@article {2710, title = {fabrication and perivascular implantation of bioactive scaffolds engineered with human adventitial progenitor cells for stimulation of arteriogenesis in peripheral ischemia}, journal = {Biofabrication}, volume = {8}, year = {2016}, month = {03/24}, keywords = {Bioengineering}, doi = {10.1088/1758-5090/8/1/015020}, author = {Carrabba, M. and C. De Maria and A. Oikawa and C. Reni and I. Rodriguez-Arabaolaza and H. Spencer and S. Slater and E. Avolio and Z. Dang and G. Spinetti and MADEDDU, P. and G. Vozzi} } @article {2496, title = {The influence of mesh topology in the abdominal wall repair process}, journal = {J Biomed Mater Res Part B. }, year = {2016}, month = {08/2016}, keywords = {Bioengineering}, doi = {https://doi.org/10.1002/jbm.b.33468}, url = {https://www.ncbi.nlm.nih.gov/pubmed/26097153}, author = {C. De Maria and S. Burchielli and C. Salvadori and V. Santoro and F. Montemurro and G. Orsi and G. Vozzi} } @inbook {2713, title = {Machine design for multimaterial processing}, booktitle = {Nanobiomaterials in Soft Tissue Engineering - Applications of Nanobiomaterials}, year = {2016}, publisher = {Elsevier}, organization = {Elsevier}, issn = {978-0-323-42865-1}, author = {C. De Maria and De Acutis, A and Carrabba, M. and G. Criscenti and G. Vozzi} } @article {2711, title = {Reconstruction of medial patello-femoral ligament: Comparison of two surgical techniques}, journal = {J Mech Behav Biomed Mater.}, year = {2016}, month = {02/10}, pages = {272-278}, keywords = {Bioengineering}, doi = {10.1016/j.jmbbm.2016.02.009}, author = {Criscenti, G. and C. De Maria and E. Sebastiani and M. Tei and G. Placella and G. Vozzi and Cerulli, G.} } @article {2712, title = {riphasic scaffolds for the regeneration of the bone-ligament interface}, journal = {Biofabrication}, volume = {8}, year = {2016}, chapter = {015009}, doi = {10.1088/1758-5090/8/1/015009}, author = {G. Criscenti and A. Longoni and A. Di Luca and C. De Maria and Van Blitterswijk, C. and G. Vozzi and Moroni, L.} } @article {2513, title = {ADMET: ADipocyte METabolism mathematical model}, journal = {Computer methods in biomechanics and biomedical engineering}, volume = {18(13)}, year = {2015}, pages = {1386 -1391}, keywords = {Bioengineering}, author = {Micheloni, A. and G. Orsi and C. De Maria and G. Vozzi} } @article {2499, title = {Biomimicking of the Breast Tumor Microenvironment}, journal = {Current Molecular Biology Reports}, volume = {1 (2)}, year = {2015}, pages = {71-76}, keywords = {Bioengineering}, author = {M. Giussani and C. De Maria and M. Vasso and F. Montemurro and T. Triulzi and E. Tagliabue and C. Gelfi and G. Vozzi} } @article {2501, title = {Combining Inkjet Printing and Sol-Gel chemistry for Making pH-Sensitive surfaces}, journal = {Current topics in medicinal chemistry}, volume = {15(3)}, year = {2015}, pages = {271-278}, keywords = {Bioengineering}, author = {G. Orsi and C. De Maria and F. Montemurro and Chauhan, V. and Aylott, J. and G. Vozzi} } @article {2498, title = {Design and Validation of an Open-Hardware Print-Head forBioprinting Application}, journal = {Procedia Engineering}, volume = {110}, year = {2015}, pages = {98-105}, keywords = {Bioengineering}, author = {C. De Maria and L. Ferrari and F. Montemurro and G. Vozzi and I. Guerrazzi and Boland, T. and G. Vozzi} } @article {2497, title = {Improving African Healthcare through Open Source Biomedical Engineering}, journal = {International Journal On Advances in Life Sciences}, year = {2015}, month = {01/2015}, keywords = {Bioengineering}, author = {C. De Maria and D. Mazzei and A. Ahluwalia} } @inbook {2502, title = {Indirect Rapid Prototyping for Tissue Engineering}, booktitle = {Essential of 3D Biofabrication and Translation}, year = {2015}, publisher = {Elsevier}, organization = {Elsevier}, keywords = {Bioengineering}, issn = {978-0-12-800972-7}, author = {C. De Maria and De Acutis, A and G. Vozzi} } @article {2500, title = {Magnetic-Driven Pointing System: a Feasibility Study}, journal = {Sensors Journal}, volume = {15 (2)}, year = {2015}, month = {02/2015}, pages = {703 - 714}, keywords = {Bioengineering}, author = {G. Russo and C. De Maria and Cerulli, G. and G. Vozzi} } @conference {2504, title = {Open Biomedical Engineering Education in Africa}, booktitle = {The 37th Annual International Conference of the IEEE Engineering in Medicine and Biology Society (EMBS)}, year = {2015}, publisher = {IEEE}, organization = {IEEE}, address = { Milan, Italy, 25-29 August 2015}, keywords = {Bioengineering}, author = {A. Ahluwalia and D. Atwine and C. De Maria and C. Ibingira and E. Kipkorir and F. Kiros and J. Madete and D. Mazzei and E. Molyneux and K. Moonga and M. Moshi and M. Nzomo and V. Oduol and J. Okuonzi} } @article {2514, title = {Realisation and characterization of conductive hollow fibers for neuronal tissue engineering}, journal = {Journal of Biomedical Materials Research - Part B Applied Biomaterials}, volume = {103}, year = {2015}, pages = {1107-1119}, keywords = {Bioengineering}, author = {Gattazzo, F. and C. De Maria and Whulanza, Y. and Taverni, G. and A. Ahluwalia and G. Vozzi} } @inbook {2503, title = {Utilizzo di Phantom in oftalmologia}, booktitle = {Metodiche alternative alla sperimentazione animale}, volume = {34}, year = {2015}, publisher = {P{\`a}tron Editore}, organization = {P{\`a}tron Editore}, address = {Bologna}, keywords = {Bioengineering}, issn = {9788855533157}, author = {G. Vozzi and C. De Maria and F. Montemurro} } @article {2191, title = {ADMET: ADipocyte METabolism mathematical model}, journal = {Computer methods in biomechanics and biomedical engineering}, year = {2014}, pages = {1{\textendash}6}, keywords = {Bioengineering}, author = {Micheloni, A. and G. Orsi and C. De Maria and G. Vozzi} } @article {2192, title = {An Autologously Generated Platelet-Rich Plasma Suturable Membrane May Enhance Peripheral Nerve Regeneration after Neurorraphy in an Acute Injury Model of Sciatic Nerve Neurotmesis}, journal = {Journal of reconstructive microsurgery}, year = {2014}, keywords = {Bioengineering}, author = {Giannessi, E. and Coli, A. and Stornelli, M. R. and Miragliotta, V. and Pirone, A. and Lenzi, C. and Burchielli, S. and G. Vozzi and C. De Maria and Giorgetti, M.} } @article {2203, title = {Development of a novel Micro-Ablation System to realise micrometric and well-defined hydrogel structures for Tissue Engineering applications}, journal = {Rapid Prototyping Journal}, volume = {20}, year = {2014}, keywords = {Bioengineering}, author = {C. De Maria and Grassi, L. and Vozzi, F. and A. Ahluwalia and G. Vozzi and Campbell, R. I.} } @article {2220, title = {In vitro development of engineered muscle using a scaffold based on the pressure-activated microsyringe (PAM) technique}, journal = {Journal of tissue engineering and regenerative medicine}, year = {2014}, author = {D. Cei and Malena, A. and C. De Maria and Loro, E. and Sandri, F. and Moro, G. and Bettio, S. and Vergani, L. and G. Vozzi} } @article {2196, title = {In vivo assessment of printed microvasculature in a bilayer skin graft to treat full-thickness wounds}, journal = {Tissue Engineering Part A}, year = {2014}, keywords = {Bioengineering}, author = {Yanez, M. and Rincon, J. and Dones, A. and C. De Maria and Gonzales, R. and Boland, T.