mhurhangee/patent-ind-claim-en huggingface dataset:
An anti-slip unit included in soles of shoes to provide an anti-slip function for the shoes, the anti-slip unit comprising: a main body including an inner space and a spike through-hole configured to connect the inner space (S) and the outside; a spike provided in the inner space (S) so as to be movable along the spike through-hole ; a movable member in the inner space (S) so as to be movable and configured to move to allow the spike to be moved; a manipulation member configured to pass through the main body and coupled with the movable member ; and a fastening screw threaded into the manipulation member and configured to cause the movable member and the manipulation member to be coupled with each other, wherein the movable member moves between a first position in which at least part of the spike is concealed in the inner space (S) and a second position in which the spike is exposed outside the main body and an exposed state of the spike is maintained, and wherein the movable member having a disc shape is provided in the inner space (S) so as to be rotatable about an axis oriented in a direction corresponding to a vertical direction and rotates between the first position and the second position. a main body including an inner space and a spike through-hole configured to connect the inner space (S) and the outside; a spike provided in the inner space (S) so as to be movable along the spike through-hole ; a movable member in the inner space (S) so as to be movable and configured to move to allow the spike to be moved; a manipulation member configured to pass through the main body and coupled with the movable member ; and a fastening screw threaded into the manipulation member and configured to cause the movable member and the manipulation member to be coupled with each other, wherein the movable member moves between a first position in which at least part of the spike is concealed in the inner space (S) and a second position in which the spike is exposed outside the main body and an exposed state of the spike is maintained, and wherein the movable member having a disc shape is provided in the inner space (S) so as to be rotatable about an axis oriented in a direction corresponding to a vertical direction and rotates between the first position and the second position.
Stretching rod for a moulding unit for manufacturing a container from a preform , said stretching rod extending longitudinally, parallel to a main axis Y, comprising - a body of cylindrical or tubular form; - a distal end in the extension of said body ; - at least an internal channel to allow the circulation of a cooling gas to said distal end ; - a flat situated at the distal end of the stretching rod ; - an end-fitting protruding from said flat , and - a plurality of orifices , said orifices being fluidically connected with said internal channel and being distributed around said end-fitting on said flat ; said rod being characterized in that it comprises an annular skirt in the extension of said body , at said distal end , said skirt having a height less than the height of said end-fitting . - a body of cylindrical or tubular form; - a distal end in the extension of said body ; - at least an internal channel to allow the circulation of a cooling gas to said distal end ; - a flat situated at the distal end of the stretching rod ; - an end-fitting protruding from said flat , and - a plurality of orifices , said orifices being fluidically connected with said internal channel and being distributed around said end-fitting on said flat ;
A method of determining a thermal history of a component which is subjected to an operative, thermal environment, in particular a high-temperature environment, the method comprising the steps of: providing a detection material (DM) to a component ; exposing the component to an operative, thermal environment; measuring at least one luminescence characteristic of the detection material (DM) following exposure of the component to the operative environment; and determining a thermal history of the component from the measured at least one luminescence characteristic of the detection material (DM); characterized in that : the detection material (DM) comprises an amorphous host which is in an amorphous or glassy state prior to exposure to an operative, thermal environment and doped with at least one luminescent dopant; and the at least one luminescence characteristic is a function of the crystallization of the amorphous host of the detection material (DM) and the exposure of the component to the operative environment. providing a detection material (DM) to a component ; exposing the component to an operative, thermal environment; measuring at least one luminescence characteristic of the detection material (DM) following exposure of the component to the operative environment; and determining a thermal history of the component from the measured at least one luminescence characteristic of the detection material (DM); characterized in that : the detection material (DM) comprises an amorphous host which is in an amorphous or glassy state prior to exposure to an operative, thermal environment and doped with at least one luminescent dopant; and the at least one luminescence characteristic is a function of the crystallization of the amorphous host of the detection material (DM) and the exposure of the component to the operative environment. the detection material (DM) comprises an amorphous host which is in an amorphous or glassy state prior to exposure to an operative, thermal environment and doped with at least one luminescent dopant; and the at least one luminescence characteristic is a function of the crystallization of the amorphous host of the detection material (DM) and the exposure of the component to the operative environment.
