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    • 1. 发明专利
    • Method for heating material to be heated
    • 加热材料加热方法
    • JP2009263701A
    • 2009-11-12
    • JP2008112709
    • 2008-04-23
    • Nippon Steel Corp新日本製鐵株式会社
    • MASUKO SATORUKARASHIMA HIROSUKESAITO TOSHIAKIAGEO HIDETAKAIWATANI TATSUOKUBOYAMA EIICHI
    • C21D1/42C21D9/00
    • Y02P10/253
    • PROBLEM TO BE SOLVED: To provide a continuous rolling facility which can correct a temperature distribution in a longitudinal direction of a slab that has been heated under such conditions as to deviate from an original heating condition in a heating furnace, to an appropriate temperature distribution, and roll the slab under the optimum heating condition, and to provide a method for heating the material to be heated by using the continuous rolling facility. SOLUTION: The method for heating the material to be heated by using a continuous heating furnace which can selectively switch the heating condition for the material to be heated between a uniform heating condition and a gradient heating condition, and an induction heating device arranged right in front of a finish rolling mill includes heating the material which has been heated by the continuous heating furnace in the period of switching the heating condition of the continuous heating furnace between the uniform heating condition and the gradient heating condition, by the induction heating device so as to compensate an amount of the insufficient heating which has been generated along the longitudinal direction in the switching period. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供一种连续轧制设备,其能够在将在加热炉中的原始加热条件下偏离的条件下被加热的板坯的长度方向上的温度分布校正到适当的温度分布 温度分布,并在最佳加热条件下轧制板坯,并提供通过使用连续轧制设备加热待加热材料的方法。 解决方案:通过使用可以在均匀加热条件和梯度加热条件之间选择性地切换待加热材料的加热条件的连续加热炉来加热待加热材料的方法,以及布置成 在精轧机前面包括在均匀加热条件和梯度加热条件下,在连续加热炉的加热条件切换期间,通过感应加热装置对连续加热炉加热的材料进行加热 以补偿在切换期间沿长度方向产生的不充分的加热量。 版权所有(C)2010,JPO&INPIT
    • 2. 发明专利
    • Combustion control method for regenerative-combustion heating furnace
    • 用于再生燃烧加热炉的燃烧控制方法
    • JP2010164256A
    • 2010-07-29
    • JP2009007447
    • 2009-01-16
    • Chugai Ro Co LtdNippon Steel Corp中外炉工業株式会社新日本製鐵株式会社
    • KIMOTO YASUYUKIUEJIMA HIROTOSHIJIKUMARU SHUICHIMASUKO SATORUAGEO HIDETAKA
    • F23L15/02
    • F23L15/02C03B5/235C03B5/237F23L2900/15022Y02E20/348Y02P40/535
    • PROBLEM TO BE SOLVED: To prevent corrosion of regenerators of regenerative burners, exhaust gas discharge pipes and the like for discharging combustion exhaust gas when the pair of regenerative burners are stopped, in a regenerative-combustion heating furnace including at least the pair of regenerative burners. SOLUTION: In a heating furnace 10 including at least the pair of regenerative burners 20 each having a burner portion 21 equipped with a fuel injection nozzle 25 and the regenerator 22 storing a heat storage material 22a, 22b therein, when combustion and heat storage in the paired regenerative burners 20 are stopped, combustion air is temporarily supplied to the regenerative burner 20b performing, at stop of the operation, operation of introducing the combustion exhaust gas into the regenerator 22 and allowing the heat storage material 22b to store and discharge heat from the combustion exhaust gas. COPYRIGHT: (C)2010,JPO&INPIT
    • 待解决的问题:为了防止再生燃烧器的再生器的腐蚀,在废气排放管等排出废气时,在再生燃烧器停止时,至少包括该对的再生燃烧加热炉 的再生燃烧器。 解决方案:在包括至少一对蓄热式燃烧器20的加热炉10中,每个具有燃烧器部分21的燃烧器部分21配备有燃料喷嘴25,并且再生器22在其中存储蓄热材料22a,22b,当燃烧和加热 在成对的蓄热式燃烧器20中的储存被停止,燃烧空气临时供给到蓄热式燃烧器20b,在再次运转的停止时,将燃烧废气引入再生器22,使储热材料22b进行储存和排出 来自燃烧废气的热量。 版权所有(C)2010,JPO&INPIT
    • 3. 发明专利
    • Exhausting equipment of heating furnace
    • 加热炉排风装置
    • JP2010060157A
    • 2010-03-18
    • JP2008223724
    • 2008-09-01
    • Nippon Steel Corp新日本製鐵株式会社
    • AGEO HIDETAKAMASUKO SATORU
    • F23L15/02F23L17/00F23L17/16F27D17/00
