mhurhangee/ep-ind-claims huggingface dataset:
Kitchen oven, comprising: - a cooking chamber; - a compartment arranged outside said cooking chamber; the kitchen oven further comprising, at a front surface of said cooking chamber: - a door for opening/closing said cooking chamber; and - an opening for the passage of hot air adjacent to said door, said opening for the passage of hot air being formed in the oven at an outer position with respect to said door, said opening being located at said compartment; wherein the door is movable between a closing position wherein it closes said cooking chamber and an opening position wherein it opens said cooking chamber and comprises a foldaway handle movable between an operating position in which said handle projects from a substantially flat front surface of said door, and a resting position in which said handle does not project from said substantially flat front surface of said door; characterised in that said handle is associated to the door and can be moved with respect to the door through an articulated parallelogram kinematic mechanism which gives the handle a swinging movement with respect to the door, the kinematic mechanism comprising a pair of push rods (28a, 28b) which connect the handle to the door, the push rods (28a, 28b) being pivoted, at opposite ends (28a', 28a"; 28b', 28b") respectively to the handle and the door, each push rod (28a, 28b) comprising two portions that are inclined with respect to one another, wherein a first push rod which is further away from the cooking chamber with respect to a second push rod has its two inclined portions that are inclined with respect to one another by a smaller angle with respect to that of the two inclined portions of the second push rod and abuts against an upper portion of the door when the handle is at the operating position, wherein the second push rod includes a recess (28b'") inside which an elbow-portion (28a'") of the first push-rod slides during the movement of the handle between the resting position and operating position thereof, and vice versa, wherein when said handle is at said resting position, it closes at least partially said opening for the passage of hot air. - a cooking chamber; - a compartment arranged outside said cooking chamber; the kitchen oven further comprising, at a front surface of said cooking chamber: - a door for opening/closing said cooking chamber; and - an opening for the passage of hot air adjacent to said door, said opening for the passage of hot air being formed in the oven at an outer position with respect to said door, said opening being located at said compartment;
An access control reader, of the type comprising: - a casing provided with a base having a main wall provided to be fastened to a support and at least a facade mounted on said base, the or each facade comprising a front wall which is facing the main wall of the base in a closed configuration of the casing so that, once the facade mounted on the base, said casing internally delimits an enclosed space; and - an electronic board disposed inside said enclosed space in the casing and integrating at least one controller, a memory and a main access control device, said controller driving said main access control device by the implementation of a first driving algorithm loaded in the memory; said access control reader being characterized in that the casing includes: - fastening means for fastening a complementary access control module, said fastening means being configured for attachment of said module on the outside of the casing; and - passage means for passing of a connection cable between said module and a connector mounted on said electronic board, said passage means comprising a line of weakness forming an incipient crack of a fuse notch; and in that the memory of the electronic board is loaded with a second driving algorithm to drive said module so that the controller drives said module once said connection cable is plugged onto said connector. - a casing provided with a base having a main wall provided to be fastened to a support and at least a facade mounted on said base, the or each facade comprising a front wall which is facing the main wall of the base in a closed configuration of the casing so that, once the facade mounted on the base, said casing internally delimits an enclosed space; and - an electronic board disposed inside said enclosed space in the casing and integrating at least one controller, a memory and a main access control device, said controller driving said main access control device by the implementation of a first driving algorithm loaded in the memory; - fastening means for fastening a complementary access control module, said fastening means being configured for attachment of said module on the outside of the casing; and - passage means for passing of a connection cable between said module and a connector mounted on said electronic board, said passage means comprising a line of weakness forming an incipient crack of a fuse notch; and in that the memory of the electronic board is loaded with a second driving algorithm to drive said module so that the controller drives said module once said connection cable is plugged onto said connector.
A composite material that constitutes at least part of a part for continuous casting used in continuous casting of a molten metal of pure magnesium or a magnesium alloy, the composite material comprising: a porous body having pores; and a filler incorporated in at least part of a portion that comes into contact with the molten metal, the portion being part of a surface portion of the porous body, wherein the filler contains at least one selected from a nitride, a carbide, and carbon as a main component, and wherein a percentage of pores filled with the filler relative to pores in the surface portion of the porous body is 80% or more. a porous body having pores; and a filler incorporated in at least part of a portion that comes into contact with the molten metal, the portion being part of a surface portion of the porous body, wherein the filler contains at least one selected from a nitride, a carbide, and carbon as a main component, and wherein a percentage of pores filled with the filler relative to pores in the surface portion of the porous body is 80% or more.
