mhurhangee/ep-ind-claims huggingface dataset:
A twisting device (15; 215) for twisting or stranding electrical or optical cables (16; 216), comprising - a first twisting head device with a first twisting rotor, wherein the first twisting rotor is arranged rotatably on the first twisting head device (20, 220, 240), - a clamping device, wherein the first twisting head device (20; 220, 240) and the clamping device are spaced apart from one another, - a stranding shuttle (65, 265), which can be moved at least from a first position into a further position along a direction between the first twisting head device (20, 220, 240) and the clamping device, - a control device (60; 260) for controlling at least the first twisting head device (20; 220, 240), characterised in that the twisting device (15; 215) comprises at least a first sensor device for detecting the position of the stranding shuttle (65; 265) and for determining a stranding position, wherein the stranding shuttle is positioned between the cables to be stranded, or an idle position, wherein the stranding shuttle is not positioned between the cables to be stranded, of the stranding shuttle (65; 265), wherein the first sensor device is connected in particular to the control device (60; 260) for the exchange of sensor data. - a first twisting head device with a first twisting rotor, wherein the first twisting rotor is arranged rotatably on the first twisting head device (20, 220, 240), - a clamping device, wherein the first twisting head device (20; 220, 240) and the clamping device are spaced apart from one another, - a stranding shuttle (65, 265), which can be moved at least from a first position into a further position along a direction between the first twisting head device (20, 220, 240) and the clamping device, - a control device (60; 260) for controlling at least the first twisting head device (20; 220, 240),
An engine component, comprising: a body having an internal surface and an external surface, the internal surface at least partially defining an internal cooling circuit; and a plurality of cooling holes formed in the body and extending between the internal cooling circuit and the external surface of the body, the plurality of cooling holes including a first cooling hole, the first cooling hole comprising a metering portion with a constant cross-sectional area and a cross-sectional shape having a maximum height that is offset relative to a longitudinal centerline of the metering portion; and a diffuser portion extending from the metering portion to the external surface of the body, wherein the metering portion extends from an inlet on the internal surface to the diffuser portion with the constant cross-sectional area and inclined relative to the external surface of the body at an angle of 20°-45° to define the cross-sectional shape along the longitudinal centerline having a metering portion top surface, a metering portion bottom surface, and metering portion sides that join the metering portion top surface to the metering portion bottom surface, wherein the metering portion top surface includes a central concave section relative to the first cooling hole, and wherein the metering portion bottom surface includes a concave section relative to the first cooling hole or a flat section. a body having an internal surface and an external surface, the internal surface at least partially defining an internal cooling circuit; and a plurality of cooling holes formed in the body and extending between the internal cooling circuit and the external surface of the body, the plurality of cooling holes including a first cooling hole, the first cooling hole comprising a metering portion with a constant cross-sectional area and a cross-sectional shape having a maximum height that is offset relative to a longitudinal centerline of the metering portion; and a diffuser portion extending from the metering portion to the external surface of the body, wherein the metering portion extends from an inlet on the internal surface to the diffuser portion with the constant cross-sectional area and inclined relative to the external surface of the body at an angle of 20°-45° to define the cross-sectional shape along the longitudinal centerline having a metering portion top surface, a metering portion bottom surface, and metering portion sides that join the metering portion top surface to the metering portion bottom surface, wherein the metering portion top surface includes a central concave section relative to the first cooling hole, and wherein the metering portion bottom surface includes a concave section relative to the first cooling hole or a flat section.
A method for manufacturing a laminated construction timber element consisting of a plurality of pieces of sawn timber, said method comprising the following steps: - the pieces of sawn timber produced from raw material are visually sorted or machine-sorted, - when a void or imperfection is detected in any of the pieces of sawn timber which is not immediately adjacent to an end face area of the sawn timber piece, said piece of sawn timber containing the void or imperfection is sorted out and replaced, for further processing, by a piece of sawn timber which does not have any such void or imperfection, - at least one lateral face of the piece of sawn timber is levelled, - an adhesive is applied to the lateral surface of the piece of sawn timber in order to form a gluing surface, - a plurality of pieces of sawn timber including said gluing surfaces are stacked and glued together under pressure so as to form a construction timber blank, and - subsequently, an end face of each one of two construction timber blanks associated with each other is provided with finger joints and said blanks are assembled together by means of a universal finger joint assembly. - the pieces of sawn timber produced from raw material are visually sorted or machine-sorted, - when a void or imperfection is detected in any of the pieces of sawn timber which is not immediately adjacent to an end face area of the sawn timber piece, said piece of sawn timber containing the void or imperfection is sorted out and replaced, for further processing, by a piece of sawn timber which does not have any such void or imperfection, - at least one lateral face of the piece of sawn timber is levelled, - an adhesive is applied to the lateral surface of the piece of sawn timber in order to form a gluing surface, - a plurality of pieces of sawn timber including said gluing surfaces are stacked and glued together under pressure so as to form a construction timber blank, and - subsequently, an end face of each one of two construction timber blanks associated with each other is provided with finger joints and said blanks are assembled together by means of a universal finger joint assembly.
