mhurhangee/patent-ind-claim-en huggingface dataset:
A delamination container, comprising: an outer layer body constituting an outer shell of the container; and an inner layer body that is laminated on an inner side of the outer layer body in a manner such that the inner layer body is peelable from the outer layer body and that is deformable to undergo volume reduction, wherein, in response to dispensing of a content contained in the inner layer body, ambient air is introduced between the outer layer body and the inner layer body, and only the inner layer body undergoes volume reduction, and wherein the inner layer body includes an inner layer body's outside sub-layer that is located adjacent to the outer layer body and that is made of an ethylene-vinyl alcohol copolymer resin, and the outer layer body includes an outer layer body's inside sub-layer that is located adjacent to the inner layer body and that is made of a polypropylene resin and an outer layer body's outside sub-layer that is located on an outer side of the container relative to the outer layer body's inside sub-layer and that is made of a polyethylene resin. an outer layer body constituting an outer shell of the container; and an inner layer body that is laminated on an inner side of the outer layer body in a manner such that the inner layer body is peelable from the outer layer body and that is deformable to undergo volume reduction, wherein, in response to dispensing of a content contained in the inner layer body, ambient air is introduced between the outer layer body and the inner layer body, and only the inner layer body undergoes volume reduction, and wherein the inner layer body includes an inner layer body's outside sub-layer that is located adjacent to the outer layer body and that is made of an ethylene-vinyl alcohol copolymer resin, and the outer layer body includes an outer layer body's inside sub-layer that is located adjacent to the inner layer body and that is made of a polypropylene resin and an outer layer body's outside sub-layer that is located on an outer side of the container relative to the outer layer body's inside sub-layer and that is made of a polyethylene resin.
A developer supply container, comprising a rotating container for conveying a developer, and an intermittent regulator for intermittently supplying a gas into the rotating container and regulating an internal pressure of the rotating container ; wherein an end portion of one end of the rotating container is provided with a powder discharging bin ; a part of an inner space of the powder discharging bin forms a gas mixing space for accommodating the developer; a bottom of the powder discharging bin is provided with a powder discharging port for discharging the developer; the powder discharging port is located below the gas mixing space ; and the intermittent regulator is configured to intermittently supply a fixed amount of gas to the gas mixing space , and after the fixed amount of gas is mixed with the developer, the developer in the gas mixing space discharges from the powder discharging port with the fixed amount of gas, wherein the rotating container comprises a connecting cylinder and a receiving drum ; one end of the connecting cylinder is rotatably connected to one end of the powder discharging bin ; and the other end of the connecting cylinder is connected to the receiving drum by a threaded connection, characterized in that the intermittent regulator comprises a cam piston having a cam surface ; the one end of the connecting cylinder is provided with a first stirring plate , an end surface of one end of the first stirring plate is in contact with the cam surface of the cam piston ; and when the first stirring plate rotates, the first stirring plate drives the cam piston to perform a reciprocating translational motion along an inner wall of the powder discharging bin .
A system comprising: electrode apparatus comprising a plurality of external electrodes to monitor electrical activity from tissue of a patient and computing apparatus comprising processing circuitry and coupled to the electrode apparatus and configured to: monitor electrical cardiac activity during delivery of ventricle from atrium, VfA, pacing therapy to the patient by an implanted VfA pacing therapy apparatus using the plurality of external electrodes; generate paced electrical heterogeneity information, EHI, based on the monitored electrical cardiac activity during delivery of ventricle from atrium, VfA, pacing therapy at one or more VfA paced settings, wherein the paced EHI is representative of at least one of mechanical cardiac functionality and electrical cardiac functionality; and determine whether the one or more VfA paced settings for the VfA pacing therapy are acceptable based on the paced EHI. electrode apparatus comprising a plurality of external electrodes to monitor electrical activity from tissue of a patient and computing apparatus comprising processing circuitry and coupled to the electrode apparatus and configured to: monitor electrical cardiac activity during delivery of ventricle from atrium, VfA, pacing therapy to the patient by an implanted VfA pacing therapy apparatus using the plurality of external electrodes; generate paced electrical heterogeneity information, EHI, based on the monitored electrical cardiac activity during delivery of ventricle from atrium, VfA, pacing therapy at one or more VfA paced settings, wherein the paced EHI is representative of at least one of mechanical cardiac functionality and electrical cardiac functionality; and determine whether the one or more VfA paced settings for the VfA pacing therapy are acceptable based on the paced EHI. monitor electrical cardiac activity during delivery of ventricle from atrium, VfA, pacing therapy to the patient by an implanted VfA pacing therapy apparatus using the plurality of external electrodes; generate paced electrical heterogeneity information, EHI, based on the monitored electrical cardiac activity during delivery of ventricle from atrium, VfA, pacing therapy at one or more VfA paced settings, wherein the paced EHI is representative of at least one of mechanical cardiac functionality and electrical cardiac functionality; and determine whether the one or more VfA paced settings for the VfA pacing therapy are acceptable based on the paced EHI.
