mhurhangee/ep-ind-claims huggingface dataset:
A detector assembly for a duct of a heating ventilation and air conditioning system comprising: an outer housing having at least one through hole formed therein, wherein the outer housing includes a conduit-like body having a generally hollow interior; an inner sampling support receivable within the hollow interior of the outer housing; and characterized in that: at least one detector is mounted to the inner sampling support, wherein the at least one through hole is formed in the sidewall of the body and the at least one detector is axially aligned with the at least one through hole when the inner sampling support is installed within the hollow interior of the outer housing, and wherein the at least one detector is operable to sample air within the duct to detect a hazardous condition. an outer housing having at least one through hole formed therein, wherein the outer housing includes a conduit-like body having a generally hollow interior; an inner sampling support receivable within the hollow interior of the outer housing; and characterized in that: at least one detector is mounted to the inner sampling support, wherein the at least one through hole is formed in the sidewall of the body and the at least one detector is axially aligned with the at least one through hole when the inner sampling support is installed within the hollow interior of the outer housing, and wherein the at least one detector is operable to sample air within the duct to detect a hazardous condition.
A pin clamp assembly comprising: a housing with a cavity; a location pin movable with respect to the housing; the locating pin can selectively entirely retract inside the pin clamp; a finger supported by the locating pin and retractable and extendable into and out of the locating pin; the finger is extendable out of the locating pin when at least a portion of the locating pin supporting the finger is exterior of the housing; characterized in that - movement of the finger is independent of movement of the locating pin - when the finger is extended and is clamping a workpiece the locating pin is allowed to move inward the housing; thereby providing additional clamping force via the finger on the workpiece; - wherein when the locating pin is selectively entirely retracted inside the housing pin clamp assembly is configured to receive a workpiece that moves laterally with respect to the pin clamp assembly; - further comprising a surface located on the housing, wherein the surface identifies a plane; the locating pin further comprising a tip its proximal end wherein the tip with the locating pin does not extend beyond the plane when the locating pin is retracted entirely inside the housing; further comprising an adjustable set screw disposed in the housing and extending into the cavity and a lock bracket that selectively limits movement of the locating pin and further comprises a spring that attaches to the bracket to assist rotational movement of the lock bracket until stopped by the adjustable set screw, wherein the lock bracket prevents the locating pin from extending to loosen the finger's grip on the workpiece. a housing with a cavity; a location pin movable with respect to the housing; the locating pin can selectively entirely retract inside the pin clamp; a finger supported by the locating pin and retractable and extendable into and out of the locating pin; the finger is extendable out of the locating pin when at least a portion of the locating pin supporting the finger is exterior of the housing; - movement of the finger is independent of movement of the locating pin - when the finger is extended and is clamping a workpiece the locating pin is allowed to move inward the housing; thereby providing additional clamping force via the finger on the workpiece; - wherein when the locating pin is selectively entirely retracted inside the housing pin clamp assembly is configured to receive a workpiece that moves laterally with respect to the pin clamp assembly; - further comprising a surface located on the housing, wherein the surface identifies a plane; the locating pin further comprising a tip its proximal end wherein the tip with the locating pin does not extend beyond the plane when the locating pin is retracted entirely inside the housing;
Flare ammunition body having a projectile case, in which a flare body, a parachute attached to the flare body and a fuse for activating an ejection charge for ejecting the flare body and the parachute from the projectile case over a target area are arranged, comprising the following features: a) viewed in the firing direction, the parachute is arranged inside a front case portion of the projectile case, wherein the connecting region between the front case portion and the portion of the projectile case adjoining it to the rear is chosen such that the front case portion can be separated from the adjoining portion of the projectile case after activation of the ejection charge, and b) fastened on the periphery of the flare body is an air brake, which deploys during ejection of the flare body from the projectile case and decelerates the flare body in relation to the front case portion such that the parachute is pulled out of the front case portion from the rear by the flare body. a) viewed in the firing direction, the parachute is arranged inside a front case portion of the projectile case, wherein the connecting region between the front case portion and the portion of the projectile case adjoining it to the rear is chosen such that the front case portion can be separated from the adjoining portion of the projectile case after activation of the ejection charge, and b) fastened on the periphery of the flare body is an air brake, which deploys during ejection of the flare body from the projectile case and decelerates the flare body in relation to the front case portion such that the parachute is pulled out of the front case portion from the rear by the flare body.
