WO2020251359A1 - Ethernet network with improved network switch. - Google Patents

Ethernet network with improved network switch. Download PDF

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Publication number
WO2020251359A1
WO2020251359A1 PCT/NL2020/050377 NL2020050377W WO2020251359A1 WO 2020251359 A1 WO2020251359 A1 WO 2020251359A1 NL 2020050377 W NL2020050377 W NL 2020050377W WO 2020251359 A1 WO2020251359 A1 WO 2020251359A1
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WO
WIPO (PCT)
Prior art keywords
switch
plug
network
patch
patch panel
Prior art date
Application number
PCT/NL2020/050377
Other languages
French (fr)
Inventor
Johannes Anthonius Cornelis VAN ROODEN
Original Assignee
Van Rooden Johannes Anthonius Cornelis
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Filing date
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Application filed by Van Rooden Johannes Anthonius Cornelis filed Critical Van Rooden Johannes Anthonius Cornelis
Publication of WO2020251359A1 publication Critical patent/WO2020251359A1/en

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04QSELECTING
    • H04Q1/00Details of selecting apparatus or arrangements
    • H04Q1/02Constructional details
    • H04Q1/13Patch panels for monitoring, interconnecting or testing circuits, e.g. patch bay, patch field or jack field; Patching modules

Definitions

  • Ethernet network with improved network switch Ethernet network with improved network switch.
  • the invention has been made for the technical field of network or information technology in the context of electronic transfer of data, wherein computer terminals and computer servers are connected to a wired packet switching network (PSN; meaning packet-switched network) , and wherein network routers (operating at OSI layer 3) and switches (operating at OSI layer 2) and hubs (operating at OSI layer 1) are involved in data traffic with application of, for example, Ethernet/Internet Protocol.
  • a network switch is, for example, the CATALYST 3750 from Cisco Systems.
  • a patch panel is for example the SYSTIMAX 360 GigaSPEED X10D 1100 GS5 from CommScope.
  • the data speed is, for example, at least 10, or 100 Mb/s. Existing situation.
  • a large number of wall sockets with which location-bound, in the building, for example in one or more workspaces, arranged, terminals (such as: PCs, telephones, printers) can be connected to the wired communication network inside and outside the building.
  • terminals such as: PCs, telephones, printers
  • a loose data cable runs freely from the location-bound terminal in the workspace and is connected with a plug (e.g. RJ-45) to the associated wall socket.
  • a permanently installed data cable (preferably out of sight) runs from the wall socket to a collection point in the building, for example a technical room (also called: "patch room"), where all permanently installed data cables from the building come together and are connected to a switch located in the technical room, for which purpose use is made of an in the technical space arranged patch box comprising a patch panel and a switch.
  • the switch connects the individual permanently installed data cables from the building to the network of computer servers located outside the building in server cabinets in remote data centres.
  • the invention relates to the technical room, in particular the patch box, where the data cables from the building come together and are connected to the network by means of a switch (so-called Ethernet network) .
  • a switch so-called Ethernet network
  • US2017/0102510 discloses a system for communicating between computer servers and a core switch in a computer server room, wherein the computer servers and the core switch are placed in a common cabinet (called "rack assembly") . This is another technical field.
  • Patch2.0-connector is with the improved switch connected (preferably at the rear side of the switch) by means of a single data cable (also called:
  • Patch2.0-data cable for instance a glass fibre cable, preferably by using a single plug (labeled "Patch 2.0-multi plug”) .
  • the Patch2.0-data cable is an MPO terminated cable or a QFSP-DD.
  • the Patch-panel2.0 is preferably through a single data cable, the Patch2.0-data cable, preferably by means of a single Patch2.0-multi plug, connected to the Switch2.0.
  • the Switch 2.0 preferably has only connections, preferably connections for the Patch2.0-multiplug, at the rear so that no cables are visible at the front. Preferably, this is also unnecessary since connections never have to be made per data cable from the building, because the multitude of patch cables has been replaced by a single Patch2.0-data cable.
