A 2% sоlutiоn wаs mаde frоm а stock strength of 20%. How was it diluted?
The cоаt cоlоr in Lаbrаdor Retrievers is determined by two genes that are epistatic. Let the letters B and E represent these two genes. Each gene comes with two alleles. The B allele is dominant to the b allele, and the E allele is dominant to the e allele. To have black coat color, a dog must carry at least one dominant allele of each gene (the B and E alleles). Brown dogs lack the B allele (so they are homozygous for the b allele) and carry at least one dominant E allele. Homozygosity for the e allele results in yellow dogs, and it does not matter if yellow dogs have the B or b allele. When a black dog (BbEe) is crossed to a yellow dog (Bbee), what would be the expected ratio of coat color in their offspring?
Use yоur оwn mаteriаls tо do the following: For this prаctical, you will design a memory‑mapped 8‑bit output port for the µPAD using the data memory space and the EBI system within the ATxmega128A1U, a 82 ms timer, and utilize PortA pin 0 (PA[0]) as an input. Attach the OOTB Switch & LED Backpack for this practical. Additionally, you will [1] connect LED circuits to bits 7 through 0 of the created output port (OUT[7:0]), [2] create a continuous 164 +/-15ms periodic waveform (~82 ms low and ~82 ms high), [3] use Out[7] to output the continuous 164 ms periodic waveform, [4] only if PA[0] is one, use Out[0] to output the 164 ms periodic waveform. When PA[0] is zero set Out[0] to 0. Physically construct a memory-mapped 8-bit output port to be accessible only via the 8,192 (8k) consecutive data memory addresses starting at 0x9000. Utilize a subset of the following: a breadboard, a 74HC573 8-bit 3-state transparent latch, a 74HC574 8-bit 3-state D flip-flop, a programmable logic device (PLD), a dual-inline package (DIP) switch bank, a DIP LED bank, relevant resistor packages, the relevant OOTB components, as well as anything else appropriate. Write an assembly program to appropriately configure the EBI system for the above-mentioned context, to continually output the periodic waveform on Out[7]; also output the periodic waveform on Out[0] whenever PA[0] is true (Vcc). Note that CS0 is not available, since it is utilized by the SRAM on the OOTB Memory Base. Utilize a watch window to continuously display the register that you use to write to the output port. Add to the watch window so that it also continuously displays the value of PortA (PA[7:0]). To sufficiently demonstrate (for this practical) that the output port is enabled only for the relevant address range, before utilizing the input to determine whether to output the waveform on Out[7], write to the output port values using four different memory locations. These four memory locations (use this ordering) are [1] the address immediately before the start of the range (0x8FFF), [2] the first address within the relevant memory range (0x9000), and [3] the last address within the range, and [4] the address immediately following the end of the range. Put a breakpoint before the first write and following each of the four write instructions. Following the last write, complete the program requirements (using the last address within the range). You are expected to demonstrate the following to a PI or Dr. Schwartz, in the same order provided: The relevant physically constructed hardware, including all logic designed with the PLD. The relevant program, code executing as specified, utilizing software breakpoints to demonstrate where the relevant chip select base address(es) are configured, where the relevant chip select size(s) are configured, and where the specified memory addresses are written to (placing a breakpoint before the first write and then following each of the four write instructions). A watch window should display the register that you use to write to the output port and also the PortA values. Use your Waveforms and the appropriate function of your DAD to display both Out[0] and Out[7]. Also display the precise period of Out[7] using the appropriate Waveforms function. When you are finished or five minutes before the end of this practical (whichever comes first), you must zip your Microchip/Atmel Studio project along with your Quartus project and upload the resulting zip file here. Failure to upload your zip file before the end of the practical will result in a grade of zero. When you have finished your upload, use chat to let the PI know by sending READY.