mhurhangee/ep-ind-claims huggingface dataset:
A heat-transfer device, comprising: an evaporator and a condenser with at least one fluid-guide to passively guide condensate in a direction of the evaporator, wherein the fluid-guide has at least one guide-structure protruding from a condenser wall of the condenser, characterised in that the fluid-guide has a capillary channel between two guide-structures, wherein the capillary channel has an upward slope in the direction of the evaporator.
Power unit, in particular for a hybrid vehicle, having a two-cylinder reciprocating engine, which has two pistons (3, 4) that are guided in two cylinders (1, 2) in a tandem arrangement, and two counter-rotating crankshafts (7, 8), which are connected to the pistons (3, 4) by means of connecting rods (5, 6), and having an generator, which is rotatable in a counter-rotating manner to the first crankshaft and synchronously with the second crankshaft, characterized in that the generator is drive-connected to at least the first crankshaft via a traction means and has a compensation mass, wherein the first crankshaft is connected via a timing chain or a timing belt to a compensation shaft, which has a further compensation mass, wherein the traction means is a toothed chain with gear teeth on both sides, and wherein an outer side of the toothed chain is in engagement with a chain wheel of the first crankshaft and an inner side is in engagement with a chain wheel of the second crankshaft.
A composite forming tool comprising; first and second leg portions connected to respective foot portions; third and fourth leg portions, connected to the first and second leg portions (22, 23), respectively; and an interconnect portion extending between and connecting the third and fourth leg portions (24, 25), wherein the first and second leg portions (22, 23) of the composite forming tool comprise a material that is less thermally expansive than a material that forms the third and fourth leg portions (24, 25) and the interconnection portion; characterised in that: the first and second leg portions (22,23) are connected at one end to the foot portions and at their other end to the respective third and fourth leg portions (24, 25), and the third and fourth leg portions (24,25) are connected at their other end to the interconnect portion. the first and second leg portions (22,23) are connected at one end to the foot portions and at their other end to the respective third and fourth leg portions (24, 25), and the third and fourth leg portions (24,25) are connected at their other end to the interconnect portion.
Electromagnetically actuable suction valve for a high pressure pump of a fuel injection system, in particular of a common rail injection system, comprising a magnet coil for acting on an armature which is received and guided such that it can be moved with a reciprocating movement in a central recess of a valve body, a pole core which is connected via a sleeve to the valve body lying opposite the armature at a working air gap, characterized in that the valve body has a circumferential cutout within an inner circumferential face which delimits the recess, which cutout divides the inner circumferential face into an upper and a lower guide region (10, 11), wherein the sleeve is welded to the valve body at the level of the circumferential cutout.
Process for the fabrication of glass containers provided with an internally threaded neck comprising the steps of: a) feeding a gob of molten glass inside a chamber of a first mold equipped with a plunger having at least one helical rib or groove on its outside surface; b) extracting the plunger from the glass by a roto-translationai motion, wherein said plunger is rotated around a longitudinal axis (X-X) while being longitudinally extracted, in order to unscrew the plunger from the glass, leaving a threaded imprint in the glass portion corresponding to the mouth of the container to be produced; c) blowing air in the mouth until the container is formed; wherein the roto-translational motion for the extraction of the plunger in step b) is generated by: a linear actuator acting on the plunger, thereby effecting a linear movement of the plunger along said longitudinal axis (X-X), a guide body, wherein the plunger is moved relative to the guide body along said longitudinal axis (X-X), and a helical guide (16, 17) coaxial to the longitudinal axis (X-X) and being provided between said guide body and said plunger and directly transforming said linear movement effected by said linear actuator on said plunger into said roto-translational motion of said plunger. a) feeding a gob of molten glass inside a chamber of a first mold equipped with a plunger having at least one helical rib or groove on its outside surface; b) extracting the plunger from the glass by a roto-translationai motion, wherein said plunger is rotated around a longitudinal axis (X-X) while being longitudinally extracted, in order to unscrew the plunger from the glass, leaving a threaded imprint in the glass portion corresponding to the mouth of the container to be produced; c) blowing air in the mouth until the container is formed; wherein the roto-translational motion for the extraction of the plunger in step b) is generated by: a linear actuator acting on the plunger, thereby effecting a linear movement of the plunger along said longitudinal axis (X-X), a guide body, wherein the plunger is moved relative to the guide body along said longitudinal axis (X-X), and a helical guide (16, 17) coaxial to the longitudinal axis (X-X) and being provided between said guide body and said plunger and directly transforming said linear movement effected by said linear actuator on said plunger into said roto-translational motion of said plunger. a linear actuator acting on the plunger, thereby effecting a linear movement of the plunger along said longitudinal axis (X-X), a guide body, wherein the plunger is moved relative to the guide body along said longitudinal axis (X-X), and a helical guide (16, 17) coaxial to the longitudinal axis (X-X) and being provided between said guide body and said plunger and directly transforming said linear movement effected by said linear actuator on said plunger into said roto-translational motion of said plunger.
