RNeasy Plant Mini Kit for RNA Extraction

For purification of total RNA from plants and fungi

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RNeasy Plant Mini Kit (50)

Cat no. / ID.   74904

50 RNeasy Mini Spin Columns, 50 QIAshredder Mini Spin Columns, Collection Tubes (1.5 ml and 2 ml), RNase-free Reagents and Buffers
MX$10,815.00
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For information on storage and stability, see the relevant kit handbook, instructions for use or instrument user manual under the Resources tab
The RNeasy Plant Mini Kit is intended for molecular biology applications. This product is not intended for the diagnosis, prevention, or treatment of a disease.

✓ 24/7 automatic processing of online orders

✓ Knowledgeable and professional Product & Technical Support

✓ Fast and reliable (re)-ordering

Features

  • High-quality total RNA in 30 minutes
  • No phenol/chloroform extraction
  • No CsCl gradients, no LiCl or ethanol precipitation
  • Excellent recovery of RNA
  • Ready-to-use RNA for any downstream application

Product Details

The RNeasy Plant Mini Kit includes QIAshredder spin columns for homogenizing and filtering viscous plant or fungal lysates, and RNeasy spin columns for purifying up to 100 μg of high-quality RNA using silica-membrane technology. Purification can be fully automated on the QIAcube Connect. The kit can also be used in combination with a TissueRuptor or TissueLyser system, which provide efficient disruption and homogenization of plant samples.

Performance

The RNeasy Plant Mini Kit is ideal for isolation of total RNA from a wide variety of plant and fungal samples with sample sizes of 10–100 mg tissue, or 100–1 x 107 cells (see table "Selected samples processed with the RNeasy Plant Mini Kit"). The binding capacity of the spin-columns is up to 100 µg RNA. The typical yield from 100 mg plant tissue is between 25 µg and 65 µg of RNA, although amounts of RNA can vary due to the developmental stage and growth conditions of the samples (see table "Yield from 100 mg tissue").

Selected samples processed with the RNeasy Plant Mini Kit
Plants Filamentous fungi
Anemone sp.
Arabidopsis thaliana1
Begonia sp.
Beta vulgaris (sugar beet)2
Chlamydomonas reinhardii (unicellular alga)
Chrysanthemum
Clarkia spp.3
Daucus carota (carrot)4
Diascia sp.
Dendranthema sp.
Euglena gracilis (unicellular alga)
Funaria hygrometrica (moss)
Hordeum vulgare (barley)
Lycopersicon esculentum (tomato)5
Malus sp. (apple)6
Nicotiana tabacum (tobacco)
Oryza sativa (rice)
Pelargonium sp. (geranium)
Petroselinum crispum (parsley)7
Pisum sativum (pea)
Prunus sp. (cherry)6
Ranunculus sp.
Ribes nigrum (black currant)
Riccia fluitans (liverwort)
Sinapis arvensis (mustard)
Solanum tuberosum (potato)8
Spinacia oleracea (spinach)
Surfinia sp.
Triticum aestivum (wheat)
Vitis sp. (grapevine)6
Zea mays (maize)
Acremonium crysogenum9
Fusarium avenaceum9
Yield from 100 mg tissue
Sample type Yield
Arabidopsis leaves 35 µg
Maize leaves 25 µg
Tomato leaves 65 µg
Tobacco leaves 60 µg

The purified plant RNA, eluted in 30–100 µl volume, includes viral RNA (see figure " Detection of viruses"). All contaminants, such as polysaccharides, are removed, and the eluted RNA is ready for all downstream applications (see figure " Tissue specificity of histone H4 expression").

See figures

Principle

The RNeasy Plant Mini Kit provides QIAshredder columns for homogenization and filtration of viscous plant or fungal lysates by microcentrifugation in combination with RNeasy Mini spin columns for RNA purification. RNeasy technology simplifies total RNA isolation by combining the stringency of guanidine-isothiocyanate lysis with the speed and purity of silica-membrane purification. RNeasy Kits provide the highest-quality RNA with minimum copurification of DNA. For certain RNA applications that are sensitive to very small amounts of DNA, the residual amounts of DNA remaining can be removed using convenient on-column DNase treatment during the RNeasy procedure.

