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Concept

A dealer scorecarding system within a Request for Quote (RFQ) protocol is the central nervous system for managing liquidity relationships and optimizing execution. It moves the practice of dealer selection from a purely relationship-driven art to a data-centric science. At its core, the system is an analytical framework designed to quantitatively measure and evaluate the performance of liquidity providers.

This is accomplished by capturing, analyzing, and ranking every aspect of a dealer’s interaction within the RFQ workflow. The primary function is to create a rigorous, evidence-based feedback loop that informs every future liquidity sourcing decision.

The systemic importance of such a framework extends far beyond simple cost analysis. It provides an institution with a profound level of control over its execution quality. By systematically tracking metrics, a buy-side firm gains deep insights into which dealers provide the most competitive pricing, who responds most reliably under specific market conditions, and who ultimately fulfills their quoted obligations with the highest fidelity.

This data-driven approach allows for the dynamic calibration of dealer panels, ensuring that requests are routed to the counterparties most likely to provide the best possible outcome for a given instrument, size, and level of market volatility. It is a foundational element of achieving best execution, transforming the abstract regulatory requirement into a tangible, measurable, and continuously improving operational process.

A robust scorecarding system institutionalizes learning from every trade, creating a persistent competitive advantage in execution.

This disciplined approach to performance measurement also fundamentally reshapes the dynamic between the buy-side institution and its liquidity providers. It establishes a clear, objective standard for performance. Dealers understand that their inclusion in future RFQs is contingent upon measurable results rather than solely on the strength of personal relationships. This fosters a more competitive and efficient environment where liquidity providers are incentivized to improve their service across multiple vectors, from the sharpness of their pricing to the speed of their response and the reliability of their post-trade settlement.

The scorecard becomes a powerful communication tool, enabling precise, data-backed conversations about performance, which can strengthen partnerships with high-performing dealers while providing clear justification for reducing exposure to those who consistently underperform. Ultimately, it architects a more resilient and efficient liquidity ecosystem for the institution.


Strategy

The strategic implementation of a dealer scorecarding system is predicated on a clear understanding of its objectives. The overarching goal is to construct a holistic view of dealer performance that aligns with the firm’s specific trading goals, whether they are minimizing implementation shortfall, maximizing fill rates for illiquid assets, or ensuring certainty of execution during volatile periods. A successful strategy begins with defining a balanced set of Key Performance Indicators (KPIs) that capture the full lifecycle of an RFQ interaction. These KPIs must extend beyond the singular dimension of price to encompass the equally critical domains of service quality and post-trade efficiency.

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The Multi-Dimensional Performance Matrix

A truly effective scorecarding strategy relies on a multi-dimensional view of dealer performance. Categorizing KPIs allows a firm to diagnose specific strengths and weaknesses in its dealer panel, moving beyond a simple “good” or “bad” label. This granular approach is essential for optimizing the dealer selection process for different types of trades.

For a standard, liquid trade, price competitiveness might be the highest-weighted factor. For a large, complex, multi-leg options trade, metrics like responsiveness and fill rate may take precedence.

The primary categories for evaluation typically include:

  • Pricing Competitiveness ▴ This measures the quality of the prices a dealer provides. Key metrics include Price Improvement vs. Midpoint, which calculates how much better the executed price was compared to the prevailing mid-market price at the time of the quote, and Win Rate, the percentage of time a dealer’s quote was the best among all respondents.
  • Execution Quality and Reliability ▴ This category assesses the certainty and efficiency of dealing with a counterparty. Important metrics are Fill Rate, the percentage of winning quotes that are actually executed, and Response Rate, how consistently a dealer provides a quote when solicited. A high response rate combined with a low fill rate can be a red flag for unreliable quoting.
  • Service and Responsiveness ▴ This dimension quantifies the operational efficiency of a dealer. Response Latency, the time it takes for a dealer to return a quote, is a critical factor, especially in fast-moving markets. Other qualitative factors, often captured through trader surveys, can include the dealer’s helpfulness in sourcing difficult-to-find liquidity or their willingness to handle complex orders.
  • Post-Trade Performance ▴ The interaction does not end at execution. This category tracks the efficiency of the settlement process. Metrics can include the rate of settlement failures or delays, which can introduce operational risk and costs.
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From Data to Decision an Analytical Framework

