mhurhangee/patent-ind-claim-en huggingface dataset:
An interconnect structure , comprising: a first interconnection level including a first dielectric layer and a first set of conductive paths ; a second interconnection level arranged above the first interconnection level and including a second dielectric layer and a second set of conductive paths ; a third interconnection level arranged above the second interconnection level and including a third dielectric layer and a third set of conductive paths ; and a fourth interconnection level arranged above the third interconnection level and including a fourth dielectric layer and a fourth set of conductive paths ; the interconnect structure further comprising: a first multi-level via structure extending from the first interconnection level to the third interconnection level and forming a single unitary body passing through the second interconnection level distant from any of the second set of conductive paths; and characterized by : a second multi-level via structure extending from the second interconnection level to the fourth interconnection level and forming a single unitary body passing through the third interconnection level distant from any of the third set of conductive paths. a first interconnection level including a first dielectric layer and a first set of conductive paths ; a second interconnection level arranged above the first interconnection level and including a second dielectric layer and a second set of conductive paths ; a third interconnection level arranged above the second interconnection level and including a third dielectric layer and a third set of conductive paths ; and a fourth interconnection level arranged above the third interconnection level and including a fourth dielectric layer and a fourth set of conductive paths ; the interconnect structure further comprising: a first multi-level via structure extending from the first interconnection level to the third interconnection level and forming a single unitary body passing through the second interconnection level distant from any of the second set of conductive paths; and characterized by : a second multi-level via structure extending from the second interconnection level to the fourth interconnection level and forming a single unitary body passing through the third interconnection level distant from any of the third set of conductive paths.
A headphone system comprising: a first housing ; a second housing ; a flexible coated wire coupled to the first housing and the second housing ; a first loudspeaker attached to the first housing for transmitting an audio signal; a second loudspeaker attached to the second housing for transmitting the audio signal; and a magnet embedded within the flexible coated wire for magnetic coupling with a sensor positioned within the first housing to control an operation of playback of the audio signal based on a distance of the magnet in relation to the first housing . a first housing ; a second housing ; a flexible coated wire coupled to the first housing and the second housing ; a first loudspeaker attached to the first housing for transmitting an audio signal; a second loudspeaker attached to the second housing for transmitting the audio signal; and a magnet embedded within the flexible coated wire for magnetic coupling with a sensor positioned within the first housing to control an operation of playback of the audio signal based on a distance of the magnet in relation to the first housing .
A method for producing elastomer optical waveguides, in particular made of optical fibers, comprising: - providing a hollow body with at least one hollow channel extending along a first direction ; - forming a fiber sheath in the hollow channel by coating the inner wall of the hollow channel with at least a first uncured, flowable elastomer mixture, in particular a first silicone-elastomer mixture, under the effect of a force acting in the first direction, wherein a hollow chamber remains that is surrounded by the fiber sheath , and at least partial curing of the elastomer mixture; - forming a fiber core in the hollow chamber by filling the hollow chamber with another uncured, flowable elastomer mixture, in particular another silicone-elastomer mixture; and, - forming an optical waveguide comprising the fiber sheath and the fiber core by curing of the fiber sheath and of the fiber core in the hollow body . - providing a hollow body with at least one hollow channel extending along a first direction ; - forming a fiber sheath in the hollow channel by coating the inner wall of the hollow channel with at least a first uncured, flowable elastomer mixture, in particular a first silicone-elastomer mixture, under the effect of a force acting in the first direction, wherein a hollow chamber remains that is surrounded by the fiber sheath , and at least partial curing of the elastomer mixture; - forming a fiber core in the hollow chamber by filling the hollow chamber with another uncured, flowable elastomer mixture, in particular another silicone-elastomer mixture; and, - forming an optical waveguide comprising the fiber sheath and the fiber core by curing of the fiber sheath and of the fiber core in the hollow body .
