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(1)

EN 15232:2012

(2)
(3)

1

... 5

1.1

,

... 5

1.2

«

»; ... 6

2

:

... 7

2.1

CO

2

... 7

2.2

... 8

2.3

... 8

2.4

... 9

2.5

Siemens BT

... 11

3

... 13

3.1

... 13

3.2

EN 15232 ... 17

3.3

eu.bac ... 19

3.4

... 19

4

EN 15232

... 20

4.1

... 23

4.2

... 60

4.2.1

BAC

... 72

4.3

BACS

TBM

... 74

4.3.1

... 74

4.3.2

BACS

(

BACS) ... 77

4.4

BACS... 84

4.4.1

BACS

... 85

4.4.2

BACS

... 86

4.4.3

BAC ... 87

4.4.4

... 88

4.5

BACS... 89

4.5.1

BACS

. 90

4.5.2

AC

... 91

4.5.3

... 92

4.6

BACS

EMS ... 92

5

eu.bac ... 101

5.1

eu.bac ... 101

5.2

eu.bac Cert ... 104

6

Siemens ... 106

6.1

... 106

6.1.1

Desigo ... 106

6.1.2

Synco –

... 111

6.1.3

GAMMA –

... 113

(4)

6.2

... 115

6.2.1

Energy Performance Classification (EPC) tool... 115

6.2.2

Energy Efficiency Calculation (EEC) tool ... 116

6.3

Services ... 117

6.3.1

... 117

6.3.2

... 118

7

... 124

7.1

... 125

7.2

... 126

7.2.1

... 126

7.3

... 127

8

... 128

8.1

... 128

8.2

... 129

(5)

1

Siemens Building Technologies

(Siemens BT)

.

1.1

,

-,

,

.

EN 15232: 2012

«

»

eu.bac (European Building Automation Controls Association).

.

-,

-,

.

,

Siemens,

EN 15232.

-,

CO

2

.

(6)

1.2

«

»;

,

,

.

«

»

(EPBD),

-:

(

)

:

Prof. Dr. Ing. Rainer Hirschberg, FH Aachen; Germany

:

*

,

,

-,

,

(

)

.,

.

,

.

(

:

,

)

,

.

.

,

,

(energy pass)

.

EN

-.

//

(7)

2

:

,

.

2.1

CO

2

,

.

-,

,

.

CO

2

-.

1970

.

CO

2

:

.

(8)

-,

,

,

,

,

(

):

2007

.

2.2

41%

.

85%

15%

,

).

,

35%

6%

.

.

2.3

-:

,

CO

2

.

«

2.000 Watt»,

-,

.

28%

41%

31%

(9)

«CO

2

in CH: The

2.000 Watt society»,

Novatlantis,

.

: Novatlantis – Sustainability within the ETH

1945

2000.

(1973)

(1975).

,

.

,

,

,

,

.

,

,

.

,

2.000 Watt

.

2.4

-,

.

-,

.

BAC

A.

,

-,

.

,

,

,

,

-.

-,

.

(10)

,

-,

.

.

:

(

-,

)

(

-,

)

Minergie,

,

.

CO

2

.

,

,

-:

,

: Novatlantis –

ETH

,

,

.

(11)

.

.

,

,

,

,

.

,

«

»

.

Rainer Hirschberg, FH Aachen,

920

TWh (

)

.

(

60%)

,

-.

(

EN 15232)

20%

-,

110 TWh

-,

,

12%.

2020

.

,

,

.

,

20%

2020.

2.5

Siemens BT

Siemens

.

, Siemens

-.

100

.

– Siemens

6.000

.

1.900

1994.

1,5

.

CO

2

:

2,45

.

CO

2

.

700.000

805.000

,

20.000

.

eu.bac (European Building Automation and Controls Association)

-.

Siemens

-.

,

.

eu.bac

-.

Siemens

GreenBuilding

-,

Siemens

(12)

.

, Siemens BT

25%

.

Siemens

LEED (Leadership in

En-ergy and Environmental Design),

GreenBuilding. LEED

-,

-.

,

-,

-,

-.

,

-,

.

Siemens

-,

-.

-,

.

,

,

-,

«Business for climate

change».

40

,

-.

Siemens

,

-.

Siemens BT

BAC

TBM –

-.

, Siemens BT

(performance contracting).

(13)

3

,

.

3.1

,

70%

2020/2030.

94%

CO

2

.

.

.

:

,

-

:

BFE Overall energy statistics for 2006

-

:

Zwölferspiel,

Dr. Daniele Ganser,

www.histsem.unibas.ch/peak-oil

(14)

:

:

Association for the Study for Peak Oil (ASPO).

www.peakoil.ch

,

...

2020,

:

20%

1990·

20%

1990·

20%

.

2020: «20 20

20»

/

;

(15)

:

-.

,

(EPBD)

2002.

-,

4

2006.

,

,

-.

:

)

-)

)

(>1000

.),

)

)

,

,

,

15

(

1

EPBD)

EPBD

Energy Performance of

Building Directive –

EPBD

:

2006

(16)

EPBD:

EPBD,

«

-»,

CEN

(Comitée Européen de Normalisation – European committee for standardization)

-.

TCs (Technical Commitée)

CEN

(EN).

prCEN/TR 15615 («

EPBD –

»).

,

-,

.

