Correction
16 Mar 2022: Catalan-Matamoros D, Lopez-Villegas A, Costa CL, Bautista-Mesa R, Robles-Musso E, et al. (2022) Correction: A non-randomized clinical trial to examine patients’ experiences and communication during telemonitoring of pacemakers after five years follow-up. PLOS ONE 17(3): e0265801. https://doi.org/10.1371/journal.pone.0265801 View correction
Figures
Abstract
Patients with pacemakers need regular follow-ups which are demanding. Telemonitoring for pacemaker can provide a new opportunity to avoid follow-up visits. On the other hand, in-person visits could help patients with pacemakers to cope better with the anxiety linked to their condition and maintain better communication with their doctors than simple remote control of their device status. Therefore, our objective was to analyze the experiences and communication comparing telemonitoring (TM) versus conventional monitoring (CM) of patients with pacemakers. A single-center, controlled, non-randomized, non-blinded clinical trial was designed. Data were collected five years after implantation in a cohort of 89 consecutive patients assigned to two different groups: TM and CM. The ‘Generic Short Patient Experiences Questionnaire’ (GS-PEQ) was used to assess patients’ experiences, and the Healthcare Communication Questionnaire (HCCQ) was used to measure the communication of patients with healthcare professionals. Additionally, an ad-hoc survey including items from the ‘Telehealth Patient Satisfaction Survey’ and a ‘costs survey’ was used. After five years, 55 patients completed the study (TM = 21; CM = 34). Participants’ mean (±SD) age was 81 (±6.47), and 31% were females. No differences in baseline characteristics between groups were found. The comparative analyses TM versus CM showed some significant differences. According to GS-PEQ, TM users received adequate information about their diagnosis or afflictions (p = .035) and the treatment was better adapted to their situation (p = .009). Both groups reported negative experiences regarding their involvement in their treatment decisions, the waiting time before admission, and perceived a low-benefit. According to HCCQ, the TM group experienced poorer consultation management by the healthcare provider (p = .041). Participants reported positive overall communication experiences. The study provides insights into the experiences and communication in PM monitoring services as well as specific areas where users reported negative experiences such as the consultation management by clinicians.
Trial registration: ClinicalTrials.gov NCT02234245.
Citation: Catalan-Matamoros D, Lopez-Villegas A, Leal Costa C, Bautista-Mesa R, Robles-Musso E, Rocamora Perez P, et al. (2021) A non-randomized clinical trial to examine patients’ experiences and communication during telemonitoring of pacemakers after five years follow-up. PLoS ONE 16(12): e0261158. https://doi.org/10.1371/journal.pone.0261158
Editor: Andrej M. Kielbassa, Danube Private University, AUSTRIA
Received: October 21, 2020; Accepted: November 26, 2021; Published: December 23, 2021
Copyright: © 2021 Catalan-Matamoros et al. This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
Data Availability: All relevant data are within the paper and supporting information files.
Funding: -- Initials of the authors who received each award: A. L-V. -- Grant numbers awarded to each author: PI17/02056 -- The full name of each funder: instituto de Salud Carlos III -- URL of each funder website: www.isciii.es -- Did the sponsors or funders play any role in the study design, data collection and analysis, decision to publish, or preparation of the manuscript? NO - Include this sentence at the end of your statement: The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.
Competing interests: The authors have declared that no competing interests exist.
Introduction
In Spain, in conformity with other European countries, heart-related deaths are the leading cause of mortality, followed by cancer [1–3]. One of the most frequent health interventions involves implanting a pacemaker (PM), which is a commonly implantable medical device (IMD). It is placed inside the patient’s body surgically [4]. It is estimated that each year 1.25 million permanent pacemakers are implanted worldwide, and approximately 500,000 implants are performed in Europe from which approximately 37,000 in Spain [5, 6]. In this regard, pacemakers’ telemonitoring is considered a new eHealth technology that allows the remote follow-up of patients. Previous research on telemonitoring of pacemakers has shown positive results on health-related quality of life and cost-effectiveness [7–9].
Decision-makers, healthcare managers, and politicians believe eHealth is an essential approach for the future of health systems as it would enable more personalized healthcare services [10]. Supporters of new health technologies believe that it would help patients and that the data obtained shall be useful for clinicians. Recent studies mention that telemonitoring might certainly not be so well-regarded by patients [10–12]. These new technologies may bring some degree of ambiguity and uncertainty among patients with questions such as ‘is my health status ok?’, ‘is the device functioning properly?’, ‘does my clinician perform a proper remote follow-up?’
