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Table 7. Percent increase in SCC incidence and risk at 80 years of age due to certain added UV doses

% increase in annual UV dose during working years (age 20-65 yr) 37% lower increase in annual UV dose during school years (age 5-20 yr) % increase in risk of a person of 80 yrs of having had an SCC with % increase given in columns 1 and 2 % increase in overall incidence of SCC with everybody subjected to % increase given in columns 1 and 2 (EU std population) % increase in overall incidence of SCC with a wide spread* in annual solar UV dose and with an added annual dose given as % of median in columns 1 and 2
Note: the SCC incidence in Denmark in 2007 was 19.1 10-5/yr in males and 12 10-5/yr in females (Birch-Johansen et al. 2010), the corresponding risk of SCC at the age of 80 years is estimated to equal 0.020 in males and 0.013 in females (using equations 1-5).
* 95% in the range 3.3-fold under and over the median, according to a lognormal distribution similar to that in DK.
1 0.63 1.6 1.6 0.9
2 1.26 3.2 3.2 1.8
5 3.15 8.0 8.0 4.5
10 6.3 16.4 16.4 9.2
20 12.6 34.1 34.2 19.0

(from indoor lighting) to the annual UV dose in school and working years (added UV dose given as % of the annual solar UV dose)

 

Source: SCENIHR, Health effects of artificial light, 19 March 2012,
 3.7 Exposure and health risk scenarios, pp. 71-78.

Related publication:
Artificial Light homeHealth Effects of Artificial Light
Other Figures & Tables on this publication:

Figure 1. Electrical lighting sources technologies

Figure 2. Wavelength regions in optical radiation

Figure 3. Chromophores and their absorption bands (adapted from Jagger 1967)

Figure 4a. Interaction of UV radiation with the human eye at all ages (adapted from Sliney 2002).

Figure 4b. Specificity of optical radiation interaction with the eye of children below 9 years of age (adapted from Sliney 2002).

Figure 4c. Optical radiation interaction with the young human eye (10 years old up to young adulthood) (adapted from Sliney 2002)

Figure 4d. Optical radiation interaction with the eye of an aging human (adapted from Sliney 2002)

Figure 5. Light penetration in the skin

Table 1. Lamp parameters supplied by the European Lamp Companies Federation

Table 2. Overview of the classes of photodamage to the retina

Table 3. Interaction of light with eye tissues and chromophores

Table 4. "Light related" skin diseases

Table 5. Wavelength dependency in photosensitive diseases

Table 6. Examples of exposure situations from artificial light for the general population

Table 7. Percent increase in SCC incidence and risk at 80 years of age due to certain added UV doses

Table 8. Estimates of SCC risk

BOX I: Metrics of optical radiation and (bio-)effectiveness

Figure 6. shows the typical adverse effects of light on eye tissues as a function of wavelength.

Figure 7. Production of reactive oxygen species (ROS) by rod photoreceptors exposed to blue light in vitro (adapted from Yang et al. 2003)

Figure 8. Photosynthesis of vitamin D3 and further metabolism (adapted from Dutch Cancer Society 2010)