mhurhangee/ep-ind-claims huggingface dataset:
A fire alarm system, comprising: a system control panel fixedly positioned within a building for controlling a plurality of fire alarm system devices connected to the panel and positioned within the building; a mobile device wirelessly connected to the control panel; and a fire alarm system control application on the mobile device, wherein the fire alarm control system application gains access to the control panel and, therethrough, the plurality of fire alarm system devices and wherein the fire alarm control system application issues a command to one or more particular fire alarm system devices of the plurality of fire alarm system devices in a specific condition to activate a physical identification signal, from an indicator located on the fire alarm system devices, in a specific state, and wherein the command is to perform a particular test or maintenance function and the control panel relays the command to the one or more particular fire alarm system devices; wherein the mobile device includes a graphical user interface that provides a schematic map depicting the actual layout of the part of building the technician is traversing, including the location of the one or more particular fire alarm system devices depicted on the map; and initiating, via the fire alarm system control application on the mobile device, the physical identification signal exhibited on the one or more particular fire alarm system devices of the plurality of fire alarm system devices to physically indicate that the one or more particular fire alarm system devices exhibit the specific condition. a system control panel fixedly positioned within a building for controlling a plurality of fire alarm system devices connected to the panel and positioned within the building; a mobile device wirelessly connected to the control panel; and a fire alarm system control application on the mobile device, wherein the fire alarm control system application gains access to the control panel and, therethrough, the plurality of fire alarm system devices and wherein the fire alarm control system application issues a command to one or more particular fire alarm system devices of the plurality of fire alarm system devices in a specific condition to activate a physical identification signal, from an indicator located on the fire alarm system devices, in a specific state, and wherein the command is to perform a particular test or maintenance function and the control panel relays the command to the one or more particular fire alarm system devices; wherein the mobile device includes a graphical user interface that provides a schematic map depicting the actual layout of the part of building the technician is traversing, including the location of the one or more particular fire alarm system devices depicted on the map; and initiating, via the fire alarm system control application on the mobile device, the physical identification signal exhibited on the one or more particular fire alarm system devices of the plurality of fire alarm system devices to physically indicate that the one or more particular fire alarm system devices exhibit the specific condition.
An observation instrument inside a hot cell, which instrument is arranged to be capable of extending inside a cavity passing through a wall of the cell, the instrument having a dome (24, 240) provided at a first end of the instrument, a biological protection shield, and a sensor that is sensitive to rays or radiation, the instrument being characterized in that the sensor is arranged between the dome and the shield, the instrument further comprising a travel mechanism for moving the sensor between a retracted position away from the dome and an observation position in which the sensor extends inside the dome, the sensor travel mechanism being arranged between the dome and the shield, the dome being arranged to be capable of sliding in the cavity and being separate from the sensor, from its travel mechanism, and from the shield of the instrument.
Process for obtaining combustible fuels and gases from organic materials, where the organic materials are thermally decomposed to form the combustible fuels and gases with formation of carbon, wherein the carbon produced in the thermal decomposition in the interior of a decomposition reactor is reacted in a water vapour atmosphere in a synthesis process in a synthesis reactor following the decomposition to give carbon monoxide and hydrogen, the thermal decomposition is carried out as an anaerobic process, a mixture of pure carbon and inorganic material formed in the thermal decomposition of the organic materials goes directly, without cooling and intermediate storage, via a gastight lock from the decomposition reactor to the synthesis reactor and a gas formed in the decomposition in the decomposition reactor is discharged via a gas outlet from the decomposition reactor and treated further separately, the carbon produced in the thermal decomposition of the organic materials in the decomposition reactor is reacted anaerobically in the synthesis process in the water vapour atmosphere in a temperature range from 850°C to 1000°C in the synthesis reactor taking place spatially and temporally after the decomposition, the thermal decomposition of the organic materials and the synthesis process proceed as endothermic processes and the energy required for this purpose is supplied allothermically to the process by being introduced indirectly via walls of the reactors (5, 10) and/or via a heat transfer medium conveyed in heating coils into the respective reaction space and furnace sections or furnaces which are separated from one another in a gastight manner are used as reactors (5, 10).
