LIFE SCIENCE & LABORATORY INNOVATION

Discover the Science. Explore the Innovation.

Your gateway to life science, biotechnology, laboratory technology and scientific discovery. Explore the ideas, methods and innovations shaping how we understand biology and investigate the world around us.

From molecular biology and diagnostic technologies to laboratory automation and practical scientific guides, Lab Times brings together educational insights, research developments and laboratory knowledge.

Explore Articles & Guides Explore Science Topics

DISCOVER WHAT INTERESTS YOU

Life Science Biotechnology Laboratory Technology Diagnostics Scientific Guides AI & Automation

LT / EXPLORATION 001 CONNECTED SCIENCE

SCIENCE & KNOWLEDGE Discovering biological systems

TECHNOLOGY & INNOVATION Advancing laboratory capabilities

OUR EDITORIAL FOCUS

01 Life Science & Research 02 Laboratory Technology 03 Biotechnology & Diagnostics 04 Scientific Learning

02 / SCIENCE & INNOVATION

Discover What's Shaping the Future of Life Science.

From intelligent laboratory systems and biotechnology breakthroughs to advances in molecular analysis, explore the technologies, ideas and research developments influencing modern laboratories and scientific discovery.

THE INNOVATION EDITION / 2026

Laboratory Technology Biotechnology Life Science

FEATURED INNOVATION / 001 CONCEPTUAL SPATIAL CELL MAP

BIOTECHNOLOGY / SINGLE-CELL TECHNOLOGY

A New Way to Preserve Spatial Information in Single-Cell Analysis

Researchers introduced scSTAMP-seq, a light-encoded molecular barcoding approach that records positional information before single-cell molecular profiling. The method combines patterned illumination with standard single-cell platforms and was demonstrated in human embryoid models.

Nature Biotechnology 25 September 2026 Original Research

Read Original Scientific Publication

LABORATORY AUTOMATION

From Automated Instruments to Self-Driving Laboratories

A 2026 perspective introduces the ADePT framework for evaluating autonomous laboratory robots across adaptability, dexterity, perception and task complexity.

Communications Chemistry 20 Feb 2026

Explore the Publication

BIOTECHNOLOGY / GENOME EDITING

AI-Assisted Enzyme Engineering Advances Prime Editing

Researchers applied AI-guided redesign to laboratory-evolved reverse transcriptases, improving prime editing performance in the experimental systems studied.

Nature Biotechnology 21 May 2026

Read Original Research

LEARN / UNDERSTAND / APPLY

Beyond the Headlines: Understand the Science.

Scientific news introduces discoveries. Practical knowledge helps explain how those discoveries are made. Lab Times will connect research developments with educational explanations, laboratory methods and accessible technical guides.

PCR, qPCR & RT-qPCR Understand amplification, measurement and applications.

Laboratory Instrumentation Explore analytical technologies, performance and selection.

ELISA & Protein Analysis Learn about immunoassays, detection and validation.

Cell Culture & Microscopy Explore in vitro models and cellular imaging.

Continue exploring scientific explanations, laboratory technologies, biotechnology developments and educational resources through Lab Times.

Explore the Lab Times Blog

03 / EXPLORE THE LAB TIMES UNIVERSE

Discover Every Dimension of Life Science.

Science extends from the molecular mechanisms of living systems to the technologies powering modern laboratories. Explore the subjects, applications and practical knowledge connecting research, industry and scientific innovation.

FEATURED FIELD / LABORATORY TECHNOLOGY

TECHNOLOGY / INSTRUMENTATION / INNOVATION

Inside the Modern Laboratory.

Today's laboratories combine analytical instrumentation, automated workflows and digital systems to investigate complex biological samples. From automated liquid handling to mass spectrometry and high-throughput screening, laboratory technologies support more efficient data generation and experimental workflows.

Explore how instruments work, where they are used and which performance characteristics matter when selecting a method or technology.