- Projectile including a body of the projectile and several fins evenly distributed around the projectile , the projectile including at each fin at least one device for blocking a fin of the projectile , the fin including a fin base pivoting about a pivot pin secured to the body of the projectile between a withdrawn fin position and a deployed fin position, the projectile including at least one recess housing at least one shape of revolution pushed by a resilient means between a first surface (S1) borne by the fin and a second surface (S2) borne by the projectile body , at least one of the two surfaces (S1,S2) forming a ramp that converges toward the other surface to tend to cause jamming of the shape of revolution between the two surfaces, the projectile being characterised in that the resilient means ensures constant contact of the shape of revolution with the ramp and the other surface (S1,S2) by pushing the shape of revolution against both the ramp and the other surface (S1,S2).
A magnetoresistive sensor with a compensating coil, comprising a silicon substrate , a collection of MR sensor units disposed on the silicon substrate, a collection of parallel rectangular soft ferromagnetic flux concentrators , a serpentine compensating coil , a connecting circuit, and a collection of lead pads used for electrical connections, wherein the MR sensor units are interconnected in order to form a push-pull sensor bridge; each of the MR sensor units is disposed below a gap between two adjacent soft ferromagnetic flux concentrators; the MR sensor bridge and the serpentine compensating coil are connected through the lead pads and covered with an encapsulation structure; and wherein the serpentine compensating coil comprises an alternating arrangement of parallel positive current straps and negative current straps , wherein each positive current strap is disposed above a MR sensor unit and below the gap between two adjacent soft ferromagnetic flux concentrators , and each negative current strap is below a rectangular soft ferromagnetic flux concentrator . a silicon substrate , a collection of MR sensor units disposed on the silicon substrate, a collection of parallel rectangular soft ferromagnetic flux concentrators , a serpentine compensating coil , a connecting circuit, and a collection of lead pads used for electrical connections, wherein the MR sensor units are interconnected in order to form a push-pull sensor bridge; each of the MR sensor units is disposed below a gap between two adjacent soft ferromagnetic flux concentrators; the MR sensor bridge and the serpentine compensating coil are connected through the lead pads and covered with an encapsulation structure; and wherein the serpentine compensating coil comprises an alternating arrangement of parallel positive current straps and negative current straps , wherein each positive current strap is disposed above a MR sensor unit and below the gap between two adjacent soft ferromagnetic flux concentrators , and each negative current strap is below a rectangular soft ferromagnetic flux concentrator .
A capacitive fingerprint sensing device for sensing a fingerprint pattern of a finger, said capacitive fingerprint sensing device comprising a plurality of sensing elements , each sensing element comprising: a protective dielectric top layer to be touched by said finger; a first electrode comprising an optically transparent electrically conductive sensing structure arranged underneath said top layer; a second electrode arranged underneath said first electrode; an organic light emitting layer arranged between said first and second electrodes; fingerprint sensing circuitry connected to said first electrode and configured to provide an analog sensing signal indicative of a distance between said finger and said sensing structure; display element control circuitry connected to said second electrode and configured to control a display element comprising said first and second electrodes and said organic light emitting layer; and a switching mechanism configured to switch said sensing element between a fingerprint sensing mode and a display mode, wherein said switching mechanism comprises a diode formed by said first and said second electrodes and said organic light emitting layer , and wherein said diode is configured to be forward biased in said display mode such that a current flows from said second electrode to said first electrode through said organic light emitting layer, and to be reverse biased or sub-threshold biased in said fingerprint sensing mode such that the current flowing between said second electrode and said first electrode is sufficiently low so as to allow fingerprint sensing. a protective dielectric top layer to be touched by said finger; a first electrode comprising an optically transparent electrically conductive sensing structure arranged underneath said top layer; a second electrode arranged underneath said first electrode; an organic light emitting layer arranged between said first and second electrodes; fingerprint sensing circuitry connected to said first electrode and configured to provide an analog sensing signal indicative of a distance between said finger and said sensing structure; display element control circuitry connected to said second electrode and configured to control a display element comprising said first and second electrodes and said organic light emitting layer; and a switching mechanism configured to switch said sensing element between a fingerprint sensing mode and a display mode, wherein said switching mechanism comprises a diode formed by said first and said second electrodes and said organic light emitting layer , and wherein said diode is configured to be forward biased in said display mode such that a current flows from said second electrode to said first electrode through said organic light emitting layer, and to be reverse biased or sub-threshold biased in said fingerprint sensing mode such that the current flowing between said second electrode and said first electrode is sufficiently low so as to allow fingerprint sensing.
