mhurhangee/ep-ind-claims huggingface dataset:
A multistage coordinated overvoltage arrester circuit comprising at least a first, coarse protection arrester path in a first transverse branch and a second, fine protection arrester path in a further transverse branch, an electrically isolated surge current measuring device and a monitoring device for a physical state of the overvoltage arrester located in the first arrester path being arranged in the first arrester path, and comprising an evaluating unit, the overvoltage arresters in the second arrester path likewise each being assigned a monitoring device for a physical state, said respective state monitoring being configured to carry out a determination of the temperature of the respective overvoltage arresters, said evaluating device being configured to ascertain the converted energy in the respective overvoltage arrester from the measured temperatures and the temperature rise time and, based thereon, to perform a determination of possible damage to the respective overvoltage arresters, characterized in that said evaluating device is further configured to detect, in the first arrester path, the peak current occurring in the overvoltage event and the change in temperature of the overvoltage arrester employed there, and to determine, from these values, an equivalent square-wave pulse for damage assessment.
An alternator control system for use with an alternator configured to provide a charging voltage to a battery and having an output for outputting a charging voltage over cables to terminals of a battery or battery array, said alternator having an internal output voltage regulator that reads the charging voltage through an internal feedback line and regulates the charging voltage to the battery, said alternator control system comprising: a controller connected to receive a signal from the battery over an external feedback line indicating a condition of the battery receiving the charging voltage, and an adjustable voltage source controlled by the controller to adjust the charging voltage to the battery from said output, the system being characterized in that: the adjustable voltage source is connected to the internal feedback line between said output and the internal regulator; a switch is provided on the internal feedback line to open and close the connection between said output and the internal regulator, the switch being arranged in parallel with the adjustable voltage source; and in response to the signal corresponding to the condition of the battery, the controller is arranged to selectively open and close the switch, and selectively actuate the adjustable voltage source to selectively vary the voltage in the internal feedback line to the internal output voltage regulator, thereby causing the internal output voltage regulator to signal the alternator to correspondingly vary the voltage from said output over the cables so that the voltage reaching the battery is at a pre-set value. a controller connected to receive a signal from the battery over an external feedback line indicating a condition of the battery receiving the charging voltage, and an adjustable voltage source controlled by the controller to adjust the charging voltage to the battery from said output, the system being characterized in that: the adjustable voltage source is connected to the internal feedback line between said output and the internal regulator; a switch is provided on the internal feedback line to open and close the connection between said output and the internal regulator, the switch being arranged in parallel with the adjustable voltage source; and in response to the signal corresponding to the condition of the battery, the controller is arranged to selectively open and close the switch, and selectively actuate the adjustable voltage source to selectively vary the voltage in the internal feedback line to the internal output voltage regulator, thereby causing the internal output voltage regulator to signal the alternator to correspondingly vary the voltage from said output over the cables so that the voltage reaching the battery is at a pre-set value.
A method for network resource optimization in a service area of a communication network, the method comprising: dividing the service area into a plurality of sub-areas, wherein each of the plurality of sub-areas is serviced by at least one network resource from a pre-determined number of network resources wherein the division of the service area into the plurality of sub-areas is based on distribution of demand nodes within the service area, wherein each demand node corresponds to a pre-determined number of users on the communication network; determining a locally optimal deployment solution, comprising at least one local allocation attribute for the at least one network resource in each of the plurality of sub-areas, by utilizing local threshold values corresponding to one or more of a plurality of objectives to meet the plurality of objectives for network resource optimization; and obtaining a globally optimal deployment solution, comprising at least one global allocation attribute for allocation of the pre-determined number of network resources in the service area, based on iterative processing of the locally optimal deployment solution to meet the plurality of objectives. dividing the service area into a plurality of sub-areas, wherein each of the plurality of sub-areas is serviced by at least one network resource from a pre-determined number of network resources wherein the division of the service area into the plurality of sub-areas is based on distribution of demand nodes within the service area, wherein each demand node corresponds to a pre-determined number of users on the communication network; determining a locally optimal deployment solution, comprising at least one local allocation attribute for the at least one network resource in each of the plurality of sub-areas, by utilizing local threshold values corresponding to one or more of a plurality of objectives to meet the plurality of objectives for network resource optimization; and obtaining a globally optimal deployment solution, comprising at least one global allocation attribute for allocation of the pre-determined number of network resources in the service area, based on iterative processing of the locally optimal deployment solution to meet the plurality of objectives.
