Magnetic beads for
molecular workflows
Magnetic beads for
molecular workflows
Magnetic beads for
molecular workflows
Magnetic beads for
molecular workflows
Magnetic beads for molecular workflows
Powering next-gen diagnostics, kits, and automated workflows
Powering next-gen diagnostics, kits, and automated workflows
Powering next-gen diagnostics, kits, and automated workflows
Powering next-gen diagnostics, kits, and automated workflows
Developed for diagnostic demands
Developed for diagnostic demands
Developed for diagnostic demands
Developed for diagnostic demands
Developed for diagnostic demands
Cambrian’s magnetic bead technologies are engineered to power a wide range of molecular workflows. Manufactured in our Bangalore facility, each batch is QC-validated and can be customized to meet your specific application needs.
Cambrian’s magnetic bead technologies are engineered to power a wide range of molecular workflows. Manufactured in our Bangalore facility, each batch is QC-validated and can be customized to meet your specific application needs.
Cambrian’s magnetic bead technologies are engineered to power a wide range of molecular workflows. Manufactured in our Bangalore facility, each batch is QC-validated and can be customized to meet your specific application needs.
Cambrian’s magnetic bead technologies are engineered to power a wide range of molecular workflows. Manufactured in our Bangalore facility, each batch is QC-validated and can be customized to meet your specific application needs.
Cambrian’s magnetic bead technologies are engineered to power a wide range of molecular workflows. Manufactured in our Bangalore facility, each batch is QC-validated and can be customized to meet your specific application needs.
Precision surface
chemistry
Precision surface
chemistry
Precision surface
chemistry
Precision surface chemistry
Batch
consistency
Batch
consistency
Batch
consistency
Batch consistency
Application-specific
customization
Application-specific
customization
Application-specific
customization
Application-specific customization
Which works for your workflow?
Which works for your workflow?
Which works for your workflow?
Which works for your workflow?
CamSelect NGS
CamSelect NGS
CamSelect NGS
CamSelect NGS
CamSelect NGS
CamSelect NGS enables library preparation for NGS workflows. It uses magnetic beads with polymers and salts, and selectively binds DNA above a set size threshold. The reversible binding process delivers precise isolation and preparation of target fragments.
CamSelect NGS enables library preparation for NGS workflows. It uses magnetic beads with polymers and salts, and selectively binds DNA above a set size threshold. The reversible binding process delivers precise isolation and preparation of target fragments.
CamSelect NGS enables library preparation for NGS workflows. It uses magnetic beads with polymers and salts, and selectively binds DNA above a set size threshold. The reversible binding process delivers precise isolation and preparation of target fragments.
CamSelect NGS enables library preparation for NGS workflows. It uses magnetic beads with polymers and salts, and selectively binds DNA above a set size threshold. The reversible binding process delivers precise isolation and preparation of target fragments.
CamSelect NGS enables library preparation for NGS workflows. It uses magnetic beads with polymers and salts, and selectively binds DNA above a set size threshold. The reversible binding process delivers precise isolation and preparation of target fragments.
DNA size selection
DNA size selection
DNA size selection
DNA size selection
DNA size selection
PCR cleanup
PCR cleanup
PCR cleanup
PCR cleanup
PCR cleanup
Technical specifications for CamSelect NGS
Technical specifications for CamSelect NGS
Technical specifications for CamSelect NGS
Technical specifications for CamSelect NGS
Technical specifications for CamSelect NGS
Performance preview
Performance preview
Performance preview
Performance preview
Performance preview
CamSelect NGS efficiently cleans up DNA and RNA fragments post-PCR, removing excess dNTPs and reaction components. With recovery rates up to 90%, it offers fast, column-free, magnetic stand–based purification.
CamSelect NGS efficiently cleans up DNA and RNA fragments post-PCR, removing excess dNTPs and reaction components. With recovery rates up to 90%, it offers fast, column-free, magnetic stand–based purification.
CamSelect NGS efficiently cleans up DNA and RNA fragments post-PCR, removing excess dNTPs and reaction components. With recovery rates up to 90%, it offers fast, column-free, magnetic stand–based purification.
CamSelect NGS efficiently cleans up DNA and RNA fragments post-PCR, removing excess dNTPs and reaction components. With recovery rates up to 90%, it offers fast, column-free, magnetic stand–based purification.
