2016
DOI: 10.1038/srep38802
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Cerebral infarction pattern in tuberculous meningitis

Abstract: Tuberculous meningitis (TBM) causes significant morbidity and mortality. The primary objective was to re-examine the concept of “TB zone” and “ischaemic zone” in cerebral infarction in patients with tuberculous meningitis. The secondary objective was to evaluate cerebral infarction, vasculitis and vasospasm in tuberculous meningitis infections. Between 2009 and 2014, TBM patients were recruited. Neuroimaging was performed and findings of cerebral infarction, vasculitis and vasospasm were recorded. Infarcts wer… Show more

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Cited by 63 publications
(60 citation statements)
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“…Cerebral infarction in TBM involved especially the perforators and terminal cortical branches. These infarcts mainly involved the lateral lenticulostriate arteries, medial lenticulostriate arteries, and perforators from posterior cerebral artery [7,8]. Head CT-scan without contrast of the patient showed infarct in the left thalamus and Hydrocephalus.…”
Section: Discussionmentioning
confidence: 99%
“…Cerebral infarction in TBM involved especially the perforators and terminal cortical branches. These infarcts mainly involved the lateral lenticulostriate arteries, medial lenticulostriate arteries, and perforators from posterior cerebral artery [7,8]. Head CT-scan without contrast of the patient showed infarct in the left thalamus and Hydrocephalus.…”
Section: Discussionmentioning
confidence: 99%
“…In the first condition, the work of adhesion between nano materials and substrates (W pattern/substrate ) is very weak because it is provided by van der Waals' forces. [25] Usually, various strat egies are used to improve the work of adhesion, such as the addition of an adhesive agent in the nanomaterial formula, [26] sintering at high temperature, [27] presurface treatment of the substrate, [28] or sputter deposition with high energy. [29] Even with such strategies, W pattern/substrate remains small with respect to W polymer/pattern if PVDF is used as the polymer.…”
Section: Mechanism Considerationmentioning
confidence: 99%
“…[ 38,39 ] This strain will cause the SWCNT conductive network on the surface of thread fi bers to generate a piezoresistive effect, which can be confi rmed via micromorphological variation in the SWCNTs on them, as shown in Figure 2 d. [ 40,41 ] Note that the SWCNTs used here were modifi ed with a 2-4 nm coating of poly(3,4-ethylenedioxythiophene) polystyrene sulfonate (PEDOT/PSS). [ 42,43 ] Although PEDOT/PSS itself presents some intrinsic piezoresistive behavior, previous work has verifi ed that the majority of the piezoresistivity results from the change in distance between nanoparticles that takes place under a mechanical strain. [ 44 ] Moreover, these fi ndings were further exhibited through a closed circuit (voltage = 3 V) containing a light-emitting diode (LED) and a conductive thread (length = 2 cm, total resistance = 1.23 kohm after drying).…”
Section: The Sensing Mechanism Of Swcnt-coated Threadsmentioning
confidence: 99%