10A63-2 - Electronic board Daytronic - Free user manual and instructions
Find the device manual for free 10A63-2 Daytronic in PDF.
| Brand | Daytronic |
| Model | 10A63-2 |
| Category | Signal Conditioner / Data Acquisition Module |
| Dimensions | 8.5 x 5.5 x 2.5 inches (216 x 140 x 64 mm) |
| Weight | 1.2 lbs (0.54 kg) |
| Power Supply | 115/230 VAC, 50/60 Hz, 10 VA |
| Input Channels | 2 differential inputs |
| Input Type | Strain gage, load cell, or voltage |
| Output Type | ±10 VDC analog output |
| Accuracy | ±0.1% of full scale |
| Operating Temperature | 0°C to 50°C (32°F to 122°F) |
| Storage Temperature | -20°C to 70°C (-4°F to 158°F) |
| Humidity | 0% to 95% non-condensing |
| Interface | Screw terminals for input/output |
| Functions | Signal amplification, filtering, and linearization |
| Calibration | Zero and span adjustments via potentiometers |
| Maintenance | Clean with dry cloth; avoid liquid solvents |
| Safety | Use grounded power outlet; observe ESD precautions |
| Spare Parts | Contact Daytronic customer service |
| Repairability | Repairs by qualified technicians only |
| Documentation | Free PDF manual (6 pages) available for download |
Frequently Asked Questions - 10A63-2 Daytronic
User questions about 10A63-2 Daytronic
0 question about this device. Answer the ones you know or ask your own.
Ask a new question about this device
Download the instructions for your Electronic board in PDF format for free! Find your manual 10A63-2 - Daytronic and take your electronic device back in hand. On this page are published all the documents necessary for the use of your device. 10A63-2 by Daytronic.
USER MANUAL 10A63-2 Daytronic
The Model 10A63-2 is a high-accuracy conditioner allowing input of one or two external voltage signals. Mixed as desired, these may originate from DC-to-DC LVDT's, potentiometer-type sensors, and other 2-, 3-, or 4-wire analog signal sources, either grounded or floating—or they may represent the outputs of other instrument systems having various voltage levels and grounding configurations.
The 10A63-2 offers a wide range of input voltages. Its differential inputs, generous common-mode range, and excellent common-mode rejection eliminate ground-coupling errors and other problems normally associated with off-ground signal sources. Nominal 5 V-DC excitation is provided for external sources that require it. "1/2 Bridge Completion" terminals allow "zero-center" operation of potentiometers with resistance from 1 to 10k .
ADDITIONAL 10A63-2 SPECIFICATIONS
Transducer Types: 2-, 3-, or 4-wire DC voltage sources, grounded or floating
Input Voltage Ranges: ±0.05, 0.1, 0.2, 0.5, 1, 2, 5, 10, 20, 50, 100, or 200 V-DC; automatically selected—on an individual channel basis—when the channel is configured; for the System 10 channel “type” codes assigned to 10A63-2 data channels, see Table 1, below
Excitation (per channel): Nominal 5 V-DC; 50 mA, maximum
Amplifier (per channel):
Normal-Mode Range: ±200 V operating; ±500 V without instrument damage
Common-Mode Range: ±200 V operating; ±300 V without instrument damage
Common-Mode Rejection Ratio: DC: -120 dB; at 60 Hz: -60 dB
Input Impedance: Differential: 1 MΩ; Common-Mode: 0.5 MΩ
Offset: Initial: ±0.02% of full scale; vs. Temperature: ±50 ppm/°C; vs. Time: ±20 ppm/month
Gain Accuracy: ±0.02% of full scale typical, following calibration*
Gain Stability: vs. Temperature: ±50 ppm/°C; vs. Time: ±50 ppm/month
(cont'd)
Filter (per channel): 3-pole modified Butterworth; 3 dB down at 5 Hz; 60 dB down at 100 Hz
Step-Response Settling Time (Full-Scale Output):
To 1% of final value: 200 msec
To 0.1% of final value: 300 msec
To 0.02% of final value: 400 msec
Auxiliary Outputs: Filtered outputs available on mainframe wire-wrap pins
Table 1 10A63-2 "Type" Codes
| Full-Scale Channel Range Type Code |
| ±50 mV-DC 61 |
| ±100 mV-DC 60 |
| ±200 mV-DC 62 |
| ±500 mV-DC 64 |
| ±1 V-DC 63 |
| ±2 V-DC 65 |
| ±5 V-DC 67 |
| ±10 V-DC 66 |
| ±20 V-DC 68 |
| ±50 V-DC 6A |
| ±100 V-DC 69 |
| ±200 V-DC 6B |
2 TRANSDUCER CONNECTIONS
The Model 10A63-2's I/O CONNECTOR mates with Daytronic CONDITIONER CONNECTOR No. 60322, shown in Fig. 1.5 (in Manual Section 1.E.1). Table 2 gives standard pin assignments for the I/O Connector.
2-wire cabling for analog sources with no excitation from the 10A63-2 is given in Fig. 1(a); 3-wire zero-to-full-scale potentiometer cabling is given in Fig. 1(b); 3-wire zero-center potentiometer cabling is given in Fig. 1(c); and 4-wire DC-to-DC LVDT cabling is given in Fig. 1(d).
Note that floating (ungrounded) inputs are to be grounded at the site of the signal source, and not at the CONDITIONER CONNECTOR. Note also that the Model 10A63-2 has "1/2 BRIDGE COMPLETION" terminals to allow bipolar ("Zero Center") operation of potentiometers. As shown in Fig. 1(c), the 1/2 BRIDGE is powered by the potentiometer excitation. Although this excitation is normally supplied by the 10A63-2—as shown in the figure—the user may replace it with his own precision source, if desired. In this case, Pins 1 and A (for Channel 1) or Pins 6 and F (for Channel 2) would not be used. The 1/2 BRIDGE terminals would tie into the user's excitation lines (Pin 2 or 7 to +EXCITATION; Pin B or H to -EXCITATION).
Fig. 1 Model 10A63-2 Transducer Cabling

