A comparison between venous blood sampling and capillary volumetric absorptive microsampling for antibiotics levels monitoring in individuals with and without periodontal disease

Objectives We aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from conventional venous blood collected within the frame of a pharmacokinetic study of amoxicillin (AMO), metronidazole (MET), azithromy...

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Published inClinical oral investigations Vol. 29; no. 9; p. 420
Main Authors Lazaridi, Ioanna, Choong, Eva, Mercier, Thomas, Decosterd, Laurent A., Giannopoulou, Catherine, Zekeridou, Alkisti
Format Journal Article
LanguageEnglish
Published Berlin/Heidelberg Springer Berlin Heidelberg 23.08.2025
Springer Nature B.V
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ISSN1436-3771
1432-6981
1436-3771
DOI10.1007/s00784-025-06466-3

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Abstract Objectives We aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from conventional venous blood collected within the frame of a pharmacokinetic study of amoxicillin (AMO), metronidazole (MET), azithromycin (AZI), commonly used for periodontal treatment. The suitability and overall, acceptability of the VAMS approach was also ascertained by both participants of the pilot study and dentist practitioners. Materials and methods Twelve volunteers (6 subjects without periodontal problems (PH), and 6 individuals affected with periodontitis (PP)) were administered 500 mg each of amoxicillin, metronidazole, and azithromycin. Paired venous blood (VB) and capillary VAMS samples were collected at 2-, 6-,10-, 24-, 48- and 96-hours post-antibiotics administration. Antibiotic concentrations were determined using multiplex liquid chromatography coupled tandem mass spectrometry (LC-MS/MS). Statistical analyses included Mann-Whitney U tests and t-tests. Results Significant differences in antibiotic concentrations were observed between VAMS and venous blood (VB) collection methods, across different time points for the three antibiotics ( p  < 0.05). AMO concentrations in VB were 3.5-fold higher ( p  < 0.01) than in VAMS at early time points (2, 6, 10 h (h)). MET levels in VB were 1.5-fold higher than in VAMS at 2 h and 6 h, ( p  < 0.01), but this difference disappeared after 10 h. Alternately, while AZI levels were similar in VB and VAMs 2 h after administration, AZI concentrations in VB and VAMS declined non parallelly, with VB levels decreasing to about 60 to 25% of those measured in VAMS over the observed 96 h interval. Antibiotic exposures were not different in the PH and PP groups. Differences in antibiotics concentrations determined in VB and VAMS samples are a direct consequence of (i) the matrices used for analyses (plasma in VB, vs. whole blood with VAMS), (ii) the subjects’ hematocrit, and (iii) the distinct cell distribution pattern of antibiotics with AMO characterized by a weak penetration in red blood cells (RBC) while AZI tends to progressively concentrate into RBC. MET was present at higher concentrations in plasma until 6 h which thereafter tended to re-equilibrate equally in plasma and RBC. Conclusion Though VAMS yielded significantly different results compared to plasma, it effectively reflects the concentration evolution of the antibiotics and could be an alternative in pharmacokinetic studies and therapeutic monitoring. Clinical relevance VAMS holds promise in advancing therapeutic drug monitoring in periodontal research and clinical practice. Being less invasive than venous puncture it is well accepted by subjects and facilitate blood monitoring in clinical trials and non-hospital settings. Its minimal invasiveness and simplified logistics make it suitable for enhancing precision medicine and pharmaceutical approaches in periodontology.
