Qubit™ RNA High Sensitivity (HS), Broad Range (BR) und Extended Range (XR) Assay Kits.
Qubit™ RNA High Sensitivity (HS), Broad Range (BR) und Extended Range (XR) Assay Kits.
Invitrogen™

Qubit™ RNA High Sensitivity (HS), Broad Range (BR) und Extended Range (XR) Assay Kits.

Die Kits ermöglichen den schnellen und empfindlichen Nachweis von RNA mit niedriger und hoher Abundanz und können zwischen RNA und DNA, Protein und freien Nukleotiden unterscheiden.
Have Questions?
Ansicht ändernbuttonViewtableView
KatalognummerMengeAssay
Q32852100 AssaysRNA-Quantifizierung, hohe Empfindlichkeit
Q10210100 AssaysRNA-Quantifizierung, breites Spektrum
Q10211500 AssaysRNA-Quantifizierung, breites Spektrum
Q33223100 AssaysRNA-Quantifizierung, erweiterter Bereich
Q33224500 AssaysRNA-Quantifizierung, erweiterter Bereich
Q32855500 AssaysRNA-Quantifizierung, hohe Empfindlichkeit
Katalognummer Q32852
Preis (EUR)
140,65
Exklusiv online
163,00
Ersparnis 22,35 (14%)
Each
Zum Warenkorb hinzufügen
Menge:
100 Assays
Assay:
RNA-Quantifizierung, hohe Empfindlichkeit
Preis (EUR)
140,65
Exklusiv online
163,00
Ersparnis 22,35 (14%)
Each
Zum Warenkorb hinzufügen
Mit den Qubit RNA HS, BR und XR Assay-Kits erzielen Sie eine präzise und selektive Quantifizierung von RNA. Diese RNA-Quantifizierungskits ermöglichen den schnellen und selektiven Nachweis von RNA mit niedriger und hoher Abundanz und unterscheiden zwischen RNA und DNA, Protein und freien Nukleotiden. Kontaminanten wie Salze, Lösungsmittel oder Detergenzien werden gut toleriert.
Die für die Verwendung mit Qubit Fluorometern entwickelten Qubit RNA-HS-, BR- und XR-Assay-Kits sind für RNA über DNA, Protein und freie Nukleotide hochgradig selektiv. Alle Kits enthalten ein konzentriertes Assay-Reagenz, Verdünnungspuffer und vorverdünnte RNA-Standards. Einfach das Reagenz mit dem im Lieferumfang enthaltenen Puffer verdünnen, die Probe hinzufügen (ein beliebiges Volumen zwischen 1 µl und 20 µl reicht aus) und die Konzentration mit dem Qubit Fluorometer auslesen.

Qubit RNA HS Assay-Kit
Das Qubit RNA HS (High Sensitivity) Assay Kit bietet bei Verwendung mit dem Qubit Fluorometer eine genaue und selektive Methode für die Quantifizierung von RNA-Proben mit geringer Abundanz.  Je nach Probenvolumen ist das Assay-Kit für eine anfängliche RNA-Probenkonzentration von 0,2 bis 200 ng/µl konzipiert und bietet 4 bis 200 ng Nachweisbereich.

Qubit RNA BR Assay-Kit
Das Qubit RNA BR (Broad Range) Assay-Kit bietet beim Einsatz mit dem Qubit Fluorometer eine genaue und selektive Methode für die Quantifizierung von RNA-Proben.  Je nach Probenvolumen ist das Assay-Kit für genaue anfängliche RNA-Probenkonzentrationen von 0,5 bis 1.200 ng/µl konzipiert und hat 10 bis 1.200 ng Nachweisbereich.

Qubit RNA-XR-Assay-Kit

Das für den Einsatz mit Qubit 4 und Qubit Flex Fluorometern entwickelte Qubit RNA-XR (Extended Range)-Assay-Kit bietet eine genaue und selektive Methode für die Quantifizierung von RNA-Proben mit hoher Abundanz. Je nach Probenvolumen ist das Assay-Kit so konzipiert, dass es für anfängliche RNA-Probenkonzentrationen von 5 bis 20.000 ng/µl genau ist und 100 bis 20.000 ng Nachweisbereich bietet.

Hinweise
• Qubit RNA HS- und BR-Assay-Kits sind mit jedem Qubit Fluorometer verwendbar
•Qubit RNA-XR-Assay-Kits sind nur für den Einsatz mit Qubit 4 oder Qubit Flex Fluorometern vorgesehen
• Verwendung mit dünnwandigen, durchsichtigen 0,5 ml-PCR-Röhrchen (Best.- Nr. Q32856) für das Qubit 4 Fluorometer und 8 × 200 µl-Röhrchenstreifen (Bestell- -Nr. Q33252) für das Qubit Flex Fluorometer.

