【經濟日報╱記者陳怡君／台北報導】2010.11.09 02:21 am
力麗（1444）昨（8）日公布10月營收7.88億元，年增率26.11%，轉投資力鵬（1447）10月營收24.82億元，年增逾1倍，尤其力鵬受惠大陸十一長假後原物料價格飆漲，不少紡絲廠客戶擔心尼龍上游原料CPL（己內醯胺）將再漲價，因此對力鵬的下單意願轉為積極。
力麗10月營收較9月略減2.8%，主要是營建收入認列較少，但在紡織本業方面，聚酯加工絲出貨量9,000多噸，較平常的1 萬多噸略低，但10月出貨的以細丹尼加工絲居多，產品的價格較好。
由於聚酯纖維上游原料的價格持續飆漲，純對苯二甲酸（PTA）、EG（乙二醇）過去一周內現貨價格雙雙上漲逾10%，PTA現貨價為每噸1,175美元三、EG現貨價為每噸1,068美元。
力麗11月接單也沒問題，聚酯纖維的產品報價跟著原料喊漲上調，加工絲報價每公斤至少調漲5至6元，轉嫁給下游客戶布廠吸收。
力鵬9月起本業已轉虧為盈，進入第四季後，接單情況也開始好轉，10月的尼龍粒、絲出貨量共2.4萬噸，優於9月的2,2萬多噸，僅次於3月的2.6萬噸，為今年以來單月歷史出貨次高。
力鵬10月營收約24.82億元，較去年同期大幅成長100.79%，該公司前十月營收約196.72億元，年增率38.32%。
據指出，大陸十一長假後原物料價格飆漲，包含尼龍的上游原料CPL（己內醯胺），因此，讓不少下游的紡絲廠客戶擔心後續價格還會上漲，對力鵬的下單意願轉為積極。
CPL在十一長假前的現貨價為每噸2,630美元，目前現貨價重返每噸2,800美元歷史高點，將帶動11月的CPL合約價進一步走揚。
由於原料價格持續上漲，國內尼龍絲廠11月再度調漲尼龍絲售價，以轉嫁原料漲價所增加的成本，尼龍絲11月的報價至少每公斤調漲3元以上。由於目前下游客戶尚可接受產品報價喊漲，讓力鵬等廠商11月的接單還算不錯。
2010年11月14日
2010年11月11日
[News] 111個回收寶特瓶 展現66年經典設計
為期四年的Navy 111計畫
2006年，全世界約有80%的寶特瓶塑膠回收率，而在美國僅有20%。身為飲料界龍頭老大的可口可樂，便在南卡羅來納州發展寶特瓶回收計畫，並為了讓每天回收數千個寶特瓶塑膠找到新的定位與價值，特別找上回收家具界的超級巨星Emeco，漫長且艱辛的Navy 111 計畫自此持續展開。
111 Navy ChairTM以經典的Navy 1006為原型，作為其不受時代限制的永恆設計，花費四年四倍的研發過程，製作團隊在每一張111 Navy ChairTM上使用65％的回收PET（polyethylene terephthalate plastic）塑料，再加上35％的玻璃纖維強化製成，以維持其耐久實用的特性，終於完成Emeco回收再造的首件塑料作品。在顏色上則取材於可口可樂紅、雪白、礦灰、柿橘、草綠、炭黑 等六種自然顏色，其中紅、白、灰三色，更是另一個歷經繁複且多時的反覆實驗，而研發出能抗紫外線的色料，以符合室內外皆可使用的功能。三個顏色中又以紅色的111 Navy ChairTM尤為困難，鮮豔的色澤能夠不因日照而退色，在技術上完全突破了塑料家具的極限。
去年可口可樂有效回收35％銷售世界的空瓶鋁罐，更計劃在2015年達成50%的目標。正如可口可樂公司所表示，每一個「可口可樂」的塑膠空瓶都是非常寶貴的資源回收物，此次將PET回收瓶罐轉化成每日使用的產品，也是可口可樂另一種啟發世人加入回收的做法。而對於Emeco來說，把原本要丟棄的垃圾空瓶重新再利用，並且製成可永續存在的家具單椅，不僅延長了廢棄材料的生命，也正符合Emeco一貫理念與作風。111 Navy ChairTM的成功不僅體現企業理念，對於環境保護也能有正向的助益，更為兩大品牌進行了一次創新且話題十足的綠色行銷。
2006年，全世界約有80%的寶特瓶塑膠回收率，而在美國僅有20%。身為飲料界龍頭老大的可口可樂，便在南卡羅來納州發展寶特瓶回收計畫，並為了讓每天回收數千個寶特瓶塑膠找到新的定位與價值，特別找上回收家具界的超級巨星Emeco，漫長且艱辛的Navy 111 計畫自此持續展開。
111 Navy ChairTM以經典的Navy 1006為原型，作為其不受時代限制的永恆設計，花費四年四倍的研發過程，製作團隊在每一張111 Navy ChairTM上使用65％的回收PET（polyethylene terephthalate plastic）塑料，再加上35％的玻璃纖維強化製成，以維持其耐久實用的特性，終於完成Emeco回收再造的首件塑料作品。在顏色上則取材於可口可樂紅、雪白、礦灰、柿橘、草綠、炭黑 等六種自然顏色，其中紅、白、灰三色，更是另一個歷經繁複且多時的反覆實驗，而研發出能抗紫外線的色料，以符合室內外皆可使用的功能。三個顏色中又以紅色的111 Navy ChairTM尤為困難，鮮豔的色澤能夠不因日照而退色，在技術上完全突破了塑料家具的極限。
去年可口可樂有效回收35％銷售世界的空瓶鋁罐，更計劃在2015年達成50%的目標。正如可口可樂公司所表示，每一個「可口可樂」的塑膠空瓶都是非常寶貴的資源回收物，此次將PET回收瓶罐轉化成每日使用的產品，也是可口可樂另一種啟發世人加入回收的做法。而對於Emeco來說，把原本要丟棄的垃圾空瓶重新再利用，並且製成可永續存在的家具單椅，不僅延長了廢棄材料的生命，也正符合Emeco一貫理念與作風。111 Navy ChairTM的成功不僅體現企業理念，對於環境保護也能有正向的助益，更為兩大品牌進行了一次創新且話題十足的綠色行銷。
http://www.notcot.com/archives/2010/05/11-coke-x-dwr-x-emeco-navy.php
2010年7月7日
[News] PLA injection molding breakthrough
By PlasticsToday Staff Published: July 7th, 2010
The problems with injection molding conventional PLA are well known, not least of which are its low heat resistance and limited injection-molding capability because of PLA’s increased cycle time. Teijin and Panasonic Electric Works announced their joint development of heat-resistant polylactide (PLA) molding compound made from 80% plant-based renewable feedstock and providing significantly reduced molding cycle time of around half that of conventional PLA compounds.
Panasonic Electric Works will begin selling the new material as its MBA900H PLA molding compound for use in cell phone housings and other mobile devices and digital consumer electronics. The initial goal is to produce 1000 tons of MBA900H PLA annually by fiscal 2012..
The bioplastic used in the MBA900H is Teijin’s Biofront, a high-heat resistant PLA with a melting point of at least 210ºC, which is significantly higher than that of conventional PLA. Biofront also shows better hydrolytic stability and achieves semi-crystallization in just 20-25% of the time required with conventional PLA
2010年6月29日
[News]《塑膠股》AE、SAP助威，台塑陸廠大賺
2010-06-24 08:37 時報資訊 【時報-台北電】
景氣復甦，台塑（1301）旗下5家大陸寧波子公司營運動能加速推進；包括40萬公噸的PVC、23萬公噸的AE、45萬噸的PP及3萬噸的SAP廠，每年約可挹注480億元營收。伴隨大陸AE需求可望延續每年10％以上成長，加上SAP今年需求年增6％至8％；法人推估，台塑今年大陸廠營運可望續揚20％。
受惠大陸擴大內需政策拉抬，台塑大陸廠運作績效發揮，旗下PVC廠年產能已由30萬噸提高為40萬噸，配合SAP(高吸水性樹酯)、AE（丙烯酸脂）及PP營運悉數轉虧為盈；去年合計營收台幣312.1億元，稅前盈餘貢獻29.3億元。台塑表示，大陸加工產業、建築工業持續推進，連動拉抬由AE轉製成的各種黏膠樹脂、塗料、防水膠及高吸水性樹脂等需求。今年大陸AE產能擴建稍停歇，維持111萬噸規模，而大陸AE需求可望延續每年10％以上成長，供需穩健發展。
台塑認為，今年全球AE年產能約520萬噸，需求達460萬噸，產能利用率約88％，呈現供需相對平衡狀態。配合內部對大陸及印度、中東、土耳其及巴西等市場聯袂推進，表現穩健可期。(新聞來源：工商時報─記者彭暄貽／台北報導)
景氣復甦，台塑（1301）旗下5家大陸寧波子公司營運動能加速推進；包括40萬公噸的PVC、23萬公噸的AE、45萬噸的PP及3萬噸的SAP廠，每年約可挹注480億元營收。伴隨大陸AE需求可望延續每年10％以上成長，加上SAP今年需求年增6％至8％；法人推估，台塑今年大陸廠營運可望續揚20％。
受惠大陸擴大內需政策拉抬，台塑大陸廠運作績效發揮，旗下PVC廠年產能已由30萬噸提高為40萬噸，配合SAP(高吸水性樹酯)、AE（丙烯酸脂）及PP營運悉數轉虧為盈；去年合計營收台幣312.1億元，稅前盈餘貢獻29.3億元。台塑表示，大陸加工產業、建築工業持續推進，連動拉抬由AE轉製成的各種黏膠樹脂、塗料、防水膠及高吸水性樹脂等需求。今年大陸AE產能擴建稍停歇，維持111萬噸規模，而大陸AE需求可望延續每年10％以上成長，供需穩健發展。
台塑認為，今年全球AE年產能約520萬噸，需求達460萬噸，產能利用率約88％，呈現供需相對平衡狀態。配合內部對大陸及印度、中東、土耳其及巴西等市場聯袂推進，表現穩健可期。(新聞來源：工商時報─記者彭暄貽／台北報導)
2010年6月28日
[News]《化工股》PP納ECFA早收，榮化2-3年內將提高PP產能5成
2010-06-29 12:57 時報資訊 【時報記者何美如台北報導】
榮化(1704)董事長李謀偉今日表示，ECFA的簽訂對榮化具正面幫助，根據他所了解，PP(聚丙烯)有二項產品納入早收清單，明年應可看到實質貢獻。由於大陸的PP自給率仍不足，每年缺口超過5百萬噸，李謀偉把握ECFA的正面效益，未來2-3年內，要透過去瓶頸提高PP五成的產能，目標年產能要達60萬噸。
李謀偉會後表示，榮化的PP走利基型產品，根據他瞭解，二項PP產品納入ECFA早收清單，榮化是受惠的，不過今日下午才正式簽約，屆時才能瞭解稅率的調降細則，估計明年才能看到效益。未來要透過去瓶頸提高50%的產能，目標是在2-3年內，分次將產能由目前的40萬噸提高至60萬噸。
李謀偉說，這一年多來，因新加坡PP業者享零關稅，台灣關稅要6.5%，被他們打的「淅瀝嘩啦」，泰國等東協成員明年未來都免關稅，影響很大。台灣不能把自己排除於國際社會，降關稅只是要和其他競爭對手站在同一起跑點競爭，他認為，政府的策略是正確的。
中國大陸的PP產能也同樣可賣到台灣，他說，大陸的PP自給率不足，幾乎沒有外銷，且台灣廠商的品質好，國內下游業者已習慣使用品質較佳的產品，相信榮化具競爭力。榮化表示，中國大陸每年市場需求超過一千萬噸，每年進口量超過5百萬噸，需求缺口仍大。
榮化(1704)董事長李謀偉今日表示，ECFA的簽訂對榮化具正面幫助，根據他所了解，PP(聚丙烯)有二項產品納入早收清單，明年應可看到實質貢獻。由於大陸的PP自給率仍不足，每年缺口超過5百萬噸，李謀偉把握ECFA的正面效益，未來2-3年內，要透過去瓶頸提高PP五成的產能，目標年產能要達60萬噸。
李謀偉會後表示，榮化的PP走利基型產品，根據他瞭解，二項PP產品納入ECFA早收清單，榮化是受惠的，不過今日下午才正式簽約，屆時才能瞭解稅率的調降細則，估計明年才能看到效益。未來要透過去瓶頸提高50%的產能，目標是在2-3年內，分次將產能由目前的40萬噸提高至60萬噸。
李謀偉說，這一年多來，因新加坡PP業者享零關稅，台灣關稅要6.5%，被他們打的「淅瀝嘩啦」，泰國等東協成員明年未來都免關稅，影響很大。台灣不能把自己排除於國際社會，降關稅只是要和其他競爭對手站在同一起跑點競爭，他認為，政府的策略是正確的。
中國大陸的PP產能也同樣可賣到台灣，他說，大陸的PP自給率不足，幾乎沒有外銷，且台灣廠商的品質好，國內下游業者已習慣使用品質較佳的產品，相信榮化具競爭力。榮化表示，中國大陸每年市場需求超過一千萬噸，每年進口量超過5百萬噸，需求缺口仍大。
[News]《橡膠股》高股息殖利率，買盤進駐臺橡
2010-06-27 13:57 時報資訊 【時報-台北電】
臺橡（2103）因第3季丁二烯等成本壓力趨緩，而橡膠原料產品價格持平或小幅調漲，配合高股息殖利率條件，吸引買盤進駐；上周五以45.75元收盤，成交張數1,978張，比前一交易日增加66％。
臺橡短線、中長線量能偏多，股價壓力46.29元，支撐44.05元。三大法人近5日買超臺橡1,294張，其中，自營商買超2,112張。
臺橡目前BR台灣大陸合計年產能10.5萬噸，SBR兩岸產能達30萬噸；尤其，TPE毛利率約20％、30％之多，營收比重約30％，有利強化獲利結構。
臺橡去年合併營收221.12億元，EPS達3.59元。在大陸車市活絡及大陸產能全能貢獻，法人推估，今年合併營收上看320億元，EPS約4元至4.2元水準。
臺橡印度、中國大陸新投資都將在2012年底、2013年投產，加計明年本有既定產能擴充貢獻，期望2014年集團合併營收奮力挑戰500億元大關。
臺橡明年既有大陸廠本有擴產計畫，BR年產能從5萬噸拉高至7.2萬噸，SEBS年產能則由2萬噸提高為3.5萬噸，整體產能年增57％之多。(新聞來源：工商時報─彭暄貽／台北報導)
