需求 & 采集過程溫度
Demａnd & Coverage of Process-Temperature

通過使用溫度傳感器裝置TSE，溫度值?T作為外加評估因素為扭矩?cái)?shù)據(jù)

作補(bǔ)充

With the integration of the TSE Temperature-Sensor-Equipment the temperature value ?T is added as an additional evaluation factor, to the various values of torque.

面向?qū)嶋H的功效評估

Practice Oriented Efficiency Rating

作為摩擦學(xué)過程*的可視化，TTT系統(tǒng)輸出下列由被采集的扭矩變化分布

得出的值：

1. 扭矩(Mz 單位 Ncm)作為消耗掉的功率值

2. 平均值(Mz Mean)作為消耗掉的平均功率(算術(shù)平均值)

3. 標(biāo)準(zhǔn)偏差(Std. Dev.)作為扭矩相對平均值的平均偏差值(分布、同步＆

均勻性)

4. 高斯分布/作為歷史記錄，概率分布作為產(chǎn)生的扭矩及其分布的圖形表

達(dá)(概率統(tǒng)計(jì))

5. 積分(INT)作為測試刀具上的總負(fù)荷值(負(fù)載)

溫度傳感器裝置 TSE輸出起始及結(jié)束溫度用以計(jì)算?T。

6. Delta T (?T)作為表達(dá)摩擦學(xué)過程*的熱值

The TTT Tapping-Torque-Testsystem determines the following

values of the torque progression for visualisation of tribological inven

1.  Torque (Mz in Ncm) as a value

for the factually generated work performance

2. Mean Value (Mz Mean) as a value for the generated work

performance in average (arithmetic mean)

3.  Standard Deviation (Std.Dev.) as a value for the mean

deviation of torque around the Mean Value (distribution,

synchronisation &homogeneity)

4. Gaussian-Distribution / Frequency Distribution as a

graphic depiction of the torque values occurred and their

distribution as a histogram (Statistics)

5.  Integral (INT) as a value for the total work load (stress)

on the measurement tool

The Temperature-Sensor-Equipment TSE determines the

starting- and the end-temperature for computing ?T.

6.  Delta T (?T) as a value for the thermal influence in the

process with water, additives, coatings etc. for the interpretation

of tribological mechanisms

TTT 法& 標(biāo)準(zhǔn)
TTT Methods & Standards

通過運(yùn)用不同的TTT法（測試組生成）和特定的TTT標(biāo)準(zhǔn)（材料** &參

數(shù)），來得出調(diào)整過的、可比較的及可重復(fù)的結(jié)果。為此而開發(fā)的－按任

務(wù)要求一認(rèn)真執(zhí)行的TTT法及制定的TTT標(biāo)準(zhǔn)，能使得得出的結(jié)果在內(nèi)部

及在一個(gè)試驗(yàn)組內(nèi)部相互進(jìn)行比較。一種材料結(jié)構(gòu)的每一塊測試組測試板

可以在一次裝夾中得到140個(gè)準(zhǔn)確的測試結(jié)果。

In adaption of different TTT Methods (creation of series of measurements) and specified TTT Standards (material** & parameters),

controlled, comparable and repeatable results

are realised. The therefore developed TTT Methods and fixed

TTT Standards consequently applied – according to task –,  submit to compare the determined results internally and in different laboratory groups. Each testbar (of one and the same material) submits 140 faultless measurement results

with one installation only.