mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a drape for a negative-pressure system, the method comprising: providing a film layer ; coupling a layer of a bonding adhesive to the film layer ; forming a mesh having a plurality of mesh apertures ; coating the mesh with a sealing adhesive ; forming a plurality of bonding apertures in the mesh; and coupling the mesh to the layer of the bonding adhesive ; wherein the mesh apertures each having an effective diameter between 0.5 millimeters and 4 millimeters. providing a film layer ; coupling a layer of a bonding adhesive to the film layer ; forming a mesh having a plurality of mesh apertures ; coating the mesh with a sealing adhesive ; forming a plurality of bonding apertures in the mesh; and coupling the mesh to the layer of the bonding adhesive ; wherein the mesh apertures each having an effective diameter between 0.5 millimeters and 4 millimeters.
A vacuum cleaning and dust collecting apparatus, comprising a robotic vacuum cleaner and a dust collector , wherein the robotic vacuum cleaner comprises a housing , an infrared receiving assembly, a dust bin assembly, host charging elastic pieces, a driving motor, running wheels , and a sweeping assembly, the infrared receiving assembly is disposed on a side surface of the housing , the dust bin assembly is detachably disposed on a tail end of the housing , the host charging elastic pieces and the driving motor are disposed inside the housing , the infrared receiving assembly and the driving motor are electrically connected to the host charging elastic pieces, the running wheels are disposed on a bottom portion of the housing , the running wheels are connected to an output end of the driving motor, the sweeping assembly is connected to the bottom portion of the housing , the sweeping assembly comprises a sweeping shaft and a sweeping brush , the sweeping brush is disposed on the sweeping brush , and a communication transmitting light is disposed inside the housing ; wherein the dust collector comprises a dust collector body , four groups of infrared emitting lights , virtual wall signal lights , dust collector charging elastic pieces, and a dust collector assembly, the infrared emitting lights and the virtual wall signal lights are disposed on a side surface of the dust collector body , the dust collector charging elastic pieces are disposed on a bottom portion of the dust collector body , the dust collector assembly is disposed inside the dust collector body , the dust collector charging elastic pieces are in contact with the host charging elastic pieces, the dust collector assembly abuts against the dust bin assembly, and a communication receiving light is disposed on the bottom portion of the dust collector body .
A blow mould for plastic containers comprising - at least two half-moulds , - at least two half-mould holders , each half-mould holder supporting one of said half-moulds , each half-mould holder and each half-mould defining respective complementary coupling surfaces between half-mould holder and half-mould, - at least one quick coupling device to lock each half-mould to the respective half-mould holder , wherein said at least one quick coupling device is fixed to the respective half-mould holder characterised in that it comprises only one locking element and a force multiplier mechanism, the force multiplier mechanism comprises a locking system with hinged levers , configured so as to move the locking element along a rectilinear locking axis (X), a first one of said hinged levers is firmly hinged to the respective half-mould holder , (i) said locking element is a bolt that can move, by actuating said force multiplier mechanism, from an unlocking position to a locking position by emerging from the half-mould holder through a through hole provided in the thickness of the half-mould holder , to interact with the coupling surface of the respective half-mould , whereby half-mould and respective half-mould holder are locked to each other in a position in which the respective complementary coupling surfaces are coupled to each other, and wherein (ii) said force multiplier mechanism remains kinematically fixed to the quick coupling device both in said unlocking position and in said locking position. - at least two half-moulds , - at least two half-mould holders , each half-mould holder supporting one of said half-moulds , each half-mould holder and each half-mould defining respective complementary coupling surfaces between half-mould holder and half-mould, - at least one quick coupling device to lock each half-mould to the respective half-mould holder , (i) said locking element is a bolt that can move, by actuating said force multiplier mechanism, from an unlocking position to a locking position by emerging from the half-mould holder through a through hole provided in the thickness of the half-mould holder , to interact with the coupling surface of the respective half-mould , whereby half-mould and respective half-mould holder are locked to each other in a position in which the respective complementary coupling surfaces are coupled to each other, and wherein (ii) said force multiplier mechanism remains kinematically fixed to the quick coupling device both in said unlocking position and in said locking position.
