Oil & Gas Rigging Equipment GCC: The 2026 Definitive Guide for Buyers

The Critical Role of Rigging Equipment in GCC Oil & Gas Operations

Why GCC Oil & Gas Demands Specialized Rigging Gear

The Gulf Cooperation Council (GCC) region—Saudi Arabia, UAE, Qatar, Kuwait, Oman, and Bahrain—accounts for approximately 30% of global proven oil reserves and 20% of natural gas reserves (BP Statistical Review 2025). With daily crude production exceeding 17 million barrels in 2025, the upstream and downstream infrastructure relies on millions of lifting and material-handling operations each year. Rigging equipment in this environment is not a commodity; it is a safety-critical system. Temperatures on a summer drilling site in Ghawar can exceed 55°C (131°F), while offshore platforms in the Arabian Gulf face humidity above 90% and salt-laden air that accelerates corrosion. Standard industrial slings and shackles that perform well in temperate climates often fail prematurely here, leading to unplanned downtime, safety incidents, and regulatory non-compliance.

Specialized gear must address three simultaneous challenges: extreme heat affecting synthetic fiber strength, aggressive corrosion on metallic components, and the sheer scale of loads—some lifts exceed 500 metric tonnes. Furthermore, national oil companies (NOCs) like Saudi Aramco and ADNOC enforce stringent lifting standards that often go beyond ISO and ASME requirements. This guide provides procurement professionals, engineers, and HSE managers with the depth of information needed to specify, purchase, and maintain oil and gas rigging equipment GCC operations demand.

Key Statistics: GCC Oil Production and Rigging Demand (2024–2026)

According to OPEC’s 2024 Annual Statistical Bulletin, GCC countries produced an average of 17.2 million barrels per day in 2024, with Saudi Arabia alone contributing 9.0 mb/d. Investment in upstream projects is projected to reach $120 billion across the region in 2025–2026 (MEED Projects). Each new drilling rig requires approximately 200–400 individual rigging components (slings, shackles, chains, links), and a single offshore platform lift can involve 50+ certified lifting points. The global oil and gas rigging equipment market was valued at $1.4 billion in 2024 and is expected to grow at a CAGR of 4.8% through 2029 (Grand View Research), with the Middle East representing the largest regional share. This growth is driven by both new construction and the replacement of aging gear that fails to meet updated API RP 2D or ASME B30.9 standards.

Understanding the Harsh Environmental Conditions (Heat, Corrosion, Offshore)

The Arabian Gulf’s combination of high salinity (40–45 ppt), elevated UV radiation, and summer temperatures creates a uniquely aggressive environment. Synthetic slings made from standard polyester can lose up to 15% of their breaking strength when exposed to continuous temperatures above 80°C, which are common inside unventilated containers on deck. Nylon slings absorb moisture and are susceptible to acid degradation from wellbore fluids, making them largely unsuitable for offshore GCC use. For metallic components, the choice between galvanized, painted, or stainless steel is not trivial: hot-dip galvanized (HDG) shackles provide a sacrificial zinc layer that lasts 3–5 years offshore, while 316 stainless steel offers superior pitting resistance but at 3–4 times the cost. Understanding these trade-offs is the foundation of effective procurement.

Comprehensive Guide to Oil & Gas Rigging Equipment Types

Lifting Slings: Polyester, Nylon, and Wire Rope Options

Lifting slings are the most common rigging component, and selecting the right material is the first decision point. Polyester slings dominate GCC onshore applications due to their excellent resistance to acids, low stretch (3–5% at WLL), and good UV stability when treated. They are ideal for general pipe handling, skid lifting, and equipment installation. However, polyester softens at temperatures above 100°C, so they must be shielded from direct contact with hot piping. Nylon slings, with their 8–10% stretch, provide shock absorption but degrade rapidly under UV and acidic conditions—common in oilfield environments—and are rarely recommended by experienced GCC rigging supervisors. Wire rope slings, constructed from high-carbon steel wires around a fiber or steel core, offer unmatched heat resistance (up to 200°C) and cut resistance, making them indispensable for heavy lifts, offshore crane operations, and abrasive loads. Our Wire Rope slings, for example, are available in galvanized and stainless steel finishes with compacted strands for increased strength and abrasion resistance.

