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1 be considered for point-of-care diagnosis of cryptococcal meningitis.
2 sease severity and outcome in HIV-associated cryptococcal meningitis.
3 rebrospinal fluid samples from patients with cryptococcal meningitis.
4 tosine as first-line induction treatment for cryptococcal meningitis.
5 to safe and effective antifungal therapy for cryptococcal meningitis.
6 d with improved survival among patients with cryptococcal meningitis.
7 lus 5-FC for the treatment of HIV-associated cryptococcal meningitis.
8 One patient developed Cryptococcal meningitis.
9 s to promote increased ICP in a rat model of cryptococcal meningitis.
10 acquired immunodeficiency syndrome and acute cryptococcal meningitis.
11 ain was also avirulent in an animal model of cryptococcal meningitis.
12 gnificantly attenuated in an animal model of cryptococcal meningitis.
13 e no longer pathogenic in an animal model of cryptococcal meningitis.
14 marker of disease severity and mortality in cryptococcal meningitis.
15 fungus in infected mice and in patients with cryptococcal meningitis.
16 ws that (1,3)-beta-d-glucan is detectable in cryptococcal meningitis.
17 pathogen responsible for cryptococcosis and cryptococcal meningitis.
18 cytosine for the treatment of HIV-associated cryptococcal meningitis.
19 had begun following antifungal treatment of cryptococcal meningitis.
20 or older and presenting with a first case of cryptococcal meningitis.
21 marker of disease severity and mortality in cryptococcal meningitis.
22 g of innate and adaptive immune responses in cryptococcal meningitis.
23 l recipient survived following treatment for cryptococcal meningitis.
24 e preferred options for induction therapy of cryptococcal meningitis.
25 e mortality among adults with HIV-associated cryptococcal meningitis.
26 phan was also associated with mortality from cryptococcal meningitis.
27 HIV-infected Ugandan adults at diagnosis of cryptococcal meningitis.
28 e impact of ART interruption at diagnosis of cryptococcal meningitis.
29 ymptoms only, along with controls of primary cryptococcal meningitis.
30 human immunodeficiency virus at diagnosis of cryptococcal meningitis.
31 FA is associated with all-cause mortality in cryptococcal meningitis.
32 s, 50 with bacterial meningitis, and 60 with cryptococcal meningitis.
33 tococcal antigen (CrAg) precedes symptomatic cryptococcal meningitis.
34 on serum and among hospitalized adults with cryptococcal meningitis.
35 e positive among 30 hospitalized adults with cryptococcal meningitis.
36 e used to treat patients with HIV-associated cryptococcal meningitis.
37 e in human immunodeficiency virus-associated cryptococcal meningitis.
38 red to participants with confirmed CSF CrAg+ cryptococcal meningitis.
39 an opportunistic pathogen that causes fatal cryptococcal meningitis.
40 of people who are developing and dying from cryptococcal meningitis.
41 , but their use is untested in patients with cryptococcal meningitis.
42 mulating factor (GM-CSF) autoantibodies with cryptococcal meningitis.
43 important contributor to virulence in human cryptococcal meningitis.
47 mptom onset) was 47% among first episodes of cryptococcal meningitis, 31% in culture-positive relapse
50 reened for HIV-associated meningitis, 60 had cryptococcal meningitis (59 CrAg positive [CrAg(+)] by L
51 ormans var. grubii is the causative agent of cryptococcal meningitis, a significant source of mortali
54 nal fluid (CSF) samples for the diagnosis of cryptococcal meningitis against that of existing diagnos
56 201) of participants had confirmed CSF CrAg+ cryptococcal meningitis and 4% (54/1201) had neurologic
57 creased relative rate of 0.49 (P = 0.06) for cryptococcal meningitis and a decreased relative rate of
58 val of HIV-infected persons with symptomatic cryptococcal meningitis and asymptomatic, subclinical cr
60 mouse IgG1 currently in clinical trials for cryptococcal meningitis and for the design of antibody t
61 ed adults in Uganda and South Africa who had cryptococcal meningitis and had not previously received
62 uman immunodeficiency virus (HIV)-associated cryptococcal meningitis and has been incorporated into W
63 body screening in four current patients with cryptococcal meningitis and identified and tested 103 ar
64 nvasive aspergillosis, invasive candidiasis, cryptococcal meningitis and mucosal and urinary Candida
68 to identify and treat those with subclinical cryptococcal meningitis and preemptive fluconazole for t
