mhurhangee/ep-ind-claims huggingface dataset:
A LAN cable comprising: an insulated electrical wire comprising an insulating layer on an outer periphery of a conductor; a sheath that coats the outer periphery of the insulated electrical wire; and an intermediate layer arranged between the sheath and the insulated electrical wire, the intermediate layer being arranged immediately under the sheath, including an aluminum PET tape, a copper braid, and polyimide, and having a mass reduction rate at 800°C of less than or equal to 80% by mass; and the sheath comprises a cross-linked non-halogen flame retardant resin composition in which the mass reduction rate at 800°C is less than or equal to 60% by mass, wherein the value of the mass reduction rate of the intermediate layer and the sheath is obtained by measuring under a condition of temperature rising rate of 10°C /min. in a nitrogen atmosphere using a thermogravimetric analyzer, and measuring a ratio of the change in the mass between before and after the heating with respect to the mass before the heating. an insulated electrical wire comprising an insulating layer on an outer periphery of a conductor; a sheath that coats the outer periphery of the insulated electrical wire; and an intermediate layer arranged between the sheath and the insulated electrical wire, the intermediate layer being arranged immediately under the sheath, including an aluminum PET tape, a copper braid, and polyimide, and having a mass reduction rate at 800°C of less than or equal to 80% by mass; and the sheath comprises a cross-linked non-halogen flame retardant resin composition in which the mass reduction rate at 800°C is less than or equal to 60% by mass, wherein the value of the mass reduction rate of the intermediate layer and the sheath is obtained by measuring under a condition of temperature rising rate of 10°C /min. in a nitrogen atmosphere using a thermogravimetric analyzer, and measuring a ratio of the change in the mass between before and after the heating with respect to the mass before the heating.
A resource determining method, comprises: detecting, by a User Equipment, UE, a Physical Downlink Control Channel, PDCCH; determining, by the UE, Physical Uplink Control Channel, PUCCH, resources required by the UE, during Radio Resource Control, RRC, reconfiguration based on detected PDCCH; wherein the PDCCH is detected in a Control Resource Set, CORESET, indicated by a network side; wherein the determining, by the UE, PUCCH resources required by the UE during RRC reconfiguration based on detected PDCCH, comprises: determining the PUCCH resources from a cell specific PUCCH resource set in response to that detecting one PDCCH or two PDCCHs in the CORESET 0 and bits occupied by Hybrid Automatic Repeat Request, HARQ, feedback information is less than or equal to 2; determining the PUCCH resources from a dedicated PUCCH resource set of the UE in response to that detecting a PDCCH that does not belong to the CORESET 0; determining the PUCCH resources from the dedicated PUCCH resource set of the UE in response to that detecting a plurality of PDCCHs and bits occupied by the HARQ feedback information is greater than 2. detecting, by a User Equipment, UE, a Physical Downlink Control Channel, PDCCH; determining, by the UE, Physical Uplink Control Channel, PUCCH, resources required by the UE, during Radio Resource Control, RRC, reconfiguration based on detected PDCCH; wherein the PDCCH is detected in a Control Resource Set, CORESET, indicated by a network side; wherein the determining, by the UE, PUCCH resources required by the UE during RRC reconfiguration based on detected PDCCH, comprises: determining the PUCCH resources from a cell specific PUCCH resource set in response to that detecting one PDCCH or two PDCCHs in the CORESET 0 and bits occupied by Hybrid Automatic Repeat Request, HARQ, feedback information is less than or equal to 2; determining the PUCCH resources from a dedicated PUCCH resource set of the UE in response to that detecting a PDCCH that does not belong to the CORESET 0; determining the PUCCH resources from the dedicated PUCCH resource set of the UE in response to that detecting a plurality of PDCCHs and bits occupied by the HARQ feedback information is greater than 2. determining the PUCCH resources from a cell specific PUCCH resource set in response to that detecting one PDCCH or two PDCCHs in the CORESET 0 and bits occupied by Hybrid Automatic Repeat Request, HARQ, feedback information is less than or equal to 2; determining the PUCCH resources from a dedicated PUCCH resource set of the UE in response to that detecting a PDCCH that does not belong to the CORESET 0; determining the PUCCH resources from the dedicated PUCCH resource set of the UE in response to that detecting a plurality of PDCCHs and bits occupied by the HARQ feedback information is greater than 2.
