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PARAGRAF ARTIKEL JURNAL INTERNASIONAL Klinik Jurnal PPSUB 28 Maret 2013.

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Presentasi berjudul: "PARAGRAF ARTIKEL JURNAL INTERNASIONAL Klinik Jurnal PPSUB 28 Maret 2013."— Transcript presentasi:

1 PARAGRAF ARTIKEL JURNAL INTERNASIONAL Klinik Jurnal PPSUB 28 Maret 2013

2 PARAGRAF DALAM TULISAN ILMIAH Sifat bahasa ilmiah yang khusus dan spesifik tampak pada pemilihan dan pemakaian kata, serta sintaksisnya. Kata-kata yang lazim digunakan dalam bahasa ilmiah bersifat denotative. Setiap kata hanya mempunyai satu makna yang paling sesuai dengan konsep atau fakta yang disampaikan. Kalimat-kalimat yang digunakan dalam bahasa ilmiah seyogyanya bersifat logis. Hubungan antara bagian-bagian kalimat dalam kalimat tunggal atau hubungan antara klausa-klausa dalam kalimat majemuk (kompleks) mengikuti pola-pola bentuk hubungan yang logis.

3 PARAGRAF DALAM TULISAN ILMIAH Sintaksis adalah ilmu mengenai prinsip dan peraturan untuk membuat kalimat dalam bahasa alami. Kata “sintaksis” juga digunakan untuk merujuk langsung pada peraturan dan prinsip yang mencakup struktur kalimat dalam suatu bahasa. “Kata” merupakan kesatuan bahasa terkecil yang membentuk kalimat. Kata dibagi menjadi dua, yaitu “kata” yang mengandung makna leksikal dan “kata” yang mengandung makna gramatikal atau makna struktural. Jenis pertama dapat dikenal melalui arti atau maknanya seperti “orang, rumah”. Makna leksikalnya suatu kata dapat dicari dalam kamus. Dalam tata bahasa tradisional, “kata” adalah kesatuan bahasa terkecil yang mengandung arti atau makna.

4 PARAGRAF DALAM TULISAN ILMIAH “Kalimat” merupakan satuan bahasa terkecil yang merupakan kesatuan pikiran. Dalam bahasa tulis, kalimat merupakan satuan bahasa yang diawali oleh huruf kapital, diselingi atau tidak diselingi tanda koma (,), titik dua (:), atau titik koma (;), dan diakhiri dengan tanda titik (.), tanda tanya (?), atau tanda seru (!).

5 PARAGRAF DALAM TULISAN ILMIAH “Kalimat” dalam bahasa Indinesia mempunyai beberapa cirri: 1.“Kalimat“ diawali dengan huruf kapital dan diakhiri dengan tanda titik, tanda tanya, atau tanda seru. 2.“Kalimat” miimal terdiri dari atas subjek dan predikat. 3.Predikat transitif disertai objek, predikat intransitif dapat disertai pelengkap. 4.“Kalimat” mengandung suatu pemikiran yang utuh, makna, ide, atau pesan yang jelas. 5.Mengandung urutan logis, setiap kata atau kelompok kata yang mendukung fungsi (subjek, predikat, objek, dan keterangan) disusun dalam satuan menurut fungsinya. 6.Dalam suatu “paragraph” yang terdiri dari dua kalimat atau lebih, kalimat-kalimat disusun dalam satuan makna yang saling berhubungan.

6 PARAGRAF DALAM TULISAN ILMIAH Subjek dalam Kalimat: Fungsi subjek merupakan pokok dalam sebuah kalimat. Pokok kalimat itu dibicarakan atau dijelaskan oleh fungsi sintaksis lain, yaitu predikat. Ciri-ciri subjek adalah: 1.Jawaban terhadap pertanyaan apa atau siapa, 2.Dapat didahului oleh kata bahwa, 3.Berupa kata atau frasa benda (nomina) 4.Dapat disertai kata ini atau itu, 5.Dapat disertai kata yang, 6.Tidak didahului preposisi di, dalam, pada, kepada, bagi, untuk, dan lain-lain,

7 PARAGRAF DALAM TULISAN ILMIAH Predikat dalam Kalimat Predikat berfungsi menjelaskan pokok kalimat atau subjek. Predikat mempunyai ciri-ciri: 1.Bagian kalimat yang menjelaskan pokok kalimat, 2.Dalam kalimat biasa, predikat berada langsung di belakang subjek, 3.Prediket umumnya diisi oleh verba atau frasa verba, 4.Prediket dapat merupakan jawaban dari pertanyaan apa yang dilakukan (pokok kalimat) atau bagaimana (pokok kalimat).

8 PARAGRAF DALAM TULISAN ILMIAH Objek dalam Kalimat Obyek adalah unsur kalimat yang kehadirannya dituntut oleh verba transitif pengisi predikat dalam kalimat aktif. Objek dapat dikenali dengan melihat verba transitif pengisi predikat yang mendahuluinya.

9 PARAGRAF DALAM TULISAN ILMIAH Tata Paragraf dalam Bahasa Indonesia Paragraf adalah bagian dari suatu Bab pada sebuah karya ilmiah, cara penulisannya harus dimulai dengan baris baru. Paragraf dikenal juga dengan nama lain “alinea”. Paragraf dibuat dengan membuat kata pertama pada baris pertama masuk ke dalam (geser ke sebelah kanan) beberapa ketukan atau spasi. Demikian pula dengan paragraf berikutnya mengikuti penyajian seperti paragraf pertama.

10 PARAGRAF DALAM TULISAN ILMIAH Dalam suatu paragraf harus memuat dua bagian penting, yakni : 1.Kalimat Pokok, biasanya diletakkan pada awal paragraf, tetapi dapat juga diletakkan pada bagian tengah maupun akhir paragraf. Kalimat pokok adalah kalimat yang menjadi “inti” dari ide atau gagasan dari sebuah paragraf. Biasanya berisi suatu pernyataan yang dijelaskan lebih lanjut oleh kalimat- kalimat lainnya dalam bentuk kalimat penjelas. 2.Kalimat Penjelas, adalah kalimat yang memberikan penjelasan tambahan atau detail rincian dari kalimat pokok dalam suatu paragraf.

