شادی اور بچے
دوران تعلیم ہی امین احسن اصلاحی رشتہ ازدواج میں منسلک ہوئے۔[[1]] اصلاحی نے دو شادیاں کیں۔پہلی شادی ۱۹۲۹ء میں اعظم گڑھ کے راجپوت خاندان کی رابعہ نامی خاتون سے ہوئی جن سے ان کے پانچ بچے تین لڑکے اور دولڑکیاں پیدا ہوئیں۔پہلی بیوی کی وفات کے بعد انہوں نے دوسری شادی ۱۹۴۵ء میں جالندھر کے چوہدری عبدالرحمن کی صاحبزادی سے کی جن سے ایک صاحبزادی مریم ہیں۔[[2]]
[[1]] ندوی ،سلمان،یادرفنگان، کراچی ،مجلس نشریات اسلامی، ۱۹۸۳ء ،ص۶۱۔
[[2]] اصلاحی ، ظفر الاسلامی ، پروفیسر اشتیاق احمد سے انٹر ویو، ششماہی علوم القرآن ،علیگڑھ، اصلاحی نمبر،جنوری ۱۹۹۸ء،ص۵۔
Religion is the cradle of human civilization and will always be a core influence in determining the trends, outlooks and progression of our society, which inevitably confronts questions and issues with religious undertones. As the world becomes more multi-religious and multi-ethnic, however, there is a seemingly diminished respect for the diverse existence of faiths and ethnicities, and more concerns rise towards this new threat to peace, which can be seen in the form of religious hatred, persecution, and conflicts often involving physical violence. This rising hostility, which has become a prolonged, unstable social factor, in all manifestations is an obstacle to peace. According to the different religious scholars of the semitic and nonsemitic religions it is recommended that religion plays a vital role to save the humanity. For this purpose many scholars recommend a religious alliance and unity for the whole universe as we can prevent the violence against humanity. In this paper the different views of the scholars in favour of religious alliance while the stance of Islamic Sharia has been discussed in detail as well.
Adaptation has potential to overcome negative impact of climate change in future. Suitable cotton variety selection is imperative to cope with temporal variations and water deficit conditions for yield maximization and sustainability under unpredictable environmental conditions. Field experiments were conducted for promising cotton cultivars sown from 10-March to 21-June with 20 days interval and deficit irrigation regimes (full irrigation, 80% to 40% of full irrigation and rain-fed) for two growing seasons (2012 and 2013) consecutively. Different statistical approaches were used to analyze the data. Cultivar MNH-886 and NIAB-9811 (NIAB-Kiran) planted 30-March to 10-May produced significantly higher seed cotton and lint yield while NIAB-112 also performed reasonably well for late planting (1-June). However higher net monetary return was produced by 21-April planting reasonably well for all cultivars. Seed cotton, lint yield, fiber quality and water use efficiency were found higher with the application of 60% to 80% (565 mm to 645 mm) of full irrigation (720 mm). Water deficit of 20-40% comparative to conventional farmer practice could be used as an alternative deficit irrigation strategy without any significant reduction in cotton yield. CSM-CROPGRO-Cotton and AquaCrop-Cotton models were parametrized well with field data, models performed reasonably well during evaluation with reasonably good statistical indices as RMSE, d-index, MPD, nRMSE and R2 for phenology, growth, seed cotton yield and yield components within the growing years. It is expected that seasonal average temperature would rise 1.52ºC and 2.60ºC in RCP 4.5 and 1.57ºC and 3.37ºC in RCP 8.5 of twenty nine GCMs ensemble (29 GCMs) in near term (2010-2039) and mid-century (2040-2069), respectively as compared with baseline. Mean seed cotton yield would decrease by 8% and 20% in RCP 4.5 scenario, while 10% and 30% reduction would be expected in RCP 8.5 scenario in near term (2010-2039) and mid-century (2040-2069), respectively compared with the baseline (1980-2010). Cultivar NIAB-9811 and NIAB-122 showed lower reduction in yield under future climate scenarios hence these could be used for future cultivation and to develop climate resilient germplasm. Adaptation technology of 20 days earlier planting than current (10-May), 18% and 29% increase in planting density for spreading and erect type cultivars, 25% increase in nitrogen amount, 30% reduction in irrigation and 15% upsurge in genetic potential would reduce the negative impact of temperature and rainfall variability in mid-century climate (2040-2069).