S/GRA/SVTA4690/C/10/07/2002 Page 1/6 GB DIGITAL THREE PHASE ANGLE CONTROLLER SVTA4690 Allows to set the voltage applied to different sort of loads with 3 wires, 4 wires or inside the delta wiring: Resistive (Bulbs, UV and IR lamps, ovens, …), Inductive (inductors, transformers, …), Motor (motorfan speed control (60 to 100% from the nominal speed), Rectified (power supplies, …). Small housing, easy and ready to use. Large mains frequency and voltage range. Fully optoisolated full cycle three phase phase angle controller (balanced currents, less harmonics, …) Dynamic control voltage range according to the power factor of the load. Softstart and softstop functions (increase lifetime expectancy of the load). Adjustable filter regarding fast input voltage changes (ramps). Motor softstarting functions to control its speed within the stable area. Input-output transfert characteristic linearization function (resistive load). Diagnostic features : Status given on LED and AC/DC switches. Mains Voltage Mains Frequency 200 to 480VAC 40 to 65Hz Max AC-51 Current Max AC-53a Current 50A (125A) 30A (with heatsink) (with heatsink) Proportionnal analog voltage control input 0-10V 200->480VAC 50A(125A) AC-51 Control Input Status Ouputs In / Out Insulation Wire Size Dimensions (WxHxD) 0-10VDC 0 to 24VDC 1A AC/DC 4kV In=2.5mm² Out=10mm² 100x78x56,5 (mm) Fig. 1 TYPICAL APPLICATIONS Fig. 2 WIRING DIAGRAM Fig. 3 PHASE ANGLE CONTROL DESCRIPTION Fig. 4 INTERNAL DIAGRAM Proud to serve you Data given at Tambient=40°C and subject to modification without previous notice Weight 500g ® celduc r e l a i s celduc® r e l a i S/GRA/SVTA4690/C/10/07/2002 s Page 2/6 GB SETTINGS “Ramp Time (s)” “Initial Value” Ramp up time (Softstart and smooth transients) Initial load voltage (footstep) Label “Soft Stop” “Comp” “Load” “Ntrl” “Curve” Ramp down time Allows to adapt the control signal range whatever the power factor of the load Ask the unit to make a softstart up to the max. before analog control. Tells the unit the load star point is connected to the mains neutral Tells the unit what kind of inout response to use (angle or RMS voltage linearity) 0 x ts = On (Up) On (Up) On (Up) On (Up) 0,5 x ts = Inductive load Motor Star wiring with neutral (4 wires) RMS voltage control ts = Off (Down) Off (Down) Off (Down) Off (Down) 2 x ts = Resistive load Other loads than motors Delta or star without neutral Phase angle control SETTINGS AND OPTIONS Description Function Setting possibilities White squares = buttons Example : Ts= 0 to 64s Vi=0 to 100 % = all switches down (OFF) (factory setting) INPUT CHARACTERISTICS CHARACTERISTIC LABEL Labels INPUT CIRCUIT Function Control type Terminals INFO. “0-10V” “Urg. Stop” Analog control input Stop the thyristor controls DC control voltage Opening the connection between 5 & 6 4&6 5&6 Uc 0-10VDC - Release and control threshold voltage Ucsmin 0.3VDC - Full power threshold control voltage Ucsmax 9.7VDC - Max. input voltage Ucmax 30VDC 6VDC Max. reverse voltage -Ucmax 30VDC 6VDC Control voltage range Release voltage Ut >1,5V Input impedance Re 100k - See fig. 5 Current to switch Ict - 20mADC Ict=f(Ut) “Diag. “ “Pwr“ Labels Terminals Function STATUS OUTPUTS VALUE Nominal operating voltage 1&2 2&3 Indicates a problem detected in the circuit configuration Indicates the load is supplied Usan 24VAC/DC Operating voltage range Usa 0->28VAC/DC Max. peak voltage Usap 60V Overvoltage protection Built-in 25V size7 varistors Minimum load current Ipw/Ipb 0A Maximum load current Ipw/Ipb 1A AC/DC See fig. 6 Ipw/Ipb 2.4A AC/DC @100ms 10% of the cycle On and off state switch resistance Ron / Roff 500m / 100M See fig. 6 On and off time delay Ton / Toff 0.5ms / 2ms Maximum overload current celduc® r e l a i S/GRA/SVTA4690/C/10/07/2002 s Page 3/6 GB OUTPUT CHARACTERISTICS CHARACTERISTIC LABEL VALUE Mains voltage range Ue 200 -> 480VAC Non-repetitive peak voltage Uep 1200V Overvoltage protection VDR Built-in 510V size 14 varistors Maximum nominal currents Nota : Wire cross section limited to 10mm² (50A) by the terminals Maximum line currents in delta wiring Max motor power Ie