mhurhangee/ep-ind-claims huggingface dataset:
A system to arm one device with another device on a freight train having a locomotive and a last car, the system comprising: an end of train device disposed in the last car of the freight train, the EOT device including a cellular transceiver, a first radio and a soft button which is configured to be virtually pressed in response to an electronic command; and a head of train device disposed in the locomotive of the freight train, the HOT device including a second radio, a display and a button which is configured to be pressed by a user, a central server comprising a web-based service, and a wireless communication device of the user, wherein the EOT device and the HOT device are configured to communicate via the first and second radios (406, 417), wherein the web-based service at the central server is configured to receive an initiate arming sequence command from the wireless communication device of the user and issue the electronic command to the EOT device to virtually press the soft button via a web user interface, wherein the first radio is configured to transmit an arming request message to the HOT device for displaying on the display of the HOT device, and wherein the user is prompted to press the button of the HOT device to cause the HOT device to proceed with an arming process with the EOT device. an end of train device disposed in the last car of the freight train, the EOT device including a cellular transceiver, a first radio and a soft button which is configured to be virtually pressed in response to an electronic command; and a cellular transceiver, a first radio and a soft button which is configured to be virtually pressed in response to an electronic command; and a head of train device disposed in the locomotive of the freight train, the HOT device including a second radio, a display and a button which is configured to be pressed by a user, a second radio, a display and a button which is configured to be pressed by a user, a central server comprising a web-based service, and a wireless communication device of the user, wherein the EOT device and the HOT device are configured to communicate via the first and second radios (406, 417), wherein the web-based service at the central server is configured to receive an initiate arming sequence command from the wireless communication device of the user and issue the electronic command to the EOT device to virtually press the soft button via a web user interface, wherein the first radio is configured to transmit an arming request message to the HOT device for displaying on the display of the HOT device, and wherein the user is prompted to press the button of the HOT device to cause the HOT device to proceed with an arming process with the EOT device.
A modified polyolefin resin, which is obtainable by graft modifying a propylene-based random copolymer having a melting point of 50 to 130°C as determined by differential scanning calorimetry, the copolymer being obtainable by polymerization in the presence of a metallocene catalyst, with an unsaturated carboxylic acid and/or its derivative and with a (meth)acrylic acid ester, and which has a weight average molecular weight of 15,000 to 200,000 as determined by gel permeation chromatography, a graft weight of the unsaturated carboxylic acid and/or its derivative being in the range of 0.1 to 20% by weight, a graft weight of the (meth)acrylic acid ester being in the range of 0.1 to 30% by weight.
Insulating glazing having a pressure-equalizing body comprising a. a first pane and second pane, b. a circumferential spacer between the first pane and the second pane, wherein the spacer comprises a hollow main body with at least two parallel pane contact walls (5a, 5b), an outer wall, and a glazing interior wall, as well as a bore opening through the outer wall, c. a hollow pressure-equalizing body having no valve and no moving parts comprising a surrounding outer wall as well as a gas-permeable and semipermeable membrane fastened inside the pressure-equalizing body, wherein the pressure-equalizing body and a sealing compound are arranged in an outer pane intermediate space between the first pane and the second pane, d. the pressure-equalizing body is connected via the bore opening to the spacer, and a sealing means is arranged between the bore opening and the outer wall of the pressure-equalizing body, e. the hollow main body contains a desiccant, and f. the hollow main body has at least one partition wall. a. a first pane and second pane, b. a circumferential spacer between the first pane and the second pane, wherein the spacer comprises a hollow main body with at least two parallel pane contact walls (5a, 5b), an outer wall, and a glazing interior wall, as well as a bore opening through the outer wall, c. a hollow pressure-equalizing body having no valve and no moving parts comprising a surrounding outer wall as well as a gas-permeable and semipermeable membrane fastened inside the pressure-equalizing body, wherein the pressure-equalizing body and a sealing compound are arranged in an outer pane intermediate space between the first pane and the second pane, d. the pressure-equalizing body is connected via the bore opening to the spacer, and a sealing means is arranged between the bore opening and the outer wall of the pressure-equalizing body, e. the hollow main body contains a desiccant, and f. the hollow main body has at least one partition wall.
