mhurhangee/ep-ind-claims huggingface dataset:
A gun for spraying paint supplied to the gun from a hose under pressure, the gun comprising: a body comprising a valve, the opening of the valve releasing paint from the body and the closing of the valve stopping the release of paint from the body; a trigger actuatable to open and close the valve; a stem extending downward from the body, the stem comprising a handle configured to be gripped by one hand for using the gun; a guard having a top end and a bottom end, the top end attached to the body, the bottom end attached to the stem below the trigger, the trigger located directly between the guard and the handle; and a stop on the rear side of the body which engages the top of the hand when the gun is held, wherein the vertical distance from the bottom of the stop to the bottom of the handle at the guard is 6.4 cm (2.5 inches) or less such that the guard only allows the thump of the hand to wrap around one side of the handle and only two fingers of the hand to wrap around the other side of the handle above the bottom end of the guard to actuate the trigger, the other two fingers of the hand being below the bottom end of the guard. a body comprising a valve, the opening of the valve releasing paint from the body and the closing of the valve stopping the release of paint from the body; a trigger actuatable to open and close the valve; a stem extending downward from the body, the stem comprising a handle configured to be gripped by one hand for using the gun; a guard having a top end and a bottom end, the top end attached to the body, the bottom end attached to the stem below the trigger, the trigger located directly between the guard and the handle; and a stop on the rear side of the body which engages the top of the hand when the gun is held, wherein the vertical distance from the bottom of the stop to the bottom of the handle at the guard is 6.4 cm (2.5 inches) or less such that the guard only allows the thump of the hand to wrap around one side of the handle and only two fingers of the hand to wrap around the other side of the handle above the bottom end of the guard to actuate the trigger, the other two fingers of the hand being below the bottom end of the guard.
A cement head comprising: a) an upper assembly having a bore for fluid flow; b) a swivel assembly connected to said upper assembly, said swivel assembly having a bore for fluid flow and at least one fluid inlet, wherein said bore for fluid flow is in fluid communication with said bore of said upper assembly; c) a body member rotatably connected to said swivel assembly, said body member having a bore for fluid flow in fluid communication with the bores of said upper assembly and swivel assembly; d) a cage assembly mounted in said bore of said body member, said cage assembly having an internal space and a plurality of flow ports permitting fluid flow through said internal space of said cage assembly; e) a pin puller assembly attached to said body member and having a retractable pin, wherein said pin is oriented perpendicular to the bore of said body member and extends into said bore member; f) at least one hinged door mounted within said cage assembly and supported by said pin, wherein said door substantially blocks said cage assembly in a closed position; g) a dart disposed on said at least one hinged door; and h) a lower assembly having a bore for fluid flow in fluid communication with the bores (48, 61) of said upper assembly, swivel assembly and body member, wherein said lower assembly has at least one observation port and wherein said at least one observation port includes a transparent window. a) an upper assembly having a bore for fluid flow; b) a swivel assembly connected to said upper assembly, said swivel assembly having a bore for fluid flow and at least one fluid inlet, wherein said bore for fluid flow is in fluid communication with said bore of said upper assembly; c) a body member rotatably connected to said swivel assembly, said body member having a bore for fluid flow in fluid communication with the bores of said upper assembly and swivel assembly; d) a cage assembly mounted in said bore of said body member, said cage assembly having an internal space and a plurality of flow ports permitting fluid flow through said internal space of said cage assembly; e) a pin puller assembly attached to said body member and having a retractable pin, wherein said pin is oriented perpendicular to the bore of said body member and extends into said bore member; f) at least one hinged door mounted within said cage assembly and supported by said pin, wherein said door substantially blocks said cage assembly in a closed position; g) a dart disposed on said at least one hinged door; and h) a lower assembly having a bore for fluid flow in fluid communication with the bores (48, 61) of said upper assembly, swivel assembly and body member, wherein said lower assembly has at least one observation port and wherein said at least one observation port includes a transparent window.
