mhurhangee/ep-ind-claims huggingface dataset:
A miniature electroacoustic transducer comprising: - a transducer housing comprising a sound aperture (70; 72) and a magnet assembly, - the magnet assembly adapted to generate a first magnetic flux with a first predetermined orientation within a first magnetic gap and adapted to generate a second magnetic flux with a second predetermined orientation within a second magnetic gap, - a common magnetic flux path comprising the magnet assembly and the first and second magnetic gaps (15; 55), - a first moveable assembly comprising a first electrically conductive coil positioned in the first magnetic gap and coupled to a first diaphragm to enable motion of the first moveable assembly in a first direction of motion substantially perpendicular to the first magnetic flux, - a second moveable assembly comprising a second electrically conductive coil positioned in the second magnetic gap and coupled to a second diaphragm to enable motion of the second moveable assembly in a second direction of motion substantially perpendicular to the second magnetic flux; wherein the transducer further comprises a magnetically conductive first housing portion surrounding the magnet assembly, said common magnetic flux path comprises the magnetically conductive first housing portion; characterized in that - said magnet assembly comprises a centrally positioned permanent magnet assembly exclusively containing a single centrally located permanent magnet being operatively secured to an inner side wall portion of the magnetically conductive first housing portion. - a transducer housing comprising a sound aperture (70; 72) and a magnet assembly, - the magnet assembly adapted to generate a first magnetic flux with a first predetermined orientation within a first magnetic gap and adapted to generate a second magnetic flux with a second predetermined orientation within a second magnetic gap, - a common magnetic flux path comprising the magnet assembly and the first and second magnetic gaps (15; 55), - a first moveable assembly comprising a first electrically conductive coil positioned in the first magnetic gap and coupled to a first diaphragm to enable motion of the first moveable assembly in a first direction of motion substantially perpendicular to the first magnetic flux, - a second moveable assembly comprising a second electrically conductive coil positioned in the second magnetic gap and coupled to a second diaphragm to enable motion of the second moveable assembly in a second direction of motion substantially perpendicular to the second magnetic flux; - said magnet assembly comprises a centrally positioned permanent magnet assembly exclusively containing a single centrally located permanent magnet being operatively secured to an inner side wall portion of the magnetically conductive first housing portion.
A motor comprising: a stator; a rotor comprising a rotary shaft having an output end; a base body disposed between the stator and the rotor in a radial direction; and a shaft sleeve unit received in the base body and supporting the rotor for rotation, the shaft sleeve unit comprising a fixing member fixed in the base body, a bearing received in the fixing member and surrounding the rotary shaft, and a resilient buffering member fixedly connected between the fixing member and the bearing; and wherein a first groove-protrusion structure (50, 56) is formed between a radial inner surface of the fixing member and a radial outer surface of the resilient buffering member, a second groove-protrusion structure (52, 54) is formed between a radial outer surface of the bearing and a radial inner surface of the resilient buffering member, a radial thickness of the resilient buffering member between the first groove-protrusion structure (50, 56) and the second groove-protrusion structure (52, 54) being not greater than a radial distance between the radial outer surface of the bearing and the radial inner surface of the fixing member; and characterized in that one end of the resilient buffering member projects radially outwardly to form a flange, and the flange abuts against an axial end face of the fixing member. a stator; a rotor comprising a rotary shaft having an output end; a base body disposed between the stator and the rotor in a radial direction; and a shaft sleeve unit received in the base body and supporting the rotor for rotation, the shaft sleeve unit comprising a fixing member fixed in the base body, a bearing received in the fixing member and surrounding the rotary shaft, and a resilient buffering member fixedly connected between the fixing member and the bearing; and wherein a first groove-protrusion structure (50, 56) is formed between a radial inner surface of the fixing member and a radial outer surface of the resilient buffering member, a second groove-protrusion structure (52, 54) is formed between a radial outer surface of the bearing and a radial inner surface of the resilient buffering member, a radial thickness of the resilient buffering member between the first groove-protrusion structure (50, 56) and the second groove-protrusion structure (52, 54) being not greater than a radial distance between the radial outer surface of the bearing and the radial inner surface of the fixing member; and characterized in that one end of the resilient buffering member projects radially outwardly to form a flange, and the flange abuts against an axial end face of the fixing member.
Aircraft gas turbine including a fan casing, a fan and outlet guide vanes downstream of the fan, where the fan casing includes an ice strike sheathing ring, which comprises segments consisting of several fiber compound layers with an inner wall exposed to the engine flow and possibly to ice strike and an outer wall attached to the fan casing, characterized in that in the inner wall predetermined breaking points (7, 8, 9) essentially extending in the flow direction are provided at a certain regular distance, and said distance is selected such that fragments of the inner wall produced under extreme ice strike conditions can pass the outlet guide vanes.