A Plasma Protein Fraction for use in treating cognitive impairment in a subject in need thereof, wherein the PPF has a total protein content that consists of at least 83% but less than 95% albumin, no more than 17% globulins and other plasma proteins, and no more than 1% gamma globulin, wherein said PPF is derived from human plasma, and wherein an effective amount of the PPF is administered using a Pulse Dosed dosing regimen.
Auger for soil drilling with a central shaft which is tubular and coaxial to a vertical axis and with at least one drill flight made of a sheet metal, wherein the drill flight extends helically around the central shaft and is fixed thereon, and on the drill flight a discharge element having a rectangular cross-sectional course is arranged in order to form a discharge surface, wherein for the radial discharge of drilled soil material the discharge surface is positioned in a radially outward inclined manner on the drill flight and, in a vertical section, has a discharge angle that differs from 90° with respect to the vertical axis, characterized in that the discharge surface is arranged in a radially internal portion of the drill flight.
A flexible container comprising: a first web portion defined by a first periphery, a second web portion defined by a second periphery and disposed in a face to face relationship with the first web and at least partially overlapping the first web, at least a portion of the second periphery sealed to the first web, the sealed portion defining a first product volume, characterized in that the flexible container further comprises a rollable dispensing aid disposed adjacent to the sealed portion of the second periphery, wherein the dispensing aid comprises third and fourth web portions sealed along a closed periphery and defining an expanded volume, and the dispensing aid may be rolled along a dispensing path compressing the product volume and forcing the expulsion of product from the volume via a gap. a first web portion defined by a first periphery, a second web portion defined by a second periphery and disposed in a face to face relationship with the first web and at least partially overlapping the first web, at least a portion of the second periphery sealed to the first web, the sealed portion defining a first product volume, characterized in that the flexible container further comprises a rollable dispensing aid disposed adjacent to the sealed portion of the second periphery, wherein the dispensing aid comprises third and fourth web portions sealed along a closed periphery and defining an expanded volume, and the dispensing aid may be rolled along a dispensing path compressing the product volume and forcing the expulsion of product from the volume via a gap.
An apparatus for applying resin to a plurality of fibres, comprising: a housing having at least one fibre entry port and at least one fibre exit port; at least one fibre spreading surface arranged, in use, to spread a plurality of fibres as they move over the at least one fibre spreading surface; and at least one resin applicator head located within the housing, the at least one resin applicator head being arranged, in use, to apply resin to the fibers as they move past the at last one resin applicator head, characterised in that the at least one fibre spreading surface, and/or the at least one resin applicator head, is an interchangeable modular component. a housing having at least one fibre entry port and at least one fibre exit port; at least one fibre spreading surface arranged, in use, to spread a plurality of fibres as they move over the at least one fibre spreading surface; and at least one resin applicator head located within the housing, the at least one resin applicator head being arranged, in use, to apply resin to the fibers as they move past the at last one resin applicator head,
An in vitro method for detecting or monitoring an endometrial carcinoma in a human subject, which method comprises detecting, or determining the level of, methylation of OXT and/or ZSCAN12 gene in a biological sample from the subject, wherein the biological sample contains genomic DNA.
A circuit for a passive or semi-passive RFID device, comprising: an antenna for receiving an RF signal, the antenna having first (222,224) and second (222, 233) pairs of terminals, wherein at least one terminals of the second pair of terminals is connected to the antenna between the first pair of terminals such that, when the RF signal is received by the antenna, a voltage generated across the second pair of terminals is lower than a voltage generated across the first pair of terminals; and a first processing device for controlling an output of the RFID device, wherein the first processing device is powered by a voltage generated across the antenna; characterised by: a second processing device separate from the first processing device; wherein the circuit has first and second modes of operation, the second processing device requiring more power during the first mode of operation than in the second mode of operation; and wherein the circuit is arranged to power the second processing device using the voltage generated across the first pair of terminals when the circuit is operating in the first mode of operation, and to power the second processing device using the voltage generated across the second pair of terminals when the circuit is operating in the second mode of operation. an antenna for receiving an RF signal, the antenna having first (222,224) and second (222, 233) pairs of terminals, wherein at least one terminals of the second pair of terminals is connected to the antenna between the first pair of terminals such that, when the RF signal is received by the antenna, a voltage generated across the second pair of terminals is lower than a voltage generated across the first pair of terminals; and a first processing device for controlling an output of the RFID device, wherein the first processing device is powered by a voltage generated across the antenna; characterised by: a second processing device separate from the first processing device; wherein the circuit has first and second modes of operation, the second processing device requiring more power during the first mode of operation than in the second mode of operation; and wherein the circuit is arranged to power the second processing device using the voltage generated across the first pair of terminals when the circuit is operating in the first mode of operation, and to power the second processing device using the voltage generated across the second pair of terminals when the circuit is operating in the second mode of operation. a second processing device separate from the first processing device; wherein the circuit has first and second modes of operation, the second processing device requiring more power during the first mode of operation than in the second mode of operation; and wherein the circuit is arranged to power the second processing device using the voltage generated across the first pair of terminals when the circuit is operating in the first mode of operation, and to power the second processing device using the voltage generated across the second pair of terminals when the circuit is operating in the second mode of operation.
