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Store-and-forward teledermatology in a Spanish health area significantly increases access to dermatology expertise
BMC Primary Care volume 25, Article number: 227 (2024)
Abstract
Introduction
Teledermatology is the practice of dermatology through communication technologies. The aim of this study is to analyze its implementation in a Spanish health area during its first two years.
Methods
Cross-sectional descriptive study. It included interconsultations between dermatologists and family physicians in the Salamanca Health Area (Spain) after the implementation of the non-face-to-face modality over a period of two consecutive years. A total of 25,424 consultations were performed (20,912 face-to-face and 4,512 non-face-to-face); 1000 were selected by random sampling, half of each modality. Main measures: referral rate, response time and resolution time, type of pathology, diagnostic concordance, and quality of consultation.
Results
The annual referral rate was 42.9/1000 inhabitants (35.3 face-to-face and 7.6 non-face- to-face). The rate of face-to-face referrals was higher in urban areas (37.1) and the rate of non- face-to-face referrals in rural areas (10.4). The response time for non-face-to-face consultations was 2.4 ± 12.7 days and 56 ± 34.8 days for face-to-face consultations (p < 0.001). The resolution rate for non-face-to-face consultations was 44%. Diagnostic concordance, assessed by the kappa index, was 0.527 for face-to-face consultations and 0.564 for non-face-to-face consultations. Greater compliance with the quality criteria in the non-attendance consultations.
Conclusions
Teledermatology appears to be an efficient tool in the resolution of dermatological problems, with a rapid, effective, and higher quality response for attention to skin pathologies.
Registry
ClinicalTrials.gov Identifier: NCT05625295. Registered on 21 November 2022 (https://clinicaltrials.gov/ct2/show/ NCT05625295).
Introduction
Teledermatology (TD) is a telemedicine technique which consists of skin lesion assessment by dermatologists, allowing the diagnosis and treatment of patients remotely. There are different types: (1) Real-time or synchronous TD, usually via videoconference, where at least two individuals communicate synchronously, i.e., in real-time interaction. The concept can be applied equally well to both a videoconferencing system and simple telephone calls. (2) Delayed TD, store-and-forward or asynchronous TD, where the information and the photographic image is stored and the dermatologist answers in a second communication by e-mail or web access. The previously collected information (patient history and photographic images) is stored and sent to the dermatologist, who responds at a later point. There is no real time interaction between patient and dermatologist. Email or web access can be used, which allows a medical history to be attached, with the minimum essential items, together with the digital images of the patient’s skin lesions. The procedure is asynchronous. There are also hybrid formats [1]. Currently, the most widely used is store-and-forward TD as it is more efficient and easier to coordinate [2].
Studies on the validity of TD [3, 4] have found it to be a reliable, effective and efficient consultation instrument, and a practical tool for the family doctor [5, 6]. TD improves patient accessibility to the dermatologist, avoids long distances and transmits information quickly [7]. It also makes it possible to prioritize the diagnosis of skin cancer [8] and any other skin pathology [9], and contributes to better coordination between care levels, reducing costs and waiting lists [10, 11].
TD also has some disadvantages, such as: loss of relationship with the patient, limitation of clinical information to forms, need to retake and resubmit poor quality images, thus generating further delays and resistance to change among professionals.
TD is more established in better developed countries in Europe, America and Southeast Asia [3]. In Spain, there are large differences between autonomous communities [12, 13], with greater implementation in Catalonia, the Basque Country, Madrid, Galicia, Castilla la Mancha and Andalucía, where storage TD predominates [14]. The Covid-19 pandemic provided a boost and has accelerated its use and utility both in Spain and in other parts of the world [15, 16].
Evaluation of the effectiveness and efficiency of this technology is essential to guarantee the objectives of its implementation [17, 18]. In Spain, several studies have been carried out to evaluate the use of TD in clinical practice [19,20,21] with satisfactory results, but none in the Castilla y León region.
