mhurhangee/ep-ind-claims huggingface dataset:
A method of determining control parameters of a retinal treatment system comprising: acquiring an image of a retina of a subject's eye using an imaging laser and an optical system of the retinal treatment system; receiving a description of distortion of the image of the retina; using the distortion description to generate a corrected retinal image; presenting the corrected retinal image to a user of the retinal treatment system; receiving from the user location data of the corrected retinal image that locates at least one treatment site of the retina; receiving from the user a required laser light pattern for use on the treatment site; using the distortion description with the location data to determine a location control parameter to be used to cause the optical system to direct laser light from a treatment laser of the retinal treatment system to the treatment site; and using the distortion description with the required laser light pattern to determine a pattern control parameter to be used to cause the treatment laser to produce a laser light pattern which passes through the optical system and results in the required laser light pattern at the treatment site. acquiring an image of a retina of a subject's eye using an imaging laser and an optical system of the retinal treatment system; receiving a description of distortion of the image of the retina; using the distortion description to generate a corrected retinal image; presenting the corrected retinal image to a user of the retinal treatment system; receiving from the user location data of the corrected retinal image that locates at least one treatment site of the retina; receiving from the user a required laser light pattern for use on the treatment site; using the distortion description with the location data to determine a location control parameter to be used to cause the optical system to direct laser light from a treatment laser of the retinal treatment system to the treatment site; and using the distortion description with the required laser light pattern to determine a pattern control parameter to be used to cause the treatment laser to produce a laser light pattern which passes through the optical system and results in the required laser light pattern at the treatment site.
Method for operating an electronically commutating electric motor, in particular during the start-up phase thereof, taking into account the respective rotation angle position of the rotor thereof, having the following steps: successive application of voltage test pulses of different phase to the electric motor, formation of at least one criterion from at least one result produced from the voltage test pulse application, detection of the values of the criterion produced from the voltage test pulses and determination of a range of the rotation angle position of the rotor of the electric motor from a comparison of the values of the individual criteria, wherein a change in flux ΔΨ and a change in current of the current pulses are used for the criteria, wherein the changes in current are detected through measurement of the intermediate circuit current of a supply circuit, and wherein the criteria are periods situated between the presence of two current values of the current pulses and two flux values. successive application of voltage test pulses of different phase to the electric motor, formation of at least one criterion from at least one result produced from the voltage test pulse application, detection of the values of the criterion produced from the voltage test pulses and determination of a range of the rotation angle position of the rotor of the electric motor from a comparison of the values of the individual criteria, wherein a change in flux ΔΨ and a change in current of the current pulses are used for the criteria,
An image decoding method performed by a decoding apparatus, the method comprising: obtaining residual information for a chroma component of a current coding unit; obtaining Coding Unit, CU, chroma Quantization Parameter, QP, offset related information for the current coding unit based on a tree type and a size of the current coding unit; deriving transform coefficients for the current coding unit based on the residual information; deriving a chroma QP for the current coding unit based on the CU chroma QP offset related information; deriving residual samples for the current coding unit by dequantizing the transform coefficients based on the chroma QP; and generating a reconstructed picture based on the residual samples, wherein the CU chroma QP offset related information is signaled in a transform unit syntax for a first transform block among transform blocks of the current coding unit, characterized in that wherein based on at least one of a width and a height of the current coding unit being greater than 64, and the tree type being not a dual tree luma, the CU chroma QP offset related information is obtained, wherein the CU chroma QP offset related information includes a CU chroma QP offset index and a CU chroma QP offset flag for the current coding unit. obtaining residual information for a chroma component of a current coding unit; obtaining Coding Unit, CU, chroma Quantization Parameter, QP, offset related information for the current coding unit based on a tree type and a size of the current coding unit; deriving transform coefficients for the current coding unit based on the residual information; deriving a chroma QP for the current coding unit based on the CU chroma QP offset related information; deriving residual samples for the current coding unit by dequantizing the transform coefficients based on the chroma QP; and generating a reconstructed picture based on the residual samples, wherein the CU chroma QP offset related information is signaled in a transform unit syntax for a first transform block among transform blocks of the current coding unit, characterized in that wherein based on at least one of a width and a height of the current coding unit being greater than 64, and the tree type being not a dual tree luma, the CU chroma QP offset related information is obtained, wherein the CU chroma QP offset related information includes a CU chroma QP offset index and a CU chroma QP offset flag for the current coding unit.
