mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit (100,200) to access a memory associated with a fluid ejection device, the integrated circuit (100,200) comprising: a plurality of memory cells (104 0-n,204 0-n); an address decoder to select memory cells (104 0-n,204 0-n) in response to an address; activation logic to activate selected memory cells (104 0-n,204 0-n) based on a data signal and a fire signal; and configuration logic to enable or disable access to the plurality of memory cells (104 0-n,204 0-n). a plurality of memory cells (104 0-n,204 0-n); an address decoder to select memory cells (104 0-n,204 0-n) in response to an address; activation logic to activate selected memory cells (104 0-n,204 0-n) based on a data signal and a fire signal; and configuration logic to enable or disable access to the plurality of memory cells (104 0-n,204 0-n).
A needle-guidance system, comprising: a console including memory and a processor configured to instantiate a needle-guidance process for guiding insertion of a needle into a blood vessel of a patient using a combination of ultrasound-imaging data and magnetic-field data received by the console; a needle magnetizer incorporated into the console configured to magnetize the needle; and an ultrasound probe configured to provide to the console electrical signals corresponding to both the ultrasound-imaging data and the magnetic-field data, the ultrasound probe including: an array of piezoelectric transducers configured to convert reflected ultrasound signals from the patient into an ultrasound-imaging portion of the electrical signals; and an array of magnetic sensors configured to convert magnetic signals from the magnetized needle into a magnetic-field portion of the electrical signals. a console including memory and a processor configured to instantiate a needle-guidance process for guiding insertion of a needle into a blood vessel of a patient using a combination of ultrasound-imaging data and magnetic-field data received by the console; a needle magnetizer incorporated into the console configured to magnetize the needle; and an ultrasound probe configured to provide to the console electrical signals corresponding to both the ultrasound-imaging data and the magnetic-field data, the ultrasound probe including: an array of piezoelectric transducers configured to convert reflected ultrasound signals from the patient into an ultrasound-imaging portion of the electrical signals; and an array of magnetic sensors configured to convert magnetic signals from the magnetized needle into a magnetic-field portion of the electrical signals. an array of piezoelectric transducers configured to convert reflected ultrasound signals from the patient into an ultrasound-imaging portion of the electrical signals; and an array of magnetic sensors configured to convert magnetic signals from the magnetized needle into a magnetic-field portion of the electrical signals.
A manufacturing method of a glove which comprises: an inner glove that is knitted from a fiber yarn; an outer glove that covers an outer side of the inner glove; and a hot-melt adhesive that is interposed partially between the inner glove and the outer glove which are layered, wherein the outer glove comprises a base that is knitted from a fiber yarn and a coating layer that is layered on an outer face of the base and composed of a rubber or a resin as a principal component, the manufacturing method comprising: applying the hot-melt adhesive onto a bonding portion on an outer face of the inner glove; covering with the outer glove an outer side of the inner glove following the applying; heating the hot-melt adhesive after the covering; characterized by cooling at a temperature no higher than a softening point of the hot-melt adhesive and pressurizing at a pressure at least 1.47 kPa (0.15 g/mm 2) and no greater than 10.78 kPa (1.1 g/mm 2) the bonding portion of the inner glove and the outer glove after the heating. an inner glove that is knitted from a fiber yarn; an outer glove that covers an outer side of the inner glove; and a hot-melt adhesive that is interposed partially between the inner glove and the outer glove which are layered, wherein the outer glove comprises a base that is knitted from a fiber yarn and a coating layer that is layered on an outer face of the base and composed of a rubber or a resin as a principal component, the manufacturing method comprising: applying the hot-melt adhesive onto a bonding portion on an outer face of the inner glove; covering with the outer glove an outer side of the inner glove following the applying; heating the hot-melt adhesive after the covering; characterized by cooling at a temperature no higher than a softening point of the hot-melt adhesive and pressurizing at a pressure at least 1.47 kPa (0.15 g/mm 2) and no greater than 10.78 kPa (1.1 g/mm 2) the bonding portion of the inner glove and the outer glove after the heating. applying the hot-melt adhesive onto a bonding portion on an outer face of the inner glove; covering with the outer glove an outer side of the inner glove following the applying; heating the hot-melt adhesive after the covering; characterized by cooling at a temperature no higher than a softening point of the hot-melt adhesive and pressurizing at a pressure at least 1.47 kPa (0.15 g/mm 2) and no greater than 10.78 kPa (1.1 g/mm 2) the bonding portion of the inner glove and the outer glove after the heating.
