mhurhangee/ep-ind-claims huggingface dataset:
A splint for planning dental implant surgery and/or guided placement of prostheses on implants that comprises: - at least one marker element formed by a geometric shape whose vertices and edges provide information regarding the vertical dimension of the dental arches, the occlusion and the vestibular plane as well as the aesthetic dental position of the patient, and wherein said marker element, in turn, comprises a radiopaque material detectable during a radiological examination; - a joining area for fitting on the soft tissue of the upper or lower jaw of the patient and which at the same time relates the marker elements to each other in the case of there being several; and - a spatial reference system for facilitating the taking of data during the scan and serving as a control system of the accuracy of the digital image obtained based on said scan. characterized in that - all of the splint comprises radiopaque material detectable during the radiological examination and not only in the marker elements, and in that - the spatial reference system is formed by a graduated scale in one unit of length and situated on the joining area. - at least one marker element formed by a geometric shape whose vertices and edges provide information regarding the vertical dimension of the dental arches, the occlusion and the vestibular plane as well as the aesthetic dental position of the patient, and wherein said marker element, in turn, comprises a radiopaque material detectable during a radiological examination; - a joining area for fitting on the soft tissue of the upper or lower jaw of the patient and which at the same time relates the marker elements to each other in the case of there being several; and - a spatial reference system for facilitating the taking of data during the scan and serving as a control system of the accuracy of the digital image obtained based on said scan. - all of the splint comprises radiopaque material detectable during the radiological examination and not only in the marker elements, and in that - the spatial reference system is formed by a graduated scale in one unit of length and situated on the joining area.
A fuel cell hybrid system comprising: a heat engine comprising a compression unit for compressing an oxidizer supply gas comprising air and an expansion unit for expanding the oxidizer supply gas to generate mechanical energy; a fuel cell comprising an anode for receiving a fuel gas, a cathode for receiving the oxidizer supply gas, and a catalytic combustor for burning a non-reaction fuel gas of an anode exhaust gas exhausted from the anode to heat the oxidizer supply gas; a first heat exchanger heat-exchanging the oxidizer supply gas discharged from the compression unit with a cathode exhaust gas exhausted from the cathode; and a second heat exchanger heat-exchanging the oxidizer supply gas discharged from the first heat exchanger with the oxidizer supply gas discharged from the catalytic combustor, wherein the oxidizer supply gas is supplied into the compression unit and the oxidizer supply gas discharged from the catalytic combustor from an air source for supplying the oxidizer supply gas, and the oxidizer supply gas discharged from the first heat exchanger is supplied into the catalytic combustor via the second heat exchanger and the expansion unit, and the oxidizer supply gas discharged from the catalytic combustor is supplied into the cathode via the second heat exchanger. a heat engine comprising a compression unit for compressing an oxidizer supply gas comprising air and an expansion unit for expanding the oxidizer supply gas to generate mechanical energy; a fuel cell comprising an anode for receiving a fuel gas, a cathode for receiving the oxidizer supply gas, and a catalytic combustor for burning a non-reaction fuel gas of an anode exhaust gas exhausted from the anode to heat the oxidizer supply gas; a first heat exchanger heat-exchanging the oxidizer supply gas discharged from the compression unit with a cathode exhaust gas exhausted from the cathode; and a second heat exchanger heat-exchanging the oxidizer supply gas discharged from the first heat exchanger with the oxidizer supply gas discharged from the catalytic combustor, wherein the oxidizer supply gas is supplied into the compression unit and the oxidizer supply gas discharged from the catalytic combustor from an air source for supplying the oxidizer supply gas, and the oxidizer supply gas discharged from the first heat exchanger is supplied into the catalytic combustor via the second heat exchanger and the expansion unit, and the oxidizer supply gas discharged from the catalytic combustor is supplied into the cathode via the second heat exchanger.
