Custom Geometry Quartz Infrared Emitters

Special-Shaped Infrared Lamps

Custom U-shaped, circular, curved, loop and spiral infrared emitters designed around special heating areas, machine layouts and non-standard industrial equipment.

U-Shaped Lamps Circular Emitters Curved Quartz Lamps Spiral Heating Elements Drawing-Based Development
Custom U-shaped, circular and curved quartz infrared heating lamps
Shape developed around the equipment Geometry, bending radius, active heating area, reflector and end connections must be reviewed together.
Geometry Custom Shapes U-shaped, circular, curved, loop and spiral configurations.
Infrared Type Multiple Technologies Short-wave, medium-wave and selected carbon constructions.
Development Drawing or Sample Based Evaluation can begin from 2D drawings, 3D files or old samples.
Reflector Directional Options Clear, gold or white reflector designs can be reviewed.
Production Project-Specific Sample cost and minimum quantity depend on complexity.
Product Overview

Infrared emitters shaped around the required heating area

Straight infrared lamps work well for linear heating zones, but some machines require energy around a circular component, inside a compact chamber or across a curved product surface.

Special-shaped lamps can be designed to follow the equipment geometry more closely, helping position the heating element around the required area rather than forcing a straight emitter into an unsuitable space.

Shape alone does not define the complete lamp. Voltage, wattage, quartz diameter, heating technology, bending radius, reflector direction, active zones and terminals must all be considered together.

Send Your Drawing or Sketch
U Shape
Circular
Loop / Omega
Spiral
Shape Options

Common special-shaped infrared lamp configurations

Available geometry depends on quartz size, bending radius, heated length, filament construction and electrical requirements.

SHAPE 01

U-Shaped Infrared Lamps

Parallel heating sections connected by a curved end for compact chambers, moulds and equipment requiring return geometry.

Request a U-shaped lamp
SHAPE 02

Circular Infrared Emitters

Round or near-round heating arrangements for circular parts, rotating components and ring-shaped heating areas.

Send circular dimensions
SHAPE 03

Omega & Loop Shapes

Open-loop configurations that provide curved coverage while allowing electrical connections to exit from one side.

Discuss loop geometry
SHAPE 04

Spiral Infrared Emitters

Compact spiral arrangements for selected laboratory, equipment and concentrated heating applications.

Request spiral evaluation
SHAPE 05

Curved Quartz Lamps

Single or multiple bends designed to follow a machine wall, product contour or non-linear heating path.

Send bend positions
SHAPE 06

Customer-Specific Geometry

Non-standard shapes can be reviewed from technical drawings, STEP files, photographs or physical samples.

Submit a custom project

Shape design must follow the heating and installation requirements

A visual sketch is useful, but complete development requires dimensions, electrical data, heated zones and connection details.

Submit Project Information
Overall Geometry Confirm the complete width, height, diameter, angle and orientation.
Bending Radius Tight curves may be limited by quartz diameter and lamp construction.
Active Heating Area Identify which curved and straight sections should generate heat.
Cold Zones Unheated areas may be needed near seals, supports and connections.
Installation Direction Confirm the mounting position, orientation and available clearance.
Electrical Exit Position Terminal and wire directions must suit the machine connection area.
Development Process

From heating concept to prototype lamp

Special-shaped lamps normally require more technical review than straight standard emitters.

01

Project Review

Review the machine, material, required heating result, electrical supply and available installation space.

02

Geometry Confirmation

Confirm dimensions, bends, radius, active zones, reflector direction and electrical connection points.

03

Technical Evaluation

Review whether the requested geometry is compatible with quartz forming and the selected heating technology.

04

Prototype & Testing

Produce and evaluate samples before confirming larger production quantities for a new custom design.

Heating Technology Options

Select the infrared technology separately from the lamp shape

A U-shaped or circular lamp can still use different heating technologies depending on response and wavelength requirements.

Technology 01

Short-Wave Infrared

Fast-response, high-intensity heating for selected compact or cyclic industrial processes.

View short-wave lamps
Technology 02

Medium-Wave Infrared

More gradual heating for drying, coatings, moisture-related applications and selected materials.

View medium-wave lamps
Technology 03

Carbon Infrared

Carbon-element heating for plastics, textiles, coatings and responsive medium-wave applications.

View carbon infrared lamps
Technology 04

Replacement-Specific Design

Existing lamp construction can be matched when the original heating technology and dimensions are known.

View replacement support
Overall Width Overall Height Bending Radius
Dimensional Requirements

A few overall dimensions are not enough

A special-shaped lamp drawing should show the complete geometry and the relationship between heated areas, cold zones, bends and electrical connections.

  • Overall width, height and depth
  • Outside and centre-line bending radius
  • Quartz tube diameter or twin-tube cross-section
  • Length of each straight section
  • Location of every active heating area
  • Cold-zone lengths near seals and terminals
  • Angle and orientation of each bend
  • Terminal, ceramic end and lead-wire positions
Send a Dimensioned Drawing
Gold reflector infrared lamp showing directional reflector coating
Reflector orientation is especially important on curved lamps because the coated side changes direction along the geometry.
Reflector Direction

Direct infrared energy along a curved heating path

For reflector-coated shaped lamps, the drawing should clearly identify which side of every curved and straight section faces the product.

