mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing feedback regarding motion of a rotary shaver performed by a user, the method comprising the steps of: receiving by means of a processing unit , during at least one time interval, at least one motion type determined for the motion of the rotary shaver performed by the user, wherein the motion type is selected from a set of predefined motion types that comprises small rotational motion and one or more other predefined motion types; determining by means of the processing unit a degree of occurrence in the time interval of each of the motion types in the set of predefined motion types based on the at least one motion type received during the time interval; determining by means of the processing unit from the determined degree of occurrence of each of the motion types in the set of predefined motion types which motion type has a highest degree of occurrence in the time interval; and providing by means of a feedback unit feedback to the user to increase a degree of occurrence of small rotational motion of the rotary shaver if the determined motion type having the highest degree of occurrence is one of the other predefined motion types and is not a no motion motion type. receiving by means of a processing unit , during at least one time interval, at least one motion type determined for the motion of the rotary shaver performed by the user, wherein the motion type is selected from a set of predefined motion types that comprises small rotational motion and one or more other predefined motion types; determining by means of the processing unit a degree of occurrence in the time interval of each of the motion types in the set of predefined motion types based on the at least one motion type received during the time interval; determining by means of the processing unit from the determined degree of occurrence of each of the motion types in the set of predefined motion types which motion type has a highest degree of occurrence in the time interval; and providing by means of a feedback unit feedback to the user to increase a degree of occurrence of small rotational motion of the rotary shaver if the determined motion type having the highest degree of occurrence is one of the other predefined motion types and is not a no motion motion type.
A method for forming a hard coating layer which comprises: washing a substrate; installing the washed substrate in a vacuum equipment, and evacuating the chamber of the vacuum equipment; cleaning the substrate; forming an oblique coating layer on the substrate; and forming a vertical coating layer, vertically to the substrate, on the oblique coating layer by applying bias-voltage to the substrate after forming the oblique coating layer, wherein the oblique coating layer and the vertical coating layer are comprised of titanium-nitride (TiN). washing a substrate; installing the washed substrate in a vacuum equipment, and evacuating the chamber of the vacuum equipment; cleaning the substrate; forming an oblique coating layer on the substrate; and forming a vertical coating layer, vertically to the substrate, on the oblique coating layer by applying bias-voltage to the substrate after forming the oblique coating layer, wherein the oblique coating layer and the vertical coating layer are comprised of titanium-nitride (TiN).
A session message display method for an electronic device, comprising: receiving , at the electronic device, a first session message input by a first user for at least one second user on a session page, and sending the first session message to an instant messaging application client of each second user of the at least one second user; in response to a success of sending the first session message and the first session message being in an unread state, generating a message display content in a message entry of a session list page of the first user, wherein the message is in an unread state if at least one of the at least one second user has not read the message, and wherein the message display content comprises the first session message and an unread identifier, and the message entry is associated with the at least one second user; in response to the first session message being in a read state, updating the message display content by updating the unread identifier into a read identifier, wherein the message is in a read state if each second user of the at least one second user has read the message; and in a case of receiving an emoji icon replied by the at least one second user for the first session message, updating the message display content by replacing the read identifier with the emoji icon. receiving , at the electronic device, a first session message input by a first user for at least one second user on a session page, and sending the first session message to an instant messaging application client of each second user of the at least one second user; in response to a success of sending the first session message and the first session message being in an unread state, generating a message display content in a message entry of a session list page of the first user, wherein the message is in an unread state if at least one of the at least one second user has not read the message, and wherein the message display content comprises the first session message and an unread identifier, and the message entry is associated with the at least one second user; in response to the first session message being in a read state, updating the message display content by updating the unread identifier into a read identifier, wherein the message is in a read state if each second user of the at least one second user has read the message; and in a case of receiving an emoji icon replied by the at least one second user for the first session message, updating the message display content by replacing the read identifier with the emoji icon.
