An Open-label, Single-arm Study to Provide Continued Access to Study Drug to Participants Who Have Completed Pediatric Clinical Studies Involving Gilead HIV Treatments

The goal of this clinical study is to provide continued access to the study drug(s) to children and adolescents with human immunodeficiency virus type 1 (HIV-1) who completed their participation in an applicable parent study and to monitor for adverse events.
The primary objectives of this study are as follows:
* To provide continued access to the study drug received in the parent protocol or switch to bictegravir/emtricitabine/tenofovir (B/F/TAF) for participants who completed a Gilead parent study evaluating drugs for HIV treatment.
* To evaluate the safety of the study drug(s) in participants with HIV-1.

开始日期2024-08-27

申办/合作机构

Gilead Sciences, Inc.

TCTR20211027004

/ Recruiting临床1期IIT

The phase Ib study of the use of protease inhibitor, (lopinavir/ritonavir), in combination with bortezomib and dexamethasone in multiple myeloma patients who refractory to bortezomib

开始日期2024-03-27

申办/合作机构-

100 项与洛匹那韦/利托那韦相关的临床结果

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100 项与洛匹那韦/利托那韦相关的转化医学

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100 项与洛匹那韦/利托那韦相关的专利（医药）

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1,377

项与洛匹那韦/利托那韦相关的文献（医药）

2025-01-01·TALANTA

Comparative study of two MIP-based electrochemical sensors for selective detection and quantification of the antiretroviral drug lopinavir in human serum

Article

作者: Gölcü, Ayşegül ; Erdoğan, Taner ; Cetinkaya, Ahmet ; Ozkan, Sibel A ; Al Faysal, Abdullah ; Ozkan, Sibel A.

Thermal polymerization (TP) and electropolymerization (EP) are the two methods used in this study to explore the molecular imprinting process. To detect the antiviral medication lopinavir (LPV), an inhibitor of enzyme HIV-1 protease that is co-formulated with ritonavir (RTV) to extend its half-life in the body, with greater precision, these methods were merged with an electrochemical sensor. The sensors were created on glassy carbon electrodes (GCE) based on molecularly imprinted polymers (MIP) using TP with methacrylic acid (MAA) functional monomer and EP with p-aminobenzoic acid (PABA) functional monomer. Fourier transform infrared spectroscopy (FT-IR), scanning electron microscopy (SEM), and electrochemical methods were utilized to examine the technical features of the suggested sensors. For both approaches, the necessary optimization investigations were carried out. Different LPV concentrations, ranging from 1.0 pM to 17.5 pM in drug solution and commercial human serum samples, were used to validate the analytical efficiency of the two sensors and compare their electroanalytical behaviour. For TP-LPV@MIP/GCE and EP-LPV@MIP/GCE, the corresponding limit of detection (LOD) was 2.68 × 10^-13 M (0.169 pg mL^-1) and 1.79 × 10^-13 M (0.113 pg mL^-1) in standard solutions, and 2.87 × 10^-13 M (0.180 pg mL^-1) and 2.91 × 10^-13 M (0.183 pg mL^-1) in serum samples. For the measurement of LPV in tablet form and serum samples, the proposed TP-LPV@MIP/GCE and EP-LPV@MIP/GCE sensors provide good recovery, demonstrating 99.85-101.16 % and 100.36-100.97 % recovery, respectively. The imprinting factor was utilized to demonstrate the selectivity of the suggested sensors by utilizing several anti-viral drugs that are structurally comparable to LPV. Additionally, the constructed sensors were examined for the potential impacts of interferences and the stability during the storage.

2025-01-01·BREAST CANCER RESEARCH AND TREATMENT

Risk-reducing surgeries for breast cancer in Brazilian patients undergoing multigene germline panel: impact of results on decision making

Article

作者: Teixeira, Sandra Regina Campos ; Alem, Christine Elisabete Rubio ; Cabello, Cesar ; da Silva Cabello, Ana Elisa Ribeiro ; Duarte, Bárbara Narciso

PURPOSE:

To assess the behavior change of high-risk breast cancer patients regarding the intention to undergo risk-reducing mastectomies (RRM) before and after genetic testing results and to identify the main influencing factors in decision-making.

METHODS:

Prospective cohort study conducted between November 2021 and October 2022 with women under follow-up at the high-risk outpatient clinic of the State University of Campinas (UNICAMP). Patients were referred for genetic testing, followed by counseling according to the test result.

RESULTS:

A total of 373 women were included. In the pre-genetic testing analysis, 54.1% of patients intended to undergo RRMs. After testing, 42.2% opted for the procedure. Behavior change occurred in 26.2%, mainly from "yes" to "no/don't know" (72,6%) (p < 0.001). The genetic test result was positive (LPV or PV) in 29.7% of patients. Among the 90 patients with positive results, 62 (68.9%) agreed to RRM, while 22 (24.4%) remained unwilling to accept RRM, regardless of the positive test. Significant influencing factors for behavior change pre- and post-genetic testing (in favor of surgery) in multivariate analysis were: positive genetic test result (OR 2.94, p < 0.001), personal cancer history (OR 2.7, p = 0.008), and ages between 40 and 49 years (OR 2.07, p = 0.008) and ≥ 50 years (OR 3.47, p < 0.001).

CONCLUSION:

In a Brazilian population at high-risk for breast cancer and users of the public health system, it was observed that most desired RRM, however, when genetic testing and counseling were performed, behavior change was observed, especially when the result was positive.

2024-12-06·Journal of biomolecular structure & dynamics

The binding mechanism of failed, in processing and succeed inhibitors target SARS-CoV-2 main protease

Article

作者: Wu, Tong ; Huang, Junjie ; Niu, Zhangming ; Tang, Bowen ; He, Fengming ; Wang, Xiaofeng ; Hongyu, Hu ; Chao, Ma

Since the outbreak of the severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2), several variants have caused a persistent pandemic. Consequently, it is crucial to develop new potential anti-SARS-CoV-2 drugs with specificity. To minimize potential failures and preserve valuable clinical resources for the development of other useful drugs, researchers must enhance their understanding of the interactions between drugs and SARS-CoV-2. While numerous crystal structures of the SARS-CoV-2 main protease (SCM) and its inhibitors have been reported, they provide only static snapshots and fail to capture the dynamic nature of SCM/inhibitor interactions. Herein, we conducted molecular dynamics simulations for five SCM complexes: ritonavir (SCM/RTV), lopinavir (SCM/LPV), the identified inhibitor N3 (SCM/N3), the approved inhibitor ensitrelvir (SCM/ESV), and the approved drug nirmatrelvir (SCM/NMV). Additionally, we explored the potential for covalent bond formation in the N3 and NMV inhibitors through QM/MM calculations using Umbrella sampling. The results show that the binding site is highly flexible to fit those five different inhibitors and each compound has its unique binding mode at the same binding site. Moreover, the binding affinities of positive and negative inhibitors to SCM exhibit significant differences. By gaining insights into the dynamics, we can potentially elucidate why lopinavir/ritonavir, initially considered promising, failed to effectively treat COVID-19. Furthermore, understanding the mechanistic aspects of N3 and NMV inhibition on SCM not only contributes to rational drug discovery against COVID-19 but also aids future studies on the catalytic mechanisms of main proteases in other novel coronaviruses.Communicated by Ramaswamy H. Sarma.

项与洛匹那韦/利托那韦相关的新闻（医药）

2025-02-06

·ir.darebioscience.com

Daré Bioscience Announces Funding Award Notice from the National Institutes of Health (NIH) National Institute of Allergy and Infectious Diseases (NIAID) to Support DARE-HPV Development