A display tool configured to maneuver a fabric swatch covering, the display tool comprising: a swatch deck attached to a first end of a lifting tab; and characterised by: a support arm attached to a second end of the lifting tab and configured to maneuver the lifting tab distant the swatch deck; a substrate attached to the swatch deck and adjacent to the support arm when the lifting tab is distant the swatch deck; a first swatch covering comprising a first swatch covering front side and a first swatch covering back side; wherein the first swatch covering front side is attached to the support arm; and a first plurality of support veins comprising a first plurality of support veins front side and a first plurality of support veins backside; wherein the first plurality of support veins front side is attached to the first swatch covering back side and the first plurality of support veins back side is attached to the substrate; and wherein the support arm can be supported against the substrate to cause the first swatch covering to protrude outwards from the swatch deck to display the substrate and the first plurality of support veins from the support arm. a swatch deck attached to a first end of a lifting tab; and characterised by: a support arm attached to a second end of the lifting tab and configured to maneuver the lifting tab distant the swatch deck; a substrate attached to the swatch deck and adjacent to the support arm when the lifting tab is distant the swatch deck; a first swatch covering comprising a first swatch covering front side and a first swatch covering back side; wherein the first swatch covering front side is attached to the support arm; and a first plurality of support veins comprising a first plurality of support veins front side and a first plurality of support veins backside; a support arm attached to a second end of the lifting tab and configured to maneuver the lifting tab distant the swatch deck; a substrate attached to the swatch deck and adjacent to the support arm when the lifting tab is distant the swatch deck; a first swatch covering comprising a first swatch covering front side and a first swatch covering back side; wherein the first swatch covering front side is attached to the support arm; and a first plurality of support veins comprising a first plurality of support veins front side and a first plurality of support veins backside; wherein the first plurality of support veins front side is attached to the first swatch covering back side and the first plurality of support veins back side is attached to the substrate; and wherein the support arm can be supported against the substrate to cause the first swatch covering to protrude outwards from the swatch deck to display the substrate and the first plurality of support veins from the support arm.
A thermal module (104, 310) for use with an electronic device (100, 200) comprising: a first heatsink defining a first airflow exit, the first heatsink including a first set of fins having a first height; and a second heatsink defining a second airflow exit, the second heatsink spaced from the first heatsink to form a gap therebetween, the second heatsink thermally coupled to the first heatsink via a first heat pipe, characterized in that: the first heatsink includes a second set of fins having a second height, the second height being less than the first height, the second set of fins being adjacent to the first airflow exit, wherein the first heatsink is configured such that a first airflow across the first heatsink flows through a first outlet and a second outlet, and the second heatsink is configured such that a second airflow across the second heatsink flows through a third outlet, wherein the first outlet is non-parallel relative to the second outlet, and wherein the third outlet is non-perpendicular relative to the second outlet. a first heatsink defining a first airflow exit, the first heatsink including a first set of fins having a first height; and a second heatsink defining a second airflow exit, the second heatsink spaced from the first heatsink to form a gap therebetween, the second heatsink thermally coupled to the first heatsink via a first heat pipe, characterized in that: the first heatsink includes a second set of fins having a second height, the second height being less than the first height, the second set of fins being adjacent to the first airflow exit, wherein the first heatsink is configured such that a first airflow across the first heatsink flows through a first outlet and a second outlet, and the second heatsink is configured such that a second airflow across the second heatsink flows through a third outlet, wherein the first outlet is non-parallel relative to the second outlet, and wherein the third outlet is non-perpendicular relative to the second outlet. the first heatsink includes a second set of fins having a second height, the second height being less than the first height, the second set of fins being adjacent to the first airflow exit, wherein the first heatsink is configured such that a first airflow across the first heatsink flows through a first outlet and a second outlet, and the second heatsink is configured such that a second airflow across the second heatsink flows through a third outlet, wherein the first outlet is non-parallel relative to the second outlet, and wherein the third outlet is non-perpendicular relative to the second outlet.
An endoscopic camera system comprising: an endoscope having a field stop encoded with endoscope information; a camera head coupleable to the endoscope, the camera head adapted to generate image data including the endoscope information; and a camera control unit coupleable to the camera head and adapted to receive image data from the camera head; and wherein the camera control unit is configured to analyze the endoscope information to identify the endoscope coupled to the camera head, characterized in that the field stop is encoded with endoscope information using at least one of a plurality of holes, a plurality of notches and a plurality of slots having varying widths or varying lengths. an endoscope having a field stop encoded with endoscope information; a camera head coupleable to the endoscope, the camera head adapted to generate image data including the endoscope information; and a camera control unit coupleable to the camera head and adapted to receive image data from the camera head; and wherein the camera control unit is configured to analyze the endoscope information to identify the endoscope coupled to the camera head, characterized in that the field stop is encoded with endoscope information using at least one of a plurality of holes, a plurality of notches and a plurality of slots having varying widths or varying lengths.