An inductive component comprising: a magnetic core assembly comprising a first portion (7, 8) and a second portion (9, 9a, 9b; 11, 11a, 11b), which is magnetically separated from the first portion (7, 8) of the magnetic core assembly via two or more air gaps (δ), the second portion (9, 9a, 9b; 11, 11a, 11b) of the magnetic core assembly including a gap-free first ring core (11, 11a, 11b) and a gap-free second ring core (9, 9a, 9b) that are arranged on opposing sides of the first portion (7, 8) of the magnetic core assembly, whereby the first portion (7, 8) is separated from the second portion (11, 11a, 11b) in that the at least at two air gaps (δ) are provided between the first ring core (11, 11b) and the first portion (7, 8), and whereby the first portion (7, 8) is separated from the second portion (9, 9a, 9b) in that the at least two air gaps (δ) are provided between the second ring core (9, 9b) and the first portion (7, 8); an inductor with a variable inductance including a first coil (6; 6a, 6b) that is arranged on the first portion (7, 8) of the magnetic core assembly; a second coil (5, 5a, 5b) arranged on the second portion (9, 11) of the magnetic core assembly and configured to generate a bias magnetic field in the second portion (9, 9a, 9b; 11, 11a, 11b) of the magnetic core assembly, wherein the first coil is configured to generate a magnetic flux in a magnetic path that includes the first portion (7, 8) of the magnetic core assembly, the two or more air gaps (δ) and a part of the second portion (9a, 11a) of the magnetic core assembly. a magnetic core assembly comprising a first portion (7, 8) and a second portion (9, 9a, 9b; 11, 11a, 11b), which is magnetically separated from the first portion (7, 8) of the magnetic core assembly via two or more air gaps (δ), the second portion (9, 9a, 9b; 11, 11a, 11b) of the magnetic core assembly including a gap-free first ring core (11, 11a, 11b) and a gap-free second ring core (9, 9a, 9b) that are arranged on opposing sides of the first portion (7, 8) of the magnetic core assembly, whereby the first portion (7, 8) is separated from the second portion (11, 11a, 11b) in that the at least at two air gaps (δ) are provided between the first ring core (11, 11b) and the first portion (7, 8), and whereby the first portion (7, 8) is separated from the second portion (9, 9a, 9b) in that the at least two air gaps (δ) are provided between the second ring core (9, 9b) and the first portion (7, 8); an inductor with a variable inductance including a first coil (6; 6a, 6b) that is arranged on the first portion (7, 8) of the magnetic core assembly; a second coil (5, 5a, 5b) arranged on the second portion (9, 11) of the magnetic core assembly and configured to generate a bias magnetic field in the second portion (9, 9a, 9b; 11, 11a, 11b) of the magnetic core assembly, wherein the first coil is configured to generate a magnetic flux in a magnetic path that includes the first portion (7, 8) of the magnetic core assembly, the two or more air gaps (δ) and a part of the second portion (9a, 11a) of the magnetic core assembly.
A method for a 5G user equipment, UE, the method comprising: reporting capability information relating to blind detection, BD, and/or control channel elements,CCE, indicating one or more tuples, wherein each of the one or more tuples indicates a number of serving cells configured for per-slot monitoring and a number of serving cells configured for per-span monitoring that the UE is capable of supporting; receiving an indication in response to the capability information; determining a pair of values based on the indication, wherein a first value in the pair of values is a maximum number of serving cells configured for per-slot monitoring, and a second value in the pair of values is a maximum number of serving cells configured for per-span monitoring; determining a BD/CCE limit per slot based on the first value in the pair of values; and determining a BD/CCE limit per span based on the second value in the pair of values, where a span is a time unit within and smaller than a slot. reporting capability information relating to blind detection, BD, and/or control channel elements,CCE, indicating one or more tuples, wherein each of the one or more tuples indicates a number of serving cells configured for per-slot monitoring and a number of serving cells configured for per-span monitoring that the UE is capable of supporting; receiving an indication in response to the capability information; determining a pair of values based on the indication, wherein a first value in the pair of values is a maximum number of serving cells configured for per-slot monitoring, and a second value in the pair of values is a maximum number of serving cells configured for per-span monitoring; determining a BD/CCE limit per slot based on the first value in the pair of values; and determining a BD/CCE limit per span based on the second value in the pair of values, where a span is a time unit within and smaller than a slot.
