Jetomat steam jet ejectors give corrugators fast, recipe-based steam control for lightweight/coated grades by recompressing flash steam instead of throttling—keeping hotplate temperatures stable through rapid grade and speed changes. The result is lower warp and waste with typical boiler fuel/steam reductions of ~10–20% (often higher where venting/trap losses were significant) and a simpler steam loop with fewer traps.

Baelz 585 steam-water mixing ejectors make instant hot water by directly injecting and condensing steam into the water line inside a compact mixing body—no heat exchanger surface to foul.
They deliver fast, tight temperature control for dyeing and washers with lower footprint and maintenance, provided basic flow and water-hammer interlocks are used.

Jetomat flash steam recovery captures low-pressure vapor from traps/flash tanks and recompresses it (using a controlled motive steam jet) into usable 2–4 bar(g) mixed steam for reboilers, evaporators, and other MP users.
This typically displaces nearly 1:1 fresh boiler steam, cutting fuel and vent plumes while improving pressure stability, steam economy, and maintenance simplicity.

Outdated steam loops (PRVs + trap banks + open vents) quietly destroy profit through throttling losses, flash-steam venting, trap leakage, and temperature swings that hurt quality and uptime. Jetomat thermocompression replaces “drop & dump” with “entrain & reuse,” cutting steam/fuel, reducing maintenance points, and stabilizing heating—often with payback in months.

Over a 5-year horizon, PRV + traps usually costs more because you keep paying for throttling losses, flash venting, trap failures, and recurring surveys. A Jetomat ejector recovers low-pressure vapor and holds the user setpoint with fewer components, so the 10–30% steam saving plus lower maintenance typically delivers payback in months and a clearly lower lifecycle TCO.

Jetomat ejectors improve deaerator/feedwater efficiency by capturing vented flash steam from condensate receivers and recompressing it into usable mixed steam for DA heating, reducing boiler firing and eliminating roof plumes.
Recovered vapor typically displaces fresh DA heating steam nearly 1:1, cutting fuel, make-up water, and chemical dosing with simple pressure/temperature control and low maintenance.

Jetomat thermocompressors improve multi-effect evaporator steam economy by recompressing lower-pressure vapor from a downstream effect and reusing it as heating steam for an upstream effect—reducing live steam demand without adding a new effect.
Typical outcome is ~10–25% better steam economy (less boiler firing, water/chemical use, and venting) with stable control and low maintenance because there are no rotating parts.

Jetomat 591 converts superheated steam into saturated (or slightly wet) steam by combining stable pressure control with precise water injection, so the outlet stays at the saturation temperature for that pressure.
This prevents hot spots and drips in textile steamers and similar users, delivering fast response and uniform heat transfer with typically ~3–5% injection water and tight temperature control.

Fixed ejectors work well only at one design point; off-design they can lose suction or over-compress, forcing bypass and wasting steam.
A controllable Jetomat modulates the motive nozzle to hold mixed pressure and suction stable across wide turndown (about ~10–15% to 70–80% vs ~2–5% for fixed).
Result: consistent flash-steam recovery and better efficiency during real load/header swings.

Jetomat is a controllable steam ejector that uses high-pressure motive steam to create suction, entrain low-pressure flash/vent steam, and recover pressure in a diffuser to deliver stable mixed steam—no rotating parts.
By modulating the nozzle, it holds pressure under load swings and reuses wasted vapor, reducing steam/fuel use versus PRV throttling.

If your textile plant still runs an open-loop steam system—vented condensate tanks, atmospheric flash tanks, visible plumes—you’re literally watching money evaporate. That white “steam cloud” is Flash Steam and treated water you already paid to heat and chemically condition. The fix is straightforward: use Jetomat Steam Jet Ejectors to pull what used to be exhaust/flash and reintroduce it into the system at a useful pressure. This post walks through how to convert open systems to closed circulation, cut venting to near-zero, and reduce make-up water and chemicals—without adding rotating machinery.

Jetomat ejectors boost jacketed reactor heat transfer by continuously recirculating steam/condensate, stripping the condensate film that insulates the jacket wall and stabilizing jacket pressure/temperature.
In the case example, U increased ~25%, enabling 15–20% faster heat-up or ~25% more batch throughput with similar batch energy—so energy per kg of product dropped.

Jetomat thermocompressors reuse flash/return steam instead of throttling and venting, typically reducing steam/fuel use by ~10–30% while stabilizing temperature control.
Across textiles, corrugators, food, and paper, sites also report fewer traps/maintenance, lower plumes, improved quality (warp/moisture), and fast payback when vent losses are stopped.

This blog compares pneumatic vs. electric actuation for controllable Jetomat ejectors, explaining how actuator speed and positioning accuracy directly affect entrainment stability, mixed-steam pressure, and energy recovery.
Pneumatic suits fast, high-heat, fail-safe-critical loops (quick spring-return response), while electric suits sites prioritizing simple wiring, digital/fieldbus integration, and where instrument air is limited.

Jetomat upgrades replace throttling with thermocompression—recovering flash/return steam and reusing it—so plants typically see ~10–30% steam/fuel savings with steadier temperature control.
Across textile, corrugated, paper, and food plants, this also reduces traps/vents and improves quality (uniform drying, less warp) with fast payback where venting losses exist.

Jetomat simplifies steam tracing by replacing dozens of small traps with one controllable steam ejector that continuously pulls condensate from multiple tracing lines into a central return header.
This keeps tracers hot and dry (reliable freeze protection, fewer cold spots), reduces leaks and maintenance in pipe racks, and saves steam by eliminating trap failures and reusing flash steam.

Jetomat improves stenter heating by replacing “one valve + one trap per zone” with a single recirculating steam ejector loop that reuses flash steam and continuously clears condensate from all zones.
This keeps coil temperatures more uniform and responsive (typically ±1–2 K), reduces trap/valve maintenance, and commonly delivers ~15–20% steam/fuel savings while improving drying consistency and allowing higher line speeds.