mhurhangee/patent-ind-claim-en huggingface dataset:
An extension assembly of an upper frame of a patient support deck comprising a guiding profile of the upper frame of the patient support deck arranged on at least one end of the upper frame of the patient support deck to be coupled to the extension assembly, the extension assembly comprising a telescopically moving connecting member firmly coupled to a bearing crossbar of a footboard under which a handle for controlling the extension assembly is located and where the telescopically moving connecting member slides into the guiding profile of the upper frame of the patient support deck, characterized in that the telescopically moving connecting member comprises a rocker arm in a hollow part of the telescopically moving connecting member , wherein the rocker arm comprises a latch on one end of the rocker arm , which passes through one retaining hole located on the telescopically moving connecting member and at least one retaining hole of the latch which is located in the guiding profile of the upper frame of the patient support deck, wherein the rocker arm further comprising at least one pivot , wherein the rocker arm turns over the pivot , wherein the handle is hung on an opposing end of the rocker arm , wherein the handle controls the entire extension assembly of the upper frame of the patient support deck.
A method comprising: associating , in a computer system, a first virtual controller with a first physical controller; allocating a first function to the first virtual controller , the allocation providing for performance of the first function using the first physical controller; associating a second virtual controller in the computer system with a second physical controller, wherein the first virtual controller and the second virtual controller are defined in a virtual space generated by the computer system; allocating a second function to the second virtual controller ; and detecting a predefined gesture performed using motions of the first physical controller, characterised in that in response to detecting the gesture, the first function is de-allocated from the first virtual controller , the first function is allocated to the second virtual controller , and the second function is de-allocated from the second virtual controller , and the second function is allocated to the first virtual controller . associating , in a computer system, a first virtual controller with a first physical controller; allocating a first function to the first virtual controller , the allocation providing for performance of the first function using the first physical controller; associating a second virtual controller in the computer system with a second physical controller, wherein the first virtual controller and the second virtual controller are defined in a virtual space generated by the computer system; allocating a second function to the second virtual controller ; and detecting a predefined gesture performed using motions of the first physical controller, characterised in that in response to detecting the gesture, the first function is de-allocated from the first virtual controller , the first function is allocated to the second virtual controller , and the second function is de-allocated from the second virtual controller , and the second function is allocated to the first virtual controller .
Method of manufacturing an elongated curved article having a shaft and a functional head section , the method comprising the steps of: a) providing a dimensionally stable core mandrel , wherein the core mandrel substantially extends from a grip end of the shaft to an outer end of the functional head section ; b) overlaying first reinforcing fibers onto the core mandrel to form one or more first wall parts ; c) providing at least one shaping element to the overlaid core mandrel ; d) overlaying second reinforcing fibers onto the core mandrel and the at least one shaping element to form one or more second wall parts (41, 41-1); e) providing a matrix material and consolidating the matrix material; wherein the core mandrel is provided to form an elongated curved article having a well defined inner cavity, wherein the method further comprises f) removing the core mandrel or a part of the core mandrel after step e) to form the inner cavity, wherein the inner cavity substantially extends from a grip end of the shaft to an outer end of the functional head section , and g) providing the inner cavity with at least one weight distributing element of which a cross-sectional dimension is about equal to a cross-sectional dimension of the inner cavity, wherein the at least one weight distributing element has a relatively low stiffness to be able to accommodate a curvature in the elongated article , and wherein a dimension is considered about equal to another dimension when deviating less than 10 % from the other dimension. a) providing a dimensionally stable core mandrel , wherein the core mandrel substantially extends from a grip end of the shaft to an outer end of the functional head section ; b) overlaying first reinforcing fibers onto the core mandrel to form one or more first wall parts ; c) providing at least one shaping element to the overlaid core mandrel ; d) overlaying second reinforcing fibers onto the core mandrel and the at least one shaping element to form one or more second wall parts (41, 41-1); e) providing a matrix material and consolidating the matrix material;
The polycyclic aromatic hydrocarbon derivatives, represented by the following general formula (B): wherein X is sulphur; R independently represents an aromatic group and/or an aliphatic group; p is an integer of 1 to 2; q and s are independently integers of 1 to 4; Y 1 , Y 2 , and Y 3 independently represent a hydrogen atom, a deuterium atom, a fluorine atom, a chlorine atom, a bromine atom, OH, a carboxylic acid group, a glycol, an alkoxy, a thioalkoxy, an amino, an acetate, an amide, a thioamide, a thioester, an azo, a silyl group, an alkylated nitrogen atom, a cyano group, a nitro group, an alkyl group (e.g. branched or straight chain alkyl group) and/or an aryl group. wherein X is sulphur; R independently represents an aromatic group and/or an aliphatic group; p is an integer of 1 to 2; q and s are independently integers of 1 to 4; Y 1 , Y 2 , and Y 3 independently represent a hydrogen atom, a deuterium atom, a fluorine atom, a chlorine atom, a bromine atom, OH, a carboxylic acid group, a glycol, an alkoxy, a thioalkoxy, an amino, an acetate, an amide, a thioamide, a thioester, an azo, a silyl group, an alkylated nitrogen atom, a cyano group, a nitro group, an alkyl group (e.g. branched or straight chain alkyl group) and/or an aryl group.