For Research Use Only. Not for use in diagnostic procedures.
Specifications
AssayRNA-Quantifizierung, hohe Empfindlichkeit
Anregung/Emission644/673
Zur Verwendung mit (Geräte)Qubit Fluorometer
Anzahl Reaktionen100 Reaktionen
ProduktlinieQuant-iT, Qubit
Bestimmungsbereich4 bis 200 ng
Menge100 Assays
VersandbedingungRaumtemperatur
NachweisverfahrenFluoreszenz
Unit SizeEach

Häufig gestellte Fragen (FAQ)

I'm seeing other kit-related problems besides the "Standards incorrect" message with my Qubit assay. What do you suggest I try?

Here are several suggestions:

1.View the raw fluorescence value (RFU) for the standards under “Check Standards” or “Check Calibration”. Confirm that the values for the samples fall between the values of the standards (or a little above the highest standard). If they do not, the sample is out of the accurate range of the assay. Refer to the confidence ranges for each assay in the product manuals. The readout in the assay will be to 2 significant figures instead of 3 if the assay sample is out of the high confidence range.
To bring the sample into the accurate range, dilute the sample or use more or less of it (for example, 10 µL instead of 2 µL if the sample reads low).

2.Check for temperature issues: The assay is temperature sensitive and the fluorescent signal can decrease at higher temperatures. Temperature fluctuations between samples, or between samples and standards, can cause problems. Make sure that the buffer and Qubit reagent in DMSO are at room temperature. The buffer and Qubit reagent should be stored at room temperature, not in the refrigerator. Even after 2-3 hours at room temperature, buffer previously stored at 4°C can remain below room temperature. Make sure your samples and working solution are not too warm (including those straight from a centrifuge). Samples kept in the Qubit instrument too long or read multiple times can warm up. If you want to perform multiple readings of a single tube, you should remove the tube from the instrument and let it equilibrate to room temperature for 30 seconds before taking another reading. Also, do not hold tubes in your hand for very long before reading them in the instrument, since this can warm the sample, resulting in a low reading.

3.Ensure that you have prepared the Qubit working solution correctly (1:200 dilution using the buffer provided in the kit). Ensure that you have prepared the standard tubes correctly (10 µL of each standard in 190 µL of the working solution). Ensure that the tubes are filled with at least 200 µL (both standards and samples).

4.Ensure that the reagents and standards you are using are less than 6 months old, and that the standards have been stored correctly. The Qubit reagent stock solution should be protected from light as much as possible.

5.Ensure that you have selected the correct assay on the Qubit Fluorometer for the Qubit assay you are performing.

6.Ensure that the lid is completely closed when reading standards and samples.

7.Use recommended tubes (both so the tube does not obstruct the lid, and for optical clarity). Some types of tubes can have high autofluorescence that will affect the assay.

8.Did you enter the number of microliters of stock you pipetted into the working solution into the Qubit instrument? If so, the reading after giving the Qubit Fluorometer this information is the concentration of your stock solution. If you did not, the reading you got is for the concentration in the assay tube (the tube you put into the Qubit Fluorometer) and not your stock solution.

9.If you are comparing Qubit assay results to concentration obtained by UV absorbance, and the concentration based on absorbance is significantly higher, it may be because of nucleic acid or protein contamination. The Qubit assays are much more specific for DNA, RNA, or protein than absorbance readings.

The value is decreasing over time when using the Qubit Fluorometer. What could be causing this?

Please see our suggestions below:

  • Make sure that you take your reading only after incubating for at least 2 minutes (15 minutes for protein).
  • If you leave the assay tube in the Qubit Fluorometer and take multiple readings, the readings will go down as the tube heats up inside the instrument. If you want to take multiple readings, remove the tube from the instrument, place it in a tube rack, and allow it to equilibrate to room temperature for at least 30 seconds before rereading the tube.
  • You may read the sample up to 3 hours after mixing if it is protected from light. After this time, the reading will not be accurate.
  • Keep standards and sample tubes in the dark and protected from light in between readings.

    Find additional tips, troubleshooting help, and resources within ourNucleic Acid Quantification Support Center.

  • What are the excitation/emission wavelengths for dyes in the Qubit Assays?

