mhurhangee/ep-ind-claims huggingface dataset:
Method of stabilizing nucleic acids in a biological sample, comprising the method steps i) providing a biological sample, selected from organisms, isolated cells, organelles, bacteria, fungi or parts of fungi, viruses, viroids, tissue, tissue fragments, body fluids, plants or parts of plants, faecal matter, smears, punctates, food samples, environmental samples, forensic samples, wherein the biological sample is optionally a frozen biological sample, ii) bringing the biological sample in contact with a composition, consisting of at least one polyol, selected from the group comprising 1,2-ethandiol, 1,2-propandiol, 1,3-propandiol, 1,2-butandiol, 1,3-butandiol, 1,4-butandiol, 2,3-butandiol, 1,2-pentandiol, 1,3-pentandiol, 1,4-pentandiol, 1,5-pentandiol, 2,3-pentandiol, 2,4-pentandiol, 1,2-hexandiol, 1,3-hexandiol, 1,4-hexandiol, 1,5-hexandiol, 1,6-hexandiol, 2,3-hexandiol, 2,4-hexandiol, 2,5-hexandiol, 3,4-hexandiol, 1,2,3-butantriol, 1,2,4-butantriol, 1,2,3-pentantriol, 1,2,4-pentantriol, 1,2,5-pentantriol, 2,3,4-pentantriol, 1,2,3-hexantriol, 1,2,4-hexantriol, 1,2,5-hexantriol, 1,2,6-hexantriol, 2,3,4-hexantriol, 2,3,5-hexantriol, 3-methyl-1,3,5-pentantriol, trimethylolpropanol, pentaerythritol, diethylenglykol, dipropylenglykol, triethylenglykol, tripropylenglykol, polyethylenglykol and polypropylenglykol, storing the composition which was obtained in step (ii) at a temperature in the range of from 0°C to +80°C over a time period of at least one day. i) providing a biological sample, selected from organisms, isolated cells, organelles, bacteria, fungi or parts of fungi, viruses, viroids, tissue, tissue fragments, body fluids, plants or parts of plants, faecal matter, smears, punctates, food samples, environmental samples, forensic samples, wherein the biological sample is optionally a frozen biological sample, ii) bringing the biological sample in contact with a composition, consisting of at least one polyol, selected from the group comprising 1,2-ethandiol, 1,2-propandiol, 1,3-propandiol, 1,2-butandiol, 1,3-butandiol, 1,4-butandiol, 2,3-butandiol, 1,2-pentandiol, 1,3-pentandiol, 1,4-pentandiol, 1,5-pentandiol, 2,3-pentandiol, 2,4-pentandiol, 1,2-hexandiol, 1,3-hexandiol, 1,4-hexandiol, 1,5-hexandiol, 1,6-hexandiol, 2,3-hexandiol, 2,4-hexandiol, 2,5-hexandiol, 3,4-hexandiol, 1,2,3-butantriol, 1,2,4-butantriol, 1,2,3-pentantriol, 1,2,4-pentantriol, 1,2,5-pentantriol, 2,3,4-pentantriol, 1,2,3-hexantriol, 1,2,4-hexantriol, 1,2,5-hexantriol, 1,2,6-hexantriol, 2,3,4-hexantriol, 2,3,5-hexantriol, 3-methyl-1,3,5-pentantriol, trimethylolpropanol, pentaerythritol, diethylenglykol, dipropylenglykol, triethylenglykol, tripropylenglykol, polyethylenglykol and polypropylenglykol,
A resonator assembly, comprising: a resonator having a first resonance post coaxially surrounded by a conductive enclosure defining a cavity, said first resonance post being operable to filter a signal at a first frequency and a second resonance post located within said cavity, said second resonance post being operable to filter the signal at a second frequency; wherein said first and second resonance posts are configured such that harmonics of said first frequency fail to coincide with harmonics of said second frequency and a ratio of said second frequency to said first frequency is not close to unity such that resonances of the cavity at said first and second frequencies are uncoupled; and said first resonance post is located centrally within said conductive enclosure and said second resonance post is located away from said first resonance post and towards said conductive enclosure; and characterised in that said first resonance post and said second resonance post upstand from a same face of said conductive enclosure. a resonator having a first resonance post coaxially surrounded by a conductive enclosure defining a cavity, said first resonance post being operable to filter a signal at a first frequency and a second resonance post located within said cavity, said second resonance post being operable to filter the signal at a second frequency; wherein said first and second resonance posts are configured such that harmonics of said first frequency fail to coincide with harmonics of said second frequency and a ratio of said second frequency to said first frequency is not close to unity such that resonances of the cavity at said first and second frequencies are uncoupled; and said first resonance post is located centrally within said conductive enclosure and said second resonance post is located away from said first resonance post and towards said conductive enclosure; and characterised in that said first resonance post and said second resonance post upstand from a same face of said conductive enclosure.
