FAQ Bank
The questions and answers from the articles on this site, grouped by category. Each answer links back to its article. Like the articles, they are AI-drafted from public sources: general information only, figures are indicative.
Yes. By using Acetal (POM) chains and stainless steel frames that meet EHEDG standards, spiral conveyors are frequently used in food and pharmaceutical washdown environments.
Source: Maximizing Throughput with Spiral Modular Conveyors for Vertical Accumulation →FIFO (First-In-First-Out) ensures that the first product to enter the spiral is the first to leave. This is critical for products with expiration dates or for maintaining sequence in serialized pharmaceutical lines.
Source: Maximizing Throughput with Spiral Modular Conveyors for Vertical Accumulation →Maintenance should be performed quarterly, focusing on checking belt tension (elongation), inspecting UHMW-PE wear strips for heat damage, and ensuring drive sprocket alignment.
Source: Maximizing Throughput with Spiral Modular Conveyors for Vertical Accumulation →Polypropylene (PP) is generally preferred for its excellent chemical resistance to alkaline cleaners, while Polyethylene (PE) is superior for sub-zero temperatures in freezing lines.
Source: Modular Plastic Belt Conveyors in High-Care Food Production: A Design Guide →High-care modular belts should run with a 'catenary sag' (loose return side) rather than under high tension to reduce wear on the hinge pins and sprockets.
Source: Modular Plastic Belt Conveyors in High-Care Food Production: A Design Guide →IP69K is the highest rating, indicating the component can withstand high-pressure water jets, essential for high-care sanitation.
Source: Modular Plastic Belt Conveyors in High-Care Food Production: A Design Guide →Metal-detectable plastic modules allow standard inspection equipment to identify and reject any belt fragments that might break off, preventing physical contamination.
Source: Modular Plastic Belt Conveyors in High-Care Food Production: A Design Guide →POM (Acetal) is preferred for its low friction, high tensile strength, and excellent dimensional stability across various temperatures, which prevents bottle toppling.
Source: Advanced Modular Bottle Handling Conveyors for High-Speed Filling Lines →Mass flow accumulation tables allow bottles to buffer in a multi-lane configuration, decoupling machine speeds and ensuring the filler never stops during minor downstream faults.
Source: Advanced Modular Bottle Handling Conveyors for High-Speed Filling Lines →Guide rails should be set wider than the bottle diameter to prevent jamming while ensuring the bottle remains centered for the filler or labeler.
Source: Advanced Modular Bottle Handling Conveyors for High-Speed Filling Lines →Frequent toppling is usually caused by chordal action (vibration from low-tooth-count sprockets), improper chain tension, or excessive friction between the bottle base and the chain.
Source: Advanced Modular Bottle Handling Conveyors for High-Speed Filling Lines →Polyethylene (PE) is the industry standard for deep-freeze modules as it retains impact resistance at low temperatures. Acetal (POM) is also used but requires specific low-temperature additives to prevent brittleness.
Source: Engineering Modular Conveyor Systems for Cold Storage Warehouses →IE4 motors generate less waste heat. In cold storage, every watt of heat produced by a motor must be removed by the refrigeration system. High efficiency reduces the thermal load on the facility.
Source: Engineering Modular Conveyor Systems for Cold Storage Warehouses →It is often recommended to leave the conveyors running at a very low 'crawl' speed during idle periods. This constant motion prevents 'set' in the lubricants and prevents ice from fusing the belt to the wear strips.
Source: Engineering Modular Conveyor Systems for Cold Storage Warehouses →Condensation occurs at the transition points between different temperature zones. Using insulated tunnels and moisture-sealed sensors is the primary way to mitigate 'ice smoke' and frost buildup at these interfaces.
Source: Engineering Modular Conveyor Systems for Cold Storage Warehouses →316L stainless steel contains molybdenum, which provides significantly better resistance to chlorides (salts) compared to 304, making it essential for brine and seafood applications.
Source: The Engineer's Guide to Stainless Steel Modular Belts for Hygienic Wash-Down →IP69K is the highest rating for protection against high-pressure, high-temperature wash-down, making it the mandatory standard for hygienic food zones.
Source: The Engineer's Guide to Stainless Steel Modular Belts for Hygienic Wash-Down →Yes, stainless steel belts are heavier, requiring higher startup torque and often the use of VFDs to manage mechanical stress on sprockets and shafts.
