mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous polymer dispersion comprising, an emulsion polymer, a surfactant of formula (I), where each R is independently an alkyl group having from 1 to 4 carbon atoms; R 1 is hydrogen or 1-phenethyl-(R)p; R 2 is independently methyl or ethyl; m is 1 to 40; n is 0 to 40; p is 0, 1 or 2; and M represents hydrogen, an alkali metal cation, an alkaline earth metal cation, an ammonium residue, or an alkanolamine residue; and from 0.1% to 1.1%, by weight based on the dry weight of the emulsion polymer, of an epoxy silane of formula (II): where R 3 represents a bivalent organic group having a molecular weight of 200 or less, R 4 represents hydrogen or an alkyl, aryl, or aralkyl group having 1 to 20 carbon atoms, R 5 represents an alkyl group having 1 to 6 carbon atoms, and q is 1, 2 or 3. an emulsion polymer, a surfactant of formula (I), where each R is independently an alkyl group having from 1 to 4 carbon atoms; R 1 is hydrogen or 1-phenethyl-(R)p; R 2 is independently methyl or ethyl; m is 1 to 40; n is 0 to 40; p is 0, 1 or 2; and M represents hydrogen, an alkali metal cation, an alkaline earth metal cation, an ammonium residue, or an alkanolamine residue; and from 0.1% to 1.1%, by weight based on the dry weight of the emulsion polymer, of an epoxy silane of formula (II): where R 3 represents a bivalent organic group having a molecular weight of 200 or less, R 4 represents hydrogen or an alkyl, aryl, or aralkyl group having 1 to 20 carbon atoms, R 5 represents an alkyl group having 1 to 6 carbon atoms, and q is 1, 2 or 3.
An assembly for holding a tool, comprising: an attachment base configured to be operably coupled to a motor housing assembly; an attachment tube extending from a first terminal end to a second terminal end ; and characterized by : a damping member positioned between the attachment base and at least a portion of the attachment tube; wherein the tool is configured to extend through the attachment base and the attachment tube and torque is transferred to the tool from a motor within the motor housing assembly; wherein the attachment tube is coupled to the attachment base at the first terminal end ; wherein the second terminal end of the attachment tube extends from the attachment base. an attachment base configured to be operably coupled to a motor housing assembly; an attachment tube extending from a first terminal end to a second terminal end ; and characterized by : a damping member positioned between the attachment base and at least a portion of the attachment tube; wherein the tool is configured to extend through the attachment base and the attachment tube and torque is transferred to the tool from a motor within the motor housing assembly; wherein the attachment tube is coupled to the attachment base at the first terminal end ; wherein the second terminal end of the attachment tube extends from the attachment base. a damping member positioned between the attachment base and at least a portion of the attachment tube; wherein the tool is configured to extend through the attachment base and the attachment tube and torque is transferred to the tool from a motor within the motor housing assembly; wherein the attachment tube is coupled to the attachment base at the first terminal end ; wherein the second terminal end of the attachment tube extends from the attachment base.
A communication controller for allocating resources to communication channels used by networking devices sharing a communication medium ; and wherein the system is configured to: - obtain (301, 601, 603, 701-702) congestion information indicative of amounts of congestion on the respective communication channels; - allocate the resources such that the amounts of congestion converge. - obtain (301, 601, 603, 701-702) congestion information indicative of amounts of congestion on the respective communication channels; - allocate the resources such that the amounts of congestion converge.
Method for predicting an end temperature of a temperature change for temperature surveillance purposes, the method comprising the steps of: - inputting at least one measured temperature value into a first temperature prediction model , wherein the at least one measurement value is acquired by a temperature sensor, - calculating a first predicted temperature based on the first temperature prediction model , characterized by the steps of - inputting the at least one measured temperature value into a second temperature prediction model , - calculating a second predicted temperature based on the second temperature prediction model , and - calculating a final predicted temperature from the first predicted temperature and the second predicted temperature . - inputting at least one measured temperature value into a first temperature prediction model , wherein the at least one measurement value is acquired by a temperature sensor, - calculating a first predicted temperature based on the first temperature prediction model , characterized by the steps of - inputting the at least one measured temperature value into a second temperature prediction model , - calculating a second predicted temperature based on the second temperature prediction model , and - calculating a final predicted temperature from the first predicted temperature and the second predicted temperature .
