Kone V3F16L A1 panel KM774150G02 774153H04

Kone V3F16L A1 panel KM774150G02 774153H04

KM774150G01
Replaced by KM953503R121 V3F16
DCBN ASSEMBLY

Kone V3F16L A1 panel KM774150G01 774153H03
Kone V3F16L A1 panel KM774150G02 774153H04

 

Product Details
Component Family Codes
KDS300 – KDS300
Product Description
en: DCBN ASSEMBLY
Material Utilisation Group
11500 – PC BOARDS
Material group
B72 – PCB assembly

Kone V3F16L A1 panel KM774150G02 774153H04
Kone V3F16L A1 panel KM774150G02 774153H04
Kone V3F16L A1 panel KM774150G01 774153H03
Kone V3F16L A1 panel KM774150G01 774153H03kone-v3f16l-a1-panel-km774150g02-774153h04

Ordering the kone v3f16l a1

To order the kone v3f16l a1, send us a photograph of the existing unit and its nameplate at [email protected]. Please quote the complete code including any revision suffix so that our team can confirm the correct variant, current stock and lead time before you commit.

About the kone v3f16l a1

Elevator and escalator installations are built around a relatively small number of serviceable assemblies, but they fail at very different rates. The kone v3f16l a1 sits in the control board / PCB group, and it is replaced on a different service interval from the assemblies around it. In practice the failures we see on kone v3f16l a1 come down to electrolytic capacitor ageing, cracked solder joints around the power stage, corroded edge connectors, and blown output transistors after a supply fault.

Every kone v3f16l a1 we supply is inspected before dispatch. Each unit is checked for physical damage, correct marking and the specific wear or degradation patterns that matter for this class of component, then packed to survive international transit. Where a superseded revision is the only one available, we say so plainly and explain the substitution, so the installing engineer can make an informed decision rather than discovering the difference on site.

Buying guidance and compatibility notes

Before ordering the kone v3f16l a1, confirm three things. First, the controller catalogue number and the board revision letter, plus the fault code stored in the controller memory. Second, the same board is frequently fitted across several controller families, so the equipment model alone is not enough to identify the right revision. Third, whether the installation is a traction lift or an escalator, since duty cycle and loading differ between the two.

On fitting, one point is worth repeating: discharge the DC bus before removing a power board, and photograph the connector layout before you unplug anything. Almost every repeat failure we see on kone v3f16l a1 traces back to a related component that was left in place, or to an adjustment that was assumed rather than measured.

The practical difficulty with legacy boards is that the original manufacturer may have revised the design three or four times without changing the order code. A board that looks identical to the one you removed can be electrically different, and fitting the wrong revision is a common cause of repeat faults.

The main board is the component that a service engineer reaches for first when a lift stops without a mechanical cause; the equipment model alone is rarely enough — the same controller was fitted to several product ranges with different parameter sets.

Anti-static handling is not a formality. A board that works perfectly on the bench can be destroyed by a discharge too small for a technician to feel, which is why stock travels in shielded bags and is unpacked only at the point of fitting.

The underlying cause is usually corrosion on edge connectors where the machine room has been damp, which is why a photograph of the board, front and back, is usually faster than any description and avoids a return for the wrong revision.

Connector condition deserves more attention than it usually gets. Edge connectors oxidise, ribbon cables develop hairline fractures at the fold, and a board that tests perfectly on the bench can fail intermittently once fitted because the fault was in the harness all along.

The underlying cause is usually aging electrolytic capacitors that have lost capacitance rather than failed outright, which is why the controller catalogue number, the board revision letter and any fault code stored in memory are the three details that let us identify the part without guesswork.

The practical difficulty with legacy boards is that the original manufacturer may have revised the design three or four times without changing the order code. A board that looks identical to the one you removed can be electrically different, and fitting the wrong revision is a common cause of repeat faults.

If you are unsure which variant of the kone v3f16l a1 you need, send a photograph of the nameplate and the existing component alongside a description of the fault. That is usually enough for our team to identify the correct replacement without a site visit, and it avoids the cost and delay of returning an incompatible part. We are also happy to advise on the other serviceable items in the same control board / PCB group, so a planned shutdown can cover several wear items at once.

Because kone v3f16l a1 is only one item in the control board / PCB group, these related pages may help you plan the work:

Reference sources

The compatibility information on this page was cross-checked against the following authoritative references. Always confirm the exact reference against your own equipment nameplate.

One Comment

  1. 2020-06-10 at 3:11 pm

    [email protected]

    Reply

    Sender’s name: ra*i
    E-mail: r*g@a*ithaq.com

    Message: Hi i am looking for Inverter -V3F16 PCB KM884100G01 with EUPEC Igpt # FP40R12KT3.
    If you have it can you please send me your price.
    thank you

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