mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a composite brake disc, the method comprising the steps of: - shaping a bell in the form of a cup with a coupling portion, a tubular side wall and a bottom wall transversal to the side wall through deep-drawing of a metal sheet, in which, during deep-drawing, a bottom portion of the metal sheet that will form the bottom wall is pushed in a drawing direction relative to an outer portion of the metal sheet that will form the coupling portion; - forming at least one groove in a surface of the bottom portion of the metal sheet and, then, pushing the bottom portion relative to the outer portion in a retro-forming direction opposite to the drawing direction, such that the material of the bottom wall yields at least locally at the surface and the bottom wall undergoes a plastic deformation in said retro-forming direction; - connecting a brake band to the coupling portion of the bell. - shaping a bell in the form of a cup with a coupling portion, a tubular side wall and a bottom wall transversal to the side wall through deep-drawing of a metal sheet, in which, during deep-drawing, a bottom portion of the metal sheet that will form the bottom wall is pushed in a drawing direction relative to an outer portion of the metal sheet that will form the coupling portion; - forming at least one groove in a surface of the bottom portion of the metal sheet and, then, pushing the bottom portion relative to the outer portion in a retro-forming direction opposite to the drawing direction, such that the material of the bottom wall yields at least locally at the surface and the bottom wall undergoes a plastic deformation in said retro-forming direction; - connecting a brake band to the coupling portion of the bell.
A display device, comprising: a display panel assembly; and a backlight unit comprising an optical sheet, a reflective sheet, and a light source, wherein one of the optical sheet and the reflective sheet comprises a vibration material layer (25-1; 26-1) for supplying a sound by receiving an AC electrical field and a sound element comprising a pair of electrodes (25-2; 26-2) respectively on upper and lower sides of the vibration material layer (25-1; 26-1), further comprising means for generating vibrations in the vibration material layer (25-1; 26-1) with frequencies outside an audible frequency range by applying an AC voltage to the pair of electrodes (25-2; 26-2), and means for detecting a change in the vibration so as to detect a touch by a user. a display panel assembly; and a backlight unit comprising an optical sheet, a reflective sheet, and a light source,
A process for removing alkali metal ions from a polyether polyol, comprising: (a) combining a mixture of water and polar organic solvent with a mixture comprising a polyether polyol and an alkali metal ion-containing catalyst; and (b) passing the product of step (a) through a bed of a cation exchange resin that is disposed in a container to remove alkali metal ions therefrom, wherein the container is operated liquid-full throughout the process, and wherein the liquid-full operation of the container throughout the processes means that the liquid level in the container in which the cation exchange resin is disposed is maintained such that there is little or no gas/liquid interface in the container during the process and/or that the liquid level is maintained above the level of the bed of cation exchange resin throughout the process (a) combining a mixture of water and polar organic solvent with a mixture comprising a polyether polyol and an alkali metal ion-containing catalyst; and (b) passing the product of step (a) through a bed of a cation exchange resin that is disposed in a container to remove alkali metal ions therefrom,
A method for manufacturing a liquid ejection head which includes an ejection port for ejecting a liquid and a flow path communicating with the ejection port, the method comprising in the stated order: a first step of preparing a substrate on which a first layer and a second layer are evenly laminated in this order; a second step of forming a member for forming the ejection port from the second layer; a third step of forming a mold for forming the flow path from the first layer; a fourth step of providing a third layer so as to cover the mold and so as to come into close contact with the member; and a fifth step of removing the mold to form the flow path, characterized in that in the second step, an opening used as the ejection port is formed in the member. a first step of preparing a substrate on which a first layer and a second layer are evenly laminated in this order; a second step of forming a member for forming the ejection port from the second layer; a third step of forming a mold for forming the flow path from the first layer; a fourth step of providing a third layer so as to cover the mold and so as to come into close contact with the member; and a fifth step of removing the mold to form the flow path, characterized in that in the second step, an opening used as the ejection port is formed in the member.
