mhurhangee/ep-ind-claims huggingface dataset:
An aluminum coated steel sheet having excellent oxidation resistance and heat resistance, comprising: an aluminum coating layer formed on a surface of a steel sheet which comprises 0.001 to 0.015 wt% of carbon, 0.05 to 0.3 wt% of silicon (Si), 0.1 to 0.6 wt% of manganese (Mn), 0.01 to 0.05 wt% of niobium (Nb), 0.015 wt% or less of phosphorus, 0.015 wt% or less of sulfur, 0.1 wt% or less of soluble aluminum (Al), 0.05 to 0.5 wt% of copper (Cu), 0.05 to 0.5 wt% of nickel (Ni), 0.001 to 0.01 wt% of nitrogen, and the balance of Fe and inevitable impurities; and an alloy layer which comprises an intermetallic compound at an interface between the steel sheet and the aluminum coating layer. an aluminum coating layer formed on a surface of a steel sheet which comprises 0.001 to 0.015 wt% of carbon, 0.05 to 0.3 wt% of silicon (Si), 0.1 to 0.6 wt% of manganese (Mn), 0.01 to 0.05 wt% of niobium (Nb), 0.015 wt% or less of phosphorus, 0.015 wt% or less of sulfur, 0.1 wt% or less of soluble aluminum (Al), 0.05 to 0.5 wt% of copper (Cu), 0.05 to 0.5 wt% of nickel (Ni), 0.001 to 0.01 wt% of nitrogen, and the balance of Fe and inevitable impurities; and an alloy layer which comprises an intermetallic compound at an interface between the steel sheet and the aluminum coating layer.
Computing system having a computing device, wherein - the computing system has an input data path, which unidirectionally connects an interface device of the computing system to the computing device, and an output data diode, which unidirectionally connects the computing device to at least one output interface of the computing system, characterized in that - the input data path has a series circuit which is arranged downstream of the interface device and comprises an input data diode and a data lock, - the input data diode allows data to be transmitted in the direction of the computing device and prevents this in the opposite direction, and - the data lock has a first and a second connection (12a, 12b) and a buffer for buffering data and is configured such that the buffer can either be exclusively connected to the first or second connection, but not to both connections at the same time. - the computing system has an input data path, which unidirectionally connects an interface device of the computing system to the computing device, and an output data diode, which unidirectionally connects the computing device to at least one output interface of the computing system, - the input data path has a series circuit which is arranged downstream of the interface device and comprises an input data diode and a data lock, - the input data diode allows data to be transmitted in the direction of the computing device and prevents this in the opposite direction, and - the data lock has a first and a second connection (12a, 12b) and a buffer for buffering data and is configured such that the buffer can either be exclusively connected to the first or second connection, but not to both connections at the same time.
A Lifting gear: with a drive train, comprising a motor configured to apply a driving torque, and a transmission, having a pulling means arranged to lift or pull a load connected to the pulling means and connected to the drive train, with a hysteresis clutch arranged in the drive train and via which the transmission is connected to the motor, wherein the hysteresis clutch has a limit torque (M 0) below which it operates without slip and above which it operates with slip (s), wherein a nominal load (F Nom) is defined for the lifting gear, for which the lifting gear is maximally permitted in continuous operation and to which a nominal load torque (M Nom) on the hysteresis clutch corresponds, where the nominal load torque (M Nom) is greater than the limit torque (M 0). with a drive train, comprising a motor configured to apply a driving torque, and a transmission, having a pulling means arranged to lift or pull a load connected to the pulling means and connected to the drive train, with a hysteresis clutch arranged in the drive train and via which the transmission is connected to the motor, wherein the hysteresis clutch has a limit torque (M 0) below which it operates without slip and above which it operates with slip (s), wherein a nominal load (F Nom) is defined for the lifting gear, for which the lifting gear is maximally permitted in continuous operation and to which a nominal load torque (M Nom) on the hysteresis clutch corresponds, where the nominal load torque (M Nom) is greater than the limit torque (M 0).
A method for transmission of power and data to an implantable medical device during a plurality of consecutive time intervals, the method comprising: during a power-transmission portion of each of the plurality of consecutive time intervals, transmitting a power signal in which no data is encoded; and during a power-and-data-transmission portion of each of the plurality of consecutive time intervals, transmitting a power-and-data signal in which is encoded a single bit, the power-and-data signal including: (a) a high-level power-and-data signal portion, and (b) a low-level power-and-data signal portion; characterized by configuring a transmission duty cycle in each of the plurality of consecutive time intervals to be independent of the data. during a power-transmission portion of each of the plurality of consecutive time intervals, transmitting a power signal in which no data is encoded; and during a power-and-data-transmission portion of each of the plurality of consecutive time intervals, transmitting a power-and-data signal in which is encoded a single bit, the power-and-data signal including: (a) a high-level power-and-data signal portion, and (b) a low-level power-and-data signal portion; characterized by configuring a transmission duty cycle in each of the plurality of consecutive time intervals to be independent of the data.
