mhurhangee/ep-ind-claims huggingface dataset:
An apparatus to prevent media transport jams, comprising an actuator to advance media that is loaded within a media path width of a media transport apparatus; at least one of a first sensor and a second sensor to detect an edge of the media during the advancement of the media, wherein the at least one of the first sensor and the second sensor is positioned outside of a media action area, wherein the media action area is positioned within the media path width; and a controller to calculate a skew rate to determine the advancement of the media wherein to calculate the skew rate, the controller is to: evaluate a progression distance of the advancement of a portion of the media prior to the detection of the edge of the media; assess a margin distance between the at least one of the first sensor and the second sensor and the end of the media path width; and estimate whether the margin distance permits the advancement of a remaining portion of the media without causing a media transport jam. an actuator to advance media that is loaded within a media path width of a media transport apparatus; at least one of a first sensor and a second sensor to detect an edge of the media during the advancement of the media, wherein the at least one of the first sensor and the second sensor is positioned outside of a media action area, wherein the media action area is positioned within the media path width; and a controller to calculate a skew rate to determine the advancement of the media wherein to calculate the skew rate, the controller is to: evaluate a progression distance of the advancement of a portion of the media prior to the detection of the edge of the media; assess a margin distance between the at least one of the first sensor and the second sensor and the end of the media path width; and estimate whether the margin distance permits the advancement of a remaining portion of the media without causing a media transport jam. evaluate a progression distance of the advancement of a portion of the media prior to the detection of the edge of the media; assess a margin distance between the at least one of the first sensor and the second sensor and the end of the media path width; and estimate whether the margin distance permits the advancement of a remaining portion of the media without causing a media transport jam.
Use of a connection part (3, 5), in particular for the production of furniture from wood or wood-based materials, the connection part (3, 5) being at least partially coated with a dried hardener/catalyst component (4, 6) of a multi-component glue system, comprising a wood-working adhesive with a solid resin content of over 50%.
Brake system for a motor vehicle comprising friction brakes on the wheels of at least one axle, which friction brakes are actuated by a friction brake control device, at least one electric machine which is connected to at least one wheel and is actuated at least at times as a generator by an electric drive control device, means for detecting a deceleration request ( a decel,req), in particular a sensor for detecting activation of a brake pedal, and a wheel slip control device, wherein the means for detecting a deceleration request ( a decel,req) is/are connected to the wheel slip control device which predefines setpoint braking torques ( M wheel,req) for each wheel in accordance with the deceleration request ( a decel,req), wherein the wheel slip control device is connected to a torque distribution device which is connected to the friction brake control device and the electric drive control device and, in accordance with the set point braking torques ( M wheel,req), predefines friction braking requests ( M fric,req) to the friction brake control device and generator braking requests ( M reg,req) to the electric drive control device, characterized in that the current driving state is determined by means of a state observer, wherein the current driving state comprises at least a current braking torque ( M wheel) and at least one of the two variables of the current wheel speed ( V wheel) and current slip for each individual wheel and in that the generator braking request ( M reg,req) is determined in accordance with the current braking torque ( M wheel), wherein for a wheel which is connected to a generator the friction braking request ( M fric,req) is determined on the basis of a comparison of the setpoint braking torque ( M wheel,req) with the generator braking request ( M reg,req).
A method comprising: towing a sensor streamer through water at a towing speed; releasing interrogating energy within the water; recording energy received by the sensor streamer to create recorded energy; determining a value indicative of noise within the recorded energy; and changing the towing speed in real-time responsive to the value indicative of noise within the recorded energy, characterized in that determining the value indicative of noise further comprises: converting the recorded energy into a frequency-wavenumber (f-k) domain, removing from a signal region of the f-k domain both the signal and noise data thereby creating a remaining portion, and then calculating the value indicative of noise based on the remaining portion by, for each frequency of a plurality of frequencies, estimating noise energy in the signal region based on noise energy in the remaining portion and a corrective scalar based on a proportion of wavenumbers removed from the signal region, and determining the value indicative of noise across both the signal region and the remaining portion. towing a sensor streamer through water at a towing speed; releasing interrogating energy within the water; recording energy received by the sensor streamer to create recorded energy; determining a value indicative of noise within the recorded energy; and changing the towing speed in real-time responsive to the value indicative of noise within the recorded energy, characterized in that determining the value indicative of noise further comprises: converting the recorded energy into a frequency-wavenumber (f-k) domain, removing from a signal region of the f-k domain both the signal and noise data thereby creating a remaining portion, and then calculating the value indicative of noise based on the remaining portion by, for each frequency of a plurality of frequencies, estimating noise energy in the signal region based on noise energy in the remaining portion and a corrective scalar based on a proportion of wavenumbers removed from the signal region, and determining the value indicative of noise across both the signal region and the remaining portion. converting the recorded energy into a frequency-wavenumber (f-k) domain, removing from a signal region of the f-k domain both the signal and noise data thereby creating a remaining portion, and then calculating the value indicative of noise based on the remaining portion by, for each frequency of a plurality of frequencies, estimating noise energy in the signal region based on noise energy in the remaining portion and a corrective scalar based on a proportion of wavenumbers removed from the signal region, and determining the value indicative of noise across both the signal region and the remaining portion. remaining portion by, for each frequency of a plurality of frequencies, estimating noise energy in the signal region based on noise energy in the remaining portion and a corrective scalar based on a proportion of wavenumbers removed from the signal region, and determining the value indicative of noise across both the signal region and the remaining portion.
