Intro to Pointer Network.ipynb

{
 "cells": [
  {
   "cell_type": "markdown",
   "metadata": {
    "collapsed": true
   },
   "source": [
    "This tutorial demostrates Pointer Networks with readable code."
   ]
  },
  {
   "cell_type": "code",
   "execution_count": null,
   "metadata": {
    "collapsed": true
   },
   "outputs": [],
   "source": [
    "import math\n",
    "import numpy as np\n",
    "\n",
    "import torch\n",
    "import torch.nn as nn\n",
    "import torch.optim as optim\n",
    "import torch.autograd as autograd\n",
    "import torch.nn.functional as F\n",
    "from torch.autograd import Variable\n",
    "from torch.utils.data import Dataset, DataLoader\n",
    "\n",
    "USE_CUDA = True"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 3,
   "metadata": {
    "collapsed": true
   },
   "outputs": [],
   "source": [
    "from IPython.display import clear_output\n",
    "from tqdm import tqdm\n",
    "import matplotlib.pyplot as plt\n",
    "%matplotlib inline"
   ]
  },
  {
   "cell_type": "markdown",
   "metadata": {},
   "source": [
    "<h3>Generating dataset for sorting task</h3>"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 4,
   "metadata": {
    "collapsed": false
   },
   "outputs": [],
   "source": [
    "class SortDataset(Dataset):\n",
    "    \n",
    "    def __init__(self, data_len, num_samples, random_seed=111):\n",
    "        super(SortDataset, self).__init__()\n",
    "        torch.manual_seed(random_seed)\n",
    "\n",
    "        self.data_set = []\n",
    "        for _ in tqdm(range(num_samples)):\n",
    "            x = x = torch.randperm(data_len)\n",
    "            self.data_set.append(x)\n",
    "\n",
    "        self.size = len(self.data_set)\n",
    "\n",
    "    def __len__(self):\n",
    "        return self.size\n",
    "\n",
    "    def __getitem__(self, idx):\n",
    "        return self.data_set[idx]"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 5,
   "metadata": {
    "collapsed": true
   },
   "outputs": [],
   "source": [
    "train_size = 1000\n",
    "val_size = 100"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 6,
   "metadata": {
    "collapsed": false
   },
   "outputs": [
    {
     "name": "stderr",
     "output_type": "stream",
     "text": [
      "100%|██████████| 1000/1000 [00:00<00:00, 23103.26it/s]\n",
      "100%|██████████| 100/100 [00:00<00:00, 188338.75it/s]\n"
     ]
    }
   ],
   "source": [
    "train_dataset = SortDataset(10, train_size)\n",
    "val_dataset   = SortDataset(10, val_size)"
   ]
  },
  {
   "cell_type": "markdown",
   "metadata": {},
   "source": [
    "<h3>Attention mechanism</h3>\n",
    "<p>\n",
    "Using two types of attention mechanism: \"Dot\" and \"Bahdanau\" . More details in <a href=\"http://aclweb.org/anthology/D15-1166\">Effective Approaches to Attention-based Neural Machine Translation</a></p>"
   ]
  },
  {
   "cell_type": "markdown",
   "metadata": {},
   "source": [
    "$$\n",
    "a_t(s) = align(h_t, \\bar h_s)  = \\dfrac{exp(score(h_t, \\bar h_s))}{\\sum_{s'} exp(score(h_t, \\bar h_{s'}))}\n",
    "$$\n",
    "\n",
    "$$\n",
    "score(h_t, \\bar h_s) =\n",
    "\\begin{cases}\n",
    "h_t ^\\top \\bar h_s & Dot \\\\\n",
    "v_a ^\\top \\tanh(\\textbf{W}_a [ h_t ; \\bar h_s ]) & Bahdanau\n",
    "\\end{cases}\n",
    "$$"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 25,
   "metadata": {
    "collapsed": true
   },
   "outputs": [],
   "source": [
    "class Attention(nn.Module):\n",
    "    def __init__(self, hidden_size, use_tanh=False, C=10, use_cuda=USE_CUDA):\n",
    "        super(Attention, self).__init__()\n",
    "        \n",
    "        self.use_tanh = use_tanh\n",
    "        self.W_query = nn.Linear(hidden_size, hidden_size)\n",
    "        self.W_ref   = nn.Conv1d(hidden_size, hidden_size, 1, 1)\n",
    "        self.C = C\n",
    "        \n",
    "        V = torch.FloatTensor(hidden_size)\n",
    "        if use_cuda:\n",
    "            V = V.cuda()  \n",
    "        self.V = nn.Parameter(V)\n",
    "        self.V.data.uniform_(-(1. / math.sqrt(hidden_size)) , 1. / math.sqrt(hidden_size))\n",
    "        \n",
    "    def forward(self, query, ref):\n",
    "        \"\"\"\n",
    "        Args: \n",
    "            query: [batch_size x hidden_size]\n",
    "            ref:   ]batch_size x seq_len x hidden_size]\n",
    "        \"\"\"\n",
    "        \n",
    "        batch_size = ref.size(0)\n",
    "        seq_len    = ref.size(1)\n",
    "\n",
    "        ref = ref.permute(0, 2, 1)\n",