A producing device for fiber-reinforced resin forming materials comprising a producing device for chopped fiber bundles, the producing device for chopped fiber bundles comprising: cutting means including a cutting blade for cutting long fiber bundles (F); guide means for restricting movement of the fiber bundles to be supplied to the cutting means in a direction crossing a travel direction of the fiber bundles; characterized in that widening means are provided between the cutting means and the guide means for widening the fiber bundles and in that the producing device for fiber-reinforced resin forming materials further comprises impregnation means for impregnating a matrix resin composition into chopped fiber bundles (CF) obtained by the producing device for chopped fiber bundles. cutting means including a cutting blade for cutting long fiber bundles (F); guide means for restricting movement of the fiber bundles to be supplied to the cutting means in a direction crossing a travel direction of the fiber bundles; characterized in that widening means are provided between the cutting means and the guide means for widening the fiber bundles and in that the producing device for fiber-reinforced resin forming materials further comprises impregnation means for impregnating a matrix resin composition into chopped fiber bundles (CF) obtained by the producing device for chopped fiber bundles.
A network node comprising: an antenna array with a plurality of antenna sub-arrays (151-154); a switching unit coupled to the antenna array , the switching unit being configured to connect an at least two input signals to respective ones of the plurality of antenna sub-arrays (151-154); and a processor configured to determine a channel capacity, wherein based on the channel capacity, the processor is configured to: control the switching unit to switch a connection of the at least two input signals to different ones of the plurality of antenna sub-arrays (151-154) to change one or more of an inter-distance between the respective ones of the plurality of antenna sub-arrays (151-154) and a down-tilting angle of the antenna array , wherein the processor is configured to receive a desired channel capacity of the antenna array ; compare the determined channel capacity of an antenna configuration mode with the desired channel capacity of the antenna array ; select an antenna configuration mode whose determined channel capacity is larger than the desired channel capacity, and wherein the switching unit is configured to switch the connection of the at least two input signals to the different ones of the plurality of antenna sub-arrays (151-154) corresponding to the selected antenna configuration mode. an antenna array with a plurality of antenna sub-arrays (151-154); a switching unit coupled to the antenna array , the switching unit being configured to connect an at least two input signals to respective ones of the plurality of antenna sub-arrays (151-154); and a processor configured to determine a channel capacity, wherein based on the channel capacity, the processor is configured to: control the switching unit to switch a connection of the at least two input signals to different ones of the plurality of antenna sub-arrays (151-154) to change one or more of an inter-distance between the respective ones of the plurality of antenna sub-arrays (151-154) and a down-tilting angle of the antenna array , wherein the processor is configured to receive a desired channel capacity of the antenna array ; compare the determined channel capacity of an antenna configuration mode with the desired channel capacity of the antenna array ; select an antenna configuration mode whose determined channel capacity is larger than the desired channel capacity, and wherein the switching unit is configured to switch the connection of the at least two input signals to the different ones of the plurality of antenna sub-arrays (151-154) corresponding to the selected antenna configuration mode.
A luminal stent graft comprising a first tubular body and a second tubular body , wherein the second tubular body is sleeved outside the first tubular body and at least one end of the second tubular body is sealingly connected with the outer surface of the first tubular body , wherein the first tubular body is provided in a radial supporting section and comprises at least one first radial supporting structure distributed along a circumferential direction of the first tubular body , and the second tubular body comprises at least one second radial supporting structure distributed along a circumferential direction of the second tubular body , and a second graft covering the second radial supporting structure , wherein the radial deformability of the second radial supporting structure is greater than that of the first radial supporting structure , characterized in that the second radial supporting structure is a meshed structure comprising a plurality of grids and, in the naturally unfolded state, a maximum width (m1) of any grid in circumferential direction and a perimeter (D) of the second tubular body at the grid , depending on the radial length of the second radial supporting structure, satisfies one of the following conditions: m1 is less than or equal to D/12, or m1 is less than or equal to D/13, or m1 is less than or equal to D/14. wherein the first tubular body is provided in a radial supporting section and comprises at least one first radial supporting structure distributed along a circumferential direction of the first tubular body , and the second tubular body comprises at least one second radial supporting structure distributed along a circumferential direction of the second tubular body , and a second graft covering the second radial supporting structure , wherein the radial deformability of the second radial supporting structure is greater than that of the first radial supporting structure , characterized in that the second radial supporting structure is a meshed structure comprising a plurality of grids and, in the naturally unfolded state, a maximum width (m1) of any grid in circumferential direction and a perimeter (D) of the second tubular body at the grid , depending on the radial length of the second radial supporting structure, satisfies one of the following conditions: m1 is less than or equal to D/12, or m1 is less than or equal to D/13, or m1 is less than or equal to D/14.
