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Candy thermometer

A candy thermometer is a specialized cooking designed to accurately measure the high temperatures of syrups and other hot liquids during preparation, typically calibrated in a range from 100°F to 400°F (38°C to 204°C) to capture stages like , soft-ball, hard-ball, and hard-crack. These devices feature a long, narrow probe to immerse in the mixture without touching the pan bottom, often with a clip for secure attachment, ensuring precise readings essential for consistent results in where even small temperature variations can alter texture and quality. The design of candy thermometers evolved little during the , with standard forms including tubes filled with or mercury for visibility, though modern versions avoid mercury due to concerns. Available types include traditional liquid-in-glass models, bimetallic coil-spring dial thermometers, and probes offering faster, more precise readings with accuracies as fine as ±0.5°F in high-end models. While primarily associated with professional and home confectioners since the early , when affordable versions became accessible to amateurs, their utility extends to verifying points and preventing overheating. Beyond sweets, candy thermometers are invaluable for deep-frying oils (maintaining 350–375°F for crisp results), producing , and heating for or cheese to avoid scorching. Proper —tested by at (212°F or 100°C)—is crucial, as inaccuracies can lead to failed batches, and users are advised to read at eye level while avoiding bottom contact to ensure reliability.

Overview

Definition and Purpose

A candy thermometer is a specialized cooking utensil designed to measure high temperatures in the range of 100°F to 400°F (38°C to 204°C), making it essential for processes involving heated solutions. Also referred to as a thermometer or thermometer, it differs from standard kitchen s by its ability to accurately gauge the intense heat required for production without being compromised by direct contact with liquids. The primary purpose of a candy thermometer is to monitor the concentration of in a as it cooks, enabling precise control to avoid over- or under-cooking that would ruin the desired of the final product. By tracking , it indicates when the has reached specific stages critical for various confections, ensuring consistency and quality in outcomes like chewy caramels or brittle hard candies. This tool's effectiveness stems from the direct correlation between temperature and concentration: as water evaporates from the heated , the solution becomes more concentrated, elevating its in a predictable manner. Unlike general thermometers, a candy thermometer features a long, extended stem to immerse in the without touching the pan's bottom, preventing falsely high readings from direct , and is built to endure immersion in boiling sugar without shattering or deforming.

Applications

Candy thermometers find versatile applications in various cooking processes that require precise to achieve desired textures and prevent mishaps. Beyond their primary role in , they are invaluable for monitoring high-heat preparations where accuracy ensures safety and consistency. In deep-frying, a candy thermometer monitors oil temperatures to promote even cooking and reduce the risk of oil or fires, with ideal ranges such as 350–375°F for to yield crispy exteriors without sogginess. For and production, the device determines when the mixture reaches the gelling point at approximately 220°F (104°C) at , allowing the to set properly for a firm yet spreadable . In tempering, thermometers guide the melting and cooling phases—typically melting at 120–130°F and cooling to 88–90°F working —to prevent seizing or fat blooming, ensuring a glossy, stable finish. Candy thermometers have been essential for professional confectioners, enabling consistent results in hard candies, brittles, and by hitting precise stages like those outlined in temperature ranges. For instance, in sauce preparation, it ensures the mixture reaches the firm ball stage around 245–250°F for a chewy texture without burning the sugars.

History

Early Development

The candy thermometer emerged in the late as an adaptation of the for monitoring high temperatures in . The itself was invented by in 1714, providing the foundational technology for precise that was later scaled for culinary applications like sugar boiling. Its first documented mention in a cookbook appears in Fannie Farmer's 1896 The Boston Cooking-School Cook Book, where it was recommended for achieving precision in sugar syrup preparation and confectionery work. Early use was largely limited to professional candymakers, as the devices were costly and not widely available to households; they typically featured alcohol or mercury-filled glass tubes designed for durability in industrial settings. Prior to widespread public access, professional candymakers in factories adopted it to replace the inconsistent cold water tests traditionally used to gauge syrup stages, enabling more consistent production of confections.