A high-purity titanium target for sputtering, consisting of: the following additive components: 1ppm ≤ Al < 100ppm, 0.2ppm ≤ Si < 100ppm, 1 ppm ≤ S < 100ppm, 0.3ppm ≤ Cr < 100ppm, 10ppm < Fe < 100ppm, 0.2ppm ≤ Zr < 100ppm, 0.1ppm ≤ Sn < 100ppm, and optionally one or more of: Cl, Ni, As, Sb and La, wherein the total amount of all additive components is from 3 to 100ppm, and the balance titanium, wherein the purity of the target excluding unavoidable impurities and gas components is 99.99 mass% or higher. the following additive components: 1ppm ≤ Al < 100ppm, 0.2ppm ≤ Si < 100ppm, 1 ppm ≤ S < 100ppm, 0.3ppm ≤ Cr < 100ppm, 10ppm < Fe < 100ppm, 0.2ppm ≤ Zr < 100ppm, 0.1ppm ≤ Sn < 100ppm, 1ppm ≤ Al < 100ppm, 0.2ppm ≤ Si < 100ppm, 1 ppm ≤ S < 100ppm, 0.3ppm ≤ Cr < 100ppm, 10ppm < Fe < 100ppm, 0.2ppm ≤ Zr < 100ppm, 0.1ppm ≤ Sn < 100ppm, and optionally one or more of: Cl, Ni, As, Sb and La, wherein the total amount of all additive components is from 3 to 100ppm, and the balance titanium, wherein the purity of the target excluding unavoidable impurities and gas components is 99.99 mass% or higher.
A non-pneumatic tire comprising: - an annular beam configured to deflect at a contact patch of the non-pneumatic tire as the non-pneumatic tire rolls on a ground surface; and - an annular support extending radially inwardly from the annular beam and configured to deform as the non-pneumatic tire rolls on the ground surface, the annular support comprising a plurality of spokes (42 1 -42 T) deformable such that, when the non-pneumatic tire is loaded, upper ones of the spokes located above an axis of rotation of the non-pneumatic tire are in tension; characterized in that: the annular beam and the annular support are injection molded together from elastomeric material flowing where at least part of the annular beam is before flowing where at least part of the annular support is; and an outer peripheral extent of the annular beam comprises a plurality of injection-molding-gate marks at locations of injection of the elastomeric material. - an annular beam configured to deflect at a contact patch of the non-pneumatic tire as the non-pneumatic tire rolls on a ground surface; and - an annular support extending radially inwardly from the annular beam and configured to deform as the non-pneumatic tire rolls on the ground surface, the annular support comprising a plurality of spokes (42 1 -42 T) deformable such that, when the non-pneumatic tire is loaded, upper ones of the spokes located above an axis of rotation of the non-pneumatic tire are in tension;
A stability control system for a four-wheel drive electric vehicle, comprising a vehicle controller and a signal detection sensor, wherein the vehicle controller comprises a first stability control unit and a second stability control unit; the signal detection sensor is configured to detect lateral acceleration signals; the first stability control unit is configured to judge whether the lateral acceleration is less than a preset acceleration threshold, and continue to judge whether the lateral acceleration is less than the acceleration threshold when the lateral acceleration is less than the acceleration threshold; the first stability control unit is further configured to calculate a lateral load transfer ratio according to the lateral acceleration signals when the lateral acceleration is equal to or greater than the acceleration threshold, wherein the lateral load transfer ratio is defined as a ratio of the vertical load difference of the left and right tires to the total vertical load of the whole vehicle, and to determine the state of the vehicle according to the lateral load transfer ratio to obtain at least one of a first braking force signal, a second braking force signal, a first logic signal and a second logic signal; the second stability control unit is configured to control the body of the electric vehicle to keep stable when obtaining the first logic signal; the first stability control unit is further configured to control a motor of the electric vehicle via a motor controller of the electric vehicle to apply braking force to an outside front wheel of the electric vehicle when obtaining the first braking force signal and the second logic signal; and the first stability control unit is further configured to control motors of the electric vehicle via motor controllers of the electric vehicle to apply braking force to the outside front wheel of the electric vehicle and an inside rear wheel of the electric vehicle when obtaining the second braking force signal and the second logic signal.