An apparatus comprising circuitry configured to generate one or more focused sound sources as virtual loudspeakers of an announcement system, the one or more focused sound sources being generated by a plurality of loudspeakers of the apparatus distributed over a predefined space; apply image recognition techniques to images obtained by a camera array of the apparatus distributed over the predefined space to obtain positions of at least one person in the predefined space; characterised in that the circuitry is configured to: calculate a trajectory representing the path that the at least one person should take to arrive at a predefined destination based on the current position of the at least one person in the predefined space and based on the predefined position of the destination in the predefined space, and generate a focused sound source of the one or more focused sound sources at a position on the calculated trajectory close to the at least one person. generate one or more focused sound sources as virtual loudspeakers of an announcement system, the one or more focused sound sources being generated by a plurality of loudspeakers of the apparatus distributed over a predefined space; apply image recognition techniques to images obtained by a camera array of the apparatus distributed over the predefined space to obtain positions of at least one person in the predefined space; characterised in that the circuitry is configured to: calculate a trajectory representing the path that the at least one person should take to arrive at a predefined destination based on the current position of the at least one person in the predefined space and based on the predefined position of the destination in the predefined space, and generate a focused sound source of the one or more focused sound sources at a position on the calculated trajectory close to the at least one person. calculate a trajectory representing the path that the at least one person should take to arrive at a predefined destination based on the current position of the at least one person in the predefined space and based on the predefined position of the destination in the predefined space, and generate a focused sound source of the one or more focused sound sources at a position on the calculated trajectory close to the at least one person.
Method for preserving and packaging shell-on shrimp, comprising the steps of: - providing pre-cooked shrimp, wherein the pre-cooked shrimp is shell-on shrimp, wherein the pre-cooked shrimp is Pandalus spp., and wherein the pre-cooked shrimp has not previously been frozen; - contacting the pre-cooked shrimp with a preserving solution, wherein the preserving solution is an aqueous solution or a liquid comprising at least one preservative substance; - pre-storing the pre-cooked shrimp in the preserving solution for a time period of 30 minutes to two weeks; - separating the pre-cooked shrimp from substantially all of the preserving solution; and - packaging the separated pre-cooked shrimp under a modified atmosphere, wherein the modified atmosphere is substantially free of oxygen, thereby providing said preserved and packed shell-on shrimp, wherein said packaging does not comprise a step of heating the packaged shell-on shrimp, and wherein the preserved and packaged shell-on shrimp maintains the texture and appearance of fresh shrimp. - providing pre-cooked shrimp, wherein the pre-cooked shrimp is shell-on shrimp, wherein the pre-cooked shrimp is Pandalus spp., and wherein the pre-cooked shrimp has not previously been frozen; - contacting the pre-cooked shrimp with a preserving solution, wherein the preserving solution is an aqueous solution or a liquid comprising at least one preservative substance; - pre-storing the pre-cooked shrimp in the preserving solution for a time period of 30 minutes to two weeks; - separating the pre-cooked shrimp from substantially all of the preserving solution; and - packaging the separated pre-cooked shrimp under a modified atmosphere, wherein the modified atmosphere is substantially free of oxygen, thereby providing said preserved and packed shell-on shrimp, wherein said packaging does not comprise a step of heating the packaged shell-on shrimp, and
A mobile terminal comprising an antenna , a display , a side frame , and a back cover , the side frame is connected between the display and the back cover , and the antenna comprises: a conductive support , comprising a first portion , a second portion , a third portion , and a fourth portion that are all made of conductive materials and that jointly enclose a cavity , wherein the first portion and the third portion are disposed opposite to each other and are respectively connected to a head end and a tail end of the second portion ; the fourth portion and the second portion are disposed opposite to each other; the second portion is disposed on an inner side of the display ; the third portion is a part of the side frame ; the fourth portion is located on an outer side of the back cover , or is located on an inner side of the back cover , or is a part of the back cover ; the conductive support is configured with a gap ; and the gap is formed between the fourth portion and the first portion , or is formed between the fourth portion and the third portion , or is disposed in the fourth portion ; and a feeding part , electrically connected to the conductive support , and configured to excite the conductive support to generate a current, characterized in that the mobile terminal comprises a middle frame , the middle frame is configured to mount the display , the second portion is a part of the middle frame , and the cavity is enclosed by the middle frame , the side frame , and the fourth portion . a conductive support , comprising a first portion , a second portion , a third portion , and a fourth portion that are all made of conductive materials and that jointly enclose a cavity , wherein the first portion and the third portion are disposed opposite to each other and are respectively connected to a head end and a tail end of the second portion ; the fourth portion and the second portion are disposed opposite to each other; the second portion is disposed on an inner side of the display ; the third portion is a part of the side frame ; the fourth portion is located on an outer side of the back cover , or is located on an inner side of the back cover , or is a part of the back cover ; the conductive support is configured with a gap ; and the gap is formed between the fourth portion and the first portion , or is formed between the fourth portion and the third portion , or is disposed in the fourth portion ; and a feeding part , electrically connected to the conductive support , and configured to excite the conductive support to generate a current, characterized in that the mobile terminal comprises a middle frame , the middle frame is configured to mount the display , the second portion is a part of the middle frame , and the cavity is enclosed by the middle frame , the side frame , and the fourth portion .
