mhurhangee/patent-ind-claim-en huggingface dataset:
A roll for folding, or interfolding, a web, or sheet, of paper, fed along an advancing direction in a paper converting machine, or similar machines, said roll for folding, or interfolding, comprising: - a tubular body configured to rotate about a longitudinal rotation axis , said tubular body providing an external lateral surface and an internal lateral surface pneumatically communicating with each other through a plurality of suction holes organized in a predetermined number of suction groups , each suction group comprising a predetermined number of close longitudinal rows of suction holes distributed along said tubular body ; - a suction chamber provided internally to said roll for folding, or interfolding, and pneumatically connected to a suction device configured to generate a predetermined vacuum level; - a vacuum distribution device configured to selectively put in pneumatic connection said suction chamber with at least a row of suction holes of said plurality, at predetermined angular positions of said tubular body in such a way to cause the suction of the processed sheet, or web, of paper , and its adhesion at corresponding portions of said external lateral surface of said roll for folding, or interfolding; said roll for folding, or interfolding, wherein each suction group comprises at least 3 close longitudinal rows of suction holes configured to hold each sheet, or web, of paper on said roll at a respective portion of said external lateral surface , characterized in that at least 2 of said close longitudinal rows of suction holes of each suction group are arranged according to directions lying on incident planes (γa,γb,γc,γd) arranged to intersect each other in an intersection line parallel to said longitudinal rotation axis of said roll . - a tubular body configured to rotate about a longitudinal rotation axis , said tubular body providing an external lateral surface and an internal lateral surface pneumatically communicating with each other through a plurality of suction holes organized in a predetermined number of suction groups , each suction group comprising a predetermined number of close longitudinal rows of suction holes distributed along said tubular body ; - a suction chamber provided internally to said roll for folding, or interfolding, and pneumatically connected to a suction device configured to generate a predetermined vacuum level; - a vacuum distribution device configured to selectively put in pneumatic connection said suction chamber with at least a row of suction holes of said plurality, at predetermined angular positions of said tubular body in such a way to cause the suction of the processed sheet, or web, of paper , and its adhesion at corresponding portions of said external lateral surface of said roll for folding, or interfolding;
A bath tub and/or shower tray having a base part , which is connected to outflow fittings, and a wall or side element, which completely surrounds a perimeter of the base part and is arranged substantially perpendicular to the base part , the wall or side element being formed in multiple parts from substantially annular elements which can be fixed tightly to one another, wherein the substantially annular elements can be displaced towards one another in the direction of a vertical extent of the bath tub and/or shower tray , in particular can be pushed into and out of one another, wherein at least one substantially annular sealing element is provided between two substantially annular elements , wherein, at least on the annular element whichis displaceable the furthest relative to the base part , at least one raising and lowering mechanism is provided hinged thereto, wherein the raising and lowering mechanism comprises at least one electrically, hydraulically or pneumatically operated lifting cylinder or an adjusting spindle, and wherein all the substantially annular elements surrounding the base part can be displaced relative to the base part at least in the direction of a vertical extent of the bath tub, characterised in that the base part is surrounded by a drainage channel comprising the outflow fittings, and the annular elements are arranged such that they can be sunk into the drainage channel. at least one substantially annular sealing element is provided between two substantially annular elements , wherein, at least on the annular element whichis displaceable the furthest relative to the base part , at least one raising and lowering mechanism is provided hinged thereto, wherein the raising and lowering mechanism comprises at least one electrically, hydraulically or pneumatically operated lifting cylinder or an adjusting spindle, and wherein all the substantially annular elements surrounding the base part can be displaced relative to the base part at least in the direction of a vertical extent of the bath tub, characterised in that the base part is surrounded by a drainage channel comprising the outflow fittings, and the annular elements are arranged such that they can be sunk into the drainage channel.
