1200°C porcelain furnace chambers
Resistance-wire heating for dental porcelain firing. Chamber size, sensor opening, lid or base interface and lead exits are made to the furnace design.
View porcelain chambers ↗
01Porcelain · zirconia sintering
Dental furnace chambers
Compare 1200°C resistance-wire porcelain furnace chambers with 1600-grade zirconia sintering chambers for long-term operation up to 1550°C.
1200°Cporcelain furnace chamber
1550°Czirconia long-term operation
Round / squarecustom chamber formats
02Overview
Dental porcelain firing and zirconia sintering require different chamber, element and electrical specifications. A 1200°C porcelain chamber uses resistance wire and is specified from the firing program, usable working zone, loading opening, sensor position, lead exits and lid or base interfaces. A 1600-grade zirconia chamber is available for up to 1550°C long-term operation with high-purity MoSi2 or double-spiral SiC elements. Round chambers are preferred; square chambers are available for flat-wall OEM and replacement interfaces.
Choose your dental furnace chamber
Select by firing process. Both families are available in round or square formats, with round chambers as the preferred design.
Zirconia sintering furnace chambers
1600-grade ceramic fiber chambers for 1550°C continuous operation, with high-purity MoSi₂ or double-spiral SiC heating elements.
View zirconia chambers ↗03Product views
Round and square dental chamber formats.
Porcelain furnace family
1200°C chamber · resistance wire
Zirconia sintering family
1600 grade · up to 1550°C long-term working temperature
Zirconia element options
High-purity MoSi2 or double-spiral SiC
Chamber shape
Round or square, selected from the furnace interface
Development input
2D/3D drawing, marked sample or reference chamber
Minimum order
1 unit or sample
Packing
Standard export wooden case
05Selection guide
Separate porcelain firing from zirconia sintering before defining the chamber.
The firing program, load and electrical system determine the chamber specification. A 1200°C porcelain unit uses resistance wire; a 1600-grade zirconia unit for long-term operation up to 1550°C uses high-purity MoSi2 or double-spiral SiC elements. Body shape is then selected from the working zone and equipment interfaces.
Porcelain firing input
Provide ramp and hold stages, vacuum interval when used, cooling or opening sequence, cycle frequency, usable working zone, resistance-wire electrical data and thermocouple position.
Zirconia sintering input
Provide the complete sintering curve, load or saggar clearance, atmosphere, high-purity MoSi2 or SiC preference, voltage, power, circuit grouping and element-replacement access.
Round or square chamber
Use a round chamber for a concentric working zone or a square chamber where the casing, loading path, locating faces, lid or base require flat interfaces. Mark the selected shape and mating dimensions on the equipment drawing.
1200°C porcelain furnace chamberSee the resistance-wire construction and RFQ inputs.↗Zirconia sintering furnace chamberSee the 1600-grade chamber and two element options.↗Dental furnace application guideSpecify the chamber family from the firing cycle and equipment interfaces.↗Download the two dental data sheetsOpen the download center for porcelain and zirconia chamber documents.↗
06Custom engineering
Match the chamber family, geometry and heating system.
Select the porcelain or zirconia chamber from the firing program, then record the working zone, chamber shape, element system, electrical circuits, thermocouple, lid or base interfaces and service clearances on the drawing.
- 01Firing program, atmosphere and cycle frequency
- 02Round or square chamber
- 03Working bore or width, height, loading access and load clearance
- 04Element layout, voltage, power, circuits, leads and terminals
- 05Thermocouple, lid, base and equipment openings
- 06Critical dimensions and electrical checks for the prototype
07Application fit
Dental porcelain firing and zirconia sintering applications.
1200°C porcelain furnace chambers
Resistance-wire chambers for dental ceramic firing equipment, with round construction preferred and square versions available.
Application details ↗Zirconia sintering furnace chambers
1600-grade chambers for long-term operation up to 1550°C with high-purity MoSi2 or double-spiral SiC elements.
Application details ↗Dental furnace OEM production
SYNTHE can measure an existing component or work from a drawing, manufacture one prototype, and retain the confirmed drawing for repeat orders.
Application details ↗
ProjectProduct configuration
P300/P310 dental furnace chamber set
This production group contains two distinct compact dental chamber formats with round bores, spiral heating structures, leads and locating features.
Porcelain and zirconia sintering duties use separate chamber and element specifications.
The chamber shape follows the working zone and mating equipment surfaces.
A sample can establish fit and agreed electrical characteristics before repeat production.
08Product FAQ
Dental chamber selection questions.
01Which dental furnace chamber do I need?+
Use the 1200°C resistance-wire family for dental porcelain furnaces. Use the 1600-grade zirconia sintering family for long-term operation up to 1550°C.
02Are both round and square dental chambers available?+
Yes. Round chambers are preferred, and square chambers are available. Select the shape from the working zone, loading path, lid or base profile, locating faces and available external envelope.
03Which heating elements are available for zirconia sintering chambers?+
High-purity MoSi2 and double-spiral SiC heating elements are available. The firing curve, atmosphere, load clearance, supply voltage, circuit grouping, sensor position and replacement access are needed to complete the element layout.
04Can SYNTHE work from an existing chamber?+
Yes. A reference sample can support geometry capture, while temperature, electrical data, openings and critical fit dimensions are confirmed before production.
10Product quotation
Request pricing for dental furnace chambers.
Send the product dimensions, operating temperature and quantity. For a heated assembly, add the available voltage and power; a drawing or sample photo can help define the rest.