mhurhangee/ep-ind-claims huggingface dataset:
A marker for use in a magnetomechanical electronic article surveillance system comprising: a magnetomechanical active resonator element formed by a planar strip of amorphous magnetostrictive alloy having a composition Fe a Ni b M c wherein a+b+c = 100, wherein a is in a range of 40-70 atomic percent, b is in a range of 10 to less than 25 atomic percent, and c is in a range of 10-50 atomic percent, and where M is the balance of remaining elements; wherein M comprises one or more selected from the group consisting of Si, B, C, and P; a biasing element located adjacent said resonator element; a housing configured to contain said active resonator element and said biasing element; and wherein said magnetomechanical active resonator element is subject to batch annealing in the presence of a magnetic field that is substantially transverse to the plane of said element and at a temperature of less than 300°C at a time of greater than one hour; wherein the frequency slope of the active resonator element in Hz/A.m -1 at the operating point is smaller than the maximum slope for the frequency characteristic curve; wherein an amplitude A1 at the operating point is larger than the minimum amplitude for the amplitude characteristic curve. a magnetomechanical active resonator element formed by a planar strip of amorphous magnetostrictive alloy having a composition Fe a Ni b M c wherein a+b+c = 100, wherein a is in a range of 40-70 atomic percent, b is in a range of 10 to less than 25 atomic percent, and c is in a range of 10-50 atomic percent, and where M is the balance of remaining elements; wherein M comprises one or more selected from the group consisting of Si, B, C, and P; a biasing element located adjacent said resonator element; a housing configured to contain said active resonator element and said biasing element; and wherein said magnetomechanical active resonator element is subject to batch annealing in the presence of a magnetic field that is substantially transverse to the plane of said element and at a temperature of less than 300°C at a time of greater than one hour; wherein the frequency slope of the active resonator element in Hz/A.m -1 at the operating point is smaller than the maximum slope for the frequency characteristic curve; wherein an amplitude A1 at the operating point is larger than the minimum amplitude for the amplitude characteristic curve.
A method of preparing a secondary battery, the method comprising: (i) providing a film layer, which includes a first solvent having a melting temperature of 25°C or more and a viscosity at 40°C of 1.5 cP or more, between a separator and an electrode, wherein the providing of the film layer comprises: (a) after preparing a film layer in a freestanding form by compressing the first solvent, providing the film layer between the separator and the electrode; (ii) preparing an electrode assembly by using the electrode, the film layer, and the separator; and (iii) accommodating the electrode assembly in a case, injecting an injection solution including a second solvent, and sealing the case, wherein at least one of the film layer and the injection solution comprises a lithium salt. (i) providing a film layer, which includes a first solvent having a melting temperature of 25°C or more and a viscosity at 40°C of 1.5 cP or more, between a separator and an electrode, wherein the providing of the film layer comprises: (a) after preparing a film layer in a freestanding form by compressing the first solvent, providing the film layer between the separator and the electrode; (a) after preparing a film layer in a freestanding form by compressing the first solvent, providing the film layer between the separator and the electrode; (ii) preparing an electrode assembly by using the electrode, the film layer, and the separator; and (iii) accommodating the electrode assembly in a case, injecting an injection solution including a second solvent, and sealing the case, wherein at least one of the film layer and the injection solution comprises a lithium salt.
Ergonomic seat (1, 10), in particular for a person suffering from positioning and/or behavioral disorders, this seat being designed to support a seated person, in particular cross-legged, without the aid of a third person or a constraining device, the said seat (1, 10) comprising a substantially central recess for receiving the said person in a seated position, the said recess being delimited by at least a bottom forming a seat, a rear wall forming a backrest forming an extension of the said bottom, the said seat (1, 10) comprising at least two symmetrical side walls extending from the said rear wall and connected to the said bottom, characterized in that the said rear wall and the said side walls are wrap-around and arranged to wrap around respectively the sides, the back and the nape of the neck of the person, and in that the bottom of the said recess has, in top view, a substantially trapezoidal shape, arranged to correspond to the trapezium of a person sitting cross-legged, the short side of which is bounded by the said rear wall and the sides of which are bounded by the said side walls.
