microcontrollers and often the microcontrollers can already communicate with each other by RF (Radio-Frequency), or access the Internet by WLAN, which is sometimes called the Internet of Things (IoT). Another sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may

microcontrollers and often the microcontrollers can already communicate with each other by RF (Radio-Frequency), or access the Internet by WLAN, which is sometimes called the Internet of Things (IoT). Another sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up

sub-tasks. Digital computers usually operate based on a clock signal that pulses at a certain frequency; the number of clock pulses per second is called the clock rate. The CPU can perform simple operations at least, and the runtime system reserves a block of RAM of the appropriate size. But when our estimation was too small, and we want to append or insert even more elements, then the runtime system may other tasks at the same time or could be in various power-saving states, with reduced CPU clock frequency, from which it takes some time to wake up. To take care of this, we try to execute some warm-up