The Spanish national health system is managed by public entities, with 90% of the population enrolled. It has three organizational levels: national, autonomous and local health area. The latter has a reference hospital for specialized care. The health area is divided into basic health zones, with a health center (physical structure for globally coordinated, comprehensive, and permanent primary care) where primary care professionals work (family doctors, nurses, physiotherapists, etc.). Primary care is the basic and initial level of patient care, ensuring comprehensive and continuous life-long care. Healthcare is provided on demand, scheduled or urgent, either in the center or at the patient’s home by prior appointment. In the Spanish national health system, each person is assigned a family doctor in a health center which can be easily accessed by appointment. This doctor ensures globally coordinated, comprehensive, and permanent primary care, making an initial assessment of the health problem and, if necessary, referring patients to specialists such as dermatologists.
The aim of this study is to evaluate the implementation of TD, in the form of non-face-to-face consultation, in a health area of the autonomous community of Castilla y Leon (Spain) and to describe its use by family physicians and dermatologists, as well as its effectiveness in improving response time and problem resolution, and the quality of care provided by the family physician and dermatologist.
Methods
Design and setting
Cross-sectional descriptive study of the interconsultations between family doctors and dermatologists in the Salamanca health area (Castilla y Leon, Spain) to analyze the implementation of TD consultation in the first two years of operation. This health area provides health services to 328,417 inhabitants, in 36 health centers and a tertiary hospital with a dermatology service. During the study period, there were a total of 12 dermatologists for the entire health area, a ratio of 1 dermatologist for every 24,613 persons. The waiting time for a first face-to-face consultation was 56 +/-34.6 days, reduced to 7–15 days in preferential consultations.
Patients
We included all dermatological consultations requested by patients aged 14 years or older by family doctors between August 2, 2020 and July 29, 2022. A total of 25,424 interconsultation requests (IC) were recorded during this period, of which 20,912 (83.3%) were face-to-face (FTF-IC) and 4.512 (17.7%) were non-face-to-face (NFTF-IC). The sample size was estimated to detect as significant a difference of 7 days in the response time between face-to-face and non-face-to-face consultation. Accepting an alpha risk of 0.05 and a beta risk of 0.2 in a bilateral contrast, 488 subjects were required in each group, assuming a common standard deviation of 37 days and estimating a loss rate of 10%. By random sampling with replacement, 1000 subjects with dermatology consultation were selected (498 FTF-IC and 502 NFTF-IC). We excluded 124 subjects (55 NFTF-IC and 69 FTF-IC) who met one of the following criteria: no information in their medical records, no physician assigned in Salamanca or death during the period evaluated (Fig. 1).
Non-face-to-face interconsultation procedure
This study analyzes asynchronous TD consultations. The tele-consultation (clinical data and images) is created, sent, evaluated and answered completely independently in time. The family physician sends the patient’s data and the dermatological lesion or pathology to be consulted to the dermatologist from the computerized primary care medical record, together with the contribution of photographic images to be assessed by the specialist. The dermatologist responds at a later point with his/her diagnostic judgment and resolution of the process if necessary, or makes an appointment with the patient for a face-to-face consultation.
It is the family physician who is responsible for deciding on and prioritizing the request for a non-face-to-face consultation, mainly for lesions suspected to be skin cancer and those that can be easily photographed for the image to be forwarded to the dermatologist.
Measurement
The information regarding the variables described below was collected from the computerized medical records of primary care (Medora) and specialized care (Jimena) by six researchers, previously trained to homogenize the collection criteria. The patients’ health centers were classified by population: urban (over 100,000 inhabitants), semi-urban (between 5,000 and 100,000) and rural (under 5,000), and by age and sex of the patients.
Dermatology consultation: type of consultation, date of request, date of first response and resolution, need for dermatology follow-up, use of dermatoscopy, diagnosis coded according to ICD 10 for the family doctor and according to DIADERM study [22] criteria for the dermatologist (Table S1: Supplementary material). The quality of the photography was evaluated according to the recommendations of the American Teledermatology Association (ATA) [23] (Table S2: Supplementary material).
