Dr. Uzair Javaid

Dr. Uzair Javaid is the CEO and Co-Founder of Betterdata AI, a company focused on Programmable Synthetic Data generation using Generative AI and Privacy Engineering. Betterdata’s technology helps data science and engineering teams easily access and share sensitive customer/business data while complying with global data protection and AI regulations.
Previously, Uzair worked as a Software Engineer and Business Development Executive at Merkle Science (Series A $20M+), where he worked on developing taint analysis techniques for blockchain wallets. 

Uzair has a strong academic background in Computer Science/Engineering with a Ph.D. from National University of Singapore (Top 10 in the world). His research focused on designing and analyzing blockchain-based cybersecurity solutions for cyber-physical systems with specialization in data security and privacy engineering techniques. 

In one of his PhD. projects, he reverse engineered the encryption algorithm of Ethereum blockchain and ethically hacked 670 user wallets. He has been cited 600+ times across 15+ publications in globally reputable conferences and journals, and has also received recognition for his work including Best Paper Award and Scholarships. 

In addition to his work at Betterdata AI, Uzair is also an advisor at German Entrepreneurship Asia, providing guidance and expertise to support entrepreneurship initiatives in the Asian region. He has been actively involved in paying-it-forward as well, volunteering as a peer student support group member at National University of Singapore and serving as a technical program committee member for the International Academy, Research, and Industry Association.

Digital Transformation in the Finance and Banking Industry using Synthetic Data

Dr. Uzair Javaid
July 11, 2024

Table of Contents

"While traditional banks have been convenient one-stop shops, many haven't evolved their products in a way that matches the tech-driven pace of change in other industries." - Mckinsey and Company


The financial industry of Singapore is predicted to grow by 33.5% to reach US 2.70 billion dollars in 2024 and continuing the same trend is predicted to reach US 7.58 billion dollars by 2029. This comes in part of a larger trend of the growing financial sector in the Asia-Pacific which according to The World Bank is ‘growing faster than the rest of the world’


1. What’s happening in the World of Finance and Banking: 

"By 2030 leading banks will become a trusted interface for life, embedded within the needs and lifestyle of consumers." - KPMG

In recent years, the banking and finance industries globally have witnessed significant advancements driven by digitization, innovation, and strategic branding. Financial institutions are increasingly adopting digital technologies such as blockchain, artificial intelligence (AI), and machine learning (ML) to enhance operational efficiency, security, and customer experience. Digital banking platforms and fin-tech startups are revolutionizing traditional banking services, offering seamless and personalized financial solutions. Additionally, open banking initiatives are fostering greater competition and innovation by allowing third-party developers to build new financial products and services. 


Key Trends and Predictions:

  • Financial services are integrating into the lives of consumers and the future success of these financial organizations depends on who controls customer interaction. 
  • Artificial intelligence will become a big component in how financial organizations analyze customer behavior for fraud detection, credit risk modelling, etc.  
  • As data becomes widespread and people adopt technology neo-banks, and other fin-tech players will streamline consumers’ digital interactions. 
  • Customers will start demanding high levels of data security and financial organizations that consumers trust will have a better chance of leading the market

Source: 

The Future of Banking and Financial Services

Future of Digital Banking in 2030

The financial industry in any country is the soul of the nation which impacts the day-to-day life of its people to the global economic standing of the country. As nations, governments, and organizations look ahead to transform their financial industries, especially the banking sector digitally, the problem of ‘DATA’ must first be solved. 


2. The ‘DATA’ Problem:

Data while abundant is not easily acquired or used. Consumers are now becoming more aware of how, where, and when their data is used, and governments are now actively implementing strict data privacy and protection laws. 137 out of 194 countries have now passed legislative laws to protect personal data, with millions of dollars worth of fines issued globally. 

