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APLIKASI ASAP CAIR ARANG SEKAM TERHADAP POPULASI KUTU KEBUL (Bemisia tabaci) PADA EDAMAME (Glycine max L. MERRILL) 罂粟(Bemisia tabaci)对甘蓝(Glycine max L. MERRILL)的影响
Pub Date : 2024-06-04 DOI: 10.31328/ja.v18i1.5699
Achmad Hadi Musthofa, Christa Dyah Utami, Ilham Mukhlisin, Trisnani Alif
ABSTRAKBemisia tabaci adalah salah satu hama pada kedelai yang dapat menyebabkan penurunan produksi hingga 80%. Umumnya petani masih menggunakan insektisida sintetis yang menyebabkan hama resisten dan membunuh arthropoda menguntungkan. Perlu adanya alternatif insektisida yang aman bagi lingkungan maupun manusia. Penelitian ini bertujuan mengkaji pengaruh aplikasi asap cair arang sekam (ACAS) padi pada populasi kutu kebul (Bemisia tabaci). Tiga jenis perlakuan yang digunakan adalah: G3: ACAS grade 3 konsentrasi 3%; G2: ACAS grade 2 konsentrasi 4%; dan IMI: insektisida sintetis berbahan aktif imidakloprid. Penelitian ini menggunakan metode perbandingan perlakuan. Setiap perlakuan diaplikasikan pada plot berukuran 20 m2. Data hasil pengamatan dianalisa menggunakan uji non parametrik Kruskal Wallis. Hasil pengamatan populasi B. tabaci pada semua jenis perlakuan mengalami peningkatan seiring bertambahnya umur tanaman dan mengalami penurunan mulai 52 HST selanjutnya semakin menurun hingga 59 HST. Populasi B. tabaci secara keseluruhan akibat aplikasi imidakloprid sebanyak 15.70 individu berbeda nyata jika dibanding dengan aplikasi ACAS grade 3 maupun grade 2. Asap cair arang sekam grade 3 konsentrasi 3% mengakibatkan populasi B. tabaci 28.94. Perlakuan ini lebih berpotensi menekan populasi B. tabaci dibanding ACAS grade 2 konsentrasi 4% yang menekan populasi B. tabaci menjadi 29.13. Kedua perlakuan ACAS tersebut masih kurang optimal jika dibandingkan insektisida sintetis berbahan aktif imidakloprid dalam menekan populasi B. tabaci pada tanaman kedelai edamame.ABSTRACTBemisia tabaci is a pest in soybeans that can cause a reduction in production of up to 80%. Generally, farmers still use synthetic insecticides which cause pest resistance and kill beneficial arthropods. There is a need for alternative insecticides that are safe for the environment and humans. This research aims to examine the effect of application of rice husk charcoal liquid smoke (ACAS) on whitefly (Bemisia tabaci) populations. The three types of treatment used are: G3: ACAS grade 3 concentration 3%; G2: ACAS grade 2 concentration 4%; and IMI: synthetic insecticide containing the active ingredient imidacloprid. This research uses a treatment comparison method. Each treatment was applied to a plot measuring 20 m2. Observation data were analyzed using the Kruskal Wallis