,

,

:

EN 15316-1

EN 15316-4

EN 15243

EN 15316-3

EN 15241

EN 15193

3 «

» EPBD

(

EPBD).

,

Siemens–

CEN

-.

CEN/TC247 (

)

,

-:

EN 15232

:

CEN/TC247

(BACS),

:

(HVAC) (

. EN 15500)

EPBD

BACS (EN ISO 16484-3)

BACS

BACS (

. EN ISO 16484-5)

BACS

(EN ISO 16484-7)

BAC (EN 15232)

:

BACS

-CEN/TC 247

(17)

CEN

.

CEN TC247

EN 15232

BACS

(

. EN 15500)

eu.bac

-.

CEN

EPBD

eu.bac

EN

3.2

EN 15232

EN15232: «

,

»

CEN (Comité Européen de Normalisation –

-)

,

-.

(EPBD)

.

EN 15232

(BACS)

(TBM)

-,

. Siemens Building Technology

.

(BACS),

(TBM),

.

BACS

,

-,

,

,

.,

-.

-,

,

CO

2

.

(BM)

,

EN 15232

EPBD

(18)

,

-.

EN 15232: «

,

»

BACS

TBM

,

.

:

,

,

·

,

,

.

·

.

EN

15232

(19)

3.3

eu.bac

eu.bac Cert

eu.bac

-,

EN 45000.

eu.bac Cert

EN/ISO

.

eu.bac.

3.4

EN 15232

-.

,

EN 15232.

-.

EN

15232,

.

EN 15500: «

HVAC –

»

eu.bac.

-,

.

CEN

TC247: EN 15232 «

(20)

4

EN 15232

EN 15232

.

-.

-.

-,

, , C D.

BAC

TBM

-.

,

.

-:

:

prCEN/TR 15615:2007

:

EPBD («

»)

:

,

,

,

.

,

Renewable Energy (R.E.) generated energy 1 3 4 7 9 8 building part system part

passive solar heating; passive cooling; natural ventilation; daylight 5 6 2 Trans- form-ation Trans- form-ation Primary energy Trans- form-ation Primary or CO2savings for generated energy R.E. contribution in primary or CO2 terms CO2 emissions internal gains system losses Electricity for other uses Electricity for other uses

(21)

:

[1]

,

-,

.,

-.

[2]

«

»

,

,

,

.,

(

,

,

.).

[3]

,

[1]

[2]

-.

[4]

,

,

,

,

,

-.

(kg, m³, kWh

.).

[5]

,

-.

[6]

,

.

[5].

[7]

CO

2

.

[8]

-,

[7].

[9]

CO

2

[7].

,

-.

-.

,

-,

.

,

.

,

,

[7],

CO

2

.

,

.

(22)

BAC

EN 15232

,

:

.

HVAC

-,

,

,

.

,

.

4.1

4.2

.

,

.

(23)

4.1

EN 15232.

,

,

.

:

EN 15232:2012.

EN 15232.

5

:

1

3

EN 15232:2012

1

BACS

TB

2

3

4

5

Siemens BT

4

Siemens Building

Technologies

EN15232 (BT =

Siemens BT).

5

.

1 2

4 5

1 2

4 5

1 2 3

4 5

:

EN 15232

:

Siemens BT

(24)

Siemens

EN 15232:2012.

1.

«

»

(

.

,

,

VAV)

(

.

,

,

-).

,

BAC.

2.

Siemens

EN 15232:

.

.

,

-.

3.

-,

.

4.

(

) =

,

.

Pre-Comfort

Comfort

,

(

EN 15500).

:

«

-».

«

-»,

«

»

«

».

:

(

-)

-.

Siemens

(25)

1 BT 1.1 1 1 -. 0 , -. 1 . , , EN 12098-1 EN 12098-3. ( . ). , -. 2 - 2 (= -). ( , , , ). . : ( -, ). 3 BACS ( . ) 3 : ... . . 4 BACS: . 4 . : . ( ) .

(26)

Siemens

EN 15232:2012.

5.

TABS

-:

- TABS

-

TABS

,

,

.

6.

,

).

(

).

7.

.

-.

.

Siemens

(27)

1 BT 1.2 TABS 5 0 TABS, . 1 TABS ( -) -, . 24 . 6 ( ). , . 2 TABS, : – TABS : ( ). « » TABS , -, -, . – TABS : ( -). « » TABS , -, -. – TABS : , ( ). 7 ( ). , . ( . ) . , ( . – ). ( ), ( ) . ( -). 3 -: ) -. 2 : , – 6 on/off– , 24 on/off. TABS , 24 on/off . ) -. 2, : -, . TABS -, , TABS. -. ) -. ) -. , . ) -, -. ( -) , , , , .

(28)

Siemens

EN 15232:2012.

8.

p:

(

.

)

-.

.

,

-.

Siemens

(29)

1 B T 1.3 ( ) . 0 , -. 1 . -). -. 2 . . (= ). ( , , , ). ( ). 1.4 -. 0 , -. 1 on/off . – . ( ). 2 . . 3 p -, -. 8 ) p: -. -, . ) p: . , -. 1.5 -. 0 , . 1 -. 2 -. -. 3 . .

Comfort, PreComfort, Economy, Protection.

(30)

Siemens

EN 15232:2012

9.

(Coefficient of Performance – COP)

(Seasonal Energy Efficiency

Ratio – SEER)

-.

10.