11 PARAGRAF DALAM TULISAN ILMIAH Bagian-Bagian Suatu Paragraf yang Baik 1.Ada ide atau gagasan yang “spesifik” dan diperlukan untuk merangkai keseluruhan tulisan (Bab). 2.Dalam suatu paragraph, kalimat yang satu dengan kalimat lainnya saling berkaitan dan berhubungan dengan wajar.

12 PARAGRAF DALAM TULISAN ILMIAH Paragraf Narasi: Paragraf yang menceritakan suatu kejadian atau peristiwa. Ciri-cirinya : Ada peristiwa, ada pelaku peristiwa, ada waktu dan tempat berlangsungnya peristiwa.

13 PARAGRAF DALAM TULISAN ILMIAH Paragraf Deskripsi: Paragraf yang menggambarkan suatu objek sehingga pembaca seakan bisa melihat, mendengar, atau merasa objek yang digambarkan itu. Objek yang dideskripsikan dapat berupa orang, benda, atau tempat. Ciri-cirinya : Ada objek yang dijelaskan.

14 PARAGRAF DALAM TULISAN ILMIAH Paragraf Eksposisi: Paragraf yang menginformasikan suatu teori, teknik, kiat, atau petunjuk sehingga orang yang membacanya akan bertambah wawasannya. Ciri-cirinya: Ada informasi.

15 PARAGRAF DALAM TULISAN ILMIAH Paragraf Argumentasi: Paragraf yang mengemukakan suatu pendapat beserta alasannya. Ciri-cirinya : Ada pendapat dan ada alasannya.

16 PARAGRAF DALAM TULISAN ILMIAH Paragraf Persuasi: Paragraf yang mengajak, membujuk, atau mempengaruhi pembaca agar melakukan sesuatu. Ciri- cirinya : Ada bujukan atau ajakan untuk berbuat sesuatu.

17 CARA MENYUSUN PARAGRAF Ada enam tahapan yang lazim dilakukan dalam menulis paragraf deskripsi, yaitu: (1) menentukan tema; (2) menetapkan tujuan penulisan; (3) mengumpulkan bahan; (4) membuat kerangka tulisan; (5) mengembangkan kerangka tulisan; dan (6) merevisi tulian. 1.Langkah yang pertama adalah menentukan tema bagi paragraph yang akan ditulis. Hal ini berarti bahwa harus ditentukan apa yang dibahas dalam paragraf. Tema adalah gagasan pokok yang hendak disampaikan di dalam penulisan paragraf. Gagasan atau ide pokok dapat diperoleh dari pengalaman, hasil penelitian, beberapa sumber, pendapat, dan pengamatan.

18 CARA MENYUSUN PARAGRAF Langkah ke dua adalah menetapkan tujuan penulisan paragraf. Pada langkah ini setiap penulis harus mengungkapkan dengan jelas tujuan penulisan paragraph yang akan dilaksanakannya. Perumusan tujuan penulisan sangat penting dan harus ditentukan lebih dahulu karena hal ini merupakan titik tolak dalam seluruh kegiatan menulis selanjutnya. Dengan menentukan tujuan penulisan, akan diketahui apa yang harus dilakukan pada tahap penulisan, bahan-bahan apa saja yang diperlukan, macam organisasi tulisan yang akan diterapkan, atau mungkin sudut pandang yang akan dipilih.

19 CARA MENYUSUN PARAGRAF Langkah ke tiga adalah mengumpulkan bahan-bahan referensi. Pada waktu memilihdan membatasi topik paragraph hendaknya sudah diperkirakan kemungkinan mendapatkan bahan. Dengan membatasi topik, maka sebetulnya telah memusatkan perhatian pada topik yang terbatas itu, serta mengumpulkan bahan yang khusus pula. Bahan penulisan ini dapat dikumpulkan pada tahap prapenulisan dan dapat pula pada waktu penulisan berlangsung. Untuk masalah yang tujuannya sudah jelas dalam pikiran kita maka penetapan dan pengumpulan bahan dapat dilakukan pada waktu penulisan.

20 CARA MENYUSUN PARAGRAF Langkah ke empat adalah membuat kerangka tulisan (outline) paragraph. Menyusun kerangka tulisan merupakan satu cara untuk menyusun suatu rangkaian yang jelas dan terstruktur yang teratur dari tulisan yang akan dibuat. Kerangka tulisan merupakan suatu rencana kerja yang dapat digunakan sebagai garis besarnya dalam menulis. Kerangka tulisan juga menjamin penulis dalam ide secara logis dan teratur. Penyusunan kerangka tulisan sangat dianjurkan karena dapat menghindarkan penulis dari kesalahan-kesalahan yang tidak perlu terjadi.

21 CARA MENYUSUN PARAGRAF Langkah yang ke lima adalah mengembangkan kerangka tulisan. Pada langkah ini penulis mengembangkan kerangka tulisan menjadi suatu tulisan paragraph yang utuh.

22 CARA MENYUSUN PARAGRAF Tahapan ke enam adalah merevisi dan memperbaiki tulisan. Pada langkah ini penulis melakukan penelitian secara meyeluruh mengenai ejaan baku Bahasa Indonesia.

23 Membuat Paragraf Argumentasi Paragraf argumentasi mengungkapkan ide, gagasan, atau pendapat penulis dengan disertai bukti dan fakta. Dalam argumentasi ini penulis menyampaikan pendapat yang disertai penjelasan dan alasan yang kuat dengan maksud agar pembaca dapat terpengaruh. Dasar tulisan argumentasi adalah berpikir kritis dan logis, oleh karena itu harus berdasarkan pada fakta-fakta yang dapat dipertanggungjawabkan. Fakta-fakta tersebut dapat diperoleh dengan berbagai cara, antara lain: (1) bahan bacaan (jurnal, textbook, dan lainnya); (2) wawancara atau angket; (3) penelitian atau pengamatan langsung melalui observasi.

