mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked, a module frame that surrounds the battery cell stack, a bus bar frame that covers the portion of the battery cell stack exposed from the module frame, and a bus bar mounted on the bus bar frame and connected to an electrode lead (111, 112) protruding from the battery cell stack, characterized in that: a cooling flow path is formed in the bus bar, the bus bar is formed with a slot through which the electrode lead (111, 112) passes, and the cooling flow path comprises a first flow path and a third flow path formed perpendicular to a direction in which the slot is formed, and a second flow path formed in parallel to a direction in which the slot is formed. a battery cell stack in which a plurality of battery cells are stacked, a module frame that surrounds the battery cell stack, a bus bar frame that covers the portion of the battery cell stack exposed from the module frame, and a bus bar mounted on the bus bar frame and connected to an electrode lead (111, 112) protruding from the battery cell stack, characterized in that: a cooling flow path is formed in the bus bar, the bus bar is formed with a slot through which the electrode lead (111, 112) passes, and the cooling flow path comprises a first flow path and a third flow path formed perpendicular to a direction in which the slot is formed, and a second flow path formed in parallel to a direction in which the slot is formed. a cooling flow path is formed in the bus bar, the bus bar is formed with a slot through which the electrode lead (111, 112) passes, and the cooling flow path comprises a first flow path and a third flow path formed perpendicular to a direction in which the slot is formed, and a second flow path formed in parallel to a direction in which the slot is formed.
A method performed by a control apparatus (120,160,702,800) for controlling devices (122A-122N, 162A-162M) connected to the control apparatus, (120,160,702,800) wherein the control apparatus (120,160,702,800) is configured to communicate with a server (130,701) and with the devices, (122A-122N, 162A-162M), the method comprising the steps of: receiving,, from a server, (130,702) a service rule in a general form comprising a trigger condition information and comprising an executing action information about an action to be performed by one of the devices according to whether the trigger condition is satisfied and further comprising at least one of a device type (311,321) indicating a type of a device to which the service rule is to be applied and a device location (312,322) indicating a location of a device to which the service rule is to be applied; selecting one of the devices (122A-122N, 162A-162M) connected to the control apparatus and from among devices having the type corresponding to the device type and devices installed at the location corresponding to the device location based on the received service rule; modifying the received service rule to control the selected device based on a technical specification of hardware and software of the selected device, wherein the modifying comprises: changing the executing action information into a control command for controlling the selected device; and controlling the selected device by transmitting the control command to the selected device. receiving,, from a server, (130,702) a service rule in a general form comprising a trigger condition information and comprising an executing action information about an action to be performed by one of the devices according to whether the trigger condition is satisfied and further comprising at least one of a device type (311,321) indicating a type of a device to which the service rule is to be applied and a device location (312,322) indicating a location of a device to which the service rule is to be applied; selecting one of the devices (122A-122N, 162A-162M) connected to the control apparatus and from among devices having the type corresponding to the device type and devices installed at the location corresponding to the device location based on the received service rule; modifying the received service rule to control the selected device based on a technical specification of hardware and software of the selected device, wherein the modifying comprises: changing the executing action information into a control command for controlling the selected device; and controlling the selected device by transmitting the control command to the selected device.
A method comprising: obtaining, by at least one processor, a representation of a target ear canal of a user, wherein the representation of the target ear canal is defined in part by an axis protruding from an ear drum located at one end of the target ear canal to an opposite end of the target ear canal; and generating, using a machine-learned model (102, 202) that has been trained based at least in part on representations of previously fabricated ear-wearable devices, a representation of an ear-wearable device for the target ear canal, wherein generating the representation of the portion of the ear-wearable device comprises applying, by the machine-learned model (102, 202), a respective weighting to different positions (344A-344E) along the axis, characterised in that: the respective weighting of each of the different positions (344A-344E) is a function of an amount of curvature of the target ear canal at that position (344A-344E); and portions of the representation of the ear-wearable device associated with positions (344A-344E) along the axis with greater respective weightings more closely conform to the representation of the target ear canal than other portions of the representation of the ear-wearable device associated with positions (344A-344E) along the axis with lower respective weightings. obtaining, by at least one processor, a representation of a target ear canal of a user, wherein the representation of the target ear canal is defined in part by an axis protruding from an ear drum located at one end of the target ear canal to an opposite end of the target ear canal; and generating, using a machine-learned model (102, 202) that has been trained based at least in part on representations of previously fabricated ear-wearable devices, a representation of an ear-wearable device for the target ear canal, wherein generating the representation of the portion of the ear-wearable device comprises applying, by the machine-learned model (102, 202), a respective weighting to different positions (344A-344E) along the axis, characterised in that: the respective weighting of each of the different positions (344A-344E) is a function of an amount of curvature of the target ear canal at that position (344A-344E); and portions of the representation of the ear-wearable device associated with positions (344A-344E) along the axis with greater respective weightings more closely conform to the representation of the target ear canal than other portions of the representation of the ear-wearable device associated with positions (344A-344E) along the axis with lower respective weightings. the respective weighting of each of the different positions (344A-344E) is a function of an amount of curvature of the target ear canal at that position (344A-344E); and portions of the representation of the ear-wearable device associated with positions (344A-344E) along the axis with greater respective weightings more closely conform to the representation of the target ear canal than other portions of the representation of the ear-wearable device associated with positions (344A-344E) along the axis with lower respective weightings.
