mhurhangee/ep-ind-claims huggingface dataset:
A mouth piece for cooling of oral tissue comprising: an external chamber (300, 900) having a proximal end, a distal end and includes an internal cavity configured to store a cooling medium comprised of a first solution having a freezing temperature below zero degrees Celsius, the proximal end having a malleable top element configured to rest adjacent at least major surfaces of the upper gums (211, 212) and teeth (201, 202) of a user's mouth in a close-fitting relationship, a malleable bottom element configured to rest adjacent at least major surfaces of the lower gums (213, 214) and teeth (203, 204) of the user's mouth in a close-fitting relationship, wherein the top element is integral with or connected to the bottom element to permit emplacement in the user's mouth; a bladder positioned inside the internal cavity of the external chamber (300, 900) and configured to store a second solution having a freezing temperature above the freezing point temperature of the first solution to assist in cooling the first solution, wherein the bladder includes a proximal end, a central portion, and a distal end, and wherein the first solution flows throughout the top element and the bottom element for retaining a cooling environment within the mouth, characterized in that the bladder is dimensioned and configured such that the proximal end is positioned at least partly between the top element and the bottom element. an external chamber (300, 900) having a proximal end, a distal end and includes an internal cavity configured to store a cooling medium comprised of a first solution having a freezing temperature below zero degrees Celsius, the proximal end having a malleable top element configured to rest adjacent at least major surfaces of the upper gums (211, 212) and teeth (201, 202) of a user's mouth in a close-fitting relationship, a malleable bottom element configured to rest adjacent at least major surfaces of the lower gums (213, 214) and teeth (203, 204) of the user's mouth in a close-fitting relationship, wherein the top element is integral with or connected to the bottom element to permit emplacement in the user's mouth; a bladder positioned inside the internal cavity of the external chamber (300, 900) and configured to store a second solution having a freezing temperature above the freezing point temperature of the first solution to assist in cooling the first solution, wherein the bladder includes a proximal end, a central portion, and a distal end, and wherein the first solution flows throughout the top element and the bottom element for retaining a cooling environment within the mouth, characterized in that the bladder is dimensioned and configured such that the proximal end is positioned at least partly between the top element and the bottom element.
A hydrophobic valve for aqueous liquids, the liquid comprising magnetic particles, said valve comprising a) at least first and second planar solid substrates with a functionalized surface each, wherein b) at least the first solid substrate has a patterned surface comprising at least first and second hydrophilic areas separated from one another by at least one hydrophobic area, c) wherein the first and second planar substrates are disposed with a distance to one another in a sandwiched, parallel fashion, in such way that said functionalized surfaces are facing one another, d) said valve further comprising a magnetic actuator, characterized in that the magnetic actuator consists of an array of electromagnets (105, 107) which are configured to be switched on and off in a coordinated fashion, in order to obtain a travelling magnetic field in a direction parallel to the directions of the two planar solid substrates (70, 71) from a position near a first hydrophilic area to a position near a second hydrophilic area, or in that the magnetic actuator consists of a movable permanent magnet positioned beneath the border of the first hydrophilic area and the hydrophobic area, wherein the permanent magnet can be moved in the direction of the second hydrophilic area so as to force the magnetic particles to follow this movement to bridge the hydrophobic area thus to form a passage from the first hydrophilic area to the second hydrophilic area, wherein the second solid substrate has a hydrophilic surface. a) at least first and second planar solid substrates with a functionalized surface each, wherein b) at least the first solid substrate has a patterned surface comprising at least first and second hydrophilic areas separated from one another by at least one hydrophobic area, c) wherein the first and second planar substrates are disposed with a distance to one another in a sandwiched, parallel fashion, in such way that said functionalized surfaces are facing one another, d) said valve further comprising a magnetic actuator,
A heater, comprising: - at least two electric resistance heaters for heating the air to be supplied to the vehicle interior, wherein the at least two electric resistance heaters can be supplied with electric current, - a device for supplying current to at least one electric resistance heater with a time delay relative to another electric resistance heater, characterised in that the device consists of at least one delay circuit, wherein the at least one electric resistance heater can be supplied with pulse-width-modulated current and at least one electric resistance heater can be supplied with pulse-width-modulated current with a time delay relative to another electric resistance heater with the at least one delay circuit. - at least two electric resistance heaters for heating the air to be supplied to the vehicle interior, wherein the at least two electric resistance heaters can be supplied with electric current, - a device for supplying current to at least one electric resistance heater with a time delay relative to another electric resistance heater, characterised in that
A tire vulcanizing bladder comprising fluororubber, wherein a plurality of grooves extending in a width direction are formed on a circumference of an outer surface of the tire vulcanizing bladder, and a plurality of recesses connecting the grooves to each other are formed between the grooves, wherein the depth of the groove is from 0.3 to 0.5 mm. a plurality of grooves extending in a width direction are formed on a circumference of an outer surface of the tire vulcanizing bladder, and a plurality of recesses connecting the grooves to each other are formed between the grooves, wherein the depth of the groove is from 0.3 to 0.5 mm.
