mhurhangee/patent-ind-claim-en huggingface dataset:
Shoehorn device with at least one base body unit , with at least one fastening unit , which is arranged on the base body unit , for a fastening of the base body unit to an external unit, with at least one dressing equipment unit that is connectable to the base body unit , the dressing equipment unit being embodied as a shoehorn, with at least one securing unit , which is configured to connect the dressing equipment unit to the base body unit , and with at least one reset unit that is configured to move at least one securing element of the securing unit into an initial position of the securing element , the securing unit comprising at least the securing element , which is connected to the dressing equipment unit and to the base body unit , wherein the shoe horn device comprises at least one adjusting unit for an adjustment of a dimension of a reset force of the reset unit , wherein the reset unit is arranged in the base body unit at least to a large extent, the securing element being embodied so as to be extractable out of the base body unit , wherein the securing unit is configured to connect the dressing equipment unit to the base body unit in a loss-proof manner, wherein the fastening unit comprises at least one receiving element for receiving a fastening element, at least a fastening element embodied as a screw, which can be fastened to the external unit, which is arranged on the base body unit and is configured for a fastening of the base body unit to the external unit, and/or comprises at least one fastening element that is embodied as a gluing element or a fastening element that is embodied as a hook-and-loop element, by means of which the base body unit can be fastened to the external unit. with at least one securing unit , which is configured to connect the dressing equipment unit to the base body unit , and with at least one reset unit that is configured to move at least one securing element of the securing unit into an initial position of the securing element , the securing unit comprising at least the securing element , which is connected to the dressing equipment unit and to the base body unit , wherein the shoe horn device comprises at least one adjusting unit for an adjustment of a dimension of a reset force of the reset unit , wherein the reset unit is arranged in the base body unit at least to a large extent, the securing element being embodied so as to be extractable out of the base body unit , wherein the securing unit is configured to connect the dressing equipment unit to the base body unit in a loss-proof manner, wherein the fastening unit comprises at least one receiving element for receiving a fastening element, at least a fastening element embodied as a screw, which can be fastened to the external unit, which is arranged on the base body unit and is configured for a fastening of the base body unit to the external unit, and/or comprises at least one fastening element that is embodied as a gluing element or a fastening element that is embodied as a hook-and-loop element, by means of which the base body unit can be fastened to the external unit.
An optical element mounted in a holder , wherein the optical element is a protective glass, a mirror, or a lens for a laser machining head or for a plug of a fiber optic cable, characterized in that , a side of the optical element is covered, at least partially, in particular completely, by a protective film , in particular a polyester film that is adhesively attached, via at least one adhesion surface , to an end face of the holder , said end face surrounding the optical element , and that the protective film comprises a lateral overhang for handling the optical element and for pulling off the protective film from the holder , and that the side of the protective film facing the optical element is non-adhering at least in the region covering the optical element , and that the end face of the holder protrudes vertically above the covered side of the optical element such that contact of the protective film with the optical element is prevented.
Load-optimized bond for the overlapping connection of at least two components under usage of a single adhesive , that has at least two components, whereby the components are mixed with each other and the adhesive is applied on at least one of the components at least in the area of the overlapping components as an adhesive surface and the components overlap correspondingly and the adhesive is curable. characterized in that the adhesive is an epoxy resin adhesive that has different stiffnesses set through the component mixture ratio corresponding to the tension distribution in different areas of the adhesive surface, whereby correspondingly a mechanical stress of the bond in two, three or multiple areas of the adhesive surface of the adhesive in these areas of the adhesive surface has corresponding component mixture ratios (1, 2, 3, n).
A home appliance comprising: a cabinet having a space formed therein; a door configured to open and close the cabinet and including a panel assembly , wherein the panel assembly includes a lighting device configured to emit light and a front plate forming an exterior of the door , the front plate being configured to transmit the light from the lighting device ; and a controller configured to control the lighting device , wherein the front plate includes a base layer and a colored layer formed on the base layer , the colored layer having a first color, wherein the front plate has the first color when the lighting device is turned off, and a third color selectable by a user from a plurality of different colors and different from the first color when the lighting device is turned on, and characterized in that the controller is configured to control the lighting device to emit light in a second color adjusted depending on the first color such that the front plate has the third color. a cabinet having a space formed therein; a door configured to open and close the cabinet and including a panel assembly , wherein the panel assembly includes a lighting device configured to emit light and a front plate forming an exterior of the door , the front plate being configured to transmit the light from the lighting device ; and a controller configured to control the lighting device , wherein the front plate includes a base layer and a colored layer formed on the base layer , the colored layer having a first color, wherein the front plate has the first color when the lighting device is turned off, and a third color selectable by a user from a plurality of different colors and different from the first color when the lighting device is turned on, and characterized in that the controller is configured to control the lighting device to emit light in a second color adjusted depending on the first color such that the front plate has the third color.
