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How to use detach method in Playwright Python

Best Python code snippet using playwright-python

TestSuite_hotplug_mp.py

Source:TestSuite_hotplug_mp.py

...66            if flg_exist == 1:67                self.verify(dev in out, "Fail that don't have the device!")68            if flg_exist == 0:69                self.verify(dev not in out, "Fail that have the device!")70    def attach_detach(self, process="pri", is_dev=1, opt_plug="plugin", flg_loop=0, dev="0000:00:00.0"):71        """72        Attach or detach physical/virtual device from primary/secondary73        process.74        process: define primary or secondary process.75        is_dev: define physical device as 1, virtual device as 0.76        opt_plug: define plug options as below77                  plugin: plug in device78                  plugout: plug out device79                  hotplug: plug in then plug out device from primary or80                           secondary process81                  crossplug: plug in from primary process then plug out from82                             secondary process, or plug in from secondary83                             process then plug out from primary84        flg_loop: define loop test flag85        dev: define physical device PCI "0000:00:00.0" or virtual device86             "net_af_packet"87        """88        if opt_plug == "plugin":89            self.verify_devlist(dev, flg_exist=0)90            for i in range(test_loop):91                if process == "pri":92                    if is_dev == 0:93                        self.session_pri.send_expect(94                            "attach %s,iface=%s"95                            % (dev, self.intf0), "example>", 100)96                    else:97                        self.session_pri.send_expect(98                            "attach %s" % dev, "example>", 100)99                if process == "sec":100                    if is_dev == 0:101                        self.session_sec_1.send_expect(102                            "attach %s,iface=%s"103                            % (dev, self.intf0), "example>", 100)104                    else:105                        self.session_sec_1.send_expect(106                            "attach %s" % dev, "example>", 100)107                if flg_loop == 0:108                    break109            self.verify_devlist(dev, flg_exist=1)110        if opt_plug == "plugout":111            self.verify_devlist(dev, flg_exist=1)112            for i in range(test_loop):113                if process == "pri":114                    self.session_pri.send_expect(115                        "detach %s" % dev, "example>", 100)116                if process == "sec":117                    self.session_sec_1.send_expect(118                        "detach %s" % dev, "example>", 100)119                if flg_loop == 0:120                    break121            self.verify_devlist(dev, flg_exist=0)122    def attach_detach_dev(self, process="pri", opt_plug="plugin", flg_loop=0, dev="0000:00:00.0"):123        """124        Attach or detach physical device from primary/secondary process.125        """126        # Scan port status when example setup, list ports that have been127        #  bound to pmd128        if opt_plug in ["plugin", "hotplug", "crossplug"]:129            self.multi_process_setup()130            self.dut.bind_interfaces_linux(self.drivername)131        elif opt_plug == "plugout":132            self.dut.bind_interfaces_linux(self.drivername)133            self.multi_process_setup()134        if opt_plug in ["plugin", "plugout"]:135            self.attach_detach(process, 1, opt_plug, flg_loop, dev)136        elif opt_plug in ["hotplug", "crossplug"]:137            for i in range(test_loop):138                self.attach_detach(process, 1, "plugin", flg_loop, dev)139                if opt_plug == "crossplug":140                    if process == "pri":141                        cross_proc = "sec"142                    elif process == "sec":143                        cross_proc = "pri"144                    self.attach_detach(cross_proc, 1, "plugout", flg_loop, dev)145                else:146                    self.attach_detach(process, 1, "plugout", flg_loop, dev)147        self.multi_process_quit()148        self.dut.bind_interfaces_linux(self.kdriver)149    def attach_detach_vdev(self, process="pri", opt_plug="plugin", flg_loop=0, dev="net_af_packet"):150        """151        Attach or detach virtual device from primary/secondary process.152        Check port interface is at link up status before hotplug test.153        If link not up, may have below error:154        rte_pmd_init_internals(): net_af_packet: ioctl failed (SIOCGIFINDEX)155        EAL: Driver cannot attach the device (net_af_packet)156        """157        self.dut.send_expect("ifconfig %s up" % self.intf0, "#")158        time.sleep(5)159        out = self.dut.send_expect("ethtool %s" % self.intf0, "#")160        self.verify("Link detected: yes" in out, "Wrong link status")161        self.multi_process_setup()162        for i in range(test_loop):163            self.attach_detach(process, 0, "plugin", flg_loop, dev)164            if opt_plug in ["plugout", "hotplug", "crossplug"]:165                if opt_plug == "crossplug":166                    if process == "pri":167                        cross_proc = "sec"168                    elif process == "sec":169                        cross_proc = "pri"170                    self.attach_detach(cross_proc, 0, "plugout", flg_loop, dev)171                else:172                    self.attach_detach(process, 0, "plugout", flg_loop, dev)173            if opt_plug == "plugin" or opt_plug == "plugout":174                break175        self.multi_process_quit()176    def test_attach_dev_primary(self):177        """178        Attach physical device from primary.179        """180        self.attach_detach_dev("pri", "plugin", 0, self.pci0)181    def test_attach_dev_secondary(self):182        """183        Attach physical device from secondary.184        """185        self.attach_detach_dev("sec", "plugin", 0, self.pci0)186    def test_detach_dev_primary(self):...

