Literature DB >> 28210321

Telemedicine in chronic obstructive pulmonary disease.

Nicolino Ambrosino1, Guido Vagheggini1, Stefano Mazzoleni2, Michele Vitacca3.   

Abstract

Telemedicine is a medical application of advanced technology to disease management. This modality may provide benefits also to patients with chronic obstructive pulmonary disease (COPD). Different devices and systems are used. The legal problems associated with telemedicine are still controversial. Economic advantages for healthcare systems, though potentially high, are still poorly investigated. A European Respiratory Society Task Force has defined indications, follow-up, equipment, facilities, legal and economic issues of tele-monitoring of COPD patients including those undergoing home mechanical ventilation. KEY POINTS: The costs of care assistance in chronic disease patients are dramatically increasing.Telemedicine may be a very useful application of information and communication technologies in high-quality healthcare services.Many remote health monitoring systems are available, ensuring safety, feasibility, effectiveness, sustainability and flexibility to face different patients' needs.The legal problems associated with telemedicine are still controversial.National and European Union governments should develop guidelines and ethical, legal, regulatory, technical, administrative standards for remote medicine.The economic advantages, if any, of this new approach must be compared to a "gold standard" of homecare that is very variable among different European countries and within each European country.The efficacy of respiratory disease telemedicine projects is promising (i.e. to tailor therapeutic intervention; to avoid useless hospital and emergency department admissions, and reduce general practitioner and specialist visits; and to involve the patients and their families).Different programmes based on specific and local situations, and on specific diseases and levels of severity with a high level of flexibility should be utilised.A European Respiratory Society Task Force produced a statement on commonly accepted clinical criteria for indications, follow-up, equipment, facilities, legal and economic issues also of telemonitoring of ventilator-dependent chronic obstructive pulmonary disease patients.Much more research is needed before considering telemonitoring a real improvement in the management of these patients. EDUCATIONAL AIMS: To clarify definitions of aspects of telemedicineTo describe different tools of telemedicineTo provide information on the main clinical resultsTo define recommendations and limitations.

Entities:  

Year:  2016        PMID: 28210321      PMCID: PMC5297949          DOI: 10.1183/20734735.014616

Source DB:  PubMed          Journal:  Breathe (Sheff)        ISSN: 1810-6838


Introduction

Age- and lifestyle-related growing incidence and costs of chronic and noncommunicable diseases, such as cancer, cardiovascular and respiratory diseases, represent an increasingly high burden for healthcare systems. The need to face increasing citizen requests for welfare and, at the same time, to limit healthcare costs has developed telemedicine modalities. Furthermore, recent advances in sensor technology have allowed intermittent measurement processes for continuous monitoring, in the frame of an “intelligent” intervention [1]. Information and communication technologies (ICT) applied to healthcare promise increasing efficiency, improvement of patients’ health-related quality of life (HRQL) and contribution to new developments in health markets. Nevertheless, the view of European Union (EU) is that this promise is still unfulfilled [2]. As shown in table 1, telemedicine is the distribution of health services in conditions where distance is a critical factor, by healthcare providers using ICT to exchange at distance information useful for diagnosis (eHealth) [3]. We still need clear definitions of the terms used to describe telemedicine systems. Some commonly accepted definitions are also shown in table 1 [3]. eHealth can be an efficient, cost-effective alternative to traditional healthcare delivery able to improve patients’ HRQL and satisfaction [4]. Figure 1 shows an example of eHealth platform. Generally, telehealth interventions [5] include:
Table 1

