TLR120_WIFI Time Activated Relay
Time Relay 1-Channel 20-Amp with Wi-Fi Interface
TLR120_WIFI Time Activated Relay Control
Use your computer to setup the time schedule and store your schedule into the TLR120_WIFI controller. Once stored, the TLR120_WIFI does not require a computer, and will activate relays according to a schedule that can be as simple or as complex as your application requires.
Use your computer to setup the time schedule and store your schedule into the TLR120_WIFI controller. Once stored, the TLR120_WIFI does not require a computer, and will activate relays according to a schedule that can be as simple or as complex as your application requires.
Control Relays with Time Schedule
Time Activated with Wi-Fi Interface
The TLR120_WIFI is equipped with firmware built into the board that will allow a time schedule to trigger relays. The TLR120_WIFI know what time and day it is and will trigger relays according to your time schedule. Up to 1000 events can be in the schedule!
TLR120_WIFI The Ideal Choice
The TLR120_WIFI Taralist Relay uses a Wi-Fi interface that can be accessed within your Wi-Fi network. Once configured the computer is no longer needed and the board will operate on it's own! Access to the board from anywhere on the network or internet to make configuration changes or override current settings! The computer is needed to set your time schedule and upload it to the board. Making this the ideal choice for controlling relays using a time schedule!
Up To 1000 Events
The TLR120_WIFI can store up to one thousand events! If your current time schedule software only allows you a limited amount of settings for things like school bells and shift changes there is more than enough with this controller!
Time Activated with Wi-Fi Interface
The TLR120_WIFI is equipped with firmware built into the board that will allow a time schedule to trigger relays. The TLR120_WIFI know what time and day it is and will trigger relays according to your time schedule. Up to 1000 events can be in the schedule!
TLR120_WIFI The Ideal Choice
The TLR120_WIFI Taralist Relay uses a Wi-Fi interface that can be accessed within your Wi-Fi network. Once configured the computer is no longer needed and the board will operate on it's own! Access to the board from anywhere on the network or internet to make configuration changes or override current settings! The computer is needed to set your time schedule and upload it to the board. Making this the ideal choice for controlling relays using a time schedule!
Up To 1000 Events
The TLR120_WIFI can store up to one thousand events! If your current time schedule software only allows you a limited amount of settings for things like school bells and shift changes there is more than enough with this controller!
Time Controlled Relay
The TLR120_WIFI includes a Wi-Fi interface for easy
configuration and controlling the relays through youyr Wi-Fi network.
Extremely Powerful, Very Reliable Time Activated Relay!
Resources:
Here's Where to Order:
Order Online or Call Us At:
800-960-4287
800-960-4287
Fax Purchase Orders To
417-646-5662
417-646-5662
Wi-Fi Time Schedule Control
Wireless Upload of Time Schedule
Upload and Manual Control of Relays From Anywhere on the Network
Trigger Relays with a Time Schedule
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This setting configures whether or not the module should attempt to associate with a WiFi Network.
In configuration mode the NexGen module is broadcasts and SSID which devices can connect to. This Soft AP is configurable. It is possible to change the broadcast SSID network name, the password for authenticating, and the default web interface which should be displayed to the user upon initial connection. We will cover those settings here.
The NexGen module broadcasts a UDP packet on ports 55555 and 13000 for network discovery purposes.  These settings enable this broadcast, forward the broadcast to link.signalswitch.com and alter the name in the discovery packet.
The WiFi module technically has two serial interfaces.  One which communicates through the USB port on the module and a second that communicates to the host board.  These settings apply to those ports.  Keep in mind most Host boards manufactured by NCD have a default baud rate of 115200.
The NexGen module supports Bluetooth connectivity via the Bluetooth Classic protocol. It implements the functionality of a Bluetooth Serial Port Profile device(SPP). It does not implement Bluetooth 4.0 or LE functionality and thus is not compatible with all devices such as iOS. 
The NexGen module implements the functionality of a TCP server. In this implementation the module opens a socket which clients(software) can connect too. These settings configure this TCP Server functionality.
Whether or not to display the HTTP control interface. Select this option if you want to activated the built-in web page to control the relay. Below select how many relays you have on the board, compatible on boards with up to 8 relays installed. 
Whether or not to implement MQTT functionality and establish connection to an MQTT broker on boot.
The Taralist series have an integrated battery backed Real Time Clock with memory that allows users to control relays based on a time schedule. Use your computer to setup the time schedule and store your schedule into the board. Once stored, the Taralist does not require a computer, and will control the relay according to a schedule that can be as simple or as complex as your application requires.
Override functions are also supported. So if the normal schedule activates a light during weekdays, but you don't want the light to come on during holidays, simply program your holiday schedule to prevent the light from activating according to your normal schedule.
TaraList boards have some amazing abilities when it comes to making decisions on their own based on the events you configure, but you can take control of the relays at any time from a computer as long as communications are established between your computer and the Time Relay device.
This device has SPDT relays installed. SPDT Single Pole Double Throw Relays have three connections - Common, Normally Open, and Normally Closed. When the relay is off, the common is connected to the normally closed connection of the relay. When the relay coil is energized, the Common swings to the Normally Open Connection of the Relay. You can wire the device you are switching to either the Normally Open or the Normally Closed position using screw terminal connections. The maximum guage wire the terminal can handle is 14 ga but we have used up to 12 ga solid core for several applications with no issues.