A system (300,311) comprising: a three-way catalyst that receives exhaust gases from an engine and converts the exhaust gases to first converted exhaust gases; an ammonia slip catalyst that receives the first converted exhaust gases and converts the first converted exhaust gases to second converted exhaust gases, wherein the converting of the first converted exhaust gases to the second converted exhaust gases comprises oxidizing carbon monoxide to carbon dioxide; a hydrocarbon oxidation catalyst that receives the second converted exhaust gases and converts the second converted exhaust gases to third converted exhaust gases, wherein the converting of the second converted exhaust gases to the third converted exhaust gases comprising converting methane to carbon dioxide, wherein the hydrocarbon oxidation catalyst comprises platinum and palladium; and an air injection component that injects air into the first converted exhaust gases before the first converted exhaust gases enter the ammonia slip catalyst; characterized in that the system (300,311) further comprises: an air injection component that injects air into the second converted exhaust gases before the second converted exhaust gases enter the hydrocarbon oxidation catalyst, wherein the ratio of palladium to platinum for the hydrocarbon oxidation catalyst is greater than one. a three-way catalyst that receives exhaust gases from an engine and converts the exhaust gases to first converted exhaust gases; an ammonia slip catalyst that receives the first converted exhaust gases and converts the first converted exhaust gases to second converted exhaust gases, wherein the converting of the first converted exhaust gases to the second converted exhaust gases comprises oxidizing carbon monoxide to carbon dioxide; a hydrocarbon oxidation catalyst that receives the second converted exhaust gases and converts the second converted exhaust gases to third converted exhaust gases, wherein the converting of the second converted exhaust gases to the third converted exhaust gases comprising converting methane to carbon dioxide, wherein the hydrocarbon oxidation catalyst comprises platinum and palladium; and an air injection component that injects air into the first converted exhaust gases before the first converted exhaust gases enter the ammonia slip catalyst; an air injection component that injects air into the second converted exhaust gases before the second converted exhaust gases enter the hydrocarbon oxidation catalyst, wherein the ratio of palladium to platinum for the hydrocarbon oxidation catalyst is greater than one.
A stepped gain mixer device comprising: (a) an amplifier (17, 18, 19) having an output lead; (b) a first transistor having a source lead, a drain lead and a gate lead; (c) a second transistor having a source lead, a drain lead and a gate lead, wherein the output lead of the amplifier is coupled to the source lead of the first transistor and to the source lead of the second transistor; and (d) a first switch, wherein the drain lead of the first transistor is coupled to the drain lead of the second transistor through the first switch when the first switch is closed, and wherein the first transistor and the second transistor are in a passive mixer configuration and an oscillating signal is present on the gate lead of the first transistor and on the gate lead of the second transistor; and (e) a second switch, wherein the drain lead of the second transistor is coupled to ground through the second switch when the second switch is closed. (a) an amplifier (17, 18, 19) having an output lead; (b) a first transistor having a source lead, a drain lead and a gate lead; (c) a second transistor having a source lead, a drain lead and a gate lead, wherein the output lead of the amplifier is coupled to the source lead of the first transistor and to the source lead of the second transistor; and (d) a first switch, wherein the drain lead of the first transistor is coupled to the drain lead of the second transistor through the first switch when the first switch is closed, and wherein the first transistor and the second transistor are in a passive mixer configuration and an oscillating signal is present on the gate lead of the first transistor and on the gate lead of the second transistor; and (e) a second switch, wherein the drain lead of the second transistor is coupled to ground through the second switch when the second switch is closed.
A method for adjusting drive train control of a vehicle, said drive train (100, 110) comprising a prime mover, a transmission connected to said prime mover and a power take off unit (130, 135) driven by said prime mover, the method comprising the steps of: continually during vehicle driving determining a torque magnitude indicative of said power take off unit's torque consumption by sensing a fluid pressure produced by a power take off fluid pump for driving a power take off unit power consumer with variable or constant power need, and characterized by the step of continually comparing the sensed power take off unit torque consumption with an output torque produced by said prime mover and adjusting operation of the drive train (100, 110) in consideration of a, by said power take off unit, reduced torque available for application to an output shaft of the transmission under driving conditions. continually during vehicle driving determining a torque magnitude indicative of said power take off unit's torque consumption by sensing a fluid pressure produced by a power take off fluid pump for driving a power take off unit power consumer with variable or constant power need, and characterized by the step of continually comparing the sensed power take off unit torque consumption with an output torque produced by said prime mover and adjusting operation of the drive train (100, 110) in consideration of a, by said power take off unit, reduced torque available for application to an output shaft of the transmission under driving conditions.
