Al Rouf LED

Switchgear Standards and Compliance Requirements in Saudi Arabia

Switchgear installed in Saudi Arabia must meet the applicable SASO technical regulations, Saudi-adopted IEC standards, Saudi Building Code requirements, SABER conformity procedures and project specifications. The exact requirements depend on the equipment’s voltage, product classification, fault rating, installation environment and whether it is imported or manufactured locally.

Compliance must be evaluated for the complete switchgear assembly—not only for its individual circuit breakers and components. Engineers, consultants and procurement teams should verify the design, short-circuit ratings, environmental suitability, test evidence, documentation and conformity route before approving the equipment.

Why Is Switchgear Compliance Important in Saudi Arabia?

Switchgear compliance helps ensure that electrical equipment can distribute power, interrupt expected fault currents and protect people and connected systems under its intended operating conditions.

Non-compliant or incorrectly documented switchgear can lead to:

  • Consultant or project-owner rejection
  • SABER or customs-clearance delays
  • Failure during factory acceptance testing
  • Insufficient short-circuit protection
  • Excessive internal temperature rise
  • Unsafe access to energized components
  • Unreliable operation in high temperatures or dusty conditions
  • Expensive modifications or replacement

Compliance should therefore be defined during the design and specification stages—not after manufacturing or delivery.

If you need a general introduction to the equipment and its purpose, read What Is Switchgear? A Complete Guide.

Who Regulates Switchgear Compliance in Saudi Arabia?

Switchgear acceptance can involve SASO, the SABER platform, Saudi Building Code requirements, utilities, engineering consultants and individual project owners.

What Is SASO’s Role?

The Saudi Standards, Metrology and Quality Organization, known as SASO, develops and adopts standards and technical regulations for products placed on the Saudi market.

International IEC standards may be adopted as Saudi standards and published as SASO IEC standards. The applicable Saudi edition should be checked when preparing a specification or conformity file because standards and regulatory requirements can be updated.

SASO lists a national standard for low-voltage switchgear and controlgear assemblies, reinforcing the importance of evaluating the complete assembly.

The applicable standard depends on the type of equipment. Requirements for low-voltage assemblies are different from those for medium-voltage metal-enclosed switchgear or equipment installed in explosive atmospheres.

What Is the SABER Platform?

SABER is the Saudi electronic platform used for product registration, conformity certificates and shipment certificates.

The required conformity route can depend on:

  • Product classification
  • Harmonized System code
  • Applicable technical regulation
  • Whether the product is regulated or non-regulated
  • Whether it is imported or locally manufactured
  • The conformity-assessment procedure assigned to it

The importer or local manufacturer should confirm the route for the exact switchgear product. It should not be assumed that every electrical panel requires the same certificate or process.

How Does the Saudi Building Code Apply?

The Saudi Electrical Code SBC 401 contains requirements affecting electrical systems installed in Saudi buildings and facilities.

Product conformity and installation compliance are related but separate. A switchgear assembly may have suitable test evidence, while its installation must still satisfy requirements concerning:

  • Protection and isolation
  • Earthing and bonding
  • Cable installation
  • Safe clearances
  • Accessibility
  • Protection against electric shock
  • Coordination with the wider electrical system

Can Project Owners Require Additional Compliance?

Yes. Saudi Electricity Company, government entities, industrial operators, consultants and other project owners may impose additional requirements.

These can include:

  • Utility technical specifications
  • Approved vendor lists
  • Owner engineering standards
  • Material-approval procedures
  • Factory acceptance tests
  • Witness inspections
  • Specific relay and communication requirements
  • Sector-specific safety rules

Meeting an IEC standard does not automatically replace contractual project requirements.

Which Standards Apply to Low-Voltage Switchgear?

The IEC 61439 series is the principal international reference for low-voltage switchgear and controlgear assemblies.

What Does IEC 61439-1 Cover?

IEC 61439-1 provides the general rules for low-voltage switchgear and controlgear assemblies. It addresses matters such as:

  • Assembly construction
  • Electrical characteristics
  • Protection against electric shock
  • Short-circuit withstand
  • Temperature-rise limits
  • Clearances and creepage distances
  • Protective circuits
  • Dielectric properties
  • Mechanical operation
  • Marking and documentation
  • Design and routine verification

IEC 61439-1 is normally used with the part that applies to the particular assembly. It should not generally be treated as a complete standalone product specification.

