mhurhangee/patent-ind-claim-en huggingface dataset:
A current collector of a device for storing electrical energy, the current collector being coated with an interfacing layer , the interfacing layer being formed by coating on the current collector with a composition (C2), the composition (C2) consisting in a conductive additive (AC2), a solvent (S2) and a binder material (ML2), the conductive material (MC) comprising at least one element chosen from the list made up of: - carbon, - carbon black, - graphite, - graphene, - a carbon nanotube, - an activated carbon fiber, and - a nonactivated carbon nanofiber, the binder material (ML2) comprising one or several polymers, the composition (C2) being a composition comprising particles, the particles being obtained by carrying out a mixing technique and grinding technique, the mixing technique consisting in pre-dispersing the conductive additives in the solubilized binder material, the conductive additive forming agglomerates before grinding having diameter greater than or equal to 50 μm and the grinding technique consisting in breaking the agglomerates, at least 50% of the particles having a mean diameter by volume of less than or equal to 10 micrometers, the mean diameter by volume being measured by static light using a granulometer and by processing data obtained by the granulometer to calculate the granular distribution of the particles based on a spherical model of equivalent volume. the composition (C2) consisting in a conductive additive (AC2), a solvent (S2) and a binder material (ML2), the conductive material (MC) comprising at least one element chosen from the list made up of: - carbon, - carbon black, - graphite, - graphene, - a carbon nanotube, - an activated carbon fiber, and - a nonactivated carbon nanofiber, - carbon, - carbon black, - graphite, - graphene, - a carbon nanotube, - an activated carbon fiber, and - a nonactivated carbon nanofiber, the binder material (ML2) comprising one or several polymers, the composition (C2) being a composition comprising particles, the particles being obtained by carrying out a mixing technique and grinding technique, the mixing technique consisting in pre-dispersing the conductive additives in the solubilized binder material, the conductive additive forming agglomerates before grinding having diameter greater than or equal to 50 μm and the grinding technique consisting in breaking the agglomerates, at least 50% of the particles having a mean diameter by volume of less than or equal to 10 micrometers, the mean diameter by volume being measured by static light using a granulometer and by processing data obtained by the granulometer to calculate the granular distribution of the particles based on a spherical model of equivalent volume.
Electronic device which has control electronics which have at least one program memory with a computer program stored therein and a computer for executing the computer program, the computer program having software control functions for controlling functions of the electronic device , the electronic device having at least one communication unit which is coupled to the control electronics and by means of which the electronic device is set up for data communication with an external computer device , characterized in that the communication unit is designed as an exchangeable communication module , the communication module having a gateway functionality, by which a bidirectional conversion takes place between an external communication protocol and/or physical layer used by the external computer device and an internal communication protocol and/or physical layer used between the communication module and the computer , wherein the communication module supports either exactly one external communication protocol or several external communication protocols, wherein the communication module and thus its gateway functionality and the supported external communication protocol and/or physical layer can be exchanged by removing a communication module from the electronic device and connecting another communication module to the electronic device.
Timepiece comprising a mechanism able to switch between a first state and a second state, a device for switching said mechanism between its first and second states and a device for actuation of said switching device; the switching device comprising an operating member actuated by said actuation device and a switching device , said switching device being arranged such that the switching member is capable of changing on demand from a first stable position, in which the mechanism is in its first state, to a second stable position, in which the mechanism is in its second state, and vice versa; said timepiece being characterized in that the timepiece includes: - a first bipolar magnet which is fixed to said switching member so as to undergo, when said switching member changes from the first stable position to the second stable position, a motion along a switching path between a first switching position and a second switching position, and vice versa, - a second bipolar magnet which is fixed to a support of the switching device so as to continually offer a magnetic interaction with the first bipolar magnet between the first and second switching positions thereof, - at least a first highly magnetically permeable element at least partially forming said operating member; in that said operating member is arranged so that, when