Panel, in particular wall, ceiling or floor panel, comprising a carrier plate with a front side and a rear side, wherein the carrier plate has a layer system at least on the front side, wherein the layer system has, starting from the front side: a first elastic layer S1 made of a polymer, which has a thickness of 80 to 600 μm; as well as a second layer S2 made of a polymer, which has a thickness of 10 to 180 μm, characterised in that the first layer S1 has a Martens hardness according to DIN EN ISO 14577 M S1 between 2 and 50 N/mm 2 and the second layer S2 has a Martens hardness M S2, wherein M S2 > M S1. a first elastic layer S1 made of a polymer, which has a thickness of 80 to 600 μm; as well as a second layer S2 made of a polymer, which has a thickness of 10 to 180 μm, characterised in that the first layer S1 has a Martens hardness according to DIN EN ISO 14577 M S1 between 2 and 50 N/mm 2 and the second layer S2 has a Martens hardness M S2, wherein M S2 > M S1.
An optical element stack assembly comprising: first and second sub-assemblies (22A,22B) each of which includes a substrate (26A, 26B) and a sub-structure (28A, 28B) fixed to the respective substrate, wherein each of the sub-structures includes a respective first edge feature (32A, 32B) and a respective second edge feature (36A, 36B) that project away from the substrate of that sub-structure, each second edge feature being disposed laterally closer to an outer periphery of the respective sub-structure than the first edge feature of the same sub-structure, wherein the first edge feature of the first sub-structure is in direct contact with the first edge feature of the second sub-structure, wherein the second edge feature of the first sub-structure and the second edge feature of the second sub-structure are attached to one another by adhesive, and wherein at least one of the first or second sub-structures includes an optical element (24A, 24B) on a same side of the sub-structure as the first and second edge features of that sub-structure, the optical element stack assembly further comprising a spacer laterally surrounding, and molded to, the first and second sub-assemblies. first and second sub-assemblies (22A,22B) each of which includes a substrate (26A, 26B) and a sub-structure (28A, 28B) fixed to the respective substrate, wherein each of the sub-structures includes a respective first edge feature (32A, 32B) and a respective second edge feature (36A, 36B) that project away from the substrate of that sub-structure, each second edge feature being disposed laterally closer to an outer periphery of the respective sub-structure than the first edge feature of the same sub-structure, wherein the first edge feature of the first sub-structure is in direct contact with the first edge feature of the second sub-structure, wherein the second edge feature of the first sub-structure and the second edge feature of the second sub-structure are attached to one another by adhesive, and wherein at least one of the first or second sub-structures includes an optical element (24A, 24B) on a same side of the sub-structure as the first and second edge features of that sub-structure, the optical element stack assembly further comprising a spacer laterally surrounding, and molded to, the first and second sub-assemblies.
An apparatus for performing a double correlation function on a received signal and a plurality of predetermined chip codes from a communication standard, the apparatus comprising: a first plurality of logic gates configured as a multiplier unit operable to receive a signal sampled at a predetermined sampling frequency, and to perform predetermined multiplication operations on the input signal in accordance with the correlation function; a first memory unit operable to receive and store multiplication values from the first plurality of logic gates; a second memory unit having stored therein values from predetermined multiplication operations performed on the plurality of chip codes in accordance with the correlation function; a second plurality of logic gates configured as an adder unit to receive multiplication values outputted from the first memory unit and the second memory unit and to sum the multiplication values from the first memory unit taking into account the multiplication values from the second memory unit; and a sign selection unit configured to assign a positive or negative sign to each value from the first plurality of logic gates dependent on the sign of an associated value stored in the second memory unit. a first plurality of logic gates configured as a multiplier unit operable to receive a signal sampled at a predetermined sampling frequency, and to perform predetermined multiplication operations on the input signal in accordance with the correlation function; a first memory unit operable to receive and store multiplication values from the first plurality of logic gates; a second memory unit having stored therein values from predetermined multiplication operations performed on the plurality of chip codes in accordance with the correlation function; a second plurality of logic gates configured as an adder unit to receive multiplication values outputted from the first memory unit and the second memory unit and to sum the multiplication values from the first memory unit taking into account the multiplication values from the second memory unit; and