臺橡（2103）因第3季丁二烯等成本壓力趨緩，而橡膠原料產品價格持平或小幅調漲，配合高股息殖利率條件，吸引買盤進駐；上周五以45.75元收盤，成交張數1,978張，比前一交易日增加66％。
臺橡短線、中長線量能偏多，股價壓力46.29元，支撐44.05元。三大法人近5日買超臺橡1,294張，其中，自營商買超2,112張。
臺橡目前BR台灣大陸合計年產能10.5萬噸，SBR兩岸產能達30萬噸；尤其，TPE毛利率約20％、30％之多，營收比重約30％，有利強化獲利結構。
臺橡去年合併營收221.12億元，EPS達3.59元。在大陸車市活絡及大陸產能全能貢獻，法人推估，今年合併營收上看320億元，EPS約4元至4.2元水準。
臺橡印度、中國大陸新投資都將在2012年底、2013年投產，加計明年本有既定產能擴充貢獻，期望2014年集團合併營收奮力挑戰500億元大關。
臺橡明年既有大陸廠本有擴產計畫，BR年產能從5萬噸拉高至7.2萬噸，SEBS年產能則由2萬噸提高為3.5萬噸，整體產能年增57％之多。(新聞來源：工商時報─彭暄貽／台北報導)
2009年12月20日
Novomer, Kodak partner on bioplastics manufacturing
December 14, 2009 - by Emma Ritch, Cleantech Group
Copyright © 2009 Cleantech Group LLC. All rights reserved, including right of redistribution.
State of New York provides a grant to the joint project to commercialize the use of catalysts in the manufacturing of plastic packaging.
Boston, Mass.-based Novomer said today it received an $800,000 grant towards a $1.6 million project with Kodak and the Rochester Institute of Technology that seeks to promote the manufacturing of bio-based plastics.
The project aims to displace the need for petroleum-based plastics while consuming less energy in production, resulting in a product with higher performance, Novomer said. In addition, the first phase of the project showed the process can leverage existing manufacturing infrastructure.
Novomer said its proprietary catalyst technology can be used to manufacture polypropylene carbonate (PPC), which is used to make plastic packaging or coatings for applications including bottles and film.
Novomer says its process uses 50 percent less energy than traditional plastics manufacturing. In addition, Novomer's PPC offered a significantly improved oxygen barrier and a stiffer barrier compared to traditional PPC. The improvements allow packaged food to remain fresh longer, potentially reducing food waste (see Packaging: The most important part of what you buy?). Novomer's PPC is also lighter than traditional PPC, reducing transportation costs.
Novomer expects the grant to enable it to use the expertise and infrastructure of Kodak Specialty Chemicals and the Rochester Institute of Technology to go into manufacturing.
The grant from the New York State Energy Research and Development Authority follows a $150,000 award that funded a five-month feasibility study completed in May.
Novomer, a spinoff of Cornell University, makes a family of plastics, polymers and other chemicals from renewable feedstocks such as carbon dioxide and carbon monoxide (see Novomer releases biodegradable polymer).
Novomer plans to make money by licensing the technology and selling the catalysts. The company told the Cleantech Group in August that it was beginning customer trials, with partnerships expected to be announced before the end of 2009 (see Novomer's cleaner burning binder goes into customer trials).
In August, Novomer raised $14 million in Series B funding from OVP Venture Partners, Physic
Venture Partners, Flagship Ventures and DSM Venturing (see Novomer raises $14M for plastics from renewable feedstocks). The company previously raised $6.6 million in 2007 (see Solar and biofuel deals lead the day).
Copyright © 2009 Cleantech Group LLC. All rights reserved, including right of redistribution.
State of New York provides a grant to the joint project to commercialize the use of catalysts in the manufacturing of plastic packaging.
Boston, Mass.-based Novomer said today it received an $800,000 grant towards a $1.6 million project with Kodak and the Rochester Institute of Technology that seeks to promote the manufacturing of bio-based plastics.
The project aims to displace the need for petroleum-based plastics while consuming less energy in production, resulting in a product with higher performance, Novomer said. In addition, the first phase of the project showed the process can leverage existing manufacturing infrastructure.
Novomer said its proprietary catalyst technology can be used to manufacture polypropylene carbonate (PPC), which is used to make plastic packaging or coatings for applications including bottles and film.
Novomer says its process uses 50 percent less energy than traditional plastics manufacturing. In addition, Novomer's PPC offered a significantly improved oxygen barrier and a stiffer barrier compared to traditional PPC. The improvements allow packaged food to remain fresh longer, potentially reducing food waste (see Packaging: The most important part of what you buy?). Novomer's PPC is also lighter than traditional PPC, reducing transportation costs.
Novomer expects the grant to enable it to use the expertise and infrastructure of Kodak Specialty Chemicals and the Rochester Institute of Technology to go into manufacturing.
The grant from the New York State Energy Research and Development Authority follows a $150,000 award that funded a five-month feasibility study completed in May.
Novomer, a spinoff of Cornell University, makes a family of plastics, polymers and other chemicals from renewable feedstocks such as carbon dioxide and carbon monoxide (see Novomer releases biodegradable polymer).
Novomer plans to make money by licensing the technology and selling the catalysts. The company told the Cleantech Group in August that it was beginning customer trials, with partnerships expected to be announced before the end of 2009 (see Novomer's cleaner burning binder goes into customer trials).
In August, Novomer raised $14 million in Series B funding from OVP Venture Partners, Physic
Venture Partners, Flagship Ventures and DSM Venturing (see Novomer raises $14M for plastics from renewable feedstocks). The company previously raised $6.6 million in 2007 (see Solar and biofuel deals lead the day).
2009年12月15日
A growing future for bioproducts from sugar
http://cleantech.com/news
December 7, 2009 - by Lisa Sibley, Cleantech Group
U.S.-based Genomatica and Brazil’s Braskem are looking at the international opportunities for sustainable chemicals and bioplastics from sugar.
There’s a major opportunity to convert sugar into a whole host of products, such as “green” chemicals, renewable polymers for bioplastics production, and other so called bioproducts, says San Diego-based Genomatica CEO Christophe Schilling.
