mhurhangee/ep-ind-claims huggingface dataset:
A battery state detection device that detects whether a battery is normal or abnormal or a degree of deterioration of the battery, wherein the battery is a Ni-MH battery having a discharge reserve comprising: measurement means for measuring complex impedances in a diffusion region of the battery; detection means for calculating a slope of a straight line or an approximate straight line which connects together two complex impedances or more of different frequencies in a diffusion region of the battery measured by the measurement means; and storage means that preliminarily stores a threshold value corresponding to the slope used for determining whether the battery is normal or abnormal or the degree of deterioration of the battery, wherein the detection means detects whether the battery is normal or abnormal or the degree of deterioration of the battery by use of the predetermined threshold value stored in the storage means and the calculated slope wherein deterioration is determined by a unbalanced capacity in which the negative electrode is devoid of a capacity for the discharge reserve, wherein the detection means calculates the slope of the straight line or the approximate straight line that connects together the two complex impedances or more of different frequencies, by use of a two-dimensional plane defined by an axis of real-axis components and an axis of imaginary-axis components. measurement means for measuring complex impedances in a diffusion region of the battery; detection means for calculating a slope of a straight line or an approximate straight line which connects together two complex impedances or more of different frequencies in a diffusion region of the battery measured by the measurement means; and storage means that preliminarily stores a threshold value corresponding to the slope used for determining whether the battery is normal or abnormal or the degree of deterioration of the battery, wherein the detection means detects whether the battery is normal or abnormal or the degree of deterioration of the battery by use of the predetermined threshold value stored in the storage means and the calculated slope wherein deterioration is determined by a unbalanced capacity in which the negative electrode is devoid of a capacity for the discharge reserve,
A composition comprising a zwitterionic ester ammonioalkanoate surfactant according to Formula 1, where R 1 is a linear, branched, saturated or unsaturated C 5 to C 21 hydrophobe, R 2 is a linear, branched, or cyclic alkyl, hydroxyalkyl, or aromatic group, R 3 is a linear or branched alkyl, hydroxyalkyl, or aromatic group, R 4 is a linear or branched alkyl, hydroxyalkyl, or aromatic group, R 5 is a linear or branched alkyl, hydroxyalkyl, or aromatic group, and any of R 2, R 4, or R 5 can by linked in a cyclic structure, and X is -CO 2 -, -SO 3 -, or -SO 4 -; and an ingredient selected from the group consisting of a surfactant other than said zwitterionic ester ammunioalkanoate surfactant, emulsifiers, conditioning agents, emollients, moisturizers, humectants, thickeners, lubricants, chelating agents, fillers, binding agents, anti-oxidants, preservatives, active ingredients, fragrances, dyes, buffering agents, exfoliates, pH adjusters, inorganic salts, solvents, viscosity controlling agents and opacifying agents; wherein said composition comprises less than 0.05% w/w of alkylamidoamine and aminoalkylamine. where R 1 is a linear, branched, saturated or unsaturated C 5 to C 21 hydrophobe, R 2 is a linear, branched, or cyclic alkyl, hydroxyalkyl, or aromatic group, R 3 is a linear or branched alkyl, hydroxyalkyl, or aromatic group, R 4 is a linear or branched alkyl, hydroxyalkyl, or aromatic group, R 5 is a linear or branched alkyl, hydroxyalkyl, or aromatic group, and any of R 2, R 4, or R 5 can by linked in a cyclic structure, and X is -CO 2 -, -SO 3 -, or -SO 4 -; and an ingredient selected from the group consisting of a surfactant other than said zwitterionic ester ammunioalkanoate surfactant, emulsifiers, conditioning agents, emollients, moisturizers, humectants, thickeners, lubricants, chelating agents, fillers, binding agents, anti-oxidants, preservatives, active ingredients, fragrances, dyes, buffering agents, exfoliates, pH adjusters, inorganic salts, solvents, viscosity controlling agents and opacifying agents; wherein said composition comprises less than 0.05% w/w of alkylamidoamine and aminoalkylamine.