A supporting device for supporting a profiled bar during a welding operation, comprising a lower supporting element and an upper supporting element movable relative to each other between a clamping position, in which a profiled bar can be locked between the lower supporting element and the upper supporting element , and a disengagement position, in which the profiled bar can be disengaged from the lower supporting element and from the upper supporting element , wherein at least one supporting element selected from between the upper supporting element and the lower supporting element comprises: - a containment element for containing the softened material of the profiled bar during welding, the containment element having a deflecting protuberance which projects towards a longitudinal axis (Z) of the profiled bar for diverting the softened material towards the inside of the profiled bar ; characterized in that said at least one supporting element selected from between the upper supporting element and the lower supporting element further comprises: - a base component , movable along a direction parallel to the longitudinal axis (Z) of the profiled bar ; - an intermediate component to which the containment element can be fixed, the intermediate component being removably connectable to the base component , - adjusting means for adjusting the position of the containment element relative to the intermediate component . - a containment element for containing the softened material of the profiled bar during welding, the containment element having a deflecting protuberance which projects towards a longitudinal axis (Z) of the profiled bar for diverting the softened material towards the inside of the profiled bar ; - a base component , movable along a direction parallel to the longitudinal axis (Z) of the profiled bar ; - an intermediate component to which the containment element can be fixed, the intermediate component being removably connectable to the base component , - adjusting means for adjusting the position of the containment element relative to the intermediate component .
A small molecule composition for use for chemically inducing reprogramming or transdifferentiation of human tumor cells directly into non-oncogenic cells, wherein the composition comprises a GSK3β inhibitor and a TGFβ inhibitor, and wherein the composition excludes exogenous genes and transcription factors.
A method for quantification of sub-visible particles, comprising: providing a filter membrane having a plurality of pores defined therethrough, the filter membrane being in operational engagement with a vacuum chamber ; sealing the pores with a sealant ; applying a sample droplet , containing a liquid and sub-visible particles , onto the filter membrane without the sample droplet touching any outside edge of the filter membrane ; the liquid dissolving the sealant in pores (138e-138h) disposed below the sample droplet ; the liquid flowing through the pores in which the sealant has been dissolved and the sub-visible particles remaining on top of the filter membrane ; and the sub-visible particles being enumerated in an electron microscopy. providing a filter membrane having a plurality of pores defined therethrough, the filter membrane being in operational engagement with a vacuum chamber ; sealing the pores with a sealant ; applying a sample droplet , containing a liquid and sub-visible particles , onto the filter membrane without the sample droplet touching any outside edge of the filter membrane ; the liquid dissolving the sealant in pores (138e-138h) disposed below the sample droplet ; the liquid flowing through the pores in which the sealant has been dissolved and the sub-visible particles remaining on top of the filter membrane ; and the sub-visible particles being enumerated in an electron microscopy.
A recombinant pre-fusion respiratory syncitial virus (RSV) Fusion (F) protein comprising a mutation of the amino acid S on position 215 into P (S215P), a mutation of the amino acid T on position 357 into K (T357K) and a mutation of the amino acid N on position 371 into Y (N371Y) wherein the amino acid positions are given in reference to SEQ ID NO: 13.
A curable coating composition comprising a mixture of: (a) a curable polyester comprising a diacid comprising at least 10 mol% succinic acid and less than 80 mol% isophthalic acid relative to the total diacid content, the molar ratio of succinic acid to isophthalic acid being from 1:4 to 1:1, and at least one diol; (b) a cross-linking agent; and (c) a solvent. (a) a curable polyester comprising a diacid comprising at least 10 mol% succinic acid and less than 80 mol% isophthalic acid relative to the total diacid content, the molar ratio of succinic acid to isophthalic acid being from 1:4 to 1:1, and at least one diol; (b) a cross-linking agent; and (c) a solvent.
A cover for a seat of a vehicle, wherein said seat provides a sitting portion and a back portion , said cover extending in length along a longitudinal direction (X) and comprising a single sheet folded along a longitudinal folding line so as to define a first portion intended to at least partially cover the front portion of the seat and a second portion intended to at least partially cover the rear portion of the seat , said first portion and said second portion being superimposed and coupled to each other along the perimeter by connection lines so that said cover is closed along the perimeter, said second portion comprising an opening to permit the introduction of said seat within said cover , characterised in that said sheet comprises at least a layer of stretch non-woven fabric, wherein said opening is positioned and dimensioned in such a way to remain confined under said sitting portion when said cover is applied to said seat .
