mhurhangee/ep-ind-claims huggingface dataset:
Sealing device for mounting a monument on a structural element of an aircraft and for providing a seal between the sealing device and a floor (105, 218, 217) of the aircraft, wherein the structural element of the aircraft is positioned below the floor of the aircraft, the sealing device comprising: a cylindrical element with a top region and a bottom region; wherein the bottom region comprises a first pin for attaching the sealing device to the structural element of the aircraft; and wherein the top region comprises a recess for receiving a second pin of a mounting device of the monument for attaching the monument to the sealing device, characterized in that the sealing device further comprises a sealing jacket surrounding the cylindrical element; wherein the sealing jacket comprises a deformable material which provides a seal between the sealing device and the floor of the aircraft when the sealing device is attached to the structural element of the aircraft and when the sealing jacket is pressed against the floor (105, 218, 217) wherein at least a first part of a peripheral surface of the cylindrical element comprises an external thread; and wherein the sealing jacket comprises an internal thread for screwing the sealing jacket on the cylindrical element, thereby pressing the sealing jacket against the floor. a cylindrical element with a top region and a bottom region; wherein the bottom region comprises a first pin for attaching the sealing device to the structural element of the aircraft; and wherein the top region comprises a recess for receiving a second pin of a mounting device of the monument for attaching the monument to the sealing device, a sealing jacket surrounding the cylindrical element; wherein the sealing jacket comprises a deformable material which provides a seal between the sealing device and the floor of the aircraft when the sealing device is attached to the structural element of the aircraft and when the sealing jacket is pressed against the floor (105, 218, 217) wherein at least a first part of a peripheral surface of the cylindrical element comprises an external thread; and wherein the sealing jacket comprises an internal thread for screwing the sealing jacket on the cylindrical element, thereby pressing the sealing jacket against the floor.
A conversion LED with a chip, which emits primary blue radiation, as well as a phosphor containing layer, which converts at least a part of the primary radiation of the chip into secondary radiation, upstream of the chip, wherein a first yellow-green emitting phosphor of the type garnet A 3 B 5 O 12:Ce and a second orange-red emitting phosphor of the type nitride silicate M 2 X 5 Y 8:D is used, characterized in that the peak wavelength of the primary radiation is in the range of 430 to 450 nm, in particular to 445 nm, while the first phosphor is a garnet with the cation A = Lu or a mixture of Lu, Y with a 30% fraction of Y up to, and wherein the first phosphor comprises 10% to 40 mol% Ga at the component B, remainder Al, while the second phosphor is a nitride silicate, which contains both Ba and Sr as cation M, and in which the doping consists of Eu, wherein the second phosphor contains 35 to 75 mol% Ba for the component M, remainder is Sr, wherein X = Si and Y = N is valid.
A method for producing a Cu(In,Ga)(Se,S) 2 semiconductor layer as an absorber film for thin-film solar cells by depositing Cu, In, Ga, Se, and S onto a substrate that carries a back contact, wherein an absorber film is built up on the substrate in a deposition chamber such that, first, a vacuum is generated in the range between 1 x 10 -6 and 1 x 10 -4 mbar, the substrate is heated to a temperature of 200 to 600°C, Cu, In, and/or Ga or their chalcogenide compounds are vaporized in metal vapor sources and the metal vapor beams are focused onto the surface such that they hit the substrate surface, characterized in that, selenium and/or sulfur exit in ionized form from a chalcogen low-energy broad-beam ion source and this beam hits the surface of the substrate in such a focused manner that it overlaps with the metal vapor beams, and that in addition to said chalcogen ions, electrons from the low-energy broad-beam ion source are extracted whose distribution in the deposition chamber also overlaps with the metal vapor beams and results in ionization and/or excitation of the same, wherein the energy introduced by the chalcogen beam results in the deposition of the desired absorber film.
