What question did this study set out to answer?

This research investigates how T-Consciousness Fields influence wheat responses to drought stress.

February 11, 2026Open Access

T-Consciousness fields alter germination, growth, and biochemical responses of wheat ( Triticum aestivum cv. Bahar) under drought stress

STSara TorabiUniversity of Tehran MTMohammad Ali TaheriRafael Advanced Defense Systems (Israel)FSFarid Semsarha

Key Points

This research investigates how T-Consciousness Fields influence wheat responses to drought stress.
Conducted two experiments with randomized design investigating effects on wheat under drought stress.
First experiment assessed germination under controlled PEG-induced drought conditions.
Second experiment measured growth and biochemical traits in seedlings under drought stress with different treatments.
Severe drought reduced wheat germination by approximately 40%.
T-Consciousness Charge Field (T2) significantly improved germination rates, enhancing shoot and root lengths by 70% and 46%, respectively, at -0.6 MPa.
T2 increased seedling growth metrics by 2-3 times compared to controls, with notable increases in biomass.
Under stress, T2 enhanced chlorophyll and carotenoid contents by about 60%.
Both T1 and T2 improved superoxide dismutase activity by around 50%.

Abstract

The existence of consciousness or mind-like properties in plants remains a debated topic in plant biology. This study examined a hypothesis involving nonfrequency T-Consciousness Fields, proposing that information transmitted through these fields may influence plant responses. Using the Faradarmani Consciousness Field (T1) and the T-Consciousness Charge Field (T2), two experiments were conducted in a completely randomized design to assess their effects on wheat (Triticum aestivum cv. Bahar) under drought stress. The germination test was carried out in March, and the subsequent pot experiment was conducted in September 2025 in Gorgan and Guilan Provinces, Iran. In the first experiment, seeds were exposed to PEG-induced drought stress (0, -0.6, and -1.2 MPa) for 8 d, with or without T1 and T2, to evaluate germination and early growth. In the second experiment, seedlings grown in pots were subjected to three weeks of drought by withholding irrigation, with untreated plants serving as controls. Growth parameters, chlorophyll, carotenoid, total protein, and superoxide dismutase (SOD) activities were measured. The results obtained were processed statistically via one-way ANOVA. Severe drought reduced final and mean daily germination by about 40%, whereas T2 significantly improved both (p p < 0.05), whereas effects under more severe stress were limited. Under nonstress conditions, T2 markedly increased seedling growth and vigor, with 2-3-fold increases in root and shoot dry weights and 3-4-fold increases in seedling vigor indices compared with those of the control. In the pot experiments, T2 increased shoot length by ~25% and chlorophyll and carotenoid contents by ~60%, while T1 increased protein content by ~25%. Both fields elevated SOD-specific activity by ~50%. Overall, T1 and T2 improved germination, growth, and biochemical traits, indicating their potential to mitigate drought stress in wheat; thus, their application could be recommended as a qualitative strategy to enhance wheat performance under water-limited conditions.

Ask AI

Helpful

Bookmark

View Full Paper