Siemens

EN 15232:

-).

Siemens

(31)

1 BT 1.6 , , -. 0 -, . 1 ( -), . 2 : . . -, . 1.7 , , . 9 0 ( -), COP. 1 -, COP ). 2 : . . ( ) -. 1.8 ( ) -. 0 1 10 . 2 - ( . 1 : 2 : 4 .) , 3 , ( . , , , ). -, ( . , , , ).

(32)

Siemens

EN 15232:2012.

1.

,

-,

.

-.

2.

-.

Siemens

(33)

2 B T Term: : -. -: 2 . : ( ), , , , CHP. : -: : on/off -. . : -. -. 1 2.1 -0 on/off . 1 on/off -, ( ). -, , . 2 on/off -, . , . 2.2 0 on/off . 1 on/off - 2 , ( ). -, , . 2 on/off, -. -. ( . -), : -. 3 on/off, -, , . , . . -, -.

(34)

Siemens

EN 15232:2012

3.

,

-.

4.

-.

.

Siemens

(35)

2 BT 2.3 : -0 on/off . -. 1 on/off 3 , -. . -. , , . 2 on/off , -4 -. . . ), : . 3 , , -. , . . , .

(36)

Siemens

EN 15232:2012.

5.

.

,

-.

Siemens

(37)

2 BT 2.4 - 2 . 0 . : 1 ( 1) , . -, -. 2 ( 1) -. -, . -, . , -. 3 ( 1) -, , -. -, . -. , . -. , . 2.5 , on/off 0 5 , -, -. 1 . 2 ( . open/close tap) . -. ( , , ) .

(38)

Siemens

EN 15232:2012.

1.

«

»

(

.

,

,

VAV)

(

.

,

,

).

,

-,

BAC

2.

Siemens

EN 15232:

.

.

«

».

3.

-,

,

.

4.

(

) =

.

Pre-Comfort

Comfort

(

. EN 15500).

:

«

-».

«

»,

«

»

«

».

Siemens

(39)

3

BT 3.1 1 1, -. 0 , . 1 -. , , EN 12098-1 EN 12098-3. ( ). , -. 2 2 (= ). ( , , , ). -, . 3 BACS ( . ) 3 . : . . 4 BACS. -. 4 . : -. ( ) -.

(40)

Siemens

EN 15232:2012.

5.

TABS

:

- TABS

.

- TABS

.

.

6.

,

(

,

-,

).

7.

.

-.

,

.

Siemens

(41)

3 BT 3.2 TABS 5 0 : TABS, -. 1 TABS ( ) , -, . 24 . 6 ( -). , . 2 : TABS : – TABS : ( ). « » TABS , , , . – TABS : ( -). « » TABS , , . – TABS : , ). 7 ( ). -, . ( . -), . ( . ). ( ), ( ) . , ( ). 3 : ) -. 2 -: -, – on/off 6 – on/off 24 . TABS , on/off 24 -. ) . 2, : , -. , ( . , , -). -. , , -,

-.

(42)

. TABS , – -ABS. .

Siemens

EN 15232:2012.

8.

(

.

split units

).

9.

.

p:

(

.

)

-.

,

-.

,

-.

Siemens

(43)

3 BT 3.3 ( -) . 8 0 , -, -. 1 ( ), . 2 . . , , . (= ( ). -, , , ). ( ). 3.4 -. 0 , -. 1 On/off – . ( ). 2 -. 3 p 9 ) p: -. , ) p: . , -. 3.5 . 0 , . 1 . 2 -. 3 .

(Comfort, PreComfort, Economy, Protection).

(44)

Siemens

EN 15232:2012.

10.

.

.

,

-.

11.

Siemens

-15232:

(

).

Siemens

(45)

3 BT 3.6 10 . 0 : . . -. 1 ( HVAC) . , , HVAC : – – , -, ) ( ). ( ), -. 2 . : ( . ) -. HVAC : – – -, , ( ) ( ). ( ), -. 3.7 , , 0 -, . 1 ( -), . 2 -: -, -. 3.8 ( ) -. 0 1 11 . 2 ( . 1 : 2 : 4 .)

(46)

, . 3 -, ( . , , -, ). , ( . , , , ).

Siemens

EN 15232:2012.

1.

.

:

EN 15232,

«

»

»

.

2.

(

.

,

)

.

. ’

(

4.2

3).

3.

0

2

-.

2.

3

.

4.

(

).

Siemens

(47)

4 BT 4.1 1 2 . 0 ( . ) , . 1 -, . 2 ( , .). . -. 3 ( .

CO

2, VOC). . , , -. 4.2 3 . 0 -, . 1 on/off -, . 2 -. 3 , -: . -. -, . 4.3 . 4 0 . , -, . 1 , -, . .

(48)

Siemens

EN 15232:2012.

5.

.

6.

,

-,

.

).

,

.

Siemens

(49)

4 BT 4.4 ( -) 5 0 . 100% , . 1 , « » » . -. 4.5 6 0 -, -. 1 : 1) -. 2) -. , -. (passive cooling): , , , -. 2 Free cooling . . : /Maximum Economy Changeover (MECH): -. : ( ). ( ) -. 3 H,x-directed control . ( ). /Maximum Economy Changeover (MECH): , .

(50)

Siemens

EN 15232:2012.

7.

,

»,

.

,

.

,

-.

8.

95%,

.

-.