Laboratory Automation Analytical Instruments Liquid Handling Mass Spectrometry

FIG. 03 / LABORATORY SYSTEMS

FIELD / 01 BIOLOGICAL SCIENCES

Life Science & Biology

Explore molecular and cell biology, genetics, microbiology, biochemistry and the fundamental processes that govern living systems. Connect biological concepts with experimental investigation and practical applications.

Molecular Biology Cell Biology Genomics

FIELD / 02 APPLIED BIOSCIENCE

Biotechnology & Biopharma

Discover how biological systems support recombinant protein production, cell-based technologies, bioprocess engineering and the development of biotechnology products. Explore both fundamental concepts and industrial applications.

Bioprocessing Protein Engineering Biopharma

FIELD / 03 ANALYTICAL & DIAGNOSTIC SCIENCE

Diagnostics & Laboratory Medicine

Understand molecular diagnostics, immunoassays, clinical chemistry and biomarker measurement. Explore test principles, analytical performance, quality control and the interpretation of laboratory results.

Molecular Diagnostics Biomarkers Clinical Testing

FIELD / 04 DIGITAL SCIENCE

AI, Automation & Digital Labs

Explore artificial intelligence, laboratory robotics, automated data acquisition, computational biology and laboratory information management systems. Learn how digital technologies support experimental workflows while introducing new validation, security and data-quality needs.

Artificial Intelligence Laboratory Robotics Digital Workflows

FIELD / 05 EDUCATION & PRACTICAL KNOWLEDGE

Scientific Guides & Learning

Build practical scientific understanding through original educational explanations, method comparisons, troubleshooting principles and laboratory learning resources. Topics will range from foundational biology to advanced analytical techniques.

Practical Guides Method Comparisons Scientific Explanations

LAB TIMES / LEARNING & DISCOVERY

Learn the Principles. Understand the Applications.

Alongside news and innovation, Lab Times will develop original educational articles that explain scientific concepts, compare laboratory methods and help readers understand the strengths and limitations of common technologies.

GUIDE / 01 PCR vs qPCR vs RT-qPCR Principles, differences and research applications

GUIDE / 02 Choosing Laboratory Instruments Specifications, performance and workflow compatibility

GUIDE / 03 ELISA & Assay Validation Detection methods, controls and result interpretation

GUIDE / 04 Cell Culture Fundamentals Cell models, culture conditions and quality considerations

Discover scientific insights, biotechnology developments, laboratory technologies and educational content through the Lab Times blog.

Browse Articles & Guides

04 / LABORATORY TECHNOLOGY

Technology Behind the Modern Laboratory.

Laboratory instruments transform biological and chemical samples into measurable information. Discover the principles, applications and practical considerations behind analytical systems, imaging technologies, automation and digital laboratory workflows.

THE INSTRUMENTATION ATLAS / 04 ANALYZE · AUTOMATE · MEASURE

TECHNOLOGY SPOTLIGHT / 001

Mass Spectrometry: From Molecular Ions to Analytical Insight.

Mass spectrometry measures the mass-to-charge ratios of gas-phase ions. Combined with suitable ionization, mass analysis and detection, it supports identification and characterization of molecular species.

In life science laboratories, mass spectrometry is used for proteomics, metabolomics, lipidomics and the analysis of complex biological samples. Coupling with chromatography can help separate components before mass analysis.

LC-MS/MS Proteomics Metabolomics Analytical Chemistry

ANALYTICAL WORKFLOW FIG. 04.1

CONCEPTUAL DIAGRAM NOT INSTRUMENT-SPECIFIC

Sample Ion Analysis Signal

EXPLORE LABORATORY TECHNOLOGIES

TECH / 01 ROBOTICS

Laboratory Automation

Automated liquid handling, robotic workstations and integrated laboratory systems can support repetitive workflows, improve consistency and increase throughput when properly configured and validated.

Robotics Workflow Integration High Throughput

TECH / 02 IMAGING

Microscopy & Imaging

Light, fluorescence and electron microscopy provide different approaches to visualizing biological structures. Instrument selection depends on the sample, resolution needs, contrast mechanism and imaging environment.

