mhurhangee/ep-ind-claims huggingface dataset:
A guidance system for injecting therapeutic agents into the eye, the guidance system comprising: a connector for connecting to a hypodermic needle; a sheath which in use surrounds the hypodermic needle; a biasing device, between the connector and the sheath; wherein the sheath is moveable between a first position into which it is biased by the biasing device and a second retracted position against the force of the biasing device, so that in use, the tip of the hypodermic needle is covered in the first position but a defined length of the hypodermic needle is exposed in the second position; and characterised in that the system is further provided with a distance gauge to position the hypodermic needle a set distance from a fixed location, wherein the distance gauge comprises an arm connected to a convex side of a C-shaped tip, the arm being mounted on the sheath. a connector for connecting to a hypodermic needle; a sheath which in use surrounds the hypodermic needle; a biasing device, between the connector and the sheath; wherein the sheath is moveable between a first position into which it is biased by the biasing device and a second retracted position against the force of the biasing device, so that in use, the tip of the hypodermic needle is covered in the first position but a defined length of the hypodermic needle is exposed in the second position; and characterised in that the system is further provided with a distance gauge to position the hypodermic needle a set distance from a fixed location, wherein the distance gauge comprises an arm connected to a convex side of a C-shaped tip, the arm being mounted on the sheath.
A resin pellet comprising: a polyamide resin; and unreacted carbodiimide groups, wherein the percentage of the unreacted carbodiimide groups in the resin pellet is 0.03% to 0.33% by mass, wherein determining the mass percentage of the carbodiimide groups involves cutting a thin piece from the pellet, measuring the intensity of the carbodiimide groups (-N=C=N-) by passing infrared rays through the thin piece, and quantifying the concentration of the carbodiimide groups in the thin piece by Lambert-Beer's law. a polyamide resin; and unreacted carbodiimide groups, wherein the percentage of the unreacted carbodiimide groups in the resin pellet is 0.03% to 0.33% by mass, wherein determining the mass percentage of the carbodiimide groups involves cutting a thin piece from the pellet, measuring the intensity of the carbodiimide groups (-N=C=N-) by passing infrared rays through the thin piece, and quantifying the concentration of the carbodiimide groups in the thin piece by Lambert-Beer's law.
A method of communication at a base station, comprising: allocating, in a downlink carrier comprising a plurality of resource blocks over a plurality of subframes, a first set of resource elements for cell-specific reference signals, CRS, associated with communication with one or more communication devices of a first type; allocating resources of a resource block of the plurality of resource blocks to a narrow-band physical channel for communication with one or more communication devices of a second type, the allocated resources being rate-matched around the first set of resource elements and a second set of resource elements allocated to narrow-band CRS, NB-CRS, associated with communication with the one or more communication devices of the second type, wherein determining to rate-match is based on an in-band deployment mode of the narrow-band physical channel; and transmitting information to the one or more communication devices of the second type mapped to a subset of the allocated resources of the narrow-band physical channel, wherein the transmitting is based in part on a transmit diversity that is based in part on a space frequency block coding, SFBC, scheme that is common to both a narrowband physical downlink control channel, NB-PDCCH, and narrowband physical downlink shared channel, NB-PDSCH. allocating, in a downlink carrier comprising a plurality of resource blocks over a plurality of subframes, a first set of resource elements for cell-specific reference signals, CRS, associated with communication with one or more communication devices of a first type; allocating resources of a resource block of the plurality of resource blocks to a narrow-band physical channel for communication with one or more communication devices of a second type, the allocated resources being rate-matched around the first set of resource elements and a second set of resource elements allocated to narrow-band CRS, NB-CRS, associated with communication with the one or more communication devices of the second type, wherein determining to rate-match is based on an in-band deployment mode of the narrow-band physical channel; and transmitting information to the one or more communication devices of the second type mapped to a subset of the allocated resources of the narrow-band physical channel, wherein the transmitting is based in part on a transmit diversity that is based in part on a space frequency block coding, SFBC, scheme that is common to both a narrowband physical downlink control channel, NB-PDCCH, and narrowband physical downlink shared channel, NB-PDSCH.
Device for controlling the movement of a transporting device for controlling the movement of a transportation device of an agricultural machine with at least one position sensor for detecting at least one specific position and at least one travel sensor for detecting the distance travelled by the transportation device, characterized in that two position sensors which are spaced apart from one another in the direction of movement of the transportation device and which interact with the reference part on the transportation device are provided, wherein the two position sensors are located opposite one another in a specific position and wherein the reference parts are arranged in such a way that the transportation device is located precisely in the centre of a rotating winding arm assembly when a signal is generated.
