Ultra-wideband (UWB) technology has great potential in the development of various modern transmission systems such as through-wall imaging, homeland security, vehicular radar, indoor, and hand-held UWB systems, etc. Since the Federal Communications Commission (FCC) released the unlicensed use of UWB (3.1 to 10.6 GHz) wireless systems in February 2002, many researchers have started exploring various UWB components, devices, and systems. As one of the key circuit blocks in the whole system, the UWB bandpass filter (BPF) has been recently studied through the use of the matured filter theory and other techniques. However, with these transmission-line based UWB-BPFs, they unfortunately suffer from spurious harmonic above a dominant passband. Moreover, due to existing undesired narrow band radio signals such as WLAN that may interfere with the UWB range, a notched (rejection) band is necessary to reject these signals. To overcome these drawbacks, improved UWB-BPFs have been proposed by driving the multimode resonators (MMRs) with interdigital coupled lines of enhanced coupling degrees. To improve the upper stopband performance and size reduction of BPF, this research propose new UWB bandpass filters based on slotted line tapped-line resonator and slotted stepped impedance resonator structures. Furthermore, in order to reject any undesired existing radio signal which may interfere with the determined UWB passband, the narrow notched band was introduced by adding embedded slot feeds. The lengths and the widths of the slots can control the bandwidth of the notched filter and can set the notched band at a desired frequency.