Problem 151-review2015_count1k
題目說(shuō)明
構(gòu)建一個(gè)從 0 到 999(含)計(jì)數(shù)的計(jì)數(shù)器,周期為 1000 個(gè)周期。復(fù)位輸入是同步的,應(yīng)該將計(jì)數(shù)器復(fù)位為 0。

模塊端口聲明
moduletop_module( inputclk, inputreset, output[9:0]q);
題目解析
moduletop_module( inputlogicclk, inputlogicreset, outputlogic[9:0]q); always_ff@(posedgeclk)begin if(reset)begin q<=?10'd0?; ????end ????else?if?(q?==?10'd999)?begin ????????q?<=?10'd0?; ????end ????else?begin ????????q?<=?q?+?10'd1?; ????end ???? end endmodule

點(diǎn)擊Submit,等待一會(huì)就能看到下圖結(jié)果:

注意圖中的Ref是參考波形,Yours是你的代碼生成的波形,網(wǎng)站會(huì)對(duì)比這兩個(gè)波形,一旦這兩者不匹配,仿真結(jié)果會(huì)變紅。
這一題就結(jié)束了。
Problem 152-review2015_shiftcount
題目說(shuō)明
接下來(lái)的五道題目,每題構(gòu)建一個(gè)小型的電路,最終組裝成為一個(gè)復(fù)雜的計(jì)數(shù)器電路。
本題設(shè)計(jì)一個(gè) 4bit 位寬的移位寄存器,并具有計(jì)數(shù)器功能,可向下計(jì)數(shù)(即計(jì)數(shù)值遞減)。
當(dāng)移位使能 shift_ena 信號(hào)有效時(shí),數(shù)據(jù) data 移入移位寄存器,向高位移動(dòng)(most-significant-bit),即左移。
當(dāng)計(jì)數(shù)使能 count_ena 信號(hào)有效時(shí),寄存器中現(xiàn)有的數(shù)值遞減,向下計(jì)數(shù)。
由于系統(tǒng)不會(huì)同時(shí)使用移位以及計(jì)數(shù)功能,因此不需要考慮兩者使能信號(hào)皆有效的情況。

模塊端口聲明
moduletop_module( inputclk, inputshift_ena, inputcount_ena, inputdata, output[3:0]q);
題目解析
moduletop_module(
inputlogicclk,
inputlogicshift_ena,
inputlogiccount_ena,
inputlogicdata,
outputlogic[3:0]q);
always_ff@(posedgeclk)begin
case(1'b1)
shift_ena:begin
q<=?{q[2:0]?,?data}?;?
????????end?
????????count_ena:?begin
????????????q?<=?q?-?4'd1?;
????????end
????????default:?begin
????????????q?<=?q?;
????????end?
????endcase
end
endmodule

點(diǎn)擊Submit,等待一會(huì)就能看到下圖結(jié)果:

注意圖中的Ref是參考波形,Yours是你的代碼生成的波形,網(wǎng)站會(huì)對(duì)比這兩個(gè)波形,一旦這兩者不匹配,仿真結(jié)果會(huì)變紅。
這一題就結(jié)束了。
Problem 153-review2015_fsmseq
題目說(shuō)明
接下來(lái)的五道題目,每題構(gòu)建一個(gè)小型的電路,最終組裝成為一個(gè)復(fù)雜的計(jì)數(shù)器電路。
構(gòu)建一個(gè)在輸入比特流中搜索序列 1101 的有限狀態(tài)機(jī)。當(dāng)找到序列時(shí),應(yīng)該將start_shifting設(shè)置為 1,直到復(fù)位??ㄔ谧罱K狀態(tài)旨在模擬在尚未實(shí)現(xiàn)的更大 FSM 中進(jìn)入其他狀態(tài)。我們將在接下來(lái)的幾個(gè)練習(xí)中擴(kuò)展這個(gè) FSM。

