diff --git a/examples/analog_input.cpp b/examples/analog_input.cpp
index 5ee991933..2bd03571d 100644
--- a/examples/analog_input.cpp
+++ b/examples/analog_input.cpp
@@ -1,26 +1,61 @@
 #include <Arduino.h>
 
 #include "sensesp_app.h"
-#include "wiring_helpers.h"
+#include "devices/analog_input.h"
+#include "transforms/linear.h"
 
+// SensESP builds upon the ReactESP framework. Every ReactESP application
+// defines an "app" object vs defining a "main()" method.
 ReactESP app([] () {
+
+  // Some initialization boilerplate when in debug mode...
   #ifndef SERIAL_DEBUG_DISABLED
   Serial.begin(115200);
 
   // A small arbitrary delay is required to let the
   // serial port catch up
-
   delay(100);
   Debug.setSerialEnabled(true);
   #endif
 
+
+  // Create the global SensESPApp() object.
   sensesp_app = new SensESPApp();
 
-  setup_analog_input(
-    sensesp_app,
-    "sensors.indoor.illumination",
-    1, 0,
-    "/sensors/indoor_illumination");
 
+  // The "SignalK path" identifies this sensor to the SignalK network. Leaving
+  // this blank would indicate this particular sensor (or transform) does not
+  // broadcast SignalK data
+  const char* sk_path = "sensors.indoor.illumination";
+
+
+  // The "Configuration path" is combined with "/config" to formulate a URL
+  // used by the RESTful API for retrieving or setting configuration data.
+  // It is ALSO used to specify a path to the SPIFFS file system
+  // where configuration data is saved on the MCU board.  It should 
+  // ALWAYS start with a forward slash if specified.  If left blank, 
+  // that indicates this sensor or transform does not have any 
+  // configuration to save.
+  // Note that if you want to be able to change the sk_path at runtime,
+  // you will need to specify a config_path.
+  const char* config_path = "/sensors/indoor_illumination";
+
+
+  // Create a "device" that is the source of our data
+  auto* pAnalogInput = new AnalogInput();
+
+
+  // Create a "transform" that can modify the data and/or broadcast it
+  // over the SignalK network.
+  const float multiplier = 1.0;
+  const float offset = 0.0;
+  auto* pTransform = new Linear(sk_path, multiplier, offset, config_path);
+
+  
+  // Wire up the output of the analog input to the transform
+  pAnalogInput->connectTo(pTransform);
+
+
+  // Start the SensESP application running
   sensesp_app->enable();
 });
diff --git a/examples/rpm_counter.cpp b/examples/rpm_counter.cpp
index e01688abb..a368576e3 100644
--- a/examples/rpm_counter.cpp
+++ b/examples/rpm_counter.cpp
@@ -7,6 +7,9 @@
 #include "transforms/frequency.h"
 #include "wiring_helpers.h"
 
+
+// SensESP builds upon the ReactESP framework. Every ReactESP application
+// defines an "app" object vs defining a "main()" method.
 ReactESP app([]() {
 #ifndef SERIAL_DEBUG_DISABLED
   Serial.begin(115200);
@@ -20,39 +23,54 @@ ReactESP app([]() {
 
   sensesp_app = new SensESPApp();
 
-  //////////
-  // connect a RPM meter. A DigitalInputCounter counts pulses
-  // and reports the readings every read_delay ms
-  // (500 in the example). A Frequency
-  // transform takes a number of pulses and converts that into
-  // a frequency. The sample multiplier converts the 97 tooth
-  // tach output into Hz, SK native units.
 
-  // Three ways to wire up devices and transformations:
 
-  // 1. Connect by specifying <Observer,Transform> (aka <Device,Transform>):
-  /*
-    sensesp_app->connect_1to1<DigitalInputCounter, Frequency>(
-      new DigitalInputCounter(D5, INPUT_PULLUP, RISING, 500),
-      new Frequency("propulsion.left.revolutions", 1./97.,
-    "/sensors/engine_rpm")
-    );
-  */
+  // The "SignalK path" identifies this sensor to the SignalK network. Leaving
+  // this blank would indicate this particular sensor (or transform) does not
+  // broadcast SignalK data
+  const char* sk_path = "propulsion.left.revolutions";
+
+
+  // The "Configuration path" is combined with "/config" to formulate a URL
+  // used by the RESTful API for retrieving or setting configuration data.
+  // It is ALSO used to specify a path to the SPIFFS file system
+  // where configuration data is saved on the MCU board.  It should 
+  // ALWAYS start with a forward slash if specified.  If left blank, 
+  // that indicates this sensor or transform does not have any 
+  // configuration to save.
+  // Note that if you want to be able to change the sk_path at runtime,
+  // you will need to specify a config_path.
+  const char* config_path = "/sensors/engine_rpm";
 
-  // 2. Connect by specifying data type of Producer's output/Consumer's input
 
+
+//////////
+// connect a RPM meter. A DigitalInputCounter counts pulses
+// and reports the readings every read_delay ms
+// (500 in the example). A Frequency
+// transform takes a number of pulses and converts that into
+// a frequency. The sample multiplier converts the 97 tooth
+// tach output into Hz, SK native units.
+const float multiplier = 1.0 / 97.0;
+const uint read_delay = 500;
+
+
+  // Two ways to wire up devices and transformations:
+
+  // 1. Connect by specifying data type of Producer's output/Consumer's input
   /*
      sensesp_app->connect<int>(
-          new DigitalInputCounter(D5, INPUT_PULLUP, RISING, 500),
-          new Frequency("propulsion.left.revolutions", 1./97.,
-     "/sensors/engine_rpm")
+          new DigitalInputCounter(D5, INPUT_PULLUP, RISING, read_delay),
+          new Frequency(sk_path, multiplier, config_path)
      );
   */
 
   // 3. Connect the producer directly to the consumer
-  (new DigitalInputCounter(D5, INPUT_PULLUP, RISING, 500))
-      ->connectTo(new Frequency("propulsion.left.revolutions", 1. / 97.,
-                                "/sensors/engine_rpm"));
+  auto* pDevice = new DigitalInputCounter(D5, INPUT_PULLUP, RISING, read_delay);
+  
+  pDevice->connectTo(new Frequency(sk_path, multiplier, config_path));
+
 
+  // Start the SensESP application running
   sensesp_app->enable();
 });