mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing labeled glycosylamines from a complex matrix, comprising the steps of: denaturing glycoproteins in a complex matrix by mixing the complex matrix with a denaturing solution comprising a buffer and a surfactant and heating to form a denatured complex matrix mixture; diluting and loading the denatured complex matrix mixture onto a MWCO filtration device and filtering the denatured complex matrix mixture; adding a glycosidase enzymatic solution comprising a glycosidase enzyme and a non-nucleophilic buffer compound onto the MWCO filtration device and incubating the MWCO filtration device, wherein the glycoproteins on the MWCO filtration device are deglycosylated and form a deglycosylated complex matrix mixture comprising glycosylamines; collecting glycosylamines released from the MWCO filtration device; and derivatizing glycosylamines with a rapid tagging reagent to form a plurality of labeled glycosylamines. denaturing glycoproteins in a complex matrix by mixing the complex matrix with a denaturing solution comprising a buffer and a surfactant and heating to form a denatured complex matrix mixture; diluting and loading the denatured complex matrix mixture onto a MWCO filtration device and filtering the denatured complex matrix mixture; adding a glycosidase enzymatic solution comprising a glycosidase enzyme and a non-nucleophilic buffer compound onto the MWCO filtration device and incubating the MWCO filtration device, wherein the glycoproteins on the MWCO filtration device are deglycosylated and form a deglycosylated complex matrix mixture comprising glycosylamines; collecting glycosylamines released from the MWCO filtration device; and derivatizing glycosylamines with a rapid tagging reagent to form a plurality of labeled glycosylamines.
A system comprising: at least one processor ; a storage device comprising instructions , which when executed by the at least one processor, configure the processor to perform operations comprising: receiving implicitly collected computer interaction data of a user from a computing device , the implicitly collected computer interaction data including keyboard inputs, the implicitly collected computer interaction data having been collected through a user's general computing sessions without prompting the user to explicitly perform a function for testing purposes; accessing a data store of previously collected computer interaction data, the previously collected computer interaction data correlated with sleep patterns of other users; comparing the users implicitly collected computer interaction data to the previously collected computer interaction data; and inferring the user's sleep pattern based on the comparing; wherein inferring the user's sleep pattern based on the comparing includes: inferring based on the time between successive keyboard inputs. at least one processor ; a storage device comprising instructions , which when executed by the at least one processor, configure the processor to perform operations comprising: receiving implicitly collected computer interaction data of a user from a computing device , the implicitly collected computer interaction data including keyboard inputs, the implicitly collected computer interaction data having been collected through a user's general computing sessions without prompting the user to explicitly perform a function for testing purposes; accessing a data store of previously collected computer interaction data, the previously collected computer interaction data correlated with sleep patterns of other users; comparing the users implicitly collected computer interaction data to the previously collected computer interaction data; and inferring the user's sleep pattern based on the comparing; wherein inferring the user's sleep pattern based on the comparing includes: inferring based on the time between successive keyboard inputs. receiving implicitly collected computer interaction data of a user from a computing device , the implicitly collected computer interaction data including keyboard inputs, the implicitly collected computer interaction data having been collected through a user's general computing sessions without prompting the user to explicitly perform a function for testing purposes; accessing a data store of previously collected computer interaction data, the previously collected computer interaction data correlated with sleep patterns of other users; comparing the users implicitly collected computer interaction data to the previously collected computer interaction data; and inferring the user's sleep pattern based on the comparing; wherein inferring the user's sleep pattern based on the comparing includes: inferring based on the time between successive keyboard inputs.
An embedded electrode substrate for a transparent light emitting device display, comprising: a transparent substrate ; an adhesive layer provided on the transparent substrate ; and a wiring electrode portion and a light emitting device mounted portion embedded in the adhesive layer , wherein the wiring electrode portion comprises a first metal foil pattern and comprises a blackening layer on both an upper surface and a side surface of the first metal foil pattern, and the light emitting device mounted portion comprises a second metal foil pattern and comprises the blackening layer only on the side surface of the second metal foil pattern, wherein the line width of the first metal foil pattern is 30 μm or less, wherein the line width of the second metal foil pattern is 100 μm or more, wherein the first metal foil pattern has an embedding degree of 90% or more into the adhesive layer , wherein the embedding degree means a ratio of an upper area of the first metal foil pattern embedded in the adhesive layer based on the entire upper area of the first metal foil pattern. a transparent substrate ; an adhesive layer provided on the transparent substrate ; and a wiring electrode portion and a light emitting device mounted portion embedded in the adhesive layer , wherein the wiring electrode portion comprises a first metal foil pattern and comprises a blackening layer on both an upper surface and a side surface of the first metal foil pattern, and the light emitting device mounted portion comprises a second metal foil pattern and comprises the blackening layer only on the side surface of the second metal foil pattern, wherein the line width of the first metal foil pattern is 30 μm or less, wherein the line width of the second metal foil pattern is 100 μm or more, wherein the first metal foil pattern has an embedding degree of 90% or more into the adhesive layer , wherein the embedding degree means a ratio of an upper area of the first metal foil pattern embedded in the adhesive layer based on the entire upper area of the first metal foil pattern.
