Module: HDLRuby::High::Std::SEnumerable
- Included in:
- SEnumerator
- Defined in:
- lib/HDLRuby/std/sequencer.rb
Overview
Module adding functionalities to object including the +seach+ method.
Instance Method Summary collapse
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#sall?(arg = nil, &ruby_block) ⇒ Boolean
Tell if all the elements respect a given criterion given either as +arg+ or as block.
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#sany?(arg = nil, &ruby_block) ⇒ Boolean
Tell if any of the elements respects a given criterion given either as +arg+ or as block.
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#schain(arg) ⇒ Object
Returns an SEnumerator generated from current enumerable and +arg+.
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#schunk(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby chunk.
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#schunk_while(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby chunk_while.
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#scompact ⇒ Object
HW implementation of the Ruby compact, but remove 0 values instead on nil (since nil that does not have any meaning in HW).
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#scount(obj = nil, &ruby_block) ⇒ Object
WH implementation of the Ruby count.
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#scycle(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby cycle.
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#sdrop(n) ⇒ Object
HW implementation of the Ruby drop.
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#sdrop_while(&ruby_block) ⇒ Object
HW implementation of the Ruby drop_while.
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#seach_cons(n, &ruby_block) ⇒ Object
HW implementation of the Ruby each_cons.
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#seach_entry(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby each_entry.
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#seach_slice(n, &ruby_block) ⇒ Object
HW implementation of the Ruby each_slice.
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#seach_with_index(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby each_with_index.
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#seach_with_object(obj, &ruby_block) ⇒ Object
HW implementation of the Ruby each_with_object.
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#sfind(if_none_proc, &ruby_block) ⇒ Object
HW implementation of the Ruby find.
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#sfind_index(obj = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby find_index.
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#sfirst(n = 1) ⇒ Object
HW implementation of the Ruby first.
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#sflat_map(&ruby_block) ⇒ Object
HW implementation of the Ruby flat_map.
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#sgrep(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby grep.
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#sgrep_v(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby grep_v.
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#sgroup_by(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby group_by.
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#sinclude?(obj) ⇒ Boolean
HW implementation of the Ruby include?.
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#sinject(*args, &ruby_block) ⇒ Object
(also: #sreduce)
HW implementation of the Ruby inject.
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#slazy(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby lazy.
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#smap(&ruby_block) ⇒ Object
Returns a vector containing the execution result of the given block on each element.
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#smax(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby max.
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#smax_by(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby max_by.
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#smin(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby min.
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#smin_by(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby min_by.
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#sminmax(&ruby_block) ⇒ Object
HW implementation of the Ruby minmax.
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#sminmax_by(&ruby_block) ⇒ Object
HW implementation of the Ruby minmax_by.
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#snone?(arg = nil, &ruby_block) ⇒ Boolean
Tell if none of the elements respects a given criterion given either as +arg+ or as block.
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#sone?(arg = nil, &ruby_block) ⇒ Boolean
Tell if one and only one of the elements respects a given criterion given either as +arg+ or as block.
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#spartition(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby partition.
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#sreject(&ruby_block) ⇒ Object
HW implementatiob of the Ruby reject.
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#sreverse_each(*args, &ruby_block) ⇒ Object
HW implementatiob of the Ruby reverse_each.
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#sselect(&ruby_block) ⇒ Object
HW implementation of the Ruby select.
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#sslice_after(pattern = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby slice_after.
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#sslice_before(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby slice_before.
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#sslice_when(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby slice_when.
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#ssort(&ruby_block) ⇒ Object
HW implementation of the Ruby sort.
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#ssort_by(&ruby_block) ⇒ Object
HW implementation of the Ruby sort.
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#ssum(initial_value = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby sum.
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#stake(n) ⇒ Object
The HW implementation of the Ruby take.
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#stake_while(&ruby_block) ⇒ Object
The HW implementation of the Ruby take_while.
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#stally(h = nil) ⇒ Object
HW implementation of the Ruby tally.
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#sto_a ⇒ Object
HW implementation of the Ruby to_a.
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#sto_h(h = nil) ⇒ Object
HW implementation of the Ruby to_h.
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#suniq(&ruby_block) ⇒ Object
HW implementation of the Ruby uniq.
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#szip(obj, &ruby_block) ⇒ Object
HW implementation of the Ruby zip.
Instance Method Details
#sall?(arg = nil, &ruby_block) ⇒ Boolean
Tell if all the elements respect a given criterion given either as +arg+ or as block.
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# File 'lib/HDLRuby/std/sequencer.rb', line 319 def sall?(arg = nil,&ruby_block) # Declare the result signal. res = nil HDLRuby::High.cur_system.open do res = bit.inner(HDLRuby.uniq_name(:"all_cond")) end # Initialize the result. res <= 1 # Performs the computation. if arg then # Compare elements to arg. self.seach do |elem| res <= res & (elem == arg) end elsif ruby_block then # Use the ruby block. self.seach do |elem| res <= res & ruby_block.call(elem) end else raise "Ruby nil does not have any meaning in HW." end res end |
#sany?(arg = nil, &ruby_block) ⇒ Boolean
Tell if any of the elements respects a given criterion given either as +arg+ or as block.
