mhurhangee/ep-ind-claims huggingface dataset:
Monitoring device with a fitting-integrated monitoring unit, which has a number of sensor units, wherein the monitoring unit is connected to an evaluating unit with respect to signals and data, wherein the sensor units comprise at least one opening or closing sensor, which is configured as a reed contact interacting with a magnet, and a bolt causes a change of the switching state of the sensor unit when the bolt enters a strike bolt opening, and wherein the bolt, on entering the strike bolt opening, passes between the magnet and the sensor, characterized in that the sensor unit is arranged such as to be displaceable in its position relative to the bolt, wherein the bolt engagement comprises a shaped insert and the magnet is allocated to a first L-shaped holder, which is secured to the shaped insert, wherein the magnet is displaceably guided in the holder.
Gear unit with a bearing arrangement, wherein the bearing arrangement is provided with a housing component, wherein a shaft is supported with the aid of a bearing in the housing component, wherein the bearing is accommodated in a stepped bore in the housing component, which extends through the housing component, wherein a lid part seals the stepped bore, wherein the lid part is frictionally connected to the housing component, wherein the lid part is accommodated in the stepped bore, wherein a surface section of the outside of the lid part is situated in alignment with a step of the stepped bore, wherein a retaining ring is axially situated between the bearing and the lid part, in a radially oriented annular groove of the stepped bore, wherein the retaining ring is set apart from the lid part, characterised in that a spacer ring is situated axially between the retaining ring and an outer ring of the bearing, wherein the retaining ring together with the spacer ring axially delimits the outer ring of the bearing, wherein a housing of the gear unit surrounds all toothed elements of the gear unit and accommodates the bearings of the gear unit, wherein the housing has a frame section and a cladding section, wherein the frame section has a greater wall thickness than the cladding section, wherein the frame section has two outer leg sections (321, 323) and a centre leg section, wherein at least one outer leg section (321, 323) has at least one annular section, wherein the centre leg section has a support section, wherein a clutch housing is connected to the frame section, wherein the outer circumference of the clutch housing decreases towards the housing, wherein a step is formed in the inner diameter of the clutch housing in the direction of the housing, so that the wall thickness of the clutch housing increases in a stepwise manner.
Austenitic high-manganese stainless steel having high strength and ductility, characterized in that the stainless steel which consists, by weight %, of 0,03 - 0,1 % carbon, 0,08 - 1,0 % silicon, 14 - 26 % manganese. 10,5 - 18 % chromium, less than 0,8 % nickel, 0,05 - 0,6 % copper, 0,1 - 0,8 % nitrogen and 0,0008 - 0,005 % boron, the rest being iron and inevitable impurities occurring in stainless steels, optionally 0,001 - 0,02 % titanium and optionally less than 0,04 % aluminium; and which in the state of being annealed in the temperature range of 1000 - 1150 °C, the ranges for the yield strength R p0,2 and the tensile strength R m as well as the elongation to fracture A 80 are 470 - 600 MPa for R p0,2, 800 - 930 MPa for R m and 40 - 60 % for A 80, and the steel being cold deformable utilizing the TWIP or TWinning Induced Plasticity mechanism so that the work-hardening rate based on a cold deformation degree of 10% for the yield strength R p0,2 is at least 20 %.