A chimeric polypeptide comprising a first portion and a second portion joined by a linker, wherein (a) said first portion comprises an amino acid sequence of a bacteriocin cell binding domain; and (b) said second portion comprises an amino acid sequence of at least one enzymatic active domain selected from (i) the lytic domain of a bacteriophage endolysin, wherein the lytic domain has at least 80%, preferably 90%, amino acid sequence identity with the polypeptide of SEQ ID NO: 1; and (ii) the lytic domain of a bacterial autolysin, wherein the lytic domain has at least 80%, preferably 90%, amino acid sequence identity with the polypeptide of SEQ ID NO: 3, wherein the polypeptide has bacterial cell wall lytic activity. (a) said first portion comprises an amino acid sequence of a bacteriocin cell binding domain; and (b) said second portion comprises an amino acid sequence of at least one enzymatic active domain selected from (i) the lytic domain of a bacteriophage endolysin, wherein the lytic domain has at least 80%, preferably 90%, amino acid sequence identity with the polypeptide of SEQ ID NO: 1; and (ii) the lytic domain of a bacterial autolysin, wherein the lytic domain has at least 80%, preferably 90%, amino acid sequence identity with the polypeptide of SEQ ID NO: 3, (i) the lytic domain of a bacteriophage endolysin, wherein the lytic domain has at least 80%, preferably 90%, amino acid sequence identity with the polypeptide of SEQ ID NO: 1; and (ii) the lytic domain of a bacterial autolysin, wherein the lytic domain has at least 80%, preferably 90%, amino acid sequence identity with the polypeptide of SEQ ID NO: 3,
A cranial plate for covering a cranial burr hole, the cranial plate comprising: a plate body; and a plurality of spikes extending from the plate body; wherein the plate body has a burr hole covering portion configured to assume one of a convex form with a positive curvature, a flat form with zero curvature and a concave form with a negative curvature when the spikes are in a disengaging configuration; wherein the spikes are configured to engage cranial bone, wherein the plate is deformable to enable movement of the spikes from the disengaging configuration to an engaging configuration upon deformation of the plate, wherein the plate body is deformable so that the plate body assumes a form with a decreased curvature when the spikes are in the engaging configuration, wherein a decreased curvature comprises deforming the plate body form from a convex form to a flat form, a convex form to a concave form, a flat form to a concave form, a convex form to a less convex form or a concave form to a more concave form. a plate body; and a plurality of spikes extending from the plate body; wherein the plate body has a burr hole covering portion configured to assume one of a convex form with a positive curvature, a flat form with zero curvature and a concave form with a negative curvature when the spikes are in a disengaging configuration; wherein the spikes are configured to engage cranial bone, wherein the plate is deformable to enable movement of the spikes from the disengaging configuration to an engaging configuration upon deformation of the plate, wherein the plate body is deformable so that the plate body assumes a form with a decreased curvature when the spikes are in the engaging configuration, wherein a decreased curvature comprises deforming the plate body form from a convex form to a flat form, a convex form to a concave form, a flat form to a concave form, a convex form to a less convex form or a concave form to a more concave form.
Method for producing a brick (1; 1') having an insulating filling (6; 6') that is arranged in vertical cavities (4, 4v) of the brick (1; 1'), said method having the following steps: preparing a brick blank (2; 2'), introducing expandable polystyrene particles into at least some of the vertical cavities (4; 4') of the brick blank (2; 2'), expanding the polystyrene particles by means of steam, such that they expand and fuse together to produce an insulating body in the vertical cavity (4; 4') concerned, wherein pre-expanded polystyrene particles are introduced into the at least some of the vertical cavities (4; 4') of the brick blank (2; 2), characterised in that the pre-expanded polystyrene particles in the vertical cavities (4; 4') are alternately subjected from both sides for periods of 10 to 90 seconds to steam pressurised between 0.1 and 3.5 bar, such that the polystyrene particles are expanded to such a degree that the density of the insulating bodies is in the range of 10 kg/m 3 to 30 kg/m 3, wherein the expansion step is conducted until less than 20 vol. % of residual propellant remains in the expanded polystyrene particles. preparing a brick blank (2; 2'), introducing expandable polystyrene particles into at least some of the vertical cavities (4; 4') of the brick blank (2; 2'), expanding the polystyrene particles by means of steam, such that they expand and fuse together to produce an insulating body in the vertical cavity (4; 4') concerned, wherein pre-expanded polystyrene particles are introduced into the at least some of the vertical cavities (4; 4') of the brick blank (2; 2), characterised in that the pre-expanded polystyrene particles in the vertical cavities (4; 4') are alternately subjected from both sides for periods of 10 to 90 seconds to steam pressurised between 0.1 and 3.5 bar, such that the polystyrene particles are expanded to such a degree that the density of the insulating bodies is in the range of 10 kg/m 3 to 30 kg/m 3, wherein the expansion step is conducted until less than 20 vol. % of residual propellant remains in the expanded polystyrene particles.
