Wood Production, Wood Technology, and Biotechnological ... - GWDG

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24 U. Kües modern logistic and effective concepts for wood sorting, production of innovative wood composites (see Chapters 15, 16, 18, and 20 of this book), biotechnological applications in the wood industry (for examples see Chapters 7, 14, 18, 21, 22, and 24 of this book), wood modification, surface treatment and preservation (see Chapters 13 and 14 of this book), and product and process analysis (see Chapter 15 of this book). A coordinator (until April 2006: B. Rüther) organises the business side and the interactions between the partners. More about the different partners, the activities and research projects of the NHN can be found on the NHN homepage (http://www.kompetenznetz-holz.de/). The NHN has been evaluated and admitted as a member in kompetenz-netze.de, an initiative of the German Governmental Ministry for Education and Research (Bundesministerium für Bildung und Forschung, BMBF) for support of the international marketing position of highest-capacity competence networks of Germany (http://www.bmbf.de/ pub/innovationsfoerderung.pdf; Federal Ministry of Economics and Technology 2006). The NHN started in 2002 with a three year financial support from the Ministry of Culture and Education of Lower Saxony (project leader: A. Polle, speaker of the executive board of the NHN till October 2005) and from the European Regional Regional Development Fund (“Europäischer Fonds für regionale Entwicklung”, EFRE; project leader: U. Kües). Due to this financial support and additional support by the Pfleiderer AG, Neumarkt, Germany, a laboratory for wood technologies, the “Biotechnicum”, was build in Göttingen on the grounds of the Georg-August-University at the Institute of Forest Botany and equipped amongst other machinery with pilot plants for wood composite production and modern machines for testing wood properties (see Chapter 15 of this book). Furthermore, fermenters up to a volume of 500 l are available for low and high-scale production of fungal enzymes for use in wood modifications (see Chapter 19 of this book). The funding by the MWK and by EFRE enabled to start projects to develop new generations of wood composites (see Chapter, 15, 16, and 18 of this book) and innovative methods for wood and wood product characterisation by FTIR microscopy and molecular biology (see Chapters 9 and 10 of this book). Interactions between NHN partners from research institutes and partners from the industry enabled by now to acquire some innovative projects for developing and testing new, environmentally friendly wood composite products and insulating materials from fast growing tree species up to the industrial scale (Anonymous 2005, 2006). After the three years start-up phase, the NHN has become a well-known and strong establishment for applied research in the wood sector in Germany (Rüther 2005). Support by EFRE intended the foundation of a spin-off from the competence-net NHN at the end of the funding period in autumn 2005. On the 10 th of October 2005, an incorporated association NHN was launched (Rüther 2005). This incorporated association has the tasks to act as a platform to bring together researchers and industrial partners from different fields for a most
