Abstract:
A UE in an URA_PCH state or a Cell_PCH state receives a HS-PDSCH without an associated HS-SCCH. No dedicated H-RNTI is assigned to the UE. The received HS-PDSCH is separately processed using one or more different predetermined transport format. The different predetermined transport formats are identified from associated HS-DSCH paging system information block. The UE starts blindly processing the received HS-PDSCH by determining a set of configuration parameters according to a first transport format of the identified predetermined transport formats. One or more associated device components such as hardware components of the UE are configured using the determined set of configuration parameters. The configured device components are used to perform HARQ processing, IR combining and/or Turbo decoding on the received HS_PDSCH without associated HS_SCCH. The UE continuously processes the received HS-PDSCH using the next available predetermined transport format when a CRC test completes with an error.
Abstract:
A UE receives HSDPA traffic comprising legacy HSDPA traffic and HS-SCCH-less HSDPA traffic. The UE concurrently processes the received legacy HSDPA traffic and the received HS-SCCH-less HSDPA traffic. The received HSDPA traffic is concurrently buffered into a first storage and a second storage to support simultaneously receiving legacy HSDPA traffic and HS-SCCH-less HSDPA traffic. A HARQ process is performed on the buffered HSDPA traffic in the first storage or the second storage according to a corresponding HS-SCCH CRC test. The resulting HARQ processed HSDPA traffic is Turbo decoded. Turbo decoding on the previously HARQ processed HSDPA traffic is performed simultaneously with HARQ processing on the buffered HSDPA traffic in the first storage or the second storage. The buffered HS-SCCH-less HSDPA traffic is processed via HARQ processing and Turbo decoding for each of the four pre-determined transport formats.
Abstract:
A UE receives HSDPA traffic comprising legacy HSDPA traffic and HS-SCCH-less HSDPA traffic. The UE concurrently processes the received legacy HSDPA traffic and the received HS-SCCH-less HSDPA traffic. The received HSDPA traffic is concurrently buffered into a first storage and a second storage to support simultaneously receiving legacy HSDPA traffic and HS-SCCH-less HSDPA traffic. A HARQ process is performed on the buffered HSDPA traffic in the first storage or the second storage according to a corresponding HS-SCCH CRC test. The resulting HARQ processed HSDPA traffic is Turbo decoded. Turbo decoding on the previously HARQ processed HSDPA traffic is performed simultaneously with HARQ processing on the buffered HSDPA traffic in the first storage or the second storage. The buffered HS-SCCH-less HSDPA traffic is processed via HARQ processing and Turbo decoding for each of the four pre-determined transport formats.
Abstract:
FIG. 1 is a front and top perspective view of a card box showing my new design; FIG. 2 is a front view thereof; FIG. 3 is a rear view thereof; FIG. 4 is a left view thereof; FIG. 5 is a right view thereof; FIG. 6 is a top view thereof; FIG. 7 is a bottom view thereof; FIG. 8 is a partially exploded perspective view thereof, showing a top portion removed, and a middle portion and a bottom portion partially assembled; FIG. 9 is an exploded perspective view thereof, showing a top, middle and a bottom portion; and, FIG. 10 is an exploded perspective view thereof.
Abstract:
Flavonoid compounds may be prepared that are selective for certain cell organelles, and may be used as biological imaging agents. Organelles that may be imaged with flavonoid compounds include mitochondria and lysosomes. Advantageously, the flavonoids show specificity to certain organelles and may exhibit a florescence “turn-on” mechanism, where the flavonoids that have target an organelle exhibit a florescence response when excited.
Abstract:
Semiconductor devices are provided including an active layer, a gate structure, a spacer, and a source/drain layer. The active layer is on the substrate and includes germanium. The active layer includes a first region having a first germanium concentration, and a second region on both sides of the first region. The second region has a top surface getting higher from a first portion of the second region adjacent to the first region toward a second portion of the second region far from the first region, and has a second germanium concentration less than the first germanium concentration. The gate structure is formed on the first region of the active layer. The spacer is formed on the second region of the active layer, and contacts a sidewall of the gate structure. The source/drain layer is adjacent to the second region of the active layer.
Abstract:
A vehicle shading apparatus may include a first front shading control unit, a first rear shading control unit, a second top shading control unit, and a second rear shading control unit. In one embodiment, one end of the first top shading control unit is connected to the second top shading control unit. One end of the first rear shading control unit and a horizontal supporting unit are connected to the second rear shading control unit. The second top shading control unit and second rear shading control unit both include a shading cloth extending along the body of the vehicle. The present invention is advantageous because it has an automatic shading cloth expand/restore control unit and high-strength supporting unit. It is portable, easy to install and has the shading all around the vehicle to effectively block the sunlight.
Abstract:
Methods, compositions and articles of manufacture involving soluble conjugated polymers are provided. The conjugated polymers have a sufficient density of polar substituents to render them soluble in a polar medium, for example water and/or methanol. The conjugated polymer may desirably comprise monomers which alter its conductivity properties. In some embodiments, the inventors have provided cationic conjugated polymers (CCPs) comprising both solubilizing groups and conductive groups, resulting in conductive conjugated polymers soluble in polar media. The different solubility properties of these polymers allow their deposition in solution in multilayer formats with other conjugated polymers. Also provided are articles of manufacture comprising multiple layers of conjugated polymers having differing solubility characteristics. Embodiments of the invention are described further herein.
Abstract:
Methods, compositions and articles of manufacture for assaying a sample for a target polynucleotide are provided. A sample suspected of containing the target polynucleotide is contacted with a polycationic multichromophore and a sensor PBP that can bind to the target polynucleotide. The sensor PBP comprises a signaling chromophore to absorb energy from the excited multichromophore and emit light in the presence of the target polynucleotide. The methods can be used in multiplex form. Kits comprising reagents for performing such methods are also provided.
Abstract:
An exemplary electronic device is connected with an earphone. The earphone includes a first storage unit storing information as to functions of the earphone. The electronic device includes a second storage unit storing a function information table recording information as to user-controllable functions of the electronic device, function units corresponding to the user-controllable functions, an identifying module, and a control module. The identifying module retrieves the information as to functions stored in the first storage unit, and determines whether one or more of the controllable functions of the electronic device are controllable by the earphone. The control module activates all of the function units corresponding to the controllable functions of the electronic device which are controllable by the earphone, and controls one or more of the activated function units according to one or more control signals transmitted from the earphone to the electronic device. A related method is also provided.