V
valtih1978
Actually it has everything to do with 'it', but you do not seem to be
understanding 'it'.
Thanks. Next time, I will know that redundancy adds very much because
"it also has to do with it".
I know the right definition! Computers are the people who do
computations! FPGAs fall into absolutely different category!
Good job. To be more honest, you had to compare the latest integral
nanoscale desktop processor against large mechanical relay logic from
30-ties. The first computers used that technology. This way, you would
have proven much stronger thesis: our flexible SW completely outdoes any
HW implementation!
Following this line of reasoning, we can recall that first uProcessors
were running at 1 mhz. Today FPGAs can emulate them 100 times faster.
Now, people must stop thinking that FPGAs are slower than ASIC
implementation. I just cannot understand why today 4 GHz processor can
run at 400 mhz maximum when implemented in FPGA?
abstraction.
Transistors are an abstraction. Сopper and electrons are an abstraction.
Everything is and abstraction. We like abstractions because they help
use to understand. Me, Xilinx and Synopsys use gate netilst abstraction
to understand the implementation.
definitions that are different than what you have chosen don't
expect to get much acceptance of your usage.
How picture of user gates emulated by FPGA can not correspond to this
definition?
Thank you for the warning. It would be very nice. We can be prepared.
understanding 'it'.
Thanks. Next time, I will know that redundancy adds very much because
"it also has to do with it".
research the definition of computer as well.Not true at all...see previous paragraph...and you should probably
I know the right definition! Computers are the people who do
computations! FPGAs fall into absolutely different category!
transistor implementation would be much slower than an FPGANot true either. A discrete logic gate implementation or a discrete
Good job. To be more honest, you had to compare the latest integral
nanoscale desktop processor against large mechanical relay logic from
30-ties. The first computers used that technology. This way, you would
have proven much stronger thesis: our flexible SW completely outdoes any
HW implementation!
Following this line of reasoning, we can recall that first uProcessors
were running at 1 mhz. Today FPGAs can emulate them 100 times faster.
Now, people must stop thinking that FPGAs are slower than ASIC
implementation. I just cannot understand why today 4 GHz processor can
run at 400 mhz maximum when implemented in FPGA?
design everything down to the transistor level. Gates are anAs does an ASIC design...unless you really think that ASIC designers
abstraction.
Transistors are an abstraction. Сopper and electrons are an abstraction.
Everything is and abstraction. We like abstractions because they help
use to understand. Me, Xilinx and Synopsys use gate netilst abstraction
to understand the implementation.
you want. However, since those words already have acceptedYou can choose to use the words 'implementation' and 'emulation' how
definitions that are different than what you have chosen don't
expect to get much acceptance of your usage.
How picture of user gates emulated by FPGA can not correspond to this
definition?
This is the last I have to say on this thread.
Thank you for the warning. It would be very nice. We can be prepared.