mhurhangee/patent-ind-claim-en huggingface dataset:
An occluding catheter for preventing stroke by occluding blood flow through a carotid artery of a patient, comprising: a shaft that has a proximal end and a distal end ; and proximal and distal occluding balloons carried by the shaft and configured in an inflated state to occlude blood flow through, respectively, a right carotid artery and a left carotid artery ; wherein the shaft has a segment that is located between the proximal occluding balloon and the distal occluding balloon and is configured to be located in an aortic arch and to allow blood to flow past the exterior thereof such that the segment does not completely block the aortic arch ; wherein the proximal occluding balloon is configured to be located in an innominate artery and to occlude blood flow through the innominate artery , and wherein the distal occluding balloon is configured to be located in the left carotid artery and to occlude blood flow through the left carotid artery ; and wherein the segment is between 3 and 8 centimeters in length and/or is from 2-6 centimeters longer than the distance between the innominate artery and the left carotid artery such that placement of the distal occluding balloon within the left carotid artery results in placement of the proximal occluding balloon within the innominate artery . a shaft that has a proximal end and a distal end ; and proximal and distal occluding balloons carried by the shaft and configured in an inflated state to occlude blood flow through, respectively, a right carotid artery and a left carotid artery ; wherein the shaft has a segment that is located between the proximal occluding balloon and the distal occluding balloon and is configured to be located in an aortic arch and to allow blood to flow past the exterior thereof such that the segment does not completely block the aortic arch ; wherein the proximal occluding balloon is configured to be located in an innominate artery and to occlude blood flow through the innominate artery , and wherein the distal occluding balloon is configured to be located in the left carotid artery and to occlude blood flow through the left carotid artery ; and wherein the segment is between 3 and 8 centimeters in length and/or is from 2-6 centimeters longer than the distance between the innominate artery and the left carotid artery such that placement of the distal occluding balloon within the left carotid artery results in placement of the proximal occluding balloon within the innominate artery .
A control method of a washing machine including a tub configured to accommodate water, a drum rotatably installed inside the tub to accommodate the laundry, and a motor configured to generate a driving force for rotating the drum , the control method comprising: (a) in a state in which the motor is stopped, driving the motor and accelerating rotation of the motor so that a rotational speed of the motor reaches a first RPM (X1, Z2, Y1); (b) while a rotational direction of the motor is maintained, decelerating the rotation of the motor so that the rotational speed of the motor reaches a second RPM (X2, Z3, Y2) which is less than the first RPM (X1, Z2, Y1); (c) while the rotational direction of the motor is maintained, re-accelerating the rotation of the motor so that the rotational speed of the motor reaches a third RPM (X3, X3', Z4, Z4', Y3), which is equal to or greater than the first RPM (X1, Z2, Y1); (d) stopping the motor ; (e) driving the motor so that the motor rotates in a direction opposite to the rotational direction before the motor stops and accelerating rotation of the motor so that a rotational speed of the motor reaches the first RPM (X1, Z2, Y1); and (f) performing the steps (b) to (d), wherein the second RPM (X2, Z3, Y2) is greater than 0, characterized in that the first RPM (X1, Z2, Y1) is set to be in a range of 40 to 60 RPM, and a difference between the first RPM (X1, Z2, Y1) and the second RPM (X2, Z3, Y2) is in a range of 10 to 30 RPM. (a) in a state in which the motor is stopped, driving the motor and accelerating rotation of the motor so that a rotational speed of the motor reaches a first RPM (X1, Z2, Y1); (b) while a rotational direction of the motor is maintained, decelerating the rotation of the motor so that the rotational speed of the motor reaches a second RPM (X2, Z3, Y2) which is less than the first RPM (X1, Z2, Y1); (c) while the rotational direction of the motor is maintained, re-accelerating the rotation of the motor so that the rotational speed of the motor reaches a third RPM (X3, X3', Z4, Z4', Y3), which is equal to or greater than the first RPM (X1, Z2, Y1); (d) stopping the motor ; (e) driving the motor so that the motor rotates in a direction opposite to the rotational direction before the motor stops and accelerating rotation of the motor so that a rotational speed of the motor reaches the first RPM (X1, Z2, Y1); and (f) performing the steps (b) to (d),
A mobile terminal , comprising a main board and characterized by further comprising a virtual subscriber identification module (SIM) card chip attached on the main board and electrically connected to the main board without usage of a card socket or a card tray; wherein the virtual SIM card chip is configured to store SIM card information copied from an external SIM card disposed out of the mobile terminal, so that the mobile terminal achieves communication and standby functions through the virtual SIM card chip; wherein the virtual SIM card chip is an integrated circuit chip.
