mhurhangee/ep-ind-claims huggingface dataset:
Metallic air intake manifold (10, 10') for supplying the cylinders of an internal combustion engine with air, said intake manifold (10, 10') having an external opening (14, 14') intended to be connected to a pipe for recirculating the exhaust gases emitted by the engine, said external opening (14, 14') communicating with a passage (16, 16') passing through a wall (18, 18') of said intake manifold (10, 10') and opening into the latter, characterized in that said passage (16, 16') is shaped so as to diffuse a gas coming from the external opening (14, 14') into said intake manifold (10, 10'), said passage (16, 16') passing through the wall (18, 18') of the manifold having a portion (16a, 16'a) of symmetric or asymmetric and frustoconical or substantially frustoconical shape, the section of which decreases continuously from the external opening (14, 14') to a restricted section of elongate shape (20, 20'), its ends being directed towards the furthest cylinders to which the intake manifold is connected, in order to accelerate and direct a gas circulating in said passage (16, 16') in the direction of the engine cylinders to which said intake manifold is connected, the length of said restricted section of elongate shape extending substantially parallel to a line joining openings for connecting the intake manifold to the engine cylinders.
A method for producing a thin film, the method being carried out without the use of a resin binder and comprising a first step: a step of forming, on a substrate, a coating using a sol containing a metal oxide, wherein the metal of the metal oxide is at least one selected from titanium, zirconium, hafnium, aluminum, zinc, and tin, modified with a phosphorus compound represented by the following formula: wherein R 1 is a hydrogen atom or a linear or branched alkyl group having 1 to 5 carbon atoms; R 2 is a divalent organic residue represented by the following formula: (wherein Y is a linear or branched alkylene group having 1 to 10 carbon atoms; and p is an integer of 1 to 10); and n is 1 or 2, a second step: a step of curing the coating on the substrate obtained in the first step by light irradiation, and a third step: a step of further adding energy to the cured film obtained in the second step by heating and/or light irradiation, thereby increasing the refractive index of the cured film. wherein R 1 is a hydrogen atom or a linear or branched alkyl group having 1 to 5 carbon atoms; R 2 is a divalent organic residue represented by the following formula: (wherein Y is a linear or branched alkylene group having 1 to 10 carbon atoms; and p is an integer of 1 to 10); and n is 1 or 2, a second step: a step of curing the coating on the substrate obtained in the first step by light irradiation, and a third step: a step of further adding energy to the cured film obtained in the second step by heating and/or light irradiation, thereby increasing the refractive index of the cured film.
A method performed by a user equipment, UE, in a communication system, the method comprising: receiving, from a first base station associated with a master cell group, MCG, a first message for configuring a second base station associated with a secondary cell group, SCG; receiving (S204, S206), from the second base station, a second message including conditional primary secondary cell, PSCell, change, CPC, configuration including at least one configuration for at least one candidate PSCell and at least one condition to trigger an execution of CPC for each of the at least one candidate PSCell; storing the CPC configuration; and in case that a third message for releasing the SCG of the second base station is received from the first base station, releasing the SCG of the second base station and the stored CPC configuration. receiving, from a first base station associated with a master cell group, MCG, a first message for configuring a second base station associated with a secondary cell group, SCG; receiving (S204, S206), from the second base station, a second message including conditional primary secondary cell, PSCell, change, CPC, configuration including at least one configuration for at least one candidate PSCell and at least one condition to trigger an execution of CPC for each of the at least one candidate PSCell; storing the CPC configuration; and in case that a third message for releasing the SCG of the second base station is received from the first base station, releasing the SCG of the second base station and the stored CPC configuration.
A homogeneous bioactive shaped body prepared by heating homogeneous pellets of polyetheretherketone (PEEK) and alkali-containing bioactive glass particles and injection molding the homogeneous pellets to form the homogeneous bioactive shaped body, wherein the PEEK is present in an amount of 70% to 80% by weight of the shaped body, and wherein the alkali-containing bioactive glass particles have a particle size range from 1 μm to 500 μm, and are present in an amount of 20% to 30% by weight of the shaped body, wherein the homogeneous pellets are prepared by heating PEEK particles to at least partially melt the PEEK particles, wherein the PEEK particles have a particle size ranging from 400 μm to 4,000 μm and a molecular weight ranging from 100,000 to 120,000 Daltons, mixing the at least partially melted PEEK particles, adding the bioactive glass particles to the at least partially melted and mixed PEEK particles, and extruding homogeneous pellets.
