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What the 2026 EPA HFC Rules Mean When You Buy Used Refrigeration Equipment

Outdoor industrial equipment: white insulated piping system with valves and gauges on a blue frame near a building exterior. Large rusted pipe lies in foreground.

Most coverage of the EPA’s hydrofluorocarbon (HFC) rules is written for facility owners who already operate a plant. If you buy used industrial refrigeration equipment, your exposure is different and arguably more immediate: you are choosing which compliance obligations to take on at the moment you sign for a machine. A compressor or condensing unit that looked like a bargain on a refrigerant basis can carry a leak repair and documentation burden that erodes the savings. This guide walks through what changed on January 1, 2026, which refrigerants now draw scrutiny, and how to factor all of it into a used-equipment purchase.

QUICK ANSWER

As of January 1, 2026, the EPA’s HFC leak repair rule covers any appliance charged with 15 or more pounds of an HFC refrigerant with a global warming potential (GWP) above 53, sweeping in roughly 971,000 additional appliances. If you buy used industrial equipment still running R-404A, R-507A, or R-407A, you inherit leak rate thresholds of 10 percent for comfort cooling, 20 percent for commercial refrigeration, and 30 percent for industrial process refrigeration, plus a 30-day repair clock once a threshold is exceeded. The practical effect is a retrofit-or-retire decision that increasingly favors ammonia (R-717) and CO2-ready systems.

What Actually Changed on January 1, 2026

The headline change is the leak repair threshold. The trigger charge dropped from 50 pounds to 15 pounds of an HFC refrigerant (or HFC substitute) with a GWP greater than 53. The EPA estimates this brings roughly 971,000 additional appliances into scope that were previously below the line. For industrial buyers, that means a far larger share of the used market now sits inside the regulated zone, including many condensing units, packaged systems, and medium-charge process equipment that used to fall under the old threshold.

Two mechanics matter most for a buyer. First, a leak rate calculation is required every time refrigerant is added to a system. The clock is triggered by that calculation exceeding a threshold, not by an inspector showing up. Second, once a threshold is exceeded, the owner has 30 days to complete and document the repair (120 days where an industrial process shutdown is required). If the repair cannot be made, a retrofit or retirement plan is required.

The Refrigerants in the Crosshairs

Several common HFCs and HFC blends carry GWP values that put them squarely under the rule. R-404A, long used in low and medium temperature commercial and industrial systems, has a GWP of roughly 3,922. R-407A sits around 2,107 and R-410A around 2,088. R-448A and R-449A, marketed as lower-GWP replacements, still land near 1,387 and 1,282 respectively. R-507A, another legacy low-temperature refrigerant, is in the same high-GWP company as R-404A.

On the used market, these refrigerants show up constantly. A decommissioned supermarket rack, a process chiller pulled from a food plant, or a packaged condensing unit may all be charged with R-404A or R-507A. The refrigerant in the machine is not just an operating-cost question anymore; it is a compliance question that follows the equipment to its next home.

Leak Rate Thresholds and Repair Clocks by Sector

The rule sets different annual leak rate thresholds depending on how the equipment is used:

  • Comfort cooling: 10 percent annually.
  • Commercial refrigeration: 20 percent annually.
  • Industrial process refrigeration: 30 percent annually.

Once the calculated leak rate exceeds the applicable threshold, the 30-day repair window opens (120 days where a process shutdown is needed to make the repair). Verification testing is required after the repair. For large systems above the size thresholds, automatic leak detection (ALD) systems are also part of the framework, with installation timelines that differ for new versus existing equipment. The takeaway for a buyer: the larger the charge and the higher the GWP, the more administrative weight the machine carries once it is in service.

The Retrofit-or-Retire Calculus When Buying Used

When you evaluate a used system charged with a high-GWP HFC, three variables drive the decision. The first is charge size, because it determines whether the 15-pound threshold is crossed and how expensive a recharge or conversion becomes. The second is refrigerant availability and price trajectory, since the broader phase-down is tightening supply of virgin high-GWP HFCs over time. The third is the cost and feasibility of converting the system to a lower-GWP refrigerant or to a natural refrigerant, which depends on the equipment’s materials, lubricant, and component ratings.

A practical way to think about it: a high-GWP HFC machine is not disqualified, but it should be priced with its compliance tail in mind. If the equipment is mechanically excellent and the charge is modest, it can still be a strong buy. If the charge is large and the refrigerant is one of the high-GWP blends, the conversion or compliance cost belongs in your offer math.

Why the Rules Are Steering Buyers Toward Ammonia and CO2

Natural refrigerants sidestep the GWP question almost entirely. Ammonia (R-717) has effectively no global warming potential and a decades-long track record in industrial refrigeration, which is why it remains the backbone of large cold storage and process plants. Carbon dioxide (R-744) is also exempt from the GWP-driven restrictions and is growing quickly in industrial applications. For buyers planning a system with a long service life, equipment built for or convertible to ammonia or CO2 avoids the moving target that HFC regulation has become.

This is part of why the used market for well-maintained ammonia compressors, vessels, and evaporators stays strong. Equipment that was engineered for a natural refrigerant carries no GWP-related compliance overhang, which protects its resale value as the phase-down advances.

A Status Caveat Worth Reading

The regulatory picture is actively shifting. The EPA’s Technology Transitions Rule, which governs GWP limits for new equipment in sectors like cold storage warehouses, is under reconsideration. Proposals have included raising the cold storage GWP threshold from 150 or 300 to 700 and delaying certain deadlines from 2026 to 2032. None of that changes the leak repair rule that took effect January 1, 2026, but it does mean that any specific deadline you rely on for a purchase decision should be confirmed against current EPA guidance at the time you decide. When the stakes are high, verify before you commit.

What to Ask a Seller Before You Buy

A short diligence list keeps the compliance tail from surprising you after delivery:

  1. What refrigerant is the system currently charged with, and what was it originally designed for?
  2. What is the full charge in pounds? This determines whether the 15-pound threshold applies.
  3. Is there a leak history or service record showing recent leak rate calculations?
  4. Has any refrigerant been recovered, and was it handled by certified technicians?
  5. Are the components rated for a lower-GWP or natural refrigerant if conversion is on the table later?

Refrigeration Equipment Pros works with buyers across food processing, cold storage, brewing, and industrial refrigeration to source equipment that fits both the application and the regulatory reality. If you are weighing a high-GWP HFC system against an ammonia or CO2-ready alternative, the right call depends on charge size, service life, and conversion feasibility, and we are glad to talk it through before you buy.

Frequently Asked Questions

Ready to source equipment that fits your application and the current regulatory landscape? Browse the inventory at refrigerationequipment.net, submit equipment through our Sell To Us page, or call 201-805-1441 to talk through a purchase with our team.

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Mycom Compressors in Industrial Refrigeration: Models, Applications, and Surplus Availability

Mycom N6WB compressor with 100 HP ammonia compressor

QUICK ANSWER

Mycom (Mayekawa) industrial ammonia compressors are widely used in food processing, cold storage, marine, and offshore refrigeration. The reciprocating lineup includes the A and B series (smaller plants, highly field-rebuildable) and the newer N series. The screw lineup covers the V series (single-screw legacy), the J series, and the modern SCV single-screw line. The SCV 200 VLD — a 204mm rotor diameter single-screw with side discharge — is one of the most-searched specific model designations in the surplus market. Mycom screw compressors range from approximately 276 to 2,259 CFM. Parts and service are supported in North America through Mycom International Refrigeration based in Texas.

Why Mycom Has a Distinct Position in Industrial Refrigeration

Mycom is the industrial refrigeration brand of Mayekawa, a Japanese manufacturer with global operations including a substantial North American footprint through Mycom International Refrigeration in Texas. The brand is consistently ranked among the top five global industrial refrigeration system manufacturers, alongside Frick, Vilter, Sabroe, and GEA.

What sets Mycom apart from the other major brands is its marine and offshore heritage. While Frick and Sabroe dominate North American food and beverage cold storage, and Vilter has carved out a single-screw niche for large industrial ammonia and CO₂ applications, Mycom is the one brand procurement professionals consistently turn to for vessel-mounted, dockside, and offshore platform refrigeration. That heritage carries into shore-based applications as well — Mycom equipment is heavily represented in food processing, beverage plants, and large cold storage facilities.

Mycom’s Reciprocating Lineup

The Mycom reciprocating compressor line is one of the most durable and serviceable in industrial refrigeration. The A and B series have been workhorses of smaller refrigeration plants for decades. Both series are highly field-rebuildable — meaning the compressor can be disassembled, inspected, and rebuilt in place using standard tooling, with valve, ring, gasket, and bearing kits widely available. For plants that prioritize the ability to service equipment without removing it from the floor, the A and B series have a distinct procurement advantage.