Once KPIs are defined and data is collected, the next strategic step is to build a model that translates this raw data into an actionable scorecard. This involves a process of normalization and weighting. Normalization is crucial because it allows for the comparison of different types of metrics (e.g. time-based latency vs. price-based improvement). A common method is to convert each KPI into a standardized score, such as a z-score, which measures how many standard deviations a dealer’s performance is from the average of all dealers.

Weighting is where the firm’s strategic priorities are encoded into the model. The firm must decide the relative importance of each KPI category. A firm focused on minimizing explicit costs might assign a 60% weight to Pricing Competitiveness, while a firm focused on certainty of execution for large block trades might give a higher weight to Execution Quality and Reliability.

These weights should be dynamic and adjustable, allowing the trading desk to tailor the scorecard’s focus based on prevailing market conditions or the specific characteristics of the order. The final output is a composite score for each dealer, providing a single, comprehensive measure of their overall value to the institution.

The strategic value of a scorecard is its ability to transform subjective dealer relationships into an objective, data-driven competition for flow.

The table below illustrates a sample strategic framework for weighting different KPI categories based on the trading objective.

Trading Objective Pricing Competitiveness Weight Execution Quality Weight Service & Responsiveness Weight Post-Trade Performance Weight
Standard Liquid Trades (Cost Focus) 60% 20% 10% 10%
Illiquid/Complex Trades (Certainty Focus) 30% 40% 20% 10%
High Urgency/Volatility (Speed Focus) 40% 20% 30% 10%
Relationship Development (Balanced View) 40% 30% 20% 10%

This strategic framework ensures that the scorecard is a dynamic tool that adapts to the needs of the trading desk. It moves the firm beyond a static ranking of dealers to a sophisticated system for intelligent counterparty selection. The ultimate strategic outcome is the creation of a virtuous cycle ▴ the firm sends more flow to its best-performing dealers, who in turn are incentivized to provide even better service, leading to continuously improving execution quality for the institution.


Execution

The execution of a dealer scorecarding system translates strategic intent into operational reality. This phase is about building the machinery that captures the data, performs the calculations, and delivers actionable insights to the trading desk. It requires a meticulous approach to data management, quantitative modeling, and technological integration.

Success hinges on creating a system that is not only accurate and robust but also intuitive and seamlessly embedded within the existing trading workflow. This is where the theoretical best practices are forged into a tangible competitive advantage.

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The Operational Playbook

Implementing a dealer scorecarding system is a multi-stage process that requires careful planning and cross-functional collaboration. The following playbook outlines the critical steps for a successful deployment.

