Διαδικασία παραγωγής σωλήνων με πτερύγια

Άλλα Βίντεο
November 03, 2025
Σύνδεση Κατηγορίας: σωλήνες ανταλλακτών θερμότητας
Σύντομο: Ανακαλύψτε τη διαδικασία παραγωγής των σωλήνων με πτερύγια τύπου G, σωλήνες με ενσωματωμένα πτερύγια σχεδιασμένους για εναλλάκτες θερμότητας υψηλής απόδοσης. Αυτοί οι σωλήνες από ανοξείδωτο χάλυβα διαθέτουν ασφαλές μηχανικό κλείδωμα, εξασφαλίζοντας ανθεκτικότητα και θερμική απόδοση σε απαιτητικές εφαρμογές.
Σχετικά Χαρακτηριστικά Προϊόντος:
  • High thermal efficiency is achieved through an embedded fin design that guarantees excellent thermal contact and low resistance.
  • Mechanical stability is ensured as the groove-locking process prevents fin loosening during thermal cycling.
  • Compact design provides a high surface area per unit length, significantly improving heat exchanger performance.
  • Durable and corrosion-resistant construction is available with fin materials like aluminum, copper, or stainless steel for harsh service conditions.
  • Straightness and tolerance control with deviation ≤ 1 mm/m ensures seamless bundle assembly and consistent performance.
  • Groove precision maintains tube wall strength without compromising pressure capacity, with grooves machined to 0.2-0.3 mm depth.
  • Multiple fin material options including carbon steel, aluminum, copper, and stainless steel tailored to specific thermal and corrosion needs.
  • Bond integrity is secured through mechanical locking and rolling, ensuring long-term durability under vibration and thermal cycling.
FAQS:
  • What are the available fin material options for the G-Type Embedded Fin Tube?
    Fins can be made from aluminum, copper, stainless steel, or carbon steel, selected based on service temperature, corrosion conditions, and thermal conductivity requirements for optimal performance.
  • What is the maximum operating temperature for this finned tube?
    The G-Type Embedded Fin Tube can operate at temperatures up to 400 °C, depending on the specific material combination used for the base tube and fins.
  • How does the embedded fin design contribute to the tube's performance?
    The embedded fin design ensures excellent thermal contact between the fin and base tube, minimizing thermal resistance and enhancing overall heat transfer efficiency in exchangers.
  • What quality assurance measures are taken during production?
    Each tube undergoes rigorous inspection including chemical analysis, tensile and elongation testing, dimensional checks, non-destructive testing (UT, RT, PT/MT), and hydrostatic testing to ensure reliability and performance.