the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI Allow access-control-allow-headers to be overridden (PR #3886) • Allow configuring max_body_size and max_buffer_size (PR #3829) • Allow configuring get_secure_cookie keyword-args (PR #3778) • Respect nbconvert

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI Allow access-control-allow-headers to be overridden (PR #3886) • Allow configuring max_body_size and max_buffer_size (PR #3829) • Allow configuring get_secure_cookie keyword-args (PR #3778) • Respect nbconvert

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI Allow access-control-allow-headers to be overridden (PR #3886) • Allow configuring max_body_size and max_buffer_size (PR #3829) • Allow configuring get_secure_cookie keyword-args (PR #3778) • Respect nbconvert

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI Allow access-control-allow-headers to be overridden (PR #3886) • Allow configuring max_body_size and max_buffer_size (PR #3829) • Allow configuring get_secure_cookie keyword-args (PR #3778) • Respect nbconvert

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI Allow access-control-allow-headers to be overridden (PR #3886) • Allow configuring max_body_size and max_buffer_size (PR #3829) • Allow configuring get_secure_cookie keyword-args (PR #3778) • Respect nbconvert

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI Allow access-control-allow-headers to be overridden (PR #3886) • Allow configuring max_body_size and max_buffer_size (PR #3829) • Allow configuring get_secure_cookie keyword-args (PR #3778) • Respect nbconvert

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI Allow access-control-allow-headers to be overridden (PR #3886) • Allow configuring max_body_size and max_buffer_size (PR #3829) • Allow configuring get_secure_cookie keyword-args (PR #3778) • Respect nbconvert

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with  Keep in mind that attached files will increase the size of your notebook. You can manually edit the attachment by using the View > Cell Toolbar > Attachment magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with  Keep in mind that attached files will increase the size of your notebook. You can manually edit the attachment by using the View > Cell Toolbar > Attachment magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI

the notebook to open a Qt console connected to the same kernel. See also: Decoupled two-process model 1.3 Notebook user interface When you create a new notebook document, you will be presented with  Keep in mind that attached files will increase the size of your notebook. You can manually edit the attachment by using the View > Cell Toolbar > Attachment magic. 3.9 Connecting to an existing IPython kernel using the Qt Console 3.9.1 The Frontend/Kernel Model The traditional IPython (ipython) consists of a single process that combines a terminal based UI