{"id":79286,"date":"2026-09-15T14:15:14","date_gmt":"2026-09-15T17:15:14","guid":{"rendered":"https:\/\/a3aengenharia.com\/?post_type=articles&p=79286"},"modified":"2026-09-16T13:03:22","modified_gmt":"2026-09-16T16:03:22","slug":"climate-vulnerability-assets-infrastructure-engineering-weaknesses","status":"publish","type":"articles","link":"https:\/\/a3aengenharia.com\/en-us\/content\/technical-articles\/climate-vulnerability-assets-infrastructure-engineering-weaknesses\/","title":{"rendered":"Climate Vulnerability: How to Identify Weaknesses in Assets and Infrastructure"},"content":{"rendered":"\n

Climate vulnerability is the susceptibility of an asset, system or service to suffer performance loss when confronted with a climate hazard. In engineering, it appears as insufficient capacity, low redundancy, deficient protection, unsuitable location, obsolescence and limited recovery capacity.<\/p>\n\n\n\n

Two assets exposed to the same hazard can present different risks because their vulnerabilities are different.<\/p>\n\n\n\n

Sensitivity and adaptive capacity<\/h2>\n\n\n\n

Sensitivity shows how strongly the system is affected by the adverse condition. Adaptive capacity shows how well it can respond, maintain function, operate in a degraded mode and recover performance.<\/p>\n\n\n\n

Climate vulnerability in assets<\/title><\/path><\/marker><\/path><\/marker><\/circle><\/marker><\/circle><\/marker><\/path><\/marker><\/path><\/marker><\/defs><\/g><\/path><\/path><\/path><\/path><\/path><\/g>
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Hazard<\/p><\/span><\/div><\/foreignObject><\/g><\/g><\/rect>

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Climate vulnerability in assets<\/figcaption><\/figure>\n\n\n\n

Engineering turns vulnerability into evidence<\/h2>\n\n\n\n

The assessment needs to verify capacity margin, condition, redundancy, autonomy, location, protection, routes, alarms, tests and failure history.<\/p>\n\n\n\n

How to procure the assessment<\/h2>\n\n\n\n

The scope should identify assets, hazards, sensitivity, adaptive capacity, failure modes, existing controls and engineering recommendations.<\/p>\n\n\n\n

Vulnerability, exposure and risk are not synonyms<\/h2>

Exposure describes the asset\u2019s contact with the hazard. Vulnerability describes how susceptible it is when that contact occurs. Risk emerges when hazard, exposure, vulnerability and consequence are analyzed together.<\/p>

An electrical room may be in an area exposed to flooding yet have lower vulnerability if it is located at a protected elevation, has barriers, alternative routes and isolation capability. Another room in the same facility may be highly vulnerable because it is at a lower level and concentrates critical loads.<\/p>

Vulnerability must be linked to the failure mode<\/h2>

Generic classifications such as \u201chigh\u201d or \u201clow\u201d have little value if they do not indicate how the system can lose function. Engineering needs to record the asset, hazard, sensitivity condition, existing controls, failure mode and consequence for the service.<\/p>

This traceability converts diagnosis into an adaptation measure and avoids recommendations disconnected from the actual problem.<\/p>

Sensitivity may be thermal, electrical, physical or operational<\/h2>

Sensitivity appears differently depending on the system. HVAC without margin reacts quickly to higher outdoor temperature; electrical equipment operating close to rated capacity may lose margin; rooms at low elevations are more sensitive to water ingress; and operations dependent on a single access or telecommunications route have operational sensitivity.<\/p>

The diagnosis should avoid a single index without explanation. It is more useful to identify which characteristics make the asset sensitive and which can be modified through design, operation or maintenance.<\/p>

Adaptive capacity includes recovery, not only resistance<\/h2>

A system may be unable to prevent failure and still have good adaptive capacity if it detects the condition quickly, isolates the problem, maintains priority functions and restores service within an acceptable time.<\/p>

Redundancy, autonomy, spare parts, trained personnel, procedures, monitoring, supplier access and the ability to operate in degraded mode are part of that capacity. Resilience depends both on absorbing the event and recovering operation.<\/p>\n

Interdependencies increase actual vulnerability<\/h2>

A piece of equipment may appear protected when analyzed alone and still depend on power, cooling, communications or supervision systems that have their own weaknesses.<\/p>

The assessment needs to map these dependencies to identify cascading failures and situations in which multiple resources stop functioning because of the same cause.<\/p>

