Normalized Amplitude Response (db-spl/hz) Custom Amplitude Response (db-spl/hz at 1 m) with 850 watts Eminence Designer

Similar documents
Normalized Amplitude Response (db-spl/hz) Custom Amplitude Response (db-spl/hz at 1 m) with 125 watts. Maximum Acoustic Power (db-spl/hz at 1 m)

Alpha 3-8 Small Sealed Midrange Design By Jerry McNutt, Eminence Speaker LLC 30 Watts; F3 at 185 Hz. Best used above 250 Hz.

H C. Normalized Amplitude Response (db-spl/hz) Custom Amplitude Response (db-spl/hz at 1 m) with 450 watts Eminence Designer

Normalized Amplitude Response (db-spl/hz) Custom Amplitude Response (db-spl/hz at 1 m) with 160 watts. Maximum Acoustic Power (db-spl/hz at 1 m)

Normalized Amplitude Response (db-spl/hz) Custom Amplitude Response (db-spl/hz at 1 m) with 100 watts. Maximum Acoustic Power (db-spl/hz at 1 m)

File: KappaPro15SmallVentedBox500Watts.bb6

PRO 5W-8. Professional series. SPL vs Freq. Specification. Materials of Construction

Klippel Non-Linear Test Results. LSI (Large Signal Identification) Model #: PS Introduction. Large Signal Modeling. Nonlinear Characteristics

Nonlinear Losses in Electro-acoustical Transducers Wolfgang Klippel, Daniel Knobloch

Klippel Non-Linear Test Results LSI (Large Signal Identification) Driver Name: ND90-8. Introduction. Nonlinear Parameters. Large Signal Modeling

Open Baffle w/ 2 Drivers - Acoustic Response 12/27/12. Copyright 2012 by Martin J. King. All Rights Reserved.

Copyright 2014 by Martin J. King. All Rights Reserved. Configuration : Extended Range Driver w/ Bass Driver Mounted on an Open Baffle

Open Baffle w/ 2 Drivers - Acoustic Response 12/30/14. Copyright 2014 by Martin J. King. All Rights Reserved.

Chapter 3. Background

Driver in a H Frame Transmission Line - Acoustic and Electrical Response 4/26/11. Copyright 2011 by Martin J. King. All Rights Reserved.

Maximizing Stereo Output Volume through Subwoofer Enclosure Design

Contents. 0. Introduction Loudspeaker s Impedance Why is this useful? How good is it? Bibliography...

Section 7.0 : Design of a Back Loaded Exponential Horn By Martin J. King, 08/17/04 Copyright 2004 by Martin J. King. All Rights Reserved.

Numerical investigation of a looped-tube traveling-wave thermoacoustic generator with a bypass pipe

Test Report. Force applied by the Transducer of the Frequencer TM, model Written by: Bruno Tardif, P.Eng. Dymedso Inc.

Nonlinear Modeling of the Heat Transfer in Loudspeakers

University of Alberta ENGM 541: Modeling and Simulation of Engineering Systems Laboratory #7. M.G. Lipsett & M. Mashkournia 2011

Section 6.0 : Advanced Transmission Line Modeling Techniques By Martin J King, 07/05/02 Copyright 2002 by Martin J. King. All Rights Reserved.

Mechatronic design optimisation of subwoofer system. P6-project spring 2010 Group MCE6-621

Accurate Determination of Loudspeaker Parameters using Audio Analyzer Type 2012 and Laser Velocity Transducer Type 3544

Acoustics Analysis of Speaker ANSYS, Inc. November 28, 2014

Phys102 Final-132 Zero Version Coordinator: A.A.Naqvi Wednesday, May 21, 2014 Page: 1

ENGR-4300 Spring 2009 Test 2. Name: SOLUTION. Section: 1(MR 8:00) 2(TF 2:00) 3(MR 6:00) (circle one) Question I (20 points): Question II (20 points):

Simulation and measurement of loudspeaker nonlinearity with a broad-band noise excitation

