How Hot Does A Bernzomatic Propane Torch Get?

The thin, lightweight cylinder is made of sturdy steel and is easy to grip and handle while working. This item can be used in conjunction with our Digital Fuel Gauge to simply determine how much fuel is left in the cylinder. The flame temperature of propane is 3,600 degrees Fahrenheit in the air.

What is the maximum temperature a Bernzomatic butane torch can reach?

The Bernzomatic Butane Refill 5.6 oz cylinder is designed to refill Bernzomatic micro torches, lighters, cordless soldering irons, and other butane-powered equipment quickly. It has a universal fueling tip that makes refilling a breeze. The in-air flame temperature of butane fuel is 3,150 degrees Fahrenheit.

What is the maximum temperature a propane torch can reach?

Temperature of the flame The highest temperature of an air-fed torch is roughly 2,000 C. (3,600 F). A typical primary flame, on the other hand, will only reach temperatures of 1,100 C (2,000 F) to 1,250 C. (2,250 F). Oxygen-fueled torches may reach temperatures of up to 2,550 degrees Celsius (4,600 F).

Is it possible to dab with a Bernzomatic torch?

The Bernzomatic TS8000 High Intensity Torch is arguably the pinnacle of dab torches. It’s a serious machine that runs on propane rather than butane. It can be connected to most propane tanks or purchased separately as High Intensity fuel canisters. It’s a tank of a torch with long-lasting canisters. The flame may be locked, the ignite button is simple to operate, and the torch is simple to replenish. Bernzomatic torches are dependable and will last for many years. They come in a variety of types, but most dabbers will like the High Intensity.

Is it possible to use Bernzomatic on a grill?

Bernzomatic’s TX916 Propane Camping Gas Cylinder holds 16 ounces of clean-burning propane. This portable propane tank with a CGA 600 connection fits all standard portable propane appliances, tabletop grills, and propane torches and is great for on-the-go cooking, grilling, heating, and lighting.

Propane or MAPP gas, which burns hotter?

MAP-Pro gas burns at 3,730 degrees Fahrenheit, while propane burns at 3,600 degrees Fahrenheit. MAP-Pro gas is a superior alternative to propane for soldering since it heats copper faster and at a higher temperature.

Is propane or acetylene hotter?

  • When Propane is burned in Oxygen, the flame temperature reaches 2800 degrees Celsius.
  • When burning acetylene in oxygen, the flame temperature reaches 3100 degrees Celsius.

Propane, often known as LPG (liquefied petroleum gas) or LP gas, is a popular fuel. It is carried and kept as a very cold liquid, and if it comes into contact with the skin, it can induce a “frozen burn” or frostbite. Inside a tank or cylinder, liquid propane is converted to gas. Propane is colorless and odorless in its natural state. Manufacturers add a chemical ingredient to propane to give it a unique smell, making it simpler to detect in the event of a leak or spill.


To begin with, propane cannot be utilized in gas welding. When acetylene is burned in the presence of oxygen, a reducing zone forms, which cleans the steel surface. Propane, unlike acetylene, lacks a decreasing zone and so cannot be utilized for gas welding.


Propane can be used for brazing in the same way as acetylene can. Equal result for capillary brazing (silver brazing). Acetylene will be advantageous for Braze “welding (thick flowing brazing alloys).


Propane, like acetylene, can be used to cut. When cutting with acetylene, the tip of the inner flame cone is usually placed on the metal (1mm from the plate surface). If you try the same thing with propane, you’ll have to wait a long time. The preheat procedure starts faster if you lift the torch to use the outer flame cone. Because propane only produces a modest amount of heat in the inner flame cone (less than 10%), the majority of the heat in the flame is concentrated in the outer cone. In the inner flame cone, acetylene discharges over 40% of its heat.

As a result, acetylene is preferable to propane for cutting. While acetylene is hotter than propane in terms of temperature, the fact is that individuals are cutting with propane wrongly. They make the error of cutting with propane in the same way as they would with acetylene. The heat in the propane warmup flame is not the same as the heat in the acetylene preheat flame. In summary, cutting with propane necessitates a different method, while acetylene preheats faster in general. Because cutting quality is unimportant in shipbreaking/ship demolition yards and scrapyards, propane is frequently used for cutting.


…is a completely other story. It is incorrect to claim that propane produces less heat (plain wrong actually). Although acetylene is hotter, it produces less heat. Oxygen / Propane is used for the majority of the preheating. This is a proven fact. The amount of heat provided from propane is greater.


