mhurhangee/patent-ind-claim-en huggingface dataset:
A recording apparatus comprising: an ejecting unit which can eject first ink (I1) for image forming and a colorless second ink onto a recording medium (P), the second ink being a permeation ink for supporting permeation of the first ink into the recording medium; and a control unit which can control ejecting operations of the first ink and the second ink in the ejecting unit, wherein the control unit is arranged to perform ejecting operations of the first ink and the second ink so that landing positions of the second ink, the first ink, and the second ink overlap on the recording medium in this order. an ejecting unit which can eject first ink (I1) for image forming and a colorless second ink onto a recording medium (P), the second ink being a permeation ink for supporting permeation of the first ink into the recording medium; and a control unit which can control ejecting operations of the first ink and the second ink in the ejecting unit, wherein the control unit is arranged to perform ejecting operations of the first ink and the second ink so that landing positions of the second ink, the first ink, and the second ink overlap on the recording medium in this order.
A system, comprising: a light source configured to generate a structured light pattern and operable to emit that structured light pattern outward into an environment; a first reflective surface and a second reflective surface , the first and the second reflective surfaces positioned with respect to the light source to concurrently receive light returned from an object in the environment as the structured light pattern , the second reflective surface oriented at a non-zero angle with respect to the first reflective surface ; a light sensor positioned to concurrently detect, in parallax, light reflected from the object in the environment via both the first and the second reflective surfaces , respectively as a first instance of the structured light pattern reflected from the first reflective surface and a second instance of the structured light pattern reflected from the second reflective surface ; and at least one processor communicatively coupled to the light sensor , and which is configured to correlate a relative position of the first and the second instances of the structured light pattern detected by the light sensor and is configured to determine at least one dimension related to the object based at least in part on the correlation of the relative positions of the first and the second instances of the structured light pattern detected by the light sensor ; characterized in that the non-zero angle between the first and the second reflective surfaces is an obtuse angle that is less than 180 degrees. a light source configured to generate a structured light pattern and operable to emit that structured light pattern outward into an environment; a first reflective surface and a second reflective surface , the first and the second reflective surfaces positioned with respect to the light source to concurrently receive light returned from an object in the environment as the structured light pattern , the second reflective surface oriented at a non-zero angle with respect to the first reflective surface ; a light sensor positioned to concurrently detect, in parallax, light reflected from the object in the environment via both the first and the second reflective surfaces , respectively as a first instance of the structured light pattern reflected from the first reflective surface and a second instance of the structured light pattern reflected from the second reflective surface ; and at least one processor communicatively coupled to the light sensor , and which is configured to correlate a relative position of the first and the second instances of the structured light pattern detected by the light sensor and is configured to determine at least one dimension related to the object based at least in part on the correlation of the relative positions of the first and the second instances of the structured light pattern detected by the light sensor ; characterized in that the non-zero angle between the first and the second reflective surfaces is an obtuse angle that is less than 180 degrees.
A control method for an unmanned aerial vehicle (UAV), wherein the UAV includes a gimbal , a landing gear and a landing gear motor , the gimbal includes a yaw-axis motor , the method includes: when the landing gear is at a zero position at which the landing gear is aligned with the yaw axis of the gimbal , controlling the yaw-axis motor to rotate to different positions according to a specific strategy, wherein the specific strategy includes the landing gear following the yaw-axis motor to rotate synchronously, wherein the landing gear is fixed to the yaw axis by a mechanical locking manner such that when the yaw-axis motor drives the yaw axis to rotate, the landing gear rotates synchronously; determining a first parameter between the landing gear motor and the yaw-axis motor by controlling the yaw-axis motor to rotate to the different positions, wherein the first parameter is a rotation angle relationship between the landing gear motor and the yaw-axis motor ; in a mode where the landing gear follows the yaw-axis to rotate, obtaining a real-time rotation angle of the yaw-axis motor ; controlling the rotation of the landing gear motor according to the first parameter and the real-time rotation angle of the yaw-axis motor . when the landing gear is at a zero position at which the landing gear is aligned with the yaw axis of the gimbal , controlling the yaw-axis motor to rotate to different positions according to a specific strategy, wherein the specific strategy includes the landing gear following the yaw-axis motor to rotate synchronously, wherein the landing gear is fixed to the yaw axis by a mechanical locking manner such that when the yaw-axis motor drives the yaw axis to rotate, the landing gear rotates synchronously; determining a first parameter between the landing gear motor and the yaw-axis motor by controlling the yaw-axis motor to rotate to the different positions, wherein the first parameter is a rotation angle relationship between the landing gear motor and the yaw-axis motor ; in a mode where the landing gear follows the yaw-axis to rotate, obtaining a real-time rotation angle of the yaw-axis motor ; controlling the rotation of the landing gear motor according to the first parameter and the real-time rotation angle of the yaw-axis motor .