CamSelect NGS efficiently cleans up DNA and RNA fragments post-PCR, removing excess dNTPs and reaction components. With recovery rates up to 90%, it offers fast, column-free, magnetic stand–based purification.
Fig. 1.1 presents normalized recovery of three PCR fragments, comparing Cambrian with Ampure XP. Cambrian demonstrates higher recovery across all fragment sizes, indicating improved compatibility.
Fig. 1.1 presents normalized recovery of three PCR fragments, comparing Cambrian with Ampure XP. Cambrian demonstrates higher recovery across all fragment sizes, indicating improved compatibility.
Fig. 1.1 presents normalized recovery of three PCR fragments, comparing Cambrian with Ampure XP. Cambrian demonstrates higher recovery across all fragment sizes, indicating improved compatibility.
Fig. 1.1 presents normalized recovery of three PCR fragments, comparing Cambrian with Ampure XP. Cambrian demonstrates higher recovery across all fragment sizes, indicating improved compatibility.
Fig. 1.2 shows CamSelect NGS recovery across six replicates for a 300 bp PCR product, demonstrating high reproducibility.
Fig. 1.2 shows CamSelect NGS recovery across six replicates for a 300 bp PCR product, demonstrating high reproducibility.
Fig. 1.2 shows CamSelect NGS recovery across six replicates for a 300 bp PCR product, demonstrating high reproducibility.
Fig. 1.2 shows CamSelect NGS recovery across six replicates for a 300 bp PCR product, demonstrating high reproducibility.
Fig. 1.3 shows CamSelect NGS recovery across six replicates for a 600 bp PCR product, confirming consistent reproducibility.
Fig. 1.3 shows CamSelect NGS recovery across six replicates for a 600 bp PCR product, confirming consistent reproducibility.
Fig. 1.3 shows CamSelect NGS recovery across six replicates for a 600 bp PCR product, confirming consistent reproducibility.
Fig. 1.3 shows CamSelect NGS recovery across six replicates for a 600 bp PCR product, confirming consistent reproducibility.
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamSelect NGS
Ampure XP
Recovery (%)
0
20
40
60
80
100
120
Product 2
600 bp
Product 3
650 bp
Product 1
300 bpFig. 1.1: PCR Fragment Recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 1Repeat 4
(300 bp)Repeat 5
Repeat 6
Fig. 1.2: Reproducibility of 300 bp recovery
CamSelect NGS
Recovery (%)
0
20
40
60
80
100
120
Repeat 1
Repeat 2
Repeat 3
Product 2Repeat 4
(600 bp)Repeat 5
Repeat 6
Fig. 1.3: Reproducibility of 600 bp recovery
CamOxyl beads
CamOxyl beads
CamOxyl beads
CamOxyl beads
CamOxyl beads
CamOxyl beads are ferric oxide cores coated with carboxyl-functionalized silane groups, engineered for efficient and selective nucleic acid binding. The beads leverage hydrophobic interactions facilitated by chaotropic agents, salts, crowding agents, and alcohols in the binding buffer. CamOxyl beads are versatile and widely used across molecular biology workflows, including:
CamOxyl beads are ferric oxide cores coated with carboxyl-functionalized silane groups, engineered for efficient and selective nucleic acid binding. The beads leverage hydrophobic interactions facilitated by chaotropic agents, salts, crowding agents, and alcohols in the binding buffer. CamOxyl beads are versatile and widely used across molecular biology workflows, including:
CamOxyl beads are ferric oxide cores coated with carboxyl-functionalized silane groups, engineered for efficient and selective nucleic acid binding. The beads leverage hydrophobic interactions facilitated by chaotropic agents, salts, crowding agents, and alcohols in the binding buffer. CamOxyl beads are versatile and widely used across molecular biology workflows, including:
CamOxyl beads are ferric oxide cores coated with carboxyl-functionalized silane groups, engineered for efficient and selective nucleic acid binding. The beads leverage hydrophobic interactions facilitated by chaotropic agents, salts, crowding agents, and alcohols in the binding buffer. CamOxyl beads are versatile and widely used across molecular biology workflows, including:
CamOxyl beads are ferric oxide cores coated with carboxyl-functionalized silane groups, engineered for efficient and selective nucleic acid binding. The beads leverage hydrophobic interactions facilitated by chaotropic agents, salts, crowding agents, and alcohols in the binding buffer. CamOxyl beads are versatile and widely used across molecular biology workflows, including:
Nucleic Acid
Extraction
Nucleic Acid
Extraction
Nucleic Acid
Extraction
Nucleic Acid
Extraction
Nucleic Acid
Extraction
Protein
conjugation
Protein
conjugation
DNA and RNA
co-purification
DNA and RNA
co-purification
Microbiome
studies
Microbiome
studies
Microbiome
studies
Microbiome
studies
Microbiome
studies
Technical specifications for CamOxyl beads
Technical specifications for CamOxyl beads
Technical specifications for CamOxyl beads
Technical specifications for CamOxyl beads
Technical specifications for CamOxyl beads
Consistency you can count on
Consistency you can count on
Consistency you can count on
Consistency you can count on
Consistency you can count on
Compared to a popular spin-column kit, our solution delivers significantly higher RNA recovery with cleaner extracts.
