mhurhangee/patent-ind-claim-en huggingface dataset:
Accessory for vehicle tank, comprising: - a main part of the accessory, - at least one fastener of the main part to a tank, the main part and the at least one fastener being in one piece, - a rod comprising a body , having at least one rib configured to be attached to the at least one attachment member , and a head , configured to be coupled to a wall of a tank, the distance between at least one fixing member and the head of the rod being equal to a predetermined value, characterized in that the at least one fastener comprises proximal and distal relief shapes spaced from each other, the proximal relief shape being located between the head of the rod and the distal relief shape when the stem is attached to the at least one fastener , the proximal and distal relief shapes having a proximal orifice and a distal orifice respectively which are coaxial. - a main part of the accessory, - at least one fastener of the main part to a tank, the main part and the at least one fastener being in one piece, - a rod comprising a body , having at least one rib configured to be attached to the at least one attachment member , and a head , configured to be coupled to a wall of a tank, the distance between at least one fixing member and the head of the rod being equal to a predetermined value, characterized in that the at least one fastener comprises proximal and distal relief shapes spaced from each other, the proximal relief shape being located between the head of the rod and the distal relief shape when the stem is attached to the at least one fastener , the proximal and distal relief shapes having a proximal orifice and a distal orifice respectively which are coaxial.
An agent for activating tumor immunity, comprising a probiotic, a prebiotic, and an immune checkpoint inhibitor as active ingredients, wherein the probiotic is one or more selected from the group consisting of Lactobacillus casei YIT9029 (FERM BP-1366) and Bifidobacterium breve YIT12272 (FERM BP-11320), wherein the prebiotic is a galactooligosaccharide comprising β-1,4 galactosyllactose, and wherein the immune checkpoint inhibitor is an anti-PD-1 antibody.
An optical processing head comprising: a light guide portion that guides, to a process surface, a ray for processing and a ray for inspection different in wavelength from the ray for processing; and an inspection portion that inspects a state of the process surface from reflected light of the ray for inspection reflected by the process surface; a nozzle that ejects a processing material toward a molten pool formed on the process surface by the ray for processing, characterized in that said inspection portion includes an image capturing unit that captures a spot image of the ray for inspection and a comparator that compares the spot image of the ray for inspection with a reference spot image, the comparator calculates a tilt angle of the process surface with respect to the reference process surface, based on a distance between a spot center included in the spot image of the ray for inspection and a reference spot center included in the reference spot image, the reference spot image is an image obtained by capturing an image of the ray for inspection reflected by a reference process surface perpendicular to an optical axis of the ray for processing, and the state of the process surface comprises a tilt of the process surface. a light guide portion that guides, to a process surface, a ray for processing and a ray for inspection different in wavelength from the ray for processing; and an inspection portion that inspects a state of the process surface from reflected light of the ray for inspection reflected by the process surface; a nozzle that ejects a processing material toward a molten pool formed on the process surface by the ray for processing, characterized in that said inspection portion includes an image capturing unit that captures a spot image of the ray for inspection and a comparator that compares the spot image of the ray for inspection with a reference spot image, the comparator calculates a tilt angle of the process surface with respect to the reference process surface, based on a distance between a spot center included in the spot image of the ray for inspection and a reference spot center included in the reference spot image, the reference spot image is an image obtained by capturing an image of the ray for inspection reflected by a reference process surface perpendicular to an optical axis of the ray for processing, and the state of the process surface comprises a tilt of the process surface.
Assembly comprising at least a winding and a housing within which the winding is disposed, wherein the winding includes at least one electrical conductor , wherein the winding and/or the electrical conductor thereof is at least partly surrounded by a cellulosic insulation material and wherein the housing is filled with a liquid coolant in the state of operation, such that the winding is within a liquid coolant in the state of operation, wherein - in addition to the cellulosic insulation material present that surrounds the winding and/or the electrical conductor thereof for insulation purposes - at least one composition containing chemical compounds for reducing the ageing of cellulosic insulation material is present in the housing and/or in a cooling circuit for the coolant , characterized in that the composition comprises an additional cellulosic insulation material provided with chemical compounds for reducing the ageing of cellulosic insulation material.
