All Stories

  1. CFOA‐based simple mixed‐mode first‐order universal filter configurations
  2. Sinusoidal oscillator Synthesis using Third Generation Current Conveyors
  3. Sinusoidal Oscillator Realizations Using Modern Electronic Circuit Building Blocks
  4. Sinusoidal Oscillators and Waveform Generators using Modern Electronic Circuit Building Blocks
  5. Basic Sinusoidal Oscillators and Waveform Generators Using IC Building Blocks
  6. Switched-Capacitor, Switched-Current, and MOSFET-C Sinusoidal Oscillators
  7. Non-sinusoidal Waveform Generators and Multivibrators Using OTAs
  8. Single-Element-Controlled and Other Varieties of Op-Amp Sinusoidal Oscillators
  9. Generation of Equivalent Oscillators Using Various Network Transformations
  10. Various Performance Measures, Figures of Merit, and Amplitude Stabilization/Control of Oscillators
  11. Waveform Generators Using Current Conveyors and CFOAs
  12. Current-Controlled Sinusoidal Oscillators Using Current-Controllable Building Blocks
  13. Sinusoidal Oscillators Using Current Conveyors
  14. Electronically Controllable OTA-C and Gm-C Sinusoidal Oscillators
  15. Current Directions of Research and Concluding Remarks
  16. Realization of Sinusoidal Oscillators Using Current Feedback Op-Amps
  17. Nonsinusoidal Waveform Generators/Relaxation Oscillators Using Other Building Blocks
  18. Bipolar and CMOS Translinear, Log-Domain, and Square-Root Domain Sinusoidal Oscillators
  19. Simple Simulated Inductor, Low-Pass/Band-Pass Filter and Sinusoidal Oscillator Using OTRA
  20. Canonic Realizations of Voltage-Controlled Floating Inductors Using CFOAs and Analog Multipliers
  21. From Editor-in-Chief's Desk
  22. New canonic lossy inductor using a single CDBA and its application
  23. From the Editor-in-Chief's Desk
  24. Current Conveyors
  25. New Squaring and Square-rooting Circuits Using Cdba
  26. Varieties of Current Conveyors
  27. CMOS Implementations of Current Conveyors
  28. Nonlinear Applications of CCs
  29. Realization of Sinusoidal Oscillators Using CCs
  30. Second Generation Controlled Current Conveyors (CCCII) and Their Applications
  31. Second Generation Applications of Other Types of Current Conveyors in Realizing Synthetic Impedances
  32. First, Second and Higher Order Filter Design Using Current Conveyors
  33. The Evolution and the History of Current Conveyors
  34. Sinusoidal Oscillator Realizations Using Other Types of Current Conveyors
  35. Hardware Implementations of CCs Using Off-the-Shelf ICs
  36. Integratable Bipolar CC Architectures and Commercially Available IC CCs
  37. Other Building Blocks Having MTC or CC at Front-end and Their Applications
  38. Recent Advances and Future Directions of Research
  39. Analog Filter Design Revisited: Circuit Configurations Using Newer Varieties of CCs
  40. Second Generation Miscellaneous Linear/Nonlinear Applications of Various Types of Current Conveyors
  41. Basic Analog Circuit Building Blocks Using CCs and Application of CCs in Impedance Synthesis
  42. From the Editor-in-Chief's Desk
  43. New Multiplier/Divider Using a Single Cdba
  44. From the Editor-in-Chief's Desk
  45. Generation of equivalent OTA-C Oscillators
  46. Simulation of a Floating Inductance: A New Two-CFOA-Based Configuration
  47. From the Editor-in-Chief’s Desk
  48. Realization of SRCOs: another new application of DDAs
  49. A new universal biquad filter using differential difference amplifiers and its practical realization
  50. Current Feedback Operational Amplifiers and Their Applications
  51. Synthesis of Sinusoidal Oscillators Using CFOAs
  52. Introduction
  53. Realization of Other Building Blocks Using CFOAs
  54. Miscellaneous Linear and Nonlinear Applications of CFOAs
  55. Design of Filters Using CFOAs
  56. From the Editor-in-Chief’s Desk
  57. New Voltage Mode Universal Filters Using Only Two CDBAs
  58. New OTRA-Based Generalized Impedance Simulator
