REI Backpacking Stoves Guide to Choosing the Right Stove for Every Trip

Choosing a backpacking stove is one of those gear decisions that looks simple until you start comparing fuel types, burner designs, pot sizes, boil times, cold-weather performance, and packed weight.

The good news is that you do not need the most expensive stove or the fastest stove for every trip.

You need a stove that matches how you hike, what you cook, where you travel, and what weather you expect.

REI's current backpacking stove guidance divides the category into canister, integrated canister, remote-canister, liquid-fuel, wood-burning, and alcohol or tablet systems. Each design has different strengths, and REI specifically notes that one stove may be ideal for fast summer backpacking while another makes more sense for a winter or international trip.

This guide breaks down the major REI backpacking stoves categories, explains how to choose between them, and covers the practical details that matter once you leave the trailhead.

What Are REI Backpacking Stoves

The term REI backpacking stoves generally refers to the compact cooking systems sold through REI for hiking, backpacking, camping, and other human-powered outdoor trips.

Current REI listings include lightweight canister burners such as the MSR PocketRocket 2 at 2.6 ounces, the SOTO WindMaster with 4Flex at 3.1 ounces, integrated systems such as the Jetboil Flash 1.0 L at 13.1 ounces, and other fuel configurations.

The important point is that these products are not all designed for the same job.

A 2.6-ounce minimalist burner and a 13-ounce integrated cooking system can both boil water, but they solve different problems.

The Basic Backpacking Stove Categories

REI identifies canister, liquid-fuel, and alternative-fuel stoves as the major categories, with additional distinctions based on burner and cooking-system design.

How to Choose an REI Backpacking Stove

Before looking at individual models, answer five questions:

1. How many people are you cooking for
2. What meals will you prepare
3. What temperatures will you encounter
4. How important is pack weight
5. Will you travel internationally

These questions usually narrow the choices faster than comparing dozens of specifications.

For example:

• Solo summer hiker → lightweight canister stove
• Freeze-dried meal user → integrated canister system
• Winter mountaineer → liquid-fuel stove
• Gourmet backpacking group → remote-canister or liquid-fuel system
• Ultralight minimalist → compact canister or alcohol system
• International traveler → multifuel liquid-fuel stove

Canister Backpacking Stoves

Canister stoves are among the easiest options for most three-season backpacking.

They generally screw directly onto self-sealing fuel canisters containing a pressurized blend of gases such as isobutane and propane.

Their popularity is easy to understand.

They are:

• Lightweight
• Compact
• Easy to ignite
• Easy to control
• Relatively low maintenance
• Quick to set up

For many hikers, this is the best starting point.

Why Canister Stoves Are So Popular

A canister stove requires very little preparation.

You typically:

1. Remove the protective cap.
2. Attach the stove.
3. Open the valve.
4. Ignite the burner.
5. Adjust the flame.
6. Place your pot on the supports.

There is no fuel bottle to pressurize and generally no priming procedure.

That simplicity is especially valuable after a long day on the trail.

Lightweight Canister Stoves

For ounce-conscious hikers, a minimalist burner can be extremely attractive.

For perspective, REI currently lists the MSR PocketRocket 2 at 2.6 ounces and the SOTO WindMaster at 3.1 ounces.

That means the stove itself can weigh less than many common trail snacks.

But remember:

Stove weight is only one part of the cooking system.

You also need to account for:

• Fuel canister
• Pot
• Lid
• Windscreen when appropriate
• Ignition method
• Pot supports
• Fuel stabilizer if needed

The lightest burner is not necessarily the lightest complete system.

Integrated Canister Stove Systems

Integrated systems combine the burner and cooking vessel into a more tightly engineered package.

A well-known example is the Jetboil Flash 1.0 L, which REI currently lists at 13.1 ounces.

That is considerably heavier than a minimalist burner, but the system is designed around fast and efficient water heating.

Integrated systems are particularly appealing if your typical backpacking meal looks like:

Boil water → add water to meal → wait → eat

They are less attractive if you frequently want to fry, sauté, or cook with a wide pan.

Why Integrated Systems Can Be Fuel Efficient

The burner and pot are designed as a system.

A heat exchanger or similar design can transfer more combustion energy into the cooking vessel while reducing heat loss around the sides.