The newer N series modernizes the reciprocating platform with updated controls and packaging while maintaining the field-serviceability that has defined the line. On the used market, A and B series units are commonly available across a range of capacities, and N series units are increasingly part of the inventory mix as the older platforms are upgraded out of service.

Reciprocating compressors fit applications where multiple smaller units offer redundancy benefits over a single large screw, where the load profile varies significantly, or where the plant standardizes on reciprocating service practices. The Mycom A and B series in particular remain go-to options for small-to-mid refrigeration plants and marine applications.

Mycom’s Screw Compressor Lineup

Mycom’s screw lineup covers three generations:

The V series is the legacy single-screw line. V series compressors have a long service history and remain in active operation across food processing, cold storage, and industrial applications. On the used market, V series units are widely available.

The J series sits in the mid-range of the screw lineup, covering capacities appropriate for medium-to-large industrial applications. The J series is less common on the used market than the V series but remains in service in many plants.

The SCV series is the modern Mycom single-screw line. SCV stands for Screw Compressor with V-rotor (single-screw with vee-rotor design). The SCV model designations encode rotor diameter, rotor length, slide-valve type, and discharge orientation. The SCV series covers capacities from approximately 276 CFM to 2,259 CFM at standard conditions — making it suitable for everything from mid-range industrial plants up to large cold storage and process cooling installations.

Single-screw compressors offer balanced loads (the single helical rotor meshes with two gate rotors, distributing forces symmetrically), low vibration, and long bearing life. The trade-off compared with twin-screw is mechanical complexity in the rotor mesh, which Mycom has refined across multiple generations of the design.

The Mycom 200 VLD: A Closer Look

The 200 VLD is one of the most specifically searched Mycom model designations in the industrial refrigeration surplus market, which is why it deserves its own section. Decoding the designation:

  • “200” indicates the rotor diameter — 204mm.
  • “V” indicates the rotor length code.
  • “L” indicates the standard slide valve configuration.
  • “D” indicates side discharge orientation.

In short, the Mycom 200 VLD is a single-screw compressor in the SCV series with a 204mm rotor diameter, 337mm rotor length, side discharge, standard slide valve, and integral economizer and liquid injection ports. Typical packaged sizing is 250 to 350 HP at 460V/60Hz for ammonia service, with displacement on common configurations near 1,850 m³/h and maximum design working pressure of 300 PSIG.

Variants in the same family include the N200VLD-MX (M port discharge), N200VLD-MBX (M port booster), N200VLD-HE (economizer only), and N200VLD-HN (no economizer, no liquid injection). For procurement professionals evaluating a used 200 VLD, the variant matters as much as the base model — confirm which configuration you are buying. Common control panels paired with these compressors include the Mycom MYPRO-CP3 and MYPRO-CP4. Older packages may have been retrofitted with Frick Quantum HD or other third-party controllers, which is worth verifying before purchase.

Mycom Lineup at a Glance

Buying a Used Mycom: What to Verify

The general checklist for used industrial compressors applies to Mycom — operating hours, last overhaul, refrigerant history, motor and starter condition, control platform, ASME documentation on associated vessels. Mycom-specific items worth additional attention:

  • Confirm single-screw vs. twin-screw. The V series and SCV series are single-screw designs; the J series should be confirmed against documentation if not clearly labeled. Mechanical service and parts differ between the two designs.
  • Oil separator and oil cooler condition. Mycom screw packages typically integrate the oil separator and cooler. Inspect for corrosion, fouling, and any history of oil contamination.
  • Slide valve mechanism. Mycom uses a grooved-type slide valve as standard, with low-Vi options available on some configurations. Confirm the slide valve type matches your application’s part-load behavior requirements.
  • Original packaging vs. retrofitted. Many Mycom bare compressors get repackaged with non-Mycom controllers (Frick Quantum HD is common). Verify which configuration you are buying and what spare-parts ecosystem applies.
  • Parts availability for North American buyers. Mycom International Refrigeration in Texas is the primary North American service network. Third-party parts sources and rebuild specialists also exist. Confirm parts proximity for the specific model before committing.

Frequently Asked Questions

Browse Mycom Inventory, Quote, or Sell

Refrigeration Equipment Pros stocks used Mycom compressors across the reciprocating and screw lineups as availability allows. To browse current inventory or discuss a specific application, visit the shop or call 201-805-1441. If you are decommissioning a plant or have surplus Mycom equipment to sell, we buy.

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Selling Your Industrial Refrigeration Equipment: A Plant Decommissioning Guide

York Refrigeration Equipment

QUICK ANSWER

To sell used industrial refrigeration equipment from a plant decommissioning, work through five steps: (1) build an inventory with nameplate data, photos, and operating history for each major piece; (2) choose your sale path — established surplus dealer, direct buyer, auction, or consignment; (3) get evaluations from at least two qualified buyers; (4) clarify removal and logistics responsibility, including refrigerant recovery; (5) finalize payment terms in writing before equipment leaves the site. Major industrial brands — Frick, Vilter, Mycom, Sabroe, GEA, York, Trane, Carrier, BAC, Evapco, Vogt, Imeco — typically have strong used-market demand. Equipment without nameplates, with severe corrosion, or with unverifiable history recovers significantly less.

Why Refrigeration Plants Decommission

Plants take refrigeration equipment out of service for predictable reasons. Plant closures and relocations drive the largest volumes. Equipment upgrades and capacity expansions free up working units that still have substantial service life remaining. Refrigerant phase-downs are pushing facilities to replace HFC systems with low-GWP or ammonia equipment, taking older equipment off the floor in waves. Process changes, product line discontinuations, mergers and acquisitions, and excess inventory from build-outs that were scaled back all contribute.

In every one of these scenarios, the equipment on the floor has value. The question for the operations team or the asset manager is not whether it can be sold — it is how much of the original capital can be recovered, and how to keep the decommissioning process from becoming its own problem.

Understanding What Your Equipment Is Worth

Used industrial refrigeration equipment is priced primarily by four factors: brand, condition, capacity, and refrigerant. A clean Frick RWB-II screw compressor with documented overhaul history is a different asset from a generic semi-hermetic of unknown provenance. Both might be functional, but only one has a strong used-market demand profile.

Brands that typically command strong recovery in the surplus market include the major industrial ammonia compressor manufacturers (Frick, Vilter, Mycom, Sabroe, GEA), the major chiller brands (York, Trane, Carrier), the leading evaporative condenser brands (BAC and Evapco), Vogt for ice production, and Imeco for evaporator coils and condensers. These brands have parts ecosystems and technician familiarity that make them attractive to buyers.

Documentation drives recovery. Equipment with nameplate data, operating hours, last overhaul records, refrigerant history, and ASME documentation on pressure vessels can be evaluated quickly and priced confidently. Equipment without that documentation requires the buyer to absorb more risk, which translates directly into lower offers.

Preparing Equipment for Sale

The preparation work the seller does before approaching buyers determines how quickly evaluations come back and how strong the offers are. The checklist:

  • Inventory every major piece. Compressors, condensers, evaporators, vessels (recirculating tanks, receivers, intercoolers, heat exchangers), chillers, ice machines, pumps, motors, control panels, and auxiliary equipment. A complete inventory is the foundation of every conversation that follows.
  • Photograph each piece. Multiple angles, nameplate close-ups, the control panel, the inlet and outlet connections, and any visible signs of wear, corrosion, or damage. Photos let buyers evaluate without an immediate site visit.
  • Capture nameplate data. Brand, model, serial number, year of manufacture, design pressure, displacement (for compressors), refrigerant, and voltage. This data is what buyers will use to verify what you actually have.
  • Pull together service records. Operating hours where logged, last overhaul date and scope, refrigerant history, oil analysis records if available, and any major service events. Equipment with service history sells for more — sometimes substantially more — than equipment without.
  • Confirm ASME documentation on vessels. Receivers, separators, intercoolers, and heat exchangers manufactured to ASME pressure vessel code carry corresponding nameplates and U-stamps. Buyers need this documentation, especially for export.
  • Understand the removal context. Indoor-stored equipment with controlled access removal is a different proposition from outdoor equipment that needs rigging through a roof opening. The removal logistics directly affect the net offer.

Your Four Sale Paths

Each sale path has a different balance of recovery, effort, and risk. The right choice depends on the plant’s resources, timeline, and the equipment mix.

Most plants choose the established surplus dealer path because it consolidates the entire transaction with one party. The dealer evaluates the equipment, makes an offer, handles or coordinates removal and crating, manages shipping and export logistics, and pays the seller on agreed terms. The seller loses some upside compared with selling each piece directly to its eventual buyer, but the labor savings and risk transfer typically more than offset the difference.