    • Y02E20/348Y02P10/265Y02P80/152
    • PROBLEM TO BE SOLVED: To reduce equipment costs of exhausting equipment, in the exhausting equipment of a heating furnace comprising a continuous combustion burner and a regenerative burner. SOLUTION: This exhausting equipment of the heating furnace includes a first exhausting system 4 for discharging a combustion exhaust gas in the heating furnace 1 successively through a heat storage body of the regenerative burner 3 and a suction fan, a second exhausting system 5 for discharging the combustion exhaust gas in the heating furnace 1 by draft from a furnace tail side of the heating furnace 1, one chimney 6 for diffusing the combustion exhaust gas discharged from the first exhausting system 4 and the second exhausting system 5 to the atmospheric air, and a heat exchanging means 9 (preferably, recuperator of pressure loss of 10 mmH 2 O or more and 20 mmH 2 O or less) for recovering the heat of the combustion exhaust gas discharged from the second exhausting system 5 to preheat the combustion air supplied to the continuous combustion burner 2, a ratio of the combustion amount of the continuous combustion burner 2 to the combustion amount of the whole burner disposed in the heating furnace 1 is 10 vol.% or more and 50 vol.% or less, and a height of the chimney 6 is 45 m or more and less than 60 m. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:在包括连续燃烧器和再生燃烧器的加热炉的排气设备中,降低排气设备的设备成本。 解决方案:该加热炉的排气装置包括:第一排气系统4,用于依次通过蓄热式燃烧器3的蓄热体和吸入风扇排出加热炉1中的燃烧废气;第二排气系统5 用于通过从加热炉1的炉尾侧的通风通过加热炉1中的排气排出燃烧废气,一个用于将从第一排气系统4和第二排气系统5排放的燃烧废气扩散到大气中的烟囱6 ,以及用于回收燃烧热量的热交换装置9(优选地,压力损失为10mmH 2 O以上且20mmH≤S2 O以下的换热器) 从第二排气系统5排出的废气预热供给连续燃烧器2的燃烧空气,连续燃烧器2的燃烧量与整个燃烧器二的燃烧量的比例 吐出在加热炉1中的容积为10体积%以上且50体积%以下,烟囱6的高度为45μm以上且小于等于60μm。 版权所有(C)2010,JPO&INPIT
    • 4. 发明专利
    • Heating furnace and method for controlling temperature of material to be heated
    • 加热炉和控制加热材料温度的方法
    • JP2009161837A
    • 2009-07-23
    • JP2008002418
    • 2008-01-09
    • Nippon Steel Corp新日本製鐵株式会社
    • MASUKO SATORUKARASHIMA HIROSUKESAITO TOSHIAKIAGEO HIDETAKAIWATANI TATSUOKUBOYAMA EIICHI
    • C21D1/52C21D9/00F23L15/02F27B9/36F27B9/40F27D19/00
    • Y02E20/348
    • PROBLEM TO BE SOLVED: To provide a heating furnace which can surely conduct gradient heating and reverse gradient heating, and to provide a method for controlling a temperature of a material to be heated. SOLUTION: The heating furnace 1 for heating a material to be heated which has been charged into the furnace 1 such that the longitudinal direction of the material to be heated becomes perpendicular to the transporting direction of a transportation path provided in the heating furnace 1, while transporting the material along the transportation path, includes: a plurality of thermal-storage type combustion devices 4 which are arranged on both sides of the transportation path in between a 1A side of the charging part and a 1B side of the extracting part in the heating furnace 1 and alternately combust; and a plurality of continuous type combustion devices 5A to 5D which are installed in the upper side of the transportation path, are continuously arranged along a longitudinal direction of the furnace in between the midpoint of the transportation path and the end of the extracting part 1B, are arranged so as to be divided into a plurality of regions along the width direction of the furnace, and can control a combustion amount of each of the regions independently. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种能够可靠地进行梯度加热和反向梯度加热的加热炉,并且提供一种用于控制待加热材料的温度的方法。 解决方案:加热炉1,其被加热到被加热材料的长度方向与加热炉中设置的输送路径的输送方向垂直的加热材料 如图1所示,在沿着输送路径输送材料的同时,包括:多个蓄热型燃烧装置4,其配置在充电部的1A侧和提取部的1B侧之间的输送路径的两侧 在加热炉1中交替燃烧; 并且安装在输送路径的上侧的多个连续型燃烧装置5A〜5D沿着炉的长度方向在输送路径的中点与提取部1B的端部之间连续配置, 被布置成沿着炉的宽度方向被分成多个区域,并且可以独立地控制每个区域的燃烧量。 版权所有(C)2009,JPO&INPIT
