mhurhangee/ep-ind-claims huggingface dataset:
A method for energy management on a DSL line comprising: identifying that one or more DSL lines of a plurality of DSL lines can safely operate in a low-power mode by identifying which of the plurality of DSL lines exhibit crosstalk coupling to neighboring DSL lines below a specified threshold; adjusting a plurality of times a transmit power to vary between a first setting and a second setting on a first DSL line of the one or more DSL lines to optimize energy consumption for the first DSL line; measuring or estimating a change in a performance of a second DSL line neighboring the first DSL line caused by a change in crosstalk on the second DSL line generated by the first DSL line in response to adjusting the transmit power of the first DSL line, wherein the change in crosstalk is associated with time-varying crosstalk emanating from the first DSL line due to a transition to a different transmit power level for the first DSL line; and categorizing a level of the change in the performance of the second DSL line neighboring the first DSL line caused by the change in crosstalk. identifying that one or more DSL lines of a plurality of DSL lines can safely operate in a low-power mode by identifying which of the plurality of DSL lines exhibit crosstalk coupling to neighboring DSL lines below a specified threshold; adjusting a plurality of times a transmit power to vary between a first setting and a second setting on a first DSL line of the one or more DSL lines to optimize energy consumption for the first DSL line; measuring or estimating a change in a performance of a second DSL line neighboring the first DSL line caused by a change in crosstalk on the second DSL line generated by the first DSL line in response to adjusting the transmit power of the first DSL line, wherein the change in crosstalk is associated with time-varying crosstalk emanating from the first DSL line due to a transition to a different transmit power level for the first DSL line; and categorizing a level of the change in the performance of the second DSL line neighboring the first DSL line caused by the change in crosstalk.
Gallery-cooled piston (1, 100) for an internal combustion engine, having an upper part (2, 102) and a lower part (3, 103), the said two parts (2, 3; 102, 103) being connected to one another via an integrally joined joint connection, configured as a welded seam, and the said two parts (2, 3; 102, 103) forming an annularly circumferential cooling duct which is arranged, for instance, behind a ring zone, a gap geometry (13, 113) being provided between a lower edge of the ring zone and an upper edge of a lower part (3, 103), characterized in that the gap geometry (13, 113) has at least one sliding face which is arranged on a lower edge of the ring zone of the gallery-cooled piston (1, 100) and/or on the corresponding upper edge of a lower part (3, 103) of the gallery-cooled piston (1, 100).
A sample chamber suitable for holding a biological sample for optical imaging, comprising: an optically clear bottom layer; an optically clear adhesive layer; an optically clear top layer; a sample holding chamber between and defined by the optionally clear adhesive layer and the bottom layer, wherein the optically clear adhesive layer is bond to the top layer on one side and is bond to the bottom layer on the other side; an inlet port having an opening in the top layer for introducing a sample into the sample holding chamber; and an outlet port having an opening in the top layer for removing a sample from the sample holding chamber, wherein at least a portion of the adhesive layer is optically clear in the range of 250 nm to 10,000 nm in wavelength, and wherein at least a portion of the top layer and the bottom layer is optically clear in the range of 300 nm and 10,000 nm in wavelength, characterized in that the sample holding chamber has a fixed depth of from 0.5 μm to 2 μm. an optically clear bottom layer; an optically clear adhesive layer; an optically clear top layer; a sample holding chamber between and defined by the optionally clear adhesive layer and the bottom layer, wherein the optically clear adhesive layer is bond to the top layer on one side and is bond to the bottom layer on the other side; an inlet port having an opening in the top layer for introducing a sample into the sample holding chamber; and an outlet port having an opening in the top layer for removing a sample from the sample holding chamber,
A configurable mixer comprising: a first transistor pair configured to multiply a first signal by a first differential signal; a second transistor pair configured to multiply a second signal by the first differential signal; and a second set of switches configured to selectively couple respective gate terminals of the second transistor pair to a ground potential based, at least in part, on an operating mode of the configurable mixer. a first transistor pair configured to multiply a first signal by a first differential signal; a second transistor pair configured to multiply a second signal by the first differential signal; and a second set of switches configured to selectively couple respective gate terminals of the second transistor pair to a ground potential based, at least in part, on an operating mode of the configurable mixer.