An exhaust pipe structure of a swing-type power unit including an internal combustion engine that includes: an engine in which a cylinder disposed substantially horizontally is projectingly provided on a vehicle body frame; an exhaust pipe through which a combustion gas is discharged from a combustion chamber in a cylinder head in the engine; and a catalyst disposed in the middle of the exhaust pipe, the exhaust pipe structure comprising: a catalyst holding member holding an end portion of the catalyst is divided by a plane through a center axis of the exhaust pipe, characterized in that an overall shape of the catalyst holding member is formed into an arc shape having an arc length of about 1/4 of a circumference and in a manner that a cross-sectional area thereof is increased gradually toward the catalyst, and the catalyst holding member is disposed so as to get into a space between a swing axis and a crank case in a front and rear direction and a space between the cylinder head and a bracket supporting the swing axis in a vertical direction. a catalyst holding member holding an end portion of the catalyst is divided by a plane through a center axis of the exhaust pipe,
A method comprising the steps of: storing contextual information that describes a state of a first device (102, 401) and an interaction with a first application on the first device; determining a head-mounted computing device (100, 300) upon which the interaction with the first application may be extended; providing a notification of an opportunity to extend the interaction with the first application using the head-mounted computing device; and in response to a received selection of the opportunity, providing to the head-mounted computing device the stored contextual information such that the head-mounted computing device is capable to extend the interaction with the first application on the head-mounted computing device. storing contextual information that describes a state of a first device (102, 401) and an interaction with a first application on the first device; determining a head-mounted computing device (100, 300) upon which the interaction with the first application may be extended; providing a notification of an opportunity to extend the interaction with the first application using the head-mounted computing device; and in response to a received selection of the opportunity, providing to the head-mounted computing device the stored contextual information such that the head-mounted computing device is capable to extend the interaction with the first application on the head-mounted computing device.
An aqueous electroplating bath for depositing a functional chromium layer, comprising (i) a source for chromium ions, (ii) a source for sulfate ions and (iii) methane-trisulfonic acid or a salt thereof. (i) a source for chromium ions, (ii) a source for sulfate ions and (iii) methane-trisulfonic acid or a salt thereof.
A method implemented in a microcircuit, comprising: - a step of checking the normal operation of the microcircuit; and - depending on the result of the checking: - when the operation of the circuit is normal, a step of writing a first data at a first address (@ A); - when the operation of the circuit is abnormal, a step of writing a second data at a second address (@ A'); said method being characterized in that said second address points to a dedicated memory area (M A ') of the microcircuit, and said second data is obtained by substituting part of said first data which would be written in normal operation (A n) by an identifier of the abnormal operation. - a step of checking the normal operation of the microcircuit; and - depending on the result of the checking: - when the operation of the circuit is normal, a step of writing a first data at a first address (@ A); - when the operation of the circuit is abnormal, a step of writing a second data at a second address (@ A'); said method being characterized in that said second address points to a dedicated memory area (M A ') of the microcircuit, and said second data is obtained by substituting part of said first data which would be written in normal operation (A n) by an identifier of the abnormal operation. - when the operation of the circuit is normal, a step of writing a first data at a first address (@ A); - when the operation of the circuit is abnormal, a step of writing a second data at a second address (@ A'); said method being characterized in that said second address points to a dedicated memory area (M A ') of the microcircuit, and said second data is obtained by substituting part of said first data which would be written in normal operation (A n) by an identifier of the abnormal operation.
