mhurhangee/patent-ind-claim-en huggingface dataset:
An assemblable and diassemblable toilet set, comprising a toilet body of which an upper end is provided with a supporting toilet mounting and a toilet cover plate of which a rear end is provided with a pivot shaft , wherein the supporting toilet mounting is provided with an embedding hole , the pivot shaft comprises an axial damper arranged horizontally, a connector connected with the axial damper and having an inserting column insertable with the embedding hole , and a locking component movably connected with the connector , wherein the locking component is configured to be releasably engaged with the toilet body to releasably lock the toilet cover plate with the toilet body , wherein the locking component comprises an elastic element , a fastener , a plug and a button , wherein the fastener is sleeved on the connector , the plug is fixed at one end of the connector far away from the axial damper , a first clamping groove is arranged on the top of the plug horizontally, a clamping hook capable of horizontally moving to be clamped in the first clamping groove is arranged on the top of the button , an opening is arranged on a bottom of the fastener , the inserting column extends out from the opening , a convex column is arranged on the supporting toilet mounting , the embedding hole is arranged on the convex column , a second clamping groove is arranged on the convex column circularly, an edge of the opening near the axial damper is clamped in the second clamping groove , the elastic element is arranged near the axial damper , and the elastic element is elastically pressed between the connecter and the fastener .
A method for producing microglia from a pluripotent stem cell, the method comprising the following steps: (a) a step of co-culturing a pluripotent stem cell with a feeder cell for 7 days or more to obtain a blood progenitor cell, (b) a step of co-culturing the blood progenitor cell obtained by step (a) with a feeder cell in the presence of IL-3 and/or GM-CSF to obtain a primitive monocyte, and (c) a step of co-culturing the primitive monocyte obtained by step (b) with an astrocyte in the presence of M-CSF, wherein the feeder cell is a mouse embryonic fibroblast. (a) a step of co-culturing a pluripotent stem cell with a feeder cell for 7 days or more to obtain a blood progenitor cell, (b) a step of co-culturing the blood progenitor cell obtained by step (a) with a feeder cell in the presence of IL-3 and/or GM-CSF to obtain a primitive monocyte, and (c) a step of co-culturing the primitive monocyte obtained by step (b) with an astrocyte in the presence of M-CSF,
. A safety device for an electric cutting tool , of the type comprising a cutting portion with a fixed blade and a movable blade , said tool having an element for the actuation of said movable blade and an electrically conducting handle , said movable blade being moved by motor means powered by a battery pack , characterized in that it comprises: - a microcontroller , connected to said battery pack , - an optical coupler , which is connected at one end to said microcontroller and at the other end to a voltage source and to said cutting portion , - a conducting glove , said voltage source being connected with one pole to said optical coupler and with another pole, across a resistor , to said handle . - a microcontroller , connected to said battery pack , - an optical coupler , which is connected at one end to said microcontroller and at the other end to a voltage source and to said cutting portion , - a conducting glove ,
A method for determining a three-dimensional particle distribution , preferably a bacteria distribution, in a medium (M), comprising: providing a sample of the medium (M) containing said particles (P); emitting a coherent light beam by means of a light source to irradiate the sample with said light beam , wherein a first part of the light beam is scattered by the particles (P) to create a scattered light beam ; recording, with a camera , an interference image of the scattered light beam and a second part of the light beam that has not been scattered; computing with a processor , from the interference image , for each one of a plurality of virtual planes (13 i ) lying within the sample , a reconstructed image (14 i ) of the sample at the respective virtual plane (13 i ), each reconstructed image (14 i ) having a plurality of pixels with an intensity value (I) and a phase value (Φ), characterised by generating with said processor , for each reconstructed image (14 i ), a presence image (16 i ) having a same layout of pixels as the reconstructed image (14 i ), wherein a value is assigned to each pixel of the presence images (16 i ) if the corresponding pixel of the reconstructed image (14 i ) has an intensity value (I) exceeding a predetermined threshold value (TH) and if the corresponding pixel of the reconstructed image (14 i ) has a phase value (Φ) with a predetermined sign (SG), and wherein no value is assigned if at least one of said two conditions is not met, and identifying the three-dimensional particle distribution from those pixels of the presence images (16 i ) that have assigned values. providing a sample of the medium (M) containing said particles (P); emitting a coherent light beam by means of a light source to irradiate the sample with said light beam , wherein a first part of the light beam is scattered by the particles (P) to create a scattered light beam ; recording, with a camera , an interference image of the scattered light beam and a second part of the light beam that has not been scattered; computing with a processor , from the interference image , for each one of a plurality of virtual planes (13 i ) lying within the sample , a reconstructed image (14 i ) of the sample at the respective virtual plane (13 i ), each reconstructed image (14 i ) having a plurality of pixels with an intensity value (I) and a phase value (Φ), characterised by generating with said processor , for each reconstructed image (14 i ), a presence image (16 i ) having a same layout of pixels as the reconstructed image (14 i ), wherein a value is assigned to each pixel of the presence images (16 i ) if the corresponding pixel of the reconstructed image (14 i ) has an intensity value (I) exceeding a predetermined threshold value (TH) and if the corresponding pixel of the reconstructed image (14 i ) has a phase value (Φ) with a predetermined sign (SG), and wherein no value is assigned if at least one of said two conditions is not met, and identifying the three-dimensional particle distribution from those pixels of the presence images (16 i ) that have assigned values.