An unducted thrust producing system , said thrust producing system comprising a rotating element having an axis of rotation and a plurality of blades , a stationary element having a plurality of vanes disposed around the axis , a gas generator located aft of the rotating element , and an inlet for supplying air to the gas generator , the inlet being between said rotating element and said stationary element; characterised in that : wherein said inlet is radially inward of said stationary element .
An organic light emitting display device comprising: a data line ; a driving thin film transistor including a gate electrode , an output electrode , an input electrode and an active layer ; a storage capacitor including a first electrode electrically connected to the gate electrode and a second electrode (231; 631) electrically connected to the output electrode ; an organic light emitting element including an anode connected to the output electrode of the driving thin film transistor ; and a shield unit (280; 680) including a conductive portion, wherein the distance between the data line and the first electrode of the storage capacitor is larger than the distance between the data line and the conductive portion of the shield unit (280; 680); characterized in that the active layer and the shield unit (280; 680) are formed as a patterned semiconductor layer, the conductive portion of the shield unit (280; 680) being formed of doped semiconductor material, and a portion of the patterned semiconductor layer is extended from the input electrode toward the data line ; wherein the shield unit (280; 680) is disposed under the first electrode of the storage capacitor and a portion of the shield unit overlaps a portion of the first electrode . a data line ; a driving thin film transistor including a gate electrode , an output electrode , an input electrode and an active layer ; a storage capacitor including a first electrode electrically connected to the gate electrode and a second electrode (231; 631) electrically connected to the output electrode ; an organic light emitting element including an anode connected to the output electrode of the driving thin film transistor ; and a shield unit (280; 680) including a conductive portion, wherein the distance between the data line and the first electrode of the storage capacitor is larger than the distance between the data line and the conductive portion of the shield unit (280; 680); characterized in that the active layer and the shield unit (280; 680) are formed as a patterned semiconductor layer, the conductive portion of the shield unit (280; 680) being formed of doped semiconductor material, and a portion of the patterned semiconductor layer is extended from the input electrode toward the data line ; wherein the shield unit (280; 680) is disposed under the first electrode of the storage capacitor and a portion of the shield unit overlaps a portion of the first electrode .
An apparatus for forming folds at a corner in a spacer frame assembly used in the construction of insulating glass unit windows , the apparatus comprising: a carriage supporting first and second crimping fingers for engaging side walls of a metal strip of a spacer frame stock material, the crimping fingers spaced about a path of travel of the metal strip during operation; a drive for advancing and retracting said carriage during operation substantially along a portion of said path of travel; an encoder located along the path of travel for determining a velocity of the metal strip moving along the path of travel; and a double acting rack assembly for actuating the first and second crimping fingers in a direction substantially transverse to the path of travel into and out of engagement with the side walls of the metal strip , wherein said drive comprises a controller for accelerating said carriage along the portion of said path of travel to match the velocity of the metal strip as determined by the encoder . a carriage supporting first and second crimping fingers for engaging side walls of a metal strip of a spacer frame stock material, the crimping fingers spaced about a path of travel of the metal strip during operation; a drive for advancing and retracting said carriage during operation substantially along a portion of said path of travel; an encoder located along the path of travel for determining a velocity of the metal strip moving along the path of travel; and a double acting rack assembly for actuating the first and second crimping fingers in a direction substantially transverse to the path of travel into and out of engagement with the side walls of the metal strip , wherein said drive comprises a controller for accelerating said carriage along the portion of said path of travel to match the velocity of the metal strip as determined by the encoder .
Mixing device having a stirring element , comprising: - a flexible container for receiving fluids and/or solids; and - at least one rotatable stirring element for mixing the fluids and/or solids; wherein the stirring element comprises a first bearing element and a second bearing element which are arranged at or near opposite ends of the stirring element ; wherein the first bearing element is mounted on a first face of the flexible container and the second bearing element is mounted on an opposite second face of the flexible container ; wherein the first bearing element comprises at least one non-permanently magnetized element in order to be able to be set in rotation by externally induced reluctance forces, and wherein the second bearing element is mounted in a contactless manner by externally induced magnetic forces, wherein the flexible container has at least one cylindrical wall recess which is designed to at least partially receive the second bearing element . - a flexible container for receiving fluids and/or solids; and - at least one rotatable stirring element for mixing the fluids and/or solids; wherein the stirring element comprises a first bearing element and a second bearing element which are arranged at or near opposite ends of the stirring element ; wherein the first bearing element is mounted on a first face of the flexible container and the second bearing element is mounted on an opposite second face of the flexible container ; wherein the first bearing element comprises at least one non-permanently magnetized element in order to be able to be set in rotation by externally induced reluctance forces, and wherein the second bearing element is mounted in a contactless manner by externally induced magnetic forces, wherein the flexible container has at least one cylindrical wall recess which is designed to at least partially receive the second bearing element .