24 BEBERAPA CONTOH PARAGRAF Dalam JURNAL ILMIAH

25 Emission of organic compounds from mould and core binders used for casting iron, aluminium and bronze in sand moulds NIELS TIEDJE, RUDOLF CREPAZ, TORBEN EGGERT and NIKI BEY Journal of Environmental Science and Health Part A (2010) 45, 1866–1876 …………. Only very few investigations distinguish between emission of fumes and toxic gasses in the different parts of the cooling line, such as: in the pouring area where liquid metal is cast in the moulds, in the cooling area where the castings sit in the moulds while they cool before they are extracted, and at the shake out where the moulds are opened. [12−14] ………… 1.[12] Kauffmann, P.; Voigt, R. Modeling foundry air emissions. Mod. Cast. 1997, 87, 53–55. 2.[13] Rarick, T.R.; Crandell, G.R. Grasping the impact of emission factors. Mod. Cast. 2003, 93, 35–37. 3.[14] Westberg, H.; Lofstedt, H.; Selden, A.; Lilja, B.G.; Naystrom, P. Exposure to low molecular weight isocyanates and formaldehyde in foundries using hot box core binders. Ann. Occup. Hyg. 2005, 49, 719–725.

26 …………… Over the past 10 years new binders have been developed that improve the working environment on the moulding line and in the core shop. Serious improvements have been achieved in the later years with regard to toxicity and smell of binders in the part of the foundry where moulds and cores are produced. [3−7] However, it is not clear from these investigations whether the use of new binder systems have reduced the type and level of emissions in the pouring, cooling or shake out areas in the foundry. …………. 1.[3] Ladegourdie, G.; Loechte, K.; Schuh, W. Cold Box 96 — the new environmentally friendly cold box binder system. Foundry Trade J. 1997, October, 434– [4] L¨ ochte, K.; Clarke, C. Don’t Cold Shoulder Cold Box Process. Foundry Trade J. 1999, January, 46–49. 3.[5] Berthelet, M; Vargas, M. Nouvelles possibilit´ es pour les fonderies, grˆ ace l’emploi du syst` eme liant polysialate pour l’agglorm´ eration de mat´ eriaux de moulage. Hommes et fonderie 1999, 297, 22–25. 4.[6] Siak, J.-S.; Whited, W.T.; Schreck, R.M.; Ferrero, A.; Badiali, M. A green core sand binder facilitating easy core removal from complex aluminium castings. In CIATF Technical Forum 1999; Verein Deutsche Geissereifachleute, D¨ usseldorf, June 10–11, [7] Hendershot, G.; Werner, A. Eine neue Cold-Box-Technologie. In CIATF Technical Forum 1999; Verein Deutsche Geissereifachleute, D¨ usseldorf, June 10–11, Emission of organic compounds from mould and core binders used for casting iron, aluminium and bronze in sand moulds NIELS TIEDJE, RUDOLF CREPAZ, TORBEN EGGERT and NIKI BEY Journal of Environmental Science and Health Part A (2010) 45, 1866–1876

27 ………… From previous investigations a few general conclusions can be drawn: Serebro et al. finds that water evaporates from core sand at 130 to 140◦ C and that the organic material degenerates from 350 to 480◦C.[9] This is confirmed by Wang et al.[11] who compares three phenolic urethane resins and among other show how binders degrade at different temperatures. They describe and quantify the degradation products of the binders they investigate. And they find that emissions are very different fromcore shop to production line. They also conclude that more comprehensive studies are necessary to compare the many binder systems available. …….. 1.[9] Serebro, V. S.; Rits, B. A.; Sergeeva, T. E. Curing and Thermal Degradation of Phenol-Formaldehyde Binders. Russ. Cast. Prod. 1974, 2, 55–56. 2.[11] Wang, Y.; Cannon, F. S.; Salama, M.; Goudzwaard, J.; Furness, A. J. Characterization of hydrocarbon emissions from green sand foundry core binders by analytical pyrolysis. Environ. Sci. Technol. 2007, 41, 7922–7927. Emission of organic compounds from mould and core binders used for casting iron, aluminium and bronze in sand moulds NIELS TIEDJE, RUDOLF CREPAZ, TORBEN EGGERT and NIKI BEY Journal of Environmental Science and Health Part A (2010) 45, 1866–1876

28 Ambient levels of air pollution induce clinical worsening of blepharitis Fernando Korn Malerbi, Lourdes Conceicao Martins, Paulo Hilario Nascimento Saldiva, Alfesio Luıs Ferreira Braga Environmental Research 112 (2012) 199–203

29 ………… Acute adverse health effects of ambient levels of air pollution have been demonstrated in humans, mostly in terms of respiratory and cardiovascular events (Martins et al., 2006; Cendon et al., 2006; Souza et al., 1998), and also in terms of ocular mucosa and ocular surface (Chen et al., 2009; Novaes et al., 2007, 2010; Wolkoff, 2010). ………. 1.Cendon, S., Pereira, L.A.A., Braga, A.L.F., Conceic - ~ ao, G.M.S., Junior, A.C., Romaldini, H., Lopes, A.C., Saldiva, P.H.N., Air pollution effects on myocardial infarction. Rev. Sau ´ de Pu ´ b. 40, 414– Martins, L.C., Pereira, L.A.A., Lin, C.A., Santos, U.P., Prioli, G., Luiz, O.C., Saldiva, P.H.N., Braga, A.L.F., The effects of air pollution on cardiovascular diseases: lag structures. Rev. Sau de Pu b. 40, 677– Souza, M.B., Saldiva, P.H.N., Pope III, A., Capelozzi, V.L., Respiratory changes due to long-term exposure to urban levels of air pollution. Chest 113, 1312– Chen, Y., Mehta, G., Vasiliou, V., Antioxidant defenses in the ocular surface. Ocul. Surf. 7, 176– Novaes, P., Saldiva, P.H.N., Kara-Jose, N., Macchione, M., Matsuda, M., Racca, L., Berra, A., Ambient levels of air pollution induce goblet–cell hyperplasia in human conjunctival epithelium. Environ. Health Perspect. 115, 1753– Novaes, P., Saldiva, P.H.N., Matsuda, M., Macchione, M., Rangel, M., Kara-Jose ´, N., Berra, A., The effects of chronic exposure to traffic derived air pollution on the ocular surface. Environ. Res. 110, 372– Wolkoff, P., Ocular discomfort by environmental and personal risk factors altering the precorneal tear film. Toxicol. Lett. 199, 203–212. Ambient levels of air pollution induce clinical worsening of blepharitis Fernando Korn Malerbi, Lourdes Conceicao Martins, Paulo Hilario Nascimento Saldiva, Alfesio Luıs Ferreira Braga Environmental Research 112 (2012) 199–203