A method for forming a heat transfer module , comprising: disposing a flexible container on a heat source surface of at least one heat source placed on a base , wherein the flexible container is substantially flat, and the heat source surface of the at least one heat source is separate from a surface of the base; mounting an outer case over the surface of the base and the heat source surface of the at least one heat source, such that the inflated flexible container is confined in a space between the outer case and the surface of the base; inflating the flexible container with a coolant , such that the inflated flexible container is conformably in contact with the surface of the base and the heat source surface of the at least one heat source; draining air from the space between the outer case and the surface of the base to enhance the shape of the inflated flexible container in conformity with the surface of the base and the heat source surface of the at least one heat source; and sealing the inflated flexible container to keep the coolant inside the flexible container; wherein the step of draining the air comprises placing the heat transfer module in a negative pressure chamber. disposing a flexible container on a heat source surface of at least one heat source placed on a base , wherein the flexible container is substantially flat, and the heat source surface of the at least one heat source is separate from a surface of the base; mounting an outer case over the surface of the base and the heat source surface of the at least one heat source, such that the inflated flexible container is confined in a space between the outer case and the surface of the base; inflating the flexible container with a coolant , such that the inflated flexible container is conformably in contact with the surface of the base and the heat source surface of the at least one heat source; draining air from the space between the outer case and the surface of the base to enhance the shape of the inflated flexible container in conformity with the surface of the base and the heat source surface of the at least one heat source; and sealing the inflated flexible container to keep the coolant inside the flexible container; wherein the step of draining the air comprises placing the heat transfer module in a negative pressure chamber.
An enclosure , comprising: at least a base substrate and a cover substrate , which constitute at least a part of the enclosure, wherein the enclosure either comprises the base substrate and the cover substrate as two layers or wherein the enclosure further comprises at least one intermediate layer positioned in between the base layer and the cover layer ; a function zone situated such that it is at least partly enclosed in the enclosure; wherein at least the cover substrate comprises a glass or glass-like material or a silicon based material and wherein preferably also the base substrate comprises a glass or glass-like material or a silicon based material; wherein the base substrate and the cover substrate are welded by means of at least one laser weld line ; where the laser weld line comprises a height HL in a direction perpendicular to its connecting plane, wherein the enclosure comprises at least a second laser weld line situated next to the first laser weld line and/or situated such that the mechanical stress in the at least one laser weld line is reduced by means of the second laser weld line, thus improving the mechanical stability of the enclosure. at least a base substrate and a cover substrate , which constitute at least a part of the enclosure, wherein the enclosure either comprises the base substrate and the cover substrate as two layers or wherein the enclosure further comprises at least one intermediate layer positioned in between the base layer and the cover layer ; a function zone situated such that it is at least partly enclosed in the enclosure; wherein at least the cover substrate comprises a glass or glass-like material or a silicon based material and wherein preferably also the base substrate comprises a glass or glass-like material or a silicon based material; wherein the base substrate and the cover substrate are welded by means of at least one laser weld line ; where the laser weld line comprises a height HL in a direction perpendicular to its connecting plane, wherein the enclosure comprises at least a second laser weld line situated next to the first laser weld line and/or situated such that the mechanical stress in the at least one laser weld line is reduced by means of the second laser weld line, thus improving the mechanical stability of the enclosure.
Burner with surface burning, which comprises a burner head having a housing and a fan , which generates a fuel-air mixture and which is supplied by a supply upstream of the housing to the burner head and the housing has a fabric membrane downstream on an outlet side and comprises a flame flash-back barrier which is arranged upstream of the fabric membrane at a distance to this, and at the fabric membrane a flame matrix is generated, having individual flames as well as support flames arranged there between, wherein the individual flames protrude from the support flames, characterised in - that at least the fabric membrane and the flame flash-back barrier are arranged by at least one releasable connection element which engages with a receiving region in the housing , - that the fabric membrane has through-holes arranged in a hole pattern, which change their alignment in the housing , and the flame flash-back barrier has through-bores arranged in a hole pattern which is able to be aligned in a position arranged with respect to the hole pattern of the fabric membrane , and the fabric membrane and the flame flash-back barrier are held to be able to be braced in these positions which are aligned with respect to each other by the at least one releasable connection element . - that at least the fabric membrane and the flame flash-back barrier are arranged by at least one releasable connection element which engages with a receiving region in the housing , - that the fabric membrane has through-holes arranged in a hole pattern, which change their alignment in the housing , and the flame flash-back barrier has through-bores arranged in a hole pattern which is able to be aligned in a position arranged with respect to the hole pattern of the fabric membrane , and the fabric membrane and the flame flash-back barrier are held to be able to be braced in these positions which are aligned with respect to each other by the at least one releasable connection element .