A method programmed in a non-transitory memory of a device comprising: a. acquiring content, wherein the content includes one or more images; b. determining if the content includes one or more big blur images, the one or more big blur images being images far from an in-focus position, such that the big blur images are at least 10 depth of field away; and when the content includes one or more big blur images: c. removing the one or more big blur images; and d. determining in-focus images of any remaining images of the content; and wherein determining if the content includes the big blur images includes utilizing chromatic aberration features including computing a wavelet energy ratio for a first channel of the one or more images, computing a wavelet energy ratio for a second channel of the one or more images, computing a difference of wavelet energy ratios between the wavelet energy ratio for the first channel and the wavelet energy ratio for the second channel, and comparing the difference with a threshold. a. acquiring content, wherein the content includes one or more images; b. determining if the content includes one or more big blur images, the one or more big blur images being images far from an in-focus position, such that the big blur images are at least 10 depth of field away; c. removing the one or more big blur images; and d. determining in-focus images of any remaining images of the content; and wherein determining if the content includes the big blur images includes utilizing chromatic aberration features including computing a wavelet energy ratio for a first channel of the one or more images, computing a wavelet energy ratio for a second channel of the one or more images, computing a difference of wavelet energy ratios between the wavelet energy ratio for the first channel and the wavelet energy ratio for the second channel, and comparing the difference with a threshold.
A method for amplifying a genomic DNA sample with locus specific amplification and whole genome amplification before hybridization of amplicons with an array, the method comprising: obtaining a genomic DNA sample; splitting the genomic DNA sample into at least a first portion and a second portion of genomic DNA; performing locus-specific amplification on the first portion of genomic DNA to generate a first pool of amplicons for target sequences; performing whole genome amplification on at least the second portion of genomic DNA to generate a second pool of amplicons; fragmenting the first and second pool of amplicons to generate fragmented amplicons; and hybridizing the fragmented amplicons to an array. obtaining a genomic DNA sample; splitting the genomic DNA sample into at least a first portion and a second portion of genomic DNA; performing locus-specific amplification on the first portion of genomic DNA to generate a first pool of amplicons for target sequences; performing whole genome amplification on at least the second portion of genomic DNA to generate a second pool of amplicons; fragmenting the first and second pool of amplicons to generate fragmented amplicons; and hybridizing the fragmented amplicons to an array.
A shedding method for a loom that has a plurality of heddle frames and a plurality of heddle frame driving systems (13, 14, 16-18, 21, 22, 20D, 204) including a plurality of shedding motors , wherein each of the heddle frame driving systems (13, 14, 16-18, 21, 22, 20D, 204) is configured such that rotation in a single direction of one of the shedding motors drives the corresponding one of the heddle frames independently via corresponding one of a plurality of crank mechanisms (21, 22, 204; 40, 41), the shedding method for a loom being characterized by comprising: when holding some of the heddle frames in a shedding state while the other heddle frames are driven to reciprocate in accordance with a weaving pattern, holding said some of the heddle frames after said some of the heddle frames have moved in a shed closing direction by a preset amount from a top dead center or a bottom dead center; and after said some of the heddle frames are held in the shedding state, restarting a shedding motion by reversing a rotation direction of the shedding motor from the rotation direction before said some of the heddle frames were held. wherein each of the heddle frame driving systems (13, 14, 16-18, 21, 22, 20D, 204) is configured such that rotation in a single direction of one of the shedding motors drives the corresponding one of the heddle frames independently via corresponding one of a plurality of crank mechanisms (21, 22, 204; 40, 41), the shedding method for a loom being characterized by comprising: when holding some of the heddle frames in a shedding state while the other heddle frames are driven to reciprocate in accordance with a weaving pattern, holding said some of the heddle frames after said some of the heddle frames have moved in a shed closing direction by a preset amount from a top dead center or a bottom dead center; and after said some of the heddle frames are held in the shedding state, restarting a shedding motion by reversing a rotation direction of the shedding motor from the rotation direction before said some of the heddle frames were held. when holding some of the heddle frames in a shedding state while the other heddle frames are driven to reciprocate in accordance with a weaving pattern, holding said some of the heddle frames after said some of the heddle frames have moved in a shed closing direction by a preset amount from a top dead center or a bottom dead center; and after said some of the heddle frames are held in the shedding state, restarting a shedding motion by reversing a rotation direction of the shedding motor from the rotation direction before said some of the heddle frames were held.
