mhurhangee/ep-ind-claims huggingface dataset:
A coordinated transmission method, comprising: communicating, by a user equipment, UE, with a macro base station in a subframe in a first subframe set; and communicating, by the UE, with a micro base station in a subframe in a second subframe set; wherein the subframe in the first subframe set and the subframe in the second subframe set do not overlap; characterized in that before communicating, by the UE, with a macro base station in a subframe in a first subframe set, the method comprises: determining, by the UE, a downlink subframe in the first subframe set, wherein the downlink subframe in the first subframe set meets that, if a downlink subframe n belongs to the first subframe set, a downlink subframe n+8 also belongs to the first subframe set. communicating, by a user equipment, UE, with a macro base station in a subframe in a first subframe set; and communicating, by the UE, with a micro base station in a subframe in a second subframe set; wherein determining, by the UE, a downlink subframe in the first subframe set, wherein the downlink subframe in the first subframe set meets that, if a downlink subframe n belongs to the first subframe set, a downlink subframe n+8 also belongs to the first subframe set.
A temperature sensor assembly for use in temperature controlled environments comprising: an aluminum capillary; an actuation unit operably fluidly coupled to the capillary, the aluminum capillary is soldered to said actuation unit to fluidly couple the capillary to the actuation unit and to form an internal cavity adapted to store a working fluid, the working fluid is configured to manipulate the actuation unit when the working fluid changes temperature; and solder (138, 144) sealingly coupling the capillary to the actuation unit, wherein the actuation unit is a bellows; and the solder (138, 144) sealingly couples the capillary to the bellows such that the working fluid can actuate the bellows, wherein the temperature sensor assembly further comprises a sensor body, characterized in that, the solder (138,144) seals an open end of the capillary to an internal surface of the sensor body and also seals an open end of the bellows to the internal surface of the sensor body to sealingly couple the bellows to the capillary. an aluminum capillary; an actuation unit operably fluidly coupled to the capillary, the aluminum capillary is soldered to said actuation unit to fluidly couple the capillary to the actuation unit and to form an internal cavity adapted to store a working fluid, the working fluid is configured to manipulate the actuation unit when the working fluid changes temperature; and solder (138, 144) sealingly coupling the capillary to the actuation unit, wherein the actuation unit is a bellows; and the solder (138, 144) sealingly couples the capillary to the bellows such that the working fluid can actuate the bellows, wherein the temperature sensor assembly further comprises a sensor body, characterized in that, the solder (138,144) seals an open end of the capillary to an internal surface of the sensor body and also seals an open end of the bellows to the internal surface of the sensor body to sealingly couple the bellows to the capillary.
An organic light emitting display device (100, 200, 300), comprising: a substrate (101, 201, 301) defining a pixel region and a non-pixel region; a first electrode (170, 270, 370) over the substrate (101, 201, 301) in the pixel region; an organic emitting layer (175, 275, 375) over the first electrode (170, 270, 370) in the pixel region; a bank (173, 273, 373) over the substrate (101, 201, 301) in the non-pixel region; an auxiliary conductive line (150, 250, 350) covered by the bank (173, 273, 373) in the non-pixel region, a thickness of the auxiliary conductive line being greater than a thickness of the first electrode (170, 270, 370); and a second electrode (180, 280, 380) over the organic emitting layer (175, 275, 375) in the pixel region and over the bank (173, 273, 373) in the non-pixel region, the second electrode (180, 280, 380) being electrically connected to the auxiliary conductive line (150, 250, 350), characterised in that the bank (173, 273) covers side surfaces and a portion of the top surface of the auxiliary conductive line (150, 250). a substrate (101, 201, 301) defining a pixel region and a non-pixel region; a first electrode (170, 270, 370) over the substrate (101, 201, 301) in the pixel region; an organic emitting layer (175, 275, 375) over the first electrode (170, 270, 370) in the pixel region; a bank (173, 273, 373) over the substrate (101, 201, 301) in the non-pixel region; an auxiliary conductive line (150, 250, 350) covered by the bank (173, 273, 373) in the non-pixel region, a thickness of the auxiliary conductive line being greater than a thickness of the first electrode (170, 270, 370); and a second electrode (180, 280, 380) over the organic emitting layer (175, 275, 375) in the pixel region and over the bank (173, 273, 373) in the non-pixel region, the second electrode (180, 280, 380) being electrically connected to the auxiliary conductive line (150, 250, 350), characterised in that the bank (173, 273) covers side surfaces and a portion of the top surface of the auxiliary conductive line (150, 250).
