mhurhangee/ep-ind-claims huggingface dataset:
An electronic appliance comprising: a casing, an antenna device (101 - 104) and a circuit board mounted in the casing, wherein the antenna device (101 - 104) comprises: a coil conductor having a loop shape or a spiral shape in which a winding center portion defines a coil opening; and a conductor layer including a conductor opening and a slit connecting the conductor opening and an outer edge of the conductor layer; wherein when the coil conductor is viewed in plan view, the coil opening and conductor opening are superposed one on top of the other; the conductor layer is larger than an area of a region in which the coil conductor is located, and the coil conductor is located inside the casing, and wherein the electronic appliance further comprises a camera module, wherein a lens of the camera module is exposed to the outside of the casing through the conductor opening. a casing, an antenna device (101 - 104) and a circuit board mounted in the casing, wherein the antenna device (101 - 104) comprises: a coil conductor having a loop shape or a spiral shape in which a winding center portion defines a coil opening; and a conductor layer including a conductor opening and a slit connecting the conductor opening and an outer edge of the conductor layer; wherein when the coil conductor is viewed in plan view, the coil opening and conductor opening are superposed one on top of the other; the conductor layer is larger than an area of a region in which the coil conductor is located, and the coil conductor is located inside the casing, and wherein the electronic appliance further comprises a camera module, wherein a lens of the camera module is exposed to the outside of the casing through the conductor opening.
Electrical machine comprising a rotor, wherein the electrical machine has a stator which is arranged around the rotor, wherein the rotor has at least one magnetic element and one sleeve which is designed in such a way that the at least one magnetic element can be inserted into the sleeve, wherein the electrical machine has a shaft which is divided into two and has a first and a second shaft part (12, 13), wherein the rotor is arranged between the two shaft parts (12, 13) and is fixedly connected to the two shaft parts (12, 13), wherein the at least one magnetic element which is received in the sleeve forms a bushing for guiding a connecting rod of the electrical machine through the sleeve, wherein the electrical machine has a first and a second impeller (8, 9) and the connecting rod which is guided through the bushing of the rotor and through bushings of the two shaft parts (12, 13), wherein the two impellers (8, 9) are fixedly connected to the connecting rod and to the rotor by clamping elements, characterized in that the first and the second impeller (8, 9) are arranged at the ends of the connecting rod in a manner situated opposite the respectively associated first and second shaft parts (12, 13), and in that a thermal compensation device is provided between at least one of the shaft parts and its associated impeller for compensating for an expansion of the first and second shaft parts (12, 13) and the rotor, which is arranged between them, in the axial direction.
A method of garbage collection in a computing device, comprising: determining, based on an amount of free space at the completion of a previous garbage collection, a heap size stage from a plurality of heap size stages including a heap size growth stage and a heap size stable stage, wherein the heap size stable stage and the heap size growth stage have different garbage collection goals; applying a heap stable garbage collection in response to the heap size stage determined to be the heap size stable stage to use the free space efficiently according to a heap stable goal; and applying a heap growth garbage collection in response to the heap size stage determined to be the heap size growth stage to allow the heap to grow according to a heap growth goal. determining, based on an amount of free space at the completion of a previous garbage collection, a heap size stage from a plurality of heap size stages including a heap size growth stage and a heap size stable stage, wherein the heap size stable stage and the heap size growth stage have different garbage collection goals; applying a heap stable garbage collection in response to the heap size stage determined to be the heap size stable stage to use the free space efficiently according to a heap stable goal; and applying a heap growth garbage collection in response to the heap size stage determined to be the heap size growth stage to allow the heap to grow according to a heap growth goal.
