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Content about Tunnel washer

April 4, 2013

ROANOKE, Va. — Certain universal principles apply to all washing equipment

ROANOKE, Va. — It seems that making the required adjustments in your laundry operation is a never-ending process. There are a number of variables to be considered when making periodic adjustments. With this in mind, I have decided to, over the next several months, discuss the factors and opportunities available to every manager in fine-tuning his or her operation.

Let’s look at the wash room. There are certain universal principles that apply to all washing equipment, whether it is a tunnel washer or a conventional washer-extractor. The first principle is deciding how big a load you wish to put into your washing machine. Sounds simple enough, but the answer can and should vary based on the type of linen you are washing and the moisture content of the linen to be washed.

To illustrate, I will use my operation’s tunnel washer. Its rated load capacity is 110 pounds per pocket, but if I were to fill each pocket with 110 pounds, I would be dramatically under-loading the tunnel. We wash micro-filament mops through our tunnel washer. Because of the moisture content in the soiled mops, we load each pocket to 165 pounds. This load easily fits into the extractor at the end of the tunnel, and the load comes out looking clean and smelling great.

There is a danger in putting too much linen into a tunnel-washer pocket. An overly large load will not come clean, and may not fit efficiently into the extractor at the end of the tunnel or may not come out at all. Anyone who has experienced a jam up inside the tunnel washer knows that it is something you want to avoid.

There is, however, a compelling reason to accurately determine the proper load size for each type of linen. We were able to increase our average load size from 100 pounds per pocket to 125 pounds per pocket. That is a 25% increase in output without adding time or additional equipment.

We wash a large amount of reusable barrier surgical linen that each day. This linen is made from 100% polyester fibers and weighs very little per piece. If I were to load this type of linen to 100% of normal capacity, the linen would be so tightly packed in the washing machine that water may not reach the center of the load.

The key to this type of linen is to have enough goods in the washer to provide good mechanical action and effective cleaning. Underloading the washer will cause the linen to float on the water’s surface; overloading will end up producing no mechanical action at all. We have found that a general rule of thumb is to start testing at 70% of rated capacity.

The most effective way to wash linen is to do it right the first time. The wash room is not an area where you want to try to save money. Poor-quality washing will result in unhappy customers, higher labor costs and higher linen-replacement costs. Since labor and linen represent two of the largest expenses in a linen rental plant or in-house laundry, we should focus our attention on managing these costs.

It is for this very reason that I personally despise the use of guaranteed cost-per-pound-of-linen wash-room chemicals contracts. I want to be able to exercise my managerial control and to dictate the quality level coming out of my wash process. I want to be able to reduce my labor and linen replacement costs.

Many fixed-cost-per-pound contracts end up using far too much chlorine bleach (extremely inexpensive) and less-than-desirable amounts of alkali and detergents. Instead of having a chemical representative trying to find ways to make a profit on his or her fixed-price contract, I want them spending time trying to keep my quality up, my replacement costs down, and my productivity high. I personally believe that these are two entirely different types of service and are mutually exclusive.

The next area to focus on in the wash room is turnaround time. How long does it take from the time a wash cycle is completed until the next load is started? This is extremely important for conventional washers but also should be looked at for tunnel washers (hold time).

We track turnaround time for every load on our conventional washers, and have found that having a place to unload the washer into “ready” and “waiting” helps reduce turnaround time. Having the next load prepared and ready to be loaded also reduces this time.

When we first starting looking at turnaround time, we found that we were not doing a good job when it came to processing traditional wet mops. Housekeeping was bagging the mops in plastic bags and sending them to the laundry. Our soil sorters set these bags to the side until there were enough for a wash load. The cart was then taken to the wash room where, after the washer was emptied, the wash person would slowly open each bag and place the mops into the washer. This system required 30 minutes to load the washer. By having the soil sorters remove the mops from the bags and sort only the mops into the carts, we were able to greatly reduce the amount of time it took to load the washer.

Running a tunnel washer faster than the dryers can handle the linen causes the tunnel to go on “hold.” To me, a tunnel on hold is wasted time. It is better to lengthen the tunnel wash time per pocket than to allow it to constantly go into a hold situation. Proper scheduling of the linen mix going through a tunnel can help keep the equipment running smoothly. Next time, I will discuss tunnel scheduling.

November 27, 2012

OMAHA, Neb. — Angie McGee realizes her dream to upgrade and modernize her company’s processing facility

OMAHA, Neb. — Angie McGee, the owner and CEO of Spin Linen, recently realized her dream to upgrade and modernize the company’s processing facility. The manual and labor-intensive operation started in 1932 and purchased by her father and grandfather in 1979 is now a modern, efficient plant.

McGee recognized that for her business to compete in the ever-expanding healthcare market in the region, she would need to reinvest. Modern, more efficient wash room, finishing and material-handling equipment were all evaluated during the critical decision-making process.

FINDING THE ROOM

She enlisted the assistance of American Laundry Systems (ALS), and the project presented the commercial laundry design/mechanical contracting firm with some challenges.

First was to find room in an already crowded and cramped facility. The simple answer was to build an expansion and make that area the starting place for the retrofit, but ALS quickly concluded that it wasn’t financially feasible (with building/expansion costs in the $75-$100 per square foot range), and that dealing with the City of Omaha could be difficult, especially considering Spin Linen’s proximity to a nearby bridge. Having to add parking spaces to bring the facility up to code, along with the building expansion issues, led ALS to look at other alternatives.

By adding/expanding to a more modern sorting deck with additional overhead storage for customer bags and sorted soil classifications, ALS was able to find the room to expand the wash room. The firm’s design changes would allow Spin Linen to use the “cube” (height as well as length and depth), and so ALS went to bid with material-handling vendors for additional monorail storage and superstructure. With the help of Bobco Systems, ALS completed that part of the design so that it could start reorienting the various pieces of equipment in the plant.

ADDING A TUNNEL

A local on-premise laundry in a nearby hospital had closed its doors just prior to the project/design phase, and its equipment became available for purchase. With ALS’ help, McGee negotiated a deal with hospital administrators. ALS “de-rigged” the facility and placed the equipment into warehouse storage. Part of the equipment package was a Milnor CBW® system with hydraulic press, shuttle and batch dryers. Only one existing conventional washer was removed and replaced with the high-production tunnel system.

