Abstract: In one embodiment an electronic device comprises a display, a motion sensor, one or more wireless communication devices, and logic configured to receive, in the controller, data indicating that the controller is in motion, determine a velocity of the controller, and activate a first location service to determine a coarse location of the controller when the velocity of the controller falls above a predetermined threshold for a predetermined period of time. Other embodiments may be described.

Abstract: In one embodiment an electronic device comprises a display, a motion sensor, one or more wireless communication devices, and logic configured to receive, in the controller, data indicating that the controller is in motion, determine a velocity of the controller, and activate a first location service to determine a coarse location of the controller when the velocity of the controller falls above a predetermined threshold for a predetermined period of time. Other embodiments may be described.

Abstract: A method, including receiving a data source selection from a user or software application, the data source including medical information of a plurality of patients, receiving, from the user or software application, a data pattern that is related to a concept to be explored in the data source, querying the data source to find information that approximately matches the data pattern; and receiving the information from the data source, wherein the information includes unstructured data, assigning a classification to individual parts of the information based on the part's relationship to the data pattern, and outputting the classified information to the user or software application.

Abstract: A method and apparatus for implementing a protocol-neutral middleware interface in a home area network. The method comprises receiving one or more data packets from a client device using a first communication protocol, and decoding the data packets into a set of platform independent data objects. The data packets are decoded into the platform independent data objects by utilizing a metadata mapping located within one or more field classes. The apparatus comprises a frame engine, and one or more field classes. The frame engine receives a data packet in a first communication protocol. The frame engine decodes the data packet into a set of platform independent data objects. The frame engine uses a metadata map contained within the one or more field classes to decode the data packet into the set of platform independent data objects.

Abstract: A method and apparatus for implementing a protocol-neutral middleware interface in a home area network. The method comprises receiving one or more data packets from a client device using a first communication protocol, and decoding the data packets into a set of platform independent data objects. The data packets are decoded into the platform independent data objects by utilizing a metadata mapping located within one or more field classes. The apparatus comprises a frame engine, and one or more field classes. The frame engine receives a data packet in a first communication protocol. The frame engine decodes the data packet into a set of platform independent data objects. The frame engine uses a metadata map contained within the one or more field classes to decode the data packet into the set of platform independent data objects.

Abstract: A pot stand has a deployed position and a folded position and includes vertical members and horizontal members. The horizontal members are connected to the vertical members at a junction. The horizontal members are elongated planar members. Top faces formed on the horizontal members. Down bends are formed on the horizontal members. Down bends continue from the top faces. Lower faces are formed on the horizontal members. Lower faces continue from the down bends. A connector assembly has a top connector and a bottom connector. The top connector is pivotally connected to an upper surface of the lower faces. The bottom connector is pivotally connected to a lower surface of the lower faces. There is a top level formed from horizontal members for storing articles on the top level. A middle level is for storing articles on the middle level, and a bottom level.

Abstract: A pot stand has a deployed position and a folded position and includes vertical members and horizontal members. The horizontal members are connected to the vertical members at a junction. The horizontal members are elongated planar members. Top faces formed on the horizontal members. Down bends are formed on the horizontal members. Down bends continue from the top faces. Lower faces are formed on the horizontal members. Lower faces continue from the down bends. A connector assembly has a top connector and a bottom connector. The top connector is pivotally connected to an upper surface of the lower faces. The bottom connector is pivotally connected to a lower surface of the lower faces. There is a top level formed from horizontal members for storing articles on the top level. A middle level is for storing articles on the middle level, and a bottom level.

Abstract: A method, including receiving a data source selection from a user or software application, the data source including medical information of a plurality of patients, receiving, from the user or software application, a data pattern that is related to a concept to be explored in the data source, querying the data source to find information that approximately matches the data pattern; and receiving the information from the data source, wherein the information includes unstructured data, assigning a classification to individual parts of the information based on the part's relationship to the data pattern, and outputting the classified information to the user or software application.

Abstract: A method and apparatus for implementing a protocol-neutral middleware interface in a home area network. The method comprises receiving one or more data packets from a client device using a first communication protocol, and decoding the data packets into a set of platform independent data objects. The data packets are decoded into the platform independent data objects by utilizing a metadata mapping located within one or more field classes. The apparatus comprises a frame engine, and one or more field classes. The frame engine receives a data packet in a first communication protocol. The frame engine decodes the data packet into a set of platform independent data objects. The frame engine uses a metadata map contained within the one or more field classes to decode the data packet into the set of platform independent data objects.

Abstract: A task management system uses patient tags (e.g., wireless RFID, Infrared tracking, GPS etc.) for patient location tracking, together with an integrated workflow system to automatically, track patient location how long they have been there and how many patients are at the same location (e.g., waiting room) and manages waiting time and an overall waiting queue, supporting automated adjustment of healthcare staffing, patient flows, and team coordination. A task management system for use in providing healthcare to a patient includes a patient tracking processor and a workflow processor. The patient tracking processor automatically acquires data derived by wireless communication from patient attached tag devices for use in identifying a location of multiple patients in a healthcare enterprise and identifying a first number of patients at a particular location and a second number of patients awaiting receiving a particular type of treatment.

Abstract: A component having an airdome enclosure that protects the component from its external environment. An airdome enclosure according to the present techniques avoids the high costs of employing special materials and/or specialized process steps in the manufacture of a component. An electronic component according to the present techniques includes a set of substructures formed on a substrate and an airdome enclosure over the substructures that protects the substructures and that hinders the formation of parasitic capacitances among the substructures.

