Compartmentalization creates control
Cells separate reactions and information so processes can be regulated.
01:146:270
CELL BIOLOGY AND NEUROSCIENCE
AI-generated overview
The published course scope—a second-year/third-year cell-biology foundation course covering organelles, membranes, signaling, division, development, and protein sorting—sets the conceptual and/or technical challenge; the score is a cautious synthesis of that scope and its prerequisites.
The official format is a concept-heavy major course whose official goals emphasize organizing, integrating, and evaluating cell-biology information; that structure indicates the likely work pattern, while exact weekly time depends on the section.
The course covers a second-year/third-year cell-biology foundation course covering organelles, membranes, signaling, division, development, and protein sorting within one undergraduate term or sequence, so students should expect the listed concepts to build on one another quickly.
Official materials emphasize a concept-heavy major course whose official goals emphasize organizing, integrating, and evaluating cell-biology information; there is no clearly documented long build-style project requirement in the evidence reviewed.
The official course materials reviewed do not publish a universal grading breakdown, so this signal is conservative and section-dependent.
Formal math is limited; quantitative reasoning appears mainly in interpreting experiments, rates, gradients, and cellular measurements.
The course requires students to retain disciplinary terminology and linked processes; its official framing also calls for applying or interpreting those ideas, so the score is not a pure rote-memory estimate.
The course asks students to reason about models, mechanisms, or structured applications, moving beyond isolated facts while staying tied to its disciplinary applications.
The published preparation is the prerequisites or foundation described by the department; gaps in that preparation are likely to increase the difficulty of the listed work.
The source set describes lectures, practical work, and instructor-provided materials rather than a fixed heavy-reading requirement; section-specific reading may differ.
A practical chapter-by-chapter view from foundations to applications.
Module 1
The course builds a map of organelles, macromolecules, and the structure-function relationships that define a cell.
Cells separate reactions and information so processes can be regulated.
Concentration and electrochemical gradients can drive transport and energy conversion.
A protein’s destination can determine whether it can perform its role.
Signaling, division, and gene regulation are coordinated to create different cell fates.
Connect each organelle to inputs, outputs, processes, and trafficking.
Track receptors, second messengers, feedback, and cellular context.
Ask how cell-cycle timing and cell fate decisions interact.
0 open · Busch
Historical student surveys
Teaching
4.07
Course quality
4.01
Response rate
33.7%
Coverage
52 offerings · 2016–2025
| Instructor | Offerings | Teaching | Quality |
|---|---|---|---|
| Cai, Qian | 11 | 3.96 | 3.98 |
| Liu, Alice | 8 | 4.14 | 4.18 |
| Jiang, Peng | 6 | 3.70 | 3.60 |
| Tischfield, Max | 5 | 4.12 | 4.10 |
| Hart, Ronald | 5 | 4.52 | 4.10 |
| Joshi, Kishore | 3 | 4.13 | 4.10 |
Catalog and planning context
Credits
3
Current campuses
Busch
Current availability
0 open of 1
Catalog terms
Fall, Spring
Core codes
None listed
Loaded terms
4
(01:119:102 and 01:119:102 and 01:119:102 and 01:119:102) <em> OR </em> (01:119:116 and 01:119:116 and 01:119:116 and 01:119:116) <em> OR </em> (50:120:101 and 50:120:102 and 50:120:102 and 50:120:102) <em> OR </em> (62:120:101 and 62:120:102 and 62:120:102 and 62:120:102) <em> OR </em> (21:120:201 and 21:120:205 and 21:120:205 and 21:120:205)
No direct degree-list membership appears in the checked-in requirement index.
01:146:270
CELL BIOLOGY AND NEUROSCIENCE
AI-generated overview
The published course scope—a second-year/third-year cell-biology foundation course covering organelles, membranes, signaling, division, development, and protein sorting—sets the conceptual and/or technical challenge; the score is a cautious synthesis of that scope and its prerequisites.
The official format is a concept-heavy major course whose official goals emphasize organizing, integrating, and evaluating cell-biology information; that structure indicates the likely work pattern, while exact weekly time depends on the section.
The course covers a second-year/third-year cell-biology foundation course covering organelles, membranes, signaling, division, development, and protein sorting within one undergraduate term or sequence, so students should expect the listed concepts to build on one another quickly.
Official materials emphasize a concept-heavy major course whose official goals emphasize organizing, integrating, and evaluating cell-biology information; there is no clearly documented long build-style project requirement in the evidence reviewed.
The official course materials reviewed do not publish a universal grading breakdown, so this signal is conservative and section-dependent.
Formal math is limited; quantitative reasoning appears mainly in interpreting experiments, rates, gradients, and cellular measurements.
The course requires students to retain disciplinary terminology and linked processes; its official framing also calls for applying or interpreting those ideas, so the score is not a pure rote-memory estimate.
The course asks students to reason about models, mechanisms, or structured applications, moving beyond isolated facts while staying tied to its disciplinary applications.
The published preparation is the prerequisites or foundation described by the department; gaps in that preparation are likely to increase the difficulty of the listed work.
The source set describes lectures, practical work, and instructor-provided materials rather than a fixed heavy-reading requirement; section-specific reading may differ.
A practical chapter-by-chapter view from foundations to applications.
Module 1
The course builds a map of organelles, macromolecules, and the structure-function relationships that define a cell.
Cells separate reactions and information so processes can be regulated.
Concentration and electrochemical gradients can drive transport and energy conversion.
A protein’s destination can determine whether it can perform its role.
Signaling, division, and gene regulation are coordinated to create different cell fates.
Connect each organelle to inputs, outputs, processes, and trafficking.
Track receptors, second messengers, feedback, and cellular context.
Ask how cell-cycle timing and cell fate decisions interact.
0 open · Busch
Historical student surveys
Teaching
4.07
Course quality
4.01
Response rate
33.7%
Coverage
52 offerings · 2016–2025
| Instructor | Offerings | Teaching | Quality |
|---|---|---|---|
| Cai, Qian | 11 | 3.96 | 3.98 |
| Liu, Alice | 8 | 4.14 | 4.18 |
| Jiang, Peng | 6 | 3.70 | 3.60 |
| Tischfield, Max | 5 | 4.12 | 4.10 |
| Hart, Ronald | 5 | 4.52 | 4.10 |
| Joshi, Kishore | 3 | 4.13 | 4.10 |
Catalog and planning context
Credits
3
Current campuses
Busch
Current availability
0 open of 1
Catalog terms
Fall, Spring
Core codes
None listed
Loaded terms
4
(01:119:102 and 01:119:102 and 01:119:102 and 01:119:102) <em> OR </em> (01:119:116 and 01:119:116 and 01:119:116 and 01:119:116) <em> OR </em> (50:120:101 and 50:120:102 and 50:120:102 and 50:120:102) <em> OR </em> (62:120:101 and 62:120:102 and 62:120:102 and 62:120:102) <em> OR </em> (21:120:201 and 21:120:205 and 21:120:205 and 21:120:205)
No direct degree-list membership appears in the checked-in requirement index.