Computational Acoustics by Means of Finite and Boundary Elements for Woofers, Tweeters, Horns and Small Transducers

Impedance and Loudspeaker Parameter Measurement

3 Modeling and Simulation

S3 ENVIRONMENTAL DISTURBANCES

Small, Loud-Speakers: Taking Physics To The Limit

AFMG. Focus Your Sub Arrays! AHNERT FEISTEL MEDIA GROUP. PLS 2017, Frankfurt

Q1. A) 53.3 cm/s B) 59.8 cm/s C) 77.5 cm/s D) 35.1 cm/s E) 44.7 cm/s. Ans: 1.6 Q2.

Small, Loud-Speakers: Taking Physics To The Limit

Core Technology Group Application Note 3 AN-3

BME/ISE 3511 Bioelectronics - Test Five Review Notes Fall 2015

Comparison Between Theoretical Models and Experimental Measurements of Electrodinamic Loudspeaker Systems.

Series CCT-58S Multi-Throw DC 18 GHz, SP7T & SP8T Normally Open Coaxial Switch

A) 120 degrees B) 90 degrees C) 60 degrees D) 45 degrees E) 30 degrees

Thermal Parameter Measurement AN 18

Acoustic Quantities. LMS Test.Lab. Rev 12A

Introduction to Acoustics. Phil Joseph

Note 11: Alternating Current (AC) Circuits

r p = r o r cos( φ ) cos( α )

3.2.2 Magnets. The properties of the quadrupoles, sextupoles and correctors are listed in tables t322_b,_c and _d.

Knud Thorborg Scan-Speak, Videbæk, Denmark,

Multi Acoustic Prediction Program (MAPP tm ) Recent Results Perrin S. Meyer and John D. Meyer

200 SERIES CINEMA SCREENARRAY LOUDSPEAKER SYSTEM

Global Attenuation of Acoustic Fields Using Energy-Based Active Control Techniques

Lecture 5: Using electronics to make measurements

Introduction to Acoustics Exercises

Nonlinear Modeling of a Guitar Loudspeaker Cabinet

Q1. In a stretched string the frequency of the wave DOES NOT depends on:

REACTANCE. By: Enzo Paterno Date: 03/2013

Mathewlal T 1, GauravSingh 2, Chetan Devadiga 3, Nehal Mendhe 3, 1 Mechanical Engineering Department, Fr CRIT, Vashi, Mumbai.

inter.noise 2000 The 29th International Congress and Exhibition on Noise Control Engineering August 2000, Nice, FRANCE

1. Dimensions of force constant are (MHT-CET-2003) (a) M 1 L 0 T 2 (b) M 1 L 0 T 2. (c) M 0 L 1 T 2 (d) MLT 2

Basics of Sound and Noise. David Herrin, Ph.D., P.E. University of Kentucky Department of Mechanical Engineering

Introduction to Audio and Music Engineering

Megavolt Parallel Potentials Associated With Double Layer Streams In The Earth s Outer Radiation Belt

Chapter 17: Waves II. Sound waves are one example of Longitudinal Waves. Sound waves are pressure waves: Oscillations in air pressure and air density

Investigation of MIMO Random Control Applied to Direct Field Acoustic Testing

glass Calculate the magnitude of the Young modulus for glass. State your answer to (a) in terms of SI fundamental units.

Single-Phase Synchronverter for DC Microgrid Interface with AC Grid

TECHNICAL BULLETIN 006 Symmetrical Components Overview. Introduction. I a g I b g I c

b) What is its position when its velocity (magnitude) is largest? When it is at x=0 all the energy is kinetic.