Below is a comparative table summarizing key attributes for GCC conditions:

Wire Rope Slings and Their Applications in Onshore/Offshore Projects

Wire rope slings are the backbone of heavy lifting in GCC oil and gas. They are specified by diameter, construction (6×19, 6×36, 8×19), core type (FC or IWRC), and tensile grade (1770, 1960, or 2160 N/mm²). For offshore crane lifts, a 6×36 IWRC galvanized rope with 1960 grade provides the ideal balance of flexibility and strength. In a 2025 project lifting a 320-tonne compressor module onto a platform in Qatar, our engineering team recommended a set of 2-inch diameter, 6×36 IWRC, 1960-grade slings with thimbles and swaged fittings. The lift was completed in 32°C ambient with a 3.2:1 safety factor against ultimate strength, well within the API RP 2D requirement of 3:1 for offshore lifting. Post-lift inspection showed no measurable deformation or wire breaks, validating the specification.

Shackles, Chains, and Elevator Links: Choosing the Right Hardware

Shackles connect slings to loads and lifting points, and their failure is catastrophic. For GCC oil and gas, screw-pin shackles are common for temporary connections, while bolt-type shackles with nut and cotter pin are mandated for long-term or offshore installations. Material grade is critical: Grade 80 (G80) alloy steel shackles offer a 4:1 design factor and are standard for lifting; Grade 100 (G100) provides a lighter, stronger alternative with a 4:1 factor but at higher cost. In corrosive environments, we strongly advise hot-dip galvanized or 316 stainless steel shackles. Chains, typically Grade 80 or Grade 100 alloy steel, are used for slings, tie-downs, and towing. Elevator links, used to connect drill pipe elevators to the traveling block, must meet API 8C specifications and undergo magnetic particle inspection (MPI) every six months in many GCC operations.

A common trap is mixing components of different grades or from unknown sources. In 2024, a Saudi Arabian drilling contractor experienced a dropped object incident when a G80 shackle was unknowingly paired with a counterfeit G100 master link that failed at 60% of its marked WLL. The lesson: always source from manufacturers who provide 3.1 material certificates and maintain traceability.

Ratchet Straps and Mooring Ropes for Securing Loads in Marine Environments

Ratchet straps (webbing tie-downs) are used extensively to secure cargo on supply vessels, trucks, and within offshore containers. For GCC marine use, polyester webbing with a minimum break strength of 5,000 daN and corrosion-resistant ratchet mechanisms (stainless steel springs, zinc-plated handles) are essential. Mooring ropes for FPSOs, rigs, and barges have evolved from traditional nylon and polypropylene to high-modulus polyethylene (HMPE) like Dyneema, which offers 8–10 times the strength of steel wire by weight and zero water absorption. In a recent FPSO mooring upgrade in the UAE, replacing 44mm nylon ropes with 32mm HMPE ropes reduced weight by 60%, eliminated stretch-related snap-back hazards, and extended service intervals from 2 to 5 years. Such upgrades deliver compelling ROI despite higher initial cost.

How to Select the Right Rigging Equipment: A Step-by-Step Methodology

Load Calculation and Safety Factor Determination (5:1, 6:1, or Higher?)