A method of operating an electronic device comprising a first processor, a second processor, a non-volatile memory, an internal battery and an internal coil for generating current through electromagnetic induction, wherein a power requirement of the second processor is lower than a power requirement of the first processor, the method comprising: when a charge level of the internal battery is above a threshold charge level: executing, by the first processor, a plurality of tasks; and storing, by the first processor, data concerning at least one of the tasks to the non-volatile memory; when the charge level of the internal battery is below the threshold charge level: in response to receiving electrical power from the internal coil: i) retrieving, by the second processor, the data concerning the at least one task from the non-volatile memory; and ii) executing, by the second processor, the at least one task. when a charge level of the internal battery is above a threshold charge level: executing, by the first processor, a plurality of tasks; and storing, by the first processor, data concerning at least one of the tasks to the non-volatile memory; when the charge level of the internal battery is below the threshold charge level: in response to receiving electrical power from the internal coil: i) retrieving, by the second processor, the data concerning the at least one task from the non-volatile memory; and ii) executing, by the second processor, the at least one task.
A method for wireless communications at a user equipment, UE, comprising: identifying (1205, 1305, 1405) a Quality of Service, QoS, flow mapped to a first radio bearer, the first radio bearer distinct from a default radio bearer; receiving (1210, 1310, 1410) configuration information related to a second radio bearer, the second radio bearer distinct from the default radio bearer, and the configuration information comprising an indication of an addition of the QoS flow to the second radio bearer; determining (1215, 1315, 1415) a release procedure for the QoS flow from the first radio bearer based at least in part on the configuration information comprising the indication of the addition of the QoS flow to the second radio bearer; determining (1330, 1430) that the release procedure comprises a remapping procedure based at least in part on the addition of the QoS flow to the second radio bearer; and releasing (1220, 1320, 1420) the QoS flow from the first radio bearer in accordance with the determined release procedure. identifying (1205, 1305, 1405) a Quality of Service, QoS, flow mapped to a first radio bearer, the first radio bearer distinct from a default radio bearer; receiving (1210, 1310, 1410) configuration information related to a second radio bearer, the second radio bearer distinct from the default radio bearer, and the configuration information comprising an indication of an addition of the QoS flow to the second radio bearer; determining (1215, 1315, 1415) a release procedure for the QoS flow from the first radio bearer based at least in part on the configuration information comprising the indication of the addition of the QoS flow to the second radio bearer; determining (1330, 1430) that the release procedure comprises a remapping procedure based at least in part on the addition of the QoS flow to the second radio bearer; and releasing (1220, 1320, 1420) the QoS flow from the first radio bearer in accordance with the determined release procedure.
A solar chimney for capturing and storing solar and wind energy, comprising an elongated chimney, and means for collecting solar radiation so as to heat air in the chimney to produce updrafts capable of performing useful work, the chimney having an inlet end and an outlet end, the chimney including an internal turbine positioned in a vicinity of the inlet end, the internal turbine being connected to drive an electrical generator, wherein the means for collecting solar radiation is located downstream of the internal turbine, characterized in that the solar chimney further comprises: a) a vertical axis wind turbine (8 and 9), mounted to the chimney in a vicinity of the outlet end of the chimney, the vertical axis wind turbine being connected to a generator for producing electric power for heating a fluid, b) the heated fluid being used to drive an external turbine, c) wherein waste heat from the external turbine is connected to a heat exchanger located within the chimney, d) a solar collector, located outside the chimney, the solar collector being connected to heat a fluid, wherein the heated fluid is directed to another turbine (105-3A, -3B), and wherein waste heat from the turbine is connected to a heat exchanger located within the chimney, a) a vertical axis wind turbine (8 and 9), mounted to the chimney in a vicinity of the outlet end of the chimney, the vertical axis wind turbine being connected to a generator for producing electric power for heating a fluid, b) the heated fluid being used to drive an external turbine, c) wherein waste heat from the external turbine is connected to a heat exchanger located within the chimney, d) a solar collector, located outside the chimney, the solar collector being connected to heat a fluid, wherein the heated fluid is directed to another turbine (105-3A, -3B), and wherein waste heat from the turbine is connected to a heat exchanger located within the chimney,
