mhurhangee/ep-ind-claims huggingface dataset:
A differential device for a self-propelled wheeled vehicle, said device comprising: - an input crown able to be rotated by the motor of said vehicle, - two wheel shafts separated from one another and distributed on either side of the crown coaxially to said crown, - two clutch mechanisms each comprising a first clutch element mounted secured in rotation with one of said wheel shafts, and a second clutch element mounted freely rotating relative to said shaft and able to be rotated by said crown, said second clutch elements being positioned between said first clutch elements, - for each clutch mechanism, said second clutch element being able to be moved axially between a close position of said first clutch element in which it is engaged with the first clutch element, and a position separated from said first clutch element in which it is disengaged from the first clutch element, - said crown and the second clutch elements being provided with coupling means (24, 42) rotating with respect to one another, characterized in that each said second clutch element is also provided with bearing contact means with the other second clutch element, said bearing contact means being able, for a first given angular configuration of the second clutch elements relative to one another, to keep the second clutch elements in the engaged position with the corresponding first clutch elements, and said bearing contact means also being suitable, for a second given angular configuration of the second clutch elements relative to one another, different from the first configuration, for allowing the passage of the second clutch elements to the disengaged position with respect to the first clutch elements. - an input crown able to be rotated by the motor of said vehicle, - two wheel shafts separated from one another and distributed on either side of the crown coaxially to said crown, - two clutch mechanisms each comprising a first clutch element mounted secured in rotation with one of said wheel shafts, and a second clutch element mounted freely rotating relative to said shaft and able to be rotated by said crown, said second clutch elements being positioned between said first clutch elements, - for each clutch mechanism, said second clutch element being able to be moved axially between a close position of said first clutch element in which it is engaged with the first clutch element, and a position separated from said first clutch element in which it is disengaged from the first clutch element, - said crown and the second clutch elements being provided with coupling means (24, 42) rotating with respect to one another,
An EZH2 inhibitor for use in the treatment of a cancer in a subject in need thereof, wherein the expression of a BAP1 biomarker in the cancer of the subject is absent or expressed at a lower level than a BAP1 reference control level, wherein the BAP1 reference control level is the expression level of the BAP1 biomarker in a reference control sample; wherein the cancer is selected from the group consisting of malignant mesotheliomas, uveal melanomas, renal cell carcinoma, cutaneous melanomas, lung cancer, breast cancer, ovarian cancer, non-melanoma skin cancer, meningioma, cholangiocarcinoma, leiomyosarcoma, neuroendocrine tumors, pancreatic cancer, paraganglioma, malignant fibrous histiocytoma, melanocytic BAP1-mutated atypical intradermal tumors (MBAITs), acute myeloid leukemia, myelodysplastic syndromes, and bladder cancer; and wherein the EZH2 inhibitor is selected from the group consisting of UNC1999, 3-deazaneplanocin A, EI1, EPZ-6438, EPZ-5676, GSK343, EPZ005687, EPZ011989, and GSK126.
Vehicle comprising at least one energy storage means and driving means configured to use the energy stored in said at least one energy storage means to allow the operation of said vehicle, said vehicle comprising a fire extinguishing system comprising: - at least one hydraulic interface configured to allow the insertion of fire extinguishing fluid into said fire extinguishing system; - diffuser means configured to spray said fire extinguishing fluid towards the at least one energy storage means; and - a hydraulic circuit fluidically connecting said at least one hydraulic interface with said diffuser means, wherein said diffuser means comprise at least one nozzle (16, 17) configured to spray said fluid from said hydraulic circuit towards said energy storage means, characterized in that said energy storage means comprises a casing, said casing_ defining an opening configured to house a meltable element, said meltable element being configured to melt when said energy storage means reaches a predetermined threshold temperature, said diffuser means comprising a direct jet nozzle configured to spray said fluid inside said casing through said opening. - at least one hydraulic interface configured to allow the insertion of fire extinguishing fluid into said fire extinguishing system; - diffuser means configured to spray said fire extinguishing fluid towards the at least one energy storage means; and - a hydraulic circuit fluidically connecting said at least one hydraulic interface with said diffuser means, wherein said diffuser means comprise at least one nozzle (16, 17) configured to spray said fluid from said hydraulic circuit towards said energy storage means, characterized in that said energy storage means comprises a casing, said casing_ defining an opening configured to house a meltable element, said meltable element being configured to melt when said energy storage means reaches a predetermined threshold temperature, said diffuser means comprising a direct jet nozzle configured to spray said fluid inside said casing through said opening.
