[Recognition of the membrane anatomy-based laparoscopic assisted right hemicolectomy].

Although it has become a consensus in the field of colorectal surgery to perform radical tumor treatment and functional protection under the minimally invasive concept, there exist many controversies during clinical practice, including the concept of embryonic development of abdominal organs and membrane anatomy, the principle of membrane anatomy related to right hemicolectomy, D3 resection, and identification of the inner boundary. In this paper, we analyzed recently reported literature with high-level evidence and clinical data from the author's hospital to recognize and review the membrane anatomy-based laparoscopic assisted right hemicolectomy for right colon cancer, emphasizing the importance of priority of surgical dissection planes, vascular orientation, and full understanding of the fascial space, and proposing that the surgical planes should be dissected in the parietal-prerenal fascial space, and the incision should be 1 cm from the descending and horizontal part of the duodenum. The surgery should be performed according to a standard procedure with strict quality control. To identify the resection range of D3 dissection, it is necessary to establish a clinical, imaging, and pathological evaluation model for multiple factors or to apply indocyanine green and nano-carbon lymphatic tracer intraoperatively to guide precise lymph node dissection. We expect more high-level evidence of evidence-based medicine to prove the inner boundary of laparoscopic assisted radical right colectomy and a more rigorous consensus to be established.

[Zn8(SiO4)(C8H4O4)6]n: the firstborn of a metallosilicate-organic hybrid material family (C8H4O4 = isophthalate).

[Zn8(SiO4)(C8H4O4)6]n (C8H4O4 = isophthalate), synthesized by hydrothermal reaction, possesses a diamondoid framework structure constructed from hexahedron-like Zn8(SiO4) cores and C8H4O4 linkers and remains stable up to 500 degrees C in air, representing the first member of a new class of metallosilicate-organic hybrid materials.

A hybrid polyoxometalate-organic molecular catalyst for visible light driven water oxidation.

A novel organic-inorganic hybrid monocapped/bicapped Keggin structure [Co(II)(bpy)3]6(H2bpy)[(Co(II)bpy)2(PMo8(VI)Mo4(V)O40)]3 [(Co(II)bpy)(PMo8(VI)Mo4(V)O40)]·16H2O (bpy = 2,2'-bipyridine) was synthesized and shown to be an efficient visible light-driven catalyst for water oxidation.