Consequently, the adaptability and acceptability of new technology systems to its users must not be taken for granted. The literature reports very few studies enquiring patients’ experiences in using the last generation of PM models with remote follow-up, especially relating to the communication in these new clinical environments when there is a severe health issue in a very aged population lacking eHealth literacy skills. These studies have shown how patients with remote follow-up received less information about their diagnosis/afflictions [13] and similar experiences regarding communication than the patients with hospital follow-up [14]. Other studies have assessed how PM users contact the clinicians, thus emphasizing that this communication particularly relates to technical concerns on the data transmission as well as the monitoring system [15]. It has been reported that users included in telecare interventions are usually dissatisfied [16].
According to international guidelines [17, 18] patients with PM should have an initial check up within 3–10 days after the implant, with a second visit taking place at 2–12 weeks. After this point, follow-up visits are recommended at 3–12 months intervals, depending on the PM type and clinical circumstances. All hospital visits should include an assessment of the patient’s clinical condition and device functioning, with readjustment or medication changes being made if determined necessary [7, 19]. According to the international consensus on the remote monitoring [18], PM specifications, and physicians’ criteria, the patients are asked to submit data at different moments. Since month 1, no visits are normally scheduled; however, the patients are called and referred to an in-office visit if data received detected any device dysfunction or cardiovascular event. The physicians have access to the device information by logging onto a password-protected website, and assess all remote transmissions. The number of visits to the hospital and/or transmissions from home per patient and year depended on the type of PM implanted and patient characteristics [9].
Patients with pacemakers live with anxiety, concerning their pacemaker and health [20]. These patients are considered “high-risk” as per the hospital settings since they experience severe illness. The hospital’s decreased communication in this new, remote follow-up approach may cause high emotional anxiety and uncertainty [21]. Therefore, telemonitoring of the pacemakers may involve higher doses of negative emotions than that in other settings. Any abnormality or doubts during PM telemonitoring requires quick action to prevent any cardiac events. For that reason, users have requested more precise feedbacks from their remote follow-up [13, 22]. This emphasizes that fluent, clear, and effective communication between clinicians and patients becomes even more relevant in these remote clinical environments. Therefore, our null hypothesis was as follows: “Patients following telemonitoring of pacemakers have negative perception about their experience and communication”. With these regards, this article aims to explore the patients’ experiences with pacemakers after five years follow-up, comparing telemonitoring versus conventional monitoring, while mainly focusing on the communication-related experience.
Materials and methods
This study is a part of a larger project, The PONIENTE study, a controlled, single-center, non-randomized, or masked clinical trial in the Hospital de Poniente, El Ejido, Spain. The study compares a group of telemonitored PM users with another group following conventional monitoring, through a comprehensive assessment involving different perspectives like socioeconomic evaluation [23], effectiveness, and safety [24]. This project entails collaboration among chronic heart patients with a pacemaker, their relatives, cardiologists, nurses, psychologists, and health communication experts. The following protocol was approved by the Regional Ethics Committee for Health Research on 28 November 2012 (CEIC-AL: 53/2012). The study was developed in accordance with the Declaration of Helsinki and Spanish laws on data protection and patient rights. Each participant was informed verbally and in writing, signed the informed consent, and care was taken to maintain data privacy during the study and afterward. The study was also registered at ClinicalTrials.gov (ID number: NCT02234245). This paper presents the experiences and communication assessment of a long-term five-year follow-up reported by the participants in either group, starting from implantation (2012–2017).
Participants were recruited through a convenience sampling method. The inclusion and exclusion criteria have recently been published in two papers [23, 24]. In total, 89 patients were eligible and invited to participate, of which 55 participated in the five-year follow-up. The mean (±SD) age was 81 (±6.47), and 31% of the participants were females. Fig 1 shows the Consort Flow Diagram. Among the 55 participants, 21 comprised the telemonitoring group, while 34 were included in the conventional follow-up group. The explicit nature of the intervention made it unfeasible to blind patients or clinicians to the group’s identity to which they had been located. Sample size was determined for the original project (the PONIENTE study) and it was based on the mean difference of the principal variable EQ5D. Assuming a two-tailed test with a significance level of 0.05 and a power of 0.80, a sample size of 45 patients per group was stablished as necessary for detecting a clinically relevant effect size d of 0.6 (effect size for reaching a mean difference of 0.12 points, with a standard deviation in each group of 0.20). Second, the questionnaire results were presented as a single question based on the comparison between the two groups, applying the Mann–Whitney U test for ordinal data and the chi-square test for nominal data and estimating the corresponding effect sizes measures (with 95% confidence interval): rank-biserial correlation and Cramer´s V respectively. For interpreting the magnitude of effect sizes, Lovakov and Agadullina (2021) rules are followed: r < 0.12—Very small; 0.12 < = r < 0.24 –Small; 0.24 < = r < 0.41 –Moderate; and r > = 0.41 –Large.