A cooktop having a gas burner unit, comprising: a spreader positioned above a top surface of the cooktop, the spreader having a plurality of gas outlets; a venturi in fluid communication with the gas outlets; and an orifice holder having a plurality of protrusions defining a plurality of upwardly directed primary air inlets, wherein the plurality of upwardly directed primary air inlets are in fluid communication with the venturi, wherein the orifice holder has a main body portion in which a gas orifice is mechanically secured in coaxial alignment with the venturi, wherein the main body portion is in fluid connection with the venturi, and wherein the plurality of upwardly directed primary air inlets are immediately adjacent a central cylindrical portion of the orifice holder. a spreader positioned above a top surface of the cooktop, the spreader having a plurality of gas outlets; a venturi in fluid communication with the gas outlets; and an orifice holder having a plurality of protrusions defining a plurality of upwardly directed primary air inlets, wherein the plurality of upwardly directed primary air inlets are in fluid communication with the venturi, wherein the orifice holder has a main body portion in which a gas orifice is mechanically secured in coaxial alignment with the venturi, wherein the main body portion is in fluid connection with the venturi, and wherein the plurality of upwardly directed primary air inlets are immediately adjacent a central cylindrical portion of the orifice holder.
A display device for a photometric analyzer which is configured to irradiate a sample with excitation light to analyze the sample and comprises a detector configured to detect an electrical signal of light emitted from the sample and an imaging device configured to take and acquire at least one sample image, the display device being configured to display a measurement result of the photometric analyzer, said photometric analyzer further comprising a data processor including a controller; and an operation device connected with the controller, and including a display, which is configured to display on a screen an image based on the measurement result processed by the controller, wherein said image at least contains a spectrum indicating an intensity of the light, which is emitted from the sample by irradiating the sample with excitation light from the photometric analyzer and by changing the wavelength of the excitation light or the measurement time, and sample images of the sample, which are taken by the imaging device in synchronization with the changes, wherein the spectrum includes an axis, which corresponds to one of a wavelength of the excitation light incident on the sample and a wavelength of the light emitted from the sample, or a measurement time axis, which corresponds to measurement time, wherein the controller is configured to generate a sample image list including a plurality of sample images, acquired at predetermined intervals in synchronization with the change of the wavelength or the measurement time; and wherein the display is configured to display the spectrum and the sample images in an arrangement on the same screen and the sample images are displayed in the image list in an arrangement below, on the right side or on the left side of the wavelength axis or the measurement time axis so that the sample image list is displayed in correspondence to the wavelength axis or the measurement time axis of the spectrum.
A method of forming a nanowire isolation structure, comprising: forming at least one recess and at least one fin in a silicon-containing substrate, each fin having a top surface and two opposing sides; depositing a first dielectric material over the recesses and fins; recessing the dielectric material to expose a portion of the sides of each fin; forming an alloy cladding on the exposed sides and the top surface of each fin; converting the alloy cladding into a nanowire and an oxide shell substantially surrounding each nanowire; depositing a second dielectric material over the nanowire, the oxide shell and the first dielectric material, whereby voids remain on the first dielectric material and between the oxide shells and the second dielectric material; removing the second dielectric material and the oxide shells by etching, thereby also forming at least one divot channel in the first dielectric material; forming a protective layer over the first dielectric material, over the nanowire and in the divot channel; depositing a filler dielectric material over the protective layer; and removing a portion of the filler dielectric material to expose a portion of the protective layer and to leave a portion of the filler dielectric material within the divot channel. forming at least one recess and at least one fin in a silicon-containing substrate, each fin having a top surface and two opposing sides; depositing a first dielectric material over the recesses and fins; recessing the dielectric material to expose a portion of the sides of each fin; forming an alloy cladding on the exposed sides and the top surface of each fin; converting the alloy cladding into a nanowire and an oxide shell substantially surrounding each nanowire; depositing a second dielectric material over the nanowire, the oxide shell and the first dielectric material, whereby voids remain on the first dielectric material and between the oxide shells and the second dielectric material; removing the second dielectric material and the oxide shells by etching, thereby also forming at least one divot channel in the first dielectric material; forming a protective layer over the first dielectric material, over the nanowire and in the divot channel; depositing a filler dielectric material over the protective layer; and removing a portion of the filler dielectric material to expose a portion of the protective layer and to leave a portion of the filler dielectric material within the divot channel.
A mask and an headgear assembly, the mask comprising: a core having an inlet connector for receiving a supply of pressurized gas from a delivery tube, the core including a right arm and a left arm each extending from the core in opposing lateral directions, each arm forming an associated air pathway through each respective arm, wherein each arm includes an aperture provided through a sidewall thereof; a pair of nasal pillow assemblies, each nasal pillow assembly having at least a nasal pillow rotatably connected over the aperture of a respective right arm and left arm, each nasal pillow assembly being configured to communicate the supply of pressurized gas from the air pathway through each nasal pillow assembly and to a user's nostrils; a headgear interface located about a distal end of each arm, the headgear interface being configured to be attached to the headgear assembly. a core having an inlet connector for receiving a supply of pressurized gas from a delivery tube, the core including a right arm and a left arm each extending from the core in opposing lateral directions, each arm forming an associated air pathway through each respective arm, wherein each arm includes an aperture provided through a sidewall thereof; a pair of nasal pillow assemblies, each nasal pillow assembly having at least a nasal pillow rotatably connected over the aperture of a respective right arm and left arm, each nasal pillow assembly being configured to communicate the supply of pressurized gas from the air pathway through each nasal pillow assembly and to a user's nostrils; a headgear interface located about a distal end of each arm, the headgear interface being configured to be attached to the headgear assembly.