Lighting module for a luminaire, in particular an examination luminaire comprising at least one semiconductor light source (2a, 2b), in particular light-emitting diode or laser diode, and at least one optical unit or common optical unit disposed downstream of the at least one semiconductor light source (2a, 2b), wherein the lighting module is integratable into the luminaire in an exchangeable fashion, wherein the at least one optical unit or common optical unit disposed downstream of the at least one semiconductor light source (2a, 2b) comprises at least one collecting optical unit, wherein the at least one optical unit or common optical unit disposed downstream of the at least one semiconductor light source (2a, 2b) comprises at least one reflector disposed downstream of the at least one collecting optical unit, wherein the lighting module comprises a heat sink wherein the lighting module comprises a bearing surface for a handle, characterized in that at least the heat sink, the at least one semiconductor light source (2a, 2b), the at least one collecting optical unit, the at least one reflector and the bearing surface are arranged substantially one behind another in this order.
A light-activated chimeric polypeptide comprising an amino acid sequence having more than 95% amino acid sequence identity to the amino acid sequence set forth in SEQ ID NO:1, wherein the polypeptide is responsive to light and is capable of mediating a depolarizing current in a cell when the cell is illuminated with light.
A polymerizable composition comprising; a) at least one allyl monomer or oligomer; b) at least one catalyst suitable for initiating the polymerization of said allyl monomer or oligomer; c) at least one UV absorber; and d) at least one dye; wherein the at least one catalyst has the following formula R 1 -O-O-C(=O)-O-R 2 or R 1 -O-O-C(=O)-R 2; in which R 1 is an alkyl chain having from 1 to 12 carbon atoms and R 2 is a linear or branched multivalent polyether having from 5 to 30 carbon atoms, bound to a plurality of alkylperoxy alkyl carbonate groups or to a plurality of peroxyester groups, or in which R 2 is an alkyl chain having from 1 to 12 carbon atoms and R 1 is a linear or branched multivalent polyether having from 5 to 30 carbon atoms, bound to a plurality of alkylperoxy alkyl carbonate groups or to a plurality of peroxyester groups. a) at least one allyl monomer or oligomer; b) at least one catalyst suitable for initiating the polymerization of said allyl monomer or oligomer; c) at least one UV absorber; and d) at least one dye; in which R 1 is an alkyl chain having from 1 to 12 carbon atoms and R 2 is a linear or branched multivalent polyether having from 5 to 30 carbon atoms, bound to a plurality of alkylperoxy alkyl carbonate groups or to a plurality of peroxyester groups, or in which R 2 is an alkyl chain having from 1 to 12 carbon atoms and R 1 is a linear or branched multivalent polyether having from 5 to 30 carbon atoms, bound to a plurality of alkylperoxy alkyl carbonate groups or to a plurality of peroxyester groups.
A route determining method, comprising: receiving a first flow entry, wherein the first flow entry comprises a first route mapping relationship of a service flow of a first service chain, a first load proportion of each service node, and a first effective time period of the first flow entry; receiving a second flow entry, wherein the second flow entry comprises a second route mapping relationship of the service flow of the first service chain, a second load proportion of each service node, and a second effective time period of the second flow entry, and the second effective time period is different from the first effective time period; receiving a first packet of a first service flow, wherein the first packet comprises a first timestamp of the first service flow and a first service chain identifier, the first service chain identifier indicates that the first service flow is a service flow of the first service chain, and the first timestamp indicates a creation time of the first service flow; determining, from the first effective time period and the second effective time period, a time period that includes the first timestamp; determining, according to a flow entry corresponding to the determined time period, a service node for receiving the first packet; and sending the first packet to the determined service node. receiving a first flow entry, wherein the first flow entry comprises a first route mapping relationship of a service flow of a first service chain, a first load proportion of each service node, and a first effective time period of the first flow entry; receiving a second flow entry, wherein the second flow entry comprises a second route mapping relationship of the service flow of the first service chain, a second load proportion of each service node, and a second effective time period of the second flow entry, and the second effective time period is different from the first effective time period; receiving a first packet of a first service flow, wherein the first packet comprises a first timestamp of the first service flow and a first service chain identifier, the first service chain identifier indicates that the first service flow is a service flow of the first service chain, and the first timestamp indicates a creation time of the first service flow; determining, from the first effective time period and the second effective time period, a time period that includes the first timestamp; determining, according to a flow entry corresponding to the determined time period, a service node for receiving the first packet; and sending the first packet to the determined service node.
