mhurhangee/ep-ind-claims huggingface dataset:
A cold plate assembly comprising: a cold plate (12,16) having a generally planar member providing a support surface configured to support a heat generating device; and a structural member providing attaching features configured to secure the cold plate assembly to a support, the cold plate being secured to the structural member by a braze material, wherein the attaching features include tabs with holes configured to be removably secured to the support, and wherein the structural member includes a frame (28;30) providing a cavity (29,31), and a reinforcing layer (38;40) disposed within the cavity and secured to adjacent sheets, characterised by a fluid port secured to the cold plate, wherein the fluid port is in fluid communication with sheet passages in the structural member outside of the cavity; and in that the cavity extends across a substantial portion of the structural member and is configured to prevent cooling fluid from flowing into the cavity during an operating condition. a cold plate (12,16) having a generally planar member providing a support surface configured to support a heat generating device; and a structural member providing attaching features configured to secure the cold plate assembly to a support, the cold plate being secured to the structural member by a braze material, wherein the attaching features include tabs with holes configured to be removably secured to the support, and wherein the structural member includes a frame (28;30) providing a cavity (29,31), and a reinforcing layer (38;40) disposed within the cavity and secured to adjacent sheets, characterised by a fluid port secured to the cold plate, wherein the fluid port is in fluid communication with sheet passages in the structural member outside of the cavity; and in that the cavity extends across a substantial portion of the structural member and is configured to prevent cooling fluid from flowing into the cavity during an operating condition.
A temperature-controlled pressure regulator, comprising: a regulator having an upper body and a lower body coupled to the upper body, the lower body having a process fluid inlet fluidly coupled to a process fluid outlet via a first passageway and a heat transfer medium inlet fluidly coupled to a chamber via a first pathway, wherein the heat transfer medium inlet and the first pathway are integrally formed with the lower body; and a heat chamber body removably coupled to the lower body to form the chamber disposed between the heat transfer medium inlet and a heat transfer medium outlet, wherein at least a portion of the first passageway is disposed within the chamber, and wherein the chamber is arranged to receive a heat transfer medium via the heat transfer medium inlet to provide heat to the process fluid as the process fluid flows through the chamber via the first passageway, and wherein the portion of the first passageway separates the process fluid from the heat transfer medium. a regulator having an upper body and a lower body coupled to the upper body, the lower body having a process fluid inlet fluidly coupled to a process fluid outlet via a first passageway and a heat transfer medium inlet fluidly coupled to a chamber via a first pathway, wherein the heat transfer medium inlet and the first pathway are integrally formed with the lower body; and a heat chamber body removably coupled to the lower body to form the chamber disposed between the heat transfer medium inlet and a heat transfer medium outlet, wherein at least a portion of the first passageway is disposed within the chamber, and wherein the chamber is arranged to receive a heat transfer medium via the heat transfer medium inlet to provide heat to the process fluid as the process fluid flows through the chamber via the first passageway, and wherein the portion of the first passageway separates the process fluid from the heat transfer medium.
A filter assembly, comprising: a filter pad comprising fibers, a stabilizer frame, the stabilizer frame being configured to provide support to the filter pad to maintain the filter pad in a generally flat configuration, characterized in that the filter pad further comprises a fire retardant bonding emulsion; in that the fibers of the filter pad are selected from the group consisting of wool fibers, and wood-based viscose fibers within a range of approximately 2-9 denier; in that the stabilizer frame, comprising a fire treated fiber board in a generally rectangular configuration, is embedded in the filter pad and has supports (48a, 48b) extending between opposite sides of the stabilizer frame, the stabilizer frame material having a thickness of approximately between 0.16 cm to 1.91 cm (1/16" to 3/4") and the supports being approximately 0.64 cm to 3.81 cm (1/4" to 1.5") wide, and in that a flame resistant glue is disposed between the stabilizer frame and the filter pad and couples the stabilizer frame to the filter pad. a filter pad comprising fibers, a stabilizer frame, the stabilizer frame being configured to provide support to the filter pad to maintain the filter pad in a generally flat configuration, characterized in that the filter pad further comprises a fire retardant bonding emulsion; in that the fibers of the filter pad are selected from the group consisting of wool fibers, and wood-based viscose fibers within a range of approximately 2-9 denier; in that the stabilizer frame, comprising a fire treated fiber board in a generally rectangular configuration, is embedded in the filter pad and has supports (48a, 48b) extending between opposite sides of the stabilizer frame, the stabilizer frame material having a thickness of approximately between 0.16 cm to 1.91 cm (1/16" to 3/4") and the supports being approximately 0.64 cm to 3.81 cm (1/4" to 1.5") wide, and in that a flame resistant glue is disposed between the stabilizer frame and the filter pad and couples the stabilizer frame to the filter pad.