,

.

,

-.

-,

.

,

-

-.

9.

,

-.

,

-.

,

.

Siemens

(51)

4 BT 4.6 7 0 -. . -, . 1 -. -. -. , , , . -. 2 . ( . ). ( -). . -. 3 -. -. -. cascading: -. : -. , , -. : HVAC . ), HVAC . 4.7 . » « ». 0 -. -. 1 -. 8 , -. 2 . -. 9 , .

(52)

Siemens

EN 15232:2012.

1.

.

,

,

-,

,

-.

,

,

-,

.

2.

On/Dimmed (Off)

On/

Off

,

-.

3.

[

:

On/Dimmed (Off)

On/Auto Off]

,

-.

Siemens

(53)

5 BT 5.1 -. 0 . . , -. , . . 1 + . , , , . 1 , ( . -). 2 On/Dimmed Off: ( 20% « » ) 5 -. , 5 , . On/ Off: 5 . On/Dimmed: ( ) , -, ( 20% « -» ) 5 -. , 5 . On/ Off: ( ) , , 5 . 2 On/Dimmed Off , , . , … 1. -2. 20% 3. 5 . On/ Off . , -, , 5 . On/Dimmed ... dimmed . . , ... 20% 5 . On/ Off … . . , 5 . 5.2 . , -. 0 . . , -. 1 5.1. 3 , .

(54)

Siemens

EN 15232:2012

1.

:

,

.

,

.

,

.

.

2.

,

,

(

. 5.2-1)

3.

,

:

,

.

.

.

Siemens

(55)

6 BT -: , -, . 1 0 . -. , . . 1 ( -). . , , -. -. 2 2 -. -, -. , . 3 /HVAC HVAC , 3 -).

(56)

Siemens

EN 15232:2012.

1.

,

.

-,

-.

2.

-:

-

,

-

-

.

Siemens

(57)

7 BT -. -, , -. – -. -, PI . -. . -, . – -, , -. -. , (alarm) ( -). 7.1 1 , -. -, . : ON. «Party» -. . . 7.2 , - 2 : -, -. , . -.

(58)

A.10.1

-:

A.10.2

.

:

)

,

.

-,

,

,

.

)

-.

.

)

,

-.

.

)

(

.

,

),

-.

-:

EN 15232

(59)

A.10.3

,

.

-.

:

)

)

EN 15603:2008,

7.

online

EN 15603:2008.

7.2.

,

.

-,

,

,

,

7.3.

-,

7.4.

-,

EN

15217.

)

.

EN 15603:2008

9.

,

,

,

,

EN 15603:2008, 9.2

9.3.

)

TBM

EN 15603:2008,

H.

)

.

-.

,

-.

,

-,

.

,

-,

.

(60)

4.2

EN 15232

BAC

(A, B, C, D).

:

A BACS TBM B BACS TBM C BACS , D BACS. . -. EN 15232 -.

A

B

C

D

(61)

11

:

1

11

EN 15232:2012

1

BACS

TB

2

3

4

7

BAC

.

.

B:

8

11

BAC

.

1 2

4

1 2

4

1 2 3

4

5 6 7 8 9 10 11 12

:

EN 15232

:

Siemens

-D C B A

(62)

Siemens

Siemens

EN 15232:2012.

1.1

«

»

,

,

VAV,

(

.

,

,

-).

,

BAC

.

2.

Siemens

,

EN 15232:

.

,

.

«

».

3.

-,

-.

4.

(

) =

-.

Pre-Comfort

Comfort

(

. EN 15500).

:

«

-».

«

»,

«

«

».

1.2

1.

,

(

).

(

).

2.

.

-.

.

1.4 3.

.

p:

(

.

)

-.

-.

,

.

1.7

(Coefficient of Performance – COP)

(Seasonal Energy Efficiency

Ra-tio – SEER)

,

-.

1.8 1.

Siemens

EN 15232:

-).

(63)

D C B A D C B A 1 1.1 · 1 . 0 1 2 3 4 1.2 TABS 0 1 2 3 1.3 ( ) . 0 1 2 1.4 . 0 1 On/off 2 3 1.5 . 0 1 2 3 1.6 0 1 2 1.7 0 1 2 1.8 0 1 2 3 .

(64)

Siemens

Siemens

EN 15232:2012.

,

,

-.

-.

1.

.

1.

,

-,

,

.

2.

.

-.

0.

,

-.

.

,

-.

2

2.2

2.3

2.5

(65)

D C B A D C B A 2 2.1 0 on/off 1 on/off 2 on/off -2.2 0 on/off 1 on/off 2 on/off, 3 on/off, , -2.3 : 0 on/off 1 on/off 2 on/off , -3 , , 2.4 0 1 ( 1) 2 ( 1) 3 ( 1) , , 2.5 , on/off 0 1 2

(66)

Siemens

Siemens

EN 15232:2012.

3.1

«

»

(

.

,

,

VAV)

(

.

,

,

).

,

BAC

.

1.

Siemens

,

EN 15232:

-.

-.

,

-.

«

».

3.

-,

-.

4.

(

) =

-.

Pre-Comfort

Comfort

(

. EN 15500).

-:

«

-».

«

»,

«

«

».

3.2 1.

,

·

,

,

).

2.

.

.

,

.

3.3

(

.

split units

).

3.4 3.

.

p:

(

.

)

.

,

-.

