mhurhangee/patent-ind-claim-en huggingface dataset:
A needle assembly for an intraosseous access system, comprising: a needle supported by a needle hub and extending to a distal tip ; and a stepped increase in diameter disposed on an outer surface of the needle at a predetermined distance from the distal tip , the stepped increase in diameter configured to penetrate a skin surface and abut against a bone cortex , wherein the needle defines a lumen having a first needle lumen diameter disposed distally of the stepped increase in diameter, and a second needle lumen diameter disposed proximally of the stepped increase in diameter, the second needle lumen diameter being larger than the first needle lumen diameter . a needle supported by a needle hub and extending to a distal tip ; and a stepped increase in diameter disposed on an outer surface of the needle at a predetermined distance from the distal tip , the stepped increase in diameter configured to penetrate a skin surface and abut against a bone cortex , wherein the needle defines a lumen having a first needle lumen diameter disposed distally of the stepped increase in diameter, and a second needle lumen diameter disposed proximally of the stepped increase in diameter, the second needle lumen diameter being larger than the first needle lumen diameter .
An electric winder, comprising: a winder body , comprising: a first housing ; a reel arranged in the first housing ; a drive mechanism connected to the reel ; and a cable wound on the reel ; a controller configured to control on/off of the drive mechanism ; and a socket , comprising: a second housing arranged outside the first housing ; an insertion hole provided on a side of the second housing ; a contact assembly provided in the insertion hole and connected to a free end of the cable ; characterized by a strain sensor arranged in the second housing and attached to the contact assembly ; wherein the controller is connected to the strain sensor ; when a plug is inserted into the contact assembly through the insertion hole , the strain sensor is configured to detect a deformation of the contact assembly caused by the plug , and send the deformation to the controller ; and the controller is configured to receive the deformation sent from the strain sensor ; and when the deformation is greater than a deformation threshold, the controller controls the drive mechanism to be in a stop state to prevent the reel from winding. a winder body , comprising: a first housing ; a reel arranged in the first housing ; a drive mechanism connected to the reel ; and a cable wound on the reel ; a first housing ; a reel arranged in the first housing ; a drive mechanism connected to the reel ; and a cable wound on the reel ; a controller configured to control on/off of the drive mechanism ; and a socket , comprising: a second housing arranged outside the first housing ; an insertion hole provided on a side of the second housing ; a contact assembly provided in the insertion hole and connected to a free end of the cable ; characterized by a strain sensor arranged in the second housing and attached to the contact assembly ; a second housing arranged outside the first housing ; an insertion hole provided on a side of the second housing ; a contact assembly provided in the insertion hole and connected to a free end of the cable ; characterized by a strain sensor arranged in the second housing and attached to the contact assembly ; wherein the controller is connected to the strain sensor ; when a plug is inserted into the contact assembly through the insertion hole , the strain sensor is configured to detect a deformation of the contact assembly caused by the plug , and send the deformation to the controller ; and the controller is configured to receive the deformation sent from the strain sensor ; and when the deformation is greater than a deformation threshold, the controller controls the drive mechanism to be in a stop state to prevent the reel from winding.
A method of maturity classifying reticulocytes from a whole blood sample, comprising: (a) staining the sample with a supravital agglutinating dyeing reagent or a fluorescent agglutinating dye; (b) illuminating the stained sample with a light beam, preferably of a wavelength range of 200 nm to 780 nm in a light detection device, preferably a microscope, to detect reticulocytes; (c) determining for each reticulocyte the parameters of (i) a fraction (Λ) of the reticulum area (Ar) to the whole cell area (Ac); and (ii) a fraction (Γ) of the perimeter of the reticulum (Ur) to the reticulum area (Ar); and (d) maturity classifying a reticulocyte into 1 of 4 major maturity classes according to the values determined for Λ and Γ. (a) staining the sample with a supravital agglutinating dyeing reagent or a fluorescent agglutinating dye; (b) illuminating the stained sample with a light beam, preferably of a wavelength range of 200 nm to 780 nm in a light detection device, preferably a microscope, to detect reticulocytes; (c) determining for each reticulocyte the parameters of (i) a fraction (Λ) of the reticulum area (Ar) to the whole cell area (Ac); and (ii) a fraction (Γ) of the perimeter of the reticulum (Ur) to the reticulum area (Ar); and (d) maturity classifying a reticulocyte into 1 of 4 major maturity classes according to the values determined for Λ and Γ.
