You Have 18 Months to Change How Every Payment Message Works, Here Is How to Get It Done

The financial messaging standard that has powered global payments for four decades is being retired. SWIFT MT messages, the numeric tags, the fixed-format fields, the 2,000-character limits, have processed trillions of dollars in cross-border payments with reliability that the global economy depends on. But the constraints of that format create costly payment exceptions, impede compliance screening, and prevent the straight-through processing rates that modern payment systems can achieve. ISO 20022 migration banking is the cross-system transformation that every bank with cross-border or market-infrastructure payment activity must execute. For CTOs, it is a programme that touches more systems, carries more integration risk, and is constrained by more external deadlines than nearly any other technology initiative in the bank's portfolio.

Why ISO 20022 migration is the most complex cross-system programme in banking

ISO 20022 migration is not a SWIFT upgrade. It is a fundamental transformation of how your bank represents, transmits, and processes payment data, and it affects every system that touches a payment message from initiation to settlement to reporting. The scope is the primary source of complexity: a typical mid-sized bank may have 15 to 30 systems that must be updated or replaced, including core banking, payment engines, SWIFT interfaces, AML screening, sanctions checking, fraud detection, regulatory reporting, correspondent banking systems, reconciliation engines, and billing platforms. Coordinating the migration across all of them to meet a series of hard regulatory deadlines is a programme management challenge of the highest order.

The data transformation challenge is equally significant. ISO 20022 MX messages use structured XML with hierarchical data models that can represent payment information at a level of detail and precision that MT messages cannot approach. An MT 103 customer transfer message carries the ordering customer's name and address in a single 140-character field. The equivalent MX message carries the debtor's name, structured postal address, country, identification codes, and contact details in separate, typed fields. This data richness is the primary benefit of ISO 20022, but it requires every system in the payment chain to be updated to capture, validate, store, and process data that the MT-based systems never handled. Database schemas must be extended. User interfaces must display new fields. Compliance screening must parse new data structures.

The coexistence period adds operational complexity during the transition. Between March 2023 and November 2025, banks must send and receive both MT and MX messages, translating bidirectionally between the two formats based on each counterparty's migration status. An MX message received from a migrated market infrastructure may need to be translated to MT for a downstream correspondent that has not migrated. Every translation introduces the risk of data loss, misinterpretation, or processing failure, and the translation layer must be tested for every message type, every field mapping, and every combination of source and target formats. A cross-border payment routing agent can help optimize routing decisions during coexistence by selecting the most efficient path based on each intermediary's ISO 20022 capability.

The regulatory timeline is non-negotiable. Unlike many technology programmes where scope and timeline can be adjusted, ISO 20022 migration has hard deadlines set by market infrastructures that the bank must meet to continue processing payments. Missing the November 2025 CBPR+ deadline means the bank cannot send or receive cross-border payments through SWIFT. Domestic market infrastructure deadlines create a cascade of interdependent go-live dates. The regulatory pressure compresses the programme's flexibility and elevates the consequences of any delay.

What are the core challenges of ISO 20022 migration across banking systems?

ISO 20022 migration surfaces challenges that span message standards, data transformation, system integration, testing, and programme governance. Each challenge is manageable individually, but the programme's complexity arises from the need to address all of them simultaneously, across dozens of systems, within hard regulatory deadlines.

1. Why can't I just write a simple MT-to-MX converter and move on?

Message translation between MT and MX is not a deterministic format conversion because the two message standards represent payment data differently at a fundamental level. MT messages encode data in fixed-position fields within a flat text structure, with field meanings determined by their position and numeric tag. MX messages encode data in named elements within a hierarchical XML structure.

The translation challenge is most acute in the direction that loses information: MX to MT. An MX message may carry structured debtor information while the equivalent MT field provides a single unstructured text field. Your translation layer must decide which data to preserve, which to truncate, and how to encode structured data into an unstructured field in a way that the receiving MT system can process. Different banks make different translation choices, leading to interoperability issues where the receiving bank cannot parse the translated data as the sending bank intended.

The translation layer must also handle business process differences. ISO 20022 defines message flows as distinct business processes with specific message choreographies. MT messages are less prescriptive about process, and some MT message types are used for multiple business purposes. Mapping between the two requires understanding not just the message format but the business context in which the message is being used. New ISO 20022 message types with no MT equivalent must be handled natively, and systems that cannot process them must be either upgraded or bypassed during coexistence.