A puffer device comprising: a cabinet having a printed circuit board and a gear train assembly coupled to the printed circuit board, the gear train assembly including a motor and a gear driven by the motor, the gear train assembly further having a cam coupled to the gear, the cabinet further including a plunger configured to be contacted and driven by the cam; and characterized by an aerosol can assembly configured to be releasably coupled to the cabinet, wherein movement of the plunger is configured to dispense a material from the aerosol can assembly. a cabinet having a printed circuit board and a gear train assembly coupled to the printed circuit board, the gear train assembly including a motor and a gear driven by the motor, the gear train assembly further having a cam coupled to the gear, the cabinet further including a plunger configured to be contacted and driven by the cam; and characterized by an aerosol can assembly configured to be releasably coupled to the cabinet, wherein movement of the plunger is configured to dispense a material from the aerosol can assembly.
A method for producing an emulsifiable formulation of a compound of the formula I comprising a) the compound formula I; b) an organic solvent or solvent mixture having a solubility in water of not more than 10 g/l (20°C, 1 bar) and comprising at least one aromatic hydrocarbon solvent; and c) at least one surface active substance; the method comprising the following steps: i. dissolving the at least one surfactant and the compound of formula I in the organic solvent or solvent mixture to obtain a clear solution of the at least one surfactant and the compound of the formula I; ii. heating the solution to a temperature of at least 40°C for at least 0.5 h. a) the compound formula I; b) an organic solvent or solvent mixture having a solubility in water of not more than 10 g/l (20°C, 1 bar) and comprising at least one aromatic hydrocarbon solvent; and c) at least one surface active substance; i. dissolving the at least one surfactant and the compound of formula I in the organic solvent or solvent mixture to obtain a clear solution of the at least one surfactant and the compound of the formula I; ii. heating the solution to a temperature of at least 40°C for at least 0.5 h.
A pressure sensing apparatus for obtaining signals for analyzing fluid samples, comprising a flow circuit, said flow circuit comprising the following components: (a) a plurality of capillaries (4, 7, 4', 7'; 402, 404; 502, 504) including at least one sample capillary (4, 4',7; 402; 502) for receiving a sample fluid; said plurality of capillaries (4, 7, 4', 7'; 402, 404; 502, 504) further including a reference capillary (7'; 404; 504) for receiving a reference fluid; (b) at least one delay volume component (9, 9'; 403A, 403B; 503) connected in the same flow path as the reference capillary (7'; 404; 504); (c) an inlet (1,401,501); (d) a first pressure transducer operable to sense a differential pressure associated with the flow of reference fluid through the reference capillary (7'; 404; 504); (e) a second pressure transducer operable to sense a differential pressure associated with the flow of sample fluid through the at least one sample capillary (4,4',7;402;502) and (f) an outlet (32,405,523); characterised in that the flow circuit further comprises (g) a valve (8;411;511) operable to connect the at least one delay volume component (9,9'; 403A, 403B; 503) with the circuit outlet (32,405,523) and to selectively reverse a direction of fluid flow through the at least one delay volume component (9,9'; 403A, 403B; 503). (a) a plurality of capillaries (4, 7, 4', 7'; 402, 404; 502, 504) including at least one sample capillary (4, 4',7; 402; 502) for receiving a sample fluid; said plurality of capillaries (4, 7, 4', 7'; 402, 404; 502, 504) further including a reference capillary (7'; 404; 504) for receiving a reference fluid; (b) at least one delay volume component (9, 9'; 403A, 403B; 503) connected in the same flow path as the reference capillary (7'; 404; 504); (c) an inlet (1,401,501); (d) a first pressure transducer operable to sense a differential pressure associated with the flow of reference fluid through the reference capillary (7'; 404; 504); (e) a second pressure transducer operable to sense a differential pressure associated with the flow of sample fluid through the at least one sample capillary (4,4',7;402;502) and (f) an outlet (32,405,523); characterised in that the flow circuit further comprises (g) a valve (8;411;511) operable to connect the at least one delay volume component (9,9'; 403A, 403B; 503) with the circuit outlet (32,405,523) and to selectively reverse a direction of fluid flow through the at least one delay volume component (9,9'; 403A, 403B; 503).
