Heat – Edge
Manufacturer of Quality Industrial Heaters
TUBULAR HEATERS
STRAIGHT TUBULAR HEATER
» Depending on their rating, sheath and shape., (conduction, convection, and radiation heating) that require process temperatures of up to 750° C to heat liquids, gases and solids.
» Tubular heaters are used in a variety of heat applications
“conduction”
“convection”
“radiation heating”
» Require process temperatures of up to 750° C to heat liquids, gases and solids
Application
» Forming Machines
» Heating Molds & Platens
» Immersion Into Liquids
» Radiant Heating
» Embedded Or Cast Into Metal
U-SHAPED TUBULAR HEATER
» Depending on their rating, sheath and shape., (conduction, convection, and radiation heating) that require process temperatures of up to 750° C to heat liquids, gases and solids.
» Tubular heaters are used in a variety of heat applications
“conduction”
“convection”
“radiation heating”
» Require process temperatures of up to 750° C to heat liquids, gases and solids.
Application
» Forming Machines
» Heating Molds & Platens
» Immersion Into Liquids
» Radiant Heating
» Embedded Or Cast Into Metal
W-SHAPED TUBULAR HEATER
» Depending on their rating, sheath and shape., (conduction, convection, and radiation heating) that require process temperatures of up to 750° C to heat liquids, gases and solids.
» Tubular heaters are used in a variety of heat applications
“conduction”, “convection”, “radiation heating”
» Require process temperatures of up to 750° C to heat liquids, gases and solids.
Application
» Forming Machines
» Heating Molds & Platens
» Immersion Into Liquids
» Radiant Heating
» Embedded Or Cast Into Metal
SINGLE LOOP TUBULAR HEATER
» Depending on their rating, sheath and shape., (conduction, convection, and radiation heating) that require process temperatures of up to 750° C to heat liquids, gases and solids.
» Tubular heaters are used in a variety of heat applications
“conduction”, “convection”, “radiation heating”
» Require process temperatures of up to 750° C to heat liquids, gases and solids.
Application
» Forming Machines
» Heating Molds & Platens
» Immersion Into Liquids
» Radiant Heating
» Embedded Or Cast Into Metal
J SHAPED TUBULAR HEATER
» Depending on their rating, sheath and shape., (conduction, convection, and radiation heating) that require process temperatures of up to 750° C to heat liquids, gases and solids.
» Tubular heaters are used in a variety of heat applications
“conduction”, “convection”, “radiation heating”
» Require process temperatures of up to 750° C to heat liquids, gases and solids.
Application
» Forming Machines
» Heating Molds & Platens
» Immersion Into Liquids
» Radiant Heating
» Embedded Or Cast Into Metal
CIRCULAR WITH EXTENDED NECK TUBULAR HEATER
» Depending on their rating, sheath and shape., (conduction, convection, and radiation heating) that require process temperatures of up to 750° C to heat liquids, gases and solids.
» Tubular heaters are used in a variety of heat applications
“conduction”, “convection”, “radiation heating”
» Require process temperatures of up to 750° C to heat liquids, gases and solids.
Application
» Forming Machines
» Heating Molds & Platens
» Immersion Into Liquids
» Radiant Heating
» Embedded Or Cast Into Metal
CIRCULAR WITH VERTICAL ENDS TUBULAR HEATER
» Depending on their rating, sheath and shape., (conduction, convection, and radiation heating) that require process temperatures of up to 750° C to heat liquids, gases and solids.
» Tubular heaters are used in a variety of heat applications
“conduction”, “convection”, “radiation heating”
» Require process temperatures of up to 750° C to heat liquids, gases and solids.
Application
» Forming Machines
» Heating Molds & Platens
» Immersion Into Liquids
» Radiant Heating
» Embedded Or Cast Into Metal
SCREW PLUG HEATER
Description
» Screw Plug Immersion Heaters consist of hairpin bent tubular elements brazed or welded into a screw plug and provided with terminal enclosures for electrical connections.
» Screw Plug Immersion Heaters are screwed directly through a threaded opening in a tank wall or through a matching pipe coupling or half coupling.