} } @conference {2197, title = {In-silico model of cell metabolism in dynamic cell culture system}, booktitle = {JOURNAL OF TISSUE ENGINEERING AND REGENERATIVE MEDICINE}, year = {2014}, pages = {487{\textendash}488}, publisher = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, organization = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, keywords = {Bioengineering}, author = {Andreoni, C. and G. Orsi and C. De Maria and F. Montemurro and G. Vozzi} } @conference {2201, title = {Keratin based hydrogels for tissue engineering and regenerative medicine}, booktitle = {JOURNAL OF TISSUE ENGINEERING AND REGENERATIVE MEDICINE}, year = {2014}, pages = {357{\textendash}358}, publisher = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, organization = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, keywords = {Bioengineering}, author = {F. Montemurro and Gattazzo, F. and C. De Maria and G. Vozzi} } @conference {2198, title = {Multimaterial and multiscale biofabrication for smart scaffolds}, booktitle = {JOURNAL OF TISSUE ENGINEERING AND REGENERATIVE MEDICINE}, year = {2014}, pages = {470{\textendash}470}, publisher = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, organization = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, keywords = {Bioengineering}, author = {C. De Maria and Carrabba, M. and G. Criscenti and G. Orsi and F. Montemurro and G. Vozzi} } @conference {2199, title = {Nanoparticles doped sol-gel ink for inkjet printers}, booktitle = {JOURNAL OF TISSUE ENGINEERING AND REGENERATIVE MEDICINE}, year = {2014}, pages = {197{\textendash}198}, publisher = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, organization = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, keywords = {Bioengineering}, author = {G. Orsi and C. De Maria and F. Montemurro and Chauhan, V. and Aylott, J. and G. Vozzi} } @article {2194, title = {A new 3D concentration gradient maker and its application in building hydrogels with a 3D stiffness gradient}, journal = {Journal of Tissue Engineering and Regenerative Medicine}, year = {2014}, keywords = {Bioengineering}, author = {G. Orsi and Fagnano, M. and C. De Maria and F. Montemurro and G. Vozzi} } @article {2193, title = {New eye phantom for ophthalmic surgery.}, journal = {Journal of biomedical optics}, volume = {19}, year = {2014}, pages = {68001}, keywords = {Bioengineering}, author = {Fogli, G. and G. Orsi and C. De Maria and F. Montemurro and Palla, M. and Rizzo, S. and G. Vozzi} } @conference {2200, title = {A novel concentration gradient bioreactor by PMMA laser micromachining}, booktitle = {JOURNAL OF TISSUE ENGINEERING AND REGENERATIVE MEDICINE}, year = {2014}, pages = {482{\textendash}482}, publisher = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, organization = {WILEY-BLACKWELL 111 RIVER ST, HOBOKEN 07030-5774, NJ USA}, keywords = {Bioengineering}, author = {G. Orsi and C. De Maria and F. Montemurro and G. Vozzi} } @conference {2190, title = {Open Source Biomedical Engineering for Sustainability in African Healthcare: Combining Academic Excellence with Innovation}, booktitle = {ICDS 2014, The Eighth International Conference on Digital Society}, year = {2014}, pages = {48{\textendash}53}, keywords = {Bioengineering}, author = {C. De Maria and D. Mazzei and A. Ahluwalia} } @article {2202, title = {Realisation and characterization of conductive hollow fibers for neuronal tissue engineering}, journal = {Journal of Biomedical Materials Research Part B: Applied Biomaterials}, year = {2014}, keywords = {Bioengineering}, author = {Gattazzo, F. and C. De Maria and Whulanza, Y. and Taverni, G. and A. Ahluwalia and G. Vozzi} } @article {2204, title = {Smart Sensing Scaffolds}, journal = {Smart Membranes and Sensors: Synthesis, Characterization, and Applications}, year = {2014}, pages = {337}, keywords = {Bioengineering}, author = {C. De Maria and Whulanza, Y. and G. Vozzi and A. Ahluwalia} } @article {1492, title = {Bone