non-parametric test. The results of observations of the B. tabaci population in all types of treatment increased as the age of the plant increased, and decreased starting at 52 HST and decreasing further until 59 HST. The overall population of B. tabaci due to imidacloprid application was 15.70 individuals, which was significantly different when compared to the application of ACAS grade 3 or grade 2. Liquid smoke from grade 3 husk charcoal with a concentration of 3% resulted in a B. tabaci population of 28.94. This treatment has more potential to suppress the B. tabaci population compared to ACAS grade 2 concentration 4% wh
蚁后(ABSTRAKBemisia tabaci)是目前世界上最大的蚁后,其繁殖率高达 80%。目前,该物种已成为一种不可替代的珍稀物种,不仅能提高饵料的抗性,还能提高节肢动物的繁殖能力。目前,该技术已被广泛应用于人类生活的各个领域。目前,该项目正在为鳞翅目昆虫(Bemisia tabaci)提供一种快速防治方案(ACAS)。目前的最高等级为G3: ACAS 3 级中心 3%;G2:ACAS 2 级占 4%;IMI:不含吡虫啉的不育幼虫。本研究采用的是虫害监测方法。在面积为 20 平方米的地块上,每隔一段时间就会出现一次虫害。人口普查数据采用 Kruskal Wallis 非参数法。每块土地上的 B. tabaci 种群都能在一定程度上提高土地的利用率,并能获得 52 HST 或 59 HST 的收益。有 15.70 个个体在使用吡虫啉的 ACAS 3 级和 2 级农药时被感染。截至目前,3 级农药的使用率为 3%,而 B. tabaci 的使用率为 28.94%。与 ACAS 2 级 4% 的样本相比,该样本的 B. tabaci 感染率为 29.13。ABSTRACTBemisia tabaci 是大豆中的一种害虫,可造成高达 80% 的减产。一般来说,农民仍在使用合成杀虫剂,这种杀虫剂会导致害虫产生抗药性并杀死有益节肢动物。因此需要对环境和人类安全的替代杀虫剂。本研究旨在探讨施用稻壳炭烟液(ACAS)对粉虱(Bemisia tabaci)种群的影响。使用的三种处理方法是G3:ACAS 3 级浓度 3%;G2:ACAS 2 级浓度 4%;G3:ACAS 3 级浓度 3%:G2:浓度为 4% 的 ACAS 2 级;IMI:含有活性成分吡虫啉的合成杀虫剂。本研究采用处理比较法。每种处理都用于面积为 20 平方米的地块。观察数据采用 Kruskal Wallis 非参数检验进行分析。观察结果表明,随着植株年龄的增加,各类处理中的鼠李种群数量都在增加,并从 52 HST 开始减少,直到 59 HST 才进一步减少。施用吡虫啉后,烟粉虱的总体数量为 15.70 头,与施用 ACAS 3 级或 2 级相比有显著差异。浓度为 3% 的 3 级谷壳炭烟熏液导致的烟粉虱数量为 28.94 头。与浓度为 4% 的 2 级 ACAS 相比,这种处理方法更有可能抑制塔巴蝉的数量,后者可将塔巴蝉的数量抑制到 29.13。与含有活性成分吡虫啉的合成杀虫剂相比,这两种 ACAS 处理在抑制江米大豆植株中的蚕蛾种群数量方面仍然不够理想。关键词:生物杀虫剂;GCMS;粉虱;液态烟雾;烟粉虱
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引用次数: 0
PRODUKTIVITAS DAN FENOTIPE LABU MADU VIOLINA (Cucurbita moschata) KETURUNAN KETIGA (F3) DENGAN TIGA SISTEM TANAM 葫芦(Cucurbita moschata)秧苗的产量(F3) DENGAN TIGA SYSTEM TANAM
Pub Date : 2024-06-02 DOI: 10.31328/ja.v18i1.5759
E. Wahyuni
  ABSTRAKTanaman labu madu merupakan persilangan antara labu kuning dan labu buttercup. Labu madu mempunyai kandungan vitamin dan mineral serta nilai ekonomi tinggi. Perakitan varietas unggul dapat dilakukan dengan menanam benih keturunan ketiga (F3). Penelitian bertujuan mengetahui produktivitas dan segregasi keturunan ketiga (F3). Penelitian dilakukan bulan Februari-Mei 2022 di DnR Hidroponik Farm Perumahan Pondok Bedadung Indah Jember. Metode penelitian menggunakan rancangan acak lengkap (RAL) dengan menanam benih labu madu F2 di tiga sistem tanam yaitu polybag/pupuk organik, konvensional/NPK (15:15:15), hidroponik NFT/AB mix. Metode deskriptif kualitatif digunakan untuk