A semiconductor device comprising: a support; a double-layered adhesive resin layer formed on the support, an insulating layer and a redistribution layer formed on the adhesive resin layer; a chip layer, and a mold resin layer, wherein the adhesive resin layer comprises a resin layer A containing a resin decomposable by light irradiation and a resin layer B containing a non-silicone-based thermoplastic resin, the resin layer A and the resin layer B being provided in this order from the support side, the resin decomposable by light irradiation is a resin containing a fused ring in its main chain, and the non-silicone-based thermoplastic resin has a glass transition temperature of 200°C or higher.
A control apparatus for a crane that automatically conveys a load along a conveyance path given as point group data including at least coordinates of a passing point of the load and a passage order of each passing point, wherein the control apparatus is configured to: calculate a target conveyance time of the load in each section of a plurality of sections each defined by two passing points adjacent to each other in the passage order on the point group data; calculate a target speed of the load in the each section on a basis of a distance between the two passing points and the target conveyance time that is calculated, wherein the calculated target speed is constant in the each section but changeable in a stepwise manner at transition between two adjacent sections of the plurality of sections; and generate a target speed signal based on the calculated target speed; subdivide at least one section of the plurality of sections into a plurality of control sections, sets an acceleration section or a deceleration section to one control section of the plurality of control sections which connects with another section adjacent to the one section, and set a constant-speed section to the other control section of the plurality of control sections; convert, into a non-stepwise target speed signal, a stepwise target speed signal connecting the target speed signal of the one section and the target speed signal of another section adjacent to the one section by applying a low-pass filter to the target speed signal of the acceleration section or the deceleration section of the stepwise target speed signal to control the crane on a basis of the non-stepwise target speed signal. calculate a target conveyance time of the load in each section of a plurality of sections each defined by two passing points adjacent to each other in the passage order on the point group data; calculate a target speed of the load in the each section on a basis of a distance between the two passing points and the target conveyance time that is calculated, wherein the calculated target speed is constant in the each section but changeable in a stepwise manner at transition between two adjacent sections of the plurality of sections; and generate a target speed signal based on the calculated target speed; subdivide at least one section of the plurality of sections into a plurality of control sections, sets an acceleration section or a deceleration section to one control section of the plurality of control sections which connects with another section adjacent to the one section, and set a constant-speed section to the other control section of the plurality of control sections; convert, into a non-stepwise target speed signal, a stepwise target speed signal connecting the target speed signal of the one section and the target speed signal of another section adjacent to the one section by applying a low-pass filter to the target speed signal of the acceleration section or the deceleration section of the stepwise target speed signal to control the crane on a basis of the non-stepwise target speed signal.
Assembly for the adjustable attachment of a linear operating element on a superordinate structure, comprising: - the linear operating element , having a housing and a pressure rod element extending out of the housing and being displaceable with respect to the housing in a displacement direction (R), wherein the housing has a circular cylindrical projection , which projects in a direction perpendicular to the displacement direction (R) of the pressure rod element to the outside; - at least one wall element assigned to the superordinate structure, which has a circular through hole and at least one mounting point ; characterized by : - at least one excentre element with a circular cylindrical body section with a cylinder axis (Z), wherein the circumference of the body section is matched to the circular through hole of the at least one wall element , and excentric to the cylinder axis (Z) there is provided a receiving opening for the at least one circular cylindrical projection of the housing of the operating element , wherein the excentre element further has an attachment section which is adapted to facilitate an attachment thereof in a plurality of angular positions on the at least one mounting point of the at least one wall element by means of at least one attachment element . - the linear operating element , having a housing and a pressure rod element extending out of the housing and being displaceable with respect to the housing in a displacement direction (R), wherein the housing has a circular cylindrical projection , which projects in a direction perpendicular to the displacement direction (R) of the pressure rod element to the outside; - at least one wall element assigned to the superordinate structure, which has a circular through hole and at least one mounting point ; characterized by : - at least one excentre element with a circular cylindrical body section with a cylinder axis (Z), wherein the circumference of the body section is matched to the circular through hole of the at least one wall element , and excentric to the cylinder axis (Z) there is provided a receiving opening for the at least one circular cylindrical projection of the housing of the operating element , - at least one excentre element with a circular cylindrical body section with a cylinder axis (Z),
An electropolishing treatment method for a stainless steel workpiece, comprising following steps: placing the stainless steel workpiece in an oxalic acid solution and performing supersonic oscillation before a first electropolishing treatment; performing the first electropolishing treatment to the stainless steel workpiece, wherein the first electropolishing treatment uses the stainless steel workpiece as an anode and 10 to 15 volume percentage concentration % perchloric acid as an electrolyte, and when a constant voltage is set as 12V to 15V, the first electropolishing treatment procedure is performed; performing a second electropolishing treatment to the stainless steel workpiece, wherein the second electropolishing treatment uses the stainless steel workpiece after the first electropolishing treatment as an anode, and an electrolyte consists of ethanol, sulfuric acid and perchloric acid, and when a constant voltage is set as 12V to 15V, the second electropolishing treatment is performed to obtain the stainless steel workpiece after the second electropolishing treatment; wherein the electrolyte of the second electropolishing treatment consists of 90 to 93 volume percentage concentration % ethanol, 4 to 7 volume percentage concentration % sulfuric acid and 2 to 3 volume percentage concentration % perchloric acid. placing the stainless steel workpiece in an oxalic acid solution and performing supersonic oscillation before a first electropolishing treatment; performing the first electropolishing treatment to the stainless steel workpiece, wherein the first electropolishing treatment uses the stainless steel workpiece as an anode and 10 to 15 volume percentage concentration % perchloric acid as an electrolyte, and when a constant voltage is set as 12V to 15V, the first electropolishing treatment procedure is performed; performing a second electropolishing treatment to the stainless steel workpiece, wherein the second electropolishing treatment uses the stainless steel workpiece after the first electropolishing treatment as an anode, and an electrolyte consists of ethanol, sulfuric acid and perchloric acid, and when a constant voltage is set as 12V to 15V, the second electropolishing treatment is performed to obtain the stainless steel workpiece after the second electropolishing treatment; wherein the electrolyte of the second electropolishing treatment consists of 90 to 93 volume percentage concentration % ethanol, 4 to 7 volume percentage concentration % sulfuric acid and 2 to 3 volume percentage concentration % perchloric acid.
