mhurhangee/ep-ind-claims huggingface dataset:
A crockery basket with at least one basket base and with supports formed on the basket base for a plate underside of a plate stored upright on a plate edge in the crockery basket to lean against the supports, wherein at least two supports arranged spaced apart from each other in the crockery basket form a pair of supports for the plate underside to lean against, and the supports of the pair of supports on their side facing away from the basket base have in each case a slanted supporting edge for the plate underside to lean against, wherein the slanted supporting edges of these two supports are slanted downwards in each case in the direction towards each other, in the direction towards the basket base, wherein the crockery basket is delimited by at least one side wall and, viewed in a top view of the basket base, the supporting edges of the two supports of the pair of supports lie on a common straight line (10, 10') which is arranged obliquely to the side wall, characterised in that at least one additional support, preferably formed on the basket base, is associated with the supports of the pair of supports, the plate which leans against the supports with the plate underside being able to be supported, with its region of the plate edge facing the basket base, on an additional supporting edge of the additional support.
A method of designing an electrode arrangement, the method comprising the following steps: providing a start configuration of a flexible implantable electrode arrangement comprising an electrically insulating carrier structure and an electrically conductive layer, which includes an electrically conductive thin film layer, the electrically conductive thin film layer being structured so as to form at least one implantable electrode; exciting the electrode arrangement with an alternating excitation voltage or an alternating excitation current; determining a mechanical deflection of the electrode in response to the excitation; modifying the electrode arrangement so that a mechanical resonance of the electrode in response to the electric excitation will assume a minimum. providing a start configuration of a flexible implantable electrode arrangement comprising an electrically insulating carrier structure and an electrically conductive layer, which includes an electrically conductive thin film layer, the electrically conductive thin film layer being structured so as to form at least one implantable electrode; exciting the electrode arrangement with an alternating excitation voltage or an alternating excitation current; determining a mechanical deflection of the electrode in response to the excitation; modifying the electrode arrangement so that a mechanical resonance of the electrode in response to the electric excitation will assume a minimum.
A power converter system for a plurality of electrolysis cell stack units, comprising: a parallel arrangement of multiple DC/DC converter modules; wherein each DC/DC converter module is configured to power a single electrolysis cell stack unit; and wherein each DC/DC converter module is capable of supplying said electrolysis cell stack unit with a predetermined variation of current, power and/or voltage such that near-thermoneutral operation at part load is enabled by matching the integral Joule heat production with the integral reaction heat consumption inside said electrolysis cell stack unit, and/or wherein each DC/DC converter module is capable of reversing the current supplied to said electrolysis cell stack unit, causing said electrolysis cell stack unit to perform in fuel cell mode. a parallel arrangement of multiple DC/DC converter modules; wherein each DC/DC converter module is configured to power a single electrolysis cell stack unit; and wherein each DC/DC converter module is capable of supplying said electrolysis cell stack unit with a predetermined variation of current, power and/or voltage such that near-thermoneutral operation at part load is enabled by matching the integral Joule heat production with the integral reaction heat consumption inside said electrolysis cell stack unit, and/or wherein each DC/DC converter module is capable of reversing the current supplied to said electrolysis cell stack unit, causing said electrolysis cell stack unit to perform in fuel cell mode.
An electric power module for providing drive power in a truck, comprising an auxiliary frame to be mounted to a chassis having a pair of longitudinal chassis members (55, 56) extending between a front axle and a rear axle of the truck, said auxiliary frame comprising a front section arranged for mounting an electric power source unit and a rear section arranged for mounting at least one auxiliary unit; wherein the front section of the auxiliary frame comprises module mounts arranged for suspending the electric power module to the chassis between the pair of longitudinal chassis members (55, 56) near the front axle of the truck; characterized in that the rear section of the auxiliary frame extends beyond the front section in a cantilevered fashion and comprises shock absorbers arranged for absorbing a pitch movement of the auxiliary frame relative to the chassis behind the module mounts. wherein the front section of the auxiliary frame comprises module mounts arranged for suspending the electric power module to the chassis between the pair of longitudinal chassis members (55, 56) near the front axle of the truck; characterized in that the rear section of the auxiliary frame extends beyond the front section in a cantilevered fashion and comprises shock absorbers arranged for absorbing a pitch movement of the auxiliary frame relative to the chassis behind the module mounts.
