TITLE: SCARBOROUGH G. O.C. B.
Hot/Cold aquifer thermal energy storage
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STORAGE CONTAINER AND COMPONENT |
PERFORMANCE |
COST (incl. cost for labour) |
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1. Storage volume for one doublet |
: 530’000 |
3 m |
Storage $ 200’000 |
UA |
|
distances between wells |
: 130 m and 65 m |
CDN$ 1983 (2 cold wells |
60 m |
||
position: ШЙШІ/Ьеlow/p*WttaiyiМВёЗШ ground level |
deep) $ 201000 (2 hot wells 40 m deep |
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X Ы |
2. Total heat capacity |
MJ/K |
|||
H CO |
3. Containment present |
: aquitard clay |
YES/WO |
Containment |
UA |
ЕЯ w |
material |
: 1.71 W/mK |
|||
о 2 |
4* Insulation present |
; 10 m thickness |
YES/NO |
Insulation no cost |
UA |
о н сл |
position insulation |
: above and below |
aquifer |
||
material : cla* total volume insulation material; |
3 m |
150’000 $ 100f000 $ |
cold hot |
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5. Heat exchanger present |
• |
YES/WO |
Heat exchanger) f |
UA |
|
heat exchange rate (theor./exp.): |
И/К |
Miscellaneous ] |
UA+ |
||
6* Annual performance (theor./exp*); |
(%) |
Total system |
UA |
||
DATA OF TOTAL SYSTEM |
|||||
Hie number of heat consumers in the entire system: buildinq 4- 1. Heat consumption system: space heating/domestic hot water/tMMUb cooling |
|||||
X W Н ся >* ся |
space heat load* cooling load hot water load* |
: 1 TJ : 10 TJ : 0.4 TJ |
m -МЄГ |
||
3 |
total load* |
: |
MJ |
||
н о н |
total system load* |
: 11.4 TJ |
<№ |
– total length
– heat loss rate Total cost
5. Auxiliary heating:
– type
– power installed Total cost
6. Electrical power for pumps Total power installed
7. Total cost
– solar heating system
– conventional heating system
ANNUAL ENERGY FLOWS IN TOTAL SYSTEM: THEORETICAL/B^8ft№M®K№tf0 Results axe given for this location TORONTO – Ontario Latitude: 43°471N Longitude: 79°15’W [15] [16] [17]
Climatological data for location |
|||
– global irradiation |
5019 |
MJ/m2 ( 1390 kWh/m2) |
|
– number of degree days |
4000 |
; temperature below 18 °С |
|
1. Total system load |
MJ |
||
2. Total solar contribution |
6 2.2 10 |
mj ( имшімашіа) |
|
2 idem per m collector |
3000 |
MJ (833 kWh/m2) |
|
3. Total auxiliary heating |
MJ |
||
4. Total electricity consumption |
kWh |
PRIMARY ENERGY SAVED |
GEODETIC ELEVATION – mtlre» |
REFERENCES /56, 58/
CONTACT:
E. L. MOROFSKY
Public Works Canada
Energy Technology
Sir Charles Tupper Building C 456
OTTAWA, Ontario K1A 0M2
Canada
0 TITLE: TRANAS AQUIFER THERMAL |
ENERGY STORAGE |
PERIOD: 1982 |
||
5 |
MAIN S’OBJECTS OF RESEARCH: |
|||
< |
– storage material: |
YES/fWM |
||
– storage system : |
YES /Ш |
№ ютмМКШМКМРММ ЛйИМ« кш |
||
– total system : |
YES /Ш |
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1. Material |
: sandy gravel on |
bedrock |
||
2. Density |
: 2200 |
kg/m3 |
{saturated soil) |
|
< |
3. Specific heat |
: 1700 |
J/kg К |
|
4. Mean heat capacity |
: 3.7 |
MJ/m3 К |
{ x water) |
|
< E |
5. Thermal conductivity |
: 2.7 |
W/m К |
|
1 |
6. Permeability |
= 10-10 |
2 m |
|
7. Operating temperature interval: 5 – 18 |
eC |
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Іп |
8. Price |
: 10 SEN |
UA/m3 |
|
Properties at temperature |
• 20 |
°С |
||
STORAGE CONTAINER AND COMPONENT PERFORMANCE |
COST (incl. cost |
|||
for labour) |
||||
1. Storage volume |
6 : 1.6 10 |
3 m |
Storage 4.4 MSEK UA |
|
shape |
