mhurhangee/patent-ind-claim-en huggingface dataset:
Method of layered manufacturing a lab-on-chip, comprising the following steps: - designing, by means of a computer program, a printed circuit , mixing and reaction cavities for fluids, microchannels and spaces for the placement of electronic components to be found in each layer; - mechanizing in one or more biocompatible substrates the different voids and passages that will make up the mixing and reaction cavities , microchannels , holes that join the microchannels and spaces for the subsequent placement of electronic components ; - metallizing with a biocompatible conductive material those surfaces in which the printed circuit will be integrated according to the design made in the first step; - generating the printed circuit by photolithography and acid attack; - bonding the electronic components in the corresponding spaces ; wherein the electronic components are actuators or sensors . - joining all the layers that make up the final laboratory, wherein the metallization is carried out by the adhesion of a pre-elaborated biocompatible conductive material to the biocompatible substrate by means of a resin, the material being one or more of the following: aluminum, silver, gold, platinum, titanium, ITO, graphene or nitinol; and wherein the biocompatible substrate/s comprise/s one or more of the following materials: polymethylmethacrylate (PMMA), polyethylene terephthalate (PET), polydimethylsiloxane (PDMS), poly 3,4-ethylenedioxythiophene (PEDOT), copolymer of cyclic olefin (COC), polycarbonate, or silicon. - designing, by means of a computer program, a printed circuit , mixing and reaction cavities for fluids, microchannels and spaces for the placement of electronic components to be found in each layer; - mechanizing in one or more biocompatible substrates the different voids and passages that will make up the mixing and reaction cavities , microchannels , holes that join the microchannels and spaces for the subsequent placement of electronic components ; - metallizing with a biocompatible conductive material those surfaces in which the printed circuit will be integrated according to the design made in the first step; - generating the printed circuit by photolithography and acid attack; - bonding the electronic components in the corresponding spaces ; wherein the electronic components are actuators or sensors . - joining all the layers that make up the final laboratory, wherein the metallization is carried out by the adhesion of a pre-elaborated biocompatible conductive material to the biocompatible substrate by means of a resin, the material being one or more of the following: aluminum, silver, gold, platinum, titanium, ITO, graphene or nitinol; and wherein the biocompatible substrate/s comprise/s one or more of the following materials: polymethylmethacrylate (PMMA), polyethylene terephthalate (PET), polydimethylsiloxane (PDMS), poly 3,4-ethylenedioxythiophene (PEDOT), copolymer of cyclic olefin (COC), polycarbonate, or silicon.
An audio distribution system comprising: a first audio playback device (110-2) having a first clock time; a second audio playback device (110-1) having a second clock time; and a wireless access point wirelessly coupled to the first and second audio playback devices, wherein the second audio playback device is configured to send a time request to the first audio playback device via the wireless access point, wherein the first audio playback device is configured to respond to the time request by sending a time response to the second audio playback device via the wireless access point, wherein the second audio playback device is configured to calculate an update to the second clock time based on the time response from the first audio playback device, a first physical transmission rate between the second audio playback device and the wireless access point, and a second physical transmission rate between the first audio playback device and the wireless access point, thereby to synchronize the second clock time to the first clock time, and wherein the second audio playback device is configured to use the update to the second clock time to playback audio in synchrony with the first audio playback device. a first audio playback device (110-2) having a first clock time; a second audio playback device (110-1) having a second clock time; and a wireless access point wirelessly coupled to the first and second audio playback devices, wherein the second audio playback device is configured to send a time request to the first audio playback device via the wireless access point, wherein the first audio playback device is configured to respond to the time request by sending a time response to the second audio playback device via the wireless access point, wherein the second audio playback device is configured to calculate an update to the second clock time based on the time response from the first audio playback device, a first physical transmission rate between the second audio playback device and the wireless access point, and a second physical transmission rate between the first audio playback device and the wireless access point, thereby to synchronize the second clock time to the first clock time, and wherein the second audio playback device is configured to use the update to the second clock time to playback audio in synchrony with the first audio playback device.
