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HTD/U TELECOM Unit
Packaged Air Conditioning Units for TELECOM Shelters
High Technology in Refrigeration Devices
GB
HTD/U --0--PD --GB -- 00 -- Prod uct Docume ntation
Index
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HTD/U--0--PD--GB--00 -- 05.10.2003
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*1%( .1% 6# #D$&00#4 7&'" ,6+$("-#((5 /)')+ 7&'" 0#+/1%#%' /13%#'( 1%4 +#-#;1%' (7&'."&%3 #-#.'+)%&.(< '"1' .1% 6# 4&+#.'-: 0)7#+#4 6: 1% #/#+3#%.: /1&%( 1' BQYMF )+ aBYMF9 =% '"&( .1(#< '"# 4. /)')+ #**&.&#%.: /1'."#( 7&'" '"# *1% #**&.&#%.:< '"$( +#1."&%3 )$'('1%4&%3 #%#+3: +#($-'( G);#+ B^_H9 !"# E+##.))-&%3 &% (&/$-'1%#)$( )0#+1'&)% .)%'+&6$'#( +#/1+216-: ') +#4$.# #%#+3: .)('( &% '"# +1%3# )* )$'#+ '#/0#+1'$+#( 6#'7##% '"# &%%#+ (#' 0)&%' 1%4 !E! G!)'1E+## ? F))-&%3 '#/0#+1'$+#H9
Emergency situations K-- $%&'( .1% 6# #D$&00#4 7&'" 4$1($00-:> /1&% ($00-: 1%4 ,MF5 ($00-:9
!"# ('1+'&%3 0+).#4$+# &( )0#+1'#4 6: 0+#((&%3 '"# 2#: ,X`5 )% '"# .)%'+)2#:6)1+49
" V1&%
Noise levels
" aBYMF
!"# $%&'( &%.-$4# '"##8.-$(&;#$(# )* ;#%'&-1'&)% ()-$'&)%(< *#1'$+#4 6: 1 -)7 #/&''#4 %)&(# -#;#- /12&%3 '"#(# .)%4&'&)%#+( .)/01'&6-# 7&'" .&': &%('1--1'&)%(9!"# ($00)+' ('+$.'$+#< '"# 01%#-( 1%4 '"# *1('#%&%3 (:('#/( 1+# 4#(&3%#4 ') +#4$.# ;&6+1'&)%( 1%4 '"#&+ '+1%(/&((&)% 1( -)7 *+#D$#%.: ()$%4 #/&((&)%( 1( /$." 1( 0)((&6-#9
Energy efficiency !"# "&3"#(' 0)((&6-# #%#+3: #**&.&#%.: "1( 6##% '"# /1&% '1+3#' &% '"# 7")-# '"#+/)??4:%1/&. 1%4 1#+1$-&. 4#(&3%&%39 !"# +#*+&3#+1'&%3 .&+.$&' &( *#1'$+#4 6: '"# $(# )* ,+)--&%3 0&(')%5 )+ ,C.+)--5 .)/0+#(()+( 7&'" ')0 +#-&16&-&': 1%4 G)0'&)%1-H 0)((&6&-&': )* +#0-1.&%3 '"# '+14&'&)%1- 7&'" 1% #-#.'+)%&.1--: ?? .)%'+)--#4 #-#.'+&. ;1-;#> '"&( 6+&%3( 1 +#4$.#4 #%#+3: .)%($/0'&)% 6: ^R_ 7"#% '"# )$'#+ '#/0#+1'$+# -)7#+( 6#-)7 aR!F 1%4< 16);# 1--< 7"#% '"# 4&+#.' *+##??.))-&%3 &( %)' 0)((&6-#9!"# 1#+1$-&. .&+.$&' &/0-&#( '"# $(# )* .#%'+&*$31- *1%( 7&'" 61.271+4 .$+;#4 6-14#(< *#1'$+#4 6: 1 ;#+: "&3" +#1.'&)% 4#3+##< &' &( '"$( 0)((&6-# ') +#/);# '"# (.+)-- 1%4 '"# +#-#;1%' #%#+3: -)((#( &% '"# 4:%1/&.??('1'&.1- .)%;#+(&)%J 1-- $(#4
($00-:> ?? F)/0+#(()+ ?? L#1'&%3 ?? F)%4#%(&%3 (#.'&)% *1% )+ BQYMF ($00-:> ?? #;10)+1'&%3 (#.'&)% *1% ?? V&.+)0+).#(()+ ?? M1/0#+ (#+;)/)')+
=% .1(# )* /1&%( *1&-$+#< 1 ;)-'13# 0+#(#%.# +#-1: (&3%1-( '"&( ') '"# ,/@5 .)%'+)- '"1'< ')3#'"#+ 7&'" '"# ;#%'&-1'&)% 1%4 E+##??F))-&%3 (#.'&)%< .)%'&%$#( ') 6# 0)7#+#4 6: 61.2??$0 61''#+&#(9 !"&( #%($+#( '"# 1&+??.)%4&'&)%&%3 .)%'+)- #;#% 7&'" 0)((&6-# &%%#+ '#/0#+1'$+# ;1+&1'&)%( *+)/ '"# (#'??0)&%' ;1-$#(9
Manufacturing features K-- #-#.'+&.< 1#+1$-&. 1%4 +#*+&3#+1'&%3 .)/0)%#%'( 1+# 1((#/6-#4 &%(&4# '"# /1."&%# .16&%#' 1%4 .1%%)' 6# 1..#((#4 *+)/ )$'(&4#< 7&'")$' +#/);&%3 '"# 01%#-(9 !"# /1."&%# "1( 1 /&%9 0+)'#.'&)% 4#3+## =@ BB 1%4 '"# 0+)'#.'&)% 3+&--#( )* '"# +)'1+: 01+'( .)/0-: 7&'" '"# 1..&4#%' 0+#;#%'&)% (#.'&)% )* '"# %)+/( Z` bRUU^J 1( )0'&)%< 1 *$+'"#+ 0+)'#.'&%3 3+&--# *)+ '"# .)%4#%(&%3 (#.'&)% *1% *+)%' &( 1;1&-16-#9
HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
Features and Fortes
Upgrading !"# (#+&#( &( 4#;#-)0#4 )% '"+## 4&/#%(&)%1- ,*+1/#(5 !"&( #%16-#( '"# $03+14&%3 )* '"# 61(&. +14&) ('1'&)%( 4$# ') '"#&/0-#/#%'1'&)% )* %#7'+1%(/&((&)% ('1%41+4(< 1%4 '"#+#*)+# ') '"# &%.+#1(#4 &%%#+ '"#+/1- -)149
Fig. 1
-- Service Area (top view)
r o o d t u O
m m 0 0 0 3
UNIT
UNIT
r o o d n I m m 0 0 0 1
200mm
Tab.1 -- Cables Sizes UNIT MODEL
MAINS POWER SUPPLY
CABLE TYPE
UPS EMERGENCY LINE
CABLE TYPE
aURY N P@" N ^RLI
a 8 b// a ] ! 8 b//a
BQYMF N aURYKF
a 8 a<^// a
BRRY N U@" ] ` N ^RLI
B 8 b// a ] ! 8 b//a
BQYMF N aURYKF
a 8 B
HTD/U 045 HTD/U 056 HTD/U 073 HTD/U 090 HTD/U 105 HTD/U 120 HTD/U 150 HTD/U 170
HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
3
Configuration DIGIT
Configuration DIGIT !"# %$/#+)$( .)%('+$.'&;# )0'&)%( /1: 6# (#-#.'#4 $(&%3 '"# .)%*&3$+1'&)% (."#/# &--$('+1'#46#-)79
H
T D 0
E1/&-:> !#-#.)/ O%&' ! # !"#$%&'( )%# *"+%!"#, *&-'-.#*$ ! $ !"#$%&'( )%# *"+%!"#, 30-.#*$
0 4
5
S#*+&3#+1'&%3 .101.&': ,2\ 8 PR5
1
Supply + (Auxiliary)
1
1 2
3 4
`)9 )* +#*+&3#+1'&%3 .&+.$&'(
Control
0
aURY N P@" N ^RLI aURY N P@" N ^RLI ] daBYMFe
2
aURY N P@" N ^RLI ] dBQYMFe
3
aURY N P@" N ^RLI ] daURY N P@" N ^RLIe
4
BRRY N U@" ] ` N ^RLI
5
BRRY N U@" ] ` N ^RLI ] daBYMFe
6
BRRY N U@" ] ` N ^RLI ] dBQYMFe
0
BRRY N U@" ] ` N ^RLI ] daURY N P@" N ^RLIe
KMYK`FZM d7&'")$' -).1- $(#+ &%'#+*1.#e
D
Refrigerating cycle options
4
Cabinet options
5
Electric re-- heating
6
7
8
9
10
11
Free--Cooling
Air filtration
Condensation control
Serial communication
Coils
Packaging
0
Special
SBRgF
1
SBRgF ] #-#.'+)%&. '"#+/1- #801%(&)% ;1-;#
2
Saa
3
Saa ] #-#.'+)%&. '"#+/1- #801%(&)% ;1-;#
E
@1&%'#4 31-;1%&I#4 ("##' SKTgRU^
0
L#1'#+( ?? `X
1
L#1'#+( ?? hZC
0
\&'")$' E+##??F))-&% 3
G
V)4$-1'&%3 E+##??F))-&%3 R??PRY
H
E+##??F))-&%3 7&'" (0+&%3 +#'$+%
0
ca E&-'#+ dC'1%41+4e
1
cU E&-'#+
2
cB E&-'#+
7
ca E&-'#+ ] F-)33#4 *&-'#+ (#%()+
8
cU E&-'#+ ] F-)33#4 *&-'#+ (#%()+
9
cB E&-'#+ ] F-)33#4 *&-'#+ (#%()+
0
`)%#
M
X% N X**
N
V)4$-1'&%3 *1% (0##4 d7&'" 0+#(($+# (#%()+e
0
`)%#
1 (*)
C#+&1- .1+4 SCaUa V)4#/
2
C#+&1- .1+4 SCBQ^
0
F)00#+ '$6#( N 1-$ *&%( dC'1%41+4e
C
Z0)8: .)1'#4 .)%4#%(#+ .)&-
E
Z0)8: .)1'#4 #;10)+1')+ .)&-
0
C'1%41+4 \))4#% .+1'# 7&'" .1+46)1+4
1
12
fKC=F KMYK`FZM d7&'" -).1- $(#+ &%'#+*1.#e
B
3
F)%*&3$+1'&)% M=c=!C
1
7
2
5 6 7 8 9 10 11 12
2
C#17)+'":
0
C'1%41+4
S
C0#.&1-
4
HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
Manufacturing Specifications
Manufacturing Specifications Structure !"# (#+&#( $%&'( 1+# 4#4&.1'#4 ') '"# &%4))+ $(# 7&'" '#/0#+1'$+#( +1%3&%3 6#'7##% iaR!F G$%4#+ .)%4#%(1'&)% .)%'+)-H 1%4 ]B^!F9 !"# #%'&+# &%%#+ ('+$.'$+# &( /14# $0 )* ")' #-#.'+)??31-;1%&I#4 ("##' 7&'" "&3" '"&.2%#((< 1%4 '"# )$'#+ 01%#-&%3 &( &% (/))'" ^RR^ 1-$/&%$/ 1--): )+< $0)% +#D$#('< &% 31-;1%&I#4 ("##' 01&%'#4 7&'" #0)8:?? 0)-:#('#+ 0)74#+( SKT 8888< );#%??.$+#4 1' PQR!F9 =* 01&%'#4< '"# .)-)$+ )* '"# $%&'( 4#0#%4( )% '"# .$(')/#+j( (0#.&*&.1'&)%( *)+ +#??)+4#+ 61'."#( )* /)+# '"1% aR 0&#.#(9 !"# &%%);1'&;# 3-)61- 4#(&3% )* '"# /1."&%# #%16-#( 1 .)/0-#'# *+)%' 1..#((&6&-&': 7"#+#1( '"# )$'('1%4&%3 0)((&6&-&': )* #8'+1.'&%3N*&''&%3 '"# 41/0#+ *+)/'"# *+)%' )**#+( '"# 4)$6-# ."1%.# )* $03+14&%3 )% (&'# )* '"# /1."&%#( )+&3&%1--: 7&'")$' '"# E+##?? F))-&%3 )0'&)%< 1%4 &' )**#+( '"# 1..#((&6&-&': ') '"# #;10)+1'&%3 .)&- 1%4') '"# .)%4#%(1'# .)--#.'&)% '+1:< '))9
Refrigerating circuit !"# +#*+&3#+1'&%3 .&+.$&' &( #%'&+#-: &% ")$(# /1%$*1.'$+#4< $(&%3 7#-4#+( .#+'&* 1..)+4&%3 ') '"# M&+#.'&;# @ZM kgNaU )% 0+#(($+&I#4 .)%'1&%#+(< 1%4 1-- +#-#;1%' .)/0)%#%'(1+# .#+'&* 1..)+4&%3 ') '"# (1/# 4&+#.'&;#9 !"# #8.-$(&;# +)'1+: )+ (.+)--??':0# $(#4 .)/0+#(()+( 1+# 1;1&-16-# &% '"# ;#+(&)% *)+ *-$&4( ':0# LEF GSBRgFJ SPUB1HJ *)+ '"# %)%?? ZZF .)$%'+&#( (&3%&%3 '"# V)%'+#1- @+)').)-< &% '"# ;#+(&)% 7&'" LFEF Saa9
)$'(&4# &% '"# ;#+(&)%( 7&'" (&%3-#??0"1(# +)'1+: .)/0+#(()+N(9 !"# .&+.$&' &( .)/0-#'#4 7&'" 1%'&??1.&4 4+:#+ *&-'#+ 7&'" /)-#.$-1+ (&#;#< 1 *-)7 &%4&.1')+ 1%4 0+#(($+# &%'12#( *)+ '"# /1&%'#%1%.# 1%4N)+ &%(0#.'&)% )0#+1'&)%(9
HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
Recirculation air filtration
Evaporating fan section
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`FZM /&.+)0+).#(()+9 !"#+#*)+#< &' &( 0)((&6-# ') 0&-)' 4&+#.'-: '"# +)'1'&%3 (0##4 ($&'&%3 &' ') '"# 4&**#+#%' )0#+1'&%3 .)%4&'&)%(< ($." 1(> 4#?? "$/&4&*&.1'&)%< #%#+3: (1;&%3< #'.9
Finned pack evaporator
!"# /1."&%# ('1%41+4 #D$&0/#%' &%.-$4#( 1 '"#+/)('1'&. -1/&%1'&)% ;1-;# 1%4 1 ;1.$$/ ('1+' 4#;&.#> '"&( 4#;&.# &( #%.-)(#4 &% '"# C.+)-- .)/0+#(()+ )+ &(
."#.2#4 1%4 .1% 6# +#/);#4 *+)/ '"# $%&' *+)%' *)+ .-#1%&%3 )+ +#0-1.&%39
\&'" &'( 4&/#%(&)%( a^8aP9b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
!"# *&-'#+ &( -).1'#4 $0('+#1/ L!M G4)7%('+#1/ L!OH '"# .)%4#%(&%3 .)&1%4 .1% 6# #1(&-: #8'+1.'#4 6: +#/);&%3 '"# *+)%' 01%#- 4#4&.1'#4 ') '"# *&-'#+N41/0#+ (#.'&)%9 !"1%2( ') &'( 0)(&'&)%< &' *&-'#+( 6)'" '"# +#.&+.$-1'&)%1%4 '"#*+#("1&+ &% .1(# )* E+##?? F))-&%3> &% '"# -1''#+ .1(#< )% '"# *+#(" 1&+ #[#.'&)% (#.'&)%< 1 /#'1- *&-'#+ 0+#;#%'( '"# %#('&%3 &%(&4# '"# .)%'1&%#+ )* (/1-- 1%&/1-( )+ &%(#.'(9 !"# 71("16-# (:%'"#'&.??':0# *&6#+ *&-'#+< 7&'" #**&.&#%.: ZOa< &( &%('1--#4 &% 1 31-;1%&I#4 ("##' *+1/# *)+ 1% #1(: /1&%'#%1%.#9
Condensing fan section K-- $(#4 B??0)-# /)')+( -&/&' '"# ()$%4 #/&((&)%(< 1%4 1+# )$'#+ +)')+ ':0# ') &/0+);# '"# #%#+3: #**&.&#%.: 1%4 +#4$.# '"# /13%#'&. %)&(#9
Condenser with finned pack \&'" 3#)/#'+: a^8aP9b^ 1%4 1 UNQ5 0&0# &' &( .)/0)(#4 )* R9PR?? // '"&.2 1-$/&%$/ *&%( 1%4 .)00#+ 0&0#( #801%4#4 )% '"# (1/# *)+ 1 .)/0-#'# .)%'1.'9 !"# 4#(&3% .+&'#+&1 0+&;&-#3#( '"# *+)%' (#.'&)% 7&'" '"# 14;1%'13# )* +#4$.#4 -)((#( )% '"# 1&+ (&4#< () '"1' &' &( 0)((&6-# ') $(# b?? 0)-# *1%( 7&'" /&%&/&I#4 #/&''#4 ()$%4 0)7#+9 !"# .)%4#%(&%3 .)&- .1% 6# #D$&00#4 7&'" 1 /#'1- *&-'#+ '"1' .1% 6# #1(&-: +#/);#4 *+)/ )%#)* '"#/1."&%# (&4#(>'"&( 4)$6-#
5
Manufacturing Specifications
Electric board
Packing !"# $%&'( 1+# 01.2#4 )% 7))4#% 01--#' 7&'" 1%'&??(").2 .1+46)1+4 1%3-#( 1%4 $00#+ 0+)'#.'&)% &% .1+46)1+4N0)-:(':+#%#9 =% '"# #%4< '"# 7")-# 01.2&%3 &( 7+100#4 7&'" 0+)'#.'&)% '+1%(01+#%' 0)-:'"#%# *&-/9
1..#(( #%16-#( '"# /1&%'#%1%.# #;#% &% .1(# )* 4)$6-# &%('1--1'&)% )% '"# .)%'1&%#+ 71--9 K (0#.&1- *-1' /#'1--&. 0+#*&-'#+ 0+)'#.'( '"# .)%4#%(&%3 .)&131&%(' 4&+'> '"# 0+#*&-'#+ .1% 6# #1(-: ."#.2#4 1%4 .1% 6# +#/);#4 *+)/ '"# $%&' *+)%' *)+ .-#1%&%3 )+ +#0-1.&%39
Application field
=' &( -).1'#4 &% 1 (#01+1'# .16&%#' "&44#% )% '"# *+)%' (&4# 6: '"# +#.&+.$-1'&)% 1&+ 6#*)+# &' &( .))-#4 6: '"# #;10)+1'&%3 .)&-> '"&( 1(0#.' &( #8'+#/#-: &/0)+'1%' *)+ 6)'" '"# .)/0)%#%' .))-&%3 1%4< 1' '"# (1/# '&/#< *)+ 0+#;#%'&%3 '"# .)%4#%(1'&)% )% '"# 6)'')/ (&4# )* '"# 6)1+49 K-- )%?? 6)1+4 (:('#/( .)/0-: 7&'" '"# ZZF M&+#.'&;# ,T)7 '#%(&)% gUNaU5 1%4 7&'" '"# +#-1'#4 %)+/(9 !"# 1..#(( ') '"# #-#.'+&. 6)1+4 &( 0)((&6-# 7&'" )0#+1'&%3 $%&' 1( &' &( .)/0-#'#-: (#01+1'#4 *+)/ '"# 1&+ *-)7J '"# 0+)'#.'&)% 4#3+## 7&'" )0#% 01%#- &( =@aR9
$%&'( 1+# ') 6# $(#4 7&'"&% '"# )0#+1'&%3 -&/&'( ('1'#4 &% '"&( /1%$1-J *1&-$+# ') .)/0-: 7&'" (1&4 -&/&'( 7&-&%;1-&41'# '"# 71++1%'&#( 0+);&4#4 &% '"# .)%'+1.' )* (1-# G!169aH9
Tab.2 -- Field of Applications MODEL: HTD/U @)7#+ ($00-:
045 Y N @" N E
V&%&/$/ )$'4))+ '#/0#+1'$+#
2F
V18&/$/ )$'4))+ '#/0#+1'$+#
2F
056
073
090
aURYKF ] N ?? PR_ N P@" N ^RLI aBYMF ] N ?? Pb_ ?? BQYMF ] N ??Pb_ Bb
B^
2F N S9L9
Pk N UR_
V189 &%4))+ '#/0#+1'$+# N "$/&4&':
2F N S9L9
U^ N ^R_
C')+13# .)%4&'&)%(
2F N S9L9
??PR N kR_ ]^^ N kR_
150
170
??aR
V&%9 &%4))+ '#/0#+1'$+# N "$/&4&':
6
120
BRRYKF ] N ?? PR_ N U@"]` N ^RLI aB YMF ] N ?? Pb_ ?? BQ YMF ] N ?? Pb_
B^
105
Bb
Bb
B^
HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
Manufacturing Manufac turing Specificatio Specifications ns
Interconnectivity K-- $%&'( .1% 6# .)%%#.'#4 7&'" +#/)'# ($0# ($0#+; +;&( &(&) &)% % (:(' (:('#/ #/( ( 6: '"# '"# $(# $(# )* ,c1'#71:59 \"#% $(&%3 '"# ,/@5 .)%'+))* '"# ,KMYK`F ,KMYK`FZM5 ZM5 ':0#< '"#+# '"#+# &( '"# 0)(( 0)((&6 &6&&-&' &': : )* 0&-) 0&-)'& '&%3 %3 4&+# 4&+#.' .'-: -: 1 cCV cCV /)4#/ 16-# ') (#%4 1%4 +#.#&;# CVC /#((13#(9
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Tab.3 Tab.3 ---- mP ADVANCED ADVANCED PROTOCOL
SERIAL CARD
GATEWAY
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--- 05.10.2003 HTD/U-- 0 -- PD-- GB-- 00 -
7
Manufacturing Manufac turing Specificatio Specifications ns
Fig. 2 -- HTD --- Machine main components b
g
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Tab.5 - HTD ---- Machine Main Components REF. REF.
B
a
PP
PR
Q
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8
DESCRIP DESCRIPTIO TION N
P
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a
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--- 05.10.2003 HTD/U-- 0 -- PD-- GB-- 00 -
Manufacturing Manufac turing Specificatio Specifications ns
MACHINE FUNCTIONAL SCHEMES Tab.6 Tab.6 --- HTU -- Functional Parts REF REF.
DESC DESCRI RIPT PTIO ION N
P
Z;10)+1')+
a
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Outdoor
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U
Conditioned air flow B
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B
Exhaust air flow Free--Cooling air flow Fig. 3 -- Mechanical cooling
Fig. 4 -- Free - Co Cooling
Tab.7 Tab.7 --- HTD -- Functional Parts REF REF.
DESC DESCRI RIPT PTIO ION N
P
Z;10)+1')+
a
Z;10)+1')+ *1%
U
F)%4#%(#+
B
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Outdoor
Indoor
Outdoor
Indoor
B
B
U
U
^1 ^6
Conditioned air flow
P
P
a
a
Condensing air flow Exhaust air flow Free--Cooling air flow Fig. 5 -- Mechanical cooling --- 05.10.2003 HTD/U-- 0 -- PD-- GB-- 00 -
Fig. 6 -- Free - Co Cooling
9
Control Software and Hardware
Control Software and Hardware BASIC [Carel ì AC] + ADVANCED [Carel pCO2]
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--- 05.10.2003 HTD/U-- 0 -- PD-- GB-- 00 -
Control Software and Hardware
mP BASIC [Carel ì AC] technical data "
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--- 05.10.2003 HTD/U-- 0 -- PD-- GB-- 00 -
11
List of the Main Options
List of the Main Options 1 ADVANCED microprocessor
4 Refrigerant R134a
7 Humidity sensor
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HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
List of the Main Options
Damper servomotor with spring return
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HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
13
Tests and Reference Standards
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HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