A method of controlling corn earworm damage to plants, said method comprising providing a Cry1Da insecticidal protein to said corn earworm for ingestion, wherein said Cry1Da insecticidal protein comprises a core toxin region that is at least 95% identical with SEQ ID NO: 6.
A valve for a sanitary fitting, comprising - a liquid duct with at least one inlet and at least one outlet for a liquid; - a membrane valve with a membrane and a counterpressure chamber connected to the at least one inlet ; and - a control rod for controlling the membrane valve , wherein the control rod can be adjusted by means of a push button between a closed position, in which the membrane valve is closed, and an open position , in which the membrane valve is at least partially open, wherein the control rod can be adjusted in the open position by means of a rotary handle between a minimum flow position , in which a minimum flow rate of the liquid flows through the at least one outlet , and a maximum flow position , in which a maximum flow rate of the liquid flows through the at least one outlet , and characterized in that the minimum flow position of the control rod is variably adjustable, wherein the control rod is connected to a sliding block via which the control rod can be adjusted between the minimum flow position and the maximum flow position when the rotary handle is rotated, wherein the control rod is connected to the sliding block via a first thread , wherein the sliding block is connected to the rotary handle via a second thread , wherein the first thread has a greater thread pitch than the second thread . - a liquid duct with at least one inlet and at least one outlet for a liquid; - a membrane valve with a membrane and a counterpressure chamber connected to the at least one inlet ; and - a control rod for controlling the membrane valve , wherein the control rod can be adjusted by means of a push button between a closed position, in which the membrane valve is closed, and an open position , in which the membrane valve is at least partially open, wherein the control rod can be adjusted in the open position by means of a rotary handle between a minimum flow position , in which a minimum flow rate of the liquid flows through the at least one outlet , and a maximum flow position , in which a maximum flow rate of the liquid flows through the at least one outlet , and the minimum flow position of the control rod is variably adjustable, wherein the control rod is connected to a sliding block via which the control rod can be adjusted between the minimum flow position and the maximum flow position when the rotary handle is rotated, wherein the control rod is connected to the sliding block via a first thread , wherein the sliding block is connected to the rotary handle via a second thread , wherein the first thread has a greater thread pitch than the second thread .
A combination of an electricity transport cable reel and a reel holder, the reel being associated with an arrangement for remote monitoring of the length of cable wound on the reel , said reel being associated with an arrangement for electrical connection of at least one stripped conductor of the free end of the cable, this electrical connection arrangement being connected to an electronic board powered by a battery and linked to a remote actuating application, said reel being associated with and supported by said reel holder , characterized in that said holder incorporates said electronic board into a tamperproof housing.
A haemostat composition comprising a chitosan salt or a chitosan derivative, wherein the haemostat composition is in a fibrous form, and is able to fully degrade in a human or animal body within 30 days; wherein the haemostat composition comprises a physiologically acceptable acid in an amount of between 25% and 70% by weight of the haemostat composition; and wherein the chitosan derivative comprises partially deacetylated chitin, carboxymethyl chitosan, hydroxyl butyl chitin, N-acyl chitosan, O-acyl chitosan, N-alkyl chitosan, O-alkyl chitosan, N-alkylidene chitosan, O-sulfonyl chitosan, sulfated chitosan, phosphorylated chitosan, nitrated chitosan, alkalichitin, alkalichitosan, or metal chelates with chitosan.
