mhurhangee/ep-ind-claims huggingface dataset:
Frame rod which is divided in the longitudinal direction for forming at least two frame part elements (14, 16) formed from metal, wherein the first frame part element is angled to form at least two leg portions (34, 36), wherein the second frame part element is angled to form at least two leg portions (50, 52), wherein a first leg portion of the first frame part element is disposed adjacent to a first leg portion of the second frame part element and a second leg portion of the first frame part element is disposed adjacent to a second leg portion of the second frame part element, wherein the first and second frame part elements (14, 16) are connected with insertion of a thermal separation between the first and second leg portions (34, 36, 50, 52), characterized in that the connection is designed in such a way that the two frame part elements are connected at the first leg portions (34, 50) arranged adjacent to one another and at the second leg portions (36, 50) arranged adjacent to one another, the second leg portion of the second frame part element forming an abutment for the second leg portion of the first frame part element in such a way that the second leg portion of the first frame part element is supported on the second leg portion of the second frame part element, the first leg portions (34, 50) extending away from the abutment, so that an angle is formed between the first leg portions and the second leg portions and thus where the two frame part elements are connected to one another.
An information processing apparatus (200, 201) comprising: a control unit configured to perform, in a case where a first standby mode is set, control such that a first packet detection threshold value, which is used in a normal standby state, and a second packet detection threshold value, which is used in a low power standby state and which is larger than the first packet detection threshold value and indicates a lower packet detection probability than the first packet detection threshold value, are switched to change packet detection conditions, the first and second packet detection threshold values being compared with a reception level of a packet.
An access control device, comprising: a locking member having a locking position and an unlocking position; an electronic actuator operably connected with the locking member; a switch connected between the electronic actuator and a power supply, the switch having a closed state in which the electronic actuator is connected to the power supply, the switch having an open state in which the electronic actuator is disconnected from the power supply; and a manual actuator operable to transition the switch between the open state and the closed state, wherein, with the switch in the closed state, the access control device is placed in a first condition in which the electronic actuator is operable by an access control system to selectively actuate the locking member from the locking position to the unlocking position, and wherein, with the switch in the open state, the access control device is placed in a second condition in which the electronic actuator is not operable by the access control system and the locking member is maintained in the locking position. a locking member having a locking position and an unlocking position; an electronic actuator operably connected with the locking member; a switch connected between the electronic actuator and a power supply, the switch having a closed state in which the electronic actuator is connected to the power supply, the switch having an open state in which the electronic actuator is disconnected from the power supply; and a manual actuator operable to transition the switch between the open state and the closed state, wherein, with the switch in the closed state, the access control device is placed in a first condition in which the electronic actuator is operable by an access control system to selectively actuate the locking member from the locking position to the unlocking position, and wherein, with the switch in the open state, the access control device is placed in a second condition in which the electronic actuator is not operable by the access control system and the locking member is maintained in the locking position.
A controller for estimating individual axle weights of a rail vehicle comprising a number of wheel axles (131, 132, 133, 134) and a set of brake units (101, 102, 103, 104) configured to apply a respective brake force to each of the wheel axles (131, 132, 133, 134) so as to cause retardation of the rail vehicle, which controller is configured to obtain: a power signal (P m) indicating an amount of power produced by an onboard motor to accelerate the rail vehicle from a first speed (v 1) to a second speed (v 2), a speed signal indicating respective values of the first and second speeds (v 1, v 2), and based thereon estimate an overall weight (m tot) of the rail vehicle, characterized in that the controller is further configured to: (a) obtain wheel speed signals indicating respective rotational speeds (ω 1, ω 2, ω 3, ω 4) of the wheel axles (131, 132, 133, 134), (b) produce a brake control signal to a specific brake unit in the set of brake units such that this brake unit applies a gradually increasing brake force to a specific wheel axle of said wheel axles, (c) determine, repeatedly during production of the brake control signal, an absolute difference (|ω 1 - ω a |) between the rotational speed of the specific wheel axle and an average rotational speed (ω a) of said wheel axles except the specific wheel axle; and in response to the absolute difference exceeding a threshold value (d) determine a parameter (μ m) reflecting a friction coefficient (μ e) between a pair of wheels (121a, 121b) on the