mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: at an electronic device with a speaker, a first input mechanism comprising a touch-sensitive display , and a second input mechanism: while displaying on the touch-sensitive display a workout application interface , wherein input detection via the second input mechanism is less likely to be triggered by water than input detection via the first input mechanism, detecting on the touch-sensitive display a swipe gesture in a first direction; in response to detecting the swipe gesture , displaying on the touch-sensitive display one or more affordances, wherein the one or more affordances include a water lock affordance ; and in response to detecting an input via a first input mechanism corresponding to the water lock affordance , transitioning the electronic device into a first mode, wherein user input selecting an affordance from the one or more displayed affordances using the first input mechanism is disabled in the first mode, wherein input detection via the second input mechanism remains or is enabled in the first mode. while displaying on the touch-sensitive display a workout application interface , wherein input detection via the second input mechanism is less likely to be triggered by water than input detection via the first input mechanism, detecting on the touch-sensitive display a swipe gesture in a first direction; in response to detecting the swipe gesture , displaying on the touch-sensitive display one or more affordances, wherein the one or more affordances include a water lock affordance ; and in response to detecting an input via a first input mechanism corresponding to the water lock affordance , transitioning the electronic device into a first mode, wherein user input selecting an affordance from the one or more displayed affordances using the first input mechanism is disabled in the first mode, wherein input detection via the second input mechanism remains or is enabled in the first mode.
A polymer matrix for optical sensing of CO 2 , comprising a fluorophore, a positively charged counter-ion moiety and a polymeric support, wherein either the fluorophore or the counter-ion moiety is covalently bound to the polymeric support by a polymer linking moiety, and the molar ratio of counter-ion to fluorophore is 2:1 or greater.
A retention system for an implant, the retention system comprising: a body comprising an inner surface defining a first thread form , the first thread form comprising a first stage having a first pitch (P1) and a second stage having a second pitch (P2) that is greater than the first pitch (P1); and a screw comprising a shaft and a neck , the shaft comprising an outer surface defining a second thread form configured to engage the first thread form to lock the screw with the body , the neck comprising a smooth unthreaded section, wherein the second thread form has a uniform pitch (P3) along an entire length of the second thread form . a body comprising an inner surface defining a first thread form , the first thread form comprising a first stage having a first pitch (P1) and a second stage having a second pitch (P2) that is greater than the first pitch (P1); and a screw comprising a shaft and a neck , the shaft comprising an outer surface defining a second thread form configured to engage the first thread form to lock the screw with the body , the neck comprising a smooth unthreaded section, wherein the second thread form has a uniform pitch (P3) along an entire length of the second thread form .
A system for dispensing cryogenic liquid comprising; a. a container defining an interior; b. a partition dividing the interior into a primary chamber and a reserve chamber , each of said primary and reserve chambers configured to contain a cryogenic liquid with a headspace above the cryogenic liquid, where the cryogenic liquid within the primary chamber is separated from the cryogenic liquid in the reserve chamber, said partition also configured to provide a headspace communication passage so that the headspace of the primary chamber is in fluid communication with the headspace of the reserve chamber; c. a primary pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the primary chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; d. a reserve pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the reserve chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; e. an equalizing circuit selectively in liquid communication with the primary and reserve chambers; and f. a dispensing line selectively in liquid communication with the bottom of the primary chamber. a. a container defining an interior; b. a partition dividing the interior into a primary chamber and a reserve chamber , each of said primary and reserve chambers configured to contain a cryogenic liquid with a headspace above the cryogenic liquid, where the cryogenic liquid within the primary chamber is separated from the cryogenic liquid in the reserve chamber, said partition also configured to provide a headspace communication passage so that the headspace of the primary chamber is in fluid communication with the headspace of the reserve chamber; c. a primary pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the primary chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; d. a reserve pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the reserve chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; e. an equalizing circuit selectively in liquid communication with the primary and reserve chambers; and f. a dispensing line selectively in liquid communication with the bottom of the primary chamber.