Condition and remaining life change vulnerability<\/h2>

Aging equipment, delayed maintenance, obsolete components and incomplete documentation reduce the margin available to withstand adverse conditions. Vulnerability is therefore not static: it changes throughout the asset life cycle.<\/p>

Asset management helps integrate condition, criticality, failure history and renewal horizon into the adaptation plan.<\/p>

Heat waves reveal capacity vulnerability<\/h2>

During extreme heat, vulnerability appears when cooling, electrical distribution or equipment operates with little margin. The problem may remain invisible under normal conditions and emerge only when several loads reach their peaks simultaneously.<\/p>

The assessment should compare demand, available capacity, redundancy and facility behavior during the most severe periods, including temperature trends and alarm history.<\/p>

Flooding reveals location vulnerability<\/h2>

Rooms at low elevations, unsealed penetrations, floor-mounted equipment, underground routes and accesses subject to flooding increase sensitivity. Response capacity depends on barriers, drainage, monitoring, isolation capability and alternative access.<\/p>

Storms reveal interface vulnerability<\/h2>

Facilities with many external interfaces, sensitive electronics and outdated documentation may be more susceptible during storms. Protection needs to be analyzed as a system, including power, communications, grounding, equipotential bonding and coordination between systems.<\/p>

The objective is to identify where an external disturbance can cross the architecture and interrupt internal functions.<\/p>

Prolonged outages reveal autonomy vulnerability<\/h2>

Having a UPS or generator alone does not define the ability to withstand an outage. Autonomy depends on the load profile, equipment condition, available resources, thermal capacity and operating strategy.<\/p>

The assessment should identify how long the service needs to be maintained, which loads have priority and which dependencies may limit recovery.<\/p>\n

Vulnerability must be supported by evidence<\/h2>

A useful assessment records the reason for the classification. Photographs, drawings, diagrams, alarm histories, load data, maintenance records, inspection reports, tests, inventory and interviews with operations help demonstrate why a given asset is sensitive or has limited response capacity.<\/p>

When evidence does not exist, the uncertainty should be recorded. Treating lack of information as a satisfactory condition creates a false sense of security.<\/p>

Vulnerability scales need explicit criteria<\/h2>

Low, medium or high vulnerability are useful only when each level has defined criteria. A matrix may consider condition, margin, location, redundancy, autonomy, detectability, recovery and dependencies.<\/p>

The objective is not to produce an absolute number, but to allow coherent comparison among assets and trace why a priority was established.<\/p>

Vulnerability should not be classified by perception. Field conditions, documentation, asset condition, capacity and criticality need to produce traceable evidence.<\/p>

Assess assets with Engineering Technical Due Diligence<\/a><\/p><\/div>

Due Diligence turns perception into diagnosis<\/h2>

For existing assets, Engineering Technical Due Diligence is an efficient way to combine documentation, inspection, inventory, condition, criticality and field evidence before defining investments. It helps separate real vulnerabilities from hypotheses and identifies gaps that require specific studies.<\/p>

The diagnosis can then feed the Climate Risk Assessment and Adaptation Plan, preserving traceability between current condition, risk and the proposed measure.<\/p>

When the weakness is already localized, the intervention can combine upgrades, modernization, migration and recommissioning without rebuilding the entire asset.<\/p>

Structure Engineering Retrofit and Upgrades<\/a><\/p><\/div>

Reducing vulnerability does not always require reconstruction<\/h2>

Many weaknesses can be reduced through gradual interventions: improve monitoring, correct interfaces, increase redundancy, reorganize loads, elevate equipment, review protection, improve maintenance or modify procedures. Others require retrofit or replacement.<\/p>

The choice should consider residual risk, cost, intervention window, remaining life and benefit to service continuity.<\/p>\n

New projects should reduce vulnerability before implementation<\/h2>

In new developments, vulnerability can be addressed through requirements for location, capacity, redundancy, route diversity, environmental conditions, protection, autonomy and monitoring. The advantage is to incorporate these requirements before physical decisions become difficult to change.<\/p>

Design Review and Project Assurance can verify that resilience requirements remain present throughout development and procurement.<\/p>

Monitoring shows when vulnerability is increasing<\/h2>

Thermal margin, autonomy, battery condition, level alarms, availability, recurring failures and maintenance backlog are signals that can indicate loss of adaptive capacity. BMS, SCADA and IoT help turn condition into operational information.<\/p>

Monitoring should be associated with thresholds, responsible parties and actions. Collecting data without response criteria does not reduce risk.<\/p>