The evaluation of the interconsultation quality used the following criteria: In the family doctor´s request: (1) Indication of reason for consultation; (2) Provision of images; (3) Description of the skin process: shape, borders, size, color, location, onset, accompanying symptoms and previous treatments. In the dermatologist’s response: (1) Diagnostic approach; (2) Therapeutic, medical, or surgical orientation; and (3) Appointment for a face-to-face dermatology consultation.
Statistical analysis
Data were recorded using the REDCap (Research Electronic Data Capture) platform [24], with a questionnaire previously designed for the project. The normal distribution of quantitative variables was verified using the Kolmogorov-Smirnov test. The analysis of the difference in means between qualitative variables in two categories was carried out by Student’s t-test for independent groups and for more than two categories by analysis of variance. For the contrast of qualitative variables, the X2-test was used. Concordance in diagnosis between family doctor and dermatologist was analyzed using the kappa index. Data were analyzed using SPSS for Windows, version 25.0. A value of p < 0.05 was considered statistically significant.
Results
The mean age of dermatology consultation patients was 54.5 ± 22.2 years, more specifically 53.9 ± 22.1 years in face-to-face and 56.8 ± 22.5 years in non-face-too-face consultations (p < 0.001); 58.5% were women, with no difference in the type of consultation. Table 1 shows the total number of referrals for the evaluation period, as well as the annual referral rate per 1000 population overall and according to health center characteristics, age and sex. The rate of face-to-face consultation was higher in urban (37.1) and semi-urban (36.7) health centers than in rural (27.2) ones, and the non-face-to-face rate was higher in rural (10.4), compared to 6.5 and 8.2 in urban and semi-urban, respectively. There was no gender difference in the type of consultation, but an age difference was found, with face-to-face patients being 2.78 (95% CI: 2.06 to 3.48) years younger.
Table 2 shows the socio-demographic characteristics of the 1,000 patients selected. In face-to-face cases, 50.6% were from urban and 9.4% from rural areas, while in non-face-to-face, 44.3% of patients were from urban and 19.1% from rural areas. The mean age of the sample was 55.5 ± 21.9 years, and 57.7% were women. In the selected sample, no differences were found in the type of consultation, age or sex, but there was a difference in the type of health center. In rural centers, 67.1% were non-face-to-face, while in urban and semi-urban centers the figure was less than 50% (p < 0.001).
Response time, from the request for consultation by the family doctor to the first response or visit by the dermatologist, was 29.1 ± 37.5 days on average. The response time for face-to-face was 56 ± 34.8 days and 2.4 ± 12.7 days for non-face-to-face (p < 0.01). Overall days to resolution was 83 ± 120.7, with 108.2 ± 119.7 days in face-to-face and 58.2 ± 116.7 days in non-face-to-face (p < 0.001). Resolution in face-to-face, assessed as solved on the day the dermatologist answered for the first time, was 44.6% of the total, with the rest requiring referral to the dermatologist.
Figure 2 shows the type of pathology referred according to the family doctor’s diagnostic suspicion in order of frequency. The main types of lesions were: inflammatory 34%, pigmented 25.9%, tumoral 15.6% and infectious 11.9%, with similar rates in both types of consultation.
Dermoscopy was used for family practice in 2.6% of all consultations, with greater use in non-face-to-face (4.8%) than in face-to-face cases (0.4%). The use of dermoscopy by the dermatologist was not evaluated. Photographic images were sent in 93.4% of non-face-to-face cases, with poor assessment in 23.8%, acceptable in 46.4% and good in 29.8% of cases, according to ATA criteria.
Table 3 shows the diagnoses of the general practitioner and dermatologist according to ICD 10 categories. The most frequent diagnostic suspicion for the general practitioner was pigmented lesions (9.9%), viral warts (5.3%) and seborrheic keratosis (5.6%), while for the dermatologist it was seborrheic keratosis (12.2%), pigmented lesions (7.7%) and non-melanoma skin cancer (7.4%). The diagnostic concordance analyzed by the kappa index was 0.546 (moderate grade), with 0.527 in face-to-face and 0.564 in non-face-to-face cases.