» Sizes of screw plug heaters are available with 1/2, 3/4, 1, 1-1/4, 2 and 2-1/2″ pipe threads.
» A wide selection of screw plug sizes, kilowatt ratings,
voltages, sheath materials, terminal enclosures and thermostats makes these compact heaters ideal for all types of applications.
Application
» Screw Plug Immersion Heaters are used for heating liquids and gases in a variety of processes.
» These heaters are ideal for process water heating and freeze protection.
» These heaters are ideal for process water heating and freeze protection. All types of oils and heat transfer solutions can also be heated using these compact, easily controlled units.
» The direct immersion method is energy efficient and well suited for many applications.
“Hot Water Storage Tanks”, “Warming Equipment”, “Preheating all Grades of Oil”, “Food Processing Equipment”
“Cleaning and Rinsing Tanks”
“Heat Transfer Systems”
“Process Air Equipment”
“Boiler Equipment”
“Freeze Protection of Any Fluid”
Application Factors
» The heated media, viscosity, specific heat, density and corrosive properties.
» Contaminants or pH present in the media.
» The corrosion resistant properties of heater sheath material.
» Watt density of the heating element the heat output per square inch.
» Screw plug material.
FLANGE HEATER
Description
» Flanged Immersion Heaters consist of hairpin bent tubular elements welded or brazed into a flange and provided with wiring boxes for electrical connections.
» Flange heaters are installed by bolting to a matching flange welded to the tank wall or nozzle.
» A wide selection of flange sizes, kilowatt ratings, voltages, terminal enclosures and sheath materials make these heaters ideal for all types of heating applications.
Application
» Flanged immersion heaters are one of the most widely used methods for heating gases and liquids (such as water, oil, heat transfer fluid and corrosive solutions).
» Designed for use in tanks and pressurized vessels, they are easy to install and maintain to provide heat for many processes.
» The direct immersion method is energy efficient and easily monitored and controlled.
“Hot Water Storage Tanks”, “Warming Equipment”, “Preheating all Grades of Oil”, “Food Processing Equipment”, “Cleaning and Rinsing Tanks”
“Heat Transfer Systems”
“Process Air Equipment”
“Boiler Equipment”
“Freeze Protection of Any Fluid”
Application Factors
» The heated media, viscosity, specific heat, density and corrosive properties.
» Contaminants present in the medium.
» The heater sheath material corrosion resistant properties.
» Watt density of the heating element the heat output per square inch.
» Maximum sheath temperature this is the recommended maximum sheath temperature of the element material. It is not the operating temperature of the heated medium.
SQUARE FLANGE J HOT WATER TANK HEATER
» Flanged Immersion Heaters consist of hairpin bent tubular elements welded or brazed into a flange and provided with wiring boxes for electrical connections.
» Flange heaters are installed by bolting to a matching flange welded to the tank wall or nozzle.
» A wide selection of flange sizes, kilowatt ratings, voltages, terminal enclosures and sheath materials make these heaters ideal for all types of heating applications.
Application
» Flanged immersion heaters are one of the most widely used methods for heating gases and liquids (such as water, oil, heat transfer fluid and corrosive solutions)
» Designed for use in tanks and pressurized vessels, they are easy to install and maintain to provide heat for many processes.
» The direct immersion method is energy efficient and easily monitored and controlled.
“Hot Water Storage Tanks”
“Warming Equipment”
“Preheating all Grades of Oil”
“Food Processing Equipment”
“Cleaning and Rinsing Tanks”
» Maximum sheath temperature this is the recommended maximum sheath temperature of the element material. It is not the operating temperature of the heated medium.
SQUARE FLANGE HEATER
Description
» Flanged Immersion Heaters consist of hairpin bent tubular elements welded or brazed into a flange and provided with wiring boxes for electrical connections.
» Flange heaters are installed by bolting to a matching flange welded to the tank wall or nozzle.
» A wide selection of flange sizes, kilowatt ratings, voltages, terminal enclosures and sheath materials make these heaters ideal for all types of heating applications.
» Flange heaters are installed by bolting to a matching flange welded to the tank wall or nozzle.