Popularization and Modern Adoption

The candy thermometer gained widespread availability to the public in the United States during the 1910s and 1920s, coinciding with World War I and the post-war era, as manufacturers began marketing it directly to home cooks through advertisements in popular magazines such as American Cookery. These ads, like a prominent 1917 promotion featuring models priced from $1.50 to $3.95 with temperature ranges up to 320°F, targeted housewives by emphasizing the tool's role in achieving precise results for homemade confections, positioning it as an accessible essential for domestic kitchens amid rising interest in home baking. By the early 1920s, such promotions had democratized the device, transforming it from a professional instrument into a standard household item. A key factor in its popularization was the inclusion of candy thermometer instructions in recipes during the and baking boom, which encouraged home as an economical pastime during the Great Depression's hardships. With ingredients like , , and nuts readily available at low cost, families turned to simple confections such as peanut brittle, divinity fudge, and taffy, where thermometers ensured success by specifying stages like soft-ball (around 235–240°F) or hard-crack (300°F), minimizing waste in resource-scarce times. This integration into cookbooks and magazines not only boosted participation in home production—serving as affordable treats, gifts, and social activities like taffy pulls—but also sustained the practice through economic recovery into the 1940s. In the , adoption shifted toward safer alternatives, with mercury-filled models replaced by non-toxic liquids like or glycol in candy thermometers due to and environmental concerns. By the , candy thermometers surged in popularity, driven by platforms that offered instant-read models with features like alarms and backlit displays, appealing to novice and professional alike. Sales notably peaked during seasons, as online retailers reported heightened demand for these precise tools to monitor temperatures in seasonal favorites like and brittles.

Design and Types

Traditional Designs

Traditional candy thermometers primarily consist of a design, featuring a sealed at the bottom filled with a such as (often dyed blue for visibility) or, historically, mercury (now largely phased out due to concerns). The expands or contracts with changes, rising or falling within the narrow stem, where a printed scale allows for direct reading of the . This analog mechanism provides a simple, visual indication without requiring batteries or , making it a staple in home and professional kitchens for decades. Mercury-filled versions were prized for their superior accuracy and stability across high- ranges, though -filled tubes have become the standard replacement for and environmental reasons. An alternative traditional design is the dial or coil spring thermometer, which employs a mechanism housed within a protective metal . The , composed of two metals with differing coefficients of , bends as it heats, uncoiling or tightening to rotate a needle across a circular face displaying the . This mechanical action, often configured as a spiral for sensitivity, translates changes into precise pointer movement on the dial, offering a robust alternative to fragile tubes in demanding cooking environments. Key materials in these traditional designs emphasize durability and heat resistance. The stems of glass tube models are typically crafted from borosilicate glass, which withstands and immersion in hot liquids up to 400°F without shattering. Accompanying pan clips, used to secure the thermometer, are commonly made of to resist and maintain a firm grip on cookware edges while positioning the bulb or probe submerged but elevated from the pot bottom. Dial versions feature stems and housings for longevity, with the bimetallic coil protected inside to prevent damage from splatters or impacts. These thermometers often include dual scales marked in both and , with color-coded zones highlighting critical candy-making stages such as , soft , and hard for quick reference. Typical lengths range from 8 to 12 inches, allowing immersion into deep pots without excessive exposure of the upper portion to heat. When properly calibrated, they achieve accuracy within ±2°F, sufficient for most applications where precise determines texture outcomes.

Modern Variants

Modern candy thermometers have evolved to incorporate components, enhancing and user convenience in temperature monitoring during preparation. These devices typically feature digital probe types that utilize or sensors to measure temperatures rapidly, displaying results on LCD screens for instant readouts. Probes in such models often extend up to 12 inches to safely reach into deep pots without risking burns, allowing for accurate immersion in hot syrups or melts. Smart features further distinguish contemporary designs by integrating built-in alarms that alert users upon reaching specific target temperatures, such as those for soft-ball or hard-crack stages in . Bluetooth connectivity enables real-time monitoring via apps, where users can track temperature curves and receive notifications remotely, while auto-shutoff mechanisms conserve life during intermittent use. These innovations cater to both professional and home cooks seeking streamlined workflows. Hybrid designs combine traditional elements with digital enhancements, such as analog dials augmented by for dual verification, or laser-guided models that provide non-contact instant reads suitable for quick spot-checks on surfaces like coatings. Post-2010 models from brands like ThermoWorks exemplify these advancements, offering accuracy within ±1°F and waterproof construction to withstand splashes and in environments; their popularity surged amid 2020s home trends driven by increased DIY during global events. Common specifications for these thermometers include a range of 32–400°F to cover all candy stages from low-heat fudges to high-sugar caramels, with many featuring foldable probes for compact storage and integrated timers to track cooking durations alongside . While remains essential for maintaining accuracy in digital models, these variants prioritize ease of use through intuitive interfaces.

