mhurhangee/patent-ind-claim-en huggingface dataset:
A natural frequency measuring device comprising: a striking device for measuring a natural frequency of a system comprising a force detector used in a material testing machine, said striking device comprising: a spindle ; an arm being capable of swinging around the spindle ; a weight , arranged in an end part of the arm on a side opposite to the spindle ; and a weight fixing mechanism , configured to fix the weight at a standby height position and to cause the weight to fall down in an arc shape from the standby height position along with a swing of the arm by releasing the fixation at the standby height position, wherein the striking device is operable to strike the system comprising the force detector with the weight in the vertical direction, parallel to a load direction of a test force during a material test that is conducted by the material testing machine; and, wherein the natural frequency measuring device comprises a calculation part , configured to calculate the natural frequency of the system comprising the force detector based on an output signal of the force detector when the system comprising the force detector is struck by the weight . a spindle ; an arm being capable of swinging around the spindle ; a weight , arranged in an end part of the arm on a side opposite to the spindle ; and a weight fixing mechanism , configured to fix the weight at a standby height position and to cause the weight to fall down in an arc shape from the standby height position along with a swing of the arm by releasing the fixation at the standby height position, wherein the striking device is operable to strike the system comprising the force detector with the weight in the vertical direction, parallel to a load direction of a test force during a material test that is conducted by the material testing machine; and, wherein the natural frequency measuring device comprises a calculation part , configured to calculate the natural frequency of the system comprising the force detector based on an output signal of the force detector when the system comprising the force detector is struck by the weight .
A decoding apparatus for image decoding, the decoding apparatus comprising: a memory; and at least one processor connected to the memory, the at least one processor configured to: determine a current block by splitting an image; identify whether a palette mode is applied for the current block, based on a palette mode flag obtained from a bitstream; determine whether a tree type of the current block is a dual tree chroma type and whether the palette mode is applied to the current block; determine whether the palette mode is applied to the current block; and obtain chroma component prediction information of the current block from the bitstream, based on the palette mode being not applied for the current block, characterized in that the determining of whether the palette mode is applied to the current block is performed based on the tree type of the current block being not the dual tree chroma type or the palette mode being not applied to the current block. a memory; and at least one processor connected to the memory, the at least one processor configured to: determine a current block by splitting an image; identify whether a palette mode is applied for the current block, based on a palette mode flag obtained from a bitstream; determine whether a tree type of the current block is a dual tree chroma type and whether the palette mode is applied to the current block; determine whether the palette mode is applied to the current block; and obtain chroma component prediction information of the current block from the bitstream, based on the palette mode being not applied for the current block, characterized in that the determining of whether the palette mode is applied to the current block is performed based on the tree type of the current block being not the dual tree chroma type or the palette mode being not applied to the current block. determine a current block by splitting an image; identify whether a palette mode is applied for the current block, based on a palette mode flag obtained from a bitstream; determine whether a tree type of the current block is a dual tree chroma type and whether the palette mode is applied to the current block; determine whether the palette mode is applied to the current block; and obtain chroma component prediction information of the current block from the bitstream, based on the palette mode being not applied for the current block, characterized in that the determining of whether the palette mode is applied to the current block is performed based on the tree type of the current block being not the dual tree chroma type or the palette mode being not applied to the current block.
A temperature dependent release dosage form, comprising: an active material comprising at least a cannabis ingredient, wherein the cannabis ingredient comprises cannabis oil, cannabis extract and/or raw cannabis; and a polymeric wall encapsulating said active material, said polymeric wall comprises an agar composition and no more than about 10% w/w water, preferably no more than 8% w/w water; wherein the temperature dependent release dosage form is characterized by the wall being configured to prevent passage of said active material therethrough at temperatures lower than about 50°C, preferably lower than about 45°C, and the polymeric wall melting or deforming at temperatures higher than 80°C, preferably higher than 85°C, thus allowing passage therethrough of the active material. an active material comprising at least a cannabis ingredient, wherein the cannabis ingredient comprises cannabis oil, cannabis extract and/or raw cannabis; and a polymeric wall encapsulating said active material, said polymeric wall comprises an agar composition and no more than about 10% w/w water, preferably no more than 8% w/w water; wherein the temperature dependent release dosage form is characterized by the wall being configured to prevent passage of said active material therethrough at temperatures lower than about 50°C, preferably lower than about 45°C, and the polymeric wall melting or deforming at temperatures higher than 80°C, preferably higher than 85°C, thus allowing passage therethrough of the active material.