Technical Data
Technical Data Tab.8 -- Performance table MODEL: HTD/U
045
S#*+&3#+1%'
056
090
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170
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HTD/U--0--PD--GB--00 -- 05.10.2003
15
Dimensional Drawings
Dimensional Drawings MOD. HTD 045 -- 056 -- 073 -- 090 -- 105 -- 120 -- 150 -- 170
A
45 5 . 7 3
C
550
300
D
300
E
5 . 7 3
3 6 2
3 6 2
5 . 3 6 2
5 . 3 6 2
8 3 2
8 3 2
0 5 8 1
65
B
80
8 4 0 1
8 4 0 1
FRONT VIEW
SIDE VIEW
REAR VIEW
A 85 5 4
1 0 1
0 5 5
5 5
TOP VIEW
16
MODELS
A
B
C
D
E
HTD 045 --056--073
800
655
250
250
--
HTD 090 --105--120
1000
855
135
130
135
HTD 150--170
1160
1015
150
260
150
HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
Dimensional Drawings
MOD. HTU 045 -- 056 -- 073 -- 090 -- 105 -- 120 -- 150 -- 170 HTU 045--056--073--150--170 A
A
550
6 4 9
6 4 9
B
65 0 5 8 1
0 5 8 1
7 3 2
80
7 3 2
0 6 3
0 6 3
2 6 2
2 6 2
5 4
5 4
REAR VIEW FRONT VIEW
SIDE VIEW
C
E
300
HTU 090--105--120
85
A 1 0 1
7 5 2
5 5
0 5 2
3 4
D
300
6 4 9
F
100
100
65
655
80
TOP VIEW 7 3 2
1 0 3
MODELS
A
B
C
D
E
F
HTU 045 --056--073
800
655
150
350
--
600
HTU 090 --105--120
1000
--
--
--
--
800
HTU 150--170
1160
1015
HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
150
260
150
1000
5 3 3
REAR VIEW 0 3
230
310
460
17
Refrigerant Circuit
Refrigerant Circuit MOD. HTD/U 045 -- 056 -- 073 -- 090 -- 105 -- 120 -- 150 -- 170 B
M
P
g
U P
P
b
Q
k
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Tab.9 -- Refrigerant Circuit REF.
18
DESCRIPTION
REF.
DESCRIPTION
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HTD/U-- 0 -- PD-- GB-- 00 -- 05.10.2003
High Technology in Refrigeration Devices HiRef S.p.A Via Umbria, 5/c -- 35043 Monselice (PD) – Italy Tel. +39 0429 784683 -- Fax +39 0429 701447 e--mail: info@hiref.it -- Web: http://www.hiref.it
3 0 0 2 . 0 1 . 5 0 0 0 B G D P 0 U / D T H
TELECOM UNITS
ADVANCED CONTROL PCO3
High Technology in Refrigeration Devices
Microprocessor User Manual
PCO-TLC-GB-01
ENGLISH
Index 1
GENERAL DESCRIPTION OF THE APPLICATION .......................................................... 4
1.1
Program main functions...................................................................................................................4
1.2
LCD user interface ..........................................................................................................................4
1.3
LAN network connections................................................................................................................4
2
REGULATION LOGIC ........................................................................................................ 5
2.1
Temperature control ........................................................................................................................5
2.1.1 2.1.2
Temperature regulation diagram ........................................................................................................................5 Other temperature functions...............................................................................................................................5
2.2
Humidity control (only on request)...................................................................................................6
2.3
Freecooling damper ........................................................................................................................7
2.4
Outlet temperature limit ...................................................................................................................8
2.5
Condenser fans...............................................................................................................................9
2.5.1 2.5.2 2.5.3 2.5.4
Condensing pressure probes .............................................................................................................................9 Prevent function ................................................................................................................................................10 Speed-up function ............................................................................................................................................10 Pressure – temperature conversion .................................................................................................................10
2.6
Temperature set point compensation ............................................................................................10
2.7
Compressors.................................................................................................................................11
2.7.1 2.7.2 2.7.3
Rotation ............................................................................................................................................................11 Timing...............................................................................................................................................................11 Compressor alarms ..........................................................................................................................................11
2.8
Electrical heater.............................................................................................................................12
2.8.1
Heater alarms...................................................................................................................................................12
2.9
Outlet fan.......................................................................................................................................12
3
THE USER INTERFACE................................................................................................... 13
3.1
Keyboard description.....................................................................................................................13
3.1.1 3.1.2
Switch ON/OFF of the unit................................................................................................................................13 Screen loop ......................................................................................................................................................13
3.2
Remote user interface...................................................................................................................14
3.2.1 3.2.2
With builtin local display ...................................................................................................................................14 With PGD local display.....................................................................................................................................14
4
BOARD CONFIGURATION AND CONNECTION ............................................................ 15
4.1
Address configuration....................................................................................................................15
4.1.1 4.1.2 4.1.3
Address configuration of the microprocessor (pCO3) ......................................................................................15 Address configuration of the PGD....................................................................................................................15 Address configuration of the E2V electronic expansion valve’s driver (EVD)..................................................15
4.2
Boards connection.........................................................................................................................16
4.2.1 4.2.2 4.2.3
Stand alone unit (with PGD display).................................................................................................................16 Units connected in LAN (max. 8 units) .............................................................................................................16 LAN status ........................................................................................................................................................17
4.3
Software update ............................................................................................................................17
PCO-TLC-GB-01
2/39
4.3.1 4.3.2 4.3.3
Program download from computer ...................................................................................................................17 Restore the default parameters........................................................................................................................18 Language selection ..........................................................................................................................................18
5
ALARMS ........................................................................................................................... 19
5.1
Table of alarms .............................................................................................................................19
5.2
Alarm data logging ........................................................................................................................20
5.3
Main log ........................................................................................................................................21
6
SCREENS ......................................................................................................................... 21
7
LIST OF PARAMETERS AND DEFAULT VALUES ......................................................... 22
8
ARCHITECTURE OF THE CONTROL SYSTEM.............................................................. 29
8.1
Microprocessor layout ...................................................................................................................29
8.2
Input / Output list ...........................................................................................................................30
8.3
Accessories...................................................................................................................................32
8.3.1
Electronic expansion valve...............................................................................................................................32
9
LAN CONNECTION .......................................................................................................... 33
9.1
Description ....................................................................................................................................33
9.2
Automatic start and stand-by units ................................................................................................33
9.2.1 9.2.2 9.2.3 9.2.4 9.2.5
Critical situations ..............................................................................................................................................34 Forcing..............................................................................................................................................................34 Fixed-hour rotation ...........................................................................................................................................34 Fixed-day rotation.............................................................................................................................................34 Rotation based on working hours.....................................................................................................................34
9.3
Master control ...............................................................................................................................35
10
SUPERVISION.................................................................................................................. 35
10.1
Main Parameters ...........................................................................................................................35
10.2
Connection with CAREL / MODBUS Protocol................................................................................36
10.3
Connection with LONWORKS protocol..........................................................................................36
10.4
Gsm protocol.................................................................................................................................37
10.4.1 10.4.2 10.4.3 10.4.4 10.4.5 10.4.6
GSM modem: WAVECOM Fastrack ................................................................................................................37 SIM card ...........................................................................................................................................................37 Protocol configuration.......................................................................................................................................37 Receiving SMS .................................................................................................................................................37 Sending SMS....................................................................................................................................................38 Variables table..................................................................................................................................................39
PCO-TLC-GB-01
3/39
1 GENERAL DESCRIPTION OF THE APPLICATION This program manages air-conditioning units of modern small and medium-sized telephone shelters (Telecom units) and the main features of the application program (Software name TLC_VV_RR where VV = version and RR = revision) are described below.