Candy Making Stages

Temperature Ranges

Candy making typically involves heating a sugar syrup solution from the of at 212°F (100°C) up to 350°F (177°C) or higher for advanced stages, allowing for precise control over the final product's consistency. These temperatures reflect the progressive concentration of in the mixture as evaporates, with higher temperatures corresponding to lower content due to —a colligative property where dissolved solutes raise the solution's . The standard temperature ranges for candy stages are measured at sea level and serve as thresholds for achieving specific sugar concentrations, as outlined below:
StageTemperature Range (°F)Approximate Sugar Concentration (%)
Thread230–23580
Soft-ball235–24085
Firm-ball245–25087
Hard-ball250–26592
Soft-crack270–29095
Hard-crack300–31099
Caramel320–350100
At higher altitudes, where is lower, all temperatures must be adjusted downward by subtracting 2°F for every 1,000 feet above to account for the reduced of the solution and prevent over-concentration. This ensures the reaches the intended sugar-water ratio regardless of .

Stage Descriptions and Textures

The candy making stages define the transformation of through heating, where each stage produces distinct physical properties and textures in the final product, primarily due to varying degrees of and concentration that influence molecular structure and behavior. These stages are determined by testing small amounts of in cold , observing how it cools and solidifies, which reveals the 's readiness for specific confections. The progression from to reflects increasing density, with textures ranging from fluid and pourable to brittle and potentially burnt, directly impacting the and stability of candies like , , or . Thread stage. At this initial stage, the syrup forms thin, flexible threads when dripped into cold water, remaining soft and pliable without forming a solid mass. The resulting texture is syrupy and pourable, ideal for glazes, icings, or that require a fluid consistency without . Soft-ball stage. Here, the syrup gathers into a soft, pliable in cold water that flattens easily upon removal, like a . This yields creamy, melt-in-the-mouth textures used in , , and pralines, where fine crystals contribute to a smooth, velvety quality. Firm-ball stage. The syrup forms a firm but malleable ball in cold water that holds its shape briefly before flattening when pressed. This stage produces chewy, dense textures suitable for caramels and gumdrops, with controlled crystallization ensuring pliability without excessive stickiness. Hard-ball stage. In cold water, the syrup creates a rigid, ropy ball that retains its form but can be slightly squashed. The outcome is firm yet bouncy textures for nougat, marshmallows, and rock candy, where larger crystals provide structure and chew. Soft-crack stage. The syrup separates into flexible threads in cold water that bend without fully breaking. This results in semi-pliable, chewy textures for taffy and , minimizing crystallization to avoid while retaining some elasticity. Hard-crack stage. Droplets form hard, brittle threads in cold water that snap cleanly when bent. The texture is shattering and crisp, perfect for , lollipops, and brittles, achieved through near-complete that prevents any crystalline formation. Caramel stage. Beyond the crack stages, the sugar breaks down into a thick, liquid that burns readily if overheated, developing a bitter, robust flavor. This stage produces viscous, sticky textures for sauces, pralines, and coatings, where Maillard reactions and decomposition yield complex, non-crystalline profiles. Each stage corresponds to specific crystallization patterns, where lower stages allow for desirable in creamy candies, while higher stages inhibit it for glassy or brittle results; errors in control, such as impurities or over-agitation, can lead to grainy textures from uncontrolled or sticky outcomes from incomplete .