specific wheel axle and a pair of rails (181, 182) upon which the rail vehicle travels, repeat steps (a) to (c) for each of said wheel axles, and based thereon estimate a respective fraction (m 1, m 2, m n) of the overall weight (m tot) carried by each of said wheel axles. a power signal (P m) indicating an amount of power produced by an onboard motor to accelerate the rail vehicle from a first speed (v 1) to a second speed (v 2), a speed signal indicating respective values of the first and second speeds (v 1, v 2), (a) obtain wheel speed signals indicating respective rotational speeds (ω 1, ω 2, ω 3, ω 4) of the wheel axles (131, 132, 133, 134), (b) produce a brake control signal to a specific brake unit in the set of brake units such that this brake unit applies a gradually increasing brake force to a specific wheel axle of said wheel axles, (c) determine, repeatedly during production of the brake control signal, an absolute difference (|ω 1 - ω a |) between the rotational speed of the specific wheel axle and an average rotational speed (ω a) of said wheel axles except the specific wheel axle; and in response to the absolute difference exceeding a threshold value (d) determine a parameter (μ m) reflecting a friction coefficient (μ e) between a pair of wheels (121a, 121b) on the specific wheel axle and a pair of rails (181, 182) upon which the rail vehicle travels,
A method to manufacture reticulated metal foam via a dual investment solid mold, comprising: pre-investing a precursor (20, 30) with a diluted pre-investment ceramic plaster to encapsulate the precursor (20, 30); and investing the encapsulated precursor (20, 30) with a ceramic plaster within a varied cross-section mold; characterised in that: the varied cross-section mold forms a mold thickness between an outer periphery of the encapsulated precursor (20, 30) at a top of the encapsulated precursor (20, 30) which is between 200-500% of a thickness between the outer periphery of the encapsulated precursor (20, 30) at a base of the encapsulated precursor (20, 30). pre-investing a precursor (20, 30) with a diluted pre-investment ceramic plaster to encapsulate the precursor (20, 30); and investing the encapsulated precursor (20, 30) with a ceramic plaster within a varied cross-section mold; characterised in that: the varied cross-section mold forms a mold thickness between an outer periphery of the encapsulated precursor (20, 30) at a top of the encapsulated precursor (20, 30) which is between 200-500% of a thickness between the outer periphery of the encapsulated precursor (20, 30) at a base of the encapsulated precursor (20, 30).
A set comprising a double-sided friction stir welding apparatus and metal plates to be welded, the double-sided friction stir welding apparatus comprising: a pair of rotating tools (1, 8) that are each configured to be disposed on one of first and second surfaces of an unwelded portion of metal plates; and a control device that controls operations of the rotating tools (1, 8), wherein the pair of rotating tools (1, 8) are configured to rotate in opposite directions so as to weld the metal plates together, wherein the pair of rotating tools (1, 8) comprises end portions (2, 9) each of which is formed in a circular and planar or convex curved or concave curved shape, and wherein the end portions (2, 9) are each made of a material harder than the metal plates; characterized in that each of the end portions (2, 9) has a diameter D (mm) that satisfies formula: 4 × t ≤ D ≤ 20 × t where t stands for thickness of each metal plate (mm); wherein the control device controls the rotating tools (1, 8) in such a manner as to satisfy formulas and described below: 0 ≤ α ≤ 3 0.25 × t − 0.2 × D × sin α ≤ G ≤ 0.8 × t − 0.2 × D × sin α α(°): inclination angle of rotating tool (1, 8), G (mm): distance between end portions (2, 9) of pair of rotating tools. a pair of rotating tools (1, 8) that are each configured to be disposed on one of first and second surfaces of an unwelded portion of metal plates; and a control device that controls operations of the rotating tools (1, 8), wherein the pair of rotating tools (1, 8) are configured to rotate in opposite directions so as to weld the metal plates together, wherein the pair of rotating tools (1, 8) comprises end portions (2, 9) each of which is formed in a circular and planar or convex curved or concave curved shape, and wherein the end portions (2, 9) are each made of a material harder than the metal plates; characterized in that each of the end portions (2, 9) has a diameter D (mm) that satisfies formula: 4 × t ≤ D ≤ 20 × t where t stands for thickness of each metal plate (mm); wherein the control device controls the rotating tools (1, 8) in such a manner as to satisfy formulas and described below: 0 ≤ α ≤ 3 0.25 × t − 0.2 × D × sin α ≤ G ≤ 0.8 × t − 0.2 × D × sin α α(°): inclination angle of rotating tool (1, 8), G (mm): distance between end portions (2, 9) of pair of rotating tools.
A joint mechanism, comprising: a first unit in which a motor unit and a speed reducer are coaxially arranged on a hollow first shaft; a second unit in which an encoder unit is arranged on a second shaft separated from the first shaft; and a power delivery unit configured to interconnect the first unit and the second unit, characterized in that in the second unit, a brake unit is coaxially arranged with the encoder unit on the second shaft. a first unit in which a motor unit and a speed reducer are coaxially arranged on a hollow first shaft; a second unit in which an encoder unit is arranged on a second shaft separated from the first shaft; and a power delivery unit configured to interconnect the first unit and the second unit, characterized in that in the second unit, a brake unit is coaxially arranged with the encoder unit on the second shaft.
