mhurhangee/ep-ind-claims huggingface dataset:
An oil ink set, characterized by being an oil ink set comprising at least a first oil ink, a second oil ink and a third oil ink wherein said first oil ink, second oil ink and third oil ink each contain a coloring material and are combined together; and said first oil ink, said second oil ink, and said third oil ink has a wavelength region in which its reflectivity in terms of an ink printed by ink jetting on a recording medium comprising a plastic substrate changes from 80% to 5% in a wavelength range of 400 nm to 700 nm, in the wavelength region where the reflectivity of said first oil ink changes from 80% to 5%, the reflectivity of said second oil ink is continuously higher than that of said first oil ink, and in the wavelength region where the reflectivity of said second oil ink changes from 80% to 5%, the reflectivity of said third oil ink is continuously higher than that of said second oil ink, and wherein said first oil ink is a magenta ink containing pigment red 122, said second oil ink is an orange ink or red ink, said third oil ink is a yellow ink, and the coloring materials in said first, said second and said third oil ink are all different and the oil inks have a coloring material content of 1% by mass to 10% by mass, or alternatively, an oil ink set comprising at least a fourth oil ink, a fifth oil ink and a sixth oil ink wherein at least said fourth oil ink, fifth oil ink and sixth oil ink each contain a coloring material and are combined together, wherein as a wavelength where a reflectivity of an ink printed by ink jetting on a recording medium comprising a plastic material becomes 5% in a wavelength range of 400 nm to 700 nm, said sixth oil ink has one wavelength C, said fourth oil ink has one or two wavelengths where there is one wavelength, that wavelength is represented by D and where there are two wavelengths, a longer one is represented by D, and said fifth oil ink has two wavelengths where a shorter one is represented by E and a longer one is represented by F, wherein the reflectivity of said sixth oil ink is continuously 5% or lower in a wavelength range shorter than the wavelength C, the reflectivity of said fourth oil ink is continuously 5% or lower in a wavelength range longer than the wavelength D, and the wavelengths C, D, E and F satisfy a relation: E<C<D<F, and wherein: said fourth oil ink is a cyan ink containing pigment blue 15:4, said fifth oil ink is a green ink, said sixth oil ink is a yellow ink, and said oil inks have a coloring material content of 1% by mass to 10% by mass.
A method implemented by a transmitter, the method comprising: inserting a first reference signal and a plurality of bit fields on a first channel, to produce a first signal, wherein the plurality of bit fields comprises a first bit field indicating whether a second reference signal is transmitted on a second channel, a second bit field indicating whether the first reference signal has the same precoding as the second reference signal, a third bit field indicating whether precoding of the first reference signal shares some characteristics with the precoding of the second reference signal, and a fourth bit field indicating transmission precoding differences between the first reference signal and the second reference signal, wherein the characteristics comprise transmission precoding gain and transmission precoding center angle; performing precoding on the first channel, to produce a first transmission signal; performing precoding on the second channel, to produce a second transmission signal; transmitting, to a receiver, the first transmission signal; and transmitting, to the receiver, the second transmission signal. inserting a first reference signal and a plurality of bit fields on a first channel, to produce a first signal, wherein the plurality of bit fields comprises a first bit field indicating whether a second reference signal is transmitted on a second channel, a second bit field indicating whether the first reference signal has the same precoding as the second reference signal, a third bit field indicating whether precoding of the first reference signal shares some characteristics with the precoding of the second reference signal, and a fourth bit field indicating transmission precoding differences between the first reference signal and the second reference signal, wherein the characteristics comprise transmission precoding gain and transmission precoding center angle; performing precoding on the first channel, to produce a first transmission signal; performing precoding on the second channel, to produce a second transmission signal; transmitting, to a receiver, the first transmission signal; and transmitting, to the receiver, the second transmission signal.
Vehicle body with a mounting arrangement for suspending a partitioning net rod, wherein the mounting arrangement has a suspending eyelet which is formed on a body-side carrier part which is covered in a manner protected from view from the vehicle interior (3, 5) by a roof lining and is spaced apart from the roof lining with a clear distance (a), and wherein the mounting arrangement has a partitioning net screen, the outer circumference of which is connected at a first connecting point to an opening edge region of a roof-lining-side mounting opening, which partitioning net screen has a screen opening which is oriented substantially in alignment with the suspending eyelet of the carrier part and the annular opening edge region of which is connected at a second connecting point to the carrier part, characterized in that the partitioning net screen is formed in two parts with a component-rigid main body composed of a hard material and with a flexible compensating element composed of a soft material, with which a tolerance-induced offset (Δv) occurring between the body-side carrier part and the partitioning net screen during the assembly of the vehicle body can be compensated for.
