mhurhangee/ep-ind-claims huggingface dataset:
A sulfide solid electrolyte material comprising Li 4 SiS 4, characterized in that no Li 2 S peak is observed by X-ray diffraction, the sulfide solid electrolyte material contains no cross-linking sulfur, and in the case that 100 mg of the sulfide solid electrolyte material is pressed at a pressure of 5.1 ton/cm 2 by using a pelleting machine having a molding portion with an area of 1 cm 2 to form a pellet, and the pellet is disposed inside a hermetically sealed desiccator (1755 cc, air atmosphere, a temperature of 25°C, and a humidity of 40%) to measure a hydrogen sulfide generation amount generated for 300 seconds from the start by using a hydrogen sulfide sensor, the hydrogen sulfide generation amount is 10 cc/g or less.
A thermal processor, comprising: a rotatable hollow drum including a drum core having an interior surface and an exterior surface; and a radiant heater positioned within an interior of the drum and configured to provide radiant energy to heat the drum, wherein at least one radiant energy absorption characteristic of the interior of the drum varies across its longitudinal width so that selected areas of the interior of the drum absorb more radiant energy than other areas of the interior of the drum to compensate for non-uniform heat loss from the drum and to provide the exterior surface of the drum core at a desired temperature which is substantially uniform across a longitudinal width of the drum core, wherein the at least one radiant energy absorption characteristic comprises an emissivity of the interior surface of the drum core, and wherein the emissivity of the interior surface of the drum core varies across the lateral width of the drum core, wherein the emissivity is greater at end portions of the interior surface of the drum core relative to a middle portion of the interior surface of the drum core, and wherein the end portions of the interior surface of the drum core are coated or treated such that the end portions of the interior surface of the drum core have a higher emissivity than a remaining middle portion of the interior surface of the drum core. a rotatable hollow drum including a drum core having an interior surface and an exterior surface; and a radiant heater positioned within an interior of the drum and configured to provide radiant energy to heat the drum, wherein at least one radiant energy absorption characteristic of the interior of the drum varies across its longitudinal width so that selected areas of the interior of the drum absorb more radiant energy than other areas of the interior of the drum to compensate for non-uniform heat loss from the drum and to provide the exterior surface of the drum core at a desired temperature which is substantially uniform across a longitudinal width of the drum core, wherein the at least one radiant energy absorption characteristic comprises an emissivity of the interior surface of the drum core, and wherein the emissivity of the interior surface of the drum core varies across the lateral width of the drum core, wherein the emissivity is greater at end portions of the interior surface of the drum core relative to a middle portion of the interior surface of the drum core, and wherein the end portions of the interior surface of the drum core are coated or treated such that the end portions of the interior surface of the drum core have a higher emissivity than a remaining middle portion of the interior surface of the drum core.
A fluid control apparatus for controlling a fluid in a microfluidic device, the apparatus comprising: a detecting unit configured to irradiate light towards the microfluidic device, detect light reflected from the microfluidic device, and output a signal based on the light reflected from the microfluidic device; a transporting unit configured to move the detecting unit to a measurement position relative to the microfluidic device; a determining unit configured to control a transporting operation performed by the transporting unit, and determine a state of a fluid in the microfluidic device at the measurement position based on the signal output from the detecting unit; and a fluid control unit configured to control movement of the fluid in the microfluidic device based on the state of the fluid determined by the determining unit, wherein the determining unit is configured to determine whether the fluid in the microfluidic device at the measurement position is a liquid or a gas based on the intensity of the light reflected from the microfluidic device; the fluid control apparatus being characterized in that the determining unit is configured to determine the state of the fluid by comparing a differential value with a reference value, wherein the differential value is the difference in the intensity of light reflected from the microfluidic device measured by the detecting unit at a first time point and the average intensity of the light reflected from the microfluidic device measured a predetermined number of times before the first time point. a detecting unit configured to irradiate light towards the microfluidic device, detect light reflected from the microfluidic device, and output a signal based on the light reflected from the microfluidic device; a transporting unit configured to move the detecting unit to a measurement position relative to the microfluidic device; a determining unit configured to control a transporting operation performed by the transporting unit, and determine a state of a fluid in the microfluidic device at the measurement position based on the signal output from the detecting unit; and a fluid control unit configured to control movement of the fluid in the microfluidic device based on the state of the fluid determined by the determining unit, wherein the determining unit is configured to determine whether the fluid in the microfluidic device at the measurement position is a liquid or a gas based on the intensity of the light reflected from the microfluidic device; the fluid control apparatus being characterized in that the determining unit is configured to determine the state of the fluid by comparing a differential value with a reference value, wherein the differential value is the difference in the intensity of light reflected from the microfluidic device measured by the detecting unit at a first time point and the average intensity of the light reflected from the microfluidic device measured a predetermined number of times before the first time point.
