mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit device comprising: a substrate ; a landing pad on the substrate ; and a through-via structure (150; 150A; 150B; 150C; 150D) passing through the substrate and connected to the landing pad , the through-via structure (150; 150A; 150B; 150C; 150D) including a conductive plug (152; 152A; 152B), a first conductive barrier layer (154; 154A; 154B; 154C) covering a sidewall and a lower surface of the conductive plug (152; 152A; 152B), and a second conductive barrier layer (156; 156A; 156B; 156C) covering a sidewall of the first conductive barrier layer (154; 154A; 154B; 154C), wherein the through-via structure (150; 150A; 150B; 150C; 150D) further includes a via insulation layer (158; 158A; 158B) covering a sidewall of the second conductive barrier layer (156; 156A; 156B; 156C), the via insulation layer (158; 158A; 158B) is spaced apart from the landing pad , and characterized in that the second conductive barrier layer (156; 156A; 156B; 156C) contacts the landing pad . a substrate ; a landing pad on the substrate ; and a through-via structure (150; 150A; 150B; 150C; 150D) passing through the substrate and connected to the landing pad , the through-via structure (150; 150A; 150B; 150C; 150D) including a conductive plug (152; 152A; 152B), a first conductive barrier layer (154; 154A; 154B; 154C) covering a sidewall and a lower surface of the conductive plug (152; 152A; 152B), and a second conductive barrier layer (156; 156A; 156B; 156C) covering a sidewall of the first conductive barrier layer (154; 154A; 154B; 154C), wherein the through-via structure (150; 150A; 150B; 150C; 150D) further includes a via insulation layer (158; 158A; 158B) covering a sidewall of the second conductive barrier layer (156; 156A; 156B; 156C), the via insulation layer (158; 158A; 158B) is spaced apart from the landing pad , and characterized in that the second conductive barrier layer (156; 156A; 156B; 156C) contacts the landing pad .
A medical device deployment system, comprising: a main body ; a guidewire capable of being passed through the main body and including a lumen; and an optical shape sensing (OSS) system configured to pass through the lumen in the guidewire, the OSS system being configured to measure at least one of shape, position or orientation of a medical device being deployed relative to an anatomical feature and output optical shape sensing data obtained from reflections within an optical fiber of the OSS system indicative of a shape of the optical fiber, characterized in that the guidewire is centrally located in the main body , and the OSS system is centrally located in the lumen of the guidewire . a main body ; a guidewire capable of being passed through the main body and including a lumen; and an optical shape sensing (OSS) system configured to pass through the lumen in the guidewire, the OSS system being configured to measure at least one of shape, position or orientation of a medical device being deployed relative to an anatomical feature and output optical shape sensing data obtained from reflections within an optical fiber of the OSS system indicative of a shape of the optical fiber, the guidewire is centrally located in the main body , and the OSS system is centrally located in the lumen of the guidewire .
Locking mechanism for locking a plug connector to a plug-connection partner with which contact is to be made, wherein the locking mechanism can be arranged on the plug connector and consist of a main body and at least two types of locking elements, wherein at least one primary locking element of a first type is provided, which is arranged such that it can move between a first position and a second position , and wherein at least one secondary locking element of a second type is provided, which is arranged such that it can move between a first position and a second position , wherein the locking mechanism can have a first, open state, in which the plug connector and the plug-connection partner are not in contact, the primary locking element is in the first position and the secondary locking element is in the first position , and also a second, closed state, in which the plug connector and the plug-connection partner are locked to one another, the primary locking element is in the second position and the secondary locking element is in the second position , wherein the primary locking element has a locking means which, in the second position , engages into the plug-connection partner with which contact is made and in this way locks the plug connector to the plug-connection partner , the primary locking element , in the first position , is suitable for blocking a movement of the secondary locking element from the first position to the second position , the secondary locking element , in the second position , is suitable for blocking a movement of the primary locking element from the second position to the first position , wherein a primary spring element is provided, which exerts a force on the primary locking element and in this way forces the primary locking element to move to the first position , characterized in that a secondary spring element is provided, which exerts a force on the secondary locking element and in this way forces the secondary locking element to move to the second position .