A processor (100, 1105) comprising a block-based processor core (111, 1120) for executing an atomic instruction block comprising an instruction header and a plurality of instructions, the block-based processor core (111, 1120) comprising: execution control logic (208, 1136) configured to schedule respective instructions of the plurality of instructions for execution in a dynamic order during a default execution mode and to schedule the respective instructions for execution in a static order during a debug mode, the dynamic order determined during execution of the atomic instruction block and based on when operands of the plurality of the instructions are ready, the static order determined based on information that is available before the atomic instruction block is executed; and core state access logic (207, 1138) in communication with the execution control logic (208, 1136), the core state access logic (207, 1138) configured to read intermediate states of the block-based processor core (111, 1120) and to provide the intermediate states outside of the block-based processor core (111, 1120) only during the debug mode. execution control logic (208, 1136) configured to schedule respective instructions of the plurality of instructions for execution in a dynamic order during a default execution mode and to schedule the respective instructions for execution in a static order during a debug mode, the dynamic order determined during execution of the atomic instruction block and based on when operands of the plurality of the instructions are ready, the static order determined based on information that is available before the atomic instruction block is executed; and core state access logic (207, 1138) in communication with the execution control logic (208, 1136), the core state access logic (207, 1138) configured to read intermediate states of the block-based processor core (111, 1120) and to provide the intermediate states outside of the block-based processor core (111, 1120) only during the debug mode.
Method of determining a sign of a load current (i_L) in a bridge circuit with at least one power semiconductor circuit for determining a temperature of a power semiconductor element, the power semiconductor circuit comprising the power semiconductor element and a temperature sensor, wherein the power semiconductor element comprises a gate electrode for controlling the power semiconductor element, a collector electrode, and an emitter electrode, wherein the emitter electrode is electrically connected to a first emitter terminal and the temperature sensor comprises a first measuring point with a measuring terminal and a second measuring point, wherein the second measuring point is electrically coupled to the emitter electrode, such that between the measuring terminal and the first emitter terminal a voltage which is dropping across the temperature sensor for temperature measuring is measurable, and wherein the collector electrode is connected to a freewheeling cathode of a freewheeling diode and the emitter electrode is connected to a freewheeling anode of the freewheeling diode, wherein a voltage (V_fs) between the measuring terminal and the first emitter terminal in a locking state of the power semiconductor element and a voltage (V_fl) between the measuring terminal and the first emitter terminal in the conducting state of the power semiconductor element are detected, the difference V_d = V_fl - V_fs is formed, and, if V_d > 0, it is determined that the load current (i_L) comprises the same sign as the collector current (i_c) and otherwise comprises the opposite sign of the collector current (i_c). wherein the power semiconductor element comprises a gate electrode for controlling the power semiconductor element, a collector electrode, and an emitter electrode, wherein the emitter electrode is electrically connected to a first emitter terminal and the temperature sensor comprises a first measuring point with a measuring terminal and a second measuring point, wherein the second measuring point is electrically coupled to the emitter electrode, such that between the measuring terminal and the first emitter terminal a voltage which is dropping across the temperature sensor for temperature measuring is measurable, and wherein the collector electrode is connected to a freewheeling cathode of a freewheeling diode and the emitter electrode is connected to a freewheeling anode of the freewheeling diode, wherein a voltage (V_fs) between the measuring terminal and the first emitter terminal in a locking state of the power semiconductor element and a voltage (V_fl) between the measuring terminal and the first emitter terminal in the conducting state of the power semiconductor element are detected, the difference V_d = V_fl - V_fs is formed, and, if V_d > 0, it is determined that the load current (i_L) comprises the same sign as the collector current (i_c) and otherwise comprises the opposite sign of the collector current (i_c).
