mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device (20a; 30a; 80a; 80c; 1000) comprising: a memory storing instructions; and at least one processor configured to execute the instructions to: identify an external device as a peer device (20b; 30b; 80b; 80d; 80e) for performing an operation of the electronic device, obtain a keyword for a search operation, wherein a searching category of the search operation is related to an image, identify whether the peer device has a camera capture function, if the peer device has a camera capture function, transmit the keyword for the search operation to the peer device such that the peer device performs the search operation based on the keyword, receive result information of the search operation from the peer device, and output the result information. a memory storing instructions; and at least one processor configured to execute the instructions to: identify an external device as a peer device (20b; 30b; 80b; 80d; 80e) for performing an operation of the electronic device, obtain a keyword for a search operation, wherein a searching category of the search operation is related to an image, identify whether the peer device has a camera capture function, if the peer device has a camera capture function, transmit the keyword for the search operation to the peer device such that the peer device performs the search operation based on the keyword, receive result information of the search operation from the peer device, and output the result information. identify an external device as a peer device (20b; 30b; 80b; 80d; 80e) for performing an operation of the electronic device, obtain a keyword for a search operation, wherein a searching category of the search operation is related to an image, identify whether the peer device has a camera capture function, if the peer device has a camera capture function, transmit the keyword for the search operation to the peer device such that the peer device performs the search operation based on the keyword, receive result information of the search operation from the peer device, and output the result information.
An adhesive comprising: a polymeric adhesive matrix, wherein the polymeric matrix comprises at least one polymer selected from a group consisting of a polyurethane, a polychloroprene, a latex, a polystyrene, a polyamide, a polyolefin, a polyacrylate, and any combination thereof, and a carboxylic acid or a salt thereof dispersed within the polymeric adhesive matrix, wherein the carboxylic acid has a structure according to the following formula or a derivative thereof where n is an integer from 2 to 10, and wherein the carboxylic acid or a salt thereof is present in an amount from 1% to 15% by weight based upon a total weight of the adhesive. a polymeric adhesive matrix, wherein the polymeric matrix comprises at least one polymer selected from a group consisting of a polyurethane, a polychloroprene, a latex, a polystyrene, a polyamide, a polyolefin, a polyacrylate, and any combination thereof, and a carboxylic acid or a salt thereof dispersed within the polymeric adhesive matrix, wherein the carboxylic acid has a structure according to the following formula or a derivative thereof where n is an integer from 2 to 10, and wherein the carboxylic acid or a salt thereof is present in an amount from 1% to 15% by weight based upon a total weight of the adhesive.
A process for coating a soft-magnetic powder, the coating comprising at least one fluorine containing composition containing a composition of formula (I): Si 1-0,75c M c O 2-0,5c F d (I) wherein c is in the range of 0.01 to 0.5, d is in the range of 0.04 to 2, and M is B or Al, wherein the soft-magnetic powder is mixed with a silicon-based solution containing at least one soluble fluorination agent, wherein the at least one soluble fluorination agent is a compound of formula (II) [Q][MF 4 ] (II) wherein M is B or Al; and Q is a cationic group selected from H + , Na + , K + , Rb + , Cs + or [NR 1 4 ] + , wherein R 1 is independently selected from the group consisting of -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 6-18 -aryl, each of which may be substituted with at least one group represented by the formula -OR 2 , wherein R 2 is independently selected from -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 1-18 -aryl. c is in the range of 0.01 to 0.5, d is in the range of 0.04 to 2, and M is B or Al, M is B or Al; and Q is a cationic group selected from H + , Na + , K + , Rb + , Cs + or [NR 1 4 ] + , wherein R 1 is independently selected from the group consisting of -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 6-18 -aryl, each of which may be substituted with at least one group represented by the formula -OR 2 , wherein R 2 is independently selected from -H, -C 1-12 -alkyl, -C 2-12 -alkenyl, and -C 1-18 -aryl.
Aqueous solution comprising, by weight: - from 1 to 35% of peroxyacetic acid; - from 0.05 to 3.9% of hydrogen peroxide; - from 50 to 98,5% of acetic acid; - water balance to 100%, provided that the amount of peroxyacetic acid is at least equal to 86.5% with respect to the sum of the weights of peroxyacetic acid and hydrogen peroxide. - from 1 to 35% of peroxyacetic acid; - from 0.05 to 3.9% of hydrogen peroxide; - from 50 to 98,5% of acetic acid; - water balance to 100%,
A seeding robot comprising a power supply , a frame , an opening device for creating a trench, a seed reservoir , seed dispensing apparatus configured to deposit seed in the trench from a dispense point , a pair of driven leading wheels which are laterally offset to opposite sides of the dispense point, and a trailing wheel positioned behind, and aligned on a longitudinal axis (y) with, the dispense point; characterised in that the trailing wheel is steerable.
