• The supply fan power relationship

•图10中的电源风扇功率关系表明VAVR系统的马力与气流减少的立方成正比。唯一可以实现的方法是使风扇“顺着系统曲线”，这意味着没有风门移动。在建筑物的实际系统中永远不会发生这种情况。如果风扇总气流减少了40％，而一个区域仍需要其设计气流的80％，则该区域的静压要求将限制系统静压的复位。<br>将风扇定律应用于该特定区域，该终端的静压要求只能降低36％。使用表1的数据，系统气流减少40％，风扇静压减少36％，将导致风扇断马力<br>变风量再热与主动冷却梁和DOA

• 图 10 中的电源风扇功率关系表明 VAVR 系统的马力与气流减少的立方体成正比。唯一可以实现这一点的方法是风扇"骑系统曲线"，这意味着没有阻尼器永远不会移动。这在建筑物的实际系统中永远不会发生。如果风扇气流总体减少 40%，但一个区域仍需要其设计气流的 80%，则该区域的静态压力要求将限制系统静态压力重置。<br>将风扇法应用于该特定区域，该终端的静态压力要求只能降低 36%。使用表 1 数据，40% 的系统气流减少，加上风扇静态压力减少 36%，将导致风扇断马功率<br>可攻击性多特性多阿多

• The supply fan power relationships in Figure 10 suggest the VAVR system's horsepower is reduced in proportion to the cube of the airflow reduction. The only way this can be achieved is for the fan to "ride the system curve," meaning no dampers ever move. This would never happen in an actual system in a building. If the overall fan airflow reduction were 40%, yet one zone still required 80% of its design airflow, the static pressure requirement of that zone would limit the system static pressure reset. Applying the fan laws to that specific zone, the static pressure requirement for that terminal could only be reduced by 36%. Using Table 1 data, a 40% system airflow reduction combined with a 36% reduction in the fan static pressure would result in a fan break horse power变风量再热与主动冷却梁和DOA<br>