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Supplier: Hottinger Bruel and Kjaer UK Ltd.
Description: Dytran series 7509 is a high precision single axis variable capacitance (VC) accelerometer available in various g ranges. These high performance accelerometers combine an integrated VC accelerometer chip with high drive, low impedance buffer for low level acceleration
- Acceleration: 100 g
- Frequency Range: 0 to 1,400 Hz
- Operating Temperature: -67 to 257 F
- Sensor Mounting: Adhesive Base
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Supplier: Hottinger Bruel and Kjaer UK Ltd.
Description: The Dytran series 7533 is a triaxial DC response accelerometer designed to offer a simple and cost effective solution for low level, low frequency vibration measurements. It is offered with an integral cable in various lengths ranging from 1ft- 50ft. Tailored for zero-to-medium
- Acceleration: 40 g
- Frequency Range: 0 to 1,500 Hz
- Operating Temperature: -40 to 257 F
- Features: MEMS, Other
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Supplier: Wilcoxon Sensing Technologies
Description: Low frequency (0.2 Hz) accelerometer, 500 mV/g sensitivity, ±5% tolerance, extended low frequency response, top exit MIL-C-5015 connector, case isolated
- Acceleration: 10 g
- Frequency Range: 0.2 to 2,300 Hz
- Operating Temperature: -58 to 248 F
- Sensor Outputs: Acceleration
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Supplier: Accuris
Description: Methods for the calibration of vibration and shock transducers - Part 32: Resonance testing - Testing the frequency and the phase response of accelerometers by means of shock excitation
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Supplier: CSA Group
Description: frequency and phase responses of the accelerometer under test than the dynamic range of the adequate characteristic provides it. The best use of the frequency and the phase responses of the accelerometer gained by this method are to get the best fit lines
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Supplier: Accuris
Description: Methods for the calibration of vibration and shock transducers \x96 Part 32: Resonance testing \x96 Testing the frequency and the phase response of accelerometers by means of shock excitation
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Supplier: TE Connectivity
Description: (GFORCE) : 500 Nonlinearity (PCTFSO) : ±1 Overall Acceleration Range (±) (GFORCE) : 20 - 500 Sensitivity (MVG) : 4 Sensitivity Range (MVG) : 4 - 100 Product Type Features Accelerometer Type : 3-Wire Voltage Embedded Accelerometer Sensor Type : AC Response Embedded
- Acceleration: 500 g
- Frequency Range: 1 to 8,000 Hz
- Operating Temperature: -40 to 212 F
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Supplier: PCB Piezotronics, Inc.
Description: High frequency, ceramic shear ICP® accel., 10 mV/g, 5 to 60k Hz, 5-44 top conn. This miniature accelerometer model achieves extremely high frequency response from 5 Hz to 60 kHz, and incorporates a LP filter to avoid saturation of the output signal to to excessive
- Acceleration: 500 g
- Frequency Range: 5 to 60,000 Hz
- Maximum Shock: 5,000 g
- Features: Other
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Supplier: Honeywell Test & Measurement
Description: The JTF accelerometers offer three mounting choices to meet specific application requirements. The sensing technique for these accelerometers is based on piezoresistive technology. Frequency response extends down to dc. Hermetic construction of the JTF Series provides
- Operating Temperature: -40 to 249.8 F
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Supplier: Kistler Group
Description: thermal transients and transverse accelerations. Notable features include wide frequency response, lightweight titanium construction, hermetic, and ground isolated design. Included within both models are signal processing electronics that convert the charge generated by the mechanical
- Acceleration: -150 to 150 g
- Frequency Range: 1 to 2,000 Hz
- Maximum Shock: 5,000 g
- Maximum Vibration: 2,000 g
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Supplier: Kistler Group
Description: thermal transients and transverse accelerations. Notable features include wide frequency response, lightweight titanium construction, hermetic, and ground isolated design. Included within both models are signal processing electronics that convert the charge generated by the mechanical
- Acceleration: -150 to 150 g
- Frequency Range: 1 to 2,000 Hz
- Maximum Shock: 5,000 g
- Maximum Vibration: 2,000 g
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Supplier: Kistler Group
Description: monitoring as well as for R&D application where size and weight have to be minimal. • Temperature range -55 ... 700 °C • Internally case isolated; differential charge output • Frequency response up to 5 kHz (±10 %) • Highest reliability • Not pyroelectric • Dimensions: 16.6 x 16.6 x
- Acceleration: -500 to 500 g
- Frequency Range: 1 to 5,000 Hz
- Maximum Shock: 5,000 g
- Operating Temperature: -67 to 1,292 F
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Supplier: Columbia Research Labs, Inc.
Description: comparable prices to existing MEMs competition. Electrical connections are made directly to solder terminals or via an integral shielded cable. Frequency response is factory pre-set at DC to 100 Hz with wideband response. Military-grade packaging techniques have reduced the size
- Acceleration: -10 to 10 g
- Frequency Range: 0 to 100 Hz
- Minimum Accuracy: 0.1 +/-% FS
- Maximum Shock: 1,200 g
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Supplier: Richardson RFPD
Description: flat frequency response up to >10kHz. The model820M1 accelerometer features a stable piezo-ceramic crystal inshear mode with low power electronics, sealed in a fully hermeticLCC package. The PE technology incorporated in the 820M1 accelerometer hasa proven track record
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Supplier: Columbia Research Labs, Inc.