  1. Stakeholder Alignment and Objective Definition ▴ The process begins with gathering input from all relevant stakeholders, including portfolio managers, traders, compliance officers, and technology teams. The primary objective is to define what “good execution” means for the firm and to translate that definition into a set of clear, measurable goals for the scorecarding system. This initial phase ensures that the system is built to serve the firm’s unique needs and priorities.
  2. KPI Selection and Data Sourcing ▴ Based on the defined objectives, the team must select a specific, measurable, and relevant set of KPIs. For each chosen KPI, the precise data source must be identified. This involves mapping out the data flow from the RFQ platform, the Order Management System (OMS), and any third-party market data providers. Data integrity is paramount; establishing clean, time-stamped data feeds is a critical prerequisite.
  3. Quantitative Model Design ▴ This is the analytical core of the system. The team must design the normalization and weighting methodologies.
    • Normalization ▴ Choose a method to bring all KPIs to a common scale. Common techniques include ranking, percentile scoring, or z-score calculation. The choice of method will depend on the statistical properties of the data.
    • Weighting ▴ Assign weights to each KPI based on the strategic priorities established in the initial phase. It is best practice to allow for multiple weighting schemes that can be applied based on asset class, order size, or market conditions.
    • Composite Score Calculation ▴ Define the final algorithm that combines the normalized, weighted KPIs into a single composite score for each dealer.
  4. System Development and Integration ▴ This involves building or configuring the software that will automate the scorecarding process. The system must be able to ingest data from multiple sources, execute the quantitative model, and store the results in a structured database. Crucially, the output of the system must be integrated back into the trading workflow. This could take the form of a dashboard within the EMS/OMS that displays dealer rankings and historical performance at the point of trade creation.
  5. Testing and Calibration ▴ Before going live, the system must be rigorously tested with historical data. This allows the team to validate the model’s logic, fine-tune the KPI weights, and ensure that the resulting scores are intuitive and align with the traders’ own experiences. This calibration phase is essential for building trust in the system.
  6. Deployment and Training ▴ Once calibrated, the system can be deployed to the trading desk. Comprehensive training is essential to ensure that traders understand how to interpret the scorecards and use them to inform their decision-making. The goal is to present the scorecard as a tool that enhances, rather than replaces, trader expertise.
  7. Continuous Review and Refinement ▴ A dealer scorecarding system is not a static tool. The market evolves, dealer performance changes, and the firm’s own priorities may shift. A formal process for periodically reviewing the system’s performance, the relevance of the KPIs, and the appropriateness of the weightings is essential for ensuring its long-term effectiveness.
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Quantitative Modeling and Data Analysis

The credibility of a dealer scorecarding system rests entirely on the quality of its quantitative foundation. The process begins with capturing granular data from the RFQ system for every single request. This raw data is the bedrock upon which all subsequent analysis is built.

The table below shows a simplified example of a raw RFQ data log that a firm would capture. Each row represents a single dealer’s response to a specific RFQ.

Raw RFQ Data Log
RFQ ID Timestamp (UTC) Instrument Dealer Side Size Quote Price Mid Price at Quote Response Time (ms) Awarded Filled
RFQ-001 2025-08-07 10:15:01.250 XYZ 100C 30D Dealer A BUY 500 2.55 2.56 150 Yes Yes
RFQ-001 2025-08-07 10:15:01.350 XYZ 100C 30D Dealer B BUY 500 2.57 2.56 250 No No
RFQ-001 2025-08-07 10:15:01.200 XYZ 100C 30D Dealer C BUY 500 2.56 2.56 100 No No
RFQ-002 2025-08-07 10:22:45.500 ABC 50P 60D Dealer A SELL 1000 4.10 4.08 200 No No
RFQ-002 2025-08-07 10:22:45.600 ABC 50P 60D Dealer B SELL 1000 4.09 4.08 300 No No
RFQ-002 2025-08-07 10:22:45.450 ABC 50P 60D Dealer C SELL 1000 4.11 4.08 50 Yes No

From this raw data, the system calculates the key performance indicators for each dealer over a specific period. These KPIs form the basis of the scorecard. For example, Price Improvement vs. Mid for a buy order is calculated as (Mid Price – Quote Price).

For a sell order, it is (Quote Price – Mid Price). A positive value always indicates a better price. The Fill Rate is calculated as the number of filled trades divided by the number of awarded trades.

The final step is to combine these individual KPIs into a composite score. This requires normalizing each KPI to a 0-100 scale (where 100 is best) and then applying the strategic weights. For example, if Price Improvement for Dealer A is normalized to a score of 90 and the weight for that KPI is 50%, it would contribute 45 points to the final composite score. This process is repeated for all KPIs, and the results are summed to produce a single, comprehensive score for each dealer, enabling objective, data-driven comparisons.