In the quality assessment of the family doctor’s consultation, the reason for consultation was specified in 97.1% of cases (96.8% of face-to-face and 97.6% of non-face-to-face), and images were provided in 94% of non-face-to-face and 11.1% of face-to-face consultations. Regarding the description of the cutaneous process, a higher percentage of the criteria were met in non-face-to-face (47.2%) than in face-to-face consultations (35.6%) (p < 0.001). The location of the lesion was the most common finding in 90.5% of both types of interconsultation, followed by the onset of the lesion (54.2%) and the existence of accompanying symptoms (50.1%) (Fig. 3).
In the evaluation of the quality of the dermatologist’s response, the diagnostic approach was found in 89.8% of face-to-face (91.8% in non-face-to-face and 87.8% in face-to-face) (p < 0.021); treatment guidance was given in 88.2% of consultations (89.5% in non-face-to-face and 86.9% in face-to-face), and dermatology consultations were cited in 74.7% (98.6% in face-to-face and 51.1% in non-face-to-face) (p < 0.001).
Discussion
The annual rate of non-face-to-face utilization per 1,000 population was higher in rural areas than in urban and semi-urban areas. The time to first response and resolution of the problem was shorter in NFTF-IC. Diagnostic concordance between family doctor and dermatologist, although moderate, was slightly higher in non-face-to-face than in face-to-face cases, as was the quality of the consultation of both family doctor and dermatologist. Therefore, non-face-to-face consultation achieved a reduction in time taken to resolve the dermatological problem and improved quality of care.
TD has demonstrated advantages such as reliability and diagnostic accuracy in dermatological pathology [25, 26], reduced time for problem resolution, reduced referrals to dermatology consultation [27] and reduced waiting lists [28]. In our study, the first response time by the dermatologist to non-face-to-face was 2.4 days with an average resolution time of 58.1 days, compared to 55.9 days for patients waiting to be assessed in face-to-face cases, and a resolution time of 108.2 days. The response time in non-face-to-face is similar to that described in an area of Granada, (Spain), stipulated at 2 days and 20 h, according to Ayén-Rodriguez et al. [20], and in a health area in the United States, where the median was 1 day (IQR 1–2) [29]. A further advantage observed was the reduction of costs in dermatological care [28]; although in this study we did not evaluate this aspect, a significant reduction was noted in the number of hospital consultations, loss of working days in the working population, and transport costs for patients who did not live in the city where the hospital was located. This study clearly supports the prioritization of non-face-to-face consultation, facilitating accessibility through this type of interconsultation for inhabitants of rural areas.
Along similar lines, the study by Batalla et al. [30] shows that TD avoids half of the referrals from primary care, with a greater capacity for resolution in the group of infectious diseases, inflammatory diseases, tumors and benign pigmented lesions. The EVIDE-19 Study [21], which used an app to send images of skin lesions to the dermatologist, concluded that 17% of patients were able to avoid face-to-face consultations and 68% of patients were able to delay face-to-face consultations for at least 3 months. The rate of resolution of non-face-to-face in our sample was higher, reaching 44.6%, so that just over 50% needed assessment at the hospital. These results are similar to those obtained by Vaño-Galván et al. [12]. , in which 40% of face-to-face consultations were avoided and in that of Pasdyn et al. [29], in which they recommended that 45% of the non-face-to-face visits be conducted face-to-face.
In the DIADERM study [22], the first to analyze the diagnoses of patients seen in dermatology outpatient clinics nationwide, the most frequent diagnoses were actinic keratosis, basal cell carcinoma and melanocytic nevus. These data are very similar to those found in our study, in which 33.2% of the family doctor’s initial diagnostic suspicions were for inflammatory lesions, 25.9% for pigmented lesions and 15.6% for tumor lesions.