scaffolds with homogeneous and discrete gradient mechanical properties}, journal = {MATERIALS SCIENCE AND ENGINEERING. C, BIOMIMETIC MATERIALS, SENSORS AND SYSTEMS}, volume = {1}, year = {2013}, pages = {28{\textendash}36}, keywords = {Bioengineering}, issn = {0928-4931}, author = {Jelen, C. and G. Mattei and F. Montemurro and C. De Maria and Mattioli-Belmonte, M. and G. Vozzi} } @inbook {1787, title = {Da scaffold a tessuti: progettazione, realizzazione e caratterizzazione di architetture 3D per la medicina rigenerativa }, booktitle = {Approccio Integrato per la medicina rigenerativa - book of XXXII School of Bioengineering}, year = {2013}, keywords = {Bioengineering}, author = {Tirella, A and C. De Maria and G. Vozzi and A. Ahluwalia} } @conference {1500, title = {Indirect m-fabrication using Pam2 system}, booktitle = {Congresso Nazionale di Bioingegneria 2012 Atti}, year = {2012}, pages = {166 - 167}, address = {Roma, Italy}, keywords = {Bioengineering}, author = {De Acutis, A and C. De Maria and G. Vozzi} } @conference {1495, title = {A novel approach to fabricate agarose microstructures,}, booktitle = {Congresso Nazionale di Bioingegneria 2012 Atti, pp 341-342, Rome}, year = {2012}, keywords = {Bioengineering}, author = {C. De Maria and Boland, T and G. Vozzi} } @article {1331, title = {The PAM2 system: a multilevel approach for fabrication of complex three-dimensional microstructures}, journal = {Rapid Prototyping Journal}, volume = {18}, year = {2012}, pages = {299{\textendash}307}, keywords = {Bioengineering}, doi = {10.1108/13552541211231725}, author = {Tirella, A and C. De Maria and G. Criscenti and G. Vozzi and A. Ahluwalia} } @article {1511, title = {HEMETBeta: improvement of hepatocyte metabolism mathematical model}, journal = {COMPUTER METHODS IN BIOMECHANICS AND BIOMEDICAL ENGINEERING}, year = {2011}, keywords = {Bioengineering}, issn = {1025-5842}, author = {G. Orsi and C. De Maria and M. A. Guzzardi and Vozzi, F. and G. Vozzi} } @article {1277, title = {High throughput sensorized bioreactor for applying hydrodynamic pressure and shear stress stiumli on cell cutlures}, year = {2011}, month = {10/2011}, keywords = {Bioengineering}, issn = {WO 2011/121377}, author = {A. Ahluwalia and C. De Maria and D. Mazzei and G. Vozzi} } @conference {1799, title = {How dimension a substrate for the realisation of controlled micro- and bio-inspired environment}, booktitle = {Euromat-FEMS}, year = {2011}, address = {Montpellier, France}, abstract = {

European Congress and Exhibition on Advanced Materials and Processes - Oral

}, keywords = {Bioengineering}, author = {Tirella, A and A. Ahluwalia and C. De Maria and Vozzi, F. and G. Vozzi and Sandri, T and Sassano, D and Cognolato, L} } @article {1510, title = {Melt Extruded PU Hollow Fibers for Nerve Regeneration: In vivo Study}, journal = {VETERINARY RESEARCH}, year = {2011}, keywords = {Bioengineering}, issn = {0928-4249}, author = {G. Vozzi and F. Dini and S. Burchielli and C. Salvadori and C. De Maria and V. Chiono and G. Barsotti and G. Ciardelli and F. Carlucci and R. Roni} } @article {2284, title = {Squeeze pressure bioreactor: a hydrodynamic bioreactor for noncontact stimulation of cartilage constructs}, journal = {Tissue engineering. Part C, Methods}, volume = {17}, year = {2011}, pages = {757{\textendash}64}, abstract = {