A method for generating and managing decentralized identifiers of an entity, the method comprising: recording a decentralized identifier of a first entity that points to a decentralized identifier document, the decentralized identifier document being associated with the first entity and comprising data associated with the first entity including a signature of a separate entity, the signature authenticating a credential issued to the first entity by the separate entity; determining that the first entity is granting a permission to a second entity to verify the credential issued to the first entity by the separate entity, the permission defining a scope of data and an associated permitted use of that scope of data; signing the permission using a private key of the recorded decentralized identifier; receiving a request from the second entity to act upon the data associated with the first entity to access the signature of the separate entity to verify the credential issued to the first entity by the separate entity; authenticating the signed permission using a public key of the recorded decentralized identifier; and depending on the authentication, authorizing the second entity to act upon the data to access the signature of the separate entity to verify the credential issued to the first entity by the separate entity. recording a decentralized identifier of a first entity that points to a decentralized identifier document, the decentralized identifier document being associated with the first entity and comprising data associated with the first entity including a signature of a separate entity, the signature authenticating a credential issued to the first entity by the separate entity; determining that the first entity is granting a permission to a second entity to verify the credential issued to the first entity by the separate entity, the permission defining a scope of data and an associated permitted use of that scope of data; signing the permission using a private key of the recorded decentralized identifier; receiving a request from the second entity to act upon the data associated with the first entity to access the signature of the separate entity to verify the credential issued to the first entity by the separate entity; authenticating the signed permission using a public key of the recorded decentralized identifier; and depending on the authentication, authorizing the second entity to act upon the data to access the signature of the separate entity to verify the credential issued to the first entity by the separate entity.
A method of reporting, by a user equipment, UE, channel state information, CSI, in a wireless communication system, the method comprising: receiving, from a base station, BS, configuration information related with the CSI; measuring the CSI based on the configuration information; and reporting the CSI to the BS, wherein the CSI is comprises a first part and a second part, wherein the first part includes a rank indicator, RI, a channel quality indicator, CQI, and an indicator indicating the number of amplitude coefficients other than 0, wherein the second part includes a precoding matrix indicator, PMI, wherein the number of bits of the indicator indicating the number of amplitude coefficients other than 0 is configured for each layer based on the following equation: ⌈ log 2 2 L − 1 ⌉, wherein L denotes a number of base vectors linearly combined by a linear combination based codebook. receiving, from a base station, BS, configuration information related with the CSI; measuring the CSI based on the configuration information; and reporting the CSI to the BS, wherein the CSI is comprises a first part and a second part, wherein the first part includes a rank indicator, RI, a channel quality indicator, CQI, and an indicator indicating the number of amplitude coefficients other than 0, wherein the second part includes a precoding matrix indicator, PMI, wherein the number of bits of the indicator indicating the number of amplitude coefficients other than 0 is configured for each layer based on the following equation: ⌈ log 2 2 L − 1 ⌉, wherein L denotes a number of base vectors linearly combined by a linear combination based codebook.
A railing system for an offshore installation, said railing system comprises two or more balusters comprising connection means for connecting said balusters to said offshore installation, at least one rail comprising two or more longitudinal rail sides, wherein at least one of said two or more longitudinal rail sides is a T-slot side comprising at least one T-slot, at least two fixation devices arranged to connect said at least one rail to said two or more balusters so that said T-slot side of said rail is forced against a first side of said balusters, wherein each of said at least two fixation devices comprises bolt means including a pin part and a head part, wherein said head part is arranged at one end of said pin part, wherein said head part is arranged in said at least one T-slot and said pin part is extending through an orifice in said baluster, wherein said fixation device further comprise a collar encircling said pin part on a second side of said balusters, wherein said first side is opposite said second side, wherein said collar is connected to said pin part by means of a compression joint, and wherein said two or more balusters, said at least one rail and said at least two fixation devices are made of aluminium. at least one rail comprising two or more longitudinal rail sides, wherein at least one of said two or more longitudinal rail sides is a T-slot side comprising at least one T-slot, at least two fixation devices arranged to connect said at least one rail to said two or more balusters so that said T-slot side of said rail is forced against a first side of said balusters, wherein each of said at least two fixation devices comprises bolt means including a pin part and a head part, wherein said head part is arranged at one end of said pin part, wherein said head part is arranged in said at least one T-slot and said pin part is extending through an orifice in said baluster, wherein said fixation device further comprise a collar encircling said pin part on a second side of said balusters, wherein said first side is opposite said second side, wherein said collar is connected to said pin part by means of a compression joint, and wherein said two or more balusters, said at least one rail and said at least two fixation devices are made of aluminium.
