mhurhangee/ep-ind-claims huggingface dataset:
A wound dressing apparatus comprising: a substrate comprising a first side of the substrate supporting a plurality of electronic components, electronic tracks, and a plurality of connectors between the electronic components and electronic tracks, wherein the substrate is flexible in order to be conformable to a wound; a first coating on the first side of the substrate applied to at least one connector of the plurality of connectors to reinforce the at least one connector; a second coating on the first side of the substrate; a third coating on a second side of the substrate opposite the first side; and a fourth coating applied over at least some of the plurality of the electronic components. a substrate comprising a first side of the substrate supporting a plurality of electronic components, electronic tracks, and a plurality of connectors between the electronic components and electronic tracks, wherein the substrate is flexible in order to be conformable to a wound; a first coating on the first side of the substrate applied to at least one connector of the plurality of connectors to reinforce the at least one connector; a second coating on the first side of the substrate; a third coating on a second side of the substrate opposite the first side; and a fourth coating applied over at least some of the plurality of the electronic components.
An additive for use in lubricants comprising a reaction product of: a thiadiazole dimer selected as one or more of formula, or: where Z is hydrogen, and wherein n is 1 to 2; and a poly(ether)glycol having formula: where F is selected from the group consisting of a hydroxyl radical, a branched or straight chain C 1 to C 20 alkoxyl radical, a branched or straight chain C 1 to C 20 alkylcarboxyl radical, a mono-substituted, di-substituted, or tri-substituted glycerol residue, hydrogen, and combinations thereof; where R 3 is selected from the group consisting of hydrogen, a methyl radical, and combinations thereof; where R 4 is selected from the group consisting of hydrogen, a branched or straight chain C 1 to C 20 alkyl radical, a phenyl radical, a C 1 to C 8 branched or straight chain alkyl-substituted-phenyl radical, a C 1 to C 20 branched or straight chain acyl radical, and combinations thereof; and wherein q is 1 to 300. a thiadiazole dimer selected as one or more of formula, or: where Z is hydrogen, and wherein n is 1 to 2; and a poly(ether)glycol having formula: where F is selected from the group consisting of a hydroxyl radical, a branched or straight chain C 1 to C 20 alkoxyl radical, a branched or straight chain C 1 to C 20 alkylcarboxyl radical, a mono-substituted, di-substituted, or tri-substituted glycerol residue, hydrogen, and combinations thereof; where R 3 is selected from the group consisting of hydrogen, a methyl radical, and combinations thereof; where R 4 is selected from the group consisting of hydrogen, a branched or straight chain C 1 to C 20 alkyl radical, a phenyl radical, a C 1 to C 8 branched or straight chain alkyl-substituted-phenyl radical, a C 1 to C 20 branched or straight chain acyl radical, and combinations thereof; and wherein q is 1 to 300.
A concealment system (200, 300) configured to be concealed within a host device for covert surveillance, the concealment system (200, 300) comprising: a housing configured to be concealed within a host device for covert surveillance, the housing enclosing: a processor; at least one sensor interface (306, 308, 310) electrically coupled to the processor, the sensor interface (306, 308, 310) configured to connect to at least one external sensor being separate from the housing for capturing information; a real-time clock electrically coupled to the processor, the real time clock configured to generate timestamps; a tamper protection module electrically coupled to the processor, the tamper protection module configured to: receive the captured information from the at least one sensor interface (306, 308, 310), add the timestamps generated by the real-time clock to the captured information, and encrypt the captured information; at least one wireless communication module electrically coupled to the processor, the at least one wireless communication module configured to wirelessly connect to at least one wireless communication antenna to transmit the encrypted captured information to a remote device; and rewritable memory electrically coupled to the processor, the rewritable memory configured to store the encrypted captured information. a processor; at least one sensor interface (306, 308, 310) electrically coupled to the processor, the sensor interface (306, 308, 310) configured to connect to at least one external sensor being separate from the housing for capturing information; a real-time clock electrically coupled to the processor, the real time clock configured to generate timestamps; a tamper protection module electrically coupled to the processor, the tamper protection module configured to: receive the captured information from the at least one sensor interface (306, 308, 310), add the timestamps generated by the real-time clock to the captured information, and encrypt the captured information; receive the captured information from the at least one sensor interface (306, 308, 310), add the timestamps generated by the real-time clock to the captured information, and encrypt the captured information; at least one wireless communication module electrically coupled to the processor, the at least one wireless communication module configured to wirelessly connect to at least one wireless communication antenna to transmit the encrypted captured information to a remote device; and rewritable memory electrically coupled to the processor, the rewritable memory configured to store the encrypted captured information.
