Produits VOOHU Ethernet Switch ICs

Gamme de circuits d’interface Ethernet

Ethernet Switch ICs

The range covers 100M and gigabit switching from three to ten ports, with or without a host uplink. Start from the port topology your design needs, because whether the host takes part in forwarding decides the series long before speed or package does.

Recherche et sélection de références

Trouver des références pour Ethernet Switch ICs

Le tableau utilise les fiches produits actuelles du site anglophone, les critères de sélection publiés et les liens vers les fichiers techniques propres à chaque référence.

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Résultats de la sélection pour Ethernet Switch ICs
Image Référence Fiche technique Comparer Téléchargements SérieDébit de donnéesPortsMode d’interfaceTension de l’interface MACTension d’alimentation externePort cuivrePort optiqueTempératureBoîtierTaille Échantillon
VOOHU JL6107-PC Ethernet Switch ICs JL6107-PC SPEC Série JL61071G5+2MII1.8V1.1V10 Base-TNA0~70℃LQFP12814*14 mm
VOOHU JL6107-PI Ethernet Switch ICs JL6107-PI SPEC Série JL61071G5+2MII1.8V1.1V10 Base-TNA-40~85℃LQFP12814*14 mm
VOOHU JL6107S-PC Ethernet Switch ICs JL6107S-PC SPEC Série JL61071G5+2MII1.8V3.3V(1.1V)¹10 Base-T1000 Base-X0~70℃LQFP12814*14 mm
VOOHU JL6107S-PI Ethernet Switch ICs JL6107S-PI SPEC Série JL61071G5+2MII1.8V3.3V(1.1V)¹10 Base-T1000 Base-X-40~85℃LQFP12814*14 mm
VOOHU JL6107SC-PC Ethernet Switch ICs JL6107SC-PC SPEC Série JL61071G5+2MII1.8V3.3V(1.1V)¹10 Base-T1000 Base-X0~70℃LQFP12814*14 mm
VOOHU JL6107SC-PI Ethernet Switch ICs JL6107SC-PI SPEC Série JL61071G5+2MII1.8V3.3V(1.1V)¹10 Base-T1000 Base-X-40~85℃LQFP12814*14 mm

Comment sélectionner

Selecting an Ethernet switch IC in four steps

Topology first, then speed, then the supply rails, then package and thermals.

  1. 01

    Decide the port topology

    Count the external ports you need, then decide whether the host has to send and receive traffic. If it does, you need a device with an uplink port.

  2. 02

    Choose 100M or gigabit

    The range covers 100M and gigabit. There are no 2.5G or faster devices here, so if the design needs those speeds, say so at enquiry.

  3. 03

    Check the supply rails

    Most devices need a low voltage core rail alongside the main supply. Confirm the rails and their sequencing before the power tree is fixed.

  4. 04

    Plan package and thermals

    Packages run from QFN48 at 6 by 6 up to TQFP176 at 20 by 20 millimetres. Higher port counts concentrate more heat in one device.

Parameters

Reading switch IC specifications

Port notation and the supply requirement are the two figures most often misread.

01

Port notation

A figure such as 5+1 means five external ports plus one host uplink. A single figure such as 5 or 8 means external ports only, with no separate uplink.

02

Link speed

100M on the JL51xx series, gigabit on the JL61xx series. Every device also supports 10Base-T on copper for legacy links.

03

Uplink interface

MII on most devices with an uplink, RMII on the JL5104. Devices listed as NA have no dedicated host interface at all.

04

Supply rails

Typically a 3.3 volt main supply with a 1.1 volt core rail, or 1.1 volt alone on some gigabit parts. Missing a rail prevents the device starting.

05

Fibre support

1000Base-X appears on the JL6110 and on the S variants of the JL6107. Other devices in the range are copper only.

06

Temperature grade

NC and PC suffixes cover 0 to 70 degrees; NI and PI cover minus 40 to 85. Not every series offers both grades.

Comparer

Switch IC series side by side

Port count and uplink presence separate the series more than speed does.

Revenir au sélecteur ↑
SérieRéférencesDébit de donnéesPortsMode d’interfaceTension de l’interface MACTension d’alimentation externePort cuivrePort optiqueTempératureBoîtierTailleAction
Série JL51042100M3+1RMII3.3V3.3V(1.1V)¹10 Base-TNA0~70℃, -40~85℃QFN486*6 mmFiltrer →
Série JL51052100M5NANA3.3V(1.1V)¹10 Base-TNA0~70℃, -40~85℃QFN486*6 mmFiltrer →
Série JL51062100M5+1MII3.3V3.3V(1.1V)¹10 Base-TNA0~70℃, -40~85℃QFN649*9 mmFiltrer →
Série JL51082100M8NANA3.3V(1.1V)¹10 Base-TNA0~70℃, -40~85℃QFN649*9 mmFiltrer →
Série JL51091100M8+1MII3.3V3.3V(1.1V)¹10 Base-TNA0~70℃QFN8810*10 mmFiltrer →
Série JL51101100M8+2MII3.3V3.3V(1.1V)¹10 Base-TNA0~70℃QFN8810*10 mmFiltrer →
Série JL610511G5NANA1.1V10 Base-TNA0~70℃QFN8810*10 mmFiltrer →
Série JL610761G5+2MII1.8V1.1V, 3.3V(1.1V)¹10 Base-TNA, 1000 Base-X0~70℃, -40~85℃LQFP12814*14 mmFiltrer →
Série JL610811G8NANA1.1V10 Base-TNA0~70℃LQFP12820*14 mmFiltrer →
Série JL611021G8+2MII3.3V1.1V10 Base-T1000 Base-X0~70℃, -40~85℃TQFP17620*20 mmFiltrer →