A biological conversion process comprising: a. feeding a substrate to a bioreactor system comprising at least a first bioreactor including a culture medium and a bacterium to metabolize a carbon source in the substrate and produce at least one fermentation product. b. withdrawing from the bioreactor system a permeate stream obtained from filtration of a liquid stream of the bioreactor system; c. withdrawing from the bioreactor system a bleed stream comprising bacterium; d. feeding at least a portion of the permeate stream to a high pressure separator; e. feeding at least a portion of the bleed stream to a low pressure separator; wherein said process further comprises (i) withdrawing, from the low pressure separator, a low pressure separator overhead enriched in a desired fermentation product, relative to the bleed stream; and (ii) withdrawing, from the high pressure separator, a high pressure separator overhead and a high pressure separator bottoms, wherein the high pressure separator overhead is enriched in desired fermentation product. a. feeding a substrate to a bioreactor system comprising at least a first bioreactor including a culture medium and a bacterium to metabolize a carbon source in the substrate and produce at least one fermentation product. b. withdrawing from the bioreactor system a permeate stream obtained from filtration of a liquid stream of the bioreactor system; c. withdrawing from the bioreactor system a bleed stream comprising bacterium; d. feeding at least a portion of the permeate stream to a high pressure separator; e. feeding at least a portion of the bleed stream to a low pressure separator;
A camera device for acquiring depth information of an object comprising: a printed circuit board; a sensor disposed on the printed circuit board; a cover comprising an upper plate, a lateral plate extending from an outer periphery of the upper plate, and an inner yoke extending from an inner periphery of the upper plate; a base coupled to the lateral plate of the cover; a holder spaced apart from the base; a coil disposed on the base; a magnet disposed on the holder and facing the coil; a lateral elastic member movably connecting the holder to the base; a lens having an optical axis, coupled to the holder; and a filter coupled to the holder and disposed between the lens and the sensor, characterized in that the holder comprises a groove formed on an upper surface of the holder, wherein at least a portion of the inner yoke of the cover is inserted into the groove of the holder so that the holder is hung on the inner yoke when the holder rotates, and wherein the lens and the filter are tilted together with respect to the sensor when a current is applied to the coil. a printed circuit board; a sensor disposed on the printed circuit board; a cover comprising an upper plate, a lateral plate extending from an outer periphery of the upper plate, and an inner yoke extending from an inner periphery of the upper plate; a base coupled to the lateral plate of the cover; a holder spaced apart from the base; a coil disposed on the base; a magnet disposed on the holder and facing the coil; a lateral elastic member movably connecting the holder to the base; a lens having an optical axis, coupled to the holder; and a filter coupled to the holder and disposed between the lens and the sensor, characterized in that the holder comprises a groove formed on an upper surface of the holder, wherein at least a portion of the inner yoke of the cover is inserted into the groove of the holder so that the holder is hung on the inner yoke when the holder rotates, and wherein the lens and the filter are tilted together with respect to the sensor when a current is applied to the coil.
An electrical system, comprising: a diagnostic device configured to generate a first test signal; a plurality of energy transfer links coupled to the diagnostic device, wherein the first test signal flows through a first subset of the plurality of energy transfer links; a first embedded monitoring device coupled to the first subset of the plurality of energy transfer links, wherein the first embedded monitoring device is configured to receive the first test signal from the diagnostic device through the first subset of the plurality of energy transfer links; and a first electrical device coupled to the first embedded monitoring device, wherein the first electrical device is configured to be fed from a first circuit breaker in communication with the first electrical device and the diagnostic device; wherein the first embedded monitoring device is configured to implement a first test procedure based on the first test signal, wherein the first test procedure helps determine a first condition of the first electrical device. a diagnostic device configured to generate a first test signal; a plurality of energy transfer links coupled to the diagnostic device, wherein the first test signal flows through a first subset of the plurality of energy transfer links; a first embedded monitoring device coupled to the first subset of the plurality of energy transfer links, wherein the first embedded monitoring device is configured to receive the first test signal from the diagnostic device through the first subset of the plurality of energy transfer links; and a first electrical device coupled to the first embedded monitoring device, wherein the first electrical device is configured to be fed from a first circuit breaker in communication with the first electrical device and the diagnostic device; wherein the first embedded monitoring device is configured to implement a first test procedure based on the first test signal, wherein the first test procedure helps determine a first condition of the first electrical device.