And they could prove to offer new revenue streams in the process, according to a recent report titled “Market Potential of Sugarcane and Beet Bio-products,” from the London-based International Sugar Organization (ISO).
Schilling told the Cleantech Group it’s not just something being looked at by ISO. He recently participated in a U.S. Department of Energy workshop on the topic, where various stakeholders were looking for related opportunities.
“The ISO report represents a growing international exposure to the opportunity,” he said. "Fuel companies are seeing more near-term opportunities are going to be in chemicals.”
Schilling said that based on a study his company conducted with ICIS, the chemical and energy market intelligence firm, the majority of customers are interested in having access to renewable or sustainable chemicals, but they don’t want to pay more for them.
“It represents a tremendous opportunity for companies like ours to deliver process technology at the same cost or below what it is currently being made at,” he said. “If you can do that you have a terrific win-win, in that you can not only provide a lower cost solution, but you can provide a renewable solution.”
His sustainable chemical company has already been “laser focused” on such chemicals for a number of years, he said. The company uses biotechnology to convert feedstock into existing intermediate renewable chemicals (see Genomatica develops second biochemical from microbes).
“Sugar represents a terrific feedstock from those you can choose from because it’s a large globally traded commodity,” he said. “It’s grown in many regions of the world, so you have many options to source it.”
While he said the ISO report seems to be aimed at sugar producers, it highlights Genomatica’s process as a promising intermediate chemical.
In June, the company announced validation of its ability to make commercial grade 1,4 butaneditol (BDO) from renewable feedstock. BDO is used in plastics, solvents, pharmaceuticals, automotive components and textiles.
The company said it can process BDO produced from sugar to greater than 99 percent purity in a cost-effective recovery process. Genomatica first announced its abilities to make the key plastic component without petrochemicals in 2008 (see Genomatica develops novel bioplastic).
Another company featured in the report is São Paulo-based Braskem, which is investing in bioplastics production capacity in Brazil where sugarcane ethanol is expected to be the feedstock (see Braskem claims first green polyethylene).
In 2007, the company said it produced the first green certified polyethylene in the world, based on ethanol made locally from sugarcane.
The report points out that since Brazil makes the world’s lowest cost ethanol, it’s possible to produce ethanol and then convert the ethylene into polyethylene.
However a collaboration between Dow Chemical (NYSE:DOW) and Crystalsev, one of Brazil’s largest ethanol companies, to produce bio-polyethylene isn’t moving forward because of the breakup of Crystalsev (see Dow and Crystalsev to make bioplastic in Brazil).
The companies were expected to build the world's biggest polyethylene from sugarcane plant in Brazil, but now Dow appears to be seeking another partner for the project.
For Genomatica, Schilling said his company is still on track to start selling licenses and have a pilot plant in 2010. The plant hasn’t broken ground yet, but is expected to begin operating in the first half of next year.
He wouldn’t disclose the plant's cost, but said Genomatica has the financial means to move forward with it, without being dependent on partnerships or government funding.
Even once the plant is up and running, the company plans to continue to refine its commercial product.
“We are essentially trying to optimize the microorganisms used to produce the BDO, so it can make more BDO faster,” he said.
The report also says Genomatica is pursuing other chemicals from sugar. Without disclosing which ones, the company has said it is targeting a broad range of other intermediate chemicals from sugar including molecules important to making nylons, acrylates, and other large volume chemicals.
Schilling said Genomatica is focused on producing chemicals with large existing markets of more than $1 billion, as opposed to producing molecules with small markets such as succinic acid.
Copyright © 2009 Cleantech Group LLC. All rights reserved, including right of redistribution.
-------------------------------------------------
Genomatica用微生物來生產1,4-丁二醇(BDO)
2009-07-20 10:20
鑒於新技術的開發和可持續發展的推動，綠色化學品正在升溫。
截至2009年5月初，已開發出生物製造途徑來生產廣泛應用的溶劑甲乙酮(MEK)，一些公司已擁有潛力可在他們生產的產品中替代石油衍生的產品。
例如，美國加利福尼亞州的Genomatica公司已突破用微生物來生產1,4-丁二醇(BDO)。
已有二個途徑可使用植物糖類作為原材料並生產化學品，這可成為石油基路線的替代。這種可持續發展的化學是不斷發展中的領域，一些公司已迫切感到需要提高其可持續發展水準，並加快從石油基材料氛圍走到可再生的原料道路之上。使用“可持續發展的化學品”，也有潛力可減少能源使用量和減少碳排放，並應對未來石油供應的短缺和較高油價的困擾。
美國Genomatica公司指出，目前許多公司關注焦點的第一浪潮是如何提高其自身的可持續性發展，主要關注能源的使用和公司的碳足跡;第二浪潮是檢驗其所生產的產品，並開始尋求如何能通過更可持續發展的方式從可再生原料來生產這些材料。
這第二個領域已成為許多技術開發公司的責任，他們正在致力於開發簡單而有效的技術尋求可再生原料替代方案。
有某些實例表明，一些公司已開發了新的可持續性發展的產品和生產實踐，已有一些技術和產品推向了市場，如美國從事農業業務的嘉吉(Cargill)公司和日本帝人公司的合資企業NatureWorks公司推出的Ingeo聚乳酸(PLA)聚合物，以及美國的生物科學公司Metabolix與組分、飼料和生物燃料公司ADM(Archer Daniels Midland)已生產出生物基Mirel聚合物。這些都是一些新的生物可降解聚合物。
Genomatica公司有志於通過生物途徑生產化學品，這些化學品可直按作為石油衍生產品的替代，如其開發的BDO和MEK。美國杜邦公司和英國食品集團Tate & Lyle公司的生物基丙二醇是生物途徑的又一實例。巴西石化集團Braskem公司則開發了生物基聚乙烯(PE)。
開發新產品以及開發經化學認證的替代方案是二種不同的途徑，但這兩者都具有可持續發展的潛力。對後者而言，低成本是最重要的，可以相信，通過新途徑生產這些產品會有25%的成本優勢。
Genomatica公司使用專有的集成技術平臺，採用稱之為SimPheny先進的電腦模擬技術，來指導基因變異微生物的設計，從而可生產出特定的終端產品。一旦微生物被鑒定和工程化，該公司就利用這一技術以提高產率和生產效率，並將過程工程放大到商業化規模。
Genomatica公司已將生產BDO的生物基技術轉讓給了一些化學品生產商。
December 7, 2009 - by Lisa Sibley, Cleantech Group
U.S.-based Genomatica and Brazil’s Braskem are looking at the international opportunities for sustainable chemicals and bioplastics from sugar.
There’s a major opportunity to convert sugar into a whole host of products, such as “green” chemicals, renewable polymers for bioplastics production, and other so called bioproducts, says San Diego-based Genomatica CEO Christophe Schilling.
And they could prove to offer new revenue streams in the process, according to a recent report titled “Market Potential of Sugarcane and Beet Bio-products,” from the London-based International Sugar Organization (ISO).
Schilling told the Cleantech Group it’s not just something being looked at by ISO. He recently participated in a U.S. Department of Energy workshop on the topic, where various stakeholders were looking for related opportunities.
“The ISO report represents a growing international exposure to the opportunity,” he said. "Fuel companies are seeing more near-term opportunities are going to be in chemicals.”
Schilling said that based on a study his company conducted with ICIS, the chemical and energy market intelligence firm, the majority of customers are interested in having access to renewable or sustainable chemicals, but they don’t want to pay more for them.
“It represents a tremendous opportunity for companies like ours to deliver process technology at the same cost or below what it is currently being made at,” he said. “If you can do that you have a terrific win-win, in that you can not only provide a lower cost solution, but you can provide a renewable solution.”
His sustainable chemical company has already been “laser focused” on such chemicals for a number of years, he said. The company uses biotechnology to convert feedstock into existing intermediate renewable chemicals (see Genomatica develops second biochemical from microbes).
“Sugar represents a terrific feedstock from those you can choose from because it’s a large globally traded commodity,” he said. “It’s grown in many regions of the world, so you have many options to source it.”
While he said the ISO report seems to be aimed at sugar producers, it highlights Genomatica’s process as a promising intermediate chemical.
In June, the company announced validation of its ability to make commercial grade 1,4 butaneditol (BDO) from renewable feedstock. BDO is used in plastics, solvents, pharmaceuticals, automotive components and textiles.
The company said it can process BDO produced from sugar to greater than 99 percent purity in a cost-effective recovery process. Genomatica first announced its abilities to make the key plastic component without petrochemicals in 2008 (see Genomatica develops novel bioplastic).
Another company featured in the report is São Paulo-based Braskem, which is investing in bioplastics production capacity in Brazil where sugarcane ethanol is expected to be the feedstock (see Braskem claims first green polyethylene).
In 2007, the company said it produced the first green certified polyethylene in the world, based on ethanol made locally from sugarcane.
The report points out that since Brazil makes the world’s lowest cost ethanol, it’s possible to produce ethanol and then convert the ethylene into polyethylene.
However a collaboration between Dow Chemical (NYSE:DOW) and Crystalsev, one of Brazil’s largest ethanol companies, to produce bio-polyethylene isn’t moving forward because of the breakup of Crystalsev (see Dow and Crystalsev to make bioplastic in Brazil).
The companies were expected to build the world's biggest polyethylene from sugarcane plant in Brazil, but now Dow appears to be seeking another partner for the project.
For Genomatica, Schilling said his company is still on track to start selling licenses and have a pilot plant in 2010. The plant hasn’t broken ground yet, but is expected to begin operating in the first half of next year.
He wouldn’t disclose the plant's cost, but said Genomatica has the financial means to move forward with it, without being dependent on partnerships or government funding.
Even once the plant is up and running, the company plans to continue to refine its commercial product.
“We are essentially trying to optimize the microorganisms used to produce the BDO, so it can make more BDO faster,” he said.
The report also says Genomatica is pursuing other chemicals from sugar. Without disclosing which ones, the company has said it is targeting a broad range of other intermediate chemicals from sugar including molecules important to making nylons, acrylates, and other large volume chemicals.
Schilling said Genomatica is focused on producing chemicals with large existing markets of more than $1 billion, as opposed to producing molecules with small markets such as succinic acid.
Copyright © 2009 Cleantech Group LLC. All rights reserved, including right of redistribution.
