دلبر تے رکھ آس زیادہ
دیکھنی پئے گی یاس زیادہ
کملا کردا گلاں فر فر
’’دانا کرے قیاس زیادہ‘‘
وچ لڑائیاں فائدے نالوں
ہوندی ستیا ناس زیادہ
مایوسی چھڈ رحمت رب تے
رکھے بندہ آس زیادہ
عاشق تسّے دید تری دے
ودھ گئی ڈھیر پیاس زیادہ
ڈردے لوک برائلر کولوں
شہدا سمجھن ماس زیادہ
صحبت بریاں لوکاں والی
مینوں نہیں ہے راس زیادہ
Sabab al-Nuzūl (cause of revelation) in Qur'anic studies means the time, context, cause, and the situation in which Allah has revealed verses. Cause of revelation has an important role in the interpretation of Qur’ān. Nevertheless, most of the verses and suras of Qur’ān are revealed independent of events, these verses are revealed to fulfill the general aim of Waḥī which is the guidance of people. Such knowledge is an invaluable tool for grasping the meaning of this type of Qur’ānic verse. Many Muslim scholars consider the studying of Asbāb alNuzūl and their related discussions as necessary. Some exegetes have written books studying the subject. The earliest and the most important work in this genre is undoubtedly Kitab Asbāb al-Nuzūl (Book of Occasions of Revelation) of ‘Alī bin Aḥmad al-Wāḥidī (d. 1075 CE). Another important work is by al-Suyūṭī (d. 1505 CE) which is a slight improvement of al-Wāḥidī’s book. In this paper descriptive method and comparative study are used to analysis traditions of revelation and their effects on Tafsīr literature. This paper proves the value of the causes of revelation in Qur’ānic Interptation and their effects on Tafsīr Literature, so that verification and authencity of traditions of causes of revelation are mandatory for Tafsīr.
This study aimed at exploring how problem posing enhances grade 8 students' conceptual understanding of mathematics in a private school in Chitral, The participants of this research were 40 students of grade 8 and their regular mathematics teacher. For data collection, I observed five lessons in reconnaissance stage to get an insight into the existing teaching approaches and sources of mathematical problems the mathematics teacher used in the classroom. I also conducted an interview or had informal talks with the participant teacher before and after the lessons. Then, I conducted demo lessons during the pre-intervention stage to help the participant teacher improve his general pedagogical content knowledge for developing students' conceptual understanding. Afterward, during the intervention stage, the participant teacher and I conducted nine lessons in three cycles using problem posing as the main strategy. Before and after the teaching participant teacher and I had collaborative reflective dialogues on our experiences of implementing problem posing in the class. During the reconnaissance stage, I found that participant students had never experienced problem posing before the reported study. In the first cycle of the intervention stage, we started problem posing with reformulation of the existing word problems. In the second cycle, students analyzed, solved and critiqued word problems which they had collected from different sources. Finally, students posed word problems using imaginary situations following guided instruction. Data collection and data analysis process went simultaneously during the action research cycles. At the end of each cycle, we analyzed the problem posed by the students by looking at their solvability, complexity and originality (Silver and Cai, 2005; Lin & Leng, 2008). Analysis of the data shows that students developed their problem posing skills, as well as critiquing the given problems. This study found problem posing as a promising teaching strategy to develop students' conceptual understanding in mathematics.