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# File 'lib/HDLRuby/std/sequencer.rb', line 346 def sany?(arg = nil,&ruby_block) # Declare the result signal. res = nil HDLRuby::High.cur_system.open do res = bit.inner(HDLRuby.uniq_name(:"any_cond")) end # Initialize the result. res <= 0 # Performs the computation. if arg then # Compare elements to arg. self.seach do |elem| res <= res | (elem == arg) end elsif ruby_block then # Use the ruby block. self.seach do |elem| res <= res | ruby_block.call(elem) end else raise "Ruby nil does not have any meaning in HW." end res end |
#schain(arg) ⇒ Object
Returns an SEnumerator generated from current enumerable and +arg+
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# File 'lib/HDLRuby/std/sequencer.rb', line 372 def schain(arg) return self.seach + arg end |
#schunk(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby chunk. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 378 def schunk(*args,&ruby_block) raise "schunk is not supported yet." end |
#schunk_while(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby chunk_while. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 384 def schunk_while(*args,&ruby_block) raise "schunk_while is not supported yet." end |
#scompact ⇒ Object
HW implementation of the Ruby compact, but remove 0 values instead on nil (since nil that does not have any meaning in HW).
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# File 'lib/HDLRuby/std/sequencer.rb', line 422 def scompact # Generate the vector to put the result in. # The declares the resulting vector and index. res = nil idx = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[-enum.size].inner(HDLRuby.uniq_name(:"compact_vec")) idx = [enum.size.width].inner(HDLRuby.uniq_name(:"compact_idx")) end # And do the iteration. idx <= 0 enum.seach do |elem| HDLRuby::High.top_user.hif(elem != 0) do res[idx] <= elem idx <= idx + 1 end end SequencerT.current.swhile(idx < enum.size) do res[idx] <= 0 idx <= idx + 1 end # Return the resulting vector. return res end |
#scount(obj = nil, &ruby_block) ⇒ Object
WH implementation of the Ruby count.
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# File 'lib/HDLRuby/std/sequencer.rb', line 450 def scount(obj = nil, &ruby_block) # Generate the counter result signal. cnt = nil enum = self.seach HDLRuby::High.cur_system.open do cnt = [enum.size.width].inner(HDLRuby.uniq_name(:"count_idx")) end # Do the counting. cnt <= 0 # Is obj present? if obj then # Yes, count the occurences of obj. enum.seach do |elem| HDLRuby::High.top_user.hif(obj == elem) { cnt <= cnt + 1 } end elsif ruby_block # No, but there is a ruby block, use its result for counting. enum.seach do |elem| HDLRuby::High.top_user.hif(ruby_block.call(elem)) do cnt <= cnt + 1 end end else # No, the result is simply the number of elements. cnt <= enum.size end return cnt end |
#scycle(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby cycle.
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# File 'lib/HDLRuby/std/sequencer.rb', line 480 def scycle(n = nil,&ruby_block) # No block given? Generate a new wrapper enumerator for scycle. if !ruby_block then return SEnumeratorWrapper.new(self,:scycle,n) end this = self # Is n nil? if n == nil then # Yes, infinite loop. SequencerT.current.sloop do this.seach(&ruby_block) end else # Finite loop. (0..(n-1)).seach do this.seach(&ruby_block) end end end |
#sdrop(n) ⇒ Object
HW implementation of the Ruby drop.
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# File 'lib/HDLRuby/std/sequencer.rb', line 538 def sdrop(n) # Generate the vector to put the result in. # The declares the resulting vector and index. res = nil idx = nil enum = self.seach HDLRuby::High.cur_system.open do # res = enum.type[-enum.size].inner(HDLRuby.uniq_name(:"drop_vec")) res = enum.type[-enum.size+n].inner(HDLRuby.uniq_name(:"drop_vec")) # idx = [enum.size.width].inner(HDLRuby.uniq_name(:"drop_idx")) end # And do the iteration. # idx <= 0 # enum.seach.with_index do |elem,i| # HDLRuby::High.top_user.hif(i >= n) do # res[idx] <= elem # idx <= idx + 1 # end # end # SequencerT.current.swhile(idx < enum.size) do # res[idx] <= 0 # idx <= idx + 1 # end (enum.size-n).stimes do |i| res[i] <= enum.access(i+n) end # Return the resulting vector. return res end |
#sdrop_while(&ruby_block) ⇒ Object
HW implementation of the Ruby drop_while.