losser.py

Source:losser.py

...29#30#             total_loss += F.nll_loss(multi_predict_log_soft_max, multi_label)31#32#33#         binary_predict_detach = F.softmax(binary_predict.detach(),dim=1)34#         multi_predict_detach = F.softmax(multi_predict.detach(),dim=1)35#36#         accuracy_ratio = self.calculate_recall_precision(binary_predict_detach, binary_label)37#38#         return total_loss, accuracy_ratio39#40#     def calculate_recall_precision(self, predict_detach, label):41#42#         predict_detach_argmax = torch.argmax(predict_detach, dim=1).long()43#44#         accuracy_number = torch.sum(predict_detach_argmax == label)45#46#         accuracy_ratio = accuracy_number/len(predict_detach)47#48#         return accuracy_ratio49# class Loss(nn.Module):50#51#     def __init__(self, args):52#53#         super(Loss, self).__init__()54#55#         self.args = args56#         self.calculate_multi_label_loss = self.args.calculate_multi_label_loss57#58#     def forward(self, binary_predict, multi_predict, multi_label, train=True):59#60#61#         # binary_predict_log_soft_max = F.log_softmax(binary_predict, dim=1)62#         multi_predict_log_soft_max = F.log_softmax(multi_predict, dim=1)63#64#         binary_predict_soft_max = F.softmax(binary_predict, dim=1)65#         binary_predict_log_soft_max = torch.log(binary_predict_soft_max)66#67#         binary_predict_log_soft_max = binary_predict_log_soft_max.view(binary_predict_log_soft_max.size(0), -1)68#         multi_predict_log_soft_max = multi_predict_log_soft_max.view(multi_predict_log_soft_max.size(0),-1)69#         multi_label   = multi_label.view(-1)70#71#         binary_label = torch.where(multi_label > 0, torch.full_like(multi_label, 1), multi_label).long()72#73#         weight = binary_predict_soft_max74#75#         weight[:, 0] = torch.pow(weight[:,0],2.0)76#         weight[:, 1] = torch.pow(1- weight[:, 1], 2.0)77#78#         binary_predict_log_soft_max  = binary_predict_log_soft_max * weight79#80#         total_loss = F.nll_loss(binary_predict_log_soft_max, binary_label)81#82#         if self.calculate_multi_label_loss == True:83#84#             total_loss += F.nll_loss(multi_predict_log_soft_max, multi_label)85#86#87#         binary_predict_detach = F.softmax(binary_predict.detach(),dim=1)88#         multi_predict_detach = F.softmax(multi_predict.detach(),dim=1)89#90#         binary_accuracy_ratio = self.calculate_recall_precision(binary_predict_detach, binary_label)91#92#         # print("**********************************************************************")93#         # print("label ", binary_label)94#         # print("pre " , binary_predict_detach)95#         # print("precision", binary_accuracy_ratio)96#         # print("loss ", total_loss)97#98#         return total_loss, binary_accuracy_ratio99#100#     def calculate_recall_precision(self, predict_detach, label):101#102#         predict_detach_argmax = torch.argmax(predict_detach, dim=1).long()103#104#         accuracy_number = torch.sum(predict_detach_argmax == label)105#106#         positive_accuracy =  torch.sum((predict_detach_argmax == 1)*(label==1))107#         negative_accuracy =  torch.sum((predict_detach_argmax == 0)*(label==0))108#109#         positive_accuracy_number = torch.sum(label)110#         negative_accuracy_number = len(label) - positive_accuracy_number111#112#         if positive_accuracy_number != 0:113#114#             positive_accuracy = positive_accuracy.float() / positive_accuracy_number115#116#         