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Part Numbert Mfg Packt D/C Descriptiont Qty Company/Contact  
MZP4734ARL ONS    2009+    6159 
    Markaka Development Group Limi..
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MZP4734ARL Datasheet
The TC811 is designed with true differential inputs and accepts input signals within the input stage common mode voltage range (VCM). The typical range is V+ - 1.0 to V- + 1.5V. Common-mode voltages are removed from the sys- tem when the TC811 0perates from a battery or floating power source (isolated from measured system) and VIN iS connected to Analog Common. (see Figure 8) In systems where common-mode voltages exist, the 86dB common-mode rejection ratio minimizes error. Com- mon-mode voltages do, however, aect the integrator out- put level. A worse case condition exists if a large positive VCM exists in conjunction with a full-scale negative dieren- tial signal. The negative signal drives the integrator output positive along with VCM (Figure 8). Forsuch applications the integrator output swing can be reduced below the recom- mended 2.OV full-scale swing. The integrator output will swing within 0.3V of V+ or V- without increased linearity erro r.
MZP4734ARL Price

Bezeichnung Description Symbol Symbol Wert Value Einheit Unit
Fotoempfindlichkeit Spectral sensitivity Normlicht/standard light A, T= 2856 K ;VR = 0 V S 1 30 nA/lx
Fotoempfindlichkeit Spectral sensitivity ;VR = 0 V, Ee = 0.25 mW/cm2 Se 1 3(8)
Wellenlange der max. Fotoempfindlichkeit Wavelength of max. sensitivity Smax 1 550 nm
Spektraler Bereich der Fotoempfindlichkeit S= 10 % von Smax Spectral range of sensitivity S= 10 % of Smax 6001800 nm
Bestrahlungsempfindliche Flache Radiant sensitive area 1 mmZ
Abmessung der bestrahlungsempfindlichen Flache Dimensions of radiant sensitive area ×B × 1×1 mm
Abstand Chipoberflache zu Gehauseober- flache Distance chip front to case surface H 4.25 mm


MZP4734ARL on stock

", Temperature Compensated Performance ' J iA G Units
Min ^l Min Min
' ~ REFERENCEACCURACY(L+H+R) ', . i =
5 PSI ! '0.075 i25- iO'26 % of Span, BFSL
i 3 PSI D075., 8^± D2i i % of Span, BFSL
Standard Output-Current Excitation: j ^
:i 5PSI {50 75 1500 75 j50i 75 nNdc
3 PSI '0{20'-j 60 7i i20 60 120j 60 mVdc
Standard Output-Voltage Excltatlon: " . - i-
5 PSI 75 40 i 75It 40 755- 40 mVdc
3 PSI ÷j 30 t=Oj 30 -6 30 mVdc
Normallzed Output-Current Excltatlon: _jj - _Jr
5 PSI 100'+2 - j4+-2 :1002 mVck
3 PSI 5Q2j 'j60±2 60i2 mVdc
: Normalized Output-Voltage Excitation: -i i1 -7
5 PSI 40 - 40 +2 ( 4Qv2 1 mVdc
3 PSI 25± -2-1j 2 mVdc
Zero pressure output #{27 l2 2- mVdc
. ~ TEMPERATURE ACCURACY . j? I
Total Zero temperature error: j t 71 __j j j j
-5 PSI 05 0 7{j-j jjj % Span in reference t0 270C
3 PSI 1-- 15 i 3j i % Span in reference t0 270C
TotaISpantemperatureerror: i: J j ~ _=ji
6 PSI --oS j j2 % Span in reference t0 270C
'3 PSI Q0 li{ 3+j7 i % Span in reference t0 270C .
Long-term drift _oI2 j t0j2 27t % Span per 6 monlhs
Temperature Compensated Range ; ' 300 t0 1300 Ff- 0 to +540C1
Operating Temperature Range -400 to v2500 F (-400 to +1210 C)
. AmblentTemperature ' ' . -400 to +2500 F (-400 to +1210 C)


APPLICATIONS 1. 6-bit D-A converter The ZN436 gives an analogue voltage output directly from pin 4 therefore the usual current to voltage converting amplifier is not required. The output voltage drift, due to the temperature coefficient of the analogue output resistance Ro, will be less than 0.004% per aC tor lLSB/lOOoC) if RL is chosen to be >650kfl. In order to remove the offset voltage and to calibrate the converter a buffer amplifier is necessary. Fig. 3 shows a typical scheme. To minimise temperature drift in this and similar