Provide a high-level summary of the integration initiative to set the context for detailed technical requirements.
Describe the business objective of integrating these two systems
Internal project code or identifier
Desired production go-live date
Is this a green-field integration or are you replacing an existing interface?
Summarise known pain-points with the legacy interface
Describe the current integration architecture (protocols, middleware, frequency)
Expected integration pattern
Synchronous request/response
Asynchronous messaging
Batch file exchange
Event-driven/pub-sub
Hybrid
Will the integration span multiple geographic regions or legal entities?
Select applicable cross-region challenges
Data residency requirements
Time-zone differences
Currency conversion
Language localisation
Varying transport regulations
Capture the technical fingerprint of the first system (labelled 'System A') to scope connectivity and data mapping effort.
System A official product name and major version
System A deployment model
On-premise
Private cloud (single tenant)
Public cloud (SaaS)
IaaS managed by us
Hybrid
Vendor or internal team responsible for System A
List all integration technologies System A supports (APIs, connectors, file formats)
Does System A enforce an API rate limit or throttling policy?
Maximum calls per minute or per second
Does System A require mTLS or client-certificate authentication?
Does System A support webhook or push events to external HTTPS endpoints?
Explain how near-real-time data exchange will be achieved without webhooks
Describe System A's data model for the primary logistics object (shipment, order, ASN, etc.)
Mirror the previous section to document the second system ('System B') and expose symmetry or asymmetry in capabilities.
System B official product name and major version
System B deployment model
On-premise
Private cloud (single tenant)
Public cloud (SaaS)
IaaS managed by us
Hybrid
Vendor or internal team responsible for System B
List all integration technologies System B supports
Does System B enforce an API rate limit or throttling policy?
Maximum calls per minute or per second
Does System B require mTLS or client-certificate authentication?
Does System B support webhook or push events to external HTTPS endpoints?
Describe System B's data model for the primary logistics object
Quantify throughput, latency, and scalability to size middleware, queues, and retry logic correctly.
Peak transactions per hour (direction A→B)
Peak transactions per hour (direction B→A)
Maximum acceptable end-to-end latency for a single transaction
< 1 s
1–5 s
5–30 s
30–300 s
> 5 min
Will burst traffic exceed 5× the average hourly volume?
Maximum burst factor (e.g., 10× = 1000%)
Average payload size per transaction (KB)
Largest single payload expected (MB)
Do you require compression (gzip, deflate) for large payloads?
Is batched processing acceptable for high-volume scenarios?
Maximum acceptable batch size (number of records)
Define exact-once, at-least-once, or duplicate tolerance thresholds and mitigation strategies.
Required delivery guarantee
Exactly-once
At-least-once (deduplication required)
At-most-once
Best effort
Do you need an end-to-end transaction audit trail?
Select audit granularity
Per field change
Per message
Per business document
Per batch
Are duplicate messages acceptable under any circumstance?
Specify acceptable duplicate rate (%) and business impact
Will you implement a dead-letter queue (DLQ) for poison messages?
Explain how unprocessable messages will be handled without data loss
Maximum retry attempts before manual intervention
Describe checksum or hash algorithm to verify payload integrity
Do you require message sequencing/ordering guarantees?
Ordering scope
Global (all messages)
Per logical partition (e.g., shipment ID)
Per business document
Capture encryption, authentication, and regulatory constraints that shape the integration architecture.
Is data encrypted in transit (TLS 1.3 preferred)?
Is data encrypted at rest (field-level or payload-level)?
Authentication mechanism
OAuth 2.0 (Client Credentials)
OAuth 2.0 (Authorization Code)
JWT Bearer
API Key
mTLS
SAML
Other
Do you require IP whitelisting or private connectivity (VPN, VPC peering)?
Will personally identifiable information (PII) or personal data cross system boundaries?
Select applicable privacy regimes
GDPR
CCPA/CPRA
PDPA
LGPD
PIPEDA
Other
Is there a requirement to mask or tokenise sensitive fields?