Method for communication between at least one mobile radio device and a mobile radio network base station, wherein at least a subset of information exchanged between the mobile radio device and the mobile radio network base station is communicated using coverage improvement, wherein the mobile device activates a coverage improvement mode depending on an amount of electrical energy available for operating the mobile radio device and/or a critical temperature of the mobile radio device, a component of the mobile radio device and/or an ambient temperature around the mobile radio device, in which mode the mobile radio device exchanges information with the mobile radio network base station using coverage improvement, wherein the coverage improvement provides for the repeated transmission of the same information with a comparatively low transmission power.
An electronic device comprising: a dielectric member comprising a display cover layer; a display module covered by the display cover layer; magnetic structures; an antenna; and a housing having an interior in which the display module is mounted, wherein the display cover layer has an internal surface at the interior of the housing and an external surface at the exterior of the electronic device; characterised by: a ferromagnetic structure attached to the display cover layer; and the antenna being mounted in the interior of the housing and being biased against the internal surface of the display cover layer by the magnetic structures and the ferromagnetic structure. a dielectric member comprising a display cover layer; a display module covered by the display cover layer; magnetic structures; an antenna; and a housing having an interior in which the display module is mounted, wherein the display cover layer has an internal surface at the interior of the housing and an external surface at the exterior of the electronic device; a ferromagnetic structure attached to the display cover layer; and the antenna being mounted in the interior of the housing and being biased against the internal surface of the display cover layer by the magnetic structures and the ferromagnetic structure.
A method for operating a low power access node within the coverage area of a macro cell in a wireless communications network, the method comprising: transmitting, by the low power access node, an extended physical downlink control channel (E-PDCCH), wherein the E-PDCCH is transmitted in an E-PDCCH region within a Physical Downlink Shared Channel (PDSCH) region, wherein the E-PDCCH region is one of multiple E-PDCCH regions defined for different groups of user equipments (UEs), wherein each E-PDCCH region is configured by information in respective downlink control information of a physical downlink control channel (PDCCH) transmitted in a legacy control channel region, and wherein each DCI is scrambled by a corresponding E-PDCCH group radio network temporary identifier (RNTI).
Household appliance or commercial appliance for cleaning, storing or cooking items, comprising a housing formed by walls, by means of which housing an interior space is spatially enclosed, and at least one support device which can be removed from the interior space, • the support device comprising at least one rail system having at least two rails (436 and 438) which are connected to one another and can move relative to one another, and at least one support element, • when the support device is in an installed state, the rail system being mounted on the housing in a force-transmitting manner, such that the support element can move relative to the housing by the rail system being pulled out, • it being possible to transfer a locking unit, which is arranged on the support device and comprises at least one locking element, between a blocking state and a free state, • the locking unit being in its blocking state when the support device is in its uninstalled state, in which the support device is physically separated from the housing, and, when the locking unit is in said blocking state, by forming a form fit, the locking element blocks the rail system from being pulled out, and • the locking unit being in its free state when the support device is in its installed state, and, when the locking unit is in said free state, the locking element allows the rail system to be pulled out, characterised in that at least when the locking unit is in the free state, the locking element is preloaded against the force of a spring. • the support device comprising at least one rail system having at least two rails (436 and 438) which are connected to one another and can move relative to one another, and at least one support element, • when the support device is in an installed state, the rail system being mounted on the housing in a force-transmitting manner, such that the support element can move relative to the housing by the rail system being pulled out, • it being possible to transfer a locking unit, which is arranged on the support device and comprises at least one locking element, between a blocking state and a free state, • the locking unit being in its blocking state when the support device is in its uninstalled state, in which the support device is physically separated from the housing, and, when the locking unit is in said blocking state, by forming a form fit, the locking element blocks the rail system from being pulled out, and • the locking unit being in its free state when the support device is in its installed state, and, when the locking unit is in said free state, the locking element allows the rail system to be pulled out,
