201241370 六、發明說明： I：發明所屬之技術領域:】 發明領域 本發明係有關一種抵接於調理容器之底面以檢測調王里 容器之溫度的爐用鍋底溫度感測器。 發明背景 近年，進行著以鍋底溫度檢測器檢測載置於瓦斯壞之 火架之調理容器的溫度，並將來自該感測器之檢測信說送 至控制器藉以控制爐燃燒器，一面將調理容器之溫度維持 於設定温度，一面防止調理容器之燒焦。 該種鋼底溫度感測器具備有内藏熱敏電卩且器之感熱 頭。感熱頭係藉由彈簧朝上方賦予勢能地支持於暨立設置 在以環狀之爐燃燒器圍繞之燃燒器内方空間之中空支枉的 上端部。 於感熱頭之前端設有平坦之集熱板，且於該集熱板之 裏面安裝有熱敏電阻器。從熱敏電阻器延伸之導線通過支 柱之内部而從支柱之下端拉出’連接於控制器（例如參照專 利文獻1)。 而且’使集熱板抵接於以爐燃燒器加熱之調理容器之 底面’熱敏電阻器透過集熱板而檢測調理容器的溫度。 【先行技術文獻】 【專利文獻】 【專利文獻1】特開爭8-152135號公報 201241370 【發明内容】 發明概要 而，該種鍋底溫度感測器所採用之熱敏電阻器具有固 有的耐熱溫度，且另外於用以調理之燃燒器的控制，也進 行不超過熱敏電阻器之耐熱溫度的控制。亦即，藉由控制 器控制調理容器之溫度調節時，考慮熱敏電阻器之耐熱溫 度而設定上限之加熱溫度，在成為上限之加熱溫度或其附 近之溫度時，為了保護熱敏電阻器進行滅火之控制。 然而，依調理物，調理容器之溫度即使極度地變高朝 調理物之加熱也會有不充分的情況。舉具體例時，在鐵網 上燒烤年糕等高溫調理的情況，抵接於鐵網之感熱頭的溫 度會在比較短的時間上升。且，上升到依據熱敏電阻器之 耐熱溫度所設定之上限加熱溫度時，儘管年糕等未燒製完 成，會有產生所謂藉由控制器而將爐燃燒器滅火之過早關 火的情事。因此，依調理物不只是使用方便性變差，且頻 繁地進行上升到上限加熱溫度般之高溫調理時，會有熱感 電阻器提早劣化之不適當情況。 又，熱感電阻器之導線經過具有抵接於調理容器底面 之集熱板之感熱頭的内部而朝支柱之内部延伸，但是感熱 頭之周圍由於如上述般會變得比較高溫，因此，被覆導線 之被覆構件因熱之影響而劣化，而有鍋底溫度感測器之耐 久性降低的可能性。 鑒於上述點，本發明係以提供一種使用方便性佳且耐 久性高之鍋底溫度感測器為目的。 201241370 【用以解決課題之手段】 d。為了達成如此之目的，本發明之爐用鍋底溫度感測 益係從以&狀之爐燃燒器所包圍之燃燒器内方空間朝上 申且抵接於以爐燃燒器所加熱之調理容器的底面， 徵裰:t凋理谷器之溫度者’該爐用鍋底溫度感測器之特 在；匕3有·抵接於調理容器之底面的集熱板、因應該 /、’’、'板之咖度而變形的雙金屬、及檢測該雙金屬之變形量 且將錢化讀換成對應於溫度之電氣的值之變形量檢測 機構°續形量檢測機構係設於較形成前述爐燃燒器之火 焰的火焰孔為下方的位置。 本發明之爐用鍋底溫度感測器係可藉由利用變形量檢 測機構檢測透過祕板而從綱容^之底面受熱之雙金屬 的1形里，藉以與熱敏電阻器同樣地將調理容器的溫度輸 出作為電氣的值’並可易於進行依據控制器等之依據溫度 的控制。 而且’於受熱的部分’相較於習知之熱敏電阻器，可 採用耐熱溫度高之雙金屬（例如JIS規格TM4 :耐熱溫度500 °C) ’且可將依據控制器等之高溫滅火之上限溫度設定成較 熱敏電阻器高之溫度。藉此，可進行在比較高的溫度領域 之溫度控制，例如在鐵網上燒烤年糕等場合，可迴避所謂 儘管年糕等尚未燒製成而過早關火之事態，使用方便性佳。 再者，由於變形量檢測機構位於較爐燃燒器之火焰孔 為下方的位置，所以為了從變形量檢測機構輸出電氣的值 而連接於變形量檢測機構之導線，也可與變形量檢測機構 201241370 一起設於離開爐燃燒器形成之火焰的位置。藉此，可減輕 對變形量檢測機構及導線的熱影響，可提升變形量檢測機 構或導線之耐久性。 且，於本發明中，螺旋形之雙金屬與平板形（中央部移 動變化之兩端支持型或是在中央部彎曲之一端支持型）之 雙金屬之任一者皆可適合地採用。 螺旋形之雙金屬伴隨其變形，兩端相互朝相對方向旋 轉。且，前述變形量檢測機構藉由檢測該雙金屬之旋轉角， 而可有效地檢測調理容器之溫度。 平板形之雙金屬伴隨其變形，一部分朝上下方向變 位。且，前述變形量檢測機構藉由檢測該雙金屬之變位， 而可有效地檢測調理容器之溫度。 圖式簡單說明 第1圖係顯示本發明之實施形態之說明的斷面圖。 第2圖係顯示本發明之其他實施形態之說明的斷面圖。 L實施方式3 較佳實施例之詳細說明 依據圖面來說明本發明之實施形態。第1圖係顯示瓦斯 爐之主要部分。瓦斯爐具備有爐燃燒器1。爐燃燒器1具有 連接於混合管2之環狀的燃燒器本體3、載置燃燒器本體3上 之環狀的燃燒器頭部4。 於燃燒器頭部4之外周面下面形成有多數藉由齒形向 外開口之火焰孔5。燃燒器本體3係金屬板製，且具有内筒6 與外筒7。於内筒6裝設有燃燒器頭部4之筒狀壁8，於外筒7 6 201241370 形成有燃燒器頭部4之齒形安設之安設部9、與從安設部9向 外方朝傾斜下方延伸之外周壁部10。立，雖未圖示，然而 於外周壁部10之外周設有承接烹煮溢出汁液之汁液承接 盤。 又’於爐燃燒器1之外側設有在第1圖顯示—部分之火 架11。利用將未圖示之調理容器載置於火架11 ’並以爐燃 燒器1之火焰加熱調理容器，而進行調理。 於爐燃燒器1設有抵接於以該燃燒器1加熱之調理容器 之底面，即載置於包圍該燃燒器1之火架11之調理容器的底 面以檢測其溫度之鍋底溫度感測器12。 鍋底溫度感測器12具備有豎立設置在圍繞於爐燃燒器 1之筒狀壁8之燃燒器内方空間13的中空管狀感熱部14、與 可朝上下方向自由滑動地保持感熱部I4之中空管狀支持構 件15。 感熱部14具備有抵接於調理容器之底面的集熱板16、 朝上下方向延伸之螺旋形的雙金屬17與旋轉電位叶18(變 形量檢測機構）。 旋轉電位計18支持於感熱部14之底部’位於爐燃燒器1 之火焰孔5的下方。藉此，旋轉電位計_導線21離開火培 而難以受到熱的影響。 雙金屬17之上端-體地連結於集熱板16之連結部19。 雙金屬17之下端一體地連結於旋轉電位計丨8之輸入旋轉軸 20 ° 雙金屬17藉由從集熱板16傳達之熱而變形時，藉由螺 201241370 旋形而使下端對其上端旋轉。此時之旋轉輸人至旋轉電位 計18之輸入旋轉軸20。藉由採用螺旋形之雙金屬17，而成 不須用以連結雙金屬17與旋轉電位計18之輸人旋轉軸2〇的 構件等，可將雙金屬Π之變形量(旋轉量)有效地傳達至輸入 旋轉軸20。 旋轉電位計18因應輸入旋轉軸2〇之旋轉角度而變化電 氣之電阻值。從旋轉電位計18延伸之導線21連接於未圖示 之控制器。 從旋轉電位計18得到的電阻值係對應於雙金屬17之變 形量者，雙金屬17之變形量係對應從抵接於調理容器之底 面之集熱板16所受之調理容器的溫度者。因此，於控制器， 可依據旋轉電位計18所得之電阻值而控制爐燃燒器丨，對調 理容器之溫度控制變得可能。 支持構件15係藉由安裝於爐燃燒器1用之支持板22的 支架23而固定。於支持構件15之下端形成有環狀之彈簧承 接部24 ’彈簧承接部24與感熱部14之底部之間設有因應感 熱部14之下動而朝上方推回之彈簧25。藉此，在將調理容 器載置於火架11時’感熱部14抵抗彈簧25之附勢力而壓 下，集熱板16利用彈簧25之壓縮反力而確實地抵接於調理 容器之底面。 依據以上構成之鍋底溫度感測器12藉由以雙金屬17接 受集熱板16的熱，在依據控制器之溫度控制之中，可將強 制滅火時之上限溫度設定成比較高的溫度。 具體而言’使用如習知之熱敏電阻器時，考慮該種熱 8 201241370 敏電阻器之耐熱溫度為350°C左右而必須使控制上之滅火 上限溫度為例如320°C左右。相對於此，如本實施形態般， 藉由使用耐熱溫度500°C之雙金屬（JIS規袼之TM4等），而 可使控制上之滅火上限溫度為比較高之例如450°C。是故， 例如在鐵網上燒烤年糕等場合，可迴避所謂儘管年糕等尚 未燒製成而藉由控制使爐燃燒器1滅火之事態，使用方便性 佳0 其次’就有關其他實施形態之鍋底溫度感測器26—面 參照第2圖一面進行說明。