30 Climate change and health: Indoor heat exposure in vulnerable populations Jalonne L. White-Newsome, Brisa N. Sa´nchez, Olivier Jolliet, Zhenzhen Zhang Edith A. Parker, J. Timothy Dvonch, Marie S. O’Neill. Environmental Research 112 (2012) 20–27

31 . Improving the Natural and Built Ecological Systems in an Urban Environment Aminzadeh, B. and Khansefid, M. Int. J. Environ. Res., 4(2): ,Spring 2010

32 Recreation Value of Hara Biosphere Reserve using Willingness-to-pay method Dehghani, M., Farshchi, P., Danekar, A., Karami, M.and Aleshikh, A. A. Int. J. Environ. Res., 4(2): ,Spring 2010

33 NILAI EKONOMI – KESEDIAAN MEMBAYAR/ Berkorban Managing ecosystem resources: Economic value. (Arrow, Daily, Dasgupta, Levin, Mäler, Maskin, Starrett, Sterner, and Tietenberg, 2000). Valuing Ecosystem Services. (Heal, 2000). Assessing the economic value of ecosystem conservation. (Pagiola, von Ritter, and Bishop, 2004). Ecosystem services value: Research needs and policy relevance. (Turner, Adger, and Brouwer, 1998).

34 MATERIALS & METHODS Among the most widespread economic evaluation methods of the forests and coastal areas is Contingent Method of evaluation which can be considered as one of the Existence Value methods. For this purpose, Contingent Valuation Method, Contingent Choice Method and referendum are widely used (De Groot et al., 2002) among which the Contingent Method is the most appropriate and important one (Walsh et al., 1984 and Vankatachalam, 2004). Generally, this method is used as one of the standard and flexible tools for Non-Use Value and No market Use Value of environmental resources (Hanemann, 1994). ……….. De Groot R.S., Wilson M.A. and Boumans R.M.J. (2002), A typology for the classification, description and valu- ation of ecosystem functions, goods and services, Ecol Econ. 41, Recreation Value of Hara Biosphere Reserve using Willingness-to-pay method Dehghani, M., Farshchi, P., Danekar, A., Karami, M.and Aleshikh, A. A. Int. J. Environ. Res., 4(2): ,Spring 2010

35 CHEMICALLY ASSISTED PHYTOEXTRACTION: A REVIEW OF POTENTIAL SOIL AMENDMENTS FOR INCREASING PLANT UPTAKE OF HEAVY METALS E. Meers, F. M. G. Tack, S. Van Slycken, A. Ruttens, G. Du Laing, J. Vangronsveld, andM.G.Verloo1 International Journal of Phytoremediation, 10:390–414, 2008

36 PARAGRAF FITOREMEDIASI Phytoextraction of heavy metals (Blaylock and Huang, 2000). Plant uptake of inorganic waste (Chaney, 1983). Higher plants which hyperaccumulate metallic elements (Baker and Brooks, 1989). Phytochelatins and related peptides. (Rauser, 1995). Genetic engineering in the improvement of plants for phytoremediation. (Karenlampi, Schat, Vangronsveld, Verkleij, Van Der Lelie, Mergeay, and Tervahauta, 2000).

37 Qi et al. (2004) proposed pretreatment of soils with hydrogen peroxide (H2O2) to increase heavy metal “phytoavailability” for phytoextraction purposes. Solubility of Zn and Cu was observed to increase following treatment with 0.17–0.35 mL H2O2 per kilogram of soil. Dissolved organic carbon also increased, suggesting that metal solubility was caused by organic matter dissolution. The elevated solubility resulted in enhanced accumulation of the metals by ryegrass, although growth depression was observed and Cu exhibited risks for leaching. Lestan, Hane, and Finzgar (2005) also observed that ozonation before soil washing with EDTA significantly increased removal rates of Pb but not Zn. ………… 1.Qi, L., Xu, C.Y., Wei, W.Z., and Peng, W.Y Study on the possibility of hydrogen peroxide pre-treatment and plant system to remediate soil pollution. Chemosphere 57, 1439– Lestan, D., Hanc, A., and Finzgar, N Influence of ozonation on extractability of Pb and Zn from contaminated soils. Chemosphere 61, 1012–1019. CHEMICALLY ASSISTED PHYTOEXTRACTION: A REVIEW OF POTENTIAL SOIL AMENDMENTS FOR INCREASING PLANT UPTAKE OF HEAVY METALS E. Meers, F. M. G. Tack, S. Van Slycken, A. Ruttens, G. Du Laing, J. Vangronsveld, andM.G.Verloo1 International Journal of Phytoremediation, 10:390–414, 2008

38 Chaney et al. (1997) acknowledged the potential of synthetic chelants for the removal of toxic metals from the soil by enhanced phytoextraction, yet cautioned regarding the necessity of methods to prevent leaching of mobilized pollutants. The risks involved for leaching of both contaminants and macronutrients have also been underlined by other authors (Cooper et al., 1999; Barona, Aranguiz, and Elias 2001; Grcman et al., 2001; Meers et al., 2004). ………. 1.Chaney, R.L., Malik, M., Li, Y.M., Brown, S.L., Angle, J.S., and Baker, A.J.M Phytoremediation of soil metals. Curr. Opin. Biotechnol. 8, 279– Cooper, E.M., Sims, J.T., Cunningham, S.D., Huang, J.W., and Berti, W.R Chelate-assisted phytoextraction of lead from contaminated soils. J. Environ. Qual. 28, 1709– Barona, A., Aranguiz, I., and Elias, A Metal associations in soils before and after EDTA extractive decontamination: Implications for the effectiveness of further clean-up procedures. Environ. Pollut. 113, 79–85. 4.Grcman, H., Velikonja-Bolta, S., Vodnik, D., Kos, B., and Lestan, D EDTA enhanced heavy metal phytoextraction: Metal accumulation, leaching and toxicity. Plant Soil 235, 105– Meers, E., Hopgood, M., Lesage, E., Vervaeke, P., Tack, F.M.G., and Verloo, M Enhanced phytoextraction: In search for EDTA alternatives. Int. J. Phytoremed. 6, 95–109.

