mhurhangee/ep-ind-claims huggingface dataset:
A medical device packaging system comprising: a first compartment configured to contain a first portion of the device, the first compartment defined by a bottom panel, an upper panel, and at least one sidewall; a second compartment configured to contain a second portion of the device, the second compartment defined by a bottom panel, an upper panel, and at least one sidewall; and instructions for using the medical device provided on an exterior surface of the upper panel of the second compartment; and wherein the first compartment is removably connected to the second compartment in a hinged manner allowing the first compartment and second compartment to be folded together such that the upper panel of the second compartment faces the upper panel of the first compartment; and wherein removal of the first compartment from the second compartment allows a user to discard the first compartment and retain the second compartment including the instructions for using the medical device; wherein the first compartment and the second compartment comprise a carton assembled from two dimensional sheets. a first compartment configured to contain a first portion of the device, the first compartment defined by a bottom panel, an upper panel, and at least one sidewall; a second compartment configured to contain a second portion of the device, the second compartment defined by a bottom panel, an upper panel, and at least one sidewall; and instructions for using the medical device provided on an exterior surface of the upper panel of the second compartment; and wherein the first compartment is removably connected to the second compartment in a hinged manner allowing the first compartment and second compartment to be folded together such that the upper panel of the second compartment faces the upper panel of the first compartment; and wherein removal of the first compartment from the second compartment allows a user to discard the first compartment and retain the second compartment including the instructions for using the medical device; wherein the first compartment and the second compartment comprise a carton assembled from two dimensional sheets.
A downhole tool, comprising: a metal component comprising a top portion, a bottom portion, and a channel extending from the top portion to the bottom portion, the metal component being fabricated from at least an iron material; and a cemented matrix material bonded to an exterior surface and an interior surface of the metal component, the cemented matrix material comprising a binder material cementing a tungsten carbide powder and a shoulder powder therein, the cemented tungsten carbide powder coupled to at least the bottom portion of the metal component and the cemented shoulder powder being coupled to at least the top portion of the metal component, the shoulder powder being positioned above the tungsten carbide powder, wherein the shoulder powder used for fabricating the downhole tool is absent any free tungsten, and wherein the shoulder powder is selected from at least one of stainless steel powder, nickel powder, cobalt powder, tantalum powder, molybdenum powder, or any other steel powder. a metal component comprising a top portion, a bottom portion, and a channel extending from the top portion to the bottom portion, the metal component being fabricated from at least an iron material; and a cemented matrix material bonded to an exterior surface and an interior surface of the metal component, the cemented matrix material comprising a binder material cementing a tungsten carbide powder and a shoulder powder therein, the cemented tungsten carbide powder coupled to at least the bottom portion of the metal component and the cemented shoulder powder being coupled to at least the top portion of the metal component, the shoulder powder being positioned above the tungsten carbide powder, wherein the shoulder powder used for fabricating the downhole tool is absent any free tungsten, and wherein the shoulder powder is selected from at least one of stainless steel powder, nickel powder, cobalt powder, tantalum powder, molybdenum powder, or any other steel powder.
A thermistor comprising at least one multilayer structure comprising a set of alternating layers, a first layer A comprising Si and a second layer B comprising Ge, for use as a barrier layer and a quantum layer respectively, said layers in the multilayer structure being in the sequence A: B: Δ: A where Δ = n × A: B; n ≥ 0 where the first layer A is a Si 1-y C y layer where the composition of the Si 1-y C y layer is given by 0.005 ≤ y ≤ 0.035 and wherein the second layer B is a Si 1-x-z Ge x Sn z layer with the composition given by 0.20 ≤ x ≤ 1.00 0 ≤ z ≤ 0.2 0.20 ≤ x ≤ 1.00 0 ≤ z ≤ 0.2
An optical device for distributing radiant emissions of a light emitter, the optical device comprising: a transfer section; and an ejector section 703 situated upon the transfer section, said transfer section operable for placement upon a light emitter (22, 23, 24) and operable to transfer radiant emission from said light emitter (22, 23, 24) to said ejector section 703, said ejector section shaped such that the emission is redistributed externally into a solid angle, characterized in that said ejector section 703 has an upper surface comprised of a radial array of V-grooves, wherein said ejector section has an upper surface with a profile of an equiangular spiral with its center at an upper edge of said transfer section, such that the crest lines of the V-grooves are curved downward towards a depressed center point of the upper surface. a transfer section; and an ejector section 703 situated upon the transfer section, said transfer section operable for placement upon a light emitter (22, 23, 24) and operable to transfer radiant emission from said light emitter (22, 23, 24) to said ejector section 703, said ejector section shaped such that the emission is redistributed externally into a solid angle, characterized in that said ejector section 703 has an upper surface comprised of a radial array of V-grooves, wherein said ejector section has an upper surface with a profile of an equiangular spiral with its center at an upper edge of said transfer section, such that the crest lines of the V-grooves are curved downward towards a depressed center point of the upper surface.
