mhurhangee/ep-ind-claims huggingface dataset:
An ultraviolet curable transfer coating comprising: a multifunctional acrylate oligomer; and an acrylate monomer; wherein the ultraviolet curable transfer coating includes a total weight, wherein 30 % to 80 % of the total weight comprises the multifunctional acrylate oligomer, and wherein 15% to 65% of the total weight comprises the acrylate monomer; wherein the ultraviolet curable transfer coating can adhere to a polycarbonate substrate with an adhesion strength of greater than or equal to 3B as measured according to ASTM D3359. a multifunctional acrylate oligomer; and an acrylate monomer; wherein the ultraviolet curable transfer coating includes a total weight, wherein 30 % to 80 % of the total weight comprises the multifunctional acrylate oligomer, and wherein 15% to 65% of the total weight comprises the acrylate monomer; wherein the ultraviolet curable transfer coating can adhere to a polycarbonate substrate with an adhesion strength of greater than or equal to 3B as measured according to ASTM D3359.
A computer based method comprising the steps of: receiving a 3D geometric model of a part, the geometric model comprising a boundary shape; pre-processing the geometric model to produce a variable-void distance field; pre-processing the geometric model to produce a frozen distance field representing the boundary shape; apportioning the geometric model into a plurality of voxels; adjusting a density value for each voxel of the plurality of voxels according to an optimization process; extracting an extracted iso-surface mesh from the voxel data; generating an extracted iso-surface distance field from the extracted iso-surface mesh; deriving a distance field intersection between the iso-surface distance field and the variable-void distance field; performing a distance field union between the distance field intersection and the frozen distance field; and producing a result iso-surface mesh from the distance field union; wherein pre-processing the geometric model to produce a variable-void distance field further comprises the steps of: defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void distance field from the variable-void model. receiving a 3D geometric model of a part, the geometric model comprising a boundary shape; pre-processing the geometric model to produce a variable-void distance field; pre-processing the geometric model to produce a frozen distance field representing the boundary shape; apportioning the geometric model into a plurality of voxels; adjusting a density value for each voxel of the plurality of voxels according to an optimization process; extracting an extracted iso-surface mesh from the voxel data; generating an extracted iso-surface distance field from the extracted iso-surface mesh; deriving a distance field intersection between the iso-surface distance field and the variable-void distance field; performing a distance field union between the distance field intersection and the frozen distance field; and producing a result iso-surface mesh from the distance field union; wherein pre-processing the geometric model to produce a variable-void distance field further comprises the steps of: defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void distance field from the variable-void model. defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void distance field from the variable-void model.
A method of transmitting from a user equipment, UE with semi persistent scheduling, SPS, comprising: receiving, by the UE from a network entity, an SPS configuration for the UE, wherein the SPS configuration includes a SPS-radio network temporary identifier, SPS-RNTI and a periodicity; receiving, by the UE from the network entity, allocation information for the UE based at least on the SPS-RNTI, wherein the allocation information includes a subcarrier spacing configuration; and transmitting, from the UE to the network entity, based at least on the subcarrier spacing configuration. receiving, by the UE from a network entity, an SPS configuration for the UE, wherein the SPS configuration includes a SPS-radio network temporary identifier, SPS-RNTI and a periodicity; receiving, by the UE from the network entity, allocation information for the UE based at least on the SPS-RNTI, wherein the allocation information includes a subcarrier spacing configuration; and transmitting, from the UE to the network entity, based at least on the subcarrier spacing configuration.
A heat-bondable conjugate fiber comprising a first component containing a polyester-based resin and a second component containing a polyolefin-based resin having a melting point lower by 15°C or more than the melting point of said polyester-based resin, wherein said second component is a heat-bondable conjugate fiber accounting for 30% or more of the outer fiber circumference in the fiber cross-section intersecting the length direction of the fiber and having a side-by-side or eccentric sheath-core structure and the fiber has an elongation of 50 to 120%, a three-dimensional actualized crimp with 10 to 20 crests/2.54 cm and a crimp modulus of 85 to 100%, wherein the crimp modulus is determined according to the method specified herein.