Adding a tunnel washer to a conventional plant brings different challenges. Smooth workflow to and from the tunnel is needed to avoid bottlenecks that could hamper its performance. ALS accomplished this by repositioning the entire finishing department. Turning the ironers and small-piece folders, along with using a common takeaway conveyor, helped bring work to a common/central area for cart makeup.

Turning the ironers 90 degrees created enough space between them and the tunnel dryers to efficiently stage work behind the feeders. This also reduced cart pushing and associated labor.

Adding a tunnel washer meant that the plant’s wash capacity per hour would be increased. It had to be balanced on the finishing side with either equipment upgrades or additions so bottlenecks could be avoided. A small ironer was replaced with a larger machine and high-production feeders were added to keep up with the extra work coming from the wash room.

SUPPLY AND DEMAND

When utility consumption was analyzed, it was determined that the plant’s steam, air and water demands had all increased. The existing steam boiler was replaced with a new, efficient boiler. Spin purchased a new air compressor, and the existing compressor was re-tasked as a backup or for use during high demand. The water softener was upgraded to ensure water quality would not be compromised by the added workload.

At the time of the retrofit, the process water system was already taxed by the earlier addition of larger conventional washers for which it was not designed. The plant would need bigger water and sewer lines to keep up with the added workload, resulting in huge project costs due to impact fees and other charges. This challenge was answered by using bigger buffer tanks for process water and better controls to keep the water demand balanced during the work cycle.

Spin Linen purchased a refurbished TEA process water tanks and pump set to project costs down. With TEA’s help, and some new parts, the system was as good as new.

After reviewing the existing Kemco wastewater system, it was decided to keep the hardware (wastewater pump, heat exchanger, four-way valves, etc.) but upgrade controls. The new Kemco controls ensured the tanks didn’t overflow, and the heat exchanger and energy reclamation system worked properly to extract useful Btu out of wastewater to keep the system in a steady state.

The synergy of the TEA-Kemco process water system worked well, ALS says. The larger pumps and larger process water lines to the wash room reduced fill time at the washers and improved equipment efficiency. All new utility headers (water, steam, steam return, and air) were engineered and installed by ALS to meet the new demand as well as future growth.

CART WASHER CHALLENGE

Another challenge in converting the linen plant to do healthcare work was to add a cart washer. Why? Because the same building footprint that has added a new tunnel washer, shuttle, hydraulic press, four batch dryers, larger control panel, larger ironer, a feeder, process tanks, water softener and an air compressor would have to accommodate it without an addition/expansion.

The ALS design team was able to find a location where the cart washer would complement the overall plant workflow process and make sense. After consulting with Spin Linen’s management team, the ALS installation crew built a custom cart washer that cost 50% less than a conventional cart washer. The only downtime, less than 48 hours, was required to cure the concrete before the water was turned on, according to the company.

THE RESULTS

Overall, ALS designed and engineered the plant retrofit; assisted Spin Linen in equipment selection and negotiating equipment contracts; demolished and disconnected old/existing equipment; installed new equipment and relocated existing equipment; installed new mechanical infrastructure, new process water equipment, new boiler system and new tunnel washer system; and designed/built a new cart washer. The company provided complete project management and supervisory services, as well as coordinated all subcontractor activities and equipment deliveries.

Before the project, Spin Linen was processing 85,000 pounds of mixed linen per 40 hours at a rate of 2,125 pounds per hour (85-90 pounds per operator hour), ALS says. There was no room to grow or expand without adding work hours or a second shift.

Today, Spin Linen has a production capacity of 3,600-4,000 pounds per hour. Proper workflow design and better use of material-handling equipment has improved pounds-per-operator-hour performance. Energy efficiency is better thanks to the tunnel washer system, boiler and process system controls. And Spin Linen can now process mixed linen and healthcare linen under the same roof.

The entire retrofit project was completed for less than $1.2 million and without shutting down the plant.

October 17, 2012

CHICAGO — Input from textiles, hotel/motel/resort, and at-large sectors

TEXTILES: TOM LANGDON, ENCOMPASS GROUP, MCDONOUGH, GA.

tom langdonApproaching this issue from a textile sourcing and laundry processing point of view, we see varying degrees of linen abuse, depending on how our customers process. With the development of more resource-saving equipment, the linen has to be more durable today that it has in the past. For example, most of the newer tunnel washers reuse water from the first cycle, and if linen (especially apparel) is not colorfast, you can end up with cross-contamination staining on other items.

Everyone throughout the supply chain is cost-conscious, so one of the first steps is making sure your linen has been properly processed when you receive it.

There have been instances in which PVA (polyvinyl alcohol) used in the weaving process was not completely removed in the finishing process. This can end up creating a buildup on flatwork ironer equipment. Depending on the process, this linen may process fine in one laundry and create havoc in another. PVA is water-soluble and disperses in wash temperatures of 160 F. It can redeposit on the linen, however, if not thoroughly rinsed.

The second step is to test suspect linen for abuse. There are ways to determine if the fibers have been damaged through chemical or excessive heat during processing. One method is the Fehling’s solution test. This process can detect the presence and amount of certain chemical residue that can damage cellulose fiber, primarily cotton. If these fibers become damaged, they weaken and will wear out prematurely.

Historically, the primary test for evaluating linen durability has been the AATCC 1961-IVa method for Colorfastness to Commercial Laundry. This test is becoming outdated with regards to the healthcare industry. It calls for a 2% solution of chlorine bleach, and most of our industry has moved away from chlorine in favor of hydrogen peroxide or other less aggressive chemistry in efforts to extend linen life. The industry or related agencies need to develop and publish an updated test method that includes the newer formulas and equipment being used in the industry.

The third step is to evaluate your linen. You could be using the wrong type, construction or blend. The move to higher-content synthetic fibers has raised the bar for the life expectancy of today’s linen. If you try comparing a 100% cotton bath blanket or terry towel to a blend, you will see a significant difference in life expectancy.

The fourth and final step is to be an educated user. Many of you that have been around a long time may be familiar with some of the information I’ve covered. But those of you who are less experienced should enlist your linen provider’s help. Your provider can help you get acquainted with the techniques and quick checks to help manage your linen purchases and usage. Also, check with your chemical supplier, as many can provide a troubleshooting guide to linen abuse.

HOTEL/MOTEL/RESORT LAUNDRY: JR NORRIS, DELTA UNIFORM AND LINEN

JR NorrisIsn’t this the pot calling the kettle black? During almost 20 years in the restaurant business, I witnessed my fair share of regular linen abuse. Now, after being in the linen supply business for the past several years, and seeing the other side of this equation, I find myself cringing at the condition of items I see coming back. Some might think that’s a good dose of Karma for me, but I like to think my experience gives me an alternate viewpoint and advantage in identifying and solving the problem.