This and all expansion boards require 12 VDC to operate. We offer a wall-wart type power supply at checkout if you need to plug this into a 110 wall outlet. Applying Good clean power to the board is essential for the operation of the board. Without good steady clean power from a regulated power supply the board simply will not function correctly. The PWR12 US power supply is a 120VAC to 12VDC 1.25A 60Hz regulated power supply and it plugs into the barrel connector on the board. The output connector is a 2.1mm I.D. x 5.5mm O.D. x 9.5mm Female R/A barrel connector. We also carry an international power supply with interchangeable adapters for international customers. 
This board is led free and RoHS Compliant. If your requirements are for RoHS compliant parts this board is manufactured with RoHS compliant led free parts and solder.
XR Expansion Boards are designed for long life just as the ProXR boards, you should expect to get years of service from expansion board and literally 2-million cycles from the relays on board. With a 5-year warranty and a money back guarantee add more relay anytime the need arises! 
The PWR12 is regulated power supply providing clean power necessary for
the performance of these boards. The PWR12 US power supply is a 120VAC to 12VDC 1.25A 60Hz regulated
power supply and it plugs into the barrel connector on the board. The output connector is a 2.1mm I.D. x 5.5mm
O.D. x 9.5mm R/A barrel connector.
The GFL Enclosure is an undrilled, non-waterproof enclosure and is available at checkout for this controller.
Wiring is done directly to the Relay terminals using a common 1/4" quick disconnect terminal. These quick-disconnect
insulated spade wire terminals offer the fastest way to connect and disconnect wires to the relay. Easy to Apply:
Crimp with pliers after inserting the wire, no soldering required, making electrical maintenance and wiring work easier
and more efficient.
Controlling
an inductive load using our relay controllers requires the use of induction suppression capacitors. The purpose of this capacitor
is to absorb the high voltages generated by inductive loads, blocking them from the contacts of the relay. Without this capacitor,
the lifespan of the relay will be greatly reduced. Induction can be so severe that it electrically interferes with the microprocessor
logic of our controllers, causing relay banks to shut themselves down unexpectedly.
Taralist
boards are configured using the Free Base Station Software. The GUI interface makes it easy to
configure time schedules with a point and click interface! Base Station can also be used to take
manual control of the relays to override the time schedules.
This example demonstrates how two energized relays are required to activate a light bulb. This is the same as a Logic and function because Relay 1 AND Relay 2 must be on to activate the light. Only one power wire is switched in this example using two relays to turn on the light. This example would be used if you want two parameters to be active before the light will switch on. If you have sensors or need two parameters to be in the correct state before the light turns on. A quick example would be a light sensor will need to show it's dark and a motion sensor showing someone in the room before the light will turn on. 
This example demonstrates how three energized relays are required to activate a light bulb. Just like example 3, Logic and function play a roll because Relay 1 AND Relay 2 AND Relay 3 MUST be energized to activate the light. Only one power wire is switched in this example using three relays to turn on the light. Simple wiring from the NO of Relay 1 to the COM of Relay 2 to the NO of Relay 2 to the COM of Relay 3 will require that all three relays would need to be energized to turn on the light. This can be expanded to include as many relays as needed as long as you wire NO of the first relay to COM of the next relay.
This example demonstrates the and/or function. The light bulb will be activated if Relay 1 and Relay 2 are energized OR if Relay 3 is energized. This example is great for applications that may require a logical condition of 2 relays plus an override feature. For instance, if Relay 1 is a night/day sensor, Relay 2 is a moisture sensor. If its dark and the soil is dry, Relays 1 and 2 can activate a pump. If you want to override these conditions with local physical switch using Relay Activator function (see the AD8 Command Set Tab) Relay 3 would override Relays 1 & 2.
This example demonstrates how either relay can be used to activate a light. Only one power wire is switched in this example using either of two relays to turn on the light. In this sample, only one activated relay is required to activate the light. If both relays are activated, the light will be on. Great for if you have a timer for one of the relays but want to turn the light on when the timer is scheduled off or have two sensors connected and want either of them to control a device. 
This example demonstrates how to create a 3-way light switch to activate a light. A 3-way light switch is where two light switches can be used to activate a single light. This sample is exactly the same as a 3-way light switch, the only difference being each physical switch is replaced by a relay. Operationally, it works the same way. Only one power wire is switched in this example using both relays to turn on the light. Each relay activation will cause the light to toggle. Switching two relays at one time is like flipping 2 switches at once....with the same result. This sample is particularly useful since you can replace one relay (as shown in the diagram) with a physical light switch. This will allow a computer to control a light as well as manual operation of a light. Properly used, this can be one of the most valuable diagrams we offer on this page.
This example demonstrates how to control the direction of a DC motor using 2 relays. Braking is accomplished by connecting both motor terminals to a common power connection (Faraday's Law). The capacitors shown may not be required for small motors, but if you experience problems with relays shutting themselves off, the induction suppression capacitor will be required. The .1uF capacitor helps suppress electronic noise if the battery were to be used by sensitive devices (such as radios/amplifiers).