This is one reason integrated systems can be excellent for:

• Coffee
• Tea
• Freeze-dried meals
• Instant noodles
• Oatmeal
• Dehydrated meals

You are essentially optimizing the stove for one primary job:

Turn fuel into hot water efficiently.

Remote Canister Stoves

A remote-canister stove separates the fuel canister from the burner.

The fuel travels through a hose to the burner head.

This design can provide several practical advantages:

• Lower center of gravity
• Better pot stability
• Easier windscreen positioning
• Better compatibility with larger cookware
• More flexible stove placement

REI's stove guide notes that remote-canister designs can be useful for simmering and larger-group cooking.

For backpackers who actually cook meals rather than simply boil water, this can be a significant advantage.

Liquid-Fuel Backpacking Stoves

Liquid-fuel stoves are more complicated than canister stoves, but their versatility makes them valuable in demanding environments.

REI notes that liquid-fuel stoves commonly use white gas, while some multifuel models can also use fuels such as kerosene, jet fuel, or diesel.

This makes them particularly useful for:

• Cold-weather expeditions
• High-altitude trips
• Long expeditions
• International travel
• Large groups

Why Liquid Fuel Performs Well in Cold Weather

Canister pressure can decline as temperatures fall.

Liquid fuel does not depend on the same vapor-pressure behavior inside a disposable canister.

Instead, the user pressurizes a fuel bottle and the stove converts the liquid fuel into vapor before combustion.

That adds complexity, but it also gives the system excellent versatility.

The Downsides of Liquid-Fuel Stoves

Liquid-fuel stoves require more attention.

Many models require:

• Pumping the fuel bottle
• Priming the stove
• Cleaning the burner
• Inspecting fuel lines
• Maintaining seals

REI specifically notes that priming is a key difference between liquid-fuel and canister systems.

For a casual summer weekend, that extra work may not be worth it.

For a winter expedition, it can be exactly what you want.

Alcohol Backpacking Stoves

Alcohol stoves are popular among minimalist backpackers because of their simple construction and low weight.

They can use denatured alcohol or other appropriate alcohol fuels depending on the stove design and local regulations.

Advantages include:

• Very low stove weight
• Simple construction
• Few moving parts
• Quiet operation
• Compact storage

Their weaknesses are equally important:

• Slow boiling
• Low heat output
• Wind sensitivity
• Limited flame control
• Fuel efficiency can vary substantially

REI currently lists alcohol stoves as an ultralight option, while noting their limitations in cold-weather and larger-group applications.

Wood-Burning Backpacking Stoves

Wood-burning stoves eliminate the need to carry conventional liquid or gas fuel when suitable dry biomass is available and fires are permitted.

They can be attractive for:

• Long trips
• Minimalist backpacking
• Areas with abundant dead and downed wood
• Hikers who enjoy traditional campcraft

But there is an important limitation:

A wood stove is useless where fires are prohibited.

Fire restrictions can change with weather, drought, wildfire conditions, and local regulations.

Always check current regulations before relying on a wood-burning stove.

Solid-Fuel Tablet Stoves

Solid-fuel systems use compact fuel tablets rather than pressurized gas or liquid fuel.

They can be extremely simple.

The trade-offs include:

• Slow cooking
• Limited heat output
• Fuel odor
• Less precise flame control
• Restricted cooking applications

They can make sense for emergency kits, minimalist setups, or hikers who value simplicity above speed.

REI Backpacking Stoves for Solo Trips

Solo backpacking changes the equation.

You don't need a stove designed to boil a large pot for four people if you're carrying one small mug.

For a typical solo hiker, prioritize:

Low weight + compact storage + sufficient heat output

A small canister stove is often the practical middle ground.

If you're primarily boiling water, an integrated system can also make sense.

If you're cooking actual meals, choose a burner with better simmer control.

REI Backpacking Stoves for Two People

Two-person trips are where versatility becomes more valuable.

You may want to:

• Boil water
• Cook oatmeal
• Prepare coffee
• Simmer soup
• Fry small meals

A compact canister stove with adjustable flame control can be an excellent choice.

A slightly larger pot also becomes more practical.

REI Backpacking Stoves for Groups

Cooking for three or four backpackers changes the priorities significantly.