39 PERAGRAF KHELATE UNTUK FITOREMEDIASI the potential of synthetic chelants (Chaney et al., 1997) Chelate-assisted phytoextraction of lead (Cooper, Sims, Cunningham, Huang, and Berti, 1999). Metal associations in soils before and after EDTA extractive (Barona, Aranguiz and Elias, 2001). EDTA enhanced heavy metal phytoextraction (Greman, Velikonja-Bolta, Vodnik, Kos and Lestan, 2001). Enhanced phytoextraction (Meers, Hopgood, Lesage, Vervaeke, Tack and Verloo, 2004).

40 George Litwin (1968) dalam Harini Agustina (2002) mendefinisikan iklim organisasi sebagai suatu set dari sifat-sifat yang dapat diukur dari suatu lingkungan organisasi yang didasarkan pada persepsi secara kolektif dari orang-orang yang hidup dan bekerja (………. ref lainnya). Pentingnya iklim organisasi yang mendukung dalam meningkatkan kinerja organisasi ditekankan oleh Redding (1986), mengemukakan bahwa iklim organisasi adalah lebih krusial daripada keterampilan atau teknik berkomunikasi dalam menciptakan suatu organisasi yang efektif (………. ref lainnya). Penguatan yang positif dapat membantu mengembangkan respon yang diinginkan dan lebih memungkinkan mempengaruhi hubungan yang bersifat organisasi yang lebih menyenangkan daripada tidak menye-nangkan (………. ref lainnya). 1.Harini Agustina Analisis Hubungan Antara Komitmen Karyawan Dengan Iklim Organisasi dan Performasi Kerja Karyawan. Jurnal Riset Ekonomi dan Manajemen, Vol 2, Hal Redding (1986) tidak ada di daftar pustaka PARAGRAF IKLIM ORGANISASI

41 PARAGRAF LINGKUNGAN PEMASARAN Dalam lingkungan pemasaran, perusahaan dapat digolongkan menjadi dua, yaitu lingkungan pemasaran mikro dan lingkungan pemasaran makro (….. Ref). Lingkungan pemasaran mikro terdiri atas pelaku-pelaku dan lingkungan pemasaran yang langsung berkaitan dengan perusahaan dan mempengaruhi dalam pelayanan pasar, yang terdiri atas pemasok bahan mentah, perantara pemasaran, konsumen, pesaing dan anggota masyarakat lain (….. Ref). Lingkungan pemasaran makro terdiri atas kekuatan-kekuatan yang mempengaruhi semua pelaku di dalam lingkungan pemasaran mikro yaitu, faktor demografi, ekonomi, politik, sosial dan budaya, hukum dan lain-lainnya (Ujang, 2002, ….. Ref). ). 1.Ujang, S. 2002, Perilaku Konsumen, Teori dan Penerapan-nya Dalam Pemasaran, Penerbit Ghalia Indonesia, Jakarta.

42 . Development of Environmental Thresholds for Streams in Agricultural Watersheds P. A. Chambers,* J. M. Culp, E. S. Roberts, and M. Bowerman J. Environ. Qual. 41:1–6 (2012) Efforts to safeguard or improve environmental conditions of agroecosystems while maintaining agricultural and human food supply have traditionally focused on managing on- farm activities to reduce materials loss and conserve habitat (e.g., correct management of chemicals and manure, improved animal husbandry and crop production systems, and interception of materials leaving the agricultural setting). These onfarm activities, often known as beneficial management practices (BMPs), have had varied success. Many field and modeling studies indicate that implementation of various BMPs can have positive effects on surface and groundwater quality (Cook et al., 1996; Edwards et al., 1997; Chaplot et al., 2004; Thomas et al., 2007). However, ineffectual placement or timing of BMPs in watersheds, lag effects arising from legacy conditions (e.g., historic land management), and vagaries in weather can sometimes off set anticipated improvements (e.g., Tomer and Locke, 2011). 1.Chaplot, V., A. Saleh, D.B. Jaynes, and J. Arnold Predicting water, sediment and NO3–N loads under scenarios of land-use and management practices in a fl at watershed. Water Air Soil Pollut. 154:271– Cook, M.G., P.G. Hunt, K.C. Stone, and J.H. Canterberry Reducing diff use pollution through implementation of agricultural best management practices: A case study. Water Sci. Technol. 33:191– Edwards, D.R., T.C. Daniel, H.D. Scott, P.A. Moore, J.F. Murdoch, and P.F. Vendrell Eff ect of BMP implementation on storm fl ow quality of two northwestern Arkansas streams. Trans. ASAE 40:1311– Th omas, G.A., R.C. Dalal, and J. Standley No-till eff ects on organic matter, pH, cation exchange capacity and nutrient distribution in a Luvisol in the semi- arid subtropics. Soil Tillage Res. 94:295– Tomer, M.D., and M.A. Locke Th e challenge of documenting water quality benefi ts of conservation practices: A review of USDA-ARDS’s conservation eff ects assessment project watershed studies. Water Sci. Technol. 64:300–310.