Do you need to retain message payloads for post-event forensic investigation?
Retention period (days)
List any industry-specific security standards (e.g., ISO 27001, TISAX, SOC 2)
Define how failures are surfaced, logged, and resolved to minimise MTTR and avoid silent data loss.
Preferred error notification channel
Slack/Teams
Webhook to enterprise monitoring
SNMP trap
PagerDuty/OpsGenie
Other
Do you require a dedicated integration health dashboard?
Select dashboard features
Real-time success rate
Latency heat-map
Error categorisation
Payload trace lookup
SLA countdown
Will you export metrics to an external APM or Prometheus/Grafana?
Describe the classification scheme for error severity (e.g., transient, business, system)
Do you need automatic ticket creation in ITSM tools (ServiceNow, Jira)?
Maximum acceptable MTTR for Severity-1 errors (minutes)
Is synthetic transaction probing required for proactive detection?
Detail how fields, codes, and units are mapped to avoid semantic drift and ensure zero-loss translation.
Do both systems use the same canonical units of measure (UoM)?
Describe UoM conversion rules (e.g., EA → PC, KG → LB)
Are code lists (status codes, Incoterms, package types) identical?
Provide mapping table or reference document
Do you require dynamic field transformation (e.g., date format, decimal separator)?
Will you use an enterprise data dictionary or master data management (MDM) hub?
Handling of unknown or unmapped codes
Reject entire message
Accept and map to default code
Accept and log warning
Quarantine for manual mapping
Do you need to support multi-language or multi-alphabet (Latin, Cyrillic, Kanji) text?
Specify character encoding standard (UTF-8, UTF-16, etc.)
Clarify how completeness and zero-loss will be proven before go-live.
Will you run parallel operations (shadow mode) before cut-over?
Parallel run duration (days)
Is automated regression testing mandatory for every deployment?
Test data source
Synthetic data generator
Anonymised production snapshot
Production data (restricted)
Third-party data
Do you require negative testing (malformed payloads, network drops)?
Define acceptance criteria for zero-data-loss
Will a third-party conduct penetration or security testing?
Planned code freeze period before go-live
Ensure integration remains resilient during outages and can be restored without data loss.
Recovery Time Objective (RTO) for integration layer (minutes)
Recovery Point Objective (RPO) for message data (minutes)
Do you maintain a hot-hot active-active setup across data centres or regions?
Is message-level replay or rehydration supported after recovery?
Do you perform regular DR drills that include integration components?
Describe backup strategy for in-flight messages
Is there a documented rollback plan that reverts to the previous interface version?
Confirm that all requirements have been captured and understood.
Solution Architect name
Lead Developer name
Form completion date
Has this form been peer-reviewed by another architect?
Do you agree that any scope change after sign-off will trigger a formal change request?
I confirm that the information provided is accurate to the best of my knowledge and that achieving zero-data-loss integration is feasible with these requirements
Signature of Solution Architect
Analysis for Logistics System Integration Technical Requirements Form
Important Note: This analysis provides strategic insights to help you get the most from your form's submission data for powerful follow-up actions and better outcomes. Please remove this content before publishing the form to the public.
This Logistics System Integration Technical Requirements Form is a tour-de-force in technical due-diligence. It systematically de-risks the most common causes of data-loss—misaligned data models, throttled APIs, ambiguous UoM, silent failures—by forcing architects to confront them before code is written. The mirrored structure for System A and B exposes asymmetry early, while the quantified performance, DR and compliance sections convert “high throughput” and “zero loss” from slogans into measurable, testable targets. The progressive disclosure pattern (yes/no → follow-up) keeps the cognitive load low while still harvesting forensic detail for edge-cases such as cross-region data-residency or burst traffic >5× average. From a data-quality perspective the heavy use of numeric, date and constrained pick-lists minimises free-text noise, and the mandatory sign-off checkbox plus digital-signature field creates an audit trail that can be produced during PCI-DSS, ISO 27001 or TISAX assessments.
