mhurhangee/ep-ind-claims huggingface dataset:
A moisture management system for a medical device having a supply connection for receiving gas and a patient connection for supplying the gas to a patient, the system comprising: a water trap having an inlet, an outlet, a first reservoir, and a drain, the inlet receiving the gas from the supply connection and the outlet returning the gas to the patient connection, wherein the water trap is configured to remove moisture from the gas flowing from the inlet to the outlet, and wherein the moisture removed is held in the first reservoir; characterised by an evaporation chamber having an inlet, an exhaust, and a second reservoir, wherein the inlet is fluidly coupled to the drain of the water trap to receive the moisture from the first reservoir, wherein the moisture is subsequently held in the second reservoir, and wherein the evaporation chamber is configured such that the moisture evaporates from the second reservoir and exits as vapor via the exhaust; and an evaporator that increases a rate at which the moisture in the second reservoir evaporates via the exhaust. a water trap having an inlet, an outlet, a first reservoir, and a drain, the inlet receiving the gas from the supply connection and the outlet returning the gas to the patient connection, wherein the water trap is configured to remove moisture from the gas flowing from the inlet to the outlet, and wherein the moisture removed is held in the first reservoir; characterised by an evaporation chamber having an inlet, an exhaust, and a second reservoir, wherein the inlet is fluidly coupled to the drain of the water trap to receive the moisture from the first reservoir, wherein the moisture is subsequently held in the second reservoir, and wherein the evaporation chamber is configured such that the moisture evaporates from the second reservoir and exits as vapor via the exhaust; and an evaporator that increases a rate at which the moisture in the second reservoir evaporates via the exhaust.
A method for redirecting Session Initiation Protocol packet traffic on a mobile terminal (300, 400, 500, 600) to different network interfaces (315, 415, 515, 615) using a single registered Session Initiation Protocol connection, wherein the mobile terminal (300, 400, 500, 600) comprises a Long Term Evolution processor (360, 460, 560, 660) and an application processor (310, 410, 510, 610), the Long Term Evolution processor (360, 460, 560, 660) comprising a Session Initiation Protocol module (388, 488, 588, 688) and a network packet redirector module (395, 495, 595, 695), the network packet redirector module (395, 495, 595, 695) being positioned between the Session Initiation Protocol module (388, 488, 588, 688) and the different network interfaces (315, 415, 515, 615) residing in the application processor (310, 410, 510, 610), the method comprising: providing, by the network packet redirector module (395, 495, 595, 695) in the Long Term Evolution processor (360, 460, 560, 660), a virtual network interface; and redirecting, by the virtual network interface, all Session Initiation Protocol packets normally transmitted over a Long Term Evolution modem of the Long Term Evolution processor (360, 460, 560, 660) to an alternate network interface of the different network interfaces (315, 415, 515, 615) of the application processor (310, 410, 510, 610) by using an inter-processor communication mechanism (350, 450, 550, 650) to send the Session Initiation Protocol packets to the application processor (310, 410, 510,610). providing, by the network packet redirector module (395, 495, 595, 695) in the Long Term Evolution processor (360, 460, 560, 660), a virtual network interface; and redirecting, by the virtual network interface, all Session Initiation Protocol packets normally transmitted over a Long Term Evolution modem of the Long Term Evolution processor (360, 460, 560, 660) to an alternate network interface of the different network interfaces (315, 415, 515, 615) of the application processor (310, 410, 510, 610) by using an inter-processor communication mechanism (350, 450, 550, 650) to send the Session Initiation Protocol packets to the application processor (310, 410, 510,610).
A composite iron-based powder mixture comprising iron particles coated with: 1) a first layer which is a phosphorous containing layer; and 2) a second layer which contains an alkaline silicate combined with a clay, wherein the clay contains a phyllosilicate, and wherein the clay is particulate with a particle size (D 50) of 0.1-0.4μm as measured by analytical centrifuge analysis according to standards ISO 13318-1 and ISO 13318-2, and wherein the content of clay is between 0.2-5% by weight of the composite iron-based powder. 1) a first layer which is a phosphorous containing layer; and 2) a second layer which contains an alkaline silicate combined with a clay,
An apparatus comprising: p hard computing blocks, wherein each hard computing block is to provide n data lanes and is to have a fixed routing, and wherein the p hard computing blocks are to provide h = n ∗ p available hard computing lanes; and at least one soft computing block comprising routable logic and providing k data lanes, wherein k ≠ h, characterized in that the soft computing block includes a programmable switch to selectively map data lanes according to a switch mode comprising at least a direct lane mapping mode, in which lanes are to be mapped in numerical order, and a cross-mapping mode, in which lanes are to be mapped in reverse numerical order and in that the switch mode is programmable via a training sequence, wherein on a bootup the training sequence is performed to determine, whether lanes are routed straight across or crosswise, in order to program a fuse puller to provide the proper orientation to the programmable switch. p hard computing blocks, wherein each hard computing block is to provide n data lanes and is to have a fixed routing, and wherein the p hard computing blocks are to provide h = n ∗ p available hard computing lanes; and at least one soft computing block comprising routable logic and providing k data lanes, wherein k ≠ h, characterized in that the soft computing block includes a programmable switch to selectively map data lanes according to a switch mode comprising at least a direct lane mapping mode, in which lanes are to be mapped in numerical order, and a cross-mapping mode, in which lanes are to be mapped in reverse numerical order and in that the switch mode is programmable via a training sequence, wherein on a bootup the training sequence is performed to determine, whether lanes are routed straight across or crosswise, in order to program a fuse puller to provide the proper orientation to the programmable switch.