Direct sale makes sense for plants with their own engineering resources and existing relationships with end users of refrigeration equipment. Auction is the right answer for time-pressured liquidations and for mixed lots that include peripheral equipment outside the core refrigeration system. Consignment fits unusual or hard-to-place items where broader market exposure may surface a buyer the seller would not find directly.

The Removal and Logistics Question

The biggest variable in any sale of industrial refrigeration equipment is who handles removal. The work involves more than mechanical disconnection. Refrigerant must be recovered legally — EPA Section 608 regulations require certified technicians for HFC and HCFC refrigerants; ammonia recovery has its own protocols. Rigging large compressors and chillers out of mechanical rooms often requires structural planning, crane access, and sometimes wall or roof openings. Crating for export adds another layer.

Three models are common. The dealer handles everything (typical for established surplus transactions): single contract, single contact, predictable timeline. The seller handles removal and the dealer takes delivery at the dock: reduces the dealer’s exposure and can improve the offer. The seller handles everything and ships to the buyer: maximum control, maximum responsibility. The right model depends on the plant’s capabilities and the dealer’s standard practices. Either way, the model should be documented in writing before anything is committed.

How REP Approaches Purchasing

Refrigeration Equipment Pros has been buying industrial refrigeration equipment from contractors and plants for more than 25 years. The company evaluates equipment based on photos and documentation in the initial pass, with site visits for larger lots when warranted. REP handles removal, crating, shipping, and export logistics in-house from its New Jersey, Texas, and California warehouses and its New York office. For the full process and to start a conversation about specific equipment, see the We Purchase Used Refrigeration Equipment page and the Sell To Us page.

Frequently Asked Questions

Start a Conversation About Your Equipment

Refrigeration Equipment Pros buys used industrial refrigeration equipment across all major brands and categories. To start the conversation, gather your inventory and photos, then visit the Sell To Us page or call 201-805-1441. We respond promptly, handle the diligence work directly, and manage removal and logistics in-house.

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Imeco Evaporators and Industrial Coil Specifications: A Buyer’s Guide

Bohn-Heatcraft-3-Fan-11000-BTU-Freon-Evaporator (6)

QUICK ANSWER

Imeco manufactures industrial evaporator coils, unit coolers, and evaporative condensers for ammonia (R-717) and freon-based refrigeration systems. The product line spans multiple series — ICB plate-fin coils, USB ammonia/freon units, FO low-temperature coils, SCS, GPX, and the IDC/SIDC/XLP evaporative condenser families across low-temperature, medium-temperature, and dry-coil configurations. Coil capacities typically range from 5 to 35-plus tons of refrigeration (TR) at standard 10°F TD; evaporative condensers range from 212 to 653 nominal tons. When buying used Imeco equipment, verify refrigerant compatibility, design pressure (typically 200 to 250 PSI), fins per inch, rows deep, fan motor specifications, feed configuration, and physical coil condition.

Why Imeco Coils Are a Procurement Standard

In industrial refrigeration, the evaporator coil is where the actual work of cooling happens. A correctly specified coil moves heat efficiently and frosts predictably. A mis-specified one becomes the bottleneck of the entire system — and replacing it mid-season is one of the most disruptive maintenance events a plant can face.

Imeco has been a fixture in industrial refrigeration coil and condenser manufacturing for decades. Procurement professionals encounter Imeco equipment across cold storage, food and beverage processing, distribution centers, blast freezers, and industrial process cooling. The brand’s strength is its breadth: ammonia and freon, low-temperature and medium-temperature, plate-fin and gravity coil configurations, and a parallel line of evaporative condensers for the heat-rejection side of the system. For a used-equipment buyer working through a coil specification, an Imeco unit with documented condition is often the fastest path to a known-good answer.

Imeco Product Line: Series Overview

The Imeco lineup covers both sides of the refrigeration cycle. Coils on the evaporator side; evaporative condensers for heat rejection. The most common series procurement professionals will encounter on the used market:

Two notes on this table. First, model designations like ICB-4C-606-3-5 carry encoded information about coil dimensions, fin count, and rows — Imeco’s nomenclature varies by series and the most reliable interpretation comes from manufacturer or distributor documentation. Second, the IDC, SIDC, and XLP evaporative condensers are part of the same Imeco portfolio but operate on the heat-rejection side of the system and are sized in nominal tons of heat rejection rather than tons of refrigeration.

Decoding Imeco Specifications

The key specs on an Imeco coil nameplate — and what they mean for procurement decisions:

  • Design pressure. Typically 200 or 250 PSI for ammonia service. The pressure rating must match or exceed the system the coil will be installed in. Older units may carry lower ratings; confirm against current operating pressures.
  • Fins per inch (FPI). Drives the heat transfer surface area and frost-shedding behavior of the coil. Lower FPI (commonly 3) is standard for frost-prone low-temperature applications; higher FPI (4 to 6) is used for warmer applications where frost is less of an operating constraint.
  • Rows deep. More rows mean more capacity per face area, but also higher air-side pressure drop. A six-row coil moves more BTU/hr per square foot than a three-row coil but requires more fan static.
  • CFM. The total air volume the fans move through the coil. Pairs with the coil capacity to deliver the design TD.
  • Capacity at TD. Imeco rates coils at specific temperature differentials (TD), commonly 10°F or 15°F. A coil rated 22.84 TR at 10°F TD will deliver less capacity if the actual system TD is lower, and more if higher.
  • Wet vs. frosted capacity. Imeco lists both. The same coil performs differently in a cooler (wet coil) versus a freezer (frosted coil). Match the rating to the actual application.
  • Feed configuration. Recirculated top feed, recirculated bottom feed, direct expansion (DX), or pumped overfeed. Each requires different system plumbing and accessories. The feed type is typically called out on the nameplate or coil documentation.

Sizing an Imeco Coil to Your Application

Coil sizing is application-driven. A few practical principles:

Cold storage cooler: a medium-temperature coil with 4 to 6 FPI sized to maintain product temperature with reasonable defrost cycles. The USB series and similar ammonia/freon coils are common.

Low-temperature freezer: an ammonia low-temperature coil (ICB, FO, GPX) with 3 FPI to handle frost loading. Rows-deep selection depends on available head space and air-handling capacity.

Blast freezer: high air velocity and high capacity per unit area. Plate-fin construction with appropriate FPI for the frost-shedding requirement.

Process cooling: depends on the load profile. Continuous process loads favor recirculated-feed coils; intermittent or batch loads may work with DX. Engineering judgment matters more than a generic specification.

A larger coil is not always better. Oversizing leads to short cycling, inadequate dehumidification (in cooler applications), and higher capital cost. Sizing to the actual load profile with reasonable margin is the right discipline.

Buying Used Imeco Equipment: What to Verify

Imeco equipment is engineered for long service life, but used coils and condensers still require verification:

  • Coil condition. Inspect for fin damage (bent or crushed fins reduce capacity), corrosion at U-bends and headers, and any history of refrigerant leaks. Repaired coils can be perfectly serviceable but should be documented.
  • Drain pan condition. Stainless steel drain pans hold up well on ammonia coils; verify the pan, the drain connections, and the heat-trace system if applicable.
  • Fan motor age and configuration. Voltage, full-load amps, RPM, and HP. Single-speed versus two-speed configurations affect control strategy.
  • Defrost system. Electric defrost, hot gas defrost, water defrost, or no defrost (passive). Each has different retrofit implications and different operating cost profiles. Confirm the defrost type on the nameplate.
  • Original application history. Dairy or food processing coils may have product residue or cleaning chemical exposure. Verify the equipment was cleaned at decommissioning.
  • Match to your existing system. Refrigerant, capacity, voltage, coil geometry, and connection sizes all need to align. A coil rated for a different refrigerant is a different proposition than a like-for-like replacement.
  • ASME documentation. Coils and headers manufactured to ASME pressure vessel code carry corresponding nameplates and stamps. Verify documentation is intact.

Frequently Asked Questions

Browse Imeco Inventory, Quote, or Sell

Refrigeration Equipment Pros stocks used Imeco evaporator coils, unit coolers, and evaporative condensers across the major series as availability allows. To browse current evaporator inventory or discuss a specific application, visit the shop or call 201-805-1441. If you are decommissioning a plant or have surplus Imeco equipment to sell, we buy.