A method for measuring phagocytosis activity comprising measuring a test fluorescence in a first aliquot of cells incubated with pHrodo ® Red labeled photoreceptor outer segments (POS) and/or pHrodo ® Red labeled bacterial fragments, at a temperature ranging from 25-40°C, or 34-40°C, or 37°C to obtain a test fluorescence, and measuring a control fluorescence in a second aliquot of the cells incubated with pHrodo ® Red labeled POS and/or pHrodo ® Red labeled bacterial fragments, at a temperature ranging from 10-16 °C or 12-15°C to obtain a control fluorescence, wherein a test fluorescence that is greater than a control fluorescence indicates phagocytosis activity of the cells, wherein the cells are human RPE cells or human photoreceptor progenitor cells. measuring a test fluorescence in a first aliquot of cells incubated with pHrodo ® Red labeled photoreceptor outer segments (POS) and/or pHrodo ® Red labeled bacterial fragments, at a temperature ranging from 25-40°C, or 34-40°C, or 37°C to obtain a test fluorescence, and measuring a control fluorescence in a second aliquot of the cells incubated with pHrodo ® Red labeled POS and/or pHrodo ® Red labeled bacterial fragments, at a temperature ranging from 10-16 °C or 12-15°C to obtain a control fluorescence, wherein a test fluorescence that is greater than a control fluorescence indicates phagocytosis activity of the cells, wherein the cells are human RPE cells or human photoreceptor progenitor cells. wherein a test fluorescence that is greater than a control fluorescence indicates phagocytosis activity of the cells, wherein the cells are human RPE cells or human photoreceptor progenitor cells.
A method of preparing an oral solid preparation, the method comprising: preparing a mixed powder comprising a proton pump inhibitor or a pharmaceutically acceptable salt thereof; preparing a binding liquid comprising a basic additive; combining the mixed powder and the binding liquid, and then drying the same; and granulating a dried product obtained by the step to prepare granules, wherein a solvent for the binding liquid comprises water; and at least one organic solvent miscible with water, wherein the organic solvent is selected from ethanol, isopropanol and acetone, and the preparing of the binding liquid comprises (a) dissolving the basic additive in water; and (b) adding the organic solvent to a solution obtained by the step (a) and mixing the same, wherein the content of the basic additive is 2 to 13 parts by weight based on 100 parts by weight of the proton pump inhibitor or a pharmaceutically acceptable salt thereof, wherein the mixed powder further comprises one or more selected from the group consisting of a diluent and a water-soluble polymer, wherein the preparing of the binding liquid further comprises adding an enteric substrate to a mixed solution obtained according to the step (b) and dispersing the same. preparing a mixed powder comprising a proton pump inhibitor or a pharmaceutically acceptable salt thereof; preparing a binding liquid comprising a basic additive; combining the mixed powder and the binding liquid, and then drying the same; and granulating a dried product obtained by the step to prepare granules, wherein a solvent for the binding liquid comprises water; and at least one organic solvent miscible with water, wherein the organic solvent is selected from ethanol, isopropanol and acetone, and the preparing of the binding liquid comprises (a) dissolving the basic additive in water; and (b) adding the organic solvent to a solution obtained by the step (a) and mixing the same, wherein the content of the basic additive is 2 to 13 parts by weight based on 100 parts by weight of the proton pump inhibitor or a pharmaceutically acceptable salt thereof, wherein the mixed powder further comprises one or more selected from the group consisting of a diluent and a water-soluble polymer, wherein the preparing of the binding liquid further comprises adding an enteric substrate to a mixed solution obtained according to the step (b) and dispersing the same.