it is repeatedly actuated by the actuation device, the first highly magnetically permeable element is subjected to a back-and-forth motion between a first operating position and a second operating position; and in that the switching device is arranged so that, when the first highly magnetically permeable element is in the first operating position thereof, the first and second magnets generate therebetween a force of magnetic repulsion over substantially the entire said switching path and so that, when the first highly magnetically permeable element is in the second operating position thereof, the first and second magnets generate therebetween a force of magnetic attraction on at least one part of the switching path, said part being located on the side of the second bipolar magnet. - a first bipolar magnet which is fixed to said switching member so as to undergo, when said switching member changes from the first stable position to the second stable position, a motion along a switching path between a first switching position and a second switching position, and vice versa, - a second bipolar magnet which is fixed to a support of the switching device so as to continually offer a magnetic interaction with the first bipolar magnet between the first and second switching positions thereof, - at least a first highly magnetically permeable element at least partially forming said operating member;
A protease comprising an amino acid sequence which has at least 80% sequence identity with the amino acid sequence specified in SEQ ID NO:1 over the entire length thereof and amino acid substitutions, in each case based on the numbering according to SEQ ID NO:1, (a) at the positions corresponding to positions 9 and 271, and (b) at least three of the positions corresponding to positions 29, 48, 101, 130, 131, 133, 144, 224 or 252, in each case based on the numbering according to SEQ ID NO:1, wherein the amino acid substitutions at the positions corresponding to positions 9 and 271 are the amino acid substitutions P9T, P9H, P9S or P9A and Q271E; and the at least three amino acid substitutions according to (b) are selected from the group consisting of A29G, A48V, D101E, N130D, N130S, N130H, G131S, G131N, G131D, G131K, T133K, T133R, T133Y, N144K, N144L, N144A, S224A, S224T or N252S, in each case based on the numbering according to SEQ ID NO:1. (a) at the positions corresponding to positions 9 and 271, and (b) at least three of the positions corresponding to positions 29, 48, 101, 130, 131, 133, 144, 224 or 252, in each case based on the numbering according to SEQ ID NO:1, the amino acid substitutions at the positions corresponding to positions 9 and 271 are the amino acid substitutions P9T, P9H, P9S or P9A and Q271E; and the at least three amino acid substitutions according to (b) are selected from the group consisting of A29G, A48V, D101E, N130D, N130S, N130H, G131S, G131N, G131D, G131K, T133K, T133R, T133Y, N144K, N144L, N144A, S224A, S224T or N252S, in each case based on the numbering according to SEQ ID NO:1.
A method of detecting milk as an allergen in a food sample, said method comprising: adding a proteolytic enzyme to the food sample to lyse at least a portion of lactoglobulin present in the food sample, into a plurality of peptides; and utilizing liquid chromatography tandem mass spectrometry (LC-MS/MS) to analyze said plurality of peptides to determine whether lactoglobulin is present by monitoring at least one precursor-product ion pair transition with specified m/z value associated with a specific amino acid sequence selected from the group consisting of: i) SEQ ID NO: 24, m/z value of about 533/853, 533/754, or 533/641; ii) SEQ ID NO: 25, m/z value of about 458/803, 458/688, or 458/504; iii) SEQ ID NO: 26, m/z value of about 1158/1453, 1158/1581, 1158/1255, 772/1026, 772/977, or 772/912; iv) SEQ ID NO: 27, m/z value of about 623/573, 623/918, 623/819, or 623/1047; v) SEQ ID NO: 28, m/z value of about 561/806, 561/935, or 561/692; and vi) SEQ ID NO: 29, m/z value of about 419/653, 419/556, or 419/425. adding a proteolytic enzyme to the food sample to lyse at least a portion of lactoglobulin present in the food sample, into a plurality of peptides; and utilizing liquid chromatography tandem mass spectrometry (LC-MS/MS) to analyze said plurality of peptides to determine whether lactoglobulin is present by monitoring at least one precursor-product ion pair transition with specified m/z value associated with a specific amino acid sequence selected from the group consisting of: i) SEQ ID NO: 24, m/z value of about 533/853, 533/754, or 533/641; ii) SEQ ID NO: 25, m/z value of about 458/803, 458/688, or 458/504; iii) SEQ ID NO: 26, m/z value of about 1158/1453, 1158/1581, 1158/1255, 772/1026, 772/977, or 772/912; iv) SEQ ID NO: 27, m/z value of about 623/573, 623/918, 623/819, or 623/1047; v) SEQ ID NO: 28, m/z value of about 561/806, 561/935, or 561/692; and vi) SEQ ID NO: 29, m/z value of about 419/653, 419/556, or 419/425. i) SEQ ID NO: 24, m/z value of about 533/853, 533/754, or 533/641; ii) SEQ ID NO: 25, m/z value of about 458/803, 458/688, or 458/504; iii) SEQ ID NO: 26, m/z value of about 1158/1453, 1158/1581, 1158/1255, 772/1026, 772/977, or 772/912; iv) SEQ ID NO: 27, m/z value of about 623/573, 623/918, 623/819, or 623/1047; v) SEQ ID NO: 28, m/z value of about 561/806, 561/935, or 561/692; and vi) SEQ ID NO: 29, m/z value of about 419/653, 419/556, or 419/425.