Device for packaging and cooking, comprising a bottom, a top and four side walls (18.1, 18.4) which each have a first folding line that is parallel to and slightly separate from the bottom, a second folding line that is parallel to the first folding line, two opposite side walls (18.2, 18.4) that have two diagonal folding lines in the parts of the side walls located above the first folding line, with the top comprising two flaps (34.1, 34.2), each one with a free edge (42.1, 42.2) connected to two opposite side walls (18.1, 18.3) and a hooking system that makes it possible to keep the flaps in the closed position, characterized in that the hooking system comprises a tab connected to the free edge (42.1) of a first flap (34.1) and a cut made in a second flap (34.2) into which the tab can be inserted in one direction and an insertion direction, with said cut extending in a direction approximately perpendicular to the direction of insertion and comprising a protruding shape that is offset relative to its ends, oriented in a direction opposite to the insertion direction.
Use of a bolus for oral administration to a ruminant animal, the bolus comprising: a first sensor capable of generating a sensor signal which varies based on a corresponding change in one or more physiological parameters of a ruminant animal; a memory element; a processor in communication with said memory element; and a computer code contained in said memory element, said computer code containing a power management module executable by said processor characterized in that the first sensor is an accelerometer, and here said power management module further includes a bolus activation element executable to: monitor said sensor signal from said accelerometer; compare said sensor signal from said accelerometer to a first pre-selected activation code; wherein said bolus is activated upon generation of said sensor signal from said accelerometer which by comparison to said first pre-selected activation code exceeds a first pre-selected activation match threshold. a first sensor capable of generating a sensor signal which varies based on a corresponding change in one or more physiological parameters of a ruminant animal; a memory element; a processor in communication with said memory element; and a computer code contained in said memory element, said computer code containing a power management module executable by said processor characterized in that the first sensor is an accelerometer, and here said power management module further includes a bolus activation element executable to: monitor said sensor signal from said accelerometer; compare said sensor signal from said accelerometer to a first pre-selected activation code; wherein said bolus is activated upon generation of said sensor signal from said accelerometer which by comparison to said first pre-selected activation code exceeds a first pre-selected activation match threshold. monitor said sensor signal from said accelerometer; compare said sensor signal from said accelerometer to a first pre-selected activation code; wherein said bolus is activated upon generation of said sensor signal from said accelerometer which by comparison to said first pre-selected activation code exceeds a first pre-selected activation match threshold.
A mouthpiece assembly for an electronic cigarette, comprising: a mouthpiece, the mouthpiece comprising a sucking end, a connecting end, and an air passage, the sucking end defining an air outlet, the air outlet being in communication with the air passage; a base defining an air inlet, the air inlet being in communication with the air passage; wherein the mouthpiece assembly further comprises a blocking element on the base, the blocking element is capable of preventing air from flowing through, the blocking element defines at least one through hole, the mouthpiece is capable of driving the blocking element to rotate relative to the base, so that an area of at least one opening formed by the at least one through hole and the air inlet can be changed, characterised in that the mouthpiece can expand and contract along an axial direction, the mouthpiece assembly further comprises a protrusion and a notch the protrusion is formed on one of the connecting end and the blocking element, the notch is defined in the other of the connecting end and the blocking element, and the mouthpiece is capable of driving the blocking element to rotate only when the protrusion is engaged in the notch in the contracted position of the mouthpiece. a mouthpiece, the mouthpiece comprising a sucking end, a connecting end, and an air passage, the sucking end defining an air outlet, the air outlet being in communication with the air passage; a base defining an air inlet, the air inlet being in communication with the air passage; wherein the mouthpiece assembly further comprises a blocking element on the base, the blocking element is capable of preventing air from flowing through, the blocking element defines at least one through hole, the mouthpiece is capable of driving the blocking element to rotate relative to the base, so that an area of at least one opening formed by the at least one through hole and the air inlet can be changed, characterised in that the mouthpiece can expand and contract along an axial direction, the mouthpiece assembly further comprises a protrusion and a notch the protrusion is formed on one of the connecting end and the blocking element, the notch is defined in the other of the connecting end and the blocking element, and the mouthpiece is capable of driving the blocking element to rotate only when the protrusion is engaged in the notch in the contracted position of the mouthpiece.
