Coordinatore | TECHNISCHE UNIVERSITAT BERLIN
Organization address
address: STRASSE DES 17 JUNI 135 contact info |
Nazionalità Coordinatore | Germany [DE] |
Sito del progetto | http://www.contemp.org |
Totale costo | 3˙406˙722 € |
EC contributo | 2˙374˙645 € |
Programma | FP7-NMP
Specific Programme "Cooperation": Nanosciences, Nanotechnologies, Materials and new Production Technologies |
Code Call | FP7-NMP-2008-SMALL-2 |
Funding Scheme | CP-FP |
Anno di inizio | 2009 |
Periodo (anno-mese-giorno) | 2009-11-01 - 2012-10-31 |
# | ||||
---|---|---|---|---|
1 |
TECHNISCHE UNIVERSITAT BERLIN
Organization address
address: STRASSE DES 17 JUNI 135 contact info |
DE (BERLIN) | coordinator | 410˙019.84 |
2 |
DIAD SRL
Organization address
address: STRADA DELLA PRAIA 12/C contact info |
IT (BUTTIGLIERA ALTA) | participant | 397˙649.80 |
3 |
BRUNEL UNIVERSITY
Organization address
address: Kingston Lane contact info |
UK (UXBRIDGE) | participant | 385˙312.00 |
4 |
CENTRO RICERCHE FIAT SCPA
Organization address
address: Strada Torino 50 contact info |
IT (ORBASSANO) | participant | 288˙824.78 |
5 |
KOMET RHOBEST GMBH
Organization address
address: Exlgasse 20a contact info |
AT (Innsbruck) | participant | 272˙718.00 |
6 |
C.F.K. CNC-Fertigungstechnik Kriftel GmbH
Organization address
address: Gutenbergstrasse 8 contact info |
DE (Kriftel) | participant | 200˙176.00 |
7 |
WOLFRAM CARB SPA
Organization address
address: VIA BREZZI 26 contact info |
IT (CASTELLAMONTE) | participant | 191˙884.55 |
8 |
ULTRAPRECISION MOTION LTD
Organization address
address: "MILL LANE, STANTON FITZWARREN" contact info |
UK (SWINDON) | participant | 176˙164.00 |
9 |
THOMAS EBERT
Organization address
address: ROERMONDERSTRASSE 258A contact info |
DE (AACHEN) | participant | 51˙896.00 |
10 |
"Profischleif,- Fertigungs- & UmweltTechnik GmbH"
Organization address
address: Giesserweg 5 contact info |
DE (Wernigerode) | participant | 0.00 |
Esplora la "nuvola delle parole (Word Cloud) per avere un'idea di massima del progetto.
'The European manufacturing industry is currently facing the challenge of reducing production costs and times while increased product quality. In order to achieve this, the industry must develop new, innovative machining concepts beyond the current state-of-the-art. Current process monitoring systems concentrate on the monitoring of forces, vibrations and acoustic emission as input signals, but do not consider tool temperature. Tool temperature does however have a significant influence on workpiece quality and tool wear and therefore on manufacturing productivity. The ConTemp project will develop a self-learning temperature monitoring system combined with a self-cooling tool. The system will control and stabilise tool temperature in the cutting process, which leads to longer tool lifetimes and increased part accuracies. Significant cost reductions can therefore be achieved, as well as allowing the machining of difficult-to-cut materials without incurring the larger costs typically associated with this. The system is based on the development of a combined sensor/actor system. By using an innovative micro cooling device a closed coolant circuit can be used for the measurement of the tool temperature, and by variation of the coolant flow the temperature can be controlled. A further significant advantage of the system is the possibility of avoiding the need for cooling lubricant. Diamond coatings on the surface of the self-cooling tool will ensure maximumheat dissipation from the tool tip, and so sufficient cooling can be achieved with the interior micro-cooling device to allow dry machining. The avoidance of cooling lubricant will lead to substantial cost reductions and environmentally friendly machining.'
Temperature is a much-neglected yet important parameter in process control. Scientists developed a self-learning temperature sensor and actuator linked to a self-cooling tool for automatic adjustments of tool temperature.
European manufacturers are pressed to reduce the time and cost of production while increasing product quality. Conventional process monitoring systems evaluate forces, vibration and acoustic emissions. They typically neglect tool temperature, which can significantly affect workpiece quality and tool wear.
in particular, manufacturing new high-temperature alloys and composites imposes high thermal strain on machine tools. Controlling over-heating while avoiding cooling lubricant would save money and protect the environment as well. The EU-funded 'Self-learning control of tool temperature in cutting processes' (Contemp) project was initiated to develop a self-learning temperature monitoring system linked to a tool with self-cooling capability. Integration into existing machines was an important objective.
the self-learning platform for adaptive process control continuously monitors the temperature of the cutting tool, creating a database of optimal process parameters. Monitoring and comparison to previous conditions enables accurate estimation of appropriate process conditions for the current piece. Such capability makes the system particularly useful for small and medium batches in which time-consuming optimisation can end up being a significant percentage of total production time.
A sensor is integrated in the closed internal micro-cooling device. The self-cooling tool system senses temperature data and controls tool temperature based on parameters from the self-learning platform. Its closed nature protects against contamination from the environment, from cooling fluid leaks and from the fluid of dust.
the final design for internal cooling enabled a decrease in tool wear of 25 % compared to wet machining, and more than 230 % when compared to dry machining with coolant temperatures of 20 degrees Celsius. As such, Contemp temperature control technology promises to increase tool lifetime and accuracy while reducing costs and production times. And, better yet, the system can easily be retrofitted to existing machines.
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