A communication method, comprising: determining (S401), by a radio access network device based on first information and second information, a quantity of paging cycles comprised in a paging cycle group and a sending location of paging information in the paging cycle group, wherein the paging cycle group comprises at least one paging cycle, and different paging occasions in the paging cycle group serve different terminal devices, wherein the first information is used to indicate a peak quantity of paging messages from a core network device and paging messages generated by the radio access network device within specified time; and the second information is used to indicate a paging capability of the radio access network device; and sending (S402), by the radio access network device, the paging information at the sending location. determining (S401), by a radio access network device based on first information and second information, a quantity of paging cycles comprised in a paging cycle group and a sending location of paging information in the paging cycle group, wherein the paging cycle group comprises at least one paging cycle, and different paging occasions in the paging cycle group serve different terminal devices, wherein the first information is used to indicate a peak quantity of paging messages from a core network device and paging messages generated by the radio access network device within specified time; and the second information is used to indicate a paging capability of the radio access network device; and sending (S402), by the radio access network device, the paging information at the sending location.
A method for modeling a subterranean formation, comprising: measuring or receiving cross-well electromagnetic data representing a subterranean formation; producing a resistivity profile of the subterranean formation based at least partially upon the cross-well electromagnetic data; determining a static model of the subterranean formation based at least partially upon the resistivity profile, wherein the static model comprises a static geo-cellular model and wherein determining the static model comprises calibrating a porosity in the static model, by reducing an error between the porosity in the static geo-cellular model and a porosity derived from the cross-well electromagnetic data; determining a dynamic model of the subterranean formation based at least partially upon the static model; determining whether to waterflood or gasflood the subterranean formation based at least partially upon the static model and/or the dynamic model; and building or updating a three-dimensional reservoir model of the subterranean formation for use in operations to waterflood the subterranean formation. measuring or receiving cross-well electromagnetic data representing a subterranean formation; producing a resistivity profile of the subterranean formation based at least partially upon the cross-well electromagnetic data; determining a static model of the subterranean formation based at least partially upon the resistivity profile, wherein the static model comprises a static geo-cellular model and determining a dynamic model of the subterranean formation based at least partially upon the static model; determining whether to waterflood or gasflood the subterranean formation based at least partially upon the static model and/or the dynamic model; and building or updating a three-dimensional reservoir model of the subterranean formation for use in operations to waterflood the subterranean formation.
Ceiling marge sheathing element with an insulating body (11a; 11b) of PUR rigid foam and/or PIR rigid foam that is configured for an insulation of a ceiling marge of a concrete ceiling , and with a separating layer (12a; 12b) that is configured for a decoupling of the insulating body (11a; 11b) from the concrete ceiling , characterised by an elastic material which is applied on the insulating body and which forms the separating layer , wherein concrete combines with the separating layer when the concrete ceiling is poured. characterised by an elastic material which is applied on the insulating body and which forms the separating layer , wherein concrete combines with the separating layer when the concrete ceiling is poured.
Cleaning procedure for anilox by overlaying laser spots where the diameter of the laser spots is increased above the minimum diameter corresponding to the focal spot w0 to a working diameter wN, by defocusing the laser beam pulses by means of a lens and directing them in an organized manner to the cleaning-active zone with a galvo mirror so that they impinge on the surface of the anilox partially overlapping in the linear direction and in the circumferential direction where the percentage of overlap in the linear direction is set based on ( f galboX ) the oscillation frequency of the galvo system on the X-axis , (∅ spot ) the diameter of the laser spot , ( l beam ) beam length and ( f laser ) beam frequency according to expression Lineal overlaying = 1 − 2 ⋅ f galboX ⋅ l beam ∅ spot ⋅ f laser %
A telescope optics for a telescopic observational instrument having an objective lens system , having a prism erecting system and having an eyepiece lens system , wherein an image of an object generated by the objective lens system is located between the prism erecting system and the eyepiece lens system , and wherein the objective lens system , in an order starting from the object side, comprises a first lens group G1 with a positive refractive power, a second lens group G2 with a negative refractive power and a third lens group G3 with at least one lens having a negative refractive power, and wherein the second lens group G2 is adjustable in parallel to an optical axis for focusing, and wherein at least one lens with a negative refractive power of the third lens group G3 is adjustable perpendicularly to the optical axis for changing the position of the image , wherein the third lens group G3 has a negative refractive power, characterized in that the focal length of the first lens group f`(G1), the focal length of the second lens group f `(G2) and the focal length of the third lens group f'(G3) fulfill the conditions -1.511 < f`(G1) / f`(G3) < -0.704 and 2.348 < f`(G2) / f'(G3) < 9.240.