DARE-HPV is a potential first-in-category treatment for human papillomavirus (HPV)-related cervical disease which could change the treatment paradigm for clinical HPV management Essentially all cervical cancer cases worldwide are caused by HPV infection Up to $2 million in grant funding may be provided by NIAID to support DARE-HPV development, bringing total non-dilutive funding for DARE-HPV advancement to up to $12 million SAN DIEGO, Feb. 06, 2025 (GLOBE NEWSWIRE) -- Daré Bioscience, Inc. (NASDAQ: DARE), a leader in innovation for the health and wellbeing of women, today announced that it received a Notice of Award of a grant from the National Institute of Allergy and Infectious Diseases (NIAID), a component of the National Institutes of Health (NIH). The award will support non-clinical activities to support the development of DARE-HPV. DARE-HPV is an innovative investigational treatment for HPV-related cervical disease. Essentially all cervical cancers worldwide are caused by HPV infection, and despite the advancements in HPV screening and vaccination, an estimated 100,000 women are still treated for cervical precancer and an estimated 4,000 women still die from cervical cancer in the U.S. every year. Today, cervical precancers are monitored until they reach a late stage, since the most common treatment is a surgery which removes part of the cervix; however, the surgery is associated with an increased risk of preterm birth and sexual dysfunction and therefore is not recommended for patients with fertility concerns. “DARE-HPV has the potential to be the first FDA-approved pharmaceutical intervention that could treat both late-stage cervical lesions as well as earlier stage HPV-related cervical infections, which could change the paradigm around how HPV-related cervical diseases are clinically managed today,” said Sabrina Martucci Johnson, President and CEO of Daré Bioscience. “We are striving to transform the management of HPV-related cervical diseases with this at-home strategy to control the virus that causes cervical cancer.” In October 2024, Daré announced that it was selected to receive up to $10 million in milestone-based funding over approximately two years to support IND and Phase 2 clinical study activities for DARE-HPV. The NIAID funding award is supplemental to the previously announced $10 million award and will support non-clinical development activities that are not being conducted under that award. Daré is eligible to receive up to a total of approximately $2 million in grant funding for its DARE-HPV program based on the grant application it submitted. A grant in the amount of $1 million has been awarded for the 2025 project year, and another $1 million has been recommended for a subsequent project year, subject to the availability of funds and satisfactory progress of the project, as determined by NIAID. The content of this press release is solely the responsibility of Daré Bioscience, Inc. and does not necessarily represent the official views of the National Institutes of Health. This press release discusses a project that will be supported by the National Institute of Allergy and Infectious Diseases under Award Number 1R44AI188623-01. About HPV-Related Cervical Diseases and DARE-HPV Human papillomavirus (HPV) is the most common sexually transmitted infection in the United States. Essentially all cervical cancers worldwide are caused by infection with one of 14 carcinogenic, or “high-risk” HPV types (hrHPV). While some HPV infections are transient, persistent hrHPV infection can progress to cervical cancer through the persistence and progression of cervical lesions. DARE-HPV is an investigational, proprietary fixed-dose formulation of lopinavir and ritonavir in a soft gel vaginal insert with the potential to be a first-in-category treatment for HPV-related cervical diseases. There currently are no U.S. Food and Drug Administration (FDA)-approved, non-surgical pharmaceutical interventions to treat high-grade cervical lesions (also called high-grade squamous intraepithelial lesions (HSIL) or high-grade cervical intraepithelial neoplasia (CIN 2/3)) and no FDA-approved treatments for HPV infection. DARE-HPV has the potential to be the first FDA-approved pharmaceutical intervention for the treatment of CIN and other HPV-related cervical pathologies. Activities are underway to support an investigational new drug (IND) application to the FDA to enable progression of DARE-HPV to Phase 2 clinical development in the U.S. In the U.S., about 10% of women with HPV infection on their cervix will develop long-lasting HPV infections that put them at risk for cervical cancer. The American Cancer Society estimates that approximately 13,820 new cases of invasive cervical cancer will be diagnosed and more than 4,000 women will die from the disease in the U.S. in 2024. Additionally, each year in the U.S., an estimated 100,000 people are treated for cervical precancer, of which approximately 74% are between the ages of 18–39 years, during prime childbearing and childrearing years. About Daré Bioscience Daré Bioscience is a biopharmaceutical company committed to advancing innovative products for women’s health. The company’s mission is to identify, develop and bring to market a diverse portfolio of differentiated therapies that prioritize women's health and well-being, expand treatment options, and improve outcomes, primarily in the areas of contraception, sexual health, pelvic pain, fertility, infectious diseases, and menopause. The first FDA-approved product to emerge from Daré’s portfolio of women’s health product candidates is XACIATO™ (clindamycin phosphate) vaginal gel 2%, a lincosamide antibacterial indicated for the treatment of bacterial vaginosis in female patients 12 years of age and older, which is under a global license agreement with Organon. Visit www.xaciato.com for information about XACIATO. Daré’s portfolio also includes potential first-in-category candidates in clinical development: Ovaprene®, a novel, hormone-free monthly intravaginal contraceptive whose U.S. commercial rights are under a license agreement with Bayer; Sildenafil Cream, 3.6%, a novel cream formulation of sildenafil, the active ingredient in Viagra®, to treat female sexual arousal disorder (FSAD); and DARE-HRT1, a combination bio-identical estradiol and progesterone intravaginal ring for menopausal hormone therapy. To learn more about Daré’s full portfolio of women’s health product candidates and mission to deliver differentiated therapies for women, please visit www.darebioscience.com. Daré Bioscience leadership has been named on the Medicine Maker’s Power List and Endpoints News’ Women in Biopharma 2022. In 2023, Daré's CEO was honored as one of Fierce Pharma’s Most Influential People in Biopharma for Daré’s contributions to innovation and advocacy in the women’s health space. Daré Bioscience placed #1 in the Small Company category of the San Diego Business Journal’s 2023 Best Places to Work Awards. Daré may announce material information about its finances, product and product candidates, clinical trials and other matters using the Investors section of its website (http://ir.darebioscience.com), SEC filings, press releases, public conference calls and webcasts. Daré will use these channels to distribute material information about the company and may also use social media to communicate important information about the company, its finances, product and product candidates, clinical trials and other matters. The information Daré posts on its investor relations website or through social media channels may be deemed to be material information. Daré encourages investors, the media, and others interested in the company to review the information Daré posts in the Investors section of its website and to follow these X (formerly Twitter) accounts: @SabrinaDareCEO and @DareBioscience. Any updates to the list of social media channels the company may use to communicate information will be posted in the Investors section of Daré’s website. Forward-Looking Statements Daré cautions you that all statements, other than statements of historical facts, contained in this press release, are forward-looking statements. Forward-looking statements, in some cases, can be identified by terms such as “believe,” “may,” “will,” “estimate,” “continue,” “anticipate,” “design,” “intend,” “expect,” “could,” “plan,” “potential,” “predict,” “seek,” “should,” “would,” “contemplate,” “project,” “target,” “objective,” or the negative version of these words and similar expressions. In this press release, forward-looking statements include, but are not limited to, statements relating to Daré’s expectation that it will receive $10 million in federal funding under the award announced in October 2024, the potential for up to $2 million in grant funding from NIAID, Daré’s development plans for DARE-HPV, including potential timing of a Phase 2 clinical study, DARE-HPV’s potential as a safe and effective treatment for HPV-related cervical diseases, the potential for DARE-HPV to be the first FDA-approved pharmaceutical intervention for treatment of both late-stage cervical lesions as well as earlier stage HPV-related cervical infections, and the potential market opportunity for DARE-HPV, if approved. As used in this press release, the description of a product candidate as “first-in-category” is a forward-looking statement relating to the potential of the candidate to represent a new category of product if it were to receive marketing approval for the indication for which Daré is developing it. Forward-looking statements involve known and unknown risks, uncertainties and other factors that may cause Daré’s actual results, performance or achievements to be materially different from future results, performance or achievements expressed or implied by the forward-looking statements in this press release, including, without limitation, risks and uncertainties related to: changes in U.S. federal government policies and budget decisions under the new presidential administration and Congress; executive actions or directives to federal agencies that temporarily freeze or permanently halt funding awards or programs; the effects of the freeze on external communications applicable to all federal health agencies within the U.S. Department of Health and Human Services, including the NIH and FDA, implemented on January 21, 2025; the potential effects of a federal funding freeze directed by a memo issued by the U.S. Office of Management and Budget on January 27, 2025; Daré’s ability to conduct the product development activities and achieve the product development and other milestones required for it to receive payments under its U.S. federal government-funded awards; the risk that anticipated federal government funding for DARE-HPV development will not be paid pursuant to an issued notice of award or subaward agreement as a result of federal government policy changes or budget decisions; Daré’s ability to raise additional capital when and as needed to advance its product candidates, execute its business strategy and continue as a going concern; the inherent uncertainty to outcomes of clinical trials of drug products; Daré’s ability to develop, obtain FDA or foreign regulatory approval for, and commercialize its product candidates and to do so on communicated timelines; failure or delay in starting, conducting and completing clinical trials of a product candidate; Daré’s ability to design and conduct successful clinical trials, to enroll a sufficient number of patients, to meet established clinical endpoints, to avoid undesirable side effects and other safety concerns, and to demonstrate sufficient safety and efficacy of its product candidates; Daré’s dependence on third parties to conduct clinical trials and manufacture and supply clinical trial material and commercial product; the risk that positive findings in early clinical and/or nonclinical studies of a product candidate may not be predictive of success in subsequent clinical and/or nonclinical studies of that candidate; the risk that development of a product candidate requires more clinical or nonclinical studies than Daré anticipates; the loss of, or inability to attract, key personnel; the effects of macroeconomic conditions, geopolitical events, public health emergencies, and major disruptions in government operations on Daré’s operations, financial results and condition, and ability to achieve current plans and objectives; the risk that developments by competitors make Daré’s product or product candidates less competitive or obsolete; difficulties establishing and sustaining relationships with development and/or commercial collaborators; failure of Daré’s product or product candidates, if approved, to gain market acceptance or obtain adequate coverage or reimbursement from third-party payers; Daré’s ability to retain its licensed rights to develop and commercialize a product or product candidate; Daré’s ability to satisfy the monetary obligations and other requirements in connection with its exclusive, in-license agreements covering the critical patents and related intellectual property related to its product and product candidates; Daré’s ability to adequately protect or enforce its, or its licensor’s, intellectual property rights; the lack of patent protection for the active ingredients in certain of Daré’s product candidates which could expose its products to competition from other formulations using the same active ingredients; product liability claims; governmental investigations or actions relating to Daré’s product or product candidates or the business activities of Daré, its commercial collaborators or other third parties on which Daré relies; the impact of pharmaceutical industry regulation and health care legislation in the United States and internationally; global trends toward health care cost containment; cybersecurity incidents or similar events that compromise Daré’s technology systems or those of third parties on which it relies and/or significantly disrupt Daré’s business; and disputes or other developments concerning Daré’s intellectual property rights. Daré’s forward-looking statements are based upon its current expectations and involve assumptions that may never materialize or may prove to be incorrect. All forward-looking statements are expressly qualified in their entirety by these cautionary statements. For a detailed description of Daré’s risks and uncertainties, you are encouraged to review its documents filed with the SEC including Daré’s recent filings on Form 8-K, Form 10-K and Form 10-Q. You are cautioned not to place undue reliance on forward-looking statements, which speak only as of the date on which they were made. Daré undertakes no obligation to update such statements to reflect events that occur or circumstances that exist after the date on which they were made, except as required by law. Contacts: Daré Bioscience Investor Relations innovations@darebioscience.com Source: Daré Bioscience, Inc. Source: Daré Bioscience, Inc.