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Predictive Scenario Analysis

To illustrate the scorecarding system in action, consider the case of a portfolio manager at a large asset management firm who needs to execute a significant position in an illiquid, long-dated option on a mid-cap technology stock. The order is for 2,000 contracts of the ACME Corp $150 call option expiring in 180 days. The market for this option is thin, with wide bid-ask spreads and limited on-screen liquidity.

Information leakage is a major concern; a poorly handled RFQ could move the market against them before the trade is complete. The head trader, armed with a sophisticated dealer scorecarding system, is tasked with achieving the best possible execution.

The trader’s first action is to consult the scorecarding dashboard, filtering for performance in single-stock options on mid-cap tech names for order sizes over 1,000 contracts. The system has several pre-set weighting schemes. Given the illiquid nature of the instrument and the size of the order, the trader selects the “Illiquid/Complex Trades (Certainty Focus)” weighting scheme, which prioritizes Execution Quality (40%) and Service (20%) over raw Price Competitiveness (30%).

The system generates a ranked list of the firm’s 15 options dealers. The top five dealers according to this specific weighting scheme are:

  1. Dealer Delta ▴ Composite Score ▴ 92. Strengths ▴ Exceptional Fill Rate (98%), consistently provides liquidity in size, and has a strong qualitative rating for discretion. Pricing is competitive but not always the absolute best.
  2. Dealer Gamma ▴ Composite Score ▴ 88. Strengths ▴ Excellent pricing (often the top quote), but a slightly lower Fill Rate (92%) on very large orders. Known for being aggressive but can be less reliable on the final fill.
  3. Dealer Alpha ▴ Composite Score ▴ 85. Strengths ▴ Extremely fast response times and a perfect Fill Rate (100%), but their quotes are typically less aggressive, sitting further from the mid-price. They offer certainty at a cost.
  4. Dealer Sigma ▴ Composite Score ▴ 78. Strengths ▴ A good all-around performer with balanced scores across all categories. A reliable choice but rarely the top performer in any single metric.
  5. Dealer Beta ▴ Composite Score ▴ 65. Weaknesses ▴ The data shows a pattern of providing very attractive “bait” quotes to win the auction, but then failing to fill the full size (a low Fill Rate of 75% on awarded trades). The system flags this dealer for “fulfillment risk.”

Without the scorecard, the trader might have been tempted to include Dealer Beta in the RFQ due to their reputation for aggressive pricing. However, the data-driven insight into their poor fill rate makes them a clear risk for an order of this nature. The trader decides to construct a targeted RFQ panel consisting of Dealer Delta, Dealer Gamma, and Dealer Alpha.

This panel is strategically designed to create a competitive auction while maximizing the probability of a full and discreet execution. Dealer Delta is the anchor for reliability, Dealer Gamma is included to sharpen the pricing, and Dealer Alpha provides a guaranteed backstop, albeit likely at a less favorable price.

The RFQ is sent. Dealer Alpha responds almost instantly with a quote of $5.20. Dealer Gamma follows with a more aggressive quote of $5.10. Dealer Delta, known for its careful consideration, responds last with a quote of $5.12 but indicates a willingness to trade up to 3,000 contracts at that level.

The trader awards the trade to Dealer Gamma at $5.10. However, Dealer Gamma immediately responds that they can only fill 1,000 contracts at that price, confirming the fulfillment risk pattern identified by the scorecard, albeit less severe than Dealer Beta’s. The trader fills the 1,000 contracts and immediately sends a new RFQ for the remaining 1,000 contracts to Dealer Delta and Dealer Alpha. Dealer Delta holds their price of $5.12 and fills the remaining 1,000 contracts instantly.

The post-trade analysis module of the scorecarding system automatically logs the outcome. The blended execution price is $5.11. The system notes Dealer Gamma’s partial fill, which will negatively impact their Execution Quality score in the next cycle. It also positively reinforces Dealer Delta’s reliability score.