Definitions and applications

TelemedicineDistribution of health services in conditions where distance is a critical factor, by healthcare providers that use ICT to exchange information useful for diagnosis at distance
TelecommunicationsUse of cable connections, radio, optical means or other electromagnetic channels to transmit or receive signals, such as voice, data or video communications
TelematicsUse of telecommunications to permit computers to transfer programs and data
TeleconsultationSecond opinion on demand between patient/family and staff or among health operators; opinions, advice provided at distance between two or more parties separated geographically
TelemonitoringDigital/broadband/satellite/wireless or Bluetooth transmission of physiological and other noninvasive data (i.e. biological storage data transfer)
Decision support systemsAccording to a sentinel value, an alert starts for health personnel, who call patient
Remote diagnosisIdentifying a disease by the assessment of the data transmitted to the receiving party through instrumentation monitoring a patient away from the clinic
Tele-evaluationOn-demand data transfer to use as biological outcome measures
TelecareNetwork of health and social services in a specific area; in case of emergency, patient calls medical personnel, emergency call service or members of family
TelerehabilitationAllows reception of homecare and guidance on the process of rehabilitation through connections for point-to-point video conferencing between a central control unit and a patient at home
TelecoachingDirect reinforcement or recorded messages/communications to improve adherence
Teleconference, audioElectronic two-way voice communication between two or more people located in different places

Reproduced from [3].

Figure 1

An example of eHealth platform. SpO: oxygen saturation measured by pulse oximetry; GP: general practitioner.

video or telephone links with healthcare professionals in real time or using store-and-forward technologies [6] (figure 2)
Figure 2

A nurse case manager during a video conference with a COPD patient.

Internet-based telecommunication systems with healthcare professionals [7] wired and wireless telemonitoring of physiological parameters such as spirometry, respiratory rate, blood pressure or oxygen saturations processed or authorised by a healthcare professional with feedback to the patient [8] (figure 3)
Figure 3

An example of flow/volume curve during a telespirometry.

pulmonary rehabilitation programmes with home-based, video conferencing-supervised exercise and counselling (telerehabilitation) [9] telemonitoring of patients on home mechanical ventilation (HMV) [3] Definitions and applications Reproduced from [3]. An example of eHealth platform. SpO: oxygen saturation measured by pulse oximetry; GP: general practitioner. A nurse case manager during a video conference with a COPD patient. An example of flow/volume curve during a telespirometry. eHealth has been used in several diseases, such as chronic heart failure (CHF), diabetes and chronic obstructive pulmonary disease (COPD), aiming at reducing hospitalisations, improving self-care and enhancing HRQL. A recent survey in the USA [10] reported that 63% of healthcare providers use telehealth. Among these, 72% were in hospitals and health systems, 52% were in physician groups and clinics, and 36% were in other provider organisations, such as ambulatory centres and nursing homes. Telehealth is most commonly used in conditions such as stroke, behavioural health, staff education and training, and primary care. Other practice areas, such as neurology, paediatrics and cardiology, are reported to use telehealth in <20% of cases [10]. In CHF, a systematic review of randomised controlled trials (RCT) of structured telephone support or noninvasive home telemonitoring compared with standard practice concluded that these modalities reduced the risk of all-cause mortality and CHF-related hospitalisations, while improving HRQL, disease knowledge and self-care [11]. Nevertheless, although remote patient monitoring is associated with a significantly lower risk of adverse outcomes in patients undergoing initial implantation of cardioverter–defibrillators [12], this technology is used in less than half of those eligible patients [13]. Another large RCT showed no advantage from adding teleassistance to usual care on mortality and all-cause admissions [14].