A photoelectric encoder comprising: a light source; a scale including a first optical grating for receiving irradiation of light from said light source; and a light-receiving unit including light-receiving elements for permitting incidence of an optical signal as generated based on the light falling onto said first optical grating, said light-receiving unit being disposed relatively movable with respect to said scale with a gap provided between itself and said scale for detecting four phase-different optical signals having phases different from each other by 90 degrees by said light-receiving elements as two-dimensionally disposed on a plane opposing said first optical grating, characterized in that each light-receiving element has a hexagonal light acceptance surface; and a phase of the phase-different optical signals falling onto each light-receiving element differs from phases of any one of the six other light-receiving elements that are located around the light-receiving element. a light source; a scale including a first optical grating for receiving irradiation of light from said light source; and a light-receiving unit including light-receiving elements for permitting incidence of an optical signal as generated based on the light falling onto said first optical grating, said light-receiving unit being disposed relatively movable with respect to said scale with a gap provided between itself and said scale for detecting four phase-different optical signals having phases different from each other by 90 degrees by said light-receiving elements as two-dimensionally disposed on a plane opposing said first optical grating,
A rechargeable battery comprising: a case receiving an electrode assembly; a cap plate fastened to an opening of the case and having a short-circuit hole formed therethrough; a first electrode terminal and a second electrode terminal provided through the cap plate to be electrically connected to the electrode assembly; a membrane fixed to the cap plate in the short-circuit hole and electrically separating or short-circuiting the first electrode terminal and the second electrode terminal outside the electrode assembly; a connection plate electrically connected to the first electrode terminal and disposed to be spaced apart from a side of the membrane; a top insulating member disposed between the connection plate and the cap plate to come into contact with the cap plate and provided with a terminal hole adapted to receive an electrode terminal (21, 22); and characterized in that a fixing member is fixed to the cap plate and provided through the top insulating member to support the top insulating member, a support flange is formed at an end of a longitudinal side of the top insulating member, and the fixing member is fixed to the support flange. a case receiving an electrode assembly; a cap plate fastened to an opening of the case and having a short-circuit hole formed therethrough; a first electrode terminal and a second electrode terminal provided through the cap plate to be electrically connected to the electrode assembly; a membrane fixed to the cap plate in the short-circuit hole and electrically separating or short-circuiting the first electrode terminal and the second electrode terminal outside the electrode assembly; a connection plate electrically connected to the first electrode terminal and disposed to be spaced apart from a side of the membrane; a top insulating member disposed between the connection plate and the cap plate to come into contact with the cap plate and provided with a terminal hole adapted to receive an electrode terminal (21, 22); and characterized in that a fixing member is fixed to the cap plate and provided through the top insulating member to support the top insulating member, a support flange is formed at an end of a longitudinal side of the top insulating member, and the fixing member is fixed to the support flange.
A die casting assembly comprising: a cavity defined by a plurality of dies (302, 304), said cavity including at least one sharp corner having an angle of less than or equal to 110°; each of said dies (302, 304) including a plurality of die segments (310, 330), each of said die segments (310, 330) contacting at least one other of said plurality of die segments (310, 330); and a first die segment joint between at least two of said die segments (310, 330), wherein said die segment joint is aligned with said sharp corner; characterised in that at least one of said die segments (310, 330) is a T-shaped die segment which introduces a corner in the joint, where the T-shaped die segment contacts at least one other of said plurality of die segments (310, 330), and which forms a portion of the at least one sharp corner. a cavity defined by a plurality of dies (302, 304), said cavity including at least one sharp corner having an angle of less than or equal to 110°; each of said dies (302, 304) including a plurality of die segments (310, 330), each of said die segments (310, 330) contacting at least one other of said plurality of die segments (310, 330); and a first die segment joint between at least two of said die segments (310, 330), wherein said die segment joint is aligned with said sharp corner; characterised in that at least one of said die segments (310, 330) is a T-shaped die segment which introduces a corner in the joint, where the T-shaped die segment contacts at least one other of said plurality of die segments (310, 330), and which forms a portion of the at least one sharp corner.
A fingerprint sensor comprising: a first substrate (SUB 1); a circuit element layer disposed over a first surface of the first substrate (SUB 1), and comprising at least one conductive layer; a light emitting element layer disposed over the circuit element layer and comprising a plurality of light emitting elements; a first light transmitting hole array layer (LTHL1) comprising a plurality of first light transmitting holes distributed in the circuit element layer; and a photo sensor array layer disposed over a second surface of the first substrate overlapping with the first light transmitting hole array layer (LTHL1), the photo sensor array layer comprising a plurality of photo sensors, wherein the first light transmitting holes comprise openings distributed in the at least one conductive layer, wherein the first surface is an upper surface of the first substrate (SUB 1) such that the circuit element layer, the light emitting element layer and the first light transmitting hole array layer (LTHL1) are above the first substrate, wherein the second surface is a lower surface of the first substrate (SUB 1) such that the photo sensor array layer is below the first substrate. a first substrate (SUB 1); a circuit element layer disposed over a first surface of the first substrate (SUB 1), and comprising at least one conductive layer; a light emitting element layer disposed over the circuit element layer and comprising a plurality of light emitting elements; a first light transmitting hole array layer (LTHL1) comprising a plurality of first light transmitting holes distributed in the circuit element layer; and a photo sensor array layer disposed over a second surface of the first substrate overlapping with the first light transmitting hole array layer (LTHL1), the photo sensor array layer comprising a plurality of photo sensors, wherein the first light transmitting holes comprise openings distributed in the at least one conductive layer, wherein the first surface is an upper surface of the first substrate (SUB 1) such that the circuit element layer, the light emitting element layer and the first light transmitting hole array layer (LTHL1) are above the first substrate, wherein the second surface is a lower surface of the first substrate (SUB 1) such that the photo sensor array layer is below the first substrate.