Synthesis reactor for producing vinyl acetate in which gaseous ethylene and acetic acid and also oxygen or oxygenous gases undergo catalytic reaction, - the synthesis reactor is a wall reactor and - comprises a multiplicity of reaction spaces in which the catalytic reaction is effected, wherein - the free flow cross section in each of these reaction spaces is less than 2000 μm at least in one dimension, wherein - at least one wall of the reaction spaces is coated with a catalyst, and - at least one wall of the reaction spaces is indirectly cooled, - the catalyst comprising from 0.3 to 10 wt% of palladium, from 0.2 to 5 wt% of gold and from 0.4 to 6 wt% of an alkali metal compound on an oxidic support material is adheringly applied to the wall of the reaction spaces with a binder. - the synthesis reactor is a wall reactor and - comprises a multiplicity of reaction spaces in which the catalytic reaction is effected, wherein - the free flow cross section in each of these reaction spaces is less than 2000 μm at least in one dimension, wherein - at least one wall of the reaction spaces is coated with a catalyst, and - at least one wall of the reaction spaces is indirectly cooled, - the catalyst comprising from 0.3 to 10 wt% of palladium, from 0.2 to 5 wt% of gold and from 0.4 to 6 wt% of an alkali metal compound on an oxidic support material is adheringly applied to the wall of the reaction spaces with a binder.
A method for providing support for elasticity within a domain of a multi-domain network, the method comprising: receiving information for a requested virtual link forming part of an end-to-end path across the multi-domain network, wherein the information of the requested virtual link comprises a requested service parameter and a requested elasticity parameter; and selecting a physical path corresponding to the requested virtual link on which to send traffic, wherein the physical path is selected based on a service parameter and an elasticity parameter of the physical path, wherein the service parameters and the elasticity parameters are bandwidth and additional bandwidth respectively, and wherein the elasticity relates to an ability to dynamically provide required resources to a service in the multi-domain network. receiving information for a requested virtual link forming part of an end-to-end path across the multi-domain network, wherein the information of the requested virtual link comprises a requested service parameter and a requested elasticity parameter; and selecting a physical path corresponding to the requested virtual link on which to send traffic, wherein the physical path is selected based on a service parameter and an elasticity parameter of the physical path, wherein the service parameters and the elasticity parameters are bandwidth and additional bandwidth respectively, and wherein the elasticity relates to an ability to dynamically provide required resources to a service in the multi-domain network.
An endoscopic hood configured to be disposed at a distal end of an endoscope comprising an endoscope body and a working channel disposed within the endoscope body, the endoscopic hood comprising: a first portion that comprises a proximal end, a distal end, and first and second lumens (24, 25) extending therebetween; and a second portion comprising a curved wall extending distally from the distal end of the first portion, the curved wall defining a working area adjacent an inner surface of the curved wall and the first lumen; wherein the first lumen is configured to receive a shaft of a first device disposed in the working channel of the endoscope, and wherein the second lumen is configured to slidably and rotationally receive a shaft of a second device disposed alongside an outer surface of the elongate body of the endoscope. a first portion that comprises a proximal end, a distal end, and first and second lumens (24, 25) extending therebetween; and a second portion comprising a curved wall extending distally from the distal end of the first portion, the curved wall defining a working area adjacent an inner surface of the curved wall and the first lumen; wherein the first lumen is configured to receive a shaft of a first device disposed in the working channel of the endoscope, and wherein the second lumen is configured to slidably and rotationally receive a shaft of a second device disposed alongside an outer surface of the elongate body of the endoscope.
A process measurement system comprising: a sensor for producing a sensor signal as a function of a process parameter; a measurement circuit for converting the sensor signal to measurement data; and a control circuit for controlling magnitude of the sensor signal as a function of the measurement data so that full use is made of a dynamic range of the measurement circuit, and wherein the measurement circuit comprises a sigma delta analog-to-digital (A/D) converter (34, 34A), wherein the sigma delta A/D converter (34, 34A) comprises: a switched capacitor integrator having an input connected to the sensor and an output at which an integrator output voltage is provided; a level comparator having an input connected to the output of the switched capacitor integrator and an output at which a pulse density modulation signal is provided; and a sensor excitation generator that provides excitation to the sensor in response to the PDM signal. a sensor for producing a sensor signal as a function of a process parameter; a measurement circuit for converting the sensor signal to measurement data; and a control circuit for controlling magnitude of the sensor signal as a function of the measurement data so that full use is made of a dynamic range of the measurement circuit, and wherein the measurement circuit comprises a sigma delta analog-to-digital (A/D) converter (34, 34A), wherein the sigma delta A/D converter (34, 34A) comprises: a switched capacitor integrator having an input connected to the sensor and an output at which an integrator output voltage is provided; a level comparator having an input connected to the output of the switched capacitor integrator and an output at which a pulse density modulation signal is provided; and a sensor excitation generator that provides excitation to the sensor in response to the PDM signal. a switched capacitor integrator having an input connected to the sensor and an output at which an integrator output voltage is provided; a level comparator having an input connected to the output of the switched capacitor integrator and an output at which a pulse density modulation signal is provided; and a sensor excitation generator that provides excitation to the sensor in response to the PDM signal.