A stretcher with a mobile foldable construction comprising a frame formed by two parallel longitudinal girders mutually connected at both their ends by cross beams (26, 26'); the frame being provided by castors and by a mobile foldable construction mounted to the frame, the mobile foldable construction being formed by a pair of front legs mutually connected by a front connecting arm and provided with front castors, the front legs being mounted on the front pivot axis with possibility of pivotal movement relative to the frame; the frame being further provided by a pair of rear legs mutually connected by a rear connecting arm, the rear legs being provided with rear castors and mounted on the rear pivot axis with possibility of pivotal movement relative to the frame, wherein the front legs and the rear legs are angularly adjustable relative to the frame by means of gas springs (10, 12) engaging the connecting arms (9, 9') and they are at the same time foldable in a loading position so that they lie parallelly with the frame, wherein the front legs and the rear legs are directed in the loading position to the rear end of the frame characterized in that at least one gas spring (10, 12) is arranged in the frame between the longitudinal girders and parallel therewith and does not extend beyond the outline of the longitudinal girders and the moving member of the gas spring (10, 12) is connected with a carrier (18, 19) slidably retained in at least one longitudinal girder, the carrier (18, 19) being connected, by means of a strut (20, 21) pivotally retained at both its ends, with the front connecting arm or with the rear connecting arm or with at least one leg (6, 7).
A gas turbine engine shroud comprising: a first annular ceramic wall having an inner side for resisting high temperature turbine engine gases and an outer side with a plurality of radial slots; and a second annular metallic wall positioned radially outward of and enclosing the first annular ceramic wall and having a plurality of radial tabs in communication with the slots of the first annular ceramic wall such that the first annular ceramic wall and second annular metallic wall are affixed; characterized in that at least one of the tabs includes an opening through at least one of the tabs wherein the ductility of the at least one of the tabs is enhanced, wherein the opening extends into the second annular metallic wall a first annular ceramic wall having an inner side for resisting high temperature turbine engine gases and an outer side with a plurality of radial slots; and a second annular metallic wall positioned radially outward of and enclosing the first annular ceramic wall and having a plurality of radial tabs in communication with the slots of the first annular ceramic wall such that the first annular ceramic wall and second annular metallic wall are affixed; characterized in that at least one of the tabs includes an opening through at least one of the tabs wherein the ductility of the at least one of the tabs is enhanced, wherein the opening extends into the second annular metallic wall
Method for determining print parameters of a printing machine, comprising the following steps: a) providing a print forme and mounting the print forme on a printing cylinder; b) recording at least one high-resolution image of the surface of the print forme by means of a 3D camera; c) determining a height profile of the print forme from the at least one high-resolution image; d) calculating a simulated print image using the height profile and an initial set of print parameters; characterised by the following step e) determining optimised print parameters by varying the print parameters of the initial set; or by checking and varying the print parameters of the initial set wherein in step e), after varying the print parameters, a simulated print image is calculated again according to step d). a) providing a print forme and mounting the print forme on a printing cylinder; b) recording at least one high-resolution image of the surface of the print forme by means of a 3D camera; c) determining a height profile of the print forme from the at least one high-resolution image; d) calculating a simulated print image using the height profile and an initial set of print parameters; characterised by the following step e) determining optimised print parameters by varying the print parameters of the initial set; or by checking and varying the print parameters of the initial set
A power storage device comprising: a first case that accommodates a plurality of stacked first power storage cells; and a second case that accommodates a plurality of stacked second power storage cells, wherein: a first reinforcement portion (120, 30A) extending in a first direction is provided inside the first case, a second reinforcement portion (220, 30B) extending in a second direction intersecting the first direction is provided inside the second case, the first case and the second case are provided to overlap with each other along a third direction intersecting the first direction and the second direction, and are joined to each other, the plurality of stacked first power storage cells are provided at both sides of the first reinforcement portion (120, 30A) in the second direction, and the plurality of stacked second power storage cells are provided at both sides of the second reinforcement portion (220, 30B) in the first direction, characterized in that a stacking direction of the first power storage cells in the first case is substantially orthogonal to a stacking direction of the second power storage cells in the second case. a first case that accommodates a plurality of stacked first power storage cells; and a second case that accommodates a plurality of stacked second power storage cells, wherein: a first reinforcement portion (120, 30A) extending in a first direction is provided inside the first case, a second reinforcement portion (220, 30B) extending in a second direction intersecting the first direction is provided inside the second case, the first case and the second case are provided to overlap with each other along a third direction intersecting the first direction and the second direction, and are joined to each other, the plurality of stacked first power storage cells are provided at both sides of the first reinforcement portion (120, 30A) in the second direction, and the plurality of stacked second power storage cells are provided at both sides of the second reinforcement portion (220, 30B) in the first direction, characterized in that a stacking direction of the first power storage cells in the first case is substantially orthogonal to a stacking direction of the second power storage cells in the second case.
