How an advanced TMS optimizes supply chain performance
An advanced transportation management system can help with route optimization, real-time tracking, multimodal management, and predicting potential supply chain challenges.
Any transportation management system is better than none at all, but one with advanced functionality—such as route optimization, real-time tracking, and predictive analytics—can help you scale your business.
Nick Fryer is vice president of Marketing for Sheer Logistics. He has over a decade of experience in the logistics industry, spanning marketing, public relations, sales enablement, M&A, and more at 3PLs and 4PLs including AFN Logistics, GlobalTranz, and Sheer Logistics.
A transportation management system (TMS) is a critical tool for all supply chain and logistics practitioners. It provides shippers, third-party logistics companies (3PLs), and fourth-party logistics providers (4PLs) with the visibility they need to manage the supply chain and optimize the movement of products and goods. There are various types of transportation management systems, and while using a basic TMS is better than no TMS at all, advanced transportation management systems offer enhanced functionality and can scale with you as your business grows.
Getting the right TMS in place can have considerable benefits, as a TMS helps with planning and executing the movement of goods on a comprehensive level, which aids in reducing the risks of disruptions at every point in the supply chain. Companies that better manage risk will see significant savings. Data from the supply chain risk intelligence company Interos found that of the organizations they surveyed in 2021, the average organization lost $184 million in global supply chain disruptions. Similarly, a McKinsey study found that, within 10 years, the cost of supply chain disruptions adds up to nearly half of a company’s profits.
What Is the Difference Between an Advanced TMS and a Basic TMS?
Differences exist between TMS solutions, with not every organization or product offering the same features. More advanced TMS solutions go further, providing greater visibility and control. Consider some of the differences of using an advanced TMS for your logistics operation.
Functionality
A basic, or “lite,” TMS solution offers some nice features and enhances productivity. It offers features related to basic routing and order management, and it gets your products moving.
By comparison, an advanced TMS will include additional tools to enhance success, including:
Advanced route optimization to take into account changing conditions or specific factors related to your business.
Real-time tracking so you can catch and adjust problems early on or offer real-time solutions for unplanned delays.
Multimodal management provides organizations with more options to move products faster and more efficiently and affordably, depending on the factors that matter most.
Predictive analytics is yet another benefit of an advanced TMS. Its ability to predict potential supply chain challenges allows for better planning and mitigates risks.
Scalability
A basic TMS solution is typically best suited for small businesses. It does not provide advanced features to support more complicated needs. The more complicated your logistics needs are, the more robust the features on your TMS must be, including both in the planning and execution stages.
An advanced TMS offers more of what you need if you are a medium-sized business planning to grow or if you are a large enterprise right now. It offers solutions to adapt to more complex and intricate supply chain models. In high-volume networks, this is critical. If you expect to see significant demand increases, or your supply chain experiences seasonal demand fluctuations, an advanced TMS is the better solution.
Data Integration
Organizations also must consider how well their existing data and tools will integrate into a new system. A basic TMS will facilitate some options but tends to have limitations on what types of products and solutions it will integrate with overall. More so, it does not have the ability to take the data it has and provide you with comprehensive analysis, but rather just offers the data for you to analyze yourself.
An advanced TMS goes further by providing more advanced analytics, including opportunities to incorporate the tools you need as you grow, such as an enterprise resource planning system, warehouse management system, order and inventory management tools, real-time visibility tools, and accounting systems. It also offers more comprehensive reporting tools.
Unlocking Your Full Potential
Partnering with a 4PL or managed transportation services provider and implementing an advanced TMS is a strategic play that's going to have a very dramatic impact on the profitability of your business’s profitability and resilience.
An advanced TMS equips companies with essential tools to capture and leverage data effectively, offering enhanced visibility, and control over logistics processes. By enabling real-time insights, predictive analytics, and seamless data integration, an advanced TMS transforms complex supply chains into strategic assets. This level of supply chain optimization empowers businesses to address disruptions proactively, drive growth, and maintain a competitive edge in today’s dynamic global marketplace.
Interest in warehouse robotics remains high, driven by labor pressures and a general desire to further automate distribution processes. Likewise, the number of robot makers also continues to grow. By one count, more than 50 providers exhibited at the big MODEX show in Atlanta in March 2024.