A robotic tool comprising a body , an upper cover and a connecting device, the connecting device comprising a connecting seat, and a connecting rod , a top of the connecting rod being provided with a connecting head , wherein the connecting seat comprises a locking component , the locking component is provided with a plurality of elastic connecting walls , the plurality of elastic connecting walls jointly define a sunken cavity to house the connecting head characterized in that when the locking component is in a release position, the elastic connecting walls are outwardly deformable to allow the connecting head to be removed from the sunken cavity , when the locking component is in a locking position, the elastic connecting walls are restricted from deforming outwards to keep the connecting head in the sunken cavity , and in that the connecting seat is fixed on the upper cover , the locking component is exposed from the upper cover , and the connecting rod is fixed on the body . a connecting seat, and a connecting rod , a top of the connecting rod being provided with a connecting head , wherein the connecting seat comprises a locking component , the locking component is provided with a plurality of elastic connecting walls , the plurality of elastic connecting walls jointly define a sunken cavity to house the connecting head characterized in that when the locking component is in a release position, the elastic connecting walls are outwardly deformable to allow the connecting head to be removed from the sunken cavity , when the locking component is in a locking position, the elastic connecting walls are restricted from deforming outwards to keep the connecting head in the sunken cavity , and in that the connecting seat is fixed on the upper cover , the locking component is exposed from the upper cover , and the connecting rod is fixed on the body .
An X-ray generation apparatus for intra-oral X-ray imaging irradiating X-rays to an object to be imaged, especially a tooth and surrounding tissue inside a subject's mouth, the X-ray generation apparatus comprising: a body (H) configured to move along a predetermined trajectory; a plurality of X-ray sources disposed in different positions of the body (H), and configured to irradiate X-rays to the object, and a controller configured to supply control signals for driving the plurality of X-ray sources , wherein the controller is configured to drive the plurality of X-ray sources in conjunction with the movement of the body (H), characterized in that each of the plurality of X-ray sources includes an X-ray source module and the X-ray source module is detachably coupled to the body (H), wherein each X-ray source module is coupled and may be separated through a coupling structure including a plurality of connection terminal electrodes, and wherein said coupling structure is mechanically configured such that an angle thereof may be adjusted while the X-ray source module is mounted thereto. a body (H) configured to move along a predetermined trajectory; a plurality of X-ray sources disposed in different positions of the body (H), and configured to irradiate X-rays to the object, and a controller configured to supply control signals for driving the plurality of X-ray sources , wherein the controller is configured to drive the plurality of X-ray sources in conjunction with the movement of the body (H), characterized in that each of the plurality of X-ray sources includes an X-ray source module and the X-ray source module is detachably coupled to the body (H), wherein each X-ray source module is coupled and may be separated through a coupling structure including a plurality of connection terminal electrodes, and wherein said coupling structure is mechanically configured such that an angle thereof may be adjusted while the X-ray source module is mounted thereto.
A compressor assembly , comprising: a housing assembly ; a first rotor arranged within the housing assembly , the first rotor being supported for rotation by a first inlet bearing adjacent an inlet end of the housing assembly and by a first discharge bearing adjacent a discharge end of the housing assembly ; a second rotor arranged within the housing assembly , the second rotor being supported for rotation by a second inlet bearing adjacent the inlet end of the housing assembly and by a second discharge bearing adjacent the discharge end of the housing assembly ; and a first lubricant flow path configured to supply lubricant from a lubricant reservoir to more than one of the first discharge bearing , the first inlet bearing , the second discharge bearing and the second inlet bearing sequentially, wherein the first lubricant flow path is configured to supply lubricant to the first discharge bearing and the first inlet bearing , characterized in that the compressor assembly further comprises a second lubricant flow path configured to supply lubricant from a lubricant reservoir to the second discharge bearing and the second inlet bearing . a housing assembly ; a first rotor arranged within the housing assembly , the first rotor being supported for rotation by a first inlet bearing adjacent an inlet end of the housing assembly and by a first discharge bearing adjacent a discharge end of the housing assembly ; a second rotor arranged within the housing assembly , the second rotor being supported for rotation by a second inlet bearing adjacent the inlet end of the housing assembly and by a second discharge bearing adjacent the discharge end of the housing assembly ; and a first lubricant flow path configured to supply lubricant from a lubricant reservoir to more than one of the first discharge bearing , the first inlet bearing , the second discharge bearing and the second inlet bearing sequentially, wherein the first lubricant flow path is configured to supply lubricant to the first discharge bearing and the first inlet bearing , characterized in that the compressor assembly further comprises a second lubricant flow path configured to supply lubricant from a lubricant reservoir to the second discharge bearing and the second inlet bearing .
