Below the Hook

A library of safety standards and technical data for the selection and use of below-the-hook lifting devices. This resource provides verified insights into design factors, removal criteria, and mandatory identification requirements to ensure compliance with Alberta OH&S and ASME B30 standards. Beyond technical specs, we address common industry misconceptions to clarify complex rigging regulations.

Key Focus Areas:

  • Identification: Standards for mandatory tags and rated load markings.
  • Inspections: Requirements for initial, every lift, frequent, and periodic assessments.
  • Environmental Limitations: Guidelines for temperature and chemical exposure.
  • Operating Practices: Proper rigging practices and load control.

The following information is compliant with ASME B30.20 Below-the-hook Lifting Devices.
For more detailed information, please refer to the full ASME standard.

TRAINING

The operator must be trained by a designated person. Training should include, but not be limited to:

  • 1. Application of the lifting device to the load and material-handling device, including adjustments for different load sizes or types
  • 2. Special operations or precautions
  • 3. Manufacturer’s recommended operating procedures
  • 4. Load conditions required for safe operation (balance, cleanliness, flatness, bending, thickness)
  • 5. Proper storage of the lifting device to prevent damage
  • 6. Not exceeding rated load of the lifting device or hoisting equipment (considering combined weight of load, device, and rigging)
  • 7. For vacuum lifters and lifting magnets, charging of batteries
  • 8. For vacuum lifters and lifting magnets, the purpose of indicators, meters or alarms
  • 9. Correct attachment of adapters for special load handling
  • 10. The operator must show they can operate the lifting device as instructed before taking responsibility for its use.
  • 11. The operator must demonstrate understanding of standard hand signals, when applicable.

Operator Responsibilities

The operator is responsible for the following items.

  • The operator is not responsible for hazards or conditions outside their direct control that affect safe operation.
  • If the operator has any doubt about safety, they must place the load in a safe condition and stop the lifting device in a controlled manner.
  • Operation may resume only after safety concerns are resolved or the owner directs continuation.

Responsibilities:

  • (a) Review lifting device requirements with the owner before operations
    (b) Know site conditions that could affect safe operation and consult with the owner about them
    (c) Understand and apply the manufacturer’s operating instructions
    (d) Understand the lifting device’s functions, limitations, and operating characteristics
    (e) Ensure inspection is performed before every lift
    (f) Report the need for adjustments or repairs promptly to a designated person
    (g) Follow lockout/tagout procedures
    (h) Do not operate when physically or mentally unfit
    (i) Ensure all controls are in off/neutral and everybody is clear before energizing
    (j) For vacuum lifters and lifting magnets, ensure all controls are in off/neutral and everybody is clear before energizing
    (k) Function controls must be tested before use. Operate the lifting device only if controls respond properly.
    (l) Operate functions smoothly and in a controlled manner under normal conditions
    (m) Follow manufacturer or qualified person’s procedures for assembly, disassembly, setup, and rigging/reeving
    (n) Consider all factors affecting rated load and inform owner if adjustments are needed
    (o) Understand basic load attachment procedures
    (p) Follow instructions only from designated persons, but always obey a stop order from anyone.
    (q) Not make any modifications or alterations to the lifting device
    (r) Ensure all personnel remain clear of the load

Design Factor

Construction Requirements for Below-the-Hook Lifting Devices

Design Verification

  • All lifting devices must be designed in accordance with ASME BTH-1.
  • Use Design Category B (static strength) and select proper Service Class based on expected load cycles.
  • Design Category A may be used only when loads are predictable, conditions are well-defined, and service is not severe (Service Class 0).

Welding

  • Welding must comply with ASME BTH-1, para. 1-4.6.

Electrical Equipment

  • External power supply, electrical equipment, and wiring must meet ASME BTH-1 requirements.

Guards for Moving Parts

  • Exposed moving parts (gears, shafts, chain drives) that pose hazards under normal operation must be guarded.

Alterations & Rerating

  • Devices may be altered or rerated only if changes are analyzed and approved by the manufacturer or a qualified person.
  • Modified devices must conform to design requirements and be tested per applicable paragraphs.
  • New rated load must be clearly displayed.

Additional Components

  • Slings: Must comply with ASME B30.9.
  • Hooks: Must comply with ASME B30.10.
  • Rigging Hardware: Must comply with ASME B30.26.

Special Device Notes

  • Vacuum Lifters: Design under qualified supervision.
  • Lifting Magnets: Controllers should have voltage/amperage indicators; disconnects not required for 120 VAC single-phase.
  • Grapples: Grapple magnets must meet lifting magnet requirements.
  • Clamps: Same design rules as structural devices; guard moving parts.

Marking Requirements for Lifting Devices
General Principles
All lifting devices must be marked to ensure safe operation, proper identification, and compliance with ASME B30.20 standards. Markings must be legible, durable, and placed where they are clearly visible to the operator.

Rated Load

  • Each lifting device must display its rated load on the main structure or on a securely attached tag.
  • If the device consists of multiple detachable components, each component must be marked with its individual rated load.
  • For devices with multiple configurations, the manufacturer or a qualified person must determine an appropriate marking method. If additional information (e.g., load charts or calculations) is referenced, it must be in a document with a unique identifier and readily available to the user.
  • Clamps must display both maximum and minimum rated loads where applicable.

Identification

  • Manufacturer’s name and contact information
  • Serial number (unique identifier)
  • Device weight (if over 100 lb / 45 kg)
  • Rated load
  • Electrical specifications (voltage, current, power requirements)
  • Hydraulic or pneumatic requirements (pressure, volume)
  • Duty cycle (for magnets)
  • ASME BTH-1 Design Category and Service Class
  • Special notes (e.g., clamps designed only for anchoring or positioning)

Repaired or Altered Devices

  • Repairer’s name and contact information
  • Unit identification
  • Updated weight, rated load, and any altered electrical/hydraulic specifications
  • ASME BTH-1 Design Category and Service Class (if changed)

Note: This does not apply to minor repairs involving maintenance part replacement.

Product Safety Labels

  • Labels must be affixed in a readable position where size and shape allow.
  • Labels must include: ANSI Z535.4-compliant signal word, hazard warnings, accident prevention methods, and reference to the instruction manual.
  • If space is limited, include a label directing the user to consult the manual.
  • Additional cautions for: Battery-operated magnets (low battery risk), externally powered magnets (duty cycle, disconnect warnings), permanent magnets (control latch or cycle indicators).

Operating Controls

  • All controls must be clearly marked to indicate their function or resulting motion.
  • For coded markings, provide an explanatory tag or label nearby.

Device-Specific Notes

  • Vacuum Devices: Include compressed air requirements.
  • Magnets: Include duty cycle, cold current, and voltage details.
  • Clamps: Mark both maximum and minimum rated loads.
  • Grapples: Include hydraulic pressure specifications.

Temperature

The temperature of the load must not exceed the manufacturer’s maximum allowable temperature limits

Inspection

General Requirements

  • (a) All inspections must be performed by a designated person; hazards assessed by a qualified person.
  • (b) Follow ASME standards for slings, hooks, rigging hardware, and applicable lifting devices.
  • (c) Ensure compliance for vacuum lifters, magnets, grapples, and clamps under unified safety protocols.

Inspection Types

  • Initial: Before first use and after any alterations or repairs.
  • Every Lift: Visual check by operator before and during each lift.

Inspection Intervals

  • Frequent Inspections:
    • Normal Service: Monthly
    • Heavy Service: Weekly to Monthly
    • Severe Service: Daily to Weekly
    • Special Service: As recommended by manufacturer
  • Periodic Inspections (Documented):
    • Normal Service: Yearly
    • Heavy Service: Semiannual
    • Severe Service: Quarterly
    • Special Service: As recommended by manufacturer

Every Lift Inspection

Operators must inspect the following before and/or during each lift for signs of damage or malfunction:

  • (a) Load surface and contact surface condition
  • (b) Proper engagement
  • (c) Controls (if installed) — verify condition and proper operation
  • (d) Indicators/meters (if installed) — confirm condition and correct operation

Frequent Inspection:
Lifting devices must be inspected at the intervals stated above. If any hazard or unsafe condition is found, the device must be taken out of service. A qualified person will determine whether the issue is dangerous, needs repair, requires further inspection, or means inspections should be done more often. The device can only be put back into service once a qualified person approves it.

Periodic Inspection
Lifting devices must undergo a full inspection at the intervals stated above. If any unsafe condition is found, the lifting device must be taken out of service. A qualified person must decide whether the issue is dangerous, needs repair, requires further inspection, or means inspections should be done more often. The lifting device can only be put back into service once a qualified person approves it. Inspections should follow the manufacturer’s instructions or the guidance of a qualified person

Lifting Devices Not In Regular Use

  • Devices idle for 1 month to 1 year must be inspected following frequent inspection guidelines before use.
  • Devices idle for 1 year or more must be inspected following periodic inspection guidelines before being returned to service.