Usage

Preparation and Calibration

Before using a candy thermometer, proper preparation ensures accurate readings during . Clip or suspend the to the side of the using its adjustable clip or hook, positioning the or fully submerged in the while ensuring it does not touch the bottom or sides of the to prevent false readings from direct heat contact. For optimal submersion, maintain at least 2 to 3 inches of depth in the , which allows the sensing element to be evenly immersed without requiring tilting. Select a deep pot, such as a 3- to 4-quart saucepan, to accommodate the volume and provide stability for the , particularly on gas stoves where flames can cause uneven heating. Position the setup away from drafts or air currents, such as open windows or fans, to maintain stable readings and avoid fluctuations from ambient temperature variations. Calibration verifies the thermometer's accuracy before cooking. Determine the local boiling point of based on altitude (subtract about 1°F per 1,000 feet above from 212°F at ). For the high-end test, fill a pot with 3 to 4 inches of , bring it to a rolling boil, and submerge the or probe for at least 1 to 5 minutes; it should read the local (e.g., 212°F or 100°C at ), and adjust recipes or the device if the reading deviates by more than 2°F. For the low-end check, prepare an by filling a glass with cubes and cold , stirring to reach 32°F (0°C), then immerse the sensing element for 1 minute and note any discrepancies exceeding 2°F. Many thermometers include built-in functions, such as buttons, for user-adjusted accuracy without external tools, while traditional or analog models may require periodic professional recalibration if the adjustable nut or tube mechanism becomes unreliable. To verify response time, test the in or neutral oil before sugar work; models should stabilize under 30 seconds for reliable performance.

Monitoring and Interpretation

During the candy-making process, effective monitoring begins by positioning the thermometer at eye level to ensure accurate readings and minimize parallax error, which occurs when viewing the scale from an angle and can lead to misinterpretation of the temperature. The syrup should be heated slowly over medium heat to promote even temperature distribution, with the thermometer inserted only after the mixture reaches a boil; clipping it to the side of the pan keeps the bulb submerged in the syrup but away from the bottom to prevent false readings from direct contact with the heat source. Gentle stirring with a wooden spoon during initial heating helps maintain uniform heat without introducing air bubbles that could cause uneven cooking. Interpretation of readings focuses on observing a steady temperature rise, noting the time taken for each 10°F increment to gauge progress and adjust heat if the ascent slows unexpectedly. Adjust target temperatures for altitude by subtracting the boiling point depression from sea-level values. In analog models, constant visual checks are necessary to track the mercury or fluid column precisely, while digital thermometers allow setting alarms for specific stages, such as the soft-ball range around 235–240°F, providing an audible alert without uninterrupted supervision. Upon reaching the target temperature for the desired stage, the pan should be removed from heat promptly, accounting for carryover cooking where the syrup's temperature may continue to rise 5–10°F due to residual heat. To prevent , which can result in a grainy , incorporate at the recipe's outset as an by interfering with crystal formation and promoting a smoother .

Safety and Maintenance

Hazards and Precautions

Using a candy thermometer involves working with molten syrups that can reach temperatures up to 350°F (177°C), posing significant risks of severe burns if the hot liquid splatters or overflows. Unlike water-based scalds, molten sugar adheres to the skin due to its , prolonging contact and exacerbating damage, which can result in deep second- or third-degree burns requiring medical attention. Additionally, traditional glass-stemmed candy thermometers are susceptible to shattering from if plunged directly into syrup without gradual heating, potentially scattering sharp fragments. To mitigate these hazards, users should wear heat-resistant gloves and long sleeves to protect against splatters, and keep children and pets away from the cooking area to prevent accidental contact or disruptions. A of cool should be kept nearby for immediate immersion of any affected skin to stop the burning process, followed by seeking professional medical care for anything beyond minor exposure; should be avoided as it can further damage . Never leave the heating unattended, as it can boil over rapidly. Overheating the syrup can lead to scorching or ignition, creating a hazard similar to grease fires, where water must never be used as it can cause explosive spreading. Keep a extinguisher accessible and, for small incipient fires, apply baking soda to smother the flames by releasing . Adequate is essential to disperse any acrid fumes from overcooked sugar, preventing respiratory irritation.

