请生成完整的hdl文件

生成完整的HDL（Hardware Description Language）文件需要详细了解每个任务的具体实现步骤和逻辑设计。以下是一个示例性的 `CW.hdl` 文件，涵盖了文档中提到的主要功能模块。请注意，这只是一个基本框架，实际实现可能需要更详细的逻辑设计和测试。

### CW.hdl

// CW.hdl - Main HDL file for the Custom Library System

CHIP CW {
    IN 
        // Inputs
        inBookID[16], inBookNum[16], inBookPri[16],
        load, store, address[3],
        load0, load1, load2, load3,
        load4, load5, load6, load7;

    OUT 
        // Outputs
        outBookID[16], outBookNum[16], outBookPri[16], outTotalVal[16];

    PARTS:
        // Load Data to Registers
        Register(in=inBookID, load=load, out=outBookID);
        Register(in=inBookNum, load=load, out=outBookNum);
        Register(in=inBookPri, load=load, out=outBookPri);

        // Store Data to RAM
        RAM8(in={outBookID, outBookNum, outBookPri}, load=store, address=address, out=ramOut);

        // Calculate inBookNum * inBookPri
        Multiplier(a=outBookNum, b=outBookPri, out=product);

        // Store product to RAM
        RAM8(in=product, load=store, address=address, out=productRAMOut);

        // Sequential Load from RAM
        Mux16(a=ramOut, b=productRAMOut, sel=store, out=combinedRAMOut);

        // Load data from RAM to registers
        Register(in=combinedRAMOut[16..32], load=load0, out=outBookNumLoaded);
        Register(in=combinedRAMOut[32..48], load=load0, out=outBookPriLoaded);
        Register(in=combinedRAMOut[48..64], load=load0, out=outTotalValLoaded);

        // Sum of inBookNum * inBookPri
        Adder16(a=outTotalValLoaded, b=product, out=sum);
        Register(in=sum, load=load0, out=outTotalVal);

        // Output
        Mux16(a=outBookID, b=combinedRAMOut[0..16], sel=load0, out=outBookID);
        Mux16(a=outBookNum, b=outBookNumLoaded, sel=load0, out=outBookNum);
        Mux16(a=outBookPri, b=outBookPriLoaded, sel=load0, out=outBookPri);
}

// Helper components
CHIP Register {
    IN in[16], load;
    OUT out[16];
    PARTS:
        DFF(in=in[i], load=load, out=out[i]) (i=0..15);
}

CHIP RAM8 {
    IN in[64], load, address[3];
    OUT out[64];
    PARTS:
        DMux8Way(in=in, sel=address, a=a, b=b, c=c, d=d, e=e, f=f, g=g, h=h);
        Register(in=a, load=(load & !address[0] & !address[1] & !address[2]), out=outA);
        Register(in=b, load=(load & !address[0] & !address[1] & address[2]), out=outB);
        Register(in=c, load=(load & !address[0] & address[1] & !address[2]), out=outC);
        Register(in=d, load=(load & !address[0] & address[1] & address[2]), out=outD);
        Register(in=e, load=(load & address[0] & !address[1] & !address[2]), out=outE);
        Register(in=f, load=(load & address[0] & !address[1] & address[2]), out=outF);
        Register(in=g, load=(load & address[0] & address[1] & !address[2]), out=outG);
        Register(in=h, load=(load & address[0] & address[1] & address[2]), out=outH);
        Mux8Way16(a=outA, b=outB, c=outC, d=outD, e=outE, f=outF, g=outG, h=outH, sel=address, out=out);
}

CHIP Multiplier {
    IN a[16], b[16];
    OUT out[32];
    PARTS:
        And(a=a[i], b=b[j], out=partialProduct[i][j]) (i=0..15, j=0..15);
        FullAdder(a=partialProduct[i][j], b=carryIn, cin=0, sum=out[k], carry=carryIn) (i=0..15, j=0..15, k=i+j);
}

CHIP Adder16 {
    IN a[16], b[16];
    OUT out[16];
    PARTS:
        HalfAdder(a=a[0], b=b[0], sum=out[0], carry=carry0);
        FullAdder(a=a[i], b=b[i], cin=carry[i-1], sum=out[i], carry=carry[i]) (i=1..15);
}

### 说明
1. **Register**: 基本寄存器组件，用于存储数据。
2. **RAM8**: 8位RAM，用于存储书本信息。
3. **Multiplier**: 乘法器，用于计算 `inBookNum * inBookPri`。
4. **Adder16**: 16位加法器，用于计算总值。
5. **Mux16** 和 **DMux8Way**: 多路选择器和多路分配器，用于控制数据流。

### 注意事项
- 这个示例假设了一些基本的HDL组件（如 `DFF`, `HalfAdder`, `FullAdder`），这些组件需要在项目中定义或引用。
- 实际实现时，需要对每个部分进行详细测试，确保逻辑正确无误。
- 文档中的具体要求和评分标准也需要仔细遵守，特别是关于注释和代码规范的部分。

希望这个示例对你有所帮助！如果有任何疑问或需要进一步的帮助，请随时告诉我。