Source: The Engineer's Guide to Stainless Steel Modular Belts for Hygienic Wash-Down →Tool-less designs often feature captive rods or snap-on links that allow an operator to disassemble the belt by hand or with a simple release lever, whereas traditional modular belts require hammers and punches to drive out hinge pins.
Source: Tool-less Belt Change Designs that Boost OEE on Modular Conveyors →They increase Availability (the 'A' in OEE) by significantly shortening the time required for sanitation-related downtime and unplanned belt repairs.
Source: Tool-less Belt Change Designs that Boost OEE on Modular Conveyors →No, modern tool-less links are engineered to meet or exceed the tensile strength of traditional pinned belts, often using high-strength polymers like POM or Reinforced Polypropylene.
Source: Tool-less Belt Change Designs that Boost OEE on Modular Conveyors →Ideally, your belt pins and modules should be a high-contrast color (like bright blue) to help operators visually confirm that the locking mechanism is securely seated.
Source: Tool-less Belt Change Designs that Boost OEE on Modular Conveyors →Specifically in food processing, 'tool-less' usually means 'accessible.' If a belt is easy to remove, the conveyor frame becomes fully accessible for wash-down, reducing the risk of bacterial harborages.
Source: Tool-less Belt Change Designs that Boost OEE on Modular Conveyors →Yes, but you must use a 'tab' or 'magnetic' belt tracking system to prevent the inner edge of the belt from lifting off the frame under high tension.
Source: Mastering Modular Curve Conveyors for Tight-Radius Layouts →Acetal (POM) is the preferred material because it has high tensile strength and low friction, which are necessary to handle the stress concentrated on the outer belt edge.
Source: Mastering Modular Curve Conveyors for Tight-Radius Layouts →The most common failures are snapped pivot rods and worn inner wear strips caused by excessive belt tension and improper VFD ramp-up settings.
Source: Mastering Modular Curve Conveyors for Tight-Radius Layouts →While modular belts can incline, it is generally recommended to keep curves horizontal to prevent complex compound forces that lead to product slippage.
Source: Mastering Modular Curve Conveyors for Tight-Radius Layouts →24V or 48V DC Motorized Driven Roller (MDR) systems are the industry standard for totes due to their energy efficiency and Zero Pressure Accumulation (ZPA) capabilities.
Source: Optimizing Case and Tote Conveyors for 3PL Warehouse Efficiency →ZPA uses sensors to ensure that items on a conveyor never touch each other, creating a gap between 'zones'. This prevents product damage and jams in 3PL environments.
Source: Optimizing Case and Tote Conveyors for 3PL Warehouse Efficiency →While MDR is quieter and more efficient for small loads, AC gearmotors are often preferred for very heavy loads or extremely high-speed 'slug' shipping lines.
Source: Optimizing Case and Tote Conveyors for 3PL Warehouse Efficiency →Cleats (or flights) are required when the conveyor incline exceeds the material's natural angle of repose.
Source: Incline Conveyors with Cleated Belts for Bulk Goods: Engineering Guide →A 'backstop' or electromagnetic brake is essential for incline conveyors to prevent the belt from reversing under load during an emergency stop or power failure.
Source: Incline Conveyors with Cleated Belts for Bulk Goods: Engineering Guide →For food applications, use PU or modular POM belts with radiused cleat bases (fillets) that comply with FDA and EHEDG standards to ensure effective wash-down cleaning.
Source: Incline Conveyors with Cleated Belts for Bulk Goods: Engineering Guide →Roller conveyors (CDLR) are best when pallet runners are perpendicular to the rollers, while chain conveyors are superior for runners parallel to the direction of travel or for handling non-standard pallets.
Source: Pallet Handling Conveyors for End-of-Line Automation: Technical Guide →Yes, according to IEC 60034-30-1, using IE3 or IE4 high-efficiency motors combined with PLC-driven 'sleep modes' can significantly reduce the carbon footprint of a material handling system.
Source: Pallet Handling Conveyors for End-of-Line Automation: Technical Guide →Polybag sortation is best handled by cross-belt sorters or modular belts with high-friction inserts, as these prevent the thin plastic from slipping or getting caught in roller gaps.
Source: Optimizing Throughput: Modular Sortation Systems for E-commerce →Modular systems utilize 24V/48V DC motors that only run when a parcel is present (run-on-demand).
