mhurhangee/patent-ind-claim-en huggingface dataset:
A method of relaying data by a relay user equipment, UE, the method comprising: receiving data and one or more equivalent representations of the data from a remote user equipment, wherein the data includes: a first portion and a second portion; and priority data indicating a priority in transmission between the first portion and the second portion of the data; buffering the data and the one or more equivalent representations of the data; transmitting the data to a base station; receiving at least one negative acknowledgement, relating to the data, from the base station indicating an unsuccessful reception of the data by the base station; and transmitting , in response to receiving the at least one negative acknowledgement, at least one of the one or more equivalent representations of the data to the base station. receiving data and one or more equivalent representations of the data from a remote user equipment, wherein the data includes: a first portion and a second portion; and priority data indicating a priority in transmission between the first portion and the second portion of the data; a first portion and a second portion; and priority data indicating a priority in transmission between the first portion and the second portion of the data; buffering the data and the one or more equivalent representations of the data; transmitting the data to a base station; receiving at least one negative acknowledgement, relating to the data, from the base station indicating an unsuccessful reception of the data by the base station; and transmitting , in response to receiving the at least one negative acknowledgement, at least one of the one or more equivalent representations of the data to the base station.
A cyclone separator for separating at least two phases of a fluid with a base housing through which the fluid can flow in an essentially helical shape, that has a separation chamber with an upper and a lower end, wherein the upper and lower end each respectively have a wall, and a central axis that extends between the two ends, and furthermore a central separation tube arranged inside the conical separation chamber, concentric to the central axis of the base housing, with an essentially cylindrical wall, with a surface facing the inner cross-section with a first surface profile, and a surface facing away from the inner cross-section with a second surface profile, wherein the base housing has, at its upper end, a head section with an inner radius and with at least one essentially tangentially attached inlet opening for the fluid, as well as at least one light fraction outlet opening with a cross-section, and at its lower end, at least one expansion chamber and at least one heavy fraction outlet opening , wherein the expansion chamber has, on its base, a central pin arranged concentrically relative to the central axis in order to receive the central separation tube, said pin essentially extending to the height of the lower end of the central separation tube, and wherein the separation chamber tapers conically, at least in sections, in the direction of the lower end, preferably in a stepped progression with a constant cone angle α, wherein at the transition between the separation chamber and expansion chamber, a stabilizer is provided for the purposes of stabilizing the central separation tube and for controlling the flow of the light fraction, characterized in that the stabilizer has a first and a second annular and essentially concentric wall, each having a surface facing toward the inner cross-section and a surface facing away from the inner cross-section, wherein both walls are arranged in a plane and wherein the first and/or the second wall has fins with a fin angle δ, wherein the stabilizer is detachably connected to the base housing on the inner side of the base housing of the lower end by means of a radially extending perforation, especially by locking, and the first wall is locked at least with a section of the central pin of the expansion chamber, and wherein the first wall has the fins on the surface facing away from the inner cross-section and the second wall has the fins on the surface facing toward the inner cross-section, wherein the fins of the first wall and the fins of the second wall essentially do not touch.
A transport device unit for a transport device assembled using a plurality of transport device units , wherein the transport device unit comprises an actuator module with a plurality of electro-magnetic actuators and with an actuator module wiring board , wherein the transport device unit further comprises - a base plate module with a base plate for fixing the transport device unit to a support frame, wherein the actuator module is supported by the base plate module , and - a driving surface module with a driving surface element , which driving surface element is arranged above the actuator module covering the actuators and adapted to carry sample container carriers, wherein a wiring board is mounted to the base plate , the wiring board having a board-to-board connector for an electrical and mechanical coupling with the actuator module wiring board of the actuator module . - a base plate module with a base plate for fixing the transport device unit to a support frame, wherein the actuator module is supported by the base plate module , and - a driving surface module with a driving surface element , which driving surface element is arranged above the actuator module covering the actuators and adapted to carry sample container carriers,
