By Mark Harris Wednesday, 15 March 2023
In this rigorous technical analysis, we have assessed the performance of a wirewound resistor, the CW005R1000JE73 produced by Vishay Dale. To accomplish this comprehensive review, this resistor has been meticulously compared to a plethora of statistical benchmark values for components within its classification, thereby giving engineers the crucial information needed to make an informed decision about whether or not to incorporate this particular resistor into their electronic designs.
It is crucial to note that this review does not aim to paint the subject in a positive light exclusively; rather, it objectively evaluates the component’s performance, whether outstanding or otherwise, to provide a clear understanding of its efficacy against the cited benchmarks.
The data obtained through the examination of the Vishay Dale CW005R1000JE73 resistor will be analyzed against benchmark values obtained from several other 100mΩ resistors. Our goal in providing this insightful, professional, and educational comparisons is to equip engineers with a profound understanding of this resistor’s potential capabilities that would ultimately prove beneficial in their decision-making process.
To provide an accurate and meticulous examination, this review will focus on several aspects, including resistance, inductance, and a comparative analysis. The resistance and inductance will enunciate the component's characteristics, while the comparative analysis will decisively determine whether the CW005R1000JE73 resistor's performance is in alignment with the departmental benchmarks or if it deviates from the norm considerably. It is paramount that electronic engineers deeply consider the data and findings in the following sections, as they potentially have a monumental influence on the decision-making process regarding the future utilization of this specific wirewound resistor.
In the evaluation of the impedance behavior of the Vishay Dale CW005R1000JE73 Resistor, an insightful and comprehensive analysis of the component data has been conducted. The performance of this resistor has been meticulously compared to a well-established statistical benchmark derived from other components with similar resistance values.
Upon analyzing the obtained data, notable discrepancies become evident between the CW005R1000JE73 Resistor's performance and the statistical benchmark. The evaluated resistor demonstrates impedance values consistently ranging from 100.9m Ohms to 245.6m Ohms at a 1 Volt testing condition. Whereas, the benchmark data indicates that at this same voltage, the impedance values typically oscillate between 76.51m and 122.1m Ohms across different test frequencies. This is a compelling observation since it suggests that the CW005R1000JE73 Resistor provides relatively enhanced impedance, potentially making it more suitable for specific applications where increased impedance is sought after.
As we delve deeper into the findings, the LCR measurements obtained at a higher test voltage of 10 Volts reveal a substantial deviation when comparing the CW005R1000JE73 Resistor to the benchmark data. At this elevated voltage level, the resistor exhibits impedance values spanning between 33.91m Ohms and 150.3m Ohms. While data for higher test frequencies remain unavailable, it is crucial to highlight the impedance values' pronounced disparities between the two voltage levels being 1 Volt and 10 Volts. Electronic engineers should weigh this pertinent information when determining whether the CW005R1000JE73 Resistor performs optimally for various applications under diverse voltage conditions.
In conclusion, the comparison of the Vishay Dale CW005R1000JE73 Resistor's impedance performance against the statistical benchmark serves to illuminate its consistently higher impedance provision. Consequently, this particular resistor may prove to be better suited for applications necessitating increased impedance, particularly within the stipulated frequency range. Furthermore, electronic engineers should pay scrupulous attention to the voltage-dependent behavior of this Resistor in their circuit designs to ensure optimal performance, bearing in mind the considerable differences observed between 1 Volt and 10 Volt test scenarios.
In this section, we will undertake an in-depth examination of the resistance performance of the Vishay Dale's wirewound resistor with part number CW005R1000JE73. Our primary focus will be to evaluate the deviation from the nominal resistance of 100 milliohms (100m) within a tolerance of ±5%, considering the possible impact that the observed deviation could pose on the targeted application. The analysis will involve evaluating data obtained from LCR measurements taken at various test frequencies spanning between 5 Hz and 1 MHz, and test voltages of 1 and 10 volts. The results will be compared to a pre-established statistical benchmark to understand the performance characteristics of the resistor and ascertain if it stays within the manufacturer's specifications.