Fluorescence Imaging Resolution

TECH / 03 SAMPLE PREPARATION

Liquid Handling & Pipetting

Accurate dispensing and sample transfer are essential to analytical workflows. Explore manual pipettes, automated dispensers, calibration, liquid properties and strategies for minimizing transfer variability.

Pipetting Dispensing Calibration

TECH / 04 SEPARATION

Centrifugation & Separation

Centrifugation separates components according to their sedimentation behavior under centrifugal force. Explore rotor configurations, relative centrifugal force, sample preparation and density-based separations.

Centrifugation Sample Processing Density Gradients

TECH / 05 OPTICAL ANALYSIS

Spectroscopy & Detection

Spectroscopic methods examine interactions between matter and electromagnetic radiation. UV-visible absorbance, fluorescence and infrared measurements support molecular characterization and quantitative analysis.

UV-Vis Fluorescence Spectral Analysis

TECH / 06 DIGITAL LABORATORY

Laboratory Informatics

Laboratory information management systems and electronic laboratory notebooks support sample tracking, data organization and documentation. Integration and validation are essential for reliable digital workflows.

LIMS Data Management Digital Workflows

PRACTICAL KNOWLEDGE / EQUIPMENT SELECTION

Understanding Instrument Performance Matters.

Laboratory equipment should be evaluated against intended applications, sample requirements, analytical performance and operating conditions. Specifications alone do not establish whether a particular instrument is suitable for a specific workflow.

01 / APPLICATION Fit for Purpose Match the instrument to the scientific objective and sample type.

02 / PERFORMANCE Analytical Characteristics Consider sensitivity, precision, accuracy and relevant measurement ranges.

03 / WORKFLOW Laboratory Integration Evaluate throughput, maintenance, compatibility and staff requirements.

04 / QUALITY Validation & Control Establish calibration, monitoring and appropriate quality assurance procedures.

Explore laboratory technology, analytical methods, instrument principles and practical scientific learning resources through the Lab Times blog.

Explore Articles & Guides

05 / BIOTECHNOLOGY & BIOPHARMA

Engineering Biology. Advancing Biotechnology.

Biotechnology uses biological systems, organisms and molecular technologies to develop useful products and processes. Explore biopharmaceutical manufacturing, protein engineering, cellular technologies and the methods connecting laboratory discoveries with real-world applications.

Bioprocessing Biopharmaceuticals Synthetic Biology Cell & Gene Therapy Protein Engineering

BIOTECHNOLOGY SPOTLIGHT / 001

From Living Cells to Biopharmaceutical Production.

Biopharmaceutical manufacturing often relies on cultured cells or microbial production systems to generate biological products, including recombinant proteins and therapeutic antibodies.

Production workflows may include cell-line development, upstream cultivation, harvest, purification, product characterization and process monitoring. The appropriate methods depend on the biological product and production platform.

Bioreactors Cell Cultivation Purification Biomanufacturing

BIOPROCESS ENGINEERING FIG. 05.1

01 Upstream Processing

02 Bioproduction

03 Downstream Processing

EXPLORE BIOTECHNOLOGY FIELDS

FIELD / 01 BIOENGINEERING

Bioprocess Engineering

Explore fermentation, cell cultivation, bioreactor systems and the design of reproducible production workflows. Understand the role of process parameters, monitoring and scale-up.

Bioreactors Fermentation Scale-Up

FIELD / 02 MOLECULAR DESIGN

Protein Engineering

Investigate how protein sequences and structures can be modified to study function or improve properties such as activity, stability or specificity. Applications include enzymes, antibodies and research reagents.

Recombinant Proteins Antibodies Enzyme Design

FIELD / 03 GENOME ENGINEERING

Synthetic Biology & Genome Editing

Synthetic biology applies engineering principles to biological systems. Genome editing methods, including CRISPR-based tools, enable targeted genetic modifications for research and selected applications.