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# File 'lib/HDLRuby/std/sequencer.rb', line 569 def sdrop_while(&ruby_block) # No block given? Generate a new wrapper enumerator for sdrop_while. if !ruby_block then return SEnumeratorWrapper.new(self,:sdrop_while) end # A block is given. # Generate the vector to put the result in. # The declares the resulting vector, index and drop flag. res = nil idx = nil flg = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[-enum.size].inner(HDLRuby.uniq_name(:"drop_vec")) idx = [enum.size.width].inner(HDLRuby.uniq_name(:"drop_idx")) flg = bit.inner(HDLRuby.uniq_name(:"drop_flg")) end # And do the iteration. # First drop and fill from current enumerable elements. idx <= 0 flg <= 1 enum.seach.with_index do |elem,i| HDLRuby::High.top_user.hif(flg == 1) do HDLRuby::High.top_user.hif(ruby_block.call(elem) == 0) do flg <= 0 end end HDLRuby::High.top_user.hif(flg == 0) do res[idx] <= elem idx <= idx + 1 end end # Finally, end with zeros. SequencerT.current.swhile(idx < enum.size) do res[idx] <= 0 idx <= idx + 1 end # Return the resulting vector. return res end |
#seach_cons(n, &ruby_block) ⇒ Object
HW implementation of the Ruby each_cons
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# File 'lib/HDLRuby/std/sequencer.rb', line 611 def seach_cons(n,&ruby_block) # No block given? Generate a new wrapper enumerator for seach_cons. if !ruby_block then return SEnumeratorWrapper.new(self,:seach_cons) end # A block is given. # Declares the indexes and the buffer for cosecutive elements. enum = self.seach idx = nil buf = nil HDLRuby::High.cur_system.open do idx = [enum.size.width].inner(HDLRuby.uniq_name(:"each_cons_idx")) buf = n.times.map do |i| [enum.type].inner(HDLRuby.uniq_name(:"each_cons_buf#{i}")) end end # And do the iteration. this = self # Initialize the buffer. n.times do |i| buf[i] <= enum.access(i) SequencerT.current.step end # Do the first iteration. ruby_block.call(*buf) # Do the remaining iteration. idx <= n SequencerT.current.swhile(idx < enum.size) do # Shifts the buffer (in parallel) buf.each_cons(2) { |a0,a1| a0 <= a1 } # Adds the new element. buf[-1] <= enum.access(idx) idx <= idx + 1 # Executes the block. ruby_block.call(*buf) end end |
#seach_entry(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby each_entry. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 651 def seach_entry(*args,&ruby_block) raise "seach_entry is not supported yet." end |
#seach_slice(n, &ruby_block) ⇒ Object
HW implementation of the Ruby each_slice
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# File 'lib/HDLRuby/std/sequencer.rb', line 656 def seach_slice(n,&ruby_block) # No block given? Generate a new wrapper enumerator for seach_slice. if !ruby_block then return SEnumeratorWrapper.new(self,:seach_slice) end # A block is given. # Declares the indexes and the buffer for consecutive elements. enum = self.seach idx = nil buf = nil HDLRuby::High.cur_system.open do idx = [(enum.size+n).width].inner(HDLRuby.uniq_name(:"each_slice_idx")) buf = n.times.map do |i| [enum.type].inner(HDLRuby.uniq_name(:"each_slice_buf#{i}")) end end # And do the iteration. this = self # Adjust n if too large. n = enum.size if n > enum.size # Initialize the buffer. n.times do |i| buf[i] <= enum.access(i) SequencerT.current.step end # Do the first iteration. ruby_block.call(*buf) # Do the remaining iteration. idx <= n SequencerT.current.swhile(idx < enum.size) do # Gets the new element. n.times do |i| sif(idx+i < enum.size) do buf[i] <= enum.access(idx+i) end selse do buf[i] <= 0 end end idx <= idx + n # Executes the block. ruby_block.call(*buf) end end |
#seach_with_index(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby each_with_index.
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# File 'lib/HDLRuby/std/sequencer.rb', line 702 def seach_with_index(*args,&ruby_block) self.seach.with_index(*args,&ruby_block) end |
#seach_with_object(obj, &ruby_block) ⇒ Object
HW implementation of the Ruby each_with_object.
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# File 'lib/HDLRuby/std/sequencer.rb', line 707 def seach_with_object(obj,&ruby_block) self.seach.with_object(obj,&ruby_block) end |
#sfind(if_none_proc, &ruby_block) ⇒ Object
HW implementation of the Ruby find. NOTE: contrary to Ruby, if_none_proc is mandatory since there is no nil in HW. Moreover, the argument can also be a value.