Quiz on Chapters 13-15

Lecture 5: Using electronics to make measurements

For More info visit

logarithmic a ratio gain or loss. not an absolute value

PL-Series Set-up and Mounting / Rigging Guide

Ljud i byggnad och samhälle (VTAF01) Sound propagation outdoors MATHIAS BARBAGALLO DIVISION OF ENGINEERING ACOUSTICS, LUND UNIVERSITY

Notes on Absorption and Impedance Measurements

Series CCR-39S Multi-Throw DC-12 GHz, SP7T & SP8T Latching Coaxial Switch

Digital display Pressure range ON/OFF output Linear output Model No Positive pressure 0 to 98 kpa (0 to 1 kgf/cm 2 ) NPN open collector o 1 to o5

Series CCR-39S Multi-Throw DC-12 GHz, SP9T & SP10T Latching Coaxial Switch

Page 1 of 10 pages Appendix, 5 pages Report no.: P Glostrup, October 12th 2012 Project: Claimant:

H -Control of Acoustic Noise in a Duct with a Feedforward Configuration

TIME DOMAIN LARGE-SCALE FINITE ELEMENT SOUND FIELD ANALYSIS OF A MULTI-PURPOSE HALL. 700 Dannoharu Oita, Japan

ST303C..L SERIES 515A. Features. Typical Applications. Major Ratings and Characteristics. Bulletin I25186 rev. A 05/94. case style TO-200AC (B-PUK)

Nonlinear Force Factor Measurement of an Electrodynamic Loudspeaker

ST1230C..K SERIES 1745A. Features. Typical Applications. Major Ratings and Characteristics. Bulletin I25194 rev. B 01/00. case style A-24 (K-PUK)

Total No. of Questions :09] [Total No. of Pages : 03

Study of Wenger Audience Seating Chair Absorption. Ron Freiheit

NAME: PHYSICS 6B SPRING 2011 FINAL EXAM ( VERSION A )

Memorial University of Newfoundland. Physics Final Examination

Series CCR-39S Multi-Throw DC-12 GHz, SP9T & SP10T Latching Coaxial Switch

Reactor Characteristic Evaluation and Analysis Technologies of JFE Steel

Lecture 11 Acoustics of Speech & Hearing HST 714J. Lecture 11: Electro-Mechano-Acoustic Transformers

Distortion Analyzer a New Tool for Assessing and Improving Electrodynamic Transducer

Temperature Measurement

Exam 2 Solutions. Note that there are several variations of some problems, indicated by choices in parentheses.

Exhaust noise a new measurement technology in duct

32 Input AC Block I/O Module

TETRA COMPACT. PreliminarY

Extended Creep Modeling AN 49

Factors Affecting the Accuracy of Numerical Simulation of Radiation from Loudspeaker Drive Units. P.C.Macey PACSYS Limited

Transcription:

Impero 1A Small Vented Design By Jerry McNutt, Eminence Speaker LLC 5 Watt Design; F3 at 9 Hz. Use a steep high pass filter at 35 Hz. Super Compact Subwoofer. Will not go very low, but gets very Loud! Box Properties Name: Type: Vented Box Shape: Prism, square --Box Parameters-- Vb =.5 cu.ft V(total) = 5.7 cu.ft Fb = 5 Hz QL = 7 F3 = 9.1 Hz Fill = minimal --Vents-- No. of Vents = Vent shape = round Vent ends = one flush Dv = in Lv =.95 in Normalized Amplitude Response (-SPL/Hz) - - -1 - -3-3 Custom Amplitude Response (-SPL/Hz at 1 m) with 5 watts Driver Properties Name: Impero 1A Type: Standard one-way driver Company: Eminence Speaker LLC Comment: 1" Pro Sound Woofer, ohm --Configuration-- No. of Drivers = 1 --Mechanical Parameters-- Fs = 33.17 Hz Qms = 1. Vas = 317 liters Cms =.17 mm/n Mms = 139.5 g Rms =.7 kg/s Xmax = mm Xmech =.17 mm P-Dia = 3 mm Sd = 1159 sq.cm P-Vd =.917 liters --Electrical Parameters-- Qes =. Re = 5.1 ohms Le = 1.7 mh Z = ohms BL = 1.9 Tm Pe = watts --Electromech. Parameters-- Qts =.3 no =.535 % 1-W SPL = 9.19.3-V SPL = 97.9 133 7 1 115 9 3 97 91 133 7 1 115 9 3 97 91 Maximum Acoustic Power (-SPL/Hz at 1 m) File: Impero1ASmallVented5Watts.bb

