mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire comprising a tread portion provided with an asymmetric tread pattern and having an outboard tread edge (Te) and an inboard tread edge (Te) to be located outside and inside of a vehicle respectively, the asymmetric tread pattern comprising: circumferential grooves extending continuously in the tire circumferential direction and including an outboard shoulder circumferential groove and an inboard shoulder circumferential groove; transverse grooves including outboard shoulder transverse grooves extending from the outboard shoulder circumferential groove to the outboard tread edge (Te), and inboard shoulder transverse grooves extending from the inboard shoulder circumferential groove to the inboard tread edge (Te); a row of circumferentially arranged outboard shoulder blocks defined by the outboard shoulder circumferential groove, the outboard tread edge (Te) and the outboard shoulder transverse grooves; and a row of circumferentially arranged inboard shoulder blocks defined by the inboard shoulder circumferential groove, the inboard tread edge (Te) and the inboard shoulder transverse grooves, wherein the inboard shoulder blocks have an axial width and the outboard shoulder blocks have an axial width more than the axial width of the inboard shoulder blocks, the inboard shoulder blocks and the outboard shoulder blocks are each provided with a plurality of sipes, characterized in that the sipes of each said outboard shoulder block include a circumferential sipe as the axially outermost sipe, the circumferential sipe extending at an angle (θ1) of not more than 10 degrees with respect to the tire circumferential direction, and each said outboard shoulder block has an axially outer sidewall of which surface is provided with a plurality of narrow buttress grooves extending radially inwardly from the outboard tread edge (Te), wherein the groove width of the outboard shoulder circumferential groove is the smallest among those of the circumferential grooves.
An information handling system to manage resources in a mixed network having a mobility management entity, MME, pool to perform load balancing, comprising circuitry configured to: receive performance measurements for at least one non-virtualized MME in the MME pool; if at least one of the performance measurements of the at least one non-virtualized MME exceeds at least one predetermined threshold, request to instantiate a mobility management entity virtual network function, MME VNF,; instantiate the MME VNF in response to the request; and connect one or more user equipment, UE, devices managed by the MME pool to the MME VNF. receive performance measurements for at least one non-virtualized MME in the MME pool; if at least one of the performance measurements of the at least one non-virtualized MME exceeds at least one predetermined threshold, request to instantiate a mobility management entity virtual network function, MME VNF,; instantiate the MME VNF in response to the request; and connect one or more user equipment, UE, devices managed by the MME pool to the MME VNF.
A multi-piece piston ring comprising an upper scraper ring comprising two flank surfaces (24, 26), an outer scraping surface, and an inner spring contact surface, a lower support ring comprising two flank surfaces (44, 46), comprising an outer spring contact surface, and a support ring inner surface, as well as an expander spring, which, on an upper and lower side (80, 82), is to abut against a respective lower flank surface of the upper scraper ring and against the upper flank surface of the support ring, as well as has scraper ring contact projections protruding upwards on an inner spring side, and support ring contact projections protruding downwards on an outer spring side, characterized in that the expander spring is embodied as MF spring. an upper scraper ring comprising two flank surfaces (24, 26), an outer scraping surface, and an inner spring contact surface, a lower support ring comprising two flank surfaces (44, 46), comprising an outer spring contact surface, and a support ring inner surface, as well as an expander spring, which, on an upper and lower side (80, 82), is to abut against a respective lower flank surface of the upper scraper ring and against the upper flank surface of the support ring, as well as has scraper ring contact projections protruding upwards on an inner spring side, and support ring contact projections protruding downwards on an outer spring side, characterized in that the expander spring is embodied as MF spring.
A concrete mattress for use in underwater environments, the mattress comprising a plurality of blocks linked together by linkage means, said linkage means comprising one or more ropes cast within each block to retain the blocks within the mattress in a flexible relationship to each other, said plurality of blocks further comprising profiled edge blocks and central blocks, the blocks being linked in an array comprising rows and columns of blocks, wherein the composition and reaction conditions used in the production of said concrete mattress provide sufficient physical characteristics to support the forces associated with moving more than one mattress during loading and unloading without said rope pulling out of said concrete mattress, characterised in that from an edge block at the end of each row and column the rope is formed into a loop in which either or both ends are fixed into a single block, or each end of the loop is fixed into adjacent blocks.
A method for producing a compound represented by formula, the method comprising Step: adding a compound represented by formula and phosphorus oxychloride simultaneously and separately to a compound represented by formula to produce the compound represented by formula.