One month following PM implantation, all patients had a scheduled visit with a cardiologist where characteristics, advantages and disadvantages of both monitoring modalities were explained and offered for their selection [7]. In the case of patients chose the TM alternative, the cardiologist: 1) programmed the corresponding PM parameters; 2) explained to the patients the use of Monitor Carelink and the protocol to perform after sending data was required and 3) requested the service from the supplier company. In accordance with international guidelines [17, 18], PM specifications and physician criteria, patients were asked to submit data at different times. No visits were scheduled in the TM group. Pacemakers used in this study did not alert to patients to visit the hospital if a cardiovascular event was detected, however they were phoned and referred for a hospital visit if the data received detected a device dysfunction or a cardiac event. Patients assigned to the CM group were managed according to the standard practices of the Poniente Hospital, with follow-up visits scheduled according to physician criterion. Patients were interviewed on the date of implantation (physically in the hospital) and 60 months after pacemaker implantation (by phone). At each scheduled visit and upon completion of the study, the research team revised the medical record for identifying cardiovascular events, changes in patient management and PM reprogramming [7].
Data were collected at 60 months after pacemaker implantation. Evaluation of the participants in either group was done based on an ad-hoc questionnaire developed through two validated tools. The questionnaire comprised the full version of the Generic Short Patient Experiences Questionnaire (GS-PEQ) [25], and the adapted version of the HCCQ (Health Care Communication Questionnaire) [26]. Table 1 represents the ad-hoc questionnaire. The GS-PEQ is a brief instrument assessing patients’ experiences with hospital care (see items 1–10). The HCCQ aims to measure outpatients’ communication experience with hospital healthcare professionals (see items 11–17).
Additionally, an adapted version of the telehealth patient satisfaction survey [27] and the costs survey [28] were used to evaluate other aspects of the telehealth experience among patients with home-monitored pacemakers such as patients’ experiences with the home monitoring technology and some specific cost-related inquiries regarding the pacemaker monitoring. The questionnaire was obtained either in-hospital or over the telephone.
This study followed the same statistical analyses that have been described in a previous study [29]. Continuous variables were expressed as means with standard deviations (SDs), and categorical variables were presented as actual numbers and percentages. First, patient baseline characteristics and possible differences between groups were compared using a difference in the mean values by employing a test for continuous variables and a difference in proportions test (binomial method), or the Chi-square test (replaced by Fisher’s exact test for cells with n < 5 cases) for qualitative variables. Second, the questionnaire results were presented as a single question based on the comparison between the two groups, applying the Mann–Whitney U test for ordinal data and the chi-square test for nominal data. In addition, effect sizes (rank-biserial correlation r for Mann-Whitney U test, and Cramer´s V for tests based on contingency tables) and 95% confidence intervals are included. Analyses were carried out using a dedicated statistical software (SPSS, Version 24.0; IBM, Armonk, NY, USA)
Results
Baseline characteristics, depending on the intervention status, telemonitoring or conventional monitoring, have been presented in Table 2. There was no significant difference between the telemonitoring and the conventional monitoring group regarding other clinical characteristics except for hospital visits and total transmissions. The most frequent pacing indication was ‘atrioventricular block’ (70.9%), with syncope (60%) as the disease manifestation. Most participants (94,5%) did not require further hospitalization after the implant during the following five years.
A few significant differences were observed between the telemonitoring and the conventional monitoring groups in the following items (Table 3):
- To question 3, which inquired if participants received satisfactory information regarding their diagnosis/afflictions, the telemonitoring group reported having received a higher level of adequate information than the conventional monitoring group (p = 0.035), with a medium effect size of 0.314 but with lower limit of confidence interval indicating very small effect. In total, 57% of telemonitoring participants stated they were sufficiently informed ‘to a very large extent,’ 38% ‘to a large extent,’ and only 5% ‘to a small extent.’ However, the conventional monitoring group reported 32% participants expressed they were sufficiently informed ‘to a very large extent,’ 44% ‘to a large extent,’ 12% ‘to a moderate extent,’ 6% ‘to a small extent,’ and ‘not at all.’