This entire event, from pre-trade analysis to post-trade data capture, enriches the system, making the next execution decision even more informed. The scenario demonstrates how the scorecarding system transforms the execution process from a speculative art into a strategic, data-driven discipline, directly mitigating risk and improving performance.

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System Integration and Technological Architecture

The technological architecture of a dealer scorecarding system is designed to support a continuous, automated data pipeline from trade inception to post-trade analysis. The system is not a standalone application but rather a deeply integrated component of the firm’s overall trading infrastructure.

The core components of the architecture include:

  • Data Ingestion Layer ▴ This layer is responsible for capturing all the necessary data points in real-time. It requires robust connections to multiple source systems.
    • RFQ Platform/EMS ▴ This is the primary source for RFQ-specific data, such as dealer quotes, response times, and award information. Integration is typically achieved via APIs or by capturing and parsing FIX (Financial Information eXchange) protocol messages. Specifically, messages like QuoteRequest, QuoteResponse, and ExecutionReport are captured and their relevant tags (e.g. QuoteID, Symbol, Price, OrderQty ) are parsed and stored.
    • OMS ▴ The Order Management System provides crucial context, such as the parent order details, portfolio manager instructions, and final fill information.
    • Market Data Provider ▴ A real-time feed of market data is essential for calculating metrics like Price Improvement vs. Mid. The system needs to capture a snapshot of the market state at the precise moment a quote is received.
  • Data Processing and Storage ▴ The captured raw data is fed into a centralized database, often a time-series database optimized for financial data. A processing engine, which could be a set of scheduled scripts or a stream-processing application, runs periodically (e.g. nightly or in real-time) to clean the data, calculate the defined KPIs, and compute the composite scorecard values.
  • Analytical Engine ▴ This is the heart of the system, where the quantitative model resides. It applies the normalization rules and weighting schemes to the calculated KPIs. This engine must be flexible, allowing administrators to easily adjust weights and add new KPIs as the firm’s strategy evolves.
  • Presentation Layer ▴ The output of the analytical engine must be delivered to the end-users in an intuitive and actionable format. This typically involves:
    • A detailed web-based dashboard for deep-dive analysis by trading desk heads and compliance officers.
    • An integrated “widget” or panel within the EMS/OMS that displays a concise version of the scorecard (e.g. top 5 dealers for the current order) directly in the trader’s workflow, providing decision support at the critical moment of dealer selection.

This integrated architecture ensures that the scorecarding process is not a manual, after-the-fact reporting exercise. It becomes a living, breathing part of the execution workflow, providing a continuous feedback loop that drives intelligent decision-making and systematically improves execution quality over time.

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References

  • Harris, Larry. “Trading and Exchanges ▴ Market Microstructure for Practitioners.” Oxford University Press, 2003.
  • O’Hara, Maureen. “Market Microstructure Theory.” Blackwell Publishers, 1995.
  • Johnson, Barry. “Algorithmic Trading and DMA ▴ An introduction to direct access trading strategies.” 4Myeloma Press, 2010.
  • Kissell, Robert. “The Science of Algorithmic Trading and Portfolio Management.” Academic Press, 2013.
  • SEC Office of the Chief Economist. “Analysis of RFQ Trading in the Corporate Bond Market.” Division of Economic and Risk Analysis, 2021.
  • Lehalle, Charles-Albert, and Sophie Laruelle, editors. “Market Microstructure in Practice.” World Scientific Publishing Company, 2018.
  • Tradeweb Markets. “Measuring Execution Quality for Portfolio Trading.” Tradeweb Insights, 2021.
  • Janus Henderson Investors. “A Buy-Side Perspective ▴ A practical approach to Best Execution.” Global Trading, 2023.
  • Quantitative Brokers. “Transaction Cost Analytics (TCA).” Company Publication, 2022.
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Reflection

Implementing a quantitative scorecarding framework is a declaration of intent. It signals a commitment to operational precision and the systematic pursuit of superior execution. The data, models, and technology are the instruments, but the ultimate objective is to cultivate a deeper intelligence about the firm’s own interaction with the market.