When items come back damaged or discolored, I try to identify where the abuse took place. I inspect the facility before approaching the client; the worst thing you can do is point the finger at the client without inspecting your facility and processes first (I learned that the hard way).

Sometimes during this process, I’ll even go so far as to climb into each of my machines to identify potential issues with the washing and drying process. I also try to identify if handling by employees is causing the abuse. If facility employees are causing the abuse, I spend time talking about how to prevent abuse, and I always make a point to share the item price. Once the employees understand what it would cost them to replace the damaged item, the carelessness stops.

Another way to identify potential problems is to witness item delivery. I ride along with my route personnel weekly to try to identify if improvements can be made to prevent products from being damaged during distribution. I watch them load their route trucks to see how they treat all products, and I try to identify other contributing factors. I have been able to find and make repairs to trucks that had sharp edges and to screws that were tearing goods or had that potential.

If it turns out to be an issue on the client’s end, we typically use the main rule of baseball: three strikes and you’re out. This doesn’t mean that we stop servicing the account after three strikes. It just means we find a different way of getting the point across.

First, we send back the damaged item with a sticker indicating the item’s intended use and what we believe to be the inappropriate use. When it comes back abused a second time, one of our managers personally visits the client and reiterates that training is needed to prevent the product damage from continuing to happen. Last, we charge a replacement fee if/when it happens a third time.

Depending on how the bad the items are, sometimes we skip the three-strike rule and charge for the linen immediately. Because we operating a weekly linen rental business, we have to make sure the customer understands that there are financial consequences for recurring linen abuse.

Remember, it’s all about getting back to the basics and training. Always give your employees and customers the proper tools and information to be successful.

MEMBER AT LARGE: DOUGLAS STORY, SWISHER HYGIENE

douglas storyKnowledge is king! The more a customer knows about the cost of linen and what happens when the linen is damaged or lost, the more likely they will be tuned in to the need to protect this asset.

We are in a service industry, and part of our regularly scheduled service program should be to train the customer on how they can control costs via efficient use of linens; protecting their linen from abuse and loss should be part of that program. Training should include:

  • Identifying sources of abuse (chemicals reputed to stain or damage linens; bleach, acids or mechanical devices that can cut linens or cause them to tear; etc.)
  • Physical samples of abused linen from the same or similar facility
  • Actual breakdown of what it costs to replace a damaged or lost item
  • The presence of upper management and “direct contact” workers

When linen is found to have abuse stains or damage, the items should be taken to the facility and become part of the training and education process. The sooner this is accomplished within a customer service contract, the quicker the abuse can be minimized. Allowing prolonged abuse only creates a situation in which abuse becomes a hard-to-break habit.

About the possibility that you’re abusing the linen during processing and/or distribution, the answer is yes. The same training program used for customers should be implemented with staff and employees of the laundry operation.

Floor drags and drops, equipment tears, caster stains, mildew stains, etc., are just a few of the abuse issues that can occur if laundry operations are not following proper procedures or the plant is using malfunctioning equipment.

Enhanced quality control programs in which everyone is trained will aid to minimize linen abuse in a facility.

Check back Tuesday for the third and final part!

September 11, 2012

COLORADO SPRINGS, Colo. — The solution: a hybrid tunnel design utilizing 1,600 pounds of existing conventional wash capacity

COLORADO SPRINGS, Colo. — Water is a big deal in Colorado. Discover Goodwill of Southern and Western Colorado, which operates the Fresh Start mixed plant laundry here, was using almost three gallons of water per pound of laundry processed. Management knew it had to make some changes in order to stay competitive in the marketplace.

DESIGN TEAMS TUNNEL AND CONVENTIONAL WASH AISLE

Over the years, Fresh Start’s conventional wash aisle had grown to 10 machines totaling of 2,250 pounds of wash capacity, but many of the washers were past their normal service life. Heavy soil drove the high water usage. In 2011, the local water utility announced a 300% rate increase to be phased in over three years.

With anticipated growth opportunities also in the mix, a new tunnel washer system made sense, but a significant portion of Fresh Start’s seasonal business included military goods that weren’t compatible with tunnel processing. Staying conventional and installing a state-of-the-art water-reuse system was also under consideration. 

Fresh Start needed a wash aisle that used less water, capacity to double production capability, and significant conventional washer capacity. Available space would not accommodate a full tunnel system plus the conventional wash capacity needed. And the capital cost of new conventional washers plus water reuse was significant.

The solution: a hybrid tunnel design utilizing 1,600 pounds of existing conventional wash capacity. A shared manual gravity rail would service a new line of high-production 450-pound dryers. The shared-dryer design provided adequate dry capacity for the tunnel and conventional washers in a shared space.

COORDINATION IS KEY TO KEEPING DOWNTIME TO MINIMUM

A major equipment change can shut down laundry production for weeks or even months, so with the business in growth mode, this was a concern.

Project scope included major steam, water, electric, HVAC, and air-supply modifications. New roof penetrations were required, old walls had to come down, and installation of new walls and barriers was needed to maintain functional separation between soiled and clean areas. Old dryers and washers would be rigged out before new equipment was brought in and installed.

Fresh Start selected Kannegiesser USA to deliver the equipment and installation solution it needed. Tony Jackson, Kannegiesser’s sales manager, organized a team of local industrial contractors, and the project was squeezed from eight weeks of plant downtime to just three.

“We settled on a very aggressive installation schedule,” says Jackson. “We needed a good collaborative effort to meet the time line goal for full production, and everyone delivered.”

New equipment included a Kannegiesser PowerTrans 10-compartment (165 pounds capacity in each) tunnel washer, Kannegiesser PowerPress 56-bar extraction press, Gardner Machinery heavy I-beam rail system, three CLM 450-pound capacity industrial dryers, and six ADC dryers.

Mech One was responsible for all HVAC and ductwork. Much of the material was pre-fabricated in advance of the equipment delivery. It designed and built modular ductwork above the roof that transitioned the hot dryer exhaust parallel with the roof. While sturdy, the design allows for easy disassembly, providing interior inspection access.

Olson Plumbing & Heating consistently stayed ahead of their schedule commitments for air, gas, water, drain and steam, according to Jackson, and successfully troubleshot a last-minute issue to ensure proper gas pressure was available for the plant’s larger gas utility load.