A method for producing a metal-ceramic joint structure, comprising: - a film forming step of performing thermal spray of a mixed powder material onto a ceramic base material so as to form a metal film on the ceramic base material, wherein - the mixed powder material comprises - a plurality of alumina particles; - a plurality of aluminum particles; and - a plurality of nickel particles, an average air resistance against the plurality of alumina particles being smaller than an average air resistance against the plurality of aluminum particles, the average air resistance against the plurality of aluminum particles being smaller than an average air resistance against the plurality of nickel particles, and wherein - the thermal spray is performed by a cold spray method; and - a joining step of joining the metal film and a metal material. - a film forming step of performing thermal spray of a mixed powder material onto a ceramic base material so as to form a metal film on the ceramic base material, wherein - the mixed powder material comprises - a plurality of alumina particles; - a plurality of aluminum particles; and - a plurality of nickel particles, an average air resistance against the plurality of alumina particles being smaller than an average air resistance against the plurality of aluminum particles, the average air resistance against the plurality of aluminum particles being smaller than an average air resistance against the plurality of nickel particles, and wherein - the thermal spray is performed by a cold spray method; and - the mixed powder material comprises - a plurality of alumina particles; - a plurality of aluminum particles; and - a plurality of nickel particles, an average air resistance against the plurality of alumina particles being smaller than an average air resistance against the plurality of aluminum particles, the average air resistance against the plurality of aluminum particles being smaller than an average air resistance against the plurality of nickel particles, and wherein - a plurality of alumina particles; - a plurality of aluminum particles; and - a plurality of nickel particles, - the thermal spray is performed by a cold spray method; and - a joining step of joining the metal film and a metal material.
A pipetting apparatus having a coupling configuration for releasable attachment of a pipette tip thereto, and having a pipetting conduit, extending along a conduit path and passing through the coupling configuration, for modifying the pressure in a pipette tip coupled to the coupling configuration; the coupling configuration being embodied in such a way that a pipette tip can be placed onto and pulled off from it along a coupling path that is preferably collinear with the conduit path; the coupling configuration comprising a coupling deformation arrangement which surrounds the pipetting conduit and has a deformation component that, in order to lock and unlock a pipette tip on the coupling configuration, is deformable between a locked position and a released position; a radially external outer surface portion of a bulged portion of the deformation component, which is located between longitudinal ends (18a, 18b), provided at a distance from one another along the coupling path, of the deformation component, being located radially farther outward, with reference to the coupling path, in the locked position than in the released position; at least in the locked position, a wall thickness (w) of the bulged portion of the deformation component being smaller than the dimension of the deformation component along the coupling path, characterized in that one longitudinal end (18a or 18b) of the deformation component is displaceable relative to the other longitudinal end (18b or 18a) that is located remotely along the coupling path; the one longitudinal end being movable along the coupling path toward the other longitudinal end in order to deform the deformation component from the released position into the locked position; and the one longitudinal end being movable along the coupling path away from the other longitudinal end in order to deform the deformation component from the locked position into the released position; a radially internal surface portion of the bulged portion of the deformation component also being located radially farther outward, with reference to the coupling path, in the locked position than in the released position.
Assembly for a vehicle, having an interior element and a display element which is connected to the latter via an adjustment mechanism and has a screen surface, wherein the display element is adjustable by means of the adjustment mechanism between an erected position, in which the screen surface is arranged on a display side with respect to a horizontal displacement axis, and a lowered position, in which said screen surface is displaced in relation to the erected position downwards with respect to the vertical axis of the vehicle and towards the display side with respect to the displacement axis and the screen surface is pivoted away downwards from the vertical axis, wherein the adjustment mechanism has a lower arm and an upper arm, which are respectively connected to the display element via a display pivot pin (S1, S2), and wherein, in the erected position, the lower arm is arranged lower than the upper arm, characterized in that the lower arm and the upper arm are indirectly connected to the interior element, which at least partially belongs to a centre console and/or to a dashboard, wherein the lower arm and the upper arm are each connected pivotably to two auxiliary arms (22, 23; 25, 26) via two spaced-apart intermediate pivot pins (S7, S8; S9, S10), wherein each of the four auxiliary arms (22, 23; 25, 26) has a respective interior pivot pin (S3, S5; S4, S6), which are spaced apart from one another and via which each auxiliary arm (22, 23; 25, 26) is connected to the interior element.
An air extraction system comprising an air flow duct, and a decontaminating apparatus, the decontaminating apparatus comprising: a first reservoir for receiving a first active decontaminating agent; a second reservoir for receiving a second active decontaminating agent; a delivery mechanism coupled to the first reservoir and to the second reservoir and adapted, in use, to deliver an aqueous phase, optionally in the form of droplets, into the air flow duct, the aqueous phase comprising at least one of a first active decontaminating agent from the first reservoir and a second active decontaminating agent from the second reservoir; and a controller adapted, in use, to control supply of at least one of the first and second active decontaminating agents from the first and second reservoirs via the delivery mechanism into the air flow duct, characterised in that at least one of the first and second reservoirs comprises a bacteria incubator adapted, in use, to incubate decontaminating bacteria within the incubator during an incubation period to increase the number and/or maturity of the bacteria within the incubator and, in use, the respective first or second decontaminating agent in the bacteria incubator comprises the incubated decontaminating bacteria.
