mhurhangee/patent-ind-claim-en huggingface dataset:
A method for resource sharing, performed by a central unit, CU, of a second network node, the second network node adapting a second radio access technology, RAT, the method comprising: receiving, from a first network node adapting a first RAT, a resource coordination message which indicates a first cell served by the first network node ; coordinating at least one resource allocation for at least one second cell served by at least one distributed unit, DU, of the second network node based on the resource coordination message ; aggregating the at least one resource allocation with at least one additional resource allocation associated with at least one additional cell served by at least one additional DU of the second network node into a resource allocation message ; and forwarding, to the first network node, the resource allocation message , the resource allocation message comprising an identity of the at least one second cell and the at least one additional cell and the corresponding resource allocations for the second cell and the at least one additional cell. receiving, from a first network node adapting a first RAT, a resource coordination message which indicates a first cell served by the first network node ; coordinating at least one resource allocation for at least one second cell served by at least one distributed unit, DU, of the second network node based on the resource coordination message ; aggregating the at least one resource allocation with at least one additional resource allocation associated with at least one additional cell served by at least one additional DU of the second network node into a resource allocation message ; and forwarding, to the first network node, the resource allocation message , the resource allocation message comprising an identity of the at least one second cell and the at least one additional cell and the corresponding resource allocations for the second cell and the at least one additional cell.
A computer implemented method of quantifying a specific biological material in a specimen that has been stained using fluorescent dye accumulating particles capable of binding to the specific biological material, the biological material quantifying method comprising: an input step (S3, S6) of inputting a first fluorescence image obtained by capturing an image of the specimen; a luminance calculation step (S5, S8) of extracting a certain region from the first fluorescence image and calculating a first luminance integrated value by integrating luminance values of the certain region; and a particle count calculation step (S11) of calculating the number of the fluorescent dye accumulating particles included in the certain region from the first luminance integrated value and an average luminance value per said fluorescent dye accumulating particle, wherein the average luminance value is calculated from a distribution of second luminance integrated values obtained by integrating luminance values for individual bright spot regions, which indicate emission of light by the fluorescent dye accumulating particles, in a second fluorescence image obtained by capturing an image of a preparation onto which the fluorescent dye accumulating particles are dispersed without agglomerating. an input step (S3, S6) of inputting a first fluorescence image obtained by capturing an image of the specimen; a luminance calculation step (S5, S8) of extracting a certain region from the first fluorescence image and calculating a first luminance integrated value by integrating luminance values of the certain region; and a particle count calculation step (S11) of calculating the number of the fluorescent dye accumulating particles included in the certain region from the first luminance integrated value and an average luminance value per said fluorescent dye accumulating particle, wherein the average luminance value is calculated from a distribution of second luminance integrated values obtained by integrating luminance values for individual bright spot regions, which indicate emission of light by the fluorescent dye accumulating particles, in a second fluorescence image obtained by capturing an image of a preparation onto which the fluorescent dye accumulating particles are dispersed without agglomerating.
An intercooler for a turbocharged internal combustion heat engine ; the intercooler comprises: a cooling chamber , which is provided with an air inlet opening and an air outlet opening opposite one another; a plurality of exchanger plates , which are stacked on top of one another inside the cooling chamber , are arranged parallel to an air flowing direction (D) from the inlet opening to the outlet opening , are spaced apart from one another so as to define corresponding air passage channels between one another, and are internally hollow; a circulation circuit , which allows a cooling fluid to circulate inside the exchanger plates ; and a plurality of thermoelectric cells , each of which has a parallelepiped shape, is mounted on a corresponding exchanger plate , and has a cold side resting on the exchanger plate and a hot side delimiting a corresponding air passage channel; the intercooler is characterised in that each exchanger plate comprises at least one parallelepipedal pocket , which reproduces in negative the shape of a corresponding thermoelectric cell and houses therein the thermoelectric cell surrounding the thermoelectric cell on five sides. a cooling chamber , which is provided with an air inlet opening and an air outlet opening opposite one another; a plurality of exchanger plates , which are stacked on top of one another inside the cooling chamber , are arranged parallel to an air flowing direction (D) from the inlet opening to the outlet opening , are spaced apart from one another so as to define corresponding air passage channels between one another, and are internally hollow; a circulation circuit , which allows a cooling fluid to circulate inside the exchanger plates ; and a plurality of thermoelectric cells , each of which has a parallelepiped shape, is mounted on a corresponding exchanger plate , and has a cold side resting on the exchanger plate and a hot side delimiting a corresponding air passage channel; the intercooler is characterised in that each exchanger plate comprises at least one parallelepipedal pocket , which reproduces in negative the shape of a corresponding thermoelectric cell and houses therein the thermoelectric cell surrounding the thermoelectric cell on five sides.