An optoelectronic device comprising: a semiconductor silicon substrate, non-doped or doped with a first conductivity type; a first doped semiconductor silicon region (14; 14 1, 14 2), electrically connected to the substrate, extending inside of the substrate or on top of the substrate in contact with the substrate, of the first conductivity type or of a second conductivity type opposite to the first type, and more heavily doped than the substrate, the first semiconductor region comprising a surface; seed pads or a seed layer in contact with the first semiconductor region and resting on the surface; a first assembly (A; A1, A2) of first light-emitting diodes (DEL; DEL 1, DEL 2) supported by the first semiconductor region, the first light-emitting diodes comprising semiconductor elements, mainly made of a III-V compound, having a wire, conical, or tapered shape and in contact with the seed pads or with the seed layer and comprising active layers covering the lateral faces of the semiconductor elements; a conductive portion (36; 36 1, 36 2) in contact with the first semiconductor region; and a second semiconductor region (98; 103) electrically connected to the substrate and distant from the first semiconductor region, of the same conductivity type as the first semiconductor region, more heavily doped than the substrate, and connected to a first electrode of the first light-emitting diodes. a semiconductor silicon substrate, non-doped or doped with a first conductivity type; a first doped semiconductor silicon region (14; 14 1, 14 2), electrically connected to the substrate, extending inside of the substrate or on top of the substrate in contact with the substrate, of the first conductivity type or of a second conductivity type opposite to the first type, and more heavily doped than the substrate, the first semiconductor region comprising a surface; seed pads or a seed layer in contact with the first semiconductor region and resting on the surface; a first assembly (A; A1, A2) of first light-emitting diodes (DEL; DEL 1, DEL 2) supported by the first semiconductor region, the first light-emitting diodes comprising semiconductor elements, mainly made of a III-V compound, having a wire, conical, or tapered shape and in contact with the seed pads or with the seed layer and comprising active layers covering the lateral faces of the semiconductor elements; a conductive portion (36; 36 1, 36 2) in contact with the first semiconductor region; and a second semiconductor region (98; 103) electrically connected to the substrate and distant from the first semiconductor region, of the same conductivity type as the first semiconductor region, more heavily doped than the substrate, and connected to a first electrode of the first light-emitting diodes.
A washing device for performing development of an imagewise exposed flexographic printing plate precursor using a washing solution while transporting the printing plate precursor, the washing device comprising: a transporting unit for transporting the flexographic printing plate precursor along a transport path having a curved transport passage and a linear transport passage, using a leader; and a developing portion for performing the development by removing an unexposed portion of the flexographic printing plate precursor, wherein the transporting unit is configured to transport the flexographic printing plate precursor using a winding transmission method or to transport the flexographic printing plate precursor using a method of winding a traction member provided at the leader; wherein the leader is provided, among a front end part of a support where the flexographic printing plate precursor is provided on a traveling direction side of the support and a rear end part on an opposite side of the front end part, at at least the front end part. a transporting unit for transporting the flexographic printing plate precursor along a transport path having a curved transport passage and a linear transport passage, using a leader; and a developing portion for performing the development by removing an unexposed portion of the flexographic printing plate precursor, wherein the transporting unit is configured to transport the flexographic printing plate precursor using a winding transmission method or to transport the flexographic printing plate precursor using a method of winding a traction member provided at the leader;
A fluid level sensor apparatus for detecting a moving fluid level and capable of activating a bilge pump, comprising: a fluid-tight housing comprising a cavity; a dielectric substrate sealed within said cavity; characterised in that the sensor apparatus further comprises at least one sensor (49, 59) disposed on said dielectric substrate, each said at least one sensor including: a first conductive sensing electrode (50; 60; 70; 80) in a closed, continuous geometric form having an area adapted to afford substantial coverage by fluid contact with said housing; a second conductive sensing electrode (52; 62; 72; 82) in a spaced, coplanar and substantially surrounding relationship to said first sensing electrode (50; 60; 70; 80); and an active electrical component (36; 37) proximate said first and second sensing electrodes and electrically coupled to said first and second sensing electrodes, said active electrical component (36; 37) being adapted to activate the bilge pump when fluid contacts said housing. a fluid-tight housing comprising a cavity; a dielectric substrate sealed within said cavity; characterised in that the sensor apparatus further comprises at least one sensor (49, 59) disposed on said dielectric substrate, each said at least one sensor including: a first conductive sensing electrode (50; 60; 70; 80) in a closed, continuous geometric form having an area adapted to afford substantial coverage by fluid contact with said housing; a second conductive sensing electrode (52; 62; 72; 82) in a spaced, coplanar and substantially surrounding relationship to said first sensing electrode (50; 60; 70; 80); and a first conductive sensing electrode (50; 60; 70; 80) in a closed, continuous geometric form having an area adapted to afford substantial coverage by fluid contact with said housing; a second conductive sensing electrode (52; 62; 72; 82) in a spaced, coplanar and substantially surrounding relationship to said first sensing electrode (50; 60; 70; 80); and an active electrical component (36; 37) proximate said first and second sensing electrodes and electrically coupled to said first and second sensing electrodes, said active electrical component (36; 37) being adapted to activate the bilge pump when fluid contacts said housing.