How to procure a climate vulnerability assessment<\/h2>

The scope should define included assets and services, considered hazards, document review, field activities, classification method, criticality criteria, interdependencies, evidence, recommendations and prioritization method.<\/p>

Useful deliverables include a validated inventory, vulnerability matrix, failure-mode register, dependency map, photographic evidence, short- and medium-term recommendations and identification of required studies or designs.<\/p>

Residual risk needs to be reassessed after intervention<\/h2>

A measure reduces vulnerability but rarely eliminates risk completely. After retrofit, operational change or installation of new controls, the organization should review residual risk and confirm that achieved performance is compatible with service criticality.<\/p>

This reassessment closes the cycle between diagnosis, investment and evidence of improvement.<\/p>

Vulnerability by system helps organize the assessment<\/h2>

The same facility may present different weaknesses in each discipline. In power systems, vulnerability may lie in low autonomy, overload, inadequate protection or lack of diversity. In HVAC, it may be insufficient capacity, lack of redundancy or dependence on water. In telecommunications, it may arise from common routes, outdoor equipment or lack of failover.<\/p>

Automation and intelligent systems also belong in this matrix. Sensors without emergency power, controllers concentrated in a single environment or networks without redundancy can reduce the ability to detect and respond to an event. Organizing the assessment by system helps turn a broad concept into engineering checks.<\/p>\n

Data centers and critical facilities require integrated analysis<\/h2>

In high-availability environments, vulnerability rarely resides in a single asset. Power, cooling, networks, automation, electrical protection and operating procedures form a chain. The weakest link can limit the performance of the entire architecture.<\/p>

The assessment should therefore consider normal operation, contingency and recovery. Redundancy that depends on the same environment or the same power source may not reduce vulnerability as expected.<\/p>

Prioritizing vulnerabilities requires looking at consequence and treatability<\/h2>

Not every identified vulnerability needs to trigger immediate intervention. Priority depends on the consequence for the service, the probability of the failure mode occurring, the existence of compensating controls, ease of correction and the time required to implement a definitive solution.<\/p>

This analysis avoids dispersing CAPEX across low-consequence weaknesses while more relevant risks remain untreated. It also separates short-term operational measures from medium- and long-term structural projects.<\/p>

Reliability and climate vulnerability complement each other<\/h2>

Reliability methods help identify failure modes, criticality, dependencies and recovery capability. The climate layer adds environmental conditions that can increase the probability or simultaneity of those failures.<\/p>

This integration is especially useful when heat, storms, flooding or utility unavailability can act as a common cause affecting multiple pieces of equipment. The result is an assessment closer to actual system behavior.<\/p>

Deliverables must support prioritization and design<\/h2>

A vulnerability assessment needs to produce results engineering can use. Asset matrices, sensitivity criteria, adaptive capacity, failure modes, evidence, interdependencies, vulnerability classification and recommendations should be recorded traceably.<\/p>

When a recommendation requires design, the report should state the technical problem to solve and the expected performance. This transition is important so the next procurement does not restart the diagnosis from zero.<\/p>

After retrofit or implementation of controls, tests need to demonstrate that the initial condition changed and that residual risk is compatible with the service.<\/p>

Demonstrate performance with Engineering Commissioning<\/a><\/p><\/div>\n

Acceptance criteria confirm whether vulnerability was reduced<\/h2>

After the intervention, it is necessary to verify whether the condition that justified the recommendation has changed. This may involve tests of capacity, autonomy, redundancy, alarms, protection, recovery or degraded operation.<\/p>

The result should be compared with the initial condition and recorded as residual risk. This allows the organization to demonstrate that the investment produced a verifiable technical reduction rather than merely the installation of new components.<\/p>

Portfolio assessment helps decide where to start<\/h2>

Organizations with multiple sites or many assets need to compare vulnerabilities using consistent criteria. The analysis can combine service criticality, exposure, condition, adaptive capacity, consequence and control maturity to create a portfolio view.<\/p>

The objective is not to turn different realities into a simplistic score. It is to create a comparable basis showing which facilities require detailed investigation, which can accept immediate operational measures and which justify priority design or retrofit.<\/p>

Vulnerability can migrate when architecture changes<\/h2>

An intervention can reduce one weakness and create another if interfaces are not considered. Increasing HVAC capacity may raise electrical demand; creating power redundancy may concentrate equipment in the same room; installing new sensors may increase dependence on networks and auxiliary power.<\/p>