A flame resistant fabric for aviation airbags, said flame resistant fabric comprising: a polyester fiber substrate treated with a first flame retardant, a polyurethane coating, wherein said polyurethane coating is applied to said polyester fiber substrate treated with said first flame retardant, wherein said polyester fiber substrate comprises a plurality of 555.56 dtex (500 denier) - 96 filament polyester fibers, and said polyester fiber substrate comprises a plain weave pattern at a count in a range of about 49 to 53 fibers per 2.54 cm (inch) by about 49 to 53 fibers per 2.54 cm (inch) of said polyester fiber substrate, whereby said first flame retardant comprises a phosphate-phosphonate compound. a polyester fiber substrate treated with a first flame retardant, a polyurethane coating, wherein said polyurethane coating is applied to said polyester fiber substrate treated with said first flame retardant, wherein said polyester fiber substrate comprises a plurality of 555.56 dtex (500 denier) - 96 filament polyester fibers, and said polyester fiber substrate comprises a plain weave pattern at a count in a range of about 49 to 53 fibers per 2.54 cm (inch) by about 49 to 53 fibers per 2.54 cm (inch) of said polyester fiber substrate, whereby said first flame retardant comprises a phosphate-phosphonate compound.
A power management apparatus comprising: a storage unit configured to store information of power rate levels corresponding to a plurality of power rates, store display information corresponding to the power rate levels, and store past power consumption pattern information; a communication unit configured to receive a current power rate charged to consumers from a power provider; a controller configured to confirm a power rate level corresponding to the received current power rate on the basis of the information stored in the storage unit, predict a future power rate and a future power rate level on the basis of the stored past power consumption pattern information, the received current power rate, and the confirmed power rate level, and confirm display information corresponding to the predicted future power rate level on the basis of the display information stored in the storage unit; and a control panel unit configured to display the received current power rate and the predicted future power rate, wherein the display information corresponding to the power rate levels includes different types of display information indicating respective power rate levels. a storage unit configured to store information of power rate levels corresponding to a plurality of power rates, store display information corresponding to the power rate levels, and store past power consumption pattern information; a communication unit configured to receive a current power rate charged to consumers from a power provider; a controller configured to confirm a power rate level corresponding to the received current power rate on the basis of the information stored in the storage unit, predict a future power rate and a future power rate level on the basis of the stored past power consumption pattern information, the received current power rate, and the confirmed power rate level, and confirm display information corresponding to the predicted future power rate level on the basis of the display information stored in the storage unit; and a control panel unit configured to display the received current power rate and the predicted future power rate, wherein the display information corresponding to the power rate levels includes different types of display information indicating respective power rate levels.
A line striper having a spray control system, the line striper being a wheeled line striper and comprising: a spray gun; a lever configured to move between a spray position where the lever causes the spray gun to spray and an inactive position where the lever does not cause the spray gun to spray; a first cable having a first end and a second end with the first end of the first cable mechanically linked to the lever; a manual actuator mechanically linked to the second end of the first cable; characterised in that the manual actuator is configured to pull the first cable rearward to move the lever into the spray position; whereby the line striper further comprises: a second cable having a first end and a second end with the first end of the second cable mechanically linked to the lever; and an assisted control mechanically linked to the second end of the second cable, the assisted control configured to pull the second cable rearward to move the lever into the spray position, wherein the lever is independently moveable relative to the first cable and the second cable such that movement of the lever from the inactive position to the active position caused by pulling of the first cable does not compress the second cable, and movement of the lever from the inactive position to the active position caused by pulling of the second cable does not compress the first cable. a spray gun; a lever configured to move between a spray position where the lever causes the spray gun to spray and an inactive position where the lever does not cause the spray gun to spray; a first cable having a first end and a second end with the first end of the first cable mechanically linked to the lever; a manual actuator mechanically linked to the second end of the first cable; characterised in that the manual actuator is configured to pull the first cable rearward to move the lever into the spray position; whereby the line striper further comprises: a second cable having a first end and a second end with the first end of the second cable mechanically linked to the lever; and an assisted control mechanically linked to the second end of the second cable, the assisted control configured to pull the second cable rearward to move the lever into the spray position, a second cable having a first end and a second end with the first end of the second cable mechanically linked to the lever; and an assisted control mechanically linked to the second end of the second cable, the assisted control configured to pull the second cable rearward to move the lever into the spray position, wherein the lever is independently moveable relative to the first cable and the second cable such that movement of the lever from the inactive position to the active position caused by pulling of the first cable does not compress the second cable, and movement of the lever from the inactive position to the active position caused by pulling of the second cable does not compress the first cable.