A vehicle inspection system, comprising a portal frame for forming an inspection passage, the portal frame comprising: a cabin for installing a ray source; and two vertical support arms respectively telescopically arranged at both sides of the cabin to support the cabin; wherein the vertical support arm comprises a first segment and a second segment arranged in a vertical direction, the cabin being arranged on the second segment , and the second segment being movable relative to the first segment , the first segment is sleeved on the outer side of the second segment ; the vehicle inspection system being characterized by a vertical detecting arm disposed on a lateral side of the vertical support arm along the travelling direction of the vehicle, and a detector mounted on the vertical detecting arm , said detector being for receiving rays from the ray source to inspect the interior of the vehicle. a cabin for installing a ray source; and two vertical support arms respectively telescopically arranged at both sides of the cabin to support the cabin; wherein the vertical support arm comprises a first segment and a second segment arranged in a vertical direction, the cabin being arranged on the second segment , and the second segment being movable relative to the first segment , the first segment is sleeved on the outer side of the second segment ; the vehicle inspection system being characterized by a vertical detecting arm disposed on a lateral side of the vertical support arm along the travelling direction of the vehicle, and a detector mounted on the vertical detecting arm , said detector being for receiving rays from the ray source to inspect the interior of the vehicle.
An in vitro method for estimation of portal blood flow in a subject from a single blood or serum sample, the method comprising: receiving a sample consisting of a single blood or serum sample collected from a subject having, or suspected of having or developing, a hepatic disorder, wherein the single blood or serum sample is collected at one time point selected from 30 to 180 minutes following oral administration of a distinguishable cholate compound to the subject, wherein no other distinguishable cholate compound is intravenously co-administered, and wherein the sample has been collected from the subject at a single, specific time point after oral administration of the distinguishable cholate compound to the subject; measuring the concentration of the orally administered distinguishable cholate compound in the single blood or serum sample; and comparing the concentration of the distinguishable cholate compound in the single blood or serum sample from the subject to a distinguishable cholate compound concentration cutoff value or cutoffs of values established from a known patient population, wherein the concentration of distinguishable cholate compound in the sample compared to distinguishable cholate compound concentration cutoff value or cutoffs of values in the known patient population is an estimation of portal blood flow in the subject. receiving a sample consisting of a single blood or serum sample collected from a subject having, or suspected of having or developing, a hepatic disorder, wherein the single blood or serum sample is collected at one time point selected from 30 to 180 minutes following oral administration of a distinguishable cholate compound to the subject, wherein no other distinguishable cholate compound is intravenously co-administered, and wherein the sample has been collected from the subject at a single, specific time point after oral administration of the distinguishable cholate compound to the subject; measuring the concentration of the orally administered distinguishable cholate compound in the single blood or serum sample; and comparing the concentration of the distinguishable cholate compound in the single blood or serum sample from the subject to a distinguishable cholate compound concentration cutoff value or cutoffs of values established from a known patient population, wherein the concentration of distinguishable cholate compound in the sample compared to distinguishable cholate compound concentration cutoff value or cutoffs of values in the known patient population is an estimation of portal blood flow in the subject.
A method, performed at a videoconferencing multipoint control unit, MCU, for generating display content for a first endpoint communicating over a network with at least one other endpoint (102-105), the method comprising: generating a display layout automatically for the first endpoint based on attributes associated with video streams (219-221, 315, 316) received from the at least one other endpoint (102-105) and display-configuration information of the endpoint , wherein display-configuration information includes at least a number of display devices (206-208) at the first endpoint ; and mixing the received video streams (307-310, 315, 316) based on the display layout to generate one or more video streams (311-314, 315, 316) for the first endpoint , wherein generating the display layout automatically comprises using received positional attributes that identify the relative location of each camera that is a source of each of at least two of the video streams (307-310, 315, 316) received from another endpoint (102-105) to preserve a spatial relationship of the source cameras of the at least two of the video streams (307-310, 315, 316) received from the other endpoint (102-105), the display layout indicating the spatial arrangement in which the at least two of the received video streams (307-310, 315, 316) are to be displayed. generating a display layout automatically for the first endpoint based on attributes associated with video streams (219-221, 315, 316) received from the at least one other endpoint (102-105) and display-configuration information of the endpoint , wherein display-configuration information includes at least a number of display devices (206-208) at the first endpoint ; and mixing the received video streams (307-310, 315, 316) based on the display layout to generate one or more video streams (311-314, 315, 316) for the first endpoint , wherein generating the display layout automatically comprises using received positional attributes that identify the relative location of each camera that is a source of each of at least two of the video streams (307-310, 315, 316) received from another endpoint (102-105) to preserve a spatial relationship of the source cameras of the at least two of the video streams (307-310, 315, 316) received from the other endpoint (102-105), the display layout indicating the spatial arrangement in which the at least two of the received video streams (307-310, 315, 316) are to be displayed.
