mhurhangee/patent-ind-claim-en huggingface dataset:
A fire detection system configured to detect an undesirably high temperature associated with an area, the fire detection system comprising a temperature sensor comprising a temperature sensor array configured to receive temperature information associated with the area, a fire alerting system associated with the temperature sensor , the fire alerting system being configured to receive information from the temperature sensor and generate a warning signal based on an undesirably high temperature associated with the area, and a fire control panel associated with the fire alerting system , the fire control panel being configured to receive the warning signal, characterised in that the temperature sensor array includes a planar mounting base and a plurality of temperature sensing devices arranged in a 2-dimensional array, at least one of the temperature sensing devices is attached to the mounting base at an angle with respect to the base that differs from an angle with respect to the base at which at least one other temperature sensing device is mounted to the base such that the temperature sensing devices are aimed at multiple-fixed aiming points located on the area to be observed and aimed at slightly differing angles from one another. a temperature sensor comprising a temperature sensor array configured to receive temperature information associated with the area, a fire alerting system associated with the temperature sensor , the fire alerting system being configured to receive information from the temperature sensor and generate a warning signal based on an undesirably high temperature associated with the area, and a fire control panel associated with the fire alerting system , the fire control panel being configured to receive the warning signal, characterised in that the temperature sensor array includes a planar mounting base and a plurality of temperature sensing devices arranged in a 2-dimensional array, at least one of the temperature sensing devices is attached to the mounting base at an angle with respect to the base that differs from an angle with respect to the base at which at least one other temperature sensing device is mounted to the base such that the temperature sensing devices are aimed at multiple-fixed aiming points located on the area to be observed and aimed at slightly differing angles from one another. the temperature sensor array includes a planar mounting base and a plurality of temperature sensing devices arranged in a 2-dimensional array, at least one of the temperature sensing devices is attached to the mounting base at an angle with respect to the base that differs from an angle with respect to the base at which at least one other temperature sensing device is mounted to the base such that the temperature sensing devices are aimed at multiple-fixed aiming points located on the area to be observed and aimed at slightly differing angles from one another.
Method for detecting a leak in a patient gas module which suctions and analyses a continuous stream of sample gas from a ventilated patient , the method comprising determining a first time curve of a carbon dioxide concentration in a respiratory gas mixture of the patient ; determining a second time curve of a concentration of another gas in the respiratory gas mixture, which other gas is different from carbon dioxide; determining a statistical degree of similarity between the first and the second time curve, wherein the degree of similarity corresponds to a phase shift between the first and the second time curve; and detecting the leak on the basis of the degree of similarity.
Method for repairing in-situ an oil manifold of a gas turbine , the gas turbine comprising a compressor , a combustor and a turbine , a compressor rear frame case between the compressor and the turbine , wherein the combustor , a front end bearing housing and an aft end bearing housing are located inside the compressor rear frame case , wherein the front end bearing housing and the aft end bearing housing together comprise at least one axial bearing and two radial bearings , wherein the compressor comprises a rotor with a bearing journal at least on the outlet end of the compressor that is born by the bearings inside the front end bearing housing, wherein the turbine comprises a rotor with a bearing journal on at least the inlet end of the rotor that is born by the at least one bearing in the aft end bearing housing , wherein the bearing journal at the outlet end of the compressor rotor and the bearing journal at the inlet end of the turbine rotor are detachably connected, wherein an aft end bearing assembly comprises a forward sump housing and at least one bearing , and wherein an oil supply manifold is attached to 1 forward sump housing for feeding oil to the at least one bearing , the method comprising the steps of: a) disconnecting the turbine rotor from the compressor rotor and removing the turbine from the compressor rear frame case ; b) removing the aft end bearing housing from the compressor rear frame case ; c) removing an aft sump housing from the compressor rear frame case ; d) removing the sump oil manifold, oil supply, air tubes and other installations from the compressor rear frame case and e) removing the sump closure and lube oil nozzle. a) disconnecting the turbine rotor from the compressor rotor and removing the turbine from the compressor rear frame case ; b) removing the aft end bearing housing from the compressor rear frame case ; c) removing an aft sump housing from the compressor rear frame case ; d) removing the sump oil manifold, oil supply, air tubes and other installations from the compressor rear frame case and e) removing the sump closure and lube oil nozzle.
A light signal communication receiving device including a photoreceiving diode (PD) configured to generate a current signal on a first node (N1) from a received light signal, a preamplifier (TIA) configured to convert the current signal on the first node (N1) into a voltage signal on a second node (N2), characterised in that it comprises a differential amplifier (LNAdiff) including a first input connected to the first node (N1) and a second input connected to a third node (N3) coupled to the second node (N2) via an adjustment circuit (ADJ) configured to shift the level of the voltage signal from the second node (N2) to the third node (N3), in a manner controlled by a control signal (dgt).