A method for handing over a cluster UE, the cluster UE referring to a user equipment performing a half-duplex two-way cluster call having one speaking user, which shares the uplink physical channel resources of the cluster call, and one or more listening users, which shares the downlink physical channel resources of the cluster call, comprising: measuring signal quality of a current cell and signal quality of a neighboring cell; determining whether both the signal quality of the current cell and the signal quality of the neighboring cell meet a preset decision rule, and obtaining a determination result; and when the determination result is that both the signal quality of the current cell and the signal quality of the neighboring cell meet the preset decision rule, controlling the cluster UE to hand over from the current cell to the neighboring cell, to make a cluster UE continue, in the neighboring cell, a service performed in the current cell; characterized in that when the cluster UE is the speaking user, the step of controlling the cluster UE to hand over from the current cell to the neighboring cell comprises: triggering and sending a measurement report of the neighboring cell to the network side; receiving a handover instruction sent by the network side according to the measurement report of the neighboring cell; and configuring the current cell as the neighboring cell according to neighboring cell resource information in the handover instruction; when the cluster UE is the listening user, the step of controlling the cluster UE to hand over from the current cell to the neighboring cell comprises: obtaining neighboring cell resource information received from a specific forward access channel, FACH, of cluster from a local storage module; and configuring the current cell as the neighboring cell according to the neighboring cell resource information. measuring signal quality of a current cell and signal quality of a neighboring cell; determining whether both the signal quality of the current cell and the signal quality of the neighboring cell meet a preset decision rule, and obtaining a determination result; and when the determination result is that both the signal quality of the current cell and the signal quality of the neighboring cell meet the preset decision rule, controlling the cluster UE to hand over from the current cell to the neighboring cell, to make a cluster UE continue, in the neighboring cell, a service performed in the current cell;
Method for activating a subscriber card, called the first card, coupled to a first terminal able to communicate with a second terminal coupled to a second active subscriber card, the terminals being able to communicate with a first network, a terminal being able to communicate with this first network only if the associated card is active, the terminals being able furthermore to communicate with one another via a second short-range network, characterized in that it comprises at the level of the first terminal, when a communication is possible between the two terminals via the second network, a step of transmitting to the second terminal via the second network an activation requesting the second terminal to activate the first card via the first network, the request including the identifier of the first card, the first and the second subscriber cards being associated with the same subscriber and being identified by one and the same call identifier (MSI SDN) within the first communication network.
A probe assembly for ablating tissue within an ostium of an anatomical vessel, comprising: an outer probe including an elongate probe body having a helically shaped distal ablative structure consisting of a number of coils (36, 38, 40) revolving around the longitudinal axis of the elongate probe body, the distal ablative structure having a frusto-conical shape where the diameter decreases in the distal direction, and one or more ablative elements mounted to the distal ablative structure; a lumen having an exit port; an inner probe configured to be slidably disposed within the lumen, the inner probe including an elongate probe body having a distal diagnostic structure configured to extend out the exit port, and one or more diagnostic elements mounted to the distal diagnostic structure; and the distal ablative structure has an open architecture defining an interior space in which the distal diagnostic structure is configured to extend from the exit port into the interior space; wherein the lumen is in the outer probe; and the elongate probe body includes an anchor member distal of the ablative structure. an outer probe including an elongate probe body having a helically shaped distal ablative structure consisting of a number of coils (36, 38, 40) revolving around the longitudinal axis of the elongate probe body, the distal ablative structure having a frusto-conical shape where the diameter decreases in the distal direction, and one or more ablative elements mounted to the distal ablative structure; a lumen having an exit port; an inner probe configured to be slidably disposed within the lumen, the inner probe including an elongate probe body having a distal diagnostic structure configured to extend out the exit port, and one or more diagnostic elements mounted to the distal diagnostic structure; and the distal ablative structure has an open architecture defining an interior space in which the distal diagnostic structure is configured to extend from the exit port into the interior space; wherein the lumen is in the outer probe; and the elongate probe body includes an anchor member distal of the ablative structure.
A method of wireless communication, comprising: detecting, by a transmitter, a successful extended clear channel assessment -ECCA- check on at least one carrier utilizing a contention-based radio frequency spectrum, wherein the successful ECCA check occurs prior to a boundary of a current subframe; characterized in that the method further comprises: remaining idle, by the transmitter, from the time in which the successful ECCA was detected to the beginning of the next subframe; transmitting, by the transmitter, a channel reserving signal beginning at a subsequent subframe after the current subframe on the at least one carrier. detecting, by a transmitter, a successful extended clear channel assessment -ECCA- check on at least one carrier utilizing a contention-based radio frequency spectrum, wherein the successful ECCA check occurs prior to a boundary of a current subframe; characterized in that the method further comprises: remaining idle, by the transmitter, from the time in which the successful ECCA was detected to the beginning of the next subframe; transmitting, by the transmitter, a channel reserving signal beginning at a subsequent subframe after the current subframe on the at least one carrier. remaining idle, by the transmitter, from the time in which the successful ECCA was detected to the beginning of the next subframe; transmitting, by the transmitter, a channel reserving signal beginning at a subsequent subframe after the current subframe on the at least one carrier.