An ultrasound imaging device, comprising: a housing comprising an outer surface and an inner surface, wherein the outer surface is configured to be grasped by a user; an array of acoustic elements configured to transmit ultrasound energy and receive ultrasound echoes associated with the ultrasound energy, wherein the array of acoustic elements is disposed at an end of the housing; a heat sink disposed within the housing and configured to receive heat generated by the array of acoustic elements; a heat pipe disposed within the housing and configured to transmit the heat away from the end of the housing, wherein the heat pipe comprises a proximal portion and a distal portion; and a heat spreader material disposed on the inner surface of the housing and configured to dissipate the heat, wherein the distal portion of the heat pipe is in thermal contact with the heat sink and the proximal portion of the heat pipe is in thermal contact with the heat spreader material, characterised in that the heat pipe comprises a central portion between the proximal portion and the distal portion, and wherein the proximal portion and the distal portion comprise a flattened cross-sectional profile with a larger surface area for thermal contact, and the central portion comprises a non-flattened cross-sectional profile with a smaller surface area for thermal contact. a housing comprising an outer surface and an inner surface, wherein the outer surface is configured to be grasped by a user; an array of acoustic elements configured to transmit ultrasound energy and receive ultrasound echoes associated with the ultrasound energy, wherein the array of acoustic elements is disposed at an end of the housing; a heat sink disposed within the housing and configured to receive heat generated by the array of acoustic elements; a heat pipe disposed within the housing and configured to transmit the heat away from the end of the housing, wherein the heat pipe comprises a proximal portion and a distal portion; and a heat spreader material disposed on the inner surface of the housing and configured to dissipate the heat, wherein the distal portion of the heat pipe is in thermal contact with the heat sink and the proximal portion of the heat pipe is in thermal contact with the heat spreader material, characterised in that the heat pipe comprises a central portion between the proximal portion and the distal portion, and wherein the proximal portion and the distal portion comprise a flattened cross-sectional profile with a larger surface area for thermal contact, and the central portion comprises a non-flattened cross-sectional profile with a smaller surface area for thermal contact.
Slat roof comprising several slats arranged parallel to each other and arranged so as to be rotatable about respective shafts, between an open position, in which an intermediate space extends between the slats, and a closed position, in which the slats together form a closed shelter, in which at least one slat comprises a panel-shaped element and comprises at least one profiled section (4, 5) which extends in the longitudinal direction of the panel-shaped element and is attached thereto and which at least partly delimits a slat gutter along virtually the length of the slat, characterized in that the profiled section (4, 5), viewed in the closed position of the slats, extends only above and optionally laterally from the panel-shaped element.
An OSGi program that causes a computing device to execute a process in compliance with OSGi framework specification, the OSGi program comprising: a software module that implements an OSGi framework; and an OSGi bundle that describes a process that operates under the OSGi framework; wherein the OSGi program causes the computing device to execute: a device detection step of detecting an external device that is connected to an electronic device equipped with the computing device; a step of acquiring device identification information for identifying the external device; a step of requesting a distribution server to distribute an OSGi bundle that corresponds to the device identification information; and a step of receiving an OSGi bundle that corresponds to the device identification information from the distribution server and installing the received OSGi bundle on the OSGi framework; wherein the OSGi bundle causes the computing device to execute: an instruction detection step of detecting an instruction issued by a user to the electronic device equipped with the computing device; a step of requesting a distribution server to distribute an OSGi bundle that corresponds to the instruction; and a step of receiving the OSGi bundle corresponding to the instruction from the distribution server and installing the received OSGi bundle on the OSGi framework. a software module that implements an OSGi framework; and an OSGi bundle that describes a process that operates under the OSGi framework; wherein the OSGi program causes the computing device to execute: a device detection step of detecting an external device that is connected to an electronic device equipped with the computing device; a step of acquiring device identification information for identifying the external device; a step of requesting a distribution server to distribute an OSGi bundle that corresponds to the device identification information; and a step of receiving an OSGi bundle that corresponds to the device identification information from the distribution server and installing the received OSGi bundle on the OSGi framework; a device detection step of detecting an external device that is connected to an electronic device equipped with the computing device; a step of acquiring device identification information for identifying the external device; a step of requesting a distribution server to distribute an OSGi bundle that corresponds to the device identification information; and a step of receiving an OSGi bundle that corresponds to the device identification information from the distribution server and installing the received OSGi bundle on the OSGi framework; an instruction detection step of detecting an instruction issued by a user to the electronic device equipped with the computing device; a step of requesting a distribution server to distribute an OSGi bundle that corresponds to the instruction; and a step of receiving the OSGi bundle corresponding to the instruction from the distribution server and installing the received OSGi bundle on the OSGi framework.