A vertically mountable shaft and bearing assembly for imparting rotary motion to a rotatable device submerged in a process fluid at a temperature in excess of 65°C, the assembly comprising: a shaft having a proximal end to which rotation can be imparted, and a distal end which is attached to the rotatable device ; a lower mechanical bearing rotatably supporting the shaft near its distal end; a shaft housing containing the lower mechanical bearing ; and characterized by : an upper mechanical bearing supporting the shaft near its proximal end; a lower mechanical seal allowing the distal end of the shaft to rotatably extend beyond a distal end of the shaft housing while preventing entry by the process fluid into the interior of the shaft housing when the distal end of the shaft housing is submerged in the process fluid; the shaft housing containing the shaft between the lower mechanical bearing and the upper mechanical bearing , and including a layer of thermal insulating material proximal to an inward-facing surface of the shaft housing to inhibit conduction of heat from process fluid surrounding an exterior of the shaft housing into the interior of the shaft housing. a shaft having a proximal end to which rotation can be imparted, and a distal end which is attached to the rotatable device ; a lower mechanical bearing rotatably supporting the shaft near its distal end; a shaft housing containing the lower mechanical bearing ; and characterized by : an upper mechanical bearing supporting the shaft near its proximal end; a lower mechanical seal allowing the distal end of the shaft to rotatably extend beyond a distal end of the shaft housing while preventing entry by the process fluid into the interior of the shaft housing when the distal end of the shaft housing is submerged in the process fluid; the shaft housing containing the shaft between the lower mechanical bearing and the upper mechanical bearing , and including a layer of thermal insulating material proximal to an inward-facing surface of the shaft housing to inhibit conduction of heat from process fluid surrounding an exterior of the shaft housing into the interior of the shaft housing. an upper mechanical bearing supporting the shaft near its proximal end; a lower mechanical seal allowing the distal end of the shaft to rotatably extend beyond a distal end of the shaft housing while preventing entry by the process fluid into the interior of the shaft housing when the distal end of the shaft housing is submerged in the process fluid; the shaft housing containing the shaft between the lower mechanical bearing and the upper mechanical bearing , and including a layer of thermal insulating material proximal to an inward-facing surface of the shaft housing to inhibit conduction of heat from process fluid surrounding an exterior of the shaft housing into the interior of the shaft housing.
Mounting system for a gas turbine , comprising two units which can be connected to each other, wherein each unit has a rail , a fastening section in the shape of a segment of a circle, on the rail , for fastening the rail to a manhole of the gas turbine , and at least one displacement element per rail , which can be displaced along the rail .
A process for manufacturing a transaction card comprising the steps of: (a) forming an opening in a card body of the transaction card including at least a first securing feature as a blind hole pocket open only to a first face of the card body and at least a second securing features as a blind hole pocket open only to a second face of the card body; (b) molding a molding material about the electronic component by placing the electronic component in a mold and adding the molding material to completely encapsulate the component; and then, after performance of steps (a) and (b), inserting and securing the completely encapsulated electronic component into the opening in the card body, including using the first and second securing features for securing the molding material to the card body. (a) forming an opening in a card body of the transaction card including at least a first securing feature as a blind hole pocket open only to a first face of the card body and at least a second securing features as a blind hole pocket open only to a second face of the card body; (b) molding a molding material about the electronic component by placing the electronic component in a mold and adding the molding material to completely encapsulate the component; and then, after performance of steps (a) and (b),
Storage compartment (A) for a vehicle, with an integrated disinfection device having at least one light source that emits UV-C radiation (S) and having a support (F) for supporting and disinfecting an object , which support has a surface structure (O) that reflects the UV-C radiation (S) of the at least one light source and is designed such that the reflected UV-C radiation (S) irradiates a side of the object facing the support (F), the side of the stored object that faces the support (F) being spaced apart from a lowest point of the surface structure (O), and the support (F) comprising a carrier structure (F1) on which a reflection layer (F2) is arranged, characterized in that the surface structure (O) is designed as a wave shape and in that elevations (E) of the wave shape are of different heights.
