mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising a collimator and a collimator mounting device, characterized in that , the collimator comprises: a T-shaped base plate , comprising a longitudinal plate and a transverse plate ; and two lead plates arranged side by side and in parallel to each other, wherein the two lead plates are fixed to the longitudinal plate of the T-shaped base plate and extend to the transverse plate of the T-shaped base plate , and the collimator mounting device comprises a shielding box , and the shielding box is formed in a box shape constituted by an intermediate connecting plate , a left plate , a right plate and a cover plate , wherein a first ray opening is provided in the intermediate connecting plate , the transverse plate of the T-shaped base plate in the collimator is obliquely inserted into grooves of the left and right plates so that an acute angle is formed between the collimator and the intermediate connecting plate and that a gap between the two lead plates of the collimator is aligned with the first ray opening . the collimator comprises: a T-shaped base plate , comprising a longitudinal plate and a transverse plate ; and two lead plates arranged side by side and in parallel to each other, wherein the two lead plates are fixed to the longitudinal plate of the T-shaped base plate and extend to the transverse plate of the T-shaped base plate , and a T-shaped base plate , comprising a longitudinal plate and a transverse plate ; and two lead plates arranged side by side and in parallel to each other, wherein the two lead plates are fixed to the longitudinal plate of the T-shaped base plate and extend to the transverse plate of the T-shaped base plate , and the collimator mounting device comprises a shielding box , and the shielding box is formed in a box shape constituted by an intermediate connecting plate , a left plate , a right plate and a cover plate , wherein a first ray opening is provided in the intermediate connecting plate , the transverse plate of the T-shaped base plate in the collimator is obliquely inserted into grooves of the left and right plates so that an acute angle is formed between the collimator and the intermediate connecting plate and that a gap between the two lead plates of the collimator is aligned with the first ray opening .
A tooth whitening device for whitening teeth using sonochemistry, comprising: a) a body; b) an ultrasonic transducer provided in the body, the ultrasonic transducer being configured for producing ultrasonic waves of a sufficient frequency to induce a sonochemical reaction in a liquid tooth whitening composition; c) an ultrasonic horn provided on the body, the ultrasonic horn being operatively connected with the ultrasonic transducer for transmitting ultrasonic waves into a liquid tooth whitening composition; and d) a liquid retaining element provided on the ultrasonic horn , the liquid retaining element being configured for retaining a liquid tooth whitening composition against a user's teeth during a sonochemical reaction induced by ultrasonic waves, wherein: e) the ultrasonic horn includes a free end; and f) the liquid retaining element includes a liquid retaining foam pad detachably attached to the ultrasonic horn by use of a detachable element provided on the detachable foam pad; g) the detachable element includes a sleeve configured for being attached to a free end of the ultrasonic horn ; and h) the ultrasonic horn is substantially curved and configured for following a contour of a user's outer front teeth. a) a body; b) an ultrasonic transducer provided in the body, the ultrasonic transducer being configured for producing ultrasonic waves of a sufficient frequency to induce a sonochemical reaction in a liquid tooth whitening composition; c) an ultrasonic horn provided on the body, the ultrasonic horn being operatively connected with the ultrasonic transducer for transmitting ultrasonic waves into a liquid tooth whitening composition; and d) a liquid retaining element provided on the ultrasonic horn , the liquid retaining element being configured for retaining a liquid tooth whitening composition against a user's teeth during a sonochemical reaction induced by ultrasonic waves, e) the ultrasonic horn includes a free end; and f) the liquid retaining element includes a liquid retaining foam pad detachably attached to the ultrasonic horn by use of a detachable element provided on the detachable foam pad; g) the detachable element includes a sleeve configured for being attached to a free end of the ultrasonic horn ; and h) the ultrasonic horn is substantially curved and configured for following a contour of a user's outer front teeth.