2. Why does my infrastructure team panic when I mention "50 kilobyte payment messages"?

MX messages can be significantly larger than their MT equivalents. An MT 103 customer transfer message is limited to 2,000 characters. The equivalent pacs.008 message, with full structured party data, regulatory reporting fields, and remittance information, can range from 5 to 50 kilobytes, and in some cases up to several megabytes. This represents a 2.5x to 25,000x increase in message size.

The infrastructure implications span the entire message processing chain. Network bandwidth between the bank and SWIFT, and between internal systems, must accommodate larger payloads. Message queues and middleware must be configured for larger message sizes. Databases that store payment messages for audit, reconciliation, and regulatory retention must be sized for the increased storage volume.

Processing latency is affected by the larger message size. Parsing an XML message of several kilobytes takes longer than parsing a 2,000-character fixed-format MT message. XML schema validation, which is mandatory for ISO 20022 compliance, adds processing overhead. Message transformation adds further latency. Each of these processing steps adds tens to hundreds of milliseconds, and in aggregate, they can push end-to-end payment processing latency beyond acceptable thresholds if not performance-tested and optimized. Regulatory retention requirements mean that the increased storage volume accumulates over the seven-to-ten-year retention period.

3. Why does ISO 20022 mean I have to change my core banking database schema?

ISO 20022 data richness requires changes to core banking and compliance systems because these systems were designed to process MT message data, which carries a fraction of the information that MX messages carry. Extending these systems to capture, store, and process the additional data is a development effort that touches databases, application logic, user interfaces, and integration points.

Core banking systems must be extended to store new data fields. The debtor's structured address, the creditor's identification codes, the payment purpose code, the regulatory reporting category, the remittance information in structured format, these fields have no equivalent in the MT-based core banking data model. Adding them requires database schema changes, which in a legacy core banking system may be the first schema change in years, with all the testing and regression risk that implies.

Compliance systems face a particularly significant change. AML screening and sanctions checking currently operate on MT message data, extracting party names from unstructured text fields with all the ambiguity that implies. ISO 20022 provides structured party identification, including official identification codes such as LEI, BIC, and national identifiers, that can be matched against sanctions lists with far greater precision. Leveraging this data requires updating the compliance system's data ingestion, screening algorithms, and matching logic. Banks that complete this update see a measurable reduction in false-positive sanctions alerts, which consume significant compliance analyst time. A sanctions screening agent that consumes structured party data from MX messages can adjudicate the majority of screening hits automatically.

4. How do I test thousands of message scenarios without a testing budget that bankrupts the programme?

Testing ISO 20022 migration at scale requires validating that every message type, across every system, in both MT and MX formats, under production transaction volumes, produces correct results. The testing surface area is the product of message types, systems, and integration paths, potentially thousands of test scenarios.

The testing strategy must be layered. Message validation testing ensures that generated MX messages conform to the ISO 20022 XML schema and business rules. Translation testing validates MT-to-MX and MX-to-MT conversions for every message type that requires translation during the coexistence period. Integration testing validates end-to-end message flows across all affected systems, confirming that processing results are identical whether the message originated as MT or MX.

Performance testing validates that the increased message size and additional processing overhead do not degrade payment processing latency or throughput. A load test that replays a production day's transaction volume using MX messages of representative sizes confirms that the infrastructure can handle production volumes without exceeding latency SLAs. Capacity testing pushes volume beyond peak production to identify the infrastructure's ceiling and confirm adequate headroom for growth. This testing must be automated as much as possible because manual testing at this scale is infeasible within the regulatory deadline.

5. How do I communicate with correspondents who migrate on a completely different schedule?

Correspondent banking relationships are affected because each correspondent migrates on its own timeline, and your bank must communicate with each correspondent in the format that the correspondent currently supports. During the coexistence period, your correspondent network is a mix of MT-only, MX-only, and dual-format correspondents, and you must manage message format at the individual correspondent level.

The translation layer must maintain a correspondent capability directory that records which format each correspondent supports for which message types. When your bank sends a payment to a correspondent, the directory determines whether the message is sent in MT, MX, or both. The directory must be updated as correspondents migrate, and outdated entries can result in message format errors that delay or reject payments.

The richer data in MX messages also changes the correspondent banking value proposition. Correspondents that can process MX messages with structured data can offer improved services. Banks that migrate early to MX and demonstrate the ability to send and receive structured data may strengthen their correspondent relationships or attract new business from respondents seeking MX-capable correspondents. Banks that migrate late may find their correspondent relationships degraded as counterparties prioritize MX-capable partners.

