mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transforming a thread twisting and/or spinning machine, particularly a ring thread twisting and/or spinning machine with a single balloon region (a), comprising feeding means of the thread with rollers and conventional guiding means , located at a distance underneath the feeding means , which demarcate the top end of said balloon region (a), and twisting and winding means of said thread perpendicular to a pickup spool , and determining the lower end of the balloon region (a); said method intending to modify the machine in order to increase the height (h) of the aforementioned area of the balloon region (a), between its lower and top end, in order to obtain two or more balloon regions (a), characterised in that it comprises at least • a first step of removing the conventional guiding means of the thread located at a distance underneath the feeding means ; and • a second step of incorporating an additional guiding accessory (3', which now defines the top end, placing it at a point just downstream of the feeding means of the thread, in such a way that the distance between said additional guiding accessory and the twisting and winding means of the thread determine an increase of the height (h) of the area of the balloon region (a), between its lower and top end, which enables two or more balloon regions (a) to be accomodated, wherein the additional guiding accessory consists of a thread lifting mechanism before twisting the thread which guides the thread at the top end of the area of the balloon region and comprises a set of rollers connected to each other along which the thread runs, in such a way that said thread forms a loop just at the outlet of the rollers of the feeding means and in such a way that the said loop lifts the thread above the point where it emerges from said feeding means . • a first step of removing the conventional guiding means of the thread located at a distance underneath the feeding means ; and • a second step of incorporating an additional guiding accessory (3', which now defines the top end, placing it at a point just downstream of the feeding means of the thread, in such a way that the distance between said additional guiding accessory and the twisting and winding means of the thread determine an increase of the height (h) of the area of the balloon region (a), between its lower and top end, which enables two or more balloon regions (a) to be accomodated, wherein the additional guiding accessory consists of a thread lifting mechanism before twisting the thread which guides the thread at the top end of the area of the balloon region and comprises a set of rollers connected to each other along which the thread runs, in such a way that said thread forms a loop just at the outlet of the rollers of the feeding means and in such a way that the said loop lifts the thread above the point where it emerges from said feeding means .
A fluid ejection device comprising: a number of primitives , each receiving a same set of addresses and including: a number of ejection chambers , each corresponding to a different address (A1-AN) of the set of addresses and including: a drive bubble formation mechanism ; and a drive bubble detect (DBD) mechanism ; input logic receiving nozzle column data groups , NCG, each NCG including fire pulse groups , FPG, each FPG including DBD data having an enable value or disable value and ejection data bits , each ejection data bit corresponding to a different one of the primitives ; activation logic , for each FPG of each NCG, to: identify the FPG as a DBD FPG when the DBD data has the enable value, the DBD FPG corresponding to at least one address (A1-AN) of the set of addresses ; and activate in each primitive the drive bubble formation mechanism and the DBD mechanism of the ejection chamber having the same address as the at least one address to which the DBD FPG corresponds to form a drive bubble and to perform a DBD sensing measurement if the corresponding ejection data bit is set. a number of primitives , each receiving a same set of addresses and including: a number of ejection chambers , each corresponding to a different address (A1-AN) of the set of addresses and including: a drive bubble formation mechanism ; and a drive bubble detect (DBD) mechanism ; a number of ejection chambers , each corresponding to a different address (A1-AN) of the set of addresses and including: a drive bubble formation mechanism ; and a drive bubble detect (DBD) mechanism ; a drive bubble formation mechanism ; and a drive bubble detect (DBD) mechanism ; input logic receiving nozzle column data groups , NCG, each NCG including fire pulse groups , FPG, each FPG including DBD data having an enable value or disable value and ejection data bits , each ejection data bit corresponding to a different one of the primitives ; activation logic , for each FPG of each NCG, to: identify the FPG as a DBD FPG when the DBD data has the enable value, the DBD FPG corresponding to at least one address (A1-AN) of the set of addresses ; and activate in each primitive the drive bubble formation mechanism and the DBD mechanism of the ejection chamber having the same address as the at least one address to which the DBD FPG corresponds to form a drive bubble and to perform a DBD sensing measurement if the corresponding ejection data bit is set. identify the FPG as a DBD FPG when the DBD data has the enable value, the DBD FPG corresponding to at least one address (A1-AN) of the set of addresses ; and activate in each primitive the drive bubble formation mechanism and the DBD mechanism of the ejection chamber having the same address as the at least one address to which the DBD FPG corresponds to form a drive bubble and to perform a DBD sensing measurement if the corresponding ejection data bit is set.