An operating device for actuating an LED section, having: - an electrically isolated clocked converter, in particular a flyback converter, which is supplied on the primary side with a supply voltage, which has a clocked switch on its primary side, wherein the connections for the LED section are supplied from the secondary side of the converter, and - a control unit that arranged on the secondary side, which is configured to actuate the switch by means of an electrical isolation, in particular, inductively, characterized in that the operating device is configured to supply the control unit in a start-up phase of the operating unit via a non-electrically isolated connection from the primary side. - an electrically isolated clocked converter, in particular a flyback converter, which is supplied on the primary side with a supply voltage, which has a clocked switch on its primary side, wherein the connections for the LED section are supplied from the secondary side of the converter, and - a control unit that arranged on the secondary side, which is configured to actuate the switch by means of an electrical isolation, in particular, inductively,
Method for detecting a foam boundary (2.1) in a container of a device by means of a capacitively operating measuring device having a sensor which can be moved, wherein at least one output signal (s out (t)) is processed by the capacitively operating measuring device, wherein the method comprises the following steps which are carried out during the execution of an up or down movement of the sensor in the container; a. performing a charging operation by predetermining an input signal (s in (t)) which causes a charging operation at a total capacitance (C T), wherein said total capacitance is formed from the sensor, air, foam and liquid, b. providing the at least one output signal (s out1 (t), s out2 (t)) at a first comparator and at a second comparator, wherein the first comparator is adapted to provide a first comparator output signal if the at least one output signal (s out1 (t), s out2 (t)) reaches a first reference voltage (U 1), and wherein the second comparator is adapted to provide a second comparator output signal if the at least one output signal (s out1 (t), s out2 (t)) reaches a second reference voltage (U 2), c. discharging the sensor, d. repeating steps a. to c., characterized in that the second reference voltage (U 2) is greater than the first reference voltage (U 1), and that based on the first comparator output signal and the second comparator output signal a residual voltage in the total capacitance (C T) is evaluated within the framework of an evaluation process after each discharge and before the respective subsequent new charging process. a. performing a charging operation by predetermining an input signal (s in (t)) which causes a charging operation at a total capacitance (C T), wherein said total capacitance is formed from the sensor, air, foam and liquid, b. providing the at least one output signal (s out1 (t), s out2 (t)) at a first comparator and at a second comparator, wherein the first comparator is adapted to provide a first comparator output signal if the at least one output signal (s out1 (t), s out2 (t)) reaches a first reference voltage (U 1), and wherein the second comparator is adapted to provide a second comparator output signal if the at least one output signal (s out1 (t), s out2 (t)) reaches a second reference voltage (U 2), c. discharging the sensor, d. repeating steps a. to c.,
A method for operating a relay in a communication system, the method comprising: determining a buffer status of a buffer for data to be transmitted on a communications channel allocated from network resources controlled by a communications controller; determining a consumption rate or a filling rate for the buffer; determining buffer status information based on the buffer status and either the consumption rate or the filling rate for the buffer, wherein the buffer status information includes buffer status information regarding a full or empty state of the buffer in a binary form, or buffer status information in multi-bit form regarding multiple buffer status thresholds; and transmitting the buffer status information to the communications controller. determining a buffer status of a buffer for data to be transmitted on a communications channel allocated from network resources controlled by a communications controller; determining a consumption rate or a filling rate for the buffer; determining buffer status information based on the buffer status and either the consumption rate or the filling rate for the buffer, wherein the buffer status information includes buffer status information regarding a full or empty state of the buffer in a binary form, or buffer status information in multi-bit form regarding multiple buffer status thresholds; and transmitting the buffer status information to the communications controller.
An apparatus comprising: a gun, wherein the gun includes a gun mount having a front surface, a portion of which is substantially flat and which includes at least one threaded mounting aperture disposed therein; and an accessory mount for the gun, the mount comprising: a base configured for attachment of the accessory mount to the gun, wherein the base comprises an L-shaped bracket having an upstanding leg with a substantially flat rear surface and at least one through-hole corresponding to the at least one threaded mounting aperture in the gun mount, a holding mechanism for fixing the position of the base in relation to the gun, wherein the holding mechanism comprises at least one threaded fastener extendable through the at least one corresponding aperture in the bracket and into the at least one threaded mounting aperture in the gun mount, and an elongated accessory mounting arm coupled to the base and extending forwardly therefrom, the arm comprising a beam having a vertical web with at least one flange disposed at an upper and/or a lower end thereof. a gun, wherein the gun includes a gun mount having a front surface, a portion of which is substantially flat and which includes at least one threaded mounting aperture disposed therein; and an accessory mount for the gun, the mount comprising: a base configured for attachment of the accessory mount to the gun, wherein the base comprises an L-shaped bracket having an upstanding leg with a substantially flat rear surface and at least one through-hole corresponding to the at least one threaded mounting aperture in the gun mount, a holding mechanism for fixing the position of the base in relation to the gun, wherein the holding mechanism comprises at least one threaded fastener extendable through the at least one corresponding aperture in the bracket and into the at least one threaded mounting aperture in the gun mount, and an elongated accessory mounting arm coupled to the base and extending forwardly therefrom, the arm comprising a beam having a vertical web with at least one flange disposed at an upper and/or a lower end thereof. a base configured for attachment of the accessory mount to the gun, wherein the base comprises an L-shaped bracket having an upstanding leg with a substantially flat rear surface and at least one through-hole corresponding to the at least one threaded mounting aperture in the gun mount, a holding mechanism for fixing the position of the base in relation to the gun, wherein the holding mechanism comprises at least one threaded fastener extendable through the at least one corresponding aperture in the bracket and into the at least one threaded mounting aperture in the gun mount, and an elongated accessory mounting arm coupled to the base and extending forwardly therefrom, the arm comprising a beam having a vertical web with at least one flange disposed at an upper and/or a lower end thereof.
