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Structure of Bedaquiline
CAS No.: 843663-66-1
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The BI-3802 was designed by Boehringer Ingelheim and could be obtained free of charge through the Boehringer Ingelheim open innovation portal opnMe.com, associated with its negative control.
Bedaquiline, a diarylquinoline antibiotic that targets ATP synthase, is effective for the treatment of Mycobacterium tuberculosis infections.
Synonyms: R207910; TMC207
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Prithviraj, Malavika ; Shivangi, FNU ; Freundlich, Joel S ; Morita, Yasu S ;
Abstract: Mycobacterium smegmatis partitions its plasma membrane into two distinct regions: the inner membrane domain (IMD) and the conventional plasma membrane. IMD, enriched in the subpolar regions of actively growing rod-shaped cell, contains many membrane proteins involved in cell envelope biosynthesis. Dibucaine, a membrane fluidizer, disrupts plasma membrane integrity and de-partitions the IMD from the sub-polar regions. We do not know what governs the de-partitioning of the IMD in response to dibucaine stress. In this study, we investigated the stress response of the IMD under respiration defect. We first depleted MenG, a key enzyme in the menaquinone biosynthesis, by CRISPRi and observed that the IMD does not respond to dibucaine-induced membrane stress. CRISPRi-induced knockdown of qcrC, a gene encoding a component of an electron transport chain cytochrome, corroborated the results of menG knockdown. In contrast, neither CRISPRi knockdown of atpD, a gene encoding a component of the ATP synthase nor inhibition of ATP synthase by bedaquiline inhibited the dibucaine-induced de-partitioning of sub-polar IMD as robustly as CRISPRi knockdowns of menG and qcrC. A pretreatment with the protonophore carbonyl cyanide m-chlorophenyl hydrazone (CCCP) prevented dibucaine-induced IMD de-partitioning. Furthermore, a pretreatment with nigericin, which acts as a H+/K+ antiporter and disrupts the proton gradient without affecting membrane potential, also inhibited the IMD de-partitioning in a way similar to CCCP. Taken together, our findings suggest that membrane stress-induced IMD delocalization is not a passive lipid dispersion but an active membrane rearrangement dependent on an electrochemical gradient of proton.
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Keywords: membrane fluidity ; Mycobacterium ; plasma membrane ; proton motive force ; stress response
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Nicklas, Danielle A ; Maggioncalda, Emily C ; Story-Roller, Elizabeth ; Eichelman, Benjamin ; Tabor, Chavis ; Serio, Alisa W , et al.
Abstract: The incidence of nontuberculous mycobacterial diseases in the United States is rising and has surpassed that of tuberculosis. Most notable among the nontuber culous mycobacteria is Mycobacteroides abscessus, an emerging environmental opportunis tic pathogen capable of causing chronic infections. M. abscessus disease is difficult to treat, and the current treatment recommendations include repurposed antibiotics, several of which are associated with undesirable side effects. In this study, we have evaluated the activity of omadacycline, a new tetracycline derivative, against M. abscessus using in vitro and in vivo approaches. Omadacycline exhibited an MIC90 of 0.5 mg/mL against a panel of 32 contemporary M. abscessus clinical isolates, several of which were resistant to antibiotics that are commonly used for treatment of M. abscessus disease. Omadacycline combined with clarithromycin, azithromycin, cefdinir, rifabutin, or linezolid also exhibited synergism against several M. abscessus strains and did not exhibit antagonism when com bined with an additional nine antibiotics also commonly considered to treat M. abscessus disease. Concentration-dependent activity of omadacycline was observed in time-kill assessments. Efficacy of omadacycline was evaluated in a mouse model of lung infection against four M. abscessus strains. A dose equivalent to the 300-mg standard oral human dose was used. Compared to the untreated control group, within 4 weeks of treatment, 1 to3 log10 fewer M. abscessus CFU were observed in the lungs of mice treated with omadacycline. Treatment outcome was biphasic, with bactericidal activity observed after the first 2 weeks of treatment against all four M. abscessus strains.
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Keywords: omadacycline ; Mycobacterium abscessus ; pulmonary infection
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In vitro assessment of 17 antimicrobial agents against clinical Mycobacterium avium complex isolates
Lin, Siran ; Hua, Wenya ; Wang, Shiyong ; Zhang, Yu ; Chen, Xinchang ; Liu, Hong , et al.