A method of upgrading a vertical spindle pulverizer , comprising the steps of: removing a cover from a journal opening in a housing of the pulverizer to access a grinding zone of the pulverizer ; removing a first journal assembly having a toroidal grinding roll from the pulverizer through the journal opening ; removing a plurality of toroidal table segments from a grinding table of the pulverizer ; installing a plurality of inclined bull ring segments on the grinding table ; installing a second journal assembly having a conical grinding roll in the pulverizer ; and replacing the cover over the journal opening ; wherein the inclined bull ring segments are configured to register with a grinding surface of the conical grinding roll , characterised in that the step of installing the second journal assembly in the pulverizer includes mounting the second journal assembly to a pivot bracket on which the journal assembly is configured to pivot via two opposed pivot shaft segments , wherein the opposed pivot shaft segments are spaced from one another and do not extend a length of the pivot bracket. removing a cover from a journal opening in a housing of the pulverizer to access a grinding zone of the pulverizer ; removing a first journal assembly having a toroidal grinding roll from the pulverizer through the journal opening ; removing a plurality of toroidal table segments from a grinding table of the pulverizer ; installing a plurality of inclined bull ring segments on the grinding table ; installing a second journal assembly having a conical grinding roll in the pulverizer ; and replacing the cover over the journal opening ; wherein the inclined bull ring segments are configured to register with a grinding surface of the conical grinding roll , characterised in that the step of installing the second journal assembly in the pulverizer includes mounting the second journal assembly to a pivot bracket on which the journal assembly is configured to pivot via two opposed pivot shaft segments , wherein the opposed pivot shaft segments are spaced from one another and do not extend a length of the pivot bracket.
Capsule , in particular for the preparation of a beverage product, comprising a capsule body which is covered with a lid and is preferably rotationally symmetrical, wherein a one-dimensional machine-readable code is applied, in particular printed, on the lid , the one-dimensional machine-readable code being a bar code whose bars extend along a straight line (g) running through the centre of gravity (S) of the lid, the code being machine-readable in a reading direction (r) perpendicular to the straight line (g), characterized in that the code is machine-readable - along the entire section (a) running on the cover , or - along several interrupted sections (a1, a2) running on the cover of the straight line (g). - along the entire section (a) running on the cover , or - along several interrupted sections (a1, a2) running on the cover
Aircraft beacon device of a wind power installation , to be arranged on a gondola of the wind power installation, comprising: - at least three omnidirectional emission sections arranged concentrically in a ring around a common mid-axis , each omnidirectional emission section comprising o a lens section arranged concentrically in a ring around the mid-axis, with a beam plane defined perpendicularly to the mid-axis, and o at least one lighting means ring having lighting means arranged concentrically in a ring around the mid-axis in order to emit light through the lens section, wherein ▪ each lighting means ring is configured in order to emit light with a central emission direction which makes an emission angle with the beam plane, and wherein the emission direction depends on an axial position of the lighting means ring with respect to the lens section, wherein - at least one omnidirectional emission section comprises at least two lighting means rings offset axially with respect to one another for emission with different emission angles, wherein - the aircraft beacon device comprises a control unit which is configured to vary the emission characteristic of the aircraft beacon device by selective driving the two lighting means rings. - at least three omnidirectional emission sections arranged concentrically in a ring around a common mid-axis , each omnidirectional emission section comprising o a lens section arranged concentrically in a ring around the mid-axis, with a beam plane defined perpendicularly to the mid-axis, and o at least one lighting means ring having lighting means arranged concentrically in a ring around the mid-axis in order to emit light through the lens section, wherein ▪ each lighting means ring is configured in order to emit light with a central emission direction which makes an emission angle with the beam plane, and wherein the emission direction depends on an axial position of the lighting means ring with respect to the lens section, wherein o a lens section arranged concentrically in a ring around the mid-axis, with a beam plane defined perpendicularly to the mid-axis, and o at least one lighting means ring having lighting means arranged concentrically in a ring around the mid-axis in order to emit light through the lens section, wherein ▪ each lighting means ring is configured in order to emit light with a central emission direction which makes an emission angle with the beam plane, and wherein the emission direction depends on an axial position of the lighting means ring with respect to the lens section, wherein - at least one omnidirectional emission section comprises at least two lighting means rings offset axially with respect to one another for emission with different emission angles, wherein - the aircraft beacon device comprises a control unit which is configured to vary the emission characteristic of the aircraft beacon device by selective driving the two lighting means rings.
