mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method, performed by a fabric controller (210; 310) of a computer cluster (200; 300), comprising: communicating goal state indicators from the fabric controller to each of multiple compute instances (230, 240; 312) in the computer cluster, wherein the goal state indicators are communicated in response to a request from the compute instances, the compute instances being managed by the fabric controller, the goal state indicators being formatted according to a structured protocol that defines multiple possible goal states; and receiving status reports from the compute instances, each of the status reports indicating a current state of one of the compute instances relative to a goal state, which was previously indicated in a goal state indicator communicated to the one of the compute instances, wherein the status reports are received without the fabric controller having sent a request for the status reports to the compute instances. communicating goal state indicators from the fabric controller to each of multiple compute instances (230, 240; 312) in the computer cluster, wherein the goal state indicators are communicated in response to a request from the compute instances, the compute instances being managed by the fabric controller, the goal state indicators being formatted according to a structured protocol that defines multiple possible goal states; and receiving status reports from the compute instances, each of the status reports indicating a current state of one of the compute instances relative to a goal state, which was previously indicated in a goal state indicator communicated to the one of the compute instances, wherein the status reports are received without the fabric controller having sent a request for the status reports to the compute instances.
A thermal management apparatus, wherein the thermal management apparatus is configured to perform thermal management on an electronic device, and the thermal management apparatus comprises a first loop in which a first solenoid valve, a first liquid cooling plate, a second solenoid valve, and a second liquid cooling plate are sequentially connected in series, and a thermal insulation structure; and the second liquid cooling plate, the thermal insulation structure, and the first liquid cooling plate are sequentially stacked; the first liquid cooling plate is capable of performing heat transfer with the electronic device; when the first solenoid valve and the second solenoid valve are turned on, the first liquid cooling plate communicates with the second liquid cooling plate and heat from the electronic device is conducted to the first liquid cooling plate and further conducted to the second liquid cooling plate through the first loop and the heat is carried away on the second cooling plate by external airflow; when the first solenoid valve and the second solenoid valve are turned off, the first liquid cooling plate and the second liquid cooling plate are disconnected.
Multilayer coating comprising a multicoat paint system comprising at least one basecoat of a basecoat material comprising at least one melamine resin, and at least one clearcoat as the topmost coat of the multicoat paint system, and an adhesive layer of a moisture-curing, isocyanate-based adhesive directly atop the topmost clearcoat layer of the multicoat paint system, characterized in that (i) all amino resins present in the basecoat material are fully methylolated, fully etherified melamine resins in which at least 90% of the etherified methylol groups are etherified with butanol, and (ii) the basecoat material contains at least 1.0% by weight, based on the total weight of the basecoat material, of at least one polyester binder having a hydroxyl number of at least 240 mg KOH/g and an acid number of not more than 10 mg KOH/g. a multicoat paint system comprising at least one basecoat of a basecoat material comprising at least one melamine resin, and at least one clearcoat as the topmost coat of the multicoat paint system, and at least one basecoat of a basecoat material comprising at least one melamine resin, and at least one clearcoat as the topmost coat of the multicoat paint system, and an adhesive layer of a moisture-curing, isocyanate-based adhesive directly atop the topmost clearcoat layer of the multicoat paint system, (i) all amino resins present in the basecoat material are fully methylolated, fully etherified melamine resins in which at least 90% of the etherified methylol groups are etherified with butanol, and (ii) the basecoat material contains at least 1.0% by weight, based on the total weight of the basecoat material, of at least one polyester binder having a hydroxyl number of at least 240 mg KOH/g and an acid number of not more than 10 mg KOH/g.
A method of tracking Transmission Control Protocol, TCP, data bursts in a Physical Downlink Shared Channel which is scheduled from Evolved NodeB in downlink, the method comprising: determining whether a difference between a) at least one of a currently transmitted system frame number and a subframe number and b) at least one of a previously transmitted system frame number and a subframe number is greater than a predetermined delay threshold; and i) if the determined difference is greater than the predetermined delay threshold, tracking Transmission Control Protocol Acknowledgement, TCP ACK, arrival time, by starting a delay timer, and ii) if the determined difference is not greater than the predetermined delay threshold, not tracking the TCP ACK arrival time. determining whether a difference between a) at least one of a currently transmitted system frame number and a subframe number and b) at least one of a previously transmitted system frame number and a subframe number is greater than a predetermined delay threshold; and i) if the determined difference is greater than the predetermined delay threshold, tracking Transmission Control Protocol Acknowledgement, TCP ACK, arrival time, by starting a delay timer, and ii) if the determined difference is not greater than the predetermined delay threshold, not tracking the TCP ACK arrival time.
