mhurhangee/patent-ind-claim-en huggingface dataset:
A joining structure comprising: a first member constituted by a first resin; and a second member constituted by a second resin, the first resin and the second resin having different physical properties, the first member and the second member being joined to each other, wherein the joining structure has a recessed joining portion that extends from an outer surface of the second member and reaches at least an interior of the first member in a state in which the first member and second member are overlapped on each other, and a joining surface between the first member and the second member has a hot-molten portion spreading outward in a ring shape, the hot-molten portion being formed by melt of the second resin and the first resin, the first resin is a non-foamed resin, and the second resin is a foamed resin and has, as properties thereof, a higher foaming ratio and a higher tendency to be hot-molten than the first resin. a first member constituted by a first resin; and a second member constituted by a second resin, the first resin and the second resin having different physical properties, the first member and the second member being joined to each other, wherein the joining structure has a recessed joining portion that extends from an outer surface of the second member and reaches at least an interior of the first member in a state in which the first member and second member are overlapped on each other, and a joining surface between the first member and the second member has a hot-molten portion spreading outward in a ring shape, the hot-molten portion being formed by melt of the second resin and the first resin, the first resin is a non-foamed resin, and the second resin is a foamed resin and has, as properties thereof, a higher foaming ratio and a higher tendency to be hot-molten than the first resin.
A genomic sequence characterized by SEQ ID NO:1 wherein at least one site of fixation for miR-4279 is restored, whereby the genomic sequence codes for an attenuated Zika Virus in comparison to the epidemic strain encoded by SeqIdNo.1.
A cytometry system, comprising: a microfluidic handling system capable of sequentially presenting single sperm cells without labels in a fluid medium to a measurement volume; at least one laser source configured to emit a mid-infrared light beam at one or more wavelengths that induce bond vibrations in the sperm cell DNA; wherein the microfluidic handling system comprises a single cell flow architecture enabling presentation of the single sperm cell to the at least one laser source ; beam shaping optics using lenses to focus the mid-IR light through an aperture of roughly 20 microns and to direct the emitted mid-infrared light beam to a spot in the measurement volume and through each sequential sperm cell contained therein in turn; a detection facility configured to quantitatively measure an amount of mid-infrared light transmitted through each of the sperm cells individually; and a processor configured to analyze the measured transmitted mid-infrared light relative to a bond vibration signature of the DNA to determine the DNA content carried by each of the sperm cells and thereby, identify each sperm cell as carrying an X-chromosome or Y-chromosome. a microfluidic handling system capable of sequentially presenting single sperm cells without labels in a fluid medium to a measurement volume; at least one laser source configured to emit a mid-infrared light beam at one or more wavelengths that induce bond vibrations in the sperm cell DNA; wherein the microfluidic handling system comprises a single cell flow architecture enabling presentation of the single sperm cell to the at least one laser source ; beam shaping optics using lenses to focus the mid-IR light through an aperture of roughly 20 microns and to direct the emitted mid-infrared light beam to a spot in the measurement volume and through each sequential sperm cell contained therein in turn; a detection facility configured to quantitatively measure an amount of mid-infrared light transmitted through each of the sperm cells individually; and a processor configured to analyze the measured transmitted mid-infrared light relative to a bond vibration signature of the DNA to determine the DNA content carried by each of the sperm cells and thereby, identify each sperm cell as carrying an X-chromosome or Y-chromosome.
A method comprising: providing a first compressed three-dimensional, 3D, video content using a format; determining the format of the first compressed 3D video content; providing two-dimensional, 2D, video content; converting the 2D video content into a second compressed 3D video content using the determined format, wherein converting the 2D video content comprises: decimating, by a decimator, , the 2D video content to format the size or bandwidth of the 2D video content; repeating and offsetting, by a copier, , the decimated 2D video content thereby to convert the 2D video content into 3D video having the determined format; and compressing, , the 3D video having the determined format into the second compressed 3D video content; splicing, , the second compressed 3D video content into the first compressed 3D video content to form a combined 3D video content, and decoding the combined 3D video content. providing a first compressed three-dimensional, 3D, video content using a format; determining the format of the first compressed 3D video content; providing two-dimensional, 2D, video content; converting the 2D video content into a second compressed 3D video content using the determined format, wherein converting the 2D video content comprises: decimating, by a decimator, , the 2D video content to format the size or bandwidth of the 2D video content; repeating and offsetting, by a copier, , the decimated 2D video content thereby to convert the 2D video content into 3D video having the determined format; and compressing, , the 3D video having the determined format into the second compressed 3D video content; splicing, , the second compressed 3D video content into the first compressed 3D video content to form a combined 3D video content, and decoding the combined 3D video content. decimating, by a decimator, , the 2D video content to format the size or bandwidth of the 2D video content; repeating and offsetting, by a copier, , the decimated 2D video content thereby to convert the 2D video content into 3D video having the determined format; and compressing, , the 3D video having the determined format into the second compressed 3D video content; splicing, , the second compressed 3D video content into the first compressed 3D video content to form a combined 3D video content, and decoding the combined 3D video content.
