mhurhangee/ep-ind-claims huggingface dataset:
A laser apparatus incorporating an anti-reflection device, comprising: a laser and a laser anti-reflection device, wherein said laser anti-reflection device is disposed in the outgoing light path of said laser for separating the laser beam returning to said laser along the original path due to workpiece reflection during workpiece processing, wherein the laser anti-reflection device comprises: a polarizing beam splitter, a λ/4 wave plate and an absorber, wherein said polarizing beam splitter and said λ/4 wave plate are configured to be disposed in the outgoing light path of a laser emitting a linearly polarized light beam with a wavelength of λ, such that the linearly polarized light beam exiting from the laser first passes the polarizing beam splitter, then passes the λ/4 wave plate and becomes a circularly polarized light beam, the circularly polarized light beam reaches a workpiece to be processed, a part of the circularly polarized light beam reflected from the workpiece returns along the original light path, passes the λ/4 wave plate and becomes a linearly polarized light beam with a polarization direction perpendicular to that of the outgoing linearly polarized light beam, the linearly polarized light beam deviates from the light path of the outgoing linearly polarized light beam after it passes the polarizing beam splitter and reaches the absorber; being characterised in that: said polarizing beam splitter is composed of a coated mirror or a prism in which a polarization light splitting film is coated on a ZnSe or GaAs substrate, said polarizing beam splitter is a polarizing beam splitter transmitting P linearly polarized light and reflecting S linearly polarized light or a polarizing beam splitter transmitting S linearly polarized light and reflecting P linearly polarized light, and said laser is a CO 2 laser. said polarizing beam splitter is composed of a coated mirror or a prism in which a polarization light splitting film is coated on a ZnSe or GaAs substrate, said polarizing beam splitter is a polarizing beam splitter transmitting P linearly polarized light and reflecting S linearly polarized light or a polarizing beam splitter transmitting S linearly polarized light and reflecting P linearly polarized light, and said laser is a CO 2 laser.
An article of footwear having an upper including a knitted component that is formed of unitary knit construction, the knitted component including: a foot region extending through a forefoot region, a midfoot region, and a heel region of the article of footwear, the foot region including an instep area that extends between a medial side and a lateral side of the upper; an ankle region forming a portion of the upper that extends above the foot region, the ankle region including an ankle cuff that defines a throat opening to a void within the upper for receiving a foot; wherein the ankle cuff is formed of unitary knit construction with at least the instep area of the foot region and a portion of foot region disposed on the medial side and lateral side in the heel region; wherein the ankle cuff further comprises at least one malleolus zone disposed on at least one of the medial side and the lateral side of the upper, the at least one malleolus zone including a plurality of indentations in an exterior surface of the ankle cuff; and wherein the article of footwear is characterized in that the at least one malleolus zone including the plurality of indentations exhibits a stretch resistance that is less than a stretch resistance of the remaining portion of the ankle region wherein an arrangement of the plurality of indentations is associated with a geometric shape. a foot region extending through a forefoot region, a midfoot region, and a heel region of the article of footwear, the foot region including an instep area that extends between a medial side and a lateral side of the upper; an ankle region forming a portion of the upper that extends above the foot region, the ankle region including an ankle cuff that defines a throat opening to a void within the upper for receiving a foot; wherein the ankle cuff is formed of unitary knit construction with at least the instep area of the foot region and a portion of foot region disposed on the medial side and lateral side in the heel region; wherein the ankle cuff further comprises at least one malleolus zone disposed on at least one of the medial side and the lateral side of the upper, the at least one malleolus zone including a plurality of indentations in an exterior surface of the ankle cuff; and wherein the article of footwear is characterized in that the at least one malleolus zone including the plurality of indentations exhibits a stretch resistance that is less than a stretch resistance of the remaining portion of the ankle region wherein an arrangement of the plurality of indentations is associated with a geometric shape.
An operation method of a base station, the method comprising: allocating a first resource for a first signal, corresponding to a first communication system, and a second resource for a second signal, corresponding to a second communication system, to at least one terminal (110, 120), wherein the first resource and the second resource are identical in position with each other in a time domain and a frequency domain; receiving, from the at least one terminal (110, 120), a signal including the first signal and the second signal on the first resource and the second resource; and cancelling an interference from the signal by removing the first signal to acquire the second signal, or by removing the second signal to acquire the first signal, wherein the first communication system operates based on a first transmission power and the second communication system operates based on a second transmission power less than the first transmission power. allocating a first resource for a first signal, corresponding to a first communication system, and a second resource for a second signal, corresponding to a second communication system, to at least one terminal (110, 120), wherein the first resource and the second resource are identical in position with each other in a time domain and a frequency domain; receiving, from the at least one terminal (110, 120), a signal including the first signal and the second signal on the first resource and the second resource; and cancelling an interference from the signal by removing the first signal to acquire the second signal, or by removing the second signal to acquire the first signal, wherein the first communication system operates based on a first transmission power and the second communication system operates based on a second transmission power less than the first transmission power.