Chronic obstructive pulmonary disease

The effects of telemedicine in COPD patients are still discussed. A study showed clinical benefits in Global Initiative for Chronic Obstructive Lung Disease group D COPD patients on multiple comorbidities [15]. Reduction in out-patient visits, early detection and proactive intervention in the patient’s home before an acute exacerbation were obtained with the coordination of primary care, pneumologists and nursing staff. Another RCT [16] in patients with chronic respiratory failure due to different diseases on long-term oxygen therapy (LTOT) and/or HMV showed that telemedicine was associated with reduction in hospitalisations or general practioner calls, and in healthcare costs. This effect was more relevant in COPD patients. Positive results have also been reported in systematic reviews and meta-analyses [17, 18]. A recent retrospective study in chronically hypercapnic COPD patients on LTOT showed that teleassistance alone, and with greater efficacy when combined with noninvasive ventilation, reduced the frequency of exacerbations [19]. Despite these and other studies showing an advantage in applying telehealth, recent research casts some doubts that these systems are more effective and less expensive than usual care [20-22]. In a 6-month crossover RCT, telemonitoring added to usual care did not improve the time to the next acute hospitalisation, increased hospital admissions and home visits overall, and did not improve HRQL in patients with chronic respiratory diseases [23]. A recent systematic review reports that out of the 18 studies fulfilling the criteria for inclusion, only three studies found statistically significant improvements in HRQL in patients undergoing telemedicine [24]. Despite that it is being suggested that telemedicine could encourage patients’ self-management, this has not been clearly demonstrated for COPD [25]. A recent study suggested that aspects of eHealth and its implementation should be tailored to the patient. Patients’ expected benefits of using eHealth to support self-management and their disease control seem to play an important role in patients’ willingness to use eHealth for self-management purposes [26]. A European Respiratory Society Task Force has defined indications, follow-up, equipment, facilities, legal and economic issues of telemonitoring of COPD patients, including those undergoing HMV [3].

Telerehabilitation

Telerehabilitation can be defined as the provision of services to improve functional status using technologies allowing care and rehabilitation through connections between a central control unit and a patient at home according to four models of service delivery [3, 27]: “face-to-face” interactive video conferencing (figure 4)
Figure 4

A physiotherapist case manager during a video training session with a COPD patient.

telehomecare with a nurse coordinating a service (telesupport) telemonitoring with possible interactive tele-evaluation telecare where the patient “plays” or performs exercises under home telemonitoring and a therapist may change settings at distance A physiotherapist case manager during a video training session with a COPD patient. Telerehabilitation has been promoted as follows. Although telerehabilitation is promising in patients with cardiopulmonary diseases, clear evidence is still limited. It has been shown that supervised training and counselling patients at home may be associated with safety, feasibility and benefits for severe COPD patients [29]. Nevertheless, compared with usual pulmonary rehabilitation, no significant improvement was seen in COPD patients equipped with a tablet after 7–10 weeks of rehabilitation [30]. Tools: phone calls and messages, e-mail, video phones, websites or mobile phones, and video conferencing; biological electronic sensors able to send data; medical devices able to be programmed at distance; dedicated Internet software and video conferencing. These technologies can improve the care of patients with difficult access to services (particularly those in rural/remote areas) [28]. Timing of application: after a hospital discharge or to maintain benefits such as functional independence, education, participation, physical change, early detection of relapses, adherence, airway clearance and exercise training.

Legal issues

The legal problems associated with telemedicine are yet to reach internationally common solutions. Any application of telemedicine is considered a medical act; therefore, despite that many procedures of teleconsultation are peculiar, the legal principles of traditional doctor–patient relationships are also valid in telemedicine. Three figures can be involved in legal problems to delivering performance [3]. The use of telemedicine is associated with several risks, as shown in table 2 [3, 31]; therefore, eHealth users must use precautions [32].
Table 2

Legal risks of telemedicine [3]

Teleconsultation may fail to reach standard of care

Equipment or system may fail

Electronic data can be manipulated

Electronic record may be subject to abuse

The network may suffer from poor data protection (poor confidentiality, authenticity, data report, procedure certification, security and privacy)

The network may show difficulty to ascertain responsibilities and potential obligations of health professionals