A buoyancy control device for scuba diving comprising at least two shoulder straps , each shoulder strap having an upper portion and a lower portion joined by a closing buckle , said buckle comprising a male buckle element and a female buckle element having a first connection means for connecting to said upper portion of said shoulder strap and a second connection means for connecting to said male buckle element ,said female buckle element comprising a first part having said first connection means , a second part having said second connection means , and an articulated connection pin for connecting said first part to said second part , characterized in that said first part and said second part of said female buckle element have cooperating means for opposing the tensile forces (N) of the shoulder strap acting on said female buckle , said cooperating means being operative when said articulated connection pin undergoes an elastic deformation as a result of said tensile forces (N).
Apparatus for handling bars comprising a support plane configured to support a plurality of bars (B) having an oblong development, and handling devices configured to remove a bar (B) from a removal zone of said support plane and to deliver it to a delivery zone , movement devices being associated with said support plane and configured to distribute said bars (B) on said support plane and to move them toward said removal zone , characterized in that it comprises a store provided with a plurality of containing units having an oblong development in a longitudinal direction (L), disposed adjacent with respect to each other in a transverse direction (T) and each of which is configured to house a respective bundle (F) of bars (B), in that said apparatus comprises at least one movement unit configured to move at least one bundle (F) of bars (B) contained in one of the containing units in a direction incident to the support plane , between a first condition located below the support plane and a second condition located above the support plane , and in that at least one of either the support plane or the store is selectively translatable in said transverse direction (T), in order to dispose the support plane and the store at least in a first position in which they at least partly overlap each other and a second position in which they are at least partly adjacent to each other in the transverse direction (T).
A method for manufacturing a semiconductor device, comprising: providing a semiconductor structure, wherein the semiconductor structure comprises: a semiconductor fin and an interlayer dielectric layer covering the semiconductor fin, the interlayer dielectric layer having an opening exposing a first part of the semiconductor fin, forming a data storage layer at a bottom portion and a side surface of the opening; and filling a conductive material layer in the opening on the data storage layer, characterised in that a side surface of the semiconductor fin is an inclined surface, and the first part of the semiconductor fin exposed by the opening is within the inclined surface. providing a semiconductor structure, wherein the semiconductor structure comprises: a semiconductor fin and an interlayer dielectric layer covering the semiconductor fin, the interlayer dielectric layer having an opening exposing a first part of the semiconductor fin, forming a data storage layer at a bottom portion and a side surface of the opening; and filling a conductive material layer in the opening on the data storage layer, characterised in that a side surface of the semiconductor fin is an inclined surface, and the first part of the semiconductor fin exposed by the opening is within the inclined surface.
A barrier polymer composition comprising a talc particulate having a d 50 ranging from 7 μm to 13 μm and a BET surface area equal to or less than 23 m 2 /g, wherein the talc particulate has a d 25 ranging from 4.5 μm to 8.5 μm, wherein the particle size measurements are determine by light scattering according to the description.
A ring oscillator test circuit, comprising: a first voltage input (V1); a second voltage input; a reference voltage input; an odd plurality of stages, each stage (100, 210.1...210.3) comprising: i) a load transistor , comprising a drain connection (LD) electrically connected to said first voltage input (V1), and a source connection; and ii) a drive transistor of a same mode as said load transistor, comprising a drain connection electrically connected to said source connection of said load transistor so as to form a common node, a gate connection, and a source connection (DS) electrically connected to said voltage reference input; and a test output electrically connected to one of said common nodes, wherein said stages are ordered from a first stage to a last stage, said common node (CN) of said last stage is electrically connected to a gate (DG) of said drive transistor of said first stage, and said common node of each other one of said stages is electrically connected to a gate (DG) of a drive transistor of a respective next stage, characterized in that each stage comprises a load gate connection electrically connected to said second voltage input and in that said common node is separate and distinct from said second voltage input. a first voltage input (V1); a second voltage input; a reference voltage input; an odd plurality of stages, each stage (100, 210.1...210.3) comprising: i) a load transistor , comprising a drain connection (LD) electrically connected to said first voltage input (V1), and a source connection; and ii) a drive transistor of a same mode as said load transistor, comprising a drain connection electrically connected to said source connection of said load transistor so as to form a common node, a gate connection, and a source connection (DS) electrically connected to said voltage reference input; and i) a load transistor , comprising a drain connection (LD) electrically connected to said first voltage input (V1), and a source connection; and ii) a drive transistor of a same mode as said load transistor, comprising a drain connection electrically connected to said source connection of said load transistor so as to form a common node, a gate connection, and a source connection (DS) electrically connected to said voltage reference input; and a test output electrically connected to one of said common nodes, wherein said stages are ordered from a first stage to a last stage, said common node (CN) of said last stage is electrically connected to a gate (DG) of said drive transistor of said first stage, and said common node of each other one of said stages is electrically connected to a gate (DG) of a drive transistor of a respective next stage, characterized in that each stage comprises a load gate connection electrically connected to said second voltage input and in that said common node is separate and distinct from said second voltage input.
