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1  compound, 42a (MTC420), displays acceptable antituberculosis activity (Mtb IC50 = 525 nM, Mtb Wayne
2  discovery of novel compounds with increased antituberculosis activity in vitro and a better understa
3  ester (compound 3) with previously reported antituberculosis activity is rapidly converted to two me
4 ed that one of the compounds, 15f, possessed antituberculosis activity, with an MIC value of 3.13 mic
5 mber of compounds that exhibited significant antituberculosis activity.
6 bstituted benzyl piperazines showed the most antituberculosis activity.
7 nd of these compounds one showed significant antituberculosis activity.
8 mary cellular target was responsible for the antituberculosis activity.
9 ied as a hit in this screen, possessing good antituberculosis activity.
10 investigation of lansoprazole as a potential antituberculosis agent is warranted.
11 . tuberculosis sensitivity to the front-line antituberculosis agent isoniazid.
12 sensitivity of M. tuberculosis to the potent antituberculosis agent isoniazid.
13 ::Km(r) was more sensitive to the front-line antituberculosis agent isonicotinic acid hydrazide (INH)
14 ed the use of ethambutol (EMB), a first-line antituberculosis agent that is known to inhibit cell wal
15 culosis, there is an urgent need to discover antituberculosis agent with novel structures.
16                Isoniazid (INH), a front-line antituberculosis agent, is activated by mycobacterial ca
17 he risk factors seen with antiretroviral and antituberculosis agents among others.
18 24 h after the organisms were incubated with antituberculosis agents by using fluorescein diacetate (
19 have been identified as a promising class of antituberculosis agents from phenotypic screening agains
20 f this methodology for rapidly assessing new antituberculosis agents may be limited by the relatively
21  an ongoing effort to develop new and potent antituberculosis agents, a second-generation series of n
22 boxamides represent a promising new class of antituberculosis agents.
23 plex isolates against first- and second-line antituberculosis agents.
24 sistance to an exceptionally potent class of antituberculosis agents.
25 optimization of this very promising class of antituberculosis agents.
26 sistant to isoniazid and rifampin, the major antituberculosis agents.
27 les and 1,3,4-thiadiazoles as a new class of antituberculosis agents.
28 Ps as selective inhibitors of MtHGPRT and as antituberculosis agents.
29  essential value added in the development of antituberculosis agents.
30 rformed for both first-line and experimental antituberculosis agents.
31 robenzothiazinones are among the most potent antituberculosis agents.
32 A1 may lead to the development of a class of antituberculosis agents.
33                                          New antituberculosis (anti-TB) drugs are urgently needed to
34 bactericidal activity of orally administered antituberculosis (anti-TB) drugs was determined in a who
35 ity of isoniazid during the initial phase of antituberculosis (anti-TB) therapy has been attributed n
36 ough its peroxidase cycle, of the front line antituberculosis antibiotic isoniazid (isonicotinic acid
37 the enzyme responsible for activation of the antituberculosis antibiotic isoniazid (isonicotinic acid
38 ent and selective mPTPB inhibitors as unique antituberculosis (antiTB) agents.
39           There is an increasing flow of new antituberculosis chemical entities entering the tubercul
40  week has potent activity in mouse models of antituberculosis chemotherapy, but efficacy and safety d
41 long periods of time after the initiation of antituberculosis chemotherapy.
42 d according to whether the patients received antituberculosis chemotherapy.
43 introduction of modern rifampicin-containing antituberculosis chemotherapy.
44                                      Six new antituberculosis compounds in 4 classes are presently in
45  CD4(+) or CD8(+) T effector cells producing antituberculosis cytokine IFN-gamma in the context of im
46                    Global rollout of the new antituberculosis drug bedaquiline has been slow, in part
47                  Benzothiazinones (BTZs) are antituberculosis drug candidates with nanomolar bacteric
48 the DDTs used for evaluating the efficacy of antituberculosis drug combinations and the gaps in the e
49 -development tools (DDTs) have been used for antituberculosis drug development over several decades.
50                         After 50 years of no antituberculosis drug development, a promising pipeline
51 thway while also identifying new targets for antituberculosis drug development.
52 l of targeting select biosynthetic steps for antituberculosis drug development.
53 of these enzymes as valid targets for future antituberculosis drug development.
54 est in the terminal respiratory oxidases for antituberculosis drug development.
55 r both industry and academia in the field of antituberculosis drug development.
56 n this Review, we discuss recent advances in antituberculosis drug discovery and development, clinica
57  synthetase (MtGS) is a promising target for antituberculosis drug discovery.
58 ycobacterium tuberculosis to the second-line antituberculosis drug ethionamide.
59 e-peroxidase that is thought to activate the antituberculosis drug isoniazid (INH).
60 d t-BHP and to inhibitory effects due to the antituberculosis drug isoniazid (INH).