且，由於爐燃燒器1與第1圖所示 之構成相同，藉由賦予相同符號而省略其說明。 …如第2圖所示’鋼底溫度感測器％具備有賢立設置在以 部27燒器丨所圍繞之燃燒器内方空間13之中空管狀的感熱 件28與可朝上下方向自由滑動地保賊熱部27之支持構 板^熱初具備有抵接於調理容器之底面集熱板29、平 將Μ、之雙金屬3G、線性電位計31(變形量檢測機構）、與 ^。’屬之’變料達至線性電位計3丨之棒狀的連桿構件 32之又t屬3G之上半部連結於集熱板29之裏面。連桿構件 件32上^可自由搖動地連結於雙金屬3G之下半部。連桿構 巧。之下端可自由搖動地連結於線性電位計31之輸入桿 平板^^屬3G藉由從集熱板29傳達之熱而變形時，藉由為 予形’其下半部相對上半部朝下方變位。此時之變位 201241370 係透過連桿構件32而輸人至線性電位計3丨之輪入桿33。 輕電位叶Μ因應輸入桿33之移動而使電氣之電阻值 ^器且，從線性電位計3】延伸之導線％連接於未圖示之 從線性電位計31所得之電限值係對應雙金屬30之變形 ==金_之變形量係對應從抵接於調理容器之底面 之―29所受之調理容器之溫度者。因此，於控制器， 可依據從雜電位計31所得之電阻㈣__燒器，對 調理容器之溫度控制變成可能。 又’線性電位計31係支持於感熱部27之底部側，且位 於爐燃燒器1之火焰孔5的下方。藉此，線性電位計31及導 線34離開火焰而難以受到熱的影響。 支持構件2 8係藉由安裝於爐燃燒器]用之支持板2 2的 支架23而m定。於讀構件Μ之下端形成有環狀之彈菁承 接部35 ’彈簧承接部35與感熱肋之底部之間設有因應感 熱部27之下動而朝上方壓回之彈著36。藉此，將調理容器 載置於火架11時，感熱部27抵抗彈簧26之附勢力而壓下， 集,，.、板29利用彈篑36之壓縮反力而確實地抵接於調理容器 之底面。 鍋底溫度感測器2 6也與前述之鍋底溫度感測器丨2同樣 地，藉由以雙金屬3〇承受集熱板29的熱，在藉由控制器之 溫度控制之中，可將強制地滅火時之上限溫度設定成較高 的溫度，使用方便性佳。 且’第2圖所示之鍋底溫度感測器26中，雖然是顯示採 10 201241370 用平板U字形之雙金屬30的例子，但是於其以外，雖未圖 示，然而也可採用可如平板兩端支持形或圓盤等般透過連 桿構件32使線性電位計31之輸入桿33朝上下移動之形狀的 雙金屬。 又，於上述之各實施形態中，雖是顯示採用所謂旋轉 電位計18或線性電位計31之電位計作為本發明之變形量檢 測機構者，但是不以此為限，只要是可將雙金屬丨7、30之 變形量變換成電氣的值（電阻值或信號)者即可。亦即，具體 而言，有關第1圖所示之雙金屬Π之旋轉，可採用旋轉編碼 器等作為變形量檢測機構，而有關第2圖所示之雙金屬3 0之 上下變位，可採用線性編碼器、壓力感測器或是應變計等 作為變形量檢測機構。 I：圖式簡單說明2 第1圖係顯示本發明之實施形態之說明的斷面圖。 第2圖係顯示本發明之其他實施形態之說明的斷面圖。 【主要元件符號說明】 1.. .爐燃燒器 2.. .混合管 3.. .燃燒器本體 4.. .燃燒器頭部 5.. .火焰孔 6.. .内筒 7.. .外筒 8.. .筒狀壁 9.. .安設部 10.. .外周壁部 11.. .火架 12.. .鍋底溫度感測器 13.. .燃燒器内方空間 14.. .感熱部 15.. .支持構件 16.. .集熱板 11 201241370 17.. .雙金屬 18.. .旋轉電位計 19.. .連結部 20.. .輸入旋轉軸 21.. .導線 22.. .支持板 23.. .支架 24.. .彈簧承接部 25.. .彈簣 26.. .鍋底溫度感測器 27.. .感熱部 28.. .支持構件 29.. .底面集熱板 30.. .雙金屬 31.. .線性電位計 32.. .連桿構件 33.. .輸入桿 34…導線 35.. .彈簧承接部 36…彈簧 12201241370 VI. INSTRUCTIONS: I: TECHNICAL FIELD OF THE INVENTION: FIELD OF THE INVENTION The present invention relates to a furnace bottom temperature sensor that abuts against the bottom surface of a conditioning container to detect the temperature of the container. BACKGROUND OF THE INVENTION In recent years, the temperature of a conditioning container placed on a gas-fired fire rack is detected by a pot bottom temperature detector, and a detection signal from the sensor is sent to a controller to control the burner of the furnace. The temperature of the container is maintained at the set temperature while preventing the scorching of the conditioning container. The steel bottom temperature sensor is provided with a thermal head having a built-in thermal circuit. The thermal head is supported by the upper end portion of the hollow support provided in the inner space of the burner surrounded by the annular burner by the potential energy given upward by the spring. A flat heat collecting plate is arranged at the front end of the thermal head, and a thermistor is mounted inside the heat collecting plate. A wire extending from the thermistor is pulled out from the lower end of the column by the inside of the column and connected to the controller (for example, refer to Patent Document 1). Further, 'the heat collecting plate is brought into contact with the bottom surface of the conditioning container heated by the furnace burner', and the thermistor is passed through the heat collecting plate to detect the temperature of the conditioning container. [PRIOR ART DOCUMENT] [Patent Document 1] Japanese Patent Application Laid-Open No. Hei 8-152135-A No. Hei No. Hei No. 8-152135. Further, in addition to the control of