Technical Specification ● MISRA C++ and AUTOSAR ● Chair of Standards Council Canada TC22/SC32 Electrical and electronic components (SOTIF) ● Chair of UL4600 Object Tracking ● RISC-V Datacenter/Cloud Computing 0 75 33 69% These are the 2 most important guidelines today C++ CG: Meta + automated checkable rule • Follow Bjarne’s talk on type+resource Safety on C++ CG • Aim for bug free code with high performance google.com/document/d/14E0BYqsH_d7fMKvXvaZWoNWtIC65c YBw0aZp4dlev0Q/edit#heading=h.yt0hxah53p9e Rule decidability • Human review • Generally simple rules • Code snippets • Basic syntax matches intention

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical contacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical contacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical con­ tacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical contacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical con­ tacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical contacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical contacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition

so-called embedded devices. These are typically tiny units encased in black plastic with some electrical contacts. The devices can contain all necessary elements, i.e., the CPU, some RAM, and persistent charge, which is always a multiple of the elementary charge unit of a single electron. Whenever electrical current flows through a conductor such as a wire, an ionized gas, or an electrolyte like saltwater paper and the numbers were encoded through holes in the cards. The holes could be recognized by electrical contacts to feed the numbers into the CPU. Since plain numbers do not align well with human cognition