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How to Select the Best Industrial Work Surface for Workstations and Modular Structures

How to Select the Best Industrial Work Surface for Workstations and Modular Structures

Choosing the right industrial work surface affects safety, productivity, and long-term costs. This guide breaks down the most common surface materials used in lean manufacturing—HDPE, UHMW-ESD, honeycomb, aluminum composite, and foam—so you can confidently select the right option for your workstations, racks, and modular structures.

The Importance of Selecting the Right Industrial Work Surface

With so many industrial work surface options available for manufacturing applications, it’s normal to feel overwhelmed. From ESD-compliant UHMW panels with surface resistances ranging from 10⁶ to 10⁹ ohms, to durable High-Density Polyethylene (HDPE) sheets and lightweight, impact-resistant honeycomb boards, each material is designed to address a specific need on the shop floor.

Additional options such as white aluminum composite panels, highly versatile pegboards, crosslink foams, and 13-layer Kaizen foam further expand the possibilities for workstation surfaces, tool organization, and part protection in lean environments.

Each material comes with its own strengths and limitations. Some are essential for ESD compliance and meeting Occupational Safety and Health Administration (OSHA) requirements. Others are cost-effective solutions that help reduce expenses, while certain materials are must-haves for workbench tops and flow rack decking.

To simplify the decision-making process, Flexpipe has standardized its industrial work surface offering in this easy-to-follow guide—helping you make better, more informed choices.

Whether you’re comparing HDPE vs UHMW vs honeycomb, selecting a manufacturing workbench surface for multiple workstations, or looking for a reliable static-control material, this guide will help you identify the right solution for your modular workstations.

By the end, you’ll know exactly which work surface best fits your application.

What Happens If You Choose the Wrong Surface Material for Your Modular Structure?

There are several risks with selecting the wrong workbench top material. The wrong material can significantly increase your costs. Others pose a potential safety risk to employees, while still others can cause ergonomic problems.

From an industrial work surface that easily warps and buckles over time, a material that experiences premature wear and tear, to selecting a material that is not ESD-compliant, the wrong industrial work surfaces for manufacturing applications can increase safety risks, drive up costs, and lead to high defect rates.

Warping

Static damage to parts

Premature wear of the work surface

Loss of precision when assembling parts

Ergonomic issues

Increased costs

Downtime

Choosing a non-ESD HDPE surface material can severely damage sensitive electronics during assembly. The wrong material for tool storage can result in lost tools and consumables, leading to extended downtime and lost production capacity. Choosing the right material comes down to accounting for the following variables. First, the material must improve productivity and efficiency. Second, the material must be durable and strong enough for the required task. Third, the chosen workbench top material must never pose a safety risk. Finally, your manufacturing workbench surface must not increase product defect rates.

Flexpipe offers an extensive range of industrial work surfaces for manufacturing applications. Each one is designed to meet the strictest of manufacturing requirements while adhering to well-established lean manufacturing principles of reduced costs, less rework and downtime, and lower scrap rates.

https://www.youtube.com/watch?v=Ocx9PbYQlUo

How Can You Tell Which Work Surface Type Fits the Application Best?

When choosing industrial work surfaces for manufacturing applications, identify the type of material handling structure first. Focus on whether the surface will be used for work assembly or is meant only as an accessory.

An accessory might include a pegboard to store tools within a workstation, a honeycomb board for the back of racks, or wire mesh for guard rails around machinery. Work assembly surfaces should be matched to the type of assembly tasks. This means electronic assembly must have UHMW, ESD-compliant work surfaces, whereas general assembly can use HDPE.

Overview of Flexpipe’s Industrial Surface Options

From flow rack decking material and honeycomb board for the back end of material handling carts to shock-absorbent foam, there are plenty of Flexpipe industrial work surfaces for manufacturing applications to choose from.

HDPE Surfaces – The Reliable Standard for Workstations and Racks

The White HDPE Sheet (½" thick × 48" × 98") offered by Flexpipe is an extremely versatile work surface with excellent impact resistance and chemical resistance. It is a low-friction surface that ensures semi-finished parts and assemblies easily slide or move across the surface without generating any wear or micro-scratches on part surfaces.

Extremely Versatile

Excellent Impact Resistance

Excellent Chemical Resistance

Low-Friction Work Surface

Lightweight

Strong and Durable

Long Service Life

Low Lifecycle Cost

Low Maintenance Cost

What is a HDPE panel?

HDPE (High-Density Polyethylene) is a lightweight, impact-resistant plastic known for its strength, chemical resistance, and low-friction surface. It’s commonly used for industrial work surfaces, carts, flow racks, and material handling structures because it’s durable, corrosion-proof, easy to machine, and maintains a long service life even in demanding environments.

UHMW-ESD Surfaces – Static-Control for Electronics and Aerospace

Flexpipe offers several ESD-compliant solutions geared towards static protection. One of them includes the UHMW-ESD Black Sheet (1/4" thick x 48” x 96”), which offers high electrical resistance protection from 10⁶–10⁹ ohms.

Offering excellent electrostatic dissipation that protects every stage of the electronics assembly process, the UHMW-ESD Black Sheet has excellent impact, chemical, and solvent resistance. Much like the White HDPE Sheet, the UHMW-ESD Black Sheet provides a solid low low-friction surface that won’t catch or drag subcomponents during assembly.

Excellent Impact Resistance

Excellent Chemical Resistance

Excellent Solvent Resistance

Low-Friction Work Surface

Lightweight

Self-Lubricating

Doesn’t Absorb Moisture

Long Service Life

Easy to Cut

Low Maintenance and Replacement Costs

Long Service Life

What is a UHMW panel?

UHMW-ESD is a self-lubricating, moisture-resistant plastic that won’t swell or warp like wood. It maintains stable electrostatic-dissipative properties even in humid environments, while offering excellent durability and smooth part movement. Easy to cut and long-lasting, UHMW-ESD is an ideal low-maintenance workbench surface for electronics and static-sensitive assembly.

Honeycomb Boards – Lightweight & Budget-Friendly

Possessing a great strength-to-weight ratio while being incredibly lightweight and exceptionally budget-friendly, the Flexpipe Honeycomb Board (5/16" thick x 48" x 96") is the ideal solution when needing to create barriers or walls on framing. Not designed as a work surface for assembling parts or assemblies, these honeycomb boards are more of an accessory that helps to finish off material handling structures.

You’ll find the Flexpipe Honeycomb Board as a finishing solution for the side walls of mobile carts, trolleys, and flow racks. Large trolleys with individual vertical slots for transporting semi-finished parts typically use the Flexpipe Honeycomb Board for its walls, as it’s sturdy enough to keep the parts in place without being too expensive.

Great Strength-to-Weight Ratio

Incredibly Inexpensive

Lightweight

Eco-Friendly

Perfect for Non-Load-Bearing Applications

Good Moisture Resistance

Good Corrosion Resistance

Covers a Large Surface Area

An extremely inexpensive material, honeycomb board is a lightweight, multi-function material with good moisture resistance that does not succumb to corrosion. Extremely easy to cut and available in large sheets, the Flexpipe Honeycomb Board is one of the most important industrial work surfaces for manufacturing applications available.

https://www.youtube.com/watch?v=RxwQb-gUtZ8

Aluminum Composite – For Clean, Professional Work Areas

The White Aluminum Composite Panel (1/8” x 48” x 96”) from Flexpipe is a two-sided aluminum sheet with polyethylene in between. A cheaper alternative to HDPE, the White Aluminum Composite Panel is yet another solution from Flexpipe that can be used for side walls and non-load-bearing surfaces.

Like all the work surface panels offered through Flexpipe, the White Aluminum Composite Panel is easy to cut, very durable, and long-lasting while also being lightweight. It also has excellent chemical resistance while having superior impact strength. Much like the White HDPE Sheet, the White Aluminum Composite Panel is a cost-effective, low-friction, and self-lubricating surface.

Two-Sided Aluminum Sheet with Polyethylene Center

Cheaper Alternative to HDPE

Ideal for Side Walls

Ideal for Non-Load-Bearing Surfaces

Provides a More Aesthetic Look

Lightweight

Excellent Chemical Resistance

Superior Impact strength

Cost-Effective

Low Friction

Self-Lubricating

This is a good surface when needing a solution with good moisture resistance that won’t require consistent maintenance or replacement. Its non-toxic properties make it a great solution across the production shop floor.

Pegboard Surfaces – For Lean 5S Organization

When it comes to adhering to 5S (Sort, Set in Order, Shine, Standardize, and Sustain), the Pegboard (1/4”x 48” x 96”) offered through Flexpipe is the ideal workstation organization solution. Lightweight, durable, and low-cost, Pegboard is easy to cut, requires minimal maintenance, and has a long shelf life.

Ensures Adherence to 5S

Improves Tool Organization

Reduces Workstation Clutter

Provides Visual Tool Placement

Good Load-Bearing Strength

Low Cost

Minimal Maintenance

Easily Cut

Standard Hooks Easily Attached

The ideal solution for the back walls of ergonomic workstations, a pegboard allows operators and technicians to quickly retrieve critical tools and consumables, while ensuring they are always readily available and easily identified. Compatible with standard hooks and simple add-on accessories, manufacturing employees benefit from a work surface that maximizes arm-reach zones while reducing wasted time.

From improving tool organization and tool placement to reducing workstation clutter, the pegboard is a solution that possesses good load-bearing strength when properly mounted. Cut as needed, and this simple material will immediately improve workstation organization.

Foam Surfaces – For Shock Absorption and Ergonomics

The 13-layer, 5s Kaizen Foam (2.4” x 20” x 40”) offered by Flexpipe is a multi-layer polyethylene, high-density foam that is easy to cut and allows for quick and seamless outline cutting of critical tools and consumables. With high shock-absorbing properties, manufacturing employees can do right-sized cutouts within the Kaizen foam so that only properly sized tools can be placed.

A very lightweight material, 5S Kaizen Foam can neatly be stored within drawers, carts, and toolboxes. Its non-abrasive surface ensures that tool metals, plastics, composites, and steels won’t encounter any scratches or damage. The material doesn’t generate much dust or particles when being cut compared to other types of foams.

Highly compressible yet stable, manufacturing employees will find it easy to trace their tools, cut out the shape, and easily place their tools safely and securely.  In the end, this is a closed-cell, high-density polyethylene rigid foam that has excellent chemical resistance and moisture resistance, ensuring steel tools don’t rust or corrode.

Why is it called Kaizen Foam?

Kaizen foam is named after the Japanese concept of “Kaizen,” meaning continuous improvement. The foam’s layered structure allows tools to be organized, trimmed, and arranged with precision, supporting lean manufacturing practices. Its purpose is to make workstations more efficient, visual, and consistent, which reflects the core Kaizen principle of reducing waste and improving workflow.

https://www.youtube.com/watch?v=KBScKAckRiI

Key Takeaways: Choosing The Right Industrial Work Surface

Durability: HDPE and UHMW-ESD for long-term use.

Lightweight: Honeycomb for large panels or racks.

Safety: UHMW-ESD prevents costly static damage.

Organization: Pegboard and Kaizen foam improve visibility and efficiency.

Professional look: Aluminum composite adds polish and easy cleaning.

Frequently Asked Questions

What happens if I choose the wrong surface material for my modular structure?Selecting the wrong industrial work surface can lead to that surface warping, cracking, absorbing too much moisture, and eventually rotting. In extreme cases, that industrial work surface may not be able to support the required weight. Ultimately, the wrong choice can increase costs, lead to multiple replacements, damage parts and components, and lead to extended downtime.How can I tell which industrial surface type fits my application best? Start by identifying whether you need the industrial work surface for a heavy-duty application, like a manufacturing workbench surface or flow rack decking. If so, then HDPE is needed.If you’re working with electronics or assembling electronics, then you will need the static-sensitive and ESD-compliant UHMW-ESD Black Sheet. Finally, lightweight applications where the surface or wall won’t support too much weight are ideal for Honeycomb or Pegboard.Which worktop surface is best for ESD workstations?UHMW-ESD panels maintain surface resistance between 10⁶–10⁹ ohms, ensuring controlled static discharge. When working with electronics or assembling electronics, always use the UHMW-ESD panels as an ESD-safe workbench top.What’s the most lightweight surface material for large industrial racks?Honeycomb polypropylene panels and pegboard are the lightest and offer an excellent strength-to-weight ratio.Can I order samples before buying full sheets?Yes. Order the Panel Sample Chain Kit to compare surface materials side by side.

Optimize Battery Production with These 8 Modular Material Handling Structures 

Optimize Battery Production with These 8 Modular Material Handling Structures 

The battery industry is growing at an incredible annual growth rate (CAGR) of 16.63%. However, with that growth comes numerous challenges. Constant battery design changes, the demand for more efficient, longer-lasting batteries, cost control, safety, maintaining electrostatic discharge (ESD) compliance, and the need to continually increase production mean that battery manufacturers must embrace lean, modular material handling systems. 

Meeting this challenge head-on is the steel tube and joint modular material handling system offered by Flexpipe Inc. The ultimate in scalability and flexibility, Flexpipe’s steel tube and joint system is lean personified, allowing battery manufacturers to design, assemble, change, and modify whatever battery handling equipment they need.