A method of performing ozonolysis or ozone-based oxidation on a liquid or emulsified reagent using a tubular falling film reactor with one or multiple tubes wherein the combined ozone and carrier gas flow is co-current and wherein the ozone concentration ranges from 0.5 % to 10 % and wherein the gas flow rate is from 10 to 1500 L/min.
Method for capturing a visual field of a person having a scotoma, said method comprising the following steps: continuously capturing the eye alignment of the person by means of a capturing unit, sampling the visual field of the person point by point in order to determine points suitable and not suitable for sight in the visual field of the person, finding the scotoma as a region with a multiplicity of points not suitable for sight, calculating an outer boundary line of the scotoma, calculating an outer enveloping curve, which surrounds the outer boundary line of the scotoma at a predetermined distance, displaying the outer enveloping curve on a display unit with the continuously captured eye alignment being taken into account in such a way that the outer enveloping curve is perceivable as a frame of the scotoma by the person in the case of any alignment of the eye of the person onto the display unit. continuously capturing the eye alignment of the person by means of a capturing unit, sampling the visual field of the person point by point in order to determine points suitable and not suitable for sight in the visual field of the person, finding the scotoma as a region with a multiplicity of points not suitable for sight, calculating an outer boundary line of the scotoma, calculating an outer enveloping curve, which surrounds the outer boundary line of the scotoma at a predetermined distance, displaying the outer enveloping curve on a display unit with the continuously captured eye alignment being taken into account in such a way that the outer enveloping curve is perceivable as a frame of the scotoma by the person in the case of any alignment of the eye of the person onto the display unit.
A fluidic ejection die, comprising: an array of nozzles, each nozzle comprising: an ejection chamber; an opening; and a fluid actuator disposed within the ejection chamber; an array of passages, formed in a substrate, to deliver fluid to and from the ejection chamber; and an array of enclosed cross-channels, formed on a back surface of the substrate, each enclosed cross-channel of the array being fluidly connected to a respective plurality of passages of the array of passages; the array of enclosed cross-channels having an inlet and an outlet, wherein each enclosed cross-channel is configured to force fluid flow therethrough in a transverse direction between the inlet and the outlet and close to the passages; wherein: an enclosed cross-channel delivers fluid to rows of different sub-arrays of passages; each nozzle further comprises a channel to direct fluid to and from the corresponding ejection chamber, the channel and the passages that correspond to a nozzle form a micro-recirculation loop; characterised in that passages of a row correspond to the same enclosed cross-channel. an array of nozzles, each nozzle comprising: an ejection chamber; an opening; and a fluid actuator disposed within the ejection chamber; an ejection chamber; an opening; and a fluid actuator disposed within the ejection chamber; an array of passages, formed in a substrate, to deliver fluid to and from the ejection chamber; and an array of enclosed cross-channels, formed on a back surface of the substrate, each enclosed cross-channel of the array being fluidly connected to a respective plurality of passages of the array of passages; the array of enclosed cross-channels having an inlet and an outlet, wherein each enclosed cross-channel is configured to force fluid flow therethrough in a transverse direction between the inlet and the outlet and close to the passages; wherein: an enclosed cross-channel delivers fluid to rows of different sub-arrays of passages; each nozzle further comprises a channel to direct fluid to and from the corresponding ejection chamber, the channel and the passages that correspond to a nozzle form a micro-recirculation loop; characterised in that passages of a row correspond to the same enclosed cross-channel. an enclosed cross-channel delivers fluid to rows of different sub-arrays of passages; each nozzle further comprises a channel to direct fluid to and from the corresponding ejection chamber, the channel and the passages that correspond to a nozzle form a micro-recirculation loop; characterised in that passages of a row correspond to the same enclosed cross-channel.
A compound which is a 3,6-disubstituted-4-methoxy-2,2'-bipyridine of formula 1: wherein, X = -CH:NOR 1; -COOR 1; -CHO; -CH 2 OR 2; Y = H; OR 3; R 1 = H; C 1 to C 16 normal or branched chain alkyl; R 2 = H; C 1 to C 16 normal or branched chain alkyl; C 1 to C 16 normal or branched chain acyl; R 3 = H; methyl; ethyl; isopropyl; isobutyl; and pharmaceutically acceptable salts thereof, for use in treatment of a disease susceptible to treatment with an immunosuppressive agent.
