What Are Advanced Materials?
how composition, microstructure and processing create demanding combinations of properties.
Browse the complete advanced materials and manufacturing guide library.
how composition, microstructure and processing create demanding combinations of properties.
strength, stiffness, toughness, hardness, fatigue, creep, thermal behavior and conductivity.
translating function, load, environment, geometry, lifetime and manufacturing constraints into a material choice.
how grains, phases, porosity, fibers, interfaces and crystallinity influence properties.
how fracture, fatigue, wear, corrosion, overload and process history are investigated.
how alloying and processing tailor metallic strength, toughness, corrosion and temperature capability.
high-strength, lightweight, corrosion-resistant and high-temperature metallic systems.
thermoplastics, thermosets and high-performance polymer behavior.
remeltable polymers and how flow, cooling and crystallinity influence molded parts.
cross-linking cure and why thermosets support structural bonding and composites.
specialty polymers for heat, wear, chemicals and demanding electrical environments.
engineered ceramic composition, porosity, grain structure and defect control.
powder preparation, shaping, binder removal, densification, finishing and inspection.
amorphous structure, optical behavior and controlled crystallization.
how reinforcement, matrix, interfaces and fiber orientation create tailored performance.
high specific stiffness and strength from carbon reinforcement in polymer matrices.
continuous or short-fiber reinforcement in remeltable polymer matrices.
reinforcing a metallic matrix with ceramic particles or fibers.
nanoscale structure, very high surface area and size-dependent behavior.
how atomically thin carbon can contribute conductivity, thermal behavior and reinforcement.
tubular carbon nanostructures used for conductivity and reinforcement.
materials that respond to temperature, stress, electric field, magnetic field, moisture or light.
conductive fibers, printed electronics, sensors and embedded modules in flexible fabrics.
the difference between renewable feedstock, biodegradability and compostability.
materials designed to interact with biological systems and the process controls around them.
electrochemical, thermal, magnetic and semiconductor materials used in energy technologies.
composites, coatings, semiconductors and structural materials in wind and solar systems.
coatings and treatments that change wear, friction, corrosion, heat flow or adhesion.
protective and functional films applied to engineered surfaces.
layered coating systems that reduce heat transfer to hot components.
coatings that sense, conduct, change optical behavior or respond to environment.
how adhesives transfer load across prepared interfaces.
welding, brazing, soldering, fastening and adhesive bonding as system choices.
the combination of people, machines, material flow, information, quality and maintenance.
matching material, geometry, volume, tolerance, finish, tooling and lead time.
mold filling, solidification, microstructure, shrinkage and post-processing.
plastic deformation of metals and how temperature and strain path affect final structure.
flow, heat, cooling and cure in molding, extrusion and related processes.
cyclic high-volume polymer production using dedicated tooling.
shaping heated thermoplastic sheet over or into tooling.
subtractive creation of precision features and surfaces.
multi-axis and nontraditional methods for difficult materials and complex geometry.
particle size, flow, compaction and consolidation.
controlled thermal history used to change phases, hardness, stress and dimensional stability.
layer-by-layer production from digital geometry.
selective consolidation of regions within repeated powder layers.
layered deposition of polymer feedstock.
selective binder deposition into powder followed by downstream consolidation.
adding material into a localized energy zone for build-up and repair.
combining additive, subtractive, inspection or forming steps in one route.
connected equipment, computing, communication and data-driven production.
linking product and process information from design through production and support.
digital representations connected to physical assets or processes.
thermal, structural, process and discrete-event models used to compare scenarios.
sensors, controllers, actuators and software coordinating repeatable tasks.
programmable motion systems, tooling, sensing and workcell integration.
robot applications designed for validated human-robot collaboration.
conveyors, robots, mobile vehicles, buffers and identification systems.
temperature, force, vibration, optical, acoustic and other process measurements.
connecting equipment and sensors to broader data services.
cameras, lighting and image processing for inspection and guidance.
data-driven classification, prediction and anomaly detection.
segmentation, identity, controlled remote access, backups and recovery.
requirements, process control, inspection, nonconformance and corrective action.
traceable measurement, calibration and uncertainty.
inspection methods that reveal surface or internal discontinuities without destroying the part.
time-ordered data and control charts used to detect process change.
Cp, Cpk and how stable process variation compares with tolerance.
linking materials, lots, serials, operations, equipment and test records.
throughput, queues, buffers, setups and system constraints.
separating customer-demand pace from station cycle time and actual output.
value, flow, pull, standard work and structured waste reduction.
using condition signals to support maintenance decisions.
preventive, predictive and corrective maintenance as one asset strategy.
energy, material yield, durability, emissions and resource efficiency across production.
raw material, production, transport, use, repair and end-of-life considered together.
repair, reuse, remanufacturing, recycling and design for disassembly.
mechanical, thermal and chemical recovery concepts for fiber composites.
restoring used products to a defined performance condition.
process heat, motor systems, compressed air, cooling, idle time and yield.
specifications, supplier capability, traceability and constrained processing capacity.
how concentrated supply and processing bottlenecks affect manufacturing resilience.
lightweight alloys, composites, hot-section materials and strict qualification.
high-strength steels, aluminum, polymers, composites and battery materials at production scale.
semiconductors, conductors, dielectrics, substrates and thermal interfaces.
biomaterials, precision surfaces, additive processes and traceable quality.
high-performance cementitious materials, composites, coatings and glass.
Calculate a simple strength/density index from values you enter..
Calculate good units and first-pass unit yield from total output and rejects..
Calculate Overall Equipment Effectiveness from availability, performance and quality..
Calculate customer-demand pace from available production time and required units..
Calculate basic Cp and Cpk from user-entered process statistics and specification limits..