else:117#118#             positive_accuracy = torch.from_numpy(np.array([np.nan],dtype=np.float32)).cuda()[0]119#120#121#         if negative_accuracy_number != 0:122#123#             negative_accuracy = negative_accuracy.float() / negative_accuracy_number124#125#         else:126#127#             negative_accuracy = torch.from_numpy(np.array([np.nan],dtype=np.float32)).cuda()[0]128#129#130#         accuracy_ratio = accuracy_number.float()/len(predict_detach)131#132#         return accuracy_ratio, positive_accuracy, negative_accuracy133class Loss(nn.Module):134    def __init__(self, args):135        super(Loss, self).__init__()136        self.args = args137        self.calculate_multi_label_loss = self.args.calculate_multi_label_loss138    def forward(self, binary_predict, multi_predict, multi_label, train=True, binary_out2=None):139        #print(multi_label.cpu().numpy())140        binary_predict_soft_max = F.softmax(binary_predict, dim=1)141        binary_predict_log_soft_max = torch.log(binary_predict_soft_max)142        binary_predict_log_soft_max = binary_predict_log_soft_max.view(binary_predict_log_soft_max.size(0), -1)143        binary_label = torch.sum(multi_label, dim=1).long()144        weight = torch.pow(1 - binary_predict_soft_max, 2.0)145        binary_loss = F.nll_loss(binary_predict_log_soft_max, binary_label)146        binary_predict_detach = binary_predict_soft_max.detach()147        binary_accuracy_ratio = self.calculate_recall_precision(binary_predict_detach, binary_label)148        wrong_index = self.calculate_wrong_crop_image(binary_predict_detach, binary_label)149        '''150        multi_predict_p = F.sigmoid(multi_predict)151        multi_predict_detach = multi_predict_p.detach()152        multi_predict_p = torch.transpose(multi_predict_p, 0, 1)153        multi_predict_p_r = (torch.max(multi_predict_p, dim=0, keepdim=True)[0] - 0.00001) * torch.ones_like(multi_predict_p)154        multi_predict_p = torch.stack([multi_predict_p_r, multi_predict_p], dim=-1)155        multi_label_T = torch.transpose(multi_label, 0, 1)156        multi_loss = - 5 * F.logsigmoid(multi_predict) * multi_label.float() + (- F.logsigmoid(-multi_predict) * (1 - multi_label.float()))157        total_loss = torch.sum(multi_loss) / multi_loss.shape[0]  #+ binary_loss158        '''159        multi_predict_p = F.softmax(multi_predict, dim=1)160        multi_predict_detach = multi_predict_p.detach()161        multi_predict_p = torch.transpose(multi_predict_p, 0, 1)162        multi_predict_p = torch.stack([1 - multi_predict_p, multi_predict_p], dim=-1)163        multi_label_T = torch.transpose(multi_label, 0, 1)164        multiple_loss = F.nll_loss(F.log_softmax(multi_predict, dim=1), torch.argmax(multi_label, dim=1), reduction='none')165        multiple_loss = torch.sum(multiple_loss * binary_label.float()) / (torch.sum(binary_label.float()) + 1e-4)166        multi_accuracy_ratio = []167        for multi_predict_p_x, multi_label_T_x in zip(multi_predict_p, multi_label_T):168            multi_accuracy_ratio.append(self.calculate_recall_precision(multi_predict_p_x, multi_label_T_x))169        total_loss = multiple_loss170        return total_loss, [binary_accuracy_ratio] + multi_accuracy_ratio, wrong_index, multi_predict_detach171    def calculate_wrong_crop_image(self, binary_predict_detach, binary_label):172        predict_detach_argmax = torch.argmax(binary_predict_detach, dim=1).long()173        wrong_index = (predict_detach_argmax != binary_label)174        return wrong_index...