An apparatus for use in a magnetic resonance system, the apparatus comprising: an operative component ( 22, 26) for use in a field of view of a magnetic resonance system, which system is configured to excite magnetic resonance at a first magnetic resonance frequency and a second magnetic resonance frequency different from the first magnetic resonance frequency; an electrical cable ( 24, 28) connected with the operative component to provide electrical communication with the operative component; and a resonant circuit ( 30, 32) formed by (i) at least a portion of a conductive element of the electrical cable and (ii) an impedance formed by a series combination of a first inductance and a first capacitance in parallel with a second capacitance, said impedance connected in parallel to the portion, the resonant circuit having a first impedance pole at said first magnetic resonance frequency and a second impedance pole at said second magnetic resonance frequency. an operative component ( 22, 26) for use in a field of view of a magnetic resonance system, which system is configured to excite magnetic resonance at a first magnetic resonance frequency and a second magnetic resonance frequency different from the first magnetic resonance frequency; an electrical cable ( 24, 28) connected with the operative component to provide electrical communication with the operative component; and a resonant circuit ( 30, 32) formed by (i) at least a portion of a conductive element of the electrical cable and (ii) an impedance formed by a series combination of a first inductance and a first capacitance in parallel with a second capacitance, said impedance connected in parallel to the portion, the resonant circuit having a first impedance pole at said first magnetic resonance frequency and a second impedance pole at said second magnetic resonance frequency.
An arrangement comprising a pneumatic cylinder, the pneumatic cylinder having a rear end, a front end and a pressure space therebetween, the pressure space containing a piston reciprocating in the pressure space and having a piston rod whose free end is arranged to project, through a guiding structure provided in the front end and guiding the piston rod, out of the pressure space, wherein a play is provided between the guiding structure and the piston rod to conduct the pressure medium out of the pressure space during the movement of the piston rod, the pneumatic cylinder further comprising a first pressure medium flow channel leading to a first side of the piston and a second pressure medium flow channel leading to a second side of the piston, as well as structures damping the reciprocating movement of the piston at the extreme ends of the movement, including at least a first damper and a second damper, and the structures damping the reciprocating movement of the piston at the extreme ends of the movement comprise a first structure restricting the amount of flow leaving during the damping and a second structure restricting the amount of flow leaving during the damping, wherein the pneumatic cylinder has a sealing arrangement adapted to seal against a pressure medium flow out of the pneumatic cylinder, through the play as the piston and the load moved by it are in the retracted extreme position, wherein the sealing arrangement comprises a first matching surface on the front end, a second matching surface moving along with the piston rod and an elastic sealing element between the matching surfaces, wherein the sealing element is adapted to be pressed between the matching surfaces (6b and 6c) as the piston rod is in its retracted extreme position, characterized in that the first matching surface is located on the front face of the front end.