  • all data cables from the building are, via the Patch2.0-panel, connected to the Switch2.0, and are managed by the (web) interface of the Switch2.0.
  • the plurality of separate patch cables running from the patch panel and attached to the switch are preferably missing, these have been replaced by a single data cable, for example a fibre optic cable, preferably by means of a single Patch2.0-multi plug connected to the switch (Switch2.0 ) .
  • the load level of the Switch2.0 is limited. Due to this limitation, there is usually a maximum in the number of data cables from the building that is possible per Switch 2.0. If a single Switch2.0 is overloaded, one or more additional Switch2.0 can be deployed in the patch box to spread the load. If multiple Switch2.0 are used in the patch box, these can be linked and managed through a single interface. With multiple linked Switch 2.0 switches, there is also no failure of the patch box if a single switch fails or is temporarily out of service for maintenance.
  • the Switch2.0, Patch-Panel2.0 and Patch2.0-connector are mutually distinct and separate and autonomous (also called “self-contained") device, and preferably fit into the existing 19 inch patch-rack.
  • the invention relates to one or more of: Switch2.0; Patch-panel2.0 ; Patch2.0-connector; Patch2.0-datakul (e.g. fibre optic cable) with Patch2.0-multi plug.
  • Patch2.0-connector is preferably used when applied with a conventional patch-panel plus conventional Ethernet switch.
  • the network connections (wall outlet connections; the data cables from the building) are mounted on the Patch-panel2.0 (direct) / Patch2.0-connector (via the usual patch panel) .
  • the Switch2.0 is directly connected to the Patch-panel2.0 /Patch2.0-connector via the Patch2.0-data cable.
  • the Patch2.0-data cable is the only input/output connection between Switch2.0 and
  • the Switch2.0 operates directly with all network port numbers and the switch interface is set up for this.
  • the switch interface takes care of making and setting up the connections with the network port numbers (input + output) .
  • the Patch-panel2.0/Patch2.0-connector function only as mountingboards .
  • the Patch2.0-data cable preferably has a minimum of 50 or 100 cores.
  • the Patch2.0-multi plug preferably has a minimum of 50 or 100 connection terminals. Preferably, all available network connections are connected.
  • one or more of the following is applied: for total conversion to 2.0, all network connections are redirected (also called “redoggen") to a Patch-panel2.0 ; to add new network connections, either a Patch-panel2.0 will be disconnected causing existing network connections to fail on the same Patch-panel2.0 , or use is made of loose connectors, for example of UTP type, which avoids downtime; at failure of a complete Patch-panel2.0 several ports fail.
  • the Patch2.0-connector has, for example, on the rear side, a plurality of at least ten, for instance 24, connections, for example of type RJ45 and, preferably, on a side, a data cable with a Patch2.0-multi plug for connection to the Switch2.0 and on the front, preferably only the protective cover of the cabling is visible.
  • the Patch2.0-data cable with Patch2.0-multi plug preferably extends along the side to, preferably, the back of the Switch2.0.
  • the Patch-panel2.0 is preferably 1U high, and has, preferably at the front, a plurality of at least three connectors, for example, of type UTP and/or UBIC, for example, 6 x UTP and/or 4 x UBIC slot, and is, preferably, on top, provided with a plurality of at least 50 or 100, for example 144, connections to which the data cables from the building can be directly connected.
  • Patch2.0-multi plug runs to one or more Switches2.0. Of the sides, at least one has a slot in which in the cables can be incorporated .
  • the switch includes a plurality of input ports each configured for connecting a data cable; a plurality of output ports each arranged to connect a data cable; electronic circuits for performing network switching operations, which circuits are connected to the plurality of input and output ports .
  • Fig. 1-4 the top, side, front and rear view of the Switch2.0 (fig. 4 on a larger scale);
  • Fig. 5 a plug combination
  • Fig. 6 the rear view of the Patch2.0-connector .
  • Fig. 7-10 the top, side, front and back views of the Patch-panel2.0 , respectively.
  • Fig. 11 the usual layout of a patch rack.