In a process for separating gases using a membrane containing a molecular sieve, the improvement comprising using as the molecular sieve an ERI framework type molecular sieve having a mole ratio of from 15 to 50 of silicon oxide to aluminum oxide, and having, in its calcined form, an X-ray diffraction substantially as shown in the following Table: 2-Theta d -spacing (nm) Relative Intensity 7.76 ± 0.20 1.138 VS 9.78 ± 0.20 0.904 W 11.79 ± 0.20 0.750 W 13.45 ± 0.20 0.658 VS 14.07 ± 0.20 0.629 W 15.51 ± 0.20 0.571 W 16.61 ± 0.20 0.533 W 19.50 ± 0.20 0.455 W 20.54 ± 0.20 0.432 S 21.39 ± 0.20 0.415 W 23.37 ± 0.20 0.380 M 23.73 ± 0.20 0.375 S 24.92 ± 0.20 0.357 W and wherein the molecular sieve has either a rod-like crystal morphology or a plate crystal morphology.
A method of uploading blockchain data from a sub-institution to a blockchain data storage area via a computer system having a corresponding sub-institution node group and a master institution node, wherein a corresponding master institution is the only one of these institutions authorised to upload data to the blockchain data storage area, wherein the method comprises the following steps: the sub-institution node group receiving a data upload request sent by the sub-institution (S202); the sub-institution node group looking up a node in an idle state in the sub-institution node group according to the data upload request (S204); the sub-institution node group receiving data uploaded by the sub-institution through the node in the idle state and uploading the received data to a blockchain temporary storage area (S206); and the master institution node of the master institution corresponding to the sub-institution downloading the data uploaded by the sub-institution from the temporary storage area, and then uploading the downloaded data to a blockchain data storage area (S208). the sub-institution node group receiving a data upload request sent by the sub-institution (S202); the sub-institution node group looking up a node in an idle state in the sub-institution node group according to the data upload request (S204); the sub-institution node group receiving data uploaded by the sub-institution through the node in the idle state and uploading the received data to a blockchain temporary storage area (S206); and the master institution node of the master institution corresponding to the sub-institution downloading the data uploaded by the sub-institution from the temporary storage area, and then uploading the downloaded data to a blockchain data storage area (S208).
A reticle rack unit comprising: a frame with four uprights and multiple crossbars , the frame having a longest dimension defining a front side and a back side ; four turnstiles (30a..d) mounted to the frame to pivot around a respective rotational axis parallel to the four uprights ; wherein each turnstile (30a..d) defines a plurality of reticle nests sized to hold reticles . a frame with four uprights and multiple crossbars , the frame having a longest dimension defining a front side and a back side ; four turnstiles (30a..d) mounted to the frame to pivot around a respective rotational axis parallel to the four uprights ; wherein each turnstile (30a..d) defines a plurality of reticle nests sized to hold reticles .
A cable holder comprising: a body member including slots formed on side walls for holding cables ; and a locking member located inside the body member and having joints , wherein the joints are snap-fit joints that are configured to lock the cables into the slots ; wherein a cap is attached to the locking member and configured to move the locking member into an open position where the slots are opened to receive the cables and a closed position where the slots are at least partially closed to hold the cables in the slots , and wherein the slots are configured so that the cables can be inserted and clipped into the slots . a body member including slots formed on side walls for holding cables ; and a locking member located inside the body member and having joints , wherein the joints are snap-fit joints that are configured to lock the cables into the slots ; wherein a cap is attached to the locking member and configured to move the locking member into an open position where the slots are opened to receive the cables and a closed position where the slots are at least partially closed to hold the cables in the slots , and wherein the slots are configured so that the cables can be inserted and clipped into the slots .
Treatment agent for a cosmetic powder containing a reactive organosiloxane represented by the following general formula as a main ingredient: wherein each R 1 is independently an alkyl group having 1 to 30 carbon atoms; each R 2 is independently an alkyl group having 1 to 20 carbon atoms; R 3 is a divalent alkylene group having 3 to 18 carbons; n is an integer of 1 to 200; and p is an integer of 1 to 3.