An apparatus comprising: a first wavelength-selective switch configured to receive a first WDM signal and to switch optical channels of the first WDM signal based on their respective optical-channel-utilization factors such that a first set of optical channels of the first WDM signal is directed through a first branch and a second set of the optical channels of the first WDM signal is directed through a second branch, wherein the first set of optical channels includes one or more optical channels whose optical-channel-utilization factor is smaller than a threshold value, and the second set of optical channels includes one or more optical channels whose optical-channel-utilization factor is greater than the threshold value; the first branch configured to electrically switch payload units corresponding to the first set of optical channels to generate a third set of optical channels, wherein the third set of optical channels has fewer optical channels than the first set of optical channels; the second branch configured to optically switch the one or more optical channels of the second set of optical channels to generate a fourth set of optical channels; and a second wavelength-selective switch configured to receive the third set of optical channels (264, 228) from the first branch and the fourth set of optical channels from the second branch and further configured to combine the third set of optical channels and the fourth set of optical channels to generate a second WDM signal. a first wavelength-selective switch configured to receive a first WDM signal and to switch optical channels of the first WDM signal based on their respective optical-channel-utilization factors such that a first set of optical channels of the first WDM signal is directed through a first branch and a second set of the optical channels of the first WDM signal is directed through a second branch, wherein the first set of optical channels includes one or more optical channels whose optical-channel-utilization factor is smaller than a threshold value, and the second set of optical channels includes one or more optical channels whose optical-channel-utilization factor is greater than the threshold value; the first branch configured to electrically switch payload units corresponding to the first set of optical channels to generate a third set of optical channels, wherein the third set of optical channels has fewer optical channels than the first set of optical channels; the second branch configured to optically switch the one or more optical channels of the second set of optical channels to generate a fourth set of optical channels; and a second wavelength-selective switch configured to receive the third set of optical channels (264, 228) from the first branch and the fourth set of optical channels from the second branch and further configured to combine the third set of optical channels and the fourth set of optical channels to generate a second WDM signal.
A method of managing a steering command for a steerable portion of nose landing gear of an aircraft, the method implementing servo-control to servo-control a steering actuator to an angle position setpoint (θset) for the steerable portion, the servo-control including calculating an error (ε) by subtracting a reference angle (θest) from the angle position setpoint (θset), the method being characterized in that the reference angle (θest) is an angle determined by calculation as a function of a longitudinal speed (Vlong) and a yaw rate (τ) of the aircraft.
A method of conditioning zirconium oxide, comprising the steps of: pumping a conditioning solution through a zirconium oxide sorbent module in a flow path; and conditioning the zirconium oxide sorbent module using the conditioning solution comprising sodium bicarbonate at a desired zirconium oxide effluent pH, further comprising the step of pumping a base solution through the zirconium oxide sorbent module to recharge zirconium oxide in the zirconium oxide sorbent module prior to conditioning the zirconium oxide sorbent module. pumping a conditioning solution through a zirconium oxide sorbent module in a flow path; and conditioning the zirconium oxide sorbent module using the conditioning solution comprising sodium bicarbonate at a desired zirconium oxide effluent pH, further comprising the step of pumping a base solution through the zirconium oxide sorbent module to recharge zirconium oxide in the zirconium oxide sorbent module prior to conditioning the zirconium oxide sorbent module.
A nacelle of an aircraft turbojet engine, the nacelle including a rear section without a lower bifurcation, the rear section including a thrust reverser system, the thrust reverser system including a movable cowl, the nacelle including a guidance system including a movable portion and a fixed portion, the movable portion being secured in translation to the movable cowl and cooperating with the fixed portion, the fixed portion being fixed with respect to the nacelle, characterized in that the guidance system is disposed close to the position called «at 6 o'clock», the length of the fixed portion of the guidance system being greater than or equal to 50% of the length of the movable portion.
A small form factor pluggable, SFP, optical transceiver module comprising: an optical fiber connector configured to connect to a SFP optical transceiver, a shell assembly that encloses the optical fiber connector, wherein the shell assembly is configured to retain both the optical fiber connector and the SFP optical transceiver in a SFP receptacle, wherein the SFP optical transceiver is configured to interface a network device motherboard to a fiber optic at a given port of a network device and is a hot-pluggable transceiver being used for at least one of telecommunication and data communications; and a separate retaining mount that is configured to be attached to a body portion of a device housing of the network device, wherein the shell assembly is configured to removably latch onto the retaining mount, wherein the shell assembly includes a base and a body coupled to each other, and wherein the body has a latch, wherein the latch is a spring tab that is integrated into the shell assembly and configured to securely attach the optical fiber connector and the SFP optical transceiver to the retaining mount while allowing the SFP optical transceiver to be swapped as needed to reconfigure the given port of the network device. an optical fiber connector configured to connect to a SFP optical transceiver, a shell assembly that encloses the optical fiber connector, wherein the shell assembly is configured to retain both the optical fiber connector and the SFP optical transceiver in a SFP receptacle, wherein the SFP optical transceiver is configured to interface a network device motherboard to a fiber optic at a given port of a network device and is a hot-pluggable transceiver being used for at least one of telecommunication and data communications; and a separate retaining mount that is configured to be attached to a body portion of a device housing of the network device, wherein the shell assembly is configured to removably latch onto the retaining mount, wherein the shell assembly includes a base and a body coupled to each other, and wherein the body has a latch, wherein the latch is a spring tab that is integrated into the shell assembly and configured to securely attach the optical fiber connector and the SFP optical transceiver to the retaining mount while allowing the SFP optical transceiver to be swapped as needed to reconfigure the given port of the network device.