A rotor assembly comprising: a hub configured to be coupled to an aircraft ; a plurality of rotor blades configured to extend laterally from the hub and to rotate about the hub , each of the rotor blades comprising an inboard end having a root portion and an outboard end ; at least one blade root actuator disposed in the root portion of the respective rotor blade , the at least one blade root actuator configured to adjust at least one of the plurality of rotor blades independently of the other rotor blades to accommodate forces on the aircraft ; at least one controller coupled to the at least one blade root actuator and configured to send a signal to the at least one blade root actuator to enable adjustment of the at least one of the plurality of rotor blades ; at least one blade flap coupled to a trailing edge of at least one of the plurality of rotor blades , the at least one blade flap extending almost the entire length of the trailing edge ; and at least one blade flap actuator coupled to the at least one blade flap and configured to adjust the at least one blade flap to accommodate forces on the aircraft ; wherein the at least one controller is coupled to the at least one blade flap actuator and configured to enable the blade flap actuator to adjust the at least one blade flap independently of the other blade flaps. a hub configured to be coupled to an aircraft ; a plurality of rotor blades configured to extend laterally from the hub and to rotate about the hub , each of the rotor blades comprising an inboard end having a root portion and an outboard end ; at least one blade root actuator disposed in the root portion of the respective rotor blade , the at least one blade root actuator configured to adjust at least one of the plurality of rotor blades independently of the other rotor blades to accommodate forces on the aircraft ; at least one controller coupled to the at least one blade root actuator and configured to send a signal to the at least one blade root actuator to enable adjustment of the at least one of the plurality of rotor blades ; at least one blade flap coupled to a trailing edge of at least one of the plurality of rotor blades , the at least one blade flap extending almost the entire length of the trailing edge ; and at least one blade flap actuator coupled to the at least one blade flap and configured to adjust the at least one blade flap to accommodate forces on the aircraft ; wherein the at least one controller is coupled to the at least one blade flap actuator and configured to enable the blade flap actuator to adjust the at least one blade flap independently of the other blade flaps.
A food article defect removal apparatus for removing defective food articles from a food processing line , the food article defect removal apparatus comprising: a manifold at least partially defining a chamber configured for holding pressurized fluid, a first plurality of channels extending from a first side of the manifold into fluid communication with the chamber , and a second plurality of channels extending from the first side of the manifold to a second side of the manifold ; and a valve assembly comprising: a plurality of valves selectively connecting each one of the first plurality of channels to a corresponding one of the second plurality of channels for selectively dispensing the pressurized fluid from the second side of the manifold , characterised in that the valve assembly further comprises: a driver operably coupled with the plurality of valves for selectively actuating individual ones of the plurality of valves , the plurality of valves pluggably coupled with the driver . a manifold at least partially defining a chamber configured for holding pressurized fluid, a first plurality of channels extending from a first side of the manifold into fluid communication with the chamber , and a second plurality of channels extending from the first side of the manifold to a second side of the manifold ; and a valve assembly comprising: a plurality of valves selectively connecting each one of the first plurality of channels to a corresponding one of the second plurality of channels for selectively dispensing the pressurized fluid from the second side of the manifold ,
Concrete mixture for the production of concrete construction elements, preferably made of ultra-high performance concrete (UHPC), comprising: a) a binder component comprising Portland cement clinker, granulated blast furnace slag and at least one setting regulator in the form of a calcium sulphate component, b) at least one superplasticizer, c) Preferably fibers, particularly preferably steel fibers, d) an aggregate component comprising a sand component, preferably in an amount (dry mass) of sand component of 5 to 60 ma.%, preferably 15 to 60 ma.%, particularly preferably 35 to 55 ma.%, based on the total mass of the concrete mixture, e) Mixing water, characterized in that the sand component comprises at least one finest sand with a d 95 value of 500 to 800 μm, preferably 620 to 750 μm, according to ISO 13320:2020-01, and an equivalent diameter d' of 300 to 470 μm, preferably 300 to 390 μm, particularly preferably 310 to 370 μm, according to ISO 13320:2020-01 and DIN 66145:1976-04, and the binder component consists of at least 95 ma.%, particularly preferably of 100 ma.%, of granulated blast furnace slag, Portland cement clinker and setting regulator. a) a binder component comprising Portland cement clinker, granulated blast furnace slag and at least one setting regulator in the form of a calcium sulphate component, b) at least one superplasticizer, c) Preferably fibers, particularly preferably steel fibers, d) an aggregate component comprising a sand component, preferably in an amount (dry mass) of sand component of 5 to 60 ma.%, preferably 15 to 60 ma.%, particularly preferably 35 to 55 ma.%, based on the total mass of the concrete mixture, e) Mixing water, the sand component comprises at least one finest sand with a d 95 value of 500 to 800 μm, preferably 620 to 750 μm, according to ISO 13320:2020-01, and an equivalent diameter d' of 300 to 470 μm, preferably 300 to 390 μm, particularly preferably 310 to 370 μm, according to ISO 13320:2020-01 and DIN 66145:1976-04, and the binder component consists of at least 95 ma.%, particularly preferably of 100 ma.%, of granulated blast furnace slag, Portland cement clinker and setting regulator.