Care and Storage

After use, allow the candy thermometer to cool completely to to prevent , particularly for glass models. Wipe the or probe with a soft cloth dampened in warm, soapy to remove any residue, such as or , without submerging the dial or electronic components to avoid damage. For stubborn buildup on traditional glass candy thermometers, submerge the in boiling for a few minutes to dissolve the residue, then rinse and dry immediately with a clean to prevent or . Regular upkeep extends the lifespan of candy thermometers; inspect glass stems annually for cracks or , as these can compromise accuracy and safety in or constructions. For digital variants, replace batteries every 6 to 12 months or as needed after approximately 3,000 hours of use to ensure reliable performance, and remove them during long-term storage to avoid leakage. If the adjustable clip on the becomes sticky from residue, clean it thoroughly rather than lubricating, as food-safe oils are not typically recommended for this purpose. Store candy thermometers in a protective case or sleeve to shield the probe or stem from damage, laying them flat or hanging them in a dry, cool area away from direct and extreme temperatures, which can degrade materials like glass or plastic housings over time. Avoid crowded drawers where they might be knocked or bent, and for digital models, ensure the storage environment is low-humidity to protect . With consistent care, glass candy thermometers can remain functional for many years, while digital ones may require checks or replacement after heavy use.

Alternatives

Other Thermometer Types

Meat thermometers typically feature a shorter , often around 4 to 5 inches in length, and a range capped at approximately 200°F, making them unsuitable for where temperatures can exceed 300°F and require deeper immersion to avoid inaccuracy from heat exposure. Deep-fry thermometers share a similar long-stem to candy models for monitoring high-heat liquids up to 400°F, but they often lack adjustable pot clips and specific markings for stages like soft-ball or hard-crack, limiting their precision for tasks despite serving as a viable substitute for . Instant-read probe thermometers provide rapid readings in 2 to 3 seconds across a broad range up to 572°F, but their short probes and for brief insertions make them inappropriate for continuous monitoring during or deep-frying processes, where they are better suited for occasional spot checks. Oven thermometers are intended for static placement inside dry environments, with a typical of 100°F to 500°F, rendering them ineffective for in hot liquids due to their non-probe construction and potential for damage. Infrared non-contact thermometers measure surface temperatures accurately for solids but are unreliable for liquids like syrups or oils, as they only detect emitted radiation from the top layer, ignoring internal heat and affected by factors such as or variations. In comparison, candy-specific thermometers excel with extended immersion depths of 8 to 10 inches for safe, accurate readings in mixtures and include etched guides for key stages, features absent or less optimized in these alternatives. Digital variants of thermometers enhance this with faster response times but retain the core advantages in probe length and stage presets.

Non-Thermometer Methods

Non-thermometer methods for determining candy stages rely on sensory observations of sugar syrup's behavior when handled or tested in cold water, techniques that have been employed by confectioners for centuries before precise became accessible in home kitchens. These approaches assess the concentration of through physical properties like pliability, thread formation, or brittleness, providing a practical way to achieve desired textures such as those for or hard candies. The water test, also known as the ice water method, involves dropping a small amount of hot —typically a half-teaspoon—from a into a of very or ice water, allowing it to cool for a few seconds before retrieving and examining the cooled portion. For the soft-ball stage, suitable for , the forms a soft, pliable ball that flattens when pressed between the fingers, indicating a content that yields a creamy upon beating. In higher stages like hard crack for brittles, the cooled separates into rigid, snapping threads that do not bend. This method evaluates multiple stages by observing formations ranging from flexible balls to brittle shapes, directly linking to the resulting textures. The test complements the cold water approach by observing the syrup's consistency as it is lifted and dripped from a clean held above the cooking pot. At the stage, early in the process, the syrup falls in a thin, continuous 2-inch , ideal for or glazes. For slightly higher concentrations, in the pearl stage, drops from a cooled merge into a thin sheet before falling, signaling readiness for or lighter candies. As the syrup thickens further, it may sheet off the in a cohesive layer without breaking, useful for assessing advanced concentrations where dripping ceases and increases. These sensory tests originated before the early , when candy thermometers were not widely available for home or even use, relying instead on experienced judgment to gauge . They remain a in confectioneries today, particularly for small batches or when verifying equipment accuracy. However, their precision is limited by environmental factors such as high , which can retain excess in the , or altitude, which lowers points and alters behavior; results also vary with the tester's experience in interpreting subtle differences. Additionally, handling scalding-hot poses risks, necessitating caution with tools like long-handled spoons.