Inspection Records

  • Dated inspection reports must be made for all critical items.
  • Records must be available for each periodic inspection and whenever the lifting device is altered or repaired.

Removal Criteria

A lifting device must be removed from service if any condition exists that could result in unsafe performance. Limits must be as established by the manufacturer or a qualified person. A device may only be returned to service when approved by a qualified person.

Removal criteria include, but are not limited to, the following:

1. Structural and Mechanical Conditions

  • (a) deformation, cracks, bends, distortion, or excessive wear
  • (b) excessive pitting, corrosion, nicks, gouges, or indications of heat damage
  • (c) damaged, distorted, or worn threads, or the presence of foreign material on threaded surfaces
  • (d) damaged, distorted, or worn pins, springs, cams, or connecting links
  • (e) cracked welds, bent or distorted components, or other structural damage
  • (f) impaired, seized, bound, or improperly functioning moving parts or bail assemblies
  • (g) damaged body components, including elongated pin holes or loss of structural integrity

2. Missing or Incorrect Components

  • (a) loose, damaged, or missing guards, fasteners, covers, stops, or nameplates
  • (b) unauthorized welds, modifications, or replacement parts
  • (c) loose or missing electrical connections, improper continuity, damaged insulation, or plugs/connectors showing wear
  • (d) missing, damaged, or unreadable gauges, indicators, control markings, capacity markings or product safety labels

3. Functional or Operational Deficiencies

  • (a) improper assembly or improper functioning of any controls, indicators, or warning devices
  • (b) inability to achieve required operational performance as specified by the manufacturer
    • incorrect operation of mechanical, hydraulic, electrical, or magnetic control devices
    • electrical characteristics that fall outside manufacturer recommendations
    • improper battery electrolyte level or corrosion on posts or connectors (for applicable magnetic devices)

4. Surface and Load-Contact Issues (as applicable)

  • (a) lifting, gripping, or supporting surfaces showing:
  • (b) excessive wear
  • (c) contamination
  • (d) foreign material
  • (e) broken, chipped, or damaged areas
  • (f) lack of integrity or bond of surface material
  • (g) reduced coefficient of friction (vacuum pads)
  • (h) gripping teeth or gripping materials that are worn, broken, clogged, or detached

5. Vacuum System Conditions (vacuum lifters only)

  • (a) vacuum leaks exceeding manufacturer specifications
  • (b) inability to reach the designated minimum vacuum level
  • (c) contaminated, excessively worn, or damaged vacuum pad seals
  • (d) vacuum hoses or fittings that are:
  • (e) loose, disconnected, kinked, collapsed, or damaged
  • (f) equipped with dirty or missing filters

6. Electrical and Magnetic System Conditions (magnet devices)

  • (a) improper On/Off handle motion, restricted movement, or impaired engagement
  • (b) lifting surfaces with excessive wear, damage, or conditions preventing full contact with the load

7. Other Hazardous Conditions

  • (a) any other visible damage or condition that causes doubt about continued safe use
  • (b) any condition judged unsafe by a qualified person

Repairs

Deficiencies found during the inspection must be corrected following the manufacturer’s procedures before the lifting device is used again, unless a qualified person determines the deficiency does not pose a hazard.

Operational Tests

New, reinstalled, altered, modified, or repaired below the hook lifting devices must be tested by a qualified person, or a designated person under the direction of the manufacturer or a qualified person.

What Must Be Tested

Testing must verify proper operation of all applicable components, including:

  • (a) moving parts
  • (b) latches or locking mechanisms
  • (c) stops, switches, limit switches, and control devices
  • (d) alarms, indicator lights, gauges, horns, bells, pointers, and other warning devices
  • (e) vacuum system components (vacuum pad seals, vacuum lines, vacuum level indicators)
  • (f) leak integrity of vacuum systems (vacuum level shall not drop more than the manufacturer-specified rate)
  • (g) visual condition of grapples to ensure no hazardous defects

Altered or Repaired Devices

Testing may be limited to the components affected by the alteration or repair, as determined by a qualified person with guidance from the manufacturer.

Records

Dated reports of all operational tests must be recorded and filed.

See ASME B30.20 for device‑specific testing requirements

Load Test

New, reinstalled, altered, modified, or repaired below the hook lifting devices must be tested by a qualified person, or a designated person under the direction of the manufacturer or a qualified person.

See ASME B30.20 for device‑specific load test requirements.

Maintenance

  • (a) Maintenance Program
    • A maintenance program must be established based on the lifting device manufacturer’s recommendations.
    • A qualified person may add further requirements after reviewing the device’s application and operations.
  • (b) Maintenance Procedure
    Before starting adjustments or repairs, the following precautions must be taken:
    • (a) Disconnect all power sources, lock them out, and tag the device “Out of Service.”
    • (b) Any device removed from service for repair must be tagged “Out of Service.”
    • (c) Relieve fluid pressure from all circuits before loosening or removing fluid power components.

See ASME B30.20 for device‑specific requirements. 

1. Authorized Operators

Lifting devices must be operated only by:

  • (a) designated persons
  • (b) trainees under direct supervision of a designated person (supervision and limits determined by a qualified person)
  • (c) maintenance and test personnel when required for their duties
  • (d) inspectors as needed

Operators must not use any device tagged “Out of Service.”

2. Basic Operating Requirements

Operators must:

  • (a) verify the load weight and approximate centre of gravity
  • (b) never exceed the rated load
  • (c) use the device only for its intended purpose
  • (d) attach the device properly to hooks, shackles, or handling devices
  • (e) follow all manufacturer instructions
  • (f) ensure ropes, chains, slings, hoses, or lines are not kinked, twisted, or bound
  • (g) confirm the load is secure, balanced, and properly distributed
  • (h) ensure the load temperature does not exceed device limits
  • (i) avoid contact with obstructions during lifting
  • (j) protect the device from damage
  • (k) avoid side pulls or sliding lifts unless approved by a qualified person
  • (l) land the load before leaving; never leave a suspended load unattended
  • (m) ensure no personnel ride the load or lifting device
  • (n) guide loads safely to avoid hazards to hands or body parts
  • (o) monitor the device for proper operation during use
  • (p) remove the device from service and tag “Out of Service” if hazardous deficiencies are observed

3. Miscellaneous Practices

  • (a) “Out of Service” tags must not be removed except by the person who placed them or a designated person
  • (b) devices must be stored in assigned locations when not in use
  • (c) markings, labels, and tags must not be defaced or removed; missing/illegible ones must be replaced
  • (d) “Out of Service” tags must not be removed unless approved by the person who placed them or a designated person.

Device-Specific Requirements

  • (a) vacuum lines shall be free of kinks, twists, loops, or obstructions
  • (b) pad contact surfaces shall be clean and free of debris
  • (c) before lifting, verify vacuum indicator reaches required level
  • (d) test-lift load a few inches to confirm stable vacuum
  • (e) in case of power failure, warn personnel and land load if possible

Instruction Manuals – General Requirements:

The manufacturer must provide operating instructions, safety precautions (where applicable), and maintenance and parts information for the lifting device.
Devices that rely on special operating conditions (such as vacuum lifters, lifting magnets, or clamps) must also include a statement identifying the factors that affect lifting capacity and the limitations associated with those conditions.

Capacity-Affecting Factors:

The instruction manual must describe how operating conditions influence lifting capacity, including:

  • (a) Load rigidity – may cause uneven loading of vacuum pads and structure; may vary with load orientation
  • (b) Load strength – loads may be stressed or damaged by their weight or pad force
  • (c) Load surface condition – rough, uneven, or low-friction surfaces reduce pad sealing and lifting capability
  • (d) Load overhang – overhanging portions may deflect or peel away from pad seals
  • (e) Load angle – friction becomes critical when the load is not horizontal
  • (f) Number of pads fully engaged – lifting capacity changes with the number of effective pads
  • (g) Load temperature – elevated temperatures may damage pads or reduce pad effectiveness
  • (h) Elevation and vacuum level – achievable vacuum varies with altitude; reduced vacuum lowers pad capacity

Device-Specific Requirements

  • (a) magnet face and load contact surface shall be clean
  • (b) verify meters and indicators show proper operation
  • (c) ensure adjustable controls are set to full power/on before lifting more than 2 in.
  • (d) energize/attach magnet only when in contact with load
  • (e) avoid lifting multiple items unless permitted (flux-loss hazard)
  • Battery-Operated Magnets
    • (f) confirm stable current for 5 seconds before lifting
    • (g) monitor battery condition during extended use
    • (h) charge batteries in ventilated areas per manufacturer instructions
    • (i) wear required PPE when servicing batteries

  • Electrically Controlled Permanent Magnets
    • (j) verify control indicators show proper function
  • Manually Controlled Permanent Magnets
    • (k) confirm handle is fully in the “attach” position and the latch functions correctly

Instruction Manuals – General Requirements:

The manufacturer must provide operating instructions, safety precautions (where applicable), and maintenance and parts information for the lifting device.
Devices that rely on special operating conditions (such as vacuum lifters, lifting magnets, or clamps) must also include a statement identifying the factors that affect lifting capacity and the limitations associated with those conditions.