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Vogt Tube-Ice Machines: Specs, Models, and the Used Market

Ice-Plants-and-Ice-Production

QUICK ANSWER

Vogt Tube-Ice machines are heavy-duty cylindrical ice makers produced by Henry Vogt Machine Co. in Louisville, Kentucky since 1938. Current production capacities range from 3 tons per day (HFO3 series) to 80 tons per day (P34AXL and P34FXL). The lineup is built around the HFO refrigerant series for smaller capacities and the P34 series for larger industrial applications, with both ammonia and freon variants. Vogt machines are known for long service life 30-year-old units are commonly still in daily operation. Common applications include packaged ice, fish processing, beverage, chemical processing, concrete cooling, and bakery dough cooling.

Why Vogt Has Defined Tube-Ice for 85-Plus Years

Henry Vogt Machine Co. introduced the world’s first automatic-sized tube-ice machine in 1938. Since then, the Louisville-based manufacturer has supplied more than 20,000 customers across 160 countries with industrial ice production equipment. The reason for that longevity is mechanical, not promotional: Vogt machines are over-engineered to a standard that other ice makers are not.

The clearest evidence is in the field. Vogt itself notes that 30-year-old Tube-Ice machines are commonly found in daily operation, and procurement professionals across packaged ice, fish processing, and beverage industries routinely buy used Vogt equipment knowing it has substantial remaining service life. For procurement teams who already know what they want, a quality used Vogt is rarely a compromise.

How Tube-Ice Is Made and Why It Matters

Vogt’s tube-ice design is mechanically distinctive. Water circulates through vertical stainless steel tubes inside a refrigerated chamber. Ice forms from the outside of the tube inward — meaning impurities are progressively rejected toward the center as the ice freezes. The result is a cylindrical ice form that is both purer and harder than ice produced by most flake or plate machines.

When the ice reaches optimal thickness, warm refrigerant briefly enters the vessel, the ice releases from the tubes, drops into the storage tank, and breaks naturally into cylindrical pieces. There is no cutter mechanism for standard tube ice (a crushed-ice cutter is available as an option), which means fewer moving parts to wear out and less ice loss to fines. The standard tube-ice product is available in three diameters — 7/8″, 1-1/8″, or 1-3/8″ — each approximately one inch long.

Beyond purity and durability, the design economics also matter on the used market: the stainless steel tube bundle is the heart of the machine, and stainless construction is corrosion-resistant by design. Tube bundles routinely outlast multiple generations of controls, motors, and compressor packages.

Current Vogt Model Lineup

Vogt has consolidated its current production around two refrigerant strategies: the HFO line for low-GWP applications at smaller capacities, and the P34 series in both ammonia and R-404A variants for larger industrial applications. The full current lineup:

A note on the R-404A units: Vogt has been transitioning new production away from R-404A toward the HFO line at the smaller capacities, with the first HFO units installed commercially in 2019. The P34F and P34FL series remain part of the current production lineup at the 50-ton capacity. For larger applications, the P34AXL ammonia low-side unit at 80 tons per day is a workhorse of the modern Vogt lineup.

Applications and Industry Fit

Vogt Tube-Ice machines serve a remarkably broad set of industries. Sizing typically pairs with the application as follows:

  • Packaged ice (retail and wholesale). HFO5 through P34A/P34F series, scaling up as production volume grows.
  • Fish processing and fishing vessels. Ammonia low-side variants (P34AL, P34AXL) common at plant scale; smaller HFO units in marine and dockside applications.
  • Poultry and meat processing. Mid-size HFO or P34 series for in-line cooling and product packing.
  • Bakery. Tube ice is added directly to dough to offset the heat of hydration (flour absorbing water) and the heat of friction from mixer motors. HFO5 and HFO10 are common.
  • Concrete cooling. Used in large pours where aggregate temperatures are high or strength specifications require precise mix temperature control. Capacities vary by project, with P34-series units common.
  • Chemical processing. Vogt machines provide cooling for organic dye production, thermal-sensitive paper coatings, and reactor jacket cooling. The machines also function as efficient chillers when not making ice.
  • Catering, airlines, and food service. Smaller HFO series units handle these applications.

Buying a Used Vogt: What to Verify

Vogt’s reputation for longevity does not eliminate the need for diligence. The procurement checklist for used Vogt equipment:

  • Confirm the refrigerant. Ammonia, R-404A, or HFO — each has different implications for operating cost, parts compatibility, and long-term refrigerant availability. Older units may have refrigerant change history that needs documentation.
  • High-side vs. self-contained. Low-side machines (the “L” in P34AL, P34FL, P34AXL, P34FXL) require a paired high-side or central refrigeration system. Self-contained units (P34A, P34F, HFO series) are complete. Confirm which configuration you are buying and that it matches your plant.
  • Evaporator tube condition. The tube bundle is the heart of the machine. Stainless steel construction supports very long life, but verify the bundle has not been damaged by improper operation (running dry, freeze damage, or chemical attack).
  • Control platform. Newer Vogt machines run Allen-Bradley PLC controls. Older units may have legacy electromechanical controls, relay logic, or earlier PLC platforms. Control upgrades are possible but add cost.
  • Voltage configuration. 60Hz US and 50Hz international units differ. Common configurations include 208/230V, 460V, 575V at 60Hz, and 400V at 50Hz. Confirm the unit matches your plant’s electrical system.
  • Cutter mechanism. If your application uses crushed ice, verify the cutter is present and functional. Cylindrical ice is the standard product, with crushed ice as an option.
  • ASME compliance documentation. Vogt machines are manufactured to ASME pressure vessel code. Confirm the documentation chain is intact.

Frequently Asked Questions

Browse Vogt Inventory, Quote, or Sell

Refrigeration Equipment Pros stocks used Vogt Tube-Ice machines across the HFO, P34, and legacy P-series lines as availability allows. To browse current ice machine inventory or discuss a specific application, visit the shop or call 201-805-1441. If you are decommissioning a plant or have surplus Vogt equipment to sell, we buy.

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Used Refrigeration Compressors: How to Source, Inspect, and Specify

QUICK ANSWER

When buying a used industrial refrigeration compressor, verify: operating hours and last overhaul date, oil analysis history where available, motor and starter condition, original and current refrigerant, ASME documentation on associated vessels, control panel platform and revision, physical condition of the rotor or cylinders depending on compressor type, and dealer-provided test reports. Major industrial brands – Frick, Vilter, Mycom, Sabroe, GEA – have robust parts ecosystems that support multi-decade service life when these factors check out. Sourcing channels include established surplus dealers, direct plant decommissions, auctions, and consignment arrangements; each carries different tradeoffs of price, risk, and effort.

Why the Compressor Decision Matters Most

In an industrial refrigeration system, the compressor is the single most expensive piece of mechanical equipment and the one whose failure causes the most disruption. Get the compressor decision right and the rest of the system has something stable to work with. Get it wrong and the plant pays for it in downtime, repair labor, and lost production for years.

That weight is exactly why the used compressor market exists. Industrial compressors are engineered for decades of service. A 20-year-old Frick RWB-II that has been properly maintained and overhauled is not a compromise — it is a known-good asset with documented service history, available immediately, at 40 to 60 percent of new pricing. The question is not whether used compressors can deliver. The question is how to evaluate which ones will.

The Four Compressor Types and Their Used-Market Characteristics

Each compressor type behaves differently on the used market. Knowing which type fits your application — and what to scrutinize on each — is the foundation of a smart purchase.

A few notes on type selection. Twin-screw compressors dominate larger continuous-duty applications because they handle high tonnages efficiently and offer excellent capacity control through slide valves. Single-screw compressors (Vilter’s specialty) deliver similar capabilities with a different mechanical design — balanced loads, low vibration, and long bearing life. Reciprocating compressors remain the right answer at smaller capacities and where field-rebuild capability is a priority. Semi-hermetic units are common in commercial and smaller process applications but are less typical at true industrial scale.

The Pre-Purchase Verification Checklist

Regardless of compressor type or brand, the verification process is the same:

  • Nameplate data. Brand, model, serial number, displacement, design pressure, year of manufacture. Without nameplate data, walk away — there is no way to verify what you are actually buying.
  • Operating hours. Where the unit had an hour meter, what does it read? Equipment with 40,000 hours is in a very different position than equipment with 80,000 hours.
  • Last major overhaul. Date, scope of work, who performed it, what was replaced. A documented recent overhaul is one of the strongest indicators of remaining service life.
  • Oil analysis history. Where the previous owner ran an oil analysis program, the records are gold. Iron, copper, and silicon levels over time tell the story of wear inside the machine.
  • Refrigerant history. Original charge, any conversions, current charge. An ammonia compressor that has only ever run on ammonia is straightforward; an HFC unit with conversion history needs additional scrutiny.
  • Motor and starter. Open-drive motors are usually replaceable, but verify condition, voltage, HP, and bearing service history. Verify the starter type (across-the-line, soft-start, VFD) and the panel age.
  • Control platform. Frick Quantum HD versus Plus versus Micro. Vilter Vission 21/20. Mycom MYPRO-CP3 or CP4. The control platform affects integration, parts, and the cost of any future upgrade.
  • Why it left service. Plant upgrade is a positive answer. Capacity change is a positive answer. “Failed” requires investigation. “We don’t know” is a red flag.
  • Storage condition. Indoor under cover is ideal. Outdoor exposed for extended periods is a concern, particularly for control panels, motors, and seal faces.