A method of cipher communication for management frame performed by a station in a wireless local area network system, the method comprising: obtaining a first pseudonoise, PN, code sequence for a plaintext Medium Access Control, MAC, protocol data unit, MPDU; constructing an additional authentication data, AAD, by using fields in a header of the plaintext MPDU, the AAD comprising a sequence number field; constructing a Nonce from the PN code sequence, an Address 2 field in the header of the plaintext MPDU and a Priority field in the header of the plaintext MPDU; generating a counter mode, CTR, with cipher block chaining - MAC Protocol, CCMP, header including a second PN code sequence and a key identifier; generating an encrypted data and message integrity code, MIC, by using a temporal key, the AAD, and the Nonce; generating an encrypted MPDU by combining the header of the plaintext MPDU, the CCMP header, the encrypted data and the MIC; and transmitting the encrypted MPDU to a peer station; wherein the plaintext MPDU is a management frame including the sequence number field, the method being characterized by: the sequence number field including an access category field indicating category of data included in the plaintext MPDU, and wherein the Nonce includes a priority subfield set to a value in the access category field of the sequence number field. obtaining a first pseudonoise, PN, code sequence for a plaintext Medium Access Control, MAC, protocol data unit, MPDU; constructing an additional authentication data, AAD, by using fields in a header of the plaintext MPDU, the AAD comprising a sequence number field; constructing a Nonce from the PN code sequence, an Address 2 field in the header of the plaintext MPDU and a Priority field in the header of the plaintext MPDU; generating a counter mode, CTR, with cipher block chaining - MAC Protocol, CCMP, header including a second PN code sequence and a key identifier; generating an encrypted data and message integrity code, MIC, by using a temporal key, the AAD, and the Nonce; generating an encrypted MPDU by combining the header of the plaintext MPDU, the CCMP header, the encrypted data and the MIC; and transmitting the encrypted MPDU to a peer station; wherein the plaintext MPDU is a management frame including the sequence number field, the method being characterized by: the sequence number field including an access category field indicating category of data included in the plaintext MPDU, and wherein the Nonce includes a priority subfield set to a value in the access category field of the sequence number field. the sequence number field including an access category field indicating category of data included in the plaintext MPDU, and wherein the Nonce includes a priority subfield set to a value in the access category field of the sequence number field.
A laundry treatment apparatus comprising: a cabinet; a drawer provided so as to be discharged from an inside of the cabinet; a tub provided in the drawer for providing a space for storage of water; a drum rotatably provided in the tub for providing a space for storage of laundry; and a spacer (27, 29) for preventing collision between the drawer and the cabinet and preventing the drawer from being discharged from the cabinet, the spacer (27, 29) being provided so as to be separable from an outside of the cabinet, the spacer (27, 29) being interference-fitted into a space between the cabinet and the drawer, characterized in that the laundry treatment apparatus further comprises three or more tub support units for coupling the tub body to the drawer, wherein each of the tub support units includes: a first support member provided at the drawer; a second support member provided at the tub body; and a connector for connecting the first support member and the second support member to each other, the connector being orthogonal to a bottom surface of the drawer and wherein at least one of the first support members of the tub support units is separably coupled to the drawer. a cabinet; a drawer provided so as to be discharged from an inside of the cabinet; a tub provided in the drawer for providing a space for storage of water; a drum rotatably provided in the tub for providing a space for storage of laundry; and a spacer (27, 29) for preventing collision between the drawer and the cabinet and preventing the drawer from being discharged from the cabinet, the spacer (27, 29) being provided so as to be separable from an outside of the cabinet, the spacer (27, 29) being interference-fitted into a space between the cabinet and the drawer, characterized in that the laundry treatment apparatus further comprises three or more tub support units for coupling the tub body to the drawer, wherein each of the tub support units includes: a first support member provided at the drawer; a second support member provided at the tub body; and a connector for connecting the first support member and the second support member to each other, the connector being orthogonal to a bottom surface of the drawer and wherein at least one of the first support members of the tub support units is separably coupled to the drawer. a first support member provided at the drawer; a second support member provided at the tub body; and a connector for connecting the first support member and the second support member to each other, the connector being orthogonal to a bottom surface of the drawer and wherein at least one of the first support members of the tub support units is separably coupled to the drawer.
A pneumatic tire, comprising a sidewall and a carcass, the sidewall being located at the axial outer side of the carcass, the sidewall comprising a laminate of two or more rubber layers including an inner sidewall layer, which is located closest to the carcass, and an outer sidewall layer, which constitutes an outer surface of the tire, the inner sidewall layer comprising a rubber composition for an inner sidewall layer, the outer sidewall layer comprising a rubber composition for an outer sidewall layer, the carcass comprising a carcass cord topped with a rubber composition for a carcass cord topping, characterized by the sidewall having a thickness of not more than 3.0 mm, the inner sidewall layer having a thickness of 0.2 to 1.0 mm, wherein the thickness of the sidewall is the sum of the thickness of the inner sidewall layer and of the outer sidewall layer, the rubber composition for an inner sidewall layer having a volume resistivity of not more than 5.0 × 10 7 Ω·cm, the rubber composition for an inner sidewall layer and the rubber composition for an outer sidewall layer satisfying the following relation, the rubber composition for a carcass cord topping and the rubber composition for an inner sidewall layer satisfying the following relation: 1.15 ≤ E * 1 / E * 2 ≤ 3.00 1.00 ≤ E * 1 / E * 3 ≤ 2.50 wherein E* is a complex elastic modulus of the rubber composition for an inner sidewall layer, E* is a complex elastic modulus of the rubber composition for an outer sidewall layer, and E* is a complex elastic modulus of the rubber composition for a carcass cord topping.