70 uman studies have shown associations between cryptococcal meningitis and reduced IgM memory B cell le
75 WHO-recommended treatment for HIV-associated cryptococcal meningitis and was associated with fewer ad
76 mortality among patients with HIV-associated cryptococcal meningitis and was associated with more adv
77 meningitis and sepsis), fungal (for example, cryptococcal meningitis) and parasitic (for example, mal
78 d to have symptoms, signs, or a diagnosis of cryptococcal meningitis) and those in treatment failure
79 ncidences of secondary P. carinii pneumonia, cryptococcal meningitis, and herpes zoster have declined
80 ART initiation (<=14 days) on outcomes from cryptococcal meningitis, and how to optimally manage ART
81 colony-stimulating factor autoantibodies and cryptococcal meningitis; anti-interleukin (IL)-6 autoant
82 with human immunodeficiency virus-associated cryptococcal meningitis are antiretroviral therapy (ART)
85 , none of the three reported adverse events (cryptococcal meningitis, asymptomatic anaemia, and asymp
87 rebrospinal fluid (CSF) of 209 patients with cryptococcal meningitis at baseline (day 0) and during a
88 measured in 44 patients with HIV-associated cryptococcal meningitis at baseline and during follow-up
90 mide group reported a serious adverse event (cryptococcal meningitis attributed to immune reconstitut
91 uman immunodeficiency virus (HIV)-associated cryptococcal meningitis, based on the results of the mul
92 lucytosine) is the recommended treatment for cryptococcal meningitis but has not been shown to reduce
93 gressive multifocal leucoencephalopathy, and cryptococcal meningitis) but also the AIDS dementia comp
94 is an important determinant of mortality in cryptococcal meningitis, but its use in aiding clinical
98 an Africa accounted for 73% of the estimated cryptococcal meningitis cases in 2014 (162 500 cases [95
100 lasma CRAG titers >1:640, 96% (27 of 28) had cryptococcal meningitis (cerebrospinal fluid CRAG-positi
101 individual-level CSF data from 3 sequential cryptococcal meningitis clinical trials conducted during
102 (25[OH]D) were measured in 150 patients with cryptococcal meningitis (CM) and 150 HIV-infected contro
103 ) or did not (HIV-infected controls) develop cryptococcal meningitis (CM) and HIV-uninfected persons
104 uman immunodeficiency virus (HIV)-associated cryptococcal meningitis (CM) and is lower in patients on
106 ated to raise intracranial pressure (ICP) in cryptococcal meningitis (CM) by mechanical obstruction o
110 y virus (HIV)-infected patients with treated cryptococcal meningitis (CM) commencing combination anti
111 human immunodeficiency virus/AIDS-associated cryptococcal meningitis (CM) frequently experience clini
112 iposomal amphotericin B (L-AmB) regimens for cryptococcal meningitis (CM) in Tanzania and Botswana.
118 uman immunodeficiency virus (HIV)-associated cryptococcal meningitis (CM) is characterized by high fu
121 e in blood prior to the onset of symptomatic cryptococcal meningitis (CM), a leading cause of death a
122 study to determine the national incidence of cryptococcal meningitis (CM), and describe characteristi
123 forts to optimize therapy for HIV-associated cryptococcal meningitis (CM), survival outcomes remain p
130 ese case-control cohort (30 with symptomatic cryptococcal meningitis [CM], 30 without), both followed
131 uring human immunodeficiency virus (HIV) and cryptococcal meningitis coinfection are ill defined.
133 e cerebrospinal fluid (CSF) of patients with cryptococcal meningitis contains high levels of the chem
134 a in severely immunocompromised persons with cryptococcal meningitis contributes directly to this mor
135 a in severely immunocompromised persons with cryptococcal meningitis contributes directly to this mor
136 is unknown whether persons with symptomatic cryptococcal meningitis detected during routine blood cr
137 with 10 liver transplant recipients in whom cryptococcal meningitis developed after liver transplant
138 iagnosis prompted screening of patients with cryptococcal meningitis for anticytokine autoantibodies.
139 -up of previously healthy patients surviving cryptococcal meningitis found that cryptococcal antigen
142 trial enrolled patients with HIV-associated cryptococcal meningitis from eight hospitals in Botswana
143 trial, we recruited HIV-positive adults with cryptococcal meningitis from two hospitals in Uganda.
