Temperature effect on the characteristics and lifetime of semiconductor detectors

The paper reports the results from studies into the effect of temperature on the performance characteristics of planar silicon detectors designed and manufactured at the NSC KIPT. A variety of techniques are demonstrated for measuring the temperature effect on various static and spectral character...

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Published in:Вопросы атомной науки и техники
Date:2006
Main Authors: Vasiliyev, G.P., Kosinov, A.V., Kulibaba, V.I., Maslov, N.I., Naumov, S.V., Ovchinnik, V.D., Yalovenko, V.I.
Format: Article
Language:English
Published: Національний науковий центр «Харківський фізико-технічний інститут» НАН України 2006
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Online Access:https://nasplib.isofts.kiev.ua/handle/123456789/79871
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Cite this:Temperature effect on the characteristics and lifetime of semiconductor detectors / G.P. Vasiliyev, A.V. Kosinov, V.I. Kulibaba, N.I. Maslov, S.V. Naumov, V.D. Ovchinnik, V.I. Yalovenko // Вопросы атомной науки и техники. — 2006. — № 3. — С. 137-139. — Бібліогр.: 11 назв. — англ.

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Digital Library of Periodicals of National Academy of Sciences of Ukraine
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author Vasiliyev, G.P.
Kosinov, A.V.
Kulibaba, V.I.
Maslov, N.I.
Naumov, S.V.
Ovchinnik, V.D.
Yalovenko, V.I.
author_facet Vasiliyev, G.P.
Kosinov, A.V.
Kulibaba, V.I.
Maslov, N.I.
Naumov, S.V.
Ovchinnik, V.D.
Yalovenko, V.I.
citation_txt Temperature effect on the characteristics and lifetime of semiconductor detectors / G.P. Vasiliyev, A.V. Kosinov, V.I. Kulibaba, N.I. Maslov, S.V. Naumov, V.D. Ovchinnik, V.I. Yalovenko // Вопросы атомной науки и техники. — 2006. — № 3. — С. 137-139. — Бібліогр.: 11 назв. — англ.
collection DSpace DC
container_title Вопросы атомной науки и техники
description The paper reports the results from studies into the effect of temperature on the performance characteristics of planar silicon detectors designed and manufactured at the NSC KIPT. A variety of techniques are demonstrated for measuring the temperature effect on various static and spectral characteristics of single-channel planar detectors. The relationship between the static characteristics of detectors and their long-term stability and lifetime is considered. Приведены результаты исследования воздействия температуры на характеристики планарных кремниевых детекторов, спроектированных и изготовленных в ННЦ ХФТИ. Показан ряд методик, позволяющих проводить измерения влияния температуры на различные статические и спектральные характеристики одноканальных планарных детекторов. Рассматривается связь статических характеристик детекторов с долговременной стабильностью и временем жизни детекторов. Приведені результати досліджень впливу температури на характеристики пласких кремнієвих детекторів, спроектованих та виготовлених у ННЦ ХФТІ. Продемонстровано ряд методик, які дозволяють проводити вимірювання впливу температури на різні статичні та спектральні характеристики одноканальних пласких детекторів. Розглянуто зв’язок статичних характеристик детекторів з довгостроковою стабільністю та часом життя детекторів.
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fulltext TEMPERATURE EFFECT ON THE CHARACTERISTICS AND LIFE- TIME OF SEMICONDUCTOR DETECTORS G.P. Vasiliyev, A.V. Kosinov, V.I. Kulibaba, N.I. Maslov, S.V. Naumov, V.D. Ovchinnik, V.I. Yalovenko NSC KIPT, Kharkov, Ukraine E-mail: NIKOLAI.MASLOV@KIPT.KHARKOV.UA The paper reports the results from studies into the effect of temperature on the performance characteristics of pla- nar silicon detectors designed and manufactured at the NSC KIPT. A variety of techniques are demonstrated for measuring the temperature effect on various static and spectral characteristics of single-channel planar detectors. The relationship between the static characteristics of detectors and their long-term stability and lifetime is considered. PACS: 29.40.Wk 1. INTRODUCTION An important factor in the operation of silicon detec- tors that influences their performance characteristics is the temperature. It may exert an effect on many vital op- eration parameters of silicon detectors, such as dark leakage currents and energy resolution. It is known [1] that the studies of the behavior of detector characteris- tics at different temperature conditions may provide pre- diction of the nonfailure operation time of the detector. With a more detailed investigation into the behavior of both static and spectral characteristics of silicon detec- tors versus temperature it appears possible to determine the physical processes of parameter destabilization with time, this being of primary importance at long-term us- age of the detectors. 