Qty: 1 PCS receiver module and 2 pcs transmitter remote . (these remotes don't have battery inside ) ;
 
Demo :

 

Receiver Modules :
 
 
 

Model No.

CJ005

Operating voltage

5.0VDC ±0.5V

Working priceple

Super regenerative receiver with decoder , learning type . decoding PT2262, PT2260, PT2240, EV1527 and other learning codeto chip or compatible chips, can learn and store 20 pcs different coded remote control. Intelligently distinguish shock resistance between fixed code and learning code , such as PT2262 and EV1527.

Static current

≤7 mA (DC 5V)

Operating frequency

433MHz

modulation Mode

ASK/OOK

Receiving sensitivity

over -102 dBm (50 Ω)

Speed

< 5 K bps (at 315 MHz, -95 dBm)

Operating temp.

-10 °C ~ +60 °C
Max rate 1 KHZ
Antenns length
20 cm (315 MHz), 18 cm (433.92 MHz)

Dimension

30*13mm

Output signal

TTL level , Momentary, Latch, Toggle ,user can set it by welding, Latch is defult.

Band width

2MHz(315MHz, Sensitivity go down 3dBm test )
 
 
 
 
 
 
 
 
 

Output

 

A.singnal Non-locking (Momentary)----connect 1  and 2 ;

B.singnal Self-locking (Toggle) ---- connect 2 and 3 ;

C.singnal Inter-locking (Latch) ---- disconnect all  ;

 
Inter-locking (Latch): 4-way relay each other to switch, when relay A  is working and locked  ,  relay B C D corresponding to switch off; when B is working and locked , corresponding relay A C D swith off ; Only 1 relay is on among 4 relays A B C D;
 
Non-locking  type (Momentary): Press A and hold it , then A is on.Same as Relay B C D ;
 
Self-lock type (Toggle): 4 chanels opens and closes independently, 4 chanels can work together ,they don’t affect each other . press A button, A relay of work and locked, press again then  disconnected; Same as B C D .
 
User guide :
1: Learing ID : Press learning button , LED is on and beginning to learn ;after learning , LED will flash for a while .Then LED will keep being on to learn the next remote. If perss the learned remoter controller , auto-quit learning within 10 seconds;
2: Delete ID : Keep pressing learning button for 5 seconds , LED will be on and enter deleting . LED off means finishing deleting;
3: Antenna with a soft wire or other hard metals (such as whip antenna), try to straighten. Do not go near metal objects;
4: Power supply voltage requires stable and low ripple factor, multi-level filtering (such as adding beads, inductors, capacitors, etc.);
 
Transmitter remotes:
Transmitter Module No.: YK004 -4 4 Bottons
 

 

Technical Data :
Transmitter Module No.: YK004 -4 4 Chanels
 Power supply : 12V 27A battery  replacable .(This remote doesnot have a battery , Please buy in your local market )
Operating current: ≤ 12mA;
Oscillation mode: SAW resonator;
Modulation mode:ASK;
Operating frequency:433.92MHz ,Special frequency can be customized;
Frequency deviation:±0.2MHz;
Encoding format: Learning Code ( EV1527 )  ;
(CANNOT program, HAVENOT Cloning Function , Cannot copy your existing remote ,Can be duplicate if your receiver board have a learning key ) ;
Transmit power:10 mW.
Data Rate : 50~60KHZ;
 
Typical Applications
• Automotive RKE systems
• Automotive alarm systems
• Automotive immobilizers
• Gate and garage door openers
• Identity tokens
• Burglar alarm systems
 
 
 

 

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Intro :

 

 

 

The key to my apartment never worked quite right because it is a copy of a copy of a copy. I am fairly certain that the dead bolt is original to the building and the property manager seems to have lost the original key years ago. As a result unlocking the door was always a pain. Changing the lock wasn't an option, but eliminating the need to use a key was.

Parts:
Arduino Uno R3
Servo
2 Push Button Switches
Red LED
Green LED
Various Resistors
piezoelectric speaker
Perf Board

 

Step 1 :

 

 

 

 

Mounting Parts

I used a couple of pieces of acrylic that I acquired in the dumpster of the plastic shop next to my place of work (they throw out alot of small pieces like this). Alternatively another material could be used if you don't have access to acrylic, but it is easy to work with and looks cool.

Using a piece of paper trace the mounting holes for your dead bolt and transfer them onto your acrylic sheet. Since most dead bolts are going to be slightly different I am not sharing the template I made out of a piece of paper (mainly because it isn't anything worth sharing).

Leave the paper covering on while working with the acrylic. The paper makes it easy to mark where to cut/drill as well as protects the material from scratches. Once all of your cuts are made and your holes are drilled you can start installing components such as LEDs and switches.

 

Step 2:

 

 

Servo

I used an old parallax servo I had in my parts bin. This small servo is more than strong enough to turn the deadbolt. In order to attach the servo to the lock shaft I used epoxy putty. Epoxy putty is very easy to use and is extremely versatile. The wire you see sticking out of the putty will be used as the arm for the limit switch.

At some point the wires to my servo had been cut so I had to open the case and solder on new ones. I took that opportunity to solder on a second wire to the 5v line and connected it to the limit switch arm.

 

 

Step 3:

 

Wiring

Screws were countersunk from the back of the acrylic. A wire was attached to each screw and then to a digital pin on the Arduino. When the wiper with the 5v wire touches the screw it pulls the digital pin high on the Arduino. Please see the schematic for further details.

Step 4: Program

Disclaimer: I am not a programmer and therefore the below code may not be the most efficient. Feel free to improve the code for your own uses if you see any errors or problems. It works for me so I hope it works for you.


// turn CW to lock and CCW to unlock
//1700 CCW; 1500 Stop; 1300 CW
//written by Chris Rybitski
#include



Servo deadbolt; // create servo
const int CWLimit = 6; // Limit Switch on 6 Unlock
const int CCWLimit = 7; // Limit Switch on 7 Lock
const int Redbtn = 12; //red push button
const int Blackbtn = 8; //black push button
const int GreenLED = 10; // Green LED
const int RedLED = 11; //Red LED
const int Ch1 = 5; //rf channel 1
const int Ch2 = 4; //rf channel 2
const int Buzz = 9; //buzzer
int Unlock = 0;
int Lock = 0;
int timer = 0;
boolean UnLcomplete = false;
boolean Lcomplete = false;

void setup()
{

Serial.begin(9600);

deadbolt.attach(3); // attaches the servo
pinMode(GreenLED, OUTPUT);
pinMode(RedLED, OUTPUT);
pinMode(Buzz,OUTPUT);
pinMode(CWLimit, INPUT);
pinMode(CCWLimit, INPUT);
pinMode(Redbtn, INPUT);
pinMode(Blackbtn, INPUT);
pinMode(Ch1, INPUT);
pinMode(Ch2, INPUT);

//set LED's and Buzzer to be off by default
digitalWrite(GreenLED, HIGH);
digitalWri