mhurhangee/patent-ind-claim-en huggingface dataset:
A fixing member for an implantable analyte sensor, wherein, the fixing member comprises a supporting portion, a receiving portion, a conductive path and a through hole; the supporting portion comprises supporting portion side walls, a supporting portion top and a supporting portion bottom; the receiving portion is located in the supporting portion side walls in a recessed manner, and the receiving portion comprises receiving portion side walls, a receiving portion inner wall, a receiving portion bottom and a receiving portion top; the conductive path comprises an input end and an output end, the input end is located on the receiving portion inner wall, and the output end is located on a surface of the supporting portion; the input end and the output end are electrically connected by a connecting portion; and an opening of the through hole is located at the receiving portion bottom, and the other opening is located at the supporting portion bottom. the fixing member comprises a supporting portion, a receiving portion, a conductive path and a through hole; the supporting portion comprises supporting portion side walls, a supporting portion top and a supporting portion bottom; the receiving portion is located in the supporting portion side walls in a recessed manner, and the receiving portion comprises receiving portion side walls, a receiving portion inner wall, a receiving portion bottom and a receiving portion top; the conductive path comprises an input end and an output end, the input end is located on the receiving portion inner wall, and the output end is located on a surface of the supporting portion; the input end and the output end are electrically connected by a connecting portion; and an opening of the through hole is located at the receiving portion bottom, and the other opening is located at the supporting portion bottom.
A method , comprising: receiving , at a TCP spoofer, a message from a local host including a request to initiate a TCP connection with a remote host ; determining spoofing resource conditions of the TCP spoofer; determining spoofing resource conditions of a TCP spoofer peer associated with the remote host ; and determining at the TCP spoofer whether to spoof the TCP connection from the local host to the remote host by querying a plurality of spoofing rules, wherein a first of the queried spoofing rules allows spoofing for the TCP connection if it corresponds to a first TCP port or application, and only if an amount of spoofing memory resources in use falls below or does not exceed a first predetermined threshold, wherein a second of the queried spoofing rules allows spoofing for the TCP connection if it corresponds to a second TCP port or application, and only if the amount of spoofing memory resources in use falls below or does not exceed a second predetermined threshold different from the first predetermined threshold, wherein the amount of spoofing memory resources in use is calculated using the determined spoofing resource conditions of the TCP spoofer and the TCP spoofer peer. receiving , at a TCP spoofer, a message from a local host including a request to initiate a TCP connection with a remote host ; determining spoofing resource conditions of the TCP spoofer; determining spoofing resource conditions of a TCP spoofer peer associated with the remote host ; and determining at the TCP spoofer whether to spoof the TCP connection from the local host to the remote host by querying a plurality of spoofing rules, wherein a first of the queried spoofing rules allows spoofing for the TCP connection if it corresponds to a first TCP port or application, and only if an amount of spoofing memory resources in use falls below or does not exceed a first predetermined threshold, wherein a second of the queried spoofing rules allows spoofing for the TCP connection if it corresponds to a second TCP port or application, and only if the amount of spoofing memory resources in use falls below or does not exceed a second predetermined threshold different from the first predetermined threshold, wherein the amount of spoofing memory resources in use is calculated using the determined spoofing resource conditions of the TCP spoofer and the TCP spoofer peer.
An air-conditioning apparatus configured to perform at least cooling operation or humidifying operation, the air-conditioning apparatus comprising: a drain pan configured to receive water; characterized by the air-conditioning apparatus further comprising a draining unit disposed on the underside of the drain pan and configured to drain water received in the drain pan ; and a detection unit integrated with the drain pan and configured to detect a biofilm formed in the drain pan , the detection unit being configured to perform detection of the biofilm in a state in which draining of water from the drain pan is complete, wherein the detection unit is adapted to transmit an ultrasonic wave and to detect an ultrasonic wave reflected back from the biofilm to thereby determine the presence or absence of the biofilm , or wherein the detection unit comprises a crystal oscillator detection unit comprising a crystal oscillator , and a sensitive membrane provided to the bottom surface of the drain pan . a drain pan configured to receive water; characterized by the air-conditioning apparatus further comprising a draining unit disposed on the underside of the drain pan and configured to drain water received in the drain pan ; and a detection unit integrated with the drain pan and configured to detect a biofilm formed in the drain pan , a draining unit disposed on the underside of the drain pan and configured to drain water received in the drain pan ; and a detection unit integrated with the drain pan and configured to detect a biofilm formed in the drain pan , the detection unit being configured to perform detection of the biofilm in a state in which draining of water from the drain pan is complete, wherein the detection unit is adapted to transmit an ultrasonic wave and to detect an ultrasonic wave reflected back from the biofilm to thereby determine the presence or absence of the biofilm , or wherein the detection unit comprises a crystal oscillator detection unit comprising a crystal oscillator , and a sensitive membrane provided to the bottom surface of the drain pan .
