Journal of Innovative Optical Health Sciences, Volume. 15, Issue 2, 2230003(2022)

Blood glucose sensors and recent advances: A review

[in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], and [in Chinese]*
Author Affiliations
  • Institute of Laser & Micro/Nano Engineering, Sichuan University, Chengdu 610065, P. R. China
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    References(151)

    [1] [1] A. D. Association, "Diagnosis and classification of diabetes mellitus," Diabetes Care 101, 274 (2012).

    [2] [2] R. Parish, K. F. Petersen, "Mitochondrial dysfunction and type 2 diabetes," Curr. Diab. Rep. 5, 177-183 (2005).

    [3] [3] D. R. Whiting, L. Guariguata, C. Weil, J. Shaw, "IDF diabetes atlas: Global estimates of the prevalence of diabetes for 2011 and 2030," Diabetes Res. Clin. Pract. 94, 311-321 (2011).

    [4] [4] R. L'Heveder, T. Nolan, "International diabetes federation," Diabetes Res. Clin. Pract. 101, 349-351 (2013).

    [5] [5] A. D. Association, "2. Classification and diagnosis of diabetes," Diabetes Care 40, S11-S24 (2017).

    [6] [6] S. Coster, M. C. Gulliford, P. T. Seed, J. K. Powrie, R. Swaminathan, "Monitoring blood glucose control in diabetes mellitus: A systematic review," Health Technol. Assess. 4, 1-93 (2000).

    [7] [7] D. Susan van, J. W. Beulens, S. Yvonne, T. van der, D. E. Grobbee, B. Nealb, "The global burden of diabetes and its complications: An emerging pandemic," Eur. J. Cardiovasc. Prev. Rehabil. 17, s3-s8 (2010).

    [8] [8] J. D. Newman, A. P. Turner, "Home blood glucose biosensors: A commercial perspective," Biosens Bioelectron. 20, 2435-2453 (2005).

    [9] [9] L. M. C. Welschen et al., "Self-monitoring of blood glucose in patients with type 2 diabetes who are not using insulin," Diabetes Care 28, 1510-1517(2005).

    [10] [10] L. C. Clark, Jr., C. Lyons, "Electrode systems for continuous monitoring in cardiovascular surgery," Ann. New York Acad. Sci. 102, 29-45 (1962).

    [11] [11] T. Arakawa et al., "Mouthguard biosensor with telemetry system for monitoring of saliva glucose: A novel cavitas sensor," Biosens. Bioelectron. 84, 106-111 (2016).

    [12] [12] W. Gao et al., "Fully integrated wearable sensor arrays for multiplexed in situ perspiration analysis," Nature 529, 509-514 (2016).

    [13] [13] V. P. Rachim, W. Y. Chung, "Wearable-band type visible-near infrared optical biosensor for noninvasive blood glucose monitoring," Sens. Actuat. B. Chem. 286, 173-180 (2019).

    [14] [14] N. Li et al., "A noninvasive accurate measurement of blood glucose levels with Raman spectroscopy of blood in microvessels," Molecules 24, 1500 (2019).

    [15] [15] L. Garcia-Carmona et al., "Pacifier Biosensor: Toward noninvasive saliva biomarker monitoring," Anal. Chem. 91, 13883-13891 (2019).

    [16] [16] D. G. Jung, D. Jung, S. H. Kong, "A lab-on-a-chipbased non-invasive optical sensor for measuring glucose in saliva," Sensors 17, 2607 (2017).

    [17] [17] L. F. de Castro et al., "Salivary diagnostics on paper microfluidic devices and their use as wearable sensors for glucose monitoring," Anal. Bioanal. Chem. 411, 4919-4928 (2019).

    [18] [18] Z. Zhou et al., "Luminescent wearable biosensors based on gold nanocluster networks for "Turn-on" Detection of uric acid, glucose and alcohol in sweat," Biosens. Bioelectron. 192, 113530 (2021).

