Group I shows different heat addition processes in power cycles. Likewise, Group II shows different heat removal processes. Group III lists power cycles. Match items from Groups I, II and III. Group I Group II Group III P. Pressure constant S. Pressure constant 1. Rankine cycle Q. Volume constant T. Volume constant 2. Otto cycle R. Temperature constant U. Temperature constant 3. Carnot cycle     4. Diesel cycle     5. Brayton cycle

Group I shows different heat addition processes in power cycles. Likewise, Group II shows different heat removal processes. Group III lists power cycles. Match items from Groups I, II and III. Group I Group II Group III P. Pressure constant S. Pressure constant 1. Rankine cycle Q. Volume constant T. Volume constant 2. Otto cycle R. Temperature constant U. Temperature constant 3. Carnot cycle     4. Diesel cycle     5. Brayton cycle Correct Answer P – S – 5, R – U – 3, P – S – 1, Q – T - 2

Rankine Cycle              ⇒ Constant pressure heat addition.

                                    ⇒ Constant pressure heat rejection.

Otto  Cycle                   ⇒ Constant volume heat addition.

                                    ⇒ Constant volume heat rejection.

Carnot Cycle                ⇒ Constant temperature heat addition.

                                    ⇒ Constant temperature heat rejection.

Diesel Cycle                 ⇒ Constant pressure heat addition.

                                    ⇒ Constant volume heat rejection.

Brayton Cycle              ⇒ Constant pressure heat addition.

                                    ⇒ Constant pressure heat rejection.

Related Questions

Otto cycle efficiency is higher than Diesel cycle efficiency for the same compression ratio and heat input because in Otto cycle
Otto cycle efficiency is higher than Diesel cycle efficiency for the same compression ratio and heat input because in Otto cycle ____________
For the same heat input & compression ratio, efficiency of Otto cycle is higher than that of diesel cycle, because in Otto cycle.