The new electrical requirements required a block-wide power shutdown to install the new service.  Electric Services of Colorado mobilized during early weekend hours and made the transition seamless for Fresh Start and its affected neighbors.

MATERIAL-HANDLING SYSTEMS ENHANCE ERGONOMICS, SAFETY

Ergonomics and safety were also primary goals of the laundry renovation. Fresh Start employs disabled individuals throughout the laundry. Helping them reach their highest level of personal and economic independence is central to the mission of Goodwill.

Utilizing a manual conveyor on the back side of the tunnel eliminated the safety hazards of an automated shuttle; the conveyor inclines to load press cakes to the dryer rail. The heavy I-beam rail design allows up to three cakes—a full 450-pound dryer load—in each sling. Manual rail can work even when ceiling height is not sufficient for automated rail technology.

Where once dryers had been manually loaded from carts, the new clean rail provides faster, easier dryer loading. The dryer rail also provides nearly 7,000 pounds of staged storage between the tunnel and the dryers. Rail staging can increase tunnel production by eliminating system holds associated with “waiting for dryers.”

The system performed right from the beginning, says Vae Lafano, laundry project manager at Fresh Start. “Summer is our busiest season. The new laundry design shortened our seasonal wash-aisle production by six hours a day. They told me that the tunnel would put pressure on the finishing side of the plant, and it has.”

And how’s the water usage? In the first two months of operation, Lafano reports the tunnel water consumption is averaging 0.5-0.6 gallons per pound. Good news for Fresh Start, and good news for Colorado.

July 31, 2012

CHICAGO — Engineering, construction and consulting firms weigh in on design basics and more

CHICAGO — Your company is weighing its laundry services options, and pursuing a new plant is a possibility. So what should the average laundry manager know about plant design?

American Laundry News recently invited several engineering, construction and consulting firms with laundry services expertise to respond to some questions about this issue.

ALN: Is there a basic design template that will work for virtually any institutional, industrial or commercial laundry, or is each and every plant’s design unique?

DAVID BERNSTEIN, SENIOR VICE PRESIDENT, TURN-KEY INDUSTRIAL ENGINEERING, CHARLOTTESVILLE, VA.

All institutional, industrial and commercial laundries share certain common design elements (e.g. the need for washers, dryers, finishing equipment, etc.), but outside of those common elements, every laundry design is unique.

Laundry design is dictated by a wide variety of factors, including safety of production employees, the current and future product mix, throughput requirements, local regulatory constraints, and, of course, the budget.

There are certain situations in which a basic design template can be used successfully. Operators who have multiple plants processing essentially the same product mix have for years been successful at duplicating the basic design of a plant in other locations. In these situations, the engineering and design teams simply calculate the current and future production needs of the new facility, and scale the quantity of equipment and the associated building size to meet those needs.

BOB CORFIELD, PRESIDENT/CEO, LAUNDRY DESIGN GROUP, PHOENIX, ARIZ.

If all the business conditions are the same or similar, yes, there can be a general template for design. Large national companies work hard to achieve this by staying highly focused on certain markets. But as the mix of work, type of customers, physical space and growth requirements or restrictions are considered, each plant takes on its own personality.

ED KWASNICK, DIRECTOR OF BUSINESS DEVELOPMENT, LAUNDRY DIVISION, ARCO/MURRAY NATIONAL CONSTRUCTION CO., OAKBROOK TERRACE, ILL.

From 30,000 feet, the production flow and departmental functions for all laundry facilities are similar. They each receive soiled goods, sort the goods by classification, wash, dry, finish, store the goods for delivery, load the clean goods on vehicles, and deliver them to the customer. But that is where the similarities end.

Each laundry must be custom-designed to meet its unique needs based on these issues: type of goods (healthcare linen, hospitality linen, food and beverage linen, industrial garments, mats); rental vs. COG; manual vs. automated systems; single-shift vs. multiple-shift operation; high quality vs. high output; and project budget.

All of these factors must be carefully considered when developing a plant design, and the design must be customized to meet the needs of the operator and their customers.

GERARD O'NEILL, PRESIDENT/CEO, AMERICAN LAUNDRY SYSTEMS, HAVERHILL, MASS.

No, there is not a basic design template that will work for all. Every plant is unique and has different needs. The design will be based on the work load, type of work to be processed, space available, processing needs, future growth, hours of operation, available utilities, local codes/restrictions and, of course, available budget.

GLEN PHILLIPS, P.E., PRESIDENT AND SENIOR ASSOCIATE, PHILLIPS & ASSOCIATES, MINNEAPOLIS, MINN.

Phillips and Associates follows a step-by-step flow diagram for laundry design projects: 1) develop the total annual processing load by pieces and pounds, 2) determine the number of operating hours per week, 3) determine the hourly production requirements, 4) determine space requirements, 5) develop equipment needs, 6) develop labor staffing requirements, 7) develop space cost, 8) develop equipment costs, 9) develop labor costs, and 10) develop a complete financial package: total capital costs, total operating costs, and two years of cash flow.

ALN: What factors dictate just how much square footage a laundry requires?

CORFIELD

Again, it depends on the type of plant and whether or not it serves one customer (an in-house hotel or hospital) or outside customers, and is rental/pool linen or COG processing. If healthcare, do the end-users do bulk delivery, exchange cart, or a combination?

For healthcare, the best formula I have used successfully is 350-500 pounds per square foot, per single shift. So, a 14 million pound hospital plant would be about 38,000 square feet for production plus another 12-18% for employee spaces and offices (estimate 44,000 square feet). Space is also added for other processing types, such as operating room linen. You can project growth either through added processing (equipment) or more hours. Then adjust your building size requirements accordingly. Keep in mind that the best way to expand a building during design is sometimes up and not out to manage cost constraints for land or construction.

KWASNICK

They include the level of automation, type of equipment, the number of shifts per day, operating days per week, clear height inside the building (low height means you are forced to use carts to work in process and move items from department to department; carts require space for staging and travel), and type of laundry (healthcare vs. industrial vs. hospitality vs. mixed).

O'NEILL

Type of work to be processed, amount of growth that is estimated, hours of operation, and type of equipment that will be installed. The level of automation that any plant considers will also greatly influence the square footage needed. We at ALS believe in using the “cube” of any building. This cuts down drastically on the square footage needed to carry out the process.

