mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for providing haptic feedback based on media content, the computer-implemented method comprising: processing the media content into a plurality of components comprising a first component and a second component; determining a first priority value related to the first component and a second priority value related to the second component; comparing the first priority value with the second priority value; determining a difference between the first priority value and the second priority value based on the comparison; determining, in response to the comparison, a first scaled priority value related to the first component and a second scaled priority value related to the second component, wherein the higher of the two priority values is scaled up and/or the lower of the two priority values is scaled down if a difference between the first priority value and the second priority value is non-zero; generating a first control signal based on the first scaled priority value and a second control signal based on the second scaled priority value; providing the first control signal to a first haptic output device, wherein the first control signal causes the first haptic output device to output the first haptic feedback; and providing the second control signal to a second haptic output device, wherein the second control signal causes the second haptic output device to output the second haptic feedback. processing the media content into a plurality of components comprising a first component and a second component; determining a first priority value related to the first component and a second priority value related to the second component; comparing the first priority value with the second priority value; determining a difference between the first priority value and the second priority value based on the comparison; determining, in response to the comparison, a first scaled priority value related to the first component and a second scaled priority value related to the second component, wherein the higher of the two priority values is scaled up and/or the lower of the two priority values is scaled down if a difference between the first priority value and the second priority value is non-zero; generating a first control signal based on the first scaled priority value and a second control signal based on the second scaled priority value; providing the first control signal to a first haptic output device, wherein the first control signal causes the first haptic output device to output the first haptic feedback; and providing the second control signal to a second haptic output device, wherein the second control signal causes the second haptic output device to output the second haptic feedback.
An implant electrode for a cochlear implant system, comprising: an implantable electrode array made of resilient material having a center longitudinal axis and an outer surface; a plurality of electrode contacts distributed on the outer surface of the electrode array along the longitudinal axis for applying electrical stimulation signals to adjacent neural tissue; and at least one biocompatible hydrogel layer (202, 401, 501) fixed to the electrode array solely by a mechanical connection, the at least one biocompatible hydrogel layer (202, 401, 501) is adapted to swell from contact with perilymph fluid within a cochlea, the electrode array further comprising: at least one fixation groove (301, 302, 303, 402) parallel or perpendicular to the center longitudinal axis on the outer surface of the electrode array in the electrode array material adapted to fixedly connect to a portion of the hydrogel layer (202, 401, 501) for mechanically fixing the hydrogel layer (202, 401, 501) to the electrode array; or at least two openings connected together through the interior of the electrode array and filled with hydrogel material of the hydrogel layer (202, 401, 501) to mechanically connect the hydrogel layer (202, 401, 501) to the electrode array. an implantable electrode array made of resilient material having a center longitudinal axis and an outer surface; a plurality of electrode contacts distributed on the outer surface of the electrode array along the longitudinal axis for applying electrical stimulation signals to adjacent neural tissue; and at least one biocompatible hydrogel layer (202, 401, 501) fixed to the electrode array solely by a mechanical connection, the at least one biocompatible hydrogel layer (202, 401, 501) is adapted to swell from contact with perilymph fluid within a cochlea, the electrode array further comprising: at least one fixation groove (301, 302, 303, 402) parallel or perpendicular to the center longitudinal axis on the outer surface of the electrode array in the electrode array material adapted to fixedly connect to a portion of the hydrogel layer (202, 401, 501) for mechanically fixing the hydrogel layer (202, 401, 501) to the electrode array; or at least two openings connected together through the interior of the electrode array and filled with hydrogel material of the hydrogel layer (202, 401, 501) to mechanically connect the hydrogel layer (202, 401, 501) to the electrode array. at least one fixation groove (301, 302, 303, 402) parallel or perpendicular to the center longitudinal axis on the outer surface of the electrode array in the electrode array material adapted to fixedly connect to a portion of the hydrogel layer (202, 401, 501) for mechanically fixing the hydrogel layer (202, 401, 501) to the electrode array; or at least two openings connected together through the interior of the electrode array and filled with hydrogel material of the hydrogel layer (202, 401, 501) to mechanically connect the hydrogel layer (202, 401, 501) to the electrode array.