Source: Optimizing Throughput: Modular Sortation Systems for E-commerce →Modular systems are highly scalable. Because they are decentralized, you can add divert spurs or lengthen the induction line without replacing the main controller or motor.
Source: Optimizing Throughput: Modular Sortation Systems for E-commerce →Maximize OEE by identifying the bottleneck station and ensuring the conveyor's 'Takt Time' is slightly faster than the bottleneck's cycle time to prevent starving.
Source: Maximizing OEE through Strategic Line Balancing in Material Flow →The bottleneck is typically the location with the highest volume of Work-In-Process (WIP) or the station where 'Blocking' (upstream) or 'Starving' (downstream) occurs.
Source: Maximizing OEE through Strategic Line Balancing in Material Flow →Zero Pressure Accumulation (ZPA) allows products to stay on a moving conveyor without touching each other, preventing product damage and reducing motor wear.
Source: Maximizing OEE through Strategic Line Balancing in Material Flow →Consistent speeds reduce mechanical stress and heat. Frequent stop/start cycles caused by poor balance can shorten motor and belt life.
Source: Maximizing OEE through Strategic Line Balancing in Material Flow →Zero Pressure Accumulation (ZPA) uses sensors to ensure products never touch during buffering, while Minimum Pressure allows products to touch but reduces the driving force to prevent damage/crushing.
Source: Accumulation Conveyors for Buffer Management in Packaging: A Design Guide →Yes, by using vertical spiral conveyors or alpine systems, you can significantly increase accumulation time within a small footprint by utilizing overhead space.
Source: Accumulation Conveyors for Buffer Management in Packaging: A Design Guide →ZPA systems are highly energy-efficient because zones only run when a product needs to move; they do not require the continuous motor operation found in friction-based systems.
Source: Accumulation Conveyors for Buffer Management in Packaging: A Design Guide →Standardized protocols like IO-Link and industrial Ethernet are the most common for connecting ZPA sensors and decentralized motor controllers to a central PLC or SCADA system.
Source: Accumulation Conveyors for Buffer Management in Packaging: A Design Guide →For deep-freeze environments, Polyethylene (PE) is preferred due to its impact resistance. For chilled environments, Acetal (POM) is often used for its higher load capacity.
Source: Engineering Resilience: Modular Curve Belts for Cold Storage Warehouses →Yes, but they require low-temperature synthetic lubricants and often internal heaters to prevent condensation and oil thickening.
Source: Engineering Resilience: Modular Curve Belts for Cold Storage Warehouses →Ice buildup can be managed through the use of open-surface modular belts and by installing scrapers or brushes on the return path of the conveyor.
Source: Engineering Resilience: Modular Curve Belts for Cold Storage Warehouses →High-density polyethylene (HDPE) or UHMW-PE wear strips are ideal as they maintain low friction and do not become brittle or absorb moisture in freezing conditions.
Source: Engineering Resilience: Modular Curve Belts for Cold Storage Warehouses →Shaftless conveyors have no center pipe, allowing for a clear flow path. This prevents the 'wrapping' or 'hairballing' effect seen with fibrous or sticky sludge.
Source: Engineering Excellence in Shaftless Screw Conveyors for Sludge Handling →Yes, but efficiency drops as the incline increases.
Source: Engineering Excellence in Shaftless Screw Conveyors for Sludge Handling →Common materials include high-strength carbon steel for standard waste and AISI 304 or 316 stainless steel for corrosive chemical or food-grade sludges.
Source: Engineering Excellence in Shaftless Screw Conveyors for Sludge Handling →A visual wear indicator (a different colored layer in the liner) is the best method. Additionally, monitoring motor amperage can signal increased friction from a worn-down liner.
Source: Engineering Excellence in Shaftless Screw Conveyors for Sludge Handling →Aluminium profiles allow for hardware adjustments (adding buffers, moving sensors) without welding, enabling engineers to match cycle times across different machines instantly.
Source: Optimizing Throughput: Aluminium Profile Conveyor Frames for Line Balancing →Standard anodized aluminium is highly resistant to corrosion in dry and humid environments, though 316-grade stainless steel is still preferred for direct contact with acidic or caustic cleaning agents.
Source: Optimizing Throughput: Aluminium Profile Conveyor Frames for Line Balancing →T-slot nuts can vibrate loose over time; it is recommended to use thread-locking compounds or vibration-resistant fasteners in high-speed applications.
