mhurhangee/ep-ind-claims huggingface dataset:
A cartridge for use in a device for vaporising a material, said cartridge comprising: a moist layer comprising a vapour-forming material, and; a dry layer which consists of tobacco or other filler; wherein the moist layer has higher content of vapour forming material than the dry layer. a moist layer comprising a vapour-forming material, and; a dry layer which consists of tobacco or other filler; wherein the moist layer has higher content of vapour forming material than the dry layer.
Polyphase synchronous rotary electric machine, having a motor provided with poles rotating inside a stator having slots defining teeth around which are wound coils of the stator (20, 22, 24, 26), the ratio obtained by dividing the number of slots by the number of phases of the machine and the number of poles of the rotor being equal to 2/7, characterized in that the coils of each phase are not angularly distributed in a regular manner on the periphery of the stator, in that the coils (20, 22, 24, 26) of each phase form groups of two coils called pairs of coils, in that the two coils of a pair (20, 22 or 24, 26) are separated by two teeth of the stator, pairs (20+22, 24+26) of a phase are spaced apart on the periphery of the stator with respect to one another by six teeth.
A parking assistance device for a driver of a vehicle, characterized in that it includes monitoring means arranged, when parking assistance is required by said driver, to trigger a display on a screen present in said vehicle of an image that is representative (i) either of at least one type of entry into at least one type of parking zone when a current speed of said vehicle and at least one previously recorded speed of said vehicle are not zero, (ii) or of at least one type of exit from at least one type of parking zone when said current speed of the vehicle and at least one previously recorded speed of said vehicle are zero, (iii) or of at least one type of entry into at least one type of parking zone and of at least one type of exit from at least one type of parking zone when none of the conditions associated with the alternatives (i) and (ii) is fulfilled.
A polar coding method, comprising: obtaining K to-be-coded bits and an index set, wherein the index set comprises indexes of K polar channels, a polar channel corresponding to K1 indexes in the index set is used to place K1 of the K to-be-coded bits, a polar channel corresponding to K2 indexes in the index set is used to place K2 preset bits, K=K1+K2, the set of the K1 indexes or the set of the K2 indexes is determined based on a value set of K2 of the K to-be-coded bits, and the set of the K1 indexes and the set of the K2 indexes are complementary sets of each other; performing polar coding on the K1 to-be-coded bits to obtain a polar-coded codeword, wherein the K1 to-be-coded bits are placed onto polar channels according to the obtained set of the K1 indexes, and K2 preset bits are placed onto polar channels according to the obtained set of the K2 indexes; and outputting the polar-coded codeword, wherein K, K1, and K2 are all integers, K is less than or equal to N, N is a length of the polar-coded codeword, and N is a positive integral power of 2, wherein the K to-be-encoded bits comprise L CRC bits, L is a positive integer greater than or equal to 2, C of the L CRC bits check at least one of the K2 to-be-encoded bits, and an index sequence number corresponding to the C CRC bits is less than a largest index sequence number in the set of the K indexes, wherein C is an integer greater than or equal to 1, and C is less than L. obtaining K to-be-coded bits and an index set, wherein the index set comprises indexes of K polar channels, a polar channel corresponding to K1 indexes in the index set is used to place K1 of the K to-be-coded bits, a polar channel corresponding to K2 indexes in the index set is used to place K2 preset bits, K=K1+K2, the set of the K1 indexes or the set of the K2 indexes is determined based on a value set of K2 of the K to-be-coded bits, and the set of the K1 indexes and the set of the K2 indexes are complementary sets of each other; performing polar coding on the K1 to-be-coded bits to obtain a polar-coded codeword, wherein the K1 to-be-coded bits are placed onto polar channels according to the obtained set of the K1 indexes, and K2 preset bits are placed onto polar channels according to the obtained set of the K2 indexes; and outputting the polar-coded codeword, wherein K, K1, and K2 are all integers, K is less than or equal to N, N is a length of the polar-coded codeword, and N is a positive integral power of 2, wherein the K to-be-encoded bits comprise L CRC bits, L is a positive integer greater than or equal to 2, C of the L CRC bits check at least one of the K2 to-be-encoded bits, and an index sequence number corresponding to the C CRC bits is less than a largest index sequence number in the set of the K indexes, wherein C is an integer greater than or equal to 1, and C is less than L.
A method for transmitting data, comprising: Initiating, by a terminal device, establishment or modification of a first Protocol Data Unit, PDU, session to a network device according to a first rule in at least one rule in a UE Route Selection Policy, URSP, characterized in that, each of the at least one rule has a precedence and includes an identifier, ID, the ID is configured for the terminal device to acquire a corresponding rule according to the identifier. Initiating, by a terminal device, establishment or modification of a first Protocol Data Unit, PDU, session to a network device according to a first rule in at least one rule in a UE Route Selection Policy, URSP, characterized in that, each of the at least one rule has a precedence and includes an identifier, ID, the ID is configured for the terminal device to acquire a corresponding rule according to the identifier.