    [19] [19] T. Siripongpreda et al., "Bacterial cellulose-based re-swellable hydrogel: Facile preparation and its potential application as colorimetric sensor of sweat pH and glucose," Carbohydrate Polym. 256, 117506 (2021).

    [20] [20] J. Choi et al., "Soft, skin-integrated multifunctional microfluidic systems for accurate colorimetric analysis of sweat biomarkers and temperature," ACS Sens. 4, 379-388 (2019).

    [21] [21] Y. Cui et al., "Ratiometric fluorescent nanohybrid for noninvasive and visual monitoring of sweat glucose," ACS Sensors 5, 2096-2105 (2020).

    [22] [22] S. Ardalan et al., "Towards smart personalized perspiration analysis: An IoT-integrated cellulosebased microfluidic wearable patch for smartphone fluorimetric multi-sensing of sweat biomarkers," Biosens. Bioelectron. 168, 112450 (2020).

    [23] [23] J. He et al., "A thermoresponsive microfluidic system integrating a shape memory polymer-modi fied textile and a paper-based colorimetric sensor for the detection of glucose in human sweat," RSC Adv. 9, 23957-23963 (2019).

    [24] [24] A. J. Bandodkar et al., "Tattoo-based noninvasive glucose monitoring: a proof-of-concept study," Anal. Chem. 87, 394-398 (2015).

    [25] [25] S. Emaminejad et al., "Autonomous sweat extraction and analysis applied to cystic fibrosis and glucose monitoring using a fully integrated wearable platform," Proc. Natl. Acad. Sci. USA 114, 4625-4630 (2017).

    [26] [26] Y. Chen et al., "Skin-like biosensor system via electrochemical channels for noninvasive blood glucose monitoring," Sci. Adv. 3, e1701629 (2017).

    [27] [27] J. Ju et al., "Surface enhanced Raman spectroscopy based biosensor with a microneedle array for minimally invasive in vivo glucose measurements," ACS Sens. 5, 1777-1785 (2020).

    [28] [28] K. Isensee et al., "Towards a quantum cascade laser-based implant for the continuous monitoring of glucose," Analyst 143, 6025-6036 (2018).

    [29] [29] M. Baghelani et al., "Non-invasive continuoustime glucose monitoring system using a chipless printable sensor based on split ring microwave resonators," Sci. Rep. UK 10, 1-15 (2020).

    [30] [30] Y. Zeng et al., "Colloidal crystal microneedle patch for glucose monitoring," Nano Today 35, 100984 (2020).

    [31] [31] M. Elsherif et al., "Wearable contact lens biosensors for continuous glucose monitoring using smartphones," Acs Nano 12, 5452-5462 (2018).

    [32] [32] Y.-R. Lin et al., "Noninvasive glucose monitoring with a contact lens and smartphone," Sensors 18, 3208 (2018).

    [33] [33] G. Ellen et al., "Paper-based colorimetric biosensor for tear glucose measurements," Micromachines 8, 104 (2017).

    [34] [34] N. Yamamoto et al., "Ultrasonic standing wave preparation of a liquid cell for glucose measurements in urine by midinfrared spectroscopy and potential application to smart toilets," J. Biomed. Opt. 23, 050503 (2018).

    [35] [35] Z. Zhang et al., "Highly sensitive on-site detection of glucose in human urine with naked eye based on enzymatic-like reaction mediated etching of gold nanorods," Biosens. Bioelectron. 89, 932-936 (2017).

    [36] [36] J. Zhang et al., "A wearable self-powered biosensor system integrated with diaper for detecting the urine glucose of diabetic patients," Sens. Actuat. B. Chem. 341, 130046 (2021).

    [37] [37] G. P. Mello et al., "Glucose sensing by fluorescent nanomaterials," Crit. Rev. Anal. Chem. 49, 542-552 (2019).

    [38] [38] E. F. Simoes et al., "Hypochlorite fluorescence sensing by phenylboronic acid-alizarin adduct based carbon dots," Talanta 208, 120447 (2020).

