Scalable Demand Transfer Estimation Improves Assortment Optimization.
Key takeaways
- A new scalable method estimates demand transfer coefficients for large product universes.
- This approach improves demand forecasting by accounting for customer substitution behavior.
- It offers a more efficient alternative to traditional assortment optimization models.
- Accurate demand transfer estimation can lead to better inventory and assortment decisions.
Who benefits
Summary
This research introduces a method for estimating demand transfer coefficients at scale, allowing for efficient adjustments to independent item demand forecasts based on item availability. The approach improves demand forecasting accuracy by accounting for substitution behavior among millions of items.
Why it matters
Professionals in retail, supply chain, and e-commerce can leverage this method to optimize product assortments, reduce stockouts, and improve sales forecasting accuracy, leading to better inventory management and increased revenue.
How to implement this in your domain
- 1Integrate demand transfer coefficient estimation into existing forecasting models.
- 2Utilize the method to dynamically adjust inventory levels based on predicted substitution patterns.
- 3Analyze historical sales data to identify key substitution relationships between products.
- 4Pilot the approach in a specific product category to validate its impact on sales and inventory.
- 5Train data science teams on the principles of restricted logit modeling for demand transfer.
Original post by Lakshya Garg, Deep Narayan Mishra, Swapnil Yadav, Haoan Wang, Sujal Alugubelli, Karthik Kumaran, Anupriya Sharma
"arXiv:2608.12680v1 Announce Type: new Abstract: Item demand forecasting is an integral component of store assortment optimization. Existing literature focuses on learning a suitable customer choice model and using this model to determine the value of an objective function (i.e. e…"
View on XOriginally posted by Lakshya Garg, Deep Narayan Mishra, Swapnil Yadav, Haoan Wang, Sujal Alugubelli, Karthik Kumaran, Anupriya Sharma on X · view source
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