引进/卖出上市批准临床2期

2024-09-20

·药闻康策

收藏！前九批国采品种可替代药品汇总

☝ 点击上方一键预约 ☝ 最新最热的医药健康新闻政策前九批国家组织药品集中采购品种可替代药品参考监测范围第一批国家组织药品集中采购中选品种监测范围序号集采品种完全可替代大部分可替代一定程度上可替代 1 阿托伐他汀钙口服常释剂型 ★辛伐他汀、★匹伐他汀、普伐他汀、氟伐他汀、洛伐他汀 ★瑞舒伐他汀 2 瑞舒伐他汀钙口服常释剂型 ★辛伐他汀、★匹伐他汀、普伐他汀、氟伐他汀、洛伐他汀 ★阿托伐他汀 3 氯吡格雷口服常释剂型噻氯匹定 ★替格瑞洛 4 厄贝沙坦口服常释剂型 ★奥美沙坦酯、★坎地沙坦酯、★缬沙坦、★替米沙坦、 ★氯沙坦、阿利沙坦酯、阿齐沙坦、美阿沙坦 ★赖诺普利、★贝那普利、★依那普利、 ★培哚普利、雷米普利、喹那普利、咪达普利 5 氨氯地平口服常释剂型 ★左氨氯地平 ★硝苯地平、★非洛地平、拉西地平、尼群地平、贝尼地平、西尼地平、马尼地平、尼卡地平、★乐卡地平 6 恩替卡韦口服常释剂型拉米夫定、★阿德福韦酯、替比夫定 ★替诺福韦二吡呋酯、★丙酚替诺福韦、艾米替诺福韦 7 艾司西酞普兰口服常释剂型 ★西酞普兰多塞平、氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀 ★氟西汀、★帕罗西汀、伏硫西汀、 ★度洛西汀、★舍曲林、氟伏沙明、安非他酮、曲唑酮、★文拉法辛、米那普仑、★米氮平、阿戈美拉汀、阿米替林、圣约翰草提取物 8 帕罗西汀口服常释剂型多塞平、氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀 ★西酞普兰、★艾司西酞普兰、 ★氟西汀、伏硫西汀、★度洛西汀、 ★舍曲林、氟伏沙明、安非他酮、曲唑酮、★文拉法辛、米那普仑、 ★米氮平、阿戈美拉汀、阿米替林、圣约翰草提取物 9 奥氮平口服常释剂型三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★氨磺必利、★阿立哌唑、★利培酮、帕利哌酮、★氯氮平、★喹硫平、布南色林、★鲁拉西酮、齐拉西酮、舒必利、氯丙嗪、氟哌啶醇、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 10 头孢呋辛酯口服常释剂型 ★头孢克洛、★头孢丙烯 ★头孢拉定、★头孢氨苄、头孢羟氨苄、 ★头孢克肟、★头孢地尼、头孢他美酯、头孢妥仑匹酯、头孢泊肟酯 11 利培酮口服常释剂型三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★氨磺必利、★阿立哌唑、★奥氮平、帕利哌酮、★氯氮平、★喹硫平、布南色林、★鲁拉西酮、齐拉西酮、舒必利、氯丙嗪、氟哌啶醇、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 12 吉非替尼口服常释剂型埃克替尼、★厄洛替尼 ★阿法替尼、达可替尼、奥希替尼、伏美替尼、阿美替尼 13 福辛普利口服常释剂型 ★赖诺普利、★贝那普利、 ★依那普利、★培哚普利、雷米普利、喹那普利、咪达普利 ★奥美沙坦酯、★坎地沙坦酯、 ★缬沙坦、★替米沙坦、★氯沙坦、阿利沙坦酯、阿齐沙坦、美阿沙坦 14 厄贝沙坦氢氯噻嗪口服常释剂型奥美沙坦酯氢氯噻嗪、 ★氯沙坦氢氯噻嗪、替米沙坦氢氯噻嗪、 ★缬沙坦氢氯噻嗪、坎地氢噻 15 赖诺普利口服常释剂型 ★贝那普利、★依那普利、 ★培哚普利、雷米普利、喹那普利、咪达普利 ★福辛普利 16 替诺福韦二吡呋酯口服常释剂型拉米夫定、★阿德福韦酯、替比夫定 ★丙酚替诺福韦、艾米替诺福韦 ★恩替卡韦 17 氯沙坦口服常释剂型阿齐沙坦、美阿沙坦、 ★奥美沙坦酯、★坎地沙坦酯、 ★缬沙坦、★替米沙坦、 ★厄贝沙坦、阿利沙坦酯 ★赖诺普利、★贝那普利、★依那普利、 ★培哚普利、雷米普利、喹那普利、咪达普利 18 依那普利口服常释剂型 ★贝那普利、★赖诺普利、 ★培哚普利、雷米普利、喹那普利、咪达普利 ★福辛普利、★奥美沙坦酯、★缬沙坦、 ★坎地沙坦酯、★替米沙坦、★氯沙坦、阿利沙坦酯、阿齐沙坦、美阿沙坦 19 左乙拉西坦口服常释剂型奥卡西平、丙戊酸镁、丙戊酸钠、卡马西平、拉莫三嗪、托吡酯 20 伊马替尼口服常释剂型氟马替尼尼洛替尼、达沙替尼 21 孟鲁司特口服常释剂型普仑司特、扎鲁司特 22 蒙脱石口服散剂 23 培美曲塞注射剂 24 氟比洛芬酯注射剂双氯芬酸、★布洛芬、★帕瑞昔布、吡罗昔康、★酮咯酸氨丁三醇 25 右美托咪定注射剂第二批国家组织药品集中采购中选品种监测范围序号集采品种完全可替代大部分可替代一定程度上可替代 1 阿比特龙口服常释剂型氟他胺、★比卡鲁胺、恩扎卢胺 2 阿德福韦酯口服常释剂型拉米夫定、替比夫定 ★替诺福韦二吡呋酯、★丙酚替诺福韦、艾米替诺福韦、★恩替卡韦 3 阿卡波糖口服常释剂型伏格列波糖、★米格列醇 4 阿莫西林口服常释剂型青霉素V、氨苄西林、苯唑西林、氯唑西林 5 阿奇霉素口服常释剂型红霉素、琥乙红霉素、环酯红霉素、★罗红霉素地红霉素、泰利霉素、依托红霉、 ★克拉霉素 6 安立生坦片波生坦马昔腾坦、利奥西呱 7 奥美沙坦酯口服常释剂型 ★氯沙坦、阿利沙坦酯 ★坎地沙坦酯、★缬沙坦、★替米沙坦、★厄贝沙坦、阿齐沙坦、美阿沙坦 ★福辛普利、★贝那普利、★赖诺普利、 ★培哚普利、雷米普利、喹那普利、咪达普利 8 比索洛尔口服常释剂型 ★美托洛尔、卡维地洛、贝凡洛尔、阿罗洛尔、塞利洛尔阿替洛尔、★普萘洛尔、尼群洛尔 9 对乙酰氨基酚口服常释剂型 ★布洛芬、萘普生双氯芬酸、★洛索洛芬、★美洛昔康、 ★依托考昔、★塞来昔布、艾瑞昔布 10 多奈哌齐口服常释剂型加兰他敏、卡巴拉汀、★美金刚 11 氟康唑口服常释剂型 ★伏立康唑、伊曲康唑、泊沙康唑、艾沙康唑 12 福多司坦口服常释剂型羧甲司坦、乙酰半胱氨酸厄多司坦、美司坦、★氨溴索、 ★溴己新、桉柠蒎 13 格列美脲口服常释剂型格列本脲 ★格列齐特格列喹酮、★格列吡嗪 14 甲硝唑口服常释剂型 ★替硝唑、★奥硝唑、塞克硝唑左奥硝唑 15 聚乙二醇口服散剂复方聚乙二醇电解质Ⅰ、复方聚乙二醇电解质Ⅱ、复方聚乙二醇电解质Ⅲ、复方聚乙二醇电解质Ⅳ、硫酸镁、乳果糖 16 坎地沙坦酯口服常释剂型 ★氯沙坦、阿利沙坦酯阿齐沙坦、美阿沙坦、 ★奥美沙坦酯、★缬沙坦、 ★替米沙坦、 ★厄贝沙坦、阿齐沙坦酯 ★福辛普利、★贝那普利、★赖诺普利、 ★培哚普利、雷米普利、喹那普利、咪达普利 17 克林霉素口服常释剂型克林霉素棕榈酸酯、克林霉素磷酸酯、林可霉素 18 铝碳酸镁咀嚼片铝镁加磷酸铝凝胶、复方氢氧化铝 19 美洛昔康口服常释剂型吡罗昔康氯诺昔康、★塞来昔布、★依托考昔、艾瑞昔布、双氯芬酸、★洛索洛芬 20 莫西沙星口服常释剂型吡哌酸、氧氟沙星、 ★诺氟沙星 ★左氧氟沙星、 ★环丙沙星、洛美沙星、氟罗沙星、司帕沙星吉米沙星、奈诺沙星、加诺沙星、安妥沙星 21 曲美他嗪缓释控释剂型 22 索利那新口服常释剂型托特罗定、奥昔布宁 23 他达拉非片 ★西地那非、伐地那非 24 特拉唑嗪口服常释剂型阿夫唑嗪、多沙唑嗪 ★坦索罗辛、赛洛多辛 25 替吉奥口服常释剂型氟尿嘧啶替加氟、★卡培他滨、曲氟尿苷替匹嘧啶 26 头孢氨苄口服常释剂型 ★头孢拉定、头孢羟氨苄 ★头孢呋辛酯、★头孢克洛、★头孢丙烯、★头孢克肟、★头孢地尼、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 27 头孢拉定口服常释剂型 ★头孢氨苄、头孢羟氨苄 ★头孢呋辛酯、★头孢克洛、★头孢丙烯、★头孢地尼、头孢妥仑匹酯、★头孢克肟、头孢泊肟酯、头孢他美酯 28 辛伐他汀口服常释剂型 ★匹伐他汀、普伐他汀、氟伐他汀、洛伐他汀 ★瑞舒伐他汀、★阿托伐他汀 29 异烟肼口服常释剂型 30 吲达帕胺口服常释剂型氢氯噻嗪、★呋塞米、 ★托拉塞米美托拉宗、螺内酯、阿米洛利、布美他尼 31 注射用紫杉醇（白蛋白结合型）紫杉醇脂质体、 ★紫杉醇 ★多西他赛 32 左西替利嗪口服常释剂型赛庚啶、氯苯那敏、 ★西替利嗪苯海拉明、★异丙嗪、★氯雷他定、 ★地氯雷他定、卢帕他定、★奥洛他定、非索非那定、阿伐斯汀、咪唑斯汀、 ★依巴斯汀、★贝他斯汀、依美斯汀第三批国家组织药品集中采购中选品种监测范围序号集采品种完全可替代大部分可替代一定程度上可替代 1 阿那曲唑口服常释剂型 ★来曲唑、依西美坦 2 阿哌沙班口服常释剂型华法林 ★利伐沙班、艾多沙班、★达比加群酯 3 阿扎胞苷注射剂 4 氨基葡萄糖口服常释剂型 5 氨溴索口服常释剂型羧甲司坦、乙酰半胱氨酸 ★福多司坦、厄多司坦、美司坦、 ★溴己新、桉柠蒎 6 奥氮平口腔崩解片三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★氨磺必利、★阿立哌唑、★利培酮、帕利哌酮、★氯氮平、★喹硫平、布南色林、 ★鲁拉西酮、齐拉西酮、舒必利、氯丙嗪、氟哌啶醇、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 7 奥美拉唑口服常释剂型 ★艾司奥美拉唑 ★泮托拉唑、兰索拉唑、雷贝拉唑、艾普拉唑 8 布洛芬缓释控释剂型右布洛芬、萘普生 ★对乙酰氨基酚、★美洛昔康、双氯芬酸、 ★塞来昔布、★依托考昔、芬布芬、洛索洛芬 9 布洛芬颗粒剂右布洛芬、萘普生 ★对乙酰氨基酚、★美洛昔康、双氯芬酸、 ★塞来昔布、★依托考昔、芬布芬、洛索洛芬 10 地氯雷他定口服常释剂型赛庚啶、氯苯那敏、 ★氯雷他定 ★异丙嗪、苯海拉明、非索非那定、卢帕他定、★奥洛他定、★西替利嗪、 ★左西替利嗪、阿伐斯汀、咪唑斯汀、 ★依巴斯汀、★贝他斯汀、依美斯汀 11 多潘立酮口服常释剂型 ★莫沙必利、氯波必利、伊托必利 12 二甲双胍缓释控释剂型苯乙双胍二甲双胍常释制剂 13 二甲双胍口服常释剂型苯乙双胍二甲双胍缓释控释剂型 14 非布司他口服常释剂型别嘌醇、苯溴马隆 15 非那雄胺口服常释剂型（5mg）爱普列特 ★度他雄胺 16 非那雄胺口服常释剂型（1mg） 17 氟西汀口服常释剂型多塞平、氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀 ★西酞普兰、★艾司西酞普兰、★帕罗西汀、伏硫西汀、★度洛西汀、★舍曲林、氟伏沙明、安非他酮、曲唑酮、★文拉法辛、米那普仑、★米氮平、阿戈美拉汀、阿米替林、圣约翰草提取物 18 枸橼酸西地那非片 ★他达拉非、伐地那非 19 甲钴胺口服常释剂型维生素B12、腺苷钴胺 20 卡培他滨口服常释剂型氟尿嘧啶替加氟、★替吉奥、曲氟尿苷替匹嘧啶 21 卡托普利口服常释剂型 ★福辛普利、★赖诺普利、★培哚普利、 ★依那普利、雷米普利、喹那普利、 ★贝那普利、咪达普利 22 喹硫平口服常释剂型三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★奥氮平、★利培酮、帕利哌酮、★阿立哌唑、★氨磺必利、布南色林、★鲁拉西酮、齐拉西酮、舒必利、氟哌啶醇、氯丙嗪、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 23 来曲唑口服常释剂型 ★阿那曲唑、依西美坦 24 氯氮平口服常释剂型三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★奥氮平、★利培酮、帕利哌酮、 ★阿立哌唑、★氨磺必利、★喹硫平、布南色林、★鲁拉西酮、齐拉西酮、舒必利、氟哌啶醇、氯丙嗪、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 25 美金刚口服常释剂型 ★多奈哌齐、利斯的明、加兰他敏、卡巴拉汀、丁苯酞、甘露特钠 26 孟鲁司特咀嚼片普仑司特、扎鲁司特 27 孟鲁司特颗粒剂普仑司特、扎鲁司特 28 匹伐他汀口服常释剂型 ★辛伐他汀普伐他汀、氟伐他汀、洛伐他汀、 ★阿托伐他汀、★瑞舒伐他汀 29 普芦卡必利口服常释剂型 30 曲美他嗪口服常释剂型 31 塞来昔布口服常释剂型艾瑞昔布 ★依托考昔、芬布芬、右布洛芬、★布洛芬、洛索洛芬 32 舍曲林口服常释剂型多塞平、氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀 ★西酞普兰、★艾司西酞普兰、★氟西汀、 ★帕罗西汀、伏硫西汀、★度洛西汀、氟伏沙明、安非他酮、曲唑酮、★文拉法辛、米那普仑、★米氮平、阿戈美拉汀、阿米替林、圣约翰草提取物 33 坦洛新（坦索罗辛）缓释控释剂型 ★特拉唑嗪、阿夫唑嗪、多沙唑嗪、赛洛多辛 34 碳酸氢钠口服常释剂型 35 替格瑞洛口服常释剂型噻氯匹啶 ★氯吡格雷 36 托法替布口服常释剂型巴瑞替尼、乌帕替尼 37 维格列汀口服常释剂型 ★沙格列汀、西格列汀、阿格列汀、利格列汀 38 维生素B6口服常释剂型 39 西酞普兰口服常释剂型 ★艾司西酞普兰、多塞平、氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀 ★氟西汀、★帕罗西汀、伏硫西汀、 ★度洛西汀、★舍曲林、氟伏沙明、安非他酮、曲唑酮、★文拉法辛、米那普仑、★米氮平、阿戈美拉汀、阿米替林、圣约翰草提取物 40 西替利嗪口服常释剂型赛庚啶、氯苯那敏 ★左西替利嗪苯海拉明、★异丙嗪、★氯雷他定、 ★地氯雷他定、非索非那定、卢帕他定、 ★奥洛他定、阿伐斯汀、咪唑斯汀、 ★依巴斯汀、★贝他斯汀、依美斯汀 41 缬沙坦口服常释剂型 ★氯沙坦、阿利沙坦酯坎地沙坦、依普沙坦、★厄贝沙坦 ★奥美沙坦、★替米沙坦、阿齐沙坦、美阿沙坦 42 盐酸达泊西汀片 43 依托考昔口服常释剂型艾瑞昔布 ★塞来昔布、芬布芬、右布洛芬 44 乙胺丁醇口服常释剂型氨硫脲、对氨基水杨酸 45 右佐匹克隆口服常释剂型佐匹克隆唑吡坦、扎来普隆、艾司唑仑 46 左乙拉西坦口服液体剂奥卡西平、丙戊酸镁、丙戊酸钠、卡马西平、拉莫三嗪、托吡酯 47 左乙拉西坦注射用浓溶液苯巴比妥、丙戊酸钠 48 阿莫西林颗粒剂青霉素V、氨苄西林苯唑西林、氯唑西林 49 利奈唑胺口服常释剂型康替唑胺 50 莫西沙星氯化钠注射剂氧氟沙星、诺氟沙星环丙沙星、★左氧氟沙星、洛美沙星、帕珠沙星、依诺沙星、培氟沙星、氟罗沙星、加替沙星奈诺沙星 51 左氧氟沙星滴眼剂诺氟沙星滴眼液、氧氟沙星滴眼液、洛美沙星滴眼液、环丙沙星滴眼液 ★莫西沙星滴眼液、加替沙星滴眼液 52 环丙沙星口服常释剂型吡哌酸、 ★诺氟沙星 ★莫西沙星、奈诺沙星、加诺沙星、西他沙星、依诺沙星、培氟沙星、氟罗沙星、氧氟沙星、★左氧氟沙星、洛美沙星、司帕沙星、加替沙星、吉米沙星、安妥沙星 53 头孢地尼口服常释剂型 ★头孢克肟、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 ★头孢呋辛酯、★头孢克洛、★头孢丙烯 54 头孢克洛口服常释剂型 ★头孢呋辛酯、★头孢丙烯 ★头孢拉定、★头孢氨苄、头孢羟氨苄、 ★头孢克肟、★头孢地尼、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 55 克拉霉素口服常释剂型红霉素、琥乙红霉素、环酯红霉素、依托红霉素、★罗红霉素 ★阿奇霉素、地红霉素、泰利霉素第四批国家组织药品集中采购中选品种监测范围序号集采品种完全可替代大部分可替代一定程度上可替代 1 恩曲他滨替诺福韦口服常释剂型齐多夫定、司他夫定、阿巴卡韦、替诺福韦、奈韦拉平、依非韦伦、茚地那韦、利托那韦、洛匹那韦利托那韦、达芦那韦考比司他、拉替拉韦、多替拉韦 2 多索茶碱注射剂氨茶碱二羟丙茶碱 3 氨溴索注射剂乙酰半胱氨酸、★溴己新 4 沙丁胺醇吸入剂左沙丁胺醇、★特布他林 5 氨磺必利口服常释剂型三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★奥氮平、★利培酮、帕利哌酮、 ★氯氮平、★阿立哌唑、★喹硫平、布南色林、★鲁拉西酮、齐拉西酮、舒必利、氟哌啶醇、氯丙嗪、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 6 度洛西汀口服常释剂型多塞平、氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀 ★西酞普兰、★艾司西酞普兰、 ★氟西汀、★帕罗西汀、伏硫西汀、 ★舍曲林、氟伏沙明、安非他酮、曲唑酮、★文拉法辛、米那普仑、 ★米氮平、阿戈美拉汀、阿米替林、圣约翰草提取物 7 喹硫平缓释控释剂型三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★氨磺必利、★奥氮平、★利培酮、帕利哌酮、★阿立哌唑、布南色林、 ★鲁拉西酮、齐拉西酮、舒必利、氟哌啶醇、氯丙嗪、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 8 吡嗪酰胺口服常释剂型 9 诺氟沙星口服常释剂型部分喹诺酮、小檗碱 10 头孢丙烯口服常释剂型 ★头孢呋辛酯、★头孢克洛 ★头孢拉定、★头孢氨苄、头孢羟氨苄、★头孢地尼、★头孢克肟、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 11 左氧氟沙星口服常释剂型吡哌酸、氧氟沙星、 ★诺氟沙星 ★环丙沙星、洛美沙星、依诺沙星、培氟沙星、氟罗沙星、司帕沙星、加替沙星、吉米沙星、安妥沙星 ★莫西沙星、奈诺沙星、加诺沙星、西他沙星 12 伏立康唑口服常释剂型 ★氟康唑、伊曲康唑、泊沙康唑、艾沙康唑 13 特比萘芬口服常释剂型 14 丙泊酚中/长链脂肪乳注射剂丙泊酚美索比妥、羟丁酸钠、氯胺酮、依托咪酯、咪达唑仑、艾司氯胺酮 15 氯雷他定口服常释剂型赛庚啶、氯苯那敏苯海拉明、★异丙嗪、★地氯雷他定、 ★奥洛他定、卢帕他定、非索非那定、 ★左西替利嗪、★西替利嗪、阿伐斯汀、咪唑斯汀、★依巴斯汀、★贝他斯汀、比拉斯汀 16 恩格列净口服常释剂型达格列净、★卡格列净、艾托格列净 17 卡格列净口服常释剂型达格列净、★恩格列净、艾托格列净 18 格列齐特缓释控释剂型 ★格列美脲、格列本脲、消渴丸格列喹酮、★格列吡嗪 19 那格列奈口服常释剂型米格列奈、★瑞格列奈 20 瑞格列奈口服常释剂型米格列奈、★那格列奈 21 羟苯磺酸钙口服常释剂型 22 普拉克索缓释控释剂型苯海索、金刚烷胺、多巴丝肼、左旋多巴、卡左双多巴、司来吉兰、恩他卡朋、雷沙吉兰 23 普拉克索口服常释剂型苯海索、金刚烷胺、多巴丝肼、左旋多巴、卡左双多巴、司来吉兰、恩他卡朋、雷沙吉兰 24 加巴喷丁口服常释剂型 ★普瑞巴林、卡马西平 25 布洛芬口服常释剂型右布洛芬、芬布芬萘普生、★美洛昔康、双氯芬酸、★塞来昔布、★依托考昔、 ★洛索洛芬、氟比洛芬、艾瑞昔布 ★对乙酰氨基酚 26 布洛芬注射剂 ★帕瑞昔布、★氟比洛芬酯 27 洛索洛芬口服常释剂型 ★布洛芬萘普生、★美洛昔康、双氯芬酸、★塞来昔布、★依托考昔、氟比洛芬、艾瑞昔布 ★对乙酰氨基酚 28 帕瑞昔布注射剂 ★布洛芬、★氟比洛芬酯 29 普瑞巴林口服常释剂型 ★加巴喷丁、卡马西平 30 艾司奥美拉唑口服常释剂型 ★奥美拉唑兰索拉唑、艾普拉唑 ★泮托拉唑、雷贝拉唑 31 莫沙必利口服常释剂型氯波必利、伊托必利、★多潘立酮、甲氧氯普胺 32 泮托拉唑口服常释剂型 ★奥美拉唑、★艾司奥美拉唑、兰索拉唑、雷贝拉唑、艾普拉唑 33 泮托拉唑注射剂 ★奥美拉唑、★艾司奥美拉唑、 ★兰索拉唑、雷贝拉唑、艾普拉唑 34 替格瑞洛口服常释剂型噻氯匹啶 ★氯吡格雷 35 比伐芦定注射剂 36 培哚普利口服常释剂型 ★福辛普利、★赖诺普利、雷米普利、喹那普利、 ★贝那普利、咪达普利、 ★依那普利 37 替米沙坦口服常释剂型 ★氯沙坦、阿利沙坦酯 ★缬沙坦、★坎地沙坦酯、 ★厄贝沙坦、阿齐沙坦、美阿沙坦、★奥美沙坦酯 38 缬沙坦氨氯地平口服常释剂型奥美沙坦酯氨氯地平 39 缬沙坦氢氯噻嗪口服常释剂型 ★氯沙坦氢氯噻嗪 ★厄贝沙坦氢氯噻嗪、坎地氢噻、替米沙坦氢氯噻嗪奥美沙坦酯氢氯噻嗪 40 奥洛他定滴眼剂吡嘧司特滴眼液、萘非滴眼液、色甘酸钠滴眼液 41 玻璃酸钠滴眼剂（0.1%）聚乙二醇滴眼液、羧甲基纤维素钠滴眼液（0.5%） 42 玻璃酸钠滴眼剂（0.3%）聚乙二醇滴眼液、羧甲基纤维素钠滴眼液（1%） 43 替莫唑胺口服常释剂型 44 硼替佐米注射剂卡非佐米 45 索拉非尼口服常释剂型瑞戈非尼、仑伐替尼、培唑帕尼、依维莫司、去甲斑蝥素、斑蝥酸钠第五批国家组织药品集中采购中选品种监测范围序号集采品种完全可替代大部分可替代一定程度上可替代 1 ω-3鱼油中/长链脂肪乳注射液多种油脂肪乳(C6-24) 结构脂肪乳(C6-24)、脂肪乳(C14-24)、中/长链脂肪乳（C6-24）、中/长链脂肪乳（C8-24）、中/长链脂肪乳(C8-24Ve)、长链脂肪乳(OO) 2 阿法骨化醇口服常释剂型 ★骨化三醇、维生素D 艾地骨化醇 3 阿立哌唑口服常释剂型三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★氨磺必利、★奥氮平、★利培酮、帕利哌酮、★喹硫平、布南色林、 ★鲁拉西酮、齐拉西酮、舒必利、氟哌啶醇、氯丙嗪、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 4 阿昔洛韦口服常释剂型泛昔洛韦、伐昔洛韦 5 艾司奥美拉唑注射剂 ★奥美拉唑 ★兰索拉唑、艾普拉唑 ★泮托拉唑、雷贝拉唑 6 奥洛他定口服常释剂型赛庚啶、氯苯那敏苯海拉明、★异丙嗪、★氯雷他定、 ★地氯雷他定、卢帕他定、非索非那定、 ★左西替利嗪、★西替利嗪、阿伐斯汀、咪唑斯汀、★依巴斯汀、依美斯汀、 ★贝他斯汀 7 奥沙利铂注射剂顺铂、卡铂、洛铂、奈达铂 8 贝那普利口服常释剂型 ★赖诺普利、★培哚普利、 ★依那普利、雷米普利、喹那普利、咪达普利 ★福辛普利 9 贝他斯汀口服常释剂型赛庚啶、氯苯那敏阿伐斯汀、咪唑斯汀、 ★依巴斯汀、依美斯汀苯海拉明、★异丙嗪、★氯雷他定、 ★地氯雷他定、卢帕他定、★奥洛他定、非索非那定、★左西替利嗪、★西替利嗪 10 苯磺顺阿曲库铵注射剂阿曲库铵 ★罗库溴铵、维库溴铵 11 比卡鲁胺口服常释剂型氟他胺恩扎鲁胺 12 达比加群酯口服常释剂型 ★阿哌沙班 ★利伐沙班、艾多沙班、华法林 13 单硝酸异山梨酯缓释控释剂型硝酸异山梨酯 14 地西他滨注射剂 15 碘海醇注射剂碘比醇、碘佛醇、碘普罗胺、 ★碘克沙醇、★碘帕醇、碘美普尔、复方泛影葡胺 16 碘克沙醇注射剂碘比醇、碘佛醇、碘普罗胺、 ★碘海醇、★碘帕醇、碘美普尔、复方泛影葡胺 17 度他雄胺软胶囊爱普列特、★非那雄胺 18 多西他赛注射剂 ★紫杉醇、紫杉醇脂质体 ★紫杉醇（白蛋白结合型） 19 法舒地尔注射剂尼莫地平 20 复方异丙托溴铵吸入剂 ★异丙托溴铵、噻托溴铵、格隆溴铵 21 格列吡嗪缓释控释剂型 ★格列美脲、格列本脲、 ★格列齐特、消渴丸格列喹酮、★格列吡嗪（常释剂型） 22 格列吡嗪口服常释剂型格列喹酮 ★格列美脲、格列本脲、★格列齐特、消渴丸、★格列吡嗪（控释剂型） 23 格隆溴铵注射液阿托品、东莨菪碱 24 更昔洛韦注射剂膦甲酸、缬★更昔洛韦 25 枸橼酸氢钾钠颗粒 26 吉西他滨注射剂 27 兰索拉唑注射剂 ★泮托拉唑、雷贝拉唑、★奥美拉唑、艾普拉唑、★艾司奥美拉唑 28 乐卡地平口服常释剂型 ★硝苯地平、拉西地平、尼群地平、贝尼地平、西尼地平、马尼地平、尼卡地平、 ★氨氯地平、★左氨氯地平、★非洛地平 29 利伐沙班口服常释剂型 ★阿哌沙班艾多沙班、★达比加群酯、华法林 30 硫辛酸注射剂 31 罗哌卡因注射剂布比卡因、★左布比卡因、★利多卡因、丁卡因、普鲁卡因、氯普鲁卡因 32 氯化钾缓释控释剂型枸橼酸钾 33 美托洛尔口服常释剂型贝凡洛尔、塞利洛尔、尼群洛尔阿替洛尔、★普萘洛尔、★比索洛尔 34 米格列醇口服常释剂型 ★阿卡波糖、伏格列波糖 35 米索前列醇口服常释剂型 36 帕洛诺司琼注射剂托烷司琼、★昂丹司琼、格拉司琼、阿扎司琼、多拉司琼、雷莫司琼 37 沙格列汀口服常释剂型 ★维格列汀、西格列汀、阿格列汀利格列汀 38 文拉法辛缓释控释剂型多塞平、氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀 ★西酞普兰、★艾司西酞普兰、★氟西汀、 ★帕罗西汀、伏硫西汀、★度洛西汀、 ★舍曲林、氟伏沙明、安非他酮、曲唑酮、米那普仑、★米氮平、阿戈美拉汀、阿米替林、圣约翰草提取物 39 西那卡塞口服常释剂型 40 胸腺法新注射剂胸腺肽、胸腺五肽 41 异丙嗪口服常释剂型苯海拉明、赛庚啶、氯苯那敏 42 异丙托溴铵吸入剂 ★复方异丙托溴铵、噻托溴铵 43 脂肪乳氨基酸葡萄糖注射剂中长链脂肪乳/氨基酸(16)/葡萄糖(16％) 脂肪乳氨基酸(17)葡萄糖(19%) 10%脂肪乳(OO)/5.5%氨基酸(15)/葡萄糖(20%)、脂肪乳(10%)/氨基酸(15)/葡萄糖(20%) 44 中/长链脂肪乳（C8~24 Ve）注射剂中/长链脂肪乳（C8～24）、中/长链脂肪乳（C6~24） ★ω-3鱼油中/长链脂肪乳、多种油脂肪乳(C6~24)、结构脂肪乳(C6-24)、长链脂肪乳(OO)、脂肪乳(C14-24) 45 注射用盐酸苯达莫司汀卡莫司汀 46 紫杉醇注射剂 ★多西他赛、紫杉醇脂质体 ★紫杉醇（白蛋白结合型） 47 阿奇霉素注射剂红霉素 ★克拉霉素 48 布地奈德吸入剂氟替卡松、倍氯米松 49 氟康唑注射剂 ★伏立康唑、泊沙康唑、伊曲康唑、艾沙康唑 50 利奈唑胺葡萄糖注射剂替考拉宁、万古霉素 51 莫西沙星滴眼剂 ★左氧氟沙星滴眼液、诺氟沙星滴眼液、氧氟沙星滴眼液、洛美沙星滴眼液、环丙沙星滴眼液、加替沙星滴眼液 52 替硝唑口服常释剂型 ★甲硝唑 ★奥硝唑、塞克硝唑、左奥硝唑 53 头孢呋辛注射剂头孢替安、头孢孟多、头孢尼西 ★头孢唑林、头孢拉定、头孢硫脒、头孢噻吩、★头孢曲松、★头孢他啶、头孢噻肟、头孢哌酮、头孢匹胺、头孢甲肟、头孢唑肟、★头孢地嗪 54 头孢曲松注射剂头孢噻肟、头孢匹胺、头孢甲肟、头孢唑肟、★头孢地嗪 ★头孢呋辛、头孢替安、头孢孟多、头孢尼西、★头孢吡肟、头孢匹罗、头孢噻利、头孢哌酮、★头孢他啶 55 头孢他啶注射剂 ★头孢曲松、头孢噻肟、头孢哌酮、头孢匹胺、头孢甲肟、头孢唑肟、★头孢地嗪 ★头孢吡肟、头孢匹罗、头孢噻利 56 头孢唑林注射剂头孢拉定、头孢硫脒、头孢噻吩头孢替安、头孢孟多、★头孢呋辛、头孢尼西 57 左氧氟沙星注射剂氧氟沙星、诺氟沙星洛美沙星、依诺沙星、培氟沙星、氟罗沙星、加替沙星 ★莫西沙星、奈诺沙星、帕珠沙星、环丙沙星第七批国家组织药品集中采购品种可替代药品参考监测范围序号集采品种完全可替代大部分可替代一定程度上可替代 1 阿法替尼口服常释剂型 ★厄洛替尼、埃克替尼、 ★吉非替尼、达可替尼奥希替尼、伏美替尼、阿美替尼 2 阿立哌唑口腔崩解片三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★氨磺必利、★奥氮平、★利培酮、帕利哌酮、 ★喹硫平、布南色林、★鲁拉西酮、齐拉西酮、舒必利、氟哌啶醇、氯丙嗪、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 3 昂丹司琼注射剂托烷司琼、格拉司琼、阿扎司琼、多拉司琼、雷莫司琼 ★帕洛诺司琼 4 奥美拉唑注射剂 ★艾司奥美拉唑 ★兰索拉唑、艾普拉唑、★泮托拉唑、雷贝拉唑 5 奥曲肽注射剂 ★生长抑素兰瑞肽 6 奥司他韦口服常释剂型阿比多尔、法维拉韦、玛巴洛沙韦 7 奥硝唑口服常释剂型 ★甲硝唑 ★替硝唑、塞克硝唑、左奥硝唑 8 吡格列酮口服常释剂型罗格列酮 9 丙酚替诺福韦口服常释剂型 ★阿德福韦酯、拉米夫定、替比夫定 ★替诺福韦二吡呋酯、艾米替诺福韦 10 醋酸钙口服常释剂型碳酸钙司维拉姆、碳酸镧 11 单硝酸异山梨酯口服常释剂型硝酸异山梨酯 12 碘帕醇注射剂 ★碘海醇、碘比醇、碘佛醇、碘普罗胺、复方泛影葡胺碘克沙醇 13 厄洛替尼口服常释剂型 ★吉非替尼、埃克替尼 ★阿法替尼、达可替尼、奥希替尼、伏美替尼、阿美替尼 14 二甲双胍维格列汀口服常释剂型西格列汀二甲双胍、沙格列汀二甲双胍 15 氟桂利嗪口服常释剂型桂利嗪 16 氟哌噻吨美利曲辛口服常释剂型多塞平、马普替林、氯米帕明、噻奈普汀、吗氯贝胺、瑞波西汀、阿米替林 17 磺达肝癸钠注射剂 18 甲磺酸仑伐替尼胶囊 ★索拉非尼、瑞戈非尼 19 甲泼尼龙口服常释剂型 20 甲泼尼龙注射剂 21 咖啡因注射剂 22 克林霉素磷酸酯注射剂 ★克林霉素、林可霉素 23 拉考沙胺口服常释剂型奥卡西平、卡马西平 24 来氟米特口服常释剂型 25 