A signal receiving method, comprising: sequentially preprocessing a received first signal to obtain to-be-processed second signals; generating filtering coefficients for the second signals by converting colored noise of the second signals into white noise; and filtering the corresponding second signals according to the filtering coefficients, wherein the generating filtering coefficients for the second signals by converting colored noise of the second signals into white noise comprises: if data of the second signals is marked as XI(k), original sending data of the second signals XI(k) is marked as d(k), the colored noise of the second signals XI(k) is marked as n(k), and n( k)= XI ( k) - d ( k), obtaining filtering coefficients W 0, W 1, W 2...W N according to W 0 W 1 ⋮ W N = 1 W ̃ 1 / W ̃ 0 ⋮ W ̃ N / W ̃ 0, wherein W ̃ 0 W ̃ 1 ⋮ W ̃ N = R 0 R 1 ⋯ R N R 1 R 0 ⋯ R N − 1 ⋮ ⋮ ⋱ ⋮ R N R N − 1 ⋯ R 0 − 1 R 0 0 ⋮ 0, R is an autocorrelation function of n(k), N is a quantity of filter taps, N is a nonnegative integer, and k corresponds to a time serial number of the second signal. sequentially preprocessing a received first signal to obtain to-be-processed second signals; generating filtering coefficients for the second signals by converting colored noise of the second signals into white noise; and filtering the corresponding second signals according to the filtering coefficients, wherein the generating filtering coefficients for the second signals by converting colored noise of the second signals into white noise comprises: if data of the second signals is marked as XI(k), original sending data of the second signals XI(k) is marked as d(k), the colored noise of the second signals XI(k) is marked as n(k), and n( k)= XI ( k) - d ( k), obtaining filtering coefficients W 0, W 1, W 2...W N according to W 0 W 1 ⋮ W N = 1 W ̃ 1 / W ̃ 0 ⋮ W ̃ N / W ̃ 0, wherein W ̃ 0 W ̃ 1 ⋮ W ̃ N = R 0 R 1 ⋯ R N R 1 R 0 ⋯ R N − 1 ⋮ ⋮ ⋱ ⋮ R N R N − 1 ⋯ R 0 − 1 R 0 0 ⋮ 0, R is an autocorrelation function of n(k), N is a quantity of filter taps, N is a nonnegative integer, and k corresponds to a time serial number of the second signal.
An imager assembly for a vehicle comprising: an optic lens comprising a proximal end portion, a distal end portion, and a longitudinal axis extending there between, wherein the optic lens forms a profile comprising a groove, wherein the groove is configured to receive a seal; an imager circuit comprising at least one circuit comprising an imager; wherein the assembly is characterized by a lens holder formed of a conductive material, wherein the lens holder forms: a shielded cavity, wherein the shielded cavity is configured to receive the imager circuit; and a mounting surface configured to receive a mating surface of the imager circuit, wherein the mounting surface is configured to align the longitudinal axis of the optic lens with the imager, and wherein the lens holder is configured to shield the imager circuit electromagnetic interference and prevent emissions from radiating out of the imager circuit from the lens holder; and a housing configured to receive the lens holder, wherein a portion of the optic lens is positioned between the lens holder and the housing and the seal is disposed between the optic lens and the housing forming a sealed enclosure of the imager assembly. an optic lens comprising a proximal end portion, a distal end portion, and a longitudinal axis extending there between, wherein the optic lens forms a profile comprising a groove, wherein the groove is configured to receive a seal; an imager circuit comprising at least one circuit comprising an imager; wherein the assembly is characterized by a lens holder formed of a conductive material, wherein the lens holder forms: a shielded cavity, wherein the shielded cavity is configured to receive the imager circuit; and a mounting surface configured to receive a mating surface of the imager circuit, wherein the mounting surface is configured to align the longitudinal axis of the optic lens with the imager, and wherein the lens holder is configured to shield the imager circuit electromagnetic interference and prevent emissions from radiating out of the imager circuit from the lens holder; and a shielded cavity, wherein the shielded cavity is configured to receive the imager circuit; and a mounting surface configured to receive a mating surface of the imager circuit, wherein the mounting surface is configured to align the longitudinal axis of the optic lens with the imager, and wherein the lens holder is configured to shield the imager circuit electromagnetic interference and prevent emissions from radiating out of the imager circuit from the lens holder; and a housing configured to receive the lens holder, wherein a portion of the optic lens is positioned between the lens holder and the housing and the seal is disposed between the optic lens and the housing forming a sealed enclosure of the imager assembly.