A continuous process for producing an insulated pipe comprising at least one pipe for a medium, an outer pipe, a layer of at least one polyurethane between the at least one pipe for a medium and outer pipe and a film tube between the at least one polyurethane and the outer pipe, which comprises at least the steps: provision, in a jaw band, of at least one pipe for a medium and a film tube formed continuously from a film, where the at least one pipe for a medium is arranged within the film tube in such a way that a gap is formed between the at least one pipe for a medium and the film tube, introduction of a polyurethane system comprising at least one isocyanate component (a) and at least one polyol (b) into the gap, foaming and allowing curing of the polyurethane system and application of a layer of at least one material to the film tube in order to form the outer pipe, wherein the polyurethane system has thixotropic properties, and at least one thixotrope is added to the polyurethane system before or during step. provision, in a jaw band, of at least one pipe for a medium and a film tube formed continuously from a film, where the at least one pipe for a medium is arranged within the film tube in such a way that a gap is formed between the at least one pipe for a medium and the film tube, introduction of a polyurethane system comprising at least one isocyanate component (a) and at least one polyol (b) into the gap, foaming and allowing curing of the polyurethane system and application of a layer of at least one material to the film tube in order to form the outer pipe,
A method comprising: receiving prediction information corresponding to a predicted utilization value for each of a plurality of cores of a processor package during a next operation interval, the next operation interval corresponding to a utilization cycle for the processor package; setting a delay period for the processor package during the next operation interval in which the processor package is to be in a package low power state, in which the plurality of cores are inactive, based on the prediction information; and causing the processor package to enter into the package low power state for the delay period and thereafter causing the processor package to enter into a package active state for an active period of the next operation interval, a length of the active period corresponding to a difference between a length of the next operation interval and a length of the delay period, the length of the active period corresponding to a duration sufficient to execute tasks and break events scheduled to a core of the plurality of cores having a greatest predicted utilization value for the next operational interval, the delay period extending from a beginning of the next operation interval to a beginning of the active period, including rescheduling all break events and tasks to be executed on the plurality of cores from the delay period to the active period. receiving prediction information corresponding to a predicted utilization value for each of a plurality of cores of a processor package during a next operation interval, the next operation interval corresponding to a utilization cycle for the processor package; setting a delay period for the processor package during the next operation interval in which the processor package is to be in a package low power state, in which the plurality of cores are inactive, based on the prediction information; and causing the processor package to enter into the package low power state for the delay period and thereafter causing the processor package to enter into a package active state for an active period of the next operation interval, a length of the active period corresponding to a difference between a length of the next operation interval and a length of the delay period, the length of the active period corresponding to a duration sufficient to execute tasks and break events scheduled to a core of the plurality of cores having a greatest predicted utilization value for the next operational interval, the delay period extending from a beginning of the next operation interval to a beginning of the active period, including rescheduling all break events and tasks to be executed on the plurality of cores from the delay period to the active period.