Capacity-Affecting Factors:

The instruction manual must describe how operating conditions influence lifting capacity, including:

  • (a) Load thickness – capacity increases with load thickness up to a “critical thickness”; thinner loads transmit less magnetic flux
  • (b) Load alloy – some alloys accept less magnetic flux than low-carbon steel, reducing capacity
  • (c) Load surface condition – any air gap (rust, paint, dirt, scale, paper, roughness) reduces flux and lifting capacity
  • (d) Load length or width – long or wide loads may deflect or peel away from the magnet face, creating air gaps
  • (e) Load attitude – lifting capacity decreases sharply as surfaces move from horizontal to vertical; dependent on friction
  • (f) Contact area – full face contact is required for maximum capacity
  • (g) Load temperature – high temperatures may damage the magnet or alter magnetic characteristics; manuals shall include temperature limits

Device-Specific Requirements

Selection and Setup

  • (a) follow manufacturer instructions to prevent load disengagement
  • (b) verify load meets minimum required weight for clamp function
  • (c) ensure compatibility with load material, hardness, and surface condition
  • (d) do not lift multiple or sagging plates unless manufacturer allows
  • (e) ensure all moving components operate freely
  • (f) use clamps only within the rated thickness range
  • (g) apply reduced ratings as required for non-vertical lifts
  • (h) use lock mechanisms when provided

Operation

  • (i) determine load weight and centre of gravity
  • (j) do not exceed rated load
  • (k) ensure clamp and load surfaces are clean
  • (l) ensure slings (if used) are not kinked or twisted
  • (m) verify load is secure and balanced after clamping
  • (n) avoid contact with obstructions
  • (o) recheck clamp engagement each time the load is placed and picked up
  • (p) do not use clamps for side pulls unless approved
  • (q) land the load and disengage clamp before leaving (anchors exempt)
  • (r) follow manufacturer requirements when using multiple clamps
  • (s) use plate clamps only for a single plate unless authorized

Instruction Manuals – General Requirements:

The manufacturer must provide operating instructions, safety precautions (where applicable), and maintenance and parts information for the lifting device.
Devices that rely on special operating conditions (such as vacuum lifters, lifting magnets, or clamps) must also include a statement identifying the factors that affect lifting capacity and the limitations associated with those conditions.

Capacity-Affecting Factors:

The instruction manual must include specific information on conditions that influence lifting capability, including:

  • (a) Load temperature – manufacturer’s limits for elevated temperatures
  • (b) Load dimensions – size limitations for safe use
  • (c) Surface, shape, material, and hardness – acceptable conditions for the load, including roughness, coatings, rust, and other factors
  • (d) Interfacing surface condition – permissible wear, distortion, or damage to gripping components
  • (e) Environmental conditions – adverse effects of wind, rain, snow, and similar factors on rated load
  • (f) Lifting angle range – limitations on allowable lifting angles
  • (g) Minimum lifting force – minimum load required for reliable clamping; dependent on clamp wear and load hardness 

Device-Specific Requirements

  • (a) use only within rated capacity
  • (b) apply the grapple per manufacturer instructions
  • (c) avoid contact with obstructions
  • (d) land and store the grapple before leaving

Instruction Manuals – General Requirements:

The manufacturer must provide operating instructions, safety precautions (where applicable), and maintenance and parts information for the lifting device.
Devices that rely on special operating conditions (such as vacuum lifters, lifting magnets, or clamps) must also include a statement identifying the factors that affect lifting capacity and the limitations associated with those conditions.

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Training is only one factor in being competent to carry out rigging tasks without supervision. You must also be qualified and have sufficient experience to work safely on your own.

Referenced Standards:

ALBERTA OHS ACT
1(d) “competent” in relation to a person, means adequately qualified, suitably trained and with sufficient experience to safely perform work without supervision or with only a minimal degree of supervision
(3)(a) If work is to be done that may endanger a worker, the employer must ensure that the work is done by a worker who is competent to do the work.

TRAINING

Workers using detachable load-indicating devices (LID’s) must have appropriate training in selection, inspection, usage and rigging practices. Including impacts on the work environment and other workers. Consulting the device’s original equipment manufacturer manual for specific instructions is recommended.

For more information, refer to the ASME standard B30.26-2015 Chapter 26-6 Detachable Load-Indicating Devices.

An employer must ensure below-the-hook lifting devices meet ASME Standards. A capacity data sheet may be used to label a spreader bar with it’s rated capacity. Where a capacity data sheet is used, employers must ensure the data sheet and corresponding spreader bar are identified by a unique numbering system.

Referenced Standard:

Alberta OHS CODE: Certification by a Professional Engineer

If this Code requires that a procedure or specification be certified by a professional engineer, the certification must

  • (a) be in writing, and
  • (b) be stamped and signed by the professional engineer.

14(2) Unless the document states otherwise, certification by a professional engineer implies that the procedures or specifications certified are fit and safe for the workers affected by them.

Approved equipment
15 If this Code requires equipment or personal protective equipment to be approved by a named organization, an employer must use best efforts to ensure that the seal, stamp, logo or similar identifying mark of that organization is on the equipment or personal protective equipment and legible.

Specifications and certifications
15.1 If this Act, the regulations or this Code requires work to be done in accordance with the manufacturer’s specifications or specifications certified by a professional engineer, an employer must make sure that specifications are readily available to the workers, supervisors, and other persons at the work site.

Rated Load Capacity
An employer must ensure that a lifting device has a plate or weatherproof label permanently secured to it that legibly shows

  • (a) the manufacturer’s rated load capacity
  • (b) the manufacturer’s name and
  • (c) the model, serial number and year of manufacture or shipment date

62(2) If a lifting device is not commercially manufactured, an employer must ensure that it has a plate or weatherproof label permanently secured to it that legibly shows the rated load capacity according to the professional engineers certification.

If the spreader beam is suspended from above with slings, as the horizontal sling angle reduces, the tension on the slings increases. Therefore the tension being applied increases which can cause the beam to bend and the amount of weight that it can safely lift becomes reduced.

Referenced Standards:

OPERATOR RESPONSIBILITIES

Operators are responsible for the conditions under their direct control. If safety is ever in doubt, operations must be stopped and the load secured until concerns are resolved.

Key operator responsibilities include:

  • Review lifting device requirements with the owner before use.
  • Be aware of site conditions that could affect safe operation and consult the owner.
  • Know the device’s functions, limitations, and operating characteristics.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

If the beam has multiple lifting points, the amount of weight the beam can lif may change depending on the lifting points utilized. Consultation with the data sheet associated with the particular spreader beam is vital before making a lift.

Referenced Standards:

TRAINING QUALIFICATIONS

Operators must be instructed by a designated person.

Training should cover:

  • How to apply the lifting device to loads and adjust for different sizes/types.
  • Special operations or precautions.
  • Manufacturer’s operating procedures.
  • Load conditions needed for safe lifting (balance, cleanliness, flatness, thickness).
  • Proper storage to prevent damage.
  • Not exceeding rated load or hoist capacity (including lifter and rigging weight).
  • Correct attachment of adapters for special loads.

OPERATOR COMPETENCY:

Operators must demonstrate their ability to operate the lifting device as instructed before taking on the responsibility. They must show understanding of standard hand signals, when applicable.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

An NDT report normally only indicates the qiality of the welding on a piece of equipment or the condition of the welds at the time of inspection. It may not include the full inspection criteria expected by the manufacturer and therefore operators should always conduct their own visual pre-use check before use.

Reference Standards:

INSPECTION REQUIREMENTS

Periodic inspections must be conducted at intervals specified by the manufacturer. These inspections should include:

  • Loose bolts or fasteners
  • Cracked or worn components (gears, pulleys, sheaves, sprockets, bearings, drive chains, belts)
  • Excessive wear on friction pads, linkages, and other mechanical parts
  • Wear at hoist hooking points and load support clevises or pins
  • Missing or illegible safety labels

Any deficiencies found must be evaluated to determine if they pose a hazard and reported per company requirements.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

Any piece of rigging that is attached to a spreader beam must be individually inspected per its own inspection criteria before they can be used. This sometimes requires rigging to be dismantled in order to carry out a proper inspection.

Referenced Standards:

INSPECTION REQUIREMENTS

Periodic inspections must be conducted at intervals specified by the manufacturer. These inspections should include:

  • Loose bolts or fasteners
  • Cracked or worn components (gears, pulleys, sheaves, sprockets, bearings, drive chains, belts)
  • Excessive wear on friction pads, linkages, and other mechanical parts
  • Wear at hoist hooking points and load support clevises or pins
  • Missing or illegible safety labels

Any deficiencies found must be evaluated to determine if they pose a hazard and reported per company requirements.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

INSPECTION RECORDS:

Inspection reports must be documented with the date of inspection and critical items observed and be readily available for review during periodic insections or when the lifting device is altered or repaired.

