mhurhangee/ep-ind-claims huggingface dataset:
A security system, comprising: a fixture comprising an electromechanical lock; and a remote tracking device for tracking a valuable in wireless communication with the electromechanical lock, which includes a lock transceiver operable to wirelessly communicate with the remote tracking device in response to a disturbance of the remote tracking device; wherein the wirelessly communication includes usage of a Bluetooth Low energy wireless protocol; wherein the remote tracking device is operable to determine a relative position with respect to the fixture and communicate the position to the fixture; and wherein the disturbance includes movement and/or light. a fixture comprising an electromechanical lock; and a remote tracking device for tracking a valuable in wireless communication with the electromechanical lock, which includes a lock transceiver operable to wirelessly communicate with the remote tracking device in response to a disturbance of the remote tracking device; wherein the wirelessly communication includes usage of a Bluetooth Low energy wireless protocol; wherein the remote tracking device is operable to determine a relative position with respect to the fixture and communicate the position to the fixture; and wherein the disturbance includes movement and/or light.
An organic light emitting diode, OLED, panel sub-pixel, comprising: a substrate; an OLED on the substrate, the OLED configured to emit visible light; and a driver, either on the OLED or between the substrate and the OLED, including a visible light sensor configured to detect the visible light emitted by the OLED, an OLED driving transistor configured to drive the OLED, and an OLED switching transistor; characterized in that the visible light sensor, the OLED driving transistor, and the OLED switching transistor are all on the same plane and all overlap the OLED in a direction that is substantially perpendicular to an upper surface of the substrate; and by a black shield (215, 225) configured to block the visible light (320, 330) emitted by the OLED, between the OLED switching transistor and the OLED and between the OLED driving transistor and the OLED. a substrate; an OLED on the substrate, the OLED configured to emit visible light; and a driver, either on the OLED or between the substrate and the OLED, including a visible light sensor configured to detect the visible light emitted by the OLED, an OLED driving transistor configured to drive the OLED, and an OLED switching transistor; characterized in that the visible light sensor, the OLED driving transistor, and the OLED switching transistor are all on the same plane and all overlap the OLED in a direction that is substantially perpendicular to an upper surface of the substrate; and by a black shield (215, 225) configured to block the visible light (320, 330) emitted by the OLED, between the OLED switching transistor and the OLED and between the OLED driving transistor and the OLED.
An inkjet ink set for corrugated cardboard, the inkjet ink set comprising inks of five colors with different color tones, including a cyan ink, a magenta ink, a yellow ink, a black ink, and an α ink, and the content of water is 50% by mass or more with respect to the total mass of the ink, wherein in a case in which images having a halftone dot area ratio of 100% are formed on a corrugated cardboard base material using the five color inks each separately, the hue angle h, the chroma saturation C*, and the lightness L* of the formed images in the CIE 1976 L*a*b* color space satisfy the relations of the following Formula 1 to the following Formula 3: h M < h α < h Y C ∗ M < C ∗ α < C ∗ Y L ∗ M < L ∗ α in Formula 1, h M represents the hue angle h of an image formed by the magenta ink; h α represents the hue angle h of an image formed by the α ink; and h Y represents the hue angle h of an image formed by the yellow ink, in Formula 2, C* M represents the chroma saturation C* of an image formed by the magenta ink; C* α represents the chroma saturation C* of an image formed by the α ink; and C* Y represents the chroma saturation C* of an image formed by the yellow ink, and in Formula 3, L* M represents the lightness L* of an image formed by the magenta ink; and L* α represents the lightness L* of an image formed by the α ink. in Formula 1, h M represents the hue angle h of an image formed by the magenta ink; h α represents the hue angle h of an image formed by the α ink; and h Y represents the hue angle h of an image formed by the yellow ink, in Formula 2, C* M represents the chroma saturation C* of an image formed by the magenta ink; C* α represents the chroma saturation C* of an image formed by the α ink; and C* Y represents the chroma saturation C* of an image formed by the yellow ink, and in Formula 3, L* M represents the lightness L* of an image formed by the magenta ink; and L* α represents the lightness L* of an image formed by the α ink.
A release apparatus for releasing a satellite, said release apparatus comprising a release plunger which can be preloaded by a release spring and which is held in a preloaded position by two two-armed pivot levers (20, 22) pivotable about a respective pivot axis (S1, S2), wherein each pivot lever (20, 22) can be held against the force of a spring (28, 30) in a holding position by a release element (16, 18), wherein the pivot levers (20, 22) contact a locking rocker, which is fastened to the release plunger, in the holding position, characterized in that the release plunger is guided by a fixed roller which absorbs the force of a spring-loaded latch.