    "        query = self.W_query(query).unsqueeze(2)  # [batch_size x hidden_size x 1]\n",
    "        ref   = self.W_ref(ref)  # [batch_size x hidden_size x seq_len] \n",
    "\n",
    "        expanded_query = query.repeat(1, 1, seq_len) # [batch_size x hidden_size x seq_len]\n",
    "        V = self.V.unsqueeze(0).unsqueeze(0).repeat(batch_size, 1, 1) # [batch_size x 1 x hidden_size]\n",
    "\n",
    "        logits = torch.bmm(V, F.tanh(expanded_query + ref)).squeeze(1)\n",
    "        \n",
    "        if self.use_tanh:\n",
    "            logits = self.C * F.tanh(logits)\n",
    "        else:\n",
    "            logits = logits  \n",
    "        return ref, logits"
   ]
  },
  {
   "cell_type": "markdown",
   "metadata": {},
   "source": [
    "<h3>Pointer Network</h3>\n",
    "<p><a href=\"https://arxiv.org/abs/1506.03134\">Pointer Networks\n",
    "</a></p>\n",
    "<p>The model solves the problem of variable size output dictionaries using a recently proposed mechanism of neural attention. It differs from the previous attention attempts in that, instead of using attention to blend hidden units of an encoder to a context vector at each decoder step, it uses attention as a pointer to select a member of the input sequence as the output.</p>\n",
    "<img src=\"./imgs/Снимок экрана 2017-12-26 в 4.30.58 ДП.png\">"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 30,
   "metadata": {
    "collapsed": true
   },
   "outputs": [],
   "source": [
    "class PointerNet(nn.Module):\n",
    "    def __init__(self, \n",
    "            embedding_size,\n",
    "            hidden_size,\n",
    "            seq_len,\n",
    "            n_glimpses,\n",
    "            tanh_exploration,\n",
    "            use_tanh,\n",
    "            use_cuda=USE_CUDA):\n",
    "        super(PointerNet, self).__init__()\n",
    "        \n",
    "        self.embedding_size = embedding_size\n",
    "        self.hidden_size    = hidden_size\n",
    "        self.n_glimpses     = n_glimpses\n",
    "        self.seq_len        = seq_len\n",
    "        self.use_cuda       = use_cuda\n",
    "        \n",
    "        \n",
    "        self.embedding = nn.Embedding(seq_len, embedding_size)\n",
    "        self.encoder = nn.LSTM(embedding_size, hidden_size, batch_first=True)\n",
    "        self.decoder = nn.LSTM(embedding_size, hidden_size, batch_first=True)\n",
    "        self.pointer = Attention(hidden_size, use_tanh=use_tanh, C=tanh_exploration, use_cuda=use_cuda)\n",
    "        self.glimpse = Attention(hidden_size, use_tanh=False, use_cuda=use_cuda)\n",
    "        \n",
    "        self.decoder_start_input = nn.Parameter(torch.FloatTensor(embedding_size))\n",
    "        self.decoder_start_input.data.uniform_(-(1. / math.sqrt(embedding_size)), 1. / math.sqrt(embedding_size))\n",
    "        \n",
    "        self.criterion = nn.CrossEntropyLoss()\n",
    "        \n",
    "    def apply_mask_to_logits(self, logits, mask, idxs): \n",
    "        batch_size = logits.size(0)\n",
    "        clone_mask = mask.clone()\n",
    "\n",
    "        if idxs is not None:\n",
    "            clone_mask[[i for i in range(batch_size)], idxs.data] = 1\n",
    "            logits[clone_mask] = -np.inf\n",
    "        return logits, clone_mask\n",
    "            \n",
    "    def forward(self, inputs, target):\n",
    "        \"\"\"\n",
    "        Args: \n",
    "            inputs: [batch_size x sourceL]\n",
    "        \"\"\"\n",
    "        batch_size = inputs.size(0)\n",
    "        seq_len    = inputs.size(1)\n",
    "        assert seq_len == self.seq_len\n",
    "        \n",
    "        embedded = self.embedding(inputs)\n",
    "        target_embedded = self.embedding(target)\n",
    "        encoder_outputs, (hidden, context) = self.encoder(embedded)\n",
    "        \n",
    "        mask = torch.zeros(batch_size, seq_len).byte()\n",
    "        if self.use_cuda:\n",
    "            mask = mask.cuda()\n",
    "            \n",
    "        idxs = None\n",
    "       \n",
    "        decoder_input = self.decoder_start_input.unsqueeze(0).repeat(batch_size, 1)\n",
    "        \n",
    "        loss = 0\n",
    "        \n",
    "        for i in range(seq_len):\n",
    "            \n",
    "            \n",
    "            _, (hidden, context) = self.decoder(decoder_input.unsqueeze(1), (hidden, context))\n",
    "            \n",
    "            query = hidden.squeeze(0)\n",
    "            for i in range(self.n_glimpses):\n",
    "                ref, logits = self.glimpse(query, encoder_outputs)\n",