A surgical stapling instrument comprising: a proximal body portion configured for operable engagement with a handle assembly; a tool assembly extending from the proximal body portion, the tool assembly including an anvil assembly , a jaw member pivotally secured relative to the anvil assembly, and a first connector assembly disposed within the jaw member, the first connector assembly including a first connector housing and first and second connector members extending from the first connector housing; and a cartridge assembly selective receivable within the jaw member of the tool assembly, the cartridge assembly including a second connector assembly configured for electrical connection with the first connector assembly when the cartridge assembly is received within the jaw member, the second connector assembly including a second connector housing and first and second contact members disposed within the second connector housing, characterised in that the first and second connector members of the first connector assembly are configured to be received within the second connector housing and engage the respective first and second contact members of the second connector housing when the cartridge assembly is received within the jaw member of the tool assembly. a proximal body portion configured for operable engagement with a handle assembly; a tool assembly extending from the proximal body portion, the tool assembly including an anvil assembly , a jaw member pivotally secured relative to the anvil assembly, and a first connector assembly disposed within the jaw member, the first connector assembly including a first connector housing and first and second connector members extending from the first connector housing; and a cartridge assembly selective receivable within the jaw member of the tool assembly, the cartridge assembly including a second connector assembly configured for electrical connection with the first connector assembly when the cartridge assembly is received within the jaw member, the second connector assembly including a second connector housing and first and second contact members disposed within the second connector housing, characterised in that the first and second connector members of the first connector assembly are configured to be received within the second connector housing and engage the respective first and second contact members of the second connector housing when the cartridge assembly is received within the jaw member of the tool assembly.
A heating valve assembly comprising a housing having an inlet and an outlet , a first valve means having a valve seat and a valve element, and a second valve means setting a constant pressure difference across the first valve means, wherein the housing comprises a first part (A) and a second part (B) which are connected to each other, and the first valve means is arranged exclusively in the first part (A) of the housing, characterised in that , the second valve device is arranged exclusively in a second part (B) of the housing.
A plate heat exchanger including a stack of patterned heat transfer plates connected to each other by brazing or welding and defining a first side and second side, were patterns of the connected neighbouring heat transfer plates forms respectively a first flow path and second flow path on the opposing sides of a heat transfer plate , said heat transfer plates comprising aligned first pair of port holes forming respectively first inlet and first outlet for a first fluid to be distributed to said first flow path, where a first end plate is connected to the stack first side outermost heat transfer plate with a first opening aligned to the first inlet , and a second end plate is connected to the stack second side outermost heat transfer plate with a blank area aligned with the first inlet , where the second side outermost heat transfer plate is formed with a contacting projection connected and brazed or welded to the inner surface of the second end plate , characterized in that the blank area is curving in an outwards direction relative to the stack .
An apparatus , comprising: an additively manufactured node having a socket ; and a panel interconnected with the node , the panel comprising opposing surface layers and a core between at least a portion of the surface layers, wherein the socket engages an end portion of the panel and shapes the surface layers on the end portion of the panel , and wherein a section of the core between the surface layers of the end portion of the panel comprises a notch . an additively manufactured node having a socket ; and a panel interconnected with the node , the panel comprising opposing surface layers and a core between at least a portion of the surface layers, wherein the socket engages an end portion of the panel and shapes the surface layers on the end portion of the panel , and wherein a section of the core between the surface layers of the end portion of the panel comprises a notch .
