mhurhangee/ep-ind-claims huggingface dataset:
A p-type Tunnel Field-Effect Transistor (p-TFET) comprising: a drain p-type semiconductor region, a source n-type semiconductor region, a channel between the drain p-type semiconductor region and the source n-type semiconductor region, at least one gate stack, a source contact which is provided in contact with the source n-type semiconductor region wherein the source n-type semiconductor region comprises a lowly doped section with a length of at least 10 nm, the length being measured from the source contact towards a highly doped section, and with a doping level of n-type dopant elements below 5×10 18 at/cm 3, wherein the lowly doped section is in contact with the highly doped section, wherein the highly doped section has a height between 1 monolayer and 20 nm, the height being measured from the gate stack towards the centre of the source n-type semiconductor region, and has a doping level of n-type dopant elements above 5×10 18 at/cm 3, wherein the at least one gate stack at least partially overlaps the channel and extends over the highly doped section, wherein the highly doped section is selectively provided at the junction between the lowly doped section and the channel wherein the highly doped section does not extend up to the source contact, and wherein the lowly doped section and the channel are in direct contact. a drain p-type semiconductor region, a source n-type semiconductor region, a channel between the drain p-type semiconductor region and the source n-type semiconductor region, at least one gate stack, a source contact which is provided in contact with the source n-type semiconductor region wherein the source n-type semiconductor region comprises a lowly doped section with a length of at least 10 nm, the length being measured from the source contact towards a highly doped section, and with a doping level of n-type dopant elements below 5×10 18 at/cm 3, wherein the lowly doped section is in contact with the highly doped section, wherein the highly doped section has a height between 1 monolayer and 20 nm, the height being measured from the gate stack towards the centre of the source n-type semiconductor region, and has a doping level of n-type dopant elements above 5×10 18 at/cm 3, wherein the at least one gate stack at least partially overlaps the channel and extends over the highly doped section, wherein the highly doped section is selectively provided at the junction between the lowly doped section and the channel wherein the highly doped section does not extend up to the source contact, and wherein the lowly doped section and the channel are in direct contact.
A portable laundry treating apparatus comprising: a portable body; a liquid storage part (4, 5 including a tank body provided at the portable body, a water chamber provided in the tank body to store water therein, a detergent chamber provided in the tank body to store detergent therein, and a suction chamber provided in the tank body to provide a space to store liquid therein; and a liquid transferring part for supplying liquid stored in the water chamber and the detergent chamber to the laundry and for transferring the liquid remaining in the laundry to the suction chamber; and a nozzle part configured to spray liquid stored in the water chamber and the detergent chamber and to introduce the liquid existing outside the suction chamber into the suction chamber, wherein the tank body is removably coupled to the portable body. a portable body; a liquid storage part (4, 5 including a tank body provided at the portable body, a water chamber provided in the tank body to store water therein, a detergent chamber provided in the tank body to store detergent therein, and a suction chamber provided in the tank body to provide a space to store liquid therein; and a liquid transferring part for supplying liquid stored in the water chamber and the detergent chamber to the laundry and for transferring the liquid remaining in the laundry to the suction chamber; and a nozzle part configured to spray liquid stored in the water chamber and the detergent chamber and to introduce the liquid existing outside the suction chamber into the suction chamber, wherein the tank body is removably coupled to the portable body.
Method for detecting unbalance of a wheel of a vehicle (21, 22, 23, 24), comprising the steps: - determining an acceleration signal, - determining a rotational frequency of the wheel (21, 22, 23, 24), - calculating a frequency spectrum of the acceleration signal, the frequency spectrum comprising a number of amplitudes, wherein each amplitude corresponds to a frequency, and characterized in that the method further comprises a step of - detecting unbalance if an amplitude corresponding to a measurement frequency exceeds a predetermined threshold, the measurement frequency having a predetermined relation to the rotational frequency, wherein the measurement frequency has a predetermined positive or negative distance from the rotational frequency, wherein the predetermined relation is such that the measurement frequency or a plurality of measurement frequencies have a distance from the rotational frequency that is less than a predetermined amount, and wherein the acceleration signal is determined by acceleration sensors that are used to control airbags. - determining an acceleration signal, - determining a rotational frequency of the wheel (21, 22, 23, 24), - calculating a frequency spectrum of the acceleration signal, the frequency spectrum comprising a number of amplitudes, wherein each amplitude corresponds to a frequency, and characterized in that the method further comprises a step of - detecting unbalance if an amplitude corresponding to a measurement frequency exceeds a predetermined threshold, the measurement frequency having a predetermined relation to the rotational frequency, wherein the measurement frequency has a predetermined positive or negative distance from the rotational frequency, wherein the predetermined relation is such that the measurement frequency or a plurality of measurement frequencies have a distance from the rotational frequency that is less than a predetermined amount, and wherein the acceleration signal is determined by acceleration sensors that are used to control airbags.