CRISPR Genetic Circuits Bioengineering

FIELD / 04 ADVANCED THERAPIES

Cell & Gene Therapy

Cell-based and gene-based therapeutic approaches are investigated for treating certain diseases. Explore delivery platforms, cellular modification, manufacturing challenges and the importance of clinical evidence.

Cell Therapies Gene Delivery Translational Research

FIELD / 05 BIOLOGICAL MEDICINES

Biologics & Antibody Technologies

Biologics include a diverse range of products produced using living systems. Learn about therapeutic antibodies, recombinant proteins, molecular targeting, manufacturing and characterization methods.

Monoclonal Antibodies Biologics Characterization

FIELD / 06 PROCESS QUALITY

Bioprocess Quality & Analytics

Biopharmaceutical development requires methods to assess product identity, purity, potency and process consistency. Discover analytical testing, quality attributes and process-control principles.

Quality Control Bioanalytics Process Monitoring

BIOTECH KNOWLEDGE / PRACTICAL FOUNDATIONS

Understanding the Biopharmaceutical Workflow.

A biological product moves through multiple development and manufacturing stages. Each stage introduces specific analytical, operational and quality considerations. The sequence and requirements vary depending on the product, expression system and manufacturing process.

Biological System Selection Choosing suitable cells, organisms or expression systems.

Upstream Development Establishing cultivation and production conditions.

Downstream Processing Recovering and purifying the desired biological product.

Analytical Characterization Evaluating defined quality attributes and suitability.

Explore biotechnology concepts, biopharmaceutical technologies, production methods and practical learning resources through the Lab Times blog.

Discover Articles & Guides

06 / DIAGNOSTICS & LABORATORY MEDICINE

Understanding Diagnostics. Connecting Data to Decisions.

Diagnostic laboratories use analytical methods to investigate biological samples and generate information that can support patient care. Discover testing technologies, biomarker analysis, clinical laboratory disciplines and the scientific principles behind reliable results.

THE DIAGNOSTICS ATLAS / 06 DETECTION · MEASUREMENT · INTERPRETATION

DIAGNOSTIC SCIENCE SPOTLIGHT / 001

From a Biological Sample to an Interpretable Laboratory Result.

Laboratory testing begins with the selection and collection of an appropriate specimen. Sample handling, analytical methods and quality assurance all influence the reliability of the information generated.

After analysis, results must be interpreted with attention to the test's intended use, performance characteristics, reference intervals or decision limits when applicable, and relevant clinical context.

Sample Quality Analytical Testing Quality Control Result Interpretation

DIAGNOSTIC TESTING PROCESS FIG. 06.1

CONCEPTUAL WORKFLOW NOT A CLINICAL PROTOCOL

01 Specimen Integrity

02 Method Performance

03 Result Evaluation

EXPLORE DIAGNOSTIC & CLINICAL LABORATORY SCIENCE

FIELD / 01 NUCLEIC ACID TESTING

Molecular Diagnostics

Molecular diagnostic methods analyze nucleic acid targets. PCR, RT-PCR, qPCR and sequencing can support pathogen detection, genetic testing and biomarker analysis when appropriately validated for their intended use.

PCR & RT-PCR Genetic Testing Molecular Biomarkers

FIELD / 02 IMMUNOASSAYS

Immunodiagnostics

Immunodiagnostic assays use antigen–antibody interactions to detect or measure targets. Explore ELISA, chemiluminescent immunoassays, lateral-flow tests and the factors affecting analytical specificity and sensitivity.

ELISA Immunoassays Antigen & Antibody Tests

FIELD / 03 BIOCHEMICAL TESTING

Clinical Chemistry

Clinical chemistry examines biochemical constituents in patient specimens. Common measurements include metabolites, enzymes, electrolytes and proteins. Assay calibration and quality assurance are critical.