43 In coal, Sr is a trace element with an average concentration of ~100 mg/kg (Swaine, 1990). Coal utilization by-products are enriched in Sr relative to coal and many other geologic reservoirs with concentrations up to ~3,000 mg/kg (Hurst and Davis, 1981; Hurst et al., 1991). The Sr in CUB is also known to be readily mobilized and biogeochemically available (Hurst et al., 1991; 1993). Studies of trace element partitioning during coal combustion indicate that Sr is among the group of elements—including barium (Ba), beryllium (Be), cobalt (Co), chromium (Cr), molybdenum (Mo), lead (Pb), and zinc (Zn)—that condense within coal-fired power plants, in contrast to volatile elements such as mercury (Hg) and selenium (Se) (Vejahati et al. [2010], and references therein). 1.Hurst, R.W., and T.E. Davis Strontium isotopes as tracers of airborne fl y ash from coal-fi red power plants. Environ. Geol. 3:363– Hurst, R.W., T.E. Davis, and A.A. Elseewi Strontium isotopes as tracers of coal combustion residue in the environment. Environ. Geol. 30:59–77. 3.Hurst, R.W., T.E. Davis, A.A. Elseewi, and A.L. Page Strontium and lead isotopes as monitors of fossil fuel dispersion. p. 99–118. In R.F. Keefer and K.S. Sajwan (ed.) Trace elements in coal and coal combustion residues. Lewis, Boca Raton, FL. 4.Swaine, D.J Trace elements in coal. Butterworth, London. 5.Vejahati, F., Z. Xu, and R. Gupta Trace elements in coal: Associations with coal and minerals and their behavior during coal utilization: A review. Fuel 89:904–911.. Strontium Isotope Study of Coal Utilization By-Products Interacting with Environmental Waters Lev J. Spivak-Birndorf, Brian W. Stewart,* Rosemary C. Capo, Elizabeth C. Chapman, Karl T. Schroeder, and Tonya M. Brubaker J. Environ. Qual. 41:144–154 (2012)

44 . Strontium Isotope Study of Coal Utilization By-Products Interacting with Environmental Waters Lev J. Spivak-Birndorf, Brian W. Stewart,* Rosemary C. Capo, Elizabeth C. Chapman, Karl T. Schroeder, and Tonya M. Brubaker J. Environ. Qual. 41:144–154 (2012) Sequential Leaching Procedure A number of studies have examined the solubility and leaching potential of CUB (Querol et al., 1996, 2001; Sheps-Pelleg and Cohen, 1999; Hassett et al., 2005). Current procedures include serial batch leaching (Kim and Hesbach, 2009), synthetic groundwater leaching (Hassett, 1998), and mine water leaching (Ziemkiewicz et al., 2003), as well as the USEPAdeveloped toxicity characteristic leaching procedure (USEPA Method 1311; USEPA, 1992). A review of these methods is provided by Kim and Hesbach (2009). However, these procedures often attempt to simulate specifi c environments to which the CUB may be subjected, in contrast to the procedure used here, which attempts to identify geochemical associations by targeting specifi c phases in the CUB. 1.Hassett, D.J Synthetic groundwater leaching procedure. p. 4797–4803. In R.A. Meyers (ed.) Encyclopedia of environmental analysis and remediation. John Wiley & Sons, Hoboken, NJ. 2.Hassett, D.J., D.F. Pfl ughoeft-Hassett, and L.V. Heebink Leaching of CCBs: Observations from over 25 years of research. Fuel 84:1378– Kim, A.G., and P. Hesbach Comparison of fl y ash leaching methods. Fuel 88:926– Querol, X., R. Juan, A. Lopez-Soler, J.L. Fernandez-Turiel, and C.R. Ruiz Mobility of trace elements from coal and combustion wastes. Fuel 75:821– Querol, X., J.C. Umaña, A. Alastuey, C. Ayora, A. Lopez-Soler, and F. Plana Extraction of soluble major and trace elements from fl y ash in open and closed leaching systems. Fuel 80:801– Ziemkiewicz, P.F., J.S. Simmons, and A.S. Knox Th e mine water leaching procedure: Evaluating the environmental risk of backfi lling mines with coal ash. p. 75–90. In K.S. Sajwan et al. (ed.) Chemistry of trace elements in fl y ash. Kluwer Academic/Plenum, New York.

45 . Carbon Export from the Raccoon River, Iowa: Patterns, Processes, and Opportunities Christopher S. Jones and Keith E. Schilling J. Environ. Qual. 42:155–163 (2013) Carbon (C) is exchanged between the atmosphere, biosphere, lithosphere, pedosphere, and hydrosphere in the global C cycle. In one biogeochemical exchange, atmospheric CO2 is sequestered through chemical weathering of carbonate rock according to the reaction CaCO3 + CO2 + H2O Ca2+ + 2HCO [1] where the resultant bicarbonate (2HCO3-) consists of C liberated from the rock and C contributed by CO2. Production of organic matter (OM) by photosynthesis is another sink for atmospheric CO2 (Stryer, 1981), CO2 + 2H2O + light CH2O + O2 + H2O [2] Subsequent oxidation of OM (Amiotte-Suchet et al., 2003) via the reaction CH2O + O2 CO2 + H2O [3] liberates the CO2, which can then return to the atmosphere or react with rocks during chemical weathering (Eq. [1]). Photosynthesis links to rock weathering because the flux of CO2 from the oxidation of soil organic matter (SOM) is a major source of CO2 for carbonate rock dissolution (Ludwig et al., 1998; Amiotte-Suchet et al., 2003). Belowground plant respiration also contributes CO2 to the soil (Edwards et al., 1970). 1.Amiotte-Suchet, P., J.L. Probst, and W. Ludwig Worldwide distribution of continental rock lithology: Implications for the atmospheric/soil CO2 uptake by continental weathering and alkalinity river transport to the oceans. Global Biogeochem. Cycles 17:1038– Edwards, C.A., D.E. Reichle, and D.A. Crossley, Jr The role of soil invertebrates in turnover of organic matter and nutrients. In: D.E. Reichle, editor, Analysis of temperate forest ecosystems. Springer-Verlag, New York. p. 12– Ludwig, W., P. Amiotte-Suchet, G. Munhoven, and J.L. Probst Atmospheric CO2 consumption by continental erosion: Present-day controls and implications for the last glacial maximum. Global Planet. Change 16–17:107– Stryer, L Biochemistry. W.H. Freeman, San Francisco, CA.

