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REFRACTORY MORTAR, COKE OVEN CONSTRUCTION METHOD AND SELECTION METHOD OF REFRACTORY MORTAR
To provide a refractory mortar capable of ensuring sufficient sealing property regardless of the operating temperature of the site of use.SOLUTION: A refractory mortar to be used for joining shaped refractories together upon construction of a furnace wall using them, characterized in that the thickness MT of the refractory mortar at 100°C satisfies the following equation: MT=Mi(1+0.01αMT)≥Lj-0.005(αB1×LB1+αB2×LB2), wherein Mi is the thickness of the refractory mortar at the end of curing; αMT is coefficient of thermal expansion of the refractory mortar at 100°C; L j represents the joint thickness between Shaped Refractory 1 and Shaped Refractory 2 at room temperature when two adjacent shaped refractories are set to Shaped Refractory 1 and Shaped Refractory 2, respectively; αB1 is coefficient of thermal expansion of Shaped Refractory 1 at 100°C; LB1 is the room temperature length of Shaped Refractory 1; αB2 is the coefficient of thermal expansion of Shaped Refractory 2 at 100°C; and LB2 is the room temperature length of Shaped Refractory 2.SELECTED DRAWING: Figure 1
【課題】使用部位の稼働中の温度にかかわらず、十分なシール性を確保することのできる耐火性モルタルを提供する。【解決手段】定形耐火物を用いて炉壁を構築する際に定形耐火物同士の接合に使用する耐火性モルタルであって、100℃における耐火性モルタルの厚みMTが次式を満たすことを特徴とする耐火性モルタル。MT=Mi(1+0.01αMT)≧Lj−0.005(αB1×LB1+αB2×LB2)ここでMiは養生終了時の耐火性モルタルの厚み、αMTは100℃における耐火性モルタルの線熱膨張率、そして隣接する定形耐火物をそれぞれ定形耐火物1と定形耐火物2とし、Ljは室温における定形耐火物1と定形耐火物2との間の目地厚み、αB1は定形耐火物1の100℃における線熱膨張率、LB1は定形耐火物1の室温長さ、αB2は定形耐火物2の100℃における線熱膨張率、LB2は定形耐火物2の室温長さである。【選択図】図1
REFRACTORY MORTAR, COKE OVEN CONSTRUCTION METHOD AND SELECTION METHOD OF REFRACTORY MORTAR
To provide a refractory mortar capable of ensuring sufficient sealing property regardless of the operating temperature of the site of use.SOLUTION: A refractory mortar to be used for joining shaped refractories together upon construction of a furnace wall using them, characterized in that the thickness MT of the refractory mortar at 100°C satisfies the following equation: MT=Mi(1+0.01αMT)≥Lj-0.005(αB1×LB1+αB2×LB2), wherein Mi is the thickness of the refractory mortar at the end of curing; αMT is coefficient of thermal expansion of the refractory mortar at 100°C; L j represents the joint thickness between Shaped Refractory 1 and Shaped Refractory 2 at room temperature when two adjacent shaped refractories are set to Shaped Refractory 1 and Shaped Refractory 2, respectively; αB1 is coefficient of thermal expansion of Shaped Refractory 1 at 100°C; LB1 is the room temperature length of Shaped Refractory 1; αB2 is the coefficient of thermal expansion of Shaped Refractory 2 at 100°C; and LB2 is the room temperature length of Shaped Refractory 2.SELECTED DRAWING: Figure 1
【課題】使用部位の稼働中の温度にかかわらず、十分なシール性を確保することのできる耐火性モルタルを提供する。【解決手段】定形耐火物を用いて炉壁を構築する際に定形耐火物同士の接合に使用する耐火性モルタルであって、100℃における耐火性モルタルの厚みMTが次式を満たすことを特徴とする耐火性モルタル。MT=Mi(1+0.01αMT)≧Lj−0.005(αB1×LB1+αB2×LB2)ここでMiは養生終了時の耐火性モルタルの厚み、αMTは100℃における耐火性モルタルの線熱膨張率、そして隣接する定形耐火物をそれぞれ定形耐火物1と定形耐火物2とし、Ljは室温における定形耐火物1と定形耐火物2との間の目地厚み、αB1は定形耐火物1の100℃における線熱膨張率、LB1は定形耐火物1の室温長さ、αB2は定形耐火物2の100℃における線熱膨張率、LB2は定形耐火物2の室温長さである。【選択図】図1
REFRACTORY MORTAR, COKE OVEN CONSTRUCTION METHOD AND SELECTION METHOD OF REFRACTORY MORTAR
耐火性モルタル、コークス炉の築炉方法及び耐火性モルタルの選定方法
TAKEMOTO HIRONAO (author) / KASAI ATSUYA (author) / TANAKA HIROTO (author) / TAMURA YOSHIHIRO (author)
2021-05-27
Patent
Electronic Resource
Japanese
IPC:
C04B
Kalk
,
LIME
/
C10B
Zersetzende Destillation von kohlenstoffhaltigen Stoffen zur Erzeugung von Gas, Koks, Teer oder ähnlichen Stoffen
,
DESTRUCTIVE DISTILLATION OF CARBONACEOUS MATERIALS FOR PRODUCTION OF GAS, COKE, TAR, OR SIMILAR MATERIALS
/
F27D
Einzelheiten oder Zubehör für Industrieöfen, Schachtöfen, Brennöfen oder Retorten, soweit sie nicht auf eine Ofenart eingeschränkt sind
,
DETAILS OR ACCESSORIES OF FURNACES, KILNS, OVENS, OR RETORTS, IN SO FAR AS THEY ARE OF KINDS OCCURRING IN MORE THAN ONE KIND OF FURNACE
Masonry refractory mortar automatic paving device and refractory mortar masonry construction method
European Patent Office | 2021
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