A communication control apparatus configured to connect to two terminals (30a, 30b) and to a relay apparatus, the relay apparatus configured to relay P2P communication performed between the two terminals (30a, 30b), wherein the communication control apparatus is configured to relay a signaling signal transmitted and received between the two terminals (30a, 30b), the communication control apparatus comprising: reception means configured to receive a signaling signal mutually transmitted between the two terminals (30a, 30b); storage means configured to store authority information indicating at least one communication method of the P2P communication permitted for each of the two terminals (30a, 30b); and control means (203, 204) configured to control the communication method of the P2P communication based on the authority information when receiving the signaling signal, by deleting address information corresponding to a communication method that is not permitted from among address information corresponding to each communication method included in the received signaling signal, or discarding the signaling signal without transmitting the signaling signal, wherein the communication method of the P2P communication is at least one of three communication methods: local communication without passing through a NAT, communication that traverses a NAT but does not use a TURN server, and communication that uses a TURN server. reception means configured to receive a signaling signal mutually transmitted between the two terminals (30a, 30b); storage means configured to store authority information indicating at least one communication method of the P2P communication permitted for each of the two terminals (30a, 30b); and control means (203, 204) configured to control the communication method of the P2P communication based on the authority information when receiving the signaling signal, by deleting address information corresponding to a communication method that is not permitted from among address information corresponding to each communication method included in the received signaling signal, or discarding the signaling signal without transmitting the signaling signal, deleting address information corresponding to a communication method that is not permitted from among address information corresponding to each communication method included in the received signaling signal, or discarding the signaling signal without transmitting the signaling signal, wherein the communication method of the P2P communication is at least one of three communication methods: local communication without passing through a NAT, communication that traverses a NAT but does not use a TURN server, and communication that uses a TURN server.
A dryer comprising: a main body; a drying chamber provided inside the main body and configured to accommodate objects to be dried; a conveying unit configured to convey the objects to be dried; a sensor unit configured to gather information on states of the objects to be dried; and a control unit configured to control the conveying unit to move the objects to be dried based on the information gathered by the sensor unit; characterized in that the dryer comprises an electrode unit provided inside the drying chamber and configured to form a high-frequency electric field in a drying space; wherein the control unit controls the conveying unit to adjust intervals between the objects to be dried. a main body; a drying chamber provided inside the main body and configured to accommodate objects to be dried; a conveying unit configured to convey the objects to be dried; a sensor unit configured to gather information on states of the objects to be dried; and a control unit configured to control the conveying unit to move the objects to be dried based on the information gathered by the sensor unit; characterized in that the dryer comprises an electrode unit provided inside the drying chamber and configured to form a high-frequency electric field in a drying space; wherein the control unit controls the conveying unit to adjust intervals between the objects to be dried.
A laundry treating apparatus comprising: a cabinet; a drum accommodated in the cabinet to accommodate laundry therein; a circulating flow passage provided to re-supply air discharged from the drum into the drum; a heat-exchanger disposed inside the circulating flow passage to condense moisture contained in the air or heat the air; and a steam supplier provided to heat supplied water to supply steam into the drum or into the circulating flow passage, characterized in that, a sterilizer branched from the steam supplier, wherein the sterilizer is provided to supply the water or the steam heated to a high temperature by the steam supplier to at least a portion of a space defined between an outer face of the drum and an inner face of the cabinet, and wherein the high temperature corresponds to a temperature required to remove bacteria. a cabinet; a drum accommodated in the cabinet to accommodate laundry therein; a circulating flow passage provided to re-supply air discharged from the drum into the drum; a heat-exchanger disposed inside the circulating flow passage to condense moisture contained in the air or heat the air; and a steam supplier provided to heat supplied water to supply steam into the drum or into the circulating flow passage, characterized in that, a sterilizer branched from the steam supplier, wherein the sterilizer is provided to supply the water or the steam heated to a high temperature by the steam supplier to at least a portion of a space defined between an outer face of the drum and an inner face of the cabinet, and wherein the high temperature corresponds to a temperature required to remove bacteria.