6. How do I prioritize which systems to upgrade when I cannot do everything at once?

System prioritization for ISO 20022 migration must balance regulatory deadlines, business criticality, and technical dependencies. Not every system can be migrated simultaneously, and the sequence in which systems are migrated determines whether the bank can process payments during the transition.

The payment engine and SWIFT interface are the highest priority. These systems are the direct interface to market infrastructures and correspondents, and they must support MX messages before the regulatory deadlines. They typically require the most significant changes, and their migration enables all downstream systems to begin consuming MX message data.

Core banking systems are the next priority because they are the source and destination of payment data. They must be updated to capture the richer data from MX messages. However, core banking migration can be phased: the payment engine can translate MX messages to the core's existing MT-based interface during an interim period, allowing core banking migration to proceed on a timeline that does not delay the payment engine migration. Compliance systems benefit significantly from MX data but can operate on translated data during an interim period. Regulatory reporting systems have hard deadlines tied to regulatory filing schedules and must be prioritized accordingly.

What should a modern ISO 20022 migration platform deliver?

Consider the position of a CTO at a bank that processes 50,000 cross-border payments daily through SWIFT, plus domestic payments through three market infrastructures, each with its own ISO 20022 migration deadline. The bank's payment engine was built 15 years ago and handles only MT format. The CTO must have the bank processing MX messages across all payment channels within 18 months.

This CTO needs an ISO 20022 migration banking platform that delivers:

• Multi-format message handling with native MX and MT support. The payment engine and SWIFT interface natively generate, parse, validate, and route both MX and MT messages, with format selection based on the recipient's capabilities determined by a capability directory.

• Bidirectional MT-MX translation with data preservation rules. A configurable translation layer converts between MT and MX formats bidirectionally, with field-level mapping rules that preserve the maximum data possible in each direction. Data that cannot be mapped is either truncated, stored in supplementary fields, or flagged for manual handling.

• Structured data capture and storage across core banking and compliance systems. Core banking, compliance, and reporting systems are extended to capture, validate, store, and display the structured data fields that MX messages carry.

• Message validation engine with ISO 20022 schema and business rule enforcement. Every generated MX message is validated against the ISO 20022 XML schema and applicable business rules before transmission. Inbound MX messages are validated on receipt.

• Automated testing framework for end-to-end message flow validation. A testing framework validates message flows across all affected systems, for all message types, in both MT and MX formats, with automated comparison of processing results.

• Correspondent and market infrastructure capability directory. A centralized directory records the ISO 20022 migration status, supported message types, and specific message format requirements for every correspondent and market infrastructure.

• Performance monitoring and capacity management for larger message volumes. Infrastructure monitoring tracks message sizes, processing latency, queue depths, and storage consumption by message format, with alerts when metrics approach thresholds.

• Coexistence period management with format-based routing. During the coexistence period, the platform routes messages in MT or MX format based on the recipient's capabilities, applies appropriate translations, and provides dashboards showing MT and MX traffic mix.

• Regulatory reporting integration with MX data extraction. Regulatory reporting systems are integrated to extract data from both MT and MX messages, with the richer MX data enabling more detailed and accurate regulatory filings.

• Phased migration governance with system-level go-live coordination. Programme governance tracks the migration status of every affected system, manages inter-system dependencies during go-live events, and provides dashboards showing overall programme progress against regulatory deadlines.

How can CTOs implement ISO 20022 migration across banking systems?

Implementing ISO 20022 migration requires a structured programme that manages message standards, data transformation, system integration, testing, and regulatory compliance across dozens of interdependent systems. CTOs who succeed follow a roadmap that prioritizes the payment interface layer, phases downstream system migration, and uses the coexistence period to validate and optimize before the hard regulatory deadlines.

1. How do I figure out everything that needs to change before I start changing anything?

Assessment of the current payment messaging landscape is the foundational activity that determines the migration's scope, complexity, and resource requirements. Your assessment must identify every system that sends, receives, processes, or stores payment messages, the message formats each system currently supports, and the data each system captures from payment messages.

The system inventory must span well beyond the obvious candidates to include core banking, AML screening, sanctions checking, fraud detection, regulatory reporting, correspondent banking platforms, reconciliation engines, billing systems, data warehouses, and any system that receives a payment message feed for any purpose. Each system's vendor, version, and upgrade path must be documented, because vendor readiness for ISO 20022 varies significantly and some legacy systems may require replacement rather than upgrade.