Method for analyzing an abnormal event in an industrial automation and control system, IACS, comprising the following steps: a) identifying the abnormal event with an identification unit, wherein the event can be a user activity event or an incident event, caused by the IACS or a part of the IACS itself or caused by external sources; b) detecting a root cause of the abnormal event with a detection unit; and c) generating a notification if the root cause is not a user activity (S103 A), and, if the root cause is a user activity, evaluating the possible impact on the IACS caused by the abnormal event (S103 B), and generating a notification if the evaluation of the possible impact does not match a predefined list of allowable behavior, with a generating and evaluating unit. a) identifying the abnormal event with an identification unit, wherein the event can be a user activity event or an incident event, caused by the IACS or a part of the IACS itself or caused by external sources; b) detecting a root cause of the abnormal event with a detection unit; and c) generating a notification if the root cause is not a user activity (S103 A), and, if the root cause is a user activity, evaluating the possible impact on the IACS caused by the abnormal event (S103 B), and generating a notification if the evaluation of the possible impact does not match a predefined list of allowable behavior, with a generating and evaluating unit.
Slatted base having a frame and a measuring device for detecting the deformation of a lying surface under the load of a person lying on top, wherein the detection of the deformation is effected by detecting the vertical sag of spring strips which are held in the slatted bed base (3, 5, 6, 13) on both sides by their free ends each in a mounting body which is engaged by the slidable end of a vertically directed lift drive (7, 8, 27) which is supported relative to a base frame on the bottom side, characterised in that the mutual horizontal distance between the spring strips is adjustable and lockable.
A Ca 2+ -based metal-organic framework composition comprising chelating L-lactate and acetate, of formula: [Ca 14 (L-lactate) (Acetate)] or [Ca 6 (L-lactate) (acetate)], wherein the lactate and acetate sum to 28 and 12, respectively.
Sensor arrangement for eddy-current testing of electrically conducting measured objects, comprising at least one magnetoresistive sensor element and a magnetic field generating device for generating an alternating magnetic field, characterized in that the magnetic field generating device comprises at least one line conductor element which when flowed though by an excitation current I e generates the alternating magnetic field as a cylindrical alternating magnetic field along the line conductor element, and that the line conductor element is, when used for the intended purpose, arranged between the sensor element and a measured object, a sensor plane of the sensor element being aligned radially with the current flow centre of mass through the line conductor element.
Differential pressure sensor having at least one differential pressure measurement cell, a first diaphragm seal, a first measuring line for transmitting a first pressure acting on the first diaphragm seal to a first side of the differential pressure measurement cell, a second diaphragm seal, and a second measuring line for transmitting a second pressure acting on the second diaphragm seal to a second side of the differential pressure measurement cell, characterized in that the differential pressure sensor has at least one first compensation line for compensating for thermally and mechanically induced measurement errors, which first compensation line is arranged parallel to the first measuring line and is connected to the second side of the differential pressure measurement cell, wherein the first compensation line has the same thermal and mechanical properties as the first measuring line, wherein the first measuring line and the first compensation line are arranged in such a manner that a temperature acting on the first measuring line and/or a mechanical action acting on the first measuring line act(s) equally on the compensation line.
A multiplex method for co-detecting CD79a protein, TP53 genomic DNA, and chromosome 17 centromere DNA in a sample on a single slide, said method comprising: staining the CD79a protein by contacting the sample with a CD79a protein-specific antibody and contacting the sample with a first chromogen component for the CD79a protein-specific antibody, the first chromogen component is adapted to emit or make visible a first color, wherein the presence of the first color indicates the presence of the CD79a protein; and staining TP53 genomic DNA and staining chromosome 17 centromere DNA by contacting the sample with a TP53 genomic DNA-specific nucleic acid probe and with a chromosome 17 centromere DNA-specific nucleic acid probe, and contacting the sample with a second chromogen component for the TP53 genomic DNA-specific nucleic acid probe and with a third chromogen component for the chromosome 17 centromere DNA-specific nucleic acid probe, the second chromogen component is adapted to emit or make visible a second color and the third chromogen component is adapted to emit or make visible a third color, wherein the presence of the second color indicates the presence of TP53 genomic DNA and the presence of the third color indicates the presence of chromosome 17 centromere DNA. staining the CD79a protein by contacting the sample with a CD79a protein-specific antibody and contacting the sample with a first chromogen component for the CD79a protein-specific antibody, the first chromogen component is adapted to emit or make visible a first color, wherein the presence of the first color indicates the presence of the CD79a protein; and staining TP53 genomic DNA and staining chromosome 17 centromere DNA by contacting the sample with a TP53 genomic DNA-specific nucleic acid probe and with a chromosome 17 centromere DNA-specific nucleic acid probe, and contacting the sample with a second chromogen component for the TP53 genomic DNA-specific nucleic acid probe and with a third chromogen component for the chromosome 17 centromere DNA-specific nucleic acid probe, the second chromogen component is adapted to emit or make visible a second color and the third chromogen component is adapted to emit or make visible a third color, wherein the presence of the second color indicates the presence of TP53 genomic DNA and the presence of the third color indicates the presence of chromosome 17 centromere DNA.
