Ocean energy conversion systems: an innovative concept approach
Gespeichert in:
| 1. Verfasser: | |
|---|---|
| Format: | Abschlussarbeit Buch |
| Sprache: | English |
| Veröffentlicht: |
Hamburg
2018
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| Schlagworte: | |
| Online-Zugang: | Inhaltsverzeichnis Inhaltsverzeichnis |
| Beschreibung: | Literaturverzeichnis: Seite [130]-136 |
| Beschreibung: | viii, 148 Seiten Illustrationen, Diagramme, Karten 30 cm |
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| 245 | 1 | 0 | |a Ocean energy conversion systems |b an innovative concept approach |c von Nik Scharmann |
| 264 | 1 | |a Hamburg |c 2018 | |
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| 500 | |a Literaturverzeichnis: Seite [130]-136 | ||
| 502 | |b Dissertation |c Technische Universität Hamburg-Harburg |d 2017 | ||
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| adam_text | C ON TEN TS
NOMENCLATURE......................................................................................................
VII
1. SCOPE OF WORK 1
2. OCEAN WAVE ENERGY AS A GLOBAL ENERGY RESOURCE 3
2.1. LOCATION AND MAGNITUDE OF THE WAVE RE SO U RC E
.......................................
3
2.2. INTEGRATION WITH OTHER RENEWABLE ENERGY SOURCES
....................................
5
3. PERFORMANCE INDICATORS AND REQUIREMENT ANALYSIS FOR WAVE ENERGY
CONVERT
ERS 7
3.1. LEVELIZED COST OF ENERGY AS KEY PERFORMANCE INDICATOR
...........................
7
3.2. WEC REQUIREMENTS DERIVED FROM LCOE-NETWORK A N A LY S IS
..................
8
3.3. THE WAVE RESOURCE AT A SPECIFIC SITE AND ITS TECHNICAL ATTRIBUTES
.... 11
4. THE INNOVATION HYPOTHESIS AND GENERAL APPROACH 15
4.1. THE CONTEXT OF OCEAN WAVE ENERGY CO N V ERSIO N
.......................................
15
4.2. THE WH-WEC INNOVATION HYPOTHESIS
......................................................
17
5. CONCEPTUAL DESIGN SPACE 21
5.1. SITE DISCOVERY AND RANKING
.....................................................................
21
5.2. FUNCTIONAL ANALYSIS AND TECHNICAL BREAKDOWN-STRUCTURE
........................
31
5.3. CONCEPT DISCOVERY AND R A N K IN G
...............................................................
31
5.3.1. ROTOR C
ONCEPTS..............................................................................
31
5.3.1.1. MAPPING OF SYSTEM REQUIREMENTS TO TECHNICAL ROTOR AT
TRIBUTES
...........................................................................
34
5.3.1.2. CONVERTING ENERGY WITH THE DYNAMIC LIFTING HYDROFOIL
C O N CE P
T...........................................................................
35
5.3.1.3. CONVERTING ENERGY WITH THE FLETTNER C O N C E P T
............
40
5.3.1.4. CONVERTING ENERGY WITH THE SAVONIUS CONCEPT .... 40
5.3.1.5. RANKING OF ROTOR CONCEPTS
.............................................
42
5.3.1.6. ORDER OF MAGNITUDE FORCES AND TORQUES
.....................
42
5.3.2. POWER-TAKE-OFF C O N C E P TS
............................................................
45
5.3.2.1. MAPPING OF SYSTEM REQUIREMENTS TO TECHNICAL PTO AT
TRIBUTES
...........................................................................
46
5.3.2.2. MECHANICAL GEARBOX WITH A D G A S G
...........................
48
5.3.2.3. HYDROSTATIC GEAR WITH A PM SG /FESG ..........................
49
5.3.2.4. DIRECTLY DRIVEN PMSG WITH F C
....................................
50
5.3.2.5. RANKING OF PTO CONCEPTS
.............................................
51
5.3.3. S U B S TRU C TU RE
..................................................................................
51
5.3.3.1. MAPPING OF SYSTEM REQUIREMENTS TO TECHNICAL SUBSTRUC
TURE A TTRIB U TE S
...............................................................
53
5.3.3.2. UNDER-CRITICAL SUBSTRUCTURES
..........................................
57
5.3.3.3. OVER-CRITICAL S U B STRU C TU RE S
..........................................
64
5.3.3.4. RANKING OF SUBSTRUCTURE CONCEPTS
..............................
