mhurhangee/patent-ind-claim-en huggingface dataset:
A combination of a micro-robot and a guidewire , the micro-robot capable of being mounted on the guidewire , the micro-robot comprising: a first magnetic body ; and a second magnetic body positioned in one direction from the first magnetic body , wherein the first magnetic body is more flexible than the second magnetic body , and the first magnetic body is capable of bending at an angle that changes according to a change in a direction of an external magnetic field; the combination being characterized in that : when the micro-robot is mounted on the guidewire , a portion of the guidewire is positioned inside the micro-robot and the remaining portion of the guidewire is positioned in the one direction from the first magnetic body . a first magnetic body ; and a second magnetic body positioned in one direction from the first magnetic body , wherein the first magnetic body is more flexible than the second magnetic body , and the first magnetic body is capable of bending at an angle that changes according to a change in a direction of an external magnetic field; the first magnetic body is more flexible than the second magnetic body , and the first magnetic body is capable of bending at an angle that changes according to a change in a direction of an external magnetic field; the combination being characterized in that : when the micro-robot is mounted on the guidewire , a portion of the guidewire is positioned inside the micro-robot and the remaining portion of the guidewire is positioned in the one direction from the first magnetic body . when the micro-robot is mounted on the guidewire , a portion of the guidewire is positioned inside the micro-robot and the remaining portion of the guidewire is positioned in the one direction from the first magnetic body .
A dynamic dust separator for separation of grease from extracted air, preferably from kitchen equipment, such as frying tables, deep-fat fryers, cookers, etc., and also for separation of water and dust particles from polluted air in ventilation systems, the dynamic dust separator comprises a vertically arranged cyclone spiral comprising a hyperbolically shaped cyclone core with a vertical inlet where polluted air is adapted to be sucked in and where the vertical inlet extends along the full height of the cyclone core , and wherein the polluted air sucked into the cyclone core is adapted to be forced around in a vortex, such that the centrifugal force causes pollutants in the polluted air to be thrown towards an inner face on the periphery of the cyclone core where they are separated from the air, and where cleaned air is adapted to be sucked out from the upper edge of the innermost spiral of the cyclone core , characterized in that the hyperbolically shaped cyclone core is about 1.5 turns long.
A tibial oncology assembly comprising: a proximal tibial component having a metaphyseal portion and a diaphyseal portion , the diaphyseal portion extending from the metaphyseal portion and being configured to connect to a resected diaphysis of a tibia , the metaphyseal portion having a boss opening extending therein and a proximally facing bearing surface ; an axle component having a boss , an axle , and an axle support , the boss being slidably received within the boss opening of the metaphyseal portion and the axle and axle support extending proximally from the boss ; and a bearing plate having a distally facing bearing surface , characterized in that the tibial oncology assembly is a trial assembly, wherein the bearing plate is engageable to the boss of the axle component at one of a plurality of locations along its length and the distally facing bearing surface engages the proximally facing bearing surface when the bearing plate is engaged to the axle component . a proximal tibial component having a metaphyseal portion and a diaphyseal portion , the diaphyseal portion extending from the metaphyseal portion and being configured to connect to a resected diaphysis of a tibia , the metaphyseal portion having a boss opening extending therein and a proximally facing bearing surface ; an axle component having a boss , an axle , and an axle support , the boss being slidably received within the boss opening of the metaphyseal portion and the axle and axle support extending proximally from the boss ; and a bearing plate having a distally facing bearing surface , characterized in that the tibial oncology assembly is a trial assembly, wherein the bearing plate is engageable to the boss of the axle component at one of a plurality of locations along its length and the distally facing bearing surface engages the proximally facing bearing surface when the bearing plate is engaged to the axle component .
