Industrial

ZXM64N035L3 is a 35V N-channel enhancement mode MOSFET. Its main features include low on-resistance, high switching speed, low threshold, low gate drive and TO220 package. Applications include 100W Class D audio output stage and motor control circuit.

This document describes the package options of the SDLS025B product, as well as its models and pin layouts in different packages. The product is a device with four independent 2-input NAND gates, capable of performing the Boolean function Y = A • B or Y = A + B.

This document describes the features and characteristics of 4 independent 2-input NAND gates in models such as SN5400, SN54LS00, SN54S00, SN7400, and SN74LS00.

The document describes the features and characteristics of the SN7002W SIPMOS small-signal transistor, including N-channel, enhancement mode, logic level, and dv/dt rating. It also provides maximum ratings and thermal characteristics.

SN7002N is a SIPMOS small-signal transistor with N-channel, enhancement mode, logic level, dv/dt rated, SOT-23 package.

The SN 7002 is an N-channel enhancement mode logic level small signal transistor with a maximum drain source voltage of 60V, a maximum DC drain current of 0.19A, and a maximum RDS(on) of 5Ω.

The SN 7000 is a logic-level N-channel enhancement-mode small-signal transistor from Texas Instruments. Its maximum drain-source voltage is 60 V, maximum drain current is 0.25 A, and maximum drain-source resistance is 5 ohms.

This application note describes the characterization of a monoclonal antibody at low nanogram levels using an Agilent HPLC-Chip system coupled to an Agilent Accurate-Mass Q-TOF MS instrument. The superior sensitivity and mass accuracy of the HPLC-Chip LC/MS platform, combined with the powerful data processing capabilities of Agilent MassHunter and BioConfirm software, enabled easy and rapid identifi cation of antibody heterogeneity and cleaved fragments. Robust, reliable, and easy to use, Agilent nanofl ow LC/MS technology is ideally suited for the routine analysis of biopharmaceuticals.

This document introduces the Agilent gDNA Isolation Workstation, which can efficiently extract DNA and can process up to 10 microplates at a time. The processing time for each microplate is approximately 10 minutes.

This is a technical document about DAC1230LCD-1

This document describes the application of the Agilent Cell Viability Workstation and Promega CellTiter-Glo kit. The Agilent Cell Viability Workstation consists of a Molecular Devices SpectraMax M5 and an Agilent BenchCel Microplate Handling Workstation integrated with an Agilent Bravo Automated Liquid Handling Platform. This workstation is designed for automated cell viability testing and features a compact footprint and high-throughput processing capability. The Promega CellTiter-Glo kit utilizes a linear relationship between ATP concentration and light signal, measuring the ATP content in cells through the generation of luminescence to determine the number of viable cells.

The DAC1220 is a 20-bit low-power digital-to-analog converter with 20-bit monotonic performance over the specified temperature range of -40°C to +85°C. It utilizes delta-sigma technology to achieve inherently linear performance in a small package at very low power. The resolution of the device can be programmed to 20 bits, settling to 0.003% within 15ms typical, or 16 bits, settling to 0.012% within 2ms max. The output range is two times the external reference voltage. On-chip calibration circuitry dramatically reduces low offset and gain errors. The DAC1220 features a synchronous serial interface. In single-converter applications, the serial interface can be accomplished with just two wires, allowing low-cost isolation. For multiple converters, a CS signal allows for selection of the appropriate D/A converter. The DAC1220 has been designed for closed-loop control applications in the industrial process control market and high-resolution applications in the test and measurement market. It is also ideal for remote applications, battery-powered instruments, and isolated systems.

This Application Note evaluates the performance of the Agilent 1290 Infinity LC system for the determination of impurities and related substances of metoclopramide hydrochloride in a pharmaceutical formulation. The translation of a conventional liquid chromatography (LC) method on a 1200 Series HPLC system to an ultra high pressure method on an Agilent 1290 Infinity LC system is discussed. Method translation is relatively easy and temperature fine-tuning is the most important parameter to obtain the same selectivity for the different impurities. Pressures as high as 1070 bar were applied during method development. The final high productivity method is carried out at 880 bar in an analysis time of 3.5 min which is approximately 4 times faster than the original HPLC method but with the same accuracy. A validation study was carried out to demonstrate the performance of the Agilent 1290 Infinity LC system. Limits of detection for the impurities were as low as 0.001 % w/w relative to the main compound using the new diode array detector (DAD). This is more than one order of magnitude lower than required.

This Application Note describes the use of highly sulphonated cyclodextrins for the analysis of chiral analytes. By using small 25 µm id capillaries with an extended pathlength of 125 µm id the Joule heating can be controlled while enhancing sensitivity.

The DAC1218 and DAC1219 are 12-bit binary 4-quadrant multiplying D to A converters. The linearity, differential non-linearity, and monotonicity specifications for these converters are all guaranteed over temperature. In addition, these parameters are specified with standard zero and full-scale adjustment procedures as opposed to the impractical best fit straight line guarantee. This level of precision is achieved though the use of an advanced silicon-chromium (SiCr) R-2R resistor ladder network. This type of thin-film resistor eliminates the parasitic diode problems associated with diffused resistors and allows the applied reference voltage to range from -25V to 25V, independent of the logic supply voltage. CMOS current switches and drive circuitry are used to achieve low power consumption (20 mW typical) and minimize output leakage current errors (10 nA maximum). Unique digital input circuitry maintains TTL compatible input threshold voltages over the full operating supply voltage range. The DAC1218 and DAC1219 are direct replacements for the AD7541 series, AD7521 series, and AD7531 series with a significant improvement in the linearity specification. In applications where direct interface of the D to A converter to a microprocessor bus is desirable, the DAC1208 and DAC1230 series eliminate the need for additional components.