An odour seal (10, 30, 60) comprising an odour seal body (11, 31, 61) defining a chamber (12, 32, 62) for sealing water, wherein the chamber (12, 32, 62) has at least one inlet opening (14, 34, 64) and at least one outlet opening (13, 33, 63), the odour seal (10, 30, 60) having a membrane element (15, 35, 65) movable between a closing position and an opening position and arranged within the odour seal (10, 30, 60) in such a way that it closes the at least one outlet opening (13, 33, 63) of the chamber (12, 32, 62) in the closing position and releases the at least one outlet opening (13, 33, 63) of the chamber (12, 32, 62) in the opening position, wherein the odour seal body (11, 31, 61) defines a drainage space (20, 40, 70), which communicates with the at least one outlet opening (13, 33, 63) of the chamber (12, 32, 62) when the membrane element (15, 35, 65) is in the opening position, with a removable cover (22, 42, 72) defining an upper portion of the drainage space (20, 40, 70) being arranged on the odour seal body (11, 31, 61), characterized in that the drainage space (20, 40, 70) surrounds the at least one outlet opening (13, 33, 63) of the chamber (12, 32, 62) at least partially and that the at least one inlet opening (14, 34, 64) forms an inlet duct (17, 37, 67) which - viewed in the installation position - has an upper end open toward the environment and extends downward into a lower area (12a, 32a, 62a) of the chamber (12, 32, 62), with the inlet duct (17, 37, 67) surrounding the drainage space (20, 40, 70) at least partially or the drainage space (20, 40, 70) surrounding the inlet duct (17, 37, 67) at least partially, with the cover (22, 72) having at least one guide element (25, 75) on which the membrane element (15, 65) is movably arranged, wherein the guide element (25, 75) is preferably designed as an extension or depression which cooperates with a depression (26, 66) or an extension, respectively, of the membrane element (15, 65).
Chipping rotor for a grinding machine, wherein the chipping rotor comprises tool receptacles and wherein one overload-proof tool, respectively, can be received in the tool receptacles, which tool comprises at least one knife blade; wherein the knife blade can be fixed between a lower and an upper tool holder (3, 3') by means of at least one fastening screw, and is adjustable in an in particular tangential direction of the chipping rotor, in order to adjust the anticipation of the tool; characterised in that the lower tool holder is mounted with/coupled to the chipping rotor from the inside of the chipping rotor; and a shear screw for protection against extraneous material, which screw releases a coupling between the tool and the chipping rotor in the event of a critical load being exceeded, based on contact of the tool with corresponding extraneous material.
A mobile communication terminal comprising: a noncontact integrated circuit, IC, module incorporating an IC chip; a mount part on which a subscriber authentication module is to be loaded, wherein the subscriber authentication module stores connection information to be used for connection between the host terminal and a mobile communication network; a memory unit for storing information to identify a subscriber authentication module; acquiring means for acquiring information to identify the subscriber authentication module loaded on the mount part; comparing means for making a comparison between the information to identify the subscriber authentication module, stored in the memory unit, and the information to identify the subscriber authentication module, acquired by the acquiring means; control means for activating inhibition of access to the IC chip, based on a result of the comparison by the comparing means; and registering means for, when an application software to access the IC chip is first activated or downloaded in the host terminal, acquiring the information to identify the subscriber authentication module loaded on the mount part, and storing the information in the memory unit. a noncontact integrated circuit, IC, module incorporating an IC chip; a mount part on which a subscriber authentication module is to be loaded, wherein the subscriber authentication module stores connection information to be used for connection between the host terminal and a mobile communication network; a memory unit for storing information to identify a subscriber authentication module; acquiring means for acquiring information to identify the subscriber authentication module loaded on the mount part; comparing means for making a comparison between the information to identify the subscriber authentication module, stored in the memory unit, and the information to identify the subscriber authentication module, acquired by the acquiring means; control means for activating inhibition of access to the IC chip, based on a result of the comparison by the comparing means; and registering means for, when an application software to access the IC chip is first activated or downloaded in the host terminal, acquiring the information to identify the subscriber authentication module loaded on the mount part, and storing the information in the memory unit.
