Schedule

Schedule

Daily schedule of classroom sessions.
Complete homework (listed in the Assignments column) before class starts on that day.
The Pages column contains links to materials we will use during class that day and are not part of the homework.

Mondays are marked by bold font.

Date

Topic

Assignments

In-Class Page(s)

Jan 30

Welcome and Introduction

none

Welcome
Syllabus
Introduction

Jan 1

Movement

Kinematics

Movement

Feb 6

Anatomy

Basic Neuroanatomy

Anatomy

Feb 8

NeuroMuscular Coding

Rate Coding and the Control of Muscle Force (click on either the full text or pdf link to read)

NeuroMuscular Coding

Feb 13

Movement Control: Antagonistic Pairs

Neuronal control of leech behavior: Figure 1, Figure 2, Section 3.2 Local Bending (including section 3.2 Figures);

Movement Control: Antagonistic Pairs

Feb 15

Cells Types and Circuits

The first two sections (“Cell Types” and “Manual Database Exploration”) of the Cell Types Interactive Notebook;
On the function of recurrent inhibition in the spinal cord

Cell Types and Circuits

Feb 20

Strength

The brain can make you stronger;
Assessment of Neuroplasticity With Strength Training

Strength

Feb 22

Movement Control: Motor Cortex

On the relations between the direction of two-dimensional arm movements and cell discharge in primate motor cortex. Focus on the following sections: Abstract, Introduction, Methods “Data Analysis” first two paragraphs (we will cover equations 1 and 6 in class), Results “Behavioral Data” “Quantitative studies: Relations to the direction of movement” “Relations between the frequency of discharge and direction of movement: Directional tuning curve”, and Discussion;
Muscle and Movement Representations in the Primary Motor Cortex;
Motor Cortex Connectivity

Movement Control: Motor Cortex

Feb 27

Action Control: CPGs

Central pattern generators and the control of rhythmic movements (stop before “neuromodulators”);
Reciprocal Inhibition and Postinhibitory Rebound Produce Reverberation in a Locomotor Pattern Generator

Action Control: CPGs

March 1

Action Control: CPGs

Central pattern generators and the control of rhythmic movements: “Coupling and Coordination” (pages R991-993);
How the brainstem controls orofacial behaviors comprised of rhythmic actions

Action Control: CPGs

March 6

Action Control: Brainstem

A functional map for diverse forelimb actions within brainstem circuitry

Action Control: Brainstem

March 6

Editorial DUE 11 PM

Basic Movement Control

Editorials

March 8

Orientation and Action Selection: Tectum

The tectum/superior colliculus as the vertebrate solution for spatial sensory integration and action sections: The tectum/SC’s intrinsic networks and their computations (The tectum/SC’s conserved laminar structure and The lamprey tectum’s sensory and motor maps and circuit mechanisms) , Sensorimotor transformation, premotor outputs, and behavior selection, and Conclusions and future directions;
Orienting our view of the superior colliculus: specializations and general functions

Orientation and Action Selection: Tectum

March 11-26

Spring Break

March 27

Dealing with High Dimensional Data

(Get a gist of this material and we will look at them together as well)
Geometric View of Data;
Dimensionality Reduction

High dimensional data/techniques/thinking

March 29

Action Selection: Leech Swim/Crawl

Optical Imaging of Neuronal Populations During Decision-Making

Action Selection: leech swim/crawl

April 3

Action Selection: Amygdala

Integrated Control of Predatory Hunting by the Central Nucleus of the Amygdala

Action Selection: Amygdala

April 5

Action Control: Motor Cortex

Neural population dynamics during reaching (SKIP “Population-level quantification”);
A Dynamical Basis Set for Generating Reaches(SKIP the following sections: “Rotations are a Dominant Motif in the Population Response” (on page 5-6), “Rotational Structure is Absent for Muscles and Traditional Models” (on page 7), “Interpretation of Why “Tuning” Changes With Time (on page 9), “Pitfalls of the Population PSTH” (on page 9-11))

Action Control: Motor Cortex

April 10

Action Control: Motor Cortex

Motor Cortex Embeds Muscle-like Commands in an Untangled Population Response(SKIP the following sections of Results (spanning pg 960-962): “Hypothesis-based predictions of neural responses”, “Alternative Predictions”, “Signals Introduced by optimization yield incidental correlations”)

Action Control: Motor Cortex

April 12

Action Control: Spinal Cord (high D)

Neurons that control walking go round in circles;
Movement is governed by rotational neural dynamics in spinal motor networks

Action Control: Spinal Cord (high D)

April 17

Basal Ganglia and Cerebellum Introduction

Liqun Luo (2020) Cerebellum;
Liqun Luo (2020) Basal Ganglia

Canonical Circuits

April 19

Action Sequencing: Basal Ganglia

Optogenetic Editing Reveals the Hierarchical Organization of Learned Action Sequences

Action Sequencing: Basal Ganglia

April 24

Action Sequencing: Basal Ganglia

The Striatum Organizes 3D Behavior via Moment-toMoment Action Selection sections: Summary, Intro, Results (introductory paragraph), Pathway decorrelations facilitate behavioral encoding and decoding, Figure 3, Sequence-specific neural representations for syllables, Figure 4, The DLS is required for moment-to-moment action selection, Figure 7, and Discussion

Action Sequencing: Basal Ganglia

April 24

Editorial DUE 11 PM

Basic Action Control

Editorials

April 26

Coordination: Cerebellum

A quantitative framework for whole-body coordination reveals specific deficits in freely walking ataxic mice

Coordination: Cerebellum

May 1

Context: Cerebellum

Learning to expect the unexpected: rapid updating in primate cerebellum during voluntary self-motion

Context: Cerebellum

May 3

Movement Effects on Sensory Systems

How do fish make electricity?;
Studying electric fish in the field;
Perks and Sawtell 2019 pg 318-326 and 332-334 (sections 11.3-11.4.3 and 11.6.2)

Movement Effects on Sensory Systems

May 8

Movement Effects on Sensory Systems

Perks and Sawtell 2019 pg 327-330 (section 11.5)

Movement Effects on Sensory Systems

May 10

Wrap Up

Assess: Connecting neuronal circuits for movement

May 16

Editorial DUE 11 PM

Beyond Basic Control

Editorials

May 11-15 Reading Period May 16-19 Final Exam Period