Data transmitter of a digital communication system, wherein the data transmitter is configured to transmit a pilot signal, wherein, for at least one partial transfer duration (334_1) of a transfer duration of the pilot signal, the pilot signal is precisely at one frequency of a plurality of frequencies of a frequency channel used for data transfer by the data transmitter according to a modulation method, wherein the partial transfer duration (334_1) corresponds to at least two symbol durations, preferably at least three symbol durations, or particularly preferably at least four symbol durations, of the data transfer of the data transmitter, wherein the modulation method is MSK or GMSK so that the pilot signal is MSK-modulated or GMSK-modulated, wherein the pilot signal is based on one of the following four binary sequences: - 0000 0000 - 1111 1111 - 0101 0101 - 1010 1010, or wherein the pilot signal is based on one of the following four binary sequences: - 0000 0000 0000 0000 - 1111 1111 1111 1111 - 0101 0101 0101 0101 - 1010101010101010, or wherein the pilot signal is based on one of the following eight binary sequences: - 0000 0000 0101 0101 - 0000 0000 1010 1010 - 1111 1111 0101 0101 - 1111 1111 1010 1010 - 0101 0101 0000 0000 - 0101 0101 1111 1111 - 1010 1010 0000 0000 - 1010 1010 1111 1111. wherein the data transmitter is configured to transmit a pilot signal, wherein, for at least one partial transfer duration (334_1) of a transfer duration of the pilot signal, the pilot signal is precisely at one frequency of a plurality of frequencies of a frequency channel used for data transfer by the data transmitter according to a modulation method, wherein the partial transfer duration (334_1) corresponds to at least two symbol durations, preferably at least three symbol durations, or particularly preferably at least four symbol durations, of the data transfer of the data transmitter, wherein the modulation method is MSK or GMSK so that the pilot signal is MSK-modulated or GMSK-modulated, wherein the pilot signal is based on one of the following four binary sequences: - 0000 0000 - 1111 1111 - 0101 0101 - 1010 1010, - 0000 0000 - 1111 1111 - 0101 0101 - 1010 1010, or wherein the pilot signal is based on one of the following four binary sequences: - 0000 0000 0000 0000 - 1111 1111 1111 1111 - 0101 0101 0101 0101 - 1010101010101010, - 0000 0000 0000 0000 - 1111 1111 1111 1111 - 0101 0101 0101 0101 - 1010101010101010, or wherein the pilot signal is based on one of the following eight binary sequences: - 0000 0000 0101 0101 - 0000 0000 1010 1010 - 1111 1111 0101 0101 - 1111 1111 1010 1010 - 0101 0101 0000 0000 - 0101 0101 1111 1111 - 1010 1010 0000 0000 - 1010 1010 1111 1111. - 0000 0000 0101 0101 - 0000 0000 1010 1010 - 1111 1111 0101 0101 - 1111 1111 1010 1010 - 0101 0101 0000 0000 - 0101 0101 1111 1111 - 1010 1010 0000 0000 - 1010 1010 1111 1111.
A needle protector assembly comprising a needle and a protective cover for the needle, wherein the needle is attached to a needle hub which is generally shaped as a cuboid and which can be moved relative to the protective cover between a position of use in which at least the tip of the needle is outside of the protective cover, and a retracted position in which the needle is fully received in the protective cover, wherein the needle protector assembly further comprises a locking mechanism adapted to secure the needle hub inside the protective cover when the needle hub is in the retracted position, characterized in that the needle hub has slightly concave handling surfaces on opposite side surfaces thereof; at least one pair of first and second locking means (154, 148) is arranged on a first side of the needle protector assembly and at least one pair of first and second locking means (154, 148) is arranged on a second side of the needle protector assembly opposite from the first side, when the needle hub is in the retracted position; the first locking means is formed of a shoulder of the needle hub facing the needle tip; and the second locking means comprises a locking tongue provided on the protective cover and extending towards a proximal end of the protective cover and adapted to engage with the first locking means, when the needle hub is in the retracted position. wherein the needle is attached to a needle hub which is generally shaped as a cuboid and which can be moved relative to the protective cover between a position of use in which at least the tip of the needle is outside of the protective cover, and a retracted position in which the needle is fully received in the protective cover, wherein the needle protector assembly further comprises a locking mechanism adapted to secure the needle hub inside the protective cover when the needle hub is in the retracted position, characterized in that the needle hub has slightly concave handling surfaces on opposite side surfaces thereof; at least one pair of first and second locking means (154, 148) is arranged on a first side of the needle protector assembly and at least one pair of first and second locking means (154, 148) is arranged on a second side of the needle protector assembly opposite from the first side, when the needle hub is in the retracted position; the first locking means is formed of a shoulder of the needle hub facing the needle tip; and the second locking means comprises a locking tongue provided on the protective cover and extending towards a proximal end of the protective cover and adapted to engage with the first locking means, when the needle hub is in the retracted position.