A document testing device for testing documents in different document formats, comprising a camera and a lid , wherein - the lid is provided with a recess , which corresponds to a first document format, characterized in that - the recess is configured in such a way that the document in the first document format fits into the recess with a tolerance of about 0,1 mm to 0,5 mm, up to a maximum of 1,0 mm, and - the lid is configured as a hinged lid, wherein the recess corresponds to the document in the first document format in an accurately fitting manner and the camera is configured to optically capture solely the area of the recess when the lid is closed, so that no disturbing ambient light is recorded by the camera when the document in the first document format is placed on the recess . - the lid is provided with a recess , which corresponds to a first document format, characterized in that - the recess is configured in such a way that the document in the first document format fits into the recess with a tolerance of about 0,1 mm to 0,5 mm, up to a maximum of 1,0 mm, and - the lid is configured as a hinged lid,
A conveyor comprising: a modular conveyor belt (22; 88) including: a plurality of tracks (32; 92) extending across the width of the modular conveyor belt (22; 88) transverse to the direction of belt travel ; a plurality of movers (34; 90, 91) retained in the tracks (32; 92) to move along the tracks (32; 92) across the modular conveyor belt (22;88), the movers (34; 90,91) having contact faces (48; 94, 94') for engaging conveyed articles , characterized by a magnetic field source providing a magnetic field that interacts with the movers (34; 90, 91) to propel the movers (34; 90, 91) along the tracks (32; 92) across the width of the modular conveyor belt (22; 88) and conveyed articles engaged by the contact faces (48; 94, 94') transversely across the modular conveyor belt (22; 88). a modular conveyor belt (22; 88) including: a plurality of tracks (32; 92) extending across the width of the modular conveyor belt (22; 88) transverse to the direction of belt travel ; a plurality of movers (34; 90, 91) retained in the tracks (32; 92) to move along the tracks (32; 92) across the modular conveyor belt (22;88), the movers (34; 90,91) having contact faces (48; 94, 94') for engaging conveyed articles , characterized by a plurality of tracks (32; 92) extending across the width of the modular conveyor belt (22; 88) transverse to the direction of belt travel ; a plurality of movers (34; 90, 91) retained in the tracks (32; 92) to move along the tracks (32; 92) across the modular conveyor belt (22;88), the movers (34; 90,91) having contact faces (48; 94, 94') for engaging conveyed articles , characterized by a magnetic field source providing a magnetic field that interacts with the movers (34; 90, 91) to propel the movers (34; 90, 91) along the tracks (32; 92) across the width of the modular conveyor belt (22; 88) and conveyed articles engaged by the contact faces (48; 94, 94') transversely across the modular conveyor belt (22; 88).
Polygon compensation coupling system (30; 40; 60), the system comprising: a first rotatable element (31; 41; 61) configured to be connected to at least one drive which is configured to rotate the first rotatable element (31; 41, 61); a second rotatable element (32; 42; 62a, 62b) configured to be connected to at least one sprocket for driving a chain drive ; at least one linkage coupling the first rotatable element (31; 41; 61) with the second rotatable element (32; 42; 62a, 62b), the linkage comprising: at least one first coupling element (34a; 44a; 64a) pivotably coupled to the first rotatable element (31; 41; 61); at least one second coupling element (34b; 44b; 64b) pivotably coupled to the second rotatable element (32; 42; 62b); wherein the first (34a; 44a; 64a) and second coupling elements (34b; 44b; 64b) are pivotably coupled to each other at a hinge point, the hinge point being configured to move along a compensation curve varying the coupling between the first rotatable element (34a; 44a; 64a) and the second rotatable element (32; 42; 62b) so that the second rotatable element (32; 42; 62a, 62b) rotates with non-constant angular velocity when the first rotatable element (31; 41, 61) is rotated with constant angular velocity; characterized in that the compensation curve is stationary. a first rotatable element (31; 41; 61) configured to be connected to at least one drive which is configured to rotate the first rotatable element (31; 41, 61); a second rotatable element (32; 42; 62a, 62b) configured to be connected to at least one sprocket for driving a chain drive ; at least one linkage coupling the first rotatable element (31; 41; 61) with the second rotatable element (32; 42; 62a, 62b), the linkage comprising: at least one first coupling element (34a; 44a; 64a) pivotably coupled to the first rotatable element (31; 41; 61); at least one second coupling element (34b; 44b; 64b) pivotably coupled to the second rotatable element (32; 42; 62b); at least one first coupling element (34a; 44a; 64a) pivotably coupled to the first rotatable element (31; 41; 61); at least one second coupling element (34b; 44b; 64b) pivotably coupled to the second rotatable element (32; 42; 62b); wherein the first (34a; 44a; 64a) and second coupling elements (34b; 44b; 64b) are pivotably coupled to each other at a hinge point, the hinge point being configured to move along a compensation curve varying the coupling between the first rotatable element (34a; 44a; 64a) and the second rotatable element (32; 42; 62b) so that the second rotatable element (32; 42; 62a, 62b) rotates with non-constant angular velocity when the first rotatable element (31; 41, 61) is rotated with constant angular velocity; characterized in that the compensation curve is stationary.