  • Fig. 12 the layout of a patch rack using the
  • Patch2.0-connector to connect a conventional patch panel and Ethernet switch to the Switch2.0.
  • Fig. 13 the layout of a patch rack using only Patch-panel2.0 and Switch2.0.
  • the Switch2.0 shown in fig. 1-4 only has terminals at the rear (fig. 4), namely: connection point 14 for power supply and six connection points 13 for Patch2.0-multi plug 10.
  • Fig. 5 shows connectors 15, 16 and 17, each for connection to a Switch2.0.
  • Plug 18 is for connection to a Patch-panel2.0.
  • the Patch2.0-connector 6 of Figure 6 is equipped with a Patch2.0-data cable 9 with Patch2.0-multi plug 10.
  • the Patch-panel2.0 shown in fig. 7-10 is equipped on the top (shown in fig. 7) with 144 connection points 11 for 144 building UTP cables and contains a patch2.0-data cable 9 with patch2.0-multi plug 10.
  • the rear view (fig. 10) shows again the Patch2.0-multi plug 10.
  • Fig. 11-13 each show a patch rack in front view.
  • the patch rack contains traditional components, namely: patch panel 1, shunting panel 2 and Ethernet switch 3.
  • Patch2.0-connector 6 three in number in this version
  • Switch2.0 4 two in number in this version
  • Patch-panel2.0 single in this version
  • the patch rack contains only the Switch2.0 (three in number in this version) and the Patch-panel2.0 (in this version, two in number) .
  • Wired network device comprising a patch panel and a switch device, where a plurality of input/output network terminals are connected to the patch panel via connectors and the patch panel is connected to the switch via a single, multi-core data cable device, wherein the switch device is adapted to perform network switching operations for the plurality of network connections connected to the patch panel.
  • Wired network device e.g. according to clause 1, for the electronic transfer of data within a building, in which computer terminals and computer servers located within the building are connected to a wired packet switching network and in which network routers and network switches and network hubs within the building are involved in the data traffic
  • Device comprising one or more of: a patch panel and a switch device (hereinafter abbreviated to "switch”), in which a plurality of data cables from the building, the so-called input/output network connections, are connected to the patch panel via connectors and the patch panel is via a single, multi-core, preferably glass fibre, data cable with a single multi-plug connected to the switch device, the switch device being adapted to perform network switching operations for the plurality of data cables connected to the patch panel from the building (the I/O network connections) and where preferably one or more of the following further applies:
  • the switch has no other plug-in ports other than the single multi-plug port
  • the plug-in port for the multi-plug is located on the back of the switch
  • the switch and the patch panel are mutually distinct and separate and autonomous and self-contained devices, and are fitted into a, for the switch and the patch panel common, 19-inch patch rack;
  • the switch is via the multi-core glass fibre data cable with multi-plug directly connected to the patch panel;
  • the multi-core glass fibre data cable is the only input/output interface between the switch and the patch panel;
  • the patch panel acts only as a plug-in board
  • the multi-core glass fibre data cable has at least 100 cores;
  • -the at the multi-core glass fibre data cable provided multi plug has at least 100 connection terminals;
  • Wired network device e.g. according to any of clauses 1-3, comprising a plurality of patch terminals and a switch device, wherein one or more of the following applies:
  • the plurality of patch connections and the switch device are located on one or more printed circuit boards within a housing; -each of the patch connections has connection terminals and a connector;
  • each connector is connected via the circuit on the one or more printed circuit boards to a corresponding output port of the switch device, and
  • the switching device comprises a network communication port for connection to a data communication network
  • each connection terminal is arranged to receive a wired connection to a socket of a location-specific network connection
  • each terminal is equipped with detachable wire terminals for connecting to the wired connection;
  • the switch device being configured to assign a predetermined network address to each of the plurality of patch terminals.

