mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a supply of a spark ignition internal combustion engine, the engine being provided with + a fuel supply system adapted to meter fuel in response to supply signals, + a three-way catalyst connected to an outlet manifold of the internal combustion engine, + a binary lambda sensor, adapted to switch between two operative conditions respectively indicating lean and rich burn, said sensor being arranged immediately upstream of said catalyst, the method comprising a procedure of commanding said supply system on the basis of a switching between said operative conditions, so that said combustion oscillates over a stoichiometric combustion condition, and so that an air/fuel ratio oscillates around a reference value (Ref) stored in a processing unit, the method comprising a first procedure carried out in stationary operating conditions of the internal combustion engine formed by, - a first step of registering two values (λ1, λ2) of an air/fuel ratio for as many consecutive switchings between said operative conditions by means of sampling the supply signals, - a second step of calculating an average value (Am) of said two registered values, - a third step of setting said calculated average value as the reference value (Ref) of the air/fuel ratio. + a fuel supply system adapted to meter fuel in response to supply signals, + a three-way catalyst connected to an outlet manifold of the internal combustion engine, + a binary lambda sensor, adapted to switch between two operative conditions respectively indicating lean and rich burn, said sensor being arranged immediately upstream of said catalyst, the method comprising a procedure of commanding said supply system on the basis of a switching between said operative conditions, so that said combustion oscillates over a stoichiometric combustion condition, and so that an air/fuel ratio oscillates around a reference value (Ref) stored in a processing unit, the method comprising a first procedure carried out in stationary operating conditions of the internal combustion engine formed by, - a first step of registering two values (λ1, λ2) of an air/fuel ratio for as many consecutive switchings between said operative conditions by means of sampling the supply signals, - a second step of calculating an average value (Am) of said two registered values, - a third step of setting said calculated average value as the reference value (Ref) of the air/fuel ratio. - a first step of registering two values (λ1, λ2) of an air/fuel ratio for as many consecutive switchings between said operative conditions by means of sampling the supply signals, - a second step of calculating an average value (Am) of said two registered values, - a third step of setting said calculated average value as the reference value (Ref) of the air/fuel ratio.
A bifurcated scheduler for dispatching instructions in a multithreading processor configured to concurrently execute a plurality of threads, the scheduler comprising: first scheduler logic comprising non-customer modifiable logic, configured to issue instructions of the plurality of threads to at least one execution unit of the processor; second scheduler logic, for enforcing a scheduling policy of the plurality of threads, wherein said second scheduler logic comprises a plurality of customer-modifiable registers; and an interface, coupling said second scheduler logic to the first scheduler logic and to said at least one execution unit, said interface comprising: first signal lines, for said first scheduler logic to receive from said second scheduler logic a priority for each of the plurality of threads, wherein said first scheduler logic issues said instructions to said at least one execution unit based on said priorities; and second signal lines, for said second scheduler logic to receive instruction execution information for each of the plurality of threads, wherein said second scheduler logic updates said priorities based on said instruction execution information, wherein said execution information indicates when said at least one execution unit executes an instruction for each of the plurality of threads. first scheduler logic comprising non-customer modifiable logic, configured to issue instructions of the plurality of threads to at least one execution unit of the processor; second scheduler logic, for enforcing a scheduling policy of the plurality of threads, wherein said second scheduler logic comprises a plurality of customer-modifiable registers; and an interface, coupling said second scheduler logic to the first scheduler logic and to said at least one execution unit, said interface comprising: first signal lines, for said first scheduler logic to receive from said second scheduler logic a priority for each of the plurality of threads, wherein said first scheduler logic issues said instructions to said at least one execution unit based on said priorities; and second signal lines, for said second scheduler logic to receive instruction execution information for each of the plurality of threads, wherein said second scheduler logic updates said priorities based on said instruction execution information, wherein said execution information indicates when said at least one execution unit executes an instruction for each of the plurality of threads. first signal lines, for said first scheduler logic to receive from said second scheduler logic a priority for each of the plurality of threads, wherein said first scheduler logic issues said instructions to said at least one execution unit based on said priorities; and second signal lines, for said second scheduler logic to receive instruction execution information for each of the plurality of threads, wherein said second scheduler logic updates said priorities based on said instruction execution information, wherein said execution information indicates when said at least one execution unit executes an instruction for each of the plurality of threads.