A method comprising: transmit, by a mobile station, MS, that uses carrier aggregation, a message including one or more interoperability test, IOT, indications (314, 316, 318) for a plurality of uplink-downlink configuration combinations of time-division-duplex, TDD, radio frames for use by a primary cell and a secondary cell, wherein one or more of the uplink-downlink configuration combinations includes a first uplink-downlink configuration for the primary cell to use and a second uplink-downlink configuration for the secondary cell to use, the message, characterized by comprising: a first IOT indication (314, 316, 318) that indicates whether or not a first set of uplink-downlink configuration combinations for use by the primary cell and the secondary cell for the MS have been IOT tested, wherein the first set of uplink-downlink configuration combinations is formed based on an overlap status of downlink subframes between the first uplink-downlink configuration for use by the primary cell and the second uplink-downlink configuration for use by the secondary cell. transmit, by a mobile station, MS, that uses carrier aggregation, a message including one or more interoperability test, IOT, indications (314, 316, 318) for a plurality of uplink-downlink configuration combinations of time-division-duplex, TDD, radio frames for use by a primary cell and a secondary cell, wherein one or more of the uplink-downlink configuration combinations includes a first uplink-downlink configuration for the primary cell to use and a second uplink-downlink configuration for the secondary cell to use, the message, characterized by comprising: a first IOT indication (314, 316, 318) that indicates whether or not a first set of uplink-downlink configuration combinations for use by the primary cell and the secondary cell for the MS have been IOT tested, wherein the first set of uplink-downlink configuration combinations is formed based on an overlap status of downlink subframes between the first uplink-downlink configuration for use by the primary cell and the second uplink-downlink configuration for use by the secondary cell. a first IOT indication (314, 316, 318) that indicates whether or not a first set of uplink-downlink configuration combinations for use by the primary cell and the secondary cell for the MS have been IOT tested, wherein the first set of uplink-downlink configuration combinations is formed based on an overlap status of downlink subframes between the first uplink-downlink configuration for use by the primary cell and the second uplink-downlink configuration for use by the secondary cell.
A user apparatus for a mobile communications system, the user apparatus comprising: a determination unit adapted to determine a pre-encoding matrix indicator, PMI; a transmitting unit adapted to transmit, to a base station apparatus, an uplink signal including the PMI; and a receiving unit adapted to receive a downlink control signal from the base station apparatus, wherein, for transmitting a physical uplink control channel including the PMI, the transmitting unit is adapted not to add an error check bit to the PMI, wherein, for transmitting a physical uplink shared channel that can transmit more number of bits than the number of bits that can be transmitted in the physical uplink control channel and that includes the PMI, the transmitting unit is adapted to add the error check bit to the PMI, characterized in that the downlink control signal includes first information indicating a pre-encoding matrix used by the base station in transmitting a physical downlink shared channel and second information indicating whether the pre-encoding matrix that is used in transmitting a physical downlink shared channel is a pre-encoding matrix indicated by the PMI, the downlink control signal is used for reconstruction of the downlink shared channel, the first information is used for reconstruction of the downlink shared channel when the PMI was transmitted using the physical uplink control channel, and the second information is used for reconstruction of the downlink shared channel when the PMI was transmitted using the physical uplink shared channel. a determination unit adapted to determine a pre-encoding matrix indicator, PMI; a transmitting unit adapted to transmit, to a base station apparatus, an uplink signal including the PMI; and a receiving unit adapted to receive a downlink control signal from the base station apparatus, wherein, for transmitting a physical uplink control channel including the PMI, the transmitting unit is adapted not to add an error check bit to the PMI, wherein, for transmitting a physical uplink shared channel that can transmit more number of bits than the number of bits that can be transmitted in the physical uplink control channel and that includes the PMI, the transmitting unit is adapted to add the error check bit to the PMI,
