mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: registering a fluoroscopic imaging system and a position tracking system to a common frame of reference; marking a region of interest in a patient body by the position tracking system; and using the common frame of reference, setting a field of view of the fluoroscopic imaging system such that the region of interest appears in the field of view, characterized in that setting the field of view comprises positioning the fluoroscopic imaging system relative to the patient using the common frame of reference, without irradiating the patient with the fluoroscopic imaging system. registering a fluoroscopic imaging system and a position tracking system to a common frame of reference; marking a region of interest in a patient body by the position tracking system; and using the common frame of reference, setting a field of view of the fluoroscopic imaging system such that the region of interest appears in the field of view, characterized in that setting the field of view comprises positioning the fluoroscopic imaging system relative to the patient using the common frame of reference, without irradiating the patient with the fluoroscopic imaging system.
A method for determining a retardance of a layer of a sample, comprising: transmitting a first portion of a polarized light to a sample arm of an optical system and a second portion of the polarized light to a reference arm of the optical system; combining first return light returned from the sample arm and second return light from the reference arm; detecting, using a detector (119, 120), the combined light along a first polarization state and a second polarization state to produce polarization data, the second polarization state being different from the first polarization state; determining, using a processor coupled to the detector (119,120) polarization states of light returning from upper and lower surfaces of a layer of the sample based on detecting the combined light; characterized in that the method further comprises determining, using the processor, a retardance of the layer of the sample based on the determined polarization states by determining a mirror state associated with the polarization data, wherein the mirror state comprises a point on a Poincaré sphere. transmitting a first portion of a polarized light to a sample arm of an optical system and a second portion of the polarized light to a reference arm of the optical system; combining first return light returned from the sample arm and second return light from the reference arm; detecting, using a detector (119, 120), the combined light along a first polarization state and a second polarization state to produce polarization data, the second polarization state being different from the first polarization state; determining, using a processor coupled to the detector (119,120) polarization states of light returning from upper and lower surfaces of a layer of the sample based on detecting the combined light; characterized in that the method further comprises determining, using the processor, a retardance of the layer of the sample based on the determined polarization states by determining a mirror state associated with the polarization data, wherein the mirror state comprises a point on a Poincaré sphere. determining, using the processor, a retardance of the layer of the sample based on the determined polarization states by determining a mirror state associated with the polarization data, wherein the mirror state comprises a point on a Poincaré sphere.
A method for producing an osteocalcin microcrystalline hydroxyapatite preparation without using organic solvents to remove fat comprising the steps of: selecting bovine leg bone diaphysis of prime bovine of 30 months or less age; said bovine leg bone is block frozen to below -12°C Mincing the frozen bovine leg bone; digesting the minced bovine leg bone with a protease at a temperature of 60 to 70°C at a pH of 8.5 to 8.7, thereby removing fat; freeze-drying the digested bovine leg bone for not more than 24 hours until not more than 5% moisture remains; and milling the digested leg bone to produce osteocalcin microcrystalline hydroxyapatite with a particle size distribution, wherein not more than 30% are smaller than 250 μm and not less than 90 % are smaller than 850 μm, wherein the protease is alcalase. selecting bovine leg bone diaphysis of prime bovine of 30 months or less age; said bovine leg bone is block frozen to below -12°C Mincing the frozen bovine leg bone; digesting the minced bovine leg bone with a protease at a temperature of 60 to 70°C at a pH of 8.5 to 8.7, thereby removing fat; freeze-drying the digested bovine leg bone for not more than 24 hours until not more than 5% moisture remains; and milling the digested leg bone to produce osteocalcin microcrystalline hydroxyapatite with a particle size distribution, wherein not more than 30% are smaller than 250 μm and not less than 90 % are smaller than 850 μm, wherein the protease is alcalase.
A sophorolipid-producing yeast mutant strain, in which expression of a polypeptide consisting of the amino acid sequence set forth in SEQ ID NO:2 or an amino acid sequence having at least 90% identity therewith has been suppressed or said polypeptide has been deactivated.