A smoke detector , comprising: a housing defining a chamber for receiving ambient materials; an emitter configured to emit light into the chamber; a receiver configured to receive light reflected from the ambient materials in the chamber and generate output signals, an angular distance between the emitter and the receiver is less than 90°, wherein the angular distance between the emitter and the receiver generates a back scatter effect; and a controller configured to receive output signals from the receiver and determine whether a current condition of the chamber indicates a need to trigger an alarm, wherein the smoke detector comprises only one emitter and only one receiver, characterized in that : the controller monitors a time increment between a first output signal threshold and a second output signal threshold to determine whether a current condition of the chamber indicates a need to trigger an alarm; when the time increment is less than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 1.5 % obs/ft., 4.9 % obs/m, is received; when the time increment is greater than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 2.0 % obs/ft., 6.6 % obs/m, is received. a housing defining a chamber for receiving ambient materials; an emitter configured to emit light into the chamber; a receiver configured to receive light reflected from the ambient materials in the chamber and generate output signals, an angular distance between the emitter and the receiver is less than 90°, wherein the angular distance between the emitter and the receiver generates a back scatter effect; and a controller configured to receive output signals from the receiver and determine whether a current condition of the chamber indicates a need to trigger an alarm, wherein the smoke detector comprises only one emitter and only one receiver, characterized in that : the controller monitors a time increment between a first output signal threshold and a second output signal threshold to determine whether a current condition of the chamber indicates a need to trigger an alarm; when the time increment is less than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 1.5 % obs/ft., 4.9 % obs/m, is received; when the time increment is greater than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 2.0 % obs/ft., 6.6 % obs/m, is received. the controller monitors a time increment between a first output signal threshold and a second output signal threshold to determine whether a current condition of the chamber indicates a need to trigger an alarm; when the time increment is less than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 1.5 % obs/ft., 4.9 % obs/m, is received; when the time increment is greater than sixty seconds, the controller triggers an alarm when an output signal of greater than or equal to 2.0 % obs/ft., 6.6 % obs/m, is received.
A fluid sensing system adapted to be placed in a flowing fluid within a conduit for sensing properties thereof, the fluid sensing system comprising: a microfluidic device comprising a micromachined tube supported above a substrate so as to define a gap therebetween, a tube passage within a freestanding portion of the micromachined tube , an inlet and outlet in fluidic communication with the tube passage and an exterior of the microfluidic device , means for vibrating the freestanding portion of the micromachined tube at a resonant frequency thereof, and means for sensing movement of the freestanding portion of the micromachined tube so as to measure at least one of the vibration frequency and deflection of the freestanding portion relative to the substrate and produce therefrom at least one output corresponding to at least one of the mass flow rate, specific gravity, and density of a fluid flowing through the tube passage ; means for placing the microfluidic device in the fluid flowing within the conduit so that a fraction of the fluid enters the tube passage of the micromachined tube through the inlet of the microfluidic device ; the placing means comprises a funnel having a funnel passage therethrough, an upstream end defining a funnel inlet , and a downstream end defining a funnel outlet , and a truss for positioning the funnel away from the wall of the conduit , the microfluidic device being disposed in a surface of the funnel so as to place at least the inlet of the microfluidic device in the fluid flowing through the funnel passage ; and means for processing the at least one output to compute a property of the fluid. a microfluidic device comprising a micromachined tube supported above a substrate so as to define a gap therebetween, a tube passage within a freestanding portion of the micromachined tube , an inlet and outlet in fluidic communication with the tube passage and an exterior of the microfluidic device , means for vibrating the freestanding portion of the micromachined tube at a resonant frequency thereof, and means for sensing movement of the freestanding portion of the micromachined tube so as to measure at least one of the vibration frequency and deflection of the freestanding portion relative to the substrate and produce therefrom at least one output corresponding to at least one of the mass flow rate, specific gravity, and density of a fluid flowing through the tube passage ; means for placing the microfluidic device in the fluid flowing within the conduit so that a fraction of the fluid enters the tube passage of the micromachined tube through the inlet of the microfluidic device ; the placing means comprises a funnel having a funnel passage therethrough, an upstream end defining a funnel inlet , and a downstream end defining a funnel outlet , and a truss for positioning the funnel away from the wall of the conduit , the microfluidic device being disposed in a surface of the funnel so as to place at least the inlet of the microfluidic device in the fluid flowing through the funnel passage ; and means for processing the at least one output to compute a property of the fluid.