Abstract: Background Recently, Mycobacterium avium complex (MAC) infections have been increasing, especially in immunocompromised and older adults. The rapid increase has triggered a global health concern due to limited therapeutic strategies and adverse effects caused by long-term medication. To provide more evidence for the treatment of MAC, we studied the in vitro inhibitory activities of 17 antimicrobial agents against clinical MAC isolates. Results A total of 111 clinical MAC isolates were enrolled in the study and they were identified as M. intracellulare, M. avium, M. marseillense, M. colombiense, M. yongonense, and two isolates could not be identified at the species level. MAC strains had relatively low (0–21.6%) resistance to clarithromycin, amikacin, bedaquiline, rifabutin, streptomycin, and clofazimine, and the resistant rates to isoniazid, rifampin, linezolid, doxycycline, and ethionamide were very high (72.1–100%). In addition, M. avium had a significantly higher resistance rate than that of M. intracellulare for ethambutol (92.3% vs 40.7%, P < 0.001), amikacin (15.4% vs 1.2%, P = 0.049), and cycloserine (69.2% vs 25.9%, P = 0.004). Conclusions Our results supported the current usage of macrolides, rifabutin, and aminoglycosides in the regimens for MAC infection, and also demonstrated the low resistance rate against new drugs, such as clofazimine, tedizolid, and bedaquiline, suggesting the possible implementation of these drugs in MAC treatment.
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Keywords: Mycobacterium avium complex (MAC) ; Drug susceptibility test ; Minimum inhibitory concentration (MIC) ; Mycobacterium intracellulare ; Mycobacterium avium
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David Fage ; Reda Brilleman ; Guillaume Deprez ; Marie-Christine Payen ; Frédéric Cotton ;
Abstract: The treatment of tuberculosis, in particular the multi-drug resistant tuberculosis, remains a challenge mainly because of the therapy duration and the pharmacokinetic variability of the drugs included in the regimen. The monitoring of antituberculosis drugs is a recent tool that could improve the outcome of patients. We developed a LC-MS/MS method allowing the simultaneous quantification of the four first-line drugs (isoniazid, rifampicin, pyrazinamide and ethambutol), a metabolite of isoniazid (acetylisoniazid) and the five main second-line drugs (rifabutin, levofloxacin, moxifloxacin, linezolid and bedaquiline). An isotopologue standard was used for each drug. The protein precipitation was performed with acetonitrile and the separation was carried out using an EC-18 column and a gradient elution. The validated ranges for each drug were adapted to monitor the plasma concentration at 2 h (peak) and 6 h to evaluate their enteric absorption. The intermediate precision (CV) and the trueness at the limit of quantification were ≤ 10.1% and ≤ 10.7%, respectively. Preliminary data were obtained for 12 patients. The results showed that 38% of the patients had infra-therapeutic levels for both rifampicin and isoniazid, that the leading cause of an impaired oral absorption seemed to be malabsorption and that the effective concentrations for rifampicin were in the lower range of the therapeutic interval.
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Keywords: Bedaquiline ; Rifampicin ; Acetylisoniazid ; Antituberculosis drugs ; Multi-drug resistant tuberculosis ; Liquid chromatography-tandem mass ; spectrometry
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Structure, Dynamics, and Therapeutic Potential of ATP Synthase
Guo, Hui ;
Abstract: Found in mitochondria, chloroplasts, and bacteria, ATP synthases are rotary enzymes that use energy from respiration to generate adenosine triphosphate (ATP). The dumbbell-shaped macromolecular complex consists of a soluble F1 motor and a membraneembedded FO motor connected by a shared central rotor. Studying the molecular mechanism of both motors and how they are coupled together to form a functional enzyme is critical for understanding bioenergetics and respiration. In this thesis, single particle electron cryomicroscopy (cryoEM) was employed to investigate the structure, dynamics, and therapeutic potential of ATP synthase. To improve cryoEM sample preparation and data storage, a grid freezing device and a movie storage file format were developed. Highresolution structures of both mitochondrial and bacterial ATP synthases demonstrate how proton translocation across the membrane via two proton half channels in the FO region drives rotation of the rotor. The dimeric mitochondrial ATP synthase structure also explains how the enzyme forms dimers, bends the mitochondrial inner membrane, and iii produces cristae—the characteristic structure of mitochondria. Structures of ATP synthase during rotary catalysis illustrate how the enzyme deforms under strain to achieve efficient coupling of the F1 and FO motors. Additionally, structures of ATP synthases bound to the tuberculosis drug bedaquiline and the antileukemia compound apoptolidin highlight the potential of ATP synthase as drug targets for treatment of bacterial infection and respiration-dependant cancer. Together, our results uncovered fundamental mechanisms that enable function of this fascinating molecular machine and explored how medicines targeting the enzyme might be harnessed to benefit human health.
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Structure of mycobacterial ATP synthase bound to the tuberculosis drug bedaquiline
Guo, Hui ; Courbon, Gautier M. ; Bueler, Stephanie A. ; Mai, Juntao ; Liu, Jun ; Rubinstein, John L.
