mhurhangee/ep-ind-claims huggingface dataset:
A control method of a direct fuel-injection spark ignition engine including an ignition plug and a fuel injection valve arranged to be capable of injecting a fuel directly in a cylinder, wherein in a first region (Rl) on a low load side of an operation region of the engine, homogenous combustion is performed, while, in a second region (Rh) of the operation region on a load side higher than the first region (Rl), stratified combustion is performed, in the stratified combustion a fuel is dispersed in a cylinder by a first injection operation of the fuel injection valve and a fuel is unevenly distributed in a vicinity of the ignition plug by a second injection operation of the fuel injection valve; shift control by the stratified combustion is executed at a time of shifting the operation region when an operation state of the engine has shifted from the first region (Rl) to the second region (Rh); and in the shift control, a fuel in an amount larger than a target amount of the second injection operation in the second region (Rh) is injected in the second injection operation by controlling a ratio of injection amounts by the first injection operation and the second injection operation occupied in a fuel injection amount per combustion cycle and then, an injection amount of the second injection operation is decreased toward the target amount.
A device for conveying a load from a first to a second level, in particular a stair lift, comprising a rail and a frame which is movable along said rail, on which a load carrier is mounted and which is provided with support and guide means (16, 17, 33, 36) that engage around at least part of the rail, which rail extends above steps of a staircase near a wall or a handrail on one side of the staircase, the rail comprising a tube and a strip that extends radially away from the tube surface, which strip is engaged by the support and guide means (16, 17, 33, 36), characterised in that the strip extends obliquely from the tube in a direction that extends between the horizontal direction toward the wall or the handrail and the vertical direction toward the steps.
Use of a biomarker in the in vitro detection of a nonalcoholic fatty liver disease wherein said biomarker comprises at least one protein or peptide selected from the group consisting of inter-alpha-trypsin inhibitor heavy chain H4 precursor consisting of amino acid sequence expressed by Sequence No. 1, 35 kDa protein fragment consisting of amino acid sequence expressed by Sequence No. 2 of inter-alpha-trypsin inhibitor heavy chain H4 precursor, and partial peptide consisting of amino acid sequence expressed by Sequence No. 3 of inter-alpha-trypsin inhibitor heavy chain H4 precursor.
A vehicle control system, for mounting to a vehicle, the vehicle having an operable portion, at least two fixation portions for holding the vehicle control system and an operated device, the operated device including a brake, derailleur or fluid control device, the vehicle control system including: a center line, two ends thereof being connected respectively to the operable portion and the operated device, the operated device being controllably operated by the operable portion via the center line; characterised by a first sleeve, disposed around the center line, continuously extending between the operable portion and the operated device, and being slidable relative to the center line; and an outmost sheath, disposed around the first sleeve, disposed between the operable portion and one of the fixation portions, and disposed between the operated device and the other fixation portion. a center line, two ends thereof being connected respectively to the operable portion and the operated device, the operated device being controllably operated by the operable portion via the center line; a first sleeve, disposed around the center line, continuously extending between the operable portion and the operated device, and being slidable relative to the center line; and an outmost sheath, disposed around the first sleeve, disposed between the operable portion and one of the fixation portions, and disposed between the operated device and the other fixation portion.
A textile machine producing or processing yarn and comprising a plurality of identical working stations arranged next to each other and possibly comprising also other functional parts of the machine, the other functional parts of the machine include system for bobbin withdrawal, system for supplying tubes, attending device, which is arranged movable along at least one row of of the working stations with an option of stopping at a selected working station, while attending device creates machine operator; whereby each working station and/or the other functional part of the machine comprises a plurality of actuators and a plurality of sensors, which are controlled and monitored by a control system, which is arranged at each working station and/or in the other functional part of the machine and which collects data from the sensors and on the basis of the inserted program controls the actuators, characterized in that to the control system is connected an active contactless NFC module for autonomous bi-directional communication over short distances, the active contactless NFC module is situated at the working station and/or at the other functional part of the machine the active contactless NFC module is configured for communication between the control system and personal wireless active communication device with an NFC function, which is equipment of the human and/or machine operator of the machine, the personal wireless active communication device and the control system are equipped with means for reading, transmitting and writing data between the control system and the personal wireless active communication device through the active contactless NFC module after approaching the personal wireless active communication device of the operator into the signal field of the active contactless NFC module.