EXPLORE LEAN MATERIAL HANDLINGIN BATTERY MANUFACTURING

Explore our industry guide

Key takeaways 

Battery production plants face rapid design changes, strict ESD requirements, and relentless pressure to scale. Flexpipe’s modular steel‑tube system lets engineers build customizable carts, racks, and workstations that re‑configure in minutes—no welding required.  

Result: faster line changeovers, safer ergonomics, and up to 50 % lower lifetime material‑handling costs.

Why Choose Modular Material Handling Structures

Conventional material handling structures are not lean and do not allow for continuous improvements. They are most often welded, with fixed dimensions. These fixed material handling structures aren’t just expensive to buy; they’re also expensive to maintain, and changing or modifying these structures is often more costly than buying new. 

Fixed, welded material handling structures offer no flexibility whatsoever. They are purchased to address a one-time material handling need. When the material handling requirements change or the production process changes, these fixed, welded structures quickly become obsolete.  

For battery manufacturers adopting lean manufacturing, using fixed welded material handling structures like welded carts, trolleys, work benches, workstations, flow racks, and shelving is a constant money drain.

Benefits of Flexpipe Steel Tube and Joints for Battery Handling Equipment

While fixed-in-place, welded structures cannot be changed or modified without incurring substantial costs and lost time, Flexpipe’s steel tube and joints can be altered, modified, or adjusted within the battery manufacturer’s facility.

With Flexpipe, battery manufacturers can design and assemble made-to-fit ESD-safe carts, trolleys, flow racks, workstations, work benches, Takt Boards, 4-panel boards, and information panels. All these material handling structures can be designed, assembled, and used anywhere along the EV battery assembly line. All can be changed and adjusted on-site.

With Flexpipe’s steel tube and joints, battery manufacturers can design ergonomic, ESD-compliant workstations and material handling structures that increase safety. As material handling requirements change, the structures can be changed accordingly.

Ultimately, Flexpipe steel tube and joints allow for the ultimate in agility, with structures easily built by battery production technicians and employees. It’s a simple lean manufacturing tool that produces incredible returns. Changes that can be done on-site with minimal downtime compared to changing welded structures.

If you’re dealing with frequent design changes and ESD requirements, download our free ebook: Lean Material Handling for Battery Manufacturers for a deeper breakdown of lean principles and structure examples.

8 Essential Modular Material Handling Structures for Battery Manufacturing

1. FIFO Flow Racks for Line-Side Component Feeding

First-in, First-Out (FIFO) flow racks are the ideal solution for providing line-side technicians and battery production employees with immediate access to material bins. Everything on a Flexpipe FIFO flow rack can be customized. From customizing the height, width, and number of racking levels to adjusting the distance between each level and accommodating different material bin sizes, everything can be made-to-fit with a Flexpipe FIFO flow rack.

Each level of a Flexpipe FIFO flow rack is angled at 15 degrees. Each level has stoppers in place to keep the material bins stationary. As each material bin is removed, the next material bin slides down and takes its place. New bins are stored behind the FIFO flow rack, ensuring a steady supply of materials to battery production employees.

Everything on a Flexpipe FIFO flow rack is made from Flexpipe materials. From the steel tubes and joints, connectors, rollers, stoppers, and casters to angle joints – all are Flexpipe building materials.

The ultimate visual management system, Flexpipe FIFO flow racks for line-side component and material handling, reduce lost time and workflow interruptions caused by material shortages.

https://www.youtube.com/watch?v=n5GcZ60qHrE

2. Picking and Kitting Carts Delivering Materials to Workstations

Flexpipe kitting carts are the ultimate solution for delivering kitted work-order material requirements directly to various workstations and work cells. Whether needing ESD-compliant decking material to protect parts susceptible to static electricity, customized bin sizes for different materials, or simply requiring made-to-fit locations and shelving for materials, tools, and instructions, Flexpipe kitting carts can be customized to any kitting material size or requirement.

https://www.youtube.com/watch?v=ASjt1kIa95o

3. Tugger Carts, Trolleys, and AGV-Compatible Carts for Material Transport

The Flexpipe material system also allows for designing and assembling customized trolleys and tugger carts for manual transport or with an automated guided vehicle (AGV). Customized tugger carts are essential for efficient warehouse management and for transporting large volumes of materials to various areas of the battery production shop floor.

From thick square steel pipes for the base of the tugger cart or trolley to all the joints, casters, ESD-compliant decking material, steel pipes, industrial casters, roller tracks, and Kaizen foam, all are part of the Flexpipe material handling solution.

4. Work-in-Progress (WIP) Racks to Transport Semi-Finished Batteries

Flexpipe WIP racks and carts enable the safe and efficient transportation of heavy battery modules and casings. These WIP carts can be customized to hold semi-finished battery parts and casings in different stages of production, helping to protect the parts during transit.

With ESD-compliant decking and customized spacing, battery manufacturers can create WIP carts that securely and safely protect all surfaces of a given semi-finished battery part.

5. Ergonomic ESD-Compliant Modular Assembly Workstations for Increased Efficiency

With Flexpipe, battery manufacturers can design, assemble, change, and adjust ESD-compliant modular assembly workstations as needed. Incredibly ergonomic and sturdy, Flexpipe modular workstations can be customized to the specific battery component or casing being assembled. If the battery design changes or the workflow process changes, designs can be completed on-site with minimal downtime.

Flexpipe modular workstations improve worker efficiency, are incredibly adaptable, and provide improved safety as wires and cables can be attached to Flexpipe modular workstations with tie wraps.

6. ESD-Safe Mobile Workstations

For workflow, material flow, and assembly applications that don’t require fixed workstations, a Flexpipe mobile workstation is the best solution. Complete with ESD-compliant decking materials, these mobile workstations can be made to whatever dimensions are needed.

With industrial casters for easy maneuverability, these mobile workstations can be positioned anywhere on the battery production shop floor.

7. Heavy-Duty Battery Module Handling Carts

Large, mobile carts are the ideal solution for protecting large components and large battery modules when moving from one production workstation to another. Whether it’s creating a large mobile cart with protective foam to protect parts from damage, building a surrounding structure to protect each level of the cart, or needing a large mobile cart that is easily moved and ensures worker safety, Flexpipe’s steel tube and joint system is the ultimate solution.

https://www.youtube.com/watch?v=GtcbndU7FVM

8. FIFO Component Storage Shelving

With stationary FIFO flow racks, battery manufacturers have a steady supply of materials that acts as a visual inventory management solution. Much like the mobile FIFO flow racks, material bins are stored from the back of the FIFO flow rack. Each level is angled at 15 degrees and has a stopper to keep the material bins in place.

As each bin is withdrawn, another bin slides down the Flexpipe roller tracks and is held in place with stoppers. With stationary FIFO flow racks, visual inventory management is optimized, and inventory obsolescence dramatically decreases.

Real-World Benefits of Modular Structures in Battery Manufacturing

As a material handling solution, the Flexpipe steel tube and joint system addresses all the core industry challenges faced by today’s battery manufacturers.

Rapid product changes

Scalability and growth

Safety and ergonomics

ESD compliance

Quick implementation

Low-cost reconfiguration

Getting Started: Choosing the Right Modular Solution

Here is a list of essential criteria all battery manufacturers should consider when selecting what type of modular material handling structure they will build with Flexpipe.

Balance Current and Future Needs: The Flexpipe material handling system allows battery manufacturers to change their structures as needed. If you envision a given production line expanding, then focus on a design that allows for increased scalability.

Evaluating safety and Compliance Requirements: Battery manufacturers need ESD-compliant decking materials. Flexpipe provides numerous ESD-compliant materials to ensure battery manufacturers can assemble an ESD-safe material handling solution.

Consider Ergonomics and Workflow: Always remain vigilant about the need to design and assemble material handling structures that are ergonomically friendly and always safe for use. Also consider workflow and future changes to that workflow.

Flexpipe Material Handling Solution: The Ultimate Benefit for Lean Battery Manufacturers

The Flexpipe material handling solution is the best option for battery manufacturers in lean environments. The steel tubes and joint system are incredibly durable, strong, robust, and low-cost. Changes require minimal downtime and can be made as needed.

In a lean environment where continuous improvement is the guiding principle, Flexpipe’s steel tube and joint system ensures that lean best practices thrive.

Complete Guide to ESD Protection in Material Handling

Complete Guide to ESD Protection in Material Handling

Whether your company is a manufacturer in the medical device, electronics, automotive, or aerospace industries or manage critical environments like cleanrooms – at some point you’ll need to familiarize yourself with electrostatic discharge (ESD), adopt ESD protection processes and may need to become ESD-compliant.

What is ESD and Why Does it Matter?

Electrostatic discharge occurs when two different materials, parts, or objects with opposing electrical charges instantly release static electricity upon contact. However small and seemingly inconsequential, this spark can damage electronic components, assemblies, and electronic finished goods to the point where they are no longer operational and encounter constant failures.

In today’s electronic manufacturing facilities – where electronic devices are becoming smaller and smaller thanks to incredible advancements in microchip design – ESD can cause immediate or latent failure. An immediate failure is often manageable within a manufacturing facility whereas a latent failure is not. A latent failure can occur long after the electronic device has been shipped – and in the worst of cases – it happens when that electronic device is being used by customers.

ESD protection matters because repeated failures within manufacturing substantially increase production and assembly costs while also posing a serious safety risk. A single spark not only damages the electronic device, but it can lead to serious fires, accidents, and injuries to employees. Latent failures – once the electronic device is in the hands of a customer – can severely damage a company’s reputation and brand – allowing competitors to steal market share and customers.

Manufacturers who are required to be ESD-compliant but are not – or decide not to pursue compliance – can incur substantial penalties, fees, and surcharges for safety violations in addition to potentially becoming liable for personal injuries suffered by customers and production employees. Additional costs of non-compliance – or not adopting ESD best practices – can be summarized by high failure rates, rework and repair costs, production delays, safety hazards, employee accidents, employee absenteeism, lost customers, higher warranty costs, and injury liability claims.

Understanding ESD Compliance

When it comes to ESD compliance, it ultimately comes down to the processes your company uses, where it uses them, and the industry your company operates. In general, within the United States, ESD-compliance testing falls under the American National Standards Institute (ANSI) which enforces rules and guidelines set forth by the Electrostatic Discharge Association (EDA). The EDA also acts on behalf of US-based electronics manufacturers on the International Electrotechnical Commission (IEC) with a position on the 101-Elctrostatics Technical Committee.

What Does it Mean to Have ESD-Compliant Workstations and Processes?

Ensuring compliance means more than just using the right materials—let’s look at industry standards that guide ESD protection.

For a manufacturer to have ESD-compliant workstations – and adopt anti-static material handling best practices – requires them to enact ESD protection procedures in their production process and use ESD components and materials when assembling ESD-compliant workstations. These ESD-safe materials are used extensively in workspaces, and assembly practices to prevent our outright eliminate prevent electrostatic discharge. Regardless of the specific industry specification, there are some commonalities that all companies must follow when becoming ESD-compliant.

Success requires proper grounding procedures, using ESD components and materials when assembling ESD-compliant workstations, ensuring employees are properly trained in anti-static material handling, and that those employees have ESD-protected equipment. Designating a workspace or ESD-compliant workstation as an Electrostatic Protected Area (EPA) is also critical.

An EPA should easily be distinguished with placards and warning signs. Simply having an ESD mat for flooring isn’t sufficient. To have ESD-compliant workstations – and for those workstations to be considered an EPA location – all the above criteria must be met.

Here is an ESD-compliant workstation assembled using Flexpipe steel tube and joints that offer excellent ESD protection. Three separate ESD-friendly wrist straps are grounded to a table whose base material is ESD-compliant high-density polyethylene (HDPE) decking material covered by an ESD-safe work mat. The same material used to make this workstation is the same material used by customers when making anti-static material handling structures.

Building ESD-Compliant Workstations

To properly build ESD-compliant workstations requires a complete system approach. This means using materials in the construction of your workstation that offer complete ESD protection.

Employees must stand on dissipative ESD mats while also assembling electronic components of ESD-safe workspace mats. Grounding employees with ESD-protected clothing and ESD wrist straps that help to dissipate static electricity is also required. ESD wrist straps must allow for a free range of movement while being grounded to a ground bus bar or electrical outlet.

The Essential Workstation ESD Checklist

When assembling your ESD-compliant workstation or anti-static material handling structure, always choose materials that are certified ESD-safe. These ESD components must have passed the required testing requirements within your industry. This is essential whether you are assembling your own workstation or making an existing workstation ESD-compliant.

ESD-Protection Floor Mats: Whether you’re using two-layer rubber or three-layer vinyl, always choose dissipative or conductive mats that offer ESD protection.

ESD-Protection Clothing: Production employees should wear clothing that offers ESD protection and should always wear this clothing within the EPA. This includes ESD-compliant head covers, coveralls, foot covers or footwear, safety glasses or face shields, and ESD-protection gloves. 

ESD-Protection Wrist, Ankle, and Heel Straps: Wrist straps are essential to ensuring static electricity can easily be dissipated from an employee’s body to a grounded point. Ankle and heel straps also help to dissipate static electricity.