For more detailed information, refer to the ASME standard B30.20-2018 Below-The-Hook Lifting Devices.

As the length of a spreader beam increases, the Working Load Limit (WLL) typically decreases. This is because the forces on the beam will cause it to want to flex. It is vital to consult the data sheet associated with the spreader beam before making a lift to confirm its rated capacity if adjusted.

Referenced Standards:

OPERATOR RESPONSIBILITIES

Workers operating lifting devices are responsible for safe operation within their control. If safety is in doubt, operations must be stopped and the load secured until concerns are resolved.

Refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices for more detailed information.

Training is only one factor in being competent to carry out rigging tasks without supervision. You must also be qualified and have sufficient experience to work safely on your own.

Referenced Standards:

ALBERTA OHS ACT
1(d) “competent” in relation to a person, means adequately qualified, suitably trained and with sufficient experience to safely perform work without supervision or with only a minimal degree of supervision
(3)(a) If work is to be done that may endanger a worker, the employer must ensure that the work is done by a worker who is competent to do the work.

TRAINING

Workers using detachable load-indicating devices (LID’s) must have appropriate training in selection, inspection, usage and rigging practices. Including impacts on the work environment and other workers. Consulting the device’s original equipment manufacturer manual for specific instructions is recommended.

For more information, refer to the ASME standard B30.26-2015 Chapter 26-6 Below-the-hook Lifting Devices.

Temperature ranges can vary from manufacturer to manufacturer and must be confirmed by the user. Review all manufacturer specifications prior to use.

Referenced Standards:

CLAMP OPERATORS

Workers operating plate clamps must be adequately trained and designated by the company.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

Some clamps are capable of lifting material thicknesses from zero to the maximum jaw width. However, other clamps are restricted to minimum thicknesses. The Working Load Limit (WLL ) usually increases as the minimum thickness of material increases.

Referenced Standards:

CLAMP OPERATORS

Workers operating plate clamps must be adequately trained and designated by the company.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

Plate clamps are expected to have a minimum amount of weight attached to them when lifting in order for the jaw to engage correctly. This minimum rating can vary from manufacturer to manufacturer. Riggers must review manufacturer specifications for the particular plate clamps prior to use.

Referenced Standards

MARKING REQUIREMENTS

Every clamp must clearly show its maximum weight limit (and minimum, if required) on the main body or on a visible tag.
If there’s a minimum weight requirement, it will be set by the manufacturer or a qualified expert.

Refer to the ASME Standard B30.20-2025 Below-The-Hook Lifting Devices for more detailed information.

CLAMP OPERATORS

Workers operating plate clamps must be adequately trained and designated by the company.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

Universal plate clamps are designed to be used at all angles, but are not rated at full Working Load Limit (WLL) for all angles. As the clamp is used away from the vertical, the rating of the clamp will reduce. The amount it reduces will depend on the angle and may differ from one manufacturer to another.

Referenced Standards

OPERATOR RESPONSIBILITIES

Pre-Operation Duties include:

  • Review clamp requirements with the owner.
  • Understand site conditions that may affect clamp operation.
  • Know and apply manufacturer’s operating manual.
  • Understand clamp functions, limitations, and characteristics.
  • Ensure inspection before every lift (per para. 20-6.3.2).
  • Report needed adjustments or repairs promptly.
  • Follow lockout/tagout procedures.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

Plate clamps are designed with a variety of teeth patterns to apply on a variety of different materials. No plate clamp is suitable for all materials as some teeth may not grip certain materials well and others may damage the material being lifted.

Referenced Standards

OPERATING PRACTICES

Clamp Selection & Setup:

  • Follow manufacturer’s instructions to prevent disengagement.
  • Ensure load meets minimum requirements and is within clamp’s thickness range.
  • Use correct clamp for material type, hardness, and surface condition.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

The majority of plate clamps are not designed to lift multiple plates as it is impossible to ensure the plates will not slip out from between each other.

Referenced Standards:

OPERATING PRACTICES

Only trained and designated workers, supervised trainees, maintenance/test personnel, and inspectors may operate clamps. Do not lift multiple or sagging plates.

Follow manufacturer’s instructions for multiple clamps. Plate clamps should lift only one plate unless approved by the manufacturer.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

Some universal plate clamps can lift in both planes. However, many can only be used for vertical applications.

Many plate clamps cannot be used for flipping loads as they are restricted to vertical lifting only. Consult the manufacturer for limitations of the plate clamp being used.

The teeth, along with the cam segment in the jaw of a plate clamp, are what grips the material during a lift. The amount of wear allowed on these parts is strictly governed by the manufacturer and must be monitored closely by the rigger. In many cases, the allowable amount of wear is as little as 50% of one tooth.

The operator shall be instructed on the use of the device by a trained and designated person. Instructions must include manufacturer suggested operating procedures. It is the rigger’s responsibility to understand the device’s functions, limitations, and operating characteristics before using it.

Referenced Standards:

CLAMP INSTALLATION

Workers using clamps must consult with the manufacturer’s instructions for each clamp.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

CLAMP OWNER RESPONSIBILITIES

  • Provide the Right Equipment. Make sure the clamp and all required parts meet safety standards and job needs.
  • Give Clear Instructions. Supply operating manuals, assembly/disassembly info, maintenance details, and warning labels.
  • Set Up Safety Programs. Have a plan for regular inspections, testing, and maintenance.
  • Use Qualified Operators. Only trained personnel should handle maintenance, repairs, and inspections. Operators must meet qualification requirements.
  • Check Before Use. Confirm all required inspections are done. Ensure the clamp can handle the planned lift safely.
  • Communicate Responsibilities. Make sure everyone involved knows their duties and the hazards.
  • Follow Applicable Regulations. Determine if other regulations apply to clamp operations.
  • Manage Site Conditions. Address risks like wind, rain, fog, extreme temperatures, or poor lighting.
  • Handle Safety Concerns. If an operator raises a concern, resolve it before continuing. Always follow manufacturer and industry safety standards.

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

INSTRUCTION MANUAL

The clamp manufacturer must provide a manual that includes:

  • Instructions for operation, inspection, when to remove it from service, maintenance, and parts information.
  • An explain of what could change the clamp’s lifting ability
  • Guidelines for lifting loads hotter than normal.
  • Limits on the size of loads the clamp can handle.
  • What types of surfaces, shapes, materials, and hardness the clamp is designed for, including issues like rust, dirt, paint, or rough finishes.
  • How much wear or distortion is acceptable on parts that touch the load.
  • How wind, rain, snow, or other conditions affect lifting capacity.
  • The safe range of lifting angles.
  • The smallest load size needed for the clamp to grip properly (depends on wear and material hardness).

For more detailed information, refer to the ASME standard B30.20-2025 Below-The-Hook Lifting Devices.

Training is only one factor in being competent to carry out rigging tasks without supervision. You must also be qualified and have sufficient experience to work safely on your own.

Referenced Standards:

ALBERTA OHS ACT

1(d) “competent” in relation to a person, means adequately qualified, suitably trained and with sufficient experience to safely perform work without supervision or with only a minimal degree of supervision
(3)(a) If work is to be done that may endanger a worker, the employer must ensure that the work is done by a worker who is competent to do the work.

TRAINING

Workers using detachable load-indicating devices (LID’s) must have appropriate training in selection, inspection, usage and rigging practices. Including impacts on the work environment and other workers. Consulting the device’s original equipment manufacturer manual for specific instructions is recommended.

For more information, refer to the ASME standard B30.26-2015 Chapter 26-6 Below-the-hook Lifting Devices.

As the length of the load increases, the load begins to deflect and bend and can therefore slip out of the lifter jaws of the clamp. Refer to manufacturer instructions for restrictions of each horizontal clamp.

Horizontal clamps commonly come rated in pairs as this is the correct way to use them. Always refer to the manufacturer’s specifications to ensure proper ratings before use.

Referenced Standards:

Clamps shall only be operated by a person who is trained and designated by their employer to do so.

Clamp Load Rating & Identification

Clamp identification and load rating must be visible and identifiable before it can be used. Operators must check for required markings such as:

  • Rated Load
  • Manufacturer’s Information
  • Serial or Identification Number

All markings must be present and readable. If not, the operator is responsible for removing the clamp from service.

The sling angle that the horizontal clamps can be used at may vary depending on the style and manufacturer. Always consult with the manufacturer’s charts to be sure of proper application and angles.

Training is only one factor in being competent to carry out rigging tasks without supervision. You must also be qualified and have sufficient experience to work safely on your own.

Referenced Standards:

ALBERTA OHS ACT

1(d) “competent” in relation to a person, means adequately qualified, suitably trained and with sufficient experience to safely perform work without supervision or with only a minimal degree of supervision
(3)(a) If work is to be done that may endanger a worker, the employer must ensure that the work is done by a worker who is competent to do the work.

