Quantum Technologies Key Strategies and Opportunities for Financial Services Leaders 2025
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Early case studies (non-exhaustive)
Quantum
computing
Why it’s important
Benefit gained
Quantum computing delivers superior
performance for complex computations,
enabling breakthroughs in optimization
and data analysis.
Catalyst for transformation
Quantum computing acts as a transformative
force, enabling financial services firms to
reimagine traditional processes. By harnessing
quantum algorithms, organizations can explore
new frontiers in solving business challenges
and anticipating risks.
How to approach integration
Strategic exploration
Identify key areas where quantum computing
can add strategic value and create a
comprehensive plan for responsible integration
into business operations.
Active and multifaceted engagement
Initiate pilot projects, cultivate partnerships,
invest in training, prioritize quantum use cases
and stay informed on advancements to drive
innovation and adoption.With its unmatched computational
power, quantum computing is
poised to transform industries and
enable groundbreaking applications.
Strategic adoption can benefit
financial services organizations
in multiple ways.CASE STUDY 1
Financial crash estimation within a
network of small and medium-sized
enterprises
Understanding and predicting financial
crashes is vital for maintaining global
economic stability. A key problem in financial
mathematics is identifying vulnerabilities
in financial institution networks to prevent
crises that could impact businesses and
markets.14 Turkish bank Yapı Kredi has taken
a significant step towards addressing this
issue by developing an innovative approach to
estimating financial risks.
As part of an R&D initiative, Yapı Kredi created
a model to identify potential failure points
in its network of small- and medium-sized
enterprises (SMEs). Identifying potential failure
points is crucial to avoiding potential domino
effects (wherein a single delayed payment may
initiate a chain reaction of financial distress
among interconnected enterprises, ultimately
resulting in a cascading failure across the
entire financial network). Analysing these
intricate networks using classical computing,
however, is difficult and time-consuming.
To overcome this, the R&D team used
quantum computing technology from D-Wave,
which allowed them to efficiently explore
thousands of possible scenarios and pinpoint
businesses at risk of financial distress. This
provided valuable insights for credit loan
departments, helping the bank identify hidden
risks not yet reflected in customers’ financials
and make better decisions.15
“Risk management is one of the most critical
components of banking. We applied our model
to a real-life scenario covering 4,297 out of a
network of over 600,000 corporate clients. An
analysis that would traditionally take years to
compute was completed in just seven seconds
thanks to the technology we developed. Our
goal is to carry our clients into the future with
a more robust financial infrastructure and to
establish a model that will shape the industry.”
– Gökhan Özdinç, Executive Vice President,
Technology, Data and Process Management,
Yapı Kredi.
Importantly, all data was anonymized to
comply with regulations. Looking ahead, Yapı
Kredi plans to scale this approach to its entire
SME network and expand its use to other areas of the organization. This experiment
demonstrates how cutting-edge technology
can help financial institutions protect
businesses, mitigate risks and ensure long-
term stability.
CASE STUDY 2
Advantages of financial fraud detection
using quantum machine learning
Fraud detection poses a significant challenge
for financial institutions, compelling banks
to undertake a variety of activities, including
real-time transaction monitoring, advanced
algorithms and biometric verification.
Traditional machine learning algorithms,
however, often struggle to accurately identify
fraud patterns, limiting their effectiveness. To
address this, Italian bank Intesa Sanpaolo
explored the use of quantum computing to
improve fraud detection.
The bank conducted a study using quantum
machine learning, specifically variational
quantum circuit (VQC)-based classifiers. By
analysing a dataset of 500,000 transactions,
the R&D team reduced the data complexity to
match current quantum hardware capabilities.
Using IBM’s quantum tools, the quantum
model outperformed traditional methods in
identifying fraud and achieving better accuracy
and efficiency with fewer data features. This
approach also introduced transfer learning,
enabling models trained on one dataset to be
applied to others, cultivating collaboration and
innovation across the financial sector. Due to
quantum hardware limitations, the study run
by Intesa Sanpaolo used a phased approach
starting with quantum-inspired (classical
hardware) solutions, followed by the integration
of quantum tools with existing systems and
concluding with full adoption of quantum-
based workflows when available. Compliance
was ensured through anonymized datasets
and privacy-by-design principles, aligning
with regulatory standards and organizational
security practices.
This initiative highlights the potential of
quantum computing to revolutionize fraud
detection. By improving accuracy and enabling
collaboration through open-source platforms,
banks can strengthen anti-fraud measures and
enhance global financial security. As quantum
technology advances, its scalability will unlock
even greater benefits for the industry.16FIGURE 3
Quantum Technologies: Key Strategies and Opportunities for Financial Services Leaders
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