mhurhangee/ep-ind-claims huggingface dataset:
A spring transfer device for transferring a spring from a spring coiling machine to a spring transport unit, wherein the spring transfer device is configured such that it takes over the spring from the spring coiling machine at a first location and moves the spring to a second location for transfer to the spring transport unit, and wherein the spring transfer device comprises a pivot mechanism for pivoting the spring, during the movement from the first location to the second location, from a first orientation, which the spring has at the first location, to a second orientation, which the spring has at the second location and which is substantially perpendicular to the first orientation, characterized in that the pivot mechanism comprises a base member which is arranged movably along a fixed elongate shaft, the shaft having a curved groove where the base member engages the shaft so that the base member is pivoted from the first orientation to the second orientation when being moved along the shaft.
A heat pump system comprising: a compressor in a fluid circuit with a flash tank, a first heat exchanger and a second heat exchanger; a first capillary tube disposed between one of said first and second heat exchangers (12,14) and said flash tank; a second capillary tube disposed between said one of said first and second heat exchangers (12,14) and said flash tank; and characterized by: a first valve, disposed between said one of said first and second heat exchangers (12,14) and said first capillary tube, to selectively provide refrigerant to said first capillary tube, and wherein said compressor is a scroll compressor. a compressor in a fluid circuit with a flash tank, a first heat exchanger and a second heat exchanger; a first capillary tube disposed between one of said first and second heat exchangers (12,14) and said flash tank; a second capillary tube disposed between said one of said first and second heat exchangers (12,14) and said flash tank; and characterized by: a first valve, disposed between said one of said first and second heat exchangers (12,14) and said first capillary tube, to selectively provide refrigerant to said first capillary tube, and wherein said compressor is a scroll compressor. a first valve, disposed between said one of said first and second heat exchangers (12,14) and said first capillary tube, to selectively provide refrigerant to said first capillary tube, and wherein said compressor is a scroll compressor.
A fastener (6; 13; 21, 36) comprising a flexible planar backing (2; 31) provided with a fastener element (3, 4; 32, 33) on its upper side and/or on its lower side, characterized in that the fastener (6; 13; 21; 36) consists of at least one generally Y-shaped one-piece section defined by two opposing arms (7, 8; 14, 15; 22, 23, 26), which are separated from each other by a recess (9; 16; 24, 27), and by a third arm (10; 17; 25, 28) joined to the two opposing arms (7, 8; 14, 15; 22, 23, 26) and extending away from said recess (9; 16; 24, 27), wherein the shape and size of said third arm (10; 17; 25, 28) correspond to the shape and size of said recess (9; 16; 24; 27).
Ejection system for particles into space, intended to eject particles on a trajectory of an object in orbit in order to deviate the trajectory of this object, the ejection system comprising at least one ejection module of the particles, where these particles have a size between 5 μm and 200 μm, the system comprises at least one storage conduit of the particles which opens at least one injection orifice of the particles, the ejection module of the particles being in communication with an environment external to the ejection system of the particles, the ejection system comprising at least one first means for driving the particles configured to drive the particles flush with the at least one of the injection orifice and at least one second drive means configured to drive the particles outside the at least one storage conduit, the first drive means and the second drive means being distinct.
A mechatronic assembly for positioning a member comprising a control unit and an actuator, with the control unit comprising a servo-control algorithm and a power bridge, with said algorithm controlling said power bridge, with the power bridge outputting a direct current two-wire electric signal consisting of a torque signal and a direction signal, with the actuator comprising a polyphase brushless electric motor having N phases, binary probes for detecting the position of the rotor of said motor, power switches suitable for supplying the N phases of the motor from the two-wire electric signal, characterized in that the state of the power switches is directly controlled by a signal emitted by the detection probes.
A thermal insulation material comprising; - a solid phase which comprises 30 - 90 wt % aluminum silicate source based on the total weight of the thermal insulation material; - a liquid phase which comprises an alkaline solution; and - 1 - 30 wt % hollow inorganic material particles based on the total weight of the thermal insulation material. - a solid phase which comprises 30 - 90 wt % aluminum silicate source based on the total weight of the thermal insulation material; - a liquid phase which comprises an alkaline solution; and - 1 - 30 wt % hollow inorganic material particles based on the total weight of the thermal insulation material.
