mhurhangee/ep-ind-claims huggingface dataset:
A liquefied natural gas, LNG, storage tank, including an opening portion formed at an inner hull disposed on an upper side of the LNG storage tank, and a pump tower having a plurality of pipes and installed through the opening portion, the plurality of pipes is uprightly installed in a direction passing through an upper surface of the storage tank, wherein said LNG storage tank further comprises a pump tower installation structure, said pump tower installation structure comprising: an adaptor configured to be disposed at a predetermined area of the opening portion; and a cover having through-holes corresponding to the pipes of the pump tower and is configured to be disposed at a remaining area of the opening portion to be connected with the adaptor, said cover supporting the pipes while closing the opening, wherein the cover further has a cover insulation board provided under the cover and formed under the opening portion, a peripheral portion of the cover insulation board formed downward from the opening is insulated, the pump tower installation structure further comprising: an insulation layer configured to be disposed between the cover insulation board of the cover and a lower insulation board of the LNG storage tank which are respectively provided under the inner hull, a vertical closing portion vertically bonded under the adaptor and the cover to be in contact with the insulation layer, and an adjustment closing portion fixedly bonded to the vertical closing portion so as to adjust a height thereof and to be disposed on the same plane with the insulation layer. an adaptor configured to be disposed at a predetermined area of the opening portion; and a cover having through-holes corresponding to the pipes of the pump tower and is configured to be disposed at a remaining area of the opening portion to be connected with the adaptor, said cover supporting the pipes while closing the opening, wherein the cover further has a cover insulation board provided under the cover and formed under the opening portion, a peripheral portion of the cover insulation board formed downward from the opening is insulated, the pump tower installation structure further comprising: an insulation layer configured to be disposed between the cover insulation board of the cover and a lower insulation board of the LNG storage tank which are respectively provided under the inner hull, a vertical closing portion vertically bonded under the adaptor and the cover to be in contact with the insulation layer, and an adjustment closing portion fixedly bonded to the vertical closing portion so as to adjust a height thereof and to be disposed on the same plane with the insulation layer. an insulation layer configured to be disposed between the cover insulation board of the cover and a lower insulation board of the LNG storage tank which are respectively provided under the inner hull, a vertical closing portion vertically bonded under the adaptor and the cover to be in contact with the insulation layer, and an adjustment closing portion fixedly bonded to the vertical closing portion so as to adjust a height thereof and to be disposed on the same plane with the insulation layer.
System for installing a cable across two movable sections (201, 202) of a structure comprising: - a first support fixed to a first section of a structure and holding a portion of a cable; - a second support fixed to a second section of the structure and holding a portion of the cable; - a first frame rigid with the first section of the structure and extended across a gap between the first section and the second section of the structure; - a second frame holding a portion of the cable and slidable mounted on the second section of the structure; - a first transmission member attached to the second section and acting between the first frame and the second frame, wherein said first transmission member is actuated by the first frame and actuates, with a predetermined transmission ratio, the second frame when the first and second section of the structure move each other. - a first support fixed to a first section of a structure and holding a portion of a cable; - a second support fixed to a second section of the structure and holding a portion of the cable; - a first frame rigid with the first section of the structure and extended across a gap between the first section and the second section of the structure; - a second frame holding a portion of the cable and slidable mounted on the second section of the structure; - a first transmission member attached to the second section and acting between the first frame and the second frame, wherein said first transmission member is actuated by the first frame and actuates, with a predetermined transmission ratio, the second frame when the first and second section of the structure move each other.
