mhurhangee/ep-ind-claims huggingface dataset:
A variable oil pump comprising: a pump housing; a cover that faces the pump housing; an oil pump rotor rotationally driven while being housed in a housing space between the pump housing and the cover; an adjustment member housed in the housing space and that adjusts an amount of oil discharged from the oil pump rotor by being displaced due to a drive force while rotatably holding the oil pump rotor from an outer peripheral side; and a guide portion (51, 52) including a groove (38, 39) provided in the adjustment member and a pin (15, 16) provided on the pump housing and that engages with the groove (38, 39), and the guide portion (51, 52) that guides relative displacement of the adjustment member with respect to the pump housing by engaging the groove (38, 39) and the pin (15, 16) with each other, characterized by a seal structure (81, 81a, 81b, 82, 82a, 82b) provided on at least one of the pump housing and the cover and that seals an inside of the groove (38, 39) with respect to the housing space by surrounding a movement trajectory (P1, P2) of the groove (38, 39) of the adjustment member relatively displaced with respect to the pin (15, 16). a pump housing; a cover that faces the pump housing; an oil pump rotor rotationally driven while being housed in a housing space between the pump housing and the cover; an adjustment member housed in the housing space and that adjusts an amount of oil discharged from the oil pump rotor by being displaced due to a drive force while rotatably holding the oil pump rotor from an outer peripheral side; and a guide portion (51, 52) including a groove (38, 39) provided in the adjustment member and a pin (15, 16) provided on the pump housing and that engages with the groove (38, 39), and the guide portion (51, 52) that guides relative displacement of the adjustment member with respect to the pump housing by engaging the groove (38, 39) and the pin (15, 16) with each other, characterized by a seal structure (81, 81a, 81b, 82, 82a, 82b) provided on at least one of the pump housing and the cover and that seals an inside of the groove (38, 39) with respect to the housing space by surrounding a movement trajectory (P1, P2) of the groove (38, 39) of the adjustment member relatively displaced with respect to the pin (15, 16).
A method for determining if an implanted pacemaker set in asynchronous mode is present, said method being carried out with an ECG monitor, comprising the steps of: - before an MRI examination, automatically detecting emitted spikes of the pacemaker with the ECG monitor, characterized in that the method comprises the further steps of - checking for spikes with a regularly pattern when the patient is in a MRI tube but before the MRI examination starts by determining by the ECG monitor if the monitored spikes fulfil a predetermined regularity pattern, - informing an operator, preferably visually and/or acoustically, if the spikes fulfil the predetermined regularity pattern with a prompting device. - before an MRI examination, automatically detecting emitted spikes of the pacemaker with the ECG monitor, - checking for spikes with a regularly pattern when the patient is in a MRI tube but before the MRI examination starts by determining by the ECG monitor if the monitored spikes fulfil a predetermined regularity pattern, - informing an operator, preferably visually and/or acoustically, if the spikes fulfil the predetermined regularity pattern with a prompting device.
Projectile, in particular a mortar grenade, having a fin stabilizing unit arranged on a stabilizing unit shaft at the rear of the projectile, wherein the projectile comprises a conical ring part, which can be pushed at least partially onto the fin stabilizing unit from the rear end of the projectile and for this purpose the ring part has circumferentially a number of longitudinal slits corresponding to the number of stabilizing unit fins of the fin stabilizing unit.
A cannula for fluid exchange with a body lumen, the cannula comprising: an elongated flexible tube coupleable to a needle such that said elongated flexible tube concentrically surrounds the needle, and having an invasive section and a non-invasive section and defining a lumen for fluid transfer; and at least one anchoring element (14, 16) adapted to radially extend away from said tube and contact an inner wall of the body lumen adjacent an aperture into the body lumen, said at least one anchoring element adapted to make no contact with an opposing inner wall of the body lumen; characterized in that: said invasive section has a first effective diameter when inserted into the body lumen and wherein said invasive section is configured to have a second effective diameter smaller than said first effective diameter when said invasive section is turned about an axis of said cannula and removed from the body lumen. an elongated flexible tube coupleable to a needle such that said elongated flexible tube concentrically surrounds the needle, and having an invasive section and a non-invasive section and defining a lumen for fluid transfer; and at least one anchoring element (14, 16) adapted to radially extend away from said tube and contact an inner wall of the body lumen adjacent an aperture into the body lumen, said at least one anchoring element adapted to make no contact with an opposing inner wall of the body lumen; characterized in that: said invasive section has a first effective diameter when inserted into the body lumen and wherein said invasive section is configured to have a second effective diameter smaller than said first effective diameter when said invasive section is turned about an axis of said cannula and removed from the body lumen.