A novel squeeze pressure bioreactor for noncontact hydrodynamic stimulation of cartilage is described. The bioreactor is based on a small piston that moves up and down, perpendicular to a tissue construct, in a fluid-filled chamber. Fluid displaced by the piston generates a pressure wave and shear stress as it moves across the sample, simulating the dynamic environment of a mobile joint. The fluid dynamics inside the squeeze pressure bioreactor was modeled using analytical and computational methods to simulate the mechanical stimuli imposed on a construct. In particular, the pressure, velocity field, and wall shear stress generated on the surface of the construct were analyzed using the theory of hydrodynamic lubrication, which describes the flow of an incompressible fluid between two surfaces in relative motion. Both the models and in-situ pressure measurements in the bioreactor demonstrate that controlled cyclic stresses of up to 10 kPa can be applied to tissue constructs. Initial tests on three-dimensional scaffolds seeded with chondrocytes show that glycosaminoglycan production is increased with regard to controls after 24 and 48 h of cyclic noncontact stimulation in the bioreactor.

}, keywords = {Bioengineering}, issn = {1937-3392}, doi = {10.1089/ten.TEC.2011.0002}, url = {http://online.liebertpub.com/doi/abs/10.1089/ten.tec.2011.0002 http://www.ncbi.nlm.nih.gov/pubmed/21410315}, author = {C. De Maria and S. Giusti and D. Mazzei and A. Crawford and A. Ahluwalia} } @inbook {2285, title = {The Squeeze Pressure Bioreactor: Design and Modelling of a Non-Contact Device for Mechanical Stimulation of Tissue Engineered Constructs}, booktitle = {Bioreactors: Design, Properties and Applications}, year = {2011}, pages = {199{\textendash}214}, publisher = {Nova Science Publishers, Inc.}, organization = {Nova Science Publishers, Inc.}, address = {Hauppauge NY}, abstract = {

Diseases of hyaline cartilage represent one of the major health problems, especially in industrialized countries with high life expectancy. The erosion of the articulating surfaces of joints, known as osteoarthritis, currently affects more than 200 million citizens worldwide, and more than 50\% of the patients need or will need a surgical treatment. Articular cartilage is a three dimensional avascular tissue, which covers the ends of all synovial joints. During normal daily function, articular cartilage can be repeatedly subjected to forces up to several time body weight, but it is able to provide articulating joints with a nearly frictionless motion. Despite its tremendously important function, articular cartilage has limited capacity for auto regeneration after degenerative and rheumatic diseases, like arthritis, as well as traumatic injuries. Cartilage problems are a huge and still unsolved medical issue, which therefore represents one of the most important tissue engineering targets requiring high quality products as fast as possible. For this reason, the possibility to recreate in vitro cartilage substitutes as a real alternative to total joint replacement represents an increasing and hopeful market, in which many research groups are still working. At the moment, one of the main findings in invitro cartilage studies is the importance of the role of mechanical stimuli and dynamic loads for the chondrocytes growth and differentiation. Several studies using cartilage explants or chondrocytes seeded in 3D scaffolds have shown that mechanical compressive loads affect the cells metabolic activity and their matrix production. In order to simulate the in vivo environment, the use of bioreactors is becoming fundamental: bioreactors can provide the chemical and mechanical signals that optimize tissue development. Furthermore, bioreactors could be an important instrument to reduce the cost of clinical studies, used as in vitro predictors of in vivo performance. In this way,the use of bioreactors can reduce animal studies, helping the scientists to focus their attention in the right direction before starting pre-clinical studies, which are usually more expensive than preliminary research. In the past few years, several systems for the