A video laryngoscope system comprising: an imager that generates a first frame (f0) and a second frame (f1) of a plurality of video frames using a rolling shutter; an audio processing circuitry that determines a base frequency of a vocalization based on an audio signal; a light source that generates pulses (p0-p4) of light based on the base frequency; and an exposure controller that adjusts a duration and position in time of the pulses (p0-p4) based on the base frequency during the first and second frames (f0; f1); characterized by a line gain module that selectively applies a line gain (C LINE ) to at least a portion of the first frame (f0) and a portion of the second frame (f1) based on a gap time between the first frame (f0) and the second frame (f1) and the duration and position in time of the pulses (p0-p4). an imager that generates a first frame (f0) and a second frame (f1) of a plurality of video frames using a rolling shutter; an audio processing circuitry that determines a base frequency of a vocalization based on an audio signal; a light source that generates pulses (p0-p4) of light based on the base frequency; and an exposure controller that adjusts a duration and position in time of the pulses (p0-p4) based on the base frequency during the first and second frames (f0; f1); characterized by a line gain module that selectively applies a line gain (C LINE ) to at least a portion of the first frame (f0) and a portion of the second frame (f1) based on a gap time between the first frame (f0) and the second frame (f1) and the duration and position in time of the pulses (p0-p4).
A tube comprising an inner layer , a middle layer and an outer layer , wherein the tube is formed by a co-extrusion process, the inner layer , middle layer and outer layer are concentric and the inner layer , and outer layer are adhered to the middle layer and thus adhered to each other, wherein the inner layer comprises a polyethylene, the outer layer comprises a thermoplastic polyurethane and characterized in that : the inner layer comprises more than 90% by weight of the polyethylene, the outer layer comprises more than 90% by weight of an aromatic or aliphatic polyether based polyurethane and the middle layer comprises more than 90% by weight of an ethylene ethyl acrylate copolymer or an ethylene methyl acrylate copolymer or an anhydride grafted ethylene methyl acrylate copolymer, a copolymer of two or more of said acrylates or a mixture of two or more of the foregoing.
A holding mount , in particular of or for a commercial vehicle trailer, comprising two side walls which extend substantially along a vertical axis (H) and which form an arrangement region for arranging the holding mount on a load-bearing element , the holding mount comprising an insert part which has a connecting section and a reinforcing section , the connecting section also configuring the arrangement region , the reinforcing section extending between the side walls for the reinforcement purposes, the connecting section having an inner section which extends between the side walls in the arrangement region , characterized in that the connecting section has an outer section which bears against the side walls in the arrangement region , the outer section and the inner section of the insert part being connected via a shoulder , a size of the shoulder corresponding substantially to a wall thickness of the side wall or walls .
A drum for a roller compactor for compacting construction materials such as soil or asphalt, comprising: an outer shell providing an exterior peripheral compacting surface ; and an interior for housing an excitation system used to vibrate the drum , wherein the outer shell comprise: a non-elastic polymer; characterized in that reinforcing fibers are embedded within the non-elastic polymer; and at least one reinforcing component is at least partially embedded within the fiber-reinforced non-elastic polymer. an outer shell providing an exterior peripheral compacting surface ; and an interior for housing an excitation system used to vibrate the drum , wherein the outer shell comprise: a non-elastic polymer; characterized in that reinforcing fibers are embedded within the non-elastic polymer; and at least one reinforcing component is at least partially embedded within the fiber-reinforced non-elastic polymer.
