예제 #1
0
 public void drawStar(Graphics g) {
   // draws the stars
   for (Star i : starList) {
     g.drawImage(
         i.getPics().get(i.getCounter()), i.getX(), i.getY(), i.getWidth(), i.getHeight(), null);
     i.count();
   }
 }
예제 #2
0
    public void map(
        LongWritable key,
        Star value,
        OutputCollector<BlockIDWritable, PairWritable> output,
        Reporter reporter)
        throws IOException {

      loc.set(value.ra, value.dec);
      int zoneNum = loc.zoneNum;
      int raNum = loc.raNum;
      p.set(value, null);

      /*
       * When the block size increases (> theta), only part of a block
       * needs to be copied to its neighbor.
       */
      output.collect(loc, p);

      /*
       * only replicate objects in the border of a block. I expect most of
       * objects don't need to be copied.
       */
      if (value.dec > zoneRanges[zoneNum][0] + theta
          && value.dec < zoneRanges[zoneNum][1] - theta
          && value.ra > blockRanges[raNum][0] + maxAlphas[zoneNum]
          && value.ra < blockRanges[raNum][1] - maxAlphas[zoneNum]) return;

      /*
       * the code below is to copy the star to some neighbors. We only
       * need to copy an object to the bottom, left, left bottom, left top
       * neighbors
       */
      value.margin = true;

      /*
       * we should treat the entire zone 0 as a block, so we only needs to
       * copy some objects at the corner to their neighbors
       */
      if (loc.zoneNum == 0) {
        /* copy the object to the right top neighbor */
        if (value.ra >= blockRanges[raNum][1] - maxAlphas[zoneNum]
            && value.ra <= blockRanges[raNum][1]
            && value.dec >= zoneRanges[zoneNum][1] - theta
            && value.dec <= zoneRanges[zoneNum][1]) {
          //					BlockIDWritable loc1 = new BlockIDWritable();
          /* raNum of objects in zone 0 is always 0,
           * we need to recalculate it. */
          //					loc1.raNum = BlockIDWritable.ra2Num(value.ra) + 1;
          //					if (loc1.raNum == numBlocks) {
          //						loc1.raNum = 0;
          //						value.ra -= 360;
          //					}
          //					loc1.zoneNum = loc.zoneNum + 1;
          ///					output.collect(loc1, p);
        }
        return;
      } else if (loc.zoneNum == numZones - 1) {
        /* copy the object to the bottom neighbor */
        if (value.dec >= zoneRanges[zoneNum][0] && value.dec <= zoneRanges[zoneNum][0] + theta) {
          /* raNum of objects in zone zoneNum - 1 is always 0,
           * we need to recalculate it. */
          loc1.raNum = BlockIDWritable.ra2Num(value.ra);
          loc1.zoneNum = loc.zoneNum - 1;
          output.collect(loc1, p);

          /* copy the object to the right bottom neighbor */
          while (value.ra >= blockRanges[loc1.raNum][1] - maxAlphas[zoneNum]
              && value.ra <= blockRanges[loc1.raNum][1]) {
            loc1.raNum++;
            if (loc1.raNum == numBlocks) {
              loc1.raNum = 0;
              value.ra -= 360;
            }
            loc1.zoneNum = loc.zoneNum - 1;
            output.collect(loc1, p);
          }
        }
        return;
      }

      boolean wrap = false;
      loc1.raNum = loc.raNum;
      /* copy the object to the right neighbor */
      while (value.ra >= blockRanges[loc1.raNum][1] - maxAlphas[zoneNum]
          && value.ra <= blockRanges[loc1.raNum][1]) {
        loc1.raNum++;
        loc1.zoneNum = loc.zoneNum;
        /*
         * when the object is copied to the right neighbor, we need to
         * be careful. we need to convert ra and raNum if ra is close to
         * 360.
         */
        if (loc1.raNum == numBlocks) {
          loc1.raNum = 0;
          value.ra -= 360;
          wrap = true;
        }
        output.collect(loc1, p);
        /* copy the object to the right bottom neighbor */
        if (value.dec >= zoneRanges[zoneNum][0] && value.dec <= zoneRanges[zoneNum][0] + theta) {
          loc1.zoneNum = loc.zoneNum - 1;
          output.collect(loc1, p);
        }
        /* copy the object to the right top neighbor */
        if (value.dec >= zoneRanges[zoneNum][1] - theta && value.dec <= zoneRanges[zoneNum][1]) {
          loc1.zoneNum = loc.zoneNum + 1;
          output.collect(loc1, p);
        }
      }
      if (wrap) {
        value.ra += 360;
      }

      /* copy the object to the bottom neighbor */
      if (value.dec >= zoneRanges[zoneNum][0] && value.dec <= zoneRanges[zoneNum][0] + theta) {
        loc1.raNum = loc.raNum;
        loc1.zoneNum = loc.zoneNum - 1;
        if (loc1.zoneNum == 0) loc1.raNum = 0;
        output.collect(loc1, p);
      }
    }
예제 #3
0
 public void scrollStars() {
   for (Star i : starList) {
     i.setY(i.getY() + (int) (player1.getVelocity() * 0.3));
   }
 }
예제 #4
0
 public void checkStarCollision() {
   for (Star s : starList) {
     if (s.getOnScreen()) { // if the star is on the screen we need to check if player collides
       if (s.checkCollision(
           s.getPics().get(s.getCounter()),
           player1)) { // if the player collides with the star we remove it then change the
         // velosity to the distance that the star provides
         sRemove.add(s); // remove star once you collide with it
         player1.setVelo(s.getDist()); // changes the velocity
         player1.setInvi(true); // sets the player invisble for a few seconds
         score += s.getPoints(); // points increase by the star type
         if (musicOn) {
           starSound.play(); // playthe star sound
         }
       }
     } else {
       sRemove.add(s); // remove the star if its not on the screen
     }
   }
   for (Star s : sRemove) {
     poofList.add(new Poof(s.getX(), s.getY(), s.getNum() + 3)); // make the poof effect
     starList.remove(s);
   }
   sRemove = new ArrayList<Star>();
 }