PHILLIPS

Anyone who is involved with planning a laundry, whether it be in-house or a remote stand-alone facility, has to enter into the discovery process about all sorts of things. Among those discussion points are each of the items mentioned in my answer to the first question. Developing the total annual processing load and determining the operating hours per week and hourly production requirements must be done before attempting to determine space requirements. The driver to/of the entire process is development of the hourly production requirement. Once that number has been determined, everything beyond that point becomes self-evident.

BERNSTEIN

Unless a client already has an existing building in mind for their new facility, we believe that the right way to design a new laundry is from the inside out. In other words, understand and formulate the processes that will be involved in the operation of the new facility; understand the current and future equipment, staffing and infrastructure needs; and then design the building around these elements. In this way, we are able to minimize the amount of wasted space, while ensuring that we’ve designed a safe, productive, efficient and sustainable operation.

ALN: If an institution or business designing a laundry is eager to take advantage of the latest laborsaving and resource-conserving technologies, what might some of them be?

O’NEILL

Tunnel washer technology; high-speed thermal ironer systems with high-production feeders, folders and stackers; soil and clean monorail system (automated or hybrid systems); and smart conveyors will be some of them. The “steamless” concept is also one that should be closely looked at. Having been a big proponent for many years and having now built four steamless or “less-steam” plants, we feel that is a huge resource/energy conservation idea. The advent of wide presses has also had a large impact on the energy conservation ideas in our industry.

KWASNICK

Here’s a list of old tried-and-true technologies that continue to prove their worth: heat reclaimer, stack economizer, water reuse system, and water recycle system.

And here some of the newer technologies to consider: high-efficiency modular boilers, self-contained thermal ironers, wide ironers, new tunnel washer technology that uses less water (aka Milnor’s PulseFlow), RFID technology, production tracking systems, press-to-dryer rail system (provides additional buffer storage between the tunnel press and dryers, and allows you to use fewer dryers), automated bagging machines, and automated wrapping machines.

PHILLIPS

Without going into a lengthy, drawn-out discussion, some of the thoughts our firm delve into are:

1. What type of productivity does the owner want to achieve?

2. What is the owner’s desire in designing a new plant? Stated another way, what is the “hot button” desired by the owner?

3. If it is a reduction in linen losses, then discuss RFID. If it is a reduction in utilities, then discuss 80% water reduction. If it is to reduce the number of accidents, then discuss material-handling systems. Just about every conceivable idea becomes a discussion point and something to serve as a goal.

4. In this time of LEED, then discuss with the owners the power of conserving energy via the building envelope.

BERNSTEIN

Some of the most significant innovations in equipment over the past decade or so have come from Europe, where the cost of labor continues to skyrocket. Examples of laborsaving technologies include highly automated wash rooms, garment auto-sortation systems, load-on-rail soil sortation, RFID technology, and remote ironer feeding/queuing. As might be expected, an added benefit of using these technologies is an increase in employee health and safety, as well as increases in quality, accuracy and productivity.

Among gas-saving technologies are high-efficiency boilers, modular boiler systems, direct-fired hot water heaters, better extraction technologies to reduce the number of dryers and dry times, and the wide variety of heat reclamation technologies, including those that reuse heat from wastewater.

Another such technology, so-called “steamless” plants, is one that has gained a lot of attention over the past couple of years. The idea is to eliminate the need for steam, and therefore boilers, to heat water, ironers and other finishing equipment. When properly applied under the right circumstances, the energy savings can be striking.

Every wash room should be planned with an eye toward water reuse; this goes for conventional and tunnel washers. And don’t forget the fleet. There are a wide variety of energy-efficient vehicle technologies that should be considered, including EV, hybrid-electric, hydraulic-hybrid, diesel hybrid, and natural gas power plants, and composite or plastic bodied vehicles.

We should note one important caveat. Every situation is unique, and before a technology is applied or specified, we strongly recommend the performance of a cost-benefit analysis to ensure that there is a return for every investment. There is a wide range of technologies available, each with its own “gee whiz” and “coolness” factors, but what works in one operation may not necessarily meet the needs, requirements or vision of another.

CORFIELD

This would include any machine or system that reduces the number of “touches” required in packaging, finishing or transporting product. So, conveyors (belt or rail), pickers, auto strapping/wrapping, auto sorting, and stack transport systems are all high-value considerations.

Resource conservation should be a goal, but should not compromise production or quality. Wastewater heat recovery is essential, new high-efficiency dryers can use half the energy of old dryers, and if you have a tunnel, then upgrading your press is a great decision.

ALN: What effect does the type of goods that a laundry processes, or is going to process, have on the plant’s design?

KWASNICK

It has a tremendous effect on laundry design because it affects the type, size and location of equipment. Traditional linen products (e.g. tablecloths, napkins, sheets, pillowcases, etc.) are handled differently than industrial goods (e.g. uniforms, mats, shop towels, etc.). Soil processing for linen requires dedicated soil-count and soil-sort systems that are highly efficient at separating and counting linen pieces. This is typically not the case for industrial goods.

Linen plants can use tunnel washer technology with an extraction press, where industrial or mixed facilities with tunnel washers will typically use centrifugal extractors. Garments require steam tunnels and presses for finishing. However, linen is finished on an ironer or folded after drying. Flat goods are folded and placed in carts for storage and delivery. Garments are placed on hangers and placed on rails or trolleys for storage and delivery.

Large linen plants with tunnel washers and steam ironers require large boilers and mechanical rooms for those boiler systems. Plants that process only mats require hot water for washing, but no steam. Therefore, they don’t need boilers or traditional boiler rooms.

Healthcare plants also need to comply with new guidelines for soil/clean separation, airflow requirements, PPE requirements and other issues that non-healthcare plants do not need to address in their plant design.

Rental plants can process large batch sizes due to consolidation of like goods, while COG plants must process in smaller batches as they strive to keep customer products separated. Large vs. smaller batch sizes will determine the type and size of washroom equipment as well as flow through the finishing department.

As you can see, all of these issues have an impact on space, production flow, and plant design. And these examples barely scratch the surface.

BERNSTEIN

The type of goods being processed is an extremely important factor in determining the design and requirements of every new plant. Prior to putting pen to paper (or mouse to AutoCAD, as it were), there needs to be a detailed analysis of the products and associated volumes to be processed at start-up and at a future point in time. Every single classification, no matter how small the volume, needs to be included in this data-collection phase so that a laundry capacity analysis can be created and used to determine the new facility’s requirements for equipment, space, staffing and infrastructure.

