mhurhangee/patent-ind-claim-en huggingface dataset:
A display apparatus comprising: a rear chassis ; a light source module installed in the rear chassis and including a plurality of light sources and a substrate on which the plurality of light sources are mounted; a diffuser plate positioned in front of the light source module to diffuse light emitted from the light source module; a liquid crystal panel positioned in front of the diffuser plate and configured to display an image; a front chassis configured to support the liquid crystal panel; and a middle mold coupled between the front chassis and the rear chassis to support the diffuser plate, and the middle mold is provided with a curved reflective surface formed in a curved shape to reflect the light which is emitted from the light source module to the diffuser plate, wherein the middle mold comprises a frame portion coupled to the front chassis and the rear chassis , a diffuser plate supporter configured to protrude inward from the frame portion to support the diffuser plate , and a reflector configured to extend from the diffuser plate supporter and provided with the curved reflective surface to reflect the light, which is emitted from the light source module, to the diffuser plate, characterised in that : the middle mold comprises a substrate supporter configured to prevent the substrate from lifting up from a base of the rear chassis . a rear chassis ; a light source module installed in the rear chassis and including a plurality of light sources and a substrate on which the plurality of light sources are mounted; a diffuser plate positioned in front of the light source module to diffuse light emitted from the light source module; a liquid crystal panel positioned in front of the diffuser plate and configured to display an image; a front chassis configured to support the liquid crystal panel; and a middle mold coupled between the front chassis and the rear chassis to support the diffuser plate, and the middle mold is provided with a curved reflective surface formed in a curved shape to reflect the light which is emitted from the light source module to the diffuser plate, wherein the middle mold comprises a frame portion coupled to the front chassis and the rear chassis , a diffuser plate supporter configured to protrude inward from the frame portion to support the diffuser plate , and a reflector configured to extend from the diffuser plate supporter and provided with the curved reflective surface to reflect the light, which is emitted from the light source module, to the diffuser plate, characterised in that : the middle mold comprises a substrate supporter configured to prevent the substrate from lifting up from a base of the rear chassis .
A vacuum pump, in particular a rotary vane pump , comprising a pump system which is driven by an electric motor, wherein the electric motor has an output shaft for driving the pump system, said output shaft being drive-effectively connected to a drive shaft of the pump system by means of a coupling arrangement , wherein the coupling arrangement comprises: - a first coupling hub which is rotationally rigidly connected to the output shaft of the electric motor; - a second coupling hub which is rotationally rigidly connected to the drive shaft of the pump system; and - a coupling disk in the force flow path between the output shaft and the drive shaft , wherein the coupling disk is rotationally rigidly connected to the first coupling hub by means of a first linear guide and is rotationally rigidly connected to the second coupling hub by means of a second linear guide, with the second linear guide being oriented perpendicular to the first linear guide, characterized in that the first coupling hub is produced from or coated with 16MnCr5 case-hardened steel, the second coupling hub is produced from or coated with gray cast iron and the coupling disk is produced from or coated with 42CrMo4+QT case-hardened steel. - a first coupling hub which is rotationally rigidly connected to the output shaft of the electric motor; - a second coupling hub which is rotationally rigidly connected to the drive shaft of the pump system; and - a coupling disk in the force flow path between the output shaft and the drive shaft ,
A ram air fan inlet shroud configured to be disposed proximate to a ram air fan hub of a ram air fan of a ram air fan assembly of an aircraft, the ram air fan inlet shroud comprising: a ram air fan inlet shroud centerline (CLB); a shroud portion extending outwardly from a conical portion , the conical portion providing a transition between a central portion and an inner ram air fan hub interface portion , the conical portion comprising a plurality of inner cooling holes , a first angled wall and a second side , having different inclinations relative to the ram air fan inlet shroud centerline (CLB); a recessed annular portion located opposite the first angled wall and between the inner ram air fan hub interface portion and an outer ram air fan hub interface portion , the recessed portion comprising a plurality of outer cooling holes , and characterised in that a diameter of each of the plurality of inner cooling holes is about 0.406 inches (1.031 cm); wherein both the plurality of inner cooling holes and the plurality of outer cooling holes pass through the first angled wall of the conical portion , an outlet of each of the inner cooling holes partly intersecting the first angled wall and the second side . a shroud portion extending outwardly from a conical portion , the conical portion providing a transition between a central portion and an inner ram air fan hub interface portion , the conical portion comprising a plurality of inner cooling holes , a first angled wall and a second side , having different inclinations relative to the ram air fan inlet shroud centerline (CLB); a recessed annular portion located opposite the first angled wall and between the inner ram air fan hub interface portion and an outer ram air fan hub interface portion , the recessed portion comprising a plurality of outer cooling holes , and characterised in that a diameter of each of the plurality of inner cooling holes is about 0.406 inches (1.031 cm); wherein both the plurality of inner cooling holes and the plurality of outer cooling holes pass through the first angled wall of the conical portion , an outlet of each of the inner cooling holes partly intersecting the first angled wall and the second side .
