mhurhangee/ep-ind-claims huggingface dataset:
A sensor assembly for monitoring filling heights of containers filled with liquids, a first and a second light barrier (6a, 6b) being provided, which are each mounted relative to a container located in a detection position at a detection height H which is matched to a desired filling height S of this container, wherein the first light barrier emits light beams with a light wavelength which has a significantly greater absorption for the liquid than the light beams emitted by the second light barrier at a second light wavelength, and wherein, during the detection of the container in an evaluation unit, a joint evaluation of reception signals generated in the light barriers (6a, 6b) is carried out, 6b) or signals derived therefrom, characterised in that one or each light barrier (6a, 6b) is designed as a reflection light barrier having a transmitter (8a, 8b), a receiver (9a, 9b) and a reflector (11a, 11b), wherein the container is arranged between the transmitter (8a, 8b) and the receiver (9a, 9b) on the one hand and the reflector (11a, 11b) on the other hand, wherein the light beams (7a, 7b) cross at a crossing point, wherein the crossing point lies in the region of the container.
A communication method, applicable to a first electronic control unit, ECU, of a vehicle, the vehicle further comprising a second ECU, the method characterized by: sending first state information to the second ECU when communication state information of the first ECU against the second ECU is the first state information (S110, S210, S310, S410), wherein the first state information indicates that a communication state between the second ECU and the first ECU is a communication unauthorized state and that the second ECU needs to perform communication verification with the first ECU; sending verification information to the second ECU when a communication verification request sent by the second ECU based on the first state information is received (S 120, S220, S320, S420); receiving feedback information sent by the second ECU based on the verification information (S130, S230, S330, S430); and when the feedback information conforms to a preset rule, changing the communication state information to second state information and sending to the second ECU an encryption key assigned to the second ECU (S140, S240, S440), wherein the second state information indicates that the communication state between the second ECU and the first ECU is a communication authorized state, and wherein each time the encryption key is different from an encryption key assigned to the second ECU in a previous communication verification process and is configured to encrypt messages in a subsequent communication process between the first ECU and the second ECU. sending first state information to the second ECU when communication state information of the first ECU against the second ECU is the first state information (S110, S210, S310, S410), wherein the first state information indicates that a communication state between the second ECU and the first ECU is a communication unauthorized state and that the second ECU needs to perform communication verification with the first ECU; sending verification information to the second ECU when a communication verification request sent by the second ECU based on the first state information is received (S 120, S220, S320, S420); receiving feedback information sent by the second ECU based on the verification information (S130, S230, S330, S430); and when the feedback information conforms to a preset rule, changing the communication state information to second state information and sending to the second ECU an encryption key assigned to the second ECU (S140, S240, S440), wherein the second state information indicates that the communication state between the second ECU and the first ECU is a communication authorized state, and wherein each time the encryption key is different from an encryption key assigned to the second ECU in a previous communication verification process and is configured to encrypt messages in a subsequent communication process between the first ECU and the second ECU.
An electronic device for motor vehicles which comprises a connection for the negative vehicle power network voltage, a connection to the positive vehicle power network voltage, and a functional block, which has means by which the actual voltage at the connection (U-) for the negative vehicle power network voltage is compared with the actual voltage at the connection(U+) for the positive vehicle power network voltage and by which a reverse polarity of the vehicle power network voltage is sensed and storage of data regarding the sensing of a reverse polarity is initiated if the actual voltage at the connection (U-) for the negative vehicle power network voltage is greater than the actual voltage at the connection (U+) for the positive vehicle power network voltage, characterised by an internal electrical supply unit, which is used independently of the polarity of the vehicle power network voltage or independently of the vehicle power network voltage itself and which, by the means of the functional block, senses the duration of the reverse polarity and initiates storage of data regarding the duration of the reverse polarity.
A method of operating a paging controller comprising: if a mobile station within a paging area requests to enter idle mode, assigning a temporary paging identification to the mobile station; and transmitting the temporary paging identification to a base station in communication with the mobile station, wherein the temporary paging identification is used by the base station to determine an index of a paging opportunity or frame in a paging cycle to transmit a paging message for the mobile station. if a mobile station within a paging area requests to enter idle mode, assigning a temporary paging identification to the mobile station; and transmitting the temporary paging identification to a base station in communication with the mobile station, wherein the temporary paging identification is used by the base station to determine an index of a paging opportunity or frame in a paging cycle to transmit a paging message for the mobile station.