In distribution environments, there is especially strong interest in autonomous mobile robots (AMRs) for collaborative order picking. In this application, the AMR meets pickers at the right inventory location, and the workers then place picks in totes on the robot, which then moves on to another location/picker or off to packing, greatly reducing human travel time.
While the use of robots in distribution is still early in its maturity, for many, if not most, companies, the future is one of heterogeneous robots—different types of bots from different vendors operating in a given facility. With the growth in robotics, these different robots will often need to communicate with each other—either directly or indirectly through use of an integration platform—to automate the flow of information and work. This is broadly termed “interoperability,” and it is an important concept for companies planning warehouse robotics initiatives, with the ultimate goal of achieving a “plug and play” environments where new robots can easily be added to the automation mix and processes adapted over time.
Interoperability example
Why is interoperability important?
Consider the following example. A company buys perhaps 20 AMRs to support collaborative picking. A few years later, additional AMRs are needed to support growth. But now there is another AMR from a different vendor that the company prefers for cost, design, change in stock keeping unit (SKU) attributes, or other factors.
Interoperability will allow a company to keep the AMRs they have and seamlessly add the new AMRs to the mix. Beyond basic integration, a company will want to manage the robots across both vendors in terms of visibility, task assignment, performance measurement, and more, operating as if it’s a single fleet.
That’s a good example of what interoperability is all about.
Are there interoperability standards?
There are some initiatives across the robotics sector to develop cross-vendor integration protocols that will make interoperability much easier. However, these standards, such as VDA5050 (a standardized interface for automated guided vehicles) and the Mass Robotics 2.0 AMR Interoperability Standard, are either not widely used or are still under development.
Many vendors have also started offering support for what is called a “robot operating system” (ROS/ROS2). However, this is a loose, open source framework (not a full standard) that doesn’t fully address the interoperability challenge.
The robotics platform alternative
In the absence of useful standards, companies still have a few options for achieving interoperability. One is the traditional approach of manually programming interfaces between different robots and interfaces between robots and software systems such as warehouse management (WMS) or warehouse execution systems (WES).
The downsides of this approach are well understood. They include extended developing times and the high cost to get the integrations done, as well as a significant lack of flexibility down the road, with some added risk thrown into the mix as well.
A better alternative is the use of a platform strategy. Which begs the question: What is a robotics platform?
A robotics software platform is a middleware ecosystem—cloud-based or on-premise—that provides various capabilities and services from integration to fulfillment planning and execution. It also acts as a bridge between automation systems and various enterprise software applications.
The starting point for any robotic platform success is, in fact, integration. That integration capability includes advanced tools that enable flexible “no code/low code” approaches to connecting robot fleets.
The right platform can also more rapidly integrate with WMS/WES or other software applications, using AI to greatly accelerate the often time-consuming data-mapping process. Once the WMS/WES is connected to the platform, then the robots are also connected to enable real-time, bidirectional access to the WMS/WES data.
Such a platform delivers interoperability across robot types and connects different automated processes. A simple example would be a communication from the platform to a robot needed to move goods from receiving to reserve storage, where another robot is made aware via the platform that there is a new putaway task ready for completion.
Other interoperability considerations
To maximize interoperability opportunities, companies should consider the following interoperability-related capabilities that may be available from a given robotics platform:
Flexibility in integration based on robot software functionality: Different robot vendors come with software at different levels of maturity. An interoperability platform should be able to work with robotic vendors at any level of software functional capability, ensuring flexibility in robot selection.
User experience consistency: For interoperability to be functionally effective, the user interface across robotic-enabled processes should be consistent, so that users can easily interact and switch between different tasks.
Flexible communication protocols: A platform should provide support for a wide range of different protocols, such as application programming interfaces (APIs), socket communication (a two-way communication link between a server and a client program), web services, ROS/ROS2.0, and VDA5050, to name just a few.
Observability: AMRs especially will generate huge of amount of data on their movements and activities that can be used for analytics. The robotics platform should normalize data packets from different vendors to create a unified dashboard.
Safety and risk mitigation: A robotics platform can help achieve safety across different types of robots by understanding the safety protocols of different machines and coming up with a common set of rules. These rules will exist in an extended fleet manager that runs in the platform and sits on top of the fleet managers of each individual brand of AMR.