    [39] [39] M. Pohanka, P. Skladai, "Electrochemical biosensors - principles and applications," J. Appl. Biomed. 6, 57 (2008).

    [40] [40] M. Shichiri et al., "Wearable artificial endocrine pancreas with needle-type glucose sensor," Lancet 320, 1129-1131 (1982).

    [41] [41] C. Sabu et al., "Advanced biosensors for glucose and insulin," Biosens. Bioelectron. 141, 111201 (2019).

    [42] [42] B. Danielle et al., "Glucose sensing for diabetes monitoring: Recent developments," Sensors 17, 1866 (2017).

    [43] [43] S. E. Clarke, J.R. Foster, "A history of blood glucose meters and their role in self-monitoring of diabetes mellitus," Brit. J. Biomed. Sci. 69, 83 (2012).

    [44] [44] S. Ferri, K. Kojima, K. Sode, "Review of glucose oxidases and glucose dehydrogenases: A bird's eye view of glucose sensing enzymes," J. Diabetes Sci. Technol. 5, 1068-1076 (2011).

    [45] [45] D. Keilin, E. F. Hartree, "The use of glucose oxidase (notatin) for the determination of glucose in biological material and for the study of glucoseproducing systems by manometric methods," Biochem. J. 42, 230-238 (1948).

    [46] [46] A. Heller, B. Feldman, "Electrochemical glucose sensors and their applications in diabetes management," Chem. Rev. 108, 2482-2505 (2008).

    [47] [47] S. B. Bankar et al., "Glucose oxidase-an overview," Biotechnol. Adv. 27, 489-501 (2009).

    [48] [48] J. Wang, "Electrochemical glucose biosensors," Chem. Rev. 108, 814-825 (2008).

    [49] [49] C. F. So et al., "Recent advances in noninvasive glucose monitoring," Med. Dev. (Auckl) 5, 45-52 (2012).

    [50] [50] J. Yadav et al., Near-infrared LED based noninvasive blood glucose sensor, 2014 Int. Conf. Signal Processing and Integrated Networks (SPIN) (2014), pp. 591-594.

    [51] [51] S. P. Nichols et al., "Biocompatible materials for continuous glucose monitoring devices," Chem. Rev. 113, 2528-2549 (2013).

    [52] [52] G. Cappon et al., "Wearable continuous glucose monitoring sensors: A revolution in diabetes treatment," Electronics-Switz 6, 65 (2017).

    [53] [53] D. Boiroux et al., "Comparison of prediction models for a dual-hormone artificial pancreas," IFAC-PapersOnLine 48, 7-12 (2015).

    [54] [54] Abbott Diabetes Care Inc, Picture of the Abbott FreeStyle Libre, https://www.freestyle.abbott/usen/home.html.

    [55] [55] A. F. Olafsdottir et al., "A clinical trial of the accuracy and treatment experience of the flash glucose monitor freestyle libre in adults with type 1 diabetes," Diabetes Technol. Ther. 19, 164-172 (2017).

    [56] [56] F. Moussy, Implantable glucose sensor: Progress and problems, Proc. IEEE Sensors, pp. 270-273 (IEEE, 2002).

    [57] [57] C. E. F. do Amaral, B. Wolf, "Current development in non-invasive glucose monitoring," Med. Eng. Phys. 30, 541-549 (2008).

    [58] [58] H. Lee et al., "Enzyme-based glucose sensor: from invasive to wearable device," Adv. Healthcare Mater. 7, 1701150 (2018).

    [59] [59] J. Zhang et al., "Wearable glucose monitoring and implantable drug delivery systems for diabetes management," Adv. Healthcare Mater. 10(17), 2100194 (2021).

    [60] [60] J. Moyer et al., "Correlation between sweat glucose and blood glucose in subjects with diabetes," Diabetes Technol. Therapeutics 14, 398-402 (2012).