However, data privacy and data protection are not the only bottlenecks that financial organizations have to face. Most financial organizations rely heavily on legacy data anonymization techniques to pseudonymize, suppress, destroy, or mask historical data to protect Personally Identifiable Information (PII) and then use this anonymized data for machine learning, analysis, product development, etc. As discussed in our previous article, legacy data anonymization techniques no longer work for the following reasons:

1. Anonymized data is inversely proportional to data utility i.e. the more we anonymize data the more we lose its utility. 

2. Anonymized data is not as safe as it used to be and as technology advances the risk of reidentification of personal identifiable information (PII)  has increased. 

Real vs Synthetic Data

3. The ‘Synthetic Data’ Solution: 


a. What is Synthetic Data?

Synthetic data is artificially generated information that replicates the statistical properties of real-world data, offering a robust solution to privacy and availability constraints inherent in the use of actual datasets. Advanced methodologies, including Generative Adversarial Networks (GANs) and variational autoencoders, are at the forefront of synthetic data generation, leveraging complex machine learning algorithms to create high-fidelity datasets. GANs, for instance, employ a dual-network architecture comprising a generator and a discriminator, engaged in a zero-sum game to produce data points indistinguishable from real data. Variational autoencoders, on the other hand, utilize probabilistic encoders and decoders to map input data to a latent space, ensuring the synthesized data maintains the underlying distribution and correlations of the source data. These sophisticated techniques enable synthetic data to preserve the utility and analytical value of original datasets, which benefits advanced data analysis and model training without compromising on privacy. Furthermore, the synthetic data approach addresses the issue of data scarcity and accessibility, particularly in regulated industries such as healthcare and finance, by providing a viable alternative that meets stringent compliance requirements. In simple words,

  • Synthetic data is fake data that mimics the statistical properties of real data. 
  • Since it is not real data, it does not contain personally identifiable indicators for any real individuals making it highly secure. 
  • Data privacy laws do not apply to synthetic data making it easier to share and use internally and externally without months of documentation and approval processes.
  • Synthetic data using advanced machine learning models can be used to augment and enhance existing real data to remove bias, account for rare scenarios, and increase quantities of high-quality training data
  • Because it is not anonymized data, it preserves 100% data utility and ensures 100% data security.

Benefits of synthetic data


b. Synthetic Data’s impact on the finance and banking industry:

i. Enhancing Data Privacy and Compliance

Synthetic data enables banks to comply with stringent data privacy regulations such as PDPA, GDPR, and CCPA. By using synthetic datasets, financial institutions can perform data analytics and machine learning without exposing sensitive customer information. For instance, a bank can generate synthetic transaction data to test its fraud detection algorithms without risking customer privacy.

ii. Accelerating AI and ML Model Training

Training AI and machine learning models require vast amounts of data. Synthetic data can augment real datasets, providing additional training material that helps improve model accuracy and robustness. For example, a credit scoring company can use synthetic financial histories to train their algorithms, ensuring they perform well across a broader range of scenarios.

iii. Facilitating Robust Testing Environments

Creating realistic testing environments is crucial for developing and refining financial software applications. Synthetic data can simulate various user behaviors and market conditions, allowing for thorough testing. A fintech startup, for instance, can use synthetic data to simulate market crashes and test the resilience of its trading algorithms.

iv. Enabling Innovation in Product Development

Synthetic data allows banks to innovate without the limitations posed by data scarcity or privacy concerns. This fosters the development of new financial products and services. For example, a bank might develop a new loan product using synthetic customer data to model different risk scenarios and repayment plans before launching it to the market.

v. Improving Fraud Detection Systems

Fraud detection systems require extensive datasets to identify patterns of fraudulent activity accurately. Synthetic data can be generated to include various fraud scenarios, enhancing the training of these systems. A payment processor could use synthetic data to simulate credit card fraud, helping improve its detection algorithms' effectiveness.

vi. Supporting Customer Insights and Personalization

Banks can use synthetic data to generate insights and personalize services without compromising customer privacy. For instance, a bank might create synthetic profiles that reflect diverse customer behaviors, allowing it to tailor personalized marketing campaigns effectively.

