mhurhangee/patent-ind-claim-en huggingface dataset:
A foam formulation comprising: a polyol composition including: a high functionality polyether polyol having average hydroxyl functionality greater than 5.0, that is from 20 to 60 weight percent of a total weight of the polyol composition; an aromatic polyether polyol that is from 5 to 15 weight percent of the total weight of the polyol composition; an amine initiated aliphatic polyether polyol that is from 3 to 10 weight percent of the total weight of the polyol composition; a diol that is from 20 to 60 weight percent of the total weight of the polyol composition, wherein the polyol composition has an average hydroxyl functionality from 3.7 to 6.0; and an isocyanate, wherein the foam formulation forms a foam having a molecular weight per cross-link from 475 to 520. a high functionality polyether polyol having average hydroxyl functionality greater than 5.0, that is from 20 to 60 weight percent of a total weight of the polyol composition; an aromatic polyether polyol that is from 5 to 15 weight percent of the total weight of the polyol composition; an amine initiated aliphatic polyether polyol that is from 3 to 10 weight percent of the total weight of the polyol composition; a diol that is from 20 to 60 weight percent of the total weight of the polyol composition, wherein the polyol composition has an average hydroxyl functionality from 3.7 to 6.0; and an isocyanate, wherein the foam formulation forms a foam having a molecular weight per cross-link from 475 to 520.
A dental cleaning appliance comprising: a head ; a handle ; a stem extending between the head and the handle ; and a fluid delivery system comprising a nozzle for delivering a burst of working fluid to the teeth of a user, and a moveable fluid conduit which is moveable relative to the handle , the nozzle being moveable with the fluid conduit , the fluid conduit being biased for movement in a direction which urges the nozzle against a user's teeth during use of the appliance; wherein the nozzle protrudes from the head , characterised in that the stem houses at least part of the moveable fluid conduit . a head ; a handle ; a stem extending between the head and the handle ; and a fluid delivery system comprising a nozzle for delivering a burst of working fluid to the teeth of a user, and a moveable fluid conduit which is moveable relative to the handle , the nozzle being moveable with the fluid conduit , the fluid conduit being biased for movement in a direction which urges the nozzle against a user's teeth during use of the appliance; wherein the nozzle protrudes from the head , characterised in that the stem houses at least part of the moveable fluid conduit .
A device for placing in a cardiac valve to assist operation of natural cardiac valve leaflets, the device comprising: a frame for anchoring the device, configured to be placed upstream of the cardiac annulus and shaped to prevent the frame from shifting downstream of the cardiac valve annulus, the frame comprising a D-shaped annulus; and at least one anchor extension attached to the frame at a position corresponding to a location of a commissure of the cardiac valve, the anchor extension configured to extend downstream between the natural leaflets of the cardiac valve at the commissures of the cardiac valve, the anchor extension being long enough to extend, when the device is placed in a heart, to reach downstream of a plane representing a free edge of the natural leaflets, change direction away from a line parallel to a direction of blood flow through the device, and extend back upstream toward a plane corresponding to a plane of the natural annulus, preventing the anchor extensions from shifting back from the downstream side of the annulus to the upstream side of the annulus. a frame for anchoring the device, configured to be placed upstream of the cardiac annulus and shaped to prevent the frame from shifting downstream of the cardiac valve annulus, the frame comprising a D-shaped annulus; and at least one anchor extension attached to the frame at a position corresponding to a location of a commissure of the cardiac valve, the anchor extension configured to extend downstream between the natural leaflets of the cardiac valve at the commissures of the cardiac valve, the anchor extension being long enough to extend, when the device is placed in a heart, to reach downstream of a plane representing a free edge of the natural leaflets, change direction away from a line parallel to a direction of blood flow through the device, and extend back upstream toward a plane corresponding to a plane of the natural annulus, preventing the anchor extensions from shifting back from the downstream side of the annulus to the upstream side of the annulus.
Attachment system for plasterboard, characterized in that it comprises at least a plate made in a single piece of plastic material, having a large support surface and able to be positioned on a first side of a plasterboard wall , and at least a counter-plate made in a single piece of metal material, able to be positioned on a second side of the plasterboard wall , opposite said first side , and able to be screwed to a support element associated with said plate , said plate being provided with at least a bushing or plate hub integrated in it and able to be inserted into a through hole made in the plasterboard wall , said bushing or plate hub being provided with a through hole through which said support element can pass, said counter-plate being configured to rotate with respect to said support element from at least a position of insertion in said plasterboard wall to at least a resting position on one said second side , obtained following the screwing and clamping of the support element , wherein said bushing and said hole made in the plasterboard wall are of a substantially circular shape, wherein said bushing has an external diameter (D) comprised between 20 mm and 50 mm and preferably equal to about 35 mm.