Biochemical Assays Metabolites Clinical Analyzers

FIELD / 04 MICROORGANISMS

Clinical Microbiology

Clinical microbiology investigates microorganisms associated with infection. Methods include culture, microscopy, biochemical identification, molecular assays and antimicrobial susceptibility testing where appropriate.

Culture Methods Microbial Identification Susceptibility Testing

FIELD / 05 DECENTRALIZED TESTING

Point-of-Care Diagnostics

Point-of-care testing brings selected diagnostic measurements closer to the patient. Devices may use lateral-flow, electrochemical, optical or cartridge-based methods. Performance and quality systems remain essential outside central laboratories.

Rapid Testing Portable Devices Near-Patient Testing

FIELD / 06 MEASUREMENT SCIENCE

Biomarkers & Test Validation

Biomarkers are measurable indicators of biological or disease-related processes. Explore analytical validation, clinical validation, diagnostic accuracy and the distinction between detecting a biomarker and establishing clinical utility.

Biomarkers Assay Validation Diagnostic Accuracy

PRACTICAL LEARNING / DIAGNOSTIC QUALITY

What Makes a Diagnostic Test Reliable?

Test performance cannot be summarized by a single number. Reliability depends on the specimen, analytical method, intended use, validated performance and appropriate interpretation.

01 / ANALYTICAL Precision & Bias Assess repeatability, intermediate precision and systematic measurement differences where relevant.

02 / DETECTION Analytical Sensitivity Understand detection limits and the ability to identify low target concentrations.

03 / DIAGNOSTIC Clinical Sensitivity & Specificity Evaluate how accurately a test classifies people for its defined intended use.

04 / INTERPRETATION Predictive Value & Context Consider disease prevalence, pretest probability and clinical context when interpreting results.

Explore diagnostic technologies, laboratory medicine, molecular testing methods and educational explanations through the Lab Times blog.

Explore Articles & Guides

07 / AI & DIGITAL LABORATORIES

Intelligent Technology. The Future of Laboratories.

Artificial intelligence, robotics and digital systems are changing how laboratories design experiments, operate instruments and interpret complex data. Explore emerging applications, technical principles and the challenges that accompany increasingly automated scientific workflows.

THE DIGITAL LABORATORY / 07 CONNECT · AUTOMATE · INTERPRET

TECHNOLOGY SPOTLIGHT / 001

Toward the Self-Driving Laboratory.

Autonomous laboratory systems integrate experimental instruments, automation software and computational decision-making. Depending on the system, algorithms can propose experimental conditions, initiate supported workflows and use measured results to guide subsequent experiments.

These approaches are being studied in areas such as materials science, chemistry and biotechnology. Practical performance depends on instrument integration, the optimization method, measurement quality and appropriate human oversight.

Closed-Loop Experimentation Robotic Workflows Experimental Optimization Human Oversight

AUTONOMOUS LABORATORY / CONCEPT FIG. 07.1

ILLUSTRATIVE SYSTEM ARCHITECTURE NOT A LIVE INTERFACE

Experiment Design Automated Execution Feedback & Analysis

EXPLORE ARTIFICIAL INTELLIGENCE & DIGITAL SCIENCE

TECH / 01 ARTIFICIAL INTELLIGENCE

AI in Biological Research

Machine-learning models support applications such as image classification, sequence analysis, molecular property prediction and the exploration of complex biological datasets. Their performance depends on data quality and appropriate validation.

Machine Learning Bioinformatics Predictive Models

TECH / 02 ROBOTIC SYSTEMS

Robotic Laboratory Systems

Robotics can automate defined laboratory procedures, from liquid dispensing and sample preparation to integrated analysis. Reliability requires suitable hardware, workflow compatibility and documented quality controls.

Liquid Handling Robotics Automation

TECH / 03 LABORATORY SOFTWARE

LIMS & Digital Workflows

Laboratory information management systems, electronic laboratory notebooks and instrument integrations help organize samples, workflows and experimental records. Data integrity, traceability and access controls are important implementation needs.

