Skip to content

Journal of cannabis research

ISSN 2522-5782

3 papers in the library · 13 citations · publishing 2024-2026

Papers

The effect of cannabis edibles on driving and blood THC.

Journal of cannabis research May 31, 2024 S Zhao, B Brands, P Kaduri et al. 13 citations

Cannabis edibles impair driving less than smoked cannabis, despite causing intoxication. After consuming an average of 7.3 mg of THC, participants drove slower 2 hours later but showed no significant weaving, speed changes, or reaction time differences under standard or dual-task conditions. Blood THC levels peaked at about 2.8 ng/mL, lower than after smoking, and were not correlated with driving impairment. Subjective intoxication lasted up to 7 hours, and participants felt less able to drive for up to 6 hours. Detecting driving impairment from edibles may be difficult because blood THC levels are low and not linked to performance deficits.

THC induced similar physiological effects on HIV transgenic rats and their controls without affecting HIV-induced deficits in effortful motivation.

Journal of cannabis research January 2, 2026 Sunitha Vemuri, Samantha M Ayoub, Arpi Minassian et al.

Delta-9-tetrahydrocannabinol (THC), the main psychoactive component of cannabis, reduced pain sensitivity, body temperature, and movement in HIV-1 transgenic rats and their controls, with some differences between males and females. A higher dose (3 mg/kg) also temporarily lowered motivation to work for a reward, but this effect disappeared after 16 days of daily treatment. HIV-1 transgenic rats showed lower motivation than one control strain (Fischer344) but not another (wildtype littermates), highlighting the importance of choosing appropriate control groups in research.

Three-day delta-9-tetrahydrocannabinol (THC) exposure eliminates long-term depression in ventral tegmental area of young, but not adult mice.

Journal of cannabis research May 31, 2025 Michael Von Gunten, Seth Hoffman, Addison Smartt et al.

In mice, three days of THC exposure eliminates a specific form of synaptic plasticity—CB1-dependent long-term depression (LTD)—in GABA neurons of the ventral tegmental area (VTA) in young but not adult animals. This age-dependent effect may help explain why adolescents are more sensitive to THC-induced changes in brain reward circuits. Quantitative PCR showed no THC-induced changes in mRNA levels for either age group, though several differences existed between young and adult control mice.