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فیلم فردا (Tommorow) به کارگردانی ستستو ناکایاما و عباس کیارستمی و تهیه کنندگی علیرضا شجاع نوری است. و اکثر بازیگران ایرانی این فیلم محجوب و مظلوم ناشناس هستند.
East Meets Mideast
یومیکو بابا ، آساهی شیمبون (جناح چپ) ، توکیو ، ژاپن ، 25 اکتبر 2002
فردا ، اولین فیلم ژاپنی - ایرانی ، داستان یک فروشنده ژاپنی را روایت می کند که برای بازپرداخت بدهی به ایران می رود و گرما و لطافت انسان را کشف می کند. ستسو ناکایاما ، فیلمساز ، با نشان دادن سبک زندگی ایرانی گفته است که فیلم او - که عنوان آن در فارسی به معنای "فردا" است - قصد دارد تا به مردم احساس آرامش و لطافت را بدهد که اغلب در مسابقه موش صحرایی ژاپن مدرن از دست می رود.
از قضا یکی از بازیگران ایرانی فیلم ، عثمان محمدپراست ، دیدگاه دیگری از دید ژاپنی دارد.
"من به ژاپنی ها احترام می گذارم زیرا آنها بسیار مشتاق کار هستند. محمد پرست طی مصاحبه اخیر خود در توکیو گفت: "حتی اگر آنها" حیوانات اقتصادی "خوانده شوند ، اما ارادت آنها به کارشان ستودنی است."
همینطور باشد ، فروشنده فیلم ، ایزاوا (کای شیشیدو) از کار با یک تولید کننده موتور خسته شده است. یک روز او توسط رئیس خود اعزام می شود تا به صاحب یک کارخانه اطلاع دهد که شرکتش در حال قطع روابط تجاری خود با پیمانکار فرعی است. اندکی پس از آن ، صاحب کارخانه ، که گاه به درخواستهای غیرمعقول ایزاوا تحمل کرده بود ، بر اثر حمله قلبی درگذشت.
در مراسم تشییع جنازه این مرد ، دخترش هیروکو (آکیکو اوشیداری) از ایزاوا می خواهد که دفترچه خاطرات پدرش را بخواند. او در می یابد که این مرد همیشه از قطع پرداخت کارگر ایرانی به نام مهدی پشیمان بوده است. هیرکو سرانجام ایزاوا را راضی می کند که برای تحویل حقوق پرداخت نشده به کارگر به ایران برود. ایزاوا نیز بار گناه را تحمل می کند ، زیرا یک بار در هنگام نزاع در کارخانه به ایرانی برخورد کرده است.
ایزاوا که به تازگی وارد این سرزمین عجیب شده است ، ابتدا از شیوه تفکر ایرانیان گیج و عصبانی شده است. اما به تدریج فروشنده احساس لطافت و علاقه می کند که مردم محلی همیشه به غریبه ژاپنی نشان می دهند.
یک راننده کامیون به نام عثمان (محمد پرست) ایزاوا را به بیرجند ، محل زندگی مهدی ، می رساند. شخصیت عثمان که 70 ساله است براساس محمد پرست یکی از شناخته شده ترین نوازندگان دوتار کشور ساخته شده است. دوتار نوعی ساز دو رشته ای شبیه عود است و بدنی به شکل گلابی از یک بلوک چوب توت تراشیده شده است. صدای آن ایزاوا را در سفر همراهی می کند.
محمد پرست که قبلاً هرگز بازی نکرده بود ، پیشنهادی برای این نقش از فیلمساز ایرانی عباس کیارستمی دریافت کرد ، کارگردان خانه دوست کجاست (1987) و سرپرست این فیلم بود.
کیارستمی هیچ تقاضایی از من نکرد. لازم نبود هیچ خطی را حفظ کنم. همانطور که هستم جلوی دوربین ها ایستادم و آنچه را که احساس کردم پس از فهم صحنه ، گفتم. این بسیار هیجان انگیز بود. "محمد پرست به یاد می آورد.
این فیلم فعالیت های داوطلبانه واقعی او را ردیابی می کند ، و با پول به دست آمده از بازی اش به ساخت مدارس کمک می کند. وی طی 17 سال گذشته به تأسیس 170 مدرسه در سراسر کشور کمک کرده است.
در این فیلم ، ایزاوا پس از بازدید از یکی از این مدارس ، عثمان را می شنود که کلمه "فردا" را می گوید ، تنها کلمه ای که او به زبان عجیب می داند و متوجه می شود که به زودی به مقصد خواهد رسید.
