These diagrams are in svg format, obtained by first producing pdf using pdflatex and then converting using dvisvgm --pdf. The pdf equivalent can be found in examples.pdf. Sources for producing similar figures as svg using dpic -v without invoking LaTeX or equivalent can be found in examples/dpv of the the distribution or here.

Click on the link to view the source of each diagram. Read the manual Circuit_macros.pdf for a complete explanation. Browse and enjoy!

quick.m4: The quick-start example from the manual

Resistors.m4: Resistors, showing some variations and the ebox

Capacitors.m4: Capacitors

Inductors.m4: Inductors

Diodes.m4: Diodes: appending a K to the second argument draws an open arrowhead

Emarrows.m4: Radiation arrows

Variable.m4: Arrows and marks for showing variability

Sources.m4: Sources and source-like elements

AmpTable.m4: Macros amp, delay, and integrator

Fuses.m4: Macros fuse and cbreaker

Arresters.m4: The arrester macro

MoreTable.m4: Additional two-terminal elements

Grounds.m4: Ground symbols

Switches.m4: The switch macros; switch(,,,L|B|D) is a wrapper for lswitch, bswitch, and dswitch

Antennas.m4: Antenna symbols

Opamp.m4: The opamp

Audio.m4: Audio elements

Xform.m4: Some variations of the transformer element, drawing direction down

NPDT.m4: Double throw with the NPDT macro

Contact.m4: A non-exhaustive sampling of contact macro variations

Contacts.m4: The contacts macro

relaycoil.m4: The relaycoil macro

Relay.m4: Some variants of relay

Jack.m4: The jack and plug macros

Conn.m4: The tstrip, ccoax, tconn, and tbox macros

Pconn.m4: The pconnex macro

EVplugs.m4: Electric vehicle charging plug patterns make extensive use of key=value pairs to set options

Headers.m4: The Header macro

Connectors.m4: Some connectors with simple geometry and lists of labels

Chips.m4: IC package outlines and examples

fet.m4: FETs, showing programmable components and example customizations

ujt.m4: UJT examples

thyristor.m4: Thyristor examples. The thyristor is a 3- or 4-terminal composite element

Bip.m4: Bipolar transistors (drawing direction: up)

Tgate.m4: The tgate and ptrans elements

Nport.m4: The nport and nterm macros

NLG.m4: Some customizations of nport

Windings.m4: The macro winding(L|R,diam,pitch,turns,core wid,core color)

ex01.m4: Two simple labeled circuits

ex02.m4: Elements at obtuse angles

Optoiso.m4: Optical isolator: a circuit with right or left orientation

Mixer.m4: A balanced mixer, using mosfet and a custom transformer

PushPull.m4: A push-pull mixer, showing FETs with multiple gates

Quantum.m4: A quantum circuit

SQUID.m4: Superconducting quantum interface device (drawing direction down)

Sixpole.m4: A six-pole filter

ex18.m4: Precision half-wave rectifier and a tunnel diode circuit (illustrating opamp, diode, resistor, ground, and labels)

ex10.m4: Non-planar graph and bistable circuit (illustrating the crossover macro and colored elements)

Three.m4: Three-phase oscillator

MC.m4: A three-phase switched AC-AC converter and a DC-DC converter

ex17.m4: A repetitive network created by Pic looping and a skewed circuit used to test the macro parallel_

ex12.m4: A CMOS NAND gate, a test circuit, and an XMOSFET example

pwrsupply.m4: An elementary power supply circuit with colored elements, and a multiple-winding transformer with 3-phase rectifier

TTLnand.m4: TTL NAND gate illustrating a transistor with multiple emitters

I2L.m4: Gate circuit and equivalent embedded I²L components illustrating multiple collectors

Schottky.m4: A 4-input NAND circuit illustrating the S (Schottky) option of bi_trans

ex11.m4: Transistor radio audio chain

ex04.m4: Labels on non-manhattan elements

Csource.m4: Realization of a controlled source (illustrating stacked element labels)

Drive.m4: Synchronous machine driven by variable-speed drive and rectifier

ex16.m4: A rate 1/2 binary convolutional coder and its state diagram

ex03.m4: Digital filter

MotorControl.m4: Motor control connections

Rectifiers.m4: Rectifier circuits and waveforms

Heathkit.m4: The power supply of a Heathkit AR-15 (Now, that was a receiver!) with custom transformer and other elements, drawn on a grid (partially shown) to aid in placement

lcct.m4: A digital circuit of moderate size, redrawn from M. P. Maclenan and G. M. Burns, "An Approach to Drawing Circuit Diagrams for Text Books," Tugboat (12)1, March 1991, pp. 66-69

