mhurhangee/ep-ind-claims huggingface dataset:
A display device (100, 200) for displaying a two-dimensional or a three-dimensional image, the display device comprising: an image display determination unit which is arranged to determine whether an input image sequence having a first frame rate is a 2D input image sequence or a 3D input image sequence; and a 3D frame rate conversion unit which is arranged to: receive the 3D input image sequence having the first frame rate if the image display determination unit determines that the input image sequence is the 3D input image sequence, generate a first 3D output image sequence having a second frame rate which is double the first frame rate by using the 3D input image sequence, wherein the first 3D output image sequence comprises left-view point images and right-view point images alternately repeated, and generate a second 3D output image sequence having a third frame rate which is four times the first frame rate by including the first 3D output image sequence and black images, wherein each of the black images is inserted between a left-view point image and a right-view point image in the first 3D output image sequence to generate the 3D output image sequence having the third frame rate. an image display determination unit which is arranged to determine whether an input image sequence having a first frame rate is a 2D input image sequence or a 3D input image sequence; and a 3D frame rate conversion unit which is arranged to: receive the 3D input image sequence having the first frame rate if the image display determination unit determines that the input image sequence is the 3D input image sequence, generate a first 3D output image sequence having a second frame rate which is double the first frame rate by using the 3D input image sequence, wherein the first 3D output image sequence comprises left-view point images and right-view point images alternately repeated, and generate a second 3D output image sequence having a third frame rate which is four times the first frame rate by including the first 3D output image sequence and black images, wherein each of the black images is inserted between a left-view point image and a right-view point image in the first 3D output image sequence to generate the 3D output image sequence having the third frame rate. receive the 3D input image sequence having the first frame rate if the image display determination unit determines that the input image sequence is the 3D input image sequence, generate a first 3D output image sequence having a second frame rate which is double the first frame rate by using the 3D input image sequence, wherein the first 3D output image sequence comprises left-view point images and right-view point images alternately repeated, and generate a second 3D output image sequence having a third frame rate which is four times the first frame rate by including the first 3D output image sequence and black images, wherein each of the black images is inserted between a left-view point image and a right-view point image in the first 3D output image sequence to generate the 3D output image sequence having the third frame rate.
A container for consumer articles, the container comprising: a box portion comprising a box front wall, a box rear wall and two box side walls extending between the box front wall and the box rear wall; an inner frame comprising an inner frame front wall and inner frame side walls, wherein the inner frame front wall is arranged parallel and at a predefined distance to the box front wall, wherein the container further comprises an additional flap comprising at least two opposing side edges (52, 54), the first side edge being attached to an upper edge of the box front wall, the second side edge contacting a lower edge of the inner frame front wall, wherein the additional flap is hingedly connected to the upper edge of the box front wall; characterized in that the lower edge of the inner frame front wall is at the same height as the upper edge of the box front wall, such that the additional flap extending between the upper edge of the box front wall and the lower edge of the inner frame front wall is oriented orthogonal to the box front wall and the inner frame front wall. a box portion comprising a box front wall, a box rear wall and two box side walls extending between the box front wall and the box rear wall; an inner frame comprising an inner frame front wall and inner frame side walls, wherein the inner frame front wall is arranged parallel and at a predefined distance to the box front wall, wherein the container further comprises an additional flap comprising at least two opposing side edges (52, 54), the first side edge being attached to an upper edge of the box front wall, the second side edge contacting a lower edge of the inner frame front wall, wherein the additional flap is hingedly connected to the upper edge of the box front wall;
