mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding traffic information, by a traffic information providing device, comprising: creating event information including a safe speed to limit a speed of a vehicle on a road segment, wherein the safe speed is a speed which is calculated depending on surface conditions of the road segment; creating location information about the road segment; and creating a traffic information message (21,22 and 23) including the event information and the location information. creating event information including a safe speed to limit a speed of a vehicle on a road segment, wherein the safe speed is a speed which is calculated depending on surface conditions of the road segment; creating location information about the road segment; and creating a traffic information message (21,22 and 23) including the event information and the location information.
A mobile terminal comprising: a terminal body; a wireless communication unit configured to perform wireless communication; a touchscreen display unit configured to switch between an inactivated state in which illumination is not applied to the touchscreen display unit and an activated state in which illumination is applied to the touch screen display unit; and a controller configured to: receive a touch input on the touchscreen display unit when the touchscreen display unit is in the inactivated state, execute a function corresponding to the received touch input among a plurality of functions when a pre-set tap input is sensed within a reference period of time from a point in time at which the sensed touch input is released, wherein the function is varied according to a touch track of the received touch input, and cause the touchscreen display unit to display an executed screen of the function, wherein the function corresponding to the touch input includes dividing the touchscreen display unit into a first region and a second region according to the touch track, activating the first region based on the tap input, and maintaining the inactivated state of the second region. a terminal body; a wireless communication unit configured to perform wireless communication; a touchscreen display unit configured to switch between an inactivated state in which illumination is not applied to the touchscreen display unit and an activated state in which illumination is applied to the touch screen display unit; and a controller configured to: receive a touch input on the touchscreen display unit when the touchscreen display unit is in the inactivated state, execute a function corresponding to the received touch input among a plurality of functions when a pre-set tap input is sensed within a reference period of time from a point in time at which the sensed touch input is released, wherein the function is varied according to a touch track of the received touch input, and cause the touchscreen display unit to display an executed screen of the function, receive a touch input on the touchscreen display unit when the touchscreen display unit is in the inactivated state, execute a function corresponding to the received touch input among a plurality of functions when a pre-set tap input is sensed within a reference period of time from a point in time at which the sensed touch input is released, wherein the function is varied according to a touch track of the received touch input, and cause the touchscreen display unit to display an executed screen of the function, wherein the function corresponding to the touch input includes dividing the touchscreen display unit into a first region and a second region according to the touch track, activating the first region based on the tap input, and maintaining the inactivated state of the second region.
An apparatus for acquiring diagnostic information comprising: - a data acquisition module for acquiring image data of at least a part of a person's anatomy, - a planning module for defining with reference to a spatial position and orientation of an example anatomy at least one series of scanning steps to be executed with the data acquisition module, - a user interface configured to adjust imaging parameters to be used in a selected scanning step of the at least one series of scanning steps, - wherein the user interface is configured to display for every step of a selected series of the at least one series of scanning steps predefined imaging parameters pertaining to the example anatomy, wherein the user interface comprises a visual display unit having during use a first, exemplary window configured to show an image of the example anatomy of the selected scanning step, and a representation of the predefined imaging parameters of the selected scanning step, and a second, working window (6") configured to show an image of an actual anatomy, wherein the user interface is arranged to allow a user to adjust with reference to the image of the actual anatomy in said second, working window (6") the imaging parameters to be used in the selected scanning step, and - wherein the image of the actual anatomy is a three-dimensional survey volume of the person's anatomy. - a data acquisition module for acquiring image data of at least a part of a person's anatomy, - a planning module for defining with reference to a spatial position and orientation of an example anatomy at least one series of scanning steps to be executed with the data acquisition module, - a user interface configured to adjust imaging parameters to be used in a selected scanning step of the at least one series of scanning steps, - wherein the user interface is configured to display for every step of a selected series of the at least one series of scanning steps predefined imaging parameters pertaining to the example anatomy, wherein the user interface comprises a visual display unit having during use a first, exemplary window configured to show an image of the example anatomy of the selected scanning step, and a representation of the predefined imaging parameters of the selected scanning step, and a second, working window (6") configured to show an image of an actual anatomy, wherein the user interface is arranged to allow a user to adjust with reference to the image of the actual anatomy in said second, working window (6") the imaging parameters to be used in the selected scanning step, and - wherein the image of the actual anatomy is a three-dimensional survey volume of the person's anatomy.