A method for accessing one or more service processes of service , the method comprising: executing, by data processing hardware , at least one service enclave , the at least one service enclave providing an interface to the one or more service processes ; and executing, by the data processing hardware , an enclave sandbox that wraps the at least one service enclave , the enclave sandbox acting as a proxy for communicating customer data into and out of the at least one service enclave by: establishing an encrypted communication tunnel to the at least one service enclave interfacing with the one or more service processes ; and communicating program calls to/from the one or more service processes as encrypted communications through the encrypted communication tunnel . executing, by data processing hardware , at least one service enclave , the at least one service enclave providing an interface to the one or more service processes ; and executing, by the data processing hardware , an enclave sandbox that wraps the at least one service enclave , the enclave sandbox acting as a proxy for communicating customer data into and out of the at least one service enclave by: establishing an encrypted communication tunnel to the at least one service enclave interfacing with the one or more service processes ; and communicating program calls to/from the one or more service processes as encrypted communications through the encrypted communication tunnel . establishing an encrypted communication tunnel to the at least one service enclave interfacing with the one or more service processes ; and communicating program calls to/from the one or more service processes as encrypted communications through the encrypted communication tunnel .
A conjugated polymer containing an ethynyl crosslinking group, characterized by having the following structure: wherein, x and y are mole percentages which are greater than 0 and x + y = 1; is and Ar1 is selected from the group consisting of benzene, thiophene, carbazole, indenofluorene, and indolocarbazole, and Ar1 is optionally substituted with any one group selected from hydrogen, deuterium, alkyl, alkoxy, amino, alkenyl, alkynyl, aralkyl, heteroalkyl, aryl and heteroaryl, or a combination thereof. wherein, x and y are mole percentages which are greater than 0 and x + y = 1; is and Ar1 is selected from the group consisting of benzene, thiophene, carbazole, indenofluorene, and indolocarbazole, and Ar1 is optionally substituted with any one group selected from hydrogen, deuterium, alkyl, alkoxy, amino, alkenyl, alkynyl, aralkyl, heteroalkyl, aryl and heteroaryl, or a combination thereof.
An electromagnetic actuator for a valve of an internal combustion engine , which includes: - an armature defining a magnetic circuit including: ∘ a magnet ; ∘ a first external ferromagnetic polar piece in contact with the magnet , this polar piece delimiting a primary bore ; ∘ a ferromagnetic primary core housed in the primary bore and defining with the polar piece a primary air gap ; - a primary mobile assembly including: ∘ a primary casing provided with a tubular body immersed in the primary air gap , ∘ a primary coil wound in the primary air gap on the body of the primary casing ; ∘ a valve integral with the primary casing ; characterized in that : - the armature includes a second polar piece , between which the magnet is sandwiched, - the polar pieces and the magnet delimit the primary bore and a secondary bore close to the primary bore ; - the magnetic circuit includes a ferromagnetic secondary core housed in the secondary bore and defining with the polar piece a secondary air gap ; - the actuator includes a secondary mobile assembly including: ∘ a secondary casing provided with a tubular body immersed in the secondary air gap ; ∘ a secondary coil wound in the secondary air gap on the body of the secondary casing ; ∘ a valve integral with the secondary casing . - an armature defining a magnetic circuit including: ∘ a magnet ; ∘ a first external ferromagnetic polar piece in contact with the magnet , this polar piece delimiting a primary bore ; ∘ a ferromagnetic primary core housed in the primary bore and defining with the polar piece a primary air gap ; ∘ a magnet ; ∘ a first external ferromagnetic polar piece in contact with the magnet , this polar piece delimiting a primary bore ; ∘ a ferromagnetic primary core housed in the primary bore and defining with the polar piece a primary air gap ; - a primary mobile assembly including: ∘ a primary casing provided with a tubular body immersed in the primary air gap , ∘ a primary coil wound in the primary air gap on the body of the primary casing ; ∘ a valve integral with the primary casing ; ∘ a primary casing provided with a tubular body immersed in the primary air gap , ∘ a primary coil wound in the primary air gap on the body of the primary casing ; ∘ a valve integral with the primary casing ; - the armature includes a second polar piece , between which the magnet is sandwiched, - the polar pieces and the magnet delimit the primary bore and a secondary bore close to the primary bore ; - the magnetic circuit includes a ferromagnetic secondary core housed in the secondary bore and defining with the polar piece a secondary air gap ; - the actuator includes a secondary mobile assembly including: ∘ a secondary casing provided with a tubular body immersed in the secondary air gap ; ∘ a secondary coil wound in the secondary air gap on the body of the secondary casing ; ∘ a valve integral with the secondary casing . ∘ a secondary casing provided with a tubular body immersed in the secondary air gap ; ∘ a secondary coil wound in the secondary air gap on the body of the secondary casing ; ∘ a valve integral with the secondary casing .