A method for controlling the number of revolutions per minute of an internal combustion engine during a takeoff phase of a vehicle provided with a manual transmission; the control method comprises the steps of: determining an idle number of revolutions per minute (N IDLE); controlling the internal combustion engine, so that the actual number of rotations per minute is not lower than the idle number of revolutions per minute (N IDLE); recognizing the beginning of a takeoff phase of the vehicle; establishing a first takeoff increase (Δ N-1) of the number of revolutions per minute; and controlling, when the beginning of the takeoff phase of the vehicle is recognized, the internal combustion engine, so that the actual number of rotations per minute is not lower than the idle number of revolutions per minute (N IDLE) increased by the first takeoff increase (Δ N-1); the control method is characterized in that it comprises the further step of determining the extent of the first takeoff increase (Δ N-1) as a function of the temperature (T H2O) of a cooling liquid of the internal combustion engine, and/or as a function of a gradient of the stretch of road on which the vehicle runs, and/or as a function of a use of a compressor of an air-conditioning system. determining an idle number of revolutions per minute (N IDLE); controlling the internal combustion engine, so that the actual number of rotations per minute is not lower than the idle number of revolutions per minute (N IDLE); recognizing the beginning of a takeoff phase of the vehicle; establishing a first takeoff increase (Δ N-1) of the number of revolutions per minute; and controlling, when the beginning of the takeoff phase of the vehicle is recognized, the internal combustion engine, so that the actual number of rotations per minute is not lower than the idle number of revolutions per minute (N IDLE) increased by the first takeoff increase (Δ N-1); the control method is characterized in that it comprises the further step of determining the extent of the first takeoff increase (Δ N-1) as a function of the temperature (T H2O) of a cooling liquid of the internal combustion engine, and/or as a function of a gradient of the stretch of road on which the vehicle runs, and/or as a function of a use of a compressor of an air-conditioning system.
A computer-implemented method for executing straight tracking control of a work vehicle having an electronically controlled hydrostatic transmission, the method comprising receiving, with a computing device, at least one operator input command associated with controlling an operation of at least one of a first-side drive system or a second-side drive system of the hydrostatic transmission, the at least one operator input command being associated with commanding the work vehicle to be driven along a straight path, the method further comprising receiving, with the computing device, a first speed signal associated with a first output speed of the first-side drive system and a second speed signal associated with a second output speed of the second-side drive system, the method being characterized by: modifying, with the computing device, one of the first speed signal or the second speed signal based on a speed scaling factor to generate a corrected speed signal; determining, with the computing device, an adjusted control command for controlling the operation of the hydrostatic transmission as a function of the at least one operator input command and a control output determined based at least in part on a differential between the corrected speed signal and the other of the first speed signal or the second speed signal; and controlling, with the computing device, the operation of the hydrostatic transmission based at least in part on the adjusted control command to drive the work vehicle along the straight path. modifying, with the computing device, one of the first speed signal or the second speed signal based on a speed scaling factor to generate a corrected speed signal; determining, with the computing device, an adjusted control command for controlling the operation of the hydrostatic transmission as a function of the at least one operator input command and a control output determined based at least in part on a differential between the corrected speed signal and the other of the first speed signal or the second speed signal; and controlling, with the computing device, the operation of the hydrostatic transmission based at least in part on the adjusted control command to drive the work vehicle along the straight path.
An apparatus for water treatment having a housing sealed in a water-tight manner during operation, a water inlet pipe connectable to an external water pipe, a water outlet pipe connectable to an external water pipe, having a treatment area containing a treatment medium, through which water flows during operation, wherein the treatment medium is in contact with through-flowing water during operation, wherein the apparatus has a filter candle as a replaceable element and a connecting element remaining connected to the respective water pipe during the replacement of the replaceable element, and having a blending device for blending the treated water with non-treated water or differently treated water in a blending ratio, which represents the ratio of the volume of treated water to the volume of non-treated or differently treated water or vice versa in the blended water, and the blending device has an adjusting element (21, 22, 23) for adjusting the blending ratio, wherein the adjusting element (21, 22, 23) is, depending on at least one operating parameter of the device, automatically actuated during operation by the device, wherein, to adjust the blending ratio, a throttle unit is provided to change the volume flow through at least one flow path of the water, wherein, for the continual blending of treated water with untreated water, a first flow path is provided with a treatment route and a second flow path is provided without or with another treatment route, wherein both flow paths can be flowed through at the same time, characterised in that the throttle unit comprises a moveable throttle element with feed-throughs for at least two flow paths (10, 11), by means of which, in a position dependent manner, the cross section of at least one flow path is changeable, wherein the throttle element is a rotary disk having feed-throughs (36, 37) for the two flow paths in the axial direction, such that by rotating the rotary disk about its axis flow paths (10, 11) can be thereby opened or closed.
A method performed by a radio network node of a wireless communication system, the radio network node being a neighbor node to a serving node for a user equipment, UE, the method being for selecting a MSG3 size for the User Equipment that is performing handover from the serving network node to the neighbor network node, the method comprising: receiving, from the serving network node, measurement information related to the UE; selecting, based on the measurement information, the MSG3 size; and transmitting the MSG3 size to the UE, based on which UE related information or UE related information together with an RRC reconfiguration message is received at the neighbor network node. receiving, from the serving network node, measurement information related to the UE; selecting, based on the measurement information, the MSG3 size; and transmitting the MSG3 size to the UE, based on which UE related information or UE related information together with an RRC reconfiguration message is received at the neighbor network node.
