mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring performance of a base station, comprising: formulating a counter rule base; loading, by a network management system, the counter rule base; sending, by the network management system, a measurement task to a base station; collecting original data and reporting the original data to the network management system by the base station; and acquiring, by the network management system, performance data by using the counter rule base according to the reported original data; characterized in that wherein the counter rule base comprises: an original data set, a counter base, and counter rules; the original data set includes all original data of a base station that can be reported; the counter base includes all counters required to calculate performance data of the base station; the counter rule includes one or more mapping relationship between the original data and the one or more counters, operation type and condition information for measuring the performance; the mapping relationship includes the original data corresponds with the performance data acquired by one or multiple operations of counters, and logical operation rule among results of a plurality of counters; the logical operation rule includes adding, subtracting, multiplying, dividing, "more than", "less than", "AND", and "OR"; wherein the counter rule base is organized as a file which can be loaded by a network management system. formulating a counter rule base; loading, by a network management system, the counter rule base; sending, by the network management system, a measurement task to a base station; collecting original data and reporting the original data to the network management system by the base station; and acquiring, by the network management system, performance data by using the counter rule base according to the reported original data; characterized in that wherein the counter rule base comprises: an original data set, a counter base, and counter rules; the original data set includes all original data of a base station that can be reported; the counter base includes all counters required to calculate performance data of the base station; the counter rule includes one or more mapping relationship between the original data and the one or more counters, operation type and condition information for measuring the performance; the mapping relationship includes the original data corresponds with the performance data acquired by one or multiple operations of counters, and logical operation rule among results of a plurality of counters; the logical operation rule includes adding, subtracting, multiplying, dividing, "more than", "less than", "AND", and "OR"; wherein the counter rule base is organized as a file which can be loaded by a network management system.
Apparatus comprising an optical fibre and a strain isolating housing wherein the housing defines a cavity and defines an entry to the cavity and an exit from the cavity, the optical fibre being arranged to enter the housing at the entry and to exit the housing at the exit and being secured to the housing at a first securing location in the region of said entry and at a second securing location in the region of said exit, the optical fibre including a Bragg grating within the housing and extending between the entry and the exit along an non-intersecting path that has at least one unsecured arcuate portion such that the portion at which the Bragg grating is formed is substantially isolated within the housing from strain imposed on the fibre outside the housing and such that substantially only changes in temperature affect the Bragg grating.
A cross-linked film suitable for use as top web in vacuum skin packaging comprising at least: - an outer sealing layer a) comprising one or more (co)polyesters having a glass transition temperature (Tg) not higher than 50°C, preferably than 35°C, more preferably than 20°C measured according to ASTM D 3418 and/or a melting point temperature (Tm) not higher than 170°C, preferably than 160°C, more preferably than 150°C, measured according to ASTM D 3418, - an outer abuse layer c) comprising one or more polymer(s) selected from the group consisting of polyolefins and their copolymers, polyamides, polyesters, styrene-based polymers and optionally, - a tie layer b) interposed between layer a) and c). - an outer sealing layer a) comprising one or more (co)polyesters having a glass transition temperature (Tg) not higher than 50°C, preferably than 35°C, more preferably than 20°C measured according to ASTM D 3418 and/or a melting point temperature (Tm) not higher than 170°C, preferably than 160°C, more preferably than 150°C, measured according to ASTM D 3418, - an outer abuse layer c) comprising one or more polymer(s) selected from the group consisting of polyolefins and their copolymers, polyamides, polyesters, styrene-based polymers and optionally, - a tie layer b) interposed between layer a) and c).