the burner for conditioning, control of the heat resistant temperature of the thermistor is also performed. That is, when the controller controls the temperature adjustment of the conditioning container, the heating temperature of the upper limit is set in consideration of the heat resistant temperature of the thermistor, and when the temperature is the upper limit heating temperature or the temperature thereof, the thermistor is protected. Fire control. However, depending on the conditioning material, even if the temperature of the conditioning container becomes extremely high, the heating of the conditioning material may be insufficient. In a specific example, when the rice cake is grilled at a high temperature such as a rice cake, the temperature of the thermal head that abuts the iron mesh rises in a relatively short period of time. Further, when the temperature rises to the upper limit heating temperature set by the heat resistant temperature of the thermistor, although the rice cake or the like is not fired, there is a case where the furnace is extinguished by the controller to extinguish the fire too early. Therefore, depending on the conditioning property, the thermal resistance is prematurely deteriorated, not only when the usability is deteriorated, but also when the temperature is raised to the upper limit heating temperature. Further, the wire of the thermal resistance resistor extends toward the inside of the pillar through the inside of the thermal head having the heat collecting plate abutting against the bottom surface of the conditioning container, but the periphery of the thermal head becomes relatively high as described above, and therefore, the coating is covered. The coated member of the wire is deteriorated by the influence of heat, and there is a possibility that the durability of the pan bottom temperature sensor is lowered. In view of the above, the present invention has been made in an effort to provide a pan bottom temperature sensor which is easy to use and has high durability. 201241370 [Means to solve the problem] d. In order to achieve such a purpose, the furnace bottom temperature sensing system of the present invention is applied upward from the inner space of the burner surrounded by the burner of the & burner and abuts the conditioning vessel heated by the furnace burner. The bottom surface, the levy: the temperature of the distiller's barn's special characteristics of the bottom temperature sensor of the furnace; 匕3 has a heat collecting plate that abuts the bottom surface of the conditioning container, and should be /, '', ' a bimetal which is deformed by the degree of the plate, and a deformation amount detecting mechanism for detecting the deformation amount of the bimetal and replacing the money with a value corresponding to the electrical value of the temperature. The flame hole of the burner flame is below. The pot bottom temperature sensor of the present invention can detect the container in the same manner as the thermistor by detecting the shape of the bimetal which is heated from the bottom surface of the column by the deformation amount detecting means. The temperature output is used as an electrical value' and can be easily controlled according to the temperature of the controller or the like. Moreover, the 'heated part' can be made of a bimetal having a high heat resistance temperature (for example, JIS