1.1 Program main functions The program main functions are: • control of temperature and humidity inside technological environments • management of scroll compressor • management of electrical heaters • dehumidification (only on request) • external humidifier with immersed electrodes (only on request) • on-off or modulated condensing fans, pressure-controlled • outlet temperature control • alarms management, alarm data logging, devices timing, warnings • complete management of devices timing • connection with local and BMS supervisory networks (Carel, Modbus, LonWorks, …) • automatic air flow control
1.2 LCD user interface The LCD user interface displays the following data: • measurement of connected probes and calibration, if required • unit start and stop • alarms detection • programming of configuration and operative parameters with access protected by password • controlled devices working hours and time bands with access protected by password • programming of clock and time bands with access protected by password • language selection among the available options (English, Italian, German, French, Dutch)
1.3 LAN network connections The connection with LAN network allows the program to manage the following functions as well: • automatic time or event rotation among up to 8 units • control of temperature and humidity of max. 8 units, taking the probes of unit no. 1 as a reference • use of only one LCD display for controlling up to 8 units
PCO-TLC-GB-01
4/39
2 REGULATION LOGIC 2.1 Temperature control The heating and cooling devices are managed based on the temperature value measured by the ambient (or room temperature) probe. The measured temperature is compared to the set temperature (set point); the devices are enabled based on the difference between the two values. The proportional band identifies the air-conditioning unit working range and can take different values in heating and cooling mode. The dead zone identifies the devices non-action zone round the set point. The following diagrams show the action of the heating and cooling devices. The percentage values indicate the modulating valves opening range. The warm and cold valves start and end opening parameters correspond to 0% and 100% respectively (default values) and are different for the two valves; if need be, the values may be modified to delay opening start and bring complete opening forward.
2.1.1 Temperature regulation diagram Temperature set HEATING
COOLING
100%
0% 19.5
0%
22.5
23.0
100% 23.5
26.5
3°C
0.5°C
0.5°C
3°C
Warm proportional band
Dead z.
Dead z.
Cold proportional band
1 HEATER
Ambient temp. (°C)
1 COMPRESSOR
19.5
22.5
23.0
23.5
26.5
Ambient temp. (°C)
2.1.2 Other temperature functions The high and low temperature alarms cause alarm screen signalling and have modifiable delay time. The dehumidification stop differential establishes the minimum temperature below which dehumidification is interrupted. Dehumidification can start again if temperature returns above the value established by the humidification start offset; differential and offset are modifiable.
ON
OFF
Temperature set
Dehumidification stop
HEAT. 13.0
18.0
20.0
22.0
3°C
Warm band 4°C Dehumid. start offset 5°C Dehumid. stop different.
10°C Low temperature alarm
COOL. 23.0
26.0
33.0
3°C
Ambient temp. (°C)
Cold band
10°C High temperature alarm Three-position valve running time
PCO-TLC-GB-01
5/39
2.2 Humidity control (only on request) The humidification and dehumidification devices are managed based on the humidity value measured by the ambient (or room temperature) probe. The measured humidity is compared to the set humidity (set point); the devices are enabled based on the difference between the two values. The proportional band identifies the air-conditioning unit working range and can take different values in humidification and dehumidification mode. The 0.2% fixed dead zone identifies the devices non-action zone round the set point. Dehumidification enables the available cooling devices and a contact for an external dehumidifier or for reducing the outlet fan speed. Dehumidification can be executed as follows: On-Off contact for an external dehumidifier or for reducing the outlet fan speed compressors enabling (active capacity controls included, if any) The dehumidification On-Off free contact is always managed, whereas the cooling devices depend on unit configuration and User selection. The 0-10Volt modulating output of the dehumidification outlet fan is automatically reduced by 50% (modifiable); with On-Off fan, use the digital contact for reducing speed. The following diagrams show the humidification and dehumidification devices action. The percentage values indicate the modulating valves opening range. • •
Humidity set
HUMIDIFICATION 100%
DEHUMIDIFICATION 0%
48.0
100% 50.0
2.0%
2.0%
Humidification proportional band
Ambient humidity (%)
Dehumidification proportional band
ON-OFF CONTACT 48.0
52.0
COMPRESSOR 50.0
52.0
Ambient humidity (%)
0-10Volt MODULAT. OUTPUT 100%
COMPRESSOR 0% 48.0
50.0
51.0
52.0
Ambient humidity (%)
PCO-TLC-GB-01
6/39
2.3 Freecooling damper The Freecooling is an optional function: an additional mechanical damper using water coming from an external source (i.e., evaporation tower) is enabled if the temperature of water running inside it is quite low. This allows saving on the system management costs. The damper is enabled by On-Off contact or 0-10Volt modulating signal. The following diagram shows the freecooling damper enabling conditions:
Temperature set
HEAT.
COOLING 0%
22.5
0% 23.0
100% 23.5
0.5°C
0.5°C
Dead z.
Dead z.
26.5
3°C
FREECOOLING On-Off
OFF 23.0
Ambient temp. (°C)
Cold proportional band
23.5
ON 1 COMPRESSOR
0-10Volt 24.6
24.9
26.5
Ambient temp. (°C)
PCO-TLC-GB-01
7/39
2.4 Outlet temperature limit This function prevents too cold air from circulating in the environment, thus safeguarding health of any exposed person. A temperature probe must be positioned on the air-conditioning unit outlet and parameters “Outlet set point” and “Outlet differential” shall be set. Such parameters identify a limiting zone, as shown in the following diagram:
Outlet set
100%
VARIABLE LIMITATION
TOTAL LIMITATION
0% 10.0
15.0
5.0°C
Ambient temp. (°C)
Outlet differential Temperature set
1 COMPRESSOR 23.0
23.5
26.5
Ambient temp. (°C)
As shown in the diagram, if outlet temperature ranges between outlet set point and outlet differential, the cooling devices are limited only partially; the more temperature decreases the more limitation increases. As regards dehumidification limitation, the modulation zone is by-passed since dehumidification always needs the cooling devices maximum capacity. In practice, the devices are switched off only if outlet temperature is lower than differential; the devices are then switched on again if outlet temperature reaches the outlet set point, as shown in the following diagram:
Outlet set
ON
OUTLET LIMITATION
TOTAL LIMITATION
OFF 10.0
5.0°C Outlet differential
PCO-TLC-GB-01
LIMITATION OFF 15.0
Outlet temp. (°C)
8/39
2.5 Condenser fans Condensing pressure control is available on DX type units, in which fans are managed based on condensing coil pressure and compressors state. Fans are enabled by 0-10V modulating or digital outputs. Control is based on the condensation set point and differential, as shown in the following diagram:
Condensation set
CONDENSATION 14.0
16.0
2.0 bar Condensation differential
HP PREVENT 18.0
HP 20.0
2.0 bar Prevent differential
23.5
1.0 bar HP differential
24.5
Condensation pressure (bar)
ON OFF Compressor state
ON OFF Condensing fans state
The following diagram shows fans operation with modulating outputs:
100%
13.0
0%
14.0
16.0
2.0 bar Opening start point (100%) Opening end point (0%)
Condensation pressure (bar)
The maximum and minimum speeds of 0-10V outputs can be set; in case the set minimum speed is higher than 0V, the fan is operated at minimum speed 1.0 bar below the condensation set point before switching off, as indicated in the diagram above.
2.5.1 Condensing pressure probes Foreword: besides the values read by the probes, fans enabling always considers the compressors state. In case of single probe and separated coils, fans enabling is based on the probe value for both circuits. In case of two probes and single coil, fans enabling is based on the highest probes value. In case of two probes and separated coils, fans enabling is based on the probe value of the relevant circuit. In case no probe is present, fans are enabled simultaneously with the compressors; in case of single coil, fans are enabled when at least one compressor is on; in case of separated coils, each compressor controls the fans of its own circuit.
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2.5.2 Prevent function High pressure alarm prevention with compressors stopped. Normally, the condensing fans turn on only if compressors are enabled, but in this case they are forced so as to decrease pressure and try to prevent the high pressure alarm, which would cause unit shutdown. Pressure increase with compressors stopped may be due to radiance on the coil. In case of 0-10V modulating fans, modulation is by-passed.
2.5.3 Speed-up function To overcome inertia at high-power modulating fans peak, they may be started at maximum speed for some seconds, then speed decreases to the required value and modulation starts.
2.5.4 Pressure – temperature conversion Both pressure and temperature probes can be selected. In case of pressure probes, branch I/O screens display the temperature value corresponding to the pressure of each probe, based on the coolant type (to be selected in the Manufacturer branch).
2.6 Temperature set point compensation The temperature set point can be “compensated” automatically for comfort reasons; for example, think about a commercial concern in which people frequently enter and go out: if internal temperature is 10°C lower than the external one, the thermal rush may annoy people and could be prejudicial to their health. The maximum difference between internal and external temperatures should not exceed 6°C in order to obtain optimum comfort. In this c ase, the compensation function increases the set point by 4°C, consequently increasing the ambient temperature; this function prevents the difference between internal and external tem perature from exceeding 6°C. Compensation requires a temperature probe to be installed at the exterior. The function is managed based on the values of compensation set point, differential and offset parameters, as shown in the following diagram:
Compensation set
2°C 25.0
Compensation offset
28.0
3°C Compensation proportional band
External temp. (°C)
25.0°C 23.0°C
Temperature set-point (°C)
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2.7 Compressors Compressors are managed in ON-OFF mode. Maximum 2 compressors can be present.
2.7.1 Rotation Compressors rotation follows the F.I.F.O. (first in, first out) logic. The first compressor turned on is the first to turn off, the first compressor turned off is the last to turn on. This logic allows comparing the compressors working hours and obtaining the same ageing. The rotation can be disabled.
2.7.2 Timing START MINIMUM TIME It represents the compressors start minimum time (in seconds) after they have been enabled. If a stop request arises, compressors are disabled only after the established time has elapsed.
STOP MINIMUM TIME It represents the compressors stop minimum time (in seconds) after they have been disabled. If a start request arises, compressors are enabled only after the established time has elapsed.
MINIMUM TIME BETWEEN DIFFERENT COMPRESSORS STARTS It represents the minimum time interval (in seconds) between start of a device and the following one. This interval allows preventing contemporary peaks, which would cause a high energy absorption.
MINIMUM TIME BETWEEN COMPRESSOR STARTS It represents the minimum time interval (in seconds) between two starts of the same device. This parameter allows limiting the number of starts per hour. If, for example, the maximum number of starts per hour allowed by the default values is 10, this limit can be respected by setting a 360-second time interval.
2.7.3 Compressor alarms Compressors alarms are distributed in two digital inputs, the alarms mean Thermal alarm / High and Low pressure alarm.
HIGH PRESSURE – THERMAL ALARM Immediate alarm originated by external pressure switch or compressor overload; the digital input switches from closed to open and compressor is immediately stopped. To start the compressor again, the user has to rearm the alarm manually by pushing the display Alarm button, provided that the pressure switch or compressor overload have rearmed energising the digital input. After the compressor has turned off, timing is enabled; for this reason, after alarm rearming, the compressor could not immediately turn on again.
LOW PRESSURE ALARM Delayed alarm originated by an external pressure switch. When opening, the digital input enables two timers; if, when the timers delay time (programmable by screen) elapses, the contact is open, the compressor turns off and the alarm goes off. On the contrary, if the contact closes before delay time elapses, the alarm does not go off and timers reset. Timers are: running compressor delay time and compressor start delay time. Running delay is always counted, whereas compressor start delay is counted only if the input opens immediately after compressor start and allows for fluid stabilisation. The two timers are counted in sequence. To start the compressor again, the user has to rearm the alarm manually by pushing the display Alarm button, provided that the pressure switch has rearmed energising the digital input. After the compressor has turned off, timing is enabled; for this reason, after alarm rearming, the compressor could not immediately turn on again.
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GENERIC ALARM Alarm including all compressor safety devices in a single digital input, used on two-compressor small boards. This alarm goes off immediately when opening the digital input and locks the compressor. To start the compressor again, the user has to rearm the alarm manually by pushing the display Alarm button, provided that the digital input has been energised. After the compressor has turned off, timing is enabled; for this reason, after alarm rearming, the compressor could not immediately turn on again.
2.8 Electrical heater The electrical heater is managed as simple ON-OFF load.
2.8.1 Heater alarms Each heater is provided with a digital input to be connected with a thermal sensor for signalling any failure. Immediate alarm originated when the digital input switches from closed to open; the heater is immediately disabled. To enable the heaters again, the user has to rearm the alarm manually by pushing the display Alarm button, provided that the thermal sensor have rearmed energising the digital input.
2.9 Outlet fan With unit enabled, the outlet fan keeps switched on. It can be managed with On–Off or modulating output. The fan is provided with a thermal alarm and an air flow controller alarm, which lock the unit setting it to OFF state; thermal alarm requires manual rearm, whereas air flow controller alarm is rearmed automatically. Description of modulating management:
Temperature set HEATING
COOLING
100%
0% 19.5
22.5
3°C
0% 23.0
0.5°C
100% 23.5
0.5°C
Warm proportional band
26.5
3°C Cold proportional band
100%
100% 50%
Min speed (5.0V)
Fan speed
Max speed (10.0V)
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3 THE USER INTERFACE The unit can be provided with the PGD user interfar or with the builtin display. Both are equipped with a LCD display (4 rows x 20 columns). and with 6 keys. It allows carrying out all program operations. The user interface allows displaying the unit working conditions at any time and modifying the parameters; furthermore, it may also be disconnected from the main board, as its presence is not strictly necessary.
PGD user interface
Builtin user interface
3.1 Keyboard description The PGD user interface has 6 keys and their use is describe in the following table. Keys
Description
ALARM key
Press ALARM key to enter the alarm menu and to reset the alarms. When an alarm is present the button is illuminated.
PROGRAM key
Press PROGRAM key to enter the main menu where is possible to select the items: MAINTENANCE, PRINTER, INPUT/OUTPUT, CLOCK, SETPOINT, USER, MANUFACTURER
ESC key UP key
Press ESC key to go out from a menu and come back into the main screen. Press UP key to move into the next screen or to increment the value of a parameter.
ENTER key
Press ENTER key to move into the next modifiable parameter field and confirm the modification
DOWN key
Press DOWN key to move into the previous screen or to decrement the value of a parameter.
PROGRAM + ESC keys ESC + ENTER keys
Press simultaneously PROGRAM and ESC keys to enter directly the MANUFACTURER menu. Press simultaneously for 5 seconds, ESC and ENTER keys to enter into the screen where you can press ENTER to switch ON/OFF the unit
3.1.1 Switch ON/OFF of the unit The unit is switch On/Off by pressing Esc + Enter keys simultaneously for 5 seconds; after, the displayed screen allows executing the required operation by using Enter key.
3.1.2 Screen loop Press PROGRAM key to display the main menu; then, by using the arrow buttons, move the cursor on the selected item and press Enter to access it.
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3.2 Remote user interface 3.2.1 With builtin local display
Microprocessor pCO3
Remote display cable: 6 wires, with RJ11 connectors.
Remote display wall mounted
NOTE: the cable is different from the standard telephone cable because in the remote display cable the connectors are reversed.
Unit
3.2.2 With PGD local display Local display panel mounted Derivator TCONN (it is necessary only if local and remote displays are simultaneously present) Microprocessor pCO3
Remote display cable: 6 wires, with RJ11 connectors.
Remote display wall mounted
NOTE: the cable is different from the standard telephone cable because in the remote display cable the connectors are reversed.
Unit
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4 BOARD CONFIGURATION AND CONNECTION The LAN network identifies a physical connection between the microprocessor, the display and the drivers for the electronic expansion valves. This connection allows exchanging variables from a board to another, according to a logic established by the software, to make them work together in a functional way. The address of the boards must be configure even in stand alone unit.