An antenna design program that causes a computer to execute a process, the process comprising: acquiring a target characteristic value of a target antenna and predetermined value of a structure parameter of the target antenna , the target characteristic value being a target specific band value, the structure parameter of the target antenna being a bending length, and an antenna type of the target antenna being a reversed L antenna; based on the predetermined value of the bending length, the target specific band value, and known reference specific band values and reference bending length values of reference antennas (411-414), estimating a relation between the bending length and the target specific band value of the target antenna , wherein an antenna type of the reference antennas (411-414) is a reversed F antenna ; based on the estimated relation, deciding a value of the bending length for the target antenna such that the specific band value of the target antenna satisfies a demanded specification; and outputting the decided value of the bending length for the target antenna . acquiring a target characteristic value of a target antenna and predetermined value of a structure parameter of the target antenna , the target characteristic value being a target specific band value, the structure parameter of the target antenna being a bending length, and an antenna type of the target antenna being a reversed L antenna; based on the predetermined value of the bending length, the target specific band value, and known reference specific band values and reference bending length values of reference antennas (411-414), estimating a relation between the bending length and the target specific band value of the target antenna , wherein an antenna type of the reference antennas (411-414) is a reversed F antenna ; based on the estimated relation, deciding a value of the bending length for the target antenna such that the specific band value of the target antenna satisfies a demanded specification; and outputting the decided value of the bending length for the target antenna .
An audio rendering system; comprising a wireless communications device , a first audio rendering device and a second audio rendering device ; wherein the wireless communications device is configured to transmit a first plurality of audio packets (P1L, P2L) to the first audio rendering device and to transmit a second plurality of audio packets (P1R, P2R) to the second audio rendering device, the first plurality of audio packets including frames of audio data for a first audio channel from a set of one or more audio channels and the second plurality of audio packets including frames of audio data for a second audio channel from said set of one or more audio channels; wherein the first audio rendering device is configured to maintain a first buffer of received frames of audio data for the first audio channel and to release, at respective first buffer release times, frames of audio data for the first audio channel from said first buffer for rendering; wherein the second audio rendering device is configured to maintain a second buffer of received frames of audio data for the second audio channel and to release, at respective second buffer release times, frames of audio data for the second audio channel from said second buffer for rendering; wherein the first audio rendering device is configured to receive one or more messages from the second audio rendering device; wherein at least the first audio rendering device is configured to synchronise the first buffer release times with the second buffer release times based on the received one or more messages; and characterized in that the wireless communications device is configured to transmit the first plurality of audio packets and the second plurality of audio packets according to a transmission schedule such that audio packets of the first plurality of audio packets are scheduled for transmission to the first audio rendering device and that each audio packet of the second plurality of audio packets is scheduled for transmission to the second audio rendering device at a delay interval (Δ) after a corresponding audio packet of the first plurality of audio packets is scheduled for transmission; and wherein at least the first audio rendering device is configured to determine the delay interval based on at least one of the received messages.
