• About WordPress
    • WordPress.org
    • Documentation
    • Learn WordPress
    • Support
    • Feedback
  • Log In
  • Register
Skip to content
Endocannabinoid Science Education Endocannabinoid Science Education

ECS is Physiology

  • What?
  • Why?
  • How?
  • Where?
  • Contact
  • Advisory Board
  • Forums
  • Blog
  • Bio
  • ECS Explained
Endocannabinoid Science Education
Endocannabinoid Science Education

ECS is Physiology

Critical analysis Wide scientific illustration showing dietary linoleic acid progressing through plasma and red blood cell biomarkers to tissue arachidonic acid and downstream endocannabinoid signaling through 2-AG, anandamide and CB1.

Linoleic Acid Is Not One Exposure: Blood Levels, Arachidonic Acid and Tissue Biology

Posted on October 24, 2026October 24, 2026 By Stefan Broselid

A new review argues that higher linoleic acid exposure may be beneficial. But dietary intake, circulating LA and tissue fatty-acid composition are not the same biological exposure. This article explains why that distinction matters for arachidonic acid, membrane biology and the endocannabinoid system.

Read more
Endocannabinoid System (ECS) Scientific illustration showing metabolic dysfunction in visceral adipose tissue increasing 2-AG and anandamide production, while hyperinsulinemia is associated with increased CB1 receptor stability. Both pathways converge on a central CB1 receptor embedded in a cell membrane.

When Metabolic Dysfunction Acts on Both Sides of CB1 Signalling

Posted on October 6, 2026October 6, 2026 By Stefan Broselid

A new Diabetologia study shows that insulin-resistant visceral adipose tissue overproduces 2-AG and anandamide, while recent work suggests insulin can also increase CB1 receptor stability. Together, these findings raise a testable question: can metabolic dysfunction amplify CB1 signalling by increasing both endogenous ligand production and receptor abundance?

Read more
Fatty Acid Research ECS.education illustration showing the pathway from dietary fat intake through metabolic processing to the achieved DBS/RBC fatty-acid profile, membrane substrate architecture, and endocannabinoid lipid signalling, emphasizing that what is eaten is not the same as the substrate state ultimately achieved.

Your ECS Runs on What Your Metabolism Does With What You Eat

Posted on October 2, 2026October 2, 2026 By Stefan Broselid

New human tracer data show that the same dietary fatty-acid exposure can produce very different biological outcomes depending on metabolic state. For the endocannabinoid system, this strengthens the case for measuring achieved DBS/RBC fatty-acid profiles rather than assuming intake equals substrate availability.

Read more
Endocannabinoid System (ECS) Scientific illustration showing THC activation of the CB1 receptor and the Gq/11–PLC–PKC–NEDD4L pathway leading to CB1 ubiquitination, proteasomal degradation and cannabinoid tolerance, with ECS.education branding.

How Repeated THC Exposure Can Reduce CB1 Receptors

Posted on September 14, 2026September 14, 2026 By Stefan Broselid

A new PNAS study identifies a previously underappreciated Gq/11–PLC–PKC–NEDD4L pathway that marks CB1 receptors for proteasomal degradation. The findings help explain how repeated THC exposure can reduce receptor availability and contribute to cannabinoid tolerance.

Read more
Commentary llustration comparing cannabinoid pharmacology with ECS physiology across a translational gap, highlighting the need to measure the functional state of the endocannabinoid system in humans.

The Endocannabinoid System Is No Longer the Limiting Factor? Almost.

Posted on September 14, 2026September 14, 2026 By Stefan Broselid

A new review argues that policy and stigma, rather than lack of ECS science, are now the main barriers to cannabinoid medicine. I agree, but an important gap remains: medicine still lacks a practical clinical physiology of the endocannabinoid system.

Read more
Endocannabinoid System (ECS) A white paracetamol tablet emits glowing signals into an interconnected network of lipid-like molecules, cell membranes and neurons, shifting from warm orange inflammatory activity to cool blue-green signalling against a dark background.

Paracetamol, 2-AG and CB1: The ECS Story Just Got More Complicated

Posted on September 9, 2026September 8, 2026 By Stefan Broselid

New mouse research reveals that paracetamol’s pain-relieving effects depend on CB1 receptors and the enzymes DAGL and MAGL, while reshaping prostaglandin and wider lipid signalling.

Read more
Endocannabinoid System (ECS) Editorial illustration showing a medical cannabis receipt stamped “Cannot Afford,” a patient profile with an illuminated CB1 brain, and schematic curves showing declining therapeutic effect alongside increasing required dose, set against a subtle New York skyline and cannabis flower.

Tolerance changes the economics of medical cannabis

Posted on September 7, 2026September 7, 2026 By Stefan Broselid

A New York study found that 49% of surveyed medical cannabis patients could not afford enough cannabis to manage their symptoms. This article examines a missing variable in the affordability debate: whether chronic high-THC exposure, tolerance and CB1 adaptation may increase the amount of cannabis required for sustained therapeutic effect.

Read more
Announcements Scientific illustration showing a CB1 receptor in the cell membrane, with metabolic state influencing receptor stability and lysosomal degradation. Dietary fat composition and carbohydrate-driven insulin responses are shown as upstream factors, with liver, adipose tissue, skeletal muscle, brain, and heart representing insulin-sensitive tissues.

Open letter to CB1 researchers

Posted on September 3, 2026September 3, 2026 By Stefan Broselid

An open letter inviting researchers to investigate whether metabolic state influences CB1 receptor stability, trafficking and degradation across insulin-sensitive tissues, and whether this represents a broader principle of endocannabinoid system regulation.

Read more
Commentary Conceptual illustration showing membrane fatty-acid state as a baseline biological condition, followed by an endurance running challenge and distinct arachidonate/endocannabinoid responses involving AEA, arachidonic acid and 2-AG. A red blood cell and phospholipid membrane represent longer-term fatty-acid status, a runner represents prolonged exercise, and non-quantitative signal traces represent the time-dependent ECS response. ECS.education logo appears in the upper right.

The missing membrane layer in a new marathon endocannabinoid study

Posted on September 3, 2026September 3, 2026 By Stefan Broselid

A new BMC Medicine study shows that marathon running triggers distinct temporal changes in anandamide, 2-AG and arachidonic acid. The missing piece may be the runners’ membrane fatty-acid state before exercise.

Read more
Endocannabinoid System (ECS) Illustration of endocannabinoid signalling through CB1 receptors in the brain, showing how synaptic adaptation supports learning and behavioural adaptation.

How the Endocannabinoid System Helps the Brain Adapt and Learn

Posted on August 17, 2026August 17, 2026 By Stefan Broselid

The Endocannabinoid System and the Biology of Learning: How Endocannabinoids Help the Brain Adapt Why one-shot learning matters for survival Imagine touching a hot surface for the first time. The experience lasts only a moment, but the lesson can last a lifetime. The brain does not need repeated exposure to…

Read more
  • 1
  • 2
  • …
  • 9
  • Next
©2026 Endocannabinoid Science Education | WordPress Theme by SuperbThemes