4.1 Address configuration 4.1.1 Address configuration of the microprocessor (pCO3) For the configuration of the address of the pCO3 follow these steps: - connected the pCO3 with a display PGD wich the address configure to 0. (See Address configuration of the PGD) - switch ON the power supply pressing simultaneously the ALARM and the UP keys. - press UP or DOWN key to set the address. - press ENTER key to save and exit from this procedure.
4.1.2 Address configuration of the PGD For the configuration of the address of the PGD follow these steps: - press UP+ENTER+DOWN for few seconds - press ENTER and then press UP or DOWN key to set the address. - press ENTER key to save and exit from this procedure.
NOTES: - If the addresses of the microprocessor or of the PDG are non corrected, the functioning of the unit is not guaranteed, and the PDG can displays nothing. - after the address configuration of the PGD, it can display the notice “NO LINK” for some seconds.
4.1.3 Address configuration of the E2V electronic expansion valve’s driver (EVD) For the configuration of the driver (EVD) is necessary to set the dip-switch (using a binary logic) that are present inside of the driver, under the frontal box.:
Address
Driver for circuit 1
9
Driver for circuit 2
10
PCO-TLC-GB-01
Dip-switch
Open the frontal box to configure the dip-switch.
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4.2 Boards connection The electrical connection among boards is executed using the following two type of cables:
Display connection For the connection of the display is necessary to use a cable with 6 wires and RJ11 connectors; the cable is different from the standard telephone cable because in the display cable the connectors are reversed. LAN connection For the LAN connection is necessary to use a cable with 2 wires plus shield, from unit to unit, by using the terminal strip in the electrical panel (see the specific electrical diagram); the data are sent through Rs485 logic; no additional device is required.
4.2.1 Stand alone unit (with PGD display)
PGD: Address = 25 Display cable
LAN cable
LAN cable
Driver 1: Address = 9
Driver 2: Address = 10
pCO3: Address = 1
4.2.2 Units connected in LAN (max. 8 units) The units can be connected to the other units in LAN (local area network) for a maximum of 8 units. Each unit can be connected (inside of it) to one or two drivers (EVD) for the management of the electronic valves and to one display for user interface. In the following table are listed the addresses of the microprocessor, of the drivers (EVD) and of the display.
List of addresses Address of Microproc. pCO3
Address of EVD Driver 1
Address of EVD Driver 2
Address of Display
Config. by display
Config. by dip-switch
Config. by dip-switch
Config. by display
Unit 1
1
9
10
25
Unit 2
2
11
12
26
Unit 3
3
13
14
27
Unit 4
4
15
16
28
Unit 5
5
17
18
29
Unit 6
6
19
20
30
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Unit 7
7
21
22
31
Unit 8
8
23
24
32
The address of the microprocessor can be read from the main screen in the lower right corner. The display with address 32 allows controlling all boards without requiring other displays or in addition to the other displays; as a matter of fact, the program allows display with address 32 to access the parameters of all connected boards, one by one. Passage among the boards can be executed by simply pushing button ESC + DOWN.
4.2.3 LAN status When starting the system, the LAN network could undergo some problems (failed boards and displays displays start-up) due to improper electrical connections or to the fact that incorrect addresses have been assigned. By means of a special screen, the LAN network state can be displayed in real time, thus identifying which devices (boards and displays) are properly connected and addressed. To display the special screen, push buttons Up-Down-Enter of any network display simultaneously for at least 10 sec. After the first 5 seconds, a screen is displayed; continue for another 5 seconds until the following screen is displayed:
As it can be seen, network addresses from 1 to 32 are displayed, together with a symbol indicating if a display (small rectangle) or a board / valve driver (big rectangle) is concerned. The dash indicates that the board / display has incorrect address or is connected improperly. In case the symbols appear and disappear, it means that LAN is unstable or, more probably, that repeated addresses are present. The number following T indicates the address of the display being used. The example indicates that the network consists of one boards or valves drivers with address 1 and of one display with address 25. After the screen is checked, if there is some trouble cut network power off, verify connections and addresses and power the system again.
4.3 Software update If is necessary a software update the boards shall be programmed by DOWNLOADING the application program to the Flash buffer memory; this operation can be performed either using a computer.
4.3.1 Program download from computer Use the the converter (RS232/RS485) and the WinLOAD 32 program, proceeding as follows: 1. Connect the converter (RS232/RS485) to the mains using the transformer provided in the kit. 2. Connect the converter to a free serial port on the PC, using the serial cable provided in the kit. 3. Connect the converter to connector J10 on the pCO3 using a telephone cable. 4. Install Winload, if Winload is not already installed on the PC. 5. Run WinLOAD32 on the PC, with the board off. 6. Enter in the number of the PC serial port in the field “COMM” (1 for COM1, 2 for COM2). 7. Enter “0” in the field “pCO ADD.”. 8. Switch the board on. 9. Wait 30 seconds until the message “OFF LINE” becomes “ON LINE” in the WinLOAD32 program, in the lower left, or until the yellow LED next to the dipswitch on the board starts flashing; now enter the actual board LAN address value in the field “pCO! ADD”; a blue light in the Winload program, in the bottom centre of the window, will start flashing. 10. In WinLOAD32, select “Upload” and then “Application”.
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11. Select the folder containing the application program source files. 12. Use CTRL to select a series of *.iup files, if needing to load a series of languages to the pCO3. Also select the *.blb files (for non-LAN applications) or the flash1.bin file in the program being loaded (for LAN applications). 13. Click “UPLOAD” to start the file download procedure, which will take approximately 1 to 5 minutes, depending on the number of *.iup files selected and the size of the various files. 14. Wait until the message “Upload OK” appears in the progress bar. 15. Disconnect the telephone cable between the board and converter; connect the external display (if featured), then switch the board off and on again.
NOTE: if a LAN network with a series of boards is used, the program can be installed on the other boards without repeating the operations: after installing the program on the first board, simply repeat steps from 8 to 14, entering the new board addresses each time in the field “pCO ADD” in the WinLOAD32 program.
4.3.2 Restore the default parameters Default parameters are the values assigned by manufacturer to the application program main operative parameters. Parameters are assigned automatically when executing the DOWNLOAD operation as described above. Parameters indicate timing, set points, differentials, etc… (refer to the complete list of default values). After installing default values, the parameters must be modified following the special parameter list with the specific parameter of the installed unit. Operations to be carried out for default parameters manual installation: 1. Push buttons PRG + ESC keys and type the Manufacturer password, then push Enter. 2. By pushing button Down three times, move the cursor on “INITIALIZATION” (last row), then push ENTER. 3. The parameters installation screen is displayed; to install, push ENTER and type the Manufacturer password. 4. WARNING: we recommend extreme care since this operation deletes all the installed parameters from the memory and replaces them by the default parameters – after this operation, parameters cannot be restored. 5. After pushing ENTER, message “PLEASE WAIT” is displayed for some seconds. 6. Switch off and then switch on the power supply.
4.3.3 Language selection English is the language automatically selected, but it can be changed into: Italian, French, German, English and Dutch. To modify the language, operate as follows: 1. Press the PROGRAM key, select the MAINTENANCE item and press ENTER 2. Press ENTER in the screen A0b till you reach the wanted language 3. Press UP or DOWN or ESC to continue
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5 ALARMS The alarms managed by the program safeguard soundness of the connected devices and provide signals in case the control parameters have exceeded the normal values or the board is faulty. The alarms originate from alarm digital inputs, probes or board. Their effect ranges from the simple block signalling of one or more devices to the air-conditioning unit stop. Many alarms are subject to programmable delay times. When an alarm state is identified, the following signals occur: the red LED under button ALARM turns on abbreviation AL starts blinking on the Menu screen Pushing button Alarm, the buzzer switches off and the alarm screen is displayed. If more alarms are active, the screen of the first alarm is displayed; the other alarms can be displayed by using the arrow buttons. If other buttons are pressed, the alarm screens are left but they keep stored and are displayed again whenever the Alarm button is pressed. To rearm the alarms and delete the message manually, simply move the cursor on the alarm screens and push button Alarm again; if the alarm causes have disappeared (digital inputs rearmed, temperature within the normal values, etc…), the screens disappear, the red led switches off and message “NO ALARM ACTIVE” is displayed. If the cause of one or more alarms is still active, the disabled alarms only disappear, whereas the other alarms keep displayed and the buzzer and the red led switch on again. Alarms are divided into two categories: manually-rearmed alarms or automatically-rearmed alarms. The manually-rearmed alarms require alarm screen deleting (as described above) to restart the devices or the airconditioning unit. The automatically-rearmed alarms unlock the device or restart the air-conditioning unit after the cause has disappeared, but the alarm screen keeps stored in the memory. • •
5.1 Table of alarms ALARM CODE A01 A02 A03 A04 A05 A06 A07 A08 A09 A10 A11 A12 A13 A14 A15 A16 A17 A18 A19 A20 A21 A22 A23 A24 A25 A26 A27 A28 A29 A30 A31 A32
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SUPERV. ADDRESS 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59
ALARM DESCRIPTION
DELAY
Circuit 1 general alarm Circuit 2 general alarm Low pressure circuit 1 Low pressure circuit 2 Air flow alarm Evaporating fan overload alarm Overload electrical heater 1 Overload electrical heater 2 Smoke / Fire detection alarm Dirty filter alarm High temperature alarm Low temperature alarm High humidity alarm Low humidity alarm Working hours of compressor 1 alarm Working hours of compressor 2 alarm Evaporating fan working hours alarm Rooom temperature probe fault or offline Water inlet temperature probe fault or offline External air temperature probe fault or offline Supply air temperature probe fault or offline Room humidity probe fault or offline Condensing pressure probe of circuit 1 fault or offline Condensing pressure probe of circuit 2 fault or offline Condensing temperature probe of circuit 1 fault or offline Condensing temperature probe of circuit 2 fault or offline High current alarm in the humidifier Lack water alarm in the humidifier Low current alarm in the humidifier Clock card alarm High pressure circuit 1 High pressure circuit 2
T2-1 / T2-2 T2-1 / T2-2 T4-1 20 sec (fixed) T2-3 T2-3 T2-3 T2-3 60 sec (fixed) 60 sec (fixed) 60 sec (fixed) 60 sec (fixed) 60 sec (fixed) 60 sec (fixed) 60 sec (fixed) 60 sec (fixed) 60 sec (fixed) -
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A33 A34 A35 A36 A37 A38 A39 A40 A41 A42 A43 A44 A45 A46 A47 A48 A49 A50 A51 A52 A53 A54 A55 A56 A57 A58 A59 A60 A61 A62 A63 A64 A65 A66 A67 A68 A69 A70 A71 A72 A73 A74 A75 A76 A77 A78 A79 A80
60 61 62 63 64 65 66 67 124 125 126 127 128 129 130 131 132 133 134 135 136 137 138 139 140 141 142 143 144 145 146 147 148 149 150 151 152 153 154 155 156 157 158 159 160 161 162 163
Water detector alarm Auxiliary alarm Overload or high pressure alarm of circuit 1 Working hours of humidifier alarm Overload or high pressure alarm of circuit 2 Condensing fan 1 overload alarm Condensing fan 2 overload alarm Water flow alarm pLAN disconnected Driver 1 alarm, probes fault or offline Driver 1 EEPROM error Driver 1 step motor error Driver 1 battery error Driver 1 high evaporation pressure (MOP) Driver 1 low evaporation pressure (LOP) Driver 1 low superheat Driver 1 valve not closed during power OFF Driver 1 high suction temperature Driver 2 alarm, probes fault or offline Driver 2 EEPROM error Driver 2 step motor error Driver 2 battery error Driver 2 high evaporation pressure (MOP) Driver 2 low evaporation pressure (LOP) Driver 2 low superheat Driver 2 valve not closed during power OFF Driver 2 high suction temperature High conductivity in the humidifier alarm High conductivity in the humidifier pre-alarm Low production of steam in the humidifier Water drain alarm in the humidifier Cylinder full alarm in the humidifier Cylinder pre-exhaustion warning in the humidifer Presence of foam warning in the humidifier Cylinder exhaustion warning in the humidifer Working hours of the humidifier pre-alarm Working hours of the humidifier alarm Expansion card connection alarm Coil probe fault or offline Freecooling coil antifreeze alarm Dry-cooler alarm External fan overload alarm Phase sequence alarm Air differential pressure probe fault or offline High inlet water temperature alarm Dual cooling: normal mode alarm Dual cooling: emergency activation warning Compressor inverter alarm
T4-2 60 sec (fixed) Fj-2 Fj-1 Fi-1 Fi-2 Fj-2 Fj-1 Fi-1 Fi-2 1 hour (fixed) 1 hour (fixed) Cr-3 60 sec (fixed) Gu-3 60 sec (fixed) Ta-1 Tb-1 / Tb-2
5.2 Alarm data logging Alarms data logging allows storing the air-conditioning unit working state whenever an alarm goes off or under particular conditions. Any storing operation becomes an event, which can be displayed as any other event available in the memory. As it functions as a device for “taking photographs” of the system whenever any alarm goes off, data logging is extremely useful for suggesting possible causes and solving system malfunctions and failures. The program is provided with a MAIN and a DEVELOPED data logging.
