AELAB PCR, Real-Time PCR and qPCR Systems price

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AELAB PCR, Real-Time PCR and qPCR Systems

AELAB supplies PCR thermal cyclers, gradient PCR systems and real-time quantitative PCR instruments for molecular biology laboratories, biotechnology research, genetic analysis, clinical research, food safety testing, agricultural science and other nucleic acid analysis applications.

The AELAB PCR product range includes standard thermal cyclers for routine DNA amplification, gradient thermal cyclers for protocol optimization and real-time PCR systems for amplification monitoring and quantitative nucleic acid analysis.

Laboratories can compare available AELAB models according to sample throughput, reaction format, gradient capability, fluorescence channels, temperature control performance, software functions and required PCR workflow.

Explore AELAB PCR and Real-Time PCR Systems

Compare standard PCR thermal cyclers, gradient PCR instruments and real-time quantitative PCR systems for different laboratory requirements.

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Available PCR System Types

System Type	Typical Function and Application
Standard PCR Thermal Cycler	Performs programmed heating and cooling cycles for conventional amplification of specific DNA sequences.
Gradient PCR Thermal Cycler	Allows different annealing temperatures to be evaluated during the same run for primer optimization and PCR method development.
Real-Time PCR System	Monitors nucleic acid amplification through fluorescence detection during each PCR cycle.
Quantitative PCR System	Supports quantitative DNA or RNA analysis using amplification curves, threshold values and compatible quantitative analysis methods.
Compact Real-Time PCR System	Designed for laboratories requiring a smaller footprint, lower sample throughput or portable molecular testing capability.

How PCR Amplification Works

1. Denaturation

The double-stranded DNA template is heated so that the two strands separate.

2. Annealing

The reaction temperature is reduced to allow primers to bind to their complementary DNA sequences.

3. Extension

DNA polymerase extends the primers and synthesizes new complementary DNA strands.

These stages are repeated over multiple programmed cycles. In real-time PCR, fluorescence signals are measured during amplification so that the increase in PCR product can be monitored and analyzed.

Typical PCR and qPCR Applications

DNA amplification for molecular biology research
Gene expression analysis and relative quantification
Detection and analysis of microbial genetic material
Genotyping and mutation-related research
Pathogen detection in research and testing laboratories
Food authenticity, GMO and food safety analysis
Plant genetics and agricultural biotechnology research
Environmental DNA and microbial monitoring studies
Veterinary and animal science research
Biopharmaceutical research and quality control
Teaching and training in molecular biology laboratories
Verification of nucleic acid extraction and purification results

Standard PCR vs. Real-Time PCR

Comparison Factor	Standard PCR	Real-Time PCR / qPCR
Detection Method	Amplified products are normally examined after completion of the PCR run.	Fluorescence signals are monitored throughout the amplification process.
Main Result	Confirms whether the target DNA sequence has been amplified.	Supports detection and quantitative or comparative analysis of the target sequence.
Common Use	Routine amplification, cloning checks, teaching and general molecular biology.	Gene expression, nucleic acid quantification and fluorescence-based molecular testing.
Optical Detection	Not normally required during thermal cycling.	Requires an integrated fluorescence excitation and detection system.
Data Analysis	Usually requires downstream product analysis.	Uses amplification curves and software-based result analysis.

How to Select the Right PCR System

Selecting a PCR instrument should be based on the laboratory workflow rather than only on instrument size or price. Users should first determine whether they require conventional amplification, gradient optimization or real-time fluorescence detection.

Selection Factor	Questions to Consider
PCR Method	Does the laboratory require standard PCR, gradient PCR, real-time PCR or quantitative PCR?
Sample Throughput	How many samples must be processed during each run and each working day?
Tube and Plate Format	Which reaction tubes, strips or plates are used in the current laboratory workflow?
Gradient Function	Is temperature-gradient capability required for primer screening or annealing-temperature optimization?
Fluorescence Channels	How many fluorescent targets or dyes must be detected during the same reaction?
Reaction Volume	What minimum and maximum reaction volumes are required by the selected assay?
Heating and Cooling	What level of cycling speed, temperature uniformity and temperature accuracy is required?
Software Functions	Are standard curves, melting curves, relative quantification or other analysis functions needed?
Independent Operation	Should the instrument operate independently, or will it be controlled through an external computer?
Laboratory Space	Is a compact benchtop instrument required for a small laboratory, mobile laboratory or limited workspace?