A circuit, comprising: a plurality of memory cells (C1, ..., CN), wherein each memory cell in said plurality of memory cells (C1, ..., CN) includes a phase-change memory storage element (E1) coupled in series with a respective current-modulating transistor (PH1) between a supply voltage node (V SUPPLY ) and a reference voltage node, the current-modulating transistors (PH1) being configured to receive a drive signal (DRV_GATE) at a control terminal thereof and to inject respective programming currents (I CELL ) into said respective phase-change memory storage elements (E1) as a function of said drive signal (DRV_GATE); a driver circuit configured to produce said drive signal (DRV_GATE) at a common control node (N C ), said common control node (N C ) being coupled to the control terminals of the current-modulating transistors (PH1) in the plurality of memory cells (C1, ..., CN), wherein said drive signal (DRV_GATE) modulates said programming currents (I CELL ) to produce SET programming current pulses and RESET programming current pulses; at least one current generator circuit (82 1 , 82 2 , ..., 82 M ) configured to inject a compensation current (I DRV_GATE ) into said common control node (N C ) in response to said current-modulating transistors (PH1) injecting said programming currents (I CELL ) into said respective phase-change memory storage elements (E1). a plurality of memory cells (C1, ..., CN), wherein each memory cell in said plurality of memory cells (C1, ..., CN) includes a phase-change memory storage element (E1) coupled in series with a respective current-modulating transistor (PH1) between a supply voltage node (V SUPPLY ) and a reference voltage node, the current-modulating transistors (PH1) being configured to receive a drive signal (DRV_GATE) at a control terminal thereof and to inject respective programming currents (I CELL ) into said respective phase-change memory storage elements (E1) as a function of said drive signal (DRV_GATE); a driver circuit configured to produce said drive signal (DRV_GATE) at a common control node (N C ), said common control node (N C ) being coupled to the control terminals of the current-modulating transistors (PH1) in the plurality of memory cells (C1, ..., CN), wherein said drive signal (DRV_GATE) modulates said programming currents (I CELL ) to produce SET programming current pulses and RESET programming current pulses; at least one current generator circuit (82 1 , 82 2 , ..., 82 M ) configured to inject a compensation current (I DRV_GATE ) into said common control node (N C ) in response to said current-modulating transistors (PH1) injecting said programming currents (I CELL ) into said respective phase-change memory storage elements (E1).
