mhurhangee/ep-ind-claims huggingface dataset:
A vacuum cleaner comprising: a main casing; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheels to thereby make the main casing autonomously travel, a cleaning unit for cleaning a cleaning-object surface; image pickup means (51, 52) disposed apart from each other in the main casing and serving for picking up images on a traveling-direction side of the main casing with their fields of view overlapping with each other; and calculation means for calculating a depth of an object distanced from the image pickup means (51, 52) based on images picked up by the image pickup means (51, 52), characterized in that the vacuum cleaner further comprises: a discrimination part for discriminating whether or not the object is an obstacle based on the depth of the object calculated by the calculation means, and in that the discrimination part is configured to detect gaps in the heightwise direction which the main casing can enter. a main casing; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheels to thereby make the main casing autonomously travel, a cleaning unit for cleaning a cleaning-object surface; image pickup means (51, 52) disposed apart from each other in the main casing and serving for picking up images on a traveling-direction side of the main casing with their fields of view overlapping with each other; and calculation means for calculating a depth of an object distanced from the image pickup means (51, 52) based on images picked up by the image pickup means (51, 52), characterized in that the vacuum cleaner further comprises: a discrimination part for discriminating whether or not the object is an obstacle based on the depth of the object calculated by the calculation means, and in that the discrimination part is configured to detect gaps in the heightwise direction which the main casing can enter.
A feed additive composition for ruminants comprising at least one selected from hydrogenated vegetable oil and hydrogenated animal oil each having a melting point of higher than 50°C and lower than 90°C, not less than 0.01 wt% and not more than 6 wt% of a surfactant, not less than 16 wt% and not more than 72 wt% of a biologically active substance, which excludes L-lysine and a salt thereof, and not less than 1 wt% and not more than 40 wt% of L-lysine or a salt thereof. at least one selected from hydrogenated vegetable oil and hydrogenated animal oil each having a melting point of higher than 50°C and lower than 90°C, not less than 0.01 wt% and not more than 6 wt% of a surfactant, not less than 16 wt% and not more than 72 wt% of a biologically active substance, which excludes L-lysine and a salt thereof, and not less than 1 wt% and not more than 40 wt% of L-lysine or a salt thereof.
Accumulator of logs in sheet material to be placed between an upstream log production line and a downstream line for subsequent processing, such as cutting into rolls of predetermined width, comprising a plurality of channels for supporting and moving the logs between an inlet station and an outlet station along a closed loop path determined by chains forming a plurality of serpentines, characterised in that said accumulator has, at said inlet station, a system of static weighing of the logs.
A display device comprising: a display panel; a first force sensor disposed under the display panel; a first waterproof member disposed under the display panel, disposed on one side of the first force sensor, the one side being closer to an edge of one side of the display panel than other side surfaces of the display panel and comprising a base film, a first adhesive layer disposed on an upper surface of the base film, and a second adhesive layer disposed on a lower surface of the base film; a frame disposed under the first force sensor, and a panel support member disposed under the display panel; wherein the first waterproof member is attached to a lower surface of the panel support member using the first adhesive layer and an upper surface of the frame using the second adhesive layer, wherein the first adhesive layer and the second adhesive layer are pressure sensitive adhesives, and wherein a height of the first waterproof member is larger than a height of the first force sensor. a display panel; a first force sensor disposed under the display panel; a first waterproof member disposed under the display panel, disposed on one side of the first force sensor, the one side being closer to an edge of one side of the display panel than other side surfaces of the display panel and comprising a base film, a first adhesive layer disposed on an upper surface of the base film, and a second adhesive layer disposed on a lower surface of the base film; a frame disposed under the first force sensor, and a panel support member disposed under the display panel; wherein the first waterproof member is attached to a lower surface of the panel support member using the first adhesive layer and an upper surface of the frame using the second adhesive layer, wherein the first adhesive layer and the second adhesive layer are pressure sensitive adhesives, and wherein a height of the first waterproof member is larger than a height of the first force sensor.
An active energy ray curable aqueous ink composition comprising at least water, a coloring material, a polymerizable substance which undergoes radical polymerization by an active energy ray, and a polymerization initiator which generates a radical by an active energy ray, wherein the polymerizable substance is a water-soluble compound represented by the following general formula, and the polymerization initiator is a water-soluble acylphosphine oxide compound wherein the content of the polymerizable substance in the ink is 1% to 30% by mass with respect to the total amount of the ink, wherein the content of the polymerization initiator in the ink is 0.1% to 7% by mass with respect to the total amount of the ink, wherein the content of the water in the ink is 40% to 90% by mass with respect to the total amount of the ink; wherein Z represents a residue of a polyol or an epoxy ester of a polyol having (x1+y1) hydroxyl groups, x1 represents an integer of 0 to 2, y1 represents an integer of 2 to 6, and x1+y1 represents an integer of 2 to 6, R 1 each independently represent a hydrogen atom or a methyl group, and R 2 each independently represent an atomic group A represented by the following formula: wherein R 3 each independently represent a hydrogen atom or a methyl group, m1 represents an integer of 1 to 5, and n1 represents 0 or 1.