Each data point captured is a lesson learned; each calculated score is a step toward refining the firm’s access to liquidity. The system’s true power is its ability to create a persistent, institutional memory that compounds over time.

Consider how such a system would reshape the dialogue within your own operational framework. How would data-driven conversations with liquidity providers alter those relationships? What new strategic possibilities emerge when dealer selection is optimized not just for a single trade, but for the long-term performance of the entire firm?

The scorecard is a mirror, reflecting the quality of every execution decision. The critical question is how that reflection will be used to architect a more resilient and efficient future.

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Glossary

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Dealer Scorecarding System

The number of RFQ dealers dictates the trade-off between price competition and information risk.
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Liquidity Providers

Meaning ▴ Liquidity Providers (LPs) are critical market participants in the crypto ecosystem, particularly for institutional options trading and RFQ crypto, who facilitate seamless trading by continuously offering to buy and sell digital assets or derivatives.
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Execution Quality

Meaning ▴ Execution quality, within the framework of crypto investing and institutional options trading, refers to the overall effectiveness and favorability of how a trade order is filled.
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Best Execution

Meaning ▴ Best Execution, in the context of cryptocurrency trading, signifies the obligation for a trading firm or platform to take all reasonable steps to obtain the most favorable terms for its clients' orders, considering a holistic range of factors beyond merely the quoted price.
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Dealer Scorecarding

Meaning ▴ Dealer Scorecarding, in the domain of institutional crypto trading and Request for Quote (RFQ) systems, refers to the systematic process of evaluating the performance and quality of liquidity providers (dealers) based on a predefined set of metrics.
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Dealer Selection

Meaning ▴ Dealer Selection, within the framework of crypto institutional options trading and Request for Quote (RFQ) systems, refers to the strategic process by which a liquidity seeker chooses specific market makers or dealers to solicit quotes from for a particular trade.
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Fill Rate

Meaning ▴ Fill Rate, within the operational metrics of crypto trading systems and RFQ protocols, quantifies the proportion of an order's total requested quantity that is successfully executed.
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Price Improvement

Meaning ▴ Price Improvement, within the context of institutional crypto trading and Request for Quote (RFQ) systems, refers to the execution of an order at a price more favorable than the prevailing National Best Bid and Offer (NBBO) or the initially quoted price.
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Response Latency

Meaning ▴ Response Latency, within crypto trading systems, quantifies the time delay between the initiation of an action, such as submitting an order or a Request for Quote (RFQ), and the system's corresponding reaction, like an order confirmation or a definitive price quote.
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Composite Score

Appropriate weighting balances price competitiveness against response certainty, creating a systemic edge in liquidity sourcing.
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Trading Desk

Meaning ▴ A Trading Desk, within the institutional crypto investing and broader financial services sector, functions as a specialized operational unit dedicated to executing buy and sell orders for digital assets, derivatives, and other crypto-native instruments.
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Scorecarding System

The OMS codifies investment strategy into compliant, executable orders; the EMS translates those orders into optimized market interaction.
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Order Management System

Meaning ▴ An Order Management System (OMS) is a sophisticated software application or platform designed to facilitate and manage the entire lifecycle of a trade order, from its initial creation and routing to execution and post-trade allocation, specifically engineered for the complexities of crypto investing and derivatives trading.
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Rfq System

Meaning ▴ An RFQ System, within the sophisticated ecosystem of institutional crypto trading, constitutes a dedicated technological infrastructure designed to facilitate private, bilateral price negotiations and trade executions for substantial quantities of digital assets.
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Dealer Delta

The number of RFQ dealers dictates the trade-off between price competition and information risk.
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Dealer Gamma

A dealer's second-order risks in a collar are the costs of managing the instability of their primary directional and volatility hedges.
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Dealer Alpha

The number of RFQ dealers dictates the trade-off between price competition and information risk.