A patient interface (10, 1210) for delivery of a supply of pressurized air or breathing gas to the nose of a person, the patient interface comprising: a frame; a porous sealing portion (22, 1220) provided to the frame, wherein the porous sealing portion is constructed from unskinned foam having an open cell arrangement which contacts the person's skin to provide a breathable seal providing controllable leak through the foam structure to enhance comfort at the contact interface between the patient's skin and the unskinned foam; and an inlet conduit including a first end provided to the frame and a second end adapted to receive the supply of pressurized air or breathing gas from a source and deliver the supply to the first end, the porous sealing portion is adapted to form a seal with a person's nose wherein the sealing with the nose is in the form of at least one of: a nasal cradle comprising viscoelastic foam cradling the external nares, a sealing arrangement sealing under the nose, and nasal prongs sealing around and/or within the nares. a frame; a porous sealing portion (22, 1220) provided to the frame, wherein the porous sealing portion is constructed from unskinned foam having an open cell arrangement which contacts the person's skin to provide a breathable seal providing controllable leak through the foam structure to enhance comfort at the contact interface between the patient's skin and the unskinned foam; and an inlet conduit including a first end provided to the frame and a second end adapted to receive the supply of pressurized air or breathing gas from a source and deliver the supply to the first end, the porous sealing portion is adapted to form a seal with a person's nose wherein the sealing with the nose is in the form of at least one of: a nasal cradle comprising viscoelastic foam cradling the external nares, a sealing arrangement sealing under the nose, and nasal prongs sealing around and/or within the nares. a nasal cradle comprising viscoelastic foam cradling the external nares, a sealing arrangement sealing under the nose, and nasal prongs sealing around and/or within the nares.
Method for protecting an impellor wheel (12a, 12b) of a compressor (10a, 10b) of a turbocharger (7a, 7b) notably of a high-pressure turbocharger of a propulsion unit of a vehicle, the method comprising a step of continuously evaluating a temperature (Tr) of the impellor wheel (12a, 12b) and if an engine of the propulsion unit is in a mode of operation damaging to the said impellor wheel (12a, 12b), the method comprises a step of inhibiting a shutting-down of the engine when the temperature (Tr) of the impellor wheel (12a, 12b) is above a setpoint temperature (Tc).
An anti-human Epidermal Growth Factor Receptor (hEGFR) antibody drug conjugate comprising the following structure: wherein Ab is an IgG1 anti-hEGFR antibody comprising a heavy chain variable region comprising a heavy chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 12, a heavy chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 11, and a heavy chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 10; and a light chain variable region comprising a light chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 8, a light chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 7, and a light chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 6; and wherein m is 2. a heavy chain variable region comprising a heavy chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 12, a heavy chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 11, and a heavy chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 10; and a light chain variable region comprising a light chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 8, a light chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 7, and a light chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 6; and wherein m is 2.