IQAloss.py

Source:IQAloss.py

...44def monotonicity_regularization(y_pred, y, detach=False):45    """monotonicity regularization"""46    if y_pred.size(0) > 1:  #47        ranking_loss = F.relu((y_pred-y_pred.t()) * torch.sign((y.t()-y)))48        scale = 1 + torch.max(ranking_loss.detach()) if detach else 1 + torch.max(ranking_loss)49        return torch.sum(ranking_loss) / y_pred.size(0) / (y_pred.size(0)-1) / scale50    else:51        return F.l1_loss(y_pred, y_pred.detach())  # 0 for batch with single sample.52def linearity_induced_loss(y_pred, y, alpha=[1, 1], detach=False):53    """linearity-induced loss, actually MSE loss with z-score normalization"""54    if y_pred.size(0) > 1:  # z-score normalization: (x-m(x))/sigma(x).55        sigma_hat, m_hat = torch.std_mean(y_pred.detach(), unbiased=False) if detach else torch.std_mean(y_pred, unbiased=False)56        y_pred = (y_pred - m_hat) / (sigma_hat + eps)57        sigma, m = torch.std_mean(y, unbiased=False)58        y = (y - m) / (sigma + eps)59        scale = 460        loss0, loss1 = 0, 061        if alpha[0] > 0:62            loss0 = F.mse_loss(y_pred, y) / scale  # ~ 1 - rho, rho is PLCC63        if alpha[1] > 0:64            rho = torch.mean(y_pred * y)65            loss1 = F.mse_loss(rho * y_pred, y) / scale  # 1 - rho ** 2 = 1 - R^2, R^2 is Coefficient of determination66        # loss0 =  (1 - torch.cosine_similarity(y_pred.t() - torch.mean(y_pred), y.t() - torch.mean(y))[0]) / 267        # yp = y_pred.detach() if detach else y_pred68        # ones = torch.ones_like(yp.detach())69        # yp1 = torch.cat((yp, ones), dim=1)70        # h = torch.mm(torch.inverse(torch.mm(yp1.t(), yp1)), torch.mm(yp1.t(), y))71        # err = torch.pow(torch.mm(torch.cat((y_pred, ones), dim=1), h) - y, 2)  #72        # normalization = 1 + torch.max(err.detach()) if detach else 1 + torch.max(err)73        # loss1 = torch.mean(err) / normalization74        return (alpha[0] * loss0 + alpha[1] * loss1) / (alpha[0] + alpha[1])75    else:76        return F.l1_loss(y_pred, y_pred.detach())  # 0 for batch with single sample.77def norm_loss_with_normalization(y_pred, y, alpha=[1, 1], p=2, q=2, detach=False, exponent=True):78    """norm_loss_with_normalization: norm-in-norm"""79    N = y_pred.size(0)80    if N > 1:  81        m_hat = torch.mean(y_pred.detach()) if detach else torch.mean(y_pred)82        y_pred = y_pred - m_hat  # very important!!83        normalization = torch.norm(y_pred.detach(), p=q) if detach else torch.norm(y_pred, p=q)  # Actually, z-score normalization is related to q = 2.84        # print('bhat = {}'.format(normalization.item()))85        y_pred = y_pred / (eps + normalization)  # very important!86        y = y - torch.mean(y)87        y = y / (eps + torch.norm(y, p=q))88        scale = np.power(2, max(1,1./q)) * np.power(N, max(0,1./p-1./q)) # p, q>089        loss0, loss1 = 0, 090        if alpha[0] > 0:91            err = y_pred - y92            if p < 1:  # avoid gradient explosion when 0<=p<1; and avoid vanishing gradient problem when p < 093                err += eps 94            loss0 = torch.norm(err, p=p) / scale  # Actually, p=q=2 is related to PLCC95            loss0 = torch.pow(loss0, p) if exponent else loss0 #96        if alpha[1] > 0:97            rho =  torch.cosine_similarity(y_pred.t(), y.t())  #  98            err = rho * y_pred - y99            if p < 1:  # avoid gradient explosion when 0<=p<1; and avoid vanishing gradient problem when p < 0100                err += eps 101            loss1 = torch.norm(err, p=p) / scale  # Actually, p=q=2 is related to LSR102            loss1 = torch.pow(loss1, p) if