Method of obtaining a "fresh spun cheese" product starting from fresh milk, comprising the following production stages: a) heating the milk at a temperature between 28 - 32°C; b) milk filtration; c) milk degreasing; d) lactic fermentation for a sufficient time up to a pH of 5.4; e) addition of liquid enzymatic curd in a proportion of 7,5 - 18,5 % in volume reported to the total mass of the mixture; f) heating the mixture by steam ebullition up to the temperature of 65 - 70°C, followed by the addition of a second part of liquid enzymatic curd; g) formation of a cheese block and cutting into pieces; h) manual processing by kneading until a cheese mass with fibrous and elastic texture is obtained; i) suspension of the cheese mass on supports to eliminate the remaining whey and to stretch it under its own weight to become 100-150% more stretched and spread; j) introducing and keeping the cheese mass in brine with a concentration of 12-17% for approximately 20-24 hours to adjust humidity, decrease the acidity and improve taste as well as to achieve preservation by inhibiting the development of microorganisms. k) eliminating the brine, drying, portioning, packing and storage. a) heating the milk at a temperature between 28 - 32°C; b) milk filtration; c) milk degreasing; d) lactic fermentation for a sufficient time up to a pH of 5.4; e) addition of liquid enzymatic curd in a proportion of 7,5 - 18,5 % in volume reported to the total mass of the mixture; f) heating the mixture by steam ebullition up to the temperature of 65 - 70°C, followed by the addition of a second part of liquid enzymatic curd; g) formation of a cheese block and cutting into pieces; h) manual processing by kneading until a cheese mass with fibrous and elastic texture is obtained; i) suspension of the cheese mass on supports to eliminate the remaining whey and to stretch it under its own weight to become 100-150% more stretched and spread; j) introducing and keeping the cheese mass in brine with a concentration of 12-17% for approximately 20-24 hours to adjust humidity, decrease the acidity and improve taste as well as to achieve preservation by inhibiting the development of microorganisms. k) eliminating the brine, drying, portioning, packing and storage.
A communication and control system for controlling vehicle-related functions (18, 20, 22) of a vehicle, comprising: a primary and a secondary cellular device (40, 14) provided by a user of the vehicle; a docking station disposed in the vehicle for receiving the secondary device; and a bi-directional communication link (28, 30) established between the secondary cellular device and an on-board electronic controller of the vehicle via the docking station, the on-board electronic controller being programmed to recognize and accept calls placed to the secondary device disposed in the docking station from the primary device by the user, to verify that the call is being made by an authorized user, and thereafter to process vehicle-related requests communicated from the primary device to the secondary device disposed in the docking station by the user to control said vehicle-related functions (18, 20, 22) of the vehicle, wherein the on-board electronic controller is programmed to initiate a communication from the secondary device to the primary device or another device, wherein the communication initiated by the on-board electronic controller is responsive to a vehicle-related event detected by the on-board electronic controller or another controller or sensor, and wherein the phone number of an outgoing call varies depending on the nature of the vehicle-related event. a primary and a secondary cellular device (40, 14) provided by a user of the vehicle; a docking station disposed in the vehicle for receiving the secondary device; and a bi-directional communication link (28, 30) established between the secondary cellular device and an on-board electronic controller of the vehicle via the docking station, the on-board electronic controller being programmed to recognize and accept calls placed to the secondary device disposed in the docking station from the primary device by the user, to verify that the call is being made by an authorized user, and thereafter to process vehicle-related requests communicated from the primary device to the secondary device disposed in the docking station by the user to control said vehicle-related functions (18, 20, 22) of the vehicle,