An implantable medical device comprising an electrode lead connector having at least one electrical contact for connection of an electrode lead, and comprising an analysing unit connected to the electrode lead connector, the analysing unit being configured to detect and evaluate a response signal present at the at least one electrical contact in response to known electromagnetic radiation, characterised in that the analysing unit, in addition to being connected to the electrode lead connector, is also connected to a further receiving device for an radiated electromagnetic wave and is configured to compare the response signal detected via the electrode lead connector with a second response signal received via the further receiving device for error analysis.
A boron nitride nanotube, BNNT, based neutron detector comprising: a chamber; at least one photon detector (35, 171) positioned in the chamber; a scintillating material (26, 33, 62) in the chamber; said detector being characterized in further comprising: a BNNT material (23, 32) positioned in the chamber; wherein the scintillating material (26, 33, 62) is selected from the group consisting of a gas (33, 62) and a liquid and is dispersed in the BNNT material (23, 32); and wherein the at least one photon detector (35, 171) is positioned to detect at least a portion of photons emitted from ions traversing the scintillating material (26, 33, 62) produced by neutron absorption in the chamber. a chamber; at least one photon detector (35, 171) positioned in the chamber; a scintillating material (26, 33, 62) in the chamber; said detector being characterized in further comprising: a BNNT material (23, 32) positioned in the chamber; wherein the scintillating material (26, 33, 62) is selected from the group consisting of a gas (33, 62) and a liquid and is dispersed in the BNNT material (23, 32); and wherein the at least one photon detector (35, 171) is positioned to detect at least a portion of photons emitted from ions traversing the scintillating material (26, 33, 62) produced by neutron absorption in the chamber. a BNNT material (23, 32) positioned in the chamber; wherein the scintillating material (26, 33, 62) is selected from the group consisting of a gas (33, 62) and a liquid and is dispersed in the BNNT material (23, 32); and wherein the at least one photon detector (35, 171) is positioned to detect at least a portion of photons emitted from ions traversing the scintillating material (26, 33, 62) produced by neutron absorption in the chamber.
An interdental cleaning tool comprising: a handle base formed of a synthetic resin; and a cleaning part disposed on an end portion of the handle base, wherein a surface of a cleaning body substantially formed of a polystyrene elastomer, characterised therein that the cleaning part is covered with a perfume layer, and the perfume layer contains a glycerine fatty acid ester, an oil-soluble perfume as a flavor component, and gum arabic and/or starch octenylsuccinate as a water-soluble covering base.
An apparatus which is configured to measure the internal pressure of an examination object, in particular the internal pressure of a blood vessel, by use of a magnetic pressure measurement device (60, 70) introduced into the examination object, said magnetic pressure measurement device (60, 70) being a deformable, ferromagnetic, magnetically anisotropic body which is adapted to change its physical properties, in particular its shape, due to pressure, which apparatus comprises: - magnetic field generating means comprising magnetic field signal generator units and magnetic field coils (136a, 136b, 136c) configured to generate a magnetic field for influencing the magnetization of the magnetic pressure measurement device (60, 70), - receiving means comprising at least one signal receiving unit and at least one receiving coil configured to acquire detection signals, which detection signals depend on the changes in magnetization of the magnetic pressure measurement device caused by the magnetic field and on the changes of the physical properties of the magnetic pressure measurement device (60, 70) caused by the internal pressure of the examination object, and - evaluation means configured to evaluate the detection signals of the magnetic pressure measurement device (60, 70) for determining the internal pressure of the examination object. - magnetic field generating means comprising magnetic field signal generator units and magnetic field coils (136a, 136b, 136c) configured to generate a magnetic field for influencing the magnetization of the magnetic pressure measurement device (60, 70), - receiving means comprising at least one signal receiving unit and at least one receiving coil configured to acquire detection signals, which detection signals depend on the changes in magnetization of the magnetic pressure measurement device caused by the magnetic field and on the changes of the physical properties of the magnetic pressure measurement device (60, 70) caused by the internal pressure of the examination object, and - evaluation means configured to evaluate the detection signals of the magnetic pressure measurement device (60, 70) for determining the internal pressure of the examination object. - receiving means comprising at least one signal receiving unit and at least one receiving coil configured to acquire detection signals, which detection signals depend on the changes in magnetization of the magnetic pressure measurement device caused by the magnetic field and on the changes of the physical properties of the magnetic pressure measurement device (60, 70) caused by the internal pressure of the examination object, and - evaluation means configured to evaluate the detection signals of the magnetic pressure measurement device (60, 70) for determining the internal pressure of the examination object.