Carrier material for producing a carrier for a decorated wall or floor panel, wherein the carrier material comprises a plastic-containing matrix material and a solid material, wherein the solid material is formed by talc to at least 50 wt.-%, in particular at least 80 wt.-%, in particular at least 95 wt.-%, based on the solid material, wherein the matrix material, based on the carrier material, is present in an amount of ≥ 30 wt.-% to ≤ 70 wt.-%, in particular ≥ 40 wt.-% to ≤ 60 wt.-%, and wherein the solid material, based on the carrier material, is present in an amount of ≥ 30 wt.-% to ≤ 70 wt.-%, in particular ≥ 40 wt.-% to ≤ 60 wt.-%, and wherein the matrix material and the solid material, based on the carrier material , are present together in an amount of ≥ 95 wt.-%, in particular ≥ 99 wt.-%, and wherein the matrix material comprises polypropylene; characterized in that the polypropylene comprises a mixture of a homopolymer and a copolymer, wherein the melt flow rate of the homopolymer is greater than the melt flow rate of the copolymer. characterized in that the polypropylene comprises a mixture of a homopolymer and a copolymer, wherein the melt flow rate of the homopolymer is greater than the melt flow rate of the copolymer.
An imaging control apparatus comprising: a controller configured to control a photographing timing of an image sensor to output a long accumulation signal and a short accumulation signal, wherein the photographing is performed in an N-frame sequence, wherein each frame sequence includes N frames and the image sensor is configured to electronically change an exposure setting of internal pixels on pixel-by-pixel basis, wherein the controller is further configured to cause a short accumulation signal of a preceding frame to correspond to a short accumulation signal of a succeeding frame by setting a short accumulation exposure time for generating the short accumulation signal of the succeeding frame to a short accumulation exposure time for generating the short accumulation signal of the preceding frame; a processor configured to use the short accumulation signal of the preceding frame to process the signal of the succeeding frame, wherein the processor uses the short accumulation signal of the preceding frame to apply tone conversion on a composite signal of the short accumulation signal and a long accumulation signal of the succeeding frame; and an examination unit configured to apply histogram examination on the short accumulation signal of the preceding frame to generate a tone conversion curve, wherein the processor performs the tone conversion on the basis of the tone conversion curve. a controller configured to control a photographing timing of an image sensor to output a long accumulation signal and a short accumulation signal, wherein the photographing is performed in an N-frame sequence, wherein each frame sequence includes N frames and the image sensor is configured to electronically change an exposure setting of internal pixels on pixel-by-pixel basis, wherein the controller is further configured to cause a short accumulation signal of a preceding frame to correspond to a short accumulation signal of a succeeding frame by setting a short accumulation exposure time for generating the short accumulation signal of the succeeding frame to a short accumulation exposure time for generating the short accumulation signal of the preceding frame; a processor configured to use the short accumulation signal of the preceding frame to process the signal of the succeeding frame, wherein the processor uses the short accumulation signal of the preceding frame to apply tone conversion on a composite signal of the short accumulation signal and a long accumulation signal of the succeeding frame; and an examination unit configured to apply histogram examination on the short accumulation signal of the preceding frame to generate a tone conversion curve, wherein the processor performs the tone conversion on the basis of the tone conversion curve.
A glass batch charger for charging batch glass-forming materials into a melt furnace, which includes: a stationary box of hollow arcuate construction having a part-circular opening and coolant circulation paths extending throughout the hollow arcuate construction, an oscillating box of hollow part-circular construction disposed within and rotatably supported about an oscillation axis within the part-circular opening of the stationary box, the oscillating box having coolant circulation paths extending throughout the hollow part-circular construction, a pusher box on the oscillating box , and means for circulating coolant at least through the stationary and oscillating boxes, characterized in that the coolant circulation paths in the stationary box are arcuate throughout substantially their entire length and concentrically incurvate about the oscillation axis of the part-circular opening, and the coolant circulation paths in the oscillating box are arcuate and concentrically disposed about the oscillation axis and shaped to follow the contour of a rear wall of the oscillating box. a stationary box of hollow arcuate construction having a part-circular opening and coolant circulation paths extending throughout the hollow arcuate construction, an oscillating box of hollow part-circular construction disposed within and rotatably supported about an oscillation axis within the part-circular opening of the stationary box, the oscillating box having coolant circulation paths extending throughout the hollow part-circular construction, a pusher box on the oscillating box , and means for circulating coolant at least through the stationary and oscillating boxes, characterized in that the coolant circulation paths in the stationary box are arcuate throughout substantially their entire length and concentrically incurvate about the oscillation axis of the part-circular opening, and the coolant circulation paths in the oscillating box are arcuate and concentrically disposed about the oscillation axis and shaped to follow the contour of a rear wall of the oscillating box.