A method for determining a plurality of gain values, each gain value associated with one of a plurality of pull wires associated with an endoscope, the method comprising: for each direction in a plurality of directions: providing a first command to move the endoscope from a resting position to a target position in the direction by translating at least one of the pull wires using a surgical robotic system; receiving spatial data for the direction indicating an actual position of the endoscope having been moved in response to the first command; provide a second command to relax the endoscope using the surgical robotic system back to the resting position; determining the gain values based on the spatial data for the directions, at least one of the pull wires having a gain value different from unity; and storing the plurality of gain values. for each direction in a plurality of directions: providing a first command to move the endoscope from a resting position to a target position in the direction by translating at least one of the pull wires using a surgical robotic system; receiving spatial data for the direction indicating an actual position of the endoscope having been moved in response to the first command; provide a second command to relax the endoscope using the surgical robotic system back to the resting position; providing a first command to move the endoscope from a resting position to a target position in the direction by translating at least one of the pull wires using a surgical robotic system; receiving spatial data for the direction indicating an actual position of the endoscope having been moved in response to the first command; provide a second command to relax the endoscope using the surgical robotic system back to the resting position; determining the gain values based on the spatial data for the directions, at least one of the pull wires having a gain value different from unity; and storing the plurality of gain values.
A water-based coating composition comprising a coating film-forming resin (i) and a coloring pigment dispersion (ii), wherein the coating film-forming resin (i) comprises: an acrylic resin emulsion (A) having an average particle diameter (as measured according to the description) of 100 nm or less in an amount of 10 to 60% by mass in terms of a resin solid content of the coating film-forming resin (i), a water-soluble acrylic resin (B) in an amount of 5 to 40% by mass in terms of the resin solid content of the coating film-forming resin (i), and a melamine resin (C) in an amount of 20 to 40% by mass in terms of the resin solid content of the coating film-forming resin (i); and the coloring pigment dispersion (ii) comprises a coloring pigment (D) having a 90%-volume particle diameter (D90) measured by dynamic light scattering of 100 nm or less. wherein the coating film-forming resin (i) comprises: an acrylic resin emulsion (A) having an average particle diameter (as measured according to the description) of 100 nm or less in an amount of 10 to 60% by mass in terms of a resin solid content of the coating film-forming resin (i), a water-soluble acrylic resin (B) in an amount of 5 to 40% by mass in terms of the resin solid content of the coating film-forming resin (i), and a melamine resin (C) in an amount of 20 to 40% by mass in terms of the resin solid content of the coating film-forming resin (i); and an acrylic resin emulsion (A) having an average particle diameter (as measured according to the description) of 100 nm or less in an amount of 10 to 60% by mass in terms of a resin solid content of the coating film-forming resin (i), a water-soluble acrylic resin (B) in an amount of 5 to 40% by mass in terms of the resin solid content of the coating film-forming resin (i), and a melamine resin (C) in an amount of 20 to 40% by mass in terms of the resin solid content of the coating film-forming resin (i); and the coloring pigment dispersion (ii) comprises a coloring pigment (D) having a 90%-volume particle diameter (D90) measured by dynamic light scattering of 100 nm or less.