68
5.3.3.5. ORDER OF MAGNITUDE WEIGHTS AND DIM ENSION
...............
68
5.3.4. INSTALLATION CO N CEP
TS......................................................................
68
5.3.4.1. MAPPING OF SYSTEM REQUIREMENTS ON INSTALLATION AT
TRIBUTES
............................................................................
72
5.3.42. D P H L V
........................................................................
72
5.3.4.3. CRANE B A R G E
..................................................................
73
5.3.4.4. SHEERLEG C RA N E
...............................................................
74
5.3.4.5. RANKING OF INSTALLATION C O N C E P TS
.................................
74
5.3.5. MAINTENANCE CONCEPT
.....................................................................
76
5.3.5.1. WEC MAINTENANCE
.........................................................
77
5.3.5.2. PTO M AINTENANCE
.........................................................
78
5.4. CONCEPT INTEGRATION ON W E C -LEV
EL......................................................... 78
6. IMPLEMENTATION OF PRIORISED CONCEPTS 81
6.1. HYDRODYNAMICAL MODELS FOR WAVE-HYDROFOIL IN TE RA C TIO N
........................
81
6.1.1. VIRTUAL MODELS AND MODELING R E S U LTS
..........................................
82
6.1.1.1. NUMERIC M O D E LS
............................................................
85
6.1.1.2. OPTIMIZATION OF ROTOR D E S IG N
.......................................
87
6.1.2. V
ERIFICATION.....................................................................................
94
6.1.3. 3D-DOMINATED SCALED MODELS
......................................................
94
6.1.4. 2D-PERFORMANCE PREDICTION IN REALISTIC SEA S T A T E S
.....................
96
6.1.5. 3D BEHAVIOR OF THE R O TO R
...............................................................
97
6.2. MECHANICAL MODELS FOR DESIGNING THE W H -W E C
....................................
98
6.2.1. ULTIMATE LIMIT STATE FORCES ON THE W E C
....................................
99
6.2.2. WEC-MODULE
..................................................................................100
6.2.3. JACKET S U B S TRU C TU RE
.........................................................................103
6.2.4. LAUNCH AND RECOVERY SYSTEM
.............................................................104
6.3. ELECTRICAL AND HYDROSTATIC MODELS FOR THE POWER-TAKE-OFF AND GRID
CON
NECTION
.............................................................................................................
106
6.4. INSTALLATION AND MAINTENANCE M O D E LS
.........................................................
108
6.4.1. P RE-P
ILING...........................................................................................109
6.4.2. INSTALLATION OF WH-WEC
................................................................112
6.4.3. MAINTENANCE M
ODEL............................................................................113
6.4.3.1. WEC M
AINTENANCE.............................................................114
6.4.3.2. PTO M
AINTENANCE.............................................................116
6.4.4. DISCUSSION OF MAINTENANCE INTERVENTIONS
.......................................
117
6.5. INTEGRATION OF MODELING RESULTS
..................................................................118
6.5.1. ENERGY YIELD ESTIMATIONS FOR EMEC
..........................................
118
6.5.1.1. MECHANICAL ENERGY YIELD ESTIMATION
..............................
118
6.5.1.2. CONDITIONED ELECTRICAL ENERGY SELLABLE TO CUSTOMERS . . 119
6.5.2. LCOE 20AK AT E M E C
..................................................................
121
7. DISCUSSION 123
7.1. OUTLOOK ON LEARNING EFFECTS
........................................................................
123
7.2. OUTLOOK ON ALTERNATIVE S I T E S
........................................................................
124
7.3. OUTLOOK ON ALTERNATIVE INTEGRATIONS
............................................................
125
7.4. DISCUSSION
....................................................................................................126
BIBLIOGRAPHY 129
A. APPENDIX 137
A.L. NUMERIC VALUES OF THE PREFERRED WH-WEC ROTOR
CONFIGURATION.................139
A.2. TASK LISTINGS OF MARINE OPERATIONS
...............................................................
140
|
| adam_txt |
C ON TEN TS
NOMENCLATURE.
VII
1. SCOPE OF WORK 1
2. OCEAN WAVE ENERGY AS A GLOBAL ENERGY RESOURCE 3
2.1. LOCATION AND MAGNITUDE OF THE WAVE RE SO U RC E
.
3
2.2. INTEGRATION WITH OTHER RENEWABLE ENERGY SOURCES
.
5
3. PERFORMANCE INDICATORS AND REQUIREMENT ANALYSIS FOR WAVE ENERGY
CONVERT
ERS 7
3.1. LEVELIZED COST OF ENERGY AS KEY PERFORMANCE INDICATOR
.