A method of manufacturing a high-pressure composite pressure vessel configured to contain a gas and/or liquid, the method comprising the steps of: providing an expandable core vessel (102; 118) configured to expand under pressure; providing an aligned discontinuous fiber composite material (104; 116), the aligned discontinuous fiber composite material (104; 106) comprising fibers that are between 5 mm and 100 mm in length, wherein the fibers are aligned in a prepreg tape; wrapping the expandable core vessel (102: 118) with the aligned discontinuous fiber-reinforced composite (104; 116); wrapping the expandable core vessel (102; 118) with a continuous fiber-reinforced composite; expanding the expandable core vessel (102; 118) by pressurizing the expandable core vessel (102; 118) and by applying pressure to the aligned discontinuous fiber-reinforced composite (104; 116) and the continuous fiber-reinforced composite by the expanded core vessel (102; 118); heating the expanded core vessel (102; 118) under pressure and thereby consolidating the composite overwrap; and cooling the expanded core vessel (102; 118) under pressure resulting in the high-pressure composite pressure vessel. providing an expandable core vessel (102; 118) configured to expand under pressure; providing an aligned discontinuous fiber composite material (104; 116), the aligned discontinuous fiber composite material (104; 106) comprising fibers that are between 5 mm and 100 mm in length, wherein the fibers are aligned in a prepreg tape; wrapping the expandable core vessel (102: 118) with the aligned discontinuous fiber-reinforced composite (104; 116); wrapping the expandable core vessel (102; 118) with a continuous fiber-reinforced composite; expanding the expandable core vessel (102; 118) by pressurizing the expandable core vessel (102; 118) and by applying pressure to the aligned discontinuous fiber-reinforced composite (104; 116) and the continuous fiber-reinforced composite by the expanded core vessel (102; 118); heating the expanded core vessel (102; 118) under pressure and thereby consolidating the composite overwrap; and cooling the expanded core vessel (102; 118) under pressure resulting in the high-pressure composite pressure vessel.
A nipple for spoked wheels, particularly for motorcycling uses, including a head and a rod which are coaxial and through which a through-hole extends coaxially, a manoeuvring key in the head and a further manoeuvring key in the rod, the further manoeuvring key on the rod being constructed by a polygonal profile which is formed externally on a portion of the rod which is distal with respect to the head, the nipple further comprising an insert of plastics material which is inserted in the hole in order to engage in a screwing manner with friction with a threaded end of a spoke, wherein the hole comprises a threaded portion which extends in the rod and a portion with an increased diameter between the threaded portion and the manoeuvring key, the portion with increased diameter which constitutes the seat for receiving the insert, the insert being formed by a tubular sleeve inserted in the seat at the side of the head and being blocked there by means of interference or adhesive bonding, characterized in that the head is widened with respect to the diameter of the rod and is connected thereto by means of a frustoconical collet, the seat being constructed from a section of the nipple corresponding to the smaller base of said frustoconical collet.
Polymer comprising: (a) polymeric units derived from vinyl chloride; and (b) polymeric units derived from glycerol (meth)acrylate wherein the polymer has • an average particle size of 10 - 80 μm expressed as D 50 determined in accordance with ISO 9276-2; and • a porosity of ≤ 0.20 ml/g as determined as the quantity of di(2-ethylhexyl)phthalate in ml absorbed by 1 g of polymer upon subjecting the polymer at 23°C to vacuum, submerging in di(2-ethylhexyl)phthalate for 10 min, and subsequently centrifuging at 2000 rpm for 45 min. (a) polymeric units derived from vinyl chloride; and (b) polymeric units derived from glycerol (meth)acrylate wherein the polymer has • an average particle size of 10 - 80 μm expressed as D 50 determined in accordance with ISO 9276-2; and • a porosity of ≤ 0.20 ml/g as determined as the quantity of di(2-ethylhexyl)phthalate in ml absorbed by 1 g of polymer upon subjecting the polymer at 23°C to vacuum, submerging in di(2-ethylhexyl)phthalate for 10 min, and subsequently centrifuging at 2000 rpm for 45 min. • an average particle size of 10 - 80 μm expressed as D 50 determined in accordance with ISO 9276-2; and • a porosity of ≤ 0.20 ml/g as determined as the quantity of di(2-ethylhexyl)phthalate in ml absorbed by 1 g of polymer upon subjecting the polymer at 23°C to vacuum, submerging in di(2-ethylhexyl)phthalate for 10 min, and subsequently centrifuging at 2000 rpm for 45 min.