A mobile terminal, comprising: a housing; a PCB installed inside the housing; and a battery pack disposed at at least one side of the PCB including at least one heat conductive layer radiating heat generated from the PCB, characterized in that the battery pack is formed with a recess for accommodating the PCB such that the battery pack directly faces an upper surface and two adjacent side surfaces of the PCB. a housing; a PCB installed inside the housing; and a battery pack disposed at at least one side of the PCB including at least one heat conductive layer radiating heat generated from the PCB, characterized in that the battery pack is formed with a recess for accommodating the PCB such that the battery pack directly faces an upper surface and two adjacent side surfaces of the PCB.
A method for forming supported noble metal nanoparticles and/or noble metal-M alloy nanoparticles composite, M being a less noble metal galvanically displaced to deposit the noble metal, the method comprising the following steps: (a) providing a M/S precursor material of metal particles, M, on electrical conductive support particles, S, where M is one or more metal having lower standard electrode potential than the noble metal, wherein the support particles have an electrical conductivity larger than any formed passivating M-oxide layer of the metal M deposited thereon; (b) suspending the M/S precursor material in a liquid medium, the liquid medium having a pH at which an in-situ passivating oxide is thermodynamically formed at least on the surface of the metal M particles being exposed to the liquid medium, forming a passivated MO y /S suspension, y being > 0 up to a stoichiometric M-oxide value; (c) providing an adsorptive gas to the MO y /S suspension, the adsorptive gas being selectively adsorbable on the noble metal to be deposited; (d) adding a noble metal precursor to the MO y /S suspension, thereby depositing as a reaction product crystalline noble metal nanoparticles and/or crystalline noble metal-M alloy nanoparticles on the support particles by a galvanic displacement reaction, wherein the adsorptive gas is selectively adsorbed on the deposited noble metal; and (e) separating and washing the as-synthesized reaction product. (a) providing a M/S precursor material of metal particles, M, on electrical conductive support particles, S, where M is one or more metal having lower standard electrode potential than the noble metal, wherein the support particles have an electrical conductivity larger than any formed passivating M-oxide layer of the metal M deposited thereon; (b) suspending the M/S precursor material in a liquid medium, the liquid medium having a pH at which an in-situ passivating oxide is thermodynamically formed at least on the surface of the metal M particles being exposed to the liquid medium, forming a passivated MO y /S suspension, y being > 0 up to a stoichiometric M-oxide value; (c) providing an adsorptive gas to the MO y /S suspension, the adsorptive gas being selectively adsorbable on the noble metal to be deposited; (d) adding a noble metal precursor to the MO y /S suspension, thereby depositing as a reaction product crystalline noble metal nanoparticles and/or crystalline noble metal-M alloy nanoparticles on the support particles by a galvanic displacement reaction, wherein the adsorptive gas is selectively adsorbed on the deposited noble metal; and (e) separating and washing the as-synthesized reaction product.
A shipping method for shipping cut flowers (101,201), the shipping method comprising: a. packaging (a) the flowers in a box (102,202,302) for shipping, b. vacuum cooling (b) the box and flowers to a temperature in the range 1°C - 10°C, c. applying (c) a flexible sheet material (105,205,305) onto the box (102,202,302) for shipping, the flexible sheet material (102,202,302) comprising a first reflective surface (216,316) facing away from the box (102,202,302) when applied, for reflecting infrared radiation, wherein a second surface (217,313), being less reflective than the first surface (216,316) is facing the inside of the box, for absorbing infrared radiation, and d. shipping (d) the flowers (101,201). a. packaging (a) the flowers in a box (102,202,302) for shipping, b. vacuum cooling (b) the box and flowers to a temperature in the range 1°C - 10°C, c. applying (c) a flexible sheet material (105,205,305) onto the box (102,202,302) for shipping, the flexible sheet material (102,202,302) comprising a first reflective surface (216,316) facing away from the box (102,202,302) when applied, for reflecting infrared radiation, wherein a second surface (217,313), being less reflective than the first surface (216,316) is facing the inside of the box, for absorbing infrared radiation, and d. shipping (d) the flowers (101,201).