A magnetic rotary-encoder sensor system comprising a screening system for the magnetic rotary-encoder sensor system in an environment of a machine including a magnetic noise field, wherein the rotary-encoder sensor system comprises a magnetic sensor, a pole wheel, and preferably a pole-wheel carrier, wherein the pole wheel comprises in a circumferential direction a plurality of permanent magnets of alternating magnetic polarity generating a useful field, wherein the pole-wheel carrier is configured to be mounted in a rotationally-fixed manner to a rotating machine shaft extending axially, rotational speed and/or angular position of which is to be determined by means of the rotary-encoder sensor system, wherein the magnetic sensor is positioned, in a mounted state of the rotary-encoder sensor system, relative to the machine shaft in a rotational plane of the pole wheel, which can affect the noise field, and directly opposite to the pole wheel, wherein the screening system comprises at least one magnetically conducting, preferably machine-fixed, deflection element being formed and dimensioned such that in the mounted state a measuring volume, which is substantially free of the noise field, is established, to which the magnetic sensor and such ones of the permanent magnets are at least adjacent which are required for generating an evaluable useful field, when the noise field is active characterized in that a first deflection element, which is longitudinally extending parallel to the machine shaft, is provided, wherein the first deflection element is arranged radially between the machine shaft and the pole wheel.
Installation system for applying a sealing ring to an injector, having: a pushing-on device for applying a sealing ring to an injector, wherein the pushing-on device has a housing with a bore which is designed to receive an installation element; wherein the bore has an inner end and an open outer end; and wherein the bore has, at its inner end, a stop which limits the ingress of the installation element into the bore to a specified ingress depth (L 1), wherein the outer end of the bore is surrounded by elastic spreading elements (18a, 18b, 18c); and an installation element which is designed for pushing onto an injector and for introduction into the bore formed in the pushing-on device, wherein the installation element has a first cylindrical region, which has a first diameter (d 1), a second cylindrical region, which has a second diameter (d 2) larger than the first diameter (d 1), and a conical region, which is arranged between the first and the second cylindrical region (2a, 2c) and which connects the two cylindrical regions (2a, 2c) to one another; wherein the sealing ring can be pushed onto the injector into its final position when the pushing-on device has been pushed onto the installation element as far as the stop. a pushing-on device for applying a sealing ring to an injector, wherein the pushing-on device has a housing with a bore which is designed to receive an installation element; wherein the bore has an inner end and an open outer end; and wherein the bore has, at its inner end, a stop which limits the ingress of the installation element into the bore to a specified ingress depth (L 1), wherein the outer end of the bore is surrounded by elastic spreading elements (18a, 18b, 18c); and an installation element which is designed for pushing onto an injector and for introduction into the bore formed in the pushing-on device, wherein the installation element has a first cylindrical region, which has a first diameter (d 1), a second cylindrical region, which has a second diameter (d 2) larger than the first diameter (d 1), and a conical region, which is arranged between the first and the second cylindrical region (2a, 2c) and which connects the two cylindrical regions (2a, 2c) to one another; wherein the sealing ring can be pushed onto the injector into its final position when the pushing-on device has been pushed onto the installation element as far as the stop.
A method for detecting a systemic inflammation comprising: a) providing an isolated sample which has been taken from an individual, b) determining a pathological level of progranulin in said isolated sample. a) providing an isolated sample which has been taken from an individual, b) determining a pathological level of progranulin in said isolated sample.
A leaning vehicle (1, 301, 501) turning in a leaning posture comprising: a leaning frame structure (10, 510, 20, 120, 220, 620) that, with respect to a left-right direction of the leaning vehicle (1, 301, 501), is configured to lean left during a left turn, and to lean right during a right turn, and is made of a material containing fiber-reinforced resin; and a leaning frame structure damage notification unit (40, 130, 230, 340, 540, 640) that, when the leaning frame structure (10, 510, 20, 120, 220, 620) receives an impact caused by a fall of the leaning vehicle (1, 301, 501) in a left direction or a right direction, and the impact causes damage to a non-visible part of the leaning frame structure (10, 510, 20, 120, 220, 620), is configured to make a notification of the damage, wherein the leaning frame structure damage notification unit (40, 130, 230, 340, 540, 640) has a leaning frame structure damage detection unit that, when the damage is caused to the non-visible part of the leaning frame structure (10, 510, 20, 120, 220, 620), is configured to electrically detect the damage, characterised in that the leaning frame structure damage detection unit is configured to detect changes in vibration propagating between two points in the leaning frame structure (10, 510, 20, 120, 220, 620) as viewed in the left-right direction. a leaning frame structure (10, 510, 20, 120, 220, 620) that, with respect to a left-right direction of the leaning vehicle (1, 301, 501), is configured to lean left during a left turn, and to lean right during a right turn, and is made of a material containing fiber-reinforced resin; and a leaning frame structure damage notification unit (40, 130, 230, 340, 540, 640) that, when the leaning frame structure (10, 510, 20, 120, 220, 620) receives an impact caused by a fall of the leaning vehicle (1, 301, 501) in a left direction or a right direction, and the impact causes damage to a non-visible part of the leaning frame structure (10, 510, 20, 120, 220, 620), is configured to make a notification of the damage, wherein the leaning frame structure damage notification unit (40, 130, 230, 340, 540, 640) has a leaning frame structure damage detection unit that, when the damage is caused to the non-visible part of the leaning frame structure (10, 510, 20, 120, 220, 620), is configured to electrically detect the damage, characterised in that the leaning frame structure damage detection unit is configured to detect changes in vibration propagating between two points in the leaning frame structure (10, 510, 20, 120, 220, 620) as viewed in the left-right direction.