A compound of the formula I: wherein: A represents R represents H or C 1-6 alkyl; R 1 is selected from the groups consisting of (CH 2) n C 1-4 haloalkyl, C 1-6 alkyl, C 3-6 cycloalkyl, C 6-10 aryl, said alkyl cycloalkyl, and aryl is unsubstituted or substituted with 1 to 3 groups of R a; R 2 is selected from the group consisting of H, O-R, CN, O(CH 2) n OR, OCHR(CH 2) n OR, SR, SO 2 R, S R, N 2, C N 2, C 1-3 haloalkyl, O(CH 2) n C 1-3 haloalkyl, O(CH 2) n C 3-6 cycloalkyl, (CH 2) n C 5-10 heterocycle, C 1-6 alkyl, and C 3-10 cycloalkyl, said alkyl, cycloalkyl, and heterocycle is unsubstituted or substituted with 1 to 3 groups of R a; R a is selected from the group consisting of: halogen, hydroxyl, C 1-6 alkyl, -(CH 2) n O-R, (CH 2) n C 6-10 aryl, (CH 2) n C 5-10 heterocycle, OC 1-5 haloalkyl; CO 2 R; C N 2; (CH 2) n C R; CN, (CH 2) n N 2; (CH 2) n C 3-6 cycloalkyl, (CH 2) n C 1-3 haloalkyl; n represents 0-4, or a pharmaceutically acceptable salt thereof. A represents R represents H or C 1-6 alkyl; R 1 is selected from the groups consisting of (CH 2) n C 1-4 haloalkyl, C 1-6 alkyl, C 3-6 cycloalkyl, C 6-10 aryl, said alkyl cycloalkyl, and aryl is unsubstituted or substituted with 1 to 3 groups of R a; R 2 is selected from the group consisting of H, O-R, CN, O(CH 2) n OR, OCHR(CH 2) n OR, SR, SO 2 R, S R, N 2, C N 2, C 1-3 haloalkyl, O(CH 2) n C 1-3 haloalkyl, O(CH 2) n C 3-6 cycloalkyl, (CH 2) n C 5-10 heterocycle, C 1-6 alkyl, and C 3-10 cycloalkyl, said alkyl, cycloalkyl, and heterocycle is unsubstituted or substituted with 1 to 3 groups of R a; R a is selected from the group consisting of: halogen, hydroxyl, C 1-6 alkyl, -(CH 2) n O-R, (CH 2) n C 6-10 aryl, (CH 2) n C 5-10 heterocycle, OC 1-5 haloalkyl; CO 2 R; C N 2; (CH 2) n C R; CN, (CH 2) n N 2; (CH 2) n C 3-6 cycloalkyl, (CH 2) n C 1-3 haloalkyl; halogen, hydroxyl, C 1-6 alkyl, -(CH 2) n O-R, (CH 2) n C 6-10 aryl, (CH 2) n C 5-10 heterocycle, OC 1-5 haloalkyl; CO 2 R; C N 2; (CH 2) n C R; CN, (CH 2) n N 2; (CH 2) n C 3-6 cycloalkyl, (CH 2) n C 1-3 haloalkyl; n represents 0-4, or a pharmaceutically acceptable salt thereof.
A nacelle for a wind turbine, the nacelle comprising: - a nacelle housing; - a rotor hub; - a rotor bearing for bearing the rotor hub on the nacelle housing, wherein the rotor bearing comprises a sliding bearing, the sliding bearing comprising: - an inner ring element; - an outer ring element; - at least one sliding bearing element, which is arranged between the inner ring element and the outer ring element, wherein the sliding bearing element has multiple sliding bearing pads, characterized in that the individual sliding bearing pads each have a bearing surface, which is configured in the shape of a spherical cap. - a nacelle housing; - a rotor hub; - a rotor bearing for bearing the rotor hub on the nacelle housing, wherein the rotor bearing comprises a sliding bearing, the sliding bearing comprising: - an inner ring element; - an outer ring element; - at least one sliding bearing element, which is arranged between the inner ring element and the outer ring element, the sliding bearing element has multiple sliding bearing pads, characterized in that the individual sliding bearing pads each have a bearing surface, which is configured in the shape of a spherical cap.