ESD-Protection Work Mats: ESD-safe work mats are essential when working on printed circuit boards, electronic devices, or assembling electronic devices and products.  

ESD-Protection Tools: Ensure your ESD-compliant workstation – and your employees – use static dissipative tools. Static dissipative tools have been specifically designed to reduce or eliminate static electricity. Simple solutions can include storing components or consumables in ESD-compliant bags, using ESD-safe rollers to remove static electricity, and having tools with ESD-compliant handles. Additionally, using ESD-safe or complaint swabs helps to reduce or eliminate static electricity while also protecting electronic components from being contaminated.

How Do You Create a Fully ESD-Compliant Workstation?

There are several misconceptions when it comes to having an ESD-compliant workstation or constructing anti-static material handling structures. First is the idea that all metal structures are ESD-safe and offer ESD protection. They don’t. Another is that a single ESD-compliant material protects the entire workstation, employee, and electrical components being assembled. It doesn’t.

One of the more common problems manufacturers face is having to make existing workstations ESD-compliant. While a steel workstation can be made to be ESD compliant, these steel workstations are static structures that cannot be changed without incurring substantial rework and repair costs. In addition, these steel workbenches and workstations still represent potential dangers concerning electrostatic discharge.

The best solution is to construct workstations using ESD components and materials that offer ESD protection. Flexpipe offers numerous ESD-friendly materials for ESD-compliant workstation assembly. Used extensively by electronic manufacturers and companies within the aerospace and automotive industries, customers use Flexpipe ESD-safe steel pipes and joints to make anti-static material handling structures like mobile picking and kitting carts, trolleys, flow racks, TAKT boards, point-of-use boards, shadow boards, and ESD-compliant workstations.

Flexpipe’s ESD-compliant materials for workstation assembly include steel pipes, joints, roller tracks, casters, round joints, connectors, and decking material – among others. Flexpipe’s steel pipes are galvanized steel covered in a light grey polyethylene (PE) which offers excellent ESD protection.

Example of an ESD-compliant workstation

This ESD-compliant workstation is entirely made from Flexpipe steel pipes and joints. Every part of this workstation is made from ESD-safe Flexpipe materials. The black steel pipes are covered with polyethylene (PE), the decking material is high-density polyethylene (HDPE), the joints are nickel-plated and the casters, connectors, fasteners, and other Flexpipe accessories are all ESD-compliant materials.

This modular and scalable structure can easily be modified, adjusted, or changed. The time required to make these changes is minimal compared to static workstations made of steel, wood, or other materials. The cost to change a Flexpipe ESD-compliant workstation is nothing compared to the costs of having a static, stuck-in-place steel or welded structure workstation.

Example of an U-shaped work cell

Another example of modular and scalable Flexpipe steel tube and joint ESD-compliant workstations and U-shaped work cells made from Flexpipe steel tubes, joints, and other ESD components for a medical device manufacturer. The mats on the floor are ESD-compliant. The decking material for the countertops and upper levels is made from high-density polyethylene (HDPE) and each level is covered by assembly mats that offer additional ESD protection.

Example of a pull-out drawer

Here an entire pull-out drawer is assembled using Flexpipe’s ESD-compliant high-density polyethylene (HDPE). This offers electronic assembly personnel the perfect location for placing static dissipative tools.

Example of a mount duster

A simple anti-static, carbon-infused cloth is conveniently located for any production employee to use.

Example of a pull-out drawer

A simple pull-out drawer positioned below a level. The level above and the pull-out drawer are made from Flexpipe high-density polyethylene (HDPE) decking material. 

Example of an ESD-compliant medical workstation

This ESD-compliant workstation was made entirely from ESD-safe Flexpipe steel pipes and joints. This is a one-piece flow process used in a medical device manufacturing facility.

Choosing ESD-Safe Materials for Workstations

In any manufacturing environment where electrostatic discharge is a constant concern, using the right materials for anti-static material handling structures and ESD-compliant workstations is essential. This ultimately comes down to understanding conductive, dissipative, insulative, and anti-static materials.

What Makes a Material ESD-Safe?

A material is considered ESD-safe when its surface resistance reaches a static dissipative level between 105 to1011 ohms. At this range, the material’s surface can sufficiently dissipate static electricity at a “dissipative” level – which is a level that is not too fast or too slow.

This is why some metal workstations – whether they are made of steel or aluminum – can still be made to be ESD-compliant provided the workstation has been sufficiently grounded and has ESD-compliant materials. In this case, a workstation made of steel can become ESD-compliant if it has an ESD-compliant work surface, an ESD-compliant mat for assembly, ESD-compliant flooring, a common ground point, ESD-safe tools, and the employee within the workstation has been properly trained and has the right protective clothing, tools, etc.

Why is Certification and Resistance Testing Important for Materials?

There are several important reasons for ESD certification and surface resistance testing.

First, concerning ESD-compliant workstations and anti-static material handling structures, surface resistance testing is critical for companies wanting to retain their ESD certification. That certification attests to the company’s adherence to established standards for managing and eliminating static discharge. This certification is an absolute must in the electronics, automotive, and aerospace industries in addition to the medical devices, healthcare, military, and defense industries.

Second, regularly testing for surface resistance within ESD-compliant workstations is a quality control measure that helps to reduce the likelihood of an immediate or latent product failure. By regularly testing, electronic manufacturers can reduce electronic component failure rates, increase production throughput, better control costs, protect their employees, and ensure their reputation and brand remain intact.

Third, regular resistance testing of different materials in the design stage of a new product allows engineers to avoid costly mistakes in design while ensuring the finished product is less likely to fail. Finally, the traceability of materials is also addressed through regular resistance testing as it allows electronics manufacturers to segregate defective materials or materials that could result in electric discharges.

Testing and Verification

The most common ESD testing covers ESD-safe flooring or ESD-safe mats. So, how do you perform ESD testing on floor mats and work mats in an ESD-compliant Workstation?

Point-to-Ground ESD Test

Step 1: Do not use a standard voltmeter. The pins of a standard voltmeter do not make enough surface contact with ESD-safe flooring, mats or even clothing to generate a sufficient reading. Instead, when doing ESD testing, use an ESD resistivity meter (ohmmeter) that comes with NFPA probes. 

NFPA probes provide a larger surface area for ESD testing and ensure proper surface contact. Ideally, the NFPA probes should have surfaces that are up to 3 inches in diameter.

Step 2: You’ll now need to ground the floor mat, clothing, or assembly mat. In the case of ESD flooring, it’s common practice to use copper sheets when doing ESD testing. Place the floor mat on the copper sheet. Ensure the copper sheet protrudes beyond the mat. Place one of the NFPA probes onto the mat. Place the second NFPA probe directly onto the copper sheet.

Step 3: Once the NFPA probes are in place, push the test button on the ohmmeter. The ohmmeter will provide a reading. Compare that reading from the ohmmeter to the specification sheet of the flooring or mat.

Summary: With the point-to-ground ESD testing process, you’re testing the electrical resistance point of the mat, flooring, or clothing and how well it dissipates electrostatic discharge to a grounded point. This is a test whereby generating a low resistance value or score means the material effectively discharges static because that material has good conductivity.

Point-to-Point ESD Test

Step 1: Using the same NFPA probes, place both on either end of the ESD-compliant mat, flooring, or clothing. Ensure the NFPA probes are at least 40 inches apart. There is no grounding involved in this step.

Step 2: Once NFPA probes are on the material, press test.

Step 3: Take the reading of the point-to-point test and compare them to the results from the first test (the point-to-ground test).

Summary: With point-to-point ESD testing, you’re testing the electrical resistance of two separate points on the same material – be it a floor mat, assembly mat, or clothing. This test measures how conductive the material’s surface is and how well that material dissipates static electricity. By comparing the results of this test to the first, you’ll determine if the material is more conductive point-to-point (two points on the same surface) than it is point-to-ground. If it is more conductive, then it could point to a potential hazard.

Both the Point-to-Ground and the Point-to-Point tests are based on ANSI/ESD STM 7.1 Resistance Tests.

Real-World Implementation Mistakes

There are several mistakes that manufacturers make when working towards ESD compliance and assembling ESD-compliant workstations. One of these includes improper ESD testing tools, processes, and procedures. In the previous point-to-ground and point-to-point tests, it’s not uncommon for companies to do the tests with a standard voltmeter.

Other problems include adopting stop-gap measures where a manufacturer assumes that only one or two ESD-compliant solutions are needed. In this case, a manufacturer might assume that simply having ESD-compliant flooring, mats, and wrist straps is enough. It isn’t.

Additional mistakes include improper grounding processes for wires, ground bars, and wrist straps or not providing employees with sufficient ESD-safe clothing, tools, and gear. Finally, allowing floor mats and work mats to degrade while not properly training employees on proper ESD procedures is also a common mistake.

Maintaining ESD Compliance

Maintaining ESD compliance is a 24/7 responsibility that all production managers, supervisors, and employees must share. This means enacting quality control processes that ensure all ESD-compliant workstations and EPA-designated locations have employees who have been properly trained, are well-equipped with ESD-safe clothing, and have ESD-compliant workstations.

How Do You Maintain an ESD-Protected Environment?

The first step to an ESD-protected environment is to ensure that all materials used to construct ESD-complaint workstations are certified ESD-safe, and have undergone ESD testing.

Second, adopt proactive ESD-testing schedules and maintenance programs to maintain safe and well-grounded workstations. This ensures that damaged or outdated ESD mats, flooring, dissipative tools, and clothing are immediately replaced.

Third, not only should ESD-compliant workstations and workbenches have ground checks, but you may be required to install air filtration systems if dust is a common problem within your manufacturing facility.

Fourth, relative humidity (RH) should be optimized between 40 to 60 percent throughout your facility with 55 percent RH being the target area for eliminating electrostatic buildup.  

Finally, ensure all employees are properly trained on proper ESD procedures and that they clean up their workstations at the end of a given shift. ESD rollers help to remove dust particles – which can create electrostatic discharge – from ESD mats and ensure the next employee has a more presentable work area.

Industry-Specific Applications

There are multiple different types of ESD compliance with industry-specific and process-specific requirements. Some focus on cleanroom environments, others on manufacturing and assembling electronic devices in factory settings, and still others provide guidelines and requirements when painting, printing, and packaging finished goods.

Different industries may require different ESD compliance. While there may be some similarities, there are sufficient differences between automotive – which often relies on the ISO 10605 standard – versus aerospace which typically calls upon ANSI/ESD S20.20.

The best course of action is to define your position within your industry, determine the requirements for your end-user customers and ensure your internal ESD procedures are compliant with those requirements. Given the numerous differences across multiple industries, it’s critical to ensure you have the right certification for your ESD processes.

Does Your Industry Need ESD Protection?

ESD protection is essential in many industries to prevent costly failures, ensure compliance, and maintain product reliability. See how ESD impacts your sector :

AUTOMATIVE

Prevent electronic failures in modern vehicle components.

Learn More

Aerospace

Protect sensitive avionics and electronic systems.

Learn More

Electrical Equipment

Ensure safety and durability in electrical manufacturing.

Learn More

Flexpipe: Your Anti-Static Material Handling and ESD-Compliant Workstation Partner

At Flexpipe, we’re driven by innovation. As a critical supplier to numerous manufacturers in multiple industries, Flexpipe is seen as the go-to solution for companies wanting to make modular, scalable and easily changeable anti-static material handling structures and ESD-compliant workstations and work cells.

With an established global reputation for helping electronic manufacturers create modular and scalable workstations while providing essential guidance on adopting lean-manufacturing best practices, Flexpipe is the single-source solution for all your material handling needs.

In addition to the many different types of material handling structures that can be made with Flexpipe, we are proud to offer the following services to electronic manufacturers needing Flexpipe to help them with ESD-friendly workstations and material handling solutions.

If you need Flexpipe to ensure your workstation is ESD compliant and want to us to assemble it for you, then please visit our Assembly Services Page.

If you would like to assemble your own ESD-safe workstation but want the Flexpipe design team to design a customized ESD-friendly workstation or work cell, please visit our Design Services Page.

If you have any questions about our services or would like to know more about the ESD compliance services we offer, contact us now.

Industrial Caster Selection Guide for Lean Manufacturing

Industrial Caster Selection Guide for Lean Manufacturing

Industrial casters are wheel-mounted, solid, durable circular rings or discs that are positioned at the bottom of material handling carts. Casters ensure manufacturing, shipping, inventory, order fulfillment, and warehouse employees can easily move push carts, order fulfillment carts, kitting carts, finished product carts, and trolleys from one location to the next.  

Without industrial casters, employees would risk severe injuries having to lift and carry large volumes of semi-finished or finished products. A mobile material-handling cart with heavy-duty casters ensures easy transportation and maneuverability of carts with materials, parts, tools, consumables, and finished products.  

Casters work best when they encounter minimal resistance when rolling on different types of flooring and terrains. If the material of the wheel isn’t suited to the flooring, then the friction generated between the wheel and flooring will make moving various material-handling carts more difficult and strenuous.

Why is Choosing the Right Industrial Caster Crucial for Your Facility?

Choosing the right industrial casters ensures the safety of your employees, protecting the contents with material handling carts and mobile trolleys, and optimizing transit or transportation efficiencies and costs.  