A method for producing an interference reduced radar image, the method comprising: receiving a measured sequence of beat signals, each beat signal comprising a number of segments, each segment having an amplitude, wherein the ith segment of the jth beat signal is identifiable as a segment i,j with amplitude A i,j, wherein i= 1,..., a, j= 1,..., b, the method being characterized in that it further comprises: identifying one or more interference segments within the measured sequence of beat signals, an interference segment being a segment subject to an interference; doctoring the measured sequence of beat signals by creating a doctored representation of the measured sequence of beat signals in the form of a matrix Y with elements y i,j: Y = y 1,1 ⋯ y 1, b ⋮ ⋱ ⋮ y a, 1 ⋯ y a, b, wherein y i,j = m i,j × A i,j, wherein m i,j is a masking value, the masking value being dependent on whether segment i,j is identified as an interference segment or not, the masking value being set to a lower value if segment i,j is an interference segment compared to if it is not an interference segment; creating a doctoring mask representing the doctoring of the measured sequence of beat signals, the doctoring mask being a matrix M with elements m i,j: M = m 1,1 ⋯ m 1, b ⋮ ⋱ ⋮ m a, 1 ⋯ m a, b; and estimating a reconstructed range-doppler image X̂ from Y and M, wherein the reconstructed range-doppler image is a range-doppler image of Y which is deconvolved using M, a range-doppler image being a time-frequency transform of a representation of a sequence of beat signals; whereby doctoring the measured sequence of beat signals at least partially removes interference effects and estimating a reconstructed range-doppler image at least partially removes image artefacts created by the doctoring. identifying one or more interference segments within the measured sequence of beat signals, an interference segment being a segment subject to an interference; doctoring the measured sequence of beat signals by creating a doctored representation of the measured sequence of beat signals in the form of a matrix Y with elements y i,j: Y = y 1,1 ⋯ y 1, b ⋮ ⋱ ⋮ y a, 1 ⋯ y a, b, wherein y i,j = m i,j × A i,j, wherein m i,j is a masking value, the masking value being dependent on whether segment i,j is identified as an interference segment or not, the masking value being set to a lower value if segment i,j is an interference segment compared to if it is not an interference segment; creating a doctoring mask representing the doctoring of the measured sequence of beat signals, the doctoring mask being a matrix M with elements m i,j: M = m 1,1 ⋯ m 1, b ⋮ ⋱ ⋮ m a, 1 ⋯ m a, b; and estimating a reconstructed range-doppler image X̂ from Y and M, wherein the reconstructed range-doppler image is a range-doppler image of Y which is deconvolved using M, a range-doppler image being a time-frequency transform of a representation of a sequence of beat signals; whereby doctoring the measured sequence of beat signals at least partially removes interference effects and estimating a reconstructed range-doppler image at least partially removes image artefacts created by the doctoring.
A firing stand for use in a disruptor system, the firing stand comprising plurality of mounting panels comprising apertures configured to hold shaped charges, said mounting panels being rotatably attached to each other, said mounting panels being made from lightweight foam, the firing stand being foldable between a transport configuration for holding the shaped charges during transport, and at least a first firing configuration in which the shaped charges can be oriented towards a target device.
A method for inhibiting bacterial growth in a biological liquid media, said method comprising passing a biological liquid medium past a finely divided gas stream containing ozone which is distributed into the liquid medium via a porous means providing ozone to the biological liquid medium in an amount of at least 1 ppm of liquid medium treated, after which the liquid medium is passed on to a dwell time unit wherein in said dwell time unit, during a dwell time of 1 minute or less, complete mixing between liquid and ozone, followed by a degassing step to eliminate excess of ozone dissolved in the liquid medium is provided, characterized in that the dwell time unit is a tubular mixer having restricted mixing chambers, wherein the tubular mixer is a peristaltic pump, whereby the tube forming part of the pump is separated into cells.
A sole structure comprising: a plate, an upper midsole component, and a lower midsole component; the upper midsole component having an upper surface and a lower surface, and the upper midsole component having an opening; the lower midsole component having a base portion including an upper surface and a lower surface, the upper surface of the base portion of the lower midsole component being bonded to the lower surface of the upper midsole component; the lower midsole component having a raised portion, the raised portion having an upper surface, the raised portion extending through the opening; the upper surface of the raised portion being in the same plane as the upper surface of the upper midsole component; the plate contacting the upper surface of the upper midsole component; and wherein the plate is secured to the upper surface of the raised portion, and unsecured to the upper midsole component. a plate, an upper midsole component, and a lower midsole component; the upper midsole component having an upper surface and a lower surface, and the upper midsole component having an opening; the lower midsole component having a base portion including an upper surface and a lower surface, the upper surface of the base portion of the lower midsole component being bonded to the lower surface of the upper midsole component; the lower midsole component having a raised portion, the raised portion having an upper surface, the raised portion extending through the opening; the upper surface of the raised portion being in the same plane as the upper surface of the upper midsole component; the plate contacting the upper surface of the upper midsole component; and wherein the plate is secured to the upper surface of the raised portion, and unsecured to the upper midsole component.