-------------------------------------------------
Genomatica用微生物來生產1,4-丁二醇(BDO)
2009-07-20 10:20
鑒於新技術的開發和可持續發展的推動，綠色化學品正在升溫。
截至2009年5月初，已開發出生物製造途徑來生產廣泛應用的溶劑甲乙酮(MEK)，一些公司已擁有潛力可在他們生產的產品中替代石油衍生的產品。
例如，美國加利福尼亞州的Genomatica公司已突破用微生物來生產1,4-丁二醇(BDO)。
已有二個途徑可使用植物糖類作為原材料並生產化學品，這可成為石油基路線的替代。這種可持續發展的化學是不斷發展中的領域，一些公司已迫切感到需要提高其可持續發展水準，並加快從石油基材料氛圍走到可再生的原料道路之上。使用“可持續發展的化學品”，也有潛力可減少能源使用量和減少碳排放，並應對未來石油供應的短缺和較高油價的困擾。
美國Genomatica公司指出，目前許多公司關注焦點的第一浪潮是如何提高其自身的可持續性發展，主要關注能源的使用和公司的碳足跡;第二浪潮是檢驗其所生產的產品，並開始尋求如何能通過更可持續發展的方式從可再生原料來生產這些材料。
這第二個領域已成為許多技術開發公司的責任，他們正在致力於開發簡單而有效的技術尋求可再生原料替代方案。
有某些實例表明，一些公司已開發了新的可持續性發展的產品和生產實踐，已有一些技術和產品推向了市場，如美國從事農業業務的嘉吉(Cargill)公司和日本帝人公司的合資企業NatureWorks公司推出的Ingeo聚乳酸(PLA)聚合物，以及美國的生物科學公司Metabolix與組分、飼料和生物燃料公司ADM(Archer Daniels Midland)已生產出生物基Mirel聚合物。這些都是一些新的生物可降解聚合物。
Genomatica公司有志於通過生物途徑生產化學品，這些化學品可直按作為石油衍生產品的替代，如其開發的BDO和MEK。美國杜邦公司和英國食品集團Tate & Lyle公司的生物基丙二醇是生物途徑的又一實例。巴西石化集團Braskem公司則開發了生物基聚乙烯(PE)。
開發新產品以及開發經化學認證的替代方案是二種不同的途徑，但這兩者都具有可持續發展的潛力。對後者而言，低成本是最重要的，可以相信，通過新途徑生產這些產品會有25%的成本優勢。
Genomatica公司使用專有的集成技術平臺，採用稱之為SimPheny先進的電腦模擬技術，來指導基因變異微生物的設計，從而可生產出特定的終端產品。一旦微生物被鑒定和工程化，該公司就利用這一技術以提高產率和生產效率，並將過程工程放大到商業化規模。
Genomatica公司已將生產BDO的生物基技術轉讓給了一些化學品生產商。
2009年12月6日
World Bioplastic Demand to Reach 900,000 Metric Tons
Cleveland 12/03/2009 09:29 下午 GMT (TransWorldNews)
Global demand for bioplastics, plastic resins that are biodegradable or derived from plant-based sources, will rise more than fourfold to 900,000 metric tons in 2013, valued at $2.6 billion. Growth will be fueled by a number of factors, including consumer demand for more environmentally-sustainable products, the development of bio-based feedstocks for commodity plastic resins, and increasing restrictions on the use of nondegradable plastic products, particularly plastic bags. Most important, however, will be the expected continuation of high crude oil and natural gas prices, which will allow bioplastics to become more cost-competitive with petroleum-based resins. These and other trends, including market share and product segmentation, are presented in World Bioplastics, a new study from The Freedonia Group, Inc., a Cleveland-based industry research firm.
Non-biodegradable plant-based plastics will be the primary driver of bioplastics demand, posting extraordinary growth from a small 2008 base. In the next few years, Braskem and Dow Chemical each plan to open plants in Brazil that will produce polyethylene from sugar cane-based ethanol, while Solvay is expected to open a bio-based polyvinyl chloride facility. Biodegradable plastics, such as starch-based resins, polylactic acid (PLA) and degradable polyesters, accounted for the vast majority (nearly 90 percent) of bioplastics demand in 2008. Double-digit gains are expected to continue going forward, fueled in part by the emergence on the commercial market of polyhydroxy-alkanoates (PHAs). PLA will also see strong advances in demand as new production capacity comes online.
Western Europe was the largest regional market for bioplastics in 2008, accounting for about 40 percent of world demand. Bioplastics sales in the region benefit from strong consumer demand for biodegradable and plant-based products, a regulatory environment that favors bioplastics over petroleum resins, and an extensive infrastructure for composting. Going forward, however, demand will grow more rapidly in the Asia/Pacific region, which will surpass the West European market by 2013. Gains will be stimulated by strong demand in Japan, which has focused intently on the replacement of petroleum-based plastics. Other regions, such as Latin America and Eastern Europe, will see stellar gains in bioplastics demand from a very small 2008 base.
Global demand for bioplastics, plastic resins that are biodegradable or derived from plant-based sources, will rise more than fourfold to 900,000 metric tons in 2013, valued at $2.6 billion. Growth will be fueled by a number of factors, including consumer demand for more environmentally-sustainable products, the development of bio-based feedstocks for commodity plastic resins, and increasing restrictions on the use of nondegradable plastic products, particularly plastic bags. Most important, however, will be the expected continuation of high crude oil and natural gas prices, which will allow bioplastics to become more cost-competitive with petroleum-based resins. These and other trends, including market share and product segmentation, are presented in World Bioplastics, a new study from The Freedonia Group, Inc., a Cleveland-based industry research firm.
Non-biodegradable plant-based plastics will be the primary driver of bioplastics demand, posting extraordinary growth from a small 2008 base. In the next few years, Braskem and Dow Chemical each plan to open plants in Brazil that will produce polyethylene from sugar cane-based ethanol, while Solvay is expected to open a bio-based polyvinyl chloride facility. Biodegradable plastics, such as starch-based resins, polylactic acid (PLA) and degradable polyesters, accounted for the vast majority (nearly 90 percent) of bioplastics demand in 2008. Double-digit gains are expected to continue going forward, fueled in part by the emergence on the commercial market of polyhydroxy-alkanoates (PHAs). PLA will also see strong advances in demand as new production capacity comes online.
Western Europe was the largest regional market for bioplastics in 2008, accounting for about 40 percent of world demand. Bioplastics sales in the region benefit from strong consumer demand for biodegradable and plant-based products, a regulatory environment that favors bioplastics over petroleum resins, and an extensive infrastructure for composting. Going forward, however, demand will grow more rapidly in the Asia/Pacific region, which will surpass the West European market by 2013. Gains will be stimulated by strong demand in Japan, which has focused intently on the replacement of petroleum-based plastics. Other regions, such as Latin America and Eastern Europe, will see stellar gains in bioplastics demand from a very small 2008 base.
2009年10月4日
Ford wants bioplastic in cars
By Doris de Guzman on September 29, 2009 11:38 AM
http://www.icis.com/blogs/green-chemicals/
Ford researchers are hoping to develop 100% petroleum-free automotive plastics to make it to make cars totally compostable - as long as they don't compost while being driven of course. In fact, decomposition is one of the 3 main challenges that Ford is trying to overcome since bioplastic (e.g. polylactic acid) is designed to decompose quickly.
Maybe bioplastic developers can design a time-activated material where vehicles have expiration date and that's when decomposition process starts??
Other challenges that Ford researchers are looking for solutions include less moisture absorption (since natural fiber-reinforced plastics are more likely to absorb moisture causing durability concerns), and odor problems.
Despite those challenges, biobased/recycled materials are already being used in several Ford vehicles:
Soy-based polyurethane foams on the seat cushions and seatbacks on the Ford Mustang, Expedition, F-150, Focus, Escape, Escape Hybrid, Mercury Mariner and Lincoln Navigator and Lincoln MKS.
Soy-foam headliner on the 2010 Ford Escape and Mercury Mariner.
Underbody systems, such as aerodynamic shields, splash shields and radiator air deflector shields, made from post-consumer recycled resins such as detergent bottles, tires and battery casings.
100% postindustrial recycled yarns in seat fabrics on vehicles such as the Ford Escape. The 2010 Ford Fusion and Mercury Milan Hybrids feature 85% postindustrial yarns and 15% solution-dyed yarns.
Ford researchers said they are looking more at plastics, rubber, foam, film and fabric to develop alternative bio-based materials that are functional, durable, cost-effective, and decreases use of petroleum oil.
Possibilities include replacing glass fibers with natural fiber reinforcements made from cellulose, soy protein, hemp fiber, flax fiber and other bio-based materials; and PLA bioplastics for vehicle carpeting, floor mats, upholstery, and nondurable auto applications such as protective wrappings used during vehicle manufacturing and transit.
http://www.icis.com/blogs/green-chemicals/
Ford researchers are hoping to develop 100% petroleum-free automotive plastics to make it to make cars totally compostable - as long as they don't compost while being driven of course. In fact, decomposition is one of the 3 main challenges that Ford is trying to overcome since bioplastic (e.g. polylactic acid) is designed to decompose quickly.
Maybe bioplastic developers can design a time-activated material where vehicles have expiration date and that's when decomposition process starts??
Other challenges that Ford researchers are looking for solutions include less moisture absorption (since natural fiber-reinforced plastics are more likely to absorb moisture causing durability concerns), and odor problems.
Despite those challenges, biobased/recycled materials are already being used in several Ford vehicles:
Soy-based polyurethane foams on the seat cushions and seatbacks on the Ford Mustang, Expedition, F-150, Focus, Escape, Escape Hybrid, Mercury Mariner and Lincoln Navigator and Lincoln MKS.
Soy-foam headliner on the 2010 Ford Escape and Mercury Mariner.
Underbody systems, such as aerodynamic shields, splash shields and radiator air deflector shields, made from post-consumer recycled resins such as detergent bottles, tires and battery casings.
100% postindustrial recycled yarns in seat fabrics on vehicles such as the Ford Escape. The 2010 Ford Fusion and Mercury Milan Hybrids feature 85% postindustrial yarns and 15% solution-dyed yarns.
Ford researchers said they are looking more at plastics, rubber, foam, film and fabric to develop alternative bio-based materials that are functional, durable, cost-effective, and decreases use of petroleum oil.
Possibilities include replacing glass fibers with natural fiber reinforcements made from cellulose, soy protein, hemp fiber, flax fiber and other bio-based materials; and PLA bioplastics for vehicle carpeting, floor mats, upholstery, and nondurable auto applications such as protective wrappings used during vehicle manufacturing and transit.
