mhurhangee/ep-ind-claims huggingface dataset:
A polarizing plate (10; 200, 300) comprising: a polarizer (11; 210, 310); and a polarizer protection film (12; 220, 320) provided on one surface of the polarizer, wherein the polarizer protection film (12; 220, 320) is a biaxially stretched and then heat-treated film heat-treated at a temperature equal to or less than the glass transition temperature such as tc have a heat shrinkage stress of 2.5 N/5 mm or more and 8 N/5 mm or less in a transverse direction orthogonal to the machine direction of the polarizer protection film (12; 202; 320) when measured after being heated under the conditions of 70 °C and a humidity of 0 %RH or more and 20 %RH or less for 75 minutes. a polarizer (11; 210, 310); and a polarizer protection film (12; 220, 320) provided on one surface of the polarizer, wherein the polarizer protection film (12; 220, 320) is a biaxially stretched and then heat-treated film heat-treated at a temperature equal to or less than the glass transition temperature such as tc have a heat shrinkage stress of 2.5 N/5 mm or more and 8 N/5 mm or less in a transverse direction orthogonal to the machine direction of the polarizer protection film (12; 202; 320) when measured after being heated under the conditions of 70 °C and a humidity of 0 %RH or more and 20 %RH or less for 75 minutes.
Method of determination of a distribution of energy to a plurality of electrical loads (121, 122,..., 12n) during a modulation period, the energy coming from at least one generator, the supply of a predetermined quantity of energy to any one of the electrical loads during this modulation period being effected by the generator emitting during a predetermined fraction of the modulation period an electrical signal the power whereof corresponds to that demanded to said electrical load, this method including a temporal distribution (102, 104, 106, 108, 110, 112) of the electrical signals emitted by the generator in the modulation period in accordance with a distribution criterion determined as a function of the electrical signals and applied successively to each electrical signal in the same modulation period, characterized in that the temporal distribution criterion for the electrical signals is more precisely determined as a function of the temporal length and the power of the electrical signals, and in that it comprises, before the distribution (102, 104, 106, 108, 110, 112) of the electrical signals in the modulation period, a step of ordering the electrical signals in accordance with a predetermined priority criterion.
A bifunctional peptide represented by an amino acid sequence of any one of SEQ ID NOS: 1 to 8, or a pharmaceutical composition comprising the peptide, for use in a method of treating muscle disease, wherein the muscle disease is selected from the group consisting of muscular dystrophy, muscular atrophy, muscular sarcopenia, myositis, polymyositis.
An electro-hydraulic control system for a transmission, comprising: a pressure switch (350, 450) to receive fluid, to open in response to a pressure level of the fluid being greater than a threshold pressure level, to close in response to the pressure of the fluid being less than the threshold pressure level, and to generate a status signal that indicates status of the pressure switch, a plurality of valves (66, 68, 70) to develop a main line pressure based upon regulator control signals, to develop a control main pressure based upon the main line pressure, and to develop a clutch feed pressure based upon clutch control signals, the main line pressure, and the control main pressure, and an electronic control module to generate regulator control signals to control the main line pressure, to generate clutch control signals to control the clutch feed pressure, and to detect faults based upon regulator control signals and status signals of the pressure switch, characterized in that the plurality of valves are configured to selectively deliver fluid at the control main pressure to the pressure switch based upon a pressure level of the main line pressure. a pressure switch (350, 450) to receive fluid, to open in response to a pressure level of the fluid being greater than a threshold pressure level, to close in response to the pressure of the fluid being less than the threshold pressure level, and to generate a status signal that indicates status of the pressure switch, a plurality of valves (66, 68, 70) to develop a main line pressure based upon regulator control signals, to develop a control main pressure based upon the main line pressure, and to develop a clutch feed pressure based upon clutch control signals, the main line pressure, and the control main pressure, and an electronic control module to generate regulator control signals to control the main line pressure, to generate clutch control signals to control the clutch feed pressure, and to detect faults based upon regulator control signals and status signals of the pressure switch, characterized in that the plurality of valves are configured to selectively deliver fluid at the control main pressure to the pressure switch based upon a pressure level of the main line pressure.