A method of mounting a Weigh-In-Motion (WIM) sensor in a roadway ; which mounted WIM sensor detects a weight force of a vehicle traveling on the roadway ; and which roadway has a surface layer and a base layer directly adjacent to the surface layer ; which surface layer consists of very finely grained material and has an equivalent diameter that is different from that of the granular material or the coarse-grained material of the base layer ; and whereby a groove is made in the roadway , which groove is made in a roadway with a surface layer ; characterized in that the groove extends to the base layer ; that the WIM sensor is inserted into the groove ; that the groove is cast with so much grout , that the grout is flush with a surface layer surface of the surface layer ; and that the groove is made to such a depth in the base layer , that the WIM sensor introduced into the groove does not protrude beyond a base layer surface of the base layer .
A linear illumination device that projects a line pattern (U) of light onto an object (M), comprising: a coherent light source that generates a coherent light beam (L50), a light beam scanning device and an optical diffusing element , the light bean scanning device configured to bend the coherent light beam (L50) and irradiate a bent coherent light beam (L60) onto the optical diffusing element , and the optical diffusing element configured to diffuse the bent coherent light beam (L60) and form an incident light beam (L45, L48), wherein the light beam scanning device is configured to bend the coherent light beam (L50) to scan the optical diffusing element with the bent coherent light beam (L60) so that both of an incidence position and an incidence direction of the bent coherent light beam (L60) on the light diffusing element changes with time, and the incident light beam forming, for each of the incidence positions and incidence directions of the bent coherent light beam (L60) on the optical diffusing element , a linear irradiation region (I) forming alight pattern (U) on a light receiving surface (R) of a placing stage , on which the object (M) is placed, so that each of the linear irradiation regions (I) become substantially a same common linear region on the light receiving surface (R) regardless of the incidence position and the incidence direction of the bent coherent light beam (L60) on the optical diffusion element . a coherent light source that generates a coherent light beam (L50), a light beam scanning device and an optical diffusing element , the light bean scanning device configured to bend the coherent light beam (L50) and irradiate a bent coherent light beam (L60) onto the optical diffusing element , and the optical diffusing element configured to diffuse the bent coherent light beam (L60) and form an incident light beam (L45, L48), wherein the light beam scanning device is configured to bend the coherent light beam (L50) to scan the optical diffusing element with the bent coherent light beam (L60) so that both of an incidence position and an incidence direction of the bent coherent light beam (L60) on the light diffusing element changes with time, and the incident light beam forming, for each of the incidence positions and incidence directions of the bent coherent light beam (L60) on the optical diffusing element , a linear irradiation region (I) forming alight pattern (U) on a light receiving surface (R) of a placing stage , on which the object (M) is placed, so that each of the linear irradiation regions (I) become substantially a same common linear region on the light receiving surface (R) regardless of the incidence position and the incidence direction of the bent coherent light beam (L60) on the optical diffusion element .
A method of calibrating a boiler having a burner , comprising: supplying fuel to the burner at a fuel supply rate and supplying combustion air to the burner at an air supply rate, so that fuel is burnt at an air-to-fuel ratio; and supplying water to the burner at a water supply rate; adjusting burner operating variables, including adjusting both the air-to-fuel ratio and the water supply rate, to define a plurality of burner states; testing operation of the boiler at the plurality of burner states; for each burner state; determining an efficiency parameter relating to an efficiency of the boiler ; monitoring emissions in a flue gas downstream from the burner ; comparing the emissions to one or more emissions thresholds to determine if they are excessive or acceptable; from a set of burner states correlated to acceptable emissions, selecting an operational burner state to optimise the efficiency parameter , for operation of the boiler . supplying fuel to the burner at a fuel supply rate and supplying combustion air to the burner at an air supply rate, so that fuel is burnt at an air-to-fuel ratio; and supplying water to the burner at a water supply rate; adjusting burner operating variables, including adjusting both the air-to-fuel ratio and the water supply rate, to define a plurality of burner states; testing operation of the boiler at the plurality of burner states; for each burner state; determining an efficiency parameter relating to an efficiency of the boiler ; monitoring emissions in a flue gas downstream from the burner ; comparing the emissions to one or more emissions thresholds to determine if they are excessive or acceptable; determining an efficiency parameter relating to an efficiency of the boiler ; monitoring emissions in a flue gas downstream from the burner ; comparing the emissions to one or more emissions thresholds to determine if they are excessive or acceptable; from a set of burner states correlated to acceptable emissions, selecting an operational burner state to optimise the efficiency parameter , for operation of the boiler .