A method for sending a communication message, characterized in that the method comprises: logging in to , by a wearable device, a user account for a social application running on the wearable device, wherein the user account is an account used by the wearable device for performing communication with another device; receiving , by the wearable device, a communication message sent by a transfer device, wherein the communication message is sent to the social application logged in on the transfer device by a target device by using the social application logged in on the target device, and the communication message is forwarded to the wearable device by the transfer device when the transfer device meets a predetermined condition comprising that an interface currently displayed by the transfer device is not a display interface of the social application corresponding to the communication message; receiving , by the wearable device, a reply communication message inputted to reply to the communication message; and sending , by the wearable device, the reply communication message to the transfer device, wherein the reply communication message is forwarded to the target device by the transfer device through the social application on the transfer device. logging in to , by a wearable device, a user account for a social application running on the wearable device, wherein the user account is an account used by the wearable device for performing communication with another device; receiving , by the wearable device, a communication message sent by a transfer device, wherein the communication message is sent to the social application logged in on the transfer device by a target device by using the social application logged in on the target device, and the communication message is forwarded to the wearable device by the transfer device when the transfer device meets a predetermined condition comprising that an interface currently displayed by the transfer device is not a display interface of the social application corresponding to the communication message; receiving , by the wearable device, a reply communication message inputted to reply to the communication message; and sending , by the wearable device, the reply communication message to the transfer device, wherein the reply communication message is forwarded to the target device by the transfer device through the social application on the transfer device.
A method for power control parameter determination, comprising: receiving one higher-layer signaling, wherein the high-layer signaling comprises a correspondence between M transmission configuration indication, TCI, states and power control parameters, M being an integer and M >=1; wherein each of the M TCI states comprises: a quasi-co-location, QCL, type, a source reference signal, a reference serving cell, and a reference bandwidth part, BWP; each of the power control parameters comprises: a parameter used for determining a target receive power, a parameter used for determining a pathloss weight factor, a downlink reference signal used for pathloss measurement, and a parameter used for determining a closed-loop power control adjustment state; activating, via a media access control-control element, MAC CE, K TCI states from the M TCI states, K ≤ M; determining (S402) a target TCI state for an uplink signal from the K TCI states according to TCI-state indication information in downlink control information, DCI, wherein each indication value of the TCI-state indication information corresponds to one or more TCI states among the K TCI states, wherein the uplink signal is a physical uplink shared channel, PUSCH or an a periodic sounding reference signal, SRS; and determining (S404) a power control parameter of the uplink signal according to the target TCI state and the correspondence between M TCI states and power control parameters comprised in the higher-layer signaling. receiving one higher-layer signaling, wherein the high-layer signaling comprises a correspondence between M transmission configuration indication, TCI, states and power control parameters, M being an integer and M >=1; wherein each of the M TCI states comprises: a quasi-co-location, QCL, type, a source reference signal, a reference serving cell, and a reference bandwidth part, BWP; each of the power control parameters comprises: a parameter used for determining a target receive power, a parameter used for determining a pathloss weight factor, a downlink reference signal used for pathloss measurement, and a parameter used for determining a closed-loop power control adjustment state; activating, via a media access control-control element, MAC CE, K TCI states from the M TCI states, K ≤ M; determining (S402) a target TCI state for an uplink signal from the K TCI states according to TCI-state indication information in downlink control information, DCI, wherein each indication value of the TCI-state indication information corresponds to one or more TCI states among the K TCI states, wherein the uplink signal is a physical uplink shared channel, PUSCH or an a periodic sounding reference signal, SRS; and determining (S404) a power control parameter of the uplink signal according to the target TCI state and the correspondence between M TCI states and power control parameters comprised in the higher-layer signaling.
Method for computing the autonomy of a gas distribution assembly comprising a container containing gas and equipped with at least one gas filling indicator device and a gas flow rate indicator device at the output of the container, during which the following steps are carried out: - a step of recovery of at least one item of identification information on the container, - a step of acquisition, via a communicating mobile device , of at least one image to recover a first datum on a value indicated by the gas filling indicator device and a second datum on a value indicated by the flow rate indicator device, and - a step of communication of said at least one acquired image and of said at least one recovered item of identification information to a computation module configured to deduce therefrom a corresponding value of autonomy of said gas distribution assembly , said computation module comprising at least image processing means , during which the first datum and the second datum are recovered simultaneously by the acquisition of a single image , characterized in that the step of recovery of at least one item of identification information on the container is performed by the acquisition of the same image as that used to recover the first and second data. - a step of recovery of at least one item of identification information on the container, - a step of acquisition, via a communicating mobile device , of at least one image to recover a first datum on a value indicated by the gas filling indicator device and a second datum on a value indicated by the flow rate indicator device, and - a step of communication of said at least one acquired image and of said at least one recovered item of identification information to a computation module configured to deduce therefrom a corresponding value of autonomy of said gas distribution assembly , said computation module comprising at least image processing means ,