A composition comprising a source of metal ions and one leveling agent selected from (i) a polyaminoamide of formula Ia E 1 -(A) j -E 2 (Ia) or derivatives thereof obtainable by complete or partial protonation, wherein A is a polymer fragment of formula I D 1 is selected from a chemical bond or a C 1 -C 20 -alkanediyl group, D 2 , D 3 are independently selected from (CH 2 ) m , D 4 is, for each repeating unit 1 to p or r independently, selected from a linear or branched C 1 -C 12 alkanediyl, which may optionally be interrupted by O or S, R 1 is selected from H or methyl, E 1 , E 2 are independently selected from H, OH, alkoxy, halogen, H-{NH-[D 4 -NR 1 ] k -D 4 -NH} or R 1 -{NR 1 -[D 4 -NR 1 ] k -D 4 -NH}, m is an integer from 1 to 6, k is 1 or 2, and j is an integer from 5 to 100, p, r are independently integers from 0 to 10. A is a polymer fragment of formula I D 1 is selected from a chemical bond or a C 1 -C 20 -alkanediyl group, D 2 , D 3 are independently selected from (CH 2 ) m , D 4 is, for each repeating unit 1 to p or r independently, selected from a linear or branched C 1 -C 12 alkanediyl, which may optionally be interrupted by O or S, R 1 is selected from H or methyl, E 1 , E 2 are independently selected from H, OH, alkoxy, halogen, H-{NH-[D 4 -NR 1 ] k -D 4 -NH} or R 1 -{NR 1 -[D 4 -NR 1 ] k -D 4 -NH}, m is an integer from 1 to 6, k is 1 or 2, and j is an integer from 5 to 100, p, r are independently integers from 0 to 10.
A method for wireless communication performed at a first wireless device , comprising: transmitting , to a second wireless device , a directional channel reservation request on a beamformed transmit beam over a shared radio frequency spectrum band, the directional channel reservation request including a first expected response time duration for the first wireless device to receive a channel reservation response from the second wireless device in response to the directional channel reservation request ; receiving the channel reservation response from the second wireless device during the first expected response time duration ; transmitting , to the second wireless device , a directional transmission , using a beamformed transmit beam, according to the directional channel reservation request ; and transmitting a second channel reservation response following the directional transmission , the second channel reservation response including a second expected response time duration for the first wireless device to receive an acknowledgement in response to the directional transmission . transmitting , to a second wireless device , a directional channel reservation request on a beamformed transmit beam over a shared radio frequency spectrum band, the directional channel reservation request including a first expected response time duration for the first wireless device to receive a channel reservation response from the second wireless device in response to the directional channel reservation request ; receiving the channel reservation response from the second wireless device during the first expected response time duration ; transmitting , to the second wireless device , a directional transmission , using a beamformed transmit beam, according to the directional channel reservation request ; and transmitting a second channel reservation response following the directional transmission , the second channel reservation response including a second expected response time duration for the first wireless device to receive an acknowledgement in response to the directional transmission .
A vehicle rear lamp comprising: - a casing ; - a plurality of light sources disposed in the casing ; - an electrical power supply circuit of the light sources housed in the casing and intended to be linked to a bundle of cables of the vehicle , said electrical power supply circuit comprising a plurality of first conductors each dedicated to one of the light sources and a second conductor that constitutes a ground conductor; characterized in that it further comprises: - at least two output terminals , preferably at least four output terminals, each output terminal being arranged in a wall of the casing , each output terminal comprising pins which are configured to be linked to an accessory of the vehicle , outside the casing ; - an electronic card which is housed in the casing and which includes: - power supply tracks , one power supply track dedicated to each of the output terminals linking the pins of said output terminal to at least one of the first conductors , inside the casing , - and a control unit configured to control each output terminal depending on at least one data received by said control unit . - a casing ; - a plurality of light sources disposed in the casing ; - an electrical power supply circuit of the light sources housed in the casing and intended to be linked to a bundle of cables of the vehicle , said electrical power supply circuit comprising a plurality of first conductors each dedicated to one of the light sources and a second conductor that constitutes a ground conductor; - at least two output terminals , preferably at least four output terminals, each output terminal being arranged in a wall of the casing , each output terminal comprising pins which are configured to be linked to an accessory of the vehicle , outside the casing ; - an electronic card which is housed in the casing and which includes: - power supply tracks , one power supply track dedicated to each of the output terminals linking the pins of said output terminal to at least one of the first conductors , inside the casing , - and a control unit configured to control each output terminal depending on at least one data received by said control unit . - power supply tracks , one power supply track dedicated to each of the output terminals linking the pins of said output terminal to at least one of the first conductors , inside the casing , - and a control unit configured to control each output terminal depending on at least one data received by said control unit .
