mhurhangee/ep-ind-claims huggingface dataset:
Coalescence separator for separating liquid droplets from a gas flow, in particular for using it as an oil main separator of an oil separation system of a screw compressor, in particular for oil concentrations of at least 0.1 g/m 3 (volume based on standard conditions), comprising as the finest stage a multilayer structure, in particular wound, of a coalescing filter medium which can be disposed between the gas inlet and the gas outlet and enclosing a cavity, characterized in that the product of air permeability and grammage of the coalescing filter medium amounts to at least 16 g/m*s, in particular to at least 18 g/m*s, preferably to at least 25 g/m*s, further preferably to at least 35 g/m*s and is at most 100 g/m*s, preferably at most 80 g/m*s, particularly preferably at most 50 g/m*s.
A human assistance device, comprising: an upper torso harness configured to attach to a user; and a leg strap arrangement extending down the legs of the user and including a thigh portion over a gluteal area and the hamstrings of the user, the leg strap arrangement further including a knee portion including a knee pad over the front of the knee area of the user, and the leg strap arrangement further including a calf portion over the calf area of the user, wherein the thigh portion is adapted to affix to the upper torso harness proximate to the gluteal area of the user and configured to extend down from the gluteal area over the hamstrings of the user to the knee pad, and wherein the calf portion is configured to extend down from the knee pad over the calf area of the user to a foot anchor, wherein the upper torso harness and leg strap arrangement comprise elastic material. an upper torso harness configured to attach to a user; and a leg strap arrangement extending down the legs of the user and including a thigh portion over a gluteal area and the hamstrings of the user, the leg strap arrangement further including a knee portion including a knee pad over the front of the knee area of the user, and the leg strap arrangement further including a calf portion over the calf area of the user, wherein the thigh portion is adapted to affix to the upper torso harness proximate to the gluteal area of the user and configured to extend down from the gluteal area over the hamstrings of the user to the knee pad, and wherein the calf portion is configured to extend down from the knee pad over the calf area of the user to a foot anchor, wherein the upper torso harness and leg strap arrangement comprise elastic material.
A thermoplastic polyester resin composition being obtained by blending, with respect to 100 parts by weight of a thermoplastic polyester resin, 0.1 to 50 parts by weight of at least one phosphinate selected from a phosphinate and a diphosphinate, 0.1 to 10 parts by weight of a phosphazene compound, 0.1 to 50 parts by weight of a nitrogen-based flame retardant, 0.1 to 10 parts by weight of a polyfunctional epoxy compound, and 0.1 to 20 parts by weight of an olefin resin, the thermoplastic polyester resin composition satisfying the following Requirement (i): (i) a ratio of the parts by weight of the at least one phosphinate selected from a phosphinate and a diphosphinate to the parts by weight of the phosphazene compound (the parts by weight of component with respect to 100 parts by weight of component /the parts by weight of component with respect to 100 parts by weight of the component) is 2.0 to 8.0. (i) a ratio of the parts by weight of the at least one phosphinate selected from a phosphinate and a diphosphinate to the parts by weight of the phosphazene compound (the parts by weight of component with respect to 100 parts by weight of component /the parts by weight of component with respect to 100 parts by weight of the component) is 2.0 to 8.0.
Augment element (300, 400) for tibial applications in a knee prosthesis, said augment element (300, 400) comprising a metal body (301, 401) of a substantially truncated conical shape configured to be inserted into a bone extremity and having an outer surface comprising a metal trabecular surface (302, 402), said metal body (301, 401) being hollow with an axial through-cavity (304, 404) defining a plurality of substantially annular transversal sections, wherein said metal body (301, 401) is inclined in a direction of inclination, so as to define at least one eccentricity (312, 412) between a first transversal section at a first end (305, 405) of said axial through-cavity (304, 404) and a second transversal section at a second end (306, 406) of said axial through-cavity (304, 404), characterized in that said first transversal section at said first end (305, 405) is larger in size than said second transversal section at said second end (306, 406), and wherein said metal body (301, 401) comprises lateral walls (321, 421) having respective curved and concave shapes with respect to the outside of said metal body (301, 401), to replicate a medial/side and rear bone anatomy. said metal body (301, 401) being hollow with an axial through-cavity (304, 404) defining a plurality of substantially annular transversal sections, wherein said metal body (301, 401) is inclined in a direction of inclination, so as to define at least one eccentricity (312, 412) between a first transversal section at a first end (305, 405) of said axial through-cavity (304, 404) and a second transversal section at a second end (306, 406) of said axial through-cavity (304, 404), characterized in that said first transversal section at said first end (305, 405) is larger in size than said second transversal section at said second end (306, 406), and wherein said metal body (301, 401) comprises lateral walls (321, 421) having respective curved and concave shapes with respect to the outside of said metal body (301, 401), to replicate a medial/side and rear bone anatomy.