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# File 'lib/HDLRuby/std/sequencer.rb', line 503 def sfind(if_none_proc, &ruby_block) # No block given? Generate a new wrapper enumerator for sfind. if !ruby_block then return SEnumeratorWrapper.new(self,:sfind,if_none_proc) end # Generate the found result signal and flag signals. found = nil flag = nil enum = self.seach HDLRuby::High.cur_system.open do found = enum.type.inner(HDLRuby.uniq_name(:"find_found")) flag = bit.inner(HDLRuby.uniq_name(:"find_flag")) end # Look for the element. flag <= 0 enum.srewind SequencerT.current.swhile((flag == 0) & (enum.snext?)) do found <= enum.snext hif(ruby_block.call(found)) do # Found, save the element and raise the flag. flag <= 1 end end HDLRuby::High.top_user.hif(~flag) do # Not found, execute the none block. if if_none_proc.respond_to?(:call) then found <= f_none_proc.call else found <= if_none_proc end end found end |
#sfind_index(obj = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby find_index.
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# File 'lib/HDLRuby/std/sequencer.rb', line 761 def sfind_index(obj = nil, &ruby_block) # No block given nor obj? Generate a new wrapper enumerator for # sfind. if !ruby_block && !obj then return SEnumeratorWrapper.new(self,:sfind,if_none_proc) end # Generate the index result signal and flag signals. idx = nil flag = nil enum = self.seach HDLRuby::High.cur_system.open do idx = signed[enum.size.width+1].inner(HDLRuby.uniq_name(:"find_idx")) flag = bit.inner(HDLRuby.uniq_name(:"find_flag")) end # Look for the element. flag <= 0 idx <= 0 enum.srewind SequencerT.current.swhile((flag == 0) & (enum.snext?)) do if (obj) then # There is obj case. HDLRuby::High.top_user.hif(enum.snext == obj) do # Found, save the element and raise the flag. flag <= 1 end else # There is a block case. HDLRuby::High.top_user.hif(ruby_block.call(enum.snext)) do # Found, save the element and raise the flag. flag <= 1 end end HDLRuby::High.top_user.helse do idx <= idx + 1 end end HDLRuby::High.top_user.hif(flag ==0) { idx <= -1 } return idx end |
#sfirst(n = 1) ⇒ Object
HW implementation of the Ruby first.
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# File 'lib/HDLRuby/std/sequencer.rb', line 802 def sfirst(n=1) # Generate the vector to put the result in. # The declares the resulting vector and index. res = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[-n].inner(HDLRuby.uniq_name(:"first_vec")) end # And do the iteration. n.stimes do |i| res[i] <= enum.access(i) end # Return the resulting vector. return res end |
#sflat_map(&ruby_block) ⇒ Object
HW implementation of the Ruby flat_map. NOTE: actually due to the way HDLRuby handles vectors, should work like smap
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# File 'lib/HDLRuby/std/sequencer.rb', line 416 def sflat_map(&ruby_block) return smap(&ruby_block) end |
#sgrep(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby grep. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 820 def sgrep(*args,&ruby_block) raise "sgrep is not supported yet." end |
#sgrep_v(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby grep_v. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 826 def sgrep_v(*args,&ruby_block) raise "sgrep_v is not supported yet." end |
#sgroup_by(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby group_by. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 832 def sgroup_by(*args,&ruby_block) raise "sgroup_by is not supported yet." end |
#sinclude?(obj) ⇒ Boolean
HW implementation of the Ruby include?
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# File 'lib/HDLRuby/std/sequencer.rb', line 837 def sinclude?(obj) # Generate the result signal. res = nil enum = self.seach HDLRuby::High.cur_system.open do res = bit.inner(HDLRuby.uniq_name(:"include_res")) end # Look for the element. res <= 0 enum.srewind SequencerT.current.swhile((res == 0) & (enum.snext?)) do # There is obj case. HDLRuby::High.top_user.hif(enum.snext == obj) do # Found, save the element and raise the flag. res <= 1 end end return res end |
#sinject(*args, &ruby_block) ⇒ Object Also known as: sreduce
HW implementation of the Ruby inject.
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# File 'lib/HDLRuby/std/sequencer.rb', line 858 def sinject(*args,&ruby_block) init = nil symbol = nil # Process the arguments. if args.size > 2 then raise ArgumentError.new("wrong number of arguments (given #{args.size} expected 0..2)") elsif args.size == 2 then # Initial value and symbol given case. init, symbol = args elsif args.size == 1 && ruby_block then # Initial value and block given case. init = args[0] elsif args.size == 1 then # Symbol given case. symbol = args[0] end enum = self.seach # Define the computation type: from the initial value if any, # otherwise from the enum. typ = init ? init.to_expr.type : enum.type # Generate the result signal. res = nil HDLRuby::High.cur_system.open do res = typ.inner(HDLRuby.uniq_name(:"inject_res")) end # Start the initialization enum.srewind # Is there an initial value? if (init) then # Yes, start with it. res <= init else # No, start with the first element of the enumerator. res <= 0 SequencerT.current.sif(!enum.snext?) { res <= enum.snext } end SequencerT.current.swhile(enum.snext?) do # Do the accumulation. if (symbol) then res <= res.send(symbol,enum.snext) else res <= ruby_block.call(res,enum.snext) end end return res end |
#slazy(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby lazy. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 909 def slazy(*args,&ruby_block) raise "slazy is not supported yet." end |
#smap(&ruby_block) ⇒ Object
Returns a vector containing the execution result of the given block on each element. If no block is given, return an SEnumerator. NOTE: be carful that the resulting vector can become huge if there are many element.