A method for assessing tissue properties of a subject within a region of interest that includes a breast using a magnetic resonance imaging system, the method including steps comprising: (i) performing a pulse sequence that includes a flip angle selected to control T 1 related bias to acquire confounder-corrected, chemical-shift-encoded imaging data of the ROI that includes the breast; (ii) analyze the confounder-corrected, chemical-shift-encoded imaging data to determine a proton density water fraction (PDWF) map; (iii) using the PDWF map, quantifying a property of tissue within the breast; and (iv) using the PDWF map, generating a report indicating the quantified property of the tissue within the breast. (i) performing a pulse sequence that includes a flip angle selected to control T 1 related bias to acquire confounder-corrected, chemical-shift-encoded imaging data of the ROI that includes the breast; (ii) analyze the confounder-corrected, chemical-shift-encoded imaging data to determine a proton density water fraction (PDWF) map; (iii) using the PDWF map, quantifying a property of tissue within the breast; and (iv) using the PDWF map, generating a report indicating the quantified property of the tissue within the breast.
Roll-straightening machine for straightening material which requires straightening, in particular strips and parts made of metal, having an upper roll framework, on which an upper straightening unit is arranged, having a lower roll framework, which has a machine bed, on which a lower straightening unit is arranged, wherein the upper roll framework can be moved upwards and downwards in relation to the lower roll framework by means of a plurality of preferably hydraulic drives, wherein the upper straightening unit has a plurality of upper straightening rolls and the lower straightening unit has a plurality of lower straightening rolls, wherein the upper straightening rolls are mounted, at both ends, in upper bearing panels and the lower straightening rolls are mounted, at both ends, in lower bearing panels, and at least a plurality of the upper and lower straightening rolls (9, 13) are connected, at one of their ends, to drive shafts (21, 31) of a drive device, and having a plurality of upper and lower supporting rollers (37, 27), which serve for supporting the upper and lower straightening rolls (9, 13), respectively, wherein the upper and lower supporting rollers (37, 27), for their part, are mounted in a plurality of upper supporting-roller stands and lower supporting-roller stands, respectively, characterized in that the upper straightening unit has a frame, on which the bearing panels of the upper straightening rolls and also the supporting-roller stands (35, 29) are mounted, in that the frame can be moved out of, and into, the roll-straightening machine, and in that an individual supporting-roller stand, or a plurality of the supporting-roller stands at the same time, can be lifted out, and re-inserted, by means of a connecting device.
Disposable ion sensor system comprising an assembly comprising: - a first substrate comprising several sets of confluent microfluidic microchannels integrated at one of its surface, wherein, for each set, a first of the microfluidic microchannels is designed to draw, by capillarity, an electrolyte solution, wherein, for each set, a second of said microfluidic microchannels is designed to draw an analyte solution between an inlet and an outlet, and wherein, for each set, a third of the microfluidic microchannels is positioned in between the first and second microfluidic microchannel and is designed to draw, by capillarity, a liquid membrane that has the properties of an ionic barrier fluid and passive valve intended to separate, by surface tension effects, the electrolyte solution from the analyte solution at the confluent microfluidic junction between said three microfluidic microchannels, - a second substrate comprising metallic areas deposited on its surface, the second substrate being assembled to the first substrate so as to close the microchannels, the metallic areas being superposed to the first microfluidic microchannels. - a first substrate comprising several sets of confluent microfluidic microchannels integrated at one of its surface, wherein, for each set, a first of the microfluidic microchannels is designed to draw, by capillarity, an electrolyte solution, wherein, for each set, a second of said microfluidic microchannels is designed to draw an analyte solution between an inlet and an outlet, and wherein, for each set, a third of the microfluidic microchannels is positioned in between the first and second microfluidic microchannel and is designed to draw, by capillarity, a liquid membrane that has the properties of an ionic barrier fluid and passive valve intended to separate, by surface tension effects, the electrolyte solution from the analyte solution at the confluent microfluidic junction between said three microfluidic microchannels, - a second substrate comprising metallic areas deposited on its surface, the second substrate being assembled to the first substrate so as to close the microchannels, the metallic areas being superposed to the first microfluidic microchannels.
