mhurhangee/ep-ind-claims huggingface dataset:
A fastener assembly for detachably coupling two structures (104, 108) together, the fastener assembly comprising: a stud configured to couple to a first structure such that the stud extends from the first structure when the stud is coupled to the first structure, a body configured to pivotally couple to a second structure different than the first structure, the body pivotable between a closed position in which the body is positioned adjacent the stud when coupled to the first structure and an open position in which the body is positioned aside from the first structure, the body defining at least one aperture for receiving the stud when the body is in the closed position, a fastener configured to detachably couple to the stud and force the body against the first structure when the body is in the closed position to detachably couple the first structure to the second structure, characterised by at least one gasket extending between the first structure and the second structure when the first structure is coupled to the second structure, wherein the body is defined by a top side and a bottom side, the fastener assembly further comprising a protrusion extending from the bottom side of the body, the protrusion configured to substantially align with the at least one gasket when the body is in the closed position. a stud configured to couple to a first structure such that the stud extends from the first structure when the stud is coupled to the first structure, a body configured to pivotally couple to a second structure different than the first structure, the body pivotable between a closed position in which the body is positioned adjacent the stud when coupled to the first structure and an open position in which the body is positioned aside from the first structure, the body defining at least one aperture for receiving the stud when the body is in the closed position, a fastener configured to detachably couple to the stud and force the body against the first structure when the body is in the closed position to detachably couple the first structure to the second structure, characterised by at least one gasket extending between the first structure and the second structure when the first structure is coupled to the second structure, wherein the body is defined by a top side and a bottom side, the fastener assembly further comprising a protrusion extending from the bottom side of the body, the protrusion configured to substantially align with the at least one gasket when the body is in the closed position.
An integrated energy absorbing system for a vehicle formed from a unitary cast metal part and comprising: a left wheel well and a right wheel well connected by a transverse support; at least one mount to a vehicle cabin frame; a second connection to a vehicle body panel or bumper; and a first crumple zone adjacent to the left wheel well and a second crumple zone adjacent to the right wheel well. a left wheel well and a right wheel well connected by a transverse support; at least one mount to a vehicle cabin frame; a second connection to a vehicle body panel or bumper; and a first crumple zone adjacent to the left wheel well and a second crumple zone adjacent to the right wheel well.
Composition containing a photostabilized combination of Butyl Methoxydibenzoylmethane (BMDBM), Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine (BEMT), and Methylene Bis-Benzotriazolyl Tetramethylbutylphenol (MBBT) wherein: i. the content of BEMT is comprised between 2% and 6% by weight with regard to the total weight of the composition, ii. the content of BMDBM is comprised between 1% and 5% by weight with regard to the total weight of the composition, iii. the BEMT/BMDBM mass ratio is greater than or equal to 1.5, iv. the quantity of MBBT is comprised between 3% and 7% by weight with regard to the total weight of the composition, said combination containing no octocrylene, PABA or ethylhexyl methoxycinnamate, and a pharmaceutically or cosmetically acceptable excipient. i. the content of BEMT is comprised between 2% and 6% by weight with regard to the total weight of the composition, ii. the content of BMDBM is comprised between 1% and 5% by weight with regard to the total weight of the composition, iii. the BEMT/BMDBM mass ratio is greater than or equal to 1.5, iv. the quantity of MBBT is comprised between 3% and 7% by weight with regard to the total weight of the composition,
A method, comprising: receiving, at a device in a network, network information associated with a plurality of nodes in the network; selecting a node for probing from the plurality of nodes based on a determination that the selected node is an outlier among the plurality of nodes according to the received network information, wherein the determination that the selected node is an outlier among the plurality of nodes comprises: calculating a weighted score associated with the selected node using a weighted score formula having dynamically adjustable parameters, wherein the dynamically adjustable parameters are set based on one of: instructions received from a centralized management node and a local determination at the device; sending a probe to the selected node; and receiving, at the device, a performance metric from the selected node in response to the probe. receiving, at a device in a network, network information associated with a plurality of nodes in the network; selecting a node for probing from the plurality of nodes based on a determination that the selected node is an outlier among the plurality of nodes according to the received network information, wherein the determination that the selected node is an outlier among the plurality of nodes comprises: calculating a weighted score associated with the selected node using a weighted score formula having dynamically adjustable parameters, wherein the dynamically adjustable parameters are set based on one of: instructions received from a centralized management node and a local determination at the device; sending a probe to the selected node; and receiving, at the device, a performance metric from the selected node in response to the probe.