A core material comprising: a core; a solder layer provided outside the core and being a Sn-based solder alloy consisting of Sn and at least any one element of Ag, Cu, Sb, Ni, Co, Ge, Ga, Fe, Al, In, Cd, Zn, Pb, Au, P, S, Si, Ti, Mg, Pd, and Pt; and a Sn layer provided outside the solder layer, wherein the solder layer has a thickness of 1 μm or more on one side, the Sn layer has a thickness of 0.1 μm or more on one side, and a thickness of the Sn layer is 0.215% or more and 36% or less of the thickness of the solder layer. a core; a solder layer provided outside the core and being a Sn-based solder alloy consisting of Sn and at least any one element of Ag, Cu, Sb, Ni, Co, Ge, Ga, Fe, Al, In, Cd, Zn, Pb, Au, P, S, Si, Ti, Mg, Pd, and Pt; and a Sn layer provided outside the solder layer, wherein the solder layer has a thickness of 1 μm or more on one side, the Sn layer has a thickness of 0.1 μm or more on one side, and a thickness of the Sn layer is 0.215% or more and 36% or less of the thickness of the solder layer.
A cooling device comprising: a pressurized cabin of an airplane, in which an electronic device is arranged; a pressurizing system (23, 33) to supply pressurized air to the pressurized cabin; a ram air channel for cooling the pressurized air; a partition wall air-tightly separating the pressurized cabin from the ram air channel; and a heat exchanger thermally in contact with the electronic device extending from the pressurized cabin over the partition wall to the ram air channel and exposed to the ram air channel so as to radiate heat to a ram air (Ar), wherein the heat exchanger gets thermally in contact with both faces of the partition wall, one of the faces facing to the pressurized cabin and another of the faces facing to the ram air channel, whereby the heat exchanger and the partition wall constitute a heat transfer path for transmitting heat from the electronic device to the ram air channel. a pressurized cabin of an airplane, in which an electronic device is arranged; a pressurizing system (23, 33) to supply pressurized air to the pressurized cabin; a ram air channel for cooling the pressurized air; a partition wall air-tightly separating the pressurized cabin from the ram air channel; and a heat exchanger thermally in contact with the electronic device extending from the pressurized cabin over the partition wall to the ram air channel and exposed to the ram air channel so as to radiate heat to a ram air (Ar), wherein the heat exchanger gets thermally in contact with both faces of the partition wall, one of the faces facing to the pressurized cabin and another of the faces facing to the ram air channel, whereby the heat exchanger and the partition wall constitute a heat transfer path for transmitting heat from the electronic device to the ram air channel.
A parameter estimation device including: a communication throughput acquiring means for acquiring communication throughput that is an amount of data transmitted per unit time comprising: a function specification parameter estimating means for estimating a function specification parameter for specifying a probability density function where communication throughput at a second time point later than a first time point is a random variable, based on the communication throughput acquired by the first time point. a communication throughput acquiring means for acquiring communication throughput that is an amount of data transmitted per unit time comprising: a function specification parameter estimating means for estimating a function specification parameter for specifying a probability density function where communication throughput at a second time point later than a first time point is a random variable, based on the communication throughput acquired by the first time point. a function specification parameter estimating means for estimating a function specification parameter for specifying a probability density function where communication throughput at a second time point later than a first time point is a random variable, based on the communication throughput acquired by the first time point.
A method comprising: deciding, by at least one processor, to not transmit over a first wireless link between a wireless device and a first access point, AP, in response to determining that the wireless device is communicating or is about to communicate over a second wireless link with a second AP, wherein the wireless device is concurrently associated with the first and second APs, wherein the deciding is performed by the at least one processor in the wireless device, and the deciding to not transmit comprises deciding to not transmit uplink information to the first AP, wherein the determining that the wireless device is communicating or is about to communicate wirelessly with the second AP comprises at least one of: processing, by the wireless device, a header of a frame and determining based on the header that the frame is targeted to the wireless device from the second AP, processing, by the wireless device, a unique identifying code prepended to a transmission from the second AP, the unique identifying code identifying the wireless device. processing, by the wireless device, a header of a frame and determining based on the header that the frame is targeted to the wireless device from the second AP, processing, by the wireless device, a unique identifying code prepended to a transmission from the second AP, the unique identifying code identifying the wireless device.
A process for the preparation of compound 18, having the structure: comprising reacting compound 17, having the structure: with ammonia or an ammonia equivalent selected from the group consisting of ammonium acetate, ammonium bicarbonate, ammonium carbamate, ammonium carbonate, ammonium chloride, ammonium hydroxide, and ammonium phosphate, and a peptide coupling reagent selected from the group consisting of N -(3-dimethylaminopropyl)- N '-ethylcarbodiimide hydrochloride/ N -hydroxysuccinimide; N -(3-dimethylaminopropyl)- N '-ethylcarbodiimide hydrochloride/1-hydroxybenzotriazole; and 1,1'-carbonyldiimidazole, to form compound 18.