» A wide selection of flange sizes, kilowatt ratings, voltages, terminal enclosures and sheath materials make these heaters ideal for all types of heating applications.
Application
» Flanged immersion heaters are one of the most widely used methods for heating gases and liquids (such as water, oil, heat transfer fluid and corrosive solutions).
» Designed for use in tanks and pressurized vessels, they are easy to install and maintain to provide heat for many processes.
» The direct immersion method is energy efficient and easily monitored and controlled.
“Hot Water Storage Tanks”, “Warming Equipment”, “Preheating all Grades of Oil”, “Food Processing Equipment”, “Cleaning and Rinsing Tanks”, “Heat Transfer Systems”, “Process Air Equipment”
“Boiler Equipment”
“Freeze Protection of Any Fluid”
Application Factors
» The heated media, viscosity, specific heat, density and corrosive properties.
» Contaminants present in the medium.
» The heater sheath material corrosion resistant properties.
» Watt density of the heating element the heat output per square inch.
» Maximum sheath temperature this is the recommended maximum sheath temperature of the element material. It is not the operating temperature of the heated medium.
SANITARY FOOD GRADE IMMERSION HEATER
Description
» Flanged Immersion Heaters consist of hairpin bent tubular elements welded or brazed into a flange and provided with wiring boxes for electrical connections.
» Flange heaters are installed by bolting to a matching flange welded to the tank wall or nozzle.
» A wide selection of flange sizes, kilowatt ratings, voltages, terminal enclosures and sheath materials make these heaters ideal for all types of heating applications.
Application
» Flanged immersion heaters are one of the most widely used methods for heating gases and liquids (such as water, oil, heat transfer fluid and corrosive solutions).
» Designed for use in tanks and pressurized vessels, they are easy to install and maintain to provide heat for many processes.
» The direct immersion method is energy efficient and easily monitored and controlled.
“Hot Water Storage Tanks”, “Warming Equipment”, “Preheating all Grades of Oil”, “Food Processing Equipment”, “Cleaning and Rinsing Tanks”, “Heat Transfer Systems”, “Process Air Equipment”, “Boiler Equipment”
“Freeze Protection of Any Fluid”
Application Factors
» The heated media, viscosity, specific heat, density and corrosive properties.
» Contaminants present in the medium.
» The heater sheath material corrosion resistant properties.
» Watt density of the heating element the heat output per square inch.
» Maximum sheath temperature this is the recommended maximum sheath temperature of the element material. It is not the operating temperature of the heated medium.
CIRCULATION HEATER
Description
» Circulation heaters are packaged units consisting of a screwplug or flanged immersion heater mounted in a thermally insulated heating chamber for efficient heating of a flowing medium by in-line or side-arm operation.
» Thermocouple sensors can be provided to connect to most any controller.
» Select from many terminal enclosures, sheath and vessel materials, flanged connections, and controls.
» Circulation heaters are packaged units designed to heat a flowing medium using in-line or side-arm piping configurations.
» Complete units consist of built-in heating elements, a heating chamber, thermostat and/or sensors (stock units), insulation, insulation jacket, mounting brackets and inlet and outlet connections.
» Circulation heaters offer high efficiency since all heat is generated within the solution.
» Fluids are directed past the heating elements giving fast response and even heat distribution.
» A wide selection of kilowatt ratings, materials, vessel sizes, terminal enclosures, control features and mounting methods are available for all types of heating requirements
Typical Applications
» Water Heating
“Washrooms, dish washing and rinsing, process water heating, jackete kettles, hot water storage tanks and hydronic heating systems”
» Freeze Protection
“Water cooled engines, stand pipe water tanks for fire protection, oil sump heaters”
» Heat Transfer Oil Heating
“Process kettles, molding dies and platens, mixing and blending mills, closed-loop heat transfer systems for asphalt and heat sensitive materials”
» Fuel Oil Heating
“Preheating to pumping viscosity, preheating for delivery to burners”
» Steam, Air and Gas Heating
“Steam super heating, air preheating for process equipment”
Description
» A duct heater which consists of a set of bare tubular heaters or finned tubular heaters mounted in a support made of electroplated zinc or stainless steel sheet metal is usually intended to heat air circulating in a duct network.