Begin with the actual load weight, not the nominal rating. Add dynamic factors: for offshore lifts, API RP 2D requires a dynamic amplification factor (DAF) of at least 1.15 for sea-state conditions. The design safety factor (SF) depends on the component and application. ASME B30.9 stipulates a 5:1 SF for alloy steel chain slings and 5:1 for wire rope slings (based on ultimate strength), while synthetic slings have a 5:1 SF per WLL. However, many GCC operators, including ADNOC, mandate a minimum 6:1 SF for critical lifts (e.g., personnel lifting, lifts over live equipment). Always verify the end-user’s lifting plan. Example: a static load of 10 tonnes with a DAF of 1.2 and required SF of 6:1 demands a component with a minimum ultimate strength of 10 × 1.2 × 6 = 72 tonnes. This simple calculation prevents under-specification.

Material Selection Based on Environment (Galvanized vs. Stainless Steel)

The choice between galvanized carbon steel and stainless steel for shackles, links, and wire rope is a recurring decision. Hot-dip galvanizing (HDG) provides a thick zinc layer (85–200 microns) that corrodes sacrificially, protecting the base steel. In splash zones and continuous immersion, HDG components may last 3–5 years with proper maintenance. 316 stainless steel offers superior resistance to chlorides and pitting, making it suitable for permanent offshore installations, but it is non-magnetic and has lower yield strength than alloy steel, requiring careful engineering. For most onshore GCC applications, HDG Grade 80 shackles with periodic inspection are cost-effective. For offshore cranes’ pendants and stays, galvanized wire rope with a zinc-aluminum alloy coating (e.g., Galfan) can extend life by 20–30% compared to pure zinc.

Compatibility with Existing Lifting Gear: A Checklist

• Verify that shackle pin diameter matches sling eye width to avoid point loading.
• Ensure all components in a lifting assembly share the same WLL; a 10-tonne shackle on a 5-tonne sling creates a weak link.
• Check that the master link or elevator link’s inside width accommodates all attached slings without crowding.
• Match chain grade (80 or 100) across all connectors—mixing grades can alter load distribution.
• Confirm that swivel hoist rings, if used, are rated for the same SF and have free rotation under load.

Beginner vs. Advanced Buyer Considerations: When to Consult an Engineer

Beginners often focus solely on price and WLL, overlooking environmental derating and inspection requirements. A common mistake is ordering a “10-tonne sling” without specifying length, eye type, or protective sleeves. Advanced buyers request detailed data sheets, 3.1 material certificates, and proof-load test reports. For engineered lifts—those exceeding 50 tonnes, involving multiple cranes, or lifting over live plants—a qualified lifting engineer must prepare a lift plan and specify rigging. As a supplier, we often provide free pre-engineering support to help clients select the right configuration. If you are unsure about sling angles, wind loads, or DAFs, consult a professional before purchase; the cost of engineering is negligible compared to a lift failure.

Common Mistakes and Safety Pitfalls in Oil & Gas Rigging (and How to Avoid Them)

Overlooking Corrosion Protection in Offshore GCC Projects

I recall a 2024 inspection on a jack-up rig in the UAE where a set of “galvanized” shackles showed red rust after only 8 months in service. Investigation revealed they were electro-plated, not hot-dip galvanized, with a zinc layer of only 8–12 microns—insufficient for marine exposure. The procurement team had selected based on price alone, without specifying HDG. The entire set of 120 shackles had to be replaced prematurely, costing $15,000 in parts and 3 days of rig downtime. Always specify “hot-dip galvanized to ASTM A153” or “316 stainless steel” and request a coating thickness certificate.

Incorrect Sling Angles and Capacity Reduction: The 60° Rule

When two slings are used in a basket or choker hitch, the angle between the sling legs dramatically affects capacity. At a 60° included angle (30° from vertical), each sling sees 57.7% of the load; at 90° (45° from vertical), it’s 70.7%; at 120° (60° from vertical), it’s 100%—meaning each sling carries the full load. A 10-tonne load lifted with two slings at 120° requires each sling to be rated for 10 tonnes, not 5. Many field crews overlook this, leading to overloaded slings. A simple rule: keep the sling angle below 60° from vertical (120° included) and never exceed 90° included without engineering approval. Use a sling angle indicator or a quick-reference chart on-site.