A system for treating a skin surface, comprising: a dressing comprising an elastic layer having a skin adhesive (20, 22), a first attachment region, and a second attachment region; and a tensioning device (260, 280), comprising: a first attachment structure (262, 282) releasably coupled to the first attachment region of the dressing, a second attachment structure (262, 282) releasably coupled to the second attachment region of the dressing, wherein the first attachment structure and second attachment structure are configured to bend or deform to facilitate conforming the dressing to a skin surface, a force transfer mechanism coupled to the first and second attachment structures; and wherein the tensioning device has a first configuration wherein the dressing is relatively less strained and a second configuration wherein the dressing is relatively more strained. a dressing comprising an elastic layer having a skin adhesive (20, 22), a first attachment region, and a second attachment region; and a tensioning device (260, 280), comprising: a first attachment structure (262, 282) releasably coupled to the first attachment region of the dressing, a second attachment structure (262, 282) releasably coupled to the second attachment region of the dressing, wherein the first attachment structure and second attachment structure are configured to bend or deform to facilitate conforming the dressing to a skin surface, a force transfer mechanism coupled to the first and second attachment structures; and a first attachment structure (262, 282) releasably coupled to the first attachment region of the dressing, a second attachment structure (262, 282) releasably coupled to the second attachment region of the dressing, wherein the first attachment structure and second attachment structure are configured to bend or deform to facilitate conforming the dressing to a skin surface, a force transfer mechanism coupled to the first and second attachment structures; and
A vehicle tire having a sidewall section arranged between a shoulder section connected to an edge of a tread section and a bead section to be mounted on a wheel comprising: a plurality of ridge-type curved protrusions embossed above a side mold base of the sidewall section and successively formed and extended in the clockwise direction along by the sidewall section from a start point at an upper rim flange of the bead section to an end point at a top of the sidewall section, the ridge-type curved protrusions being successively and repeatedly formed in the same equiangular structure on the side mold base of the sidewall section; wherein the ridge-type curved protrusions have a cross-sectional shape of a symmetrical protrusion curve; characterized in that the ridge-type curved protrusions comprise a radially upper side and a radially lower side gently concavely curved and extending from the ridge to the side mold base of the sidewall section respectively. a plurality of ridge-type curved protrusions embossed above a side mold base of the sidewall section and successively formed and extended in the clockwise direction along by the sidewall section from a start point at an upper rim flange of the bead section to an end point at a top of the sidewall section, the ridge-type curved protrusions being successively and repeatedly formed in the same equiangular structure on the side mold base of the sidewall section; wherein the ridge-type curved protrusions have a cross-sectional shape of a symmetrical protrusion curve; characterized in that the ridge-type curved protrusions comprise a radially upper side and a radially lower side gently concavely curved and extending from the ridge to the side mold base of the sidewall section respectively.
A process for manufacturing (semi)-crystalline vinylidene fluoride polymer particles [polymer (F f) particles], said process comprising: (i) providing an aqueous dispersion [dispersion] consisting of an aqueous medium and of particles of at least one (semi)-crystalline VDF-based polymer [polymer particles], and (ii) thermally treating the dispersion provided in step (i) at a temperature comprised in the range from 100 to 180°C, preferably from 110 and 160°C, under stirring, and (iii) isolating polymer (F f) particles from the thermally treated dispersion obtained in step (ii). (i) providing an aqueous dispersion [dispersion] consisting of an aqueous medium and of particles of at least one (semi)-crystalline VDF-based polymer [polymer particles], and (ii) thermally treating the dispersion provided in step (i) at a temperature comprised in the range from 100 to 180°C, preferably from 110 and 160°C, under stirring, and (iii) isolating polymer (F f) particles from the thermally treated dispersion obtained in step (ii).