An oral pharmaceutical composition comprising multiple populations of at least one of beads, pellets, tablets and granules provided in a capsule, the composition comprising: (i) a first population of a pharmaceutical active comprising an acid labile drug and a disintegrating agent, wherein the acid labile drug is rapidly releasable at a first rate in the stomach, wherein the first population is selected from the group consisting of: a population of beads, a population of pellets, a population of tablets, a population of granules, and any combination thereof; (ii) a second population of a pharmaceutical active comprising a pharmaceutical active substance and a sustained release agent, wherein the pharmaceutical active substance is releasable at a second rate slower than the first rate between the duodenum and just past the ileocecal junction, wherein the second population is selected from the group consisting of: a population of beads, a population of pellets, a population of tablets, a population of granules, and any combination thereof; and (iii) a population of a basic substance that is rapidly releasable in the stomach and increases the stomach pH to more than about 4 and less than about 7 in less than about 1 hour, wherein the population of the basic substance excludes said acid labile drug and said pharmaceutical active substance, the population of the basic substance being selected from the group consisting of: a population of beads, a population of pellets, a population of tablets, a population of granules, and any combination thereof. (i) a first population of a pharmaceutical active comprising an acid labile drug and a disintegrating agent, wherein the acid labile drug is rapidly releasable at a first rate in the stomach, wherein the first population is selected from the group consisting of: a population of beads, a population of pellets, a population of tablets, a population of granules, and any combination thereof; (ii) a second population of a pharmaceutical active comprising a pharmaceutical active substance and a sustained release agent, wherein the pharmaceutical active substance is releasable at a second rate slower than the first rate between the duodenum and just past the ileocecal junction, wherein the second population is selected from the group consisting of: a population of beads, a population of pellets, a population of tablets, a population of granules, and any combination thereof; and (iii) a population of a basic substance that is rapidly releasable in the stomach and increases the stomach pH to more than about 4 and less than about 7 in less than about 1 hour, wherein the population of the basic substance excludes said acid labile drug and said pharmaceutical active substance, the population of the basic substance being selected from the group consisting of: a population of beads, a population of pellets, a population of tablets, a population of granules, and any combination thereof.
A diesel fuel composition comprising: a. a renewable paraffinic diesel component 20-95 vol-% of the total diesel fuel composition volume, the renewable paraffinic diesel component comprising i-paraffins and n-paraffins in a weight ratio of i-paraffins to n-paraffins of at least 2.2, and paraffins in the range of carbon number C15-C18 at least 70 wt-% of the total weight of paraffins in the renewable paraffinic diesel component; and b. oxymethylene ethers having molecular structure CH 3 O-(CH 2 O) n -CH 3, with n=3-5 (OME3-5), 5-80 vol-% of the total diesel fuel composition volume. a. a renewable paraffinic diesel component 20-95 vol-% of the total diesel fuel composition volume, the renewable paraffinic diesel component comprising i-paraffins and n-paraffins in a weight ratio of i-paraffins to n-paraffins of at least 2.2, and paraffins in the range of carbon number C15-C18 at least 70 wt-% of the total weight of paraffins in the renewable paraffinic diesel component; and b. oxymethylene ethers having molecular structure CH 3 O-(CH 2 O) n -CH 3, with n=3-5 (OME3-5), 5-80 vol-% of the total diesel fuel composition volume.
A device for receiving and positioning a workpiece for processing, the device comprising: a segmented workpiece receiving plate for the workpiece, wherein the segmented workpiece receiving plate comprises at least two separate workpiece receiving plate segments (2, 3, 4, 5, 6, 7, 8) which neither are nor can be coupled to each other; and at least one actuator (11, 12, 13, 14, 15, 16, 17) which is coupled to the workpiece receiving plate segments (2, 3, 4, 5, 6, 7, 8), characterised in that the at least one actuator is a robot which comprises a robot arm and a connecting element for each workpiece receiving plate segment (2, 3, 4, 5, 6, 7, 8) borne by it, wherein the workpiece receiving plate segments (2, 3, 4, 5, 6, 7, 8) can be moved freely in space, independently of each other, by the at least one actuator (11, 12, 13, 14, 14, 16, 17).