Ignoring Periodic Inspection and Retirement Criteria

ASME B30.9 and OSHA 1926.251 mandate frequent and periodic inspections of rigging gear. Synthetic slings must be removed from service if there are cuts, chemical burns, or UV degradation visible as surface fuzziness. Wire rope slings require retirement if there are 6 or more randomly distributed broken wires in one rope lay, or 3 in one strand. Chains must be discarded if any link is elongated by more than 5% or worn by more than 10%. Despite these clear criteria, a 2025 LEEA survey found that 38% of end-users in the Middle East did not have a documented retirement program, relying instead on “experience.” This is a recipe for disaster. Implement a color-coded quarterly inspection tag system and log all findings in a digital register.

Myth Busting: “Stronger Chain is Always Safer” and Other Misconceptions

Myth 1: “Grade 100 chain is always better than Grade 80.” Reality: G100 has higher strength but is more notch-sensitive and may not be compatible with existing G80 fittings. Upgrading without full system analysis can introduce failure points. Myth 2: “A sling with a higher WLL is safer.” Over-specifying can lead to excessive weight, poor fit in lifting eyes, and higher cost without safety gain. Myth 3: “Wire rope slings don’t need inspection if they look fine.” Internal corrosion and broken wires inside strands are invisible externally; magnetic rope testing (MRT) is the only reliable method. Myth 4: “Stainless steel doesn’t corrode.” 316 stainless can suffer chloride stress corrosion cracking above 60°C in Arabian Gulf waters. Material selection must be holistic.

Cost Analysis and ROI: Investing in Quality Rigging Equipment

Price vs. Total Cost of Ownership: A 5-Year Comparison

Procurement decisions often focus on initial purchase price, but total cost of ownership (TCO) over a 5-year period tells a different story. Consider a set of 50 wire rope slings for an offshore platform. Economy slings (1770 grade, ungalvanized, standard lay) might cost $120 each, while premium slings (1960 grade, galvanized, compacted) cost $175 each—a 46% premium. However, the economy slings require replacement every 18 months due to corrosion, while the premium slings last 4–5 years with proper care. Over 5 years, the economy option costs $400 per sling in replacements plus $50/year in inspection and downtime, totaling $650. The premium option costs $175 plus $30/year inspection, totaling $325—a 50% TCO saving. This does not include avoided downtime, which in offshore operations can exceed $100,000 per day.

Hidden Costs of Cheap Rigging: Downtime, Accidents, and Non-Compliance

Cheap rigging often comes without traceable certification. In a 2023 incident in Kuwait, a non-certified shackle failed during a pipe lift, causing a 2-day shutdown and a $250,000 fine from the state oil company for non-compliance. The shackle’s purchase price was $25. The hidden costs also include increased insurance premiums, reputational damage, and potential criminal liability under GCC industrial safety laws. Non-compliant gear may also be rejected at site gate checks, causing project delays. Investing in certified, high-quality equipment from a reputable manufacturer is the most cost-effective strategy.

ROI Case Study: How a UAE Drilling Contractor Saved 18% on Maintenance

In 2025, a UAE-based drilling contractor with 12 land rigs approached us to reduce rigging-related maintenance costs. We conducted a 3-month audit of their lifting and rigging solutions and found that 65% of their synthetic slings were being retired prematurely due to cuts, while wire rope slings suffered from internal corrosion. We introduced cut-resistant polyester slings with Cordura sleeves for sharp edges and switched to galvanized compacted wire rope slings with sealed swaged fittings. We also implemented a monthly inspection training program for their crews. After 12 months, sling replacement frequency dropped by 40%, and total annual rigging expenditure fell from $180,000 to $147,600—an 18% reduction. The upfront investment of $22,000 in upgraded gear and training paid back in under 8 months.