Opting for an expensive industrial caster with specialized material when it’s not needed is costly and wasteful. Not matching caster dimensions, wheel diameter, and wheel material types to the flooring in your facility means transit or transportation times will be longer than needed, casters may break, contents may fall and get damaged – or worse – employees may have an accident.  

In the best of outcomes, using the wrong type of material handling casters leads to endless frustration for employees and longer workflow processing times. At worst, it means damaged materials and products, unusable carts, and injured employees.

Quick Selection Guide

When choosing material handling casters in heavy industrial or commercial settings, it’s essential to account for the durability, strength, and load-bearing capacity of the caster. Understanding the type of materials, tools, consumables, work-in-process (WIP), semi-finished, and finished parts that will be transported on your carts is also important.  

Finally, determining the type of flooring or terrain the caster will travel on as well as the total weight the material handling cart needs to support are other important considerations.

Caster Load-Bearing Capacity: Each caster is designed to support a certain amount of weight. Understanding that weight is critical as all material handling structures are designed around a maximum supportable weight. 

Contents With Material Handling Structures: What is the custom material handling structure designed for? Knowing what types of contents will be placed on the material handling structure is essential to understanding the type of caster to choose. Some material handling structures transport large volumes of raw materials within manufacturing environments, while other mobile carts are merely for consumables and tools.

Type of Flooring or Terrain: The wheel within the caster must encounter minimal resistance and friction when rolling across the floor of your warehouse or manufacturing location. That makes choosing the right type of wheel material extremely important. Whether it’s a polyurethane, nylon, rubber, or polyolefin wheel – all will have different rolling characteristics.

Total Weight of Material Handling Cart with Contents: Every material handling structure design starts with determining the amount of weight the structure can withstand. That total weight must then be divided by the total number of casters used.

What Are the Most Common Types of Casters in Manufacturing and Warehousing?

https://www.youtube.com/watch?v=M4AWVys7eqo

The most common types of industrial casters include swivel stem, rigid stem, swivel plant, and rigid plate casters. Foot brakes are a good accessory on casters as they allow the material handling structure to be held in place. Rigid stem and rigid plate casters can only move forward or backward in a straight line, while swivel stem and swivel plate casters allow for full 360-degree rotation.

Stem vs. Plate Casters Comparison

The primary difference between stem casters and plate casters is how they are connected to material-handling carts. Stem casters have a stem or straight vertical location pin that allows the caster to easily slide into the base of mobile carts.

Plate casters include a square plate with four or more pilot holes where fasteners – such as screws, bolts, nuts, and washers – are used to connect the caster to the material handling cart. With plate casters, the weight distribution across the caster is optimized given the surface area of the plate whereas, with a stem caster, the weight distribution is focalized on the stem itself.

As such, plate casters are designed to hold heavy weights – or have a higher load-bearing capacity than stem casters.

4" ESD Swivel Stem Caster with Brake

6" ESD Swivel Plate Caster with Brake

Stem vs. Plate Casters: Which is Right for You?

A plate-mounted swivel or plate rigid caster is the best caster when moving heavy loads on material-handling carts. Swivel stem and rigid stem casters should be relegated to mobile carts carrying lower weights, shadow boards, rotating cube boards, meeting space boards, and three or four-sided TAKT boards.

Load Capacity Guide

Every caster has a specific weight it can support. This weight – or load-bearing capacity – is always provided on each caster type. Understanding the weight that each caster can support is critical to designing and assembling any steel tube and joint material handling structure.  

In the table below, the first number listed – 3, 4, 6, and 8 – refers to the diameter of the wheel in inches.

It is essential to match the type of caster used to the given application. Industrial and commercial-use casters specifically designed for material handling structures should always be used for manufacturing and warehousing environments.

How Do I Determine the Number of Casters for My Material Handling Structure?

The first step in determining the number of material handling casters to use is to calculate the weight your material handling structure is designed to support. Once the weight of your structure is determined, take that weight at divide it by a minimum of four casters for each corner of your material handling structure.

An example might include a material handling structure that is designed to support 1800 pounds. That means that a minimum of four 6-inch Rigid Stem or Rigid Plate casters would be needed as each supports a weight of 500 pounds. In some cases, adding a caster helps to further support the mobile cart or trolley.

Application-Based Recommendations

Choosing between rigid or swivel – either for plate or stem – ultimately comes down to functionality. If a given material handling structure or material cart is only meant to transport raw materials from one warehouse or manufacturing location to the next, then rigid casters can be used. However, if that material handling cart must be maneuverable to account for different obstructions or tight corners, then swivel casters are best.

In the above application, four swivel plate industrial casters are used on a mobile trolley or trolley cart with a towbar in the up position. A single trolley cart – as part of a mobile trolley cart train – can easily be removed from the remaining carts and its swivel plate casters all that trolley cart to easily be positioned in front of a given manufacturing workstation.

Rigid plate material handling casters are used on the trolley cart above. In this application, the trolley cart is used within a large, open-spaced warehouse with more than sufficient space.  

In both applications, all four swivel plate casters and rigid plate casters are connected to 1.575" x 1.575" / 1 9/16' square tube (~40mm) black steel pipes – specifically designed for the base of tugger carts and tugger trolleys transporting heavy raw materials or finished goods.

https://www.youtube.com/watch?v=ATBJ5QJbQ5s

Exemples of caster applications

1 and 2-sided Boards

4 sided Boards

In both applications above, swivel stem industrial casters are used and allow both the 1 and 2-sided Board and 4-sided Board.

For the above mobile flow rack, swivel stem casters are used. The weight allows for swivel stem casters as the flow rack is used for lightweight parcels, bins, and raw materials within a manufacturing facility.

Ergonomic Stand-Up Workstation

U-cell Workstations

Which Caster Should I Use for Different Applications?

For heavy-duty applications where heavy materials or parcels are being transported throughout your facility, then swivel or rigid plate industrial casters must be used. For static structures such as mobile workstations, and flow racks that hold lightweight consumables, then swivel or rigid stem caster can be used. Finally, mobile picking cards, order fulfillment carts, and light material carts can also use swivel or rigid stem casters.

ESD Requirements

In the electronics industry, having Electrostatic discharge (ESD) compliant materials is an absolute must. Regardless of the type of material handling structure, workstation, or TAKT board you design, it must have ESD-compliant materials.

When Do I Need ESD (Anti-Static) Casters?

ESD-compliant material handling casters are especially important in any electronics or aerospace manufacturing, storage, or warehousing facility. Using ESD casters ensures microelectronic materials, components, and products are protected from accidental release of static electricity.  

Even the smallest release of static electricity can have serious consequences, all but destroying small electronic subcomponents, materials, and devices. This means always using 3-inch, 4-inch, 6-inch, and 8-inch swivel stem, rigid stem, swivel plate, and rigid plate ESD casters at all times.

Not only are ESD casters essential to protecting electronic devices, but they’re often an absolute safety and regulatory requirement.

Technical Specifications & Considerations

Not all casters are the same. Not all caster manufacturers use the same materials or have the same designs and configurations. Choosing the right caster type – whether it is swivel stem, swivel plate, rigid stem, or rigid plate – is only the first step. There are several other variables to consider.

What Technical Factors Should I Consider When Choosing Casters?

In addition to the caster’s load-bearing capacity, the caster wheel frame and tread material type – along with the type of flooring or terrain in your manufacturing or warehouse facility should all be considered when choosing casters.

Caster Wheel Frame: The best industrial and commercial-use casters are typically made from high-strength steel with industrial-strength fasteners and durable ball bearings for easy sliding.

Tread Material (Wheel) Type: All treads should be made from non-marking materials like non-marking grey thermoplastic rubber with TPR soles, polyurethane, or nylon synthetic.

Flooring and Terrain: Given the wide variation of flooring materials, it’s best to always focus on tread materials that leave no marks, film, or sticky residue. The three tread materials above are among the most widely used in industrial and commercial settings and ensure minimal marks on flooring surfaces.

Installation & Maintenance

With swivel stem or rigid stem casters, the stem simply slides inside the steel tubes, ensuring a nice, snug fit. Installation requires locking the break first and tightening the nut so that the caster’s bushing can expand inside the steel tubes.

For swivel plate or rigid plate casters, use the holes on the plate of the caster to drill pilot holes into the square piping (for large trolleys and carts) or use brackets to connect them to the steel pipes.

Given their repeated use, it’s important to adopt a proactive caster maintenance program. Inspect the casters every three to four months and ensure the fasteners – nuts, bolts, bearings – aren’t loose or otherwise dislodged.

Do not allow structures to stand idle for too long. Ensure you move them a bit back and forth to ensure the casters don’t create flat spots. Finally, when inspecting the casters, ensure nothing is interfering with the tread movement and use grease if need be.

Flexpipe: Your Source For Industrial Casters

With upwards of 42 variations of industrial casters, accessories, and kits, Flexpipe ensures its industrial and commercial customers have an extensive selection of material handling casters to choose from.

As part of the Flexpipe material handling solution, our extensive lineup of material handling casters is uniquely tailored to the modular and scalable material handling structures that can be made with our steel tube and joint system.

A solution that has been used extensively worldwide, the Flexpipe steel tube and joint system has a history going back 80 years to the early days of the Toyota Production System (TPS).

To view our extensive selection of Swivel Stem, Rigid Stem, Swivel Plate, and Rigid Plate industrial casters, please visit our material handling casters section.

To get an idea of the many variations of Flexpipe steel tube and joint material handling structures that would use our industrial casters, please visit our structures page.

To have your questions answered about our material handling casters in a consultative call, contact us now.

Top Lean Strategies for Optimizing Your Warehouse Layout

Top Lean Strategies for Optimizing Your Warehouse Layout

Running a lean and efficient warehouse provides endless benefits for warehouse managers and employees. Warehouse waste reduction lowers costs, improves employee morale, simplifies material handling, and ensures a seamless workflow. With the right warehouse layout optimization strategies, inventory damage is minimized. However, getting there requires a plan, one where your warehouse layout is maximized for efficiency and complemented with customized material handling carts, trolleys, flow racks, and other structures.

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The Simplicity of Lean Processes

Warehouse managers who embrace lean concepts rely upon well-established continuous improvement methodologies like Kaizen and 5S. Kaizen emerged from the Toyota Production System (TPS). It borrows aspects of statistical process control, and the Shewhart Cycle – a simple but incredibly effective process commonly used in manufacturing and often referred to as the PDCA (Plan, Do, Check, Act) process.

5S stands for Sort, Set in Order, Shine, Standardize, and Sustain. It is a continuous improvement methodology aimed at improving workflow by streamlining individual workstations so that all parts, materials, tools, and consumables have their rightful place and are easily found.

By combining Kaizen’s focus on warehouse waste reduction, 5S’s ability to create an improved workflow and more organized workstations, and the Shewhart Cycle’s simple process of identifying problems and eliminating them, warehouse managers can enact substantive changes that increase efficiencies.

Here is some insight into some simple warehouse layout optimization strategies with examples of modular systems for warehouses.

Strategy 1: Eliminate Motion Waste with Efficient Kitting and Picking Carts

Motion waste is perhaps the most overlooked of the eight forms of waste in Kaizen. Motion waste in manufacturing refers to any movements or repetitive processes that do not add value. In terms of warehouse management, this can include warehouse employees performing redundant and repetitive material handling tasks.

Think about how much time your employees spend traveling to different parts of your warehouse to store or pick up different materials and finished goods. Think about what’s involved when those employees perform these material handling tasks. Warehouses must allow for efficient material handling movements. There should be a seamless transition when moving items from one warehouse location to another.

Warehouse employees encounter issues in material handling, such as having to move these items with kitting and picking carts that can’t support the weight of materials or items, don’t have proper placement locations or storage areas for materials, consumables, or bins, or don’t properly secure large materials or parts.

To better understand this problem, think about the two most common carts found in warehouses. The one on the left is a standard welded platform truck and the one on the right is a simple two-level welded cart.

Both carts lead to a substantial amount of motion waste. Neither of them allows warehouse employees to properly secure materials or parts. Neither provides slots or designated locations so that warehouse employees can properly store parts and maximize their transit times. Instead, the material is allowed to move freely.

In most situations, warehouse employees simply pile on as much as possible onto these carts as a way of cutting down their material handling transit times. Invariably, inventory damage becomes commonplace. The material often falls off platform trucks or even causes injury to other warehouse employees if the material exceeds the platform’s width.

In terms of the two-level welded cart, with no placement locations for bins, material, or parts, inventory damage occurs frequently as these items are allowed to hit or bounce off each other. In every measurable way, both carts lead to high levels of warehouse waste.

Flexpipe Kitting and Picking Carts

With Flexpipe’s steel tube and joint system, warehouses can create, assemble, and change customized kitting carts and picking carts. These can be specifically designed to hold materials, parts, and consumables with different profiles and part geometries. 

Each Flexpipe cart can be configured to support a different-sized material and support that material with safety foam to ensure parts are not damaged or become dislodged.  

Flexpipe kitting and picking carts can be designed and assembled with customized bin locations to ensure the safe transport of materials, consumables, and parts directly to their destination. 

Parts don’t move, and won’t become damaged, and warehouse employees can only place the right-sized parts in their proper locations to properly transport materials to their location.  