Gold Reflector Directional metallic reflector for selected custom lamp designs.
White Reflector Opaque reflector construction for selected heating and replacement projects.
Clear Quartz Broader radiation around the shaped tube without a directional coating.
Technical Specification Items

Information required to evaluate a custom-shaped infrared lamp

The more complete the drawing and application data, the more accurately the lamp can be reviewed.

Parameter What to Provide Why It Matters Recommended Reference
Voltage & Wattage Electrical rating and available power supply Determines heating-element and circuit design Lamp marking or machine documentation
Complete Geometry Width, height, diameter, angles and bend locations Defines whether the shape can fit and be produced Dimensioned PDF, CAD or STEP drawing
Bending Radius Inside, outside or centre-line radius Quartz forming has practical radius limitations Detailed bend drawing
Heated Zones Active lengths, unheated sections and divided areas Controls where infrared energy is generated Heating-zone diagram
Quartz Size Single-tube diameter or twin-tube cross-section Affects bending, power and installation clearance Drawing or measured old sample
Reflector Material, coverage and direction along each section Determines where infrared energy is directed Marked drawing and photographs
End Connections Ceramic parts, terminals, wire length and exit direction Must match the machine installation Close-up photographs of both ends
Application Conditions Material, temperature, heating distance and cycle Supports selection of wavelength and output Process description and machine layout
New Development & Replacement

Two routes for developing a special-shaped lamp

A new custom lamp begins with the heating area. A replacement lamp begins with the original product.

New Custom Development

Build the geometry around the machine and heating objective

The design should combine mechanical space, thermal performance and practical quartz-forming limitations.

  • Machine layout and available installation space
  • Material shape and required heating coverage
  • Voltage, wattage and control method
  • Bending radius and active heating zones
  • Reflector direction and terminal positions
  • Prototype quantity and expected production demand
Submit a new development project
Existing Lamp Replacement

Reproduce the critical geometry and electrical construction

A physical lamp sample is especially useful when the original shape contains multiple bends or complex connections.

  • Original part number and machine model
  • Voltage, wattage and lamp markings
  • Complete dimensions and bending radii
  • Quartz diameter and active heating areas
  • Reflector coverage and direction
  • Photographs of every bend and both ends
View replacement lamp support

Information needed for quotation

Special-shaped lamps require complete geometry and application information before price, sample cost and minimum quantity can be confirmed.

Prepare Your Enquiry
Drawing or 3D File Send a PDF, CAD, STEP file or measured sketch showing the complete shape.
Voltage & Wattage Confirm electrical ratings and the available machine power supply.
Overall Dimensions Include width, height, depth, diameter, angles and straight lengths.
Bending Radius Mark the radius or centre-line radius for every curved section.
Heated Zones Identify active sections, cold zones and any separate circuits.
Reflector Direction Mark which side of every curved section should face the product.
End Connections Show ceramic ends, terminals, lead wires and installation orientation.
Quantity & Application Confirm sample quantity, expected order quantity and operating conditions.
Custom development notice

Special-shaped lamps may require technical development, forming fixtures, prototype production and equipment testing. Sample cost, minimum order quantity and production feasibility depend on geometry, dimensions, electrical rating and process complexity.

Frequently Asked Questions

Special-shaped infrared lamp design and development

What is a special-shaped infrared lamp?

It is a quartz infrared emitter formed into a non-standard geometry such as a U shape, circle, loop, curve or spiral. The shape is normally selected to match the heating area or available machine space.

Which lamp shapes can be customized?

U-shaped, circular, omega, loop, curved and selected spiral configurations can be reviewed. Feasibility depends on quartz diameter, bending radius, heated length and internal construction.

Can a special-shaped lamp use short-wave or medium-wave infrared?

Yes. The shape and wavelength are separate design decisions. Short-wave, medium-wave and selected carbon-element constructions can be reviewed according to the process requirement.

Can you work from a STEP or CAD drawing?

Technical review can begin from STEP, CAD or dimensioned PDF drawings. Important dimensions should still be clearly marked, including bending radius, active zones and terminal positions.

Can an old shaped lamp be reproduced?

An old sample, photographs and machine information can support replacement evaluation. Voltage, wattage, dimensions, reflector and operating conditions should also be confirmed.

Can a shaped lamp have a gold or white reflector?

Reflector-coated shaped lamps can be reviewed. The reflector direction must be clearly identified along every straight and curved section of the lamp.

Is there a minimum order quantity for special-shaped lamps?

Minimum quantity depends on the geometry, tooling, material use and production complexity. It can only be confirmed after the technical design has been reviewed.

Is prototype testing recommended?

Yes. Prototype testing is recommended for new shapes and new heating applications because mechanical fit and thermal performance must both be verified.

Can these lamps be used in vacuum equipment?

Selected vacuum-equipment projects can be reviewed, but suitability depends on the required vacuum level, materials, sealing method, electrical connections, operating temperature and equipment validation.