Compared to a popular spin-column kit, our solution delivers significantly higher RNA recovery with cleaner extracts.
Compared to a popular spin-column kit, our solution delivers significantly higher RNA recovery with cleaner extracts.
Compared to a popular spin-column kit, our solution delivers significantly higher RNA recovery with cleaner extracts.
Compared to a popular spin-column kit, our solution delivers significantly higher RNA recovery with cleaner extracts.
RNA yield and purity were measured using Cambrian’s Blood RNA Isolation Kit on the Manta platform with Camoxyl beads. The graphs below show Qubit-based yield quantification and spectrophotometric purity ratios (A260/280, A260/230), ensuring accurate and reproducible assessment.
RNA yield and purity were measured using Cambrian’s Blood RNA Isolation Kit on the Manta platform with Camoxyl beads. The graphs below show Qubit-based yield quantification and spectrophotometric purity ratios (A260/280, A260/230), ensuring accurate and reproducible assessment.
RNA yield and purity were measured using Cambrian’s Blood RNA Isolation Kit on the Manta platform with Camoxyl beads. The graphs below show Qubit-based yield quantification and spectrophotometric purity ratios (A260/280, A260/230), ensuring accurate and reproducible assessment.
RNA yield and purity were measured using Cambrian’s Blood RNA Isolation Kit on the Manta platform with Camoxyl beads. The graphs below show Qubit-based yield quantification and spectrophotometric purity ratios (A260/280, A260/230), ensuring accurate and reproducible assessment.
RNA yield and purity were measured using Cambrian’s Blood RNA Isolation Kit on the Manta platform with Camoxyl beads. The graphs below show Qubit-based yield quantification and spectrophotometric purity ratios (A260/280, A260/230), ensuring accurate and reproducible assessment.
Sample number
Total RNA yield (µg)
0
2
4
6
8
10
8
7
6
5
4
3
2
1
Sample number
Total RNA yield (µg)
0
2
4
6
8
10
8
7
6
5
4
3
2
1
Sample number
Total RNA yield (µg)
0
2
4
6
8
10
8
7
6
5
4
3
2
1
Sample number
Total RNA yield (µg)
0
2
4
6
8
10
8
7
6
5
4
3
2
1
Sample number
Total RNA yield (µg)
0
2
4
6
8
10
8
7
6
5
4
3
2
1
Total RNA Yield (µg) comparison between Cambrian Bioworks and Supplier A
Total RNA Yield (µg) comparison between Cambrian Bioworks and Supplier A
Total RNA Yield (µg) comparison between Cambrian Bioworks and Supplier A
Total RNA Yield (µg) comparison between Cambrian Bioworks and Supplier A
Number of samples
Purity
0.0
0.5
1.0
1.5
2.0
2.5
8
6
4
2
Number of samples
Purity
0.0
0.5
1.0
1.5
2.0
2.5
8
6
4
2
Number of samples
Purity
0.0
0.5
1.0
1.5
2.0
2.5
8
6
4
2
Number of samples
Purity
0.0
0.5
1.0
1.5
2.0
2.5
8
6
4
2
Number of samples
Purity
0.0
0.5
1.0
1.5
2.0
2.5
8
6
4
2
RNA purity (A260/280) comparison between Cambrian Bioworks and Supplier A
RNA purity (A260/280) comparison between Cambrian Bioworks and Supplier A
RNA purity (A260/280) comparison between Cambrian Bioworks and Supplier A
RNA purity (A260/280) comparison between Cambrian Bioworks and Supplier A
CamBeads-Si
CamBeads-Si
CamBeads-Si
CamBeads-Si
CamBeads-Si
CamBead-Si beads are ferric oxide cores coated with a uniform layer of functionalized silane. This surface enables strong and selective binding of nucleic acids through hydrophobic interactions and salt bridge formation, using alcohol and minimal salt in the binding buffer. It is ideal for a range of molecular workflows, including:
CamBead-Si beads are ferric oxide cores coated with a uniform layer of functionalized silane. This surface enables strong and selective binding of nucleic acids through hydrophobic interactions and salt bridge formation, using alcohol and minimal salt in the binding buffer. It is ideal for a range of molecular workflows, including:
CamBead-Si beads are ferric oxide cores coated with a uniform layer of functionalized silane. This surface enables strong and selective binding of nucleic acids through hydrophobic interactions and salt bridge formation, using alcohol and minimal salt in the binding buffer. It is ideal for a range of molecular workflows, including:
CamBead-Si beads are ferric oxide cores coated with a uniform layer of functionalized silane. This surface enables strong and selective binding of nucleic acids through hydrophobic interactions and salt bridge formation, using alcohol and minimal salt in the binding buffer. It is ideal for a range of molecular workflows, including:
CamBead-Si beads are ferric oxide cores coated with a uniform layer of functionalized silane. This surface enables strong and selective binding of nucleic acids through hydrophobic interactions and salt bridge formation, using alcohol and minimal salt in the binding buffer. It is ideal for a range of molecular workflows, including:
Genomic DNA
Extraction
Genomic DNA
Extraction
Genomic DNA
Extraction
Genomic DNA
Extraction
Genomic DNA
Extraction
cfDNA Recovery
cfDNA
Recovery
cfDNA Recovery
Viral RNA
extraction
Viral RNA
extraction
Viral RNA
extraction
Environmental DNA
extraction
Environmental DNA
extraction
Environmental DNA
extraction
Technical specifications for CamBeads-Si
Technical specifications for CamBeads-Si
Technical specifications for CamBeads-Si
Technical specifications for CamBeads-Si
Technical specifications for CamBeads-Si
FAQs
What are Cambrian’s magnetic beads used for?
Are your beads compatible with other automated systems?
What’s the shelf life and storage condition for the beads?
Do you offer free samples for evaluation?
Do you offer custom bead formulations?
FAQs
What are Cambrian’s magnetic beads used for?
Are your beads compatible with other automated systems?
What’s the shelf life and storage condition for the beads?
Do you offer free samples for evaluation?
Do you offer custom bead formulations?
FAQs
What are Cambrian’s magnetic beads used for?
Are your beads compatible with other automated systems?
What’s the shelf life and storage condition for the beads?
Do you offer free samples for evaluation?
Do you offer custom bead formulations?
FAQs
What are Cambrian’s magnetic beads used for?
Are your beads compatible with other automated systems?
What’s the shelf life and storage condition for the beads?
Do you offer free samples for evaluation?
Do you offer custom bead formulations?
FAQs
What are Cambrian’s magnetic beads used for?
Are your beads compatible with other automated systems?
What’s the shelf life and storage condition for the beads?
Do you offer free samples for evaluation?
Do you offer custom bead formulations?
Customization & support
Customization & support
Customization & support
Customization & support
Working on a specific workflow? We partner with labs to trial, test, and refine bead formulations that fit your needs. From early evaluations to reliable supply, we’re here to support your build-out.
Working on a specific workflow? We partner with labs to trial, test, and refine bead formulations that fit your needs. From early evaluations to reliable supply, we’re here to support your build-out.
Streamline your nucleic acid extraction with a magnetic stand that’s designed for consistency, speed, and ease of use.
Working on a specific workflow? We partner with labs to trial, test, and refine bead formulations that fit your needs. From early evaluations to reliable supply, we’re here to support your build-out.
Whether you’re just getting started or scaling up, our team can help you build the ideal setup.