Abstract: Disclosed is an ink composition comprising water, a colorant, and an ABSCS′B′A′ or BASCS′A′B′ block copolymer wherein A and A′ are blocks containing one or more ethylene oxide repeat monomer units, B and B′ are blocks containing one or more propylene oxide repeat monomer units, C is a block comprising one or more repeat monomer units of an alkylsiloxane, a dialkylsiloxane, an alkyl aryl siloxane, or a diarylsiloxane, S is an optional spacer group between the A or B block and the C block, and S′ is an optional spacer group between the C block and the A′ or B′ block. Also disclosed is a multicolor ink jet printing process using the ink, wherein dry time is reduced and/or intercolor bleed is reduced.

Abstract: Disclosed is an ink composition comprising water, a colorant, and a linear ASBS′A′ block copolymer wherein A and A′ are each, independently of the other, blocks comprising one or more repeat monomer units of ethylene oxide, propylene oxide, or random or alternating mixtures of ethylene oxide and propylene oxide, B is a block comprising one or more repeat monomer units of an alkylsiloxane, a dialkylsiloxane, an alkyl aryl siloxane, a diarylsiloxane, or mixtures thereof, S is an optional spacer group between the A and B blocks, and S′ is an optional spacer group between the B and A′ blocks. Also disclosed is a multicolor ink jet printing process using the ink, wherein dry time is reduced and/or intercolor bleed is reduced.

Abstract: A multicolor ink jet printing process employs an ink jet ink composition comprising water, a colorant of pigment, dye, or mixtures thereof, and a low boiling point additive to produce high quality multicolor ink jet images with minimal intercolor bleed and lines with sharp edges as characterized by a relatively low mid frequency line edge noise (MFLEN) number. The additive is an alcohol or thiol having a boiling point less than or equal to about 115° C. The aforementioned ink jet ink composition can further include an optional additive of alcohol or thiol with a boiling point less than or equal to about 135° C. if necessary. The desired additive increases the ink's drying rate with fast evaporation and an accelerated penetration into a print substrate (e.g. paper) upon printing. As a result, little or minimum residual ink (e.g. carbon black ink) comprising the aforementioned additive is available on the surface of the print substrate to intermix with a previously or subsequently printed ink (e.g.

Abstract: Disclosed is an ink composition comprising water, a colorant, and an ABSCS′B′A′ or BASCS′A′B′ block copolymer wherein A and A′ are blocks containing one or more ethylene oxide repeat monomer units, B and B′ are blocks containing one or more propylene oxide repeat monomer units, C is a block comprising one or more repeat monomer units of an alkylsiloxane, a dialkylsiloxane, an alkyl aryl siloxane, or a diarylsiloxane, S is an optional spacer group between the A or B block and the C block, and S′ is an optional spacer group between the C block and the A′ or B′ block. Also disclosed is a multicolor ink jet printing process using the ink, wherein dry time is reduced and/or intercolor bleed is reduced.

Abstract: Disclosed is an ink composition comprising water, a colorant, and a linear ASBS′A′ block copolymer wherein A and A′ are each, independently of the other, blocks comprising one or more repeat monomer units of ethylene oxide, propylene oxide, or random or alternating mixtures of ethylene oxide and propylene oxide, B is a block comprising one or more repeat monomer units of an alkylsiloxane, a dialkylsiloxane, an alkyl aryl siloxane, a diarylsiloxane, or mixtures thereof, S is an optional spacer group between the A and B blocks, and S′ is an optional spacer group between the B and A′ blocks. Also disclosed is a multicolor ink jet printing process using the ink, wherein dry time is reduced and/or intercolor bleed is reduced.

Abstract: A multicolor ink jet printing process employs an ink jet ink composition comprising water, a colorant of pigment, dye, or mixtures thereof, and a low boiling point additive to produce high quality multicolor ink jet images with minimal intercolor bleed and lines with sharp edges as characterized by a relatively low mid frequency line edge noise (MFLEN) number. The additive is an alcohol or thiol having a boiling point less than or equal to about 115° C. The aforementioned ink jet ink composition can further include an optional additive of alcohol or thiol with a boiling point less than or equal to about 135° C. if necessary. The desired additive increases the ink's drying rate with fast evaporation and an accelerated penetration into a print substrate (e.g. paper) upon printing. As a result, little or minimum residual ink (e.g. carbon black ink) comprising the aforementioned additive is available on the surface of the print substrate to intermix with a previously or subsequently printed ink (e.g.

Abstract: The present invention relates to aqueous ink jet ink compositions comprising an anti-intercolor bleed agent, preferably a water soluble or ink-compatible agent. The inks typically also comprise water and at least a colorant of a dye, a pigment, or a mixture of dye and pigment. In one embodiment, ink jet ink compositions comprising an anti-intercolor bleed agent which is represented by {[(R)m—G)b]n}s(A)(X)p (Formula (I)), and ink jet printing processes which print the ink jet ink compositions in any desired printing sequence or order onto an optionally heated substrate are provided. The water-soluble or ink-compatible anti-intercolor bleed agent may form hydrophobic layers near the image boundary, thus preventing undesired mixing of two different neighboring inks which forms intercolor bleed. The ink jet ink compositions of the present invention exhibit reduced drying time, intercolor bleeding, and image defect as well as providing uniform ink images on transparencies.