Knoop M, Stefani O, Bueno B, Matusiak B, Hobday R, Wirz-Justice A, Martiny K, Kantermann T, Aarts MP, Zemmouri N, Appelt S, Norton B. Daylight: What makes the difference? Lighting Research and Technology 2020; 52: 423–442.
2.
BoycePR. Lighting research for interiors: the beginning of the end or the end of the beginning. Lighting Research and Technology2004; 36: 283–293.
3.
HolickMFMacLaughlinJAClarkMBHolickSAPottsJTAndersonRRBlankIHParrishJAEliasP. Photosynthesis of previtamin D3 in human skin and the physiologic consequences. Science1980; 210: 203–205.
4.
Ne'emanECraddockJHopkinsonRG. Sunlight requirements in buildings – I. Social survey. Building and Environment1976; 11: 217–238.
5.
HobdayR. Myopia and daylight in schools: a neglected aspect of public health?Perspectives in Public Health2016; 136: 50–55.
6.
FrenchANAshbyRSMorganIGRoseKA. Time outdoors and the prevention of myopia. Experimental Eye Research2013; 114: 58–68.
7.
ChakrabortyROstrinLANicklaDLIuvonePMPardueMTStoneRA. Circadian rhythms, refractive development, and myopia. Ophthalmic and Physiological Optics2018; 38: 217–245.
8.
CuiDTrierKRibel-MadsenSM. Effect of day length on eye growth, myopia progression, and change of corneal power in myopic children. Ophthalmology2013; 120: 1074–1079.
ReimchenTE. Human color vision deficiencies and atmospheric twilight. Social Biology1987; 34: 1–11.
11.
LaengBBrennenTEldenÅPaulsenHGBanerjeeALiptonR. Latitude-of-birth and season-of-birth effects on human color vision in the Arctic. Vision Research2007; 47: 1595–1607.
12.
Heerwagen JH, Zagreus L. The Human Factors of Sustainable Building Design: Post Occupancy Evaluation of the Philip Merrill Environmental Center. Report, University of California, 2005. Retrieved 25 September 2019, from https://escholarship.org/uc/item/67j1418w.
13.
ChauvelPCollinsJBDogniauxRLongmoreJ. Glare from windows: current views of the problem. Lighting Research and Technology1982; 14: 31–46.
14.
Chinazzo G, Pastore L, Wienold J, Andersen M. A field study investigation on the influence of light level on subjective thermal perception in different seasons: Proceedings of 10th Windsor Conference: Rethinking Comfort, Windsor, UK, April 15: 2018.
15.
KahnPHJrSeversonRLRuckertJH. The human relation with nature and technological nature. Current Directions in Psychological Science2009; 18: 37–42.
16.
KahnPHJrFriedmanBGillBHagmanJSeversonRLFreierNGFeldmanENCarrèreSStolyarA. A plasma display window? – The shifting baseline problem in a technologically mediated natural world. Journal of Environmental Psychology2008; 28: 192–199.
17.
KaynezhadPTachtsidisIJefferyG. Optical monitoring of retinal respiration in real time: 670 nm light increases the redox state of mitochondria. Experimental Eye Research2016; 152: 88–93.
18.
SivapathasuntharamCSivaprasadSHoggCJefferyG. Improving mitochondrial function significantly reduces the rate of age related photoreceptor loss. Experimental Eye Research2019; 185: 107691–107691.
19.
KokkinopoulosIColmanAHoggCHeckenlivelyJJefferyG. Age-related retinal inflammation is reduced by 670 nm light via increased mitochondrial membrane potential. Neurobiology of Aging2013; 34: 602–609.
20.
GkotsiDBegumRSaltTLascaratosGHoggCChauKYSchapiraAHJefferyG. Recharging mitochondrial batteries in old eyes. Near infra-red increases ATP. Experimental Eye Research2014; 122: 50–53.
21.