While some of these capabilities may not be relevant in a company’s early years in warehouse robotics, they could prove valuable down the road, so give them some consideration today.
Interoperability use cases
We’ve already covered a couple of common robotic interoperability use cases:
Adding new robots of the same type but from a different vendor and having all of them operate together as a single fleet.
Connecting different types of robots or automation to support multi-step process flows (for example, receiving to putaway).
Here is another: One global consumer goods company wants to heavily automate distribution processes but give individual regions or countries they operate in the flexibility to select the vendor for a specific type of robot (for example, a layer picker) and be able to easily plug that specific equipment into the larger platform infrastructure. This allows a centralized automation strategy with local execution.
The Interoperability Imperative
For a significant and growing number of companies, the future on the distribution center floor will be robotics of multiple types and vendors. To maximize flow and productivity, these heterogeneous environments must adopt interoperability strategies, enabling systems of different types to operate as if a single fleet. While standards to help with all this may arrive in future, for now a robotics integration and execution platform will provide an attractive alternative to traditional programming-heavy approaches.
I’m repeatedly asked, which companies use their supply chain networks as their anchor of corporate competitiveness, embracing variability, harnessing visibility, and competing with velocity?
The top supply chain networks I admire demonstrate a clear “competitive moat” with their supply chain networks and have a market-based strategic advantage. While I somewhat appreciate the historical answers to the question, “Who are your top supply chains?”¾the answers to this question tend to be based on the tactical views of balanced scorecards, return on equity or assets, and how supply chains impact business performance. However, my top supply chains are above that fray.
I am a true believer that strategy is very different from tactics. So, I put a different lens on the question. My top supply chains are my industry “icons”: Intelligently Curated Orchestration Networks. Companies that see their supply chain networks as strategic assets embrace variability, harness visibility, and compete with velocity by deliberately curating their supply chain network.
The supply chains I admire use their supply chains not just as logistical tools but as strategic weapons, transforming them into powerful engines of market-based advantage to rise above the competition. These companies Intelligently Curate and Orchestrate their Network.
What supply chains truly stand out?
Which companies have redefined the role of supply chains, turning complexity into opportunity and positioning themselves as leaders in the face of uncertainty? Three companies that are using their supply chain networks as an anchor of corporate competitiveness are Banner Engineering, Tracegains, and Altana.
Banner Engineering
At the heart of Banner's success is its ability to embrace variability by harnessing the visibility of their customer's wants and needs and a deep understanding of their suppliers' capacities and capabilities. This insight allows them to embrace variability by serving multiple industries with thousands of different products at an unmatched velocity. Banner doesn't merely adapt to change; it thrives on it. Each year, they introduce over 30 new products, consistently creating solutions that customers love.
Minneapolis-based Banner Engineering, founded in 1966, has emerged as a leading designer and manufacturer of industrial automation products. With a portfolio of more than 10,000 products, Banner serves multiple industries, including automotive, food and beverage, pharmaceuticals, packaging, electronics, materials handling, and logistics. Their extensive range includes award-winning sensors, wireless systems, machine safety equipment, indication devices, and LED lighting.
Banner's supply chain is not viewed as a cost center but as a strategic advantage. By leveraging a network of 5,000 engineers and support personnel, Banner has built a 360-degree view of its ecosystem. This finely tuned machine allows them to recombine ideas, technologies, and processes while continuously delivering value. It's this interconnectedness—between customer needs and supplier capabilities—that enables Banner to stay ahead of the competition, not just today but in the uncertain future that lies ahead.
The company's engineering prowess is a key factor in its success. Banner designs and engineers products that create a preferred customer lifecycle experience. Their ability to combine and recombine with speed, quality, consistency, and support is unparalleled. Design engineering and orchestrating the supply chain have become Banner's competitive advantage.
Banner's approach to innovation is about velocity—the ability to accelerate innovation, design new solutions, and respond to customer needs at a speed unmatched by their competitors. This is the secret of supply chain mastery. It's not just about being fast or efficient; it's about seeing the interconnections and using that visibility to continuously create new products and services with velocity.
