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American Journal of PharmTech Research

📢 Latest Update: Call for Papers 2026: Now accepting submissions for June 2026 issue — Submit by June 10"

📢 Latest Update: Call for Papers 2026: Now accepting submissions for June 2026 issue — Submit by June 10"

Volume 16, Issue 3 - 2026 (June 2026 Issue 3)

Volume 16 Issue 3 Cover

Issue Details:

Volume 16 Issue 3
Published:Invalid Date

Editorial: June 2026 Issue 3

Welcome to the 2026 issue of American Journal of PharmTech Research. This issue showcases the remarkable breadth and depth of contemporary research across multiple disciplines. From cutting-edge applications of machine learning in climate science to the revolutionary potential of quantum computing in drug discovery, our featured articles demonstrate the power of interdisciplinary collaboration in addressing global challenges.

We are particularly excited to present research that bridges traditional academic boundaries, reflecting our journal's commitment to fostering innovation through cross-disciplinary dialogue. The integration of artificial intelligence with environmental science, the application of blockchain technology to supply chain management, and the convergence of urban planning with smart city technologies exemplify the transformative potential of collaborative research.

As we continue to navigate an era of rapid technological advancement and global challenges, the research presented in this issue offers both insights and solutions that will shape our future. We thank our authors, reviewers, and editorial board members for their continued dedication to advancing knowledge and promoting scientific excellence.

Dr H J Patel
Editor-in-Chief
American Journal of PharmTech Research

Articles in This Issue

Showing 5 of 5 articles
Research PaperID: AJPTR3160001Pages 1-9

Pharmacokinetic and Pharmacodynamic Interactions Between

Nagaraju B, Anilkumar KV, Samhitha J, Padmavathi GV, Neerajraj GN

Type 2 diabetes mellitus (T2DM) frequently coexists with hypertension, substantially increasing the risk of cardiovascular morbidity, mortality, and progressive renal disease. Contemporary management of these comorbid conditions relies heavily on polypharmacy, with oral antidiabetic drugs and antihypertensive agents prescribed concomitantly for prolonged durations. Among antidiabetic therapies, the fixed-dose combination of glimepiride and metformin remains widely used because it addresses both insulin resistance and impaired insulin secretion. Angiotensin receptor blockers (ARBs) are commonly recommended antihypertensive agents in patients with T2DM due to their established renoprotective and cardioprotective benefits. However, accumulating experimental and clinical evidence suggests that ARBs are not metabolically inert; instead, they may influence glucose homeostasis, insulin sensitivity, and the pharmacokinetic disposition of antidiabetic drugs. These effects raise clinically relevant concerns regarding potential pharmacokinetic and pharmacodynamic interactions when ARBs are co-administered with glimepiride-metformin combinations. Preclinical investigations have demonstrated enhanced hypoglycemic responses when certain ARBs, such as losartan and telmisartan, are combined with glimepiride-metformin, possibly due to synergistic pharmacodynamic actions or alterations in drug metabolism and transport. Telmisartan, in particular, exhibits partial peroxisome proliferator-activated receptor gamma (PPAR-γ) agonist activity, which may confer additional insulin-sensitizing effects. Clinical evidence, however, remains limited and inconsistent, with some studies suggesting modest improvements in glycemic control and others indicating an increased risk of hypoglycemia, especially in regimens containing sulfonylureas. Moreover, most available studies lack integrated pharmacokinetic-pharmacodynamic assessments and fail to reflect chronic real-world combination therapy. This review critically synthesizes current preclinical and clinical evidence on pharmacokinetic and pharmacodynamic interactions between glimepiride-metformin combinations and ARBs. It highlights existing knowledge gaps, underscores the clinical necessity for systematic and ARB specific evaluation, and proposes future research directions aimed at optimizing safety and therapeutic outcomes in patients with coexisting T2DM and hypertension.

Type 2 diabetes mellitusGlimepirideMetforminAngiotensin receptor blockersDrug-drug interactionsPharmacokinetics+3 more
354,843 views
106,379 downloads

Contributors:

 Nagaraju B
,
 Anilkumar KV
,
 Samhitha J
,
 Padmavathi GV
,
 Neerajraj GN
Research PaperID: AJPTR3160002Pages 10-27

Carvedilol Microspheres: A Review of Formulation Strategies, Polymer Applications, and Drug Release Engineering

