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Get tips on using DNA-spin™ Plasmid DNA Purification Kit to perform Plasmid Isolation Enterobacteriaceae

Products iNtRON Biotechnology DNA-spin™ Plasmid DNA Purification Kit

Get tips on using Ambion™ RecoverAll™ Total Nucleic Acid Isolation Kit for FFPE to perform DNA isolation / purification Tissue - kidney

Products Fisher Scientific Ambion™ RecoverAll™ Total Nucleic Acid Isolation Kit for FFPE

Get tips on using RNeasy Mini Kit to perform RNA isolation / purification Cells - Cancer cell lines Liver cancer cell lines Hepato cellular carcenoma (SMMC-7721, Huh7 & HepG2))

Products Qiagen RNeasy Mini Kit

Get tips on using Gyros IncSupplier Diversity Partner REXXIP HN BUFFER 25 ML PER VI DFS Item to perform Protein isolation Bacteria - Borrelia burgdorferi

Products Fisher Scientific Gyros IncSupplier Diversity Partner REXXIP HN BUFFER 25 ML PER VI DFS Item

Get tips on using Wizard® Plus Maxipreps DNA Purification System to perform Plasmid Isolation E. coli DH5α

Products Promega Wizard® Plus Maxipreps DNA Purification System

I am currently using a recombinant protein which shows metal-dependent DNase activity. Is it possible to pinpoint the source of the DNase activity after protein purification? More specifically, can I ensure that the DNase activity is not because of nuclease contamination from the E.coli that might have persisted and passed with the protein of interest during purification?

Discussions Is a bacterial nuclease contamination possible during protein purification?

RNA quantification for appropriate concentration and quality (260/280 ratio) is an important step before downstream analysis (including sequencing, RT-qPCR, etc.). Having insufficient RNA quantities or a high salt or phenol in the RNA product can lead to variable or irreproducible downstream results. The various methods used for RNA quantification include: 1. UV spectrophotometric (challenges include: low sensitivity, cannot distinguish between nucleic acid species), 2. Fluorescence-based (challenges include: requires standards, cannot measure amplifiability, not sequence-specific), and 3. RT-PCR (challenges include: requires standards, time-intensive, costly). In order to overcome these challenges, and also to ensure the proper quantification and quality control for RNA product, it is important to use at least two or more methods in order to discard any inconsistencies. Using standards for calibrations increases the sensitivity range for RNA detention (fluorescence- and RT-PCR-based methods). When using RT- PCR, it is important to choose correct primers, aligning to the desired site on the template and of appropriate product length, along with positive, negative and loading controls. It is also important to have at least two primer pairs in order to confirm results.

RNA RNA quantification qPCR

RNA quantification for appropriate concentration and quality (260/280 ratio) is an important step before downstream analysis (including sequencing, RT-qPCR, etc.). Having insufficient RNA quantities or a high salt or phenol in the RNA product can lead to variable or irreproducible downstream results. The various methods used for RNA quantification include: 1. UV spectrophotometric (challenges include: low sensitivity, cannot distinguish between nucleic acid species), 2. Fluorescence-based (challenges include: requires standards, cannot measure amplifiability, not sequence-specific), and 3. RT-PCR (challenges include: requires standards, time-intensive, costly). In order to overcome these challenges, and also to ensure the proper quantification and quality control for RNA product, it is important to use at least two or more methods in order to discard any inconsistencies. Using standards for calibrations increases the sensitivity range for RNA detention (fluorescence- and RT-PCR-based methods). When using RT- PCR, it is important to choose correct primers, aligning to the desired site on the template and of appropriate product length, along with positive, negative and loading controls. It is also important to have at least two primer pairs in order to confirm results.

RNA RNA quantification Coloremetric

RNA quantification for appropriate concentration and quality (260/280 ratio) is an important step before downstream analysis (including sequencing, RT-qPCR, etc.). Having insufficient RNA quantities or a high salt or phenol in the RNA product can lead to variable or irreproducible downstream results. The various methods used for RNA quantification include: 1. UV spectrophotometric (challenges include: low sensitivity, cannot distinguish between nucleic acid species), 2. Fluorescence-based (challenges include: requires standards, cannot measure amplifiability, not sequence-specific), and 3. RT-PCR (challenges include: requires standards, time-intensive, costly). In order to overcome these challenges, and also to ensure the proper quantification and quality control for RNA product, it is important to use at least two or more methods in order to discard any inconsistencies. Using standards for calibrations increases the sensitivity range for RNA detention (fluorescence- and RT-PCR-based methods). When using RT- PCR, it is important to choose correct primers, aligning to the desired site on the template and of appropriate product length, along with positive, negative and loading controls. It is also important to have at least two primer pairs in order to confirm results.

RNA RNA quantification Fuorimetric

Get tips on using Wizard® Plus Midipreps DNA Purification System Technical Bulletin to perform Plasmid Isolation Proteus mirabilis

Products Promega Wizard® Plus Midipreps DNA Purification System Technical Bulletin

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