7
3.2. WEC REQUIREMENTS DERIVED FROM LCOE-NETWORK A N A LY S IS
.
8
3.3. THE WAVE RESOURCE AT A SPECIFIC SITE AND ITS TECHNICAL ATTRIBUTES
. 11
4. THE INNOVATION HYPOTHESIS AND GENERAL APPROACH 15
4.1. THE CONTEXT OF OCEAN WAVE ENERGY CO N V ERSIO N
.
15
4.2. THE WH-WEC INNOVATION HYPOTHESIS
.
17
5. CONCEPTUAL DESIGN SPACE 21
5.1. SITE DISCOVERY AND RANKING
.
21
5.2. FUNCTIONAL ANALYSIS AND TECHNICAL BREAKDOWN-STRUCTURE
.
31
5.3. CONCEPT DISCOVERY AND R A N K IN G
.
31
5.3.1. ROTOR C
ONCEPTS.
31
5.3.1.1. MAPPING OF SYSTEM REQUIREMENTS TO TECHNICAL ROTOR AT
TRIBUTES
.
34
5.3.1.2. CONVERTING ENERGY WITH THE DYNAMIC LIFTING HYDROFOIL
C O N CE P
T.
35
5.3.1.3. CONVERTING ENERGY WITH THE FLETTNER C O N C E P T
.
40
5.3.1.4. CONVERTING ENERGY WITH THE SAVONIUS CONCEPT . 40
5.3.1.5. RANKING OF ROTOR CONCEPTS
.
42
5.3.1.6. ORDER OF MAGNITUDE FORCES AND TORQUES
.
42
5.3.2. POWER-TAKE-OFF C O N C E P TS
.
45
5.3.2.1. MAPPING OF SYSTEM REQUIREMENTS TO TECHNICAL PTO AT
TRIBUTES
.
46
5.3.2.2. MECHANICAL GEARBOX WITH A D G A S G
.
48
5.3.2.3. HYDROSTATIC GEAR WITH A PM SG /FESG .
49
5.3.2.4. DIRECTLY DRIVEN PMSG WITH F C
.
50
5.3.2.5. RANKING OF PTO CONCEPTS
.
51
5.3.3. S U B S TRU C TU RE
.
51
5.3.3.1. MAPPING OF SYSTEM REQUIREMENTS TO TECHNICAL SUBSTRUC
TURE A TTRIB U TE S
.
53
5.3.3.2. UNDER-CRITICAL SUBSTRUCTURES
.
57
5.3.3.3. OVER-CRITICAL S U B STRU C TU RE S
.
64
5.3.3.4. RANKING OF SUBSTRUCTURE CONCEPTS
.
68
5.3.3.5. ORDER OF MAGNITUDE WEIGHTS AND DIM ENSION
.
68
5.3.4. INSTALLATION CO N CEP
TS.
68
5.3.4.1. MAPPING OF SYSTEM REQUIREMENTS ON INSTALLATION AT
TRIBUTES
.
72
5.3.42. D P H L V
.
72
5.3.4.3. CRANE B A R G E
.
73
5.3.4.4. SHEERLEG C RA N E
.
74
5.3.4.5. RANKING OF INSTALLATION C O N C E P TS
.
74
5.3.5. MAINTENANCE CONCEPT
.
76
5.3.5.1. WEC MAINTENANCE
.
77
5.3.5.2. PTO M AINTENANCE
.
78
5.4. CONCEPT INTEGRATION ON W E C -LEV
EL. 78
6. IMPLEMENTATION OF PRIORISED CONCEPTS 81
6.1. HYDRODYNAMICAL MODELS FOR WAVE-HYDROFOIL IN TE RA C TIO N
.
81
6.1.1. VIRTUAL MODELS AND MODELING R E S U LTS
.
82
6.1.1.1. NUMERIC M O D E LS
.
85
6.1.1.2. OPTIMIZATION OF ROTOR D E S IG N
.
87
6.1.2. V
ERIFICATION.
94
6.1.3. 3D-DOMINATED SCALED MODELS
.
94
6.1.4. 2D-PERFORMANCE PREDICTION IN REALISTIC SEA S T A T E S
.
96
6.1.5. 3D BEHAVIOR OF THE R O TO R
.
97
6.2. MECHANICAL MODELS FOR DESIGNING THE W H -W E C
.