149 cquired immunodeficiency syndrome (AIDS) and cryptococcal meningitis has been associated with high mo
152 ubacute sclerosing panencephalitis (SSPE) or cryptococcal meningitis have been shown to represent Ab
153 ubacute sclerosing panencephalitis (SSPE) or cryptococcal meningitis have been shown to represent Ab
155 ereas the global incidence of HIV-associated cryptococcal meningitis (HIV-CM) has decreased over the
158 ntries, we assigned HIV-positive adults with cryptococcal meningitis in a 1:1 ratio to receive either
159 ier Antifungal Combinations for Treatment of Cryptococcal Meningitis in Africa trial were analyzed to
162 the past ten years, standard diagnostics for cryptococcal meningitis in HIV-infected persons have evo
163 reduces the incidence of clinically evident cryptococcal meningitis in individuals living with advan
164 red therapy for the treatment of HIV-related cryptococcal meningitis in LMICs is 1 week of amphoteric
165 e high mortality associated with HIV-related cryptococcal meningitis in low-income and middle-income
167 ureobasidin A, shows better efficacy against cryptococcal meningitis in mice than do clinically recom
168 ated tolerance limits treatment efficacy for cryptococcal meningitis in mice via inhibiting the synth
170 antibodies are associated with some cases of cryptococcal meningitis in otherwise immunocompetent pat
172 p, open-label trial of induction therapy for cryptococcal meningitis in patients with human immunodef
173 l to transform the management of HIV-related cryptococcal meningitis in resource-limited settings is
176 ause mortality in people with HIV-associated cryptococcal meningitis in sub-Saharan African countries
178 recruited adult patients with HIV-associated cryptococcal meningitis in Vietnam, Thailand, Indonesia,
193 onotherapy, mortality because of HIV-related cryptococcal meningitis is approximately 70% in many Afr
205 but negative by the IMMY LFA, none developed cryptococcal meningitis over 3 months of follow-up witho
206 e four main types of CNS infection differed (cryptococcal meningitis p=0.0014, bacterial meningitis p
207 determining disease outcome in HIV-infected cryptococcal meningitis patients infected with Cryptococ
209 ciency virus (HIV)-infected individuals with cryptococcal meningitis places them at risk for Cryptoco
210 h human immunodeficiency virus (HIV)-related cryptococcal meningitis receiving adjunctive flucytosine
211 s involving participants with HIV-associated cryptococcal meningitis receiving either daily liposomal
217 r antiretroviral therapy (ART) initiation in cryptococcal meningitis resulted in higher mortality com
220 uman immunodeficiency virus (HIV)-associated cryptococcal meningitis, screened for the Cryptococcal O
222 lence tests with rabbit and murine models of cryptococcal meningitis showed that the serotype A conge
223 ccus gattii isolated from serial episodes of cryptococcal meningitis that were separated by at least
224 ated the role of microglia in the context of cryptococcal meningitis, the most common cause of fungal
225 For the initial treatment of AIDS-associated cryptococcal meningitis, the use of higher-dose amphoter
227 s the most attractive treatment strategy for cryptococcal meningitis, though the rising price may be
228 bacterial pneumonia, two tuberculosis, five cryptococcal meningitis, three had other infections, and
229 We measured CSF lactate in individuals with cryptococcal meningitis to determine its clinical signif
230 tomegalovirus co-infections in patients with cryptococcal meningitis to guide potential therapeutic i
231 ents with a first episode of AIDS-associated cryptococcal meningitis to treatment with higher-dose am
233 and 189 ART-naive Ugandans with symptomatic cryptococcal meningitis treated with amphotericin (CM co
235 Malawi, 236 participants from the Advancing Cryptococcal Meningitis Treatment for Africa trial were
236 addition of 5FC to FLU is cost-effective for cryptococcal meningitis treatment in Africa and, if made
237 model of care, we measured the prevalence of cryptococcal meningitis, tuberculous meningitis, bacteri
239 ng in predicting response in AIDS-associated cryptococcal meningitis using clinical isolates from a r
240 rring ART for 5 weeks after the diagnosis of cryptococcal meningitis was associated with significantl
249 In this study, rabbits with experimental cryptococcal meningitis were given fluconazole at low, i
250 ntiretroviral naive patients presenting with cryptococcal meningitis were randomized to 4 treatment a
251 older with a first episode of HIV-associated cryptococcal meningitis were recruited to both trials.
252 t this hypothesis, we used a murine model of cryptococcal meningitis whereby cryptococci are introduc
253 in B with flucytosine induction regimens for cryptococcal meningitis, which are recommended in high-i
254 tibodies in an otherwise healthy female with cryptococcal meningitis who later developed pulmonary al
255 , we recruited HIV-infected individuals with cryptococcal meningitis who presented to Mulago Hospital
256 mmunodeficiency virus-infected patients with cryptococcal meningitis who received antifungal therapy
257 iciency virus-infected patients with treated cryptococcal meningitis who start combination antiretrov
258 identified seven HIV-negative patients with cryptococcal meningitis who tested positive for high-tit
260 icin B LNC formulation appears promising for cryptococcal meningitis with antifungal activity, simila
262 idemiology, and updates on the management of cryptococcal meningitis with emphasis on HIV-associated
263 We review the antifungal drugs used to treat cryptococcal meningitis with respect to clinical effecti
264 rked interest in treating non-HIV-associated cryptococcal meningitis with single 10-mg/kg liposomal a
265 (1) examine whether patients diagnosed with cryptococcal meningitis within 14 days of ART initiation