A method for the preparation of proanthocyanidins and proanthocyanidin analogues, the method comprising a) providing the 3-oxo-derivative -5,7,3',4'-tetrakis(methyloxy)flavan-3-one; b) providing the additional compound 1,3,5 trimethoxybenzene or 5, 7, 3', 4'-tetra-O-methylcatechin (compound 3); c) contacting the 3-oxo-derivative with the additional compound in the presence of AgBF 4 in THF to form C-4 phloroglucinol adducts (compounds 5 and 6 or compounds 18 and 19) a) providing the 3-oxo-derivative -5,7,3',4'-tetrakis(methyloxy)flavan-3-one; b) providing the additional compound 1,3,5 trimethoxybenzene or 5, 7, 3', 4'-tetra-O-methylcatechin (compound 3); c) contacting the 3-oxo-derivative with the additional compound in the presence of AgBF 4 in THF to form C-4 phloroglucinol adducts (compounds 5 and 6 or compounds 18 and 19)
A vehicle passenger compartment carpet assembly including a spacer, a passenger compartment carpet, and expandable material injected into a space present particularly between said spacer and said passenger compartment carpet, the passenger compartment carpet having a lower face facing an upper face of said spacer, the passenger compartment carpet assembly being characterized in that the upper face of the spacer, in contact with the lower face of the passenger compartment carpet, comprises a first plurality of channels, configured such that said channels, injected with expandable material, induce the formation of dried expandable material strips ensuring that the passenger compartment carpet is kept on the spacer.
A device for processing a part in a vacuum, the device comprising a vacuum bag for placement over the part, characterized in that the device further comprises: a film inside of and extending across the bag, the film including oxygen sensitive material, the oxygen sensitive material arranged to change in physical appearance at the general location of an air leak in the bag when the bag is under vacuum to indicate the location of the air leak. a film inside of and extending across the bag, the film including oxygen sensitive material, the oxygen sensitive material arranged to change in physical appearance at the general location of an air leak in the bag when the bag is under vacuum to indicate the location of the air leak.
An outdoor heat exchanger comprising: a plurality of heat exchange fins; a plurality of refrigerant straight pipes penetrating the plurality of heat exchange fins; and a plurality of connecting pipes (80, 90) being connected to the plurality of refrigerant straight pipes so as to form a plurality of refrigerant passages with the refrigerant straight pipes; characterized in that at least one of the plurality of connecting pipes (80, 90) includes; a first straight pipe portion having a first end connected to the first one of the plurality of refrigerant straight pipes; a branch pipe portion branched from the first straight pipe portion and having at least a first end disposed parallel to the first straight pipe portion, wherein the first end is connected to a second one of the plurality of refrigerant passages; and a second straight pipe having an inner insert portion inserted into a second end of the first straight pipe portion and an outlet portion extended from the inner insert portion in an opposite direction to the second end of the first straight pipe portion, wherein the second straight pipe allows gas-phase refrigerant separated from refrigerant flowing through the first straight pipe portion to flow through the second straight pipe, wherein an outer diameter of the inner insert portion is smaller than an inner diameter of the first straight portion. a plurality of heat exchange fins; a plurality of refrigerant straight pipes penetrating the plurality of heat exchange fins; and a plurality of connecting pipes (80, 90) being connected to the plurality of refrigerant straight pipes so as to form a plurality of refrigerant passages with the refrigerant straight pipes; characterized in that at least one of the plurality of connecting pipes (80, 90) includes; a first straight pipe portion having a first end connected to the first one of the plurality of refrigerant straight pipes; a branch pipe portion branched from the first straight pipe portion and having at least a first end disposed parallel to the first straight pipe portion, wherein the first end is connected to a second one of the plurality of refrigerant passages; and a second straight pipe having an inner insert portion inserted into a second end of the first straight pipe portion and an outlet portion extended from the inner insert portion in an opposite direction to the second end of the first straight pipe portion, wherein the second straight pipe allows gas-phase refrigerant separated from refrigerant flowing through the first straight pipe portion to flow through the second straight pipe, wherein an outer diameter of the inner insert portion is smaller than an inner diameter of the first straight portion.