    [61] [61] M. Aihara et al., "Association between tear and blood glucose concentrations: Random intercept model adjusted with confounders in tear samples negative for occult blood," J. Diabetes Invest. 12, 266-276 (2021).

    [62] [62] S. Gupta et al., "Correlation of salivary glucose level with blood glucose level in diabetes mellitus," J. Oral Maxillofac. Pathol. 21, 334 (2017).

    [63] [63] M. Schiavon et al., "Modeling plasma-to-interstitium glucose kinetics from multitracer plasma and microdialysis data," Diabetes Technol. Therapeutics 17, 825-831 (2015).

    [64] [64] T. D. La Count et al., "Modeling glucose transport from systemic circulation to sweat," J. Pharma. Sci. 108, 364-371 (2019).

    [65] [65] J. R. Sempionatto et al., "Eyeglasses-based tear biosensing system: Non-invasive detection of alcohol, vitamins and glucose," Biosens. Bioelectron. 137, 161-170 (2019).

    [66] [66] N. M. Farandos et al., "Contact lens sensors in ocular diagnostics," Adv. Health. Mater. 4, 792-810 (2015).

    [67] [67] N. S. Oliver et al., "Glucose sensors: A review of current and emerging technology," Diabet. Med. 26, 197-210 (2009).

    [68] [68] N. Aggarwal, Raman and Fluorescence Spectroscopy of In Vitro Skin Tissue for Diagnostics and Monitoring, Massachusetts Institute of Technology (2018).

    [69] [69] X. Jintao et al., "Noninvasive and fast measurement of blood glucose in vivo by near infrared (NIR) spectroscopy," Spectrochim. Acta A Mol. Biomol. Spectrosc. 179, 250-254 (2017).

    [70] [70] K. Song et al., "An impedance and multi-wavelength near-infrared spectroscopy IC for non-invasive blood glucose estimation," IEEE J. Solid State Circuit. 50, 1025-1037 (2015).

    [71] [71] M. Ren, M. A. Arnold, "Comparison of multivariate calibration models for glucose, urea, and lactate from near-infrared and Raman spectra," Anal. Bioanal. Chem. 387, 879-888 (2007).

    [72] [72] Y. Uwadaira et al., "Identification of informative bands in the short-wavelength NIR region for noninvasive blood glucose measurement," Biomed. Opt. Exp. 7, 2729-2737 (2016).

    [73] [73] J. Liu, R. Liu, K. Xu, "Accuracy of noninvasive glucose sensing based on near-infrared spectroscopy," Appl. Spectrosc. 69, 1313-1318 (2015).

    [74] [74] W. L. Clarke et al., "Evaluating clinical accuracy of systems for self-monitoring of blood glucose," Diabetes Care 10, 622-628 (1987).

    [75] [75] M. Kohl et al., "Influence of glucose concentration on light scattering in tissue-simulating phantoms," Opt. Lett. 19, 2170-2172 (1994).

    [76] [76] J. Tenhunen, H. Kopola, R. Myllyla, "Non-invasive glucose measurement based on selective near infrared absorption; requirements on instrumentation and spectral range," Measurement 24, 173-177 (1998).

    [77] [77] X. Li, C. Li, Research on non-invasive glucose concentration measurement by NIR transmission, 2015 IEEE Int. Conf. Computer and Communications (ICCCs), pp. 223-238, IEEE (2015).

    [78] [78] R. Reottgers, D. McKee, S. B. Wozniak, "Evaluation of scatter corrections for ac-9 absorption measurements in coastal waters," Meth. Oceanogr. 7, 21-39 (2013).

    [79] [79] I. L. Jernelv et al., "A review of optical methods for continuous glucose monitoring," Appl. Spectrosc. Rev. 54, 543-572 (2019).

    [80] [80] F. Zapata, M. Ferreiro-Gonzalez, C. Garcia-Ruiz, "Interpreting the near infrared region of explosives," Spectrochim. Acta A Mol. Biomol. Spectrosc. 204, 81-87 (2018).

