mhurhangee/ep-ind-claims huggingface dataset:
System for resetting a chronograph, which is provided with a chronograph counting train, which comprises at least a minute counter having a minute wheel set, and a seconds counter, which comprises a chronograph wheel set, the minute wheel set including a heart-piece, constituting a cam shape, mounted on a central arbor of the minute wheel set and the chronograph wheel set including a heart-piece mounted on a central arbor of the chronograph wheel set, the system comprising a hammer immobilised by an immobilising means and capable of being displaced from an inactive position, where the hammer is immobilised by the immobilising means, and an active position, when the hammer is released, to reset the chronograph in contact with the various heart-pieces of the wheel sets (3, 4), the system comprising a flexible element connected between a reset control means and the hammer used for resetting the chronograph, the flexible element being configured in such a way as to store energy during a displacement of the control means before the hammer is released by the immobilising means in order to be able, when the hammer is released, to output this stored energy and drive the hammer to reset the chronograph, the flexible element being connected by a first end to the hammer, which is used for resetting the chronograph, characterised in that a second end of the flexible element is fastened to the control means which is mounted on a base, frame or plate of a timepiece, and in that the flexible element has an arcuate shape from a rest position between its first end and its second end, this arcuate shape being oriented towards an external activation member of the control means in such a way as to accumulate energy as a result of the external activation member being pressed and to output the accumulated energy when the hammer is released in order to reset the chronograph. the system comprising a flexible element connected between a reset control means and the hammer used for resetting the chronograph, the flexible element being configured in such a way as to store energy during a displacement of the control means before the hammer is released by the immobilising means in order to be able, when the hammer is released, to output this stored energy and drive the hammer to reset the chronograph, the flexible element being connected by a first end to the hammer, which is used for resetting the chronograph, characterised in that a second end of the flexible element is fastened to the control means which is mounted on a base, frame or plate of a timepiece, and in that the flexible element has an arcuate shape from a rest position between its first end and its second end, this arcuate shape being oriented towards an external activation member of the control means in such a way as to accumulate energy as a result of the external activation member being pressed and to output the accumulated energy when the hammer is released in order to reset the chronograph.
A method for use in an IEEE 802.11 station, STA,, for fast initial link setup, FILS, the method comprising: receiving a frame from an IEEE 802.11 access point, AP,, comprising an information element, wherein the information element includes access information, the access information comprising: at least one identifier, ID, each identifier corresponding to one of at least one IEEE 802.11 STA that is allowed to conduct a FILS procedure with the IEEE 802.11 AP, and an indication of a specific time interval for conducting the FILS procedure during which the at least one IEEE 802.11 STA is allowed to associate with the IEEE 802.11 AP using one or more FILS frames; and on a condition that one of the at least one ID matches an ID of the IEEE 802.11 STA, conducting a FILS procedure, including transmitting an association request message to the IEEE 802.11 AP, during the indicated specific time interval.
An absorbent article comprising: one or more complexed or encapsulated compounds selected from: 3-(3-propan-2-ylphenyl)butanal, 5-methyl-2-thiophene-carboxaldehyde, hydratropic aldehyde, 9-undecenal, 10-undecenal, trans-4-decenal, cis-6-nonenal, and isocyclocitral.
A process of for the preparation of a pyridone compound of formula, or: comprising the steps of: P-1) brominating a compound of the following formula (I-I) to produce a bromine compound of the following formula (II-II): wherein R is -CHO, -CH 2, -CH (OR 4), -CH -CH 2 OH or - CH(OR 5)(OR 6); P 1 is H or a hydroxyl protecting group; P 3 is H or a carboxy protecting group; R 4 is C 1 -C 6 alkyl; R 5 and R 6 are independently alkyl or R 5 and R 6 can be alkyl and joined to form a 5-, 6-, or 7-membered ring, and P-2) creating the 2,4-di-fluorophenyl-CH 2 -NH-C - sidechain with the reactants 2,4-di-fluorophenyl-CH 2 -NH 2 and carbon monoxide. P-1) brominating a compound of the following formula (I-I) to produce a bromine compound of the following formula (II-II): wherein R is -CHO, -CH 2, -CH (OR 4), -CH -CH 2 OH or - CH(OR 5)(OR 6); P 1 is H or a hydroxyl protecting group; P 3 is H or a carboxy protecting group; R 4 is C 1 -C 6 alkyl; R 5 and R 6 are independently alkyl or R 5 and R 6 can be alkyl and joined to form a 5-, 6-, or 7-membered ring, and R is -CHO, -CH 2, -CH (OR 4), -CH -CH 2 OH or - CH(OR 5)(OR 6); P 1 is H or a hydroxyl protecting group; P 3 is H or a carboxy protecting group; R 4 is C 1 -C 6 alkyl; R 5 and R 6 are independently alkyl or R 5 and R 6 can be alkyl and joined to form a 5-, 6-, or 7-membered ring, and P-2) creating the 2,4-di-fluorophenyl-CH 2 -NH-C - sidechain with the reactants 2,4-di-fluorophenyl-CH 2 -NH 2 and carbon monoxide.
