mhurhangee/patent-ind-claim-en huggingface dataset:
Mast-securing system - having at least one band-tight support , which has a flexible strap , which is designed to surround a wooden mast circumferentially at least to some extent, - having a first tensioning cable , which is designed to brace the band-tight support against a lateral surface of the wooden mast and to be anchored in an area surrounding the wooden mast , - having a second tensioning cable , which is designed to be fastened on the band-tight support and to be anchored in the area surrounding the wooden mast , - wherein the band-tight support has a first eyelet , on which the first tensioning cable is fastened, and - wherein the band-tight support has a second eyelet , on which the second tensioning cable is fastened, characterized in that - the first tensioning cable surrounds the band-tight support circumferentially at least to some extent. - having at least one band-tight support , which has a flexible strap , which is designed to surround a wooden mast circumferentially at least to some extent, - having a first tensioning cable , which is designed to brace the band-tight support against a lateral surface of the wooden mast and to be anchored in an area surrounding the wooden mast , - having a second tensioning cable , which is designed to be fastened on the band-tight support and to be anchored in the area surrounding the wooden mast , - wherein the band-tight support has a first eyelet , on which the first tensioning cable is fastened, and - wherein the band-tight support has a second eyelet , on which the second tensioning cable is fastened, - the first tensioning cable surrounds the band-tight support circumferentially at least to some extent.
A reaction injection molding liquid mixture comprising a norbornene-based monomer, a metathesis polymerization catalyst that includes tungsten as a center metal, an activator, and an ether compound represented by a formula , wherein R 1 to R 4 are independently an alkyl group having 1 to 6 carbon atoms, the reaction injection molding liquid mixture comprising the activator and the ether compound in a molar ratio (ether compound/activator) of 0.7/1 to 10/1. wherein R 1 to R 4 are independently an alkyl group having 1 to 6 carbon atoms, the reaction injection molding liquid mixture comprising the activator and the ether compound in a molar ratio (ether compound/activator) of 0.7/1 to 10/1.
A kit for treating a treatment area (A) in a vasculature, comprising: a first catheter adapted for positioning at the treatment area (A) in the vasculature, said first catheter including a first balloon having a first, transient radiopaque material configured to form a first radiopaque marking (M) corresponding to the treatment area (A); and a second catheter adapted for positioning at the treatment area (A), said second catheter including a second balloon having a working surface (W2) identified by one or more second radiopaque markings that match with the transient radiopaque marking (M). a first catheter adapted for positioning at the treatment area (A) in the vasculature, said first catheter including a first balloon having a first, transient radiopaque material configured to form a first radiopaque marking (M) corresponding to the treatment area (A); and a second catheter adapted for positioning at the treatment area (A), said second catheter including a second balloon having a working surface (W2) identified by one or more second radiopaque markings that match with the transient radiopaque marking (M).
A biological fluid collection device , comprising: a housing having a receiving port and a puncturing element at least partially disposed within the housing , the puncturing element moveable between a pre-actuated position wherein the puncturing element is retained within the housing and a puncturing position wherein at least a portion of the puncturing element extends through the housing ; and a cartridge removably connectable to the receiving port of the housing , the cartridge defining a flow channel therein, the cartridge having a port in fluid communication with the flow channel for intake and expulsion of a biological fluid sample, wherein the flow channel comprises a sample stabilizer disposed within a portion of the flow channel ; characterized by an actuation member in fluid transfer communication with the flow channel , the actuation member transitionable between an initial position in which a multi-component blood sample is stored within the cartridge and an activated position in which at least a portion of the multi-component blood sample is expelled from the port . a housing having a receiving port and a puncturing element at least partially disposed within the housing , the puncturing element moveable between a pre-actuated position wherein the puncturing element is retained within the housing and a puncturing position wherein at least a portion of the puncturing element extends through the housing ; and a cartridge removably connectable to the receiving port of the housing , the cartridge defining a flow channel therein, the cartridge having a port in fluid communication with the flow channel for intake and expulsion of a biological fluid sample, wherein the flow channel comprises a sample stabilizer disposed within a portion of the flow channel ; characterized by an actuation member in fluid transfer communication with the flow channel , the actuation member transitionable between an initial position in which a multi-component blood sample is stored within the cartridge and an activated position in which at least a portion of the multi-component blood sample is expelled from the port .