Description: Models VS-102 and VS-507 are Piezoelectric Accelerometers designed for calibration of back-to-back working standards and reference standards built into shakers. These sensors are optimized for stability and a nominally flat frequency response and are available in two convenient
- Acceleration: 1.5 g
- Frequency Range: 1 to 10,000 Hz
- Maximum Vibration: 500 g
- Sensor Outputs: Acceleration
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Supplier: OMEGA Engineering, Inc.
Description: The OMEGAROMETER™ series accelerometers are designed for industrial vibration measurements. These accelerometers feature a hermetically sealed 316L stainless steel case suitable for harsh environments. The ACC797 is a premium grade accelerometer with a low profile side cable
- Acceleration: 50 g
- Frequency Range: 1 to 12,000 Hz
- Minimum Accuracy: 5 +/-% FS
- Maximum Shock: 5,000 g
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Supplier: OMEGA Engineering, Inc.
Description: The OMEGAROMETER Series accelerometers are designed for industrial vibration measurements. These accelerometers feature a hermetically sealed 316L stainless steel case suitable for harsh environments. The ACC787A is a general purpose accelerometer with a low profile side cable
- Acceleration: 80 g
- Frequency Range: 0.7 to 10,000 Hz
- Minimum Accuracy: 5 +/-% FS
- Maximum Shock: 5,000 g
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Supplier: OMEGA Engineering, Inc.
Description: The ACC103 laboratory accelerometer is ideal for use in shake tests, vibration labs, and other general purpose vibration applications. The ACC103 weighs only 15 grams, ideal for applications where low accelerometer weight is critical. It has a 10 mv/g output which can measure
- Acceleration: 500 g
- Frequency Range: 1 to 10,000 Hz
- Minimum Accuracy: 10 +/-% FS
- Maximum Shock: 500 g
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Supplier: Columbia Research Labs, Inc.
Description: accelerometers are supplied with Columbia's exclusive micro-miniature detachable cable and connector assemblies. High temperature units will operate in environments up to +500 Deg F. Features Vibration & Shock Sensitivities 0.5 pC/G & 1.5 pC/g Frequency Response to 20KHz Low
- Acceleration: 1,000 g
- Frequency Range: 2 to 10,000 Hz
- Minimum Accuracy: 5 +/-% FS
- Maximum Shock: 5,000 g
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Supplier: MonoDAQ
Description: filter corner frequency: 0.15 Hz | 0.2 Hz | 1.5 Hz Saturation limit, equivalent: 1000 g | 500 g | 50 g Noise level, equivalent: 3 mg Typical frequency response: 1 Hz – 10 kHz +-5%, 0.7 Hz – 12 kHz +-10% Resonant frequency: 50 kHz Cross axis error: 5% max Supply voltage:
- Frequency Range: 1 to 12,000 Hz
- Minimum Accuracy: 5 +/-% FS
- Maximum Vibration: 1,000 g
- Operating Temperature: -58 to 365 F
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Supplier: Kistler Group
Description: The Type 8080A050... accelerometer is Kistler’s most accurate and repeatable low impedance, back-to-back, vibration calibration standard. It features low base strain, long-term and thermal stability and high frequency response. Due to its unique shear design, it offers minimum
- Acceleration: 50 g
- Frequency Range: 1 to 10,000 Hz
- Maximum Shock: 500 g
- Operating Temperature: -85 to 248 F
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Supplier: Acme Chip Technology Co., Limited
Description: LOW FREQUENCY RESPONSE VIBRATION
- Frequency Range: 0.1 to 10,000 Hz
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Supplier: PCB Piezotronics, Inc.
Description: Triaxial, Thru-hole mtg, Ceramic shear ICP® accel, 10 mV/g, 0.4 to 10 kHz, Case isolated, TEDS Ver 1.0, 4-pin connector, incl. both 6-32 & M3 fasteners 354B04 improves upon the 354A04 with extended frequency response to 10 kHz at 5%,
- Acceleration: 500 g
- Frequency Range: 0.4 to 10,000 Hz
- Maximum Shock: 5,000 g
- Operating Temperature: -65 to 200 F
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Supplier: Wilcoxon Sensing Technologies
Description: Accelerometer, handheld probe for data collection, 100 mV/g sensitivity, ±5% tolerance, frequency response 2 - 2k Hz (±10%), stud mount
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Supplier: PCB Piezotronics, Inc.