A method for communication between a master device and N slave devices (ES1-ESN) on a synchronous data bus (SPI+) including a selection channel (MOSIs, MISOs) on which the master device and the N slave devices (ES1-ESN) are connected in series, and a transmission channel (MOSIp, MISOp) on which the master device and the N slave devices are connected in parallel, the master device and the N slave devices (ES1-ESN) forming a chain, the method comprising: - a selection step (614, 618) implemented by the master device and the N slave devices (ES1-ESN) on the selection channel (MOSIs, MISOs), comprising a selection of a slave device which is selected from the N slave devices (ES1-ESN); and - a transmission step (620, 622; 714, 716) implemented on the transmission channel (MOSIp, MISOp), comprising a data transmission between the master device and the selected slave device; characterised in that an end of chain detection phase (608; 702, 718) is implemented during the transmission step and before the selection step by each of the slave devices (ES1-ESN) and is implemented before the selection step by the master device, said end of chain detection phase comprising a detection of a presence signal on the selection channel, representative of a position at the end of chain of said device. - a selection step (614, 618) implemented by the master device and the N slave devices (ES1-ESN) on the selection channel (MOSIs, MISOs), comprising a selection of a slave device which is selected from the N slave devices (ES1-ESN); and - a transmission step (620, 622; 714, 716) implemented on the transmission channel (MOSIp, MISOp), comprising a data transmission between the master device and the selected slave device;
A method (100, 200), comprising: receiving, by an aircraft, an ATC voice communication from an air traffic control facility; receiving, by the aircraft, authentication data from the ATC facility substantially contemporaneously with the ATC voice communication, the authentication data being associated with the ATC voice communication; wherein the ATC voice communication and the authentication data are received in separate transmissions; and authenticating the ATC voice communication using the authentication data. receiving, by an aircraft, an ATC voice communication from an air traffic control facility; receiving, by the aircraft, authentication data from the ATC facility substantially contemporaneously with the ATC voice communication, the authentication data being associated with the ATC voice communication; wherein the ATC voice communication and the authentication data are received in separate transmissions; and authenticating the ATC voice communication using the authentication data.
A process of manufacturing a packaged liquid beer concentrate, said process comprising: • providing an alcoholic beer comprising 3-12% ABV ethanol; • removing at least a part of the ethanol from the alcoholic beer by means of distillation, thereby producing (i) a low alcohol beer having an ethanol content of 0-1.5% ABV alcohol and (ii) an alcoholic liquid containing at least 10% ABV ethanol; • removing at least 70 wt.% of the water present in the low alcohol beer by means of membrane separation and/or freeze concentration to produce a liquid beer concentrate, wherein the membrane separation is selected from nanofiltration, reverse osmosis and forward osmosis; • if the alcoholic liquid contains less than 20% ABV ethanol, concentrating the alcoholic liquid to an ethanol content of at least 30% ABV by means of distillation, reverse osmosis or forwards osmosis; • separately packaging the liquid beer concentrate and the alcoholic liquid within a single container or within separate containers that together form a kit of parts. • providing an alcoholic beer comprising 3-12% ABV ethanol; • removing at least a part of the ethanol from the alcoholic beer by means of distillation, thereby producing (i) a low alcohol beer having an ethanol content of 0-1.5% ABV alcohol and (ii) an alcoholic liquid containing at least 10% ABV ethanol; • removing at least 70 wt.% of the water present in the low alcohol beer by means of membrane separation and/or freeze concentration to produce a liquid beer concentrate, wherein the membrane separation is selected from nanofiltration, reverse osmosis and forward osmosis; • if the alcoholic liquid contains less than 20% ABV ethanol, concentrating the alcoholic liquid to an ethanol content of at least 30% ABV by means of distillation, reverse osmosis or forwards osmosis; • separately packaging the liquid beer concentrate and the alcoholic liquid within a single container or within separate containers that together form a kit of parts.