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Abstract

The invention relates to an Ethernet network with an improved network switch.A wired network device comprising a patch panel and a switch device has been invented, wherein a plurality of input/output network terminals are connected to the patch panel via connectors and the patch panel is connected via a single, multi-core data cable to the switch device, the switch device being configured to perform network switching operations for the plurality of network connections connected to the patch panel.

Description

Ethernet network with improved network switch.
The invention has been made for the technical field of network or information technology in the context of electronic transfer of data, wherein computer terminals and computer servers are connected to a wired packet switching network (PSN; meaning packet-switched network) , and wherein network routers (operating at OSI layer 3) and switches (operating at OSI layer 2) and hubs (operating at OSI layer 1) are involved in data traffic with application of, for example, Ethernet/Internet Protocol. A network switch is, for example, the CATALYST 3750 from Cisco Systems. A patch panel is for example the SYSTIMAX 360 GigaSPEED X10D 1100 GS5 from CommScope.
For example, one or more of the following applies: the standard ANSI/TIA-568-C or ISO/IEC 11801 for data or signal cables; the standard EIA-310 for dimensions of 19 inch patch racks; the network standard IEEE 802.3; the TCP/IP protocol. The data speed is, for example, at least 10, or 100 Mb/s. Existing situation.
In a building, for example an office building, there is, for example in one or more workspaces in the building, a large number of wall sockets (so-called wall-outlets) with which location-bound, in the building, for example in one or more workspaces, arranged, terminals (such as: PCs, telephones, printers) can be connected to the wired communication network inside and outside the building. A loose data cable runs freely from the location-bound terminal in the workspace and is connected with a plug (e.g. RJ-45) to the associated wall socket. A permanently installed data cable (preferably out of sight) runs from the wall socket to a collection point in the building, for example a technical room (also called: "patch room"), where all permanently installed data cables from the building come together and are connected to a switch located in the technical room, for which purpose use is made of an in the technical space arranged patch box comprising a patch panel and a switch. The switch connects the individual permanently installed data cables from the building to the network of computer servers located outside the building in server cabinets in remote data centres.
The invention relates to the technical room, in particular the patch box, where the data cables from the building come together and are connected to the network by means of a switch (so-called Ethernet network) . US2017/0102510 discloses a system for communicating between computer servers and a core switch in a computer server room, wherein the computer servers and the core switch are placed in a common cabinet (called "rack assembly") . This is another technical field.
An alternative name for "data cable from the building"is "UTP cable" .
In the conventional patch box (also called "patch-rack") the so-called "patchen"takes place and for that for each data cable from the building (UTP cable) , a private data
communications cable (the so called patch cable) from the patch panel to the switch is used to get a working connection.
New situation
With the invention (indicated by the addition "2.0") a per se known patch-panel is connected to the new switch (referred to as "Switch 2.0") by means of a
"Patch2.0-connector" . The Patch 2.0-connector is with the improved switch connected (preferably at the rear side of the switch) by means of a single data cable (also called:
"Patch2.0-data cable"), for instance a glass fibre cable, preferably by using a single plug (labeled "Patch 2.0-multi plug") .
For example, the Patch2.0-data cable is an MPO terminated cable or a QFSP-DD.
More preferably, use is made of the new patch-panel (referred to as "Patch-panel2.0" ) , wherein the data cables from the building are directly connected to the Patch-panel2.0 (also called: "doggen" or "dogging") . The Patch-panel2.0 is preferably through a single data cable, the Patch2.0-data cable, preferably by means of a single Patch2.0-multi plug, connected to the Switch2.0. The Switch 2.0 preferably has only connections, preferably connections for the Patch2.0-multiplug, at the rear so that no cables are visible at the front. Preferably, this is also unnecessary since connections never have to be made per data cable from the building, because the multitude of patch cables has been replaced by a single Patch2.0-data cable. Preferably, all data cables from the building are, via the Patch2.0-panel, connected to the Switch2.0, and are managed by the (web) interface of the Switch2.0.
Thus, in the situation "2.0", the plurality of separate patch cables running from the patch panel and attached to the switch are preferably missing, these have been replaced by a single data cable, for example a fibre optic cable, preferably by means of a single Patch2.0-multi plug connected to the switch (Switch2.0 ) .