A method of capturing video, the method comprising: - configuring at least one camera (110, 110'; 112) in a first utilization configuration, wherein the at least one camera (110, 110'; 112) comprises a first image sensor and a second image sensor; - on the basis of the first utilization configuration, capturing at the same time first video data by the first image sensor at a first frame rate and a first resolution and second video data by the second image sensor at a second frame rate and a second resolution, the second frame rate being higher than the first frame rate and the second resolution being lower than the first resolution; - detecting an amount of motion in the captured second video data; - characterized in that on the basis of the detected amount of motion exceeding a threshold, switching the at least one camera (110, 110'; 112) to a second utilization configuration being different from the first utilization configuration; and - on the basis of the second utilization configuration, capturing third video data by the first image sensor at a third frame rate and a third resolution, the third frame rate being higher than the first frame rate and the third resolution being higher than the second resolution. - configuring at least one camera (110, 110'; 112) in a first utilization configuration, wherein the at least one camera (110, 110'; 112) comprises a first image sensor and a second image sensor; - on the basis of the first utilization configuration, capturing at the same time first video data by the first image sensor at a first frame rate and a first resolution and second video data by the second image sensor at a second frame rate and a second resolution, the second frame rate being higher than the first frame rate and the second resolution being lower than the first resolution; - detecting an amount of motion in the captured second video data; - characterized in that on the basis of the detected amount of motion exceeding a threshold, switching the at least one camera (110, 110'; 112) to a second utilization configuration being different from the first utilization configuration; and - on the basis of the second utilization configuration, capturing third video data by the first image sensor at a third frame rate and a third resolution, the third frame rate being higher than the first frame rate and the third resolution being higher than the second resolution.
An apparel item comprising an attachment structure (100, 200) for attaching at least one device to an apparel item, the attachment structure (100, 200) comprising: a dimensionally stable frame (112, 212) having a first surface and a second surface opposite the first surface, the dimensionally stable frame (112, 212) having at least one aperture (118; 216) operable to receive the device, the first surface of the dimensionally stable frame (112, 212) being affixed to a first surface (114, 210) of the apparel item; characterized by an absorbent material applied to the second surface of the dimensionally stable frame (112, 212), and wherein the device comprises a thermoelectric module. a dimensionally stable frame (112, 212) having a first surface and a second surface opposite the first surface, the dimensionally stable frame (112, 212) having at least one aperture (118; 216) operable to receive the device, the first surface of the dimensionally stable frame (112, 212) being affixed to a first surface (114, 210) of the apparel item; characterized by an absorbent material applied to the second surface of the dimensionally stable frame (112, 212), and wherein the device comprises a thermoelectric module.
Method for producing a laboratory analogue (1, 21, 31) for dental implants comprising the steps of: providing at least one sleeve comprising a cylindrical depression having an internal thread; providing a three-dimensional model (6, 16, 26, 36) of at least a partial region of a jaw of a patient who harbours at least one dental implant; inserting at least one of the said sleeve into at least one recess of the model (6, 16, 26, 36) matching the sleeve, whereby each recess is arranged in a region of the model (6, 16, 26, 36), in which a dental implant is arranged in the jaw of the patient; and fully-automatic ablation of at least one inserted sleeve, wherein the ablation is controlled through three-dimensional scanning data of the oral space of the patient, wherein the data was recorded previously, and the sleeve is ablated based on such data to the extent that the crestal end of the laboratory analogue (1, 21, 31) produced from said sleeve coincides with the crestal end of the dental implant in the jaw of the patient. providing at least one sleeve comprising a cylindrical depression having an internal thread; providing a three-dimensional model (6, 16, 26, 36) of at least a partial region of a jaw of a patient who harbours at least one dental implant; inserting at least one of the said sleeve into at least one recess of the model (6, 16, 26, 36) matching the sleeve, whereby each recess is arranged in a region of the model (6, 16, 26, 36), in which a dental implant is arranged in the jaw of the patient; and fully-automatic ablation of at least one inserted sleeve, wherein the ablation is controlled through three-dimensional scanning data of the oral space of the patient, wherein the data was recorded previously, and the sleeve is ablated based on such data to the extent that the crestal end of the laboratory analogue (1, 21, 31) produced from said sleeve coincides with the crestal end of the dental implant in the jaw of the patient.