Molecular Wood Biotechnology efficient cooperation in developing and finding new solutions to problems arising around the resource wood, and to coordinate research and development projects between different partners (http://www.kompetenznetz-holz.de/). In addition, funding by EFRE for I & M resulted in the spin-off of the Office for online- Communication “Mut online” by D. Melle and S. Thomas (http://www.mutonline.de/). Integration within the Faculty of Forest Sciences and Forest Ecology Within the teaching programmes of the Faculty of Forest Sciences and Forest Ecology (Fig. 4) at the Georg-August-University Göttingen, the study topic “Molecular Wood Biotechnology” is integrated in the master and the international PhD programmes “Wood Biology and Wood Technology” (master programme: http://www.forst.uni-goettingen.de/studium/hb/einfuehrung.shtml; PhD programme: http://www.wood.uni-goettingen.de/phd/). Teaching focuses on general biotechnology and, more specifically, on biotechnology in wood biology and wood industry, but also on tasks of biotechnology, microbiology and molecular biology in preserving and improving the environment. Research directions in the field “Molecular Wood Biotechnology” and major results from own research are included in teaching to necessity. Master students and PhD students are introduced into the practical sides of biotechnology and molecular biology in laboratory courses on different micro-organisms, DNA, RNA and proteins. Practical knowledge is further mediated in bachelor, master and PhD thesis work. In addition, teaching for bachelor students is performed in forest botany and forest pathology, and for master students of all master programmes of the Faculty of Forest Sciences and Forest Ecology (http://www.forst.uni-goettingen.de/ studium/master/einfuehrung.shtml) and interested students of other faculties of the Georg-August-University Göttingen in form of lecturing and practical courses in forest pathology and in fungal ecophysiology and genetics. Common teaching courses with other professors of the Faculty of Forest Sciences and Forest Ecology (Prof. Dr. A. Polle: Forest Botany and Tree Physiology; Prof. Dr. R. Finkeldey: Forest Genetics and Tree Breeding; Fig. 4 Logo of the Faculty Forest Sciences and Forest Ecology at the Georg-August-University Göttingen 25
Page 1: 108 r Universitätsverlag Göttinge
Page 4 and 5: erschienen im Universitätsverlag G
Page 6 and 7: Bibliographische Information der De
Page 8 and 9: 2 Contents 4. Dohrenbusch, A. & Bol
Page 11 and 12: Contributors Contributors Michael B
Page 13 and 14: Contributors Prof. Dr. Ursula Kües
Page 15: Contributors Dr. Thomas Teichmann:
Page 19: Part I Part I - Prologue to this Bo
Page 22 and 23: 16 U. Kües A special programme of
Page 24 and 25: 18 U. Kües ground on flocculation
Page 26 and 27: 20 U. Kües research as in the case
Page 28 and 29: 22 U. Kües riments for environment
Page 32 and 33: 26 U. Kües Prof. Dr. S. Schütz: F
Page 34 and 35: 28 U. Kües Prof. Dr. B.C. Lu (Univ
Page 36 and 37: 30 U. Kües Eggen, T. & Majcherczyk
Page 38 and 39: 32 U. Kües Kothe, E. (2001). Matin
Page 40 and 41: 34 U. Kües Peddireddi, S., Velagap
Page 42 and 43: 36 U. Kües Wasser, S.P. (2002). Me
Page 44 and 45: 38 U. Kües Jenkner, P., Standke, B
Page 46 and 47: 40 U. Kües Rekangalt, D., Verner,
Page 49 and 50: Wood Supply 2. The Wood Supply in t
Page 51 and 52: Wood Supply Sweden Germany France P
Page 53 and 54: Wood Supply Growing stock (m 3 / ha
Page 55 and 56: Wood Supply In Germany, the wood ba
Page 57 and 58: Wood Supply 15 million m 3 and the
Page 59 and 60: Wood Supply Potential (m 3 u.b./ha/
Page 61: Wood Supply FAO (Food and Agricultu
Page 64 and 65: 58 U. Muuss & T. Lam Congo, Côte d
Page 66 and 67: 60 U. Muuss & T. Lam cooking, heati
Page 68 and 69: 62 A B C Volume (‘000,000 m 3 ) V
Page 70 and 71: 64 U. Muuss & T. Lam three regions.