A system for transmitting consumption measurement data from a utility meter to a remote monitoring location, the system comprising: an electronic meter register operable to accumulate data related to the flow of a commodity through the utility meter, the accumulated data being represented by an output data signal; a data transfer wire connected at a first end to the electronic meter register for receiving the output data signal, a second end of the data transfer wire including a first inductive coil enclosed within a connector module; and a communication device inductively coupled to the data transfer wire for receiving the output data signal, the communication device including electronic operating circuitry and an antenna positioned in a sealed enclosure, the electronic operating circuitry including an RF transmission circuit positioned within a sealed inner enclosure surrounded by an outer mounting shell that includes attachment openings, wherein the electronic operating circuitry and antenna transmit the accumulated data to the remote monitoring location, wherein the attachment openings of the communication device include a receptacle port sized to receive the connector module, the receptacle port being generally aligned with a second inductive coil contained within the sealed inner enclosure of the communication device, wherein the first inductive coil of the connector module is electrically spaced from the second inductive coil and inductively coupled to the second inductive coil when the connector module is received in the receptacle port. an electronic meter register operable to accumulate data related to the flow of a commodity through the utility meter, the accumulated data being represented by an output data signal; a data transfer wire connected at a first end to the electronic meter register for receiving the output data signal, a second end of the data transfer wire including a first inductive coil enclosed within a connector module; and a communication device inductively coupled to the data transfer wire for receiving the output data signal, the communication device including electronic operating circuitry and an antenna positioned in a sealed enclosure, the electronic operating circuitry including an RF transmission circuit positioned within a sealed inner enclosure surrounded by an outer mounting shell that includes attachment openings, wherein the electronic operating circuitry and antenna transmit the accumulated data to the remote monitoring location, wherein the attachment openings of the communication device include a receptacle port sized to receive the connector module, the receptacle port being generally aligned with a second inductive coil contained within the sealed inner enclosure of the communication device, wherein the first inductive coil of the connector module is electrically spaced from the second inductive coil and inductively coupled to the second inductive coil when the connector module is received in the receptacle port.
Method for controlling the speed of a hydraulic fan system comprising a fan operated by a hydraulic motor which is driven by a hydraulic variable displacement pump comprising a displacement volume adjusting element whose tilt angle can be adjusted by means of controlling a tilt current supplied to an electronic displacement control unit, the method comprising the following repetitive steps: a) Determining the volumetric flow rate of the pump by means of measuring operational parameters of the pump; b) Calculating a fan speed based on the volumetric flow rate determined in step a) using equations representing the physical correlation between the volumetric flow rate and the fan speed; c) Determining a fan speed error by comparing the calculated fan speed of step b) with a fan speed set value provided by an input device; d) Adapting the tilt current supplied to the electronic displacement control unit in order to adjust the tilt angle of the displacement volume adjusting element, such that the fan speed error is reduced, wherein the tilt current adaptation is calculated based on a fan speed error using a P-, PI-, PID-, Fuzzy- or a Predictive Controller or a similar type of linear or non-linear controller; characterized in that the following steps are executed simultaneously to the steps c) to d): e) Deriving an ideal tilt current value from the calculated fan speed of step b) f) Performing safety actions in order to prevent damage to the fan, if the difference between the ideal tilt current value derived in step e) and the adapted tilt current adapted in step d) is higher than a tilt current threshold value. a) Determining the volumetric flow rate of the pump by means of measuring operational parameters of the pump; b) Calculating a fan speed based on the volumetric flow rate determined in step a) using equations representing the physical correlation between the volumetric flow rate and the fan speed; c) Determining a fan speed error by comparing the calculated fan speed of step b) with a fan speed set value provided by an input device; d) Adapting the tilt current supplied to the electronic displacement control unit in order to adjust the tilt angle of the displacement volume adjusting element, such that the fan speed error is reduced, wherein the tilt current adaptation is calculated based on a fan speed error using a P-, PI-, PID-, Fuzzy- or a Predictive Controller or a similar type of linear or non-linear controller; characterized in that e) Deriving an ideal tilt current value from the calculated fan speed of step b) f) Performing safety actions in order to prevent damage to the fan, if the difference between the ideal tilt current value derived in step e) and the adapted tilt current adapted in step d) is higher than a tilt current threshold value.
