scispace - formally typeset
Search or ask a question

What is the tensile strength and yield strength of A390 aluminum alloy? 


Best insight from top research papers

The tensile strength and yield strength of A390 aluminum alloy can vary based on different factors such as alloy composition and processing methods. Research has shown that the addition of tin in A390 alloy can enhance its tensile properties, with an increase in ultimate tensile strength (UTS) and elongation. Furthermore, the mechanical properties of A390 alloy can be improved by reinforcing it with boron carbide in different weight fractions, leading to enhanced tensile properties. Additionally, a high-strength and high-ductility aluminum alloy containing specific elements like Si, Mg, Fe, Bi, W, and Ti has been developed, exhibiting tensile strengths ranging from 450 MPa to 520 MPa and yield strengths ranging from 285 MPa to 375 MPa. These studies collectively demonstrate the potential for enhancing the tensile and yield strengths of A390 aluminum alloy through alloy composition modifications and reinforcement techniques.

Answers from top 5 papers

More filters
Papers (5)Insight
The A390.0 aluminum alloy produced by layer deposition process exhibits better mechanical properties with excess dispersion strength of about 40 MPa, showcasing improved tensile and yield strength.
The tensile strength of the A390 aluminum alloy ranges from 450 MPa to 520 MPa, and the yield strength ranges from 285 MPa to 375 MPa, as per the research paper.
The tensile strength of A390 alloy increases with tin addition, reaching 241 MPa for the foundry alloy. Yield strength information is not provided in the abstract.
Open accessJournal ArticleDOI
06 Aug 2020
3 Citations
Not addressed in the paper.
The tensile strength and yield strength of A390 aluminum alloy were enhanced by adding boron carbide, with improvements observed as the weight fraction of boron carbide increased.

Related Questions

How to analyze tensile test?5 answersTo analyze a tensile test, various mechanical properties of materials are evaluated. The test involves subjecting a material to increasing tensile forces to observe its behavior under stress. The analysis includes determining parameters like modulus of elasticity, ultimate strength, yield strength, plastic deformation, and strength coefficient. Additionally, the test results provide insights into the material's behavior under load, such as neck formation and fractures due to plastic deformation. The obtained data can be used for analytical and numerical modeling of manufacturing-related issues. Furthermore, stress versus electrical potential behavior during testing can also be analyzed to understand shape changes, internal damage, and changes in electrical resistivity with strain. Overall, analyzing tensile tests involves assessing various mechanical properties and behaviors of materials under different loading conditions.
What factors influence the tensile strength of materials?5 answersThe tensile strength of materials is influenced by various factors such as impregnation materials, temperature, printing parameters, fiber volume fraction, and dimensional characteristics. Impregnation materials like epoxy-resin or silicic acid ester can impact the elevated temperature behavior of materials like carbon textile reinforced concrete. Temperature plays a crucial role in steel mechanical properties, affecting its tensile strength and structural preservation. Printing parameters in 3D printing can affect the tensile behavior of materials like ABS filament. Additionally, the dimensional characteristics of threaded surfaces in 3D printing processes can influence the tensile strength of polymeric materials. Moreover, the volume fraction of natural fibers like citronella in composite materials can affect their tensile strength.
What is the typical tensile strength and hardness of the A390 alloy?5 answersThe tensile strength and hardness of the A390 alloy can vary based on different factors such as the addition of specific elements and fabrication techniques. Research has shown that the tensile strength of A390 alloy can be significantly improved by incorporating elements like tin, boron carbide, and vanadium. For instance, the addition of 1% tin increased the ultimate tensile strength (UTS) of the alloy. Similarly, the reinforcement of A390 with boron carbide led to enhanced mechanical properties, with the tensile strength improving with increasing weight fraction of boron carbide. Additionally, the fabrication of A390 composite alloys with VB2 resulted in a notable increase in ultimate tensile strength, with a 36.5% improvement observed with 1% VB2 addition. The hardness of the A390 alloy is also influenced by these factors, with tin addition leading to higher hardness compared to heat-treated alloy.
What is the tensile strength of ABS material in 3D printing?5 answersThe tensile strength of ABS material in 3D printing varies depending on the specific conditions and additives used. In one study, the addition of 3.0 wt.% of PANI nanofibers and 1.5 wt.% of graphene flakes to ABS-like resin composites resulted in a tensile strength of 22.23 MPa, which is 2.63 times higher than the pristine ABS-like resin. Another study found that ABS components produced using FDM with 60% infill density, 0.05mm layer thickness, and a GYROID infill pattern had an ultimate tensile stress of 23.1 MPa. Additionally, the incorporation of 3 wt% grafted phosphor in ABS composites led to enhanced tensile strength, with the maximum strength achieved at this phosphor content. The optimal settings for a 3D printer made of ABS, determined through numerical optimization, resulted in a tensile strength of 35.8 MPa. Overall, the tensile strength of ABS material in 3D printing can be improved through the addition of certain additives and optimization of printing parameters.
What Is the tensile strength of a 3D printed PLA?3 answersThe tensile strength of 3D printed PLA parts is influenced by various parameters such as nozzle size, infill density, infill geometry, layer height, and printing parameters. Smaller nozzle sizes have been found to produce parts with higher tensile strength due to finer layers and improved interlayer adhesion. Varying the infill density and infill geometry of PLA parts also affects their tensile strength, with optimal conditions identified for different combinations. Layer height has been observed to have an impact on tensile strength, with higher layer heights resulting in increased tensile strength. Additionally, the infill density, infill pattern, nozzle temperature, and layer height have been found to influence the tensile strength of carbon fiber-reinforced PLA samples. The effects of parameters such as nozzle temperature, bed temperature, printing speed, layer thickness, and printing direction on PLA tensile strength have also been studied.
What is the tensile strength of cotton?5 answersThe tensile strength of cotton varies depending on various factors such as the type of cotton, processing methods, and testing conditions. Studies have shown that the tensile strength of cotton yarn can be increased through various techniques. Coating cotton yarn with poly(vinyl alcohol) and crosslinking it via UV-C radiation has been found to increase the tensile strength by up to 56% compared to raw yarn. In another study, the tensile strength of weaved cotton samples ranged between 210 and 342 Newtons. Hybrid ramie-cotton fabrics used as reinforcement in composites showed tensile strength values up to 338% greater than the matrix. The tensile strength of blended cotton/flax fiber streams was estimated using static and dynamic testing methods. The tensile behavior of cotton fibers has been extensively studied, including their structural features, stress-strain curves, and dynamic behavior. Overall, the tensile strength of cotton can vary significantly depending on the specific context and testing conditions.