The message type inventory documents every MT message type the bank currently sends and receives, the volume of each message type, and the counterparties with which each message type is exchanged. This inventory determines the translation and testing scope. The data field inventory documents which MT fields each system currently captures and processes, because these are the fields that must be mapped to their MX equivalents and potentially extended to capture the richer MX data.

2. How do I design a translation layer that handles both formats for three years?

The translation and coexistence architecture is the technical component that enables the bank to operate during the multi-year period when some counterparties have migrated to MX while others remain on MT. The architecture must handle bidirectional translation, format-based routing, and data preservation with minimal manual intervention.

The translation engine maps between MT and MX message formats using configurable mapping rules defined at the field level. MT-to-MX translation populates MX message elements from MT fields, applying default values for MX-required elements that have no MT equivalent. MX-to-MT translation extracts data from MX elements and maps them to the limited MT field structure, applying truncation rules and handling the loss of data structure.

Format-based routing determines the message format for each outgoing payment based on the recipient's capabilities. The routing decision references the capability directory, which records for each counterparty whether they support MT only, MX only, or both, and which MX message versions they accept. The directory is maintained by the bank's payments operations team, updated as counterparties communicate their migration status, and validated through test message exchanges before production use.

3. How do I upgrade my core banking system when it barely tolerates change?

Core banking system extension for ISO 20022 data is constrained by the reality that most legacy core banking systems were not designed for schema extensions. The architectural approach must balance the benefit of capturing structured MX data against the cost and risk of modifying the core.

The pragmatic approach is a layered extension strategy. The core banking system's existing data model remains unchanged in the initial phase. The payment engine, which sits between the core and the SWIFT interface, captures the full MX message data and stores it in a separate data store that preserves the structured data for compliance, reporting, and analytics purposes, even though the core banking system does not consume it directly.

The core banking system's interface with the payment engine is updated to pass through a subset of the MX data that the core can store without schema changes. In subsequent phases, as the core banking system's roadmap permits, the core is extended to store structured MX data natively. This may coincide with a core banking modernization programme where the new core's data model is designed for structured payment data from the start. The layered strategy ensures that ISO 20022 compliance is achieved on schedule, even if full structured data capture in the core is deferred.

4. How do I make my compliance team actually want structured data?

Compliance system upgrade for ISO 20022 structured data is one of the highest-ROI components of the migration programme because structured party data directly reduces false-positive sanctions and AML alerts, which consume significant compliance operations resources.

The upgrade begins with the data ingestion layer. Compliance systems that currently parse party names and addresses from MT free-text fields are updated to consume structured party data from MX messages. The ingestion layer extracts debtor, creditor, and intermediary party information from their respective MX elements and presents them to the screening engine as typed, validated fields rather than as unstructured text.

The screening engine's matching logic is updated to leverage identification codes. When an MX message includes a BIC, LEI, or national identifier for a party, the screening engine can match against sanctions lists using these precise identifiers, which eliminates the ambiguity of name-based matching. A sanctioned entity's name might appear in dozens of variations across different MT messages, but its BIC or LEI is unique and unambiguous. The matching logic can reduce false-positive alerts by 30 to 50 percent when identification codes are available, directly reducing the compliance analyst workload. A wire transfer screening agent that receives structured party data can clear legitimate wires faster and with greater confidence.

5. How do I test everything without testing for two years?

The testing programme for ISO 20022 migration must validate correctness, performance, and exception handling across every message type, every system, and every counterparty. The programme's scale requires a structured, phased approach that automates as much testing as possible.

Phase one is message validation testing. Automated test suites validate that every message type conforms to the ISO 20022 XML schema and the specific usage guidelines of each market infrastructure and major correspondent. Phase two is translation validation testing. For every MT-MX message type pair that the translation engine handles, test cases validate the translation in both directions with automated comparison tools verifying every field.

Phase three is end-to-end integration testing. Test messages flow through the complete processing chain and results are validated at each system boundary. Integration testing verifies that account debits and credits are correct, that compliance screening produces the expected results, and that regulatory reports contain the correct data. Phase four is performance and capacity testing. Load tests replay a full production day's transaction volume using MX messages of realistic sizes, with performance metrics compared against MT baselines.

