mhurhangee/ep-ind-claims huggingface dataset:
Cover system (MC2; MC3) for an open-top container body, comprising an array of centerings for supporting a covering tarpaulin, wherein each centering has two feet in contact with, and sliding on, the upper edge of opposite walls of the body, a swinging arm, hinged on the centering placed at the head of the array, called head centering, so as to be able to lower and cover with a portion of tarpaulin one end of the body, an abutment element (40; 60), integral with the body, destined to collide with an element (36; 50) connected to the arm in order to lower the arm when the head centering moves toward the position of the tarpaulin stretched over the body, characterized by the abutment element (60; 120) comprising a first retainer guide or portion (64; 122) in which a cooperating portion of the head centering or the element connected to the arm can slide or enter, e.g. by translating, so that the abutment element (60; 120) operates to retain a portion of the head centering on the body, and the element connected to the arm consists of or comprises a rotating element or a rotatable shaft which is integral with the oscillating arm.
A video processing device for determining, when forming a composite of a first 2.5D video comprising a plurality of frames of images and a second 2.5D video comprising a plurality of frames of images to generate a third video comprising a plurality of frames of images, interference between a first object depicted in the first 2.5D video and a second object depicted in the second 2.5D video, wherein the first 2.5D video is accompanied by a first depth distance, the first depth distance being a distance to the anterior surface of the first object depicted in the first 2.5D video and the second 2.5D video is accompanied by a second depth distance, the second depth distance being a distance to the anterior surface of the second object depicted in the second 2.5D video, the video processing device comprising: a rear-surface depth acquirer for acquiring a first depth distance, the first depth distance being a distance to the rear surface of the first object, and a second depth distance, the second depth distance being a distance to the rear surface of the second object; and an interference determiner for determining, if a first drawing area where the first object should be depicted in a given frame of the third video and a second drawing area where the second object should be depicted in the given frame of the third video overlap, whether or not the first object and the second object interfere, based on overlapping of a first occupancy zone from the first anterior-surface depth to the first rear-surface depth of the first object in an overlap area where the first drawing area and the second drawing area overlap, and a second occupancy zone from the second anterior-surface depth to the second rear-surface depth of the second object in the overlap area where the first drawing area and the second drawing area overlap. a rear-surface depth acquirer for acquiring a first depth distance, the first depth distance being a distance to the rear surface of the first object, and a second depth distance, the second depth distance being a distance to the rear surface of the second object; and an interference determiner for determining, if a first drawing area where the first object should be depicted in a given frame of the third video and a second drawing area where the second object should be depicted in the given frame of the third video overlap, whether or not the first object and the second object interfere, based on overlapping of a first occupancy zone from the first anterior-surface depth to the first rear-surface depth of the first object in an overlap area where the first drawing area and the second drawing area overlap, and a second occupancy zone from the second anterior-surface depth to the second rear-surface depth of the second object in the overlap area where the first drawing area and the second drawing area overlap.
A compensation device for compensating a slope of a construction surface, which device is preferably provided for being placed on or under a pedestal enabling to raise the construction surface, which device comprises a first and a second slope compensation element cooperating with each other for compensating the slope, the first and second slope compensation element being mounted in such a manner as to be able to rotate with respect to each other, each element presents a range having a predetermined number of positions successively placed on a part of the circumference of each slope compensation element, each position each time corresponds to a compensation value (α i) of the slope of the element to which it is associated, characterised in that the device belongs to a set which also comprises a fixing foot having a gripping member, the first and second slope compensation element comprising a first (10-i), respectively a second (23-j), series of windows applied each time on each of the elements, the windows of said first and second series of windows being arranged in such a manner that for each of the positions, where slope compensation value of the first and second slope compensation element corresponds, at least one of the windows of each of the slope compensation elements being positioned such as to be vis-a-vis each other, the windows being dimensioned in such a manner that the gripping member can engage into the windows positioned vis-a-vis each other.
