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Explainable AI outperforms sales staff at predicting win/loss of complex configure‑to‑order offers — achieving 83.9% balanced accuracy overall versus 63.0% for human estimates — and provides SHAP explanations practitioners found understandable and actionable, though expert evaluation was limited to a small, selective sample.

Predicting sales offer success of industrial configure-to-order equipment: evaluating explainable AI approach with B2B sales experts
Tuomas Sormunen, Arttu Lämsä, Johannes Peltola, Marko Jurvansuu, Sari Järvinen · August 27, 2026 · Journal of Marketing Analytics
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An XGBoost model trained on CRM and CPQ data predicted win/loss of configure-to-order industrial sales offers substantially better than sales personnel and produced SHAP explanations that experts judged understandable and useful for prioritization and offer improvement.

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Abstract This study investigates the use of explainable artificial intelligence (AI) for predicting sales offer success in the business-to-business (B2B) context of configure-to-order industrial equipment. Using real sales data from over 400 sales cases and extracted from customer relationship management and Configure-Price-Quote systems of an industrial partner, we built a gradient boosted decision tree (XGBoost) model to predict win/loss outcomes of sales cases. Model explainability was enabled through Shapley additive explanations (SHAP) to identify and quantify feature contributions to individual predictions. The predictive performance of the model was compared against assessments made by experienced sales experts using the same cases. The model achieved balanced accuracies of 83.9% on the full dataset and 74.1% on a regional subset, substantially outperforming expert predictions, which reached 63.0 and 54.4%, respectively. To evaluate the practical value of explainable AI, 5 sales experts reviewed SHAP-based explanations through a structured questionnaire using real regional sales cases. The results show partial alignment between model-identified important features and expert reasoning, while also revealing features with strong predictive power that experts regarded as unintuitive or unimportant. Despite these discrepancies, experts reported that the explanations were understandable and actionable in a sales context. In particular, they perceived the system as useful for prioritizing sales opportunities and identifying ways to modify offers to increase success probability. Overall, the findings demonstrate that explainable AI can outperform human experts in sales success prediction while also providing interpretable insights that support decision-making in B2B sales practice.

Summary

Main Finding

An XGBoost model using CRM and CPQ data for configure-to-order industrial equipment predicted sales offer win/loss substantially better than experienced sales staff (balanced accuracy 83.9% on the full dataset, 74.1% on a regional subset vs. expert benchmark 63.0% and 54.4%, respectively). SHAP explanations identified key drivers (notably a PRICE FEATURE #1 and derived price-ratio features) and were judged by sales experts to be understandable and actionable, although some model-important features were unintuitive to experts.

Key Points

  • Data: 439 finished sales offers after cleaning (1062 initial offers with CPQ+CRM; 615 had outcomes before filtering). Samples came from two countries: country A (n=146) and country B (n=293). Overall win rate ~33% (both countries) and ~56% in country A subset.
  • Model & performance:
    • Algorithm: XGBoost (XGBClassifier, native/default parameters, random_state=66).
    • Preprocessing: categorical one-hot encoding; numerical standardization.
    • Train/test split: 90/10 random split (seed=210).
    • Metrics: balanced accuracy used to address class imbalance.
    • Results: balanced accuracy 83.9% (full dataset), 74.1% (country A-specific model).
  • Human benchmark:
    • Salespeople record a win-probability in CRM; binarized (>50% = win) and used as expert baseline.
    • Expert baseline performance: balanced accuracy 63.0% (full), 54.4% (country A).
  • Explainability:
    • SHAP (Shapley additive explanations) used to produce global (mean absolute SHAP) and local (beeswarm / per-case) explanations.
    • PRICE FEATURE #1 had the largest SHAP impact; a price-ratio (PRICE FEATURE #2 = PRICE1 / PRICE3) and other price-related features were also important. High values of PRICE FEATURE #1 increased predicted win probability.
  • Expert evaluation:
    • Five business operations/sales experts reviewed 4 test cases (2 wins, 2 losses) with the model predictions and SHAP explanations, plus regional (country A) SHAP summaries.
    • Findings: partial alignment between model-important features and expert reasoning; some strong predictive features were considered unintuitive or unimportant by experts. Overall, experts found explanations understandable and useful for prioritization and offer modification.
  • Open-data demonstration:
    • The authors also applied the pipeline to a public bank marketing dataset (after cleaning: n=30,488, 56 features) to demonstrate general model functionality.