What Does IEC 61439-2 Cover?

IEC 61439-2 applies to power switchgear and controlgear assemblies used for power distribution and control.

Depending on the project, these may include:

  • Main low-voltage switchboards
  • Power control centres
  • Motor control centres
  • Industrial power panels
  • Building distribution assemblies

One of the most important IEC 61439 principles is that compliance applies to the complete assembly—not merely to the separately certified components installed inside it.

For an explanation of those components, see Switchgear Components and Their Functions.

Are Compliant Components Enough?

No. Installing compliant circuit breakers, contactors and protective devices does not automatically make the complete switchgear assembly compliant.

The arrangement and integration of components can affect:

  • Heat dissipation
  • Short-circuit performance
  • Dielectric strength
  • Internal clearances
  • Mechanical operation
  • Enclosure protection
  • Electrical connections
  • Access for maintenance

For example, a circuit breaker may comply with IEC 60947-2, but the panel must still be verified for its busbar arrangement, rated current, temperature rise, short-circuit withstand and enclosure design.

Manufacturers should provide evidence relating to the offered assembly instead of relying only on individual component certificates.

What Is the Difference Between Design and Routine Verification?

IEC 61439 distinguishes between design verification and routine verification.

Design Verification

Design verification demonstrates that the assembly design satisfies the applicable requirements.

Depending on what the relevant standard permits, verification may be established through:

  • Laboratory testing
  • Comparison with a verified reference design
  • Technical assessment or calculation

It may address enclosure protection, electrical clearances, protective circuits, temperature rise, short-circuit withstand, dielectric performance and mechanical operation.

The manufacturer should clearly identify the verification method used for each characteristic.

Routine Verification

Routine verification is performed on every completed assembly to identify manufacturing defects and confirm that the supplied equipment corresponds to its approved design.

It may include:

  • Construction inspection
  • Verification of clearances
  • Protective-circuit checks
  • Internal wiring inspection
  • Mechanical operation
  • Dielectric testing
  • Functional testing
  • Marking and documentation review

Routine-verification records should be retained and submitted when required by the project.

Which Standards Apply to Medium-Voltage Switchgear?

Medium-voltage switchgear is generally evaluated under the relevant parts of the IEC 62271 series and their applicable Saudi-adopted editions.

These standards can include:

  • IEC 62271-1 for common AC switchgear and controlgear specifications
  • IEC 62271-100 for AC circuit breakers
  • IEC 62271-102 for disconnectors and earthing switches
  • IEC 62271-103 for switches above 1 kV and up to and including 52 kV
  • IEC 62271-105 for switch-fuse combinations
  • IEC 62271-200 for AC metal-enclosed switchgear and controlgear
  • IEC 62271-202 for prefabricated substations

Only the parts relevant to the offered equipment should be specified.

For a clearer explanation of the voltage categories, read Types of Switchgear: LV, MV and HV Explained.

What Must Be Verified for Medium-Voltage Switchgear?

Matching the nominal system voltage is not enough. A medium-voltage technical submittal may need to confirm:

  • Rated voltage and insulation level
  • Rated normal current
  • Short-time and peak withstand currents
  • Fault-current duration
  • Circuit-breaker operating duty
  • Earthing-switch rating
  • Internal arc classification where required
  • Loss of service continuity category
  • Partition class
  • Cable-compartment arrangement
  • Mechanical and electrical interlocks
  • Protection-relay functions
  • CT and VT ratios and accuracy classes
  • Auxiliary supply
  • Control and communication interfaces
  • Environmental service conditions

The project should also define whether the switchgear must be fixed or withdrawable, indoor or outdoor, and air-insulated or gas-insulated.

If the required voltage category has not been determined, see LV vs MV vs HV Switchgear: Which One Do You Need?.

What Is Internal Arc Classification?

Internal arc classification indicates that metal-enclosed switchgear has been tested under specified conditions to assess its ability to protect people during an internal arc fault.

It is not a guarantee of protection under every possible fault. Its meaning depends on the:

  • Accessibility classification
  • Tested fault current
  • Arc duration
  • Accessible sides
  • Pressure-relief arrangement
  • Installation clearances
  • Tested switchgear configuration

Changes to the enclosure, ventilation, cable compartment or pressure-relief path may affect the relevance of the test evidence.

