mhurhangee/patent-ind-claim-en huggingface dataset:
A drilling system including a set of drills to create an osteotomy on a bone surface for seating a dental implant having a body insertable in the osteotomy and a length, the set of drills comprising: a first drill having a tip to create a pilot hole, a first boring section adapted to create a bore hole for a second drill and a second boring section having a wider diameter than the first boring section adapted to create a first coronal area on the hole near the bone surface, the first drill having a length adapted to create a hole compatible with the length of the implant and having a coronal area; and the second drill having a tip , a first boring section adjacent the tip of the second drill , and a countersink section adjacent the first boring section of the second drill , the first boring section of the second drill for creating a second hole having a width compatible with the body of the implant and the countersink section of the second drill having a diameter greater than the first boring section of the second drill for creating a second coronal area near the bone surface, the first boring section and the countersink section of the second drill having four cutting blades perpendicularly arranged, and a dental implant having dimensions matching the osteotomy creatable by the first and second drills . a first drill having a tip to create a pilot hole, a first boring section adapted to create a bore hole for a second drill and a second boring section having a wider diameter than the first boring section adapted to create a first coronal area on the hole near the bone surface, the first drill having a length adapted to create a hole compatible with the length of the implant and having a coronal area; and the second drill having a tip , a first boring section adjacent the tip of the second drill , and a countersink section adjacent the first boring section of the second drill , the first boring section of the second drill for creating a second hole having a width compatible with the body of the implant and the countersink section of the second drill having a diameter greater than the first boring section of the second drill for creating a second coronal area near the bone surface, the first boring section and the countersink section of the second drill having four cutting blades perpendicularly arranged, and a dental implant having dimensions matching the osteotomy creatable by the first and second drills .
A neural response system, including: a plurality of different filters , wherein each of the plurality of filters is adapted to receive and filter each of a plurality of tilt response signals (501-511) obtained from a person, to produce a plurality of filtered response signals from each one of the respective tilt response signals ; a segmenter for segmenting the filtered response signals into time segments (402-429) ; and a neural event extractor for performing a neural event extraction proces s on each of the time segments to generate biomarker data representing a plurality of biomarkers for each segment; a diagnostic tool for comparing the biomarker data of each segment with fingerprint data for a condition, and recording deviation measures between said the fingerprint data and the biomarker data, wherein the tilt response signals are electrovestibulography (EVestG) signals obtained from at least one electrode connected to at least one ear of the person subjected to a plurality of tilt sequences in a tilt chair. a plurality of different filters , wherein each of the plurality of filters is adapted to receive and filter each of a plurality of tilt response signals (501-511) obtained from a person, to produce a plurality of filtered response signals from each one of the respective tilt response signals ; a segmenter for segmenting the filtered response signals into time segments (402-429) ; and a neural event extractor for performing a neural event extraction proces s on each of the time segments to generate biomarker data representing a plurality of biomarkers for each segment; a diagnostic tool for comparing the biomarker data of each segment with fingerprint data for a condition, and recording deviation measures between said the fingerprint data and the biomarker data, wherein the tilt response signals are electrovestibulography (EVestG) signals obtained from at least one electrode connected to at least one ear of the person subjected to a plurality of tilt sequences in a tilt chair.
Apparatus for a spinning line, comprising: - a rail associable to a roving frame ; - a secondary transport device associable to at least one spinning frame ; - an integrated device comprising exchange means suitable to carry out locally the collection of a plurality of tubes all at once from the secondary device and a plurality of bobbins all at once from the rail , the exchange of the bobbins with the tubes and the release of the bobbins to the secondary transport device and the tubes to the rail ; characterized in that it comprises - rail moving means configured to advance the rail with a variable distance (C1,C2) between the step of collecting the bobbins from the rail and the step of releasing the tubes to the rail , wherein the rail moving means are configured to make the rail complete an advancement of a first distance (C1) to align two engagement/release devices on a bobbin exchange plane (Pb) and to make the rail complete an advancement of a second distance (C2) to align two bobbins on the bobbin exchange plane (Pb), wherein the first distance (C1) is less than the second distance (C2). - a rail associable to a roving frame ; - a secondary transport device associable to at least one spinning frame ; - an integrated device comprising exchange means suitable to carry out locally the collection of a plurality of tubes all at once from the secondary device and a plurality of bobbins all at once from the rail , the exchange of the bobbins with the tubes and the release of the bobbins to the secondary transport device and the tubes to the rail ; - rail moving means configured to advance the rail with a variable distance (C1,C2) between the step of collecting the bobbins from the rail and the step of releasing the tubes to the rail , wherein the rail moving means are configured to make the rail complete an advancement of a first distance (C1) to align two engagement/release devices on a bobbin exchange plane (Pb) and to make the rail complete an advancement of a second distance (C2) to align two bobbins on the bobbin exchange plane (Pb), wherein the first distance (C1) is less than the second distance (C2).