LCR measurements of the CW005R1000JE73 resistor, taken at 1 volt, indicate a relatively small deviation from the nominal resistance value. This deviation appears to grow more pronounced as test frequencies increase, ranging from a measurement of 100.9 milliohms at 5 Hz up to the maximum observed value of 105.5 milliohms at 1 MHz. Given that the acceptable deviation as per the tolerance specification is ±5%, the resistor's performance can still be considered acceptable within the specified limits.
In the case of higher test voltages of 10 volts, some inconsistencies are reported within lower frequency measurements. Furthermore, there is a dearth of specific detail for certain frequencies above 600 kHz in the benchmark data, which restricts the scope to comprehensively analyze the resistor's performance in that range.
Nevertheless, within the available data range, at a test frequency of 50 kHz and a voltage of 10 volts, the CW005R1000JE73 wirewound resistor exhibits a marked jump in resistance, measuring 92.78 milliohms. This observation leads us to deduce that the resistor demonstrates a clear tendency toward greater deviation at higher frequencies and voltages when compared against the statistical benchmark.
Keeping in mind the findings from our resistance analysis, it is of utmost importance to consider the resistance deviation exhibited by the CW005R1000JE73 wirewound resistor in relation to the intended circuit implementation. Depending on the specific engineering application and the environment in which the resistor is deployed, the gradual increase in resistance values as the testing frequency rises might still be manageable. However, it is crucial to evaluate the potential impact of these deviations before choosing this resistor in order to ensure optimal circuit performance and reliability.
The CW005R1000JE73 exhibits a series inductance of 4.696 µH at the relatively low test frequency of 5 Hz, which is notably higher than the average benchmark of 3.411 µH. This increased inductance, although not ideal for low-frequency circuits, is indicative of the component's potential capability in more challenging, higher-frequency applications. Nevertheless, as the test frequency increases, the observed disparity between the CW005R1000JE73's inductance and the benchmark narrows, revealing its greater adaptability and performance at higher frequency ranges. For example, at 50 Hz, it records an inductance of 602.7 nH, which closely mirrors the average benchmark of 598.7 nH.
As the frequency continues to increase, the statistical deviation observed in the CW005R1000JE73's inductance begins to diminish. By the time we reach 1 kHz, it records 34.21 nH, a value only slightly above the benchmark's average of 8.074 nH. This resistor's adaptability to higher frequencies is further showcased when tested at 5 kHz, as the inductance values remain well within the acceptable range and demonstrate consistent performance.
In extremely high-frequency scenarios, the CW005R1000JE73 maintains a commendable performance trend, with no detrimental effects on inductance values. To illustrate this, let's consider a datum point at 800 kHz: the observed 35.4 nH inductance demonstrates a performance metric that is not far off from the benchmark's average value of 6.211 nH. This means that the CW005R1000JE73 demonstrates remarkable adaptability when faced with even the most demanding and intricate circuit designs operating at high frequencies.
Overall, the CW005R1000JE73 presents itself as a suitable component for use across a diverse range of applications, particularly in higher-frequency domains. Its performance and adaptability make it a strong candidate for incorporation into designs where inductance considerations are crucial to maintain proper operational integrity and ensure reliable circuit performance.
In this comparative analysis, the performance of the Vishay Dale CW005R1000JE73 wirewound resistor is examined and compared to the statistical benchmark. This examination intends to provide insight for electronics engineers who are considering whether to use this resistor in their applications. A thorough analysis is conducted, focusing on LCR measurements in Impedance, Quality Factor, Series Resistance, and Series Inductance at both 1 Volt and 10 Volts across various test frequencies.
