mhurhangee/ep-ind-claims huggingface dataset:
Bottle crate with a bottom and four side walls with display openings (2, 3, 13) formed therein, with the bottom and the side walls being configured out of plastic, with the side walls of the crate being configured by several separate frame members (5a to 6b, 8; 12a, 12b) and the bottom by a bottom element separate from the frame members, with the frame members (5a to 6b, 8; 12a, 12b) and the bottom element being connected in kind of a modular system via plug-in connections for forming the crate, with the plug-in connections being configured as plug-clamp connection or click-lock connections, with the plug-clamp connections being configured by the fact that the frame members (5a to 6b, 8; 12a, 12b) with protruding sockets with a slightly conic cross-section being fitted and plugged into sockets of the corner frame profiles or vice versa and the locking takes place via locking elements at the frame members (5a to 6b, 8; 12a, 12b) and corner frame profiles, with the frame members (5a to 6b, 8; 12a, 12b) being interconnected with one another via corner frame profiles in the corner of the crate, that frame members (5a, 6a) framing an upper edge and frame members (5b, 6b) framing a lower edge are arranged parallel to the bottom element and frame members are formed perpendicular to the bottom, which form the crate corners and which are connected with the respective corner frame profiles via plug-in connections at their two ends.
A method for facilitating synchronization in a network, comprising, at a network node: receiving synchronization signals from one or more neighboring network nodes; determining whether the one or more neighboring network nodes have reached a synchronized state based on the synchronization signals; determining whether a difference between a current synchronization value of the network node and an average of synchronization values of the one or more neighboring network nodes exceeds a threshold, the synchronization values being estimated based on the synchronization signals; obtaining an updated synchronization value of the network node based on the synchronization values of the one or more neighboring network nodes, regardless of the current synchronization value, when it is determined that the one or more neighboring network nodes have reached the synchronized state and the difference exceeds the threshold; and characterized by setting a transmission period at which the network node transmits synchronization signals to a first period when it is determined that the one or more neighboring network nodes have not reached the synchronized state; and setting the transmission period to a second period longer than the first period when it is determined that the one or more neighboring network nodes have reached the synchronized state and that the difference does not exceed the threshold. receiving synchronization signals from one or more neighboring network nodes; determining whether the one or more neighboring network nodes have reached a synchronized state based on the synchronization signals; determining whether a difference between a current synchronization value of the network node and an average of synchronization values of the one or more neighboring network nodes exceeds a threshold, the synchronization values being estimated based on the synchronization signals; obtaining an updated synchronization value of the network node based on the synchronization values of the one or more neighboring network nodes, regardless of the current synchronization value, when it is determined that the one or more neighboring network nodes have reached the synchronized state and the difference exceeds the threshold; and characterized by setting a transmission period at which the network node transmits synchronization signals to a first period when it is determined that the one or more neighboring network nodes have not reached the synchronized state; and setting the transmission period to a second period longer than the first period when it is determined that the one or more neighboring network nodes have reached the synchronized state and that the difference does not exceed the threshold.
Lost formwork with a first formwork element and a second formwork element, wherein the formwork elements (2, 3) overlap with flat sections (4, 5) in sections and may be moved in relation to each other, wherein they may be fixed to each other by fixing means (14, 15) in a relative position that may be preset, wherein at least one formwork element (2, 3) has a sealing mass, characterised in that the sealing mass has cement and/or calcium hydroxide and at least one formwork element (2, 3) made of metal is galvanised or is made as black plate.
