diff --git a/src/components/SVGComponents.jsx b/src/components/SVGComponents.jsx
deleted file mode 100644
index 94d47ec..0000000
--- a/src/components/SVGComponents.jsx
+++ /dev/null
@@ -1,25 +0,0 @@
-import React, { useState } from "react";
-import { svgParts, toolTips } from "./SVGLibrary";
-import Tooltip from "./Tooltip";
-
-export default function SVGComponent({part, style, click}) { // Style is the intial stroke
-    const [toggled, setToggled] = useState(false);
-
-    const handleClick = (ev) => {
-        setToggled(!toggled)
-    }
-
-    const Component = svgParts[part];
-
-    return (<div>
-                <Component className='svg' viewBox='-70 110 650 450' style={{...style, stroke: toggled ? 'blue' : style?.stroke ?? 'black', strokeWidth: toggled ? '5' : style?.strokeWidth ?? '1'}} onClick={click ?? handleClick} />
-                <Tooltip 
-                    header={toolTips[part].header}
-                    text={toolTips[part].text}
-                    visible={toolTips[part]?.visible ?? toggled}
-                />
-            </div>
-    );
-    // SVG File Prep: put them through SVGOMG to strip any inkscape specific tags that would break React
-    // In the SVG files, you must remove the stroke and stroke-height of the element you want outlined and you must remove the  height and width from the very first line to get the SVG to use the viewbox and scale properly
-}
\ No newline at end of file
diff --git a/src/dictionaires/SVGLibrary.js b/src/dictionaires/SVGLibrary.js
index 41fd0a6..40c310e 100644
--- a/src/dictionaires/SVGLibrary.js
+++ b/src/dictionaires/SVGLibrary.js
@@ -1,7 +1,62 @@
-export const imgSource = { 
+export const imgSource = {
+  lecture: "",
+  "turbo-pump": "",
+  "ion-gauge-1": "",
+  "ion-gauge-2": "",
+  "ion-gauge-3": "",
+  "source-chamber": "",
+  "doping-chamber": "",
+  "detection-chamber": "",
+  "diffusion-pump-2": "",
+  "diffusion-pump-1": "",
+  "rotary-pump": "",
+  laser: "",
+};
 
-}
-
-export const toolTips = { 
-
-}
\ No newline at end of file
+export const toolTips = {
+  lecture: { title: "Lecture Bottle", text: "" },
+  "turbo-pump": {
+    title: "Turbomolecular Pump",
+    text: 'Evacuates the Detection Chamber by means of an axial compressor which consists of a stack of fans that "push" molecules to the exhaust. The fans rotate at a frequency of ~1 kHz.',
+  },
+  "ion-gauge-1": {
+    title: "Ion Gauge",
+    text: "Pressure of the Detection Chamber, which is similar to that maintained at CERN (close to the vacuum found on the Moons surface).",
+  },
+  "ion-gauge-2": {
+    title: "Ion Gauge",
+    text: "Pressure of the Doping Chamber.",
+  },
+  "ion-gauge-3": {
+    title: "Ion Gauge",
+    text: "Pressure of the Source Chamber. It is relatively high due to the large amount of helium that flows through the nozzle.",
+  },
+  "source-chamber": {
+    title: "Source Chamber",
+    text: "This is where helium nanodroplets are formed.",
+  },
+  "doping-chamber": {
+    title: "Doping Chamber",
+    text: "This chamber is where the analyte molecules condense into the molecular beam.",
+  },
+  "detection-chamber": {
+    title: "Detection Chamber",
+    text: "Houses a mass spectrometer which is used to detect helium nanodroplets.",
+  },
+  "diffusion-pump-1": {
+    title: "Diffusion Pump",
+    text: "This chamber is where the analyte molecules condense into the molecular beam.",
+  },
+  "diffusion-pump-2": {
+    title: "Diffusion Pump",
+    text: "Houses a mass spectrometer which is used to detect helium nanodroplets.",
+  },
+  "rotary-pump": {
+    title: "Rotary Pump",
+    text: "Backs the turbo and diffusion pumps, which require a foreline pressure of <100 mTorr. The exhaust gas is directed to the rooftop.",
+  },
+  laser: {
+    title: "Laser Symbol",
+    text: 'The output from a narrow linewidth quantum cascade laser is overlapped with the helium nanodroplet beam. Before entering the vacuum chamber through the salt window, a small fraction of radiation is reflected to a power meter ("P") and wavemeter ("λ"); the mechanical chopper wheel modulates the laser beam at a frequency of ~100 Hz, which serves as the reference for the lock-in amplifier.',
+  },
+};