A component forming at least two inductances , the component comprising: - a structure made of a magnetically conductive material, comprising: a base , a cover , at least a first leg extending continuously between the base and the cover and at least two second legs , each second leg extending between the base and the cover so that a magnetic flux circulating between the base and the cover via this second leg crosses at least one air gap, and - an electrically conductive element , defining an electrical input for the component and an electrical output for the component, the electrically conductive element and the structure cooperating so as to define at least two inductances , each inductance exhibiting a magnetic flux circulating between the base and the cover : - in a first leg , and - in a second leg dedicated to said inductance , wherein the base and the cover do not belong to the same one-piece part. - a structure made of a magnetically conductive material, comprising: a base , a cover , at least a first leg extending continuously between the base and the cover and at least two second legs , each second leg extending between the base and the cover so that a magnetic flux circulating between the base and the cover via this second leg crosses at least one air gap, and - an electrically conductive element , defining an electrical input for the component and an electrical output for the component, the electrically conductive element and the structure cooperating so as to define at least two inductances , each inductance exhibiting a magnetic flux circulating between the base and the cover : - in a first leg , and - in a second leg dedicated to said inductance , wherein the base and the cover do not belong to the same one-piece part. - in a first leg , and - in a second leg dedicated to said inductance ,
A wearable device , the wearable device comprising: a controller comprising a processor; an inflatable body configured to be mounted to a torso of a user ; a first sensing device , wherein the first sensing device comprises a first sensor and a first actuator coupling the first sensor to the inflatable body ; and a memory storing computer-readable instructions that, when executed by the processor, cause the wearable device to: inflate (S1) the inflatable body from a first state of the inflatable body to a second state of the inflatable body ; actuate (S2) the first actuator from a first state of the first actuator to a second state of the first actuator , wherein actuating (S2) the first actuator from the first state of the first actuator to the second state of the first actuator reduces a volume of a first air gap between the torso and the first sensor ; and while the inflatable body is in the second state of the inflatable body and the first actuator is in the second state of the first actuator , receive (S4) a first signal from the first sensor . a controller comprising a processor; an inflatable body configured to be mounted to a torso of a user ; a first sensing device , wherein the first sensing device comprises a first sensor and a first actuator coupling the first sensor to the inflatable body ; and a memory storing computer-readable instructions that, when executed by the processor, cause the wearable device to: inflate (S1) the inflatable body from a first state of the inflatable body to a second state of the inflatable body ; actuate (S2) the first actuator from a first state of the first actuator to a second state of the first actuator , wherein actuating (S2) the first actuator from the first state of the first actuator to the second state of the first actuator reduces a volume of a first air gap between the torso and the first sensor ; and while the inflatable body is in the second state of the inflatable body and the first actuator is in the second state of the first actuator , receive (S4) a first signal from the first sensor . inflate (S1) the inflatable body from a first state of the inflatable body to a second state of the inflatable body ; actuate (S2) the first actuator from a first state of the first actuator to a second state of the first actuator , wherein actuating (S2) the first actuator from the first state of the first actuator to the second state of the first actuator reduces a volume of a first air gap between the torso and the first sensor ; and while the inflatable body is in the second state of the inflatable body and the first actuator is in the second state of the first actuator , receive (S4) a first signal from the first sensor .
A method for displaying information in a vehicle, in which - list entries of a list are allocated to graphical objects and in a main view a partial amount of said graphical objects is displayed by a display device arranged in the vehicle, and - as a result of an input by means of an input device a control device modifies the graphical data such that the graphical objects of the displayed partial amount is modified, wherein - as a result of an input by means of an input device the control device changes to a configuration mode, in which it is determined which graphical objects are allocated to the partial amount, the graphical objects of which are displayed in the main view, characterized in that the display device comprises a display surface with a touch-sensitive surface and the input for the change to the configuration mode comprises a simultaneous touch of the touch-sensitive surface , wherein the touch-sensitive surface is touched both on a graphical object for a list entry as well as outside of such a graphical object - list entries of a list are allocated to graphical objects and in a main view a partial amount of said graphical objects is displayed by a display device arranged in the vehicle, and - as a result of an input by means of an input device a control device modifies the graphical data such that the graphical objects of the displayed partial amount is modified, - as a result of an input by means of an input device the control device changes to a configuration mode, in which it is determined which graphical objects are allocated to the partial amount, the graphical objects of which are displayed in the main view, characterized in that the display device comprises a display surface with a touch-sensitive surface and the input for the change to the configuration mode comprises a simultaneous touch of the touch-sensitive surface , wherein the touch-sensitive surface is touched both on a graphical object for a list entry as well as outside of such a graphical object
A multi-colored pixelated display comprising an image display element and a transparent display cover , wherein: the image display element comprises an array of display pixels arranged at a pixel pitch x and divided into a plurality of display sub-pixels associated with respective dedicated display color components; the display sub-pixels of an individual display pixel are associated with a dedicated display color component, one of which lies at a wavelength λ G between 490 nm and 570 nm; the transparent display cover comprises a display surface that is susceptible to marking and a sparkle reduction surface ; the sparkle reduction surface is positioned between the image display element and the display surface along an optical path of the pixelated display and is spaced from the image display element by an optical distance D ; the sparkle reduction surface comprises a micron grade diffraction element with a diffraction period T given by the equation T = λ G tan − 1 Δx D where 1 6 x ≤ Δx ≤ 1 2 x ; characterized in that the diffraction element of the sparkle reduction surface comprises periodic diffraction elements of depth b; and the diffraction element depth b and the diffraction element index of refraction n 1 are selected such that the phase modulation amplitude in reflection Φ R is an integer multiple of a wavelength λ G between 490 nm and 570 nm, where Φr=2n 1 b. the image display element comprises an array of display pixels arranged at a pixel pitch x and divided into a plurality of display sub-pixels associated with respective dedicated display color components; the display sub-pixels of an individual display pixel are associated with a dedicated display color component, one of which lies at a wavelength λ G between 490 nm and 570 nm; the transparent display cover comprises a display surface that is susceptible to marking and a sparkle reduction surface ; the sparkle reduction surface is positioned between the image display element and the display surface along an optical path of the pixelated display and is spaced from the image display element by an optical distance D ; the sparkle reduction surface comprises a micron grade diffraction element with a diffraction period T given by the equation T = λ G tan − 1 Δx D where 1 6 x ≤ Δx ≤ 1 2 x ; characterized in that the diffraction element of the sparkle reduction surface comprises periodic diffraction elements of depth b; and the diffraction element depth b and the diffraction element index of refraction n 1 are selected such that the phase modulation amplitude in reflection Φ R is an integer multiple of a wavelength λ G between 490 nm and 570 nm, where Φr=2n 1 b.