Sports shoe, in particular for trekking or hiking, comprising - an upper that delimits, at least partially, a housing space of a foot of a user, the upper being provided with an upper portion suitable to embrace an area of the foot near the malleolus-tibial portion, - a collar associated to the upper portion so as to define an access portion to said housing space, said collar being shaped to embrace, at least partially, the ankle of the foot of a user, - the collar extending from a front portion facing a dorsal portion of the foot, to a rear portion facing an Achilles tendon of the foot, wherein - the collar, in correspondence to the rear portion, comprises at least two edges (32',32") separated by at least one discontinuity and facing one another, characterised in that said at least two edges (32',32") are at least partially brought near to each other and are locked in said configuration of partial juxtaposition, by locking means, so as to place said edges (32',32") in traction and obtain a pre-crimping of the rear portion according to a concave profile, relative to a direction of observation external to the shoe, from the side of the rear portion of the collar. - an upper that delimits, at least partially, a housing space of a foot of a user, the upper being provided with an upper portion suitable to embrace an area of the foot near the malleolus-tibial portion, - a collar associated to the upper portion so as to define an access portion to said housing space, said collar being shaped to embrace, at least partially, the ankle of the foot of a user, - the collar extending from a front portion facing a dorsal portion of the foot, to a rear portion facing an Achilles tendon of the foot, wherein - the collar, in correspondence to the rear portion, comprises at least two edges (32',32") separated by at least one discontinuity and facing one another, characterised in that said at least two edges (32',32") are at least partially brought near to each other and are locked in said configuration of partial juxtaposition, by locking means, so as to place said edges (32',32") in traction and obtain a pre-crimping of the rear portion according to a concave profile, relative to a direction of observation external to the shoe, from the side of the rear portion of the collar.
A bispecific or multispecific antibody comprising a first domain that specifically binds CD3 and a second domain that specifically binds a second antigen, wherein the first domain comprises: a) a heavy chain variable region comprising SEQ ID NO: 652 and a light chain variable region comprising SEQ ID NO: 661; b) a heavy chain comprising SEQ ID NO: 640 and a light chain comprising SEQ ID NO: 676; c) a heavy chain variable region comprising SEQ ID NO: 657 and a light chain variable region comprising SEQ ID NO: 678; or d) a heavy chain comprising SEQ ID NO: 675 and a light chain comprising SEQ ID NO: 677; and wherein the second antigen is a tumour associated antigen. a) a heavy chain variable region comprising SEQ ID NO: 652 and a light chain variable region comprising SEQ ID NO: 661; b) a heavy chain comprising SEQ ID NO: 640 and a light chain comprising SEQ ID NO: 676; c) a heavy chain variable region comprising SEQ ID NO: 657 and a light chain variable region comprising SEQ ID NO: 678; or d) a heavy chain comprising SEQ ID NO: 675 and a light chain comprising SEQ ID NO: 677; and
A method for preparing a medium comprising at least one metal hydroxide consisting in bringing a metal at a zero-oxydation state in contact with a medium comprising at least one molten salt of the hydroxide type, in the presence of a more oxidizing element than said metal at a zero-oxidation state, whereby a medium comprising at least one hydroxide of said metal is obtained.
A machine line comprising a processing turret, the processing turret comprising: a processing element to process an article; a cam; a cam support; and a slide assembly for moving an article and/or the processing element in the processing turret, the slide assembly including a rail, an adaptor and a cam follower, wherein the assembly is configured to provide a stroke to move the article and/or processing element, and characterised in that the rail is a sliding rail and the adaptor is mounted to the sliding rail; further characterised in that the slide assembly comprises a block in which the rail slides, the block comprising rolling elements and being configured so that during a stroke of the slide assembly, a force imparted onto the slide assembly by the stroke is centered on the rolling elements; further characterised in that ends of at least one of the adaptor and rail remain rigid during the stroke operation; and further characterised in that the stroke is of approximately 6.6 cm (2.6 inches) or more. a processing element to process an article; a cam; a cam support; and a slide assembly for moving an article and/or the processing element in the processing turret, the slide assembly including a rail, an adaptor and a cam follower, wherein the assembly is configured to provide a stroke to move the article and/or processing element, and characterised in that the rail is a sliding rail and the adaptor is mounted to the sliding rail; further characterised in that the slide assembly comprises a block in which the rail slides, the block comprising rolling elements and being configured so that during a stroke of the slide assembly, a force imparted onto the slide assembly by the stroke is centered on the rolling elements; further characterised in that ends of at least one of the adaptor and rail remain rigid during the stroke operation; and further characterised in that the stroke is of approximately 6.6 cm (2.6 inches) or more.
Method for preparing a bakery product, comprising a baked part with at least one under side which is formed by at least one surface, with an upper side which is formed by at least one surface, and with at least one side surface connecting the upper side and the lower side to one another, wherein a part area of the under side of the baked part is provided with a coating, wherein a first part area of the under side, extending over the entire width but only over a part of the longitudinal extension, is coated, and a second part area of the under side, extending over the entire width but only over a part of the longitudinal extension, remains uncoated as a touch area, wherein a mould is used for the coating, provided in which is a bath of not yet hardened coating compound, wherein the baked part is immersed, with the part area to be coated of the under side which is to be partially coated, into the not yet hardened coating compound, and the coating compound then hardens, in particular by cooling, and thereby forms the coating, characterised in that the under side to be coated of the baked part is aligned at an angle α of between 1° and 20° in relation to the original surface of the bath of the not yet hardened coating compound at least during the hardening of the not yet hardened coating compound, and that the mould comprises the immersion area containing the not yet hardened coating compound, with a base and a resting area, wherein the baked part lies on the resting area and, by means of the resting area, the second part area, not to be coated, of the baked part is shielded from the coating compound, in particular in a sealing manner.