A subsystem for controlling illumination of a lighting device via motion detection, the subsystem comprising: - a radar sensor configured to detect motion in a detection area by sampling derived signals from the detection area at a sampling frequency; - a controller communicatively coupled to the radar sensor and the lighting device , the controller configured to: - set the sampling frequency of the radar sensor when the lighting device is in a standby mode to an initial value below two times a first Nyquist frequency and - control the lighting device based on sensor data obtained by the radar sensor at the specified sampling frequency; and wherein the first Nyquist frequency is set to a first estimated maximum Doppler frequency of motion to be detected in the detection area by the radar sensor when the lighting device is in the standby mode. - a radar sensor configured to detect motion in a detection area by sampling derived signals from the detection area at a sampling frequency; - a controller communicatively coupled to the radar sensor and the lighting device , the controller configured to: - set the sampling frequency of the radar sensor when the lighting device is in a standby mode to an initial value below two times a first Nyquist frequency and - control the lighting device based on sensor data obtained by the radar sensor at the specified sampling frequency; and
A method for estimating channel quality in a wireless network, the method comprising: obtaining information relating to a channel quality for a first time period, as measured by a wireless node located in an environment comprising one or more machines having mechanical parts which are movable in a periodic pattern; and providing the information as an input to a predictive model , developed using a machine-learning algorithm, to obtain a predicted channel quality in the environment for a second, subsequent time period, further comprising providing information relating to the periodic pattern as a second input to the predictive model, wherein the predictive model comprises a first part learned from data measured by a plurality of wireless nodes located in the environment, and a second part learned from data measured by the wireless node, wherein the first part comprises one or more first layers of a neural network, and wherein the second part comprises one or more second layers of the neural network, the second layers being higher than the first layers.
An adjustable saddle , comprising: a front mounting bracket ; a rear mounting bracket ; a first saddle half comprising a first saddle half base having a front end and a back end , the front end of the first saddle half base configured to attach the front end of the first saddle half base to the front mounting bracket with a first fastener that provides pivotal and translational adjustability of the front end of the first saddle half base via a first angled slot in the front mounting bracket or the front end of the first saddle half base , wherein a first arcuate adjustment channel is slidably positionable relative to a third fastener positioned within the first arcuate adjustment channel to allow pivotal attachment of the back end of the first saddle half base to the rear mounting bracket ; and a second saddle half comprising a second saddle half base having a front end and a back end , the front end of the second saddle half base configured to attach the front end of the second saddle half base to the front mounting bracket with a second fastener that provides pivotal and translational adjustability of the front end via a second angled slot in the front mounting bracket or the front end of the second saddle half base , wherein a second arcuate adjustment channel is slidably positionable relative to a fourth fastener positioned within the second arcuate adjustment channel to allow pivotal attachment of the back end of the second saddle half base to the rear mounting bracket . a front mounting bracket ; a rear mounting bracket ; a first saddle half comprising a first saddle half base having a front end and a back end , the front end of the first saddle half base configured to attach the front end of the first saddle half base to the front mounting bracket with a first fastener that provides pivotal and translational adjustability of the front end of the first saddle half base via a first angled slot in the front mounting bracket or the front end of the first saddle half base , wherein a first arcuate adjustment channel is slidably positionable relative to a third fastener positioned within the first arcuate adjustment channel to allow pivotal attachment of the back end of the first saddle half base to the rear mounting bracket ; and a second saddle half comprising a second saddle half base having a front end and a back end , the front end of the second saddle half base configured to attach the front end of the second saddle half base to the front mounting bracket with a second fastener that provides pivotal and translational adjustability of the front end via a second angled slot in the front mounting bracket or the front end of the second saddle half base , wherein a second arcuate adjustment channel is slidably positionable relative to a fourth fastener positioned within the second arcuate adjustment channel to allow pivotal attachment of the back end of the second saddle half base to the rear mounting bracket .