GenevaII. Photobiomodulation for the treatment of retinal diseases: a review. International Journal of Ophthalmology2016; 9: 145–152.
22.
IvandicBTIvandicT. Low-level laser therapy improves vision in patients with age-related macular degeneration. Photomedicine and Laser Surgery2008; 26: 241–245.
23.
MerryGFMunkMRDotsonRSWalkerMGDevenyiRG. Photobiomodulation reduces drusen volume and improves visual acuity and contrast sensitivity in dry age related macular degeneration. Acta Ophthalmologica2017; 95: e270–e277.
24.
EellsJTWong-RileyMTVerHoeveJHenryMBuchmanEVKaneMPGouldLJDasRJettMHodgsonBDMargolisD. Mitochondrial signal transduction in accelerated wound and retinal healing by near-infrared light therapy. Mitochondrion2004; 4: 559–567.
25.
IvandicBTIvandicT. Low-level laser therapy improves visual acuity in adolescent and adult patients with amblyopia. Photomedicine and Laser Surgery2012; 30: 167–171.
26.
BarrettDWGonzalez-LimaF. Transcranial infrared laser stimulation produces beneficial cognitive and emotional effects in humans. Neuroscience2013; 230: 13–23.
27.
SchifferFJohnstonALRavichandranCPolcariATeicherMHWebbRHHamblinMR. Psychological benefits 2 and 4 weeks after a single treatment with near infrared light to the forehead: a pilot study of 10 patients with major depression and anxiety. Behavioral and Brain Functions2009; 5: 46–46.
28.
FerraresiCHamblinMRParizottoNA. Low-level laser (light) therapy (LLLT) on muscle tissue: Performance, fatigue and repair benefited by the power of light. Photonics and Lasers in Medicine2012; 1: 267–286.
29.
BjordalJMBensadounRJTunèrJFrigoLGjerdeKLopes-MartinsRA. A systematic review with meta-analysis of the effect of low-level laser therapy (LLLT) in cancer therapy-induced oral mucositis. Supportive Care in Cancer2011; 19: 1069–1077.
30.
AvciPNyameTTGuptaGKSadasivamMHamblinMR. Low level laser therapy for fat layer reduction: a comprehensive review. Lasers in Surgery and Medicine2013; 45: 349–357.
31.
Lopes-MartinsRAPennaSCJoensenJVereid IversenVMagnus BjordalJ. Low level laser therapy (LLLT) in inflammatory and rheumatic diseases: A review of therapeutic mechanisms. Current Rheumatology Reviews2007; 3: 147–154.
32.
CarrollJDMilwardMRCooperPRHadisMPalinWM. Developments in low level light therapy (LLLT) for dentistry. Dental Materials2014; 30: 465–475.
33.
ObradovićRRKesićLGPeševskaS. Influence of low-level laser therapy on biomaterial osseointegration: a mini-review. Lasers in Medical Science2009; 24: 447–451.
34.
StrubakosCDMalikMWiderJMLeeIReynoldsCAMitsiasPPrzyklenkKHüttemannMSandersonTH. Non-invasive treatment with near-infrared light: a novel mechanisms-based strategy that evokes sustained reduction in brain injury after stroke. Journal of Cerebral Blood Flow and Metabolism2019; 21: 271678X19845149–271678X19845149.
35.
OdinokovDHamblinMR. Aging of lymphoid organs: Can photobiomodulation reverse age-associated thymic involution via stimulation of extrapineal melatonin synthesis and bone marrow stem cells?Journal of Biophotonics2018; 11: e201700282–e201700282.
36.
DesmetKDPazDACorryJJEellsJTWong-RileyMTHenryMMBuchmannEVConnellyMPDoviJVLiangHLHenshelDS. Clinical and experimental applications of NIR-LED photobiomodulation. Photomedicine and Laser Therapy2006; 24: 121–128.
37.