A computer implemented method to estimate severity of downhole vibration for a wellbore drill tool assembly, comprising the steps: a. Identifying a dataset comprising (i) parameters for a selected drill tool assembly comprising a drill bit; b. Selecting a reference value of downhole vibration amplitude for at least one of downhole torque, downhole weight on bit, downhole bit RPM, downhole axial acceleration; c. Identifying a corresponding selected surface drilling parameter including at least one of surface torque, a surface hook-load, surface drill string rotation rate, and surface axial acceleration,; d. Determining a surface parameter vibration attribute value obtained in a drilling operation, the determined surface parameter vibration attribute value corresponding to the identified selected surface drilling parameter (step c); and e. Estimating a downhole vibration severity CHARACTERISED IN THAT the dataset further comprises (ii) selected wellbore dimensions, and (iii) selected measured depth MD; AND BY: calculating a corresponding reference surface attribute value for the selected reference value of downhole vibration amplitude AND IN THAT: the downhole vibration severity is estimated by evaluating the determined surface parameter vibration attribute value with respect to the identified reference surface vibration attribute value. a. Identifying a dataset comprising (i) parameters for a selected drill tool assembly comprising a drill bit; b. Selecting a reference value of downhole vibration amplitude for at least one of downhole torque, downhole weight on bit, downhole bit RPM, downhole axial acceleration; c. Identifying a corresponding selected surface drilling parameter including at least one of surface torque, a surface hook-load, surface drill string rotation rate, and surface axial acceleration,; d. Determining a surface parameter vibration attribute value obtained in a drilling operation, the determined surface parameter vibration attribute value corresponding to the identified selected surface drilling parameter (step c); and e. Estimating a downhole vibration severity calculating a corresponding reference surface attribute value for the selected reference value of downhole vibration amplitude the downhole vibration severity is estimated by evaluating the determined surface parameter vibration attribute value with respect to the identified reference surface vibration attribute value.
Installation switching device having an insulating material housing comprising a front face and an attachment face, which are connected by means of two broad faces and an input and an output narrow face (16, 17), and having a current path which runs between an input terminal and an output terminal (21, 20) and can be switched on and off at least via a main contact point, in which case the main contact point can be opened or closed permanently at least by means of a switching mechanism which can be operated by a switching handle characterized in that a phase connecting rail can be arranged in the housing interior close to the attachment face and running approximately parallel to it and, in the installed state, can be connected to the connecting terminal close to the input narrow face and is otherwise electrically and mechanically isolated from the other components and assemblies within the housing, and at whose free end a clamping contact is fitted, which projects out of the housing on the attachment face, for clamping to busbars (90, 90b, 90c) in an installation distribution block.
A patient-specific femoral implant for implantation on a portion of a femur of a patient's knee, comprising: a condylar portion having a bone-facing surface for abutting at least a portion of a condyle of the patient's knee and an articular surface generally opposite the bone-facing surface; characterized in that the articular surface has a patient-specific curvature generally disposed in a first plane, the patient-specific curvature substantially replicating a corresponding curvature of at least a portion of the patient's condyle and being located approximately in the same location as the corresponding curvature of the patient's condyle when the bone-facing surface abuts the condyle; and the articular surface has a constant curvature in a second plane that is generally transverse to the first plane, wherein the first plane is a sagittal plane and the second plane is a coronal plane. a condylar portion having a bone-facing surface for abutting at least a portion of a condyle of the patient's knee and an articular surface generally opposite the bone-facing surface; characterized in that the articular surface has a patient-specific curvature generally disposed in a first plane, the patient-specific curvature substantially replicating a corresponding curvature of at least a portion of the patient's condyle and being located approximately in the same location as the corresponding curvature of the patient's condyle when the bone-facing surface abuts the condyle; and the articular surface has a constant curvature in a second plane that is generally transverse to the first plane, wherein the first plane is a sagittal plane and the second plane is a coronal plane.
A gas turbine engine comprising: first and second shafts (240, 250) rotatable about a common axis; a first turbine section supported on the first shaft; second compressor and turbine sections (252, 254) supported on the second shaft; a fan; a first compressor section; a differential gear train coupling the fan and the first compressor section to the first shaft, wherein the differential gear train is an epicyclic gear train including a sun gear, planetary gears arranged about and intermeshing with the sun gear, and a ring gear circumscribing and intermeshing with the planetary gears, wherein the planetary gears are supported by a carrier, and wherein the first compressor section is supported by a compressor rotor, and the fan is supported by a fan shaft, the ring gear connected to the fan shaft, and the sun gear connected to the compressor rotor; and a speed change device which interconnects the first shaft and the differential gear train, the speed change device configured to provide a speed reduction from the first shaft to the carrier of the differential gear train; characterised in that an inducer is operatively coupled to the differential gear train. first and second shafts (240, 250) rotatable about a common axis; a first turbine section supported on the first shaft; second compressor and turbine sections (252, 254) supported on the second shaft; a fan; a first compressor section; a differential gear train coupling the fan and the first compressor section to the first shaft, wherein the differential gear train is an epicyclic gear train including a sun gear, planetary gears arranged about and intermeshing with the sun gear, and a ring gear circumscribing and intermeshing with the planetary gears, wherein the planetary gears are supported by a carrier, and wherein the first compressor section is supported by a compressor rotor, and the fan is supported by a fan shaft, the ring gear connected to the fan shaft, and the sun gear connected to the compressor rotor; and a speed change device which interconnects the first shaft and the differential gear train, the speed change device configured to provide a speed reduction from the first shaft to the carrier of the differential gear train; characterised in that an inducer is operatively coupled to the differential gear train.