In a processor, a method for using a semaphore with out of order loads in a memory consistency model that constitutes loads reading from memory in order, the method comprising: implementing a memory resource that can be accessed by a plurality of cores; implementing an access mask operable to track which words of a cache line have pending loads, wherein the cache line is associated with the memory resource, wherein an out of order load sets a mask bit within the access mask when accessing a word of the cache line, and clears the mask bit when a transaction comprising the out of order load is concluded; checking the access mask upon execution of subsequent stores from the plurality of cores to the cache line; and causing the out of order load to be retried with its dependent instructions when a subsequent store from another core to the word of the cache line corresponding to the out of order load detecting a set mask bit from the out of order load in the access mask, wherein the subsequent store signals a load queue entry of a load queue by using a tracker register, said load queue including the loads, and said load queue entry corresponding to the out of order load. implementing a memory resource that can be accessed by a plurality of cores; implementing an access mask operable to track which words of a cache line have pending loads, wherein the cache line is associated with the memory resource, wherein an out of order load sets a mask bit within the access mask when accessing a word of the cache line, and clears the mask bit when a transaction comprising the out of order load is concluded; checking the access mask upon execution of subsequent stores from the plurality of cores to the cache line; and causing the out of order load to be retried with its dependent instructions when a subsequent store from another core to the word of the cache line corresponding to the out of order load detecting a set mask bit from the out of order load in the access mask, wherein the subsequent store signals a load queue entry of a load queue by using a tracker register, said load queue including the loads, and said load queue entry corresponding to the out of order load.
A cosmetic use of a composition comprising, in a physiologically acceptable medium, a combination of at least one monosaccharide chosen from mannose, rhamnose and a mixture thereof, and of at least one antioxidant, for improving the radiance of the complexion, for reducing or preventing the characteristics of wrinkles or fine lines, for improving or reducing the microrelief of the skin, for making the skin smooth, for improving the mechanical properties of the skin and/or for promoting skin repair, wherein the said at least one antioxidant is phloretin.
A method comprising: receiving by a cloud server one or more walk test result signals from a system in a region, the one or more walk test result signals indicative of one or more triggered input devices in the system and one or more activated first output devices in the system; identifying by the cloud server one or more second output devices in the system configured to be activated responsive to the one or more triggered input devices by executing a simulation of a walk test using a configuration rules file or a cause and effect marix stored in a database device of the cloud server and an identification of the one or more triggered input devices from the one or more walk test result signals; comparing by the cloud server the one or more activated first output devices to the one or more second output devices configured to be activated; and transmitting by the cloud server a second signal indicative of results of the comparing. receiving by a cloud server one or more walk test result signals from a system in a region, the one or more walk test result signals indicative of one or more triggered input devices in the system and one or more activated first output devices in the system; identifying by the cloud server one or more second output devices in the system configured to be activated responsive to the one or more triggered input devices by executing a simulation of a walk test using a configuration rules file or a cause and effect marix stored in a database device of the cloud server and an identification of the one or more triggered input devices from the one or more walk test result signals; comparing by the cloud server the one or more activated first output devices to the one or more second output devices configured to be activated; and transmitting by the cloud server a second signal indicative of results of the comparing.
A generator for an ultrasonic surgical instrument, the generator comprising: a control circuit configured to: measure a resonant frequency of an ultrasonic blade (1128, 1149) prior to activating an ultrasonic transducer, wherein the ultrasonic transducer is coupled to the ultrasonic blade (1128, 1149) via an ultrasonic waveguide; compare the measured resonant frequency to a baseline resonant frequency; determine an initial temperature of the ultrasonic blade (1128, 1149) based on a difference between the measured resonant frequency and the baseline resonant frequency; and apply a power level to the ultrasonic blade (1128, 1149) based on the initial temperature of the ultrasonic blade. measure a resonant frequency of an ultrasonic blade (1128, 1149) prior to activating an ultrasonic transducer, wherein the ultrasonic transducer is coupled to the ultrasonic blade (1128, 1149) via an ultrasonic waveguide; compare the measured resonant frequency to a baseline resonant frequency; determine an initial temperature of the ultrasonic blade (1128, 1149) based on a difference between the measured resonant frequency and the baseline resonant frequency; and apply a power level to the ultrasonic blade (1128, 1149) based on the initial temperature of the ultrasonic blade.