A method comprising: monitoring network communications on a network; detecting a suspect network communication of the network communications associated with a suspect network activity; determining an originating machine based on the suspect network activity; suspending network communications for the originating machine; selecting a forensics software agent based on the suspect network activity; deploying the forensics software agent on the originating machine; fetching, by the forensics software agent, computer forensics data from the originating machine; and selecting (416, 518) a response action based on the computer forensics data. monitoring network communications on a network; detecting a suspect network communication of the network communications associated with a suspect network activity; determining an originating machine based on the suspect network activity; suspending network communications for the originating machine; selecting a forensics software agent based on the suspect network activity; deploying the forensics software agent on the originating machine; fetching, by the forensics software agent, computer forensics data from the originating machine; and selecting (416, 518) a response action based on the computer forensics data.
Machine tool, in particular a hand-held machine tool, having a working area for a working tool for machining a workpiece, and having an auxiliary device for the guidance of the working tool, aligned with a predefined path, along a working path offset with respect to the predefined path, characterized in that the auxiliary device comprises a sensor arrangement with a detection area (31, 40) lying in the surroundings of the working area of the working tool, and in that the machine tool is guided by the working tool so as to be aligned with the working path, taking into account the offset of the working path with respect to the predefined path.
An image reading apparatus comprising: a document plate on which a document is placed; a reading device for reading a document placed on the document plate; a display means connected to the reading device and configured to display information to a user; a preview means arranged to cause the display means to display preview image data corresponding to image data read by the reading means; a guidance control means arranged to cause the display means to display operation guidance to allow a user to determine how to operate the reading device; and a mode setting means arranged to enable setting of a reading mode in which a single electronic image data item is generated by stitching together a plurality of electronic image data items obtained through the reading means by a plurality of reading operations, wherein upon setting the reading mode and initiating reading execution, the guidance control means is arranged to cause the display means to display as said operational guidance a dialogue image including a divided preview area in which the read image data is to be preview-displayed by the preview means, said divided preview area being divided into a plurality of sub-areas (502, 505, 508, 511) respectively corresponding to said plurality of electronic image data items and said plurality of reading operations, and being displayed in accordance with details of the set reading mode, and controls the display of said dialogue image such that for each of said plurality of reading operations performed a respective guidance image is displayed in the sub area corresponding to the reading operation, the reading operation (S804; S808) is executed upon a user operation, and the preview image obtained from said reading is displayed in said sub-area. a document plate on which a document is placed; a reading device for reading a document placed on the document plate; a display means connected to the reading device and configured to display information to a user; a preview means arranged to cause the display means to display preview image data corresponding to image data read by the reading means; a guidance control means arranged to cause the display means to display operation guidance to allow a user to determine how to operate the reading device; and a mode setting means arranged to enable setting of a reading mode in which a single electronic image data item is generated by stitching together a plurality of electronic image data items obtained through the reading means by a plurality of reading operations,
A method of vectorization for metal foil-based build materials, comprising: receiving a representation of a layer to be formed by fusing one or more regions of a metal foil sheet to a workpiece; determining that at least a first region of the one or more regions defines an unfused opening (612, 614) isolated from a remaining portion of the metal foil sheet; dividing the first region into at least two scan areas (712, 714), wherein a fragment of the unfused opening adjacent each scan area (712, 7149 is connected to the remaining portion; fusing a first scan area of the at least two scan areas (712, 714) to the workpiece with a radiation emission directing device; moving the metal foil sheet; and fusing a second scan area of the at least two scan areas (712, 714) to the workpiece by controlling the radiation emission directing device to fuse the second scan area of the at least two scan areas (712, 714). receiving a representation of a layer to be formed by fusing one or more regions of a metal foil sheet to a workpiece; determining that at least a first region of the one or more regions defines an unfused opening (612, 614) isolated from a remaining portion of the metal foil sheet; dividing the first region into at least two scan areas (712, 714), wherein a fragment of the unfused opening adjacent each scan area (712, 7149 is connected to the remaining portion; fusing a first scan area of the at least two scan areas (712, 714) to the workpiece with a radiation emission directing device; moving the metal foil sheet; and fusing a second scan area of the at least two scan areas (712, 714) to the workpiece by controlling the radiation emission directing device to fuse the second scan area of the at least two scan areas (712, 714).
