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Made JUPITER PLUS User Manual

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FQ 47B
V 1.0 – 05.03.2018
USER GUIDE
JUPITER+
WARMING: Read these instructions for use before using the device
M A D E
S.A. au capital de 270 130 €
167, Impasse de la garrigue
F 83210 LA FARLEDE
Tél. : +33 (0) 494 083 198 - Fax : +33 (0) 494 082 879
E-mail : contact@made-sa.com - Web : www.made-sa.com

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Summary of Contents for Made JUPITER PLUS

  • Page 1 M A D E S.A. au capital de 270 130 € 167, Impasse de la garrigue F 83210 LA FARLEDE Tél. : +33 (0) 494 083 198 - Fax : +33 (0) 494 082 879 E-mail : contact@made-sa.com - Web : www.made-sa.com...
  • Page 2 M O D I F I C A T I O N ’ S D I R E C T O R Y Rev. Subject of Amendments Date and Author 1.04 CRÉATION 04/2014 P.COSTE 1.05 Graphic charter update 12/2015 L. ZOMERO 1.06 A5 format version 03/2018 C.

  • Page 3: Table Of Contents

    S U M M U R Y SAFETY INFORMATION ....................5 1.1. Safety advice ........................5 1.2. Use of safety instructions ....................5 1.3. Warming Labels ......................6 OVERVIEW ........................7 2.1. Working Principle ......................7 2.2. Composition ........................8 2.2.1.
  • Page 4 5.4. Copyright ........................29 ANNEXE ......................... 30 6.1. CE conformity declaration ................... 30 4 / 30...

  • Page 5: Safety Information

    Do not dismantle the cases. This operation is limited exclusively to personnel qualified by MADE. 1.2.Use of safety instructions DANGER: Indicates a situation eminently or potentially dangerous that, if not avoided, would cause serious or deadly injuries.

  • Page 6: Warming Labels

    SAFETY INFORMATION 1.3.Warming Labels Read all labels and wording affixed to the instrument. Bodily injuries or equipment damage could occur if these instructions are not respected. Symbol requiring reference to the instruction manual for instructions concerning operation safety recommendations. Class I – Earthing mandatory IP Std.

  • Page 7: Overview

    The signals and the physical principles used are common for each function. The JUPITER system is made up of a Transmitter and a Receiver. The Transmitter is in a shock-proof carrying case which also contains the various accesories. The connector for the current injection clamps is on the front face of the Transmitter.

  • Page 8: Composition

    OVERVIEW Option : • Core identification in short circuit adapted for LV 4 conductor cables, with visually unidentifiable neutral 2.2.Composition 2.2.1.Transmitter  3 current clamps with their connecting cable*  220V~ supply cable  1 Short-Circuiting cable 8 / 30...

  • Page 9: Receiver

    OVERVIEW 2.2.2.Receiver 9 / 30...

  • Page 10: Standard Sensors

    OVERVIEW 2.2.2.1.Standard Sensors • Sensor for « Core identification, short-circuited ends » : • • Sensor for « Core identification, open circuit ends » : • Sensor for identification : 10 / 30...

  • Page 11: Optional Sensor

    OVERVIEW 2.2.2.2.Optional Sensor • Sensor for core identification, short-circuited ends, adapted for LV 4 conductor cables, with unidentifiable neutral visually. • 11 / 30...

  • Page 12: Implementation

    IMPLEMENTATION 3. IMPLEMENTATION 3.1.JUPITER+ TRANSMITER From turn-on by the operator, the Transmitter is activated and generates the frequency signals necessary for identifying unpowered MV & LV cables. It is possible to turn the JUPITER+ Transmitter on S2 mode (with different frequencies) for a utilization with two Transmitters at the same time at the ends of a cable, one in S1 mode and the second on S2 mode.

  • Page 13: Overview Of The Transmitter

    IMPLEMENTATION These functions are possible on an unpowered MV or LV network and for all types of cables: HN, Paper, PE. When used on an LV network, it is not necessary to disconnect the customer loads. 3.1.1.Overview of the Transmitter Fault indicator for the Current clamps injection circuits...

  • Page 14: Transmitter General Functioning

    IMPLEMENTATION 3.1.2.Transmitter general functioning 3.1.2.1.Power supply The JUPITER+ Transmitter runs on 7,2Ah 12V DC batteries. When turned on, the charge level of the battery is indicated on the front face. The minimum autonomy of the transmitter is 8h. The transmitter can run on internal batteries or during the charge when using the external charger connected to the front connector closed to the case handle.

  • Page 15: Transmitter Functions

    IMPLEMENTATION The continuous use of this type of charger enables the long term storage of the Transmitter, whilst maintaining the battery in optimum charged condition (charger connected). 3.1.2.2.Transmitter functions The JUPITER+ Transmitter consists of:  Three synthesized power generators  A monitoring unit for the internal components which : ...