    [81] [81] A. K. Amerov et al., "Scattering and absorption effects in the determination of glucose in whole blood by near-infrared spectroscopy," Anal. Chem. 77, 4587-4594 (2005).

    [82] [82] J. Yadav et al., "Prospects and limitations of noninvasive blood glucose monitoring using nearinfrared spectroscopy," Biomed. Signal Process. 18, 214-227 (2015).

    [83] [83] W. Zhang et al., "Discussion on the validity of NIR spectral data in non-invasive blood glucose sensing," Biomed. Opt. Exp. 4, 789-802 (2013).

    [84] [84] S. Haxha, J. Jhoja, "Optical based noninvasive glucose monitoring sensor prototype," IEEE Photon. J. 8, 1-11 (2016).

    [85] [85] Z. Bo et al., "Noninvasive blood glucose monitoring system based on distributed multi-sensors information fusion of multi-wavelength NIR," Engineering 05, 553-560 (2013).

    [86] [86] M. A. Arnold, G. W. Small, "Noninvasive glucose sensing," Anal. Chem. 77, 5429-5439 (2005).

    [87] [87] K. Isensee, N. Kroger-Lui,W. Petrich, "Biomedical applications of mid-infrared quantum cascade lasers - a review," Analyst 143, 5888-5911 (2018).

    [88] [88] M. Brandstetter et al., "Tunable external cavity quantum cascade laser for the simultaneous determination of glucose and lactate in aqueous phase," Analyst 135, 3260-3265 (2010).

    [89] [89] S. Liakat et al., "In vitro measurements of physiological glucose concentrations in biological fluids using mid-infrared light," Biomed. Opt. Exp. 4, 1083-1090 (2013).

    [90] [90] M. Brandstetter et al., "Reagent-free monitoring of multiple clinically relevant parameters in human blood plasma using a mid-infrared quantum cascade laser based sensor system," Analyst 138, 4022-4028 (2013).

    [91] [91] R. Kasahara et al., "Noninvasive glucose monitoring using mid-infrared absorption spectroscopy based on a few wavenumbers," Biomed. Opt. Exp. 9, 289-302 (2018).

    [92] [92] S. Firdous et al., "Measurement of diabetic sugar concentration in human blood using Raman spectroscopy," Laser Phys. 22, 1090-1094 (2012).

    [93] [93] A. M. Enejder et al., "Blood analysis by Raman spectroscopy," Opt. Lett. 27, 2004-2006 (2002).

    [94] [94] J. M. Yuen et al., "Transcutaneous glucose sensing by surface-enhanced spatially offset Raman spectroscopy in a rat model," Anal. Chem. 82, 8382-8385 (2010).

    [95] [95] K. Ma et al., "In Vivo, transcutaneous glucose sensing using surface-enhanced spatially offset raman spectroscopy: Multiple rats, improved hypoglycemic accuracy, low incident power, and continuous monitoring for greater than 17 days," Anal. Chem. 83, 9146-9152 (2011).

    [96] [96] D. A. Stuart et al., "In vivo glucose measurement by surface-enhanced Raman spectroscopy," Anal. Chem. 78, 7211-7215 (2006).

    [97] [97] C. Yuen, Q. Liu, "Hollow agarose microneedle with silver coating for intradermal surface-enhanced Raman measurements: a skin-mimicking phantom study," J. Biomed. Opt. 20, 61102 (2015).

    [98] [98] J. Chaiken et al., "Instrument for near infrared emission spectroscopic probing of human fingertips in vivo," Rev. Sci. Instrum. 81, 034301 (2010).

    [99] [99] J. C. Pickup et al., "Fluorescence-based glucose sensors," Biosens. Bioelectron. 20, 2555-2565 (2005).

    [100] [100] F. P. Mutuyimana et al., "Synthesis of orange-red emissive carbon dots for fluorometric enzymatic determination of glucose," Mikrochim. Acta 185, 518 (2018).