TRAINING

Workers using detachable load-indicating devices (LID’s) must have appropriate training in selection, inspection, usage and rigging practices. Including impacts on the work environment and other workers. Consulting the device’s original equipment manufacturer manual for specific instructions is recommended.

For more information, refer to the ASME standard B30.26-2015 Chapter 26-6 Below-the-hook Lifting Devices.

The effectiveness of a magnet changes depending on the type of steel it is used with. Ratings can also change depending on the type of material. The magnet may also not be able to pick up a specific type of material.

Referenced Standards:

Markings

  • Lifting magnets must be clearly marked with permanent labels identifying the name of the manufacturer, its rated capaciy, serial number and weight. Additional markings may include orientation directions, centre of gravity markings and special operating instructions or limitations of the device.

Please refer to the ASME Standard B30.20-3.2.1 for more detailed information.

The thicker the material is generally better when using a lifting magnet. Most magnets are restricted to a minimum thickness of material.

Referenced Standards:

Operator Responsibilities:

  • Riggers are responsible for knowing the limitations of the lifting magnet being used by referencing the manufacturer’s operating manual. A lift test should also be performed prior to a lift to ensure the magnet will hold to its true strength.

For more detailed information, refer to the ASME Standard B30.20-3.4.3.2

A magnet can lift a significantly heavier plate than a round bar, if it is capable of lifting both materials. Many magnets may only be capable of lifting one type of material. Consult the manufacturer for any restrictions that may apply.

Referenced Standards:

Riggers must ensure the lifting magnet being used is suitable for the load type. The ASME B30.20 standard requires that the chosen magnet match the material being lifted in order to ensure safe operation. A magnet designed only for flat plate is not automatically suitable for round bar, pipe, or billets.
The device must be engineered (e.g., with curved or special pole shoes) to safely grip rounded surfaces.

The surface of both the magnet and the material being lifted must be clean and smooth. If not, the flow of the magnetic field between them will be affected and reduce the capacity of the magnet which could result in loss of the load.

Referenced Standards:

Lifting capacity of a lifting magnet will reduce when lifting:

  • Thin plate
  • Rusty, pitted or uneven surfaces
  • Hot materials
  • Curved or non-flat items
  • Dirty or scaled steel

For more detailed information, refer to the ASME standard B30.20.

Excess care must always be taken to ensure a load is evenly distributed. Magnets should not be used for side pulling or sliding a load.

Referenced Standards:

Lifting Device Operating Practices

  • Operators must be trained and designated by the employer to operate lifting devices. This includes performing an inspection prior to each lift, not exceeding the rated capacity of the lifting device, ensuring proper load engagement, stabilizing the load before moving, ensuring other personnel remain clear of the load path and following manufacturer specifications for the lifting device used.

For more information, refer to the ASME Standard B30.20-3.4.4.

It is not a good practice to have the lifting magnet energized before making contact with the load as it could collect debris which would create an air gap between the magnet and the load. This will reduce the capacity and efficiency of the magnet.

As the length or width of the load increases, the load begins to deflect and peel at the magnet face. This creates an air gap which reduces the capacity and efficiency of the magnet.

Training is only one factor in being competent to carry out rigging tasks without supervision. You must also be qualified and have sufficient experience to work safely on your own.

Referenced Standards:

ALBERTA OHS ACT
1(d) “competent” in relation to a person, means adequately qualified, suitably trained and with sufficient experience to safely perform work without supervision or with only a minimal degree of supervision
(3)(a) If work is to be done that may endanger a worker, the employer must ensure that the work is done by a worker who is competent to do the work.

TRAINING

Workers using detachable load-indicating devices (LID’s) must have appropriate training in selection, inspection, usage and rigging practices. Including impacts on the work environment and other workers. Consulting the device’s original equipment manufacturer manual for specific instructions is recommended.

For more information, refer to the ASME standard B30.26-2015 Chapter 26-6 Below-the-hook Lifting Devices.

Training is only one factor in being competent to carry out rigging tasks without supervision. You must also be qualified and have sufficient experience to work safely on your own.

Referenced Standards:

ALBERTA OHS ACT
1(d) “competent” in relation to a person, means adequately qualified, suitably trained and with sufficient experience to safely perform work without supervision or with only a minimal degree of supervision
(3)(a) If work is to be done that may endanger a worker, the employer must ensure that the work is done by a worker who is competent to do the work.

TRAINING

Workers using detachable load-indicating devices (LID’s) must have appropriate training in selection, inspection, usage and rigging practices. Including impacts on the work environment and other workers. Consulting the device’s original equipment manufacturer manual for specific instructions is recommended.

For more information, refer to the ASME standard B30.26-2015 Chapter 26-6 Below-the-hook Lifting Devices.

Training is only one factor in being competent to carry out rigging tasks without supervision. You must also be qualified and have sufficient experience to work safely on your own.

Referenced Standards:

ALBERTA OHS ACT
1(d) “competent” in relation to a person, means adequately qualified, suitably trained and with sufficient experience to safely perform work without supervision or with only a minimal degree of supervision
(3)(a) If work is to be done that may endanger a worker, the employer must ensure that the work is done by a worker who is competent to do the work.

TRAINING

Workers using detachable load-indicating devices (LID’s) must have appropriate training in selection, inspection, usage and rigging practices. Including impacts on the work environment and other workers. Consulting the device’s original equipment manufacturer manual for specific instructions is recommended.

For more information, refer to the ASME standard B30.26-2015 Chapter 26-6 Below-the-hook Lifting Devices.

Temperature ranges can vary from one manufacturer to another and must be confirmed by the user prior to conducting a lift.

Referenced Standards:

Beam clamps must only be used within their rated load capacity and rated conditions. Temperature may affect capacity or performance of the device; therefore the manufacturer’s derating rules must be applied. If environmental exposure from heat or cold creates a concern, the device shall be removed from service.

For more detailed information, refer to ASME B30.20-6.4.4 Clamp Operating Practices.

Universal beam clamps are designed to be used at all angles, but are not rated at full WLL for all angles. As the clamp is used away from the vertical, the rating of the clamp is reduced. The amount the rating reduces is dependent on the angle and differs from one manufacturer to another. Some beam clamps are only designed for vertical (in-line) loading and for suspension, not for attaching directly to a load.

Referenced Standard:

Beam Clamp Operation

  • Clamps are intended for vertical loading only unless the manufacturer specifically provides a rated capacity for angular or off-axis loading. Using a clamp at a horizontal load angle introduces torsion or side-loading.

Operator Responsibilities

  • Operators must ensure the beam clamp is aligned with the load line, and prevent loading that applies force horizontally, sideways, or at an angle beyond what the manufacturer permits. This is to protect against clamp slippage or structural overload.

If horizontal angles create unsafe conditions, the lift must not proceed.
For more details, refer to the ASME Standard B30.20-6.4.4 .

The operator shall be instructed in the proper use of the device by a trained and designated person. Instructions must include the manufacturer’s suggested operating procedures. It is the operator’s responsibility to understand the lifting device’s functions, limitations and particular operating characteristics before using it.

Referenced Standards:

Clamp Owner/User Responsibilities

  • Keep the clamp in safe condition through regular maintenance
  • Repair or replace worn or damaged parts
  • Follow the manufacturer’s maintenance schedule
  • Maintain maintenance records
  • Ensure only qualified persons perform repairs on clamps
  • Remove clamp from service if safe operation cannot be assured.

For more details, refer to the ASME Standard B30.20-6.4.3.2.

Suppliers and Employers are equally responsible for ensuring the products supplied to and used at the job site are compliant with industry and legislative standards.  Click on the appropriate questionnaire below when acquiring information from the supplier or manufacturer for each of the specified products.

Refer to Alberta OHS Act – Obligations of Worksite Parties and the applicable ASME B30.9 Standards.

References

References

Q: All types of inspections must be carried out by a trained and designated person.

True. A person must be trained and designated to carry out inspections on Links and Rings. Refer to ASME B30.26 – Chapter 4.8 Links, Master Links, Subassemblies, Rings and Swivels for general information on the inspection criteria of Links and Rings.False. The horizontal load angle on a Link or Ring should ideally be 60 degrees or greater. Refer to the ASME B30.26 – Chapter 4.9 Links, Master Links, Subassemblies, Rings and Swivels for rigging and operating practices of Links and Rings for more information.

References

Q: The horizontal load angle should not be less than 45 degrees. 

False. The horizontal load angle on a Link or Ring should ideally be 60 degrees or greater. Refer to the ASME B30.26 – Chapter 4.9 Links, Master Links, Subassemblies, Rings and Swivels for rigging and operating practices of Links and Rings for more information.

References

Q: When multiple slings are gathered on a Link or Ring, the included angle must not exceed 120 degrees.

True. The included angle for multiple slings gathered on a Link or Ring must not exceed 120 degrees. Exceeding the 120-degree limit significantly increases the tension on the sling legs and the load on the connection point, overall reducing the lifting capacity. Refer to the ASME Standard B30.26 – Chapter 4.9 Links, Master Links, Subassemblies, Rings and Swivels for detailed information on the rigging practices for Links and Rings. 