Micro-robot configured to move along a propulsion direction by vibrations, said micro-robot comprising a body comprising an actuator configured to generate vibrations causing the micro-robot to move, said micro-robot further comprising a steering system which comprises a resonating structure configured to be secured to the micro-robot , the resonating structure comprising: - a steering structure aimed at controlling the propulsion direction, - a distribution of weight-resonators , each weight-resonator being configured to be activated by a proper activation resonance frequency (f A , f A1 , f A2 ), the respective proper activation resonance frequencies (f A , f A1 , f A2 ) of the weight-resonators being different from each other, wherein the actuator is configured to generate vibrations in a range of frequencies including the proper activation resonance frequency of each weight-resonator, wherein the resonating structure displays at least two states: - at least one activated steering state (A, A 1 , A 2 ), in which at least one of the weight-resonators is activated at the proper activation resonance frequency to change the propulsion direction of the micro-robot , - a non-activated steering state (B), in which none of the weight-resonators is activated at its proper activation resonance frequency so as to maintain the propulsion direction of the micro-robot . - a steering structure aimed at controlling the propulsion direction, - a distribution of weight-resonators , each weight-resonator being configured to be activated by a proper activation resonance frequency (f A , f A1 , f A2 ), the respective proper activation resonance frequencies (f A , f A1 , f A2 ) of the weight-resonators being different from each other, - at least one activated steering state (A, A 1 , A 2 ), in which at least one of the weight-resonators is activated at the proper activation resonance frequency to change the propulsion direction of the micro-robot , - a non-activated steering state (B), in which none of the weight-resonators is activated at its proper activation resonance frequency so as to maintain the propulsion direction of the micro-robot .
An implantable valve system comprising: an adjustable stabilizing ring comprising: a body member that is transitionable from an elongate insertion geometry to an annular operable geometry , and a plurality of anchors deployable in the annular operable geometry to engage the annulus of a cardiovascular valve; and an implantable valve frame (2310a, 23 10b, 2410) in mechanical communication with the adjustable stabilizing ring , wherein the mechanical communication comprises partial physical contact between the implantable valve frame and the adjustable stabilizing ring , wherein the elongate insertion geometry is configured to allow percutaneous passage of the stabilizing ring , via a catheter, to a position adjacent to an annulus of the cardiovascular valve, wherein the annular operable geometry has a closed state to conform to the annulus of the cardiovascular valve, wherein the implantable valve frame comprises a first support element , a second support element and one bridging element extending from the first support element to the second support element , and wherein the bridging element comprises a single continuous surface to thereby form a straight profile of the implantable valve frame or wherein the bridging element extends radially inwards towards a central axis of the implantable valve frame to thereby form a constricted profile of the implantable valve frame . an adjustable stabilizing ring comprising: a body member that is transitionable from an elongate insertion geometry to an annular operable geometry , and a plurality of anchors deployable in the annular operable geometry to engage the annulus of a cardiovascular valve; and a body member that is transitionable from an elongate insertion geometry to an annular operable geometry , and a plurality of anchors deployable in the annular operable geometry to engage the annulus of a cardiovascular valve; and an implantable valve frame (2310a, 23 10b, 2410) in mechanical communication with the adjustable stabilizing ring , wherein the mechanical communication comprises partial physical contact between the implantable valve frame and the adjustable stabilizing ring , wherein the elongate insertion geometry is configured to allow percutaneous passage of the stabilizing ring , via a catheter, to a position adjacent to an annulus of the cardiovascular valve, wherein the annular operable geometry has a closed state to conform to the annulus of the cardiovascular valve, wherein the implantable valve frame comprises a first support element , a second support element and one bridging element extending from the first support element to the second support element , and wherein the bridging element comprises a single continuous surface to thereby form a straight profile of the implantable valve frame or wherein the bridging element extends radially inwards towards a central axis of the implantable valve frame to thereby form a constricted profile of the implantable valve frame .