A nonwoven fabric separator for a lead storage battery, characterized by comprising a nonwoven fabric composed of a recycled fiber or synthetic fiber, wherein a relationship between the average pore diameter of the nonwoven fabric separator and the number of pores satisfies the following equation: 1.0 × 10 2 < D ∗ N < 1.0 × 10 4 wherein the average pore diameter and the number of pores are measured as described in the description, wherein the nonwoven fabric includes an ultrafine fiber having a fiber diameter of from 0.1 μm to 5 μm, and the nonwoven fabric separator includes at least two layers including a nonwoven fabric layer (layer I) composed of the ultrafine fiber and a nonwoven fabric layer (layer II) composed of a fiber having a fiber diameter of from 5 μm to 30 μm, and wherein the fiber diameter is measured as described in the description.
Motor vehicle having - a communication unit which has at least one radio module and is set up to use the at least one radio module to operate a respective radio link to at least one vehicle-external object for the purpose of interchanging communication data, wherein - a plurality of functional programs are provided in the motor vehicle which are set up to provide a respective vehicle functionality (F1-F4) based on the communication data, and wherein - a plurality of control units different from the communication unit are provided and the functional programs are distributed over the control units, characterised in that - each of the control units has a service module, which is set up to interchange the communication data from the respective control unit with the at least one vehicle-external object via the communication unit and the respective radio link independently of the functional programs, and for this purpose, to provide all the service functions that are necessary for the actual interchange of the communication data with the at least one vehicle-external object, - wherein the functional programs are set up to interchange the communication data with the respective service module of the control unit, and here the functional programs are only designed to interchange the communication data with the service module within the control unit, and unit-external communication from the control unit to the respective vehicle-external object is executed by the service module. - a communication unit which has at least one radio module and is set up to use the at least one radio module to operate a respective radio link to at least one vehicle-external object for the purpose of interchanging communication data, wherein - a plurality of functional programs are provided in the motor vehicle which are set up to provide a respective vehicle functionality (F1-F4) based on the communication data, and wherein - a plurality of control units different from the communication unit are provided and the functional programs are distributed over the control units, - each of the control units has a service module, which is set up to interchange the communication data from the respective control unit with the at least one vehicle-external object via the communication unit and the respective radio link independently of the functional programs, and for this purpose, to provide all the service functions that are necessary for the actual interchange of the communication data with the at least one vehicle-external object, - wherein the functional programs are set up to interchange the communication data with the respective service module of the control unit, and here the functional programs are only designed to interchange the communication data with the service module within the control unit, and unit-external communication from the control unit to the respective vehicle-external object is executed by the service module.
A core-sheath filament comprising: a non-tacky sheath, wherein the non-tacky sheath exhibits a melt flow index of less than 15 grams per 10 minutes (g/10 min) when measured as set forth in ASTM D1238 with a load of 2.16 kg at 190°C; and an adhesive core, wherein the adhesive core comprises: at least 20 wt. to % 60 wt.% of a polymer selected from the group consisting of a styrene-isoprene block copolymer and an isobutylene-isoprene copolymer; and a multifunctional (meth)acrylate. a non-tacky sheath, wherein the non-tacky sheath exhibits a melt flow index of less than 15 grams per 10 minutes (g/10 min) when measured as set forth in ASTM D1238 with a load of 2.16 kg at 190°C; and an adhesive core, wherein the adhesive core comprises: at least 20 wt. to % 60 wt.% of a polymer selected from the group consisting of a styrene-isoprene block copolymer and an isobutylene-isoprene copolymer; and a multifunctional (meth)acrylate. at least 20 wt. to % 60 wt.% of a polymer selected from the group consisting of a styrene-isoprene block copolymer and an isobutylene-isoprene copolymer; and a multifunctional (meth)acrylate.
Humidifier (100, 200, 300) for aircrafts comprising a recirculation loop (15, 25, 35), a recirculation fan placed in the recirculation loop (15, 25, 35) and an adiabatic contact humidifier device provided with an intake and an outlet, the humidifier being further provided with a source of heat the recirculation loop (15, 25, 35) being connected to the outlet and the intake so that a portion of the air passing through the humidifier device is recirculated air from the outlet back to the intake so as to there be intermixed with new non-humidified air to form an air mixture (3, 9) of non-humidified air and recirculated air, the source of heat being placed in the recirculation loop (15, 25, 35) wherein the source of heat is a heat exchanger in which recirculated air passes and that the recirculated air is heated by said source of heat, wherein the adiabatic contact humidifier device is a contact humidifier pad and a portion of the recirculated air is diverted from the recirculation loop (15, 25, 35) for further transportation to consumers (F 1, F 2,....... F n).