An air intake duct comprising: a duct inlet oriented in a first direction; a duct outlet oriented in a second direction substantially perpendicular to the first direction; a duct body defining an air intake passage extending from the duct inlet to the duct outlet; wherein the duct inlet is formed in an upper portion of the duct body, a funnel formed in the upper half of the duct outlet and configured to protrude inwardly of the duct body and having an increasing diameter towards an inward direction, wherein the duct body has a portion opposite the duct outlet, and wherein that portion of the duct body is formed with a guide projection that protrudes towards the duct outlet, and wherein the guide projection has a conical shape having an axis line coaxial with an axis of the duct outlet, whereby an air introduced along the first direction from above through the duct inlet flows through the air intake passage and is subsequently guided by the guide projection so as to spread smoothly and uniformly in a peripheral direction about the axis of the duct outlet. a duct inlet oriented in a first direction; a duct outlet oriented in a second direction substantially perpendicular to the first direction; a duct body defining an air intake passage extending from the duct inlet to the duct outlet; wherein the duct inlet is formed in an upper portion of the duct body, a funnel formed in the upper half of the duct outlet and configured to protrude inwardly of the duct body and having an increasing diameter towards an inward direction, wherein the duct body has a portion opposite the duct outlet, and wherein that portion of the duct body is formed with a guide projection that protrudes towards the duct outlet, and wherein the guide projection has a conical shape having an axis line coaxial with an axis of the duct outlet, whereby an air introduced along the first direction from above through the duct inlet flows through the air intake passage and is subsequently guided by the guide projection so as to spread smoothly and uniformly in a peripheral direction about the axis of the duct outlet.
A tire, comprising at an outer surface of a side portion thereof a marking (2, 3, 12, 13) formed by printing plural dots (4, 14, 24) on the outer surface of the side portion, wherein the dots (4, 14, 24) have: the same contour configurations and/or optionally similar contour configurations, which are mutually independent; color(s) different from the base color of the outer surface of the side portion, and characterized in that the upper limit of width (C min) of the smallest gap portion (5, 25) having the base color and formed between the largest dot units (4, 14, 24) is 10% of the length of the shortest portion of the largest dot unit (4, 14, 24). the same contour configurations and/or optionally similar contour configurations, which are mutually independent; color(s) different from the base color of the outer surface of the side portion, and characterized in that the upper limit of width (C min) of the smallest gap portion (5, 25) having the base color and formed between the largest dot units (4, 14, 24) is 10% of the length of the shortest portion of the largest dot unit (4, 14, 24).
A gas turbine engine with an inlet frame, the gas turbine engine defining an axial direction, a radial direction, and a circumferential direction, the gas turbine engine comprising a compressor defining a compressor inlet and being rotatable about the axial direction for pressurizing an airflow, the inlet frame comprising: a forward annular body; a rear annular body spaced apart from the forward annular body to define an inlet passageway in fluid communication with the compressor inlet; an annular wash manifold defining an annular wash plenum integrally formed within the rear annular body; an inlet conduit defining a wash fluid passageway in fluid communication with the annular wash plenum; and a plurality of discharge ports integrally formed with the rear annular body, the plurality of discharge ports providing fluid communication between the annular wash plenum and the inlet passageway, wherein the forward annular body, the rear annular body, the annular wash manifold, and the inlet conduit are integrally formed as a single monolithic component, wherein the inlet conduit is integrated within the rear annular body and extends along the radial direction between the annular wash manifold and a radial inlet of the gas turbine engine. a forward annular body; a rear annular body spaced apart from the forward annular body to define an inlet passageway in fluid communication with the compressor inlet; an annular wash manifold defining an annular wash plenum integrally formed within the rear annular body; an inlet conduit defining a wash fluid passageway in fluid communication with the annular wash plenum; and a plurality of discharge ports integrally formed with the rear annular body, the plurality of discharge ports providing fluid communication between the annular wash plenum and the inlet passageway, wherein the forward annular body, the rear annular body, the annular wash manifold, and the inlet conduit are integrally formed as a single monolithic component, wherein the inlet conduit is integrated within the rear annular body and extends along the radial direction between the annular wash manifold and a radial inlet of the gas turbine engine.