Propane’s stoichiometric oxygen needs are higher than those of acetylene. The volume of oxygen to fuel gas ratio for the maximum flame temperature in oxygen is 1,2 to 1 for acetylene and 4.3 to 1 for propane. As a result, when Propane is used, significantly more oxygen is consumed. Despite the fact that propane is less expensive than acetylene, the higher oxygen consumption offsets this.


The most significant disadvantage of utilizing propane on board is, without a doubt, the issue of safety.

With a specific gravity of 0,9, acetylene is lighter than air (1). If gas escapes, the temperature will rise. Propane has a Specific Gravity of 1.66, making it heavier than air (as do other hydrocarbon gases such as butane and MAPP* (modified propane gas). Any propane leak in an enclosed space will sink to the deck level, where it will accumulate and may go undetected.

The oxygen-to-gas combination must be within a specified range for propane to burn successfully. There should be four parts propane to 96 parts oxygen in optimal conditions. When the gas burns outside of these parameters, incomplete combustion occurs, resulting in an excess of carbon monoxide. If the space does not have adequate ventilation, this can be quite harmful. Working in enclosed places such as ballast tanks and double bottoms onboard a ship is common. As the deadly gas replaces oxygen in the bloodstream, carbon monoxide overdose can be fatal.

*”MAPP gas” is a registered trademark of The Linde Group. The original chemical composition, methylacetylene-propadiene propane, inspired the name. “MAPP gas” is a term used to describe a type of gas

What is the temperature of the MAPP gas torch?

Because of its high flame temperature of 2925 C (5300 F) in oxygen, genuine MAPP gas can be used in conjunction with oxygen for heating, soldering, brazing, and even welding. Although acetylene has a higher flame temperature (3160 C, 5720 F), MAPP has the advantage of requiring no dilution or special container fillers during transportation, allowing a larger amount of fuel gas to be transported at the same weight, and it is considerably safer in use.

Due to the high concentration of hydrogen in the flame (greater than acetylene, but lower than any of the other petroleum fuel gases), a MAPP/oxygen flame is not totally suitable for welding steel. The hydrogen corrodes the welds by infusing itself into the molten steel. This is not a severe concern for small-scale MAPP welding because the hydrogen escapes rapidly, and MAPP/oxygen can be utilized to weld small steel pieces in practice.

Underwater cutting, which necessitates high gas pressures, MAPP/oxygen was shown to be beneficial (under such pressures acetylene can decompose explosively, making it dangerous to use). Underwater oxy/fuel gas cutting of any kind, on the other hand, has mostly been supplanted by exothermic cutting, which is faster and safer.

MAPP gas is also utilized in air combustion for brazing and soldering, where its higher combustion temperature of 2,020 C (3,670 F) in air gives it a modest edge over rival propane fuel.

The most significant disadvantage of MAPP gas is its high cost, which is typically one-and-a-half times that of propane at the refinery and up to four times that of propane at the consumer level. It is no longer widely used in large-scale industries. for consumers on a broader scale When high flame temperatures are required, acetylene/oxygen is more cost-effective than MAPP/oxygen, while propane/air is more cost-effective when large amounts of overall heating are required.

A MAPP/oxygen flame, on the other hand, is still extremely desired for small-scale users, as it has higher flame temperatures and energy densities than any other flame other than acetylene/oxygen, but without the hazards and hassles of acetylene/oxygen. It comes in handy for jewelers, glass bead makers, and a variety of other craftspeople. The high heat capacity of the MAPP/air flame is particularly valued by plumbers, refrigeration and HVAC experts, and other craftsmen; MAPP was frequently utilized until recently, and was provided in small to medium size containers.

Blowtorches are used to brown and sear food cooked sous-vide at low temperatures. MAPP gases should be used instead of cheaper butane or propane, according to Myhrvold’s Modernist cuisine: the art and science of cooking, since they create greater temperatures with less chance of giving the dish a gas flavor, which can occur with incompletely combusted gas.

Is it possible for a torch to become too hot?

A torch can overheat for a variety of causes. Listed below are a few instances of possible causes:

  • Running a torch at a higher amperage than it is rated for can cause it to overheat.
  • An under-cooled torch is caused by insufficient gas flow (air-cooled torches) or water flow (water-cooled torches).
  • When you utilize a power cable gauge that is too small, the wire will heat up and melt.
  • There should be no power going to the drive rolls on any D/F torches, only to the Utility Station and down the Water Out & Power Cable to the torch. Putting power on the driving rolls will cause the torch to utilize more energy and generate more heat.
  • Contact tips, collet nuts, gas nozzles, water-cooled nozzles, and other loose connections can all produce resistance heating, resulting in additional heat that the torch was not designed to handle.
  • An electrical fault at the power source can result in an excessive amount of power being sent to the torch.