User Perception of Automated Dose Dispensed Medicine in Home Care: A Scoping Review
Abstract
:1. Introduction
2. Materials and Methods
2.1. Literature Search
2.2. Exclusion and Inclusion Criteria
2.3. Study Selection
2.4. Study Extraction
3. Results
3.1. Characteristics of Included Studies
3.2. Patient Experience Measures
4. Discussion
4.1. Healthcare Professionals’ Perceptions and Experience with ADD
4.2. Patient Perceptions and Experience with ADD Robots
4.3. Future Research
4.4. Strengths and Limitations
5. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
Appendix A. Search Strategy for Embase and PubMed
- 1
- automated medication dispens*.mp. (68)
- 2
- automated medication distribu*.mp. (11)
- 3
- automated drug distribut*.mp. (15)
- 4
- automated drug dispens*.mp. (49)
- 5
- automated dose-dispens*.mp. (21)
- 6
- automated dispensing system*.mp. (119)
- 7
- (multidose drug dispens* or multi-dose drug dispens*).mp. (54)
- 8
- (multidose drug distribut* or multi-dose drug distribut*).mp. (2)
- 9
- (automat* adj1 (dispens* or distribut*) adj1 (device* or system* or management*)).mp. (188)
- 10
- medication dispens* robot.mp. (1)
- 11
- (medici* adj1 dispens* adj1 (machine* or robot*)).mp. (2)
- 12
- (automat* adj1 (dose dispens* or dose distribut*)).mp. (43)
- 13
- ((multidose or multi-dose) adj1 (dispens* or distribut*)).mp. (39)
- 14
- (patient* or citizen* or civilian* or user*).mp. (11881920)
- 15
- evaluation.mp. or evaluation study/ (2269741)
- 16
- reflection.mp. (70815)
- 17
- experience*.mp. (1722802)
- 18
- or/1-13 (441)
- 19
- (news or letter or comment or editorial or historical article).mp. (2003229)
- 20
- 18 not 19 (435)
- 21
- acceptabilit*.mp. (54158)
- 22
- perception*.mp. (472588)
- 23
- (human-robot interaction* or human robot interaction*).mp. (745)
- 24
- (human-machine interaction* or human machine interaction*).mp. (548)
- 25
- interaction*.mp. (2141813)
- 26
- 20 and 14 (284)
- 27
- 26 and (15 or 16 or 17 or 21 or 22 or 25) (105)
- 1
- automated medication dispens*[Title/Abstract] (39)
- 2
- automated medication distribu*[Title/Abstract] (8)
- 3
- automated drug distribut*[Title/Abstract] (9)
- 4
- automated drug dispens*[Title/Abstract] (29)
- 5
- automated dose-dispens*[Title/Abstract] (10)
- 6
- automated dispensing system*[Title/Abstract] (56)
- 7
- (multidose drug dispens* or multi-dose drug dispens*[Title/Abstract]) (73)
- 8
- (multidose drug distribut* or multi-dose drug distribut*[Title/Abstract]) (106)
- 9
- (#2 or #3 or #4 or #5 or #6) and (device* or system* or management*) (83)
- 10
- medication dispens* robot[Title/Abstract] (28)
- 11
- (medici*[Title/Abstract] AND dispens*[Title/Abstract] AND (machine*[Title/Abstract] OR robot*[Title/Abstract])) (38)
- 12
- (automat*[Title/Abstract] AND (dose dispens*[Title/Abstract] OR dose distribut*[Title/Abstract])) (507)
- 13
- (multidose[Title/Abstract] OR multi-dose[Title/Abstract]) AND (dispens*[Title/Abstract] OR distribut*[Title/Abstract]) (200)
- 14
- (patient*[Title/Abstract] OR citizen*[Title/Abstract] OR civilian*[Title/Abstract] OR user*[Title/Abstract]) (7,113,685)
- 15
- evaluation[Title/Abstract] OR evaluation study[Title/Abstract] (1,238,682)
- 16
- reflection*[Title/Abstract] (85,487)
- 17
- experience*[Title/Abstract] (1,116,539)
- 18
- (#2 or #3 or #4 or #5 or #6 or #7 or #9 or #10 or #11 or #12 or #15 or #17 or #18) (913)
- 19
- (news or letter or comment or editorial or historical article) (2,640,881)
- 20
- (#18 not #19) (895)
- 21
- acceptabilit*[Title/Abstract] (39,445)
- 22
- perception*[Title/Abstract] (271,598)
- 23
- (human-robot interaction*[Title/Abstract] OR human robot interaction*[Title/Abstract]) (480)
- 24
- (human-machine interaction*[Title/Abstract] OR human machine interaction*[Title/Abstract]) (391)
- 25
- (#28 and #20) (528)
- 26
- (#25 and (#15 or #16 or #17 or #21 or #22) (126)
- 27
- interaction[Title/Abstract] (821,226)
- 28
- (#25 and #27) (11)
- 29
- (#25 or #27) (124)
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Study | Year | Country | Study Design | Perspective | Outcome Measures |
---|---|---|---|---|---|
Faisal, S. et al. | 2020 | Canada | Scoping review | Patients with SOMDS | Acceptability, functionality and usability of ADD robots, medicine adherence |
Zijp, T. R., Touw, D. J. and van Boven, J. F. M. | 2020 | Netherlands | Proof-of-concept study | Users of smart pill bottle prototype | Medicine adherence, user acceptability of ADD robots |
Mertens, B. J. et al. | 2019 | Netherlands | Cross-sectional study | Patients with MDD | Medication safety and adherence, patient’s convenience |
Mertens, B. J. et al. | 2018 | Netherlands | Case–control study | Selection of MDD users | Correct patient selection for MDD, medication adherence |