LIMS ELN Data Traceability

TECH / 04 COMPUTATIONAL MODELLING

Digital Twins & Simulation

Computational models can represent selected aspects of laboratory instruments, bioprocesses or experimental systems. Digital-twin approaches may combine models with operational measurements for monitoring and optimization, subject to model validation.

Simulation Process Models Optimization

TECH / 05 INTELLIGENT DATA

Data Science & Experimental Analytics

Modern scientific workflows generate complex datasets. Statistical methods, automated quality checks and machine learning can assist pattern detection and analysis. Meaningful interpretation depends on study design, uncertainty and reproducibility.

Data Analysis Quality Monitoring Scientific Computing

SCIENTIFIC PRACTICE / RESPONSIBLE INNOVATION

Intelligent Laboratories Still Need Reliable Evidence.

Automation and artificial intelligence can increase analytical capabilities, but they do not eliminate experimental uncertainty. Successful implementation depends on reliable measurements, representative training data, appropriate validation, cybersecurity and the ability to review unexpected outcomes.

01 / DATA Data Quality Assess completeness, relevance, accuracy and potential bias.

02 / VALIDATION Model Performance Test models against suitable independent data and real tasks.

03 / SECURITY System Integrity Protect laboratory systems, records and instrument access.

04 / OVERSIGHT Human Review Define oversight, accountability and procedures for unexpected results.

Discover more explanations of laboratory automation, artificial intelligence, scientific software, data analysis and biotechnology through the Lab Times blog.

Explore Articles & Guides

08 / THE PRACTICAL SCIENCE LIBRARY

Understand the Method. Master the Principles.

Explore the techniques behind modern laboratory work. Understand what different methods measure, when they are useful, and which controls and limitations matter. From molecular testing to protein analysis, scientific knowledge begins with a clear understanding of the method.

METHOD SPOTLIGHT / MOLECULAR ANALYSIS

PCR, qPCR and RT-qPCR: What's the Difference?

PCR amplifies a selected DNA target. Quantitative PCR monitors amplification using fluorescence, while reverse transcription converts RNA into complementary DNA before amplification. Understanding these distinctions is essential when evaluating molecular assays.

DNA Amplification Fluorescence Detection Reverse Transcription

KNOWLEDGE / 01

Western Blotting

Learn how electrophoretic separation, membrane transfer and antibody detection are used to investigate specific proteins.

KNOWLEDGE / 02

ELISA & Immunoassays

Understand antigen–antibody recognition, assay formats, calibration, controls and signal interpretation.

KNOWLEDGE / 03

Cell Culture

Explore cell models, aseptic technique, contamination prevention, cell viability and culture-quality principles.

KNOWLEDGE / 04

DNA Sequencing

Compare Sanger sequencing and next-generation sequencing, from nucleotide reads to basic quality control.

LEARNING PATH / SCIENTIFIC EDUCATION

From Concepts to Confident Interpretation.

Our educational content is organized around the questions that make laboratory techniques understandable. These are planned learning topics; individual article links will be added as the original guides are published.

01 / UNDERSTAND Scientific Principle What is measured, and how does the method work?

02 / COMPARE Methods & Applications Which techniques fit different scientific questions?

03 / EVALUATE Quality & Limitations Which controls, assumptions and errors matter?

Discover more laboratory methods, scientific explanations and educational resources through the Lab Times blog.

Browse Articles & Guides

EDITORIAL SPOTLIGHT / THE INNOVATION ECOSYSTEM

Following Innovation Beyond the Laboratory Bench.

Scientific advances rely on more than discovery alone. Translating technologies into practical applications involves engineering, scale-up, quality systems, investment, collaboration and a clear understanding of real-world requirements.

Lab Times will explore how laboratories, manufacturers, universities and biotechnology organizations contribute to the development and adoption of scientific technologies.

Scientific Industry Technology Transfer Innovation Ecosystems

FIG. 09 / CONCEPTUAL INNOVATION NETWORK

EXPLORE THE SCIENTIFIC INDUSTRY LANDSCAPE

CHANNEL / 01

Biotechnology Companies

Understand the technologies and business models behind biotechnology companies, from specialized research tools to industrial bioprocessing platforms.