ILine Motor AC53a Iemax Motor Ie AC53a 50A (125A) 30A 22A 87A (216A) 52A 38A See fig. 7 for limits Values with heatsink Delta wiring : See installation manual Pe 15kW @400VAC star connection Non-repetitive peak overload current (1 cycle of 10ms) ITSM 2000A See fig. 8 Melting limit for choosing the protective fuses I²t 20000A²s @10ms Iemin 100mA Ielk 7mA Minimum load current Maximum leakage current Power factor Pf 0->1 Mains frequency range F 40->65Hz dv/dt 500V/µs Max. off-state voltage rise Protection against fast voltage transients POWER CIRCUIT Resistive AC51 Ithmax INFO. Max. current rise @400VAC 50Hz Buit-in RC network di/dt 50A/µs On-state voltage drop Ud 1.4V @Ith Resistive part of the voltage drop rt 2m @125°C Potential part of the voltage drop Vto 0.9V @125°C Maximum junction temperature Tjmax 125°C Junction/case thermal resistance per power element Rthjc 0.25K/W Case heatsink thermal resistance Rthcs - Product only thermal resistance vertically mounted Rthra 4K/W @Tra=60°C Heatsink thermal time constant Tthra 15min @Tra=60°C Inputs/power ouputs insulation voltage Uimp 4kV Input/status outputs insulation voltage Uied 2.5kV Inputs/case insulation voltage Uimp 4kV Status outputs/case insulation voltage Uimp 4kV Isolation resistance Rio 1G Isolation capacitance Cio <8pF Storage ambient temperature Tstg -40->+100°C Tamb -40->+90°C Tc 100°C Operating ambient temperature Max. heatsink temperature Total = 3 power elements See fig. 7 celduc® r e l a i S/GRA/SVTA4690/C/10/07/2002 s Page 4/6 GB INTERNAL POWER SUPPLY INTERNAL POWER SUPPLY CHARACTERISTIC LABEL VALUE Terminals INFO. 3L2 & 5L3 Mains voltage range Ue 200->480VAC Consumption Is 1mA typical Mains frequency range F 40-65Hz tm 100ms Turn-on time GENERAL INFORMATION CONNECTIONS Connections Screwdriver advised Input terminal block 0.8 x 2mm Min and max tightening torque 1.8->3N.m Number and cross section of the wires 2 x 1.5->6mm2 1 x 2.5mm2 (10mm2 without ferrule) Screwdriver for settings 0.8 x 2mm Housing MISC. Power Posidriv 2 or 0.8 x 5.5mm UL94V0 Mounting Screwed Noise level Low audible vibrations Weight 500g STANDARDS GENERAL Standards EN60947-4-2 & EN60947-4-3 Protection level IP2L0 Accordin to V.D.E. 160 part 100 : Back hand and finger safety Protection against direct touch CE marking Yes UL, cULUS and VDE approvals E.M.C. EMISSION E.M.C. IMMUNITY TYPE OF TEST Pending STANDARD LEVEL EFFECT E.S.D. (Electrostatic discharges) EN61000-4-2 8kV (air) 4kV (touch) No effect Radiated electromagnetic fields EN61000-4-3 10V/m No effect Fast transients bursts EN61000-4-4 2kV direct coupling on the power side 2kV coupling by clamp on the input side No effect Electric chocks EN61000-4-5 1kV direct coupling differential mode (input and output) 2kV direct coupling common mode (input and output) No effect Voltage drop EN61000-4-11 - NFEN55011 The conducted or radiated disturbances generated by solid state relays depend on the wiring and load configuration. The test method recommended by the European standards and concerning electromagnetic compatibility leading to results far from reality, we decided to advise our customer in order to adapt their filtering scheme to their application. Please refer to the SVTA – SWTA installation manual. Radiated and conducted disturbances celduc® r e l a i S/GRA/SVTA4690/C/10/07/2002 s Page 5/6 GB CHARACTERISTIC CURVES Fig. 5 INPUT CHARACTERISTIC Fig. 7 Fig. 6 CURRENT AND ON RESISTANCE VS TEMPERATURE POWER DISSIPATED AND LOAD CURRENT LIMIT VS TEMPERATURE Permanent current Ie AC51 (ARMS) 140 Wire cross section >10mm² : Use 2 wires with lower size or use a special adaptors 130 4K/W = No Heatsink 1.2K/W = WF121000 0.9K/W = WF115100 0.7K/W = WF070000 0.55K/W = WF050000 0.3K/W = WF031100 0.2K/W = WF020000 0.1K/W = No reference 120 110 100 Power dissipated (W) 458 Please refere to the installation notice for precautions about mounting the device on a heatsink. 