Flat knitting machine with a machine body comprising a machine chamber, wherein at least one machine element (10, 20) is displaceable relative to the machine body without completely disconnecting this from the flat knitting machine, in order to make an area (130, 140, 150) of the machine chamber and/or a rear needle bed and/or a rear thread guide of the flat knitting machine accessible for maintenance and/or repair work, characterised in that the at least one machine element (10, 20) comprises a rear wall part (13, 23) and/or a spool table part (31, 41), which is arranged to be horizontally displaceable in relation to the machine body.
A molded article comprising a polypropylene resin, wherein the polypropylene resin comprises at least 50 mol% propylene, an MWD (Mw/Mn) greater than 5, a branching index (g') of at least 0.95, determined as described herein, and a melt strength greater than 20 cN determined, as described herein, using an extensional rheometer at 190°C.
Gear mechanism, in particular a coaxial gear mechanism, comprising - a ring gear having an inwardly directed toothing, - a tooth carrier which is arranged coaxially with the ring gear and in which a plurality of teeth for engaging with the toothing are received, the teeth being mounted in the tooth carrier so as to be radially movable, - a drive element having a profiling for radially driving the teeth that are mounted so as to be radially movable, the profiling having at least two projections over its circumference, - rolling elements which are arranged on the profiling, and - a plurality of pivot segments for mounting the teeth, the pivot segments being arranged on the rolling elements, - characterized in that the gear mechanism is constructed in such a way that there is a positive gear ratio between a drive via the drive element and an output via the teeth carrier, - the number of teeth being calculated using the following formula: Z z = Z I + E PF, where Zz is the number of the teeth in the tooth carrier, where ZI is the number of the inner teeth of the ring gear, where E is the number of the projections of the profiling of the drive element and where PF is a position factor which is an integer. - a ring gear having an inwardly directed toothing, - a tooth carrier which is arranged coaxially with the ring gear and in which a plurality of teeth for engaging with the toothing are received, the teeth being mounted in the tooth carrier so as to be radially movable, - a drive element having a profiling for radially driving the teeth that are mounted so as to be radially movable, the profiling having at least two projections over its circumference, - rolling elements which are arranged on the profiling, and - a plurality of pivot segments for mounting the teeth, the pivot segments being arranged on the rolling elements, - characterized in that the gear mechanism is constructed in such a way that there is a positive gear ratio between a drive via the drive element and an output via the teeth carrier, - the number of teeth being calculated using the following formula: Z z = Z I + E PF, where Zz is the number of the teeth in the tooth carrier, where ZI is the number of the inner teeth of the ring gear, where E is the number of the projections of the profiling of the drive element and where PF is a position factor which is an integer.
A power supply system comprising: a power input (120, 121, 123, 125, 127) to receive input power from a power source; a power output (129,131, 133, 135) to provide output power to a load; a battery module having a battery output that provides battery power; a power module coupled to the power input to receive the input power, coupled to the battery output to receive the battery power, and coupled to the power output to provide the output power; a first controller coupled to the power module; a second controller, coupled to the first controller, and coupled to the power module; and a communications bus coupled to the first controller, the second controller and the power module to provide duplex communication between the first controller, the second controller and the power module; wherein the first controller is configured to function as master of the communications bus and control communications on the bus, and the second controller is configured to function as master of the communication bus upon failure of the first controller, and characterised by each of the first controller and the second controller is configured to determine operational parameters of the power supply system and to store a first set of parameters determined by the first controller and a second set of parameters determined by the second controller. a power input (120, 121, 123, 125, 127) to receive input power from a power source; a power output (129,131, 133, 135) to provide output power to a load; a battery module having a battery output that provides battery power; a power module coupled to the power input to receive the input power, coupled to the battery output to receive the battery power, and coupled to the power output to provide the output power; a first controller coupled to the power module; a second controller, coupled to the first controller, and coupled to the power module; and a communications bus coupled to the first controller, the second controller and the power module to provide duplex communication between the first controller, the second controller and the power module; wherein the first controller is configured to function as master of the communications bus and control communications on the bus, and the second controller is configured to function as master of the communication bus upon failure of the first controller, and characterised by each of the first controller and the second controller is configured to determine operational parameters of the power supply system and to store a first set of parameters determined by the first controller and a second set of parameters determined by the second controller.