A correlated set for minimal invasive surgery comprising a surgical instrument and a pattern generating member (5, 15, 25, 55), said surgical instrument is a laparoscopic instrument, an arthroscopic instrument, a thoracoscopic instrument, a gastroscopic instrument, a colonoscopic instrument, a laryngoscopic instrument, a broncoscopic instrument, a cytoscopic instrument or a combination thereof, it has a distal end and a proximal end and comprises a handle portion at its proximal end, a surgical tool (4, 14, 24, 54, 64) at its distal end and a body portion (3, 13, 23, 53, 63) connecting the handle portion (2, 62) to the surgical tool (4, 14, 24, 54, 64), said pattern generating member (5, 15, 25, 55) comprises a pattern light source (6, 66) and a projector (8, 16, 18, 28, 48, 58, 68), wherein the pattern light source (6, 66) is operatively connected to the projector for projecting a light pattern (30, 39, 40, 80), at least said projector of said pattern generating member (5, 15, 25, 55) is configured for being at least temporarily fixed to said body portion (3, 13, 23, 53, 63) of said surgical instrument such that a movement of said surgical tool results in a correlated movement of said projector thereby resulting in that the projected pattern as seen on a distally arranged surface will change accordingly and such that any non-rotational movement of said surgical tool results in a correlated movement of said projector and said pattern (30, 39, 40, 80), said set being characterized in that said surgical tool (4, 14, 24, 54, 65) is adapted to perform a surgical intervention and wherein said surgical tool is selected from a grasper, a suture grasper, a stapler, forceps, a dissector, scissors, suction instrument, clamp instrument, electrode, curette, ablators, scalpels, biopsy instrument and retractor instrument or a combination thereof.
An airbag device, comprising an airbag and a partition element, the airbag being made of base fabric and formed in a bag shape to deploy by being supplied with gas, the partition element partitioning the interior of the airbag, wherein the airbag device has, as the partition element, a coupling spot along which a base fabric of a frontal side of the airbag and a base fabric of a backside of the airbag are coupled to each other, the airbag device includes reinforcing fabrics (63, 64) that characterized in that the reinforcing fabrics (63, 64) are provided respectively on an inner side of the base fabric of the frontal side and an inner side of the base fabric of the backside, and each of the reinforcing fabrics (63, 64) has a free ending remaining margin in a location closer to a gas supply side than the coupling spot is located, the remaining margins being bent at proximal seam ends (58S, 71S) thereof and oriented toward the gas supply side and fall inward by receiving gas pressure to function as a shield wall against a flow of gas toward the coupling spot.
A method, comprising: bonding a first layer and a second layer using two-shot injection molding, wherein the first layer coupled to the second layer collectively defines a set of wells, the first layer being transparent to one or more of ultraviolet light, visible light, and infrared radiation, and the second layer defining a channel, the second layer being substantially absorbent to infrared radiation; bonding a third layer to the second layer using infrared radiation, the third layer defining an opening configured to receive a fluid, the third layer being transparent to infrared radiation, wherein the channel establishes a fluid communication path between the opening and the set of wells; aligning the second layer to the third layer after the bonding of the first layer and the second layer; and aligning a photomask to the third layer after the bonding of the first layer and the second layer, the photomask configured to block the infrared radiation to one or more portions of the second layer. bonding a first layer and a second layer using two-shot injection molding, wherein the first layer coupled to the second layer collectively defines a set of wells, the first layer being transparent to one or more of ultraviolet light, visible light, and infrared radiation, and the second layer defining a channel, the second layer being substantially absorbent to infrared radiation; bonding a third layer to the second layer using infrared radiation, the third layer defining an opening configured to receive a fluid, the third layer being transparent to infrared radiation, wherein the channel establishes a fluid communication path between the opening and the set of wells; aligning the second layer to the third layer after the bonding of the first layer and the second layer; and aligning a photomask to the third layer after the bonding of the first layer and the second layer, the photomask configured to block the infrared radiation to one or more portions of the second layer.