Biotech Ecosystem Technology Development

CHANNEL / 02

Scientific Conferences & Events

Explore how exhibitions, congresses, scientific meetings and educational workshops support knowledge exchange and introduce new laboratory technologies.

Scientific Congresses Lab Exhibitions

CHANNEL / 03

Biotechnology Markets & Trends

Examine how technological maturity, manufacturing capacity, research needs and adoption challenges influence developments across biotechnology markets.

Industry Trends Technology Adoption

CHANNEL / 04

Quality & Regulatory Science

Learn why documentation, standards, validation, product classification and applicable regulatory frameworks matter when technologies move toward use.

Quality Systems Compliance

CHANNEL / 05

Research Partnerships

Discover how collaborations among academia, laboratories and industry can support technology transfer, translational research and new applications.

Collaborations Technology Transfer

CHANNEL / 06

Laboratory Product Innovation

Explore new instrument capabilities, assay formats, research platforms and workflow technologies, with attention to supporting performance evidence.

Instrumentation Product Technologies

EVALUATING INDUSTRY INFORMATION

Beyond Announcements: Examine the Evidence.

Technology claims and industry announcements are not substitutes for independent evidence. Readers should distinguish company communications, research studies and regulatory decisions before drawing conclusions.

01 / SOURCE Identify the Origin Is the information from a study, company or authority?

02 / SUPPORT Check the Evidence Are specifications and performance claims substantiated?

03 / STATUS Confirm Availability Is a technology experimental, commercial or authorized for use?

04 / CONTEXT Understand Limitations Which applications and practical constraints apply?

Explore scientific innovation, laboratory industry developments and biotechnology insights through Lab Times. Individual event pages will be added only after their details and dates are verified.

Explore the Lab Times Blog

10 / SCIENTIFIC KNOWLEDGE HUB

Explore Further. Keep Learning.

Scientific understanding develops through careful reading, reliable evidence and continuous learning. Explore established literature services and discover more life science, biotechnology and laboratory knowledge through Lab Times.

RESEARCH DISCOVERY / TRUSTED EXTERNAL RESOURCES

Find the Evidence Behind the Science.

Research databases and scholarly infrastructure help readers trace original publications, identify scientific sources and distinguish established findings from preliminary results.

The independent resources listed here provide literature discovery, publication metadata and reporting guidance. They are not Lab Times services or endorsements of this website.

Locate original scientific publications Check publication metadata and identifiers Assess research reporting and methods

RESOURCE / 01

PubMed

Search biomedical and life science literature through the U.S. National Library of Medicine.

Visit PubMed

RESOURCE / 02

Europe PMC

Discover life science publications, preprints, full text and links to related research information.

Explore Europe PMC

RESOURCE / 03

Crossref

Look up scholarly publication metadata and Digital Object Identifiers for academic work.

Search Crossref

RESOURCE / 04

EQUATOR Network

Access reporting guidelines for different designs and types of health research studies.

View Guidelines

What Would You Like to Explore Next?

01 / LEARN Scientific Fundamentals Understand biological mechanisms and essential scientific concepts.

02 / PRACTICE Laboratory Methods Explore experimental approaches, controls and method comparisons.

03 / DISCOVER Biotechnology & Innovation Learn about emerging tools, technologies and applications.

04 / UNDERSTAND Industry & Laboratory Science Connect research concepts with technology and industry.

LAB TIMES / CONTINUE EXPLORING

Science Moves Forward. Your Understanding Can Too.

Discover laboratory guides, life science explanations, biotechnology topics and scientific perspectives in the Lab Times article library.

Explore the Blog Back to the Top

External resources are provided for scientific learning and literature discovery. Lab Times does not claim affiliation with the organizations listed. Educational material does not replace professional laboratory training or qualified clinical advice.