46 Methods and Materials Water withdrawn from the river for irrigation is negligible because precipitation is adequate for crop production. Withdrawals for industrial or municipal purposes are also insignificant upstream of the Van Meter gauge. A few km downstream of the gauge, the Des Moines Water Works (DMWW) uses the stream as its principal source of supply. Because its watershed is intensely agricultural and its water is a major source of municipal supply, the Raccoon River has been extensively characterized for nitrate N (Lucey and Goolsby, 1993; Schilling and Lutz, 2004; Schilling and Zhang, 2004; Hatfield et al., 2009; Jha et al., 2010), sediment ( Jones and Schilling, 2011), and bacteria (Schilling et al., 2009) loading. 1.Hatfield, J.L., L.D. McMullen, and C.S. Jones Nitrate-nitrogen patterns in the Raccoon River Basin related to agricultural practices. J. Soil Water Conserv. 64:190–199. doi: /jswc Jha, M.K., C.F. Wolter, K.E. Schilling, and P.W. Gassman Assessment of TMDL implementation strategies for the Raccoon River, Iowa. J. Environ. Qual. 39:1317– Jones, C.S., and K.E. Schilling From agricultural intensification to conservation: Sediment transport in the Raccoon River, Iowa, 1916–2009. J. Environ. Qual. 40:1911– Lucey, K.J., and D.A. Goolsby Effects of climatic variations over 11 years on nitrate-nitrogen concentrations in the Raccoon River, Iowa. J. Environ. Qual. 22:38–46. 5.Schilling, K.E., and Y.K. Zhang Baseflow contribution to nitrate-nitrogen export from a large, agricultural watershed, USA. J. Hydrol. 295:305– Schilling, K.E., and D.S. Lutz Relation of nitrate concentrations to baseflow in the Raccoon River, Iowa. J. Am. Water Resour. Assoc. 40:889– Schilling, K.E., Y.K. Zhang, D.R. Hill, C.S. Jones, and C.F. Wolter Temporal variations of Escherichia coli in a large midwestern river. J. Hydrol. 365:79–85. Carbon Export from the Raccoon River, Iowa: Patterns, Processes, and Opportunities Christopher S. Jones and Keith E. Schilling J. Environ. Qual. 42:155–163 (2013)

47 Discussion Land Use, Climate, and Alkalinity Export Although much of the focus on alkalinity fluxes has been on discharge, other factors may be contributing. Fertilization is one such factor. An estimated 128,000 Mg yr−1 of N inputs enters the Raccoon watershed in the form of chemical fertilizers, animal manures, and legume fixation (Schilling et al., 2008). Nitrogen fertilizer can increase bicarbonate formation and transport through two mechanisms. First, the formation of nitric acid in the soil can result in dissolution of carbonate minerals without consuming atmospheric CO2 (Skiba et al., 1992; Amiotte- Suchet, 1995). This mechanism has been shown to generate 6% of the bicarbonate load in a carbonate-abundant farmed watershed (Semhi et al., 2000). Second, fertilization stimulates soil respiration and thus production of the source of CO2 for chemical weathering (Schlesinger and Andrews, 2000). On the other hand, research has shown that N fertilization can enhance sequestration of soil organic C (Halvorson et al., 2000), primarily through return of crop residues to the soil. Overall, the role of N fertilizer on bicarbonate formation and transport is complex and worthy of future research. 1.Amiotte-Suchet, P., and J.L. Probst A global model for present day atmospheric/soil CO2 consumption by chemical erosion of continental rocks (GEM-CO2). Tellus B Chem. Phys. Meterol. 47:273– Halvorson, A.D., C.A. Reule, and L.S. Murphy No-tillage and N fertilization enhance soil carbon sequestration. Fluid J. 8:8–11. 3.Schilling, K.E., C.F. Wolter, D.E. Christiansen, and D.J. Schnoebelen Raccoon River, Iowa: Total maximum daily load for nitrate and Escherichia coli. Iowa Department of Natural Resources, Iowa City, IA. 4.Schlesinger, W., and J. Andrews Soil respiration and the global carbon cycle. Biogeochemistry 48:7–20. 5.Semhi, K., P.A. Suchet, N. Clauer, and J.-L. Probst Impact of nitrogen fertilizers on the natural weathering-erosion process and fluvial transport in the Garonne basin. App. Geochem. 15:865– Skiba, U., K.J. Hargreaves, D. Fowler, and K.A. Smith Fluxes of nitric and nitrous oxides from agricultural soils in a cool temperate climate. Atmos. Environ. 26:2477–2488. Carbon Export from the Raccoon River, Iowa: Patterns, Processes, and Opportunities Christopher S. Jones and Keith E. Schilling J. Environ. Qual. 42:155–163 (2013)

48 Several studies pinpointed the significant influence of water management practices on pesticide loss from irrigated rice fields. The irrigation practices (continuous or intermittent automatic irrigation), water holding period (WHP), and excess water storage depth were found to control pesticide export from paddy fields in Asia, especially in monsoon rainy season (Inao et al., 2008; Phong et al., 2008; Watanabe et al., 2006, 2007). Other factors, such as solubility, hydrophobicity, and half-life, are related to pesticide properties. Only a few studies have been published on the fate of pesticides in paddy rice systems in Vietnam. They typically focus on pesticide occurrence and distribution in conventional paddy rice systems in the large lowland areas of the Mekong and Red River deltas (Giger et al., 2003; Hung and Thiemann, 2002; Minh et al., 2007; Toan et al., 2007). In contrast, little information is available about the behavior and transport processes of paddy rice pesticides. 1.Giger, W., M. Berg, H.V. Pham, H.A. Duong, H.C. Tran, T.H. Cao, and R. Schertenleib Environmental analytical research in northern Vietnam: A Swiss- Vietnamese cooperation focusing on arsenic and organic contaminants in aquatic environments and drinking water. Chimia 57:529– Hung, D.Q., and W. Th iemann Contamination by selected chlorinated pesticides in surface waters in Hanoi, Vietnam. Chemosphere 47:357– Inao, K., H. Watanabe, D.G. Karpouzas, and E. Capri Simulation models of pesticide fate and transport in paddy environment for ecological risk assessment and management. Japan Agric. Res. Q. 42:13–21. 4.Minh, N.H., T.B. Minh, N. Kajiwara, T. Kunisue, H. Iwata, P.H. Viet, Cam, N.P Tu, B.C. Tuyen, and S. Tanabe Pollution sources and occurrences of selected persistent organic pollutants (POPs) in sediments of the Mekong river delta, south Vietnam. Chemosphere 67:1794– Phong, T.K., H. Watanabe, T. Nishimura, K. Toyoda, and T. Motobayashi Behavior of simetryn and thiobencarb in rice paddy lysimeters and the effect of excess water storage depth in controlling herbicide run–off. Weed Biol. Manage. 8:243– Toan, V.D., V.D. Th ao, J. Walder, H. Schmutz, and C.T. Ha Contamination by selected organochlorine pesticides (OCPs) in surface 7.soils in Hanoi, Vietnam. Bull. Environ. Contam. Toxicol. 78:195– Watanabe, H., M.H.T. Nguyen, S. Komany, S.H. Vu, Y. Asami, T.K Phong, and J. Tournebize Applicability of ELISA in pesticide monitoring to control runoff of bensulfuron–methyl and simetryn from paddy fi elds. J. Pestic. Sci. 31:123– Watanabe, H., M.H.T. Nguyen, K. Souphasay, S.H. Vu, T.K. Phong, J. Tournebize, and S. Ishihara Eff ect of water management practice on pesticide behavior in paddy water. Agric. Water Manage. 88:132–140. Fate of Pesticides in Combined Paddy Rice–Fish Pond Farming Systems in Northern Vietnam Maria Anyusheva, Marc Lamers,* Nguyen La, Van Vien Nguyen, and Thilo Streck J. Environ. Qual. 41:515–525 (2012)

