Presentación del ponente D. Rikard Mikalsen University of Newcastle, en la Jornada Transnacional "Demostración Tecnológica en la Industria Auxiliar del Naval" Realizada el 26 de enero de 2010, en Santiago de Compostela
Estudio de instrumentos financieros para los sectores naval y auxiliar naval
D. Rikard Mikalsen University of Newcastle
1. Marine engineering research
Sir Joseph Swan Institute for
Energy Research
Newcastle University
Rikard Mikalsen
26 January 2010
Santiago de Compostela
2. Sustainable Power Research Group
Led by Professor Tony Roskilly.
~14 research/technical staff, ~7 PhD students.
Key research areas:
Engine condition monitoring and fault diagnostics.
Marine robotics and control.
Alternative heat engines / refrigeration cycles.
Alternative fuels.
Combined heat and power / trigeneration.
Modelling and simulation of complex systems.
3. HISMAR project
Hull Identification System for Marine Autonomous Robotics.
Funded through EU FP6; 10
partners; led by Newcastle.
Inspects and cleans ship hull.
Optical positioning and navigation
system.
Magnetic attachment and landmark
detection for position tracking
and hull integrity analysis.
Further information:
www.hismar.eu Currently at commercialisation
stage.
4. Engine condition monitoring
Condition monitoring;
operational optimisation;
emissions control.
Thermal overload prediction in
large marine engines.
Monitoring and detection of
cylinder liner scuffing.
Influence on ambient conditions
on engine performance.
5. Alternative fuels
Biodiesel and biooil engine operation.
Efficiency and emissions testing.
Combustion modelling validation.
Injection properties; viscosity control.
Small marine craft trials carried out.
Dual fuel operation: improve combustion
of lowquality fuels by gas injection.
New experimental facility funded by
Carbon Connections.
11. Hydrogen-fuelled CI engine
Low emissions: no CO, CO2, HC; very low NOx.
Fast combustion: high thermal efficiency.
Both direct injection and homogeneous charge
compression ignition (HCCI) systems developed
and tested.
12. Novel engine/refrigeration cycles
Reciprocating Joule cycle concept
Recuperated Joule (gas turbine)
thermodynamic cycle with
reciprocating compressor and
expander.
Continuous, external combustion
→ low emissions; fuel flexible.
Efficiency advantages in small scale:
suitable for microCHP systems.
13. Refrigeration cycles
Expertise in ab/adsorbtion refrigeration cycles.
New cycles / configurations; applications in e.g. fishing
vessels.
Miller cycle engines
Overexpanded engine: utilises energy
normally lost to exhaust gases.
Efficiency improvements particularly at low
compression ratios.
Can be used to reduce emissions (NOx).
15. Free-piston engines
No crank system → very low frictional losses.
Lower lubrication requirements; reduced wear.
Low ignition timing requirements → suitable for HCCI.
Challenge: piston motion control (load changes and cycleto
cycle variations).
16. Other ongoing projects
Biofuel microtrigeneration with cryogenic energy storage.
UKChina collaboration (Leeds, Ulster, Shanghai Jiaotong, Guangxi, ...).
Funded by EPSRC (£1.1M)
Thermal management of industrial processes
Major industrial companies involved (Alstom, BP Chem., Corus, Pfizer).
Research project and network funded by EPSRC (>£1M).
Pose2idon: Power Optimised Ship
EU FP7 funded; led by BMT Defence Services Ltd.
Life cycle analysis; environmental impact assessment.
17. Recent publications
Roskilly, A.P, Nanda, S.K, Wang, Y.D, Chirkowski, J. The performance and the gaseous emissions of two
small marine craft diesel engines fuelled with biodiesel. Applied Thermal Engineering 2008; 28:872880.
Huang JC, Wang YD, Roskilly AP et al. Experimental investigation on the performance and emissions of a
diesel engine fuelled with ethanoldiesel blends. Applied Thermal Engineering 2009; 29:24842490.
Wang YD, Roskilly AP, Huang Y. Trigeneration Integrated with Absorption Enhanced Reforming of Lignite
and Biomass. Fuel 2009, 88(10), 20042010.
Nanda, S.K, Roskilly, A.P. Performance monitoring of slowspeed diesel engines by dynamic exhaust gas
measurement and oxygen concentration measurement of blow down exhaust gas. 25th CIMAC World
Congress on Combustion Engine Technology 2007. Vienna.
Gomes Antunes J.M., Mikalsen R., Roskilly A.P. An investigation of hydrogen fuelled HCCI engine
performance and operation. International Journal of Hydrogen Energy, 2008; 33:58235828.
Gomes Antunes J.M., Mikalsen R., Roskilly A.P. An experimental study of a direct injection compression
ignition hydrogen engine. International Journal of Hydrogen Energy, 2009; 34:65166522.
Mikalsen R., Wang Y.D., Roskilly A.P. A comparison of Miller and Otto cycle natural gas engines for small
scale CHP applications. Applied Energy, 2009; 86:922927.
18. Recent publications
Wang YD, Lin L, Zeng S, Roskilly AP, et al. Application of the Miller cycle to reduce NOx emissions from
petrol engines. Applied Energy 2008, Volume 85(Issue 6), Pages 463474.
Wang YD, Lin L, Roskilly AP, et al. An analytic study of applying Miller cycle to reduce NOx emission from
petrol engine. Applied Thermal Engineering 2007, 27(1112), 17791789.
Tunwattana N, Roskilly AP, Norman RA. Investigations into the effects of illumination and acceleration on
opitcal mouse sensors as contactfree 2D measurement devices. Sensors and Actuators A, 2009; 149:8792.
Mikalsen R., Roskilly A.P. A computational study of freepiston diesel engine combustion. Applied Energy,
2009; 86:11361143.
Mikalsen R., Roskilly A.P. Coupled dynamicmultidimensional modelling of freepiston engine combustion.
Applied Energy, 2009; 86:8995.
Mikalsen R., Roskilly A.P. The control of a freepiston engine generator. Applied Energy, 2010; 87:12731287.
Mikalsen R., Jones E., Roskilly A.P. Predictive piston motion control in a freepiston internal combustion
engine. In press: Applied Energy, 2010.
For a full list, please see www.ncl.ac.uk/energy.
19. Thank you.
Rikard Mikalsen
Sir Joseph Swan Institute for
Energy Research
Newcastle University
www.ncl.ac.uk/energy