A method of forming a gum roll , the method comprising: providing a strip stock having a first end , a first surface , and a second surface opposite to the first surface ; coupling the first end to a core fixture so the first surface interfaces with the core fixture ; rotating the core fixture to wind the strip stock onto the core fixture such that the first surface interfaces with the second surface to form a gum roll ; and removing the core fixture from the gum roll . providing a strip stock having a first end , a first surface , and a second surface opposite to the first surface ; coupling the first end to a core fixture so the first surface interfaces with the core fixture ; rotating the core fixture to wind the strip stock onto the core fixture such that the first surface interfaces with the second surface to form a gum roll ; and removing the core fixture from the gum roll .
Apparatus for checking tyres comprising: - a support frame ; - a flange for attaching said support frame to a movement member for moving the apparatus; - an acquisition system for acquiring digital images of a surface of a tyre, said acquisition system being mounted on said support frame and comprising: - a camera having a focal plane and a first optical axis , and - an illumination system adapted to illuminate at least a focal point (F1) placed on the intersection of said focal plane with said first optical axis; characterized in that the apparatus comprises a scanning system mounted on said support frame and adapted to detect a spatial shape of at least one internal surface portion of said tyre; wherein a first reference plane passes through said first optical axis , said illumination system and said scanning system , and wherein, with respect to a second reference plane orthogonal to said first reference plane and passing through said first optical axis , said illumination system lies in a half-space opposite to a half-space in which said scanning system lies. - a support frame ; - a flange for attaching said support frame to a movement member for moving the apparatus; - an acquisition system for acquiring digital images of a surface of a tyre, said acquisition system being mounted on said support frame and comprising: - a camera having a focal plane and a first optical axis , and - an illumination system adapted to illuminate at least a focal point (F1) placed on the intersection of said focal plane with said first optical axis; characterized in that the apparatus comprises a scanning system mounted on said support frame and adapted to detect a spatial shape of at least one internal surface portion of said tyre; wherein a first reference plane passes through said first optical axis , said illumination system and said scanning system , and wherein, with respect to a second reference plane orthogonal to said first reference plane and passing through said first optical axis , said illumination system lies in a half-space opposite to a half-space in which said scanning system lies. - a camera having a focal plane and a first optical axis , and - an illumination system adapted to illuminate at least a focal point (F1) placed on the intersection of said focal plane with said first optical axis;
A seismic source array utilizing one or more unmanned vessels deployed behind a tow vessel or other seismic ship and by means of paravanes, deflectors or similar diverter or door systems the one or more unmanned vessels are spread out behind the tow vessel , the seismic source array comprising: one or more unmanned vessels configured to provide buoyancy in a water column , each unmanned vessel comprising an on-board air compressor ; one seismic source is deployed to the water column by each unmanned vessel; and a source line providing compressed air from the or each unmanned vessel to the respective seismic source, whereby the one or more seismic sources generate seismic energy propagating through the water column ; wherein one source line is only provided between each seismic source and the air compressor of a respective unmanned vessel . one or more unmanned vessels configured to provide buoyancy in a water column , each unmanned vessel comprising an on-board air compressor ; one seismic source is deployed to the water column by each unmanned vessel; and a source line providing compressed air from the or each unmanned vessel to the respective seismic source, whereby the one or more seismic sources generate seismic energy propagating through the water column ; wherein one source line is only provided between each seismic source and the air compressor of a respective unmanned vessel .
A method for information transmission, comprising sending , by a network device, first indication information, the first indication information being used to indicate a reserved resource and being sent according to a configuration of the first indication information, wherein the first indication information belongs to a first message, the first message carries an indication field, the indication field indicates that the first message is used to carry the first indication information when a value of the indication field is a first value, the indication field indicates that the first message is used to carry an uplink or downlink grant when the value of the indication field is a second value.