At 1 Volt, the CW005R1000JE73 resistor demonstrates comparable Impedance performance across frequencies as observed in the statistical benchmark data. At frequencies 5Hz to 50kHz, the impedance values of the component are slightly higher than the average values found in the benchmark, 100.9m Ohms vs 92.22m Ohms respectively. At higher frequencies up to 1MHz, the component impedance increases even further, with values up to 245.6m Ohms, leading to a more drastic deviation from the average values found in the benchmark.
In terms of Quality Factor, this resistor offers a lower performance when compared to the statistical benchmark. Starting from 5kHz up to 1MHz, the Quality Factor of CW005R1000JE73 remains between 0.01 to 2.10, whereas the benchmark exhibits values up to 0.05 to 2.29. It is worth noting that at lower frequencies (5Hz to 1kHz), no Quality Factor values are reported for the component being analyzed.
When evaluating Series Resistance performance, the component exhibits values that are higher than the benchmark average, especially in the 5Hz to 50kHz range. For instance, at 5kHz, the component presents a resistance value of 101.1m Ohms compared to an average of 91.94m Ohms in the benchmark. A similar trend is observed across all test frequencies, where the component demonstrates consistently higher resistance values compared to the benchmark average.
Series Inductance of the CW005R1000JE73 resistor reveals varied performance in comparison with the statistical benchmark. From 5Hz to 50kHz, the component presents higher inductance values, starting with 4.696μH at 5Hz, which is considerably higher than the benchmark average of 3.411μH. The component's inductance decreases as the frequency increases, leading to more comparable values to the benchmark average. It is important to consider this aspect when analyzing performance across the entire frequency range.
In summary, the CW005R1000JE73 wirewound resistor exhibits contrasting performance compared to the statistical benchmark when examining impedance, quality factor, series resistance, and series inductance. At certain frequency ranges, the component demonstrates higher impedance, series resistance, and inductance values as well as a lower quality factor. Engineers should evaluate whether these deviations from the benchmark meet their specific application requirements when considering this resistor.
In an intricate examination of Vishay Dale's 100m Ohm Resistor (CW005R1000JE73), an insightful juxtaposition with benchmark data reveals salient differences in performance. With a deeper exploration into the component's test data, this conclusion aspires to shed light on its adequacy for use in various engineering applications.
Starting at 1 Volt, comparisons to the statistical benchmark data expose discrepancies in the Impedance values over a wide range of test frequencies. At lower frequencies - 5k and 10k - the Resistor far surpasses average values, achieving an Impedance of 101.1m Ohm and 101.2m Ohm, respectively. However, as the frequency increases, the Resistor's performance gradually deteriorates, reaching levels below the average. For instance, an impedance value of 245.6m Ohm at 1MHz is discovered, lower than the maximum value of its counterparts.
Furthermore, the Quality factor examinations deliver remarkable insights as the Resistor solely performs above the benchmark values. At 50k, for example, its Quality factor stands at 0.11 in comparison to the average of 0.05. Without exception, the Vishay Dale CW005R1000JE73 Resistor's Quality factor remains consistently superior.
Simultaneously, the Resistor exhibits varying results in terms of Series Resistance and Inductance. Throughout most of the test frequencies, the Resistor's Series Resistance value is either equal to or slightly higher than the maximum benchmark value. However, at higher test frequencies, the performance considerably drops. In the case of Series Inductance, the observed values remain higher than the average benchmark but fail to outperform the maximum.
Upon evaluation at 10 Volts, the Resistor maintains its superiority in terms of Quality factor and presents a consistent Series Resistance value, while the Impedance and Inductance values again deviate from the benchmark data.
Ultimately, the Vishay Dale 100m Ohm Resistor (CW005R1000JE73) demonstrates divergent outcomes across various test conditions and parameters. When compared with its statistical benchmarks, the Resistor excels in Quality factor and Series Resistance, yet falls short in Impedance and Inductance performance for most frequencies. Decision-makers with a keen eye on rigorous performance evaluations must take into account these findings when selecting this Wirewound Resistor to enhance their product's reliability, efficiency, and precision.