Process for the preparation of a catalyst preparation, characterized in that the catalyst, containing at least one inorganic compound being solid under normal conditions, which is selected from titanium dioxide, titanium dioxide-containing substances, titanates, zeolites, aluminium oxide, boron oxides, germanium dioxide, antimony(lll) oxide, cerium oxides, barium sulfate, zinc sulfide, silicon dioxide or mixtures thereof, is comminuted by means of a dispersing device into particles having an average particle size d 50,3 of at most 2 μm, represented according to DIN 66141 and 66144, and is dispersed in a concentration of from 1 to 50 % by weight, relative to the finished catalyst preparation, in a liquid without the aid of wetting agents or dispersing agents or any other suspension-stabilizing auxiliary agent, wherein a paste is obtained, which is solidified in the dormant state and begins to flow at 23°C from a minimum shear stress with a yield point τ 0 of 1 to 30 Pa only.
A gas valve actuation device for an internal combustion engine, wherein the device comprises - a first means for actuating two gas valves (4,5) in a first lift event, - a second means for selectively actuating a first one of said two gas valves in a second lift event, - a fluid circuit for controlling actuation of said first gas valve in the second lift event, wherein the fluid circuit comprises a first fluid circuit valve, which is arranged to be controlled by the first actuation means, characterized in that the first fluid circuit valve is arranged to be open when the two gas valves (4,5) are not actuated for the first lift event and closed when the two gas valves (4,5) are actuated for the first lift event, for creating conditions for achieving an exact positioning of the second actuation means in an engaged state thereof. - a first means for actuating two gas valves (4,5) in a first lift event, - a second means for selectively actuating a first one of said two gas valves in a second lift event, - a fluid circuit for controlling actuation of said first gas valve in the second lift event,
A method for certifying messages exchanged between two or more parties (User A, User B) through a messaging system, wherein each message is exchanged: • sending the message from a respective sender to a certification server, wherein said respective sender is - a first user (User A) using a first electronic communication device, or - a first intelligent software agent; and • sending the message from the certification server to at least one respective recipient, wherein said respective recipient is - a second user (User B) using a second electronic communication device, or - a second intelligent software agent; wherein, for each exchanged message, the respective sender also sends the certification server a corresponding digest calculated by applying a first predefined hash function to the message; wherein the certification server stores the exchanged messages and a list of the digests corresponding to the exchanged messages; characterized in that the certification server: • stores the exchanged messages and the corresponding digests in the order in which the messages are exchanged; and, • for each exchanged message, - updates the list of digests with the digest corresponding to said exchanged message, whereby the updated list of digests includes the digest corresponding to said exchanged message and the digests corresponding to messages previously exchanged, and - calculates a cumulative digest by applying a second predefined hash function to the updated list of digests; whereby the certification server is provided with capability to certify contents and order of exchange of the messages. • sending the message from a respective sender to a certification server, wherein said respective sender is - a first user (User A) using a first electronic communication device, or - a first intelligent software agent; and - a first user (User A) using a first electronic communication device, or - a first intelligent software agent; and • sending the message from the certification server to at least one respective recipient, wherein said respective recipient is - a second user (User B) using a second electronic communication device, or - a second intelligent software agent; - a second user (User B) using a second electronic communication device, or - a second intelligent software agent; • stores the exchanged messages and the corresponding digests in the order in which the messages are exchanged; and, • for each exchanged message, - updates the list of digests with the digest corresponding to said exchanged message, whereby the updated list of digests includes the digest corresponding to said exchanged message and the digests corresponding to messages previously exchanged, and - calculates a cumulative digest by applying a second predefined hash function to the updated list of digests; - updates the list of digests with the digest corresponding to said exchanged message, whereby the updated list of digests includes the digest corresponding to said exchanged message and the digests corresponding to messages previously exchanged, and - calculates a cumulative digest by applying a second predefined hash function to the updated list of digests;