Red Flags Procurement Should Walk Away From

Some signals do not require a long conversation:

  • Missing nameplate or no documentation chain. Without this, the equipment is unverifiable at any price.
  • Unknown reason for removal from service. A reputable dealer will know — or will say they don’t know and price the unit accordingly.
  • Refrigerant unclear or multiple conversions with no documentation. The compressor’s metallurgy and oil compatibility depend on refrigerant history.
  • Visible corrosion on the shaft seal, suction or discharge piping flanges, or main housing. Surface corrosion is one thing; structural corrosion is another.
  • Control panel modified by a previous owner without documentation. Custom modifications are not necessarily disqualifying, but they need to be understood.
  • Pricing that is significantly below market for a major brand and capacity. The industrial refrigeration surplus market is small enough that pricing anomalies usually indicate a problem.

Where to Source Quality Used Compressors

Four channels exist, each with different tradeoffs:

  • Established surplus dealers (the preferred path for most plants). The dealer has inspected the equipment, documented its condition, and handles removal, crating, shipping, and export logistics. The buyer pays a markup over direct-purchase pricing but gets a single point of contact, dealer warranty terms, and immediate availability from stocked inventory.
  • Direct purchase from plants decommissioning equipment. The lowest pricing, but the inspection burden, the removal logistics, and the risk are entirely on the buyer. This path works for plants with their own engineering and rigging capabilities or for projects where the buyer has direct relationships with the seller.
  • Auctions. Fast cash for the seller, often-aggressive pricing for the buyer, but typically as-is and frequently without documentation or testing. Auctions can work for sophisticated buyers who can inspect equipment in person and accept the risk profile.
  • Consignment. The dealer markets the equipment on behalf of the owner and splits proceeds. Useful for unusual or hard-to-place items and for sellers who want broader exposure than direct sale would provide.

Typical Cost Savings and Lead Times

Used industrial refrigeration compressors typically cost 40 to 60 percent less than comparable new equipment. Specific brands and capacities can save more — particularly Frick RWB-II screw compressors, Vilter single-screws, and Mycom V/J series screws, all of which have strong used-market supply.

Lead times move in the opposite direction. New industrial compressors commonly run 12 to 18 months for delivery on custom-configured packages; some brands have exceeded 24 months during supply-chain disruptions. Quality used inventory ships in days to weeks. For a plant facing a failed compressor in the middle of production, that timeline is the difference between meeting demand and losing customers.

Frequently Asked Questions

Browse Compressors, Quote, or Sell

Refrigeration Equipment Pros stocks industrial refrigeration compressors across all four types and the major brands. Each unit on the floor has documented condition, operating history where available, and dealer terms in writing. To browse current inventory or discuss a specific application, visit the shop or call 201-805-1441. If you are decommissioning a plant or have surplus compressors to sell, we buy.

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Ammonia Compressor Brands Compared: Frick, Vilter, Mycom, Sabroe, and GEA

Mycom N6WB compressor with 100 HP ammonia compressor

QUICK ANSWER

The major industrial ammonia compressor brands are Frick (Johnson Controls), Vilter (Copeland), Mycom (Mayekawa), Sabroe (Johnson Controls), and GEA, with Howden, FES, and Dunham-Bush also active in the used market. Each has distinct strengths: Frick and Sabroe dominate North American food and beverage processing; Vilter specializes in single-screw ammonia and CO₂ designs; Mycom has strong global presence including marine and offshore applications; GEA serves a broad industrial base rooted in European engineering. All five maintain robust parts and service ecosystems in North America, making them strong candidates for used-equipment buyers.

Why Brand Matters in the Used Ammonia Compressor Market

In a market where individual compressors can run 20 to 30-plus years, brand choice is not just about the equipment in front of you — it is about what the next two decades of operation will cost. Parts ecosystem, technician familiarity, plant standardization, and resale value all hinge on which name is cast into the compressor housing.

This guide profiles the five major industrial ammonia compressor manufacturers procurement professionals encounter most often in North America and Latin America, plus three secondary brands worth knowing. Each profile covers the lineup, typical applications, parts strength, and what to look for in the surplus market.

Frick (Johnson Controls)

Frick is the dominant ammonia compressor brand in North American food and beverage processing. Now operating under Johnson Controls, the brand has been a fixture in industrial refrigeration for over a century, and the installed base across cold storage, dairy, meat, and beverage plants is substantial.

The current screw lineup centers on the RWB-II rotary screw, the RDB-II booster screw, the RWF, and the newer RXB and RXF platforms with TDSH and TDSL series rotors. High-speed reciprocating compressors complement the screw lineup at smaller capacities. The Quantum HD control panel is widely deployed on modern packages; older units commonly carry the legacy Frick Plus or Micro controllers.

Used-market notes: Frick RWB-II and RDB-II compressors are among the most common used industrial screw compressors available in North America. Parts and aftermarket support are strong through the Johnson Controls service network. For a plant already standardized on Frick, adding a matched used unit is often the most cost-effective expansion path.

Vilter (Copeland)

Vilter has 150 years of industrial refrigeration manufacturing history and is now a Copeland brand. The company is best known for single-screw compressors — a distinctive design that uses a single helical rotor meshing with two gate rotors, delivering balanced loads, low vibration, and long service life.

The current lineup includes the VSS, VSM, and VSR single-screw platforms for ammonia and CO₂, plus reciprocating compressors. The 440, 444, and 450 reciprocating series have been widely deployed historically and remain in service across the industry. Vilter has also led on transcritical and subcritical CO₂ single-screw designs as natural refrigerant adoption has accelerated.

Applications skew toward larger cold storage, beverage processing, ice rinks (Vilter reciprocating compressors are specified at multiple international speed-skating venues), and petrochemical process refrigeration. Used-market demand for Vilter single-screw compressors is consistently strong.

Mycom (Mayekawa)

Mycom is the industrial refrigeration brand of Mayekawa, a Japanese manufacturer with strong global presence including a substantial North American footprint through Mycom International Refrigeration in Texas. Mycom is the only one of the five major brands with deep roots in marine and offshore refrigeration alongside food, beverage, and industrial applications.

The reciprocating lineup includes the A and B series — both popular in smaller refrigeration plants and notable for being highly field-rebuildable, which makes them strong candidates on the used market — and the newer N series. The screw lineup covers the V series (single-screw legacy), the J series, and the SCV series with model designations like the 200 VLD (a 204mm rotor diameter single-screw). Capacities range from roughly 276 CFM to 2,259 CFM across the screw line.

Used-market notes: Mycom V and J series screw compressors are widely available, and the A and B reciprocating series are among the most rebuildable industrial recips on the market. For plants in marine, offshore, or coastal industrial applications, Mycom’s heritage in those environments is a meaningful advantage.

Sabroe (Johnson Controls)

Sabroe celebrated 125 years of industrial refrigeration manufacturing in 2024. Now part of Johnson Controls alongside Frick and York, Sabroe brings a European engineering heritage and is particularly strong in marine, offshore, and demanding industrial applications.

The reciprocating lineup is broad: 34 different sizes of single-stage compressors, 13 single-stage sizes for high-pressure applications, and eight sizes of two-stage compressors for low-temperature applications. The screw lineup includes more than 24 standard models covering 200 to 8,600 cubic meters per hour swept volume at 50 Hz.

Used-market notes: Sabroe equipment shows up across North American surplus inventories, particularly on the East Coast and Gulf Coast where marine and offshore applications drive standardization. Parts support is strong through Johnson Controls.

GEA

GEA brings together several industrial refrigeration heritages — Grasso compressors and the FES brand are both now part of the GEA portfolio. The company manufactures a broad lineup of screw and reciprocating compressors for commercial and industrial refrigeration, air-conditioning, and heat pump applications.

The current lineup includes screw compressors with models like the CompaX, a low-charge ammonia design positioned for industrial air-conditioning where minimizing refrigerant inventory is a priority. Reciprocating compressors round out the range. GEA’s aftermarket includes service kits, original spare parts, and PR-OLEO ammonia oils specifically formulated for screw and reciprocating compressor service.

Used-market notes: GEA Grasso reciprocating and screw compressors are well-represented in surplus inventories, particularly units that were originally specified by European-headquartered manufacturers operating North American plants. FES legacy units (now under GEA) are commonly available across the United States.