An abrasive article comprising: a backing having a major surface; an adhesion promoting layer, the adhesion promoting layer having a thickness of at least 10 microns and formed of a polar thermoplastic material; a primer layer including polyethylene imine disposed between the adhesion promoting layer and the backing; and a make layer directly contacting the adhesion promoting layer, wherein the backing includes a corona treated polymer film, and wherein the polar thermoplastic material includes a copolymer including at least one ethylene monomer and at least one monomer of acrylic acid, ethyl acrylic acid, or methyl acrylic acid. a backing having a major surface; an adhesion promoting layer, the adhesion promoting layer having a thickness of at least 10 microns and formed of a polar thermoplastic material; a primer layer including polyethylene imine disposed between the adhesion promoting layer and the backing; and a make layer directly contacting the adhesion promoting layer, wherein the backing includes a corona treated polymer film, and wherein the polar thermoplastic material includes a copolymer including at least one ethylene monomer and at least one monomer of acrylic acid, ethyl acrylic acid, or methyl acrylic acid.
A method of performing real-time communication by a source device, the source device including a streaming server and a web real time communicator and being communicable with an external web browser (125, 425) of a sink device, the method comprising the steps of: signaling (S110, S210, S510, S630) to the external web browser (125, 425) to initiate real-time communication over a network (105, 405); packetizing, by the streaming server, encoded media data based on a given real-time network protocol after the signaling is performed; requesting (S220, S530, S630) the packetized media data from the streaming server based upon the response to the signaling step (S110, S210, S510, S610) and the packetized media data including media data that is encoded based on a given media compression standard; de-packetizing (S140, 540, 650) the packetized media data to obtain the encoded media data; and performing (S150, S570, S700) the real-time communication by transporting the encoded media data to the external web browser (125, 425) over the network (105, 405), wherein the packetized media data is requested when the signaling result indicates that the external web browser (125, 425) supports the given media compression standard and the steps of signaling, requesting, de-packetizing, and performing are accomplished by the web real time communicator. signaling (S110, S210, S510, S630) to the external web browser (125, 425) to initiate real-time communication over a network (105, 405); packetizing, by the streaming server, encoded media data based on a given real-time network protocol after the signaling is performed; requesting (S220, S530, S630) the packetized media data from the streaming server based upon the response to the signaling step (S110, S210, S510, S610) and the packetized media data including media data that is encoded based on a given media compression standard; de-packetizing (S140, 540, 650) the packetized media data to obtain the encoded media data; and performing (S150, S570, S700) the real-time communication by transporting the encoded media data to the external web browser (125, 425) over the network (105, 405), wherein the packetized media data is requested when the signaling result indicates that the external web browser (125, 425) supports the given media compression standard and the steps of signaling, requesting, de-packetizing, and performing are accomplished by the web real time communicator.
Co-axial connecting member which comprises a centre conductor, an outer conductor and an insulating member arranged between the centre conductor and the outer conductor, for the electrically conductive connection of two components, namely circuit boards, for transmitting radiofrequency signals between the two circuit boards, characterised in that the outer conductor comprises a first conductor with a tubular shell with two ends provided for contacting the two circuit boards and at least one opening to reduce axial stiffness for balancing the tolerance with regard to the distance of the two circuit boards, the outer conductor comprising, as well as the first conductor, a second conductor which is likewise of a tubular form, the first conductor being in electrically conductive contact with the second conductor, which electrically conductive contact is also axially mobile in relation to a portion of the first conductor, the second conductor being solidly connected to the first conductor over a portion.