Anupama Chaturvedi, Deepak Marothia

Among the drugs used in long-term cardiovascular management, carvedilol occupies a special position owing to its combined non-selective beta-blockade and alpha-1 receptor antagonism. However, turning this pharmacological advantage into consistent clinical benefit is not straightforward. The molecule belongs to BCS Class II, meaning it crosses biological membranes readily but barely dissolves in physiological fluids. On top of that, extensive hepatic extraction during the first pass through the liver trims oral bioavailability to somewhere between 25 and 35 percent, and an elimination half-life of only 6 to 10 hours forces patients to take the drug multiple times a day. Together, these characteristics create the conditions for erratic plasma concentrations, missed doses, and avoidable side effects. Encapsulating carvedilol within polymer-matrix microspheres is a strategy with growing experimental support: the polymer network acts as a physical throttle on drug escape, stretching the release window well beyond what any immediate-release tablet can offer. This article brings together evidence published between 2016 and 2025 on how microsphere formulations of carvedilol are built, what polymers are chosen and why, how the finished particles are tested, and what the most informative recent studies have found. Across this body of work, entrapment efficiencies consistently exceed 75 percent when formulation conditions are properly optimised, and release profiles extending to 12 hours or beyond are regularly achieved. Floating, pH-sensitive, and mucoadhesive variants each address specific absorption or tolerability concerns, broadening the design toolbox available to formulators.

carvedilolmicrospherescontrolled-release oral deliveryethyl celluloseHPMCfloating microspheres+3 more
354,692 views
106,552 downloads

Contributors:

 Anupama Chaturvedi
,
 Deepak Marothia
Research PaperID: AJPTR3160003Pages 28-30

Autism spectrum disorder treated with homoeopathy

Dr.Babandeep kaur

Autism is lifelong neurodevelopmental condition characterised by persistent challenges in social communication and interaction, alongside restricted interests an repetitive behaviour

Autismautistic childHomoeopathy
355,010 views
106,539 downloads

Contributors:

 Dr.Babandeep kaur
Research PaperID: AJPTR3160004Pages 31-41

ANALYTICAL METHOD DEVELOPMENT AND VALIDATION FOR DETERMINATION OF LIDOCAINE USING RP-HPLC TECHNIQUES

Sandhya S Ahire, Divyank R. Patil, Sujeetkumar I. Ahire

The objective of this work was Analytical Method Development for Determination of Lidocaine Using HPLC methods which are simple, accurate, precise, specific, sensitive, reproducible and economical methods. Forced degradation is carried out to produce representative samples for developing stability-indicating methods for drug substances and drug products. Lidocaine works by inhibiting sodium ion channels in nerve membranes, which prevents the initiation and conduction of nerve impulses, producing local anesthesia. The result for subjected study was found to be Linearity rang (ug/ml) 20-100, Retention time 6.49/ml,% recovery 99%-101%,correlation coefficient (r²)0.9992, Intraday Precision (%RSD) 0.57, Interday Precision (%RSD)0.43. In summary, the study successfully developed and validated a simple, reliable, and stability-indicating HPLC method for the estimation of Lidocaine.

stability-indicating HPLCLidocaineForced degradationcorrelation coefficientPrecision
354,910 views
106,550 downloads

Contributors:

 Sandhya S Ahire
,
 Divyank R. Patil
,
 Sujeetkumar I. Ahire
Research PaperID: AJPTR3160005Pages 42-52

Reversed-Phase High-Performance Liquid Chromatography (RP-HPLC) Based Analytical Method Development and Validation for Pharmaceutical Dosage Forms: A Comprehensive Review

Lavesh Jain, Hitesh Kothari, Shaziya Yasmeen, Anju Goyal

Liquid chromatography forms the backbone of quality evaluation, regulatory compliance, and safety profiling in the pharmaceutical field. Out of the various available techniques, Reversed-Phase High-Performance Liquid Chromatography (RP-HPLC) is still the most widely used tool to identify and quantify active pharmaceutical ingredients (APIs) and their final dosage forms. This review takes a close look at the basic principles of RP-HPLC and provides a clear, step-by-step guide to developing reliable analytical methods. We practically evaluate key variables that affect separation, such as picking the right stationary phase, choosing suitable mobile phases and buffers, adjusting pH, and selecting the best detection systems. Beyond basic method development, this paper also dives into stability-indicating assays (SIAs) and forced degradation studies. These stress tests are crucial for understanding how drugs break down when exposed to heat, light, acid, base, and oxidation over time. Furthermore, we outline the current method validation requirements dictated by the updated International Council for Harmonization (ICH) Q2(R2) guidelines, breaking down parameters like specificity, linearity, precision, accuracy, detection limits, and robustness. To bridge the gap between traditional practices and modern trends, this review also touches upon the growing shift toward Analytical Quality by Design (AQbD) and Green Analytical Chemistry (GAC). Ultimately, this article aims to serve as a practical and comprehensive guide for laboratory analysts and researchers working in drug formulation and quality control.

Reversed-Phase HPLCMethod ValidationPharmaceutical Dosage FormsStability-Indicating AssayAnalytical Quality by Design (AQbD)Green Analytical Chemistry
355,028 views
106,605 downloads

Contributors:

 Lavesh Jain
,
 Hitesh Kothari
,
 Shaziya Yasmeen
,
 Anju Goyal
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