A Y-shaped shielded support for industrial plants, comprising a supporting block , which is configured to be anchored to an external support, a bearing and a sealing device ; wherein the supporting block has a housing inside which said bearing is inserted; wherein said bearing comprises a fixed ring , a rotatable ring which can rotate relative to said fixed ring , and a plurality of rolling elements interposed between said fixed ring and said rotatable ring ; wherein said rotatable ring is fitted, in use, onto a rotatable component (S); wherein said rolling elements allow, in use, a rotation of the rotatable ring relative to the fixed ring ; wherein said fixed ring is form-fit mounted inside said supporting block so as to enable said fixed ring to be inclined by an angle (α) with respect to an ideal rotation axis; wherein said rotatable component is a rotating shaft (S) having a rotation axis (X); wherein said bearing is fitted, in use, onto said rotating shaft (S); wherein the rotatable ring is the internal ring ; wherein said internal ring is fitted onto said rotating shaft (S) to rotate about the rotation axis (X) driven by said rotating shaft (S); wherein said sealing device comprises a shield and a connecting unit , which is configured to fix, in use, said shield to said rotatable component (S) so as to avoid, in use, relative motions between said shield and said rotatable ring ; wherein said shield has an opening configured to house, in use, said rotating shaft (S); wherein said connecting unit is configured to rotate said shield in an integral manner with said internal ring and said rotating shaft (S); wherein said shield has a cup-shaped body having a circular lateral wall , a top wall wherein said opening is realized in said top wall ; wherein said shield is axisymmetric around an axis of symmetry (X'); wherein the radial extension of said shield is greater than the radial extension of the respective bearing , characterized in that said lateral wall is disposed around and encircles a respective portion of the supporting block ; wherein said lateral wall is spaced from said portion so that the lateral wall can rotate, in use, without contact around said portion .
An evaporative humidifier comprising: a main body ; a reservoir provided in the main body to store water; and a humidifying element assembly rotatably provided in the main body , wherein the humidifying element assembly includes: a humidifying element which is configured to absorb water and perform humidification; and a frame to support the humidifying element , the frame including at least one guider portion which guides the water of the reservoir toward one side surface of the humidifying element , characterized in that the at least one guider portion includes: a first portion provided with a water inlet which faces a rotating direction and is configured to collect water stored in the reservoir by a rotation of the humidifying element assembly ; and a second portion arranged to extend to the centre of the frame in a radial direction to guide water collected at the first portion toward the centre of the humidifying element . a main body ; a reservoir provided in the main body to store water; and a humidifying element assembly rotatably provided in the main body , wherein the humidifying element assembly includes: a humidifying element which is configured to absorb water and perform humidification; and a frame to support the humidifying element , the frame including at least one guider portion which guides the water of the reservoir toward one side surface of the humidifying element , characterized in that the at least one guider portion includes: a first portion provided with a water inlet which faces a rotating direction and is configured to collect water stored in the reservoir by a rotation of the humidifying element assembly ; and a humidifying element which is configured to absorb water and perform humidification; and a frame to support the humidifying element , the frame including at least one guider portion which guides the water of the reservoir toward one side surface of the humidifying element , characterized in that the at least one guider portion includes: a first portion provided with a water inlet which faces a rotating direction and is configured to collect water stored in the reservoir by a rotation of the humidifying element assembly ; and a second portion arranged to extend to the centre of the frame in a radial direction to guide water collected at the first portion toward the centre of the humidifying element .
An optical triangulation apparatus comprising: a light source configured to emit a light beam through a detection zone ; an image sensor configured to capture an image of the detection zone; a generator configured to introduce a flowable scattering medium into the detection zone; and a processor configured to: receive a background image of the detection zone that is captured by the image sensor in the absence of the flowable scattering medium; receive a measurement image of the detection zone captured by the image sensor in presence of the flowable scattering medium; remove from the received measurement image a background signal obtained from the background image; and determine a boundary of a scattered signal region in the received measurement image. a light source configured to emit a light beam through a detection zone ; an image sensor configured to capture an image of the detection zone; a generator configured to introduce a flowable scattering medium into the detection zone; and a processor configured to: receive a background image of the detection zone that is captured by the image sensor in the absence of the flowable scattering medium; receive a measurement image of the detection zone captured by the image sensor in presence of the flowable scattering medium; remove from the received measurement image a background signal obtained from the background image; and determine a boundary of a scattered signal region in the received measurement image. receive a background image of the detection zone that is captured by the image sensor in the absence of the flowable scattering medium; receive a measurement image of the detection zone captured by the image sensor in presence of the flowable scattering medium; remove from the received measurement image a background signal obtained from the background image; and determine a boundary of a scattered signal region in the received measurement image.