A polymer specimen container for specimens that must be held close to a stable 37 degrees Celsius, especially during critical procedures such as IVF, wherein the specimens are selected from spermatozoa, sperm precursor cells, oocytes, pre-implantation embryos, zygotes, blastocysts, embryonic cells and stem cells, said polymer specimen container comprising: - a specimen carrier, said specimen carrier comprising a bottom base externally flat connected to a wall, said wall comprising an open hollow structure comprising recesses and ridges (11,12,15,16) wherein an outermost wall (2, 10) being part of said open hollow wall structure has its lowest level above the lowest level of said bottom base externally flat, and further comprising - a lid, said lid comprising a top and a bottom surface, wherein said top surface comprises protrusions (19,20) complementary to at least one of said recesses or ridges (11,12,15,16) in said open hollow wall structure, thereby avoiding scratching of the bottom base during stacking of said polymer specimen containers. - a specimen carrier, said specimen carrier comprising a bottom base externally flat connected to a wall, said wall comprising an open hollow structure comprising recesses and ridges (11,12,15,16) wherein an outermost wall (2, 10) being part of said open hollow wall structure has its lowest level above the lowest level of said bottom base externally flat, and further comprising - a lid, said lid comprising a top and a bottom surface, wherein said top surface comprises protrusions (19,20) complementary to at least one of said recesses or ridges (11,12,15,16) in said open hollow wall structure, thereby avoiding scratching of the bottom base during stacking of said polymer specimen containers.
A system comprising: a user interface configured to receive a selection of a first target neuromodulation field location and a spatial stimulation pattern; control circuitry configured to determine a sequence of target neuromodulation field locations (a, b, c,...) based on the selected first target neuromodulation field location and the selected spatial stimulation pattern, the control circuitry being further configured to determine a neuromodulation waveform for each electrode (E1-E16) in a plurality of stimulation electrodes for each of the determined target neuromodulation field locations; and waveform circuitry configured to generate a signal corresponding to the determined neuromodulation waveforms for the plurality of stimulation electrodes (1570, E1-E16) to provide the stimulation pattern to a patient to provide a therapy, wherein the spatial stimulation pattern includes a time varying spatial pattern. a user interface configured to receive a selection of a first target neuromodulation field location and a spatial stimulation pattern; control circuitry configured to determine a sequence of target neuromodulation field locations (a, b, c,...) based on the selected first target neuromodulation field location and the selected spatial stimulation pattern, the control circuitry being further configured to determine a neuromodulation waveform for each electrode (E1-E16) in a plurality of stimulation electrodes for each of the determined target neuromodulation field locations; and waveform circuitry configured to generate a signal corresponding to the determined neuromodulation waveforms for the plurality of stimulation electrodes (1570, E1-E16) to provide the stimulation pattern to a patient to provide a therapy, wherein the spatial stimulation pattern includes a time varying spatial pattern.
A sprinkler device for a condenser of a washer-dryer, characterized by comprising: a body defining a water input passage, a water output passage, and an anti-siphon chamber therein, the anti-siphon chamber being communicated between the water input passage and the water output passage, and the body being provided with a spout in communication with the water output passage; a water dividing member provided in the anti-siphon chamber, and defining a plurality of flow passages configured to be communicated with the water input passage and the water output passage; an anti-siphon diaphragm provided in the anti-siphon chamber, located at a side of the water dividing member facing the water input passage, and configured to move to an open position under the impact of an influent water flow, wherein the flow passages are communicated with the water input passage when the anti-siphon diaphragm is in the open position, and the flow passages are disconnected from the water input passage when the anti-siphon diaphragm is in a closed position; and wherein the body comprises a plurality of spouts provided and spaced apart along a circumferential direction of the water output passage. a body defining a water input passage, a water output passage, and an anti-siphon chamber therein, the anti-siphon chamber being communicated between the water input passage and the water output passage, and the body being provided with a spout in communication with the water output passage; a water dividing member provided in the anti-siphon chamber, and defining a plurality of flow passages configured to be communicated with the water input passage and the water output passage; an anti-siphon diaphragm provided in the anti-siphon chamber, located at a side of the water dividing member facing the water input passage, and configured to move to an open position under the impact of an influent water flow, wherein the flow passages are communicated with the water input passage when the anti-siphon diaphragm is in the open position, and the flow passages are disconnected from the water input passage when the anti-siphon diaphragm is in a closed position; and wherein the body comprises a plurality of spouts provided and spaced apart along a circumferential direction of the water output passage.