A communication network component (203, 205) comprising: a receiver configured to receive a request for a communication service of a local area data network from a mobile terminal, wherein the request is a request for establishment of a communication session; and a controller configured to reject the request by sending a session establishment rejection to the mobile terminal if the mobile terminal is located in a part of the local area data network that requires an intermediate session management function to serve the mobile terminal, wherein the local area data network comprises at least a part served by a session management function and a part served by the intermediate session management function to serve the mobile terminal. a receiver configured to receive a request for a communication service of a local area data network from a mobile terminal, wherein the request is a request for establishment of a communication session; and a controller configured to reject the request by sending a session establishment rejection to the mobile terminal if the mobile terminal is located in a part of the local area data network that requires an intermediate session management function to serve the mobile terminal, wherein the local area data network comprises at least a part served by a session management function and a part served by the intermediate session management function to serve the mobile terminal.
A structure, comprising: an inter-level dielectric, ILD, layer over a substrate; and a first nitride waveguide positioned in the ILD layer in a first region of the substrate, the first nitride waveguide including: a first nitride body characterized in that said nitride waveguide is a multilayer nitride waveguide further including a first cladding layer on at least a lower surface of the first nitride body, wherein the first cladding layer has a lower refractive index than the first nitride body. an inter-level dielectric, ILD, layer over a substrate; and a first nitride waveguide positioned in the ILD layer in a first region of the substrate, the first nitride waveguide including: a first nitride body characterized in that said nitride waveguide is a multilayer nitride waveguide further including a first cladding layer on at least a lower surface of the first nitride body, wherein the first cladding layer has a lower refractive index than the first nitride body. a first nitride body characterized in that said nitride waveguide is a multilayer nitride waveguide further including a first cladding layer on at least a lower surface of the first nitride body, wherein the first cladding layer has a lower refractive index than the first nitride body.
Impact damping device for motor vehicles, comprising a rigid hollow profile with a longitudinal axis, which is arranged in the direction of impact, and a guide device having a front part accommodated in a cavity of the hollow profile and a central part, wherein the central part has at least two separating devices distributed around the circumference of the guide device the separating devices having the form of webs projecting radially outwards with an outer dimension which is greater than an inner dimension of the hollow profile in this region of the central part, and with an edge defining the outer dimension, and wherein the guide device is displaceable in the direction of the longitudinal axis and the hollow profile is deformed by the impact of a vehicle, characterized in that at least two directing devices are provided which are arranged between the separating devices, the outer dimension of which increases in the direction away from the front part and which also have an outer edge which is offset rearwardly relative to the edge of the separating devices having the form of webs and which also have an outer dimension which increases rearwardly.
A container lid construction having an upper lid construction (11, 13, 53, 63, 86) and a membrane portion (12, 51, 61, 87), the upper lid construction (11, 13, 53, 63, 86) comprising a lid top (21, 54, 64, 89) and a primary beverage outlet, the membrane portion (12, 51, 61, 87) extending in inferior adjacency to the primary beverage outlet for defining a lower beverage compartment and an upper beverage compartment when the container lid construction is outfitted upon a beverage container, characterized in that the membrane portion (12, 51, 61, 87) is constructed from a resilient material biasable intermediate a relaxed configuration concave relative to the lid top (21, 54, 64, 89) and an actuated configuration convex relative to the lid top (21, 54, 64, 89) for providing an annularly-shaped beverage-pooling zone, the annularly-shaped beverage-pooling zone for enhancing heat transfer from a beverage before exiting the primary beverage outlet.
