mhurhangee/patent-ind-claim-en huggingface dataset:
A specimen transport apparatus comprising: a specimen holder that holds a specimen container and that is provided with a transport magnetic body and a positioning magnetic body ; and a plurality of electromagnets (310~330) that are arranged under a transport surface to transport the specimen holder by attracting or repelling the transport magnetic body , characterized in that a specimen identifier is attached to the specimen container , and the specimen holder has a horizontal cross section that is circular, and the transport magnetic body has a higher magnetic flux density than the positioning magnetic body and a magnetic flux center of the transport magnetic body is eccentric with respect to a central axis of the specimen container held by the specimen holder whereas a magnetic flux center of the positioning magnetic body is located at a position of the central axis of the specimen container held by the specimen holder , wherein the specimen transport apparatus is configured to rotate the specimen holder while attracting the positioning magnetic body with a first electromagnet located directly under the positioning magnetic body , of the plurality of the electromagnets (310-330), by sequentially attracting or repelling the transport magnetic body with second electromagnets (311~318) located around the first electromagnet . a specimen holder that holds a specimen container and that is provided with a transport magnetic body and a positioning magnetic body ; and a plurality of electromagnets (310~330) that are arranged under a transport surface to transport the specimen holder by attracting or repelling the transport magnetic body , characterized in that a specimen identifier is attached to the specimen container , and the specimen holder has a horizontal cross section that is circular, and the transport magnetic body has a higher magnetic flux density than the positioning magnetic body and a magnetic flux center of the transport magnetic body is eccentric with respect to a central axis of the specimen container held by the specimen holder whereas a magnetic flux center of the positioning magnetic body is located at a position of the central axis of the specimen container held by the specimen holder , wherein the specimen transport apparatus is configured to rotate the specimen holder while attracting the positioning magnetic body with a first electromagnet located directly under the positioning magnetic body , of the plurality of the electromagnets (310-330), by sequentially attracting or repelling the transport magnetic body with second electromagnets (311~318) located around the first electromagnet .
Handheld electric rivet setting device, in particular with removable battery, for setting riveting means with a tear-off rivet pin, comprising a device head with a mechanism for gripping the rivet pin, a pulling device for pulling on the rivet pin and a drive for driving the pulling device , an in particular offset gear mechanism preferably being provided between drive and pulling device , a first sensor for detecting a travel covered being arranged in the device in such a way that, by means of the first sensor , the travel covered by the pulling device can be detected, and in that a second sensor for detecting an applied force being arranged in the device in such a way that, by means of the second sensor , the pulling force applied by the pulling device can be detected, the handheld rivet setting device additionally having a device memory and a comparison means and being configured to provide the data detected by means of the sensors for a first force-travel curve and a second force-travel curve in the device memory , and to compare the two curves with each other by using the comparison means and to derive an action from the comparison result, the device head comprising clamping jaws, which can be activated by means of the pulling device , for gripping the rivet pin, characterized in that the action provided is to determine slip between the clamping jaws and the rivet pin during a pulling operation, wherein the rivet setting device is provided for rivet slip detection, for automatic detection of a saw-tooth curve within a riveting curve which indicates slippage of the rivet pin between the clamping jaws, wherein slippage beyond a permissible, in particular a maximum, vertical range of scatter of the riveting curve is detected and leads to a maintenance indication as the action, and wherein a limiting curve for the travel or the force can be predefined, and wherein each individual riveting curve point can be provided with individual deviation tolerances.
A method for video coding, the method comprising: obtaining (S11) a coding tree unit, CTU, from video data; partitioning (S12) the CTU by a quadtree structure; partitioning (S15) leaf nodes of the partitioned CTU by at least one of a binary tree structure and a ternary tree structure; signaling (S16), in a sequence parameter set, SPS, a difference, in base 2 logarithm, between a size of the CTU and a size of a block resulting from at least one of partitioning the CTU by the quadtree structure and partitioning leaf nodes of the partitioned CTU by the at least one of the binary tree structure and the ternary tree structure; and overriding the difference, in base 2 logarithm, between the size of the CTU and the size of the block by a value, in base 2 logarithm, present in a slice header of slices referring to the SPS. obtaining (S11) a coding tree unit, CTU, from video data; partitioning (S12) the CTU by a quadtree structure; partitioning (S15) leaf nodes of the partitioned CTU by at least one of a binary tree structure and a ternary tree structure; signaling (S16), in a sequence parameter set, SPS, a difference, in base 2 logarithm, between a size of the CTU and a size of a block resulting from at least one of partitioning the CTU by the quadtree structure and partitioning leaf nodes of the partitioned CTU by the at least one of the binary tree structure and the ternary tree structure; and overriding the difference, in base 2 logarithm, between the size of the CTU and the size of the block by a value, in base 2 logarithm, present in a slice header of slices referring to the SPS.