Usability friction is deliberately front-loaded onto the few people who are qualified to answer—Solution Architects and Lead Developers—rather than onto downstream engineers. The form’s length is justified because it replaces weeks of back-and-forth emails and prevents the far larger cost of re-work when an undocumented 200 TPS rate-limit kills go-live. The only notable weakness is the absence of an “upload architecture diagram” field, which would shortcut several paragraphs of descriptive text; however, the rich text placeholders encourage attachment of Visio or Draw.io URLs inside the free-form fields, so the gap is minor.
Purpose: This open-ended question anchors every subsequent technical decision to a verifiable business outcome (e.g., “prevent overselling” or “cut customs clearance time by 40%”). Without this narrative the rest of the form risks becoming a sterile checklist.
Effective Design & Strengths: The multi-line text and example placeholder guide the architect to express the goal in measurable terms, which later maps directly to acceptance criteria in the Testing section. Making it mandatory ensures that even internal “pet” projects must articulate ROI before burning engineering hours.
Data Collection Implications: The answer is qualitative, yet it becomes metadata that can be stored in the integration repository and surfaced in executive dashboards, tying technical metrics (latency, error rate) back to dollars.
User Experience Considerations: Because the audience is senior technical staff, the free-text format is faster than wrestling with a rigid taxonomy of business drivers. The risk of scope-creep is mitigated by the final sign-off section that explicitly states any change triggers a formal CR.
Purpose: Sets the critical-path clock for procurement of certificates, firewall rules, load-testing windows and DR drills.
Effective Design & Strengths: Using a native HTML5 date picker prevents ambiguous “Q3” answers and auto-validates working-day constraints. The field is mandatory so capacity planners can immediately flag if the requested DR RPO/RTO exceeds what is achievable in the remaining calendar days.
Data Collection Implications: When stored as an ISO-8601 date it can be consumed by Jira or ServiceNow for automatic timeline visualisation and SLA burn-down charts.
User Experience Considerations: Architects usually know the board-mandated date; making it optional would invite procrastination, whereas mandatory forces early negotiation if the date is unrealistic.
Purpose: Determines whether the project inherits technical debt and legacy data mappings that must be reverse-engineered.
Effective Design & Strengths: The binary yes/no immediately branches into two context-rich follow-ups (pain-points vs current architecture). This prevents the form from asking irrelevant questions and surfaces hidden constraints such as a 7-year-old SOAP service that cannot speak TLS 1.3.
Data Collection Implications: The answer is stored as a boolean, enabling portfolio-level analytics: “60% of 2025 integrations are refactorings, therefore budget for data-migration tooling.”
User Experience Considerations: Senior engineers appreciate the conditional logic because it mirrors the real-world conversation they would have anyway, reducing perceived length.
Purpose: Locks down the middleware topology—message queues vs REST vs pub-sub—impacting HA, exactly-once semantics and observability stack.
Effective Design & Strengths: Single-choice radio buttons eliminate ambiguous hybrid answers unless “Hybrid” is explicitly selected. The option list uses industry-standard names so architects do not have to translate.
Data Collection Implications: The value is a controlled vocabulary, so enterprise architects can run compliance queries such as “Which integrations still use batch file exchange?” for cloud-migration prioritisation.
User Experience Considerations: Mandatory status prevents the dreaded “we’ll decide later” which invariably leads to data-loss when two systems assume different delivery guarantees.
Purpose: Enables automatic lookup of known CVEs, end-of-life dates and certified adapter versions.
Effective Design & Strengths: The single-line text with placeholder examples (SAP S/4HANA 2023 FPS02) enforces precision; free of typos that would break a later Maven dependency scan.
Data Collection Implications: When combined with System B name it creates a compatibility matrix that integration-platform vendors can mine to certify new adapters.