A material testing machine, which performs a three-point bending test on a testing piece, comprising: a support mechanism (30, 50) having a pair of support points for supporting the testing piece, an indenter that is connected to an ultrasonic oscillator and gives ultrasonic vibration to the testing piece by abutting against the testing piece, and a load mechanism (14, 15) that presses the indenter to the testing piece supported by the support mechanism (30, 50); characterized in that the support mechanism (30, 50) comprises: a spherical seat that has a lower member equipped with a spherical-surface-shaped concave portion or convex portion, and an upper member equipped with a spherical-surface-shaped concave portion or convex portion having a shape corresponding to the concave portion or convex portion in the lower member; a holding portion that supports the testing piece on the upper member; and a first movable member (57, 58) that causes the upper member to slide along the spherical surface with respect to the lower member. a support mechanism (30, 50) having a pair of support points for supporting the testing piece, an indenter that is connected to an ultrasonic oscillator and gives ultrasonic vibration to the testing piece by abutting against the testing piece, and a load mechanism (14, 15) that presses the indenter to the testing piece supported by the support mechanism (30, 50); characterized in that the support mechanism (30, 50) comprises: a spherical seat that has a lower member equipped with a spherical-surface-shaped concave portion or convex portion, and an upper member equipped with a spherical-surface-shaped concave portion or convex portion having a shape corresponding to the concave portion or convex portion in the lower member; a holding portion that supports the testing piece on the upper member; and a first movable member (57, 58) that causes the upper member to slide along the spherical surface with respect to the lower member. a spherical seat that has a lower member equipped with a spherical-surface-shaped concave portion or convex portion, and an upper member equipped with a spherical-surface-shaped concave portion or convex portion having a shape corresponding to the concave portion or convex portion in the lower member; a holding portion that supports the testing piece on the upper member; and a first movable member (57, 58) that causes the upper member to slide along the spherical surface with respect to the lower member.
A spinning unit comprising: a yarn supplying device (6, 7) adapted to supply a spun yarn; a winding device adapted to wind the spun yarn to form a package; a unit frame adapted to support the yarn supplying device (6, 7) and the winding device; and a yarn processing module that is detachably mounted on the unit frame and that includes a yarn pooling device adapted to pool the spun yarn between the yarn supplying device (6, 7) and the winding device, wherein the yarn processing module includes a module frame that is adapted to be detachably secured to the unit frame, wherein one of the unit frame and the module frame includes a guiding section adapted to position the module frame on the unit frame, and wherein the other one of the unit frame and the module frame includes a guided section adapted to be guided in the guiding section. a yarn supplying device (6, 7) adapted to supply a spun yarn; a winding device adapted to wind the spun yarn to form a package; a unit frame adapted to support the yarn supplying device (6, 7) and the winding device; and a yarn processing module that is detachably mounted on the unit frame and that includes a yarn pooling device adapted to pool the spun yarn between the yarn supplying device (6, 7) and the winding device, wherein the yarn processing module includes a module frame that is adapted to be detachably secured to the unit frame, wherein one of the unit frame and the module frame includes a guiding section adapted to position the module frame on the unit frame, and wherein the other one of the unit frame and the module frame includes a guided section adapted to be guided in the guiding section.