Banner's global impact is significant, with operations on five continents and a worldwide team of over 5,500 employees and partners. In fact, a Banner product is installed somewhere in the world every two seconds. The company's commitment to personalized service and attentive support, offering both face-to-face and virtual interaction with customers, has helped them solve tough applications and advance manufacturing processes globally.
Banner Engineering's success stems from its ability to embrace variability, harness visibility, and compete on velocity. By leveraging their engineering knowledge and relationships with customers and suppliers, Banner continues to innovate and provide cutting-edge automation solutions for manufacturers worldwide.
TraceGains
TraceGains' success can be directly tied to empowering manufacturers to embrace variability through their massive catalog, which allows them to rapidly increase the velocity of product introduction and their ability to harness visibility and embrace variability, enabling a high-velocity "ingredients to product" supply chain. The company has positioned itself as a de facto standardizer of processes and methods for sourcing, building trust that allows its ecosystem to rapidly source, assemble, and reassemble ingredients-based products with unmatched velocity, quality, and process assurances.
Founded in 1998 and headquartered in Westminster, Colorado, TraceGains has emerged as a pioneering force in the food and beverage industry. The company's innovative platform provides a 360-degree view of a hyperspecialized ecosystem, connecting ingredients manufacturers with consumer product manufacturers across a vast network of 75,000+ supplier locations and 525,000+ ingredients/items.
TraceGains' supply chain network serves as both a graph and an intersection point, mapping suppliers against product requirements, quality credentials, and manufacturer pedigree requirements. This comprehensive view forms the foundation of the company's competitive moat, providing unparalleled insights and capabilities to its clients.
The power of TraceGains' platform is exemplified by its approach to ingredient taxonomy. For instance, an ingredient as seemingly simple as garlic is meticulously categorized within their network, from raw and organic to processed, chopped, and packaged in specific container sizes. This granular level of detail enables precise matching and sourcing capabilities.
TraceGains' intelligent network continuously monitors global events through “horizon scanning,” tracking adverse events, import refusals, and recalls. This real-time intelligence allows customers to remain informed about issues relevant to their specific ingredient needs, avoiding unnecessary concerns about unrelated incidents.
A key strength of TraceGains lies in its commitment to standardization and curation. Working closely with large customer advisory groups, the company has developed standardized data formats for numerous forms and data types, including allergens, nutrition, sustainability, and supplier and item risk assessments. This standardization significantly reduces friction in the supply chain, as suppliers can enter data once in a standardized format, which then automatically propagates to all their customers on the network.
TraceGains rapidly accelerates the velocity its customers can source, assemble, and reassemble its products. By leveraging artificial intelligence and standardizing data across its network, TraceGains enables manufacturers to source, assemble, and reassemble products with unprecedented speed and precision. The company's approach transforms potential chaos into order, using the power of its supply chain network to anticipate disruptions and act proactively.
Their supply chain’s main strength? Turning chaos into order. TraceGains has turned variability into its greatest strength, enabling a supply chain that is as agile as it is reliable and capable of meeting the unique demands of each customer while sourcing from the most appropriate suppliers with the highest fidelity at velocity.
Altana
Altana enables its customers through its supply chain network to embrace variability by providing a digital, dynamic, universal global supply chain map. By harnessing visibility through its federation, Altana allows for the standardization of multi-party workflows, enabling companies to combine, recombine, monitor, and surveil their supply chain at high velocity.
Founded in 2018 and headquartered in New York City, Altana has emerged as a force in supply chain network management by operating on an even larger scale, connecting governments, logistics providers, and businesses around the globe through a federated system of supply chain intelligence, offering unprecedented visibility and insights into global value chains.
Central to Altana's innovation is its proprietary "federated learning" architecture. Unlike traditional centralized data models, Altana has pioneered a decentralized, "hub-and-spoke" approach. This revolutionary design allows customers to share intelligence without ever exposing their underlying data, thereby maintaining data sovereignty, privacy, and security for all participants in the network.
The Altana “knowledge graph” is a testament to the power of this approach. It now comprises more than 2.8 billion shipments, tracking over 500 million companies and 850 million facilities down to the part-site level, with more than 125 million distinct facility-to-facility relationships. This vast network creates a common operating picture of the world's interconnected supply chains, spanning across governments, logistics providers, financial services companies, and other associated service providers.
