mhurhangee/ep-ind-claims huggingface dataset:
A bicycle automatic control shock absorber system, comprising: a vibration sensor, the vibration sensor is configured to detect vibration of the bicycle and output a vibration signal; and a controller in communication with the vibration sensor, the controller being characterized in that it is configured to calculate a vibration parameter within a predetermined time interval according to the vibration signal so as to output a level control signal corresponding to the vibration parameter for adjusting a damping force of the shock absorber system (200, 400, 600, 900). a vibration sensor, the vibration sensor is configured to detect vibration of the bicycle and output a vibration signal; and a controller in communication with the vibration sensor, the controller being characterized in that it is configured to calculate a vibration parameter within a predetermined time interval according to the vibration signal so as to output a level control signal corresponding to the vibration parameter for adjusting a damping force of the shock absorber system (200, 400, 600, 900).
A virus like particle comprising a virus structural protein of an alphavirus and an antigen located on the surface selected from the group consisting of a fragment of PD-L1 or PD-L2 having 10 to 300 amino acid residues and a derivative of a fragment of PD-L1 or PD-L2 having 10 to 300 amino acid residues that has at least 90% amino acid sequence identity to the corresponding fragment.
A negative electrode plate, comprising: a negative current collector; a negative active material layer, disposed on at least one surface of the negative current collector, said negative active material layer comprises opposite first surface and second surface, wherein said first surface is disposed away from the negative current collector, and the negative active material is one or more selected from the group consisting of natural graphite, artificial graphite, soft carbon, hard carbon, silicon, silicon oxides, silicon carbon composites, Li-Sn alloy, Li-Sn-O alloy, Sn, SnO, SnO 2, Li 4 Ti 5 O 12 with spinel structure, Li-Al alloy and lithium metal; and an inorganic dielectric layer, disposed on the first surface of the negative active material layer, said inorganic dielectric layer consisting of an inorganic dielectric material; said inorganic dielectric layer comprises a first dielectric layer on an outer surface of the negative active material layer, and the first dielectric layer has a thickness of from 30 nm to 1000 nm, and the inorganic dielectric material comprises oxide of aluminum; wherein the negative electrode plate has a compact density of from 1.2 g/cm 3 to 2.0 g/cm 3, as measured by a method defined in the description, a porosity of from 25% to 45% as measured by a method defined in the description, and a wetting velocity of electrolyte on per 10 cm × 10 cm area of 2 μg/s or more, as measured by a method defined in the description. a negative current collector; a negative active material layer, disposed on at least one surface of the negative current collector, said negative active material layer comprises opposite first surface and second surface, wherein said first surface is disposed away from the negative current collector, and the negative active material is one or more selected from the group consisting of natural graphite, artificial graphite, soft carbon, hard carbon, silicon, silicon oxides, silicon carbon composites, Li-Sn alloy, Li-Sn-O alloy, Sn, SnO, SnO 2, Li 4 Ti 5 O 12 with spinel structure, Li-Al alloy and lithium metal; and an inorganic dielectric layer, disposed on the first surface of the negative active material layer, said inorganic dielectric layer consisting of an inorganic dielectric material; said inorganic dielectric layer comprises a first dielectric layer on an outer surface of the negative active material layer, and the first dielectric layer has a thickness of from 30 nm to 1000 nm, and the inorganic dielectric material comprises oxide of aluminum; wherein the negative electrode plate has a compact density of from 1.2 g/cm 3 to 2.0 g/cm 3, as measured by a method defined in the description, a porosity of from 25% to 45% as measured by a method defined in the description, and a wetting velocity of electrolyte on per 10 cm × 10 cm area of 2 μg/s or more, as measured by a method defined in the description.
A redispersible two-layer cosmetic comprising an aqueous phase and polysaccharide gel particles having a mean particle size of 0.1 to 1000 μm, wherein the aqueous phase comprises a polyol and/or a mono-alcohol, and wherein the redispersible two-layer cosmetic consists of a bottom layer formed by a plurality of gel particles aggregates, and an upper layer composed of the aqueous phase over the bottom layer, wherein the mean particle size is measured using a Laser scattering particle size distribution analyzer.
Transporting equipment for red-hot coke, comprising: a non-rotary coke receiving car for receiving coke out of a coke oven chamber; at least two rotary coke buckets for receiving the coke discharged from the non-rotary coke receiving car; discharge equipment for discharging the coke from the non-rotary coke receiving car to the at least two coke buckets; a transporting device (7; 15) on which the at least two rotary coke buckets are disposed for transporting the at least two rotary coke buckets to a hoist position; and a hoist for transporting the at least two rotary coke buckets to a coke dry quenching system. a non-rotary coke receiving car for receiving coke out of a coke oven chamber; at least two rotary coke buckets for receiving the coke discharged from the non-rotary coke receiving car; discharge equipment for discharging the coke from the non-rotary coke receiving car to the at least two coke buckets; a transporting device (7; 15) on which the at least two rotary coke buckets are disposed for transporting the at least two rotary coke buckets to a hoist position; and a hoist for transporting the at least two rotary coke buckets to a coke dry quenching system.