Source: Optimizing Throughput: Aluminium Profile Conveyor Frames for Line Balancing →A drum motor is cooled either by the oil bath inside the shell transferring heat to the outer casing (and the belt) or by the product flow. In applications without a belt, special cooling considerations or derating are required.
Source: Drum Motor vs Gearmotor: The Ultimate Selection Guide for Conveyor Drives →Drum motors are generally more expensive upfront due to their precision engineering and sealing. However, they often lead to lower TCO in food plants due to reduced cleaning time and fewer safety guards.
Source: Drum Motor vs Gearmotor: The Ultimate Selection Guide for Conveyor Drives →Yes, but it requires removing the conveyor belt and taking the drum off the frame. This makes drum motors less ideal for 'mission-critical' lines.
Source: Drum Motor vs Gearmotor: The Ultimate Selection Guide for Conveyor Drives →While drum motors are highly efficient, external gearmotors can achieve higher IE4/IE5 ratings because they aren't limited by the physical dimensions of the conveyor pulley shell.
Source: Drum Motor vs Gearmotor: The Ultimate Selection Guide for Conveyor Drives →POM (Polyacetal) is the strongest standard material, offering the highest tensile strength and stiffness, making it ideal for long conveyors and high-load applications.
Source: Modular Plastic Belt Materials: The Ultimate POM vs PP vs PE Selection Guide →Polypropylene (PP) is generally unsuitable for low temperatures because it becomes brittle and can shatter upon impact. Polyethylene (PE) should be used instead.
Source: Modular Plastic Belt Materials: The Ultimate POM vs PP vs PE Selection Guide →POM has excellent chemical resistance to many oils and solvents but is susceptible to degradation by strong acids and chlorine-based oxidizing agents used in some sanitizers.
Source: Modular Plastic Belt Materials: The Ultimate POM vs PP vs PE Selection Guide →Polyethylene (PE) is the industry standard for freezing, as it remains ductile and impact-resistant at low temperatures.
Source: Modular Plastic Belt Materials: The Ultimate POM vs PP vs PE Selection Guide →IP69K is a protection rating under ISO 20653 indicating a component can withstand high-pressure (100 bar) and high-temperature (80°C) water jets. It is the standard for heavy washdown environments in food processing.
Source: Hygienic Conveyor Bearings and Shaft Seals: Engineering for Food Safety →Solid oil is a polymer matrix saturated with lubricant that fills the entire bearing cavity. It prevents moisture ingress and eliminates the risk of grease leakage, making it ideal for hygienic applications.
Source: Hygienic Conveyor Bearings and Shaft Seals: Engineering for Food Safety →Thermoplastic (PBT) housings are corrosion-proof and often include antimicrobial additives. However, 316 stainless steel is preferred for extreme temperatures or where mechanical impact from heavy tools is likely.
Source: Hygienic Conveyor Bearings and Shaft Seals: Engineering for Food Safety →Triple-lip seals provide three layers of protection against contaminants, whereas standard seals have one. In washdown areas, this redundancy prevents water from reaching the rolling elements.
Source: Hygienic Conveyor Bearings and Shaft Seals: Engineering for Food Safety →While some are re-greasable, the trend is moving toward 'lubricated for life' units. Re-greasing introduces the risk of seal blowout and contamination from the grease nipple itself.
Source: Hygienic Conveyor Bearings and Shaft Seals: Engineering for Food Safety →Balanced weave is the most common because it utilizes alternating spirals to counteract lateral movement, ensuring the belt travels straight through long furnace tunnels despite thermal expansion.
Source: Engineering Wire Mesh Belts for Heat Treatment and Oven Lines →Thermal expansion is managed using gravity take-up towers or weighted catenary sections. These systems allow the belt to physically lengthen as it heats up without increasing the internal tension to a point of mechanical failure.
Source: Engineering Wire Mesh Belts for Heat Treatment and Oven Lines →Most failures are caused by 'creep' (permanent stretching from too much tension), thermal fatigue from frequent cooling/heating cycles, or poor tracking that causes the edges to rub against the furnace structure.
Source: Engineering Wire Mesh Belts for Heat Treatment and Oven Lines →Yes, wire mesh belts have a high open-area ratio which allows for extremely efficient drainage and airflow, making them ideal for frying, blanching, and high-heat sterilization.