A method for manufacturing a filler for dental glass ionomer cements comprising: binding a carboxylic acid having unsaturated double bond(s) to an inorganic powder whose surface is treated with a silane coupling agent having unsaturated double bond(s).
Valve having a push-push actuation mechanism which has an actuation element which, at its free end , forms a cap interface for a covering cap , wherein the valve has a main body which defines a fitting interface for a fitting , wherein the actuation element is guided in a manner rotationally fixed relative to the main body and so as to be displaceable in an actuation direction , wherein the cap interface is formed such that the covering cap is able to be connected in n orientations relative to the actuation element , wherein the fitting interface is formed such that the main body is able to be inserted into the fitting in m orientations, and wherein the cap interface has discrete rotational symmetry of order n, characterized in that n≥m holds.
A method for supplying power to a low power multi-core microcontroller comprising a main core supporting an active mode and a standby core supporting a standby mode, the method comprising: generating a power supply voltage (V SMPS ) with a switched mode power supply (101-104) comprising a pulse width modulator, PWM, controller and a buck converter ; connecting the power supply voltage (V SMPS ) to the main core and the standby core during the active mode for the low power multi-core microcontroller so that the standby core receives a first supply voltage that tracks the power supply voltage (V SMPS ) during the active mode; characterized in that upon detecting the standby mode for the low power multi-core microcontroller , disconnecting the power supply voltage (V SMPS ) from the standby core , driving the power supply voltage (V SMPS ) to 0V, and connecting a low dropout, LDO, linear power supply voltage (V LDO ) to only the standby core during the standby mode for the multi-core low power microcontroller so that the standby core receives the LDO linear power supply voltage (V LDO ) as a second supply voltage during the standby mode. generating a power supply voltage (V SMPS ) with a switched mode power supply (101-104) comprising a pulse width modulator, PWM, controller and a buck converter ; connecting the power supply voltage (V SMPS ) to the main core and the standby core during the active mode for the low power multi-core microcontroller so that the standby core receives a first supply voltage that tracks the power supply voltage (V SMPS ) during the active mode; characterized in that upon detecting the standby mode for the low power multi-core microcontroller , disconnecting the power supply voltage (V SMPS ) from the standby core , driving the power supply voltage (V SMPS ) to 0V, and connecting a low dropout, LDO, linear power supply voltage (V LDO ) to only the standby core during the standby mode for the multi-core low power microcontroller so that the standby core receives the LDO linear power supply voltage (V LDO ) as a second supply voltage during the standby mode.
A method for detecting a preamble of a bi-phase modulation signal , the method comprising: sampling a bi-phase modulation signal at a sampling rate to generate consecutive digital samples of the bi-phase modulation signal ; iteratively shifting each of the consecutive digital samples into a first finite impulse response , FIR, filter comprising filter taps having tap weights comprising values associated with at least one period of the preamble of the bi-phase modulation signal ; generating an output from the first FIR filter based on mathematically evaluating a proper subset of the digital samples having been iteratively shifted into the first FIR filter relative to the respective proper subset of the filter taps at each iteration; shifting the output of the first FIR filter into a second FIR filter at each iteration to generate a second output; comparing the output from the second FIR filter with a threshold; and detecting the preamble of the bi-phase modulation signal for decoding of the bi-phase modulation signal in response to the output from the second FIR filter being greater than the threshold. sampling a bi-phase modulation signal at a sampling rate to generate consecutive digital samples of the bi-phase modulation signal ; iteratively shifting each of the consecutive digital samples into a first finite impulse response , FIR, filter comprising filter taps having tap weights comprising values associated with at least one period of the preamble of the bi-phase modulation signal ; generating an output from the first FIR filter based on mathematically evaluating a proper subset of the digital samples having been iteratively shifted into the first FIR filter relative to the respective proper subset of the filter taps at each iteration; shifting the output of the first FIR filter into a second FIR filter at each iteration to generate a second output; comparing the output from the second FIR filter with a threshold; and detecting the preamble of the bi-phase modulation signal for decoding of the bi-phase modulation signal in response to the output from the second FIR filter being greater than the threshold.