A method performed by a user equipment device, UE, comprising: receiving a dedicated notification message from a base station, wherein the dedicated notification message carries instructions used to instruct Radio Bearers to use simplified Packet Data Convergence Protocol, PDCP functions, wherein the Radio Bearers comprise at least one Signaling Radio Bearer, SRB, and wherein the Radio Bearers using the simplified PDCP functions are configured to exclude a PDCP protocol header and a PDCP sequence number; and using the Radio Bearers for connection processing between the UE and the base station prior to an establishment of Access Stratum, AS, security. receiving a dedicated notification message from a base station, wherein the dedicated notification message carries instructions used to instruct Radio Bearers to use simplified Packet Data Convergence Protocol, PDCP functions, wherein the Radio Bearers comprise at least one Signaling Radio Bearer, SRB, and wherein the Radio Bearers using the simplified PDCP functions are configured to exclude a PDCP protocol header and a PDCP sequence number; and using the Radio Bearers for connection processing between the UE and the base station prior to an establishment of Access Stratum, AS, security.
A bluetooth® device connection method, comprising: determining that a device class of a to-be-connected bluetooth® device is an audio device class or a non-audio device class; and if it is determined that the device class of the to-be-connected bluetooth® device is the audio device class, using a preset pairing code of an audiobluetooth® device to establish a data connection with the to-be-connected bluetooth® device; if it is determined that the device class of the to-be-connected Bluetooth® device is the non-audio device class, obtaining a pairing code corresponding to the to-be-connected Bluetooth® device input by a user or stored to establish a data connection with the to-be-connected bluetooth® device. determining that a device class of a to-be-connected bluetooth® device is an audio device class or a non-audio device class; and if it is determined that the device class of the to-be-connected bluetooth® device is the audio device class, using a preset pairing code of an audiobluetooth® device to establish a data connection with the to-be-connected bluetooth® device; if it is determined that the device class of the to-be-connected Bluetooth® device is the non-audio device class, obtaining a pairing code corresponding to the to-be-connected Bluetooth® device input by a user or stored to establish a data connection with the to-be-connected bluetooth® device.
An oxazolidinone derivative with cyclic amidoxime or cyclic amidrazone group represented by formula 1, hydrate, solvate, or pharmaceutically acceptable salt thereof. wherein, ring A is a residue selected from the group consisting of following structure; R 1 through R 12, independently of one another, represent hydrogen, (C 1 -C 7) alkyl, (C 3 -C 7) cycloalkyl, (C 6 -C 12) aryl or (C 4 -C 12) heteroaryl containing one to four heteroatom(s) selected from the group consisting of O, S and N, or R 3 and R 4 form a ring by connecting with (C 3 -C 5) alkylene, the carbon atom of the alkylene can be substituted with carbonyl, and the alkyl, cycloalkyl, aryl or heteroaryl of the R 1 through R 12 may be substituted with any one selected from the group consisting of (C 1 -C 7) alkyl, halo(C 1 -C 7) alkyl, (C 1 -C 7) alkoxy and halogen; R 13 is H, (C 1 -C 7) alkyl, (C 3 -C 7) cycloalkyl, formyl, (C 1 -C 7) alkylcarbonyl, (C 1 -C 7) alkoxycarbonyl or (C 6 -C 12) aryl.
A lighting device for vehicles, in particular a signal light, with a light source for emitting a light beam and an optical unit associated with the light source for generating a predetermined light function, wherein the optical unit has a holographic element (H1, H2, H3, H4, H5) and a lens (2, 12) arranged in the main emission direction in front of the same, wherein the holographic element (H1, H2, H3, H4, H5) has such a diffraction structure that the light beam from the light source striking the holographic element (H1, H2, H3, H4, H5) is varied according to a predetermined illumination pattern, characterised in that the lens (2, 12) has at least one illumination surface (7; 17, 17', 17"), wherein the illumination surface is provided with scattering optical elements, wherein a single holographic element (H1, H2, H3, H4, H5) is associated with the illumination surface (7; 17, 17', 17") such that the holographic light beam emitted by the holographic element (H1, H2, H3, H4, H5) is emitted in the direction of the illumination surface (7; 17, 17', 17") arranged at a distance (a) from the at least one holographic element (H1, H2, H3, H4, H5), wherein a distribution of light onto the lens (2, 12) is exclusively effected by the holographic element (H1, H2, H3, H4, H5) and wherein the holographic element (H1, H2, H3, H4, H5) is at a greater distance (a) from the lens (2, 12) than from the light source.
An automatic inspection machine for containers and of the upper surface of a pod of lyophilised product contained therein, comprising a serial horizontal conveyor line of the containers oriented with a vertical axis through at least one inspection station configured for inspection from above of the containers and of the upper surface of the pod of lyophilised product contained therein, said inspection station comprising lighting means of the containers, at least one television camera for acquiring images of the illuminated containers, wherein said lighting means comprises a first, a second and at least a third lighting device (21, 22, 23), characterised in that the third lighting device has a projection axis that is inclined from the bottom to the top and is positioned on the opposite side to the at least one television camera with respect to the conveyor line.