Bearing arrangement having - a bearing block with two bearing walls (22, 24) arranged opposite and parallel to each other, in which a bearing eye (26, 28) is formed in each case, and, - a positioning cylinder with a cylinder housing, which is arranged between the opposite bearing walls (22, 24) of the bearing block and has bearing pins (46, 48), which extend transversely to a longitudinal axis of the positioning cylinder and project at least partially into the bearing eyes (26, 28) of the bearing walls (22, 24), characterized in that the bearing eyes (26, 28) in the bearing walls (22, 24) arranged parallel to each other have a closed circumferential surface, wherein in at least one bearing eye a recess extending into an outward direction is formed, into which a bearing pin of the positioning cylinder can be inserted by turning the positioning cylinder about its longitudinal axis. - a bearing block with two bearing walls (22, 24) arranged opposite and parallel to each other, in which a bearing eye (26, 28) is formed in each case, and, - a positioning cylinder with a cylinder housing, which is arranged between the opposite bearing walls (22, 24) of the bearing block and has bearing pins (46, 48), which extend transversely to a longitudinal axis of the positioning cylinder and project at least partially into the bearing eyes (26, 28) of the bearing walls (22, 24),
A method comprising: training, using one or more computing devices, a deep neural network using (i) a set of training images and (ii) data identifying one or more business storefront locations in the training images, the deep neural network outputting a plurality of bounding boxes on each training image, wherein training the deep neural network comprises: applying a coarse sliding window on a portion of a given training image; and removing one or more bounding boxes based on a location of the portion of the given training image; receiving, using the one or more computing devices, a first image; evaluating, using the one or more computing devices and the trained deep neural network, the first image to identify features of the first image; and generating, using the one or more computing devices and the trained deep neural network, a plurality of bounding boxes on the first image, the plurality of bounding boxes identifying two or more business storefront locations in the first image, wherein each bounding box in the plurality of bounding boxes is associated with a confidence score, the confidence score representing a likelihood that the bounding box contains an image of a business storefront. training, using one or more computing devices, a deep neural network using (i) a set of training images and (ii) data identifying one or more business storefront locations in the training images, the deep neural network outputting a plurality of bounding boxes on each training image, wherein training the deep neural network comprises: applying a coarse sliding window on a portion of a given training image; and removing one or more bounding boxes based on a location of the portion of the given training image; applying a coarse sliding window on a portion of a given training image; and removing one or more bounding boxes based on a location of the portion of the given training image; receiving, using the one or more computing devices, a first image; evaluating, using the one or more computing devices and the trained deep neural network, the first image to identify features of the first image; and generating, using the one or more computing devices and the trained deep neural network, a plurality of bounding boxes on the first image, the plurality of bounding boxes identifying two or more business storefront locations in the first image, wherein each bounding box in the plurality of bounding boxes is associated with a confidence score, the confidence score representing a likelihood that the bounding box contains an image of a business storefront.
A method for a wireless device operating in a wireless network, for handling area update reports, the method comprising: initiating a radio network area update, RNAU, responsive to detecting that the wireless device has entered a cell not belonging to a radio network area, RNA, configured for the wireless device; receiving, from the wireless network, a message indicating that the wireless device's attempt to perform the RNAU has been rejected, the message comprising or being accompanied by an indication that a wait time value is applicable; responsive to the message, setting a reject wait timer to the wait time value; characterised by: performing the RNAU upon expiry of the reject wait timer. initiating a radio network area update, RNAU, responsive to detecting that the wireless device has entered a cell not belonging to a radio network area, RNA, configured for the wireless device; receiving, from the wireless network, a message indicating that the wireless device's attempt to perform the RNAU has been rejected, the message comprising or being accompanied by an indication that a wait time value is applicable; responsive to the message, setting a reject wait timer to the wait time value; characterised by: performing the RNAU upon expiry of the reject wait timer.
A method (300, 400) to be executed by a digital identity representation generation system, for provisioning a digital identity representation for a principal, the digital identity representation generation system being a web site, the method comprising the steps of: upon a request by the principal for available digital identity representation descriptors, sending the available digital identity representation descriptors to the principal; in response to a request by the principal for a particular digital identity representation corresponding to a digital identity representation descriptor selected from the available digital identity representation descriptors, creating (380, 440) the requested particular digital identity representation, wherein the digital identity representation includes a hint for a credential requiring the principal to authenticate using that credential in order to use the digital identity representation, wherein the digital identity representation includes a list of claims, a claim being a statement or assertion about the principal, and wherein the digital identity representation satisfies one or more of the claims required by a policy; and sending the requested particular digital identity representation to the principal. upon a request by the principal for available digital identity representation descriptors, sending the available digital identity representation descriptors to the principal; in response to a request by the principal for a particular digital identity representation corresponding to a digital identity representation descriptor selected from the available digital identity representation descriptors, creating (380, 440) the requested particular digital identity representation, wherein the digital identity representation includes a hint for a credential requiring the principal to authenticate using that credential in order to use the digital identity representation, wherein the digital identity representation includes a list of claims, a claim being a statement or assertion about the principal, and wherein the digital identity representation satisfies one or more of the claims required by a policy; and sending the requested particular digital identity representation to the principal.
