mhurhangee/patent-ind-claim-en huggingface dataset:
Working support with a working surface and a holding device for suspending a vessel , wherein the working support has a plate-like base body and a bar projecting from the base body , the bar forming the holding device , the holding device having a receptacle for the vessel , the receptacle being formed by a recess in the bar and being bounded laterally and towards the working surface by the bar , characterized in that the working support has a securing element for securing the vessel against being pulled out of the holding device , and wherein the securing element projects at least substantially centrally into the receptacle of the holding device . wherein the working support has a plate-like base body and a bar projecting from the base body , the bar forming the holding device , the holding device having a receptacle for the vessel , the receptacle being formed by a recess in the bar and being bounded laterally and towards the working surface by the bar , characterized in that the working support has a securing element for securing the vessel against being pulled out of the holding device , and wherein the securing element projects at least substantially centrally into the receptacle of the holding device .
A map generation device which assigns, to map data which is divided into multiple regions, a weight value for consideration of a possibility of an occlusion of a stationary construction object by a moving object within a measurable range during measurement of data by a measurement vehicle, wherein the weight value is increased for a region with decreasing probability of occlusion, the map generation device comprising: an acquisition unit configured to acquire a travelling route during measurement of data that is needed for generation or update of the map data ; and a determination unit configured to determine, on a basis of a position of a lane on the travelling route, the weight value for each of the multiple regions, wherein in a case where the lane on the travelling route is a lane on a left side of a road on the travelling route, the determination unit increases the weight value corresponding to a region located to a left side of the lane, and wherein in a case where the lane on the travelling route is a lane on a right side of a road on the travelling route, the determination unit increases the weight value corresponding to a region located to a right side of the lane. an acquisition unit configured to acquire a travelling route during measurement of data that is needed for generation or update of the map data ; and a determination unit configured to determine, on a basis of a position of a lane on the travelling route, the weight value for each of the multiple regions, wherein in a case where the lane on the travelling route is a lane on a left side of a road on the travelling route, the determination unit increases the weight value corresponding to a region located to a left side of the lane, and wherein in a case where the lane on the travelling route is a lane on a right side of a road on the travelling route, the determination unit increases the weight value corresponding to a region located to a right side of the lane.
Method for transferring a negative structure of a surface of an inner wall 51 of a blow molding tool , in particular of an extrusion blow-molding tool, to a surface of a plastic container, comprising the steps of - heating at least one region of a mold cavity of a molding body of the blow molding tool on which the negative structure is formed, - introducing a preform into the mold cavity , - closing the blow molding tool , - shaping the plastic container by inflating the preform and abutting the preform against the inner wall of the mold cavity , - cooling the region by feeding a coolant through temperature control channels , - demolding the plastic container. - heating at least one region of a mold cavity of a molding body of the blow molding tool on which the negative structure is formed, - introducing a preform into the mold cavity , - closing the blow molding tool , - shaping the plastic container by inflating the preform and abutting the preform against the inner wall of the mold cavity , - cooling the region by feeding a coolant through temperature control channels , - demolding the plastic container.
Dust collecting device for a hand-operated power tool , in particular for a saw or a grinding machine, which has a connection device with a base body and a dust inlet provided at or on the base body for connection to a machine dust outlet of the hand-operated power tool , so that the machine dust outlet communicates with a dust inlet of the dust collecting device and particles (P) flowing in a particle flow (P) out of the machine dust outlet are able to flow into a dust collection chamber of a dust container of the dust collecting device , wherein the dust inlet is provided on a cover , and wherein the cover , relative to the base body , is adjustable between an open position (O) releasing an inlet orifice of the dust collecting device provided for emptying the dust collection chamber , and a closed position (V) closing the inlet orifice , characterised in that there is provided at the dust inlet a valve body , in particular a check valve, for closing the dust inlet , in particular when the machine dust outlet is removed from the dust inlet .