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5.3 Main log Events can be stored thanks to the boards very large buffer memory. The MAIN data logging can be enabled by parameter; if the clock card (optional) is not available, neither the MAIN data logging is available. No additional optional card is required. The maximum number of storable events is 100; after the last space available in the memory (alarm no. 100) is used, next alarm will be overwritten on the first alarm stored (001), which will be automatically deleted. This procedure applies to all following events. The user cannot delete the stored events except at the default values installation. The MAIN data logging screen can be accessed by pushing button ALARM when screen E4 is displayed and can be left by pushing button Esc. The screen is displayed as follows:
Whenever an alarm goes off, the following air-conditioning unit data are stored for each alarm: alarm description time date event chronological number (0-100) The event chronological number, displayed in the upper right corner, indicates the event “stay time” compared to the 100 available memory spaces. Alarm no. 001 represents the first alarm gone off after MAIN data logging enabling. Moving the cursor on the chronological number and using the arrow buttons, the alarms “history” can be scrolled from 1 to 100. In position 001 and pushing the down arrow, the alarms cannot be scrolled. If, for example, 15 alarms have been stored and the cursor is in position 015, pushing the up arrow, the alarms cannot be scrolled. • • • •
6 SCREENS The screens are divided into these categories:
MAINTENANCE: checking the devices periodically, calibrating the connected probes, modifying the working hours and managing the devices manually. PASSWORD = 105 PRINTER: printing the list of parameter only with a special version of display. NO PASSWORD INPUT/OUTPUT: allow to show the digital and analog input/output values. NO PASSWORD CLOCK: allow setting and enabling the temperature and humidity time bands. PASSWORD = 108 SETPOINT: allow setting the temperature and humidity set points and regulating the clock. NO PASSWORD USER: allow setting the main functions (timing, sets, differentials) of the connected devices; PASSWORD = 108 MANUFACTURER: allow configuring the telecom unit, enabling the main functions and selecting the connected devices. PASSWORD = available on request. This menu is divided into these categories: - CONFIGURATION
- PARAMETERS - CAREL EXV DRIVERS - TIMING - INITIALIZATION PCO-TLC-GB-01
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7 LIST OF PARAMETERS AND DEFAULT VALUES The table below lists the parameters in the program, together with the following information: screen code (the screen code is displayed at the top right) to assist the identification of the parameter, the default value, the minimum and maximum limits (range), and the unit of measure. To find a specific parameter on the display, proceed as follows: Identify the parameter in the table below and the corresponding screen code Using the list of the screens (following paragraph) and the screen code, access the screen on the display • •
Scr. Par. Description
Default
Special value
Range
UOM
Maintenance A0b
1
Change language pressing ENTER key
English
English, Italian, French, German, Dutch
A5
1
Enter password
----
0-9999
A6
1
Modify compressor circuit 1 operating hours
0
0-99 . 0-999
hours
A6
2
Modify compressor circuit 2 operating hours
0
0-99 . 0-999
hours
A7
1
Modify main fan operating hours
0
0-99 . 0-999
hours
A7
2
Humidifier opearating hours reset
No
No-Yes
A8
1
Device operating hour threshold: mainfan
99
0-99
A8
2
Device operating hour threshold: compr. Circuit 1
99
0-99
A8
3
Device operating hour threshold: compr. Circuit 2
99
0-99
A9 A9
1 2
Humidity probe calibration Condensing pressure probe 1 calibration
0 0
-9.9 – 9.9 -9.9 – 9.9
hours x 1000 hours x 1000 hours x 1000 %RH bar
A9
3
Condensing pressure probe 2 calibration
0
-9.9 – 9.9
bar
Aa
1
Room temperature probe calibration
0
-9.9 – 9.9
°C / °F
Aa
2
External temperature probe calibration
0
-9.9 – 9.9
°C / °F
Aa
3
Supply temperature probe calibration
0
-9.9 – 9.9
°C / °F
Ab
1
Manual procedure setting: inlet tempearature (with Ck-1=Yes)
AUT
AUT-MAN
Ab
2
Manual procedure value: inlet tempearature (with Ck-1=Yes)
0
-999.9 – 999.9
Ab
3
Manual procedure setting: outlet tempearature (with Ck-1=Yes)
AUT
AUT-MAN
Ab
4
Manual procedure value: outlet tempearature (with Ck-1=Yes)
0
-999.9 – 999.9
Ab
5
Manual procedure setting: supply tempearature (with Ck-1=Yes)
AUT
AUT-MAN
Ab
6
Manual procedure value: supply tempearature (with Ck-1=Yes)
0
-999.9 – 999.9
°C / °F
Ab2 Ab2
1 2
Manual procedure setting: pressure circuit 1 (with Ck-1=Yes) Manual procedure value: pressure circuit 1 (with Ck-1=Yes)
AUT 0
AUT-MAN -999.9 – 999.9
bar
Ab2
3
Manual procedure setting: pressure circuit 2 (with Ck-1=Yes)
AUT
AUT-MAN
Ab2
4
Manual procedure value: pressure circuit 2 (with Ck-1=Yes)
0
-999.9 – 999.9
Ab2
5
Manual procedure setting: inlet humidity (with Ck-1=Yes)
AUT
AUT-MAN
Ab2
6
Manual procedure value: inlet humidity (with Ck-1=Yes)
0
-999.9 – 999.9
Ac
1
Manual procedure setting: digital output 1 (with Ck-1=Yes)
AUT
AUT-MAN
Ac
2
Manual procedure value: digital output 1 (with Ck-1=Yes)
Off
Off – On
Ac
3
Manual procedure setting: digital output 2 (with Ck-1=Yes)
AUT
AUT-MAN
Ac
4
Manual procedure value: digital output 2 (with Ck-1=Yes)
Off
Off – On
Ac
5
Manual procedure setting: digital output 3 (with Ck-1=Yes)
AUT
AUT-MAN
Ac
6
Manual procedure value: digital output 3 (with Ck-1=Yes)
Off
Off – On
Ad Ad
1 2
Manual procedure setting: digital output 4 (with Ck-1=Yes) Manual procedure value: digital output 4 (with Ck-1=Yes)
AUT Off
AUT-MAN Off – On
Ad
3
Manual procedure setting: digital output 5 (with Ck-1=Yes)
AUT
AUT-MAN
Ad
4
Manual procedure value: digital output 5 (with Ck-1=Yes)
Off
Off – On
Ad
5
Manual procedure setting: digital output 6 (with Ck-1=Yes)
AUT
AUT-MAN
Ad
6
Manual procedure value: digital output 6 (with Ck-1=Yes)
Off
Off – On
Ae
1
Manual procedure setting: digital output 7 (with Ck-1=Yes)
AUT
AUT-MAN
Ae
2
Manual procedure value: digital output 7 (with Ck-1=Yes)
Off
Off – On
Ae
3
Manual procedure setting: digital output 8 (with Ck-1=Yes)
AUT
AUT-MAN
Ae
4
Manual procedure value: digital output 8 (with Ck-1=Yes)
Off
Off – On
Af
1
Manual procedure setting: digital output 1 of pCOE (with Ck1=Yes)
AUT
AUT-MAN
PCO-TLC-GB-01
°C / °F °C / °F
bar %RH
22/39
Scr. Par. Description
Default
Special value
Range
UOM
Af
2
Manual procedure value: digital output 1 of pCOE (with Ck1=Yes)
Off
Off – On
Af
3
Manual procedure setting: digital output 2 of pCOE (with Ck1=Yes)
AUT
AUT-MAN
Af
4
Manual procedure value: digital output 2 of pCOE (with Ck1=Yes)
Off
Off – On
Af2
1
Manual procedure setting: digital output 3 of pCOE (with Ck1=Yes)
AUT
AUT-MAN
Af2
2
Manual procedure value: digital output 3 of pCOE (with Ck1=Yes)
Off
Off – On
Af2
3
Manual procedure setting: digital output 4 of pCOE (with Ck1=Yes)
AUT
AUT-MAN
Af2
4
Manual procedure value: digital output 4 of pCOE (with Ck1=Yes)
Off
Off – On
Ag
1
Manual procedure setting: analog output 1 (with Ck-1=Yes)
AUT
AUT-MAN
Ag
2
Manual procedure value: analog output 1 (with Ck-1=Yes)
0
0-10.0
Ag
3
Manual procedure setting: analog output 2 (with Ck-1=Yes)
AUT
AUT-MAN
Ag
4
Manual procedure value: analog output 2 (with Ck-1=Yes)
0
0-10.0
Volt
Ah Ah
1 2
Manual procedure setting: analog output 3 (with Ck-1=Yes) Manual procedure value: analog output 3 (with Ck-1=Yes)
AUT 0
AUT-MAN 0-10.0
Volt
Ah
3
Manual procedure setting: analog output 4 (with Ck-1=Yes)
AUT
AUT-MAN
Ah
4
Manual procedure value: analog output 4 (with Ck-1=Yes)
0
0-10.0
Ah2
1
Manual procedure setting: analog output 1 of pCOE (with Ck1=Yes)
AUT
AUT-MAN
Ah2
2
Manual procedure value: analog output 1 of pCOE (with Ck1=Yes)
0
0-10.0
Aj
1
Driver 1 valve control mode
Automatic
Auto-Man.
Aj
2
Driver 1 valve manual opening steps
0
0-9999
Ak
1
Driver 2 valve control mode
Automatic
Auto-Man.
Ak
2
Driver 2 valve manual opening steps
0
0-9999
Al
1
Driver 1 manual release on start-up
No
No-Yes
Am
1
Driver 2 manual release on start-up
No
No-Yes
An
1
Enter new Maintenance password
----
0-9999
Volt
Volt
Volt
Steps Steps
Clock K0
1
Hour setting
current hour
0-23
hours
K0
2
Minute setting
current minutes
0-59
minutes
K0
3
Day setting
current day
1-31
K0
4
Month setting
current month
1-12
K0
5
Year setting
current year
0-99
K1
1
Enter Clock password
----
0-9999
K2
1
Enable temperature / humidity / On-Off time bands
No / No / No
No-Yes
K3
1
Start and end hour for On-Off time bands F1-1and F1-2
9 / 13 / 14 / 21
0-23
hours
K3
2
Start and end min. for On-Off time bands F1-1 and F1-2
0/0/0/0
0-59
minutes
K4
1
Start and end hour for On-Off time band F2
14 / 21
0-23
hours
K4
2
Start and end minutes for On-Off time band F2
0/0
0-59
minutes
K5
1
Select On-Off time bands (F1,F2,F3,F4) for each day
F3
F1-F2-F3-F4
K6 K6
1 2
Start hour temperature bands 1 and 2 Start minutes temperature bands 1 and 2
0/6 0/0
0-23 0-59
hours minutes
K6
3
Set point temperature bands 1 and 2
23.0 / 23.0
see P1
ºC / ºF
K7
1
Start hour temperature bands 3 and 4
12 / 18
0-23
hours
K7
2
Start minutes temperature bands 3 and 4
0/0
0-59
minutes
K7
3
Set point temperature bands 3 and 4
23.0 / 23.0
see P1
ºC / ºF
K8
1
Start hour humidity bands 1 and 2
0/6
0-23
hours
K8
2
Start minutes humidity bands 1 and 2
0/0
0-59
minutes
K8
3
Set point humidity bands 1 and 2
50.0 / 50.0
see P2
%RH
K9
1
Start hour humidity bands 3 and 4
12 / 18
0-23
hours
K9
2
Start minutes humidity bands 3 and 4
0/0
0-59
minutes
K9
3
Set point humidity bands 3 and 4
50.0 / 50.0
see P2
%RH
Ka
1
Enter new Clock password
----
PCO-TLC-GB-01
23/39
Scr. Par. Description
Default
Special value
Range
UOM
Setpoint Menu S1
1
Temperature set point
23.0
see P1
ºC / ºF
S1
2
Humidity set point
50.0
see P2
%RH
S2
1
Emergency temperature set point for dual cooling
28.0
see P1
ºC / ºF
S3
1
Air flow setpoint (AFC = air flow control)
15000
0-40000
m"/h
User Menu P0 P1
1 1
Enter user password Minimum and maximum temperature set point limits
---20.0 / 30.0
0-9999 -999.9-999.9
ºC / ºF
P2
1
Minimum and maximum humidity set point limits
40.0 / 60.0
0.0-100.0
%RH
P3
1
Differential in Cooling and Heating
3.0 / 3.0
0.0-100.0
ºC / ºF
P3
2
Temperature dead zone
0.5
0.0-99.9
ºC / ºF
P4
1
Differential in Humidification and Dehumidification
2.0 / 2.0
0.0-99.9
%RH
P4
2
Dehumidification / Humidification dead zone
0.5
0.0-99.9
%RH
P5
1
Show language screen at start-up
No
No-Yes
P5
2
Switch unit off from button
Yes
No-Yes
P5
3
Enable remote On-Off digital input
Yes
No-Yes
P6
1
Freecooling setpoint (delta T)
3.0
0-99.9
ºC / ºF
P6
2
Freecooling differential
2.0
0-99.9
ºC / ºF
P7
1
Freecooling restart config.(with G0-1=no): setpoint (delta T)
10.0
0-99.9
ºC / ºF
P7
2
Freecooling restart config.(with G0-1=no): differential
4.0
0-99.9
ºC / ºF
P8
1
Enable compensation function
No
No-Yes
P8
2
Outside air compensation set point
25.0
-999.9-999.9
ºC / ºF
P8
3
Outside air compensation differential
3.0
-999.9-999.9
ºC / ºF
P8
4
Offset maximum of compensation of the set of temperature
2.0
-999.9-999.9
ºC / ºF
P9
1
High and low room temperature alarms offset respect the setpoint 10.0 / 10.0
-999.9-999.9
ºC / ºF
Pa
1
High and low room humidity alarms offset respect the setpoint
20.0 / 30.0
0-100.0
%RH
Pb
1
Enable supply limit function
No
No-Yes
Pb Pb
2 3
Supply air set point for the limitation function Supply air differential for the limitation function
15.0 5.0
-999.9-999.9 -999.9-999.9
Assign type of alarm Serious/Not seriuos AL01-AL20
SSSSS SNNSN NNNNN NNNNN
N-S
Assign type of alarm Serious/Not seriuos AL21-AL40
NNNNN NNNNN SSSNS NSNNS
N-S
Assign type of alarm Serious/Not seriuos AL41-AL60
NNNNN NNNNN NNNNN NNNNN
N-S
Assign type of alarm Serious/Not seriuos AL61-AL80
NNNNN NNNNN NNSNN NNNNN
N-S
Not used
Not used, AL0...AL80, Not Serious al., Serious al., General al.
Not used
Not used, AL0...AL80, Not Serious al., Serious al., General al.
Not used
Not used, AL0...AL80, Not Serious al., Serious al., General al.
Pc
Pd
Pe
Pf
Pg
Pg
Ph
1
1
1
1
1
2
1
Configuration of digital output 4
Configuration of digital output 5
Configuration of digital output 6
PCO-TLC-GB-01
ºC / ºF ºC / ºF
24/39
Scr. Par. Description
Default
Special value
Range
Ph
2
Configuration of digital output 8
General alarm
Not used, AL0...AL80, Not Serious al., Serious al., General al.
Ph1
1
Cofigurable digital outputs (NO4-NO5-NO6-NO8) (NO4-NO5-NO6-NO8) logic type
N.O.
N.O. - N.C.
Ph2
1
Power failure alarm reset type
AUTO
AUTO - MAN
Pi
1
Board identification number for supervisory network
1
0-200
Pi
2
Board communication speed for supervisory network
1200
1200-19200
Pi
3
Serial communication protocol
Carel
Carel, Modbus, Lon, RS232, Gsm
Pj
1
Number of rings for GSM modem
0
0-9
Pj
2
Enter mobile number with GSM modem
0
0…9,#,*,@,ˆ
Pj Pj
3 1
GSM modem password Max. telephone numbers with analogue modem
0 0
0-9999 0-9
Pj
2
Telephone book number with analogue modem
0
0-Pg 1
Pj
3
Enter telephone number with analogue modem
-
0…9,#,*,@,ˆ
Pj
4
Modem password
0
0-9999
Pk
1
Number of rings for analogue modem
0
0-9
Pk
2
Type of analogue modem
Tone
Tone-Pulse
Pl
1
Enter new user password
----
0-9999
C0
1
Enable BMS
No
No-Yes
C0
2
Enable printer
No
No-Yes
C0
3
Select unit of measure for temperature probes and parameters
ºC
ºC-ºF
C1
1
Select refrigerant
R407C
R22, R134a, R404a, R407C, R410A
C2
1
Number of compressors
1
1-2
C2
2
Number of heaters
0
0-1-2-Binary
C3
1
Digital input 6 configuration
Al. Fire/Smoke
Al. Fire/Smoke, Al.water flood, Human comfort switch
C3
2
Switch off unit with the alarm (with C3-1=Al. Fire/Smoke or Al.water flood)
Yes
No-Yes
C3
3
Input type (with C3-1=Human comfort switch)
N.C.
N.C. - N.O.
C4
1
Enable condensation function
No
No-Yes
C4
2
Type of condenser
Single
Single-Separat.
C4 C4
3 4
Condensing output type Select number of condensing fans
Inverter 1
Inverter-Steps 1-2
C5
1
Logic of the dehumidification contact
NO
NO-NC
C5
2
Number of compressors enabled for dehumidification
0
0-2
UOM
Bps
Manufacturer -> Configuration
C7
1
Enable humidity probe
No
No-Yes
C7
2
Minimum and maximum value measured by the humidity probe
10.0 / 90.0
0-100.0
C8
1
Enable pressure probe 1
No
No-Yes
C8
2
Type of signal pressure probe 1
Current
0-5V, 4-20mA
C8
3
Minimum and maximum value pressure probe 1
0.0 / 30.0
-20.0 - 50.0
C9
1
Enable pressure probe 2
No
No-Yes
C9
2
Type of signal pressure probe 2
Current
0-5V, 4-20mA
C9
3
Minimum and maximum value pressure probe 2
0.0 / 30.0
-20.0 - 50.0
Ca Ca
1 2
Room temperature probe type Supply air temperature probe enable
NTC Yes
NTC-PT1000 No-Yes
Ca
3
Supply air temperature probe type
NTC
NTC-PT1000
Cb
1
External air temperature probe enable
No
No-Yes
Cb
2
External air temperature probe type
NTC
NTC-PT1000
Cc
1
LAN unit configuration Unit 1 (U1)
Present/No rotat.