Device for distributing bulk material, in particular seeds, on agricultural areas, with - a bulk material source for the provision of bulk material, - a flow path connected with the bulk material source, wherein the flow path comprises at least one line for conveying the bulk material from the bulk material source towards the usable surface, and - a device for blocking detection in at least one, several or all lines of the flow path, wherein the device for blocking detection - at least one sensor (21a-c), which is mounted on the outside at the line and is set up to detect mechanical vibrations of the line, as well as - a value unit connected to the sensor (21a-c) signal-oriented, which is set up as a function of the detected mechanical vibration, a blockage, wherein the flow path comprises a distributor head connected with the line, which comprises a plurality of bulk material outlets, wherein the bulk material outlets each have a partial channel of the flow path with the distributor head, wherein the sensor (21a-c) is a first sensor, and the device for blocking detection further comprises at least one second sensor, characterized in that the second sensor is arranged at a distance to the first sensor (21a-c) on the outlet side of the distributor head or in one of the partial channels, wherein the second sensor is configured to record a thermoemometric measurement variable. - a bulk material source for the provision of bulk material, - a flow path connected with the bulk material source, wherein the flow path comprises at least one line for conveying the bulk material from the bulk material source towards the usable surface, and - a device for blocking detection in at least one, several or all lines of the flow path, - at least one sensor (21a-c), which is mounted on the outside at the line and is set up to detect mechanical vibrations of the line, as well as - a value unit connected to the sensor (21a-c) signal-oriented, which is set up as a function of the detected mechanical vibration, a blockage, wherein the flow path comprises a distributor head connected with the line, which comprises a plurality of bulk material outlets, wherein the bulk material outlets each have a partial channel of the flow path with the distributor head, wherein the sensor (21a-c) is a first sensor, and the device for blocking detection further comprises at least one second sensor, characterized in that the second sensor is arranged at a distance to the first sensor (21a-c) on the outlet side of the distributor head or in one of the partial channels, wherein the second sensor is configured to record a thermoemometric measurement variable.
A one-way artificial valve comprising: a frame having a radially compressed configuration and a radially expanded configuration, wherein in the radially expanded configuration the frame includes a platform and a longitudinal axis; and a plurality of filaments coupled to the frame, wherein the filaments are configured such that a force in a first direction causes the filaments to extend generally in the first direction and wherein in absence of the force in the first direction the filaments rest against the platform blocking flow in a second direction opposite the first direction. a frame having a radially compressed configuration and a radially expanded configuration, wherein in the radially expanded configuration the frame includes a platform and a longitudinal axis; and a plurality of filaments coupled to the frame, wherein the filaments are configured such that a force in a first direction causes the filaments to extend generally in the first direction and wherein in absence of the force in the first direction the filaments rest against the platform blocking flow in a second direction opposite the first direction.
Recreational vehicle extending from back to front in a longitudinal direction and from bottom to top in a vertical direction, comprising: - a vertical rear wall, and - a rear interior space delimited by the rear wall and comprising a luggage compartment and a vehicle interior area arranged above the luggage compartment, the recreational vehicle being characterized in that the luggage compartment and the vehicle interior area are separated vertically from one another by a storage box, and in that it comprises means (30, 31a, 31b, 66) for driving the storage box in vertical translation relative to the rear wall between a high position and a low position, so as to vary an available volume inside the luggage compartment. - a vertical rear wall, and - a rear interior space delimited by the rear wall and comprising a luggage compartment and a vehicle interior area arranged above the luggage compartment, the recreational vehicle being characterized in that the luggage compartment and the vehicle interior area are separated vertically from one another by a storage box, and in that it comprises means (30, 31a, 31b, 66) for driving the storage box in vertical translation relative to the rear wall between a high position and a low position, so as to vary an available volume inside the luggage compartment.