A monitoring system for a vehicle, comprising - a display unit, - an adjustment tool, and - a control unit, the control unit being configured to generate an energy flow map showing an energy flow from an energy storage system to at least one sub-system of the vehicle, the display unit being configured to display the energy flow map, the display unit being configured to graphically emphasize the at least one sub-system on the energy flow map to display a current energy consumption of the sub-system, the control unit being further configured to adjust the energy consumption of the sub-system based on a user's input to the adjustment tool, the adjustment tool being integrated in the display unit and configured to be graphically controlled, and the display unit being configured to graphically emphasize a lower level of the sub-system on the energy flow map. - a display unit, - an adjustment tool, and - a control unit, the control unit being configured to generate an energy flow map showing an energy flow from an energy storage system to at least one sub-system of the vehicle, the display unit being configured to display the energy flow map, the display unit being configured to graphically emphasize the at least one sub-system on the energy flow map to display a current energy consumption of the sub-system, the control unit being further configured to adjust the energy consumption of the sub-system based on a user's input to the adjustment tool, the adjustment tool being integrated in the display unit and configured to be graphically controlled, and the display unit being configured to graphically emphasize a lower level of the sub-system on the energy flow map.
A device for the orientation and feeding of closures comprising a hopper for containing closures, a lifting device for said closures which comprises at least one transfer element which can move along a movement direction between a loading region, designed to receive the closures that arrive from said containment hopper, and an unloading region, arranged at a greater height than said loading region, said transfer element having a closed extension which forms a rising portion, which extends from the loading region to the unloading region, and a descending portion, which extends from said unloading region to said loading region, said transfer element having, along its extension, a plurality of receptacles for said closures formed between abutment walls that are extended transversely to said movement direction, said lifting device comprising means for selecting the closures which are adapted to allow the feeding to said unloading region of the closures accommodated in said receptacles with their lower rim directed oppositely with respect to said transfer element, wherein said transfer device comprises, at said unloading region, a device for turning over said closures which comprises an abutment partition arranged substantially parallel to said transfer element in order to move said closures to a feeding position in which the lower rim is arranged downward, characterized in that said transfer device comprises at least one guide for feeding the closures in the feeding position from said unloading region toward a feeding element that is associated with a capping unit, at least one blower being provided which is adapted to move said closures from said unloading region along said feeding guide, along said feeding guide there being an unjamming portion which comprises a lower supporting surface and two lateral containment walls (34, 35) for said closures that arrive from said unloading region, an unjamming device being provided for moving away the closures jammed at said unjamming portion, said unjamming device comprising sensor means arranged downstream of said unloading region and adapted to detect an interruption of the flow of said closures along said feeding guide and actuation means adapted to move at least one portion of said lower supporting surface in response to a signal emitted by said sensor means in order to cause the fall by gravity of said jammed closures from said supporting surface.
A flow responsiveness enhancer for improved time responsiveness of a blowout preventer, comprising: at least one section; and a shared pressure line coupled to the at least one section; wherein the at least one section includes: a pair of input ports (A, B); a pair of output ports (A', B'); a first valve system that controls flow from one port of the pair of input ports into the shared pressure line; and a second valve system that controls flow from the shared pressure line into one port of the pair of output ports; and wherein the at least one section is a first section, and further comprising a second section coupled to the shared pressure line, wherein the second section includes: another pair of input ports; another pair of output ports; a third valve system that controls flow from one port of the other pair of input ports into the shared pressure line; and a fourth valve system that controls flow from the shared pressure line into one port of the other pair of output ports. at least one section; and a shared pressure line coupled to the at least one section; wherein the at least one section includes: a pair of input ports (A, B); a pair of output ports (A', B'); a first valve system that controls flow from one port of the pair of input ports into the shared pressure line; and a second valve system that controls flow from the shared pressure line into one port of the pair of output ports; and a pair of input ports (A, B); a pair of output ports (A', B'); a first valve system that controls flow from one port of the pair of input ports into the shared pressure line; and a second valve system that controls flow from the shared pressure line into one port of the pair of output ports; and wherein the at least one section is a first section, and further comprising a second section coupled to the shared pressure line, wherein the second section includes: another pair of input ports; another pair of output ports; a third valve system that controls flow from one port of the other pair of input ports into the shared pressure line; and a fourth valve system that controls flow from the shared pressure line into one port of the other pair of output ports. another pair of input ports; another pair of output ports; a third valve system that controls flow from one port of the other pair of input ports into the shared pressure line; and a fourth valve system that controls flow from the shared pressure line into one port of the other pair of output ports.