A Transmission Control Protocol, TCP, packet processing method, comprising: obtaining (S301), by a TCP offload engine, TOE, component, a first storage address, wherein the first storage address is an address of a first storage block in a memory, the first storage block stores a target TCP packet, and the target TCP packet comprises a packet header and a TCP payload; obtaining (S302), by the TOE component, the packet header from the first storage block based on the first storage address; and performing (S303), by the TOE component, TCP-related protocol processing based on the packet header, wherein the TCP payload is not read out of the first storage block by the TOE component when the TOE component performs TCP-related protocol processing based on the packet header, and the TOE component sends a second storage address to a central processing unit, CPU, wherein the second storage address indicates a TCP payload that can be processed by the CPU; and the CPU receives the second storage address, and sends the second storage address to an application program. obtaining (S301), by a TCP offload engine, TOE, component, a first storage address, wherein the first storage address is an address of a first storage block in a memory, the first storage block stores a target TCP packet, and the target TCP packet comprises a packet header and a TCP payload; obtaining (S302), by the TOE component, the packet header from the first storage block based on the first storage address; and performing (S303), by the TOE component, TCP-related protocol processing based on the packet header, wherein the TCP payload is not read out of the first storage block by the TOE component when the TOE component performs TCP-related protocol processing based on the packet header, and the TOE component sends a second storage address to a central processing unit, CPU, wherein the second storage address indicates a TCP payload that can be processed by the CPU; and the CPU receives the second storage address, and sends the second storage address to an application program.
Material comprising: (a) a glass foam support, (b) metal nanoparticles in which at least 90% are constituted by a metal at oxidation state 0 directly adsorbed on said support, - said glass foam having an open porosity of at least 75% with respect to the total porosity, advantageously at least 80%, preferably at least 85%, - said material being devoid of a washcoat between the glass foam and the metal nanoparticles, - said glass foam being amorphous or partially crystallized, the crystallinity being less than 20%, determined by X-ray diffraction, - said glass foam having a density form 0.15 to 0.8 g/cm 3 , - said open porosity of the glass foam being determined according to the equation: %P open = 1 − ρ app ρ pyc × 100 , in which: ρ app is the apparent density determined by the ratio between the mass of the foam and its total volume including the pores ρ pyc is the density measured by helium pycnometry, in said material the mean diameter of the pores of the glass foam d p is from 0.01 mm to 1 mm, advantageously 0.2 to 0.8 mm, in particular 0.4 to 0.7 mm, determined by image processing of the surface of a glass foam, in particular carried out with the ImageJ software. (a) a glass foam support, (b) metal nanoparticles in which at least 90% are constituted by a metal at oxidation state 0 directly adsorbed on said support, - said glass foam having an open porosity of at least 75% with respect to the total porosity, advantageously at least 80%, preferably at least 85%, - said material being devoid of a washcoat between the glass foam and the metal nanoparticles, - said glass foam being amorphous or partially crystallized, the crystallinity being less than 20%, determined by X-ray diffraction, - said glass foam having a density form 0.15 to 0.8 g/cm 3 , - said open porosity of the glass foam being determined according to the equation: %P open = 1 − ρ app ρ pyc × 100 , in which: ρ app is the apparent density determined by the ratio between the mass of the foam and its total volume including the pores ρ pyc is the density measured by helium pycnometry, - said glass foam having an open porosity of at least 75% with respect to the total porosity, advantageously at least 80%, preferably at least 85%, - said material being devoid of a washcoat between the glass foam and the metal nanoparticles, - said glass foam being amorphous or partially crystallized, the crystallinity being less than 20%, determined by X-ray diffraction, - said glass foam having a density form 0.15 to 0.8 g/cm 3 , - said open porosity of the glass foam being determined according to the equation: %P open = 1 − ρ app ρ pyc × 100 , in which: ρ app is the apparent density determined by the ratio between the mass of the foam and its total volume including the pores ρ pyc is the density measured by helium pycnometry, ρ app is the apparent density determined by the ratio between the mass of the foam and its total volume including the pores ρ pyc is the density measured by helium pycnometry,
A method of synthesizing a molecular sieve of *MRE framework type, the method comprising: (a) providing a reaction mixture comprising: a source of silicon oxide; optionally, a source of an oxide of a trivalent element (X); optionally, a source of a Group 1 or Group 2 metal (M); a source of hydroxide ions; a structure directing agent (Q) comprising one or more of trimethylammonium cations, (2-hydroxypropyl)trimethylammonium cations, and benzyltrimethylammonium cations; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /X 2 O 3 150 to 500 M/SiO 2 0 to 0.20 Q/SiO 2 0.15 to 0.40 OH/SiO 2 0.15 to 0.50 H 2 O/SiO 2 15 to 40. (a) providing a reaction mixture comprising: a source of silicon oxide; optionally, a source of an oxide of a trivalent element (X); optionally, a source of a Group 1 or Group 2 metal (M); a source of hydroxide ions; a structure directing agent (Q) comprising one or more of trimethylammonium cations, (2-hydroxypropyl)trimethylammonium cations, and benzyltrimethylammonium cations; and water; and a source of silicon oxide; optionally, a source of an oxide of a trivalent element (X); optionally, a source of a Group 1 or Group 2 metal (M); a source of hydroxide ions; a structure directing agent (Q) comprising one or more of trimethylammonium cations, (2-hydroxypropyl)trimethylammonium cations, and benzyltrimethylammonium cations; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /X 2 O 3 150 to 500 M/SiO 2 0 to 0.20 Q/SiO 2 0.15 to 0.40 OH/SiO 2 0.15 to 0.50 H 2 O/SiO 2 15 to 40.