Power unit for a medicament delivery device comprising: - a power body having opposite proximal and distal ends, - a plunger rod driver coaxial and movably arranged in relation to said power body, - a plunger rod coaxial and movably arranged in relation to said plunger rod driver, - a force spring element operably connected between said plunger rod and said power body; wherein the plunger rod driver comprises: - a first holding element arranged to interact with a second holding element on said plunger rod and with a wall of the power body for releasibly holding said plunger rod with said force spring element in an injection tensioned state; - a third holding element arranged to interact with a fourth holding element on said power body for releasibly holding said plunger rod driver in a penetration tensioned state; - a first attachment element arranged to interact with a second attachment element on a medicament container holder, capable of attaching the two attachment elements together; and - a first blocking element arranged to interact with a second blocking element on said power body, for blocking any movement of said plunger rod driver in the distal direction after the plunger rod driver is released from the penetration tensioned state. - a power body having opposite proximal and distal ends, - a plunger rod driver coaxial and movably arranged in relation to said power body, - a plunger rod coaxial and movably arranged in relation to said plunger rod driver, - a force spring element operably connected between said plunger rod and said power body; - a first holding element arranged to interact with a second holding element on said plunger rod and with a wall of the power body for releasibly holding said plunger rod with said force spring element in an injection tensioned state; - a third holding element arranged to interact with a fourth holding element on said power body for releasibly holding said plunger rod driver in a penetration tensioned state; - a first attachment element arranged to interact with a second attachment element on a medicament container holder, capable of attaching the two attachment elements together; and - a first blocking element arranged to interact with a second blocking element on said power body, for blocking any movement of said plunger rod driver in the distal direction after the plunger rod driver is released from the penetration tensioned state.
A method for producing a silver-plated product, the method comprising the steps of: preparing a base material; and forming a surface layer of silver on a surface of the base material or on a surface of an underlying layer formed on the base material, wherein the surface layer of silver is formed by electroplating in a silver plating bath which comprises silver potassium cyanide, potassium cyanide and potassium selenocyanate, the concentration of potassium selenocyanate in the silver plating bath being 3 to 30 mg/L, the silver plating bath containing 5 to 15 mg/L of selenium and having a mass ratio of silver to free cyanogen, the mass ratio being in the range of from 0.9 to 1.8, and wherein a percentage of an X-ray diffraction intensity on plane of the surface layer with respect to the sum of X-ray diffraction intensities on,, and planes of the surface layer is 40 % or more. preparing a base material; and forming a surface layer of silver on a surface of the base material or on a surface of an underlying layer formed on the base material, wherein the surface layer of silver is formed by electroplating in a silver plating bath which comprises silver potassium cyanide, potassium cyanide and potassium selenocyanate, the concentration of potassium selenocyanate in the silver plating bath being 3 to 30 mg/L, the silver plating bath containing 5 to 15 mg/L of selenium and having a mass ratio of silver to free cyanogen, the mass ratio being in the range of from 0.9 to 1.8, and wherein a percentage of an X-ray diffraction intensity on plane of the surface layer with respect to the sum of X-ray diffraction intensities on,, and planes of the surface layer is 40 % or more.