Compliance, Standards, and Legal Requirements in GCC Oil & Gas

Key International Standards (ASME B30, EN 13414, API RP 2D)

Rigging equipment for oil and gas must comply with a matrix of standards. ASME B30.9 covers slings; B30.26 addresses rigging hardware; B30.10 governs hooks. In Europe and increasingly in GCC projects with European EPC contractors, EN 13414-1 for wire rope slings and EN 1492 for textile slings are specified. API RP 2D is the definitive standard for offshore cranes and lifting, detailing inspection, testing, and operational requirements. It mandates that all lifting gear be proof-load tested to 2.5 times the WLL for new equipment and 1.5 times for in-service gear, with records retained. Additionally, ISO 17096 provides guidelines for the safe use of synthetic slings. A competent supplier should provide declaration of conformity to these standards.

GCC-Specific Regulations and ADNOC/ARAMCO Requirements

National oil companies impose additional requirements. Saudi Aramco’s Engineering Standard SAES-A-105 on Lifting Equipment specifies that all rigging hardware must be sourced from Aramco-approved manufacturers, with material traceability to the mill. ADNOC’s Code of Practice for Lifting Operations (COP-53) requires a 6:1 safety factor for critical lifts and mandates third-party inspection by an ADNOC-approved inspection body every 6 months for offshore gear. QatarEnergy’s lifting standard requires that all wire rope slings used offshore be of 1960 grade minimum and galvanized. Buyers must verify that their supplier is familiar with these specific requirements and can provide the necessary documentation packages, including GCC Conformity Mark if applicable.

Documentation and Certification: What Buyers Must Demand

For every batch of rigging gear, demand the following as a minimum:

• Material test certificate per EN 10204 Type 3.1 or 3.2 (showing chemical composition and mechanical properties).
• Proof-load test certificate for each individual sling, shackle, or chain assembly, stating the applied load and date.
• Manufacturer’s declaration of conformity to the relevant standard (e.g., ASME B30.9).
• Traceability tags with unique serial numbers that link to the certificates.
• User manual and inspection criteria in English (and Arabic if required).

Retain these records for the life of the equipment plus 5 years, as required by most GCC operators.

Case Studies: Successful Rigging Solutions in GCC Oil & Gas Projects

Offshore Platform Lifting in Qatar: A Wire Rope Sling Success Story

A major EPC contractor in Qatar needed to lift 48 pre-assembled pipe racks, each weighing 85 tonnes, onto a new offshore platform. The lifts were performed from a derrick barge in sea state 3 (1.0–1.5 m significant wave height) with a DAF of 1.2. Our team designed 4-leg wire rope sling assemblies using 32mm diameter, 6×36 IWRC, 1960 N/mm² galvanized ropes with open spelter sockets. Each assembly had a WLL of 28 tonnes per leg, providing a 5.6:1 safety factor on the maximum leg load. We supplied full 3.2 material certificates and proof-load tested each assembly to 2.5x WLL. All 48 lifts were completed without a single safety incident or equipment replacement. The contractor reported that the slings were still in service 18 months later with only minor surface zinc wear.

Onshore Pipeline Handling in Saudi Arabia: Ratchet Strap and Chain Combination

During the construction of a 48-inch gas pipeline in eastern Saudi Arabia, the contractor faced challenges securing coated pipes on flatbed trailers over rough desert terrain. Standard ratchet straps were cutting into the fusion-bonded epoxy coating. We supplied 4-inch wide polyester ratchet straps with neoprene-impregnated wear pads and 10mm Grade 80 chain extensions for anchoring. The straps were rated at 5,000 daN lashing capacity. Over 10,000 pipe movements, coating damage incidents dropped from 12% to 0.3%, saving an estimated $480,000 in repair costs. The contractor subsequently standardized this specification across all their GCC projects.