A network device operable with a hybrid mesh network having a plurality of network and client devices, the hybrid mesh network partitionable into one or more mesh island subsets, the network device comprising: a processor , a memory , a first network interface adapted to form a common mesh interface that enables connection between mesh island subsets of the hybrid mesh network and a second network interface adapted to enable communication on multiple channels within a mesh island subset, the first network interface and the second network interface each being independently addressable and adapted to enable multiple communication pathways simultaneously within the hybrid mesh network, the network device configured to: determine communication characteristics of one or more of the multiple communication pathways based on announcement messages received from other network devices in the network, wherein the announcement messages comprise traffic information and scan results, compute end-to-end deliverable traffic over the one or more of the multiple communication pathways based on the determined communication characteristics for the one or more mesh island subsets of the hybrid mesh network to determine a hybrid mesh network topology providing increased end-to-end deliverable traffic, and partition the hybrid mesh network into two or more mesh island subsets having a common mesh interface in accordance with the determined hybrid mesh network topology such that communication within each of the two or more mesh island subsets is on different non-overlapping wireless channels while increasing the end-to-end deliverable traffic in the hybrid mesh network. determine communication characteristics of one or more of the multiple communication pathways based on announcement messages received from other network devices in the network, wherein the announcement messages comprise traffic information and scan results, compute end-to-end deliverable traffic over the one or more of the multiple communication pathways based on the determined communication characteristics for the one or more mesh island subsets of the hybrid mesh network to determine a hybrid mesh network topology providing increased end-to-end deliverable traffic, and partition the hybrid mesh network into two or more mesh island subsets having a common mesh interface in accordance with the determined hybrid mesh network topology such that communication within each of the two or more mesh island subsets is on different non-overlapping wireless channels while increasing the end-to-end deliverable traffic in the hybrid mesh network.
A method for separating waste material, comprising the steps of: providing the waste material having aluminum and heavy metals, rough processing the waste material to remove the heavy metals, floating the material, sizing the material, comminuting the material, wet screening the material, washing the material with an acid to produce darkened material, and sorting the material to separate the darkened material and a purified aluminum product.
A congestion processing method for a quick user datagram protocol internet connection, QUIC, data transmission system, the QUIC data transmission system comprises a source host, a router, and a destination host, a transmission link among the source host, the router, and the destination host bears a plurality of streams, and a transmission priority is configured for each of the plurality of streams; and the method comprises: sending , by the source host, a resource data packet on each stream based on a transmit rate of each stream, wherein when the router determines that the transmission link is congested, the router sets a congestion flag in the resource data packet; receiving , by the source host from each stream, a response data packet forwarded by the router, wherein the response data packet is sent by the destination host, one response data packet on one stream of the plurality of streams comprises a congestion notification flag, wherein the congestion notification flag is used to notify the source host that the transmission link is congested and wherein the response data packet comprising the congestion notification flag corresponds to a stream with a high transmission priority; and performing , by the source host, congestion processing based on the congestion notification flag and the transmission priority of each stream, and subsequently adding a flag indicating that congestion has been processed to a to-be-sent resource data packet, wherein the flag indicating that congestion has already been processed is used to notify the destination host that the congestion of the transmission link has already been processed. sending , by the source host, a resource data packet on each stream based on a transmit rate of each stream, wherein when the router determines that the transmission link is congested, the router sets a congestion flag in the resource data packet; receiving , by the source host from each stream, a response data packet forwarded by the router, wherein the response data packet is sent by the destination host, one response data packet on one stream of the plurality of streams comprises a congestion notification flag, wherein the congestion notification flag is used to notify the source host that the transmission link is congested and wherein the response data packet comprising the congestion notification flag corresponds to a stream with a high transmission priority; and performing , by the source host, congestion processing based on the congestion notification flag and the transmission priority of each stream, and subsequently adding a flag indicating that congestion has been processed to a to-be-sent resource data packet, wherein the flag indicating that congestion has already been processed is used to notify the destination host that the congestion of the transmission link has already been processed.