Air guide configured to be integrated at the front of a motor vehicle, between a front face of said vehicle and at least one heat exchanger of said vehicle, said air guide comprising at least one air guide wall (2, 3, 4) and an attachment frame that has a front part and a rear part and defines a median plane, said frame being able to be attached in its rear part around and to the front of said at least one heat exchanger, and said frame being made up of members (11, 12, 13, 14) each having a front part, and said at least one air guide wall (2, 3, 4) being joined to said front part and oriented towards the front of said frame and in a direction that is substantially normal to said median plane, characterized in that said front part of the member has a portion protruding from the front face of said member front part, which is a support for one said wall, and a rupture initiation zone present at the join between said front face of said member front part and said wall support protruding portion.
A flash memory, comprising: a control circuit and a plurality of memory cells; wherein each memory cell of the plurality of memory cells is a floating-gate metal-oxide-semiconductor, MOS transistor, and the floating-gate MOS transistor comprises a source, a gate, a drain, and a substrate; the control circuit is separately connected to the source, the gate, the drain, and the substrate of each memory cell and configured to output a control signal that provides different voltage levels to be applied separately to the source, the gate, the drain, and the substrate of each memory cell so as to implement a bitwise overwrite operation on any one of the memory cells of the plurality of memory cells; and the control circuit is further configured to generate a control signal when data stored by a memory cell is 0, so that the data stored by the memory cell is overwritten from 0 to 1 according to the control signal, characterized in that the different voltage levels provided by the control signal comprise that the substrate of the memory cell is grounded, the source is connected to a negative Voltage of Programming Power, VPP, the drain is connected to the negative VPP, and the gate is connected to the negative VPP.
A finishing suspension for finishing an object made from an additive manufacturing technique ("AMT Object") such that a portion of the AMT Object and/or support material is removed from the AMT Object, the finishing suspension comprising: a finishing medium comprising: 1-20% by weight a polyol; optionally, 1-20% by weight an anti-corrosion agent; 0.001-10% by weight a hydrotrope; and water and media particles. a finishing medium comprising: 1-20% by weight a polyol; optionally, 1-20% by weight an anti-corrosion agent; 0.001-10% by weight a hydrotrope; and water and media particles. 1-20% by weight a polyol; optionally, 1-20% by weight an anti-corrosion agent; 0.001-10% by weight a hydrotrope; and water and media particles.
An aqueous poly(meth)acrylic acid (salt) solution comprising a poly(meth)acrylic acid (salt) having a weight average molecular weight, as measured according to section of the description as originally filed, of 2000 to 9000, polymerized in the presence of a phosphorus compound containing hypophosphorous acid (salt) wherein the phosphorus compound contains 0 to 0.3% by mass of a phosphorous acid (salt) based on 100% by mass of the phosphorus compound, wherein the poly(meth)acrylic acid (salt) includes not less than 90% by mass and not more than 100% by mass of the structure derived from a (meth)acrylic acid (salt) in terms of acid type based on 100% by mass of the structures derived from all the monomers contained in the poly(meth)acrylic acid (salt), the molar proportion of the structure derived from (meth)acrylic acid is 1 to 90 mol % based on 100 mol % of the structures derived from all the monomers included in the poly(meth)acrylic acid (salt), the molar proportion of the structure derived from a (meth)acrylic acid salt is 10 to 99 mol % based on 100 mol % of the structures derived from all the monomers included in the poly(meth)acrylic acid (salt), and the aqueous poly(meth)acrylic acid (salt) solution contains 0 to 10000 ppm of an inorganic anion. wherein the poly(meth)acrylic acid (salt) includes not less than 90% by mass and not more than 100% by mass of the structure derived from a (meth)acrylic acid (salt) in terms of acid type based on 100% by mass of the structures derived from all the monomers contained in the poly(meth)acrylic acid (salt), the molar proportion of the structure derived from (meth)acrylic acid is 1 to 90 mol % based on 100 mol % of the structures derived from all the monomers included in the poly(meth)acrylic acid (salt), the molar proportion of the structure derived from a (meth)acrylic acid salt is 10 to 99 mol % based on 100 mol % of the structures derived from all the monomers included in the poly(meth)acrylic acid (salt), and the aqueous poly(meth)acrylic acid (salt) solution contains 0 to 10000 ppm of an inorganic anion.