A composition, comprising: 100 parts by mass of a polyvinyl acetal; and 30 to 70 parts by mass of a plasticizer including 0.5 to 100% by mass of a first plasticizer and 0 to 99.5% by mass of a second plasticizer, a total of the first plasticizer and the second plasticizer being 100% by mass, wherein the first plasticizer contains a hydroxyl group and is an ester compound or an ether compound, wherein the second plasticizer does not contain a polar group selected from the group consisting of a hydroxyl group, a polyethyleneoxide group having a polymerization degree of 10 or more, a polypropylene oxide group having a polymerization degree of 10 or more, a carboxyl group, and an amino group, wherein when the polyvinyl acetal is analyzed by high performance liquid chromatography (HPLC) using a column (ODS column) having an inner diameter of 4 mm and a length of 1 cm, the polyvinyl acetal exhibits a first peak and a second peak derived from polyvinyl acetals, the column (ODS column) being filled with spherical silica gel surface-modified with an octadecylsilyl group, serving as a stationary phase, and wherein the polyvinyl acetal is a mixture of polyvinyl acetal and polyvinyl acetal having different average amounts of remaining hydroxyl groups. 100 parts by mass of a polyvinyl acetal; and 30 to 70 parts by mass of a plasticizer including 0.5 to 100% by mass of a first plasticizer and 0 to 99.5% by mass of a second plasticizer, a total of the first plasticizer and the second plasticizer being 100% by mass, wherein the first plasticizer contains a hydroxyl group and is an ester compound or an ether compound, wherein the second plasticizer does not contain a polar group selected from the group consisting of a hydroxyl group, a polyethyleneoxide group having a polymerization degree of 10 or more, a polypropylene oxide group having a polymerization degree of 10 or more, a carboxyl group, and an amino group, wherein when the polyvinyl acetal is analyzed by high performance liquid chromatography (HPLC) using a column (ODS column) having an inner diameter of 4 mm and a length of 1 cm, the polyvinyl acetal exhibits a first peak and a second peak derived from polyvinyl acetals, the column (ODS column) being filled with spherical silica gel surface-modified with an octadecylsilyl group, serving as a stationary phase, and wherein the polyvinyl acetal is a mixture of polyvinyl acetal and polyvinyl acetal having different average amounts of remaining hydroxyl groups.
A device comprising: a laminate which comprises at least four layers (3 1, 3 2, 3 3, 3 4, 3 5) including first and second outer layers (3 1,3 5) and first and second intermediate layers (3 3, 3 2) interposed between the first and second outer layers; and a plurality of electronic components (5, 6, 7, 8) disposed between the first and second outer layers; wherein at least one of the layers (3 1,3 2) support conductive tracks (10, 11) arranged to connect electronic components and the second intermediate layer (3 2) supports at least one conductive track, wherein the first and second intermediate layers (3 3,3 2) overlap and an overlapping portion of the first intermediate layer (3 3) lies in a plane, and wherein a non-overlapping portion (28 1,28 2) of the second intermediate layer (3 2) lies above or is in the plane with the overlapping portion of the first intermediate layer (3 3), the second intermediate layer (3 2) passes from above or in the plane under the plane and an overlapping portion (27 1,27 2) of the second intermediate layer (3 2) lies below the overlapping portion of the first intermediate layer (3 3). a laminate which comprises at least four layers (3 1, 3 2, 3 3, 3 4, 3 5) including first and second outer layers (3 1,3 5) and first and second intermediate layers (3 3, 3 2) interposed between the first and second outer layers; and a plurality of electronic components (5, 6, 7, 8) disposed between the first and second outer layers; wherein at least one of the layers (3 1,3 2) support conductive tracks (10, 11) arranged to connect electronic components and the second intermediate layer (3 2) supports at least one conductive track, wherein the first and second intermediate layers (3 3,3 2) overlap and an overlapping portion of the first intermediate layer (3 3) lies in a plane, and wherein a non-overlapping portion (28 1,28 2) of the second intermediate layer (3 2) lies above or is in the plane with the overlapping portion of the first intermediate layer (3 3), the second intermediate layer (3 2) passes from above or in the plane under the plane and an overlapping portion (27 1,27 2) of the second intermediate layer (3 2) lies below the overlapping portion of the first intermediate layer (3 3).
A microwave heating device comprising a heating chamber, a microwave radiation device configured to radiate a microwave into the heating chamber to heat a heating target, and a reflection angle control device (118, 137, 138, 210, 309, 501) provided at least part of a wall of the heating chamber and configured to control a reflection angle of the microwave to control standing wave distribution in the heating chamber, wherein the reflection angle control device (118, 137, 138, 210, 309, 501) is configured to control the reflection angle in accordance with difference in reflection phase depending on a reflection position, characterized in that the reflection angle control device (118, 137, 138, 210, 309, 501) has reflection phases arrayed to gradually be decreased, to deviate the reflection angle in a direction of the decrease.