SPI: Bioplastics market expected to grow by 17.3% annually
The global market for bioplastics currently stands at about EUR 640m and is estimated to reach EUR 1.3 bn in 2012, according to BBC Research (www.bbcresearch.com).
Translated into tonnage, this means that this particular market is expected to grow at 17.3% annually, from 245,000 t in 2007 to 545,000 t in 2012, more than doubling in volume. That is the prediction of the Bioplastics Council, a special interest group of the Society of Plastics Industry (SPI, Washington, District of Columbia / USA; www.plasticsindustry.org).
Responding to this rapid growth, the Bioplastics Council recently published a 26-page ioplastics Industry Overview Guide.�
Translated into tonnage, this means that this particular market is expected to grow at 17.3% annually, from 245,000 t in 2007 to 545,000 t in 2012, more than doubling in volume. That is the prediction of the Bioplastics Council, a special interest group of the Society of Plastics Industry (SPI, Washington, District of Columbia / USA; www.plasticsindustry.org).
Responding to this rapid growth, the Bioplastics Council recently published a 26-page ioplastics Industry Overview Guide.�
2009年9月21日
Bioplastics Added to RTP Company's Specialty Compound Product Families
Global custom engineered thermoplastic compounder RTP Company has introduced a comprehensive line of engineered bioplastic specialty compounds that utilize resins derived from rapidly renewable resources. Initial bioplastic compounds based on polyamide, polyester, and polylactic acid (PLA) are available in grades providing conductive, flame retardant, structural, and wear resistant value-added properties. RTP Company's bioplastic compounds contain 20 to 80% bio-content by weight and were developed to meet marketplace requests for alternative "green" materials.
Winona, MN (PRWEB) September 12, 2009 -- Global custom engineered thermoplastic compounder RTP Company has introduced a comprehensive line of engineered bioplastic specialty compounds that utilize resins derived from rapidly renewable resources. Initial bioplastic compounds based on polyamide, polyester, and polylactic acid (PLA) are available in grades providing conductive, flame retardant, structural, and wear resistant value-added properties. RTP Company's bioplastic compounds contain 20 to 80% bio-content by weight and were developed to meet marketplace requests for alternative "green" materials.
"Bioplastic compounds, utilizing components derived from rapidly renewable resources instead of petroleum, are the latest element of an RTP Company initiative to develop greener products to meet diverse industry requirements," said Andy Lamberson, Corporate Development Manager at RTP Company. "The use of bioplastic compounds lessens dependence on non-renewable resources, they also have a lower carbon footprint, their manufacture emits less carbon dioxide and requires less energy, making them more environmentally-favorable than traditional plastics."
Initial development has resulted in over a dozen bioplastic compounds that meet a wide variety of application requirements. Research into additional formulations continues along with development of custom materials to meet specific end-use requirements. Prospective applications for bioplastic compounds include automotive interior and industrial components, semi-durable consumer goods, and housings and enclosures for electronics or business equipment.
Bioplastic polyamide- and polyester-based compounds are available with glass fiber reinforcement, antistatic protection, halogen-free flame retardant, and PTFE lubrication. Polylactic acid (PLA) grades are combined with PC, PMMA, or ABS in hybrid formulations that increase mechanical performance and offer antistatic, flame retardant, and structural properties. A 32% bio-content PLA/PC alloy has a notched IZOD impact strength of 15 ft-lbs/in (800 J/m), and a 40% bio-content PLA/PMMA alloy is optically clear. All current bioplastic grades are fully colorable to standard and custom matched colors.
"Bioplastic compounds join RTP Company's other materials, such as halogen-free flame retardant and recycled post-consumer content grades, which help processors and OEMs meet their goals and consumer demands for manufacturing more environmentally-conscious products," said Lamberson.
Initial Bioplastic Specialty Compounds From RTP Company
Additional custom formulations are available to meet specific performance criteria
Product Description % Bio Content
RTP 2099 X 115387 A Polyamide - 30% Glass Fiber 43%
RTP 2099 X 115387 B Polyamide - 30% Glass Fiber - Halogen-Free FR 31%
RTP 2099 X 115387 C Polyamide - 30% Glass Fiber - 15% PTFE 34%
RTP 2099 X 121825 E Polyamide - Permanently Antistatic 31%
RTP 2099 X 121216 G PLA - Impact Modified 80%
RTP 2099 X 121235 D PLA/PC Hybrid 32%
RTP 2099 X 121240 C PLA/PC Hybrid - Halogen-Free FR 20%
RTP 2099 X 121241 B PLA/PC Hybrid - Permanently Antistatic 27%
RTP 2099 X 121236 A PLA/ABS Hybrid 40%
RTP 2099 X 115375 C PLA/PMMA Hybrid - Transparent 40%
RTP 2099 X 115375 B PLA/PMMA Hybrid - Impact Modified 40%
RTP 4799 X 115376 C Polyester - 30% Glass Fiber 26%
RTP 4799 X 115376 E Polyester - 30% Glass Fiber - Halogen-Free FR 19%
RTP 4799 X 115376 F Polyester - 30% Glass Fiber - 15% PTFE 20%
RTP 4799 X 121826 C Polyester - Permanently Antistatic 29%
For more information on RTP Company bioplastic and custom engineered thermoplastic compounds, call (800) 433-4787 or (507) 454-6900, or visit their website at www.rtpcompany.com.
See the original story at: http://www.prweb.com/releases/2009/09/prweb2862554.htm
Winona, MN (PRWEB) September 12, 2009 -- Global custom engineered thermoplastic compounder RTP Company has introduced a comprehensive line of engineered bioplastic specialty compounds that utilize resins derived from rapidly renewable resources. Initial bioplastic compounds based on polyamide, polyester, and polylactic acid (PLA) are available in grades providing conductive, flame retardant, structural, and wear resistant value-added properties. RTP Company's bioplastic compounds contain 20 to 80% bio-content by weight and were developed to meet marketplace requests for alternative "green" materials.
"Bioplastic compounds, utilizing components derived from rapidly renewable resources instead of petroleum, are the latest element of an RTP Company initiative to develop greener products to meet diverse industry requirements," said Andy Lamberson, Corporate Development Manager at RTP Company. "The use of bioplastic compounds lessens dependence on non-renewable resources, they also have a lower carbon footprint, their manufacture emits less carbon dioxide and requires less energy, making them more environmentally-favorable than traditional plastics."
Initial development has resulted in over a dozen bioplastic compounds that meet a wide variety of application requirements. Research into additional formulations continues along with development of custom materials to meet specific end-use requirements. Prospective applications for bioplastic compounds include automotive interior and industrial components, semi-durable consumer goods, and housings and enclosures for electronics or business equipment.
Bioplastic polyamide- and polyester-based compounds are available with glass fiber reinforcement, antistatic protection, halogen-free flame retardant, and PTFE lubrication. Polylactic acid (PLA) grades are combined with PC, PMMA, or ABS in hybrid formulations that increase mechanical performance and offer antistatic, flame retardant, and structural properties. A 32% bio-content PLA/PC alloy has a notched IZOD impact strength of 15 ft-lbs/in (800 J/m), and a 40% bio-content PLA/PMMA alloy is optically clear. All current bioplastic grades are fully colorable to standard and custom matched colors.
"Bioplastic compounds join RTP Company's other materials, such as halogen-free flame retardant and recycled post-consumer content grades, which help processors and OEMs meet their goals and consumer demands for manufacturing more environmentally-conscious products," said Lamberson.
Initial Bioplastic Specialty Compounds From RTP Company
Additional custom formulations are available to meet specific performance criteria
Product Description % Bio Content
RTP 2099 X 115387 A Polyamide - 30% Glass Fiber 43%
RTP 2099 X 115387 B Polyamide - 30% Glass Fiber - Halogen-Free FR 31%
RTP 2099 X 115387 C Polyamide - 30% Glass Fiber - 15% PTFE 34%
RTP 2099 X 121825 E Polyamide - Permanently Antistatic 31%
RTP 2099 X 121216 G PLA - Impact Modified 80%
RTP 2099 X 121235 D PLA/PC Hybrid 32%
RTP 2099 X 121240 C PLA/PC Hybrid - Halogen-Free FR 20%
RTP 2099 X 121241 B PLA/PC Hybrid - Permanently Antistatic 27%
RTP 2099 X 121236 A PLA/ABS Hybrid 40%
RTP 2099 X 115375 C PLA/PMMA Hybrid - Transparent 40%
RTP 2099 X 115375 B PLA/PMMA Hybrid - Impact Modified 40%
RTP 4799 X 115376 C Polyester - 30% Glass Fiber 26%
RTP 4799 X 115376 E Polyester - 30% Glass Fiber - Halogen-Free FR 19%
RTP 4799 X 115376 F Polyester - 30% Glass Fiber - 15% PTFE 20%
RTP 4799 X 121826 C Polyester - Permanently Antistatic 29%
For more information on RTP Company bioplastic and custom engineered thermoplastic compounds, call (800) 433-4787 or (507) 454-6900, or visit their website at www.rtpcompany.com.
See the original story at: http://www.prweb.com/releases/2009/09/prweb2862554.htm
Review of Samsung's bio-plastic M560 Reclaim for Sprint
Entry-level devices took a huge leap forward this summer with the release of the Samsung M560 Reclaim, which, at $49.99 provides, a smartphone-like experience in a compact form that is eco-friendly.
Physical Aspects
My initial impressions with the device were impressive. When I heard it was composed of bio-plastics I was curious as to what it would feel like in my hands, and I immediately found it sturdy in all respects.
The Reclaim is a slider device that opens vertically to expose the full QWERTY keypad beneath. I really like the size and feel of the phone. At 93mm x 59mm x 17mm (3.68in x 2.33in x 0.67in) in size and weighing 99g (3.5oz), the Samsung Reclaim is surprisingly small for everything that it can do. The model I reviewed came in a color called Earth Green, though the Reclaim is also available in Ocean Blue.
When closed, a standard d-pad handles basic navigation, while two soft keys, end/power key, talk key, back/clear key and speaker key handle more specific tasks. The d-pad is extremely simple yet fully functional, with the ability to do everything from navigating WAP pages to scrolling through emails.
The left side of the device contains a 3.5mm headset port and dedicated volume buttons. Along the right edge are a camera button, a micro-USB charging port, and a microSD memory slot.
