All Stories

  1. Pro-social behavior in rats is modulated by social experience
  2. Rostral Ventromedial Medulla
  3. Rostral Ventromedial Medulla Cell Types
  4. Opioids Disrupt Pro-Nociceptive Modulation Mediated by Raphe Magnus
  5. Two negatives make a positive: Telencephalic-mediated analgesia
  6. Medullary circuits for nociceptive modulation
  7. Empathy and Pro-Social Behavior in Rats
  8. Medical Neurobiology
  9. From descending pain modulation to obesity via the medullary raphe
  10. Ingestion analgesia occurs when a bad taste turns good.
  11. The modulatory effects of rostral ventromedial medulla on air-puff evoked microarousals in rats
  12. How the social brain experiences empathy: Summary of a gathering
  13. Analgesia Accompanying Food Consumption Requires Ingestion of Hedonic Foods
  14. Opioid microinjection into raphe magnus modulates cardiorespiratory function in mice and rats
  15. Food Consumption Inhibits Pain‐related Behaviors
  16. Eating is a protected behavior even in the face of persistent pain in male rats
  17. Sucrose Exposure in Early Life Alters Adult Motivation and Weight Gain
  18. Descending Modulation of Nociception
  19. Activity of Murine Raphe Magnus Cells Predicts Tachypnea and On-Going Nociceptive Responsiveness
  20. Serotonergic Raphe Magnus Cell Discharge Reflects Ongoing Autonomic and Respiratory Activities
  21. Raphe Magnus Neurons Help Protect Reactions to Visceral Pain From Interruption by Cutaneous Pain
  22. Chapter 15 Descending pain modulation as a component of homeostasis
  23. Sensory suppression during feeding
  24. Ventromedial medulla: Pain modulation and beyond
  25. Brainstem modulation of pain during sleep and waking
  26. Physiological and anatomic evidence for functional subclasses of serotonergic raphe magnus cells
  27. The discharge of a subset of serotonergic raphe magnus cells is influenced by baroreceptor input
  28. CONTRIBUTIONS OF THEMEDULLARYRAPHE ANDVENTROMEDIALRETICULARREGION TOPAINMODULATION ANDOTHERHOMEOSTATICFUNCTIONS
  29. Central mechanisms of pain modulation
  30. The identification of serotonergic neurons
  31. Raphe magnus serotonergic neurons tonically modulate nociceptive transmission
  32. Somatodendritic and axonal anatomy of intracellularly labeled serotonergic neurons in the rat medulla
  33. Somatodendritic and axonal anatomy of intracellularly labeled serotonergic neurons in the rat medulla
  34. Lumbar but not cervical intrathecal DAMGO suppresses extrasegmental nociception in awake rats
  35. GABA-immunoreactive boutons contact identified OFF and ON cells in the nucleus raphe magnus
  36. GABA‐immunoreactive boutons contact identified OFF and ON cells in the nucleus raphe magnus
  37. Antagonism of the Antinocifensive Action of Halothane by Intrathecal Administration of GABA-A Receptor Antagonists
  38. Chapter 16 Physiological functions of pontomedullary raphe and medial reticular neurons
  39. Anesthetic actions within the spinal cord: contributions to the state of general anesthesia
  40. Effects of isoflurane concentration on the activity of pontomedullary raphe and medial reticular neurons in the rat
  41. Lipopolysaccharide induces fever and decreases tail flick latency in awake rats
  42. Anesthetic Potency (MAC) Is Independent of Forebrain Structures in the Rat
  43. The Nociceptive Modulatory Effects of Periaqueductal Gray Activation are Mediated by Two Neuronal Classes in the Rostral Ventromedial Medulla
  44. Serotonin immunocytochemistry of physiologically characterized raphe magnus neurons
  45. Organization of Trigeminal Nociceptive Pathways
  46. Serotonin immunocytochemistry of physiologically characterized raphe magnus neurons
  47. Edinger-Westphal nucleus: Cells that project to spinal cord contain corticotropin-releasing factor
  48. Choline acetyltransferase immunocytochemistry of Edinger-Westphal and ciliary ganglion afferent neurons in the cat
  49. Suppression of the jaw-opening reflex by periaqueductal gray stimulation is decreased by paramedian brainstem lesions
  50. Axonal trajectories and terminations of physiologically characterized raphe magnus neurons in the cat
  51. Intracellular responses of raphe magnus neurons during the jaw-opening reflex evoked by tooth pulp stimulation
  52. Response of brainstem trigeminal neurons to electrical stimulation of the dura
  53. Is the jaw-opening reflex a valid model of pain?
  54. Pontomedullary raphe neurons: monosynaptic excitation from midbrain sites that suppress the jaw opening reflex