Method for producing relief structures on a hollow silicosodocalcic glass article, characterized in that the following steps are carried out: a) application of a mask which is resistant to the attack of acids to areas to be protected of the glass article; b) application of a sequence of cycles, each cycle comprising: b1) an acid attack phase that can dissolve the glass on the non-protected areas; and b2) a rinsing phase for removing the dissolved glass and the residues of the acid attack; c) removing the mask. a) application of a mask which is resistant to the attack of acids to areas to be protected of the glass article; b) application of a sequence of cycles, each cycle comprising: b1) an acid attack phase that can dissolve the glass on the non-protected areas; and b2) a rinsing phase for removing the dissolved glass and the residues of the acid attack; c) removing the mask.
Stator vane for a gas turbine, which stator vane has a vane airfoil which extends in the radial direction between a vane tip and a shroud, with three cooling passages (30, 31, 32), which extend in the radial direction, being provided inside the vane airfoil, which are arranged in series in the direction of the hot gas flow and are interconnected by means of deflection regions (33, 34), which are arranged at the ends of the vane airfoil, so that the cooling medium flows through the three cooling passages (30, 31, 32) one after the other, with change of direction and then discharges from the stator vane into the hot gas flow which flows through the turbine, the vane airfoil having a curved shape in space in the radial direction, the cooling passages (30, 31, 32) following the curvature of the vane airfoil in space in the radial direction, characterized in that the three cooling passages (30, 31, 32) have cross-sectional areas (Am1, Am2, Am3) halfway up the stator vane which are in a ratio of 1:2:1, and in that the third cooling passage has a cross-sectional area which reduces in the radial direction from the outside inwards, the rate of reduction of the cross-sectional area from the outside inwards being lower over the first 70% of the passage length than over the last 30%.
Method for heat-treating a component which consists of a metal alloy, in which or on which at least one surface section is coated with a glaze or enamel coating, - wherein the component with the glaze or enamel coating is heated to a heating temperature, which at least equals a minimum quenching temperature and lies above a baking temperature set when baking in the glaze or enamel coating, so that the glaze or enamel coating is softened when reaching the heating temperature, and - wherein the component is quenched starting from a temperature which at least equals the minimum quenching temperature, in order to produce a higher-strength microstructure in the component, characterised in that, the glaze or enamel coating is pre-cooled to a pre-cooling temperature at least on its free surface prior to quenching, said pre-cooling temperature maximally corresponding to the temperature at which the glaze or enamel coating begins to soften, so that the glaze or enamel coating is re-solidified by the pre-cooling to the pre-cooling temperature and adheres firmly to the metal substrate, and in that the cooling rate at which the glaze or enamel coating is pre-cooled, is lower than the cooling rate achieved during quenching. - wherein the component with the glaze or enamel coating is heated to a heating temperature, which at least equals a minimum quenching temperature and lies above a baking temperature set when baking in the glaze or enamel coating, so that the glaze or enamel coating is softened when reaching the heating temperature, and - wherein the component is quenched starting from a temperature which at least equals the minimum quenching temperature, in order to produce a higher-strength microstructure in the component, characterised in that, the glaze or enamel coating is pre-cooled to a pre-cooling temperature at least on its free surface prior to quenching, said pre-cooling temperature maximally corresponding to the temperature at which the glaze or enamel coating begins to soften, so that the glaze or enamel coating is re-solidified by the pre-cooling to the pre-cooling temperature and adheres firmly to the metal substrate, and in that the cooling rate at which the glaze or enamel coating is pre-cooled, is lower than the cooling rate achieved during quenching.
A fluidic ejection cartridge, comprising a cartridge body for an organic solvent-based fluid having a cover closing a first end thereof, an ejection head on a second end thereof opposite to the first end, and side walls (34, 38) attached to the first and second ends (30, 32) between the first and second ends (30, 32), wherein the side walls (34, 38) comprise a first side wall, a second side wall opposite to the first side wall, a first end wall attached to the first and second side walls (30, 32), and a second end wall opposite to the first end wall attached to the first and second side walls (30, 32), wherein the fluidic ejection cartridge further comprises a removable tape attached to a nozzle plate of the ejection head and to a portion of the first side wall, wherein the removable tape comprises a polymeric backing film and a glass-filled, platinum-cured silicone adhesive applied to the polymeric backing film. a cartridge body for an organic solvent-based fluid having a cover closing a first end thereof, an ejection head on a second end thereof opposite to the first end, and side walls (34, 38) attached to the first and second ends (30, 32) between the first and second ends (30, 32), wherein the side walls (34, 38) comprise a first side wall, a second side wall opposite to the first side wall, a first end wall attached to the first and second side walls (30, 32), and a second end wall opposite to the first end wall attached to the first and second side walls (30, 32), wherein the fluidic ejection cartridge further comprises a removable tape attached to a nozzle plate of the ejection head and to a portion of the first side wall, wherein the removable tape comprises a polymeric backing film and a glass-filled, platinum-cured silicone adhesive applied to the polymeric backing film.