98
6.2.1. ULTIMATE LIMIT STATE FORCES ON THE W E C
.
99
6.2.2. WEC-MODULE
.100
6.2.3. JACKET S U B S TRU C TU RE
.103
6.2.4. LAUNCH AND RECOVERY SYSTEM
.104
6.3. ELECTRICAL AND HYDROSTATIC MODELS FOR THE POWER-TAKE-OFF AND GRID
CON
NECTION
.
106
6.4. INSTALLATION AND MAINTENANCE M O D E LS
.
108
6.4.1. P RE-P
ILING.109
6.4.2. INSTALLATION OF WH-WEC
.112
6.4.3. MAINTENANCE M
ODEL.113
6.4.3.1. WEC M
AINTENANCE.114
6.4.3.2. PTO M
AINTENANCE.116
6.4.4. DISCUSSION OF MAINTENANCE INTERVENTIONS
.
117
6.5. INTEGRATION OF MODELING RESULTS
.118
6.5.1. ENERGY YIELD ESTIMATIONS FOR EMEC
.
118
6.5.1.1. MECHANICAL ENERGY YIELD ESTIMATION
.
118
6.5.1.2. CONDITIONED ELECTRICAL ENERGY SELLABLE TO CUSTOMERS . . 119
6.5.2. LCOE 20AK AT E M E C
.
121
7. DISCUSSION 123
7.1. OUTLOOK ON LEARNING EFFECTS
.
123
7.2. OUTLOOK ON ALTERNATIVE S I T E S
.
124
7.3. OUTLOOK ON ALTERNATIVE INTEGRATIONS
.
125
7.4. DISCUSSION
.126
BIBLIOGRAPHY 129
A. APPENDIX 137
A.L. NUMERIC VALUES OF THE PREFERRED WH-WEC ROTOR
CONFIGURATION.139
A.2. TASK LISTINGS OF MARINE OPERATIONS
.
140 |
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| index_date | 2024-07-03T17:10:54Z |
| indexdate | 2024-07-10T09:07:05Z |
| institution | BVB |
| language | English |
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| physical | viii, 148 Seiten Illustrationen, Diagramme, Karten 30 cm |
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| spelling | Scharmann, Nik Verfasser (DE-588)1156756235 aut Ocean energy conversion systems an innovative concept approach von Nik Scharmann Hamburg 2018 viii, 148 Seiten Illustrationen, Diagramme, Karten 30 cm txt rdacontent n rdamedia nc rdacarrier Literaturverzeichnis: Seite [130]-136 Dissertation Technische Universität Hamburg-Harburg 2017 Offshore-Technik (DE-588)4125537-9 gnd rswk-swf (DE-588)4113937-9 Hochschulschrift gnd-content Offshore-Technik (DE-588)4125537-9 s DE-604 Kaltschmitt, Martin 1961- (DE-588)115399704 oth Hoffmann, Norbert 1969- (DE-588)113319978X oth B:DE-101 application/pdf http://d-nb.info/1159983615/04 Inhaltsverzeichnis DNB Datenaustausch application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=032663971&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
| spellingShingle | Scharmann, Nik Ocean energy conversion systems an innovative concept approach Offshore-Technik (DE-588)4125537-9 gnd |
| subject_GND | (DE-588)4125537-9 (DE-588)4113937-9 |
| title | Ocean energy conversion systems an innovative concept approach |
| title_auth | Ocean energy conversion systems an innovative concept approach |
| title_exact_search | Ocean energy conversion systems an innovative concept approach |
| title_exact_search_txtP | Ocean energy conversion systems an innovative concept approach |
| title_full | Ocean energy conversion systems an innovative concept approach von Nik Scharmann |
| title_fullStr | Ocean energy conversion systems an innovative concept approach von Nik Scharmann |
| title_full_unstemmed | Ocean energy conversion systems an innovative concept approach von Nik Scharmann |
| title_short | Ocean energy conversion systems |
| title_sort | ocean energy conversion systems an innovative concept approach |
| title_sub | an innovative concept approach |
| topic | Offshore-Technik (DE-588)4125537-9 gnd |
| topic_facet | Offshore-Technik Hochschulschrift |
| url | http://d-nb.info/1159983615/04 http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=032663971&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
| work_keys_str_mv | AT scharmannnik oceanenergyconversionsystemsaninnovativeconceptapproach AT kaltschmittmartin oceanenergyconversionsystemsaninnovativeconceptapproach AT hoffmannnorbert oceanenergyconversionsystemsaninnovativeconceptapproach |
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