standard TM4: heat-resistant temperature 500 ° C) compared with the conventional thermistor, and the upper limit of the high-temperature fire extinguishing according to the controller or the like can be used. The temperature is set to a higher temperature than the thermistor. Thereby, temperature control in a relatively high temperature range can be performed. For example, in the case of grilling rice cakes on an iron net, it is possible to avoid the fact that the rice cakes and the like have not been fired and are turned off prematurely, and the use convenience is good. Further, since the deformation amount detecting means is located below the flame hole of the furnace burner, the wire connected to the deformation amount detecting means for outputting the electrical value from the deformation amount detecting means may be combined with the deformation amount detecting means 201241370 They are placed together in a position away from the flame formed by the burner of the furnace. Thereby, the thermal influence on the deformation amount detecting mechanism and the wire can be reduced, and the durability of the deformation detecting mechanism or the wire can be improved. Further, in the present invention, either of the spiral bimetal and the bimetal of the flat plate shape (supported at both ends of the central portion of the movement or one end of the central portion) may be suitably employed. The spiral bimetal is deformed with its ends, and both ends rotate in opposite directions. Further, the deformation amount detecting means can effectively detect the temperature of the conditioning container by detecting the rotation angle of the bimetal. The flat bimetal is deformed with a part of it, and a part is displaced in the up and down direction. Further, the deformation amount detecting means can effectively detect the temperature of the conditioning container by detecting the displacement of the bimetal. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a cross-sectional view showing the description of an embodiment of the present invention. Fig. 2 is a cross-sectional view showing the description of another embodiment of the present invention. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS 3 BEST MODE FOR CARRYING OUT THE INVENTION Embodiments of the present invention will be described with reference to the drawings. Figure 1 shows the main part of the gas furnace. The gas burner is equipped with a furnace burner 1. The furnace burner 1 has an annular burner body 3 connected to the mixing pipe 2, and an annular burner head 4 on which the burner body 3 is placed. A plurality of flame holes 5 which are opened outward by a tooth shape are formed below the outer peripheral surface of the burner head 4. The burner body 3 is made of a metal plate and has an inner cylinder 6 and an outer cylinder 7. The inner cylinder 6 is provided with a cylindrical wall 8 of the burner head 4, and in the outer cylinder 7 6 201241370, a mounting portion 9 having a toothed shape of the burner head 4 is formed, and the mounting portion 9 is outwardly connected from the mounting portion 9. The outer peripheral wall portion 10 extends obliquely downward. Although not shown, a juice receiving tray for receiving the overflowing juice is provided on the outer periphery of the outer peripheral wall portion 10. Further, the flame frame 11 of the portion shown in Fig. 