Measuring apparatus with a protective tube for insertion into a pipe or vessel containing a medium, wherein the protective tube serves for receiving a measuring insert for determining and/or monitoring a process variable of a medium, especially the temperature of a medium, the protective tube comprising a tubular member having a bore extending between an upper and lower end of the tubular member, wherein at least one section (sc) of an outer surface of the tubular member comprises a surface structure having a multitude of longitudinal ribs, which define a multitude of flow channels along the tubular member, wherein the flow channels each evolve between a pair of neighboring ribs, characterised in that the longitudinal ribs of the surface structure evolve at least partially parallel to a longitudinal axis of the tubular member, and/or wherein the longitudinal ribs are designed such that they twist around the tubular member along its length with a rip pitch, and wherein the rip pitch (p) of the twisting ribs is such that the ribs circle the tubular member a maximum of twice. a tubular member having a bore extending between an upper and lower end of the tubular member, wherein at least one section (sc) of an outer surface of the tubular member comprises a surface structure having a multitude of longitudinal ribs, which define a multitude of flow channels along the tubular member, wherein the flow channels each evolve between a pair of neighboring ribs, characterised in that the longitudinal ribs of the surface structure evolve at least partially parallel to a longitudinal axis of the tubular member, and/or wherein the longitudinal ribs are designed such that they twist around the tubular member along its length with a rip pitch, and wherein the rip pitch (p) of the twisting ribs is such that the ribs circle the tubular member a maximum of twice.
A method of providing adaptive segmentation in a higher protocol layer interacting with a lower protocol layer, comprising the following steps: - a) deploying an adaptable segmentation limit at said higher protocol layer, defining a threshold of a largest Protocol Data Unit, PDU, to be submitted to said lower protocol layer, - b) determining at said higher protocol layer for each arriving Service Data Unit, SDU, if said SDU can fit into said segmentation limit or not, - c) segmenting at said higher protocol layer each SDU that do not fit into said segmentation limit into PDUs which are smaller than or equal to said segmentation limit, or, performing no segmentation on each SDU that fit into said segmentation limit, and, - d) submitting the resulting PDU/PDUs to said lower protocol layer, wherein said segmentation limit is adjusted on the basis of an observation of the residual loss-rate in said higher layer protocol, wherein upon observing that said residual loss-rate is above a predetermined loss-rate threshold: - adjusting said segmentation limit by lowering said segmentation limit by a predetermined decreasing amount, while upon observing that the residual loss-rate is below said loss-rate threshold: - adjusting said segmentation limit by increasing said segmentation limit by a predetermined increasing amount. - a) deploying an adaptable segmentation limit at said higher protocol layer, defining a threshold of a largest Protocol Data Unit, PDU, to be submitted to said lower protocol layer, - b) determining at said higher protocol layer for each arriving Service Data Unit, SDU, if said SDU can fit into said segmentation limit or not, - c) segmenting at said higher protocol layer each SDU that do not fit into said segmentation limit into PDUs which are smaller than or equal to said segmentation limit, or, performing no segmentation on each SDU that fit into said segmentation limit, and, - d) submitting the resulting PDU/PDUs to said lower protocol layer, wherein said segmentation limit is adjusted on the basis of an observation of the residual loss-rate in said higher layer protocol, wherein upon observing that said residual loss-rate is above a predetermined loss-rate threshold: - adjusting said segmentation limit by lowering said segmentation limit by a predetermined decreasing amount, while upon observing that the residual loss-rate is below said loss-rate threshold: - adjusting said segmentation limit by increasing said segmentation limit by a predetermined increasing amount. - adjusting said segmentation limit by lowering said segmentation limit by a predetermined decreasing amount, while upon observing that the residual loss-rate is below said loss-rate threshold: - adjusting said segmentation limit by increasing said segmentation limit by a predetermined increasing amount.