Diagnostic concordance between family doctors and dermatologists in this study was moderate, although in line with other studies analyzing this concordance [29, 31], with similar or worse results. Dermatoscopy was only used in 2.6% of IC, predominantly in non-face-to-face, with a consequently low contribution of dermatoscopic images which facilitate diagnosis for the dermatologist [32]. Better training in dermatological pathology and greater use of dermatoscopy in the primary care setting could improve this aspect, since, as has been shown in this study, its use is still scarce in family doctor´s surgeries. This would improve the diagnostic accuracy of dermatological lesions and the early detection of skin cancer [33], as well as the quality of the photographs [34]. Diagnostic concordance between dermatologists in face-to-face and teledermatology consultations has also been analyzed in some studies, such as that by Emily L. Clarke [6], in which the overall concordance in first diagnosis was good (kappa 0.60), which reinforces the validity of this type of interconsultation.
With regard to the quality of the consultation, although in general there is room for improvement in both types of consultation, the quality criteria scores are higher in non-face-to-face than in face-to-face, both in the family physician’s request and in the dermatologist’s response. The description of the lesion is where the greatest problems were found, especially in face-to-face, although neither of the two (47.2% in non-face-to-face and 35.2% in face-to-face) reached half of the possible points. This would indicate that the use of TD, in addition to improving response times, can be a tool for improving the quality of care. Dermatologists also have a positive perception of the usefulness of TD and are in favor of its application [35].
In summary, the assessment of the NFTF by the dermatologist in 2.4 days is an excellent achievement for professionals and patients. This noteworthy advance in organizational capacity improves appointment management, optimizes the care process, adjusts work schedules, allows greater and better patient accessibility, provides greater user satisfaction and a better perception of the health status of the population. TD is presented as a more accessible alternative that can be quickly implemented to improve the speed of patient care, reduce waiting lists and reduce the pressure of care, while also reducing costs. These results obtained in TD show it to be a digital management tool for medical services that streamlines processes and acts as a highly effective and highly valued complement to face-to-face consultations, improving the patient experience and resolving cases effectively and efficiently.
There are several limitations to this study. It has a retrospective design, with the information recorded in the clinical records by many health professionals, so there may be a deficit of records, and this information was not assessed. The evaluators were several health professionals, and although training was carried out to homogenize criteria, there may be some discrepancies in the interpretation of the information. The number of people excluded, although not high (12.4%), may also have influenced the data analyzed.
Conclusion
The use of non-face-to-face consultation in dermatology speeds the dermatologist’s first response and the resolution of the problem, and reduces the need for face-to-face consultation at the hospital. It also improves diagnostic concordance between family doctor and dermatologist and the quality of care provided by both professionals.
Data availability
Data are available upon request.
Abbreviations
- NFTF-IC:
-
non-face-to- face inter-consultation
- FTF-IC:
-
face-to-face consultation
- TD:
-
teledermatology
References
Lee JJ, English JC. 3rd. Teledermatology: a review and update. Am J Clin Dermatol. 2018;19:253–60.
Granlund H, Thoden CJ, Carlson C, et al. Realtime teleconsultations versus face-to-face consultations in dermatology: immediate and six-month outcome. J Telemed Telecare. 2003;9:204–9.
Trettel A, Eissing L, Augustin M. Telemedicine in dermatology: findings and experiences worldwide - a systematic literature review. J Eur Acad Dermatol Venereol. 2018;32:215–24.
García Cuyàs F, Vàzquez N, de San Pedro M, et al. State of the art of the telemedicine. Where are we and what is pending to be done? Medicina Clínica. 2018;150:150–4.
Prados Castillejo JA. Telemedicina, una herramienta también para El médico De familia. Atención Primaria. 2013;45:129–32.
Clarke EL, Reichenberg JS, Ahmed AM, et al. The utility of teledermatology in the evaluation of skin lesions. J Telemed Telecare. 2023;29:382–9.