A method comprising: in a network device : receiving first program packets from a first set of communication channels (CH1-1, CH1-2, CH1-3, CH1-4, CH1-m, CH1, CH2, CH3) in a first incoming bonded channel group ; receiving second program packets from a second set of communication channels (CH1-1, CH1-2, CH1-3, CH1-4, CH1-m, CH1, CH2, CH3) in a second incoming bonded channel group , the second incoming bonded channel group being different from the first incoming bonded channel group; characterised in that the method further comprises multiplexing the first and second program packets from the first set of communication channels and from the second set of communication channels into a stream of multiplexed packets; and distributing the stream of multiplexed packets across a further set of communication channels (CH2-1, CH2-2, CH2-3, CH2-4, CH4, CH5) in an outgoing bonded channel group different from the first and second incoming bonded channel group. receiving first program packets from a first set of communication channels (CH1-1, CH1-2, CH1-3, CH1-4, CH1-m, CH1, CH2, CH3) in a first incoming bonded channel group ; receiving second program packets from a second set of communication channels (CH1-1, CH1-2, CH1-3, CH1-4, CH1-m, CH1, CH2, CH3) in a second incoming bonded channel group , the second incoming bonded channel group being different from the first incoming bonded channel group; characterised in that the method further comprises multiplexing the first and second program packets from the first set of communication channels and from the second set of communication channels into a stream of multiplexed packets; and distributing the stream of multiplexed packets across a further set of communication channels (CH2-1, CH2-2, CH2-3, CH2-4, CH4, CH5) in an outgoing bonded channel group different from the first and second incoming bonded channel group.
Household appliance, in particular household refrigeration appliance, with an appliance housing that has an outer shell shaped from flat material, a machine compartment which is kept free in the appliance housing and accommodates machine components and at least one element (11; 14) assigned to the machine compartment , wherein the element (11; 14) is latched to at least one edge strip of the outer shell , characterised in that a groove of the element (11; 14), which accommodates the edge strip , is delimited on one side by first side wall sections interrupted by holes, wherein the groove is defined by the first side wall sections and second side wall sections , and that the holes on the one side of the groove in each case lie opposite further side wall sections on the other side of the groove , which protrude further towards an edge of the element (11; 14) than the second side wall sections .
A device for transporting a waste container , the device comprising: a mount for mounting the device to a vehicle, a central support for supporting the waste container , the central support being connected to the mount and being extendable to lift the waste container off the ground, an attachment element for attaching the waste container to the central support , at least one lifting arm for supporting the waste container , the at least one lifting arm being connected to a top portion of the central support and supports the attachment element ; and a lifting mechanism for raising and lowering the waste container when the waste container is attached to the at least one lifting arm , and wherein the device is configured such that when the device is mounted to the vehicle and the at least one lifting arm is in the lifting position, a waste container can be lifted and transported by the vehicle in a substantially upright position, characterized in that the at least one lifting arm is moveable between a lifting position in which the at least one lifting arm is arranged to support the waste container , and a folded position in which the at least one lifting arm extends along a length of the central support . a mount for mounting the device to a vehicle, a central support for supporting the waste container , the central support being connected to the mount and being extendable to lift the waste container off the ground, an attachment element for attaching the waste container to the central support , at least one lifting arm for supporting the waste container , the at least one lifting arm being connected to a top portion of the central support and supports the attachment element ; and a lifting mechanism for raising and lowering the waste container when the waste container is attached to the at least one lifting arm , and wherein the device is configured such that when the device is mounted to the vehicle and the at least one lifting arm is in the lifting position, a waste container can be lifted and transported by the vehicle in a substantially upright position, characterized in that the at least one lifting arm is moveable between a lifting position in which the at least one lifting arm is arranged to support the waste container , and a folded position in which the at least one lifting arm extends along a length of the central support .
Method for the wet treatment of laundry, wherein the laundry is loaded into a rotatingly drivable drum of a washing machine , at least washed in the drum and subsequently unloaded out of the drum , wherein preferably the laundry unloaded out of the drum is supplied to a draining device, characterized in that for monitoring in particular the loading or unloading operation of the washing machine at least during the loading and/or unloading of the laundry at least one image-generating device is used, wherein the laundry is detected visually at least during the loading and/or unloading in front of and/or behind the drum by the image-generating device.