A method for detecting a presence or an absence of at least one inhibition, the method comprising the steps consisting in: a. providing an agar culture medium; b. providing a sample containing or liable to contain microorganisms in liquid form; c. depositing a volume of the sample in liquid form along a deposition zone extending along an axis at the surface of the agar culture medium; d. depositing a determined amount of a chemical agent at the surface of the agar culture medium, the deposit defining a potential zone of inhibition, the axis of the zone of deposition of the sample intersecting the potential zone of inhibition; e. incubating the agar culture medium; f. determining the presence or the absence of the first zone of inhibition; characterized in that the step c) consists in: - depositing a volume of the sample in liquid form in a continuous line along a deposition zone extending along an axis at the surface of the agar culture medium; - or depositing a volume of the sample in liquid form in droplets along a deposition zone extending along an axis at the surface of the culture medium. a. providing an agar culture medium; b. providing a sample containing or liable to contain microorganisms in liquid form; c. depositing a volume of the sample in liquid form along a deposition zone extending along an axis at the surface of the agar culture medium; d. depositing a determined amount of a chemical agent at the surface of the agar culture medium, the deposit defining a potential zone of inhibition, the axis of the zone of deposition of the sample intersecting the potential zone of inhibition; e. incubating the agar culture medium; f. determining the presence or the absence of the first zone of inhibition; - depositing a volume of the sample in liquid form in a continuous line along a deposition zone extending along an axis at the surface of the agar culture medium; - or depositing a volume of the sample in liquid form in droplets along a deposition zone extending along an axis at the surface of the culture medium.
A method performed by a wireless communication device, comprising: receiving a response message indicating if a core network node supports one or both of an extended monitoring window and a long paging cycle; monitoring a paging channel of a radio access node using the extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the extended monitoring window and the long paging cycle; monitoring the paging channel using a non-extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the long paging cycle but does not support the extended monitoring window; and monitoring the paging channel using the non-extended monitoring window and a legacy paging cycle if the response message indicates that the core network node does not support the extended monitoring window and does not support the long paging cycle; wherein: the extended monitoring window comprises one or more paging blocks in addition to a nominal paging block associated with the wireless communication device; the non-extended monitoring window includes the nominal paging block and excludes the additional paging blocks; and the long paging cycle has a longer periodicity than that supported by the legacy paging cycle. receiving a response message indicating if a core network node supports one or both of an extended monitoring window and a long paging cycle; monitoring a paging channel of a radio access node using the extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the extended monitoring window and the long paging cycle; monitoring the paging channel using a non-extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the long paging cycle but does not support the extended monitoring window; and monitoring the paging channel using the non-extended monitoring window and a legacy paging cycle if the response message indicates that the core network node does not support the extended monitoring window and does not support the long paging cycle; wherein: the extended monitoring window comprises one or more paging blocks in addition to a nominal paging block associated with the wireless communication device; the non-extended monitoring window includes the nominal paging block and excludes the additional paging blocks; and the long paging cycle has a longer periodicity than that supported by the legacy paging cycle. the extended monitoring window comprises one or more paging blocks in addition to a nominal paging block associated with the wireless communication device; the non-extended monitoring window includes the nominal paging block and excludes the additional paging blocks; and the long paging cycle has a longer periodicity than that supported by the legacy paging cycle.
A method for manufacturing a wavelength converting element (202, 301, 302, 303, 310, 312), said method comprising the steps of: providing a polymeric carrier material having a first wavelength converting material dispersed or molecularly dissolved therein; said first wavelength converting material is adapted to convert light of a first wavelength to light of a second wavelength; deforming said polymeric carrier material at a first temperature at or above the glass transition temperature thereof such that at least part of said polymeric carrier material is crystallized; and annealing said polymeric carrier material at a second temperature below the melting temperature thereof. providing a polymeric carrier material having a first wavelength converting material dispersed or molecularly dissolved therein; said first wavelength converting material is adapted to convert light of a first wavelength to light of a second wavelength; deforming said polymeric carrier material at a first temperature at or above the glass transition temperature thereof such that at least part of said polymeric carrier material is crystallized; and annealing said polymeric carrier material at a second temperature below the melting temperature thereof.
