Abstract: Use of an acid-treated titanium-containing zeolitic material having framework type MWW for preparing a composition having a relative plasticity of less than 1.

Abstract: Use of an acid-treated titanium-containing zeolitic material having framework type MWW for preparing a composition having a relative plasticity of less than 1.

Abstract: A system and method are provided for non-transmission specification fair air-time, NT-AirFair, allocation control by tracking the transmission time consumed by each link to detect any increase and enforcing air-time allocation based on the pattern of usage derived therefrom.

Abstract: When handing off a multi-mode patient monitoring device (PMD) (28) between radio access technology (RAT) networks, a serving access point (AP) (12, 16, 72) with which a communication link is established by the PMD (28) over a first RAT network (RAT-1) to permit the PMD to communicate with a hospital IP network (18) via the serving AP (12, 16, 72). A scanning interface (14, 54, 74, 104) collects information regarding other available RAT networks (e.g., RAT-2 , RAT-3, etc) and candidate APs therein. If the RAT-1 communication quality of service falls below a predetermined threshold level, the serving AP (12, 16, 72) delivers information regarding the candidate APs (22, 24, 26) and their RAT networks to the PMD (28). Delivery of the candidate network/AP information is performed using a beacon signal continuously or periodically emitted from the serving AP (12, 16, 72), or upon request by the PMD (28). The PMD (28) selects a candidate AP (22, 24, 26) as a target AP, and initiates a handover to the target AP.

Abstract: A patient monitor includes least one monitoring device which collects patient data about a patient. A packet generator generates data packets from the patient data collected from the patient. A communication unit transmits the data packets over an Internet protocol (IP) network. The communication unit includes a first transmitter for transmitting the data packets using a first wireless network and a second transmitter for transmitting the data packets using a second wireless network.

Abstract: A patient monitor includes a plurality of monitoring devices which collect data about a patient. An evaluation unit determines the patient's condition from the collected data and generates an alarm if the patient's condition warrants notifying an appropriate medical responder. A communication unit which transmits the alarm to a access point over a hospital Internet protocol (IP) network, the communication device includes a first transmitter for transmitting the alarm using a primary link and a second transmitter for transmitting the alarm using a secondary link in response to the transmission using the primary link failing.

Abstract: When monitoring a patient in a healthcare environment, a location of a battery-powered mobile aggregator (MA) sensor (22), which is mounted on a patient with one or more other patient-mounted sensors (12, S1, S2, S3), is monitored. The MA (22) maintains a personal area network (PAN) (24) for the sensors (12, S1, S2, S3) and wirelessly transmits signals from patient mounted sensors (12, S1, S2, S3) to a wired network (18). When the MA (22) comes within range of a mains-powered fixed aggregator (FA) (16), the MA (22) is informed of the availability of the FA (16), transfers patient data communication duties to the FA (16), and shuts down its PAN to conserve battery power. If the patient moves out of range of the FA (16), then the MA (22) regenerates the PAN (24) and resumes wireless patient data transmission.

Abstract: A system and method are provided for non-transmission specification fair air-time, NT-AirFair, allocation control by tracking the transmission time (308) consumed by each link to detect any increase and enforcing air -time allocation (309) based on the pattern of usage derived therefrom.

Abstract: The invention relates to a method for producing and using a solid sodium diformate having a high formic acid content, to the use thereof in animal foods in the form of an acidifier, preservatives, ensilage auxiliary agents, fertilizers, and a growth and productivity-stimulating agent and the inventive animal food additives containing sodium diformate.

Abstract: The invention relates to a method for producing and using a solid sodium diformate having a high formic acid content, to the use thereof in animal foods in the form of an acidifier, preservatives, ensilage auxiliary agents, fertilizers, and a growth and productivity-stimulating agent and the inventive animal food additives containing sodium diformate.

Abstract: The invention relates to a method for producing and using a solid sodium diformate having a high formic acid content, to the use thereof in animal foods in the form of an acidifier, preservatives, ensilage auxiliary agents, fertilizers, and a growth and productivity-stimulating agent and the inventive animal food additives containing sodium diformate.