» Several types of duct heaters can be distinguished according to their applications
Terminal Air Heater
» Located ahead of the blowing vents in an air-conditioning network. It is relatively low powered (a few kW)
» Circular duct heaters or “drawer type” duct heaters are the most widespread in use.
» “Drawer-type” heaters, which are designed to be installed directly in an opening made in the duct, are built around stored elements.
» They are bent upon request and can be delivered in small series in a week.
Main Air Heater
» Located upstream from the duct network at the air treatment station level
» It heats the treated air volume in its totality. Its power reaches a few tens of kW.
» Consisting of bare tubular elements or finned tubular elements, these duct heaters generate low transition losses. They are usually built around stored elements, assuring short delivery deadlines, and are installed in a frame made of glavanised steel sheet (stainless on request) sized to dimensions of blowing duct.
DUCT HEATER – VERTICAL INSTALLATION
Description
» A duct heater which consists of a set of bare tubular heaters or finned tubular heaters mounted in a support made of electroplated zinc or stainless steel sheet metal is usually intended to heat air circulating in a duct network.
» Several types of duct heaters can be distinguished according to their applications.
Terminal Air Heater
» Located ahead of the blowing vents in an air-conditioning network. It is relatively low powered (a few kW)
» Circular duct heaters or “drawer type” duct heaters are the most widespread in use.
» “Drawer-type” heaters, which are designed to be installed directly in an opening made in the duct, are built around stored elements.
» They are bent upon request and can be delivered in small series in a week.
Main Air Heater
» Located upstream from the duct network at the air treatment station level
» It heats the treated air volume in its totality. Its power reaches a few tens of kW.
» Consisting of bare tubular elements or finned tubular elements, these duct heaters generate low transition losses. They are usually built around stored elements, assuring short delivery deadlines, and are installed in a frame made of glavanised steel sheet (stainless on request) sized to dimensions of blowing duct.
MINERAL INSULATED COIL HEATER
MINERAL INSULATED COIL HEATER
Features
» Standard lead wire construction is a fiberglass braided insulation with stainless steel over braid suitable for 482°F (250°C).
» The standard wire to M.I. cable transition area (potting adapter) is temperature rated to 450°F (232°C). High temperature 842°F(450°C) is optional.
» The ANSI type J standard or optional Type K thermo couple junction can be grounded at the tip (the end farthest from transition area) or under grounded anywhere along the length of the heater.
» Heaters can be supplied with optional stainless steel clamping straps, which can provide additional circumferential clamping forces and protection of the heater coils from accidental damage.
» Mineral insulated coil heaters are available with 1 or 6 different lead orientations.
» Can be supplied with optional grounding wire upon request.
CERAMIC ELEMENTS
FULL FLAT ELEMENT
Features
» Available from 150~1000 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
HALF FLAT ELEMENT
Features
» Available from 125~500 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
QUARTER FLAT ELEMENT
Features
» Available from 125~250 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
SQUARE FLAT SOLID ELEMENT
Features
» Available from 150~750 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
LARGE FULL FLAT ELEMENT
Features
» Available from 150~1400 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
HALF THROUGH ELEMENT
Features
» Available from 125~500 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
QUARTER THROUGH ELEMENT
Features
» Available from 125~500 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
QUARTER CURVED ELEMENT
Features
» Available from 60~250 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
LARGE FULL THROUGH ELEMENT
Features
» Available from 1000~1500 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
SQUARE FLAT ELEMENT HOLLOW
Features
» Available from 250~800 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
FULL FLAT ELEMENT HOLLOW
Features
» Available from 250~800 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
HALF FLAT ELEMENT HOLLOW
Features
» Available from 125~400 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