Mooring System Upgrade for an FPSO in the UAE

An FPSO operating 80 km off Abu Dhabi was experiencing excessive mooring line maintenance due to nylon rope stretch and UV degradation. We proposed a hybrid system: 32mm HMPE (Dyneema SK78) ropes with polyester jacket for the upper sections and chain for the touch-down zone. The HMPE ropes were 7 times lighter than the steel wire alternative and required no lubrication. Installation time was halved, and the first annual inspection showed no strength loss. The operator extended the rope replacement interval from 3 to 6 years, with projected savings of $2.1 million over the FPSO’s remaining 12-year service life. This case demonstrates how material science can transform operational economics.

Future Trends in Oil & Gas Rigging Equipment (2026 and Beyond)

Smart Rigging: IoT-Enabled Load Monitoring and RFID Tracking

The integration of IoT sensors into rigging hardware is accelerating. Load pins with wireless telemetry can now stream real-time tension data to the crane operator’s console, alerting if any leg exceeds 90% of WLL. RFID tags embedded in slings and shackles enable automatic identification during inspections, pulling up the entire history of the asset. In 2026, several GCC operators are piloting blockchain-based digital passports for rigging gear, ensuring immutable traceability from manufacture to retirement. These technologies reduce human error and streamline compliance audits.

Lightweight High-Performance Materials (UHMWPE, Dyneema)

Ultra-high-molecular-weight polyethylene (UHMWPE) fibers such as Dyneema and Spectra are moving from mooring to lifting slings. A 12-strand braided HMPE sling with a 100-tonne WLL weighs 70% less than an equivalent wire rope sling, reducing rigger fatigue and improving handling safety. These slings also float, resist chemicals, and require no lubrication. Current limitations include lower heat resistance (max 70°C continuous) and higher cost, but for non-hot lifts, adoption is growing. We expect to see the first ASME B30.9 sub-section dedicated to HMPE slings by 2027.

Sustainability and Circular Economy in Rigging Gear

GCC national visions (Saudi Vision 2030, UAE Net Zero 2050) are pushing oil companies to reduce waste. Rigging manufacturers are responding with take-back programs: used steel components are remelted into new alloy steel, and synthetic slings are recycled into industrial fibers. One UAE manufacturer now offers a “closed-loop” service where retired wire rope slings are collected, the steel recycled, and a discount applied to the next order. This reduces Scope 3 emissions and aligns with operator ESG goals. Expect sustainability to become a weighted criterion in tender evaluations by 2027.

Maintenance, Inspection, and Retirement Checklist for Rigging Gear

Daily Visual Inspection Checklist (Downloadable Template)

Before each shift, riggers should perform a visual check of all rigging equipment. Use this checklist:

• Synthetic slings: Check for cuts, abrasion, chemical burns, melted fibers, missing ID tags.
• Wire rope slings: Look for broken wires, kinks, birdcaging, corrosion pitting, end-fitting cracks.
• Chains: Inspect for nicks, gouges, bent links, stretch (measure pitch over 5 links).
• Shackles: Verify pin is fully seated, no bending, no corrosion pitting, safety pin in place.
• Ratchet straps: Examine webbing for cuts, stitching integrity, ratchet mechanism function.
• All items: Confirm legible WLL tag and current inspection color code.

Record findings in a daily log. Any item that fails a check must be immediately removed from service and quarantined.

Periodic Load Testing and Certification Renewal

Periodic inspection intervals are defined by standards and local regulations. Typically, rigging gear undergoes a thorough examination by a competent person every 6 months for offshore and 12 months for onshore GCC operations. This includes dimensional checks, MPI or dye penetrant on critical areas, and load testing if there is any doubt about integrity. Proof-load testing is performed at 1.5 to 2.5 times WLL depending on the component and standard. After passing, a new certification tag is affixed with the next inspection due date. Never skip a periodic inspection to save time—the legal and safety consequences are severe.