A module for a conveyor belt , comprising: a module body extending longitudinally from a first end to a second end , laterally from a first side to a second side and in height from a top surface to an opposite bottom surface, the module body formed mainly of a dielectric material; a capacitor formed by a pair of electrodes embedded in the module body, spaced from each other and separated by a dielectric comprising injection-molded plastic forming the majority of the module; a first set of hinge elements extending from the first end of the module body, a first hinge element including a first bushing connected to a first electrode ; a second set of hinge elements extending from the second end of the module body, a second hinge element including a second bushing connected to a second electrode ; a first electrically conductive hinge rod inserted through the first set of hinge elements and connecting to the first electrode via the first bushing; and a second electrically conductive hinge rod inserted through the second set of hinge elements and connecting to the second electrode via the second bushing ; wherein, when in use, the hinge rods are used to hingedly connect adjacent modules in a conveyor belt; wherein the hinge rods are connectable to a power source and wherein, when connected to the power source, voltage is applied to the electrodes via the hinge rods to generate static electricity, which provides an adhesive force for products conveyed on the top surface . a module body extending longitudinally from a first end to a second end , laterally from a first side to a second side and in height from a top surface to an opposite bottom surface, the module body formed mainly of a dielectric material; a capacitor formed by a pair of electrodes embedded in the module body, spaced from each other and separated by a dielectric comprising injection-molded plastic forming the majority of the module; a first set of hinge elements extending from the first end of the module body, a first hinge element including a first bushing connected to a first electrode ; a second set of hinge elements extending from the second end of the module body, a second hinge element including a second bushing connected to a second electrode ; a first electrically conductive hinge rod inserted through the first set of hinge elements and connecting to the first electrode via the first bushing; and a second electrically conductive hinge rod inserted through the second set of hinge elements and connecting to the second electrode via the second bushing ; wherein, when in use, the hinge rods are used to hingedly connect adjacent modules in a conveyor belt; wherein the hinge rods are connectable to a power source and wherein, when connected to the power source, voltage is applied to the electrodes via the hinge rods to generate static electricity, which provides an adhesive force for products conveyed on the top surface .
A system comprising an intraluminal device and a computing device, the intraluminal device comprising: an elongate body configured for insertion into a vessel; an ultrasound imaging sensor positioned on the elongate body configured to image the interior of the vessel; an ultrasound flow sensor positioned on the elongate body configured to detect a velocity of a liquid moving within the interior of the vessel; a pressure sensor positioned on the elongate body configured to detect pressure in the interior of the vessel; a single optical fiber, wherein the pressure, imaging and flow sensors are based on the single optical fiber, the elongate body is a guidewire , the guidewire comprises a hypotube , a distal end of the hypotube has a cage structure comprising a first window that allows the pressure sensor to be exposed to blood pressure, and the hypotube has a second window proximal to the cage structure , that serves as an opening for imaging and flow ultrasound, so that the optical fiber can be inserted through the hypotube to align the pressure sensor in the cage and the imaging sensor at the second window; wherein the computing device is configured to compare pressure signals from the pressure sensor and velocity flow signals from the ultrasound flow sensor to determine an index of hyperemic stenosis resistance. an elongate body configured for insertion into a vessel; an ultrasound imaging sensor positioned on the elongate body configured to image the interior of the vessel; an ultrasound flow sensor positioned on the elongate body configured to detect a velocity of a liquid moving within the interior of the vessel; a pressure sensor positioned on the elongate body configured to detect pressure in the interior of the vessel; a single optical fiber, wherein the pressure, imaging and flow sensors are based on the single optical fiber, the elongate body is a guidewire , the guidewire comprises a hypotube , a distal end of the hypotube has a cage structure comprising a first window that allows the pressure sensor to be exposed to blood pressure, and the hypotube has a second window proximal to the cage structure , that serves as an opening for imaging and flow ultrasound, so that the optical fiber can be inserted through the hypotube to align the pressure sensor in the cage and the imaging sensor at the second window; wherein the computing device is configured to compare pressure signals from the pressure sensor and velocity flow signals from the ultrasound flow sensor to determine an index of hyperemic stenosis resistance.
A method for detection of a bottom of at least one well of a multiwell plate for a pipetting device , wherein the pipetting device comprises at least one pipetting head configured for being coupled to a plurality of pipetting tips , wherein the method comprises using at least one force sensor configured for measuring a resistance force depending on a force on a pipetting tip exerted by the bottom , wherein the method comprises the following step: a) measuring the resistance force during movement of one of the pipetting tips from a start position downstream towards the bottom of the well and stopping the movement at a bottom position , wherein the bottom position is a position where a predefined resistance force is reached; and wherein the method is characterised by further comprising the following step: b) storing the bottom position together with a corresponding logical position of the well in the multiwell plate in at least one database . a) measuring the resistance force during movement of one of the pipetting tips from a start position downstream towards the bottom of the well and stopping the movement at a bottom position , wherein the bottom position is a position where a predefined resistance force is reached; and wherein the method is characterised by further comprising the following step: b) storing the bottom position together with a corresponding logical position of the well in the multiwell plate in at least one database .