A photosensitive printing blank having improved exposure latitude, the photosensitive printing blank comprising: a) a support; b) at least one photocurable layer disposed on the support wherein the at least one photocurable layer is capable of being selectively crosslinked and cured upon exposure to actinic radiation at a desired wavelength, wherein the desired wavelength of the actinic radiation used for imagewise exposing the at least one photocurable layer to actinic radiation is 395 nm, the at least one photocurable layer comprising: 1) at least one elastomeric binder; 2) at least one ethylenically unsaturated monomer; 3) a photoinitiator having a favorable absorption profile in the desired wavelength region used for exposing the at least one photocurable layer to actinic radiation; 4) a dye, wherein the dye exhibits the characteristic of measuring less than 50 percent transmittance, at the peak wavelength of the actinic radiation used to cure the photocurable layer, when measured in a U. V. spectrometer at a concentration of 2 x 10 -5 gr/ml, wherein the dye is present in the photocurable layer at a concentration of between 0.01 and 0.05 percent by weight; c) optionally, a laser ablatable mask layer disposed upon the at least one photocurable layer. a) a support; b) at least one photocurable layer disposed on the support wherein the at least one photocurable layer is capable of being selectively crosslinked and cured upon exposure to actinic radiation at a desired wavelength, wherein the desired wavelength of the actinic radiation used for imagewise exposing the at least one photocurable layer to actinic radiation is 395 nm, the at least one photocurable layer comprising: 1) at least one elastomeric binder; 2) at least one ethylenically unsaturated monomer; 3) a photoinitiator having a favorable absorption profile in the desired wavelength region used for exposing the at least one photocurable layer to actinic radiation; 4) a dye, wherein the dye exhibits the characteristic of measuring less than 50 percent transmittance, at the peak wavelength of the actinic radiation used to cure the photocurable layer, when measured in a U. V. spectrometer at a concentration of 2 x 10 -5 gr/ml, wherein the dye is present in the photocurable layer at a concentration of between 0.01 and 0.05 percent by weight; 1) at least one elastomeric binder; 2) at least one ethylenically unsaturated monomer; 3) a photoinitiator having a favorable absorption profile in the desired wavelength region used for exposing the at least one photocurable layer to actinic radiation; 4) a dye, wherein the dye exhibits the characteristic of measuring less than 50 percent transmittance, at the peak wavelength of the actinic radiation used to cure the photocurable layer, when measured in a U. V. spectrometer at a concentration of 2 x 10 -5 gr/ml, wherein the dye is present in the photocurable layer at a concentration of between 0.01 and 0.05 percent by weight; c) optionally, a laser ablatable mask layer disposed upon the at least one photocurable layer.
A method, comprising: sending, from a first device to a second device a subscription message requesting a notification subscription regarding characteristic information about at least one communication path of a plurality of communication paths (125, 127) between the second device and a third device, wherein the first device, the second device, and the third device are coupled in a communication network having more than one access technology via the plurality of communication paths to the third device; and receiving, at the first device, a notification message from the second device regarding the characteristic information of the at least one communication path between the second device and the third device. sending, from a first device to a second device a subscription message requesting a notification subscription regarding characteristic information about at least one communication path of a plurality of communication paths (125, 127) between the second device and a third device, wherein the first device, the second device, and the third device are coupled in a communication network having more than one access technology via the plurality of communication paths to the third device; and receiving, at the first device, a notification message from the second device regarding the characteristic information of the at least one communication path between the second device and the third device.