A method implemented in an anchor base station of a network, where the anchor base station communicates with a self-backhauled base station via a radio interface and where the network further includes another base station, the method comprising: receiving (1105, 1110) a message from the self-backhauled base station or from the other base station; determining whether a user equipment, UE, is being handed off from the self-backhauled base station to the other base station, the method CHARACTERIZED by: storing, based on the determination of whether the UE is being handed off, received packets intended for the UE; forwarding the stored packets to the other base station via a transport network for delivery to the UE; and wherein the received message is a message sent between the self-backhauled base station and the other base station and wherein the determining is based on sniffing into the received message. receiving (1105, 1110) a message from the self-backhauled base station or from the other base station; determining whether a user equipment, UE, is being handed off from the self-backhauled base station to the other base station, storing, based on the determination of whether the UE is being handed off, received packets intended for the UE; forwarding the stored packets to the other base station via a transport network for delivery to the UE; and wherein the received message is a message sent between the self-backhauled base station and the other base station and wherein the determining is based on sniffing into the received message.
System for controlling the carburetion of an internal combustion engine comprising the following activities: a. starting the engine; b. defining the combustion ratio as a factor λ 0 c. measuring the ionization current ci 0; d. modifying - from outside - the factor λ by a predefined amount equivalent to Δ λ moving it to the value λ 1 =λ 0 + Δ λ; e. repeating the measurement of the ionization current ci 1; f. calculating the value of the difference of the ionization current Δ λci1 equivalent to ci 0 - ci 1; g. repeating operations d. and e., thereby measuring the ionization current with different values λ 1...n, until the difference between the last value of the ionization current ci n and the second last value ci n-1 is smaller than Δ ci where Δ ci is a predefined value which is assumed to have no influence with respect to the carburetion; h. restoring the second last value λ n-1 as the corrected value. a. starting the engine; b. defining the combustion ratio as a factor λ 0 c. measuring the ionization current ci 0; d. modifying - from outside - the factor λ by a predefined amount equivalent to Δ λ moving it to the value λ 1 =λ 0 + Δ λ; e. repeating the measurement of the ionization current ci 1; f. calculating the value of the difference of the ionization current Δ λci1 equivalent to ci 0 - ci 1; g. repeating operations d. and e., thereby measuring the ionization current with different values λ 1...n, until the difference between the last value of the ionization current ci n and the second last value ci n-1 is smaller than Δ ci where Δ ci is a predefined value which is assumed to have no influence with respect to the carburetion; h. restoring the second last value λ n-1 as the corrected value.
A gas generator, particularly a pyrotechnical tube gas generator with an axial longitudinal direction, comprising an ignition unit, a combustion chamber mounted axially downstream of the ignition unit comprising a combustion chamber bottom and a filter chamber that is mounted axially downstream of the combustion chamber, wherein in the filter chamber a plate labyrinth filter system including at least two plates (151, 152) positioned axially downstream of each other is formed, wherein the plates (151, 152) are aligned substantially perpendicularly to the axial longitudinal direction of the gas generator and substantially in parallel to the combustion chamber bottom, and wherein each of the plates (151, 152) has at least one through-opening, the through-openings of two adjacent plates (151, 152) being arranged to be offset against each other in the radial direction, characterized in that the combustion chamber bottom forms a combustion chamber outlet and the combustion chamber outlet is at least one opening in the combustion chamber bottom, wherein plural flow passages are formed between a first plate arranged in axial longitudinal direction of the plate labyrinth filter system and an inner face of a filter chamber outer casing.
A flexible body comprising: a film having a first surface and an opposing second surface, the film having a plurality of apertures extending from the first surface to the second surface and a plurality of raised lips protruding from the first surface such that each of the plurality of apertures is surrounded by a one of the plurality of raised lips; wherein the film comprises a plurality of layers, wherein at least one of the plurality of layers includes a drug containing layer containing a drug, wherein at least one of the plurality of layers includes an adhesive layer, and wherein the film comprises a biodegradable polymer and wherein the drug is at least partially insoluble in the polymer. a film having a first surface and an opposing second surface, the film having a plurality of apertures extending from the first surface to the second surface and a plurality of raised lips protruding from the first surface such that each of the plurality of apertures is surrounded by a one of the plurality of raised lips; wherein the film comprises a plurality of layers, wherein at least one of the plurality of layers includes a drug containing layer containing a drug, wherein at least one of the plurality of layers includes an adhesive layer, and wherein the film comprises a biodegradable polymer and wherein the drug is at least partially insoluble in the polymer.