A link , comprising: a first portion that abuts a first face of the link ; a second portion that abuts a second face of the link ; a first bore (210-1) located on a first end of the link ; a second bore (210-2) located on a second end of the link ; and a material located between the first portion and the second portion and extending between the first bore (210-1) and the second bore (210-2), wherein the material creates a separation between the first portion and the second portion to facilitate placement of the first bore (210-1) and the second bore (210-2) around outer diameters of corresponding mating members of a track chain , wherein the material is removable to remove the separation from between the first portion and the second portion . a first portion that abuts a first face of the link ; a second portion that abuts a second face of the link ; a first bore (210-1) located on a first end of the link ; a second bore (210-2) located on a second end of the link ; and a material located between the first portion and the second portion and extending between the first bore (210-1) and the second bore (210-2), wherein the material creates a separation between the first portion and the second portion to facilitate placement of the first bore (210-1) and the second bore (210-2) around outer diameters of corresponding mating members of a track chain , wherein the material is removable to remove the separation from between the first portion and the second portion .
Transmission method used in a User Equipment, UE, for a Time Division Duplex, TDD, - Frequency Division Duplex, FDD, joint operation system, comprising: Step A: receiving a first Downlink Control Information, DCI, on the subframe n on a first carrier, wherein the first carrier is a Frequency Division Duplex, FDD, downlink carrier, n is an integer, and the first DCI is the uplink-scheduling DCI; and Step B: transmitting the uplink data on Physical Uplink Shared Channel, PUSCH, of a second carrier in the subframe n+k according to the scheduling of the first DCI, wherein the second carrier is a Time Division Duplex, TDD, carrier, k is the uplink scheduling delay of an uplink reference frame configuration of the second carrier on the subframe n; wherein the first DCI includes two bits being used as Uplink Index, ULI, only when the uplink reference frame configuration is #0, characterized in that the first DCI does not include said two bits being used as Downlink Assignment Index, DAI, when the uplink reference frame configuration is one of #1, #2, #3, #4, #5, and #6. Step A: receiving a first Downlink Control Information, DCI, on the subframe n on a first carrier, wherein the first carrier is a Frequency Division Duplex, FDD, downlink carrier, n is an integer, and the first DCI is the uplink-scheduling DCI; and Step B: transmitting the uplink data on Physical Uplink Shared Channel, PUSCH, of a second carrier in the subframe n+k according to the scheduling of the first DCI, wherein the second carrier is a Time Division Duplex, TDD, carrier, k is the uplink scheduling delay of an uplink reference frame configuration of the second carrier on the subframe n; wherein the first DCI includes two bits being used as Uplink Index, ULI, only when the uplink reference frame configuration is #0, characterized in that the first DCI does not include said two bits being used as Downlink Assignment Index, DAI, when the uplink reference frame configuration is one of #1, #2, #3, #4, #5, and #6.
A method for limiting a revolution speed of an internal combustion engine (E) of a sports car, the method comprising - a first step (Step 1) of acquiring a nominal speed value of said internal combustion engine, - a second step (Step 2) of measuring a revolution speed of said internal combustion engine, when (CHK) a measured revolution speed of said internal combustion engine has reached (yes) an activation speed approximately equal to said nominal speed, the method comprising the following steps, which are cyclically carried out for a predetermined number of cycles: - a third step (Step 3) of setting a predetermined initial torque value (a) to be delivered by said internal combustion engine, and simultaneously - a fourth step (Step 4) of carrying out a feedback control of a torque delivery of said internal combustion engine based on an error between said measured revolution speed and said nominal speed, so as to determine an increase in the speed of said internal combustion engine, until said activation speed is reached again; - a sixth step (Step 6), simultaneous to said third and said fourth step, of cutting off a fuel supply to said internal combustion engine up to when said internal combustion engine reaches a reactivation speed which is below said activation speed; wherein said predetermined initial torque, upon which a controller starts acting in order to correct it based on the speed signal received, is calculated or determined empirically, so as to cause said internal combustion engine to exceed said nominal speed. - a first step (Step 1) of acquiring a nominal speed value of said internal combustion engine, - a second step (Step 2) of measuring a revolution speed of said internal combustion engine, - a third step (Step 3) of setting a predetermined initial torque value (a) to be delivered by said internal combustion engine, and simultaneously - a fourth step (Step 4) of carrying out a feedback control of a torque delivery of said internal combustion engine based on an error between said measured revolution speed and said nominal speed, so as to determine an increase in the speed of said internal combustion engine, until said activation speed is reached again; - a sixth step (Step 6), simultaneous to said third and said fourth step, of cutting off a fuel supply to said internal combustion engine up to when said internal combustion engine reaches a reactivation speed which is below said activation speed; wherein said predetermined initial torque, upon which a controller starts acting in order to correct it based on the speed signal received, is calculated or determined empirically, so as to cause said internal combustion engine to exceed said nominal speed.
