A bimodal sintering metal powder with optimized particle size distribution and circularity enhances filling property and fluidity.
Directed energy deposition controls alloy composition via empirical feedstock rates, reducing production costs by up to 97%.
Radiation-curable foams enable on-demand deposition in stereolithography printers, reducing material costs and minimizing shrinkage during curing.
A method splits virtual printing models using vulnerability metrics to prioritize high-risk layers for early processing.
A barrier layer separates the carbide cutting edge from the steel body, preventing elemental diffusion that causes brittle phase formation.
A prosthetic liner sealing lip follows the proximal edge height contour to maximize sealed surface area and uniformly distribute force.
Segmenting manufacturing reduces repair costs while maintaining precision for intricate features unattainable by conventional methods.
A stereolithography apparatus uses a photo-detector and control unit to generate an amount-of-light profile for precise light emission adjustment.
Redefines layer boundary edges in overhang regions to maintain local angles below thresholds, eliminating external support elements and reducing material waste.
Ferrovanadium nitride powder introduces nitrogen into non-magnetic steel during laser melting, preventing gasification defects and improving filling rates.
Laser sintered directional porous coatings provide mechanical interlocking for long-term fixation, resisting pull-out forces during joint replacement surgeries.
Segmenting functionality into monofunctional compounds reduces shrinkage stress during curing while maintaining adequate cure rates.
Additively manufactured ferrite-polymer composite articles tune wave impedance and refractive index for electromagnetic applications.
Direct-write inkjet printing evaporates microdroplets through resistive heating to fabricate nanoscale features without substrate contamination.
Dynamic offsetting corrects dimensional errors caused by rotational speed variations in linear solidification devices.
Difunctional photoinitiators absorb UV light to initiate polymerization reactions in clear coatings.
Heating the powder bed above the brittle-to-ductile transition temperature prevents crack formation during laser melting of molybdenum silicon boron alloys.
Segmented supports with torque application portions simplify post-processing by reducing removal complexity and time.
Rotating exposure vectors between layers homogenizes internal stress and improves tensile strength.
A washing apparatus uses sequential solvent cycles to remove uncured resin from additively fabricated parts.
An internally supported shaft reduces weight by 52% and improves ballistic survivability through nested spiral lobes.
A revolved blast nozzle synchronizes with a build elevator to remove excess powder, reducing manual labor and increasing throughput.
Integrated molded sock liner eliminates separate assembly steps while maintaining durability and foot shape customization.
A custom artificial nipple printed from elastomeric polymer captures precise breast geometry during active lactation.
Multi-component high entropy alloy features nanoscale atomic self-ordering structure produced via selective laser melting.
Granules with latent binders activated by solvent eliminate rough surfaces from loose powder while enabling precise inkjet deposition of active ingredients.
An interface generation system bridges statically and dynamically typed languages by automating data conversion, reducing manual integration complexity.
High-purity argon or helium purges the chamber to remove oxygen and contaminants, reducing oxide inclusions and porosity in printed parts.
Layered powder deposition with selective heating creates complex abrasive articles without high-powered lasers or inert atmospheres.
Rotating dielectric prisms with periodic openings steer RF beams, replacing heavy mechanical gimbals to reduce power consumption.
Multi-component micro-pellets resolve high costs and limited material variety in additive manufacturing by enabling diverse polymer usage.
Additive manufacturing arranges polymer layers around precisely sized voids to achieve maximum 74% void density and optimized composite strength.
A composite material uses a water-soluble resin to enable neutral water removal of the binder phase.
A method for additive manufacturing porous inorganic structures using a reactive organic material and inorganic particulates.
Computer-controlled deposition of matrix and continuous fiber layers with energy sources embeds fibers into the matrix, resolving manual layering complexity.
An optical sensor detects the shadow cast by a powder pile during spreading to quantify distribution behavior in additive manufacturing.
Aluminum alloy powder with Sc and Zr nanoparticles strengthens 3D printed components, eliminating stress corrosion at grain boundaries.
Hydroxyethyl methylcellulose support material dissolves in water at neutral pH, eliminating toxic residues and preserving mechanical integrity during removal.
A laser beam melting method produces a defective test component by targeting identified defect-prone areas on the build platform.
Nested longitudinal edges form joggles between standardized side panels to resolve manufacturing time and cost trade-offs in modular satellite bus production.
A closed conveying circuit circulates particulate material through a spreader unit, eliminating uneven distribution and fill level control requirements.
Freeze-dried extracellular matrix particles preserve native composition while enabling 3D printing of tissue constructs.
Automated procurement platform queries multiple suppliers for hard-to-find items, eliminating manual search delays.
Segmented support structures prevent warpage while enabling clean separation from the build stage.
Protein support filaments dissolve rapidly in domestic water, eliminating fossil polymer waste and enabling biodegradable 3D printing.
Directed energy deposition repairs corroded air data probe sensor ports, restoring measurement accuracy without full component replacement.
Calibrate non-contact thermal cameras using a heated reference element to resolve measurement drift that causes poor layer cohesion in additive manufacturing.