The load level of the Switch2.0 is limited. Due to this limitation, there is usually a maximum in the number of data cables from the building that is possible per Switch 2.0. If a single Switch2.0 is overloaded, one or more additional Switch2.0 can be deployed in the patch box to spread the load. If multiple Switch2.0 are used in the patch box, these can be linked and managed through a single interface. With multiple linked Switch 2.0 switches, there is also no failure of the patch box if a single switch fails or is temporarily out of service for maintenance.
The Switch2.0, Patch-Panel2.0 and Patch2.0-connector are mutually distinct and separate and autonomous (also called "self-contained") device, and preferably fit into the existing 19 inch patch-rack.
Thus, the invention relates to one or more of: Switch2.0; Patch-panel2.0 ; Patch2.0-connector; Patch2.0-datakabel (e.g. fibre optic cable) with Patch2.0-multi plug. The
Patch2.0-connector is preferably used when applied with a conventional patch-panel plus conventional Ethernet switch. The network connections (wall outlet connections; the data cables from the building) are mounted on the Patch-panel2.0 (direct) / Patch2.0-connector (via the usual patch panel) . The Switch2.0 is directly connected to the Patch-panel2.0 /Patch2.0-connector via the Patch2.0-data cable. The Patch2.0-data cable is the only input/output connection between Switch2.0 and
Patch-panel2.0 /Patch2.0-connector . The Switch2.0 operates directly with all network port numbers and the switch interface is set up for this. The switch interface takes care of making and setting up the connections with the network port numbers (input + output) . The Patch-panel2.0/Patch2.0-connector function only as mountingboards .
The Patch2.0-data cable preferably has a minimum of 50 or 100 cores. The Patch2.0-multi plug preferably has a minimum of 50 or 100 connection terminals. Preferably, all available network connections are connected.
Advantages of the invention : neat clear patch rack; space saving; all network terminals are connected, and can be switched on and off by a software-based switch; can be managed remotely; to search in which port which network connection is located is no longer required; it is easy for network connections to adapt or to make; via an interface the current situation is always visible and can be exported to e.g. Excel; allows conversion in steps from the existing situation with patch cables; no patch cables required; redundant, load can be distributed over multiple switches; all network connections can be managed by software; allows remote management; new patch rooms can be smaller; existing patch rooms can handle larger numbers of network connections.
Preferably, one or more of the following is applied: for total conversion to 2.0, all network connections are redirected (also called "redoggen") to a Patch-panel2.0 ; to add new network connections, either a Patch-panel2.0 will be disconnected causing existing network connections to fail on the same Patch-panel2.0 , or use is made of loose connectors, for example of UTP type, which avoids downtime; at failure of a complete Patch-panel2.0 several ports fail.
Preferably, the Patch2.0-connector has, for example, on the rear side, a plurality of at least ten, for instance 24, connections, for example of type RJ45 and, preferably, on a side, a data cable with a Patch2.0-multi plug for connection to the Switch2.0 and on the front, preferably only the protective cover of the cabling is visible. The Patch2.0-data cable with Patch2.0-multi plug preferably extends along the side to, preferably, the back of the Switch2.0.
The Patch-panel2.0 is preferably 1U high, and has, preferably at the front, a plurality of at least three connectors, for example, of type UTP and/or UBIC, for example, 6 x UTP and/or 4 x UBIC slot, and is, preferably, on top, provided with a plurality of at least 50 or 100, for example 144, connections to which the data cables from the building can be directly connected. The Patch2.0-data cable with
Patch2.0-multi plug runs to one or more Switches2.0. Of the sides, at least one has a slot in which in the cables can be incorporated .
For example, the switch includes a plurality of input ports each configured for connecting a data cable; a plurality of output ports each arranged to connect a data cable; electronic circuits for performing network switching operations, which circuits are connected to the plurality of input and output ports .
THE DRAWING
Non-limiting exemplary embodiments of the invention are described below with reference to the drawing. In the drawing shows :
Fig. 1-4 the top, side, front and rear view of the Switch2.0 (fig. 4 on a larger scale);
Fig. 5 a plug combination;
Fig. 6 the rear view of the Patch2.0-connector .
Fig. 7-10 the top, side, front and back views of the Patch-panel2.0 , respectively.
Fig. 11 the usual layout of a patch rack.
Fig. 12 the layout of a patch rack using the
Patch2.0-connector to connect a conventional patch panel and Ethernet switch to the Switch2.0.
Fig. 13 the layout of a patch rack using only Patch-panel2.0 and Switch2.0.
The Switch2.0 shown in fig. 1-4 only has terminals at the rear (fig. 4), namely: connection point 14 for power supply and six connection points 13 for Patch2.0-multi plug 10.
