Citations

AbstractBackgroundWhile the temporal lifting technique has gained increasing attention, there is a dearth of objective and reliable evidence of its effects.AimThe objective of the present study is to analyze the ability of the temporal lifting technique to reduce the midfacial volume by soft tissue repositioning and to achieve an improved pan‐facial appearance by targeting exclusively the subdermal plane of the posterior and superior temple with soft tissue fillers.MethodsA total of 12 patients (1 male and 11 females) with a mean age of 36.75 ± 6.6 years and a mean body mass index of 23.04 ± 1.3 kg/m2 were included in this prospective clinical single‐center interventional study. Injection‐related outcome was evaluated utilizing 3D skin vector displacement and surface volume analyses and scoring based on five different evaluators.ResultsThree months after the treatment, the global esthetic improvement scale rating showed an improved outcome (3.08) when evaluated by the independent observers, very improved outcome when evaluated by the treating physician (4.33), and exceptional improvement when rated by the patient (4.83). Temporal volume improved by 0.36 (P < .001), lower cheek fullness by 0.47 (P < .001), and jawline contouring by 0.51 (P < .001). No major adverse events were reported during the 3‐month observational period.ConclusionObjective outcome measures have provided evidence that by augmenting the posterior superior temple the volume of the middle face can be reduced and the contour of the jawline can be accentuated; this is due to the underlying fascial anatomy and the resulting soft tissue re‐position.

The massive increase in information on the human DNA sequence and the development of new technologies will have a profound impact on the diagnosis and treatment of cardiovascular diseases. The microarray is a micro-hybridisation based assay. The filter, called microchip or chip, is a special kind of membrane in which are spotted several thousands of oligonucleotides of cDNA fragments coding for known genes or expressed sequence tags. The resulting hybridisation signal on the chip is analysed by a fluorescent scanner and processed with a software package utilising the information on the oligonucleotide or cDNA map of the chip to generate a list of relative gene expression. Microarray technology can be used for many different purposes, most prominently to measure differential gene expression, variations in gene sequence (by analysing the genome of mutant phenotypes), or more recently, the entire binding site for transcription factors. Measurements of gene expression have the advantage of providing all available sequence information for any given experimental design and data interpretation in pursuit of biological understanding. This research tool will contribute to radically changing our understanding of cardiovascular diseases.