Page Two -- Impero1ASmallVented5Watts.bb Maximum Electric Input Power (W/Hz) watts Cone Displacement (mm/hz) with 5 watts mm 1 1 Vent Air Velocity (m/sec/hz) with 5 watts m/s 3 3 1

Page Three -- Impero1ASmallVented5Watts.bb System Impedance (ohms/hz) ohms 7 5 3 msec Group Delay (msec/hz) 1 - -

Impero 1A Medium Vented Design By Jerry McNutt, Eminence Speaker LLC 7 Watt Design; F3 at 5 Hz. Use steep high pass at 35 Hz. Compact Subwoofer design. Box Properties Name: Type: Vented Box Shape: Cube --Box Parameters-- Vb = 5.75 cu.ft V(total) =. cu.ft Fb = 5 Hz QL = 7 F3 = 5. Hz Fill = minimal --Vents-- No. of Vents = Vent shape = round Vent ends = one flush Dv = in Lv =. in Normalized Amplitude Response (-SPL/Hz) - - -1 - -3-3 Custom Amplitude Response (-SPL/Hz at 1 m) with 7 watts Driver Properties Name: Impero 1A Type: Standard one-way driver Company: Eminence Speaker LLC Comment: 1" Pro Sound Woofer, ohm --Configuration-- No. of Drivers = 1 --Mechanical Parameters-- Fs = 33.17 Hz Qms = 1. Vas = 317 liters Cms =.17 mm/n Mms = 139.5 g Rms =.7 kg/s Xmax = mm Xmech =.17 mm P-Dia = 3 mm Sd = 1159 sq.cm P-Vd =.917 liters --Electrical Parameters-- Qes =. Re = 5.1 ohms Le = 1.7 mh Z = ohms BL = 1.9 Tm Pe = watts --Electromech. Parameters-- Qts =.3 no =.535 % 1-W SPL = 9.19.3-V SPL = 97.9 13 1 11 9 9 133 7 1 115 9 3 97 91 Maximum Acoustic Power (-SPL/Hz at 1 m) File: Impero1AMedVented7Watts.bb

Page Two -- Impero1AMedVented7Watts.bb Maximum Electric Input Power (W/Hz) watts Cone Displacement (mm/hz) with 7 watts mm 1 1 Vent Air Velocity (m/sec/hz) with 7 watts m/s 3 3 1

Page Three -- Impero1AMedVented7Watts.bb System Impedance (ohms/hz) ohms 7 5 3 msec Group Delay (msec/hz) 1 - -

Impero 1A Large Vented Sub Design By Jerry McNutt, Eminence Speaker LLC Watt Design; F3 at 1 Hz. Use steep high pass at 3 Hz. Box Properties Name: Type: Vented Box Shape: Cube --Box Parameters-- Vb = cu.ft V(total) =.9 cu.ft Fb = Hz QL = 7 F3 = 1.35 Hz Fill = minimal --Vents-- No. of Vents = Vent shape = round Vent ends = one flush Dv = in Lv = 5.351 in Normalized Amplitude Response (-SPL/Hz) - - -1 - -3-3 Custom Amplitude Response (-SPL/Hz at 1 m) with watts Driver Properties Name: Impero 1A Type: Standard one-way driver Company: Eminence Speaker LLC Comment: 1" Pro Sound Woofer, ohm --Configuration-- No. of Drivers = 1 --Mechanical Parameters-- Fs = 33.17 Hz Qms = 1. Vas = 317 liters Cms =.17 mm/n Mms = 139.5 g Rms =.7 kg/s Xmax = mm Xmech =.17 mm P-Dia = 3 mm Sd = 1159 sq.cm P-Vd =.917 liters --Electrical Parameters-- Qes =. Re = 5.1 ohms Le = 1.7 mh Z = ohms BL = 1.9 Tm Pe = watts --Electromech. Parameters-- Qts =.3 no =.535 % 1-W SPL = 9.19.3-V SPL = 97.9 13 11 1 9 133 7 1 115 9 3 97 91 Maximum Acoustic Power (-SPL/Hz at 1 m) File: Impero1ALargeVentedWatts.bb