1 is provided on the outer side of the burner 1. Conditioning is carried out by placing a conditioning container (not shown) on the flame frame 11' and heating the conditioning container with the flame of the furnace burner 1. The furnace burner 1 is provided with a bottom temperature sensor that abuts against the bottom surface of the conditioning container heated by the burner 1, that is, the bottom surface of the conditioning container that is placed around the fire rack 11 of the burner 1 to detect the temperature thereof. 12. The bottom temperature sensor 12 is provided with a hollow tubular heat-sensitive portion 14 that is erected in a burner inner space 13 surrounding the cylindrical wall 8 of the furnace burner 1, and a hollow portion that is slidably movable in the vertical direction to maintain the heat-sensitive portion I4. Tubular support member 15. The heat sensitive portion 14 is provided with a heat collecting plate 16 that abuts against the bottom surface of the conditioning container, and a spiral bimetal 17 and a rotating potential leaf 18 (deformation amount detecting means) that extend in the vertical direction. The rotary potentiometer 18 is supported at the bottom of the heat sensing portion 14 below the flame hole 5 of the furnace burner 1. Thereby, the rotary potentiometer_wire 21 leaves the fire and is hardly affected by heat. The upper end of the bimetal 17 is integrally connected to the joint portion 19 of the heat collecting plate 16. The lower end of the bimetal 17 is integrally coupled to the input rotary shaft 20 of the rotary potentiometer °8. When the bimetal 17 is deformed by the heat transmitted from the heat collecting plate 16, the lower end is rotated by the snail 201241370. . At this time, the rotation is input to the input rotary shaft 20 of the rotary potentiometer 18. By using the spiral bimetal 17, the deformation amount (rotation amount) of the bimetal iridium can be effectively obtained without connecting the bimetal 17 and the member of the rotary potentiometer 18 to the input shaft 2 It is transmitted to the input rotary shaft 20. The rotary potentiometer 18 changes the resistance value of the electric electric current in response to the rotation angle of the input rotary shaft 2〇. The lead wire 21 extending from the rotary potentiometer 18 is connected to a controller (not shown). The resistance value obtained from the rotary potentiometer 18 corresponds to the deformation amount of the bimetal 17, and the deformation amount of the bimetal 17 corresponds to the temperature of the conditioning container received from the heat collecting plate 16 abutting on the bottom surface of the conditioning container. Therefore, in the controller, the furnace burner 控制 can be controlled in accordance with the resistance value obtained by the rotary potentiometer 18, and temperature control of the conditioning container becomes possible. The support member 15 is fixed by a bracket 23 attached to the support plate 22 for the furnace burner 1. An annular spring receiving portion 24 is formed at the lower end of the support member 15. A spring 25 is provided between the spring receiving portion 24 and the bottom of the heat sensing portion 14 so as to be pushed upward against the lower portion of the heat sensing portion 14. Thereby, when the conditioning container is placed on the fire frame 11, the heat sensitive