A laser module, comprising: a laser source configured to be coupled to a robotic arm of a robotic device, and emit a laser beam for processing a workpiece having a workpiece surface; at least one air knife configured to be coupled to the robotic arm, and discharge an airflow sheet in a direction toward a laser spot where the laser beam impinges the workpiece surface, for clearing contaminants generated by impingement of the laser beam; and characterized by further comprising at least one de-ionizing device configured to release ions into ambient air proximate the workpiece surface and/or the laser module, to thereby neutralize static buildup and prevent contamination of the workpiece surface and/or one or more sensor windows associated with the laser module. a laser source configured to be coupled to a robotic arm of a robotic device, and emit a laser beam for processing a workpiece having a workpiece surface; at least one air knife configured to be coupled to the robotic arm, and discharge an airflow sheet in a direction toward a laser spot where the laser beam impinges the workpiece surface, for clearing contaminants generated by impingement of the laser beam; and characterized by further comprising at least one de-ionizing device configured to release ions into ambient air proximate the workpiece surface and/or the laser module, to thereby neutralize static buildup and prevent contamination of the workpiece surface and/or one or more sensor windows associated with the laser module.
An extracorporeal blood processing system configured to conduct a user-selected of hemodialysis in a hemodialysis mode of operation or hemofiltration in a hemofiltration mode of operation, the system comprising: a blood circuit 101; a dialysate circuit 102; and a dialyzer having a semi-permeable membrane, wherein the blood circuit is configured to circulate a patient's blood on one side of the semi-permeable membrane of the dialyzer, and the dialysate circuit is configured to circulate dialysate on the other side of the semi-permeable membrane of the dialyzer, whereby the circulation of dialysate provides for regulation and adjustment of the electrolytic concentration in the blood, characterized in that the system comprises a two-way valve that is actuatable by a user to direct dialysate flow either through the dialyzer in the hemodialysis mode of operation or to deliver infusate grade dialysate flow directly to a patient in the hemofiltration mode of operation. a blood circuit 101; a dialysate circuit 102; and a dialyzer having a semi-permeable membrane, the blood circuit is configured to circulate a patient's blood on one side of the semi-permeable membrane of the dialyzer, and the dialysate circuit is configured to circulate dialysate on the other side of the semi-permeable membrane of the dialyzer, whereby the circulation of dialysate provides for regulation and adjustment of the electrolytic concentration in the blood, characterized in that the system comprises a two-way valve that is actuatable by a user to direct dialysate flow either through the dialyzer in the hemodialysis mode of operation or to deliver infusate grade dialysate flow directly to a patient in the hemofiltration mode of operation.
A gelatin-free whippable composition having a gelled structure, wherein the content of water-soluble carbohydrates is lower than 24 wt.%, and wherein the composition comprises: a) 0.1-1.5 wt.% of emulsifier or combination of emulsifiers, b) 0.05-1.5 wt.% of gel forming polysaccharide, and c) 1.5-5 wt.% of modified starch, wherein at least a part of the modified starch is present in the form of starch granules, wherein more than 33 % of the starch granules are present in the form of intact starch granules, and wherein at least 10 % of the starch granules are present in the form of broken starch granules and wherein the modified starch comprises a combination of at least a first starch and a second starch, wherein the starch granules of the first starch do not break upon homogenizing and/or heating, and more than half of the starch granules of the second starch do break upon homogenizing and/or heating. a) 0.1-1.5 wt.% of emulsifier or combination of emulsifiers, b) 0.05-1.5 wt.% of gel forming polysaccharide, and c) 1.5-5 wt.% of modified starch, wherein at least a part of the modified starch is present in the form of starch granules, wherein more than 33 % of the starch granules are present in the form of intact starch granules, and wherein at least 10 % of the starch granules are present in the form of broken starch granules and wherein the modified starch comprises a combination of at least a first starch and a second starch, wherein the starch granules of the first starch do not break upon homogenizing and/or heating, and more than half of the starch granules of the second starch do break upon homogenizing and/or heating.
An input display device comprising: a display configured to display an image; a capacitive touch panel configured to be attached onto the display and include at least one three-dimensional operation portion on a surface of the touch panel; and a detection unit configured to detect an operation on the touch panel, wherein the three-dimensional operation portion includes a pulling portion imitating a shape of a pulling type switch, and the detection unit is configured to determine whether or not there is a pulling operation by detecting a change in a capacitance in response to a change in a distance to the touch panel from a finger touching the pulling portion. a display configured to display an image; a capacitive touch panel configured to be attached onto the display and include at least one three-dimensional operation portion on a surface of the touch panel; and a detection unit configured to detect an operation on the touch panel, wherein the three-dimensional operation portion includes a pulling portion imitating a shape of a pulling type switch, and the detection unit is configured to determine whether or not there is a pulling operation by detecting a change in a capacitance in response to a change in a distance to the touch panel from a finger touching the pulling portion.
