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the engine RPM is ((A * 256) + B) / 4, but because the return value was already calculated, the first part of the formula has already been applied and it just needs the division portion. switch(pid) { case ENGINE_RPM: #ifdef DEBUG *ret=1726; #else *ret=*ret/4U; #endif sprintf_P(retbuf, PSTR("%ld RPM"), *ret); break; The Mass Air Flow parameter is similar: return a hard-coded value in debug mode, or take the precalculated value and divide it by 100 as per the required formula. case MAF_AIR_FLOW: #ifdef DEBUG *ret=2048; #endif long_to_dec_str(*ret, decs, 2); sprintf_P(retbuf, PSTR("%s g/s"), decs); break; Vehicle speed is a trivial parameter, and then it gets to the fuel status parameter. Fuel status is a bitmap value, so each bit in the response value is checked in turn by comparing it to a simple binary progression (compared in the code using the hex equivalent value) and the matching label is then returned. In the case of this particular parameter, it s not really the numeric value that is useful, but the label associated with it. case FUEL_STATUS: #ifdef DEBUG *ret=0x0200; #endif if(buf[0]==0x01) sprintf_P(retbuf, PSTR("OPENLOWT")); // Open due to insufficient engine temperature else if(buf[0]==0x02) sprintf_P(retbuf, PSTR("CLSEOXYS")); // Closed loop, using oxygen sensor feedback to determine fuel mix. Should be almost always this else if(buf[0]==0x04) sprintf_P(retbuf, PSTR("OPENLOAD")); // Open loop due to engine load, can trigger DFCO else if(buf[0]==0x08) sprintf_P(retbuf, PSTR("OPENFAIL")); // Open loop due to system failure else if(buf[0]==0x10) sprintf_P(retbuf, PSTR("CLSEBADF")); // Closed loop, using at least one oxygen sensor but there is a fault in the feedback system else sprintf_P(retbuf, PSTR("%04lX"), *ret); break; A number of parameters require an identical formula of (A * 100) / 255, so they re all applied in a group. case LOAD_VALUE: case THROTTLE_POS: case REL_THR_POS:

You'll notice that the import statement that pulls in the django.newforms package is written as from django import newforms as forms, and you reference everything as being attached to the forms namespace. This is a good habit to get into because (as previously mentioned) django.newforms will eventually become simply django.forms. If you import and reference the newforms package in this fashion, then when the switch happens, you'll only need to change one line the import statement and the rest of your code will continue to work normally.

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length; i++) { sum = sumTwo(sum, numbers[i]); } return sum; } public int sumRange(int from, int to) { int len = to - from; int[] array = new int[len + 1]; for (int i = 0; i <= len; i++) { array[i] = from + i; } return sumAll(array); } } The testing code then contains a compare that executes a set of random operations on both the old and new implementations in parallel If the test passes in both setups, the functionality of the old implementation has been preserved well enough to match the behavior in the new implementation: private void compare (Arithmetica now, OldArithmetica1 old, long seed) throws Exception { javautilRandom r = new javautilRandom (seed);.

1 Arduino Duemilanove, Arduino Pro, Freeduino, Seeeduino, or equivalent 1 Prototyping shield 1 RXB1 433MHz receiver module (also known as ST-RX04-ASK) 2 680R resistors 1 1K resistor 1 Red LED 1 Green LED 1 100nF monolithic capacitor 1 33cm hookup wire 1 Weather station. For our system we used a complete La Crosse (www.lacrossetechnology.com) WS-2355 Weather Station package, but you can also buy sensor modules individually including: Integrated thermo/hygro/transmitter module, part number WS-2300-25S Rainfall sensor, part number WS-2300-16 Wind speed and direction sensor, part number TX20 Source code available from www.practicalarduino.com/projects/weather-station-receiver.

for (int loop = 0; loop < rnextInt(5); loop++) { int operation = rnextInt(3); switch (operation) { case 0: { // sumTwo int a1 = rnextInt(100); int a2 = rnextInt(100); int resNow = nowsumTwo(a1, a2); int resOld = oldsumTwo(a1, a2); assertEquals("sumTwo results are equal", resNow, resOld); break; } case 1: { // sumArray int[] arr = new int[rnextInt(100)]; for (int i = 0; i < arrlength; i++) { arr[i] = rnextInt(100); } int resNow = nowsumAll(arr); int resOld = oldsumAll(arr); assertEquals("sumArray results are equal", resNow, resOld); break; } case 2: { // sumRange int a1 = rnextInt(100); int a2 = rnextInt(100); int resNow = nowsumRange(a1, a1 + a2); int resOld = old.

As an absolute minimum you will need a transmitter module either purchased individually or provided as part of a kit. The other sensors then use cables to connect to the transmitter module, which reads values from them and transmits the readings on their behalf.

But it s not quite perfect. HTML provides a special form input type for handling passwords <input type="password"> and that would be a more appropriate way to render the password fields. You can do that by changing those two fields slightly: password1 = forms.CharField(max_length=30, widget=forms.PasswordInput()) password2 = forms.CharField(max_length=30, widget=forms.PasswordInput()) The PasswordInput widget will render itself as an <input type="password">, which is exactly what you want. This also shows off one major strength of the way Django s form system separates the validation of data which is handled by the field from the presentation of the form, which is handled by the widgets. It s fairly common to run into situations where you have a single underlying validation rule that needs to work with multiple fields that all become different types of HTML inputs. This separation makes it easy: you can reuse a single field type and just change the widget. While you re at it, let s make one more change:

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