A method of manufacturing a part in a series of layers based on a three-dimensional model of the part, the three-dimensional model of the part oriented according to an x-y build plane corresponding to an orientation of a layer of the part and a z-axis orthogonal to the x-y build plane that defines an order of each layer of the part between a bottom and a top of the part, the method comprising: determining a build layer thickness of an additive manufacturing apparatus; scaling the build layer thickness based on a scaling factor between the three-dimensional model of the part and the part; identifying a reference feature of the part within the three-dimensional model; identifying a first feature of the part within the three-dimensional model; determining that the first feature is not aligned along the z-axis based on the build layer thickness by determining a difference between a value of a position of a bottom-most point of the first feature along the z-axis and a value of a position of a bottom-most point of the reference feature along the z-axis, scaling the build layer thickness based on the scaling factor, and determining that the difference is not a multiple of the scaled build layer thickness; moving the first feature within the three-dimensional model along the z-axis by a feature offset such that the difference is zero or one or more increments of the build layer thickness; further comprising: manufacturing the part using the additive manufacturing apparatus on a layer by layer basis according to the three-dimensional model, including layers having the build layer thickness. determining a build layer thickness of an additive manufacturing apparatus; scaling the build layer thickness based on a scaling factor between the three-dimensional model of the part and the part; identifying a reference feature of the part within the three-dimensional model; identifying a first feature of the part within the three-dimensional model; determining that the first feature is not aligned along the z-axis based on the build layer thickness by determining a difference between a value of a position of a bottom-most point of the first feature along the z-axis and a value of a position of a bottom-most point of the reference feature along the z-axis, scaling the build layer thickness based on the scaling factor, and determining that the difference is not a multiple of the scaled build layer thickness; moving the first feature within the three-dimensional model along the z-axis by a feature offset such that the difference is zero or one or more increments of the build layer thickness; further comprising: manufacturing the part using the additive manufacturing apparatus on a layer by layer basis according to the three-dimensional model, including layers having the build layer thickness.
An automotive lubricant base oil formulation comprising hydrocarbon base oil having a kinematic viscosity of 100 centiStokes or less at 40 degrees Celsius and five weight-percent (wt%) to 50 wt% of an alkyl capped oil soluble polymer, based on the total combined weight of the alkyl capped oil soluble polymer and the based oil, where the alkyl capped oil soluble polymer has the structure of Formula I: R 1 [O(R 2 O) n (R 3 O) m R 4 ] p (I) wherein R 1 is an alkyl having from one to thirty carbons, R 2 and R 3 are different alkyls having three or four carbons and can be in block form or randomly combined, R 4 is an alkyl having from one to 18 carbon atoms, n and m are independently numbers ranging from zero to 20 provided that n+m is greater than zero and p is a number within a range of one to three; wherein the alkyl capped oil soluble polymer has molecular weight of 200 grams per mole to 700 grams per mole so as to achieve a kinematic viscosity of less than six centiStokes at 100 degrees Celsius for the automotive lubricant base oil.