Page Two -- Impero1ALargeVentedWatts.bb Maximum Electric Input Power (W/Hz) watts Cone Displacement (mm/hz) with watts mm 1 1 Vent Air Velocity (m/sec/hz) with watts m/s 3 3 1

Page Three -- Impero1ALargeVentedWatts.bb System Impedance (ohms/hz) ohms 7 5 3 msec Group Delay (msec/hz) 1 - -

Impero 1A Two By 1 Large Vented Subwoofer By Jerry McNutt, Eminence Speaker LLC Watt Design; F3 at 1 Hz. Use steep high pass at 3 Hz. Best if built divided and keep ports symmetrically placed. Two by 1" Woofer. Box Properties Name: Type: Vented Box Shape: Prism, square (optimum) --Box Parameters-- Vb = 1 cu.ft V(total) = 1.9 cu.ft Fb = 39 Hz QL = 7 F3 =.51 Hz Fill = minimal --Vents-- No. of Vents = Vent shape = round Vent ends = one flush Dv = in Lv =.51 in Normalized Amplitude Response (-SPL/Hz) - - -1 - -3-3 Custom Amplitude Response (-SPL/Hz at 1 m) with watts Driver Properties Name: Impero 1A Type: Standard one-way driver Company: Eminence Speaker LLC Comment: 1" Pro Sound Woofer, ohm --Configuration-- No. of Drivers = Mounting = Standard Wiring = Parallel Drivers sum coherently = Yes --Mechanical Parameters-- Fs = 33.17 Hz Qms = 1. Vas = 317 liters [3] Cms =.17 mm/n [.5] Mms = 139.5 g [79] Rms =.7 kg/s [.1] Xmax = mm Xmech =.17 mm P-Dia = 3 mm [5.] Sd = 1159 sq.cm [31] P-Vd =.917 liters [1.3] --Electrical Parameters-- Qes =. Re = 5.1 ohms [.75] Le = 1.7 mh [.735] Z = ohms [] BL = 1.9 Tm [1.91] Pe = watts [] --Electromech. Parameters-- Qts =.3 no =.535 % [5.7] 1-W SPL = 9.19 [99.].3-V SPL = 97.9 [3.9] 137 131 5 119 113 7 1 File: Impero1ATwoBy1LargeVentedWatts.bb 95 139 133 7 1 115 9 3 97 Maximum Acoustic Power (-SPL/Hz at 1 m)

Page Two -- Impero1ATwoBy1LargeVentedWatts.bb Maximum Electric Input Power (W/Hz) watts Cone Displacement (mm/hz) with watts mm 1 1 Vent Air Velocity (m/sec/hz) with watts m/s 3 3 1

Page Three -- Impero1ATwoBy1LargeVentedWatts.bb System Impedance (ohms/hz) ohms 7 5 3 msec Group Delay (msec/hz) 1 - -