A method of testing of an elevator safety brake system comprising: initiating an automated test procedure (61; 102; 202; 302); triggering an electronic safety actuator operatively coupled to an elevator car and operably coupled, via a link member, to a safety brake comprising a brake member having a contact surface that is operable to frictionally engage a guide rail; generating braking data about performance of the electronic safety actuator (68; 134; 234; 334); analyzing the braking data (70; 136; 236; 336); and generating a report to indicate whether the elevator safety brake system performed adequately (72; 138; 238; 338), characterized in that the automated test procedure is initiated by initiating elevator car motion according to a predefined motion test profile and the triggering of the electronic safety actuator comprises triggering the electronic safety actuator once an overspeed condition is met during the motion test profile. initiating an automated test procedure (61; 102; 202; 302); triggering an electronic safety actuator operatively coupled to an elevator car and operably coupled, via a link member, to a safety brake comprising a brake member having a contact surface that is operable to frictionally engage a guide rail; generating braking data about performance of the electronic safety actuator (68; 134; 234; 334); analyzing the braking data (70; 136; 236; 336); and generating a report to indicate whether the elevator safety brake system performed adequately (72; 138; 238; 338),
A cryoablation balloon catheter (100, 200, 300, 400) for delivering energy to a target tissue comprising: an elongate shaft having a distal section and a distal tip wherein the distal section comprises a cryoenergy delivering core; a first balloon (102, 202, 602) located in the distal section and disposed about said cryoenergy delivering core, said first balloon (102, 202, 602) comprising a first state having a reduced diameter, and a second state having an enlarged diameter shape and being at least partially filled with a thermally conductive liquid (109, 203, 503) such that when the balloon (102, 202, 602) is in the second state, and the cryoenergy delivering core is activated, cold is thermally conducted from the cryoenergy delivering core, through the thermally conductive liquid (109, 203, 503), through a first wall of the balloon, and to the tissue, characterized in that the thermally conductive liquid (109, 203, 503) is a liquid metal alloy with a melting temperature below 20°C. an elongate shaft having a distal section and a distal tip wherein the distal section comprises a cryoenergy delivering core; a first balloon (102, 202, 602) located in the distal section and disposed about said cryoenergy delivering core, said first balloon (102, 202, 602) comprising a first state having a reduced diameter, and a second state having an enlarged diameter shape and being at least partially filled with a thermally conductive liquid (109, 203, 503) such that when the balloon (102, 202, 602) is in the second state, and the cryoenergy delivering core is activated, cold is thermally conducted from the cryoenergy delivering core, through the thermally conductive liquid (109, 203, 503), through a first wall of the balloon, and to the tissue, characterized in that the thermally conductive liquid (109, 203, 503) is a liquid metal alloy with a melting temperature below 20°C.
A geotechnical method for the controlled shielding of a soil pressure on a building structure which is to be relieved of load in a soil which is to be stabilised, characterised by the steps: - inserting, into the soil which is to be stabilised, profiles substantially perpendicularly to the direction of the soil pressure which is to be shielded, the profiles being able to be prestressed by means of tendons arranged eccentrically to the central profile longitudinal axis, and - the profiles are mounted at both their ends, - tensioning the tendons, with the profiles being bent against the soil pressure, - detecting a resulting transverse force at at least one end of the profile at which the profile is mounted, as a measurement of the shielding achieved. - inserting, into the soil which is to be stabilised, profiles substantially perpendicularly to the direction of the soil pressure which is to be shielded, the profiles being able to be prestressed by means of tendons arranged eccentrically to the central profile longitudinal axis, and - the profiles are mounted at both their ends, - tensioning the tendons, with the profiles being bent against the soil pressure, - detecting a resulting transverse force at at least one end of the profile at which the profile is mounted, as a measurement of the shielding achieved.