A method for establishing a trusted computing cluster (Rc), wherein the method is used to form a trusted computing cluster by using N trusted computing units (N1, N2, ... Nn), the method comprising: grouping (S101) the N trusted computing units into a plurality of groups, each group of the plurality of groups including a number of trusted computing units not greater than K+1, K being a maximum number of trusted computing units with which a trusted computing unit of the N trusted computing unit simultaneously performs trust authentication; identifying (S102) a first trusted computing unit in each group, and causing first trusted computing units in the plurality of groups to each respectively perform inter-unit trust authentication with other trusted computing units in a same group in parallel; performing (S103) inter-group trust authentication between/among the plurality of groups in parallel to obtain the N trusted computing units on which trust authentication succeeds; and propagating (S104) secret information in the trusted computing units on which trust authentication succeeds, so that the trusted computing units on which trust authentication succeeds obtain the same secret information to form the trusted computing cluster. grouping (S101) the N trusted computing units into a plurality of groups, each group of the plurality of groups including a number of trusted computing units not greater than K+1, K being a maximum number of trusted computing units with which a trusted computing unit of the N trusted computing unit simultaneously performs trust authentication; identifying (S102) a first trusted computing unit in each group, and causing first trusted computing units in the plurality of groups to each respectively perform inter-unit trust authentication with other trusted computing units in a same group in parallel; performing (S103) inter-group trust authentication between/among the plurality of groups in parallel to obtain the N trusted computing units on which trust authentication succeeds; and propagating (S104) secret information in the trusted computing units on which trust authentication succeeds, so that the trusted computing units on which trust authentication succeeds obtain the same secret information to form the trusted computing cluster.
Method for determining the mutual compatibility of two components to be connected to each other, wherein - the first component is equipped with a three-dimensional security-marking piece, which consists of a metal-alloy piece, which is able to change its shape or magnetic properties due to the effect of a magnetic field, heat, thermal radiation, mechanical force, or a combination of these, - the second component is connected to the first component by means of an operating device, which is able to produce a magnetic field, heat, a thermal-radiation effect, a mechanical force, or a combination of these, - the first and second components are brought into the immediate vicinity of each other, - the operating device of the second component is used to direct to the metal-alloy piece of the first component a magnetic field, heat, a thermal-radiation effect, a mechanical force, or a combination of these, in order to change the three-dimensional shape or magnetic properties of the security-marking piece, - the change in the shape or properties of the security-marking piece is determined, and - the components are determined to be compatible, if the change in shape or magnetic properties exceeds a predefined limit value, wherein the connection of the first and the second components to each other is possible only if the security-marking piece is in a deformation state, or, one component is a machine or device, and the other component is a replaceable part of the machine or device, and wherein the metal alloy consists of an NiMnGa alloy, which possibly contains one or more additional metals, which are, for example, Co, Fe, Cu, In, or Sn. - the first component is equipped with a three-dimensional security-marking piece, which consists of a metal-alloy piece, which is able to change its shape or magnetic properties due to the effect of a magnetic field, heat, thermal radiation, mechanical force, or a combination of these, - the second component is connected to the first component by means of an operating device, which is able to produce a magnetic field, heat, a thermal-radiation effect, a mechanical force, or a combination of these, - the first and second components are brought into the immediate vicinity of each other, - the operating device of the second component is used to direct to the metal-alloy piece of the first component a magnetic field, heat, a thermal-radiation effect, a mechanical force, or a combination of these, in order to change the three-dimensional shape or magnetic properties of the security-marking piece, - the change in the shape or properties of the security-marking piece is determined, and - the components are determined to be compatible, if the change in shape or magnetic properties exceeds a predefined limit value,
Machine for preparing a beverage, comprising a pressurized water supply , a boiler for heating the water, an infusion unit comprising an infusion chamber , a hydraulic circuit (20a - 20e) fluidically connecting said pressurized water supply with said boiler and said infusion unit; a control unit adapted to control the delivery of the beverage from said infusion chamber, the machine further comprising a variable-flow valve and valve driving means to drive said valve, said valve being positioned on said hydraulic circuit upstream of the infusion chamber , said valve driving means comprising a manually operable device , characterized in that said manually operable device is combined with a device adapted to detect the position of the manually operable device with respect to a path and to send a signal indicative of the detected position to said control unit and said control unit is programmed to generate and store at least one profile of said positions of said manual device .