References

Q: Periodic inspections of Links and Rings must be carried out monthly.

False. A periodic inspection must be conducted on rigging hardware at minimum once a year. The ASME Standard B30.26 – Chapter 4.8 Links, Master Links, Subassemblies, Rings and Swivels should be referred to for more detailed information on periodic inspection practices for Links and Rings.

References

Q: Links and Rings must always be marked with their size or rated load.

True. Rigging hardware such as Links and Rings must be durably marked with their size or rated load (WLL) by the manufacturer.  For more detailed information, refer to ASME B30.26 – chapter 4.5 Links, Master Links, Subassemblies, Rings and Swivels for specific identification requirements.

References

Q: One cubic foot of solid steel weighs 419 lbs.

False. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

References

Q: The minimum design factor for Links and Rings is 4:1.

False. The minimum design factor for Links and Rings is generally 5:1. The ASME Standard B30.26 – Chapter 4.2 Links, Master Links, Subassemblies, Rings and Swivels should be referred to for more detailed information on design factors.

References

Q: All Links and Rings must be visually inspected before each use.

True. Links and Rings must be frequently examined visually by a trained and designated person each shift before each use to determine if its condition is fit for service.  Refer to the ASME Standard B30.26 Chapter 4.8 Links, Master Links, Subassemblies, Rings and Swivels for more details on frequent inspection requirements.

References

Q: The rated load/ WLL (Working Load Limit) of a Link or Ring must not be exceeded.

True. The WLL of a Link or Ring must not be exceeded for any reason. Refer to the ASME Standard B30.26 – Chapter 4.1 Links, Master Links, Subassemblies, Rings and Swivels for more detailed information on Link and Ring operating and selection practices.

References

Q: The applicable industry standard to reference for details about Links and Rings is ASME B30.26.

True. Refer to the ASME B30.26-4 Links, Master Links, Subassemblies, Rings and Swivels standard for all applicable information and requirements related to Links and Rings.

Referenced

Q: Periodic inspections of Swivel Hoist Rings must be carried out monthly.

False. A periodic inspection must be conducted on a Swivel Hoist Ring at minimum once a year. Refer to the ASME Standard B30.26 – Chapter 2.8 Adjustable Hardware for more detailed information on periodic inspection practices for Swivel Hoist Rings.

Referenced

Q: Swivel Hoist Rings must always be marked with their Working Load Limit (WLL).

True. All Swivel Hoist Rings must be legibly marked with the Manufacturer’s name or trademark, its Rated Load (WLL), and the Torque value. If the markings are missing or illegible, the device must be removed from service immediately. Refer to the ASME Standard B30.26 – Chapter 2.5 Adjustable Hardware for more information on Swivel Hoist Ring identification.

Referenced

Q: One cubic foot of solid steel weighs 490 lbs.

True. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

Referenced

Q: The bolt of a Swivel Hoist Ring contains long threads that can be cut to the required length.

False. The bolt of a Swivel Hoist Ring must never be cut or machined. Modifications are prohibited as it significantly impacts the device’s structural integrity. For more details see the ASME B30.26 – Chapter 2.8 Adjustable Hardware for inspection, repair and removal criteria of a Swivel Hoist Ring.

Referenced

Q: Swivel Hoist Rings are designed to rotate under loaded conditions.

True. Swivel Hoist rings are designed to rotate under loaded conditions.  Refer to the ASME Standard B30.26 – Chapter 2.9 Adjustable Hardware for detailed information on the rigging and operating practices of a Swivel Hoist Ring. 

Referenced

Q: The minimum design factor for Swivel Hoist Rings is 6:1.

False. Swivel Hoist Rings must have a minimum design factor of 5:1, which means the breaking strength must be at least five times the rated WLL. For more detailed information, refer to ASME B30.26 – chapter 2.2 Adjustable Hardware for design factor of a Swivel Hoist Ring.

Referenced

Q: Spacers can be used between the Swivel Hoist ring and the load being lifted.

False. Spacers or washers must not be used between the flange of a swivel hoist ring and the surface of a load. This is to ensure proper distribution and stability. Refer to the ASME Standard B30.26 – Chapter 2.9 Adjustable Hardware for more detailed information on rigging and operating practices for Swivel Hoist Rings. 

Referenced

Q: Swivel Hoist Rings must be visually inspected before each use.

True. Swivel Hoist Rings must be visually inspected by a trained and designated person each shift before each use to determine if its condition is fit for service.  Refer to the ASME Standard B30.26 Chapter 2.8 Adjustable Hardware for more details on frequent inspection requirements for Swivel Hoist Rings.

Referenced

Q: The rated load/ WLL (Working Load Limit) of an Eyebolt must not be exceeded.

True. The WLL of a Swivel Hoist Ring must not be exceeded for any reason. Refer to the ASME Standard B30.26 Adjustable Hardware for more detailed information on Swivel Hoist Ring operating and selection practices.

Referenced

Q: The applicable industry standard to reference for details about Swivel Hoist Rings is ASME B30.26.

True. Refer to the ASME B30.26-2 Adjustable Hardware standard for all applicable information and requirements related to Swivel Hoist Rings. 

Referenced

Q: Periodic inspections of Eyebolts must be carried out at least every month.

False. A periodic inspection must be conducted on a Eyebolts at minimum once a year. Refer to the ASME Standard B30.26 – Chapter 2.8 Adjustable Hardware for more detailed information on periodic inspection practices for Eyebolts.

Referenced

Q: One cubic foot of solid steel weighs 490 lbs.

True. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

Referenced

Q: Eyebolts are not always marked with their WLL (Working Load Limit). 

True. Each Eyebolt must be marked with Manufacturer’s Name or Trademark, Size or Rated Load and Grade for alloy steel eyebolts. For more details see the ASME B30.26 – Chapter 2.8 Adjustable Hardware for inspection, repair and removal criteria of Eyebolts.

Referenced

Q: Shouldered Eyebolts are for in-line loading only.

False. When Shoulder Eyebolts are used for angular loading the shoulder must be flush with and securely tightened against the load. The working load limit (WLL) must be reduced in accordance with the manufacturer’s specifications.  Refer to the ASME Standard B30.26 – Chapter 2.9 Adjustable Hardware for detailed information on the rigging and operating practices of Eyebolts.

Referenced

Q: The minimum design factor for Eyebolts is 3:1.

False. Eyebolts must have a minimum design factor of 5:1, which means the breaking strength must be at least five times the rated WLL. For more detailed information, refer to ASME B30.26 – chapter 2.2 Adjustable Hardware for design factor of Eyebolts.

Referenced

Q: When an Eyebolt is used at an angle its capacity increases.

False. The angle of loading directly influences the stress on the eyebolt; as the angle becomes more horizontal, the stress increases.

Refer to the ASME Standard B30.26 – Chapter 2.9 Adjustable Hardware for more detailed information on rigging and operating practices for Eyebolts.

Referenced

Q: Eyebolts must be visually inspected before each use.

True. Eyebolts must be visually inspected by a trained and designated person each shift before each use to determine if its condition is fit for service.  Refer to the ASME Standard B30.26 Chapter 2.8 Adjustable Hardware for more details on frequent inspection requirements for Eyebolts.

Referenced

Q: The rated load/ WLL (Working Load Limit) of an Eyebolt must not be exceeded.

True. The WLL of an Eyebolt must not be exceeded for any reason. Refer to the ASME Standard B30.26 Adjustable Hardware for more detailed information on Eyebolt operating and selection practices.

Referenced

Q: The applicable industry standard to reference for details about Eyebolts is ASME B30.26.

True. Refer to the ASME B30.26-2 Adjustable Hardware standard for all applicable information and requirements related to Eyebolts.

Referenced

Q: Bolt-type shackles are to be used in long-term installations.

True. Bolt-type shackles are the preferred choice for long-term or semi-permanent installations as the nut and cotter pin act as a secondary retention system that prevents the pin from rotating or unscrewing. Refer to the ASME Standard B30. Shackles for more detailed information on rigging and operating practices involving shackles.

Referenced

Q: Both the body and the pin of the Shackle must be marked with the manufacturer’s identification.

True. The Shackle body and pin is required to be marked with the manufacturer’s identification.  The shackle pin must be from the same manufacturer as the shackle body.  Refer to the ASME Standard B30.26 Shackles for more information on shackle body identification and shackle pin identification.

Referenced

Q: One cubic foot of solid steel weighs 490 lbs.

True. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

Referenced

Q: A round pin Shackle is the best Shackle to use for angled (side-loaded) lifts. 

False. A round pin Shackle is in fact the worst choice for an angled (side-loaded) lift. Refer to the manufacturer’s specifications for material specifications for side-loading. For more details on shackle types, see the ASME B30.26 Shackles standard.