A method of receiving secure communications at a first secure communications terminal (104, 104-1, 104-2) having a processor and a memory operably connected to the processor, the method comprising: maintaining an association with a first client account (A); receiving, from a second secure communications terminal (104, 104-1, 104-2), a message (MSG, MSG1, MSG2) from a second client account (B), a first portion of the message (MSG, MSG1, MSG2) being encrypted by a shared symmetric key (SSK); extracting a key identifier (SSKID, SSKIDA1, SSKIDA2, SSKIDB1, SSKIDB2) from the message (MSG, MSG1, MSG2); obtaining the shared symmetric key (SSK) based on the key identifier (SSKID, SSKIDA1, SSKIDA2, SSKIDB1, SSKIDB2) included in the message (MSG, MSG1, MSG2), the shared symmetric key (SSK) and the key identifier (SSKID, SSKIDA1, SSKIDA2, SSKIDB1, SSKIDB2) having been previously generated by the first client account (A) and included as part of a previous message (MSG, MSG1, MSG2) sent to the second client account (B); decrypting the first portion of the message (MSG, MSG1, MSG2) using the shared symmetric key (SSK) to obtain a message key (MK, MK1, MK2); and decrypting a second portion of the message (MSG, MSG1, MSG2) using the message key (MK, MK1, MK2), wherein the decrypting the first portion of the message (MSG, MSG1, MSG2) further comprises: decrypting the first portion of the message (MSG, MSG1, MSG2) using a private key (PrK, PKR1, PKRA1) of the first client account (A). maintaining an association with a first client account (A); receiving, from a second secure communications terminal (104, 104-1, 104-2), a message (MSG, MSG1, MSG2) from a second client account (B), a first portion of the message (MSG, MSG1, MSG2) being encrypted by a shared symmetric key (SSK); extracting a key identifier (SSKID, SSKIDA1, SSKIDA2, SSKIDB1, SSKIDB2) from the message (MSG, MSG1, MSG2); obtaining the shared symmetric key (SSK) based on the key identifier (SSKID, SSKIDA1, SSKIDA2, SSKIDB1, SSKIDB2) included in the message (MSG, MSG1, MSG2), the shared symmetric key (SSK) and the key identifier (SSKID, SSKIDA1, SSKIDA2, SSKIDB1, SSKIDB2) having been previously generated by the first client account (A) and included as part of a previous message (MSG, MSG1, MSG2) sent to the second client account (B); decrypting the first portion of the message (MSG, MSG1, MSG2) using the shared symmetric key (SSK) to obtain a message key (MK, MK1, MK2); and decrypting a second portion of the message (MSG, MSG1, MSG2) using the message key (MK, MK1, MK2), wherein the decrypting the first portion of the message (MSG, MSG1, MSG2) further comprises: decrypting the first portion of the message (MSG, MSG1, MSG2) using a private key (PrK, PKR1, PKRA1) of the first client account (A).
A recombinant nucleic acid molecule encoding a 4-hydroxyphenylpyruvate dioxygenase (HPPD) polypeptide, wherein said encoded HPPD polypeptide comprises an amino acid sequence that has: (a) at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO:1, and (b) a proline at the amino acid position corresponding to amino acid position 335 of SEQ ID NO:1, and (c) a histidine or an aspartic acid at the position corresponding to amino acid position 336 of SEQ ID NO: 1, and (d) a serine at the position corresponding to amino acid position 337 of SEQ ID NO:1, and wherein said HPPD polypeptide is tolerant to one or more HPPD inhibitor herbicide(s). (a) at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO:1, and (b) a proline at the amino acid position corresponding to amino acid position 335 of SEQ ID NO:1, and (c) a histidine or an aspartic acid at the position corresponding to amino acid position 336 of SEQ ID NO: 1, and (d) a serine at the position corresponding to amino acid position 337 of SEQ ID NO:1,
A method of manufacturing a battery cell including a reference electrode for measuring a relative electrode potential, the method comprising: (i) manufacturing a reference cell composed of an electrolyte solution, n reference electrodes (n≥2), and a lithium electrode; (ii) charging the reference cell by applying a microcurrent, and then discharging the reference cell immediately thereafter; (iii) charging the reference cell to 40% to 60% of a capacity discharged in the process (ii), thereby performing formation on the reference electrodes so that the reference electrodes have a plateau potential simultaneously; (iv) manufacturing n battery cells with each of the reference electrodes subjected to formation, an electrode assembly, an electrolyte solution and a battery case; and (v) measuring a relative potential of the reference electrode subjected to formation and a positive electrode, and a relative potential of the reference electrode and a negative electrode, in each of the battery cells. (i) manufacturing a reference cell composed of an electrolyte solution, n reference electrodes (n≥2), and a lithium electrode; (ii) charging the reference cell by applying a microcurrent, and then discharging the reference cell immediately thereafter; (iii) charging the reference cell to 40% to 60% of a capacity discharged in the process (ii), thereby performing formation on the reference electrodes so that the reference electrodes have a plateau potential simultaneously; (iv) manufacturing n battery cells with each of the reference electrodes subjected to formation, an electrode assembly, an electrolyte solution and a battery case; and (v) measuring a relative potential of the reference electrode subjected to formation and a positive electrode, and a relative potential of the reference electrode and a negative electrode, in each of the battery cells.
