Abstract: Methods and systems for separating a 3D liver object are disclosed. A 3D liver object and selected associated vascular and other anatomic structures are displayed in a 3D space which is rendered on a 2D display screen. One or more 3D separating surfaces are placed in the 3D space based on anatomic structural landmarks that are segmented automatically or interactively, where each of the 3D separating surfaces intersects with the 3D liver object at a corresponding 3D pose. The 3D liver object into at least two sub-segments based on the 3D separating surfaces, which can be individually and independently adjusted directly in the 3D space, in real-time, and interactively by a user based on 3D and/or 2D information related to the 3D liver object, and the selected associated vascular and other anatomic structures.

Abstract: A computer having a mounting structure can be easily mounted to a wall. A bracket of the computer can receive a computer enclosure of the computer and easily mount a display and the computer enclosure of the computer to the wall.

Abstract: A system to provide enhanced computational efficiency in a simulation of particle transport through a medium, program product, and related methods are provided. The system can include a simulation data administrator server having access to an interaction database including records related to parameters describing interactions of particles in an absorbing medium to provide particle interaction parameters, and a simulated dose calculation computer in communication with the simulation data administrator server through a communications network.

Abstract: A hard disk mounting device includes a receiving portion, a first adapter card, and a second adapter card. The receiving portion includes a bottom plate with a first end and a opposite second end. The first adapter card is attached to the first end of the bottom plate. The first adapter card includes a first connector located at a side of the first adapter card facing away from the second end of the bottom plate. The second adapter card is located at the center of the bottom plate, the second adapter card includes at least one connector e for connecting to a hard disk. The bottom plate includes at least one part for mounting hard disk, each part includes a first fixing mechanism for fixing a hard disk of a first size and a second mechanism for fixing a hard disk of a second size.

Abstract: Methods, systems, and programs for real-time surgical procedure assistance are provided. A first set of 3D poses of the 3D points on the organ may be received. An electronic organ map built for the organ via pre-surgical medical information may be retrieved. A tissue parameter of the organ may be obtained based on the first set of 3D poses and their corresponding 3D poses from the electronic organ map. A deformation transformation of the electronic organ map may be calculated based on the obtained tissue parameter and the first set of 3D poses during the surgical procedure. The deformed electronic organ map may be projected onto the organ with respect to the first set of 3D poses during the surgical procedure.

Abstract: A mounting apparatus includes a shockproof member and a fixing member. The shockproof member includes a first block plate and a sleeve extending from the first block plate. The sleeve defines a first through hole thereon extending through the first block plate. The fixing member includes a second block plate, a mounting post extending from the second block plate to extend through the first through hole, a pin, and a contact post. The mounting post includes two raised portions fixed on the mounting post. Each of the two raised portions defines a pin hole. The contact post defines a second through hole thereon. The contact post is pivotably secured to the mounting post by the pin running through the pin holes and the second through hole.

Abstract: An environmental testing device includes a humidity control module, a temperature control module; and an air circulation module. The air circulation module includes an enclosure and a fan received in the enclosure. Two pairs of airflow openings are defined in the enclosure and form different airflow passages that allow air to flow along different directions in the environmental testing device.

Abstract: A waste heat recycling device includes an air-duct, a fan and a retaining mechanism. The air-duct is connected to a heat air. The fan communicates with the air-duct. The retaining mechanism clasps the air-duct and retains the fan. The retaining mechanism includes a clip and a support ring. An edge of the air-duct is sandwiched between the clip and the support ring.

Abstract: A constant temperature chamber includes a cavity, a first fan, and a second fan. The cavity includes a first side, a second side, a third side, and a fourth side. The first and second sides are oriented towards each other in a first direction. The third and fourth sides are oriented towards each other in a second direction which is different from the first direction. The first side defines a plurality of first vents, the second side defines a plurality of second vents, the third side defines a plurality of third vents, and the fourth side defines a plurality of fourth vents. The first fan includes a first air inlet and a first air outlet. The first air inlet is in communication with one of the first or second vents. The first air outlet is in communication with the other one of first or second vents. The second fan includes a second air inlet and a second air outlet. The second air inlet is in communication with one of the third or fourth vents.

