scispace - formally typeset
Search or ask a question

Can a pressure canner be used on a ceramic stove top? 

Answers from top 17 papers

More filters
Papers (17)Insight
The system is designed to support the user without limiting spontaneity or creativity and can - if necessary - be used just like any usual stove.
The modified ceramic can be used for heating elements working at operation temperatures of up to 1000 °C, high current resistance which can be loaded with current of up to 100 A.
This information may be useful for improving the design of existing stoves and for developing new stove designs.
The ceramic materials studied can be used as solid-electrolyte sensors.
Compatibility with Ag electrode indicates this material can be applied to low temperature cofired ceramic devices.
Field tests conducted on the stove show that it is safe to use and very suitable for a typical rural household.
This anelastic response is reproducible and can provide a quantitative description on the mechanical properties of the sprayed ceramic coating.
Ceramic cutting tools can be used in metal cutting, and can keep their hardness, strength, abrasion resistance and long performance life under high cutting speed.
Results show that the identified model can capture the dynamic properties of top pressure process accurately.
All the results indicate that the Ba2LaV3O11 ceramic might be a promising candidate for low temperature cofired ceramic technology.
These preliminary results indicate that TaZr2.75O8 can be used as an alternative material for the ceramic layer in TBCs system with respect to its superior thermal and mechanical properties.
The process is flexible and can be used for different monolithic ceramic materials such as silicon nitride, alumina, and zirconia.
In principle, this process can be applied to fabricate any other high-performance ceramic.
The proposed technique can be employed for grinding ceramic surface.
This model can be used in designing glass-ceramic SOFC seal materials for its specific operation conditions.
The study shows this ceramic can be used in multilayer technology.
The experimental results prove that the surface finishing of alumina ceramic can be achieved.