application of different mechanical stimuli to chondrocytes have been developed. Most of these can generate biomechanical-like forces such as the direct compression, tensile and shear forces, or hydrostatic pressure, in order to stimulate the articular chondrocyctes to increase their matrix production. Generally, the most important requirements that a culture system has to satisfy are high reliability and usability, perfect sterility, easy control of all the important culture parameters and low cost. In this work, a new system, inspired by the synovial environment of mobile joints and able to apply an innovative type of stimulation on articular chondrocytes is described and modeled. The SQPR (SQueeze PRessure) bioreactor chamber is designed to impose a cyclic hydrodynamic pressure on cell cultures, constructs or tissues slices. The basic principle of this new system is the generation of a localized contact less overpressure on articular chondrocytes, using a simple vertical piston movement. This kind of stimulation is particularly useful for neo-tissue or fresh-constructs, in which cells require a dynamic environment to maintain their differentiate state, but at the same time do not tolerate direct compression or high shear stress. When the piston moves down, a controlled hydrodynamic overpressure and a shear stress is generated over the cell surface, stimulating the chondrocytes to improve their matrix production. The fluid dynamics inside the SQPR bioreactor is illustrated from an analytical and numerical point of view. We show how these models can predict the pressure, velocity field and wall shear stress generated on the cell surface of the construct. The bioreactor design is presented in detail and validation tests on chondrocytes are described.

}, keywords = {Bioengineering}, url = {https://www.novapublishers.com/catalog/product\_info.php?products\_id=22653}, author = {S. Giusti and A. Ahluwalia and C. De Maria}, editor = {Antolli, P. G. and Z. Liu} } @article {1488, title = {Substrate stiffness influences high resolution printing of living cells with an ink-jet system}, journal = {Journal of bioscience and bioengineering}, volume = {112}, year = {2011}, pages = {79{\textendash}85}, abstract = {

The adaptation of inkjet printing technology for the realisation of controlled micro- and nano-scaled biological structures is of great potential in tissue and biomaterial engineering. In this paper we present the Olivetti BioJet system and its applications in tissue engineering and cell printing. BioJet, which employs a thermal inkjet cartridge, was used to print biomolecules and living cells. It is well known that high stresses and forces are developed during the inkjet printing process. When printing living particles (i.e., cell suspensions) the mechanical loading profile can dramatically damage the processed cells. Therefore computational models were developed to predict the velocity profile and the mechanical load acting on a droplet during the printing process. The model was used to investigate the role of the stiffness of the deposition substrate during droplet impact and compared with experimental investigations on cell viability after printing on different materials. The computational model and the experimental results confirm that impact forces are highly dependent on the deposition substrate and that soft and viscous surfaces can reduce the forces acting on the droplet, preventing cell damage. These results have high relevance for cell bioprinting; substrates should be designed to have a good compromise between substrate stiffness to conserve spatial patterning without droplet coalescence but soft enough to absorb the kinetic energy of droplets in order to maintain cell viability.