A method of decoding video data, the method comprising: determining a palette for a palette coded block including one or more palette entries that indicate one or more respective color values; decoding a first syntax element from a received bitstream, the first syntax element being a block-level flag indicating either: i) that at least one pixel within the palette coded block is to be decoded as an escape pixel having a color value that is not included in the palette, or ii) that none of the pixels within the palette coded block are to be decoded as escape pixels; and based on the first syntax element indicating that at least one pixel within the palette coded block is to be decoded as an escape pixel: decoding a second syntax element from the received bitstream indicating a palette delta quantization parameter, QP, value for the palette coded block, adjusting a predicted QP value based on the palette delta QP value in order to determine the palette QP value for the palette coded block, decoding from the received bitstream a quantized color value for an escape pixel, and inverse quantizing the color value for the escape pixel according to the palette QP value. determining a palette for a palette coded block including one or more palette entries that indicate one or more respective color values; decoding a first syntax element from a received bitstream, the first syntax element being a block-level flag indicating either: i) that at least one pixel within the palette coded block is to be decoded as an escape pixel having a color value that is not included in the palette, or ii) that none of the pixels within the palette coded block are to be decoded as escape pixels; and based on the first syntax element indicating that at least one pixel within the palette coded block is to be decoded as an escape pixel: decoding a second syntax element from the received bitstream indicating a palette delta quantization parameter, QP, value for the palette coded block, adjusting a predicted QP value based on the palette delta QP value in order to determine the palette QP value for the palette coded block, decoding from the received bitstream a quantized color value for an escape pixel, and inverse quantizing the color value for the escape pixel according to the palette QP value. decoding a second syntax element from the received bitstream indicating a palette delta quantization parameter, QP, value for the palette coded block, adjusting a predicted QP value based on the palette delta QP value in order to determine the palette QP value for the palette coded block, decoding from the received bitstream a quantized color value for an escape pixel, and inverse quantizing the color value for the escape pixel according to the palette QP value.
A method of reprocessing spent nuclear fuel, the method comprising: adding the spent nuclear fuel to an electro-reduction cell, wherein the electroreduction cell comprises a halide salt electrolyte, and anode, and a cathode comprising an alloy of uranium and a first metal forming a low melting point alloy with uranium, the first metal being one or more of: iron; chromium; nickel; manganese; and cobalt; electrochemically reducing the spent nuclear fuel at a potential sufficient to reduce plutonium and lanthanides in the spent nuclear fuel, in order to form a molten alloy of the first metal, uranium and higher actinides present in the spent nuclear fuel; and extracting the alloy from the electro-reduction cell, during the step of electrochemically reducing the spent nuclear fuel, and while uranium oxide is still present in the electro-reduction cell; wherein the spent nuclear fuel comprises uranium oxide, plutonium and higher actinides, and at least 1 mol of lanthanides per tonne of uranium in the spent nuclear fuel, and the electro-reduction cell is operated at a temperature above the melting point of the alloy. iron; chromium; nickel; manganese; and cobalt; electrochemically reducing the spent nuclear fuel at a potential sufficient to reduce plutonium and lanthanides in the spent nuclear fuel, in order to form a molten alloy of the first metal, uranium and higher actinides present in the spent nuclear fuel; and extracting the alloy from the electro-reduction cell, during the step of electrochemically reducing the spent nuclear fuel, and while uranium oxide is still present in the electro-reduction cell; wherein the spent nuclear fuel comprises uranium oxide, plutonium and higher actinides, and at least 1 mol of lanthanides per tonne of uranium in the spent nuclear fuel, and the electro-reduction cell is operated at a temperature above the melting point of the alloy.
Transmission/drive assembly comprising a housing and a device for mounting a shaft in the housing , comprising a bearing which is connected to the shaft and is arranged at least indirectly in the housing by an interlocking or force-fitting connection, wherein the bearing is received in a separate receiving body , wherein the receiving body is received in a fixed manner by an interlocking or force-fitting connection in at least one direction with the housing , wherein the receiving body is connected directly to components of an electric motor , wherein the receiving body is designed as a deep-drawn part composed of a sheet metal and has a cylindrical or tubular receiving region for the bearing , wherein the receiving body has a flange which interacts with the housing in an interlocking or force-fitting manner, characterized in that the bearing (5; 5b; 5c) is fixed in the receiving body by beading or tabs , and in that the receiving body is fastened in a pole tube of the electric motor by means of a transmission housing , wherein the receiving body is axially fixed between the transmission housing and the pole tube .
A winding device for a substantially electrically insulating web material having a winding roller on which the web material can be wound, characterized in that an apparatus is provided for transferring an electric charge to the web material on the winding roller , and/or when deflecting to the winding roller , and the apparatus for transferring an electric charge is connected to at least one electrical high-voltage source with a positive or negative polarity (5.1 to 5.4; 6.1 to 6.4), wherein the polarity of the charge supplied by the apparatus for transferring an electric charge is opposite to the polarity of a charging of the web material, and compensates this charging on the winding roller, and/or when deflecting to the winding roller .