: about 250 x 650 |
x 10 |
||
position: ШЬЖ«КЬе1оЧ0рии! Ш^нЬ|«)Ш ground level |
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2: |
2. Total heat capacity |
b : 6 10 |
MJ/K |
|
Іл |
3. Containment present |
W«te/NO |
Containment UA |
|
LC |
material |
|||
< |
4. Insulation present |
RWP/NC |
Insulation UA |
|
position insulation |
||||
material |
||||
total volume insulation material: |
3 m |
|||
5* Heat exchanger present |
: |
YES/NC |
Heat exchanger 1.2 МЗЕШ |
|
heat exchange rate (theor./exp.): |
W/K |
Miscellaneous 4.0 MSEKJttl+ |
||
6. Annual performance (theor |
./esep.): 60/- |
{%) |
Total system 9.6 MSEltfft |
|
DATA OF TOTAL SYSTEM |
||||
The number of heat consumers |
in the entire system: The entire system is a part of a district heating system with 6000 space heating/domestic hot water/both dwellings |
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1, Heat consumption system: |
||||
space heat load* |
: |
MJ |
||
to >- CO |
hot water load* |
: |
MJ |
|
< |
total load* |
: |
MJ |
|
H Q H |
total system load* |
: |
MJ |
|
* per heat consumer per year |
• |
REFERENCE /37/
CONTACT:
H. HYDEN VBB AB Box 5038
S – 102 41 STOCKHOLM
– 1 Jb – |
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SUMMARY SHEET: SEASONAL HEAT STORAGE |
AQUIFER/6 |
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TITLE: KLIPPAN AQUIFER THERMAL |
ENERGY STORAGE |
PERIOD: 1982 |
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3 |
MAIN SUBJECTS OF RESEARCH: |
|||||
< |
— |
storage material: |
YES/Ш |
theoreticA^jfmwwi(rtmmNiiw№ |
||
– |
storage system : |
YES/tNtH |
t h e о г e t і с a 1 / ІЙИДОЙ И ШМ ШШН |
|||
– |
total system : |
YES/MtB |
th е о г е t і с а 1 / шрщ И ШёН IW4MM |
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1. |
Material |
і sandy gravel |
on bedrock |
|||
2. |
Density |
: 2200 |
kg/m3 |
|||
< |
3. |
Specific heat |
: 1700 |
J/kg К |
||
4. |
Mean heat capacity |
: 3.74 |
MJ/m3 к |
( x water) |
||
< Г |
5. |
dermal conductivity |
: 2.7 |
W/m К |
||
, -10 |
2 |
|||||
І |
6. |
Permeability |
: 3.10 |
a |
||
7. |
Operating temperature interval: 5 – – |
18 °С |
||||
І/ї |
8. |
Price |
: 15 |
SEK ИА/m3 |
||
Properties at temperature |
: 20 |
°С |
||||
STORAGE CONTAINER AND COMPONENT PERFORMANCE |
COST (incl. cost |
|||||
for labour) |
||||||
1. |
Storage volume |
6 : V 1 10 |
3 m |
Storage 12.5 MSEK |
UA |
|
shape |
: 350 x 800 x |
4 |
||||
position: *ШЮё/Ье1о«/1^йШдамШШММground |
level |
|||||
Г |
2. |
Total heat capacity |
6 : 4 10 |
MJ/K |
||
■л |
3. |
Containment present |
W/w |
Containment |
UA |
|
v: |
material |
|||||
< |
4. |
Insulation present |
Ш/Ж) |
Insulation |
UA |
|
р |
position insulation |
|||||
material |
||||||
total voltrae insulation material: |
3 m |
|||||
5 |
Heat exchanger present |
: |
YZS/m |
Heat exchanger 1.5 |
msek m |
|
heat exchange rate (theor./exp.): |
W/K |
Miscellaneous 1.0 MSEkMW-H |
||||
6. |
Annual performance (theor |
60/- |
(%} |
Total system 15.0 |
msek m |
|
DATA OF TOTAL SYSTEM |
||||||
The number of heat consumers |
in the entire system: Tbe system will be connected district heating system with space heating/domestic hot water/both dwel |
to a 3000 lings |
||||
1. |
Heat consumption system: |
|||||
space heat load* |
MJ |
|||||
LC > т |
hot water load* |
MJ |
||||
total load* |
MJ |
|||||
кч |
||||||
total syst«t load* |
MJ |
|||||
* |
per heat consumer per year |
REFERENCES
/36, 37/ CONTACT
L. LEMMEKE VBB AB
Geijersgatan 8 S – 216 18 MALMO