,

.

3.8 1.

Siemens

,

EN 15232:

(

).

(67)

D C B A D C B A 3 3.1 · 1, . 0 1 2 3 4 3.2 TABS 0 1 2 3 3.3 ( ) ( . , split units) . 0 1 2 3.4 . 0 1 On/off 2 3 3.5 . 0 1 2 / 3 3.6 0 1 ( HVAC) 2 3.7 . 0 1 2 3.8 0 1 2 3

(68)

Siemens

Siemens

EN 15232:2012.

4.1

.

:

EN 15232,

«

»

«

»

-.

4.1

(

.

,

)

.

,

-.

(

3,

4.2).

4.2

0

2

-.

4.1.

3

.

4.3

(

).

4.4

.

4.5

(

,

,

.

).

,

.

4.6

,

«

-»,

.

-,

.

-.

4.7 1.

95%,

.

.

-,

.

,

-.

,

.

,

-

.

2.

,

.

,

.

,

-.

(69)

D C B A D C B A 4 4.1 0 1 2 3 4.2 0 1 on/off 2 3 4.3 0 1 4.4 ( ) 0 1 4.5 0 1 2 Free cooling 3 H,x-directed control 4.6 0 1 2 3 4.7 0 1 2

(70)

Siemens

Siemens

EN 15232:2012.

1.

,

-.

,

,

.

(dimmable)

,

-,

.

2.

On/Dimmed (Off)

On/Auto Off

-,

-.

1.

[

:

On/Dimmed (Off)

On/Auto Off]

,

.

6

:

.

.

.

.

,

,

(

. 5.2-1).

3.

HVAC,

.

.

HVAC

-.

,

.

,

.

:

,

·

·

.

5.1

5.2

7.1

7.2

(71)

D C B A D C B A 5 5.1 0 1 + 2 5.2 0 1 6 0 1 2 3 /HVAC 7 7.1 0 1 7.2 , 0 1

(72)

4.2.1

BAC

,

.

,

.

:

BAC

B

1.

BAC

.

.

(

)

.

x

1 (

:

).

B,

BAC

-x

.

BT D C B A D C B A 9, 10 0 1 2

x

3 4 11 0 1

x

2 12 0

x

1 13 0

x

1 14 0 1

x

2 3 15 0 1

x

2 3 0 1 2 3

B

(73)

BACS

TBM

:

BACS

TBM

-.

,

,

.

-

BACS,

-.

-,

.

,

,

C.

-

BACS

TBM

4.2

-.

, BACS

TBM

(< 5%)

,

,

,

.

.

(74)

4.3

BACS

TBM

4.3.1

,

-.

(

)

,

.

: prCEN/TR 15615:2007

EPBD («

»).

-) CO2 BAC

(75)

4.1

-:

Automatic control , , EN 15316-2-1:2007, 7.2, 7.3, EN 15243:2007, 14.3.2.1 G EN 15316-2-1:2007, 6.5.1 EN ISO 13790 EN 15316-2-3:2007, EN 15243:2007 EN 15316-2-3:2007 EN ISO 13790:2008, 13.1 EN 15316-2-3:2007, EN 15243:2007 EN 15243:2007 EN 15316-4-1 to -6 (- . 7.4.6) EN 15243:2007 EN 15242, EN 13779 EN 15241 EN 15241

Free mechanical cooling EN ISO 13790

EN 15241 EN 15241 EN 15193 /HVAC ) EN ISO 13790

: , . -: -, .

, - EN 15603:2008

:

«

»,

.

HVAC.

,

EN 15217,

.

.

BAC

-,

-.

EN 15232

(76)

-,

,

(

BAC).

.

EN 15232 (

).

:

a

,

,

,

.

b

(

,

,

.). [CEN/TR 15615,

2]

BAC)

. EN 15232, 8)

BAC

b

b

. EN 15232, 7)

-

-a

a

BAC

BAC

(77)

4.3.2

BACS

(

BACS)

BACS

-.

2

.

(( ) . 1) , ( , -, .). a) = , , . b) = . c) , . d) .

BAC

BACS

TBM

A, B, C

D.

BACS

,

(

)

.

(78)

,

A, B, C

D

EN 15232.

BAC

BAC.

BAC

C = 1 (

= 100%):

BAC = BAC . / BAC C

BAC

EN 15232 (

:

4.4).

BAC

C

(

,

-),

BAC

:

BAC

.

=

BAC

C

*

-AC

. . = 100 * AC C (1 – BAC . ) [%]

BAC

TBM

.

,

BAC

-:

C

BAC

.

-,

C.

,

[%]

C

C

,

C (

.

-),

-.

kWh

C.

BAC,

kWh.

BAC A, B, C

D.

BAC

.

BAC

BAC

(79)

-4.3.3

.

,

EN 15232:

(

,

,

A, B, C, D)

(

)

BAC

D

D

C.

.

,

-.

HVAC

24

,

11

.

BAC

C (

)

.

.

.

.

(80)

C

,

1 K (

).

HVAC

.

BAC

B

B

,

.

-,

C.

BAC

A

A

,

BAC

TBM

-.

.

.

.

.

(81)

BAC

,

(

(82)
(83)

.

BAC

EN 15232

:

,

.

,

,

.

,

.

(84)

4.4

BACS

:

BACS.

BACS

C

1.

BACS

A, B, C D.