A method for preventing a wireless access point, WAP, from performing unnecessary dynamic frequency selection, DFS, the method comprising: receiving, by a processor, a radio-frequency, RF, signal on a first channel of the WAP; determining , by a processor, a signal-to-noise ratio, SNR, of a frequency spectrum derived from a portion of the received RF signal, the determining an SNR comprising: identifying a pulse within the portion of the received RF signal; determining a signal portion of a Power Spectrum Density, PSD, of the pulse; determining a noise portion of the PSD that does not overlap with the signal portion; computing a signal power for the signal portion of the PSD; computing a noise power for the noise portion of the PSD; and calculating the SNR as the ratio of the signal power to the noise power; comparing , by a processor, the SNR to an on-channel threshold associated with the first channel, wherein the SNR does not exceed the on-channel threshold for a received RF signal transmitted by an RF source operating on a second channel different from the first channel; and in response to the comparison, preventing the WAP, operating on the first channel, from performing a DFS operation, which causes the wireless access point to tune to another channel. identifying a pulse within the portion of the received RF signal; determining a signal portion of a Power Spectrum Density, PSD, of the pulse; determining a noise portion of the PSD that does not overlap with the signal portion; computing a signal power for the signal portion of the PSD; computing a noise power for the noise portion of the PSD; and calculating the SNR as the ratio of the signal power to the noise power; determining a signal portion of a Power Spectrum Density, PSD, of the pulse; determining a noise portion of the PSD that does not overlap with the signal portion; computing a signal power for the signal portion of the PSD; computing a noise power for the noise portion of the PSD; and calculating the SNR as the ratio of the signal power to the noise power; comparing , by a processor, the SNR to an on-channel threshold associated with the first channel, wherein the SNR does not exceed the on-channel threshold for a received RF signal transmitted by an RF source operating on a second channel different from the first channel; and in response to the comparison, preventing the WAP, operating on the first channel, from performing a DFS operation, which causes the wireless access point to tune to another channel.
Door for a caravan or a motorhome having a closure device , wherein the closure device has a locking element which engages in a mating locking piece in the closed position (S), wherein the locking element and the mating locking piece are designed in such a way that they interact as a push-push lock, wherein the locking element or the mating locking piece is arranged on the end side of the door leaf (2.1) and wherein the locking element and the mating locking piece are covered by the door leaf (2.1) when the door is closed, characterized in that the locking element is spring-mounted in the radial and axial direction.
Apparatus for the formation of products comprising an edible material, preferably meat, and an interleaver, which comprises a drum with mould cavities in which the edible material is formed, wherein the cavities comprises a bottom and/or a sidewall made from a porous material through which pressurized gas is forced to eject the edible product from the cavities, further comprising an interleaver storage and means to transport the interleaver from the storage to the circumference of the drum where the product is placed on the interleaver or vice versa, wherein the speed of the means is controlled by a controller in order to place the interleaver in the exact location where the formed material is discharged and/or to adjust the speed of motion of the interleaver to the same speed of rotation of the drum and wherein the transport means comprise vacuum means configured to attach the interleaver to said transport means , characterized in, that the means to transport the interleaver is a carriage with a linear drive .
Vehicle with at least one electrochemical energy store , which energy store comprises at least one means for temperature control, wherein the means for temperature control is formed by at least one heat exchanger integrated in a housing of the at least one electrochemical energy store , which heat exchanger is connected to at least two temperature control fluid circuits of the vehicle , wherein at least one temperature control fluid circuit is formed by a high-temperature circuit (HT) and at least one further temperature control fluid circuit is formed by a low-temperature circuit (NT) of the vehicle , characterized in that the high-temperature circuit (HT) is formed by a cooling circuit of a fuel cell arrangement, or is integrated in such a circuit.