The person transmitting data: the relationship between the patient and other stakeholders must be governed by “informed consent”, which includes the patient’s awareness of the technicalities, the potential risks, the required precautions and, at the same time, ensures the confidentiality of the information. The person receiving data: the medical or nursing user of the service. The service provider(s): must ensure the quality and confidentiality of the data. Legal risks of telemedicine [3] Teleconsultation may fail to reach standard of care Equipment or system may fail Electronic data can be manipulated Electronic record may be subject to abuse The network may suffer from poor data protection (poor confidentiality, authenticity, data report, procedure certification, security and privacy) The network may show difficulty to ascertain responsibilities and potential obligations of health professionals Data security and confidentiality: suppliers and users must ensure data protection, confidentiality and authenticity; the digitally signed and authorised certification of procedures; the security and privacy of the assisted persons; the protection from manipulation of storage and transfer of sensitive data in real time between units. Health professionals responsibilities and potential obligations: the relationships between the physician (teleconsultant) and the patient at distance (teleconsulted); the relationship between and coresponsibilities of the specialist consultant and the requesting physician; the applicant, consultant and service supplier. Interoperability: mutual exchange of ICT-supported solutions and of data may improve coordination and integration across the entire chain of healthcare delivery to allow personalised management. With the dissemination of this technology, legal cases will increase; as a consequence, legislation should be updated to resolve many issues. National and EU governments should promote common ethical, legal, regulatory, technical and administrative standards [33].

Economic considerations

By 2060, the European population aged >65 years and those aged ≥80 years will rise to 30.0% and to 12.1% of the total population, respectively. Accordingly, projections show that the EU average health expenditure may grow to up to 8.5% of gross domestic product due to, besides age, other socioeconomic and cultural factors. These changes have already had an impact on present public perceptions. Furthermore, increasing reductions in public budgets for welfare clash with growing citizen expectations for higher quality services and social care [2, 3, 34]. The health economics impact of the use of telehealth has been evaluated in a meta-analysis [35], indicating a €1060 average decrease of hospitalisation costs and additional €898 savings per patient. A systematic review assessed the economic value of synchronous or real-time video communication, and concluded that these tools were cost-effective for local delivery of services between hospitals and primary care [36]. However, telemedicine may represent an opportunity for health services. Despite the present economic crisis, the potential eHealth market is strong. The global telemedicine market has grown to $11.6 billion in 2011, and is expected to continue to grow to $27.3 billion in 2016 [35]. The health market enabled by digital technologies is rapidly growing, and the cooperation between wireless communication technologies and healthcare devices, and between health and social care is creating new businesses [33]. However, to evaluate the real cost/effectiveness of new methods of care such as telemedicine, it is important to define “standard therapy” and “usual therapy”. The superiority (if any) of this new method of care must be compared to the different homecare organisations of the different European countries [33].

Problems and future directions

Variable models of telemedicine exist for COPD patients. Despite the hope of telemedicine as a means of COPD patient care, we need much more evidence before this modality can be considered as real progress in the management of these patients. Telemedicine must be evaluated in the context of other services (homecare, access to hospital and social care), including it in a “care package”. Age, education, experience in technological devices, home environment, cognitive, motor and visual abilities or deficits, phonation, and speech play an important role in the patient’s ability to use technology in telemedicine programmes [37]. The training to the use of technology and the structure of the programme should be directed to caregivers in order to make them able to act in accordance with predefined protocols [38]. Major barriers hamper the wider diffusion of telemedicine, as shown in table 3. Solutions of these barriers are areas to be solved for the future.
Table 3

Barriers to tele-monitoring [3]

Lack of knowledge of eHealth among patients, citizens and healthcare professionals

Lack of interoperability among different solutions

Limited evidence of cost/effectiveness

Legal problems and fears

Lack of transparency on data utilisation

Insufficient reimbursement schemes

High start-up costs

Barriers to tele-monitoring [3] Lack of knowledge of eHealth among patients, citizens and healthcare professionals Lack of interoperability among different solutions Limited evidence of cost/effectiveness Legal problems and fears Lack of transparency on data utilisation Insufficient reimbursement schemes High start-up costs Areas of future research may be effects of telemedicine on: clinical outcomes (survival, HRQL, daily living activities, social interaction, autonomy, self-management and caregiver burden) health services (phone calls and technical home visits) health resources use (emergency visits, hospital admissions and outpatient visits) 1) The expected results from telemedicine in COPD are: a. Reduction in hospital stay b. Reduction in hospitalisations c. Improvement in quality of life d. All of the above e. None of the above 2) Telecare, telemonitoring and telemedicine programmes will change: a. Hospital admission b. Relationships among healthcare teams c. Drug prescription d. All of the above e. None of the above 3) The superiority of telemedicine versus standard follow-up models on costs has been clearly demonstrated. a. True b. False 4) Telemedicine is considered as: a. A new mandatory alternative to hospital admission b. A new supplement care instrument to use alongside conventional systems 1) d. 2) d. 3) b. 4) b.
  31 in total