A utility module (455, 700) external to a patient, and having no independent defibrillation capability, for enhancing functionality of a defibrillator (100, 410) external to the patient, and including an energy storage device (350, 415) for storing an electrical charge and a defibrillator processor, the utility module (455, 700) comprising: a parameter module configured to detect a parameter of a patient, wherein the utility module (455, 700) is configured to be carried with the defibrillator (100, 410) to a location of the patient to enable the parameter module to detect the parameter of the patient; a communication module configured to transmit data from the utility module (455, 700); and a module processor configured to control the communication module; the module processor configured to execute an instance of an event service that provides data communications between the utility module (455, 700) and one or more external devices having no independent defibrillation capability, without communicating through the defibrillator (100, 410), the module processor further configured to control data communications between the utility module (455, 700) and the defibrillator (100, 410), that include the transmission of data from the utility module (455, 700) to the defibrillator (100, 410). a parameter module configured to detect a parameter of a patient, wherein the utility module (455, 700) is configured to be carried with the defibrillator (100, 410) to a location of the patient to enable the parameter module to detect the parameter of the patient; a communication module configured to transmit data from the utility module (455, 700); and a module processor configured to control the communication module; the module processor configured to execute an instance of an event service that provides data communications between the utility module (455, 700) and one or more external devices having no independent defibrillation capability, without communicating through the defibrillator (100, 410), the module processor further configured to control data communications between the utility module (455, 700) and the defibrillator (100, 410), that include the transmission of data from the utility module (455, 700) to the defibrillator (100, 410).
An integrated circuit comprising: a plurality of components (16A-16B, 18, 20, 22, 24, 26) included in a plurality of performance domains (14A-14F); and a power management unit; characterized in that: the power management unit comprises a plurality of configuration registers, wherein the plurality of configuration registers are programmed with data identifying performance states for the plurality of performance domains (14A-14F), wherein at least two performance states are identified for the performance domains (14A-14F), and wherein the power management unit is configured to automatically transition a given performance domain of the plurality of performance domains to a selected performance state of the at least two performance states identified by the data in the plurality of configuration registers responsive to an event that is subsequent to the programming of the plurality of configuration registers. a plurality of components (16A-16B, 18, 20, 22, 24, 26) included in a plurality of performance domains (14A-14F); and a power management unit; characterized in that: the power management unit comprises a plurality of configuration registers, wherein the plurality of configuration registers are programmed with data identifying performance states for the plurality of performance domains (14A-14F), wherein at least two performance states are identified for the performance domains (14A-14F), and wherein the power management unit is configured to automatically transition a given performance domain of the plurality of performance domains to a selected performance state of the at least two performance states identified by the data in the plurality of configuration registers responsive to an event that is subsequent to the programming of the plurality of configuration registers. the power management unit comprises a plurality of configuration registers, wherein the plurality of configuration registers are programmed with data identifying performance states for the plurality of performance domains (14A-14F), wherein at least two performance states are identified for the performance domains (14A-14F), and wherein the power management unit is configured to automatically transition a given performance domain of the plurality of performance domains to a selected performance state of the at least two performance states identified by the data in the plurality of configuration registers responsive to an event that is subsequent to the programming of the plurality of configuration registers.
A durable creped tissue product produced by the process comprising the steps of: a. dispersing a furnish to form a fiber slurry; b. adding a wet strength resin to the fiber slurry in an amount less than about 3.0 kg per metric ton of furnish; c. forming a wet tissue web; d. partially dewatering the wet tissue web; e. applying a non-fibrous olefin polymer and a dispersing agent to a creping cylinder; f. pressing the partially dewatered tissue web to the creping cylinder; g. drying the tissue web; h. creping the dried tissue web from the creping cylinder to produce a creped tissue web; and i. plying two or more creped tissue webs together to form a tissue product having a Basis Weight greater than about 25 gsm and a CD Wet/Dry Ratio greater than about 0.30. a. dispersing a furnish to form a fiber slurry; b. adding a wet strength resin to the fiber slurry in an amount less than about 3.0 kg per metric ton of furnish; c. forming a wet tissue web; d. partially dewatering the wet tissue web; e. applying a non-fibrous olefin polymer and a dispersing agent to a creping cylinder; f. pressing the partially dewatered tissue web to the creping cylinder; g. drying the tissue web; h. creping the dried tissue web from the creping cylinder to produce a creped tissue web; and i. plying two or more creped tissue webs together to form a tissue product having a Basis Weight greater than about 25 gsm and a CD Wet/Dry Ratio greater than about 0.30.