}, keywords = {Bioengineering}, issn = {1347-4421}, doi = {10.1016/j.jbiosc.2011.03.019}, url = {http://www.ncbi.nlm.nih.gov/pubmed/21497548}, author = {Tirella, A and Vozzi, F. and C. De Maria and G. Vozzi and Sandri, T and Sassano, D and Cognolato, L and A. Ahluwalia} } @conference {1529, title = {Engineered Skeletal Muscle using Pam Scaffold}, booktitle = {Congress of the European Society of Biomechanics, ESB 2010}, year = {2010}, keywords = {Bioengineering}, author = {D. Cei and E. Loro and A. Malena and C. De Maria and L. Vergani and G. Vozzi} } @conference {1537, title = {In silico model of hepatic metabolism of Diclofenac}, booktitle = {Congresso Nazionale di Bioingegneria 2010}, year = {2010}, author = {A. Moschetti and F. Montemurro and C. De Maria and Vozzi, F. and A. Ahluwalia and G. Vozzi} } @conference {1533, title = {Mechanical characterization of polymer cartilage scaffold at different pH}, booktitle = {Congresso Nazionale di Bioingegneria 2010}, year = {2010}, keywords = {Bioengineering}, author = {S. Romiti and G. Vozzi and C. De Maria and F. Montemurro} } @conference {1534, title = {Pam scaffold for heart tissue engineering}, booktitle = {Congresso Nazionale di Bioingegneria 2010}, year = {2010}, keywords = {Bioengineering}, author = {M. Nardi and C. De Maria and A. Ahluwalia and G. Vozzi} } @conference {1528, title = {Resident cardiac stem cells on PAM scaffold for Heart tissue engineering application}, booktitle = {Congress of the European Society of Biomechanics, ESB 2010}, year = {2010}, keywords = {Bioengineering}, author = {M. Nardi and C. De Maria and G. Forte and P. Di Nardo and A. Ahluwalia and G. Vozzi} } @conference {1544, title = {ENMET: Endothelial Cell Metabolism Mathematical Model,}, booktitle = {2009 Ninth International Conference on Intelligent Systems Design and Applications}, year = {2009}, pages = {654 - 659}, keywords = {Bioengineering}, author = {G. Orsi and C. De Maria and Vozzi, F. and M. A. Guzzardi and A. Ahluwalia and G. Vozzi} } @article {1542, title = {A new library of HEMET model: Insulin effects on hepatic metabolism}, journal = {COMPUTER METHODS AND PROGRAMS IN BIOMEDICINE}, volume = {94}, year = {2009}, pages = {181{\textendash}189}, keywords = {Bioengineering}, issn = {0169-2607}, doi = {10.1016/j.cmpb.2008}, author = {CUTRONE, A and C. De Maria and Vinci, B. and Vozzi, F. and A. Ahluwalia and G. Vozzi} } @conference {1795, title = {Pneumatic module of PAM2 microfabrication system: realization of bio-inspired complex scaffolds}, booktitle = {3B International Conference in Bioprinting and Biofabrication}, year = {2009}, address = {Bordeaux, France}, abstract = {

poster

}, keywords = {Bioengineering}, author = {C. De Maria and Tirella, A and A. Ahluwalia and G. Vozzi} } @article {1547, title = {HEMET: mathematical model of biochemical pathways for simulation and prediction of HEpatocyte METabolism}, journal = {COMPUTER METHODS AND PROGRAMS IN BIOMEDICINE}, volume = {92}, year = {2008}, pages = {121{\textendash}134}, keywords = {Bioengineering}, issn = {0169-2607}, author = {C. De Maria and GRASSINI, D and Vozzi, F. and Vinci, B. and A. Landi and A. Ahluwalia and G. Vozzi} } @article {1652, title = {La rigenerazione nervosa negli innesti a polarit{\`a}~ invertita: dati a confronto tra applicazione sull{\textquoteright}uomo e analisi sperimentale su modello animale}, journal = {RIVISTA DI CHIRURGIA DELLA MANO}, year = {2007}, pages = {{\textendash}}, keywords = {Bioengineering}, author = {D. S. POGGI and Massarella, M. and Cerulli, G. and Caraffa, A. and S. Burchielli and Modenato, M. and Cantile, C. and G. Vozzi and C. De Maria and Lisanti, M. and Bonicoli, E. and Cantini, G.} }