A method for making naphthenic process oils, the method comprising: a1) vacuum distilling naphthenic crude residual bottoms from a naphthenic crude atmospheric distillation unit to provide one or more naphthenic vacuum gas oils in one or more viscosity ranges and having a viscosity-gravity constant from 0.855 to 0.895; or a2) atmospheric distilling naphthenic crude to provide one or more naphthenic atmospheric gas oils in one or more viscosity ranges and naphthenic crude residual bottoms; and vacuum distilling the naphthenic crude residual bottoms to provide one or more naphthenic vacuum gas oils in one or more additional viscosity ranges and having a viscosity-gravity constant from 0.855 to 0.895; b) blending at least one such vacuum gas oil having a viscosity-gravity constant from 0.855 to 0.895 with a high aromatic carbon (C A) content feedstock selected from ethylene cracker bottoms, slurry oil, heavy cycle oil and light cycle oil to provide at least one blended oil; and c) hydrotreating the at least one blended oil to provide an enhanced C A content naphthenic process oil; wherein the high C A content feedstock and enhanced C A content naphthenic process oil each have greater C A content than that of a comparison oil made by similarly hydrotreating the same one or more naphthenic vacuum gas oils alone without the blending step b), and wherein the term "high C A content feedstock" refers to a liquid material having a viscosity-gravity constant greater than 0.95 as determined by ASTM D2501. a1) vacuum distilling naphthenic crude residual bottoms from a naphthenic crude atmospheric distillation unit to provide one or more naphthenic vacuum gas oils in one or more viscosity ranges and having a viscosity-gravity constant from 0.855 to 0.895; or a2) atmospheric distilling naphthenic crude to provide one or more naphthenic atmospheric gas oils in one or more viscosity ranges and naphthenic crude residual bottoms; and vacuum distilling the naphthenic crude residual bottoms to provide one or more naphthenic vacuum gas oils in one or more additional viscosity ranges and having a viscosity-gravity constant from 0.855 to 0.895; b) blending at least one such vacuum gas oil having a viscosity-gravity constant from 0.855 to 0.895 with a high aromatic carbon (C A) content feedstock selected from ethylene cracker bottoms, slurry oil, heavy cycle oil and light cycle oil to provide at least one blended oil; and c) hydrotreating the at least one blended oil to provide an enhanced C A content naphthenic process oil;
A method for producing a hepatic stem cell comprising Steps and below: introducing and expressing a gene encoding at least one protein selected from the group consisting of cyclin-dependent kinase 4 and cyclin-dependent kinase 6, in a hepatic cell population; and culturing the cell obtained in Step in the presence of an extracellular growth factor selected from the group consisting of epithelial growth factor, hepatocyte growth factor, vascular endothelial growth factor (VEGF), fibroblast growth factor and insulin. introducing and expressing a gene encoding at least one protein selected from the group consisting of cyclin-dependent kinase 4 and cyclin-dependent kinase 6, in a hepatic cell population; and culturing the cell obtained in Step in the presence of an extracellular growth factor selected from the group consisting of epithelial growth factor, hepatocyte growth factor, vascular endothelial growth factor (VEGF), fibroblast growth factor and insulin.
Packaging element for packing a household appliance, wherein the packaging element has a base area, wherein the packaging element has a first side area and a second side area, which are embodied in one piece with the base area, and which are connected in a foldable manner to the base area in each case, and wherein when the packaging element is in a folded state the first side area and the second side area extend at an angle in each case from the base area, wherein the first side area has a receiving opening, and wherein the second side area has an insertion element, which is embodied to be received in the receiving opening of the first side area when the packaging element is in a folded state, in order to connect the first and second side areas (117, 119) in a form-fit manner with one another, wherein the second side area has a second base area section, which is connected in a foldable manner with the base area, and wherein the second side area has an insertion section, which is connected in a foldable manner with the second base area section, wherein the insertion section has the insertion element, and wherein when the packaging element is in a folded state in particular the insertion section of the second side area and the first side area overlap at least in sections, wherein the second base area section is connected in a foldable manner with the base area by means of a second side bending edge, and wherein the insertion section is connected in a foldable manner with the second base area section by means of an insertion section bending edge, wherein the second side bending edge and the insertion section bending edge extend at an angle, in particular orthogonally to one another, wherein the second base area section has a connection section, which is connected to the insertion section, wherein the insertion section is connected in a foldable manner with the connection section by means of the insertion section bending edge, wherein the connection section can be folded about a connection section bending edge, in order, when the packaging element is in a compact state, to bring the first and second side area (117, 119) into contact with the base area, wherein the connection section bending edge extends in particular at an angle to the second side bending edge and/or in particular at an angle to the insertion section bending edge, characterised in that the first side area has a second receiving opening, and that the insertion element, when the packaging element is in a folded state, is received in the receiving opening of the first side area and in the second receiving opening of the first side area, wherein the second receiving opening is embodied in particular as an angled receiving slot, wherein the insertion element has a first insertion tip, which, when the packaging element is in a folded state, is received in the receiving opening, and wherein the insertion element has a second insertion tip, which, when the packaging element is in a folded state, is received in the second receiving opening.