Non therapeutic use of spider venoms, molecules or synthetic analogs thereof as a skin whitening/depigmenting cosmetic agent, wherein the spider venom molecule or synthetic analog is represented by formula: R1-R2-R3-R4-R5-R6 wherein: • R1 is 2 C 6 H 3 -CH 2 -C(=O)- or Tyr; • R2 is -NH-CH[(CH 2) n -C(=O)-NH 2]-C(=O)-, with n=1 or 2, preferably n=1; • R3 is -NH- (CH 2) n' -NH-, with n' is an integer between 1 and 7, preferably between 1 and 6, and most preferably n'=5; • R4 is absent or is -(CH 2) n" -NH-, with n" is an integer between 1 and 7, preferably n"=3 or 4, and still preferably n"=3; • R5 is absent or is - (CH 2) n"' -NH-, with n"' is an integer between 1 and 7, preferably n"'=3 or 4, and still preferably n"'=3; • R6 is an arginine residue. • R1 is 2 C 6 H 3 -CH 2 -C(=O)- or Tyr; • R2 is -NH-CH[(CH 2) n -C(=O)-NH 2]-C(=O)-, with n=1 or 2, preferably n=1; • R3 is -NH- (CH 2) n' -NH-, with n' is an integer between 1 and 7, preferably between 1 and 6, and most preferably n'=5; • R4 is absent or is -(CH 2) n" -NH-, with n" is an integer between 1 and 7, preferably n"=3 or 4, and still preferably n"=3; • R5 is absent or is - (CH 2) n"' -NH-, with n"' is an integer between 1 and 7, preferably n"'=3 or 4, and still preferably n"'=3; • R6 is an arginine residue.
A process for synthesis of a catalyst for the oxidative dehydrogenation of paraffins via the hydrothermal treatment comprising: i) preparing an aqueous slurry comprising Mo, V, Nb and Te salts in a molar ratio of metal elements 1:0.3 to 3; 0.05 to 0.25; and 0.08 to 0.2 at a temperature from 25°C to 80°C; ii) heating the slurry in a reaction vessel at a temperature from 150° to 185°C at a pressure from 960 kPa to 1300 kPa, for a period of time of 6 to 72 hours with agitation and simultaneous removal of gaseous byproduct species produced during the reaction. iii) letting the reactor cool and depressurizing the reactor and recovering the solid product. i) preparing an aqueous slurry comprising Mo, V, Nb and Te salts in a molar ratio of metal elements 1:0.3 to 3; 0.05 to 0.25; and 0.08 to 0.2 at a temperature from 25°C to 80°C; ii) heating the slurry in a reaction vessel at a temperature from 150° to 185°C at a pressure from 960 kPa to 1300 kPa, for a period of time of 6 to 72 hours with agitation and simultaneous removal of gaseous byproduct species produced during the reaction. iii) letting the reactor cool and depressurizing the reactor and recovering the solid product.
A chemical mechanical polishing composition for polishing a substrate having a tungsten layer, the composition comprising: a water based liquid carrier; a colloidal silica abrasive dispersed in the liquid carrier, the colloidal silica abrasive having a permanent positive charge of at least 6 mV; an amine compound in solution in the liquid carrier, wherein the amine compound is selected from the group consisting of triethylenetetramine, tetraethylenepentamine, pentaethylenehexamine, polymers including the following amine containing functional groups methacryloylox-ethyl trimethyl ammonium methylsulfate, diallyl dimethyl ammonium chloride, and methacrylamido-propyl trimethyl ammonium chloride, and mixtures thereof; and an iron containing accelerator. a water based liquid carrier; a colloidal silica abrasive dispersed in the liquid carrier, the colloidal silica abrasive having a permanent positive charge of at least 6 mV; an amine compound in solution in the liquid carrier, wherein the amine compound is selected from the group consisting of triethylenetetramine, tetraethylenepentamine, pentaethylenehexamine, polymers including the following amine containing functional groups methacryloylox-ethyl trimethyl ammonium methylsulfate, diallyl dimethyl ammonium chloride, and methacrylamido-propyl trimethyl ammonium chloride, and mixtures thereof; and an iron containing accelerator.
A negative-electrode material for a lithium battery, being a mixture of: (i) an electrical conducting material which is a sulfide having electronic conduction and (ii) an electrode active material which can be reduced via a conversion reaction to an element that can undergo an alloying reaction with lithium, wherein the electrode active material is a sulfide of the element; and wherein the negative-electrode material is capable of charging and discharging through the conversion reaction and the alloying reaction with lithium, said negative-electrode material is obtainable by: vaporizing the mixture of said (i) electrical conducting material having electronic conduction and said (ii) electrode active material which is reducible to a simple substance which undergoes an alloying reaction with lithium; and solidifying the mixture thus vaporized. vaporizing the mixture of said (i) electrical conducting material having electronic conduction and said (ii) electrode active material which is reducible to a simple substance which undergoes an alloying reaction with lithium; and solidifying the mixture thus vaporized.