A turbomachine comprising: an external casing; a cartridge removably provided inside the external casing; and an electrical connection having a first part fixedly connected to the cartridge and a second part movably connected to the external casing, the second part being configured to move relative to the first part and to electrically connect and disconnect with the first part, one of the first or second parts being a male part and the other of the first and or second parts being a female part. an external casing; a cartridge removably provided inside the external casing; and an electrical connection having a first part fixedly connected to the cartridge and a second part movably connected to the external casing, the second part being configured to move relative to the first part and to electrically connect and disconnect with the first part, one of the first or second parts being a male part and the other of the first and or second parts being a female part.
A nucleic acid encoding an adeno-associated virus capsid protein which contains a peptide having an amino acid sequence selected from the group consisting of SEQ ID NO: 30, SEQ ID NO: 15, SEQ ID NO: 16, and SEQ ID NO: 24 of the sequence listing, and wherein the AAV capsid protein containing the peptide has tropism for heart and/or immune organs.
A method for carrying out a multiple welding method with at least two consumable electrodes (3A, 3B) on a parent material, wherein a welding process being carried out at each electrode (3A, 3B) after an arc is ignited between the electrode (3A, 3B) and the parent material, and wherein the welding processes of the at least two electrodes (3A, 3B) being synchronized in time, characterized in that a welding process having a short-circuit welding phase (SPA1, SPB1) and a hot-welding phase (SPA2, SPB2), which has a higher heat input into the parent material relative to the short-circuit welding phase (SPA1, SPB1), is carried out at the at least two electrodes (3A, 3B), wherein the short-circuit welding phase (SPA1, SPB1) and the hot-welding phase (SPA2, SPB2) alternating periodically, and in that at least the short-circuit welding phases (SPA1, SPB1) of the welding processes of the at least two electrodes (3A, 3B) are synchronized in time on the basis of at least one defined first synchronization event (SEA1, SEB1) per short-circuit welding phase (SPA1, SPB1).
A 3D printer, comprising: two tanks (100/100a), a tank opening (101/101a) being defined on a top of each tank (100/100a), and an elevating mechanism (110/110a) being arranged in each tank (100/100a) and movable between the tank opening (101/101a) and a bottom of the corresponding tank (100/100a); a powder spreading mechanism arranged corresponding to the tank openings (101/101a) and being movable across an area defined by the tank openings (101/101a), one of the tanks contains powders for supplying the powders, and the powder spreading mechanism pushes the powders into the tank opening of the other tank for a modeling process; and a transport assembly comprising a carrying plate, characterized in that the transport assembly further comprises a covering case, the carrying plate being detachably arranged on the elevating mechanism in the tank for supplying the powder, a plurality of insertion holes being defined at an edge of the carrying plate, a case opening being defined at bottom of the covering case, the covering case covering on the corresponding tank opening and the tank opening being communicated with the corresponding case opening, the case opening being of a shape corresponding to the carrying plate, a plurality of movable latches for being correspondingly inserted in the respective insertion holes being arranged at an edge of the case opening, and the powders being allowed to be contained in the covering case when the case opening is closed by the carrying plate. two tanks (100/100a), a tank opening (101/101a) being defined on a top of each tank (100/100a), and an elevating mechanism (110/110a) being arranged in each tank (100/100a) and movable between the tank opening (101/101a) and a bottom of the corresponding tank (100/100a); a powder spreading mechanism arranged corresponding to the tank openings (101/101a) and being movable across an area defined by the tank openings (101/101a), one of the tanks contains powders for supplying the powders, and the powder spreading mechanism pushes the powders into the tank opening of the other tank for a modeling process; and a transport assembly comprising a carrying plate, characterized in that the transport assembly further comprises a covering case, the carrying plate being detachably arranged on the elevating mechanism in the tank for supplying the powder, a plurality of insertion holes being defined at an edge of the carrying plate, a case opening being defined at bottom of the covering case, the covering case covering on the corresponding tank opening and the tank opening being communicated with the corresponding case opening, the case opening being of a shape corresponding to the carrying plate, a plurality of movable latches for being correspondingly inserted in the respective insertion holes being arranged at an edge of the case opening, and the powders being allowed to be contained in the covering case when the case opening is closed by the carrying plate.