User Experience Considerations: Architects usually copy/paste from the licence screen, so the field length is capped to 100 characters to prevent garbage yet allow long cloud service names.
Purpose: Prevents the rookie mistake of designing an OData v4 connector only to discover the legacy system maxes out at SOAP 1.1.
Effective Design & Strengths: Multi-line text with comma-separated examples encourages an exhaustive inventory in one glance. Making it mandatory forces a full survey instead of hoping “the vendor will figure it out.”
Data Collection Implications: The comma-separated list can be normalised into a technologies table for reuse by other projects, cutting future discovery time.
User Experience Considerations: Senior engineers prefer free-text here because new protocols (gRPC, GraphQL) emerge faster than any pick-list can be updated.
Purpose: Sizes the thread pools, Kafka partitions and DB connection pools to avoid back-pressure that causes message drops.
Effective Design & Strengths: Numeric field with validation >0 prevents impossible answers. Asking for both directions separately exposes asymmetric loads (common in logistics where ASN uploads are 10× downloads).
Data Collection Implications: Stored as integers they feed directly into auto-scaling policies and cost calculators, producing accurate Azure/AWS spend forecasts.
User Experience Considerations: Architects can paste load-test results; the field allows thousands so scientific notation is accepted (1e4).
Purpose: Determines whether the infrastructure must invest in idempotent receivers, de-duplication stores or can relax to at-most-once for low-value telemetry.
Effective Design & Strengths: Single-choice with plain-language options (“Exactly-once”) avoids academic jargon. Mandatory status prevents the fatal “best effort” default that silently loses messages under load.
Data Collection Implications: The choice is stored as an enum, enabling SLA reporting: “99.95% of exactly-once integrations met their SLA this quarter.”
User Experience Considerations: Architects understand the trade-offs; making it mandatory forces a conscious decision that is documented for auditors.
Purpose: Balances automation vs alert fatigue; too few retries create false-positive Severity-1 pages, too many delay recovery.
Effective Design & Strengths: Numeric field with placeholder “e.g., 5” gives a sensible default yet allows context-specific tuning for fragile legacy endpoints.
Data Collection Implications: When correlated with actual retry metrics it reveals whether the chosen number is optimal or needs tuning, feeding continuous-improvement playbooks.
User Experience Considerations: Mandatory status avoids the common defect where engineers forget to set a limit and messages loop forever, masking data-loss.
Purpose: Translates business “we can’t ship if it’s down” into a hard minutes target that drives DR investment (hot-hot vs cold-standby).
Effective Design & Strengths: Numeric minutes field prevents vague “4 hours” prose; it can be compared directly to monitoring alerts to prove DR compliance.
Data Collection Implications: Stored as an integer it integrates with Prometheus to trigger an escalation if the actual MTTR > RTO.
User Experience Considerations: Architects know the number from the business impact analysis; mandatory status prevents the DR plan from being shelved.
Mandatory Question Analysis for Logistics System Integration Technical Requirements Form
Important Note: This analysis provides strategic insights to help you get the most from your form's submission data for powerful follow-up actions and better outcomes. Please remove this content before publishing the form to the public.
Describe the business objective of integrating these two systems
This field is mandatory because without a crisp, measurable objective the integration team has no north-star to validate success. It prevents scope creep, justifies budget, and later maps directly to acceptance criteria in the Testing section, ensuring that “zero data loss” is not a vague slogan but a business-verifiable outcome.
Desired production go-live date
The go-live date drives critical-path activities: certificate procurement, firewall rules, load-test windows, DR drills and change-board approvals. Leaving it optional invites perpetual slippage; making it mandatory forces early negotiation with stakeholders and allows the PMO to flag unrealistic timelines before engineering effort is wasted.
Is this a green-field integration or are you replacing an existing interface?
This binary decision dictates whether legacy data mappings, throttling policies and error handling must be reverse-engineered. Mandatory status ensures the architect confronts technical debt up-front, preventing the new interface from repeating the same data-loss defects that plagued the old one.