    The exact excitation/emission wavelength information is proprietary. Here are the approximate excitation/emission wavelengths:

    - Qubit dsDNA HS Assay: ~500 nm/ ~530 nm
    - Qubit dsDNA BR Assay: ~510 nm/ ~530 nm
    - Qubit ssDNA Assay: ~490 nm/ ~520 nm
    - Qubit RNA HS Assay: ~640 nm/ ~670 nm
    - Qubit RNA BR Assay: ~640 nm/ ~670 nm
    - Qubit microRNA Assay: ~500 nm/ ~520 nm
    - Qubit Protein Assay: ~470 nm/ ~570 nm

    Find additional tips, troubleshooting help, and resources within our Nucleic Acid Quantification Support Center.

    Can I make my own assay for the Qubit Fluorometer?

    Yes, you can, for Qubit instruments developed after the original Qubit (1.0) Fluorometer. See MyQubit assay instructions here (http://www.thermofisher.com/us/en/home/life-science/laboratory-instruments/fluorometers/qubit/qubit-assays/myqubit.html.html).

    I have a crude lysate. Will the Quant-iT and Qubit assays work?

    Generally, the cleaner the sample the better. Some salts, proteins, and detergents are tolerated in the assays; see the specific assay protocol for which ones and at what concentrations.

    Zitierungen und Referenzen (19)

    Zitierungen und Referenzen
    Abstract
    Expression Analysis on Archival Material Revisited: Isolation and Quantification of RNA Extracted From FFPE Samples.
    Authors:Deben C, Zwaenepoel K, Boeckx C, Wouters A, Pauwels P, Peeters M, Lardon F, Baay M, Deschoolmeester V,
    Journal:Diagn Mol Pathol
    PubMed ID:23370428
    'BACKGROUND:: Formalin-fixed paraffin-embedded (FFPE) tissue is the most readily available source of RNA for the gene expression studies. The main disadvantage is the poor quality of isolated RNA. Our group recently compared 5 commercially available RNA isolation kits and concluded that the RNeasy FFPE kit from Qiagen was the most ... More
    Analysis of in vivo expressed genes in Mannheimia haemolytica A1.
    Authors:Lo RY, Sathiamoorthy S, Shewen PE
    Journal:FEMS Microbiol Lett
    PubMed ID:16984402
    'The expression of Mannheimia haemolytica A1 genes during in vivo growth was examined by reverse transcriptase-polymerase chain reaction (RT-PCR) using total RNA extracted directly from M. haemolytica A1 recovered from pneumonic lungs of cattle. Primers specific for three groups of genes were used. Group 1 includes virulence-related genes: lktC, tbpB, ... More
    High transcript level of fatty acid-binding protein 11 but not of very low-density lipoprotein receptor is correlated to ovarian follicle atresia in a teleost fish (Solea senegalensis).
    Authors:Agulleiro MJ, André M, Morais S, Cerdà J, Babin PJ,
    Journal:Biol Reprod
    PubMed ID:17554079
    'Transcripts encoding a fatty acid-binding protein (FABP), Fabp11, and two isoforms of very low-density lipoprotein receptor (Vldlr; vitellogenin receptor) were characterized from the ovary of Senegalese sole (Solea senegalensis). Phylogenetic analyses of vertebrate FABPs demonstrated that Senegalese sole Fabp11, as zebrafish (Danio rerio) homologous sequences, is part of a newly ... More
    Comparative expression analysis of rpf-like genes of Mycobacterium tuberculosis H37Rv under different physiological stress and growth conditions.
    Authors:Gupta RK, Srivastava BS, Srivastava R,
    Journal:Microbiology
    PubMed ID:20522500
    'Mycobacterium tuberculosis H37Rv possesses five resuscitation-promoting factors, RpfA-E, which are required for the resuscitation of dormancy in mycobacteria induced by prolonged incubation of the culture in stationary phase. This study explores the transcriptional profile of all the rpf-like genes of M. tuberculosis H37Rv in the exponential phase, stationary phase, non-culturable ... More
    Bioreactor environment-sensitive sentinel genes as novel metrics for cell culture scale-down comparability.
    Authors:Kondragunta B, Joshi BH, Han J, Brorson KA, Puri RK, Moreira AR, Rao G,
    Journal:Biotechnol Prog
    PubMed ID:22848039
    Scale-down of bioreactors is currently done based on matching one or more measurable parameters such as k(L) a and P/V, which could result in insufficient process comparability. Currently, there is a lack of genomic translational studies in cell culture scale-down, which could help delineate measurable cellular attributes for improved scale-down. ... More