mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for applying negative pressure to a wound, the apparatus comprising: a wound dressing configured to be placed over a wound of a patient; a negative pressure source disposed on or within the wound dressing, the negative pressure source configured to provide negative pressure to the wound dressing via a fluid flow path; a user interface configured to receive an activation input; a first sensor integrated with the wound dressing, the first sensor configured to detect whether the wound dressing is positioned over the wound; and control circuitry electrically coupled to the user interface and the first sensor, the control circuitry configured to: cause supply of negative pressure with the negative pressure source in response to receipt of the activation input by the user interface and a determination that the first sensor detects that the wound dressing is positioned over the wound, and prevent supply of negative pressure with the negative pressure source in response to a determination that the first sensor does not detect that the wound dressing is positioned over the wound. a wound dressing configured to be placed over a wound of a patient; a negative pressure source disposed on or within the wound dressing, the negative pressure source configured to provide negative pressure to the wound dressing via a fluid flow path; a user interface configured to receive an activation input; a first sensor integrated with the wound dressing, the first sensor configured to detect whether the wound dressing is positioned over the wound; and control circuitry electrically coupled to the user interface and the first sensor, the control circuitry configured to: cause supply of negative pressure with the negative pressure source in response to receipt of the activation input by the user interface and a determination that the first sensor detects that the wound dressing is positioned over the wound, and prevent supply of negative pressure with the negative pressure source in response to a determination that the first sensor does not detect that the wound dressing is positioned over the wound. cause supply of negative pressure with the negative pressure source in response to receipt of the activation input by the user interface and a determination that the first sensor detects that the wound dressing is positioned over the wound, and prevent supply of negative pressure with the negative pressure source in response to a determination that the first sensor does not detect that the wound dressing is positioned over the wound.
Method for producing one-piece, substantially rotationally symmetrical drop centre rims for vehicle wheels of commercial vehicles, having a plurality of material forming steps, in which the drop centre rim receives as zones at least one inner rim flange (11; 111) and one outer rim flange (20; 120), an inner 15° steep-tapered bead seat (12; 112) and an outer 15° steep-tapered bead seat (19; 119) and a rim drop centre with a drop centre base (13; 113), an inner drop centre flank (14; 114) and an outer drop centre flank (15; 115) between the steep-tapered bead seats, wherein one of the zones is provided as a disc attachment region (A) for a wheel disc, and wherein the material forming steps comprise at least one profiling step, and, by means of at least one of the material forming steps, the material thickness of the drop centre rim receives at least one partial zone with a reduced wall thickness relative to the other zones, wherein the reduction in the wall thickness in the at least one partial zone takes place during the profiling step of at least one of the 15° steep-tapered bead seats (12, 19; 112, 119), and the steep-tapered bead seat (12, 19; 112, 119) receives a section with a wall thickness reduction of more than 20% relative to the wall thickness (D) in the zone provided for the disc attachment region (A) .
A thermal flow sensor including at least a heating resistance formed over a cavity , which is formed in a semiconductor substrate , near the center of said cavity with an electrical insulation film (8a, b) interposed between said heating resistance and said cavity , wherein said sensor is configured for measuring a flow rate of a medium by controlling the average temperature (Th), which is calculated from the resistance value of the heating resistance and the resistance temperature coefficient, to be higher than the temperature of the medium (Ta), to be measured by a heated temperature (ΔTh = Th - Ta), and wherein at least one pair of temperature measuring resistances (5a-5d) are formed on the portion of said electrical insulation film (8a, b) lying over said cavity upstream and downstream of said heating resistance in spaced relation, and the flow rate is measured from a temperature difference between said pair of temperature measuring resistances (5a-5d), characterized in that the distance (Ws) in the direction of flow from the upstream end of said heating resistance to the upstream end of the portion of said electrical insulation film (8a, b) lying over said cavity and the heated temperature (ΔTh) satisfy the following relationship: Δ ⁢ Th / Ws ≤ 800 ° C / mm .