A dimeric fusion polypeptide comprising a first fusion polypeptide specifically binding to a target comprising a first part of a binding domain, a second part of a binding domain and a spacer domain, wherein - the spacer domain is a polypeptide and comprises at least 25 amino acid residues, - the first part of the binding domain is a polypeptide that is fused either directly or via a first linker to the N-terminus of the spacer domain, - the second part of the binding domain is a polypeptide that is fused either directly or via a second linker to the C-terminus of the spacer domain, - the first part of the binding domain and the second part of the binding domain of the same single chain fusion polypeptide associate and form a functional binding site that specifically binds to the target, and a second fusion polypeptide specifically binding to a target comprising a first part of a binding domain, a second part of a binding domain and a spacer domain, wherein - the spacer domain is a polypeptide and comprises at least 25 amino acid residues, - the first part of the binding domain is a polypeptide that is fused either directly or via a first linker to the N-terminus of the spacer domain, - the second part of the binding domain is a polypeptide that is fused either directly or via a second linker to the C-terminus of the spacer domain, - the first part of the binding domain and the second part of the binding domain of the same single chain fusion polypeptide associate and form a functional binding site that specifically binds to the target, wherein the first and the second fusion polypeptide are identical or different and wherein the spacer domain of the first fusion polypeptide is covalently conjugated to the spacer domain of the second fusion polypeptide. - the spacer domain is a polypeptide and comprises at least 25 amino acid residues, - the first part of the binding domain is a polypeptide that is fused either directly or via a first linker to the N-terminus of the spacer domain, - the second part of the binding domain is a polypeptide that is fused either directly or via a second linker to the C-terminus of the spacer domain, - the first part of the binding domain and the second part of the binding domain of the same single chain fusion polypeptide associate and form a functional binding site that specifically binds to the target, - the spacer domain is a polypeptide and comprises at least 25 amino acid residues, - the first part of the binding domain is a polypeptide that is fused either directly or via a first linker to the N-terminus of the spacer domain, - the second part of the binding domain is a polypeptide that is fused either directly or via a second linker to the C-terminus of the spacer domain, - the first part of the binding domain and the second part of the binding domain of the same single chain fusion polypeptide associate and form a functional binding site that specifically binds to the target,
Method for preventing ignition of combustible temperature-control media in centrifuges, wherein the centrifuge, which is configured in particular as a laboratory centrifuge, comprises a centrifuge container in which a centrifuge rotor can be accommodated, a centrifuge motor for driving the centrifuge rotor, a temperature-control means with an evaporator and a compressor for controlling the temperature of the centrifuge rotor, and a housing, in which the centrifuge container, the centrifuge rotor, the temperature-control means and the centrifuge motor are accommodated, wherein the temperature-control means comprise a combustible temperature-control medium which is guided in a temperature-control media line, wherein the pressure in the evaporator is monitored in order to determine whether it lies below a specified minimum pressure and/or above a specified maximum pressure, characterised in that a fan of the centrifuge is started once an electrical power supply of the centrifuge has been switched on and the flow from the fan passes over a temperature-control medium line at least in some regions and/or through at least one cavity in the centrifuge such that the resulting exhaust air is conveyed out of the housing of the centrifuge.
A method for diagnosing lung cancer in a subject, the method comprising: (a) generating circulating tumor cell data from a blood sample obtained from the subject based on a direct analysis of CTCs detected in the context of surrounding nucleated cells present in the sample in the absence of enrichment of the CTCs prior to detection, comprising immunofluorescent staining and morphological characteristics of nucleated cells in said sample, wherein CTCs are identified in the context of surrounding nucleated cells based on a combination of said immunofluorescent staining and morphological characteristics, wherein the generation of said CTC data comprises enumeration of CTCs in the blood sample, and wherein a positive diagnosis of lung cancer comprises detection of at least 7.5 CTCs/mL of blood; (b) obtaining clinical data for said subject; and (c) combining said CTC data with said clinical data to diagnose lung cancer in said subject. (a) generating circulating tumor cell data from a blood sample obtained from the subject based on a direct analysis of CTCs detected in the context of surrounding nucleated cells present in the sample in the absence of enrichment of the CTCs prior to detection, comprising immunofluorescent staining and morphological characteristics of nucleated cells in said sample, wherein CTCs are identified in the context of surrounding nucleated cells based on a combination of said immunofluorescent staining and morphological characteristics, wherein the generation of said CTC data comprises enumeration of CTCs in the blood sample, and wherein a positive diagnosis of lung cancer comprises detection of at least 7.5 CTCs/mL of blood; (b) obtaining clinical data for said subject; and (c) combining said CTC data with said clinical data to diagnose lung cancer in said subject.
