Abstract: A measurement system is provided for in situ calibration. The measurement system includes a housing including a culture medium and measurement probe arranged in the culture medium. The measurement probe includes an opening, a sensor, and a channel arranged from the opening to the sensor. The measurement system further includes a calibration unit connected to the opening and configured to supply a calibration fluid to the sensor via the channel.

Abstract: A device for sorting biological cells comprises a flow channel configured to pass a flow of liquid carrying the biological cells. The flow channel comprises at least one zone associated with a cell category. Each zone of the flow channel comprises at least one surface coated with molecules having an affinity to the cell category associated with the zone, the at least one surface of the zone being configured to modify, by the molecules of the surface, a movement of a cell belonging to the associated cell category of the zone as the cell passes the zone. The device comprises a detector configured to detect a cell exhibiting at least one modified movement in one zone of the flow channel, and to transmit a trigger signal based on the detection of the cell. The device further comprises an actuator configured to divert the detected cell based on the trigger signal.

Abstract: A device is provided for electrochemically synthesizing a plurality of molecules. The device includes: (i) one or more electrodes configured to generate reaction conditions to mediate the synthesis of the molecules, and (ii) a structure having a surface configured to attach thereon precursors of the molecules and having a footprint.

Abstract: Microfluidic devices for sterilizing fluids using pulsed electric fields are disclosed. In some embodiments, a device may include first and second electrode layers and a spacer layer positioned between the electrode layers. The spacer layer may define one or more fluid channels extending between the electrode layers. A power supply may be coupled to the electrode layers and configured to supply voltage pulses to the electrode layers to generate electric field pulses within the fluid channels. In some embodiments, the electrode layers may be textured such that the electric fields generated in the fluid channels are non-uniform.

Abstract: In a first aspect, the present disclosure relates to a system for addressing nanoelectrodes in a nanoelectrode array, the system including an array of electrode cells, each electrode cell including: an access transistor having a gate resistively coupled to a word line, a source resistively coupled to a bit line, and a drain, and a storage circuit resistively coupled to the drain and including a nanoelectrode.

Abstract: Systems, methods, and non-transitory computer-readable media can determine responsiveness information for a page in a social networking system, wherein the responsiveness information describes at least a rate at which an administrator of the page replies to messages sent to the page. A request can be received from a user of the social networking system to access the page through a computing device. Data describing the page can be provided to be displayed through the computing device, wherein the responsiveness information is included in the page.

Abstract: A method of fabricating electrodes includes forming a first metallic film layer on an upper surface of a first material substrate, and attaching a first polymeric layer to the upper surface of the first material substrate to form a first opened microchannel. The method further includes forming a second metallic film layer on a portion of a lower surface of a second material substrate, and attaching a second polymeric layer to the lower surface of the second material substrate to form a second opened microchannel. The method also includes attaching the first opened microchannel to a bottom side of the membrane and the second opened microchannel to the top side of the membrane. The first metallic film layer and the second metallic film layer each constitute transparent electrodes and are positioned with the membrane therebetween.

Abstract: A physiologic sensor module includes at least one wearable sensor that is configured for wearing on a human body part and for measuring at least one biological signal. The module further includes at least one controller communicatively coupled to the wearable sensor and configured to receive the biological signal from the wearable sensor. The controller is further configured to process the biological signal in real-time, extract one or more clinical features from the biological signal, and based on the clinical features, determine detection of anaphylaxis.

Abstract: An injector module includes a housing, a reservoir, a superelastic needle, and an actuator. The reservoir is positioned in the housing and stores epinephrine therein. The superelastic needle is positioned within the housing in a retracted position and is fluidly coupled with the reservoir. The superelastic needle has a gauge between eighteen and twenty-five. The actuator is configured to apply an actuator force on the superelastic needle such that the superelastic needle is moved from the retracted position to an injecting position where a tip of the superelastic needle protrudes from the housing between about fifteen millimeters and about thirty-five millimeters.

Abstract: A physiologic sensor module includes at least one wearable sensor that is configured for wearing on a human body part and for measuring at least one biological signal. The module further includes at least one controller communicatively coupled to the wearable sensor and configured to receive the biological signal from the wearable sensor. The controller is further configured to process the biological signal in real-time, extract one or more clinical features from the biological signal, and based on the clinical features, determine detection of anaphylaxis.

Abstract: A physiologic sensor module includes at least one wearable sensor that is configured for wearing on a human body part and for measuring at least one biological signal. The module further includes at least one controller communicatively coupled to the wearable sensor and configured to receive the biological signal from the wearable sensor. The controller is further configured to process the biological signal in real-time, extract one or more clinical features from the biological signal, and based on the clinical features, determine detection of anaphylaxis.