An apparatus comprising: a building automation system that protects a secured geographic area; a plurality of non-overlapping geographic zones (18, 20, 22, 24) within the secured geographic area; at least one low energy wireless device (46, 48) within the secured geographic area; a plurality of low energy wireless receivers associated with the plurality of non-overlapping geographic zones, wherein a respective one of the plurality of low energy wireless receivers detects the at least one low energy wireless device proximate to one of the plurality of non-overlapping geographic zones, and wherein the respective one of the plurality of low energy wireless receivers determines a distance of the at least one low energy wireless device from the one of the plurality of non-overlapping geographic zones; a security controller (26, 30) that arms and disarms the plurality of non-overlapping geographic zones based upon the determined distance of the at least one low energy wireless device from the one of the plurality of non-overlapping geographic zones; and a processor (36, 38) that determines a geographic location of the at least one low energy wireless device based upon a signal received by the respective one of the plurality of low energy wireless receivers, wherein the processor (36, 38) creates a list of the plurality of non-overlapping geographic zones to be disarmed based on the geographic location of the at least one low energy wireless device. a building automation system that protects a secured geographic area; a plurality of non-overlapping geographic zones (18, 20, 22, 24) within the secured geographic area; at least one low energy wireless device (46, 48) within the secured geographic area; a plurality of low energy wireless receivers associated with the plurality of non-overlapping geographic zones, wherein a respective one of the plurality of low energy wireless receivers detects the at least one low energy wireless device proximate to one of the plurality of non-overlapping geographic zones, and wherein the respective one of the plurality of low energy wireless receivers determines a distance of the at least one low energy wireless device from the one of the plurality of non-overlapping geographic zones; a security controller (26, 30) that arms and disarms the plurality of non-overlapping geographic zones based upon the determined distance of the at least one low energy wireless device from the one of the plurality of non-overlapping geographic zones; and a processor (36, 38) that determines a geographic location of the at least one low energy wireless device based upon a signal received by the respective one of the plurality of low energy wireless receivers, wherein the processor (36, 38) creates a list of the plurality of non-overlapping geographic zones to be disarmed based on the geographic location of the at least one low energy wireless device.
A passenger seat, comprising: a seat pan; a seat body formed by a seat back fixed relative to the seat pan; and at least one spreader, wherein the at least one spreader comprises two motion track segments configured to constrain movement of the seat body such that: the seat body swings forward relative to the spreader to increase an angle of the seat back relative to vertical when the passenger seat transitions from an upright position to a reclined position; the seat pan at a reference point of the seat pan translates down and forward when the passenger seat transitions from the upright position to the reclined position; and the seat back is constrained to move without rearward translation in recline travel when the passenger seat transitions from the upright position to the reclined position. a seat pan; a seat body formed by a seat back fixed relative to the seat pan; and at least one spreader, wherein the at least one spreader comprises two motion track segments configured to constrain movement of the seat body such that: the seat body swings forward relative to the spreader to increase an angle of the seat back relative to vertical when the passenger seat transitions from an upright position to a reclined position; the seat pan at a reference point of the seat pan translates down and forward when the passenger seat transitions from the upright position to the reclined position; and the seat back is constrained to move without rearward translation in recline travel when the passenger seat transitions from the upright position to the reclined position. the seat body swings forward relative to the spreader to increase an angle of the seat back relative to vertical when the passenger seat transitions from an upright position to a reclined position; the seat pan at a reference point of the seat pan translates down and forward when the passenger seat transitions from the upright position to the reclined position; and the seat back is constrained to move without rearward translation in recline travel when the passenger seat transitions from the upright position to the reclined position.