See what other people are reading

Why fibrous content more than 1.5% may not increase tensile strength of UHPC??
5 answers
Fibrous content exceeding 1.5% may not significantly enhance the tensile strength of Ultra-High Performance Concrete (UHPC) due to various factors. Research suggests that while higher fiber content can increase joint tensile strength, fiber discontinuity at interfaces can still pose challenges. Additionally, studies on UHPC with different fiber volume fractions and aspect ratios show that adding steel fibers can notably improve tensile strength and peak strain, but there is a limit to the enhancement, especially beyond certain fiber volumes. Furthermore, the tensile constitutive model of UHPC with coarse aggregate indicates that the material exhibits linear stress-strain behavior up to the tensile strength, suggesting a plateau effect on tensile strength with increasing fiber content. Therefore, surpassing 1.5% fiber content may not significantly boost UHPC's tensile strength due to factors like fiber discontinuity and potential limitations in enhancing mechanical properties beyond a certain threshold.
What is the minimum standard for tensile strength of bioplastic?
5 answers
The minimum standard for tensile strength of bioplastic can vary based on the materials used and the specific application. Research has shown that the tensile strength of bioplastics can range from 1.58 MPa to 17.18 MPa. For instance, bioplastic samples made from corn starch and glycerin were found to have a tensile strength of 17.18 MPa under optimal conditions. Additionally, bioplastic films based on starch with a particle size of 63 microns and a Reynolds Number of 959 exhibited a tensile strength of 142.875 MPa under optimal conditions. These findings highlight the importance of optimizing material composition and processing parameters to achieve the desired tensile strength in bioplastic products.
ECAP: punch force vs displacement?
5 answers
The Equal Channel Angular Pressing (ECAP) process involves the application of force by a punch to deform a material. Research has shown that the punch force vs displacement relationship in ECAP can be influenced by various factors. Studies have highlighted the importance of precise control of local displacement through punch loading for applications like robot grippers. Additionally, improvements in ECAP have been achieved by introducing ultrasonic vibrations during the process, leading to enhanced grain refinement and mechanical properties of the material. Furthermore, the small punch test has been utilized to evaluate the mechanical behavior of ECAPed aluminum, showing increased strength with a specific number of passes and temperature variations. These findings collectively contribute to a better understanding of the punch force vs displacement behavior in ECAP processes.
What is the strain in xrd?
5 answers
X-ray Diffraction (XRD) is a powerful technique for studying strain in materials. XRD experiments can determine depth strain profiles, model strain/stress states, and calculate different strain contributions and stresses experienced by irradiated layers. In the case of InSb-based infrared photo-detectors, XRD measurements showed that thermal stresses were well below the yield stress of InSb. XRD is also used for stress analysis in complex 3D flip chip assemblies, providing mappings at different scales and enabling local stress analysis with high spatial resolution. Additionally, XRD techniques have been developed to measure Poisson's ratio of thin films accurately, aiding in evaluating mechanical properties like Young's modulus and fracture strength. Overall, XRD is crucial for understanding and characterizing strain in various materials and structures.
Why does a film show a transition to a lower non-zero resistance at low temperature?
5 answers
The transition to a lower non-zero resistance at low temperature in films can be attributed to various factors observed in different types of films. In low-temperature superconducting thin films, the adjustment of superconducting transition temperature by changing layer thickness and the alternating stacking of superconducting and electrical isolation layers play a crucial role in achieving this transition. Additionally, in NbN epitaxial films, a superconductor-insulator transition (SIT) occurs with decreasing film thickness, leading to a critical sheet resistance close to the quantum resistance of Cooper pairs. Furthermore, in TiN thin films, a low resistivity is achieved through minimizing oxygen concentration and surface impurities using an ultra-clean ALD process with high purity precursors. These factors collectively contribute to the transition to a lower non-zero resistance at low temperatures in various types of films.
What are the effects of additional subjects in students’ academic pressure?
5 answers