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# File 'lib/HDLRuby/std/sequencer.rb', line 392 def smap(&ruby_block) # No block given? Generate a new wrapper enumerator for smap. if !ruby_block then return SEnumeratorWrapper.new(self,:smap) end # A block given? Fill the vector it with the computation result. # Generate the vector to put the result in. # The declares the resulting vector. res = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[-enum.size].inner(HDLRuby.uniq_name(:"map_vec")) end # And do the iteration. enum.with_index do |elem,idx| res[idx] <= ruby_block.call(elem) end # Return the resulting vector. return res end |
#smax(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby max.
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# File 'lib/HDLRuby/std/sequencer.rb', line 914 def smax(n = nil, &ruby_block) # Process the arguments. n = 1 unless n enum = self.seach # Declare the result signal the flag and the result array size index # used for implementing the algorithm (shift-based sorting) in # case of multiple max. res = nil flg = nil idx = nil HDLRuby::High.cur_system.open do if n == 1 then res = enum.type.inner(HDLRuby.uniq_name(:"max_res")) # No flg nor idx! else res = enum.type[-n].inner(HDLRuby.uniq_name(:"max_res")) flg = bit.inner(HDLRuby.uniq_name(:"max_flg")) idx = bit[n.width].inner(HDLRuby.uniq_name(:"max_idx")) end end enum.srewind if n == 1 then # Single max case, initialize res with the first element(s) res <= enum.type.min SequencerT.current.sif(enum.snext?) { res <= enum.snext } else # Multiple max case, initialize the resulting array size index. idx <= 0 end # Do the iteration. SequencerT.current.swhile(enum.snext?) do if n == 1 then # Single max case. elem = enum.snext if ruby_block then hif(ruby_block.call(res,elem) < 0) { res <= elem } else hif(res < elem) { res <= elem } end else # Multiple max case. SequencerT.current.sif(enum.snext?) do elem = enum.snext flg <= 1 n.times do |i| # Compute the comparison between the result element # at i and the enum element. if ruby_block then cond = ruby_block.call(res[i],elem) < 0 else cond = res[i] < elem end # If flg is 0, elem is already set as max, skip. # If the result array size index is equal to i, then # put the element whatever the comparison is since # the place is still empty. hif(flg & (cond | (idx == i))) do # A new max is found, shift res from i. ((i+1)..(n-1)).reverse_each { |j| res[j] <= res[j-1] } # An set the new max in current position. res[i] <= elem # For now skip. flg <= 0 end end # Note: when idx >= n, the resulting array is full hif(idx < n) { idx <= idx + 1 } end end end return res end |
#smax_by(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby max_by.
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# File 'lib/HDLRuby/std/sequencer.rb', line 988 def smax_by(n = nil, &ruby_block) # No block given? Generate a new wrapper enumerator for smax_by. if !ruby_block then return SEnumeratorWrapper.new(self,:smax_by,n) end # A block is given, use smax with a proc that applies ruby_block # before comparing. return smax(n) { |a,b| ruby_block.call(a) <=> ruby_block.call(b) } end |
#smin(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby min.