Source: Engineering Wire Mesh Belts for Heat Treatment and Oven Lines →Static transfer plates should be set higher than the receiving belt to prevent the product from catching on the leading edge of the downstream conveyor.
Source: Side Guides, Transfer Plates and End Rollers Explained: Optimizing Transitions →While HDPE is cheaper, POM is generally preferred for side guides in high-speed applications due to its higher stiffness, lower moisture absorption, and better dimensional stability under heat.
Source: Side Guides, Transfer Plates and End Rollers Explained: Optimizing Transitions →Roller transfers reduce friction significantly, which prevents 'back-pressure' issues where products bunch up and crush each other, especially common in glass bottling and delicate packaging.
Source: Side Guides, Transfer Plates and End Rollers Explained: Optimizing Transitions →IE3 is the 'Premium Efficiency' class defined by IEC 60034-30-1. For most conveyor applications, IE3 is now the legal minimum for motors 0.75kW and above in the EU and many other regions.
Source: The Engineer’s Guide to Energy-Efficient IE3 Motors on Conveyors →Because IE3 motors have lower internal resistance, their starting (inrush) current can be higher. This may require updating circuit breakers to D-curve or higher ratings to prevent nuisance tripping during startup.
Source: The Engineer’s Guide to Energy-Efficient IE3 Motors on Conveyors →Yes, but check dimensions first. IE3 motors sometimes have larger cooling fans or longer stators to achieve efficiency targets, though many manufacturers now offer 'compact' IE3 models that match the physical footprint of older IE2 motors.
Source: The Engineer’s Guide to Energy-Efficient IE3 Motors on Conveyors →Yes, IE3 motors are highly compatible with VFDs. However, ensure the motor has adequate insulation (Class F or H) and consider a reinforced insulation system if using a VFD with long cable runs to prevent voltage peak damage.
Source: The Engineer’s Guide to Energy-Efficient IE3 Motors on Conveyors →Hardware triggers (24V DC) offer the lowest jitter and are preferred for high-speed lines. Software triggers via Ethernet are acceptable for slower applications where variation won't impact accuracy.
Source: Mastering PLC and Machine Vision Integration on Packaging Conveyors →A shift register or FIFO (First-In-First-Out) buffer in the PLC tracks the inspection result tied to encoder pulses, ensuring the rejecter activates only when the specific 'failed' item arrives.
Source: Mastering PLC and Machine Vision Integration on Packaging Conveyors →Standard industrial vision systems require IP67 or IP69K rated housings, and the PLC integration must account for cable protection in wash-down environments to meet EHEDG standards.
Source: Mastering PLC and Machine Vision Integration on Packaging Conveyors →For conveyor drives, Velocity (RMS) measured in mm/s is the most useful metric for general health, while Acceleration (g) is best for detecting early-stage bearing defects.
Source: Predictive Maintenance with Vibration Sensors on Conveyor Drives →Ideally, sensors should be mounted on the bearing housing of the motor and the output shaft of the gearbox, as these are the points where mechanical stress is most concentrated.
Source: Predictive Maintenance with Vibration Sensors on Conveyor Drives →While wireless sensors offer easier installation, wired IO-Link sensors are preferred in high-interference industrial environments for their data stability and lack of battery maintenance.
Source: Predictive Maintenance with Vibration Sensors on Conveyor Drives →ISO 20816-1 provides the general guidelines for evaluating machine vibration by measurements on non-rotating parts, setting the standard for 'good,' 'satisfactory,' and 'unacceptable' vibration levels.
Source: Predictive Maintenance with Vibration Sensors on Conveyor Drives →A stabilization zone is a precision-engineered section of the conveyor designed to eliminate belt surge and vibration, ensuring a sharp image for 2D code verification.
Source: Optimizing Pharmaceutical Track-and-Trace Conveyor Line Layouts →For primary packaging, low-friction POM (acetal) or anti-static modular belts are preferred. For wash-down environments, IP69K-rated stainless steel conveyors are required.
Source: Optimizing Pharmaceutical Track-and-Trace Conveyor Line Layouts →Normally-Reject logic ensures that if the system fails (power loss, sensor error), the product is automatically diverted to the reject bin, preventing unverified drugs from reaching the market.
Source: Optimizing Pharmaceutical Track-and-Trace Conveyor Line Layouts →Dissipative materials are preferred because they allow static to bleed off at a controlled rate, whereas conductive materials can cause rapid, damaging sparks if a charged component touches them.