A method of generating a zoom sequence visualizing a portion of a sample, wherein the method comprises: - changing a zoom parameter representing a magnification of an image of a portion of a sample (S1; S105); - visualizing a representation of the portion of the sample in the image based on first data representing intensities associated with plural distinct first locations of the portion of the sample if the zoom parameter is less than a predetermined first threshold value (S5; S107); wherein the method is characterized by - generating a representation of a crystal structure of the portion of the sample based on second data representing crystallographic properties of the crystal structure, wherein the crystallographic properties are associated with plural distinct second locations of the portion of the sample (S9; S108); and - visualizing the representation of the crystal structure of the portion of the sample in the image if the zoom parameter is greater than a predetermined second threshold value (S10; S109). - changing a zoom parameter representing a magnification of an image of a portion of a sample (S1; S105); - visualizing a representation of the portion of the sample in the image based on first data representing intensities associated with plural distinct first locations of the portion of the sample if the zoom parameter is less than a predetermined first threshold value (S5; S107); wherein the method is characterized by - generating a representation of a crystal structure of the portion of the sample based on second data representing crystallographic properties of the crystal structure, wherein the crystallographic properties are associated with plural distinct second locations of the portion of the sample (S9; S108); and - visualizing the representation of the crystal structure of the portion of the sample in the image if the zoom parameter is greater than a predetermined second threshold value (S10; S109).
An apparatus for the electromagnetic stimulation of organic cells by an electromagnetic field, said apparatus comprising: an electrostimulation device comprising at least one electromagnetic coil ; an electrical drive unit for generating a drive signal for powering said at least one electromagnetic coil; said electrostimulation device being a bespoke mouthpiece provided with a unique identifier device for identifying said bespoke mouthpiece electrostimulation device to said drive unit; said electrical drive unit comprises a single socket connector , which is used alternately for connection of an external power supply or for connection of said bespoke mouthpiece electrostimulation device comprising at least one electromagnetic coil, such that said external power supply and said bespoke mouthpiece electrostimulation device comprising at least one electromagnetic coil cannot be connected to the drive unit at the same time; said electrical drive unit being provided with a recognition means for recognising said unique identifier device for identifying said bespoke mouthpiece electrostimulation device; characterised in that said electrical drive unit is operable to supply a drive signal to said at least one electromagnetic coil when said drive unit verifies said unique identifier device; and said drive unit is disabled from supplying a drive signal to said at least one electromagnetic coil when said drive unit does not verify said unique identifier device. an electrostimulation device comprising at least one electromagnetic coil ; an electrical drive unit for generating a drive signal for powering said at least one electromagnetic coil; said electrostimulation device being a bespoke mouthpiece provided with a unique identifier device for identifying said bespoke mouthpiece electrostimulation device to said drive unit; said electrical drive unit comprises a single socket connector , which is used alternately for connection of an external power supply or for connection of said bespoke mouthpiece electrostimulation device comprising at least one electromagnetic coil, such that said external power supply and said bespoke mouthpiece electrostimulation device comprising at least one electromagnetic coil cannot be connected to the drive unit at the same time; said electrical drive unit being provided with a recognition means for recognising said unique identifier device for identifying said bespoke mouthpiece electrostimulation device; characterised in that said electrical drive unit is operable to supply a drive signal to said at least one electromagnetic coil when said drive unit verifies said unique identifier device; and said drive unit is disabled from supplying a drive signal to said at least one electromagnetic coil when said drive unit does not verify said unique identifier device.
A method of training a stroke classifier for recognizing gesture strokes in user input applied onto an electronic document, comprising: generating training data by generating electronic notes by handwriting, via a touch-based user interface, electronic notes comprising ink elements; converting the ink elements of the handwritten electronic notes into typeset versions; capturing stroke data for the handwritten electronic notes and applying the captured stroke data onto the typeset versions as training data, wherein said training data includes gesture strokes and non-gesture strokes; training the stroke classifier based on the training data. generating electronic notes by handwriting, via a touch-based user interface, electronic notes comprising ink elements; converting the ink elements of the handwritten electronic notes into typeset versions; capturing stroke data for the handwritten electronic notes and applying the captured stroke data onto the typeset versions as training data, wherein said training data includes gesture strokes and non-gesture strokes; training the stroke classifier based on the training data.
An optoelectronic 3D safety sensor for safeguarding a moving machine, comprising a light receiver for safely detecting three-dimensional image data of a monitored area and a control and evaluation unit configured for a safe self-positioning (34a-c) on the basis of three-dimensional features using the detection data in order to trigger a safety-relevant function in a position-specific manner, characterized in that the control and evaluation unit is further configured to perform, as a position-specific function, a switchover of protective fields, a change of the detection capability, of a number of multiple evaluations and/or of an exposure time, wherein a protective field is a configured partial area of the monitoring area which must not be entered by the operating personnel during operation of the machine and is monitored for safety-relevant intrusions, in order to trigger a safety-oriented reaction of the machine in the event of impermissible protective field intrusion, which reaction consists of braking, evasion or, if necessary, an immediate stop of the machine, wherein the detection capability denotes the property that an object of certain minimum size or certain minimum dimensions is safely detected and wherein multiple evaluation means that a safety-critical event must be confirmed in m out of n repetitions before it triggers a safety-related reaction.