A mammography apparatus comprising: a ray source control unit that performs control of moving a radiation source, and emitting radiation from the radiation source at a plurality of positions at which incidence angles of radiation to a breast of a subject are different from each other; and a detector control unit that performs control of causing a radiation detector to detect radiation emitted from the radiation source at the plurality of positions, wherein the ray source control unit performs control of moving the radiation source at a movement speed corresponding to a position of the radiation source relative to a subject face proximate position, the face proximate position being a position at which the radiation source comes close to the face of the subject, the mammography apparatus further comprising: a position detection unit that detects a position of the face of the subject, wherein the ray source control unit changes the movement speed of the radiation source according to a position of the radiation source relative to the position of the face of the subject on the basis of a detection result in the position detection unit, and moves the radiation source . a ray source control unit that performs control of moving a radiation source, and emitting radiation from the radiation source at a plurality of positions at which incidence angles of radiation to a breast of a subject are different from each other; and a detector control unit that performs control of causing a radiation detector to detect radiation emitted from the radiation source at the plurality of positions, wherein the ray source control unit performs control of moving the radiation source at a movement speed corresponding to a position of the radiation source relative to a subject face proximate position, the face proximate position being a position at which the radiation source comes close to the face of the subject, the mammography apparatus further comprising: a position detection unit that detects a position of the face of the subject, wherein the ray source control unit changes the movement speed of the radiation source according to a position of the radiation source relative to the position of the face of the subject on the basis of a detection result in the position detection unit, and moves the radiation source . a position detection unit that detects a position of the face of the subject, wherein the ray source control unit changes the movement speed of the radiation source according to a position of the radiation source relative to the position of the face of the subject on the basis of a detection result in the position detection unit, and moves the radiation source .
A method performed by a wireless device, for receiving system information from a network node of a wireless communication system, the system information being received in a synchronization signal, SS, block of an SS burst set comprising at least one SS block, wherein the system information is multiplexed with information providing a time index indicating which SS block of the SS burst set that is being received, the method comprising: - receiving the information providing the time index from the network node, - receiving the system information, wherein receiving comprises descrambling the system information using a scrambling sequence generated based on the information providing the time index, - determining an accuracy of the information providing the time index, based on an error-detection code related to the received system information. - receiving the information providing the time index from the network node, - receiving the system information, wherein receiving comprises descrambling the system information using a scrambling sequence generated based on the information providing the time index, - determining an accuracy of the information providing the time index, based on an error-detection code related to the received system information.
An electronic device (10; 1092) adapted for conveying locale information, the electronic device (10; 1092) comprising: a network interface ; a processor ; and a memory, the memory comprising instructions configured to cause the processor to: request , from another device (10; 1094), and via the network interface , a list of available locales that are available to the other device (10; 1094), the request comprising a request for either a view of an entire profile instance of a locale profile on the other device (10; 1094), or a view of only available locales sub-fields of a locale profile on the other device (10; 1094); receive the list of available locales from the other device (10; 1094); select an active locale for the other device (10; 1092) from the received list of available locales , wherein the active locale indicates which language and/or location is being used; and send a request, to the other device (10; 1094), to change the active locale of the other device (10; 1094) to the selected locale such that the other device (10; 1094) will use the language and/or location indicated by the selected locale. a network interface ; a processor ; and a memory, the memory comprising instructions configured to cause the processor to: request , from another device (10; 1094), and via the network interface , a list of available locales that are available to the other device (10; 1094), the request comprising a request for either a view of an entire profile instance of a locale profile on the other device (10; 1094), or a view of only available locales sub-fields of a locale profile on the other device (10; 1094); receive the list of available locales from the other device (10; 1094); select an active locale for the other device (10; 1092) from the received list of available locales , wherein the active locale indicates which language and/or location is being used; and send a request, to the other device (10; 1094), to change the active locale of the other device (10; 1094) to the selected locale such that the other device (10; 1094) will use the language and/or location indicated by the selected locale. request , from another device (10; 1094), and via the network interface , a list of available locales that are available to the other device (10; 1094), the request comprising a request for either a view of an entire profile instance of a locale profile on the other device (10; 1094), or a view of only available locales sub-fields of a locale profile on the other device (10; 1094); receive the list of available locales from the other device (10; 1094); select an active locale for the other device (10; 1092) from the received list of available locales , wherein the active locale indicates which language and/or location is being used; and send a request, to the other device (10; 1094), to change the active locale of the other device (10; 1094) to the selected locale such that the other device (10; 1094) will use the language and/or location indicated by the selected locale.