Bandwidth extension decoder for providing a bandwidth extended audio signal based on an input audio signal and a parameter signal , wherein the parameter signal comprises an indication of an offset frequency and an indication of a power density parameter, the bandwidth extension decoder comprising: a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; an output interface configured to provide the bandwidth extended audio signal ; and a core decoder and a parameter extraction unit , wherein the core decoder is connected to the patch generator and the combiner , wherein the parameter extraction unit is connected to the patch generator and to the output interface , wherein the patch generator is connected to the combiner , wherein the combiner is connected to the output interface , and wherein the patch generator is configured to generate the bandwidth extension high-frequency signal in the frequency domain. a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal ; an output interface configured to provide the bandwidth extended audio signal ; and a core decoder and a parameter extraction unit , wherein the core decoder is connected to the patch generator and the combiner , wherein the parameter extraction unit is connected to the patch generator and to the output interface , wherein the patch generator is connected to the combiner , wherein the combiner is connected to the output interface , and wherein the patch generator is configured to generate the bandwidth extension high-frequency signal in the frequency domain.
A service disconnect unit comprising: - a bus bar , comprising: - a first portion of the bus bar having a first connector , wherein the first portion of the bus bar is configured to be electrically connected to a first battery module ; and - a second portion of the bus bar having a second connector , wherein the second portion of the bus bar is configured to be electrically connected to a second battery module , and the second portion of the bus bar being electrically insulated from the first portion of the bus bar ; and - a removable conductive member configured to provide an electrical connection between the first and the second connectors of the respective first and second portions of the bus bar , wherein the first connector and the second connector each comprise a respective opening configured to axially align with one another and to receive the removable conductive member . - a bus bar , comprising: - a first portion of the bus bar having a first connector , wherein the first portion of the bus bar is configured to be electrically connected to a first battery module ; and - a second portion of the bus bar having a second connector , wherein the second portion of the bus bar is configured to be electrically connected to a second battery module , and the second portion of the bus bar being electrically insulated from the first portion of the bus bar ; and - a first portion of the bus bar having a first connector , wherein the first portion of the bus bar is configured to be electrically connected to a first battery module ; and - a second portion of the bus bar having a second connector , wherein the second portion of the bus bar is configured to be electrically connected to a second battery module , and the second portion of the bus bar being electrically insulated from the first portion of the bus bar ; and - a removable conductive member configured to provide an electrical connection between the first and the second connectors of the respective first and second portions of the bus bar ,
A method for determining a mechanical property of a soft viscoelastic sample with an atomic-force-microscope (AFM)-based system , the method comprising: - repositioning a probe of the AFM-based system towards a surface of the sample until a cantilever of the probe is deflected by a pre-determined amount from a nominal orientation of the cantilever; wherein the method further comprises: - modifying said repositioning to maintain at least one of (i) an average sample-loading force, generated by the probe , and (ii) an area of contact between a tip of the probe and the surface to be substantially constant, by modulating the force applied by the probe to the sample, at a given excitation frequency, while, at the same time, maintaining an oscillation of the probe caused by an AC component of the force, and while maintaining the DC component of such force at a substantially-constant level; - measuring, at a set of pre-defined frequencies, a viscoelastic parameter of the surface while compensating for at least one of the creep of the surface and a spatial drift of the AFM-based system ; wherein the method includes pausing or suspending an operation of the AFM-based system for a period of time sufficient for relaxation of a creep of the surface that has been caused by the process of repositioning and - producing an output, perceivable by a user and representing said viscoelastic parameter as a function of at least one variable condition of the process of said measuring of the viscoelastic parameter. - repositioning a probe of the AFM-based system towards a surface of the sample until a cantilever of the probe is deflected by a pre-determined amount from a nominal orientation of the cantilever; wherein the method further comprises: - modifying said repositioning to maintain at least one of (i) an average sample-loading force, generated by the probe , and (ii) an area of contact between a tip of the probe and the surface to be substantially constant, by modulating the force applied by the probe to the sample, at a given excitation frequency, while, at the same time, maintaining an oscillation of the probe caused by an AC component of the force, and while maintaining the DC component of such force at a substantially-constant level; (i) an average sample-loading force, generated by the probe , and (ii) an area of contact between a tip of the probe and the surface - measuring, at a set of pre-defined frequencies, a viscoelastic parameter of the surface while compensating for at least one of the creep of the surface and a spatial drift of the AFM-based system ; wherein the method includes pausing or suspending an operation of the AFM-based system for a period of time sufficient for relaxation of a creep of the surface that has been caused by the process of repositioning and - producing an output, perceivable by a user and representing said viscoelastic parameter as a function of at least one variable condition of the process of said measuring of the viscoelastic parameter.
