| Literature DB >> 24808982 |
Rollin McCraty1, Maria Zayas2.
Abstract
This article explores the role of the heart in emotional experience, as well as how learning to shift the rhythms of the heart into a more coherent state makes it possible to establish a new inner baseline reference that allows access to our heart's intuitive capacities and deeper wisdom. The nature and types of intuition and the connection between intuition and compassionate action are discussed. It is suggested that increased effectiveness in self-regulatory capacity and the resultant reorganization of memories sustained in the neural architecture facilitates a stable and integrated experience of self in relationship to others and to the environment, otherwise known as consciousness. The implications of meeting the increasingly complex demands of life with greater love, compassion, and kindness, thereby lifting consciousness, are considered.Entities:
Keywords: Intuition; consciousness; emotion; energetic sensitivity; heart; pattern matching; self-regulation
Year: 2014 PMID: 24808982 PMCID: PMC4010961 DOI: 10.7453/gahmj.2014.013
Source DB: PubMed Journal: Glob Adv Health Med ISSN: 2164-9561
Figure 1Emotions are reflected in heart rhythm patterns. The heart rhythm patterns shown in the top graph, characterized by its erratic, irregular pattern (incoherence), is typical of negative emotions such as anger or frustration. The bottom graph shows an example of the coherent heart rhythm pattern that is typically observed when an individual is experiencing sustained, modulated positive emotions—in this case, appreciation. Both recordings are from the same individual only a couple of minutes apart. The amount of variability and mean heart rate are the same in both examples, illustrating how the pattern of activity contains information in the absence of changes in physiological activation.
Figure 2Heart-brain synchronization between two people. The top three traces are Subject 2's signal averaged electroencephalogram (EEG) waveforms, which are synchronized to the R-wave of Subject 1's electrocardiogram (ECG). The lower plot shows Subject 2's heart rate variability pattern, which was coherent throughout the majority of the record.
Figure 3Example of temporal dynamics of heart and brain pre-stimulus responses. This overlay plot shows the mean event-related potential (ERP) at electroencephalogram site FP2 and heart rate deceleration curves during the pre-stimulus period. (The “0” time point denotes stimulus onset.) The heart rate deceleration curve for the trials in which a negative emotionally arousing photo would be seen in the future diverged from that of the trials that contained a calming future picture (sharp downward shift) about 4.8 seconds prior to the stimulus (arrow 1). The emotional trials ERP showed a sharp positive shift about 3.5 seconds prior to the stimulus (arrow 2). This positive shift in the ERP indicates when the brain “knew” the nature of the future stimulus. The time difference between these two events suggests that the heart received the intuitive information about 1.3 seconds before the brain did. Heartbeat-evoked potential analysis confirmed that a different afferent signal was sent by the heart to the brain during this period.