2. TEMPERATURE-LIFETIME INTER- RELATION OF SI PHOTODIODE Specialists concerned with the reliability of products often describe the lifetime of a product population with the use of a graphic representation called the U-curve [2]. Fig.1 shows the U-like curve that consists of three periods: i) the initial period with a decreasing failure fre- quency followed by ii) the normal period of service (also known as useful period) with a low, relatively con- stant frequency of failures, and iii) the final period or the wear-out period, which exhibits an increasing failure frequency. Fig.1. Schematic diagram of detector lifetime stages In long-term stability tests of semiconductor detec- tors and in the determination of their lifetimes the tech- nique is used, which makes it possible to reject inade- quate-quality detectors at the initial stage of detecting module production, and also to establish the reasons of their failure. The essence of the technique consists in the follow- ing. It is known [3] that under the action of elevated temperature and bias voltage the probability that defects will manifest themselves in a semiconductor crystal in- creases. The tests of the kind, where nonstandard modes of semiconductor operation are used, are referred to as “accelerated tests”. Accelerated lifetime tests are generally used to ob- tain more quickly the information on the life expectancy of products and materials, and also to simulate the mechanisms of failures that may occur throughout the service life of the product. The accelerated test implies that the products will be subjected to the conditions which will be more severe than normal ones, and which would be never attained at ordinary use of the product. If there is a speed-up effect, then the variation in the stress is equivalent to the time scale transformation. Let us briefly consider the basic failure mechanisms of semiconductor products. There are three main causes of semiconductor failures: the failures associated with electrical voltage, internal failures and external causes of faults. The failures due to degradation of the semiconductor itself are called internal failures. These mechanisms are generally connected with the process of wafer produc- tion and involve crystal defects, dislocations and pro- cess-induced defects, oxide breakdown, ionic soil, sur- face charge propagation, etc. The mentioned defects generally result either from a poor processing of a crys- tal, or from a nonuniform growth of the oxide layer. On the contrary, the soiling is usually a consequence of en- vironmental influences, human factor (surface contact, etc.), processing or packing. The external causes of fail- ure are connected with the external conditions. The fail- ures generally result from a wrong stacking of semicon- ductor products, and also from the interaction of struc- tural materials. The model approximations used to simulate the ac- celerated lifetime include Arrhenius model [5], Airing model [6], and others. Arrhenius model describes relationship between the failure occurrence time of electronics components and the temperature. According to this model, relationship between the stress and the lifetime is given by ____________________________________________________________ PROBLEMS OF ATOMIC SCIENCE AND TECHNOLOGY. 2006. № 3. Series: Nuclear Physics Investigations (47), p.137-139. 137 mailto:nikolai.maslov@kipt.kharkov.ua KT Ea CeTL =)( . Here C is the parameter to be estimated, Ea is the ac- tivation energy (eV), and k is the Boltzmann constant (8.617·10-5 eV/K). With the use of the maximum likelihood theory [7], the parameters of the Arrhenius model are estimated in the assumption that the basis for the lifetime distribution of the sample is the Waybull distribution [8]. The acceleration factor is determined in this case as accel use L L AF = . It shows the ratio of the lifetime at normal conditions to the lifetime at accelerated tests. As the activation energy can be calculated, we have     −    − == acceluse a accel a use a TTK E KT E KT E eeAF 11 . Here Tuse is the temperature at normal operating condi- tions; Taccel is the temperature at accelerated tests. The humidity and the bias voltage of the detector play an important role in many mechanisms responsible for the abnormal performance of semiconductor prod- ucts. The general model that includes three parameters (temperature, bias voltage and humidity) has the follow- ing form [9]: γβ −− ∆ = RHVAet kT H f . Here RH denotes the percentage of humidity, ΔΗ is the activation energy, and V is the bias voltage. In the general case, the Airing model can be used to simulate acceleration when many stress factors are taken into account. At present, there is an extensive software base that makes it possible to simplify the calculations and pro- vides an easy-to-use interface [10]. 3. TEMPERATURE EFFECT ON THE CHARACTERISTICS OF PLANAR DETECTORS In spectrometry measurements carried out with semi- conductor detectors, the working temperature of the de- tector is one of the key factors that limit the possibility of attaining high energy resolution. In the present work most attention has been given to the temperature depen- dence of dark leakage current of the p-n junction of the planar silicon pin-detector. Previously, we have mea- sured the temperature dependence of leakage current of detector structure elements having different active zone areas and different current-voltage characteristics, and have demonstrated that the energy resolution of the de- tector is mainly determined by dark leakage currents of the active area of the detector. To investigate the influence of temperature on the static characteristics of detectors, a multichannel stand was used as a basic setup, while a special probe adapter was used to investigate spectral characteristics. It should be specially noted that the temperature de- pendence of leakage currents is individual for each de- tector, and to estimate correctly the temperature effect on the energy resolution and dark leakage currents, it is necessary to know the specific dependence I(T) for each detector. Using the thermocycling technique we have found an unstable operation of the p-n junction of a pin-detector having a low prebreakdown voltage. The instability manifests itself in the variation of the leakage current of the active area depending on the number of heating cy- cles. Fig.2 shows the behavior of the leakage current at the maximum bias voltage after different stages of detec- tor heating. 