Filtering device for fluids, in particular for the fuel of an internal combustion engine, with a filter element disposed in a pot-shaped filter housing and featuring a central tube supporting the filter element, and with a heating apparatus disposed in the flow path of the fluid which is disposed on the interior side of a cover closing the filter housing, and with a water-separating device and with a water receiving chamber disposed between the pot bottom and the axial underside of the filter element, characterized in that the heating apparatus comprises a heating element held by a radiator support which is disposed on the interior side of the cover, wherein a water outlet connection, which is led to the outside through a recess in the cover, is realized in one piece with the radiator support, wherein the water outlet connection communicates with a drainage channel in the filter housing which ends in the water receiving chamber and which is connected to the radiator support, wherein at least an electric contact pin is connected to the radiator support and led through a recess in the cover, wherein the contact pin is connected to a water level sensor, wherein the water level sensor is disposed in or at the drainage channel, wherein a fluid inlet connection and a fluid outlet connection are connected to the radiator support and led through recesses in the cover, wherein the filtering device forms an inseparable unit of filter bowl, filter cover with filter element, radiator support, heating apparatus, contact pins, water level sensor, water outlet connection, drainage channel, fluid inlet connection and fluid outlet connection.
A mobile phone, comprising: a display panel, comprising a display area, the display area comprising a display surface and a back surface opposite to the display surface, the display panel defining a slot extending through the display surface and the back surface, the slot being located in the display area, the display area comprising a plurality of image pixels; a touch panel, coupled to the display panel; wherein the slot includes a hole located spaced from each edge of the display panel, the hole is configured for exposure of at least four components of the mobile phone, characterized in that the at least four components include at least two cameras, a receiver, a light sensor, the at least two cameras are received in the hole and configured to obtain images from objects outside the electronic device, each of the at least two cameras comprises a lens holder and a lens barrel coupled to the lens holder, the light sensor is located on the top surfaces of the lens holders of two cameras and the receiver is located on a plane of the top surfaces of the lens holders of the two cameras. a display panel, comprising a display area, the display area comprising a display surface and a back surface opposite to the display surface, the display panel defining a slot extending through the display surface and the back surface, the slot being located in the display area, the display area comprising a plurality of image pixels; a touch panel, coupled to the display panel; wherein the slot includes a hole located spaced from each edge of the display panel, the hole is configured for exposure of at least four components of the mobile phone, characterized in that the at least four components include at least two cameras, a receiver, a light sensor, the at least two cameras are received in the hole and configured to obtain images from objects outside the electronic device, each of the at least two cameras comprises a lens holder and a lens barrel coupled to the lens holder, the light sensor is located on the top surfaces of the lens holders of two cameras and the receiver is located on a plane of the top surfaces of the lens holders of the two cameras.
A method for policy and charging control in a wireless communication system, the method comprising: transmitting, to at least one mobile entity, configuration data comprising device-to-device data; the method being further characterized by comprising: receiving, from the at least one mobile entity, an accounting report associated with device-to-device communication; transmitting, to a charging function entity, a charging report based on the accounting report received from the at least one mobile entity; and performing, at a policy control function entity, a policy control and enforcement based at least on the accounting report received from the at least one mobile entity. transmitting, to at least one mobile entity, configuration data comprising device-to-device data; the method being further characterized by comprising: receiving, from the at least one mobile entity, an accounting report associated with device-to-device communication; transmitting, to a charging function entity, a charging report based on the accounting report received from the at least one mobile entity; and performing, at a policy control function entity, a policy control and enforcement based at least on the accounting report received from the at least one mobile entity. receiving, from the at least one mobile entity, an accounting report associated with device-to-device communication; transmitting, to a charging function entity, a charging report based on the accounting report received from the at least one mobile entity; and performing, at a policy control function entity, a policy control and enforcement based at least on the accounting report received from the at least one mobile entity.
A method for a user equipment, UE, to operate in a wireless communication system employing a massive MIMO, Multiple Input Multiple Output, scheme, the method comprising: receiving information on a sequence to be used for an uplink reference signal from a base station, wherein the information is determined to assign orthogonal sequences to UEs within a UE group considering at least one or more of a number of orthogonal sequences, a number of the UEs within the UE group, amount of information to be transmitted, channel condition between the base station and each UE, and a number of sequences assigned to each UE of the UEs; and transmitting the uplink reference signal to the base station using the sequence identified by the information, wherein, when a number of sequences assigned to a specific UE of the UE group is increased for a certain period of time, a number of sequences assigned to other UEs of the UE group is decreased for the certain period of time for maintaining a total number of sequences assigned to the UE group. receiving information on a sequence to be used for an uplink reference signal from a base station, wherein the information is determined to assign orthogonal sequences to UEs within a UE group considering at least one or more of a number of orthogonal sequences, a number of the UEs within the UE group, amount of information to be transmitted, channel condition between the base station and each UE, and a number of sequences assigned to each UE of the UEs; and transmitting the uplink reference signal to the base station using the sequence identified by the information, wherein, when a number of sequences assigned to a specific UE of the UE group is increased for a certain period of time, a number of sequences assigned to other UEs of the UE group is decreased for the certain period of time for maintaining a total number of sequences assigned to the UE group.