Altana's Value Chain Management System enables real-time visibility into supply chains that cross borders and industries. For instance, a top global retailer uses Altana to understand potential upstream exposure to forced labor in its value chains, ensuring compliance with the Uyghur Forced Labor Prevention Act. Simultaneously, U.S. Customs and Border Protection (CBP) uses the same system to enforce this law, while logistics giants like Maersk utilize it to model global value chains for the shipments they handle.
This interconnected ecosystem allows for unprecedented coordination and streamlining of compliance and enforcement activities. Parties that would otherwise be unable to share data due to fragmentation, silos, and interoperability issues can now view the same network relationships, remediate compliance exposures, and act collaboratively to facilitate trusted trade and avoid disruptions at borders.
The impact of Altana's innovation extends far beyond individual companies. By creating a shared source of truth for global supply chains, Altana is helping to recalibrate and rebuild secure and trusted supply chains on a global scale. This approach aligns with key principles of supply chain network competitiveness: embrace variability, harness visibility, and compete with velocity.
My Industry ICONS
My industry ICONS have turned their supply chain networks into competitive weapons. They’ve learned that variability is not a hindrance but a source of strategic advantage. Through their supply chain networks, they enable their customers to embrace variability, harness visibility, and compete on velocity, which is what sets them apart. Like a finely organized complex adaptive system, they have curated and cultivated their hyperspecialized networks to achieve something competitively differentiated.
Banner Engineering, TraceGains, and Altana use their supply chain networks and 360-degree view to a strategic advantage. Their relationships and knowledge of their federations' capability and capacity define their strategic positions, and their ability to harness surveillance and enable rapid recombinant behavior creates their moats.
The companies that will dominate the future understand that success is not just about making the right tactical decisions on a day-to-day basis; it’s about building the infrastructure that allows you to evolve and adapt to tomorrow’s challenges. Banner Engineering, TraceGains, and Altana are not just companies—they are supply chain ICONs. Shining examples of what can be achieved when you embrace variability, harness visibility, and compete on velocity.
They are, in every sense, flying above the fray.
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Supply chain managers at consumer goods manufacturing companies are tasked with meeting mandates from large retailers to implement item-level RFID.
Supply chain managers at consumer goods manufacturing companies are tasked with meeting mandates from large retailers to implement item-level RFID. Initially these requirements applied primarily to apparel manufacturers and brands. Now, realizing the fruits of this first RFID wave, retailers are turning to suppliers to tag more merchandise.
This is one more priority for supply chain leaders, who suddenly have RFID added to their to-do list. How to integrate tagging into automated production lines? How to ensure each tag functions properly after goods are packed, shipped, and shelved? Where to position the RFID tag on the product? All are important questions to be answered in order to implement item-level RFID. The clock is ticking on retail mandates.
Different products, new RFID considerations
Hangtags, the primary form of apparel product identification, present a relatively easy way to attach an RFID tag. Pressure-sensitive labels likewise can carry an RFID inlay. The inlay, consisting of a microchip and antenna, holds the product’s unique identifying information. This tiny device is activated when the RFID reader passes by it. For nonapparel products, in many cases, there is no way to attach a hangtag. Therefore, a pressure-sensitive RFID label often must be put directly on the product. If the product is packaged in a box, the RFID carrier can be attached to or placed inside the box. Either way involves the use of just the right solutions, including the adhesive, shape, dimension, and placement. Moreover, there must be an efficient way to attach the labels to products. This requires process engineering and sometimes capital investment to integrate RFID labeling into highly automated manufacturing lines.
Metals, liquids, and low-surface-energy (LSE) materials pose hurdles for RFID item tagging. Tag and label inlays cannot be read properly through metals and liquids, and the pressure-sensitive labels do not always stick well to product surfaces containing silicone, vinyl, polyethylene, and polystyrene. Very small items are also difficult to tag. Metal paint cans, caulk or paste tubes, lipsticks, and reusable water bottles are just a few products that present RFID tagging challenges.