A method comprising: receiving (602, 702) an interest packet by a forwarder in an Information-Centric Networking, ICN, network; determining whether the forwarder is to store content associated with the interest packet; refraining from performing a Pending Interest Table, PIT, update by the forwarder based on a determination that the forwarder is not to store content associated with the interest packet; determining (604, 704) Bit Index Explicit Replication, BIER, information associated with the packet; and forwarding (606, 724) the interest packet based, at least in part, on the BIER information associated with the interest packet. receiving (602, 702) an interest packet by a forwarder in an Information-Centric Networking, ICN, network; determining whether the forwarder is to store content associated with the interest packet; refraining from performing a Pending Interest Table, PIT, update by the forwarder based on a determination that the forwarder is not to store content associated with the interest packet; determining (604, 704) Bit Index Explicit Replication, BIER, information associated with the packet; and forwarding (606, 724) the interest packet based, at least in part, on the BIER information associated with the interest packet.
A pneumatic tyre comprising a carcass structure and a tread disposed in a radially outer position with respect to said carcass structure, wherein said tread comprises an inner tread and a plurality of spaced lugs outwardly projecting from said inner tread, wherein said spaced lugs extend in a transverse direction from a central portion towards shoulder portions of the tread, wherein a first and a second of said spaced lugs, circumferentially consecutive, being the first, respectively the second, entering in the tyre contact area, during the rotation of the tyre, in the sense of the tyre rotation, wherein a portion of said inner tread comprised between said spaced first and second lug forms the surface from which said spaced lugs project, wherein said portion of said inner tread comprised between said spaced first and second lug comprises at least a first axially-inner surface and a second axially-outer surface axially adjacent, the said second axially-outer surface is disposed at least partially at a different radial height with respect to the first axially-inner surface, said radial height being a distance measured in radial direction from the rotation axis of the tyre, the said second axially-outer surface is positioned in accordance with different radial heights in such a way as to have a minimum radial height towards the second lug and a maximum radial height towards the first lug, the radial height of said second axially-outer surface decreases in the direction of the tread shoulder portions, said pneumatic tyre is characterized in that at least said second axially outer surface is a substantially planar surface, and wherein the said lugs comprise at least one substantially planar wall portion.
Strip for the production of a substrate for lithographic printing plates consisting of aluminium or an aluminium alloy, the strip having at least to some extent a microcrystalline surface layer due to hot and/or cold roll passes, characterised in that in a two-dimensional microprobe analysis according to the mapping method of a surface region of the microcrystalline surface of the strip, the surface portion with an intensity ratio I / I bulk(avg) of more than 3 in the spectral range of the K α1 line of the X-ray emission spectrum of oxygen of the measured microcrystalline surface layer is less than 10 %, preferably less than 7 %, wherein for the two-dimensional microprobe analysis, an excitation voltage of 15 kV, a beam current of 50 nA and a beam cross section of 1 μm with a step size of 16.75 μm for the electron beam is used, that the thickness of the strip is 0.15 to 0.5 mm, and that the thickness of the microcrystalline surface layer is 0.5 to 2.5 μm.
Pneumatic vehicle tyre of a radial type of construction, with a tread comprising at least six circumferential grooves (6, 7), which respectively have on the tread surface a width (B 1) of 3.0 mm to 8.0 mm and respectively have in the radial direction a depth (T 1, T 2), the depth (T 2) of the middle circumferential grooves being greater than the depth (T 1) of the two shoulder-side circumferential grooves, characterized in that the depth (T 1) of the shoulder-side circumferential grooves is 4.0 mm to 6.0 mm and the depth (T 2) of the middle circumferential grooves is 5.0 mm to 7.0 mm, the depth (T 2) of the middle circumferential grooves being at least 0.5 mm greater than the depth (T 1) of the shoulder-side circumferential grooves.