Side-by-Side Brand Comparison

Use the table as a quick-reference frame. Each row simplifies considerably what is in practice a brand-specific procurement conversation.

Brands Worth Knowing: Howden, FES, and Dunham-Bush

Three additional names show up in industrial ammonia procurement conversations and surplus inventories:

  • Howden — Scottish-rooted engineering firm with twin-screw compressors widely deployed in industrial gas and refrigeration. Strong technical reputation; aftermarket support is generally available in North America.
  • FES — Now part of GEA. Strong North American legacy footprint, particularly in food processing. FES compressor packages and FES Micro III control panels remain in active service across hundreds of plants.
  • Dunham-Bush — Historical industrial chiller and screw compressor presence. Less common in current production but still encountered on the used market.

How to Choose Across Brands

Most procurement decisions are not abstract brand comparisons — they are constrained by the realities of an existing plant or a specific project. The framework that works:

  • Plant standardization comes first. If the plant runs Frick, the operations team knows Frick, and the spare parts shelf has Frick parts on it, adding a different brand creates ongoing friction. Match the existing standard unless there’s a strong reason not to.
  • Parts proximity matters. All five brands have strong North American parts ecosystems, but regional service-network coverage varies. Confirm response time on critical parts before committing to a brand the local service contractor doesn’t typically work on.
  • Application fit. Marine and offshore: Mycom and Sabroe have the deepest heritage. Ice rinks and large beverage: Vilter has a particularly strong record. Food and beverage processing: Frick and GEA are exceptionally well-represented.
  • Used-market availability at the capacity you need. A 350 HP Mycom screw and a 350 HP Frick screw will both do the job, but the one that’s actually sitting in a warehouse ready to ship is the one that solves the procurement problem.

Frequently Asked Questions

Browse Compressors, Quote, or Sell

Refrigeration Equipment Pros stocks industrial ammonia compressors from all five major brands — Frick, Vilter, Mycom, Sabroe, and GEA — plus Howden, FES, and Dunham-Bush as availability allows. To browse current inventory or discuss a specific application, visit the shop or call 201-805-1441. If you have surplus compressors to sell, we buy.

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York vs. Trane Industrial Chillers: A Procurement Comparison

QUICK ANSWER

York vs. Trane industrial chillers comes down to four procurement factors: model series and capacity range, refrigerant compatibility, parts and service ecosystem, and used-market availability. Trane’s CenTraVac centrifugal line covers 200 to 6,000 tons with a time-tested low-pressure design; Series R helical rotary screw chillers cover 80 to 400 tons. York’s YK and YZ centrifugal lines and YLAA scroll chillers serve a wide range of industrial applications, with modular designs that support easier component-level service. For used buyers, the brand decision matters less than verifying the model series, original refrigerant, control platform, and parts support before purchase.

Why Procurement Professionals Compare These Two

York and Trane are two of the most recognized names in industrial chillers, and they show up side by side on most short lists for the same reason: both have decades of installed base, both have service networks accessible to plant operators across North America, and both have used inventory available in the surplus market in capacities ranging from a few hundred tons to several thousand.

The procurement question is rarely “which brand is better in the abstract.” It is which one fits the application, the existing plant standardization, the refrigerant strategy, and the timeline. (For a wider comparison that also covers Carrier air-cooled chillers, see our earlier buyer’s guide to used Trane, Carrier, and York air-cooled chillers — this post focuses specifically on the York-vs.-Trane decision for industrial buyers.)

The Trane Industrial Chiller Lineup

Trane’s industrial and large-commercial chiller portfolio centers on three platforms that procurement professionals will encounter on the used market and in current production:

  • CenTraVac water-cooled centrifugal. Trane’s flagship centrifugal line. Current production covers 200 to 6,000 tons using low-pressure refrigerants R-514A and R-1233zd, with the Symbio 800 control platform. The low-pressure design is known for long service life and reduced refrigerant leak rates. On the used market, older CenTraVac generations (CVHE, CVHF, CDHF) commonly run on R-123, which is being phased down — a critical factor for any purchase decision.
  • Series R helical rotary screw. Water-cooled screw chillers covering 80 to 400 tons. Current refrigerants include R-513A, R-515B, and R-1233zd(E). Older Series R generations (RTHA, RTHB, RTAC for air-cooled) are widely available used and remain serviceable workhorses for industrial process cooling and large commercial comfort applications.
  • Agility magnetic-bearing centrifugal. Trane’s medium-pressure magnetic-bearing line, 175 to 500 tons, using R-513A. Newer to the used market but increasingly available as buildings refresh their chiller plants.

Trane’s reputation rests on rugged construction and long service intervals. The flip side: parts can carry a premium and some specialized service work is best handled by factory-trained technicians.

The York / Johnson Controls Industrial Chiller Lineup

York operates under Johnson Controls and brings 150-plus years of commercial HVAC manufacturing to the chiller market. The lineup procurement professionals will encounter:

  • YK water-cooled centrifugal. The workhorse of the York lineup for decades. High-efficiency compressors, modular construction that supports field-level component replacement, and a large installed base across cold storage, food processing, and large commercial buildings. Used YK chillers are widely available — most commonly running R-134a.
  • YZ magnetic-bearing centrifugal. York’s high-efficiency centrifugal line. The magnetic bearing design eliminates oil from the compression cycle and delivers strong part-load performance. Less common on the used market today but increasingly available as the technology matures.
  • YS screw chillers. Air- and water-cooled screw chiller platforms covering mid-range industrial capacities.
  • YLAA air-cooled scroll. Mid-size air-cooled scroll chillers from 40 to 230 tons. Widely deployed in industrial process cooling and mid-size commercial applications where a centrifugal would be oversized.

York’s design philosophy emphasizes serviceability. Components are modular, which generally makes parts replacement easier and reduces the labor intensity of maintenance compared to some integrated designs.

Side-by-Side Comparison

Use the table as a frame, not a verdict. The right answer depends on the specific equipment, the plant’s existing standardization, and the application.

What to Verify Before Buying — Either Brand

Brand reputation matters less than condition documentation. Before committing to any used industrial chiller — York or Trane — work through the following:

  • Confirm the model series and generation. “It’s a Trane CenTraVac” is not enough. CVHE, CVHF, CDHF, CVHH, and CDHH are different machines with different control platforms, different refrigerants, and different parts availability.
  • Verify the current and original refrigerant. R-123 on an older Trane centrifugal or R-22 on a legacy York unit changes the procurement calculation considerably. Any conversion history should be documented.
  • Check the control platform. Symbio 800 on a current Trane, OptiView on a recent York, and legacy Tracer or older York controls on units that have been in service for 15-plus years. The control platform affects integration, parts, and the cost of any future upgrade.
  • Get operating hours and the last major service record. Refrigerant charge changes, tube cleaning history, motor service, and any bearing work.
  • Confirm pressure vessel documentation. ASME nameplates and U-stamps on the evaporator and condenser shells.
  • Understand why it left service. A chiller removed during a plant upgrade is a different proposition from one removed for failure or persistent surge issues.

For a deeper checklist that applies across compressor types and chiller configurations, see our buyer’s checklist for used industrial refrigeration equipment.

Brand-Specific Pitfalls to Watch

Each brand has predictable weak points on the used market:

  • Trane: parts pricing on certain CenTraVac components can be high. Control platform transitions across model generations mean that retrofitting an older unit to current Trane controls is rarely straightforward. The R-123 refrigerant question on legacy CVHE/CVHF units affects both operating cost and long-term refrigerant availability.
  • York: older YK units can exhibit surge at low part-load — particularly below 80 percent. The behavior is not always a defect, but it does affect plants with variable load profiles. Verify the model’s surge characteristics and the condition of the prerotation vanes before purchase. Pre-Johnson Controls service network coverage varies by region.

Neither pitfall is disqualifying. Both are manageable with proper inspection and an honest conversation with the dealer.

How REP Approaches York and Trane Chillers

Refrigeration Equipment Pros sources industrial chillers from both manufacturers and stocks them in the used chillers and HVAC category. For each unit, we document model series, refrigerant, operating history, control platform, and physical condition. We handle removal, crating, shipping, and export logistics in-house from our New Jersey, Texas, and California warehouses. To browse current chiller inventory or discuss a specific application, call 201-805-1441.

Frequently Asked Questions

Browse Chillers, Quote, or Sell

Refrigeration Equipment Pros maintains an active inventory of York, Trane, and other major-brand industrial chillers across water-cooled and air-cooled configurations. To browse current stock or request a quote on a specific configuration, visit the shop or call 201-805-1441. If you are decommissioning a plant or have surplus chillers to sell, we buy.