«

BACS» (

«

BACS»)

«

BACS

TBM».

BACS

TBM,

EN

15232,

.

:

,

EN 15217.

.

BAC

TBM,

EN 15232

.

BAC

TBM

BAC

TBM.

BAC

TBM

.

,

EN 15232,

BACS

TBM

-.

(85)

4.4.1

BACS

BAC

(

,

)

BACS

TBM.

C

1,

BACS

TBM.

-,

.

BACS

D

C

B

A

-)

-1,51 1 0,80 0,70 , 1,24 1 0,75 0,5 a ( ) 1,20 1 0,88 0,80 1,31 1 0,91 0,86 1,31 1 0,85 0,68 1,23 1 0,77 0,68 1,56 1 0,73 0,6 a : . 1 a .

BACS

D

C

B

A

) -1,10 1 0,88 0,81

(86)

4.4.2

BACS

EN 15232,

-.

BACS

(

)

BACS

TBM.

C

1,

BACS

TBM.

-,

.

BACS

D

C

B

A

) -1,10 1 0,93 0,87 1,06 1 0,94 0,89 ( ) 1,07 1 0,93 0,86 1,05 1 0,98 0,96 1,07 1 0,95 0,90 1,04 1 0,96 0,92 1,08 1 0,95 0,91 : . 1 BACS D C B A -) -1,08 1 0,93 0,92

(87)

4.4.3

BAC

BACS.

BACS:

.

BAC

D

C

B

A

) 1,51 1 0,80 0,70 , 1,24 1 0,75 0,5a ( ) 1,20 1 0,88 0,80 1,31 1 0,91 0,86 1,31 1 0,85 0,68 1,23 1 0,77 0,68 1,56 1 0,73 0,6a a .

(88)

4.4.4

BACS

BACS

TBM

(

70 .,

16 ., 5

).

C.

B.

BACS

C

B,

,

EN 15232,

:

106 kWh/

m2• a

133

80%

102 kWh/

m2• a

128

80%

76 kWh/

m2• a

81

93%

324.800 kWh

(5.600 m

2

).

. -1 kWh m2 • a 100 100 2 kWh m2 • a 33 28 C 3 1 2 kWh m2 • a 133 128 BACS C 4 1 1 BACS ( B) 5 0,80 0,80 ( B) 6 4 5 3 kWh m2 • a 106 102 . C 7a kWh m2 • a 14 12 21 7b 34 BACS C 8 1 1 1 1 BACS ( B) 9 0,93 0,93 0,93 0,93 ( B) 10 8 9 7 kWh m2 • a 13 11 20 32

(89)

4.5

BACS

BACS

,

,

.

:

,

(

)

,

.

BACS,

-.

BAC

-NH

Q

Q

H,loss

-

f

BACS,h

-

-

W

h,aux

f

BACS,el au NC

Q

Q

C,loss

-

f

BACS,c

-

-

W

c,aux

f

BACS,el au

-

-

W

V,aux

f

BACS,el au

-

-

W

light

f

BACS,el li

Q

DHW

-

-

f

BACS,DHW

(90)

4.5.1

BACS

BACS D C B A ( ) fBACS, h fBACS, c fBACS, h fBACS, c fBACS, h fBACS, c fBACS, h fBACS,c 1.44 1.57 1 1 0.79 0.80 0.70 0.57 , 1.22 1.32 1 1 0.73 0.94 0.3a 0.64 ( ) 1.20 – 1 1 0.88 – 0.80 – 1.31 – 1 1 0.91 – 0.86 – 1.17 1.76 1 1 0.85 0.79 0.61 0.76 1.21 1.39 1 1 0.76 0.94 0.69 0.6 1.56 1.59 1 1 0.71 0.85 0.46a 0.55 : . – – 1 1 – – – – a . BACS D C B A ( ) fBACS, h fBACS, c fBACS, h fBACS, c fBACS, h fBACS, c fBACS, h fBACS, c -1.09 – 1 – 0.88 – 0.81 –

(91)

4.5.2

AC

BAC

:

:

BAC

,

.

BACS D C B A ( )

fBACS,DHW fBACS,DHW fBACS,DHW fBACS,DHW

1.11 1.00 0.90 0.80 , ( ) : . BACS D C B A ( )

fBACS,DHW fBACS,DHW fBACS,DHW fBACS,DHW

(92)

4.5.3

BAC

-.

BACS D C B A ) fBACel-li f BACel-au fBACel-li f BACel-au

fBACel-li fBACel-au fBACel-li fBACel-au

1.1 1.15 1 1 0.85 0.86 0.72 0.72 , 1.1 1.11 1 1 0.88 0.88 0.76 0.78 ( ) 1.1 1.12 1 1 0.88 0.87 0.76 0.74 1.2 1.1 1 1 1 0.98 1 0.96 1.1 1.12 1 1 0.88 0.89 0.76 0.78 1.1 1.09 1 1 1 0.96 1 0.92 1.1 1.13 1 1 1 0.95 1 0.91 : . – – 1 1 – – – –

4.6

BACS

EMS

BACS

(Building Automation and Control System)

TBM (Technical

Building Management)

EMS (Energy Management System).

EMS

EN 16001

-.

EN 16001

,

,

.

BACS

EMS

EMS

.

BACS

,

EMS

.

:

15232:2012

E 16001

».

16001:2009

,

,

EN ISO 50001:2011.