Combustion chamber arrangement comprising a combustion chamber aligned along a longitudinal axis (L) and radially circumferentially bounded in the axial direction by a combustion chamber wall , and comprising an injector arrangement arranged on the end face of the combustion chamber for introducing reactive fluids into the combustion chamber , comprising a first injector device having a first outlet arrangement having at least a first outlet surface for introducing the first fluid and a second injector device having a second outlet arrangement having at least a second outlet surface for introducing the second fluid , the at least one, in particular annular, second outlet surface being arranged so as to radially circumferentially surround the at least one first outlet surface annularly with a fluid-impermeable separation arranged in between, and having a second porous element adjacent to the combustion chamber on the end face for forming the second outlet surface to the combustion chamber , characterized in that the second outlet surface is surrounded radially adjacently by the combustion chamber wall radially circumferentially bounding the combustion chamber in the axial direction.
A main driver having at least one main implant for the insertion of said at least one main implant connectable to another implant, at a bifurcation between a main conduit (C1) and a secondary conduit (C2) of circulation for a bodily fluid, said main driver having a distal end D and a proximal handling end P having a fixed point , characterized in that : - said driver has a main internal sheath provided at its distal end D with an atraumatic tip with an axial hole communicating with a longitudinal tube formed by said internal sheath , - said driver having a main external sheath , - said at least one main implant being disposed between the main external and internal sheaths, - the main external sheath being provided with a longitudinal groove or slit extending along a part of its length, - the main internal sheath having a lateral hole emerging facing said longitudinal groove or slit , - the main implant having at least one window aligned with the lateral hole (3 a), - and said driver having at least one complementary sheath , a first end of which passes through the lateral hole , the window of the main implant and the longitudinal groove or slit , and a second end of which comes out near the proximal end P, said complementary sheath being intended to be passed through by a guide. - said driver has a main internal sheath provided at its distal end D with an atraumatic tip with an axial hole communicating with a longitudinal tube formed by said internal sheath , - said driver having a main external sheath , - said at least one main implant being disposed between the main external and internal sheaths, - the main external sheath being provided with a longitudinal groove or slit extending along a part of its length, - the main internal sheath having a lateral hole emerging facing said longitudinal groove or slit , - the main implant having at least one window aligned with the lateral hole (3 a), - and said driver having at least one complementary sheath , a first end of which passes through the lateral hole , the window of the main implant and the longitudinal groove or slit , and a second end of which comes out near the proximal end P, said complementary sheath being intended to be passed through by a guide.
A tab structured to be affixed to a can end , the tab comprising: a body including a first end and second end disposed opposite and distal from the first end; a nose portion disposed at or about the first end of the body of the tab ; a lift portion disposed at or about the second end of the body of the tab ; and a rivet receiving portion disposed proximate the nose portion , the rivet receiving portion comprising a rivet hole having a perimeter , the tab being characterised in that said rivet receiving portion further comprises a generally planar portion having a first surface and an oppositely disposed second surface , and an upturned portion extending upwardly from the generally planar portion about the perimeter of the rivet hole , wherein the upturned portion has an arcuate cross section profile extending from said first surface to said second surface and which is smooth, rounded, and devoid of any corners or edges. a body including a first end and second end disposed opposite and distal from the first end; a nose portion disposed at or about the first end of the body of the tab ; a lift portion disposed at or about the second end of the body of the tab ; and a rivet receiving portion disposed proximate the nose portion , the rivet receiving portion comprising a rivet hole having a perimeter , the tab being characterised in that said rivet receiving portion further comprises a generally planar portion having a first surface and an oppositely disposed second surface , and an upturned portion extending upwardly from the generally planar portion about the perimeter of the rivet hole , wherein the upturned portion has an arcuate cross section profile extending from said first surface to said second surface and which is smooth, rounded, and devoid of any corners or edges.