A method of data transfer in a data processing network, the method comprising: sending, by a Request Node of the data processing network, a request to read data at a first address in the network, the request sent via a coherent interconnect to a Home Node of the data processing network that is associated with the first address; receiving, by the Request Node via the coherent interconnect, a plurality of data beats of the requested data, where a first data beat of the plurality of data beats is received at a first time and a last data beat of the plurality of data beats is received at a second time subsequent to the first time; responsive to receiving the first data beat and prior to receiving the last data beat, the Request Node sending an acknowledgement message to the Home Node via the coherent interconnect; and subsequent to sending the acknowledgement message to the Home Node and prior to the second time, the Request Node accepting snoop requests for the first address from the Home Node. sending, by a Request Node of the data processing network, a request to read data at a first address in the network, the request sent via a coherent interconnect to a Home Node of the data processing network that is associated with the first address; receiving, by the Request Node via the coherent interconnect, a plurality of data beats of the requested data, where a first data beat of the plurality of data beats is received at a first time and a last data beat of the plurality of data beats is received at a second time subsequent to the first time; responsive to receiving the first data beat and prior to receiving the last data beat, the Request Node sending an acknowledgement message to the Home Node via the coherent interconnect; and subsequent to sending the acknowledgement message to the Home Node and prior to the second time, the Request Node accepting snoop requests for the first address from the Home Node.
A safety system for identifying safe regions in a three-dimensional workspace that includes controlled machinery and a plurality of workcells (100 1 -100 5 ) distributed about the workspace , the system comprising, in each workcell : a plurality of sensors distributed about the workcell, each of the sensors being associated with a grid of pixels for recording images of a portion of the workcell within a sensor field of view; and a controller configured to: register the sensors with respect to each other so that the images obtained by the sensors collectively represent the workspace ; generate a three-dimensional representation of the workcell as a plurality of volumes; map one or more safe volumetric zones within the workcell , the volumetric zones being outside a safety zone of the machinery ; receive, from a second controller, a three-dimensional representation of at least a portion of an adjacent workcell as a plurality of volumes; and transmit, to the second controller, at least a portion of the three-dimensional representation of the workcell as a plurality of volumes. a plurality of sensors distributed about the workcell, each of the sensors being associated with a grid of pixels for recording images of a portion of the workcell within a sensor field of view; and a controller configured to: register the sensors with respect to each other so that the images obtained by the sensors collectively represent the workspace ; generate a three-dimensional representation of the workcell as a plurality of volumes; map one or more safe volumetric zones within the workcell , the volumetric zones being outside a safety zone of the machinery ; receive, from a second controller, a three-dimensional representation of at least a portion of an adjacent workcell as a plurality of volumes; and transmit, to the second controller, at least a portion of the three-dimensional representation of the workcell as a plurality of volumes. register the sensors with respect to each other so that the images obtained by the sensors collectively represent the workspace ; generate a three-dimensional representation of the workcell as a plurality of volumes; map one or more safe volumetric zones within the workcell , the volumetric zones being outside a safety zone of the machinery ; receive, from a second controller, a three-dimensional representation of at least a portion of an adjacent workcell as a plurality of volumes; and transmit, to the second controller, at least a portion of the three-dimensional representation of the workcell as a plurality of volumes.
A degassing method of an ink-jet ink, wherein the ink-jet ink comprises at least a pigment and the method comprises: feeding the ink around the exterior of a hollow fiber in an external refluxing type hollow fiber degassing module, and evacuating the interior of the hollow fiber under a condition of a pressure applied to an inlet of the external refluxing type hollow fiber degassing module during degassing of less than 0.1 MPa, wherein the ink-jet ink has a viscosity of not less than 10 mPa·second and not more than 50 mPa·second at 25 °C. feeding the ink around the exterior of a hollow fiber in an external refluxing type hollow fiber degassing module, and evacuating the interior of the hollow fiber under a condition of a pressure applied to an inlet of the external refluxing type hollow fiber degassing module during degassing of less than 0.1 MPa, wherein the ink-jet ink has a viscosity of not less than 10 mPa·second and not more than 50 mPa·second at 25 °C.