利多卡因注射剂布比卡因、★左布比卡因、丁卡因、普鲁卡因、氯普鲁卡因 26 罗红霉素口服常释剂型红霉素、琥乙红霉素、环酯红霉素、依托红霉素地红霉素、★克拉霉素、★阿奇霉素 27 罗库溴铵注射剂维库溴铵 ★顺阿曲库铵、阿曲库铵 28 吗替麦考酚酯口服常释剂型麦考酚钠 29 美罗培南注射剂 ★比阿培南厄他培南、亚胺培南西司他丁 30 美托洛尔缓释剂型贝凡洛尔、塞利洛尔、尼群洛尔阿替洛尔、★普萘洛尔、★比索洛尔 31 米卡芬净注射剂卡泊芬净 32 米力农注射剂氨力农 33 帕立骨化醇注射剂 34 帕洛诺司琼注射剂托烷司琼、 ★昂丹司琼、格拉司琼、阿扎司琼、多拉司琼、雷莫司琼 35 普萘洛尔口服常释剂型 ★美托洛尔、阿替洛尔、贝凡洛尔、塞利洛尔、尼群洛尔 36 舒尼替尼口服常释剂型培唑帕尼索凡替尼、★索拉非尼、瑞戈非尼、★伊马替尼 37 特布他林吸入剂 ★沙丁胺醇、左沙丁胺醇 38 替加环素注射剂无无奥马环素、依拉环素 39 替罗非班注射剂型 ★依替巴肽 40 头孢吡肟注射剂型头孢匹罗 ★头孢曲松、★头孢他啶、头孢噻肟、头孢哌酮、头孢甲肟、头孢唑肟、头孢匹胺、★头孢地嗪 41 头孢克洛口服液体剂 ★头孢呋辛酯、★头孢丙烯 ★头孢拉定、★头孢氨苄、头孢羟氨苄、 ★头孢地尼、★头孢克肟、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 42 头孢克肟颗粒剂 ★头孢地尼、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 ★头孢拉定、★头孢氨苄、头孢羟氨苄、 ★头孢呋辛酯、★头孢丙烯 43 头孢克肟口服常释剂型 ★头孢地尼、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 ★头孢拉定、★头孢氨苄、头孢羟氨苄、 ★头孢呋辛酯、★头孢丙烯 44 头孢美唑注射剂型 ★头孢西丁、★头孢米诺 45 头孢米诺注射剂型 ★头孢西丁、★头孢美唑 46 硝苯地平缓释剂型 ★硝苯地平控释剂型拉西地平、尼群地平、贝尼地平、西尼地平、马尼地平、尼卡地平、★乐卡地平 47 硝苯地平控释剂型 ★硝苯地平缓释剂型拉西地平、尼群地平、贝尼地平、西尼地平、马尼地平、尼卡地平、★乐卡地平 48 溴己新注射剂乙酰半胱氨酸、★氨溴索 49 盐酸鲁拉西酮片三氟拉嗪、三氟哌多、五氟利多、洛沙平、硫利达嗪、哌泊塞嗪、氟哌利多 ★氨磺必利、★奥氮平、★阿立哌唑、★利培酮、帕利哌酮、★喹硫平、布南色林、齐拉西酮、舒必利、氟哌啶醇、氯丙嗪、氟奋乃静、奋乃静、癸氟奋乃静、硫必利、氯普噻吨 50 盐酸美金刚缓释胶囊 51 伊班膦酸注射剂帕米膦酸二钠、氯膦酸二钠、因卡膦酸二钠 ★唑来膦酸 52 伊立替康注射剂无无无 53 依巴斯汀口服常释剂型赛庚啶、氯苯那敏苯海拉明、★异丙嗪、阿伐斯汀、依美斯汀、 ★氯雷他定、★地氯雷他定、卢帕他定、 ★奥洛他定、★左西替利嗪、★西替利嗪、非索非那定、★贝他斯汀 54 依达拉奉注射剂型无无桂哌齐特 55 依替巴肽注射剂 ★替罗非班 56 依折麦布口服常释剂型海博麦布 57 注射用替莫唑胺无无无 58 唑来膦酸注射剂氯膦酸二钠、帕米膦酸二钠、 ★伊班膦酸、因卡膦酸二钠第八批国家组织药品集中采购品种可替代药品参考监测范围序号集采品种完全可替代大部分可替代一定程度上可替代 1 阿加曲班注射剂无无无 2 阿托西班注射剂无无无 3 氨甲环酸注射剂型氨基己酸氨甲苯酸 4 氨氯地平阿托伐他汀口服常释剂型无无无 5 丙氨酰谷氨酰胺注射剂无无无 6 丙戊酸钠注射剂无无 7 非洛地平缓释控释剂型 ★硝苯地平、拉西地平、尼群地平、贝尼地平、尼卡地平、★氨氯地平、★左氨氯地平、★乐卡地平、西尼地平、马尼地平 8 呋塞米注射剂 ★托拉塞米、布美他尼 9 骨化三醇口服常释剂型 ★阿法骨化醇、维生素D 艾地骨化醇 10 甲钴胺注射剂维生素B12、腺苷钴胺 11 奥司他韦干混悬剂阿比多尔、帕拉米韦、扎那米韦、法维拉韦、玛巴洛沙韦 12 氯沙坦钾氢氯噻嗪口服常释剂型 ★厄贝沙坦氢氯噻嗪、奥美沙坦酯氢氯噻嗪、替米沙坦氢氯噻嗪、★缬沙坦氢氯噻嗪、坎地氢噻 13 米氮平口服常释剂型氯米帕明、噻奈普汀、吗氯贝胺、马普替林、米安色林、瑞波西汀、圣约翰草提取物多塞平、★西酞普兰、★艾司西酞普兰、★氟西汀、★帕罗西汀、伏硫西汀、★度洛西汀、★文拉法辛、★舍曲林、氟伏沙明、安非他酮、曲唑酮、米那普仑、阿戈美拉汀、阿米替林 14 那屈肝素（那曲肝素）注射剂 ★依诺肝素、达肝素、贝米肝素 15 生长抑素注射剂 ★奥曲肽 16 酮咯酸氨丁三醇注射剂 ★帕瑞昔布、★氟比洛芬酯 17 托拉塞米注射剂 ★呋塞米、布美他尼 18 熊去氧胆酸口服常释剂型牛磺熊去氧胆酸 19 盐酸奥普力农注射剂氨力农 ★米力农 20 依诺肝素注射剂 ★那曲肝素、达肝素、贝米肝素 21 左氨氯地平（左旋氨氯地平）口服常释剂型 ★氨氯地平 ★硝苯地平、★非洛地平、拉西地平、尼群地平、贝尼地平、西尼地平、马尼地平、尼卡地平、★乐卡地平 22 左布比卡因注射剂布比卡因 ★罗哌卡因、★利多卡因、丁卡因 23 左卡尼汀注射剂无无无 24 阿莫西林克拉维酸钾口服常释剂型无无无 25 阿莫西林钠克拉维酸钾注射剂哌拉西林钠舒巴坦钠、★哌拉西林钠他唑巴坦钠、阿莫西林钠舒巴坦钠、氨苄西林钠舒巴坦钠、美洛西林钠舒巴坦钠、替卡西林钠克拉维酸钾 26 氨曲南注射剂无无无 27 奥硝唑注射剂型 ★甲硝唑替硝唑、左奥硝唑 28 复方磺胺甲噁唑口服常释剂型联磺甲氧苄啶 29 甲硝唑注射剂型替硝唑、奥硝唑左奥硝唑 30 利福平口服常释剂型利福喷丁、利福布汀 31 头孢地尼颗粒剂 ★头孢克肟、头孢妥仑匹酯、头孢泊肟酯、头孢他美酯 ★头孢呋辛酯、★头孢丙烯、★头孢克洛 32 头孢西丁注射剂型 ★头孢美唑、★头孢米诺 33 头孢地嗪注射剂头孢噻肟、头孢甲肟、头孢唑肟、头孢匹胺 ★头孢曲松、★头孢他啶、头孢哌酮、 ★头孢呋辛、头孢孟多酯、头孢尼西、头孢替安、头孢匹罗、★头孢吡肟、头孢噻利 34 比阿培南注射剂 ★美罗培南、厄他培南、亚胺培南西司他丁 35 达托霉素注射剂无无无 36 伏立康唑注射剂 ★氟康唑、泊沙康唑、艾沙康唑、伊曲康唑 37 哌拉西林钠他唑巴坦注射剂哌拉西林钠舒巴坦钠、美洛西林钠舒巴坦钠 ★阿莫西林钠克拉维酸钾、替卡西林钠克拉维酸钾、阿莫西林钠舒巴坦钠、氨苄西林钠舒巴坦钠、 38 头孢哌酮钠舒巴坦钠注射剂头孢曲松钠舒巴坦头孢噻肟钠舒巴坦头孢哌酮他唑巴坦、头孢噻肟钠他唑巴坦、头孢他啶阿维巴坦、头孢他啶他唑巴坦 39 头孢噻肟注射剂头孢甲肟、头孢唑肟、头孢匹胺、 ★头孢地嗪 ★头孢呋辛、头孢孟多酯、头孢尼西、头孢替安、 ★头孢曲松、★头孢他啶、头孢哌酮、头孢匹罗、★头孢吡肟、头孢噻利【监测范围说明】 1.完全可替代指的是带量采购药品可以完全替代右侧所列的药品，其他类推，给药途径不同的药品不属于监测范围。 2.清单所列化学药品为中文通用名称中主要化学成分部分，不区分酸根盐基和具体剂型；凡主要化学成分与替代清单中的名称一致且给药途径与中选药品相同的化学药品均在监测替代范围（与中选药品适应症完全不同的除外）。 3.清单中未完全列出的与中选药品主要化学成分相同且给药途径相同的其他药品也属于监测范围（与中选药品适应症完全不同的除外），如盐酸左西替利嗪片为盐酸左西替利嗪胶囊\颗粒的完全可替代药品，苯磺酸氨氯地平为马来酸氨氯地平、门冬氨酸氨氯地平的完全可替代药品，阿卡波糖口服常释剂型为阿卡波糖咀嚼片的完全可替代药品，奥氮平口服常释剂型为奥氮平口崩片的完全可替代药品，帕罗西汀口服常释剂型是帕罗西汀缓控释剂型的完全可替代药品，利培酮口服常释剂型是利培酮口服液的完全可替代药品、阿莫西林口服常释剂型是阿莫西林颗粒的完全可替代药品等。 4.品种具体剂型包括：（1）口服常释剂型：普通片剂（片、素片、肠溶片、包衣片、薄膜衣片、糖衣片、浸膏片、分散片、划痕片）、硬胶囊、软胶囊（胶丸）、肠溶胶囊；不包括口腔崩解片（口崩片）；（2）缓释剂型：缓释片、缓释包衣片、缓释胶囊；（3）控释剂型：控释片、控释胶囊；（4）吸入剂：气雾剂、粉雾剂、吸入剂、吸入粉雾剂、干粉吸入剂、粉吸入剂、雾化溶液剂、吸入气雾剂、吸入（用）溶液、吸入（用）混悬液、（鼻用）喷雾剂、鼻吸入气雾剂、雾化吸入用混悬液、吸入（用）气雾剂、雾化液；（5）颗粒剂：颗粒剂、肠溶颗粒剂；（6）口服液体剂：口服溶液剂、口服混悬剂、干混悬剂、口服乳剂、胶浆剂、口服液、乳液、乳剂、胶体溶液、合剂、酊剂、滴剂、混悬滴剂、糖浆剂（含干糖浆剂）；（7）注射剂：注射剂、注射液、注射用溶液剂、静脉滴注用注射液、注射用混悬液、注射液无菌粉末、静脉注射针剂、水针、注射用乳剂、粉针剂、针剂、无菌粉针、冻干粉针。 5. 清单所列化学药品已在国家组织药品集中采购范围内的，标注“★”。 (来源:兴平市医疗保障局）有需要《前九批国家组织药品集中采购品种可替代药品参考监测范围》（Excel版），请扫描下方二维码添加客服微信咨询，申请加入药闻康策高端会员群获取。药闻康策新媒体矩阵微信公众号点击下方一键关注【免责声明】 1.“药闻康策”部分文章信息来源于网络转载是出于传递更多信息之目的，并不意味着赞同其观点或证实其内容的真实性。如对内容有疑议，请及时与我司联系。2.“药闻康策”致力于提供合理、准确、完整的资讯信息，但不保证信息的合理性、准确性和完整性，且不对因信息的不合理、不准确或遗漏导致的任何损失或损害承担责任。3.“药闻康策”所有信息仅供参考，不做任何商业交易或医疗服务的根据，如自行使用“药闻康策”内容发生偏差，我司不承担任何责任，包括但不限于法律责任，赔偿责任。欢迎转发分享、点赞、点在看