模塊端口聲明
moduletop_module( inputclk, inputreset,//Synchronousreset inputdata, outputstart_shifting);
題目解析
檢查一個(gè)序列檢測(cè)狀態(tài)機(jī)是否完備,一個(gè)簡(jiǎn)單的方法是觀察所有狀態(tài),是否均包括輸入分別為 0/1 的情況下的跳轉(zhuǎn),比如 state[IDLE ] && ~data 和 state[IDLE ] && data 是否均存在于狀態(tài)跳轉(zhuǎn)條件中。
moduletop_module(
inputlogicclk,
inputlogicreset,//Synchronousreset
inputlogicdata,
outputlogicstart_shifting
);
//definestate
typedefenumlogic[2:0]{idle=3'd1,S0=3'd2,
S1=3'd3,S2=3'd4,S3=3'd5
}state_def;
state_defcur_state,next_state;
//describestatetransitionusecombinationallogic
always_combbegin
case(cur_state)
idle:begin
next_state=data?S0:idle;
end
S0:begin
next_state=data?S1:idle;
end
S1:begin
next_state=data?S1:S2;
end
S2:begin
next_state=data?S3:idle;
end
S3:begin
next_state=S3;
end
default:begin
next_state=idle;
end
endcase
end
//describestatesequencerusesequentiallogic
always_ff@(posedgeclk)begin
if(reset)begin
cur_state<=?idle?;
????end
????else?begin
????????cur_state?<=?next_state?;
????end????
end
//describe?output?decoder?use?combinational?logic
assign?start_shifting?=?(cur_state?==?S3)?;
endmodule

點(diǎn)擊Submit,等待一會(huì)就能看到下圖結(jié)果:

注意圖中的Ref是參考波形,Yours是你的代碼生成的波形,網(wǎng)站會(huì)對(duì)比這兩個(gè)波形,一旦這兩者不匹配,仿真結(jié)果會(huì)變紅。
這一題就結(jié)束了。
Problem 154-review2015_fsmshift
題目說(shuō)明
接下來(lái)的五道題目,每題構(gòu)建一個(gè)小型的電路,最終組裝成為一個(gè)復(fù)雜的計(jì)數(shù)器電路。
作為用于控制移位寄存器的 FSM 的一部分,我們希望能夠在檢測(cè)到正確的位模式時(shí)啟用移位寄存器正好 4 個(gè)時(shí)鐘周期。我們?cè)贓xams/review2015_fsmseq中處理序列檢測(cè),因此 FSM 的這一部分僅處理啟用移位寄存器 4 個(gè)周期。
每當(dāng) FSM 復(fù)位時(shí),將shift_ena斷言4 個(gè)周期,然后永遠(yuǎn)為 0(直到復(fù)位)。
圖片來(lái)自HDLBits
模塊端口聲明
moduletop_module( inputclk, inputreset,//Synchronousreset outputshift_ena);
題目解析
題目要求 reset 信號(hào)移除后,立即 輸出使能信號(hào),因此需要組合邏輯輸出。
moduletop_module(
inputlogicclk,
inputlogicreset,//Synchronousreset
outputlogicshift_ena);
//definestate
typedefenumlogic{S0=1'd0,S1=1'd1}state_def;
state_defcur_state,next_state;
//describestatesequencerusesequentiallogic
always_ff@(posedgeclk)begin
if(reset)begin
cur_state<=?S0?;
????end
????else?begin
????????cur_state?<=?next_state?;
????end
end
//describe?state?transition?use?combinational?logic
always_comb?begin?
????case?(cur_state)
????????S0:?begin
????????????next_state?=?reset???S0?:?S1?;
????????end
????????S1:?begin
????????????next_state?=?reset???S0?:?S1?;
????????end
????????default:?begin
????????????next_state?=?cur_state?;
????????end
????endcase
end
//define?counter?use?sequential?logic
var?logic?[6:0]?counter?;
always_ff?@(?posedge?clk?)?begin?
????if?(reset)?begin
????????counter?<=?7'd0?;
????end
????else?if?(next_state?==?S1)?begin
????????counter?<=?counter?+?7'd1?;
????end
????else?begin
????????counter?<=?counter?;
????end
end
//describe?output?decoder?use?sequential?logic
assign?shift_ena?=?(cur_state?==?S0)?||?(cur_state?==?S1?&&?counter?7'd4)?;
endmodule

點(diǎn)擊Submit,等待一會(huì)就能看到下圖結(jié)果:

注意圖中無(wú)波形。
這一題就結(jié)束了。
Problem 155-review2015_fsm
題目說(shuō)明
本題實(shí)現(xiàn)復(fù)雜計(jì)數(shù)器的第四個(gè)組件。
在此題之前,我們已經(jīng)分別實(shí)現(xiàn)了 FSM:Enable shift register 以及 FSM:1101 序列檢測(cè)器。接下來(lái)我們繼續(xù)前進(jìn),實(shí)現(xiàn)這個(gè)復(fù)雜計(jì)數(shù)器的完整 FSM。
復(fù)雜計(jì)數(shù)器需要如下這些功能特性:
在數(shù)據(jù)流中檢測(cè)到特定序列后啟動(dòng)計(jì)數(shù)器,該序列為: 1101將 4bits 數(shù)據(jù)輸入移位寄存器,作為計(jì)數(shù)器的初值等待計(jì)數(shù)器結(jié)束計(jì)數(shù)告知上層應(yīng)用計(jì)數(shù)完成,并等待用戶通過(guò) ack 信號(hào)確認(rèn)在本題練習(xí)中,只需要實(shí)現(xiàn)控制狀態(tài)機(jī),不需要實(shí)現(xiàn)數(shù)據(jù)通路,比如計(jì)數(shù)器本身以及數(shù)據(jù)比較器等。
數(shù)據(jù)流從模塊的 data 信號(hào)輸入,當(dāng)檢測(cè)到 1101 序列后,狀態(tài)機(jī)需要置高輸出信號(hào) shft_ena 并保持 4 個(gè)周期(用于將接下來(lái) 4bit 數(shù)據(jù)輸入移位寄存器)。
之后,狀態(tài)機(jī)置高 counting 信號(hào),表示其正在等待計(jì)數(shù)器完成計(jì)數(shù),當(dāng)計(jì)數(shù)器完成計(jì)數(shù)輸出 done_counting 信號(hào)后,counting 信號(hào)置低。
再此后,狀態(tài)機(jī)置高 done 信號(hào)通知上層應(yīng)用計(jì)數(shù)器計(jì)數(shù)完成,等待 ack 信號(hào)置高后,狀態(tài)機(jī)清除 done 信號(hào),返回空閑狀態(tài)等待捕獲下一個(gè) 1101 序列。
本題給出了一個(gè)期望輸入輸出的例子。圖中的斜線代表當(dāng)前信號(hào)為 'X', 表示狀態(tài)機(jī)不關(guān)心該信號(hào)當(dāng)前的值。比如圖例中,一旦 FSM 檢測(cè)到 1101 序列后,在此次計(jì)數(shù)器事件完成前,對(duì)于當(dāng)前的數(shù)據(jù)流不再關(guān)心。

模塊端口聲明
moduletop_module( inputclk, inputreset,//Synchronousreset inputdata, outputshift_ena, outputcounting, inputdone_counting, outputdone, inputack);
題目解析
狀態(tài)轉(zhuǎn)移圖

moduletop_module( inputlogicclk, inputlogicreset,//Synchronousreset inputlogicdata, outputlogicshift_ena, outputlogiccounting, inputlogicdone_counting, outputlogicdone, inputlogicack ); //definestate typedefenumlogic[2:0]{idle=3'd1,S0=3'd2,S1=3'd3, S2=3'd4,shif=3'd5,count=3'd6, waite=3'd7 }state_def; state_defcur_state,next_state; //describestatetransitionusecombinationallogic always_combbegin case(cur_state) idle:begin next_state=data?S0:idle; end S0:begin next_state=data?S1:idle; end S1:begin next_state=data?S1:S2; end S2:begin next_state=data?shif:idle; end shif:begin next_state=counter7'd4???shif?:?count?; ????????end ????????count:?begin ????????????next_state?=?done_counting???waite?:?count?; ????????end ????????waite:?begin ????????????next_state?=?ack???idle?:?waite?; ????????end ????????default:?begin ????????????next_state?=?idle?; ????????end ????endcase end //define?counter?use?sequential?logic var?logic?[6:0]?counter?; always_ff?@(?posedge?clk?)?begin? ????if?(reset?||?next_state?!=?shif)?begin ????????counter?<=?7'd0?; ????end ????else?if?(next_state?==?shif)?begin ????????counter?<=?counter?+?7'd1?; ????end ????else?begin ????????counter?<=?counter?; ????end end //describe?state?sequencer?use?sequential?logic always_ff?@(?posedge?clk?)?begin? ????if?(reset)?begin ????????cur_state?<=?idle?; ????end ????else?begin ????????cur_state?<=?next_state?; ????end???? end //describe?output?decoder?use?combinational?logic assign?shift_ena?=?(cur_state?==?shif)?; assign?counting??=?(cur_state?==?count)?; assign?done?=?(cur_state?==?waite)?; endmodule