A solid particulate composition comprising a first group of hydrophobized particles and a second group of catalytically active particles, whereby said first group of particles ▪ are selected from the group consisting of Oxides, Hydroxides, Carbides, Nitrides, Phosphates, Carbonates, Silicates (1.1), and ▪ where the particle's surface is modified with amphiphilic molecules (1.2) that comprise at least one head group and one tail group, ▪ said tail group being selected from an aliphatic or an aromatic or a cyclic group with 2 to 8 carbon atoms and optionally one or more substituents, and ▪ said head group being selected from phosphates, phosphonates, sulfates, sulfonates, alcohols, amines, amides, pyrrolidones, gallates, carboxylic acids; and said second group of particles ▪ are selected from mangan oxide, either synthetic MnO2 or naturally occurring minerals, and ▪ are selected to react with a peroxide blowing agent to form a gas; the amount of is in the range of 20.0-99.8% and / or the amount of is in the range of 0.2-80%; and the amount of amphiphilic molecules (1.2) on the particles (1.1) is in the range of 0.5 - 160 μmol (1.2) / m 2 particle (1.1). ▪ are selected from the group consisting of Oxides, Hydroxides, Carbides, Nitrides, Phosphates, Carbonates, Silicates (1.1), and ▪ where the particle's surface is modified with amphiphilic molecules (1.2) that comprise at least one head group and one tail group, ▪ said tail group being selected from an aliphatic or an aromatic or a cyclic group with 2 to 8 carbon atoms and optionally one or more substituents, and ▪ said head group being selected from phosphates, phosphonates, sulfates, sulfonates, alcohols, amines, amides, pyrrolidones, gallates, carboxylic acids; and ▪ said tail group being selected from an aliphatic or an aromatic or a cyclic group with 2 to 8 carbon atoms and optionally one or more substituents, and ▪ said head group being selected from phosphates, phosphonates, sulfates, sulfonates, alcohols, amines, amides, pyrrolidones, gallates, carboxylic acids; and ▪ are selected from mangan oxide, either synthetic MnO2 or naturally occurring minerals, and ▪ are selected to react with a peroxide blowing agent to form a gas;
A biopsy marker delivery device comprising: a cannula having an internal lumen extending from a proximal end of the cannula to the distal end of the cannula, and a marker exit formed in a sidewall of the cannula proximal to the distal end of the cannula; a distal tip closing the distal end of the cannula; a ramp positioned adjacent the marker exit; a marker engaging element disposed within the internal lumen of the cannula, wherein at least a portion of the marker engaging element is disposed distally of a proximal end of the marker exit port; and at least one marker disposed within the internal lumen of the cannula, characterized in that the cannula comprises a relatively flexible thin walled tube, and wherein the marker engaging element comprises a relatively stiff member disposed within the internal lumen. a cannula having an internal lumen extending from a proximal end of the cannula to the distal end of the cannula, and a marker exit formed in a sidewall of the cannula proximal to the distal end of the cannula; a distal tip closing the distal end of the cannula; a ramp positioned adjacent the marker exit; a marker engaging element disposed within the internal lumen of the cannula, wherein at least a portion of the marker engaging element is disposed distally of a proximal end of the marker exit port; and at least one marker disposed within the internal lumen of the cannula, characterized in that the cannula comprises a relatively flexible thin walled tube, and wherein the marker engaging element comprises a relatively stiff member disposed within the internal lumen.
An insole for an article of footwear, the insole comprising: a chassis layer having an upper surface and a lower surface, a lateral side and a medial side, a heel end and a forefoot end, and a heel portion, a midfoot portion, and a forefoot portion, wherein the chassis layer defines a plurality of first apertures in the forefoot portion, the insole being charactrised in that in a direction from the forefoot end to the heel end, the first apertures progressively increase in size to a point at which maximum flexibility is desired in the forefoot portion. a chassis layer having an upper surface and a lower surface, a lateral side and a medial side, a heel end and a forefoot end, and a heel portion, a midfoot portion, and a forefoot portion, wherein the chassis layer defines a plurality of first apertures in the forefoot portion, the insole being charactrised in that in a direction from the forefoot end to the heel end, the first apertures progressively increase in size to a point at which maximum flexibility is desired in the forefoot portion.