Page 72 and 73: 66 U. Muuss & T. Lam 3,287,000 m 3
Page 74 and 75: 68 U. Muuss & T. Lam regulate illeg
Page 76 and 77: 70 U. Muuss & T. Lam The genus Pinu
Page 78 and 79: 72 U. Muuss & T. Lam from primary t
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74 A. Dohrenbusch & A. Bolte ment,
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76 A. Dohrenbusch & A. Bolte New fo
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78 A. Dohrenbusch & A. Bolte for th
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80 A. Dohrenbusch & A. Bolte are, h
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82 A. Dohrenbusch & A. Bolte shrubs
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Carbon Dioxide and the Kyoto-Proces
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Renewable Energy 6. Wood as Renewab
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Renewable Energy Costs for 1 GJ of
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Renewable Energy tion, while “dry
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Renewable Energy Energy yield [GJ/h
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Renewable Energy into mechanical an
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Renewable Energy alumina, and boron
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Renewable Energy Table 3 Inputs per
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Renewable Energy Bridgwater, A.V.,
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Renewable Energy Mohan, D., Pittman
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Transgenic Trees 7. Transgenic Tree
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Transgenic Trees Table 1 Transgenic
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Transgenic Trees (Birch 1997) and a
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Transgenic Trees CoA HO HO HO S O O
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Transgenic Trees this change allows
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Transgenic Trees Fig. 3 Phenotype o
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Transgenic Trees the transgenic pop
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Transgenic Trees by introducing the
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Transgenic Trees herbicide resistan
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Transgenic Trees antioxidant capaci
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Transgenic Trees Peterson, R.K.D. &
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Transgenic Trees Williams, G.M., Kr
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Molecular Genetic Tools for Wood Id
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Molecular Detection of Fungi 9. Mol
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Molecular Detection of Fungi Pleuro
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Molecular Detection of Fungi ticle
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Molecular Detection of Fungi The SS
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Molecular Detection of Fungi costs
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Molecular Detection of Fungi questi
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Molecular Detection of Fungi become
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Molecular Detection of Fungi Litera
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Molecular Detection of Fungi Humber
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Molecular Detection of Fungi Wilkin
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180 A. Naumann et al. al. 2002, Bau
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182 A. Naumann et al. and twisting
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184 Single Channel Detector FPA Det
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186 A. Naumann et al. the absorbanc
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188 A. Naumann et al. tial least sq
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190 A. Naumann et al. ponding false
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192 A. Naumann et al. copy contribu
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194 A. Naumann et al. Fengel, D. &
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196 A. Naumann et al. Peddireddi, S
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198 P. Thakeow et al. tions over mi
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200 P. Thakeow et al. Farag et al.
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202 P. Thakeow et al. Fig. 1 Distri
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204 P. Thakeow et al. aldehyde emis
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206 P. Thakeow et al. Table 2 VOCs
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208 P. Thakeow et al. Table 3 Low m
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210 P. Thakeow et al. fungi are gro
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212 P. Thakeow et al. ly, the relea
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214 P. Thakeow et al. which are lar
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216 P. Thakeow et al. Revsbech 2005
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218 P. Thakeow et al. bombycina) we
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220 P. Thakeow et al. Campbell, J.I
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222 P. Thakeow et al. Hatanaka, A.
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224 P. Thakeow et al. Mithöfer, A.
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226 P. Thakeow et al. Schnürer, J.
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228 P. Thakeow et al. Zhang, Q.-H.
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230 J.K. Pemmasani et al. sensitive
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232 Tab. 1 Examples of bioindicator
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234 J.K. Pemmasani et al. for examp
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236 J.K. Pemmasani et al. (Humulus
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238 J.K. Pemmasani et al. Another f
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240 J.K. Pemmasani et al. quantity
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242 J.K. Pemmasani et al. developed
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244 Substrate Product Transducer Bi
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246 J.K. Pemmasani et al. in usage.
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248 J.K. Pemmasani et al. De Boever
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250 J.K. Pemmasani et al. Hoogenboo
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252 J.K. Pemmasani et al. ses by me
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254 J.K. Pemmasani et al. Seidling,
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Part IV Part IV - Wood Preservative
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260 C. Mai & H. Militz Table 1 Haza
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262 C. Mai & H. Militz Table 2 Cont
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264 C. Mai & H. Militz Table 3 Clas
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266 C. Mai & H. Militz insect resis
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268 C. Mai & H. Militz Carbamates (
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270 C. Mai & H. Militz be developed
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Biological Wood Protection 14. Biol
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Biological Wood Protection producti
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Biological Wood Protection ple the
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Biological Wood Protection Freely s
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Biological Wood Protection (Enkerli
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Biological Wood Protection mutant i
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Biological Wood Protection living w
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Biological Wood Protection Aronson,
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Biological Wood Protection Fang, W.