Use of a layer of mineral on the wall of a food product storage silo, wherein food product scraps and/or dust are attached to the walls of the silo after emptying of the silo, for producing a barrier between parasites and the food product scraps and/or dust, characterised in that • the mineral is chosen from: sodium bicarbonate, trona, sodium carbonate, magnesium carbonate, magnesium oxide, sodium sulphate, and mixtures thereof, • the mineral being in the form of particles having an average diameter of at most 200 μm, and • the layer comprising at least 10 g of the mineral per m 2 of wall, wherein the parasites are arthropods such as insects or acarids which develop in cereals and wherein the layer additionally comprises a co-formulant of the mineral, the co-formulant being selected from: a silica, a diatomaceous earth, an alkaline-earth metal silicate, a clay, a montmorillonite, a zeolite, and mixtures thereof. • the mineral is chosen from: sodium bicarbonate, trona, sodium carbonate, magnesium carbonate, magnesium oxide, sodium sulphate, and mixtures thereof, • the mineral being in the form of particles having an average diameter of at most 200 μm, and • the layer comprising at least 10 g of the mineral per m 2 of wall, wherein the parasites are arthropods such as insects or acarids which develop in cereals and wherein the layer additionally comprises a co-formulant of the mineral, the co-formulant being selected from: a silica, a diatomaceous earth, an alkaline-earth metal silicate, a clay, a montmorillonite, a zeolite, and mixtures thereof.
An apparatus for use in negative pressure wound therapy, comprising: a pump assembly, comprising: a pump housing; a magnet positioned within the pump housing; an electrically conductive coil positioned within the pump housing; and a diaphragm, wherein the coil is directly or indirectly coupled with the diaphragm and is configured to move at least a portion of the diaphragm to pump a fluid through the pump assembly; and a dampener positioned within the pump assembly configured to reduce sound generated by the pump assembly during operation of the pump assembly; wherein the pump housing comprises a chamber and the dampener is positioned within the chamber and characterized in that the chamber is integrally formed with the pump housing. a pump assembly, comprising: a pump housing; a magnet positioned within the pump housing; an electrically conductive coil positioned within the pump housing; and a diaphragm, wherein the coil is directly or indirectly coupled with the diaphragm and is configured to move at least a portion of the diaphragm to pump a fluid through the pump assembly; and a pump housing; a magnet positioned within the pump housing; an electrically conductive coil positioned within the pump housing; and a diaphragm, wherein the coil is directly or indirectly coupled with the diaphragm and is configured to move at least a portion of the diaphragm to pump a fluid through the pump assembly; and a dampener positioned within the pump assembly configured to reduce sound generated by the pump assembly during operation of the pump assembly; wherein the pump housing comprises a chamber and the dampener is positioned within the chamber and characterized in that the chamber is integrally formed with the pump housing.
A composition comprising a compound represented by formula: for use in the treatment of a rheumatic disease, disorder, or condition in a subject, wherein the rheumatic disease, disorder, or condition is selected from the group consisting of acute kidney injury, ankylosing spondylitis, autoimmune-related lung disease, Behcet's Disease, bursitis, cachexia, cardiac fibrosis, chemotherapy induced nephropathy, chronic fatigue syndrome, claudication, contrast nephropathy, cyanotic heart disease, dermatomyositis, disequilibrium, fibromyalgia, frailty, gout, Gulf War syndrome, infectious arthritis, inflammatory arthritis, inflammatory eye disease, inflammatory myositis, juvenile idiopathic arthritis, left ventricular dysfunction, lupus, muscle myopathy, myofascial pain syndrome, myositis, osteoarthritis, osteonecrosis of the jaw, osteoporosis, polymyalgia rheumatica, polymyositis, psoriatic arthritis, pulmonary arterial hypertension, pulmonary fibrosis, a rare muscle disease, rheumatoid arthritis, sarcoidosis, sarcopenia, scleroderma, Sjogren's syndrome, tendinitis, tinnitus, vasculitis, and vertigo.