An aircraft comprising: a pack bay defined on an underside of the aircraft, comprising an interior; an air conditioning pack positioned within interior configured to discharge heat; and an exterior panel in close proximity to the air conditioning pack comprising an opening defined therein, and the exterior panel comprising a first side facing towards the air conditioning pack, and a second side defining an exterior aircraft surface, wherein: the exterior aircraft surface is configured to be in communication with a free stream airflow past the aircraft; at least a portion of the air conditioning pack is disposed within the opening to facilitate transferring heat from the air conditioning pack to the free stream airflow; and the air conditioning pack comprises a bottom wall, wherein at least a portion of the bottom wall extends through the opening in the exterior panel for exposing the bottom wall to the free stream airflow. a pack bay defined on an underside of the aircraft, comprising an interior; an air conditioning pack positioned within interior configured to discharge heat; and an exterior panel in close proximity to the air conditioning pack comprising an opening defined therein, and the exterior panel comprising a first side facing towards the air conditioning pack, and a second side defining an exterior aircraft surface, wherein: the exterior aircraft surface is configured to be in communication with a free stream airflow past the aircraft; at least a portion of the air conditioning pack is disposed within the opening to facilitate transferring heat from the air conditioning pack to the free stream airflow; and the air conditioning pack comprises a bottom wall, wherein at least a portion of the bottom wall extends through the opening in the exterior panel for exposing the bottom wall to the free stream airflow. the exterior aircraft surface is configured to be in communication with a free stream airflow past the aircraft; at least a portion of the air conditioning pack is disposed within the opening to facilitate transferring heat from the air conditioning pack to the free stream airflow; and the air conditioning pack comprises a bottom wall, wherein at least a portion of the bottom wall extends through the opening in the exterior panel for exposing the bottom wall to the free stream airflow.
A computer-implemented method comprising: determining at least one characterizing parameter of the survey design of a seismic survey in which multiple seismic sources are fired and seismic sensors sense energy produced by the seismic sources, the determining comprising optimizing the seismic survey for separation, according to the seismic sources, of the sensed energy; characterized in that the optimizing comprises the following steps: generating a synthetic dataset of energy signal that is predicted to be acquired by the seismic sensors based on an actual survey design and a geology associated with the survey; separating the synthetic dataset in multiple datasets, each of which is attributable to a particular seismic source; determining a residual energy corresponding to the energy not attributed to one of the seismic sources after the separating step; determining a leakage energy corresponding to the energy produced by one seismic source but attributed to a different seismic source by the separating step; and determining said at least one characterizing parameter of the survey design to minimise the residual energy and the leakage energy, or to produce residual energy and leakage energy below selected thresholds. generating a synthetic dataset of energy signal that is predicted to be acquired by the seismic sensors based on an actual survey design and a geology associated with the survey; separating the synthetic dataset in multiple datasets, each of which is attributable to a particular seismic source; determining a residual energy corresponding to the energy not attributed to one of the seismic sources after the separating step; determining a leakage energy corresponding to the energy produced by one seismic source but attributed to a different seismic source by the separating step; and determining said at least one characterizing parameter of the survey design to minimise the residual energy and the leakage energy, or to produce residual energy and leakage energy below selected thresholds.
A method of adding pixels to a 2D mask, the 2D mask generated for a 2D image using an initial image segmentation, the method comprising: obtaining the 2D mask for the 2D image, wherein the 2D mask comprises a portion of the 2D image; selecting, simultaneously using a cursor comprising a first region and a second region, one or more first pixels of the 2D image using the first region and one or more second pixels of the 2D image using the second region; adding all of the one or more first pixels that are not part of the 2D mask to the 2D mask; performing a morphological closing on all of the second pixels that are part of the 2D mask; and performing an automatic flood-fill operation on at least a portion of the 2D mask after performing the morphological closing. obtaining the 2D mask for the 2D image, wherein the 2D mask comprises a portion of the 2D image; selecting, simultaneously using a cursor comprising a first region and a second region, one or more first pixels of the 2D image using the first region and one or more second pixels of the 2D image using the second region; adding all of the one or more first pixels that are not part of the 2D mask to the 2D mask; performing a morphological closing on all of the second pixels that are part of the 2D mask; and performing an automatic flood-fill operation on at least a portion of the 2D mask after performing the morphological closing.