ChungHDaiTSharmaSKHuangYYCarrollJDHamblinMR. The nuts and bolts of low-level laser (light) therapy. Annals of Biomedical Engineering2012; 40: 516–533.
38.
PiazenaHKelleherDK. Effects of infrared A irradiation on skin: discrepancies in published data highlight the need for an exact consideration of physical and photobiological laws and appropriate experimental settings. Photochemistry and Photobiology2010; 86: 687–705.
39.
ShuiSWangXChiangJYZhengL. Far-infrared therapy for cardiovascular, autoimmune, and other chronic health problems: a systematic review. Experimental Biology and Medicine2015; 240: 1257–1265.
40.
VatanseverFHamblinMR. Far infrared radiation (FIR): Its biological effects and medical applications. Photonics and Lasers in Medicine2012; 1: 255–266.
41.
EnwemekaCS. Attenuation and penetration of visible 632.8 nm and invisible infra-red 904nm light in soft tissues. Laser Therapy2000; 13: 95–101.
42.
LimaAASpínolaLGBaccanGCorreiaKOlivaMVasconcelosJFSoaresMBReisSRMedradoAP. Evaluation of corticosterone and IL-1β, IL-6, IL-10 and TNF-α expression after 670-nm laser photobiomodulation in rats. Lasers in Medical Science2014; 29: 709–715.
43.
RojasJCGonzalez-LimaF. Low-level light therapy of the eye and brain. Eye and Brain2011; 3: 49–67.
44.
RobertCBonnetMMarquesSNumaMDoucetO. Low to moderate doses of infrared A irradiation impair extracellular matrix homeostasis of the skin and contribute to skin photodamage. Skin Pharmacology and Physiology2015; 28: 196–204.
45.
DiffeyBCadarsB. An appraisal of the need for infrared radiation protection in sunscreens. Photochemical and Photobiological Sciences2016; 15: 361–364.
46.
AlbarracinREellsJValterK. Photobiomodulation protects the retina from light-induced photoreceptor degeneration. Investigative Ophthalmology and Visual Science2011; 52: 3582–3592.
47.
Qu C, Cao W, Fan Y, Lin Y. Near-infrared light protect the photoreceptor from light-induced damage in rats. In: R Anderson, J Hollyfield, M LaVail (eds) Retinal Degenerative Diseases. New York: Springer, 2010.
48.
Eells JT, DeSmet KD, Kirk DK, Wong-Riley M, Whelan HT, Ver Hoeve J, Nork TM, Stone J, Valter K. Photobiomodulation for the treatment of retinal injury and retinal degenerative diseases. In: Proceedings of light-activated tissue regeneration and therapy conference (eds R Waynant and DB Tata), 2008. Boston, MA: Springer, pp.39–51.
49.
AlbarracinRValterK. 670 nm red light preconditioning supports Müller cell function: evidence from the white light induced damage model in the rat retina. Photochemistry and Photobiology2012; 88: 1418–1427.
50.
RuckerFJ. The role of luminance and chromatic cues in emmetropisation. Ophthalmic and Physiological Optics2013; 33: 196–214.
51.
TroiloDSmithELNicklaDLAshbyRTkatchenkoAVOstrinLAGawneTJPardueMTSummersJAKeeCSSchroedlF. IMI – report on experimental models of emmetropization and myopia. Investigative Ophthalmology and Visual Science2019; 60: M31–M88.
52.
GawneTJSiegwartJTJrWardAHNortonTT. The wavelength composition and temporal modulation of ambient lighting strongly affect refractive development in young tree shrews. Experimental Eye Research2017; 155: 75–84.
53.
SandersonTHWiderJMLeeIReynoldsCALiuJLeporeBTousignantRBukowskiMJJohnstonHFiteARaghunayakulaS. Inhibitory modulation of cytochrome c oxidase activity with specific near-infrared light wavelengths attenuates brain ischemia/reperfusion injury. Scientific Reports2018; 8: 3481–3481.