Procedure

Samples are first lysed and then homogenized in the QIAshredder columns. Ethanol is added to the lysate to provide ideal binding conditions. The lysate is then loaded onto the RNeasy silica membrane. RNA binds, and all contaminants are efficiently washed away. Pure, concentrated RNA is eluted in water (see flowchart " RNeasy Plant Mini procedure").
See figures

Applications

RNA purified with RNeasy technology is high-quality and is ideal for use in all applications. Downstream applications include:

  • Northern, dot, and slot blotting
  • End-point RT-PCR
  • Quantitative, real-time RT-PCR
  • Array analysis
  • Poly A+ RNA selection

Supporting data and figures

Specifications

FeaturesSpecifications
applicationsPCR, qPCR, real-time RT-PCR, microarray
elutionvolume30–100 µl
sampleamount10–100 mg
processingManual
mainsampletypePlant samples
purificationoftotalrnamirnapolyamrnadnaorproteinRNA
formatSpin column
technologySilica technology
yield25–60 µg
timeperrunorperprep30 minutes

Resources

Safety Data Sheets (1)
Download Safety Data Sheets for QIAGEN product components.
Quick-Start Protocols (1)
Gene Expression Analysis (1)
Certificates of Analysis (1)

Publications

Coordination of microbe-host homeostasis by crosstalk with plant innate immunity.
Ma KW; Niu Y; Jia Y; Ordon J; Copeland C; Emonet A; Geldner N; Guan R; Stolze SC; Nakagami H; Garrido-Oter R; Schulze-Lefert P;
Nat Plants; 2021; 7 (6):814-825 2021 May 24 PMID:34031541
RAF-like protein kinases mediate a deeply conserved, rapid auxin response.
Kuhn A; Roosjen M; Mutte S; Dubey SM; Carrillo Carrasco VP; Boeren S; Monzer A; Koehorst J; Kohchi T; Nishihama R; Fendrych M; Sprakel J; Friml J; Weijers D;
Cell; 2023; 187 (1):130-148.e17 2023 Dec 20 PMID:38128538
The wheat stem rust resistance gene Sr43 encodes an unusual protein kinase.
Yu G; Matny O; Gourdoupis S; Rayapuram N; Aljedaani FR; Wang YL; Nürnberger T; Johnson R; Crean EE; Saur IM; Gardener C; Yue Y; Kangara N; Steuernagel B; Hayta S; Smedley M; Harwood W; Patpour M; Wu S; Poland J; Jones JDG; Reuber TL; Ronen M; Sharon A; Rouse MN; Xu S; Holušová K; Bartoš J; Molnár I; Karafiátová M; Hirt H; Blilou I; Jaremko Ł; Doležel J; Steffenson BJ; Wulff BBH;
Nat Genet; 2023; 55 (6):921-926 2023 May 22 PMID:37217714
Cell-cycle-linked growth reprogramming encodes developmental time into leaf morphogenesis.
Li XM; Jenke H; Strauss S; Bazakos C; Mosca G; Lymbouridou R; Kierzkowski D; Neumann U; Naik P; Huijser P; Laurent S; Smith RS; Runions A; Tsiantis M;
Curr Biol; 2024; 34 (3):541-556.e15 2024 Jan 19 PMID:38244542
Wheat breeding history reveals synergistic selection of pleiotropic genomic sites for plant architecture and grain yield.
Li A; Hao C; Wang Z; Geng S; Jia M; Wang F; Han X; Kong X; Yin L; Tao S; Deng Z; Liao R; Sun G; Wang K; Ye X; Jiao C; Lu H; Zhou Y; Liu D; Fu X; Zhang X; Mao L;
Mol Plant; 2022; 15 (3):504-519 2022 Jan 10 PMID:35026438