References

  1. [1]
    The Best Candy Thermometers: What You Need to Know
    The Thermapen is recommended for candy, with high accuracy and speed. The ThermoPop is a good alternative. ChefAlarm is recommended for chocolate.Missing: definition | Show results with:definition
  2. [2]
    How and Why to Use a Candy Thermometer - David Lebovitz
    Dec 18, 2011 · Advice and tips on using a candy thermometer from pastry chef & cookbook author David Lebovitz, of Ready for Dessert and The Perfect Scoop.Missing: history | Show results with:history
  3. [3]
    Can You Use a Meat Thermometer for Candy? - Allrecipes
    Jan 24, 2023 · A candy thermometer is used to measure temperatures up to 400 degrees F. This long, skinny thermometer is commonly used when making hard and ...
  4. [4]
    How to Use a Candy Thermometer to Cook Sugar Properly - 2025
    Jun 7, 2021 · A candy thermometer is a long, narrow thermometer with a high heat range that measures the temperature of boiling sugar, oil, sauces, and syrups ...
  5. [5]
    Science of Cooking: Candy-making Stages - Exploratorium
    As a sugar syrup is cooked, water boils away, the sugar concentration increases, and the temperature rises. The highest temperature that the sugar syrup ...Missing: correlation | Show results with:correlation
  6. [6]
    We Tested the Best Thermometers for Making Candy and Deep-Frying
    Aug 5, 2025 · What do you use a candy thermometer for? Candy thermometers are used to measure the precise temperatures of liquid ingredients, like sugar ...<|control11|><|separator|>
  7. [7]
    Deep Frying Temperature Chart: Learn How Long to Fry Food
    May 9, 2023 · Deep Frying Temperature Chart ; French fries. 325 °F then 400°F · Blanch first at 325°F for 3 to 4 minutes; then fry at 400°F for another 3 to 4 ...<|separator|>
  8. [8]
    Testing Jelly without Added Pectin
    Temperature Test – Take the temperature of the jelly with a candy or jelly thermometer. When done, the temperature of the jelly should be 220°F, 8°F above ...
  9. [9]
    Tempering chocolate - Valrhona
    For example, dark chocolate should be melted between 120 and 130°F (50°C and 55°C), while milk and white chocolate should melt at around 105-115°F (40-45°C).<|separator|>
  10. [10]
    Candy Thermometer - Researching Food History
    Jan 25, 2010 · The candy thermometer did not become available to most housekeepers until the early 1900s when appeared in advertisements and recipes.
  11. [11]
    How to Make Caramel Candy: Temperature Guide | ThermoWorks
    The firm-ball stage is the state wherein the boiling point of the solution reaches a temperature that indicates that the syrup contains 87–91% sugar, 245°–249°F ...
  12. [12]
    Homemade Caramels - Tastes Better From Scratch
    Rating 5.0 (1,221) · 1 hr 10 minDec 8, 2024 · Stir the mixture constantly, scraping the sides occasionally until it reaches a firm ball stage (about 240-245 degrees F on a candy thermometer) ...
  13. [13]
  14. [14]
    The original Boston Cooking-School cook book, 1896
    Sep 28, 2009 · The original Boston Cooking-School cook book, 1896. by: Farmer, Fannie Merritt, 1857-1915. Publication date: 1973. Topics: Cookery, American.
  15. [15]
    History of the Thermometer - PMC - NIH
    Aug 23, 2019 · The earliest thermal instruments were developed during the sixteenth and seventeenth centuries. In 1665, it was suggested that the melting point of ice and the ...
  16. [16]
    Is Candy Making a Lost Art? Hundred-Year-Old Candy Thermometer ...
    Feb 16, 2017 · I was surprised when I saw this hundred-year-old advertisement for candy thermometers. Sometimes I think that making homemade candy is ...
  17. [17]
    history notes-candy - The Food Timeline
    A significant moment in candy history occured at the 1851 Great Exhibition in London, where "French-style" candies with rich cream centers were first displayed.
  18. [18]
    Mercury Thermometers | US EPA
    Learn about mercury thermometers, their uses, the laws regulating their sale, alternatives to them, and how to cleanup a broken mercury thermometer.
  19. [19]
    Thermometer is a must for holiday candy-making