A test device for detecting an analyte in a liquid sample, which device comprises a plurality of reagent dots on a matrix, wherein at least two of said reagent dots do not overlap and are sufficiently spaced apart from each other so that when said liquid sample flows laterally along said matrix, flow of said liquid sample to, through and/or around one of said two reagent dots does not substantially affect flow of said liquid sample to, through and/or around said other reagent dot, and after a liquid sample containing an analyte at or above detection level flows laterally along said test device and passes said plurality of reagent dots, said plurality of reagent dots: a) form separate two-dimensional signal features A, B and C, wherein one of said features A and B is discernible, said signal feature C obscures the other of said features A and B to form an obscured feature D, and said discernible feature from features A and B or a combination of said discernible feature from features A and B and said obscured feature D, viewed from a direction substantially parallel or opposite to the liquid sample flow direction, indicates that a test is properly conducted; and b) form at least one additional two-dimensional signal feature E, and a combination of said discernible feature from features A and B and said feature E, viewed from a direction substantially perpendicular to the liquid sample flow direction, indicates that said sample contains said analyte at or above detection level. a) form separate two-dimensional signal features A, B and C, wherein one of said features A and B is discernible, said signal feature C obscures the other of said features A and B to form an obscured feature D, and said discernible feature from features A and B or a combination of said discernible feature from features A and B and said obscured feature D, viewed from a direction substantially parallel or opposite to the liquid sample flow direction, indicates that a test is properly conducted; and b) form at least one additional two-dimensional signal feature E, and a combination of said discernible feature from features A and B and said feature E, viewed from a direction substantially perpendicular to the liquid sample flow direction, indicates that said sample contains said analyte at or above detection level.
Hairstyling apparatus (1, 1') comprising a blower module for generating an air flow, a heating element for raising the temperature of the air flow generated by said blower module, a manual gripping handle and a blowing head connected to the handle, said blowing head being provided with at least a first air outlet and a second air outlet, said blowing head being mounted so as to be movable relative to the handle between a first position in which said air flow is blown by the blowing head through said first air outlet and a second position in which said air flow is blown by the blowing head through said second air outlet, said apparatus (1,1') being characterised in that it comprises automatic means for adjusting the operation of the blower module and said heating element, which automatic adjustment means control the operation of said blower module and of said heating element depending on the position occupied by the blowing head relative to the handle.
A cooling element for cooling a plurality of power semiconductor modules (21; 36) comprising power semiconductor units, wherein the cooling element comprises a plate (22; 30) made of thermally conductive material, wherein the plate (22; 30) is adapted to be thermally connected to the power semiconductor modules (21; 36), the plate (22; 30) comprises channels for carrying a flow of a cooling liquid, wherein the channels comprise a main supply channel converging in the direction of the flow of the liquid, a main discharge channel diverging in the direction of the flow of the liquid, a plurality of supply channel branches branching from the main input channel, a plurality of discharge channel branches merging to the main discharge channel, and a plurality of power semiconductor unit cooling channels connecting the supply channel branches and the discharge channel branches; each power semiconductor unit cooling channel is arranged to cool one power semiconductor unit; and characterized in that the plate (22; 30) comprises openings (28; 35) for thermally separating the power semiconductor modules (21; 36) from each other.
A composition comprising sodium trans -[tetrachlorobis(1H-indazole)ruthenate] and cesium; said composition further comprising Ru III Cl 3 (Hind) 2 (H 2 O), Ru III Cl 3 (Hind) 2 (CH 3 CN), and Ru III Cl 3 (Hind)(HN=C(Me)ind); wherein: the sodium trans -[tetrachlorobis(1H-indazole)ruthenate] is not less than 95.5 weight percentage of the composition, the Ru III Cl 3 (Hind) 2 (H 2 O) is not more than 1.0 weight percentage of the composition, the Ru III Cl 3 (Hind) 2 (CH 3 CN) is not more than 2.5 weight percentage of the composition, the Ru III Cl 3 (Hind)(HN=C(Me)ind) is not more than 2.0 weight percentage of the composition, and cesium is not more than 0.5 weight percentage of the composition. the sodium trans -[tetrachlorobis(1H-indazole)ruthenate] is not less than 95.5 weight percentage of the composition, the Ru III Cl 3 (Hind) 2 (H 2 O) is not more than 1.0 weight percentage of the composition, the Ru III Cl 3 (Hind) 2 (CH 3 CN) is not more than 2.5 weight percentage of the composition, the Ru III Cl 3 (Hind)(HN=C(Me)ind) is not more than 2.0 weight percentage of the composition, and cesium is not more than 0.5 weight percentage of the composition.
