User defined timing filter

Or logic operator

Logic lab and operator

Logic lab Xor operator

Logic lab value inverter

Logic lab flip flop component

Logic lab source component

Logic lab sink component

Logic lab random value generator

Logic lab value merger

Logic lab value splitter

The JK flip-flop augments the behavior of the SR flip-flop (J=Set, K=Reset) by interpreting the S = R = 1 condition as a "flip" or toggle command. Specifically, the combination J = 1, K = 0 is a command to set the flip-flop; the combination J = 0, K = 1 is a command to reset the flip-flop; and the combination J = K = 1 is a command to toggle the flip-flop, i.e., change its output to the logical complement of its current value. Setting J = K = 0 does NOT result in a D flip-flop, but rather, will hold the current state. To synthesize a D flip-flop, simply set K equal to the complement of J. Similarly, to synthesize a T flip-flop, set K equal to J. The JK flip-flop is therefore a universal flip-flop, because it can be configured to work as an SR flip-flop, a D flip-flop, or a T flip-flop.

Random access memory component

Read only memory component

Segment Decoder component

Decoder component

Encoder component

Convert from Gray Code

Convert to Gray code

A binary counter can be constructed from JK Flip Flops by taking the output of one cell to the clock input of the next. The J and K inputs of each flip-flop are set to 1 to produce a toggle at each cycle of the clock input. For each two toggles of the first cell, a toggle is produced in the second cell, and so on down to the fourth cell. This produces a binary number equal to the number of cycles of the input clock signal. This device is sometimes called a "ripple through" counter.

The bit shifts are sometimes considered bitwise operations, because they operate on the binary representation of an integer instead of its numerical value; however, the bit shifts do not operate on pairs of corresponding bits, and therefore cannot properly be called bit-wise. In these operations the digits are moved, or shifted, to the left or right. Registers in a computer processor have a fixed width, so some bits will be "shifted out" of the register at one end, while the same number of bits are "shifted in" from the other end; the differences between bit shift operators lie in how they determine the values of the shifted-in bits.

A barrel shifter is a digital circuit that can shift a data word by a specified number of bits in one clock cycle. It can be implemented as a sequence of multiplexers (mux.), and in such an implementation the output of one mux is connected to the input of the next mux in a way that depends on the shift distance.

In electronics, a multiplexer (or mux) is a device that selects one of several analog or digital input signals and forwards the selected input into a single line.  A multiplexer of 2n inputs has n select lines, which are used to select which input line to send to the output. Multiplexers are mainly used to increase the amount of data that can be sent over the network within a certain amount of time and bandwidth. A multiplexer is also called a data selector.

A demultiplexer (or demux) is a device taking a single input signal and selecting one of many data-output-lines, which is connected to the single input. A multiplexer is often used with a complementary demultiplexer on the receiving end.

A digital comparator or magnitude comparator is a hardware electronic device that takes two numbers as input in binary form and determines whether one number is greater than, less than or equal to the other number.

In electronics, an adder or summer is a digital circuit that performs addition of numbers. In many computers and other kinds of processors, adders are used not only in the arithmetic logic unit(s), but also in other parts of the processor, where they are used to calculate addresses, table indices, and similar operations.

In digital electronics, an arithmetic logic unit (ALU) is a digital circuit that performs integer arithmetic and logical operations

Loads, executes, and exchanges data with OpenWire Studio projects

Implements a Watch Dog Timer.

Allows other threads to generate main thread notifications.

Provides clock for other components.

Use this component to execute code in a separated thread

Use this component to implement a Stop Watch

Use this component to implement a Frequency meter

Use this component to implement a Counter

LED control with gradually changing intensity and/or color based on the input value

LED control with On/Off states

LED control with multiple states

7, 9, 14 or 16 segment indicator

Layer drawing LED control with multiple states

Layer drawing LED control with gradually changing intensity and/or color based on the input value

Layer drawing LED control with On/Off states

Layer drawing 7, 9, 14 or 16 segment indicator

Matrix layer drawing LED control with multiple states

Matrix layer drawing LED control with gradually changing intensity and/or color based on the input value

Matrix layer drawing LED control with On/Off states

Matrix layer drawing 7, 9, 14 or 16 segment indicator

Component element drawing external LED control with On/Off states

Component element drawing internal time triggered LED control

Component element drawing internal data LED control with gradually changing intensity and/or color based on the input value

Component element drawing internal level triggered LED control

Component element drawing external data LED control with multiple states

Component element drawing external data LED control with gradually changing intensity and/or color based on the input value

Component element drawing external data 7, 9, 14 or 16