A method in a user equipment of determining a radio link quality of a radio link, the method comprising: receiving a first type of reference signal; monitoring, at the user equipment, for a first type of control channel, the first type of control channel demodulated based on the first type of reference signal; estimating a first synchronization condition associated with the radio link based on the first type of reference signal; acquiring configuration information related to configuration of a second type of control channel, the second type of control channel demodulated based on a second type of reference signal, the second type of reference signal being distinct from the first type of reference signal; monitoring for the second type of control channel; estimating a second synchronization condition associated with the radio link based on the second type of reference signal; and sending an output from a current layer to a higher layer based on at least one of the estimated synchronization conditions. receiving a first type of reference signal; monitoring, at the user equipment, for a first type of control channel, the first type of control channel demodulated based on the first type of reference signal; estimating a first synchronization condition associated with the radio link based on the first type of reference signal; acquiring configuration information related to configuration of a second type of control channel, the second type of control channel demodulated based on a second type of reference signal, the second type of reference signal being distinct from the first type of reference signal; monitoring for the second type of control channel; estimating a second synchronization condition associated with the radio link based on the second type of reference signal; and sending an output from a current layer to a higher layer based on at least one of the estimated synchronization conditions.
A tube having a wall comprising an inner layer, an outer layer and a middle layer, wherein the inner layer comprises a thermoplastic polyurethane, the outer layer comprises a thermoplastic polyurethane and characterised in that the middle layer comprises more than about 90% by weight of an ethylene ethyl acrylate copolymer or an ethylene methyl acrylate copolymer or an anhydride grafted ethylene methyl acrylate copolymer, a copolymer of two or more of said acrylates or a mixture of two or more of the foregoing.
Additive manufacturing machine, characterized in that it contains a device implementing in situ a process making it possible to remove the oxides present at the surface of nodules of a metal powder before the use of the latter in the additive manufacturing by melting of the metal powder, consisting in stripping said metal powder by bringing the latter into contact with vapour obtained by sublimation of a solid stripping material and/or by sublimation of a solid stripping material followed by a chemical conversion; the device comprising a receptacle (6, 37) in which the solid stripping material is placed, a means supplying the heat making it possible to sublime the solid stripping material, and a means which makes possible contact between the vapour obtained by sublimation of a solid stripping material and/or by sublimation of a solid stripping material followed by chemical conversion and the metal powder.
A laser welding method characterized by comprising: projecting a laser beam onto irradiation regions (P1, P2, P3) on plural metallic workpieces (W1, W2) such that a weld section is formed when the workpieces are joined by laser welding, the weld section being formed of plural nuggets (N1, N2, N3), and the irradiation regions being respectively formed with the nuggets, wherein the nuggets are sequentially formed by sequentially projecting the laser beam onto the irradiation regions that respectively correspond to the nuggets, characterized in that the laser beam is projected onto each of the irradiation regions such that an amount of input heat from the laser beam that is projected onto each of the irradiation regions to the workpieces is reduced as the nuggets are sequentially formed, and in that the laser beam is projected such that the nuggets are separated from each other along a virtual closed curve. projecting a laser beam onto irradiation regions (P1, P2, P3) on plural metallic workpieces (W1, W2) such that a weld section is formed when the workpieces are joined by laser welding, the weld section being formed of plural nuggets (N1, N2, N3), and the irradiation regions being respectively formed with the nuggets, wherein the nuggets are sequentially formed by sequentially projecting the laser beam onto the irradiation regions that respectively correspond to the nuggets, characterized in that the laser beam is projected onto each of the irradiation regions such that an amount of input heat from the laser beam that is projected onto each of the irradiation regions to the workpieces is reduced as the nuggets are sequentially formed, and in that the laser beam is projected such that the nuggets are separated from each other along a virtual closed curve.
Clock signal generating device having an oscillator and a PLL connected downstream thereof, wherein there is provided between the oscillator and the PLL a phase shifting device, which can shift the edges of the signal output by the oscillator to a temporally variable extent, and feeds the resultant signal to the PLL as input signal, characterized in that the control signals which are used to drive the phase shifting device are stored in a memory device, and in that the memory device is addressed by an address generating device, which generates the address that is respectively to be used whilst taking account of the output signal of a frequency divider which divides the frequency of the output signal of the oscillator.