A method for harmonic reject upconverting a baseband signal using at least one quadrature passive mixer, the method comprising: receiving differential quadrature baseband signals (I_bb, IB_bb, Q_bb, Qb_bb) as a first baseband input via equal scaling resistances and a first set of multi-phase local oscillator, LO, signals as a first LO input; receiving said differential quadrature baseband signals as a second baseband input via equal scaling resistances and a second set of multi-phase LO signals as a second LO input; generating a first upconverted output and a first inverse upconverted output, both using the first baseband input and the first LO input; generating a second upconverted output and a second inverse upconverted output, both using the second baseband input and the second LO input; directly connecting the first upconverted output to the second upconverted output and applying said result to a first amplifier input; directly connecting the first inverse upconverted output to the second inverse upconverted output and applying said result to a second amplifier input; and transmitting an upconverted signal with at least one rejected harmonic spurious mixing product based at least in part on the first and second amplifier inputs; and wherein said first set of multi-phase LO signals comprises a first set of four-phase quadrature LO signals, and wherein said second set of multi-phase LO signals comprises a second set of four-phase quadrature LO signals; and wherein each signal within said first set of four-phase quadrature LO signals is shifted by 60 degrees relative to a corresponding signal in said second set of four-phase quadrature LO signals, and wherein said first set of four-phase quadrature LO signals are 33% duty cycle and said second set of four-phase quadrature LO signals are 66% duty cycle. receiving differential quadrature baseband signals (I_bb, IB_bb, Q_bb, Qb_bb) as a first baseband input via equal scaling resistances and a first set of multi-phase local oscillator, LO, signals as a first LO input; receiving said differential quadrature baseband signals as a second baseband input via equal scaling resistances and a second set of multi-phase LO signals as a second LO input; generating a first upconverted output and a first inverse upconverted output, both using the first baseband input and the first LO input; generating a second upconverted output and a second inverse upconverted output, both using the second baseband input and the second LO input; directly connecting the first upconverted output to the second upconverted output and applying said result to a first amplifier input; directly connecting the first inverse upconverted output to the second inverse upconverted output and applying said result to a second amplifier input; and transmitting an upconverted signal with at least one rejected harmonic spurious mixing product based at least in part on the first and second amplifier inputs; and
A method of at least partially separating a polyalcohol compound from water, so as to obtain a purified product stream comprising the polyalcohol compound in an output concentration of at least 90wt%, which method comprises the steps of: - Providing a mixture of the polyalcohol compound and water, said mixture having a polyalcohol concentration; - Increasing the polyalcohol concentration of the mixture in an evaporation stage, at least a portion of which is operated at a first pressure; - Treating the mixture in a distillation stage to deliver the stream comprising the polyalcohol compound in the output concentration of at least 90wt%, which distillation stage is operated at a second pressure, Wherein the distillation stage is operated to produce steam output, that is optionally compressed to a third pressure, and is coupled to the evaporation stage, wherein the second pressure and/or any third pressure is higher than the first pressure. - Providing a mixture of the polyalcohol compound and water, said mixture having a polyalcohol concentration; - Increasing the polyalcohol concentration of the mixture in an evaporation stage, at least a portion of which is operated at a first pressure; - Treating the mixture in a distillation stage to deliver the stream comprising the polyalcohol compound in the output concentration of at least 90wt%, which distillation stage is operated at a second pressure,
A method of transparently interfacing to a network, the network carrying a plurality of packets, each packet of the plurality of packets being transmitted, via the network, between one of at least one source and at least one intended destination intended by the one of the at least one source, the method comprising: interfacing with the network between each of the at least one source and each of the at least one intended destination so as to be able to intercept any packet of the plurality of packets transmitted therebetween; intercepting each of at least a subset of packets of the plurality of packets at the interfacing; and determining, for each intercepted packet, whether the intercepted packet is transmitted from one of the at least one source to one of the at least one intended destination or is transmitted from one of the at least one intended destination to one of the at least one source, characterised in that the method further comprises: accounting, by a processor, for each of the at least one intended destination, each intercepted packet transmitted thereto or received therefrom based on the determining; and taking an action based on the accounting. interfacing with the network between each of the at least one source and each of the at least one intended destination so as to be able to intercept any packet of the plurality of packets transmitted therebetween; intercepting each of at least a subset of packets of the plurality of packets at the interfacing; and determining, for each intercepted packet, whether the intercepted packet is transmitted from one of the at least one source to one of the at least one intended destination or is transmitted from one of the at least one intended destination to one of the at least one source, characterised in that the method further comprises: accounting, by a processor, for each of the at least one intended destination, each intercepted packet transmitted thereto or received therefrom based on the determining; and taking an action based on the accounting. accounting, by a processor, for each of the at least one intended destination, each intercepted packet transmitted thereto or received therefrom based on the determining; and taking an action based on the accounting.