    Nov 29, 2019 · Instant-read digital thermometers have increased in popularity recently because of their ease of use. This probe gadget allows a cook to ...
  20. [20]
    Homemade Candy is the Best Halloween Project
    Oct 21, 2019 · Start by heating sugar, corn syrup, water, and butter until it reaches 275°F (a candy thermometer is a necessity to properly execute this treat) ...
  21. [21]
    Food Thermometers | Food Safety and Inspection Service
    No readable text found in the HTML.<|control11|><|separator|>
  22. [22]
    How Does a Bimetallic Thermometer Work? - Tameson.com
    Jan 15, 2025 · A bimetallic thermometer is a temperature measurement device. It converts the media's temperature into mechanical displacement using a bimetallic strip.Missing: candy | Show results with:candy
  23. [23]
    Exquisite Candy Thermometer Glass - Perfect for Baking - Alibaba.com
    The body of a glass candy thermometer is made from durable borosilicate glass ...
  24. [24]
    Candy/Deep Fry Thermometer | 5983N - Taylor USA
    Rating 4.3 (3) · Free delivery over $25A classic paddle design is perfect for making candy or tracking oil temperatures for deep frying. Includes an adjustable pan clip that securely affixes the ...
  25. [25]
  26. [26]
    The Stages of Cooking Sugar Solutions - Candy Making Basics
    Jun 9, 2021 · Diving deep into the science of sugar candy, candy stages, the use of thermometers and even state diagrams to explain some thermodynamics.<|control11|><|separator|>
  27. [27]
  28. [28]
    Candy Making at High Elevation - Food Smart Colorado
    For each 1,000 feet above sea level, reduce the recipe's temperature(s) by 2°F. This adjustment allows the candy maker to control the degree of evaporation ...
  29. [29]
    The Dos and Don'ts of Candy Making • AnswerLine • Iowa State ...
    Jan 25, 2016 · It should read 212 degrees F. If it reads above or below adjust the temperature accordingly when making your candy. Cook to the correct stage.Missing: reliable | Show results with:reliable
  30. [30]
    The 6 Stages Of Sugar-Cooking When Making Candy, Explained
    Jun 14, 2025 · The 6 Stages Of Sugar-Cooking When Making Candy, Explained · Thread stage · Soft-ball stage · Firm-ball stage · Hard-ball stage · Soft-crack stage.Missing: descriptions textures properties
  31. [31]
    Temperature Stages Of Sugar For Candy Making | LorAnn Oils
    320°F and above, Caramel: The sugar turns golden yellow to dark amber. Nearly all water has been boiled out of the syrup. If sugar continues to cook, it will ...
  32. [32]
    Crystallization – Modern Pastry and Plated Dessert Techniques
    The fact that sugar solidifies into crystals is extremely important in candy making. There are basically two categories of candies: crystalline (candies that ...
  33. [33]
    How to Test and Calibrate a Thermometer - SugarHero
    Aug 12, 2023 · Master the art of candy-making with this step-by-step guide to calibrating your candy thermometer. Soon you'll be making perfect ...🌡Calibrating Your Candy... · ❓ What is Calibration? · 🧾 What You'll Need
  34. [34]
    How to Test and Calibrate a Candy Thermometer - The Spruce Eats
    Jul 4, 2019 · A professional pastry chef, cookbook author, and writer, Elizabeth LaBau has published more than 600 articles on baking and candy making. Learn ...Missing: steps | Show results with:steps
  35. [35]
  36. [36]
    How to Use A Candy Thermometer - SugarHero
    Aug 9, 2023 · Just submerge the thermometer in a pan of water and let it sit. Soon, the water will dissolve the sugar and the thermometer will be clean. If ...<|control11|><|separator|>
  37. [37]
    How to prevent caramel from crystallizing - The Bake School
    Sep 30, 2022 · Add an invert sugar like corn syrup or honey: The most common precaution to prevent crystallization in recipes for caramel sauces is to add ...
  38. [38]
    Hard Candy Production and Quality Parameters: A review - PMC - NIH
    Mar 26, 2024 · Corn syrup is added to formulations as a doctoring agent to inhibit sucrose crystallization during production and storage ( Lans et al., 2018).
  39. [39]
    Boston doctors warn about candied fruit trend on TikTok that could ...
