TY - JOUR
T1 - Effects of Xe and He Contents in Ternary Gas Mixture on Luminous Efficiency in AC Plasma Display Panel With Full-HD Cell Size
AU - Park, Ki Hyung
AU - Tae, Heung Sik
AU - Hur, Min
AU - Heo, Eun Gi
PY - 2009/10
Y1 - 2009/10
N2 - The effects of high Xe (15%) and He (70%) contents in the ternary gas mixture (Xe-He-Ne) on luminous efficiency were examined experimentally in 50-in PDPs with a full-high-definition cell size. The related discharge phenomena, including the electron-heating efficiency, Xe-excitation efficiency, and electric-field distribution, were also investigated by using a 2-D fluid simulation. The experimental results showed that almost the same improvement in luminous efficiency was obtained when increasing either the Xe content by 4% from 11% to 15% or the He content by 20% from 50% to 70% in the Xe-He-Ne gas mixture. In comparison with the reference gas mixture (Xe11%-He50%-Ne), by increasing only the He content from 50% to 70%, the luminous efficiency was improved by about 15%, mainly due to a low power consumption, whereas by increasing only the Xe content from 11% to 15%, the luminous efficiency was improved by about 17%, mainly due to a high luminance. In the simulation results, the improvement of discharge efficiency for the high-Xe case was partly due to the electron-heating efficiency improved by the formation of the large cathode-sheath potential difference. Furthermore, the increase in Xe-excitation efficiency partly contributed to the improvement of discharge efficiency for the high-Xe case. On the other hand, the improvement of discharge efficiency for the high-He case was mainly due to the Xe-excitation efficiency by electrons improved by the high energy gain per unit electron.
AB - The effects of high Xe (15%) and He (70%) contents in the ternary gas mixture (Xe-He-Ne) on luminous efficiency were examined experimentally in 50-in PDPs with a full-high-definition cell size. The related discharge phenomena, including the electron-heating efficiency, Xe-excitation efficiency, and electric-field distribution, were also investigated by using a 2-D fluid simulation. The experimental results showed that almost the same improvement in luminous efficiency was obtained when increasing either the Xe content by 4% from 11% to 15% or the He content by 20% from 50% to 70% in the Xe-He-Ne gas mixture. In comparison with the reference gas mixture (Xe11%-He50%-Ne), by increasing only the He content from 50% to 70%, the luminous efficiency was improved by about 15%, mainly due to a low power consumption, whereas by increasing only the Xe content from 11% to 15%, the luminous efficiency was improved by about 17%, mainly due to a high luminance. In the simulation results, the improvement of discharge efficiency for the high-Xe case was partly due to the electron-heating efficiency improved by the formation of the large cathode-sheath potential difference. Furthermore, the increase in Xe-excitation efficiency partly contributed to the improvement of discharge efficiency for the high-Xe case. On the other hand, the improvement of discharge efficiency for the high-He case was mainly due to the Xe-excitation efficiency by electrons improved by the high energy gain per unit electron.
KW - Discharge efficiency
KW - electron-heating efficiency
KW - energy gain per unit electron
KW - high helium
KW - high xenon
KW - luminous efficiency
KW - Xe-excitation efficiency
UR - http://www.scopus.com/inward/record.url?scp=85008023987&partnerID=8YFLogxK
U2 - 10.1109/TPS.2009.2028140
DO - 10.1109/TPS.2009.2028140
M3 - Article
AN - SCOPUS:85008023987
SN - 0093-3813
VL - 37
SP - 2061
EP - 2067
JO - IEEE Transactions on Plasma Science
JF - IEEE Transactions on Plasma Science
IS - 10
ER -