The submittal should therefore state the complete internal arc classification and any installation limitations—not merely say that the panel is “arc resistant.”

Which Standards Apply to Switchgear Components?

Different standards apply according to the component type and voltage.

Common references include:

  • IEC 60947-2 for low-voltage circuit breakers
  • IEC 60947-3 for switches, disconnectors and switch-disconnectors
  • IEC 60947-4-1 for contactors and motor starters
  • IEC 60269 for low-voltage fuses
  • IEC 60255 for measuring relays and protection equipment
  • IEC 61869 for instrument transformers
  • IEC 62271-100 for high-voltage AC circuit breakers

Component and assembly standards serve different purposes. Component compliance cannot replace verification of the completed switchgear assembly.

How Are Short-Circuit Ratings Evaluated?

Switchgear must withstand and interrupt the prospective fault conditions at its installation point.

Engineers may need to assess:

  • Prospective short-circuit current
  • Circuit-breaker breaking and making capacities
  • Short-time withstand current
  • Peak withstand current
  • Fault duration
  • Busbar rating
  • Conditional short-circuit rating
  • Backup or cascading arrangements
  • Protective-device operating time

These values should be coordinated with the project’s short-circuit and protection-coordination studies.

A circuit breaker with a high breaking capacity does not prove that the complete panel—including its busbars, supports, connections and enclosure—can withstand the same fault level.

To understand what happens after a fault is detected, read How Does Switchgear Work?.

Which Saudi Environmental Conditions Must Be Considered?

Saudi switchgear installations may be exposed to high temperatures, dust, sand, humidity, solar radiation and corrosive atmospheres.

The equipment manufacturer should evaluate:

  • Maximum and minimum temperatures
  • Altitude
  • Relative humidity
  • Dust and sand exposure
  • Indoor or outdoor installation
  • Direct solar radiation
  • Coastal or industrial corrosion
  • Ventilation and air-conditioning
  • Condensation risk
  • Hazardous-area conditions

If the installation conditions exceed the standard service conditions, the switchgear may require derating, ventilation, special coatings, alternative materials or enclosure modifications.

What Does the IP Rating Confirm?

IEC 60529 defines IP codes for the protection provided by enclosures against access to hazardous parts, solid objects and water.

However, an IP rating does not independently confirm:

  • Explosion protection
  • Corrosion resistance
  • UV resistance
  • Short-circuit performance
  • Internal arc classification
  • Suitability for a particular ambient temperature

The completed assembly—including its doors, joints, glands, seals and cable entries—must maintain the required IP rating. Incorrect field modifications can compromise the enclosure’s protection.

Which Standards Apply in Hazardous Areas?

Electrical switchgear installed where explosive gases, vapours or combustible dust may be present requires additional hazardous-area assessment.

Relevant parts of the IEC 60079 series can include:

  • IEC 60079-0 for general equipment requirements
  • IEC 60079-1 for flameproof enclosure protection
  • IEC 60079-10-1 for explosive-gas area classification
  • IEC 60079-10-2 for combustible-dust area classification
  • IEC 60079-14 for equipment selection and installation
  • IEC 60079-17 for inspection and maintenance

Equipment must match the classified zone, protection concept, equipment group, gas or dust group, temperature class, equipment protection level and ambient conditions.

A general “explosion-proof” statement is insufficient. The complete product marking and supporting certificate must correspond to the supplied configuration and project classification.

How Does the ILS/JB/350 Relate to Hazardous-Area Requirements?

Al Rouf’s ILS/JB/350 catalogue describes an explosion-proof and weatherproof multiple switch-socket assembly designed for hazardous-area power distribution.

The catalogue lists:

  • Ex-d construction
  • Gas Group IIC
  • IP66 protection
  • T6 temperature classification
  • Zone 1 and Zone 2 applications
  • Zone 21 and Zone 22 applications
  • 63A, four-pole incoming MCCB
  • Four interlocked switch-socket outlets
  • Die-cast alloy enclosure
  • Internal and external earthing points
  • References to IS/IEC 60079-0:2017 and IS/IEC 60079-1:2014

These are catalogue-specific specifications. They should not be treated as blanket certification for every Al Rouf switchgear product.

The catalogue states that its specifications and certifications must be verified against the approved drawing before manufacturing. The project submittal should therefore confirm that the supplied configuration, product marking and certification evidence match the approved design.