    • 5. 发明专利
    • System and method for temperature control, heating furnace, and computer program
    • 温度控制,加热炉和计算机程序的系统和方法
    • JP2008275463A
    • 2008-11-13
    • JP2007119670
    • 2007-04-27
    • Nippon Steel Corp新日本製鐵株式会社
    • SAITO TOSHIAKISUGIURA MASAHITOTAKAHASHI TETSUOMASUKO SATORU
    • G01J5/00C21D9/00C21D11/00F27D19/00F27D21/00G01J5/10
    • PROBLEM TO BE SOLVED: To control combustion of a furnace to control the temperature of an object to be heated to a desired temperature more highly accurately than before by appropriately correcting computation parameters for simulating the temperature of the object to be heated in the furnace. SOLUTION: Stray noise luminance based on burner flames and combustion gases is reduced to a practically negligible level, and the effect of stray noise luminance based on disturbance light from a ceiling surface 12a of a preheating zone 12 is estimated to determine the luminance I b (T s ) of spontaneously emitted light emitted from a slab 21 itself. The surface temperature T s of the slab 21 is computed on the basis of the determined luminance I b (T s ) of spontaneously emitted light. Parameters (a total heat absorption rate ϕ CG ) related to the surface temperature of the slab 21 in a numerical simulation model (a thermal conduction equation) is corrected through the use of the computed surface temperature T s of the slab 21 to control combustion of the heating furnace 10. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:为了控制炉的燃烧,通过适当地校正用于模拟待加热物体的温度的计算参数来控制待加热物体的温度比以前更高精度 炉。 解决方案:基于燃烧器火焰和燃烧气体的杂散噪声亮度被降低到几乎可以忽略的水平,并且估计基于来自预热区12的顶表面12a的干扰光的杂散噪声亮度的影响来确定亮度 从板坯21本身发射的自发发射的光的I b (T SB SB)。 基于自发发射的光的确定的亮度I SB(SB SB),计算板坯21的表面温度T SB S / SB。 通过使用计算出的表面温度T CG ) 以控制加热炉10的燃烧。版权所有(C)2009,JPO&INPIT
    • 6. 发明专利
    • Surface temperature measuring system, heating furnace, surface temperature measuring method, and computer program
    • 表面温度测量系统,加热炉,表面温度测量方法和计算机程序
    • JP2008241413A
    • 2008-10-09
    • JP2007081302
    • 2007-03-27
    • Nippon Steel Corp新日本製鐵株式会社
    • SAITO TOSHIAKISUGIURA MASAHITOTAKAHASHI TETSUOMASUKO SATORU
    • G01J5/06G01J5/00
    • PROBLEM TO BE SOLVED: To calculate a stray light noise caused by a furnace wall by a simplest possible method without lowering accuracy as much as possible. SOLUTION: A radiation thermometer 100 is installed on a position facing to the surface of slab 21 from above a heating zone 13, and thermocouples 200 are scattered on a ceiling surface 13a of the heating zone 13. A temperature measuring object domain 210 determined based on installation positions of the thermocouples 200 and zones A-L determined by dividing the temperature measuring object domain 210 are defined. A stray light noise brightness is determined in each zone by using each temperature of the thermocouples 200, and a value determined by adding each determined stray light noise brightness in each zone is used as the stray light noise brightness of the whole zone. On the other hand, as for a domain on the ceiling surface 13a other than the zones, each stray light noise brightness is determined as a whole by using properly calculated temperatures. Then, a self-emission brightness emitted from the slab 21 itself is determined by subtracting the determined stray light noise brightness from the emission brightness acquired by the radiation thermometer 100. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:通过最简单的方法计算由炉壁引起的杂散光噪声,尽可能地降低精度。 解决方案:辐射温度计100从加热区13的上方安装在面向板坯21的表面的位置上,并且热电偶200被散布在加热区13的顶面13a上。温度测量对象域210 确定基于热电偶200的安装位置和通过划分温度测量对象域210确定的区域AL来确定。 通过使用热电偶200的每个温度在每个区域中确定杂散光噪声亮度,并且通过将每个确定的每个区域中确定的杂散光噪声亮度确定的值用作整个区域的杂散光噪声亮度。 另一方面,对于除了区域之外的天花板表面13a上的域,通过使用适当计算的温度来确定每个杂散光噪声亮度作为整体。 然后,通过从由辐射温度计100获取的发光亮度减去确定的杂散光噪声亮度来确定从板坯21本身发射的自发光亮度。(C)2009,JPO&INPIT