The use of at least one polymer P obtained by radical copolymerization of a mixture of (i) acrylic acid; (ii) methacrylic acid; and (iii) at least one 2-hydroxyethyl methacrylate phosphate of Formula (a) below : wherein n is 1 or 2 for treating a metallic surface intended to be coated by a paint, a varnish or an adhesive, wherein the polymer P is obtained by radical copolymerization of a mixture having the following molar ratio, based on the total quantity of acrylic acid, methacrylic acid and 2-hydroxyethyl methacrylate phosphates of formula (a): - acrylic acid : from 80 to 90% - methacrylic acid : 5 to 15% - 2-hydroxyethyl methacrylate phosphates : 2 to 6% wherein n is 1 or 2 for treating a metallic surface intended to be coated by a paint, a varnish or an adhesive, wherein the polymer P is obtained by radical copolymerization of a mixture having the following molar ratio, based on the total quantity of acrylic acid, methacrylic acid and 2-hydroxyethyl methacrylate phosphates of formula (a): - acrylic acid : from 80 to 90% - methacrylic acid : 5 to 15% - 2-hydroxyethyl methacrylate phosphates : 2 to 6% - acrylic acid : from 80 to 90% - methacrylic acid : 5 to 15% - 2-hydroxyethyl methacrylate phosphates : 2 to 6%
An exercise machine comprising: - a supporting frame ; - a resistance fan on the supporting frame , the resistance fan being configured to provide an amount of resistance to a user of the exercise machine ; - a housing enclosing the resistance fan , the housing having a plurality of openings through which air from the resistance fan is directed towards the user of the exercise machine ; - a shroud on the housing , the shroud being movable into a plurality of positions with respect to the housing and the plurality of openings , wherein the plurality of openings defines a total cross-sectional area through which the air, upon use of the machine, flows through the housing , and wherein in each of the plurality of positions the shroud covers an equal portion of the total cross-sectional area so that an equal portion of the air from the resistance fan is redirected, whereby air is redirected from the resistance fan without changing the amount of resistance provided to the user of the exercise machine , characterized in that - the shroud is located on a rear side of the housing , the rear side of the housing being towards the user of the exercise machine . - a supporting frame ; - a resistance fan on the supporting frame , the resistance fan being configured to provide an amount of resistance to a user of the exercise machine ; - a housing enclosing the resistance fan , the housing having a plurality of openings through which air from the resistance fan is directed towards the user of the exercise machine ; - a shroud on the housing , the shroud being movable into a plurality of positions with respect to the housing and the plurality of openings , wherein the plurality of openings defines a total cross-sectional area through which the air, upon use of the machine, flows through the housing , and wherein in each of the plurality of positions the shroud covers an equal portion of the total cross-sectional area so that an equal portion of the air from the resistance fan is redirected, whereby air is redirected from the resistance fan without changing the amount of resistance provided to the user of the exercise machine , characterized in that - the shroud is located on a rear side of the housing , the rear side of the housing being towards the user of the exercise machine .
A hydraulic arrangement, comprising: a hydraulic circuit subjected to a pressure fluid from a hydraulic pressure unit ; an emergency hydraulic circuit comprising a sub hydraulic pressure unit ; and a joint device configured to join the emergency hydraulic circuit to the hydraulic circuit , the joint device comprising: an upstream port which connects to an upstream side of the hydraulic circuit ; and a downstream port which connects to a downstream side of the hydraulic circuit , characterized in that the joint device further comprises a closed chamber connected to the upstream port via a first stop valve and connected to the downstream port via a second stop valve ; a first joint having a first passage communicating to the closed chamber ; and a second joint attachable to the first joint , which has a second passage connected to the sub hydraulic pressure unit . a hydraulic circuit subjected to a pressure fluid from a hydraulic pressure unit ; an emergency hydraulic circuit comprising a sub hydraulic pressure unit ; and a joint device configured to join the emergency hydraulic circuit to the hydraulic circuit , the joint device comprising: an upstream port which connects to an upstream side of the hydraulic circuit ; and a downstream port which connects to a downstream side of the hydraulic circuit , characterized in that the joint device further comprises a closed chamber connected to the upstream port via a first stop valve and connected to the downstream port via a second stop valve ; a first joint having a first passage communicating to the closed chamber ; and a second joint attachable to the first joint , which has a second passage connected to the sub hydraulic pressure unit . an upstream port which connects to an upstream side of the hydraulic circuit ; and a downstream port which connects to a downstream side of the hydraulic circuit , characterized in that the joint device further comprises a closed chamber connected to the upstream port via a first stop valve and connected to the downstream port via a second stop valve ; a first joint having a first passage communicating to the closed chamber ; and a second joint attachable to the first joint , which has a second passage connected to the sub hydraulic pressure unit .