A data distribution control apparatus (CT) configured to transmit log data indicating an operation state of a facility (MK) including a plurality of apparatuses (RB1, RB2, RB3, RB4, RB5) to a data user via a network, the data distribution control apparatus comprising: a first storage medium configured to store time difference information in operation according to a positional relationship between the plurality of apparatuses (RB1, RB2, RB3, RB4, RB5); a log data acquisition unit configured to acquire log data indicating operation states of the plurality of apparatuses (RB1, RB2, RB3, RB4, RB5) and chronologically store log data in a second storage medium ; an estimation unit configured to, at an occurrence of a failure in a first apparatus included in the plurality of apparatuses(RB1, RB2, RB3, RB4, RB5), estimate, based on an occurrence timing of the failure and the time difference information in operation, an operation period associated with the occurrence of the failure, of a second apparatus included in the plurality of apparatuses (RB1, RB2, RB3, RB4, RB5) and having an operational relevance to the first apparatus; and a transmission control unit configured to read from the second storage medium , as a distribution object, the log data corresponding to the estimated operation period from among log data indicating an operation state of the second apparatus, and transmit the read log data to the data user via the network. a first storage medium configured to store time difference information in operation according to a positional relationship between the plurality of apparatuses (RB1, RB2, RB3, RB4, RB5); a log data acquisition unit configured to acquire log data indicating operation states of the plurality of apparatuses (RB1, RB2, RB3, RB4, RB5) and chronologically store log data in a second storage medium ; an estimation unit configured to, at an occurrence of a failure in a first apparatus included in the plurality of apparatuses(RB1, RB2, RB3, RB4, RB5), estimate, based on an occurrence timing of the failure and the time difference information in operation, an operation period associated with the occurrence of the failure, of a second apparatus included in the plurality of apparatuses (RB1, RB2, RB3, RB4, RB5) and having an operational relevance to the first apparatus; and a transmission control unit configured to read from the second storage medium , as a distribution object, the log data corresponding to the estimated operation period from among log data indicating an operation state of the second apparatus, and transmit the read log data to the data user via the network.
A laundry detergent composition, comprising: a) from 4 to 50 wt.%, preferably from 4 to 40 wt.% of surfactant; wherein from 50 to 100 wt.%, preferably from 60 to 100 wt.%, more preferably from 80 to 100 wt.%, even more preferably from 90 to 100 wt.%, most preferably 100 wt.% of the surfactant is an edible surfactant; wherein the edible surfactant is an organic acid derivative of mono- and di- glycerides of the form:- wherein one or two, of R 1 , R 2 and R 3 are independently selected from an acyl group of the formula R 4 CO-; where R 4 is a linear or branched, saturated or mon-unsaturated C 9 to C 21 alkyl chain; wherein one or two, of R 1 , R 2 and R 3 is selected from an organic acid of generic formulation (HOOC) n XCO-; wherein X is saturated or monounsaturated organic group containing 1 to 6 carbon atoms and n = 1 to 3; wherein one or none of R 1 , R 2 and R 3 is selected from H. a) from 4 to 50 wt.%, preferably from 4 to 40 wt.% of surfactant; wherein from 50 to 100 wt.%, preferably from 60 to 100 wt.%, more preferably from 80 to 100 wt.%, even more preferably from 90 to 100 wt.%, most preferably 100 wt.% of the surfactant is an edible surfactant; wherein the edible surfactant is an organic acid derivative of mono- and di- glycerides of the form:- wherein one or two, of R 1 , R 2 and R 3 are independently selected from an acyl group of the formula R 4 CO-; where R 4 is a linear or branched, saturated or mon-unsaturated C 9 to C 21 alkyl chain; wherein one or two, of R 1 , R 2 and R 3 is selected from an organic acid of generic formulation (HOOC) n XCO-; wherein X is saturated or monounsaturated organic group containing 1 to 6 carbon atoms and n = 1 to 3; wherein one or none of R 1 , R 2 and R 3 is selected from H. wherein from 50 to 100 wt.%, preferably from 60 to 100 wt.%, more preferably from 80 to 100 wt.%, even more preferably from 90 to 100 wt.%, most preferably 100 wt.% of the surfactant is an edible surfactant; wherein the edible surfactant is an organic acid derivative of mono- and di- glycerides of the form:- wherein one or two, of R 1 , R 2 and R 3 are independently selected from an acyl group of the formula R 4 CO-; where R 4 is a linear or branched, saturated or mon-unsaturated C 9 to C 21 alkyl chain; wherein one or two, of R 1 , R 2 and R 3 is selected from an organic acid of generic formulation (HOOC) n XCO-; wherein X is saturated or monounsaturated organic group containing 1 to 6 carbon atoms and n = 1 to 3; wherein one or none of R 1 , R 2 and R 3 is selected from H.