A computer-implemented method, comprising: unlocking a mechanical door controllable by a computing device upon successfully validating login information input by an occupant; performing an occupancy footprint mapping, OFM, by periodically calculating the occupant's location using a triangulation process based on signals sensed by one or more occupancy sensors, wherein the OFM indicates the occupant's movements over time in a process interface building, PIB, including multiple areas; determining an identity of the occupant based on a received RFID signal; identifying a job role for the occupant based on the occupant's identity; identifying a normal OFM associated with the occupant's job role stored in an authentication server, wherein the normal OFM indicates a normal behavior occupancy map for the occupant's job role; calculating a deviation between the OFM and the normal OFM; sending a security event including the OFM to a Syslog server; and sending an object linking and embedding for process control, OPC, alarm to a human machine interface, HMI, if the deviation exceeds a predetermined deviation tolerance threshold. unlocking a mechanical door controllable by a computing device upon successfully validating login information input by an occupant; performing an occupancy footprint mapping, OFM, by periodically calculating the occupant's location using a triangulation process based on signals sensed by one or more occupancy sensors, wherein the OFM indicates the occupant's movements over time in a process interface building, PIB, including multiple areas; determining an identity of the occupant based on a received RFID signal; identifying a job role for the occupant based on the occupant's identity; identifying a normal OFM associated with the occupant's job role stored in an authentication server, wherein the normal OFM indicates a normal behavior occupancy map for the occupant's job role; calculating a deviation between the OFM and the normal OFM; sending a security event including the OFM to a Syslog server; and sending an object linking and embedding for process control, OPC, alarm to a human machine interface, HMI, if the deviation exceeds a predetermined deviation tolerance threshold.
An ophthalmologic apparatus comprising: a focusing lens provided in an optical path connecting a subject's eye and an imaging means; a diopter correction lens (7a, 7b) provided in the optical path to be insertable and removable; a position determination means configured to determine a position of the focusing lens on the optical path in a state where the diopter correction lens is inserted, based on an in-focus state where the diopter correction lens is not inserted; and a determination means configured to determine whether the diopter correction lens (7a, 7b) is to be inserted into the optical path based on the in-focus state where the diopter correction lens is not inserted, wherein the position determination means is configured to determine the position of the focusing lens on the optical path when the determination means determines that the diopter correction lens is to be inserted, characterized in that the determination means is configured to acquire an amount of driving of the focusing lens required for focusing based on the in-focus state where the diopter correction lens is not inserted, and to determine that the diopter correction lens is to be inserted into the optical path if the focusing lens is beyond a drivable range when driven by the amount of driving. a focusing lens provided in an optical path connecting a subject's eye and an imaging means; a diopter correction lens (7a, 7b) provided in the optical path to be insertable and removable; a position determination means configured to determine a position of the focusing lens on the optical path in a state where the diopter correction lens is inserted, based on an in-focus state where the diopter correction lens is not inserted; and a determination means configured to determine whether the diopter correction lens (7a, 7b) is to be inserted into the optical path based on the in-focus state where the diopter correction lens is not inserted, wherein the position determination means is configured to determine the position of the focusing lens on the optical path when the determination means determines that the diopter correction lens is to be inserted,
A computer system for securely executing software instructions, the computer system comprising: a first processor having a plurality of hardware registers; a memory; and an emulator program including a plurality of instructions stored in the memory that are executable by the first processor to: emulate a second processor; emulate execution of a plurality of native machine instructions on the second processor, the native machine instructions being native to the second processor, native meaning an operational code within the standard instruction set of the emulated second processor; and emulate execution of a plurality of secure machine instructions on the second processor, the secure machine instructions being nonnative to the second processor and including one or more opcodes configured to ensure unencrypted values of operand data associated with the opcodes are stored only in one or more of the hardware registers of the first processor. a first processor having a plurality of hardware registers; a memory; and an emulator program including a plurality of instructions stored in the memory that are executable by the first processor to: emulate a second processor; emulate execution of a plurality of native machine instructions on the second processor, the native machine instructions being native to the second processor, native meaning an operational code within the standard instruction set of the emulated second processor; and emulate execution of a plurality of secure machine instructions on the second processor, the secure machine instructions being nonnative to the second processor and including one or more opcodes configured to ensure unencrypted values of operand data associated with the opcodes are stored only in one or more of the hardware registers of the first processor. emulate a second processor; emulate execution of a plurality of native machine instructions on the second processor, the native machine instructions being native to the second processor, native meaning an operational code within the standard instruction set of the emulated second processor; and emulate execution of a plurality of secure machine instructions on the second processor, the secure machine instructions being nonnative to the second processor and including one or more opcodes configured to ensure unencrypted values of operand data associated with the opcodes are stored only in one or more of the hardware registers of the first processor.