Safety device , comprising a front hood and a hood latch having a latch holder , for a motor vehicle, wherein the hood latch has a catch , which has a pre-ratchet position and a main ratchet position, and an electric drive , which causes the catch to switch from the main ratchet position into the pre-ratchet position, the front hood being closed and locked in the main ratchet position, it being possible to manually move the front hood in the pre-ratchet position of the catch from a locking position of the front hood , in which the latch holder is engaged with the catch and the front hood is locked, to an unlocking position of the front hood , in which the latch holder is released from the catch and the front hood is unlocked, wherein the safety device has a mechanical operative connection between the electric drive and the catch while the catch is switched from the main ratchet position into the pre-ratchet position.
Induction charging unit, in particular handheld tool induction charging unit, which is provided to transmit energy in a state in which it is coupled to an induction accumulator , having at least one charging coil and having a housing , which in a coupled state comprises at least one receiving region for receiving the induction accumulator , wherein the at least one receiving region has at least one depression , characterized in that the at least one depression at least partly forms a positioning element for positioning the induction accumulator , which positioning element is formed as a shoulder with a shoulder height from a range of values of 0.5 mm to 3 mm having a round outer contour for receiving the induction accumulator .
An assembly for securely mounting a rifle scope display adapter 'RDA' to the front of a scope body , the scope body having a threaded interior surface and an external surface, the assembly comprising: a first ring configured to be coupled to the RDA and the scope body , wherein: the first ring comprises a threaded exterior surface that is configured to mate with the threaded interior surface of the scope body ; and the first ring is configured to be coupled to the RDA such that the first ring can rotate around a center axis of the first ring; and a second ring configured to be coupled to the RDA and scope body , wherein: the second ring is configured such that the external surface of the scope body fits within the second ring; and said second ring is configured to cause radial pressure to be exerted against the external surface of the scope body . a first ring configured to be coupled to the RDA and the scope body , wherein: the first ring comprises a threaded exterior surface that is configured to mate with the threaded interior surface of the scope body ; and the first ring is configured to be coupled to the RDA such that the first ring can rotate around a center axis of the first ring; and the first ring comprises a threaded exterior surface that is configured to mate with the threaded interior surface of the scope body ; and the first ring is configured to be coupled to the RDA such that the first ring can rotate around a center axis of the first ring; and a second ring configured to be coupled to the RDA and scope body , wherein: the second ring is configured such that the external surface of the scope body fits within the second ring; and said second ring is configured to cause radial pressure to be exerted against the external surface of the scope body . the second ring is configured such that the external surface of the scope body fits within the second ring; and said second ring is configured to cause radial pressure to be exerted against the external surface of the scope body .
A materials handling vehicle comprising: a mast assembly ; a load handling structure supported on the mast assembly ; one or more operator controls (C); a lifting structure having a chain structure for performing a lifting and lowering of the load handling structure relative to the mast assembly ; a height sensor for generating a height signal corresponding to vertical movement of the load handling structure relative to the mast assembly ; and a vehicle control module for processing the height signal received from the height sensor and an operator control signal received from the one or more operator controls (C), characterized in that the vehicle control module evaluates the height signal and the operator control signal and disables one or more vehicle functions if the height signal does not correspond to the operator control signal. a mast assembly ; a load handling structure supported on the mast assembly ; one or more operator controls (C); a lifting structure having a chain structure for performing a lifting and lowering of the load handling structure relative to the mast assembly ; a height sensor for generating a height signal corresponding to vertical movement of the load handling structure relative to the mast assembly ; and a vehicle control module for processing the height signal received from the height sensor and an operator control signal received from the one or more operator controls (C), characterized in that the vehicle control module evaluates the height signal and the operator control signal and disables one or more vehicle functions if the height signal does not correspond to the operator control signal.