A method for wireless communication performed by a user equipment, UE, comprising: receiving, from a base station, a configuration message that includes more than one identifier associated with a group of UEs; determining a first identifier and a second identifier to use in monitoring a signal based at least in part on receiving the configuration message, wherein the first identifier is a wake-up signal radio network temporary identifier, RNTI, and the second identifier is a cell RNTI, C-RNTI; receiving a downlink control information, DCI, associated with the signal; analyzing content of the DCI to identify a bit mask associated with one or more intended recipients of the signal; determining whether to monitor a second signal based at least in part on the bit mask, wherein monitoring the second signal is based at least in part on determining that the UE is included in the one or more intended recipients; monitoring the signal based at least in part on at least one of the first identifier and the second identifier, wherein the signal indicates whether to skip an upcoming ON duration associated with a discontinuous reception; and communicating, with the base station, based at least in part on monitoring the signal. receiving, from a base station, a configuration message that includes more than one identifier associated with a group of UEs; determining a first identifier and a second identifier to use in monitoring a signal based at least in part on receiving the configuration message, wherein the first identifier is a wake-up signal radio network temporary identifier, RNTI, and the second identifier is a cell RNTI, C-RNTI; receiving a downlink control information, DCI, associated with the signal; analyzing content of the DCI to identify a bit mask associated with one or more intended recipients of the signal; determining whether to monitor a second signal based at least in part on the bit mask, wherein monitoring the second signal is based at least in part on determining that the UE is included in the one or more intended recipients; monitoring the signal based at least in part on at least one of the first identifier and the second identifier, wherein the signal indicates whether to skip an upcoming ON duration associated with a discontinuous reception; and communicating, with the base station, based at least in part on monitoring the signal.
Method in an electric propulsion arrangement of a sailing vessel, wherein the sailing vessel has a traction device provided with an electric motor and with a propeller mechanism, which electric motor of the traction device is used, if necessary, in forward drive and reverse drive as well as during sailing, if necessary, as a generator for charging the accumulators of the sailing vessel, and which propeller mechanism of the traction device comprises a propeller hub with blades, a hollow propeller shaft fixed at its first end to the propeller hub, and a shaft for controlling the pitch angles of the propeller blades, said control shaft being inside the propeller shaft, and an actuator, such as a servomotor, changing the position of the control shaft in relation to the propeller shaft, said actuator being rotatable along with the propeller shaft, and in which method the propeller shaft is supported and rotated around its center axis from a section between the first and the second end of the propeller shaft, and the pitch angles of the propeller blades are adjusted by means of the actuator, characterized in that the pitch angles are adjusted through the propeller shaft from the second end of the propeller shaft by rotating the control shaft inside the propeller shaft in relation to the propeller shaft with the actuator fixed by its frame to the second end of the propeller shaft, and that both the hollow propeller shaft and the control shaft inside it are divided into a first part and a second part that are connected to each other with a bevel gear transmission in such a way that on the first end of the first part of the propeller shaft is a bevel gear that is connected to mesh with a bevel gear that is on the second end of the second part of the propeller shaft, and correspondingly on the first end of the first part of the control shaft is a bevel gear that is connected to mesh with a bevel gear that is on the second part of the control shaft, and that the rotation between the first part and second part of the propeller shaft is transmitted through bevel gears and from one to another, and the rotation between the first part and second part of the control shaft is transmitted through bevel gears and from one to another.
A method of handling an incoming call from a first party that is directed to a second party and that has been received by an Internet protocol IP based private branch exchange telephony system, where a first telephony device used by the second party is engaged in an ongoing call when the incoming call is received, comprising: transferring the incoming call to the first telephony device used by the second party in such a way that the incoming call will remain camped until the ongoing call is completed, at which point the second party's first telephony device will treat the incoming call as a new incoming call; and sending a message to the second party to inform the second party that the incoming call is currently camped; characterized by: sending a message to the second party comprises instructing a push notification service (150, 152) that is separate from the IP based private branch exchange system to send a push notification to a second telephony device (106, 138, 136) used by the second party that is different from the first telephony device used by the second party, where the push notification informs the second party that the incoming call is currently camped. transferring the incoming call to the first telephony device used by the second party in such a way that the incoming call will remain camped until the ongoing call is completed, at which point the second party's first telephony device will treat the incoming call as a new incoming call; and sending a message to the second party to inform the second party that the incoming call is currently camped; characterized by: sending a message to the second party comprises instructing a push notification service (150, 152) that is separate from the IP based private branch exchange system to send a push notification to a second telephony device (106, 138, 136) used by the second party that is different from the first telephony device used by the second party, where the push notification informs the second party that the incoming call is currently camped.