A dosing device for dosing a service liquid in a water stream discharged from a flushing tank, comprising a reservoir for a service liquid; a dosing chamber communicating with the reservoir for receiving a dose of service liquid from the reservoir through an opening; a movable piston housed in the dosing chamber; a water supply pipe, connectable to a filling valve of the tank; the dosing device being characterized in that the movable piston is operated by an expandable bellows and the water supply pipe is connectable to the filling valve of the tank for feeding water to the bellows so as to expand the bellows and consequently move the piston in the dosing chamber and push service liquid from the dosing chamber into a delivery pipe of service liquid connectable to an overflow pipe of the tank.
A process for producing an aldehyde derivative of a sialic acid in which a starting material having a sialic acid unit at the reducing terminal and a terminal saccharide unit at the non-reducing end which has a vicinal diol group is subjected to the sequential steps of: a) preliminary selective oxidation to oxidise the vicinal diol group to an aldehyde b) reduction to reductively open the ring at the reducing terminal sialic acid unit, whereby a vicinal diol group is formed, and wherein the aldehyde formed in step a) is also reduced to form a hydroxy group which is not part of a vicinal diol group; and c) selective oxidation to oxidise the vicinal diol group formed in step b) to form an aldehyde group. a) preliminary selective oxidation to oxidise the vicinal diol group to an aldehyde b) reduction to reductively open the ring at the reducing terminal sialic acid unit, whereby a vicinal diol group is formed, and wherein the aldehyde formed in step a) is also reduced to form a hydroxy group which is not part of a vicinal diol group; and c) selective oxidation to oxidise the vicinal diol group formed in step b) to form an aldehyde group.
A method for the line-based high precision temporal synchronization of measured value acquisitions in a spatial coordinate measuring machine (40, 50, 60) comprising a plurality of, in particular spatially distributed, measuring subunits (81a,81b), and having a line for a trigger signal, comprising: ▪ signaling an instant for triggering the measured value acquisition by means of a trigger signal provided over the line at a trigger signal input (82a,82b) of the respective measuring subunit (81a,81b), and ▪ respectively acquiring and buffer-storing a measured value in the measuring subunit at the instant determined by the trigger signal, wherein the measured value is acquired in the measuring subunits in each case in a time-quantified manner with a local clock signal (11, 13) of the measuring subunit, characterized by phase synchronization of the local clock signals (11, 13) of the measuring subunits, the local clock signals time-quantizing the physical measured value acquisition, by means of a line-based clock synchronization signal, which is provided with a further signal as common signal (20, 120, 220, 320, 420, 520, 620) via a common signal line, for ensuring simultaneity of acquiring the measured value in the measuring subunits with a temporal uncertainty which is in any case less than 90% of a period duration of the local clock signal, in particular less than half a period duration, preferably less than one fifth of the period duration. ▪ signaling an instant for triggering the measured value acquisition by means of a trigger signal provided over the line at a trigger signal input (82a,82b) of the respective measuring subunit (81a,81b), and ▪ respectively acquiring and buffer-storing a measured value in the measuring subunit at the instant determined by the trigger signal, wherein the measured value is acquired in the measuring subunits in each case in a time-quantified manner with a local clock signal (11, 13) of the measuring subunit,
A ferry slip comprising a vehicle driveway (41,42) arranged on a quayside, wherein the ferry slip comprises an elongate fluid cylinder unit connected to the quayside and extending longitudinally away from the quayside in a seawards direction (x), the fluid cylinder unit having a support element at its seawards end, characterized in that the support element is configured to be brought into contact with a ferry approaching the ferry slip, and the fluid cylinder unit is fluidly connected to an accumulator unit via a fluid distribution system, whereby the ferry slip is configured to bring the ferry to a standstill.