CORFIELD

Healthcare plant vs. hotel plant design can be somewhat similar, with healthcare having 5-15 times more classifications to process. But healthcare is considerably more complex.

General linen (F&B, kitchen), industrial uniform, medical retail, and dust control all have elements that make their designs unique. All have a scale of volume for certain classes of linen or uniforms that makes sense for certain types of automation, washing or waste treatment. Each will also have specific compliance and regulatory issues that can impact design as well.

O’NEILL

Type of goods that a laundry process has everything to do with plant design. It dictates what kind of equipment is required, type of work flow, overall building height, amount of space required at the soil and clean sides, physical separation requirements, etc. For example, an F&B/mixed plant will need a lot more soil-sort classification compared to a hospitality/linen plant. A healthcare plant will need soil/clean separation while a linen or F&B plant will not.

PHILLIPS

Essentially that is one of the very first questions that must be discussed and resolved. If an end point cannot be reconciled on that point, then all other discussion points comes to a halt.

Tomorrow in Part 2: Renovation vs. building new; the biggest challenges; latest trends; and some final nuggets of wisdom

July 18, 2012

CHICAGO — Input from equipment manufacturing, healthcare laundry and chemicals supply sectors

EQUIPMENT MANUFACTURING: KIM SHADY, LAUNDRYLUX CORP, NEW YORK, N.Y.

kim shadyLoading capacity of washers and dryers is quite ambiguous. I was recently in a laboratory with multiple brands of washer-extractors. One of my objectives was to determine load size vs. rated capacity and the effects of under-loading.

The first laboratory result proved that based upon weight, you cannot load a washer beyond the rated capacity of the machine. In fact, it is difficult to place 50 pounds of dry terry cotton towels in a 60-pound washer. In nearly every machine tested, based upon weight, a machine will accept only 85% of the rated capacity. On some washers, because of the shape of the drum, only 75% is achievable. If you test poly/cotton sheets, the weight of the load is even less, as the polyester material has less weight for the amount of volume or space it takes in the wash wheel.

The lesson learned: Don’t expect the actual weight of a load to be equal to the rated capacity of the front-load washer-extractors.

The second laboratory test was to determine what happens when a small load (50% of capacity) is run in a washer. The results demonstrated the water used per actual pound of linen increased. Hence, it is more costly per pound to process. Also, the chemical dispenser did not know the load was smaller, again causing the cost per actual pound processed to increase.

Third result in the test was the washer’s ability to balance the load and advance the cycle to extraction. In some washers, there were multiple attempts to balance the load prior to extraction. This wasted time and water. In some cases, the washers never reached an acceptable balance level and the extraction speed was reduced, hence more residual moisture and longer drying times. As you can see, under-loading is expensive. And more loads per day must be processed, adding even more water, energy and labor costs.

We also tested load sizes in dryers. The objective was to determine drying time and energy cost for terry towels in a fully loaded, 60-pound-rated capacity washer in two different-sized dryers (capacities of 67 pounds and 83 pounds). The test results proved the larger dryer was faster and used less energy to dry the identical load.

At the end of the day, washers can’t be overloaded, while under-loading will significantly raise the cost per pound processed. Dryers can be overloaded, having the same effect on higher costs as under-loading washers.

At the end of the day, supervision and processes are critical. Unless, of course, the washers are smart enough to override human error!

HEALTHCARE LAUNDRY: SCOTT BEATON, KAISER PERMANENTE NORTHERN CALIFORNIA

scott beatonOne of the most important variables affecting wash quality results is mechanical action. Much of the mechanical action controlled by the laundry is affected by loading practices within a given size and type of washer.

Washer loading is expressed as pounds of fabric per cubic foot of cylinder volume. Loading varies with fabric type and with machine type. Overloading and under-loading can affect soil removal and fabric strength and create excessive wrinkling. It can also influence the costs for labor, chemicals, water and energy.

In order to provide consistent standards, load factors are normally based on the weight of clean, dry fabric processed.

Overloading is not conducive to good laundry performance. Supplies cannot be distributed properly throughout the load, and the tightly packed condition of the textiles impedes dilution, lowers soil removal, and results in poor mechanical action.

Additional water levels per operation and longer rinses may be required to remove loose soil and chemical supplies remaining in the load. If these additional steps are not employed, loads may require rewashing.

Overloading of continuous batch tunnel washers may result in jamming up the machine and halting production. Under-loading also can result in poor performance due to less mechanical action and can lead to excessive costs.

Some fabrics must be under-loaded because of their bulk as compared to their weight. Garments containing polyester blends typically are loaded at 3.5 to 4.5 pounds per cubic foot to minimize wrinkling and provide for easier finishing.

All in all, load weights should be determined for each individual plant per machine by weighing soiled loads and comparing the soiled weight to the clean weight for the same load after processing. If proper soil sorting is being practiced, the ratio (soil weight/clean weight) should be consistent by classification/machine and need only be recalculated periodically.

CHEMICALS SUPPLY: MARLENE WILLIAMS, ANDERSON CHEMICAL CO., LITCHFIELD, MINN.

marlene williamsMachine load sizes are designed to optimize machine performance, chemical use, fabric wear, and performance outcomes. There are prices to be paid for load sizes that vary widely from recommended protocols.

Under-loading of machines is largely a matter of wasted resources rather than performance outcomes. Running less-than-capacity loads results in additional loads needing to be run to accommodate total laundry weights. Waste in water (and expensive heated water), chemicals, and labor raise the cost per pound significantly when loads are not full.

Performance is typically not a problem when under-loading unless chemical use results in high foam generation during light loads. Extra foam can result in poor mechanical action with subsequent poor results. In front loaders, high foam levels can result in foam being forced into machine areas that are not typically rinsed. This foam residue, if not cleaned during special cleaning cycles, can provide food for bacteria and accompanying malodors.

Under-loading dryers can result in poor drying or no drying if dryer sensors do not recognize moisture amounts from small loads.

Overloading, on the other hand, is a self-defeating process. A myriad of problems results from overloading, including higher number of rejects, more rewash, lesser quality (lesser soil removal), and setting of stains.

Negative selection, i.e. removal of some stains while leaving other stains to be set in the dryer, is a function of overloading. Lack of mechanical action results in soils not being put into solution and carried away from fabric, excessive fabric wear in some areas of the machine as fabric does not move, and problems with inadequate dilution of chemical resulting in over/under-dosing of chemistry depending on overload dynamics.