A dielectric composition which includes at least one dielectric organic fluid and nanoparticles, wherein the composition includes at least one fluoroketone and/or at least one fluoroolefin as the dielectric fluid; and wherein at least 50% of the nanoparticles are composed of a material which has a relative dielectric constant ε r between 1 and 200, and wherein at least some of the nanoparticles are composed of a material which is selected from the group comprising titanium dioxide, zinc oxide, iron oxide, zirconium oxide, cerium dioxide and any desired combinations of two or more of the aforementioned compounds.
A method of preparing a platelet product comprising: a) identifying a plurality of donated whole blood units according to one or more parameters selected from the group consisting of hematocrit, hemoglobin, donor gender, whole blood volume, packed cell volume and platelet count; b) selecting a subset of whole blood units from the plurality of donated whole blood units, wherein each unit of the selected subset is within one of at least two specified ranges for at least one of the one or more parameters; c) centrifuging the selected subset of units under the same centrifugation conditions to provide each unit having a separated layer of platelet rich plasma; and d) isolating the separated layer of platelet rich plasma to provide a platelet rich plasma unit. a) identifying a plurality of donated whole blood units according to one or more parameters selected from the group consisting of hematocrit, hemoglobin, donor gender, whole blood volume, packed cell volume and platelet count; b) selecting a subset of whole blood units from the plurality of donated whole blood units, wherein each unit of the selected subset is within one of at least two specified ranges for at least one of the one or more parameters; c) centrifuging the selected subset of units under the same centrifugation conditions to provide each unit having a separated layer of platelet rich plasma; and d) isolating the separated layer of platelet rich plasma to provide a platelet rich plasma unit.
A particle concentration measuring device characterized by comprising: a measurement region formation part which has a wall of substantially ring-form defining an inner opening through which gas flows relatively orthogonally; an airflow velocity detector ; a light curtain forming unit configured to form a planar light curtain (FL) in the opening inner part; a particle detecting unit comprising a camera and being configured to receive with said camera scattered light from particles passing through the light curtain (FL) to detect the particles; and a calculating unit configured to calculate particle concentration based on a total number of the particles detected by the particle detecting unit in a volume of an airflow passing through the light curtain in a unit time, by means of the expression c = n /(r x v x T) wherein c is particle concentration; n is number of particles; r is area of a measurement region which is detected as a detection target region by the particle detecting unit ; v is airflow velocity which is supplied from the airflow velocity detector , but if a measurement region formation part moves, v is movement speed of the measurement region formation part; and T is measurement time. a measurement region formation part which has a wall of substantially ring-form defining an inner opening through which gas flows relatively orthogonally; an airflow velocity detector ; a light curtain forming unit configured to form a planar light curtain (FL) in the opening inner part; a particle detecting unit comprising a camera and being configured to receive with said camera scattered light from particles passing through the light curtain (FL) to detect the particles; and a calculating unit configured to calculate particle concentration based on a total number of the particles detected by the particle detecting unit in a volume of an airflow passing through the light curtain in a unit time, by means of the expression c = n /(r x v x T) wherein c is particle concentration; n is number of particles; r is area of a measurement region which is detected as a detection target region by the particle detecting unit ; v is airflow velocity which is supplied from the airflow velocity detector , but if a measurement region formation part moves, v is movement speed of the measurement region formation part; and T is measurement time.
A method for producing chlorosilanes, comprising: when producing chlorosilanes by a chlorination reaction of metallic silicon, using, as the metallic silicon, metallic silicon having a sodium content of 1 ppm or more and 90 ppm or less in terms of element and an aluminum content of 1000 ppm or more and 4000 ppm or less in terms of element.
A method of generating a plasma plume from an open end of a plasma torch , comprising: ionizing a feed gas using an arc discharge in a first cylindrical cavity in the plasma torch to produce a central thermal plasma emitted at an open end of the first cylindrical cavity ; the method characterised by ionizing a feed gas using a dielectric barrier discharge in a second annular cylindrical cavity arranged around the first cylindrical cavity in the plasma torch to produce at an open end of the second annular cylindrical cavity a non-thermal plasma halo surrounding the central thermal plasma . ionizing a feed gas using an arc discharge in a first cylindrical cavity in the plasma torch to produce a central thermal plasma emitted at an open end of the first cylindrical cavity ; the method characterised by ionizing a feed gas using a dielectric barrier discharge in a second annular cylindrical cavity arranged around the first cylindrical cavity in the plasma torch to produce at an open end of the second annular cylindrical cavity a non-thermal plasma halo surrounding the central thermal plasma .