A memory controller comprising: a nonvolatile memory; a boot memory controller configured to be coupled to the non-volatile memory, the boot memory controller configured to cause a boot program code to be read from the nonvolatile memory for execution; a first host processor interface, configured to be coupled to a first host processor; the first host processor interface including a first reset signal configured to be coupled to the first host processor, wherein the memory controller is configured to release the first host processor from a reset state after the boot program code is read from the nonvolatile memory by the boot memory controller so that the first host processor can execute the boot program code; and a second host processor interface, configured to be coupled to a second host processor, the second host processor interface including a second reset signal configured to be coupled to the second host processor, wherein the second reset signal is configured to be controlled at least in part by the first host processor and wherein the second reset signal has power-on default value that places the second host processor in reset. a nonvolatile memory; a boot memory controller configured to be coupled to the non-volatile memory, the boot memory controller configured to cause a boot program code to be read from the nonvolatile memory for execution; a first host processor interface, configured to be coupled to a first host processor; the first host processor interface including a first reset signal configured to be coupled to the first host processor, wherein the memory controller is configured to release the first host processor from a reset state after the boot program code is read from the nonvolatile memory by the boot memory controller so that the first host processor can execute the boot program code; and a second host processor interface, configured to be coupled to a second host processor, the second host processor interface including a second reset signal configured to be coupled to the second host processor, wherein the second reset signal is configured to be controlled at least in part by the first host processor and wherein the second reset signal has power-on default value that places the second host processor in reset.
A vehicle seat adjustment control system in combination with a vehicle seat, comprising: a graphical user interface configured to control multiple vehicle functions of vehicle operation, wherein said GUI is comprised of a touch screen, and wherein said GUI uses multiple menu and control screens to control said multiple vehicle functions; and a vehicle seat control switch separate from said GUI, wherein said vehicle seat control switch is not proximate to said GUI, and wherein said vehicle seat control switch is intuitively linked to said vehicle seat, and charactered in that toggling said vehicle seat control switch activates said GUI and causes said GUI to bypass a plurality of menu and control screens and display a vehicle seat adjustment screen (501; 601) and in that said vehicle seat adjustment screen (501; 601) includes a plurality of touch-sensitive regions corresponding to and controlling a plurality of adjustable regions (503-521; 603-606) of the vehicle seat. a graphical user interface configured to control multiple vehicle functions of vehicle operation, wherein said GUI is comprised of a touch screen, and wherein said GUI uses multiple menu and control screens to control said multiple vehicle functions; and a vehicle seat control switch separate from said GUI, wherein said vehicle seat control switch is not proximate to said GUI, and wherein said vehicle seat control switch is intuitively linked to said vehicle seat, and charactered in that toggling said vehicle seat control switch activates said GUI and causes said GUI to bypass a plurality of menu and control screens and display a vehicle seat adjustment screen (501; 601) and in that said vehicle seat adjustment screen (501; 601) includes a plurality of touch-sensitive regions corresponding to and controlling a plurality of adjustable regions (503-521; 603-606) of the vehicle seat.
A two-component coating composition comprising at least one water-dispersible polymer mixture which has at least one mercapto-reactive group selected from the group of epoxide and Michael acceptor, and also at least one water-emulsifiable thiol comprising, as formation components, (Ba) at least one compound having at least two mercapto groups, (Bb) at least one compound having at least one mercapto-reactive group and at least one dispersing group, wherein the formation component (Ba) has a Hansch parameter of at least 2.0. at least one water-dispersible polymer mixture which has at least one mercapto-reactive group selected from the group of epoxide and Michael acceptor, and also at least one water-emulsifiable thiol comprising, as formation components, (Ba) at least one compound having at least two mercapto groups, (Bb) at least one compound having at least one mercapto-reactive group and at least one dispersing group, wherein the formation component (Ba) has a Hansch parameter of at least 2.0.
A method of identifying a mammalian subject having or at risk of developing multiple sclerosis, comprising measuring, in a biological sample obtained from said subject, the expression level of two or more genes selected from the group TIMP1, LRG1, CXCL1, CXCL5, CXCL10, IL-8, NFκBIZ, YKL40, and G-CSF; wherein an increased level of expression relative to a control indicates that the subject has or is at risk of developing multiple sclerosis, and wherein the expression level of LRG1 and at least one or more genes selected from the group TIMP1, CXCL1, CXCL5, CXCL10, IL-8, NFκBIZ, YKL40, and G-CSF are measured. measuring, in a biological sample obtained from said subject, the expression level of two or more genes selected from the group TIMP1, LRG1, CXCL1, CXCL5, CXCL10, IL-8, NFκBIZ, YKL40, and G-CSF; wherein an increased level of expression relative to a control indicates that the subject has or is at risk of developing multiple sclerosis, and
Method for transmitting discrete electrical signals from at least one transmitter to a receiver connected to a two-wire communication line with a voltage supply source, where the reading signal is determined as a logic zero and one by the level of signal in the communication line, relative to preset thresholds, where the receiver is provided with a current sensor installed in the communication line between the communication line voltage supply source and the transmitter nearest thereto, the signal transmission being exercised by the transmitter changing the current in the two-wire communication line owing to its output resistance being changed and the two sensors measuring the value of the current, wherein each of the transmitters is provided with its internal secondary power supply charged from the communication line, characterized in that the voltage of the communication line power supply is decreased prior to signal transmission and restored upon completion of signal transmission.