A method for producing ceramic dental prosthesis parts by way of a CAD/CAM machining station, comprising the following steps: - providing a disk-shaped ceramic blank; - attaching the blank in a mounting device of the CAD/CAM machining station so that the blank is surrounded on the circumference thereof; - controlling the CAD/CAM machining station for establishing an initial contact between the blank and the grinding tool in such a way that, due to the rotation of the grinding tool about the longitudinal axis thereof, the entire contact surface between the grinding tool and the blank has relative movement; and - machining the blank by way of the rotating grinding tool, proceeding from the initial contact, to produce the ceramic dental prosthesis parts, - characterized in that the mounting device includes at least one recess, which is open toward the blank, the grinding tool being introduced into the recess for feeding the grinding tool to the blank and being moved to the blank through the opening of the recess for the initial contact. - providing a disk-shaped ceramic blank; - attaching the blank in a mounting device of the CAD/CAM machining station so that the blank is surrounded on the circumference thereof; - controlling the CAD/CAM machining station for establishing an initial contact between the blank and the grinding tool in such a way that, due to the rotation of the grinding tool about the longitudinal axis thereof, the entire contact surface between the grinding tool and the blank has relative movement; and - machining the blank by way of the rotating grinding tool, proceeding from the initial contact, to produce the ceramic dental prosthesis parts, - characterized in that
An automatic analyzer (100, 200, 300, 400, 500, 600, 700, 800) comprising: a sterilization mechanism (3, 103, 203, 303, 403, 503, 603, 703) that is detachably attached to a mouth of a container where a reagent is held, and that has an ultraviolet generation section emitting ultraviolet light by an ultraviolet LED; a suction nozzle that is detachably attached, together with the sterilization mechanism (3, 103, 203, 303, 403, 503, 603, 703), to the mouth of the container; an analysis section that adds a reagent absorbed by suction from the container via the suction nozzle, and that executes an analysis operation; and a control section that exercises variable control over an irradiation light intensity of ultraviolet light by the ultraviolet generation section. a sterilization mechanism (3, 103, 203, 303, 403, 503, 603, 703) that is detachably attached to a mouth of a container where a reagent is held, and that has an ultraviolet generation section emitting ultraviolet light by an ultraviolet LED; a suction nozzle that is detachably attached, together with the sterilization mechanism (3, 103, 203, 303, 403, 503, 603, 703), to the mouth of the container; an analysis section that adds a reagent absorbed by suction from the container via the suction nozzle, and that executes an analysis operation; and a control section that exercises variable control over an irradiation light intensity of ultraviolet light by the ultraviolet generation section.
The use as a latent catalyst for curing an epoxy resin of a silylimidazolium salt complex represented by the following Formula I: wherein R 1 -R 4 are substituents of the imidazole ring and R 1 -R 4 each independently represents an organic group that forms a stable imidazole ring within the silylimidazolium salt complex; R', R" and R'" are substituents of the silyl functional group and R', R", and R'" each independently represents an organic group that forms a stable silyl function group within the silylimidazolium salt complex; and X - is an anion which forms a stable salt complex with the silylimidazolium cation within the silyimidazolium salt complex. R 1 -R 4 are substituents of the imidazole ring and R 1 -R 4 each independently represents an organic group that forms a stable imidazole ring within the silylimidazolium salt complex; R', R" and R'" are substituents of the silyl functional group and R', R", and R'" each independently represents an organic group that forms a stable silyl function group within the silylimidazolium salt complex; and X - is an anion which forms a stable salt complex with the silylimidazolium cation within the silyimidazolium salt complex.