A method of performing failure recovery in a distributed data store that stores a plurality of data pages on behalf of a database, the method comprising: detecting, by a first storage node for the distributed data store, coalesce events for individual ones of a plurality of data pages stored for a data store based, at least in part, on requests received at the data store to access the individual ones of the data pages, wherein detecting coalesce events occurs independently for each individual data page and is based on a number of redo log records linked to each individual data page exceeding a coalesce threshold, wherein the coalesce threshold is determined based on the performance of a storage node configured to perform coalesce operations, and the coalesce threshold is increased in response to a performance measure indicating the capacity of the storage node to perform coalesce operations is low; and performing, by the first storage node, respective coalesce operations for each individual data page in response to the detected coalesce events, comprising: accessing a redo log describing changes to the plurality of data pages stored at the data store to obtain those changes to each individual data pages; applying the obtained changes to the individual data pages to generate a different version of the individual data pages; and replacing the individual data pages with the different version of the individual data pages for servicing subsequently received access requests. detecting, by a first storage node for the distributed data store, coalesce events for individual ones of a plurality of data pages stored for a data store based, at least in part, on requests received at the data store to access the individual ones of the data pages, wherein detecting coalesce events occurs independently for each individual data page and is based on a number of redo log records linked to each individual data page exceeding a coalesce threshold, wherein the coalesce threshold is determined based on the performance of a storage node configured to perform coalesce operations, and the coalesce threshold is increased in response to a performance measure indicating the capacity of the storage node to perform coalesce operations is low; and performing, by the first storage node, respective coalesce operations for each individual data page in response to the detected coalesce events, comprising: accessing a redo log describing changes to the plurality of data pages stored at the data store to obtain those changes to each individual data pages; applying the obtained changes to the individual data pages to generate a different version of the individual data pages; and replacing the individual data pages with the different version of the individual data pages for servicing subsequently received access requests.
Maritime drift control system comprising a vessel movement detection unit to detect actual vessel speed and heading, further comprising a vessel movement control unit with a drift controller which is able to control operation of at least one propulsion device of a vessel, wherein the maritime drift control system comprises a drift error generator to generate drift error signals depending on a predetermined speed limit and the actual vessel speed, wherein the drift error generator is connected to the drift controller to transmit the drift error signals to the drift controller and wherein the drift controller is designated to use said drift error signals to compute and transmit propulsion command signals to the at least one propulsion device in order to reduce speed of the vessel to target values, further characterised in that the drift error signal shall be zero as long as the actual vessel speed is in a range between zero and a speed threshold value which is between zero and the predetermined speed limit, and wherein the drift error signal increases when the actual vessel speed increases above the speed threshold value, wherein the drift error generator is designated to calculate the integral of the drift error signals, and wherein the drift error generator is designated to apply a decaying function to reduce said integral, when the actual vessel speed is below the predetermined speed limit.
A method performed by a network system for enabling management of a mass excavation project, wherein the mass excavation project is associated with one or more transporting assets (140, 150, 160) and one or more load destination sites (T 1, T 2), wherein each load destination site (T 1, T 2) is associated with a maximum material weight receiving capacity, the method comprising: obtaining, from a user device associated with a transporting asset, a first information indicating that the transporting asset has been loaded with excavated material; providing, to the user device associated with the transporting asset, a load receipt based on the obtained first information, whereby the load receipt is associated with a load destination site (T 1) for depositing the excavated material; obtaining, from the user device associated with the transporting asset, a second information indicating that the transporting asset has off-loaded the excavated material at the load destination site (T 1); wherein the method is characterized in that the second information indicates the weight of the excavated material and by comprising: determining a remaining material weight receiving capacity of the load destination site (T 2) based on the obtained weight of the excavated material and the maximum material weight receiving capacity of the load destination site (T 1). obtaining, from a user device associated with a transporting asset, a first information indicating that the transporting asset has been loaded with excavated material; providing, to the user device associated with the transporting asset, a load receipt based on the obtained first information, whereby the load receipt is associated with a load destination site (T 1) for depositing the excavated material; obtaining, from the user device associated with the transporting asset, a second information indicating that the transporting asset has off-loaded the excavated material at the load destination site (T 1); wherein the method is characterized in that the second information indicates the weight of the excavated material and by comprising: determining a remaining material weight receiving capacity of the load destination site (T 2) based on the obtained weight of the excavated material and the maximum material weight receiving capacity of the load destination site (T 1).