Expected integration pattern
The pattern (sync, async, batch, event-driven) determines middleware topology, exactly-once semantics, and observability tooling. Making it mandatory eliminates the “we’ll decide later” anti-pattern that invariably leads to mismatched delivery guarantees and silent message drops under load.
System A official product name and major version
Accurate product/version strings enable automated CVE scans, end-of-life alerts and adapter compatibility checks. A mandatory single-line field prevents typos that would break downstream dependency pipelines or cause security accreditation failures.
System A deployment model
Knowing whether System A is on-prem, SaaS, IaaS or hybrid directly impacts network latency, firewall rules, data-residency compliance and DR strategies. Mandatory enumeration ensures architects cannot defer this decision, avoiding last-minute VPN redesigns that delay go-live.
Vendor or internal team responsible for System A
Clear ownership is required for SLA enforcement, incident escalation and contract amendments (e.g., raising API rate limits). Mandatory status guarantees that a named party is accountable, preventing the “vendor ping-pong” that prolongs outages.
List all integration technologies System A supports
An exhaustive protocol inventory (REST, SOAP, gRPC, SFTP, etc.) is the first firewall against building an incompatible connector. Making this list mandatory forces a full survey, eliminating the surprise discovery that the legacy system only supports SOAP 1.1 after the sprint has started.
Does System A enforce an API rate limit or throttling policy?
Rate limits directly impact throughput calculations and retry logic; exceeding them causes HTTP 429 responses that manifest as data loss if not handled. Mandatory yes/no forces architects to surface this constraint early and to document the exact ceiling in the follow-up numeric field.
Does System A require mTLS or client-certificate authentication?
mTLS affects certificate procurement timelines, firewall port requirements and trust-store configuration. Mandatory status ensures security teams are engaged before code freeze, avoiding the dreaded “we need a cert signed by a CA” one day before go-live.
Does System A support webhook or push events to external HTTPS endpoints?
Webhook capability determines whether near-real-time data exchange is possible or if costly polling must be implemented. Mandatory yes/no forces a conscious architectural decision and triggers a follow-up explanation if webhooks are absent, preventing latency surprises.
Describe System A's data model for the primary logistics object
The data model (fields, UoM, mandatory flags) is the raw material for field-level mapping and validation rules. Making this description mandatory ensures that semantic drift is identified early, averting the classic “quantity delivered = 100 EA” vs “quantity = 100 PC” mismatch that causes inventory write-offs.
Peak transactions per hour (direction A→B and B→A)
These numeric values size thread pools, Kafka partitions, DB connections and auto-scaling policies. Mandatory status prevents under-sized infrastructure that back-pressures and drops messages under peak load, directly protecting the zero-loss guarantee.
Maximum acceptable end-to-end latency for a single transaction
Latency expectation (e.g., <1 s) determines whether sync request/response is viable or if async messaging with correlation IDs is required. Mandatory selection aligns engineering choices to business SLAs and prevents the “it’s fast enough” assumption that fails under Black-Friday traffic.
Will burst traffic exceed 5× the average hourly volume?
Burst factor influences queue sizing, cloud auto-scaling max parameters and cost estimates. Mandatory yes/no forces architects to confront seasonal logistics spikes (Black Friday, Chinese New Year) and to quantify the exact multiplier, avoiding surprise throttling and data loss.
Do you require compression (gzip, deflate) for large payloads?
Compression reduces bandwidth cost and prevents time-outs on large ASN files, but must be negotiated end-to-end. Mandatory yes/no ensures the decision is explicit and supported by both systems, preventing the “we compress, they don’t” mismatch that corrupts payloads.
Is batched processing acceptable for high-volume scenarios?
Batching can solve throughput bottlenecks but introduces latency and duplicate-detection complexity. Mandatory status forces architects to decide up-front, triggering follow-up questions on batch size and guaranteeing that real-time requirements are not silently sacrificed.