Apparatus for a hob , with a control unit , which is provided to take at least one heating zone-specific parameter into consideration before the start of a heating procedure when adapting at least one base recipe to generate at least one implementation recipe , wherein the heating-zone specific parameter is a variable of a heating zone and/or an extreme heating output assigned to a heating zone and/or a number of heating elements provided for heating of the heating zone.
A storage device for reels of electronic components comprising: - a support frame ; and - a plurality of storage units which are arranged on the support frame and which are configured to receive at least one of the reels, wherein there are defined on the support frame: - an unloading side for accessing the storage units and for unloading the reels from the storage units; and - a loading side , which is different from the unloading side, for accessing the storage units and loading the reels in the storage unit, and characterised in that each storage unit is pivotable between a storage position, in which the reel is retained inside the storage unit, an unloading position, in which the reel is released towards the unloading side, and a loading position, in which it is pivoted towards the loading side , in order to make it easier to introduce a reel into the storage unit, and in that in each storage unit there is defined an opening through which the reel is loaded in and unloaded from the storage unit, the opening being directed towards the loading side when the storage unit is pivoted into the loading position and towards the unloading side when the storage unit is pivoted into the unloading position. - a support frame ; and - a plurality of storage units which are arranged on the support frame and which are configured to receive at least one of the reels, - an unloading side for accessing the storage units and for unloading the reels from the storage units; and - a loading side , which is different from the unloading side, for accessing the storage units and loading the reels in the storage unit, and characterised in that each storage unit is pivotable between a storage position, in which the reel is retained inside the storage unit, an unloading position, in which the reel is released towards the unloading side, and a loading position, in which it is pivoted towards the loading side , in order to make it easier to introduce a reel into the storage unit, and in that in each storage unit there is defined an opening through which the reel is loaded in and unloaded from the storage unit, the opening being directed towards the loading side when the storage unit is pivoted into the loading position and towards the unloading side when the storage unit is pivoted into the unloading position.
A method for Network Assisted Interference Cancellation and Suppression, NAICS, comprising: reporting, by a User Equipment, UE, a Component Carrier, CC, number which is supported during NAICS to a Node B; receiving, by the UE, an interference measurement notice sent by the Node B, performing interference measurement on each CC according to the interference measurement notice, selecting a target CC according to a measurement result, and reporting information of the target CC to the Node B, wherein the CC number and the information of the target CC are used for the Node B to determine an identifier, ID, of a CC which is targeted when the UE performs NAICS; receiving (S101), by the UE, an Interference Cancellation, IC, indication message sent by the Node B, wherein the IC indication message includes the ID of the CC, and the CC is a CC which performs Carrier Aggregation, CA, transmission on the UE; and performing (S102), by the UE, NAICS on the CC according to the IC indication message. reporting, by a User Equipment, UE, a Component Carrier, CC, number which is supported during NAICS to a Node B; receiving, by the UE, an interference measurement notice sent by the Node B, performing interference measurement on each CC according to the interference measurement notice, selecting a target CC according to a measurement result, and reporting information of the target CC to the Node B, wherein the CC number and the information of the target CC are used for the Node B to determine an identifier, ID, of a CC which is targeted when the UE performs NAICS; receiving (S101), by the UE, an Interference Cancellation, IC, indication message sent by the Node B, wherein the IC indication message includes the ID of the CC, and the CC is a CC which performs Carrier Aggregation, CA, transmission on the UE; and performing (S102), by the UE, NAICS on the CC according to the IC indication message.