Referenced

Q: All Shackles have a design factor of 5:1 

False. Shackles up to and including 150 Ton (136 metric ton) have a minimum design factor of 5:1. Shackles over 150 Ton (136 metric ton) have a minimum design factor of 4:1. Refer to the ASME Standard B30.26 – Chapter 1.2 Shackles for more detailed information on design factor allowances.

Referenced

Q: The maximum symmetrical loading between slings on a shackle is 120 degrees.

True. Slings must not exceed a 120-degree included angle when they are symmetrically loaded on the bow of a shackle.

For more detailed information, refer to ASME B30.26 – chapter 1.9 Shackles for operating and rigging practices for Shackles. 

Referenced

Q: When a shackle is ‘side-loaded’ its capacity increases.

False. The opposite is true; when a shackle is ‘side-loaded’ its capacity decreases significantly. Refer to the ASME Standard B30.26 – Chapter 1.9 Shackles for more detailed information on capacity reduction allowances and other rigging practices.

Referenced

Q: Shackles must be visually inspected before each use.

True. Shackles must be visually inspected by a trained and designated person each shift before each use to determine if its condition is fit for service.  Refer to the ASME Standard B30.26 Chapter 1.8 Shackles for more details on frequent inspection requirements.

Referenced

Q: The rated load/ WLL (Working Load Limit) of a Shackle must not be exceeded.

True. The WLL of a Shackle must not be exceeded for any reason. Refer to the ASME Standard B30.26 Shackles for more detailed information on Shackle operating and selection practices.

Referenced

Q: The applicable industry standard to reference for details about shackles is ASME B30.10.

False. Refer to the ASME B30.26-1 Shackles standard for all applicable information and requirements related to Shackles. 

Referenced

Q: The internal fibres (core yarns) of a Polyester Roundsling may be repaired with knots if they were to become cut.

False. Knots are prohibited in any part of the sling. If a Polyester Roundsling were to become damaged or the core yarns cut, the sling must be immediately removed from service. Refer to the ASME Standard B30.9 – Chapter 6.9 Polyester Roundslings for more detailed information on inspection, removal and repair criteria for Polyester Roundslings. 

Referenced

Q: The rated load capacity of a Polyester Roundsling may be reduced if used around small diameters.

True. When used around a small diameter or edge radius, the sling is forced into a sharp bend which increases tension and stress on the internal fibres. This is called “point loading” and may cause the sling to fail. Refer to the ASME Standard B30.9 chapter 6.10 Polyester Roundslings for more information on operating practices and sling selection.  

Referenced

Q: It is acceptable to use a Polyester Roundsling that has holes in its cover as long as the holes are small.

False. A Polyester Roundsling must be removed from service if there are holes, tears or cuts in the cover that expose the internal fibres. Regardless of the size of the holes, the sling becomes vulnerable and can be easily damaged. Refer to the ASME Standard B30.9 – Chapter 6.9 Polyester Roundslings for more detailed information on inspection and removal criteria for Polyester Roundslings. 

Referenced

Q: One cubic foot of solid steel weighs 490 lbs.

True. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

Referenced

Q: Folding, bunching, or pinching of a Polyester Roundsling is acceptable.

False. It is not acceptable for a Polyester Roundsling to be folded, bunched or pinched. These conditions cause uneven loading across the width of the sling which would significantly reduce the slings rated capacity. Refer to the ASME Standard B30.9 – Chapter 10.4 Rigging Practices for Polyester Roundslings for more detailed information.

Referenced

Q: A Polyester Roundsling can be shortened by tying knots in it.

False. A Polyester Roundsling must never be used if it is knotted or twisted as it can damage the sling and significantly reduce its rated capacity. Refer to the ASME Standard B30.9 – Chapter 6.10 Polyester Roundslings for more detailed information on appropriate operating and rigging practices. 

Referenced

Q: When a Polyester Roundsling is used in a choker hitch, its capacity is based on an angle of choke that is less than 90 degrees.

False. The sling’s capacity is based on an angle of choke that is 120 degrees or greater. Refer to the ASME Standard B30.9 – Chapter 6.10 Polyester Roundslings for more detailed information on appropriate operating practices and sling selection.

Referenced

Q: Polyester Roundslings must be visually inspected every time they are used.

True. Per the Alberta OHS Code Section 294, any rigging that is to be used during a work shift must be thoroughly inspected prior to each period of continuous use by a competent person to ensure it is functional and safe. 

Referenced

Q: The rated load/ WLL (Working Load Limit) of a Polyester Roundsling must not be exceeded. 

True. The WLL of a sling must not be exceeded. Refer to the ASME Standard B30.9 – Chapter 6.10 Polyester Roundslings for more detailed information on the WLL of a Polyester Roundsling.

Referenced

Q: The applicable legislation and standards to reference for details about Polyester Roundslings is Alberta OHS Code 297 and ASME B30.9.

True. The correct Alberta legislation to reference for information on Polyester Roundslings is the Alberta OHS Code section 297. For detailed information on Polyester Roundslings, refer to the ASME B30.9 Slings standard.

Referenced

Q: Synthetic Webbing Slings can be used as bridles on suspended personnel platforms.

False. It is explicitly prohibited to use a Synthetic Webbing Sling as a bridle on a suspended personnel platform. A Wire Rope or Alloy Steel Chain sling is more suited to the task. Refer to the ASME Standard B30.9 – Chapter 5.10 for more detailed information on sling selection and operating practices for Synthetic Webbing Slings. 

Referenced

Q: Ultraviolet (UV) light may negatively affect the capacity of a Synthetic Webbing Sling over time.

True. Ultraviolet (UV) light (from sunlight or welding) degrade the strength of synthetic webbing slings, often without visible indication. Continuous exposure could lead to slight or total degradation of the sling’s load-bearing capacity. Refer to the ASME Standard B30.9 chapter 5.8 for more information on the effects of environment on Synthetic Webbing Slings.  

Referenced

Q: The eye of a Synthetic Webbing Sling may be placed on a hook that has a diameter half the length of the sling eye.

False. The eye of a Synthetic Webbing Sling should not be used with a hook (or any attachment) whose diameter is more than one-third (1/3) of the eye.  If the hook diameter is too large in relation to the eye length it could cause excessive stress on the splices, increase the risk of tearing  and reduce the rated capacity of the sling. Refer to the ASME Standard B30.9 – Chapter 10.4 Synthetic Webbing Slings for more detailed information on rigging practices for Synthetic Webbing Slings. 

Referenced

Q: One cubic foot of solid steel weighs 490 lbs.

True. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

Referenced

Q: Folding, bunching, or pinching of a Synthetic Webbing Sling is acceptable. 

False. It is not acceptable for a Synthetic Webbing Sling to be folded, bunched or pinched. These conditions cause uneven loading across the width of the webbing which would concentrate stress on a narrow section and significantly reduce the slings rated WLL. Refer to the ASME Standard B30.9 – Chapter 10.4 Rigging Practices for Synthetic Webbing Slings for more detailed information.

Referenced

Q: A Synthetic Webbing Sling must not be used when the horizontal angle is less than 30 degrees. 

True. Refer to the ASME Standard B30.9 – Chapter 10.1 Synthetic Webbing Slings for more detailed information on appropriate operating practices and sling selection. 

Referenced

Q: When a Synthetic Webbing Sling is used in a choker hitch, its capacity is based on an angle of choke angle of less than 90 degrees.

False. The sling’s capacity is based on an angle of choke that is 120 degrees or greater. Refer to the ASME Standard B30.9 – Chapter 10.1 Synthetic Webbing Slings for more detailed information on appropriate operating practices and sling selection. 

Referenced

Q: Synthetic Webbing Slings must be visually inspected every time they are used.

True. Per the Alberta OHS Code Section 294, any rigging that is to be used during a work shift must be thoroughly inspected prior to each period of continuous use by a competent person to ensure it is functional and safe. 

Referenced

Q: The rated load/ WLL (Working Load Limit) of a Wire Rope Sling must not be exceeded. 

True. The WLL of a sling must not be exceeded. Refer to the ASME Standard B30.9 – Chapter 10.1 Synthetic Webbing Slings for more detailed information on the WLL of a Synthetic Webbing Sling. 

Referenced

Q: The applicable legislation and standards to reference for details about Synthetic Webbing Slings is Alberta OHS Code 297 and ASME B30.9.

True. The correct Alberta legislation to reference for information on Synthetic Webbing Slings is the Alberta OHS Code section 297. For detailed information on Synthetic Webbing Slings, refer to the ASME B30.9 Slings standard.

Referenced

Q: Wire Rope Slings should be inspected with bare hands.

False. Wire Rope Slings must be inspected with cautions taken to personnel safety. Damage to wire rope could create sharp edges that could cut or puncture a person’s bare skin. The appropriate cut/puncture resistant gloves should be worn. Refer to the ASME Standard B30.9 – Chapter 10.2 Cautions to Personnel for more detailed information on operating practices for Wire Rope Slings.