61  2-pyridylcarboxaldehyde with the first-line antituberculosis drug isoniazid [i.e., isonicotinic acid
62 s--including an InhA mutant resistant to the antituberculosis drug isoniazid and a strain overexpress
63                      The extended use of the antituberculosis drug isoniazid and the antiseptic tricl
64  However, KatG also activates the front-line antituberculosis drug isoniazid, hence rendering M. tube
65 d in increased sensitivity to the front-line antituberculosis drug isoniazid.
66 ial diazaborine compounds and the front-line antituberculosis drug isoniazid.
67 qually capable of metabolizing the important antituberculosis drug isoniazid.
68 ntibacterial diazaborines and the front-line antituberculosis drug isoniazid.
69                               The first-line antituberculosis drug isonicotinic hydrazide (INH) is a
70            Using the nitroimidazopyran-based antituberculosis drug PA-824 as a selective agent, trans
71  developed using the nitroimidazopyran-based antituberculosis drug PA-824.
72 ed to work together to strengthen the global antituberculosis drug pipeline and support the developme
73 acterium bovis is naturally resistant to the antituberculosis drug pyrazinamide (PZA).
74  have to be treated with currently available antituberculosis drug regimens for more than 20 months,
75  pipeline and support the development of new antituberculosis drug regimens.
76                 To inform efforts to prevent antituberculosis drug resistance acquired during treatme
77 notypic screen for mutations associated with antituberculosis drug resistance and for the G(1031)A po
78 ive genes in which mutations associated with antituberculosis drug resistance have been found.
79 stance using data from the Global Project on Antituberculosis Drug Resistance Surveillance at WHO, fr
80 wana in the 1990s have recorded low rates of antituberculosis drug resistance, despite a three-fold r
81 n immunodeficiency virus (HIV) infection and antituberculosis drug resistance.
82 erase (RNAP) is the target of the first-line antituberculosis drug rifampin (Rif).
83 As a result, there is a need to identify new antituberculosis drug targets.
84          We speculate that follow-up time in antituberculosis drug trials should take reinfection int
85 m of action of isoniazid (INH), a first-line antituberculosis drug, is complex, as mutations in at le
86    Human NAT2 acetylates and inactivates the antituberculosis drug, isoniazid (INH), and is polymorph
87                  Pyrazinamide (PZA) is a key antituberculosis drug, yet no rapid susceptibility test
88 of the prodrug isoniazid (INH), a front-line antituberculosis drug.
89           Pyrazinamide (PZA) is an important antituberculosis drug.
90 ptibility of mycobacteria to this front-line antituberculosis drug.
91 ells per kg), within 4 weeks of the start of antituberculosis-drug treatment in a specialist centre i
92                    Resistance to second-line antituberculosis drugs (SLDs) severely compromises treat
93                               The search for antituberculosis drugs active against persistent bacilli
94 ther this may be due to interactions between antituberculosis drugs and antiretrovirals needs to be i
95  be considered during the development of new antituberculosis drugs and combination regimens.
96  LM could provide targets for development of antituberculosis drugs and for derivation of attenuated
97 predict resistance to first- and second-line antituberculosis drugs and validated our predictions in
98                  Although the key front-line antituberculosis drugs are effective in treating individ
99                             A range of novel antituberculosis drugs are in preclinical development, s
100 rch focused on drug development, several new antituberculosis drugs are in the pipeline, and the stan
101 tum before treatment, and all were receiving antituberculosis drugs at hospital discharge.
102 of pyrazinamide (PZA), one of the first-line antituberculosis drugs currently used.
103                                   The use of antituberculosis drugs has changed tuberculosis from a d
104 ciated with increased rates of resistance to antituberculosis drugs in both the New York City area an
105 pectively assessed resistance to second-line antituberculosis drugs in eight countries.
106 azinamide and fluoroquinolones are essential antituberculosis drugs in new rifampicin-sparing regimen
107  because resistance to bedaquiline and other antituberculosis drugs is caused by mutations within a s
108 g-drug interactions involving the first-line antituberculosis drugs is reviewed in this article, alon
109 eptibility testing (DST) for the second-line antituberculosis drugs is slow, leading to diagnostic de
110         Early bactericidal activity (EBA) of antituberculosis drugs is the rate of decrease in the co
111 Mycobacterium tuberculosis by the first-line antituberculosis drugs isoniazid (INH) and ethambutol (E
112 rculosis complex were patient treatment with antituberculosis drugs prior to testing and the presence
113 arison of the early bactericidal activity of antituberculosis drugs should be evaluated using the tim
114 ates were susceptible in vitro to all of the antituberculosis drugs tested, 11 were monoresistant to
115 has also been progress in development of new antituberculosis drugs that are active against dormant o
116 stant to at least one of the five first-line antituberculosis drugs used for treatment.