An electrochemical gas sensor comprising an ionic liquid as electrolyte, characterized in that the ionic liquid comprises at least one cation selected from the group of a monoalkylammonium cation, a dialkylammonium cation, and a trialkylammonium cation, wherein the individual alkyl groups of the cation are branched or unbranched and have 1 to 4 carbon atoms, and wherein the individual alkyl groups of the cation are the same or different in case of the dialkylammonium cation and the trialkylammonium cation.
An electronic appliance powered by a power supply unit connected to a mains type electricity network, and for connection to a transmission line (5, 3) having two conductor elements (6, 7), and to a terminal in order to transfer data between the line (5, 3) and the terminal, the appliance comprising: • a front-end component connected to the line via an isolating transformer; • various additional components (8, 30, C 1a, C 1b, C 2, C 5) connected to an electrical ground of the appliance; • a discharge component such as a three-pole gas discharger connected to the conductor elements (6, 7) of the line and that becomes conductive in the event of a voltage surge due to the line (5, 3) being struck by lightning, thereby eliminating the surge by establishing a flow of current from the line to electrical ground so as to protect the components situated downstream of this protection, such as the transformer or the front-end component; and • a capacitive and/or resistive type divider component (C 4) interposed between the discharge component and electrical ground in order to co-operate with the power supply unit and/or one or more additional components to constitute a divider bridge, whereby the voltage imposed on the electrical ground of the appliance in the event of lightning is less than the surge to which the conductor elements (6, 7) of the line are subjected so as to provide protection also to the additional components (8, 30, C 1a, C 1b, C 2, C 5). • a front-end component connected to the line via an isolating transformer; • various additional components (8, 30, C 1a, C 1b, C 2, C 5) connected to an electrical ground of the appliance; • a discharge component such as a three-pole gas discharger connected to the conductor elements (6, 7) of the line and that becomes conductive in the event of a voltage surge due to the line (5, 3) being struck by lightning, thereby eliminating the surge by establishing a flow of current from the line to electrical ground so as to protect the components situated downstream of this protection, such as the transformer or the front-end component; and • a capacitive and/or resistive type divider component (C 4) interposed between the discharge component and electrical ground in order to co-operate with the power supply unit and/or one or more additional components to constitute a divider bridge, whereby the voltage imposed on the electrical ground of the appliance in the event of lightning is less than the surge to which the conductor elements (6, 7) of the line are subjected so as to provide protection also to the additional components (8, 30, C 1a, C 1b, C 2, C 5).
An intelligent connection method comprising: establishing an attraction force among two components having connection points or pins, wherein, the first component, is configured to align its orientation with respect to the second component, abut its connection points or pins to those connection points or pins of the second component, form a secure physical connection among the first and the second components via automatically connecting, snapping or securing together the first component and the second component; wherein said attraction force commences upon: receiving of an attract signal by the first component from the second component; generating of an attract signal by the first component; receiving an attract signal by the first component from another component or a network or a combination thereof; and wherein said attraction force is established in an autonomous manner. establishing an attraction force among two components having connection points or pins, wherein, the first component, is configured to align its orientation with respect to the second component, abut its connection points or pins to those connection points or pins of the second component, form a secure physical connection among the first and the second components via automatically connecting, snapping or securing together the first component and the second component; wherein said attraction force commences upon: receiving of an attract signal by the first component from the second component; generating of an attract signal by the first component; receiving an attract signal by the first component from another component or a network or a combination thereof; and wherein said attraction force is established in an autonomous manner. receiving of an attract signal by the first component from the second component; generating of an attract signal by the first component; receiving an attract signal by the first component from another component or a network or a combination thereof; and wherein said attraction force is established in an autonomous manner.
An in vitro method for producing infectious influenza viruses, wherein said method comprises the steps consisting of: a) transfecting a mixture of Vero cells and CHO cells with a set of expression vectors to generate a seed of infectious influenza virus, b) infecting CHO cells with said seed of infectious influenza virus. a) transfecting a mixture of Vero cells and CHO cells with a set of expression vectors to generate a seed of infectious influenza virus, b) infecting CHO cells with said seed of infectious influenza virus.