An in-vitro use of Bovine Meat and Milk Factor Group 1 (BMMF1) Rep Protein as a biomarker for prostate cancer, wherein the Rep protein is a MSBI1 genome-encoded Rep protein (MSBI1 Rep) encoded by MSBI1.176 comprising the amino acid sequence as depicted in SEQ ID NO: 1, a MSBI2 genome-encoded Rep protein (MSBI2 Rep) encoded by MSBI2.176 comprising the amino acid sequence as depicted in SEQ ID NO: 8, a CMI1 genome-encoded Rep protein (CMI1 Rep) encoded by CMI1.252 comprising the amino acid sequence as depicted in SEQ ID NO: 10, a CMI2 genome-encoded Rep protein (CMI2 Rep) encoded by CMI2.214 comprising the amino acid sequence as depicted in SEQ ID NO: 11, a CMI3 genome-encoded Rep protein (CMI3 Rep) encoded by CMI3.168 comprising the amino acid sequence as depicted in SEQ ID NO: 12, or a variant of the protein with SEQ ID NO: 1 or SEQ ID NO: 8 having a homology of at least 90%, wherein the variant has one or more amino acid deletions, substitutions or additions and is capable of binding an anti-Rep antibody specific for a Rep protein having the amino acid sequence of SEQ ID NO: 1 or SEQ ID NO: 8.
Gate system , which has a gate and two lateral guide elements , the gate comprising a plurality of lamella elements which are connected to one another and can be detached from one another, are arranged orthogonally to the guide elements and can be guided in the guide elements , and a drive device with a horizontal drive spindle being provided for opening and/or closing the gate , wherein the gate can be lowered and/or raised for opening and/or closing and can be sunk into a cassette for opening, wherein the lamella elements are arranged inside the cassette in an opened state of the gate , whereby the drive device is a pull system connected in the vertical direction (V) to at least one lamella element , characterized in that the pull system is a cable pull system , a cable of this cable pull system being connected in the vertical direction (V) to the at least one lamella element , and in that at least one guide rail is arranged horizontally inside the cassette , into which the lamella elements can be deflected when the gate is opened, whereby the individual lamella elements are arranged next to one another inside the cassette in the opened state of the gate . the gate can be lowered and/or raised for opening and/or closing and can be sunk into a cassette for opening, wherein the lamella elements are arranged inside the cassette in an opened state of the gate , whereby the drive device is a pull system connected in the vertical direction (V) to at least one lamella element , characterized in that the pull system is a cable pull system , a cable of this cable pull system being connected in the vertical direction (V) to the at least one lamella element , and in that at least one guide rail is arranged horizontally inside the cassette , into which the lamella elements can be deflected when the gate is opened, whereby the individual lamella elements are arranged next to one another inside the cassette in the opened state of the gate .
A conducting shear thinning gel composition, comprising: a eutectic gallium alloy; and an amount of gallium oxide distributed as microstructures within the bulk of the gallium alloy, wherein the bulk mixture of eutectic gallium alloy and gallium oxide has a weight percentage (wt%) of between 59.9% and 99.9% eutectic gallium alloy. a eutectic gallium alloy; and an amount of gallium oxide distributed as microstructures within the bulk of the gallium alloy, wherein the bulk mixture of eutectic gallium alloy and gallium oxide has a weight percentage (wt%) of between 59.9% and 99.9% eutectic gallium alloy.
A spindle carrier assembly for use on a machine tool, comprising - a swivel arm receiving portion capable of being arranged or mounted on a machine bed of said machine tool, - a first swivel arm pivotally supported on said swivel arm receiving portion about a first axis of rotation (R1), - a second swivel arm pivotally supported on said first swivel arm about a second axis of rotation (R2), - a spindle carrier arm rotatably supported on said second swivel arm about a third axis of rotation (R3), - a milling head rotatably supported on said spindle carrier arm about a fourth axis of rotation (R4), and - a work spindle retained on said milling head for receiving a tool, wherein said third axis of rotation (R3) is oriented perpendicularly or transversely with respect to said fourth axis of rotation (R4), said swivel arm receiving portion has two swivel arm retaining bodies , and wherein said first swivel arm is retained in a pivotally supported manner between both swivel arm retaining bodies ; characterized in that one of said swivel arm retaining bodies is formed smaller than the other swivel arm retaining body of both swivel arm retaining bodies, wherein said second swivel arm is retained at the side of said first swivel arm facing said smaller swivel arm retaining body . - a swivel arm receiving portion capable of being arranged or mounted on a machine bed of said machine tool, - a first swivel arm pivotally supported on said swivel arm receiving portion about a first axis of rotation (R1), - a second swivel arm pivotally supported on said first swivel arm about a second axis of rotation (R2), - a spindle carrier arm rotatably supported on said second swivel arm about a third axis of rotation (R3), - a milling head rotatably supported on said spindle carrier arm about a fourth axis of rotation (R4), and - a work spindle retained on said milling head for receiving a tool,
An optical sheet obtained by laminating a first layer comprising a polycarbonate resin, a second layer comprising a polyamide resin and a third layer by coextrusion molding, wherein: the second layer is laminated between the first layer and the third layer; the first layer and the second layer, and the second layer and the third layer are peelable at their interfaces, respectively; and a fine grooved shape is formed on the outer surface of the first layer. the second layer is laminated between the first layer and the third layer; the first layer and the second layer, and the second layer and the third layer are peelable at their interfaces, respectively; and a fine grooved shape is formed on the outer surface of the first layer.