6. How do I manage vendors who promise ISO 20022 support but deliver it six months late?

Vendor dependencies are a significant programme risk because many of the systems affected by ISO 20022 migration are vendor-supplied, and your migration timeline depends on each vendor's ISO 20022 readiness. A vendor that delays its ISO 20022 release by six months delays your migration of that system by the same period.

Vendor engagement must begin early, ideally 18 to 24 months before the regulatory deadline. For each vendor-supplied system in the migration scope, you must confirm: the vendor's planned ISO 20022 release date and version; whether the release is a standard upgrade or requires a new product; whether the vendor provides an MX-compatible test environment; whether the vendor supports the specific message types and market infrastructure variants you require; and the vendor's track record of delivering on scheduled release dates.

The contractual dimension is equally important. Existing vendor contracts should be reviewed for ISO 20022 support obligations. New contracts or renewals should include specific ISO 20022 requirements: the message types to be supported, the target release date, the acceptance criteria for the ISO 20022 release, and remedies for delayed delivery. Banks that treat ISO 20022 as an assumed feature of the next vendor release, without contractual specificity, risk discovering late in the programme that the vendor's release does not meet their requirements.

7. How do I sequence migrations across payment channels without triggering a cascade of failures?

Sequencing the migration across payment channels determines the programme's risk profile. Cross-border payments through SWIFT are typically the first channel to migrate because the SWIFT CBPR+ timeline is the most widely applicable regulatory deadline, and the cross-border channel has the most complex coexistence requirements. Migrating cross-border payments first validates the translation architecture, the capability directory, and the coexistence operating model.

Domestic market infrastructure migrations follow, sequenced by regulatory deadline. Each migration adds to the operational complexity of the coexistence period but also benefits from the architecture, tooling, and operational procedures developed during the first migration. Within each channel, the migration sequence typically follows: first, the ability to receive MX messages, because receiving is lower risk than sending; second, the ability to send MX messages to counterparties that have migrated; third, the cessation of MT message sending to counterparties that require MX; and finally, the decommissioning of MT message handling for that channel.

8. How do I know we have actually succeeded beyond just meeting the deadline?

The success of an ISO 20022 migration banking programme is measured across five dimensions.

First, regulatory compliance. Track the percentage of payment channels and message types migrated to MX before their respective regulatory deadlines. Compliance is binary: the bank either processes payments in the required format by the deadline, or it does not.

Second, message processing quality. Track the percentage of MX messages processed successfully without manual intervention. The straight-through processing rate for MX messages should equal or exceed the STP rate for MT messages.

Third, operational efficiency. Track the reduction in payment repair rates and false-positive sanctions screening alerts attributable to structured data. ISO 20022 should reduce operational cost per payment transaction, and the cost reduction should be measurable.

Fourth, system performance. Track payment processing latency, throughput, and infrastructure utilization for MX messages compared with the MT baseline.

Fifth, data capture and utilization. Track the percentage of MX data fields captured and stored in core banking, compliance, and reporting systems. ISO 20022 migration that captures structured data without utilizing it has achieved compliance but not value.

What does an ideal ISO 20022 migration journey look like?

An ideal ISO 20022 migration delivers compliant MX message processing across all payment channels by the regulatory deadlines, captures the richer structured data that MX enables, and realizes operational efficiency improvements from automated processing of structured payment data.

Consider a bank that has completed its ISO 20022 migration programme over 24 months. The programme began with a comprehensive assessment of 23 affected systems, 42 MT message types, and 350 correspondent relationships. The MT-MX translation architecture was deployed first, providing the coexistence capability that enabled the bank to send and receive MX messages to early-adopting correspondents while continuing to process MT messages for the majority of the network.

The SWIFT interface and payment engine were migrated in month 12, enabling native MX message generation and consumption. Core banking system extensions were deployed in month 18, adding structured party data fields to the payment data model. Compliance system upgrades were deployed in month 20, integrating structured party identification and reducing false-positive sanctions alerts by 38 percent. An automated GL reconciliation agent now matches payment entries across MT and MX formats with the same accuracy, and a wire transfer screening agent processes MX structured data to clear legitimate wires with fewer manual reviews.

Throughout the programme, the translation engine processed an average of 15,000 MT-MX translations daily during the coexistence period, with a translation accuracy rate of 99.97 percent. The capability directory managed the migration status of 350 correspondents. On the November 2025 CBPR+ deadline, the bank ceased MT message processing for cross-border payments and transitioned entirely to MX. The bank's payment STP rate improved from 87 percent to 94 percent. The compliance team's alert investigation volume decreased by 38 percent. That is what successful ISO 20022 migration banking delivers.

