Data Engineering · Course Syllabus
Data Engineering Course Syllabus — Full Curriculum Breakdown
Quick summary — the data engineering course syllabus
A complete data engineering course syllabus teaches SQL and data modelling, Python, Linux, Spark, data warehouses, orchestration with Airflow, a cloud data stack and streaming basics. It should end with an end-to-end pipeline project that ingests, stores, transforms and serves data reliably.
In this guide you will learn:
- Foundation modules — SQL, modelling, Python and Linux.
- Processing modules — Spark, warehouses and dbt.
- Production modules — orchestration, cloud and streaming.
- A syllabus checklist — to compare courses.
- Interview questions — mapped to each module.
SECTION 01Foundation modules: SQL, data modelling, Python and Linux
Data engineering is built on strong SQL and modelling. Courses that jump straight to Spark often produce engineers who cannot design a clean table. Foundations should cover:
| Module | Topics | Why it matters | Assignment idea |
|---|---|---|---|
| Advanced SQL | Joins, CTEs, window functions, query plans | Most transformations are SQL | Rewrite slow queries |
| Data modelling | Star schema, facts and dimensions, SCD | Tables people can trust and query | Model a retail warehouse |
| Python for data | Files, APIs, pandas, error handling | Ingestion and automation scripts | Pull an API into CSV |
| Linux and Git | Shell, cron, permissions, branches | Pipelines run on servers | Schedule a script with cron |
CREATE TABLE dim_customer (
customer_key SERIAL PRIMARY KEY,
customer_id VARCHAR(20) NOT NULL,
name VARCHAR(100),
city VARCHAR(50),
valid_from DATE NOT NULL,
valid_to DATE,
is_current BOOLEAN DEFAULT TRUE
);
CREATE TABLE dim_date (
date_key INT PRIMARY KEY, -- e.g. 20261106
full_date DATE NOT NULL,
month INT,
year INT
);
CREATE TABLE fact_sales (
sale_id BIGSERIAL PRIMARY KEY,
customer_key INT REFERENCES dim_customer(customer_key),
date_key INT REFERENCES dim_date(date_key),
quantity INT,
amount NUMERIC(12,2)
);
import csv
import requests
URL = "https://jsonplaceholder.typicode.com/users"
def fetch_users():
resp = requests.get(URL, timeout=10)
resp.raise_for_status()
return resp.json()
def save_csv(rows, path="users.csv"):
fields = ["id", "name", "email"]
with open(path, "w", newline="") as f:
writer = csv.DictWriter(f, fieldnames=fields)
writer.writeheader()
for r in rows:
writer.writerow({k: r[k] for k in fields})
if __name__ == "__main__":
save_csv(fetch_users())
print("saved users.csv")
SECTION 02Processing modules: Spark, warehouses and dbt
This block teaches how to transform large data efficiently. A good course explains not only how to write Spark code but also why it can be slow and how to fix it:
| Module | Key topics | Practical skill | Depth to expect |
|---|---|---|---|
| Apache Spark | DataFrames, partitions, joins, shuffles | Transform large datasets | Several hands-on labs |
| File formats and lakes | Parquet, partitioning, table formats | Store data efficiently | Compare formats in practice |
| Cloud warehouses | Loading, clustering, cost basics | Serve analytics tables | One warehouse in depth |
| dbt (SQL transformations) | Models, tests, documentation | Version-controlled SQL pipelines | A small dbt project |
from pyspark.sql import SparkSession, functions as F
spark = SparkSession.builder.appName("sales_enrich").getOrCreate()
sales = spark.read.parquet("/lake/raw/sales")
products = spark.read.parquet("/lake/raw/products") # small table
# Broadcast the small table to avoid a large shuffle
enriched = sales.join(F.broadcast(products), on="product_id", how="left")
result = (enriched
.groupBy("category", F.to_date("sold_at").alias("sale_date"))
.agg(F.sum("amount").alias("revenue")))
result.write.mode("overwrite").partitionBy("sale_date").parquet("/lake/curated/revenue")
-- models/marts/fct_daily_revenue.sql
select
cast(sold_at as date) as sale_date,
p.category,
sum(s.amount) as revenue
from {{ ref('stg_sales') }} s
left join {{ ref('stg_products') }} p
on s.product_id = p.product_id
group by 1, 2
-- models/marts/schema.yml
-- models:
-- - name: fct_daily_revenue
-- columns:
-- - name: sale_date
-- tests: [not_null]
SECTION 03Production modules: orchestration, cloud and streaming
Real pipelines must run on schedule, recover from failures and be monitored. This final block turns scripts into production systems:
| Module | Topics | Why it matters | Project milestone |
|---|---|---|---|
| Orchestration | Airflow DAGs, retries, backfills | Reliable scheduled pipelines | Daily DAG with alerts |
| Cloud data stack | Object storage, managed Spark, IAM | Most teams run data on cloud | Pipeline deployed on one cloud |
| Streaming basics | Kafka topics, consumers, windows | Near real-time use cases | Small event stream demo |
| Data quality and ops | Tests, monitoring, lineage, cost | Trustworthy data | Quality checks that fail loudly |
from datetime import datetime, timedelta
from airflow import DAG