Dust bag for a vacuum cleaner, which dust bag comprises a holding plate for fastening in a dust chamber of the vacuum cleaner, an inlet opening for receiving a dust-laden air flow of the vacuum cleaner being introduced into the holding plate, a filter bag made of an air-permeable material and open to the inlet opening being arranged on the holding plate, the material of the filter bag being designed to filter the dust out of the air flow when the air flow passes through, the material of the filter bag having a first degree of reflection, the dust bag having at least one identification surface, the identification surface being designed to distinguish a manufacturer-specific suitability approval of the dust bag for a manufacturer-specific vacuum cleaner, the identification surface having a second degree of reflection, characterised in that the identification surface is arranged on an upper side of the filter bag having the holding plate.
Timepiece oscillator including a structure and/or a frame, and a plurality of distinct, temporally and geometrically offset, primary resonators, each including at least one inertial mass returned to said structure or to said frame by an elastic return means, and each formed of one or more elementary resonators where said timepiece oscillator includes coupling means arranged to allow the interaction of said resonators, said coupling means including a wheel set arranged to be subjected to a torque or a drive force, said wheel set is subjected to a rotational motion and includes drive and guide means arranged to drive and guide a single control means, which is articulated around a first control axis with a plurality of transmission means each articulated around a second axis of articulation, remote from said single control means, with a said inertial mass of a said primary resonator, and where said resonators and said wheel set are arranged such that the axes of articulation of any two of said resonators and said first control axis of said control means are never coplanar, where said elementary resonators are rotating resonators characterised in that the centres of mass of said elementary resonators remain, during the normal oscillations of said resonators, at a distance less a few tens of micrometres from the respective centres of rotation of said resonators, and in that said wheel set includes an elastic structure forming a radially flexible and tangentially stiff guide member.
Use of an ultrasonic treating device with an ultrasonic transducer with a resonator attached thereto, wherein at least one end of said resonator is connected to a front surface of the transducer at a point of a longitudinal oscillation maximum of said transducer and wherein the length of the resonator is tuned to an integral multiple of half acoustic wave length of the longitudinal oscillation, fed from the transducer to the resonator for treating a liquid in a oil, gas or water well, wherein the treatment device further comprises an impedance matching transformer for up converting the voltage of an incoming ultrasonic signal.
A holder for mounting a hand tool to a surface, the holder comprising: a suction cup positionable upon the surface, the suction cup having a central area; a yoke connected to the central area, the yoke movable in a vertical direction relative to the surface, to distort the suction cup and create an area of low pressure between the suction cup and the surface, to secure the suction cup and yoke to the surface, the yoke including a cam engagement surface; a frame including a cradle (414, 416) shaped to receive and support the hand tool when a hand tool is placed onto the holder; a base; an extension connecting the base and the cradle (414, 416); and a cam pin movable within the frame, the cam pin including a cam profile slideably engageable with the cam engagement surface of the yoke to push the yoke vertically away from the surface or allow the yoke to move towards the surface to increase or decrease the pressure between the suction cup and the surface, characterized in that the yoke is biased by a resilient bumper. a suction cup positionable upon the surface, the suction cup having a central area; a yoke connected to the central area, the yoke movable in a vertical direction relative to the surface, to distort the suction cup and create an area of low pressure between the suction cup and the surface, to secure the suction cup and yoke to the surface, the yoke including a cam engagement surface; a frame including a cradle (414, 416) shaped to receive and support the hand tool when a hand tool is placed onto the holder; a base; an extension connecting the base and the cradle (414, 416); and a cradle (414, 416) shaped to receive and support the hand tool when a hand tool is placed onto the holder; a base; an extension connecting the base and the cradle (414, 416); and a cam pin movable within the frame, the cam pin including a cam profile slideably engageable with the cam engagement surface of the yoke to push the yoke vertically away from the surface or allow the yoke to move towards the surface to increase or decrease the pressure between the suction cup and the surface, characterized in that the yoke is biased by a resilient bumper.
An automatically moving floor processing device with a housing and an adjusting lever that can be displaced relative to the housing for overcoming an obstacle, wherein the adjusting lever has a base body and a contact area for contacting the obstacle to be overcome, wherein the adjusting lever is mounted so that it can eccentrically swivel on a wheel of the floor processing device on the one hand and on the housing on the other, characterized in that the contact area is displaceable relative to the base body of the adjusting lever, specifically pivotably mounted on an axis (27, 29) of the base body.