Method for analysis of a digitally modulated signal in a signal analysis device with a reduction unit for reduction of irrelevant signal components which comprises at least two reduction stages (4, 5, 6, 7), with the following method steps: - inputting of a signal in an input interface of the signal analysis device, - generation of signal data as a function of a physical value from the inputted signal, - outputting of the generated signal data for external analysis, and characterised by the steps - interrogation of the input interface (3.2) of the signal analysis device to determine whether an external analysis is being carried out, and inputting of reduction parameters, wherein the reduction parameters are inputted as external reduction parameters when an external analysis is being carried out, or the reduction parameters are inputted as internal reduction parameters when an external analysis is not being carried out, - execution of a reduction step on the basis of the inputted reduction parameters for generation of a reduced signal, - outputting of the reduced signal for evaluation of the reduced signal, and - inputting of an evaluation result into the reduction unit and transmission of the reduced signal for execution of at least one further reduction step or repetition of the reduction step (4, 5, 6, 7) with changed reduction parameters dependent on the evaluation result. - inputting of a signal in an input interface of the signal analysis device, - generation of signal data as a function of a physical value from the inputted signal, - outputting of the generated signal data for external analysis, and characterised by the steps - interrogation of the input interface (3.2) of the signal analysis device to determine whether an external analysis is being carried out, and inputting of reduction parameters, - execution of a reduction step on the basis of the inputted reduction parameters for generation of a reduced signal, - outputting of the reduced signal for evaluation of the reduced signal, and - inputting of an evaluation result into the reduction unit and transmission of the reduced signal for execution of at least one further reduction step or repetition of the reduction step (4, 5, 6, 7) with changed reduction parameters dependent on the evaluation result.
A shaver coupling for transmitting a driving movement from an oscillating transmitter of an electric shaver, which transmitter extends at least in part along a vertical axis, to a cutter element, which extends and moves along a horizontal swiveling axis perpendicular to the vertical axis, the coupling comprising the transmitter, the cutter element and a coupling part (13; 16; 20; 20'; 20"; 24; 27), wherein the coupling part (13; 16; 20; 20'; 20"; 24; 27) comprises a seat (14; 21; 26; 28) for receiving the transmitter, wherein the transmitter, the cutter element and the coupling part (13; 16; 20; 20'; 20"; 24; 27) are arranged and formed such that the cutter element is constrained to the transmitter in a direction parallel to the horizontal swiveling axis while having a degree of freedom in at least two rotational directions and in at least one translational direction parallel to the vertical axis, characterized in that the coupling part (13; 16; 20; 20'; 20") comprises an at least in part spherical, cylindrical or ball-shaped outer surface (32; 34) and that the cutter element comprises a guidance chamber for receiving the outer surface such that the cutter element is constrained to the coupling part (13; 16; 20; 20'; 20") in a direction parallel to the horizontal swiveling axis while having a degree of freedom in at least two rotational directions and in at least one translational direction parallel to the vertical axis.
A method operable in a server (14, 14') for enabling a client device (18,18') to connect to a network (12,12'), the method comprising: obtaining an authorization code (20,40) via an out-of-band communication channel (22,22') established outside the network environment (12,12'), the authorization code associated with the client device (18,18'); and after detecting initiation of a security negotiation protocol by the client device, using the authorization code to generate a pre_master_secret during establishment of a transport layer security session comprising: obtaining a negotiated secret elliptic curve point; multiplying the elliptic curve point value by the authorization code; and forming the pre_master_secret from an x-coordinate of said product. obtaining an authorization code (20,40) via an out-of-band communication channel (22,22') established outside the network environment (12,12'), the authorization code associated with the client device (18,18'); and after detecting initiation of a security negotiation protocol by the client device, using the authorization code to generate a pre_master_secret during establishment of a transport layer security session comprising: obtaining a negotiated secret elliptic curve point; multiplying the elliptic curve point value by the authorization code; and forming the pre_master_secret from an x-coordinate of said product.
A method for operating a refrigeration system in a brewery comprising: conveying a refrigerant in a circuit of the refrigeration system with an evaporator for evaporating the refrigerant and at least one heat exchanger (240, 250) for cooling the refrigerant, characterised in that beer which is stored in at least one pressure tank or fermentation and/or storage tank or beer after beer filtration is used as a coolant during cooling of the refrigerant. conveying a refrigerant in a circuit of the refrigeration system with an evaporator for evaporating the refrigerant and at least one heat exchanger (240, 250) for cooling the refrigerant, characterised in that beer which is stored in at least one pressure tank or fermentation and/or storage tank or beer after beer filtration is used as a coolant during cooling of the refrigerant.