The last digit must be even but one of the first two digits we chose may be an even number so it reduces the number of possibilities for the last digit. We will have to break this up into cases.
Case $1$: First digit is odd
Sub case $1_1$: second digit is odd
Sub case $1_2$: second digit is even
In Sub case $1_1$ the number of possibilities for first, second and third digit are 5, 4 and 5. So the total no. of possibilities is $5\times4\times5=100$.
In Sub case $1_2$ the number of possibilities for first, second and third digit are 5,4 and 3. So the total no. of possibilities is $5\times4\times3=60$.
So total no. of possibilities of Case 1 is $100+60=160$.
Case 2: First digit is even
Sub case $2_1$: second digit is odd
Sub case $2_2$: second digit is even
The no. of possibilities of Sub case $2_1$ is $3 \times 4 \times 3=36$. The first number is 3 not 4 because 0 cannot be the first digit.
The no. of possibilities of Sub case $2_2$ is $3 \times 3 \times 2=18$
So the no. of possibilities of case 2 is $36+18=54$
So totally the number of cases is the sum of case 1 and case 2 which is $160+54=214$.
The answer is $\boxed{214}$.