Stator assembly comprising a housing and a stator which are concentric, the stator being mounted radially inside the housing , the stator assembly comprising fastening elements mounted between a radial inner surface of the housing and a radial outer surface of the stator and which exert a radial fastening force (F) on the housing and the stator , wherein: - the inner radial surface of the housing and the outer radial surface of the stator comprise respective recesses for receiving the fastening elements , - the fastening elements have a global cylindrical shape defining an outer cylindrical surface of a diameter (D70) which is superior to a maximal distance (D1) extending between the recesses of the inner radial surface of the housing and the recesses of the outer radial surface of the stator , - the fastening elements have a flat longitudinal surface which truncates their outer cylindrical surface , characterised in that - the fastening elements are adapted to be rotated around their longitudinal axis between a first position, in which the flat longitudinal surface faces the recess of the housing so that the fastening elements can be inserted between the housing and the stator , and a second position, in which the flat longitudinal surface faces the recess of the stator while a portion of the outer cylindrical surface is in contact with the recess of the housing so that the radial force (F) is exerted. - the inner radial surface of the housing and the outer radial surface of the stator comprise respective recesses for receiving the fastening elements , - the fastening elements have a global cylindrical shape defining an outer cylindrical surface of a diameter (D70) which is superior to a maximal distance (D1) extending between the recesses of the inner radial surface of the housing and the recesses of the outer radial surface of the stator , - the fastening elements have a flat longitudinal surface which truncates their outer cylindrical surface , - the fastening elements are adapted to be rotated around their longitudinal axis between a first position, in which the flat longitudinal surface faces the recess of the housing so that the fastening elements can be inserted between the housing and the stator , and a second position, in which the flat longitudinal surface faces the recess of the stator while a portion of the outer cylindrical surface is in contact with the recess of the housing so that the radial force (F) is exerted.
A take-up unit for a circular knitting machine adapted to collect a knitted fabric knitted by a knitting unit of a circular knitting machine , the take-up unit comprising: a base provided at a bottom portion of the take-up unit ; side members respectively provided on both ends of the base ; a take-up roller rotatably provided between the two side members ; two arm rotation shafts rotatably connected respectively to opposing surfaces of the two side members ; two arms provided so as to be rotatable parallel to each other about the two arm rotation shafts ; a drive roller provided between the two arms so as to be rotationally driven; and a roller drive device adapted to rotationally drive the drive roller ; an arm drive device ; and a stopper that is provided on a rotational trajectory of the arms and the drive roller , and arranged to come into contact with each of the arms or with the drive roller to stop rotation of the arms and the drive roller , characterized in that the arm drive device is connected to the arm rotation shafts , the arm drive device being capable of driving the arm rotations shaft , and rotating the arms with a constant torque selectively in either a forward direction or a backward direction, the forward direction being a direction in which the drive roller moves toward the take-up roller , and the backward direction being a direction in which the drive roller moves away from the take-up roller . . a base provided at a bottom portion of the take-up unit ; side members respectively provided on both ends of the base ; a take-up roller rotatably provided between the two side members ; two arm rotation shafts rotatably connected respectively to opposing surfaces of the two side members ; two arms provided so as to be rotatable parallel to each other about the two arm rotation shafts ; a drive roller provided between the two arms so as to be rotationally driven; and a roller drive device adapted to rotationally drive the drive roller ; an arm drive device ; and a stopper that is provided on a rotational trajectory of the arms and the drive roller , and arranged to come into contact with each of the arms or with the drive roller to stop rotation of the arms and the drive roller , characterized in that the arm drive device is connected to the arm rotation shafts , the arm drive device being capable of driving the arm rotations shaft , and rotating the arms with a constant torque selectively in either a forward direction or a backward direction, the forward direction being a direction in which the drive roller moves toward the take-up roller , and the backward direction being a direction in which the drive roller moves away from the take-up roller . .
A method of forming a flux regulated machine comprising the steps of: winding stator windings into slots in an outer core having a plurality of radially inwardly extending tooth pieces that are circumferentially spaced, and which define the slots; winding control coils around an inner core ; and characterized by : inserting said inner core radially within said outer core such that said tooth pieces contact said inner core, and such that said control coils extend circumferentially across said slots to close the slots; wherein said inner core is formed of a magnetic material different from that of said outer core; wherein said tooth pieces have radially innermost surfaces which are at an angle that is non-perpendicular to a radial direction through the tooth piece, said inner core having mating surfaces. winding stator windings into slots in an outer core having a plurality of radially inwardly extending tooth pieces that are circumferentially spaced, and which define the slots; winding control coils around an inner core ; and characterized by : inserting said inner core radially within said outer core such that said tooth pieces contact said inner core, and such that said control coils extend circumferentially across said slots to close the slots; wherein said inner core is formed of a magnetic material different from that of said outer core; wherein said tooth pieces have radially innermost surfaces which are at an angle that is non-perpendicular to a radial direction through the tooth piece, said inner core having mating surfaces.
An inhibitor of Secreted Modular Calcium-binding protein 2 (SMOC2) for use in prophylactic treatment of kidney fibrosis in a subject, wherein the inhibitor is an monoclonal antibody or antigen binding portion thereof that binds specifically to SMOC2 or an inhibitory nucleic acid that targets a SMOC2 transcript.