    [101] [101] A. S. Krishna et al., "Carbon dot based non enzymatic approach for the detection and estimation of glucose in blood serum," Mater. Res. Exp. 3, 055001 (2016).

    [102] [102] Y. H. Li et al., "Fluorescent graphene quantum dots with a boronic acid appended bipyridinium salt to sense monosaccharides in aqueous solution," Chem. Commun. (Camb). 49, 5180-5182 (2013).

    [103] [103] Z. B. Qu et al., "Boronic acid functionalized graphene quantum dots as a fluorescent probe for selective and sensitive glucose determination in microdialysate," Chem. Commun. 49, 9830-9832 (2013).

    [104] [104] L. Zhang et al., "Graphene quantum dots assembled with metalloporphyrins for "Turn on" sensing of hydrogen peroxide and glucose," Chem. Eur. J. 21, 9343-9348 (2015).

    [105] [105] E. Mokhtarzadeh, J. Abolhasani, J. Hassanzadeh, "Rhodamine B chemiluminescence improved by mimetic AuCu alloy nanoclusters and ultrasensitive measurement of H2O2, glucose and xanthine," Anal. Sci. 35, 543-550 (2019).

    [106] [106] X. Li et al., "Glucose biosensor based on nanocomposite films of CdTe quantum dots and glucose oxidase," Langmuir 25, 6580-6586 (2009).

    [107] [107] Y. Du, S. Guo, "Chemically doped fluorescent carbon and graphene quantum dots for bioimaging, sensor, catalytic and photoelectronic applications," Nanoscale 8, 2532-2543 (2016).

    [108] [108] M. M. F. Choi, T. P. Yiu, "Immobilization of beef liver catalase on eggshell membrane for fabrication of hydrogen peroxide biosensor," Enzyme Microb. Technol. 34, 41-47 (2004).

    [109] [109] B. Z. Zheng et al., "Gold nanoparticles-coated eggshell membrane with immobilized glucose oxidase for fabrication of glucose biosensor," Sens. Actuat. B. Chem. 152, 49-55 (2011).

    [110] [110] B. Wu et al., "Biosensors for determination of glucose with glucose oxidase immobilized on an eggshell membrane," Talanta 64, 546-553 (2004).

    [111] [111] X. Yang et al., "A fluorescent glucose biosensor based on immobilized glucose oxidase on bamboo inner shell membrane," Biosens. Bioelectron. 21, 1613-1620 (2006).

    [112] [112] M. Christwardana, Y. Chung, Y. Kwon, "A new biocatalyst employing pyrenecarboxaldehyde as an anodic catalyst for enhancing the performance and stability of an enzymatic biofuel cell," Npg Asia Mater. 9, e386-e (2017).

    [113] [113] A. Paul, D. N. Srivastava, "Amperometric glucose sensing at nanomolar level using MOF-encapsulated TiO2 platform," Acs Omega 3, 14634-14640 (2018).

    [114] [114] M. Kahoush et al., "Surface modification of carbon felt by cold remote plasma for glucose oxidase enzyme immobilization," Appl. Surf. Sci. 476, 1016-1024 (2019).

    [115] [115] M. N. Morshed et al., "Surface modification of polyester fabric using plasma-dendrimer for robust immobilization of glucose oxidase enzyme," Sci. Rep.-UK 9, 1-16 (2019).

    [116] [116] A. M. Girelli, M. L. Astolfi, F. R. Scuto, "Agroindustrial wastes as potential carriers for enzyme immobilization: A review," Chemosphere 244, 125368 (2020).

    [117] [117] T. S. Yeh, C. S. Chu, Y. L. Lo, "Highly sensitive optical fiber oxygen sensor using Pt(II) complex embedded in sol-gel matrices," Sens. Actuat. B. Chem. 119, 701-707 (2006).

    [118] [118] Y. Tang et al., "Bright Sol-gel-derived sensor materials that yield linear calibration plots, high sensitivity, and long-term stability," Anal. Chem. 75, 2407-2413 (2003).