A method of preparing a film, said method comprising: applying a composition on a substrate to give an uncured layer; irradiating the uncured layer; and exposing the uncured layer to moisture, thereby preparing the film; wherein the composition comprises: (a) a polysiloxane resin, wherein the (a) polysiloxane resin comprises the following siloxy units: [R 3 SiO 1/2], [ q SiO (4-q)/2] and at least one of [ t R MA SiO (3-t)/2] or [ d RR MA SiO (2-d)/2]; where: each R is independently a substituted or unsubstituted hydrocarbyl group, each R MA is independently an acryloxy functional group, each Z is independently H or an alkyl group, subscript q is in each occurrence a number selected from a range of 0-3, subscript t is in each occurrence a number selected from a range of 0-2, and subscript d is in each occurrence a number selected from a range of 0-1, with the proviso that the average concentration of OZ groups is at least 12 mole-percent relative to moles of silicon atoms in the (a) polysiloxane resin; (b) a photoinitiator; optionally (c) a functional diluent; and (d) a condensation catalyst. applying a composition on a substrate to give an uncured layer; irradiating the uncured layer; and exposing the uncured layer to moisture, thereby preparing the film; wherein the composition comprises: (a) a polysiloxane resin, wherein the (a) polysiloxane resin comprises the following siloxy units: [R 3 SiO 1/2], [ q SiO (4-q)/2] and at least one of [ t R MA SiO (3-t)/2] or [ d RR MA SiO (2-d)/2]; where: each R is independently a substituted or unsubstituted hydrocarbyl group, each R MA is independently an acryloxy functional group, each Z is independently H or an alkyl group, subscript q is in each occurrence a number selected from a range of 0-3, subscript t is in each occurrence a number selected from a range of 0-2, and subscript d is in each occurrence a number selected from a range of 0-1, with the proviso that the average concentration of OZ groups is at least 12 mole-percent relative to moles of silicon atoms in the (a) polysiloxane resin; (b) a photoinitiator; optionally (c) a functional diluent; and (d) a condensation catalyst. (a) a polysiloxane resin, wherein the (a) polysiloxane resin comprises the following siloxy units: [R 3 SiO 1/2], [ q SiO (4-q)/2] and at least one of [ t R MA SiO (3-t)/2] or [ d RR MA SiO (2-d)/2]; where: each R is independently a substituted or unsubstituted hydrocarbyl group, each R MA is independently an acryloxy functional group, each Z is independently H or an alkyl group, subscript q is in each occurrence a number selected from a range of 0-3, subscript t is in each occurrence a number selected from a range of 0-2, and subscript d is in each occurrence a number selected from a range of 0-1, with the proviso that the average concentration of OZ groups is at least 12 mole-percent relative to moles of silicon atoms in the (a) polysiloxane resin; (b) a photoinitiator; optionally (c) a functional diluent; and (d) a condensation catalyst.
A multi-dimensional load structure comprising: A panel having a tiered structure with an upper layer, a lower layer, and at least one interior layer therebetween; a glass layer applied to surfaces of each of the upper layer, the lower layer, and the at least one interior layer, said surfaces not in contact with an adjacent layer; and a coating applied to the glass layer; wherein at least one of: the at least one interior layer is configured to withstand a greater compressive force than the upper layer and the lower layer; and the upper layer and the lower layer are lighter than the at least one interior layer. A panel having a tiered structure with an upper layer, a lower layer, and at least one interior layer therebetween; a glass layer applied to surfaces of each of the upper layer, the lower layer, and the at least one interior layer, said surfaces not in contact with an adjacent layer; and a coating applied to the glass layer; wherein at least one of: the at least one interior layer is configured to withstand a greater compressive force than the upper layer and the lower layer; and the upper layer and the lower layer are lighter than the at least one interior layer. the at least one interior layer is configured to withstand a greater compressive force than the upper layer and the lower layer; and the upper layer and the lower layer are lighter than the at least one interior layer.
A personal care composition comprising: a structured cleansing phase comprising from 2% to 50%, preferably from 3% to 20%, more preferably from 5% to 15%, even more preferably from 7% to 15%, by weight of the composition, of an anionic surfactant; a benefit phase comprising from 0.05% to 10%, preferably from 0.10% to 3%, by weight of the composition, of a microcapsule premix comprising a cationic deposition polymer and anionic microcapsules; and a triglyceride; and a carrier. a structured cleansing phase comprising from 2% to 50%, preferably from 3% to 20%, more preferably from 5% to 15%, even more preferably from 7% to 15%, by weight of the composition, of an anionic surfactant; a benefit phase comprising from 0.05% to 10%, preferably from 0.10% to 3%, by weight of the composition, of a microcapsule premix comprising a cationic deposition polymer and anionic microcapsules; and a triglyceride; and a carrier.