A method comprising: receiving, by an audio/video bridging, AVB, enabled network device (104/204A-C/300), multiple audio and/or video streams from multiple AVB enabled devices (102A-N/202A-L), wherein each of the multiple AVB enabled devices (102A-N/202A-L) has a static priority based on criticality of an application that each of the multiple AVB enabled devices (102A-N/202A-L) is performing: dynamically queuing, by the AVB enabled network device (104/204A-C/300), each of the multiple audio and/or video streams based on the static priority of the associated one of the multiple AVB enabled devices (102A-N/202A-L); after having queued the multiple audio and/or video streams, receiving, by the AVB enabled network device (104/204A-C/300), new audio and/or video streams from one or more of the multiple AVB enabled devices (102A-N/202A-L) the method being characterised by : upon receiving the new audio and/or video streams, dynamically re-scheduling, by the AVB enabled network device (104/204A-C/300), the multiple audio and/or video streams; and enabling real-time transfer of the dynamically re-scheduled audio and/or video streams, by the AVB enabled network device (104/204A-C/300), to a user device through an Ethernet AVB network upon queuing and re-scheduling the audio and/or video streams. dynamically queuing, by the AVB enabled network device (104/204A-C/300), each of the multiple audio and/or video streams based on the static priority of the associated one of the multiple AVB enabled devices (102A-N/202A-L); after having queued the multiple audio and/or video streams, receiving, by the AVB enabled network device (104/204A-C/300), new audio and/or video streams from one or more of the multiple AVB enabled devices (102A-N/202A-L) upon receiving the new audio and/or video streams, dynamically re-scheduling, by the AVB enabled network device (104/204A-C/300), the multiple audio and/or video streams; and enabling real-time transfer of the dynamically re-scheduled audio and/or video streams, by the AVB enabled network device (104/204A-C/300), to a user device through an Ethernet AVB network upon queuing and re-scheduling the audio and/or video streams.
Security document having a transparent window formed in the substrate thereof, a micro-optical structure composed of microlenses being arranged on one side of the substrate , at least in the region of the transparent window , and a first print image being arranged on the other side of the substrate , located opposite the micro-optical structure , at least in the region of the transparent window ; this first print image including a plurality of image elements (28a to 28j) in a punctiform or linear grid; a dot size or a line thickness of these image elements (28a to 28j) in each case being designed to be smaller than a lens width of the microlenses arranged in the micro-optical structure ; a layer , which has a planar extension and covers this first print image , being arranged on a part of the first print image , on the side thereof facing away from the micro-optical structure , and a second print image being arranged on the layer that partly covers the first print image , on the side facing away from the micro-optical structure , characterized in that the second print image is arranged on the layer that covers a part of the first print image in such a way that the second print image can be brought into alignment with the micro-optical structure applied to the other side of the substrate of the security document after carrying out a folding process at a bending line , in such a way that the second print image , or at least a piece of information contained therein, becomes visible and/or recognizable when viewed from the direction of the micro-optical structure .
A process for preparing multivesicular liposomal formulations, the process comprising: providing a first emulsion by mixing a first aqueous phase and a volatile water-immiscible solvent phase, said solvent phase comprising at least one amphipathic lipid and at least one neutral lipid; mixing and emulsifying said first emulsion and a second aqueous phase to provide a second emulsion, said second emulsion comprising a continuous aqueous phase; removing the volatile water-immiscible solvent from the second emulsion to form a composition of blank multivesicular liposomal particles; and remote loading one or more acidic non-steroidal anti-inflammatory drugs into said multivesicular liposomes, wherein a gradient of low pH outside the multivesicular liposomes to high pH inside the multivesicular liposomes is present to drive the one or more acidic non-steroidal anti-inflammatory drugs into the multivesicular liposomes; wherein the acidic non-steroidal anti-inflammatory drug is selected from the group consisting of diclofenac, piroxicam, meloxicam and ketorolac. providing a first emulsion by mixing a first aqueous phase and a volatile water-immiscible solvent phase, said solvent phase comprising at least one amphipathic lipid and at least one neutral lipid; mixing and emulsifying said first emulsion and a second aqueous phase to provide a second emulsion, said second emulsion comprising a continuous aqueous phase; removing the volatile water-immiscible solvent from the second emulsion to form a composition of blank multivesicular liposomal particles; and remote loading one or more acidic non-steroidal anti-inflammatory drugs into said multivesicular liposomes, wherein a gradient of low pH outside the multivesicular liposomes to high pH inside the multivesicular liposomes is present to drive the one or more acidic non-steroidal anti-inflammatory drugs into the multivesicular liposomes; wherein the acidic non-steroidal anti-inflammatory drug is selected from the group consisting of diclofenac, piroxicam, meloxicam and ketorolac.
