Prepare the dataset
Collect transactions, product metadata and any historical prices; engineer features such as demand curves, seasonality and competitor indicators.
Suggest product prices. Weigh business constraints.
A pricing recommendation engine suggests prices or price adjustments by combining behaviour, product metadata and business constraints. Key challenges include sparse behaviour data, seasonality, competitor moves, and safety controls such as minimum margins and inventory-aware rules.
Learning concept · Not a validated service
A pricing recommendation engine suggests prices or price adjustments by combining behaviour, product metadata and business constraints. Key challenges include sparse behaviour data, seasonality, competitor moves, and safety controls such as minimum margins and inventory-aware rules.
A possible application: help pricing analysts explore suggested price changes and accept or modify them. The suggested extension should keep a human reviewer in the loop and treat recommendations as advisories rather than automated price updates.
Collect transactions, product metadata and any historical prices; engineer features such as demand curves, seasonality and competitor indicators.
Start with a simple demand- or feature-based regressor to predict price elasticity, or a collaborative-filtering similarity baseline for product affinity.
Measure MAE for predicted prices and simulate revenue or margin impact; inspect segments with low support or large price sensitivity variance.
Implement business-rule filters (min/max prices, inventory checks), logging and drift monitoring before any automated deployment.
The supplied starter creates a tiny, hard-coded user-item ratings table, pivots it to a user–item matrix, computes cosine similarity between users, finds the most similar user to a target user, and recommends that neighbour's unseen items by returning the highest-rated ones. It prints the neighbour and the top-3 recommended items.
matrix = ratings.pivot_table(index="user", columns="item", values="rating").fillna(0)
user_similarity = pd.DataFrame(
cosine_similarity(matrix),
index=matrix.index,
columns=matrix.index,
)
target_user = "user_1"
neighbor = user_similarity[target_user].drop(target_user).idxmax()
unseen_items = matrix.loc[target_user][matrix.loc[target_user] == 0].index
scores = matrix.loc[neighbor, unseen_items].sort_values(ascending=False)The code performs user-based collaborative filtering on synthetic ratings and does not use any price, cost, demand or product-feature data. It recommends items, not prices; the dataset is tiny and synthetic, and there is no evaluation, business-rule filtering or production-safe logic in the starter.
A proposed extension is to predict suggested prices by training a demand or price-regression model on historical transactions and product features, then layer business rules and simulations to estimate revenue and margin impact before surfacing recommendations to analysts.
This is a potential application pathway, not a delivered product. The supplied starter does not implement this service or validate it with real users.
Networkers Home runs this topic inside its AI Engineer Course, with placement support and hands-on labs.