be improved if other tasks can be run while a file is being read, or while wai�ng for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communica�on tasks. • Each task handles all incoming messages

be improved if other tasks can be run while a file is being read, or while wai�ng for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communica�on tasks. • Each task handles all incoming messages

be improved if other tasks can be run while a file is being read, or while wai�ng for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communica�on tasks. • Each task handles all incoming messages

be improved if other tasks can be run while a file is being read, or while wai�ng for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communica�on tasks. • Each task handles all incoming messages

improved if other tasks can be run while a file is being read, or while waiting for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communication tasks. • Each task handles all incoming

be improved if other tasks can be run while a file is being read, or while wai�ng for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communica�on tasks. • Each task handles all incoming messages

improved if other tasks can be run while a file is being read, or while waiting for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communication tasks. • Each task handles all incoming

improved if other tasks can be run while a file is being read, or while waiting for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communication tasks. • Each task handles all incoming

improved if other tasks can be run while a file is being read, or while waiting for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communication tasks. • Each task handles all incoming

be improved if other tasks can be run while a file is being read, or while wai�ng for an external service/program to complete. A channel can be visualized as a pipe, i.e., it has a write end and a read • Each worker connects to all workers whose id is less than the worker's own id. • In this way a mesh network is established, wherein every worker is directly connected with every other worker. While workers it is connected to. For example, consider a Julia cluster of 32 processes in an all-to-all mesh network: • Each Julia process thus has 31 communica�on tasks. • Each task handles all incoming messages