A method for producing an indigestible saccharide, comprising a step of allowing maltotriosyl transferase to act on a saccharide, wherein the saccharide is dextrin.
Base station controller for controlling the radio frequency emission of at least one antenna of a base station of a wireless communication system, comprising an obtaining unit configured to obtain a current emission value of the radio frequency emission of the at least one antenna, and a control unit configured to control the radio frequency emission of the at least one antenna on the basis of the obtained current emission value; wherein the obtaining unit comprises a calculating unit configured to calculate radio frequency output power values on the basis of an emission value model for each of the at least one antennas and for each active frequency band used for each of the at least one antennas; and calculate the current emission value of the at least one antenna on the basis of the calculated radio frequency output power values; wherein the calculating unit is further configured to convert the calculated radio frequency output power values into electric field strength values using antenna specific gain values for each frequency band. calculate radio frequency output power values on the basis of an emission value model for each of the at least one antennas and for each active frequency band used for each of the at least one antennas; and calculate the current emission value of the at least one antenna on the basis of the calculated radio frequency output power values; wherein the calculating unit is further configured to convert the calculated radio frequency output power values into electric field strength values using antenna specific gain values for each frequency band.
An illumination apparatus comprising: a light source unit configured to emit laser light of a single color, the light source unit comprising at least one laser diode (11a, 12a); a diffuser plate configured to disperse laser light emitted from the light source unit; a fly-eye lens array configured to transmit light dispersed by the diffuser plate; and a fluorescent unit configured to emit white light; characterized in that light transmitted through the fly-eye lens array is incident on the fluorescent unit. a light source unit configured to emit laser light of a single color, the light source unit comprising at least one laser diode (11a, 12a); a diffuser plate configured to disperse laser light emitted from the light source unit; a fly-eye lens array configured to transmit light dispersed by the diffuser plate; and a fluorescent unit configured to emit white light; characterized in that light transmitted through the fly-eye lens array is incident on the fluorescent unit.
A thermoplastic resin composition for automobiles, the composition comprising: a semi -aromatic polyamide resin; a first chelate agent that includes an amino radical and at least one of a carboxylic acid and salt thereof; a second chelate agent that includes an aliphatic multivalent carboxylic acid of having a C1 to C10 carbon chain, wherein the second chelate agent is one or more selected from a group consisting of fumaric acid, succinic acid, 3,3-diethylsuccinic acid, malonic acid, dimethylmalonic acid, tartaric acid, maleic acid, citric acid, malic acid, adipic acid, 2-methyladipic acid, tri-methyladipic acid, itaconic acid, glutaric acid, 2,2-dimethylglutaric acid, pimelic acid, azelaic acid, dimer acid, sebacic acid, suberic acid, decanedicarboxylic acid, dodecanedicarboxylic acid, citraconic acid, tetrahydrophthalic acid, 1,2,3,4-butanetetracarboxylic acid and oxalic acid, and in addition, not including a carbon of a carboxylic radical, having 2 to 4 carboxylic radicals; and a filler. a semi -aromatic polyamide resin; a first chelate agent that includes an amino radical and at least one of a carboxylic acid and salt thereof; a second chelate agent that includes an aliphatic multivalent carboxylic acid of having a C1 to C10 carbon chain, wherein the second chelate agent is one or more selected from a group consisting of fumaric acid, succinic acid, 3,3-diethylsuccinic acid, malonic acid, dimethylmalonic acid, tartaric acid, maleic acid, citric acid, malic acid, adipic acid, 2-methyladipic acid, tri-methyladipic acid, itaconic acid, glutaric acid, 2,2-dimethylglutaric acid, pimelic acid, azelaic acid, dimer acid, sebacic acid, suberic acid, decanedicarboxylic acid, dodecanedicarboxylic acid, citraconic acid, tetrahydrophthalic acid, 1,2,3,4-butanetetracarboxylic acid and oxalic acid, and in addition, not including a carbon of a carboxylic radical, having 2 to 4 carboxylic radicals; and a filler.