Recommendations should therefore be evaluated in the system context. Vulnerability reduction needs to be verified after the change, considering effects on other disciplines.<\/p>

Asset management turns vulnerability into a life-cycle decision<\/h2>

When vulnerability is integrated into asset records and criticality, maintenance and renewal begin to consider not only age or failure history but also exposure to adverse conditions and recovery capability. This improves prioritization of inspections, replacements and retrofits.<\/p>

An asset with limited remaining life and high vulnerability may justify bringing renewal forward. Another asset in good condition with robust controls may remain in operation under monitoring. The decision then combines risk, condition and service horizon.<\/p>\n

Climate Risk Assessment uses vulnerability as a central input<\/h2>

Vulnerability analysis does not replace climate risk assessment. It provides an essential part of the diagnosis that must be combined with hazard, exposure and consequence. This distinction prevents assigning high risk merely because an asset has a technical weakness.<\/p>

The Climate Risk Assessment<\/a> organizes these dimensions and converts the diagnosis into a risk register and adaptation options.<\/p>

Final considerations<\/h2>\n\n\n\n

The unit of analysis should be the service and the failure mode<\/h2>

A vulnerability assessment should not begin by asking only whether equipment is exposed to heat, flooding or storms. The more useful question is: what function does this asset support, how can that function be lost and which conditions make failure more likely or more severe? This shift in focus avoids generic assessments and connects the diagnosis directly to engineering.<\/p>

In a critical facility, for example, the vulnerability of an electrical room does not depend only on its elevation. It depends on sealing, drainage, cable routes, panel position, maintenance access, power redundancy, load-transfer capability and recovery time. Likewise, HVAC vulnerability depends on available capacity, equipment condition, redundancy, outdoor design temperature, automation, maintenance quality and dependence on electrical supply.<\/p>

When the assessment uses service + asset + failure mode as the unit, vulnerability can be converted into requirements, interventions and tests.<\/p>

Operating limits must be known before classifying weakness<\/h2>

An asset may appear healthy during normal operation and still lack sufficient margin for an extreme event. Vulnerability becomes visible when field condition is compared with technical limits: allowable temperature, thermal capacity, current, power, autonomy, water level, transfer time, drainage capacity, available bandwidth, tolerance to loss of communication or any other relevant functional limit.<\/p>

Engineering needs to identify the point at which degradation becomes loss of service. This boundary may be physical, electrical, thermal, logical or operational. In a UPS, for example, vulnerability may lie in actual autonomy under high temperature; in a generator, in available capacity under environmental conditions; in a telecommunications system, in two supposedly redundant routes converging along the same external section.<\/p>

Without explicit limits, the assessment tends to produce adjectives \u2014 \u201chigh,\u201d \u201cmedium,\u201d \u201clow\u201d \u2014 without the ability to guide design or acceptance.<\/p>\n

Vulnerability must be supported by an evidence hierarchy<\/h2>

The quality of the conclusion depends on the quality of the evidence. Design documentation and As Built records are a starting point, but they need to be confronted with inspection, measurements, failure history, maintenance records, BMS\/SCADA data, alarms, tests and operational interviews. The more critical the asset, the less acceptable it is to classify vulnerability based only on perception.<\/p>

Good Due Diligence separates confirmed evidence, assumptions, documentation gaps and hypotheses to be tested. This distinction matters because the recommended action changes. If system capacity is unknown, the next step may be a study. If capacity was measured and demonstrated insufficient margin, the next step may be design or retrofit.<\/p>

Engineering Technical Due Diligence<\/a> is the service that organizes this transition from perception to diagnosis: evidence, condition, criticality, risks, recommendations and action plan.<\/p>

Criticality and vulnerability need to be assessed separately<\/h2>

A critical asset is not necessarily a vulnerable asset, and a vulnerable asset is not necessarily critical. Equipment may be highly susceptible to heat but have low consequence if rapid replacement and functional redundancy are available. Another asset may be robust yet single-handedly support a service whose unavailability is intolerable.<\/p>
Situation<\/th>Interpretation<\/th>Typical response<\/th><\/tr><\/thead>
High criticality + high vulnerability<\/td>Maximum priority<\/td>Intervention, contingency and monitoring<\/td><\/tr>
High criticality + low vulnerability<\/td>Preserve robustness<\/td>Maintenance, testing and condition management<\/td><\/tr>
Low criticality + high vulnerability<\/td>Tolerable but recurring failure<\/td>Correction for cost, safety or efficiency<\/td><\/tr>
Low criticality + low vulnerability<\/td>Lower priority<\/td>Monitoring and normal maintenance<\/td><\/tr><\/tbody><\/table>