A three-axis hinge assembly (100, 500) for an electronics enclosure, comprising: - a first hinge component (110, 510) comprising a pin member portion (120, 520) and a leaf portion (130, 530) terminating in a first knuckle (140, 540) and a second knuckle (150, 550), the first knuckle (140, 540) comprising a first protrusion and the second knuckle (150, 550) comprising a first recess; and - a second hinge component (110, 510), the second hinge component (110, 510) rotatably coupled to the first hinge component (110, 510) and structurally identical to the first hinge component (110, 510); wherein the first protrusion of the first hinge component (110, 510) is configured to fit within the first recess of the second hinge component (110, 510), and the first protrusion of the second hinge component (110, 510) is configured to fit within the first recess of the first hinge component (110, 510), wherein the pin member portion (120, 520) is configured to permit the first hinge component (110, 510) and the second hinge component (110, 510) to pivotally couple to an electronic device comprising a first device enclosure component (210, 710, 810, 1010) and a second device enclosure component (220, 720, 820, 1020) via a snap fit assembly process, and wherein the pin member portion (120, 520) is configured to pivotally couple to a plurality of hinge receiving features (230, 240, 730, 740, 850, 860) located on the first device enclosure component (210, 710, 810, 1010) and the second device enclosure component (220, 720, 820, 1020). - a first hinge component (110, 510) comprising a pin member portion (120, 520) and a leaf portion (130, 530) terminating in a first knuckle (140, 540) and a second knuckle (150, 550), the first knuckle (140, 540) comprising a first protrusion and the second knuckle (150, 550) comprising a first recess; and - a second hinge component (110, 510), the second hinge component (110, 510) rotatably coupled to the first hinge component (110, 510) and structurally identical to the first hinge component (110, 510);
Electrically conductive fabric, comprising - a set of electrically conductive yarns in warp direction of the fabric; - a set of electrically conductive yarns in the weft direction of the fabric; - a set of electrically non-conductive yarns in the warp direction of the fabric; - a set of electrically non-conductive yarns in the weft direction of the fabric; - a set of binding yarns in the warp direction of the fabric, the binding yarns are uniformly distributed over the width of the fabric, and wherein the set binding yarns provides by means of a leno weave with the set of electrically conductive yarns in warp direction the connection in the fabric between the set of electrically conductive yarns in warp direction and the set of electrically conductive yarns in weft direction; characterized in that the yarns of the set of electrically conductive yarns in warp direction of the fabric are uniformly distributed over the width of the fabric; the density of the set of electrically conductive yarns in the warp direction and the density of the set of electrically conductive yarns in weft direction are substantially equal; and the electrically conductive yarns in the warp direction and in the weft direction have the same electrical conductivity. - a set of electrically conductive yarns in warp direction of the fabric; - a set of electrically conductive yarns in the weft direction of the fabric; - a set of electrically non-conductive yarns in the warp direction of the fabric; - a set of electrically non-conductive yarns in the weft direction of the fabric; - a set of binding yarns in the warp direction of the fabric, the binding yarns are uniformly distributed over the width of the fabric,
Casting apparatus (100; 101; 102; 103) for the production of a cast sheet of a material containing alkaloids, the casting apparatus (100; 101; 102; 103) comprising: • a casting box adapted to contain a slurry of the material containing alkaloids; • a slurry supply element adapted to feed the slurry to the casting box; • a movable support; • a casting blade adapted to cast the slurry contained in the casting box onto the movable support so as to form the cast sheet; and • path diverting fins (12; 13) adapted to come into contact with the slurry and placed within the casting box. • a casting box adapted to contain a slurry of the material containing alkaloids; • a slurry supply element adapted to feed the slurry to the casting box; • a movable support; • a casting blade adapted to cast the slurry contained in the casting box onto the movable support so as to form the cast sheet; and • path diverting fins (12; 13) adapted to come into contact with the slurry and placed within the casting box.