A method of producing a water-resistant gypsum product, in which the product is produced from a settable aqueous calcium sulphate dispersion having a water to solids ratio of less than 0.4 to 1, the dispersion having distributed therethrough lightweight hollow bodies having water-impervious surfaces; and a hydratable cement which is capable of hydration in the presence of the calcium sulphate dispersion, the hydratable cement being reactive with excess water in the dispersion, wherein the hydratable cement is present in an amount of 8 to 12%, based on the weight of the settable solids in the calcium sulphate dispersion, including the hydratable cement.
Electrodynamic machine, comprising a rotatably mounted rotor and a stator arranged around the rotor and a housing arranged around the stator, wherein the stator has a stator winding having three windings, wherein the windings each have a terminal lead end and a neutral point end (10, 11, 12), wherein the neutral point ends (10, 11, 12) are connected to one another via a short-circuiting link (13, 15) to form a neutral point, wherein the neutral point is within the housing, wherein the short-circuiting link (13, 15) is designed in such a way that electrical isolation can take place between the neutral point ends (10, 11, 12), characterized in that the electrical isolation takes place by virtue of a movement of the short-circuiting link (13, 15), wherein the short-circuiting link (13, 15) is movable from outside the housing, when the housing is closed, wherein the neutral point ends (10, 11, 12) are passed via measurement leads (18, 19, 20) outwards outside the housing via measurement points (21, 22, 23).
An illumination system comprising - a plurality of light sources provided with an encoder arranged to enable light emitted from the light sources to comprise light source identification codes, - a camera arranged to register images of illumination spots of the light emitted from the light sources, - a signal processor arranged to derive the light source identification codes from registered images, characterized in that - the encoder is arranged to modulate the light to be emitted at a frequency above a predefined high level to comprise fast codes and the light to be emitted at a frequency below a predefined low level to comprise slow codes. - a plurality of light sources provided with an encoder arranged to enable light emitted from the light sources to comprise light source identification codes, - a camera arranged to register images of illumination spots of the light emitted from the light sources, - a signal processor arranged to derive the light source identification codes from registered images, - the encoder is arranged to modulate the light to be emitted at a frequency above a predefined high level to comprise fast codes and the light to be emitted at a frequency below a predefined low level to comprise slow codes.
Shading installation having - two lateral guide strips which, in the mounted state, extend in a longitudinal direction, - an upper control profile and a lower control profile which, in the mounted state, extend in a transverse direction, which are each displaceable along the guide strips and between which, in the mounted state, a hanging is arranged, - tensioning strings which are able to be fastened to the guide strips with the aid of fastening elements, wherein - the control profiles, in the mounted state, are arranged in front of the guide strips, and wherein - the control profiles have a rear side which is directed towards the guide strips, characterized in that - the guide strips form, at least in the mounted state, a channel which is open in the transverse direction, which extends in the longitudinal direction and in which respective tensioning strings are arranged in a concealed manner, and in that, - on the rear side, there is arranged in each case one guide element for the respective tensioning strings, via which guide element the tensioning strings are led out of the channel in the transverse direction and, via the rear side, into an interior space of the respective control profile. - two lateral guide strips which, in the mounted state, extend in a longitudinal direction, - an upper control profile and a lower control profile which, in the mounted state, extend in a transverse direction, which are each displaceable along the guide strips and between which, in the mounted state, a hanging is arranged, - tensioning strings which are able to be fastened to the guide strips with the aid of fastening elements, wherein - the control profiles, in the mounted state, are arranged in front of the guide strips, and wherein - the control profiles have a rear side which is directed towards the guide strips, characterized in that - the guide strips form, at least in the mounted state, a channel which is open in the transverse direction, which extends in the longitudinal direction and in which respective tensioning strings are arranged in a concealed manner, and in that, - on the rear side, there is arranged in each case one guide element for the respective tensioning strings, via which guide element the tensioning strings are led out of the channel in the transverse direction and, via the rear side, into an interior space of the respective control profile.
An imaging catheter assembly, comprising: an interposer including a multi-layered substrate structure wherein the multi-layered substrate structure includes a first plurality of conductive contact pads coupled to a second plurality of conductive contact pads via a plurality of conductive lines; an imaging component coupled to the interposer via the first plurality of conductive contact pads; and an electrical cable coupled to the interposer via the second plurality of conductive contact pads and in communication with the imaging component, characterized in that the interposer is mounted to a portion of a backing layer of the imaging component that extends beyond the imaging component. an interposer including a multi-layered substrate structure wherein the multi-layered substrate structure includes a first plurality of conductive contact pads coupled to a second plurality of conductive contact pads via a plurality of conductive lines; an imaging component coupled to the interposer via the first plurality of conductive contact pads; and an electrical cable coupled to the interposer via the second plurality of conductive contact pads and in communication with the imaging component, characterized in that the interposer is mounted to a portion of a backing layer of the imaging component that extends beyond the imaging component.