This separation prevents CAPEX from being spent on fragile but low-relevance components while single points of failure remain untreated. Mature prioritization crosses criticality, vulnerability, exposure and consequence.<\/p>\n

Interdependencies can make an asset vulnerable without an intrinsic defect<\/h2>

One of the largest sources of error is assessing each discipline in isolation. A data center may have redundant UPS but depend on cooling supplied by a single panel. A control center may have redundant servers but lose operation if both links share the same external duct. A generator may be available but depend on a pump, automation or transfer system without redundancy.<\/p>

Actual vulnerability emerges from these dependencies. The diagnosis should therefore map power, telecommunications, cooling, automation, security, access, fuel, drainage and human operations as a network of functions. Extreme events are particularly dangerous because they affect several dependencies simultaneously.<\/p>

This approach connects directly with Reliability and Availability Engineering<\/a>, where common-cause failures, effective redundancy and recovery capability are treated as system properties.<\/p>

Data centers clearly show how vulnerabilities combine<\/h2>

In data centers, extreme heat can reduce HVAC margin and increase electrical load; grid failure can increase dependence on UPS and generators; flooding can reach electrical rooms before racks; storms can affect power and telecommunications at the same time. None of these risks should be analyzed in isolation.<\/p>

Vulnerability depends on architecture, redundancy level, asset condition, physical segregation, autonomy, monitoring and recovery capability. The Resilient Data Center whitepaper<\/a> explores this chain from assessment to design, modernization and acceptance.<\/p>

The same reasoning applies to hospitals, control centers, industrial facilities, sanitation, telecommunications and other critical assets: the climate event is only the hazard; vulnerability is created by the architecture and the actual state of the system.<\/p>\n

Vulnerability scales need to carry uncertainty and confidence<\/h2>

Qualitative classifications are useful, but they should communicate the degree of confidence in the assessment. Vulnerability classified as high based on measurement, failure history and inspection is different in nature from a high classification based only on missing documentation. The report should separate the severity of the weakness from the quality of the evidence.<\/p>

A practical approach is to record, in addition to the vulnerability level, the reliability of the information: high when measured evidence and coherent documentation exist; medium when documentation is partial and field confirmation is available; low when the conclusion depends on assumptions or relevant gaps. This layer helps determine whether the next investment should be intervention or information gathering.<\/p>

It also avoids false precision. A single number can hide important uncertainties and induce poor prioritization. For CAPEX decisions, transparency about data and limitations is part of engineering.<\/p>

Asset management connects vulnerability to the life cycle<\/h2>

Vulnerability is not static. It increases with degradation, obsolescence, delayed maintenance, load growth, loss of redundancy and undocumented changes. Climate diagnosis should therefore connect to asset records, criticality, history and maintenance strategy.<\/p>

A transformer that operates with comfortable margin today may become vulnerable after load expansion. A redundant cooling system can lose that condition when one unit remains unavailable for months. A generator may have sufficient rated power and insufficient actual autonomy due to degradation of the tank, fuel, starting battery or transfer logic.<\/p>

Engineering Asset Management<\/a> makes it possible to turn vulnerabilities into maintenance, renewal, replacement and investment plans throughout the life cycle, preventing resilience from depending on isolated actions.<\/p>\n

Remaining life and obsolescence change the adaptation strategy<\/h2>

Not every vulnerability should be treated with retrofit. When an asset is close to the end of its useful life, has unavailable spare parts, obsolete technology or insufficient capacity for future demand, it may be more rational to incorporate adaptation into asset renewal. In other cases, a simple intervention extends useful life and reduces risk for many years.<\/p>

The decision should compare cost, remaining life, criticality, risk, outage window and operational benefit. This avoids two extremes: overinvesting in assets that will soon be replaced or postponing essential adaptations while waiting for a renewal with no defined schedule.<\/p>

In large portfolios, this logic helps combine the renewal plan with the climate adaptation plan, reducing duplicate work and improving CAPEX use.<\/p>

The intervention hierarchy should start from the cause of vulnerability<\/h2>

The engineering response depends on the identified mechanism. If vulnerability is lack of capacity, the measure may be increased capacity, load reduction or differentiated operation. If it is location, it may require elevation, relocation or a barrier. If it is common-cause failure, the response tends to be physical or functional diversity. If it is lack of visibility, monitoring and automation may be sufficient.<\/p>