Method for reducing oscillations in a technical system, the method comprising: a) receiving a plurality of different controller settings for the technical system, b) for a respective controller setting: - receiving a signal representing a time series of operational data of the technical system controlled by the respective controller setting, - processing the signal, the processing comprising a transformation into a frequency domain, and - determining an entropy value of the processed signal, c) selecting a controller setting from the plurality of controller settings depending on the determined entropy values, and d) outputting the selected controller setting for configuring the technical system. a) receiving a plurality of different controller settings for the technical system, b) for a respective controller setting: - receiving a signal representing a time series of operational data of the technical system controlled by the respective controller setting, - processing the signal, the processing comprising a transformation into a frequency domain, and - determining an entropy value of the processed signal, - receiving a signal representing a time series of operational data of the technical system controlled by the respective controller setting, - processing the signal, the processing comprising a transformation into a frequency domain, and - determining an entropy value of the processed signal, c) selecting a controller setting from the plurality of controller settings depending on the determined entropy values, and d) outputting the selected controller setting for configuring the technical system.
An isolated cell comprising an exogenous fusion molecule, in which expression of a beta 2 microglobulin (B2M) gene is partially or completely inactivated by an insertion and/or a deletion within TCAAAT or TCAAATT of exon 2 of the B2M gene, wherein the modification is made by the exogenous fusion molecule comprising a zinc finger protein DNA-binding domain that binds to a target site of SEQ ID NO: 10 and a cleavage domain or a cleavage half-domain, wherein the ZFP comprises six zinc fingers designated F1-F6 in the order F1 to F6 as shown in a single row of the table below: F1 F2 F3 F4 F5 F6 RSDNLSE (SEQ ID NO:64) ASKTRTN (SEQ ID NO:72) QSGNLAR (SEQ ID NO:61) TSGNLTR (SEQ ID NO:73) TSGNLTR (SEQ ID NO:73) RIQDLNK (SEQ ID NO:74) RSDNLSE (SEQ ID NO:64) ASKTRTN (SEQ ID NO:72) QSGNLAR (SEQ ID NO:61) TSANLSR (SEQ ID NO:82) TSGNLTR (SEQ ID NO:73) RTEDRLA (SEQ ID NO:83) RSDNLSE (SEQ ID NO:64) ASKTRTN (SEQ ID NO:72) YTSSLCY (SEQ ID NO:84) QSGHLSR (SEQ ID NO:85) TSGNLTR (SEQ ID NO:73) RIQDLNK (SEQ ID NO:74) RSDNLSE (SEQ ID NO:64) ASKTRKN (SEQ ID NO:86) QSGNLAR (SEQ ID NO:61) TSANLSR (SEQ ID NO:82) TSGNLTR (SEQ ID NO:73) RIQDLNK (SEQ ID NO:74)
A method of biasing neural stem cell differentiation comprising: culturing a population of smooth muscle cells to form a uniaxially-aligned smooth muscle sheet; culturing a population of neural stem cells in a hydrogel, wherein the hydrogel is applied to the uniaxially-aligned smooth muscle sheet; and exposing the neural stem cells to at least one extracellular matrix component selected from collagen I, collagen IV, laminin, and heparan sulfate, wherein the ECM component biases differentiation of the neural stem cells into differentiated neural stem cells that are enriched for a neuronal subtype. culturing a population of smooth muscle cells to form a uniaxially-aligned smooth muscle sheet; culturing a population of neural stem cells in a hydrogel, wherein the hydrogel is applied to the uniaxially-aligned smooth muscle sheet; and exposing the neural stem cells to at least one extracellular matrix component selected from collagen I, collagen IV, laminin, and heparan sulfate, wherein the ECM component biases differentiation of the neural stem cells into differentiated neural stem cells that are enriched for a neuronal subtype.