An antibody which binds to structure wherein: X is selected from n -propyl and n -butyl; the antibody having a cross-reactivity represented by B/B 0 of ≤ 50% for an epitope selected from the group consisting of a racemic mixture of a C 7 homologue of CP-47,497 and a racemic mixture of a C 8 homologue of CP-47,497, at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7 ); the antibody further having a cross-reactivity represented by B/B 0 of > 80% for a C 7 para quinone analogue of a racemic mixture of CP-47,497, (+-)-CP 55,940, (-)-CP 55,940, (+)-CP 55,940, HU-210, and HU-211 (Dexanabinol), at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7 ); wherein the cross-reactivity is determined using an Enzyme Linked Immunosorbent Assay (ELISA) technique as described in example 12, where B/B 0 is determined by measuring absorbance at 450nm, where B is the absorbance at 450nm at x ng/ml standard concentration and where B 0 is the absorbance at 450nm at 0 ng/ml standard concentration; wherein the C 7 and C 8 homologues of CP-47,497 are: and wherein tracer 1 is: X is selected from n -propyl and n -butyl; the antibody having a cross-reactivity represented by B/B 0 of ≤ 50% for an epitope selected from the group consisting of a racemic mixture of a C 7 homologue of CP-47,497 and a racemic mixture of a C 8 homologue of CP-47,497, at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7 ); the antibody further having a cross-reactivity represented by B/B 0 of > 80% for a C 7 para quinone analogue of a racemic mixture of CP-47,497, (+-)-CP 55,940, (-)-CP 55,940, (+)-CP 55,940, HU-210, and HU-211 (Dexanabinol), at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7 ); wherein the cross-reactivity is determined using an Enzyme Linked Immunosorbent Assay (ELISA) technique as described in example 12, where B/B 0 is determined by measuring absorbance at 450nm, where B is the absorbance at 450nm at x ng/ml standard concentration and where B 0 is the absorbance at 450nm at 0 ng/ml standard concentration; wherein the C 7 and C 8 homologues of CP-47,497 are: and wherein tracer 1 is:
Sectional door, comprising - at least two sections each comprising a base element and which are hingeably connected to each other, hingeable between a closed position, wherein these sections are arranged in line with each other, and an open position, wherein these sections are arranged at an angle with respect to each other; - and a safety element which is fastened at least partially moveably to a first said section and is arranged facing a second, adjoining said section , wherein, in the open position, this safety element is arranged at a distance from the second section and wherein this safety element is moveably arranged in such a way that, when the first section and the second section are in their open position, if a finger is placed between the safety element and the second section and if the first section and the second section swing from their open position to their closed position, the safety element moves at least partially with respect to the first section in order to make space to prevent the finger from being trapped between the first section and the second section , characterized in that , in the closed position, the sectional door forms a louvre wall, with louvres , which are arranged at a distance from each other, in that , to this end, the safety element comprises one or more such louvres and in that to this end, supports are arranged on the base element of each of the sections , louvre holders are fastened to the supports and louvres are arranged on the louvre holders substantially parallel to each other and in that the supports of successive sections are positioned such that a safety cavity is present between them or such that they are mounted offset with respect to each other, in order to prevent a finger from becoming trapped between the supports of these successive sections . - at least two sections each comprising a base element and which are hingeably connected to each other, hingeable between a closed position, wherein these sections are arranged in line with each other, and an open position, wherein these sections are arranged at an angle with respect to each other; - and a safety element which is fastened at least partially moveably to a first said section and is arranged facing a second, adjoining said section , wherein, in the open position, this safety element is arranged at a distance from the second section and wherein this safety element is moveably arranged in such a way that, when the first section and the second section are in their open position, if a finger is placed between the safety element and the second section and if the first section and the second section swing from their open position to their closed position, the safety element moves at least partially with respect to the first section in order to make space to prevent the finger from being trapped between the first section and the second section ,
A steering system for a marine vessel including a helm , the helm comprising: a rotatable steering shaft ; a sensor which senses angular movement of the steering shaft as the marine vessel is being steered; a stop mechanism for releasably engaging the steering shaft ; an electromagnetic actuator which actuates the stop mechanism to releasably engage the steering shaft ; a microcontroller which processes a steering sensor signal and causes the electromagnetic actuator to actuate the stop mechanism to fully engage the steering shaft when the sensor senses that the steering shaft has reached a hardstop position to prevent rotation of the steering shaft in a first rotational direction, which corresponds to movement towards the hardstop position, while allowing rotational play between the steering shaft and the stop mechanism in a second direction, which corresponds to rotational movement away from the hardstop position; and a driver which applies a reverse polarity pulse to the electromagnetic actuator when the stop mechanism is fully engaged with the steering shaft and the steering shaft is rotated, as permitted by the rotational play, in the second rotational direction. a rotatable steering shaft ; a sensor which senses angular movement of the steering shaft as the marine vessel is being steered; a stop mechanism for releasably engaging the steering shaft ; an electromagnetic actuator which actuates the stop mechanism to releasably engage the steering shaft ; a microcontroller which processes a steering sensor signal and causes the electromagnetic actuator to actuate the stop mechanism to fully engage the steering shaft when the sensor senses that the steering shaft has reached a hardstop position to prevent rotation of the steering shaft in a first rotational direction, which corresponds to movement towards the hardstop position, while allowing rotational play between the steering shaft and the stop mechanism in a second direction, which corresponds to rotational movement away from the hardstop position; and a driver which applies a reverse polarity pulse to the electromagnetic actuator when the stop mechanism is fully engaged with the steering shaft and the steering shaft is rotated, as permitted by the rotational play, in the second rotational direction.