A method comprising: selecting an irreducible polynomial; generating a Fresh function based on the irreducible polynomial and an input polynomial determined by a size of an input message; computing a first fingerprint for a first shingle of data using the Fresh function; wherein computing the first fingerprint for the first shingle of data using the Fresh function comprises: splitting the Fresh function into a first Fresh portion and a second Fresh portion; splitting the first shingle of data into a first shingle portion and a second shingle portion; and computing a fingerprint for each of the first shingle portion and the second shingle portion using the first Fresh portion and the second Fresh portion, wherein the second Fresh portion uses the fingerprint for the first shingle portion as an input; generating a first Shift function, wherein the first Shift function uses the first fingerprint for the first shingle of data as an input; and computing a second fingerprint for a second shingle of data using the first Shift function. selecting an irreducible polynomial; generating a Fresh function based on the irreducible polynomial and an input polynomial determined by a size of an input message; computing a first fingerprint for a first shingle of data using the Fresh function; wherein computing the first fingerprint for the first shingle of data using the Fresh function comprises: splitting the Fresh function into a first Fresh portion and a second Fresh portion; splitting the first shingle of data into a first shingle portion and a second shingle portion; and computing a fingerprint for each of the first shingle portion and the second shingle portion using the first Fresh portion and the second Fresh portion, wherein the second Fresh portion uses the fingerprint for the first shingle portion as an input; splitting the Fresh function into a first Fresh portion and a second Fresh portion; splitting the first shingle of data into a first shingle portion and a second shingle portion; and computing a fingerprint for each of the first shingle portion and the second shingle portion using the first Fresh portion and the second Fresh portion, wherein the second Fresh portion uses the fingerprint for the first shingle portion as an input; generating a first Shift function, wherein the first Shift function uses the first fingerprint for the first shingle of data as an input; and computing a second fingerprint for a second shingle of data using the first Shift function.
A method of controlling a lawn mower robot having a main body, comprising: receiving a signal generated by at least one boundary wire having at least one upper and/or at least one lower inflection portion; determining a maximum value and a minimum value of the received signal for a predetermined time and a respective constant maximum value range and a respective constant minimum value range; and determining a position of the main body, which receives the signal, relative to the boundary wire by identifying and comparing the number of upper inflection portions present within the constant maximum value range and the number of lower inflection portions present within the constant minimum value range for the predetermined time, wherein each of the upper inflection portions means a portion at which a waveform of the signal is changed from ascending to descending and each of the lower inflection portions means a portion at which a waveform of the signal is changed from descending to ascending. receiving a signal generated by at least one boundary wire having at least one upper and/or at least one lower inflection portion; determining a maximum value and a minimum value of the received signal for a predetermined time and a respective constant maximum value range and a respective constant minimum value range; and determining a position of the main body, which receives the signal, relative to the boundary wire by identifying and comparing the number of upper inflection portions present within the constant maximum value range and the number of lower inflection portions present within the constant minimum value range for the predetermined time, wherein each of the upper inflection portions means a portion at which a waveform of the signal is changed from ascending to descending and each of the lower inflection portions means a portion at which a waveform of the signal is changed from descending to ascending.
A method for identifying clinical risk in a patient having or suspected of having an influenza infection, the method comprising determining the expression level of interferon alpha inducible protein 27 gene in a biological sample from said patient and comparing the determined level of IFI27 gene product to a standard level of IFI27 gene product, wherein the standard level of IFI27 is based on the level of IFI27 gene product level in healthy subjects, in subjects infected with influenza that are asymptomatic, or in subjects that are infected with influenza that do not develop severe disease, wherein the standard level of IFI27 gene product is indicative of no clinical risk and an elevated level of IFI27gene product in said patient sample in comparison with said standard level of IFI27 gene product is indicative of clinical risk in the patient, wherein a level of IFI27 gene product that is at least 40 to 60 times higher than the standard level is indicative of clinical risk, wherein clinical risk is defined as being more likely to develop serious disease and require medical intervention in a hospital.
