Andere Kunden interessierten sich auch für
![PRE-HYDROLYSIS OF THE PHENYL GLYCOSIDIC BOND IN A MODEL COMPOUND]( "PRE-HYDROLYSIS OF THE PHENYL GLYCOSIDIC BOND IN A MODEL COMPOUND")
PRE-HYDROLYSIS OF THE PHENYL GLYCOSIDIC BOND IN A MODEL COMPOUND32,99 €![Combined Use of Reinforcement Learning and Simulated Annealing]( "Combined Use of Reinforcement Learning and Simulated Annealing")
Combined Use of Reinforcement Learning and Simulated Annealing38,99 €![Plant extracts acting as corrosion inhibitor of steel reinforcement]( "Plant extracts acting as corrosion inhibitor of steel reinforcement")
Plant extracts acting as corrosion inhibitor of steel reinforcement26,99 €![Bond Behavior of Grouted Steel Bars Embedded in Concrete]( "Bond Behavior of Grouted Steel Bars Embedded in Concrete")
Bond Behavior of Grouted Steel Bars Embedded in Concrete46,99 €![Mechanical and Physical Testing of Biocomposites, Fibre-Reinforced Composites and Hybrid Composites]( "Mechanical and Physical Testing of Biocomposites, Fibre-Reinforced Composites and Hybrid Composites")
Mechanical and Physical Testing of Biocomposites, Fibre-Reinforced Composites and Hybrid Composites168,99 €![Biocomposite and Synthetic Composites for Automotive Applications]( "Biocomposite and Synthetic Composites for Automotive Applications")
Biocomposite and Synthetic Composites for Automotive Applications161,99 €![Composite Material Development for Steel Pipeline Reinforcement]( "Composite Material Development for Steel Pipeline Reinforcement")
Composite Material Development for Steel Pipeline Reinforcement22,99 €
Bond behavior between steel reinforcement and fibre
reinforced concrete under elevated temperature of up
to 700 ºC is evaluated using prismatic double pullout
(DP) specimens. Five different high strength concrete
(HSC) mixtures (with and without fibers) were
prepared using basalt aggregate at a w/c ratio of
0.35. All specimens were cured for 28 days in a
controlled temperature-water bath at a degree of 40
ºC. Then specimens were subjected to heating by an
electrical furnace. Pullout specimens were tested
under pullout to evaluate the bond behavior between
steel reinforcement bars and surrounding concrete
mixtures before and after heating. Cubes (100mm) cast
from same mixture, cured, and heat-treated under
similar conditions were also tested to evaluate
compressive and splitting strength. The results
showed marked reductions in residual compressive,
splitting and bond strengths of HSC under exposure
temperatures. DP concrete specimens with fibers
showed better bond behavior than that of HSC. This
was represented by higher residual bond strength, and
steel-bond ductility. Mixture incorporated H-steel
fibers imparted the highest concrete-steel bond
resistance against high temperatures
reinforced concrete under elevated temperature of up
to 700 ºC is evaluated using prismatic double pullout
(DP) specimens. Five different high strength concrete
(HSC) mixtures (with and without fibers) were
prepared using basalt aggregate at a w/c ratio of
0.35. All specimens were cured for 28 days in a
controlled temperature-water bath at a degree of 40
ºC. Then specimens were subjected to heating by an
electrical furnace. Pullout specimens were tested
under pullout to evaluate the bond behavior between
steel reinforcement bars and surrounding concrete
mixtures before and after heating. Cubes (100mm) cast
from same mixture, cured, and heat-treated under
similar conditions were also tested to evaluate
compressive and splitting strength. The results
showed marked reductions in residual compressive,
splitting and bond strengths of HSC under exposure
temperatures. DP concrete specimens with fibers
showed better bond behavior than that of HSC. This
was represented by higher residual bond strength, and
steel-bond ductility. Mixture incorporated H-steel
fibers imparted the highest concrete-steel bond
resistance against high temperatures