mengetahui fenotipe yang terbentuk pada keturunan ketiga di tiga sistem tanam. Hasil penelitian menunjukkan bahwa produktivitas labu madu Violina dengan sistem hidroponik adalah sebanyak 186.36 kg/100 m2, sedangkan produksi pada sistem tanam yang organik dan konvensional berturut-turut sebanyak 104.16 dan 86.59 kg/100 m2. Fenotipe labu madu F1 semuanya seragam. Labu madu F2 yang bersegregasi menghasilkan 6 fenotipe, sementara pada keturunan ketiga (F3) terbentuk 15 fenotipe. ABSTRACTThe honey gourd plant is a cross between a pumpkin and a buttercup pumpkin. Honey pumpkin contains vitamins and minerals as well as high economic value. The development of superior varieties can be done by planting seeds of the third generation (F3). The research aims to determine the productivity and segregation of the third generation (F3). The research was conducted in February-May 2022 at the DnR Hydroponic Farm, Pondok Bedadung Indah Jember Housing. The research method used a completely randomized design (CRD) by planting F2 honey pumpkin seeds in three planting systems, namely polybag/organic fertilizer, conventional/NPK (15:15:15), hydroponic NFT/AB mix. Qualitative descriptive methods were used to determine the phenotype formed in the third generation in three planting systems. The research results showed that the productivity of Violina honey pumpkin using the hydroponic system was 186.36 kg/100 m2, while production using the organic and conventional planting systems was 104.16 and 86.59 kg/100 m2 respectively. The phenotypes of F1 honey pumpkins are all uniform. Segregating F2 honey gourds produced 6 phenotypes, while in the third generation (F3) 15 phenotypes were formed.
蜜糖南瓜是黄南瓜和毛茛南瓜的杂交品种。蜜糖南瓜富含维生素和矿物质,经济价值高。优良品种的培育可以通过种植第三代后代(F3)的种子来实现。该研究旨在确定第三代后代(F3)的产量和分离情况。研究于 2022 年 2 月至 5 月在 Pondok Bedadung Indah Jember 的 DnR 水培农场进行。研究方法采用完全随机设计(CRD),在三种种植系统中种植 F2 蜂蜜南瓜种子:多袋/有机肥、常规/NPK(15:15:15)、水培 NFT/AB 混合。采用定性描述法确定了三种种植系统中第三代后代形成的表型。结果表明,水培系统中 Violina 蜂蜜南瓜的产量为 186.36 千克/100 平方米,而有机种植系统和常规种植系统的产量分别为 104.16 千克/100 平方米和 86.59 千克/100 平方米。F1 蜜瓜的表型均一致。分离的 F2 蜜瓜产生了 6 个表型,而第三个后代(F3)形成了 15 个表型。摘要蜜糖南瓜是南瓜和毛茛南瓜的杂交种。蜜糖南瓜含有维生素和矿物质,具有很高的经济价值。通过种植第三代(F3)种子可以培育出优良品种。本研究旨在确定第三代(F3)的产量和分离情况。研究于 2022 年 2 月至 5 月在 Pondok Bedadung Indah Jember Housing 的 DnR 水培农场进行。研究方法采用完全随机设计(CRD),将 F2 蜜糖南瓜种子种植在三种种植系统中,即多袋/有机肥、常规/NPK(15:15:15)、水培 NFT/AB 混合。研究采用定性描述方法确定了三种种植系统中第三代蜜南瓜种子形成的表型。研究结果表明,水培系统中 Violina 蜂蜜南瓜的产量为 186.36 千克/100 平方米,而有机和常规种植系统的产量分别为 104.16 千克/100 平方米和 86.59 千克/100 平方米。F1 蜜糖南瓜的表型均一致。分离 F2 蜜瓜产生了 6 个表型,而在第三代(F3)中则形成了 15 个表型。
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引用次数: 0
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Agrika
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