Description: General purpose, ceramic shear ICP® accel., 10 mV/g, 0.5 to 10k Hz, 10-32 top conn with single axis amplitude response calibration from 5 Hz to upper 5% frequency, NIST t
- Acceleration: 500 g
- Frequency Range: 0.3 to 15,000 Hz
- Maximum Shock: 5,000 g
- Operating Temperature: -65 to 250 F
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Supplier: MonoDAQ
Description: corner frequency: 0.1 Hz | 0.5 Hz Saturation limit, equivalent: 500 g | 50 g Noise level, equivalent: 5 mg | 3 mg Typical frequency response: 1 Hz – 8 kHz +-5%, 0.7 Hz – 10 kHz +-10% Resonant frequency: 28 kHz Cross axis error: 5% max Supply voltage: 15/35 V DC Bias
- Frequency Range: 1 to 9,000 Hz
- Minimum Accuracy: 5 +/-% FS
- Maximum Vibration: 1,000 g
- Operating Temperature: -58 to 365 F
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Supplier: ODG (Origin Data Global)
Description: LOW FREQUENCY RESPONSE VIBRATION
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Supplier: Sherborne Sensors
Description: in a robust aluminium alloy housing with solder pin connections. The accelerometer has a wide-range useable frequency response from DC to several kHz.
- Acceleration: -100 to 100 g
- Frequency Range: 0 to 2,400 Hz
- Operating Temperature: -40 to 221 F
- Sensor Outputs: Acceleration
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Supplier: Silicon Designs, Inc.
Description: The SDI Model 2290 Single-Axis MEMS DC Precision Reference Calibration Accelerometer offers a precise, reliable, and accurate means of determining the sensitivity and frequency response characteristics of unknown MEMS DC accelerometers during end-to-end calibrations and
- Acceleration: 5 to 50 g
- Frequency Range: 0 to 1,800 Hz
- Maximum Shock: 2,000 to 5,000 g
- Operating Temperature: -67 to 257 F
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Supplier: Silicon Designs, Inc.
Description: The 2227 is a low-mass, low-power module, electrically and mechanically compatible with fixtures and equipment designed for industry-standard quartz accelerometers and intended for use in inertial and tilt applications requiring zero to medium frequency response excellent
- Acceleration: 10 to 50 g
- Frequency Range: 0 to 4,200 Hz
- Maximum Shock: 5,000 g
- Operating Temperature: -67 to 257 F
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Supplier: Sherborne Sensors
Description: in a robust aluminium alloy housing with solder pin connections. The accelerometer has a wide-range useable frequency response from DC to several kHz.
- Acceleration: -500 to 500 g
- Frequency Range: 0 to 2,400 Hz
- Operating Temperature: -40 to 221 F
- Sensor Outputs: Acceleration
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Supplier: Wilcoxon Sensing Technologies
Description: mounting an accelerometer, a coupling fluid should be applied to the mating surfaces. The coupling fluid protects the mounting surface and optimizes the frequency response by increasing the coupling stiffness.
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Supplier: Custom Silicon Solutions, Inc.
Description: battery applications. Features: Measures Linear & Angular Acceleration Wide Supply Range (2.7V to 5.5V) 3 Piezoelectric Sensor Channels Adjustable gain (8 settings per channel) Wide frequency range (15Hz to 2KHz) Fast response time (< 10 usec) Temperature Range = -40°C to +85°C
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Using the traditional arm resonance measurement method, the accelerometer was fixed at the front end of the headshell for vertical sweep-frequency recording from 0 to 20 kHz. The results showed that the overall rigidity of this partition was higher and its resonance performance was more stable (read more)
Browse Aluminum Oxide and Alumina Ceramics Datasheets for Xiamen Innovacera Advanced Materials Co., Ltd. -
or a point cloud laser scanner. Vibration Analysis: When used for vibration measurement, the Q1 sends its data to Atelier for frequency response evaluation, resonant mode identification, and displacement tracking over time. Customizable Reporting: Quickly create professional (read more)
Browse LiDAR Sensors Datasheets for Ommatidia LiDAR
Conduct Research Top
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How High in Frequency Are Accelerometer Measurements Meaningful
of the. accelerometers when they are subjected to pyroshock [1]. In order. to support the development of a series of more robust MEMS. accelerometers, this paper answers the question: How high in. frequency response are accelerometer measurements meaningful?
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A Simple Frequency Response Function
This article will attempt to explain the basic theory of the frequency response function. This basic theory will then be used to calculate the frequency response function between two points on a structure using an accelerometer to measure the response and a force gauge hammer to measure
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Selecting Accelerometers for and Assessing Data from Mechanical Shock Measurements
After first clarifying what mechanical shock is and why we measure it,. basic requirements are provided for all measurement systems that. process transient signals. High- and low-frequency dynamic models for. the measuring accelerometer are presented and justified. These models. are then used
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Development of a Damped Piezoresistive MEMS High Shock Sensor
in this paper. In this approach, the resonance frequency is intentionally lowered to reduce the response of the accelerometer to higher frequency energy that may be present in shock events. The relatively low resonance enables displacements of the seismic element sufficient to introduce squeeze film
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Field Evaluations of a Damped MEMS Shock Sensor
amplification during violent events by orders of magnitude over conventional undamped PR MEMS designs. Such damping enhances survivability and reduces the need for filtration, whether mechanical or electrical, to block unwanted high-frequency output. Analysis of results shows that the frequency response