An AngF1-Fc-F1 angiopoietin protein for use in a method of stimulating blood coagulation, comprising administering to a subject in need thereof a pharmaceutical composition comprising a therapeutically effective amount of the angiopoietin protein and a pharmaceutically acceptable carrier.
An image heating apparatus comprising: a heating rotatable member configured to heat a toner image on a sheet; and a belt unit including an endless belt configured to heat said heating rotatable member by contacting an outer surface of said heating rotatable member, and first and second supporting rollers (103, 104) configured to rotatably support an inner surface of said endless belt; characterized by a detector (128, 129, 133, 134) configured to detect that said endless belt is out of a predetermined zone in a widthwise direction of said endless belt; and a tilting mechanism (51, 54) configured to tilt said belt unit in a direction of causing said endless belt to return into the predetermined zone based on an output of said detector (128, 129, 133, 134), the tilting mechanism is capable of integrally moving the first and second supporting rollers and the endless belt. a heating rotatable member configured to heat a toner image on a sheet; and a belt unit including an endless belt configured to heat said heating rotatable member by contacting an outer surface of said heating rotatable member, and first and second supporting rollers (103, 104) configured to rotatably support an inner surface of said endless belt; characterized by a detector (128, 129, 133, 134) configured to detect that said endless belt is out of a predetermined zone in a widthwise direction of said endless belt; and a tilting mechanism (51, 54) configured to tilt said belt unit in a direction of causing said endless belt to return into the predetermined zone based on an output of said detector (128, 129, 133, 134), the tilting mechanism is capable of integrally moving the first and second supporting rollers and the endless belt.
An imaging system comprising: an imaging device consisting of one camera unit comprising a lens part; wherein the camera unit is configured to image an imaging subject on an imaging optical axis; a servomotor configured to move the lens part on the imaging optical axis in order to adjust a focal position of the lens part to the position of the imaging subject; an imaging control part configured to control the servomotor; and a calculation unit configured to acquire data relating to a position in direction of the imaging optical axis and a size of the imaging subject based on image information acquired by the imaging device through the imaging, wherein the calculation unit is configured to acquire change information (α) relating to a focal position change, the change being caused by interposition of a light transmitting member (1,18,81,L) when the light transmitting member is interposed on the imaging optical axis during the imaging, and the calculation unit is configured to correct the data based on the change information (α), and wherein the imaging control part is configured to control the servomotor so as to move the lens part to a predetermined position on the optical axis to adjust the focal position of the lens part corresponding to the correction based on the change information (α) before the acquisition of the position and the size of the imaging subject. an imaging device consisting of one camera unit comprising a lens part; wherein the camera unit is configured to image an imaging subject on an imaging optical axis; a servomotor configured to move the lens part on the imaging optical axis in order to adjust a focal position of the lens part to the position of the imaging subject; an imaging control part configured to control the servomotor; and a calculation unit configured to acquire data relating to a position in direction of the imaging optical axis and a size of the imaging subject based on image information acquired by the imaging device through the imaging, wherein the calculation unit is configured to acquire change information (α) relating to a focal position change, the change being caused by interposition of a light transmitting member (1,18,81,L) when the light transmitting member is interposed on the imaging optical axis during the imaging, and the calculation unit is configured to correct the data based on the change information (α), and wherein the imaging control part is configured to control the servomotor so as to move the lens part to a predetermined position on the optical axis to adjust the focal position of the lens part corresponding to the correction based on the change information (α) before the acquisition of the position and the size of the imaging subject.
A shelf stable, ready to use peroxycarboxylic acid composition comprising: 0.0001 to 0.2 wt-% peroxycarboxylic acid; 1 to 5 wt-% hydrogen peroxide; and 0.01 to 5 wt-% carboxylic acid; wherein: the composition is free of added mineral acid; the pH of the composition is 1 to 4; the ratio of hydrogen peroxide to peroxycarboxylic acid is 30:1 to 60:1; and the ratio of hydrogen peroxide to protonated carboxylic acid is 1:1 to 2:1, the composition comprising: 0.005 to 0.2 wt-% short chain peroxycarboxylic acid having the formula R(CO 3 H) n wherein R is H or a C 1 -C 3 alkyl group and n is 1, 2, or 3,; 0.5 to 5 wt-% short chain carboxylic acid containing 2 to 4 carbon atoms; 0.0001 to 0.004 wt-% medium chain peroxycarboxylic acid having the formula R(CO 3 H) n wherein R is a C 5 -C 11 alkyl group, C 5 -C 11 cycloalkyl group, C 5 -C 11 arylalkyl group, C 5 - C 11 aryl group, or C 5 -C 11 heterocyclic group, and n is 1, 2, or 3; 0.01 to 0.3 wt-% medium chain carboxylic acid containing 6 to 12 carbon atoms; and 0.01 to 0.25 wt-% triazole corrosion inhibitor.