You need:

• Larger cookware
• More fuel
• Better pot stability
• More efficient heat transfer
• Longer continuous burn capability

REI's category guide specifically identifies integrated canister, remote-canister, and liquid-fuel designs as useful for larger groups.

For group cooking, saving one ounce on the stove may matter less than saving time and fuel.

How Much Stove Weight Should You Carry

There is no universal ideal.

A useful way to think about stove weight is:

System weight ÷ meals cooked

A 3-ounce burner may be excellent for a solo weekend.

A heavier stove may become more efficient overall when it replaces several small cooking sessions with one larger batch.

The same principle applies to fuel.

A stove that is slightly heavier but significantly more efficient may reduce total carried weight on longer trips.

Boil Time Is Not Everything

Manufacturers and gear reviewers often emphasize boil time.

It is useful—but it can be misleading.

Imagine two stoves:

• Stove A boils water extremely quickly but consumes considerably more fuel.
• Stove B takes slightly longer but uses much less fuel.

For a single cup of coffee, Stove A may be preferable.

For a seven-day trip, Stove B could make more sense.

A better evaluation considers:

Boil time + fuel consumed + stove weight + cooking versatility

Understanding BTUs

BTU stands for British thermal unit, a measure of energy.

Higher BTU output generally means a stove can produce more heat per unit of time.

But higher output does not automatically mean faster cooking.

Why?

Because the useful metric is how much of that heat actually reaches the pot.

A stove can produce a tremendous flame while losing significant energy to wind and the surrounding air.

This is why burner design and cookware integration matter.

Wind Is One of the Biggest Stove Performance Factors

Wind can dramatically reduce stove performance.

It can:

• Blow heat away
• Disrupt the flame
• Increase boil times
• Increase fuel consumption
• Create unstable combustion

This is especially important in exposed alpine environments.

A stove that performs beautifully in a sheltered backyard may behave very differently on a windy ridge.

How to Protect a Backpacking Stove From Wind

Use the stove's intended wind-management system.

Depending on the stove, this may include:

• Built-in wind protection
• A compatible windscreen
• Natural terrain
• A sheltered cooking location

Never create a setup that traps excessive heat around a pressurized fuel canister.

This is especially important with upright canister systems.

Follow the stove manufacturer's instructions regarding windscreen placement and fuel-canister clearance.

Why Cold Weather Changes Stove Performance

Temperature affects different fuel systems differently.

Canister stoves depend on vapor pressure.

As temperature falls, the pressure available to push fuel toward the burner can decrease.

Liquid-fuel systems avoid this particular limitation and are therefore commonly favored for serious cold-weather use. REI specifically identifies liquid-fuel stoves as a strong choice for below-freezing conditions.

Backpacking Stove Performance at High Altitude

Altitude can affect stove performance through changes in atmospheric pressure and environmental conditions.

High-elevation trips also tend to combine:

• Cold temperatures
• Wind
• Limited shelter
• More difficult fuel logistics

A stove that works perfectly at sea level may require more careful management at altitude.

For serious alpine trips, prioritize proven cold-weather performance over minimum weight.

How to Use a Canister Stove Efficiently

For the best results:

1. Use a suitable pot size.
2. Keep the burner stable.
3. Protect the cooking area from excessive wind.
4. Use a lid while heating water.
5. Avoid unnecessary flame output.
6. Turn the stove down once boiling begins.
7. Use residual heat whenever practical.

A lid is particularly useful because it reduces heat escaping from the top of the pot.

Why a Pot Lid Saves Fuel

Without a lid, hot water continuously loses energy to the surrounding air.

With a lid, more heat remains inside the cooking vessel.

That means the stove can spend less time replacing lost heat.

This is a simple example of how cooking technique can matter almost as much as stove choice.

Backpacking Stove Fuel Planning

Fuel planning should consider the entire trip.

Estimate:

• Number of people
• Meals per day
• Hot drinks
• Water temperature
• Elevation
• Weather
• Cooking style
• Stove efficiency

A person who only boils water for dinner may use dramatically less fuel than someone who cooks breakfast, lunch, dinner, and coffee.

A Simple Fuel Calculation

Track your actual fuel consumption on previous trips.

For example:

Fuel Used Per Day × Number of Days = Estimated Trip Fuel