A method of reducing leakage of side-channel information in a communication channel, comprising: generating a dithered clock signal comprising a succession of clock pulse segments, each clock pulse segment having alternating clock pulses at a different respective frequency selected in response to a first random number, each clock pulse segment further having a different overall duration selected in response to a second random number, the different respective frequency of each clock pulse segment generated by supplying the first random number to a lookup table as a data structure that stores a plurality of different frequency values in a memory, the overall duration of each clock pulse segment generated by supplying the second random number to a timer circuit; and using the dithered clock signal to clock a programmable processor having programming stored in a memory during execution of a cryptographic function involving multiple logical computations to arrive at an output value responsive to an input value over an overall time interval from receipt of the input value to generation of the output value. generating a dithered clock signal comprising a succession of clock pulse segments, each clock pulse segment having alternating clock pulses at a different respective frequency selected in response to a first random number, each clock pulse segment further having a different overall duration selected in response to a second random number, the different respective frequency of each clock pulse segment generated by supplying the first random number to a lookup table as a data structure that stores a plurality of different frequency values in a memory, the overall duration of each clock pulse segment generated by supplying the second random number to a timer circuit; and using the dithered clock signal to clock a programmable processor having programming stored in a memory during execution of a cryptographic function involving multiple logical computations to arrive at an output value responsive to an input value over an overall time interval from receipt of the input value to generation of the output value.
An organic electronic device comprising an anode layer, a cathode layer and at least one organic semiconductor layer, wherein the at least one organic semiconductor layer is arranged between the anode layer and the cathode layer; and wherein the at least one organic semiconductor layer comprises a composition comprising a compound of formula and at least one compound of formula Wherein - B 1 is selected of formula (IIIa) - B 2 is selected of formula (IIIb) - B 3 is selected of formula (IIIc) wherein A 1, A 3 and A 5 are independently selected from CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy, substituted or unsubstituted C 6 to C 18 aryl or C 2 to C 18 heteroaryl, wherein the substituents are selected from F, Cl, CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy; and A 2, A 4 and A 6 are independently selected from substituted or unsubstituted C 6 to C 18 aryl or substituted or unsubstituted C 2 to C 18 heteroaryl, wherein the substituents are selected from F, Cl, CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy; and the compound of formula is different from the compound of formula. - B 1 is selected of formula (IIIa) - B 2 is selected of formula (IIIb) - B 3 is selected of formula (IIIc) wherein A 1, A 3 and A 5 are independently selected from CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy, substituted or unsubstituted C 6 to C 18 aryl or C 2 to C 18 heteroaryl, wherein the substituents are selected from F, Cl, CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy; and A 2, A 4 and A 6 are independently selected from substituted or unsubstituted C 6 to C 18 aryl or substituted or unsubstituted C 2 to C 18 heteroaryl, wherein the substituents are selected from F, Cl, CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy; and the compound of formula is different from the compound of formula. A 1, A 3 and A 5 are independently selected from CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy, substituted or unsubstituted C 6 to C 18 aryl or C 2 to C 18 heteroaryl, wherein the substituents are selected from F, Cl, CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy; and A 2, A 4 and A 6 are independently selected from substituted or unsubstituted C 6 to C 18 aryl or substituted or unsubstituted C 2 to C 18 heteroaryl, wherein the substituents are selected from F, Cl, CN, partially or fully fluorinated C 1 to C 6 alkyl, partially or fully fluorinated C 1 to C 6 alkoxy; and the compound of formula is different from the compound of formula.