QUARTER FLAT ELEMENT HOLLOW
Features
» Available from 125~200 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : Up to 20,000 hours depending on conditions
» Recommended radiation distance from heater is 100mm to 200mm
» Supplied with 100mm ceramic beaded power leads
EDISON SCREW ELEMENT REGULAR
Features
» Available from 150~250 watts
» Iron-chrome resistance wire
» Heater voltage : 230-240 volts standard
» Average operating life : 5,000 to 10,000 hours
» Recommended radiation distance from heater is 100mm to 200mm
» E27 Edison screw fitting
» Colors : White/Yellow/Black
EDISON SCREW ELEMENT BULB
Features
» Available from 60~100 watts
» Iron-chrome resistance wire
» Heater voltage : 230 volts standard
» Average operating life : 5,000 to 10,000 hours
» Recommended radiation distance from heater is 100mm to 200mm
» E27 Edison screw fitting
» Colors : White/Yellow/Black
EDISON SCREW ELEMENT STANDARD
Features
» Available from 60-100 watts
» Iron-chrome resistance wire
» Heater voltage : 230-240 volts standard
» Average operating life : 5,000 to 10,000 hours
» Recommended radiation distance from heater is 100mm to 200mm
» E27 Edison screw fitting
» Colors : White/Yellow/Black
EDISON SCREW ELEMENT STANDARD
Features
» Available from 60-100 watts
» Iron-chrome resistance wire
» Heater voltage : 230-240 volts standard
» Average operating life : 5,000 to 10,000 hours
» Recommended radiation distance from heater is 100mm to 200mm
» E27 Edison screw fitting
» Colors : White/Yellow/Black
CAST-IN HEATER
CAST-IN HEATER
» Cast-In heater is available in a variety of designs and styles suitable for different applications.
» Cast in heater is available with cooling tubes for heating and cooling barrels of plastic processing extruders.
» They are very efficient and provides long lasting trouble free service.
» Cast in heater is made in aluminum, brass and bronze.
» The type of alloy to be casted depends upon the application, max operating temperature & watt density.
Cast in aluminum heater features
» Efficient Heat Transfer
» Cast-in heaters can be supplied with cooling tubes & end fitting
» Various Heater terminations
» Uniform surface temperatures
» Max watt density “Aluminum alloy – 35 w/sq in on heater elements, Brass alloy – 45 w/sq in on heater elements”.
» Max temperature “Aluminum alloy – 375 C, Brass alloy – 650 C”
Cast in aluminum heater applications
» Injection and Blow Molding
» Extruders
» Moulds & Dies
» Packaging machinery
» Medical equipment
» Thermoforming equipment
BAND HEATER
BAND HEATER
Application
» Packaging
» Injection Molding
» Extrusion
» Blow Molding
» Printing
» Catering
Features
» Standard clamping arrangements consist of full width, low expansion straps for improved heat transfer.
» High performance element is precision wound to computer designed specification for superior heat uniformity.
» Best quality mica insulation is used ensuring high dielectric strength and maximum heat transfer.
» Specially treated sheath materials resist and molding systems available permit customizing of the heater to the application for minimizes customer down time.
» Custom designed units simplify customer replacement requirements and provide special protective features.
Construction
» High temperature mica sheet electrical insulation and heat transfer media.
» Precision engineered and wound resistance element
» Oxidation resistance stainless steel sheath.
» Best quality of screw termination.
» Efficient clamping system.
ANTI CONDENSATION HEATER
Application
» Industrial enclosure
» Control and monitoring systems
» Switch cabinet
» Panel board
» Free-standing electronic equipment and meters
Specifications
» Rated power : Thermal Output 80W
» Voltage : 220 VAC
» Termination : Silicone rubber insulated cable
» Profile Material : Aluminum, natural anodized
» Size : 71mm(W) x 55mm(H) x 125mm(L)
Application
» Industrial enclosure
» Control and monitoring systems
» Switch cabinet
» Panel board
» Free-standing electronic equipment and meters
Specifications
» Rated power : Thermal Output 80W
» Voltage : 220 VAC
» Termination : Silicone rubber insulated cable
» Profile Material : Aluminum, natural anodized
» Size : 71mm(W) x 55mm(H) x 125mm(L)
INFRAPARA HEATERS
BLACK INFRAPARA HEATER
Overview
» Infrapara heaters can be used with many different applications, including textiles and non-woven fabrics, plastics, paper and paperboard, and metals.
» Higher operating temperatures than metal sheath elements permit faster work speeds in some applications.