- About question 4, which queried if the participants perceived the treatment as adapted to their situation, the telemonitoring group reported better perception, 81% choosing ‘to a very large extent’ option. Conversely, the conventional monitoring group only reported 44% of participants opting ‘to a very large extent,’ 41% ‘to a large extent,’ and 14% ‘to a moderate extent.’ The difference between the two groups was significant (p = 0.027), but the magnitude of the effect ranging from very small to large.
- Concerning question 16 which asked for details on whether the healthcare provider was able to manage the periodic clinical consultation, the telemonitoring group reported more inadequate perception as 19% reported ‘to a moderate extent,’ 33% ‘to a large extent,’ and 48% ‘to a very large extent.’ The conventional monitoring group reported higher scores, 62% of participants agreed ‘to a large extent,’ and 35% ‘to a moderate extent.’ Differences between the two groups were statistically significant (p = 0.041), with a small effect size.
- Lastly, another significant difference with a large effect size (p < 0.001) was noted with question 25, which focused on the participants’ budget to attend the clinical consultations. The telemonitoring was low-priced than conventional monitoring.
The remaining items did not show any significant differences between the two groups. Overall, the communication was experienced positively by both groups (Table 3). However, participants shared some negative experiences about their PM monitoring, with no significant differences between groups. These findings can be summed up as follows:
- e. Question 5 inquiring whether participants had been involved in their treatment decisions reported low levels in both groups with 53% answers between ‘not at all’ and ‘to a small extent’ by the telemonitoring group and 33% by the conventional monitoring group.
- f. Question 7 focused on the waiting time before the participants were admitted to the hospital. The majority of participants (86% in the telemonitoring and 88% in the conventional monitoring group) scored the waiting time as ‘to a very large extent’ or ‘to a large extent.’
- g. Question 8 investigating whether the help and treatment that participants received at the institution were satisfactory, participants from both the groups reported low levels by 95% of the telemonitoring group and 88% of the conventional monitoring group scoring ‘not at all.’
- h. Question 9, which asked for the benefit perception that the participants received through institutional care, the patients showed poor levels. The option ‘not at all’ was the most preferred among 71% of the telemonitoring group while in the hospital group, 79% of patients opted for this.
- i. In question 10, both groups reported negative scores, although the telemonitoring group had a slightly better degree of belief regarding the fact that in any way, they had received an incorrect intervention than the conventional group (43% versus 50% in ‘to a very large extent’).
Discussion
The H0 can be confirmed with our study showing some key differences in relation to experiences and communication of participants with pacemakers following telemonitoring versus conventional monitoring. Some significant findings were observed in the study. First, regarding the type of follow-up, telemonitoring compared to conventional monitoring showed a) better information, b) better adaptability to treatment, and c) more inadequate telemonitoring consultation management by clinicians. Second, with the experiences of PM patients, the study pointed out some areas requiring further improvement, such as d) the need to involve patients in the treatment-related decision-making; e) long waiting time before admission; f) unsatisfactory treatment; g) low-benefit perception, and; h) the high level of belief that the intervention received was incorrect. On the other hand, for items related to communication, participants reported overall positive experiences.
About the general experiences, the negative scores by both groups of participants differ from a similar study [13] in Norway; although overall positive experiences by PM users, both telemonitoring and conventional monitoring, in the short-term (6 months after surgery) was done. Another difference between these two studies was in the information received from clinicians. While the present study showed that telemonitoring patients received more sufficient information than the conventional monitoring group, the study from Norway found that telemonitoring participants received less sufficient information than conventional users. Previous studies conducted on cardiac implants patients suggest the need to deliver more information as there could be a higher prevalence of device malfunction, fear of death, and worries about maintaining themselves independently, driving, and sexual activities [30, 31].
Concerning the overall experience, the present study exhibited ‘not so positive’ experiences by patients. Some previous studies differ from this finding. In a recent assessment of new eHealth technologies in primary health care, participants reported that teleconsultation with clinicians was easy-to-use, flexible, and a convenient means of managing their health problems [32]. Other authors found that telemonitoring in implantable cardiac defibrillators appeared to be satisfactory for users [33]. The present study highlights that patients should be involved in decision-making, and the waiting time must be reduced. Other aspects of the experiences should also be considered, such as improving the patient’s perception in relation to PM monitoring benefits. With these regards, a study established that clinicians should present the benefits of PM monitoring to patients’ to improve awareness of the importance of such a process [34].