117 articipating laboratories for the first-line antituberculosis drugs used in the United States-isoniaz
118 s, while no cross-resistance to conventional antituberculosis drugs was observed.
119 s, those who started fewer than three active antituberculosis drugs were at a higher risk of tubercul
120 osure to isoniazid or ethambutol, front-line antituberculosis drugs which also target the cell envelo
121 on of efavirenz and weeks 22 (efavirenz plus antituberculosis drugs) and 50 (efavirenz alone) after i
122 t with rIFN-gamma aerosol in addition to the antituberculosis drugs, 10 of 10 patients had increased
123 rculosis health services, development of new antituberculosis drugs, adjunct therapies and vaccines,
124 rifampin (RIF) are two of the most important antituberculosis drugs, and resistance to both of these
125  disease, the metabolism and distribution of antituberculosis drugs, and the toxicity experienced.
126 s and found that tolerance developed to most antituberculosis drugs, including the newer agents moxif
127 started a regimen with at least three active antituberculosis drugs, those who started fewer than thr
128                               In the case of antituberculosis drugs, which are frequently administere
129 stablished for the majority of commonly used antituberculosis drugs, with a convenient 7H9 broth micr
130       Isoniazid is one of the most effective antituberculosis drugs, yet its precise mechanism of act
131 tb synergistically with oxidants and several antituberculosis drugs.
132 6S rRNA gene after 3 days of incubation with antituberculosis drugs.
133 ility of this important class of second-line antituberculosis drugs.
134 berculosis represents a potential target for antituberculosis drugs.
135 t during infections as well as for resisting antituberculosis drugs.
136  and influences resistance to two first-line antituberculosis drugs.
137 are important in the rapid evaluation of new antituberculosis drugs.
138 important targets for the development of new antituberculosis drugs.
139 0.75-1.5 microg/mL, comparable to first-line antituberculosis drugs.
140  treatment and promote the assessment of new antituberculosis drugs.
141 obacteria necessitate the development of new antituberculosis drugs.
142 erminants of resistance to the full range of antituberculosis drugs.
143 arget MmpL3, and their development as future antituberculosis drugs.
144 placebo concomitant with standard first-line antituberculosis drugs.
145  all conventional first-line and second-line antituberculosis drugs.
146 od for a panel of first-line and second-line antituberculosis drugs.
147 cacy would facilitate clinical trials of new antituberculosis drugs.
148 henotypic DST for first-line and second-line antituberculosis drugs.
149 ions that a DDT should answer with regard to antituberculosis drugs: What combination(s) of drugs wil
150 ended given the lower potency of second-line antituberculosis drugs; and strategies to improve treatm
151 ted a specific function of the sst1 locus in antituberculosis immunity in vivo, especially its role i
152 t NKT cells may be an important component of antituberculosis immunity.
153 otentially important implications for global antituberculosis immunization policies and future tuberc
154  and guiding experimental searches for novel antituberculosis interventions.
155 -dihydro-imidazooxazole derivative, is a new antituberculosis medication that inhibits mycolic acid s
156  may be protective against DILI while taking antituberculosis medication.
157  in which (i) specimens from patients taking antituberculosis medications are excluded from testing a
158 at host factors such as poor compliance with antituberculosis medications or decreased absorption of
159 th submicromolar IC(50) values and promising antituberculosis MIC values.
160                              Isoniazid is an antituberculosis prodrug that requires activation by the
161 ycobacterium bovis BCG, induced considerable antituberculosis protective immunity in immune-deficient
162 t to Mycobacterium bovis BCG vaccine-induced antituberculosis protective immunity.
163                              The substantial antituberculosis protective responses induced by Sin85B
164 ntrolled trial comparing a standard, 9-month antituberculosis regimen (containing rifampicin 10 mg/kg
165              We compared a standard, 9-month antituberculosis regimen (which included 10 mg of rifamp
166 th tuberculosis treated with a thrice-weekly antituberculosis regimen are at a higher risk of ARR, co
167                                          New antituberculosis regimens are urgently needed to shorten
168                  Treatment with standardized antituberculosis regimens dosed daily throughout, high u
169 e in support of selection and development of antituberculosis regimens.
170 ch needed to support equitable access to new antituberculosis regimens.
171 s indirectly on immune cells to modulate the antituberculosis response and bacterial control.
172 ntribution of CD4+ T cells to the protective antituberculosis response involves the production of Th1
173 not currently be used for blood specimens or antituberculosis susceptibility testing.
174 otics or combinations of the four first-line antituberculosis (TB) drugs.
175 , the mechanisms of action of the front-line antituberculosis therapeutic agent isoniazid (INH) remai
176  a target for structure-based development of antituberculosis therapeutics.
177  further facilitate the development of novel antituberculosis therapies are discussed.