See what other people are reading

What is the effect of humidity on the structure and performance of PAN nanofibers?
5 answers
The humidity during electrospinning significantly impacts the structure and performance of PAN nanofibers. Higher relative humidity (RH) levels lead to the formation of rough surfaces and porous cores in the nanofibers. This is attributed to the water diffusion into the polymer-solution jet, causing phase separation and increased porosity. Additionally, at elevated RH, the nanofibers exhibit larger miscibility areas and porous structures, affecting their mechanical properties. The presence of water vapors enhances chemical interactions with analytes, suggesting potential applications in monitoring moist environments. Adjusting RH levels and spinning solvent quality can control nanofiber diameter, porous structure, oil sorption capability, and mechanical strength. Overall, humidity plays a crucial role in determining the morphology, porosity, and performance of PAN nanofibers.
What does the fiberglass consist of?
5 answers
The fiberglass composition varies slightly across different research papers. Overall, the fiberglass typically consists of SiO2, Al2O3, CaO, MgO, B2O3, F2, TiO2, K2O, Na2O, Fe2O3, SO3, and sometimes additional elements like La2O3 and ZnO. The weight percentages of these components can differ, with ranges such as 48-65% SiO2, 9-19% Al2O3, 10-26% CaO, 0.5-11% MgO, 0-5% B2O3, and trace amounts of other oxides. The compositions are carefully formulated to enhance specific properties of the fiberglass, such as inhibiting crystallization, reducing liquidus temperature, improving refractive index, enhancing modulus of elasticity, lowering dielectric constant, minimizing devitrification risks, and ensuring good mechanical strength, high temperature resistance, and chemical stability..
How reflectance affect the laser scanner range measurement?
5 answers
Reflectance significantly impacts laser scanner range measurements. High reflectivity surfaces, like mirrors, glass, or highly reflective materials, can cause errors in distance data due to specular reflections, leading to phantom-like objects and wrong distance measurements. Specular reflections from such surfaces can increase laser signal power, causing disorder in echo detection and recognition, resulting in significant errors in distance observations. Studies suggest that the reflectance of the calibrator used for calibration plays a crucial role in measurement accuracy, with optimal results obtained when using calibrators with specific reflectance levels around 18%. Reflectivity variations can lead to systematic deviations in reflectorless electronic distance measurements, with diffusely reflecting surfaces causing deviations of a few millimeters and directionally reflecting surfaces causing even more significant errors.
What is the difference between PEO and PEOP model?
5 answers
The Person-Environment-Occupation (PEO) model focuses on the interaction between the person, environment, and activity, emphasizing their fit and impact on occupational performance. On the other hand, the Person-Environment-Occupation-Performance (PEOP) model extends this by incorporating the concept of performance, highlighting how these factors influence participation, performance, and well-being. While the PEO model is dynamic and applicable across various fields and age groups, the PEOP model specifically aids occupational therapists in addressing clients' occupational concerns holistically. The PEOP model provides a structured approach for practitioners to understand and address barriers to functioning, as demonstrated in the context of individuals with postural orthostatic tachycardia syndrome (POTS).
HOW DOES CaO IN STEEL PRODUCTION CAN POLLUTE THE SOIL?
4 answers
CaO in steel production can lead to soil pollution through the disposal of steel slag, a byproduct rich in CaO, onto land. Steel slag, containing CaO along with other components, is often not efficiently utilized, resulting in large stockpiles that can occupy vast areas and cause environmental issues like groundwater and soil pollution. Additionally, the steel industry's operations generate solid wastes that can impact soil quality. The presence of CaO in steel slag, when not properly managed, can contribute to heavy metal contamination in soil. Improper disposal of steel industry waste, including CaO-rich slag, can result in the release of heavy metals like Cd, Cr, Cu, and Pb into the soil, leading to contamination and necessitating soil treatment measures.
How does the use of transparent ceramics impact the efficiency of energy conversion in various technological applications?
5 answers
The utilization of transparent ceramics significantly enhances the efficiency of energy conversion in various technological applications. Transparent dielectric ceramics, such as KNN-based ceramics, offer outstanding energy storage properties and optical transparency, enabling the development of advanced transparent pulse capacitors and electro-optical multifunctional devices. Similarly, transparent silica aerogels exhibit low thermal conductivity and high transparency, making them ideal for solar thermal energy conversion systems and transparent windows, achieving high temperatures rapidly under solar irradiance. Furthermore, the modification of KNN-based ceramics with Bi(Li0.5Nb0.5)O3 enhances energy storage efficiency and optical transmittance, paving the way for transparent pulse capacitors. Additionally, Cr,Nd: YAG transparent ceramics demonstrate high solar light conversion magnitude, making them promising gain media for solar pumped solid state lasers. Overall, transparent ceramics play a crucial role in improving energy conversion efficiency across various technological applications.
What is the effect of hBN fillers on the tribological properties of PTFE?
5 answers
The incorporation of hexagonal boron nitride (hBN) fillers into polytetrafluoroethylene (PTFE) composites significantly enhances their tribological properties, as evidenced by various research findings. Yuan-Long He et al. demonstrated that adding hBN alongside short carbon fibers and a specific micropowder to PTFE composites improved their mechanical properties, friction coefficient, and wear resistance, with a notable decrease in wear rate observed at certain filler concentrations. Similarly, Yanhong Feng et al. found that hBN, when used with silicon carbide (SiC) fillers in PTFE, not only improved thermal conductivity but also maintained low dielectric constants, suggesting an indirect benefit to tribological performance by enhancing material stability under operational conditions. Chaojie Xie and Kejian Wang's study further supports these findings, showing that hBN fillers, especially when combined with polyimide (PI), significantly reduce the coefficient of friction and wear rate of PTFE composites under dry sliding conditions. This reduction in wear and friction is attributed to the synergistic effect of hBN and PI, improving the dispersion and bonding within the PTFE matrix. Chen Pan et al. explored the thermal aspect, using hBN and aluminum nitride (AlN) as hybrid fillers in PTFE to disrupt hBN platelets' alignment, which indirectly suggests an improvement in tribological performance by enhancing thermal conductivity and reducing material degradation under thermal stress. Moreover, Anand Singh Rathaur et al. demonstrated that hBN fillers, when used in SU-8 composites, significantly improved wear resistance, thermal stability, and mechanical properties, indicating that hBN's benefits extend beyond PTFE composites to other polymer matrices as well. This broad applicability underscores hBN's role in enhancing the tribological performance of polymer composites. In summary, hBN fillers in PTFE composites lead to improved wear resistance, reduced friction coefficients, and enhanced mechanical and thermal properties, contributing to their overall superior tribological performance.
What are the negative impact of 3D Printing in terms of Material Limitations for Researchers?
5 answers
3D printing poses material limitations for researchers due to factors such as low density and poor mechanical properties of nanoceramic parts fabricated using this technique. The microstructural inhomogeneity resulting from the deposition methodology in 3D printing leads to defects in the microstructure, affecting the quality of the printed parts. Additionally, the high manufacturing costs associated with producing nanoceramic parts using 3D printing techniques limit their industrial application. These challenges hinder the widespread adoption of 3D printing in materials research, emphasizing the need for further development to enhance the properties and cost-effectiveness of printed materials.
What is a different simplex lattice design?
4 answers
A variety of simplex lattice designs have been utilized in different fields for optimization purposes. For instance, a modified Scheffe’s simplex lattice design method was employed to determine optimal compositions of ceramic materials for gas purification equipment. In another study, simplex lattice design was applied to predict drug release patterns from extended release diclofenac sodium tablets. Furthermore, the Simplex Lattice Design method was used to optimize the formulation of aloe vera extract liquid soap, considering parameters like viscosity, specific gravity, foam resistance, and pH. Additionally, Simplex Lattice Design models were developed to assess the suitability of run-off sand for concrete production and predict the Modulus of Rupture of Concrete beams. Lastly, simplex lattice design was employed to optimize the formulation of andrographolide self-nanoemulsifying drug delivery systems, focusing on characteristics like emulsification time, droplet size, and drug content.
What kinds of porous material are used in Civil Engineerng?
5 answers
Porous materials used in Civil Engineering include porous concrete, which is a special type of concrete with an interconnected pore structure allowing water to flow through. This material is beneficial for managing rainwater runoff, groundwater recharge, and reducing the need for extensive stormwater management systems. Additionally, porous concrete is durable and can last for 20-40 years with minimal maintenance. Another type of porous material is porous asphalt, which is used in road construction to enhance drainage and reduce surface water runoff. These materials are environmentally friendly, sustainable, and contribute to the eco-friendliness of infrastructure projects. Furthermore, the composition of these porous materials can be adjusted to optimize properties like porosity, strength, and durability.
What are the potential applications of using piezoelectric ceramic in water treatment and purification processes?
5 answers
Piezoelectric ceramics offer promising applications in water treatment. They can drive advanced oxidation technologies (AOTs) for efficient water decontamination by generating reactive oxygen species. Additionally, piezoelectric materials can enhance catalytic redox reactions, enabling the degradation of organic dyes in wastewater. Furthermore, the integration of piezoelectric ceramic in filters can enhance filtration efficiency and degrade organic pollutants through in-situ piezoelectric chemical reactions, making them suitable for sewage treatment. By coupling piezoelectric nanomaterials with ultrasound platforms, such as BaTiO3 nanorods chemically conjugated with silica gel, toxic chemicals and cells can be efficiently degraded, offering a green approach for water purification. These diverse applications highlight the versatility and effectiveness of piezoelectric ceramics in various water treatment and purification processes.