update links and getting started

docs/site/tutorial/convolution.rst

@@ -63,7 +63,7 @@ Let's start by creating the data structures above the Accel that we will set up
 filters and compute the gold check. We will expose the rows of the images as command-line arguments.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DiffAndSobel extends SpatialApp {
 
@@ -359,7 +359,7 @@ definitions extend SpatialApp, and then have the next file create an `object` th
 
 
     // File1.scala
-    import org.virtualized._
+    import virtualized._
     import spatial.dsl._
 
     object AccelFile extends FunctionsFile {
@@ -374,7 +374,7 @@ definitions extend SpatialApp, and then have the next file create an `object` th
     --------------------------------
 
     // File2.scala
-    import org.virtualized._
+    import virtualized._
     import spatial.dsl._
 
     trait FunctionsFile extends SpatialApp{
@@ -392,7 +392,7 @@ Below is the final code for a single-file, functionized version of the two convo
 tutorial.  See the @HelloWorld page for a refresher on how to compile and test.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DiffAndSobel extends SpatialApp {
 

docs/site/tutorial/dotproduct.rst

@@ -36,7 +36,7 @@ the length of these vectors as a command-line argument. We will also write the c
 the correct result::
   
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DotProduct extends SpatialApp {
 
@@ -246,10 +246,10 @@ Final Code
 ----------
 
 Finally, below is the complete app that includes all of the performance-oriented features outlined in this page of the tutorial.
-Refer back to the `targets <../targets.rst>`_ section for a refresher on how to test your app.::
+Refer back to the `targets <../targets.html>`_ section for a refresher on how to test your app.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DotProduct extends SpatialApp {
 

docs/site/tutorial/gemm.rst

@@ -35,7 +35,7 @@ Let's start by creating the data structures above the Accel that we will set up
 gold check. We will expose the dimensions of the matrices as command-line arguments. ::
 	
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object GEMM extends SpatialApp {
 
@@ -299,7 +299,7 @@ Final Code
 Below is the complete GEMM app.  See the @HelloWorld page for a refresher on how to compile and test an app::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object GEMM extends SpatialApp {
 

docs/site/tutorial/helloworld.rst

@@ -60,7 +60,7 @@ All Spatial programs have a few basic components. The following code example sho
 an application that is called `HelloSpatial`::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object HelloSpatial extends SpatialApp {
 
@@ -86,7 +86,7 @@ While this template is empty, you can use this same flow freely as you build you
 Currently, you should edit and place apps inside of your `spatial-lang/apps/src/` directory.  Copy-paste the above
 template into a new file in this directory and you are ready to compile.
 
-For information on how to compile your app to a specific target, see the `targets <../targets.rst>`_ page.
+For information on how to compile your app to a specific target, see the `targets <../targets.html>`_ page.
 We recommend beginnig with either the Scala or VCS backends.
 
 
@@ -177,12 +177,12 @@ ignored in RTL, since there is no straightforward print for FPGAs::
         println("2D pass? " + cksum_2D)
         println("scatter pass? " + cksum_scattered)
 
-Congratulations!  You have completed the DRAM section of the tutorial.  Refer back to the `targets <../targets.rst>`_ section for a refresher on how to test your app.
+Congratulations!  You have completed the DRAM section of the tutorial.  Refer back to the `targets <../targets.html>`_ section for a refresher on how to test your app.
 
 Below is a copy-pastable version of the code outlined above::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object HelloSpatial extends SpatialApp {
 
@@ -300,7 +300,7 @@ Now we can move outside the Accel and read the arg values::
     val cksum = (result1 == {args(0).to[Int] + args(1).to[Int]}) && (result2 == args(0).to[Int]) // The {} brackets are Scala's way of scoping operations
     println("ArgTest pass? " + cksum)
 
-Congratulations!  You have completed the ArgIn/Out section of the tutorial.  Refer back to the `targets <../targets.rst>`_ section for a refresher on how to test your app.
+Congratulations!  You have completed the ArgIn/Out section of the tutorial.  Refer back to the `targets <../targets.html>`_ section for a refresher on how to test your app.
 