Source: ESD-Safe Conveyor Automation for Electronics Assembly: Engineering Guide →Surface resistance should be measured using a calibrated megohmmeter with electrodes, following the procedures outlined in IEC 61340-2-3.
Source: ESD-Safe Conveyor Automation for Electronics Assembly: Engineering Guide →Yes, standard POM (Delrin) is a highly insulative material that generates significant static. ESD-safe versions use carbon-black or other conductive fillers to reduce surface resistance.
Source: ESD-Safe Conveyor Automation for Electronics Assembly: Engineering Guide →At a minimum, verify the ground path monthly. For high-volume SMT lines, daily surface resistance spot-checks and continuous monitoring of humidity are recommended.
Source: ESD-Safe Conveyor Automation for Electronics Assembly: Engineering Guide →Low humidity significantly increases the risk of static buildup as it reduces the natural conductive moisture layer on surfaces, making ESD-safe materials less effective.
Source: ESD-Safe Conveyor Automation for Electronics Assembly: Engineering Guide →OPC UA is a platform-independent, service-oriented architecture for industrial communication that provides built-in security and complex data modeling, unlike traditional fieldbus protocols.
Source: The Engineer's Guide to OPC UA Integration for Smart Conveyor Modules →Yes, by using an Edge Gateway, you can convert legacy Modbus or Profibus data into OPC UA objects, enabling older conveyors to participate in Industry 4.0 environments.
Source: The Engineer's Guide to OPC UA Integration for Smart Conveyor Modules →OPC UA uses X.509 certificates for authentication and supports encryption, ensuring that control data and diagnostics are protected from cyber threats.
Source: The Engineer's Guide to OPC UA Integration for Smart Conveyor Modules →While OPC UA is traditionally for non-deterministic data, the new 'OPC UA over TSN' (Time-Sensitive Networking) standard allows for hard real-time control.
Source: The Engineer's Guide to OPC UA Integration for Smart Conveyor Modules →S-curves round off the beginning and end of a speed ramp. This prevents 'jerk,' which is the primary cause of unstable products tipping over and mechanical vibrating in plastic modular belts.
Source: Expert VFD Tuning and Soft-Start Strategies for Modular Conveyors →If the conveyor is under-loaded, the VFD can reduce the voltage while maintaining frequency (Hertz). This lowers the motor's magnetizing current and reduces energy waste without losing speed.
Source: Expert VFD Tuning and Soft-Start Strategies for Modular Conveyors →DC Braking applies a DC voltage to the motor windings to stop it instantly. It should be used sparingly on modular conveyors, as the sudden stop can cause high tension spikes in the belt modules.
Source: Expert VFD Tuning and Soft-Start Strategies for Modular Conveyors →Check for 'Slip-Stick' effect or mechanical resonance. Try increasing the S-curve smoothing or slightly adjusting the carrier frequency (PWM frequency) to move the vibration out of the mechanical resonance range.
Source: Expert VFD Tuning and Soft-Start Strategies for Modular Conveyors →SIL 3 (Safety Integrity Level 3) is a higher level of risk reduction than SIL 2, requiring higher diagnostic coverage and redundancy. In conveyor systems, SIL 3 is typically used for high-risk areas or where failure could lead to severe injury.
Source: Advanced Safety: Integrating Safety PLCs and SIL Ratings on Conveyor Lines →Muting is the temporary, automatic suspension of a safety function (like a light curtain) during a non-hazardous portion of the machine cycle, such as a pallet moving through an entry point, verified by secondary 'muting' sensors.
Source: Advanced Safety: Integrating Safety PLCs and SIL Ratings on Conveyor Lines →STO is a safety feature in VFDs that prevents the motor from restarting or generating torque. It is vital because it allows for a safe state without needing to disconnect the main power, enabling faster restarts after a safety event.
Source: Advanced Safety: Integrating Safety PLCs and SIL Ratings on Conveyor Lines →While safety PLCs are generally more expensive, they can be utilized for standard control logic as well. However, to maintain safety integrity, the safety logic must be strictly partitioned from the process logic within the software.
Source: Advanced Safety: Integrating Safety PLCs and SIL Ratings on Conveyor Lines →Easy Conveyors supplies standard conveyor modules and components. For advice on a specific project or a quote, contact Easy Conveyors directly.