A combination of a cartridge piston with a cartridge adapted for insertion of the cartridge piston into it, said cartridge having a circular inner cross section and the cartridge piston comprising a tubular piston body having a longitudinal central axis, said piston body having a surrounding side wall and being closed at its front end by a piston end face, said side wall being provided with at least one flexible sealing lip, characterized in that said side wall of the cartridge piston comprises a surrounding wall portion whose radiant as defined relative to the longitudinal central axis is provided with variations in the circumferential direction.
A side brush for a robotic cleaner, the side brush being rotatable about a rotation axis in a rotational direction and comprising a brush body and numerous linear bristles including a first bristle having a base end at the brush body and an opposite distal end, wherein the numerous bristles extend freely from the brush body to their respective distal ends, wherein the rotation axis extends centrally through the brush body and an imaginary line extends perpendicularly to the rotation axis, wherein the first bristle is arranged with its base end at a distance from the rotation axis on the imaginary line extending in a bristle direction outwardly from the brush body, and wherein seen in a side view, along the imaginary line, the bristle direction extends at a second acute angle (β) to the rotation axis pointing away from the brush body, characterised in that seen in a top view, along the rotation axis, the bristle direction extends at a first angle (α) to the imaginary line with the distal end pointing rearwardly in relation to the rotational direction.
A metallic matrix composite, comprising: a titanium aluminide alloy matrix; and an in situ formed aluminum oxide reinforcement, wherein the titanium aluminide alloy matrix comprises at least two titanium aluminide phases, and wherein the atomic percentage of aluminum in the titanium aluminide alloy matrix ranges from 40.0% to 48.0%, wherein quantities of the titanium aluminide phases in the form of TiAl and Ti 3 Al and the aluminum oxide phase in the form of Al 2 O 3 are selected in molar equivalents in accordance with the following formula: 3(1 - 2 x) TiAl + 3 xTi 3 Al + 2(1 + x) Al 2 O 3. wherein x ranges from 0.04 to 0.20, and wherein porosity is 2% or less as determined by comparing the measured density to the theoretical density of the composite. a titanium aluminide alloy matrix; and an in situ formed aluminum oxide reinforcement, wherein the titanium aluminide alloy matrix comprises at least two titanium aluminide phases, and wherein the atomic percentage of aluminum in the titanium aluminide alloy matrix ranges from 40.0% to 48.0%, wherein quantities of the titanium aluminide phases in the form of TiAl and Ti 3 Al and the aluminum oxide phase in the form of Al 2 O 3 are selected in molar equivalents in accordance with the following formula: 3(1 - 2 x) TiAl + 3 xTi 3 Al + 2(1 + x) Al 2 O 3. wherein x ranges from 0.04 to 0.20, and wherein porosity is 2% or less as determined by comparing the measured density to the theoretical density of the composite.
An image processing apparatus comprising: an additional image generation unit configured to generate an additional image to be added to moving image data; an image editing processing unit configured to perform image editing processing of adding the additional image to the moving image data, using depth information of the pixels in the moving image data to which the additional image is to be added; characterized by an editing operation image generation unit configured to generate an editing operation image in which a time axis and a depth axis of a moving image are expressed as a user interface image for editing the additional image added to the moving image data, wherein the user interface image allows a depth of the additional image to be adjusted. an additional image generation unit configured to generate an additional image to be added to moving image data; an image editing processing unit configured to perform image editing processing of adding the additional image to the moving image data, using depth information of the pixels in the moving image data to which the additional image is to be added; characterized by an editing operation image generation unit configured to generate an editing operation image in which a time axis and a depth axis of a moving image are expressed as a user interface image for editing the additional image added to the moving image data, wherein the user interface image allows a depth of the additional image to be adjusted.