A driver assembly (200, 300) comprising: an outer shaft having a proximal end and a distal end, the proximal end of the outer shaft coupled to an outer shaft hub; an inner shaft disposed within a cannulation of the outer shaft and axially slidable relative to the outer shaft; a center housing coupled to a proximal end of the inner shaft; a drive housing coupled to the outer shaft hub, the drive housing at least partially receivable within an opening in the center housing and longitudinally slidable relative to the center housing, the drive housing having a plurality of proximally-extending connection members engageable with a plurality of corresponding receivers on the center housing; and a spring at least partially disposed between the center housing and the drive housing; wherein the drive housing is configured to travel proximally relative to the center housing in response to axial loading against the spring, while distal travel of the drive housing relative to the center housing is limited by the engagement between the connection members and the receivers wherein a proximal end of the drive housing defines an opening bordered by a plurality of support members (220a, 220b) extending between the plurality of connection members, the support members configured to support the spring characterised in that the spring is positioned between the support members (220a, 220b) within the opening of the drive housing such that the spring extends into the proximal portion of the center housing and around the inner shaft. an outer shaft having a proximal end and a distal end, the proximal end of the outer shaft coupled to an outer shaft hub; an inner shaft disposed within a cannulation of the outer shaft and axially slidable relative to the outer shaft; a center housing coupled to a proximal end of the inner shaft; a drive housing coupled to the outer shaft hub, the drive housing at least partially receivable within an opening in the center housing and longitudinally slidable relative to the center housing, the drive housing having a plurality of proximally-extending connection members engageable with a plurality of corresponding receivers on the center housing; and a spring at least partially disposed between the center housing and the drive housing; wherein the drive housing is configured to travel proximally relative to the center housing in response to axial loading against the spring, while distal travel of the drive housing relative to the center housing is limited by the engagement between the connection members and the receivers wherein a proximal end of the drive housing defines an opening bordered by a plurality of support members (220a, 220b) extending between the plurality of connection members, the support members configured to support the spring characterised in that the spring is positioned between the support members (220a, 220b) within the opening of the drive housing such that the spring extends into the proximal portion of the center housing and around the inner shaft.
A method of imaging a metabolic function in a target area of an organism using contrast magnetic resonance imaging, the method comprising the steps of: i) obtaining a first measurement of lactate in a target area of the organism; ii) administering oxygen to said organism; iii) obtaining a second measurement of lactate in a target area of the organism following said administration of oxygen; iv) comparing said first and second measurements by an MRI scanner to obtain data relating to the relative amounts of lactate present in said target area before and following administration of the oxygen, and v) correlating said data to the metabolic function in the target area by the MRI scanner. i) obtaining a first measurement of lactate in a target area of the organism; ii) administering oxygen to said organism; iii) obtaining a second measurement of lactate in a target area of the organism following said administration of oxygen; iv) comparing said first and second measurements by an MRI scanner to obtain data relating to the relative amounts of lactate present in said target area before and following administration of the oxygen, and v) correlating said data to the metabolic function in the target area by the MRI scanner.
Cosmetic composition comprising: a)- one or more amphoteric polymers comprising a repetition of: (i) one or more units obtained from a monomer of (meth)acrylamide type, (ii) one or more units obtained from a monomer of (meth)acrylamidoalkyltrialkylammonium type, and (iii) one or more units obtained from an acidic monomer of (meth)acrylic acid type, the said amphoteric polymer(s) being present in the composition in an amount of between 0.01% and 10% by weight relative to the total weight of the composition, and b)- one or more conditioning agents chosen from plant oils, mineral oils, non-volatile linear silicones of polydialkylsiloxane structure, non-volatile linear silicones of polydiarylsiloxane structure, non-volatile linear silicones of polyalkylarylsiloxane structure, fatty acid diesters of polyethylene glycol comprising from 2 to 50 oxyethylene units, and a mixture thereof, the total amount of said conditioning agent(s) present in the composition being between 0.01% and 20% by weight, relative to the total weight of the composition. a)- one or more amphoteric polymers comprising a repetition of: (i) one or more units obtained from a monomer of (meth)acrylamide type, (ii) one or more units obtained from a monomer of (meth)acrylamidoalkyltrialkylammonium type, and (iii) one or more units obtained from an acidic monomer of (meth)acrylic acid type, the said amphoteric polymer(s) being present in the composition in an amount of between 0.01% and 10% by weight relative to the total weight of the composition, and (i) one or more units obtained from a monomer of (meth)acrylamide type, (ii) one or more units obtained from a monomer of (meth)acrylamidoalkyltrialkylammonium type, and (iii) one or more units obtained from an acidic monomer of (meth)acrylic acid type, b)- one or more conditioning agents chosen from plant oils, mineral oils, non-volatile linear silicones of polydialkylsiloxane structure, non-volatile linear silicones of polydiarylsiloxane structure, non-volatile linear silicones of polyalkylarylsiloxane structure, fatty acid diesters of polyethylene glycol comprising from 2 to 50 oxyethylene units, and a mixture thereof,
A diffuser for ventilation of a medium through a ventilation system, comprising a stationary part having a plurality of first apertures, a damper arranged for rotating with a circumferential movement over said stationary part and having a plurality of second apertures corresponding to said first apertures, and an actuator to move said damper, wherein - the stationary part comprises a reservoir and said stationary part is adapted to be inclined towards the reservoir in such a way that said reservoir would stand at a lower level than the rest of said stationary part, characterized in that - edges of said first apertures are adapted to protrude to form a plurality of particle channels between said first apertures for the particles to flow through, wherein said particle channels surround said reservoir in order to allow said particles to accumulate within said reservoir by way of gravity. - the stationary part comprises a reservoir and said stationary part is adapted to be inclined towards the reservoir in such a way that said reservoir would stand at a lower level than the rest of said stationary part, characterized in that - edges of said first apertures are adapted to protrude to form a plurality of particle channels between said first apertures for the particles to flow through, wherein said particle channels surround said reservoir in order to allow said particles to accumulate within said reservoir by way of gravity.