Present/Rotation, Present/No rotat., Not present
Cc
2
LAN unit configuration Unit 2 - 3 (U2 - U3)
Not present Not present
Present/Rotation, Present/No rotat., Not present
PCO-TLC-GB-01
%RH
bar
bar
25/39
Scr. Par. Description
Default
Special value
Range
Cd
1
LAN unit configuration Unit 4 - 5 - 6 (U4 - U5 - U6)
Not present Not present Not present
Present/Rotation, Present/No rotat., Not present
Ce
1
LAN unit configuration Unit 7 -8 (U7 - U8)
Not present Not present
Present/Rotation, Present/No rotat., Not present
Cf
1
Enable expansion card
No
No-Yes
Cf
2
Enable expansion card alarm
No
No-Yes
Cf
3
Expansion card alarm delay
120
0-999
Cg
1
Freecooling system enable
No
No-Yes
Cg
2
Freecooling damper running time
60
0-999
Ch
1
Enable air flow control (AFC = Air Flow Control)
No
No-Yes
Ch
2
Main fan number
1
No-Yes
Ch
3
Main fan type
R3G500
R4E310 - R4E355 R3G450 - R3G500 R3G560 - R3G630
Ci
1
Differential pressure probe config. min. input
3200
0-32767
Ci
2
Differential pressure probe config. max. input
16000
0-32767
Ci
3
Differential pressure probe config. min. output
0
0-32767
Ci
4
Differential pressure probe config. max. output
10000
0-32767
Cj Ck
1 1
Enable inverter presence Enable manual procedure (activated in maintenance menu)
No No
No-Yes No-Yes
Cl
1
Enable UPS power supply
No
No-Yes
UOM
seconds seconds
Manufacturer -> Parameters G0
1
Enable compressors together with freecooling damper
No
No-Yes
G1
1
Enable FIFO compressor rotation
Yes
No-Yes
G1
2
Temperature regulation type
Prop.
Prop. - P+I
G6
1
Starting and end point to open m odulating damper-valve damper-valve in freecooling
0.0 / 50.0
0.0-100.0
%
G7 G7
1 2
Minimum and maximum main fan speed Main fan speed during dehumidification dehumidification / alarm with AFC
7.0 / 7.0 7.0
0.0-10.0 0.0-10.0
Volt Volt
G9
1
Temperature differential to stop dehumidification dehumidification
5.0
0-99.9
ºC / ºF
G9
2
Temperature offset to restart dehumidification dehumidification
4.0
0-99.9
ºC / ºF
Gd
1
High pressure alarm set point
26.5
-99.9 - 99.9
bar
Gd
2
High pressure alarm differential
1.0
-99.9 - 99.9
bar
Ge
1
Condensing pressure set point
15.0
-99.9 - 99.9
bar
Ge
2
Condensing pressure differential
5.0
-99.9 - 99.9
bar
Ge
3
Modulating condensing fan speed-up time
2
0-999
seconds
Gg
1
Maximum mod. cond. fan speed
8.0
0-10,0
Volt
Gg
2
Minimum mod. cond. fan speed
2.0
0-10,0
Volt
Gh
1
Enable high pressure alarm Prevent function
Yes
No-Yes
Gh
2
Prevent function set point (pressure)
20.0
-99.9 - 99.9
bar bar
Gh
3
Prevent function differential (pressure)
2.0
-99.9 - 99.9
Gi2
1
Overpressure function enable
No
No-Yes
Gi2
2
Overpressure function fan speed
2.0
0-10.0
Gj
1
Enable Master Control function
No
No-Yes
Gk
1
Rotation mode for units in pLAN network
Automatic
Automatic,Timezones, Running hours
Gk
2
Number of units set in Standby mode
0
0-Number of unit in Present/Rotat. mode
Gk
3
Stand-by units step in Standby mode
1
1-2
Volt
Gk
4
Automatic rotation period for units in pLAN
24
1-240
Hours
Gl
1
Timezones rotation hour for units in pLAN network
22
0-23
Hours
Gl
2
Timezones rotation minutes for units in pLAN network
0
0-59
minutes days
Gl
3
Interval in days for timezones rotation in pLAN network
3
1-7
Gm
1
Enable Force units by temperature in pLAN network
No
No-Yes
Gm
2
Forcing delay for low and high ambient temperature
3/3
0-999
minutes
Gn
1
Low ambient temp. diff. for forcing units in network
8
0-99.9
ºC / ºF
Gn
2
Low ambient temp. offset for forcing units in network
4
0-99.9
ºC / ºF
Go
1
High room temp. diff. for forcing units in network
8
0-99.9
ºC / ºF
PCO-TLC-GB-01
26/39
Scr. Par. Description
Default
Special value
Range
UOM ºC / ºF
Go
2
High room temp. offset for forcing units in network
4
0-99.9
Gw
1
Air flow control PID: proportional
2000
0-32767
Gw
2
Air flow control PID: integral time
60
0-32767
seconds seconds
Gw
3
Air flow control PID: derivative time
0
0-200
Gx
1
Air flow control PID: input selection
FILTERED
MEDIUM-FILTERED
Gx
2
Air flow control PID: dead zone
0
0-1000
Gx
3
Air flow control PID: period
1000
0-10000
Gy
1
Air flow control: PID filter enable
No
No-Yes
Gy Gy
2 3
Air flow control: PID filter maximum step Q1 Air flow control: PID filter minimum step Q1
10 1
1-100 1-100
Gy
4
Air flow control: Fan out filter enable
Yes
No-Yes
Gy
5
Air flow control: Fan out maximum step Q1
10
1-100
Gy
6
Air flow control: Fan out minimum step Q1
1
1-100
Gz
1
Air flow control: Probe filter enable
Yes
No-Yes
Gz
2
Air flow control: Probe filter maximum step Q1
100
1-100
Gz
3
Air flow control: Probe filter minimum step Q1
1
1-100
Gz
4
Air flow control: Input average of probe
5
1-9
Gz
5
Air flow control: Set for change between Q1 and Q2
50
0-20000
Gz
6
Air flow control: Differential for change between Q1 and Q2
20
0-20000
H1
1
Minimum frequency from inverter
30.0
0-999.9
H1
2
Maximum frequency from inverter
110.0
0-999.9
Hz
H1
3
Maximum frequency to inverter
90.0
0-999.9
%
H2
1
Inverter config.: startup frequency
45.0
0-999.9
Hz
H2
2
Inverter config.: startup period
60
0-999
seconds
H3
1
Enable automatic compressor oil drain fuction
Yes
No-Yes
H3
2
Automatic compressor oil drain fuction: activation period
5
0-9999
minutes
H3
3
Automatic compressor oil drain fuction: drain period
10
0-999
seconds
H4
1
Inverter alarm enable
Yes
No-Yes
H4
2
Inverter alarm logic type
N.O
N.C.-N.O
F0
1
Number of drivers connected
0
0-2
F0 F0
2 3
Enable backup battery driver 1 Enable backup battery driver 1
No No
No-Yes No-Yes
F1
1
Type of valve circuit 1
Carel E2V**A
0-11
F1
2
Superheating set point circuit 1
6.0
2.0-50.0
ºC
F1
3
Dead zone circuit 1
0
0-9.9
ºC
F2
1
Type valve circuit 2
Carel E2V**A
0-11
F2
2
Superheating set point circuit 2
6.0
2.0-50.0
ºC
F2
3
Dead zone circuit 2
0
0-9.9
ºC
F3
1
PID control – proportional gain circuit 1
2.5
0.0-99.9
F3
2
PID control – integration time circuit 1
30
0-999
seconds
F3
3
PID control – derivative time circuit 1
5.0
0.0-99.9
seconds
F4
1
PID control – proportional gain circuit 2
2.5
0.0-99.9
F4 F4
2 3
PID control – integration time circuit 2 PID control – derivative time circuit 2
30 5.0
0-999 0.0-99.9
seconds seconds
F5
1
Threshold for low superheat protection circuit 1
4.0
-4.0 - 10.0
ºC
F5
2
Prot. threshold integration time, low superheat circuit 1
1.0
0-25.5
seconds
F6
1
Threshold for low superheat protection circuit 2
4.0
-4.0 - 10.0
ºC
F6
2
Prot. threshold integration time, low superheat circuit 2
1.0
0-25.5
seconds
F7
1
Percentage ratio between cooling capacity and Driver capacity C1
30
0-100
%
F7
2
Percentage ratio between cooling capacity and Driver capacity C2
30
0-100
%
F8
1
LOP threshold
-40.0
-70.0 - 50.0
ºC
F8
2
LOP threshold integration time
4.0
0-25.5
seconds
F9
1
MOP start delay
30
0-500
seconds
F9
2
MOP threshold
16.0
-50.0 - 99.9
ºC
F9
3
MOP threshold integration time
4.0
0-25.5
seconds
Fa
1
High condensing temp. protection threshold
63.0
0-99.9
ºC
Fa
2
Integration time for high condensing temp. threshold
4.0
0-25.5
seconds
mseconds
Hz
Manufacturer -> Carel EXV driver
PCO-TLC-GB-01
27/39
Scr. Par. Description
Default
Special value
Range
UOM ºC
Fb
1
High suction temperature threshold
30.0
0-100.0
Fc
1
Custom Valve: minimum steps
0
0-8100
Fc
2
Custom Valve: maximum steps
1600
0-8100
Fd
1
Custom Valve: closing steps
3600
0-8100
Fd
2
Custom Valve: return steps
0
0-8100
Fe
1
Custom Valve: enable extra step in opening
No
No-Yes
Fe
2
Custom Valve: enable extra step in closing
No
No-Yes
Ff
1
Custom Valve: operating current
250
0-1000
mA
Ff Fg
2 1
Custom Valve: holding current Custom Valve: frequency
100 100
0-1000 32-330
mA Hertz
Fg
2
Custom Valve: duty cycle
50
0-100
%
Fh
1
Minimum evaporation pressure probe value
0.0
-9.9 - 10.0
Bar
Fh
2
Maximum evaporation pressure probe value
30.0
3.5 - 40.0
Bar
Fi
1
Low superheating alarm delay
0
0-3600
seconds
Fi
2
High suction temperature alarm delay
0
0-3600
seconds
Fj
1
LOP alarm delay
0
0-3600
seconds
Fj
2
MOP alarm delay
0
0-3600
seconds
Supply fan start and stop delay
10 / 20
0-999
seconds
Manufacturer -> Timing T0
1
T0b
1
Delay time among fan digital and analog output
0
0-999
seconds
T1
1
Integration time for P+I temperature control
600
0-999
seconds
T2
1
Low pressure alarm delay: at startup
180
0-999
seconds
T2
2
Low pressure alarm delay: running
60
0-999
seconds
T2
3
High-low temperature-humidity alarm delays
600
0-9999
seconds
T3
1
Serious alarm activation delay
0
0-9999
seconds
T3
2
Not serious alarm activation delay
0
0-9999
seconds
T4
1
Air flow switch alarm delay
20
0-9999
seconds
T5
1
Minimum compressor off time
180
0-9999
seconds
T5
2
Minimum compressor on time
60
0-9999
seconds
T6
1
Delay between compressor starts
360
0-9999
seconds
T6
2
Minimum delay between starts of different compressors
10
0-999
seconds
T8 T9
1 1
Heater start among electrical heaters Start delay between fan and other devices
3 0
0-9999 0-999
seconds seconds
Tb
1
Start Inverter alarm delay
20
0-999
seconds
Tb
2
Running Inverter alarm delay
20
0-999
seconds
Manufacturer -> Initialization V0
1
Enter password to install the default values
----
0-9999
V1
1
Set to Yes to erase the alarm history
No
No-Yes
V2
1
Enter new manufacturer password
----
0-9999
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8 ARCHITECTURE OF THE CONTROL CONTROL SYSTEM
8.1 Microprocessor layout Connector description 1. power supply connector [G (+), G0 (-)]; 2. yellow power LED and 3 LEDs for the pLAN networks; 3. additional power supply (max. 200 mA) for the terminal and 0 to 5 V ratiometric probes; 4. universal NTC, 0 to 1 V, 0 to 5 V ratiometric, 0 to 10 V, 0 to 20 mA, 4 to 20 mA analogue inputs; 5. passive NTC, PT1000, ON/OFF analogue inputs; 6. 0 to 10 V analogue outputs; 7. 24 Vac/Vdc digital inputs; 8. 230 Vac or 24 Vac/Vdc digital inputs; 9. connector for terminal display (external panel with direct signals); 10. connector for all the standard pCO series terminals and for downloading the application software; 11. digital relay outputs; 12. connector for the I/O board expansion; 13. pLAN connector; 14. cover for inserting the optional supervisor serial board; 15. cover for inserting the optional fi eld board; 16. cover for inserting the optional service board; 17. Built-In terminal (LCD, buttons and LEDs).
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8.2 Input / Output list The small version of the pCO3 boards allow managing the main devices of the telecom units. In some cases is necessary to add an expansion board (pCOE) with the following input / output list:
- Hardware: pCO3 small
Conn.
Label
Signal
Description
Analog Input
J2
B1
4-20mA / 0-5V
Condensing pressure sensor (4-20mA with current sensor or 0-5V with raziometric sensor)
B2
4-20mA
B3
NTC
Room temperature sensor
B4
NTC
Outlet temperature sensor
B5
NTC
External temperature sensor [with Freecooling option]
Air flow sensor [with Air flow control option]
J3
Analog Output Y1
0-10 Vdc
Evaporating fan speed
Y2
0-10 Vdc
Condensing fan speed
Y3
0-10 Vdc
Freecooling damper [with freecooling option]
Y4
0-10 Vdc
Inverter control [with inverter option]
J4
Digital Input ID1
-
High pressure alarm
ID2
-
Low pressure alarm
ID3
-
Air flow alarm
ID4
-
Dirty filter alarm
ID5
-
No power - phase sequence alarm
ID6
-
Fire-smoke alarm / Flooding alarm / Human comfort switch (set by parameter)
ID7
-
Electrical heater overload alarm
ID8
-
Remote On-Off
NO1
-
Compressor On-Off
NO2
-
Condensing fan On-Off
NO3
-
Electrical heater On-Off
NO4
-
Configurable digital output (set by parameter)
NO5
-
Configurable digital output (set by parameter)
NO6
-
Configurable digital output (set by parameter)
J14
NO7
-
Evaporating fan On-Off
J15
NO8
-
General alarm (set by parameter)
J5
Digital Output
J12
J13
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- Hardware: pCOE TLAN address = 3
Conn.
Label
Signal
Description
Analog Input B1
4-20mA
Room humidity sensor [with dehumidification option]
B2
4-20mA
Condensing pressure 2 sensor (4-20mA with current sensor) [with 2 circuits option]
B3
0-5V
Inverter frequency input [with inverter option]
B4
0-5V
Condensing pressure 2 sensor (0-5V with raziometric sensor) [with 2 circuits option]
J9
J10
Digital Input ID1
-
Inverter alarm [with inverter option]
ID2
-
Electrical heater 2 overload alarm [with 2 electrical heaters option]
ID3
-
High pressure alarm circuit 2 [with 2 circuits option]
ID4
-
Low pressure alarm circuit 2 [with 2 circuits option]
J4
Analog Output J2
Y1
0-10 V
Condensing fan speed circuit 2 [with 2 circuits option]
NO1
-
Dehumidification On-Off [with dehumidification option]
C1
-
NC1
-
NO2
-
C2
-
NC2
-
NO3
-
C3
-
NC3
-
NO4
-
C4
-
NC4
-
Digital Output
J5
J6
J7
J8
PCO-TLC-GB-01
Compressor 2 On-Off [with 2 circuits option]
Electrical heater 2 On-Off [with 2 electrical heaters option]
Compressor oil drain [with inverter option]
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8.3 Accessories 8.3.1 Electronic expansion valve The EVDriver module for the control of the electronic expansion valves (EEV) for LAN network allows the inlet overheating control for amore efficient and versatile operation of the refrigerating unit. Efficient because the optimisation and the stabilization of the refrigerant flow to the evaporator increase the performance of the installation assuring at the same time the safety (less activations of the low pressure switch, less backflows of the refrigerant to the compressor,…). Moreover, if the EEV has been properly dimensioned, using the floating or low setpoint condensation (and evaporation) pressure increase remarkably the efficiency of the installation allowing less energy consumption and a better refrigerating yield. Versatile because using the electronic expansion valve implies the possibility to manage refrigerating units with very different capacities and in different operating conditions. The use of the electronic expansion valve implies the installation not only of the EVDriver or the expansion valve themselves, but also of a temperature sensor and a pressure transducer, both of them placed at the end of the evaporator on the refrigerant side (on the compressor inlet pipe). Refer to the following diagram for a better understanding of the typical installation layout.