A phased array transmission device comprising: a plurality of transmission branches (11-1 to 11-m), each provided with a phase shifter configured to apply a phase rotation to a baseband signal, a first DC offset corrector configured to perform a DC offset correction by adding a first correction value to an output signal of the phase shifter, and a mixer configured to subject an output signal of the first DC offset corrector to a frequency conversion to a high frequency band; and a correction controller configured to calculate a second correction value with which a carrier leak component included in an output signal of the mixer is minimized, for each of a plurality of candidates for a phase rotation amount that is set for the phase rotation, and configured to determine the first correction value on the basis of the second correction value. a plurality of transmission branches (11-1 to 11-m), each provided with a phase shifter configured to apply a phase rotation to a baseband signal, a first DC offset corrector configured to perform a DC offset correction by adding a first correction value to an output signal of the phase shifter, and a mixer configured to subject an output signal of the first DC offset corrector to a frequency conversion to a high frequency band; and a correction controller configured to calculate a second correction value with which a carrier leak component included in an output signal of the mixer is minimized, for each of a plurality of candidates for a phase rotation amount that is set for the phase rotation, and configured to determine the first correction value on the basis of the second correction value.
Plug pin for a fibre optic connector comprising a hollow cylindrical sleeve with a central sleeve axis, an outer diameter and an inner diameter and an end piece with a substantially central bore with a bore axis and a bore diameter, wherein the end piece is arranged on an end face of the sleeve and forms an end face of the plug pin, wherein the bore axis is aligned coaxially with the sleeve axis and has an eccentricity of less than 1.0 μm, preferably less than 0.8 μm, particularly preferably less than 0.5 μm, characterised in that the end piece is bonded to the end face of the sleeve.
An apparatus comprising: a network interface (106, 604, 606); at least one processor (102, 602) to: establish communication with a network terminal access point, TAP (304, 308, 312), of a first network, each node of the first network having an internet protocol, IP, address; establish communication with at least one node of a second network (301P, 301R), at least one node in the second network (301P, 301R) corresponding to a node in the first network; receive a first packet and a second packet from the network TAP (304, 308, 312) of the first network, each packet comprising a source IP address indicating a respective node in the first network from where each packet originates; and launch each the first packet and the second packet from a respective node in the second network (301P, 301R) that corresponds to the source IP address of each packet, characterized in that respective IP addresses of corresponding nodes in the first and second network (301P, 301R) are equal and the received packets comprise a timestamp and are launched in a sequence according to the timestamp of each packet, wherein an internal clock of a node in the first network is synchronized with an internal clock of a node in the second network (301P, 301R). establish communication with a network terminal access point, TAP (304, 308, 312), of a first network, each node of the first network having an internet protocol, IP, address; establish communication with at least one node of a second network (301P, 301R), at least one node in the second network (301P, 301R) corresponding to a node in the first network; receive a first packet and a second packet from the network TAP (304, 308, 312) of the first network, each packet comprising a source IP address indicating a respective node in the first network from where each packet originates; and launch each the first packet and the second packet from a respective node in the second network (301P, 301R) that corresponds to the source IP address of each packet, characterized in that respective IP addresses of corresponding nodes in the first and second network (301P, 301R) are equal and the received packets comprise a timestamp and are launched in a sequence according to the timestamp of each packet, wherein an internal clock of a node in the first network is synchronized with an internal clock of a node in the second network (301P, 301R).
A railroad-vehicle air-conditioning control system comprising: a first air conditioner comprising a first driving target, a first inverter and a first controller; a second air conditioner comprising a second driving target, a second inverter and a second controller; a first transmission line; the first inverter being configured to drive the first driving target in accordance with commands received via the first transmission line; both first and second driving target including an indoor fan, an outdoor fan, a compressor and a heater; the second inverter being configured to drive the second driving target in accordance with commands received via the first transmission line; the first controller being configured to, by transmitting commands via the first transmission line, control the first inverter and the second inverter; and the second controller being configured to, by transmitting commands via the first transmission line, control the first inverter and the second inverter, wherein an invalidation command for invalidating the commands from each of the first controller and the second controller is transmissible thereby to the first inverter and the second inverter via the first transmission line. a first air conditioner comprising a first driving target, a first inverter and a first controller; a second air conditioner comprising a second driving target, a second inverter and a second controller; a first transmission line; the first inverter being configured to drive the first driving target in accordance with commands received via the first transmission line; both first and second driving target including an indoor fan, an outdoor fan, a compressor and a heater; the second inverter being configured to drive the second driving target in accordance with commands received via the first transmission line; the first controller being configured to, by transmitting commands via the first transmission line, control the first inverter and the second inverter; and the second controller being configured to, by transmitting commands via the first transmission line, control the first inverter and the second inverter, wherein an invalidation command for invalidating the commands from each of the first controller and the second controller is transmissible thereby to the first inverter and the second inverter via the first transmission line.