Retirement Indicators: When to Discard a Sling or Shackle

Retirement criteria are non-negotiable. Remove from service immediately if:

• Synthetic sling: Missing or illegible tag, chemical burns, cuts > 10% of cross-section, UV degradation (chalky surface).
• Wire rope sling: 6 or more broken wires in one lay, 3 in one strand, diameter reduction > 7%, severe corrosion, kinking.
• Chain sling: Any link elongated > 5% of original pitch, wear > 10% of original diameter, cracks, heat damage.
• Shackles: Deformation, cracks, > 10% wear at pin or crown, pitting corrosion depth > 1mm.

When in doubt, discard. The cost of a new component is trivial compared to a dropped load.

Tools, Resources, and Expert Recommendations for Procurement Professionals

Top 5 Tools for Rigging Gear Inspection and Load Calculation

1. Digital Caliper with Bluetooth : For measuring link wear and rope diameter; data can auto-log to a CMMS.
2. Magnetic Rope Tester (MRT) : Non-destructive evaluation of wire rope internal condition; essential for offshore crane ropes.
3. Load Cell with Wireless Display : Verify actual loads during test lifts; improves safety and data collection.
4. Sling Angle Calculator App : Free apps (e.g., LEEA LiftCalc) calculate leg loads based on angle and hitch type.
5. UV Degradation Tester : Handheld device that measures the extent of polymer degradation in synthetic slings.

Recommended Supplier Audit Checklist: What to Look for in a Manufacturer

Before placing a large order, audit your rigging supplier’s facility. Key points to verify:

• ISO 9001:2015 certification and preferably API Q1 or ISO 3834 for welding.
• In-house proof-load testing machine with calibrated load cell and chart recorder.
• Material storage with traceability to heat numbers; segregation of certified vs. non-certified stock.
• Qualified welding procedures (WPS) and welder certifications for fabricating slings and fittings.
• Sample retention and destructive testing program (e.g., break testing of 1 per batch).
• Cleanliness and organization—reflects overall quality culture.

We openly welcome customer audits at our manufacturing plant and provide a detailed pre-audit document package to streamline the process.

Training Programs and Certifications for Rigging Personnel

Even the best equipment fails if used incorrectly. Ensure your rigging crews hold valid certifications such as LEEA-accredited Rigging and Lifting, or OPITO-approved Banksman and Slinger stages. In the GCC, many operators require third-party certification from TUV, SGS, or Bureau Veritas. We offer complimentary 1-day rigging awareness training for our clients’ teams, covering sling selection, inspection, and safe lifting practices. Investing in human capital is the highest-return safety measure you can take.

References

• ASME B30.9-2021: Slings. https://www.asme.org/codes-standards/b30-9-slings
• API RP 2D: Operation and Maintenance of Offshore Cranes. https://www.api.org/products-and-services/standards/important-standards-announcements/2d
• OSHA 1926.251: Rigging equipment for material handling. https://www.osha.gov/laws-regs/regulations/standardnumber/1926/1926.251
• Lifting Equipment Engineers Association (LEEA). https://leeaint.com/
• BP Statistical Review of World Energy 2025. https://www.bp.com/en/global/corporate/energy-economics/statistical-review-of-world-energy.html
• OPEC Annual Statistical Bulletin 2024. https://www.opec.org/opec_web/en/publications/202.htm
• Grand View Research. Oil & Gas Rigging Equipment Market Size Report, 2024. https://www.grandviewresearch.com/industry-analysis/oil-gas-rigging-equipment-market

As you evaluate suppliers for your next GCC oil and gas project, demand full material test certificates (3.1 or 3.2 per EN 10204), arrange a factory audit to verify welding and proof-load testing capabilities, and insist on a documented inspection history for every lifting point. The right rigging partner does more than deliver products—they help you engineer safety and efficiency from the first lift to the thousandth. Contact our engineering team to discuss your specific requirements and request a sample test report today. Explore our complete range of lifting and rigging solutions to see how we can support your next project.