A process for producing an alkylaromatic compound in a multistage reaction system comprising at least first and second series-connected alkylation reaction zones each containing an alkylation catalyst, the process comprising the steps of: (a) introducing a first feed comprising an alkylatable aromatic compound and a second feed comprising an alkene and one or more alkanes into said first alkylation reaction zone; (b) operating said first alkylation reaction zone under conditions effective to cause alkylation of said alkylatable aromatic compound by said alkene, said conditions being such that part of said alkylatable aromatic compound is in the vapor phase and part is in the liquid phase; (c) withdrawing from said first alkylation reaction zone an effluent comprising said alkylaromatic compound, unreacted alkylatable aromatic compound, any unreacted alkene and said alkane; and (d) without removing said alkane from said effluent, supplying said effluent and said alkene to the second alkylation reaction zone; and (e) operating said second alkylation reaction zone under conditions effective to cause alkylation of said alkylatable aromatic compound by said alkene, said conditions being such that part of said alkylatable aromatic compound is in the vapor phase and part is in the liquid phase; wherein the operating conditions in (b) and (e) are such that the ratio of the volume of liquid to the volume of vapor in each of said first and second reaction zones is from 0.5 to 10, and wherein said first and second alkylation catalysts include a molecular sieve selected from the group consisting of MCM-22, PSH-3, SSZ-25, ERB-1, ITQ-1, ITQ-2, MCM-36, MCM-49, MCM-56, and mixtures thereof. (a) introducing a first feed comprising an alkylatable aromatic compound and a second feed comprising an alkene and one or more alkanes into said first alkylation reaction zone; (b) operating said first alkylation reaction zone under conditions effective to cause alkylation of said alkylatable aromatic compound by said alkene, said conditions being such that part of said alkylatable aromatic compound is in the vapor phase and part is in the liquid phase; (c) withdrawing from said first alkylation reaction zone an effluent comprising said alkylaromatic compound, unreacted alkylatable aromatic compound, any unreacted alkene and said alkane; and (d) without removing said alkane from said effluent, supplying said effluent and said alkene to the second alkylation reaction zone; and (e) operating said second alkylation reaction zone under conditions effective to cause alkylation of said alkylatable aromatic compound by said alkene, said conditions being such that part of said alkylatable aromatic compound is in the vapor phase and part is in the liquid phase;
A process for preparing a liquid smoke reaction product, the process comprising the steps of: (a) preparing a reaction solution comprising a liquid smoke composition and an amino acid; and (b) heating the reaction solution to a temperature between 85°C and 150°C for 5 to 120 minutes; wherein the liquid smoke composition has: (i) a titratable acidity level in a concentration of less than about 25% weight per unit volume (w/v); (ii) a carbonyl content of greater than about 1% and up to about 80% weight per unit volume (w/v); (iii) a phenol content in a concentration of greater than about 0.25 mg/mL; and (iv) a pH of less than about 7.0. (a) preparing a reaction solution comprising a liquid smoke composition and an amino acid; and (b) heating the reaction solution to a temperature between 85°C and 150°C for 5 to 120 minutes; (i) a titratable acidity level in a concentration of less than about 25% weight per unit volume (w/v); (ii) a carbonyl content of greater than about 1% and up to about 80% weight per unit volume (w/v); (iii) a phenol content in a concentration of greater than about 0.25 mg/mL; and (iv) a pH of less than about 7.0.
Connection piece for mounting on an exhaust system of an internal combustion engine, wherein the connection piece has an internal thread, which is formed about a thread axis; the internal thread is designed to engage in an external thread of an exhaust gas sensor; the connection piece also has at least one first sealing surface for receiving a seal; the first sealing surface has an undercut; the first sealing surface is arranged adjacent to the internal thread on the axial side in the screw-in direction of the internal thread, characterized in that the first sealing surface extends at an angle (α) of 0.25° to 10.0° with respect to a plane perpendicular to the thread axis of the internal thread, so that the sealing surface slopes down towards the outside in the radial direction in the screw-in direction of the internal thread.