Rantanen, P. et al. | 2017 | Finland | Two-phase prospective study | Elderly patients’ use of ADD robots | Medication adherence, patients’ experiences |
C, B. and L, R. | 2016 | Sweden | Quantitative study | Patients with ADD | Medication adherence, patients’ experiences |
Bardage, C., Ekedahl, A. and Ring, L. | 2014 | Sweden | Cross sectional study | Healthcare professionals’ perspectives on ADD robots | Medication adherence, medication errors, healthcare processionals’ opinions |
Sinnemäki, J. et al. | 2013 | Finland | Systematic review | Patients with ADD robots | Medication safety, medication use and medication adherence |
Wekre, L. J., Melby, L. and Grimsmo, A. | 2011 | Norway | Qualitative study | Healthcare professionals’ perspectives on ADD robots | Healthcare professionals’ opinions, medication errors |
Larsen, A. B. and Haugbølle, L. S. | 2007 | Denmark | Qualitative study | Patients with ADD robots | Medication compliance |
Bredenberg, S. et al. | 2003 | Sweden | Quantitative study | Patients with ADD robots | Patients’ opinions |
Study | Data Collection Method | Outcome Specification and Results |
---|---|---|
Patient experiences | ||
Faisal, S. et al. (2020) | Literature search | The study highlighted SOMDS as easy to use and only minor usage issues were reported. SOMDS seemed to enhance medicine adherence in various patient populations and clinicians were able to address causes of intentional non-adherence because of real-life monitoring, in spite of variety in SOMDS. |
Zijp, T. R., Touw, D. J. and van Boven, J. F. M. (2020) | Questionnaire data from ADD | The study tested medication adherence (using human factor testing and product evaluation) to elucidate user acceptance and technical robustness of the prototype. Ten volunteers, who used the smart pill bottle prototype with placebo pills for 14 days, were included in the study and most of them found the system easy to use. |
Mertens, B. J. et al. (2019) | Interview Questionnaire | The study explored patients’ experiences with the initiation and use of MDD systems. A total of 62 patients, aged 74–85 years, were included in the study; all of them were using MDD. The patients were satisfied with MDD as a tool to support and administrate their medication. Almost 50% reported decreased medication errors as a result of using MDD, while 14% reported having higher medication adherence, because they were notified when the medicine was ready to be taken. |
Bredenberg, S. et al. (2017) | Observation Questionnaire | The study examined twenty patients’ perceptions of using MDDs. They were positive about the concept, but some found the dispenser too large, while others reported that some of the MDD features were too small. The results showed that 19 of the 20 participants were positive about the concept of dose administration in general and emphasized needs for the dose dispensing concept. |
Rantanen, P. et al. (2017) | Observation Interview Questionnaire Data from ADD | The study investigated whether an automated medication dispenser had any malfunctions, when used in patients’ homes, by researching 17 patients using an automated medication dispenser for 457 days (phase one). In phase two, 27 patients used the same medication dispenser for 727 days, and the use of the robot was studied under a less controlled setting in the patients’ homes. More than 20% of the patients in both phases reported that they had difficulties remembering their medication. The study found that both patients and nurses would recommend (or probably recommend) the robot for further use. One patient responded that he would not, because of the size of the robot. |
C, B. and L, R. (2016) | Questionnaire | The study used a questionnaire to gather information from a total of 1465 respondents. Overall, 58% had used an ADD robot for 2 years or longer; 53% were women, 47% were men and 64% were 65 years or older. In total, 93% of the respondents said that the ADD robot helped them to take the correct dosage, while 90% felt secure about using the ADD robot and 78% said that the sachets were easy to open. Moreover, 87% said that they disagreed with being displeased with receiving medication in sachets. In general, the patients were satisfied and felt secure using the ADD robot, and the majority would recommend ADD robots to others. One of the issues with ADD was that the patients felt that they needed better information about their treatment and about treatment-related changes. Adherence and safety issues were suggested to be investigated. |
Healthcare professionals’ experiences | ||