Abstract: Tuberculosis-the world's leading cause of death by infectious disease-is increasingly resistant to current first-line antibiotics1. The bacterium Mycobacterium tuberculosis (which causes tuberculosis) can survive low-energy conditions, allowing infections to remain dormant and decreasing their susceptibility to many antibiotics2. Bedaquiline was developed in 2005 from a lead compound identified in a phenotypic screen against Mycobacterium smegmatis3. This drug can sterilize even latent M. tuberculosis infections4 and has become a cornerstone of treatment for multidrug-resistant and extensively drug-resistant tuberculosis1,5,6. Bedaquiline targets the mycobacterial ATP synthase3, which is an essential enzyme in the obligate aerobic Mycobacterium genus3,7, but how it binds the intact enzyme is unknown. Here we determined cryo-electron microscopy structures of M. smegmatis ATP synthase alone and in complex with bedaquiline. The drug-free structure suggests that hook-like extensions from the α-subunits prevent the enzyme from running in reverse, inhibiting ATP hydrolysis and preserving energy in hypoxic conditions. Bedaquiline binding induces large conformational changes in the ATP synthase, creating tight binding pockets at the interface of subunits a and c that explain the potency of this drug as an antibiotic for tuberculosis.
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Structure of mycobacterial ATP synthase with the TB drug bedaquiline
Hui Guo ; Gautier M. Courbon ; Stephanie A. Bueler ; Juntao Mai ; Jun Liu ; John L.
Abstract: Tuberculosis (TB), the leading cause of death by infectious disease worldwide, is increasingly resistant to first line antibiotics. Developed from a screen against Mycobacterium smegmatis, bedaquiline can sterilize even latent M. tuberculosis infections that may otherwise persist for decades and has become a cornerstone of treatment for multidrug resistant and extensively-drug resistant TB. Bedaquiline targets mycobacterial ATP synthase, an essential enzyme in the obligate aerobic Mycobacterium genus. However, how the drug binds the intact enzyme is unknown. We determined the structure of M. smegmatis ATP synthase with and without bedaquiline. The drug-free structure reveals hook-like extensions from the enzyme’s α subunits that inhibit ATP hydrolysis in low-energy conditions, such as during latent infections. Bedaquiline binding induces global conformational changes in ATP synthase, creating tight binding pockets at the interface of subunits a and c. These binding sites explain the drug’s structure-activity relationship and its potency as an antibiotic for TB.
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Keywords: Bedaquiline ; Sirturo ; TMC207 ; T207910 ; ATP synthase ; mycobacteria ; tuberculosis ; cryoEM ; structure
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CAS No. : | 843663-66-1 |
Formula : | C32H31BrN2O2 |
M.W : | 555.50 |
SMILES Code : | BrC1=CC=C(N=C(OC)C([C@H]([C@@](C2=CC=CC3=C2C=CC=C3)(O)CCN(C)C)C4=CC=CC=C4)=C5)C5=C1 |
Synonyms : |
R207910; TMC207
|
MDL No. : | MFCD14635354 |
InChI Key : | QUIJNHUBAXPXFS-XLJNKUFUSA-N |
Pubchem ID : | 5388906 |
GHS Pictogram: |
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Signal Word: | Danger |
Hazard Statements: | H301-H373-H410 |
Precautionary Statements: | P260-P264-P270-P273-P301+P310+P330-P314-P405-P501 |
Class: | 6.1 |
UN#: | 2811 |
Packing Group: | Ⅲ |
In Vitro:
Concentration | Treated Time | Description | References |
Mycobacterium tuberculosis mc26230 | 300x MIC50 | 1 hour | To measure ROS production, finding that BDQ and Q203 do not increase ROS production | PMC4987515 |
Mycobacterium tuberculosis H37Rv | 30x MIC50 | 16 hours | Evaluate the bactericidal effect of BTZ043 on M. tuberculosis H37Rv, showing significant killing effect within 72 hours | PMC4987515 |
Mycobacterium tuberculosis H37Rv | 2.8 –4.2 µM | 15 hours | Evaluate the bactericidal effect of BTZ043 on M. tuberculosis H37Rv, showing significant killing effect within 72 hours | PMC7799364 |
