active
sites using two-dimensional (2D) metal–organic framework (MOF)
nanosheets and evaluates them for their practical applications. A
simple method involving a one-pot bottom-up reflux reaction is developed
for the mass synthesis of (Cu–S)n MOF 2D nanosheets, significantly increasing production quantity
and reducing reaction time compared to traditional autoclave methods.
The (Cu–S)n MOF 2D nanosheets with
the unique coordination of Cu(I) stabilized in Cu-based MOFs demonstrate
impressive activity in mimicking natural peroxidase. The active sites
of the peroxidase-like activity of (Cu–S)n MOF 2D nanosheets were predominantly verified as Cu(I)
rather than Cu(II) of other Cu-based MOFs. The cost-effective and
long-term stability of (Cu–S)n MOF
2D nanosheets make them suitable for practical applications. Furthermore,
the inhibition of the peroxidase-like activity of (Cu–S)n MOF nanosheets by glutathione (GSH) could provide
a simple strategy for colorimetric detection of GSH against other
amino acids. This work remarkably extends the utilization of (Cu–S)n MOF 2D nanosheets in biosensing, revealing
the potential for 2D (Cu–S)n MOFs