Instrumentation for gauging the size, position and/or rotational orientation of one or more resections of a proximal tibia for receipt of a tibial implant, comprising: a cutting guide instrument configured for resection of the proximal tibia along a cutting plane at an intended level of resection; and a tibia gauge for referencing two or more peripheral aspects of the proximal tibia at the intended level of resection, including a reference plate; characterised in that the tibia gauge further comprises: a first reference arm positioned along the cutting plane when the reference plate is engaged with the cutting guide instrument in a first operational configuration with a distal end surface of the first reference arm dimensioned for engagement with a medial aspect of the proximal tibia at the intended level of resection; and a second reference arm positioned along the cutting plane when the reference plate is engaged with the cutting guide instrument in a second operational configuration with a distal end surface of the second reference arm dimensioned for engagement with a lateral aspect of the proximal tibia at the intended level of resection. a cutting guide instrument configured for resection of the proximal tibia along a cutting plane at an intended level of resection; and a tibia gauge for referencing two or more peripheral aspects of the proximal tibia at the intended level of resection, including a reference plate; characterised in that the tibia gauge further comprises: a first reference arm positioned along the cutting plane when the reference plate is engaged with the cutting guide instrument in a first operational configuration with a distal end surface of the first reference arm dimensioned for engagement with a medial aspect of the proximal tibia at the intended level of resection; and a second reference arm positioned along the cutting plane when the reference plate is engaged with the cutting guide instrument in a second operational configuration with a distal end surface of the second reference arm dimensioned for engagement with a lateral aspect of the proximal tibia at the intended level of resection. a first reference arm positioned along the cutting plane when the reference plate is engaged with the cutting guide instrument in a first operational configuration with a distal end surface of the first reference arm dimensioned for engagement with a medial aspect of the proximal tibia at the intended level of resection; and a second reference arm positioned along the cutting plane when the reference plate is engaged with the cutting guide instrument in a second operational configuration with a distal end surface of the second reference arm dimensioned for engagement with a lateral aspect of the proximal tibia at the intended level of resection.
A support system for a medical treatment room, wherein the support system comprises a rail assembly to be attached to a ceiling of the medical treatment room and a roller trolley for supporting a medical device, wherein the rail assembly comprises one or more longitudinal rails and one or more transverse rails, wherein the roller trolley is movable along each longitudinal track in a longitudinal movement direction and along each transverse rail in a transverse movement direction, wherein the rail assembly has a turntable at common crossing points of the longitudinal rails and the transverse rails, wherein the roller trolley can be arranged on the corresponding turntable for transfer between one of the longitudinal rails and one of the transverse rails, and wherein the roller trolley is configured to rotate the turntable about a rotation axis.
A method for estimating a glomerular filtration rate: from a measured value of megalin in a urine specimen, which comprises associating the measured value of megalin in said urine specimen with the glomerular filtration rate by regression analysis and estimating the glomerular filtration rate from the measured value of megalin in said urine specimen based on the association; wherein the megalin form subjected to measurement in said urine specimen is an extracellular domain fragment of human urinary megalin, and wherein there exists a positive correlation between the estimated glomerular filtration rate (eGFR) and a calculated value of the urinary megalin excretion rate, from the measured value of megalin in the urine specimen, when the eGFR is obtained according to the following equation: eGFR mL / min / 1.73 m 2 = 194 × Cr − 1.094 × Age − 0.287, if the subject is female, the solution is further multiplied by 0.739, whereby Cr is serum creatinine level, and Age is the subjects age.
A scale detection device of a concentrating device, the scale detection device comprising: a concentrating device including a filtering membrane configured for concentrating salt in a water to be treated containing at least calcium sulfate to obtain a first reclaimed water and a first concentrated water; a scale detection unit connected downstream the concentrating device and disposed in a branched line (L 14) branched from a concentrated water line (L 13) from the concentrating device configured for discharging the first concentrated water having a high concentration of salt, the scale detection unit including a detection membrane configured for further concentrating salt in the first concentrated water to obtain a second reclaimed water and a second concentrated water and detecting the absence or presence of scale component deposition in the first concentrated water; and a heat exchange device configured for decreasing temperature of the concentrated water supplied to the scale detection unit. a concentrating device including a filtering membrane configured for concentrating salt in a water to be treated containing at least calcium sulfate to obtain a first reclaimed water and a first concentrated water; a scale detection unit connected downstream the concentrating device and disposed in a branched line (L 14) branched from a concentrated water line (L 13) from the concentrating device configured for discharging the first concentrated water having a high concentration of salt, the scale detection unit including a detection membrane configured for further concentrating salt in the first concentrated water to obtain a second reclaimed water and a second concentrated water and detecting the absence or presence of scale component deposition in the first concentrated water; and a heat exchange device configured for decreasing temperature of the concentrated water supplied to the scale detection unit.