A method of preoperative planning and provision of patient-specific surgical aids, the method comprising the steps of: choosing, on a computer system, a device for placement in engagement with a virtual model of a native patient tissue; virtually specifying, on the computer system, a predetermined device orientation for the device with respect to the virtual model of the native patient tissue; virtually placing, on the computer system, at least one landmark in a predetermined landmark orientation with respect to the predetermined device orientation; virtually modeling, on the computer system, a patient-specific template, the patient-specific template being configured to mate with the virtual model of the native patient tissue, the patient-specific template having a landmark guiding feature configured to place the landmark in the predetermined landmark orientation when the patient-specific template is mated with the virtual model of the native patient tissue; virtually modeling, on the computer system, a patient-specific placement guide, the patient-specific placement guide being simultaneously virtually mated with the device and virtually registered in a predetermined relationship with at least one previously placed landmark to indicate that the device has achieved the predetermined device orientation with respect to the virtual model of the native patient tissue; creating a physical version of the patient-specific placement guide; and creating a physical version of the patient-specific template. choosing, on a computer system, a device for placement in engagement with a virtual model of a native patient tissue; virtually specifying, on the computer system, a predetermined device orientation for the device with respect to the virtual model of the native patient tissue; virtually placing, on the computer system, at least one landmark in a predetermined landmark orientation with respect to the predetermined device orientation; virtually modeling, on the computer system, a patient-specific template, the patient-specific template being configured to mate with the virtual model of the native patient tissue, the patient-specific template having a landmark guiding feature configured to place the landmark in the predetermined landmark orientation when the patient-specific template is mated with the virtual model of the native patient tissue; virtually modeling, on the computer system, a patient-specific placement guide, the patient-specific placement guide being simultaneously virtually mated with the device and virtually registered in a predetermined relationship with at least one previously placed landmark to indicate that the device has achieved the predetermined device orientation with respect to the virtual model of the native patient tissue; creating a physical version of the patient-specific placement guide; and creating a physical version of the patient-specific template.
A method for measuring pressure exerted by earth material, comprising: - providing a pipe in the earth material, wherein the pipe has a longitudinal bore defining an inner diameter of the pipe, wherein the pipe is an inclinometer pipe, - providing a device adapted to be moved within the pipe along the longitudinal bore, wherein the device comprises sensors (121, 122) adapted to sense the inner diameter of the pipe, - moving the device along the pipe, - taking a measurement of the inner diameter of the pipe in a first transversal direction at at least one predetermined longitudinal position of the pipe, - taking a measurement of the inner diameter of the pipe in a second transversal direction at at least one predetermined longitudinal position of the pipe, wherein the second transversal direction is oriented differently to the first transversal direction, characterized in that the method comprises the further step of: - deriving the ovalization of the pipe at that predetermined longitudinal position of the pipe through subtracting the diameter value of the first transversal direction from the diameter value of the second transversal direction, wherein the measurements of the diameter value at the different transversal directions (21, 22, 135) are fitted a theoretical oval of the pipe providing the best fit at a specific longitudinal position. - providing a pipe in the earth material, wherein the pipe has a longitudinal bore defining an inner diameter of the pipe, wherein the pipe is an inclinometer pipe, - providing a device adapted to be moved within the pipe along the longitudinal bore, wherein the device comprises sensors (121, 122) adapted to sense the inner diameter of the pipe, - moving the device along the pipe, - taking a measurement of the inner diameter of the pipe in a first transversal direction at at least one predetermined longitudinal position of the pipe, - taking a measurement of the inner diameter of the pipe in a second transversal direction at at least one predetermined longitudinal position of the pipe, wherein the second transversal direction is oriented differently to the first transversal direction, - deriving the ovalization of the pipe at that predetermined longitudinal position of the pipe through subtracting the diameter value of the first transversal direction from the diameter value of the second transversal direction,
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: determining that the WTRU has device-to-device data to transmit; sending a connection establishment request to a network (103/104/105) in response to determining that the WTRU has the device-to-device data to transmit; and during a time period after the connection establishment request is sent to the network and before an indication regarding a resource rejection or a resource assignment is received from the network, transmitting the device-to-device data using a pre-configured resource pool. determining that the WTRU has device-to-device data to transmit; sending a connection establishment request to a network (103/104/105) in response to determining that the WTRU has the device-to-device data to transmit; and during a time period after the connection establishment request is sent to the network and before an indication regarding a resource rejection or a resource assignment is received from the network, transmitting the device-to-device data using a pre-configured resource pool.