An apparatus for separating smaller particles from larger particles by means of cyclonic separation, wherein the apparatus comprises: - a feeding pipe having an upper end for receiving material to be separated and defining a first channel for transporting the material to a lower end of the feeding pipe, - a separation chamber having a curved wall , a first opening arranged at an upper end of the separation chamber, a second opening arranged at a lower end of the separation chamber, and the separation chamber surrounds the feeding pipe such that a second channel is formed between the feeding pipe and the curved wall , - an air inlet unit arranged for supplying air to the second opening of the separation chamber, and - an outlet unit arranged for receiving air and separated material from the first opening of the separation chamber and to discharge the air and separated material, characterized in that the curved wall is conically shaped and tapers from the second opening to the first opening , and the feeding pipe and the separation chamber are concentrically arranged. - a feeding pipe having an upper end for receiving material to be separated and defining a first channel for transporting the material to a lower end of the feeding pipe, - a separation chamber having a curved wall , a first opening arranged at an upper end of the separation chamber, a second opening arranged at a lower end of the separation chamber, and the separation chamber surrounds the feeding pipe such that a second channel is formed between the feeding pipe and the curved wall , - an air inlet unit arranged for supplying air to the second opening of the separation chamber, and - an outlet unit arranged for receiving air and separated material from the first opening of the separation chamber and to discharge the air and separated material, characterized in that the curved wall is conically shaped and tapers from the second opening to the first opening , and the feeding pipe and the separation chamber are concentrically arranged.
A polydiorganosiloxane vinylic crosslinker, comprising: a polydiorganosiloxane polymer chain comprising (a) dimethylsiloxane units and (b) siloxane units having one methyl substituent and one monovalent C 4 -C 40 organic radical substituent having two to six hydroxyl groups, wherein the molar ratio of the hydrophilized siloxane units to the dimethylsiloxane units is from 0.035 to 0.15; and two terminal (meth)acryloyl groups, wherein the polydiorganosiloxane vinylic crosslinker has a number average molecular weight of from 3000 Daltons to 80,000 Daltons. a polydiorganosiloxane polymer chain comprising (a) dimethylsiloxane units and (b) siloxane units having one methyl substituent and one monovalent C 4 -C 40 organic radical substituent having two to six hydroxyl groups, wherein the molar ratio of the hydrophilized siloxane units to the dimethylsiloxane units is from 0.035 to 0.15; and (a) dimethylsiloxane units and (b) siloxane units having one methyl substituent and one monovalent C 4 -C 40 organic radical substituent having two to six hydroxyl groups, wherein the molar ratio of the hydrophilized siloxane units to the dimethylsiloxane units is from 0.035 to 0.15; and two terminal (meth)acryloyl groups,
A bag-in-box packaging comprising: an outer box ; a collapsible inner bag disposed within an interior of said outer box; a dispensing tap coupled to said inner bag ; wherein the outer box comprises a side wall , a tap access feature formed in said side wall, and a removable top wall , wherein said top wall comprises overlapping first and second top flaps , wherein said first top flap is hingedly connected to a front side of said side wall along a first tear line , wherein said second top flap is hingedly connected to a rear side of said side wall along a second tear line , wherein said rear side of said side wall is disposed opposite said front side, wherein said top wall is separable from said side wall along said first and second tear lines. an outer box ; a collapsible inner bag disposed within an interior of said outer box; a dispensing tap coupled to said inner bag ; wherein the outer box comprises a side wall , a tap access feature formed in said side wall, and a removable top wall , wherein said top wall comprises overlapping first and second top flaps , wherein said first top flap is hingedly connected to a front side of said side wall along a first tear line , wherein said second top flap is hingedly connected to a rear side of said side wall along a second tear line , wherein said rear side of said side wall is disposed opposite said front side, wherein said top wall is separable from said side wall along said first and second tear lines.