exponent else loss1 #  #  103        # by = normalization.detach()104        # e0 = err.detach().view(-1)105        # ones = torch.ones_like(e0)106        # yhat = y_pred.detach().view(-1)107        # g0 = torch.norm(e0, p=p) / torch.pow(torch.norm(e0, p=p) + eps, p) * torch.pow(torch.abs(e0), p-1) * e0 / (torch.abs(e0) + eps)108        # ga = -ones / N * torch.dot(g0, ones)109        # gg0 = torch.dot(g0, g0)110        # gga = torch.dot(g0+ga, g0+ga)111        # print("by: {} without a and b: {} with a: {}".format(normalization, gg0, gga))112        # gb = -torch.pow(torch.abs(yhat), q-1) * yhat / (torch.abs(yhat) + eps) * torch.dot(g0, yhat)113        # gab = torch.dot(ones, torch.pow(torch.abs(yhat), q-1) * yhat / (torch.abs(yhat) + eps)) / N * torch.dot(g0, yhat)114        # ggb = torch.dot(g0+gb, g0+gb)115        # ggab = torch.dot(g0+ga+gb+gab, g0+ga+gb+gab)116        # print("by: {} without a and b: {} with a: {} with b: {} with a and b: {}".format(normalization, gg0, gga, ggb, ggab))117        return (alpha[0] * loss0 + alpha[1] * loss1) / (alpha[0] + alpha[1])118    else:119        return F.l1_loss(y_pred, y_pred.detach())  # 0 for batch with single sample.120def norm_loss_with_min_max_normalization(y_pred, y, alpha=[1, 1], detach=False):121    if y_pred.size(0) > 1:  122        m_hat = torch.min(y_pred.detach()) if detach else torch.min(y_pred)123        M_hat = torch.max(y_pred.detach()) if detach else torch.max(y_pred)124        y_pred = (y_pred - m_hat) / (eps + M_hat - m_hat)  # min-max normalization125        y = (y - torch.min(y)) / (eps + torch.max(y) - torch.min(y))126        loss0, loss1 = 0, 0127        if alpha[0] > 0:128            loss0 = F.mse_loss(y_pred, y)129        if alpha[1] > 0:130            rho =  torch.cosine_similarity(y_pred.t(), y.t())  #131            loss1 = F.mse_loss(rho * y_pred, y) 132        return (alpha[0] * loss0 + alpha[1] * loss1) / (alpha[0] + alpha[1])133    else:134        return F.l1_loss(y_pred, y_pred.detach())  # 0 for batch with single sample.135def norm_loss_with_mean_normalization(y_pred, y, alpha=[1, 1], detach=False):136    if y_pred.size(0) > 1:  137        mean_hat = torch.mean(y_pred.detach()) if detach else torch.mean(y_pred)138        m_hat = torch.min(y_pred.detach()) if detach else torch.min(y_pred)139        M_hat = torch.max(y_pred.detach()) if detach else torch.max(y_pred)140        y_pred = (y_pred - mean_hat) / (eps + M_hat - m_hat)  # mean normalization141        y = (y - torch.mean(y)) / (eps + torch.max(y) - torch.min(y))142        loss0, loss1 = 0, 0143        if alpha[0] > 0:144            loss0 = F.mse_loss(y_pred, y) / 4145        if alpha[1] > 0:146            rho =  torch.cosine_similarity(y_pred.t(), y.t())  #147            loss1 = F.mse_loss(rho * y_pred, y) / 4148        return (alpha[0] * loss0 + alpha[1] * loss1) / (alpha[0] + alpha[1])149    else:150        return F.l1_loss(y_pred, y_pred.detach())  # 0 for batch with single sample.151def norm_loss_with_scaling(y_pred, y, alpha=[1, 1], p=2, detach=False):152    if y_pred.size(0) > 1:  153        normalization = torch.norm(y_pred.detach(), p=p) if detach else torch.norm(y_pred, p=p) 154        y_pred = y_pred / (eps + normalization)  # mean normalization155        y = y / (eps + torch.norm(y, p=p))156        loss0, loss1 = 0, 0157        if alpha[0] > 0:158            loss0 = F.mse_loss(y_pred, y) / 4159        if alpha[1] > 0:160            rho =  torch.cosine_similarity(y_pred.t(), y.t())  #161            loss1 = F.mse_loss(rho * y_pred, y) / 4162        return (alpha[0] * loss0 + alpha[1] * loss1) / (alpha[0] + alpha[1])163    else:...