portion 14 is pressed against the biasing force of the spring 25, and the heat collecting plate 16 is surely abutted against the bottom surface of the conditioning container by the compression reaction force of the spring 25. According to the above-described bottom temperature sensor 12, the heat of the heat collecting plate 16 is received by the bimetal 17, and the upper limit temperature at the time of forced fire extinguishing can be set to a relatively high temperature in the temperature control according to the controller. Specifically, when a conventional thermistor is used, it is considered that the heat resistance temperature of the heat resistor is about 350 °C, and the upper limit temperature of the fire extinguishing control must be about 320 °C, for example. On the other hand, as in the present embodiment, by using a bimetal having a heat-resistant temperature of 500 ° C (such as TM4 of JIS standard), the upper limit temperature of the fire extinguishing control can be made relatively high, for example, 450 ° C. Therefore, for example, in the case of grilling rice cakes on the iron net, it is possible to avoid the fact that the furnace burner 1 is extinguished by controlling the rice cake or the like without being fired, and the usability is good. The temperature sensor 26 will be described with reference to Fig. 2 . In addition, since the furnace burner 1 has the same configuration as that of the first embodiment, the description thereof will be omitted. ...the steel bottom temperature sensor % shown in Fig. 2 is provided with a hollow tubular heat-sensing member 28 which is disposed in the inner space 13 of the burner surrounded by the burner 27 and is slidable upward and downward. The support structure of the ground protection thief hot part 27 is provided with a bottom heat collecting plate 29, a flat metal, a double metal 3G, a linear potentiometer 31 (deformation amount detecting mechanism), and a ^ which are in contact with the conditioning container. The upper portion of the rod member 32 which is a rod-shaped rod member of the linear potentiometer 3 is connected to the inside of the heat collecting plate 29. The link member 32 is rotatably coupled to the lower half of the bimetal 3G. The link is constructed. The lower end is freely rockably coupled to the input pot of the linear potentiometer 31. When the flat 3G is deformed by the heat transmitted from the heat collecting plate 29, by being pre-shaped, the lower half thereof faces downward with respect to the upper half. Variable Bit. At this time, the displacement 201241370 is input to the wheel bar 33 of the linear potentiometer through the link member 32. The light potential blade is electrically connected to the resistance value of the input rod 33, and the wire % extending from the linear potentiometer 3 is connected to an electric limit value obtained from the linear potentiometer 31 (not shown) corresponding to the bimetal. The deformation of 30 == gold _ is the amount of deformation corresponding to the temperature of the conditioning container that is abutted from the bottom of the conditioning container. Therefore, in the controller, it is possible to control the temperature of the conditioning container in accordance with the resistance (four) __burner obtained from the potentiometer 31. Further, the linear potentiometer 31 is supported on the bottom side of the