A method performed by a device (602/604/606) implementing a router network element , wherein the router network element operates within a network including a Segment Routing, SR, network portion and a Multiprotocol Label Switching, MPLS, network portion , wherein the router network element operates within both the SR network portion and the MPLS network portion, and wherein the network also utilizes an Open Shortest Path First, OSPF, protocol for exchanging routing information, the method comprising: receiving, at the router network element, an OSPF advertisement message originated by a mapping server , wherein the OSPF advertisement message includes a sub-Type-length-value, sub-TLV, element that identifies a preferred type of path across the MPLS network portion for an identifiable set of traffic that is to be received from the SR network portion, wherein the type of path defines a protocol used to provision the path; identifying, by the router network element based at least in part upon the sub-TLV element, one path of a plurality of available paths (108B/110) across the MPLS network portion for the identifiable set of traffic; and configuring, by the router network element, a forwarding plane of the router network element to utilize the identified one path to forward any received traffic from the SR network portion that can be determined to belong to the identifiable set of traffic. receiving, at the router network element, an OSPF advertisement message originated by a mapping server , wherein the OSPF advertisement message includes a sub-Type-length-value, sub-TLV, element that identifies a preferred type of path across the MPLS network portion for an identifiable set of traffic that is to be received from the SR network portion, wherein the type of path defines a protocol used to provision the path; identifying, by the router network element based at least in part upon the sub-TLV element, one path of a plurality of available paths (108B/110) across the MPLS network portion for the identifiable set of traffic; and configuring, by the router network element, a forwarding plane of the router network element to utilize the identified one path to forward any received traffic from the SR network portion that can be determined to belong to the identifiable set of traffic.
An externally applied composition, comprising the following Component (A) and Component (B): (A) is at least one member of the capsaicin family including at least one member of the capsaicin family selected from the group consisting of capsaicin ( -N-[(4-hydroxy-3-methoxyphenyl)methyl]-8-methylnon-6-enamide), nonyl acid vanillylamide (N-vanillylnonanamide) and dihydrocapsiate; (B) is at least one member selected from the group consisting of adenosine 2'-monophosphate, adenosine 3'-monophosphate, adenosine 5'-monophosphate (AMP), cyclic adenosine 3'5'-monophosphate (cAMP) and salts thereof, wherein the percentage of the weight of Component (A) with respect to the total weight of the externally applied composition is 0.000001 wt% to 0.01 wt%. (A) is at least one member of the capsaicin family including at least one member of the capsaicin family selected from the group consisting of capsaicin ( -N-[(4-hydroxy-3-methoxyphenyl)methyl]-8-methylnon-6-enamide), nonyl acid vanillylamide (N-vanillylnonanamide) and dihydrocapsiate; (B) is at least one member selected from the group consisting of adenosine 2'-monophosphate, adenosine 3'-monophosphate, adenosine 5'-monophosphate (AMP), cyclic adenosine 3'5'-monophosphate (cAMP) and salts thereof,
A method of managing turf in a work region , the method being characterised by : monitoring multiple sets of zone sensor data, each set associated with a different zone of a plurality of zones dividing the work region, each zone capturing homogeneous environmental conditions in the same zone, wherein each zone includes a single node providing a representation of a micro-climate of the respective zone and each node includes one or more sensors; and the method further comprises: providing a set of zone sensor data from the one or more sensors included in the single node of each zone as an input to a predictive turf model for the respective zone; determining an estimated turf condition for each zone based on an output of the predictive turf model for each zone; and generating a recommended action for each zone based on the associated estimated turf condition for each zone. monitoring multiple sets of zone sensor data, each set associated with a different zone of a plurality of zones dividing the work region, each zone capturing homogeneous environmental conditions in the same zone, wherein each zone includes a single node providing a representation of a micro-climate of the respective zone and each node includes one or more sensors; and the method further comprises: providing a set of zone sensor data from the one or more sensors included in the single node of each zone as an input to a predictive turf model for the respective zone; determining an estimated turf condition for each zone based on an output of the predictive turf model for each zone; and generating a recommended action for each zone based on the associated estimated turf condition for each zone. providing a set of zone sensor data from the one or more sensors included in the single node of each zone as an input to a predictive turf model for the respective zone; determining an estimated turf condition for each zone based on an output of the predictive turf model for each zone; and generating a recommended action for each zone based on the associated estimated turf condition for each zone.
A polypeptide comprising an amino acid sequence I consisting of: wherein any of X 1 to X 29 are independently of each other an amino acid, provided that at least 3 of X 1 to X 6 are independently of each other a positively charged amino acid, and wherein optionally up to 5 amino acids in positions other than denoted by X 1 to X 29 in SEQ ID NO: 1 are exchanged by any amino acid.
A method for biosensing of cells, comprising (a) subjecting the cells to a continuous single-pass perfusion wherein said perfusion comprises a perfusion medium which comprises a proliferation inhibitor, wherein said cells comprise microparticles or nanoparticles embedded therebetween, wherein said microparticles or nanoparticles serve as oxygen sensors, (b) measuring glucose and lactate directly using electrochemical sensors, wherein electrical signal from said electrochemical sensors and optical signals from said oxygen sensors are collected over the same time period, and (c) analyzing signals of said oxygen sensors and of said electrochemical sensors to thereby determine one or more physiological parameters that are characteristic to the cells. (a) subjecting the cells to a continuous single-pass perfusion wherein said perfusion comprises a perfusion medium which comprises a proliferation inhibitor, wherein said cells comprise microparticles or nanoparticles embedded therebetween, wherein said microparticles or nanoparticles serve as oxygen sensors, (b) measuring glucose and lactate directly using electrochemical sensors, wherein electrical signal from said electrochemical sensors and optical signals from said oxygen sensors are collected over the same time period, and (c) analyzing signals of said oxygen sensors and of said electrochemical sensors to thereby determine one or more physiological parameters that are characteristic to the cells.
