Mercedes Muñoz Conde

Dr. Mercedes Muñoz Conde

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Research Focus & Metrics

Academic Career Length

4Years (2023-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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ICInés María Comino-Sanz
Inés María Comino-Sanz
RJRafael Cabello Jaime
Rafael Cabello Jaime
JBJosefina Arboledas Bellón
Josefina Arboledas Bellón
JJJuan Francisco Jiménez-García
Juan Francisco Jiménez-García
MCMercedes Muñoz Conde
Mercedes Muñoz Conde
PPPedro L. Pancorbo-Hidalgo
Pedro L. Pancorbo-Hidalgo
(1) Wound monitoring is an essential aspect in the evaluation of wound healing. This can be carried out with the multidimensional tool HELCOS, which develops a quantitative analysis and graphic representation of wound healing evolution via imaging. It compares the area and tissues present in the wound bed. This instrument is used for chronic wounds in which the healing process is altered. This article describes the potential use of this tool to improve the monitoring and follow-up of wounds and presents a case series of various chronic wounds with diverse etiology treated with an antioxidant dressing. (2) Methods: A secondary analysis of data from a case series of wounds treated with an antioxidant dressing and monitored with the HELCOS tool. (3) Results: The HELCOS tool is useful for measuring changes in the wound area and identifying wound bed tissues. In the six cases described in this article, the tool was able to monitor the healing of the wounds treated with the antioxidant dressing. (4) Conclusions: the monitoring of wound healing with this multidimensional HELCOS tool offers new possibilities to facilitate treatment decisions by healthcare professionals.

1 April 2026 in Life
Verified
Journal Article
Open access
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JGJuan Francisco Jiménez García
Juan Francisco Jiménez García
MGMaría P García-Ruiz
María P García-Ruiz
FJFrancisco González Jiménez
Francisco González Jiménez
MGMaria Gutierrez García
Maria Gutierrez García
JLJose Luis Jiménez Laínez
Jose Luis Jiménez Laínez
FGFRANCISCO P. GARCIA-FERNANDEZ
FRANCISCO P. GARCIA-FERNANDEZ
Introduction: Venous leg ulcers are the most severe manifestation of chronic venous insufficiency, and their treatment is based on compression therapy, whose effectiveness depends on the magnitude of the pressure and the biomechanical properties of the system. Doubts persist about the actual correlation between interface pressure, bandage stiffness and clinical outcomes in real-world practice. Objective: To compare the clinical efficacy and biomechanical behavior of different multicomponent compression systems in venous leg ulcers, analyzing the relationship between interface pressure, static stiffness, edema reduction and variation in the wound area. Methodology: This is a prospective, observational and multicenter study in six districts/health areas of Andalusia, in adults with active venous ulcers attended by Advanced Practice Nurses in Complex Chronic Wounds. Several multi-component compression systems were applied, and interface pressure was monitored using Tight Alright® at three points on the leg for 96 h, recording final pressure, static stiffness, perimeters and ulcer area. Results: All systems achieved a reduction in leg circumference, more marked at the proximal points, evidencing an overall decongestant effect. The correlation between final pressure and edema reduction was weak, and relevant differences were observed in the reduction in ulcer area, with Urgo K2 and CPK Compress 2 standing out with decreases of more than 50% compared to medium or low yields of other systems with comparable pressures. The static stiffness analysis showed specific patterns according to system and leg size, as well as a heterogeneous longitudinal distribution of pressure. Conclusions: The efficacy of compression in venous ulcers depends on both the interface pressure and the design and biomechanical behavior of the system, with clinically relevant differences between multicomponent dressings. Multipoint pressure and stiffness monitoring provides useful information to optimize system selection and support decisions based on biomechanical parameters and standardized clinical outcomes.