A method implemented by a wireless transmit/receive unit, WTRU, for supporting higher order modulation, HOM, the method comprising: the WTRU receiving a channel quality indicator, CQI, reporting configuration from a network device, the CQI reporting configuration indicating whether one or more of a first CQI table or a second CQI table is to be used for CQI reporting, wherein the first CQI table comprises CQI values mapped to modulation orders of QPSK, 16QAM, and 64QAM, and the second CQI table comprises CQI values mapped to modulation orders of QPSK, 16QAM, 64QAM, and 256QAM; the WTRU determining that a CQI report is to be sent in a first subframe based on said CQI reporting configuration; the WTRU determining whether the first CQI table or the second CQI table is to be used for CQI reporting in the first subframe, wherein the WTRU is configured such that the subframe is tied to the use of a specific CQI table; the WTRU generating the CQI report using the determined one of the first CQI table or the second CQI table; and the WTRU sending the CQI report to the network device. the WTRU receiving a channel quality indicator, CQI, reporting configuration from a network device, the CQI reporting configuration indicating whether one or more of a first CQI table or a second CQI table is to be used for CQI reporting, wherein the first CQI table comprises CQI values mapped to modulation orders of QPSK, 16QAM, and 64QAM, and the second CQI table comprises CQI values mapped to modulation orders of QPSK, 16QAM, 64QAM, and 256QAM; the WTRU determining that a CQI report is to be sent in a first subframe based on said CQI reporting configuration; the WTRU determining whether the first CQI table or the second CQI table is to be used for CQI reporting in the first subframe, wherein the WTRU is configured such that the subframe is tied to the use of a specific CQI table; the WTRU generating the CQI report using the determined one of the first CQI table or the second CQI table; and the WTRU sending the CQI report to the network device.
An antenna structure comprising at least two stacked antenna apertures, a first antenna aperture (101, 420) with first antenna elements (102, 423) and at least a second antenna aperture (200, 421) with second antenna elements (201, 410), characterized in that the antenna structure is arranged for operation in at least a high and a low frequency band with the first antenna elements (102, 423) being arranged for operation in the high frequency band and said second antenna elements (201, 410) being arranged for operation in the low frequency band, the first antenna elements (102, 423) being arranged to have a polarization substantially perpendicular to the polarization of the second antenna elements (201, 410) and in that the second antenna elements are arranged in at least one group and each of said group, comprising a number of second antenna elements coupled in series, are arranged to have a common feeding point on a straight feeding structure (206, 301, 404), one feeding structure being located adjacent to each group of second antenna elements, the direction of the feeding structure being substantially perpendicular to the polarization of the first antenna elements (102, 423).
A semiconductor device, comprising a first conductivity type region exposed on a surface of a semiconductor substrate, and an electrode provided on said surface and in direct contact with said region wherein a local maximum value N1, a local minimum value N2, and a local maximum value N3 exist in a density distribution of first conductivity type impurities in the first conductivity type region measured along a thickness direction of the semiconductor substrate, a depth D1 having the local maximum value N1 is located on the surface side with respect to a depth D2 having the local minimum value N2, a depth D3 having the local maximum value N3 is located on an opposite side of the surface with respect to the depth D2 having the local minimum value N2, a region having a density N4 of the first conductivity type impurities is located in a part of the first conductivity type region located on an opposite side of the surface with respect to the depth D3 having the local maximum value N3, a relationship of N1>N3>N2>N4 is satisfied, the semiconductor device characterized in that a relationship of N3/10>N2 is satisfied, and a distance "a" from the surface to the depth D1 having the local maximum value N1 is larger than twice a distance "b" from the depth D1 having the local maximum value N1 to the depth D2 having the local minimum value N2.