A computer-implemented method of determining respective spatial configurations, indicative of respective positions and orientations, of a plurality of transducers attached to a target object ; the method comprising: - receiving (S40) sensor signals from each of the plurality of transducers, the sensor signals being indicative of respective movements of the respective transducers during an induced movement of the target object; - determining (S30, S50) the spatial configurations of the plurality of transducers; wherein the spatial configurations, indicative of the positions and orientations relative to the target object, of at least a subset of the transducers are determined based on the received sensor signals; wherein the plurality of transducers comprises a first subset of transducers and a second subset of transducers ; wherein determining the spatial configurations of the plurality of transducers comprises: - obtaining (S30) spatial configurations of the transducers of the first subset; and - determining (S50) the spatial configurations of the transducers of the second subset from the received sensor signals and from the obtained spatial configurations of the transducers of the first subset; and wherein determining spatial configurations of the transducers of the second subset comprises: - computing (S56), from the received sensor signals of the transducers of the first subset and the received spatial configurations, object accelerations indicative of accelerations of the target object relative to a reference coordinate system; - computing (S57), from the computed object accelerations and from the received sensor signals of respective transducers of the second subset, said spatial configurations of the transducers of the second subset. - receiving (S40) sensor signals from each of the plurality of transducers, the sensor signals being indicative of respective movements of the respective transducers during an induced movement of the target object; - determining (S30, S50) the spatial configurations of the plurality of transducers; wherein the spatial configurations, indicative of the positions and orientations relative to the target object, of at least a subset of the transducers are determined based on the received sensor signals; - obtaining (S30) spatial configurations of the transducers of the first subset; and - determining (S50) the spatial configurations of the transducers of the second subset from the received sensor signals and from the obtained spatial configurations of the transducers of the first subset; - computing (S56), from the received sensor signals of the transducers of the first subset and the received spatial configurations, object accelerations indicative of accelerations of the target object relative to a reference coordinate system; - computing (S57), from the computed object accelerations and from the received sensor signals of respective transducers of the second subset, said spatial configurations of the transducers of the second subset.
An energy storage battery comprising a cathode cement layer, an anode cement layer and a membrane cement layer arranged between the cathode cement layer and the anode cement layer; wherein the cathode cement layer comprises a cathode conductive grid construction and a cathode conductive cement-based material arranged on both sides of the cathode conductive grid construction, the anode cement layer comprises an anode conductive grid construction and an anode conductive cement-based material arranged on both sides of the anode conductive grid construction, and the membrane cement layer comprises an anion exchange resin and a first cement-based material; the cathode conductive cement-based material is obtained by curing a cathode conductive cement mortar consisting of 0.3 wt% to 9 wt% of a conductive agent and 91 wt% to 99.7 wt% of a second cement mortar, and the anode conductive cement-based material is obtained by curing an anode conductive cement mortar consisting of 0.3 wt% to 9 wt% of the conductive agent and 91 wt% to 99.7 wt% of the second cement mortar; and the conductive agent is at least one selected from the group consisting of chopped carbon fiber, carbon black and expanded graphite. wherein the cathode cement layer comprises a cathode conductive grid construction and a cathode conductive cement-based material arranged on both sides of the cathode conductive grid construction, the anode cement layer comprises an anode conductive grid construction and an anode conductive cement-based material arranged on both sides of the anode conductive grid construction, and the membrane cement layer comprises an anion exchange resin and a first cement-based material; the cathode conductive cement-based material is obtained by curing a cathode conductive cement mortar consisting of 0.3 wt% to 9 wt% of a conductive agent and 91 wt% to 99.7 wt% of a second cement mortar, and the anode conductive cement-based material is obtained by curing an anode conductive cement mortar consisting of 0.3 wt% to 9 wt% of the conductive agent and 91 wt% to 99.7 wt% of the second cement mortar; and the conductive agent is at least one selected from the group consisting of chopped carbon fiber, carbon black and expanded graphite.