An animation implementation method, carried out by a terminal , the terminal comprising at least a memory and a processor, the method comprising: performing motion detection on an object in each video window of multiple video windows in a video interactive interface ; when motion information of an object in a target video window is detected, determining animation information and an animation movement direction according to the motion information ; determining a termination video window from the multiple video windows in the video interactive interface according to the animation movement direction ; and performing animation display in the termination video window according to the animation information , wherein the determining the termination video window from the multiple video windows in the video interactive interface according to the animation movement direction comprises: determining a window judgment area of a candidate video window, wherein the candidate video window is a video window except the target video window in the video interactive interface; drawing a straight line in the video interactive interface according to the animation movement direction; determining a target window judgment area which is first reached when drawing the straight line; and taking a candidate video window corresponding to the target window judgment area as the termination video window. performing motion detection on an object in each video window of multiple video windows in a video interactive interface ; when motion information of an object in a target video window is detected, determining animation information and an animation movement direction according to the motion information ; determining a termination video window from the multiple video windows in the video interactive interface according to the animation movement direction ; and performing animation display in the termination video window according to the animation information , wherein the determining the termination video window from the multiple video windows in the video interactive interface according to the animation movement direction comprises: determining a window judgment area of a candidate video window, wherein the candidate video window is a video window except the target video window in the video interactive interface; drawing a straight line in the video interactive interface according to the animation movement direction; determining a target window judgment area which is first reached when drawing the straight line; and taking a candidate video window corresponding to the target window judgment area as the termination video window. determining a window judgment area of a candidate video window, wherein the candidate video window is a video window except the target video window in the video interactive interface; drawing a straight line in the video interactive interface according to the animation movement direction; determining a target window judgment area which is first reached when drawing the straight line; and taking a candidate video window corresponding to the target window judgment area as the termination video window.
A method for preparing an assembly comprising a plurality of integrated capsules, the method comprising the steps of: (i) providing a first body comprising a body reagent, wherein the body reagent is, or is contained within, a body medium; (ii) contacting the first body with a bulk medium comprising a bulk reagent, and permitting a first capsule shell to form at the boundary between the body medium and the bulk medium, thereby providing a first capsule, wherein the bulk reagent has a larger molecular weight than the body reagent, and wherein the shell comprises a product of a reaction involving the body reagent and the bulk reagent, such as ionic cross-linking; (iii) providing a second body comprising a body reagent, wherein the body reagent is, or is contained within, a body medium; (iv) contacting the second body with a bulk medium comprising a bulk reagent, and permitting a second capsule shell to form at the boundary between the second body medium and the bulk medium, thereby providing a second capsule, wherein the shell comprises a product of a reaction involving the body reagent and the bulk reagent, such as ionic cross-linking; and (v) permitting the first and second capsule shells to make contact and integrate within the bulk medium to become a single structure which binds the first and second capsules together by a gel phase, thereby forming an assembly in which each capsule is bound to at least one adjacent capsule by the integrated shell structure; wherein the first and second capsule shells are formed in a reverse-spherification process. (i) providing a first body comprising a body reagent, wherein the body reagent is, or is contained within, a body medium; (ii) contacting the first body with a bulk medium comprising a bulk reagent, and permitting a first capsule shell to form at the boundary between the body medium and the bulk medium, thereby providing a first capsule, wherein the bulk reagent has a larger molecular weight than the body reagent, and wherein the shell comprises a product of a reaction involving the body reagent and the bulk reagent, such as ionic cross-linking; (iii) providing a second body comprising a body reagent, wherein the body reagent is, or is contained within, a body medium; (iv) contacting the second body with a bulk medium comprising a bulk reagent, and permitting a second capsule shell to form at the boundary between the second body medium and the bulk medium, thereby providing a second capsule, wherein the shell comprises a product of a reaction involving the body reagent and the bulk reagent, such as ionic cross-linking; and (v) permitting the first and second capsule shells to make contact and integrate within the bulk medium to become a single structure which binds the first and second capsules together by a gel phase, thereby forming an assembly in which each capsule is bound to at least one adjacent capsule by the integrated shell structure; wherein the first and second capsule shells are formed in a reverse-spherification process.