Layer composite for use as imitation leather, which has the following layers: a) a carrier layer, which contains textile material, b) a decorative layer, c) a cover layer, which contains a plastic, wax or protein material or a mixture of the above-named, wherein by wax is meant according to the invention natural or artificially created substances which are kneadable at 20 C, solid to brittle-hard, have a coarse to finely crystalline structure, are coloured translucent to opaque but not glassy, melt above 40°C without decomposing, are slightly liquid, i.e. are a little viscous, just above the melting point, have a strongly temperature-dependent consistency and solubility and can be polished with light pressure, wherein the decorative layer is arranged between the textile carrier layer and the cover layer, characterized in that the decorative layer contains or consists of plant leaf material, namely tobacco. a) a carrier layer, which contains textile material, b) a decorative layer, c) a cover layer, which contains a plastic, wax or protein material or a mixture of the above-named, wherein the decorative layer is arranged between the textile carrier layer and the cover layer, characterized in that the decorative layer contains or consists of plant leaf material, namely tobacco.
A method of manufacturing a seamless martensitic stainless steel pipe characterized by piercing a steel billet to form a pierced billet, the steel billet having a chemical composition consisting of, in mass percent, C: 0.15 - 0.21%, Si: 0.16 - 1.0%, Mn: 0.35 - 1.0%, Cr: 10.5 - 14.0%, P: at most 0.020%, S: at most 0.0050%, Al: as set out below, optionally at least one of Mo: at most 2.0%, V: at most 0.50%, Nb: at most 0.50%, N: at most 0.100%, Ni: at most 0.15% and Ti: at most 0.08%, and a remainder of Fe and impurities; forming a mother pipe by hot working the pierced billet with a finishing temperature of 800 - 960 °C; immediately thereafter, subjecting the mother pipe to quenching to room temperature at a cooling rate greater than or equal to 2 °C per second, and then carrying out tempering by heating the pipe, wherein the Al content in the chemical composition is 0.005 - 0.050% with the finishing temperature being 850 - 960° C, and is 0.025 - 0.050% with the finishing temperature being 800 - 960° C, and wherein the obtained seamless martensitic stainless steel pipe has a yield point of 552-656 MPa, a tensile strength of at least 657 MPa, a HRC hardness of at most 22 and a fracture appearance transition temperature in a Charpy impact test of 0°C or lower with a shape of a test piece being 10×5 mm with a 2 mm V-shaped notch.
A collection bottle (A1, A2, A3), comprising: a body, having an accommodating space; and a cover, removably assembled to said body, wherein said cover comprises a channel and a testing part (22, 22A, 22D), said channel communicates said accommodating space and an outside environment, and when said cover is assembled to said body, said testing part (22, 22A, 22D) extends toward said accommodating space, wherein a distance is kept between a bottom part of said testing part (22, 22A, 22D) and a bottom part of said body, wherein the channel has an export hole and extends away from a surface of the cover and from the testing part (22, 22A, 22D) towards the outside environment, said distance kept between said bottom part of said testing part (22, 22A, 22D) and said bottom part of said body is in a range from 1 mm to 50 mm, and the testing part (22, 22A,22D) is disposed along and approximate to the channel characterized in that a bottom part of said body has a bulging part, and in that the testing part (22, 22A, 22D) is a cruciform structure formed by a horizontal part and a vertical part, the testing part being disposed to the bottom surface of the cover and a bottom part of the testing part having a bottom surface in a cruciform shape. a body, having an accommodating space; and a cover, removably assembled to said body, wherein said cover comprises a channel and a testing part (22, 22A, 22D), said channel communicates said accommodating space and an outside environment, and when said cover is assembled to said body, said testing part (22, 22A, 22D) extends toward said accommodating space, wherein a distance is kept between a bottom part of said testing part (22, 22A, 22D) and a bottom part of said body, wherein the channel has an export hole and extends away from a surface of the cover and from the testing part (22, 22A, 22D) towards the outside environment, said distance kept between said bottom part of said testing part (22, 22A, 22D) and said bottom part of said body is in a range from 1 mm to 50 mm, and the testing part (22, 22A,22D) is disposed along and approximate to the channel characterized in that a bottom part of said body has a bulging part, and in that the testing part (22, 22A, 22D) is a cruciform structure formed by a horizontal part and a vertical part, the testing part being disposed to the bottom surface of the cover and a bottom part of the testing part having a bottom surface in a cruciform shape.