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# File 'lib/HDLRuby/std/sequencer.rb', line 999 def smin(n = nil, &ruby_block) # Process the arguments. n = 1 unless n enum = self.seach # Declare the result signal the flag and the result array size index # used for implementing the algorithm (shift-based sorting) in # case of multiple min. res = nil flg = nil idx = nil HDLRuby::High.cur_system.open do if n == 1 then res = enum.type.inner(HDLRuby.uniq_name(:"min_res")) # No flg nor idx! else res = enum.type[-n].inner(HDLRuby.uniq_name(:"min_res")) flg = bit.inner(HDLRuby.uniq_name(:"min_flg")) idx = bit[n.width].inner(HDLRuby.uniq_name(:"min_idx")) end end enum.srewind if n == 1 then # Single min case, initialize res with the first element(s) res <= enum.type.max SequencerT.current.sif(enum.snext?) { res <= enum.snext } else # Multiple min case, initialize the resulting array size index. idx <= 0 end # Do the iteration. SequencerT.current.swhile(enum.snext?) do if n == 1 then # Single min case. elem = enum.snext if ruby_block then hif(ruby_block.call(res,elem) > 0) { res <= elem } else hif(res > elem) { res <= elem } end else # Multiple min case. SequencerT.current.sif(enum.snext?) do elem = enum.snext flg <= 1 n.times do |i| # Compute the comparison between the result element # at i and the enum element. if ruby_block then cond = ruby_block.call(res[i],elem) > 0 else cond = res[i] > elem end # If flg is 0, elem is already set as min, skip. # If the result array size index is equal to i, then # put the element whatever the comparison is since # the place is still empty. hif(flg & (cond | (idx == i))) do # A new min is found, shift res from i. ((i+1)..(n-1)).reverse_each { |j| res[j] <= res[j-1] } # An set the new min in current position. res[i] <= elem # For now skip. flg <= 0 end end # Note: when idx >= n, the resulting array is full hif(idx < n) { idx <= idx + 1 } end end end return res end |
#smin_by(n = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby min_by.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1073 def smin_by(n = nil, &ruby_block) # No block given? Generate a new wrapper enumerator for smin_by. if !ruby_block then return SEnumeratorWrapper.new(self,:smin_by,n) end # A block is given, use smin with a proc that applies ruby_block # before comparing. return smin(n) { |a,b| ruby_block.call(a) <=> ruby_block.call(b) } end |
#sminmax(&ruby_block) ⇒ Object
HW implementation of the Ruby minmax.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1084 def sminmax(&ruby_block) # Generate the result signal. res = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[2].inner(HDLRuby.uniq_name(:"minmax_res")) end # Computes the min. res[0] <= enum.smin(&ruby_block) # Computes the max. res[1] <= enum.smax(&ruby_block) # Return the result. return res end |
#sminmax_by(&ruby_block) ⇒ Object
HW implementation of the Ruby minmax_by.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1100 def sminmax_by(&ruby_block) # Generate the result signal. res = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[2].inner(HDLRuby.uniq_name(:"minmax_res")) end # Computes the min. res[0] <= enum.smin_by(&ruby_block) # Computes the max. res[1] <= enum.smax_by(&ruby_block) # Return the result. return res end |
#snone?(arg = nil, &ruby_block) ⇒ Boolean
Tell if none of the elements respects a given criterion given either as +arg+ or as block.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1117 def snone?(arg = nil,&ruby_block) # Declare the result signal. res = nil HDLRuby::High.cur_system.open do res = bit.inner(HDLRuby.uniq_name(:"none_cond")) end # Initialize the result. res <= 1 # Performs the computation. if arg then # Compare elements to arg. self.seach do |elem| res <= res & (elem != arg) end elsif ruby_block then # Use the ruby block. self.seach do |elem| res <= res & ~ruby_block.call(elem) end else raise "Ruby nil does not have any meaning in HW." end res end |
#sone?(arg = nil, &ruby_block) ⇒ Boolean
Tell if one and only one of the elements respects a given criterion given either as +arg+ or as block.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1144 def sone?(arg = nil,&ruby_block) # Declare the result signal. res = nil HDLRuby::High.cur_system.open do res = bit.inner(HDLRuby.uniq_name(:"one_cond")) end # Initialize the result. res <= 0 # Performs the computation. if arg then # Compare elements to arg. self.seach do |elem| res <= res ^ (elem == arg) end elsif ruby_block then # Use the ruby block. self.seach do |elem| res <= res ^ ruby_block.call(elem) end else raise "Ruby nil does not have any meaning in HW." end res end |
#spartition(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby partition. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1171 def spartition(*args,&ruby_block) raise "spartition is not supported yet." end |
#sreject(&ruby_block) ⇒ Object
HW implementatiob of the Ruby reject.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1176 def sreject(&ruby_block) return sselect {|elem| ~ruby_block.call(elem) } end |
#sreverse_each(*args, &ruby_block) ⇒ Object
HW implementatiob of the Ruby reverse_each.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1181 def sreverse_each(*args,&ruby_block) # No block given? Generate a new wrapper enumerator for # sreverse_each. if !ruby_block then return SEnumeratorWrapper.new(self,:sreverse_each,*args) end # A block is given. # Declares the index. enum = self.seach idx = nil HDLRuby::High.cur_system.open do idx = bit[enum.size.width].inner(HDLRuby.uniq_name(:"reverse_idx")) end # Do the iteration. idx <= enum.size SequencerT.current.swhile(idx > 0) do idx <= idx - 1 ruby_block.call(*args,enum.access(idx)) end end |
#sselect(&ruby_block) ⇒ Object
HW implementation of the Ruby select.