A device for tableting a pulverulent, liquid, pasty, encapsulated or granular active ingredient composition, comprising at least one die chamber and a magazine which has a plurality of active ingredient containers each having an individually controllable metering device and a nozzle for the active ingredient outlet, wherein the magazine is adjustable between a plurality of adjustment positions relative to the at least one die chamber , wherein in each of the adjustment positions at least one of the nozzles faces an opening of the die chamber , characterized in that the magazine is spherical, wherein the active ingredient containers extend in the radial direction of the magazine and open with their respective nozzle into a spherical surface of the magazine .
Adjustable pliers comprising a pair of arms crossing each other intermediate of their ends, wherein each arm has a respective clamping jaw at one end and a respective handle at an opposite end thereof, wherein one arm has intermediate of its ends and at the crossing by the other arm a plurality of spaced apart apertures (26a-26h, 32a-32h) through the one arm , the apertures (26a-26h, 32a-32h) being connected by an elongate slot through the one arm, the slot being of lesser width (E) than the apertures, wherein the other arm has a pivot member passing through the elongate slot to pivotally connect the arms to each other, wherein the pivot member has a profiled section receivable within any one of the apertures (26a-26h, 32a-32h), wherein the profiled section comprises opposing convex curved locking faces each with a common axis (Y-Y) of curvature and a first radius (R1) defining a notional outer circular perimeter of the profiled section , wherein the profiled section comprises substantially opposing free faces (56b-56e, 56g-56j) separating the locking faces , each free face (56b-56e, 56g-56j) being inset from the notional outer circular perimeter , wherein the other arm is pivotable in respect of the one arm in a rotational direction (CW) about the axis (Y-Y) to cause engagement of the locking faces with a side of the one arm defining one of the apertures (26a-26h, 32a-32h) to determine the opening of the jaws with respect to each other and the other arm is pivotable in respect of the one arm in a counter rotational direction (CCW) about the aixs (Y-Y) to cause disengagement of the locking faces from sides of the apertures (26a-26h, 32a-32h) to allow movement of the pivot member along the slot to vary the opening of the jaws with respect to each other, wherein one free face (56g-56j) comprises a convex curved free face flanking one locking face in the rotational direction (CW) and having a second radius (R2) that is less than the first radius (R1) of the locking faces , wherein the other free face (56b-56e) comprises a convex curved free face flanking the other locking face in the rotational direction (CW) and having a third radius (R3) and wherein the third radius (R3) is less than the second radius (R2); and wherein the profiled section is elongate between the opposing locking faces and has an axis of elongation (Z-Z) which separates the free faces (56b-56e, 56g-56j); and wherein the free faces (56b-56e, 56g-56j) are substantially convex; and wherein each of the free faces (56b-56e, 56g-56j) comprises a flat free face parallel to the axis of elongation (Z-Z); and wherein each flat free face merges tangentially with convex curved free faces of its respective free face (56b-56e, 56g-56j); and wherein each free face (56b-56e, 56g-56j) comprises a convex curved free face flanking a respective locking face in the counter rotational direction (CCW) and having the second radius (R2).