Bardage, C., Ekedahl, A. and Ring, L. (2014) | Questionnaire | The study researched Swedish healthcare professionals’ perceived experiences with ADD robots and their effects on patients’ adherence and safety. Responses from a total of 223 physicians, 215 nurses and 915 assistant nurses were aquired and most nurses (90%) and assistant nurses (74%) stated that ADD robots increased patient safety, and 59% of physicians responded likewise. The majority of the respondents stated that ADD robots were for patients who were not capable of managing their medicine themselves and that ADD robots were offered for the convenience of the staff. Overall, 60% of the physicians, 52% of the nurses and 31% of the assistant nurses stated that patients received ADD robots to improve medication adherence and one-third of the nurses and assistant nurses replied that an ADD robot was suitable for those patients who were on stable medication, where the prescription did not change often. Nurses and nursing assistants stated that more patients should be offered an ADD robot, but because of the physicians’ negativity towards the system (for economic reasons), not all patients are offered the technology. |
Wekre, L. J., Melby, L. and Grimsmo, A (2011) | Interview | The aim of the study was to investigate early experiences, including trust, between different groups of healthcare professionals participating in the implementation of ADD robots. The majority of the participants expressed positive attitudes towards the ADD robot in relation to trust, while a few felt the need to check the drug packages from the pharmacy themselves, not relying on the robot to secure the right dose. The study found that healthcare professionals’ attitudes towards a new system can affect the implementation process and outcome. |
Medication safety and use | ||
Sinnemäki, J. et al. (2013) | Literature search | The study reviewed the evidence for the influence of ADD robots on appropriateness of medication use, safety and costs within primary healthcare and included 7 studies. The reviewed controlled studies suggested that patients using ADD robots were experiencing more inappropriate drug use than patients receiving standard dispensed medicine. The technology could have disadvantages in terms of continuing unchanged drug treatment, and to prevent this, more frequent medication reviews would be required from the general practitioner. Two of the four controlled studies indicated that patients using ADD robots and had more complicated drug regimens and high-risk medications were a segment who could benefit from ADD robots, as this technology could prevent higher-risk drug-related problems, medication errors or inappropriate drug use. |
Mertens, B. J. et al. (2018) | Interview | The study researched and compared patients who were about to start on MDD and those who used manually dispensed medication, in order to identify whether it was the appropriate patients who received an MDD system. Overall, 418 patients were included in the study, where 188 were MDD users and 230 were non-MDD users. The study showed that the majority of the MDD systems were initiated for patients who had a decreased medication management capacity. The users of MDD were aged 76–85 years; some were cognitively impaired and frail. Of the users who were about to start on MDD, 30% were in the category of being inappropriate to start on MDD and this group stated that they had not lost the capacity to manage their own medication. |
Larsen, A. B. and Haugbølle, L. S. (2007) | Interview | The study explored how the ADD robots affected users’ handling and consumption of medication, related to compliance behavior. It further investigated how healthcare professionals’ assumptions of user benefits were alligned with users’ experiences with ADD robots. Nine patients were interviewed, and 7 of these showed noncompliance. The study found that users were worried about drug dependency, about the influence of previous experience from another sector (where the same medication was used in another way) and lack of motivation to take the medication as prescribed. |
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Mertz, L.; Tornbjerg, K.; Nøhr, C. User Perception of Automated Dose Dispensed Medicine in Home Care: A Scoping Review. Healthcare 2021, 9, 1381. https://doi.org/10.3390/healthcare9101381
Mertz L, Tornbjerg K, Nøhr C. User Perception of Automated Dose Dispensed Medicine in Home Care: A Scoping Review. Healthcare. 2021; 9(10):1381. https://doi.org/10.3390/healthcare9101381
Chicago/Turabian StyleMertz, Lasse, Kristina Tornbjerg, and Christian Nøhr. 2021. "User Perception of Automated Dose Dispensed Medicine in Home Care: A Scoping Review" Healthcare 9, no. 10: 1381. https://doi.org/10.3390/healthcare9101381
APA StyleMertz, L., Tornbjerg, K., & Nøhr, C. (2021). User Perception of Automated Dose Dispensed Medicine in Home Care: A Scoping Review. Healthcare, 9(10), 1381. https://doi.org/10.3390/healthcare9101381