A child car seat with an integrated overheating protection for children comprising the following elements installed: a battery with a plug (3.1), a processor electrically connected to the battery, a scale, and a temperature sensor which at elevated temperatures inside the car triggers an audible alarm warning characterized in that it further comprises a water storage container with valves (7.1, 7.2) and a motion sensor and that the processor which controls the scale, the audible alarm warning, the valve (7.1), the temperature sensor and the motion sensor also powers all of these elements via the battery and has a built-in time relay (4.1), a delay button (4.1.1), a temperature button (4.2) and a time controller (4.3). a battery with a plug (3.1), a processor electrically connected to the battery, a scale, and a temperature sensor which at elevated temperatures inside the car triggers an audible alarm warning characterized in that it further comprises a water storage container with valves (7.1, 7.2) and a motion sensor and that the processor which controls the scale, the audible alarm warning, the valve (7.1), the temperature sensor and the motion sensor also powers all of these elements via the battery and has a built-in time relay (4.1), a delay button (4.1.1), a temperature button (4.2) and a time controller (4.3).
IRON AMINO ACID COMPOUNDS, wherein the molecular formula is where: R is equal to -H or the side chain of an essential or nonessential amino acid selected from alanine, phenylalanine, leucine, isoleucine, proline, hydroxyproline, arginine, methionine, aspartic acid, glutamic acid, valine, threonine, isothreonine, histidine, tryptophan, serine, glutamine, any one of their mixtures, and preferably -H representing the amino acid glycine; R1 is equal to -H or -OH; R2 is equal to -H or -CH 2 COOH; R3 is equal to -H or -OH; R4 is equal to H; k is equal to zero or 1; if k is equal to zero, q can vary between 1 and 3; if k is equal to 1, q can vary between zero and 3. X is equal to -Na, -K, -Ca, -Mg or -NH 4; Y may vary between 0 and 20; the molar ratio of m: n ranges between 1:0.05 and 1:100, advantageously between 1:0.5 and 1:10; the molar ratio of m: p ranges between 1:0.01 and 1:50, advantageously between 1:0.1 and 1:1; the molar ratio m: h ranges between 1:0.0001 and 1:50, advantageously between 1:0.001 and 1:5. R is equal to -H or the side chain of an essential or nonessential amino acid selected from alanine, phenylalanine, leucine, isoleucine, proline, hydroxyproline, arginine, methionine, aspartic acid, glutamic acid, valine, threonine, isothreonine, histidine, tryptophan, serine, glutamine, any one of their mixtures, and preferably -H representing the amino acid glycine; R1 is equal to -H or -OH; R2 is equal to -H or -CH 2 COOH; R3 is equal to -H or -OH; R4 is equal to H; k is equal to zero or 1; if k is equal to zero, q can vary between 1 and 3; if k is equal to 1, q can vary between zero and 3. X is equal to -Na, -K, -Ca, -Mg or -NH 4; Y may vary between 0 and 20; the molar ratio of m: n ranges between 1:0.05 and 1:100, advantageously between 1:0.5 and 1:10; the molar ratio of m: p ranges between 1:0.01 and 1:50, advantageously between 1:0.1 and 1:1; the molar ratio m: h ranges between 1:0.0001 and 1:50, advantageously between 1:0.001 and 1:5.