Echeverría-García B. Teledermatology as a service for General practitioners in remote areas. Actas Dermosifiliogr. 2019;110:623.
Moreno-Ramírez. D and Ferrándiz L. A 10-Year history of Teledermatology for skin Cancer Management. JAMA Dermatol. 2015;151:1289–90.
Sola-Ortigosa J, Muñoz-Santos C, Otzet-Gramunt I, et al. The usefulness of Teledermatology in Monitoring the Efficacy and Safety of a topical treatment for Actinic Keratosis. J Invest Dermatol. 2021;141:1837–e18391812.
Barbieri JS, Yang X, Kovarik CL. Evaluating the cost-effectiveness of teledermatology. J Am Acad Dermatol. 2019;81:765–6.
Snoswell C, Finnane A, Janda M, et al. Cost-effectiveness of Store-and-Forward Teledermatology: a systematic review. JAMA Dermatology. 2016;152:702–8.
Vaño-Galván S, Hidalgo A, Aguayo-Leiva I, et al. [Store-and-forward teledermatology: assessment of validity in a series of 2000 observations]. Actas Dermosifiliogr. 2011;102:277–83.
Romero G, de Argila D, Ferrandiz L, et al. Practice models in Teledermatology in Spain: longitudinal study, 2009–2014. Actas Dermosifiliogr. 2018;109:624–30.
Romero Aguilera G, de la Cortina P, Vera Iglesias E, et al. Fiabilidad de la teledermatología de almacenamiento en un escenario real. Actas Dermosifiliogr. 2014;105:605–13.
Pasquali P, Romero-Aguilera G, Moreno-Ramírez D. Teledermatology before, during, and after the COVID-19 pandemic. Actas Dermosifiliogr (Engl Ed). 2021;112:324–9.
Gronbeck C, Grant-Kels JM, Lu J, et al. Increased utilization of teledermatology among Medicare Part B beneficiaries during the COVID-19 pandemic. Clin Dermatol. 2022;40:760–3.
Vestergaard T, Andersen MK, Kidholm K. A cost-minimization analysis comparing teledermoscopy and face-to-face evaluations of suspicious skin lesions in Southern Denmark. J Telemed Telecare. 2022;10:1357633x221077864.
van Sinderen F, Tensen E, Lansink R, et al. Eleven years of teledermoscopy in the Netherlands: a retrospective quality and performance analysis of 18,738 consultations. J Telemed Telecare. 2022;10:1357633x221122113.
González-López G, Descalzo-Gallego MÁ, Arias-Santiago S, et al. Derivación De pacientes en consulta de dermatología y de teledermatología en España. Estudio DIADERM. Actas Dermosifiliogr. 2019;110:146–52.
Ayén-Rodriguez A, Llamas-Molina JM, Cabrerizo-Carvajal AM, et al. [Teledermatology in the Health Center West Area of Granada: from primary to specialized care]. Semergen. 2021;47:224–9.
Sendagorta E, Servera G, Nuño A, et al. Direct-to-patient Teledermatology during COVID-19 Lockdown in a Health District in Madrid, Spain: the EVIDE-19 pilot study. Actas Dermosifiliogr. 2021;112:345–53.
Buendía-Eisman A, Arias-Santiago S, Molina-Leyva A, et al. Outpatient dermatological diagnoses in Spain: results from the National DIADERM Random Sampling Project. Actas Dermosifiliogr (Engl Ed). 2018;109:416–23.
Romero G, Garrido JA, García-Arpa M. [Telemedicine and teledermatology (I): concepts and applications]. Actas Dermosifiliogr. 2008;99:506–22.
Harris PA, Taylor R, Minor BL, et al. The REDCap consortium: building an international community of software platform partners. J Biomed Inf. 2019;95:103208.
Moreno Ramírez D, Ferrándiz Pulido L. La teledermatología en Los hospitales de referencia. Piel Formación continuada en dermatología. 2005;20:157–9.