A filter bank for signal decomposition, comprising: a plurality of filter units (101, 103, 105, 107, 109, 111, 113) having one input and two outputs (203, 205) which form two paths whose transfer functions are complementary to each other, where the plurality of filter units are connected to form a tree structure; wherein the filter bank is adapted to decompose signals having N c sub-carrier signals, the filter bank has N s stages and a stage s has 2 s levels, wherein N s =log 2 N c, s stands for stage number, and s ∈ [0,1... N s, -1], characterised in that an n th order impulse response coefficient of an s th stage, q th level filter unit h s,q (n), is calculated by multiplying an n th order impulse response coefficient of an s th stage, p th level filter unit h s,p (n), and a rotation factor, and wherein the rotation factor is a complex exponential factor e j 2 ⁢ π N c p ̃ − q ̃, where p̃ is the value of bit reversed version of N s -1 bits binary encode of p, and q̃ is the value of bit reversed version of N s -1 bits binary encode of q. a plurality of filter units (101, 103, 105, 107, 109, 111, 113) having one input and two outputs (203, 205) which form two paths whose transfer functions are complementary to each other, where the plurality of filter units are connected to form a tree structure; wherein the filter bank is adapted to decompose signals having N c sub-carrier signals, the filter bank has N s stages and a stage s has 2 s levels, wherein N s =log 2 N c, s stands for stage number, and s ∈ [0,1... N s, -1], characterised in that an n th order impulse response coefficient of an s th stage, q th level filter unit h s,q (n), is calculated by multiplying an n th order impulse response coefficient of an s th stage, p th level filter unit h s,p (n), and a rotation factor, and wherein the rotation factor is a complex exponential factor e j 2 ⁢ π N c p ̃ − q ̃, where p̃ is the value of bit reversed version of N s -1 bits binary encode of p, and q̃ is the value of bit reversed version of N s -1 bits binary encode of q.
A welding process, comprising: directing energy from one or more fusion beams to join a first element to a second element and to join the first element to a third element the first element being positioned intermediate to the second and to the third element; the directing of the energy being at a first lateral angle and a second lateral angle with respect to the first element, thereby defining a first fusion beam path and a second fusion beam path; wherein each of the one or more fusion beams travels along the fusion beam paths (121, 122), wherein each fusion beam path extends through and fully penetrates at least a portion of the first element and extends from an accessible portion (131, 132) proximal to an energy emitting device to an inaccessible portion (133, 134) distal from the energy emitting device, such that in each of the accessible portions and inaccessible portions a joint (105, 111) is created; wherein fillet welds are formed as the joints in the inaccessible portions (133, 134), a first of which joining the first element to the second element and a second of which joining the first element to the third element, and characterised in that the first element is positioned such that it includes a protruding portion extending from between the second and third element, proximal to the energy emitting device; and in that the protruding portion is consumed during the directing of the energy. directing energy from one or more fusion beams to join a first element to a second element and to join the first element to a third element the first element being positioned intermediate to the second and to the third element; the directing of the energy being at a first lateral angle and a second lateral angle with respect to the first element, thereby defining a first fusion beam path and a second fusion beam path; wherein each of the one or more fusion beams travels along the fusion beam paths (121, 122), wherein each fusion beam path extends through and fully penetrates at least a portion of the first element and extends from an accessible portion (131, 132) proximal to an energy emitting device to an inaccessible portion (133, 134) distal from the energy emitting device, such that in each of the accessible portions and inaccessible portions a joint (105, 111) is created; wherein fillet welds are formed as the joints in the inaccessible portions (133, 134), a first of which joining the first element to the second element and a second of which joining the first element to the third element, and characterised in that the first element is positioned such that it includes a protruding portion extending from between the second and third element, proximal to the energy emitting device; and in that the protruding portion is consumed during the directing of the energy.
A method for wireless communication at a user equipment, UE, comprising: identifying a configuration for a plurality of control resource sets, wherein the configuration for the plurality of control resource sets comprises an updated active quasi-co-location assumption for a control resource set of the plurality of control resource sets; determining a priority order for monitoring the plurality of control resource sets, wherein the control resource set associated with the updated active quasi-colocation assumption corresponds to a highest priority of the priority order; and monitoring for downlink transmissions in at least a subset of the plurality of control resource sets based at least in part on the priority order and a number of active quasi-co-location assumptions for the plurality of control resource sets exceeding a threshold number of active quasi-co-location assumptions for the UE based at least in part on the updated active quasi-co-location assumption. identifying a configuration for a plurality of control resource sets, wherein the configuration for the plurality of control resource sets comprises an updated active quasi-co-location assumption for a control resource set of the plurality of control resource sets; determining a priority order for monitoring the plurality of control resource sets, wherein the control resource set associated with the updated active quasi-colocation assumption corresponds to a highest priority of the priority order; and monitoring for downlink transmissions in at least a subset of the plurality of control resource sets based at least in part on the priority order and a number of active quasi-co-location assumptions for the plurality of control resource sets exceeding a threshold number of active quasi-co-location assumptions for the UE based at least in part on the updated active quasi-co-location assumption.