Mycobacterium bovis BCG | 0.5 –1.6 µM | 15 hours | Evaluate the effect of ND-011992 on intracellular ATP levels in the presence of Q203 | PMC7799364 |
In Vivo:
Administration | Dosage | Frequency | Description | References |
BALB/c mice | Tuberculosis infection model | Oral | 25 mg/kg | Once daily for 17 days | Evaluate the efficacy of Bedaquiline in combination with pretomanid and TBI-223 | PMC11344811 |
Mice | Latent tuberculosis infection model | Oral | 25 mg/kg | 5 days per week for 3 months | To evaluate the bactericidal and sterilizing activity of TMC207 in a latent tuberculosis infection model, results showed that TMC207 alone has significant sterilizing activity and may enable treatment of DR-LTBI in 3–4 months | PMC3208599 |
Mice | Tuberculosis infection model | Oral | 20 mg/kg/day | Once daily for 4 weeks | To evaluate the efficacy of the BPaL regimen (bedaquiline, pretomanid, linezolid) in chronically infected mice, results showed significantly enhanced bactericidal activity against the ΔcinA mutant | PMC9033802 |
Mice | TB meningitis model | Oral | 25 mg/kg/day | Once daily for six weeks | Evaluate the efficacy of the BPaL regimen in the mouse model of TB meningitis, results showed that the bactericidal activity of bedaquiline was substantially inferior to the standard TB regimen | PMC9800570 |
Mice | Chronic TB model | Oral | 25 mg/kg | 5 days per week for 4 or 8 weeks | Evaluate the efficacy of PBTZ169 in combination with BDQ and PZA | PMC3958311 |
BALB/c mice | Tuberculosis infection model | Aerosol | 12.5 and 25 mg/kg | 5 days per week for 6 weeks | Evaluation of the bactericidal activity of bedaquiline against Mycobacterium tuberculosis, showing that bedaquiline is more potent than rifampicin. | PMC9303191 |
Clinical Trial:
NCT Number | Conditions | Phases | Recruitment | Completion Date | Locations |
NCT00042289 | HIV Infections | Phase 4 | Recruiting | September 30, 2019 | - |
NCT03625739 | - | Recruiting | December 31, 2026 | China ... More >> Beijing Children's Hospital of Capital Medical University Recruiting Beijing, China Contact: Adong Shen, Master 13370115087 shenad16@hotmail.com Less << | |
NCT03237182 | Tuberculosis, Multidrug-Resist... More >>ant Less << | Phase 4 | Recruiting | December 2021 | South Africa ... More >> King Dinuzulu Hospital Recruiting Durban, Kwa-Zulu Natal, South Africa Contact: Nesri Padayatchi, MBcHB 0312604550 nesri.padayatchi@caprisa.org Contact: Resha Boodhram, BTech 0828383651 resha.boodhram@caprisa.org Less << |
NCT02409290 | MDR-TB | Phase 3 | Recruiting | December 2021 | China ... More >> Beijing Chest Hospital Not yet recruiting Beijing, China Wuhan Institute for TB control Not yet recruiting Wuhan, China Ethiopia Armauer Hanssen Research Institute Recruiting Addis Ababa, Ethiopia St. Peter's Tuberculosis Specializes Hospital Recruiting Addis Ababa, Ethiopia Georgia JSC National Center for Tuberculosis and Lung Diseases Recruiting Tbilisi, Georgia India BJ Medical College Civil Hospital Recruiting Ahmedabad, India The National Institute for Research in Tuberculosis Recruiting Chennai, India Indonesia RSUP Persahabatan Not yet recruiting Jakarta, Indonesia Moldova, Republic of Institute of Phthisiopneumology 'Chiril Draganiuc' Recruiting Chisinau, Moldova, Republic of Mongolia National Centre for Communicable Diseases Recruiting Ulaanbaatar, Mongolia South Africa King Dinizulu Hospital Recruiting Durban, South Africa Helen Joseph Hospital Recruiting Johannesburg, South Africa Sizwe Tropical Disease Hospital Active, not recruiting Johannesburg, South Africa Doris Goodwin Hospital Recruiting Pietermaritzburg, South Africa Empilweni TB Hospital Not yet recruiting Port Elizabeth, South Africa Uganda Makerere University Recruiting Kampala, Uganda Mulago National Referral Hospital Recruiting Kampala, Uganda Vietnam Pham Ngoc Thach Hospital Active, not recruiting Ho Chi Minh City, Vietnam Less << |
