Time computer - Import export

Measuring the moisture of the flowing raw material with high precision. Calculation of the amount of water to be given according to the desired humidity amount in lt/hour Control of the calculated amount with the electronic water flow meter placed in the system Calculation of faults from the operator panel Instant monitoring of raw material moisture in % Ability to instantly monitor the amount of water given in lt/hour Ability to monitor the amount of water that needs to be given in lt/hour Ability to monitor the total amount of water given in liters. Ability to connect the system to the computer at any time and perform all controls from the computer without having to go near the device.

The core of the Rotoweld technology is its unique vision-based penetration control system. It enables any operator to perform high-quality girth welds after just a few hours of training. Like the welder’s eyes and hands, the system continuously analyzes the image of the root weld pool picked up by a video camera integrated into the welding arm. Unique algorithms use this information to adjust welding parameters, such as travel speed, wire feed rate, arc voltage, or weaving width. This constantly adapts the process to varying conditions, such as changes in the gap, alignment, root face, or temperature. The computer’s fast reaction time means the machine can work at high deposition rates and travel speeds at which weld pool conditions are too critical to be sustained by hand.

The core of the Rotoweld technology is its unique vision-based penetration control system. It enables any operator to perform high-quality girth welds after just a few hours of training. Like the welder’s eyes and hands, the system continuously analyzes the image of the root weld pool picked up by a video camera integrated into the welding arm. Unique algorithms use this information to adjust welding parameters, such as travel speed, wire feed rate, arc voltage, or weaving width. This constantly adapts the process to varying conditions, such as changes in the gap, alignment, root face, or temperature. The computer’s fast reaction time means the machine can work at high deposition rates and travel speeds at which weld pool conditions are too critical to be sustained by hand.

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Operational availability of the robot installation for production is increased by using an off-line system for generating robot programs. While saving time, programs may be prepared more conveniently in an office environment and simulation test runs (accessibility, computation of cycle time) may be performed. Collisions of the robot with the workpiece or fixtures may be detected at an early stage. Offline programming - Online working Simple robot programming is available through the self developed PC-based off-line programming system, using the original software of the robot control system and the teach pendant K6. Offline programming involves work piece oriented programming in 3D mode using a PC and simulation software. The workpiece is first imported into the programming system as 3D-CAD geometry, then the movements of the robot are determined. For path generation and definition of the processing parameters, a number of automatic functions as well as data bases stored in the...

Modeling noise propagation in complex flows using linearized Euler equations and discontinuous Galerkin methods Actran DGM solves the linearized Euler equations using discontinuous finite elements and is used for predicting the noise propagation in complex physical conditions. It is particularly well suited to solving aero-acoustic problems at the exhaust of a double flux aero-engine, including effects such as propagation through strong shear layers, high temperature gradients and non-homentropic mean flows. Actran DGM can address 2D, 2.5D (axisymmetric with azimuthal order) or 3D problems. It includes all required boundary conditions: decomposition of the engine excitation in duct modes, non-reflective boundary conditions with absorbing buffer zones; liners are modeled using a time-domain translation of the Myers BC (Extended Helmholtz Resonator Model). The straightforward mesh generation is one of the key advantages of Actran DGM. As an unstructured mesh method, it is not submitted to the standard constraints of a Finite Difference mesh. As the order of the elements is automatically adapted, the mesh can be “non-homogeneous” (i.e. using very small and large elements in the same model) without any performance degradation. In addition, the same mesh can be reused for frequencies of ratio 1 to 4 (i.e. a mesh that was designed to run at a frequency of 1000Hz can be used for frequencies ranging from 500Hz to 2000Hz). Thanks to the implementation of a discontinuous spatial scheme for solving the Linearized Euler Equations, the performance is highly scalable in parallel. This scalability of the RAM consumption and computational time makes the solution of very large problems (in terms of kR) possible. Model courtesy of Airbus™ Target Applications: Exhaust of turbomachines Inlet of large turbomachines All acoustic propagation problems with non-homogeneous mean flow conditions