    "                logits, mask = self.apply_mask_to_logits(logits, mask, idxs)\n",
    "                query = torch.bmm(ref, F.softmax(logits).unsqueeze(2)).squeeze(2) \n",
    "                \n",
    "                \n",
    "            _, logits = self.pointer(query, encoder_outputs)\n",
    "            logits, mask = self.apply_mask_to_logits(logits, mask, idxs)\n",
    "            \n",
    "            decoder_input = target_embedded[:,i,:]\n",
    "            \n",
    "            loss += self.criterion(logits, target[:,i])\n",
    "            \n",
    "            \n",
    "        return loss / seq_len"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 31,
   "metadata": {
    "collapsed": false
   },
   "outputs": [],
   "source": [
    "pointer = PointerNet(embedding_size=32, hidden_size=32, seq_len=10, n_glimpses=1, tanh_exploration=10, use_tanh=True)\n",
    "adam = optim.Adam(pointer.parameters(), lr=1e-4)\n",
    "\n",
    "if USE_CUDA:\n",
    "    pointer = pointer.cuda()"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 32,
   "metadata": {
    "collapsed": false
   },
   "outputs": [],
   "source": [
    "train_loader = DataLoader(train_dataset, batch_size=1, shuffle=True, num_workers=1)\n",
    "val_loader   = DataLoader(val_dataset, batch_size=1, shuffle=True, num_workers=1)"
   ]
  },
  {
   "cell_type": "markdown",
   "metadata": {},
   "source": [
    "<h3>Train and Validate</h3>"
   ]
  },
  {
   "cell_type": "code",
   "execution_count": 33,
   "metadata": {
    "collapsed": false,
    "scrolled": false
   },
   "outputs": [
    {
     "data": {
      "image/png": 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DgfU/wMueb5di2wPwbnoe4v++3gNqM31GeMNitgv8/DfwF2CMv/44vBtyD/DfH4h3j8Jn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\nLYTGlvaEm8KCwf4Hn2ymtaM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2nt98+aBerpGISHacc5sCr580s9+a2Wjn3JqQsnr4YhYa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\nQZdtx7OLyC4s0d+LH184l0g1HqFSdGxqibdsEBbMJV0sS7i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ut+06kcvEd35jm8EK7oDn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\nEARBEAKU/wc96ASxxhbKmwAAAABJRU5ErkJggg==\n",
      "text/plain": [
       "<matplotlib.figure.Figure at 0x7fa651cb9c90>"
      ]
     },
     "metadata": {},
     "output_type": "display_data"
    }
   ],
   "source": [
    "n_epochs = 1\n",
    "train_loss = []\n",
    "val_loss   = []\n",
    "\n",
    "for epoch in range(n_epochs):\n",
    "    for batch_id, sample_batch in enumerate(train_loader):\n",
    "\n",
    "        inputs = Variable(sample_batch)\n",
    "        target = Variable(torch.sort(sample_batch)[0])\n",
    "        if USE_CUDA:\n",
    "            inputs = inputs.cuda()\n",
    "            target = target.cuda()\n",
    "\n",
    "        loss = pointer(inputs, target)\n",
    "\n",
    "        adam.zero_grad()\n",
    "        loss.backward()\n",
    "        adam.step()\n",
    "        \n",
    "        train_loss.append(loss.data[0])\n",
    "\n",
    "        if batch_id % 10 == 0:\n",
    "\n",
    "            clear_output(True)\n",
    "            plt.figure(figsize=(20,5))\n",
    "            plt.subplot(131)\n",
    "            plt.title('train epoch %s loss %s' % (epoch, train_loss[-1] if len(train_loss) else 'collecting'))\n",
    "            plt.plot(train_loss)\n",
    "            plt.grid()\n",
    "            plt.subplot(132)\n",
    "            plt.title('val epoch %s loss %s' % (epoch, val_loss[-1] if len(val_loss) else 'collecting'))\n",
    "            plt.plot(val_loss)\n",
    "            plt.grid()\n",
    "            plt.show()\n",
    "        \n",
    "        if batch_id % 100 == 0:\n",
    "            pointer.eval()\n",
    "            for val_batch in val_loader:\n",
    "                inputs = Variable(val_batch)\n",
    "                target = Variable(torch.sort(val_batch)[0])\n",
    "                if USE_CUDA:\n",
    "                    inputs = inputs.cuda()\n",
    "                    target = target.cuda()\n",
    "\n",
    "                loss = pointer(inputs, target)\n",
    "                val_loss.append(loss.data[0])"
   ]
  }
 ],
 "metadata": {
  "kernelspec": {
   "display_name": "Python 2",
   "language": "python",
   "name": "python2"
  },
  "language_info": {
   "codemirror_mode": {
    "name": "ipython",
    "version": 2
   },
   "file_extension": ".py",
   "mimetype": "text/x-python",
   "name": "python",
   "nbconvert_exporter": "python",
   "pygments_lexer": "ipython2",
   "version": "2.7.13"
  }
 },
 "nbformat": 4,
 "nbformat_minor": 2
}