A method for detecting gas turbine sensor failure based upon collected readings from at least one sensor, comprising: creating a dictionary of basis vectors defining values associated with known sensor readings for normal operating conditions; applying a sparse coding process (530, 600) to a set of sensor reading data, using the created dictionary, to identify a set of L-1 norm residual data; evaluating the L-1 norm residual data to categorize a predetermined subset of the largest-valued L-1 norm residual data as abnormal sensor readings by a) dividing the group of residuals into two groups, a first group used as training set and a second group used as a test set, b) using the first group of residuals for developing a model for evaluating the group of residuals and for determining the limit for defining the largest residuals as being associated with abnormal sensor readings, c) pass testing data residuals created from performing sparse code processing on the test data and determining whether the testing data residual is outside the model and d) identifying the testing data residual as abnormal sensor reading; comparing (620, 710) the abnormal sensor readings to a plurality of prior sensor readings and defining the designated abnormal sensor readings as associated with a sensor failure if a predefined number of the prior sensor readings are also designated as abnormal sensor readings; transmitting a sensor failure signal to gas turbine personnel, identifying the particular sensor; and removing (660, 770) the failed sensor from service, and repairing or replacing the failed sensor. creating a dictionary of basis vectors defining values associated with known sensor readings for normal operating conditions; applying a sparse coding process (530, 600) to a set of sensor reading data, using the created dictionary, to identify a set of L-1 norm residual data; evaluating the L-1 norm residual data to categorize a predetermined subset of the largest-valued L-1 norm residual data as abnormal sensor readings by a) dividing the group of residuals into two groups, a first group used as training set and a second group used as a test set, b) using the first group of residuals for developing a model for evaluating the group of residuals and for determining the limit for defining the largest residuals as being associated with abnormal sensor readings, c) pass testing data residuals created from performing sparse code processing on the test data and determining whether the testing data residual is outside the model and d) identifying the testing data residual as abnormal sensor reading; comparing (620, 710) the abnormal sensor readings to a plurality of prior sensor readings and defining the designated abnormal sensor readings as associated with a sensor failure if a predefined number of the prior sensor readings are also designated as abnormal sensor readings; transmitting a sensor failure signal to gas turbine personnel, identifying the particular sensor; and removing (660, 770) the failed sensor from service, and repairing or replacing the failed sensor.
Recloseable packaging made of two packaging elements and connected to one another, where the packaging element comprises a multilayer film comprising - at least one supportive layer (a); - at least one layer (g) made of pressure-sensitive adhesive composed of at least one polymer selected from the group comprising polymers and copolymers of vinyl ethers, copolymers of butadiene and styrene, copolymers of styrene and isoprene, copolymers of styrene, butadiene and ethylene, polyurethanes, polychloroprenes, polyisobutylenes, polyisoprenes, butyl rubber and natural latex; and - at least one heat-sealable layer (h) made of at least one non-crystallizable copolyester; where the packaging element comprises an optionally multilayer plastics film comprising a layer (i) which is composed of at least one amorphous polyester; and where the two packaging elements and have connection by way of a seal in a manner such that the seal seam strip in the seal seam region, measured in accordance with the instructions in the Description, between the sealable layer (h) and the layer (i) is greater than the adhesion between the pressure-sensitive-adhesive layer (g) and the sealable layer (h) or a layer sequence comprising the sealable layer (h), and therefore on the first opening of the packaging the pressure-sensitive-adhesive layer (g) is released in the region of the seal seam for reclosure, characterized in that the non-crystallizable copolyester of the sealable layer (h) comprises - as diol component a mixture of α) 10-50 mol%, preferably 20-40 mol%, of at least one cycloaliphatic (C 6 -C 15) diol and β) 90-50 mol%, preferably 80-60 mol%, of at least one linear aliphatic (C 2 -C 10) diol; and - as dicarboxylic acid component terephthalic acid or a mixture of 50-90 mol% of terephthalic acid and γ) 10-50 mol% of isophthalic acid and/or of at least one aliphatic (C 6 -C 12) dicarboxylic acid. - at least one supportive layer (a); - at least one layer (g) made of pressure-sensitive adhesive composed of at least one polymer selected from the group comprising polymers and copolymers of vinyl ethers, copolymers of butadiene and styrene, copolymers of styrene and isoprene, copolymers of styrene, butadiene and ethylene, polyurethanes, polychloroprenes, polyisobutylenes, polyisoprenes, butyl rubber and natural latex; and - at least one heat-sealable layer (h) made of at least one non-crystallizable copolyester; - as diol component a mixture of α) 10-50 mol%, preferably 20-40 mol%, of at least one cycloaliphatic (C 6 -C 15) diol and β) 90-50 mol%, preferably 80-60 mol%, of at least one linear aliphatic (C 2 -C 10) diol; and - as dicarboxylic acid component terephthalic acid or a mixture of 50-90 mol% of terephthalic acid and γ) 10-50 mol% of isophthalic acid and/or of at least one aliphatic (C 6 -C 12) dicarboxylic acid.