A signal transmission method, comprising: determining, by user equipment, UE, a feature parameter of the UE, wherein the feature parameter of the UE comprises at least one of the following: an index of a reference signal received power range, an index of a coverage enhancement range, a service type, a delay requirement and a power saving requirement; and determining, by the UE, according to a preset correspondence between the feature parameter and a function of a physical uplink control channel, PUCCH, which the UE supports using, a function of the PUCCH which the UE supports using, which is corresponding to the feature parameter of the UE; and the preset correspondence between the feature parameter and a function of the PUCCH which the UE supports using is: if the feature parameter belongs to a first feature parameter set, the UE supports using a function in a first function set of the PUCCH, and if the feature parameter belongs to a second feature parameter set, the UE supports using a function in a second function set of the PUCCH, wherein the function in the first function set and the function in the second function set are not completely the same; wherein functions in the first function set of the PUCCH includes: a function of reporting channel quality information, a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received; and wherein functions in the second function set of PUCCH includes: a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received. an index of a reference signal received power range, an index of a coverage enhancement range, a service type, a delay requirement and a power saving requirement; and determining, by the UE, according to a preset correspondence between the feature parameter and a function of a physical uplink control channel, PUCCH, which the UE supports using, a function of the PUCCH which the UE supports using, which is corresponding to the feature parameter of the UE; and the preset correspondence between the feature parameter and a function of the PUCCH which the UE supports using is: if the feature parameter belongs to a first feature parameter set, the UE supports using a function in a first function set of the PUCCH, and if the feature parameter belongs to a second feature parameter set, the UE supports using a function in a second function set of the PUCCH, wherein the function in the first function set and the function in the second function set are not completely the same; wherein functions in the first function set of the PUCCH includes: a function of reporting channel quality information, a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received; and wherein functions in the second function set of PUCCH includes: a scheduling request function, and a function of feeding back an acknowledgement indicating whether a signal is correctly received.
Vehicle lighting device (30; 56A; 56B; 60; 70; 80; 110), comprising: a light source (32; 41; 54A; 54B; 81; 111; 122) and a refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121), wherein light from the light source (32; 41; 54A; 54B; 81; 111) reaches an observer through the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) for the purpose of producing a lighting signature (43; 55A; 55B; 62A; 62B; 72; 73; 90; 123A, 123B, 123C) on the basis of light from the light source (32; 41; 54A; 54B; 81; 111) and as one or more virtual or real images, which have desired shapes and/or intensity distributions and are located in a respective plane, wherein the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) has a statistical continuous surface profile calculated by way of wave optics. a light source (32; 41; 54A; 54B; 81; 111; 122) and a refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121), wherein light from the light source (32; 41; 54A; 54B; 81; 111) reaches an observer through the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) for the purpose of producing a lighting signature (43; 55A; 55B; 62A; 62B; 72; 73; 90; 123A, 123B, 123C) on the basis of light from the light source (32; 41; 54A; 54B; 81; 111) and as one or more virtual or real images, which have desired shapes and/or intensity distributions and are located in a respective plane, wherein the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) has a statistical continuous surface profile calculated by way of wave optics.
A method for real-time and continuous control of a set of thermal combustion chambers (2, 2r, 2i), consisting of radiant tubes, having similar characteristics, supplied by the same combustion agent and fuel networks, the method comprising: - using one of the chambers (2, 2r, 2i) as a reference chamber; - measuring combustion parameters in the fumes at the outlet of the reference chamber; - adjusting control parameters of all the chambers according to the combustion parameters measured at the outlet of the reference chamber, in particular according to the ratio of combustion agent to fuel and/or the composition of combustion agent and/or fuel. - using one of the chambers (2, 2r, 2i) as a reference chamber; - measuring combustion parameters in the fumes at the outlet of the reference chamber; - adjusting control parameters of all the chambers according to the combustion parameters measured at the outlet of the reference chamber, in particular according to the ratio of combustion agent to fuel and/or the composition of combustion agent and/or fuel.
Coupling system for coupling a ski to a mountaineering ski boot, comprising coupling means placed at the rear of the heel of a boot, apt to engage with reciprocal coupling means provided on a heel piece for a ski, characterised in that in said heel a slide is provided, movable between a position protruding rearwardly from the heel interfering with said coupling means of the boot to prevent engagement thereof with the reciprocal coupling means on the heel piece, and a position retracted in the heel for freeing said coupling means of the boot for engagement with said reciprocal coupling means.