A tube for supplying ink comprising an inner layer which is to be contacted with ink when in use, a middle layer having at least three layers (2-1, 2-2, 2-3), and an outer layer , wherein the middle layer includes a first middle layer (2-1), a second middle layer (2-2), and a third middle layer (2-3), the inner layer has a thickness ranging from 0.01 to 0.5mm and comprises one of an ethylene-tetrafluoroethylene copolymer resin, a tetrafluoroethylene-perfluoroalkoxy alkane copolymer resin, and a modified perfluoroalkoxy-based resin, each having a solvent resistance and an oxygen barrier property, the first middle layer (2-1) comprises one of a polyamide resin, a polyamide-based elastomer, an adhesive polyolefin resin or a polyurethane resin, the second middle layer (2-2) has a thickness ranging from 0.01 to 0.3mm and comprises an ethylene-vinyl alcohol copolymer resin having an oxygen barrier property, the third middle layer (2-3) comprises an adhesive polyolefin resin, a polyamide resin or a polyurethane resin, and the outer layer comprises a thermoplastic resin or elastomer. the middle layer includes a first middle layer (2-1), a second middle layer (2-2), and a third middle layer (2-3), the inner layer has a thickness ranging from 0.01 to 0.5mm and comprises one of an ethylene-tetrafluoroethylene copolymer resin, a tetrafluoroethylene-perfluoroalkoxy alkane copolymer resin, and a modified perfluoroalkoxy-based resin, each having a solvent resistance and an oxygen barrier property, the first middle layer (2-1) comprises one of a polyamide resin, a polyamide-based elastomer, an adhesive polyolefin resin or a polyurethane resin, the second middle layer (2-2) has a thickness ranging from 0.01 to 0.3mm and comprises an ethylene-vinyl alcohol copolymer resin having an oxygen barrier property, the third middle layer (2-3) comprises an adhesive polyolefin resin, a polyamide resin or a polyurethane resin, and the outer layer comprises a thermoplastic resin or elastomer.
A battery module comprising: a cell assembly including a plurality of battery cells, each of the plurality of battery cells including: an electrode accommodation portion accommodating an electrode assembly; and an electrode lead protruding from the electrode accommodation portion and coupled to the electrode assembly; a module housing accommodating the cell assembly; a bus bar unit including: a plurality of slits in which the electrode leads are inserted respectively; and a bus bar coupled to the electrode leads; and a guide member positioned between the electrode accommodation portion and the bus bar unit, the guide member including a plurality of openings through which the electrode leads pass, wherein the guide member fills a space between the electrode accommodation portion and the bus bar unit; and wherein the guide member seals between the electrode leads of adjacent battery cells of the plurality of battery cells. a cell assembly including a plurality of battery cells, each of the plurality of battery cells including: an electrode accommodation portion accommodating an electrode assembly; and an electrode lead protruding from the electrode accommodation portion and coupled to the electrode assembly; an electrode accommodation portion accommodating an electrode assembly; and an electrode lead protruding from the electrode accommodation portion and coupled to the electrode assembly; a module housing accommodating the cell assembly; a bus bar unit including: a plurality of slits in which the electrode leads are inserted respectively; and a bus bar coupled to the electrode leads; and a plurality of slits in which the electrode leads are inserted respectively; and a bus bar coupled to the electrode leads; and a guide member positioned between the electrode accommodation portion and the bus bar unit, the guide member including a plurality of openings through which the electrode leads pass, wherein the guide member fills a space between the electrode accommodation portion and the bus bar unit; and wherein the guide member seals between the electrode leads of adjacent battery cells of the plurality of battery cells.
A method for operating a user equipment, UE, the method comprising: receiving, from a base station, a physical downlink control channel, PDCCH carrying downlink control information, DCI, including a k value, and a physical downlink shared channel, PDSCH, wherein the reception of the PDCCH or the PDSCH over a first cell ends in n th slot of a second cell; transmitting, to the base station, a physical uplink control channel, PUCCH including HARQ-acknowledgement, ACK, information in (n+k) th slot of the second cell, wherein a time unit of k is a slot length of the PUCCH, wherein, in case a slot length of the PDSCH is less than or equal to a slot length of the PUCCH, the n th slot is a slot of the PUCCH that overlaps with a slot in which the PDSCH is received, wherein, in case a slot length of the PDSCH is larger than a slot length of the PUCCH, the n th slot is a slot of the PUCCH that ends at the same time as a slot in which the PDSCH is received. receiving, from a base station, a physical downlink control channel, PDCCH carrying downlink control information, DCI, including a k value, and a physical downlink shared channel, PDSCH, wherein the reception of the PDCCH or the PDSCH over a first cell ends in n th slot of a second cell; transmitting, to the base station, a physical uplink control channel, PUCCH including HARQ-acknowledgement, ACK, information in (n+k) th slot of the second cell, wherein a time unit of k is a slot length of the PUCCH, wherein, in case a slot length of the PDSCH is less than or equal to a slot length of the PUCCH, the n th slot is a slot of the PUCCH that overlaps with a slot in which the PDSCH is received, wherein, in case a slot length of the PDSCH is larger than a slot length of the PUCCH, the n th slot is a slot of the PUCCH that ends at the same time as a slot in which the PDSCH is received.