A method of assembling a Coriolis flow meter, comprising: providing a flow meter structure having a base and two legs , where the two legs are attached to the base and are in a spaced apart relationship, the two legs each having a cylindrical opening through the leg, where the two cylindrical openings are aligned in a co-axial relationship; providing a flow tube having an outer diameter, where the outer diameter is configured to fit into the two cylindrical openings in the two legs while leaving a predefined gap, the flow tube 501 being formed of a fluoropolymer substance; placing the flow tube into the two cylindrical openings where a section of the flow tube extends between the two legs, and where the flow tube creates two predefined gaps between the outer diameter of the flow tube and the inner diameter of the two openings; inserting an adhesive in the two predefined gaps, where the adhesive is inserted into each predefined gap through a respective adhesive opening extending from a surface of each respective leg and intersecting a respective cylindrical opening in each leg ; holding the section of the flow tube extending between the two legs while the inserted adhesive cures. providing a flow meter structure having a base and two legs , where the two legs are attached to the base and are in a spaced apart relationship, the two legs each having a cylindrical opening through the leg, where the two cylindrical openings are aligned in a co-axial relationship; providing a flow tube having an outer diameter, where the outer diameter is configured to fit into the two cylindrical openings in the two legs while leaving a predefined gap, the flow tube 501 being formed of a fluoropolymer substance; placing the flow tube into the two cylindrical openings where a section of the flow tube extends between the two legs, and where the flow tube creates two predefined gaps between the outer diameter of the flow tube and the inner diameter of the two openings; inserting an adhesive in the two predefined gaps, where the adhesive is inserted into each predefined gap through a respective adhesive opening extending from a surface of each respective leg and intersecting a respective cylindrical opening in each leg ; holding the section of the flow tube extending between the two legs while the inserted adhesive cures.
A computer-implemented method for determining representativeness of a pathology score to a tumor, the method comprising: analyzing a radiological image of a tumor to calculate a value indicative of tumor activity at each of a plurality of locations in the tumor; determining whether each calculated value is above a predetermined threshold; and calculating a heterogeneity score for the tumor; wherein the heterogeneity score is calculated based on a volume fraction of the tumor having a value indicative of tumor activity above the predetermined threshold; and calculating a probability of a biopsy sample obtained from the tumor having a value of tumor activity above the predetermined threshold, wherein the probability is calculated based on the heterogeneity score and a volume of the biopsy sample. analyzing a radiological image of a tumor to calculate a value indicative of tumor activity at each of a plurality of locations in the tumor; determining whether each calculated value is above a predetermined threshold; and calculating a heterogeneity score for the tumor; wherein the heterogeneity score is calculated based on a volume fraction of the tumor having a value indicative of tumor activity above the predetermined threshold; and calculating a probability of a biopsy sample obtained from the tumor having a value of tumor activity above the predetermined threshold, wherein the probability is calculated based on the heterogeneity score and a volume of the biopsy sample.
A balancing assembly for a rotating component of a gas turbine engine , comprising: a balance pin configured for insertion into an opening in the rotating component; and a balance clip configured for installation to the rotating component over the balance pin to retain the balance pin in the opening via exertion of a retention force on the balance pin; characterized in that the balance pin includes a pin protrusion receivable into a clip opening in the balance clip . a balance pin configured for insertion into an opening in the rotating component; and a balance clip configured for installation to the rotating component over the balance pin to retain the balance pin in the opening via exertion of a retention force on the balance pin; characterized in that the balance pin includes a pin protrusion receivable into a clip opening in the balance clip .
