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Author(s): Jadhav Rajshri D*1, Datar P.A.2, Shete R.V.3

Email(s): 1rajshrijadhav829@gmail.com

Address:

    Rajgad Dayanpeeth’s College of Pharmacy, Bhor - Pune, Maharashtra, India.

Published In:   Volume - 4,      Issue - 4,     Year - 2025


Cite this article:
Jadhav Rajshri D, Datar P.A., Shete R.V.. A Review: Analytical Methods of Antibiotic Drug Tigecycline. IJRPAS, April 2025; 4 (4): 90-95.

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 A Review: Analytical Methods of Antibiotic Drug Tigecycline

        

  Jadhav Rajshri D*, Datar P.A., Shete R.V.

Department Of Pharmaceutical Quality Assurance

Rajgad Dayanpeeth’s College of Pharmacy, Bhor - Pune, Maharashtra, India.

 

*Correspondence: rajshrijadhav829@gmail.com

DOI: https://doi.org/10.71431/IJRPAS.2025.4409   

Article Information

 

Abstract

Review Article

Received: 21/04/2025

Revised:   23/04/2025

Accepted: 25/04/2025

Published: 30/04/2025

 

Keywords

Tigecycline; Impurities;

Method validation;

RP-HPLC

 

A rapid, accurate, simple, and reproducible UV, HPLC, and stability-indicating spectroscopic method has been developed for the quantitative estimation of Tigecycline in both bulk drug and pharmaceutical dosage forms. A selective, precise, and stability-indicating high-performance liquid chromatography (HPLC) method was established and validated for analyzing Tigecycline in its pharmaceutical formulation. The method was validated in accordance with ICH guidelines to ensure its reliability. HPLC remains the most widely adopted technique for separating, identifying, and quantifying pharmaceutical compounds. To optimize the analytical method, several chromatographic parameters were fine-tuned, including sample preparation, selection of mobile phase, choice of column, and detection system. This paper aims to present a detailed overview of the method development, optimization, and validation procedures.

INTRODUCTION

Tigecycline, chemically named as( 4S, 4aS, 5aR, 12aR)- 9-(( 2-( tert- butylamino) acetyl) amino) -4,7-bis( dimethylamino),- tetrahydrotetracene-2-carboxamide, is a broad- diapason glycylcycline antibiotic structurally related to tetracycline. It's biosynthesized by the Streptomyces  rubric of Actinobacteria and functions as a bacteriostatic agent. This retailed under the brand name Tygacil, Tigecycline was approved by the U.S. Food and Drug Administration( FDA) in 2005. According to the International Council for Harmonisation( ICH), new pharmaceutical substances and their lozenge forms must  suffer stability testing. Tigecycline has  preliminarily been anatomized using  colorful  ways, including spectrophotometry,  fluorescence- grounded  styles, and liquid chromatography coupled with ultraviolet discovery( HPLC-UV). fresh  logical approaches  similar as stability- indicating  styles have been developed to assess Tigecycline in its parenteral lozenge form. A review of being literature reveals a limited number of validated  styles available for Tigecycline analysis using UV-Visible spectrophotometry and rear- phase high- performance liquid chromatography( RP- HPLC). While a many RP- HPLC, LC- MS/ MS, and HPTLC  styles have been reported for the discovery of Tigecycline in  natural samples,these remain  fairly scarce. (1, 2 ,3)   The current  exploration aims to develop and validate a simple rapid-fire, accurate, and precise  system for the analysis of Tigecycline in both bulk and pharmaceutical  phrasings. As per ICH guidelines, stability- indicating logical styles must be able of assessing the  medicine’s stability under stress conditions,  similar as hydrolysis, oxidation, photolysis, and thermal  declination. According to FDA recommendations, these  styles should allow for direct quantification of the active pharmaceutical  component without  hindrance from  declination products, process  contaminations.(7,8, 15)

Impurities: Tigecycline and its impurities 1 and 2 are degraded. Which are separated and characterized by NMR, HRMS and IR spectral investigation In antimicrobial action Impurities, 1 and 2 shows good activity in the direction Gram-negative and Gram-positive. 1 and 2 in bulk drug and formulations (16)

Structures:

 