Required delivery guarantee
Exactly-once, at-least-once or best-effort dictates investment in idempotent receivers, de-duplication stores and DLQs. Mandatory selection prevents the fatal default of “best effort” that silently loses messages under load, ensuring zero-loss is architected, not hoped for.
Do you need an end-to-end transaction audit trail?
Audit trails are compulsory for SOX, GDPR and ISO 27001; they also enable forensic replay after incidents. Mandatory yes/no ensures compliance is baked into the design, not retro-fitted after an auditor finds gaps.
Are duplicate messages acceptable under any circumstance?
Duplicate tolerance affects idempotency key design and storage costs. Mandatory yes/no forces architects to quantify an acceptable duplicate rate (follow-up) and to implement de-duplication, preventing financial reconciliation errors that manifest as “lost” revenue.
Will you implement a dead-letter queue (DLQ) for poison messages?
DLQs prevent poison messages from looping forever and blocking the entire pipeline. Mandatory status ensures a conscious decision; if “no”, the follow-up text requires an alternative strategy, eliminating the silent data-loss that occurs when bad messages are simply dropped.
Maximum retry attempts before manual intervention
Too few retries create false-positive Severity-1 pages; too many delay recovery and risk queue depth overflow. Mandatory numeric input forces a balanced policy and integrates with monitoring to auto-page when the limit is hit, ensuring data is not lost through infinite loops.
Is data encrypted in transit (TLS 1.3 preferred)?
Encryption in transit is a baseline security requirement for PCI-DSS, GDPR and most customer contracts. Mandatory yes/no prevents the insecure “it’s inside our VPN” shortcut that fails external audits.
Is data encrypted at rest (field-level or payload-level)?
At-rest encryption satisfies regulatory mandates and prevents data exposure during forensic disk imaging. Mandatory status ensures the requirement is not forgotten when sizing encrypted file-systems or database TDE.
Authentication mechanism
The choice (OAuth 2.0, mTLS, API Key) drives certificate lifecycles, token refresh logic and vault configuration. Mandatory single-choice prevents the “we’ll trust IP” anti-pattern that fails when traffic moves to a different subnet during DR.
Do you require IP whitelisting or private connectivity (VPN, VPC peering)?
Private connectivity affects firewall rules, data-residency and cloud region selection. Mandatory yes/no ensures network security is designed before code freeze, avoiding the last-minute discovery that the SaaS vendor cannot support IP whitelisting.
Will personally identifiable information (PII) or personal data cross system boundaries?
PII flow triggers GDPR Art. 30 records of processing, DPIAs and possibly tokenisation. Mandatory yes/no ensures privacy teams are engaged early, preventing the project from being blocked by the DPO one week before go-live.
Is there a requirement to mask or tokenise sensitive fields?
Masking reduces breach impact and is often mandated by PCI-DSS or customer contracts. Mandatory status ensures architects budget for tokenisation servers and key rotation, avoiding the “we didn’t know” excuse after a penetration test fails.
Do you need to retain message payloads for post-event forensic investigation?
Retention affects storage sizing, cost and privacy (retention limits). Mandatory yes/no forces an explicit decision and triggers a follow-up numeric field for retention days, ensuring evidence is available for audits without violating GDPR storage-limitation principles.
Preferred error notification channel
The channel (Slack, PagerDuty, email) determines integration with existing NOC workflows and SLA timers. Mandatory selection prevents the black-hole scenario where errors are logged but no one is paged, indirectly causing data-loss because failures go unnoticed.
Do you require a dedicated integration health dashboard?
Dashboards reduce MTTR by surfacing success-rate heat-maps and payload traces. Mandatory yes/no ensures observability is not an after-thought; if “yes”, the follow-up multi-select forces architects to specify which widgets are required, preventing the generic “we have logs” excuse.
Will you export metrics to an external APM or Prometheus/Grafana?