A clamp foot apparatus for a clamp foot for clamping a plate for a cutting tool of a cutting machine to cut the plate therein with coolant producing waste, comprising an outer ring shaped member and an inner ring shaped member , the outer ring shaped member beingfluidly and supportably connected to the inner ring shaped member , the inner ring shaped member having a planar shaped body which is circular in shape and including a central aperture for the cutting to be located and having an outer curved edge surface and an inner curved edge surface , the outer ring shaped member having a lower planar surface , whereby the outer curved edge surface of the inner ring shaped member includes at least one abutting surface to sealingly abut an inner curved edge of the outer ring shaped member , the outer curved edge surface of the inner ring shaped member comprising an outer curved peripheral surface including a groove for receiving and directing air from the outer ring shaped member to and through at least one hole in the inner ring shaped member , the at least one hole extending from the groove of the outer curved edge surface to the inner curved edge surface and configured to direct a fluid to the central aperture to form a fluid jet to clear or move coolant and/or waste from a surface of the plate at the cutting location with respect to the clamp foot .
Actuator comprising: - a base section ; - a permanent magnet arranged in the base section ; - a soft magnet arranged in the base section , the soft magnet being configured to switch a polarity between a first polarity and a second polarity when being subjected to a magnetic field and configured to maintain the polarity when the magnetic field is removed; - a coil located around the soft magnet ; - a power controller configured to apply a current pulse to the coil to generate the magnetic field for changing the polarization of the soft magnet ; and - a movable member comprising at least one magnetic target section , the movable member being arranged to move to a first position relative to the base section , when the soft magnet adopts the first polarity, and arranged to move to a second position relative to the base section due to a magnetic field generated by the permanent magnet and the soft magnet in combination and acting on the magnetic target section , when the soft magnet adopts the second polarity; characterized in that the soft magnet is hollow and the movable member is arranged to move within the soft magnet ; and wherein the actuator further comprises a resetting element configured to move the movable member to the first position when the soft magnet adopts the first polarity, or wherein the movable member is arranged to be forced towards the first position by means of gravity. - a base section ; - a permanent magnet arranged in the base section ; - a soft magnet arranged in the base section , the soft magnet being configured to switch a polarity between a first polarity and a second polarity when being subjected to a magnetic field and configured to maintain the polarity when the magnetic field is removed; - a coil located around the soft magnet ; - a power controller configured to apply a current pulse to the coil to generate the magnetic field for changing the polarization of the soft magnet ; and - a movable member comprising at least one magnetic target section , the movable member being arranged to move to a first position relative to the base section , when the soft magnet adopts the first polarity, and arranged to move to a second position relative to the base section due to a magnetic field generated by the permanent magnet and the soft magnet in combination and acting on the magnetic target section , when the soft magnet adopts the second polarity;
A golf club head comprising: a face ; a sole continuing from the face and including a guide groove having a plurality of positioning grooves ; and a weight member including a plurality of protrusions , being positionally adjustable along the guide groove of the sole , and being positioned in the guide groove with the plurality of protrusions engaging with the plurality of positioning grooves , characterised by the plurality of positioning grooves each including a pair of sidewalls (5b1) and a bottom (5b2) connecting the sidewalls (5b1) of the pair to each other, the sidewalls (5b1) of the pair each being formed in an arc shape bulging outward from the bottom (5b2), the sidewalls (5b1) of the pair being formed to be separated further away from each other as a distance from the bottom (5b2) increases, the plurality of protrusions each including a pair of side surfaces (6a1) and a ridge (6a2) connecting the side surfaces (6a1) of the pair to each other, the side surfaces of the pair each being formed in an arc shape receding inward from the ridge (6a2), the side surfaces of the pair being formed to be separated further away from each other as a distance from the ridge (6a2) increases. a face ; a sole continuing from the face and including a guide groove having a plurality of positioning grooves ; and a weight member including a plurality of protrusions , being positionally adjustable along the guide groove of the sole , and being positioned in the guide groove with the plurality of protrusions engaging with the plurality of positioning grooves , characterised by the plurality of positioning grooves each including a pair of sidewalls (5b1) and a bottom (5b2) connecting the sidewalls (5b1) of the pair to each other, the sidewalls (5b1) of the pair each being formed in an arc shape bulging outward from the bottom (5b2), the sidewalls (5b1) of the pair being formed to be separated further away from each other as a distance from the bottom (5b2) increases, the plurality of protrusions each including a pair of side surfaces (6a1) and a ridge (6a2) connecting the side surfaces (6a1) of the pair to each other, the side surfaces of the pair each being formed in an arc shape receding inward from the ridge (6a2), the side surfaces of the pair being formed to be separated further away from each other as a distance from the ridge (6a2) increases.