The Reclaim features a 2.4-inch, 262K-color QVGA (320 x 240 pixel) TFT display that is generous in size compared to the relative size of the device. I found the screen easy to read in most conditions, although bright sunlight may prove problematic. Color depth is good for an entry-level phone consistent with this price point.
Review by Marc Lynde on Thursday September 17, 2009
http://www.mobileburn.com/
2009年9月13日
Using bioplastics lengthens shelf life of potatoes by 50%
Jaap Kodde from Flevostar, Holland:
Publication date: 9/10/2009
Author: Nichola Watson
Copyright: www.freshplaza.com
The company Flevostar from Dronten, Holland announced that the shelf life of potatoes can be extended by at least 50% by using bioplastic packaging. Spokesman Jaap Kodde says that according to their research it takes considerably longer before potatoes turn green when using the recycled bioplastic because the packaging filters specific wavelengths of light.
"We have as a company started with the application of bioplastics because we want to stand out for our quality and are very keen to conserve the environment. After we solved the initial problems, it was surprising to find that the potatoes had a much longer shelf life with no adverse effect on the quality," said Jaap Kodde, director and owner of Flevostar. "We also found that by using bioplastic no condensation formed inside the packaging because the packaging 'breathes'. Droplets of water which come into contact with a fresh product such as potatoes lead to faster rotting and reduction in quality."
The recycled bioplastics are based on corn which lessens the reliance on oil and above all reduces the creation of greenhouse gas CO². The package can converted into biogas, compost or burnt.
Research aims to boost bioplastics from potatoes
02-Sep-2009
Related topics: Green packaging, Packaging & Design, Packaging
Corn starch-based Bioplastics have proved increasingly popular for eco-friendly personal care packaging, but now researchers are investigating ways to enhance potato starch for this purpose.
Corn starch has long been the preferred base for this kind of plastic because the crop can be harvested in large quantities on a global basis. Likewise, the technologies for milling it and processing it in to corn starch are highly developed and readily available.
However, a new research initiative by the Canadian government aims to develop improved means of processing potato starch for this purpose, as well as four other key areas.
A Federally-funded network, led by Agriculture and Agri-food Canada will rely on scientists from both government and academia on the area of potato starch bioplastics, together with projects to develop biopesticides, healthier potato varieties, pharmaceutical extracts and new extraction methods.
Getting down to the bottom of potato starch
The researchers will examine every aspect of potato starch, from its molecular properties, all the way through to the final bioplastic product.
The CAD$5.3m project aims to give Canadian potato farmers a boost, while also serving key industries and market growth areas.
ON-DEMAND WEBINAR
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Key to the bioplastics area of the project will be research into the development of new potato varieties with enhanced starch properties, crucial to the production of industrial starch suitable for bioplastics.
Enhancing potato starch processing
Currently industrial potato starch is produced from a patented process which converts it into a plastic-like resin that can be blow molded into a variety of different packaging, including bottles for products like shampoo and body lotion, cream pots and make-up casing.
The process involved in producing the resin is said to be more efficient than that for standard plastics and crucially avoids petrochemicals while also increasing the ability to recycle the packaging, hitting all the right eco-friendly buttons.
However, the Canadian researchers believe that further research will enable them to improve the processing of potato starch for bioplastics, helping to increase its applications, improve water resistance, stronger mechanical properties and greater processing capabilities.
Publication date: 9/10/2009
Author: Nichola Watson
Copyright: www.freshplaza.com
The company Flevostar from Dronten, Holland announced that the shelf life of potatoes can be extended by at least 50% by using bioplastic packaging. Spokesman Jaap Kodde says that according to their research it takes considerably longer before potatoes turn green when using the recycled bioplastic because the packaging filters specific wavelengths of light.
"We have as a company started with the application of bioplastics because we want to stand out for our quality and are very keen to conserve the environment. After we solved the initial problems, it was surprising to find that the potatoes had a much longer shelf life with no adverse effect on the quality," said Jaap Kodde, director and owner of Flevostar. "We also found that by using bioplastic no condensation formed inside the packaging because the packaging 'breathes'. Droplets of water which come into contact with a fresh product such as potatoes lead to faster rotting and reduction in quality."
The recycled bioplastics are based on corn which lessens the reliance on oil and above all reduces the creation of greenhouse gas CO². The package can converted into biogas, compost or burnt.
Research aims to boost bioplastics from potatoes
02-Sep-2009
Related topics: Green packaging, Packaging & Design, Packaging
Corn starch-based Bioplastics have proved increasingly popular for eco-friendly personal care packaging, but now researchers are investigating ways to enhance potato starch for this purpose.
Corn starch has long been the preferred base for this kind of plastic because the crop can be harvested in large quantities on a global basis. Likewise, the technologies for milling it and processing it in to corn starch are highly developed and readily available.
However, a new research initiative by the Canadian government aims to develop improved means of processing potato starch for this purpose, as well as four other key areas.
A Federally-funded network, led by Agriculture and Agri-food Canada will rely on scientists from both government and academia on the area of potato starch bioplastics, together with projects to develop biopesticides, healthier potato varieties, pharmaceutical extracts and new extraction methods.
Getting down to the bottom of potato starch
The researchers will examine every aspect of potato starch, from its molecular properties, all the way through to the final bioplastic product.
The CAD$5.3m project aims to give Canadian potato farmers a boost, while also serving key industries and market growth areas.
ON-DEMAND WEBINAR
Increase your webinar performance with expert tips and advice
Get expert advice and tips from the online marketing solutions team at Decision News Media. After you attend this free web seminar, you will know how to create compelling webinar content, how to sharpen you presentation skills and how to promote your webinars effectively... Click here
Key to the bioplastics area of the project will be research into the development of new potato varieties with enhanced starch properties, crucial to the production of industrial starch suitable for bioplastics.
Enhancing potato starch processing
Currently industrial potato starch is produced from a patented process which converts it into a plastic-like resin that can be blow molded into a variety of different packaging, including bottles for products like shampoo and body lotion, cream pots and make-up casing.
The process involved in producing the resin is said to be more efficient than that for standard plastics and crucially avoids petrochemicals while also increasing the ability to recycle the packaging, hitting all the right eco-friendly buttons.
However, the Canadian researchers believe that further research will enable them to improve the processing of potato starch for bioplastics, helping to increase its applications, improve water resistance, stronger mechanical properties and greater processing capabilities.
German ‘action plan’ will promote bioplastics
REF: www.europeanplasticsnews.com
By Charlotte Eyre
Posted 10 September 2009 9:54 am GMT
A new action plan intended to encourage the use of renewable raw materials in industrial applications in Germany could help boost the country’s bioplastics business, according to Berlin-based trade association European Bioplastics.
The plan, announced by the German Federal government earlier this week, ties in with its intentions - announced last year - to integrate the use of renewable resources into a wider biomass strategy.
The plan of action introduced by Federal Minister of Food, Agriculture and Consumer Protection, Ilse Aigner, is intended to increase utilisation efficiency and to secure a leading position for Germany on an international level.
European Bioplastics secretary general, Harald Kaeb, said that although the German government has not yet announced firm details behind the plans, bioplastics companies in the country may benefit from a greater level of government aid and there may be incentives for those willing to invest in this area.
“The high-added value of bioplastics is important for the country’s competitiveness,” he told European Plastics News. “We should also remember that even though other countries such as the UK and France have talked about this area, Germany is one of the first countries to draw up an action plan of this nature.”
However, European Bioplastics said Germany must engage in “fast and courageous implementation of the plan into precise measures”.
Kaeb said: “Informing the public would be a good start. After all, consumers are not yet completely aware of the possibilities and advantages of industrial products made of renewable raw materials.”
The German Federal government will release details of the action plan later this week.
By Charlotte Eyre
Posted 10 September 2009 9:54 am GMT
A new action plan intended to encourage the use of renewable raw materials in industrial applications in Germany could help boost the country’s bioplastics business, according to Berlin-based trade association European Bioplastics.
The plan, announced by the German Federal government earlier this week, ties in with its intentions - announced last year - to integrate the use of renewable resources into a wider biomass strategy.
The plan of action introduced by Federal Minister of Food, Agriculture and Consumer Protection, Ilse Aigner, is intended to increase utilisation efficiency and to secure a leading position for Germany on an international level.
European Bioplastics secretary general, Harald Kaeb, said that although the German government has not yet announced firm details behind the plans, bioplastics companies in the country may benefit from a greater level of government aid and there may be incentives for those willing to invest in this area.
“The high-added value of bioplastics is important for the country’s competitiveness,” he told European Plastics News. “We should also remember that even though other countries such as the UK and France have talked about this area, Germany is one of the first countries to draw up an action plan of this nature.”
However, European Bioplastics said Germany must engage in “fast and courageous implementation of the plan into precise measures”.
Kaeb said: “Informing the public would be a good start. After all, consumers are not yet completely aware of the possibilities and advantages of industrial products made of renewable raw materials.”
The German Federal government will release details of the action plan later this week.
RTP adds bioplastics to its product range
http://www.reinforcedplastics.com/
09 September 2009
Thermoplastic compounder RTP Company is introducing a line of bioplastic compounds that use resins derived from renewable resources.
RTP Company's bioplastic compounds contain 20-80% bio-content by weight.
Initial bioplastic compounds based on polyamide, polyester, and polylactic acid (PLA) are available in grades providing conductive, flame retardant, structural, and wear resistant properties.
Research into additional formulations continues along with development of custom materials to meet specific end-use requirements.
Prospective applications for bioplastic compounds include automotive interior and industrial components, semi-durable consumer goods, and housings and enclosures for electronics or business equipment.
Bioplastic polyamide and polyester-based compounds are available with glass fibre reinforcement, antistatic protection, halogen-free flame retardant, and PTFE lubrication. Polylactic acid (PLA) grades are combined with PC, PMMA or ABS in hybrid formulations that increase mechanical performance and offer antistatic, flame retardant, and structural properties.
"Bioplastic compounds, utilising components derived from rapidly renewable resources instead of petroleum, are the latest element of an RTP Company initiative to develop greener products to meet diverse industry requirements," says Andy Lamberson, Corporate Development Manager at RTP Company. "The use of bioplastic compounds lessens dependence on non-renewable resources, they also have a lower carbon footprint, their manufacture emits less carbon dioxide and requires less energy, making them more environmentally-favorable than traditional plastics."