An electronic tablet magnifying case device comprising: - a base having a first lateral side , a second lateral side , an upper surface , and a bottom surface ; - a first panel pivotally coupled to and extending from said first lateral side ; - a plurality of brackets coupled to said first panel wherein said first panel being configured for coupling to an electronic tablet wherein said electronic tablet being positioned an an interior face of said first panel ; and - a second panel pivotally coupled to and extending from said second lateral side , said second panel comprising a magnifying lens , said second panel being pivotable to a use position wherein said magnifying lens being directed towards said interior face of said first panel when said first panel is in an extended position relative to said base , characterized in that the device further comprises a hand strap having opposite ends coupled to said bottom surface of said base wherein said hand strap being configured for receiving a hand between a medial section of said hand strap and said bottom surface of said base wherein said base is coupled to said hand; or the device further comprises a threaded receiver coupled to the bottom surface of the base , the threaded receiver being configured for receiving a threaded shaft of a coupler to a tripod. - a base having a first lateral side , a second lateral side , an upper surface , and a bottom surface ; - a first panel pivotally coupled to and extending from said first lateral side ; - a plurality of brackets coupled to said first panel wherein said first panel being configured for coupling to an electronic tablet wherein said electronic tablet being positioned an an interior face of said first panel ; and - a second panel pivotally coupled to and extending from said second lateral side , said second panel comprising a magnifying lens , said second panel being pivotable to a use position wherein said magnifying lens being directed towards said interior face of said first panel when said first panel is in an extended position relative to said base ,
A 3-D image processing device for performing sharpness compensation or color compensation for a dependent block of a dependent frame according to a base block of a base frame for a 3-D image data, wherein the 3-D image data has the base frame and the dependent frame, comprising: an image detection unit , adapted for detecting the 3-D image data to obtain the base frame and the dependent frame, obtaining the dependent block from the dependent frame, generating a plurality of pixel comparison results by calculating pixel difference values between the dependent block and a plurality of predetermined areas which are within the base frame and have the same vertical position as the dependent block, and for obtaining the base block based on the pixel comparison result having the smallest pixel difference values, wherein the base block and the dependent block constitute a visual 3-D image block; an image compensation unit , adapted for generating a compensated dependent frame by performing image compensation for the dependent frame based on the base frame; and a display device , adapted for displaying a 3-D compensated image data according to the base frame and the compensated dependent frame, wherein the base frame and the dependent frame constitute a visual 3-D image, and the base frame has more image details than the dependent frame. an image detection unit , adapted for detecting the 3-D image data to obtain the base frame and the dependent frame, obtaining the dependent block from the dependent frame, generating a plurality of pixel comparison results by calculating pixel difference values between the dependent block and a plurality of predetermined areas which are within the base frame and have the same vertical position as the dependent block, and for obtaining the base block based on the pixel comparison result having the smallest pixel difference values, wherein the base block and the dependent block constitute a visual 3-D image block; an image compensation unit , adapted for generating a compensated dependent frame by performing image compensation for the dependent frame based on the base frame; and a display device , adapted for displaying a 3-D compensated image data according to the base frame and the compensated dependent frame,
A chassis for packaging electronics to be populated on an information technology (IT) rack, the chassis comprising: a liquid distributor having first blind mate connectors facing a first direction and second blind mate connectors , facing away from the first direction, wherein the first blind mate connectors are to be coupled to a rack manifold of an electronic rack to receive cooling fluid, to distribute the cooling fluid to an electronic device via the second blind mate connectors , and to return the cooling fluid carrying heat generated from the electronic device back to the rack manifold; a sliding channel of the chassis that the liquid distributor is mounted to, such that the liquid distributor is slidable back and forth along the first direction; and a device frame forming a wall or surface perpendicular to a floor of the chassis and having a mounting slot for receiving the electronic device deposited thereon, wherein the mounting slot is arranged between the device frame and the liquid distributor , such that the second blind mate connectors slide towards the mounting slot when a first force is applied to the first blind mate connectors against the first direction. a liquid distributor having first blind mate connectors facing a first direction and second blind mate connectors , facing away from the first direction, wherein the first blind mate connectors are to be coupled to a rack manifold of an electronic rack to receive cooling fluid, to distribute the cooling fluid to an electronic device via the second blind mate connectors , and to return the cooling fluid carrying heat generated from the electronic device back to the rack manifold; a sliding channel of the chassis that the liquid distributor is mounted to, such that the liquid distributor is slidable back and forth along the first direction; and a device frame forming a wall or surface perpendicular to a floor of the chassis and having a mounting slot for receiving the electronic device deposited thereon, wherein the mounting slot is arranged between the device frame and the liquid distributor , such that the second blind mate connectors slide towards the mounting slot when a first force is applied to the first blind mate connectors against the first direction.