A method for preparation of a ready-to-infuse aqueous solution having a volume in the range of 90 ml to 270 ml of irinotecan as below Ingredient Quantity mg/mL Irinotecan hydrochloride, USP 0.2 mg - 2.0 mg Dextrose, USP (anhydrous) 40-50 mg Sorbitol, NF 2-5 mg Lactic acid, USP 0.01-0.1 mg Sodium hydroxide, NF and Hydrochloric acid, NF q.s. to adjust pH in the range of 3-5 Water for injection, USP q.s. to 1 mL q.s .=quantity sufficient the method comprising: • purging water for injection with nitrogen, • dissolving dextrose, sorbitol, lactic acid and irinotecan hydrochloride in the water for injection with stirring, • adjusting the pH in the range of to 3 to 5, • filtering the solution through membrane filter cartridge (0.2μm x 25.4cm) and filling the solution in a perfusion bag and stoppering the bag, • terminally sterilizing the stoppered perfusion bag via autoclaving, and wherein the material of construction of the perfusion bag is selected from polyolefin polymers, polyethylene, polypropylene; cyclo olefin polymers, cyclo olefin copolymers, polypropylene based polyolefin polymers; polycarbonates; modified polyolefin- polyethylene polymers or styrene-polyolefin based polymers and block co-polymers thereof. • purging water for injection with nitrogen, • dissolving dextrose, sorbitol, lactic acid and irinotecan hydrochloride in the water for injection with stirring, • adjusting the pH in the range of to 3 to 5, • filtering the solution through membrane filter cartridge (0.2μm x 25.4cm) and filling the solution in a perfusion bag and stoppering the bag, • terminally sterilizing the stoppered perfusion bag via autoclaving,
An optical engine for use in a bench top flow cytometer , the optical engine comprising: a) a set of lasers , each tuned to a wavelength suited for excitation of fluorescent molecules; b) a different set of beam shaping optics for each laser , wherein each set comprises two lenses (112v, 112b, 112r; 114v, 114b, 114r) to adjustably focus a beam horizontally along an x-axis to a same horizontal position (H) and vertically along a y-axis to a different vertical position (Vv, Vb, Vr) along a same plane, wherein the plane is characterized as a flow path (P1, P2, P3) through a flow cell of the flow cytometer ; c) collection optics for collecting fluorescence from the flow cell ; d) filtration optics that filter the collected fluorescence from the flow cell into different filter channels according to wavelength ranges, wherein the collected fluorescence from the different vertical positions is filtered at different spatial positions on a same filter; and e) a single detector for each filter channel that converts the filtered fluorescence to electrical signals, wherein electrical signals are processed so that the fluorescence from the different vertical positions is distinguished at the single detector by a time delay. a) a set of lasers , each tuned to a wavelength suited for excitation of fluorescent molecules; b) a different set of beam shaping optics for each laser , wherein each set comprises two lenses (112v, 112b, 112r; 114v, 114b, 114r) to adjustably focus a beam horizontally along an x-axis to a same horizontal position (H) and vertically along a y-axis to a different vertical position (Vv, Vb, Vr) along a same plane, wherein the plane is characterized as a flow path (P1, P2, P3) through a flow cell of the flow cytometer ; c) collection optics for collecting fluorescence from the flow cell ; d) filtration optics that filter the collected fluorescence from the flow cell into different filter channels according to wavelength ranges, wherein the collected fluorescence from the different vertical positions is filtered at different spatial positions on a same filter; and e) a single detector for each filter channel that converts the filtered fluorescence to electrical signals, wherein electrical signals are processed so that the fluorescence from the different vertical positions is distinguished at the single detector by a time delay.