"Bioplastic compounds join RTP Company's other materials, such as halogen-free flame retardant and recycled post-consumer content grades, which help processors and OEMs meet their goals and consumer demands for manufacturing more environmentally-conscious products," said Lamberson.
RTP Company, headquartered in Winona, Minnesota, USA, is a compounder of custom engineered thermoplastics. The company has 10 manufacturing plants on three continents.
http://www.plastemart.com/
New line of engineered bioplastic specialty compounds from bioplastics (11-9-2009)
A comprehensive line of engineered bioplastic specialty compounds that utilize resins derived from rapidly renewable resources has been introduced by RTP Company. These bioplastic compounds contain 20-80% bio-content by weight and were developed to meet marketplace requests for alternative "green" materials. Initially, bioplastic compounds based on polyamide, polyester, and polylactic acid (PLA) are available in grades providing conductive, flame retardant, structural, and wear resistant value-added properties. Prospective applications for bioplastic compounds include automotive interior and industrial components, semi-durable consumer goods, and housings and enclosures for electronics or business equipment.
Bioplastic polyamide- and polyester-based compounds are available with glass fiber reinforcement, antistatic protection, halogen-free flame retardant, and PTFE lubrication. Polylactic acid (PLA) grades are combined with PC, PMMA, or ABS in hybrid formulations that increase mechanical performance and offer antistatic, flame retardant, and structural properties. A 32% bio-content PLA/PC alloy has a notched IZOD impact strength of 15 ft-lbs/in (800 J/m), and a 40% bio-content PLA/PMMA alloy is optically clear. All current bioplastic grades are fully colorable to standard and custom matched colors.
09 September 2009
Thermoplastic compounder RTP Company is introducing a line of bioplastic compounds that use resins derived from renewable resources.
RTP Company's bioplastic compounds contain 20-80% bio-content by weight.
Initial bioplastic compounds based on polyamide, polyester, and polylactic acid (PLA) are available in grades providing conductive, flame retardant, structural, and wear resistant properties.
Research into additional formulations continues along with development of custom materials to meet specific end-use requirements.
Prospective applications for bioplastic compounds include automotive interior and industrial components, semi-durable consumer goods, and housings and enclosures for electronics or business equipment.
Bioplastic polyamide and polyester-based compounds are available with glass fibre reinforcement, antistatic protection, halogen-free flame retardant, and PTFE lubrication. Polylactic acid (PLA) grades are combined with PC, PMMA or ABS in hybrid formulations that increase mechanical performance and offer antistatic, flame retardant, and structural properties.
"Bioplastic compounds, utilising components derived from rapidly renewable resources instead of petroleum, are the latest element of an RTP Company initiative to develop greener products to meet diverse industry requirements," says Andy Lamberson, Corporate Development Manager at RTP Company. "The use of bioplastic compounds lessens dependence on non-renewable resources, they also have a lower carbon footprint, their manufacture emits less carbon dioxide and requires less energy, making them more environmentally-favorable than traditional plastics."
"Bioplastic compounds join RTP Company's other materials, such as halogen-free flame retardant and recycled post-consumer content grades, which help processors and OEMs meet their goals and consumer demands for manufacturing more environmentally-conscious products," said Lamberson.
RTP Company, headquartered in Winona, Minnesota, USA, is a compounder of custom engineered thermoplastics. The company has 10 manufacturing plants on three continents.
http://www.plastemart.com/
New line of engineered bioplastic specialty compounds from bioplastics (11-9-2009)
A comprehensive line of engineered bioplastic specialty compounds that utilize resins derived from rapidly renewable resources has been introduced by RTP Company. These bioplastic compounds contain 20-80% bio-content by weight and were developed to meet marketplace requests for alternative "green" materials. Initially, bioplastic compounds based on polyamide, polyester, and polylactic acid (PLA) are available in grades providing conductive, flame retardant, structural, and wear resistant value-added properties. Prospective applications for bioplastic compounds include automotive interior and industrial components, semi-durable consumer goods, and housings and enclosures for electronics or business equipment.
Bioplastic polyamide- and polyester-based compounds are available with glass fiber reinforcement, antistatic protection, halogen-free flame retardant, and PTFE lubrication. Polylactic acid (PLA) grades are combined with PC, PMMA, or ABS in hybrid formulations that increase mechanical performance and offer antistatic, flame retardant, and structural properties. A 32% bio-content PLA/PC alloy has a notched IZOD impact strength of 15 ft-lbs/in (800 J/m), and a 40% bio-content PLA/PMMA alloy is optically clear. All current bioplastic grades are fully colorable to standard and custom matched colors.
Teijin claims first for bioplastic spectacles
By Charlotte Eyre
Posted 4 September 2009 10:18 am GMT
http://www.europeanplasticsnews.com/subscriber/index.html
A new Japanese range of spectacles are said to be the world’s first to have all the plastic frame parts made out of a plant-based bioplastic, according to plastics manufacturer and co-developer Teijin.
The spectacles, developed in collaboration with Japan-based manufacturer Tanaka, are made of BioFront resin. Biofront is based on a modified polylactic acid, a plant-based material typically derived from corn or sugar cane
Teijin says BioFront is an ideal material for glasses as it is very heat resistant – it has a melting point of 210°C – while its natural antibacterial properties help avoid rashes developing around the nose and eyes.
Teijin is Japan-based firm whose product portfolio includes synthetic fibres, films and plastics. Earlier this year, the company pulled out of its PLA bioplastics joint venture with Natureworks, saying it wanted instead to focus on developing its own BioFront resins.
The company plans to produce more than 5,000 tonnes of BioFront in 2010.
Posted 4 September 2009 10:18 am GMT
http://www.europeanplasticsnews.com/subscriber/index.html
A new Japanese range of spectacles are said to be the world’s first to have all the plastic frame parts made out of a plant-based bioplastic, according to plastics manufacturer and co-developer Teijin.
The spectacles, developed in collaboration with Japan-based manufacturer Tanaka, are made of BioFront resin. Biofront is based on a modified polylactic acid, a plant-based material typically derived from corn or sugar cane
Teijin says BioFront is an ideal material for glasses as it is very heat resistant – it has a melting point of 210°C – while its natural antibacterial properties help avoid rashes developing around the nose and eyes.
Teijin is Japan-based firm whose product portfolio includes synthetic fibres, films and plastics. Earlier this year, the company pulled out of its PLA bioplastics joint venture with Natureworks, saying it wanted instead to focus on developing its own BioFront resins.
The company plans to produce more than 5,000 tonnes of BioFront in 2010.
2009年7月28日
Arkema unveils Rilsan® HT designed to replace metal
Ref: http://www.yourmetalnews.com
Monday, Jul 20, 2009
Launched in March 2009, Rilsan® HT for extrusion is the first flexible high-temperature thermoplastic to replace metal in high-temperature applications. Today, Arkema unveils Rilsan® HT injection resins. The Rilsan® HT range is now the first complete polyphtalamide (PPA)-based product line suitable for all process technologies, ranging from extrusion to blow or injection molding. Rilsan® HT resins are up to 70% bio-based and match the increasing environmental commitment of many industries.
PPA-based injection resins in automotive applications have increasingly replaced metal parts as a way to optimize costs, reduce emissions and weight, improve fuel economy and extend car life. Until now, PPA-based injection resins were more difficult and costly to process when compared to aliphatic high-performance polyamides.
Rilsan® HT offers easy processing and cost-efficient manufacturing
Rilsan® HT is the only PPA-based injection resin that offers processing characteristics similar to those of aliphatic high-performance polyamides. With mold temperatures close to those of PA12 and PA11, Rilsan® HT can be easily processed on standard injection-molding equipment using conventional water-cooled temperature control. Moreover, Rilsan® HT can be processed in injection molds designed for PA12 and PA11 thanks to similar mold shrinkage properties.
Unlike conventional PPA-based resins, Rilsan® HT has very low moisture uptake, which provides multiple benefits in manufacture and applications. Low moisture pickup means that Rilsan® HT resin is easily stored and requires no supplemental steps before processing. Low moisture absorption makes the resin easy to process and handle, and imparts reliable uniformity to the finished parts’ properties, which avoids further downstream processing and limits waste. The finished parts exhibit excellent dimensional stability.
Rilsan® HT builds its own class among the PPA polymers
Rilsan® HT injection grades have exceptional ductility not found in typical semi-aromatic injection resins. Thus Rilsan® HT resins deliver a designer-friendly balance of toughness, strength and elongation and reduce the risk of failures that can occur with brittle plastics, such as conventional PPA-based injection materials or PPS.
Conductivity combined with ductility make Rilsan® HT the first conductive PPA-based injection resin that perfectly balances high temperature resistance and excellent mechanical properties with conductivity – making it well suited for fuel system applications where conductivity is specifically required, as it is in the North American market.
Furthermore, Rilsan® HT is the only PPA-based injection resin that can be easily spin-welded with aliphatic high performance polyamides, a completely new processing feature for this material group. This offers further component integration and addresses the enhanced safety and emission standards of pipe connections in fuel-conducting systems.
Rilsan® HT injection grades - glass-fiber reinforced or formulated for conductivity - are ideally suited for metal replacement in fuel system applications requiring low permeation, low swelling and high thermal resistance. And the suitability of the injection grade for quick-connectors and other temperature resistant parts extends to powertrain components including those integrated with Rilsan® HT flexible tubing.
Rilsan® HT allows you to benefit from renewable materials
Largely derived from renewable non-food-crop vegetable feedstock, Rilsan® HT is a durable high-temperature thermoplastic containing up to 70% renewable carbon. Rilsan® HT offers a significant reduction in CO2 emissions compared to conventional petroleum-based high-temperature plastics, a reduced dependence on oil resources and a perfect fit with the eco-design concepts of many vehicle manufacturers.
With global brands like Rilsan® and Pebax®, unique products from renewable resources like Rilsan® Polyamide 11, Rilsan® HT, Pebax® Rnew and Platamid® Rnew, and leading capacities in Rilsan® Polyamide 11 and 12, Arkema’s Technical Polymers activity stands out in the industry by providing its customers with global coverage and superior regional service from production facilities and research centers in Europe, Asia, and the USA. Arkema has more than 30 years of experience and innovation serving the Automotive Industry, offering a wide range of advanced materials designed to match current and future specifications. Arkema’s Technical Polymers business is the acknowledged leader in bio-based high performance polyamides such as renowned Rilsan® Polyamide 11.