Abstract: When monitoring a patient in a healthcare environment, a location of a battery-powered mobile aggregator (MA) sensor (22), which is mounted on a patient with one or more other patient-mounted sensors (12, S1, S2, S3), is monitored. The MA (22) maintains a personal area network (PAN) (24) for the sensors (12, S1, S2, S3) and wirelessly transmits signals from patient mounted sensors (12, S1, S2, S3) to a wired network (18). When the MA (22) comes within range of a mains-powered fixed aggregator (FA) (16), the MA (22) is informed of the availability of the FA (16), transfers patient data communication duties to the FA (16), and shuts down its PAN to conserve battery power. If the patient moves out of range of the FA (16), then the MA (22) regenerates the PAN (24) and resumes wireless patient data transmission.

Abstract: A patient monitor includes least one monitoring device which collects patient data about a patient. A packet generator generates data packets from the patient data collected from the patient. A communication unit transmits the data packets over an Internet protocol (IP) network. The communication unit includes a first transmitter for transmitting the data packets using a first wireless network and a second transmitter for transmitting the data packets using a second wireless network.

Abstract: When handing off a multi-mode patient monitoring device (PMD) (28) between radio access technology (RAT) networks, a serving access point (AP) (12, 16, 72) with which a communication link is established by the PMD (28) over a first RAT network (RAT-1) to permit the PMD to communicate with a hospital IP network (18) via the serving AP (12, 16, 72). A scanning interface (14, 54, 74, 104) collects information regarding other available RAT networks (e.g., RAT-2, RAT-3, etc) and candidate APs therein. If the RAT-1 communication quality of service falls below a predetermined threshold level, the serving AP (12, 16, 72) delivers information regarding the candidate APs (22, 24, 26) and their RAT networks to the PMD (28). Delivery of the candidate network/AP information is performed using a beacon signal continuously or periodically emitted from the serving AP (12, 16, 72), or upon request by the PMD (28). The PMD (28) selects a candidate AP (22, 24, 26) as a target AP, and initiates a handover to the target AP.

Abstract: A patient monitor includes a plurality of monitoring devices which collect data about a patient. An evaluation unit determines the patient's condition from the collected data and generates an alarm if the patient's condition warrants notifying an appropriate medical responder. A communication unit which transmits the alarm to a access point over a hospital Internet protocol (IP) network, the communication device includes a first transmitter for transmitting the alarm using a primary link and a second transmitter for transmitting the alarm using a secondary link in response to the transmission using the primary link failing.

Abstract: In a wireless communication channel, the time per a service interval is distributed among multiple data services. The data services have been allocated airtime quotas in order to comply with their QoS requirements. These airtime quotas are scaled by a factor that is the ratio between, on the one hand, the time available per service interval for accommodating data of these services and, on the other hand, the total of the airtime quotas. This allows the services to use more airtime in case not the entire service interval has been allocated.

Abstract: The invention relates to a method for producing and using a solid sodium diformate having a high formic acid content, to the use thereof in animal foods in the form of an acidifier, preservatives, ensilage auxiliary agents, fertilizers, and a growth and productivity-stimulating agent and the inventive animal food additives containing sodium diformate.

Abstract: A wireless system (100) includes at least one power-save wireless station (PS STA)(102). A method of wireless includes allocating deterministic time intervals (206,207) to the PS-STAs.

Abstract: To maximize power saving performance without compromising on the QoS requirement of an application stream, a method and wireless network device generates a subset of a periodic service interval can be used for medium time allocation and data and information can be transmitted in contiguous medium time allocated this way. This selection of a period of time below service capacity allows multiple applications access the medium and for the selection of contiguous medium time during which data transmission can occur.

Abstract: Disclosed is a method and apparatus for managing transmission airtime in a wireless network communication system transmitting at least one data flow in a plurality of data packets (210) in service intervals (215). The method comprises the steps of determining an accumulated time of data packet transmissions in the service interval (215) for each of the data flows, determining an estimated time of the next data packet transmission in the service interval (215) for each of the data flows, and allowing the transmission of the next data packet (330) when the combined accumulated time and the estimated time for a flow to which the data packet belongs is less than a predetermined value (320).