Fig. 5 shows connectors 15, 16 and 17, each for connection to a Switch2.0. Plug 18 is for connection to a Patch-panel2.0.
The Patch2.0-connector 6 of Figure 6 is equipped with a Patch2.0-data cable 9 with Patch2.0-multi plug 10.
The Patch-panel2.0 shown in fig. 7-10 is equipped on the top (shown in fig. 7) with 144 connection points 11 for 144 building UTP cables and contains a patch2.0-data cable 9 with patch2.0-multi plug 10. At the front (fig. 9) there are six connection points 12 for UTP plugs. The rear view (fig. 10) shows again the Patch2.0-multi plug 10.
Fig. 11-13 each show a patch rack in front view. In Fig. 11, the patch rack contains traditional components, namely: patch panel 1, shunting panel 2 and Ethernet switch 3.
Immediately above and below an Ethernet switch 3 there is a shunting panel 2. Directly above and underneath two patch panels
1 placed directly one above the other, there is always a shunting panel 2. In Fig. 12, part of the patch panels 1, shunting panels
2 and Ethernet switches 3 have been omitted by using
Patch2.0-connector 6 (three in number in this version), Switch2.0 4 (two in number in this version), and Patch-panel2.0 (single in this version) . In Fig. 13, the patch rack contains only the Switch2.0 (three in number in this version) and the Patch-panel2.0 (in this version, two in number) .
CLAUSES
1. Wired network device comprising a patch panel and a switch device, where a plurality of input/output network terminals are connected to the patch panel via connectors and the patch panel is connected to the switch via a single, multi-core data cable device, wherein the switch device is adapted to perform network switching operations for the plurality of network connections connected to the patch panel. 2. Wired network device, e.g. according to clause 1, for the electronic transfer of data within a building, in which computer terminals and computer servers located within the building are connected to a wired packet switching network and in which network routers and network switches and network hubs within the building are involved in the data traffic
3. Device according to clause 1 or 2, comprising one or more of: a patch panel and a switch device (hereinafter abbreviated to "switch"), in which a plurality of data cables from the building, the so-called input/output network connections, are connected to the patch panel via connectors and the patch panel is via a single, multi-core, preferably glass fibre, data cable with a single multi-plug connected to the switch device, the switch device being adapted to perform network switching operations for the plurality of data cables connected to the patch panel from the building (the I/O network connections) and where preferably one or more of the following further applies:
-the data cables from the building are directly connected to the patch panel (also called: "doggen" or "dogging");
-a single, multi-core glass fibre data cable runs from the patch panel to the switch device and this data cable is equipped with a multi-plug which is plugged into a plug-in port of the switch, so that the patch panel and the switch are data-communicating connected by means of this data cable;
-the switch has no other plug-in ports other than the single multi-plug port;
-the plug-in port for the multi-plug is located on the back of the switch;
-there is no plug-in port for a cable plug at the front of the switch;
-the switch lacks connections per data cable from the building; -the from the state of the art known plurality of separate patch cables are missing;
-the switch and the patch panel are mutually distinct and separate and autonomous and self-contained devices, and are fitted into a, for the switch and the patch panel common, 19-inch patch rack;
-the switch is via the multi-core glass fibre data cable with multi-plug directly connected to the patch panel;
-the multi-core glass fibre data cable is the only input/output interface between the switch and the patch panel;
-the patch panel acts only as a plug-in board;
-the multi-core glass fibre data cable has at least 100 cores; -the at the multi-core glass fibre data cable provided multi plug has at least 100 connection terminals;
-a patch cable between the patch panel and the switch is missing.
4. Wired network device, e.g. according to any of clauses 1-3, comprising a plurality of patch terminals and a switch device, wherein one or more of the following applies:
-the plurality of patch connections and the switch device are located on one or more printed circuit boards within a housing; -each of the patch connections has connection terminals and a connector;
output-terminal of each connector via a circuit on the one or more printed circuit boards is connected to a corresponding input port of the switch device;
-an input terminal of each connector is connected via the circuit on the one or more printed circuit boards to a corresponding output port of the switch device, and
-the switching device comprises a network communication port for connection to a data communication network;
- each connection terminal is arranged to receive a wired connection to a socket of a location-specific network connection;
- each terminal is equipped with detachable wire terminals for connecting to the wired connection;
- the switch device being configured to assign a predetermined network address to each of the plurality of patch terminals.