带量采购

2024-03-11

·行舟Drug

【实战案例】手把手教你学会仿制药研发文献调研

点击上方的行舟Drug ▲ 添加关注仿制药是指与原研药剂量、安全性和效力（strength）（不管如何服用）、质量、作用（performance）以及适应症（intended use）上相同的一种仿制品。原研药专利到期以后，其他国家和制药厂即可生产仿制药。那么作为药研人员应该根据仿制的对象，搜集整理哪些信息内容呢？又该怎么查询这些信息呢？今天咱们就以两个药物为案例简单介绍一下仿制药的初步文献调研内容，欢迎大家补充讨论！一、两个案例药物情况1、克力芝（Kaletra、洛匹那韦/利托那韦）是一款抗病毒药物，2020年初也被用来治疗最近的新型冠状病毒感染。艾伯维（AbbVie Inc）治疗艾滋病药物 Kaletra 2、阿卡波糖片（Acarbose Tablets），其主要用于治疗：1. 2型糖尿病。2. 降低糖耐量低减者的餐后血糖。二、获取有用的产品信息以这两个药为案例，我们能够获取下面这些信息：1、原研药厂家、参比制剂情况、原研说明书2、原研产品的专利信息3、产品的各国质量标准4、查询原研处方以及组成信息5、产品的溶出信息6、国内制剂厂家和原料药厂家情况7、查询产品的国内外临床情况8、查询品种竞争情况1、原研药厂、参比情况、说明书以克力芝（Kaletra、洛匹那韦/利托那韦）为例，我们通过商品名克力芝分别在中国药监局、FDA网站分别查询相关信息。通过查询我们可以知道，克力芝的原研厂家是艾伯维，克力芝还包括多种剂型：片剂、胶囊和口服液。参比制剂查询查询地址：https://www.accessdata.fda.gov/scripts/cder/ob/index.cfm查询地址：https://www.nmpa.gov.cn/datasearch/search-result.html此外，检索阿卡波糖在FDA橙皮书能得到下面的结果：当然，查询公布的参比制剂目录也能获得相关信息，这里可以通过参比购网站提供的参比查询功能查询相关信息。查询地址：https://www.canbigou.com/directory.html药品说明书查询查询地址：https://dailymed.nlm.nih.gov/dailymed/2、原研产品的专利信息通过橙皮书查询相关结果之后，点击申请号就能查询到药品相关的专利信息，以此为线索查询同族专利及不同国家专利信息。这里介绍一个查询专利的技巧，对于未上市批准的药物可以通过Pubchem查询专利相关的信息，这里我们用最近很火的瑞德西韦（Remdesivir、吉利德）为案例，从Remdesivir的化学信息入手挖掘专利信息：PubChem网站：https://pubchem.ncbi.nlm.nih.gov/在这里能查到一些关于Remdesivir的专利信息，在8.1项下：其中红色框的部分就是Remdesivir制剂相关的专利信息。从这里开始入手深入挖掘就能获得更多有用的信息，包括化合物、组合物专利等等！3、产品的各国质量标准这里以阿卡波糖为例，查询到的药品标准情况如下：查询地址：https://www.drugfuture.com/standard/4、查询原研处方组成及用量这里我们进一步深入研究，从这几个官方渠道检索整理了KALETRA相关的原研处方信息及处方组成信息！（1）FDA查询到的KALETRA处方组成信息查询地址：https://dailymed.nlm.nih.gov/（2）土耳其网站查询的处方组成信息土耳其药监局网站：https://www.titck.gov.tr/kubkt（3）俄罗斯网站查询到的处方组成信息查询地址：https://health.mail.ru/参考来源：https://health.mail.ru/drug/kaletra/（4）日本查询到的原研信息内容注：查询日本药品信息需要把英文名转换成日文名，可以用日本通用名数据库网站转换。网址：http://moldb.nihs.go.jp/jan/Default.aspx（5）阿根廷网站查询到的原研处方信息阿根廷药监局：https://www.argentina.gob.ar药品信息检索地址：http://www.anmat.gov.ar/boletin_anmat/index.asp 5、产品的溶出信息首先，从FDA查询溶出的相关信息内容：查询地址：https://www.accessdata.fda.gov/scripts/cder/dissolution/index.cfm克力芝（Kaletra、洛匹那韦/利托那韦）在FDA溶出方法信息阿卡波糖(Acarbose)溶出方法信息其次，从日本药监局查询溶出的相关信息内容：日本制药通用名数据库https://jpdb.nihs.go.jp/jan/Default.aspx这里以“阿卡波糖”为例子，通过日本制药通用名数据库查询日本名“アカルボース”，查询地址：http://www.fpmaj-saihyoka.com/quality/index.html查询结果如下：仿制药质量信息研究数据库(蓝皮书)查询地址：http://www.nihs.go.jp/drug/ecqaged/kentou-list.html仿制药质量信息研究数据库收集大部分日本上市的基础药品，详细介绍了药品溶出试验方法和溶出数据，对一致性评价有很大参考作用。这里以阿卡波糖片为例，其对比了多家药厂的溶出数据：6、制剂厂家和原料药厂家情况这里通过查询阿卡波糖、克力芝（Kaletra、洛匹那韦/利托那韦）的制剂及原料厂家信息举例。查询地址：https://www.nmpa.gov.cn/datasearch/search-result.html阿卡波糖查询到的情况7、查询药品国内外临床情况中国临床试验注册中心（Chinese Clinical Trial Registry, ChiCTR）可以查询相关药物的临床情况查询地址：http://www.chictr.org.cn/index.aspx此外，还可以从“药物临床试验登记和信息公示平台”查询相关的临床信息。查询地址：http://www.chinadrugtrials.org.cn/index.html8、查询品种竞争情况通过查询相关的信息，例如上面的临床情况，可以得知相关品种有多少企业参与了竞争，此外通过受理情况也可以了解竞争情况。查询地址：https://www.cde.org.cn/main/xxgk/listpage/9f9c74c73e0f8f56a8bfbc646055026d通过对以上信息的收集，一个药品的基本信息就搜集到了，如果需要更深入的信息，就需要更加细致的检索工作才能获取了。文章信息源于公众号铭研医药，登载该文章目的为更广泛的传递行业信息，不代表赞同其观点或对其真实性负责。文章版权归原作者及原出处所有，文章内容仅供参考。本网拥有对此声明的最终解释权，若无意侵犯版权，请联系小编删除。学如逆水行舟，不进则退；心似平原走马，易放难收。行舟Drug每日更新欢迎订阅+医药大数据|行业动态|政策解读