    [119] [119] H. D. Duong, O. J. Sohn, J. I. Rhee, "Development of a ratiometric fluorescent glucose sensor using an oxygen-sensing membrane immobilized with glucose oxidase for the detection of glucose in tears," Biosensors-Basel 10, 86 (2020).

    [120] [120] R. Ayranci et al., "Copolymer based multifunctional conducting polymer film for fluorescence sensing of glucose," Meth. Appl. Fluoresc. 6, 035012 (2018).

    [121] [121] M. Xu et al., "A selective fluorescence turn-on sensor for trace vapor detection of hydrogen peroxide," Chem. Commun. (Camb). 49, 11779 (2013).

    [122] [122] W. Yu et al., "An aggregation-induced emissionbased indirect competitive immunoassay for fluorescence "Turn-On" detection of drug residues in foodstuffs," Front. Chem. 7, 228 (2019).

    [123] [123] F. Hu et al., "A highly selective fluorescence turnon detection of hydrogen peroxide and D-glucose based on the aggregation/deaggregation of a modified tetraphenylethylene," Tetrahedron Lett. 55, 1471 (2014).

    [124] [124] Z. F. Gao et al., "Turn-on fluorescent sensor for the detection of glucose using manganese dioxide - phenol formaldehyde resin nanocomposite," Talanta 180, 12-17 (2018).

    [125] [125] J. Yuan et al., "MnO2-nanosheet-modified upconversion nanosystem for sensitive turn-on fluorescence detection of H2O2 and glucose in blood," ACS Appl. Mater. Interfaces 7, 10548-10555 (2015).

    [126] [126] H.-B. Wang et al., "A fluorescent glucose bioassay based on the hydrogen peroxide-induced decomposition of a quencher system composed of MnO2 nanosheets and copper nanoclusters," Microchim. Acta 184, 515-523 (2017).

    [127] [127] M. Lan et al., "A carbon dot-based fluorescence turn-on sensor for hydrogen peroxide with a photoinduced electron transfer mechanism," Chem. Commun. (Camb). 51, 15574-15577 (2015).

    [128] [128] Y. Ling et al., "Fluorescent detection of hydrogen peroxide and glucose with polyethyleneimine-templated Cu nanoclusters," Spectrochim. Acta A Mol. Biomol. Spectrosc. 118, 315-320 (2014).

    [129] [129] M. M. F. Choi et al., "An optical glucose biosensor with eggshell membrane as an enzyme immobilisation platform," Analyst 126, 1558-1563 (2001).

    [130] [130] H. Endo et al., "A needle-type optical enzyme sensor system for determining glucose levels in fish blood," Anal. Chim. Acta 573-574, 117-124 (2006).

    [131] [131] O. S. Wolfbeis et al., "Sol-gel based glucose biosensors employing optical oxygen transducers, and a method for compensating for variable oxygen background," Biosens. Bioelectron. 15, 69-76 (2000).

    [132] [132] C. S. Zhou et al., "Development of a fast and sensitive glucose biosensor using iridium complexdoped electrospun optical fibrous membrane," Anal. Chem. 85, 1171-1176 (2013).

    [133] [133] S. M. Ji et al., "Tuning the luminescence lifetimes of ruthenium(II) polypyridine complexes and its application in luminescent oxygen sensing," J. Mater. Chem. 20, 1953-1963 (2010).

    [134] [134] W. Zhong, P. Urayama, M. A. Mycek, "Imaging fluorescence lifetime modulation of a ruthenium-based dye in living cells: The potential for oxygen sensing," J. Phys. D. Appl. Phys. 36, 1689-1695 (2003).

    [135] [135] J. Q. Brown, R. Srivastava, M. J. McShane, "Encapsulation of glucose oxidase and an oxygenquenched fluorophore in polyelectrolyte-coated calcium alginate microspheres as optical glucose sensor systems," Biosens. Bioelectron. 21, 212-216 (2005).