A process of granulation of a liquid urea melt containing at least 96 %wt urea, the process comprising: adding a first additive containing carboxymethyl starch to one or more first stage(s) (12, 13) of the granulation process; performing one or more second stage(s) of the granulation process downstream said one or more first stage(s); wherein no amount of said first additive is added to said one or more second stage(s) of the granulation process. adding a first additive containing carboxymethyl starch to one or more first stage(s) (12, 13) of the granulation process; performing one or more second stage(s) of the granulation process downstream said one or more first stage(s); wherein no amount of said first additive is added to said one or more second stage(s) of the granulation process.
Heat exchanger in a mould for a condensing boiler having a burner heated by fuel, in the case of which the medium to be heated is guided in channels and the exhaust gas of the burner is guided in an exhaust gas duct, the exhaust gas duct of the burner in the heat exchanger firstly guides downwards against the thermal lift in a first partial region and, after a redirection, guides upwards with the thermal lift in a second partial region of the heat exchanger, characterised in that, in the second partial region, the exhaust gas duct has ribs which are at an angle to the lift direction and are in parallel to one another, wherein ribs which are adjacent in the vertical direction overlap and a vertical condensate duct is arranged on the side wall of the second partial region at which the angled ribs point downwards.
A laser lap welding process of welding together overlapped first and second plated steel sheets (4, 5), comprising the steps of: inserting at least one insert between joining surfaces (4a, 5a) of the first plated steel sheet and the second plated steel sheet to form a gas discharge passage between parts of the first and second plated steel sheets (4, 5) around a weld line (Lw); and irradiating parts of the first and second plated steel sheets (4, 5) extending on the weld line (Lw) with a laser beam to weld together the first and second plated steel sheets (4, 5), characterised in that a side edge part of the first plated sheet is pressed by a pressure roller and the at least one insert is inserted between a side edge part of the second plated steel sheet and the first plated steel sheet on the side opposite the side edge part of the first plated steel sheet pressed by the pressure roller with respect to the weld line (Lw) and the gas discharge passage of a triangular cross section is formed between the joining surfaces (4a, 5a) of the first and second sheets (4, 5). inserting at least one insert between joining surfaces (4a, 5a) of the first plated steel sheet and the second plated steel sheet to form a gas discharge passage between parts of the first and second plated steel sheets (4, 5) around a weld line (Lw); and irradiating parts of the first and second plated steel sheets (4, 5) extending on the weld line (Lw) with a laser beam to weld together the first and second plated steel sheets (4, 5), characterised in that a side edge part of the first plated sheet is pressed by a pressure roller and the at least one insert is inserted between a side edge part of the second plated steel sheet and the first plated steel sheet on the side opposite the side edge part of the first plated steel sheet pressed by the pressure roller with respect to the weld line (Lw) and the gas discharge passage of a triangular cross section is formed between the joining surfaces (4a, 5a) of the first and second sheets (4, 5).
A method in a wireless network component for packet relaying, the method comprising: transmitting, by the wireless network component, a first data packet to a relay station, wherein the first data packet comprising a first receiver identification, ID of the relay station identifying the relay station as a recipient of the first data packet, data that is intended for a target wireless device, and an identification of the target wireless device; receiving, by the wireless network component, from the relay station, a second data packet within a predetermined time after transmitting the first data packet, characterized in that the second data packet comprises a second receiver ID identifying a recipient of the second data packet, and wherein the first data packet is re-encoded by the relay station in the second data packet; and determining, by the wireless network component, whether the receiver ID in the second data packet corresponds to the identification of the target wireless device, wherein the wireless network component considers the transmission of the first data packet to the relay station is successful if the receiver ID in the second data packet corresponds to the identification of the target wireless device. transmitting, by the wireless network component, a first data packet to a relay station, wherein the first data packet comprising a first receiver identification, ID of the relay station identifying the relay station as a recipient of the first data packet, data that is intended for a target wireless device, and an identification of the target wireless device; receiving, by the wireless network component, from the relay station, a second data packet within a predetermined time after transmitting the first data packet, characterized in that the second data packet comprises a second receiver ID identifying a recipient of the second data packet, and wherein the first data packet is re-encoded by the relay station in the second data packet; and determining, by the wireless network component, whether the receiver ID in the second data packet corresponds to the identification of the target wireless device, wherein the wireless network component considers the transmission of the first data packet to the relay station is successful if the receiver ID in the second data packet corresponds to the identification of the target wireless device.