Claims

1. Wired network device for the electronic transfer of data within a building, in which computer terminals and computer servers located within the building are connected to a wired packet switching network and in which network routers and network switches and network hubs within the building are involved in the data traffic; comprising a patch panel and a switch device (hereinafter abbreviated to "switch"), in which a plurality of data cables from the building, the so-called input/output network connections, are connected to the patch panel via connectors and the patch panel is via a single, multi-core glass fibre data cable with a single multi-plug connected to the switch device, the switch device being adapted to perform network switching operations for the plurality of data cables connected to the patch panel from the building (the I/O network connections) and where the following further applies :
-the data cables from the building are directly connected to the patch panel (also called: "doggen" or "dogging");
-a single, multi-core glass fibre data cable runs from the patch panel to the switch device and this data cable is equipped with a multi-plug which is plugged into a plug-in port of the switch, so that the patch panel and the switch are data-communicating connected by means of this data cable;
-the switch has no other plug-in ports other than the single multi-plug port;
-the plug-in port for the multi-plug is located on the back of the switch;
-there is no plug-in port for a cable plug at the front of the switch;
-the switch lacks connections per data cable from the building; -the from the state of the art known plurality of separate patch cables are missing;
-the switch and the patch panel are mutually distinct and separate and autonomous and self-contained devices, and are fitted into a, for the switch and the patch panel common, 19-inch patch rack;
-the switch is via the multi-core glass fibre data cable with multi-plug directly connected to the patch panel;
-the multi-core glass fibre data cable is the only input/output interface between the switch and the patch panel;
-the patch panel acts only as a plug-in board;
-the multi-core glass fibre data cable has at least 100 cores; -the at the multi-core glass fibre data cable provided multi plug has at least 100 connection terminals;
-a patch cable between the patch panel and the switch is missing.
2. Device as claimed in claim 1, the patch panel is 1U high and has a plurality of at least three plug-in ports at the front, namely 6 x utp and 4 x ubic slot, and is provided at the top with a plurality of at least 100, for example 144, plug-in ports into which the data cables from the building are directly plugged in; the switch contains electronic circuits for performing network switching operations, which circuits are connected to the plug-in port for the multi plug.
3. Device according to claim 2, the switch operates directly with all network port numbers and the switch interface is designed for that; the switch interface takes care of making and setting up the connections with the network port numbers (input + output) .
PCT/NL2020/050377 2019-06-13 2020-06-12 Ethernet network with improved network switch. WO2020251359A1 (en)

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NL2023308A NL2023308B1 (en) 2019-06-13 2019-06-13 Ethernet network with improved network switch.
NL2023308 2019-06-13

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PCT/NL2020/050377 WO2020251359A1 (en) 2019-06-13 2020-06-12 Ethernet network with improved network switch.

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Citations (2)

* Cited by examiner, † Cited by third party
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US20170102510A1 (en) 2013-01-15 2017-04-13 Intel Corporation Rack assembly structure
US20180131147A1 (en) * 2015-05-27 2018-05-10 HD Networks, LLC High-density data communications connection assembly

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20170102510A1 (en) 2013-01-15 2017-04-13 Intel Corporation Rack assembly structure
US20180131147A1 (en) * 2015-05-27 2018-05-10 HD Networks, LLC High-density data communications connection assembly

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