e-Amp Front End model
- Ovation e-Amp Modules
- Ovation e-Amp Assembly and Testing
- Ovation e-Amp Sound Tests
- Ovation e-Amp and Ovation 250
- Ovation e-Amp Next to B&W 703 Speaker
- e-Amp on the Left and Ovation 250 on the Right
- Fig 2 – Degenerated Bipolar LTP Pair Linearity
- Fig 4 – Current Source Positive Supply Rejection
- Fig 4 – LTP Current Source Options
- Fig 6 – Current Source -ve Rail Rejection Performance
- Fig 7 – Beta Enhanced VAS (or more correctly TIS)
- Fig 7 – Cascoded VAS Stage
- Fig 6 – Beta Enhanced VAS (or more correctly TIS)
- Fig 8 – Hawksford VAS
- Fig 9 – Sticky Rail
- Fig 9 – Sticky Rail Syndrome (left without Baker clamps, right with clamps)
- Fig 9 – Sticky Rail – LHS without Baker clamps – RHS with Clamps
- Fig 10 – e-Amp Ripple Eater
- Fig 10 – e-Amp Ripple Eater
- Fig 2 – Bipolar LTP Stage Linerarity After Degeneration
- Fig 1 – LTP Model
- Fig 2 – Bipolar LTP Linearity with Degeneration
- Fig 3 – e-Amp Input Stage Overload Capability
- Fig 10 – SOA of Output Devices
- Fig 10 – SOA of Output Devices
- Fig 10 – SOA of Output Devices
- Fig 11 – Conventionl Single Slope Vbe compensation
- Fig 12 – Two Slope Thermal compensation
- Fig 13 – e-Amp Vbe Thermal Sensor
- Fig 13 – e-Amp Loop Gain and Phase – Standard Millier Compensation
- Fig 14 – e-Amp Transitional Miller Compensation (TMC) Loop Gain and Phase
- Fig 15 – e-Amp Wide Band Hybrid Compensation
- Fig 16 – e-Amp Protection Circuit Diagram
- Fig 1 – Ovation e-Amp Circuit Diagram
- Ovation e-Amp Specifications
- Fig 18 – e-Amp Protection Board
- The Ovation e-Amp