An equine nutritional composition comprising: i) a first component comprising micronutrients, wherein said micronutrients include: based on the weight of the first component: 2 - 25 wt.% L-arginine; 2 - 15 wt.% L-carnitine; 0.5 - 5 wt.% L-lysine; 1 - 10 wt.% L-cysteine; 0.1 - 4 wt.% vitamin E, as all vitamins thereof; 0.001 - 0.1 wt.% vitamin B, as all vitamins thereof; 0 - 25 wt.% rosehip powder; 0.5 - 5 wt.% Maca; 0.5 - 10 wt.% Gingko biloba powder; 0 - 10 wt.% dried garlic; 0 -10 wt.% Lucerne; 0.01 - 0.8 wt.% zinc; 0 - 5 wt.% magnesium; 0 - 5 wt.% calcium; 0.0001 - 0.01 wt.% selenium; and, 0.01 - 6 wt.% further antioxidants wherein said micronutrients include folate and, ii) a second component comprising one or more fatty acids selected from each of the groups: omega-3 fatty acids; omega-6 fatty acids wherein the ratio by volume of omega-3: omega-6 fatty acids is in the range of from 1.1: 1 to 5: 1, preferably from 1.5: 1 to 3: 1; and wherein at least one of the first and second component is in concentrated form. i) a first component comprising micronutrients, wherein said micronutrients include: based on the weight of the first component: 2 - 25 wt.% L-arginine; 2 - 15 wt.% L-carnitine; 0.5 - 5 wt.% L-lysine; 1 - 10 wt.% L-cysteine; 0.1 - 4 wt.% vitamin E, as all vitamins thereof; 0.001 - 0.1 wt.% vitamin B, as all vitamins thereof; 0 - 25 wt.% rosehip powder; 0.5 - 5 wt.% Maca; 0.5 - 10 wt.% Gingko biloba powder; 0 - 10 wt.% dried garlic; 0 -10 wt.% Lucerne; 0.01 - 0.8 wt.% zinc; 0 - 5 wt.% magnesium; 0 - 5 wt.% calcium; 0.0001 - 0.01 wt.% selenium; and, 0.01 - 6 wt.% further antioxidants wherein said micronutrients include folate and, based on the weight of the first component: 2 - 25 wt.% L-arginine; 2 - 15 wt.% L-carnitine; 0.5 - 5 wt.% L-lysine; 1 - 10 wt.% L-cysteine; 0.1 - 4 wt.% vitamin E, as all vitamins thereof; 0.001 - 0.1 wt.% vitamin B, as all vitamins thereof; 0 - 25 wt.% rosehip powder; 0.5 - 5 wt.% Maca; 0.5 - 10 wt.% Gingko biloba powder; 0 - 10 wt.% dried garlic; 0 -10 wt.% Lucerne; 0.01 - 0.8 wt.% zinc; 0 - 5 wt.% magnesium; 0 - 5 wt.% calcium; 0.0001 - 0.01 wt.% selenium; and, 0.01 - 6 wt.% further antioxidants wherein said micronutrients include folate and, ii) a second component comprising one or more fatty acids selected from each of the groups: omega-3 fatty acids; omega-6 fatty acids wherein the ratio by volume of omega-3: omega-6 fatty acids is in the range of from 1.1: 1 to 5: 1, preferably from 1.5: 1 to 3: 1;
A MEMS chip comprising: a substrate having an active surface, the active surface including a plurality of MEMS devices; and a plurality of bond pads arranged alongside a connection edge of the substrate, characterized in that: the MEMS chip has multiple rows of encapsulant-retaining trenches defined in the active surface extending alongside the connection edge, each encapsulant-retaining trench being disposed between the bond pads and the MEMS devices, each encapsulant-retaining trench has a depth in the range of 2 to 10 microns and a width in the range of 2 to 20 microns; and a ratio of an overall thickness of the chip to each encapsulant-retaining trench depth is at least 20:1. a substrate having an active surface, the active surface including a plurality of MEMS devices; and a plurality of bond pads arranged alongside a connection edge of the substrate, the MEMS chip has multiple rows of encapsulant-retaining trenches defined in the active surface extending alongside the connection edge, each encapsulant-retaining trench being disposed between the bond pads and the MEMS devices, each encapsulant-retaining trench has a depth in the range of 2 to 10 microns and a width in the range of 2 to 20 microns; and a ratio of an overall thickness of the chip to each encapsulant-retaining trench depth is at least 20:1.