An implantable medical device comprising: a housing, a set of active fixation tines fixed to the housing, the fixation tines each having a proximal end fixed to the housing, and a distal end for penetrating tissue, the active fixation tines being configured to secure the IMD to a patient tissue when deployed while the distal ends of the active fixation tines are positioned adjacent to the patient tissue; wherein the fixation tines are configured to be moveable between an extended spring-loaded position in which the distal ends of the tines point away from and are distal of the distal end of the housing, and a hooked position in which the distal ends of the tines bend back towards the implantable medical device, wherein the proximal ends of the active fixation tines remain fixed to the housing as active fixation tines move from the spring-loaded position to the hooked position and vice-versa. a housing, a set of active fixation tines fixed to the housing, the fixation tines each having a proximal end fixed to the housing, and a distal end for penetrating tissue, the active fixation tines being configured to secure the IMD to a patient tissue when deployed while the distal ends of the active fixation tines are positioned adjacent to the patient tissue; wherein the fixation tines are configured to be moveable between an extended spring-loaded position in which the distal ends of the tines point away from and are distal of the distal end of the housing, and a hooked position in which the distal ends of the tines bend back towards the implantable medical device, wherein the proximal ends of the active fixation tines remain fixed to the housing as active fixation tines move from the spring-loaded position to the hooked position and vice-versa.
A battery having a shape of a portion of a circular truncated cone comprising: a first surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (r1, r2), the same curvature center (C1) and the same central angle (θ); a second surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (R1, R2), the same curvature center (C2) and the same central angle (θ'); and a volume portion configured to connect in a straight line the first surface to the second surface and defining a volume, wherein the circumference of the first surface and circumference of the second surface have two curves curved in the same direction, the first surface has an area different from that of the second surface , the first surface is parallel to the second surface , the curvature radius (r1, r2) of the two circular arcs constituting the circumference of the first surface and the curvature radius (R1, R2) of the two circular arcs constituting the circumference of the second surface are different, the curvature center (C1) of the two circular arcs constituting the circumference of the first surface and the curvature center (C2) of the two circular arcs constituting the circumference of the second surface are the same, and the central angle (θ) of the two circular arcs constituting the circumference of the first surface and the central angle (θ') of the two circular arcs constituting the circumference of the second surface are the same. a first surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (r1, r2), the same curvature center (C1) and the same central angle (θ); a second surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (R1, R2), the same curvature center (C2) and the same central angle (θ'); and a volume portion configured to connect in a straight line the first surface to the second surface and defining a volume, wherein the circumference of the first surface and circumference of the second surface have two curves curved in the same direction, the first surface has an area different from that of the second surface , the first surface is parallel to the second surface , the curvature radius (r1, r2) of the two circular arcs constituting the circumference of the first surface and the curvature radius (R1, R2) of the two circular arcs constituting the circumference of the second surface are different, the curvature center (C1) of the two circular arcs constituting the circumference of the first surface and the curvature center (C2) of the two circular arcs constituting the circumference of the second surface are the same, and the central angle (θ) of the two circular arcs constituting the circumference of the first surface and the central angle (θ') of the two circular arcs constituting the circumference of the second surface are the same.
A superabsorbent polymer composition comprising superabsorbent polymer particles comprising a crosslinked polymer of water soluble ethylenically unsaturated monomers having acid groups, of which at least a part are neutralized; a first hydrophobic material; and a second hydrophobic material, wherein the first hydrophobic material comprises carboxylic acid represented by the following Chemical Formula 1 or a salt thereof, and the second hydrophobic material comprises carboxylic acid represented by the following Chemical Formula 2 or a salt thereof: in the Chemical Formula 1, x is an integer of 10 to 20, in the Chemical Formula 2, y is an integer of 5 to 15, and z is an integer of 1 to 10. superabsorbent polymer particles comprising a crosslinked polymer of water soluble ethylenically unsaturated monomers having acid groups, of which at least a part are neutralized; a first hydrophobic material; and a second hydrophobic material, wherein the first hydrophobic material comprises carboxylic acid represented by the following Chemical Formula 1 or a salt thereof, and the second hydrophobic material comprises carboxylic acid represented by the following Chemical Formula 2 or a salt thereof: in the Chemical Formula 1, x is an integer of 10 to 20, in the Chemical Formula 2, y is an integer of 5 to 15, and z is an integer of 1 to 10.
