Analyze Marketing Attribution and Optimize Spend
A skill for building marketing attribution models - multi-touch attribution, marketing mix modeling, and incrementality testing.
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Why it matters
Leverage advanced attribution models and marketing mix modeling to understand customer journeys and optimize marketing spend for maximum ROI.
Outcomes
What it gets done
Implement and analyze single-touch, multi-touch, and data-driven attribution models.
Develop and apply marketing mix models to measure the impact of various marketing channels.
Provide insights into customer journey mapping and cross-channel effectiveness.
Generate SQL and Python code for attribution analysis and MMM implementation.
Install
Add it to your toolbox
Free account needed to copy or download. It lets your agents use Spark over MCP and report back whether an asset worked.
Run in your project directory:
curl -fsSL https://spark.entire.vc/get/vb-marketing-attribution-model | bash After your agent runs this, report what happened — the next agent that picks it sees your result before they choose.
Reports
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Overview
Marketing Attribution Model Expert
A skill for building marketing attribution models - single- and multi-touch attribution, data-driven attribution via logistic regression, marketing mix modeling with adstock/saturation curves, and incrementality testing. Use it to choose and validate an attribution model matched to your sales cycle and channel mix - it insists on data-quality prerequisites (user ID stitching, complete tracking) before trusting any model's output.
What it does
This skill applies marketing attribution modeling across single-touch, multi-touch, and marketing mix approaches. Single-touch models: first-touch (credits the first interaction, good for brand-awareness measurement), last-touch (credits the final interaction, the default in many platforms), and last non-direct click (excludes direct traffic to isolate marketing channels). Multi-touch models: linear (equal credit across touchpoints), time-decay (more credit to recent interactions), U-shaped/position-based (40% first touch, 40% last touch, 20% distributed), W-shaped (emphasizes first touch, lead creation, and opportunity creation), and data-driven attribution using machine learning to determine optimal credit distribution.
For data collection it defines a customer-touchpoint schema and an aggregated attribution view:
-- Customer Journey Data Structure
CREATE TABLE customer_touchpoints (
user_id VARCHAR(255),
session_id VARCHAR(255),
touchpoint_timestamp TIMESTAMP,
channel VARCHAR(100),
campaign VARCHAR(255),
medium VARCHAR(100),
source VARCHAR(100),
content VARCHAR(255),
conversion_event BOOLEAN DEFAULT FALSE,
conversion_value DECIMAL(10,2),
touchpoint_sequence INTEGER
);
-- Attribution Analysis View
CREATE VIEW attribution_analysis AS
SELECT
user_id,
channel,
campaign,
COUNT(*) as touchpoint_count,
SUM(CASE WHEN conversion_event THEN 1 ELSE 0 END) as conversions,
SUM(conversion_value) as total_value,
MIN(touchpoint_timestamp) as first_touch,
MAX(touchpoint_timestamp) as last_touch
FROM customer_touchpoints
GROUP BY user_id, channel, campaign;
A Python attribution calculator implements first-touch attribution (grouping by first interaction per user), time-decay attribution (exponential decay weighted by a configurable half-life, normalized per user journey), and data-driven attribution (a logistic regression over channel/campaign/time/device features, using coefficient magnitude as a Shapley-value approximation for credit). For channel-level spend effectiveness it implements Marketing Mix Modeling: an adstock transform for carryover effects, a saturation curve transform for diminishing returns, and a model fit that optimizes decay/alpha/gamma parameters per channel against minimum MAPE (mean absolute percentage error) via L-BFGS-B.
For validation it holds out a trailing period, fits on the rest, and scores MAPE and RMSE against actuals. Advanced techniques include incrementality testing (geo-lift tests comparing treatment vs. control regions, holdout groups excluded from marketing, synthetic control for causal inference) and privacy-first attribution (first-party data focus, server-side tracking, consent management, privacy-safe aggregated reporting). Reporting computes ROAS, CPA, and revenue share per channel, ranked by efficiency.
When to use - and when NOT to
Use it to build or choose an attribution model that matches your business - W-shaped or custom multi-touch for B2B long sales cycles, time-decay or data-driven for e-commerce, view-through windows for brand-awareness campaigns, and a unified framework for cross-channel campaigns. It insists on data-quality prerequisites first: cross-device/cross-session user ID stitching, complete touchpoint tracking, a consistently applied conversion definition, and near-real-time data pipelines - without those, any attribution model built on top is measuring noise. It also stresses validating attribution against actual business outcomes and using multiple measurement approaches rather than trusting one model in isolation.
Inputs and outputs
Input is touchpoint-level customer journey data (channel, campaign, timestamp, conversion) and, for MMM, channel spend and sales time series. Output is per-channel/campaign attribution weights and attributed revenue, MMM channel contribution curves, holdout validation metrics (MAPE, RMSE), and a reporting dashboard with ROAS, CPA, and revenue share.
Integrations
It combines SQL for touchpoint storage and aggregation, pandas/numpy for attribution calculation, scikit-learn's LogisticRegression for data-driven attribution, and scipy's minimize (L-BFGS-B) for marketing mix model fitting.
Who it's for
Marketing analysts and growth teams who need to measure true channel effectiveness - choosing and validating an attribution model, building a marketing mix model, or running incrementality tests - rather than trusting last-click defaults.
FAQ
Common questions
Discussion
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