Abstract: A temperature and humidity control chamber includes a housing defining a receiving chamber, a support frame received in the receiving chamber, four elevating members supporting the support frame, four driving assemblies mounted on the housing, and a controller operable to control the driving assemblies. The four elevating members are capable of moving the support frame from a first vertical position to a second vertical position.

Abstract: The present invention relates to a process of using a heat responsive mixture to produce inorganic interconnected 3D open-cell bone substitutes which can be applied in the orthopedic or dental field for treatment of bone damage. The invention provides a simple and easily-controlled process of preparing porous inorganic bone substitute materials.

Abstract: A computer host includes a enclosure, a circuit board, and a cooling assembly. The enclosure includes a first sidewall and a second sidewall opposite to the first sidewall. The first sidewall defines a plurality of vents. The circuit board is received in the enclosure. A central processing unit and at least one memory chip are plugged into corresponding slots of the circuit board. The cooling assembly includes at least one fan and an airflow guide. The at least one fan is positioned adjacent to the second sidewall and is aligned with the vents. Each of the at least one fan defines an outlet. The airflow guide is positioned on the circuit board with the outlet of the fan being sealed with edges defining entrances of the airflow guide.

Abstract: A heat sink assembly dissipates heat of a chip on a circuit board. A temperature collecting module of the heat sink assembly senses temperature of the chip and generates corresponding analog signals. A display module of the heat sink assembly receives the analog signals and converts the analog signals into digital signals, and then displays the digital signals with temperature unit symbol.

Abstract: The invention is directed to a calcium phosphate complex and the composition containing the same for oral care applications, in which the calcium phosphate complex is formed by chelating the ?-polyglutamic acid (?-PGA) with amorphous calcium phosphate (ACP). This complex can prevent crystallization of ACP and maintain its high solubility. The calcium phosphate complex has superior mucoadhesion properties, allowing it to remain in the mouth longer and offering effective buffering, by which dental caries can be alleviated and prevented.

Abstract: A heat dissipation device includes a heat sink and a heat pipe extending through the heat sink. The heat sink includes a plurality of fins overlapped with each other. An air passage channel is defined between every two adjacent fins for an airflow flowing therethrough. Each of the fins defines a through hole therein for extension of the heat pipe. Each of the fins includes a main plate and an air guiding member formed on the main plate. The air guiding member includes a curved bar. The curved bar extends slantwise on the main plate to a back side of the heat pipe for guiding the airflow to the back side of the heat pipe.

Abstract: A display device includes a casing and a screen mounted in the casing. A slot is defined in the casing. An illumination device is received and mounted in the slot.

Abstract: A hard disk mounting device includes a receiving portion, a first adapter card, and a second adapter card. The receiving portion includes a bottom plate with a first end and a opposite second end. The first adapter card is attached to the first end of the bottom plate. The first adapter card includes a first connector located at a side of the first adapter card facing away from the second end of the bottom plate. The second adapter card is located at the center of the bottom plate, the second adapter card includes at least one connector e for connecting to a hard disk. The bottom plate includes at least one part for mounting hard disk, each part includes a first fixing mechanism for fixing a hard disk of a first size and a second mechanism for fixing a hard disk of a second size.

Abstract: A computer includes an enclosure, a motherboard, at least one expansion card, a supporting bracket, and at least one first baffle plate and at least one second baffle plate. The at least one expansion card is inserted into the corresponding expansion slot. The bracket is located above and spaced from the motherboard by a spacing. The at least one first baffle plate and at least one second baffle plate are arranged along an extension direction of the supporting bracket and extending between the bracket and the motherboard. The at least one first baffle plate covers a part of the spacing between the bracket and the motherboard. The at least one second baffle plate covers another part of the spacing between the bracket and the motherboard. The at least one first baffle plate and the at least one second baffle plate define a plurality of through holes therein.

Abstract: A heat dissipating system includes a chassis, a motherboard mounted in the chassis, a number of connectors mounted on the motherboard in parallel to form a passage between every two adjacent connectors, and a heat dissipating element mounted to the chassis and aligned with the passages. Each of the connectors includes a socket and an inserting portion. The socket defines a slot. The inserting portion includes a main body and a protrusion extending from the main body towards the slot. A cross-section of the protrusion is trapezoidal-shaped. A side surface of the protrusion is inclined to form an airflow guiding structure.