A useful hierarchy is: eliminate the weakness where possible; reduce exposure; increase robustness; introduce redundancy or diversity; expand autonomy; improve detection and response; and finally prepare recovery. These layers can be combined.<\/p>

Retrofit and Upgrades<\/a> is especially appropriate when the existing asset can achieve acceptable performance without complete reconstruction.<\/p>

A vulnerability portfolio should become a roadmap, not an endless backlog<\/h2>

When an organization assesses dozens or hundreds of assets, the result can become an extensive list of weaknesses without execution capacity. Engineering needs to consolidate findings by service, system, location, cause and intervention type. Repeated vulnerabilities may justify corporate programs: SPD standardization, HVAC redundancy review, BMS modernization, electrical-room inspection programs, energy-autonomy strategy or telecommunications-route review.<\/p>

This grouping improves scale and governance. Instead of procuring isolated corrections for each incident, the owner can structure engineering programs with standardized criteria and measurable goals.<\/p>

The Engineering Consulting Guide<\/a> helps position this stage within a broader journey of diagnosis, planning, design, implementation and verification.<\/p>\n

How to procure a vulnerability assessment with useful deliverables<\/h2>

The scope should ask for more than a site visit and narrative report. A good scope includes document review, inventory of critical systems, classification criteria, field inspection, identification of failure modes, assessment of existing controls, photographic records, information gaps, vulnerability matrix, criticality, recommendations, preliminary CAPEX and a roadmap.<\/p>

It is also important to define the format of deliverables. Matrices should enable traceability by asset or service; recommendations need priority, justification, a suggested responsible party and next step. When a specialized study outside the scope is required, this should be identified explicitly as an interface \u2014 for example, hydrological, structural or geotechnical study \u2014 without turning a hypothesis into a conclusion.<\/p>

The engagement should include a validation meeting with operations and maintenance. Many weaknesses are known by field teams but are undocumented; others are perceived as operational problems when they actually derive from architecture or capacity.<\/p>

The effectiveness of the intervention needs to be verified<\/h2>

After retrofit or design, vulnerability should be recalculated or reassessed. The objective is to demonstrate that the condition changed: greater thermal margin, demonstrated autonomy, effective segregation, adequate protection level, functional redundancy, shorter recovery time or reduced exposure.<\/p>

Testing and monitoring close the cycle. The Commissioning Guide<\/a> helps structure the test plan, evidence and acceptance; asset management maintains the indicators during operation. Without this step, the organization knows it implemented a measure but does not necessarily know whether it reduced vulnerability.<\/p>\n

Example of prioritization in a critical-asset portfolio<\/h2>

Imagine a portfolio with four findings: an electrical room at low elevation; an HVAC system without effective redundancy; a UPS with degraded batteries; and a telecommunications route that is redundant only logically but shares the same duct. All represent vulnerability, but priority depends on consequence and correction effort.<\/p>

The electrical room may require a risk study and a higher-CAPEX physical intervention. The batteries may allow immediate correction with high benefit. HVAC may require a capacity design and implementation sequence. The telecommunications route may require dry-infrastructure reconfiguration. The roadmap should combine quick wins, structural projects and monitoring actions, always linking each investment to the service being preserved.<\/p>

This is the point at which vulnerability stops being only a climate concept and becomes a direct input to asset management and investment engineering.<\/p>

Reducing vulnerability requires diagnosis, protection, redundancy, retrofit, monitoring and risk-oriented asset management.<\/p>\n\n\n\n

Technical references<\/summary>\n

[1] INTERNATIONAL ORGANIZATION FOR STANDARDIZATION. ISO 14091:2021 \u2014 Adaptation to climate change \u2014 Guidelines on vulnerability, impacts and risk assessment. Available at: https:\/\/www.iso.org\/standard\/68508.html<\/a>.<\/p>\n\n\n\n

[2] ADAPTABRASIL MCTI. Glossary. Available at: https:\/\/adaptabrasil.mcti.gov.br\/sobre\/glossario<\/a>.<\/p>\n<\/details>\n\n\n\n

Frequently asked questions<\/summary>\n
What is climate vulnerability?<\/strong>

It is the susceptibility of a system to suffer performance loss when confronted with a climate hazard.<\/p><\/div>

Are vulnerability and exposure the same?<\/strong>

No. Exposure is contact with the hazard; vulnerability is the system\u2019s susceptibility and its ability to respond.<\/p><\/div><\/div>\n<\/details>\n\n\n\n

Complementary technical materials<\/summary>

Related services<\/h4>