An apparatus for wireless communication, said apparatus being at a User Equipment, UE, and comprising means configured to: receive fast master cell group, MCG, link recovery configuration information; receive conditional handover, CHO, configuration information indicating a set of CHO configurations and a set of execution conditions for a set of cells, wherein each cell is associated with a CHO configuration and an execution condition; evaluate the set of execution conditions based on the CHO configuration information; in response to a radio link failure in a MCG, initiate a fast MCG link recovery procedure and start a timer associated with the fast MCG link recovery procedure; and stop evaluating the set of execution conditions after initiating the fast MCG link recovery procedure. receive fast master cell group, MCG, link recovery configuration information; receive conditional handover, CHO, configuration information indicating a set of CHO configurations and a set of execution conditions for a set of cells, wherein each cell is associated with a CHO configuration and an execution condition; evaluate the set of execution conditions based on the CHO configuration information; in response to a radio link failure in a MCG, initiate a fast MCG link recovery procedure and start a timer associated with the fast MCG link recovery procedure; and stop evaluating the set of execution conditions after initiating the fast MCG link recovery procedure.
Security element for producing valuable documents, such as banknotes, cheques or the like, wherein, in a dielectric that is transparent to THz radiation in a first plane , a first layer is arranged which is formed from a layer material that is opaque to THz radiation and forms a periodic or quasi-periodic first line grating structure , which is not perceivable with the naked eye, made of parallel longitudinal slits that produce gaps in the first layer, wherein a width of the longitudinal slits is no greater than 1/5 of the period (p), preferably no greater than 1/10 of the period (p), characterized in that , in the dielectric in a second plane that is parallel to the first plane , a second layer is arranged which is likewise formed from a layer material that is opaque to THz radiation and forms a second line grating structure that is inverse to the first line grating structure .
A waveguide assembly for use in a radar, the waveguide assembly being fabricated from a di-electric material and comprising: i. a waveguide ; and ii. a beamsplitter which comprises a right circular cylinder having a quarter wave air gap substantially along a centreline of the right circular cylinder. i. a waveguide ; and ii. a beamsplitter which comprises a right circular cylinder having a quarter wave air gap substantially along a centreline of the right circular cylinder.
A flow stopping tool for pipelines, comprising: - an inflatable balloon-like element that is adapted for blocking a flow (F) in a pipeline ; - a stopping tower arranged for introducing the balloon-like element into the pipeline; a pressure rod that is movably arranged within the stopping tower; - a hose for inflating the balloon-like element with a gas or a fluid, wherein a first end of the hose is in connection to the pressure rod, characterized in that a second end of the hose is in connection with a shock absorber , wherein the shock absorber is in connection with the balloon-like element and is provided in between the second end of the hose and the balloon-like element. - an inflatable balloon-like element that is adapted for blocking a flow (F) in a pipeline ; - a stopping tower arranged for introducing the balloon-like element into the pipeline; a pressure rod that is movably arranged within the stopping tower; - a hose for inflating the balloon-like element with a gas or a fluid, wherein a first end of the hose is in connection to the pressure rod, characterized in that a second end of the hose is in connection with a shock absorber , wherein the shock absorber is in connection with the balloon-like element and is provided in between the second end of the hose and the balloon-like element.
A heart valve prosthesis which is designed for a transcatheter implantation, with a collapsible valve frame on which several valve leaflets are fastened, as well as with a collapsible fastening ring which connects axially onto the valve frame and which is designed for the bearing contact and for the clamped fastening in a blood vessel, characterised in that the fastening ring is connected to the valve frame in a forcedecoupled manner such that on fastening in a blood vessel, a deformation of the fastening ring is transmitted onto the valve frame at least in an only limited manner, and the valve frame defines several commissures with connection arches which are situated between these and to which the valve leaflets are fastened, wherein in the unfolded state of the heart valve prostheses the apex regions of the connection arches project radially with respect to the fastening ring , so that in the middle region of each arch which defines the apex region, the arch forms a radially outwardly directed bulge with respect to the fastening ring and to a free end of the valve frame , said bulge being able to extend into the Sinus aortae in the implanted state.