(93)

No. EMS requirements according EN 16001 BACS for EMS in building E 1 3.1 General requirements

E 1.1 The organization shall:

a) establish, document, implement and maintain an en-ergy management system in accordance with the re-quirements of this standard;

b) define and document the scope and the boundaries of its energy management system;

c) determine and document how it will meet the require-ments of this standard in order to achieve continual im-provement of its energy efficiency.

Top management should generally note and consider the following when implementing an energy management system (EMS):

– BACS impact on energy efficiency of build-ings per to EN 15232.

– Application of BACS as the appropriate tool to simplify, maintain and improve the energy management process to achieve improved energy performance of and reduce energy consumption in buildings.

E 2 3.2 Energy policy

Top management shall establish, implement and main-tain an energy policy for the organization. This energy policy shall state the organization's commitment for achieving improved energy performance. Top manage-ment shall ensure that the energy policy:

a) defines the scope and boundaries of the energy man-agement system;

b) is appropriate to the nature and scale of, and impact on, the organization's energy use;

c) includes a commitment to continual improvement in energy efficiency;

d) includes a commitment to ensure the availability of information and of all necessary resources to achieve objectives and targets;

e) provides the framework for setting and reviewing en-ergy objectives and targets;

f) includes a commitment to comply with all applicable requirements relating to its energy aspects, whether le-gally required or agreed to by the organization; g) is documented, implemented, maintained and com-municated to all persons working for and on behalf of the organization;

h) is regularly reviewed and updated; i) is available to the public.

As part of an energy policy, top management tasks the organization as a whole to maintain and improve energy performance of buildings (existing buildings, modernized, new construc-tion):

Mandatory and specific BACS energy efficiency class (according to EN15232) for implementation and compliance.

Deploy only energy-efficient, certified products as BACS components.

Use BACS as a tool for EMS and as the docu-mentation and information system in support of the organization.

E 3

3.3 Planning

E 3.1 3.3.1 Identification and review of energy aspects

The organization shall conduct an initial review of its en-ergy aspects. The review of enen-ergy aspects shall be up-dated at predefined intervals. These reviews shall priori-tize significant energy aspects for further analysis. These reviews of energy aspects shall include the follow-ing:

a) past and present energy consumption and energy factors based on measurement and other data; b) identification of areas of significant energy

consump-The organization should consider the BACS op-tions that identify and review energy aspects for EMS in buildings, such as:

Specify and use BACS logs (data) on energy consumption including all parameters that im-pacting energy and review energy-relevant as-pects in buildings.

Specify BACS data to be recorded, stored and delivered, e.g.:

(94)

tion, in particular of significant changes in energy use during the last period;

c) an estimate of the expected energy consumption dur-ing the followdur-ing period;

d) identification of all persons working for and on behalf of the organization whose actions may lead to significant changes in energy consumption;

e) identification and prioritization of opportunities for im-proving energy efficiency.

The organization shall maintain a register of opportuni-ties for saving energy.

Each review shall be documented.

etc.).

Energy use for heating, air conditioning, lighting, etc.

Parameters that impact energy use (occupancy, operating hours, outdoor climate, user profiles, etc.)

Uses of BACS data assignment for 3.3.1 a), b), c), d) and e) must be determined.

E 3.2 3.3.2 Legal obligations and other requirements

The organization shall:

- identify and have access to the applicable legal re-quirements and other rere-quirements to which the organi-zation subscribes related to its energy aspects, - determine how these requirements apply to its energy aspects.

The organization shall ensure that these legal obligations and other requirements to which the organization sub-scribes are taken into account in the energy manage-ment system.

The organization should review whether BACS can be used to support the legal obligations and other requirements with regarding to EMS within buildings e.g.:

Compile legally mandated records on energy consumption, room conditions, etc.

E 3.3 3.3.3 Energy objectives, targets and program(s)

The organization shall establish, implement and maintain documented energy objectives and targets, at the rele-vant functions and levels within the organization. The objectives and targets shall be consistent with the energy policy, including the commitments to improvements in energy efficiency and to comply with applicable legal obligations and other requirements to which the organi-zation subscribes. The organiorgani-zation shall set specific targets for those controllable parameters that have a significant impact on energy efficiency. The energy objec-tives and target(s) shall be measurable and documented, and a time frame set for achievement. When establishing targets, the organization shall consider the significant energy aspects identified in the review as well as its technological options, its financial, operational and busi-ness conditions, legal requirements and the views of interested parties. The organization shall establish and maintain energy management programs which shall in-clude:

a) designation of responsibility;

b) the means and time frame by which individual targets are to be achieved.

The energy objectives, targets and program(s) shall be documented and be updated at pre-determined intervals.

The organization determines BACS objectives, targets and program that are consistent with the energy policy and the significant energy aspects of buildings, e.g.:

Energy saving targets to be achieved by applying BACS.

Apply BACS as tool support the EMS in achiev-ing and maintainachiev-ing its strategic and operative aims.

Apply BACS measuring criteria of the energy targets so that progress towards improved ener-gy efficiency of buildings can be measured.

Upgrade and adapt BACS as part of reconstruc-tion, modernizareconstruc-tion, change in use, etc. Ongoing upgrade to BACS program to reflect organizational changes (e.g. changing operation times, use times, occupancy, room conditions, etc.).

Continuously adjust and optimize BACS func-tions and program for energy saving, etc.