heat sensitive portion 27 and is located below the flame hole 5 of the furnace burner 1. Thereby, the linear potentiometer 31 and the wire 34 are separated from the flame and are hardly affected by heat. The support member 28 is fixed by a bracket 23 attached to the support plate 2 2 for use in the furnace burner. A ring-shaped elastic crest receiving portion 35 is formed at the lower end of the reading member ’. A spring 36 is provided between the spring receiving portion 35 and the bottom of the sensible rib to be pressed upward in response to the movement of the heat-sensitive portion 27. Thereby, when the conditioning container is placed on the fire frame 11, the heat sensitive portion 27 is pressed against the biasing force of the spring 26, and the plate 29 is reliably abutted against the conditioning container by the compression reaction force of the magazine 36. The bottom surface. The bottom temperature sensor 26 is also subjected to the heat of the heat collecting plate 29 by the bimetal 3〇 in the same manner as the above-described bottom temperature sensor 丨2, and can be forced by the temperature control of the controller. The upper limit temperature of the ground fire extinguishing is set to a higher temperature, and the use convenience is good. Further, in the bottom temperature sensor 26 shown in FIG. 2, although the bimetal 30 having a flat U-shape is used for the display of 10 201241370, although not shown, a flat plate may be used. The both ends support a bimetal having a shape in which the input rod 33 of the linear potentiometer 31 is moved up and down through the link member 32, such as a shape or a disk. Further, in each of the above-described embodiments, a potentiometer using a so-called rotary potentiometer 18 or a linear potentiometer 31 is used as the deformation amount detecting means of the present invention, but it is not limited thereto, as long as it is a bimetal. The deformation amount of 丨7, 30 can be converted into an electrical value (resistance value or signal). Specifically, in particular, regarding the rotation of the bimetal iridium shown in Fig. 1, a rotary encoder or the like can be used as the deformation amount detecting means, and the bimetal 30 shown in Fig. 2 can be displaced up and down. A linear encoder, a pressure sensor or a strain gauge is used as the deformation detecting mechanism. I: BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a cross-sectional view showing the description of an embodiment of the present invention. Fig. 2 is a cross-sectional view showing the description of another embodiment of the present invention. [Main component symbol description] 1.. Furnace burner 2.. Mixing tube 3.. Burner body 4. Burner head 5.. Flame hole 6.. . Inner tube 7.. Outer tube 8... cylindrical wall 9... installation part 10... outer peripheral wall part 11.. fire frame 12.. pot bottom temperature sensor 13.. burner inner space 14.. Heat-sensitive part 15.. Support member 16. Heat collecting plate 11 201241370 17.. Bimetal 18.. Rotary potentiometer 19.. Connection part 20: Input rotation shaft 21.. .. . Support plate 23.. Bracket 24 .. Spring receiving part 25 .. . magazine 26 .. . pot bottom temperature sensor 27 .. heat sensitive part 28 .. . support member 29 .. . Hot plate 30.. . Bimetal 31.. Linear potentiometer 32.. Link member 33.. Input rod 34... Wire 35.. Spring receiving part 36... Spring 12