178  per year underscore the urgent need for new antituberculosis therapies.
179 ent supplementation in children treated with antituberculosis therapy (ATT).
180                                              Antituberculosis therapy (rifampicin, isoniazid, ethambu
181 umen is still needed to decide when to start antituberculosis therapy and continued research for bett
182  a promising tool for monitoring response to antituberculosis therapy and evaluating the efficacy of
183 sociation between weight gain or loss during antituberculosis therapy and relapse has not been well s
184  three patients (nine specimens) who were on antituberculosis therapy before the study began were exc
185       There was no difference in efficacy of antituberculosis therapy delivered for either 6 months o
186 plicates combined antiretroviral therapy and antituberculosis therapy in HIV-1-coinfected tuberculosi
187  to identify clinical studies performed with antituberculosis therapy in which PK/PD data and/or para
188 ed with high morbidity and mortality even if antituberculosis therapy is administered.
189 ricidal activity during the initial phase of antituberculosis therapy is due to the depletion of Myco
190 erculosis exposure, previous active disease, antituberculosis therapy status, etc., were considered i
191 uggest the potential for host-based, adjunct antituberculosis therapy targeting lipid metabolism.
192 ed trial to compare 6 months and 9 months of antituberculosis therapy using DOTs.
193 e 6 months (n = 104) or 9 months (n = 93) of antituberculosis therapy using intermittent directly obs
194 vity in culture-negative children started on antituberculosis therapy was 2% (1-3) for expectorated o
195 s bacteraemia who were not already receiving antituberculosis therapy, 13 (45%) had an abnormal chest
196                         Before initiation of antituberculosis therapy, measures of AFB, M. tuberculos
197 nodeficiency virus and in patients receiving antituberculosis therapy.
198 components and represents a novel target for antituberculosis therapy.
199 emia; five of these patients were already on antituberculosis therapy.
200 the development of DIH in patients receiving antituberculosis therapy.
201 nduced hepatitis (DIH) in patients receiving antituberculosis therapy.
202 tify PK/PD studies that have been applied to antituberculosis therapy.
203 eased plasma efavirenz concentrations during antituberculosis therapy.
204 T on ARR among patients taking thrice-weekly antituberculosis therapy.
205 in of M. tuberculosis that could be used for antituberculosis therapy.
206                                        Early antituberculosis treatment and adjunctive treatment with
207 sis (TB) patients who move before completing antituberculosis treatment have not been described.
208 tiretroviral therapy (ART) initiation during antituberculosis treatment in co-infected patients.
209 usceptibility testing and suboptimal initial antituberculosis treatment in settings with a high preva
210 n-susceptible tuberculosis were recruited at antituberculosis treatment initiation in Khayelitsha, So
211                                    Effective antituberculosis treatment monitoring is difficult as th
212 icentre randomised clinical trial REMoxTB of antituberculosis treatment on a weekly basis (weeks 0 to
213              Shortening the interval between antituberculosis treatment onset and initiation of antir
214 ns had been collected less than 10 days into antituberculosis treatment was 60.0%.
215                                              Antituberculosis treatment was completed in 32 patients;
216 arance in patients taking both efavirenz and antituberculosis treatment was highly dependent on NAT2
217                                  Intensified antituberculosis treatment was not associated with a hig
218             We hypothesized that intensified antituberculosis treatment would enhance the killing of
219     Ocular inflammation reacted favorably to antituberculosis treatment, although only a small minori
220  the end of (6 months) and after (12 months) antituberculosis treatment, and compared to individuals
221                    After receiving empirical antituberculosis treatment, he was treated with broad-sp
222 ne were administered in addition to standard antituberculosis treatment, including rifampicin and iso
223  10 tuberculosis patients 10 +/- 2 days post-antituberculosis treatment, there was no detectable STAT
224 CrI: 82; 98) of CPTB-positive cases received antituberculosis treatment, which indicates substantial
225 was reported as unrelated to tuberculosis or antituberculosis treatment.
226  or placebo (n = 200) during intensive-phase antituberculosis treatment.
227 and 50 (efavirenz alone) after initiation of antituberculosis treatment.
228  treated with either standard or intensified antituberculosis treatment.
229  HIV infection, immunosuppressive therapies, antituberculosis treatments, and other poorly understood
230 ic that is an essential component of current antituberculosis treatments, particularly in the case of
231          Bacillus Calmette-Guerin (BCG), the antituberculosis vaccine, localizes within immature phag
232 ogression in the lungs and the efficiency of antituberculosis vaccine.
233 cellent candidate for inclusion in a subunit antituberculosis vaccine.
234                                   Hence, new antituberculosis vaccines are needed.
235  interfere with the development of effective antituberculosis vaccines.
236 employed to assess the efficacy of candidate antituberculosis vaccines.

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