NCT03474198 | Tuberculosis, Pulmonary | Phase 2 Phase 3 | Recruiting | March 12, 2022 | Philippines ... More >> De La Salle Health Sciences Institute Not yet recruiting Manila, Philippines Lung Center Philippines Recruiting Manila, Philippines Philippines Tuberculosis Society Incorporated (PTSI) Not yet recruiting Manila, Philippines Tropical Disease Foundation Not yet recruiting Manila, Philippines Singapore National University Hospital Not yet recruiting Singapore, Singapore Thailand King Chulalongkorn Memorial Hospital Not yet recruiting Bangkok, Thailand Less << |
NCT02754765 | Tuberculosis, Multidrug-Resist... More >>ant Less << | Phase 3 | Recruiting | April 2021 | Georgia ... More >> National Center for Tuberculosis and Lung Diseases Recruiting Tbilisi, Georgia, 0101 Contact: Nino Kiria, MD msff-tbilisi-endtb@paris.msf.org Principal Investigator: Nana Kiria, MD Kazakhstan National Center for Tuberculosis Problems Recruiting Almaty, Kazakhstan Contact: Kanat Khazhidinov, MD kkhazhidinov@pih.org Principal Investigator: Elmira Berikova, MD Kyrgyzstan Osh Oblast Tuberculosis Hospital Not yet recruiting Osh, Kyrgyzstan Contact: Arnol Samiev, MD msfch-osh-tb@geneva.msf.org Principal Investigator: Kauk Galina Vladimirovna, MD Lesotho Partners In Health Lesostho Recruiting Maseru, Lesotho Contact: Sesomo Mohale smohale@pih.org Principal Investigator: Lawrence Oyewusi, MBBS Peru Socios En Salud Recruiting Lima, Peru Contact: Fanny Garcia Velarde fgarcia_ses@pih.org Principal Investigator: Leo Lecca, MD South Africa Medecins Sans Frontieres Belgium Recruiting Khayelitsha, South Africa, 7784 Contact: Jared Borain msfocb-khayelitsha-endtb@brussels.msf.org Principal Investigator: Sean Wasserman, MD Less << |
NCT02454205 | Tuberculosis ... More >>Multidrug Resistant Tuberculosis Extensively-drug Resistant Tuberculosis Less << | Phase 2 Phase 3 | Recruiting | January 2019 | South Africa ... More >> Brooklyn Chest Hospital Recruiting Cape Town, Western Cape, South Africa, 7441 Contact: Ali Esmail, MD 0214047654 ext 6119 a.esmail@uct.ac.za Contact: Lynelle Mottay, MD 0214046119 ext 6119 lynelle.mottay@uct.ac.za Less << |
NCT01215851 | - | Completed | - | - | |
NCT03338621 | Tuberculosis, Pulmonary ... More >> Tuberculosis, Multidrug-Resistant Tuberculosis, MDR Tuberculosis Drug-Resistant Tuberculosis Less << | Phase 2 | Recruiting | January 31, 2022 | Georgia ... More >> National Center for Tuberculosis and Lung Diseases Recruiting Tbilisi, Georgia, 0101 Contact: Marike Eristavi, MD +99 559 954 0393 ma.eristavi@gmail.com Contact: Nestan Tukvadze Less << |
NCT03259269 | - | Recruiting | September 30, 2020 | Armenia ... More >> National Treatment Centre for Tuberculosis, Abovian, Armenia Recruiting Abovyan, Armenia Contact: Naira Khachatryan, MD msff-erevan-medco@paris.msf.org Principal Investigator: Armen Hayrapetyan, MD Bangladesh National Institute of Diseases of the Chest and Hospital (NIDCH), Dhaka Recruiting Dhaka, Bangladesh Contact: Hamidah Hussain, MBBS, MSc hamidah.hussain@irdresearch.org Contact: Manzur ul-Alam, MD manzur.ulalam@irdresearch.org Belarus Republican Research and Practical Centre for Pulmonology and Tuberculosis Recruiting Minsk, Belarus, 220053 Contact: Yoseph Tassew, MD russia-medco@oca.msf.org Principal Investigator: Alena Skrahina, MD, PhD, DSc Ethiopia Bishoftu Hospital Recruiting Bishoftu, Ethiopia Contact: Andargachew Kumsa, MD AKumsa@pih.org Georgia National Center for Tuberculosis and Lung Diseases Recruiting Tbilisi, Georgia, 0101 Contact: Tinatin Kotrikadze, MD msff-tbilisi-medco@paris.msf.org Principal Investigator: Zara Avaliani, MPH, PhD Indonesia RS Islam Jakarta Cempaka Putih Not yet recruiting Jakarta, Indonesia Contact: Fauziah Asnely Putri, MD, MPH fauziah.putri@irdresearch.org Kazakhstan National Research Center for Phthisionpulmonology Recruiting Almaty, Kazakhstan, 050010 Contact: Yerkebulan Algozhin, MD ealgozhin@pih.org