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# File 'lib/HDLRuby/std/sequencer.rb', line 727 def sselect(&ruby_block) # No block given? Generate a new wrapper enumerator for sselect. if !ruby_block then return SEnumeratorWrapper.new(self,:sselect) end # A block is given. # Generate the vector to put the result in. # The declares the resulting vector and index. res = nil idx = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[-enum.size].inner(HDLRuby.uniq_name(:"select_vec")) idx = [enum.size.width].inner(HDLRuby.uniq_name(:"select_idx")) end # And do the iteration. # First select and fill from current enumerable elements. idx <= 0 enum.seach do |elem| HDLRuby::High.top_user.hif(ruby_block.call(elem) == 1) do res[idx] <= elem idx <= idx + 1 end end # Finally, end with zeros. SequencerT.current.swhile(idx < enum.size) do res[idx] <= 0 idx <= idx + 1 end # Return the resulting vector. return res end |
#sslice_after(pattern = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby slice_after. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1204 def sslice_after(pattern = nil,&ruby_block) raise "sslice_after is not supported yet." end |
#sslice_before(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby slice_before. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1210 def sslice_before(*args,&ruby_block) raise "sslice_before is not supported yet." end |
#sslice_when(*args, &ruby_block) ⇒ Object
HW implementation of the Ruby slice_when. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1216 def sslice_when(*args,&ruby_block) raise "sslice_before is not supported yet." end |
#ssort(&ruby_block) ⇒ Object
HW implementation of the Ruby sort.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1221 def ssort(&ruby_block) enum = self.seach n = enum.size # Declare the result signal the flag and the result array size index # used for implementing the algorithm (shift-based sorting). res = nil flg = nil idx = nil HDLRuby::High.cur_system.open do res = enum.type[-n].inner(HDLRuby.uniq_name(:"sort_res")) flg = bit.inner(HDLRuby.uniq_name(:"sort_flg")) idx = bit[n.width].inner(HDLRuby.uniq_name(:"sort_idx")) end # Performs the sort using a shift-based algorithm (also used in # smin). enum.srewind # Do the iteration. idx <= 0 SequencerT.current.swhile(enum.snext?) do # Multiple min case. SequencerT.current.sif(enum.snext?) do elem = enum.snext flg <= 1 n.times do |i| # Compute the comparison between the result element at i # and the enum element. if ruby_block then cond = ruby_block.call(res[i],elem) > 0 else cond = res[i] > elem end # If flg is 0, elem is already set as min, skip. # If the result array size index is equal to i, then # put the element whatever the comparison is since the # place is still empty. hif(flg & (cond | (idx == i))) do # A new min is found, shift res from i. ((i+1)..(n-1)).reverse_each { |j| res[j] <= res[j-1] } # An set the new min in current position. res[i] <= elem # For now skip. flg <= 0 end end idx <= idx + 1 end end return res end |
#ssort_by(&ruby_block) ⇒ Object
HW implementation of the Ruby sort.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1272 def ssort_by(&ruby_block) # No block given? Generate a new wrapper enumerator for smin_by. if !ruby_block then return SEnumeratorWrapper.new(self,:ssort_by,n) end # A block is given, use smin with a proc that applies ruby_block # before comparing. return ssort { |a,b| ruby_block.call(a) <=> ruby_block.call(b) } end |
#ssum(initial_value = nil, &ruby_block) ⇒ Object
HW implementation of the Ruby sum.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1283 def ssum(initial_value = nil,&ruby_block) enum = self.seach # Define the computation type: from the initial value if any, # otherwise from the enum. typ = initial_value ? initial_value.to_expr.type : enum.type # Ensures there is an initial value. initial_value = 0.to_expr.as(typ) unless initial_value # Generate the result signal. res = nil HDLRuby::High.cur_system.open do res = typ.inner(HDLRuby.uniq_name(:"sum_res")) end # Start the initialization enum.srewind # Yes, start with the initial value. res <= initial_value SequencerT.current.swhile(enum.snext?) do # Do the accumulation. if (ruby_block) then # There is a ruby block, use it to process the element first. res <= res + ruby_block.call(enum.snext) else # No ruby block, just do the su, res <= res + enum.snext end end return res end |
#stake(n) ⇒ Object
The HW implementation of the Ruby take.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1313 def stake(n) enum = self.seach # Generate the result signal. res = nil HDLRuby::High.cur_system.open do res = enum.type[-n].inner(HDLRuby.uniq_name(:"sum_res")) end # Take the n first elements. n.stimes do |i| res[i] <= enum.access(i) end return res end |
#stake_while(&ruby_block) ⇒ Object
The HW implementation of the Ruby take_while.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1328 def stake_while(&ruby_block) # No block given? Generate a new wrapper enumerator for sdrop_while. if !ruby_block then return SEnumeratorWrapper.new(self,:stake_while) end # A block is given. # Generate the vector to put the result in. # The declares the resulting vector and take flag. res = nil flg = nil enum = self.seach HDLRuby::High.cur_system.open do res = enum.type[-enum.size].inner(HDLRuby.uniq_name(:"take_vec")) flg = bit.inner(HDLRuby.uniq_name(:"take_flg")) end # And do the iteration. # First fill from current enumerable elements. flg <= 1 enum.seach.with_index do |elem,i| HDLRuby::High.top_user.hif(flg == 1) do HDLRuby::High.top_user.hif(ruby_block.call(elem) == 0) do flg <= 0 end end HDLRuby::High.top_user.hif(flg == 1) do res[i] <= elem end HDLRuby::High.top_user.helse do res[i] <= 0 end end # Return the resulting vector. return res end |
#stally(h = nil) ⇒ Object
HW implementation of the Ruby tally. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1365 def stally(h = nil) raise "stally is not supported yet." end |
#sto_a ⇒ Object
HW implementation of the Ruby to_a.