Method for synchronizing clocks (1, 2) in nodes of a vehicle network of a motor vehicle, in which the nodes communicate with one another via an unsynchronized communication protocol, in which a master node having a master clock sends out synchronization messages that are evaluated in a slave node having a slave clock, wherein the timing of the slave node or slave clock is adapted to the timing of the master node or master clock, and in which a time offset between the master clock and the slave clock is corrected taking into account the transmission time for a message between the master node and the slave node, wherein a delay request message is sent out by the slave node, the reception time (t 4) of which is recorded in the master node, and is sent back, by the master node, in the form of a delay response message, to the slave node, in which the transmission time for a message between the master node and the slave node is then defined, characterized in that the sending frequency of the delay request messages corresponds to the sending frequency of the synchronization messages at least for a predefined period after the nodes of the vehicle have been started, as a result of which the sending frequency of the delay request messages is increased during the predefined period.
Connecting element for a friction-welded connection for connecting - under rotation and with the application of pressure - at least two panel-like components (8, 9) comprising a mandrel (2, 13) whose length has been adapted to the thickness of the upper component(s) (7, 8) to ensure said mandrel will penetrate said upper component(s) (7, 8), and which has a polygonal noncircular profile with rounded corner regions (5a, 5b) characterized in that said noncircular profile has a thread-like design such that said corner regions extending along said mandrel will exhibit some amount of offset, with the offset of said corner regions (5a, 5b) along the length of said mandrel being shorter than one complete thread.
A lustrous coating material composition, comprising: a first component which is a flaky titanic acid which is treated with a morpholine; a second component which is a phosphoric acid group-containing resin; and a third component which is an acrylic resin. a first component which is a flaky titanic acid which is treated with a morpholine; a second component which is a phosphoric acid group-containing resin; and a third component which is an acrylic resin.
A multi-generation distributed control system (MG-DCS), comprising: a first generation DCS connected to a local control network comprising a plurality of FG client nodes; a second generation DCS connected to a non-LCN data highway including a server node including a server and a plurality of SG client nodes, wherein said server node is connected between said LCN and said non-LCN data highway and includes a LCN processor (LCNP) board, and LCNP emulator software including a server LCNP emulator software component at said server node and a client LCNP emulator software component at each of said plurality of SG client nodes, wherein said server LCNP emulator software component (i) translates between said LCN data and data highway protocol data for communications between said FG DCS and said SG DCS and (ii) adds one of a plurality of LCN address slots (132'-135') that each correspond to one of said plurality of SG client nodes to communications received from said LCN for delivery to said server node or said plurality of SG client nodes in said SG DCS; wherein each of said client LCNP emulator software components provides one of said plurality of LCN address slots at its respective one of said plurality SG client nodes. a first generation DCS connected to a local control network comprising a plurality of FG client nodes; a second generation DCS connected to a non-LCN data highway including a server node including a server and a plurality of SG client nodes, wherein said server node is connected between said LCN and said non-LCN data highway and includes a LCN processor (LCNP) board, and LCNP emulator software including a server LCNP emulator software component at said server node and a client LCNP emulator software component at each of said plurality of SG client nodes, wherein said server LCNP emulator software component (i) translates between said LCN data and data highway protocol data for communications between said FG DCS and said SG DCS and (ii) adds one of a plurality of LCN address slots (132'-135') that each correspond to one of said plurality of SG client nodes to communications received from said LCN for delivery to said server node or said plurality of SG client nodes in said SG DCS; wherein each of said client LCNP emulator software components provides one of said plurality of LCN address slots at its respective one of said plurality SG client nodes.