A user equipment operable in a wireless communications system supporting direct communication between user equipments, comprising: a scheduling unit; and a transmitter, characterized in that the scheduling unit is configured to: select a sidelink destination group associated with a sidelink logical channel having sidelink data available for transmission, the selected sidelink logical channel having a highest logical channel priority among sidelink logical channels having data available for transmission, wherein each of the sidelink logical channels belongs to a sidelink destination group, each of the sidelink logical channels is allocated to a logical channel group,LCG, depending on a priority of said each sidelink logical channel and on a priority of the logical channel group, and the logical channel group is defined per sidelink destination group; and allocate radio resources to sidelink logical channels belonging to the selected sidelink destination group in decreasing logical channel group priority order, and the transmitter is configured to transmit the sidelink data using the allocated radio resources. a scheduling unit; and a transmitter, characterized in that the scheduling unit is configured to: select a sidelink destination group associated with a sidelink logical channel having sidelink data available for transmission, the selected sidelink logical channel having a highest logical channel priority among sidelink logical channels having data available for transmission, wherein each of the sidelink logical channels belongs to a sidelink destination group, each of the sidelink logical channels is allocated to a logical channel group,LCG, depending on a priority of said each sidelink logical channel and on a priority of the logical channel group, and the logical channel group is defined per sidelink destination group; and allocate radio resources to sidelink logical channels belonging to the selected sidelink destination group in decreasing logical channel group priority order, and the transmitter is configured to transmit the sidelink data using the allocated radio resources. select a sidelink destination group associated with a sidelink logical channel having sidelink data available for transmission, the selected sidelink logical channel having a highest logical channel priority among sidelink logical channels having data available for transmission, wherein each of the sidelink logical channels belongs to a sidelink destination group, each of the sidelink logical channels is allocated to a logical channel group,LCG, depending on a priority of said each sidelink logical channel and on a priority of the logical channel group, and the logical channel group is defined per sidelink destination group; and allocate radio resources to sidelink logical channels belonging to the selected sidelink destination group in decreasing logical channel group priority order, and the transmitter is configured to transmit the sidelink data using the allocated radio resources.
A computer-implemented method comprising: receiving, by a first instance of a mirror management service, a request to mirror a private network (104A, 104E) in a first area operated by a service provider to a second area operated by the service provider, the request designating the private network as a master private network and identifying a mirror private network (104B, 104C, 104D, 104F) in the second area; detecting, by the first instance of the mirror management service, one or more configuration changes to the master private network in the first area by a first instance of a mirror management service; and propagating, by the first instance of the mirror management service, the one or more configuration changes to a second instance of the mirror management service in the second area over a transit network, the second instance of the mirror management service to implement the configuration changes to the mirror private network using a dependency model. receiving, by a first instance of a mirror management service, a request to mirror a private network (104A, 104E) in a first area operated by a service provider to a second area operated by the service provider, the request designating the private network as a master private network and identifying a mirror private network (104B, 104C, 104D, 104F) in the second area; detecting, by the first instance of the mirror management service, one or more configuration changes to the master private network in the first area by a first instance of a mirror management service; and propagating, by the first instance of the mirror management service, the one or more configuration changes to a second instance of the mirror management service in the second area over a transit network, the second instance of the mirror management service to implement the configuration changes to the mirror private network using a dependency model.
A method of producing a collagen powder and/or a collagen derivative powder, which is characterized by comprising the steps of: obtaining isoelectric precipitates having an average particle size of 1 to 1,000 μm by isoelectrically precipitating a solution containing a collagen and/or a collagen derivative at a pH of 3.5 to 10 while controlling association of the collagen and/or the collagen derivative, or by pulverizing the resulting isoelectric precipitates; adjusting the concentration of the resulting collagen precipitate and/or collagen derivative precipitate contained in the isoelectric precipitates to prepare a crude collagen precipitate containing 12 to 50 % by mass of collagen and/or collagen derivative; dispersing the thus obtained crude collagen precipitate in a hydrophilic organic solvent; recovering solids; and drying the solids to obtain a collagen powder and/or a collagen derivative powder. obtaining isoelectric precipitates having an average particle size of 1 to 1,000 μm by isoelectrically precipitating a solution containing a collagen and/or a collagen derivative at a pH of 3.5 to 10 while controlling association of the collagen and/or the collagen derivative, or by pulverizing the resulting isoelectric precipitates; adjusting the concentration of the resulting collagen precipitate and/or collagen derivative precipitate contained in the isoelectric precipitates to prepare a crude collagen precipitate containing 12 to 50 % by mass of collagen and/or collagen derivative; dispersing the thus obtained crude collagen precipitate in a hydrophilic organic solvent; recovering solids; and drying the solids to obtain a collagen powder and/or a collagen derivative powder.