Other

Honda Motor Co., Ltd.

Meiji Dairies Corporation

Riken Corporation

Honda Giken Kogyo Kabushiki Kaisha

Meiji Co., Ltd.

Abe, Takashi

Takashi Abe

Koji Iida

Hiroshi Tsuchita

Kazuhisa Fujiwara

Chad Wojniak

Rikiya Suwa

Youhei Mizukami

Yasuko Sawai

Peng Li

Lawrence P Wennogle

Masayuki Uchida

Kojiro Okabe

Hiroshi Matsushima

Takaki Suwa

Tomoyuki Uchi

Tatsuo Marushima

Shigeru Iba

Yousuke Satoh

Hajime Tsunoo

Takae Wakabayashi

Robert Davis

Graham Buckton

Mark Hooper

Hideaki Maruyama

Masahiro Takasuga

Hironori Yamashita

Yuhei Yamamoto

Yasuko c/o Meiji Dairies Coporation Sawai

The mold apparatus () includes: the stationary mold () of the mold main body () that molds the main body part (); the rotary core () that molds the undercut part () and mold releases by rotationally moving in a direction separating from the undercut part (); and the restricting core () that restricts movement of the rotary core () sandwiching between the stationary mold () and rotary core () during molding, and releases restriction of the rotary core () by moving in a direction exiting from between the stationary mold () and rotary core () during mold release of the rotary core () from the undercut part ().

Mold apparatus and resin molding method

A mold for producing a vehicle bumper fascia and methods for releasing the bumper fascia are provided. The mold includes a core mold half having a primary mold core. A first movable mold core is slidingly engaged to the primary mold core. A second movable mold core is slidingly engaged to the first movable mold core. A third movable mold core is slidingly engaged to the second movable mold core. Portions of the primary mold core and the movable mold cores together define cavities for forming the mounting rib, a wing portion, and a wheel well flange of the bumper fascia. Methods of releasing the bumper fascia include the steps of providing the mold, disengaging the movable mold cores from each other and from the primary mold core.

Mold for vehicle bumper fascia and associated molding technique

An amino acid composition comprises alanine, arginine, aspartic acid, glutamic acid, glycine, histidine, isoleucine, leucine, lysine, methionine, phenylalanine, proline, serine, threonine, tryptophan, tyrosine, valine, and glutamine. The amino acid composition of the present invention has such an effect that it can improve the action of promoting the process wherein the body fat is converted into the energy required for the physical exercise during and/or after the anoxic motions performed under an extremely high load.

Amino acid composition and supplementary liquid containing the same

A front grill impact-absorbing structure has a load-transmitting member () which retreats together with a front grill () when a collision force (F) acts on the front grill from the front. By the load-transmitting member retreating together with the front grill, the collision force is transmitted to a water-cooled engine radiator () inside an engine compartment (). In the initial state of the collision, the radiator absorbs the collision force and moderates the collision force.

Front grill impact-absorbing structure for a vehicle

An amino acid-trehalose composition comprising an amino acid composition which comprises proline, alanine, glycine, valine, threonine, leucine, histidine, lysine, isoleucine, arginine, phenylalanine, and tyrosine; and trehalose. The amino acid-trehalose composition has effects of compensating the reduction of the blood level of amino acids associated with severe exercise, of improving the exercise, of reducing the degree of fatigue after exercise and of recovering from fatigue. In addition, the administration of the composition permits the inhibition of the consumption of amino acids associated with exercise and any induction of fatigue accompanied by exercise.

Amino acid-trehalose composition

An amino acid-trehalose composition comprising an amino acid composition which comprises proline, alanine, glycine, valine, threonine, leucine, histidine, lysine, isoleucine, arginine, phenylalanine, tyrosine, and tryptophan; and trehalose. The amino acid-trehalose composition has effects of compensating the reduction of the blood level of amino acids associated with severe exercise, of improving the exercise, of reducing the degree of fatigue after exercise and of recovering from fatigue. In addition, the administration of the composition permits the inhibition of the consumption of amino acids associated with exercise and any induction of fatigue accompanied by exercise.

An amino acid composition comprising the following amino acids at the following molar ratio: proline (12.6 to 23.4), alanine (8.4 to 15.6), glycine (13.3 to 24.9), valine (8.2 to 15.4), threonine (5.0 to 9.4), eucine (4.3 to 8.1), histidine (1.8 to 11.9), serine (1.7 to 3.3), lysine (6.0 to 11.2), isoleucine (3.1 to 5.9), glutamic acid (2.2 to 10.4), arginine (2.4 to 4.6), phenylalanine (2.6 to 5.0), tyrosine (4.2 to 7.8) and trypsin (1.5 to 2.9). The composition supplements blood amino acids reduced during hard exercise and shows effects to improve motor function, to reduce fatigue after exercise and to help recovery from the fatigue.

Amino acid composition

Growing community of inventors

Warabi, Japan

Takashi Abe