    Aug 14, 2024 · Hot sugar, versus hot soup or coffee, is especially dangerous because not only does it cause severe scald burns to the skin, but the burns can ...Missing: hazards | Show results with:hazards
  40. [40]
  41. [41]
    Burns and scalds - Treatment - NHS
    Cool the burn with cool or lukewarm running water for 20 minutes as soon as possible after the injury. Never use ice, iced water, or any creams or greasy ...Missing: candy making
  42. [42]
    Phasing Out Mercury Thermometers Used in Industrial and ... - EPA
    EPA is taking steps to revise its regulations to allow non-mercury alternative thermometers. In addition, EPA is working with ASTM International and the API to ...
  43. [43]
    Fire Extinguisher Types - NFPA
    Aug 1, 2023 · Water is the primary liquid used in these extinguishers, although sometimes other additives are also included. A drawback for pure water fire ...
  44. [44]
    How to Safely Put Out a Grease Fire - Verywell Health
    Jun 2, 2025 · Baking soda (NOT baking powder) is effective because it releases carbon dioxide when heated, which can smother the fire.Steps · Fire Extinguisher · When to Call 911
  45. [45]
  46. [46]
    How to Clean a Food Thermometer: 4 Easy Cleaning Methods - 2025
    Feb 2, 2022 · Wash the thermometer with hot water and soap, and let it dry. Always read any safety instructions listed on the bottle of your chosen chemical ...
  47. [47]
    Use and Care of KitchenAid Thermometers - Product Help
    Apr 10, 2024 · Wash thermometer probes before their first use using a damp washcloth with warm water and a mild detergent; then dry them immediately and thoroughly.
  48. [48]
  49. [49]
    Food Thermometers - USDA Food Safety and Inspection Service
    Also called “spirit-filled" or “liquid in glass” thermometers, these thermometers are the oldest kind of food thermometer used in home kitchens. They have ...
  50. [50]
    PRO Candy / Deep Fry Thermometer - Taylor USA
    In stock Free delivery over $25The high contrast dial displays optimal zones for both candy and deep frying for the best results. An adjustable, silicone coated clip can be used with many ...
  51. [51]
    The 5 Best Instant-Read Thermometers of 2025, Tested & Reviewed
    The ThermoWorks Thermapen ONE is the gold standard for instant-reads. It's easy to use, delivers lightning-fast readings, and has an auto-rotating screen and ...The Winners, at a Glance · What We Learned · Our Favorite Instant-Read...
  52. [52]
    5 Best Meat Thermometers of 2025, Tested and Reviewed
    Oct 8, 2025 · Instant-read thermometers are designed to be used outside the oven, during cooking or toward the end of cooking to confirm doneness. These tend ...
  53. [53]
    The 6 Best Oven Thermometers, According to a Chef - Allrecipes
    This thermometer has the highest temperature range on this list, clocking in at over 700°F, making it perfect for high-heat tasks like broiling or grilling.
  54. [54]
  55. [55]
  56. [56]
  57. [57]
    How to Test Candy Temperatures Without a Thermometer
    Jun 9, 2024 · Every few minutes, drop a small spoonful of syrup into the cold water. Let the candy cool for a second, then form it into a ball with your hand.
  58. [58]
    Candy – Sugar Syrup Temperature Chart - Crafty Baking
    Jul 16, 2024 · This CANDY – SYRUP TEMPERATURE CHART indicates two different methods of determining when the solution has been cooked to its proper sugar concentration.Missing: correlation | Show results with:correlation
  59. [59]
    How to Test Candy in Cold Water - My Country Table
    Dec 5, 2016 · Learn how to test candy in cold water. It's really not hard and you won't have to depend on a candy thermometer that might not always be accurate.
  60. [60]
    The Spoon Method to Test Cooked Sugar - CIA Foodies
    Place a small bowl of ice water next to the saucepan of cooking sugar. · As the sugar boils, spoon small samples of the syrup out of the saucepan and immerse ...
  61. [61]
    {top tip} Getting Accurate Candy Temperatures Without A Thermometer
    Nov 22, 2011 · So to get your candy recipe just right, you have to figure out what stage you're in. All it takes is a spoon, some ice water, and a few tries.Missing: traditional | Show results with:traditional