With the communication-related experiences, the participants reported positive experiences with no significant differences between the two groups. However, patients under remote follow-up of PM had less scheduled consultations at the hospital and fewer face-to-face contact with clinicians. After surgery, the telemonitoring group was informed that they would receive phone calls from the clinicians when something was not working well. Therefore, patients of this group were asked to assume that no news meant good news. The International consensus has confirmed this protocol on the monitoring of Cardiovascular Implantable Electronic Devices (CIED) [18]. The remote PM routinely gathers and sends data relating to the patient’s heart to the monitoring service center. Next, telemonitoring users were called up and invited to an in-hospital consultation when the information received showed any monitoring issue or heart event. Other authors recommend that healthcare professionals involved in eHealth services require good communication skills [35–37]. The present study showed that the patients reported positive communication experiences. Varma claimed that effective communication in telemonitoring requires the inclusion of a description of the benefits of this new monitoring model. Hence, the patient is aware of this new technology’s principles and safety [34]. During the communication, patients, along with their caregivers, need to know how to proceed, especially when there is a heart event or a PM issue, besides the expected reaction times. Additionally, to accomplish a sustainably effective communication and strengthen their relationship, the clinician should be familiar with the patient’s settings before calling in times of any emergency. Finally, our findings have also explored the economic perspective supporting previous studies that remote monitoring of older patients with pacemakers appears still as a cost-utility alternative to hospital monitoring after 5 years of follow-up [38].
This study presents many limitations that should be considered for an appropriate interpretation of the findings. Assessment of patients’ experiences and communication may entail feedback biases as the patients may deliberately respond to accomplish optimistic values. Even if an overall positive communication experience was observed, it might be related to the well-known ‘Hawthorne effect’ [39], which points out how participants could alter their behavior when involved in a study, and hence are receiving special attention and are eager to be glad for their clinicians. However, since the participants included in this study reported other negative general experiences beyond communication, it could be understood that the ‘Hawthorne effect’ might not be high. Another potential limitation lies in the data collection pattern, as the authors followed a retrospective method using a questionnaire that may be subject to recall bias. This can be avoided by the use of more reliable techniques like the recording of clinical encounters to assess communication between patients and healthcare providers in real-time [40]. One more critical limitation that must be highlighted is that the study is an open trial where all the members involved, including patients, researchers, and clinicians were aware of the monitoring. Finally, the low participant number is another relevant limitation. This 5-years follow-up after implant was not able to recruit more participants given the natural constrains of this study, considering the advanced age and the fragile health of this group of population. In addition, since the controversy on the usefulness of post hoc power analysis [41–43], we decided only to include the effect sizes (and 95% confidence interval) for the different comparisons. Due to the fact that both sample mean difference and sample variance are used as parameters in prospective power analysis, these parameters are highly unlikely to be close to their population values in small samples, so the sample power may be very different from the actual power. Moreover, sample size estimated in the original project was based on the principal variable and not on the individual items of the questionnaires. Regardless of these limitations, the authors believe that the PONIENTE project is a unique study providing long-term data in an area lacking research. As the study showed no differences between the telemonitoring and conventional monitoring groups in terms of health effectiveness and safety [24], and no significant differences were found concerning patient’s experiences and communication; telemonitoring may prove to be a good option for patients with difficulties in traveling to the hospital especially nowadays that healthcare services are shifting into virtual environments wherever possible. As remote healthcare services become a central solution in the current coronavirus pandemic, patients need to adopt these new technologies [44]. The present study provides critical data ready to be used for the implementation of new telemonitoring services. This would help overcome barriers in successfully implementing new eHealth services and models of care where patient’s experiences and communication are crucial for patient-centered care [45]. The eHealth services can thrive only when issues and concerns among each user are met and aligned, otherwise, the use of new technology would neither be feasible and implemented nor meaningful [16].
Conclusion
With the increasing use of eHealth care services to meet the patients’ needs, the PONIENTE study provides vital data ready to be implemented in PM monitoring services, including both types of monitoring, remote and conventional. This study provides relevant insights into the experiences and communication, and although it confirms positive communication experiences, there is a need for improving specific areas where users reported negative experiences. All these actions would help develop better patient-centered eHealth services.