Use of a fluororubber composition for a seal for semiconductor processing apparatuses used in plasma processes, said seal being obtained from a fluororubber composition, said fluororubber composition comprising a peroxide-crosslinkable fluoropolymer, a polyol compound, a peroxide crosslinking agent, and a co-crosslinking agent, and said fluororubber composition containing 0.1 to 3 parts by weight of the polyol compound, 0.1 to 4 parts by weight of the peroxide crosslinking agent, and 1 to 9 parts by weight of the co-crosslinking agent per 100 parts by weight of the peroxide-crosslinkable fluoropolymer.
A flame-retardant resin composition characterized by comprising: a styrene-based resin; a brominated polymer type flame retardant; a halogen capture agent; an antioxidant; and liquid paraffin, wherein a content of bromine is 18 to 42% by mass, and the flame-retardant resin composition contains 0.8 to 15 parts by mass of the halogen capture agent, 0.8 to 7 parts by mass of the antioxidant, and 0.8 to 6 parts by mass of the liquid paraffin based on a total of 100 parts by mass of the styrene-based resin and brominated polymer type flame retardant. a styrene-based resin; a brominated polymer type flame retardant; a halogen capture agent; an antioxidant; and liquid paraffin, wherein a content of bromine is 18 to 42% by mass, and the flame-retardant resin composition contains 0.8 to 15 parts by mass of the halogen capture agent, 0.8 to 7 parts by mass of the antioxidant, and 0.8 to 6 parts by mass of the liquid paraffin based on a total of 100 parts by mass of the styrene-based resin and brominated polymer type flame retardant.
A braid for treating an aneurysm, the braid comprising: a distal segment defined between proximal and distal ends (16, 14) of the braid; and a tapered segment disposed between the distal segment and a proximal segment, the proximal segment being disposed on or adjacent the proximal end; wherein the braid is capable of moving from a collapsed state within a microcatheter to a deployed state external to the microcatheter; wherein translating the braid so the distal end is distal of the microcatheter causes the distal segment to radially expand and form an outer occlusive sack, the occlusive sack having a diameter greater than the microcatheter; wherein translating the braid distally after the outer occlusive sack is formed causes the proximal end of the braid to invert into the occlusive sack, characterized in that the tapered segment further comprises a pre-weakened portion, the pre-weakened portion causing the proximal end of the braid to invert into the occlusive sack, wherein the pre-weakened portion is formed by removing wire segments or localized heat treatment or in that a braid angle of the tapered segment is increased compared to a braid angle of the distal segment to facilitate inversion. a distal segment defined between proximal and distal ends (16, 14) of the braid; and a tapered segment disposed between the distal segment and a proximal segment, the proximal segment being disposed on or adjacent the proximal end; wherein the braid is capable of moving from a collapsed state within a microcatheter to a deployed state external to the microcatheter; wherein translating the braid so the distal end is distal of the microcatheter causes the distal segment to radially expand and form an outer occlusive sack, the occlusive sack having a diameter greater than the microcatheter; wherein translating the braid distally after the outer occlusive sack is formed causes the proximal end of the braid to invert into the occlusive sack, characterized in that the tapered segment further comprises a pre-weakened portion, the pre-weakened portion causing the proximal end of the braid to invert into the occlusive sack, wherein the pre-weakened portion is formed by removing wire segments or localized heat treatment or in that a braid angle of the tapered segment is increased compared to a braid angle of the distal segment to facilitate inversion.
A method for the production of a ceramic circuit board, comprising: bonding a copper circuit plate as a copper circuit pattern to at least one surface of a ceramic substrate by using a brazing material layer interposed between the at least one surface of the ceramic substrate and the copper circuit plate, the brazing material layer comprising Ag, Cu, and Ti; and forming a brazing material protrudent part which protrudes outward from a side surface of the copper circuit plate, wherein the brazing material protrudent part is formed by the brazing material layer and comprises a Ti phase and a TiN phase by 3% by mass or more in total, which is different from the total amount of a Ti phase and a TiN phase in the brazing material layer that is interposed between the at least one surface of the ceramic substrate and the copper circuit plate, and the brazing material protrudent part contains one or zero void having a cross sectional area of 200 μm 2 or less and no void having a cross sectional area of more than 200 μm 2. bonding a copper circuit plate as a copper circuit pattern to at least one surface of a ceramic substrate by using a brazing material layer interposed between the at least one surface of the ceramic substrate and the copper circuit plate, the brazing material layer comprising Ag, Cu, and Ti; and forming a brazing material protrudent part which protrudes outward from a side surface of the copper circuit plate, wherein the brazing material protrudent part is formed by the brazing material layer and comprises a Ti phase and a TiN phase by 3% by mass or more in total, which is different from the total amount of a Ti phase and a TiN phase in the brazing material layer that is interposed between the at least one surface of the ceramic substrate and the copper circuit plate, and the brazing material protrudent part contains one or zero void having a cross sectional area of 200 μm 2 or less and no void having a cross sectional area of more than 200 μm 2.