A pharmaceutical composition comprising a compound of the general formula wherein X is Se, O, Te, S or NH, and R 1 and R 2 are the same or different and are selected from or a pharmaceutically acceptable salt thereof; optionally comprising a carrier and one or more pharmaceutically acceptable excipients, for use in the prophylaxis or treatment of a disease associated with fibrosis, wherein the disease is non-malignant or malignant and wherein the non-malignant disease is selected from systemic sclerosis (limited cutaneous scleroderma and diffuse cutaneous scleroderma), pulmonary fibrosis, hepatic cirrhosis, non-alcoholic steatohepatitis (NASH), alcoholic steatohepatitis, non-alcoholic fatty liver disease (NAFLD), renal fibrosis, tubulointerstitial fibrosis, glomerulosclerosis, vascular sclerosis, chronic graft-versus host disease, Crohn's disease, colitis ulcerosa, collagenous colitis, arthrofibrosis, myelofibrosis, Dupuytren's disease, nephrogenic systemic fibrosis, atherosclerosis, restenosis, cardiac fibrosis, pulmonary hypertension, muscle fibrosis, osteoporosis, excessive scarring, keloid and hypertrophic scar development, morphea, macular degeneration, retinal and vitreal retinopathy and ocular scarring and the malignant disease is selected from mamma carcinoma, endometrial adenocarcinoma, ovarian serous tumor, lung adenocarcinoma, lung squamous cell tumor, colorectal tumor, pancreatic tumor, non-small cell lung cancer (NSCLC), squamous cell carcinoma, basal cell carcinoma, gastric carcinoma, intestinal type, gastric carcinoma, diffuse type (mucinous), adenocarcinoma (colon), hepatocellular carcinoma, renal cell carcinoma, endometrioid carcinoma of endometrium, invasive carcinoma of the breast, carcinoma metastasis, prostate cancer and thyroid cancer. wherein X is Se, O, Te, S or NH, and R 1 and R 2 are the same or different and are selected from
A composite comprising a first fabric layer having a water permeability W 1 and adjacent to a second fabric layer having a water permeability W 2, wherein W 2 and W 1 fulfill the relation W 2 < W 1, and wherein the composite is folded to exhibit a folded structure, wherein the folded structure comprises a plurality of folds, characterized in that the water permeability W 2 of the second fabric ranges from 1 to 20 l/(s·m 2), as measured according to EN ISO 11058, and the composite has a water storage capacity, wherein the water storage capacity ranges from 8 to 60 l/m 2.
Microelectrode array comprising a substrate and comprising a multiplicity of electrodes for electrically measuring brain waves and comprising an optical stimulation unit integrated in the microelectrode array for stimulating brain regions with optical signals, wherein the stimulation unit has a plurality of electrical light sources and the electrical light sources are arranged according to a fixed, predefined scheme relative to the electrodes and are distributed over the areal extent of the substrate, such that the simulation-recorded via the electrodes - of the neurons by means of the electrical light sources can be unambiguously assigned to the individual stimulation signals, such that an unambiguous correlation can be determined, and wherein the microelectrode array has a sensor side, which is designed to be brought into contact with the brain surface of a living being to be examined, characterized in that one, a plurality or all of the electrical light sources are arranged at a greater distance from the sensor side than the electrodes wherein one, a plurality or all of the electrodes is/are integrated into the material of the substrate by virtue of the foot that the electrodes are embedded in the substrate, and the substrate, on the sensor side, has openings leading to the integrated electrodes, in the microelectrode array.
A method for buffer status report, BSR, in dual connectivity for a communication device in a wireless communication system, the method comprising: connecting to at least two base stations including a first base station and a second base station in the wireless communication system; receiving a BSR configuration from the first base station, wherein the BSR configuration indicates a calculation scheme for a BSR; and calculating buffer sizes indicated in a first BSR and a second BSR respectively for the first base station and the second base station according to the received BSR configuration characterized by the received BSR configuration including the calculation scheme, first and second ratios of uplink resources allocation for the first and second base stations, loading information of the first base station and the second base station, a threshold or an indicator for indicating which base station the communication device should send a BSR report to, wherein at least a first logical channel of a first logical channel group reported by the first BSR and at least a second logical channel of a second logical channel group reported by the second BSR are mapped to the same split radio bearer. connecting to at least two base stations including a first base station and a second base station in the wireless communication system; receiving a BSR configuration from the first base station, wherein the BSR configuration indicates a calculation scheme for a BSR; and calculating buffer sizes indicated in a first BSR and a second BSR respectively for the first base station and the second base station according to the received BSR configuration characterized by the received BSR configuration including the calculation scheme, first and second ratios of uplink resources allocation for the first and second base stations, loading information of the first base station and the second base station, a threshold or an indicator for indicating which base station the communication device should send a BSR report to, wherein at least a first logical channel of a first logical channel group reported by the first BSR and at least a second logical channel of a second logical channel group reported by the second BSR are mapped to the same split radio bearer.