Export enables correlation with broader system KPIs and SLO burning. Mandatory status ensures the integration is not a black-box, allowing enterprise SRE teams to include it in their global alerting topology.
Describe the classification scheme for error severity
A clear scheme (Severity-1 = data loss, Severity-2 = retry possible) prevents alert fatigue and ensures Severity-1 pages are treated as P1 incidents. Mandatory text forces architects to document the taxonomy, aligning with ITIL and avoiding the “everything is critical” overload that desensitises on-call engineers.
Do you need automatic ticket creation in ITSM tools (ServiceNow, Jira)?
Auto-ticketing enforces SLA accountability and provides an audit trail for post-incident reviews. Mandatory yes/no ensures the decision is explicit; integrating with ServiceNow can auto-populate CI relationships, speeding up root-cause analysis and reducing MTTR that indirectly protects data.
Maximum acceptable MTTR for Severity-1 errors (minutes)
A numeric MTTR target (e.g., 60 min) is required for SLA dashboards and escalation policies. Mandatory input prevents the vague “ASAP” answer, ensuring monitoring can auto-page the next tier if the target is breached, thus minimising the window where data-loss could occur.
Is synthetic transaction probing required for proactive detection?
Synthetic probes detect failures before real business transactions are lost. Mandatory yes/no forces architects to decide whether to invest in probe scripts, preventing the reactive “wait for customer complaint” anti-pattern.
Do both systems use the same canonical units of measure (UoM)?
UoM mismatches (EA vs PC, KG vs LB) are a classic source of silent data corruption. Mandatory yes/no forces explicit confirmation; if “no”, the follow-up text requires conversion rules, ensuring semantic integrity is designed, not discovered during UAT.
Are code lists (status codes, Incoterms, package types) identical?
Code mismatches cause mapping failures that manifest as stuck shipments. Mandatory yes/no ensures architects confront this early; if “no”, the follow-up demands a mapping table, preventing the “we’ll fix it in Excel later” shortcut that breeds data-loss.
Do you require dynamic field transformation (e.g., date format, decimal separator)?
Transformations affect parsing logic and can introduce locale bugs. Mandatory yes/no ensures the decision is documented, allowing QA to include locale-based negative testing.
Will you use an enterprise data dictionary or master data management (MDM) hub?
MDM reduces semantic drift across integrations. Mandatory status ensures architects align with enterprise governance; if “yes”, the integration can leverage existing canonical codes, reducing duplicate mapping effort and data-loss risk.
Handling of unknown or unmapped codes
The strategy (reject, default, quarantine) directly impacts data quality. Mandatory single-choice prevents the “accept and hope” behaviour that silently corrupts downstream analytics.
Do you need to support multi-language or multi-alphabet text?
Multi-alphabet support affects character encoding, collation and storage size. Mandatory yes/no ensures UTF-8 or UTF-16 is explicitly chosen, preventing the “?” substitution bugs that lose non-Latin data.
Will you run parallel operations (shadow mode) before cut-over?
Shadow mode provides statistical proof of zero-loss before switching traffic. Mandatory yes/no forces architects to budget time and environments; if “yes”, the follow-up numeric field for duration ensures the parallel run is long enough to cover peak-period behaviour.
Is automated regression testing mandatory for every deployment?
Automated tests prevent regressions that re-introduce data-loss defects. Mandatory status ensures CI pipelines include contract tests, protecting the zero-loss guarantee during future hot-fixes.
Test data source
The source (synthetic, anonymised production, etc.) affects privacy compliance and test realism. Mandatory selection ensures architects explicitly justify using production data, triggering DPIA or masking requirements.
Do you require negative testing (malformed payloads, network drops)?
Negative testing validates resilience against poison messages and network partitions. Mandatory yes/no ensures QA budgets for chaos tests, preventing the “it works in the lab” syndrome that collapses in production.