Dispenser for dispensing sheet products stacked in a stacking direction comprising: a housing having first opposite side walls and second opposite side walls defining an interior space configured to accommodate the stack of the sheet products, the housing defining a dispensing opening at a front end of the first and second opposite side walls , and an engagement surface arranged at a front end portion of each of the first opposite side walls closer to one of the second opposite side walls than to the other of the second opposite side walls, wherein the engagement surfaces are engageable with respective opposite edges of the sheet products and extend in the stacking direction , wherein the dispenser further comprises a dispensing mechanism , the dispensing mechanism comprising a roller having an axis of rotation and configured to engage with a leading sheet product in the stack of sheet products to dispense at least a portion of the sheet product through the dispensing opening upon rotation, characterized in that the engagement surfaces are arranged between the axis of rotation and that side wall of the second opposite side walls to which they are located closer to. a housing having first opposite side walls and second opposite side walls defining an interior space configured to accommodate the stack of the sheet products, the housing defining a dispensing opening at a front end of the first and second opposite side walls , and an engagement surface arranged at a front end portion of each of the first opposite side walls closer to one of the second opposite side walls than to the other of the second opposite side walls, wherein the engagement surfaces are engageable with respective opposite edges of the sheet products and extend in the stacking direction , wherein the dispenser further comprises a dispensing mechanism , the dispensing mechanism comprising a roller having an axis of rotation and configured to engage with a leading sheet product in the stack of sheet products to dispense at least a portion of the sheet product through the dispensing opening upon rotation, characterized in that the engagement surfaces are arranged between the axis of rotation and that side wall of the second opposite side walls to which they are located closer to.
A device for printing a three-dimensional object, the device comprising: at least one material application unit to deposit at least one material for voxels of the three-dimensional object; a vertical cavity surface emitting laser array comprising a plurality of vertical cavity surface emitting lasers, the plurality of vertical cavity surface emitting lasers including a first vertical cavity surface emitting laser to operate at a first wavelength and a first intensity and a second vertical cavity surface emitting laser to operate at a second wavelength and a second intensity; and a processor to control a deposition of the at least one material for the voxels via the at least one material application unit , characterized in that the processor controls an application of electromagnetic energy to at least one voxel via the first vertical cavity surface emitting laser and controls an application of electromagnetic energy to at least one other voxel via the second vertical cavity surface emitting laser to create different regions with different physical properties to each other in the three-dimensional object. at least one material application unit to deposit at least one material for voxels of the three-dimensional object; a vertical cavity surface emitting laser array comprising a plurality of vertical cavity surface emitting lasers, the plurality of vertical cavity surface emitting lasers including a first vertical cavity surface emitting laser to operate at a first wavelength and a first intensity and a second vertical cavity surface emitting laser to operate at a second wavelength and a second intensity; and a processor to control a deposition of the at least one material for the voxels via the at least one material application unit , characterized in that the processor controls an application of electromagnetic energy to at least one voxel via the first vertical cavity surface emitting laser and controls an application of electromagnetic energy to at least one other voxel via the second vertical cavity surface emitting laser to create different regions with different physical properties to each other in the three-dimensional object.
A distribution method for distributing the total power of an energy conversion device between at least two converters comprised in said energy conversion device , the sum of the conversion powers of the converters corresponding to the total power of the conversion device , the energy conversion device performing an energy conversion between a first and a second electrical entities and comprising a processing unit configured to implement the method, characterised in that : said at least two converters correspond to at least two portions of a ring , said ring being stored in a memory as a plurality of angular intervals each corresponding to a respective converter , the portions being proportional to a predetermined power value of their respective converter , all of the at least two portions forming the full ring ; and in that the total power of the conversion device corresponds to an arc of the ring included between the positions of a first and a second movable sliders along the ring , said positions of the first slider and the second slider respectively corresponding to respective angular values stored in the memory, and the power distribution between the converters is defined by the positions of the first and second movable sliders along the ring . said at least two converters correspond to at least two portions of a ring , said ring being stored in a memory as a plurality of angular intervals each corresponding to a respective converter , the portions being proportional to a predetermined power value of their respective converter , all of the at least two portions forming the full ring ; and in that the total power of the conversion device corresponds to an arc of the ring included between the positions of a first and a second movable sliders along the ring , said positions of the first slider and the second slider respectively corresponding to respective angular values stored in the memory, and the power distribution between the converters is defined by the positions of the first and second movable sliders along the ring .