A high-voltage-withstanding alumina sintered compact comprising alumina as a main crystal and spinel as an oxide crystal containing magnesium and aluminum, the alumina and spinel further containing titanium, wherein the high-voltage-withstanding alumina sintered compact has a peak intensity of 5000 or less at a wavelength of about 330 nm when measured by a cathode luminescence method, and wherein the alumina sintered compact has a creepage breakdown voltage of 5kV/mm or more.
A single-mode optical fiber with ultra-low attenuation and a large effective area, comprising: a core layer , a first cladding layer , a second cladding layer , a third cladding layer and a fourth cladding layer successively arranged from inside to outside; wherein the first cladding layer is made from fluorine-doped quartz; the second cladding layer , the third cladding layer and the fourth cladding layer are all made from quartz; the third cladding layer is provided with at least one annular microporous layer successively arranged from inside to outside, the at least one annular microporous layer comprises a plurality of micropores which are evenly distributed, the circle center of each micropore in each annular microporous layer is concyclic and the circle is concentric with the core layer ; the core layer is made from alkali metal-doped quartz, and the core layer comprises an inner core layer and a transition core layer successively arranged from inside to outside; characterised in that the refractive indices of the transition core layer and the fourth cladding layer are n 11 and n 5 , respectively, and the relative refractive index difference Δn 11 between n 11 and n 5 satisfies Δn 11 = − ax 2 100 lg a x , wherein a is the transition coefficient of the transition core layer , and x is the distance from any point in the transition core layer to the edge of the inner core layer ; wherein the value range of a is 1.05≤a≤1.3; wherein the value range of x is 0<x≤d 11 , and 1.25μm≤d 11 ≤2.50μm, wherein d 11 is the thickness of the transition core layer . the first cladding layer is made from fluorine-doped quartz; the second cladding layer , the third cladding layer and the fourth cladding layer are all made from quartz; the third cladding layer is provided with at least one annular microporous layer successively arranged from inside to outside, the at least one annular microporous layer comprises a plurality of micropores which are evenly distributed, the circle center of each micropore in each annular microporous layer is concyclic and the circle is concentric with the core layer ; the core layer is made from alkali metal-doped quartz, and the core layer comprises an inner core layer and a transition core layer successively arranged from inside to outside; characterised in that the refractive indices of the transition core layer and the fourth cladding layer are n 11 and n 5 , respectively, and the relative refractive index difference Δn 11 between n 11 and n 5 satisfies Δn 11 = − ax 2 100 lg a x , wherein a is the transition coefficient of the transition core layer , and x is the distance from any point in the transition core layer to the edge of the inner core layer ; wherein the value range of a is 1.05≤a≤1.3; wherein the value range of x is 0<x≤d 11 , and 1.25μm≤d 11 ≤2.50μm, wherein d 11 is the thickness of the transition core layer .
A fluid absorbent article, comprising (A) an upper liquid-pervious sheet, (B) a lower liquid-impervious sheet, (C) a fluid-absorbent core comprising from 60 to 20% by weight fibrous material and from 40 to 80% by weight of at least a first type of water-absorbent polymer particles (G) and at least a second type of water-absorbent polymer particles (H) based on the sum of water-absorbent polymer particles and fibrous material; (D) an acquisition-distribution layer between (A) and (C) wherein the first type of water absorbent polymer particles (G) of the fluid-absorbent core (C) have a SFC of at least 20 × 10 -7 cm 3 ·s/g determined according to the method disclosed in the description and wherein the at least second type of water-absorbent polymer particles (H) of the fluid-absorbent core have a sphericity of at least 0.80 determined according to the method disclosed in the description, and wherein the at least first type of water-absorbent polymer particles (G) is present of at least 30 % by weight, preferably of at least 33% by weight within the fluid-absorbent core (C) and is present of at maximum 66% by weight, preferably of at maximum 70 % by weight within the fluid-absorbent core (C) based on the sum of water-absorbent polymer particles (G, H). (A) an upper liquid-pervious sheet, (B) a lower liquid-impervious sheet, (C) a fluid-absorbent core comprising from 60 to 20% by weight fibrous material and from 40 to 80% by weight of at least a first type of water-absorbent polymer particles (G) and at least a second type of water-absorbent polymer particles (H) based on the sum of water-absorbent polymer particles and fibrous material; (D) an acquisition-distribution layer between (A) and (C)