» Very fast heat-up/cool-down make quartz lamp heaters suitable for applications requiring immediate operating temperature and/or quickly reduced heat in event of work stoppage.
Features
» High Efficiency
» Shorter Oven Lengths
» Cleaner Environment
» Close Product Temperature Control
» Lower Initial Cost
Typical Application
» Heating plastic films and sheets in various forming applications
» Packaging
» Softening of plastic sheets before embossing
» Gelling paste coats on fabrics
» Hardening of synthetic threads
» Activation of thermal adhesives
» Drying synthetic emulsions
» Heating of paper pulps
» Thermal hardening of lacquered paper and cardboard
» Drying of skins and spray-coated leather
» Quick drying of gummed and glued paper
» Drying and burning-in of protective varnish in cans and tubes
» Drying and burning-in lacquered sheet-metal parts
» Burning-in of powder coatings
» Drying the glaze on ceramic tiles
» Tempering layered glass
» Preheating the welding seams in pipe construction
» Adherence of sound-absorbing mats in the consumer goods and automobile industries
» Heating climatic chambers
» Drying fabrics
» Accelerating glue curing
» Hardening of epoxy resins
» Various food applications including baking, drying, heating, warming & melting
QUARTZ INFRAPARA HEATER
Overview
» Quartz Infrapara heaters are specially designed for applications that require infrared radiant heating.
» Quartz Infrapara consist of a helically wound resistance coil housed in a pure vitreous silica fused quartz tube.
» The heating coil is specially designed ceramic insulating caps that allow the quartz tubing to breathe.
» The ceramic caps are securely fastened to the quartz tube with high temperature cement providing excellent support to the power connecting termination.
» Quartz Infrapara heaters are one of the most efficient sources of radiant energy.
» Quartz heating elements do not give off an objectionable glare because of a very low emmission in the spectrum.
» Optimum design provides a clear red color on the translucent quartz tube when operating at full voltage, providing an infrared wavelength at energy peak of 2.5 to 30 microns.
» The wavelength is almost completely absorbed by the process, and considered best for most industrial applicaions.
Typical Application
» Food Warming
» Food Processing
» Thawing
» Water Dry Off
» Shrink Packaging Tunnels
» Sterilization
» Drying Lacquers and Paints
» Paint Curing and Drying
» Thermal Copying Equipment
Features
» Compact and versatile
» Quick heat and cool down response
» Functional design
» Clean heat energy
» Lower power consumption
» Thermal copying equipment
STRIP HEATERS
STRIP HEATER
» Sensing Technology Corporation have been producing and delivering a wide assortment of excellent performance strip and finned strip heaters.
» Each of the heaters of our assortment works with higher perfection and bring outmost satisfaction of our clients.
» Further, they are available in a wide range of specifications as per our customer’s requirements.
» Our finned heaters are specially suited for heating solids, gases and fluids through conduction and provide improved heat dissipation.
Features
» A reliable heat source with seamless stainless steel sheath
» For flat surface mounting installations
» Used in hundreds of industrial and commercial heating application
FINNED STRIP HEATER
» Sensing Technology Corporation have been producing and delivering a wide assortment of excellent performance strip finned heaters.
» Each of the heaters of our assortment works with higher perfection and bring utmost satisfaction of our clients.
» Further, they are available in a wide range of specifications as per our customer’s requirements.
» Our finned heaters are specially suited for heating solids, gases and fluids through conduction and provide improved heat dissipation.
Design Features
» Rugged durable construction
» Stainless steel sheath
» Nickel-plated steel fins (stainless steel optional)
» Trouble-free installation
CARTRIDGE HEATERS
SPLIT SHEATH CARTRIDGE HEATER
Maximized Heat Transfer
» The unique split-sheath design of Dalton Cartridge Heater allows the independent,bilateral expansion of each half of the heater of the outward against the walls of the surrounding bore.