1.  Telemedicine enhances quality of forced spirometry in primary care.

Authors:  Felip Burgos; Carlos Disdier; Elena Lopez de Santamaria; Batxi Galdiz; Núria Roger; Maria Luisa Rivera; Ramona Hervàs; Enric Durán-Tauleria; Judith Garcia-Aymerich; Josep Roca
Journal:  Eur Respir J       Date:  2011-11-10       Impact factor: 16.671

2.  Tele-monitoring of ventilator-dependent patients: a European Respiratory Society Statement.

Authors:  Nicolino Ambrosino; Michele Vitacca; Michael Dreher; Valentina Isetta; Josep M Montserrat; Thomy Tonia; Giuseppe Turchetti; Joao Carlos Winck; Felip Burgos; Michael Kampelmacher; Guido Vagheggini
Journal:  Eur Respir J       Date:  2016-07-07       Impact factor: 16.671

3.  Impact of remote telemedical management on mortality and hospitalizations in ambulatory patients with chronic heart failure: the telemedical interventional monitoring in heart failure study.

Authors:  Friedrich Koehler; Sebastian Winkler; Michael Schieber; Udo Sechtem; Karl Stangl; Michael Böhm; Herbert Boll; Gert Baumann; Marcus Honold; Kerstin Koehler; Goetz Gelbrich; Bridget-Anne Kirwan; Stefan D Anker
Journal:  Circulation       Date:  2011-03-28       Impact factor: 29.690

4.  Effects of home telemonitoring to support improved care for chronic obstructive pulmonary diseases.

Authors:  Claude Sicotte; Guy Paré; Sandra Morin; Jacques Potvin; Marie-Pierre Moreault
Journal:  Telemed J E Health       Date:  2011-01-09       Impact factor: 3.536

Review 5.  Telehealthcare in COPD: a systematic review and meta-analysis on physical outcomes and dyspnea.

Authors:  Sara Lundell; Åsa Holmner; Börje Rehn; Andre Nyberg; Karin Wadell
Journal:  Respir Med       Date:  2014-10-27       Impact factor: 3.415

6.  Cost effectiveness of telehealth for patients with long term conditions (Whole Systems Demonstrator telehealth questionnaire study): nested economic evaluation in a pragmatic, cluster randomised controlled trial.

Authors:  Catherine Henderson; Martin Knapp; José-Luis Fernández; Jennifer Beecham; Shashivadan P Hirani; Martin Cartwright; Lorna Rixon; Michelle Beynon; Anne Rogers; Peter Bower; Helen Doll; Ray Fitzpatrick; Adam Steventon; Martin Bardsley; Jane Hendy; Stanton P Newman
Journal:  BMJ       Date:  2013-03-20

Review 7.  Telehealthcare for chronic obstructive pulmonary disease: Cochrane Review and meta-analysis.

Authors:  Susannah McLean; Ulugbek Nurmatov; Joseph L Y Liu; Claudia Pagliari; Josip Car; Aziz Sheikh
Journal:  Br J Gen Pract       Date:  2012-11       Impact factor: 5.386

8.  Randomised crossover trial of telemonitoring in chronic respiratory patients (TeleCRAFT trial).

Authors:  M Chatwin; G Hawkins; L Panicchia; A Woods; A Hanak; R Lucas; E Baker; E Ramhamdany; B Mann; J Riley; M R Cowie; A K Simonds
Journal:  Thorax       Date:  2016-04       Impact factor: 9.139

Review 9.  The health economic impact of disease management programs for COPD: a systematic literature review and meta-analysis.