Method for the production of a composite, fibre-reinforced carbon-ceramic material comprising at least the following operating steps: a) preparing a mixture comprising at least reinforcing fibres and an organic agglomerating binder; b) forming the mixture to obtain a semi-finished product; c) infiltrating the semi-finished product with molten silicon, subjecting the semi-finished product to a firing in the presence of silicon at a temperature such as substantially to bring about the fusion of said silicon and its infiltration into said semi-finished product thus obtaining a composite, fibre-reinforced carbon-ceramic material, characterised in that said organic agglomerating binder, essential for the forming of such material, is present between 15% and 25% by weight of said mixture and comprises cellulose, methyl cellulose or a mixture of cellulose and methyl cellulose and is added to said mixture together with water and in that said forming step is conducted at a temperature not exceeding 100 °C, wherein said organic agglomerating binder additive consists only of cellulose, methyl cellulose or a mixture of cellulose and methyl cellulose and wherein said step c) of infiltration with molten silicon is conducted immediately after the forming step b), without intermediate thermal treatments. a) preparing a mixture comprising at least reinforcing fibres and an organic agglomerating binder; b) forming the mixture to obtain a semi-finished product; c) infiltrating the semi-finished product with molten silicon, subjecting the semi-finished product to a firing in the presence of silicon at a temperature such as substantially to bring about the fusion of said silicon and its infiltration into said semi-finished product thus obtaining a composite, fibre-reinforced carbon-ceramic material,
A Global Navigation Satellite System (GNSS) receiver of a client device configured to receive one or more GNSS satellite signals from one or more GNSS satellites, the GNSS receiver comprising: one or more processors configured to: receive, from a first correction system, first correction data including at least a first orbit correction value, a first clock correction value, and a first code or phase bias correction value; sum the first orbit correction value, the first clock correction value, and the first code or phase bias correction value to produce a first full range-level correction value; receive, from a second correction system, second correction data including at least a second orbit correction value, a second clock correction value, a second code or phase bias correction value, and an atmospheric correction value; sum the second orbit correction value, the second clock correction value, and the second code or phase bias correction value to produce a second full range-level correction value; calculate a full range-level difference correction value as a difference between the second full range-level correction value and the first full range-level correction value; adjust the atmospheric correction value, received from the second correction system, utilizing the full range-level difference correction value to produce an adjusted atmospheric correction value; and calculate a position utilizing the GNSS satellite signals, the first correction data, and the adjusted atmospheric correction value. receive, from a first correction system, first correction data including at least a first orbit correction value, a first clock correction value, and a first code or phase bias correction value; sum the first orbit correction value, the first clock correction value, and the first code or phase bias correction value to produce a first full range-level correction value; receive, from a second correction system, second correction data including at least a second orbit correction value, a second clock correction value, a second code or phase bias correction value, and an atmospheric correction value; sum the second orbit correction value, the second clock correction value, and the second code or phase bias correction value to produce a second full range-level correction value; calculate a full range-level difference correction value as a difference between the second full range-level correction value and the first full range-level correction value; adjust the atmospheric correction value, received from the second correction system, utilizing the full range-level difference correction value to produce an adjusted atmospheric correction value; and calculate a position utilizing the GNSS satellite signals, the first correction data, and the adjusted atmospheric correction value.
A rotorcraft (100, 200, 300), comprising: a body, including a front portion and a tail portion having a shroud including a primary duct and a secondary duct disposed adjacent to the primary duct, each of the primary duct and the secondary duct extend transversely through the shroud; a main rotor system coupled to the front portion of the body, the main rotor system operable to provide a lifting force on the body; an anti-torque system (120, 220, 320) coupled to the tail portion of the body, the anti-torque system (120, 220, 320) comprising a primary tail rotor system (130, 330) disposed in the primary duct and a secondary tail rotor system (140, 240) disposed in the secondary duct; and an electrical power supply coupled to the body, the electrical power supply being conductively connected to the secondary tail rotor system (140, 240) to provide electrical power thereto; wherein the primary tail rotor system (130, 330) and the secondary tail rotor system (140, 240) are operable to provide a first anti-torque force and a second anti-torque force; the rotorcraft further comprising a powertrain coupled to the body and an engine for supplying torque to the main rotor system; characterized in that the rotorcraft further comprises a tail rotor drive shaft coupled to the engine, the tail rotor drive shaft being connected to provide mechanical power to the primary tail rotor system (130, 330). a body, including a front portion and a tail portion having a shroud including a primary duct and a secondary duct disposed adjacent to the primary duct, each of the primary duct and the secondary duct extend transversely through the shroud; a main rotor system coupled to the front portion of the body, the main rotor system operable to provide a lifting force on the body; an anti-torque system (120, 220, 320) coupled to the tail portion of the body, the anti-torque system (120, 220, 320) comprising a primary tail rotor system (130, 330) disposed in the primary duct and a secondary tail rotor system (140, 240) disposed in the secondary duct; and an electrical power supply coupled to the body, the electrical power supply being conductively connected to the secondary tail rotor system (140, 240) to provide electrical power thereto; wherein the primary tail rotor system (130, 330) and the secondary tail rotor system (140, 240) are operable to provide a first anti-torque force and a second anti-torque force; the rotorcraft further comprising a powertrain coupled to the body and an engine for supplying torque to the main rotor system; characterized in that the rotorcraft further comprises a tail rotor drive shaft coupled to the engine, the tail rotor drive shaft being connected to provide mechanical power to the primary tail rotor system (130, 330).