A heat exchanger, comprising: a plurality of sets of heat exchange tubes positioned adjacent each other, each set of heat exchange tubes fluidly coupled to a header at an end (210, 212) thereof; a sensor grid positioned amongst the plurality of sets of heat exchange tubes, the sensor grid including a plurality of sensors, each sensor including a sensor lead extending therefrom; and a tube restraint for positioning at least one of the plurality of sets of heat exchange tubes relative to an enclosure, the tube restraint including a tube opening for each of the heat exchange tubes of a respective set of heat exchange tubes and a sensor lead opening, wherein at least one sensor lead of the sensor grid extends through the sensor lead opening, characterized in that an end of the header of a first set of heat exchange tubes includes a baffle extending therefrom, and further comprising a conduit extending through the baffle, the conduit including a plurality of sensor leads of the sensor grid extending therein. a plurality of sets of heat exchange tubes positioned adjacent each other, each set of heat exchange tubes fluidly coupled to a header at an end (210, 212) thereof; a sensor grid positioned amongst the plurality of sets of heat exchange tubes, the sensor grid including a plurality of sensors, each sensor including a sensor lead extending therefrom; and a tube restraint for positioning at least one of the plurality of sets of heat exchange tubes relative to an enclosure, the tube restraint including a tube opening for each of the heat exchange tubes of a respective set of heat exchange tubes and a sensor lead opening, wherein at least one sensor lead of the sensor grid extends through the sensor lead opening,
A protective helmet comprising: an outer shell having an inner surface and an outer surface; an interface structure located in surface contact with said inner surface; and an inner liner in surface contact with said interface structure, said inner liner being characterized by comprising a natural silkworm cocoon matrix structure. an outer shell having an inner surface and an outer surface; an interface structure located in surface contact with said inner surface; and an inner liner in surface contact with said interface structure, said inner liner being characterized by comprising a natural silkworm cocoon matrix structure.
A system, comprising: a first LUT with N entries, wherein each of the N entries contains parameters that define a corresponding linear segment; a second LUT with M entries, wherein M is less than N; a controller configured to store a subset of the N entries from the first LUT in the second LUT; a classifier configured to receive an input value and classify the input value in one of a plurality of segments of a number line, wherein a total number of the segments is equal to M, and wherein the segments are non-overlapping and contiguous; and a multiplexor for selecting one of the M entries of the second LUT based on the classification of the input value into one of the plurality of segments wherein the controller is further configured to successively update the second LUT to store non-overlapping subsets of the N entries from the first LUT. a first LUT with N entries, wherein each of the N entries contains parameters that define a corresponding linear segment; a second LUT with M entries, wherein M is less than N; a controller configured to store a subset of the N entries from the first LUT in the second LUT; a classifier configured to receive an input value and classify the input value in one of a plurality of segments of a number line, wherein a total number of the segments is equal to M, and wherein the segments are non-overlapping and contiguous; and a multiplexor for selecting one of the M entries of the second LUT based on the classification of the input value into one of the plurality of segments wherein the controller is further configured to successively update the second LUT to store non-overlapping subsets of the N entries from the first LUT.
An alarm method performed by an alarm apparatus of a microwave outdoor unit, the microwave outdoor unit using a 1+1 protection configuration type, the 1+1 protection configuration type being a hot standby configuration type, the method being characterized by comprising: acquiring a first receive power of an active unit of the microwave outdoor unit and a second receive power of a standby unit of the microwave outdoor unit; calculating a power difference between the first receive power and the second receive power; and triggering an alarm for the standby unit when the power difference is a positive value and not less than a first threshold; or triggering an alarm for the active unit when the power difference is a negative value and not greater than a second threshold. acquiring a first receive power of an active unit of the microwave outdoor unit and a second receive power of a standby unit of the microwave outdoor unit; calculating a power difference between the first receive power and the second receive power; and triggering an alarm for the standby unit when the power difference is a positive value and not less than a first threshold; or triggering an alarm for the active unit when the power difference is a negative value and not greater than a second threshold.
