User manual ALPINE SPX-107R-SPACE-137R-SPACE-177R-SPACE-17MB

[. . . ] If spacer ring is used with grille, snap-fit tabs on spacer ring must be removed for proper fit. Carefully cut opening for flush mount grille ring to the specified diameter (see carton box for cut-out diameter), allowing enough material to be pinched by mounting clamps for secure fit. Use appropriate adapter pattern for OEM fit, then break away any unused tabs. Use appropriate adapter pattern for OEM fit, then break away any unused tabs. [. . . ] A-B = difference in distance Step 3: Consult the chart on the following pages for your particular installation and the If seating specific L/R bias correction is desired, Digital Time Correction may be used in addition to Phase Link. Chose the settings above for the closest distance to your measurement. If no setting is listed within + ½", choose the next closest/fartest distance setting even if within a different axis column. Tweeter level adjustment may be desired for tweeter closer or farther. Chose the settings above for the closest distance to your measurement. If no setting is listed within + ½", choose the next closest/fartest distance setting even if within a different axis column. Tweeter level adjustment may be desired for tweeter closer or farther. Chose the settings above for the closest distance to your measurement. If no setting is listed within + ½", choose the next closest/fartest distance setting even if within a different axis column. Tweeter level adjustment may be desired for tweeter closer or farther. This section selects the crossover frequency between midbass lowpass output and midrange highpass output. Select "LOW" when reinforcement of only lower frequencies is desired (e. This adjusts the overall output level of the midbass (LP) section of the network. Note that when set to +2dB, it will also slightly raise the lowpass crossover point. For systems using two midbass drivers per channel, this setting is provided so that only one network is required. L Dual midbass drivers must be wired in parallel from the "MB OUT" terminal. Note that the resultant amplifier load to the midbass section will become 2. 5 DCR) Capacitors: 100VDC / 250VAC metallized poly, pure copper inlet wires Resistors: 10W low tolerance/inductance with heatsink Circuit Board: Double-sided OFC, extra thick/wide trace layout Jumpers: Machined and gold plated pins, wide contact area design Terminals: Gold plated Electrical crossover pt: 3400Hz Acoustic crossover pt: 3800Hz (0 ) 2700Hz (30 ) 2250Hz (60 ) LPF: Low-Q 2nd order HPF: Low-Q 4th order Fréq. Electrical crossover pt: 3700Hz Acoustic crossover pt: 3300Hz (0 ) LPF: Low-Q 2nd order HPF: Low-Q 4th order Fréq. Electrical crossover pt: 2900Hz Acoustic crossover pt: 3400Hz (30 ) LPF: Low-Q Semi-1st order HPF: Low-Q 4th order Fréq. Note: Network simulations above illustrate the effect of each filter upon the input signal, not the actual summed frequency response of the speaker system. Electrical crossover pt: 3700Hz Acoustic crossover pt: 3100Hz (0 ) 2950Hz (60 ) LPF: Low-Q Semi-2nd order HPF: Low-Q 4th order Fréq. [. . . ] Electrical/Acoustic crossover pt: 200Hz LPF: Low-Q Semi-2nd order HPF: 1st order Note: Network simulations above illustrate the effect of each filter upon the input signal, not the actual summed frequency response of the speaker system. Electrical/Acoustic crossover pt: 190Hz LPF: Low-Q Semi-1st order HPF: 1st order Fréq. Electrical/Acoustic crossover pt: 130Hz LPF: Low-Q Semi-2nd order HPF: 1st order Fréq. Electrical/Acoustic crossover pt: 120Hz LPF: Low-Q Semi-1st order HPF: 1st order Fréq. [. . . ]