Principal Investigator: Elmira Berikova, MPH Kenya MSF Tuberculosis clinic, Mathare, Nairobi, Kenya Recruiting Nairobi, Kenya Contact: Stephen Wanjala, MD msff-nairobi-medco@paris.msf.org Principal Investigator: Maureen Kamene, MD, MBCHB Kyrgyzstan Kara-Suu District TB hospital Recruiting Kara-Suu, Kyrgyzstan Contact: Hayk Karakozian, MD MSFCH-Kyrgyzstan-Medco@geneva.msf.org Principal Investigator: Kadyrov Abdullaat, MD, PhD Lesotho Botshabelo Hospital Recruiting Maseru, Lesotho Contact: Kwonjune Seung, MD kjseung@pih.org Myanmar Aung San Tuberculosis Hospital Not yet recruiting Yangon, Myanmar Contact: Jarmila Kliescikova, MD myanmar-medco@oca.msf.org Principal Investigator: Si Tu Aung, MD Pakistan The Indus Hospital, Karachi Recruiting Karachi, Pakistan Contact: Rabia Mashkoor, MD rabia.mashkoor@ghd.ihn.org.pk Principal Investigator: Sana Adnan, MBBS, MSPH Institute of Chest Diseases, Kotri Recruiting Kotri, Pakistan Contact: Rabia Mashkoor, MD rabia.mashkoor@ghd.ihn.org.pk Principal Investigator: Sana Adnan, MBBS, MSPH Gulab Devi Chest Hospital, Lahore Recruiting Lahore, Pakistan Contact: Rabia Mashkoor, MD rabia.mashkoor@ghd.ihn.org.pk Principal Investigator: Sana Adnan, MBBS, MSPH Peru Socios en Salud Not yet recruiting Carabayllo, Peru Contact: Carmen Contreras, BS ccontreras_SES@pih.org Principal Investigator: Leonid Lecca, MD South Africa King Dinuzulu Hospital Recruiting Durban, South Africa Contact: Munira Khan, MBCHB munira.khan@irdresearch.org Less << | |
NCT02589782 | Tuberculosis, Multidrug-Resist... More >>ant Extensively Drug-Resistant Tuberculosis Tuberculosis, Pulmonary Less << | Phase 2 Phase 3 | Recruiting | March 2021 | Belarus ... More >> Republican Scientific and Practical Centre for Pulmonology and Tuberculosis hospital Recruiting Minsk, Belarus Contact: Animesh Sinha, MD minsk-ct-mtl@oca.msf.org Principal Investigator: Alena Skrahina, MD South Africa Doris Goodwin Hospital Recruiting Pietermaritzburg, KwaZulu Natal, South Africa Contact: Suzanne Staples s.staples@thinksa.org.za Principal Investigator: Ronelle Moodliar, MBBS, MMed Don McKenzie Hospital Not yet recruiting Durban, KwaZulu-Natal, South Africa Contact: Suzanne Staples s.staples@thinksa.org.za Principal Investigator: Ronelle Moodliar, MBBS,MMed Uzbekistan Republican TB Hospital No. 2 Recruiting Nukus, Karakalpakstan, Uzbekistan Contact: Timur Gilmanov NukusCT-crc@oca.msf.org Principal Investigator: Tigay N Zinaida, MD Sh Alimov Republican Specialised Scientific-Practical Medical Centre for Phthysiology and Pulmonology Hospital Not yet recruiting Tashkent, Uzbekistan Contact: Viktoria Prymaka Principal Investigator: Irina Liverko, MD Less << |
NCT01215851 | Pulmonary Tuberculosis | Phase 2 | Completed | - | South Africa ... More >> Centre for Tuberculosis Research Innovation, UCT Lung Institute Cape Town, South Africa, 7700 Task Applied Science, Karl Bremer Hospital Cape Town, South Africa Less << |
NCT01691534 | - | Completed | - | - | |
NCT00946842 | Healthy | Phase 1 | Completed | - | - |
NCT01691534 | Pulmonary Tuberculosis | Phase 2 | Completed | - | South Africa ... More >> Centre for Tuberculosis Research Innovation, UCT Lung Institute Cape Town, South Africa Task Applied Science, Karl Bremer Hospita Cape Town, South Africa Less << |
NCT01600963 | Multi-drug Resistant Tuberculo... More >>sis Less << | Phase 3 | Withdrawn(PhIII program revise... More >>d; TMC207-C210 cancelled) Less << | November 2022 | - |
NCT01464762 | Tuberculosis | APPROVED_FOR_MARKETING | - | Vilnius, Lithuania|Arkhangelsk... More >>, Russian Federation|Moscow, Russian Federation|Orel, Russian Federation|Saint-Petersburg, Russian Federation Less << | |
NCT01341184 | Tuberculosis | Phase 1 | Completed | - | United States, Ohio ... More >> Case Western Reserve University - Case Medical Center - Infectious Disease & HIV Medicine Cleveland, Ohio, United States, 44106-1716 Less << |
NCT01291563 | Healthy Volunteer | Phase 1 | Completed | - | - |