A method of routing non-native Short Message Service messages to a first device, the first device being assigned a native network identifier and being associated with a native telephony service provider, the method comprising (a) receiving an SMS message directed to the native network identifier of the first device; (b) determining routing instructions for the SMS message based on the native network identifier associated with the first device, wherein determining routing instructions includes performing a search to determine if the native network identifier is associated with a subscriber of the first non-native communication service provider; and (c) routing the SMS message to the first device based on the determined routing instructions, wherein the act of routing results in SMS messages directed to the native identifier of the first device being directed to a forwarding identifier assigned to the first device by a first non-native communication service provider. (a) receiving an SMS message directed to the native network identifier of the first device; (b) determining routing instructions for the SMS message based on the native network identifier associated with the first device, wherein determining routing instructions includes performing a search to determine if the native network identifier is associated with a subscriber of the first non-native communication service provider; and (c) routing the SMS message to the first device based on the determined routing instructions, wherein the act of routing results in SMS messages directed to the native identifier of the first device being directed to a forwarding identifier assigned to the first device by a first non-native communication service provider.
A waste heat recovery apparatus comprising: an evaporator configured to turn a liquid-phase refrigerant into steam through heat exchange with exhaust gas of an internal combustion engine; an expander configured to expand a gas-phase refrigerant passed through the evaporator to recover heat energy; a condenser configured to condense the gas-phase refrigerant passed through the expander such that the gas-phase refrigerant returns to the liquid-phase refrigerant; a liquid-phase refrigerant supply device configured to supply the liquid-phase refrigerant delivered from the condenser, to the evaporator; and a control device configured to control the liquid-phase refrigerant supply device so as to adjust an amount of the liquid-phase refrigerant to be supplied to the evaporator, characterised in that the control device is configured to control the liquid-phase refrigerant supply device so as to bring the supply of the liquid-phase refrigerant by the liquid-phase refrigerant supply device into a stopped state at least until an amount of the liquid-phase refrigerant stored in the evaporator becomes equal to or lower than a predetermined low refrigerant amount, during operation of the internal combustion engine. an evaporator configured to turn a liquid-phase refrigerant into steam through heat exchange with exhaust gas of an internal combustion engine; an expander configured to expand a gas-phase refrigerant passed through the evaporator to recover heat energy; a condenser configured to condense the gas-phase refrigerant passed through the expander such that the gas-phase refrigerant returns to the liquid-phase refrigerant; a liquid-phase refrigerant supply device configured to supply the liquid-phase refrigerant delivered from the condenser, to the evaporator; and a control device configured to control the liquid-phase refrigerant supply device so as to adjust an amount of the liquid-phase refrigerant to be supplied to the evaporator, characterised in that the control device is configured to control the liquid-phase refrigerant supply device so as to bring the supply of the liquid-phase refrigerant by the liquid-phase refrigerant supply device into a stopped state at least until an amount of the liquid-phase refrigerant stored in the evaporator becomes equal to or lower than a predetermined low refrigerant amount, during operation of the internal combustion engine.
A device comprising: a substrate having a device-side and a backside opposite the device-side; an optical ring resonator located on the device-side of the substrate; a heater having a shape complementary to the optical ring resonator, the heater positioned to heat the optical ring resonator; one or more metal traces that connect at least to the heater, the metal traces configured to provide power to the heater and extending outward from the heater; and, a recess on the backside of the substrate, the recess centered on the optical ring resonator, and having a diameter larger than both respective outer diameters of the optical ring resonator and the heater, the recess further extending laterally into a region of the one or more metal traces, the recess extending from the backside of the substrate to a layer of material at a side of the recess adjacent the device-side of the substrate such that the substrate is hollow from the backside of the substrate to the layer of material at the side of the recess adjacent the device-side of the substrate. a substrate having a device-side and a backside opposite the device-side; an optical ring resonator located on the device-side of the substrate; a heater having a shape complementary to the optical ring resonator, the heater positioned to heat the optical ring resonator; one or more metal traces that connect at least to the heater, the metal traces configured to provide power to the heater and extending outward from the heater; and, a recess on the backside of the substrate, the recess centered on the optical ring resonator, and having a diameter larger than both respective outer diameters of the optical ring resonator and the heater, the recess further extending laterally into a region of the one or more metal traces, the recess extending from the backside of the substrate to a layer of material at a side of the recess adjacent the device-side of the substrate such that the substrate is hollow from the backside of the substrate to the layer of material at the side of the recess adjacent the device-side of the substrate.
The use of a lyocell fibre in a product comprising a non-woven substrate and a liquid containing a compound with a quaternary ammonium salt, wherein said lyocell fibre is contained in said non-woven substrate, characterized in that said lyocell fibre contains an essentially water-insoluble salt incorporated in said fibre in an amount of from 1 wt.% to 10 wt.%, based on the weight of the dry fibre, wherein said salt has a solubility in water at 15°C to 25°C of 5 g/l or less, such as 3 g/l or less, 1 g/l or less, preferably less than 0.1 g/l, and wherein said salt is soluble under acidic conditions.