Tri-iron aluminide intermetallic compound-titanium nitride ceramic composite and method for preparing same
An intermetallic compound, titanium nitride ceramic technology, applied in the field of composite material science, can solve the problem of small improvement, and achieve the effects of excellent performance, high hardness and comprehensive performance improvement.
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Embodiment 1
[0016] Example 1: The mass percent (wt%) of each component prepared is: TiN 5%, Fe 3 Al intermetallic compound 95% iron three aluminum intermetallic compound-titanium nitride ceramic composite material
[0017] Firstly, 13.1 kg of iron powder and 81.9 kg of aluminum powder were milled in a ball mill for 50 hours, then 5 kg of TiN powder was added, mixed for 2 hours, dried in vacuum and sieved with a 100-mesh sieve. Put it into a graphite mold for compaction, and then move it together with the mold into a spark plasma sintering (SPS) equipment, raise the temperature to 850°C, use a pressure of 30MPa, and keep it warm for 20min. The sintered blank is cooled to room temperature with the furnace and released from the furnace. The mass percentage (wt%) of the components obtained is: TiN 5%, Fe 3 Al intermetallic compound 95% iron three aluminum intermetallic compound-titanium nitride ceramic composite material.
[0018] After testing, the TiN-Fe prepared above 3 The Al composite...
Embodiment 2
[0019] Example 2: The mass percent (wt%) of each component prepared is: TiN 10%, Fe 3 Fe3Al intermetallic compound-titanium nitride ceramic composite with 90% Al intermetallic compound
[0020] First, 74.6 kg of iron powder and 15.4 kg of aluminum powder were ball milled in a ball mill for 40 hours, then 10 kg of TiN powder was added, mixed for 4 hours, and then sieved with a 100-mesh sieve after vacuum drying. Put it into a graphite mold for compaction, and then move it together with the mold into a spark plasma sintering (SPS) equipment, raise the temperature to 870°C, apply a pressure of 35MPa, and keep it warm for 15min. The sintered blank is cooled to room temperature with the furnace and released from the furnace. The mass percentage (wt%) of the components obtained is: TiN 10%, Fe 3 Al intermetallic compound 90% iron three aluminum intermetallic compound - titanium nitride ceramic composite material.
[0021] After testing, the TiN-Fe prepared above 3 The Al composit...
Embodiment 3
[0022] Example 3: Preparation of iron-tri-aluminum intermetallic compound-titanium nitride ceramic composite material
[0023] 71.6 kg of iron powder, 13.4 kg of aluminum powder and 15 kg of TiN powder were added to the ball mill at the same time and ball milled for 70 hours. After vacuum drying, they were screened with a 100-mesh sieve. Put it into a graphite mold for compaction, and then move it together with the mold into a spark plasma sintering (SPS) device, raise the temperature to 900°C, and use a pressure of 40MPa to keep it warm for 10 minutes. The sintered blank is cooled with the furnace to room temperature and released from the furnace, and demolded to obtain the iron-tri-aluminum intermetallic compound-titanium nitride ceramic composite material.
[0024] After testing, the TiN-Fe prepared above 3 The hardness of the Al composite material is 91 (HRC), and the bending strength is 1000MPa.
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