An injection stretch blow molded article, comprising a Ziegler-Natta catalyzed polyethylene resin, wherein the polyethylene resin has a multimodal molecular weight distribution and comprises at least two polyethylene fractions A and B, fraction A having a higher molecular weight and a lower density than fraction B, each fraction prepared in different reactors of at least two reactors connected in series, wherein: fraction A has a melt index HL275 of at least 11 g/10min and of at most 20 g/10min as determined according to ISO 1133, condition G, at 190°C and under a load of 21.6 kg except that a die of 2.75 mm was used; and a density of at least 941 kg/m 3 and of at most 946 kg/m 3 as determined according to ASTM 1505 at a temperature of 23°C; and the polyethylene resin has a melt index MI2 of at least 1.5 g/10min and of at most 3.0 g/10min as determined according to ISO 1133, condition D, at 190°C and under a load of 2.16 kg; and a density of at least 950 kg/m 3 and of at most 965 kg/m 3. fraction A has a melt index HL275 of at least 11 g/10min and of at most 20 g/10min as determined according to ISO 1133, condition G, at 190°C and under a load of 21.6 kg except that a die of 2.75 mm was used; and a density of at least 941 kg/m 3 and of at most 946 kg/m 3 as determined according to ASTM 1505 at a temperature of 23°C; and the polyethylene resin has a melt index MI2 of at least 1.5 g/10min and of at most 3.0 g/10min as determined according to ISO 1133, condition D, at 190°C and under a load of 2.16 kg; and a density of at least 950 kg/m 3 and of at most 965 kg/m 3.
A wind turbine, comprising a main gear box, which is lubricated and/or cooled by means of oil, and a thermosiphon cooling system for cooling the oil, wherein the thermosiphon cooling system forms a closed loop, wherein the thermosiphon cooling system comprises an evaporator, a condenser and pipes (14, 15) that couple the evaporator to the condenser in such a way that the thermosiphon cooling system forms the closed loop, and wherein the main gear box is coupled to the evaporator by means of hoses or pipes (16, 17).
Cosmetic use of an extract of meristematic cells of Syringa vulgaris L. comprising meristematic cells of Syringa vulgaris L. for an anti-ageing action of the skin and/or its appendages and/or the mucous membranes.
A method for replacing an immersion nozzle, wherein a new immersion nozzle is supported by pressing members arranged in parallel in both sides of a lower plane of a flange portion and is caused to slide while being pressed to a lower plane of an upper refractory so as to push out a used immersion nozzle in a lateral direction thereby pressure-joining to the upper refractory, wherein a concave portion is formed on an upper plane of the new immersion nozzle so as to include a nozzle hole therein, and a shaped joint sealer that is a flexible refractory in a plate-like shape with a cutout-portion, the shape of which is equal to or larger than the nozzle hole of the immersion nozzle, is mounted in the said concave portion, wherein the shaped joint sealer can fill a space with being deformed when the immersion nozzle is joined to the upper refractory.
An electrophotographic photosensitive member comprising: a support, an undercoat layer formed above the support, a charge generation layer formed on the undercoat layer, and a charge transport layer formed above the charge generation layer, wherein the undercoat layer contains a polyamide resin and a titanium oxide particle which is surface-treated with a compound represented by Formula: wherein R 1 denotes a methyl group, an ethyl group, an acetyl group, or a 2-methoxyethyl group; R 2 denotes a hydrogen atom or a methyl group; and m + n=3, m is an integer of 0 or more, and n is an integer of 1 or more, with a proviso that when n is 3, m is 0; when a volume of the titanium oxide particles to a volume of the polyamide resin in the undercoat layer is a, as measured according to the description, and an average primary particle diameter of the titanium oxide particles is b (μm), the following Equation is satisfied: 14.0 ≤ a / b ≤ 19.1; and the charge generation layer contains a charge generating material and a thermoplastic resin having a hydroxyl group and a hydroxyl number of 50 mgKOH/g or more.