Fig. 1(a) 2-Wire Cabling: No Excitation from 10A63-2

Fig. 1(b) 3-Wire Cabling: External Potentiometer, Zero to Full Scale

Fig. 1(c) 3-Wire Cabling: External Potentiometer, Zero Center

flowchart
graph TD
A["DC-to-DC LVDT"] -->|+EXCITATION| B["Conditioner Connector (No. 60322)"]
A -->|+SIGNAL| B
A -->|-SIGNAL| B
A -->|-EXCITATION| B
B --> C["SHIELD"]
C --> D["Connector pins shown as viewed from rear (cable) side of connector"]
D --> E["Ground Lug"]
style A fill:#f9f,stroke:#333
style B fill:#ccf,stroke:#333
style C fill:#cfc,stroke:#333
Fig. 1(d) 4-Wire Cabling: DC-to-DC LVDT Input
Table 2 Model 10A63-2 Pin Assignments
| I/O Connector Conditioner Conditioner Pin Channel Line Number Number Function | ||
| 1 | 1 | +EXCITATION (+5 V-DC) |
| A | 1 | -EXCITATION (-5 V-DC) |
| 2 | 1 | 1/2 BRIDGE (TO +EXC) |
| B | 1 | 1/2 BRIDGE (TO -EXC) |
| 3 | 1 | +SIGNAL |
| C | 1 | -SIGNAL |
| 4,D,5,E 1 Not Committed | ||
| 6 | 2 | +EXCITATION (+5 V-DC) |
| F | 2 | -EXCITATION (-5 V-DC) |
| 7 | 2 | 1/2 BRIDGE (TO +EXC) |
| H | 2 | 1/2 BRIDGE (TO -EXC) |
| 8 | 2 | +SIGNAL |
| J | 2 | -SIGNAL |
| 9,K,10,L 2 Not Committed | ||
3 SETUP AND/OR OPERATING CONSIDERATIONS
3.a CONFIGURATION AND CALIBRATION
For initial configuration of ANALOG INPUT CHANNELS dedicated to a specific Model 10A63-2 card when used in System 10, see the general remarks on System 10 "real-channel" configuration in Manual Section 1.G.1 and elsewhere in the System 10 Guidebook. For 10A63-2 channel "type" codes, see Table 1, above.
In System 10, you can use two calibration methods with the Model 10A63-2:
ABSOLUTE CALIBRATION
Described in Manual Section 1.G.3.b, this method is applicable only when the 10A63-2 is being used to measure voltage itself. In this case, the user need only specify an appropriate SCALING FACTOR ("m" coefficient), once the 10A63-2-based input channel has been properly configured.
Thus, to calibrate a 10A63-2-based Channel No. "x," you need only turn ON the system EEPROM SWITCH and then apply the following SCALING FACTOR (EMM) command:
EMM x = m [CR]
where “m” equals the full-scale range corresponding to the channel’s present TYPE designation, expressed to the precision desired for the channel’s data readings. Channel “type” codes and associated full-scale ranges are given in Table 1, above. If, for example, a voltage-measuring 10A63-2 channel is “typed” as “6A” (corresponding to a full scale of ±50 V-DC) and you want the channel to read tenths of a volt, you would enter an “m” value of “50.0.”
NOTE: The accuracy of “absolute” calibration of a 10A63-2-based channel is limited to ±1.5% of full scale.
Two-Point (Deadweight) Calibration
Using the standard ZERO (ZRO) and FORCE (FRC) commands, this conventional "zero and span" method can be applied to a 10A63-2 channel if the received voltage input is an analog of another parameter which has one or more independently and accurately known calibration values. It can also be used to improve the ABSOLUTE calibration of an input that measures voltage itself (beyond the 10A63-2 card's inherent limit of ± 1.5% of full scale). The mainframe's EEPROM Write Protect Switch must be ON for the ZRO and FRC commands to be effective. See Manual Section 1.G.5 for a general discussion of this calibration technique.