  59. CFOAs: Merits, Demerits, Basic Circuits and Available Varieties
  60. Simulation of Inductors and Other Types of Impedances Using CFOAs
  61. Advances in the Design of Bipolar/CMOS CFOAs and Future Directions of Research on CFOAs
  62. Synthesis of Electronically-Controllable Signal Processing/Signal Generation Circuits Using Modern Active Building Blocks
  63. Synthesis of Analog Circuits Using Only Voltage and Current Followers as Active Elements
  64. ON THE TRANSFORMATION OF GROUNDED INDUCTORS TO FLOATING INDUCTORS USING OFA AND FCCII
  65. From the Editor-in-Chief’s Desk
  66. New lossy/loss-less synthetic floating inductance configuration realized with only two CFOAs
  67. New CFOA-based sinusoidal oscillators retaining independent control of oscillation frequency even under the influence of parasitic impedances
  68. Nullors, Their Bipolar and CMOS Implementations and Applications in Analog Circuit Synthesis and Design
  69. Current-Feedback Op-Amps, Their Applications, Bipolar/CMOS Implementations and Their Variants
  70. Configuration for realising a current-mode universal filter and dual-mode quadrature single resistor controlled oscillator
  71. Synthesis of New Single CFOA-Based VCOs Incorporating the Voltage Summing Property of Analog Multipliers
  72. OTRA-based Grounded-FDNR and Grounded-Inductance Simulators and Their Applications
  73. New analogue inverse filters realised with current feedback op-amps
  74. SYNTHESIS OF LINEAR VCOs: THE STATE-VARIABLE APPROACH
  75. A NEW ELECTRONICALLY-TUNABLE ACTIVE-ONLY UNIVERSAL BIQUAD
  76. Electronically-Controlled Current-mode second order Sinusoidal Oscillators Using MO-OTAs and Grounded Capacitors
  77. A State Variable Method for the Realization of Universal Current-Mode Biquads
  78. Systematic realisation of quadrature oscillators using current differencing buffered amplifiers
  79. Linear sinusoidal VCOs: new configurations using current-feedback-op-amps
  80. Two Simple Analog Multiplier Based Linear VCOs Using a Single Current Feedback Op-Amp
  81. New grounded simulated inductance circuit using a single PFTFN
  82. A configuration for realizing floating, linear, voltage-controlled resistance, inductance and FDNC elements
  83. Inverse active filters employing CFOAs
  84. New voltage controlled oscillators using CFOAs
  85. ELECTRONICALLY-CONTROLLABLE FLOATING INDUCTOR USING OPERATIONAL MIRRORED AMPLIFIER
  86. Comment: Practical voltage/current-controlled grounded resistor with dynamic range extension
  87. CFOA based oscillators generating sinusoidal current signals
  88. New CFOA-Based Single-Element-Controlled Sinusoidal Oscillators
  89. Improved grounded-capacitor SRCO using only a single PFTFN
  90. New Universal Biquads Employing CFOAs
  91. New voltage-model/current-mode universal biquad filter using unity-gain cells
  92. A systematic realization of current mode universal biquad filters
  93. New universal filter using only current followers as active elements
  94. New Dual-mode Biquads Using OTAs
  95. New Single-Resistance-Controlled Oscillator Configurations Using Unity-Gain Cells
  96. Two new canonic single-CFOA oscillators with single resistor controls
  97. New FTFN-based grounded-capacitor SRCO with explicit current-mode output and reduced number of resistors
  98. DUAL FUNCTION CAPABILITY OF RECENTLY PROPOSED FOUR-CURRENT-CONVEYOR-BASED VM BIQUAD
  99. Novel mixed-mode universal biquad configuration
  100. CFOA-based state-variable biquad and its high-frequency compensation
  101. Explicit-current-output sinusoidal oscillators employing only a single current-feedback op-amp
  102. Grounded-capacitor SRCOs using a single differential difference complementary current feedback amplifier
  103. Tunable Current-Mode Universal 220 Frequenz 59 (2005) 9-10 Biquads employing only three MOCCs and all grounded passive elements: Additional New Realizations