Method for the optical scanning of a chromatographic sample, in which, in a first measurement step, a sample plate holding the sample is illuminated with light from a first illumination device and the light emitted by the sample plate is detected by means of an optical detector device which reads line by line or field by field and a first measurement image of the sample plate is recorded, during which the sample plate is displaced in a first displacement direction relative to the detector device, and in which, in a subsequent second measurement step, the sample plate is displaced in a second displacement direction relative to the detector device while being illuminated by means of the second illumination device and a second measurement image of the sample plate is recorded and where the illumination devices (13, 14) and the detector device are located above the sample plate and the illumination devices (13, 14) extend over the entire width of the sample plate to be illuminated.
A method for determining a cause of a fault in a network, the method comprising: receiving, at a receiver, a plurality of time separated samples of a primary network metric (m p) that are indicative of a fault in the network, and a plurality of time separated samples of one or more indicator network metrics (m j); determining, by a correlator, one or more metric correlation values (v) relating to dependences between the samples of the primary network metric and the samples of each of the one or more indicator network metrics; determining, by the correlator, one or more fault correlation values (r) relating to dependences between the one or more metric correlation values and a plurality of stored metric correlation values associated with a fault cause; and determining, by a fault determiner, a cause of the fault based on the one or more fault correlation values. receiving, at a receiver, a plurality of time separated samples of a primary network metric (m p) that are indicative of a fault in the network, and a plurality of time separated samples of one or more indicator network metrics (m j); determining, by a correlator, one or more metric correlation values (v) relating to dependences between the samples of the primary network metric and the samples of each of the one or more indicator network metrics; determining, by the correlator, one or more fault correlation values (r) relating to dependences between the one or more metric correlation values and a plurality of stored metric correlation values associated with a fault cause; and determining, by a fault determiner, a cause of the fault based on the one or more fault correlation values.
A video camera head comprising an objective lens assembly and a CMOS sensor comprising a silicon substrate having: a) a front side at which circuitry is created; b) a back side comprising either conducting balls or pads; and c) through silicon vias to provide electrical connections between the circuitry created at the front side of the silicon substrate and the back side; wherein the back side is patterned to provide electrical conductivity between the bottoms of the through silicon vias and either the conducting balls or pads; and wherein the dimensions of said video camera head satisfy the following condition: the maximum outer diameter of said video camera head is 1,1mm and the maximum length of said objective lens assembly is 2,5 mm, characterized in that the number of conducting balls or pads consists of one of: i) four balls or pads, respectively connected to voltage input (Vdd), ground (Vss), shutter timing (SHTR), and video signal output current (POUT); and ii) three balls or pads, respectively connected to voltage input (Vdd), ground (Vss), and video signal output current (POUT), whereby a predetermined value for the shutter timing (SHTR) is implemented in the circuitry of the silicon. a) a front side at which circuitry is created; b) a back side comprising either conducting balls or pads; and c) through silicon vias to provide electrical connections between the circuitry created at the front side of the silicon substrate and the back side; the maximum outer diameter of said video camera head is 1,1mm and the maximum length of said objective lens assembly is 2,5 mm, characterized in that the number of conducting balls or pads consists of one of: i) four balls or pads, respectively connected to voltage input (Vdd), ground (Vss), shutter timing (SHTR), and video signal output current (POUT); and ii) three balls or pads, respectively connected to voltage input (Vdd), ground (Vss), and video signal output current (POUT), whereby a predetermined value for the shutter timing (SHTR) is implemented in the circuitry of the silicon. i) four balls or pads, respectively connected to voltage input (Vdd), ground (Vss), shutter timing (SHTR), and video signal output current (POUT); and ii) three balls or pads, respectively connected to voltage input (Vdd), ground (Vss), and video signal output current (POUT), whereby a predetermined value for the shutter timing (SHTR) is implemented in the circuitry of the silicon.
A machine for manufacturing filters of the tobacco processing industry, in particular filters for cigarettes; the machine comprises a feeding assembly to feed a tow of filtering material along a given path, through an operating station to a forming station; the machine comprising, an operating assembly, which is arranged in the area of the operating station and is designed to stretch the tow so that the tow itself expands and generates a larger tow, and a forming assembly, which is arranged in the area of the forming station and is designed to form a filter rod; the machine being characterized in that the given path extends through a treatment station, which is arranged between the operating station and the forming station; the machine comprising a first treatment module, which is arranged in the area of the treatment station, is designed to carry out a first treatment on the tow of filtering material and can be replaced with a second treatment module, which is designed to carry out a second treatment on the tow of filtering material, which is different from the first treatment; and a third treatment module, which is arranged in the area of the treatment station, is designed to carry out a third treatment on the tow of filtering material, which is different from the first and second treatment, and, in particular, can be replaced with a fourth treatment module, which is designed to carry out a fourth treatment on the tow of filtering material, which is different from the third treatment.