A wireless telecommunications network node method, comprising: determining a cause of a radio link failure in at least one of uplink and downlink which occurred when a user equipment is in proximity to an uplink-downlink imbalance region, which is a region between a downlink: boundary of a small cell and a macro cell, said downlink boundary being where received pilot power from said macro cell and received pilot power from said small cell are the same and an uplink boundary of said small cell and said macro cell, said uplink boundary being where uplink path loss to said macro cell and to said small cell are the same, comprising determining that said radio link failure occurred due to one of uplink-downlink decoupling in which uplink and downlink streams are served by different cells, and uplink-downlink recoupling in which uplink and downlink streams are served by a same cell, occurring one of too early and too late; and in response to said cause of said radio link failure, initiating action to optimize control of user equipment uplink-downlink decoupling-recoupling when in proximity to said uplink-downlink imbalance region by adjusting control of user equipment to perform a corresponding one of uplink-downlink decoupling and uplink-downlink recoupling a corresponding one of later and earlier than previously. determining a cause of a radio link failure in at least one of uplink and downlink which occurred when a user equipment is in proximity to an uplink-downlink imbalance region, which is a region between a downlink: boundary of a small cell and a macro cell, said downlink boundary being where received pilot power from said macro cell and received pilot power from said small cell are the same and an uplink boundary of said small cell and said macro cell, said uplink boundary being where uplink path loss to said macro cell and to said small cell are the same, comprising determining that said radio link failure occurred due to one of uplink-downlink decoupling in which uplink and downlink streams are served by different cells, and uplink-downlink recoupling in which uplink and downlink streams are served by a same cell, occurring one of too early and too late; and in response to said cause of said radio link failure, initiating action to optimize control of user equipment uplink-downlink decoupling-recoupling when in proximity to said uplink-downlink imbalance region by adjusting control of user equipment to perform a corresponding one of uplink-downlink decoupling and uplink-downlink recoupling a corresponding one of later and earlier than previously.
Apparatus for assisting hearing, the apparatus comprising: an in-ear component for insertion into the ear canal and comprising an electromagnet; and a bone implant for mounting in bone bordering the ear canal, the bone implant comprising a housing and a magnetic mass suspended within the housing such that vibrations of the magnetic mass along a first axis are mechanically coupled into the housing; wherein the in-ear component is configured to drive its electromagnet so as to, when the in-ear component is located in an ear canal with the electromagnet adjacent to the bone implant, cause the magnetic mass to vibrate along the first axis within the housing. an in-ear component for insertion into the ear canal and comprising an electromagnet; and a bone implant for mounting in bone bordering the ear canal, the bone implant comprising a housing and a magnetic mass suspended within the housing such that vibrations of the magnetic mass along a first axis are mechanically coupled into the housing;
A lubricant composition comprising an oil of lubricating viscosity and 0.01 wt % to 15 wt % of a phosphoric acid salt or a thiophosphoric acid salt of an N-hydrocarbyl-substituted gamma- (γ-) or delta- aminoester or an N-hydrocarbyl-substituted gamma-(γ-) or delta- aminothioester.
A lamp unit for a vehicle headlamp comprising: a light source array comprising a plurality of light sources aligned into an array; a mount portion on which the light source array is to be mounted; a first reflecting mirror configured to reflect light from the light sources, and an optical member configured to project direct light from the light sources and reflected light from the first reflecting mirror to the front, wherein the light source array is configured to individually turn on and off each of the light sources, wherein the lamp unit is a high-beam lamp unit configured to form a high-beam light distribution pattern, wherein the light sources situated near an optical axis (Ax) are configured to be turned off and the remaining light sources are configured to be turned on such that the high-beam lamp unit forms a split light distribution pattern in which a split area (Sp) on to which light is not shone is provided near the optical axis (Ax) of the high-beam light distribution pattern, characterized in that the first reflecting mirror is parabolic cylindrical or hyperbolic cylindrical and is provided at least either above or below the light source array. a light source array comprising a plurality of light sources aligned into an array; a mount portion on which the light source array is to be mounted; a first reflecting mirror configured to reflect light from the light sources, and an optical member configured to project direct light from the light sources and reflected light from the first reflecting mirror to the front, wherein the light source array is configured to individually turn on and off each of the light sources, wherein the lamp unit is a high-beam lamp unit configured to form a high-beam light distribution pattern, wherein the light sources situated near an optical axis (Ax) are configured to be turned off and the remaining light sources are configured to be turned on such that the high-beam lamp unit forms a split light distribution pattern in which a split area (Sp) on to which light is not shone is provided near the optical axis (Ax) of the high-beam light distribution pattern, characterized in that the first reflecting mirror is parabolic cylindrical or hyperbolic cylindrical and is provided at least either above or below the light source array.
A dispenser for discharging liquid-to-pasty compositions, having a pump chamber with a restoring spring and having a discharge part which forms a discharge tube, the discharge tube having a dispensing opening which opens laterally with respect to a dispenser longitudinal axis extending in the pump direction, and furthermore a closure part being movable between a closed position and a release position in the discharge tube for closing the dispensing opening, characterized in that an additional opening which opens at the top in the direction of the longitudinal axis is formed in the discharge part and is closed by a detent part.