An aircraft auto recovery method comprising: receiving one of a caution alert or a warning alert from a warning system; waiting a predefined period of time for positive flight control input by the flight crew; and, the method characterised by: initiating auto-recovery if no positive flight control input has been performed at time of expiration of the waiting period, wherein initiating auto-recovery includes increasing flight path angle by 2° if a caution alert is received, wherein initiating auto-recovery includes increasing flight path angle by an additional 2° if the caution alert remains after expiration of an additional waiting period. receiving one of a caution alert or a warning alert from a warning system; waiting a predefined period of time for positive flight control input by the flight crew; and, the method characterised by: initiating auto-recovery if no positive flight control input has been performed at time of expiration of the waiting period, wherein initiating auto-recovery includes increasing flight path angle by 2° if a caution alert is received, wherein initiating auto-recovery includes increasing flight path angle by an additional 2° if the caution alert remains after expiration of an additional waiting period.
A method of forming a façade system, in which at least one heat insulation panel is secured to a customer-provided substrate by means of at least one plate dowel in order to form a single- or multi-layer heat insulation layer, characterized in that, in order to form a flat substrate, the plate dowel is further used for securing a support plate, which has pin-, mushroom head-, hook- and/or sling-shaped connecting elements for securing a plate- or profile-like component with pin-, mushroom head-, hook- and/or sling-shaped connecting elements designed correspondingly hereto like a Velcro fastener, wherein the support plate is placed against the heat insulation panel in such a way that the connecting elements lie on the side facing away from the heat insulation panel, after which the plate dowel is inserted into the support plate and heat insulation panel.
An irradiation target harvesting system comprising at least one storage container (42, 42') for receiving activated irradiation targets from an instrumentation tube system of a nuclear reactor; a discharge tube having an exit port configured to be coupled to the storage container (42, 42'); and a lock element provided in the discharge tube for blocking movement of the activated irradiation targets to the storage container (42, 42'); characterized in that the discharge tube comprises a first discharge tube section, a second discharge tube section and an apex formed at a conjunction of the first and second discharge tube section (46, 48), wherein the first and second discharge tube section (46, 48) are directed downwardly from the apex, wherein the exit port is arranged at an end of the first discharge tube section and wherein the second discharge tube section is coupled to the instrumentation tube system. at least one storage container (42, 42') for receiving activated irradiation targets from an instrumentation tube system of a nuclear reactor; a discharge tube having an exit port configured to be coupled to the storage container (42, 42'); and a lock element provided in the discharge tube for blocking movement of the activated irradiation targets to the storage container (42, 42'); characterized in that the discharge tube comprises a first discharge tube section, a second discharge tube section and an apex formed at a conjunction of the first and second discharge tube section (46, 48), wherein the first and second discharge tube section (46, 48) are directed downwardly from the apex, wherein the exit port is arranged at an end of the first discharge tube section and wherein the second discharge tube section is coupled to the instrumentation tube system.
A method of culturing an adherent mammalian cell, the method comprising: providing a shake tube containing an adherent mammalian cell disposed in a first liquid culture medium, wherein the first liquid culture medium occupies about 10% to about 30% of the volume of the shake tube and contains a plurality of microcarriers at a concentration of about 1.0 g/L to about 15.0 g/L; incubating the shake tube for a period of time at about 32 °C to about 39 °C and with a rotary agitation of 130 revolutions per minute to 150 RPM, preferably 140 RPM; and after about the first 48 to 96 hours of the period of time, continuously or periodically removing a first volume of the first liquid culture medium and adding to the first liquid culture medium a second volume of a second liquid culture medium, wherein the first and second volumes are about equal. providing a shake tube containing an adherent mammalian cell disposed in a first liquid culture medium, wherein the first liquid culture medium occupies about 10% to about 30% of the volume of the shake tube and contains a plurality of microcarriers at a concentration of about 1.0 g/L to about 15.0 g/L; incubating the shake tube for a period of time at about 32 °C to about 39 °C and with a rotary agitation of 130 revolutions per minute to 150 RPM, preferably 140 RPM; and after about the first 48 to 96 hours of the period of time, continuously or periodically removing a first volume of the first liquid culture medium and adding to the first liquid culture medium a second volume of a second liquid culture medium, wherein the first and second volumes are about equal.
A pump assembly which is designed as a centrifugal pump, with a pump and with an electrical drive motor, characterised in that the pump assembly comprises an electronic control device, with a frequency converter for the control of the rotation speed of the drive motor, wherein the electronic control device comprises a rotation direction recognition module for recognising the correct rotation direction (CW, CCW) of the drive motor and of the pump, said rotation direction recognition module comprising means (22, 24) for detecting at least one performance characteristic value (H, Q, P) of the pump assembly and being designed in a manner such that on rotation of the drive motor, it detects at least one performance characteristic value (H, Q, P) and determines the correct rotation direction (CW, CCW) by way of evaluation of the performance characteristic value (H, Q, P), and that the frequency converter and the rotation direction recognition module interact in a manner such that the frequency converter sets the rotation direction (CW, CCW) of the drive motor according to the determined, correct rotation direction.