plotter.py

Source:plotter.py

...60    fig, axs = plt.subplots(2, 2)61    fig.set_size_inches(12, 10)62    fig.suptitle(sTitle + ', inv err {:.2e}'.format(invErr))63    # hist, xbins, ybins, im = axs[0, 0].hist2d(x.numpy()[:,0],x.numpy()[:,1], range=[[LOW, HIGH], [LOW, HIGH]], bins = nBins)64    im1 , _, _, map1 = axs[0, 0].hist2d(x.detach().cpu().numpy()[:, d1], x.detach().cpu().numpy()[:, d2], range=[[LOWX, HIGHX], [LOWY, HIGHY]], bins=nBins)65    axs[0, 0].set_title('x from rho_0')66    im2 , _, _, map2 = axs[0, 1].hist2d(fx.detach().cpu().numpy()[:, d1], fx.detach().cpu().numpy()[:, d2], range=[[-4, 4], [-4, 4]], bins = nBins)67    axs[0, 1].set_title('f(x)')68    im3 , _, _, map3 = axs[1, 0].hist2d(finvfx.detach().cpu().numpy()[: ,d1] ,finvfx.detach().cpu().numpy()[: ,d2], range=[[LOWX, HIGHX], [LOWY, HIGHY]], bins = nBins)69    axs[1, 0].set_title('finv( f(x) )')70    im4 , _, _, map4 = axs[1, 1].hist2d(genModel.detach().cpu().numpy()[:, d1], genModel.detach().cpu().numpy()[:, d2], range=[[LOWX, HIGHX], [LOWY, HIGHY]], bins = nBins)71    axs[1, 1].set_title('finv( y from rho1 )')72    fig.colorbar(map1, cax=fig.add_axes([0.47, 0.53, 0.02, 0.35]) )73    fig.colorbar(map2, cax=fig.add_axes([0.89, 0.53, 0.02, 0.35]) )74    fig.colorbar(map3, cax=fig.add_axes([0.47, 0.11, 0.02, 0.35]) )75    fig.colorbar(map4, cax=fig.add_axes([0.89, 0.11, 0.02, 0.35]) )76    # plot paths77    if doPaths:78        forwPath = integrate(x[:, 0:d], net, [0.0, 1.0], nt_val, stepper="rk4", alph=net.alph, intermediates=True)79        backPath = integrate(fx[:, 0:d], net, [1.0, 0.0], nt_val, stepper="rk4", alph=net.alph, intermediates=True)80        # plot the forward and inverse trajectories of several points; white is forward, red is inverse81        nPts = 1082        pts = np.unique(np.random.randint(nSamples, size=nPts))83        for pt in pts:84            axs[0, 0].plot(forwPath[pt, 0, :].detach().cpu().numpy(), forwPath[pt, 1, :].detach().cpu().numpy(), color='white', linewidth=4)85            axs[0, 0].plot(backPath[pt, 0, :].detach().cpu().numpy(), backPath[pt, 1, :].detach().cpu().numpy(), color='red', linewidth=2)86    for i in range(axs.shape[0]):87        for j in range(axs.shape[1]):88            # axs[i, j].get_yaxis().set_visible(False)89            # axs[i, j].get_xaxis().set_visible(False)90            axs[i ,j].set_aspect('equal')91    # sPath = os.path.join(args.save, 'figs', sStartTime + '_{:04d}.png'.format(itr))92    if not os.path.exists(os.path.dirname(sPath)):93        os.makedirs(os.path.dirname(sPath))94    plt.savefig(sPath, dpi=300)95    plt.close()96def plotAutoEnc(x, xRecreate, sPath):97    # assume square image98    s = int(math.sqrt(x.shape[1]))99    nex = 8100    fig, axs = plt.subplots(4, nex//2)101    fig.set_size_inches(9, 9)102    fig.suptitle("first 2 rows originals. Rows 3 and 4 are generations.")103    for i in range(nex//2):104        axs[0, i].imshow(x[i,:].reshape(s,s).detach().cpu().numpy())105        axs[1, i].imshow(x[ nex//2 + i , : ].reshape(s,s).detach().cpu().numpy())106        axs[2, i].imshow(xRecreate[i,:].reshape(s,s).detach().cpu().numpy())107        axs[3, i].imshow(xRecreate[ nex//2 + i , : ].reshape(s, s).detach().cpu().numpy())108    for i in range(axs.shape[0]):109        for j in range(axs.shape[1]):110            axs[i, j].get_yaxis().set_visible(False)111            axs[i, j].get_xaxis().set_visible(False)112            axs[i ,j].set_aspect('equal')113    plt.subplots_adjust(wspace=0.0, hspace=0.0)114    if not os.path.exists(os.path.dirname(sPath)):115        os.makedirs(os.path.dirname(sPath))116    plt.savefig(sPath, dpi=300)117    