A method for supplying a plastic material (G) that contains rubber, to a material feeding port of an extruder provided with a screw which extrudes the material (G), the method comprising supplying the material (G), shaped into a band having a width A, to the material feeding port wherein the width A of the material (G) is 50% to 150% of a flight width (C, C1) of the screw , characterized in that the material (G) has a rectangular cross-section, and a thickness B of the material (G) is not less than 50% of a net flight depth (E, E1) of the screw . supplying the material (G), shaped into a band having a width A, to the material feeding port wherein the width A of the material (G) is 50% to 150% of a flight width (C, C1) of the screw , characterized in that the material (G) has a rectangular cross-section, and a thickness B of the material (G) is not less than 50% of a net flight depth (E, E1) of the screw .
Adjustable-performance stun grenade having a fuse head and rocker lever , a primer charge with a delay charge and an effect charge , having at least an upper and a lower blowout opening , wherein the stun grenade comprises at least two modules , the at least two modules being separate from one another and also connected to one another, characterized in that the one upper module contains the delay charge and the at least one upper blowout opening and receives the fuse head with primer cap and fuse housing, and the other lower module contains a chamber for receiving the effect charge .
A method for laser machining a brittle workpiece (40:60:78), the method comprising: providing a laser having laser parameters; performing a first cutting process with said laser using first laser parameters to make a first cut in said workpiece; and being characterised in that after performing said first cutting process, performing a second cutting process with said laser using second laser parameters to make a second cut in said workpiece, wherein said first laser parameters and said second laser parameters are selected such that a first laser fluence at the workpiece during the first cutting process is lower than a second laser fluence at the workpiece during the second cutting process, and wherein said second cutting process is performed at a location substantially adjacent to a space created by said first cut such that debris generated during said second cutting process is transmittable into said space. providing a laser having laser parameters; performing a first cutting process with said laser using first laser parameters to make a first cut in said workpiece; and being characterised in that after performing said first cutting process, performing a second cutting process with said laser using second laser parameters to make a second cut in said workpiece, wherein said first laser parameters and said second laser parameters are selected such that a first laser fluence at the workpiece during the first cutting process is lower than a second laser fluence at the workpiece during the second cutting process, and wherein said second cutting process is performed at a location substantially adjacent to a space created by said first cut such that debris generated during said second cutting process is transmittable into said space.
Defence system with a distance-active protection system for protecting a military vehicle and a protection device for the military vehicle for protecting the latter against the retroactive effects (R) of the distance-active protection system on the vehicle , characterised in that the protection device has a protective shield which can be movably, in particular pivotably, attached to the vehicle by means of a fastening device and which has an observation window for viewing through the protective shield , the protective shield serving, in particular in a parking position, as a cover, in particular partial cover, for the distance-active protection system .
A conveying device with at least two conveying carts which in the conveying direction are arranged one behind the other and are spaced apart from each other such that an interspace is formed between the two conveying carts , wherein at least the one conveying cart comprises a covering means and at least the other conveying cart comprises a cross-belt conveyor for conveying conveyed material in a transverse conveying direction oriented substantially transversely to the conveying direction, wherein the covering means , when the conveying carts are travelling straight ahead and when they are negotiating curves, covers the interspace between the conveying carts in that the covering means of the one conveying cart is arranged at least in portions under an upper run of the transverse belt of the other conveying cart , characterized in that when negotiating curves the covering means engages at least in portions between an underside of the upper run and a first support plane in order to hinder the transverse belt from moving in the transverse conveying direction, wherein when travelling straight ahead the covering means engages at least in portions between the first support plane and a second support plane in order to permit the movement of the transverse belt in the transverse conveying direction, and wherein the first support plane and the second support plane are spaced apart from each other.