An anti-icing system for a gas turbine system, the anti-icing system comprising: a plurality of nozzles, wherein each nozzle of the plurality of nozzles comprises one or more outlets that are configured to inject a heated fluid into an airflow within an air intake conduit; and a plurality of plates disposed upstream of the one or more outlets, wherein each plate of the plurality of plates extends laterally across the air intake conduit and is vertically spaced apart from one or more adjacent plates to define one or more vertically-extending gaps, and the plurality of plates is configured to direct the airflow through the one or more vertically-extending gaps to spread the airflow upstream of the one or more outlets to facilitate mixing of the heated fluid and the airflow, characterized in that a respective height of at least one plate of the plurality of plates causes the at least one plate of the plurality of plates to extend vertically across two vertically-stacked rows of the plurality of nozzles. a plurality of nozzles, wherein each nozzle of the plurality of nozzles comprises one or more outlets that are configured to inject a heated fluid into an airflow within an air intake conduit; and a plurality of plates disposed upstream of the one or more outlets, wherein each plate of the plurality of plates extends laterally across the air intake conduit and is vertically spaced apart from one or more adjacent plates to define one or more vertically-extending gaps, and the plurality of plates is configured to direct the airflow through the one or more vertically-extending gaps to spread the airflow upstream of the one or more outlets to facilitate mixing of the heated fluid and the airflow, characterized in that a respective height of at least one plate of the plurality of plates causes the at least one plate of the plurality of plates to extend vertically across two vertically-stacked rows of the plurality of nozzles.
A method for producing a suspension of agglomerates of magnetic alkoxysilane-coated metal nanoparticles, wherein an aqueous suspension of magnetic metal nanoparticles is incubated with alkoxysilane, characterized in that said incubation is carried out in the absence of added organic solvent, wherein the alkoxysilane is trialkoxysilane and wherein 0.3 to 0.6 x 10 -3 mol trialkoxlysilane is added per 0.9 mol metal.
A system comprising: a transmitter having transmit pre-emphasis circuitry (143, 147) including a plurality of first filter taps; a channel coupled to the transmit pre-emphasis circuitry (143, 147); and a receiver coupled to the transmit pre-emphasis circuitry (143, 147) via the channel, the receiver having a decision-feedback equalizer having one or more second filter taps; characterized in that the system supports at least two different equalization modes, including a first, high-power mode where the decision-feedback equalizer is operated, wherein a first number of the second filter taps is enabled, and a second, low-power mode for saving power where the transmit pre-emphasis circuitry (143, 147) is operated and at least one of the second filter taps of the decision-feedback equalizer is deactivated such that a second number, smaller than the first number, of the second filter taps is enabled; and wherein the transmitter is to receive from the receiver a measure of signal quality, and is to automatically select in the transmitter the first or the second mode in response to the measure of signal quality. a transmitter having transmit pre-emphasis circuitry (143, 147) including a plurality of first filter taps; a channel coupled to the transmit pre-emphasis circuitry (143, 147); and a receiver coupled to the transmit pre-emphasis circuitry (143, 147) via the channel, the receiver having a decision-feedback equalizer having one or more second filter taps; a first, high-power mode where the decision-feedback equalizer is operated, wherein a first number of the second filter taps is enabled, and a second, low-power mode for saving power where the transmit pre-emphasis circuitry (143, 147) is operated and at least one of the second filter taps of the decision-feedback equalizer is deactivated such that a second number, smaller than the first number, of the second filter taps is enabled; and wherein the transmitter is to receive from the receiver a measure of signal quality, and is to automatically select in the transmitter the first or the second mode in response to the measure of signal quality.