Assembly for boring holes for implants in the jaw of a patient in collaboration with a surgical drilling guide , said assembly comprising: - a surgical drilling guide comprising a first tubular drilling sleeve with a first inside diameter (D3) and a second tubular drilling sleeve with a second inside diameter (D4), - a drill bit extending in a longitudinal direction (I-I) between a proximal end and a free distal end with a proximal connection portion for connection to a dental handpiece and a distal cutting portion that has an outside diameter (D5d) less than or equal to the first inside diameter (D3), said drill bit comprising, between its proximal connection portion and distal cutting portion , an intermediate cylindrical guide portion , - an adapter bushing having an inside diameter (D6) able to accept, with a small amount of clearance, the intermediate guide portion of the drill bit , characterized in that : - the second inside diameter (D4) is greater than the first inside diameter (D3), - the intermediate cylindrical guide portion is able to fit with a small amount of clearance on its outside diameter (D5e) into the first tubular drilling sleeve , - the adapter bushing is able to fit with a small amount of clearance on an outside diameter (D6a) of an engagement portion into the second tubular drilling sleeve . - a surgical drilling guide comprising a first tubular drilling sleeve with a first inside diameter (D3) and a second tubular drilling sleeve with a second inside diameter (D4), - a drill bit extending in a longitudinal direction (I-I) between a proximal end and a free distal end with a proximal connection portion for connection to a dental handpiece and a distal cutting portion that has an outside diameter (D5d) less than or equal to the first inside diameter (D3), said drill bit comprising, between its proximal connection portion and distal cutting portion , an intermediate cylindrical guide portion , - an adapter bushing having an inside diameter (D6) able to accept, with a small amount of clearance, the intermediate guide portion of the drill bit , - the second inside diameter (D4) is greater than the first inside diameter (D3), - the intermediate cylindrical guide portion is able to fit with a small amount of clearance on its outside diameter (D5e) into the first tubular drilling sleeve , - the adapter bushing is able to fit with a small amount of clearance on an outside diameter (D6a) of an engagement portion into the second tubular drilling sleeve .
A gas sensor comprising: a sensor element ; a cylindrical body in which the sensor element is disposed, the cylindrical body having an open end ; a lead wire having electrical continuity to the sensor element and extending outward from an inside of the cylindrical body through the open end ; a tube that covers an outer peripheral surface of an end portion of the cylindrical body including the open end and a portion of the lead wire extending outward from the open end ; a grip member that grips a portion of the outer peripheral surface of the cylindrical body covered with the tube so that the tube protrudes to a side opposite from the open end ; an elastic body through which the lead wire penetrates, the elastic body being disposed within the cylindrical body to seal inside of the cylindrical body from an outside of the open end , wherein the cylindrical body has a diameter-reduced portion that swages the elastic body from a periphery; and wherein the cylindrical body extends beyond both sides of the grip member . a sensor element ; a cylindrical body in which the sensor element is disposed, the cylindrical body having an open end ; a lead wire having electrical continuity to the sensor element and extending outward from an inside of the cylindrical body through the open end ; a tube that covers an outer peripheral surface of an end portion of the cylindrical body including the open end and a portion of the lead wire extending outward from the open end ; a grip member that grips a portion of the outer peripheral surface of the cylindrical body covered with the tube so that the tube protrudes to a side opposite from the open end ; an elastic body through which the lead wire penetrates, the elastic body being disposed within the cylindrical body to seal inside of the cylindrical body from an outside of the open end , wherein the cylindrical body has a diameter-reduced portion that swages the elastic body from a periphery; and wherein the cylindrical body extends beyond both sides of the grip member .
A compound selected from the following group of compounds: (S)-3-(3,4-difluorophenyl)-1-(2-chloro-5,6-dihydro-4H-cyclopenta[b]thiophen-6-yl)-1-methylurea, (S)-3-(3-pentafluorosulfanylphenyl)-1-(2-chloro-5,6-dihydro-4H-cyclopenta[b]thiophen-6-yl)-1-methylurea. (S)-3-(3,4-difluorophenyl)-1-(2-chloro-5,6-dihydro-4H-cyclopenta[b]thiophen-6-yl)-1-methylurea, (S)-3-(3-pentafluorosulfanylphenyl)-1-(2-chloro-5,6-dihydro-4H-cyclopenta[b]thiophen-6-yl)-1-methylurea.