  104. New OTA-C universal current-mode/trans-admittance biquads
  105. On the Realization of Universal Current Mode Biquads Using a Single CFOA
  106. A New Floating Current-Controlled Positive Resistance Using Mixed Translinear Cells
  107. Universal current mode biquad using a single CFOA
  108. New single resistance controlled oscillators employing a reduced number of unity-gain cells
  109. Novel sinusoidal oscillators using only unity-gain voltage followers and current followers
  110. Novel electronically controllable current-mode universal biquad filter
  111. New Tunable SIMO-Type Current Mode Universal Biquad Using only three MOCCs and all Grounded Passive Elements
  112. Realisation of Current-Mode SRCOs using All Grounded Passive Elements
  113. Multifunction CM/VM Biquads Realized with a Single CFOA and Grounded Capacitors
  114. A NEW FOUR-CC-BASED CONFIGURATION FOR REALIZING A VOLTAGE-MODE BIQUAD FILTER
  115. A New Universal Current-mode Biquad Filter
  116. Active-R design using CFOA-poles: new resonators, filters, and oscillators
  117. Comment: CMOS differential difference current conveyors and their applications
  118. Novel SRCOs using first generation current conveyor
  119. Grounded-capacitor current-mode SRCO: Novel application of DVCCC
  120. Low-Component-Count, High Frequency Resonators and their Applications, using Op-Amp Compensation Poles
  121. Realization of a Class of Analog Signal Processing / Signal Generation Circuits: Novel Configurations Using Current Feedback Op-Amps
  122. Implementation of Chua's chaotic circuit using current feedback op-amps
  123. Low-component-count active-only imittances and their application in realising simple multifunction biquads
  124. State variable synthesis of single-resistance-controlled grounded capacitor oscillators using only two CFOAs: additional new realisations
  125. State variable synthesis of single resistance controlled grounded capacitor oscillators using only two CFOAs
  126. Universal Voltage-Mode/Current-Mode Biquad Filter Realised with Current Feedback Op-Amps
  127. New macromodels of a switch for SPICE applications
  128. Synthesis of single-resistance-controlled oscillators using CFOAs: simple state-variable approach
  129. A Simple Approach of Deriving Single-Input-Multiple-Output Current- Mode Biquad Filters
  130. New active-R sinusoidal VCOs with linear tuning laws
  131. Alternative modification of the classical GIC structure
  132. Comment: Synthesis of canonic single-resistance-controlled-oscillators using a single current-feedback-amplifier
  133. Novel single-resistance-controlled-oscillator configuration using current feedback amplifiers
  134. Macromodeling ideal switches for SPICE
  135. Floating GNIC/GNII configuration realised with only a single OMA
  136. Universal linear voltage-controlled-impedance configuration
  137. KHN-equivalent biquad using current conveyors
  138. Realisation of linear voltage-controlled resistance in floating form
  139. Minimal realisations of a class of operational-mirrored-amplifier-based floating impedances
  140. New linearly tunable CMOS-compatible OTA-C oscillators with non-interacting controls
  141. Class of floating, generalised, positive/negative immittance convertors/inverters realised with operational mirrored amplifiers
  142. Versatile voltage-controlled impedance configuration
  143. On equivalent forms of single op-amp sinusoidal RC oscillators
  144. Systematic derivation of all possible canonic OTA-C sinusoidal oscillators
  145. On the realization of linear sinusoidal VCOs
  146. A class of three-OTA-two-capacitor oscillators with non-interacting controls
  147. Simple sinusoidal oscillator using opamp compensation poles
  148. New current-conveyor-based single-resistance-controlled/voltage-controlled oscillator employing grounded capacitors
  149. New current-mode biquad filter