A method for monitoring a medical device available to a patient, wherein said medical device comprises a communication terminal using software functionalities (f1, f2, f3) for accompanying the patient in a predetermined therapeutic treatment, said method, implemented by computer means, comprising the following steps: - a step of receiving current data for executing said software functionalities (f1, f2, f3), said current data coming from the medical device, - a step of testing said current data by comparison with reference data according to at least one predetermined vigilance rule associated with a risk for the patient, said risk being related to the execution of at least one of the software functionalities (f1, f2, f3) with said current data, the vigilance rule comprises a criterion on compatibility of the software functionalities (f1, f2, f3) with a software and/or hardware environment, and - a step of sending a vigilance message when such a risk is identified during the test step or a validation message when no risk is identified, wherein the vigilance message includes an instruction for remotely deactivating at least one of said software functionalities (f1, f2, f3) and the validation message includes an instruction for keeping the software functionalities (f1, f2, f3) active for a predetermined period of validity, wherein at least one software functionalities (f1, f2, f3) is deactivated at the end of the predetermined period of validity if no other vigilance message has been received by the medical device. - a step of receiving current data for executing said software functionalities (f1, f2, f3), said current data coming from the medical device, - a step of testing said current data by comparison with reference data according to at least one predetermined vigilance rule associated with a risk for the patient, said risk being related to the execution of at least one of the software functionalities (f1, f2, f3) with said current data, the vigilance rule comprises a criterion on compatibility of the software functionalities (f1, f2, f3) with a software and/or hardware environment, and - a step of sending a vigilance message when such a risk is identified during the test step or a validation message when no risk is identified, wherein the vigilance message includes an instruction for remotely deactivating at least one of said software functionalities (f1, f2, f3) and the validation message includes an instruction for keeping the software functionalities (f1, f2, f3) active for a predetermined period of validity, wherein at least one software functionalities (f1, f2, f3) is deactivated at the end of the predetermined period of validity if no other vigilance message has been received by the medical device.
An electrode material made of an agglomerate formed by agglomerating particles of an electrode active material having a carbonaceous coat formed on a surface, wherein an average pore diameter in the pore size distribution is 0.3 μm or less, a ratio (thickness of central portion carbonaceous coat/thickness of outer circumferential portion carbonaceous coat) of an average film thickness of the carbonaceous coat in a central portion of the agglomerate to an average film thickness of the carbonaceous coat in an outer circumferential portion of the agglomerate is in a range of 0.7 to 1.3, an average particle diameter of the agglomerate is in a range of 1.0 μm to 100 μm, characterised in that a volume density of the agglomerate is in a range of 50% by volume to 80% by volume of a volume density of a solid form of the agglomerate, a pore size distribution of pores in the agglomerate is a normal distribution, an amount of carbon in the carbonaceous coat is in a range of 0.6 parts by mass to 10 parts by mass with respect to 100 parts by mass of the electrode active material, a tap density of the agglomerate is in a range of 1.0 g/cm 3 to 1.5 g/cm 3, and wherein the electrode material is manufactured as follows: a slurry containing an electrode active material or a precursor of an electrode active material, an organic compound for forming a carbonaceous coat, and a liquid mixture which is contained to disperse the electrode active material or the precursor of the electrode active material and is made up of two or more solvents having different boiling points is dried, and then an obtained dried substance is fired in a range of 500°C to 1000°C in a non-oxidizing atmosphere. a slurry containing an electrode active material or a precursor of an electrode active material, an organic compound for forming a carbonaceous coat, and a liquid mixture which is contained to disperse the electrode active material or the precursor of the electrode active material and is made up of two or more solvents having different boiling points is dried, and then an obtained dried substance is fired in a range of 500°C to 1000°C in a non-oxidizing atmosphere.
A cam phasing system (10, 100, 200, 300, 400, 500, 600) configured to vary a rotational relationship between a cam shaft and a crank shaft of an internal combustion engine, the cam phasing system coupled to an actuation mechanism, the cam phasing system comprising: a first component (18, 106, 206, 406, 606) configured to rotate in a desired direction to a target rotary position, in response to an input displacement applied by the actuation mechanism; a second component (14, 104, 204, 404, 504) configured to be coupled to the cam shaft; a third component (12, 102, 202, 402) configured to be coupled to the crank shaft, wherein the first component is mechanically coupled by helical features to the third component; and a plurality of locking mechanisms (20, 160, 508, 510) each including a first locking feature (50, 162) and a second locking feature (52, 164), wherein each of the first locking features and the second locking features are moveable between a locked position and an unlocked position; wherein the first locking features are configured to move to the unlocked position and the second locking features are configured to remain in a locked position in response to rotation of the first component to the target rotary position, and wherein when the first locking features move to the unlocked position, the second component is configured to rotate relative to the third component and rotationally follow the first component to the target rotary position. a first component (18, 106, 206, 406, 606) configured to rotate in a desired direction to a target rotary position, in response to an input displacement applied by the actuation mechanism; a second component (14, 104, 204, 404, 504) configured to be coupled to the cam shaft; a third component (12, 102, 202, 402) configured to be coupled to the crank shaft, wherein the first component is mechanically coupled by helical features to the third component; and a plurality of locking mechanisms (20, 160, 508, 510) each including a first locking feature (50, 162) and a second locking feature (52, 164), wherein each of the first locking features and the second locking features are moveable between a locked position and an unlocked position; wherein the first locking features are configured to move to the unlocked position and the second locking features are configured to remain in a locked position in response to rotation of the first component to the target rotary position, and wherein when the first locking features move to the unlocked position, the second component is configured to rotate relative to the third component and rotationally follow the first component to the target rotary position.