A system for changing the radiation pattern shape of an antenna array (83; 88) in down-link during electrical tilting, said antenna array (83; 88) having multiple antenna elements, said system comprising a non-linear phase shifting device (20; 40; 85), comprising: a phase-shifting device provided with a primary port as input port, configured to receive a transmit signal, and at least three secondary ports (12 1 -12 4; 12) as output ports, configured to provide phase shifted output signals to each antenna element, and a phase-taper device configured to change phase taper over the antenna elements, and thus the beam shape, with tilt angle, characterized in that said non-linear phase-shifting device further comprises: - a fixed board (25; 45) provided with said primary port as input port and said at least three secondary ports (12 1 -12 4; 12) as output ports, - a delay line network with trombone lines (24; 44) interconnecting the primary port as input port and the at least three secondary ports (12 1 -12 4; 12) as output ports, and said trombone lines (24; 44) comprise delay lines arranged on said fixed board and delay lines arranged on a delay board (23; 43), said delay lines being connected and cooperating to form said trombone lines (24; 44); - said delay board (23; 43) comprising delay lines connected to said primary port as input port, and is configured to be movable in relation to the fixed board (25; 45) to change trombone line lengths, whereby said non-linear phase-shifting device (20; 40; 85) is configured to generate non-linear progressive phase shifts over the at least three secondary ports (12 1 -12 4) as output ports when changing tilt angle ( θ tilt), wherein the non-linear phase-shifting device is configured to change trombone line lengths by rotation of the delay board relative to the fixed board to produce said non-linear progressive phase shifts, said trombone lines are arranged in a non-periodic fashion on the delay board. - a fixed board (25; 45) provided with said primary port as input port and said at least three secondary ports (12 1 -12 4; 12) as output ports, - a delay line network with trombone lines (24; 44) interconnecting the primary port as input port and the at least three secondary ports (12 1 -12 4; 12) as output ports, and - said delay board (23; 43) comprising delay lines connected to said primary port as input port, and is configured to be movable in relation to the fixed board (25; 45) to change trombone line lengths, whereby said non-linear phase-shifting device (20; 40; 85) is configured to generate non-linear progressive phase shifts over the at least three secondary ports (12 1 -12 4) as output ports when changing tilt angle ( θ tilt), wherein the non-linear phase-shifting device is configured to change trombone line lengths by rotation of the delay board relative to the fixed board to produce said non-linear progressive phase shifts, said trombone lines are arranged in a non-periodic fashion on the delay board.
An ionizing system, comprising: a channel having an inlet disposed in a first pressure region and an outlet disposed in a second pressure region, a pressure of the first pressure region being greater than a pressure of the second pressure region; a heater coupled to the channel and configured to heat the channel; and a device for introducing at least one analyte molecule into the channel through which the at least one analyte molecule is ionized, wherein the ionizing system is configured for ionizing the at least one analyte molecule within the channel by the heat and pressure-differential applied in the channel to generate at least one analyte molecule ion. a channel having an inlet disposed in a first pressure region and an outlet disposed in a second pressure region, a pressure of the first pressure region being greater than a pressure of the second pressure region; a heater coupled to the channel and configured to heat the channel; and a device for introducing at least one analyte molecule into the channel through which the at least one analyte molecule is ionized, wherein the ionizing system is configured for ionizing the at least one analyte molecule within the channel by the heat and pressure-differential applied in the channel to generate at least one analyte molecule ion.
A system comprising a machine body for an electronic device applied in a harsh or severe environment, a removable device and a stopping mechanism, wherein the stopping mechanism is arranged on the machine body and the removable device, wherein the machine body comprises an opening in communication with an inside of the machine body and a door panel, that is pivotally connected to a side edge of the machine body adjacent to the opening, and the removable device is installed in the machine body through the opening, characterized in that the stopping mechanism comprises: a stopping member, fixedly disposed in the machine body; an action member, rectilinearly movably disposed on the removable device, wherein the action member is made to have a normal releasing position and a pressing position, wherein the action member is made to be pressed against by the door panel; and a clipping member, rotatably connected to the removable device, wherein the clipping member has a normal starting position and a holder position, wherein the clipping member is made to be pressed against by the action member; wherein the door panel is supplied to close the opening, the door panel is made to push the action member to displace to the pressing position, the action member is made to push the clipping member to rotate to the holder position, the clipping member is made to press against the stopping member at the holder position, and at the holder position the clipping member is arranged in a tilt angle (θ) with the removable device, so that the removable device is clipped in the machine body by means of the clipping member engaging the stopping member. a stopping member, fixedly disposed in the machine body; an action member, rectilinearly movably disposed on the removable device, wherein the action member is made to have a normal releasing position and a pressing position, wherein the action member is made to be pressed against by the door panel; and a clipping member, rotatably connected to the removable device, wherein the clipping member has a normal starting position and a holder position, wherein the clipping member is made to be pressed against by the action member; wherein the door panel is supplied to close the opening, the door panel is made to push the action member to displace to the pressing position, the action member is made to push the clipping member to rotate to the holder position, the clipping member is made to press against the stopping member at the holder position, and at the holder position the clipping member is arranged in a tilt angle (θ) with the removable device, so that the removable device is clipped in the machine body by means of the clipping member engaging the stopping member.