A device for monitoring the external environment of a platform, in particular a military platform, comprising: - an observation mast linked to the platform and comprising observation means for observing the external environment, - means for processing output information from the observation means, - viewing means for viewing the environment linked to the means for processing information, the observation means comprising at least one digital window, comprising an optical system and a photographic sensor, secured to the external surface of one end of the mast, characterized in that the optical system is a doublet formed by two lenses (14, 15) alongside each other, a first lens being oriented toward the external environment and a second lens being oriented toward the sensor, and in that the second lens is arranged alongside the sensor. - an observation mast linked to the platform and comprising observation means for observing the external environment, - means for processing output information from the observation means, - viewing means for viewing the environment linked to the means for processing information, the observation means comprising at least one digital window, comprising an optical system and a photographic sensor, secured to the external surface of one end of the mast, characterized in that the optical system is a doublet formed by two lenses (14, 15) alongside each other, a first lens being oriented toward the external environment and a second lens being oriented toward the sensor, and in that the second lens is arranged alongside the sensor. the observation means comprising at least one digital window, comprising an optical system and a photographic sensor, secured to the external surface of one end of the mast, characterized in that the optical system is a doublet formed by two lenses (14, 15) alongside each other, a first lens being oriented toward the external environment and a second lens being oriented toward the sensor, and in that the second lens is arranged alongside the sensor.
A method comprising: introducing a gas comprising a nitrogen center into a spray chamber (330, 500) positioned upstream of an inductively coupled plasma (120, 150, 180, 220) sustained in a torch (610, 710, 810), and fluidically coupled to a sample inlet of the torch, wherein the gas comprising the nitrogen center comprises a molecule or compound comprising at least one nitrogen atom chemically bonded to another atom; wherein the torch (610, 710, 810) is configured to sustain the inductively coupled plasma (120, 150, 180, 220) using a plasma gas introduced into the torch, and wherein elements in a sample introduced into the sustained inductively coupled plasma are ionized by the sustained inductively coupled plasma; the method characterised by selectively switching off the introduction of the gas comprising the nitrogen center into the spray chamber when a hard-to-ionize element is being analyzed using the inductively coupled plasma, wherein the hard-to-ionize element comprises beryllium, zinc, selenium, or arsenic; and selectively switching on the introduction of the gas comprising the nitrogen center into the spray chamber when an element other than a hard-to-ionize element is being analyzed using the inductively coupled plasma. introducing a gas comprising a nitrogen center into a spray chamber (330, 500) positioned upstream of an inductively coupled plasma (120, 150, 180, 220) sustained in a torch (610, 710, 810), and fluidically coupled to a sample inlet of the torch, wherein the gas comprising the nitrogen center comprises a molecule or compound comprising at least one nitrogen atom chemically bonded to another atom; wherein the torch (610, 710, 810) is configured to sustain the inductively coupled plasma (120, 150, 180, 220) using a plasma gas introduced into the torch, and wherein elements in a sample introduced into the sustained inductively coupled plasma are ionized by the sustained inductively coupled plasma; the method characterised by selectively switching off the introduction of the gas comprising the nitrogen center into the spray chamber when a hard-to-ionize element is being analyzed using the inductively coupled plasma, wherein the hard-to-ionize element comprises beryllium, zinc, selenium, or arsenic; and selectively switching on the introduction of the gas comprising the nitrogen center into the spray chamber when an element other than a hard-to-ionize element is being analyzed using the inductively coupled plasma.
A method for producing fine particles characterized in that, in the method in which a fluid to be processed is introduced between at least two processing surfaces (1, 2) which are disposed in a position they are faced with each other so as to be able to approach to and separate from each other, at least one of which rotates relative to the other whereby separating fine particles in a thin film fluid formed between the processing surfaces (1, 2), particle diameter of the fine particles is controlled by controlling a temperature of the fluid to be processed that contains the said separated fine particles, characterized in that a temperature adjustment instrument (33, 34) is arranged in a flow path (30, 31) of the fluid to be processed after flowing out from the processing surfaces (1, 2) or in a storing unit thereof, whereby controlling the temperature of the fluid to be processed that contains the separated fine particles by using the said temperature adjustment instrument (33, 34), wherein the temperature control is done before properties of the fine particles in the discharged fluid to be processed from the processing surfaces (1, 2) become stable.