A decorative material comprising, on or above a base material layer, a first layer, a second layer, and a third layer made of synthetic resin in order from the base material layer side, wherein the second layer is a cork material layer, the decorative material satisfying the condition of H1<H2<H3 wherein H1 is the hardness of the first layer, H2 is the hardness of the second layer, and H3 is the hardness of the third layer, the decorative material has a thickness of 6 to 15 mm, and wherein the decorative material has a displacement of 300 μm or more under a load of 100 N when a compression test device which is a product of A&D Company, Limited, a compression tensile tester, model number: RTC-1250A, LOAD CELL: UR-1 KN-D is used; and a decorative material having a length: 4 cm x width: 4 cm, which is a measurement sample, is disposed on a metal base of the compression test device; and a cylindrical jig with a diameter of 10 mm with the bottom surface of the cylindrical jig being parallel to the metal base is pressed at a compression speed of 10 mm/min, thereby compressing the decorative material; the measurement sample is disposed on the metal base in such a manner that the cylindrical jig comes into contact with the decorative sheet side. the decorative material satisfying the condition of H1<H2<H3 wherein H1 is the hardness of the first layer, H2 is the hardness of the second layer, and H3 is the hardness of the third layer, the decorative material has a thickness of 6 to 15 mm, and wherein the decorative material has a displacement of 300 μm or more under a load of 100 N when a compression test device which is a product of A&D Company, Limited, a compression tensile tester, model number: RTC-1250A, LOAD CELL: UR-1 KN-D is used; and a decorative material having a length: 4 cm x width: 4 cm, which is a measurement sample, is disposed on a metal base of the compression test device; and a cylindrical jig with a diameter of 10 mm with the bottom surface of the cylindrical jig being parallel to the metal base is pressed at a compression speed of 10 mm/min, thereby compressing the decorative material; the measurement sample is disposed on the metal base in such a manner that the cylindrical jig comes into contact with the decorative sheet side.
A brake pad retention system, comprising: a brake pad receiving feature of a caliper mount arranged to receive a brake caliper , a lateral brake pad retaining feature arranged to permit a brake application device of the brake caliper to advance the brake pad toward a brake disk while retaining the brake pad against radially-outward motion of the brake pad , wherein the brake pad receiving feature being arranged to receive a brake pad in a radially-inward direction through an opening of the brake caliper mounted on said caliper mount of a disc brake , wherein the lateral brake pad retaining feature are brake pad guiding grooves provided on brake pad abutment surfaces of mount horns of the caliper mount which receives the brake caliper , characterized in that the brake pad receiving features are installation/removal grooves provided on brake pad abutment surfaces of the mount horns of the caliper mount , the brake pad receiving feature being located inside an axially outer periphery of brake pad abutment portions of the caliper mount . a brake pad receiving feature of a caliper mount arranged to receive a brake caliper , a lateral brake pad retaining feature arranged to permit a brake application device of the brake caliper to advance the brake pad toward a brake disk while retaining the brake pad against radially-outward motion of the brake pad , wherein the brake pad receiving feature being arranged to receive a brake pad in a radially-inward direction through an opening of the brake caliper mounted on said caliper mount of a disc brake , wherein the lateral brake pad retaining feature are brake pad guiding grooves provided on brake pad abutment surfaces of mount horns of the caliper mount which receives the brake caliper , characterized in that the brake pad receiving features are installation/removal grooves provided on brake pad abutment surfaces of the mount horns of the caliper mount , the brake pad receiving feature being located inside an axially outer periphery of brake pad abutment portions of the caliper mount .
Timepiece component comprising a shaft-like portion including at least one pivot about a pivot axis (D), characterised in that at least the material forming said shaft-like portion is a non-magnetic alloy containing at least silver and palladium, and having a Vickers hardness of more than 450 HV.
A hydrocarbon polymer modifier, comprising: an interpolymer of (i) a vinyl cyclohexene component (ii) a piperylene component; and (iii) a C 8 -C 12 vinyl aromatic component; and wherein the interpolymer comprises (a) a softening point from 40°C to 160°C, (b) Mn greater than 400, (c) Mz less than 15,000, (d) a Mw/Mn from 1.5 to 4 and (e) at least 8 mole percent aromatic hydrogen, based on the total moles of hydrogen in the interpolymer. an interpolymer of (i) a vinyl cyclohexene component (ii) a piperylene component; and (iii) a C 8 -C 12 vinyl aromatic component; and wherein the interpolymer comprises (a) a softening point from 40°C to 160°C, (b) Mn greater than 400, (c) Mz less than 15,000, (d) a Mw/Mn from 1.5 to 4 and (e) at least 8 mole percent aromatic hydrogen, based on the total moles of hydrogen in the interpolymer.