Conclusion

ISO 20022 migration is the most complex cross-system programme that most banking CTOs will lead. It touches payments, core banking, compliance, reporting, and correspondent banking. It requires systems to process messages that are orders of magnitude larger and richer than the messages they were designed for. It must be executed within hard regulatory deadlines that cannot be negotiated. And it must be accomplished while the bank continues to process millions of payments daily.

The CTOs who succeed approach ISO 20022 migration banking as an architectural transformation rather than a message format upgrade. They invest early in the translation and coexistence architecture that carries the bank through the multi-year transition period. They phase the migration across systems, prioritizing the payment interface layer while allowing downstream systems to consume translated data during an interim period. They treat testing as a first-class programme workstream, with automated validation at every layer. And they measure success not only by regulatory compliance but by the operational efficiency and business intelligence that the richer structured data enables.

The banks that complete ISO 20022 migration on schedule and with quality are the ones whose payment operations benefit from higher straight-through processing, lower exception handling costs, more accurate compliance screening, and richer transaction data for analytics. The MT era is ending not because MT failed but because the financial system now demands the richer data, the greater automation, and the standardized processing that ISO 20022 enables. The banks that migrate well will process payments more efficiently and more intelligently than was ever possible with MT. Those that do not will find themselves excluded from the payment infrastructure that the global financial system is building.

Frequently asked questions

1. What is ISO 20022 and why is it replacing SWIFT MT messaging?

ISO 20022 is an XML-based financial messaging standard with structured data models and significantly larger data capacity than SWIFT MT messages. Market infrastructures worldwide have mandated adoption because structured data enables automated processing, richer compliance screening, and enhanced analytics.

2. What is the timeline for ISO 20022 migration in banking?

SWIFT CBPR+ coexistence began in March 2023 and ends in November 2025, after which all cross-border payments must use MX format. Domestic market infrastructures have their own timelines, and banks must manage multiple overlapping migration deadlines simultaneously.

3. What systems in a bank are affected by ISO 20022 migration?

Core banking, payment engines, SWIFT interfaces, AML screening, sanctions checking, fraud detection, regulatory reporting, correspondent banking, reconciliation, and billing systems are all affected. The migration is a cross-system transformation touching the entire payments technology stack.

4. How do banks manage the coexistence of MT and MX messages during migration?

A translation layer converts between MT and MX formats bidirectionally, with field-level mapping rules to preserve data. A capability directory tracks each counterparty's migration status. Data that cannot fit into MT fields is truncated, stored separately, or flagged for manual handling.

5. What are the main technical challenges of ISO 20022 migration?

MX messages can be orders of magnitude larger than MT messages, requiring infrastructure upgrades. Structured data fields require database schema changes across core banking and compliance systems. Validation against complex XML schemas is more rigorous than MT validation.

6. How does ISO 20022 enable straight-through processing and reduce payment exceptions?

MX messages carry structured party information that can be automatically validated and matched, unlike MT messages that encode party data in free-text fields. Structured purpose codes and remittance information enable automated compliance screening and reconciliation, reducing manual repair interventions.

7. What testing strategy should banks adopt for ISO 20022 migration?

Test at every layer: message validation against XML schemas, MT-MX translation for all message types, end-to-end integration across all affected systems, and performance testing under production volumes. Testing must span the full coexistence period with both MT and MX paths.

8. What are the business benefits of ISO 20022 beyond regulatory compliance?

Structured data improves sanctions screening accuracy and reduces false positives. Enhanced party identification lowers payment repair rates. Richer transaction data enables new analytics. A standardized messaging platform simplifies integration with new payment schemes and fintech partners.

About the author

Hitul Mistry is the Founder of Insurnest, an InsurTech company that engineers end-to-end technology exclusively for the insurance industry serving carriers, TPAs, MGAs, brokers, and reinsurers across India, the UAE, and the US. With more than a decade of insurance domain experience, he has built systems spanning underwriting automation, AI-powered underwriting intelligence, claims management, rating and quoting, broking and agency platforms, distribution management systems, and reinsurance automation across Health/GMC, Group Life, Motor, P&C, and Reinsurance. Insurnest does not adapt generic software to insurance; it builds from the workflow up.

Connect with Hitul on LinkedIn.