A method for preventing offload return of a wireless device, the method comprising, by the wireless device: establishing a first wireless communication session with a first cell, the first cell providing the wireless device with a first wireless signal comprising a first value for a first signal characteristic; establishing a second wireless communication session with a second cell, the second cell replacing the first cell, the second cell providing the wireless device, at the time of establishing the second wireless communication session, with a second wireless signal comprising a second value for the first signal characteristic, the second value less than the first value; and suppressing a handover triggering event to prevent a handover from the second cell back to the first cell, wherein suppressing the handover triggering event comprises sending a suppression message, the suppression message causing a network controller to prevent the handover of the wireless device from the second cell back to the first cell. establishing a first wireless communication session with a first cell, the first cell providing the wireless device with a first wireless signal comprising a first value for a first signal characteristic; establishing a second wireless communication session with a second cell, the second cell replacing the first cell, the second cell providing the wireless device, at the time of establishing the second wireless communication session, with a second wireless signal comprising a second value for the first signal characteristic, the second value less than the first value; and suppressing a handover triggering event to prevent a handover from the second cell back to the first cell, wherein suppressing the handover triggering event comprises sending a suppression message, the suppression message causing a network controller to prevent the handover of the wireless device from the second cell back to the first cell.
Method for detecting the voltage of preferably series-connected battery cells (V 2, V 4, V 6; V 1, V 3, V 5) of a battery system, characterized by the steps of: - applying a current (I 1; I 2) which runs continuously in sections to a series connection of resistors (R 2, R 4, R 6; R 1, R 3, R 5) the number of which corresponds to the number of battery cells (V 2, V 4, V 6; V 1, V 3, V 5) the voltage of which is detected, wherein each of said battery cells (V 2, V 4, V 6; V 1, V 3, V 5) is assigned to one of the resistors (R 2, R 4, R 6; R 1, R 3, R 5), - comparing the voltage dropping across a respective resistor (R 2, R 4, R 6; R 1, R 3, R 5) assigned to a battery cell with the voltage of the battery cell (V 2, V 4, V 6; V 1, V 3, V 5) to which the respective resistor (R 2, R 4, R 6; R 1, R 3, R 5) is assigned, and - deriving the voltage of the respective battery cell (V 2, V 4, V 6; V 1, V 3, V 5) on the basis of an instant at which a voltage dropping across the resistor (R 2, R 4, R 6; R 1, R 3, R 5) assigned to said battery cell corresponds to the voltage of the respective battery cell (V 2, V 4, V 6; V 1, V 3, V 5), exceeds same or falls below same, and of the profile of the current (I 1; I 2) which runs continuously in sections. - applying a current (I 1; I 2) which runs continuously in sections to a series connection of resistors (R 2, R 4, R 6; R 1, R 3, R 5) the number of which corresponds to the number of battery cells (V 2, V 4, V 6; V 1, V 3, V 5) the voltage of which is detected, wherein each of said battery cells (V 2, V 4, V 6; V 1, V 3, V 5) is assigned to one of the resistors (R 2, R 4, R 6; R 1, R 3, R 5), - comparing the voltage dropping across a respective resistor (R 2, R 4, R 6; R 1, R 3, R 5) assigned to a battery cell with the voltage of the battery cell (V 2, V 4, V 6; V 1, V 3, V 5) to which the respective resistor (R 2, R 4, R 6; R 1, R 3, R 5) is assigned, and - deriving the voltage of the respective battery cell (V 2, V 4, V 6; V 1, V 3, V 5) on the basis of an instant at which a voltage dropping across the resistor (R 2, R 4, R 6; R 1, R 3, R 5) assigned to said battery cell corresponds to the voltage of the respective battery cell (V 2, V 4, V 6; V 1, V 3, V 5), exceeds same or falls below same, and of the profile of the current (I 1; I 2) which runs continuously in sections.
A method for contacting and interconnecting solar cells by means of at least two independent electrodes, wherein at least one electrode is formed from at least one wire conductor, comprising the following steps: - positioning a continuous wire conductor so that it extends over a plurality of solar cells, - interrupting the electrodes at the positions required for the interconnection once the wire conductor extends over several solar cells and before the solar cells are fixed under a glass plate, - contacting the solar cells and electrodes, wherein the electrodes contact each other by cross-connectors, wherein the arrangement of the cross-connector is essentially perpendicularly to the orientation of the wire conductors of the first electrode and in the intermediate space between two adjoining solar cells, as well as between first and second electrode, - contacting the electrodes with the solar cells and/or contacting the at least two electrodes with one another before the electrodes are interrupted. - positioning a continuous wire conductor so that it extends over a plurality of solar cells, - interrupting the electrodes at the positions required for the interconnection once the wire conductor extends over several solar cells and before the solar cells are fixed under a glass plate, - contacting the solar cells and electrodes, wherein the electrodes contact each other by cross-connectors, wherein the arrangement of the cross-connector is essentially perpendicularly to the orientation of the wire conductors of the first electrode and in the intermediate space between two adjoining solar cells, as well as between first and second electrode, - contacting the electrodes with the solar cells and/or contacting the at least two electrodes with one another before the electrodes are interrupted.