Battery cell comprising a housing which accommodates an electrode arrangement having a cathode and an anode, wherein the housing has a passage opening for electrically contacting the anode or the cathode, further comprising a contact element which is electrically connected to the anode or cathode, wherein the contact element comprises a covering disc which completely covers the passage opening, wherein the covering disc is separated from the housing by an insulating film, characterized in that the insulating film is formed from an epoxy material which comprises a filler, wherein the covering disc, together with the insulating film, is arranged on the inner side of the housing.
Lock cylinder comprising a rotor with a key channel and a security device having anti-drilling security bolts with enhanced hardness, wherein said anti-drilling security bolts are mounted with their axes in parallel to a central plane of the key channel and have in their periphery at least one prominent flat face with an anti-rotation facet oriented in parallel and escorting the key channel, and with the entire transversal dimension of the said flat face with anti-rotation facet oriented towards the possible attacking screw or drill-bit, characterised in that said anti-drilling security bolts have cylindrical ends with a smaller contour, which are complementary to purpose-made pockets in the rotor.
An electronic device comprising: a camera configured to obtain an image of a target subject; a display configured to output the image; a memory configured to store the image; and a processor operatively connected to the camera, the display, and the memory, and configured to: obtain the image through the camera, determine whether a plurality of specified shapes exists in the image, when the plurality of specified shapes exists in the image, calculate a size of each area from a plurality of areas, each area occupied by each of the plurality of specified shapes in the image, determine whether the size of each area is greater than or equal to a first size, apply a specified effect to each of the plurality of areas when the size of each area is greater than or equal to the first size, release the specified effect applied to an area among the plurality of areas when a size of the area is changed to be smaller than a threshold size and a specified time has elapsed since the area was changed to be smaller than the threshold size, wherein the threshold size is smaller than the first size. a camera configured to obtain an image of a target subject; a display configured to output the image; a memory configured to store the image; and a processor operatively connected to the camera, the display, and the memory, and configured to: obtain the image through the camera, determine whether a plurality of specified shapes exists in the image, when the plurality of specified shapes exists in the image, calculate a size of each area from a plurality of areas, each area occupied by each of the plurality of specified shapes in the image, determine whether the size of each area is greater than or equal to a first size, apply a specified effect to each of the plurality of areas when the size of each area is greater than or equal to the first size, release the specified effect applied to an area among the plurality of areas when a size of the area is changed to be smaller than a threshold size and a specified time has elapsed since the area was changed to be smaller than the threshold size, wherein the threshold size is smaller than the first size. obtain the image through the camera, determine whether a plurality of specified shapes exists in the image, when the plurality of specified shapes exists in the image, calculate a size of each area from a plurality of areas, each area occupied by each of the plurality of specified shapes in the image, determine whether the size of each area is greater than or equal to a first size, apply a specified effect to each of the plurality of areas when the size of each area is greater than or equal to the first size, release the specified effect applied to an area among the plurality of areas when a size of the area is changed to be smaller than a threshold size and a specified time has elapsed since the area was changed to be smaller than the threshold size, wherein the threshold size is smaller than the first size.