0.2K/W 0.3K/W 0.1K/W 90 80 378 340 303 267 233 200 70 167 60 0.55K/W 50 137 0.7K/W 40 107 0.9K/W Max AC53a current 30 78 1.2K/W 51 20 25 10 4K/W 0 0 0 Fig. 8 417 10 20 30 40 50 60 70 Ambient temperature (°C) 80 90 100 CURRENT OVERLOAD CHARACTERISTIC (ITSM PER POWER ELEMENT) 110 celduc® r e l a i S/GRA/SVTA4690/C/10/07/2002 s Page 6/6 GB DIMENSIONS AND ACCESSORIES Fig. 9 DIMENSIONS ® celduc r e l a i www.celduc.com s 5 Rue Ampère B.P. 30004 42290 SORBIERS - FRANCE E-Mail : [email protected] Fax +33 (0) 4 77 53 85 51 Service Commercial France Tél. : +33 (0) 4 77 53 90 20 Sales Dept.For Europe Tel. : +33 (0) 4 77 53 90 21 Sales Dept. Asia : Tél. +33 (0) 4 77 53 90 19 SVTA-SWTA DIAGNOSTIC NORMAL OPERATION LED DISPLAY Supply Line Up Load Down OUTPUTS Pwr Diag. LOAD COMMENTS ANALOG INPUT VOLTAGE BELOW THE MINIMUM CONTROL VOLTAGE THRESHOLD OFF DIAGNOSTIC Phase presence = OK ; Phase voltage = OK ; Phase frequency = OK LEDs blinking sequence indicates mains phase rotation is direct Load connected Analog input voltage below the minimum control voltage threshold (0.3V (010V) ; 4mA (4-20mA) ; 0.15V (0-5V / potentiometer)) OFF DIAGNOSTIC Phase presence = OK ; Phase voltage = OK ; Phase frequency = OK LEDs blinking sequence indicates mains phase rotation is reverse Load connected Analog input voltage below the minimum control voltage threshold (0.3V (010V) ; 4mA (4-20mA) ; 0.15V (0-5V / potentiometer)) ANALOG INPUT VOLTAGE ABOVE THE MINIMUM CONTROL VOLTAGE THRESHOLD Indicates the voltage at the analog input or the voltage ramp set by the user (Time ramp (s)) is increasing. Indicates the voltage at the analog input exceeds the maximum full power threshold voltage (9.7V (0-10V);19.7mA (4-20mA);4.9V (0-5V / potentiometer)) Indicates the voltage at the analog input or the voltage ramp set by the user (soft-stop) is decreasing. Stable analog input voltage or voltage ramps finished (if used) NOTA : A fast UP/DOWN LEDs blinking can occur ON ON ON ON ABNORMAL OPERATION LED DISPLAY Supply Line Up Load Down OUTPUTS Pwr Diag. LOAD POSSIBLE CAUSE SOLUTION WHATEVER IS THE VOLTAGE VALUE AT THE ANALOG INPUT OFF Mains is missing or it is connected on the motor side (2T1, 4T2, 6T3) of the device, instead of the mains side (1L1, 3L2, 5L3) Check the power side wiring OFF Mains voltage too low Check phase to phase voltage between 3L2 and 5L3 OFF OFF OFF OFF OFF OFF 1 or 2 phase(s) missing, Mains frequency out of range, Too many disturbances Microcontroller malfunction or too many problems at the same time Load connection missing, Shorted thyristor (s) A problem on the main occurred (e.g. phase missing) and now it is OK but analog input voltage is present A problem on the load occurred (e.g. temporary disconnection) and now it is OK but analog input voltage is present Check the phases Disconnect the device from the mains for a while and check the wiring Check load connections and measure the power element resistance (should be several 100kOhms) Remove the analog input voltage for a while Remove the analog input voltage for a while Factory diagnostic Consult us ANALOG INPUT VOLTAGE ABOVE THE MINIMUM CONTROL VOLTAGE THRESHOLD OFF Power elements can not turn on Check connection between 5 and 6 of the control terminal block. Check the load current is above the minimum specified ON 1 or 2 phase(s) missing, Mains frequency out of range, Too many disturbances Check the phases LEGENDE OFF GREEN RED BLINKING OFF/GREEN BLINKING OFF/RED 123- IMPORTANT INFORMATION CONCERNING THE DIAGNOSTIC The device makes a complete diagnostic (mains, load and itself) as soon as the mains voltage is sufficient The device checks only the presence of phases when the analog input voltage is above the minimum control threshold, during the ramps (softstart and softstop) and when it is full on (the power elements are tested only when analog control voltage is below the minimum control voltage threshold). The control overrides the diagnostic. If a problem occurs during the control period, the device will try to go on driving the load according the analog input voltage. If the problem goes on, it will be if possible indicated to the user according the diagnostic table. If a problem occurs during the softstopping period, the device will stop immediately in order to reach the off state diagnostic period. PRELIMINARY 22/01/04