Predicting Startup-VC Fund Matches with Structural Embeddings and Temporal Investment Data

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  • Title: Predicting Startup-VC Fund Matches with Structural Embeddings and Temporal Investment Data
  • ArXiv ID: 2511.23364
  • Date: 2025-11-28
  • Authors: ** Koutarou Tamura (Uzabase, Inc., Japan) **

📝 Abstract

This study proposes a method for predicting startup inclusion, estimating the probability that a venture capital (VC) fund will invest in a given startup. Unlike general recommendation systems, which typically rank multiple candidates, our approach formulates the problem as a binary classification task tailored to each fund-startup pair. Each startup is represented by integrating textual, numerical, and structural features, with Node2Vec capturing network context and multi-head attention enabling feature fusion. Fund investment histories are encoded as LSTM-based sequences of past investees. Experiments on Japanese startup data demonstrate that the proposed method achieves higher accuracy than a static baseline. The results indicate that incorporating structural features and modeling temporal investment dynamics are effective in capturing fund-startup compatibility.

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Predicting Startup–VC Fund Matches with Structural Embeddings and Temporal Investment Data Koutarou Tamura Uzabase, Inc., Japan. Email: koutarou.tamura@uzabase.com, k.tamura.phd@gmail.com Abstract—This study proposes a method for predicting startup inclusion, estimating the probability that a venture capital (VC) fund will invest in a given startup. Unlike general recommen- dation systems, which typically rank multiple candidates, our approach formulates the problem as a binary classification task tailored to each fund–startup pair. Each startup is represented by integrating textual, numerical, and structural features, with Node2Vec capturing network context and multi-head attention enabling feature fusion. Fund investment histories are encoded as LSTM-based sequences of past investees. Experiments on Japanese startup data demonstrate that the proposed method achieves higher accuracy than a static baseline. The results indicate that incorporating structural features and modeling temporal investment dynamics are effective in captur- ing fund–startup compatibility. Index Terms—Startup Investment, Fund Portfolio, Dynamic Embedding, Matching Model, Natural Language Processing, Graph Representation, Venture Capital I. INTRODUCTION In recent years, investment in startup companies has inten- sified both domestically and internationally. Accordingly, the importance of making portfolio decisions based on rigorous evaluation of individual firms’ growth potential and future prospects has increased. In Japan, notably, the government launched a five-year national startup support initiative led by the Cabinet Office [1], resulting in a broader range of industries and business stages becoming eligible for venture funding. These startup companies are typically supported during their early growth stages through investments from corporate firms and venture capital (VC) funds. The presence or absence of such financial support can exert a significant influence on the trajectory of business development. In recent years, overseas venture capital firms have also been increasing their presence, contributing to a growing volume of investment activity in the Japanese market. In fact, domestic startup funding peaked in 2022 and has since remained at a high level—approximately 800 billion yen annually—with the average amount raised per company continuing to increase [2]. Under such circumstances, fund managers and investment support institutions are required to identify appropriate invest- ment targets from among the growing and diverse pool of emerging startups, and to make informed decisions regarding their inclusion in investment portfolios. In the financial do- main, portfolio construction is typically grounded in quantita- tive assessment and optimization of risk and return. While such evaluations can be conducted based on stock prices in the case of publicly listed companies, unlisted startups generally lack real-time market valuation data. As a result, investment deci- sions for startups often rely on qualitative information, such as business descriptions and industry classifications. However, these types of information are typically updated infrequently and may fail to capture temporal changes. Consequently, investment decisions are also informed by relational infor- mation—such as historical co-investment patterns and shared portfolio holdings with previous funds—indicating that startup evaluation often depends not only on intrinsic attributes, but also on their position within the broader investment network. To address these challenges, this study proposes a method for estimating the likelihood that a newly emerging startup will be included in a venture capital (VC) fund’s portfolio. The approach involves designing both startup and fund embeddings by integrating semantic information—such as firm-specific qualitative and quantitative attributes (e.g., numerical indica- tors and textual business descriptions)—with structural fea- tures derived from inter-firm relationships as captured by his- torical portfolio co-investment data. This fusion of meaning- based and structure-based features enables a representation that reflects both the intrinsic characteristics of individual firms and their relational positioning within the investment ecosystem. In this study, we frame startup investment recommendation as an inclusion prediction task. Rather than ranking multiple candidates, we aim to estimate whether a specific candidate startup will be included in a particular VC fund’s portfolio, given its historical investments. We adopt the term “inclusion prediction” throughout this paper to refer to this fund-specific binary classification task. II. RELATED WORK In the context of estimating the likelihood that a startup will be included in a VC fund’s portfolio, existing research can be broadly categorized into three major approaches: (1) learning embedding representations of individual companies, (2) modeling company–fund relationships

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