Device for application of at least one medical gas to a ventilated and anaesthetised patient with the aid of an anaesthesia machine, with a first line supplying at least respiratory gas from the anaesthesia machine , with a second line venting at least gas exhaled by the patient , with a patient supply line , wherein a first end of the first line , a first end of the second line and a first end of the patient supply line are connected with each other via at least one connection piece , with an anaesthesia machine that generates a respiratory gas flow, and with supply means for supplying the medical gas in the patient supply line , with at least two regulating means (54 to 60) arranged in parallel, having a gas source for providing the medical gas to be applied and connecting the patient supply line , wherein each regulating means (54 to 60) provides a connection between the gas source and the patient supply line in the open condition, wherein a second end of the first line and a second end of the second line are connected with each other, so that a closed circuit is formed, with a control unit , which controls the regulating means (54 to 60) in such a way that at least one regulating means (54 to 60) initiates several gas pulses of the medical gas, one after the other, into the patient supply line, wherein the control unit calculates the start in time of at least one inhalation phase, and the control unit controls the regulating means in such a way that the latter initiates a gas pulse in the patient supply line at the calculated start of the inhalation phase.
Verification method for an optoelectronic measuring device, the device comprising a graduated scale with a plurality of marks distributed one after another in a measuring direction (A) and defining different code sequences, and a read head facing the graduated scale which is movable with respect to said graduated scale in the measuring direction (A) and comprises at least one detection device , the method verifying if the arrangement between the read head and the graduated scale of the device is the required arrangement, characterized in that the method comprises the steps of - emitting a first light beam towards the graduated scale with a first light emitter of the read head and determining the absolute position of the read head depending on the light received by the detection device after said first light beam is reflected off, or goes through, the graduated scale , - subsequently emitting a second light beam towards the graduated scale with a second light emitter of the read head that is spaced from the first light emitter in the measuring direction (A), and determining the absolute position of the read head depending on the light received by the detection device after said second light beam is reflected off, or goes through, the graduated scale , - comparing both determined absolute positions, and - determining if the determined absolute positions are correct depending on said comparison. - emitting a first light beam towards the graduated scale with a first light emitter of the read head and determining the absolute position of the read head depending on the light received by the detection device after said first light beam is reflected off, or goes through, the graduated scale , - subsequently emitting a second light beam towards the graduated scale with a second light emitter of the read head that is spaced from the first light emitter in the measuring direction (A), and determining the absolute position of the read head depending on the light received by the detection device after said second light beam is reflected off, or goes through, the graduated scale , - comparing both determined absolute positions, and - determining if the determined absolute positions are correct depending on said comparison.
A device for treating drinking water, comprising a housing, through which water can be guided and which is filled with an ion exchange material, characterized in that at least 5% of the total capacity of the ion exchange material is loaded with zinc ions and at least 5% of its total capacity is loaded with hydrogen ions.
An overcurrent protection circuit for protecting a switching element , the overcurrent protection circuit being configured to detect, when the switching element is on, a differential voltage value between both ends of the switching element that is caused by an electric current flowing through the switching element , and to turn off the switching element when the detected differential voltage value is larger than a predetermined voltage value, characterized in that the overcurrent protection circuit comprises: a detection circuit for detecting respective voltage values at the both ends of the switching element ; and means for preventing the switching element from being turned on if either of the respective voltage values detected by the detection circuit is less than a predetermined value, wherein the detection circuit is a NAND circuit or an AND circuit to which the respective voltage values at the both ends are input. a detection circuit for detecting respective voltage values at the both ends of the switching element ; and means for preventing the switching element from being turned on if either of the respective voltage values detected by the detection circuit is less than a predetermined value, wherein the detection circuit is a NAND circuit or an AND circuit to which the respective voltage values at the both ends are input.