A method of wireless communication, comprising: receiving, by a user equipment, UE, an uplink grant and an identification of a first set of candidate subbands from a serving base station, wherein the identification includes a clear channel assessment, CCA, trigger for the UE; performing, by the UE, a CCA on each subband of the first set of candidate subbands; determining, by the UE, a second set of candidate subbands including one or more subbands of the first set of candidate subbands for which the CCA is successful; and preparing, by the UE, uplink transmissions in response to the second set of candidate subbands being a subset of the first set of candidate subbands; characterized in that the preparing the uplink transmissions includes: adjusting a transport block size to fit all of the uplink transmissions into the second set of candidate subbands; and transmitting the uplink transmissions using the second set of candidate subbands. receiving, by a user equipment, UE, an uplink grant and an identification of a first set of candidate subbands from a serving base station, wherein the identification includes a clear channel assessment, CCA, trigger for the UE; performing, by the UE, a CCA on each subband of the first set of candidate subbands; determining, by the UE, a second set of candidate subbands including one or more subbands of the first set of candidate subbands for which the CCA is successful; and preparing, by the UE, uplink transmissions in response to the second set of candidate subbands being a subset of the first set of candidate subbands; characterized in that the preparing the uplink transmissions includes: adjusting a transport block size to fit all of the uplink transmissions into the second set of candidate subbands; and transmitting the uplink transmissions using the second set of candidate subbands.
A ceramic scintillator array comprising: a plurality of scintillator segments each composed of a sintered compact of a rare earth oxysulfide phosphor having a composition expressed by the general formula RE 2 O 2 S:Pr, in which RE is at least one selected from the group consisting of Y, Gd, La, and Lu, and a content of Pr relative to RE 2 O 2 S is 0.001 mol% or more and 10 mol% or less; a first reflective layer interposed between the scintillator segments adjacent to each other in a manner to integrate the plurality of scintillator segments; and a second reflective layer arranged on a side of surfaces, on which an X-ray is incident, of the plurality of scintillator segments, wherein each of the first reflective layer and the second reflective layer contains a transparent resin and reflective particles dispersed in the transparent resin; the reflective particles in the second reflective layer are same particles as the reflective particles in the first reflective layer; characterized in that, a glass transition point of the transparent resin in the first reflective layer is 50°C or higher, and a glass transition point of the transparent resin in the second reflective layer is 30°C or lower; and each of the first and second reflective layers (3, 4) contains, by mass ratio, 15% or more and 60% or less of the transparent resin and 40% or more and 85% or less of the reflective particles. a plurality of scintillator segments each composed of a sintered compact of a rare earth oxysulfide phosphor having a composition expressed by the general formula RE 2 O 2 S:Pr, in which RE is at least one selected from the group consisting of Y, Gd, La, and Lu, and a content of Pr relative to RE 2 O 2 S is 0.001 mol% or more and 10 mol% or less; a first reflective layer interposed between the scintillator segments adjacent to each other in a manner to integrate the plurality of scintillator segments; and a second reflective layer arranged on a side of surfaces, on which an X-ray is incident, of the plurality of scintillator segments, wherein each of the first reflective layer and the second reflective layer contains a transparent resin and reflective particles dispersed in the transparent resin; the reflective particles in the second reflective layer are same particles as the reflective particles in the first reflective layer; characterized in that, a glass transition point of the transparent resin in the first reflective layer is 50°C or higher, and a glass transition point of the transparent resin in the second reflective layer is 30°C or lower; and each of the first and second reflective layers (3, 4) contains, by mass ratio, 15% or more and 60% or less of the transparent resin and 40% or more and 85% or less of the reflective particles.
Process for converting inputs composed of hydrocarbons by thermal steamcracking to at least one olefin-containing product stream comprising at least ethylene and propylene, with at least partial conversion of the inputs in at least one first cracking furnace and in at least one second cracking furnace, wherein a fresh input is fractionated into at least one first and one second fresh input fraction (B1, B2) of different composition and the first fresh input fraction is conducted at least partly into the first cracking furnace and the second fresh input fraction at least partly into the second cracking furnace, characterized in that the second fresh input fraction comprises predominantly hydrocarbons having a maximum carbon number of 5, in that the first fresh input fraction comprises predominantly hydrocarbons having a carbon number of at least 6, in that cracking conditions that lead to a ratio of propylene to ethylene of 0.7 to 1.6 kg/kg at the cracking furnace exit exist in the second cracking furnace, and in that cracking conditions that lead to a ratio of propylene to ethylene of 0.25 to 0.85 kg/kg at the cracking furnace exit exist in the first cracking furnace, the values attained for the ratio of propylene to ethylene in the second cracking furnace being above those in the first cracking furnace.