A wheel for an air maintenance tire -AMT- system, the wheel comprising: a body being formed with an axially-extending wall , a pair of flanges , and a pair of bead mounting areas , each bead mounting area being disposed axially inwardly proximate a respective one of the flanges ; the axially-extending wall being formed with an AMT mounting channel , the AMT mounting channel extending circumferentially about the wheel between the flanges , wherein the AMT mounting channel is defined by a first adjacent wall , a second adjacent wall , and a base ; and a plurality of AMT mounting surfaces being formed in or adjacent the AMT mounting channel , whereby the at least one pump is mounted on a respective one of the AMT mounting surfaces radially inwardly of the bead mounting areas , characterized in that a circumferentially-extending feature is formed in the second wall proximate the base of the AMT mounting channel to engage a conduit of the air maintenance tire system. a body being formed with an axially-extending wall , a pair of flanges , and a pair of bead mounting areas , each bead mounting area being disposed axially inwardly proximate a respective one of the flanges ; the axially-extending wall being formed with an AMT mounting channel , the AMT mounting channel extending circumferentially about the wheel between the flanges , wherein the AMT mounting channel is defined by a first adjacent wall , a second adjacent wall , and a base ; and a plurality of AMT mounting surfaces being formed in or adjacent the AMT mounting channel , whereby the at least one pump is mounted on a respective one of the AMT mounting surfaces radially inwardly of the bead mounting areas , characterized in that a circumferentially-extending feature is formed in the second wall proximate the base of the AMT mounting channel to engage a conduit of the air maintenance tire system.
A process of preparing a canola protein concentrate, which comprises: (a) adding a calcium salt to supernatant from the precipitation of canola protein micellar mass to provide a conductivity of 5 to 30 mS/cm to form a calcium phytate precipitate (b) removing precipitated calcium phytate from the resulting solution to provide a clear solution, (c) adjusting the pH of the clear solution to 2.0 to 4.0 to form a pH-adjusted clear solution, (d) concentrating, using a selective membrane technique using ultrafiltration using membranes having a molecular weight cut off of 3,000 to 100,000 u (Daltons), the pH-adjusted clear solution to a protein concentration of between 50 g/L and 100 g/L to form a clear concentrated canola protein solution, (e) optionally diafiltering the clear concentrated canola protein solution, (f) optionally effecting a colour removal step on the optionally diafiltered clear concentrated canola protein solution, and (g) drying the optionally decoloured and optionally diafiltered clear concentrated protein solution, wherein said concentration and optional diafiltration step are effected in such manner that the dried canola protein concentrate contains 60 to less than 90 wt% (N × 6.25) protein on a dry weight basis. (a) adding a calcium salt to supernatant from the precipitation of canola protein micellar mass to provide a conductivity of 5 to 30 mS/cm to form a calcium phytate precipitate (b) removing precipitated calcium phytate from the resulting solution to provide a clear solution, (c) adjusting the pH of the clear solution to 2.0 to 4.0 to form a pH-adjusted clear solution, (d) concentrating, using a selective membrane technique using ultrafiltration using membranes having a molecular weight cut off of 3,000 to 100,000 u (Daltons), the pH-adjusted clear solution to a protein concentration of between 50 g/L and 100 g/L to form a clear concentrated canola protein solution, (e) optionally diafiltering the clear concentrated canola protein solution, (f) optionally effecting a colour removal step on the optionally diafiltered clear concentrated canola protein solution, and (g) drying the optionally decoloured and optionally diafiltered clear concentrated protein solution,
An isolated antibody, or an antigen-binding fragment thereof, that neutralizes infection of a group 1 subtype and a group 2 subtype of influenza A virus and comprises: (i) the heavy chain CDR1, CDR2 and CDR3 sequences as set forth in SEQ ID NOs: 1, 41 and 43, respectively, or as set forth in SEQ ID NOs: 1, 41 and 42, respectively; and (ii) the light chain CDR1, CDR2, and CDR3 sequences as set forth in SEQ ID NOs: 4, 5 and 6, respectively, or as set forth in SEQ ID NOs: 44, 5 and 6, respectively, wherein the antibody, or antigen-binding fragment thereof, is produced in transfected cells at titers of at least 3 fold higher than the titer at which FI6 variant 2 is produced.