An articulation part for table , said articulation part being configured to allow the rotation of a plate of a table relative to a base of the table , the articulation part comprising at least one first portion intended to be fixed on the plate of the table , and a second portion intended to be fixed on the base of the table , the first portion of the articulation part being configured to be movable in rotation with respect to the second portion along a pivot axis , the first portion moving between at least one use position in which the first portion is facing the second portion and a storage position in which the first portion extends in a direction secant, and preferably perpendicular, to the second portion , the articulation part comprising at least one damping stop arranged partially between the first portion and the second portion of the articulation part , at least one portion of the stop being configured to bear against the second portion when the first portion is in its use position, characterized in that the first portion of the articulation part comprises a first face oriented towards the second portion and a second face intended to be secured to the plate of a table , the second face of the first portion of the articulation part comprising a housing in which the damping stop is housed.
A method comprising the detection of magnetic particles at a sensing surface of a sample chamber of a sensor device , wherein said sample chamber is equipped with reagents before a sample is introduced, said method further comprising: - introducing a sample into the sample chamber ; - incubating said sample for an incubation period (T I ) with reagents comprising magnetic particles ; - retaining said magnetic particles within the sample chamber during the incubation period (T I ) while keeping them away from the sensing surface by a magnetic field (B), wherein the method is characterized in that a reference measurement (t R , S R ) is made at the sensing surface during the incubation period (T I ), wherein the method is further characterized in that the reference measurement is made at the sensing surface during the incubation period (T I ) after about 70% of the incubation period (T I ). - introducing a sample into the sample chamber ; - incubating said sample for an incubation period (T I ) with reagents comprising magnetic particles ; - retaining said magnetic particles within the sample chamber during the incubation period (T I ) while keeping them away from the sensing surface by a magnetic field (B), wherein the method is characterized in that a reference measurement (t R , S R ) is made at the sensing surface during the incubation period (T I ), wherein the method is further characterized in that the reference measurement is made at the sensing surface during the incubation period (T I ) after about 70% of the incubation period (T I ).
Method for testing a rivet , wherein the rivet is conveyed from a rivet filling station along a transport section in the direction of a riveting machine during operation of the riveting machine ; wherein on the transport section the rivet is measured so as to determine a rivet geometry of the rivet ; wherein the rivet is transported from the rivet filling station through a hose assembly in the direction of the riveting machine ; wherein the rivet is driven in the hose assembly by compressed air, characterized in that a transport hose provides the transport section; the hose assembly has a testing portion , the transport section leading through the latter, and the rivet being measured by an optical measuring method in said testing portion ; and a measuring chamber (20a, b) for the air-tight enclosure is disposed about the testing portion . wherein on the transport section the rivet is measured so as to determine a rivet geometry of the rivet ; wherein the rivet is transported from the rivet filling station through a hose assembly in the direction of the riveting machine ; wherein the rivet is driven in the hose assembly by compressed air, characterized in that a transport hose provides the transport section; the hose assembly has a testing portion , the transport section leading through the latter, and the rivet being measured by an optical measuring method in said testing portion ; and a measuring chamber (20a, b) for the air-tight enclosure is disposed about the testing portion .