Autonomous airport baggage
handling system with AGVs
Customer reference: Siemens Logistics GmbH
Customer
Siemens Logistics GmbH
Location
Constance, Germany
Timeframe
April 2020 to June 2020
Scope of delivery
Siemens provided an extended simulation
model for the autonomous airport baggage
handling system with regulation variables
for the AGVs:
• Digital twin of an autonomous airport
baggage handling system with AGVs
• Standardized simulation and optimization
in closed-loop with reduced effort
• The right answers for future planning and
actual decisions
siemens.com/dfo
Siemens Logistics GmbH is a leading supplier of innovative and high-performance products and solutions in fields such as mail and parcel automation,
airport logistics, including baggage and cargo handling, along with digitalization of logistics processes using high-quality software and cloud/IoT
applications. The company’s main customers include major airports and
airlines, global mail and parcel service providers, and international industrial and logistics companies. The optimization of the system performance is
extremely complex due to various parameters that must be considered (e.g.
number and type of AGVs, number of charging stations). The autonomous
airport baggage handling system with AGVs needs to be modeled and
simulated in order to predict the optimum for best possible production
based on artificial intelligence. By combining simulation and AI, Siemens
unleashes optimization potential.
The task
Siemens Logistics GmbH wanted to
identify the variables and potentials of
a simulated greenfield autonomous
airport baggage handling system with
AGVs.
Main objective was the optimization of
the system performance at the different
waypoints with selecting cost efficient
system variables and scenarios.
Highlights
• Number of required AGVs reduced by 13%
• Number of necessary charging stations
reduced by 17%
• Overall costs reduced by 14%
• Identification of dependencies of battery
management
• Efficient search for optimal system
configuration
Autonomous airport baggage handling system with AGVs
The solution
To accomplish the customer’s requirements, Siemens provided an extended
simulation model for the autonomous
airport baggage handling system with
regulation variables for the AGVs. The
flexible optimization solution stores
the definitions of customer projects in
HEEDS templates.
HEEDS templates describe the defined
target function, boundary and
auxiliary conditions, defined objectives
and defined control variables.
The control variables were described
by the number of AGVs per depot, AGV
parameter (speed, acceleration, etc.),
battery management (strategy, reserve
value, minimal charging value),
number of parking lots per depot,
number of charging station per depot.
In total 13 control variables were taken
in account.
Connecting different simulation
models with HEEDS gives the possibility to standardize simulation and
optimize in closed-loop with reduced
effort and reaching better results in
the same time than classical solutions.
The advantage of the solution is the
easy to use template to investigate
different scenarios. The HEEDS model
is independent from the Plant Simulation model which can be adjusted and
loaded in HEEDS without manual
effort.
The result
Complex simulation processes for
AGVs were optimized by closed loop
simulation based on artificial intelligence. With leading knowledge in
simulation and validation of modern
manufacturing technology, Siemens
built the digital twin of an autonomous airport baggage handling system
with AGVs to unleash optimization
potential and provide the right
answers for future planning and actual
decisions.
Facts that speak for themselves: Number
of required AGVs and necessary
charging stations were reduced. Overall
costs were even reduced by 14%.
Published by
Siemens AG
Digital Industries
Customer Services
P.O. Box 31 80
91050 Erlangen, Deutschland
For the U.S. published by
Siemens Industry Inc.
100 Technology Drive
Alpharetta, GA 30005
United States
Article No: DICS-B10067-00-7600
03 2021 PDF
© Siemens 2020
Subject to changes and errors.
System optimization: workflow