Aeronautical spacecraft suited to aeronautical flight, comprising a body and at least one first wing structure defining a lift-generating surface and attitude-control means, characterized in that said control means comprise one or more flaps positioned under the lift-generating surface and that can be maneuvered between a retracted position and an inclined, deployed, aerodynamic-braking position during the transition of the craft from a phase of space flight to a phase of aeronautical flight.
An optoelectronic sensor for the detection of object information from a monitored zone, wherein the sensor comprises a light transmitter having an associated transmission optics for the beam formation of a transmitted light beam (102, 20, 24) and for limiting its beam cross-section to a predefined diameter in a depth of field range, a light receiver for the generation of a received signal from the reflected light beam; and a control and evaluation unit for the extraction of object information from the received signal, wherein the transmission optics has at least two optical part regions (18a-b) having different beam forming properties and wherein the optical part region (18a-b), which acts in a beam forming manner with respect to the transmitted light beam (20, 24), can be set in order to change the depth of field range, characterized in that the transmission optics is formed by a lens having a pronounced spherical aberration or by a multi-zone lens divided circumferentially into optical part regions and the light transmitter is correspondingly divided circumferentially into light generation regions (16a-b).
A degradable Mg alloy consisting of: 3.9% by mass or more and 14.0% by mass or less of Al and 0.1% by mass or more and 0.6% by mass or less of Mn; 0.01% by mass or more and 10.0% by mass or less of both of Ni and Cu, wherein the content of Ni is 0.01% by mass or more and 0.3% by mass or less, wherein the content of Cu is 1.5% by mass or more and 7.0% by mass or less; wherein the balance is composed of Mg and inevitable impurities, and wherein the degradable Mg alloy optionally further comprises 1.0% by mass or less of Zn. 3.9% by mass or more and 14.0% by mass or less of Al and 0.1% by mass or more and 0.6% by mass or less of Mn; 0.01% by mass or more and 10.0% by mass or less of both of Ni and Cu, wherein the content of Ni is 0.01% by mass or more and 0.3% by mass or less, wherein the content of Cu is 1.5% by mass or more and 7.0% by mass or less;
An endoscope system (1, 1A) comprising: an endoscope comprising an insertion portion configured to be inserted into an inside of an object; a memory in said endoscope which is configured to store a first piece of information (rp) and a second piece of information (mr); a first object image acquiring portion (12, 12A) provided on the insertion portion and configured to acquire a first object image from a first area of the object (FVa); a second object image acquiring portion (13, 13A, 13B) provided on the insertion portion and configured to acquire a second object image from a second area of the object (SVa) different from the first area (FVa); and an image pickup portion (40, 40A, 40B, 40C) configured to pick up the first object image and the second object image, characterized by an object image position detecting portion (65, 65A) configured to detect a positional relationship between a first image forming area (FVa) where the first object image is formed and a second image forming area (SVa) where the second object image is formed, on the image pickup portion (40, 40A, 40B, 40C) and generate positional relationship detection information; and an image signal generating portion (66, 66A) configured to cut out a central part image (FVc) of the first object image from the first image forming area (FVa) based on the first piece of information (rp) stored in the memory, enlarge the central part image based on the second piece of information (mr) stored in the memory, and generate an image signal in which the enlarged central part image (FVe) and the second object image are arranged with a first reference position provided in the first image forming area (FVa) and a second reference position provided in the second image forming area (SVa) caused to correspond to each other based on the positional relationship detection information; wherein the first piece of information (rp) is information about a predetermined radius from the first object image and the second piece of information (mr) is a predetermined magnification to generate the enlarged central part image (FVe) such that a radius of the enlarged central part image (FVe) is larger than a diameter of the first object image cut out. an endoscope comprising an insertion portion configured to be inserted into an inside of an object; a memory in said endoscope which is configured to store a first piece of information (rp) and a second piece of information (mr); a first object image acquiring portion (12, 12A) provided on the insertion portion and configured to acquire a first object image from a first area of the object (FVa); a second object image acquiring portion (13, 13A, 13B) provided on the insertion portion and configured to acquire a second object image from a second area of the object (SVa) different from the first area (FVa); and an image pickup portion (40, 40A, 40B, 40C) configured to pick up the first object image and the second object image,