A light emitting device package (100; 100A; 100B; 100C; 100D; 100E; 100F; 100G; 100H; 1001; 100J; 100K; 100L) comprising: a package body (110; 110A; 110B; 110C); a light emitting device disposed on the package body (110; 110A; 110B; 110C); at least one lead electrode electrically connected to the light emitting device; an adhesion part (133; 133A; 133B; 133C) disposed under the light emitting device; and a light guide member (140; 140A; 165) disposed under the light emitting device, wherein the light guide member (140; 140A) is disposed between the light emitting device and the package body (110; 110A; 110B; 110C) in at least one groove (117; 117A; 117B) of the package body (110; 110A; 110B; 110C) or the light guide member is disposed between the light emitting device and the package body in at least one groove independent of the package body, characterized in that with the adhesion part (133; 133A; 133B; 133C) being arranged below the light emitting device, the at least one groove (117; 117A; 117B) extends from the adhesion part (133; 133A; 133B; 133C) to beyond an outer perimeter of the light emitting device and toward the at least one lead electrode. a package body (110; 110A; 110B; 110C); a light emitting device disposed on the package body (110; 110A; 110B; 110C); at least one lead electrode electrically connected to the light emitting device; an adhesion part (133; 133A; 133B; 133C) disposed under the light emitting device; and a light guide member (140; 140A; 165) disposed under the light emitting device, wherein the light guide member (140; 140A) is disposed between the light emitting device and the package body (110; 110A; 110B; 110C) in at least one groove (117; 117A; 117B) of the package body (110; 110A; 110B; 110C) or the light guide member is disposed between the light emitting device and the package body in at least one groove independent of the package body, characterized in that with the adhesion part (133; 133A; 133B; 133C) being arranged below the light emitting device, the at least one groove (117; 117A; 117B) extends from the adhesion part (133; 133A; 133B; 133C) to beyond an outer perimeter of the light emitting device and toward the at least one lead electrode.
A LED illumination source comprising: one or a plurality of LED illumination modules, each LED illumination module comprising a plurality of LED clusters, wherein each LED cluster comprises a LED array which is rotated by an angle of rotation with respect to an axis which is parallel to a predefined direction of sweep, characterised in that groups of LEDs of the plurality of LED clusters are electrically linked in current chains (704, 706, 708) wherein LEDs in each of the groups of LEDs are electrically linked along a line which is diagonal to the direction of sweep at an angle which is greater than the angle of rotation of the LED clusters.
A wireless station, STA, arranged to perform a Time-of-Flight, ToF, measurement, the STA comprising a transceiver arranged to: transmit a hard constraint indicating a first time window in which the STA is unavailable for performing the ToF measurement, wherein the transceiver is arranged to transmit the hard constraint as a bit map, wherein each bit of the bit map corresponds to a specified amount of time and wherein a set bit indicates the STA is unavailable for performing the ToF measurement and a not set bit indicates the STA is available to perform the ToF measurement; receive a time allocation within the hard constraint from another STA, the time allocation specifying a second time window outside the first time window in which the another STA will transmit an action frame; and receive the action frame of the ToF measurement from the another STA at a time within the second time window. transmit a hard constraint indicating a first time window in which the STA is unavailable for performing the ToF measurement, wherein the transceiver is arranged to transmit the hard constraint as a bit map, wherein each bit of the bit map corresponds to a specified amount of time and wherein a set bit indicates the STA is unavailable for performing the ToF measurement and a not set bit indicates the STA is available to perform the ToF measurement; receive a time allocation within the hard constraint from another STA, the time allocation specifying a second time window outside the first time window in which the another STA will transmit an action frame; and receive the action frame of the ToF measurement from the another STA at a time within the second time window.
A valved conduit, comprising: a bioprosthetic valve including bioprosthetic tissue, wherein the valve is dry and configured to be stored dry for extended periods without degradation of functionality of the valve; and a conduit sealed with a bioresorbable medium and coupled to the bioprosthetic valve. a bioprosthetic valve including bioprosthetic tissue, wherein the valve is dry and configured to be stored dry for extended periods without degradation of functionality of the valve; and a conduit sealed with a bioresorbable medium and coupled to the bioprosthetic valve.