A network element configured to implement an application layer messaging protocol that uses hop-by-hop routing, the network element comprising a memory in which a routing table is stored, the routing table including one or more table entries, each table entry associating a hop supported by the network element with a message destination potentially reachable via that hop, wherein i) the supported hop has one of a link and a route to a peer of the network element and ii) potentially reachable via that next hop means that the network element has no positive knowledge about a link state between that hop and the message destination, and wherein the routing table comprises table entries under the assumption that the message destination can be reached via each of the next hops of the network element; an interface configured to receive topological information indicative of a local logical topography of a particular one of the hops in the routing table, wherein the local logical topography comprises other network elements directly reachable by the particular one the hops and the links to those network elements; and at least one processor having access to the memory, the processor being configured to modify the routing table based on the received topological information, wherein, the processor is further configured to modify the routing table by deleting a table entry for the particular hop if the received topology information indicates that the particular hop has no direct link to the message destination. a memory in which a routing table is stored, the routing table including one or more table entries, each table entry associating a hop supported by the network element with a message destination potentially reachable via that hop, wherein i) the supported hop has one of a link and a route to a peer of the network element and ii) potentially reachable via that next hop means that the network element has no positive knowledge about a link state between that hop and the message destination, and wherein the routing table comprises table entries under the assumption that the message destination can be reached via each of the next hops of the network element; an interface configured to receive topological information indicative of a local logical topography of a particular one of the hops in the routing table, wherein the local logical topography comprises other network elements directly reachable by the particular one the hops and the links to those network elements; and at least one processor having access to the memory, the processor being configured to modify the routing table based on the received topological information, wherein, the processor is further configured to modify the routing table by deleting a table entry for the particular hop if the received topology information indicates that the particular hop has no direct link to the message destination.
Automatic coffee grinder, of the type that grinds and supplies a dose of coffee to a filter holder in order to prepare coffee, which includes a grinding chamber, a ground coffee doser assembly and a coffee hopper that supplies coffee beans to the grinding chamber connected to the ground coffee doser assembly , characterised by the doser being a floating assembly that sits on a force transducer , equipped with means to measure the weight of both the doser when it is empty and the doses of ground coffee stored inside it, as well as means to immediately dispense the previously weighed dose of coffee into the filter holder .
An electronic package comprising: a first die ; a second die stacked onto the first die; and a first encapsulant positioned between the first die and the second die, the first encapsulant including a first material comprising a filler, the first encapsulant occupying a plurality of separate non-contiguous volumes between the first die and the second die; a second encapsulant positioned between the first die and the second die, the second encapsulant including a second material comprising a filler, the second material surrounding each of the plurality of separate and non-contiguous volumes between the first die and the second die, wherein the first material has a higher thermal conductivity than the second material, and the second material has a lower filler loading than the first material; and a third encapsulant positioned between the first die and the second die, the third encapsulant including a third material, the third encapsulant occupies a separate and non-contiguous volume between the first die and the second die, wherein the third material has a different thermal conductivity than the first material and the second material. a first die ; a second die stacked onto the first die; and a first encapsulant positioned between the first die and the second die, the first encapsulant including a first material comprising a filler, the first encapsulant occupying a plurality of separate non-contiguous volumes between the first die and the second die; a second encapsulant positioned between the first die and the second die, the second encapsulant including a second material comprising a filler, the second material surrounding each of the plurality of separate and non-contiguous volumes between the first die and the second die, wherein the first material has a higher thermal conductivity than the second material, and the second material has a lower filler loading than the first material; and a third encapsulant positioned between the first die and the second die, the third encapsulant including a third material, the third encapsulant occupies a separate and non-contiguous volume between the first die and the second die, wherein the third material has a different thermal conductivity than the first material and the second material.