Быстрое аддитивное производство
Услуги по 3D-печати на заказ
Turn CAD models into accurate prototypes and low-volume parts with process selection, material guidance, printing, post-processing and inspection coordinated in one workflow.
STEP preferred; STL and 3MF files are also accepted.
Выбор процесса
Choose the Right 3D Printing Process
The process is selected from geometry, material, accuracy, surface quality, quantity and budget.
FDM / FFF
Economical thermoplastic printing for concept models, fixtures and functional prototypes.
SLA
Photopolymer printing for fine details, smooth surfaces and presentation-quality models.
SLS
Support-free nylon printing for complex, durable parts and low-volume assemblies.
Сплавление на слое металлического порошка
Metal printing for complex structures, lightweight geometry and consolidated components after engineering review.
Printing Capability
Key 3D Printing Parameters
These values are practical quoting references rather than universal limits.
Final capability depends on process, material, orientation, geometry, support strategy and post-processing. Critical features are confirmed from the drawing before production.
Printing Materials
Select the Right 3D Printing Material
Compare printing process, material characteristics, typical parts and production controls before selecting a grade.
Thermoplastic Material
PLA
Rigid, economical and easy to print, with limited resistance to sustained heat.
Thermoplastic Material
ABS
A tough engineering thermoplastic with useful impact strength and better heat resistance than PLA.
Thermoplastic Material
PETG
Combines good toughness, water resistance and low warpage for general functional printing.
Thermoplastic Material
TPU / TPE
Flexible and elastic material with good abrasion resistance and repeated-bending performance.
Thermoplastic Material
Поликарбонат (PC)
High-impact, heat-resistant thermoplastic for stronger functional and structural prototypes.
Thermoplastic Material
PA / нейлон
Tough, fatigue-resistant and wear-resistant material for moving and mechanically loaded parts.
Thermoplastic Material
PEEK
Industrial high-performance polymer with excellent heat and chemical resistance.
Фотополимерная смола
Standard Resin
High-detail resin that produces smooth surfaces but has relatively limited impact resistance.
Фотополимерная смола
Tough Resin
Engineering resin formulated for improved toughness while retaining SLA detail.
Фотополимерная смола
Clear Resin
Transparent resin for parts that require visual access or controlled light transmission.
Фотополимерная смола
High-Temperature Resin
Specialty resin designed to retain shape during grade-specific thermal exposure.
Фотополимерная смола
Flexible Resin
Rubber-like photopolymer for compliant parts and soft functional prototypes.
Final performance depends on the exact grade, print orientation and post-processing. Food-contact, medical, flame-retardant and other regulated applications require certified materials and documented processing.
Проектирование для аддитивного производства
Design Parts for Reliable Printing
Good DfAM reduces support, distortion, finishing time and avoidable dimensional variation.
Толщина стенки
Use process-appropriate walls and avoid broad unsupported thin surfaces.
Build Orientation
Balance strength, accuracy, support marks, surface direction and build time.
Overhangs and Supports
Reduce severe overhangs or provide removable support where the process requires it.
Holes, Threads and Fits
Add machining allowance to critical bores, threads, datums and sealing faces.
Load Direction
Align major loads with the strongest print direction and account for anisotropy.
Material Conditioning
Control moisture and storage conditions for hygroscopic polymers such as nylon.
Завершение и проверка
Постобработка и контроль качества
Finishing is selected by material, function, appearance and dimensional requirements.
Удаление поддержки
Soluble, breakaway or machined support removal.
Surface Refinement
Sanding, polishing, blasting and suitable dyeing.
Дополнительная полимеризация смолы
Washing and UV curing matched to the selected resin.
Metal Treatment
Stress relief, heat treatment or HIP when specified.
Чистовая обработка с ЧПУ
Controlled bores, threads, datums and sealing faces.
Заключительная уборка
Process-appropriate cleaning before inspection and packing.
Where Additive Manufacturing Fits
3D Printing Applications
3D-печать наиболее ценен для быстрой итерации, изготовления деталей по индивидуальному заказу, сложной геометрии и мелкосерийного производства без использования специального инструментария.
Medical and Dental
Anatomical models, surgical guides, dental models and device prototypes.
Автомобили
Концептуальные детали, монтажные приспособления, модели воздушных потоков и индивидуальные прототипы интерьера.
Электроника
Housing concepts, internal brackets and ergonomic development models.
Архитектура
Scale models, façade studies and presentation components.
Промышленное оборудование
Jigs, fixtures, guards, ducts and low-volume functional parts.
Product Development
Fast form, fit and assembly evaluation before tooling investment.
Часто задаваемые вопросы о 3D-печати
Plan Your 3D Printing Project
Which file formats should I send for a 3D printing quote?
STEP is preferred for engineering review. STL and 3MF are accepted when units, scale and mesh quality are clearly controlled.
How can visible layer lines be reduced?
Use a suitable process, finer layer height and optimized orientation, followed by sanding, polishing, blasting, coating or resin post-curing where appropriate.
What causes warping, and how is it controlled?
Uneven cooling, moisture, poor bed adhesion and unbalanced geometry can cause warping. Material drying, chamber control, orientation and support strategy reduce the risk.
How strong are 3D-printed parts?
Strength depends on material, process, orientation, infill and layer bonding. Printed polymers are often anisotropic, so the load direction must be reviewed.
В каких случаях обработка на станках с ЧПУ должна заменить 3D-печать?
Choose CNC machining when production material properties, tighter tolerances, smooth surfaces or repeat-volume economics are more important than tool-free geometry.