Authors:  Melinde R S Boland; Apostolos Tsiachristas; Annemarije L Kruis; Niels H Chavannes; Maureen P M H Rutten-van Mölken
Journal:  BMC Pulm Med       Date:  2013-07-03       Impact factor: 3.317

Review 10.  Do telemedical interventions improve quality of life in patients with COPD? A systematic review.

Authors:  Thorbjørn L Gregersen; Allan Green; Ejvind Frausing; Thomas Ringbæk; Eva Brøndum; Charlotte Suppli Ulrik
Journal:  Int J Chron Obstruct Pulmon Dis       Date:  2016-04-21
View more
  9 in total

1.  Evaluation and Exploration on the Effect of the Management of Chronic Obstructive Pulmonary Disease in Rural Areas through an Internet-Based Network Consulting Room.

Authors:  Yan Yan; Li Liu; Jing Zeng; Liang Zhang
Journal:  Med Princ Pract       Date:  2018-03-20       Impact factor: 1.927

2.  Computer-Mediated Experiences of Patients with Chronic Obstructive Pulmonary Disease.

Authors:  Samantha R Paige; Michael Stellefson; Janice L Krieger; Julia M Alber
Journal:  Am J Health Educ       Date:  2019-02-26

3.  A Low-Cost Breath Analyzer Module in Domiciliary Non-Invasive Mechanical Ventilation for Remote COPD Patient Monitoring.

Authors:  Antonio Vincenzo Radogna; Pietro Aleardo Siciliano; Saverio Sabina; Eugenio Sabato; Simonetta Capone
Journal:  Sensors (Basel)       Date:  2020-01-24       Impact factor: 3.576

Review 4.  Efficacy of Web-Based Supportive Interventions in Quality of Life in COPD Patients, a Systematic Review and Meta-Analysis.

Authors:  Andrés Calvache-Mateo; Laura López-López; Alejandro Heredia-Ciuró; Javier Martín-Núñez; Janet Rodríguez-Torres; Araceli Ortiz-Rubio; Marie Carmen Valenza
Journal:  Int J Environ Res Public Health       Date:  2021-12-02       Impact factor: 3.390

5.  Development of a Remote Health Monitoring System to Prevent Frailty in Elderly Home-Care Patients with COPD.

Authors:  Chisato Ohashi; Shunsuke Akiguchi; Mineko Ohira
Journal:  Sensors (Basel)       Date:  2022-03-30       Impact factor: 3.576

6.  Effect of telemonitoring and telerehabilitation on physical activity, exercise capacity, health-related quality of life and healthcare use in patients with chronic lung diseases or COVID-19: A scoping review.

Authors:  Diana C Sanchez-Ramirez; Margriet Pol; Hal Loewen; Mohamed-Amine Choukou
Journal:  J Telemed Telecare       Date:  2022-08-31       Impact factor: 6.344

Review 7.  Tele-medicine in respiratory diseases.

Authors:  Nicolino Ambrosino; Dewi Nurul Makhabah; Yusup Subagio Sutanto
Journal:  Multidiscip Respir Med       Date:  2017-04-20

8.  A Pervasive Healthcare System for COPD Patients.

Authors:  Hicham Ajami; Hamid Mcheick; Karam Mustapha
Journal:  Diagnostics (Basel)       Date:  2019-10-01

9.  Telemedicine as the New Outpatient Clinic Gone Digital: Position Paper From the Pandemic Health System REsilience PROGRAM (REPROGRAM) International Consortium (Part 2).

Authors:  Sonu Bhaskar; Sian Bradley; Vijay Kumar Chattu; Anil Adisesh; Alma Nurtazina; Saltanat Kyrykbayeva; Sateesh Sakhamuri; Sebastian Moguilner; Shawna Pandya; Starr Schroeder; Maciej Banach; Daniel Ray
Journal:  Front Public Health       Date:  2020-09-07
  9 in total

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