Ultrasonic unit for coupling ultrasonic waves into and/or from a medium, comprising an ultrasonic transducer which is electrically contacted to an electronics unit , and which is directly or indirectly connected to a waveguide that makes contact with the medium, characterized in that the electronics unit as well as at least one electrically conductive contact means connected or connectable to the electronics unit and a holding unit with a fixing device are arranged inside a housing , that a part of the waveguide that is fixedly connected to the ultrasonic transducer can be attached detachably in fixed manner by means of the fixing device mounted on the housing , and that when the waveguide is in the attached and fixed state in the holding unit by means of the fixing device , at least one electrically conductive surface of the ultrasonic transducer is attached with the at least one contact means by means of a non-positive and/or positive connection, and the electronics unit enters into detachable-fixed electrical contact with the ultrasonic transducer.
Atomizer nozzle system, in particular for an electrohydrodynamic atomizer, wherein a nozzle cap comprises a plurality of nozzles and, in order to form a nozzle comprises at least one nozzle opening , at least one nozzle channel and at least one nozzle socket , wherein the nozzle cap is arranged on at least one carrier and wherein the carrier comprises a nozzle connector for each nozzle socket, wherein the nozzle cap is arranged on the carrier in a releasably fastened manner, characterized in that an electrical contact element , namely a high-voltage contact, is formed in the nozzle connector , wherein the contact projects into a fluid channel .
A method for producing a semi-processed non-oriented electrical steel sheet by subjecting a steel slab having a chemical composition comprising C: not more than 0.005 mass%, Si: not more than 4 mass%, Mn: 0.03-2 mass%, P: not more than 0.2 mass%, S: not more than 0.004 mass%, Al: not more than 2 mass%, N: not more than 0.004 mass%, Se: not more than 0.0005 mass%, Ca: 0.0010-0.005 mass%, Sn: 0.003-0.5 mass%, Sb: 0.003-0.5 mass% and the balance being Fe and inevitable impurities to hot rolling, cold rolling and recrystallization annealing, characterized in that the recrystallization annealing is performed by heating up to 740°C at an average heating rate of not less than 100°C/s and then from 740°C to a soaking temperature of 740-900°C at an average heating rate of 1-50°C/s and in that the soaking time is 5-60 seconds.
A method for manufacturing a semiconductor structure, comprising the following sequential steps of: providing (S1) a substrate having a plurality of first trenches , wherein each of a plurality of first patterns is formed between two adjacent first trenches ; forming (S2) a first dielectric layer , the first dielectric layer covering at least side walls of the first pattern ; forming (S3) a second dielectric layer , the second dielectric layer filling the first trenches ; severing (S4) the first pattern to form a plurality of second patterns by forming a plurality of second trenches on the first pattern to cut the first pattern into the plurality of second patterns , wherein the second trenches only separate the first pattern without separating the first dielectric layer on the side walls of the first pattern to retain the intact first dielectric layer ; removing (S5) the second dielectric layer from the first trenches ; and filling (S6) a third dielectric layer in the first trenches and the second trenches , wherein no first dielectric layer exists between the third dielectric layer in the second trenches and the second patterns . providing (S1) a substrate having a plurality of first trenches , wherein each of a plurality of first patterns is formed between two adjacent first trenches ; forming (S2) a first dielectric layer , the first dielectric layer covering at least side walls of the first pattern ; forming (S3) a second dielectric layer , the second dielectric layer filling the first trenches ; severing (S4) the first pattern to form a plurality of second patterns by forming a plurality of second trenches on the first pattern to cut the first pattern into the plurality of second patterns , wherein the second trenches only separate the first pattern without separating the first dielectric layer on the side walls of the first pattern to retain the intact first dielectric layer ; removing (S5) the second dielectric layer from the first trenches ; and filling (S6) a third dielectric layer in the first trenches and the second trenches , wherein no first dielectric layer exists between the third dielectric layer in the second trenches and the second patterns .