References
- 1. Townsend N, Nichols M, Scarborough P, Rayner M. Cardiovascular disease in Europe—epidemiological update 2015. Eur Heart J. 2015;36: 2696–2705. pmid:26306399
- 2. Kinge JM, Modalsli JH, Øverland S, Gjessing HK, Tollånes MC, Knudsen AK, et al. Association of Household Income With Life Expectancy and Cause-Specific Mortality in Norway, 2005–2015. JAMA. 2019;321: 1916. pmid:31083722
- 3.
Norwegian Institute of Public Health. Disease Burden in Norway 2015. Results from the Global Burden of Diseases, Injuries, and Risk Factors Study 2015. Oslo, Norway: Norwegian Institute for Public Health; 2017. Available: https://www.fhi.no/globalassets/dokumenterfiler/rapporter/2015/sykdomsbyrde_i_norge_2015.pdf
- 4. Wagner T, Lindstadt C, Jeon Y, Mackert M. Implantable Medical Device Website Efficacy in Informing Consumers Weighing Benefits/Risks of Health Care Options. J Health Commun. 2016;21: 121–126. pmid:27662117
- 5. Carrión-Camacho MR, Marín-León I, Molina-Doñoro JM, González-López JR. Safety of Permanent Pacemaker Implantation: A Prospective Study. J Clin Med. 2019;8: 35. pmid:30609668
- 6. Raatikainen MJP, Arnar DO, Merkely B, Nielsen JC, Hindricks G, Heidbuchel H, et al. A Decade of Information on the Use of Cardiac Implantable Electronic Devices and Interventional Electrophysiological Procedures in the European Society of Cardiology Countries: 2017 Report from the European Heart Rhythm Association. EP Europace. 2017;19: ii1–ii90. pmid:28903470
- 7. Lopez-Villegas A, Catalan-Matamoros D, Robles-Musso E, Peiro S. Effectiveness of pacemaker tele-monitoring on quality of life, functional capacity, event detection and workload: The PONIENTE trial: Effectiveness of pacemaker tele-monitoring. Geriatr Gerontol Int. 2016;16: 1188–1195. pmid:26635263
- 8. López-Villegas A, Catalán-Matamoros D, Robles-Musso E, Peiró S. [Comparative Effectiveness of Remote Monitoring of People with Cardiac Pacemaker versus Conventional: quality of Life at the 6 Months]. Rev Esp Salud Publica. 2015;89: 149–158. pmid:26121625
- 9. Lopez-Villegas A, Catalan-Matamoros D, Robles-Musso E, Bautista-Mesa R, Peiro S. Cost-utility analysis on telemonitoring of users with pacemakers: The PONIENTE study. J Telemed Telecare. 2019;25: 2014–212. pmid:29621908
- 10. Lomborg S, Langstrup H, Andersen TO. Interpretation as luxury: Heart patients living with data doubt, hope, and anxiety. Big Data Soc. 2020;7: 205395172092443.
- 11. Lomborg S, Thylstrup NB, Schwartz J. The temporal flows of self-tracking: Checking in, moving on, staying hooked. New Media Soc. 2018;20: 4590–4607.
- 12. Pink S, Lanzeni D, Horst H. Data anxieties: Finding trust in everyday digital mess. Big Data Soc. 2018;5: 205395171875668.
- 13. Catalan-Matamoros D, Lopez-Villegas A, Tore-Lappegard K, Lopez-Liria R. Patients’ experiences of remote communication after pacemaker implant: The NORDLAND study. Beiki O, editor. PLoS ONE. 2019;14: e0218521. pmid:31220146
- 14. Catalan-Matamoros D, Lopez-Villegas A, Lappegård KT, Lopez-Liria R. Assessing Communication during Remote Follow-Up of Users with Pacemakers in Norway: The NORDLAND Study, a Randomized Trial. Int J Environ Res Public Health. 2020;17: 7678. pmid:33096736
- 15. Andersen TO, Nielsen KD, Moll J, Svendsen JH. Unpacking telemonitoring work: Workload and telephone calls to patients in implanted cardiac device care. Int J Med Inf. 2019;129: 381–387. pmid:31445281
- 16. Andersen TO, Bansler JP, Kensing F, Moll J, Mønsted T, Nielsen KD, et al. Aligning Concerns in Telecare: Three Concepts to Guide the Design of Patient-Centred E-Health. Comput Supported Coop Work. 2018;27: 1181–1214.