وقتی ایزاوا مهدی را در یک کارگاه سفالگری کوچک و غبارآلود قرار می دهد ، داستان به سرعت با پایان ناگهانی به پایان خود می رسد که ممکن است برخی از بینندگان را ناخوشایند کند.
محمد پرست ، بدون شک برای دیگران صحبت کرد ، گفت: "من شخصاً می خواهم بدانم که چه اتفاقی برای آن دو می افتد.
این فیلم جذاب که روایتگر زندگی آرام و بدون تنش و استرس و سرعت زندگی مدرن در ایران اوایل دهه هشتاد شمسی است و سرعت گذشت زمان و ایثار و مهمان نوازی ایرانی ها نسبت به ژاپنی ها را نشان میدهد را میتوانید در لینک زیر تماشا کنید:
لینک یوتیوب فیلم:
https://youtu.be/ysgZxYjw5PE
خلاصه داستان: این فیلم به این صورت است، که جوان ژاپنی ایزاوا که مسئول رابط یک کارخانه ژاپنی است، و بخاطر ارتباط عاشقانه و درخواست دختر رییس کارخانه و وصیت پدر او که برای پیدا کرد کارگر کارگاه او در ایران و دادن طلب او به ایران سفر میکند و در راه پیدا کردن او با اشخاص مختلف آشنا میشود که آخرین آنها پیرمردی است، که با کامیون مصالح ساختمانی را برای مدارس محروم میبرد.
We are a modern Austrian oil company in Graz, which deals with the production of new and environmentally friendly products as well as technology transfer and training. We have manufactured a variety of products and have a good knowledge of bitumen and asphalt. Advanced asphalt materials and pavement technologies, such as bioasphalt, colored bitumens, emultion bitumen, new mulch formula, polymer and rubber modified bitumen, PG + and air cleaning asphalt
We are interested in working with you on projects and projects for bitumen and asphalt, customer acquisition, investment and technical knowledge transfer, and we would be happy to help you develop and improve your company
Albert Einstein, Majid Ahmadi, majid ahmadi, Majid ahmadi, albert einstein, General relativity, Special relativity

Majid Ahmadi, majid ahmadi, majid Ahmadi, Mechanical Engineering
https://www.linkedin.com/in/majid-ahmadi-b1060287
Majid Ahmadi has been a Mechanical Engineering student at SRBIAU University. He has worked for Oil and industry full time. In fact, he is really glad that have enough chance and opportunity to work for Tehran oil refining Company because of the fact that not only can he has conducted all the process of engineering field for piping and fix equipment but also, he can in touch with practical and even with the commissioning of several projects. Based on my information that he gained from university, he has enhanced his abilities in deal problems, conduct meetings, and technical knowledge. Majid Ahmadihas published more than 4 research articles in the field of Mechanic, wastewater treatment, Ceramics, and Nozzles. Moreover, he has registered an International PCT patent in the field of Spent Caustic Wastewater Treatment with the title of ‘Modern Process For Spent Caustic Treating and Converting Wastewater Into Valuable By-Products With Process Simulation By ASPEN Plus’ in 2019.Department of Mechanical Engineering, Science and Research Branch, Islamic Azad University, Daneshgah Blvd, Simon Bolivar Blvd, Tehran, Iran.
majid.ahmadi.1987@gmail.com
Whatsapp: +989197903590
Inthis paper has been presented a new treatment method for spent caustic wastewater. Spentcausticis a waste industrialcausticsolution that has become exhausted and is no longer useful. Spent caustics are made ofsodium hydroxideorpotassium hydroxide,water, and contaminants. The contaminants have consumed the majority of the sodiumor potassium hydroxide and thus the caustic liquor is spent, for example, in one common applicationH2S gasisscrubbedby theliquid NaOHto form NaHS (aq) and H2O (l), thus consuming the caustic. Spent caustics are malodorouswastewatersthat are difficult to treat in conventionalwastewaterprocesses. Some kind of treatment technologies are disposed of by highdilutionwithbiotreatment, deep well injection,incineration,wet air oxidation,Humid Peroxide Oxidationor other speciality processes. Most ethylene spent caustics are disposed of through wet air oxidation.