A light emitting device package comprising: a light source unit; a body comprising first and second lead frames (813, 14) electrically connected to the light source unit and having a cavity (s) formed on the first and second lead frames (13, 14); and a resin material filling the cavity (s) and comprising a main material comprising a vinyl group (-CH=CH2) and a sub-material comprising a plurality of silane groups (Si-H), wherein the vinyl groups (-CH=CH2) and the silane groups (Si-H) are cross-linked to each other by curing, wherein, the resin material comprises a catalyst promoting binding between the vinyl groups and the silane groups, characterized in that, before curing, the plurality of silane groups is contained in an amount of 0.7 to 0.9 times that of the vinyl groups, and in that, after curing, an optical density (absorbance) of a Fourier transform infrared spectroscopy (FT-IR) signal for silane groups (Si-H) not reacted with the vinyl groups (-CH=CH2) among the plurality of silane groups (Si-H) is in the range of 0.0002 to 0.004 (arb. unit) in a first wavenumber range of the FT-IR signal, and the optical density of the unreacted silane groups is in the range of 0.005 to 0.01 (arb. unit) in a second wavenumber range of the FT-IR signal different from the first wavenumber range, in that the first wavenumber range is in the range of 2100 to 2200 cm-1, and in that the second wavenumber range is in the range of 870 to 930 cm-1. a light source unit; a body comprising first and second lead frames (813, 14) electrically connected to the light source unit and having a cavity (s) formed on the first and second lead frames (13, 14); and a resin material filling the cavity (s) and comprising a main material comprising a vinyl group (-CH=CH2) and a sub-material comprising a plurality of silane groups (Si-H), wherein the vinyl groups (-CH=CH2) and the silane groups (Si-H) are cross-linked to each other by curing, wherein, the resin material comprises a catalyst promoting binding between the vinyl groups and the silane groups, characterized in that, before curing, the plurality of silane groups is contained in an amount of 0.7 to 0.9 times that of the vinyl groups, and in that, after curing, an optical density (absorbance) of a Fourier transform infrared spectroscopy (FT-IR) signal for silane groups (Si-H) not reacted with the vinyl groups (-CH=CH2) among the plurality of silane groups (Si-H) is in the range of 0.0002 to 0.004 (arb. unit) in a first wavenumber range of the FT-IR signal, and the optical density of the unreacted silane groups is in the range of 0.005 to 0.01 (arb. unit) in a second wavenumber range of the FT-IR signal different from the first wavenumber range, in that the first wavenumber range is in the range of 2100 to 2200 cm-1, and in that the second wavenumber range is in the range of 870 to 930 cm-1.
A photosensitive resin composition comprising a water-dispersible latex, a rubber other than a (meth)acrylic modified polymer, a sulfonate surfactant, a photopolymerizable monomer, and a photopolymerization initiator, wherein a polymer content of the composition other than a (meth)acrylic modified polymer consists of the components and, a ratio of the mass of the component to a total mass of the components,, and is within a range of 0.1 to 20%, a ratio of the mass of the component to a total mass of the components and is within 20 to 90%, a size of a dispersed phase consisting mainly of the component is 10 μm or smaller, and the component comprises a (meth)acrylic modified polymer.
The compound of Formula I or a pharmaceutically acceptable salt or hydrate thereof; wherein: X 1 is selected from the group consisting of: halogen, C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 alkoxy, -C -OC 1-4 alkyl and C 3-6 cycloalkoxy, wherein said C 1-6 alkyl and C 1-6 alkoxy are optionally substituted up to the maximum number of substitutable positions with fluoro; and X2 is halogen, methyl or ethyl. X 1 is selected from the group consisting of: halogen, C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 alkoxy, -C -OC 1-4 alkyl and C 3-6 cycloalkoxy, wherein said C 1-6 alkyl and C 1-6 alkoxy are optionally substituted up to the maximum number of substitutable positions with fluoro; and X2 is halogen, methyl or ethyl.