A global chemical company and France’s leading chemicals producer, Arkema consists of three businesses: Vinyl Products, Industrial Chemicals, and Performance Products. Arkema reported sales of 5.6 billion euros in 2007. Arkema has 15,000 employees in over 40 countries and six research centers located in France, the United States and Japan. With internationally recognized brands, Arkema holds leadership positions in its principal markets.
Monday, Jul 20, 2009
Launched in March 2009, Rilsan® HT for extrusion is the first flexible high-temperature thermoplastic to replace metal in high-temperature applications. Today, Arkema unveils Rilsan® HT injection resins. The Rilsan® HT range is now the first complete polyphtalamide (PPA)-based product line suitable for all process technologies, ranging from extrusion to blow or injection molding. Rilsan® HT resins are up to 70% bio-based and match the increasing environmental commitment of many industries.
PPA-based injection resins in automotive applications have increasingly replaced metal parts as a way to optimize costs, reduce emissions and weight, improve fuel economy and extend car life. Until now, PPA-based injection resins were more difficult and costly to process when compared to aliphatic high-performance polyamides.
Rilsan® HT offers easy processing and cost-efficient manufacturing
Rilsan® HT is the only PPA-based injection resin that offers processing characteristics similar to those of aliphatic high-performance polyamides. With mold temperatures close to those of PA12 and PA11, Rilsan® HT can be easily processed on standard injection-molding equipment using conventional water-cooled temperature control. Moreover, Rilsan® HT can be processed in injection molds designed for PA12 and PA11 thanks to similar mold shrinkage properties.
Unlike conventional PPA-based resins, Rilsan® HT has very low moisture uptake, which provides multiple benefits in manufacture and applications. Low moisture pickup means that Rilsan® HT resin is easily stored and requires no supplemental steps before processing. Low moisture absorption makes the resin easy to process and handle, and imparts reliable uniformity to the finished parts’ properties, which avoids further downstream processing and limits waste. The finished parts exhibit excellent dimensional stability.
Rilsan® HT builds its own class among the PPA polymers
Rilsan® HT injection grades have exceptional ductility not found in typical semi-aromatic injection resins. Thus Rilsan® HT resins deliver a designer-friendly balance of toughness, strength and elongation and reduce the risk of failures that can occur with brittle plastics, such as conventional PPA-based injection materials or PPS.
Conductivity combined with ductility make Rilsan® HT the first conductive PPA-based injection resin that perfectly balances high temperature resistance and excellent mechanical properties with conductivity – making it well suited for fuel system applications where conductivity is specifically required, as it is in the North American market.
Furthermore, Rilsan® HT is the only PPA-based injection resin that can be easily spin-welded with aliphatic high performance polyamides, a completely new processing feature for this material group. This offers further component integration and addresses the enhanced safety and emission standards of pipe connections in fuel-conducting systems.
Rilsan® HT injection grades - glass-fiber reinforced or formulated for conductivity - are ideally suited for metal replacement in fuel system applications requiring low permeation, low swelling and high thermal resistance. And the suitability of the injection grade for quick-connectors and other temperature resistant parts extends to powertrain components including those integrated with Rilsan® HT flexible tubing.
Rilsan® HT allows you to benefit from renewable materials
Largely derived from renewable non-food-crop vegetable feedstock, Rilsan® HT is a durable high-temperature thermoplastic containing up to 70% renewable carbon. Rilsan® HT offers a significant reduction in CO2 emissions compared to conventional petroleum-based high-temperature plastics, a reduced dependence on oil resources and a perfect fit with the eco-design concepts of many vehicle manufacturers.
With global brands like Rilsan® and Pebax®, unique products from renewable resources like Rilsan® Polyamide 11, Rilsan® HT, Pebax® Rnew and Platamid® Rnew, and leading capacities in Rilsan® Polyamide 11 and 12, Arkema’s Technical Polymers activity stands out in the industry by providing its customers with global coverage and superior regional service from production facilities and research centers in Europe, Asia, and the USA. Arkema has more than 30 years of experience and innovation serving the Automotive Industry, offering a wide range of advanced materials designed to match current and future specifications. Arkema’s Technical Polymers business is the acknowledged leader in bio-based high performance polyamides such as renowned Rilsan® Polyamide 11.
A global chemical company and France’s leading chemicals producer, Arkema consists of three businesses: Vinyl Products, Industrial Chemicals, and Performance Products. Arkema reported sales of 5.6 billion euros in 2007. Arkema has 15,000 employees in over 40 countries and six research centers located in France, the United States and Japan. With internationally recognized brands, Arkema holds leadership positions in its principal markets.
2009年7月13日
Some new bio-based polyamides
REF: http://biopol.free.fr/
Evonik Industries AG (Germany) has added a group of bio-based polyamides to its VESTAMID® family. The polymers, sold under the VESTAMID® Terra brand name, are based on monomers produced partly or entirely from fatty acids.
The most important source is currently castor oil, obtained from the seed of the castor oil plant, which is not used as food or animal feed, so its cultivation does not compete with that of food crops. Evonik is also forging ahead with the development of further polyamides from renewables based on palm kernel and rapeseed oils.
VESTAMID® Terra molding compounds are semicrystalline and therefore distinguished by high mechanical strength and good resistance to chemicals and stress cracking. They are also said to have high to very high heat deflection temperatures and a low absorption capacity for water, so that the good mechanical properties are retained even at high humidity.
VESTAMID® Terra DS has yet another advantage over other polyamides: Despite its crystallinity it is translucent and can therefore be processed into components with good contact transparency.
Evonik currently offers two new castor oil-based polyamides. VESTAMID® Terra DS is a 100% bio-based polyamide 1010. Its property profile bridges the gap between high-performance long-chain polyamides such as PA 12 and PA 1212 and the shorter chain standard polyamides PA 6 and PA 66.
VESTAMID® Terra HS is a polyamide 610 that contains approximately 60% renewable raw materials. From a technical viewpoint, this variant occupies a position between the high-performance polyamide 612 and the standard polyamides PA 6 and PA 66.
Evonik Industries AG (Germany) has added a group of bio-based polyamides to its VESTAMID® family. The polymers, sold under the VESTAMID® Terra brand name, are based on monomers produced partly or entirely from fatty acids.
The most important source is currently castor oil, obtained from the seed of the castor oil plant, which is not used as food or animal feed, so its cultivation does not compete with that of food crops. Evonik is also forging ahead with the development of further polyamides from renewables based on palm kernel and rapeseed oils.
VESTAMID® Terra molding compounds are semicrystalline and therefore distinguished by high mechanical strength and good resistance to chemicals and stress cracking. They are also said to have high to very high heat deflection temperatures and a low absorption capacity for water, so that the good mechanical properties are retained even at high humidity.
VESTAMID® Terra DS has yet another advantage over other polyamides: Despite its crystallinity it is translucent and can therefore be processed into components with good contact transparency.
Evonik currently offers two new castor oil-based polyamides. VESTAMID® Terra DS is a 100% bio-based polyamide 1010. Its property profile bridges the gap between high-performance long-chain polyamides such as PA 12 and PA 1212 and the shorter chain standard polyamides PA 6 and PA 66.
VESTAMID® Terra HS is a polyamide 610 that contains approximately 60% renewable raw materials. From a technical viewpoint, this variant occupies a position between the high-performance polyamide 612 and the standard polyamides PA 6 and PA 66.
2009年7月12日
BASF promotes biodegradable bag project in Thailand
Ref: http://www.europeanplasticsnews.com
By Gurdip Singh Posted 8 July 2009 8:45 am GMT
BASF is leading a pilot project to encourage consumers to use biodegradable bags for waste and compost in Thailand.
The pilot project, which will run from July to December in the Samut Songkhram Province, is aimed at encouraging consumers to use biodegradable bags to collect household organic waste and produce high-quality compost that will serve as organic fertilizer for the purpose of soil improvement.
BASF has joined Thailand’s National Innovation Agency (NIA), Deutsche Gesellschaft für Technische Zusammenarbeit (GTZ or German Technical Cooperation) and the Thai Bioplastics Industry Association (TBIA).
“Biodegradable plastics present an important contribution to efficient biowaste management. Additionally, as a secondary raw material post-composting, it can also be used to provide an economical and ecologically viable utilization possibility — fertilizer in this case,” said NIA director Supachai Lorlowhakarn.
NIA has a plan to develop the bioplastics industry in Thailand, which was approved by the cabinet on 22 July 2008.
For the production of the biodegradable bags, TBIA will compound starch with BASF’s Ecoflex resin, a biodegradable, compostable polyester.
“Thailand has an abundant supply of renewable resources, such as tapioca for the production of starch. As such, starch will be an important raw material for the bioplastic industry development in Thailand. The pilot project is another step to build up the domestic market and elaborate on the application of bioplastics for the entire life cycle,” said TBIA chairman Somsak Borrisutthanakul.
The pilot project was launched in conjunction with the BioPlastics Asia 2009 forum, held 11-12 June in Bangkok.
By Gurdip Singh Posted 8 July 2009 8:45 am GMT
BASF is leading a pilot project to encourage consumers to use biodegradable bags for waste and compost in Thailand.
The pilot project, which will run from July to December in the Samut Songkhram Province, is aimed at encouraging consumers to use biodegradable bags to collect household organic waste and produce high-quality compost that will serve as organic fertilizer for the purpose of soil improvement.
BASF has joined Thailand’s National Innovation Agency (NIA), Deutsche Gesellschaft für Technische Zusammenarbeit (GTZ or German Technical Cooperation) and the Thai Bioplastics Industry Association (TBIA).
“Biodegradable plastics present an important contribution to efficient biowaste management. Additionally, as a secondary raw material post-composting, it can also be used to provide an economical and ecologically viable utilization possibility — fertilizer in this case,” said NIA director Supachai Lorlowhakarn.
NIA has a plan to develop the bioplastics industry in Thailand, which was approved by the cabinet on 22 July 2008.
For the production of the biodegradable bags, TBIA will compound starch with BASF’s Ecoflex resin, a biodegradable, compostable polyester.
“Thailand has an abundant supply of renewable resources, such as tapioca for the production of starch. As such, starch will be an important raw material for the bioplastic industry development in Thailand. The pilot project is another step to build up the domestic market and elaborate on the application of bioplastics for the entire life cycle,” said TBIA chairman Somsak Borrisutthanakul.
The pilot project was launched in conjunction with the BioPlastics Asia 2009 forum, held 11-12 June in Bangkok.
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