Device for producing wire windings, in particular for electrical drives and generators, with at least two rotationally mounted drums (34, 36, 38) which are mounted at a predetermined distance from one another, wherein the at least two drums (34, 36, 38) each have at least one bending pin (34.1, 36.1, 38.1), said bending pins being fastened to a circumferential surface (34.2, 36.2, 38.2) of the corresponding drum (34, 36, 38) in a manner protruding substantially perpendicularly, wherein a movable wire-guiding device winds the wire around the bending pins (34.1, 36.1, 38.1) protruding from the at least two drums (34, 36, 38), in order to produce at least one wire winding (7.1, 7.2), wherein the wire-guiding device aligns the wire between two bending pins (34.1, 36.1, 38.1) under a predeterminable elastic tension and winds the wire under tension around the respective bending pin (34.1, 36.1, 38.1) by means of a rotational movement, wherein a first drum is fastened on a rotatable shaft at an edge region with a predetermined first number of bending pins (34.1), and wherein a second drum is fastened on the rotatable shaft with a predetermined second number of bending pins (36.1) and at a predetermined first distance from the first drum, characterized in that a third drum is fastened on the shaft with a predetermined third number of bending pins (38.1) and at a predetermined second distance from the first or second drum (34, 36).
An X-ray detector assembly, comprising: a scintillator; a photo detector comprising a sensing surface; a light attenuator disposed between the scintillator and the sensing surface of the photo detector, the light attenuator having a controllable light transmission rate wherein the light attenuator comprises: an electro-chromic layer; a first electrode layer electrically coupled to a first surface of the electro-chromic layer; and a second electrode layer electrically coupled to a second surface of the electro-chromic layer; wherein the second surface is disposed opposite the first surface; and wherein the electro-chromic layer comprises a fiber-optic plate like structure with a core made of electro-chromic material surrounded by a clad. a scintillator; a photo detector comprising a sensing surface; a light attenuator disposed between the scintillator and the sensing surface of the photo detector, the light attenuator having a controllable light transmission rate wherein the light attenuator comprises: an electro-chromic layer; a first electrode layer electrically coupled to a first surface of the electro-chromic layer; and a second electrode layer electrically coupled to a second surface of the electro-chromic layer; wherein the second surface is disposed opposite the first surface; and wherein the electro-chromic layer comprises a fiber-optic plate like structure with a core made of electro-chromic material surrounded by a clad. an electro-chromic layer; a first electrode layer electrically coupled to a first surface of the electro-chromic layer; and a second electrode layer electrically coupled to a second surface of the electro-chromic layer; wherein the second surface is disposed opposite the first surface; and wherein the electro-chromic layer comprises a fiber-optic plate like structure with a core made of electro-chromic material surrounded by a clad.
Neck mold assembly comprising: - N rows of holding plates, wherein N is an integer equal to or larger than 2, each of the N rows of holding plates holding a plurality of neck molds, - a supporting mechanism that supports the N rows of holding plates, the supporting mechanism member including: at least one reinforcement shaft that is provided along a row direction of the N rows of holding plates, and a plurality of first securing sections that secure either end of the at least one reinforcement shaft, - each of the N rows of holding plates having at least one first through-hole that receives the at least one reinforcement shaft, wherein each of the N rows of holding plates including: a pair of split plates (30A, 30B) that secure a pair of neck split molds (42A, 42B), a plurality of second through-holes that are formed in the row direction at a plurality of positions in the longitudinal direction of the N rows of holding plates; a plurality of guide shafts that are respectively inserted into the plurality of second through-holes; and a plurality of biasing members that are respectively inserted into the plurality of guide shafts, and bias the pair of split plates (30A, 30B) in a closing direction, and the at least one reinforcement shaft being disposed between the plurality of guide shafts in the longitudinal direction. - N rows of holding plates, wherein N is an integer equal to or larger than 2, each of the N rows of holding plates holding a plurality of neck molds, - a supporting mechanism that supports the N rows of holding plates, the supporting mechanism member including: at least one reinforcement shaft that is provided along a row direction of the N rows of holding plates, and a plurality of first securing sections that secure either end of the at least one reinforcement shaft, at least one reinforcement shaft that is provided along a row direction of the N rows of holding plates, and a plurality of first securing sections that secure either end of the at least one reinforcement shaft, - each of the N rows of holding plates having at least one first through-hole that receives the at least one reinforcement shaft, a pair of split plates (30A, 30B) that secure a pair of neck split molds (42A, 42B), a plurality of second through-holes that are formed in the row direction at a plurality of positions in the longitudinal direction of the N rows of holding plates; a plurality of guide shafts that are respectively inserted into the plurality of second through-holes; and a plurality of biasing members that are respectively inserted into the plurality of guide shafts, and bias the pair of split plates (30A, 30B) in a closing direction, and the at least one reinforcement shaft being disposed between the plurality of guide shafts in the longitudinal direction.