49 Data Processing To calculate pesticide loss from the paddy field and fish pond, the volume of respective surface discharge in hourly resolution was multiplied by the corresponding pesticide concentration in the outflow. The hourly pesticide concentrations were estimated by a piecewise linear interpolation as described in Potter et al. (2003) and Shih et al. (1998). In a few cases, outflow concentration data were not available and field water concentrations were taken as a surrogate for field outlet concentrations, assuming homogeneous spatial distribution of pesticide concentrations. Regression analysis was performed with SPSS software V. 18 (PASW Statistics, 2009). 1.PASW Statistics SPSS. Version 18. PASW Statistics, Chicago, IL. 2.Potter, T.L., C.C. Truman, D.D. Bosch, and C.W. Bednarz Organic compounds in the environment: Cotton defoliant runoff as a function of active ingredient and tillage. J. Environ. Qual. 32:2180– Shih, G., X. Wang, H.J Grimshaw, and J. Vanarman Variance of load estimates derived by piecewise linear interpolation. J. Environ. Eng. 124:1114–1120. Fate of Pesticides in Combined Paddy Rice–Fish Pond Farming Systems in Northern Vietnam Maria Anyusheva, Marc Lamers,* Nguyen La, Van Vien Nguyen, and Thilo Streck J. Environ. Qual. 41:515–525 (2012)

50 Discussion Water Balance of the Paddy Field The high irrigation rate ensured an adequate water supply to the paddy field and adjacent fish pond. The average irrigation rates to the paddy during SC and SAC were higher than those reported for continuous irrigation elsewhere (Neumann et al., 2009; Watanabe et al., 2007). In Japan, for example, Watanabe et al. (2007) measured an average rate of 1.6 cm d−1. The European Commission guidance document “MED–Rice” reports a value of 2.5 cm d−1 for Mediterranean conditions (MED-Rice, 2003). As a consequence of high irrigation rates, the water residence times in the Vietnamese paddy were short. Rainfall during the monitoring periods was slightly lower than (SC) or comparable to (SAC) the values recorded in Yen Chau during the respective periods of the years 2000 to 2006 (data not shown). ………… Neumann, R.B., M.L. Polizzotto, A.B.M. Badruzzaman, M.A. Ali, Z. Zhang, and C.F. Harvey Hydrology of a groundwater-irrigated rice field in Bangladesh: Seasonal and daily mechanisms of infi ltration. Water Resour. Res MED-Rice Guidance document for environmental risk assessments of active substances used on rice in the EU for Annex I inclusion. Document prepared by working group on MED-Rice, EU Document Reference SANCO/1090/2000–rev.1. Brussels, Belgium. 3.Watanabe, H., M.H.T. Nguyen, K. Souphasay, S.H. Vu, T.K. Phong, J. Tournebize, and S. Ishihara Eff ect of water management practice on pesticide behavior in paddy water. Agric. Water Manage. 88:132–140. Fate of Pesticides in Combined Paddy Rice–Fish Pond Farming Systems in Northern Vietnam Maria Anyusheva, Marc Lamers,* Nguyen La, Van Vien Nguyen, and Thilo Streck J. Environ. Qual. 41:515–525 (2012)

51 DISCUSSION Risk Assessment Pesticide concentrations in fish ponds connected to paddy fields depend mainly on pesticide solubility and water management scheme. In view of the second factor, the risk to species with relatively high PNEC (e.g., common carp, Table 2) can be signifi cantly reduced by extending the WHP. Cong et al. (2009) reported adverse effects for snakehead fish, a common fish species in paddy fields in Vietnam exposed to the organophosphorus pesticide diazinon. In their experiment, exposure to realistic environmental pesticide concentrations (16–350 μg L–1) resulted in long-term inhibition of brain cholinesterase. Moreover, exposure at the highest concentration level resulted in 30% growth inhibition. Klemick and Lichtenberg (2008) reported that fi sh harvests in the Mekong Delta were affected by pesticide use in the paddy fi elds, although the harvest losses were economically insignifi cant. 1.Cong, N.V., N.T. Phuong, and M. Bayley Eff ects of repeated exposure of diazinon on cholinesterase activity and growth in snakehead fish (Channa striata). Ecotoxicol. Environ. Saf. 72:699– Klemick H., and E.Lichtenberg Pesticide use and fish harvests in Vietnamese rice agroecosystems. Am. J. Agric. Econ. 90:1–14. Fate of Pesticides in Combined Paddy Rice–Fish Pond Farming Systems in Northern Vietnam Maria Anyusheva, Marc Lamers,* Nguyen La, Van Vien Nguyen, and Thilo Streck J. Environ. Qual. 41:515–525 (2012)

52 HASIL PENELITIAN Konsentrasi pestisida di kolam ikan yang berhubungan dengan sawah, tergantung pada kelarutan pestisida dan tata air sawah; dan ini menjadi risiko bagi ikan Cong, N.V., N.T. Phuong, and M. Bayley Effects of repeated exposure of diazinon on cholinesterase activity and growth in snakehead fish (Channa striata). Klemick H., and E.Lichtenberg Pesticide use and fish harvests in Vietnamese rice agroecosystems.


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