A front-lighting system for a vehicle, comprising: a light source , and an integrated lens comprising a light entrance surface , a light exit surface , and a light guiding portion sandwiched between the light entrance surface and the light exit surface , wherein the light source is configured to emit a first light beam and a second light beam onto the light entrance surface , the light guiding portion is configured to receive the first light beam and the second light beam from the light entrance surface , and guide them towards the light exit surface , where the first light beam and the second light beam are both redirected out from the integrated lens , characterized in that the light guiding portion comprises at least a first notch and a second notch opposite to the first notch , wherein, while being guided, the first light beam undergoes an at least partial reflection successively by the first notch and the second notch , and the second light beam undergoes a refraction by the second notch . a light source , and an integrated lens comprising a light entrance surface , a light exit surface , and a light guiding portion sandwiched between the light entrance surface and the light exit surface , wherein the light source is configured to emit a first light beam and a second light beam onto the light entrance surface , the light guiding portion is configured to receive the first light beam and the second light beam from the light entrance surface , and guide them towards the light exit surface , where the first light beam and the second light beam are both redirected out from the integrated lens , characterized in that the light guiding portion comprises at least a first notch and a second notch opposite to the first notch , wherein, while being guided, the first light beam undergoes an at least partial reflection successively by the first notch and the second notch , and the second light beam undergoes a refraction by the second notch .
A semiconductor device , comprising: a semiconductor device layer comprising a first surface ; a plurality of gate electrodes disposed on the first surface of the semiconductor device layer, wherein the plurality of gate electrodes are spaced apart from one another; a plurality of contact regions disposed in the first surface of the semiconductor device layer, wherein each contact region of the plurality of contact regions is disposed between adjacent gate electrodes of the plurality of gate electrodes ; a dielectric layer disposed on and adjacent to each gate electrode of the plurality of electrodes, wherein the dielectric layer comprises a plurality of openings , wherein each opening of the plurality of openings is disposed over a contact region of the plurality of contact regions ; and an aluminum layer disposed on the dielectric layer , wherein the aluminum layer extends into each opening of the plurality of openings of the dielectric layer such that the aluminum layer is disposed on the plurality of contact regions of the semiconductor device layer , characterized in that a cell pitch of the semiconductor device is between approximately 4.5 μm and approximately 8 μm, each opening of the plurality of openings comprises a width and a height, wherein the width is less or equal to approximately 2 μm, wherein a ratio of the height to the width is between approximately 1: 1 and approximately 5:1, and wherein a step coverage of the aluminum layer in each opening of the plurality of openings is greater than or equal to approximately 75%. a semiconductor device layer comprising a first surface ; a plurality of gate electrodes disposed on the first surface of the semiconductor device layer, wherein the plurality of gate electrodes are spaced apart from one another; a plurality of contact regions disposed in the first surface of the semiconductor device layer, wherein each contact region of the plurality of contact regions is disposed between adjacent gate electrodes of the plurality of gate electrodes ; a dielectric layer disposed on and adjacent to each gate electrode of the plurality of electrodes, wherein the dielectric layer comprises a plurality of openings , wherein each opening of the plurality of openings is disposed over a contact region of the plurality of contact regions ; and an aluminum layer disposed on the dielectric layer , wherein the aluminum layer extends into each opening of the plurality of openings of the dielectric layer such that the aluminum layer is disposed on the plurality of contact regions of the semiconductor device layer , characterized in that a cell pitch of the semiconductor device is between approximately 4.5 μm and approximately 8 μm, each opening of the plurality of openings comprises a width and a height, wherein the width is less or equal to approximately 2 μm, wherein a ratio of the height to the width is between approximately 1: 1 and approximately 5:1, and wherein a step coverage of the aluminum layer in each opening of the plurality of openings is greater than or equal to approximately 75%.