The base principle of the new control algorithm aims at the installation stability combined with, when possible, a quick achievement of the overheating steady state. In this sense, the priorities to be considered for an optimum control of the refrigerating installation are a high and constant refrigerating yield rather than an extremely low and stable overheating. The heart of the control is a PID controller that features coefficients that can be set for the overheating. The additional controls are: LOW (Low overheating with integral time and adjustable threshold) LOP (Low evaporation pressure, operating actually only on transients, with integral time and adjustable threshold) MOP (High evaporation pressure, with integral time and adjustable threshold) HiTcond (High condensation pressure that can be activated only by condensation pressure probe read by pCO, with integral time and adjustable threshold). In the parameter table, the control parameters, with the thresholds and the default values, are described. • •
• •
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9 LAN CONNECTION A maximum number of 8 units can be connected in lan to manage the following functions as well: • automatic time or event rotation among • control of temperature and humidity of the connected units, taking the probes of unit no. 1 as a reference • use of only one LCD display for controlling the connected units
9.1 Description The connection of pCO3 boards in LAN network allows for the following functions: 1. balancing air-conditioning units working hours by spare units (in stand-by mode) rotation. 2. spare units start-up in case other units stop due to serious alarms or black-out. 3. spare units start-up to compensate for the excessive thermal load. 4. controlling up to 8 air-conditioning units by a single external LCD display. 5. operation of all air-conditioning units according to Master air-conditioning unit probes to adjust units operation. 6. managing alarms printing and probes values by shared external display. Connection in LAN network allows configuring a wide range of systems. The following list includes the main system types to be possibly created, in order of complexity, and provides suggestions for executing connections: 1. one or more independent air-conditioning units (board(s) with LAN address 1 + external display(s), if any, with LAN address 25); 2. two or more air-conditioning units and one external display (boards with LAN addresses 1-8 connected with Rs485 via J11, display with LAN address 32 connected with one of the boards); this connection allows for the functions listed in the previous paragraph; 3. two or more air-conditioning units in LAN network, each provided with private display (boards with LAN addresses 1-8 connected with Rs485 via J11, displays with LAN addresses 25-32 connected with the relevant board); this connection allows for the functions listed in the previous paragraph. Networks in which boards are connected with the LAN allow selecting the units involved in the Rotation functions, thus obtaining a mixed network with interacting and independent units. LAN connection among the boards allows using a shared external display (add. 32) in addition to the boards private displays; this solution is adopted where private displays are assembled on the air-conditioning units and the shared display is installed inside a room.
IMPORTANT: if only one board is being used, it must have LAN address 1; no LAN electric connection is required and the external display, if any, must have LAN address 25.
9.2 Automatic start and stand-by units The boards connected with LAN network may be managed directly by the program under “critical situations”, that is in case of failure (alarms, black-out…) or due to “Rotation” and “Forcing” functions. The program acts based on some parameters that can be displayed and modified on the board with LAN address 1: Boards mode operation: Not present, Present/No Rotation, Present/Rotation. These are 8 parameters, one for each board. Not present: unit not connected. Present/No Rotation: unit physically connected with LAN network but not involved in the rotation function (however, unit can manage the shared display, printing and Master Control function). Present/Rotation: unit involved in Rotation too. Number of units in stand-by mode: this parameter establishes the number of units, among the ones selected in Present/Rotation mode, that must be set to stand-by mode (turned off, waiting for enabling) when starting the unit by button. The parameter is automatically included between 0 and the total number of Present/Rotation units minus one, to ensure start-up of at least one unit. •
•
IMPORTANT. The following functions cannot be executed if: at least two units selected in Present/controlled mode are not present the stand-by units set number is 0 The board with LAN address 1 provides for functions management; if the board is disconnected from LAN network or it shuts down due to a black-out, the stand-by boards enable and the functions will be suspended until unit 1 is reset. On the contrary, unit 1 stop by On-off or remote On-off button does not interrupt network functions execution. • •
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9.2.1 Critical situations Units in Present/Rotation and stand-by modes are enabled in any of the following critical situations concerning the running boards: one of the boards has power cut off (black-out). one of the boards signals a Serious alarm that enables alarm relay no. 8 (each alarm can be programmed as serious or non-serious). one of the boards disconnects from LAN network due to Rs485 line disconnection. one of the boards is shut down by button or remote On-off digital input. one of the boards is shut down due to a serious alarm (refer to alarms table). In case a running unit is involved in any of the listed situations, a stand-by board is automatically enabled to reset the number of running units. If, for example, two running units break or disconnect, the program enables two stand-by units; when one of the units under critical situation resets, it is started again and the spare unit returns to stand-by mode. If a critical situation involves the stand-by units, no LAN action occurs, with the exception of alarm signalling on the involved unit. • •
• • •
9.2.2 Forcing Units in Present/Rotation and stand-by modes are enabled automatically in case a running unit does not reach the temperature set point for a certain time interval due to an excessive thermal load. Each unit running in such a situation can require enabling of a stand-by unit. The parameters to be set for forcing are Differential, Offset and Delay time, different for heating and cooling. The following diagram shows the forcing function: Forcing delay in heating mode
Forcing delay in cooling mode Temperature set
HEATING 12.0
16.0
20.0
4°C Warm forc. offset
COOLING 23.0
3°C Warm band
8°C Warm forcing differential
26.0
30.0
34.0
3°C
4°C
Cold band
Cold forc. offset
Ambient temp.(°C)
8°C Cold forcing differential
9.2.3 Fixed-hour rotation A system consisting of both running and stand-by units is subject to unbalance in the working hours, causing running units to age faster than stand-by ones. To obviate this problem, LAN network can provide for units rotation, favouring balancing in the working hours. In practice, rotation sets a running unit to stand-by mode and starts a stand-by unit. The fixed-hour rotation is based on a parameter establishing the rotations time interval. The programmable minimum time is 0h; in this case, automatic rotation enables every 5 minutes as a test. The maximum time is 240h (10 days). Time is counted from start-up of the unit with LAN address 1 that manages rotation. Rotation can be executed following the LAN addresses logic or the units working hours. Selecting the addresses logic, the unit with highest address (among the running ones) switches from on to stand-by mode, whereas the unit withì lowest address switches from stand-by mode to on. Selecting the working hours logic, the unit with highest working hours (among the running ones) switches from on to stand-by mode, whereas the unit with lowest working hours switches from stand-by mode to on.
9.2.4 Fixed-day rotation The clock card (optional) allows setting the hour and the days interval (max. 7) for units rotation. Logic is the same as the fixed-hour rotation, but in this case the rotation interval can be programmed for a determined day and hour.
9.2.5 Rotation based on working hours This type of rotation involves the units with highest and lowest working hours, switching the former to stand-by mode and the latter to On mode. The reference working hours for this type of rotation are the same as the outlet fan ones; due to practical reasons, they can be modified in screens E6 and E7 of branch Maintenance. PCO-TLC-GB-01
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9.3 Master control The “master” unit temperature and humidity probes must be located in an “intermediate” position inside the controlled environment. The “master” unit drives the logic to be adopted from all connected units. That’s important to avoid situations like units in dehumidification and units in humidification at the same time and in the same environment. The “Master” unit modifies the working logic in case the measured temperature or humidity exceed the set point, even by few decimal points. In case of black-out or “master” unit disconnection from LAN network, the connected units start functioning independently based on the their own probes only. The units connected with LAN network and in Present/… mode follow the working logic of the unit with LAN address 1, functioning as a “driver” unit so that the system can work with the same logic. This precaution prevents units from having opposite logic, something that may occur in wide environments with different temperatures or humidity areas. In such environments, each unit could follow the indications of the relevant probe, causing the uncontrolled start of humidification, dehumidification, heating or cooling. This would nullify their effect and cause energy waste.
WARNING: the “driver” unit temperature and humidity probes must be located in an “intermediate” position inside the controlled environment. The “driver” unit sends the information concerning the logic to be adopted to the LAN network. Therefore, the network units found devices enabling on both reading of the relevant probes and “driver” unit order, so that devices can turn on in case the two factors coincide. The “driver” unit modifies the working logic in case the measured temperature or humidity exceed the set point, even by few decimal points. In case of black-out or “driver” unit disconnection from LAN network, the network units start functioning independently again based on the relevant probes only.
10
SUPERVISION
pCO3 can be connected with a local or remote supervisory PC, a GSM or traditional modem and the most spread BMS (Modbus, Bacnet, Lonworks). To be used, the listed functions require the installation of optional cards (RS485, RS232, LON) or Gateways (devices able to interpret different communication protocols).
10.1 Main Parameters The configuration of the supervision logic can be set from the User menu and involves defining: communication protocol communication speed serial address of the unit • • •
You can select from among the following Communication Protocols: Carel RS485 (Local Supervisor Protocol for communication with Carel supervision systems) Modbus LonWorks RS232 (analog modem) GSM (GSM modem) • • • • •
Communication Speed (baud rate) 1200 baud 2400 baud 4800 baud (only speed possible with LonWorks network) 9600 baud 19200 baud • • • • •
Address of peripheral unit in the network 1..200 •
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10.2 Connection with CAREL / MODBUS Protocol The connection for supervision with the Carel or Modbus protocol is achieved via an RS485 (Errore. L'origine riferimento non è stata trovata.) serial card, available on request in the pCO controller
In order to make a connection to the supervisor terminal, the unit must be connected to an RS485/RS232 converter (or similar device) using a suitable cable (2 wires + shield AWG22-24) and then from the converter to the computer itself.
1 unit under supervision
2 or more units under supervision
10.3 Connection with LONWORKS protocol A connection can be made to the LonWorks network using the connector with extractable terminals, provided on request on the circuit board (Errore. L'origine riferimento non è stata trovata.) as an alternative to the one used for the Carel and Modbus protocols:
1 connector for connection to pCO; 1. terminals for connection to LonWorks (GND, A, B); 2. service pin; 3. Green service LED; 4. Red fault warning LED. To activate the service pin it is sufficient to short circuit the two pins for an instant using the tip of a screwdriver or similar means. Activation will be signalled by the lighting up of the service LED.
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The service LED: signals the status of the node as per the LonWorks protocol; remains lit during activation of the service pin; remains lit for one second on receiving a WINK command from the network. • • •
The fault warning LED signals the impossibility of connecting on the pCO side. If the red fault warning LED lights up, check whether the baud rate of the serial communication with the pCO is set on 4800. The physical connection to the LonWorks network must be made as per LonWorks instructions and specifications.
10.4 Gsm protocol By selecting the GSM protocol, SMS (text) messages can be sent to and from GSM phones, using a GSM modem. The pCO3 sends a message to the phone in the event of alarms, and can receive messages from the telephone at any time; the user can in fact use a GSM phone to modify some of the unit's parameters, as listed below:
10.4.1 GSM modem: WAVECOM Fastrack
10.4.2 SIM card • • •
Disable the PIN request of your SIM card using a std. mobile phone. Delete all the messages which are present in the SMS memory. Insert the SIM card in the proper holder in the GSM Modem.
10.4.3 Protocol configuration •
Configure in the user menu o The GSM protocol o The baud rate set to 9600
10.4.4 Receiving SMS The GSM modem can send an SMS if there is an alarm in the unit. Is necessary to input the telephone number (only 1 number) which will be called. (screen Pg)
Example: SMS text: Std Telecom V:TLC_01_02 T.025.1C ST.022.0Chum.48.0%SH.50.0%Alarm Unit:01Water under floor 20:30 01/03/05 Description of the SMS: At 20.30 on 01/03/05 is happen the Water flood alarm in the unit 01; the unit status is: Room temperature = 22.0°C, Room setpoint = 22.0°C, Room Humidity = 48.0%, Room Humidity setpoint = 50.0%. The software version installed is TLC_01_02.
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10.4.5 Sending SMS The messages sent must strictly comply with the following format: .pCO2.PWD.Type1.Index1.Value1…………….TypeN.IndexN.ValueN& with N<=11 where:
pCO2 = Message header. PWD = Access password: this must be composed of 4 ASCII characters and coincide with the remote access password, set in the screen Pg. If the password is 0001, PWD will be ‘0001’. Typei = Type of i-th variable to be set: it is represented by one of the following characters ‘A’, ‘I’ and ‘D’, respectively for Analog, Integer or Digital variable. Indexi = Index of the i-th variable to be set: it must be composed of 3 consecutive digits ‘0’…’9’. If, for example, the variable index is 132, the Index will be ‘132’. Valuei = Desired value to set the i-th variable to: this must be always be composed of 6 characters, where the first is the sign, and the others are composed the digits ‘0’… ‘9’. For example, if the variable value is 12, Value will be ‘000012’ or ‘+00012’. If, on the contrary, the variable value is –243, Value will be ‘-00243’. As for the analog variables, the value sent is the actual variable value multiplied by 10. For example, the ‘-00243’ value will correspond to –24,3. For the digital variables, the possible values are ‘000000’ or ‘000001’. N = represents the number of variables to be set with only one SMS message. The maximum number is 11, so as to avoid exceeding the threshold of 160 characters. Warnings - No spaces must be present in the SMS message. - The message begins with a dot. - The fields of the message are mutually separated by a dot. - The message ends with the character ‘&’, not preceded by a dot. Examples For resetting the digital variable with index 5 in a pCO2 with password = 1234, the SMS message must be as follows: .pCO2.1234.D.005.000000& To set the analog variable with index 1 to the value -22.4, the integer variable with index 123 to 15 and the digital variable with index 21 to the value 1 in just one SMS message, this must be as follows: .pCO2.1234.A.001.-00224.I.123.000015.D.021.000001&
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10.4.6 Variables table Parameter
Unit 1
Unit 2
Unit 3
Unit 4
Unit 5
Unit 6
Unit 7
Unit 8
Temperature set point
analogue 1
analogue 10
analogue 19
analogue 28
analogue 37
analogue 46
analogue 55
analogue 64
Humidity set point
analogue 2
analogue 11
analogue 20
analogue 29
analogue 38
analogue 47
analogue 56
analogue 65
Freecooling set point
analogue 3
analogue 12
analogue 21
analogue 30
analogue 39
analogue 48
analogue 57
analogue 66
Compensation set point
analogue 4
analogue 13
analogue 22
analogue 31
analogue 40
analogue 49
analogue 58
analogue 67
Low temperature alarm threshold offset
analogue 5
analogue 14
analogue 23
analogue 32
analogue 41
analogue 50
analogue 59
analogue 68
High temperature alarm threshold offset
analogue 6
analogue 15
analogue 24
analogue 33
analogue 42
analogue 51
analogue 60
analogue 69
Low humidity alarm threshold offset
analogue 7
analogue 16
analogue 25
analogue 34
analogue 43
analogue 52
analogue 61
analogue 70
High humidity threshold offset
analogue 8
analogue 17
analogue 26
analogue 35
analogue 44
analogue 53
analogue 62
analogue 71
Outlet air limit set point
analogue 9
analogue 18
analogue 27
analogue 36
analogue 45
analogue 54
analogue 63
analogue 72
digital 1
digital 2
digital 3
digital 4
digital 5
digital 6
digital 7
digital 8
Unit On-off
N.B. When the GSM protocol is active, the remote supervisor cannot make a remote connectione to the pCO3 board.