A mono or multi-layer biaxially oriented polypropylene film having a density of ≤ 0.72 g/cm 3, wherein at least one layer of the film comprises at least one polypropylene in an amount ranging from 79.0 to 95.0 wt.-% and at least one natural calcium carbonate in an amount ranging from 5.0 to 21.0 wt.-%, based on the total weight of the layer, wherein the at least one natural calcium carbonate has a weight median particle size d 50 from 3.2 μm to 8.0 μm.
Electronic device comprising: an entropy source comprising: - a first ring oscillator and a second ring oscillator identical to the first ring oscillator, and - a synchronous flip-flop configured to supply an output signal corresponding to a sampling of an output of the first oscillator at a frequency of an output of the second oscillator; a counter (COUNTER) configured to supply, for each period of the output signal of the flip-flop, a value equal to a number of periods of the second oscillator counted during said period of the output signal of the flip-flop; a first circuit (FB CTRL) configured to modify, during a first phase, a period of at least one of the two oscillators (RO1, RO2) based on the values supplied by the counter (COUNTER) so that an average difference between the periods of the two oscillators is equal to a target difference; and a second circuit (PROCESS) configured to receive the values supplied by the counter and to characterize, during a second phase and based on said values, an Allan variance on the output of the counter. an entropy source comprising: - a first ring oscillator and a second ring oscillator identical to the first ring oscillator, and - a synchronous flip-flop configured to supply an output signal corresponding to a sampling of an output of the first oscillator at a frequency of an output of the second oscillator; - a first ring oscillator and a second ring oscillator identical to the first ring oscillator, and - a synchronous flip-flop configured to supply an output signal corresponding to a sampling of an output of the first oscillator at a frequency of an output of the second oscillator; a counter (COUNTER) configured to supply, for each period of the output signal of the flip-flop, a value equal to a number of periods of the second oscillator counted during said period of the output signal of the flip-flop; a first circuit (FB CTRL) configured to modify, during a first phase, a period of at least one of the two oscillators (RO1, RO2) based on the values supplied by the counter (COUNTER) so that an average difference between the periods of the two oscillators is equal to a target difference; and a second circuit (PROCESS) configured to receive the values supplied by the counter and to characterize, during a second phase and based on said values, an Allan variance on the output of the counter.
A graphene-reinforced polymer matrix composite comprising an essentially uniform distribution in a thermoplastic polymer matrix of between 35% and 50% of total composite weight of particles selected from the group consisting of graphite microparticles, single-layer graphene nanoparticles, multi-layer graphene nanoparticles, and combinations of two or more thereof wherein: at least 50 wt% of the particles comprise single- and/or multi-layer graphene nanoparticles mechanically exfoliated in said polymer that are less than 50 nanometers, thick along the c-axis direction; and said thermoplastic polymer is selected from the group consisting of aliphatic polyamides, semi-aromatic polyamides, aromatic polyamides and combinations of two or more thereof. at least 50 wt% of the particles comprise single- and/or multi-layer graphene nanoparticles mechanically exfoliated in said polymer that are less than 50 nanometers, thick along the c-axis direction; and said thermoplastic polymer is selected from the group consisting of aliphatic polyamides, semi-aromatic polyamides, aromatic polyamides and combinations of two or more thereof.
A method of fabricating a substrate, comprising: forming spaced first features and spaced second features over a substrate, the first and second features alternating with one another and being spaced relative one another; laterally trimming width of the spaced second features to a greater degree than any lateral trimming of width of the spaced first features while laterally trimming width of the spaced second features; after the laterally trimming, forming spacers on sidewalls of the spaced first features and on sidewalls of the spaced second features, the spacers being of some different composition from that of the spaced first features and from that of the spaced second features; after forming the spacers, removing the spaced first features and the spaced second features from the substrate; and after the removing of the spaced first and second features from the substrate, processing the substrate through a mask pattern comprising the spacers. forming spaced first features and spaced second features over a substrate, the first and second features alternating with one another and being spaced relative one another; laterally trimming width of the spaced second features to a greater degree than any lateral trimming of width of the spaced first features while laterally trimming width of the spaced second features; after the laterally trimming, forming spacers on sidewalls of the spaced first features and on sidewalls of the spaced second features, the spacers being of some different composition from that of the spaced first features and from that of the spaced second features; after forming the spacers, removing the spaced first features and the spaced second features from the substrate; and after the removing of the spaced first and second features from the substrate, processing the substrate through a mask pattern comprising the spacers.