    [136] [136] D. A. Chang-Yen, A. Badardeen, B. K. Gale, "Spinassembled nanofilms for gaseous oxygen sensing," Sens. Actuat. B. Chem. 120, 426-433 (2007).

    [137] [137] L. Yao et al., "Sensitivity-enhanced CMOS phase luminometry system using xerogel-based sensors," IEEE Trans. Biomed. Circuit. Syst. 3, 304-311 (2009).

    [138] [138] D. A. Chang-Yen, B. K. Gale, "An integrated optical oxygen sensor fabricated using rapid-prototyping techniques," Lab Chip 3, 297-301 (2003).

    [139] [139] T. C. O'Riordan et al., "Study of migration of active components of phosphorescent oxygen sensors for food packaging applications," Anal. Chim. Acta 530, 135-141 (2005).

    [140] [140] L. J. Liu et al., "Multiresponsive tetradentate phosphorescent metal complexes as highly sensitive and robust luminescent oxygen sensors: Pd(II) versus Pt(II) and 1,2,3-triazolyl versus 1,2,4-triazolyl," Acs Appl. Mater. Interface 11, 12666-12674 (2019).

    [141] [141] N. de Acha et al., "Enhancement of luminescencebased optical fiber oxygen sensors by tuning the distance between fluorophore layers," Sens. Actuat. B. Chem. 248, 836-847 (2017).

    [142] [142] L. X. Zang et al., "Ratiometric dissolved oxygen sensitive indicator based on lutetium labeled hematoporphyrin monomethyl ether with balanced phosphorescence and fluorescence dual emission," Sens. Actuat. B. Chem. 231, 539-546 (2016).

    [143] [143] M. J. Cho, S. Y. Park, "Carbon-dot-based ratiometric fluorescence glucose biosensor," Sens. Actuat. B. Chem. 282, 719-729 (2019).

    [144] [144] W. Liu et al., "Fluorometric and colorimetric sensor array for discrimination of glucose using enzymatic-triggered dual-signal system consisting of Au@Ag nanoparticles and carbon nanodots," Sens. Actuat. B. Chem. 265, 310-317 (2018).

    [145] [145] F. F. Meng et al., "One-step synthesis of enzymestabilized gold nanoclusters for fluorescent ratiometric detection of hydrogen peroxide, glucose and uric acid," Microchem. J. 141, 431-437 (2018).

    [146] [146] S. Mansouri, J. S. Schultz, A miniature optical glucose sensor based on a±nity binding," Bio-Technol. 2, 885-890 (1984).

    [147] [147] B. Tang et al., "A new nanobiosensor for glucose with high sensitivity and selectivity in serum based on fluorescence resonance energy transfer (FRET) between CdTe quantum dots and Au nanoparticles," Chemistry 14, 3637-3644 (2008).

    [148] [148] E. Aznar et al., "Glucose-triggered release using enzyme-gated mesoporous silica nanoparticles," Chem. Commun. 49, 6391-6393 (2013).

    [149] [149] L. Chen et al., "Nanostructured biosensor for detecting glucose in tear by applying fluorescence resonance energy transfer quenching mechanism," Biosens. Bioelectron. 91, 393-399 (2017).

    [150] [150] L. Y. Chen et al., "Tunable photoluminescence of carbon dots used for homogeneous glucose sensing assay," Biochem. Eng. J. 159, 107580 (2020).

    [151] [151] M. H. Ge et al., "Utilizing hyaluronic acid as a versatile platform for fluorescence resonance energy transfer-based glucose sensing," Anal. Bioanal. Chem. 410, 2413-2421 (2018).

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    [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese]. Blood glucose sensors and recent advances: A review[J]. Journal of Innovative Optical Health Sciences, 2022, 15(2): 2230003

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    Paper Information

    Received: Sep. 14, 2021

    Accepted: Nov. 23, 2021

    Published Online: Feb. 28, 2022

    The Author Email: (guoing_feng@scu.edu.cn)

    DOI:10.1142/s1793545822300038

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