A wearable electronic device , comprising: a housing defining an aperture ; an input mechanism including a shaft extending into the aperture , the shaft defining a first groove extending around the shaft and a second groove extending around the shaft and separated from the first groove by an offset; a compressible seal positioned between the housing and the input mechanism and comprising a first arm and a second arm connected at a base portion ; an optical sensing element within the housing and configured to detect a rotation of the shaft ; a switch within the housing and configured to detect an inward translation of the shaft ; a first gasket positioned in the first groove and within the aperture ; a second gasket positioned in the second groove; and a display positioned at least partially within the housing and configured to provide an output; and a processing element configured to receive input via the input mechanism and provide output via the display responsive to each of: the inward translation of the shaft ; and the rotation of the shaft . a housing defining an aperture ; an input mechanism including a shaft extending into the aperture , the shaft defining a first groove extending around the shaft and a second groove extending around the shaft and separated from the first groove by an offset; a compressible seal positioned between the housing and the input mechanism and comprising a first arm and a second arm connected at a base portion ; an optical sensing element within the housing and configured to detect a rotation of the shaft ; a switch within the housing and configured to detect an inward translation of the shaft ; a first gasket positioned in the first groove and within the aperture ; a second gasket positioned in the second groove; and a display positioned at least partially within the housing and configured to provide an output; and a processing element configured to receive input via the input mechanism and provide output via the display responsive to each of: the inward translation of the shaft ; and the rotation of the shaft . the inward translation of the shaft ; and the rotation of the shaft .
A method for capturing a video or an image by using a device , the method comprising: analyzing preview images captured by each of two cameras , wherein each of the two cameras is included in a respective one of two flaps of the device ; identifying at least one capture mode from a plurality of capture modes based on an analysis of the preview images, the plurality of capture modes including wide-angle selfie, near/far field focus, 3D reconstruction, object tracking, cinematic shot, and panorama; adjusting a bend angle between the two flaps based on an error metric for the identified capture mode, wherein the error metric is a criterion indicating whether the bend angle is appropriate for the identified capture mode and wherein a corresponding error metric exists for each of the capture modes; determining a baseline distance indicating a distance between the two cameras based on the adjusted bend angle; and obtaining the video or the image in the identified capture mode at the determined baseline distance , and wherein the adjusting of the bend angle comprises adjusting the bend angle between the two flaps until the error metric is nullified. analyzing preview images captured by each of two cameras , wherein each of the two cameras is included in a respective one of two flaps of the device ; identifying at least one capture mode from a plurality of capture modes based on an analysis of the preview images, the plurality of capture modes including wide-angle selfie, near/far field focus, 3D reconstruction, object tracking, cinematic shot, and panorama; adjusting a bend angle between the two flaps based on an error metric for the identified capture mode, wherein the error metric is a criterion indicating whether the bend angle is appropriate for the identified capture mode and wherein a corresponding error metric exists for each of the capture modes; determining a baseline distance indicating a distance between the two cameras based on the adjusted bend angle; and obtaining the video or the image in the identified capture mode at the determined baseline distance , and wherein the adjusting of the bend angle comprises adjusting the bend angle between the two flaps until the error metric is nullified.
A sensor system comprising a sensor interface circuit and an amperometric electrochemical sensor the interface circuit comprising: - a current-to-voltage converter (9, Rf) connected to a first terminal (WRK) of the sensor for converting an electric current through the sensor to a voltage at an output terminal of the current-to-voltage converter (9, Rf); - a first amplifier connected between a second terminal (REF) and a third terminal (CNTR) of the sensor for maintaining a substantially fixed voltage difference between the first and second terminals (WRK, REF) of the sensor ; - a power supply for powering the current-to-voltage converter (9, Rf) and for powering a first portion of the first amplifier ; and - a negative voltage converter configured to generate a negative voltage output from a positive input, to power a second, different portion of the first amplifier through a low-side supply terminal , while a high-side supply terminal of the second portion of the first amplifier is directly or indirectly connected to the power supply . - a current-to-voltage converter (9, Rf) connected to a first terminal (WRK) of the sensor for converting an electric current through the sensor to a voltage at an output terminal of the current-to-voltage converter (9, Rf); - a first amplifier connected between a second terminal (REF) and a third terminal (CNTR) of the sensor for maintaining a substantially fixed voltage difference between the first and second terminals (WRK, REF) of the sensor ; - a power supply for powering the current-to-voltage converter (9, Rf) and for powering a first portion of the first amplifier ; and - a negative voltage converter configured to generate a negative voltage output from a positive input, to power a second, different portion of the first amplifier through a low-side supply terminal , while a high-side supply terminal of the second portion of the first amplifier is directly or indirectly connected to the power supply .