In other cases, it is not so much the product itself that hinders readability but rather the shipping method. For example, it is relatively straightforward to apply an RFID tag or label to a bag of fertilizer. But the fertilizer bags might be stacked 60 deep on a pallet. The pressure is too much. It damages the inlay, killing the tag’s readability. So, RFID tags, which were perfectly fine coming off the production line, are now dead from the stacking pressure.
Solutions and testing
RFID tagging and labeling programs take time to get right. While some manufacturers can set up a successful process in a few weeks or months, for others it can take six months, nine months, a year or longer. Variables influencing implementation time include capital equipment investments, the product types (for example, are the materials, shapes, or surfaces potentially problematic?), label supplier capacity and capabilities, and third-party testing rounds.
The good news is that best practices are being refined every day to incorporate RFID on difficult-to-tag products. A case in point is finding answers to RFID-inlay readability issues on metal or liquid products. There are ways to attach an RFID label to the product’s lid or cap.
The University of Auburn RFID Lab is the de facto U.S. authority on all things retail RFID. Through its ARC program, the lab works with end users to make sure RFID tags meet or exceed their required performance and quality levels. Walmart, for example, requires its suppliers to source from Auburn RFID Lab’s ARC program-approved inlay companies. “ARC is a test system and database that stores comprehensive performance data of in-development and market available RFID tags,” according to the lab’s website. “ARC has been working with end users to translate RFID use cases into specific levels of performance in the ARC test environment.”
High-quality RFID tags and labels are at the heart of it all. The following are some considerations to keep in mind when choosing an RFID tag and label provider:
What are their quality control and testing capabilities? Can they confirm that every tag is readable? Do they have software to verify that UPC and RFID information match up? Do they possess familiarity with Auburn’s RFID Lab approval process?
What is their capacity? How many thousands or millions of inlays do they create per day? Are there minimum order quantities?
What are their order management and shipping processes like? What is their delivery speed? How easy are they to order from? Where are their print facilities located?
Do they offer customization? Do they possess specialized equipment? Can they die cut irregular shapes, including very small dimensions? Do they possess adhesive expertise and application equipment? Do they have solutions for metal, liquid, and other difficult-to-tag items? Are they able to configure label rolls to work on automatic label dispensers?
It takes trial and error to implement RFID item tagging for nonapparel products. Effective, compliant programs do not manifest overnight. Collaboration with experienced label providers and the Auburn RFID Lab will help manufacturers overcome even the most complex RFID tagging challenges. There will be a roadmap to success, and the results in the form of better inventory visibility, swifter sell-through, and stronger sales will be well worth it.
About the Author
George Hoffman is chairman and CEO of FineLine Technologies, a service bureau providing barcode and RFID-integrated labels and tags. All opinions are the author’s own.
Forklift batteries power the fleets at the center of facility operations. If your batteries are well-maintained, your team is empowered to drive efficient, sustainable, and productive operations. Given your forklift battery can also be as much as 30% of your forklift’s total cost, taking care of it is crucial not just for its longevity and efficiency, but in creating a safe, productive, and cost-effective facility. Improper battery care can create a financial strain on your company along with plenty of safety hazards.
Pulling from decades of experience helping some of the largest and busiest facilities across the country with their power management challenges, I’m sharing the most common mistakes that can shorten your forklift battery’s life by up to 60% or one to three years.
Most common forklift power system design mistakes
Four of the most common mistakes are associated with how a company designs its forklift power system, which includes not just the battery but also chargers and changers.
Not considering your batteries as part of a power system. Your system design should be based on more than just the forklift’s battery specification. The best power systems are built after an assessment of your facility’s applications and workflows, such as when and how batteries are watered. To drive higher uptimes and longer battery life, companies need to optimizing not just for everything they do today but also consider their future plans.
Using the wrong charger. Many companies, trying to save a little money, switch to new batteries but use old, mismatched chargers. For example, they change their batteries every five years, but only buy new chargers every 10-20 years. While the battery technology has improved, the charger (the intelligence) hasn’t, and that means they may not be getting the most out of their new battery equipment as far as charge profiles and efficiency. This shortens battery life, drives up power bills, and in the long term, ends up being more expensive than simply buying new chargers.