Add more labor, chemical, water and time to rewash problem fabric and it becomes clear that running standard load sizes optimizes the laundry process.

Click here for Part 1!

May 3, 2012

ROANOKE, Va. — Increasing number of quality servings decreases cost

ROANOKE, Va. — A surefire way to improve the bottom line of your business or department is to increase the life of your linen. Increasing the number of quality servings you get from each piece of linen will dramatically decrease your cost of operation.

I recommend that the first step to increasing your linen life is to review each linen item with end-users to make sure that it is the proper item for the intended use.

If a bath blanket is being used as a lift sheet, excessive tears will develop. Are bath blankets or thermal blankets being used in place of mattress pads? Linen users find creative ways to use our linen and unless we engage in regular discussions with them, we will be unaware of just how our items are being used.

Bargain patient gowns usually do not have the sweep and coverage necessary to properly maintain a patient’s modesty. Ambulatory patients often use two patient gowns—one covering the front and the other covering the back—to make up for this shortfall. By purchasing a larger patient gown that provides greater coverage, you can decrease uses of the item by 30-35% and thereby increase its effective life.

I also recommend that you meet with your chemical vendor and review your wash formulas to make sure you are obtaining proper levels of cleanliness without excessively washing the linen.

Mechanical action and chemical action cause most fabric degradation. Wash each classification in such a manner to keep rewash below 3% of total volume produced. Some laundries sort all heavily soiled linen together and give it a special wash. High levels of alkalinity attack the cotton fiber and the finish on reusable barrier linen as well as the soil. One key to longer linen life is to reduce the alkaline concentration of the wash formula. Using enzyme detergents instead of traditional detergents can be an effective alternative.

Management should review the procedures for determining the proper size of each wash load. Overloading will cause poor quality wash and excessive stains. I have seen laundries that maintained excellent written procedures for weighing loads but their daily practice did not mirror what was on the page.

Carefully review all damaged linen to see if a pattern of abuse or product failure is evident. Once a trend is discovered, corrective action can be taken to adjust product quality or construction or to provide in-service education for personnel working in use areas.

We recently had a problem with small holes appearing in the barrier backing of our incontinent pads. We were unsure of the source but wanted to first eliminate the laundry. While brainstorming the problems, we figured that it could be happening in one of a number of locations: the soil-sort belt, tunnel washers, tunnel press, tunnel dryers, or one of the small-piece folders.

We determined to test our system by using brand-new pads. Our first step was to avoid the sorting belt and put the new pads directly into a sling. We ran a load through our No. 1 tunnel, its press and one of its dryers. The test load contained a number of damaged pads. We also ran a load through our No. 2 tunnel, press and one of its dryers and did not find any damaged pads.

We then ran a load through the No. 1 tunnel and press. Upon inspection, again we found damaged pads. Finally, we ran pads through the No. 1 tunnel and bypassed the press. This procedure still resulted in a number of pads being damaged. (It is interesting that we have not noticed damage to any other linen items going through this tunnel.)

Our short-term solution was to move all the incontinent pads from the No. 1 tunnel, where they had always been processed, to the No. 2 tunnel. This required us to make other changes in our pick lists to balance out the demand for the tunnel dryers. After a visual inspection of the interior of No. 1 tunnel, we found several possible causes for the linen damage. Today, we are still running pads through the other tunnel.

Check all dryers to make sure they are operating correctly. Excessive heat can damage linen and cause it to have a harsh hand. Inspect door seals and interior air-deflection blades to make sure everything is working properly. Dryers with poor seals that allow room air to enter the dryer without going through the burner area can cause artificially low outlet-temperature readings. These readings will cause the linen to be subjected to higher-than-programmed temperatures.

Thermal fluid ironers should not be operated at temperatures above 375 F. Ironing at higher temperatures will result in the loss of size stability in polyester fibers. Once the heat-set polyester fiber is no longer size-stable, the laundry will experience higher-than-normal shrinkage. I have seen contour sheets that started at 88 inches in length shrink to 76 inches. Resist the temptation to iron at higher temperatures to increase productivity, because you’ll be creating linen shrinkage problems.

These ideas do not represent an all-inclusive list, but they give you a good starting point. Determining ways to extend linen life is a never-ending task but one well worth the time and effort.

December 14, 2011

DUBOIS, Pa. — ARCO/Murray National Construction Co. reports that it recently completed a facility expansion and equipment installation project for Paris Companies, a regional textile services company servicing the uniform and healthcare markets and led by CEO David Stern.

The project consisted of three expansions, totaling 14,000 square feet, to the DuBois healthcare facility originally built in 2008. Work included a new soil-dock expansion (tailored to Paris’ custom twin-level “super” trailers), finishing-area addition (creating more folding capacity, supplemented by installation of another ironer line), and wash-floor expansion (creating room for a new tunnel washer and dryers, plus additional soil storage rail).

Construction was completed while the plant was operating three shifts, six days a week, and Paris’ quota of 900,000 pounds per week was not affected, ARCO/Murray says. Paris had converted to three shifts earlier this year to cover increased volume. With the third tunnel washer operational in October, the plant was able to return to two shifts.

ARCO/Murray attributes the project’s successful completion to close coordination with Tom Walsh, Paris Cos. director of engineering, and CJ Spencer, the plant’s general manager.

Representing ARCO/Murray were Elliot Mata, project executive, and Anthony Lovero, project manager. The new wash equipment was procured through Frank Constable and distributor PAC Industries, and the material-handling portion was done with Jensen Futurail represented by Simon Nield.

July 27, 2011

OAK CREEK, Wis. — When Crothall Laundry Services officially opened its new 83,000-square-foot plant during a June 27 ribbon-cutting ceremony, it marked a couple of important firsts for the Crothall Healthcare service line.

The $13 million state-of-the-art facility is the first that Crothall has built from the ground up, and it is reportedly the first laundry in the world to certify (its processing included) under certain LEED (Leadership in Energy and Environ-mental Design) standards. And Crothall managed to complete the construction project—aided by many industry vendors—in nine months.

A hundred dignitaries filed into a tent erected in the plant’s parking lot to listen to congratulatory remarks from Bobby Kutteh, CEO of parent company Compass Group; Steve Carpenter, president of Crothall Laundry Services; and others before touring the gleaming facility.