A multi-layer controlled-release tablet comprising: (a) one active layer containing: (i) 0.05% to 20% by weight of an active substance, (ii) hydrophilic polymeric substances which swell and/or gel and/or erode upon contact with aqueous liquids, (iii) lipophilic substances, and (iv) 5% to 50% by weight of adjuvant substances, wherein the weight ratio of the hydrophilic polymeric substances to the lipophilic substances contained in said active layer is in the range of 7:1 to 1:1; and (b) one or more barrier layers which limit the release surface of the active layer and which barrier layers contain one or more of: hydrophilic polymeric substances which swell and/or gel and/or erode upon contact with aqueous liquids, lipophilic substances, and adjuvant substances. wherein the active substance is not ropinirole. (a) one active layer containing: (i) 0.05% to 20% by weight of an active substance, (ii) hydrophilic polymeric substances which swell and/or gel and/or erode upon contact with aqueous liquids, (iii) lipophilic substances, and (iv) 5% to 50% by weight of adjuvant substances, wherein the weight ratio of the hydrophilic polymeric substances to the lipophilic substances contained in said active layer is in the range of 7:1 to 1:1; and (b) one or more barrier layers which limit the release surface of the active layer and which barrier layers contain one or more of: hydrophilic polymeric substances which swell and/or gel and/or erode upon contact with aqueous liquids, lipophilic substances, and adjuvant substances.
An integrated magnetoresistive sensor of an AMR type, comprising a first magnetoresistive unit including: a magnetoresistor comprising a magnetoresistive strip of an elongated shape having a length in a first direction parallel to a preferential magnetization direction and a width in a second direction perpendicular to the first direction; a set/reset coil having a stretch (34a, 34b) extending transversely to the first direction; characterized in further comprising a shielding region of ferromagnetic material having a width in the second direction greater than the width of the magnetoresistive strip. a magnetoresistor comprising a magnetoresistive strip of an elongated shape having a length in a first direction parallel to a preferential magnetization direction and a width in a second direction perpendicular to the first direction; a set/reset coil having a stretch (34a, 34b) extending transversely to the first direction; characterized in further comprising a shielding region of ferromagnetic material having a width in the second direction greater than the width of the magnetoresistive strip.
A quantum cryptographic receiver for receiving a series of photon pulses, the receiver comprising at least one photon detector and gating means to generate a gating signal for periodically gating said receiver, characterised in that the gating means comprises a first electronic clock for generating a first timing signal and in that said gating signal is derived from said first timing signal wherein the gating means comprises a phase adjuster for generating the gating signal from the first timing signal, said phase adjuster being arranged to provide a variable phase lag between the gating signal and the first timing signal, wherein the receiver is arranged to receive a series of photon pulses that are preceded by a header block of photon pulses encoding a predetermined pseudo-random bit sequence, and wherein said phase adjuster is arranged to use detection events associated with said header block to synchronise the absolute phase of the gating signal with the phase of detection events arising from the detection of the series of photon pulses.
An antenna reflector, in particular for a spacecraft and especially for a satellite, said reflector comprising a shell provided with a first surface that is reflective, and a reinforcement system which is arranged on a second surface of the shell, opposite said first surface, and a rear structure supporting this shell, this reflector comprising a plurality of fixing elements arranged between the second surface of the shell and a surface facing said rear structure, said fixing elements being designed for securing the reinforcement system and the shell, characterized in that said rear structure comprises at least a part of structure (7A, 7B, 7C, 7D) having a general shape at least partly circular, in that said tubes forming said rear structure are tubes having round transverse sections, and in that said fixing elements are arranged perpendiculair to said second surface of the shell.
A computer-implemented method for generating an imaging model corresponding to a first individual, the method comprising: selecting an initial mathematical phantom for the first individual receiving an imaging scan, the selecting being based on an age and a gender of the first individual; receiving one or more scout images of the first individual; selecting from images obtained from multiple individuals a reference set of localizer images having a body geometry, size and positioning that closely matches the initial mathematical phantom; determining a transformation between at least one of the localizer images and at least one of the scout images of the first individual; and deforming the initial mathematical phantom based on the transformation whereby a deformed mathematical phantom resulting from the transformation better matches a size, a shape and organ positions of the first individual. selecting an initial mathematical phantom for the first individual receiving an imaging scan, the selecting being based on an age and a gender of the first individual; receiving one or more scout images of the first individual; selecting from images obtained from multiple individuals a reference set of localizer images having a body geometry, size and positioning that closely matches the initial mathematical phantom; determining a transformation between at least one of the localizer images and at least one of the scout images of the first individual; and deforming the initial mathematical phantom based on the transformation whereby a deformed mathematical phantom resulting from the transformation better matches a size, a shape and organ positions of the first individual.