What Should a Switchgear Technical Submittal Include?

A complete technical submittal may include:

  • Technical datasheets
  • General arrangement drawings
  • Single-line and schematic diagrams
  • Bill of materials
  • Clause-by-clause compliance statement
  • Design-verification evidence
  • Routine-verification procedure
  • Component certificates
  • Short-circuit and temperature-rise evidence
  • IP and internal arc reports where required
  • Protection relay, CT and VT details
  • Interlocking philosophy
  • SABER documents where applicable
  • Nameplate and marking details
  • Installation and maintenance manuals
  • Approved deviation schedule

The models, ratings and configurations appearing in these documents must match the supplied equipment.

Test reports or certificates for different products should not be submitted without documented technical justification confirming their applicability.

Which Tests May Be Required?

A factory acceptance test may be required before delivery. Its scope can include:

  • Visual and dimensional inspection
  • Verification against approved drawings
  • Component and nameplate checks
  • Mechanical operation
  • Interlock testing
  • Control and protection checks
  • Secondary injection testing
  • Circuit-breaker operation
  • Insulation-resistance testing
  • Dielectric testing where applicable
  • CT polarity and ratio checks
  • Functional alarm and trip testing
  • Communication checks
  • Earthing-continuity verification

After installation, site testing should confirm cable connections, phase sequence, earthing, relay settings, trip functions and integration with the wider electrical system.

What Are the Most Common Compliance Mistakes?

Common mistakes include:

  • Treating component certificates as assembly certification
  • Selecting switchgear without confirming the prospective fault level
  • Providing outdated or unrelated test reports
  • Failing to match certificates to the supplied model
  • Ignoring high-temperature derating
  • Modifying an enclosure without reassessing its IP rating
  • Using hazardous-area claims without applicable evidence
  • Changing critical components without reviewing design verification
  • Beginning SABER procedures too late
  • Failing to disclose deviations from the project specification

Early technical review can prevent approval delays and unsuitable equipment selection.

How Should Compliant Switchgear Be Selected?

A structured selection process should include:

  1. Confirm the system voltage, frequency and earthing arrangement.
  2. Calculate the load and prospective fault current.
  3. Identify applicable SASO regulations and Saudi standards.
  4. Review Saudi Electrical Code requirements.
  5. Check utility, owner and consultant specifications.
  6. Define environmental and hazardous-area conditions.
  7. Select the relevant IEC assembly and component standards.
  8. Specify enclosure and internal arc requirements.
  9. Request design- and routine-verification evidence.
  10. Confirm the correct SABER classification and procedure.
  11. Approve the technical submittal before manufacturing.
  12. Define factory, site and commissioning tests.

Frequently Asked Questions

What is the primary standard for LV switchgear in Saudi Arabia?

Low-voltage power switchgear assemblies are generally assessed under the applicable Saudi-adopted editions of the IEC 61439 series. The current Saudi standard, technical regulation and project requirements should be confirmed before specification.

Does switchgear require SABER certification?

The applicable procedure depends on the product classification, HS code, technical regulation and whether the equipment is imported or locally manufactured. The precise route must be checked for the specific product.

Is IEC compliance enough for a Saudi project?

Not necessarily. IEC-based evidence may support technical compliance, but SASO regulations, SABER procedures, Saudi codes, utility standards and project specifications may impose additional requirements.

Does IP66 mean the switchgear is explosion-proof?

No. IP66 concerns protection against solid objects and water. Explosion protection requires separate hazardous-area assessment, appropriate construction, certification and marking.

Can circuit-breaker certificates cover the complete panel?

No. A certified circuit breaker does not certify the complete panel. The assembly must separately satisfy applicable construction, dielectric, temperature-rise and short-circuit requirements.

Which standard covers medium-voltage metal-enclosed switchgear?

IEC 62271-200 is a principal standard for AC metal-enclosed switchgear above 1 kV. Other IEC 62271 parts may apply to the circuit breakers, switches and other devices used in the assembly.

Conclusion

Switchgear compliance in Saudi Arabia requires coordinated consideration of SASO regulations, SABER procedures, the Saudi Electrical Code, applicable SASO/IEC standards and project-specific requirements.

Compliance must be demonstrated for the actual assembly and supplied configuration. Component certificates, catalogue descriptions and broad compliance statements cannot replace traceable design verification, routine testing and complete technical documentation.

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