» Maximized metal-to-metal contact results in greatly improved heat transfer under normal fit conditions of 0.005″ to 0.007″
» The split sheath expansion of Dalton heaters assures superior heat transfer, uniform process heat, greater effeciency, and reduced consumption of electricity. Higher Watt Densities and Temperatures
» Dalton Split Cartridge Heater is essentially a tubular heater bent back on itself and swagged into a cylindrical format
» It has no ceramic core which can crack during swagging, therefore they can be compacted to a much greater density
» The greater the insulation value accommodates significantly higher watt-densities. In fact, it can produce up to 50% higher watt densities and can operate higher temperatures
External Thermocouple Option
» Measure temperature at the precise point of heat transfer. External thermocouples measure more precisely at the point where heat transfers to the host metal
» Monitor temperature at any point along the heater. Split-sheath cartridge heaters give you a flexibility to monitor heat at any point aling the heater, instead of pre-defined fixed points with internal monitors in conventional heaters
» Replace heater or thermocouple independently. Wth external thermocouple you can replace either the heater or the thermocouple independently, without having to replace an operational component
STRAIGHT CARTRIDGE HEATER
Determining Fit
» At high watt densities, a close fit is an important factor in determining the life expectancy of the heater.
» The fit is the difference between the heater diameter and diameter of the hole.
» A good fit is usually between 0.07mm to 0.15mm.
Application
» Molds and Dies, Food Processing, Plastic Molding, Packaging Equipment, Hot Stamping, Plastic Extruders, Hot Runner Molds, Medical Equipment, Shoe Machinery
Operating Temperature
» A major factor in determining the life expectancy of a heating element its operating temperature.
» The heater life depends on the actual temperature of the resistance wire within the heater and not on the process operating temperature.
» A lower heater watt density is recommended when applications require high operating temperature.
Heater Watt Density
» Cartridge Heater Watt Density is defined as the wattage dissipated per square centimeter of the heated sheath surface.
» For a particular application, a heater watt density governs internal resistance wire temperature, which in turn determines the outer sheath temperature.
» These factors are critical to the proper heating and life expectancy of the heater.
» It is always advisable to use heaters that have watt densities below the maximum recommended watt density to get the longest heater life.
» For most general applications, it is recommended not to exceed a watt density of 20 watts / cm2.
BENDED CARTRIDGE HEATER|
Determining Fit
» At high watt densities, a close fit is an important factor in determining the life expectancy of the heater.
» The fit is the difference between the heater diameter and diameter of the hole.
» A good fit is usually between 0.07mm to 0.15mm.
Application
» Molds and Dies, Food Processing, Plastic Molding, Packaging Equipment, Hot Stamping, Plastic Extruders, Hot Runner Molds, Medical Equipment, Shoe Machinery
Operating Temperature
» A major factor in determining the life expectancy of a heating element its operating temperature.
» The heater life depends on the actual temperature of the resistance wire within the heater and not on the process operating temperature.
» A lower heater watt density is recommended when applications require high operating temperature.
Heater Watt Density
» Cartridge Heater Watt Density is defined as the wattage dissipated per square centimeter of the heated sheath surface.
» For a particular application, a heater watt density governs internal resistance wire temperature, which in turn determines the outer sheath temperature.
» These factors are critical to the proper heating and life expectancy of the heater.
» It is always advisable to use heaters that have watt densities below the maximum recommended watt density to get the longest heater life.
» For most general applications, it is recommended not to exceed a watt density of 20 watts / cm2.
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ATEX AUTOMATION AND TECHNOLOGIES CORP.
please send a cover letter together with your C.V.
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LUZON OFFICE (MAIN)
354 A St. Louis corner
St. Paul,Brookside,
Barangay San Isidro,
1900 Cainta ,Rizal, Philippines
+632 903 7988
+632 997 7991
DAVAO OFFICE
Block 63 Lot 8 Phase 2
Deca Indangan,Malagamot Road,
Buhangin, Davao City,
Davao Del Sur, Philippines
+632 997 7991
+632 903 7988
CAGAYAN OFFICE
Pile Street,
RVS Bugo,
Cagayan de Oro City
Philippines
+632 997 7991
+632 903 7988
EMPLOYMENT
To apply for a job with
ATEX AUTOMATION AND TECHNOLOGIES CORP.
please send a cover letter together with your C.V.
to: hr@atexautomation.com