A method for implementing quality of service, QoS, request information, wherein the method comprises: a policy enforcement functional entity, PE-FE, sending a policy decision functional entity, PD-FE, a resource decision request message for reserving required QoS resources for a specified flow, wherein QoS request information including one or more groups of predetermined parameters is included in the resource decision request message; wherein said or each group of the predetermined parameters behave as a single attribute-value pair, and said or each group of the predetermined parameters are used to represent the QoS request information of the transport layer; wherein said or each group of the predetermined parameters include flow description information, quality of service information and at least one of the following information: flow status information, user name information, Layer 2 address information, IP address information, logical access address information, and physical access address information. a policy enforcement functional entity, PE-FE, sending a policy decision functional entity, PD-FE, a resource decision request message for reserving required QoS resources for a specified flow, wherein QoS request information including one or more groups of predetermined parameters is included in the resource decision request message; wherein said or each group of the predetermined parameters behave as a single attribute-value pair, and said or each group of the predetermined parameters are used to represent the QoS request information of the transport layer; wherein said or each group of the predetermined parameters include flow description information, quality of service information and at least one of the following information: flow status information, user name information, Layer 2 address information, IP address information, logical access address information, and physical access address information.
An anti-inflammatory pharmaceutical composition comprising (i) the compound of Formula 1: or a pharmaceutically acceptable salt thereof having a 50% volume particle diameter (d (0.5)) of 3 μm to 9 μm measured by laser diffraction, (ii) a pharmaceutically acceptable diluent, and (iii) a pharmaceutically acceptable lubricant, wherein the compound of Formula 1 exists in crystalline form A that has the results of X-ray diffraction analysis with Cu radiation shown in Table 1 and a differential scanning calorimetry profile obtainable by heating at a rate of 10°C/min from 25°C to 220°C, said DSC profile having a peak within a range of from 175.62°C to 178.35°C: TABLE 1 2θ Intensity (cps) 8.40 7125 13.26 10050 14.02 2612 17.70 12200 18.48 10388 19.14 7400 19.84 5150 20.54 11750 22.72 2788 23.56 3100 27.62 3088; or wherein the compound of Formula 1 exists in crystalline form G that has the results of X-ray diffraction analysis with Cu radiation shown in Table 2 and a differential scanning calorimetry profile obtainable by heating at a rate of 10°C/min from 25°C to 220°C, said DSC profile having a peak within a range of from 181.06°C to 186.16°C: TABLE 2 2θ Intensity (cps) 11.10 3112 12.66 8762 16.92 7812 18.26 18038 19.48 8288 20.80 9775 22.46 4775 24.02 5350 25.42 17138 27.76 4700; or wherein the compound of Formula 1 exists in a mixture of the crystalline form A and the crystalline form G.
A multi-carrier terminal scheduling method, comprising: when accessing a network in an uplink, a multi-carrier terminal sending an uplink access request to a base station through an Enhanced Dedicated Channel Random Access Uplink Control Channel, E-RUCCH, over a carrier where a main frequency point selected by a wireless network controller for the multi-carrier terminal is located; and the base station scheduling the multi-carrier terminal through an Enhanced Dedicated Channel Absolute Grant Channel, E-AGCH, wherein the step of the base station scheduling the multi-carrier terminal through the E-AGCH comprises: when the base station schedules the multi-carrier terminal, selecting some or all carriers supported by the multi-carrier terminal for scheduling, and sending authorization information to the multi-carrier terminal through the E-AGCH over the scheduled carrier; and after the multi-carrier terminal receives the authorization information sent by the base station, sending a serving and neighbor cell path loss, SNPL, value of the scheduled carrier and SNPL values of other carriers measured by the present terminal to the base station over the scheduled carrier through an enhanced dedicated channel physical uplink channel, E-PUCH. when accessing a network in an uplink, a multi-carrier terminal sending an uplink access request to a base station through an Enhanced Dedicated Channel Random Access Uplink Control Channel, E-RUCCH, over a carrier where a main frequency point selected by a wireless network controller for the multi-carrier terminal is located; and the base station scheduling the multi-carrier terminal through an Enhanced Dedicated Channel Absolute Grant Channel, E-AGCH, wherein the step of the base station scheduling the multi-carrier terminal through the E-AGCH comprises: when the base station schedules the multi-carrier terminal, selecting some or all carriers supported by the multi-carrier terminal for scheduling, and sending authorization information to the multi-carrier terminal through the E-AGCH over the scheduled carrier; and after the multi-carrier terminal receives the authorization information sent by the base station, sending a serving and neighbor cell path loss, SNPL, value of the scheduled carrier and SNPL values of other carriers measured by the present terminal to the base station over the scheduled carrier through an enhanced dedicated channel physical uplink channel, E-PUCH. when the base station schedules the multi-carrier terminal, selecting some or all carriers supported by the multi-carrier terminal for scheduling, and sending authorization information to the multi-carrier terminal through the E-AGCH over the scheduled carrier; and after the multi-carrier terminal receives the authorization information sent by the base station, sending a serving and neighbor cell path loss, SNPL, value of the scheduled carrier and SNPL values of other carriers measured by the present terminal to the base station over the scheduled carrier through an enhanced dedicated channel physical uplink channel, E-PUCH.