plt.close()118def plotAutoEnc3D(x, xRecreate, sPath):119    nex = 8120    fig, axs = plt.subplots(4, nex//2)121    fig.set_size_inches(9, 9)122    fig.suptitle("first 2 rows originals. Rows 3 and 4 are generations.")123    for i in range(nex//2):124        axs[0, i].imshow(x[i,:].permute(1,2,0).detach().cpu().numpy())125        axs[1, i].imshow(x[ nex//2 + i , : ].permute(1,2,0).detach().cpu().numpy())126        axs[2, i].imshow(xRecreate[i,:].permute(1,2,0).detach().cpu().numpy())127        axs[3, i].imshow(xRecreate[ nex//2 + i , : ].permute(1,2,0).detach().cpu().numpy())128    for i in range(axs.shape[0]):129        for j in range(axs.shape[1]):130            axs[i, j].get_yaxis().set_visible(False)131            axs[i, j].get_xaxis().set_visible(False)132            axs[i ,j].set_aspect('equal')133    plt.subplots_adjust(wspace=0.0, hspace=0.0)134    if not os.path.exists(os.path.dirname(sPath)):135        os.makedirs(os.path.dirname(sPath))136    plt.savefig(sPath, dpi=300)137    plt.close()138def plotImageGen(x, xRecreate, sPath):139    # assume square image140    s = int(math.sqrt(x.shape[1]))141    nex = 80142    nCols = nex//5143    fig, axs = plt.subplots(7, nCols)144    fig.set_size_inches(16, 7)145    fig.suptitle("first 2 rows originals. Rows 3 and 4 are generations.")146    for i in range(nCols):147        axs[0, i].imshow(x[i,:].reshape(s,s).detach().cpu().numpy())148        # axs[1, i].imshow(x[ nex//3 + i , : ].reshape(s,s).detach().cpu().numpy())149        # axs[2, i].imshow(x[ 2*nex//3 + i , : ].reshape(s,s).detach().cpu().numpy())150        axs[2, i].imshow(xRecreate[i,:].reshape(s,s).detach().cpu().numpy())151        axs[3, i].imshow(xRecreate[nCols + i,:].reshape(s,s).detach().cpu().numpy())152        153        axs[4, i].imshow(xRecreate[2*nCols + i,:].reshape(s,s).detach().cpu().numpy())154        axs[5, i].imshow(xRecreate[3*nCols + i , : ].reshape(s, s).detach().cpu().numpy())155        axs[6, i].imshow(xRecreate[4*nCols + i , : ].reshape(s, s).detach().cpu().numpy())156    for i in range(axs.shape[0]):157        for j in range(axs.shape[1]):158            axs[i, j].get_yaxis().set_visible(False)159            axs[i, j].get_xaxis().set_visible(False)160            axs[i ,j].set_aspect('equal')161    plt.subplots_adjust(wspace=0.0, hspace=0.0)162    if not os.path.exists(os.path.dirname(sPath)):163        os.makedirs(os.path.dirname(sPath))164    plt.savefig(sPath, dpi=300)165    plt.close()166def plot4mnist(x, sPath, sTitle=""):167    """168    x - tensor (>4, 28,28)169    """170    fig, axs = plt.subplots(2, 2)171    fig.set_size_inches(12, 10)172    fig.suptitle(sTitle)173    im1 = axs[0, 0].imshow(x[0,:,:].detach().cpu().numpy())174    im2 = axs[0, 1].imshow(x[1,:,:].detach().cpu().numpy())175    im3 = axs[1, 0].imshow(x[2,:,:].detach().cpu().numpy())176    im4 = axs[1, 1].imshow(x[3,:,:].detach().cpu().numpy())177    fig.colorbar(im1, cax=fig.add_axes([0.47, 0.53, 0.02, 0.35]) )178    fig.colorbar(im2, cax=fig.add_axes([0.89, 0.53, 0.02, 0.35]) )179    fig.colorbar(im3, cax=fig.add_axes([0.47, 0.11, 0.02, 0.35]) )180    fig.colorbar(im4, cax=fig.add_axes([0.89, 0.11, 0.02, 0.35]) )181    for i in range(axs.shape[0]):182        for j in range(axs.shape[1]):183            axs[i, j].get_yaxis().set_visible(False)184            axs[i, j].get_xaxis().set_visible(False)185            axs[i ,j].set_aspect('equal')186    # sPath = os.path.join(args.save, 'figs', sStartTime + '_{:04d}.png'.format(itr))187    if not os.path.exists(os.path.dirname(sPath)):188        os.makedirs(os.path.dirname(sPath))189    plt.savefig(sPath, dpi=300)190    plt.close()