Power and/or telecommunication cable (10, 20) comprising an elongate conductive element surrounded by at least one polymeric layer, characterized in that the polymeric layer is obtained from a polymer composition comprising: - a first polymer of ethylene type, the Melt Flow Index of the first polymer being strictly lower than 2.0 g/10 min (190°C/2, 16 kg) as per standard ASTM D 1238, and - a second ethylene polymer comprising ionic groups, the amount of second polymer being higher than the amount of first polymer, in the polymer composition, the polymer composition comprising more than 40 weight % of the second polymer. - a first polymer of ethylene type, the Melt Flow Index of the first polymer being strictly lower than 2.0 g/10 min (190°C/2, 16 kg) as per standard ASTM D 1238, and - a second ethylene polymer comprising ionic groups, the amount of second polymer being higher than the amount of first polymer, in the polymer composition, the polymer composition comprising more than 40 weight % of the second polymer.
A silk fibroin glycerol membrane matrix prepared in the presence of formic acid, wherein the membrane: (a) includes silk fibroin in an amount ranging from about 0.1% to about 20% (wt %) of the total wet weight of the membrane (b) includes about 5% (w/w) to 60% (w/w) glycerol (c) transmits sound waves between 20 Hz and 20 KHz to the middle ear in vivo (d) has a tensile strength between 10 MPa to 100 MPa; and (e) the membrane is fabricated from a glycerol and silk protein complex solution prepared in the presence of formic acid. (a) includes silk fibroin in an amount ranging from about 0.1% to about 20% (wt %) of the total wet weight of the membrane (b) includes about 5% (w/w) to 60% (w/w) glycerol (c) transmits sound waves between 20 Hz and 20 KHz to the middle ear in vivo (d) has a tensile strength between 10 MPa to 100 MPa; and (e) the membrane is fabricated from a glycerol and silk protein complex solution prepared in the presence of formic acid.
Adjustable camshaft for the valve drive of an internal combustion engine with an outer shaft and an inner shaft running concentrically and held rotatably in the outer shaft, wherein at least one cam element with a cam bore is mounted rotatably on the outer shaft, and wherein the cam element is connected rotationally fixedly to the inner shaft, wherein a bearing sleeve which is connected rotationally fixedly to the cam element is inserted into the cam bore so that a slide bearing gap is formed between the bearing sleeve and the outer shaft, wherein the bearing sleeve is adapted to the width of the cam element, characterized in that the cam element is formed as a collared cam element with a cam base body and a cam collar adjacent to the cam base body, wherein a bolt is provided for connecting the cam element to the inner shaft in a rotationally fixed manner, and extends transversely through the inner shaft and through at least one bolt opening made in the outer shaft, and sits with at least one end in the cam collar, wherein the bearing sleeve has at least one radial passage opening through which the bolt extends.
A sulfur-carbon composite comprising a porous carbon material; a fluorine-based surfactant coating layer formed on the surface of the porous carbon material and an inner surface of pores of the porous carbon material; and a sulfur coating layer formed on the surface of the fluorine-based surfactant coating layer opposite the porous carbon material, wherein the sulfur-carbon composite contains 9 wt.% to 49 wt.% of the porous carbon material; 0.1 wt.% to 3 wt.% of fluorine-based surfactant; and 50 wt.% to 90 wt.% of sulfur; and wherein the fluorine-based surfactant is represented by Formula 1 below: wherein m and n are each an integer and m/(m + n) is a real number from 0 to 1; R 1 is hydrogen or an alkyl group having 1 to 18 carbon atoms; R 2 is a connection point for hydrogen, an alkyl group having 1 to 18 carbon atoms or an acrylate polymer backbone; x is an integer from 1 to 10; a is an integer from 1 to 50; b is an integer from 1 to 100; and c is an integer from 1 to 50. a porous carbon material; a fluorine-based surfactant coating layer formed on the surface of the porous carbon material and an inner surface of pores of the porous carbon material; and a sulfur coating layer formed on the surface of the fluorine-based surfactant coating layer opposite the porous carbon material, wherein the sulfur-carbon composite contains 9 wt.% to 49 wt.% of the porous carbon material; 0.1 wt.% to 3 wt.% of fluorine-based surfactant; and 50 wt.% to 90 wt.% of sulfur; and wherein the fluorine-based surfactant is represented by Formula 1 below: wherein m and n are each an integer and m/(m + n) is a real number from 0 to 1; R 1 is hydrogen or an alkyl group having 1 to 18 carbon atoms; R 2 is a connection point for hydrogen, an alkyl group having 1 to 18 carbon atoms or an acrylate polymer backbone; x is an integer from 1 to 10; a is an integer from 1 to 50; b is an integer from 1 to 100; and c is an integer from 1 to 50.