- 17. Epstein AE, DiMarco JP, Ellenbogen KA, Estes NAM, Freedman RA, Gettes LS, et al. ACC/AHA/HRS 2008 Guidelines for Device-Based Therapy of Cardiac Rhythm Abnormalities: a report of the American College of Cardiology/American Heart Association Task Force on Practice Guidelines (Writing Committee to Revise the ACC/AHA/NASPE 2002 Guideline Update for Implantation of Cardiac Pacemakers and Antiarrhythmia Devices) developed in collaboration with the American Association for Thoracic Surgery and Society of Thoracic Surgeons. J Am Coll Cardiol. 2008;51: e1–62. pmid:18498951
- 18. Wilkoff BL, Auricchio A, Brugada J, Cowie M, Ellenbogen KA, Gillis AM, et al. HRS/EHRA Expert Consensus on the Monitoring of Cardiovascular Implantable Electronic Devices (CIEDs): Description of Techniques, Indications, Personnel, Frequency and Ethical Considerations: Developed in partnership with the Heart Rhythm Society (HRS) and the European Heart Rhythm Association (EHRA); and in collaboration with the American College of Cardiology (ACC), the American Heart Association (AHA), the European Society of Cardiology (ESC), the Heart Failure Association of ESC (HFA), and the Heart Failure Society of America (HFSA). Endorsed by the Heart Rhythm Society, the European Heart Rhythm Association (a registered branch of the ESC), the American College of Cardiology, the American Heart Association. Europace. 2008;10: 707–725. pmid:18480075
- 19. Mabo P, Victor F, Bazin P, Ahres S, Babuty D, Da Costa A, et al. A randomized trial of long-term remote monitoring of pacemaker recipients (The COMPAS trial). Eur Heart J. 2012;33: 1105–1111. pmid:22127418
- 20.
Petersen JH, Blomquist SD. A qualitative innovation of digital healthcare for remotemonitoring pacemaker patients. Master Thesis, Aalborg University. 2018. Available: https://projekter.aau.dk/projekter/files/334483151/A_qualitative_innovation_of_digital_healthcare_for_remotemonitoring_pacemaker_patients___Master_thesis___Sarah_and_Julie_.pdf
- 21.
Skov MB, Johansen PG, Skov CS, Lauberg A. No News is Good News: Remote Monitoring of Implantable Cardioverter-Defibrillator Patients. Proceedings of the 33rd Annual ACM Conference on Human Factors in Computing Systems—CHI ‘15. Seoul, Republic of Korea: ACM Press; 2015. pp. 827–836. https://doi.org/10.1145/2702123.2702192
- 22. Petersen HH, Larsen MCJ, Nielsen OW, Kensing F, Svendsen JH. Patient satisfaction and suggestions for improvement of remote ICD monitoring. J Interv Card Electrophysiol. 2012;34: 317–324. pmid:22418649
- 23. Leal-Costa C, Lopez-Villegas A, Catalan-Matamoros D, Robles-Musso E, Lappegård KT, Bautista-Mesa RJ, et al. Long-Term Socioeconomic Impact of Informal Care Provided to Patients with Pacemakers: Remote vs. Conventional Monitoring. Healthcare. 2020;8: 175. pmid:32560171
- 24. López-Liria R, López-Villegas A, Leal-Costa C, Peiró S, Robles-Musso E, Bautista-Mesa R, et al. Effectiveness and Safety in Remote Monitoring of Patients with Pacemakers Five Years after an Implant: The Poniente Study. Int J Environ Res Public Health. 2020;17: 1431. pmid:32102208
- 25. Sjetne IS, Bjertnaes OA, Olsen RV, Iversen HH, Bukholm G. The Generic Short Patient Experiences Questionnaire (GS-PEQ): identification of core items from a survey in Norway. BMC Health Serv. Res. 2011;11. pmid:21510871
- 26. Gremigni P, Sommaruga M, Peltenburg M. Validation of the Health Care Communication Questionnaire (HCCQ) to measure outpatients’ experience of communication with hospital staff. Patient Educ Couns. 2008;71: 57–64. pmid:18243632
- 27. Abrams DJ, Geier MR. A comparison of patient satisfaction with telehealth and on-site consultations: a pilot study for prenatal genetic counseling. J Genet Couns. 2006;15: 199–205. pmid:16779676
- 28.