A sensor package comprising: a first die having a capacitive sensor, the capacitive sensor including an active sensing portion and a shield surrounding the active sensing portion; and a second die comprising a voltage regulator configured to produce a shield voltage and a compensation circuit configured to produce a compensation signal, the voltage regulator and the compensation circuit each being directly electrically coupled to the shield, wherein the voltage regulator is configured to regulate the shield to the shield voltage, and the compensation signal produced by the compensation circuit is configured to reduce an interference signal (132, 134) on the shield voltage. a first die having a capacitive sensor, the capacitive sensor including an active sensing portion and a shield surrounding the active sensing portion; and a second die comprising a voltage regulator configured to produce a shield voltage and a compensation circuit configured to produce a compensation signal, the voltage regulator and the compensation circuit each being directly electrically coupled to the shield, wherein the voltage regulator is configured to regulate the shield to the shield voltage, and the compensation signal produced by the compensation circuit is configured to reduce an interference signal (132, 134) on the shield voltage.
A seed-covering agent which is used for covering a seed surface and which comprises an iron powder and a binder, wherein the binder has an average particle size of 1 to 150 μm, characterized in that the mass ratio of the part of the iron powder having a particle size of 63 μm or less to a total mass of the iron powder is 0% or more and 75% or less, the mass ratio of the part of the iron powder having a particle size of more than 63 μm and 150 μm or less to the total mass of the iron powder is 50% or more and 100% or less, and the mass ratio of the part of the iron powder having a particle size of more than 150 μm to the total mass of the iron powder is 0% or more and 50% or less,.
A method for transmitting, by a user equipment, a hybrid automatic repeat request acknowledgement, HARQ-ACK, in a communication system supporting multiple component carriers, CCs, the method comprising: identifying power for transmission of the HARQ-ACK based on a transmission power control information element, TPC IE, in first downlink control information for downlink scheduling assignment corresponding to a primary CC from the multiple CCs; identifying (1040,1060) a resource for transmission of the HARQ-ACK based on a TPC IE in second downlink control information for downlink scheduling assignment corresponding to at least one remaining CC from the multiple CCs, wherein the TPC IE in the second downlink control information is used as an index to the resource for transmission of the HARQ-ACK; and transmitting the HARQ-ACK based on the resource. identifying power for transmission of the HARQ-ACK based on a transmission power control information element, TPC IE, in first downlink control information for downlink scheduling assignment corresponding to a primary CC from the multiple CCs; identifying (1040,1060) a resource for transmission of the HARQ-ACK based on a TPC IE in second downlink control information for downlink scheduling assignment corresponding to at least one remaining CC from the multiple CCs, wherein the TPC IE in the second downlink control information is used as an index to the resource for transmission of the HARQ-ACK; and transmitting the HARQ-ACK based on the resource.
Spine cage holder including: - an elongated body comprising a proximal end and a distal end, the elongated body extending from the proximal end to the distal end, - means for transferring mechanical energy centrally from the proximal end to the distal end through the elongated body, said means being at least partially enclosed by the elongated body, the means for transferring energy being configured to transfer energy centrally through the cage holder in a longitudinal direction of the cage holder, wherein the means for transferring mechanical energy centrally includes a tube extending from the proximal end to the distal end of the elongated body, the tube comprising or consisting of a first material and the elongated body comprising or consisting of a second material different to the first material, the first material having a higher material density than the second material. - an elongated body comprising a proximal end and a distal end, the elongated body extending from the proximal end to the distal end, - means for transferring mechanical energy centrally from the proximal end to the distal end through the elongated body, said means being at least partially enclosed by the elongated body, the means for transferring energy being configured to transfer energy centrally through the cage holder in a longitudinal direction of the cage holder, wherein the means for transferring mechanical energy centrally includes a tube extending from the proximal end to the distal end of the elongated body, the tube comprising or consisting of a first material and the elongated body comprising or consisting of a second material different to the first material, the first material having a higher material density than the second material.
A screen edit apparatus, comprising: a designation unit for designating a starting point and an ending point being cater-cornered points of an edit frame as a determination criteria of a desired edit area for a desired edit target on a screen by a movement of a pointer on a displayed image; a calculation unit for calculating an amount of movement of the pointer in a predetermined unit time while the designation of the cater-cornered points continues, wherein designation of the ending point starts when the pointer moves; and a display control unit for changing a display scaling of the edit target according to the amount of movement of the pointer in the predetermined unit time, and displaying the edit target on a display device. a designation unit for designating a starting point and an ending point being cater-cornered points of an edit frame as a determination criteria of a desired edit area for a desired edit target on a screen by a movement of a pointer on a displayed image; a calculation unit for calculating an amount of movement of the pointer in a predetermined unit time while the designation of the cater-cornered points continues, wherein designation of the ending point starts when the pointer moves; and a display control unit for changing a display scaling of the edit target according to the amount of movement of the pointer in the predetermined unit time, and displaying the edit target on a display device.