 
 Final Code
@@ -309,7 +309,7 @@ Final Code
 Below is a copy-pastable version of the code outlined above::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object HelloSpatial extends SpatialApp {
 

docs/site/tutorial/nw.rst

@@ -41,7 +41,7 @@ between the two, and print out the result back into files called ``alignedA.txt`
 if our alignments are "correct," we will aim to have less than 10% of the entries be in error.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object NW extends SpatialApp {
 
@@ -274,7 +274,7 @@ Final Code
 Here is the final code for this version of NW::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object NW extends SpatialApp {
       @struct case class nw_tuple(score: Int16, ptr: Int16)

docs/site/tutorial/starting.rst

@@ -18,6 +18,7 @@ If you'd like, check out this `Scala tutorial <https://www.tutorialspoint.com/sc
 Finally, please sign up for the `Spatial users google group <https://groups.google.com/forum/#!forum/spatial-lang-users>`_ if you have any questions. 
 
 
+
 .. Installation (From Binary)
 .. --------------------------
 
@@ -34,7 +35,53 @@ Finally, please sign up for the `Spatial users google group <https://groups.goog
 
 
 
-Installation (From Source)
+Installation From Maven (Recommended)
+--------------------------
+
+.. highlight:: bash
+
+NOTE: This does not work right now.  ETA: March 8, 2018
+
+To get started with Spatial, you do not need to clone or build any DSL software yourself. 
+You simply need to create a new SBT project as follows::
+
+	mkdir -p spatial-lang/src/main && cd spatial-lang
+
+.. highlight:: scala
+
+In ``spatial-lang/``, create a file called ``build.sbt``::
+
+	organization := "org"
+
+	version := "1.0-SNAPSHOT"
+
+	name := "spatial-app"
+
+	scalaVersion := "2.12.1"
+	val paradiseVersion = "2.1.0"
+
+	scalacOptions ++= Seq("-deprecation", "-feature", "-unchecked", "-language:reflectiveCalls")
+
+	libraryDependencies ++= Seq("edu.stanford.cs.dawn" %% "spatial" % "0.1-SNAPSHOT")
+
+	resolvers ++= Seq(
+	  Resolver.sonatypeRepo("snapshots"),
+	  Resolver.sonatypeRepo("releases"),
+	  // "Local Maven Repository" at "file://"+Path.userHome.absolutePath+"/.m2/repository/",
+	)
+	addCompilerPlugin("org.scalamacros" % "paradise" % paradiseVersion cross CrossVersion.full)
+
+	scalaSource in Compile := baseDirectory.value / "src" 
+
+.. highlight:: bash
+
+Finally, start writing your apps is ``spatial-lang/src/main/<filename>.scala``.  Refer to 
+`targets <../targets.html>`_ to learn how to compile the app.  The command is::
+
+	$ sbt "runMain <app name> <args>"
+
+
+Installation From Source
 --------------------------
 
 .. highlight:: bash

docs/source/tutorial/convolution.rst

@@ -63,7 +63,7 @@ Let's start by creating the data structures above the Accel that we will set up
 filters and compute the gold check. We will expose the rows of the images as command-line arguments.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DiffAndSobel extends SpatialApp {
 
@@ -352,7 +352,7 @@ inside of a separate file entirely, then you simply need to make the `trait` tha
 definitions extend SpatialApp, and then have the next file create an `object` that extends the first trait::
 
 
-    import org.virtualized._
+    import virtualized._
     import spatial.dsl._
 
     object AccelFile extends FunctionsFile {
@@ -366,7 +366,7 @@ definitions extend SpatialApp, and then have the next file create an `object` th
 