A tire condition detecting device comprising: a condition detecting section (22, 23), which is configured to detect a condition of a tire; a memory section, which stores identification information; a transmitting section, which is configured to transmit a data signal; a trigger receiving section, which is configured to receive a trigger signal transmitted from a trigger device; and a controlling section, which is configured to, when the trigger receiving section receives the trigger signal, generate data corresponding to the trigger signal and cause the transmitting section to transmit the data signal, which includes the generated data, characterized in that the controlling section is configured to generate the data that is encrypted when the trigger receiving section receives the trigger signal of unmodulated waves, and generate the data that is non-encrypted when the trigger receiving section receives the trigger signal of modulated waves. a condition detecting section (22, 23), which is configured to detect a condition of a tire; a memory section, which stores identification information; a transmitting section, which is configured to transmit a data signal; a trigger receiving section, which is configured to receive a trigger signal transmitted from a trigger device; and a controlling section, which is configured to, when the trigger receiving section receives the trigger signal, generate data corresponding to the trigger signal and cause the transmitting section to transmit the data signal, which includes the generated data, characterized in that the controlling section is configured to generate the data that is encrypted when the trigger receiving section receives the trigger signal of unmodulated waves, and generate the data that is non-encrypted when the trigger receiving section receives the trigger signal of modulated waves.
A wireless client operative to communicate with a Wireless Local Area Network, WLAN, via a wireless access point using a WLAN connection between the wireless client and the wireless access point, the wireless client comprising: means for collecting uplink metric data based on a transmission of one or more frames between the wireless client and the wireless access point, wherein the uplink metric data comprises latency data and wherein the wireless client further comprises means for collecting latency data and means for incrementing a latency histogram based on the latency data, wherein the latency histogram maintains a count of the latency data falling within a plurality of latency intervals; means for generating a report message including at least some of the uplink metric data, the report including the latency histogram; and means for transmitting the report message to the wireless access point. means for collecting uplink metric data based on a transmission of one or more frames between the wireless client and the wireless access point, wherein the uplink metric data comprises latency data and wherein the wireless client further comprises means for collecting latency data and means for incrementing a latency histogram based on the latency data, wherein the latency histogram maintains a count of the latency data falling within a plurality of latency intervals; means for generating a report message including at least some of the uplink metric data, the report including the latency histogram; and means for transmitting the report message to the wireless access point.
A method for manufacturing a sintered magnet comprising the steps of: producing an R-T-B-based magnetic powder through a reduction-diffusion method; and sintering the R-T-B-based magnetic powder, wherein the R is a rare earth element, and the T is a transition metal, and wherein the step of producing the magnetic powder includes a step of adding a refractory metal sulfide powder to the R-T-B-based raw material, characterized in that the method further comprises the steps of: producing an eutectic alloy containing Pr, Al, Cu, and Ga; and infiltrating the eutectic alloy to the sintered magnet. producing an R-T-B-based magnetic powder through a reduction-diffusion method; and sintering the R-T-B-based magnetic powder, wherein the R is a rare earth element, and the T is a transition metal, and wherein the step of producing the magnetic powder includes a step of adding a refractory metal sulfide powder to the R-T-B-based raw material, characterized in that the method further comprises the steps of: producing an eutectic alloy containing Pr, Al, Cu, and Ga; and infiltrating the eutectic alloy to the sintered magnet. producing an eutectic alloy containing Pr, Al, Cu, and Ga; and infiltrating the eutectic alloy to the sintered magnet.
An apparatus comprising: a first local oscillator, LO, generator configurable to generate a first LO signal used by a first receiver for frequency downconversion; and a second LO generator configurable to generate a second LO signal used by a second receiver for frequency downconversion in a first operating mode and used to generate a test signal for the first receiver in a second operating mode, wherein the second LO generator is configurable to generate the second LO signal at a plurality of frequencies to obtain the test signal at the plurality of frequencies. a first local oscillator, LO, generator configurable to generate a first LO signal used by a first receiver for frequency downconversion; and a second LO generator configurable to generate a second LO signal used by a second receiver for frequency downconversion in a first operating mode and used to generate a test signal for the first receiver in a second operating mode, wherein the second LO generator is configurable to generate the second LO signal at a plurality of frequencies to obtain the test signal at the plurality of frequencies.