A tape printing device comprising: an operating portion and a displaying portion that are disposed on a front surface of the tape printing device , wherein the tape printing device has a vertically long shape enabling handheld operation, and the operating portion and the displaying portion are disposed therein in a longitudinal direction; protruding portions that protrude from the front surface side in the operating portion and the displaying portion , wherein the protruding portions extend in a direction intersecting the longitudinal direction, and are provided in at least two positions among a tip end portion, an intermediate portion, and a base end portion of the tape printing device in the longitudinal direction; a cartridge mounting portion on which a tape cartridge is detachably mounted; an opening/closing lid that opens and closes the cartridge mounting portion , wherein the protruding portion in at least one arbitrary position also serves as a finger hooking portion for opening and closing the opening/closing lid ; a tape discharging port which is connected to the cartridge mounting portion and through which the printed printing tape is fed out, wherein the tape discharging port is opened to one side surface of the device , characterized in that the tape discharging port is formed so that a printed surface of the fed printing tape faces the front side at the time of being handheld. an operating portion and a displaying portion that are disposed on a front surface of the tape printing device , wherein the tape printing device has a vertically long shape enabling handheld operation, and the operating portion and the displaying portion are disposed therein in a longitudinal direction; protruding portions that protrude from the front surface side in the operating portion and the displaying portion , wherein the protruding portions extend in a direction intersecting the longitudinal direction, and are provided in at least two positions among a tip end portion, an intermediate portion, and a base end portion of the tape printing device in the longitudinal direction; a cartridge mounting portion on which a tape cartridge is detachably mounted; an opening/closing lid that opens and closes the cartridge mounting portion , wherein the protruding portion in at least one arbitrary position also serves as a finger hooking portion for opening and closing the opening/closing lid ; a tape discharging port which is connected to the cartridge mounting portion and through which the printed printing tape is fed out, wherein the tape discharging port is opened to one side surface of the device , characterized in that the tape discharging port is formed so that a printed surface of the fed printing tape faces the front side at the time of being handheld.
Device for cell therapy, said device being designed to be applied on a living tissue and having: - at least a tight preferably biocompatible first wall , designed to form a cavity between said wall and said tissue, and further comprising: - means to feed a healing substance in said cavity , - a second wall with at least a porous part , the cavity being provided between said first and second walls , the healing agent being to be administered through said porous part , said second wall being biocompatible and preferably bioresorbable, wherein said device is substantially cylindrically shaped, the first wall being a tight internal wall, and the second wall being an external wall, and characterized in that expansion means are provided to bring an outward radial pressure on the internal wall so as to urge said internal wall toward said external wall, and tend to provide a radial expansion on the device . - at least a tight preferably biocompatible first wall , designed to form a cavity between said wall and said tissue, and further comprising: - means to feed a healing substance in said cavity , - a second wall with at least a porous part , the cavity being provided between said first and second walls , the healing agent being to be administered through said porous part , said second wall being biocompatible and preferably bioresorbable, - means to feed a healing substance in said cavity , - a second wall with at least a porous part , the cavity being provided between said first and second walls , the healing agent being to be administered through said porous part , said second wall being biocompatible and preferably bioresorbable,
A print cartridge , comprising: a) a cartridge body ; b) a fluid reservoir disposed within the cartridge body that receives and contains fluid; c) a fluid ejector chip comprising a plurality of heating elements that eject the fluid from the print cartridge; and d) a memory device that stores first data related to information regarding the number of times the print cartridge was remanufactured and second data related to information regarding the print yield of the print cartridge for each instance of cartridge remanufacture, e) wherein the first data comprises one or more first data fields, the second data comprises one or more second data fields, wherein each first data field comprises a data bit set to indicate whether the print cartridge is either new or remanufactured, each second data field corresponding to an instance of cartridge remanufacture and comprising one or more data bits that indicate print yield for the instance of cartridge remanufacture. a) a cartridge body ; b) a fluid reservoir disposed within the cartridge body that receives and contains fluid; c) a fluid ejector chip comprising a plurality of heating elements that eject the fluid from the print cartridge; and d) a memory device that stores first data related to information regarding the number of times the print cartridge was remanufactured and second data related to information regarding the print yield of the print cartridge for each instance of cartridge remanufacture, e) wherein the first data comprises one or more first data fields, the second data comprises one or more second data fields, wherein each first data field comprises a data bit set to indicate whether the print cartridge is either new or remanufactured, each second data field corresponding to an instance of cartridge remanufacture and comprising one or more data bits that indicate print yield for the instance of cartridge remanufacture.