A composition comprising A) a first polymer which is a polyethylene selected from linear low density polyethylene (LLDPE), low density polyethylene (LDPE), high density polyethylene (HDPE), an elastomeric copolymer of ethylene and an α-olefin having 4 to 10 carbon atoms and combinations thereof, B) a second polymer selected from the group consisting of a polyamide, a polycarbonate and an ethylene vinyl alcohol and combinations thereof and C) a third polymer which is an ethylene-acrylate copolymer which includes an acrylate represented by formula (I) or (II) as a comonomer: CH 2 =CR 1 -COO-(CH 2 ) n -OH (I) CH 2 =CR 1 -COO-(CH 2 ) m -CHOH-CH 2 OH (II) wherein R 1 is H or C1-C5 linear or branched alkyl, n is an integer of 1-10 and m is an integer of 0-10, wherein the amount of A) with respect to the total composition is more than 50 wt%, the amount of B) with respect to the total composition is 3 to 45 wt% and the amount of C) with respect to the total composition is 0.1 to 10.0 wt%. A) a first polymer which is a polyethylene selected from linear low density polyethylene (LLDPE), low density polyethylene (LDPE), high density polyethylene (HDPE), an elastomeric copolymer of ethylene and an α-olefin having 4 to 10 carbon atoms and combinations thereof, B) a second polymer selected from the group consisting of a polyamide, a polycarbonate and an ethylene vinyl alcohol and combinations thereof and C) a third polymer which is an ethylene-acrylate copolymer which includes an acrylate represented by formula (I) or (II) as a comonomer: CH 2 =CR 1 -COO-(CH 2 ) n -OH (I) CH 2 =CR 1 -COO-(CH 2 ) m -CHOH-CH 2 OH (II) wherein R 1 is H or C1-C5 linear or branched alkyl, n is an integer of 1-10 and m is an integer of 0-10, wherein the amount of A) with respect to the total composition is more than 50 wt%, the amount of B) with respect to the total composition is 3 to 45 wt% and the amount of C) with respect to the total composition is 0.1 to 10.0 wt%. wherein R 1 is H or C1-C5 linear or branched alkyl, n is an integer of 1-10 and m is an integer of 0-10, wherein the amount of A) with respect to the total composition is more than 50 wt%, the amount of B) with respect to the total composition is 3 to 45 wt% and the amount of C) with respect to the total composition is 0.1 to 10.0 wt%.
A pipe joint, wherein the pipe joint comprises a joint body within which a cavity channel and an outer hole channel are provided, the cavity channel forming at one end of the joint body a first outer insertion opening for insertion of a flexible pipe to be connected, and the outer hole channel forming at the other end of the joint body a second outer insertion opening for insertion of a rigid pipe to be connected; an inner hole channel is further communicated between the cavity channel and the outer hole channel , the inner hole channel forming an inner insertion opening at an innermost end of the cavity channel and forming a communication opening at an innermost end of the outer hole channel , a filter screen being provided at the communication opening ; an liner pipe being provided in the cavity channel , one end of the liner pipe being inserted into the inner hole channel through the inner insertion opening , the other end of the liner pipe being provided with a connection section to be inserted into the flexible pipe , the connection section being provided with at least one bulging part , and a length of the liner pipe other than the connecting section is in a range from 0.1 to 50 mm.
A method for controlling a laser apparatus, comprising: receiving from a user, a set of user input parameters for a polymeric materials process for a product; accessing , from a materials database, materials characteristics for a materials system of the product and, from a laser specifications database, laser specifications of a laser source; determining , from the set of user input parameters, and based on the materials characteristics for a materials system of the product and the laser specifications of a laser source, a set of control parameters; generating , from the set of control parameters, a set of operating instructions for controlling operation of a universal laser apparatus; and providing , to the universal laser apparatus, the set of operating instructions to perform the polymeric materials process. receiving from a user, a set of user input parameters for a polymeric materials process for a product; accessing , from a materials database, materials characteristics for a materials system of the product and, from a laser specifications database, laser specifications of a laser source; determining , from the set of user input parameters, and based on the materials characteristics for a materials system of the product and the laser specifications of a laser source, a set of control parameters; generating , from the set of control parameters, a set of operating instructions for controlling operation of a universal laser apparatus; and providing , to the universal laser apparatus, the set of operating instructions to perform the polymeric materials process.