Induction Heating Solutions

Built for Your Application

From soldering and brazing to shrink fitting and micro-assembly, Himmelwerk delivers clean, controlled, repeatable heating for every stage of R&D and production.

Choose Your Application Area

Himmelwerk designs each system around material, temperature, and production requirements

Soldering & brazing

Clean, localized heating for precision joints

Shrink Fitting

Fast, controlled thermal expansion

Bonding & micro-assembly

Contactless heat for delicate operations

Thermal Testing

Data-backed heating for failure analysis

PCB and Circuit Heating

Surface-level control without damaging components

Cleanroom

Low-oxidation heating with repeatable cycles

Mitarbeiter misst Induktor aus
Clean, Repeatable Heating for Precision Joints

Soldering & Brazing

Himmelwerk’s MHz systems deliver fast, oxidation-reduced heating ideal for micro-soldering, brazing sensitive components, and controlled thermal joining. Teams benefit from consistent heat zones, reduced contamination, and predictable performance across repeated assembly or test cycles.

Designed for

  • Electronics & microcomponents
  • Medical device assembly
  • Material testing laboratories
Fast Thermal Expansion with Controlled Heat Zones

Shrink Fitting

Shrink fitting requires heating specific parts without affecting surrounding components. Himmelwerk’s MHz induction systems deliver localized, uniform heat. This makes our systems ideal for press fits, bearing installation, and precision mechanical assemblies where cycle speed and repeatability matter.

Use Cases

  • Bearing and gear installation
  • Press-fit joining
  • Mechanical assembly operations
Mann mit Brille
Heat Without Contact

Bonding and Micro-Assembly

MHz induction allows precise, non-contact heating that protects sensitive materials and assemblies. This makes Himmelwerk an ideal solution for bonding microelectronics, fiber optic components, and other assemblies that require high accuracy without mechanical pressure or contamination.

Use Cases

  • Fiber optic assembly
  • Micro-electronics bonding
  • Lab-scale prototyping
Traceable, Measurable Heating for R&D Teams

Thermal Testing and Failure Analysis

When material testing or failure analysis demands repeatability, Himmelwerk’s MHz systems deliver watt-by-watt control with consistent thermal cycling. Engineers gain precise, data-backed results for evaluating performance, durability, and thermal response under controlled conditions.

Use Cases

  • Thermal cycling & heat profiling
  • Failure mode analysis
  • Controlled environmental testing
Produkt-Entwickler von Himmelwerk vor dem Computer mit simulationssoftware
Surface-Level Heating Without Component Damage

PCB and Circuit Heating

Printed circuit assemblies require careful thermal management to prevent damage to surrounding components. Himmelwerk’s MHz systems deliver controlled, surface-level heating ideal for micro-soldering, rework, trace repair, and localized diagnostics, minimizing risk while improving accuracy and speed.

Use Cases

  • PCB component rework & removal
  • Trace repair & micro-soldering
  • Localized thermal diagnostics
Clean, Controlled Heating with Minimal Oxidation

Cleanroom Processes

Cleanroom environments depend on heating solutions that minimize contamination and provide consistent thermal delivery. Himmelwerk’s MHz technology supports stable, low-oxidation heating perfect for semiconductor manufacturing, medical device assembly, and any process requiring tightly controlled heat in sterile conditions.

Use Cases

  • Cleanroom micro-assembly
  • Semiconductor thermal operations
  • Regulated manufacturing processes

Get Your Application Specific Solution

Tell us about your material, heating target & throughput goals and our team will recommend the right MHz system for your specific application.

Seit 1950 wurden von Himmelwerk 19.000 Hochfrequenz- und Mittelfrequenzgeneratoren in alle Welt verschickt.
Wie viel CO₂ sparen sie eigentlich pro Jahr ein? Eine Rechnung.

Annahme 1: 25 % der Generatoren sind noch in Betrieb.

Annahme 2: Sie haben im Durchschnitt eine Leistung von 6 kW und damit eine Leistungsaufnahme von 7 kW.

Annahme 3: Die Generatoren sind 8 Stunden/Tag und 5 Tage/Woche in Betrieb.

Annahme 4: Induktive Erwärmung spart bis zu 40 % Energie ein im Vergleich zu konventionellen Methoden. Gehen wir mal von 30 % aus.

Bei diesen Annahmen sieht die Rechnung so aus:

Täglicher Energieverbrauch: 8 h x 7 kW = 56 kW

Energieersparnis am Tag: 56 kWh / 0,7 = 80 kWh; 80 – 56 = 24 kWh

Gesamtersparnis am Tag: 24 kWh x 4.750 Generatoren = 114.000 kWh

Gesamtersparnis pro Jahr: 220 Arbeitstage x 114.000 kWh = 25.080.000 kWh

Umrechnungsfaktor kWh/CO₂: 1 kWh ≈ CO₂-Äquivalenzwert von 0,485 kg Strom (Quelle: Umweltbundesamt, Climate Change 15/2022)

CO₂-Einsparung pro Jahr: 25.080.000 kWh x 0,485 kg = 12.163.800 kg