A method for diagnosing a signal of a functionality which has an input or output signal with discrete values or discrete classes of values, in which input values or output values are grouped, on which a function of the functionality has the same effect, which are observable quantities of a diagnosis functionality for error detection, wherein the signal to be diagnosed is the output signal, the discrete values or, respectively, the discrete classes of values have a cardinality N that is the number of discrete values or discrete classes of values, N error counters are provided, and the method has the following steps: • providing a sum signal from the sum of the values of the error counters (16, 17); • if a value or class of values is erroneous, incrementing the value of the error counter (16, 17) assigned to the erroneous value or the erroneous class; • if the value or the class is correct, decrementing the value of the error counter (16, 17) assigned to the value or the class; • if the sum signal exceeds a pre-established limit value, outputting an error message of the functionality. with discrete values or discrete classes of values, in which input values or output values are grouped, on which a function of the functionality has the same effect, which are observable quantities of a diagnosis functionality for error detection, wherein the signal to be diagnosed is the output signal, the discrete values or, respectively, the discrete classes of values have a cardinality N that is the number of discrete values or discrete classes of values, N error counters are provided, and the method has the following steps: • providing a sum signal from the sum of the values of the error counters (16, 17); • if a value or class of values is erroneous, incrementing the value of the error counter (16, 17) assigned to the erroneous value or the erroneous class; • if the value or the class is correct, decrementing the value of the error counter (16, 17) assigned to the value or the class; • if the sum signal exceeds a pre-established limit value, outputting an error message of the functionality. • providing a sum signal from the sum of the values of the error counters (16, 17); • if a value or class of values is erroneous, incrementing the value of the error counter (16, 17) assigned to the erroneous value or the erroneous class; • if the value or the class is correct, decrementing the value of the error counter (16, 17) assigned to the value or the class; • if the sum signal exceeds a pre-established limit value, outputting an error message of the functionality.
A compression garment comprising: a base textile that encompasses the circumference of at least a first portion of the anatomy of a person wearing the garment, the base textile exerting a first compressive force to the first portion of the anatomy of the wearer; and an elastomer printed onto the base textile, the elastomer comprising: a plurality of ring portions (115,125,135) that encompass the circumference of the at least the first portion of the anatomy of the person wearing the garment, each of the plurality of ring portions (115, 125, 135) exerting a second compressive force to the first portion of the anatomy of the wearer, with the thickness of the elastomer printed onto the base textile varying for different ring portions (115, 125, 135) of the plurality of ring portions (115,125, 135) and the second compressive force varying in relationship to the thickness of each of the plurality of ring portions (115,125,135), and a plurality of connecting portions (117,127,137) that do not encompass the circumference of the at least the first portion of the anatomy of the person wearing the garments, each of the plurality of connecting portions (117, 127, 137) joining at least two of the plurality of ring portions (115, 125, 135), the total compressive force applied by the compressive garment at a given location along the first portion of the anatomy of the person wearing the garment being the sum of the first compressive force and the second compressive force at that location of the garment, wherein the thickness of the elastomer rings (115, 125, 135) varies from thickest at the wearer's extremities to thinnest adjacent to the wearer's torso.
A method performed by network equipment in a wireless communication network, the method comprising: receiving at least a portion of a subscription concealed identifier for a subscriber, wherein the subscription concealed identifier contains a concealed subscription permanent identifier for the subscriber, wherein the received at least a portion of the subscription concealed identifier indicates a sub-domain code, wherein the sub-domain code indicates a certain sub-domain, from among multiple sub-domains (30-1, 30-2,...30-N) of a home network of the subscriber, to which the subscriber is assigned; determining, based on the sub-domain code and from among multiple instances (24-1, 24-2,...24-M) of a provider network function in the home network respectively allocated to provide a service to be consumed for subscribers assigned to different sub-domains, an instance of the provider network function to provide the service to be consumed for the subscriber. receiving at least a portion of a subscription concealed identifier for a subscriber, wherein the subscription concealed identifier contains a concealed subscription permanent identifier for the subscriber, wherein the received at least a portion of the subscription concealed identifier indicates a sub-domain code, wherein the sub-domain code indicates a certain sub-domain, from among multiple sub-domains (30-1, 30-2,...30-N) of a home network of the subscriber, to which the subscriber is assigned; determining, based on the sub-domain code and from among multiple instances (24-1, 24-2,...24-M) of a provider network function in the home network respectively allocated to provide a service to be consumed for subscribers assigned to different sub-domains, an instance of the provider network function to provide the service to be consumed for the subscriber.