A sealing material for medical use comprising a thermoplastic elastomer composition which comprises : 100 parts by mass of (a) a hydrogenated block copolymer that is a hydrogenated product of a block copolymer containing (A) a polymer block containing a structural unit derived from an aromatic vinyl compound and (B) a polymer block containing a structural unit derived from isoprene or a mixture of isoprene and butadiene, and having a total content of a 3,4-bond unit and a 1,2-bond unit of 45% or more, wherein block copolymer (a) has a peak top molecular weight (Mp) obtained by gel permeation chromatograph in terms of polystyrene standard of from 250,000 to 500,000, and is in a form of powder having a bulk density of from 0.10 to 0.40 g/mL; from 10 to 300 parts by mass of (b) a softening agent; and from 5 to 200 parts by mass of (c) a polyolefin resin. 100 parts by mass of (a) a hydrogenated block copolymer that is a hydrogenated product of a block copolymer containing (A) a polymer block containing a structural unit derived from an aromatic vinyl compound and (B) a polymer block containing a structural unit derived from isoprene or a mixture of isoprene and butadiene, and having a total content of a 3,4-bond unit and a 1,2-bond unit of 45% or more, wherein block copolymer (a) has a peak top molecular weight (Mp) obtained by gel permeation chromatograph in terms of polystyrene standard of from 250,000 to 500,000, and is in a form of powder having a bulk density of from 0.10 to 0.40 g/mL; from 10 to 300 parts by mass of (b) a softening agent; and from 5 to 200 parts by mass of (c) a polyolefin resin.
A modified immunocyte, (a) expressing: an exogenous invariant T-cell receptor α chain; and an exogenous T-cell receptor β chain forming a dimer with the T-cell receptor α chain, on a surface of the modified immunocyte; or (b) comprising: a polynucleotide encoding an exogenous invariant T-cell receptor α chain; and a polynucleotide encoding an exogenous T-cell receptor β chain forming a dimer with the T-cell receptor α chain; wherein a CD3 positive T cell is used as a material for preparing the modified immunocyte and wherein the CD3 positive T cell is a γδ T cell; wherein (i) the exogenous invariant T-cell receptor α chain is human Vα24 and the exogenous T-cell receptor β chain is human Vβ11; or (ii) the exogenous invariant T-cell receptor α chain is mouse Vα14 and the exogenous T-cell receptor β chain is mouse Vβ8.2, Vβ7 or Vβ2; and wherein a T-cell receptor γ chain and a T-cell receptor δ chain are further expressed on a surface of the modified immunocyte. (a) expressing: an exogenous invariant T-cell receptor α chain; and an exogenous T-cell receptor β chain forming a dimer with the T-cell receptor α chain, on a surface of the modified immunocyte; or an exogenous invariant T-cell receptor α chain; and an exogenous T-cell receptor β chain forming a dimer with the T-cell receptor α chain, on a surface of the modified immunocyte; or (b) comprising: a polynucleotide encoding an exogenous invariant T-cell receptor α chain; and a polynucleotide encoding an exogenous T-cell receptor β chain forming a dimer with the T-cell receptor α chain; wherein a CD3 positive T cell is used as a material for preparing the modified immunocyte and wherein the CD3 positive T cell is a γδ T cell; wherein (i) the exogenous invariant T-cell receptor α chain is human Vα24 and the exogenous T-cell receptor β chain is human Vβ11; or (ii) the exogenous invariant T-cell receptor α chain is mouse Vα14 and the exogenous T-cell receptor β chain is mouse Vβ8.2, Vβ7 or Vβ2; and wherein a T-cell receptor γ chain and a T-cell receptor δ chain are further expressed on a surface of the modified immunocyte. a polynucleotide encoding an exogenous invariant T-cell receptor α chain; and a polynucleotide encoding an exogenous T-cell receptor β chain forming a dimer with the T-cell receptor α chain; wherein a CD3 positive T cell is used as a material for preparing the modified immunocyte and wherein the CD3 positive T cell is a γδ T cell; wherein (i) the exogenous invariant T-cell receptor α chain is human Vα24 and the exogenous T-cell receptor β chain is human Vβ11; or (ii) the exogenous invariant T-cell receptor α chain is mouse Vα14 and the exogenous T-cell receptor β chain is mouse Vβ8.2, Vβ7 or Vβ2; and wherein a T-cell receptor γ chain and a T-cell receptor δ chain are further expressed on a surface of the modified immunocyte.