Having malfunctioning chargers. Chargers are designed to provide power to batteries up until 100% capacity. When a new model of charger is unable to provide full power, it is often due to malfunctioning power modules or communications issues between battery modules and the charger itself. Additionally, older style high frequency (HF), silicon controlled rectifier (SCR), and Ferro chargers may experience output capacity drop off due to malfunctioning fuses, diodes, SCRs, insulated-gate bipolar transistors (IGBTs), and capacitors. If left unchecked, the reduced output of these chargers will cause batteries to sulfate and ultimately fail.
Not planning a charging standard operating procedure (SOP) in advance. Most companies charge when it’s best for the operator, but it’s important to set up a charging schedule that also takes into account the needs of your facility and your batteries. A schedule that accommodates both the operator’s and the battery’s needs will lengthen lifespan tremendously. This requires regular monitoring to ensure compliance with the charging SOP. If this is not maintained, batteries will often fail due to the lack of consistent charging.
Most common forklift power maintenance mistakes
The remaining common mistakes focus on how a company maintains its batteries and chargers.
Not implementing an equalization schedule. Lead acid batteries require an equalization charge on a regular basis to maintain their long-term health and capacity. Build a plan for equalization into your battery charger plug-up times, then set those schedules into your chargers.
Not watering correctly. Batteries need to be watered on a schedule. Ideally, batteries are watered right after charging to avoid electrolyte overflow issues, chemical spills, and degradation. Proper water levels ensure electrolytes stay in balance and batteries don’t overheat. These expensive mistakes add up over time.
Having a malfunctioning single-point watering system. Single-point watering systems are employed for labor savings in the weekly watering of batteries. While useful, these systems are subject to failure due to abuse and just normal wear and tear. Oftentimes, these systems will fail at individual watering points and are not noticeably malfunctioning. This will lead to unequal watering and ultimately a series of battery failure points over time. This too must be regularly monitored for proper function.
Not responding swiftly to maintenance issues. It’s important to set up a maintenance schedule so you can ensure every battery and charger gets attention when it should. Early identification of issues, paired with course correction, can nip issues in the bud, greatly extending the life of your equipment.
Your forklift batteries are the preservers of power at your facility. If properly cared for, they power smooth and reliable operations that keep downtime at bay. The unexpected can and will happen every single year—that’s just a part of business. But the expected, that is something we can prepare for. Companies that take a proactive approach to their power and their facility’s unique power are poised to take on any challenge with an uninterrupted power supply.
More than ever before, supply chain businesses are faced with dynamic conditions due to consumer buying trends, supply chain disruptions, and upheaval caused by other outside forces including war, political instability, and weather conditions. Supply chain companies, including warehouses, must be able to pivot quickly and make changes to operational processes without waiting for weeks or months.
As a result, warehouse management systems (WMS) need to be agile enough to make changes to operational processes and turn on a dime in today’s fast-paced world. Traditional warehouse management systems, however, are rigid and complex, not easy to customize or change. In addition, integrations—especially to modern technologies such as the internet of things (IoT), artificial intelligence (AI), and machine learning—can be problematic.
Furthermore, traditional warehouse management systems depend on the expertise, experience, and knowledge of software developers to hand code applications. This type of technical labor is costly and can be hard to find, leading to dependence on the WMS software developer. Whenever changes or customizations to traditional WMS are needed, experienced software developers are needed, and this effort is usually time-consuming and expensive.
One solution is to consider a warehouse management system built on a low-code application platform (LCAP). Unlike traditional warehouse management systems, software applications built on LCAPs are more flexible, adaptable to meet changing business requirements, easier to integrate, and scalable.
[subhead] What are low-code application platforms?
LCAPs give users a visual, drag-and-drop interface that allows them to create applications by assembling prebuilt components, integrations, and templates. This simplification of the software development process facilitates faster prototyping, iteration, and deployment.
It also enables application development to be open to nontechnical users who may have significant experience, knowledge, and expertise in warehouse operations. Nontechnical users can work alongside IT resources to automate workflows, create business rules, process flows, and data models. To do this, visual tools are used to replace the need for writing complex code. Event-driven triggers and actions are leveraged to automate repetitive tasks and integrate with other systems. This can lead to better alignment of operational processes within the warehouse.