AbstractList Objectives We aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from conventional venous blood collected within the frame of a pharmacokinetic study of amoxicillin (AMO), metronidazole (MET), azithromycin (AZI), commonly used for periodontal treatment. The suitability and overall, acceptability of the VAMS approach was also ascertained by both participants of the pilot study and dentist practitioners. Materials and methods Twelve volunteers (6 subjects without periodontal problems (PH), and 6 individuals affected with periodontitis (PP)) were administered 500 mg each of amoxicillin, metronidazole, and azithromycin. Paired venous blood (VB) and capillary VAMS samples were collected at 2-, 6-,10-, 24-, 48- and 96-hours post-antibiotics administration. Antibiotic concentrations were determined using multiplex liquid chromatography coupled tandem mass spectrometry (LC-MS/MS). Statistical analyses included Mann-Whitney U tests and t-tests. Results Significant differences in antibiotic concentrations were observed between VAMS and venous blood (VB) collection methods, across different time points for the three antibiotics ( p  < 0.05). AMO concentrations in VB were 3.5-fold higher ( p  < 0.01) than in VAMS at early time points (2, 6, 10 h (h)). MET levels in VB were 1.5-fold higher than in VAMS at 2 h and 6 h, ( p  < 0.01), but this difference disappeared after 10 h. Alternately, while AZI levels were similar in VB and VAMs 2 h after administration, AZI concentrations in VB and VAMS declined non parallelly, with VB levels decreasing to about 60 to 25% of those measured in VAMS over the observed 96 h interval. Antibiotic exposures were not different in the PH and PP groups. Differences in antibiotics concentrations determined in VB and VAMS samples are a direct consequence of (i) the matrices used for analyses (plasma in VB, vs. whole blood with VAMS), (ii) the subjects’ hematocrit, and (iii) the distinct cell distribution pattern of antibiotics with AMO characterized by a weak penetration in red blood cells (RBC) while AZI tends to progressively concentrate into RBC. MET was present at higher concentrations in plasma until 6 h which thereafter tended to re-equilibrate equally in plasma and RBC. Conclusion Though VAMS yielded significantly different results compared to plasma, it effectively reflects the concentration evolution of the antibiotics and could be an alternative in pharmacokinetic studies and therapeutic monitoring. Clinical relevance VAMS holds promise in advancing therapeutic drug monitoring in periodontal research and clinical practice. Being less invasive than venous puncture it is well accepted by subjects and facilitate blood monitoring in clinical trials and non-hospital settings. Its minimal invasiveness and simplified logistics make it suitable for enhancing precision medicine and pharmaceutical approaches in periodontology.
ObjectivesWe aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from conventional venous blood collected within the frame of a pharmacokinetic study of amoxicillin (AMO), metronidazole (MET), azithromycin (AZI), commonly used for periodontal treatment. The suitability and overall, acceptability of the VAMS approach was also ascertained by both participants of the pilot study and dentist practitioners.Materials and methodsTwelve volunteers (6 subjects without periodontal problems (PH), and 6 individuals affected with periodontitis (PP)) were administered 500 mg each of amoxicillin, metronidazole, and azithromycin. Paired venous blood (VB) and capillary VAMS samples were collected at 2-, 6-,10-, 24-, 48- and 96-hours post-antibiotics administration. Antibiotic concentrations were determined using multiplex liquid chromatography coupled tandem mass spectrometry (LC-MS/MS). Statistical analyses included Mann-Whitney U tests and t-tests.ResultsSignificant differences in antibiotic concentrations were observed between VAMS and venous blood (VB) collection methods, across different time points for the three antibiotics (p < 0.05). AMO concentrations in VB were 3.5-fold higher (p < 0.01) than in VAMS at early time points (2, 6, 10 h (h)). MET levels in VB were 1.5-fold higher than in VAMS at 2 h and 6 h, (p < 0.01), but this difference disappeared after 10 h. Alternately, while AZI levels were similar in VB and VAMs 2 h after administration, AZI concentrations in VB and VAMS declined non parallelly, with VB levels decreasing to about 60 to 25% of those measured in VAMS over the observed 96 h interval. Antibiotic exposures were not different in the PH and PP groups. Differences in antibiotics concentrations determined in VB and VAMS samples are a direct consequence of (i) the matrices used for analyses (plasma in VB, vs. whole blood with VAMS), (ii) the subjects’ hematocrit, and (iii) the distinct cell distribution pattern of antibiotics with AMO characterized by a weak penetration in red blood cells (RBC) while AZI tends to progressively concentrate into RBC. MET was present at higher concentrations in plasma until 6 h which thereafter tended to re-equilibrate equally in plasma and RBC.ConclusionThough VAMS yielded significantly different results compared to plasma, it effectively reflects the concentration evolution of the antibiotics and could be an alternative in pharmacokinetic studies and therapeutic monitoring.Clinical relevanceVAMS holds promise in advancing therapeutic drug monitoring in periodontal research and clinical practice. Being less invasive than venous puncture it is well accepted by subjects and facilitate blood monitoring in clinical trials and non-hospital settings. Its minimal invasiveness and simplified logistics make it suitable for enhancing precision medicine and pharmaceutical approaches in periodontology.
We aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from conventional venous blood collected within the frame of a pharmacokinetic study of amoxicillin (AMO), metronidazole (MET), azithromycin (AZI), commonly used for periodontal treatment. The suitability and overall, acceptability of the VAMS approach was also ascertained by both participants of the pilot study and dentist practitioners.OBJECTIVESWe aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from conventional venous blood collected within the frame of a pharmacokinetic study of amoxicillin (AMO), metronidazole (MET), azithromycin (AZI), commonly used for periodontal treatment. The suitability and overall, acceptability of the VAMS approach was also ascertained by both participants of the pilot study and dentist practitioners.Twelve volunteers (6 subjects without periodontal problems (PH), and 6 individuals affected with periodontitis (PP)) were administered 500 mg each of amoxicillin, metronidazole, and azithromycin. Paired venous blood (VB) and capillary VAMS samples were collected at 2-, 6-,10-, 24-, 48- and 96-hours post-antibiotics administration. Antibiotic concentrations were determined using multiplex liquid chromatography coupled tandem mass spectrometry (LC-MS/MS). Statistical analyses included Mann-Whitney U tests and t-tests.MATERIALS AND METHODSTwelve volunteers (6 subjects without periodontal problems (PH), and 6 individuals affected with periodontitis (PP)) were administered 500 mg each of amoxicillin, metronidazole, and azithromycin. Paired venous blood (VB) and capillary VAMS samples were collected at 2-, 6-,10-, 24-, 48- and 96-hours post-antibiotics administration. Antibiotic concentrations were determined using multiplex liquid chromatography coupled tandem mass spectrometry (LC-MS/MS). Statistical analyses included Mann-Whitney U tests and t-tests.Significant differences in antibiotic concentrations were observed between VAMS and venous blood (VB) collection methods, across different time points for the three antibiotics (p < 0.05). AMO concentrations in VB were 3.5-fold higher (p < 0.01) than in VAMS at early time points (2, 6, 10 h (h)). MET levels in VB were 1.5-fold higher than in VAMS at 2 h and 6 h, (p < 0.01), but this difference disappeared after 10 h. Alternately, while AZI levels were similar in VB and VAMs 2 h after administration, AZI concentrations in VB and VAMS declined non parallelly, with VB levels decreasing to about 60 to 25% of those measured in VAMS over the observed 96 h interval. Antibiotic exposures were not different in the PH and PP groups. Differences in antibiotics concentrations determined in VB and VAMS samples are a direct consequence of (i) the matrices used for analyses (plasma in VB, vs. whole blood with VAMS), (ii) the subjects' hematocrit, and (iii) the distinct cell distribution pattern of antibiotics with AMO characterized by a weak penetration in red blood cells (RBC) while AZI tends to progressively concentrate into RBC. MET was present at higher concentrations in plasma until 6 h which thereafter tended to re-equilibrate equally in plasma and RBC.RESULTSSignificant differences in antibiotic concentrations were observed between VAMS and venous blood (VB) collection methods, across different time points for the three antibiotics (p < 0.05). AMO concentrations in VB were 3.5-fold higher (p < 0.01) than in VAMS at early time points (2, 6, 10 h (h)). MET levels in VB were 1.5-fold higher than in VAMS at 2 h and 6 h, (p < 0.01), but this difference disappeared after 10 h. Alternately, while AZI levels were similar in VB and VAMs 2 h after administration, AZI concentrations in VB and VAMS declined non parallelly, with VB levels decreasing to about 60 to 25% of those measured in VAMS over the observed 96 h interval. Antibiotic exposures were not different in the PH and PP groups. Differences in antibiotics concentrations determined in VB and VAMS samples are a direct consequence of (i) the matrices used for analyses (plasma in VB, vs. whole blood with VAMS), (ii) the subjects' hematocrit, and (iii) the distinct cell distribution pattern of antibiotics with AMO characterized by a weak penetration in red blood cells (RBC) while AZI tends to progressively concentrate into RBC. MET was present at higher concentrations in plasma until 6 h which thereafter tended to re-equilibrate equally in plasma and RBC.Though VAMS yielded significantly different results compared to plasma, it effectively reflects the concentration evolution of the antibiotics and could be an alternative in pharmacokinetic studies and therapeutic monitoring.CONCLUSIONThough VAMS yielded significantly different results compared to plasma, it effectively reflects the concentration evolution of the antibiotics and could be an alternative in pharmacokinetic studies and therapeutic monitoring.VAMS holds promise in advancing therapeutic drug monitoring in periodontal research and clinical practice. Being less invasive than venous puncture it is well accepted by subjects and facilitate blood monitoring in clinical trials and non-hospital settings. Its minimal invasiveness and simplified logistics make it suitable for enhancing precision medicine and pharmaceutical approaches in periodontology.CLINICAL RELEVANCEVAMS holds promise in advancing therapeutic drug monitoring in periodontal research and clinical practice. Being less invasive than venous puncture it is well accepted by subjects and facilitate blood monitoring in clinical trials and non-hospital settings. Its minimal invasiveness and simplified logistics make it suitable for enhancing precision medicine and pharmaceutical approaches in periodontology.
We aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from conventional venous blood collected within the frame of a pharmacokinetic study of amoxicillin (AMO), metronidazole (MET), azithromycin (AZI), commonly used for periodontal treatment. The suitability and overall, acceptability of the VAMS approach was also ascertained by both participants of the pilot study and dentist practitioners. Twelve volunteers (6 subjects without periodontal problems (PH), and 6 individuals affected with periodontitis (PP)) were administered 500 mg each of amoxicillin, metronidazole, and azithromycin. Paired venous blood (VB) and capillary VAMS samples were collected at 2-, 6-,10-, 24-, 48- and 96-hours post-antibiotics administration. Antibiotic concentrations were determined using multiplex liquid chromatography coupled tandem mass spectrometry (LC-MS/MS). Statistical analyses included Mann-Whitney U tests and t-tests. Significant differences in antibiotic concentrations were observed between VAMS and venous blood (VB) collection methods, across different time points for the three antibiotics (p < 0.05). AMO concentrations in VB were 3.5-fold higher (p < 0.01) than in VAMS at early time points (2, 6, 10 h (h)). MET levels in VB were 1.5-fold higher than in VAMS at 2 h and 6 h, (p < 0.01), but this difference disappeared after 10 h. Alternately, while AZI levels were similar in VB and VAMs 2 h after administration, AZI concentrations in VB and VAMS declined non parallelly, with VB levels decreasing to about 60 to 25% of those measured in VAMS over the observed 96 h interval. Antibiotic exposures were not different in the PH and PP groups. Differences in antibiotics concentrations determined in VB and VAMS samples are a direct consequence of (i) the matrices used for analyses (plasma in VB, vs. whole blood with VAMS), (ii) the subjects' hematocrit, and (iii) the distinct cell distribution pattern of antibiotics with AMO characterized by a weak penetration in red blood cells (RBC) while AZI tends to progressively concentrate into RBC. MET was present at higher concentrations in plasma until 6 h which thereafter tended to re-equilibrate equally in plasma and RBC. Though VAMS yielded significantly different results compared to plasma, it effectively reflects the concentration evolution of the antibiotics and could be an alternative in pharmacokinetic studies and therapeutic monitoring. VAMS holds promise in advancing therapeutic drug monitoring in periodontal research and clinical practice. Being less invasive than venous puncture it is well accepted by subjects and facilitate blood monitoring in clinical trials and non-hospital settings. Its minimal invasiveness and simplified logistics make it suitable for enhancing precision medicine and pharmaceutical approaches in periodontology.
ArticleNumber 420
Author Decosterd, Laurent A.
Lazaridi, Ioanna
Zekeridou, Alkisti
Giannopoulou, Catherine
Choong, Eva
Mercier, Thomas
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Snippet Objectives We aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in...
We aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in plasma from...
ObjectivesWe aimed to compare the antibiotic concentrations obtained using the volumetric absorptive microsampling (VAMS) devices with those determined in...
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SubjectTerms Adult
Amoxicillin
Amoxicillin - blood
Amoxicillin - pharmacokinetics
Anti-Bacterial Agents - blood
Anti-Bacterial Agents - pharmacokinetics
Antibiotics
Azithromycin
Azithromycin - blood
Azithromycin - pharmacokinetics
Blood Specimen Collection - methods
Capillaries
Chromatography, Liquid
Clinical outcomes
Clinical trials
Dentistry
Drug Monitoring - methods
Electrocardiography
Erythrocytes
Female
Gum disease
Hematocrit
Hospitals
Humans
Invasiveness
Liquid chromatography
Male
Mass spectroscopy
Medicine
Metabolic disorders
Metronidazole
Metronidazole - blood
Metronidazole - pharmacokinetics
Middle Aged
Periodontal diseases
Periodontal Diseases - blood
Periodontal Diseases - drug therapy
Periodontics
Periodontitis
Pharmacokinetics
Phlebotomy
Pilot Projects
Plasma
Precision medicine
Statistical analysis
Systemic diseases
Tandem Mass Spectrometry
Veins
Title A comparison between venous blood sampling and capillary volumetric absorptive microsampling for antibiotics levels monitoring in individuals with and without periodontal disease
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Volume 29
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