A drug delivery balloon adapted for delivery of a drug to a site in a body passageway, the balloon comprising a balloon wall with an outer surface and the balloon having a drug disposed on the outer surface, wherein the drug is provided on the balloon as crystalline particles of said drug in a size distribution in the range of from 0.01 μm to 2 μm, wherein said crystalline drug particles comprise paclitaxel, and wherein the crystalline drug particles are present in mixture with a water soluble excipient material.
A method of performing a direct communication, which is performed by a relay user equipment, UE, corresponding to a proximity service-enabled user equipment, ProSe-enabled UE, with a remote UE in a wireless communication system, the method comprising: receiving from the remote UE, a direct communication request message comprising information on an inactivity timer value during a direct link setup procedure with the remote UE; based on that there is no signaling via a direct link established with the remote UE, starting a timer with the inactivity timer value; and based on that no communication occurs until the timer expires, locally releasing the direct link established with the remote UE. receiving from the remote UE, a direct communication request message comprising information on an inactivity timer value during a direct link setup procedure with the remote UE; based on that there is no signaling via a direct link established with the remote UE, starting a timer with the inactivity timer value; and based on that no communication occurs until the timer expires, locally releasing the direct link established with the remote UE.
A wireless communication method, comprising: performing, by a user device in a link recovery procedure, a random access preamble transmission to a network node; monitoring, by the user device, a downlink control information with a cyclic redundancy check, CRC, scrambled by a first type of radio network temporary identifier in the link recovery procedure; and performing, by the user device after detecting the downlink control information with the CRC scrambled by the first type of radio network temporary identifier, a transmission to the network node on a physical uplink control channel using a same spatial filter as that for the random access preamble transmission, wherein power control of the physical uplink control channel is determined based on a target power associated with the physical uplink control channel, the target power indicated by a first specific index in a target power set, a reference signal for a path loss estimation associated with the physical uplink control channel, wherein the reference signal is a downlink reference signal with an index q new provided by a higher layer, the index q new being an index of a resource selected from a set of candidate beams, the index q new indicating a link quality that is higher than a threshold, and a closed loop power control of the physical uplink control channel that has a second specific index, the second specific index being equal to zero. performing, by a user device in a link recovery procedure, a random access preamble transmission to a network node; monitoring, by the user device, a downlink control information with a cyclic redundancy check, CRC, scrambled by a first type of radio network temporary identifier in the link recovery procedure; and performing, by the user device after detecting the downlink control information with the CRC scrambled by the first type of radio network temporary identifier, a transmission to the network node on a physical uplink control channel using a same spatial filter as that for the random access preamble transmission, wherein power control of the physical uplink control channel is determined based on a target power associated with the physical uplink control channel, the target power indicated by a first specific index in a target power set, a reference signal for a path loss estimation associated with the physical uplink control channel, wherein the reference signal is a downlink reference signal with an index q new provided by a higher layer, the index q new being an index of a resource selected from a set of candidate beams, the index q new indicating a link quality that is higher than a threshold, and a closed loop power control of the physical uplink control channel that has a second specific index, the second specific index being equal to zero.