點(diǎn)擊Submit,等待一會(huì)就能看到下圖結(jié)果:

注意圖中無(wú)參考波形。
這一題就結(jié)束了。
Problem 156-review2015_fancytimer
題目說(shuō)明
終于到了完整構(gòu)建復(fù)雜計(jì)數(shù)器的時(shí)候,整體功能已經(jīng)在上題中討論,這里不再贅述。
在數(shù)據(jù)流中檢測(cè)到序列 1101 后,電路需要將接下來(lái)的 4bit 數(shù)據(jù)移入移位寄存器。4bit 數(shù)據(jù)決定了計(jì)數(shù)器的計(jì)數(shù)周期,稱(chēng)為 delay[3:0]。首先到達(dá)的比特作為數(shù)據(jù)的高位。
之后,狀態(tài)機(jī)置高 counting 信號(hào),表示其正在等待計(jì)數(shù)器完成計(jì)數(shù)。在 FSM 中增加計(jì)數(shù)器狀態(tài),計(jì)數(shù)周期為 (delay[3:0] + 1 )* 1000 個(gè)時(shí)鐘周期。比如 delay = 0 時(shí),計(jì)數(shù)值為 1000 個(gè)周期。delay = 5 代表 6000 個(gè)周期。同時(shí)輸出 count 當(dāng)前剩余的計(jì)數(shù)周期,輸出當(dāng)前剩余計(jì)數(shù)周期的千位(比如,還剩1000個(gè)周期輸出 1,還剩 999 個(gè)周期時(shí)輸出 0)。當(dāng)計(jì)數(shù)停止后,count 的輸出可以為任意數(shù)。
當(dāng)計(jì)數(shù)完成后,電路置高 done 信號(hào)通知上層應(yīng)用計(jì)數(shù)器計(jì)數(shù)完成,等待 ack 信號(hào)置高后,狀態(tài)機(jī)清除 done 信號(hào),返回空閑狀態(tài)等待捕獲下一個(gè) 1101 序列。
本題給出了一個(gè)期望輸入輸出的例子。圖中的斜線代表當(dāng)前信號(hào)為 'X', 表示狀態(tài)機(jī)不關(guān)心該信號(hào)當(dāng)前的值。比如圖例中,一旦 FSM 檢測(cè)到 1101 序列并讀取 delay[3:0] 后,在此次計(jì)數(shù)器事件完成前,對(duì)于當(dāng)前的數(shù)據(jù)流不再關(guān)心。
在圖例中,電路計(jì)數(shù)周期為 2000 ,因?yàn)?delay[3:0] 數(shù)值為 4'b0001 。在后續(xù)的第二個(gè)計(jì)數(shù)周期中,因?yàn)?delay[3:0] = 4‘b1110,所以計(jì)數(shù)周期為 15000。
圖片來(lái)自HDLBits
模塊端口聲明
moduletop_module( inputclk, inputreset,//Synchronousreset inputdata, output[3:0]count, outputcounting, outputdone, inputack);
題目解析
moduletop_module(
inputlogicclk,
inputlogicreset,//Synchronousreset
inputlogicdata,
outputlogic[3:0]count,
outputlogiccounting,
outputlogicdone,
inputlogicack
);
//definestate
typedefenumlogic[2:0]{idle=3'd1,S0=3'd2,S1=3'd3,
S2=3'd4,shif=3'd5,count_t=3'd6,
waite=3'd7
}state_def;
state_defcur_state,next_state;
//describestatetransitionusecombinationallogic
always_combbegin
case(cur_state)
idle:begin
next_state=data?S0:idle;
end
S0:begin
next_state=data?S1:idle;
end
S1:begin
next_state=data?S1:S2;
end
S2:begin
next_state=data?shif:idle;
end
shif:begin
next_state=counter_shif7'd4???shif?:?count_t?;
????????end
????????count_t:?begin
????????????next_state?=?(counter?==?(delay?+?1)*1000?-?1)???waite?:?count_t?;
????????end
????????waite:?begin
????????????next_state?=?ack???idle?:?waite?;
????????end
????????default:?begin
????????????next_state?=?idle?;
????????end
????endcase
end
//describe?state?sequencer?use?sequential?logic
always_ff?@(?posedge?clk?)?begin?
????if?(reset)?begin
????????cur_state?<=?idle?;
????end
????else?begin
????????cur_state?<=?next_state?;
????end????
end
//describe?output?decoder?use?combinational?logic