1 2 3 4 5 0,2 0,4 0,6 0,8 1,0 1,2 1,4 1,6 1,8 17.3 0C16.25 0C18.5 0C C ur re nt , n A Number of test U = 40 V Active area (5x5) M7 Guard ring M7 Leakage current at the maximum of voltage-current characteristic and before temperature raising Fig.2. Leakage currents of the active area and the guard ring at the working bias voltage at different stages after annealing It can be seen that the leakage current of the active area, measured at room temperature, falls off with an in- creasing number of heating cycles. Since the range of working temperatures in different experiments varies within wide limits (from liquid nitrogen temperatures up to ~ 50°C and higher), there arises the question about the behavior of the leakage current at temperatures different from room temperature. Experiments show that the leakage current of the ac- tive area substantially increases after a few heating cy- cles. Fig.3 shows the rise in the leakage current of the ac- tive area at the working bias voltage and a temperature of 40°C as a function of the number of heating cycles. It is obvious that the dark leakage current of the p-n junc- tion has substantially increased. This instability is inad- missible for operation of the detector at different ambi- ent temperatures. Consequently, with the help of the technique described, it appears possible to reject the de- fective detectors at the initial stage of detecting module production. 138 1 2 3 4 5 10 15 20 25 30 35 I, nA stage M7 Active area leakage current U = 40 V T = 40 0C Fig.3. Leakage current of the active area at 40°C at dif- ferent stages of heating 4. CONCLUSIONS It has been shown that the temperature is an essential parameter that must be taken into account at operation of semiconductor detectors. By using specially devel- oped methods it is possible to determine the degree of the temperature effect on an individual detector, and to properly correct the energy resolution with due regard for temperature variations. The accelerated test tech- nique can be used to determine the lifetime of a semi- conductor detector, and also to establish the main mech- anisms of abnormal operation of the detector under ex- amination. REFERENCES 1. http://www.reed-electronics.com/tmworld/ 2. http://www.itl.nist.gov/div898/handbook/apr/sec- tion1/apr124.htm 3. http://www.itl.nist.gov/div898/handbook/apr/sec- tion1/apr14.htm 4. http://www.weibull.com/hotwire/issue21/hot- topics21.htm 5. http://www.chinarel.com/AccelTestWeb/arrhe- nius_relationship_chap_.htm 6. http://www.itl.nist.gov/div898/handbook/apr/sec- tion1/apr152.htm 7. http://www.chinarel.com/LifeDataWeb/maxi- mum_likelihood_estimation_appendix.htm 8. http://www.chinarel.com/LifeDataWeb/the_weib ull_distribution.htm 9. http://www.itl.nist.gov/div898/handbook/apr/sec- tion1/apr153.htm#ThreeStressModels(Temperature, Voltage and 10. http://www.reliasoft.com/ 11. http://www.ortec- online.com/detectors/chargedparticle/introduction/leak age.htm ВЛИЯНИЕ ТЕМПЕРАТУРЫ НА ХАРАКТЕРИСТИКИ И ВРЕМЯ ЖИЗНИ ПОЛУПРОВОДНИ- КОВЫХ ДЕТЕКТОРОВ Г.П. Васильев, А.В. Косинов, В.И. Кулибаба, Н.И. Маслов, С.В. Наумов, В.Д. Овчинник, В.И. Яловенко Приведены результаты исследования воздействия температуры на характеристики планарных кремние- вых детекторов, спроектированных и изготовленных в ННЦ ХФТИ. Показан ряд методик, позволяющих проводить измерения влияния температуры на различные статические и спектральные характеристики одно- канальных планарных детекторов. Рассматривается связь статических характеристик детекторов с долговре- менной стабильностью и временем жизни детекторов. ВПЛИВ ТЕМПЕРАТУРИ НА ХАРАКТЕРИСТИКИ ТА ЧАС ЖИТТЯ НАПІВПРОВІДНИКОВИХ ДЕТЕКТОРІВ Г.П. Васил’єв, О.В. Косінов, В.І. Кулібаба, М.І. Маслов, С.В. Наумов, В.Д. Овчинник, В.І. Яловенко Приведені результати досліджень впливу температури на характеристики пласких кремнієвих детекторів, спроектованих та виготовлених у ННЦ ХФТІ. Продемонстровано ряд методик, які дозволяють проводити вимірювання впливу температури на різні статичні та спектральні характеристики одноканальних пласких детекторів. Розглянуто зв’язок статичних характеристик детекторів з довгостроковою стабільністю та часом життя детекторів. ____________________________________________________________ PROBLEMS OF ATOMIC SCIENCE AND TECHNOLOGY. 2006. № 3. Series: Nuclear Physics Investigations (47), p.137-139. 139 PACS: 29.40.Wk 3. Temperature effect on the characteristics of planar detectors Fig.2. Leakage currents of the active area and the guard ring at the working bias voltage at different stages after annealing REFERENCES
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institution Digital Library of Periodicals of National Academy of Sciences of Ukraine
issn 1562-6016
language English
last_indexed 2025-12-07T15:54:03Z
publishDate 2006
publisher Національний науковий центр «Харківський фізико-технічний інститут» НАН України
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spelling Vasiliyev, G.P.