Whether it’s a stand-alone warehouse solely responsible for processing incoming and outgoing shipments or a warehouse that supports manufacturing, Flexpipe kitting carts and picking carts provide endless advantages.

For warehouses responsible for providing kitting bins to production, Flexpipe kitting carts can be assembled so that a complete kit can be provided to manufacturing with just a single transit time. That kitting cart can then travel through production until its eventual return to the warehouse for the next kitting requirement.

Customized Flexpipe kitting carts can be designed and assembled with right-sized placement locations for bins, materials, production packages, work orders, and other instructions. Easily changed and modified to fit any material handling need, Flexpipe carts can be made to fit between any standing shelving or racking.

Flexpipe kitting and picking carts can be configured for any material dimensional requirements. This kitting cart includes electrostatic discharge (ESD) material, boards, and panels of different sizes for one kit requirement. The kitting department adjacent to the warehouse assembles the kit – ensures that each is placed in the right-sized location and then the entire kitting cart is provided to production.

Strategy 2: Minimize Inventory & Motion Waste with FIFO Flow Racks

Companies typically have two options in terms of how they manage or consume inventory. They can adopt a Last-In-First-Out (LIFO) approach where the inventory received this week is used before the inventory received in the prior weeks. However, this involves holding older inventory longer which means inventory carrying costs – financing, inventory damage, obsolescence, storage, and handling – are higher, which means warehouse and inventory waste is higher.

LIFO increases the cost of goods sold (COGS) which means profit margins are lower on sales. However, LIFO provides some tax advantages as a company’s taxes are lower when running LIFO.

Unfortunately, running a lean warehouse doesn’t lend itself well to the waste within LIFO. The goal of a lean warehouse is to minimize inventory carrying costs, which means having an inventory that is used or consumed quickly. Just-In-Time (JIT) inventory and supply chain management is an essential aspect of Kaizen and lean methodologies. JIT reduces inventory waste by focusing on quick-moving inventory. LIFO doesn’t do that, but FIFO does.

FIFO inventory practices reduce the cost of goods sold (COGS) because FIFO ensures that the first inventory received within the warehouse is used first. In layman’s terms, inventory received last week would be used before any inventory received this week or next. With FIFO, inventory carrying costs – in terms of financing, storage, handling, obsolescence, etc. – is lower and therefore the profit on sales is higher.

Flexpipe’s FIFO flow racking systems are the ideal solution for running lean FIFO warehouse management practices.   

Slightly angled roller tracks ensure that bins and packages are held in place by the bins and packages in front of them. Stoppers at the bottom of each level ensure the next bin or package is safely secured. 

Multiple Flexpipe FIFO flow racks in use within a warehouse.

Easily customized, Flexpipe FIFO flow racks can be adjusted or modified, allowing for the inclusion of additional stocking levels, a wider rack, or additional roller tracks. 

Inventory waste is minimized with Flexpipe flow racking. Damage to inventory is less likely to occur both because of how securely the inventory is held and because of how quickly the inventory is used. 

With Flexpipe FIFO flow racking, inventory is stored in the rack from behind, ensuring that the inventory in front (older inventory) is used first. Motion waste is also eliminated as warehouse employees aren’t forced to constantly adjust packages or materials on shelves to perform their pick and place responsibilities.

With Flexpipe, you can customize your FIFO flow racks to match the exact size of the packages and bins your warehouse receives, moves, and ships.

Strategy 3: Reduce Waiting Waste with Flexible Workstations

Another often overlooked form of waste includes waiting for waste. In Kaizen, this is commonly referred to as unused resources or misused talent. However, they ultimately mean the same thing; employees standing idle because of uneven workflows, poor work instructions, or because they lack the proper tools and consumables to complete their material handling processes. All are forms of waste.  

In many instances, warehouse employees will travel repeatedly to get tools or consumables to perform a specific work task. This form of waste is easily solved with a mobile workstation.

The Flexpipe steel tube and joint system allows for the design and assembly of customized mobile warehouse workstations that can easily be positioned at different warehouse locations. 

This mobile Flexpipe warehouse workstation perfectly encapsulates the importance of adopting 5S practices – Sort, Set in Order, Shine, Standardize, and Sustain. 

By using Flexpipe Kaizen foam, each tool has its proper place. The Kaizen foam acts as a fail-safe Poka Yoke solution that ensures only the specific tool fits in the given slot.  

Poka Yoke is a common approach in Kaizen philosophy and is used to eliminate human error. Instead of randomly throwing tools and consumables on a welded cart where they can damage one another, this Flexpipe mobile workstation ensures every consumable, tool, and material needed is properly secured and protected.

With Flexpipe’s steel tubes and joint system, mobile 5S workstations can be created in any configuration and use simple Poka Yoke solutions like Kaizen foam to ensure warehouse employees put the right parts and consumables back in the correct places.

Strategy 4: Enhance Efficiency with Narrow Aisle Pushing Carts

One of the more common forms of waste within warehouses is when the physical space between in-place shelving makes it extremely difficult for warehouse employees to perform common pick-and-place work tasks. This issue is only made worse by fixed welded carts whose dimensions leave little to no room for warehouse employees.

In many instances, warehouse employees must move welded carts back and forth to access different portions of the inventory on racks. This unnecessarily wastes time and can be a safety concern as employees must constantly work around obstructions.  

Flexipe steel tube and joint system is a simple solution that allows for the design and assembly of narrow-aisle push carts and trolleys. Instead of adjusting existing in-place shelving to accommodate a fixed welded cart, the approach is to design and assemble a customized narrow-aisle Flexpipe cart to fit the current space between that shelving. 

A Flexpipe narrow-aisle cart can be customized for maximum efficiency, giving warehouse employees more than enough room between tight-fitting, in-place shelving and racking.

Strategy 5: Optimize Space Utilization with Customizable Packing and Cutting Stations

Fixed-structure packaging stations are not the ideal solution when adopting lean methodologies. Given how often packaging requirements change within warehouses, fixed-welded packaging stations are anything but efficient. Consuming more space than needed, fixed welded workstations lead to high amounts of waste and inefficiency. They consume important space, can’t be changed, and quickly become obsolete.

Optimize Your Packing Station with Lean Principles 🎥

Check out this short video to see how an effective packing station setup can eliminate waste and boost efficiency in your order fulfillment process. Learn how the right layout, tools, and ergonomic setup can help you implement Lean principles in your packing stations. 👇

https://www.youtube.com/watch?v=pqp2ItrjRMg

In addition to packaging, warehouse employees are often asked to perform additional work tasks outside of picking and placing. These work tasks often include reinforcing shipments with wood pallets or creating much-needed temporary wood support structures.

The image on the left is a 5S Flexpipe mobile customized packaging station. Easily moved and transported to different locations within a warehouse, this mobile packaging station can be configured or adjusted as needed. On the right is a Flexpipe mobile cutting station, allowing for easy transport to different locations within the warehouse.  

Both structures can be modified and adjusted based on the constantly changing requirements that are common within warehouses.

Mobile warehouse packaging stations can be designed and assembled to any dimensions and include whatever features your warehouse needs.

Strategy 6: Reduce Transportation Waste with Customized Trolley/Tugger Carts

Another common form of waste includes the material handling transit times to move incoming shipments to different warehouse locations. In worst cases, multiple trips must be taken to transport what should only take a single trip.

Welded platform trucks have fixed dimensions and are often inhibited by weight restrictions. Two-level welded carts simply don’t have the space to accommodate larger incoming shipments. The solution lies in designing and assembling customized trolley/tugger carts which can be linked together in a single tugger or trolley train.   

This Flexpipe tugger cart includes an upright tow arm for a battery-operated tugger, allowing for multiple carts to be combined within a tugger train to reduce material handling transport times.   

The tugger cart uses a high-strength square steel base for increased weight support and industrial-strength casters for easy transport and maneuverability. 

Another important feature is the incorporation of rollers which are positioned at an angle to allow for easy loading and unloading of bins, parcels, and packages.

When multiple tugger carts are connected by each cart’s tow bar, they form a tugger cart train. This simple solution reduces the amount of time needed to move parts and materials within large warehouses. Instead of making multiple trips with a forklift, a single trip can be accomplished with a tugger cart train.

Using Modular Systems for Warehouse Waste Reduction

Adopting lean methodologies within warehouses requires lean tools. Flexpipe is that tool. Its origins come from the very same company that created the Kaizen and Lean philosophy. Toyota was the originator of the steel tube and joint system and relied upon it for its flexibility and ease of use. 

Warehouse waste reduction is a never-ending process. It always requires a commitment to continuous improvement. Fixed, welded material handling solutions like truck carts and welded carts do not lend themselves well to lean environments – but Flexpipe’s system does.  

If you would like to learn more about how Flexpipe’s modular systems can reduce waste and optimize warehouse layout, visit our custom-made structures page. 

If you are a warehouse manager wanting to implement some of these waste-reducing strategies and are interested in a free consultation, contact us now.

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5S and Kaizen: Real Examples and Tangible Gains

5S and Kaizen: Real Examples and Tangible Gains

When manufacturers think of Kaizen, they think of the Toyota Production System (TPS). Kaizen is actually a combination of two Japanese words. The first portion of the word Kaizen – “kai” – translates to “change.” The second portion – “zen” – translates to good. Ultimately, Kaizen means “good change” and its principles like 5S allow manufacturers to adopt good changes that reduce costs and improve workspace efficiency.

So, what do Flexpipe’s steel tubes and joints have to do with Kaizen, 5S, and transforming workspaces?

Kaizen and 5S

A pillar of Kaizen philosophy, 5S defines a set of essential steps that manufacturers should take to ensure that workspaces are properly organized and efficient. 5S is the essential building block of how to design, construct, and position efficient workspaces so that delays are minimized, workflow is optimized, and waste is eliminated. 5S refers to Sort, Set in Order, Shine, Standardize, and Sustain. 

Sort: Determine what essential items, tools, and consumables are needed within the workspace. 

Set In Order: Ensure everything is properly identified, labeled, and has a designated place. 

Shine: Ensure the workspace is always clean and well-maintained.  

Standardize: Make your improvements standard across all workspaces. 

Sustain: Ensure workspaces are always efficient with 5S audits and inspections.   

To gain a more in-depth understanding of how 5S works, please go to 5S Guide – A Lean Manufacturing Tool.

The Flexpipe Solution and Workstation Efficiency

Flexpipe’s steel tube and joint system is a cut-to-length-and-assemble continuous improvement system that perfectly aligns with Kaizen and 5S principles. The steel tubes are high-strength cold-rolled, steel tubes covered with a protective polyethylene (PE) coating.  

Available in multiple colors and varying thicknesses, these steel pipes are assembled along with joints, rollers, casters, square pipes (base of large carts), decking, Kaizen foam, fasteners, and other accessories.

Flexpipe’s tube and joint system allows manufacturers to customize workspaces along the 5S philosophy. More importantly, Flexpipe’s solution allows them to adopt the never-ending continuous improvements required to continuously improve those workspaces by making minor adjustments – if needed.  

Flexpipe workspaces are modular and easily scalable. As a cut-to-length and snap-in-place system, Flexpipe allows manufacturers to make simple adjustments at a fraction of the costs and time compared to welded, permanent structures. 

Case Studies and Testimonials

The Kaizen mindset and 5S philosophy sound great, but are there any working examples of where Flexpipe’s tube and joint system have improved workstation efficiencies? Yes, there are. 

Aldes Canada Reduces the Cost of Its Workstations by 65% 

Founded in 1999, Aldes Canada has over 50 employees and manufactures residential and commercial products for ventilation and airflow. Over 85 percent of the company’s departments rely upon mobile Flexpipe workstations. Using Flexpipe, Aldes assembled over 125 upgraded modular workstations and realized an incredible 65 percent reduction in the cost for each workstation.

The Ideal Ergonomic Workstation

Here is a perfect example of an ergonomic workstation that Aldes Canada assembled using Flexpipe’s steel tube and joints. Before this workstation was assembled, production employees had to constantly raise their arms to lift and retrieve power drills – which caused a tremendous amount of strain. With Flexpipe, those power drills were secured overhead for easy retrieval.

Lower Costs and Improved Flexibility

The previous Aldes Canada workstations were custom-made welded structures that cost over $1,000.00. Flexpipe’s workstations aren’t welded. Flexpipe’s solution represented a 65 percent savings for Aldes Canada. With Flexpipe’s tube and joint system, employees can make whatever changes they need to their workstations within an afternoon or a day at a fraction of the costs. This simply isn’t possible with a welded structure.

5S Efficiency Optimized

Kaizen Teian and 5S require flexibility, which simply isn’t possible when workplaces are made from welded structures. The entire purpose of Kaizen Teian and 5S is to always improve things. That requires the ability to make changes as needed. That can easily be accomplished with Flexpipe’s steel tube and joint system – it simply can’t with welded, fixed workplace structures.

The Final Score Card for Aldes Canada Using Flexpipe

Safran Landing Systems Reduces the Costs of Its Workstations by 40%

Safran Landing Systems is one of the preeminent designers and manufacturers of aircraft landing systems and braking assemblies. A lean manufacturing adopter, Safran Landing Systems is constantly striving to improve and relies upon Flexpipe’s tube and joint system to reduce costs and improve the efficiencies of their workstations.