Method for manufacturing a cylindrical can body from a polymer coated metal sheet comprising the steps of producing a circular blank from said polymer coated metal sheet, drawing an initial cup from said blank in a cupping step, redrawing said initial cup into a redrawn cup in a redraw step, wherein the redraw step comprises the following substeps: - positioning the initial cup in line with a cylindrical punch of a redraw apparatus; - clamping the circular bottom part of the initial cup between a ring-shaped redraw sleeve surrounding the punch and the redraw die thereby exerting a blank holder force on the bottom part of the initial cup; - pushing the punch through the hole in the redraw die , thereby reducing the diameter of the initial cup to form the redrawn cup and lifting the redraw sleeve , thereby removing the blank holder force, before the edge of the flange of the initial cup enters the operative part (OP) of the redraw die, thereby pushing the redrawn cup through the redraw die without a blank holder force (BHF) being exerted upon the flange; followed by - wall ironing said redrawn cup into a can body having its final height in a wall ironing step, wherein the wall-ironing is performed by using one or more one ironing rings in the wall ironing step, or - drawing the redrawn cup in a second redraw step to produce a can body having its final height. - positioning the initial cup in line with a cylindrical punch of a redraw apparatus; - clamping the circular bottom part of the initial cup between a ring-shaped redraw sleeve surrounding the punch and the redraw die thereby exerting a blank holder force on the bottom part of the initial cup; - pushing the punch through the hole in the redraw die , thereby reducing the diameter of the initial cup to form the redrawn cup and lifting the redraw sleeve , thereby removing the blank holder force, before the edge of the flange of the initial cup enters the operative part (OP) of the redraw die, thereby pushing the redrawn cup through the redraw die without a blank holder force (BHF) being exerted upon the flange; - wall ironing said redrawn cup into a can body having its final height in a wall ironing step, wherein the wall-ironing is performed by using one or more one ironing rings in the wall ironing step, or - drawing the redrawn cup in a second redraw step to produce a can body having its final height.
An anti-NRlO antibody which has a neutralizing activity, wherein the anti-NR10 antibody is any one of: an antibody comprising a heavy chain variable region which comprises CDR1 comprising the amino acid sequence of SEQ ID NO: 1, CDR2 comprising the amino acid sequence of SEQ ID NO: 2, and CDR3 comprising the amino acid sequence of SEQ ID NO: 3, and comprising a light chain variable region which comprises CDR1 comprising the amino acid sequence of SEQ ID NO: 5, CDR2 comprising the amino acid sequence of SEQ ID NO: 6, and CDR3 comprising the amino acid sequence of SEQ ID NO: 7; an antibody comprising the heavy chain variable region of SEQ ID NO: 4 and comprising the light chain variable region of SEQ ID NO: 8; and an antibody which binds to the same epitope as an epitope bound by the antibody of or , and competes with the antibody of or for binding to NR10. an antibody comprising a heavy chain variable region which comprises CDR1 comprising the amino acid sequence of SEQ ID NO: 1, CDR2 comprising the amino acid sequence of SEQ ID NO: 2, and CDR3 comprising the amino acid sequence of SEQ ID NO: 3, and comprising a light chain variable region which comprises CDR1 comprising the amino acid sequence of SEQ ID NO: 5, CDR2 comprising the amino acid sequence of SEQ ID NO: 6, and CDR3 comprising the amino acid sequence of SEQ ID NO: 7; an antibody comprising the heavy chain variable region of SEQ ID NO: 4 and comprising the light chain variable region of SEQ ID NO: 8; and an antibody which binds to the same epitope as an epitope bound by the antibody of or , and competes with the antibody of or for binding to NR10.
A turbo pump vent assembly , comprising: a primary manual actuator operable to deliver an initial volume of air (90A, 90B1, 90B2, 90C) to a turbo pump ; and a secondary manual actuator operable to deliver a secondary volume of air to said turbo pump, wherein said secondary volume of air is greater than said initial volume of air, wherein said primary manual actuator has a vent position where said initial volume of air is delivered to said turbo pump and a decoupled position where said initial volume of air is prevented from being delivered to said turbo pump, and wherein a source of said initial volume of air (90A, 90B1, 90B2, 90C) comprises a reservoir operable to retain a stored volume of air when in said decoupled position and to deliver said stored volume of air as said initial volume of air to said turbo pump when in said vent position. a primary manual actuator operable to deliver an initial volume of air (90A, 90B1, 90B2, 90C) to a turbo pump ; and a secondary manual actuator operable to deliver a secondary volume of air to said turbo pump, wherein said secondary volume of air is greater than said initial volume of air, wherein said primary manual actuator has a vent position where said initial volume of air is delivered to said turbo pump and a decoupled position where said initial volume of air is prevented from being delivered to said turbo pump, and wherein a source of said initial volume of air (90A, 90B1, 90B2, 90C) comprises a reservoir operable to retain a stored volume of air when in said decoupled position and to deliver said stored volume of air as said initial volume of air to said turbo pump when in said vent position.