A sound absorber unit, wherein the sound absorber unit is adapted to be mounted on a moving part in a gas environment to reduce sound resonance, the sound absorber unit is constructed as a box body generally having a curved hexahedron shape and is formed as a three-layer Helmholtz resonance sound absorbing structure that combines double holes with single holes, and the box body has two side surfaces that define the boundaries of the two ends of the box body in the movement direction of the moving part, wherein an open end side surface (D) is formed at one end and has an opening leading into a hollow cavity in the box body, and a closed end side surface (D') is formed at the other end; the interior of the box body is divided by a first partition plate and a second partition plate into a first hollow cavity , a second hollow cavity and a third hollow cavity , which are arranged in succession along the movement direction of the moving part; wherein, pipe orifices of two first hollow pipes are formed in the open end side surface (D), the pipe orifices of the first hollow pipes are open toward the gas environment space, and the first hollow pipes extend into the first hollow cavity by distances corresponding to the pipe lengths thereof; the pipe orifice of a second hollow pipe is formed in the first partition plate , the pipe orifice of the second hollow pipe is open toward the first hollow cavity , and the second hollow pipe extends into the second hollow cavity by a distance corresponding to the pipe length thereof; the pipe orifices of two third hollow pipes are formed in the second partition plate , the pipe orifices of the third hollow pipes are open toward the second hollow cavity , and the third hollow pipes extend into the third hollow cavity by distances corresponding to the pipe lengths thereof; and the first hollow cavity , the second hollow cavity and the third hollow cavity form three resonant cavities for layering of the three-layer Helmholtz resonance sound absorbing structure. pipe orifices of two first hollow pipes are formed in the open end side surface (D), the pipe orifices of the first hollow pipes are open toward the gas environment space, and the first hollow pipes extend into the first hollow cavity by distances corresponding to the pipe lengths thereof; the pipe orifice of a second hollow pipe is formed in the first partition plate , the pipe orifice of the second hollow pipe is open toward the first hollow cavity , and the second hollow pipe extends into the second hollow cavity by a distance corresponding to the pipe length thereof; the pipe orifices of two third hollow pipes are formed in the second partition plate , the pipe orifices of the third hollow pipes are open toward the second hollow cavity , and the third hollow pipes extend into the third hollow cavity by distances corresponding to the pipe lengths thereof; and the first hollow cavity , the second hollow cavity and the third hollow cavity form three resonant cavities for layering of the three-layer Helmholtz resonance sound absorbing structure.
An applicator for applying a gel-like cleaning agent to a surface, wherein the applicator has the following: - a body for receiving the cleaning agent , wherein the body has, at a first end , at least one outlet opening for the cleaning agent ; - a plunger for pressing the cleaning agent out through the at least one outlet opening , wherein the plunger comprises a plunger base and a plunger handle , wherein the plunger base can be pressed into the body from a second end of the body opposite the first end in order to press out the cleaning agent , and wherein the plunger handle has a handle surface that has at least one anti-slip structure , wherein the at least one anti-slip structure is formed as a hole through the plunger handle and wherein the hole is circular, wherein the plunger handle is disk-shaped and wherein the disk-shaped plunger handle is directed in a direction of movement of the plunger, and wherein the body has, at its first end , a number of spacers for placing onto the surface to be provided with the cleaning agent . - a body for receiving the cleaning agent , wherein the body has, at a first end , at least one outlet opening for the cleaning agent ; - a plunger for pressing the cleaning agent out through the at least one outlet opening , wherein the plunger comprises a plunger base and a plunger handle , wherein the plunger base can be pressed into the body from a second end of the body opposite the first end in order to press out the cleaning agent , and wherein the plunger handle has a handle surface that has at least one anti-slip structure , wherein the at least one anti-slip structure is formed as a hole through the plunger handle and wherein the hole is circular, wherein the plunger handle is disk-shaped and wherein the disk-shaped plunger handle is directed in a direction of movement of the plunger, and wherein the body has, at its first end , a number of spacers for placing onto the surface to be provided with the cleaning agent . wherein the at least one anti-slip structure is formed as a hole through the plunger handle and wherein the hole is circular, wherein the plunger handle is disk-shaped and wherein the disk-shaped plunger handle is directed in a direction of movement of the plunger, and wherein the body has, at its first end , a number of spacers for placing onto the surface to be provided with the cleaning agent .