Over 600 workstations were assembled to help over 200 production employees. Currently, over 80 percent of the departments within this Safran location rely upon Flexipe in some form or another. Not only were their workstations more efficient, but they reduced the costs of their workstations by 40 percent.

Outdated, Heavy Welded Workstations

Unfortunately, this production location had far too many welded workbenches and workstations. Production managers and planners were unable to maximize the square footage of their production floor with these fixed welded structures. Parts and tools were strewn about and often misplaced.

Incredible Savings and Superior Flexibility

The older mobile workstations and cabinets were cumbersome, heavy, hard to move, and incredibly expensive at $1,130.00 each. Flexpipe’s solution was only $372.00 and the flexibility opened up a whole new world of possibilities.

The Final Score Card for Safran Landing Systems Using Flexpipe

Medicus Doubles Productivity Using Flexpipe

Medicu – an orthopedic company – designs, manufactures, and assembles a wide range of prosthetics and orthotics products. Needing a refreshed atmosphere, the manufacturer had older workstations assembled from wood and steel that were cumbersome, heavy, costly, and almost impossible to adjust or modify.

A more serious issue was how these workstations were organized and structured. It was common for critical tools and consumables to go missing at the most inopportune times. Assembly times were affected, and the movement and transit times of semi-finished parts and materials were simply too high.

A Perfect Example of 5S

Whereas everything was “dumped” on the older workstations and easily misplaced, the new Flexpipe workstations had clearly labeled locations for all tools and consumables. The Flexpipe structure was customized to fit a specific shadow board size so that all parts were neatly placed at the end of a given shift.

The Ideal Cut-to-Length-and-Assemble System

Just like an erector set, Flexpipe is a simple-to-use and extremely flexible cut-to-length-and-assemble system that provides manufacturers with the greatest possible flexibility and cost controls.

The Final Score Card for Medicus Using Flexpipe

Practical Implementation Tips

A hallmark of Flexpipe structures is the ease with which parts, tools, and consumables all have a place.

In every one of these situations, manufacturers decided to replace their welded or permanent workspaces, workbenches, and mobile cabinets with a modular and scalable Flexpipe solution. Not only were these welded structures extremely expensive, but they were fixed solutions with fixed dimensions and weights that could never be adjusted.

Not only were the existing welded structures hard to manage, but each of these manufacturers would have needed to purchase the same expensive welded structures to ensure uniformity across their shop floors. By switching to Flexpipe, each of these manufacturers can now customize their workspaces at a fraction of the costs compared to having welded structures.

When implementing Flexpipe, think about all the fixed/welded material handling structures throughout your manufacturing facility. Think about how much time and labor is involved in managing these large, welded structures and how much time is needed to move them. Next, itemize each of these welded structures and decide whether they’re essential to operations. Finally, think about how replacing them with Flexpipe can reduce costs.

The Flexpipe Crib: A Perfect Combination of Flexibility and Mobility

The ability to customize workspaces when needed provides manufacturers with numerous benefits. However, to ensure that any workspace can be optimized and adjusted, Flexpipe came up with the Flexpipe Crib. This mobile-optimized solution can easily be maneuvered to different locations on your production shop floor.

The Flexpipe Crib includes a mobile cutting station, a mobile shelf unit, and a mobile tube storage cart. This makes it ideal for situations where you need to adjust different workspaces in different locations. It’s also a great solution when looking to make larger changes to workspace structures when expanding your production capacity.

Designed with lean concepts in mind, the mobile cutting station has a platform for a saw, multiple storage shelves for fasteners, nuts, bolts, and other accessories, in addition to a drawer with Kaizen foam where all your tools neatly fit in place. The shelf unit easily stores various sizes and thicknesses of pipes while the main crib area opens to reveal two doors.

https://youtu.be/9sqPSen2Ab0

Fully Embracing Kaizen

To fully embrace Kaizen and 5S, managers, supervisors, and employees must always be thinking of ways to improve their workspaces. When production employees have this continuous improvement mindset, they’ll quickly bring up roadblocks, delays, and wasted time within their workspaces to their production managers or supervisors. This is especially the case if these issues are repeatable.

Even small, incremental improvements to your workspaces add up to big improvements over time. Once that momentum builds, efficiencies follow, processes are improved, and costs are reduced.

Flexpipe: The Ultimate Solution for Workspace Efficiency

The steel tube and joint system has been around – in one variation or another – for well over 70 years. Countless manufacturers across various industries have used the tube and joint system to create customized, 5S workspaces. For these companies, steel tubes and joints and lean manufacturing are one and the same.

To learn more about how Flexpipe has helped companies improve their workspaces, adopt lean manufacturing, and reduce costs, please go to our case studies.

How to optimise material Flow with a Tugger Cart system?

How to optimise material Flow with a Tugger Cart system?

When companies need to safely move loads, equipment, or machinery from one location to another, they often turn to tuggers. Some tuggers are simple hand-held carts or trolleys that allow operators and employees to drag, pull or tug raw materials, consumables, and finished goods. Other tuggers are heavy-industrial machines capable of pulling upwards of 100-plus metric tons.

 

 
A Simple Material Handling Solution
Tuggers are an ideal material handling solution for replacing forklifts. Whereas a forklift can only transport one load at a time, a tugger can transport several carts and, therefore, several loads. Instead of using a one-load-at-a-time forklift, companies can link multiple tow carts together and make a single trip instead of several.

A tugger is sometimes a generic term for equipment or machinery pulling or towing heavy loads. While there are thousands of industrial uses for tuggers, understanding how, when, and why these critical tools are used comes down to defining tuggers in terms of their load-bearing capacity.

We’ll explain when heavy-industrial tuggers and towing equipment are used, what warehousing, distribution, and retail locations use, and what solutions are best suited for lean manufacturing environments. The goal is to understand why tuggers are the perfect material handling solution when needing to move multiple loads.
Heavy-Industrial Tuggers
Companies within the aerospace, automotive, construction, and rail industries rely upon battery-powered, motorized, and walk-behind tuggers to ensure the safety of operators and employees. These tuggers can move or pull anywhere from 1000 lbs to 100 metric tons.

So, where do you see these heavy-industrial tuggers? Any time you take a flight for a business trip or vacation, you’ll see these commercial tuggers – often called tow tractors, aircraft caddies, aircraft walkies, or towers - moving loads from one location throughout the landing strip to the next.

These solutions move passenger luggage, shipments, and fuel to and from aircraft. They’re also used to move aircraft themselves, provided the aircraft’s load doesn’t exceed the pulling or towing capacity of the tow tractor or tugger.

Photo credit: DJ Products Inc. AircraftCaddy and Railcar Mover
It’s this type of towing capacity that is used within multiple industries. The rail industry relies upon heavy-industrial tuggers when needing to repair rail cars and locomotives. The construction and automotive industries also use these material handling solutions. However, these applications typically involve moving a single heavy load at a time, such as a rail car or plane. So, what about when needing to pull, tow, and carry multiple loads?
Tuggers for Warehousing and Distribution
Imagine what it takes to move finished goods inside an expansive warehouse and distribution location like Amazon. Think about the distance that needs to be covered to maintain and replenish inventory skews and how often those distances are traveled in an hour, day, week, month, and year. Now, think about how much it would cost companies to replenish that inventory using only a forklift.

Extensive warehousing and distribution facilities save money and time by keeping their forklifts for loading and unloading new shipments while relying upon tuggers to transport those loads throughout their facility.

Battery-powered and motorized tuggers are highly-engineered machines capable of pulling multiple heavy carts linked together. This allows distribution and warehousing facilities to transport large quantities of materials, semi-finished parts, tools, and finished goods long distances. Forklifts are used to remove incoming shipments from trucks while the tugger carries multiple loads throughout the warehouse.
Hand-Held Tuggers and Electronic Tuggers for Retail
Depending on the retailer’s size, they may use small battery-powered tuggers such as DJ Product’s WagonCaddy.

This simple cart can carry upwards of 3000 lbs, making it ideal for moving parcels and products to store shelves.

It’s also an ideal solution for moving pallets and incoming shipments to and from the warehouse. These walk-behind solutions ensure operators and employees are positioned behind heavy loads so that any unforeseen spillage or fall won’t injure warehouse and store employees.
Tugger Solutions for Manufacturers
Tuggers are a critical material handling solution for manufacturers. They help to transport multiple loads at a time, allowing tugger operators to drop off essential materials and tools at individual workstations while transporting finished goods back to the warehouse.

 

As is often the case with lean manufacturing, the emphasis must be on minimizing transit times. This means manufacturers must plan their transit and delivery routes well in advance.

The journey starts within the warehouse, where tuggers either take loads from stocking shelves or take them right from the warehouse docking station.

Next, clearly-defined delivery routes ensure the tugger can pull all carts safely to their destination.

The goal of the tugger is to transport the loads to the designated replenishment area, such as a kitting location or a lean manufacturing workstation.

A staging location must be identified outside these lean manufacturing work cells so that operators and technicians can quickly and safely unload the materials, consumables, and semi-finished goods.

Warehouse or Docking Station: Make sure your loading and unloading procedures and processes for incoming and outgoing shipments are clearly defined. You may choose to use the tugger and tow carts immediately after shipments are unloaded at the docking station. You may also be able to have your suppliers provide deliveries that can easily be broken down for separate locations within your warehouse or when moving parts out to lean manufacturing work cells.
Delivery / Transit Routes: Take time to properly lay out your transit routes. Be mindful of high-traffic areas where two or more tuggers may intersect during transit. Split your routes up. Ensure directions are clearly marked along each of the paths. Safety during this process is of paramount importance so use clear markers that operators and technicians can easily identify.
Designated Unloading Location / Part and Material Staging: You can easily combine both of these into one area. However, if you do, ensure you’ve identified how far tuggers can advance to unload the materials or semi-finished goods from the tow carts. Your unloading processes should be well explained. Again, it’s about ensuring the safety of operators and technicians so that material and parts can quickly, easily, and safely be unloaded beside the lean manufacturing work cell.
Transit Route Back to Warehouse: This is why clearly outlining transit routes and directions is so important. It ensures minimal traffic jams and free passage for each tugger during transit. Ensure your delivery/transit route to and from the warehouse is free of obstructions or areas where the tugger and its carts might come into contact with equipment and machinery.

Tuggers and Flexpipe Tuggable Carts: Perfect Combination of High-Load Capacity and Flexibility
Any time a manufacturer pursues lean concepts, they must balance their need to increase production throughput with the importance of ensuring a safe work environment for employees. After all, there are no benefits to lean manufacturing if employees, operators, and technicians start missing time due to severe injuries.

While lean manufacturing aims to reduce the impact of idle time, minimize work stoppages, reduce cycle times, and increase production throughput, the ultimate goal for any company pursuing lean manufacturing is to accomplish all these benefits without putting operators at risk. This means optimizing your tugger and tow cart combination.

Choosing your tugger comes down to defining the loads and the weight they’ll transport. You never want to go too low on your weight estimate. A good rule is to take the number of stops your tugger will make during transit from the warehouse to each unloading area. Next, you’ll need to calculate the estimated weight of each drop-off of material and parts at a given lean work cell or kitting area.

Once you’ve chosen your tugger, you’ll need to choose your tugger carts. You essentially have two options. The first involves choosing fixed carts that are either welded or manufactured to specific dimensions.

Your second option is to choose a tube and joint system like Flexpipe where you can make your own scalable and modular carts that can easily be adjusted or modified as you see fit.

Fixed Structure / Welded Carts:

At some point, the weight, size, and configuration of what your tow carts carry to and from the warehouse will change. That change can be an internal decision made by your company or one made by your customers. It can be as simple as changing the design of your finished product or winning a new contract or bid.

When that change occurs, you’ll need to either change your tow carts and buy new ones or refurbish and repair your existing fixed carts. Either way, it’s an expensive change. Repair and refurbishment can take weeks, if not months, and involve a substantial amount of money. Purchasing new tow carts is even more costly.

Refurbishment, repair, or reconditioning is expensive and can take weeks if not months
Purchasing new fixed tow carts is more expensive than repairing what you already have.

It’s not uncommon for manufacturers to have multiple types of fixed tug carts, as depicted in the images above. This only increases a manufacturer’s costs when needing to refurbish or replace their tow carts.

 

[caption id="attachment_7582" align="alignnone" width="1000"] Flexpipe Modular and Scalable Tow Cart[/caption]

Modular and Scalable Flexpipe Carts:

On the one hand, you have expensive fixed tow cart structures you buy or repair. However, on the other hand, you can make your own cost-effective tow carts with Flexpipe’s tube and joint system.

Modular and scalable Flexpipe tube and joint systems are not only less expensive, but changing or modifying a Flexpipe tow cart takes hours – not days, weeks, or months. With Flexpipe, manufacturers only pay for the tubes, joints, castors, and other miscellaneous parts needed to assemble their tow carts.

The flexibility afforded to manufacturers means the costs of a Flexpipe tow cart are less, and any changes or modifications can be done in a fraction of the time compared to fixed structures.

Manufacturers pay for materials
Manufacturers can assemble their own structures at a fraction of the cost compared to fixed structures.
Manufacturers can easily change their tow carts as needed.