Method for preparation of 5-alkylsalicylaldoximes with formula 1, where R is a C6-C16 alkyl group, using the Reimer-Tiemann reaction, characterised in that into a water-alcohol solvent system, p -alkylphenol, sodium hydroxide, chloroform and hydroxylamine are introduced, while in relation to the alkylphenol used, sodium hydroxide and chloroform are used in amounts from the stoichiometric amount to a 100% excess, and hydroxylamine is used in amounts from the stoichiometric amount to a 60% excess, and the reaction is carried out at a temperature of 60-75°C for 1.5-4 h, and then, at a temperature of 20-30°C, the post-reaction mixture is acidified till the pH of the aqueous phase < 7.0 is obtained, and next, an alcohol-water azeotrope is distilled off with an admixture of unreacted chloroform, the residue is mixed with a neutral C5-C10 hydrocarbon solvent, the layers are separated, and the solvent is distilled off from the organic phase.
A method implemented on a processor in communication with at least one power quality monitoring device configured to detect a power quality event and a display device, the method comprising: receiving, from the at least one power quality monitoring device, event information detected by the at least one power quality monitoring device; receiving power outage information and information regarding a location of a reference power quality monitoring device of the at least one power quality monitoring device; identifying each power quality monitoring device detecting a power quality event based on the event information; determining a location of the power quality event based on the location of the reference power quality monitoring device, the location of each power quality monitoring device detecting a power quality event, and information transmitted from the reference power quality monitoring device regarding whether the power quality event is upstream or downstream from the reference power quality monitoring device; based on the event information and the power outage information, determining if one or more power outages of equipment within an electrical power system occur during a defined time period extending from a beginning of the power quality event to an end of the power quality event; performing an analysis if one or more power outages occurs in the defined time period, the analysis comprising determining if the one or more power outages is associated with the power quality event; and outputting information regarding the analysis to the display device. receiving, from the at least one power quality monitoring device, event information detected by the at least one power quality monitoring device; receiving power outage information and information regarding a location of a reference power quality monitoring device of the at least one power quality monitoring device; identifying each power quality monitoring device detecting a power quality event based on the event information; determining a location of the power quality event based on the location of the reference power quality monitoring device, the location of each power quality monitoring device detecting a power quality event, and information transmitted from the reference power quality monitoring device regarding whether the power quality event is upstream or downstream from the reference power quality monitoring device; based on the event information and the power outage information, determining if one or more power outages of equipment within an electrical power system occur during a defined time period extending from a beginning of the power quality event to an end of the power quality event; performing an analysis if one or more power outages occurs in the defined time period, the analysis comprising determining if the one or more power outages is associated with the power quality event; and outputting information regarding the analysis to the display device.
A medical device for use in orthopedic surgical procedures to excise tissue such as bone comprising: a rotatable cutter head having a center longitudinal rotation axis; the rotatable cutter head comprising a mandrel and a plurality of elongated cutters disposed on the mandrel; each of the cutters comprising a cutter blade; each of the elongated cutters rotatable about a cutter rotation axis, respectively, wherein rotation of each of the elongated cutters about the cutter rotation axis changes a cutting diameter of the rotatable cutter head; characterised by each cutter rotation axis having a length which simultaneously extends both longitudinally along the center longitudinal rotation axis(A-A) and circumferentially around the center longitudinal rotation axis (A-A) so that the cutter rotation axis at a distal end of the cutter blade is circumferentially forward of the cutter rotation axis at a proximal end of the cutter blade in the counterclockwise direction when the cutter head is viewed distally to proximally; and each cutter rotation axis parallel with a first imaginary plane, respectively, which is at an angle with a second imaginary plane which is parallel to the center longitudinal axis (A-A), respectively. a rotatable cutter head having a center longitudinal rotation axis; the rotatable cutter head comprising a mandrel and a plurality of elongated cutters disposed on the mandrel; each of the elongated cutters rotatable about a cutter rotation axis, respectively, wherein rotation of each of the elongated cutters about the cutter rotation axis changes a cutting diameter of the rotatable cutter head; characterised by each cutter rotation axis having a length which simultaneously extends both longitudinally along the center longitudinal rotation axis(A-A) and circumferentially around the center longitudinal rotation axis (A-A) so that the cutter rotation axis at a distal end of the cutter blade is circumferentially forward of the cutter rotation axis at a proximal end of the cutter blade in the counterclockwise direction when the cutter head is viewed distally to proximally; and each cutter rotation axis parallel with a first imaginary plane, respectively, which is at an angle with a second imaginary plane which is parallel to the center longitudinal axis (A-A), respectively.