A method of fabricating a semi-finished product for a book-like document of value and/or security document in which a card-shaped blank is passed through an application device along a transport direction and in which an adhesive layer is applied onto one side of said card-shaped blank and thus the semi-finished product is formed, - wherein the adhesive layer is provided as a material web the width of which is smaller than a first dimension of the card-shaped blank as measured transversely to the transport direction , wherein - the adhesive layer which is provided as a material web is cut into an application segment the length of which is shorter than a second dimension of the card-shaped blank as measured along the transport direction , - the application segment and the card-shaped blank are brought together in such a manner that the application segment is inwardly offset with respect to all outer edges of the card-shaped blank , wherein the adhesive layer is detached from a support film on which the adhesive layer is received for support prior to being cut to length in a cutting station and wherein it is subsequently deposited onto a transfer band or onto said support film, once it has been cut to length. - wherein the adhesive layer is provided as a material web the width of which is smaller than a first dimension of the card-shaped blank as measured transversely to the transport direction , wherein - the adhesive layer which is provided as a material web is cut into an application segment the length of which is shorter than a second dimension of the card-shaped blank as measured along the transport direction , - the application segment and the card-shaped blank are brought together in such a manner that the application segment is inwardly offset with respect to all outer edges of the card-shaped blank , wherein the adhesive layer is detached from a support film on which the adhesive layer is received for support prior to being cut to length in a cutting station and wherein it is subsequently deposited onto a transfer band or onto said support film, once it has been cut to length.
A method to diagnose or to prognose inflammation in a mammal comprising the following steps: (i) digesting the total mixture of proteins present in a body fluid with Endoglycosidase S, at a pH higher than 7.4, wherein said body fluid is derived from a mammal and said body fluid consists of blood, serum or plasma, to obtain a profile of N-linked glycans, (ii) determining the ratio between the non-galactosylated glycan GlcNAc(β-1,2)Man(α-1,3)[GlcNAc(β-1,2)Man(α-1,6)]Man(β-1,4)GlcNAc (NGA2F*) and the galactosylated glycan Gal(β-1,4)GlcNAc(β-1,2)Man(α-1,3)[Gal(β-1,4)GlcNAc(β-1,2)Man(α-1,6)]Man(β-1,4)GlcNAc (NA2F*), (iii) attributing at least a more than 5% difference, as compared to the same ratio determined for mammals not suffering from inflammation or the same ratio obtained from mammals suffering from inflammation before receiving therapy, with the presence or prognosis of inflammation. (i) digesting the total mixture of proteins present in a body fluid with Endoglycosidase S, at a pH higher than 7.4, wherein said body fluid is derived from a mammal and said body fluid consists of blood, serum or plasma, to obtain a profile of N-linked glycans, (ii) determining the ratio between the non-galactosylated glycan GlcNAc(β-1,2)Man(α-1,3)[GlcNAc(β-1,2)Man(α-1,6)]Man(β-1,4)GlcNAc (NGA2F*) and the galactosylated glycan Gal(β-1,4)GlcNAc(β-1,2)Man(α-1,3)[Gal(β-1,4)GlcNAc(β-1,2)Man(α-1,6)]Man(β-1,4)GlcNAc (NA2F*), (iii) attributing at least a more than 5% difference, as compared to the same ratio determined for mammals not suffering from inflammation or the same ratio obtained from mammals suffering from inflammation before receiving therapy, with the presence or prognosis of inflammation.
A catalyst structure for exhaust gas treatment comprising a substrate, a lower catalyst layer formed on the substrate, optionally with another layer interposed between the substrate and the lower catalyst layer, and an upper catalyst layer formed on the lower catalyst layer, optionally with another layer interposed between the upper catalyst layer and the lower catalyst layer, the upper catalyst layer and the lower catalyst layer each comprising an inorganic porous material, wherein the inorganic porous material contained in the upper catalyst layer has a different composition than that of the inorganic porous material contained in the lower catalyst layer, in the catalyst structure, a first peak having the highest peak height is present at a fine pore volume diameter of 10 nm to 50 nm and a second peak having the second highest peak height is present at a fine pore volume diameter of 50 nm to 100 nm in the fine pore volume diameter range of 10 nm to 100 nm of the logarithmic differential pore volume distribution analyzed by a mercury intrusion porosimeter, wherein the pore volume diameter means the diameter of the bottom surface when a pore is assumed to approximate a column, and is calculated by the following formula: dr = -4 σcosθ/p, with σ: surface tension, θ: contact angle, p: pressure.