A high voltage power generating system comprising: a first poly-phase permanent magnet generator including at least one control winding and a plurality of power windings; a second poly-phase permanent magnet generator including at least one control winding and a plurality of power windings; the first and second poly-phase permanent magnet generators being arranged in series in at least one operational mode; and the first poly-phase permanent magnet generator being phase shifted relative to the second poly-phase permanent magnet generator such that residual voltage output of the first poly-phase permanent magnet generator is offset by the second poly-phase permanent magnet generator during a first operational mode; characterised in that the first poly-phase permanent magnet generator is connected to an input of the second poly-phase permanent magnet generator via a first set of switches and connected to a first power generating bus via a second set of switches, the first set of switches and the second set of switches having an inverted state relative to each other. a first poly-phase permanent magnet generator including at least one control winding and a plurality of power windings; a second poly-phase permanent magnet generator including at least one control winding and a plurality of power windings; the first and second poly-phase permanent magnet generators being arranged in series in at least one operational mode; and the first poly-phase permanent magnet generator being phase shifted relative to the second poly-phase permanent magnet generator such that residual voltage output of the first poly-phase permanent magnet generator is offset by the second poly-phase permanent magnet generator during a first operational mode; characterised in that the first poly-phase permanent magnet generator is connected to an input of the second poly-phase permanent magnet generator via a first set of switches and connected to a first power generating bus via a second set of switches, the first set of switches and the second set of switches having an inverted state relative to each other.
A mobile robot configured to navigate an operating environment, comprising: a body containing: a drive configured to translate the robot in a direction of motion; at least one processor; memory containing a navigation application; and characterized by: an optical odometry sensor system positioned within a recessed structure on an underside of the body and configured to output optical odometry data, where the optical odometry sensor system comprises an optical odometry camera including a telecentric lens configured to capture images of a tracking surface beneath the body and having a depth of field that provides a range of viewing distances at which a tracking surface is captured in focus from a first distance within the recessed structure to a second distance below the underside of the mobile robot body, wherein the telecentric lens has a depth of field in which objects are in focus at distances including distances between negative 5 to 20 mm from a bottom surface of the robot body; and a gyroscope configured to output gyroscope measurement data. a drive configured to translate the robot in a direction of motion; at least one processor; memory containing a navigation application; and characterized by: an optical odometry sensor system positioned within a recessed structure on an underside of the body and configured to output optical odometry data, where the optical odometry sensor system comprises an optical odometry camera including a telecentric lens configured to capture images of a tracking surface beneath the body and having a depth of field that provides a range of viewing distances at which a tracking surface is captured in focus from a first distance within the recessed structure to a second distance below the underside of the mobile robot body, wherein the telecentric lens has a depth of field in which objects are in focus at distances including distances between negative 5 to 20 mm from a bottom surface of the robot body; and a gyroscope configured to output gyroscope measurement data. an optical odometry sensor system positioned within a recessed structure on an underside of the body and configured to output optical odometry data, where the optical odometry sensor system comprises an optical odometry camera including a telecentric lens configured to capture images of a tracking surface beneath the body and having a depth of field that provides a range of viewing distances at which a tracking surface is captured in focus from a first distance within the recessed structure to a second distance below the underside of the mobile robot body, wherein the telecentric lens has a depth of field in which objects are in focus at distances including distances between negative 5 to 20 mm from a bottom surface of the robot body; and a gyroscope configured to output gyroscope measurement data.
Sensor device for a motor vehicle for determining a distance (8, 8') from the motor vehicle to an object (9, 9') in an area surrounding the motor vehicle, having an ultrasonic sensor which has an ultrasonic diaphragm for emitting an ultrasonic signal and for receiving the reflected ultrasonic signal, the ultrasonic sensor being designed to detect the object (9, 9') on the basis of the ultrasonic signal reflected by the object (9, 9'), and a radar sensor which has at least one radar antenna for emitting an electromagnetic wave, the radar sensor being designed to detect the object (9, 9') on the basis of the electromagnetic wave reflected by the object (9, 9'), characterized in that at least one radar antenna for emitting the electromagnetic wave is arranged on the ultrasonic diaphragm for emitting the ultrasonic signal and for receiving the reflected ultrasonic signal.