A method for an edge network node in an intermediate-system-to-intermediate-system, ISIS, topology-transparent-zone, TTZ, comprising: receiving an identifier of an ISIS TTZ to which the edge network node has been assigned; receiving and storing ISIS TTZ topology information; receiving a command to distribute the ISIS TTZ topology information to other network nodes assigned to the ISIS TTZ; generating a TTZ-related type-length-value, TLV, and setting an indicator in the TTZ-related TLV to indicate that topology information related to the ISIS TTZ is to be distributed; adding the TTZ-related TLV to a link state protocol data unit, LSP, that is to be transmitted by the edge network node; and distributing the LSP to all TTZ nodes adjacent to the edge network node assigned to the ISIS TTZ; responsive to receiving a command to migrate to the ISIS TTZ, the edge network node adds other edge network nodes assigned to the ISIS TTZ to an Intermediate System Neighbors, ISN, TLV in the edge network node's LSP, removes from the Intermediate System Neighbors TLV any adjacent node contained in a TTZ ISN sub-TLV, and removes from an End System Neighbors, ESN, TLV in the edge network node's LSP any adjacent node contained in a TTZ ESN sub-TLV. receiving an identifier of an ISIS TTZ to which the edge network node has been assigned; receiving and storing ISIS TTZ topology information; receiving a command to distribute the ISIS TTZ topology information to other network nodes assigned to the ISIS TTZ; generating a TTZ-related type-length-value, TLV, and setting an indicator in the TTZ-related TLV to indicate that topology information related to the ISIS TTZ is to be distributed; adding the TTZ-related TLV to a link state protocol data unit, LSP, that is to be transmitted by the edge network node; and distributing the LSP to all TTZ nodes adjacent to the edge network node assigned to the ISIS TTZ; responsive to receiving a command to migrate to the ISIS TTZ, the edge network node adds other edge network nodes assigned to the ISIS TTZ to an Intermediate System Neighbors, ISN, TLV in the edge network node's LSP, removes from the Intermediate System Neighbors TLV any adjacent node contained in a TTZ ISN sub-TLV, and removes from an End System Neighbors, ESN, TLV in the edge network node's LSP any adjacent node contained in a TTZ ESN sub-TLV.
Battery arrangement for a two-track vehicle, having a traction battery with a battery housing, in which crash-sensitive battery cells and at least one crash crossmember which runs in the vehicle transverse direction (y) are arranged, by way of which crash crossmember, in the case of a side impact, the impact force which is introduced can be transmitted to the vehicle side which faces away from the crash, bridging the battery cells, characterized in that the crash crossmember is of at least three-piece configuration with a battery-integrated centre part which is lengthened on the outer side of the battery housing, with a free mounting gap (m) positioned in between, outwards in the vehicle transverse direction (y) in a flush manner in each case with a deformation element, and in that the deformation element is mounted indirectly or directly on a chassis part, in particular a chassis longitudinal carrier or door sill.
A control apparatus for controlling a control target, comprising: a time manager configured to manage time; counters (119, 121, 123, 126) configured to synchronize with at least one device, the counters including a first counter configured to manage execution timing of a control computation and a second counter (119, 121, 123) configured to manage data communication timing on a bus (2, 4) or a network for periodical communication that is performed to establish a connection with another control apparatus (100A, 100B); a control computation unit configured to execute the control computation according to timing indicated by the first counter; a record generator configured to generate a record that includes an observation value that is available to the control computation unit and is related to the control target, a time that is indicated by the time manager and is associated with the observation value, and a counter value that is indicated by any of the counters (119, 121, 123, 126) and is associated with the observation value; and a synchronization manager that is configured to provide the at least one device with an instruction to match a counter value indicated by a counter of the at least one device with a counter value indicated by the second counter (119, 121, 123). a time manager configured to manage time; counters (119, 121, 123, 126) configured to synchronize with at least one device, the counters including a first counter configured to manage execution timing of a control computation and a second counter (119, 121, 123) configured to manage data communication timing on a bus (2, 4) or a network for periodical communication that is performed to establish a connection with another control apparatus (100A, 100B); a control computation unit configured to execute the control computation according to timing indicated by the first counter; a record generator configured to generate a record that includes an observation value that is available to the control computation unit and is related to the control target, a time that is indicated by the time manager and is associated with the observation value, and a counter value that is indicated by any of the counters (119, 121, 123, 126) and is associated with the observation value; and a synchronization manager that is configured to provide the at least one device with an instruction to match a counter value indicated by a counter of the at least one device with a counter value indicated by the second counter (119, 121, 123).
