Enhancing Pharmaceutical Packaging through a Technology Ecosystem to Facilitate the Reuse of Medicines and Reduce Medicinal Waste
Abstract
:1. Introduction
2. Methods
3. Results
3.1. Technologies for Quality Requirements
3.2. Technologies for Safety Requirements
4. Discussion
- (i)
- Thin-film technologiesPrinted electronics and nanotechnology mentioned previously provide methods to place electronic circuits on packaging materials. However, these technologies are still not common and complicated circuitry such as wireless modules and high-power microprocessors are still not directly printable onto the packaging surface.
- (ii)
- Energy harvestingRFID is normally used to provide power to read a passive tag but a continuous power supply for maintaining the regular sensing and the network connection is required. Technology for printed batteries is still in an early stage [108], energy harvesting techniques such as extracting ambient energy could be an alternative [109], and wireless charging can also be a good candidate supplying continuous power to the embedded electronics from a distance [110]. However, all these technologies are not yet mature enough for immediate implementation onto intelligent pharmaceutical packaging.
- (iii)
- Flexible displayFlexible displays using e-ink or EC technology show a promising way to use minimum energy to sustain a dynamic changing electronic display mounted on existing flat or curved pharmaceutical packaging. Although no power is required for maintaining e-ink screen contents, the irregular updates still require a significant amount of electrical power to align the color pigments. Electrochromism technology reduces the energy for updating EC displays but a regular refresh process is required to keep the screen content visible. New low cost, low energy and printable technologies for pharmaceutical packaging are required.
- (a)
- patients’ incentive for returning unwanted medicines,
- (b)
- pharmacists’ incentive for extra workload in re-dispensing medicines,
- (c)
- cost effectiveness monitoring of reusing medicines,
- (d)
- legal issues such as legislation on re-dispensing medicines and professional standards for pharmacists,
- (e)
- social norm for promoting medicine reuse,
- (f)
- on-site and off-site collection and distribution system.
5. ReMINDS Ecosystem
6. Conclusions
Author Contributions
Funding
Conflicts of Interest
References
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Requirements | Quality | Safety | Others |
---|---|---|---|
Patients’ perspective [17] | (1) storage and handling conditions. | (1) tamper-proof packaging; (2) anti-counterfeit. | (1) patient incentive; (2) cost effectiveness. |
Healthcare professionals’ perspective [18] | (1) storage conditions (temperature, moisture and light); (2) contamination of package (stain, smell); (3) last dispensing date. | (1) tamper-proof packaging; (2) anti-counterfeit. | (1) cost effectiveness; (2) legal issues regarding pharmacist responsibility, medicine recall, paperwork, efficacy, and governmental regulations. |
Stakeholders’ perspective [16] | (1) monitor storage conditions (temperature, light, humidity, agitation, and lapsed expiration date). | (1) anti-counterfeit; (2) track and trace system to the packages for re-dispensed medicines. | (1) patients’ incentive; (2) pharmacists’ incentive; (3) cost benefits shared by stakeholders (patients, pharmacists and health insurance companies). |
TPB Behavioral beliefs [19] | (1) storage conditions (temperature, humidity and cleanliness); (2) contaminated packaging. | (1) tamper-proof packaging; (2) errors introduced by patients or pharmacists; (3) anti-counterfeit. | (1) cost effectiveness. |
TPB Normative beliefs [19] | Nil | Nil | (1) concern mostly on the social norm for reusing medicines. |
TPB Control beliefs [19] | (1) monitor storage conditions (temperature, light, humidity, agitation, and lapsed expiration date). | (1) tamper-proof packaging; (2) anti-counterfeit. | (1) patient incentive; (2) on-site and off-site collection and distribution system. |
Requirements | Technologies | Keywords for Search |
---|---|---|
Quality | (1) storage temperature monitoring (2) storage humidity monitoring (3) storage lighting monitoring (4) storage contamination monitoring (5) agitation monitoring (6) lapsed expiration date monitoring | (1) (intelligent OR smart OR monitor) AND packaging AND temperature (2) (intelligent OR smart OR monitor) AND packaging AND (humidity OR moisture) (3) (light OR optical OR UV) AND food AND packaging (4) packaging AND contamination (5) (vibration OR shock OR acceleration OR shake OR agitation) AND packaging (6) (report OR monitor OR detection) AND expiry |
Safety | (1) tamper-proof packaging (2) anti-counterfeit (3) track & trace collecting and dispensing system (4) errors tracking from patients and pharmacists | (1) (evident OR resistant OR detection OR proof) AND tamper AND packaging (2–4) (pharmaceutical OR intelligent OR smart OR packaging) AND counterfeit |
Requirements | Technologies |
---|---|
Quality | (i) storage temperature monitoring: passive TTI [43,44,45] (ii) storage temperature monitoring: active TTI with digital interfaces [46] (iii) thin-film technology: printed sensors and RFID tags [47,48,49,50] (iv) thin-film technology: hybrid printed circuits [51,52] (v) thin-film technology: nanotechnology [53,54,55] (vi) contamination detection: PT/GC/MS methodology [56,57] (vii) contamination detection: computer vision [58] (viii) contamination detection: tamper-evident check [59,60] (ix) motion detection: wearable sensors [63,64] (x) expiry date detection: visual inspection [66] (xi) expiry date detection: QR codes and smartphones [67] (xii) on packaging display: e-ink displays [68] and EC displays [69,70] |
Safety | (i) tamper-proof: tamper-evident and tamper-resistance on packaging [71,72,73,75] (ii) tamper-proof: tamper-evident for transportation [74] (iii) tamper-proof: implementation during production [23,76] (iv) tamper-proof: built-in digital interfaces [77,78] (v) anti-counterfeit: overt/covert indications [80,81,82] (vi) anti-counterfeit: packaging materials inspection [83,84,85] (vii) anti-counterfeit: tagging on label, on medicine and on-dose [86,87,88,89] (viii) anti-counterfeit: readers for mini-size tags [90,91,92] (ix) anti-counterfeit: track and trace systems through Internet [93,94] (x) anti-counterfeit: open ledger based on blockchain [95,96,97] |
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Hui, T.K.L.; Mohammed, B.; Donyai, P.; McCrindle, R.; Sherratt, R.S. Enhancing Pharmaceutical Packaging through a Technology Ecosystem to Facilitate the Reuse of Medicines and Reduce Medicinal Waste. Pharmacy 2020, 8, 58. https://doi.org/10.3390/pharmacy8020058
Hui TKL, Mohammed B, Donyai P, McCrindle R, Sherratt RS. Enhancing Pharmaceutical Packaging through a Technology Ecosystem to Facilitate the Reuse of Medicines and Reduce Medicinal Waste. Pharmacy. 2020; 8(2):58. https://doi.org/10.3390/pharmacy8020058
Chicago/Turabian StyleHui, Terence K. L., Bilal Mohammed, Parastou Donyai, Rachel McCrindle, and R. Simon Sherratt. 2020. "Enhancing Pharmaceutical Packaging through a Technology Ecosystem to Facilitate the Reuse of Medicines and Reduce Medicinal Waste" Pharmacy 8, no. 2: 58. https://doi.org/10.3390/pharmacy8020058
APA StyleHui, T. K. L., Mohammed, B., Donyai, P., McCrindle, R., & Sherratt, R. S. (2020). Enhancing Pharmaceutical Packaging through a Technology Ecosystem to Facilitate the Reuse of Medicines and Reduce Medicinal Waste. Pharmacy, 8(2), 58. https://doi.org/10.3390/pharmacy8020058