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page/sektor
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spezification
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page/sektor
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-W2.1 Chemaflex
JB 3G2,5mm !
-W2.2 Chemaflex
JB 3G2,5mm !
page/sektor
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spezification
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spezification
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page/sektor
connection
spezification
bridge terminal marking
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spezification
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-W2.3 Chemaflex
JB 3G2,5mm !
-W2.4 Chemaflex
JB 3G2,5mm !
-W2.5 Chemaflex
JB 3G2,5mm !
-W50 Chemaflex
JB 3G2,5mm !
-W51 Chemaflex
JB 3G2,5mm !
page/sektor
connection
spezification
bridge terminal marking
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spezification
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-W3.1 (N)2XH-J 3G2,5mm !
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-W3.3 (N)2XH-J 5G2,5mm !
-W3.4 (N)2XH-J 3G2,5mm !
-W3.5 (N)2XH-J 3G2,5mm !
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spezification
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spezification
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-W10 Chemaflex R
JZ 3G2,5mm !
page/sektor
connection
spezification
bridge terminal marking
connection
spezification
comment
-W15 Chemaflex
JB 5G4,0mm !
page/sektor
connection
spezification
bridge terminal marking
connection
spezification
comment
-W16.1 Chema
7x2,5mm !
C-flex JZ
-W16.2 Chema
7x2,5mm !
C-flex JZ
page/sektor
connection
spezification
bridge terminal marking
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spezification
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page/sektor
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spezification
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JB 5G4,0mm !
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spezification
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spezification
comment
-W26.1 Chema
7x2,5mm !
C-flex JZ
-W26.2 Chema
C-flex JZ
7x2,5mm !
page/sektor
connection
spezification
bridge terminal marking
connection
spezification
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-W35 Chemaflex
JB 5G4,0mm !
page/sektor
connection
spezification
bridge terminal marking
connection
spezification
comment
-W36.1 Chema
7x2,5mm !
C-flex JZ
-W36.2 Chema
C-flex JZ
7x2,5mm !
page/sektor
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spezification
bridge terminal marking
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spezification
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-W45 Chemaflex
JB 5G4,0mm !
page/sektor
connection
spezification
bridge terminal marking
connection
spezification
comment
-W46.1 Chema
7x2,5mm !
C-flex JZ
-W46.2 Chema
C-flex JZ
7x2,5mm !
page/sektor
connection
spezification
bridge terminal marking
connection
spezification
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-W100.1 Chemaflex R
OZ 2G1,0mm !
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s l o r t r r r r r r r n e e e e e e e o m m m m m m m C i i i i i i i a a a a a a a d d d d n N N N N N N N n n n n o & & & & & & & n a a a a s s s s s s s e e e e e e e e e e e e s n u u u u u u u o o o o l l l l b l l l l l l l l l l l h e B B a a a a a a a c c c c e e e e i i i i h B B r r r r r r r a a a a e e e e e e e e e e e o T T T T T T T T T T T J T A A K K K K K K K B B B B W W W W
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2 2 2 2 2 2 2 C C 2 2 2 2 2 2 2 A T T T T T T T C 1 V F F F F F F F 1 2 T / 0 / / / / / / 3 2 2 2 2 2 2 2 U 4 T P x T 0 0 0 0 0 0 0 2 / L 0 O a - 1 1 1 1 1 1 1 E S L L L L L 3 T m 1 T T T T T T T 0 3 , 4 0 4 0 4 0 4 0 4 0 4 2 T T - - - - - - - 5 3 H U 0 1 3 1 3 1 3 1 3 1 3 1 M 0 0 0 0 0 0 0 0 H 3 0 W / 7 U U 2 7 2 7 2 7 2 7 2 7 2 P 1 E x 1 1 1 1 1 1 1 A 1 A 0 / / S S S S S S 1 6 C a A A A A A A A 1 . E E 7 N 4 4 S M S M S M S M S M S S R A m G G G G G G G 2 f 3 3 K K K K R R R R R R R R R R R M T S T K K K K K K K L 3 3 3 W W W W
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w o l l e e e h t t y c i i / h t h n h h h h h h h t c c c c c c c w i w e e y e h i t t t t t t t w u e e u e c n s t l r r l i i i i i i i n t u w w w w w w w o n b g g b r i y e u s s s s s s s t w r t r m l l l l t a s o t t t t t t t u r a e a a a a r t u u u u u u u b e i l n n n n t e r r a o o o o o o o l e i i i i y y y y y e a e a e a e a e a e p e e u h p i - m m m m s l s l s l s l s l s m m w t t t t t t t t s a x D r r r r a e a e a e a e a e a e i o c u u u u u u u u d u E e e e e b r b r b r b r b r b t t p a c c c c c c c p a a L t t t t
6 K 1 0 R H B 0 1 +
7 K 1 0 R H B 0 1 +
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0 2 K 1 0 R H B 0 1 +
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1 1 1 0 N P Q - - 1 1 1 0 0 0 R R R H H H B B B 0 0 0 1 1 1 + + +
0 1 2 3 4 5 6 7 1 S S S S S S S S - - - - - - - 1 1 1 1 1 1 1 1 0 0 0 0 0 0 0 0 R R R R R R R R H H H H H H H H B B B B B B B B 0 0 0 0 0 0 0 0 1 1 1 1 1 1 1 1 + + + + + + + +
1 1 1 1 0 0 X X X X - - - 1 1 1 1 0 0 0 0 R R R R H H H H B B B B 0 0 0 0 1 1 1 1 + + + +
3 1 0 0 0 0 0 0 0 0 0 0 0 0 0 2 0 0 0 0 0 0 0 0 1 1 1 0 0 0 0 0 4 2 4 2 4 2 4 2 4 2 4 1 0 0 0 4 4 4 4 4 4 4 3 2 2 4 6 9 8 6 1 1 1 1 1 1 1 1 1 1 1 6 0 0 5 9 9 9 9 9 9 9 4 1 6 8 6 6 3 3 0 0 0 0 0 0 0 0 0 0 0 0 2 0 6 0 0 0 0 0 0 0 0 0 0 0 1 1 1 1 0 0 0 0 0 0 0 0 0 0 0 0 0 A 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 I I I I I I I I I I I H J K F C C C C C C C J J J J W W W W S S S S S S S S S S S S S L S S S S S S S S S S S S S S S S M M M M M M M M M M M M M E M M M M M M M M M M M M M M M M
1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 3 3 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1 2 4 4 4 4 4 4 4 5 5 5 5 5 5 5 5 5 5 6 6 6
e n i l s e s n d d d d d d d d d d d d d d d d d d d d d d d d d d d d i i n n n n n n n n n n n n n n n n n n n n n n n n n n n n m l a a s s a a a a a a a a a a a a a a a a a a a a a a a a a a l l - s l l l l l l l l l l l l l l l l l l l l l l l l l l e e B i e e e e e e e e e e e e e e e e e e e e e e e e e e i B m i i i i i i i i i i i i i i i i i i i i i i i i i i i W W A S W W W W W W W W W W W W W W W W W W W W W W W W W W
U U U U U / / / / / L L L L L S S S S U U S U U U U U U U U U / 4 / U / 0 2 7 0 / U 0 / / E / / E E / / / E / U U L L 7 2 5 7 L U U / 7 U L U E L U U E E U U L E S 7 S / / 0 / S / S / / / / S / / S 4 N S S N 4 4 4 7 N 4 4 4 4 4 6 6 6 4 4 4 4 6 6 6 4 4 6 6 6 K K L L K K K K K K K K K K K K K K K K K K K K K K K K K K W W Z Z W W W W W W W W W W W W W W W W W W W W W W W W W W
w w w w w w w w w w w o o o o o o o o o o o l l l l l l l l l l l l l l l l l l l l l l e e e e e e e e e e e r y y y y y y y y y y y o / / / / / / / / / / / n t n n n n n n n n n n e y c m y e e y e e e e y y e e y e y e e y y e e y e y e e e e e e e e u e u e u e e e e e e u e e e e e u e e e e u e r r n t r r l r l r l r r r r r r l r r r r r l r r r r l r g g n s g g b g b g b g g g g g g b g g g g g b g g g g b g o y l l c s l l l l l l l l l l l l l l l l l l l l l l l l l l a a a a a a a a a a a a a a a a a a a a a a a a a a a a n n r r n n n n n n n n n n n n n n n n n n n n n n n n n n i i a a i i i i i i i i i i i i i i i i i i i i i i i i i i m m b b m m m m m m m m m m m m m m m m m m m m m m m m m m r r s s r r r r r r r r r r r r r r r r r r r r r r r r r r e e u u e e e e e e e e e e e e e e e e e e e e e e e e e e t t b b t t t t t t t t t t t t t t t t t t t t t t t t t t
0 1 . 1 0 1 X X X - - 1 1 1 0 0 0 R R R H H H B B B 0 0 0 1 1 1 + + +
2 2 2 0 0 5 5 5 6 6 0 0 5 5 5 6 6 5 5 5 2 2 2 3 3 3 0 0 0 1 1 1 1 1 1 1 2 2 2 2 2 2 2 3 3 3 X X X X X X X X X X X X X X X X X X X X X X X X X X - - - - - - - - - - - - - - - - - - - - - - - - - 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 R R R R R R R R R R R R R R R R R R R R R R R R R R H H H H H H H H H H H H H H H H H H H H H H H H H H B B B B B B B B B B B B B B B B B B B B B B B B B B 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 + + + + + + + + + + + + + + + + + + + + + + + + + +
4 1 0 0 0 2 0 0 0 0 0 0 0 0 0 0 5 0 0 0 0 5 5 0 0 0 0 0 5 0 0 0 0 8 7 0 8 0 6 8 6 9 6 0 8 5 5 6 4 2 5 5 5 5 4 2 6 5 5 4 2 6 4 6 0 0 6 4 3 3 6 6 3 4 3 7 7 4 4 4 7 7 7 7 4 4 4 7 7 4 4 4 1 1 2 0 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 0 0 0 A 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 W W F K W W W W W W W W W W W W W W W W W W W W W W W W W W S S S L S S S S S S S S S S S S S S S S S S S S S S S S S S M M M E M M M M M M M M M M M M M M M M M M M M M M M M M M
3 3 1 1 3 5 5 5 1 1 5 5 6 3 1 1 3 1 5 1 1 3 3 1 1 5 1 3 1 1 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1 6 6 6 6 6 6 6 7 7 7 7 7 7 7 7 7 7 8 8 8 8 8 8 8 8 8 8 9 9
g g g r r r d d d d d d d d d d d d d d d d d d d d d m d e e e n n n n n n n n n n n n n n n n n n n n n e n b b b l l l l a a a a a a a a a a a a a a a a a a a a a a a a s h s s a a l l l l l l l l l t l l l l t l l l l t l l l l l c l l t l e e e e e e e e e t e e e e t e e e e t e e e e e y e e t e i i i i i i i i i i i i i i i i i i i i p a p p i i i i i i W W W W W W W W W R W W W W R W W W W R W W W W S R S S R W
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w w w w w w w o o o o o o o l l l l l l l l l l l l l l e e e e e e e y y y y y y y x / / / / / / / o n n n n n n n b e y e y e y e y e y e e e y e e e y e e e e u e e e e e u e e e u e u e x x x r r r r l r r r r x r l r x r r l x r l r o n o o x g g g g b g g g g o g b g o g g b o g b g b o b b o b b b b i l l l l l l l l l p l l l p l l l p l l l n t n n p a a a a a a a a a n i a a a n i a a a n i a a a o c o o n i n n n n n n n n n o l n n n o l n n n o l n n n i n i i o l i i i i i i i i i i c i i i i c i i i i c i i i t u t t i c m m m m m m m m m t m m m t m m m t m m m c j c c t r r r r r r r r r c d r r r c d r r r c d r r r n n n c d e e e e e e e e e u n e e e u n e e e u n e e e u X u u u n t t t t t t t t t j e t t t j e t t t j e t t t j E j j j e
0 6 6 5 5 5 6 6 0 E 3 3 4 4 4 4 4 1 P X X X X X X X X X - - - - - - - - 1 1 1 1 1 1 1 1 1 0 0 0 0 0 0 0 0 0 E R R R R R R R R R H H H H H H H H H 1 B B B B B B B B B 0 0 0 0 0 0 0 0 0 0 P 1 1 1 1 1 1 1 1 1 G + + + + + + + + + +
1 1 1 4 4 4 X X X E - - - 2 1 1 1 0 0 0 0 P P P P G G G G + + + +
1 1 1 4 4 4 X X X E - - - 3 2 2 2 0 0 0 0 P P P P G G G G + + + +
0 0 0 4 4 4 X X X E E E E E - - - - - - - 0 1 2 3 1 3 3 3 1 1 1 1 0 0 0 0 P P P P P P P Q G G G G G G G G + + + + + + + +
1 1 5 0 0 0 0 0 5 0 0 1 0 0 0 0 1 0 0 0 0 1 0 0 0 0 5 4 5 5 1 0 5 5 6 4 2 5 5 5 9 4 3 8 6 0 4 3 0 8 6 4 3 0 6 8 7 0 7 7 2 3 7 7 4 4 4 7 7 7 6 4 7 3 3 4 4 7 4 3 3 4 7 4 3 3 1 0 1 1 4 7 1 1 1 1 1 1 1 1 1 0 2 1 1 1 0 2 1 1 1 0 2 1 1 1 0 0 0 0 0 2 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 A 0 0 0 0 W W W W W W W W W N W W W W N W W W W N W W W W L K L L N W S S S S S S S S S S S S S S S S S S S S S S S S S L S S S S M M M M M M M M M M M M M M M M M M M M M M M M M E M M M M
5 5 9 1 5 1 3 1 5 1 1 1 1 2 1 4 4 1 2 4 1 4 1 2 4 4 1 1 1 1 1 1 2 0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 2 3 4 5 6 7 8 9 0 0 0 0 0 0 0 0 0 0 1 1 1 1 1 1 1 1 9 9 9 9 9 9 9 9 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1
d d d d d d d d l n n n n l l n l l n n n a a a a a a a a O O O O O O O O a a a a a l l l t l l l l C C C C C C C C t t l t t P e e e t e e e e O O O O O O O O t t e t t P i i i i i i B B B B B B B B i i i i i i A i W W W R W W W W I I I I I I I I R R W R R L
0 0 0 0 0 5 0 0 1 5 0 3 0 0 5 3 0 0 0 0 0 0 0 0 5 S . . . S 8 8 8 8 8 1 8 8 . U 4 U 9 1 V x x x x x x x x 3 4 / 1 2 / 0 0 0 0 0 0 0 0 1 1 2 8 9 M U U L 5 / U L U 6 6 6 6 4 6 4 4 2 5 / 5 5 E / / S 1 8 / S / - - - - - - - - 1 2 8 2 2 4 4 4 0 4 4 4 E E E E E E E E 0 5 K K K L 7 K K K 1 1 1 1 1 1 1 1 E Z 7 Z Z 2 W W W K 9 W W W T T T T T T T T A S 9 S S M
w w o o l l l l e e y y / / n n t y e e y e e t e e u e e e u i n d r l r x r r l u i g b g o g g b t t t t t t t t d p n b b n m a c c c c c c c c a l l l l p l l l u u u u u u u u c e p o a a a a n i a a a d d d d d d d d s i c l g n n n o l n n n l h a c e i i i i c i i i e e e e e e e e c c c e l m m m t m m m l l l l l l l l t n l e b r r r c d r r r b b b b b b b b d b s i a e e e u n e e e a a a a a a a a w l n a o a t t t j e t t t c c c c c c c c s p e c h c
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