A laser tool configured to operate within a wellbore, the laser tool comprising: an integrator configured to receive a laser beam from a laser head and to combine the laser beam and a purging medium; and a conduit having a shape and length to generate a laminar flow from the purging medium and to produce an output comprised of the laminar flow and the laser beam, the output being directed towards a target within the wellbore; where at least part of the laser tool is configured for rotation to cause the output to rotate during application to the target, and where the conduit comprises a tubular shape, wherein the tubular shape of the conduit and the length of the conduit causes the turbulent flow to change to the laminar flow. an integrator configured to receive a laser beam from a laser head and to combine the laser beam and a purging medium; and a conduit having a shape and length to generate a laminar flow from the purging medium and to produce an output comprised of the laminar flow and the laser beam, the output being directed towards a target within the wellbore; where at least part of the laser tool is configured for rotation to cause the output to rotate during application to the target, and where the conduit comprises a tubular shape, wherein the tubular shape of the conduit and the length of the conduit causes the turbulent flow to change to the laminar flow.
A compound comprising: first particles, the first particles being insulator material; second particles, the second particles being electrically conductive material; and a combination of the first particles and the second particles distributed and suspended in a printable liquid material, a cured state of the printable liquid material being a dielectric material transformable into an electrically conductive paths via application of heat above a threshold value, wherein the second particles are silver nanoparticles; wherein the first particles are BST (Barium Strontium Titanate) particles, the compound further comprising: at least one solvent. first particles, the first particles being insulator material; second particles, the second particles being electrically conductive material; and a combination of the first particles and the second particles distributed and suspended in a printable liquid material, a cured state of the printable liquid material being a dielectric material transformable into an electrically conductive paths via application of heat above a threshold value, wherein the second particles are silver nanoparticles; wherein the first particles are BST (Barium Strontium Titanate) particles, the compound further comprising: at least one solvent.
A charging device, comprising: a charging voltage providing unit configured to provide a maximum charging voltage for an electricity storage unit including a plurality of battery cells (C1-C16) connected in series, a voltage detector configured to detect a total battery voltage representing the total voltage of the electricity storage unit, means for determining the maximum cell voltage among the cell voltages of said battery cells (C1-C16), wherein the charging voltage providing unit is configured to determine the maximum charging voltage such that it satisfies equation below: Maximum Charging Voltage = Total Battery Voltage + Fully Charged Voltage − Maximum Cell Voltage * n wherein n represents a total number of said battery cells (C1-C16) and/or such that it satisfies an equation below: Maximum Charging Voltage = Charging Set Voltage − Vd wherein Vd is a sum total of a voltage difference between a maximum cell voltage and a cell voltage corresponding to each of said battery cells and the charging set voltage is a product of the fully charged voltage of the battery cells and the total number of said battery cells (C1-C16). a charging voltage providing unit configured to provide a maximum charging voltage for an electricity storage unit including a plurality of battery cells (C1-C16) connected in series, a voltage detector configured to detect a total battery voltage representing the total voltage of the electricity storage unit, means for determining the maximum cell voltage among the cell voltages of said battery cells (C1-C16), wherein the charging voltage providing unit is configured to determine the maximum charging voltage such that it satisfies equation below: Maximum Charging Voltage = Total Battery Voltage + Fully Charged Voltage − Maximum Cell Voltage * n wherein n represents a total number of said battery cells (C1-C16) and/or such that it satisfies an equation below: Maximum Charging Voltage = Charging Set Voltage − Vd wherein Vd is a sum total of a voltage difference between a maximum cell voltage and a cell voltage corresponding to each of said battery cells and the charging set voltage is a product of the fully charged voltage of the battery cells and the total number of said battery cells (C1-C16).
A dishwasher comprising a housing configured to form an exterior, a tableware cleaning tub formed at an inside of the housing, and a power cord configured to supply a power, wherein the housing comprises: a housing body; a power cord insertion hole (43, 53) which is provided at one side of the housing body for a portion of the power cord to be inserted into an inside of the housing; and an open/close unit (41, 51) rotatably coupled to the housing body to open/close the power cord insertion hole (43, 53), the open/close unit (44, 51) equipped with a first accommodation groove (44, 54) to accommodate the portion of the power cord inserted into the inside of the housing, characterized in that the power cord comprises a fixing unit configured to fix the power cord to the housing body when the open/close unit (41, 51) closes the power cord insertion hole (43, 53), the fixing unit comprising a coupling member which is coupled to the first accommodation groove (44, 54) of the open/close unit, and a fixing member which is fixed to the housing body. a housing body; a power cord insertion hole (43, 53) which is provided at one side of the housing body for a portion of the power cord to be inserted into an inside of the housing; and an open/close unit (41, 51) rotatably coupled to the housing body to open/close the power cord insertion hole (43, 53), the open/close unit (44, 51) equipped with a first accommodation groove (44, 54) to accommodate the portion of the power cord inserted into the inside of the housing, characterized in that the power cord comprises a fixing unit configured to fix the power cord to the housing body when the open/close unit (41, 51) closes the power cord insertion hole (43, 53), the fixing unit comprising a coupling member which is coupled to the first accommodation groove (44, 54) of the open/close unit, and a fixing member which is fixed to the housing body.