A combustor panel comprising: a body comprising an edge ; a first endrail disposed along the edge of the body ; and a second endrail disposed adjacent the first endrail , wherein a gap is defined between the first endrail and the second endrail , wherein the second endrail defines an endrail hole extending through the second endrail and configured to deliver cooling air flow to the gap between the first endrail and the second endrail , characterised in that the endrail hole is canted relative to the combustor panel . a body comprising an edge ; a first endrail disposed along the edge of the body ; and a second endrail disposed adjacent the first endrail , wherein a gap is defined between the first endrail and the second endrail , wherein the second endrail defines an endrail hole extending through the second endrail and configured to deliver cooling air flow to the gap between the first endrail and the second endrail , characterised in that the endrail hole is canted relative to the combustor panel .
A process for manufacturing a palatable soft chewable pharmaceutical product ("soft chew") comprising: blending at least one active ingredient with inactive ingredients to form a mixture having the at least one active ingredient uniformly blended therein, wherein dry ingredients are blended first, then liquid ingredients are added and blended therein, without applying heat and by using a horizontal mixer which spins the mixture into particulate form; wherein the inactive ingredients are selected from the group consisting of a food grade flavoring; a binder; a bulking agent; a softening agent; an anti-caking agent or lubricant; a humectant comprising glycerin or propylene glycol; and at least one excipient comprising a starch, a cellulose or a mixture thereof; and forming the mixture into individual soft chews without need for a cooling step, wherein forming comprises knocking out the soft chews from a cavity of a mold plate. blending at least one active ingredient with inactive ingredients to form a mixture having the at least one active ingredient uniformly blended therein, wherein dry ingredients are blended first, then liquid ingredients are added and blended therein, without applying heat and by using a horizontal mixer which spins the mixture into particulate form; wherein the inactive ingredients are selected from the group consisting of a food grade flavoring; a binder; a bulking agent; a softening agent; an anti-caking agent or lubricant; a humectant comprising glycerin or propylene glycol; and at least one excipient comprising a starch, a cellulose or a mixture thereof; and forming the mixture into individual soft chews without need for a cooling step, wherein forming comprises knocking out the soft chews from a cavity of a mold plate.
A random access method, comprising: receiving (S1101), by a user equipment, a message from a network device, wherein the message includes configuration information indicating a correspondence between an uplink bandwidth part and a first downlink bandwidth part; selecting (S1102), by the user equipment, a random access preamble from a random access preamble set, and selecting a random access channel resource from a random access channel resource set; sending (S1103), by the user equipment, the random access preamble on the uplink bandwidth part by using the random access channel resource; wherein the uplink bandwidth part is an active uplink bandwidth part when the user equipment performs a random access procedure; and receiving (S1104), by the user equipment, a random access response message on the first downlink bandwidth part; wherein the first downlink bandwidth part corresponds to the uplink bandwidth part. receiving (S1101), by a user equipment, a message from a network device, wherein the message includes configuration information indicating a correspondence between an uplink bandwidth part and a first downlink bandwidth part; selecting (S1102), by the user equipment, a random access preamble from a random access preamble set, and selecting a random access channel resource from a random access channel resource set; sending (S1103), by the user equipment, the random access preamble on the uplink bandwidth part by using the random access channel resource; wherein the uplink bandwidth part is an active uplink bandwidth part when the user equipment performs a random access procedure; and receiving (S1104), by the user equipment, a random access response message on the first downlink bandwidth part; wherein the first downlink bandwidth part corresponds to the uplink bandwidth part.