A memory controller , comprising: a command queue for receiving and storing memory access requests for a memory ; an arbiter for selectively picking accesses from the command queue and categorizing them as a first type of accesses or a second type of accesses, wherein the first type of accesses and the second type of accesses correspond to different page statuses of corresponding memory accesses in the memory; a refresh logic circuit for generating a refresh command to a bank of the memory , and providing a priority indicator with the refresh command whose value is set according to a number of pending per-bank refreshes, wherein the refresh logic circuit assigns the priority indicator one of a first priority status and a second priority status; and a final arbiter for selectively ordering the refresh command with respect to memory access requests of the first type accesses and the second type accesses based on the priority indicator, wherein the final arbiter prioritizes the refresh command to execute in an order between the first type of accesses and the second type of accesses when the priority indicator is the first priority status. a command queue for receiving and storing memory access requests for a memory ; an arbiter for selectively picking accesses from the command queue and categorizing them as a first type of accesses or a second type of accesses, wherein the first type of accesses and the second type of accesses correspond to different page statuses of corresponding memory accesses in the memory; a refresh logic circuit for generating a refresh command to a bank of the memory , and providing a priority indicator with the refresh command whose value is set according to a number of pending per-bank refreshes, wherein the refresh logic circuit assigns the priority indicator one of a first priority status and a second priority status; and a final arbiter for selectively ordering the refresh command with respect to memory access requests of the first type accesses and the second type accesses based on the priority indicator, wherein the final arbiter prioritizes the refresh command to execute in an order between the first type of accesses and the second type of accesses when the priority indicator is the first priority status.
A rotary machine for acting on a fluid comprising a stationary housing , a rotor for interacting with the fluid, a shaft for rotating the rotor about an axial direction (A), a bearing unit for supporting the rotor , and a sealing arrangement for sealing the bearing unit with respect to the rotor , wherein the rotor is arranged in the housing , and wherein the sealing arrangement comprises a stationary sealing element surrounding the shaft and designed for a contactless sealing of the shaft , wherein the sealing arrangement further comprises a rotor ring for preventing an axial flow along the shaft to the rotor , and a cover plate , wherein the rotor ring is rotationally fixedly connected to the rotor and arranged axially adjacent to the sealing element , wherein the rotor ring comprises a radially outer edge extending in the axial direction (A) and surrounding the sealing element , wherein the cover plate is fixed with respect to the housing and surrounds the rotor ring , wherein the cover plate has an outer rim extending in the axial direction (A), wherein a drain chamber is formed between the outer edge of the rotor ring and the outer rim of the cover plate , and wherein a discharge passage is provided for discharging the drain chamber , characterised in that the radially outer edge of the rotor ring is tapering towards the rotor .
A method for laser brazing a first member to a second member using a laser brazing head having first means for providing a first laser beam and second means for providing a second laser beam , the method comprising the steps of: a. arranging said first member in contact with said second member such that a junction is formed therebetween; b. providing a filler material in the vicinity of said junction , characterized in that the method further comprises the step of c. passing said laser brazing head along said junction such that said first laser beam melts said filler material to at least partially fill said junction to form a brazed joint , and said second laser beam effects a post heat treatment of said brazed joint , whereby the energy per unit area provided by the first laser beam is greater than or equal to the energy per unit area provided by the second laser beam . a. arranging said first member in contact with said second member such that a junction is formed therebetween; b. providing a filler material in the vicinity of said junction , characterized in that the method further comprises the step of c. passing said laser brazing head along said junction such that said first laser beam melts said filler material to at least partially fill said junction to form a brazed joint , and said second laser beam effects a post heat treatment of said brazed joint ,
A deuterium-enriched compound or a pharmaceutically-acceptable salt thereof, for use in a method of treating a mood disorder, depression, post-partum depression, or anxiety disorder, in a subject, comprising administering to the subject an effective amount of the compound selected from the group consisting of: and or a pharmaceutically-acceptable salt thereof.
Operating method for a management and/or control unit (2; 12, 21, 14) for a home automation installation (1; 11), the method comprising the following steps: - receiving data relating to a first home automation apparatus (3a; 13a) integrated or installed within the home automation installation, the data including at least one structural and/or functional feature of the first home automation apparatus; - following the step of receiving the data, automatically generating at least one scenario involving at least the first home automation apparatus, the first home automation apparatus being a home automation apparatus newly integrated or newly installed within the home automation installation, the scenario being a scenario of use of the home automation apparatus newly integrated or newly installed within the home automation installation and the scenario being a set of actions implemented by one or more home automation apparatuses of the installation in a determined and/or logical and/or coordinated manner, the set of actions comprising at least one conditional action. - receiving data relating to a first home automation apparatus (3a; 13a) integrated or installed within the home automation installation, the data including at least one structural and/or functional feature of the first home automation apparatus; - following the step of receiving the data, automatically generating at least one scenario involving at least the first home automation apparatus, the first home automation apparatus being a home automation apparatus newly integrated or newly installed within the home automation installation, the scenario being a scenario of use of the home automation apparatus newly integrated or newly installed within the home automation installation and the scenario being a set of actions implemented by one or more home automation apparatuses of the installation in a determined and/or logical and/or coordinated manner, the set of actions comprising at least one conditional action.