A cap for a nasal spray apparatus, the cap including a spray dispensing mechanism and further comprising: a base sealingly mountable on a container of liquid substance to be dispensed; an intermediate section arranged for reciprocating movement relative to the base, the intermediate section including the spray dispensing mechanism and having a spray dispensing passage; a cover-section having a depressible flexible portion, coupled to the intermediate-section; characterized in that it further comprises a Light Emitting Diode connected to a power source through an electric circuit, the LED mounted adjacent the spray dispensing passage so as to be inserted into a nostril therewith; and in that t he depressible flexible portion is arranged and configured to both cause closure of the electric circuit for activating the LED and to actuate the spray dispensing mechanism, to provide both illumination and spray of liquid substance into the nostril. a base sealingly mountable on a container of liquid substance to be dispensed; an intermediate section arranged for reciprocating movement relative to the base, the intermediate section including the spray dispensing mechanism and having a spray dispensing passage; a cover-section having a depressible flexible portion, coupled to the intermediate-section; a Light Emitting Diode connected to a power source through an electric circuit, the LED mounted adjacent the spray dispensing passage so as to be inserted into a nostril therewith; t he depressible flexible portion is arranged and configured to both cause closure of the electric circuit for activating the LED and to actuate the spray dispensing mechanism, to provide both illumination and spray of liquid substance into the nostril.
A support structure for road equipment, comprising a pole, formed by a hollow cylindrical, elliptical, prismatic, polygonal, truncated pyramid-shaped, or truncated cone-shaped mast, comprising a lower end (2.1) adapted for being fixed to a terrain by means of a foundation, and a connecting device adapted for being arranged between the lower end (2.1) of the pole and the foundation, wherein the connecting device comprises a hollow drum (1.1), having a circular, elliptical, or polygonal cross-section, adapted for being arranged with its longitudinal axis parallel to a longitudinal axis of the pole, the hollow drum (1.1) comprising a first end (1.11), a second end (1.12), and a central part (1.13) arranged between said ends (1.11, 1.12), where the first end (1.11) is adapted for being fixed to the foundation by means of an anchoring piece (1.2) which is connected to said first end (1.11) of the hollow drum (1.1), the hollow drum (1.1) is adapted for fitting onto the outside of the lower end (2.1) of the pole, and the second end (1.12) is fixed to the lower end (2.1) of the pole, such that in use, the second end (1.12) of the hollow drum (1.1), which is fixed to the lower end (2.1) of the pole, is arranged below the anchoring piece (1.2) for anchoring to the foundation, and the hollow drum (1.1) and the lower end (2.1) of the pole are arranged inside a hollow space (4.1) formed in the foundation, characterized in that the central part (1.13) of the hollow drum (1.1) comprises a wall portion configured for deforming in a controlled manner under compression when an impact force acts on the pole, such that the lower end (2.1) of the pole is adapted for being displaced upwards or being raised and twisted in the direction of the impact force, the lower end (2.1) of the pole remaining fixed to the second end (1.12) of the hollow drum (1.1).
A method performed by a control node, where the control node is a central unit - control plane, CU-CP, node, for handling communication of data of one or more wireless devices in a wireless communications network, the method comprises: - triggering a control process on radio access bearers, RABs, wherein the control process is triggered by receiving a message relating to a process associated with at least one RAB, wherein the message is: a request from a core network node, via a control plane interface, to create a wireless device context in a distributed radio network node with a set of RABs for the wireless device; a request from the core network node, via the control plane interface, to remove a wireless device context with associated RABs in a distributed radio network node; a message related to a fault scenario resulting in a cleanup procedure where the wireless device context with associated RABs are released; or a message related to configuration of one or more RABs, and wherein the control process is a RAB setup, a RAB resume, a RAB suspend or a RAB release; - identifying more than one RAB, to perform the control process on, for at least one wireless device; - bundling control information associated with the identified more than one RAB in a control signal; - providing to a process node, where the process node is a central unit - user plane, CU-UP, node, the control signal for the identified more than one RAB; and - receiving a response, from the process node, associated with the control signal, wherein the response comprises bundled confirmations and/or rejections of the control process for one or more RABs. - triggering a control process on radio access bearers, RABs, wherein the control process is triggered by receiving a message relating to a process associated with at least one RAB, wherein the message is: a request from a core network node, via a control plane interface, to create a wireless device context in a distributed radio network node with a set of RABs for the wireless device; a request from the core network node, via the control plane interface, to remove a wireless device context with associated RABs in a distributed radio network node; a message related to a fault scenario resulting in a cleanup procedure where the wireless device context with associated RABs are released; or a message related to configuration of one or more RABs, and wherein the control process is a RAB setup, a RAB resume, a RAB suspend or a RAB release; - identifying more than one RAB, to perform the control process on, for at least one wireless device; - bundling control information associated with the identified more than one RAB in a control signal; - providing to a process node, where the process node is a central unit - user plane, CU-UP, node, the control signal for the identified more than one RAB; and - receiving a response, from the process node, associated with the control signal, wherein the response comprises bundled confirmations and/or rejections of the control process for one or more RABs.