An optical device, comprising: a light-transmitting substrate having at least two parallel major surfaces , edges and an output aperture; a coupling-in reflecting surface which is inclined at an angle α sur1 to the major surfaces of the substrate for coupling light waves into the substrate to effect total internal reflection, and at least one flat coupling-out reflecting surface having at least one active side located between the two major surfaces of the light-transmitting substrate for coupling light waves out of the substrate, wherein the one flat coupling-out reflecting surface is parallel to said coupling-in reflecting surface , characterized in that the light waves coupled inside the substrate are plane light waves, reflected at least twice by the active side of the flat coupling-out reflecting surface before being coupled out from the substrate through the output aperture and are reflected by internal reflection from one of the major surfaces between the first and second reflectance from the flat coupling-out reflecting surface ; different light rays from the same input plane light wave coupled inside the substrate, are reflected by the same side of the flat coupling-out reflecting surface a different number of reflections, before being coupled out from the substrate through the output aperture a light-transmitting substrate having at least two parallel major surfaces , edges and an output aperture; a coupling-in reflecting surface which is inclined at an angle α sur1 to the major surfaces of the substrate for coupling light waves into the substrate to effect total internal reflection, and at least one flat coupling-out reflecting surface having at least one active side located between the two major surfaces of the light-transmitting substrate for coupling light waves out of the substrate, wherein the one flat coupling-out reflecting surface is parallel to said coupling-in reflecting surface , characterized in that the light waves coupled inside the substrate are plane light waves, reflected at least twice by the active side of the flat coupling-out reflecting surface before being coupled out from the substrate through the output aperture and are reflected by internal reflection from one of the major surfaces between the first and second reflectance from the flat coupling-out reflecting surface ; different light rays from the same input plane light wave coupled inside the substrate, are reflected by the same side of the flat coupling-out reflecting surface a different number of reflections, before being coupled out from the substrate through the output aperture
A packaging method for packaging elastomer parts , such as stoppers for pharmaceutical containers, the method being characterized in that it comprises the following steps: • packaging parts in at least one primary bag made of material that is substantially permeable to vapor, • packaging said at least one primary bag in a support member substantially rigid , so as to form a unit, • vapor-sterilizing said unit, and • packaging said sterilized unit in at least one secondary bag , with a vacuum being applied between said at least one primary bag and said at least one secondary bag . • packaging parts in at least one primary bag made of material that is substantially permeable to vapor, • packaging said at least one primary bag in a support member substantially rigid , so as to form a unit, • vapor-sterilizing said unit, and • packaging said sterilized unit in at least one secondary bag , with a vacuum being applied between said at least one primary bag and said at least one secondary bag .