A compressor, comprising: a compressor casing coupled to a suction inlet , for introducing a refrigerant into the compressor, and a discharge outlet , for discharging the refrigerant from the compressor; a compressor body mounted inside the compressor casing, being configured to compress the refrigerant suctioned in through the suction inlet, and thereafter discharge the refrigerant through the discharge outlet; a noise reducing member interposed between the compressor body and the compressor casing, the noise reducing member comprising a plurality of cylindrical portions to be overlapped; and at least one fixing member mounted inside the compressor casing to fix the noise reducing member to an inner wall of the compressor casing, characterized in that the compressor casing comprises: a base shell having a cylindrical shape to accommodate the compressor body ; a first cover mounted at a first end of the base shell, the first cover being coupled to the suction inlet ; and a second cover mounted at a second end of the base shell , the second cover being coupled to the discharge outlet , wherein the noise reducing member is mounted on the inner wall of the base shell . a base shell having a cylindrical shape to accommodate the compressor body ; a first cover mounted at a first end of the base shell, the first cover being coupled to the suction inlet ; and a second cover mounted at a second end of the base shell , the second cover being coupled to the discharge outlet , wherein the noise reducing member is mounted on the inner wall of the base shell .
A suturing and cutting apparatus for endoscopic surgery, comprising: a body , a head portion , and a transmission mechanism , wherein said head portion is connected rotatably to a distal end of said body relative to the axial direction of said body by means of said transmission mechanism ; wherein, said transmission mechanism comprises: an operating rod , a connecting assembly and a gear transmission assembly , said connecting assembly comprises a first conversion component , a proximal end of said first conversion component is connected rotatably to said body , a distal end of said first conversion component is connected rotatably to said head portion ; said operating rod has an actuation end and a linkage end ; the linkage end of said operating rod is connected to said first conversion component ; when the actuation end of said operating rod is subjected to an action force, said first conversion component is rotated relative to the axial direction of said body by the linkage end of said operating rod , and said head portion is rotated in the same direction relative to said first conversion component by means of the transmission of said gear transmission assembly , wherein, said head portion is rotated at a first angle in a direction relative to the axial direction of said body along with said first conversion component , and said head portion is rotated at a second angle in the same direction relative to the first conversion component , thus the rotation angle of the head portion relative to the axial direction of the body is a sum of the first angle and the second angle; and wherein the linkage end of said operating rod is articulated with said first conversion component by a first articulated portion (A); characterised in that the first articulated portion (A) is a cylindrical pin fixed on the first conversion component , and there is a pin groove at the linkage end to cooperate with the cylindrical pin; or wherein the first articulated portion (A) is a cylindrical pin fixed on the linkage end and there is a pin groove set on the first conversion component to cooperate with the cylindrical pin.
An optical node comprising: an input port configured to receive an input optical frame; a first optical switch coupled to the input port, wherein the first optical switch is configured to remove the input optical frame to produce a removed input optical frame when an address of the input optical frame is a node address of the optical node and to pass the input optical frame to a second optical switch when an address of the input optical frame differs from the address of the optical node; and the second optical switch coupled to the first optical switch, wherein the second optical switch is configured to output the input optical frame to an output port when the address of the input optical frame is not the node address of the optical node and the address of the input optical frame is not an empty address; a third optical switch coupled to the first optical switch, wherein the third optical switch is configured to output an output optical frame if the input optical frame is removed or if the address of the input optical frame is empty, wherein outputting an output optical frame comprises wrapping a plurality of packets to produce the output optical frame, wherein the output optical frame has a gap. an input port configured to receive an input optical frame; a first optical switch coupled to the input port, wherein the first optical switch is configured to remove the input optical frame to produce a removed input optical frame when an address of the input optical frame is a node address of the optical node and to pass the input optical frame to a second optical switch when an address of the input optical frame differs from the address of the optical node; and the second optical switch coupled to the first optical switch, wherein the second optical switch is configured to output the input optical frame to an output port when the address of the input optical frame is not the node address of the optical node and the address of the input optical frame is not an empty address; a third optical switch coupled to the first optical switch, wherein the third optical switch is configured to output an output optical frame if the input optical frame is removed or if the address of the input optical frame is empty, wherein outputting an output optical frame comprises wrapping a plurality of packets to produce the output optical frame, wherein the output optical frame has a gap.