An adapter device (1; 201; 401; 501) for housing a multi-phase low voltage type switch inside a switchboard, said adapter device (1; 201; 401; 501) being characterized in that it comprises, for each phase (41, 42, 43), first and second electric connection means (31, 32) with said switch and third and fourth electric connection means (33, 34) with an electric distribution network, said adapter device (1; 201; 401; 501) being structured so as to define a connection area housing said first and second electric connection means (31, 32), said adapter device (1; 201; 401; 501) also comprising heat removal means (5; 205; 405; 505) adapted to remove heat from said connection area, said heat removal means (5; 205; 405; 505) comprise fan means (6; 207), comprise at least one internal fan facing said connection area, for forced convection of heat from said connection area.
Hydraulic cylinder with a cylinder housing and at least one piston which is arranged at the end of the piston rod and is arranged in the cylinder housing, wherein a protective-tube-like element composed of stainless steel is pushed over the cylinder housing and is connected nondisplaceably thereto, wherein the ends of the cylinder housing are closed by end pieces having seals, wherein the end pieces are each pushed by means of a sliding guide into the respective ends of the cylinder housing in a sealing manner, wherein the two end pieces are connected in a form-fitting manner to the protective-tube-like element by means of suitable means, characterized in that a first fastening device is arranged at that end of the piston rod which projects out of the cylinder housing, and in that a second fastening device is assigned to the cylinder housing, and in that the protective-tube-like element consists of two half-tube shell elements (31.1, 31.2) which can be joined together.
One or more processor-readable storage media storing instructions which, when executed by one or more processors, cause performance of: determining a lag (808, 906) associated with a sensing arrangement based on a relationship between one or more reference values (802, 902) and one or more measurement values of a physiological condition in a user's body at a current site location associated with the sensing arrangement; automatically identifying, from a plurality of site locations on the user's body and based on the lag, the current site location (806, 908) associated with the sensing arrangement; determining one or more performance metrics (814, 914) associated with the current site location based on the one or more measurement values; and providing a sensor site rotation recommendation via a user interface in a manner that is influenced by the one or more performance metrics. determining a lag (808, 906) associated with a sensing arrangement based on a relationship between one or more reference values (802, 902) and one or more measurement values of a physiological condition in a user's body at a current site location associated with the sensing arrangement; automatically identifying, from a plurality of site locations on the user's body and based on the lag, the current site location (806, 908) associated with the sensing arrangement; determining one or more performance metrics (814, 914) associated with the current site location based on the one or more measurement values; and providing a sensor site rotation recommendation via a user interface in a manner that is influenced by the one or more performance metrics.
A valve comprising: a valve body comprising: an inner cavity; an outer cavity at least partly surrounding said inner cavity; a fluid inlet; and a fluid outlet; wherein said outer cavity is in fluid communication with said fluid inlet and with said inner cavity; and wherein said inner cavity is in fluid communication with said fluid outlet; a plug moveably arranged in said inner cavity; at least one flow splitter (143, 145) arranged in said outer cavity and forming in said outer cavity at least two flow passages extending between said fluid inlet and said inner cavity; and an aperture placing the inner cavity in fluid communication with the outer cavity; wherein said valve body comprises an inner wall surrounding said inner cavity and an outer wall at least partly surrounding said inner wall; said outer wall and said inner wall defining said outer cavity there between and wherein said flow splitter (143, 145) comprises: a first projection extending from said inner wall and facing said fluid inlet; and a second projection extending from said outer wall and facing said inner wall. a valve body comprising: an inner cavity; an outer cavity at least partly surrounding said inner cavity; a fluid inlet; and a fluid outlet; wherein said outer cavity is in fluid communication with said fluid inlet and with said inner cavity; and wherein said inner cavity is in fluid communication with said fluid outlet; a plug moveably arranged in said inner cavity; at least one flow splitter (143, 145) arranged in said outer cavity and forming in said outer cavity at least two flow passages extending between said fluid inlet and said inner cavity; and an aperture placing the inner cavity in fluid communication with the outer cavity; wherein said valve body comprises an inner wall surrounding said inner cavity and an outer wall at least partly surrounding said inner wall; said outer wall and said inner wall defining said outer cavity there between and wherein said flow splitter (143, 145) comprises: a first projection extending from said inner wall and facing said fluid inlet; and a second projection extending from said outer wall and facing said inner wall.