Apparatus for transferring an object from a first station to a second station with a different orientation compared to that at said first station, comprising a stator, a rotor rotatable externally of said stator about an axis of rotation, and at least one retaining member for retaining said object, said retaining member being rotatable integrally with said rotor with respect to said stator and being in turn rotatable with respect to said rotor about an own axis of rotation, wherein said stator is provided with a cam profile coupled to and functionally cooperating with at least one axially extending follower (9; 14), said at least one follower (9; 14) being constrained to said at least one retaining member in such a way as to cause said at least one retaining member to be rotated about its own axis of rotation as a function of the relative position of said follower (9; 14) with respect to said cam profile, characterized in that said axis of rotation of said at least one retaining member and the axis of extension (9a; 14a) of said follower (9; 14) are substantially always incident to said axis of rotation of the rotor.
A thermal liner for protective apparel comprising: a nonwoven having 1-45 wt % of polybenzimidazole fiber, and the remaining balance being a second heat resistant fiber, said second fiber being selected from the group consisting of polyamideimides, polyetherimides, polyacrylates, aromatic copolyimides, polyacrylonitriles, polyetherketones, polysulfones, polyethersulfones, melamines, polybenzoxazole, and combinations thereof, the nonwoven excluding wool and cellulosic fibers, and having a thickness less than 3 mm and a basis weight of less than 100 gsm (2.9 osy).
A forged precipitation-hardened stainless steel alloy consisting, by weight, of 14.0% to 16.0% chromium, 6.0% to 8.0% nickel, 1.25% to 1.75% copper, 1.0% to 2.0% molybdenum, 0.001% to 0.05% carbon, a carbide forming element in an amount of 0.3% to 0.8% and greater than 8 times that of carbon, the balance iron, and incidental impurities; wherein the carbide forming element is selected from the group consisting of zirconium, tantalum, and a mixture thereof, the forged precipitation-hardened stainless steel alloy further comprising: up to 1.0 percent manganese; up to 1.0 percent silicon; up to 0.1 percent vanadium; up to 0.1 percent tin; up to 0.030 percent nitrogen; up to 0.025 percent phosphorus; up to 0.005 percent sulfur; up to 0.05 percent aluminum; up to 0.005 percent silver; and up to 0.005 percent lead as the incidental impurities.
An apparatus for testing a mooring bollard, the apparatus comprising:- a first connector for attaching the apparatus to a first bollard; a second connector for attaching the apparatus to a second bollard; at least one pulling device for applying a pulling force to said first and second bollards via said first and second connectors, at least one controller for controlling said pulling device; at least one pulling force measuring device connected between said pulling device and one of said first and second connectors, for measuring the pulling force being applied between the first and second bollards, at least one data logging device for recording data from said measuring device; and characterised by at least one image data capturing device (42, 44, 46) for capturing image data relating to the apparatus, wherein said image data capturing device is connected to said controller such that said controller controls power to said pulling device in response to said image data indicating a movement exceeding a predetermined level. a first connector for attaching the apparatus to a first bollard; a second connector for attaching the apparatus to a second bollard; at least one pulling device for applying a pulling force to said first and second bollards via said first and second connectors, at least one controller for controlling said pulling device; at least one pulling force measuring device connected between said pulling device and one of said first and second connectors, for measuring the pulling force being applied between the first and second bollards, at least one data logging device for recording data from said measuring device; and characterised by at least one image data capturing device (42, 44, 46) for capturing image data relating to the apparatus, wherein said image data capturing device is connected to said controller such that said controller controls power to said pulling device in response to said image data indicating a movement exceeding a predetermined level.
A microwave heating apparatus comprising: a cavity arranged to receive a piece of food to be heated; a first microwave supply system configured to supply microwaves at the cavity bottom, wherein the first microwave supply system comprises at least one microwave source and at least one antenna arranged in a lower part of the cavity; a second microwave supply system configured to supply microwaves into the cavity for exciting cavity modes, wherein the second microwave supply system comprises at least one microwave source and at least one feeding port arranged in an upper part of the cavity; characterized in that the microwave heating apparatus further comprises a control unit configured to control said first and second microwave supply systems based on a food category and/or a cooking program, and in that the first microwave supply system is a separate microwave supply system provided for a browning function, configured to supply microwaves at the cavity bottom. a cavity arranged to receive a piece of food to be heated; a first microwave supply system configured to supply microwaves at the cavity bottom, wherein the first microwave supply system comprises at least one microwave source and at least one antenna arranged in a lower part of the cavity; a second microwave supply system configured to supply microwaves into the cavity for exciting cavity modes, wherein the second microwave supply system comprises at least one microwave source and at least one feeding port arranged in an upper part of the cavity;
A battery monitoring device comprising: an electrolyte level sensor comprising a probe, a temperature sensor, a voltage sensor, and a wireless communications unit, a head unit, the probe extending from the head unit, characterized in that the head unit comprises the temperature sensor, voltage sensor, and wireless communications unit. an electrolyte level sensor comprising a probe, a temperature sensor, a voltage sensor, and a wireless communications unit, a head unit, the probe extending from the head unit, characterized in that the head unit comprises the temperature sensor, voltage sensor, and wireless communications unit.