A bit error detection method, performing by a receiving device, characterized by comprising: receiving (S201) a first result obtained by a sending device by performing bit interleaving parity, BIP, check on a sent first to-be-checked bit stream; performing (S202) BIP check on a received second to-be-checked bit stream to obtain a second result, wherein the second to-be-checked bit stream is a bit stream received by a receiving device after the first to-be-checked bit stream is transmitted and wherein the second to-be-checked bit stream is the same as the first to-be-checked bit stream, or the second to-be-checked bit stream is different from the first to-be-checked bit stream due to addition or deletion of a block during transmission; detecting (S203) a type of a control block in the second to-be-checked bit stream, and determining a third result based on impact of the type of the control block on a BIP check result, wherein the third result is obtained by reversing bit values at predetermined bit positions in the second result; comparing (S204) the first result, the second result, and the third result; and if (S205) the first result is different from the second result, the first result is different from the third result, and the second result is different from a predetermined result, determining that a bit error occurs when the first to-be-checked bit stream is transmitted, wherein the predetermined result is determined based on whether the second to-be-checked bit stream is consecutive Local False/ Remote False blocks. receiving (S201) a first result obtained by a sending device by performing bit interleaving parity, BIP, check on a sent first to-be-checked bit stream; performing (S202) BIP check on a received second to-be-checked bit stream to obtain a second result, wherein the second to-be-checked bit stream is a bit stream received by a receiving device after the first to-be-checked bit stream is transmitted and wherein the second to-be-checked bit stream is the same as the first to-be-checked bit stream, or the second to-be-checked bit stream is different from the first to-be-checked bit stream due to addition or deletion of a block during transmission; detecting (S203) a type of a control block in the second to-be-checked bit stream, and determining a third result based on impact of the type of the control block on a BIP check result, wherein the third result is obtained by reversing bit values at predetermined bit positions in the second result; comparing (S204) the first result, the second result, and the third result; and if (S205) the first result is different from the second result, the first result is different from the third result, and the second result is different from a predetermined result, determining that a bit error occurs when the first to-be-checked bit stream is transmitted, wherein the predetermined result is determined based on whether the second to-be-checked bit stream is consecutive Local False/ Remote False blocks.
A method for calibrating an output quantity of a dispenser , the dispenser , after activation, dispensing a hygiene fluid , preferably a disinfectant, with said output quantity and comprising means configured to change the output quantity, wherein the method comprises the following steps: • dispensing the output quantity of hygiene fluid from the dispenser into a measuring container ; • measuring the quantity of hygiene fluid present in the measuring container , preferably by measuring the volume of the hygiene fluid in the measuring container or the mass of the hygiene fluid in the measuring container ; • introducing the measured amount into a calibration device ; • comparing, in the calibration device , whether the measured amount corresponds to a reference amount and determining a calibration value if the measuring amount does not correspond to the reference amount; • sending the calibration value from the calibration device to the dispenser ; and • storing the calibration value in the dispenser , wherein said means use the calibration value for further outputs of the hygiene fluid in order to adjust the output quantity of the dispenser . • dispensing the output quantity of hygiene fluid from the dispenser into a measuring container ; • measuring the quantity of hygiene fluid present in the measuring container , preferably by measuring the volume of the hygiene fluid in the measuring container or the mass of the hygiene fluid in the measuring container ; • introducing the measured amount into a calibration device ; • comparing, in the calibration device , whether the measured amount corresponds to a reference amount and determining a calibration value if the measuring amount does not correspond to the reference amount; • sending the calibration value from the calibration device to the dispenser ; and • storing the calibration value in the dispenser , wherein said means use the calibration value for further outputs of the hygiene fluid in order to adjust the output quantity of the dispenser .