A method for processing memory references in a system which includes multiple processor cores (0,..., 63), the method comprising: monitoring memory references from the processor cores (0,..., 63) to determine whether memory references are interfering with each other as the memory references are processed in the system; characterized in that determining if hits and empty-accesses are being turned into misses because of interference from memory references from the processor cores (0,..., 63); and if memory references from the processor cores (0,..., 63) are interfering with each other and the number of hits and empty-accesses that are being turned into misses exceeds a first threshold, time-multiplexing the processing of memory references, so that a block of consecutive memory references is processed before other memory references are processed, and wherein when the time-multiplexing is taking place, if a rate of interference between memory references from the processor cores (0,..., 63) falls below a second threshold, the method further comprises discontinuing the time-multiplexing of memory references in a block of consecutive memory references issued by a processor core (0,..., 63). monitoring memory references from the processor cores (0,..., 63) to determine whether memory references are interfering with each other as the memory references are processed in the system; characterized in that determining if hits and empty-accesses are being turned into misses because of interference from memory references from the processor cores (0,..., 63); and if memory references from the processor cores (0,..., 63) are interfering with each other and the number of hits and empty-accesses that are being turned into misses exceeds a first threshold, time-multiplexing the processing of memory references, so that a block of consecutive memory references is processed before other memory references are processed, and wherein when the time-multiplexing is taking place, if a rate of interference between memory references from the processor cores (0,..., 63) falls below a second threshold, the method further comprises discontinuing the time-multiplexing of memory references in a block of consecutive memory references issued by a processor core (0,..., 63).
A gas cooking appliance comprising - a control panel, - a gas regulating valve comprising a valve body and an operating shaft going through the control panel, - a control knob comprising a handle coupled to the operating shaft of the valve, and - a bracket comprising a base secured to the valve body and at least two arms (41a, 41b) extending from the base, wherein - the arms (41a, 41b) of the bracket are secured to the control panel, characterized in that - the control panel comprises one housing (15a, 15b) for each arm (41a, 41b) of the bracket, each housing (15a, 15b) having a shape complementary to at least one part of the end (410a, 410b) of the corresponding arm (41a, 41b), said at least one part of each end (410a, 410b) being fitted in the respective housing (15a, 15b). - a control panel, - a gas regulating valve comprising a valve body and an operating shaft going through the control panel, - a control knob comprising a handle coupled to the operating shaft of the valve, and - a bracket comprising a base secured to the valve body and at least two arms (41a, 41b) extending from the base, wherein - the arms (41a, 41b) of the bracket are secured to the control panel, - the control panel comprises one housing (15a, 15b) for each arm (41a, 41b) of the bracket, each housing (15a, 15b) having a shape complementary to at least one part of the end (410a, 410b) of the corresponding arm (41a, 41b), said at least one part of each end (410a, 410b) being fitted in the respective housing (15a, 15b).
A lacing engine comprising: a housing including a superior section and an inferior section, the superior section including a lace channel and a spool recess; a lace spool disposed within the spool recess in the superior section of the housing, the lace spool including a lace groove in a superior surface to receive a lace cable and a spool shaft extending inferiorly into the housing; and a worm gear coupled to an inferior end of the spool shaft, the worm gear configured to receive input from a drive system within the housing to rotate the lace spool to take up the lace cable on the lace spool as the lace spool rotates in a first direction. a housing including a superior section and an inferior section, the superior section including a lace channel and a spool recess; a lace spool disposed within the spool recess in the superior section of the housing, the lace spool including a lace groove in a superior surface to receive a lace cable and a spool shaft extending inferiorly into the housing; and a worm gear coupled to an inferior end of the spool shaft, the worm gear configured to receive input from a drive system within the housing to rotate the lace spool to take up the lace cable on the lace spool as the lace spool rotates in a first direction.
A method of inter base station communication performed by a first base station comprising: - receiving a first message from a user equipment, said first message being indicative of a neighbouring second base station by the first base station, wherein the second base station is newly discovered, - sending a second message to the second base station, - in response to the second message, receiving from the second base station a third message comprising information being indicative of at least a third base station, the third base station being a neighbour of the second base station, and - using information received with the third message for enabling communication between the first base station and the third base station, the third message comprising a cell identifier and a tracking area code of one or more cells of the third base station. - receiving a first message from a user equipment, said first message being indicative of a neighbouring second base station by the first base station, wherein the second base station is newly discovered, - sending a second message to the second base station, - in response to the second message, receiving from the second base station a third message comprising information being indicative of at least a third base station, the third base station being a neighbour of the second base station, and - using information received with the third message for enabling communication between the first base station and the third base station, the third message comprising a cell identifier and a tracking area code of one or more cells of the third base station.