Referenced

Q: Wire Rope Slings must be removed from service if they develop ‘bird caging’.

True. A Wire Rope Sling must be permanently removed from service if there is wear over more than one third of the diameter of the rope, if the rope’s structure becomes distorted because of bird-caging,  or if there is evidence of other damage. Refer to the Alberta OHS Code section 306 for more detailed removal criteria on Wire Rope Slings.  

Referenced

Q: Periodic inspections for Wire Rope Slings must be performed, at maximum, every six months. 

False. Periodic inspections must be carried out at least once each year.  Refer to the ASME Standard B30.9 – Chapter 9.4 Wire Rope Slings for more detailed information on periodic inspections for Wire Rope Slings.

Referenced

Q: One cubic foot of solid steel weighs 490 lbs.

True. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

Referenced

Q: A Wire Rope Sling can only be used if it is marked with its Diameter, WLL and Length.

False. Wire Rope Slings must be marked with the manufacturer’s name or trademark, rated load for specific hitch types/angles, the diameter and the number of legs. Identification tags must be legible. Refer to the ASME Standard B30.9 – Chapter 7.1 Sling Identification for more detailed information on the identification requirements of a Wire Rope Sling. 

Referenced

Q: A Wire Rope Sling must not be used when the horizontal angle is less than 30 degrees. 

True. Refer to the ASME Standard B30.9 – Chapter 10.1 Wire Rope Slings for more detailed information on appropriate operating practices and sling selection when using a Wire Rope Sling. 

Referenced

Q: When a Wire Rope Sling is used in a choker hitch, its capacity is based on an angle of choke of less than 90 degrees.

False. It is based on an angle of choke that is 120 degrees or greater. Refer to the ASME Standard B30.9 – Chapter 10.1 Wire Rope Slings for more detailed information on appropriate operating practices and sling selection when using a Wire Rope Sling. 

Referenced

Q: Wire Rope Slings must be visually inspected every time they are used.

True. Per the Alberta OHS Code Section 294, any rigging that is to be used during a work shift must be thoroughly inspected prior to each period of continuous use by a competent person to ensure it is functional and safe. 

Referenced

Q: The rated load/ WLL (Working Load Limit) of a Wire Rope Sling must not be exceeded.

True. The WLL of a sling must not be exceeded. Refer to the ASME Standard B30.9 – Chapter 10.2 Wire Rope Slings for more detailed information on the WLL of a Wire Rope Sling. 

Referenced

Q: The applicable legislation and standards to reference for details about Wire Rope Slings is Alberta OHS Code 297 and ASME B30.9.

True. The correct Alberta legislation to reference for information on Alloy Steel Chain Slings is the Alberta OHS Code section 297. For detailed information on Alloy Steel Chain Slings, refer to the ASME B30.9 Slings standard. 

Referenced

Q: Periodic inspections for Alloy Steel Chain Slings must be performed, at minimum, once a year.

True. Refer to the ASME Standard B30.9 – Chapter 9-1 Alloy Steel Chain Slings should be referred to for more detailed information on periodic inspections for Alloy Steel Chain Slings. 

Referenced

Q: An Alloy Steel Chain Sling with a missing identification tag can be used as long as you know the chain size and material.

False. A sling missing its identification tag must not be used and immediately removed from service. Refer to the ASME Standard B30.9 – Chapter 9-1 Alloy Steel Chain Slings should be referred to for more detailed information on inspection, removal and repair criteria.

Referenced

Q: One cubic foot of solid steel weighs 360 lbs.

False. Steel has a density of  0.284 lbs. per cubic inch, or 490 lbs. per cubic foot.

Referenced

Q: Personnel must not pass under a suspended load.

True. The Alberta OHS Code section 69 indicates that employers and lifting device operators must ensure that a load does not pass over a person. That includes passing a load over a person as well as a person passing under a suspended load. A load must always travel as low to the ground as possible.  Refer also to the ASME B30.9 Standard on Cautions to Personnel.

Referenced

Q: Performance is based on a temperature range of 0 to 200 degrees Celsius.

False.  The correct answer is -40 to 204 degrees Celsius. Refer to the ASME Standard B30.9 – Chapter 9-1 Alloy Steel Chain Slings should be referred to for more detailed information on the effects of temperature and environment when using an Alloy Steel Chain Sling. 

Referenced

Q: An Alloy Steel Chain Sling must not be used when the horizontal angle is less than 30 degrees. 

True. Refer to the ASME Standard B30.9 – Chapter 9-1 Alloy Steel Chain Slings should be referred to for more detailed information on appropriate operating practices and sling selection when using Alloy Steel Chain Sling. 

Referenced

Q: When an Alloy Steel Chain Sling is used in a choker hitch, its capacity is based on a choke angle of less than 90 degrees.

False. It is based on an angle of choke greater than 120 degrees. Refer to the ASME Standard B30.9 – Chapter 9-1 Alloy Steel Chain Slings should be referred to for more detailed information on appropriate operating practices and sling selection when using Alloy Steel Chain Slings. 

Referenced

Q: Alloy Steel Chain Sling must be visually inspected every time they are used.

True. Per the Alberta OHS Code Section 294, any rigging that is to be used during a work shift must be thoroughly inspected prior to each period of continuous use by a competent person to ensure it is functional and safe.

Referenced

Q: The rated load/ WLL (Working Load Limit) of an Alloy Steel Chain Sling must not be exceeded.

True. The WLL of a sling must not be exceeded. Refer to the ASME Standard B30.9 – Chapter 9-1 Alloy Steel Chain Slings should be referred to for more detailed information on the WLL of an Alloy Steel Chain Sling. 

Referenced

Q: The applicable legislation and standards to reference for details about Alloy Steel Chain Slings is Alberta OHS Code 297 and ASME B30.9

True. The correct Alberta legislation to reference for information on Alloy Steel Chain Slings is the Alberta OHS Code section 297. For detailed information on Alloy Steel Chain Slings, refer to the ASME B30.9 Slings standard. 

Testing Your Knowledge

Comprehensive training is a continuous process that extends beyond initial orientation. To assist in the ongoing education of workers, we have developed a series of short, product-specific quizzes designed to reinforce key safety principles and technical standards. These quizzes serve as an effective self-assessment tool or as a supplementary training resource to ensure that personnel maintain a high level of proficiency when handling rigging equipment. By validating theoretical knowledge alongside practical application, employers can better support a safe, competent, and compliant worksite.

Test your understanding of rigging standards and best practices with our product quizzes below.

Fulfilling Your Responsibility

A toolbox talk (or toolbox meeting) is a short, focused safety discussion held on the worksite to reinforce key hazards, review safe work practices, and address issues relevant to the tasks at hand. It is considered a supplementary form of training because it supports, but does not replace, the formal education and instruction required under Alberta’s Occupational Health and Safety Act, Regulation, and Code.

Alberta legislation requires employers to ensure that workers are competent to perform their jobs safely and are provided with the training, supervision, and information needed to protect their health and safety. Toolbox talks help employers meet these responsibilities by keeping safety knowledge fresh and encouraging regular communication.

They also support workers’ legislated rights to know about hazards, participate in health and safety discussions, and express concerns about unsafe conditions. By involving workers directly in these brief, practical conversations, toolbox talks strengthen shared responsibility and help maintain a safe and informed worksite.

Find an assortment of rigging related toolbox talks ready to be used below.

Quick Reference: Verified Competence

Workers conducting tasks related to rigging must have the knowledge, training, experience, skills and physical ability to conduct the work safely and as required by their employer..  For more information on personal competence, refer to the applicable ASME B30 Standard. 

Per the Alberta OHS Code, a competent person is someone who is trained, qualified and has experience completing rigging tasks safely on their own, without supervision. 

  • Qualified means: someone who has earned their qualifications through a formal education program or acquired them through a combination of education and practical experience.
  • Trained means: training was received that was appropriate to the tasks, equipment and environment in which they will be performed or used.
  • Experienced means: a person has sufficient and adequate knowledge to perform the task with little or no supervision. 

While these are essential components of competence, a worker’s qualifications, training, and experience alone do not guarantee that work will be performed safely each time. It is the employer’s responsibility to conduct training and competency assessments at periodic intervals.

Below are competency evaluation forms that can be used by an employer or supervisor to assess a worker’s competency when conducting tasks involving rigging and rigging equipment.

riggingresource.com is a comprehensive online resource developed for new and experienced workers with the operation of cranes and rigging equipment. Industry leaders, employers, workers, and students now have a wealth of information available at their fingertips.

This site can provide knowledge that will help to ensure the proper use of rigging equipment during rigging procedures, and help to identify and avoid workplace hazards.

Using the simple search and navigation features of the website, fun quizzes, and informational pop-ups, you will become informed about proper operational and workplace regulations and standards that comply with Alberta Occupational Health & Safety (OH&S) and the American Society of Mechanical Engineers (ASME).

Be a part of making YOUR workplace the SAFEST workplace!