专利到期

100 项与洛匹那韦/利托那韦相关的药物交易

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外链

KEGG	Wiki	ATC	Drug Bank
-	洛匹那韦/利托那韦	J05AR10	-

研发状态

批准上市

10 条最早获批的记录,

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适应症	国家/地区	公司	日期
HIV感染	美国	AbbVie, Inc.	2000-09-15

未上市

10 条进展最快的记录,

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适应症	最高研发状态	国家/地区	公司	日期
合并感染	临床3期	加拿大	Abbott Laboratories	2007-06-01
丙型肝炎	临床2期	-	Abbott Laboratories	2005-07-21
结核	临床1期	美国	Abbott Laboratories	2008-08-01
乳头状瘤病毒感染	临床申请	-	Daré Bioscience, Inc.	2024-11-01

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临床结果

适应症

分期

评价

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研究	分期	人群特征	评价人数	分组	结果	评价	发布日期


NCT04372628 (TREATNOW, CTgov)	临床2期	新型冠状病毒感染	452	Lopinavir+Ritonavir (Group 2 - Lopinavir/Ritonavir)	窪衊簾淵齋遞網鬱鹽鹽(築簾願網壓獵醖積鬱獵) = 願築襯鏇夢廠顧壓選膚鹽積淵鹽觸醖製選積夢 (構蓋餘願觸網鹽鏇壓夢, 夢選網淵製艱鹹鹽鏇顧 ~ 淵構壓範鹽簾構鏇顧醖) 更多	-	2023-01-26
				Placebo (Placebo Control Group)	窪衊簾淵齋遞網鬱鹽鹽(築簾願網壓獵醖積鬱獵) = 鬱簾鏇顧積顧淵淵壓鑰鹽積淵鹽觸醖製選積夢 (構蓋餘願觸網鹽鏇壓夢, 選衊淵窪觸衊範壓鏇鹹 ~ 衊築蓋淵製鏇製壓襯窪) 更多
NCT04372628 (Pubmed \| Int J Infect Dis)	临床2期	新型冠状病毒感染	448	Lopinavir/ritonavir	鑰築繭衊齋廠廠淵願膚(鑰網襯鬱顧願壓選齋廠) = 壓鏇鑰艱築網繭膚顧鬱襯鑰鹽觸憲網鹽網壓廠 (壓選製顧壓衊艱齋觸廠 )	不佳	2022-12-26
				Placebo	鑰築繭衊齋廠廠淵願膚(鑰網襯鬱顧願壓選齋廠) = 淵憲廠糧築繭鬱艱簾範襯鑰鹽觸憲網鹽網壓廠 (壓選製顧壓衊艱齋觸廠 )
NCT04499677 (Pubmed)	临床2期	新型冠状病毒感染	240	Favipiravir+Lopinavir-Ritonavir	鹽構遞齋獵構醖構網糧(獵範獵製膚願醖夢壓鑰) = 製齋遞憲觸鑰鏇願襯淵鹹蓋廠醖鏇襯願廠艱齋 (餘繭範網鑰網遞簾膚窪, -1.21 ~ 0.07)	不佳	2022-10-19
				Favipiravir+Placebo	積窪醖蓋網簾網繭積願(築簾蓋醖範蓋齋鏇憲蓋) = 糧製構膚積窪憲簾壓築獵遞獵蓋糧範願鏇鹽積 (鏇夢鏇鬱糧選網膚鹽廠 )
NCT04354428 (CTgov)	临床2/3期	新型冠状病毒感染	289	Ascorbic Acid+Folic Acid (Ascorbic Acid and Folic Acid)	膚衊獵齋窪觸築顧壓鏇(鏇鹽製範膚壓觸衊範襯) = 襯淵夢願繭夢觸繭齋膚蓋淵醖獵繭選膚醖壓壓 (衊構鬱醖衊憲艱製壓膚, 鹹窪顧鑰糧願範鹹網鏇 ~ 遞觸積構顧鏇憲選鹽壓) 更多	-	2022-08-08
				Hydroxychloroquine Sulfate+Folic Acid (Hydroxychloroquine and Folic Acid)	膚衊獵齋窪觸築顧壓鏇(鏇鹽製範膚壓觸衊範襯) = 醖獵繭鏇窪鹹餘廠壓壓蓋淵醖獵繭選膚醖壓壓 (衊構鬱醖衊憲艱製壓膚, 觸糧簾壓鑰遞簾夢糧淵 ~ 醖鬱壓糧壓鹹網蓋積鬱) 更多
NCT04351724 (ACOVACT, Pubmed \| Front Pharmacol) 人工标引	临床2/3期	新型冠状病毒感染	201	Camostat Mesylate	齋襯繭鹽醖網糧選夢鬱(壓顧壓鏇選廠淵築鬱鏇) = 繭糧鑰壓鑰蓋繭願範襯願鹹鹽獵製壓壓壓衊選 (鏇獵壓醖夢蓋鑰築鑰蓋 ) 更多	积极	2022-07-22
				Lopinavir+Ritonavir	齋襯繭鹽醖網糧選夢鬱(壓顧壓鏇選廠淵築鬱鏇) = 齋齋艱糧選繭壓廠製築願鹹鹽獵製壓壓壓衊選 (鏇獵壓醖夢蓋鑰築鑰蓋 ) 更多
NCT04364022 (COPEP, Pubmed)	临床3期	新型冠状病毒感染	318	Lopinavir/Ritonavir PEP	鏇壓蓋廠遞鏇憲觸簾鏇(選遞衊壓獵遞選壓艱艱): unadjusted hazard ratio = 1.44 (95% CI, 0.76 ~ 2.73), P-Value = 0.18; P-Value = 0.60	-	2021-12-01
				Lopinavir-Ritonavir (Surveillance)
NCT01632891 (A5297, Pubmed \| J Acquir Immune Defic Syndr)	临床1/2期	HIV感染	52	Lopinavir/ritonavir-based ART	選選鏇蓋構鑰齋獵衊蓋(鬱簾淵鏇齋鏇襯艱襯衊) = 顧襯觸廠夢衊窪餘襯構淵願鏇製繭壓選窪鏇餘 (壓鬱糧齋衊醖鏇選壓積 )	-	2021-10-19
				non-nucleoside reverse transcriptase inhibitor-based ART	選選鏇蓋構鑰齋獵衊蓋(鬱簾淵鏇齋鏇襯艱襯衊) = 齋顧壓鹽鑰糧壓齋膚餘淵願鏇製繭壓選窪鏇餘 (壓鬱糧齋衊醖鏇選壓積 )
NCT01818258 (IMPAACT P1092, CTgov)	临床4期	营养不良 \| HIV血清阳性	52	Zidovudine+Lamivudine+Lopinavir/Ritonavir (Severe Malnutrition)	衊顧艱簾齋鬱廠鏇鬱衊(鏇鬱顧壓蓋範衊築衊積) = 壓膚壓鹹網製蓋積糧鹽觸繭顧製窪醖衊顧壓憲 (艱艱淵蓋築積獵艱築淵, 壓蓋積顧範餘獵憲壓築 ~ 壓夢窪簾觸糧糧築襯憲) 更多	-	2021-08-12
				Zidovudine+Lamivudine+Lopinavir/Ritonavir (Normal Nutrition/Mild Malnutrition)	衊顧艱簾齋鬱廠鏇鬱衊(鏇鬱顧壓蓋範衊築衊積) = 顧憲鬱膚膚衊構繭鬱鑰觸繭顧製窪醖衊顧壓憲 (艱艱淵蓋築積獵艱築淵, 選蓋廠壓襯膚衊鹹觸積 ~ 製鬱淵衊襯遞遞築憲糧) 更多
NCT02735707 (REMAP-CAP, Pubmed \| Intensive Care Med)	临床3期	新型冠状病毒感染	694	Lopinavir-ritonavir	願製鑰範築範齋鹹鑰願(構壓構壓鑰齋艱製築鑰) = 積膚鏇顧膚壓窪獵觸簾衊壓餘齋遞築鬱遞鹽膚 (窪鏇鏇餘製餘壓糧憲構 )	不佳	2021-08-01
				Hydroxychloroquine	願製鑰範築範齋鹹鑰願(構壓構壓鑰齋艱製築鑰) = 膚艱餘獵網齋壓範壓網衊壓餘齋遞築鬱遞鹽膚 (窪鏇鏇餘製餘壓糧憲構 )
NCT04315948 (DisCoVeRy, Pubmed \| Clin Microbiol Infect)	临床3期	新型冠状病毒感染	583	lopinavir/ritonavir	餘憲鹽齋築餘糧構獵簾(壓鏇顧醖遞選積鹹顧廠) = The occurrence of Serious Adverse Events was significantly higher in participants allocated to the lopinavir/ritonavir-containing arms 選壓醖願積艱艱齋願窪 (鏇築願廠鑰鹽範築鑰襯 )	不佳	2021-05-25
				lopinavir/ritonavir-IFN-β-1a