Playwright tutorial

LambdaTest’s Playwright tutorial will give you a broader idea about the Playwright automation framework, its unique features, and use cases with examples to exceed your understanding of Playwright testing. This tutorial will give A to Z guidance, from installing the Playwright framework to some best practices and advanced concepts.

Chapters:

What is Playwright : Playwright is comparatively new but has gained good popularity. Get to know some history of the Playwright with some interesting facts connected with it.
How To Install Playwright : Learn in detail about what basic configuration and dependencies are required for installing Playwright and run a test. Get a step-by-step direction for installing the Playwright automation framework.
Playwright Futuristic Features: Launched in 2020, Playwright gained huge popularity quickly because of some obliging features such as Playwright Test Generator and Inspector, Playwright Reporter, Playwright auto-waiting mechanism and etc. Read up on those features to master Playwright testing.
What is Component Testing: Component testing in Playwright is a unique feature that allows a tester to test a single component of a web application without integrating them with other elements. Learn how to perform Component testing on the Playwright automation framework.
Inputs And Buttons In Playwright: Every website has Input boxes and buttons; learn about testing inputs and buttons with different scenarios and examples.
Functions and Selectors in Playwright: Learn how to launch the Chromium browser with Playwright. Also, gain a better understanding of some important functions like “BrowserContext,” which allows you to run multiple browser sessions, and “newPage” which interacts with a page.
Handling Alerts and Dropdowns in Playwright : Playwright interact with different types of alerts and pop-ups, such as simple, confirmation, and prompt, and different types of dropdowns, such as single selector and multi-selector get your hands-on with handling alerts and dropdown in Playright testing.
Playwright vs Puppeteer: Get to know about the difference between two testing frameworks and how they are different than one another, which browsers they support, and what features they provide.
Run Playwright Tests on LambdaTest: Playwright testing with LambdaTest leverages test performance to the utmost. You can run multiple Playwright tests in Parallel with the LammbdaTest test cloud. Get a step-by-step guide to run your Playwright test on the LambdaTest platform.
Playwright Python Tutorial: Playwright automation framework support all major languages such as Python, JavaScript, TypeScript, .NET and etc. However, there are various advantages to Python end-to-end testing with Playwright because of its versatile utility. Get the hang of Playwright python testing with this chapter.
Playwright End To End Testing Tutorial: Get your hands on with Playwright end-to-end testing and learn to use some exciting features such as TraceViewer, Debugging, Networking, Component testing, Visual testing, and many more.
Playwright Video Tutorial: Watch the video tutorials on Playwright testing from experts and get a consecutive in-depth explanation of Playwright automation testing.