A bonded diamond body comprising: a sintered polycrystalline diamond body; a hard substrate; and a hard layer provided between the sintered polycrystalline diamond body and the hard substrate, wherein the sintered polycrystalline diamond body contains a diamond grain and a sintering aid, the hard substrate contains tungsten carbide and cobalt, the hard layer contains cobalt and a hard grain made of at least one alloy selected from the group consisting of WC, W 2 C, TiC, ZrC, HfC, NbC, TaC, Cr 3 C 2, Mo 2 C, SiC, B 4 C, VC, TiN, ZrN, VN, NbN, CrN, Si 3 N 4, BN, TiCN, and SiCN, the hard grain has a volume average grain size larger than a volume average grain size of the diamond grain, the diamond grain has a volume average grain size not less than 0.1 μm and not more than 50 μm, wherein the volume average grain size refers to a median size in a grain size distribution (volume distribution) on a volume basis, the hard grain has a volume average grain size not less than 0.3 μm and not more than 1/2 a thickness (d) of the hard layer, and the thickness (d) of the hard layer is not less than 10 μm and not more than 400 μm. a sintered polycrystalline diamond body; a hard substrate; and a hard layer provided between the sintered polycrystalline diamond body and the hard substrate, wherein the sintered polycrystalline diamond body contains a diamond grain and a sintering aid, the hard substrate contains tungsten carbide and cobalt, the hard layer contains cobalt and a hard grain made of at least one alloy selected from the group consisting of WC, W 2 C, TiC, ZrC, HfC, NbC, TaC, Cr 3 C 2, Mo 2 C, SiC, B 4 C, VC, TiN, ZrN, VN, NbN, CrN, Si 3 N 4, BN, TiCN, and SiCN, the hard grain has a volume average grain size larger than a volume average grain size of the diamond grain, the diamond grain has a volume average grain size not less than 0.1 μm and not more than 50 μm, wherein the volume average grain size refers to a median size in a grain size distribution (volume distribution) on a volume basis, the hard grain has a volume average grain size not less than 0.3 μm and not more than 1/2 a thickness (d) of the hard layer, and the thickness (d) of the hard layer is not less than 10 μm and not more than 400 μm.
A floating structure for supporting a marine wind-driven power generator, the floating structure comprising a float, a tower and a concrete transition element located between the float and the tower, wherein - the transition element comprises a pre-stressed concrete layer having a radius reducing from a radius of the float to a radius of a base of the tower, - the float is a hollow concrete float; - reinforcing longitudinal tendons are provided from the base of the tower to the float through the transition element dispensing with reinforcements or stiffeners on the outer surfaces thereof; - reinforcing circumferential tendons are distributed along the transition element; - said pre-stressed concrete layer has a thickness which is between a thickness of the tower and a thickness of the float, wherein - the pre-stressed concrete layer of the transition element has a shape defined as a revolution of an axisymmetric circular transition geometry, with a curved or segmented vertical cross section, transitioning from a radius of the base of the tower to a radius of the float; and - the transition element has a radius which increases in a non-linear manner from the radius of the base of the tower to the radius of the float, the transition element having the larger diameter submerged, away from the surface of the sea, improving the hydrodynamic response of the floating structure. - the transition element comprises a pre-stressed concrete layer having a radius reducing from a radius of the float to a radius of a base of the tower, - the float is a hollow concrete float; - reinforcing longitudinal tendons are provided from the base of the tower to the float through the transition element dispensing with reinforcements or stiffeners on the outer surfaces thereof; - reinforcing circumferential tendons are distributed along the transition element; - said pre-stressed concrete layer has a thickness which is between a thickness of the tower and a thickness of the float, wherein - the pre-stressed concrete layer of the transition element has a shape defined as a revolution of an axisymmetric circular transition geometry, with a curved or segmented vertical cross section, transitioning from a radius of the base of the tower to a radius of the float; and - the transition element has a radius which increases in a non-linear manner from the radius of the base of the tower to the radius of the float, the transition element having the larger diameter submerged, away from the surface of the sea, improving the hydrodynamic response of the floating structure.
A wind turbine rotor, comprising a hub, at least one wind turbine blade, wherein said at least one wind turbine blade being mounted on said hub, and at least one image capturing device, characterised in that two or more markers are arranged on said blade so that said at least one image capturing device may detect the position of said markers, and said at least one image capturing device is connected to the hub or is connected rigidly to said blade.
A method of preparing an ink formulation for marking living tissue, comprising the steps of: a. mixing a pharmaceutically acceptable carrier with a preservative to form a carrier-preservative compound; b. pre-wetting a carbon pigment with a first emulsifying agent; c. mixing a second emulsifying agent with glycerin to form an emulsifier-glycerin compound; d. adding said emulsifier-glycerin compound into the pre-wet carbon and mixing until said carbon is dispersed; and, e. mixing said carrier-preservative compound to said dispersed carbon. a. mixing a pharmaceutically acceptable carrier with a preservative to form a carrier-preservative compound; b. pre-wetting a carbon pigment with a first emulsifying agent; c. mixing a second emulsifying agent with glycerin to form an emulsifier-glycerin compound; d. adding said emulsifier-glycerin compound into the pre-wet carbon and mixing until said carbon is dispersed; and, e. mixing said carrier-preservative compound to said dispersed carbon.