  • Page 16: Precautions For Using The Transmitter

    IMPLEMENTATION It is better to place the current clamps before starting the transmitter. If not, opening the clamps during transmitter causes the clamp fault lights to illuminate. L1 L2 L3 L1 L2 L3 N L1 L2 L3 L1 L2 L3 N BT 4 conducteurs 3.1.3.Precautions for using the transmitter CURRENT...

  • Page 17: Jupiter+ Receiver

    IMPLEMENTATION 3.2.JUPITER+ RECEIVER The JUPITER+ Receiver assembly consists of:  The Receiver to which are connected the sensors  Inductive sensor for identification  Probes for core identification and continuity with open circuit.  Flexible Identifying loops short-circuited core identification ...
  • Page 18 IMPLEMENTATION Receiver with its various sensors 18 / 30...
  • Page 19 IMPLEMENTATION Socket for sensor connection Indication of the transmitter source of the signal Measurement display in core identification mode Measurement display in identification and continuity mode End of measurement indicator On and measurement initiation button Battery fault indication 19 / 30...

  • Page 20: Use Of Receiver

    IMPLEMENTATION 3.2.1.Use of receiver Connecting a sensor to the Receiver automatically sets the operating mode which is indicated by a LED. These modes are: • Continuity and Identification in short-circuit • Continuity and Identification in open-circuit • Pré-identification One press of the « Measurements » button turns on and illuminates the LED corresponding to the mode selected by the chosen sensor, which confirms to the operator the type of measurement to carry out.

  • Page 21: Pre-Identification Mode

    IMPLEMENTATION 3.2.1.1.Pre-identification mode A pre-identification sensor for all type of cable. Mode only usable with a transmitter in S1 mode or two transmitters in S1 and S2 mode.  Connect the sensor to the receiver, the pre-identification light illuminates.  Place the sensor on the cable, so that the groove under the sensor fits around the cable.

  • Page 22: Core Identification In Open Circuit And Continuity To S1 Transmitter Mode

    IMPLEMENTATION 3.2.1.2.Core identification in open circuit and continuity to S1 Transmitter mode Mode usable in all cases.  Connect the red probes to the receiver, press the « measurement » button, the “Open circuit identification and S1 continuity” LED illuminates. ...

  • Page 23: Core Identification And Continuity In Short Circuit Mode

    IMPLEMENTATION 3.2.1.3.Core identification and continuity in short circuit mode Mode usable in all cases  Connect the loop for core identification in short circuit to the receiver, press the « measurement » button, the “Short circuit identification and S1 continuity” LED switches on. ...

  • Page 24: Location In Short Circuit For 4 Drivers Of Identical Section Mode (Option)

    IMPLEMENTATION 3.2.1.4.Location in short circuit for 4 drivers of identical section mode (option) Mode usable in all cases The sensor intended for this function has two flexible loops, of which one serves as a reference and the other for the measurement (marked red).

  • Page 25: Batteries

    IMPLEMENTATION The receiver designates the core within the measurement loop marked with red. 3.2.2.Batteries The Receiver is powered by two 9 Volt batteries. When the battery charge level is insufficient for correct operation of the Receiver, a LED indicates the fault. Each battery is monitored individually and the fault LED indicates the battery which is placed immediately beneath in the battery compartment.

  • Page 26: Technical Caracteristics

    TECHNICAL CARACTERISTICS 4. TECHNICAL CARACTERISTICS Caract. Transmitter Receiver Dimensions Transmitter in rigid Receiver in soft case : carrying case: 400mm x 300mm x 80mm 540mm x 390mm x 240 mm Total weight Transmitter and receiver: 16 kg Supply Battery : 12V - 7,2Ah 2 PP3 9V batteries Minimum autonomy : Minimum autonomy :...

  • Page 27: Maintenance And Guarantee

    If a defect is discovered during the period of the guarantee, MADE agrees, at its choice, to either repair or replace the deficient part, excluding the expenses of handling and of initial delivery.

  • Page 28: Limitation

     Cost of travel for a repair on site under guarantee This guarantee constitutes the unique explicit guarantee established by MADE for its products. All implied guarantees, including, but not limited to, guarantees on the commercial value of the product and its suitability for a particular use are positively rejected.

  • Page 29: Claims Limitations

    Claims having for object repair or replacement are the only allowable claims in case of the breaking of this guarantee. The MADE Company cannot be held responsible, whether on the basis of strict responsibility or any other legal basis, of any incidental or consecutive damage resulting from a violation of the guarantee or from carelessness.
  • Page 30 167, Impasse de la garrigue F 83210 LA FARLEDE Tél:+ 33 (0) 494 083 198 – FAX : + 33 (0) 494 082 879 E-mail: contact@made-sa.com - Web : www.made-sa.com Declares by this document that the product described in this manual,...

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