A method of performing a radio access procedure in a wireless communication system using a number of orthogonal frequency division multiple, OFDM, symbols, the method performed by a user equipment, UE, and comprising: transmitting a radio resource control, RRC, connection request message to a network, wherein an establishment cause of the RRC connection request message is set to be delay tolerant or low priority; in response to the RRC connection request message, receiving an RRC connection reject message from the network including first information associated with an extended wait time, wherein the first information includes a first portion and a second portion; determining a lower bound for the extended wait time and an upper bound for the extended wait time by using the first information associated with the extended wait time, wherein the first information associated with the extended wait time consists of most significant bits, MSBs, and least significant bits, LSBs, wherein the MSBs consist of consecutive bits representing the upper bound, and the LSBs consist of consecutive bits representing a fraction, wherein a multiplication between the upper bound and the fraction is used to determine the lower bound; drawing a random number from a uniform distribution between the lower bound and the upper bound for the extended wait time; starting an extended wait timer according to the drawn number; and performing radio access to a base station after the extended wait timer is expired. transmitting a radio resource control, RRC, connection request message to a network, wherein an establishment cause of the RRC connection request message is set to be delay tolerant or low priority; in response to the RRC connection request message, receiving an RRC connection reject message from the network including first information associated with an extended wait time, wherein the first information includes a first portion and a second portion; determining a lower bound for the extended wait time and an upper bound for the extended wait time by using the first information associated with the extended wait time, wherein the first information associated with the extended wait time consists of most significant bits, MSBs, and least significant bits, LSBs, wherein the MSBs consist of consecutive bits representing the upper bound, and the LSBs consist of consecutive bits representing a fraction, wherein a multiplication between the upper bound and the fraction is used to determine the lower bound; drawing a random number from a uniform distribution between the lower bound and the upper bound for the extended wait time; starting an extended wait timer according to the drawn number; and performing radio access to a base station after the extended wait timer is expired.
An assembly of a magnetic rod and a magnetic rod guide for a filter, the magnetic rod guide comprising a base for attachment to a part of a filter, a through aperture through which the magnetic rod can move, and engagement means for releasably holding the magnetic rod in one or more fixed positions relative to the magnetic rod guide, the magnetic rod being cylindrical and sized to slide through the aperture in the magnetic rod guide and having one or more co-operating engagement means (48a, 48b) for engaging with the engagement means of the magnetic rod guide, one end of the magnetic rod including a handle portion to one side of the magnetic rod guide, for use in moving the magnetic rod through the magnetic rod guide, in use the magnetic rod being movable relative to the magnetic rod guide into a position where the magnetic rod is held by the engagement means, characterized in that the engagement means on the magnetic rod guide includes at least one resilient latch, the or each resilient latch being adapted to allow movement of the magnetic rod through the through aperture in either direction, for insertion into the filter or withdrawal from the filter into one of the one or more fixed positions, and wherein at least one position into which the magnetic rod is movable and in which the magnetic rod is held by the resilient engagement means is a position in which at least one magnet in the magnetic rod is disposed to the same side of the magnetic rod guide as the handle portion. the magnetic rod guide comprising a base for attachment to a part of a filter, a through aperture through which the magnetic rod can move, and engagement means for releasably holding the magnetic rod in one or more fixed positions relative to the magnetic rod guide, the magnetic rod being cylindrical and sized to slide through the aperture in the magnetic rod guide and having one or more co-operating engagement means (48a, 48b) for engaging with the engagement means of the magnetic rod guide, one end of the magnetic rod including a handle portion to one side of the magnetic rod guide, for use in moving the magnetic rod through the magnetic rod guide, in use the magnetic rod being movable relative to the magnetic rod guide into a position where the magnetic rod is held by the engagement means, characterized in that the engagement means on the magnetic rod guide includes at least one resilient latch, the or each resilient latch being adapted to allow movement of the magnetic rod through the through aperture in either direction, for insertion into the filter or withdrawal from the filter into one of the one or more fixed positions, and wherein at least one position into which the magnetic rod is movable and in which the magnetic rod is held by the resilient engagement means is a position in which at least one magnet in the magnetic rod is disposed to the same side of the magnetic rod guide as the handle portion.
A two-card assembly comprising: a first printed wiring board; a second printed wiring board; a first stiffener secured to the first printed wiring board, the first stiffener interposed between the first printed wiring board and the second printed wiring board; a second stiffener secured to the second printed wiring board, the second stiffener interposed between the first stiffener and second printed wiring board; a transformer mounting plate interposed between the first stiffener and the second stiffener; and a planar transformer secured to the transformer mounting plate, wherein the transformer mounting plate dissipates heat from the planar transformer. a first printed wiring board; a second printed wiring board; a first stiffener secured to the first printed wiring board, the first stiffener interposed between the first printed wiring board and the second printed wiring board; a second stiffener secured to the second printed wiring board, the second stiffener interposed between the first stiffener and second printed wiring board; a transformer mounting plate interposed between the first stiffener and the second stiffener; and a planar transformer secured to the transformer mounting plate, wherein the transformer mounting plate dissipates heat from the planar transformer.