Sodium hydroxide (caustic) scrubbing solutions are commonly used in petrochemical and gas/petroleum refineries for the removal of acid components such as hydrogen sulfide, cresylic acids, mercaptan and naphthenic acids from the refined product streams[1]. Due to being hazardous, odorous, and/or corrosive components of spent caustic, handle and dispose of them, can be a challenge. Spent caustic streams may also have other characteristics that can create issues with conventional biological processes such as noxious odors, pH swings, foaming, or poor settling of biological solids [1]. Effluent requirements may be difficult to achieve because some spent caustic contaminants are not readily biodegradable. One of the key contributors to relatively high chemical oxygen demand (COD) and biological oxygen demand (BOD) is from the acid gas (both CO2 and H2S) and mercaptan removal system(s) typically using dilute caustic soda (NaOH) as the active reagent. The resultant waste stream is otherwise known as spent caustic. It’s difficult to clean up and dispose of due to its toxic properties. Typically, the material is disposed of by high dilution with biotreatment, acid neutralization, deep well injection, incineration, wet air/catalytic/Humid Peroxide Oxidation or other specialty processes [2]. The two basic methods for treating spent caustic solutions are wet air oxidation (WAO) and direct acid neutralization (DAN), respectively. But these methods are not efficient, Because of high acid consumption and large caustic waste to effluent. In this new process the spent caustic are refined and toxic materials are removed and two valuable products namely NaOH and Na2CO3are produced with high purity by an economical process [3].Effluent requirements may be difficult to achieve because some spent caustic contaminants are not readily biodegradable. Typically, the material is disposed of by high dilution with biotreatment, acid neutralization, deep well injection, incineration, wet air/catalytic/Humid Peroxide Oxidation or otherspecialty processes [4].
New Treatment Process, Wastewater, Spent Caustic, Sodium Hydroxide, Recovery, Wastewater treatment, Effluent treatment
The Efficient Process for Spent-caustic Wastewater Treatment
In recent years, refinery and petrochemical producer is forced by more stringent environmental regulations to better monitor and control their wastewater. One of the key contributors to relatively high chemical oxygen demand (COD) and biological oxygen demand (BOD) is from the acid gas (both CO2 and H2S) and mercaptan removal system (s) typically using dilute caustic soda (NaOH) as the active reagent. The resultant waste stream is otherwise known as spent caustic. It’s difficult to clean up and dispose of due to its toxic properties. Today’s various methods are used for treating spent caustic, such as wet air oxidation and direct acid neutralization. In this review, these methods were studied in detail and were compared together
Sodium hydroxide (caustic) scrubbing solutions are commonly used in petrochemical and gas/petroleum refineries for the removal of acid components such as hydrogen sulfide, cresylic acids, mercaptan and naphthenic acids from the refined product streams [1]. Due to being hazardous, odorous, and/or corrosive components of spent caustic, handle and dispose of them, can be a challenge. Spent caustic streams may also have other characteristics that can create issues with conventional biological processes such as noxious odors, pH swings, foaming, or poor settling of biological solids [1]. Effluent requirements may be difficult to achieve because some spent caustic contaminants are not readily biodegradable. Typically, the material is disposed of by high dilution with bio treatment, acid neutralization, deep well injection, incineration, wet air/catalytic/Humid Peroxide Oxidation or other specialty processes [2]. The two basic methods for treating spent caustic solutions are wet air oxidation (WAO) and direct acid neutralization (DAN), respectively. In this paper, first spent caustics and then treatment methods were discussed in detail
Treatment, Wastewater, Spent Caustic, Sodium Carbonate, Recovery , Wastewater treatment
Evaluation of the Different Methods of Spent Caustic Treatment
This paper focuses on the structure and performance of the pressure swirl nozzle and the study of liquid atomization. In this study, the atomizer has been designed and some experiments have been performed on it. Since image processing is an efficient method for measuring the size of the droplet and since it considerably reduces the total measuring time and eliminates the subjective observer’s error in sizing and counting spray drops, a digital camera has been used for capturing images and image processing has been done by the MATLAB software. The results show that by increasing the atomization air pressure, the spray angle increases and the droplet’s size decreases. It is concluded that the spray angle is a function of the atomization air pressure and orifice diameter. Moreover, when the distance from the spray centre line increases, the droplet’s average velocity decreases.
atomization; droplet size; image processing; pressure swirl nozzle; spray
Main purpose of the present study is to develop an appropriate computer program to size and count particles in digital images focusing on eliminating undesirable objects from the image. In this study, the user friendly Graphical User interface (GUI) tool is developed using MATLAB to measure the size of every particle of the digital image. The step by step process optimizes synthesis process of micro particles. It also facilitates generation of the required statistical analysis for medical science, material science and other applications. The described image processing system reduces total measuring time, eliminates subjective observer error in sizing and determines fine particles, considerably. This method can be used as a simple pattern recognition technique to size and count a relatively large number of particles in a short time. It is applicable to filter out images of undesirable objects such as redundant spots or noises in the image and clearly, by taking high resolution photos, the result of the processed images would be more reliable.
Counting Particles; Image Processing; Particle Size Distribution; Image Segmentation; Cell Morphology; Medical Imaging; MATLAB, PSD, Video Processing, Image Processing.