A flow information analysis apparatus comprising: a receiving unit configured to receive packet flow information that contains a header sample, the header sample being a part of an IP packet to which a tunnel header is added; a first analysis unit configured to determine whether the header sample of the packet flow information matches any of templates that are based on tunneling protocols, and when determining that the header sample matches any of the templates, extract information on a header of the IP packet from the header sample on the basis of the matched template; a second analysis unit configured to, when the first analysis unit determines that the header sample of the packet flow information does not match any of the templates, search through the header sample for a byte sequence that matches search data in which a value that is set in a specific field of the tunnel header and a value that is set in a specific field of the IP packet are combined, and extract information on the header of the IP packet from the header sample on the basis of a result of the search; and a creation unit configured to, when a byte sequence that matches the search data is obtained as a result of a search performed by the second analysis unit , create a template based on a position of the byte sequence in the header sample, wherein the first analysis unit performs determination using the template created by the creation unit . a receiving unit configured to receive packet flow information that contains a header sample, the header sample being a part of an IP packet to which a tunnel header is added; a first analysis unit configured to determine whether the header sample of the packet flow information matches any of templates that are based on tunneling protocols, and when determining that the header sample matches any of the templates, extract information on a header of the IP packet from the header sample on the basis of the matched template; a second analysis unit configured to, when the first analysis unit determines that the header sample of the packet flow information does not match any of the templates, search through the header sample for a byte sequence that matches search data in which a value that is set in a specific field of the tunnel header and a value that is set in a specific field of the IP packet are combined, and extract information on the header of the IP packet from the header sample on the basis of a result of the search; and a creation unit configured to, when a byte sequence that matches the search data is obtained as a result of a search performed by the second analysis unit , create a template based on a position of the byte sequence in the header sample, wherein the first analysis unit performs determination using the template created by the creation unit .
An electronic device , comprising: a front housing , wherein the front housing is provided with a first through hole ; a rear housing , wherein the rear housing is connected to the front housing ; a display , wherein the display is installed on the front housing , and a mounting chamber is formed between the display , the front housing , and the rear housing ; a reinforcing member , wherein the reinforcing member is arranged in the mounting chamber, the reinforcing member is spaced apart from the display , the reinforcing member is connected to the rear housing , and the reinforcing member is provided with a second through hole ; and a camera , wherein the camera is a periscope camera and is installed in the mounting chamber, the camera is located between the display and the reinforcing member , the camera is installed in the first through hole , the camera comprises a bracket , a chip , and a body connected successively, the bracket is connected to the front housing and the rear housing respectively, the chip is arranged corresponding to the second through hole , a sensitive surface of the chip is disposed towards the body ; wherein a first buffer member is arranged in the first through hole , and the first buffer member is connected to the front surface of the camera and the display . a front housing , wherein the front housing is provided with a first through hole ; a rear housing , wherein the rear housing is connected to the front housing ; a display , wherein the display is installed on the front housing , and a mounting chamber is formed between the display , the front housing , and the rear housing ; a reinforcing member , wherein the reinforcing member is arranged in the mounting chamber, the reinforcing member is spaced apart from the display , the reinforcing member is connected to the rear housing , and the reinforcing member is provided with a second through hole ; and a camera , wherein the camera is a periscope camera and is installed in the mounting chamber, the camera is located between the display and the reinforcing member , the camera is installed in the first through hole , the camera comprises a bracket , a chip , and a body connected successively, the bracket is connected to the front housing and the rear housing respectively, the chip is arranged corresponding to the second through hole , a sensitive surface of the chip is disposed towards the body ; wherein a first buffer member is arranged in the first through hole , and the first buffer member is connected to the front surface of the camera and the display .
Remote control (1; 101) for a vehicle , comprising: - an external casing (2; 102) defining a deformable bearing surface (S); - at least one force sensor (30; 40; 130; 140) coupled to the external casing (2; 102) so as to measure a force exerted on the bearing surface (S); - a processor (22; 122) designed to determine a force exerted on a zone (Z1; 22; Z3) of the bearing surface as a function of the measured force and to determine a command to be emitted as a function of the determined force; and - a communication module (24; 124) designed to emit an electromagnetic signal associated with the determined command, characterized in that an elastomer block (32; 42) is interposed between the force sensor (30; 40) and the external casing . - an external casing (2; 102) defining a deformable bearing surface (S); - at least one force sensor (30; 40; 130; 140) coupled to the external casing (2; 102) so as to measure a force exerted on the bearing surface (S); - a processor (22; 122) designed to determine a force exerted on a zone (Z1; 22; Z3) of the bearing surface as a function of the measured force and to determine a command to be emitted as a function of the determined force; and - a communication module (24; 124) designed to emit an electromagnetic signal associated with the determined command, characterized in that an elastomer block (32; 42) is interposed between the force sensor (30; 40) and the external casing .