Precision Induction Heating

Solutions for Every Industry

From laboratories to manufacturing floors, Himmelwerk provides the MHz heating technology trusted for accuracy, speed, and repeatability.

Select Your Industry

Aerospace

High-precision thermal processes for testing & prototyping

Electronics

Controlled heating for microcomponents and assemblies

Medical Devices

Clean, consistent joints and compliant assembly

Semiconductors

Surface-level MHz heating for sensitive materials

Automotive R&D

Thermal testing, joining, and prototyping

Materials Science

Reliable, consistent heating for analysis and research

High-Precision Heating for Advanced Testing Environments

Aerospace

Aerospace labs require predictable thermal behavior and reliable heat delivery for complex testing and prototyping work. Himmelwerk’s MHz systems provide accurate, surface-level heating with measurable power output. This makes our systems ideal for materials validation, fatigue testing, and cleanroom assembly where even minor thermal variation can compromise results.

Designed for

  • Thermal fatigue testing
  • Prototyping & component analysis
  • Cleanroom thermal processes
Controlled Heating for Micro-Components & Fine Assembly

Electronics

Electronics teams depend on highly localized heating that protects adjacent circuits and sensitive substrates. Himmelwerk’s MHz systems offer controlled, repeatable heat ideal for micro-soldering, assembly, diagnostics, and repair work, delivering the precision required for modern electronic assemblies without risking component damage.

Use Cases

  • Micro-soldering & precision joining
  • Component-level diagnostics
  • PCB repair & rework
Consistent, Clean Heating for Regulated Environments

Medical Devices

Medical device manufacturing demands tight control, repeatability, and clean heating behavior. Himmelwerk’s MHz systems provide precise, surface-level heat with minimal oxidation. Ideal for bonding, soldering, and assembly processes where predictable, verifiable results are essential for compliance and quality control.

Use Cases

  • Precision bonding & joining
  • Component assembly for regulated environments
  • Micro-soldering for medical electronics
MHz Technology for the World’s Most Sensitive Materials

Semiconductors

Semiconductor processes rely on localized, contamination-free heat delivery that won’t compromise delicate substrates or microstructures. Himmelwerk’s MHz systems deliver surface-level precision with exceptional stability. MHz systems are perfect for wafer-level work, micro-assembly, cleanroom operations, and thermal processes that require tight, repeatable control.

Use Cases

  • Wafer testing & micro-soldering
  • Packaging & component assembly
  • Cleanroom-compatible thermal operations
Precision Thermal Tools for Prototyping & Component Testing

Automotive R&D

Automotive engineering teams rely on accurate, repeatable heating for validating components, assembling mechanical fits, and performing failure analysis. Himmelwerk’s MHz systems deliver fast, controlled heating cycles ideal for shrink fitting, thermal testing, and rapid iteration throughout prototyping and development workflows.

Use Cases

  • Thermal fatigue & durability testing
  • Shrink fitting & mechanical assemblies
  • Prototyping & component analysis
Reliable Heating for Research, Analysis & Experimentation

Cleanroom Science

Materials science labs depend on stable, measurable heating for testing, characterization, and experimental work. Himmelwerk’s MHz systems provide consistent thermal delivery, tight control, and real-time power monitoring. Our MHz systems are ideal for researchers who require dependable results across repeated trials and varying material compositions.

Use Cases

  • Material property testing
  • Thermal cycling & controlled experiments
  • Research-based prototyping

Get Your Application Specific Solution

Himmelwerk designs each system around your industry’s unique application, materials, and requirements.

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