A process for the preparation of a compound of formula I: wherein R 1 is -CO 2 R 4 , -CO(NR 5 R 6 ), carboxylate or cyano; R 2 is hydrogen, halogen or -SR 3 ; R 3 is C 1 -C 4 alkyl or C 3 -C 6 cycloalkyl-C 1 -C 4 alkyl; R 4 is hydrogen, -Si(CH 3 ) 3 or C 1 -C 6 alkyl; and R 5 and R 6 are, independently from each other, hydrogen or C 1 -C 4 alkyl, or an agrochemically acceptable salt of a compound of formula I; which process comprises: reacting a compound of formula (III) wherein R 1 and R 2 are defined as under formula I above and Hal is halogen with a compound of formula (IV), in the presence of a suitable base, in an appropriate solvent (or diluent); to produce a compound of formula (I) or an agrochemically acceptable salt thereof. reacting a compound of formula (III) wherein R 1 and R 2 are defined as under formula I above and Hal is halogen with a compound of formula (IV), in the presence of a suitable base, in an appropriate solvent (or diluent); to produce a compound of formula (I) or an agrochemically acceptable salt thereof.
A fluid filter for a motor vehicle, comprising a filter cartridge secured to a filter housing of the fluid filter , wherein the filter cartridge has an accommodation space , in which a filter material is disposed, and wherein the filter cartridge is connectible to the filter housing by rotation about a longitudinal axis of the filter cartridge , a retaining element comprising a land projecting from a wall of the retaining element being disposed on an end plate of the filter cartridge , characterised in that the wall of the retaining element , when viewed radially to the longitudinal axis , is helically formed, and wherein, in a mounting position of the filter cartridge , the land of the retaining element engages behind a retaining land of an abutment disposed on the filter housing and which is helical when viewed radially to the longitudinal axis , and the retaining land , when viewed in the direction of the longitudinal axis , has a gradient along a direction of rotation with respect to a contact region of the filter housing , which a sealing element of the filter cartridge contacts.
A method for forming a blister pack, comprising: providing a lidding sheet comprising a first layer , the first layer comprising at least one hologram ; placing the lidding sheet over a blister layer , the blister layer defining at least one opening , the at least one hologram disposed over the at least one opening ; applying a plate defining a recess therein onto the lidding sheet , the recess disposed above the at least one hologram ; and sealing the lidding sheet and the blister layer together under heating, wherein the blister layer and the lidding sheet define at least one cavity for holding at least one pharmaceutical dosage form therein. providing a lidding sheet comprising a first layer , the first layer comprising at least one hologram ; placing the lidding sheet over a blister layer , the blister layer defining at least one opening , the at least one hologram disposed over the at least one opening ; applying a plate defining a recess therein onto the lidding sheet , the recess disposed above the at least one hologram ; and sealing the lidding sheet and the blister layer together under heating, wherein the blister layer and the lidding sheet define at least one cavity for holding at least one pharmaceutical dosage form therein.
A valve assembly, comprising: a valve housing body extending along a longitudinal axis X between a first end and a second end and defining a cylindrical passage therethrough from the first to the second end; a fluid inlet at the first end for receiving a pressurized fluid; and a fluid outlet provided in between the first and second end of the housing body; and a piston provided in said cylindrical passage, said piston being axially movable between a first position wherein said fluid outlet is blocked by said piston such that the piston blocks the flow of fluid from the inlet to the outlet, and a second position wherein said outlet is not blocked by said piston and a fluid flow path is formed from the inlet to the outlet; characterized in that said valve assembly further comprises helical guide grooves formed in the cylindrical passage and the piston comprises radially extending guide pins configured to engage in the helical guide grooves such that as the piston moves axially from the first position, the guide pins travel along the helical guide grooves to cause rotation of the piston relative to the housing body, and the valve assembly further comprising a circumferential groove at an end of the helical guide grooves such that the guide pins travel from the helical guide grooves into the circumferential groove, wherein when piston is in the second position the guide pins rotate around the circumferential groove. a valve housing body extending along a longitudinal axis X between a first end and a second end and defining a cylindrical passage therethrough from the first to the second end; a fluid inlet at the first end for receiving a pressurized fluid; and a fluid outlet provided in between the first and second end of the housing body; and a piston provided in said cylindrical passage, said piston being axially movable between a first position wherein said fluid outlet is blocked by said piston such that the piston blocks the flow of fluid from the inlet to the outlet, and a second position wherein said outlet is not blocked by said piston and a fluid flow path is formed from the inlet to the outlet; characterized in that said valve assembly further comprises helical guide grooves formed in the cylindrical passage and the piston comprises radially extending guide pins configured to engage in the helical guide grooves such that as the piston moves axially from the first position, the guide pins travel along the helical guide grooves to cause rotation of the piston relative to the housing body, and the valve assembly further comprising a circumferential groove at an end of the helical guide grooves such that the guide pins travel from the helical guide grooves into the circumferential groove, wherein when piston is in the second position the guide pins rotate around the circumferential groove.