An RFID reading tunnel for identifying objects by means of RFID with at least one RFID reading device having at least one RFID antenna, with a screen for electromagnetic radiation of the RFID antenna, the screen forms the tunnel and has side walls and a cover part, a placing down device or conveying device for the object in or through the tunnel, characterized in that the screen is formed by modules (30-1, 30-2) which can be connected to one another variably and releasable; and wherein the modules (30-1, 30-2) are selected from a kit of predefined modules (30-1, 30-2) comprising a tub-like base body wherein at least one of the predefined modules is a screen module in which base body the antenna is arranged.
A multi-barrier system for the removal of pathogenic microbes from waste water comprising a first water container, an adjustable ozonation unit, a second water container and a UV unit, wherein the first water container comprises an ozone-resistant filtration unit containing at least one membrane plate of a porous oxidic ceramic, wherein the membrane plate has a coating outside and at least one channel inside for the drainage of the filtrate, wherein the pores of the membrane plate have an average diameter of between 1 μm and 10 μm and the coating comprises at least one separating layer consisting partially of nanoscale and/or microscale oxidic particles, wherein the at least one channel of the membrane plate is connected with the second water container such that the filtrate can be transferred into the second water container, wherein the adjustable ozonation unit is coupled with a connectable sprinkler system, wherein the ozone outlet of the ozonation unit is installed in the first water container and the outlet of the sprinkler system is located above the water level of the first water container, wherein the UV unit is installed such that the filtrate in the second water container is irradiated by the UV unit, and wherein the first water container, the filtration unit, the adjustable ozonation unit, the second water container and the UV unit are placed in a closed containment.
A fine resin powder composed of a 4-methyl-1-pentene polymer having an intrinsic viscosity [η] ranging from 1.0 x 10 -2 to less than 5.0 x 10 -1 dl/g as measured in decalin at 135°C, wherein the fine resin powder has a mean particle diameter D 50 ranging from 1.0 x 10 -1 to 5.0 x 10 1 μm as measured according to the method disclosed in the passage of the specification titled "Measurement of particle size distribution".
A method executed within the control system for controlling operations of a powered system comprising operational entities arranged in a Time Sensitive Network, TSN, the TSN having a network topology, the method comprising: determining a set of data flow permutations corresponding to the network topology; computing a respective full schedule corresponding to each data flow permutation of the set of flow permutations; determining a respective time duration to compute the full schedule for each data flow permutation of the set of data flow permutations; computing a respective partial schedule for each data flow permutation of the set of flow permutations, wherein the partial schedule acts as a hash for its corresponding full schedule; selecting a data flow permutation of the set of data flow permutations based at least in part on the respective time duration to compute the full schedule for the selected data flow permutation; and saving the selected data flow permutation to a memory, further comprising determining a first amount of memory to save each respective full schedule; and determining a second amount of memory to save each respective partial schedule, wherein the selecting a data flow permutation of the set of data flow permutations is based at least in part on the determined respective time duration to compute the full schedule for the selected data flow permutation, the first amount of memory to save the respective full schedule, and the second amount of memory to save the partial schedule for the selected data flow permutation. determining a set of data flow permutations corresponding to the network topology; computing a respective full schedule corresponding to each data flow permutation of the set of flow permutations; determining a respective time duration to compute the full schedule for each data flow permutation of the set of data flow permutations; computing a respective partial schedule for each data flow permutation of the set of flow permutations, wherein the partial schedule acts as a hash for its corresponding full schedule; selecting a data flow permutation of the set of data flow permutations based at least in part on the respective time duration to compute the full schedule for the selected data flow permutation; and saving the selected data flow permutation to a memory, further comprising determining a first amount of memory to save each respective full schedule; and determining a second amount of memory to save each respective partial schedule, wherein the selecting a data flow permutation of the set of data flow permutations is based at least in part on the determined respective time duration to compute the full schedule for the selected data flow permutation, the first amount of memory to save the respective full schedule, and the second amount of memory to save the partial schedule for the selected data flow permutation.