True-Load

True-Load

Load Calculation Software for Product Engineering

True-Load

True-Load è un prodotto Wolf Star Technologies.

Ogni ingegnere è consapevole che uno dei principali problemi delle simulazioni è la determinazione dei carichi che agiscono sulla struttura da dimensionare in base al suo reale utilizzo.

True-Load è il primo software presente sul mercato che sfrutta i modelli ad elementi finiti per posizionare in modo ottimale gli estensimetri sui componenti fisici senza modificarli e ricavarne i carichi a cui sono sottoposti durante i test.

True-Load si interfaccia direttamente con i principali software di calcolo presenti sul mercato e in particolare con i codici di fatica. In questo modo è possibile integrare in modo semplice ed intuitivo nel ciclo di progettazione i carichi reali agenti su una struttura e non, come spesso si è costretti a fare, quelli provenienti da studi eseguiti su progetti simili, o da esperienze pregresse. L’integrazione avviene in modo efficace ed al contempo semplice.

True-Load - It is a first to market to solution that leverages FEA models to place strain gauges on unmodified physical parts and then back calculate loading.

Principali vantaggi

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  Riduce notevolmente il tempo del ciclo di progettazione

  Determina il posizionamento ottimale dell'estensimetro dal modello FEA

 Calcola le matrici di proporzionalità del carico

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Approfondimenti

CASE STUDY

Earthquake evaluation of a stacker crane deployed in the Mexican Republic

The intralogistics sector uses stacker cranes to transport stacked pallets between racks

Stacker cranes handle pallet placement in the warehouse, moving longitudinally along the aisles between the warehouse shelves to deposit and retrieve loads. Stacker cranes are susceptible to earthquakes that can damage them and the racks around them.

mechanics civil-engineering

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CASE STUDY

Optimizing the cable routing for a hyper-redundant inspection robot for harsh, hazardous environments

A multi-objective optimization framework to reduce the actuation loads and increase the payload

This article discusses a multi-objective optimization study to determine the optimal matrix for the routing of the actuating cable system in order to minimize the cable load on the robot and maximize the robot’s payload.

optimization modefrontier mechanics electronics

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The purpose of the case study was to implement a design methodology that used multi-disciplinary simulation and an automated process to analyse thousands of product configurations and highlight vehicle performance distributions in terms of handling, comfort, and cost. This approach ensures that the best solution is always selected.

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The role of mechanical variation management in medical devices

A case study of drug delivery devices developed by Flex

The development of medical devices presents unique technical, regulatory, and economic challenges, requiring a multidisciplinary approach to ensure patient safety, reliability, and market competitiveness. Medical devices span a wide spectrum—from drug delivery systems to surgical robots—and must meet stringent functional, material, and regulatory requirements. A critical and often underestimated factor influencing their performance and manufacturability is mechanical variation, the inevitable deviation from nominal design that occurs during production.

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