A method for forming a three-dimensional object, comprising: a) providing a powder bed comprising powder material; b) applying a first binding substance to a first area of a first layer of powder material of said powder bed ; c) subsequent to applying said first binding substance to said first area, using a first perimeter generator to generate one or more perimeters in said first area of said first layer, wherein said first perimeter generator generates the one or more perimeters mechanically, and wherein said one or more perimeters of said first layer is in accordance to a model design of said three-dimensional object in computer memory ; d) applying a second binding substance to a second area of a second layer of powder material of said powder bed , which second layer is adjacent to said first layer; and e) subsequent to applying said second binding substance to said second area, using a second perimeter generator to generate one or more perimeters in said second area of said second layer of powder material, wherein said second perimeter generator generates the one or more perimeters mechanically or through the application of heat, and wherein said one or more perimeters of said second layer is in accordance to said model design of said three-dimensional object, thereby generating at least a portion of said three-dimensional object. a) providing a powder bed comprising powder material; b) applying a first binding substance to a first area of a first layer of powder material of said powder bed ; c) subsequent to applying said first binding substance to said first area, using a first perimeter generator to generate one or more perimeters in said first area of said first layer, wherein said first perimeter generator generates the one or more perimeters mechanically, and wherein said one or more perimeters of said first layer is in accordance to a model design of said three-dimensional object in computer memory ; d) applying a second binding substance to a second area of a second layer of powder material of said powder bed , which second layer is adjacent to said first layer; and e) subsequent to applying said second binding substance to said second area, using a second perimeter generator to generate one or more perimeters in said second area of said second layer of powder material, wherein said second perimeter generator generates the one or more perimeters mechanically or through the application of heat, and wherein said one or more perimeters of said second layer is in accordance to said model design of said three-dimensional object, thereby generating at least a portion of said three-dimensional object.
A method of identifying an antigen-specific T cell receptor (TCR) sequence as a clone for therapeutic use, comprising: receiving one or more samples comprising T cells; dividing the one or more samples into a first subset and a second subset; performing immunosequencing of rearranged nucleic acid molecules extracted from the first subset of cells to obtain a first plurality of unique sequence reads; determining based on the first plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the first subset; enriching the second subset of cells with multimer molecules comprising an HLA-presented antigen to identify a population of antigen-specific T cells that bind the multimer; performing immunosequencing of rearranged nucleic acid molecules extracted from said sorted population of antigen-specific T cells to obtain a second plurality of unique sequence reads; determining based on the second plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the second subset; determining a relative change in abundance of each antigen-specific TCR sequence based on the relative abundances of the antigen-specific TCR sequence in the first subset and the second subset; and identifying an antigen-specific TCR sequence based on its relative change in abundance as a clone for therapeutic use for said HLA-presented antigen. receiving one or more samples comprising T cells; dividing the one or more samples into a first subset and a second subset; performing immunosequencing of rearranged nucleic acid molecules extracted from the first subset of cells to obtain a first plurality of unique sequence reads; determining based on the first plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the first subset; enriching the second subset of cells with multimer molecules comprising an HLA-presented antigen to identify a population of antigen-specific T cells that bind the multimer; performing immunosequencing of rearranged nucleic acid molecules extracted from said sorted population of antigen-specific T cells to obtain a second plurality of unique sequence reads; determining based on the second plurality of unique sequence reads a relative abundance of each unique TCR sequence out of a total number of T cells in the second subset; determining a relative change in abundance of each antigen-specific TCR sequence based on the relative abundances of the antigen-specific TCR sequence in the first subset and the second subset; and identifying an antigen-specific TCR sequence based on its relative change in abundance as a clone for therapeutic use for said HLA-presented antigen.