Abstract: The invention relates to a cleaning composition with improved stain removal. The alkaline composition contains a hydrolysable dispersing polymer which is selected from carboxylated fructans and one or more biodegradable aminocarboxylate chelating agents.

Abstract: The invention relates to a cleaning composition with improved stain removal. The alkaline composition contains a hydrolysable dispersing polymer which is selected from carboxylated fructans and one or more biodegradable aminocarboxylate chelating agents.

Abstract: The invention concerns an enzymatic method for making oenological tannins starting with lumps of wood and an enzymatic method for transforming tannins into tannins for wine-making purposes. The inventive method comprises a step which consists in contacting the lumps of wood or tannins with an aqueous solution comprising a composition containing enzymes of the cellulase class. The invention also concerns an enzymatic composition mainly consisting of enzyme of the cellulase class for making oenological tannins, comprising an endocellulase activity, a xylanase activity a ?-mannanase and/or ?-amylase activity.

Abstract: An air intake apparatus for supplying air to an internal combustion engine comprises a hollow enclosure, an air filter and an air compressor which when activated compresses air supplied to the engine. The enclosure houses the air filter and compressor. An engine air supply path through the enclosure passes from an air inlet to the enclosure to an air outlet from the enclosure via the air filter, said enclosure inlet and enclosure outlet defining respectively an upstream end of the air supply path and a downstream end of the air supply path. The enclosure housing is subdivided by a dividing plate which holds the air filter upstream of the air compressor. The dividing plate also has an air inlet feature to allow air to enter an inlet to the air compressor after the air has passed through the air filter.

Abstract: An air intake apparatus for supplying air to an internal combustion engine comprises a hollow plastics material enclosure, an air filter and an air compressor which when activated compresses air supplied to the engine. The enclosure houses the air filter and compressor. An engine air supply path through the enclosure passes from an air inlet to the enclosure to an air outlet from the enclosure via the air filter. The enclosure inlet and enclosure outlet define respectively an upstream end of the air supply path and a downstream end of the air supply path, wherein the compressor is secured within the enclosure by resilient vibration-isolating mounts.

Abstract: The present invention relates to an air intake apparatus for an internal combustion engine of an automobile. The apparatus has an enclosure with an air supply path running throughout. Within the enclosure is an electrically driven supercharger, an automotive battery arid possibly other electronics. The enclosure is divided by a partition with an air passage into a battery compartment and a supercharger compartment. The battery compartment is upstream of the supercharger compartment. Air enters the battery compartment through an inlet, travels through the air passage in the partition, enters the supercharger and leaves through an outlet in the supercharger compartment to feed the engine. When the supercharger is running it draws in additional cool air from outside the enclosure through the inlet.

Abstract: An air intake apparatus for supplying air to an internal combustion engine, comprises a unitary hollow enclosure, a motor vehicle battery, an air filter and an air compressor which when activated compresses air supplied to the engine. The enclosure houses the battery, air filter and compressor. An engine air supply path through the enclosure passes from an air inlet to the enclosure to an air outlet from the enclosure via the air filter. The enclosure inlet and enclosure outlet define respectively an upstream end of the air supply path and a downstream end of the air supply path. The apparatus includes an automatic air bypass within the enclosure that directs air in the air supply path to the air compressor when this is activated, and which allows air to in the air supply path to bypass the air compressor when this is not activated.

Abstract: An air intake apparatus for supplying air to an internal combustion engine comprises a unitary hollow enclosure, a motor vehicle battery and an air compressor for compressing air supplied to the engine. The enclosure is partly divided by a partition wall into a battery compartment and a compressor compartment, access to which is provided by a pair of covers. The battery compartment houses the battery and the compressor compartment houses the air compressor. An engine air supply path leads through the enclosure from an air inlet an air outlet, the enclosure inlet and enclosure outlet defining respectively an upstream end of the air supply path and a downstream end of the air supply path. The air supply path extends through the partition wall. The battery housing encloses an upstream part of the air supply path and the compressor housing encloses a downstream part of the air supply path.

Abstract: An air intake apparatus for supplying air to an internal combustion engine (1) comprises a hollow enclosure (50), housing an air filter (9) and an air compressor (10) which when activated compresses air supplied to the engine (1). An engine air supply path through the enclosure (50) passes from an air inlet (52) to the enclosure to an air outlet (54) from the enclosure via the air filter (9). The enclosure (50) housing is subdivided by a dividing plate (74) which holds the air filter (9) upstream of the air compressor (10). The dividing plate (74) also has an air inlet feature (126) to allow air to enter an inlet (98) to the air compressor (10) after the air has passed through the air filter (74).