A pipeline inspection method for determining mechanical-technological characteristic variables of ferromagnetic steels, in which a sensor device moves as part of an inspection pig inside a pipeline and along its interior surface, wherein a magnetizing device having at least one permanent magnet or electromagnet magnetizes in an at least essentially saturated manner the metal to be determined in the form of ferromagnetic steel to minimize the influence of the relative permeability and the sensor device comprising a transmitting coil generates an alternating magnetic field, which interacts with the magnetic field generated by the magnetizing device in the metal and generates an eddy current, which is measured by an eddy current sensor of the sensor device, wherein a magnetic field strength sensor measures the magnetic field of the metal at least close to the surface and the sensor device uses frequencies of 100 kHz to 500 kHz for penetration depth of the eddy current less than 1 mm, and wherein the electrical conductivity and/or the specific electrical resistance of the metal is ascertained by means of an evaluation unit from the data of the eddy current sensor on the basis of reference data of a reference database comprising the hardness, the yield strength, or the tensile strength and the electrical conductivity or the electrical resistance of ferromagnetic steels and the hardness, the yield strength, or the tensile strength is derived from the conductivity or the resistance as a mechanical-technological characteristic variable of the metal.
A method for securing a transaction between a terminal and a security module, which communicate within the framework of the transaction via the alternating field of a first contactless interface, wherein while the transaction is carried out at the location of the security module a coupling strength is detected which represents a coupling between the terminal and the security module via an alternating field of a second contactless interface (IF'), wherein, in the case that the coupling strength fulfills an abort criterion with reference to its magnitude and/or its temporal variation, the transaction is aborted.
A method of retrieval of hearing device data from a hearing device of a hearing system comprising the hearing device, a server device, and a user accessory device having a user application installed thereon, wherein retrieval of hearing device data comprises: - obtaining challenge data in the server device of the hearing system; - transmitting the challenge data from the server device to the user application installed on the user accessory device; - transmitting a challenge request comprising the challenge data from the user application to the hearing device; - receiving a challenge response comprising response data from the hearing device; - forwarding the response data from the user application to the server device; - verifying the response data in the server device based on the challenge data; and - deriving the hearing device data from the response data, if verifying the response data is successful. - obtaining challenge data in the server device of the hearing system; - transmitting the challenge data from the server device to the user application installed on the user accessory device; - transmitting a challenge request comprising the challenge data from the user application to the hearing device; - receiving a challenge response comprising response data from the hearing device; - forwarding the response data from the user application to the server device; - verifying the response data in the server device based on the challenge data; and - deriving the hearing device data from the response data, if verifying the response data is successful.
A stabilization system for attachment to vertebral bodies to restore or maintain vertebral motion and provide support to the spinal column, said stabilization system has an elongated element (50, 350, 1600) comprising: (i) a distal attachment end (30, 356, 1615'); (ii) a proximal attachment end (28, 358, 1615"); and (iii) at least one flexible center section, said center section being positioned between said distal end and said proximal end, each of said at least one flexible center section having at least one slot (60, 360, 1660) extending around said elongated element following a serpentine path, said serpentine path forming a plurality of interlocking teeth, characterized in that said at least one flexible center section having at least one further slot, said slot and further slot being separated from each other and being concentric and extending circumferentially and circularly around said elongated element. (i) a distal attachment end (30, 356, 1615'); (ii) a proximal attachment end (28, 358, 1615"); and (iii) at least one flexible center section, said center section being positioned between said distal end and said proximal end, each of said at least one flexible center section having at least one slot (60, 360, 1660) extending around said elongated element following a serpentine path, said serpentine path forming a plurality of interlocking teeth,
Commensal, heritable, gram-negative, strictly anaerobic and non-sporulated bacterium of the Christensenellaceae family, belonging to an OTU (Operational Taxonomic Unit) characterized by a 16S rRNA sequence SEQ ID NO: 1 for use as a drug.
Modular system for producing a bed having a body comprising four body sections (3, 4, 5) which laterally enclose a lying area of the bed, wherein - each body section (3, 4, 5) comprises a body part (7, 8, 9), - the body parts (7, 8, 9) form a head part, a foot part and two side parts, - the head part and the foot part are connected together via the side parts, - each body part (7, 8, 9) is designed as a frame, each having an upper horizontal support, a lower horizontal support and at least two vertical supports, which each border the edge of at least one horizontally orientated open cladding region - the body parts (7, 8, 9) form a base frame for supporting a mattress, characterised in that vertical supports are provided having different lengths, which can optionally be mounted between the associated upper and lower horizontal supports (33, 34). - each body section (3, 4, 5) comprises a body part (7, 8, 9), - the body parts (7, 8, 9) form a head part, a foot part and two side parts, - the head part and the foot part are connected together via the side parts, - each body part (7, 8, 9) is designed as a frame, each having an upper horizontal support, a lower horizontal support and at least two vertical supports, which each border the edge of at least one horizontally orientated open cladding region - the body parts (7, 8, 9) form a base frame for supporting a mattress, characterised in that vertical supports are provided having different lengths, which can optionally be mounted between the associated upper and lower horizontal supports (33, 34).