Data & Methods

  • Source: proprietary CRM + CPQ data from a configure-to-order industrial equipment vendor; sensitive fields anonymized and low-frequency categorical levels (≤5 occurrences) removed.
  • Outcome: binary finished-offer result (won vs lost); unfinished offers were excluded.
  • Feature set (post-encoding): product features (12 → 55 after encoding), organizational features (7 → 18), customer features (3 → 21), 3 extracted product features (→5), and 3 price features.
  • Preprocessing:
    • Removed rows with very low-frequency categorical values.
    • One-hot encoding for categorical variables; standard scaling for numeric.
    • Excluded CRM entries where salespersons recorded exactly 50% predicted probability (overrepresented).
  • Modeling:
    • XGBoost with native params, random_state=66.
    • Evaluation: single 90/10 train-test split (seed=210); balanced accuracy and confusion matrices reported.
  • Explainability & evaluation:
    • SHAP for global and local feature importance and directional effects (mean absolute SHAP values, beeswarm plots).
    • Expert questionnaire: 5 respondents, presented selected top-N SHAP features (N chosen by SHAP threshold ≥0.29 mean) and asked to predict, rate feature importance, and rate agreement with explanations (Likert 1–5). Regional/global explanations presented in natural language plus arrow-quantified impacts.

Implications for AI Economics

  • Productivity & allocation: High predictive accuracy implies AI can substantially improve lead prioritization and sales resource allocation in B2B CTO markets, raising expected returns per salesperson-hour by focusing effort on higher-probability offers.
  • Pricing and offer design: Model-identified price-related features (PRICE FEATURE #1 and price ratio) being top predictors suggests firms can optimize configuring/pricing strategies to improve conversion; AI can surface counterintuitive pricing effects that human heuristics miss.
  • Human-AI collaboration & adoption:
    • Explainable outputs (SHAP) increase interpretability and perceived actionability, facilitating adoption by sales teams and managers.
    • Partial misalignment between model drivers and expert intuition cautions that explainability does not guarantee acceptance—economic value depends on trust-building, user training, and integrating explanations into workflows.
  • Labor and incentive effects:
    • Better predictions may shift commission structures and task allocation (e.g., fewer low-probability pursuits), with potential effects on salesforce workload, compensation fairness, and morale—requiring redesign of incentives.
  • Value of explainability for decision support:
    • Explainable AI can make recommendations actionable (e.g., suggesting feature modifications), enabling firms to treat models not only as predictors but as prescriptive tools; this increases the marginal value of predictive models beyond forecast accuracy.
  • Limits and risks that affect economic valuation:
    • Small proprietary sample (n=439) and geographic heterogeneity limit external validity; economic benefits should be validated with field experiments or A/B tests before large-scale deployment.
    • Excluding unfinished cases and overrepresented 50% expert entries may bias results; predictions may reflect product mix or historical pricing rather than causal levers.
    • Potential for models to reinforce historical biases (e.g., favoring certain customer types) that economically disadvantage segments—monitoring and constraints may be required.
  • Research & practitioner priorities:
    • Economic assessment should move beyond predictive metrics to measure downstream outcomes: conversion lift, revenue impact, cost savings, and changes in salesperson behavior.
    • Randomized trials where teams use SHAP explanations to adjust offers (vs control) would quantify causal economic benefits and detect unintended effects on effort allocation and incentives.

Suggested next steps for researchers and practitioners: run randomized pilot deployments that measure revenue and effort reallocation, expand datasets across markets/products to test generalizability, and quantify cost–benefit including implementation, training, and governance costs.