NCT00449644 | - | Completed | - | - | |
NCT00449644 | Tuberculosis | Phase 2 | Completed | - | Brazil ... More >> Rio De Janeiro, Brazil India Chennai, India New Delhi, India Latvia Stopinu Region, Latvia Peru Lima, Peru Philippines Quezon City, Philippines Russian Federation Moscow, Russian Federation South Africa Bethelsdorp, South Africa Cape Town, South Africa Durban, South Africa George, South Africa Klerksdorp, South Africa Sandringham, South Africa Thailand Chiang Mai, Thailand Nakhon, Thailand Nonthaburi, Thailand Less << |
NCT00828529 | Tuberculosis|HIV | PHASE1 | COMPLETED | 2025-05-09 | - |
NCT01215110 | Pulmonary Tuberculosis | Phase 2 | Completed | - | South Africa ... More >> Karl Bremer Hospital Belville, Cape Town, South Africa, 7531 Less << |
NCT00910806 | HIV Infections | Phase 1 | Completed | - | South Africa ... More >> George, South Africa Less << |
NCT01215110 | - | Completed | - | - | |
NCT00910871 | Tuberculosis | Phase 2 | Completed | - | - |
NCT02193776 | Tuberculosis | Phase 2 | Completed | - | South Africa ... More >> The Aurum Institute: Tembisa Hospital Tembisa, Gauteng, South Africa, 1632 Klerksdorp Tshepong Hospital Jouberton, Klerksdorp, South Africa, 2570 TASK Applied Science Cape Town, South Africa, 7531 University of Cape Town Lung Institute (Pty) Ltd Cape Town, South Africa, 7937 THINK: Tuberculosis & HIV Investigative Network of KwaZulu-Natal Durban, South Africa CHRU Themba Lethu Clinic Johannesburg, South Africa University of Witwatersrand, Clinical HIV Research Unit (CHRU), Helen Joseph Hospital Johannesburg, South Africa Tanzania Ifakara Health Institute Bagamoyo, Tanzania NIMR-Mbeya Medical Research Centre (MMRC) Mbeya, Tanzania Uganda Uganda Case Western Reserve University Research Collaboration Kampala, Uganda Less << |
NCT00992069 | Tuberculosis ... More >>HIV Less << | Phase 1 | Completed | - | United States, California ... More >> Ucsf Aids Crs San Francisco, California, United States, 94110 United States, Maryland Johns Hopkins Adult AIDS CRS Baltimore, Maryland, United States, 21287 United States, North Carolina Unc Aids Crs Chapel Hill, North Carolina, United States, 27514 United States, Ohio The Ohio State Univ. AIDS CRS Columbus, Ohio, United States, 43210 United States, Tennessee Vanderbilt Therapeutics CRS Nashville, Tennessee, United States, 37232-2582 Less << |
NCT01012284 | Moderate Hepatic Impairment | PHASE1 | COMPLETED | 2025-01-11 | - |
NCT03086486 | Tuberculosis, Pulmonary ... More >> Tuberculosis, Multidrug-Resistant Tuberculosis, MDR Tuberculosis Extensively Drug-Resistant Tuberculosis Pre-XDR-TB Less << | Phase 3 | Recruiting | January 2022 | Georgia ... More >> National Center for Tuberculosis and Lung Diseases Recruiting Tbilisi, Georgia, 0101 Contact: Lali Mikiashvili Principal Investigator: Lali Mikiashvili Moldova, Republic of Institute of Phthisiopneumology Chiril Draganiuc Not yet recruiting Chisinau, Moldova, Republic of, 2025 Contact: Elena Tudor, MD Principal Investigator: Elena Tudor, MD Russian Federation Central TB Research Institute of the Federal Agency of Scientific Organizations Moscow Not yet recruiting Moscow, Russian Federation, 107564 Contact: Tatevik Bagdasaryan Principal Investigator: Tatevik Bagdasaryan Research Institute of Phthisiopulmonology of I.M. Sechenov First Moscow State Medical University Not yet recruiting Moscow, Russian Federation Contact: Anastasia Samoilova Principal Investigator: Anastasia Samoilova FSBI "Saint-Petersburg Research Institute of Phthisiopulmonology" Recruiting Saint Petersburg, Russian Federation, 191036 Contact: Petr Yablonskiy, MD Principal Investigator: Petr Yablonskiy, MD Ural Research Institute of Phthisiopulmonology Not yet recruiting Yekaterinburg, Russian Federation, 620039 Contact: Sergey Skornyakov, MD Principal Investigator: Sergey Skornyakov, MD South Africa Tshepong Hospital Recruiting Klerksdorp, North - West, South Africa, 2574 Contact: Ebrahim Variava Principal Investigator: Ebrahim Variava King DinuZulu Hospital Complex Recruiting Durban, South Africa, 4015 Contact: Nosipho Ngubane Principal Investigator: Nosipho Ngubane Clinical HIV Research Unit (CHRU) Sizwe Tropical Diseases Hospital Recruiting Johannesburg, South Africa, 2131 Contact: Pauline Howell, MD Principal Investigator: Pauline Howell, MD Empilweni TB Hospital Not yet recruiting Johannesburg, South Africa, 2194 Contact: Francesca Conradie, MBBS Principal Investigator: Francesca Conradie, MBBS Less << |