A method for the extraction of molybdenum, the method comprising the following steps carried out in the following sequence: transferring an irradiated fuel solution to an extraction system, the irradiated fuel solution comprising iodine and molybdenum and other fission products, the extraction system comprising at least one extraction column containing a sorbent; passing the irradiated fuel solution upwards through the at least one extraction column containing the sorbent, wherein the sorbent in the extraction column captures molybdenum in a sorbent loading phase; directing the irradiated fuel solution from the at least one extraction column towards a fuel management system by means of at least one discharge alignment valve; at completion of the sorbent loading phase, repositioning the at least one discharge alignment valve to align effluent of the at least one extraction columns with a radioactive waste management system of the extraction system; directing HNO 3 from a HNO 3 supply tank through the at least one extraction column to a HNO 3 wash collection tank; repositioning the at least one discharge alignment valve to align the effluent of the at least one extraction columns with a purification system inlet; opening an NaOH supply valve; stripping the molybdenum from the sorbent in the at least one extraction column with NaOH to yield a NaOH-based extraction column eluate; directing the extraction column eluate towards an iodine removal system; removing the iodine from the extraction column eluate; purifying the extraction column eluate; and collecting the purified eluate. transferring an irradiated fuel solution to an extraction system, the irradiated fuel solution comprising iodine and molybdenum and other fission products, the extraction system comprising at least one extraction column containing a sorbent; passing the irradiated fuel solution upwards through the at least one extraction column containing the sorbent, wherein the sorbent in the extraction column captures molybdenum in a sorbent loading phase; directing the irradiated fuel solution from the at least one extraction column towards a fuel management system by means of at least one discharge alignment valve; at completion of the sorbent loading phase, repositioning the at least one discharge alignment valve to align effluent of the at least one extraction columns with a radioactive waste management system of the extraction system; directing HNO 3 from a HNO 3 supply tank through the at least one extraction column to a HNO 3 wash collection tank; repositioning the at least one discharge alignment valve to align the effluent of the at least one extraction columns with a purification system inlet; opening an NaOH supply valve; stripping the molybdenum from the sorbent in the at least one extraction column with NaOH to yield a NaOH-based extraction column eluate; directing the extraction column eluate towards an iodine removal system; removing the iodine from the extraction column eluate; purifying the extraction column eluate; and collecting the purified eluate.
A pharmaceutical composition for use in a method of treating pelvic floor dysfunction in a female subject or promoting recovery of pelvic floor muscles in a postpartum female subject comprising zinc, leucine, and omega-3 fatty acids, wherein the composition is formulated for oral delivery.
Microgyroscope for determining rotational movements around an x-, y- or z-axis, comprising: a substrate on which at least one anchor is fastened, a plurality of oscillating masses, each of said oscillating masses being fastened to the anchor by means of springs, driving elements for the oscillating swinging of at least individual ones of said masses in x-direction and/or further at least individual ones of said masses in y-direction, in order to generate Coriolis forces when the substrate is deflected around the x-axis, y-axis and/or z-axis, and sensor elements for detecting the deflections of said masses being caused due to said Coriolis forces generated by the rotational movements around the x-axis and/or the y-axis, and at least one additional mass, whereas the oscillating masses are connected to the at least one additional mass, the driven oscillating masses oscillate radially in relation to the anchor the additional mass is connected to the oscillating driven masses such that they are rotatable together around the at least one anchor around the z-axis the additional mass surrounds the oscillating driven masses as a ring or frame, and a further sensor element is assigned to said ring or frame for detecting a deflection of the substrate around the z-direction. a substrate on which at least one anchor is fastened, a plurality of oscillating masses, each of said oscillating masses being fastened to the anchor by means of springs, driving elements for the oscillating swinging of at least individual ones of said masses in x-direction and/or further at least individual ones of said masses in y-direction, in order to generate Coriolis forces when the substrate is deflected around the x-axis, y-axis and/or z-axis, and sensor elements for detecting the deflections of said masses being caused due to said Coriolis forces generated by the rotational movements around the x-axis and/or the y-axis, and at least one additional mass, whereas the oscillating masses are connected to the at least one additional mass, the driven oscillating masses oscillate radially in relation to the anchor the additional mass is connected to the oscillating driven masses such that they are rotatable together around the at least one anchor around the z-axis the additional mass surrounds the oscillating driven masses as a ring or frame, and a further sensor element is assigned to said ring or frame for detecting a deflection of the substrate around the z-direction.