A scanning system comprising: a backscatter x-ray system scanner having an x-ray source configured to emit an x-ray beam and having a sensor system configured to detect backscatter caused by the x-ray beam encountering an elongate structure; a controller in communication with the scanner, wherein the controller is configured to control the scanner to perform a scan of the elongate structure having a cavity with a fluid and filter data in the scan to remove a portion of the data in the scan attributable to the fluid to form filtered data, enabling detecting an inconsistency on a wall of the elongate structure in the filtered data; and a shield configured to reduce backscatter, wherein the elongate structure is located between the x-ray source and the shield. a backscatter x-ray system scanner having an x-ray source configured to emit an x-ray beam and having a sensor system configured to detect backscatter caused by the x-ray beam encountering an elongate structure; a controller in communication with the scanner, wherein the controller is configured to control the scanner to perform a scan of the elongate structure having a cavity with a fluid and filter data in the scan to remove a portion of the data in the scan attributable to the fluid to form filtered data, enabling detecting an inconsistency on a wall of the elongate structure in the filtered data; and a shield configured to reduce backscatter, wherein the elongate structure is located between the x-ray source and the shield.
Damping valve device comprising at least one damping valve which is able to be adjusted via an actuator, wherein the actuator has a coil arrangement and a return body for a magnetic flux circuit, which return body is separate from a valve housing, wherein the return body is fixed without play in a radial direction within the valve housing in that the return body forms, together with an inner wall of the valve housing, a press fit, characterized in that the return body and the valve housing form a conical connection.
- A friction welding machine for welding a first rod shape work piece that serves as a portion of a stem of a poppet valve, and a second rod shape work piece that serves as a portion of the stem integral with an umbrella-shaped portion of the poppet valve; the friction welding machine comprising: a horizontally arranged main spindle; a first work holding, provided at the front end portion of the main spindle, for gripping a first rod shape work piece coaxially with the main spindle; a slide movable to and away from the main spindle along the axis of the main spindle, the first work holding being a collet chuck unit configured for inserting/withdrawing thereinto/therefrom the first rod shape work piece from a front end of the main spindle; and a second work holding, arranged at the front end of the slide in opposition to the front end portion of the main spindle, for gripping a second rod shape work piece of the same diameter as the first rod shape work piece coaxially with the first rod shape work piece (Wl), wherein the friction welding machine is adapted to friction weld the first and second rod shape work pieces (Wl, W2) by pressing one end of the second rod shape work piece gripped by the slide onto one end of the first rod shape work piece while the first rod shape work piece is in rotation together with the main spindle, characterized in that the friction welding machine further comprises a burring apparatus which has a doughnut shape cutter (50, 60), said cutter having an inner diameter slightly larger than the outer diameter of the rod shape work pieces (WI, W2), and is movable in the axial direction of the main spindle; and is arranged in a region ahead of the main spindle and the first rod shape work piece (Wl) gripped by the main spindle; and is coupled with a cutter drive means in the form of an annular hydraulic or pneumatic cylinder provided on the front end portion of the casing of the main spindle so that the doughnut shape cutter (50, 60) is movable independently of the slide in the axial direction of the main spindle, and in that: the second work holding is a clamp unit equipped with an opposing pair of clamp pawls (35A, 35B) movable to and away from the slide in a direction perpendicular to the slide, and has an arcuate clamp portion (37a, 37a), formed on the opposing faces of the clamp jaws (35A, 35B), for gripping therebetween the second rod shape work piece, and a pocket portion (35a, 35a) formed in the opposing faces of the clamp pawls (35A, 35B) in association with the umbrella-shaped portion of the second rod shape work piece, an insertion hole, provided between the clamp pawls (35A, 35B), for enabling insertion/withdrawal of the second work piece thereinto/therefrom from one side of the slide, and a stopper, provided between the clamp pawls (35A, 35B), for defining a length of the workpiece to be inserted in the insertion hole to thereby regulate a forwardly projecting length d of the workpiece out of the clamp pawls (35A, 35B).