A legged robot comprising: a trunk; a plurality of legs (RR, RL, FR, FL) provided on the trunk; and a changing section that: is configured to change a target ground-contact time of each of the legs, on a basis of target gait information, self-state information, and environment information, and that is configured to change a target landing position of each of the legs in addition to the target ground-contact time of each of the legs, on the basis of the target gait information, the self-state information, and the environment information. a trunk; a plurality of legs (RR, RL, FR, FL) provided on the trunk; and a changing section that: is configured to change a target ground-contact time of each of the legs, on a basis of target gait information, self-state information, and environment information, and that is configured to change a target landing position of each of the legs in addition to the target ground-contact time of each of the legs, on the basis of the target gait information, the self-state information, and the environment information. is configured to change a target ground-contact time of each of the legs, on a basis of target gait information, self-state information, and environment information, and that is configured to change a target landing position of each of the legs in addition to the target ground-contact time of each of the legs, on the basis of the target gait information, the self-state information, and the environment information.
Method for putting together a down-the-hole drilling apparatus for plastic pipe drilling, which apparatus has a drilling device for carrying out drilling by using a drilling unit with a plastic pipe, which drilling unit includes in its drilling head a drilling arrangement comprising first drilling means for drilling a center hole and second drilling means for reaming the center hole for the plastic pipe, the drilling means (4, 5) being coupled on the first hand at least during a drilling situation mutually in a power transmitting manner in order to carry out co-operation thereof for a rotational motion, a feeding motion and/or a hammering motion, and on the other hand removably in connection with the plastic pipe in order to enable at least removal of the first drilling means from a drilled hole, whereby the plastic pipe is arranged to be pulled into the hole to be drilled by a power influence directed thereto from the drilling unit, such as the second drilling means or a casing shoe, being coupled with the second drilling means in a manner transmitting power at least in the longitudinal direction of the drilling device, and wherein the drilling unit and the plastic pipe are being coupled with each other by a skirt part (z) that exists at an opposite end of the drilling arrangement, such as the second drilling means or the casing shoe, with respect to the drilling surface of the drilling unit, characterized in that, the skirt part has an internal protrusion assembly (x) in radial direction (r), wherein by pressing the skirt part (z) together in the radial direction (r) a contact surface is being achieved that is formed in the longitudinal direction (s) along outer surface of the end of the plastic pipe, in order to pull the plastic pipe into the hole to be drilled by a power influence being transmitted from the contact surface.
A method of communication at a base station, said method comprising the steps of: identifying (405, 1005, 1105, 1205), for each of a plurality of hybrid automatic repeat request, HARQ, processes, an active indication or an inactive indication, wherein each of the plurality of HARQ processes is associated with a plurality of transport blocks to be transmitted in a data signal during a first transmission time interval, TTI; determining, for HARQ processes of the plurality of HARQ processes associated with the active indication, a new transmission state or a retransmission state; transmitting (415, 1010, 1110, 1210) a control message for the data signal comprising the plurality of transport blocks to be transmitted during the first TTI, the control message comprising a plurality of HARQ process indications, wherein each HARQ process indication indicates one of the new transmission state or the retransmission state for each of the HARQ processes associated with the active indication; transmitting (420, 1015, 1115, 1215) the data signal comprising a plurality of transport blocks during the first TTI, wherein each of the plurality of transport blocks corresponds to at least one of the new transmission state, the retransmission state or the inactive indication based at least in part on the control message. identifying (405, 1005, 1105, 1205), for each of a plurality of hybrid automatic repeat request, HARQ, processes, an active indication or an inactive indication, wherein each of the plurality of HARQ processes is associated with a plurality of transport blocks to be transmitted in a data signal during a first transmission time interval, TTI; determining, for HARQ processes of the plurality of HARQ processes associated with the active indication, a new transmission state or a retransmission state; transmitting (415, 1010, 1110, 1210) a control message for the data signal comprising the plurality of transport blocks to be transmitted during the first TTI, the control message comprising a plurality of HARQ process indications, wherein each HARQ process indication indicates one of the new transmission state or the retransmission state for each of the HARQ processes associated with the active indication; transmitting (420, 1015, 1115, 1215) the data signal comprising a plurality of transport blocks during the first TTI, wherein each of the plurality of transport blocks corresponds to at least one of the new transmission state, the retransmission state or the inactive indication based at least in part on the control message.