A method of encoding video data, the method comprising: encoding video data according to a set of sample adaptive offset types; performing a plurality of coding passes to test a subset of the SAO types for a first block of encoded video data,; selecting from the subset of SAO types an SAO type for the first block of encoded video data; generating for inclusion in an encoded bitstream, information for identifying the selected SAO type for the first block; determining offset values for the first block of encoded video data; adding the offset values to a decoded block reconstructed from a second block of encoded video data, the offset values being added using the SAO type determined for the first block of encoded video data, wherein the first block is a left or top neighbor to the second block; comparing the reconstructed block with the added offset values to an original block of un-encoded video data corresponding to the second block of encoded video data; and in response to a difference between the reconstructed block with the added offset values and the corresponding original block being less than a threshold amount of difference, encoding the second block of video data into the bitstream using the SAO type and the offset values determined for the first block without performing coding passes to test SAO information for the second block, wherein the SAO information for the second block comprises one or more SAO types for the second block and/or offset values for the second block. encoding video data according to a set of sample adaptive offset types; performing a plurality of coding passes to test a subset of the SAO types for a first block of encoded video data,; selecting from the subset of SAO types an SAO type for the first block of encoded video data; generating for inclusion in an encoded bitstream, information for identifying the selected SAO type for the first block; determining offset values for the first block of encoded video data; adding the offset values to a decoded block reconstructed from a second block of encoded video data, the offset values being added using the SAO type determined for the first block of encoded video data, wherein the first block is a left or top neighbor to the second block; comparing the reconstructed block with the added offset values to an original block of un-encoded video data corresponding to the second block of encoded video data; and in response to a difference between the reconstructed block with the added offset values and the corresponding original block being less than a threshold amount of difference, encoding the second block of video data into the bitstream using the SAO type and the offset values determined for the first block without performing coding passes to test SAO information for the second block, wherein the SAO information for the second block comprises one or more SAO types for the second block and/or offset values for the second block.
A door assembly having a magnetic closure mechanism, comprising - a door which is adapted at a hinge side for rotatable attachment at a door frame or the like, and which has an inner side and an outer side, - a shaft arranged on the inner side in a peripheral area of the door on handle side of the door opposite the hinge side and having an axis of rotation which extends at least essentially parallel to the handle side, - an actuating element on the outer side of the door, the actuation of which effects a rotation of the shaft about the axis, and - a plurality of magnets which are attached to the shaft spaced from one another and are rotatable by the actuation of the actuating element between a closing position and an opening position, characterised in that - in the closing position, the magnets and one counter-magnet each interact in a magnetically attracting manner, resulting in a magnetic attracting force between the door and the door frame, - in the opening position, the attracting magnetic interactive effect with the respectively associated counter-magnet is at least considerably weakened, and - the counter-magnets are arranged opposite the inner side of the door. - a door which is adapted at a hinge side for rotatable attachment at a door frame or the like, and which has an inner side and an outer side, - a shaft arranged on the inner side in a peripheral area of the door on handle side of the door opposite the hinge side and having an axis of rotation which extends at least essentially parallel to the handle side, - an actuating element on the outer side of the door, the actuation of which effects a rotation of the shaft about the axis, and - a plurality of magnets which are attached to the shaft spaced from one another and are rotatable by the actuation of the actuating element between a closing position and an opening position, - in the closing position, the magnets and one counter-magnet each interact in a magnetically attracting manner, resulting in a magnetic attracting force between the door and the door frame, - in the opening position, the attracting magnetic interactive effect with the respectively associated counter-magnet is at least considerably weakened, and - the counter-magnets are arranged opposite the inner side of the door.
A computer-implemented method for performing courier services using a wearable electronic device, the wearable electronic device comprising a depth camera for detecting object depths in a field of view, a bioacoustic sensor for decoding gesture inputs, a scanner for decoding visual codes located on objects, and a speaker for producing audible sounds in response to an electrical signal, the method comprising the following operations performed on one or more processors located within the wearable device: detecting a scanning event based on a first signal received from the bioacoustic sensor, the scanning event comprising a gesture input performed in proximity to a first surface of an object; determining a scan region associated with the scanning event based on a location and depth of the gesture input; providing a second signal to the scanner causing the scanner to decode a visual code located within the scan region; generating scan data based on a third signal received from the scanner, the third signal reflecting information obtained from the visual code; and providing a fourth signal to the speaker causing the speaker to emit a notification sound in response to generating the scan data. detecting a scanning event based on a first signal received from the bioacoustic sensor, the scanning event comprising a gesture input performed in proximity to a first surface of an object; determining a scan region associated with the scanning event based on a location and depth of the gesture input; providing a second signal to the scanner causing the scanner to decode a visual code located within the scan region; generating scan data based on a third signal received from the scanner, the third signal reflecting information obtained from the visual code; and providing a fourth signal to the speaker causing the speaker to emit a notification sound in response to generating the scan data.