His primary areas of investigation include Incremental sheet forming, Natural resource economics, Forming processes, Material efficiency and Process. His Incremental sheet forming study incorporates themes from Sandwich panel, Perpendicular and Engineering drawing. His studies deal with areas such as Energy policy and Scrap as well as Natural resource economics.
His Forming processes study necessitates a more in-depth grasp of Mechanical engineering. His Process research incorporates themes from Incineration and Building material. Julian M. Allwood combines subjects such as Rapid prototyping, Deformation and Shear forming with his study of Spinning.
The scientist’s investigation covers issues in Material efficiency, Mechanical engineering, Forming processes, Environmental economics and Natural resource economics. His Mechanical engineering research is multidisciplinary, incorporating perspectives in Process, Engineering drawing and Deformation. His biological study spans a wide range of topics, including Sheet metal and Structural engineering.
His research in Environmental economics intersects with topics in Reuse and Environmental resource management. His research investigates the link between Natural resource economics and topics such as Scrap that cross with problems in Waste management. His Supply chain research includes elements of Manufacturing engineering and Product.
Julian M. Allwood mainly focuses on Material efficiency, Scrap, Sheet metal, Manufacturing engineering and Environmental economics. His Scrap research is multidisciplinary, relying on both Process, Process engineering and Copper. The Sheet metal study combines topics in areas such as Forming processes, Spinning and Blank.
Julian M. Allwood works mostly in the field of Environmental economics, limiting it down to topics relating to Reuse and, in certain cases, Supply chain, Demolition and Fiducial inference, as a part of the same area of interest. The various areas that Julian M. Allwood examines in his Mechanical engineering study include Edge and Rotational symmetry. Julian M. Allwood interconnects Engineering drawing and Trajectory in the investigation of issues within Metal spinning.
Julian M. Allwood focuses on Material efficiency, Environmental economics, Scrap, Supply chain and Reuse. His Material efficiency study spans across into subjects like Carbon price, Process engineering, Concrete beams, Waste management and Construction waste. His Process engineering research is multidisciplinary, incorporating elements of Production chain, Sintering, Powder metallurgy, Heat losses and Liquid steel.
His Environmental economics research integrates issues from Retrofitting, Software deployment and Urban planning. To a larger extent, Julian M. Allwood studies Metallurgy with the aim of understanding Scrap. In his research on the topic of Supply chain, Value chain is strongly related with Demolition.
This overview was generated by a machine learning system which analysed the scientist’s body of work. If you have any feedback, you can contact us here.
Asymmetric single point incremental forming of sheet metal
J Jeswiet;J Jeswiet;F Micari;F Micari;G Hirt;G Hirt;A Bramley;A Bramley.
(2005)
Material efficiency: A white paper
Julian M. Allwood;Michael F. Ashby;Timothy G. Gutowski;Ernst Worrell.
(2011)
The wood from the trees: The use of timber in construction
Michael H Ramage;Henry Burridge;Marta Busse-Wicher;George Fereday.
(2017)
Sustainable materials with both eyes open
Julian M. Allwood;Jonathan M. Cullen;Mark A. Carruth.
(2012)
What Do We Know About Metal Recycling Rates
T. E. Graedel;Julian Allwood;Jean-Pierre Birat;Matthias Buchert.
(2011)
Importance of food-demand management for climate mitigation
Bojana Bajželj;Keith S. Richards;Julian M. Allwood;Pete Smith.
Nature Climate Change (2014)
The mechanics of incremental sheet forming
Kathryn Jackson;Julian Allwood.
(2009)
Options for achieving a 50% cut in industrial carbon emissions by 2050.
Julian M. Allwood;Jonathan M. Cullen;Rachel L. Milford.
(2010)
Bulk forming of sheet metal
M. Merklein;J.M. Allwood;B.-A. Behrens;A. Brosius.
(2012)
A review of the mechanics of metal spinning
O. Music;J.M. Allwood;K. Kawai.
(2010)
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