Analyse de l’application

Where these switch ICs are used

Confirm the port topology, whether the host must manage traffic, and the environment.

Analyse de l’application

Embedded devices with a few ports

  • Confirm whether the host must join the network. If it does, choose a device with an uplink such as the 3+1 or 5+1 configurations.
Analyse de l’application

Unmanaged port expansion

  • Where the host does not need to send traffic, a device with external ports only is simpler and needs no uplink routing.
Analyse de l’application

Industrial switches with fibre uplink

  • Check which specific part supports 1000Base-X, then confirm the optical module and the supply rails the device needs.
Analyse de l’application

Cascaded multi-device designs

  • Two uplinks allow one to reach the host and one to cascade. Estimate cross-device traffic so the cascade link does not bottleneck.
Obtenir une assistance technique →

Documents

Switch IC datasheets and reference designs

Datasheets carry the supply sequencing, pinout and reference schematic per device.

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Fiches techniques PDF répertoriées
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Jeux de fichiers 3D répertoriés
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Empreintes PCB répertoriées

Le contenu produit publié par VOOHU est vérifié par son équipe technique. Les caractéristiques, les téléchargements et les informations d’assistance technique sont associés à des références précises afin que vous puissiez les vérifier avant de demander des échantillons ou un devis.

Présentation de la catégorie

Reading port notation and choosing the topology

Almost every selection question on switch ICs comes down to the port notation and whether the host controller needs to be on the network.

01

What 5+1 actually means

The first figure is external ports facing the outside world. The figure after the plus is a host uplink, a dedicated interface for the controller on the same board. A device listed as 5 has five external ports and no uplink, so the host cannot send or receive traffic through it. That distinction eliminates half the range.

02

When you need an uplink

If the product only has to move traffic between its own front panel ports, a device with external ports only is simpler and cheaper to lay out. If the host has to participate, for management, for remote access or because it originates data, you need an uplink and the host must provide the matching MII or RMII interface.

03

The supply rails catch people out

Most devices here need more than one rail: commonly 3.3 volts for the main supply and around 1.1 volts for the core, and some gigabit parts run the core alone. Missing a rail, or sequencing them wrongly, prevents the device starting. Confirm the rails and sequence before the power tree is committed.

FAQ

Ethernet switch IC questions engineers ask

Answers cover port notation, uplinks, supply rails and fibre support.

What does a port figure like 5+1 mean?

Five external ports facing the network, plus one dedicated host uplink for the controller on the same board. A device listed with a single figure, such as 5 or 8, has that many external ports and no uplink, which means the host cannot send or receive traffic through the switch at all.

Do I need a device with an uplink?

Only if the host controller has to be on the network, whether to manage the switch, to be reachable remotely, or because it originates traffic. If the product only forwards between its own front panel ports, a device without an uplink is simpler to design and lay out.

What speeds does this range cover?

100M on the JL51xx series and gigabit on the JL61xx series, with 10Base-T supported on copper throughout. There are no 2.5G, 5G or 10G devices in this range. If your design needs multi-gigabit switching, tell us at enquiry and we will confirm what is available.

Which parts support fibre?

1000Base-X is supported on the JL6110 and on the S variants of the JL6107 series. The remaining devices are copper only. Because fibre support varies between variants within a series, check the complete part number rather than relying on the series name.

What supply rails do these devices need?

Most need a 3.3 volt main supply together with a core rail around 1.1 volts, while some gigabit parts run from the core rail alone. The datasheet states both the rails and the sequence they must come up in. A missing or mis-sequenced rail usually prevents the device starting.

Can I cascade two switch ICs?

Devices with two uplinks allow one link to the host and one to a second switch. Before doing so, estimate how much traffic crosses between the two devices, because everything that crosses has to pass through the cascade link, which can become the bottleneck for the whole design.

How much heat should I plan for?

It rises with port count and speed. The largest devices here are TQFP176 at 20 by 20 millimetres with ten gigabit ports, which concentrates significant power in one package. Follow the datasheet thermal pad guidance and measure the case temperature at full load in the real enclosure.

How do I request switch IC samples or a quote?

With a complete part number, send the part number, quantity, delivery region and the date you need it. If you are still selecting, send the external port count, whether the host needs an uplink, the required speed, any fibre requirement and the temperature range.

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