     --------------------------------
 
-    import org.virtualized._
+    import virtualized._
     import spatial.dsl._
 
     trait FunctionsFile extends SpatialApp{
@@ -384,7 +384,7 @@ Below is the final code for a single-file, functionized version of the two convo
 tutorial.  See the :doc:`HelloWorld <helloworld>` page for a refresher on how to compile and test.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DiffAndSobel extends SpatialApp {
 

docs/source/tutorial/dotproduct.rst

@@ -36,7 +36,7 @@ the length of these vectors as a command-line argument. We will also write the c
 the correct result::
   
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DotProduct extends SpatialApp {
 
@@ -249,7 +249,7 @@ Finally, below is the complete app that includes all of the performance-oriented
 Refer back to the `targets <../targets.rst>`_ section for a refresher on how to test your app.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object DotProduct extends SpatialApp {
 

docs/source/tutorial/gemm.rst

@@ -35,7 +35,7 @@ Let's start by creating the data structures above the Accel that we will set up
 gold check. We will expose the dimensions of the matrices as command-line arguments. ::
 	
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object GEMM extends SpatialApp {
 
@@ -299,7 +299,7 @@ Final Code
 Below is the complete GEMM app.  See the :doc:`HelloWorld <helloworld>` page for a refresher on how to compile and test an app::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object GEMM extends SpatialApp {
 

docs/source/tutorial/helloworld.rst

@@ -59,7 +59,7 @@ All Spatial programs have a few basic components. The following code example sho
 an application that is called `HelloSpatial`::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object HelloSpatial extends SpatialApp {
 
@@ -85,7 +85,7 @@ While this template is empty, you can use this same flow freely as you build you
 Currently, you should edit and place apps inside of your `spatial-lang/apps/src/` directory.  Copy-paste the above
 template into a new file in this directory and you are ready to compile.
 
-For information on how to compile your app to a specific target, see the `targets <../targets.rst>`_ page.
+For information on how to compile your app to a specific target, see the `targets <../targets.html>`_ page.
 We recommend beginnig with either the Scala or VCS backends.
 
 
@@ -176,12 +176,12 @@ ignored in RTL, since there is no straightforward print for FPGAs::
         println("2D pass? " + cksum_2D)
         println("scatter pass? " + cksum_scattered)
 
-Congratulations!  You have completed the DRAM section of the tutorial.  Refer back to the `targets <../targets.rst>`_ section for a refresher on how to test your app.
+Congratulations!  You have completed the DRAM section of the tutorial.  Refer back to the `targets <../targets.html>`_ section for a refresher on how to test your app.
 
 Below is a copy-pastable version of the code outlined above::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object HelloSpatial extends SpatialApp {
 
@@ -299,7 +299,7 @@ Now we can move outside the Accel and read the arg values::
     val cksum = (result1 == {args(0).to[Int] + args(1).to[Int]}) && (result2 == args(0).to[Int]) // The {} brackets are Scala's way of scoping operations
     println("ArgTest pass? " + cksum)
 
-Congratulations!  You have completed the ArgIn/Out section of the tutorial.  Refer back to the `targets <../targets.rst>`_ section for a refresher on how to test your app.
+Congratulations!  You have completed the ArgIn/Out section of the tutorial.  Refer back to the `targets <../targets.html>`_ section for a refresher on how to test your app.
 
 
 Final Code
@@ -308,7 +308,7 @@ Final Code
 Below is a copy-pastable version of the code outlined above::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object HelloSpatial extends SpatialApp {
 

docs/source/tutorial/nw.rst

@@ -41,7 +41,7 @@ between the two, and print out the result back into files called ``alignedA.txt`
 if our alignments are "correct," we will aim to have less than 10% of the entries be in error.::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object NW extends SpatialApp {
 
@@ -266,7 +266,7 @@ Final Code
 Here is the final code for this version of NW::
 
     import spatial.dsl._
-    import org.virtualized._
+    import virtualized._
 
     object NW extends SpatialApp {
       @struct case class nw_tuple(score: Int16, ptr: Int16)