from airflow.operators.python import PythonOperator
def load_partition(ds, **_):
# ds = the run date, e.g. '2026-11-06'; reload only that day
print(f"loading partition for {ds}")
default_args = {"retries": 2, "retry_delay": timedelta(minutes=10)}
with DAG(
dag_id="daily_sales_load",
start_date=datetime(2026, 10, 1),
schedule="@daily",
catchup=True, # allows backfilling past dates
default_args=default_args,
) as dag:
PythonOperator(task_id="load", python_callable=load_partition)
# pip install kafka-python
import json
from kafka import KafkaConsumer
consumer = KafkaConsumer(
"orders",
bootstrap_servers="localhost:9092",
group_id="order-monitor",
auto_offset_reset="earliest",
value_deserializer=lambda b: json.loads(b.decode("utf-8")),
)
for message in consumer:
order = message.value
if order.get("amount", 0) > 50000:
print("High-value order:", order["order_id"])
SECTION 04Data engineering syllabus checklist template
Use these templates to evaluate a data engineering course before you join:
Module coverage Yes / No
Advanced SQL incl. window functions, CTEs ___
Data modelling: star schema, SCD ___
Python for ingestion and automation ___
Linux, cron and Git ___
Spark DataFrames, partitions, joins ___
Parquet and data lake layout ___
One cloud warehouse in depth ___
dbt or SQL transformation framework ___
Airflow or similar orchestration ___
Streaming basics with Kafka ___
Data quality, monitoring, cost ___
Ask the course team about the capstone:
1. Does it ingest from a real API or source?
2. Is data stored in a lake and a warehouse?
3. Are transformations tested?
4. Is it scheduled with retries and alerts?
5. Can it be re-run safely for a past date?
6. Is it deployed on a cloud account?
7. Will a mentor review the code?
| Course A | Course B
---------------------|----------|---------
Coverage score /11 | |
Lab hours | |
Cloud access given | |
Capstone quality /7 | |
Mentor reviews | |
Batch timings | |
Fees (ask directly) | |
Placement support | |
SECTION 05Tips to get the most from a data engineering course
Data engineering rewards hands-on practice more than theory:
- Set up your own lab — run Spark and Airflow locally with Docker to practise beyond class.
- Use free cloud tiers carefully — set budget alerts and delete resources after practice.
- Break your pipeline on purpose — learn retries, backfills and debugging by causing failures.
- Document data contracts — write down schemas and expectations for each table.
- Keep SQL sharp — solve SQL problems weekly even while learning Spark.
SECTION 06Interview Q&A — data engineering syllabus
Q1What is a slowly changing dimension type 2?
It keeps history by adding a new row when an attribute changes, with validity dates and a current flag, so reports can show values as they were at any time.
Q2What is the difference between ETL and ELT?
ETL transforms data before loading it into the target. ELT loads raw data first and transforms it inside the warehouse, which is common with modern cloud warehouses.
Q3What causes a shuffle in Spark?
Operations that need data from many partitions together, such as joins, groupBy and distinct, move data across the cluster. Shuffles are expensive, so reducing them improves speed.
Q4What is a broadcast join?
Spark sends a small table to every executor so it can join with a large table without shuffling the large one. It works only when the small table fits in memory.
Q5Why use dbt?
dbt lets you write transformations as version-controlled SQL models with tests, dependencies and documentation, making warehouse pipelines easier to maintain.
SECTION 07Test yourself — data engineering syllabus quiz
Five questions. No sign-up.
0 / 5Pick an answer to see why it is right or wrong.
SECTION 08Frequently asked questions
What is taught in a data engineering course?
SQL, data modelling, Python, Linux, Spark, data lakes and warehouses, dbt, orchestration with Airflow, a cloud data platform, streaming basics, data quality and an end-to-end pipeline project.
Is coding required for data engineering?
Yes. SQL and Python are used daily, and Spark code is common. You do not need advanced software engineering at the start, but comfort with code is essential.
What is the difference between data engineering and data science courses?
Data engineering courses focus on building pipelines and data platforms. Data science courses focus on analysis, statistics and machine learning models built on that data.
Which cloud is best for data engineering?
AWS, Azure and Google Cloud all offer strong data services. Learn one deeply, preferably the one most common in jobs you are targeting, and understand the concepts that transfer.
Can a fresher join a data engineering course?
Yes, if the course starts with SQL, Python and Linux foundations. Freshers should expect to spend extra time on SQL and modelling before Spark and cloud modules.
SECTION 09Related reads
Classroom & online · Noida
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