An atomizer for an electronic cigarette , comprising: a main body of housing defining a liquid chamber configured for storing tobacco liquid; a mouthpiece detachably connected with an end of the main body of housing; an atomizing core arranged in the main body of housing, the atomizing core detachably connected with the main body of housing; an atomizing cover arranged in the liquid chamber, the atomizing core being arranged in the atomizing cover, the atomizing cover having a top surface , the top surface defining at least one liquid inlet ; the atomizing core comprising a heating element and a liquid conducting element surrounding the heating element, the liquid conducting element being configured for absorbing tobacco liquid flowed from the at least one liquid inlet, and the heating element being configured for atomizing the tobacco liquid in the liquid conducting element. a main body of housing defining a liquid chamber configured for storing tobacco liquid; a mouthpiece detachably connected with an end of the main body of housing; an atomizing core arranged in the main body of housing, the atomizing core detachably connected with the main body of housing; an atomizing cover arranged in the liquid chamber, the atomizing core being arranged in the atomizing cover, the atomizing cover having a top surface , the top surface defining at least one liquid inlet ; the atomizing core comprising a heating element and a liquid conducting element surrounding the heating element, the liquid conducting element being configured for absorbing tobacco liquid flowed from the at least one liquid inlet, and the heating element being configured for atomizing the tobacco liquid in the liquid conducting element.
A stable formulation of 15 mg/ml of an anti-CD 19 antibody conjugated to monomethylauristatin F (MMAF), in 10mM potassium phosphate buffer, wherein the anti-CD19 antibody is a humanized IgG1 antibody comprising a full length light chain having a variable region of SEQ ID NO:1 and a full length heavy chain having a variable region of SEQ ID NO:2, wherein the anti-CD 19 antibody is conjugated to maleimidocaproyl monomethyl auristatin F, the formulation comprising a surfactant and a bulking agent, wherein the potassium phosphate buffer has a pH value between 5.0 and 7.0, wherein the surfactant is polysorbate 80 at a concentration 0.02% w/v, and wherein the bulking agent is sucrose at a concentration of 6% w/v.
A process for the production of a sterol mix comprising at least 87% 7-dehydrocholesterol (7-DHC) based on the total amount of sterols, comprising cultivation of a yeast cell under conditions suitable for sterol production, wherein: (a) ERG5 and ERG6 are inactivated, (b) ARE2 activity is reduced or abolished, and (c) plant or vertebrate enzyme EC 1.3.1.72 having sterol Δ24-reductase activity on lathosterol, zymosterol or trienol is heterologously expressed. (a) ERG5 and ERG6 are inactivated, (b) ARE2 activity is reduced or abolished, and (c) plant or vertebrate enzyme EC 1.3.1.72 having sterol Δ24-reductase activity on lathosterol, zymosterol or trienol is heterologously expressed.
Friction assembly for a brake system , comprising: - a lining made of friction material , comprising a friction face , an attachment face opposite the friction face , and a collection groove that is open on the friction face , - a sole plate , supporting the lining , comprising a hole in pneumatic communication with the collection groove , - a negative pressure source configured to create negative pressure in the collection groove and the hole , characterized in that the friction assembly comprises - a gas filtration device , in pneumatic communication with the collection groove and the hole , capable of capturing gases resulting from the friction of the lining and coming from the collection groove , and - means for condensing gases resulting from friction of the lining . - a lining made of friction material , comprising a friction face , an attachment face opposite the friction face , and a collection groove that is open on the friction face , - a sole plate , supporting the lining , comprising a hole in pneumatic communication with the collection groove , - a negative pressure source configured to create negative pressure in the collection groove and the hole , - a gas filtration device , in pneumatic communication with the collection groove and the hole , capable of capturing gases resulting from the friction of the lining and coming from the collection groove , and - means for condensing gases resulting from friction of the lining .