UNO.m4: An Arduino UNO circuit adapted and redrawn

Tubediags.m4: Electron-tube diagrams: a few bottom-view base diagrams, a generic triode test circuit, and a 25-watt audio amplifier adapted from F. Langford-Smith, Radiotron Designer's Handbook, fourth edition, Harrison, NJ: Radio Corporation of America, 1952

sfg.m4: Signal-flow graphs

Logic.m4: Basic logic gates

ex08.m4: General-purpose latch: a small logic circuit

Decoder.m4: Decoder logic, constructed using the for_ macro

ex21.m4: Some flip-flops

Multiplexer.m4: Multiplexer

Demultiplexer.m4: Demultiplexer

ShiftR.m4: A 5-bit shift register drawn using a custom flip-flop

Adder.m4: A full adder and a cascade of n-bit adders

CanLogic.m4: A way of automatically drawing two-layer logic diagrams

Alogix.m4: The Autologix(Boolean expression; Boolean expression... , options) macro automatically draws Boolean expressions in function notation. The function tree is drawn, then a row or column of inputs, then the connections. The default result is on the left, a custom element at the top, and a tree of gates only is shown on the right.

ABlogix.m4: The Autologix macro can draw inputs on the left but the added drawing complexity may require hand tuning with second-argument options: L puts the inputs on the left, R reverses their order, V scans the input arguments in reverse order, and offset=value displaces the array of inputs

XOR.m4: Realizations of the XOR function using Autologix

ex00.m4: Line diagrams

EEP.m4: A test of experimental single-line diagram macros

ex05.m4: Use of darrow and Darc

GrayCode.m4: Gray code 10-bit encoder disk pattern and a crossbar switch

control.m4: Control-system block diagrams

Byte.m4: Elementary splines

Rotbox.m4: The macro rotbox(wid,ht,type,[r|t=val]) draws a box in the current direction

shadowed.m4: The macro shadowed(box|circle|ellipse|line,[at position],keys) shadowed object

ex06.m4: Crosshatching

Geometry.m4: Some geometrical constructions

Loglog.m4: A graph drawn using the pic language

Smithchart.m4: A Smith chart

ex09.m4: Illustrating the macro dimension_(linespec, offset, label, D|H|W|blank width, tic offset,<-|->). A negative second argument implies an offset to the right of the linespec direction. A label starting with " or sprintf is copied literally. If label is an s_box(...) then setting argument 4 to H, W, or D tailors the blank width to the s_box height, width, or diagonal respectively; i.e., W is equivalent to s_wd+textoffset*2. The macro arcdimension_ is similar but the first argument specifies the arc to be dimensioned and the second argument is the outward radial offset of the dimension arrow arc.

Plate.m4: Dimensioning with tolerances

random.m4: Testing random number generation using dpic macro randn(array name, n, mean, std dev) which calls pic built-in rand()

exp.m4: Test of project and other lib3D macros, showing the projection of a solid onto the y₁,z₁ plane by sighting along the x₁ axis.

graysurf.m4: Plotting surfaces using gray scales

shapes.m4: Basic shapes

csc.m4: Conestoga Sailing Club (illustrating the filling of arbitrary shapes) and an antique clock face with shading and rotated text

rose.m4: The left object, used for testing dipic, is redrawn from a detail of the set design for the musical Dracula. This consumes much LaTeX main memory but can be produced directly as pdf using dpic -d, as svg using dpic -v, or as postscript using dpic -r since no text formatting is required. The right object adjusts the size of dots to produce a halftone effect

diamond.m4: Variations on M. Goossens, S. Rahtz, and F. Mittelbach, The LaTeX Graphics Companion, Addison-Wesley 1997, pp. 57-58

worm.m4: An exercise in calculating RGB colours

Buttons.m4: Shading in color

keyboard.m4: This diagram has been produced as svg with dpic -v (then converted to pdf for inclusion in examples.pdf)

Dini.m4: Dini surface and an icosahedron

Sierpinski.m4: The Sierpinski triangle and a Cayley graph: tests of pic macro recursion

Escher.m4: Penrose stairs and an Escher-like object

recycle.m4: Modest repetition and partial fill

ex15.m4: Simple diagrams that are easily drawn by looping

Crow.m4: Illustrating shadebox and a custom crowfoot line termination

Flow.m4: A flowchart sampler

Btree.m4: Trees

Incleps.m4: Overlaying a figure with line graphics })

Dwight Aplevich
Contact the author: last name at domain
Domain: uwaterloo.ca

See the README file for information about sources, manuals, installation, integration with other tools, and output formats.

For more examples in the context of textbooks, see:
J. Dwight Aplevich, The Essentials of Linear State-Space Systems, New York: John Wiley & Sons Inc., 2000,
or
Gordon C. Andrews, J. Dwight Aplevich, Roydon A. Fraser, Carolyn G. MacGregor, Introduction to Professional Engineering in Canada, (fifth edition) Toronto: Prentice Hall, Pearson Education Canada, Inc., 2018.