An implantable medical device for implantation in a body and for applying neural stimulation to a neural target in the body, the device comprising: a neural stimulation electrode configured for use in stimulating the neural target; a neural stimulator configured to deliver neural stimulation through the electrode to the neural target; a sensor configured to sense a physiological response to stimulation of motor fibers at the neural target; and a controller operatively connected to the neural stimulator to control the neural stimulation and operatively connected to the sensor to receive a signal indicative of the physiological response, wherein the controller is configured to monitor the sensed physiological response for changes to detect a potential neural injury and perform an action in response to the detected potential neural injury, wherein to perform the action in response to the detected potential neural injury, the controller is configured to: control the neural stimulator to modify the neural stimulation in response to the potential neural injury; or control the neural stimulator to suspend the neural stimulation in response to the potential neural injury; or initiate a communication signal to an external device; or store data concerning the detected potential neural injury for later communication. a neural stimulation electrode configured for use in stimulating the neural target; a neural stimulator configured to deliver neural stimulation through the electrode to the neural target; a sensor configured to sense a physiological response to stimulation of motor fibers at the neural target; and a controller operatively connected to the neural stimulator to control the neural stimulation and operatively connected to the sensor to receive a signal indicative of the physiological response, wherein the controller is configured to monitor the sensed physiological response for changes to detect a potential neural injury and perform an action in response to the detected potential neural injury, wherein to perform the action in response to the detected potential neural injury, the controller is configured to: control the neural stimulator to modify the neural stimulation in response to the potential neural injury; or control the neural stimulator to suspend the neural stimulation in response to the potential neural injury; or initiate a communication signal to an external device; or store data concerning the detected potential neural injury for later communication. control the neural stimulator to modify the neural stimulation in response to the potential neural injury; or control the neural stimulator to suspend the neural stimulation in response to the potential neural injury; or initiate a communication signal to an external device; or store data concerning the detected potential neural injury for later communication.
Method for determining at least one parameter for correlating two objects (10, 20) in the form of the distance (r) and/or the relative velocity (v) and/or of relative angles of the two objects (10, 20), where a plurality of consecutive transmission pulse sequences each with at least one transmission pulse of an electromagnetic signal forms a series of transmission pulse sequences continually following each other, where the at least one transmission pulse is transmitted as a transmission segment with a transmission duration of an essentially constant electromagnetic signal with a constant or changing frequency, where the transmission duration of the individual transmission pulses is varied from transmission pulse sequence to transmission pulse sequence in order to reduce the susceptibility to interference in determining the at least one parameter and where each transmission pulse sequence features at least two transmission pulses so that an exact calculation of the parameter of distance and/or velocity is possible characterized in that the variation in transmission duration is generated by adding a varied additional duration to a fixed base duration.
A method of operation of a wireless device in a cellular communications network, comprising: logging data to provide a log; and maintaining an accuracy of time stamping for the log to meet a non-linear time drift constraint by: providing the time stamping for the log with a first clock having a first accuracy; and switching to a second clock (26-N) having a second accuracy that is greater than the first accuracy when a logging time exceeds a threshold. logging data to provide a log; and maintaining an accuracy of time stamping for the log to meet a non-linear time drift constraint by: providing the time stamping for the log with a first clock having a first accuracy; and switching to a second clock (26-N) having a second accuracy that is greater than the first accuracy when a logging time exceeds a threshold. providing the time stamping for the log with a first clock having a first accuracy; and switching to a second clock (26-N) having a second accuracy that is greater than the first accuracy when a logging time exceeds a threshold.
A system (200, 300) for detecting defects in a surface of a workpiece, comprising: a light source (201, 305) positioned to direct light at the workpiece at an oblique angle with respect to the surface of the workpiece; two light-field cameras (205, 303, 304) positioned to detect light reflected from the workpiece and to generate a light signal corresponding to the reflected light; a polarizing lens positioned between each of the two light field cameras (205, 303, 304) and the workpiece; and a processor coupled to each of the light-field cameras (205, 303, 304) to receive the corresponding light signals, the processor programmed to process the light signals to detect any defects in the surface of the workpiece based on relative magnitudes of the received light signals. a light source (201, 305) positioned to direct light at the workpiece at an oblique angle with respect to the surface of the workpiece; two light-field cameras (205, 303, 304) positioned to detect light reflected from the workpiece and to generate a light signal corresponding to the reflected light; a polarizing lens positioned between each of the two light field cameras (205, 303, 304) and the workpiece; and a processor coupled to each of the light-field cameras (205, 303, 304) to receive the corresponding light signals, the processor programmed to process the light signals to detect any defects in the surface of the workpiece based on relative magnitudes of the received light signals.