1. a
ERIK
MARYAM

2. HIGH GAMMA and ORIENTING STIMULI

3. a. b.

4. FRONTAL HIGH GAMMA for ORIENTING STIMULI

5. PARALLEL LINE NEURAL COMMUNICATION

6. PARALLEL LINE NEURAL COMMUNICATION
Parallel columnar output varying in spike frequency and temporal
coupling between columnar output provides a code for communication
between cortical areas. The spatio-temporal coding hypothesis.

7. PARALLEL LINE NEURAL COMMUNICATION
Parallel columnar output varying in spike frequency and temporal
coupling between columnar output provides a code for communication
between cortical areas. The spatio-temporal coding hypothesis.
When you hear “pa” auditory association cortex decodes the acoustic
information resulting in a local spatio-temporal code for “pa” in the
superior temporal plane. There is some evidence for regional phoneme
modules in human association cortex.

8. PA
PA IS EXTRACTED

9. PARALLEL LINE NEURAL COMMUNICATION
Parallel columnar output varying in spike frequency and temporal
coupling between columnar output provides a code for communication
between cortical areas. The spatio-temporal coding hypothesis.
When you hear “pa” auditory association cortex decodes the acoustic
information resulting in a local spatio-temporal code for “pa” in the
superior temporal plane. There is some evidence for regional phoneme
modules in human association cortex.
To say “pa” on command the coupled parallel spike train outputs are
sent via the arcuate fasiculus to Broca’s speech area where the “pa”
code is extracted and processed for subsequent speech articulation.

10. PA IS SPOKEN arcuate fasiculus “PA” 45 73 57 32 68 84 59 29 47
PA IS SPOKEN