Capsule for preparing a beverage, comprising: - an opening unit, comprising at least one basic element (10-10′′′; 10-1 to 10-6, 100) which forms a capsule body for containing a substance for preparing a beverage, with at least one opening (15-15′′′, 15-1 to 15-6-, 115); - a top film (11-11′′′, 111), which closes the opening unit; and - a film (20-20'; 20-1 to 20-6, 120) which is attached to one side of an attachment portion of the basic element (10-10′′′; 10-1 to 10-6, 100) and closes the opening, wherein the film (20-20'; 20-1 to 20-6, 120) is attached to the attachment portion of the basic element (10-10′′′; 10-1 to 10-6, 100) by a self-contained attachment region, characterized in that, at least a part of the base of the basic element (10-10′′′; 10-1 to 10-6, 100) of the opening unit is designed in such a manner that it can undergo a deformation, wherein the base under the influence of the introduction of a liquid and/or of a steam into the capsule is deformable in such a manner that, when the base of the basic element (10-10′′′; 10-1 to 10-6, 100) is deformed, the attached film is pushed away from the capsule in such a manner that a layer of the film (20-20'; 20-1 to 20-6, 120) is peeled away or the attachment region opens up. - an opening unit, comprising at least one basic element (10-10′′′; 10-1 to 10-6, 100) which forms a capsule body for containing a substance for preparing a beverage, with at least one opening (15-15′′′, 15-1 to 15-6-, 115); - a top film (11-11′′′, 111), which closes the opening unit; and - a film (20-20'; 20-1 to 20-6, 120) which is attached to one side of an attachment portion of the basic element (10-10′′′; 10-1 to 10-6, 100) and closes the opening, wherein the film (20-20'; 20-1 to 20-6, 120) is attached to the attachment portion of the basic element (10-10′′′; 10-1 to 10-6, 100) by a self-contained attachment region, characterized in that, at least a part of the base of the basic element (10-10′′′; 10-1 to 10-6, 100) of the opening unit is designed in such a manner that it can undergo a deformation, wherein the base under the influence of the introduction of a liquid and/or of a steam into the capsule is deformable in such a manner that, when the base of the basic element (10-10′′′; 10-1 to 10-6, 100) is deformed, the attached film is pushed away from the capsule in such a manner that a layer of the film (20-20'; 20-1 to 20-6, 120) is peeled away or the attachment region opens up.
A method of using a type I phase locked loop, PLL, comprising an oscillator and a feedback path to a phase detector, PD, the method comprising: locking a first frequency and first relative phase of a first output signal to a frequency and a phase of a first input signal; locking a second frequency different from the first frequency, and second relative phase different from the first relative phase, of a second output signal to a frequency and a phase of a second input signal; and adjusting the second relative phase to equal the first relative phase, by a one of: inserting a correction signal into the feedback path, wherein the feedback path includes a fractional divider controlled by a Sigma Delta Modulator, SDM, and inserting the correction signal into the feedback path comprises inserting the correction signal into the SDM, and adjusting the oscillator frequency. locking a first frequency and first relative phase of a first output signal to a frequency and a phase of a first input signal; locking a second frequency different from the first frequency, and second relative phase different from the first relative phase, of a second output signal to a frequency and a phase of a second input signal; and adjusting the second relative phase to equal the first relative phase, by a one of: inserting a correction signal into the feedback path, wherein the feedback path includes a fractional divider controlled by a Sigma Delta Modulator, SDM, and inserting the correction signal into the feedback path comprises inserting the correction signal into the SDM, and adjusting the oscillator frequency. inserting a correction signal into the feedback path, wherein the feedback path includes a fractional divider controlled by a Sigma Delta Modulator, SDM, and inserting the correction signal into the feedback path comprises inserting the correction signal into the SDM, and adjusting the oscillator frequency.