A plunger rod resetting mechanism for a drug delivery device comprising, a) a housing having an outer surface on a proximal end configured to allow removable attachment of a cartridge holder through engagement of a snap fit connector on the outer surface; b) a locking shell positioned inside the housing and having a radial projecting pin protruding through the outer surface of the housing, where the locking shell is rotatable relative to the housing and configured to engage the cartridge holder during attachment to the housing; c) a lock pin rotationally fixed to the housing and having a stop projecting through the outer surface of the housing and slidable in the distal direction from an unlocked to a locked position where the stop prevents removal of the cartridge holder from the housing; d) a biasing member that exerts a distal force on the lock pin to move the stop from the unlocked to the locked position; e) a transfer ring rotationally fixed to and axially slidable to the locking shell; f) a cam nut engaged with the transfer ring through a cam that allows the transfer ring to rotate and move axially relative to the cam nut; g) a push pin axially fixed to the transfer ring; and h) a nut segment slidably connected to the push pin through a cam, where the nut segment is configured to move from a locked position to an unlocked position. a) a housing having an outer surface on a proximal end configured to allow removable attachment of a cartridge holder through engagement of a snap fit connector on the outer surface; b) a locking shell positioned inside the housing and having a radial projecting pin protruding through the outer surface of the housing, where the locking shell is rotatable relative to the housing and configured to engage the cartridge holder during attachment to the housing; c) a lock pin rotationally fixed to the housing and having a stop projecting through the outer surface of the housing and slidable in the distal direction from an unlocked to a locked position where the stop prevents removal of the cartridge holder from the housing; d) a biasing member that exerts a distal force on the lock pin to move the stop from the unlocked to the locked position; e) a transfer ring rotationally fixed to and axially slidable to the locking shell; f) a cam nut engaged with the transfer ring through a cam that allows the transfer ring to rotate and move axially relative to the cam nut; g) a push pin axially fixed to the transfer ring; and h) a nut segment slidably connected to the push pin through a cam, where the nut segment is configured to move from a locked position to an unlocked position.
A housing for electrical components, comprising: an electrically insulating body made from a first material that is electrically insulating such as plastic or ceramic material; a housing body made from a second material such as aluminium or aluminium alloy; and a bus bar; wherein the housing body and insulating body are integrally formed using an additive manufacturing process; and wherein the bus bar is incorporated during a foil layup process using interleaved foils welded to one another so as to form a bus bar embedded within the insulating body that fixes the bus bar within the housing body. an electrically insulating body made from a first material that is electrically insulating such as plastic or ceramic material; a housing body made from a second material such as aluminium or aluminium alloy; and a bus bar; wherein the housing body and insulating body are integrally formed using an additive manufacturing process; and wherein the bus bar is incorporated during a foil layup process using interleaved foils welded to one another so as to form a bus bar embedded within the insulating body that fixes the bus bar within the housing body.
An audio encoding method, comprising: transforming an audio signal into spectral data; coding a baseband portion of the spectral data; in an extended band portion of the spectral data, determining characteristics of spectral data; characterized by splitting or merging sub-bands of an initial configuration based on the characteristics to obtain an altered configuration; coding the altered configuration of sub-bands comprising data indicating individual sub-bands in the extended band altered from the initial configuration. transforming an audio signal into spectral data; coding a baseband portion of the spectral data; in an extended band portion of the spectral data, determining characteristics of spectral data; characterized by splitting or merging sub-bands of an initial configuration based on the characteristics to obtain an altered configuration; coding the altered configuration of sub-bands comprising data indicating individual sub-bands in the extended band altered from the initial configuration.