An automated biological-sample-processing system comprising: a pipette , a column of solid-phase material to which nucleic acid binds, a transport apparatus , an air-piston apparatus mounted on the transport apparatus , an adaptor for coupling the pipette to the air-piston apparatus , in which the adaptor is removably engageable with the air-piston apparatus for movement with the transport apparatus during processing of the sample, is couplable to the pipette so that the transport apparatus is controllable to position the pipette and so that the air-piston apparatus is controllable to draw a liquid into the pipette and to expel the liquid from the pipette, and is engageable with the column , in which the adaptor comprises a filter for preventing liquid or aerosol transfer between the pipette or column and the air-piston apparatus, and a programmable controller connected to the transport apparatus and to the air-piston apparatus, wherein the programmable controller is programmed to control the operation of the air-piston apparatus and the transport apparatus in accordance with a processing protocol, the processing protocol comprising: coupling the adaptor to the pipette, moving and operating the pipette using the transport apparatus and the air-piston apparatus to dispense a sample into the column of solid phase material, uncoupling the adaptor from the pipette, coupling the adaptor with the column of solid phase material and pushing a sample through the column of solid phase material using the air-piston apparatus.
A method for a mobile communication device, the method comprising: identifying a plurality of checkpoints for an inspection route corresponding to the mobile communication device; identifying a task status for a current checkpoint of the plurality of checkpoints, the task status indicating a status of one or more tasks corresponding to the current checkpoint; and sending , via a resource selected using grant-free resource selection, a report to a first base station indicating the task status for the current checkpoint. identifying a plurality of checkpoints for an inspection route corresponding to the mobile communication device; identifying a task status for a current checkpoint of the plurality of checkpoints, the task status indicating a status of one or more tasks corresponding to the current checkpoint; and sending , via a resource selected using grant-free resource selection, a report to a first base station indicating the task status for the current checkpoint.
Exhaust flap device for an internal combustion engine having a flow housing delimiting a flow channel , a flap body , a shaft on which the flap body is fastened, at least one radial bearing via which the shaft 16) is radially supported in at least one bearing seat of the flow housing , a sealing arrangement comprising a ceramic disc and a bushing mounted on the shaft , characterized in that an axial bearing is mounted in a bore and is made from a sintered metal powder of a high-chromium iron alloy and comprises an austenitic and ferritic composite structure with carbide alloy components and homogenously distributed solid lubricant phases and is axially loaded against the ceramic disc which surrounds the shaft in a manner rotating freely, wherein the axial bearing comprises a spherical recess facing the ceramic disc , on which a correspondingly shaped spherical bulge of the ceramic disc abuts, wherein the ceramic disc is loaded towards the axial bearing by means of a spring element . a flap body , a shaft on which the flap body is fastened, at least one radial bearing via which the shaft 16) is radially supported in at least one bearing seat of the flow housing , a sealing arrangement comprising a ceramic disc and a bushing mounted on the shaft , characterized in that an axial bearing is mounted in a bore and is made from a sintered metal powder of a high-chromium iron alloy and comprises an austenitic and ferritic composite structure with carbide alloy components and homogenously distributed solid lubricant phases and is axially loaded against the ceramic disc which surrounds the shaft in a manner rotating freely, wherein the axial bearing comprises a spherical recess facing the ceramic disc , on which a correspondingly shaped spherical bulge of the ceramic disc abuts, wherein the ceramic disc is loaded towards the axial bearing by means of a spring element .
A container for holding products comprising: a tubular body defining a first end and a second end , wherein the tubular body extends radially inward at a predefined location between the first and second ends so as to form a ledge , wherein the ledge is configured to support a separator thereon, a removable separator which is supported by the ledge wherein, when the separator is supported by the ledge , the separator defines a first compartment on a first side of the separator for holding a first product and further defines a second compartment on a second side of the separator for holding a second product, wherein the ledge comprises a top portion and a bottom portion , characterised in that the top portion is substantially parallel to the separator and the bottom portion is upwardly angled. a tubular body defining a first end and a second end , wherein the tubular body extends radially inward at a predefined location between the first and second ends so as to form a ledge , wherein the ledge is configured to support a separator thereon, a removable separator which is supported by the ledge wherein, when the separator is supported by the ledge , the separator defines a first compartment on a first side of the separator for holding a first product and further defines a second compartment on a second side of the separator for holding a second product, wherein the ledge comprises a top portion and a bottom portion , characterised in that the top portion is substantially parallel to the separator and the bottom portion is upwardly angled.