A method for managing orders and dispensing products into a container , comprising: prompting a user selection of a product type at an order entry station ; reading indicia on the container at a product dispensing station ; determining if the container is authorized to receive the product type from the product dispensing station; and dispensing the product type selected into the container, and characterised by printing the indicia on the container indicating at least the product type selected. prompting a user selection of a product type at an order entry station ; reading indicia on the container at a product dispensing station ; determining if the container is authorized to receive the product type from the product dispensing station; and dispensing the product type selected into the container, and characterised by printing the indicia on the container indicating at least the product type selected.
Composite profile for frames of wall elements, doors or windows, comprising at least two metal profiles arranged at a distance (A) from one another and comprising connecting parts which are made of metal and connect the metal profiles, wherein the metal profiles each have opposite end walls and end wall portions directed toward one another, to which the connecting parts are attached, preferably welded, wherein the end wall portions lie on a plane which extends parallel to the corresponding end wall or forms an inclination angle (α) of between 10° and 60° with respect to the corresponding end wall , and wherein each connecting part has a lateral portion having end portions which are angled or are provided with a bend in cross section for defining a contact surface or linear contact zone with respect to the corresponding end wall portion , wherein, in the region of the end portions , the connecting part is attached to the adjacent end wall portions of the metal profiles .
An O/W type emulsion for encapsulating a hardly water-soluble drug, wherein the O/W type emulsion has a volume median diameter of not more than 100 nm and comprises a compound represented by the formula wherein X a and X b are each independently X 1 , X 2 or 1,4-piperazinediyl group; s is 1 or 2, R 4 is an alkyl group having 1 - 6 carbon atoms, n a and n b are each independently 0 or 1, R 1a and R 1b are each independently an alkylene group having 1 - 6 carbon atoms, R 2a and R 2b are each independently an alkylene group having 1 - 6 carbon atoms, Y a and Y b are each independently an ester bond, an amide bond, a carbamate bond, an ether bond or a urea bond, and R 3a and R 3b are each independently a sterol residue, a liposoluble vitamin residue or an aliphatic hydrocarbon group having 12 - 23 carbon atoms, and wherein the hardly water-soluble drug has a water/octanol distribution coefficient LogPow of not less than 4. wherein the O/W type emulsion has a volume median diameter of not more than 100 nm and comprises a compound represented by the formula wherein X a and X b are each independently X 1 , X 2 or 1,4-piperazinediyl group; s is 1 or 2, R 4 is an alkyl group having 1 - 6 carbon atoms, n a and n b are each independently 0 or 1, R 1a and R 1b are each independently an alkylene group having 1 - 6 carbon atoms, R 2a and R 2b are each independently an alkylene group having 1 - 6 carbon atoms, Y a and Y b are each independently an ester bond, an amide bond, a carbamate bond, an ether bond or a urea bond, and R 3a and R 3b are each independently a sterol residue, a liposoluble vitamin residue or an aliphatic hydrocarbon group having 12 - 23 carbon atoms, and wherein the hardly water-soluble drug has a water/octanol distribution coefficient LogPow of not less than 4.
An absorbent cellulosic sheet that has a first side and a second side, the absorbent sheet comprising: a plurality of domed regions projecting from the first side of the sheet, each of the domed regions including a plurality of indented bars extending across a respective domed region in a substantially cross machine direction (CD) of the absorbent sheet, wherein the domed regions are extended substantially along the machine direction (MD) of the absorbent sheet; and connecting regions forming a network interconnecting the domed regions of the absorbent sheet. a plurality of domed regions projecting from the first side of the sheet, each of the domed regions including a plurality of indented bars extending across a respective domed region in a substantially cross machine direction (CD) of the absorbent sheet, wherein the domed regions are extended substantially along the machine direction (MD) of the absorbent sheet; and connecting regions forming a network interconnecting the domed regions of the absorbent sheet.