NCT00910871 | - | Completed | - | - | |
NCT02583048 | Tuberculosis ... More >>HIV Infections Less << | Phase 2 | Active, not recruiting | April 27, 2020 | Peru ... More >> Barranco CRS Lima, Peru, 15063 South Africa Task Applied Science (TASK) CRS Cape Town, Western Cape Province, South Africa, 7530 South African Tuberculosis Vaccine Initiative (SATVI) CRS Cape Town, Western Cape Province, South Africa, 7705 Less << |
NCT00523926 | Tuberculosis | PHASE2 | COMPLETED | 2025-10-05 | - |
NCT02274389 | - | Active, not recruiting | December 31, 2018 | United States, North Carolina ... More >> Raleigh, North Carolina, United States Less << | |
NCT02333799 | Pulmonary Tuberculosis | Phase 3 | Active, not recruiting | October 2021 | South Africa ... More >> Task Applied Science - Brooklyn Chest Hospital Ysterplaat, Cape Town, South Africa, 7405 King DinuZulu Hospital Complex Sydenham, Durban, South Africa, 4001 Sizwe Tropical Disease Hospital Sandringham, Johannesburg, South Africa, 2131 THINK: Tuberculosis & HIV Investigative Network of KwaZulu-Natal (Durban) Pietermaritzburg, Kwazulu-Natal, South Africa, 3200 Less << |
NCT01803373 | Healthy Biolo... More >>gical Availability Less << | Phase 1 | Completed | - | Netherlands ... More >> Groningen, Netherlands Less << |
NCT02354014 | Multidrug-Resistant Tuberculos... More >>is Less << | Phase 2 | Recruiting | July 13, 2025 | India ... More >> B. J. Medical College & Civil Hospital Withdrawn Ahmedabad, India, 380 016 National Institute for Research in Tuberculosis (NIRT) Withdrawn Chennai, India, 600 031 National Institute of Tuberculosis and Respiratory Diseases (NITRD) Withdrawn New Delhi, India, 110 030 Philippines De La Salle Health Sciences Institute- DLSUMC Recruiting Dasmarinas, Philippines, 4114 Lung Center Of The Philippines Completed Quezon City, Philippines, 1100 Russian Federation First Moscow State Medical University n.a. I.M. Sechenov Recruiting Moscow, Russian Federation, 119991 South Africa THINK: Tuberculosis & HIV Investigative Network Recruiting Durban, South Africa, 4001 Less << |
NCT03032367 | Tuberculosis | Early Phase 1 | Completed | - | South Africa ... More >> TASK Clinical Research Centre Bellville, Western Cape, South Africa, 7530 Less << |
NCT03384641 | Leprosy, Multibacillary | Phase 2 | Recruiting | July 7, 2021 | Brazil ... More >> Instituto Lauro de Souza Lima Recruiting Bauru, Brazil, 17034-971 Alfredo da Matta Foundation Not yet recruiting Manaus, Brazil, 69065-130 Less << |
NCT02216331 | Tuberculosis | Phase 1 | Completed | - | United States, Nebraska ... More >> Celerion (MDS Pharma Services) Lincoln, Nebraska, United States, 68502 Less << |
NCT02906007 | Tuberculosis|HIV | PHASE1|PHASE2 | ACTIVE_NOT_RECRUITING | 2025-08-15 | Les Centres GHESKIO Clinical R... More >>esearch Site (GHESKIO-INLR) CRS, Port-au-Prince, HT-6110, Haiti|Sizwe CRS, Johannesburg, Gauteng, South Africa|PHRU Matlosana CRS, Klerksdorp, North West Province, 2574, South Africa|Desmond Tutu TB Centre - Stellenbosch University (DTTC-SU) CRS, Cape Town, Western Cape Province, 7505, South Africa Less << |
NCT02365623 | Tuberculosis, Multidrug-Resist... More >>ant Less << | Phase 2 | Active, not recruiting | September 12, 2020 | Japan ... More >> Kiyose, Japan Sakai, Japan Less << |
Bio Calculators | ||||
Preparing Stock Solutions | ![]() |
1mg | 5mg | 10mg |
1 mM 5 mM 10 mM |
1.80mL 0.36mL 0.18mL |
9.00mL 1.80mL 0.90mL |
18.00mL 3.60mL 1.80mL |