assign?count?=?(cur_state?==?count_t)???(delay?-?counter_delay)?:4'd0?;
assign?counting??=?(cur_state?==?count_t)?;
assign?done?=?(cur_state?==?waite)?;
//define?counter?for?shift?use?sequential?logic
var?logic?[6:0]?counter_shif?;
always_ff?@(?posedge?clk?)?begin?
????if?(reset?||?next_state?!=?shif)?begin
????????counter_shif?<=?7'd0?;
????end
????else?if?(next_state?==?shif)?begin
????????counter_shif?<=?counter_shif?+?7'd1?;
????end
????else?begin
????????counter_shif?<=?counter_shif?;
????end
end
//define?counter?for?count?use?sequential?logic
var?logic?[15:0]?counter?;
always_ff?@(?posedge?clk?)?begin?
????if?(reset?||?next_state?!=?count_t)?begin
????????counter?<=?16'd0?;
????end
????else?if?(cur_state?==?count_t)?begin
????????counter?<=?counter?+?16'd1?;
????end
????else?begin
????????counter?<=?16'd0?;
????end
end
//shift?data?into?delay?use?sequential?logic
var?logic?[3:0]?delay?;
always_ff?@(?posedge?clk?)?begin?
????if(reset)?begin
????????delay?<=?4'd0?;
????end
????else?begin
????????if?(cur_state?==?shif)?begin
????????????delay?<=?{delay[2:0]?,?data}?;
????????end
????end
end
//calculate?couter_delay?use?combinational?logic
var?logic?[3:0]?counter_delay?;
always@(*)begin
????if(counter?<=?999)begin
????????counter_delay?=?4'd0;
????end
????else?if(counter?>=1000&&counter<=?1999)begin
????????counter_delay?=?4'd1;
????end
????else?if(counter?>=2000&&counter<=?2999)begin
????????counter_delay?=?4'd2;
????end
????else?if(counter?>=3000&&counter<=?3999)begin
????????counter_delay?=?4'd3;
????end
????else?if(counter?>=4000&&counter<=?4999)begin
????????counter_delay?=?4'd4;
????end
????else?if(counter?>=5000&&counter<=?5999)begin
????????counter_delay?=?4'd5;
????end
????else?if(counter?>=6000&&counter<=?6999)begin
????????counter_delay?=?4'd6;
????end
????else?if(counter?>=7000&&counter<=?7999)begin
????????counter_delay?=?4'd7;
????end
????else?if(counter?>=8000&&counter<=?8999)begin
????????counter_delay?=?4'd8;
????end
????else?if(counter?>=9000&&counter<=?9999)begin
????????counter_delay?=?4'd9;
????end
????else?if(counter?>=10000&&counter<=?10999)begin
????????counter_delay?=?4'd10;
????end
????else?if(counter?>=11000&&counter<=?11999)begin
????????counter_delay?=?4'd11;
????end
????else?if(counter?>=12000&&counter<=?12999)begin
????????counter_delay?=?4'd12;
????end
????else?if(counter?>=13000&&counter<=?13999)begin
????????counter_delay?=?4'd13;
????end
????else?if(counter?>=14000&&counter<=?14999)begin
????????counter_delay?=?4'd14;
????end
????else?begin
????????counter_delay?=?4'd15;
????end
end?????
endmodule

