Search Results for impact strength

Fig. 27 Effect of glass length on Gardner impact strength More

Fig. 11 Impact strength as a function of the radius of the tip of the notch for different polymers. PVC, polyvinyl chloride; ABS, acrylonitrile-butadiene-styrene More

Fig. 25 Notched impact strength versus flexural modulus of ABS More

Fig. 9 Relationship between impact strength and hardness of 0.74% C steel that has been conventionally quenched and tempered and one that has been austempered More

Fig. 16 Time-temperature exposures required for a 50% reduction in impact strength due to isothermal precipitation of undesirable secondary phases for various duplex stainless steels. Source: Ref 10 More

Fig. 7.25 Izod impact strength as a function of temperature for PS and HIPS thermoplastics. Source: Ref 7.33 More

Fig. 37 Izod impact strength as a function of temperature for polystyrene (PS) and high-impact polystyrene (HIPS) thermoplastics. Source: Ref 33 More

Fig. 7.11 Effect of glass addition on impact strength. PC, polycarbonate; PBT, polybutylene terephthalate. Source: Ref 7.2 More

Fig. 6 Variation of impact strength with temperature for (a) austenitic, (b) duplex, and (c) ferritic stainless steels More

Fig. 1 The effect of high aluminum content on the impact strength of Alloy 3 (see Table 1 ). Source: Ref 2 More

Fig. 10-8 Unnotched Izod impact strength as a function of tempered hardness level for O-type tool steels. Note that in the usual working hardness range (57 to 64 HRC), type O1 has the highest impact strength. Data from Allegheny Ludlum Industries Curve Type Composition, % Hardening More

Fig. 10-10 Effect of tempering temperature on torsion impact strength of O2 tool steel containing 1.60% Mn. AQ, as quenched. Source: Ref 4 More

Fig. 11-12 Unnotched Izod impact strength as a function of tempered hardness for A2 steel hardened from 955 °C (1750 °F) and A5 (A4 with 3% Mn) steel hardened from 815 °C (1500 °F). Specimens were tempered for 1 h to indicated hardness levels. Data from Allegheny Ludlum Industries More

Fig. 14-43 Hardness and unnotched Izod impact strength as a function of tempering temperature for (a) T1 high-speed steel austenitized at 1290 °C (2350 °F) and (b) M2 high-speed steel austenitized at 1220 °C (2225 °F). Source: Ref 41 More

Fig. 14-44 Impact strength as measured by unnotched Izod testing versus hardness for (a) T1 high-speed steel hardened from various temperatures and (b) M2 high-speed steel hardened from 1190 and 1220 °C (2175 and 2225 °F). Source: Ref 41 More

Fig. 14-45 Unnotched Izod impact strength versus hardness for several high-speed steels. The steels and their austenitizing temperatures are as follows: T1, 1315 °C (2400 °F); M2, 1220 °C (2225 °F); M10, 1220 °C (2225 °F); M1, 1220 °C (2225 °F); M4, 1220 °C (2225 °F); T15, 1250 °C (2285 °F More

Fig. 2.28 Effect of impurity elements on the impact strength of joints made in mild steel using an Ag-Cu-Zn-Cd filler alloy. Adapted from Boughton and Sloboda [1970] More

Fig. 20.5 Effect of manganese content (in wt%) on Charpy V-notch impact strength. Source: Ref 5 More

Fig. 12.5 Impact strength and percent reduction in area for austempered steels (open bars) compared to quenched and tempered steels (solid bars) with carbon levels of 0.74, 0.78, and 0.85%. Impact test on unnotched Charpy 7 mm (0.28 in.) rod. Source: Ref 12.10 More

Fig. 12.8 Hardness and impact strength of 52100 steel versus hold time at M s prior to quenching. The percent bainite goes from 0 to 100% as time goes from 1 to 60 min. Copyright: American Metal Market More