vii. Streamlining Regulatory Reporting

Regulatory reporting often requires detailed and accurate data. Synthetic data can be used to test reporting processes and ensure compliance without using actual customer information. For example, a financial institution can generate synthetic transaction data to validate its anti-money laundering (AML) reporting systems.

viii. Enhancing Cybersecurity Measures

Synthetic data can be employed to test and improve cybersecurity measures by simulating various attack scenarios. A bank's IT department could use synthetic datasets to conduct penetration testing and evaluate its security protocols' effectiveness.

ix. Supporting Risk Management and Stress Testing

Synthetic data can help banks perform comprehensive risk management and stress testing by simulating various economic conditions and their impact on financial portfolios. A bank could generate synthetic economic scenarios to test its capital adequacy and resilience under different market conditions.

x. Augmenting Data for Rare Scenarios

One of the key challenges in financial modeling is the lack of data for rare but critical scenarios, such as economic crises or financial market crashes. Synthetic data can be generated to include these rare events, providing valuable training material for predictive models. For instance, an investment firm could use synthetic data to simulate rare market downturns, enhancing its portfolio management strategies and risk assessment frameworks.


4. Example Use Case: Improving Credit Scoring for Small Businesses

1. Background

Small businesses often face challenges in obtaining credit due to insufficient credit history or limited financial data. Traditional credit risk models may not accurately assess the risk associated with these businesses, leading to higher rejection rates or unfavorable loan terms. Synthetic data can play a crucial role in addressing this issue.

2. Implementation

i. Data Generation:

  • Generate synthetic data representing small business financials, including income statements, balance sheets, and cash flow statements. This data can simulate various business cycles and economic conditions.
  • Use historical data from similar businesses to train GANs or variational autoencoders to create realistic synthetic datasets.

ii. Model Training:

  • Augment existing small business credit data with synthetic data to create a comprehensive training set.
  • Train credit risk models on this enriched dataset, allowing them to learn from a broader range of scenarios and business conditions.

iii. Scenario Analysis:

  • Use synthetic data to perform stress testing, assessing how small businesses might perform under different economic conditions, such as recessions or market booms.
  • Adjust credit risk models based on insights gained from these analyses to improve their predictive accuracy and robustness.

iv. Validation and Calibration:

  • Continuously validate the synthetic data by comparing model predictions with actual loan performance.
  • Calibrate models regularly to ensure they remain accurate and relevant as new data becomes available.

3. Outcomes

i. Enhanced Predictive Power:

Credit risk models trained with synthetic data can more accurately predict the creditworthiness of small businesses, leading to better credit decisions and reduced default rates.

ii. Increased Access to Credit

Small businesses with limited credit history or financial data can benefit from fairer assessments, increasing their chances of obtaining loans and favorable terms.


iii. Regulatory Compliance
:

Using synthetic data helps financial institutions comply with data privacy regulations while still leveraging valuable insights for credit risk modeling.

Conclusion

Synthetic data is a powerful tool that is driving digital transformation in the banking and finance sectors. By enhancing data privacy, accelerating AI and ML training, enabling robust testing environments, and augmenting data for rare scenarios, synthetic data is helping financial institutions innovate and improve their services. As the technology continues to evolve, its impact on the industry is set to grow, making it an indispensable asset for future-proofing banking and finance operations.

Dr. Uzair Javaid
Dr. Uzair Javaid is the CEO and Co-Founder of Betterdata AI, specializing in programmable synthetic data generation using Generative AI and Privacy Engineering. With a Ph.D. in Computer Science from the National University of Singapore, his research has focused on blockchain-based cybersecurity solutions. He has 15+ publications and 600+ citations, and his work in data security has earned him awards and recognition. Previously, he worked at Merkle Science, developing taint analysis techniques for blockchain wallets. Dr. Javaid also advises at German Entrepreneurship Asia, supporting entrepreneurship in the region.
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