點(diǎn)擊Submit,等待一會(huì)就能看到下圖結(jié)果:

注意圖中無(wú)波形。
這一題就結(jié)束了。
Problem 157-review2015_fsmonehot
題目說(shuō)明
給定以下具有 3 個(gè)輸入、3 個(gè)輸出和 10 個(gè)狀態(tài)的狀態(tài)機(jī):
圖片來(lái)自HDLBits
假定使用以下one-hot編碼, 通過(guò)檢查推導(dǎo)出下一狀態(tài)邏輯方程和輸出邏輯方程: (S, S1, S11, S110, B0, B1, B2, B3, Count, Wait) = (10'b0000000001, 10 'b0000000010, 10'b0000000100, ..., 10'b1000000000)
假設(shè)采用one-hot編碼,通過(guò)檢查推導(dǎo)狀態(tài)轉(zhuǎn)換和輸出邏輯方程。僅為該狀態(tài)機(jī)實(shí)現(xiàn)狀態(tài)轉(zhuǎn)換邏輯和輸出邏輯(組合邏輯部分)。(測(cè)試臺(tái)將使用非熱輸入進(jìn)行測(cè)試,以確保不會(huì)嘗試做更復(fù)雜的事情。請(qǐng)參閱fsm3onehot用于描述單熱狀態(tài)機(jī)“通過(guò)檢查”推導(dǎo)邏輯方程的含義。)
編寫(xiě)生成以下等式的代碼:
B3_next ,B2 狀態(tài)的次態(tài)(原題寫(xiě)的 B1,應(yīng)該為筆誤)
S_next
S1_next
Count_next
以及下列輸出信號(hào)
done
counting
shift_ena
模塊端口聲明
moduletop_module( inputd, inputdone_counting, inputack, input[9:0]state,//10-bitone-hotcurrentstate outputB3_next, outputS_next, outputS1_next, outputCount_next, outputWait_next, outputdone, outputcounting, outputshift_ena );
題目解析
moduletop_module( inputlogicd, inputlogicdone_counting, inputlogicack, inputlogic[9:0]state,//10-bitone-hotcurrentstate outputlogicB3_next, outputlogicS_next, outputlogicS1_next, outputlogicCount_next, outputlogicWait_next, outputlogicdone, outputlogiccounting, outputlogicshift_ena );// //Youmayusetheseparameterstoaccessstatebitsusinge.g.,state[B2]insteadofstate[6]. parameterlogic[3:0]S=4'd0,S1=4'd1,S11=4'd2,S110=4'd3, B0=4'd4,B1=4'd5,B2=4'd6,B3=4'd7, Count=4'd8,Wait=4'd9; assignB3_next=state[B2]; assignS_next=~d&state[S]|~d&state[S1]|~d&state[S110]|ack&state[Wait]; assignS1_next=d&state[S]; assignCount_next=state[B3]|~done_counting&state[Count]; assignWait_next=done_counting&state[Count]|~ack&state[Wait]; assigndone=state[Wait]; assigncounting=state[Count]; assignshift_ena=state[B0]|state[B1]|state[B2]|state[B3]; endmodule

點(diǎn)擊Submit,等待一會(huì)就能看到下圖結(jié)果:

注意圖中的Ref是參考波形,Yours是你的代碼生成的波形,網(wǎng)站會(huì)對(duì)比這兩個(gè)波形,一旦這兩者不匹配,仿真結(jié)果會(huì)變紅。
這一題就結(jié)束了。
總結(jié)
今天的幾道題就結(jié)束了,今天是大型電路的設(shè)計(jì)思路,分模塊設(shè)計(jì)。
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原文標(biāo)題:HDLBits: 在線學(xué)習(xí) SystemVerilog(二十二)-Problem 151-157(構(gòu)建大型電路)
文章出處:【微信號(hào):Open_FPGA,微信公眾號(hào):OpenFPGA】歡迎添加關(guān)注!文章轉(zhuǎn)載請(qǐng)注明出處。
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