A device for continuous measurement of an analyte concentration, the device comprising: a sensing mechanism configured to generate a signal associated with a concentration of an analyte in a host; and a sensing membrane located over the sensing mechanism, the sensing membrane comprising: a bioprotective domain comprising a blend comprising a base polymer comprising a surface-active group and a hydrophilic polymer, wherein the base polymer comprises a silicone polycarbonate urethane; and an enzyme domain comprising an enzyme. a sensing mechanism configured to generate a signal associated with a concentration of an analyte in a host; and a sensing membrane located over the sensing mechanism, the sensing membrane comprising: a bioprotective domain comprising a blend comprising a base polymer comprising a surface-active group and a hydrophilic polymer, wherein the base polymer comprises a silicone polycarbonate urethane; and an enzyme domain comprising an enzyme. a bioprotective domain comprising a blend comprising a base polymer comprising a surface-active group and a hydrophilic polymer, wherein the base polymer comprises a silicone polycarbonate urethane; and an enzyme domain comprising an enzyme.
A terminal comprising: a receiving section configured to receive information indicating a Radio Network Temporary Identifier, RNTI; and a control section configured to monitor a given search space corresponding to downlink control information, DCI, format 2_2 or DCI format 2_3 that has cyclic redundancy check, CRC, bits scrambled by the RNTI and is appended with a bit of fixed value until a size of the DCI format 2_2 or DCI format 2_3 equals to a size of DCI format 1_0; wherein the RNT! is different from a RNTI that is used for scrambling CRC bits of the DCI format 1_0. a receiving section configured to receive information indicating a Radio Network Temporary Identifier, RNTI; and a control section configured to monitor a given search space corresponding to downlink control information, DCI, format 2_2 or DCI format 2_3 that has cyclic redundancy check, CRC, bits scrambled by the RNTI and is appended with a bit of fixed value until a size of the DCI format 2_2 or DCI format 2_3 equals to a size of DCI format 1_0; wherein the RNT! is different from a RNTI that is used for scrambling CRC bits of the DCI format 1_0.
A water heater control system having a first water heater, a second water heater, and an exhaust vent connecting the first water heater to the second water heater, the control system comprising: an inlet; a blower assembly including a motor; a fluid flowpath among the inlet, blower assembly, and exhaust vent; a sensor positioned along the fluid flowpath; and a controller, including a processor and a memory, wherein the sensor comprises a pitot tube having a static passageway and a dynamic passageway, and the controller is electrically coupled to the sensor to receive a static pressure signal from the static passageway and a dynamic pressure signal from the dynamic passageway, and the motor of the blower assembly, wherein the controller is configured to control the motor based on at least one of an input from the sensor and an input from the second water heater. an inlet; a blower assembly including a motor; a fluid flowpath among the inlet, blower assembly, and exhaust vent; a sensor positioned along the fluid flowpath; and a controller, including a processor and a memory, wherein the sensor comprises a pitot tube having a static passageway and a dynamic passageway, and the controller is electrically coupled to the sensor to receive a static pressure signal from the static passageway and a dynamic pressure signal from the dynamic passageway, and the motor of the blower assembly, wherein the controller is configured to control the motor based on at least one of an input from the sensor and an input from the second water heater.
A projectile deployment system, comprising: an entangling projectile, including a pair of pellets (14a, 14b) and a tether connecting the pellets (14a, 14b); a projectile casing, including a pair of sockets (30a, 30b), each socket sized to carry one of the pellets (14a, 14b); the pair of sockets (30a, 30b) being angled relative to one another such that the pellets (14a, 14b) travel apart from one another as they are expelled from the projectile casing; and a launcher, carrying the projectile casing; a selectively activatable pressure source carried by one of the launcher or the projectile casing, the pressure source capable of expelling the entangling projectile from the projectile casing toward a subject characterized in that the sockets (30a, 30b) are vertically offset relative to one another and extend on planes parallel to one another. an entangling projectile, including a pair of pellets (14a, 14b) and a tether connecting the pellets (14a, 14b); a projectile casing, including a pair of sockets (30a, 30b), each socket sized to carry one of the pellets (14a, 14b); the pair of sockets (30a, 30b) being angled relative to one another such that the pellets (14a, 14b) travel apart from one another as they are expelled from the projectile casing; and a launcher, carrying the projectile casing; a selectively activatable pressure source carried by one of the launcher or the projectile casing, the pressure source capable of expelling the entangling projectile from the projectile casing toward a subject characterized in that the sockets (30a, 30b) are vertically offset relative to one another and extend on planes parallel to one another.
An abradable seal comprising: a seal element formed of a polymer matrix with microspheres dispersed through the polymer matrix, the polymer matrix having a polymer matrix thermal conductivity and the microspheres having a microsphere thermal conductivity that is greater than the polymer matrix thermal conductivity, characterised in that the microspheres have a multi-layer wall including a support layer and a metallic layer on the support layer. a seal element formed of a polymer matrix with microspheres dispersed through the polymer matrix, the polymer matrix having a polymer matrix thermal conductivity and the microspheres having a microsphere thermal conductivity that is greater than the polymer matrix thermal conductivity, characterised in that the microspheres have a multi-layer wall including a support layer and a metallic layer on the support layer.