Romero-Aguilera G, Ferrandiz L, Moreno-Ramírez D. Teledermatología Urbana: concepto, ventajas y desventajas. Actas Dermosifiliogr. 2018;109:471–5.
Leyva YG, González KG, Pérez LER, et al. Impacto de la teledermatología en pacientes con cáncer cutáneo durante la COVID-19. Revista Finlay. 2021;11:400–11.
Wootton R, Bahaadinbeigy K, Hailey D. Estimating travel reduction associated with the use of telemedicine by patients and healthcare professionals: proposal for quantitative synthesis in a systematic review. BMC Health Serv Res. 2011;11:185.
Pasadyn SR, McAfee JL, Vij A, et al. Store-and-forward teledermatology impact on diagnosis, treatment and dermatology referrals: comparison between practice settings. J Telemed Telecare. 2022;28:177–81.
Batalla A, Suh-Oh HJ, Salgado-Boquete L, et al. Teledermatología. Capacidad para reducir consultas presenciales según El Grupo De Enfermedad. Piel. 2016;31:156–63.
Porta N, San Juan J, Grasa MP, et al. [Diagnostic agreement between primary care physicians and dermatologists in the health area of a referral hospital]. Actas Dermosifiliogr. 2008;99:207–12.
Bruce AF, Mallow JA, Theeke LA. The use of teledermoscopy in the accurate identification of cancerous skin lesions in the adult population: a systematic review. J Telemed Telecare. 2018;24:75–83.
Malvehy J, Puig S, Argenziano G, et al. Dermoscopy report: proposal for standardization. Results of a consensus meeting of the International Dermoscopy Society. J Am Acad Dermatol. 2007;57:84–95.
Taberner Ferrer R. Utilización Del teléfono móvil para la fotografía dermatológica. Piel Formación continuada en dermatología. 2017;32:59–61.
Giavina Bianchi M, Santos A, Cordioli E. Dermatologists’ perceptions on the utility and limitations of teledermatology after examining 55,000 lesions. J Telemed Telecare. 2021;27:166–73.
Acknowledgements
We would like to thank all the professionals who have collaborated in the different phases of the project for their participation, especially Marta García-Patiño and Leonor Collazos Olea who took part in the data collection, and the Vicente y García Corselas Foundation for their funding through the grant awarded in the 2022 call for proposals, which has made this study possible.
Funding
This study was funded by the Vicente y García Corselas Foundation of the University of Salamanca (call 2022). Funding was also provided by the Instituto de Salud Carlos III (ISCIII), through the RICAPPS (RD21/0016/0010) co-funded by the European Union-Next Generation EU, Facility for Recovery and Resilience (MRR). The funders had no role in the design of the study, the analysis of the data, the reporting of the results, or the decision to submit the manuscript for publication.
Trial registration number: ClinicalTrials.gov Identifier: NCT05625295. Registered on 21 November 2022 (https://clinicaltrials.gov/ct2/show/ NCT05625295).
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ESM contributed to the conception and design of the study and drafting of the article. IMS participated in the drafting of the paper and data analysis. MMS, MPM, MMM participated in the data acquisition and LGO performed the data analysis and critical review of the intellectual content. All read and approved the final version of the article.
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The study was approved by the Health Area Drug Research Ethics Committee of Salamanca on 30/06/2021 (cod. 2021 07 852). Due to the characteristics of the study, informed consent was not required with the agreement of the same Ethics Committee. Confidentiality of participant data was guaranteed in accordance with Regulation (EU) 2016/679 of the European Parliament and of the Council of 27 April 2016.
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Sánchez-Martín, E., Moreno-Sánchez, I., Morán-Sánchez, M. et al. Store-and-forward teledermatology in a Spanish health area significantly increases access to dermatology expertise. BMC Prim. Care 25, 227 (2024). https://doi.org/10.1186/s12875-024-02479-1
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DOI: https://doi.org/10.1186/s12875-024-02479-1