Empower Your Operators with Flexpipe Inc.
Flexpipe Inc. is a Montreal-based designer of tube and joint solutions for material handling. The company’s customer-centric approach and flexible piping solutions empower manufacturers to make their own material handling structures at a fraction of the cost and time it takes to get fixed structures.

The Flexpipe ergonomic solution is scalable, easily modified, and quick to assemble. To learn more about this simple system, contact us now.
About DJ Products:
DJ Products has been designing, manufacturing, and supplying electric-powered, battery-powered, and walk-behind heavy industrial tuggers and towing solutions for over 20 years. The company’s product line includes warehouse tuggers, semi-trailer movers, small aircraft tugs, pull carts, caddies, and dumpster moving equipment.

Critical Steps to Choosing Material Handling Systems

Critical Steps to Choosing Material Handling Systems

Different types of material handling solutions, equipment, and machinery are used within supply chains to move, store, protect, control, and handle materials. The goal is to ensure that materials are readily available and that parts and finished goods are properly protected during transit to and from warehouses. Material handling is a critical component for manufacturers, warehousing, wholesalers/distributors, resellers, and retailers.

 
What is a Material Handling System?
A material handling system includes any equipment, vehicle, standing structure, storage unit, rack, or trolley involved in storing, transporting, and protecting materials, consumables, and finished goods. For manufacturers, a material handling system should be designed with short-range movements in mind. This means that production employees should be able to easily access and move raw materials, consumables, and work-in-process parts.
Why Is Material Handling Important?
Material handling is a critical component of protecting against damage to parts, raw materials, and consumables. This not only saves companies money but also improves final product quality by reducing defects. Material handling solutions should be part of a larger company-wide program to improve a company’s storage and handling practices. Only a proactive storage and handling process can protect against unforeseen and costly part damage.
Material Handling Systems Across a Supply Chain
Material handling solutions should simplify employee access to materials and parts so that the speed of work increases. Ideally, these systems should also be easy to modify and scalable to keep up with changing requirements. Across a given supply chain, material handling solutions are heavily relied upon as a means of meeting delivery requirements with minimal product defects.

1 . Production and Manufacturing
Material handling systems found in manufacturing include carts, flow racks, racks, tuggers, shelving, workbenches, workstations, boards, and other storage solutions. Each of these systems plays a critical role in supporting production employees by supplying them with the necessary tools, instruments, parts, instructions, and consumables to complete work orders.
2. Packaging and Transportation

Manufacturers typically ship their industrial finished goods on strapped pallets of corrugated cardboard containers. Corrugated containers and customized packaging are often used as a means of protecting materials from damage during transportation. They are also the most cost-effective way of transporting industrial finished goods. Strapped corrugated pallets help keep raw materials, consumables, and parts safe during transit.
3. Storage and Warehousing
The most common types of warehouse material handling systems include forklifts, lift trucks, hoisting equipment, shelving, pallets, pallet jacks, automated guided vehicles (AVG), and even robotic handling systems. Forklifts are the all-important vehicle in warehouse management. These are heavily relied upon to move corrugated and strapped pallets, while lift trucks can position pallets on high vertical shelves.
4. Wholesalers and Distributors
Wholesalers, distributors, and bulk resellers rely upon a combination of material handling solutions. Distributors typically use forklifts, lift trucks, and hoisting equipment to handle and store shipments. These are then broken down into smaller shipments which are then sent out to retailers. The focus is to minimize costs so incoming bulk shipments are often used as a means of lowering per-unit freight costs.
5. Retailers
Large retailers with large warehouses typically rely upon forklifts and lift trucks in addition to large shelving and storage units as a means of controlling finished goods. Smaller retailers may simply require pallet jacks, commercial hand trucks, warehouse stock carts, or small utility carts.
Problems with a Fixed Structure Material Handling System
Most portions of the supply chain don’t necessarily require customized modular material handling systems. There are instances where wholesalers, distributors, and large retail chains benefit from modular shelving and storage systems. However, manufacturers and fabricators are more heavily reliant on modular material handling systems if they want to adopt lean manufacturing, improve efficiencies, and control costs.

Unfortunately, for manufacturers, there are several inherent problems associated with a fixed material handling system like utility carts, trolleys, stock carts, or fixed shelving structures. The first issue relates to how several of these material handling solutions have welded joints or are designed and pre-manufactured to specific dimensions.

[caption id="attachment_36625" align="alignnone" width="1080"] This too heavy cart with inadequate wheels was a real source of problem for the team in addition to being a danger to their safety.[/caption]

Making any kind of adjustment to their dimensions or structure is both labor-intensive and time-consuming. This means spending a considerable amount of time having maintenance make changes. These changes often involve cutting, machining, and welding. For companies without these in-house capabilities, it means sending these structures out to third-party subcontractors.

Not only are third-party subcontractors expensive, but they can have drastic consequences on a company’s production throughput. It’s not uncommon for subcontracting to add weeks or even months for modifications to fixed structure material handling systems.

Second, as part of any continuous improvement plan, it’s common for companies to change their warehouse or shop floor layout. They may do this to reduce transit times between workstations and work cells, maximize available space, make room for a new piece of machinery or equipment, or increase their warehouse and production space to keep up with rising demand.

 

Once these changes are made, fixed structure systems that were pre-manufactured to specific dimensions quickly become obsolete. Companies must either cover the high costs of repair and refurbishment or purchase an entirely new material handling system.

Third, fixed structure material handling systems are by their very nature and design incapable of being flexible. They can’t be adjusted without a costly overhaul, repair, and refurbishment. This makes fixed structure material handling systems extremely problematic for manufacturers, especially ones adopting a continuous improvement mindset.
What do Manufacturers Need?
Manufacturers who adopt lean manufacturing principles need to reduce manufacturing cycle times and reduce transit times to increase production throughput. Sometimes that requires the willingness and ability to customize material handling systems for new product lines or new projects. Unfortunately, that’s not possible with fixed structure material handling.

Manufacturers must optimize their material handling systems throughout the entire production process. This means properly handing and storing incoming raw materials, while also improving the accessibility of those materials and consumables in lean work cells. Next, they need to reduce the transit times for semi-finished parts to adjacent work cells. When the entire material handling process is optimized, the company reduces waste, lowers manufacturing cycle times, and encounters fewer production delays.
The Benefit of a Modular Material Handling System
A modular material handling system is one where employees can make immediate changes to the structure’s layout without encountering extensive delays. These solutions typically include modular piping and tube and joint systems that can quickly be cut, extended, and joined in a fraction of the time compared to a fixed/welded material handling structure. Sometimes these changes can take no more than a couple of minutes.

Unfortunately, adjusting fixed material handling systems typically involves a substantial amount of industrial cutting, machining, and welding which can take days and weeks to complete. Modular systems are cost-effective solutions that are easy to assemble and disassemble without having to worry about extended lost time.
Improving Material Handling for Manufacturers

 

There are two essential criteria for optimizing material handling across the entire shop floor. First, a material handling structure inside lean work cells should be designed for minimal worker movement. This means parts, tools, materials, consumables, and semi-finished parts are easily accessible to production employees from within their work cells.

Second, the material handling equipment outside the work cell should be just as functional and easy to use as those inside the work cell. This ensures that transit times to move work-in-process parts to the next lean work cell in the production process are minimized.

When both the inside and outside of all lean work cells have optimized material handling structures and material handling equipment, it has the cascading effect of lowering production cycle times across the entire shop floor. After all, a single delay from a production work cell causes the next cell in the chain to experience delays until eventually, every chain in the process is behind schedule.

What can we build with a Modular Material Handling System?
There is simply no shortage of modular material handling systems that companies can make on their own using pipe and tubing systems. These products are perfect complements to a company’s constantly changing manufacturing environment. Without these modular piping solutions, companies would be faced with the high costs and delays of fixing, repairing, refurbishing, and re-welding older material handling equipment, or worse, having to purchase new ones.
Modular and Scalable Flow Racks

Most often associated with inventory and warehousing, material handling flow racks can also be placed in, or immediately outside of, lean manufacturing work cells. Having materials, parts, and consumables stationed in flow racks adjacent to work cells eliminates wasted transit times for employees from the work cell to the warehouse and back again. In essence, these material handling flow racks can sometimes act as small inventory retainers so that employees don’t waste time walking long distances for the materials they need to finish a work order.

Flow racks have an inclined design which makes it easy for employees to access the materials and parts inside production bins. Modular material handling flow racks empowers manufacturers to make relatively quick adjustments to the flow rack to account for a larger bill of materials. This could involve disassembling a portion of the flow rack to add more levels to handle more bins, or widening the length of each rack.
Modular and Scalable Carts

Carts have a multi-purpose function as material handling equipment. First, they help warehouse employees manage, move and store incoming shipments while also helping to prepare outgoing shipments.

Second, they are often essential for moving semi-finished parts and assemblies to and from separate work cells on the shop floor. Sometimes those semi-finished parts can be quite large, wide, or long. Third, they are ideal solutions for moving multiple production bins, parts, and materials for different work orders to different shop floor locations.

While carts have multiple uses, a modular and scalable cart built with tube and joint systems expands those uses and benefits ten-fold. Manufacturers know that nothing is static or stationary on the shop floor for long. Being able to adjust a cart’s size, height and width isn’t a luxury – it’s a necessity. Modular piping solutions empower manufacturers to adjust to any change in requirement.
Modular and Scalable WorkStations

Workstations are the all-important building block of any lean manufacturing work cell. A poorly-made or badly-designed workstation leads to endless wasted time as employees search in vain for poorly-placed parts, tools, instructions, bins, materials, or work orders. All this wasted time reduces operational efficiency.

If the workstation isn’t designed or structured around 5S principles (Sort, Set in Order, Shine, Standardize, Sustain) or worse, is not movement-friendly, then it’s no longer a lean workstation.

As important as a clean workstation is, it’s nowhere near as important as being able to adjust the workstation with modular piping solutions. Invariably, the workstation’s design will need to be changed, or modified at some point, and a fixed structure workstation is extremely difficult to adjust without encountering wasted time and high costs.
Modular and Scalable Racks

Racks are critical for holding inventory within warehouses. Not only do racks help to protect inventory, but their loading capacity means they can hold inventory for long periods. A higher loading capacity means each level protects the inventory on that level and each subsequent level beneath it.

It would be great if you only needed one type of rack with perfectly spaced levels that never need to change, but that is rarely the case. This is why a modular and scalable rack is so important.

Tube and joint systems allow you to create a tailor-made rack with individual levels you can adjust. Since inventory costs are typically based on warehouse square footage, a modular rack system allows you to free up valuable warehouse space, thereby reducing warehousing and inventory costs.

There is nothing more costly or time-consuming than having to change a fixed warehouse racking system. Modular racking can be made to fit the exact size and space you need to store materials, parts, and finished goods and are scalable and adaptable to support any change.
Types of Materials used to build a handling system
There are material handling systems that are pre-manufactured to specific dimensions and made with different types of materials. Ultimately, understanding the pros and cons of these materials is needed to better understand if they are viable solutions for your handling needs.

Aluminum Extrusions:

Aluminum is a lightweight, high-strength, and durable material that often has strong corrosion resistance. It is often used in manufacturing material handling equipment provided the aluminum is properly taken care of. Unfortunately, that is often the problem with a material handling structure manufactured from aluminum. Should that aluminum get stretched – which will eventually happen – then the aluminum’s surface layer will oxidize and corrode.

It’s also not uncommon for aluminum to experience water staining with high magnesium-aluminum alloys staining the most. While this doesn’t necessarily degrade the material’s properties, it is an obvious eye-sore that is less than appealing. Just imagine customers seeing water stains on every single aluminum material handling system you have.

Welded structures:

There are plenty of material handling systems that are welded. Unfortunately, these welded structures make the structure’s physical dimensions permanent. Any pre-manufactured or fixed material handling equipment is not easy to adjust or change. In fact, they aren’t designed or supposed to change.

These structures have a role to play for companies like distributors, retailers, or resellers who offer high volumes through a small number of product lines. If these product lines rarely change, then welded structures might work. Unfortunately, business change is commonplace, and welded structures aren’t just expensive to purchase – they’re expensive to fix and replace.

Standard Hardware Store Structures/Shelving:

An argument can be made for hardware store storage and shelving systems. They do play a role in inventory management. However, that role is extremely limited. It’s not uncommon for warehouses to have small shelves that hold small consumables like tape, hammers, nails, scissors, labels, etc. Unfortunately, that’s about it. These systems do not have sufficient load capacity on each shelf which means weight distribution across that shelf is very limited and extremely problematic.

Wooden Structures:

While rarely used, some companies create material handling equipment, workbenches, and workstations out of wood. Unfortunately, this is neither a good material nor a stable material to withstand the heavy loads and repeated use so common in warehouses and production shop floors. Gradually, over time, wood rots, especially when it’s exposed to humidity. As the rot propagates, the wood degrades even further and becomes weaker until eventually, it cracks or breaks. Even in a temperature-controlled warehouse, wood shelving is not a long-term viable solution.
Modular Material Handling Solutions Check all the Boxes
Companies nowadays have multiple concerns. It’s not just about making a good product, building a brand, and keeping customers. While each of these is important, there are other issues today’s companies are starting to take more seriously. Fortunately, a modular material handling system can address all these issues and more.