Floating module comprising a plurality of walls extending between a first longitudinal end and a second longitudinal end, the floating module comprising a first partition and a second partition connecting each wall of the plurality of walls by defining with these walls an internal volume of the floating module, the floating module comprising at least one extension emerging from an external face of the wall, the extension extending longitudinally projecting from the first longitudinal end or the second longitudinal end, the extension and the wall from which the extension originates being produced by continuity of material, characterized in that an edge of a longitudinal end (4, 6) of the wall and the extension at least partly delimit a cavity, a thickness of the cavity being equal to or greater than a thickness of the wall from which the extension emerges.
Method for electing a master routing node of a given subnet of a network (1,300,500,600), which given subnet comprises nodes (2,3) connected together by a same type of interface, wherein the nodes comprising at least two activated interfaces (13,18) enabling a connection with the given subnet and another different subnet of the network (1,300,500,600) are defined as router nodes, one of the nodes (2,3) of the network (1,300,500,600) being chosen as target node, said method comprising following steps: - determining a first-type address associated with the interface of each node (2,3) on the given subnet, said first-type address being the address given by a routing table of the next hop on the path leading from said node to the target node, the next hop being a router node or said target node; - determining a second-type address associated with the interface of each node on the given subnet, said second-type address being the determined first-type address if the determined first-type address is on said given subnet, or the address of the interface of said node on the given subnet if the determined first-type address is on another subnet of the network than said given subnet; - sending by each router node of the given subnet a message containing its determined second-type address; - collecting at the interface of each node (2,3) on the given subnet said sent messages containing a second-type address associated with a router node of said given subnet; - selecting for the interface of each node (2,3) on the given subnet a third-type address among its determined second-type address and the second-type addresses contained in the collected messages, according to a selection rule known by all nodes (2,3) of said subnet; - electing as master routing node of said given subnet the node having the selected third-type address. - determining a first-type address associated with the interface of each node (2,3) on the given subnet, said first-type address being the address given by a routing table of the next hop on the path leading from said node to the target node, the next hop being a router node or said target node; - determining a second-type address associated with the interface of each node on the given subnet, said second-type address being the determined first-type address if the determined first-type address is on said given subnet, or the address of the interface of said node on the given subnet if the determined first-type address is on another subnet of the network than said given subnet; - sending by each router node of the given subnet a message containing its determined second-type address; - collecting at the interface of each node (2,3) on the given subnet said sent messages containing a second-type address associated with a router node of said given subnet; - selecting for the interface of each node (2,3) on the given subnet a third-type address among its determined second-type address and the second-type addresses contained in the collected messages, according to a selection rule known by all nodes (2,3) of said subnet; - electing as master routing node of said given subnet the node having the selected third-type address.
A method for measuring binding of a soluble target to an insoluble material comprising: exposing a solution comprising the soluble target to the insoluble material within a well plate thereby allowing the formation of a complex comprising the soluble target and the insoluble material; removing the solution comprising unbound soluble target and retaining the insoluble material in the well plate; resuspending the insoluble material in a second solution comprising at least one non-volatile component; drying the insoluble material; and measuring the X-ray fluorescence of the soluble target bound to the insoluble material. exposing a solution comprising the soluble target to the insoluble material within a well plate thereby allowing the formation of a complex comprising the soluble target and the insoluble material; removing the solution comprising unbound soluble target and retaining the insoluble material in the well plate; resuspending the insoluble material in a second solution comprising at least one non-volatile component; drying the insoluble material; and measuring the X-ray fluorescence of the soluble target bound to the insoluble material.
A crystalline form of Tenofovir Alafenamide Sebacate, wherein the crystalline form is Tenofovir Alafenamide Sebacate Form I, characterized by an X-ray powder diffraction (XRPD) pattern having peaks at 5.3°, 6.6°, 9.4°, 9.6°, and 19.8° 2-θ ± 0.2° 2-θ