A system, comprising: a polyphase generator; a polyphase bridge rectifier electrically coupled to an output of the polyphase generator, wherein the polyphase bridge rectifier is a full-wave bridge rectifier configured to output a positive rectified ripple signal with respect to a ground voltage and a negative rectified ripple signal with respect to the ground voltage, wherein the positive rectified ripple signal and the negative rectified ripple signal are summed to produce a total ripple signal with respect to the ground such that in use the total ripple signal peaks and troughs above and below the ground voltage, respectively, in a stable manner without skipping a wave period and with equal positive and negative amplitudes; and a generator regulation feedback loop configured to regulate the output of the polyphase generator with a field control signal, wherein the field control signal is based on summing the total ripple signal and a reference voltage. a polyphase generator; a polyphase bridge rectifier electrically coupled to an output of the polyphase generator, wherein the polyphase bridge rectifier is a full-wave bridge rectifier configured to output a positive rectified ripple signal with respect to a ground voltage and a negative rectified ripple signal with respect to the ground voltage, wherein the positive rectified ripple signal and the negative rectified ripple signal are summed to produce a total ripple signal with respect to the ground such that in use the total ripple signal peaks and troughs above and below the ground voltage, respectively, in a stable manner without skipping a wave period and with equal positive and negative amplitudes; and a generator regulation feedback loop configured to regulate the output of the polyphase generator with a field control signal, wherein the field control signal is based on summing the total ripple signal and a reference voltage.
An elevator comprising an electric linear motor and an elevator car, the electric linear motor comprising at least one stator beam and at least one mover coupled to the elevator car, and wherein said at least one stator beam comprises at least two stators (301, 302; 303, 304) on opposite sides (30A, 30B; 30C, 30D) of the stator beam, and the at least one mover is in electromagnetic engagement with said at least two stators (301, 302; 303, 304) and configured to be moved relative to said stator beam, wherein said at least one mover comprises: - at least two units of electromagnetic components (311, 311A, 311B, 312, 312A, 312B; 313, 314) arranged on opposite sides (30A, 30B; 30C, 30D) of the stator beam to face said at least two stators (301, 302; 303, 304), wherein each unit of electromagnetic components (311, 311A, 311B, 312, 312A, 312B, 313, 314) comprises at least two windings (52A, 52B), wherein the at least two windings (52A, 52B) on either of the opposite sides (30A, 30B; 30C, 30D) are displaced with respect to each other in a longitudinal direction defined by the stator beam, and characterised in that the elevator comprises - at least four electrical drives (105; 105A, 105B) configured to control a d-axis component of the currents injected to the windings (52A, 52B), respectively and independently of each other, for controlling tilting of the mover with respect to said stator beam, and wherein the electrical drives (105, 105A, 105B) are configured to control the movement of the mover in the longitudinal direction. - at least two units of electromagnetic components (311, 311A, 311B, 312, 312A, 312B; 313, 314) arranged on opposite sides (30A, 30B; 30C, 30D) of the stator beam to face said at least two stators (301, 302; 303, 304), wherein each unit of electromagnetic components (311, 311A, 311B, 312, 312A, 312B, 313, 314) comprises at least two windings (52A, 52B), wherein the at least two windings (52A, 52B) on either of the opposite sides (30A, 30B; 30C, 30D) are displaced with respect to each other in a longitudinal direction defined by the stator beam, and characterised in that the elevator comprises - at least four electrical drives (105; 105A, 105B) configured to control a d-axis component of the currents injected to the windings (52A, 52B), respectively and independently of each other, for controlling tilting of the mover with respect to said stator beam, and wherein the electrical drives (105, 105A, 105B) are configured to control the movement of the mover in the longitudinal direction.