Review building performance on a continuous basis.

(95)

E 4

3.4 Implementation and operation

E 4.1 3.4.1 Resources, roles, responsibility and authority

Top management shall ensure the availability of re-sources essential to establish, implement, maintain and improve the energy management system. Resources include human resources, specialized skills, technology and financial resources.

Roles, responsibilities and authorities shall be defined, documented and communicated in order to facilitate ef-fective energy management.

The organization’s top management shall designate a management representative who, irrespective of other responsibilities, shall have defined roles, responsibility and authority for:

a) ensuring that an energy management system is estab-lished, implemented and maintained in accordance with this standard;

b) reporting on the performance of the energy manage-ment system to top managemanage-ment for their review, with recommendations for improvement.

The organization determines functions, tasks, roles, responsibilities, and priorities for using BACS to improve energy performance of build-ings as part of EMS, including:

Technology, functions, resources and priorities of BACS applications.

The resources, roles, authority and responsibility of the personnel at all BACS organizational lev-els.

The BACS applications to support reporting building performance to top management for review, etc.

E 4.2 3.4.2 Awareness, training and competence

The person designated in 3.4.1 shall be appropriately competent and qualified in energy and energy efficiency improvements.

The organization shall ensure that its employees and all persons working on its behalf are aware of:

a) the organization's energy policy and energy manage-ment programs;

b) the energy management system requirements, includ-ing the activities of the organization to control energy use and improve energy performance;

c) the impact, actual or potential, with respect to energy consumption, of their activities and how their

activities and behavior contribute to the achievement of energy objectives and targets;

d) their roles and responsibilities in achieving the re-quirements of the energy management system; e) the benefits of improved energy efficiency.

Personnel performing tasks which can cause significant impacts on energy consumption shall be competent on the basis of appropriate education, training and/or expe-rience. It is the responsibility of the organization to en-sure that such personnel are and remain competent. The organization shall identify training needs associated with the control of its significant energy aspects and the oper-ation of its energy management system.

The organization shall also ensure that each level of management is informed and appropriately trained in the field of energy management in order to be able to

estab-The organization ensures and verifies appropri-ate level of training and advanced education of employees responsible for BACS as well as en-suring they remain up-to-date. Specifically, this means personnel are informed on the latest BACS functionality, operation and energy saving options.

As a consequence, the organization identifies and determines:

BACS-specific requirements for awareness, knowledge, understanding, skills, e.g.: Energy saving functions and program Operation and maintenance procedures Adjustment and optimization procedures. Continuous performance reviews Etc.

The appropriate balance of education, training, experience, etc .to archive and maintain the BACS-specific requirements and its further de-velopment concerning awareness, knowledge, understanding and skills.

Review of BACS training program to guarantee that the persons responsible for BACS have the necessary competence for its tasks to support

(96)

lish pertinent objectives and targets and choose appro-priate energy management tools and methodologies.

EMS and to improve the energy efficiency in buildings.

E 4.3 3.4.3 Communication

The organization shall communicate internally with re-gard to its energy performance and the energy manage-ment system.

This shall ensure that all persons working for and on behalf of the organization can take an active part in the energy management and the improvement of the energy performance.

The organization shall decide whether to communicate externally about its energy management system and energy performance. If the decision is to communicate externally, the organization shall establish, implement and document an external communication plan.

The organization considers BACS options to achieve and maintain EMS communication re-quirements for buildings.

As a consequence, the organization specifies: Whether to communicate the relevant data on energy performance aspects, costs, savings etc. for buildings.

Preparation of data (anonymization, standardiz-ing, benchmarking).

Rules governing the flow of information of the relevant data at all levels within the internal or-ganization.

Rules governing the flow of relevant information to external person, organization, etc. if the deci-sion is made to communicate externally.

E 4.4 3.4.4 Energy management system documentation

The organization shall establish, implement and maintain information, in paper or electronic form, to:

a) describe the core elements of the energy manage-ment system and their interaction;

b) identify the location of related documentation including technical documentation.

The organization considers BACS support op-tions to achieve and maintain the documentation requirements of EMS for buildings.

As a consequence, the organization specifies: Development of BACS as the building's docu-mentation system for EMS.

Automated logging, archiving, storage, protec-tion, and proof of all relevant, building operation-al data.

Energy performance data (e.g.: key performance indicators – KPI; energy performance indicators - EPI = kWh/ m2, etc.),

Evaluation period, frequency of measurements, plausibility check, reproducibility, replacement value, change management.

E 4.5 3.4.5 Control of documents

The organization shall control records and other docu-ments required by this standard to ensure that: a) they are traceable and can be located;

b) they are periodically reviewed and revised as neces-sary;

c) the current versions are available at all relevant loca-tions;

d) the documents are kept and maintained in such a way that they are easily accessible and protected against damage, loss or destruction; their retention time shall be established and documented;

e) obsolete documents are retained for legal and/or knowledge preservation purposes and suitably identified, or removed as appropriate.

The organization considers and identifies BACS options to support the control of EMS documen-tation for buildings.

As a consequence, the organization determines logging and distribution of all EMS specifications and documented proof for the buildings:

Documents are available in electronic form. The document's originator is identifiable. The status of the document is clearly marked (e.g. current versions, no longer applicable, etc.). Develop the most expedient manner of making documents available to employees with a need to know.

References

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