An internal combustion engine with a cooling structure in which: a spacer comprising a spacer main body part is fit inside a water jacket formed to surround a periphery of a cylinder bore of a cylinder block in the internal combustion engine; and a cooling condition of the cylinder bore is controlled by regulating a flow of cooling water in the water jacket by use of the spacer, wherein the spacer covers, entirely in a peripheral direction, an intermediate portion of the cylinder bore in a depth direction of the water jacket, an upper cooling water passage is formed between an upper edge of the spacer main body part and an undersurface of a cylinder head, and a lower cooling water passage is formed between a lower edge of the spacer main body part and a bottom portion of the water jacket; wherein when a piston slidably fit in the cylinder bore is situated in a maximum side pressure generating position, an upper edge of the spacer main body part is situated between a top piston ring and a skirt part of the piston, and when the piston is situated at the bottom dead center, the top piston ring is situated below the lower edge of the spacer main body part being surrounded by the lower cooling water passage such that the heat of the piston escapes to the cylinder bore without being obstructed by the spacer, characterized in that the spacer is arranged closer to an inner wall surface of the water jacket than to an outer wall surface of the water jacket, wherein a first space (α) is formed between an inner peripheral surface of the spacer main body part and the inner wall surface of the water jacket and a second space (β) is formed between an outer peripheral surface of the spacer main body part and the outer wall surface of the water jacket, the first space (α) being set smaller than the second space (β).
A patch comprising a support layer and an adhesive agent layer, wherein the adhesive agent layer comprises asenapine and/or a pharmaceutically acceptable salt thereof, isopropyl palmitate, and an adhesive base agent.
Method for detecting a fault condition in the measurement of the level of a medium in a tank with a floating roof, whereby the floating roof is floating on the medium and is vertically guided in the tank, providing a radar level gauge and a level measuring device, whereby the radar level gauge, mounted in a fixed position on the tank, is emitting radar signals in the direction of the floating roof and receiving the echo signals reflected on the surface of the floating roof, and whereby the level measuring device is measuring the level of the medium in the tank, comprising the steps of: a) determining and recording data representing the level of the floating roof during a defined time interval, whereby the defined time interval comprises some filling/emptying cycles of the medium in/from the tank, b) determining and recording data representing the level of the medium in the tank during said time interval, which comprises some filling/emptying cycles of the medium in/from the tank, c) determining the deviations between the data representing the level of the medium in the tank and the corresponding data representing the level of the floating roof, d) centering the deviations between the stored data representing the level of the medium and the level of the floating roof, preferably reduced by the thickness of the floating roof with the corresponding level data, e) analyzing the centered deviations as a function of the height of the tank by using an outlier detection method, and f) generating an alert message that a fault condition of the vertical guiding of the floating roof occurs, in the case that the centered deviations exceed repeatedly the threshold value/threshold values in at least one height of the tank. a) determining and recording data representing the level of the floating roof during a defined time interval, whereby the defined time interval comprises some filling/emptying cycles of the medium in/from the tank, b) determining and recording data representing the level of the medium in the tank during said time interval, which comprises some filling/emptying cycles of the medium in/from the tank, c) determining the deviations between the data representing the level of the medium in the tank and the corresponding data representing the level of the floating roof, d) centering the deviations between the stored data representing the level of the medium and the level of the floating roof, preferably reduced by the thickness of the floating roof with the corresponding level data, e) analyzing the centered deviations as a function of the height of the tank by using an outlier detection method, and f) generating an alert message that a fault condition of the vertical guiding of the floating roof occurs, in the case that the centered deviations exceed repeatedly the threshold value/threshold values in at least one height of the tank.
Method for manufacturing a cladding resistant to wear and corrosion for a nuclear reactor, said method comprising steps of: - providing a tubular blank in austenitic stainless steel whose carbon content is equal to or lower than 0.03 % by weight; - shaping the blank; - finishing the blank to form the cladding; - hardening the outer surface of the cladding by diffusing one or more atomic species; the blank, before the providing step or during the shaping or finishing step, being subjected to at least one quenching annealing with sub-steps of: - heating the blank to a sufficient temperature and for a sufficient time to solubilise any precipitates present; - quenching the blank at a rate allowing the austenitic structure to be maintained in a metastable state at ambient temperature and free of precipitates. - providing a tubular blank in austenitic stainless steel whose carbon content is equal to or lower than 0.03 % by weight; - shaping the blank; - finishing the blank to form the cladding; - hardening the outer surface of the cladding by diffusing one or more atomic species; - heating the blank to a sufficient temperature and for a sufficient time to solubilise any precipitates present; - quenching the blank at a rate allowing the austenitic structure to be maintained in a metastable state at ambient temperature and free of precipitates.