Define acceptance criteria for zero-data-loss
Concrete criteria (100% message reconciliation, 0% duplicate rate) convert “zero loss” from slogan to measurable exit gate. Mandatory text ensures the definition exists and can be automated in CI, preventing subjective go-live decisions.
Will a third-party conduct penetration or security testing?
External pen-tests uncover injection flaws that could leak or corrupt data. Mandatory yes/no ensures security budget is allocated and timelines include remediation windows before go-live.
Recovery Time Objective (RTO) for integration layer
RTO in minutes is required for DR run-book automation and SLA dashboards. Mandatory numeric input prevents the vague “4 hours” prose that fails board-level DR commitments.
Recovery Point Objective (RPO) for message data
RPO in minutes determines backup frequency and queue retention. Mandatory status ensures architects size Kafka topic retention or DB log shipping correctly, preventing data-loss during regional outages.
Do you maintain a hot-hot active-active setup across data centres or regions?
Active-active topology affects licensing cost, network latency and exactly-once semantics. Mandatory yes/no forces architects to decide early, avoiding the last-minute discovery that the SaaS vendor only supports single-region active-passive.
Is message-level replay or rehydration supported after recovery?
Replay capability determines whether lost in-flight messages can be restored after DR failover. Mandatory status ensures the feature is designed (idempotent keys, offset storage), not wished for during an incident.
Do you perform regular DR drills that include integration components?
Drills validate that RTO/RPO targets are achievable. Mandatory yes/no ensures the integration is not excluded from enterprise DR exercises, preventing the “we forgot the middleware” scenario that leaves data unrecoverable.
Is there a documented rollback plan that reverts to the previous interface version?
Rollback plans mitigate failed go-lives. Mandatory status ensures architects document reverse-proxy rules, database roll-back scripts and data-reconciliation steps, preventing the “no way back” trap that forces teams to fix forward under pressure and often loses data.
Solution Architect name
A named individual is required for accountability, change-request approval and audit trails. Mandatory text prevents anonymous submissions that cannot be escalated during incidents.
Lead Developer name
The lead developer is the day-to-day technical owner for code reviews and hot-fix decisions. Mandatory status ensures a second accountable party exists, providing redundancy if the architect is unavailable.
Form completion date
The date creates a baseline for change-control; any requirement change after this date triggers a formal CR. Mandatory date field prevents retro-active edits that would invalidate the signed-off baseline.
Has this form been peer-reviewed by another architect?
Peer review reduces single-point-of-failure mistakes and enforces enterprise standards. Mandatory yes/no ensures quality gates are met before engineering spend begins.
Do you agree that any scope change after sign-off will trigger a formal change request?
This clause protects against scope-creep that can silently introduce new data-loss vectors. Mandatory acceptance ensures stakeholders understand the change-control process, maintaining the integrity of the zero-loss commitment.
I confirm that the information provided is accurate to the best of my knowledge and that achieving zero-data-loss integration is feasible with these requirements
The checkbox is a legally binding attestation required for ISO 27001 and internal audit. Mandatory status ensures the architect consciously accepts responsibility, providing audit evidence that due-diligence was performed.
The form strikes an optimal balance: every question that could directly cause data-loss or compliance breach is mandatory, while ancillary details (average payload size, largest payload, code-freeze period) remain optional to reduce friction. This design maximises data quality for critical parameters without overwhelming the architect, thereby protecting the core “zero-data-loss” goal while still encouraging completion.
Going forward, consider making some optional fields conditionally mandatory: for example, if “burst traffic exceeds 5×” is answered “yes”, then the follow-up numeric burst factor should become mandatory. Similarly, if “PII crosses boundaries” is “yes”, the privacy-regime multi-select could be required. This preserves flexibility yet closes loopholes. Finally, maintain the current practice of providing rich placeholders and examples—senior engineers appreciate speed over rigid pick-lists, and the controlled vocabulary in single-choice questions keeps the data mineable for enterprise analytics.
To configure an element, select it on the form.