 Tigecycline

 

 

                                                           

                       Impurity 1                                                                                                Impurity 2

Force Degradation study:

Forced degradation involves exposing a drug substance to extreme environmental and chemical conditions to assess its stability profile. These studies help in understanding the molecule's chemical behavior and provide valuable insights into potential degradation pathways and products. This information is crucial for identifying the structure of degradation products and evaluating the drug's overall stability.There is a certain stabilities acidic and basic hydrolysis, oxidation, heat, and light exposure. (16)

 

HPLC:

High-performance liquid chromatography (HPLC) . Its functions by separating, identifying, and quantifying components in samples dissolved in liquid. The method depends on the distribution of the analyte between a mobile phase (eluent) and a stationary phase, typically within the column's packing material. HPLC plays a crucial role in pharmaceutical analysis, valued for its high accuracy and reliability in both qualitative and quantitative evaluations. (20)

Analytical Methods of Tigecycline:

Sr.no.

Methods

Tigecycline

Ref.

1.

RP - HPTLC

§  Column : RP-18 Silica Gel 60 F25S

§  Mobile Phase : Methanol: Acetonitrile: Water (3: 3: 4 v/v/v)

§  Wavelength : 245 nm

§  Rf value  :  0.7 ± 0.02

§  Calibration curve : 1000- 6000 ng//band

§  Limit of detection 0.7 ng/band

§  Limit of Quantification 2.328ng/band

§  Linearity 0.998

17

2.

 

 RP-HPLC     (Isocratic)

 

 

§  Column  Agilent ZORBAX Eclipse XDB C18  (250 mm × 4.6 mm, 5 μm)

§  Mobile Phase : methanol: 10 mmol Triethylamine Buffer mixture (75:25 v/v, pH 6.1)

§  flow rate  1 ml/min

§  wavelength, 231 nm

§  Linearity 75–450 μg/ml

§  LOD &LOQ 1.37,0.047 and 0.071 μg/ml

18

3.

   UV

§  Wavelength 250 nm,

§  Range  2 to 12 μg/mL

§  R2 < 0.999

§  Precision 0.3269711

19

4.

 UV Spectroscopy

§  Wavelength 250nm

§  concentration range of 2-30μg/ ml

§  correlation coefficient (R2) 0.999

§  LOD

0.1527 μg/ml

§  LOQ

0.4635 μg/ml

13

5.

Stability indicating

§  Wavelength 250nm.

§  Column C18 column (250 × 4.6 mm, 5μm)

§  Mobile phase acetonitrile and acetic acid (20:80).

§  Flow rate 0.4ml/min

§  Retention time 5.02 min

§  Range 50 – 150 μg/ml.

§  R2  0.999

15

6.

RP- HPLC

§  Wavelength 247 nm

  Column  C18 column (Kromasil ODS C-18)

§  Mobile phase  Buffer (1-Hexane Sulphonic acid Sodium Monohydrate Salt and Potassium Dihydrogen Ortho Phosphate)and  Acetonitrile  (83:17) v/v

§  flow rate  1.2 ml/min

§  Retention time 7.6 min.

§  Range 40-60 μg/ml

§  Correlation coefficient of 0.9999.

§  Recovery 100.92%.

§  LOD &LOQ 1.8μg/ml and 5.42μg/ml.

9

7.

RP-HPLC

Column Sunsil C18 150 mm x 4.6mm x 5μ

Mobile phase acetonitrile : water  [70:30]

flow rate 0.8 ml/min

 Wavelength  250 nm.

range of 5-40 μg/mL

20

8.

RP- LC

Column Luna C18 column (250x4.6mm)

Mobile phase sodium phosphate monobasic (0.015M) and oxalic acid(0.015M)- acetonitrile (75:25,v/v)

Flow rate 1.0 ml/min.

Wavwlength – 280nm

Range 40-100ug/ml

Accuracy 99.01%

LOD&LOQ 1.67 and 5.05 ug/ml

21

 

CONCLUSION

In this review paper provides this information. . This includes HPTLC, UV, and LC methods; among them, the HPLC-UV method remains a valuable analytical tool due to its cost-effectiveness and reliability, making it particularly advantageous for bioanalytical applications.

 

 

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