Bas Villaobos M. Propuesta de un sistema de monitorización remota de dispositivos implantados en pacientes cardiológicos: Consideraciones económicas, organizativas y de calidad percibida. Tesis Doctoral, Universidad Politécnica de Madrid. 2010. Available: http://oa.upm.es/5681/
- 29. López-Villegas A, Catalán-Matamoros D, Robles-Musso E, Peiró S. Workload, time and costs of the informal cares in patients with tele-monitoring of pacemakers: the PONIENTE study. Clin Res Cardiol. 2016;105: 307–313. pmid:26423396
- 30. Duru F, Büchi S, Klaghofer R, Mattmann H, Sensky T, Buddeberg C, et al. How different from pacemaker patients are recipients of implantable cardioverter-defibrillators with respect to psychosocial adaptation, affective disorders, and quality of life? Heart. 2001;85: 375–379. pmid:11250956
- 31. Leosdottir M, Sigurdsson E, Reimarsdottir G, Gottskalksson G, Torfason B, Vigfusdottir M, et al. Health-related quality of life of patients with implantable cardioverter defibrillators compared with that of pacemaker recipients. Europace. 2006;8: 168–174. pmid:16627433
- 32. Cottrell E, McMillan K, Chambers R. A cross-sectional survey and service evaluation of simple telehealth in primary care: what do patients think? BMJ Open. 2012;2: e001392. pmid:23192242
- 33. Marzegalli M, Lunati M, Landolina M, Perego GB, Ricci RP, Guenzati G, et al. Remote Monitoring of CRT-ICD: The Multicenter Italian CareLink Evaluation-Ease of Use, Acceptance, and Organizational Implications. PACE. 2008;31: 1259–1264. pmid:18811805
- 34. Varma N. Remote monitoring of patients with CIEDs following the updated recommendations-Easing or adding to postimplant responsibilities? Cont Cardiol Educ. 2016;2: 198–204.
- 35. Car J. Improving quality and safety of telephone based delivery of care: teaching telephone consultation skills. Qual Saf Health Care. 2004;13: 2–3. pmid:14757786
- 36. Souza-Junior VD, Mendes IAC, Mazzo A, Godoy S. Application of telenursing in nursing practice: an integrative literature review. Appl Nurs Res. 2016;29: 254–260. pmid:26856523
- 37. Morony S, Weir K, Duncan G, Biggs J, Nutbeam D, Mccaffery KJ. Enhancing communication skills for telehealth: development and implementation of a Teach-Back intervention for a national maternal and child health helpline in Australia. BMC Health Serv Res. 2018;18: 162. pmid:29514642
- 38. Bautista-Mesa RJ, Lopez-Villegas A, Peiro S, Catalan-Matamoros D, Robles-Musso E, Lopez-Liria R, et al. Long-term cost-utility analysis of remote monitoring of older patients with pacemakers: the PONIENTE study. BMC Geriatr. 2020;20: 474. pmid:33198629
- 39. Meneguin S, Machado Cesar LA. Motivation and frustration in cardiology trial participation: the patient perspective. Clinics (Sao Paulo). 2012;67: 603–608. pmid:22760899
- 40. Van Cleave AC, Roosen-Runge MU, Miller AB, Milner LC, Karkazis KA, Magnus DC. Quality of Communication in Interpreted Versus Noninterpreted PICU Family Meetings*: Crit Care Med. 2014;42: 1507–1517. pmid:24394631
- 41. Yuan K-H, Maxwell S. On the Post Hoc Power in Testing Mean Differences. J Educ Behav Stat. 2005;30(2):141–167.
- 42. Zhang Y, Hedo R, Rivera A, Rull R, Richardson S, Tu XM. Post hoc power analysis: is it an informative and meaningful analysis? Gen Psychiatr. 2019;32(4):e100069. pmid:31552383
- 43. Lovakov A, Agadullina ER. Empirically derived guidelines for effect size interpretation in social psychology. Eur J Soc Psychol. 2021; 51(3): 485–504.
- 44. Wakefield BJ, Bylund CL, Holman JE, Ray A, Scherubel M, Kienzle MG, et al. Nurse and patient communication profiles in a home-based telehealth intervention for heart failure management. Patient Educ Couns. 2008;71: 285–292. pmid:18337049
- 45. Catalán-Matamoros D, López-Villegas A. La Telesalud y la sociedad actual: retos y oportunidades (Telehealth and the current society: challenges and opportunities). Rev Esp Comun Salud. 2016;7: 336–345.