Ergonomic and Safe Solution

Employee absences due to work injuries are extremely expensive. The typical manufacturer covers $1,000.00 of additional costs every day an employee is injured. When employers adopt ergonomic principles, it immediately has an impact on employee engagement. Their efficiency, productivity, and attendance all improve. In return, companies don’t have to cover as many costs for absences due to injury.

For many industries, a modular material handling system is part of their overall ergonomic strategy. These are the companies that will incorporate anti-fatigue matting solutions inside work cells to provide improved impact resistance for employees. When tube and joint solutions are used alongside anti-fatigue matting solutions, then companies can easily adjust and cut both to accommodate the other.

Modular material handling systems are relied upon because their surfaces, corners and the entire structure is clean, free of burs, and void of any sharp edges. This means modular handling systems are not only ergonomic but safe for use.

Inexpensive Solution Compared to Fixed Structures

Companies faced with modifying fixed structure material handling equipment incur substantial costs and delays. Changing or adjusting fixed material handling systems often involves a tremendous amount of labor-intensive and expensive work.

Simply put, modular piping solutions are easier and faster to assemble, require less expertise, and are nowhere near as expensive or take anywhere near as long as having to send fixed structures to subcontractors. These systems can easily be assembled in-house and adjusted in a fraction of the time compared to a fixed structure material handling system.

Easily Recycled – If needed

Modular handling systems aren’t just easier to work with. While having a system that’s easily customized and adaptable is a definite plus, another benefit includes the ease with which modular systems can be recycled. This is but another way for companies to showcase their environmental stewardship.

The piping and square piping is typically made from steel with a polyethylene coating or a highly-scratch-resistant paint coating. Roller tracks are made from steel or Polyvinyl chloride (PVC) plastic. Joints are also made of steel. Finally, the end caps, pipe connectors, and hinge brackets are either made of PVC or other highly-durable plastic. Ultimately, the result is a material handling solution that is scalable, adaptable, affordable, and recyclable.

Designed with Efficiency in Mind

Modular material handling solutions are designed with efficiency and lean concepts in mind. Companies providing these tube and joint systems are well-aware of how businesses need a scalable and modular solution. These structures can be assembled and disassembled in a fraction of the time when compared to other material handling solutions made from other materials. Ultimately, it’s about enabling companies to make their own changes and structures as they see fit.
Choosing the Right Solution
Choosing a material handling system comes down to defining the type of business you run, the customers you serve, and the market or industry you operate in. Manufacturers have an obvious benefit from using modular material handling systems. However, if you are a small retailer, then modular systems aren’t likely to add any benefits or efficiencies. If you’re a business that sells a few product lines and those product lines never change, then fixed structures might be a solution. However, if your business is constantly changing and continuously growing - and if you know first-hand that fixed structure material handling has not worked for you - then modular systems may just be what you need.

Why you should use AGVs on your assembly line

Why you should use AGVs on your assembly line

LISTEN: Audio Interview with Bruce Buscher

In this interview, Bruce Buscher, VP of Daifuku’s AGV group answers all the questions you may have about all the benefits of having an AGV in your facilities.

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An automated guided vehicle (AGV) is a computer-controlled vehicle used to carry or tow materials in a manufacturing facility. In this video, Bruce Buscher, vice-president of Daifuku’s AGV group, explains why AGVs are a great solution for your assembly line and how you can integrate them with your material handling system.
Why use AGVs on your assembly line?
[caption id="attachment_38318" align="alignnone" width="801"] Credit: Daifuku.com[/caption]

The biggest advantage of using automated guided vehicles on your assembly line is flexibility. Traditional assembly lines are made up of structures such as towline conveyors and overhead conveyors that are permanently attached to the floor, making it difficult to change the configuration of the line after installation. By contrast, on an assembly line made up of AGVs, the vehicles carry the materials from station to station, and the path they follow can be modified at any time to suit different production requirements. This opens up a world of possibilities for your workflow, enabling you to maximize efficiency and reduce waste.

For instance, you’re no longer restricted to following a straight line. According to the rules of circular manufacturing, straight-line processes create waste by forcing workers to travel from one end of the warehouse to the other at the end of each cycle. With an AGV assembly line, you can organize your workflow in whatever shape makes the most sense for a particular process, whether that’s a U shape or a Christmas-tree pattern with deviations for additional tasks such as quality checks and customizations.

Using AGVs also eliminates the need for a human to deliver parts to the assembly line, which means operators are more likely to receive parts at the precise moment they need them. This can help you achieve more consistent cycle times and adjust takt times as needed to meet customer demand.
How can you integrate AGVs with other material handling equipment?
[caption id="attachment_38480" align="alignnone" width="900"] Credit: Assembly Magazine[/caption]

For maximum flexibility in your workflow, it’s best to pair AGVs with a tube and joint system. Load handling frames built from tubes and joints are relatively inexpensive and can be easily configured to carry parts of varying shapes and sizes, which makes them a popular choice in many manufacturing environments. According to Bruce, the use of AGVs with tube and joint products is especially common in supermarkets and line of sight delivery systems. It’s easy to see why: to fully take advantage of the flexibility offered by AGVs, you’ll need material handling equipment that’s equally adaptable. For example, you might decide to consolidate your workflow and reduce the number of stations on your assembly line. If your load handling frames are made of welded steel, it’s going to be time-consuming and costly to replace them, whereas tube and joint frames are designed to be reconfigured at will.
Is it possible to start small and add more AGVs later on?
[caption id="attachment_38485" align="alignnone" width="835"] Credit: Daifuku[/caption]

There’s no need to overhaul your entire assembly line in one go. If you’re not sure where AGVs would best fit into your workflow, you could start by identifying areas of waste or reduced productivity (creating a value stream map is a great way to do this) and assess whether an automated guided vehicle could solve the problem. For instance, you might notice that one of your operators always has to wait for parts to arrive at their workstation before they can begin their task, which creates a bottleneck in your production chain. The solution might be to program an AGV to deliver the required parts precisely when the operator needs them. Alternatively, you could search for a way to reduce the time your workers spend moving pallets through the warehouse. AGVs can help with that, too.

In short, whether you’re looking to streamline your entire operation or make a few small adjustments to achieve a leaner workflow, AGVs are an excellent tool to have at your disposal.

About our Lean expert - Bruce Buscher

Mr. Buscher has been leading the charge to automate manufacturing and assembly processes for more than 40 years. He first started as an engineer on the plant floor and has been the VP of Daifuku’s AGV group for the last fifteen years. Bruce and his team developed a full line of standard AGV Products and Navigation Technologies to solve Assembly Line challenges and drive out costs. They have deployed AGV’s in assembly lines across all industries.

Daifuku uses AGV’s to solve basic issues such as Ergonomics, Safety, Workforce Turnover, and Cost Reductions. As the oldest AGV manufacturer in North America, Daifuku has continuously led the way in automating assembly lines over the last 100 years and doing it with AGV’s since 1962.

Borrowing Lean Manufacturing Concepts from the Automotive Industry

Borrowing Lean Manufacturing Concepts from the Automotive Industry

Jerry Collins – a mechanical engineer with 28 years of experience in the automotive industry – uses the pre-production stage as the critical first step to managing future production costs. It’s during this pre-production stage that Jerry uses modular piping systems as a way to layout his production floor and design material handling systems. This reduces costs and makes it easier to modify those handling systems (if needed) once full-scale production starts.

LISTEN: Audio Interview Jerry Collins
In this interview, Society of Cost Engineers founder Jerry Collins explains to Flexpipe project manager Temie Fessa how modular material handling systems have helped him maximize efficiency and profits.

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Find out how any company in any industry can benefit from using tube and joint systems in the pre-production stage as a way to manage costs.
The Origins of Lean Manufacturing
Lean manufacturing can trace its roots back to Henry Ford’s infamous Model T assembly line and the Toyota Production System (TPS) of the early twentieth century. Sometimes referred to as “lean production” or “just-in-time manufacturing”, lean manufacturing focuses on increasing production throughput while controlling costs and minimizing waste.

With lean manufacturing, companies can increase production throughput without sacrificing their cash position or purchasing excessive inventory. Unfortunately, a large number of companies use some lean concepts while never fully implementing others.
Using Modular Piping for a Mocked Assembly Line
Instead of using lean manufacturing principles during the pre-production stage, several companies only adopt lean concepts long after production has started. Unfortunately, this puts them in a read-and-react position where unforeseen changes in product designs force them to make haphazard and extremely costly adjustments. However, Jerry took an entirely different approach.

Jerry and his team used modular piping solutions to create a mockup front axle and rear axle assembly line for General Motors. As stated by Jerry, “long before we purchased any equipment, we created a whole facility with modular piping and decided early on how our material handling systems would be structured.” This included using tube and joint systems to create mock machines and equipment in order to create a visual presentation of both on the shop floor.

They also used modular piping to create trolleys to test the transit times between work cells, all the while looking for any possible obstructions. They then created temporary structures in order to simulate how future material handling systems would be positioned beside work cells, equipment, and machinery.
Making Immediate Adjustments within Minutes – Not Days or Weeks
[caption id="attachment_38507" align="alignnone" width="1440"] A dedicated material handling shop will allows you to modify quickly and on spot structures that need adjustments.[/caption]

Jerry and his team of engineers chose modular piping solutions during the preproduction stage because of how easily it was to make simple changes. Some of the changes they made to their mock layout took mere minutes, something that is completely impossible to achieve with fixed material handling systems. As Jerry stated, “companies need to plan their material handling systems early on so they can maintain and improve upon their profits margins later.”

Ultimately, the tube and joint solutions replaced all of their larger, fixed-structure material handling frames. According to Jerry, making a single adjustment to their older material handling structures involved sending their heavy-duty racks to “a third party for welding and adjustments which could take weeks and months, whereas if you have a product like Flexpipe, it can be done in an afternoon.”

For Jerry and his team, adopting modular piping systems during the pre-production stage ensured everybody was comfortable with using the solution once production began. So, what are the inherent benefits of using modular piping during the initial pre-production stage?

Plan smarter with modular work cells
Design your line right from the start with lean layouts adapted to changing demands.

Download the free automotive guide

Adopting Lean Principles in the Pre-Production Stage
Adopting lean concepts in the pre-production stage by using tube and joint systems has three primary benefits. First, it amalgamates the costs associated with laying out the entire production floor for equipment and machinery, while totaling the costs for standing structures, workbenches, shelving, trolleys, flow racks, boards, etc.

This provides companies with a complete picture of their costs. It also allows companies to decide upon how much actual square footage they need for manufacturing. They can avoid the extra costs of leasing/buying too much production space, or conversely, avoid the high costs and delays that come from not having enough production space.

Second, using modular piping solutions in pre-production helps to simplify workflow. Companies have a much easier time choosing which modular piping solutions are needed for all their T-shaped, U-shaped, and S or Z-type work cells. This allows them to maximize the transit times between production work cells, equipment, machinery, and other standing structures. It also helps them choose ideal locations for inventory and part storage.

Third, by adopting tube and joint systems in the pre-production stage, employees are better able to make quick modifications to standing structures and material handling systems once production begins. No more waiting on welding or having to send out heavy-duty racks to third-party suppliers for modifications that may take weeks or months. Instead, with tube and joint systems, the employees can make the changes themselves.

Modular piping is a product designed with lean concepts in mind. Making changes to modular material handling systems is faster, simpler, and far less expensive when compared to fixed-structure systems.
Simple Steps to Using Modular Piping During Pre-production
Again, any company in any industry can use the same approach. It simply comes down to using the following four steps.

1.Use Spaghetti Diagrams to Define Workflow

Spaghetti diagrams allow you to map your workflow so that you have a visual presentation of how physical parts move between part storage, material handling systems, work cells, equipment, and machinery. The goal is to have a sequential process where the parts move naturally and employees aren’t required to walk extremely long distances to move those parts to the next chain in the process.

2.Gather Information About Machinery & Equipment

Defining the physical size of equipment and machinery is an important aspect of maximizing available shop floor space. You’ll need to define the physical dimensions of equipment and machines and visualize how they will be laid out on the shop floor.

3.Define Number of Material Handling Systems

Once you’ve defined the areas of your shop floor occupied by machinery and equipment, it becomes easy to determine the number of material handling systems you’ll require. To help you in the design of those systems, Flexpipe has created the Flexpipe Creator Extension, an innovative software-based solution that allows you to simplify your designs.

4.Simulate Transit Times

By now, your shop floor should be mocked up with locations for equipment, machinery, standing structures, work cells, and material handling systems. A proactive final step involves simulating transit times between each of these structures to ensure that there is sufficient space for employees to move parts and that the distances they travel aren’t too far.

 

Ready to turn your layout mockups into real-world lean improvements?
Explore strategies, case studies, and optimized layouts tailored for automotive manufacturing.

Read the Automotive Lean Guide

 
Flexpipe: Make it Work For You
Flexpipe is an industry leader in tube and joint systems with a strong North American footprint. Long recognized as an innovator, Flexpipe is well-known for its affordable modular piping solutions (30% less expensive) and its customer-centric approach to customer service and after-sales support.