A sprayer which is able to adjust a flow of mixed solution and clear water for spraying the mixed solution or clear water to a surface going to be treated comprising: a housing , an adjustment portion connected to the housing , a spray portion connected to the housing , and a container connected to the housing ; the sprayer is characterized in that the housing includes a work surface , a diversion chamber A composed of a first diversion port and a second diversion port , and a plurality of distribution channels; wherein a liquid storage room is disposed on one side of the work surface while a siphon channel is arranged at one end of the liquid storage room and the other end of the liquid storage room is provided with a delivery channel which is communicating with a mixture channel ; wherein the siphon channel is provided with a valve which is able to move and return in the siphon channel ; wherein a ramp is arranged at the rotary button of the adjustment portion and an upper end (22a1) of the valve is abutting against the ramp correspondingly so that movement of the valve is controlled by position of the ramp with respect to the valve and the valve is used to control size of an opening of the siphon channel for further control of on/off and amount of liquid flowing from the siphon channel to the liquid storage room . a housing , an adjustment portion connected to the housing , a spray portion connected to the housing , and a container connected to the housing ; the sprayer is characterized in that the housing includes a work surface , a diversion chamber A composed of a first diversion port and a second diversion port , and a plurality of distribution channels; wherein a liquid storage room is disposed on one side of the work surface while a siphon channel is arranged at one end of the liquid storage room and the other end of the liquid storage room is provided with a delivery channel which is communicating with a mixture channel ; wherein the siphon channel is provided with a valve which is able to move and return in the siphon channel ; wherein a ramp is arranged at the rotary button of the adjustment portion and an upper end (22a1) of the valve is abutting against the ramp correspondingly so that movement of the valve is controlled by position of the ramp with respect to the valve and the valve is used to control size of an opening of the siphon channel for further control of on/off and amount of liquid flowing from the siphon channel to the liquid storage room .
A labeling agent having a structure in which a molecular target drug, which is a compound comprising a nitrogen atom-containing aromatic ring, is bound to a label via a divalent linking group, wherein one end of said divalent linking group is bound to a carbon atom of said nitrogen atom-containing aromatic ring, characterized in that the molecular target drug is axitinib and the label is a fluorescent substance-integrated nanoparticle.
A composition comprising: (a) a composition comprising nonaethylene glycol monodecyl ether, 1-methyl-2-pyrrolidone, ethanol, linoleic acid, and optionally, water and (b) further comprising a therapeutic agent. (a) a composition comprising nonaethylene glycol monodecyl ether, 1-methyl-2-pyrrolidone, ethanol, linoleic acid, and optionally, water and (b) further comprising a therapeutic agent.
A method of adaptively adjusting sensor sampling of a plurality of cameras integrated into a plurality of locations on the mobile device, the method comprising: selecting a camera of the plurality of cameras based on first contextual information of the mobile device determined based on sensor input from one or more sensors of the mobile device, said first contextual information comprising orientation or motion information or sound directionality of the mobile device; causing the camera of the plurality of cameras to sample at an initial sampling rate; determining , after selecting the camera, a state of the user of the mobile device based on sensor input from the one or more sensors of the mobile device, said state comprising second contextual information about the user or environmental information relating to the user's environment; and modulating the sampling rate based on the determined state of the user, wherein modulating the sampling rate comprises increasing or decreasing the initial sampling rate. selecting a camera of the plurality of cameras based on first contextual information of the mobile device determined based on sensor input from one or more sensors of the mobile device, said first contextual information comprising orientation or motion information or sound directionality of the mobile device; causing the camera of the plurality of cameras to sample at an initial sampling rate; determining , after selecting the camera, a state of the user of the mobile device based on sensor input from the one or more sensors of the mobile device, said state comprising second contextual information about the user or environmental information relating to the user's environment; and modulating the sampling rate based on the determined state of the user, wherein modulating the sampling rate comprises increasing or decreasing the initial sampling rate.