Beverage holder for a motor vehicle, comprising holding elements for fixing beverage containers in the beverage holder , characterized in that a plurality of holding cams in the form of permanent magnets comprising the same magnetic pole arrangement are provided as holding elements and, in at least two holding regions , are arranged one above the other and spaced apart from each other in the wall of the beverage holder and so as to project from the wall of the beverage holder , and in that, for each holding region , an electromagnet corresponding to the holding cams in the form of permanent magnets of the relevant holding region is arranged in the outer region of the beverage holder . a plurality of holding cams in the form of permanent magnets comprising the same magnetic pole arrangement are provided as holding elements and, in at least two holding regions , are arranged one above the other and spaced apart from each other in the wall of the beverage holder and so as to project from the wall of the beverage holder , and in that, for each holding region , an electromagnet corresponding to the holding cams in the form of permanent magnets of the relevant holding region is arranged in the outer region of the beverage holder .
A composition, system, or kit comprising: a CSPG reduction peptide (CRP), or a nucleic acid sequence encoding said CRP, wherein said CRP is a fusion protein comprising the following: a) a first amino acid sequence encoding a cell membrane penetrating domain, wherein said first amino acid sequence comprises SEQ ID NO: 15; b) a second amino acid sequence encoding a chondroitin sulfate proteoglycan (CSPG) binding domain, wherein said second amino acid sequence comprises SEQ ID NO:40; and c) a third amino acid sequence encoding a lysosome targeting domain, wherein said third amino acid sequence comprises SEQ ID NO:29. a) a first amino acid sequence encoding a cell membrane penetrating domain, wherein said first amino acid sequence comprises SEQ ID NO: 15; b) a second amino acid sequence encoding a chondroitin sulfate proteoglycan (CSPG) binding domain, wherein said second amino acid sequence comprises SEQ ID NO:40; and c) a third amino acid sequence encoding a lysosome targeting domain, wherein said third amino acid sequence comprises SEQ ID NO:29.
A combination comprising a load distributing vest and a parachute harness container , the parachute harness container having a front side in contact with a jumper's back, a pair of harness container straps to go over the jumper's shoulders to secure the harness container on the jumper's back when the harness container is worn, and main lift webs connected to the parachute risers to support the jumper during descent, said load distributing vest is attached to said parachute harness container , wherein the load distributing vest includes an upper yoke and a pair of vest straps integral with or connected to said yoke that extend outwardly therefrom to respective vest strap ends , said upper yoke being attached to the front side of the harness container at a yoke attachment point and said vest straps being in contact with the jumper's shoulders, back and chest and running under the harness container straps, said vest strap ends being attached to said main lift webs at respective vest strap attachment points , a length of said load distributing vest from said yoke to said strap ends being less than a distance between said yoke attachment point on the front side of the harness container and said vest strap attachment points on said main lift webs as measured from the front side of the harness container along an inner side of said harness container straps, said load distributing vest length relative to said distance elevating the harness container above the vest straps and causing load from said harness container to be distributed across the jumper's back, shoulders and chest by the load distributing vest while also increasing the jumper's range of head movement.
A method of transmitting ACK/NACK, ACKnowledgment/Negative ACKnowledgment, by a second UE, User Equipment, in a wireless communication system, the method comprising: receiving data, by the second UE, from a first UE; determining a subframe in which ACK/NACK is to be transmitted based on a comparison between T-RPT, Time Resource Pattern for Transmission, of the first UE and T-RPT of the second UE; and transmitting the ACK/NACK to the first UE in the determined subframe in response to the data, wherein the comparison between the T-RPT of the first UE and the T-RPT of the second UE is performed on subframes appearing after a kth subframe from a subframe in which the data is received, wherein the second UE determines a first subframe of which a T-RPT value of the first UE is 0 and a T-RPT value of the second UE is 1 among the subframes appearing after the kth subframe as the subframe in which the ACK/NACK is to be transmitted, and wherein the second UE repeatedly transmits the ACK/NACK in a number of subframes of which the T-RPT value of the first UE is 0 and the T-RPT value of the second UE is 1 appearing after the first subframe. receiving data, by the second UE, from a first UE; determining a subframe in which ACK/NACK is to be transmitted based on a comparison between T-RPT, Time Resource Pattern for Transmission, of the first UE and T-RPT of the second UE; and transmitting the ACK/NACK to the first UE in the determined subframe in response to the data, wherein the comparison between the T-RPT of the first UE and the T-RPT of the second UE is performed on subframes appearing after a kth subframe from a subframe in which the data is received, wherein the second UE determines a first subframe of which a T-RPT value of the first UE is 0 and a T-RPT value of the second UE is 1 among the subframes appearing after the kth subframe as the subframe in which the ACK/NACK is to be transmitted, and wherein the second UE repeatedly transmits the ACK/NACK in a number of subframes of which the T-RPT value of the first UE is 0 and the T-RPT value of the second UE is 1 appearing after the first subframe.