Low-code application platforms may also include features to promote team collaboration. Multiple users can work on the same project simultaneously, and version control mechanisms help to ensure that changes can be tracked and managed efficiently. In case it becomes necessary, rollback can be used to return to previous versions.
Low-code application platforms include tools for deployment, hosting, and maintenance. Applications can be deployed by users to a variety of environments with only minimal configuration. Maintenance and updates can be handled within the platform, and automated testing and deployment pipelines are frequently used.
Seven benefits of LCAPs
There are many benefits to using an LCAP as opposed to a traditionally coded warehouse management system, including:
1. Adaptability and ability to customize. LCAPs provide significant value for a WMS due to the speed at which applications, features, and customizations can be developed and deployed. This can help to ensure higher customer satisfaction and the ability to adapt more rapidly to supply chain disruptions, changes in demand, and advances in technology.
LCAPs help solve the challenges faced by a rigid traditional WMS by making the WMS faster and easier to tailor to meet customer or business requirements without high-priced IT resources. This can translate into time and labor savings for the warehouse operator.
2. Integration. Atraditional WMS often does not have the capability of integrating with cloud-based services, limiting the ability for it to take advantage of the cost benefits, flexibility, and scalability of cloud computing. In addition, it is often challenging for traditional warehouse management systems to integrate with automation technologies including robotics, autonomous guided vehicles (AGVs), conveyor systems, and other technologies.
Because LCAPs leverage built-in connectors as well as application programming interfaces (APIs) that facilitate integration with other systems, integration is seamless, ensuring a more efficient, cohesive ecosystem. This ease of integration can aid in unifying data across different systems to improve decision-making and information visibility.
3. Scalability. As a business grows, warehouse operations typically become more complex. This complexity typically leads to the need to handle increased volumes of data and more complicated workflows as well as expanded warehouse operations. This can present challenges for traditional warehouse management systems.
Low-code application platforms are able to scale more easily to handle increased volumes of data, more operational complexity, and additional functionality without a complete overhaul of the WMS. It is faster and easier to make quick adjustments on a WMS built on an LCAP. The system can easily scale up or down to handle new business requirements, changes in demand, and much more.
4. Security. Older warehouse management systems may lack the advanced security features required to protect sensitive data from cyber-attacks. Modern low-code application platforms typically include robust security measures to ensure that data is protected.
5. Up-to-date user interface and user experience. The outdated user interfaces commonly found with many older warehouse management systems can hamper productivity and lead to errors. WMS users need to have a streamlined user interface, designed to focus their attention on operations, without distractions.
Using a WMS built on an LCAP can improve the user experience and boost productivity. This is because LCAPs often feature intuitive, user-friendly interfaces that enhance the overall user experience. This makes it easier for warehouse workers to navigate the software, reducing errors and frustration.
6. Real time visibility. Older warehouse management systems may not be able to provide visibility into warehouse operations, inventory levels, and order status in real time. This can reduce the responsiveness to customer and market demands and delay decision-making.
One advantage of using a WMS built on an LCAP is that it can be integrated to IoT devices and sensors. This will enable the capture of real-time data on inventory levels, environmental conditions within the warehouse, equipment status, and more.
7. Data management. Today, with the popularity of online shopping, a WMS needs to be able to handle a high volume of orders with many individual items per order. A traditional WMS, which is designed to handle goods by the case or pallet, rather than by the individual saleable unit, may have performance issues, such as with data lock up or data retrieval, when handling large volumes of data.
Using a WMS built on an LCAP can facilitate the integration of multiple data sources into one unified platform, improving data accuracy and consistency. All data is available in one place. In addition, there are built-in tools for data validation, cleansing, and governance. This helps to ensure high data quality, essential for reliable real-time data visibility.
Transformative potential
Technology continues to advance. Software development continues to evolve. By taking advantage of low-code application platforms to simplify the software development process, supply chain professionals can ensure that they are able to keep up with these changes.
LCAPs enable rapid development, customization, and deployment of software applications, enabling businesses to respond to changing market conditions and technological advances. The result is notable cost and time savings, increased efficiency, and more effective operations. Using LCAPs, companies can take advantage of increased flexibility, scalability, and adaptability to be more competitive, drive operational excellence, and support growth.