Abstract: A method for managing electrical power to a server or server system is used in a power management system. The power management system comprises a power module, a backup power module, and a server system, the method comprises setting the server system to operate under a first working mode and controlling initialization of a BMC by an initialization command. A specified pin of the BMC is measured for a logic low voltage level and the server system is set to operate under a second working mode if the specified pin of the BMC is at the logic low voltage level. In different modes, the manner of supplying power and the working parameters of the server system are adjusted.

Abstract: A method for managing electrical power to a server or server system is used in a power management system. The power management system comprises a power module, a backup power module, and a server system, the method comprises setting the server system to operate under a first working mode and controlling initialization of a BMC by an initialization command. A specified pin of the BMC is measured for a logic low voltage level and the server system is set to operate under a second working mode if the specified pin of the BMC is at the logic low voltage level. In different modes, the manner of supplying power and the working parameters of the server system are adjusted.

Abstract: A molded container for a tissue scaffold is provided. The molded container comprises a bag made from a soft material, a shape memory frame, and an inner support tube. A sealing part is disposed on the opening of the bag, and an operation window is disposed on the lower part of the bag. The sealing part is closed when no external force is applied. The shape memory frame is embedded in the bag. At least two adjustable hooks are disposed on the ends of the shape memory frame. The inner support tube is disposed on the inner bottom of the bag and selectively penetrates a molded accommodation volume for forming a tissue scaffold. The length of the inner support tube is more than the length of the molded accommodation volume. Therefore, the molded container for a tissue scaffold has features of portability, adjustability, sterility, convenience, and stability.

Abstract: Disclosed herein is a method of producing a decellularized bioscaffold from an organ or a vessel covered by a lining tissue. The method comprises subjecting the organ or the vessel to a digestion buffer thereby removing the lining tissue from the tissue or organ; and then treating the tissue or organ with a decellularization buffer. The present decellularized bioscaffold is useful in promoting tissue regeneration and/or remodeling.

Abstract: A molded container for a tissue scaffold is provided. The molded container comprises a bag made from a soft material, a shape memory frame, and an inner support tube. A sealing part is disposed on the opening of the bag, and an operation window is disposed on the lower part of the bag. The sealing part is closed when no external force is applied. The shape memory frame is embedded in the bag. At least two adjustable hooks are disposed on the ends of the shape memory frame. The inner support tube is disposed on the inner bottom of the bag and selectively penetrates a molded accommodation volume for forming a tissue scaffold. The length of the inner support tube is more than the length of the molded accommodation volume. Therefore, the molded container for a tissue scaffold has features of portability, adjustability, sterility, convenience, and stability.

Abstract: A tube fitting includes a multi-way tube member and a coupler. The multi-way tube member includes three interconnected tube-connecting segments, one of which has two locking portions disposed at a distal end thereof. The coupler includes a cap section covering one of the tube-connecting segments having the locking portions, two resilient retaining portions snapped respectively to the locking portions, a guide tube section extending from the cap section into the one of the tube-connecting segments, and a connecting tube section extending from the cap section in a direction away from the guide tube section for connection with an additional coupler. A curable filler can be filled among the multi-way tube member, the coupler, and a tube for fixing the tube within the multi-way tube member.

Abstract: A system for producing a tissue-engineered material includes a hollow member and a mechanical stimulating unit. The hollow member is adapted to be implanted in a peritoneal cavity, and is to be positioned in the peritoneal cavity in a manner that a part of the hollow member contacts an inner wall surface of the peritoneal cavity for enabling formation of a biological tissue that encapsulates the hollow member. The mechanical stimulation unit is coupled to the hollow member and configured to provide a periodic mechanical stimulus to the biological tissue by periodically causing the hollow member to expand and contract. A method for producing the aforesaid tissue-engineered material is also disclosed.

Abstract: A system for producing a tissue-engineered material includes a hollow member and a mechanical stimulating unit. The hollow member is adapted to be implanted in a peritoneal cavity, and is to be positioned in the peritoneal cavity in a manner that a part of the hollow member contacts an inner wall surface of the peritoneal cavity for enabling formation of a biological tissue that encapsulates the hollow member. The mechanical stimulation unit is coupled to the hollow member and configured to provide a periodic mechanical stimulus to the biological tissue by periodically causing the hollow member to expand and contract. A method for producing the aforesaid tissue-engineered material is also disclosed.

Abstract: An electronic device includes a receiving bracket and two electronic modules. The receiving bracket includes a partition plate to divide the receiving bracket into a first receiving space and a second receiving space. Each of the first receiving space and second receiving space includes an outlet located at an end of the receiving bracket. The partition plate defines a through slot. A stop plate is pivotably connected to an end of the through slot near the outlets. Two resilient tabs are formed on opposite sides of the stop plate, and respectively face the first receiving space and second receiving space. The electronic modules are received in the first receiving space and second receiving space, and deform the resilient tabs.

Abstract: An electronic device includes a receiving bracket and two electronic modules. The receiving bracket includes a partition plate to divide the receiving bracket into a first receiving space and a second receiving space. Each of the first receiving space and second receiving space includes an outlet located at an end of the receiving bracket. The partition plate defines a through slot. A stop plate is pivotably connected to an end of the through slot near the outlets. Two resilient tabs are formed on opposite sides of the stop plate, and respectively face the first receiving space and second receiving space. The electronic modules are received in the first receiving space and second receiving space, and deform the resilient tabs.

Abstract: A tube fitting includes a multi-way tube member and a coupler. The multi-way tube member includes three interconnected tube-connecting segments, one of which has two locking portions disposed at a distal end thereof. The coupler includes a cap section covering one of the tube-connecting segments having the locking portions, two resilient retaining portions snapped respectively to the locking portions, a guide tube section extending from the cap section into the one of the tube-connecting segments, and a connecting tube section extending from the cap section in a direction away from the guide tube section for connection with an additional coupler. A curable filler can be filled among the multi-way tube member, the coupler, and a tube for fixing the tube within the multi-way tube member.

Abstract: A system for producing a tissue-engineered material includes a hollow member and a mechanical stimulating unit. The hollow member is adapted to be implanted in a peritoneal cavity, and is to be positioned in the peritoneal cavity in a manner that a part of the hollow member contacts an inner wall surface of the peritoneal cavity for enabling formation of a biological tissue that encapsulates the hollow member. The mechanical stimulation unit is coupled to the hollow member and configured to provide a periodic mechanical stimulus to the biological tissue by periodically causing the hollow member to expand and contract. A method for producing the aforesaid tissue-engineered material is also disclosed.

Abstract: A lace winding device includes a base, a spool rotatably mounted in the base, a lace having two distal ends each extending through the base and each secured on the spool, a limit barrel mounted on the base, a drive member rotatably mounted in the limit barrel and connected with the spool to rotate the spool, and a ratchet block movably mounted on the limit barrel and engaging the drive member. Thus, the drive member is rotated in one direction only by limit of the ratchet block so that the spool is driven by the drive member to rotate in the positive direction only and cannot be rotated in the opposite direction so as to wind the lace easily and quickly.

Abstract: A lace winding device includes a base, a spool rotatably mounted in the base, a lace having two distal ends each extending through the base and each secured on the spool, a limit barrel mounted on the base, a drive member rotatably mounted in the limit barrel and connected with the spool to rotate the spool, and a ratchet block movably mounted on the limit barrel and engaging the drive member.