A method of producing an acellular organ, comprising: (a) subjecting an organ to a first supercritical fluid (SCF) in the presence of a first co-solvent under a first pressure of 20-50 MPa (200-500 bar) at a first temperature between 30-50°C for a first period of 10-100 minutes; and (b) subjecting the first SCF treated organ of the step (a) with a continuous flow of a second SCF in the presence of a second co-solvent under a second pressure of 200-500 bar at a second temperature between 30-50°C for a second period of 10-100 minutes, wherein the flow rate of the second SCF is 10-30 liter per minute; wherein, the method does not comprise the step of treating the organ with an agent selected from the group consisting of an enzyme, an ion chelating agent, a detergent, a glycerol, and a combination thereof. (a) subjecting an organ to a first supercritical fluid (SCF) in the presence of a first co-solvent under a first pressure of 20-50 MPa (200-500 bar) at a first temperature between 30-50°C for a first period of 10-100 minutes; and (b) subjecting the first SCF treated organ of the step (a) with a continuous flow of a second SCF in the presence of a second co-solvent under a second pressure of 200-500 bar at a second temperature between 30-50°C for a second period of 10-100 minutes, wherein the flow rate of the second SCF is 10-30 liter per minute;
A method of controlled cooling of one or multiple previously heated and substantially straight steel wire/wires to a predetermined temperature range, the previously heated and substantially straight steel wires having a diameter which is more than 3.5 mm and less than 20mm, the method comprises the steps of: a) guiding the previously heated and substantially straight steel wire/wires along individual path/paths through one or multiple first coolant bath/baths, the first coolant bath/baths comprises a bath liquid, wherein the bath liquid comprises water and a stabilizing additive, wherein the bath liquid and the multiple previously heated and substantially straight steel wires create a steam film around each steel wire itself along each individual path; b) directing an impinging liquid immersed inside the first coolant bath/baths towards the previously heated and substantially straight steel wire/wires over a certain length L along individual path/paths, to cool down the previously heated and substantially straight steel wire/wires, wherein the impinging liquid decreases the thickness of the steam film or destabilizes the steam film, thereby increasing the speed of cooling over the length L along individual path/paths, c) guiding the previously heated and substantially straight steel wire/wires along individual path/paths out of the first coolant bath/baths to be further cooled down in air, in order to prevent turbulences in the next cooling bath d) after the further cooling in air, guiding the previously heated, substantially straight steel wire/wires along individual path/paths through one or multiple second coolant bath/baths, wherein the substantially straight steel wire/wires are subjected to a cooling transformation from austenite to pearlite. a) guiding the previously heated and substantially straight steel wire/wires along individual path/paths through one or multiple first coolant bath/baths, the first coolant bath/baths comprises a bath liquid, wherein the bath liquid comprises water and a stabilizing additive, wherein the bath liquid and the multiple previously heated and substantially straight steel wires create a steam film around each steel wire itself along each individual path; b) directing an impinging liquid immersed inside the first coolant bath/baths towards the previously heated and substantially straight steel wire/wires over a certain length L along individual path/paths, to cool down the previously heated and substantially straight steel wire/wires, wherein the impinging liquid decreases the thickness of the steam film or destabilizes the steam film, thereby increasing the speed of cooling over the length L along individual path/paths, c) guiding the previously heated and substantially straight steel wire/wires along individual path/paths out of the first coolant bath/baths to be further cooled down in air, in order to prevent turbulences in the next cooling bath d) after the further cooling in air, guiding the previously heated, substantially straight steel wire/wires along individual path/paths through one or multiple second coolant bath/baths,
A method for switching global special effects, comprising: determining , in response to detecting a sliding gesture on a target interface and according to a sliding direction of the sliding gesture, two global special effects to be switched; wherein the global special effects are special effects applied to all pixels of a photo or a video; displaying , during a sliding process of the sliding gesture, the two global special effects on two sides of the target interface simultaneously, and changing display regions of the two global special effects on a left side and a right side of the target interface according to a transversal displacement component of the sliding gesture, wherein a display status of the target interface is a vertical screen status or a horizontal screen status, in response to determining that the display status of the target interface is the vertical screen status, the transversal displacement component is a displacement component parallel to a shorter side of the display screen, and in response to determining that the display status of the target interface is the horizontal screen status, the transversal displacement component is a displacement component parallel to a longer side of the display screen; and determining , in response to detecting a release operation of the sliding gesture, a global special effect having a larger display region from the two global special effects as a user-selected global special effect, and displaying the user-selected global special effect on an entire region of the target interface. determining , in response to detecting a sliding gesture on a target interface and according to a sliding direction of the sliding gesture, two global special effects to be switched; wherein the global special effects are special effects applied to all pixels of a photo or a video; displaying , during a sliding process of the sliding gesture, the two global special effects on two sides of the target interface simultaneously, and changing display regions of the two global special effects on a left side and a right side of the target interface according to a transversal displacement component of the sliding gesture, wherein a display status of the target interface is a vertical screen status or a horizontal screen status, in response to determining that the display status of the target interface is the vertical screen status, the transversal displacement component is a displacement component parallel to a shorter side of the display screen, and in response to determining that the display status of the target interface is the horizontal screen status, the transversal displacement component is a displacement component parallel to a longer side of the display screen; and determining , in response to detecting a release operation of the sliding gesture, a global special effect having a larger display region from the two global special effects as a user-selected global special effect, and displaying the user-selected global special effect on an entire region of the target interface.
Panel carrier for securing a front panel to the side frames of a drawer , comprising a carrier part which can be secured to the front panel and a one-part or multi-part base part which can be mounted on the side frame and surrounds the carrier part and which has two lateral limbs aligned at least partially parallel to each other, and a first adjusting element for adjusting the front panel , characterized in that the first adjusting element is designed as an adjusting pin frictionally enclosed by a coil spring .