农业工程学报
農業工程學報
농업공정학보
2013年
2期
141-147
,共7页
禹盛苗%姜仕仁%朱练峰%张均华%金千瑜
禹盛苗%薑仕仁%硃練峰%張均華%金韆瑜
우성묘%강사인%주련봉%장균화%금천유
声学%叶绿素%声波影响%水稻%声频控制技术%产量%产量构成因素%稻米品质
聲學%葉綠素%聲波影響%水稻%聲頻控製技術%產量%產量構成因素%稻米品質
성학%협록소%성파영향%수도%성빈공제기술%산량%산량구성인소%도미품질
acoustics%chlorophyll%acoustic wave effects%rice (O. sativa L.)%acoustic frequency technology%yield%yield components%quality of rice
为了探明声频控制技术对水稻生长发育、产量及品质的影响,该文对水稻进行了特定频率和响度(主频率500 Hz,响度80 dB)的声波处理.试验结果表明,声频处理的杂交籼稻天丰优5号增产5.11%,杂交粳稻甬优13号增产5.38%,产量差异均达到显著水平.与 CK 相比,声频处理天丰优5号和甬优13号的有效穗数分别增加8.40和5.80穗/m2,每穗实粒数增加2.46和4.46粒;声频处理后7和14 d,天丰优5号茎蘖数分别多0.3和0.5株/从,甬优13号茎蘖数分别多1.1和1.0株/从;声频处理的天丰优5号孕穗期(9月8日)和灌浆期(10月6日)平均叶片叶绿素含量分别增加11.36%和10.41%,甬优13号孕穗期(9月22日)和灌浆期(10月 20日)分别增加5.20%和4.91%;声频处理的稻米透明度均提高1个等级,天丰优5号和甬优13号垩白度分别降低21.31%和5.88%,胶稠度分别增加2.0和8.0 mm,整精米率分别提高6.99%和2.22%,稻米质量指数分别提高6.58%和10.94%.该文为声频控制技术在水稻上大面积应用提供科学依据.
為瞭探明聲頻控製技術對水稻生長髮育、產量及品質的影響,該文對水稻進行瞭特定頻率和響度(主頻率500 Hz,響度80 dB)的聲波處理.試驗結果錶明,聲頻處理的雜交秈稻天豐優5號增產5.11%,雜交粳稻甬優13號增產5.38%,產量差異均達到顯著水平.與 CK 相比,聲頻處理天豐優5號和甬優13號的有效穗數分彆增加8.40和5.80穗/m2,每穗實粒數增加2.46和4.46粒;聲頻處理後7和14 d,天豐優5號莖蘗數分彆多0.3和0.5株/從,甬優13號莖蘗數分彆多1.1和1.0株/從;聲頻處理的天豐優5號孕穗期(9月8日)和灌漿期(10月6日)平均葉片葉綠素含量分彆增加11.36%和10.41%,甬優13號孕穗期(9月22日)和灌漿期(10月 20日)分彆增加5.20%和4.91%;聲頻處理的稻米透明度均提高1箇等級,天豐優5號和甬優13號堊白度分彆降低21.31%和5.88%,膠稠度分彆增加2.0和8.0 mm,整精米率分彆提高6.99%和2.22%,稻米質量指數分彆提高6.58%和10.94%.該文為聲頻控製技術在水稻上大麵積應用提供科學依據.
위료탐명성빈공제기술대수도생장발육、산량급품질적영향,해문대수도진행료특정빈솔화향도(주빈솔500 Hz,향도80 dB)적성파처리.시험결과표명,성빈처리적잡교선도천봉우5호증산5.11%,잡교갱도용우13호증산5.38%,산량차이균체도현저수평.여 CK 상비,성빈처리천봉우5호화용우13호적유효수수분별증가8.40화5.80수/m2,매수실립수증가2.46화4.46립;성빈처리후7화14 d,천봉우5호경얼수분별다0.3화0.5주/종,용우13호경얼수분별다1.1화1.0주/종;성빈처리적천봉우5호잉수기(9월8일)화관장기(10월6일)평균협편협록소함량분별증가11.36%화10.41%,용우13호잉수기(9월22일)화관장기(10월 20일)분별증가5.20%화4.91%;성빈처리적도미투명도균제고1개등급,천봉우5호화용우13호성백도분별강저21.31%화5.88%,효주도분별증가2.0화8.0 mm,정정미솔분별제고6.99%화2.22%,도미질량지수분별제고6.58%화10.94%.해문위성빈공제기술재수도상대면적응용제공과학의거.
To know the effects of acoustic frequency technology on rice growth, yield formation, and quality, the field experiment was carried out in the China National Rice Research Institute. The Tianfengyou 5 which belongs to the indica type hybrid rice and Yongyou 13 which belongs to the japonica type hybrid rice were taken as test cultivars. Split plot design was used with cultivars in the main plots and acoustic frequency treatment (AFT) and control (CK) in the sub-plots. The plots, each 100 m2 were repeated 4 times. The acoustic frequency generator developed by Zhejiang University of Science and Technology was used in AFT to regulate the acoustic wave. This acoustic frequency generator was a kind of autoplay and autocontrol system, it could play the classical music and mixed sound of birdsong and cricket song. The main frequency of AFT was about 50 Hz, and ranged from 300 to 6000 Hz, and the audio loudness was about 80 dB. The playing time was designed by the programmable timer. From rice transplanting stage to 5 days before harvest stage, the acoustic frequency generator broadcasted everyday and lasted 3 hours (08:30-11:30). @@@@The results showed that the rice yield of AFT for Tianfengyou 5 and Yongyou 13 was 5.11% and 5.38% higher than that of CK, respectively. And the yield differences between AFT and CK for these two cultivars were significant. Compared with CK, the AFT increased the rice tillers of the early growth period. After 7 days (Sep. 8) and 14 days (Oct. 6), the average tillers per hill of Tianfengyou 5 for AFT were 0.3 and 0.5 higher than that of CK, respectively, and the average tillers per hill of Yongyou 13 for AFT were 1.1 and 1.0 higher than that of CK, respectively. Compared with CK, the effective panicle number of AFT for Tianfengyou 5 and Yongyou 13 were increased 8.40 panicles/m2 (3.88%) and 5.80 panicles/m2 (3.33%), respectively. Compared with CK, the average filled grains per panicle of AFT for Tianfengyou 5 and Yongyou 13 were increased 2.46 grains (1.45%) and 4.46 grains (1.71%), respectively. The increasing effective panicles number and filled grains became dominant factors of high yield. Compared with CK, the SPAD of AFT for Tianfengyou 5 in booting stage (Sep. 8) and grain filling stage (Oct. 6) were 11.36% and 10.41% higher than that of CK, respectively; and the SPAD of AFT for Yongyou 13 in booting stage (Sep. 22) and grain filling stage (Oct. 20) were 5.20% and 4.91% higher than that of CK, respectively. The AFT significantly improved the rice qualities. Compared with CK, the rice transparency of AFT for both Tianfengyou 5 and Yongyou 13 were improved 1 grade, the chalkiness of AFT for Tianfengyou 5 and Yongyou 13 was decreased by 21.31% and 5.88%, respectively, the gel consistency of AFT for Tianfengyou 5 and Yongyou 13 was increased by 2.0 and 8.0 mm, respectively, the head rice rate of AFT for Tianfengyou 5 and Yongyou 13 was increased by 6.99% and 2.22%, respectively, the rice quality index for Tianfengyou 5 and Yongyou 13 was increased by 6.58% and 10.94%, respectively. These indictors all improved the rice qualities.