A device for preloading a bearing configuration for a pinion shaft, comprising a pinion with a shaft which has gear teeth at its one end and a keyed fastening at its other end to accommodate a propeller shaft driver, a bearing configuration which comprises at least one bearing (41, 42) fitted in a bearing housing and which supports the shaft, characterised in that a preloading nut which has a collar extending towards the propeller shaft driver, and an internal thread cooperating with an external thread on the shaft, such that the collar of the preloading nut is pressed against, and thereby locked by shape to the shaft, wherein the end of the propeller shaft driver which faces towards the bearing configuration is internally conical so that the collar extends in under the propeller shaft driver with the result that the propeller shaft driver presses the collar against the shaft.
A resin composition for laser direct structuring, comprising, relative to 100 parts by weight of a resin component comprising 30 to 100% by weight of a polycarbonate resin and 70% by weight or less of a styrene-based resin, 10 to 100 parts by weight of a glass filler and 2 to 20 parts by weight of a laser direct structuring additive, wherein the laser direct structuring additive comprises a metal oxide particle comprising titanium oxide coated with a composition comprising tin as a main component and antimony, wherein a content of titanium oxide in the metal oxide particle comprising titanium oxide is 90% by weight or more.
An apparatus for correcting a deviation between a plurality of transmission channels, wherein the plurality of transmission channels comprise a first transmission channel, a second transmission channel, and a correction coupling channel, a first endpoint of the correction coupling channel is connected to the first transmission channel, a second endpoint of the correction coupling channel is connected to the second transmission channel, and the apparatus comprises: a vector detection unit, configured to: when a first signal is fed at the first endpoint, detect a first signal vector based on a first feedback signal of the first transmission channel, and detect a second signal vector based on a second feedback signal of the second transmission channel, wherein the vector detection unit is further configured to: when a second signal is fed at the second endpoint, detect a third signal vector based on a third feedback signal of the first transmission channel, and detect a fourth signal vector based on a fourth feedback signal of the second transmission channel, wherein the second feedback signal and the third feedback signal are propagated in opposite directions on the correction coupling channel; and a processing unit, configured to determine a deviation correction value between the first transmission channel and the second transmission channel based on the detected signal vectors, wherein the deviation correction value is used to correct a deviation between the first transmission channel and the second transmission channel. a vector detection unit, configured to: when a first signal is fed at the first endpoint, detect a first signal vector based on a first feedback signal of the first transmission channel, and detect a second signal vector based on a second feedback signal of the second transmission channel, wherein the vector detection unit is further configured to: when a second signal is fed at the second endpoint, detect a third signal vector based on a third feedback signal of the first transmission channel, and detect a fourth signal vector based on a fourth feedback signal of the second transmission channel, wherein the second feedback signal and the third feedback signal are propagated in opposite directions on the correction coupling channel; and a processing unit, configured to determine a deviation correction value between the first transmission channel and the second transmission channel based on the detected signal vectors, wherein the deviation correction value is used to correct a deviation between the first transmission channel and the second transmission channel.
An apparatus for filling a pouch type package with a liquid product, the pouch type package comprising two flexible opposing side walls defining a product compartment communicating with the environment via a filling duct and a separate handle compartment communicating with the environment via a gas inlet arranged in one of the two side walls, wherein the product compartment is adapted to be filled with the liquid product through the filling duct and wherein the handle portion is adapted to be filled with gas through the gas inlet, the apparatus comprising a plurality of stations arranged to consecutively receive and handle the pouch type package, the plurality of stations comprising a filling station for filling the product compartment with the liquid product and comprising a filling tube insertable into the filling duct of the pouch type package, a sealing station for sealing the product compartment after having been filled with the liquid product and comprising a first sealing member arranged to provide the pouch type package with a first seal closing the filling duct, a gas filling station arranged to introduce gas into the handle compartment for inflation thereof and comprising a nozzle applicable over the gas inlet, and a transfer unit comprising a gripping member for retrieving the package from the gas filling station and transferring it to a neighboring down-stream situated station, characterized by a gas sealing unit integrated in the gripping member of the transfer unit, the gas sealing unit comprising a second sealing member arranged to provide the pouch type package with a second seal entrapping gas introduced into the handle compartment.