Impero 1 A, x1 Medium Vented Sub Design By Jerry McNutt, Eminence Speaker LLC Watt Design; F3 at Hz. Use steep high pass at 35 Hz. Best if built divided and keep ports symmetrically placed. Two by 1 Sub. Box Properties Name: Type: Vented Box Shape: Prism, square (optimum) --Box Parameters-- Vb = cu.ft V(total) = 13.1 cu.ft Fb = Hz QL = 7 F3 = 3.77 Hz Fill = minimal --Vents-- No. of Vents = Vent shape = round Vent ends = one flush Dv = in Lv =.91 in Normalized Amplitude Response (-SPL/Hz) - - -1 - -3-3 Custom Amplitude Response (-SPL/Hz at 1 m) with watts Driver Properties Name: Impero 1A Type: Standard one-way driver Company: Eminence Speaker LLC Comment: 1" Pro Sound Woofer, ohm --Configuration-- No. of Drivers = Mounting = Standard Wiring = Parallel Drivers sum coherently = Yes --Mechanical Parameters-- Fs = 33.17 Hz Qms = 1. Vas = 317 liters [3] Cms =.17 mm/n [.5] Mms = 139.5 g [79] Rms =.7 kg/s [.1] Xmax = mm Xmech =.17 mm P-Dia = 3 mm [5.] Sd = 1159 sq.cm [31] P-Vd =.917 liters [1.3] --Electrical Parameters-- Qes =. Re = 5.1 ohms [.75] Le = 1.7 mh [.735] Z = ohms [] BL = 1.9 Tm [1.91] Pe = watts [] --Electromech. Parameters-- Qts =.3 no =.535 % [5.7] 1-W SPL = 9.19 [99.].3-V SPL = 97.9 [3.9] 13 13 1 11 File: Impero1ATwoBy1MedVentedWatts.bb 9 139 133 7 1 115 9 3 97 Maximum Acoustic Power (-SPL/Hz at 1 m)

Page Two -- Impero1ATwoBy1MedVentedWatts.bb Maximum Electric Input Power (W/Hz) watts Cone Displacement (mm/hz) with watts mm 1 1 Vent Air Velocity (m/sec/hz) with watts m/s 3 3 1

Page Three -- Impero1ATwoBy1MedVentedWatts.bb System Impedance (ohms/hz) ohms 7 5 3 msec Group Delay (msec/hz) 1 - -

Impero 1A Two By 1 Small Vented Woofer Design By Jerry McNutt, Eminence Speaker LLC 17 Watt Design; F3 at 5 Hz. Use steep high pass at Hz. Best if built divided and keep ports symmetrically placed. Two by 1" Woofer. Box Properties Name: Type: Vented Box Shape: Prism, square (optimum) --Box Parameters-- Vb = cu.ft V(total) = 9.1 cu.ft Fb = 5 Hz QL = 7 F3 = 5. Hz Fill = minimal --Vents-- No. of Vents = Vent shape = round Vent ends = one flush Dv = in Lv = 7.35 in Normalized Amplitude Response (-SPL/Hz) - - -1 - -3-3 Custom Amplitude Response (-SPL/Hz at 1 m) with 17 watts Driver Properties Name: Impero 1A Type: Standard one-way driver Company: Eminence Speaker LLC Comment: 1" Pro Sound Woofer, ohm --Configuration-- No. of Drivers = Mounting = Standard Wiring = Parallel Drivers sum coherently = Yes --Mechanical Parameters-- Fs = 33.17 Hz Qms = 1. Vas = 317 liters [3] Cms =.17 mm/n [.5] Mms = 139.5 g [79] Rms =.7 kg/s [.1] Xmax = mm Xmech =.17 mm P-Dia = 3 mm [5.] Sd = 1159 sq.cm [31] P-Vd =.917 liters [1.3] --Electrical Parameters-- Qes =. Re = 5.1 ohms [.75] Le = 1.7 mh [.735] Z = ohms [] BL = 1.9 Tm [1.91] Pe = watts [] --Electromech. Parameters-- Qts =.3 no =.535 % [5.7] 1-W SPL = 9.19 [99.].3-V SPL = 97.9 [3.9] 139 133 7 1 115 9 3 File: Impero1ATwoBy1SmallVented17Watts.bb 97 139 133 7 1 115 9 3 97 Maximum Acoustic Power (-SPL/Hz at 1 m)

Page Two -- Impero1ATwoBy1SmallVented17Watts.bb Maximum Electric Input Power (W/Hz) watts Cone Displacement (mm/hz) with 17 watts mm 1 1 Vent Air Velocity (m/sec/hz) with 17 watts m/s 3 3 1

Page Three -- Impero1ATwoBy1SmallVented17Watts.bb System Impedance (ohms/hz) ohms 7 5 3 msec Group Delay (msec/hz) 1 - -