A conductive wiring material composition comprising (A) an ionic material, and (B) metal powder, wherein the component (A) is a polymer compound having a repeating unit "a" which has a structure selected from an ammonium salt, a lithium salt, a sodium salt, a potassium salt and a silver salt of any of fluorosulfonic acid, and fluorosulfonamide, and the component (B) is contained in an amount exceeding 50 parts by mass based on 100 parts by mass of a solid content in the conductive wiring material composition excluding the component (B), and wherein the repeating unit "a" is a repeating unit having one or more structures represented by the following general formulae -1, -2 or -4: wherein, Rf 1 and Rf 2 each represent a hydrogen atom, a fluorine atom, an oxygen atom, a methyl group or a trifluoromethyl group, when Rf 1 is an oxygen atom, Rf 2 is also an oxygen atom to form a carbonyl group together with the carbon atom to which it is bonded; Rf 3 and Rf 4 each represent a hydrogen atom, a fluorine atom or a trifluoromethyl group and one or more of Rf 1 to Rf 4 is/are a fluorine atom(s) or a trifluoromethyl group(s); Rf 5 and Rf 7 each represent a fluorine atom or a linear or branched alkyl group having 1 to 4 carbon atoms and have one or more fluorine atoms; "m" is an integer of 1 to 4; M + represents an ion selected from an ammonium ion, a lithium ion, a sodium ion, a potassium ion and a silver ion. wherein the component (A) is a polymer compound having a repeating unit "a" which has a structure selected from an ammonium salt, a lithium salt, a sodium salt, a potassium salt and a silver salt of any of fluorosulfonic acid, and fluorosulfonamide, and the component (B) is contained in an amount exceeding 50 parts by mass based on 100 parts by mass of a solid content in the conductive wiring material composition excluding the component (B), and wherein the repeating unit "a" is a repeating unit having one or more structures represented by the following general formulae -1, -2 or -4: wherein, Rf 1 and Rf 2 each represent a hydrogen atom, a fluorine atom, an oxygen atom, a methyl group or a trifluoromethyl group, when Rf 1 is an oxygen atom, Rf 2 is also an oxygen atom to form a carbonyl group together with the carbon atom to which it is bonded; Rf 3 and Rf 4 each represent a hydrogen atom, a fluorine atom or a trifluoromethyl group and one or more of Rf 1 to Rf 4 is/are a fluorine atom(s) or a trifluoromethyl group(s); Rf 5 and Rf 7 each represent a fluorine atom or a linear or branched alkyl group having 1 to 4 carbon atoms and have one or more fluorine atoms; "m" is an integer of 1 to 4; M + represents an ion selected from an ammonium ion, a lithium ion, a sodium ion, a potassium ion and a silver ion.
Cooling system for cooling a transport unit, comprising: a synchronous generator for providing an energy supply for the cooling system, and at least one refrigeration circuit module connected to the energy supply, which module comprises at least one switchable drive unit for a refrigeration circuit module element, wherein the synchronous generator comprises an exciter control, characterized in that the exciter control is configured to provide a reactive power, which is required when the drive unit is switched on hard, by appropriately controlling the synchronous generator, wherein the excitation control of the synchronous generator takes place via the excitation current of the synchronous generator and the level and slope of the excitation current are preferably dependent on the current load torque of the drive unit, the excitation control of the synchronous generator is configured to reduce the required power of the refrigeration circuit module element to such an extent that a hard connection of the refrigeration circuit module element to the electrical network generated by the synchronous generator is possible, and the drive unit for the refrigerant module element is an asynchronous electric motor. a synchronous generator for providing an energy supply for the cooling system, and at least one refrigeration circuit module connected to the energy supply, which module comprises at least one switchable drive unit for a refrigeration circuit module element, wherein the synchronous generator comprises an exciter control, characterized in that the exciter control is configured to provide a reactive power, which is required when the drive unit is switched on hard, by appropriately controlling the synchronous generator, wherein the excitation control of the synchronous generator takes place via the excitation current of the synchronous generator and the level and slope of the excitation current are preferably dependent on the current load torque of the drive unit, the excitation control of the synchronous generator is configured to reduce the required power of the refrigeration circuit module element to such an extent that a hard connection of the refrigeration circuit module element to the electrical network generated by the synchronous generator is possible, and the drive unit for the refrigerant module element is an asynchronous electric motor.
A method for manufacturing a metallic component , comprising: additively manufacturing a sacrificial tooling structure having a component-defining surface region ; applying a dielectric masking material to the sacrificial tooling structure ; depositing a metallic body layer over the component-defining surface region utilizing an electroforming process such that a geometry of the component-defining surface region is transferred to the metallic body layer , the dielectric masking material creating an opening in the metallic body layer during the electroforming process; removing the sacrificial tooling structure through the opening created in the metallic body layer , while leaving the metallic body layer intact; and further processing the metallic body layer to complete fabrication of the metallic component . additively manufacturing a sacrificial tooling structure having a component-defining surface region ; applying a dielectric masking material to the sacrificial tooling structure ; depositing a metallic body layer over the component-defining surface region utilizing an electroforming process such that a geometry of the component-defining surface region is transferred to the metallic body layer , the dielectric masking material creating an opening in the metallic body layer during the electroforming process; removing the sacrificial tooling structure through the opening created in the metallic body layer , while leaving the metallic body layer intact; and further processing the metallic body layer to complete fabrication of the metallic component .