A method for manufacturing plate-shaped cover elements for a traffic area of a level crossing, wherein a mixture of a particle-shaped additive and a hardening binding agent is shaped in the form of a plate and is made to solidify, and a solid light-reflecting layer containing light-reflecting glass particles is formed on the upper side of the cover elements, said light-reflecting layer being bound with the same binding agent with which the particle-shaped additive of the compound material forming the cover elements is bound to form plate-shaped bodies, characterized in that, for forming the light-reflecting layer on the upper side of the cover elements to be manufactured, prior to the setting of the binding agent binding the additive, a mixture of ground glass particles and sand is dispersed on the upper side of the mass of additive and binding agent which has already been shaped in the form of a plate, and this dispersed mixture is passed over by a smoothing tool and is smoothed to be flat.
A liquid acidic hard surface cleaning composition having a pH of from 2 to 2.4 and comprising formic acid and an alkaline material, wherein said composition further comprises a nonionic surfactant.
A method for producing a particulate water absorbing agent containing a water-absorbing resin that is based on a crosslinked polymer containing, as a main component, a repeating unit of acrylic acid and/or a salt thereof, the method comprising: a polymerization step of polymerizing an acrylic acid-based and/or an acrylic acid salt-based aqueous monomer solution so as to obtain a crosslinked hydrogel polymer; a drying step of drying said crosslinked hydrogel polymer so as to obtain a dried polymer; a classification step of classifying the dried polymer obtained from the drying step and/or classifying a surface-crosslinked polymer obtained by surface-crosslinking the dried polymer obtained from the drying step; and a surface-crosslinking step of surface-crosslinking the dried polymer obtained from the drying step and/or surface-crosslinking a classified polymer obtained by classifying the dried polymer obtained from the drying step, wherein the classification step is carried out at least either or both of before and/or after the surface-crosslinking step but after said drying step, wherein a hole shape of a classification sieve used in the classification step is irregular polygonal or non-circular, characterized in that a ratio of length of a major axis to a minor axis of a hole of the classification sieve is not less than 1.3 and not more than 5, and the classification step is performed by a classification apparatus which is an oscillating classification apparatus. a polymerization step of polymerizing an acrylic acid-based and/or an acrylic acid salt-based aqueous monomer solution so as to obtain a crosslinked hydrogel polymer; a drying step of drying said crosslinked hydrogel polymer so as to obtain a dried polymer; a classification step of classifying the dried polymer obtained from the drying step and/or classifying a surface-crosslinked polymer obtained by surface-crosslinking the dried polymer obtained from the drying step; and a surface-crosslinking step of surface-crosslinking the dried polymer obtained from the drying step and/or surface-crosslinking a classified polymer obtained by classifying the dried polymer obtained from the drying step, wherein the classification step is carried out at least either or both of before and/or after the surface-crosslinking step but after said drying step, wherein a hole shape of a classification sieve used in the classification step is irregular polygonal or non-circular, characterized in that a ratio of length of a major axis to a minor axis of a hole of the classification sieve is not less than 1.3 and not more than 5, and the classification step is performed by a classification apparatus which is an oscillating classification apparatus.
Use of compounds selected from - copper complexes having at least one organic ligand, or - ruthenium complexes having at least one organic ligand for activating olefin metathesis ruthenium (pre)catalysts in a metathesis reaction, in particular in the ring opening metathesis polymerization reaction (ROMP). - copper complexes having at least one organic ligand, or - ruthenium complexes having at least one organic ligand
An electrode for electrolytic applications comprising: - a substrate made of titanium or titanium alloy - a dual barrier layer comprised of a primary and a secondary barrier layer, said secondary barrier layer being in direct contact with said substrate and essentially consisting of non-stoichiometric titanium oxide modified with tantalum oxide and titanium oxide inclusions, said primary barrier layer being in direct contact with said secondary barrier layer and comprising a thermally-densified mixed oxide phase containing titanium oxide and tantalum oxide, said primary barrier layer having a density of 80 to 120 particles per 10,000 nm 2 surface, and - a catalytic layer comprising platinum group metals or oxides thereof. - a substrate made of titanium or titanium alloy - a dual barrier layer comprised of a primary and a secondary barrier layer, said secondary barrier layer being in direct contact with said substrate and essentially consisting of non-stoichiometric titanium oxide modified with tantalum oxide and titanium oxide inclusions, said primary barrier layer being in direct contact with said secondary barrier layer and comprising a thermally-densified mixed oxide phase containing titanium oxide and tantalum oxide, said primary barrier layer having a density of 80 to 120 particles per 10,000 nm 2 surface, and - a catalytic layer comprising platinum group metals or oxides thereof.