  150. Erratum: Single element-controlled sinusoidal oscillator employing single current conveyor IC
  151. Single-element-controlled sinusoidal oscillator employing single current conveyor IC
  152. A simple configuration for realizing voltage-controlled impedances
  153. Erratum: Systematic generation of OTA-C sinusoidal oscillators
  154. Some Simple Techniques of Generating OTA-C Sinusoidal Oscillators
  155. Realization of voltage-controlled impedances
  156. Single op-amp sinusoidal oscillators suitable for generation of very low frequencies
  157. Realisation of Linear Circuits Using IC Op-Amps: Some Appraisals
  158. New multifunction active filter configuration employing current conveyors
  159. Systematic generation of OTA-C sinusoidal oscillators
  160. Linearly tunable Wien bridge oscillator realised with operational transconductance amplifiers
  161. New electronically tunable OTA-C sinusoidal oscillator
  162. Erratum: Linearly tunable Wien bridge oscillator realised with operational transconductance amplifiers
  163. Three op amp floating immittance simulators: a retrospection
  164. Analysis, Synthesis and Design of New Types of RC-Active Sinusoidal Oscillators (Part I)
  165. Floating immittance realisation: nullor approach
  166. Analysis, Synthesis and Design of New Types of RC-Active Sinusoidal Oscillators (Part II)
  167. Simple approach for generating active-compensated building blocks
  168. On the transformation of RC-active oscillators
  169. Generation of new two-amplifier synthetic floating inductors
  170. A novel application of four-terminal floating nullors
  171. Network transformations for incorporating nonideal simulated immittances in the design of active filters and oscillators
  172. On the realization of floating active elements
  173. Network Transformation for Active-RC Realisation of RLM-Immittances
  174. New Types of Sinewave Oscillators
  175. New Rc-Active oscillator configuration employing unity-gain amplifiers
  176. Novel higher-order active filter design using current conveyors
  177. Erratum: Novel application of generalised current conveyor
  178. Novel application of generalised current conveyor
  179. Floating ideal FDNR using only two current conveyors
  180. On the synthesis of a class of immittances and filters using grounded capacitors
  181. Comments on "New canonic active RC realizations of grounded and floating inductors"
  182. Novel lossless synthetic floating inductor employing a grounded capacitor
  183. Erratum: Novel lossless synthetic floating inductor employing a grounded capacitor
  184. New Single-Capacitor Simulations of Floating Inductors
  185. Linear resistance-to-frequency conversion employing integrated circuit operational amplifiers
  186. Canonic Synthetic Floating-Inductance Circuits Employing Only a Single Component-Matching Condition
  187. Comments on: ‘Floating ideal inductor with one d.v.c.c.s.’ and ‘Novel capacitor flotation scheme’
  188. Reply: Novel sinusoidal oscillator employing grounded capacitors
  189. Novel sinusoidal oscillator employing grounded capacitors
  190. Novel active RC realisations of tunable floating inductors
  191. Novel circuit implementation of current conveyors using an o.a. and an o.t.a
  192. New tunable synthetic floating inductors
  193. New canonic single-resistance-controlled sinusoidal oscillator using a single current conveyor
  194. New canonic sinusoidal oscillator with independent frequency control through a single grounded resistor
  195. Novel active RC circuit for floating-inductor simulation
  196. Reply: Active simulation of inductors using current conveyor
  197. Some observations concerning the methods of filter/oscillator realization using the concept of FDNR
  198. New canonic active RC realizations of grounded and floating inductors
  199. Active simulation of inductors using current conveyor
  200. Realisation of single-resistance-controlled lossless floating inductance