A medical device for the treatment of a sinus opening, the medical device comprising: a handle with: a proximal end; a distal end; and a longitudinal axis along the length of the handle; a grooming sheath with a distal end and a proximal end, the proximal end of the grooming sheath attached to the distal end of the handle; a first rail with a distal end and a proximal end and disposed partially within the grooming sheath such that an annular lumen is defined between the rail and the grooming sheath, the distal end of the rail having a first angled shape, the rail being rotatable relative to the handle about the longitudinal axis; a guide wire operatively extending from the distal end of the rail; a balloon catheter disposed at least partially in the handle and annular lumen; and a balloon catheter movement mechanism operatively disposed on the handle; wherein the balloon catheter movement mechanism is configured for advancement and retraction of the balloon catheter through the handle and annular lumen and along the rail and guide wire by user operation of the balloon catheter movement mechanism. a handle with: a proximal end; a distal end; and a longitudinal axis along the length of the handle; a proximal end; a distal end; and a longitudinal axis along the length of the handle; a grooming sheath with a distal end and a proximal end, the proximal end of the grooming sheath attached to the distal end of the handle; a first rail with a distal end and a proximal end and disposed partially within the grooming sheath such that an annular lumen is defined between the rail and the grooming sheath, the distal end of the rail having a first angled shape, the rail being rotatable relative to the handle about the longitudinal axis; a guide wire operatively extending from the distal end of the rail; a balloon catheter disposed at least partially in the handle and annular lumen; and a balloon catheter movement mechanism operatively disposed on the handle; wherein the balloon catheter movement mechanism is configured for advancement and retraction of the balloon catheter through the handle and annular lumen and along the rail and guide wire by user operation of the balloon catheter movement mechanism.
A method comprising: maintaining historical runtime data for a service application; receiving current runtime data for a container group comprising individual containers instantiated on current hardware resources, where: each container in the container group is configured to execute independently of other containers in the container group and where each container comprises an instance of the service application and is allocated a subset of the current hardware resources; obtaining expanded runtime data for the service application by adding the current runtime data to the historical runtime data for the service application; predicting a resource requirement for the service application at a specific future time by executing a machine learning algorithm trained on the expanded runtime data for the service application; determining an updated resource allocation for the service application at the specific future time, the updated resource allocation comprising a number of containers to be instantiated and updated hardware resources to be allocated to each of the number of containers; and sending the updated resource allocation for the service application to a scheduler for implementation of the updated resource allocation at the specific future time. maintaining historical runtime data for a service application; receiving current runtime data for a container group comprising individual containers instantiated on current hardware resources, where: each container in the container group is configured to execute independently of other containers in the container group and where each container comprises an instance of the service application and is allocated a subset of the current hardware resources; obtaining expanded runtime data for the service application by adding the current runtime data to the historical runtime data for the service application; predicting a resource requirement for the service application at a specific future time by executing a machine learning algorithm trained on the expanded runtime data for the service application; determining an updated resource allocation for the service application at the specific future time, the updated resource allocation comprising a number of containers to be instantiated and updated hardware resources to be allocated to each of the number of containers; and sending the updated resource allocation for the service application to a scheduler for implementation of the updated resource allocation at the specific future time.