Assessment

Paper Typedescriptive Evidence Strengthmedium — While predictive metrics show a large performance gap in favor of the model on held-out data, limitations include a small, filtered proprietary sample, a single train/test split without robustness checks, potential label/feature selection biases, and a constrained expert evaluation (few experts and hand-picked cases), so conclusions about general practical impact should be cautious. Methods Rigormedium — Standard, appropriate tools were used (XGBoost, one-hot encoding, standardization, SHAP) and performance is reported with balanced accuracy and confusion matrices, but the study lacks hyperparameter tuning details, cross-validation or repeated splits to assess stability, limited transparency about anonymized features, and the expert evaluation is small and biased (cases selected where the model was correct). The open-data demonstration is useful but in a different domain (B2C banking), limiting external validation. SampleProprietary CRM + CPQ dataset from one industrial configure-to-order equipment firm: initially 1,062 offers with CPQ+CRM, 615 with final win/loss outcomes, 439 sales cases after cleaning/filtering (country A n=146; country B n=293). Features include product (12 -> 55 after encoding), organizational (7 -> 18), customer (3 -> 21 after encoding), extracted product features (3 -> 5), and price features (3); target is finished offer outcome (won/lost). Salespeople-provided win-probabilities (binarized and with 50% cases excluded) were used as expert benchmark. Additional demonstration on an open B2C bank-marketing dataset (30,488 samples, 56 features). Themeshuman_ai_collab productivity GeneralizabilitySingle-firm dataset (one vendor) from a niche CTO industrial setting limits industry generalization, Small sample size (N=439) after filtering reduces robustness, Two-country sample but only one region (country A) had expert evaluation; regional heterogeneity not fully explored, Feature anonymization and removal of rare categories may bias the feature set and findings, Expert evaluation is tiny (5 respondents) and used only 4 selected cases (cases the model predicted correctly), introducing selection bias, Open-dataset demonstration is B2C banking (different domain), limiting transferability to B2B CTO contexts

Claims (8)

ClaimDirectionOutcomeConfidence & EvidenceDetails
An XGBoost model predicted win/loss outcomes for industrial configure-to-order sales offers with a balanced accuracy of 83.9% on the full dataset. Decision Quality positive Balanced accuracy of sales-offer win/loss prediction
Reading fidelity high
Study strength medium
n=439
83.9% balanced accuracy
0.18
The country A-specific XGBoost model predicted sales-offer win/loss outcomes with a balanced accuracy of 74.1%. Decision Quality positive Balanced accuracy of country A sales-offer win/loss prediction
Reading fidelity high
Study strength medium
n=146
74.1% balanced accuracy
0.18
The XGBoost model outperformed sales experts in predicting sales-offer success, achieving balanced accuracies of 83.9% versus 63.0% for the full dataset and 74.1% versus 54.4% for the regional subset. Decision Quality positive Relative accuracy of model versus expert sales-success predictions
Reading fidelity high
Study strength medium
n=439
20.9 percentage-point advantage on the full dataset and 19.7 percentage-point advantage on country A
0.18
PRICE FEATURE #1 was the feature with the greatest impact on the model's predictions in both the full dataset and the country A-specific model. Decision Quality positive Feature contribution to predicted sales-offer success
Reading fidelity high
Study strength medium
n=439
0.18
Higher values of PRICE FEATURE #1 were associated with a higher predicted probability that an offer would succeed, while lower values were associated with a lower predicted probability. Decision Quality positive Predicted probability of sales-offer success
Reading fidelity high
Study strength low
n=395
0.09
Sales experts showed only partial agreement with the features identified by the model as important: some features with strong predictive power were regarded by experts as unintuitive or unimportant. Ai Safety And Ethics mixed Expert agreement with model-identified feature importance and explanations
Reading fidelity high
Study strength low
n=5
0.09
Despite discrepancies between model feature importance and expert reasoning, the sales experts considered the SHAP explanations understandable and actionable in a sales context. Decision Quality positive Expert-perceived understandability and actionability of AI explanations
Reading fidelity high
Study strength low
n=5
0.09
Experts perceived the explainable AI system as useful for prioritizing sales opportunities and identifying ways to modify offers to increase their probability of success. Task Allocation positive Perceived usefulness of explainable AI for sales opportunity prioritization and offer modification
Reading fidelity high
Study strength low
n=5
0.09

Notes