Method of determining a mass proportion (ω S) of a wall section of a plastic bottle, in particular a section in the region of the bottle shoulder and / or of the bottle neck, with the following steps in the method: a) irradiation of an irradiation region of the bottle side wall with light, in particular with infrared or ultraviolet light, and the acquisition of a light distribution of the light penetrating the bottle along a detection region of the side wall on the side of the bottle facing away from the irradiation region; b) calculation of a mass distribution of the bottle side wall from the light distribution; c) determination of the mass proportion (ω S) of the mass (m W) of the side wall based on the mass distribution, wherein the mass proportion (ω S) is calculated by integration of the mass distribution over the wall section and by forming a relationship with the integral of the mass distribution over the detection area. a) irradiation of an irradiation region of the bottle side wall with light, in particular with infrared or ultraviolet light, and the acquisition of a light distribution of the light penetrating the bottle along a detection region of the side wall on the side of the bottle facing away from the irradiation region; b) calculation of a mass distribution of the bottle side wall from the light distribution; c) determination of the mass proportion (ω S) of the mass (m W) of the side wall based on the mass distribution, wherein the mass proportion (ω S) is calculated by integration of the mass distribution over the wall section and by forming a relationship with the integral of the mass distribution over the detection area.
Layer material for corrosion protection, • comprising a binder consisting of a resin, containing at least one of the following substances: oligosiloxane or polysiloxane, silicone resin, silicone, silicate, polyphosphate, and which is dissolved in a solvent, • comprising a pigment consisting of microparticles of zinc having a mean diameter of at least 1 μm, • comprising a further pigment consisting of nanoparticles of titanium oxide or silicon oxide having a mean diameter of at most 100 nm, characterized in that it contains a further pigment consisting of aluminum oxide, zirconium oxide or silicon oxide, with a mean diameter of these particles of at least 1 μm, as filler. • comprising a binder consisting of a resin, containing at least one of the following substances: oligosiloxane or polysiloxane, silicone resin, silicone, silicate, polyphosphate, and which is dissolved in a solvent, • comprising a pigment consisting of microparticles of zinc having a mean diameter of at least 1 μm, • comprising a further pigment consisting of nanoparticles of titanium oxide or silicon oxide having a mean diameter of at most 100 nm,
A method performed by a dispatch computing system for activating a responder camera, the dispatch computing system operated by a user, the camera associated with a responder, the method comprising: receiving an indication of a location or an event; determining a geographic area associated with the location or the event; transmitting a dispatch request to the responder, the dispatch request including the geographic area, and dispatch instructions that request the responder to respond to a situation at the location or event; in response to the dispatch request, receiving a dispatch acknowledgement via a responder device associated with the responder, the dispatch acknowledgement including information indicating that the responder is en route to the geographic area, the information including geolocation coordinates of an intended future location of the responder; and in response to receiving the dispatch acknowledgement that includes the information indicating that the responder is en route to the geographic area, automatically sending a camera activation signal to the responder camera; wherein in response to receiving the camera activation signal, the responder camera begins capturing a video without manual activation by the responder of the responder camera. receiving an indication of a location or an event; determining a geographic area associated with the location or the event; transmitting a dispatch request to the responder, the dispatch request including the geographic area, and dispatch instructions that request the responder to respond to a situation at the location or event; in response to the dispatch request, receiving a dispatch acknowledgement via a responder device associated with the responder, the dispatch acknowledgement including information indicating that the responder is en route to the geographic area, the information including geolocation coordinates of an intended future location of the responder; and in response to receiving the dispatch acknowledgement that includes the information indicating that the responder is en route to the geographic area, automatically sending a camera activation signal to the responder camera; wherein