Kosinov, A.V.
Kulibaba, V.I.
Maslov, N.I.
Naumov, S.V.
Ovchinnik, V.D.
Yalovenko, V.I.
2015-04-06T14:42:22Z
2015-04-06T14:42:22Z
2006
Temperature effect on the characteristics and lifetime of semiconductor detectors / G.P. Vasiliyev, A.V. Kosinov, V.I. Kulibaba, N.I. Maslov, S.V. Naumov, V.D. Ovchinnik, V.I. Yalovenko // Вопросы атомной науки и техники. — 2006. — № 3. — С. 137-139. — Бібліогр.: 11 назв. — англ.
1562-6016
PACS: 29.40.Wk
https://nasplib.isofts.kiev.ua/handle/123456789/79871
The paper reports the results from studies into the effect of temperature on the performance characteristics of planar silicon detectors designed and manufactured at the NSC KIPT. A variety of techniques are demonstrated for measuring the temperature effect on various static and spectral characteristics of single-channel planar detectors. The relationship between the static characteristics of detectors and their long-term stability and lifetime is considered.
Приведены результаты исследования воздействия температуры на характеристики планарных кремниевых детекторов, спроектированных и изготовленных в ННЦ ХФТИ. Показан ряд методик, позволяющих проводить измерения влияния температуры на различные статические и спектральные характеристики одноканальных планарных детекторов. Рассматривается связь статических характеристик детекторов с долговременной стабильностью и временем жизни детекторов.
Приведені результати досліджень впливу температури на характеристики пласких кремнієвих детекторів, спроектованих та виготовлених у ННЦ ХФТІ. Продемонстровано ряд методик, які дозволяють проводити вимірювання впливу температури на різні статичні та спектральні характеристики одноканальних пласких детекторів. Розглянуто зв’язок статичних характеристик детекторів з довгостроковою стабільністю та часом життя детекторів.
en
Національний науковий центр «Харківський фізико-технічний інститут» НАН України
Вопросы атомной науки и техники
Применение ускорителей в радиационных технологиях
Temperature effect on the characteristics and lifetime of semiconductor detectors
Влияние температуры на характеристики и время жизни полупроводниковых детекторов
Вплив температури на характеристики та час життя напівпровідникових детекторів
Article
published earlier
spellingShingle Temperature effect on the characteristics and lifetime of semiconductor detectors
Vasiliyev, G.P.
Kosinov, A.V.
Kulibaba, V.I.
Maslov, N.I.
Naumov, S.V.
Ovchinnik, V.D.
Yalovenko, V.I.
Применение ускорителей в радиационных технологиях
title Temperature effect on the characteristics and lifetime of semiconductor detectors
title_alt Влияние температуры на характеристики и время жизни полупроводниковых детекторов
Вплив температури на характеристики та час життя напівпровідникових детекторів
title_full Temperature effect on the characteristics and lifetime of semiconductor detectors
title_fullStr Temperature effect on the characteristics and lifetime of semiconductor detectors
title_full_unstemmed Temperature effect on the characteristics and lifetime of semiconductor detectors
title_short Temperature effect on the characteristics and lifetime of semiconductor detectors
title_sort temperature effect on the characteristics and lifetime of semiconductor detectors
topic Применение ускорителей в радиационных технологиях
topic_facet Применение ускорителей в радиационных технологиях
url https://nasplib.isofts.kiev.ua/handle/123456789/79871
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