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Why Buyers Trust Used Industrial Refrigeration Equipment

Why Buy Used Industrial Refrigeration Equipment

QUICK ANSWER

Yes, used industrial refrigeration equipment is safe to buy. Industrial-grade compressors, condensers, evaporators, and vessels are engineered for 20 to 30-plus years of service when properly maintained. Equipment from established surplus dealers typically delivers 40 to 60 percent cost savings versus new, ships in days rather than the 12 to 18-month lead times common for new industrial builds, and sidesteps the steep early-life depreciation curve. Risk is managed through nameplate verification, operating-hour documentation, overhaul history, and dealer inspection not avoided by buying new.

The Procurement Question Worth Answering

Every procurement professional in industrial refrigeration eventually faces the same decision: replace failing equipment with new, or source quality used? The question gets asked at plant expansions, during emergency replacements, when capacity needs to grow without a 12-month wait, and every time refrigerant regulations shift the cost equation.

Most articles on this topic are written for restaurant operators sourcing a walk-in cooler. This one is not. If you specify ammonia screw compressors, evaporative condensers, industrial chillers, or refrigeration plants, the calculus is different — and the case for used is substantially stronger than the conventional wisdom suggests.

Industrial vs. Light Commercial: The Critical Distinction

Search the internet for “refrigeration compressor lifespan” and you will see figures like 8 to 10 years. Those numbers refer to hermetic compressors in restaurant reach-ins and supermarket walk-ins — sealed units in light-duty service. They are not the equipment most readers of this site are buying.

Industrial refrigeration equipment is built to a different standard. Open-drive ammonia compressors have field-replaceable motors. Screw compressors are rebuildable at the rotor and bearing level. Reciprocating compressors are routinely overhauled in place. Pressure vessels are ASME-coded and designed for decades of cycling. The largest industrial compressor manufacturers — Vilter (founded over 150 years ago), Sabroe (125+ years), Frick, Mycom, and GEA — have installed bases where 30-year-old machines run daily in food processing, cold storage, and ice production facilities.

This durability is the foundation of the used industrial refrigeration market. The equipment outlasts the businesses that buy it new.

The Market Reality

The global industrial refrigeration equipment market reached $33.6 billion in 2025 and is on pace to hit $35.7 billion in 2026, according to The Business Research Company. Ammonia (R-717) accounts for roughly 42 percent of industrial refrigeration refrigerant share — a critical data point, because ammonia equipment is not subject to the HFC phase-down that is reshaping HVAC procurement.

Lead times have not improved. Custom-configured industrial refrigeration equipment routinely requires 12 to 18 months to manufacture and deliver, with some brands exceeding 24 months during supply-chain disruptions. The 2025 US tariff actions on steel and aluminum pushed up input costs for new condensers, evaporators, and pressure vessels, adding pressure to budgets that were already stretched.

Used industrial equipment changes the math. Quality surplus inventory ships in days. The equipment exists, has been inspected, sits in a warehouse, and can be on a truck the same week the purchase order clears. For a plant operator looking at a failed compressor in the middle of a production season, that timeline difference is not a procurement preference — it is the difference between meeting demand and losing customers.

New vs. Used: The Procurement Decision Factors

Use the table below as a structured frame, not a verdict. The right answer depends on the application, the timeline, and the specific equipment in question.

Risk Mitigation: What Smart Buyers Do

The procurement professionals who buy used industrial refrigeration equipment successfully — year after year, plant after plant — do not avoid risk by accident. They follow a verification process:

  • Verify the nameplate. Brand, model, serial number, design pressure, displacement, year of manufacture. Without nameplate data, walk away.
  • Get operating hours and overhaul history. Hours run, last major overhaul date and scope, oil analysis history where available. Equipment with documented service history is worth substantially more than equipment with no records.
  • Confirm refrigerant. Original charge, any conversions, current charge. An ammonia compressor that has only ever run on ammonia is straightforward. An HFC compressor with a refrigerant change history needs scrutiny.
  • Check the motor and starter. Open-drive motors are usually replaceable, but verify condition, voltage, and last bearing service. Starters and control panels age differently than compressors.
  • Understand why it left service. Equipment removed for plant upgrade or capacity change is different from equipment removed for failure. Ask the question and expect a clear answer.
  • Confirm pressure vessel documentation. ASME nameplates, U-stamps, and any code inspection history on receivers, separators, and intercoolers.
  • Get the dealer terms in writing. Payment terms, removal and shipping responsibility, who handles refrigerant recovery if required.

None of this is exotic — it is the same diligence a competent inspector would apply to any major industrial asset. (For a deeper checklist focused specifically on compressors, see our buyer’s checklist for used industrial compressors.)

When Used Is the Smarter Decision

Used industrial refrigeration equipment is rarely the second-best option. For several specific procurement scenarios, it is the strategically correct choice:

  • Emergency replacement. A failed screw compressor in the middle of production cannot wait six months for a factory build. Quality used inventory ships immediately.
  • Capacity expansion. Adding a second or third compressor to an existing ammonia plant — particularly when the new unit needs to match the brand and control platform of what is already installed.
  • Plant retrofit. Replacing an obsolete HFC system with a modernized ammonia plant, where the rest of the equipment is being sized to match used compressor packages already on the market.
  • Budget-constrained builds. Greenfield or expansion projects where saving 40 to 60 percent on equipment cost frees capital for building improvements, controls upgrades, or additional capacity.
  • Latin American and Caribbean projects. Where lead times for new equipment from North American or European manufacturers are extended by shipping and customs, and where ammonia-based systems remain the industrial standard.
  • Plants standardized on legacy ammonia equipment. Where the operations team is trained on Frick, Vilter, Mycom, or Sabroe platforms and changing brands would require retraining and new spare parts inventory.

When New Makes Sense

Used equipment is not the answer in every scenario. New is the better choice when the project requires the latest control platforms not yet available in the surplus market, when a customer or regulatory requirement specifies a current-production model, when an OEM warranty is contractually required, or when used market pricing for a particular model has narrowed to within 10 to 15 percent of new because of unusual demand. The point is not to oversell used — it is to apply each option where it fits.

How REP Approaches Used Equipment

Refrigeration Equipment Pros has been in the industrial refrigeration surplus market for more than 25 years. The business operates from three United States warehouses — in New Jersey, Texas, and California — plus a New York office, with inventory that includes compressors, condensers, evaporators, vessels, chillers, ice machines, complete refrigeration plants, and the auxiliary equipment that goes with them. REP buys directly from contractors and plants, evaluates equipment before listing it, and handles removal, crating, shipping, and export logistics in-house. For background on how the company sources and prepares equipment, see the Why Surplus and Doing Business pages.

Frequently Asked Questions

Browse, Quote, or Sell

Refrigeration Equipment Pros maintains an active inventory of industrial compressors, condensers, evaporators, vessels, chillers, ice machines, and complete refrigeration plants. To browse current stock or request a quote on a specific configuration, visit the shop or call 201-805-1441. If you are decommissioning a plant or have surplus equipment to sell, we buy.

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Ice Plant Refrigeration for Fishing and Fish Processing – What Operations Need to Know When Sourcing Surplus

Ice-Plants-and-Ice-Production

Fish is among the most perishable commodities on earth. From the moment a fish is caught, microbial, enzymatic, and chemical processes begin converting high-quality protein into something no buyer wants. The single most effective intervention at every stage of the seafood supply chain — vessel to processing to distribution — is maintaining low temperature. And low temperature, for most fishing operations and fish processors worldwide, means ice.

The FAO estimates that 35% of global fish and seafood production is lost or wasted annually. In Latin America and Africa, fisheries losses are predominantly caused by inadequate preservation infrastructure — insufficient ice production, inadequate cold storage, and gaps in the cold chain between catch and market. That statistic represents revenue fishing communities and processors never capture, quality that export buyers reject, and product that spoils before it reaches consumers.

The refrigeration infrastructure that prevents those losses — ice plants, fish processing refrigeration, blast freezers, cold storage rooms, and the compressors and auxiliary equipment that drive them all — is what this blog addresses. Specifically, how operations in fishing communities, at landing sites, and in fish processing facilities can source the equipment they need at the cost and on the timeline that their markets make possible.

The Ice Production Chain: Three Types, Three Applications

Industrial ice plants produce ice in three primary forms, each suited to different points in the fish handling chain.