View the complete AELAB PCR, real-time PCR and qPCR product range and technical specifications

PCR System Recommendations by Laboratory Requirement

Laboratory Requirement	Recommended System Category
Routine DNA amplification	Standard PCR thermal cycler
Primer and annealing-temperature optimization	Gradient PCR thermal cycler
Small-throughput fluorescence-based PCR	Compact real-time PCR system
DNA or RNA quantification	Real-time quantitative PCR system
Multiplex molecular analysis	Real-time PCR system with suitable fluorescence channels
Educational molecular biology laboratory	Standard, gradient or compact real-time PCR system depending on course requirements

Information Required for Model Selection

To receive a suitable PCR system recommendation, customers should provide the following information:

Required PCR method: conventional, gradient or real-time PCR
Number of samples per run
Required tube, strip or plate format
Typical reaction volume
Required fluorescence dyes and detection channels
Need for gradient temperature control
Required analysis functions
Laboratory, field or mobile testing environment
Destination country and required power supply
Required accessories, software or consumables

Why Choose AELAB PCR Systems?

Standard PCR, gradient PCR and real-time PCR product options
Solutions for routine amplification and PCR method development
Compact and benchtop configurations for different laboratory spaces
Models for research, education, biotechnology and testing laboratories
Gradient systems for annealing-temperature and primer optimization
Real-time fluorescence detection options for quantitative analysis
Technical model-selection assistance before quotation
Support for distributors, laboratories and international customers
Export packaging and worldwide shipping assistance
Configuration and power-supply support according to destination

About AELAB

AELAB is a laboratory equipment brand and scientific instrument supplier based in Guangzhou, China. The company provides analytical instruments, life science equipment, environmental testing systems, pharmaceutical testing instruments and general laboratory solutions for customers worldwide.

AELAB supports distributors, universities, research organizations, biotechnology laboratories, testing centers and industrial customers with product selection, technical information, quotations and international supply services.

Official website: www.aelabgroup.com

Frequently Asked Questions

What types of PCR instruments does AELAB supply?

AELAB supplies standard PCR thermal cyclers, gradient thermal cyclers, compact real-time PCR systems and quantitative real-time PCR instruments.

What is the advantage of a gradient PCR system?

A gradient PCR system allows multiple annealing temperatures to be tested during one run, helping laboratories optimize primers and PCR conditions more efficiently.

What is the difference between PCR and real-time PCR?

Conventional PCR performs nucleic acid amplification through programmed thermal cycles, while real-time PCR also measures fluorescence during amplification to monitor the reaction as it progresses.

Can real-time PCR be used for DNA and RNA analysis?

Real-time PCR can be used for DNA analysis. RNA workflows generally require reverse transcription to convert RNA into complementary DNA before PCR amplification.

How many fluorescence channels are required?

The required number of channels depends on the fluorescent dyes, probes and number of targets that must be detected in the same reaction.

Is a compact real-time PCR system suitable for small laboratories?

A compact real-time PCR system can be suitable for laboratories with limited benchtop space, smaller sample batches, educational applications or mobile testing requirements.

Can AELAB recommend a PCR model based on my application?

Yes. Customers can send their required PCR method, sample throughput, reaction format, fluorescence channels, assay type and destination country. The AELAB team can then recommend suitable models and prepare a quotation.

Request PCR Model Recommendation, Price and Technical Proposal

Tell the AELAB technical sales team whether you require a standard thermal cycler, gradient PCR system or real-time PCR instrument. Include your expected sample throughput, reaction format, fluorescence requirements and intended application.

The technical proposal can include suitable model recommendations, available specifications, optional accessories, delivery time, packaging and shipping information.

View AELAB PCR and qPCR Models

Email: info@aelabgroup.com

WhatsApp / WeChat: +86 158 0001 6110

Website: www.aelabgroup.com