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Biological Wood Protection Meikle,
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Biological Wood Protection Sun, J.Z
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Part V Part V - Panel Boards and Bi
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298 L. Kloeser et al. Characteristi
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300 L. Kloeser et al. from wood shr
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302 Particle board million m 3 40 3
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304 MDF mililon m³ 12 10 8 6 4 2 0
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306 L. Kloeser et al. Plywood and O
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308 L. Kloeser et al. Table 1 Prope
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310 L. Kloeser et al. In MF resin p
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312 L. Kloeser et al. Not completel
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314 L. Kloeser et al. PMDI is that
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316 L. Kloeser et al. Table 5 Tests
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318 L. Kloeser et al. Fig. 14 Overv
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320 L. Kloeser et al. Fig. 16 MDF p
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322 I J K L L. Kloeser et al. engin
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324 L. Kloeser et al. Fig. 19 Pilot
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326 F G H J I L. Kloeser et al. ano
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328 L. Kloeser et al. et al. 2002),
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330 L. Kloeser et al. emissions fro
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332 L. Kloeser et al. Al Rim, K., L
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334 L. Kloeser et al. Dunky, M. (20
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336 L. Kloeser et al. European stan
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338 L. Kloeser et al. Jenkner, P.,
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340 L. Kloeser et al. Ma, L.F., Pul
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342 L. Kloeser et al. Parham, R.A.
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344 L. Kloeser et al. Speit, G. & S
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346 L. Kloeser et al. Zhang, Y.L.,
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348 C. Müller et al. to twenty and
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350 C. Müller et al. Starch yields
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352 A B C C. Müller et al. Fig. 1
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354 C. Müller et al. 2005). Pectin
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356 C. Müller et al. (EC 3.2.1.4)
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358 C. Müller et al. used for the
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360 C. Müller et al. Soybean prote
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362 C. Müller et al. & Deming 1998
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364 C. Müller et al. reaction cond
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366 C. Müller et al. of convention
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368 C. Müller et al. Acknowledgeme
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370 C. Müller et al. Dix, B. & Rof
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372 C. Müller et al. Grigoriou, A.
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374 C. Müller et al. Kishi, H., Fu
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376 C. Müller et al. Maldas, D. &
Page 384 and 385:
378 C. Müller et al. Rombouts, F.M
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380 C. Müller et al. Wang, S. & Pi
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Wood Degrading Enzymes 17. Enzymes
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Wood Degrading Enzymes al. (1999a),
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Wood Degrading Enzymes Phenolic com
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Wood Degrading Enzymes H or L O HO
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Wood Degrading Enzymes dioxygenase
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Wood Degrading Enzymes glucose unit
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Wood Degrading Enzymes → [4-β-D-
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Wood Degrading Enzymes lanases (EC
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Wood Degrading Enzymes lytic enzyme
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Wood Degrading Enzymes kappa number
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Wood Degrading Enzymes Furthermore,
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Wood Degrading Enzymes genes has be
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Wood Degrading Enzymes rays for hyb
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Wood Degrading Enzymes Doing the sa
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Wood Degrading Enzymes 1,4-β-xylos
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Wood Degrading Enzymes Abelskov, A.
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Wood Degrading Enzymes Camarero, S.
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Wood Degrading Enzymes Eriksson, K.
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Wood Degrading Enzymes Halgasova, N
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Wood Degrading Enzymes Jonsson, L.,
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Wood Degrading Enzymes Larrondo, L.
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Wood Degrading Enzymes Moreira, M.T
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Wood Degrading Enzymes Rast, D.M.,
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Wood Degrading Enzymes Sunna, A. &
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Wood Degrading Enzymes Vianello, F.
