Pesticide residue analysis has transformed dramatically over four decades, evolving from limited detection capabilities to sophisticated multi-compound screening methods that can identify hundreds of compounds.
Today's laboratories face the challenge of keeping pace with rapidly evolving agricultural chemistry, where new pesticides are added to screening methods almost weekly while regulatory requirements become increasingly stringent across global markets.
This infographic guides you through the analytical journey from early detection limitations to cutting-edge screening technology, providing the insights needed to meet modern food safety and regulatory compliance demands.
Download this infographic to discover:
- The technological breakthroughs that revolutionized pesticide analysis from the 1970s to present
- Current global regulatory landscape and compliance requirements across major markets
- Advanced analytical approaches for high-throughput laboratories processing 100+ samples daily
The Evolution of
Pesticide Analysis
Pesticide residue analysis has
transformed dramatically over the past
four decades, evolving from limited detection capabilities to sophisticated
multi‑compound screening methods. This progress reflects both advancing analytical
technology and the growing complexity of agricultural chemistry, where laboratories must
now identify hundreds of compounds to ensure food safety
and regulatory compliance.
This infographic explores the analytical journey from early detection challenges to today's cutting-edge
screening technology, highlighting the current regulation landscape and the breakthroughs that are
revolutionizing pesticide analysis.
Significant improvements
in sensitivity now reveal
trace levels once considered
impossible.
Single analytical
techniques replaced
multiple detector
systems, reducing
the number of
confirmation steps.
Dynamic method switching
allows for real-time analytical
parameter optimization.
Unknown compounds
could be identified
in complex samples
using non-targeted
analysis.
Analytical advances have
led to increasingly stringent
detection limits across global
markets.
Multiple reaction
monitoring (MRM)
coupled with the high
efficiency source (HES)
enabled detection of
trace-level residues.
The P&EP MRM
Database simplified
complex MRM method
setup, enabling rapid,
confident contaminant
detection.
Laboratories add new pesticides to screening methods almost weekly,
reflecting the rapidly evolving agricultural chemistry landscape. This makes
it essential that researchers understand the rapidly changing analytical and
regulatory landscape.
The QuEChERS (quick, easy, cheap, effective, rugged, safe) method provided
universal sample preparation, dramatically improving workflow efficiency
while maintaining analytical quality. Its evolution into QuEChERSER enhanced
robustness and efficiency, while enhanced matrix removal (EMR) technology
delivered faster cleanup than traditional solid-phase extraction without
compromising recovery.
1970s
to
2000s
2000s
to
2010s
2010s
to
Present
Breakthrough advantages
Triple quadrupole advantages
Mass Spectrometry Unlocked New Analytical Power
During this period advances in gas chromatography–mass spectrometry (GCMS) systems revolutionized pesticide analysis by providing molecular-level
identification capabilities that transformed laboratory workflows.
The Triple Quadrupole Era
Dynamic MRM technology has enabled unprecedented analytical scope
expansion, laying the foundation for some of the greatest analytical progress in
pesticide analysis.
The Changing Regulatory Landscape
Modern agriculture has shifted away from persistent organochlorines toward more environmentally conscious
chemistries, creating new analytical challenges as well as growing regulatory requirements.
Future-Ready Solutions
Modern pesticide analysis combines high sensitivity, robustness and automation to meet the demands of
high-throughput laboratories, which may need to process more than 100 samples daily.
Examples of Global Perspectives on Pesticide Regulations
and Guidelines
Expand Your Analytical Scope
Advanced analytical instrumentation provides laboratories with everything needed to meet evolving food safety
requirements and regulatory standards.
Keeping up with regulation changes
Farmers increasingly choose pesticides
that are cheaper, easier to use and require
minimal additional applications. These
preferences shape market demand and
influence regulatory priorities.
Adaptable methods to accommodate
varying international standards
and the growing number of active
substances that are being developed
and registered across the globe.
As technology advances, experienced
analytical scientists remain essential for
navigating regulatory changes and method
optimization, particularly those with
expertise across multiple platforms.
AI-powered system monitoring
enables proactive maintenance
and performance optimization.
Many people are now using pesticides
“off-label”, prompting regulatory authorities
to adapt by introducing new rules that
only allow certain pesticides. This, in turn,
requires laboratories to continuously
update their analytical methods and
screening panels.
Automated sample cleanup
and processing minimize
manual intervention.
Laboratories needed
2–3 different detectors
for comprehensive
pesticide screening.
Separate analytical runs
were required for different
pesticide classes, creating
time‑intensive workflows.
Detection did not guarantee
accurate compound
identification.
“It’s not like finding a needle in a haystack. It’s trying to
find a needle within different types of needles.”
Early Challenges in Pesticide Analysis
Pesticide analysis faced fundamental limitations that restricted both scope and
reliability. Traditional detectors struggled with compound identification, particularly
for pesticides containing only carbon, hydrogen and oxygen atoms.
Key analytical barriers
Discover how to extend the limits of what’s possible
by accessing these pesticide analysis resources:
🌐 From Residues to Regulations: The Evolution of Pesticide Analysis in GC/MS
🌐 GC/MS/MS Pesticide Residue Analysis
🌐 GC/MS/MS Triple Quadrupole for GCMS Testing, 7010D GCMS
🌐 Food & Beverage Testing
🌐 Brewing Excellence: Quantitating Over 200 Pesticides in Black Tea with Steady Performance and
Maximized Uptime by GC/MS/MS
🌐 Hydrogen Carrier Gas for Analyzing Pesticides in Pigmented Foods with GC/MS/MS
🌐 Accurate Identification and Quantification of Pesticide Residues in Ghee
🌐 Beyond All Limits: Agilent 7010D Triple Quadrupole GC/MS
Analytical excellence
Dynamic MRM technology provides flexibility
and analytical excellence.
Global regulatory compliance
Methods validated across international
standards ensure global regulatory compliance.
Cutting edge innovation
Expert technical insight is backed by
cutting-edge innovation.
United States European Union India China
Regulation /
Guideline
40 CFR part 180, 21 CFR 170.19,
US FDA Pesticide Analytical
Manual, USDA FSIS CLGPST5.11
Regulation (EC)
No 396/2005
SANTE/11312/2021
FSSAI Guidance
Document (2022)
GB 23200.113-2018
GC/MS/MS
Role
Required for multi-class pesticide
screening in raw agricultural
commodity, meat, poultry, egg
(40 CFR part 180) and processed
food (CFR 170.19)
Core method
in official labs
GC/MS/MS required
for MRL fixation and
validation
Mandatory for 208
pesticides in plantbased foods
Notes EPA establishes MRLs, USDA
enforces for meat, poultry
and some egg products, FDA
enforces for other foods.
EURL guidelines
mandate GC/MS/MS
for many matrices
Based on Food Safety
and Standards Act,
2006
Uses QuEChERS
+ GC/MS/MS with
dynamic MRM