A hand vacuum cleaner having an upper end , a lower end , a front end having a dirty air inlet and a rear end , the hand vacuum cleaner comprising: (a) an air flow path extending from the dirty air inlet to a clean air outlet ; (b) an air treatment member positioned in the air flow path, the air treatment member comprising a chamber defining an open volume which has an air treatment member air inlet , an air treatment member air outlet , a front end and a rear end and an axis that extends between the front and rear ends of the air treatment member and extends through the air treatment member air outlet ; (c) an energy storage unit having a front end and a rear end ; (d) a suction motor positioned in the air flow path; (e) a pistol grip handle having a hand grip portion wherein the axis intersects the hand grip portion ; and, (f) a finger grip area positioned between the suction motor and the pistol grip handle , wherein when the hand vacuum cleaner is oriented with the upper end above the lower end , the pistol grip handle is located at the rear end of the hand vacuum cleaner , the energy storage unit is located at the lower end of the hand vacuum cleaner with the suction motor located above the front end of the energy storage unit and the pistol grip handle located above the rear end of the energy storage unit . (a) an air flow path extending from the dirty air inlet to a clean air outlet ; (b) an air treatment member positioned in the air flow path, the air treatment member comprising a chamber defining an open volume which has an air treatment member air inlet , an air treatment member air outlet , a front end and a rear end and an axis that extends between the front and rear ends of the air treatment member and extends through the air treatment member air outlet ; (c) an energy storage unit having a front end and a rear end ; (d) a suction motor positioned in the air flow path; (e) a pistol grip handle having a hand grip portion wherein the axis intersects the hand grip portion ; and, (f) a finger grip area positioned between the suction motor and the pistol grip handle ,
A compound of the following structure: wherein: B 1 is guanine; B 10 is a natural nucleoside base; R 1 is H or methyl; R 2 and R 3 are independently H, OH, alkyl, O-alkyl or halogen; and R 4 is H, OH or 0-methyl. B 1 is guanine; B 10 is a natural nucleoside base; R 1 is H or methyl; R 2 and R 3 are independently H, OH, alkyl, O-alkyl or halogen; and R 4 is H, OH or 0-methyl.
A peroxide-curable ethylene copolymer composition comprising 58.00 to 99.90 weight percent (wt%) of (A) a crosslinkable ethylene/alpha-olefin copolymer ("copolymer (A)" or "constituent (A)"), which is made by a process comprising copolymerizing ethylene and an alpha-olefin comonomer, and optionally another comonomer selected from a non-conjugated diene and a second alpha-olefin, in the presence of a molecular catalyst useful therefor, wherein the molecular catalyst is a homogeneous catalyst having a single catalytic site that is derived from a ligand-metal complex molecule with defined ligands and structure; from 0.050 to 0.949 wt% of (B) triallyl phosphate (TAP); from 0.050 to 5.00 wt% of (C) an organic peroxide; and from 0.00 to 40 wt% of (D) a supplemental polymer selected from an ethylene/unsaturated carboxylic ester copolymer, a polyethylene homopolymer, a Non-(molecular catalyst)-formed ethylene/alpha-olefin copolymer, and a propylene-based polymer; with the proviso that the total weight of constituent (A) and constituent (D) is 80.00 to 99.90 wt%; wherein all wt% are based on total weight of the peroxide-curable ethylene copolymer composition and wherein total weight of the peroxide-curable ethylene copolymer composition is 100.0 wt%.
A method of adjusting a brain functional connectivity correlation value of a subject measured at a plurality of measurement sites, comprising the steps of: for a plurality of traveling subjects defined as subjects that are common objects of functional magnetic resonance imaging (fMRI) measurements at each of the plurality of fMRI measurement sites , measuring brain activities of a predetermined plurality of brain regions of each of said traveling subjects; calculating, for each of said traveling subjects, prescribed elements of a brain functional connectivity matrix representing temporal correlation of brain activities of a set of said plurality of brain regions; using a generalized linear mixed model, calculating measurement bias for each element of said brain functional connectivity matrix, as a fixed effect at each measurement site with respect to an average of the corresponding element across said plurality of measurement sites and across said plurality of traveling subjects; and using said measurement bias, correcting a brain functional connectivity correlation value as the prescribed elements of said brain functional connectivity matrix of a subject measured at each of said measurement sites and thereby obtaining an adjusted value. for a plurality of traveling subjects defined as subjects that are common objects of functional magnetic resonance imaging (fMRI) measurements at each of the plurality of fMRI measurement sites , measuring brain activities of a predetermined plurality of brain regions of each of said traveling subjects; calculating, for each of said traveling subjects, prescribed elements of a brain functional connectivity matrix representing temporal correlation of brain activities of a set of said plurality of brain regions; using a generalized linear mixed model, calculating measurement bias for each element of said brain functional connectivity matrix, as a fixed effect at each measurement site with respect to an average of the corresponding element across said plurality of measurement sites and across said plurality of traveling subjects; and using said measurement bias, correcting a brain functional connectivity correlation value as the prescribed elements of said brain functional connectivity matrix of a subject measured at each of said measurement sites and thereby obtaining an adjusted value.