Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Capacity Evaluation Method of Ship Terminal Area Based on Network Maximum Flow

View through CrossRef
With the development of modern military ship equipment, the airspace operation environment of shipboard aircraft is becoming increasingly complex. The objective and accurate evaluation of ship-terminal capacity is the basis of air traffic flow management for shipboard aircraft, and it is also the premise of improving the efficiency of airspace resources. First of all, this paper divides the airspace and ship terminal areas and realizes the route network planning for the arrival and departure of shipboard aircraft. Following this, according to the airspace characteristics of the ship terminal area and the operation process of the shipboard aircraft, an arrival-and-departure network flow model for shipboard aircraft is established by using capacity-limitation and flow-conservation conditions. Finally, simulated annealing (SA) is used to solve the maximum flow in the arrival-and-departure network flow model, and the capacity evaluation results of the ship terminal area are obtained. The results show that when the number of gates is ng ≥ 7, the bottleneck in the ship terminal area’s operation capacity is the deck runway. When 3 ≤ ng < 7, imbalanced take-off and landing tasks lead to a waste of runway resources, and when ng < 3, the number of gates becomes the bottleneck which limits the capacity. With the number of gates being reduced from seven to three, the capacity is reduced from twenty sorties per hour to six sorties per hour. The model and core idea proposed in this paper can not only quickly evaluate the capacity of the terminal area of ships but also provide a solid foundation for the development of future fleet groups and the full use of maritime airspace.
Title: Capacity Evaluation Method of Ship Terminal Area Based on Network Maximum Flow
Description:
With the development of modern military ship equipment, the airspace operation environment of shipboard aircraft is becoming increasingly complex.
The objective and accurate evaluation of ship-terminal capacity is the basis of air traffic flow management for shipboard aircraft, and it is also the premise of improving the efficiency of airspace resources.
First of all, this paper divides the airspace and ship terminal areas and realizes the route network planning for the arrival and departure of shipboard aircraft.
Following this, according to the airspace characteristics of the ship terminal area and the operation process of the shipboard aircraft, an arrival-and-departure network flow model for shipboard aircraft is established by using capacity-limitation and flow-conservation conditions.
Finally, simulated annealing (SA) is used to solve the maximum flow in the arrival-and-departure network flow model, and the capacity evaluation results of the ship terminal area are obtained.
The results show that when the number of gates is ng ≥ 7, the bottleneck in the ship terminal area’s operation capacity is the deck runway.
When 3 ≤ ng < 7, imbalanced take-off and landing tasks lead to a waste of runway resources, and when ng < 3, the number of gates becomes the bottleneck which limits the capacity.
With the number of gates being reduced from seven to three, the capacity is reduced from twenty sorties per hour to six sorties per hour.
The model and core idea proposed in this paper can not only quickly evaluate the capacity of the terminal area of ships but also provide a solid foundation for the development of future fleet groups and the full use of maritime airspace.

Related Results

Connecting Ship Operation and Architecture in Ship Design Processes
Connecting Ship Operation and Architecture in Ship Design Processes
It is challenging to deal with the operation of ships by crew members in ship design processes. This is important because the efficiency and safety of ship operations ultimately de...
The Need to Factor Asset Risk Into LNG Terminal Agreement Negotiations
The Need to Factor Asset Risk Into LNG Terminal Agreement Negotiations
Abstract As developers race around the globe building liquefied natural gas ("LNG") terminals, companies acquiring capacity at those terminals are analyzing their...
FGSR: A Fine‐Grained Ship Retrieval Dataset and Method in Smart Cities
FGSR: A Fine‐Grained Ship Retrieval Dataset and Method in Smart Cities
Ship reidentification is an important part of water transportation systems in smart cities. Existing ship reidentification methods lack a large‐scale fine‐grained ship retrieval da...
Soviet Shipbuilding: Productivity improvement Efforts
Soviet Shipbuilding: Productivity improvement Efforts
Constant demand for new naval and commercial vessels has created special conditions for the Government-owned Soviet shipbuilding industry, which practically has not been affected b...
Vibration analysis of ship propulsion shafting bearings
Vibration analysis of ship propulsion shafting bearings
The ship power propulsion system is the "heart" of the ship, and the ship propulsion shafting is the core unit of the ship power propulsion system, and it is an indispensable part ...
Influence of Ship Design Complexity on Ship Design Competitiveness
Influence of Ship Design Complexity on Ship Design Competitiveness
Complexity is discussed in design literature mainly through its negative and in some cases positive consequences. This article critically reviews and elaborates the effects of comp...
Pressure Analysis of DST Flow Period Or Slug Flow For Horizontal Wells In Homogeneous Reservoir
Pressure Analysis of DST Flow Period Or Slug Flow For Horizontal Wells In Homogeneous Reservoir
Abstract By the transient pressure for horizontal well with constant flow rate and Duhamel's principle, this paper presents the method to calculate the transient ...
Multiphase Flow Metering:An Evaluation of Discharge Coefficients
Multiphase Flow Metering:An Evaluation of Discharge Coefficients
Abstract The orifice discharge coefficient (CD) is the constant required to correct theoretical flow rate to actual flow rate. It is known that single phase orifi...

Back to Top