An electromagnetic-wave absorbing sheet formed by stacking an electric resistance film, a dielectric layer, and an electromagnetic-wave shielding layer, the electric resistance film being formed using a conductive organic polymer, and having a surface electric resistance of 303 Ω/sq or more and 350 Ω/sq or less, or 415 Ω/sq or more and 502 Ω/sq or less, and characterised in that the dielectric layer is formed using silicone OCA.
A run-flat tire, comprising: a pair of bead portions in which a bead core is embedded; a carcass that spans a region between the pair of bead portions and that has an end portion side anchored to the bead core; bead filler that extends from the bead core toward a tire radial direction outer side so as to run along an outer face of the carcass; and side reinforcing rubber that is provided at tire side portions connected to the bead portions, that extends in the tire radial direction along an inner face of the carcass, that has an end portion at a side of the bead core overlapping the bead filler with the carcass therebetween, characterised in that: the side reinforcing rubber has elongation at break of 130% or greater, the bead portions have a bead heel diameter that is from 0.42% to 0.72% smaller than a rim diameter of a standard rim, and as viewed in a tire width direction cross-section, a straight line linking a bead toe point for measuring a bead toe diameter of the bead portions, and a bead heel point for measuring the bead heel diameter of the bead portions, is inclined within a range of from 12.2° to 14.7° with respect to a tire width direction. a pair of bead portions in which a bead core is embedded; a carcass that spans a region between the pair of bead portions and that has an end portion side anchored to the bead core; bead filler that extends from the bead core toward a tire radial direction outer side so as to run along an outer face of the carcass; and side reinforcing rubber that is provided at tire side portions connected to the bead portions, that extends in the tire radial direction along an inner face of the carcass, that has an end portion at a side of the bead core overlapping the bead filler with the carcass therebetween, characterised in that: the side reinforcing rubber has elongation at break of 130% or greater, the bead portions have a bead heel diameter that is from 0.42% to 0.72% smaller than a rim diameter of a standard rim, and as viewed in a tire width direction cross-section, a straight line linking a bead toe point for measuring a bead toe diameter of the bead portions, and a bead heel point for measuring the bead heel diameter of the bead portions, is inclined within a range of from 12.2° to 14.7° with respect to a tire width direction. the side reinforcing rubber has elongation at break of 130% or greater, the bead portions have a bead heel diameter that is from 0.42% to 0.72% smaller than a rim diameter of a standard rim, and as viewed in a tire width direction cross-section, a straight line linking a bead toe point for measuring a bead toe diameter of the bead portions, and a bead heel point for measuring the bead heel diameter of the bead portions, is inclined within a range of from 12.2° to 14.7° with respect to a tire width direction.
A method for detecting a fault in a robot joint, the method comprising the steps of: - performing a first torque measurement at the robot joint to thereby obtain a first set of torque values reflecting torque magnitudes in time domain; - calculating a first distribution characteristic reflecting a distribution of the first set of torque values; - performing a second torque measurement at the robot joint to thereby obtain a second set of torque values reflecting torque magnitudes in time domain; and - calculating a second distribution characteristic reflecting a distribution of the second set of torque values, wherein the first distribution characteristic comprises a first distribution function, the second distribution characteristic comprises a second distribution function, the first and second distribution functions are kernel density estimators, and the method further comprises the step of: - calculating, using a distance measure such as Kullback-Leibler distance, a difference between the first and the second distribution functions to thereby obtain a first difference to determine whether a fault is present or not. - performing a first torque measurement at the robot joint to thereby obtain a first set of torque values reflecting torque magnitudes in time domain; - calculating a first distribution characteristic reflecting a distribution of the first set of torque values; - performing a second torque measurement at the robot joint to thereby obtain a second set of torque values reflecting torque magnitudes in time domain; and - calculating a second distribution characteristic reflecting a distribution of the second set of torque values, - calculating, using a distance measure such as Kullback-Leibler distance, a difference between the first and the second distribution functions to thereby obtain a first difference to determine whether a fault is present or not.