A method for implementing service scheduling, comprising allocating, after a plurality of eMBMSs are paired, the plurality of enhanced Multimedia Broadcast/Multicast Services, eMBMSs, to a multicast subframe; generating a multicast channel scheduling information, MSI, message based on multiplexing information of the plurality of eMBMSs; and mapping the plurality of eMBMSs to a physical signal within a scheduling period based on the MSI message; characterized in that before allocating, after the plurality of eMBMSs are paired, the plurality of eMBMSs to the multicast subframe, the method further comprises: calculating a number of symbols to be occupied of each of the plurality of eMBMSs in a physical layer; and when a total number of symbols to be occupied by the plurality of eMBMSs in the physical layer is less than or equal to a service carrying capacity of a first multicast subframe, determining the first multicast subframe as the multicast subframe to which the plurality of eMBMSs are to be allocated, or when scheduling periods of the plurality of eMBMSs are consistent and a total number of symbols to be occupied by the plurality of eMBMSs in the physical layer is less than or equal to a service carrying capacity of a second multicast subframe, determining the second multicast subframe as the multicast subframe to which the plurality of eMBMSs are to be allocated. allocating, after a plurality of eMBMSs are paired, the plurality of enhanced Multimedia Broadcast/Multicast Services, eMBMSs, to a multicast subframe; generating a multicast channel scheduling information, MSI, message based on multiplexing information of the plurality of eMBMSs; and mapping the plurality of eMBMSs to a physical signal within a scheduling period based on the MSI message; characterized in that before allocating, after the plurality of eMBMSs are paired, the plurality of eMBMSs to the multicast subframe, the method further comprises: calculating a number of symbols to be occupied of each of the plurality of eMBMSs in a physical layer; and when a total number of symbols to be occupied by the plurality of eMBMSs in the physical layer is less than or equal to a service carrying capacity of a first multicast subframe, determining the first multicast subframe as the multicast subframe to which the plurality of eMBMSs are to be allocated, or when scheduling periods of the plurality of eMBMSs are consistent and a total number of symbols to be occupied by the plurality of eMBMSs in the physical layer is less than or equal to a service carrying capacity of a second multicast subframe, determining the second multicast subframe as the multicast subframe to which the plurality of eMBMSs are to be allocated.
A porous material comprising: aggregates; and a composite binder which includes glass as a binder and mullite particles as reinforcing particles such that the mullite particles are dispersed in the glass, wherein the aggregates are bound together by the composite binder in a state where pores are formed in the porous material, wherein the glass contains MgO, Al 2 O 3 and SiO 2 and further contains at least one that is selected from a group consisting of Na 2 O, K 2 O and CaO, wherein a lower limit of a percentage of a content of the composite binder to a total mass of the aggregates and composite binder is 12 mass%, and an upper limit of the percentage of the content of the composite binder to the total mass of the aggregates and composite binder is 50 mass%, and wherein the aggregates contain at least one of silicon carbide (SiC) particle and silicon nitride (Si 3 N 4) particle. aggregates; and a composite binder which includes glass as a binder and mullite particles as reinforcing particles such that the mullite particles are dispersed in the glass, wherein the aggregates are bound together by the composite binder in a state where pores are formed in the porous material, wherein the glass contains MgO, Al 2 O 3 and SiO 2 and further contains at least one that is selected from a group consisting of Na 2 O, K 2 O and CaO, wherein a lower limit of a percentage of a content of the composite binder to a total mass of the aggregates and composite binder is 12 mass%, and an upper limit of the percentage of the content of the composite binder to the total mass of the aggregates and composite binder is 50 mass%, and wherein the aggregates contain at least one of silicon carbide (SiC) particle and silicon nitride (Si 3 N 4) particle.
Drive arrangement for a hybrid-drive motor vehicle, having an internal combustion engine and at least one electrical machine which, via a speed-change gearbox having a plurality of gear ratios, provide, alternately or together, an output drive to at least one axle differential of the motor vehicle, the internal combustion engine being able to be uncoupled by means of a disconnecting clutch, wherein the gearbox is divided into two sub-gearboxes (3, 4), and preferably into two sub-gearboxes (3,4) which each have at least two gear ratios, with the electrical machine being arranged, in the path along which force is transmitted, downstream of the disconnecting clutch, and with an output of the second sub-gearbox providing the output drive to the axle differential, characterized in that the internal combustion engine is connected for drive to the first sub-gearbox in such a way as not to be able to be uncoupled, wherein the disconnecting clutch is arranged at an output of the first sub-gearbox but upstream of the second sub-gearbox.
Conference unit for an intercom network, comprising a plurality of control elements (15a, 15b, 15c, 15d), which are each designed according to a type of lever (49a, 49b, 49c, 49d, 49e, 49f, 49g, 49h, 49i, 49j), wherein a lever can be mounted starting from an inactive middle position manually along a first direction into a first switching position, or alternatively along a second direction, in opposition to the first direction, into a second switching position, wherein the lever in pretensioned in its middle position, characterised in that the lever cooperates directly or indirectly with a magnet that exerts high forces on the lever located in a position near the middle position, the lever being forced down into its middle position, wherein at least one spring element (73, 74) separated from the magnet additionally presses the lever into the middle position.