A Doppler lidar intended to measure the speed of a target, said lidar comprising at least one laser source transmitting an optical signal, optical means for transmitting (42, 43, 44, 45) said optical signal and for receiving (44, 45, 46) an optical signal backscattered by said target illuminated by said optical signal, heterodyne detection means (47, 48) making it possible to make the transmission optical signal and the backscattered optical signal beat and measure the beat frequency of the beat heterodyne signal, said beat frequency comprising a peak at the so-called Doppler frequency representative of the absolute speed of the target relative to the lidar, characterised in that the lidar comprises: first means for modulating the optical frequency of the optical signal so that said frequency is the sum of a constant frequency and of a variable frequency of determined amplitude modulated by a periodic temporal function; second means (50, 51, 52, 53, 54, 55, 56, 57, 58) making it possible to compute the spectrum of the measured heterodyne signal and to create two measurement spectra, the first spectrum and the second spectrum being obtained by shifting the spectrum of the measured heterodyne signal by a positive and negative frequency realignment value, said realignment value being equal to the frequency difference between the instantaneous frequency of the transmission signal and the frequency of a transmission signal transmitted at a time shifted relative to the round-trip travel time between the lidar and the target; third means for comparing the two measurement spectra, the difference in form between the two spectra at the Doppler frequency making it possible to determine the direction of the speed of the target. first means for modulating the optical frequency of the optical signal so that said frequency is the sum of a constant frequency and of a variable frequency of determined amplitude modulated by a periodic temporal function; second means (50, 51, 52, 53, 54, 55, 56, 57, 58) making it possible to compute the spectrum of the measured heterodyne signal and to create two measurement spectra, the first spectrum and the second spectrum being obtained by shifting the spectrum of the measured heterodyne signal by a positive and negative frequency realignment value, said realignment value being equal to the frequency difference between the instantaneous frequency of the transmission signal and the frequency of a transmission signal transmitted at a time shifted relative to the round-trip travel time between the lidar and the target; third means for comparing the two measurement spectra, the difference in form between the two spectra at the Doppler frequency making it possible to determine the direction of the speed of the target.
Method for supporting a user, comprising the method steps: - providing a 3D data set which depicts a target object, - acquiring at least one 2D image of the target object, - automatically 2D/3D registering the at least one 2D image with the 3D data set provided, - automatically specifying a spatial direction in which the 2D/3D registration exhibits greatest uncertainty, and - as a function of the specified spatial direction, automatically generating and outputting a signal for the purpose of supporting an alignment of an instrument that is provided for the purpose of examining the target object, in order to support the user. - providing a 3D data set which depicts a target object, - acquiring at least one 2D image of the target object, - automatically 2D/3D registering the at least one 2D image with the 3D data set provided, - automatically specifying a spatial direction in which the 2D/3D registration exhibits greatest uncertainty, and - as a function of the specified spatial direction, automatically generating and outputting a signal for the purpose of supporting an alignment of an instrument that is provided for the purpose of examining the target object, in order to support the user.
A fusion polypeptide, comprising: a target polypeptide and a total of 2 to 10 O-glycosylatable polypeptide regions bound to the N-terminus, C-terminus, or both the N- and C-termini of the target polypeptide, wherein the 2 to 10 O-glycosylatable polypeptide regions are 2 to 10 hinge regions of immunoglobulin, wherein each of the 2 to 10 hinge regions of immunoglobulin is independently selected from the group consisting of a hinge region of Immunoglobulin D (IgD) and a hinge region of Immunoglobulin A (IgA) a target polypeptide and a total of 2 to 10 O-glycosylatable polypeptide regions bound to the N-terminus, C-terminus, or both the N- and C-termini of the target polypeptide, wherein the 2 to 10 O-glycosylatable polypeptide regions are 2 to 10 hinge regions of immunoglobulin, wherein each of the 2 to 10 hinge regions of immunoglobulin is independently selected from the group consisting of a hinge region of Immunoglobulin D (IgD) and a hinge region of Immunoglobulin A (IgA)
A cooling device that supplies gas to a cooling target and cools the cooling target, the cooling device comprising: a cooling gas including gas having thermal conductivity higher than the thermal conductivity of air; a partition wall (63, 101) that closes and stores the cooling target and the cooling gas and is capable of circulating the cooling gas; a cooling section that cools and circulates the cooling gas; a pressure determining section that determines pressure of the cooling gas; and a cooling control section that controls the cooling section, wherein the cooling control section causes the cooling section to change the pressure of the cooling gas and/or change circulation speed of the cooling gas on the basis of a result of the determination of the pressure determining section. a cooling gas including gas having thermal conductivity higher than the thermal conductivity of air; a partition wall (63, 101) that closes and stores the cooling target and the cooling gas and is capable of circulating the cooling gas; a cooling section that cools and circulates the cooling gas; a pressure determining section that determines pressure of the cooling gas; and a cooling control section that controls the cooling section, wherein the cooling control section causes the cooling section to change the pressure of the cooling gas and/or change circulation speed of the cooling gas on the basis of a result of the determination of the pressure determining section.