A lip-type seal shaft seal device equipped with a rotary member , a stationary member concentrically disposed one to another inside and outside in a radial direction, and a lip seal for sealing the rotary member and the stationary member , the shaft seal device comprising an aeration-creating part for creating aeration through relative rotational sliding of said lip seal and said rotary member is formed in the circumferential direction on an outside peripheral surface of said rotary member , said aeration-creating part being configured from a plurality of fine grooves arranged in the circumferential direction and extending along the axial direction of said rotary member ; a seal lip member made of an elastomer sheaths is in an annular arrangement with a reinforcing ring having a substantially "L" shaped cross-section in the radial direction; the lip of said lip seal extending towards the outside atmosphere side and is configured to slide against the outside peripheral surface of the rotary member in which the aeration creating part is formed, leaving a portion of said aeration-creating part at the sealed fluid side in the axial direction, said lip is capable of sliding over the outside peripheral surface of said rotary member , partitioning the peripheral surface into two spaces to the sealed fluid side and to the outside atmosphere side, and blocking the inside from the outside thereof; said aeration-creating part is configured of grooves of periodic structure comprising a plurality of mutually parallel, linear asperities of unchanging pitch; a garter spring for pressing the lip against the outside peripheral surface of the rotary shaft is installed on the outside periphery of the lip , wherein the length a1 of the aeration-creating part in the axial direction is set somewhat greater than the length a2 along which the lip contacts the outside peripheral surface (S) of the rotary shaft , and a portion of the aeration-creating part on the outside atmosphere side is not covered by the lip , wherein the distance d1 between the sliding surface (S) and a hypothetical plane connecting the apical points of the asperities in the aeration-creating part and the depth d2 from said hypothetical plane to the bottom part of said grooves are set to 0 < d1 ≤ 2 μm and 0 < d2 ≤ 2 μm, such that the aeration-creating part is furnished on the bottom surface of a recessed part formed on the outside peripheral surface of the rotary member , and wherein the aeration produced by the aeration-creating part according to the settings of d1 and d2 blocks the liquid, i.e. the sealed fluid of low viscosity, at a boundary at the aeration zone.
An endoscope with a rotation drum and an elongated rigid and/or flexible shaft tube , which at a distal end supports the rotation drum rotatably about a first axis of rotation by means of a bearing fork and wherein an optical imaging system is arranged in the rotation drum , characterised in that the bearing fork has at least one first fluid line and at least one first nozzle in order to clean and/or cool the imaging system , wherein the bearing fork protrudes at least partially towards a position of a field of view of the imaging system in a viewing direction of the imaging system , preferably along a longitudinal axis of the shaft tube , and wherein the at least one first nozzle is arranged at a distal end of the bearing fork in order to clean the field of view of the imaging system with a fluid.
A system comprising a tissue log cutting saw and a blade storage array (22, wherein the saw has: a cutting arm with a tool holder receptacle for holding a circular saw blade for the saw and a saw house ; the circular saw blade being rotatable about a center axis on the saw cutting arm ; the blade center axis being generally parallel to a direction of travel of the tissue log through the saw; the array comprising a housing holding a plurality of storage units ; each storage unit for storing a circular saw blade for the saw ; each storage unit having a tool holder receptacle for holding a circular saw blade ; characterized in that: the array is detachably mountable to a structure of the saw; and each storage unit is moveable perpendicularly to the saw blade center axis in a linear movement from the array into the saw house . a cutting arm with a tool holder receptacle for holding a circular saw blade for the saw and a saw house ; the circular saw blade being rotatable about a center axis on the saw cutting arm ; the blade center axis being generally parallel to a direction of travel of the tissue log through the saw; the array comprising a housing holding a plurality of storage units ; each storage unit for storing a circular saw blade for the saw ; each storage unit having a tool holder receptacle for holding a circular saw blade ; the array is detachably mountable to a structure of the saw; and each storage unit is moveable perpendicularly to the saw blade center axis in a linear movement from the array into the saw house .
A blade carrier for arrangement on a base body of a machining tool , comprising a carrier body , which carries at least one cutting element , and an adjusting mechanism integrated in the carrier body , for adjusting the at least one cutting element , wherein the adjusting mechanism interacts with a control element , which is displaceably guided in the carrier body and which projects from the carrier body so as to be supported on the base body of the machining tool , characterized in that the control element is displaceable transversely to its direction of projection (Y) in the carrier body , and the control element is arranged in a positionally fixed manner in its direction of projection (Y) in the carrier body . the adjusting mechanism interacts with a control element , which is displaceably guided in the carrier body and which projects from the carrier body so as to be supported on the base body of the machining tool , characterized in that the control element is displaceable transversely to its direction of projection (Y) in the carrier body , and the control element is arranged in a positionally fixed manner in its direction of projection (Y) in the carrier body .