The plant can process approximately 25 million pounds of clean linen per year in one shift or up to 50 million pounds annually on two shifts. Crothall claims it is producing efficiencies exceeding 150 pounds per operator hour.

Crothall built the stand-alone plant south of Milwaukee after Aurora Health Care decided that its Crothall-run campus laundry in Milwaukee would be converted to another use. The facility processes 18 million pounds annually for 17 hospitals. Crothall has been processing linen for Aurora Health Care since 2000.

ARCO/Murray National Construction Co. was responsible for all construction phases. Various manufacturers and Pellerin Laundry Machinery Sales Co. provided design, installation, start-up and training services. Herb Fitzgerald Co. assisted locally.

Three PulseFlow® tunnel washers (150-pound modules) from Pellerin Milnor Corp. supply the needed washing capacity. Their patent-pending technology incorporates top-transfer batch processing. On average, the system is capable of laundering healthcare linen at a water-consumption rate of approximately 0.45 gal/lb, saving Crothall roughly 8.5 million gallons—or 39% compared to the traditional tunnel washing process—annually.

The E-Tech soil-sort area utilizes continuous sorting on rail, featuring LED-display sort windows and computerized tunnel-load sequencing.

A press-to-dry rail system automatically carries 300-pound bags of clean laundry on rails overhead to any available Milnor dryer, replacing the traditional shuttle.

Next page: The new plant processes laundry without using high-pressure steam boilers…

March 31, 2011

“Cotton prices are incredibly high, and our textile suppliers are warning that they’ll continue to go up. Can you suggest some ways we can extend the life expectancy of the textiles that we process without completely sacrificing quality?”

Textiles: Elizabeth Easter, Ph.D., University of Kentucky, Lexington, Ky.

July 7, 2010

BOISE, Idaho — There is no mistaking the excitement in Randy Rhodes’ voice. Having spent most of his adult life working in the St. Luke’s Health System laundry, he can’t wait to talk about its pending relocation from the basement of a shared building to a state-of-the-art, semi-automated facility that will be three times larger.

“If we could move in tomorrow, we’d do it,” Rhodes says while speaking by phone about the just-started project.

June 30, 2010

Once upon a time, a laundry manager went away on vacation for several weeks. Upon his return to the laundry, he found the department way behind its regular work schedule. The laundry’s customers were unhappy, and orders were being shorted and filled several hours late. Liberal amounts of overtime were not solving the problem.

The manager immediately set out to look through his laundry in search of the one thing—the “Silver Bullet”—that would restore his operation to normal.

May 14, 2010

BISMARCK, N.D. — Central Dakota Hospital Laundry (CDHL) Manager Greg Lorenz was faced with a challenging question. When should he replace an efficient tunnel system that has been working well for many years? Lorenz got his answer when the financing that was available became too good to pass up.

With financing in place and approval from its board, CDHL looked to The Minnesota Chemical Co. for a new Milnor tunnel washer. The local distributor sold the original tunnel system back in 1992.

April 16, 2010

LAS VEGAS — Since it was formed a decade ago at the behest of a local hotel, Brady Linen Services has experienced remarkable growth, prompting not one but two laundry expansions. Its three facilities collectively process in excess of 100 million pounds annually here.

February 3, 2010

There are many options for getting textiles from Point A to Point B, whether the trip is 10 feet or 10 miles. Last week, we looked at carts and trucks. This week, we tackle material-handling systems and delivery vehicles.

MATERIAL-HANDLING SYSTEMS

Conveyors, shuttles, rail systems and many other devices are designed, and often custom-made, to help laundries get their goods through the system quickly and easily.

January 29, 2010

The importance of washer-extractors or tunnel washers paired with dryers to an institutional laundry or textile services company can’t be understated. Simply, no cleaning, no laundry.

But having the necessary cleaning equipment is only half the equation. If a laundry doesn’t have an effective means to transport soiled linen through its facility and transport clean linen to on-premise end-users or outside customers, then what’s the point?

January 20, 2010

DOTHAN, Ala. — As hospitals concentrate on meeting growing demands for healthcare while scaling down to address economic pressures, many are outsourcing their laundry operations (approximately 62%, according to the 2006 book Low-Wage America: How Employers are Reshaping Opportunity in the Workplace) to make room for additional critical medical services.

Laundry service providers must adapt to handle the increased volume, while also keeping in mind environmental considerations.

October 9, 2009

“In your experience, what are or have been the most stubborn stains to remove? What tips can you offer those of us who must contend with these most difficult substances that find their way onto and into our textiles?”

Consulting: Tom Mara, Victor Kramer Co., Oceanport, N.J.

August 1, 2009

Editor’s Note: Equipment installation in an existing laundry is rarely done without having to meet certain construction challenges. Charles Berge of American Laundry Systems, a full-service mechanical contractor catering exclusively to the commercial laundry industry, recounts his company’s latest project.

SAN FRANCISCO — American Laundry Systems (ALS) recently completed the second phase of a three-phase laundry renovation with Ellis Corp. here at the Hilton San Francisco.

July 24, 2009

“A laundry service is at a standstill — a key piece of processing equipment is out of commission, or a natural disaster has left the immediate area without power. What sort of contingency plan should a manager have in place to make certain his customers continue to receive clean goods in a timely manner?”

Long-Term Care Laundering: Albert J. Raymond, Healthcare Services Group, Bensalem, Pa.

February 6, 2009

WAYNE, Pa. — Hospital laundry facilities are the most promising sector for reducing consumption and lowering expenses without affecting patient care, Crothall Services Group reports in a recent issue of Celebrations, its company publication.

December 28, 2008

BINGHAMTON, N.Y. — Bates Troy Healthcare Linen Services recently opened a 14,000-square-foot plant expansion and unveiled a new G.A. Braun batch tunnel washer system during a ribbon-cutting ceremony, press conference and tour of the facilities.

The expansion retains 165 jobs and represents a $4 million investment in the local economy, Bates Troy says.

The Braun tunnel system — including a state-of-the-art tunnel washer, extractor press, shuttle, dryers and overhead rail system — now gives the company additional capacity.

May 27, 2008

BINGHAMTON, N.Y. — An extremely large piece of state-of-the-art technology required a wide berth as it was transported down the main streets of Johnson City and Binghamton to its new home at Bates Troy Inc., a provider of healthcare linen services.

The new batch tunnel washer, the first of its kind ever produced in New York state, was transported about 60 miles from manufacturer G.A. Braun of Syracuse, Bates Troy says.