Increasing subject-specific instructional time per week has shown positive effects on math, science, and English test scores without any cross effects across subjects. However, excessive academic burden, including additional subjects, has been linked to psychological problems in students, leading to the implementation of policies like the "Double Reduction" policy to reduce homework workload and off-campus training burden. Academic stressors, such as the perception of extensive knowledge required and inadequate time to develop it, contribute to students' academic stress, especially during exam periods and when competing for grades. This academic pressure can lead to physical and psychological impairment if not managed effectively. Therefore, while additional subjects can enhance academic performance in specific areas, they can also contribute to increased academic stress and pressure on students.
Why brazilain tensile strength is important'?
5 answers
The Brazilian tensile strength (BTS) test is crucial in rock engineering and material studies. It is widely used to assess the tensile strength of various materials, including rocks, concrete, and sea ice. Understanding the BTS is essential for designing structures, predicting material behavior, and ensuring safety in engineering applications. The BTS test provides valuable data on material failure patterns, failure envelopes, and the true tensile strength of the tested specimens. By employing advanced techniques like regularization methods and neural networks, the BTS test can enhance predictive models and improve accuracy in estimating tensile strength. Overall, the Brazilian tensile strength test plays a vital role in material characterization, design optimization, and risk mitigation in various engineering fields.
Is a tendon viscoelastic?
5 answers
Yes, tendons exhibit viscoelastic behavior due to their complex composition and structure. The viscoelastic properties of tendons are attributed to factors such as collagen recruitment, fibril creep, matrix contribution, and the hierarchical organization of collagen fibers within the tissue. Studies have shown that tendons possess both elastic and viscous characteristics, allowing them to bear substantial loads while also exhibiting stress relaxation over time. The viscoelastic response of tendons under various loading conditions, including compression and tensile loading, has been extensively investigated to understand their mechanical behavior at different scales. Overall, the viscoelastic nature of tendons plays a crucial role in their ability to transmit forces efficiently from muscles to bones and adapt to dynamic mechanical demands.
How to estimate load in a bearing using strain gauges?
5 answers
To estimate load in a bearing using strain gauges, a methodological approach involving the installation of strain gauges on the bearing assembly is crucial. The strain gauges measure the strain generated by the load on the bearing, allowing for load estimation. Algorithms based on signal analysis and filtering are utilized to estimate the load from the measured strain, with the position of the strain gauges impacting the accuracy of the estimation. Additionally, incorporating a model of the internal load distribution of the bearing into the estimation process enhances the accuracy of load estimation. By utilizing strain gauges and considering load distribution, uncertainties in parameters, and employing methods like Weighted Least Square, accurate load estimation up to 2.5% with 95% confidence bounds can be achieved. This approach is vital for improving load estimation accuracy and optimizing strain gauge placement on bearings.
How does oxygen contribute to the formation of metal oxides?
5 answers
Oxygen plays a crucial role in the formation of metal oxides by undergoing various processes on metal surfaces. When metal surfaces are exposed to oxygen-rich environments, oxides start to form through steps like dissociative adsorption of oxygen, incorporation of oxygen atoms into the surface, and the growth of an oxidic overlayer. The incorporation of oxygen into late transition metals initiates the formation of surface oxides, with the critical coverage for oxygen penetration being lower for softer metals in the transition metal series. Additionally, oxygen adsorption on lanthanide metals' surfaces leads to the creation of well-ordered surface-oxide systems with temperature-dependent magnetic splittings, reflecting the metals' magnetic properties. Furthermore, the initial oxidation of metal surfaces occurs through a 'hot-atom' dissociative mechanism, triggering oxide formation at very low temperatures within nanoseconds.
Does microcracks causes nonlinear behavior of stress-strain curve of ceramic material?
5 answers
Microcracks play a significant role in causing the nonlinear behavior of the stress-strain curve in ceramic materials. The presence of microcracks leads to various damage mechanisms such as matrix cracking, interface debonding, and fiber fracture, resulting in the observed nonlinearity in the stress-strain curves of ceramic-matrix composites. Additionally, micromechanisms involving frictional sliding on microcracks, especially those with complex geometries like zigzag shapes, contribute to the non-linear behavior seen during tensile cyclic loading of porous ceramics. The degree of nonlinearity in the stress-strain response of porous ceramic materials is directly related to the initial microcrack density and the evolution of damage within the material. Furthermore, micromechanical models have been developed to quantitatively link features like hysteresis and stiffness changes during loading and unloading to microcrack characteristics in porous microcracked ceramics.