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# File 'lib/HDLRuby/std/sequencer.rb', line 712 def sto_a # Declares the resulting vector. enum = self.seach res = nil HDLRuby::High.cur_system.open do res = enum.type[-enum.size].inner(HDLRuby.uniq_name(:"to_a_res")) end # Fills it. self.seach_with_index do |elem,i| res[i] <= elem end return res end |
#sto_h(h = nil) ⇒ Object
HW implementation of the Ruby to_h. NOTE: to do, or may be not.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1371 def sto_h(h = nil) raise "sto_h is not supported yet." end |
#suniq(&ruby_block) ⇒ Object
HW implementation of the Ruby uniq.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1376 def suniq(&ruby_block) enum = self.seach n = enum.size # Declare the result signal the flag and the result array size index # used for implementing the algorithm (shift-based sorting). res = nil flg = nil idx = nil HDLRuby::High.cur_system.open do res = enum.type[-n].inner(HDLRuby.uniq_name(:"suniq_res")) flg = bit.inner(HDLRuby.uniq_name(:"suniq_flg")) idx = bit[n.width].inner(HDLRuby.uniq_name(:"suniq_idx")) end enum.srewind # Do the iteration. idx <= 0 SequencerT.current.swhile(enum.snext?) do # Multiple min case. SequencerT.current.sif(enum.snext?) do elem = enum.snext flg <= 1 n.times do |i| # Compute the comparison between the result element at i # and the enum element. hif(i < idx) do if ruby_block then flg <= (flg & (ruby_block.call(res[i]) != ruby_block.call(elem))) else flg <= (flg & (res[i] != elem)) end end # If flg is 1 the element is new, if it is the right # position, add it to the result. hif((idx == i) & flg) do # An set the new min in current position. res[i] <= elem # For next position now. idx <= idx + 1 # Stop here for current element. flg <= 0 end end end end # Fills the remaining location with 0. SequencerT.current.swhile(idx < enum.size) do res[idx] <= 0 idx <= idx + 1 end return res end |
#szip(obj, &ruby_block) ⇒ Object
HW implementation of the Ruby zip. NOTE: for now szip is deactivated untile tuples are properly handled by HDLRuby.
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# File 'lib/HDLRuby/std/sequencer.rb', line 1432 def szip(obj,&ruby_block) res = nil l0,r0,l1,r1 = nil,nil,nil,nil idx = nil enum0 = self.seach enum1 = obj.seach # Compute the minimal and maximal iteration sizes of both # enumerables. size_min = [enum0.size,enum1.size].min size_max = [enum0.size,enum1.size].max HDLRuby::High.cur_system.open do # If there is no ruby_block, szip generates a resulting vector # and its access indexes. unless ruby_block then res = bit[enum0.type.width+enum1.type.width][-size_max].inner(HDLRuby.uniq_name(:"zip_res")) l0 = enum0.type.width+enum1.type.width - 1 r0 = enum1.type.width l1 = r0-1 r1 = 0 end # Generate the index. idx = [size_max.width].inner(HDLRuby.uniq_name(:"zip_idx")) end # Do the iteration. enum0.srewind enum1.srewind # As long as there is enough elements. idx <= 0 SequencerT.current.swhile(idx < size_min) do # Generate the access to the elements. elem0 = enum0.snext elem1 = enum1.snext if ruby_block then # A ruby block is given, applies it directly on the elements. ruby_block.call(elem0,elem1) else # No ruby block, put the access results into res. # res[idx][l0..r0] <= elem0 # res[idx][l1..r1] <= elem1 res[idx] <= [elem0,elem1] end idx <= idx + 1 end # For the remaining iteration use zeros for the smaller enumerable. SequencerT.current.swhile(idx < size_max) do # Generate the access to the elements. elem0 = enum0.size < size_max ? 0 : enum0.snext elem1 = enum1.size < size_max ? 0 : enum1.snext if ruby_block then # A ruby block is given, applies it directly on the elements. ruby_block.call(elem0,elem1) else # No ruby block, put the access results into res. # res[idx][l0..r0] <= elem0 # res[idx][l1..r1] <= elem1 res[idx] <= [elem0,elem1] end idx <= idx + 1 end unless ruby_block then return res end end |