An alloy composition comprising: a blend of a first alloy, a second alloy and optionally at least one additional alloy having a composition that falls within the broad ranges of the first alloy, the first alloy having a first composition consisting of 16.5wt% - 25.5wt% of chromium, 5.5wt% - 13.0wt% of aluminum, 17.5wt% - 22.5wt% of cobalt, up to 4.5wt% of tantalum, up to 8.5wt% of tungsten, up to 0.5wt% of silicon, 0.225wt% - 1.1 wt% of hafnium, 0.075wt% - 1.1wt% of yttrium, and a balance of nickel with unavoidable impurities, and the second alloy is 10-40wt% of the total weight of the blend, the second alloy having a second composition consisting of 21.0wt% - 23.0wt% of chromium, 5.5wt% - 6.5wt% of aluminum, 11.0wt% - 13.0wt% of cobalt, 5.5wt% - 6.5wt% of silicon, boron in an amount no greater than 1.0wt%, and a balance of nickel with unavoidable impurities, wherein the blend of the first alloy, the second alloy and the optional at least one additional alloy has a combined composition consisting of 17.0wt% - 24.5wt% of chromium, 5.7wt% - 10.9wt% of aluminum, 2.75wt% - 23.5wt% of cobalt, 1.25wt% - 3.9wt% of silicon, 0.09wt% - 0.2wt% of boron, up to 0.167wt% of hafnium, 0.06wt% - 0.8wt% of yttrium, and a balance of nickel with unavoidable impurities. a blend of a first alloy, a second alloy and optionally at least one additional alloy having a composition that falls within the broad ranges of the first alloy, the first alloy having a first composition consisting of 16.5wt% - 25.5wt% of chromium, 5.5wt% - 13.0wt% of aluminum, 17.5wt% - 22.5wt% of cobalt, up to 4.5wt% of tantalum, up to 8.5wt% of tungsten, up to 0.5wt% of silicon, 0.225wt% - 1.1 wt% of hafnium, 0.075wt% - 1.1wt% of yttrium, and a balance of nickel with unavoidable impurities, and the second alloy is 10-40wt% of the total weight of the blend, the second alloy having a second composition consisting of 21.0wt% - 23.0wt% of chromium, 5.5wt% - 6.5wt% of aluminum, 11.0wt% - 13.0wt% of cobalt, 5.5wt% - 6.5wt% of silicon, boron in an amount no greater than 1.0wt%, and a balance of nickel with unavoidable impurities, wherein the blend of the first alloy, the second alloy and the optional at least one additional alloy has a combined composition consisting of 17.0wt% - 24.5wt% of chromium, 5.7wt% - 10.9wt% of aluminum, 2.75wt% - 23.5wt% of cobalt, 1.25wt% - 3.9wt% of silicon, 0.09wt% - 0.2wt% of boron, up to 0.167wt% of hafnium, 0.06wt% - 0.8wt% of yttrium, and a balance of nickel with unavoidable impurities.
A wireless power transmitter adapted to wirelessly transmit power to a wireless power receiver, the wireless power transmitter comprising: a power source configured to generate power and to input an input voltage (Vrms) to the wireless power transmitter; a transmission coil configured to wirelessly transmit the power to a reception coil included in the wireless power receiver; a detecting unit, and a power control unit, characterized in that the detecting unit is configured to measure a first input impedance seen by the power source to the wireless power transmitter and to detect a coupling coefficient between the transmission coil and a reception coil based on the measured first input impedance, the power control unit is configured to control the power source to change the input voltage (Vrms) according to the detected coupling coefficient such that the power transmitted from the wireless power transmitter to the wireless power receiver is kept at a predetermined level. a power source configured to generate power and to input an input voltage (Vrms) to the wireless power transmitter; a transmission coil configured to wirelessly transmit the power to a reception coil included in the wireless power receiver; a detecting unit, and a power control unit, characterized in that the detecting unit is configured to measure a first input impedance seen by the power source to the wireless power transmitter and to detect a coupling coefficient between the transmission coil and a reception coil based on the measured first input impedance, the power control unit is configured to control the power source to change the input voltage (Vrms) according to the detected coupling coefficient such that the power transmitted from the wireless power transmitter to the wireless power receiver is kept at a predetermined level.
A method of wireless communication to account for varying latency requirements, comprising: configuring a carrier with a first region (380a, 380b, 380c) having a first symbol duration and a second region (385a, 385b, 385c) having a second symbol duration different from the first symbol duration, wherein the first and second regions are time-division multiplexed, TDM, or frequency-division multiplexed, FDM; and communicating with a user equipment, UE, using the first or second region based at least in part on a latency requirement of the UE, wherein the region of shorter symbol duration of the first or second regions is used for low latency traffic of the UE, and wherein a symbol comprises an orthogonal frequency-division multiplexing, OFDM, or a single carrier frequency division multiplex, SC-FDM, symbol. configuring a carrier with a first region (380a, 380b, 380c) having a first symbol duration and a second region (385a, 385b, 385c) having a second symbol duration different from the first symbol duration, wherein the first and second regions are time-division multiplexed, TDM, or frequency-division multiplexed, FDM; and communicating with a user equipment, UE, using the first or second region based at least in part on a latency requirement of the UE, wherein the region of shorter symbol duration of the first or second regions is used for low latency traffic of the UE, and wherein a symbol comprises an orthogonal frequency-division multiplexing, OFDM, or a single carrier frequency division multiplex, SC-FDM, symbol.