A method for denoising a noisy image, said noisy image being two-dimensional, comprising: associating the noisy image with a potential V 2 of a semi-classical Schrödinger operator H 2,h , wherein h is a semi-classical parameter; discretizing the semi-classical Schrödinger operator H 2,h to form a discretized two-dimensional semi-classical Schrödinger operator H h ; decoupling rows and columns of the discretized two-dimensional semi-classical Schrödinger operator H h into decoupled rows A i,h and columns B j,h of one-dimensional operators; determining, for each pixel of the noisy image, all negative eigenvalues and associated l 2 normalized eigenvectors of the one-dimensional operators; constructing a denoised image, which is an approximation of the noisy image, based on the negative eigenvalues and associated l 2 normalized eigenvectors; and checking a stopping criterion for the denoised image; the method characterized by : updating a value of the semi-classical parameter h and then repeating the determining constructing and checking steps to construct a new denoised image, wherein the value of the semi-classical parameter h is updated by minimizing a cost function that is based on a norm of an estimation error and a norm of the denoised image. associating the noisy image with a potential V 2 of a semi-classical Schrödinger operator H 2,h , wherein h is a semi-classical parameter; discretizing the semi-classical Schrödinger operator H 2,h to form a discretized two-dimensional semi-classical Schrödinger operator H h ; decoupling rows and columns of the discretized two-dimensional semi-classical Schrödinger operator H h into decoupled rows A i,h and columns B j,h of one-dimensional operators; determining, for each pixel of the noisy image, all negative eigenvalues and associated l 2 normalized eigenvectors of the one-dimensional operators; constructing a denoised image, which is an approximation of the noisy image, based on the negative eigenvalues and associated l 2 normalized eigenvectors; and checking a stopping criterion for the denoised image; the method characterized by : updating a value of the semi-classical parameter h and then repeating the determining constructing and checking steps to construct a new denoised image, wherein the value of the semi-classical parameter h is updated by minimizing a cost function that is based on a norm of an estimation error and a norm of the denoised image. updating a value of the semi-classical parameter h and then repeating the determining constructing and checking steps to construct a new denoised image, wherein the value of the semi-classical parameter h is updated by minimizing a cost function that is based on a norm of an estimation error and a norm of the denoised image.
A cross-belt sorter , comprising a plurality of interconnected carriers which are drivable behind each other in a conveying direction (X), wherein each of the carriers is provided with a cross-belt for supporting a product, which cross-belt is drivable in a belt driving direction (Y) extending transversely to the conveying direction (X), wherein a pushing element is mounted to the cross-belt for pushing against a product on the cross-belt in the event that a product on the cross-belt tends to move with respect to the cross-belt in opposite direction of the belt driving direction (Y), wherein the pushing element has an upright orientation with respect to the cross-belt and is supported in the belt driving direction (Y) by a supporting member which is at least between opposite side edges of the cross-belt fixed to the pushing element and to the cross-belt at respective distances from an intersection between the pushing element and the cross-belt , characterized in that the pushing element and the supporting member are pivotably mounted to each other and to the cross-belt .
A composition suitable for intraarticular injection for treating pain comprising hyaluronan, wherein: the hyaluronan is present in said composition at a concentration of at least 4.5% w/v; the hyaluronan has an average molecular weight of between 1 and 2 million; the hyaluronan is not cross-linked and/or is substantially free of chemical modifications; wherein the composition is substantially free of (a) a protein; or (b) a glycosaminoglycan that is different from hyaluronan; or (c) hydroxypropyl methyl cellulose; or (d) a local anesthetic; optionally wherein the local anesthetic is lidocaine or bupivacaine; or (e) a molecule capable of scavenging free radicals, optionally wherein the molecule capable of scavenging free radicals is sorbitol; wherein the composition is sterile. the hyaluronan is present in said composition at a concentration of at least 4.5% w/v; the hyaluronan has an average molecular weight of between 1 and 2 million; the hyaluronan is not cross-linked and/or is substantially free of chemical modifications; wherein the composition is substantially free of (a) a protein; or (b) a glycosaminoglycan that is different from hyaluronan; or (c) hydroxypropyl methyl cellulose; or (d) a local anesthetic; optionally wherein the local anesthetic is lidocaine or bupivacaine; or (e) a molecule capable of scavenging free radicals, optionally wherein the molecule capable of scavenging free radicals is sorbitol; wherein the composition is sterile.