Double-walled crockery comprising a first wall to be heated, and a second wall, wherein between the first wall and the second wall is located a space in which a pouch filled with a phase-change material is accommodated, wherein the pouch is arranged against the first wall of the crockery and wherein a thermally insulating layer is present between the pouch and the second wall of the crockery (100 characterised in that the phase-change material has a melting temperature of between 40°C and 300°C and wherein a high vacuum prevails in the filled pouch.
A transport refrigeration unit, TRU, comprising a TRU fire detection and mitigation system, the TRU comprising a housing and components supportively disposed within the housing and configured to condition an interior of a container of a transportation vehicle, the TRU fire detection and mitigation system comprising: a fire detection sub-system; and a mitigation sub-system coupled to the fire detection sub-system, the fire detection sub-system comprising a loop within the housing with a nominal pressure which is increasable responsive to a thermal event within the housing and a switch which is actuatable by an increased pressure in the loop to activate the mitigation sub-system, and the mitigation sub-system being configured to take a mitigation action responsive to activation by the switch, and the loop comprising piping charged with gas and having a serpentine configuration; wherein the mitigation sub-system comprises a safety controller including a processor, a memory unit and an input/output, I/O, unit, wherein the memory unit has executable instructions stored thereon which, when executed, cause the processor to operate by way of the I/O unit; wherein the mitigation action comprises a modification of gas flow to the components of the TRU by the processor of the safety controller by way of the I/O unit and corresponding valves of piping for providing gas flow to the components. a fire detection sub-system; and a mitigation sub-system coupled to the fire detection sub-system, the fire detection sub-system comprising a loop within the housing with a nominal pressure which is increasable responsive to a thermal event within the housing and a switch which is actuatable by an increased pressure in the loop to activate the mitigation sub-system, and the mitigation sub-system being configured to take a mitigation action responsive to activation by the switch, and the loop comprising piping charged with gas and having a serpentine configuration; wherein the mitigation sub-system comprises a safety controller including a processor, a memory unit and an input/output, I/O, unit, wherein the memory unit has executable instructions stored thereon which, when executed, cause the processor to operate by way of the I/O unit; wherein the mitigation action comprises a modification of gas flow to the components of the TRU by the processor of the safety controller by way of the I/O unit and corresponding valves of piping for providing gas flow to the components.
A composition comprising the botanical extract of the testa of Anacardium occidentale L, wherein the botanical extract exhibits anti-inflammatory activity, wherein the extract is obtainable by extracting the testa of Anacardium occidentale L with a mixture of 70% ethanol and 30% water, and wherein the botanical extract is present in an amount of from 32 μg/mL to about 250.0 μg/mL.
A method for improving usage of lubrication in a drive of a vehicle, wherein the drive comprises an electric traction motor and at least one region with lubricant, wherein the method comprises the steps of: - determining the value of at least one operating variable of the vehicle; - determining the lubricant temperature on the basis of the value of the operating variable; and - estimating the remaining service life of the lubricant and/or the spent portion of the admissible service life of the lubricant on the basis of the lubricant temperature; wherein the operating variable is at least one thermal dissipation of the drive. - determining the value of at least one operating variable of the vehicle; - determining the lubricant temperature on the basis of the value of the operating variable; and - estimating the remaining service life of the lubricant and/or the spent portion of the admissible service life of the lubricant on the basis of the lubricant temperature; wherein the operating variable is at least one thermal dissipation of the drive.
A method of electrochemically measuring a hematocrit (Hct) value of blood, comprising: providing an electrode system having a working electrode (11, 21, 31) and a counter electrode (12, 22, 32), a redox substance being provided on the counter electrode (12, 22, 32) but not on the working electrode (11, 21, 31); a spacer (102, 202) being provided over the electrode system and covering a part of the redox substance, wherein the spacer defines a channel (14, 24, 34) for bringing blood into contact with the redox substance; supplying blood to the electrode system; applying a voltage to the electrode system in this state to cause an oxidation current or a reduction current to flow between the electrodes, each current being dependent on the Hct value, wherein a voltage that is negative with respect to a voltage applied to the counter electrode is applied to the working electrode; detecting the oxidation current or the reduction current; and determining a Hct value of the blood based on a value of the detected current. providing an electrode system having a working electrode (11, 21, 31) and a counter electrode (12, 22, 32), a redox substance being provided on the counter electrode (12, 22, 32) but not on the working electrode (11, 21, 31); a spacer (102, 202) being provided over the electrode system and covering a part of the redox substance, wherein the spacer defines a channel (14, 24, 34) for bringing blood into contact with the redox substance; supplying blood to the electrode system; applying a voltage to the electrode system in this state to cause an oxidation current or a reduction current to flow between the electrodes, each current being dependent on the Hct value, wherein a voltage that is negative with respect to a voltage applied to the counter electrode is applied to the working electrode; detecting the oxidation current or the reduction current; and determining a Hct value of the blood based on a value of the detected current.