IR MODULE 36 KW SYSTEM FOR PLASTIC CURING:

IR MODUL 3.0 KW – SYSTEM FOR HEATING CD BONDING:

IR MODULE 3.2 KW SYSTEM FOR PLASTIC HEATING:

IR MODULE 180 KW SYSTEM FOR PAPER DRYING:

IR MODULE 100 KW SYSTEM FOR FOIL DRYING:

IR MODULE 10 KW SYSTEM FOR HOTMELT ACTIVATION:

Quartz glass plates:
Grinded plates, available in max. size 500 x 500 mm, thickness 3 - 5 mm
Pulled plates, available in sizes from ca. 100 - 180 mm width and 1.200 - 2.000 mm length, thicknes 3 - 5 mm

Quartz glass tubes in different sizes and length

Any questions? Please contact
E-Mail: This email address is being protected from spambots. You need JavaScript enabled to view it.
Tel: +49 (0) 6181 / 709 364
Fax. +49 (0) 6181 / 709 365

Control Desktop Heating in production variety of small power controls Types of smaller controls enabling our customers to control temperature and efficiency according to their individual needs

Heating in production variety of small power controls Types of control cabinets enabling our customers to control temperature and efficiency according to their individual needs

Up to date Measurement, Control and Adjustment of ohmic load as well as Infrared emitters are the prerequisites to use Infrared systems for heating processes in an efficient and cost effective way.

NOTE:The max. load can only be achieved if all IR emitters are connected at a phase-symmetrical rate.

FEATURES OF CONTROL IC:

• The housing contains control ready for connection.
• Continuously adjustable linear power output.
• Potentiometers or external analog and digital control signals specify the control points.
• Monitoring circuit to recognize failures.
• Automatic interrupter to ensure an optimum conductor cross section to the load.
• Main switch to disconnect the control from mains.
• Can be easily integrated into superset systems.

Options:

• Set-point specification by a microprocessor controller with Ramp function.
• Connection to a data measuring device.
• Partial-load error monitoring of all load circuits.
• Special equipment on request.

Infrared radiation is applied for…

Infrared Radiation...

• has due to the specific features.a varied and individual range of applications.
• depending on the wave length of the light can be divided into long-wave, medium-wave, fast response medium-wave, short-wave and near-UV infrared.
• used in countless applications in Plastics-,Chemical-, Printing-, Wood-, Metal-, Paper-, Textile-, Food- and Automotive Industries.
• can be absorbed directly, reflected or transmitted through the body. All this depending upon the material’s nature. That’s why it is essentially important to find out the optimal emitter type for your specific heating purpose.
• and temperature gradients produce a controllable energy output, adjusted to match the heating requirements.
• the heating modules as well as the controlling and measuring technique are optimally designed. This guarantees optimum efficiency and quality.
• offers a wide range of possibilities to match temperature profiles with customer’s needs. The heat region zoning saves energy and money.

Provides following benefits…

• the process is economical and allows highly efficient heating processes.
• is a clean electrical heat source.
• is fast and immediately ready to use.
• is compact and has a small footprint.
• high heating up rates, due to the large power densities.
• an individually shaped and targeted heat section.
• requires no contact with the material.
• repeatable results can be achieved for consistent process outputs.

The emitter wavelength....

• is customized for industrial applications.The diagram on the left shows the most productive wavelength coverage of 1 – 4 µm.
• and the different designs and burning temperatures of the heating filament on infrared emitters.
• Medium Wave Infrared Emitters: Filament temperature: approx. 850 °C Emissions maximum: 2,0-2,6 µm
• Star Shape Infrared Emitters: Filament temperature: up to 1400°C Emissions maximum: 1,8-2,2 µm
• Fast Medium Wave Infrared Emitters: Filament temperature: up to 1600 °C Emissions maximum: 1,4-1,9 µm (Filament in Star Shape design)
• Short Wave Emitters (double tube/twin tube): Filament temperature: up to 2100 °C Emissions maximum: 0,9-1,6 µm Short Wave Emitters (single tube): Filament temperature: above 2500 °C Emissions maximum: 0,8-1,6 µm

Heating up of plastic by infrared.During the heating up process it should be considered that…

• only the appropriate emitter type achieves efficient and economically advantages.
• Absorption-Diagram on the right shows: Material: Polyethylene 0,1 mm As lined purple Material: PVC 0,02 mm As lined blue Wave length range: 1 – 4 µm Substantial effect of the infrared emitter: 3,2 – 3,8 µm
• physically seen, the emission behavior should,as accurately as, match the absorption behavior. The diagram shows that the directly usable portions of the radiating power obtain a higher efficiency if the emission maximum of an infrared emitter is as congruent as possible with the curves represented in purple or in blue.
• the red curve represents short wave emitters, in light blue is drawn the spectrum Star Shape emitters and the dark blue curve shows medium wave emitter types

Drying water-based paint by infrared…… During the drying process it should be considered that…

• only the appropriate emitter type achieves efficient and economically advantages.
• Absorption Diagram on the left shows: Water, as lined aquamarine.Wave length range: 1 – 4 µm Substantial effect of the infrared emitter: 2,5 – 3,5µm
• physically seen, the emission behavior should,as accurately as, match the absorption behavior. The diagram shows that the directly usable portions of the radiating power obtain a higher efficiency if the emission maximum of an infrared emitter is as congruent as possible with the in aquamarine represented curve.
• the red curve represents short wave emitters, in light blue is drawn the spectrum Star Shape emitters and the dark blue curve shows medium wave emitter types.