A method for controlling an electric motor arranged for driving a turbine of an electric fan in rotation around an axis, in particular for ventilating technical or residential premises, consisting in: a) controlling the motor for driving the turbine in rotation around the axis in a first direction of rotation at a low rotational speed (Vb); and in alternation b) controlling the motor for driving the turbine in rotation around the axis in the first direction of rotation at a high rotational speed (Ve); characterized in that in response to a transition from the high rotational speed (Ve) to the low rotational speed (Vb), or conversely, the method consists in: c) controlling the motor for driving the turbine in rotation around the axis in a second direction of rotation, opposed to the first direction of rotation, for a predetermined period, in such a manner as to unclog the turbine. a) controlling the motor for driving the turbine in rotation around the axis in a first direction of rotation at a low rotational speed (Vb); and in alternation b) controlling the motor for driving the turbine in rotation around the axis in the first direction of rotation at a high rotational speed (Ve); characterized in that in response to a transition from the high rotational speed (Ve) to the low rotational speed (Vb), or conversely, the method consists in: c) controlling the motor for driving the turbine in rotation around the axis in a second direction of rotation, opposed to the first direction of rotation, for a predetermined period, in such a manner as to unclog the turbine.
Interferometer apparatus, being configured for an achromatic interferometric superposition of electromagnetic fields having a broadband spectrum, with a dual beam path interferometer, comprising: - a beam splitter being arranged for splitting an input beam into a first beam propagating along a first interferometer arm including at least one deflection mirror and a second beam propagating along a second interferometer arm including at least one deflection mirror, wherein the first and second interferometer arms (A1, A2) have an identical optical path length, and - a beam combiner being arranged for recombining the first and second beams into a constructive output and a destructive output, wherein - reflective surfaces of the beam splitter and the beam combiner are arranged such that, in the first interferometer arm compared with the second interferometer arm, one additional Fresnel reflection at an optically dense medium is provided and a propagation of the electromagnetic fields of the first and second beams, when recombined by the beam combiner, results in a wavelength-independent phase difference of π between the contributions of the two interferometer arms (A1, A2) to the destructive output, and - the first interferometer arm includes a balancing transmission element being arranged for balancing a chromatic dispersion and Fresnel losses in the first and second interferometer arms (A1, A2), characterized in that - the balancing transmission element is adapted to have a fixed position and orientation throughout the whole measurement. - a beam splitter being arranged for splitting an input beam into a first beam propagating along a first interferometer arm including at least one deflection mirror and a second beam propagating along a second interferometer arm including at least one deflection mirror, wherein the first and second interferometer arms (A1, A2) have an identical optical path length, and - a beam combiner being arranged for recombining the first and second beams into a constructive output and a destructive output, wherein - reflective surfaces of the beam splitter and the beam combiner are arranged such that, in the first interferometer arm compared with the second interferometer arm, one additional Fresnel reflection at an optically dense medium is provided and a propagation of the electromagnetic fields of the first and second beams, when recombined by the beam combiner, results in a wavelength-independent phase difference of π between the contributions of the two interferometer arms (A1, A2) to the destructive output, and - the first interferometer arm includes a balancing transmission element being arranged for balancing a chromatic dispersion and Fresnel losses in the first and second interferometer arms (A1, A2), characterized in that - the balancing transmission element is adapted to have a fixed position and orientation throughout the whole measurement.
A cryosurgical probe, comprising: a first member having a first end portion and a second end portion; a tip coupled to the first member at the second end portion; a second member, having an elongated, hollow structure and being tubular, positioned within the first member such that the second member extends within the first member; and a third member operably engaging an inner surface of the first member to define at least one fluid passage between the third member and the first member, wherein the third member is disposed outward from the second member along at least a portion of the second member, and wherein a portion of the third member substantially encloses at least a portion of the second member; wherein the second member and third member are positioned within the first member such that a first distance between a distal end of the second member and the tip is less than a second distance between the distal end of the third member and the tip. a first member having a first end portion and a second end portion; a tip coupled to the first member at the second end portion; a second member, having an elongated, hollow structure and being tubular, positioned within the first member such that the second member extends within the first member; and a third member operably engaging an inner surface of the first member to define at least one fluid passage between the third member and the first member, wherein the third member is disposed outward from the second member along at least a portion of the second member, and wherein a portion of the third member substantially encloses at least a portion of the second member; wherein the second member and third member are positioned within the first member such that a first distance between a distal end of the second member and the tip is less than a second distance between the distal end of the third member and the tip.