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Enzymatically Modified Wood 18. Enz
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Enzymatically Modified Wood (helica
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Enzymatically Modified Wood inner c
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Enzymatically Modified Wood fibre s
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Enzymatically Modified Wood Glue =
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Enzymatically Modified Wood thickne
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Enzymatically Modified Wood D E F p
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Enzymatically Modified Wood guez Co
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Enzymatically Modified Wood al. 200
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Enzymatically Modified Wood Fig. 9
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Enzymatically Modified Wood this bo
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Enzymatically Modified Wood MDF wer
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Enzymatically Modified Wood of boar
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Enzymatically Modified Wood Dorris,
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Enzymatically Modified Wood Hernán
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Enzymatically Modified Wood Lang, C
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Enzymatically Modified Wood Sabouri
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Enzymatically Modified Wood Zavarin
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470 Extraction of enzyme Filtration
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472 A E P D B tray humidified air s
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474 M. Rühl et al. the systems, st
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476 M. Rühl et al. biopulping and
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478 M. Rühl et al. Nieves et al. (
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480 M. Rühl et al. Table 3 Example
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482 M. Rühl et al. are easily adap
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484 M. Rühl et al. et al. 2002, Xu
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486 M. Rühl et al. Nyanhongo et al
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488 M. Rühl et al. amounts by mixt
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490 M. Rühl et al. combinant enzym
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492 M. Rühl et al. The C. cinerea
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494 M. Rühl et al. Azin, M., Morav
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496 M. Rühl et al. Diáz-Godínez,
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498 M. Rühl et al. Hong, F., Meina
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500 M. Rühl et al. Leonowicz, A.,
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502 M. Rühl et al. Palmieri, G., G
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504 M. Rühl et al. Saraswat, V. &
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506 M. Rühl et al. Vasconcelos, A.
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Wood Composite and Wood Recycling 2
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Wood Composite and Wood Recycling t
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Wood Composite and Wood Recycling 1
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Wood Composite and Wood Recycling F
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Wood Composite and Wood Recycling R
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Wood Composite and Wood Recycling w
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Wood Composite and Wood Recycling C
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Wood Composite and Wood Recycling t
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Wood Composite and Wood Recycling T
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Wood Composite and Wood Recycling M
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Wood Composite and Wood Recycling S
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Fodder for Ruminants 21. Conversion
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Fodder for Ruminants CH2OH O OH H O
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Fodder for Ruminants macrofibril mi
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Fodder for Ruminants Fig. 7 Raster
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Fodder for Ruminants judge the impr
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Fodder for Ruminants straw pump fre
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Fodder for Ruminants Fig. 10 Rahman
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Fodder for Ruminants Akin, D.E. (20
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Fodder for Ruminants Kakkar, V.K. &
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Mushrooms 22. Mushroom Production M
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Mushrooms Table 1 Estimated worldwi
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Mushrooms see Braaksma & Schaap 199
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Mushrooms outbreeding (sexual repro
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Mushrooms performed by four success
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Mushrooms nic matter into nutrients
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Mushrooms Fig. 5 A former army bunk
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Mushrooms Table 4 Efficiencies in m
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Mushrooms Table 5 Cultivation condi
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Mushrooms further serve as animal f
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Mushrooms mordia formation and prev
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Mushrooms Fig. 10 Fruiting bodies o
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Mushrooms Blanchette, R.A. (1997).
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Mushrooms Hall, I.R., Yun, W. & Ami
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Mushrooms Nwanze, P.I., Khna, A.U.,
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Mushrooms Stoop, J.M.H. & Mooibroek
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Mushroom Biology and Genetics 23. M
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Mushroom Biology and Genetics easy
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Mushroom Biology and Genetics Fig.
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Mushroom Biology and Genetics A B C
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Mushroom Biology and Genetics Other
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Mushroom Biology and Genetics studi
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Mushroom Biology and Genetics study
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Mushroom Biology and Genetics Chiu,
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Mushroom Biology and Genetics Kües
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Mushroom Biology and Genetics Pardo
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Mushroom Biology and Genetics Velag
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610 A. Kharazipour et al. Peat howe
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612 A. Kharazipour et al. were muni
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614 A. Kharazipour et al. grade of
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616 A. Kharazipour et al. Fig. 1 Gl
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618 A. Kharazipour et al. Fig. 2 Vi
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620 A. Kharazipour et al. Table 1 S
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622 A. Kharazipour et al. Pot plant
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624 A B A. Kharazipour et al. Fig.
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626 A B C D A. Kharazipour et al. F
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628 Literature A. Kharazipour et al
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630 A. Kharazipour et al. Delatour,
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632 A. Kharazipour et al. Kullmann,
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634 A. Kharazipour et al. Rieger, S
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Projects presented in this book wer
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In the year 2001, Prof. Dr. Ursula
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