Security label, having a plurality of layers comprising - a laser-writable layer with black aluminum oxide, wherein the laser-writable layer has an upper side and a lower side which are arranged opposite one another and face away from one another, - at least one transparent protective layer, which is arranged in front of the laser-writable layer as seen in a first direction, in order to protect the laser-writable layer from external influences, wherein the first direction faces from the top side to the bottom side, and - a contrast layer, which is arranged behind the laser-writable layer as seen in the first direction, wherein at least one of the plurality of layers is formed as a breakage layer of a brittle plastic film in order to cause destruction of the at least one breakage layer and of the laser-writable layer, and optionally of one or more interposed layers, in the event of manipulation or detachment of the security label affixed to a substrate, and wherein the contrast layer is designed as a breakage layer, characterized in that at least one further layer is arranged between the laser-writable layer and the contrast layer, wherein the at least one further layer comprises at least one partial release lacquer layer, and in that the brittle plastic film of the at least one breakage layer has an elongation at break of less than 20%, preferably less than 15%, particularly preferably less than 10%. - a laser-writable layer with black aluminum oxide, wherein the laser-writable layer has an upper side and a lower side which are arranged opposite one another and face away from one another, - at least one transparent protective layer, which is arranged in front of the laser-writable layer as seen in a first direction, in order to protect the laser-writable layer from external influences, wherein the first direction faces from the top side to the bottom side, and - a contrast layer, which is arranged behind the laser-writable layer as seen in the first direction, wherein at least one of the plurality of layers is formed as a breakage layer of a brittle plastic film in order to cause destruction of the at least one breakage layer and of the laser-writable layer, and optionally of one or more interposed layers, in the event of manipulation or detachment of the security label affixed to a substrate, and wherein the contrast layer is designed as a breakage layer, characterized in that at least one further layer is arranged between the laser-writable layer and the contrast layer, wherein the at least one further layer comprises at least one partial release lacquer layer, and in that the brittle plastic film of the at least one breakage layer has an elongation at break of less than 20%, preferably less than 15%, particularly preferably less than 10%.
An imaging apparatus comprising: an imaging device; a lens which collects light on said imaging device, and forms an image; an initial focal point detecting unit configured to detect a positional relationship between said imaging device and said lens to specify an initial focal point which is a focal point found when an exposure start instruction is received from a user; a shift pattern determining unit configured to determine a shift pattern of the focal point, such that the focal point in an exposure time moves from the initial focal point, passes through both of a nearest end and a farthest end of a predetermined range of focus at least once, and returns to the initial focal point, the initial focal point being specified by the positional relationship (i) determined by said initial focal point detecting unit, and (ii) observed between said imaging device and said lens; and a shift control unit configured to move one of said imaging device and said lens based on the shift pattern determined by said shift pattern determining unit, such that the focal point moves from the initial focal point as soon as exposure starts, and arrives at the initial focal point again as soon as the exposure ends. an imaging device; a lens which collects light on said imaging device, and forms an image; an initial focal point detecting unit configured to detect a positional relationship between said imaging device and said lens to specify an initial focal point which is a focal point found when an exposure start instruction is received from a user; a shift pattern determining unit configured to determine a shift pattern of the focal point, such that the focal point in an exposure time moves from the initial focal point, passes through both of a nearest end and a farthest end of a predetermined range of focus at least once, and returns to the initial focal point, the initial focal point being specified by the positional relationship (i) determined by said initial focal point detecting unit, and (ii) observed between said imaging device and said lens; and a shift control unit configured to move one of said imaging device and said lens based on the shift pattern determined by said shift pattern determining unit, such that the focal point moves from the initial focal point as soon as exposure starts, and arrives at the initial focal point again as soon as the exposure ends.
A method of operating a wireless device, comprising: receiving downlink control information, DCI, from a network node; determining a physical downlink shared channel, PDSCH, group based on information in the received DCI; transmitting a hybrid automatic repeat request acknowledgement, HARQ-ACK, report to the network node based on the determined PDSCH group; and receiving radio resource control, RRC, configuration information, wherein the method is characterised in that determining the PDSCH group comprises identifying a PDSCH group index within the DCI based on the received RRC configuration information, the RRC configuration information comprises an indication of whether PDSCH grouping functionality is enabled with respect to the wireless device. receiving downlink control information, DCI, from a network node; determining a physical downlink shared channel, PDSCH, group based on information in the received DCI; transmitting a hybrid automatic repeat request acknowledgement, HARQ-ACK, report to the network node based on the determined PDSCH group; and receiving radio resource control, RRC, configuration information, wherein the method is characterised in that determining the PDSCH group comprises identifying a PDSCH group index within the DCI based on the received RRC configuration information, the RRC configuration information comprises an indication of whether PDSCH grouping functionality is enabled with respect to the wireless device.