Flake ice is produced by spraying water onto a rotating refrigerated drum at evaporator temperatures of -20°C to -25°C (-4°F to -13°F). As water freezes on the drum surface, a scraper bar continuously removes thin, irregular flakes — typically 2 to 3 mm thick. Flake ice is the preferred form for direct fish contact at both landing sites and processing facilities. Its irregular shape and high surface area-to-volume ratio allow it to conform closely to fish contours, providing rapid, even contact cooling without the mechanical damage that larger ice forms can cause to soft-bodied fish. Flake ice is also the most energy-efficient type to produce, requiring approximately 1.3 tons of refrigeration capacity per ton of ice production from standard temperature water.

Tube ice is produced by freezing water on the interior surface of vertical refrigerated tubes to form hollow cylinders, typically 50 mm in diameter with 10 to 12 mm wall thickness. Tube ice is commonly used in fish markets and distribution chains where ease of handling, slower melting rate, and aesthetic presentation matter. It is also produced in many tropical markets — particularly across the Caribbean and Latin America — where the combination of high ambient temperatures and longer distribution distances favors the slower melt rate of tube ice over flake.

Block ice is the oldest ice production method and remains dominant in markets with limited cold chain infrastructure. Brine bath freezing brings water in metal molds to solidification temperatures typically between -8°C and -12°C, producing large blocks that are then crushed for use with fish or distributed whole for transport. Block ice melts more slowly than flake or tube ice — an important advantage in remote or high-temperature environments without reliable refrigeration through the distribution chain. In much of the Caribbean and Central America, block ice is the de facto cold chain for small-scale fishing operations.

Understanding which ice type your operation needs, at what daily production volume, and at what ambient conditions is the starting point for any ice plant refrigeration procurement decision.

The Refrigeration System Behind the Ice Plant

Every ice plant — regardless of ice type — depends on the same core refrigeration equipment that drives all industrial cold chain applications.

Compressors are the heart of the system. For large flake ice plants, ammonia screw compressors from Frick, Vilter, Mycom, Howden, and GEA provide the high-capacity continuous-duty compression that high-volume production requires. For medium and smaller operations, reciprocating compressors from the same manufacturers — and Bitzer and Copeland for halocarbon systems — deliver reliable capacity across a wide range of configurations. Ice production suits ammonia refrigeration particularly well: ammonia’s thermodynamic efficiency at the low evaporating temperatures required for flake and block ice reduces electricity cost per ton produced — a significant advantage at volume.

Condensers in large ammonia ice plant installations are overwhelmingly evaporative type, reflecting the same efficiency advantage covered in Blog #7. Evaporative condensers from BAC, Evapco, and Imeco are standard in large fish processing ice plants across the US, Latin America, and the Caribbean. For smaller operations in humid coastal environments, air-cooled condensers from Heatcraft/Bohn serve smaller-capacity systems effectively.

Vessels and auxiliary equipment — ammonia receivers, recirculating tanks, oil separators, and brine tanks for block ice production — are integral to operation and regularly available in the surplus market.

Cold storage rooms for ice storage and finished fish product are typically built around unit coolers from BAC, Evapco, Bohn, and Krack, driven by the same compressor plant serving ice production.

Fish Processing Refrigeration: Beyond the Ice Plant

Commercial fish processing operations require refrigeration beyond ice production.

Blast freezing is the critical step between fresh catch and frozen product export. Blast freezers must bring fish internal temperature to -18°C (0°F) or below to meet international food safety and export quality standards. For large processors exporting to North American, European, or Japanese markets, blast freezing capacity determines how much volume can move from fresh to frozen per day. Compressor packages from Frick and Vilter handling low evaporating temperatures appear regularly in the surplus market from upgrading or closing US food processing operations.

Fish meal and fish oil processing operations — common in Peru, Ecuador, Chile, and coastal Latin American markets — use refrigeration primarily for cooling and condensing in processing rather than freezing. The loads and temperature requirements often suit used chiller and condensing unit equipment from the commercial refrigeration segment.

Cold rooms and refrigerated processing areas serving fish cleaning, filleting, portioning, and packing require temperatures just above 0°C for fresh product, with strict HACCP documentation as covered in Blog #6. Unit coolers matched to room volume and processing heat load, driven from the central ammonia or halocarbon plant, are standard architecture.

Why Surplus Equipment Is Particularly Well-Suited to Fishing and Fish Processing Markets

Fishing and fish processing operations in the Caribbean, Central America, and Latin America face the most concentrated version of the procurement challenges described in Blog #4. New industrial refrigeration equipment lead times, landed import costs, currency risk, and the limited local availability of heavy industrial refrigeration hardware combine to make quality surplus from a US-based supplier not just an option but often the only practical path to timely capacity.

Several factors make surplus equipment especially appropriate for this sector.

The equipment is well-established. Ice plant refrigeration has not undergone radical technology change. Frick screw compressor packages, Vilter reciprocating units, BAC evaporative condensers, and ammonia vessels that served US fish processing plants for 20 to 30 years are fully appropriate for Caribbean and Latin American ice plants and fish processors. The technology is proven, parts networks exist in the region, and field technicians know these machines.

Volume requirements map naturally to surplus scale. An ice plant serving a mid-size fishing port needs 20 to 100 tons of daily production capacity — exactly the size range that surplus inventories carry. It is large enough to justify industrial-grade ammonia equipment and too large for packaged light-commercial equipment.

The capital constraint is acute. Fishing communities and fish processors in developing markets typically cannot absorb new industrial refrigeration prices. A $200,000 to $400,000 investment in a new compressor package and condenser — before freight and installation — is beyond the capital structure of most operations in these markets. Quality surplus equipment at 40% to 70% of new cost, with immediate availability, changes the math entirely and opens projects that would not happen otherwise.Export requirements create urgency. Operations seeking to qualify for export relationships with US, EU, or Japanese buyers face food safety standards requiring documented temperature control throughout the cold chain. An operation building or upgrading its ice plant for export certification cannot wait six to twelve months for new equipment. Surplus equipment available for shipping in weeks — not months — is what makes export qualification timelines achievable.

Frequently Asked Questions About Ice Plant and Fish Processing Refrigeration

Fish Quality Starts at the Ice Plant

The refrigeration infrastructure that supports fishing and fish processing operations is not optional. It is the difference between a catch that reaches the market in excellent condition and revenue that never materializes. For operations in the Caribbean, Central America, and Latin America building or expanding their ice production and fish processing cold chain, quality surplus equipment from Refrigeration Equipment Pros provides the combination of proven performance, available scale, and accessible cost that makes these projects possible.

We carry compressors, evaporative condensers, ammonia vessels, cold room equipment, and complete refrigeration plants suited to ice production and fish processing applications — from the brands your engineers and technicians already know.

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Sources

  1. FAO — “The State of World Fisheries and Aquaculture 2022.” 35% of fish and seafood production lost or wasted globally; preservation infrastructure gaps in Latin America and Africa. Referenced via IIR and Journal of Fisheries & Livestock Production. https://www.fao.org/fishery/en
  2. FAO/UN Fisheries Technology Service — “Icemaking Plant.” Flake ice production at -20°C to -25°C evaporator temperature; tube ice cylinder specifications; block ice brine bath freezing at -8°C to -12°C. https://www.fao.org/4/x5940e/x5940e01.htm
  3. North Star Ice Equipment — “Seafood — Industrial Ice Equipment.” Flake ice requires 1.3 tons of refrigeration per ton of ice production from 60°F water; applications in fishing and seafood processing. https://www.northstarice.com/catalog/industrial-ice-equipment/seafood
  4. AmmoniaGas.com — “Cold Storage and Ammonia Refrigeration: How Industrial Cooling Works.” Ice plants for block and flake ice almost universally built around ammonia systems; direct evaporation temperatures for flake ice. April 2026. https://ammoniagas.com/cold-storage-ammonia-refrigeration/
  5. National Fisherman — “Refrigeration, Slurry Ice and Why Fish Quality Comes First.” Capital constraints in fishing communities; fishermen’s refrigeration adoption driven by fish quality, not emissions. February 2026. https://www.nationalfisherman.com/refrigeration-slurry-ice-and-why-fish-quality-comes-first
  6. International Institute of Refrigeration (IIR) — “Towards a Sustainable Seafood Cold Chain.” FAO estimates on fish losses in Latin America and Africa; refrigeration infrastructure gaps in developing markets. https://iifiir.org/en/news/towards-a-sustainable-seafood-cold-chain
  7. SINTEF — “Refrigeration and Sustainability in the Seafood Cold Chain.” Norwegian fishing vessel refrigeration systems; ammonia as primary refrigerant onboard fishing vessels; refrigerated seawater (RSW) systems. https://www.sintef.no
  8. Refrigeration Equipment Pros — Ice Plants and Fishing and Fish Processing market pages. https://refrigerationequipment.net/ice-plants/ and https://refrigerationequipment.net/fishing-and-fish-processing/