A method for obtaining cement-based panel comprising cement and water, characterized by comprising the steps of; determining material formulation according to the intended use and the desired mechanical properties of panel to be produced, in which dry materials are weighed, the dry materials are mixed in a mixer, some amount of water is added into the dry mix, additives and liquid materials are mixed with the remaining amount of water in a separate tank, this liquid mix is added into and mixed with the solid mix, and fibers are introduced into the final mix for preparing said material, preparing the material mix, obtaining a thin panel by passing the material of the cement-based panel through between at least one compressive roller set comprising at least two rollers, transferring said thin panel to at least one final roller set, comprising at least two rollers, without using any pallet, and is passed through said final roller set, spreading fibers between freshly prepared panels flattened through different rollers and laying said panels in a superimposed manner and passing said panels through said roller set again at least once, so that the fibers are embedded into the matrix/material in the desired direction.
Electrical connection, having a planar underside, for electrical devices provided on windows in motor vehicles, such as heating arrays, aerials or the like, having a terminal strip and at least one crimp connection having a planar soldering pad to be soldered to the window, and a crimp attached thereto which secures an electric cable in the crimp connection, wherein the at least one crimp connection is immovably inserted in an opening in the terminal strip adapted to the outer contour of said crimp connection and can be attached thereto by soldering the soldering pad to the window, the clamping strip comprising plastics, being of two-part configuration and being configured to be foldable with its two parts (62, 63) along a film hinge so that each crimp connection used is able to project outwardly through the opening with its flat soldering pad, and in the folded-up state leaves only the electric cable or the crimp between the two parts free, the two parts (62, 63) of the clamping strip in the folded-up state being secured by means of a locking bar and an inclined surface behind which the latter engages, characterised in that at one end the clamping strip is provided with a plug extending parallel to the underside, said plug having a pawl, and at its other opposite end, the clamping strip is provided with a plug opening comprising a latching pin, the plug opening being formed partially by the locking bar on one of the two parts (62, 63) of the terminal strip and for the rest by the area surrounding the latching pin on the other one of the two parts (62, 63) of the clamping strip.
Striking mechanism including a striking mechanism unit and a minute repeater that can be actuated by the user by pressing on a push piece which presses a first minute repeater control lever, for a timepiece including a timepiece movement, which in turn includes a motion work, which drives a release cam, which, in automatic operation, causes a release lever to pivot towards a detent ratchet comprised in said striking mechanism unit, which is arranged, when a strike is actuated, to drive a plate carrying a winding cam, said striking mechanism including a safety mechanism protecting against any inadvertent actuations of said minute repeater, characterized in that said striking mechanism is arranged to cooperate with said first lever, characterized in that said safety mechanism includes a pivoting bolt, returned by a spring, and a second pivoting safety lever, the pivoting of which is controlled by said first lever, when the minute repeater is set in motion, said second lever including a catch which, in a locked position, is arranged to cooperate with a finger comprising said pivoting bolt, to prevent the minute repeater from being released again once set in motion, and further characterized in that said minute repeater comprises means arranged to release said pivoting bolt only after the full completion of a strike cycle for time display.
A guanidine-functionalized silica gel particle, comprising: a silica gel particle comprising at least one ligand comprising a guanidine group, the ligand comprising the formula -O n Si-S m -G, where -O is an oxygen atom that is covalently bonded to the surface of the silica gel particle, n is 1, 2 or 3, S is a spacer group comprising a backbone with m atoms, m is 2-16, inclusive, G is a guanidine group of the formula NH-C -NH 2, and wherein the guanidine group is charged and comprises an associated counterion and wherein the counterion does not comprise a halogen. where -O is an oxygen atom that is covalently bonded to the surface of the silica gel particle, n is 1, 2 or 3, S is a spacer group comprising a backbone with m atoms, m is 2-16, inclusive, G is a guanidine group of the formula NH-C -NH 2, and wherein the guanidine group is charged and comprises an associated counterion and wherein the counterion does not comprise a halogen.
A computer-implemented method comprising: providing, by a server, for display a user interface identifying a mobile device (103, 104) of a user and at least one ancillary device belonging to the user, and permitting the user to select communications services to be temporarily disabled by the server in response to activation of a do-not-disturb mode and applied across the mobile device (103, 104) of the user and the at least one ancillary device belonging to the user, receiving, by the server, a do not-disturb notification by the mobile device (103, 104) of the user indicating that the mobile device (103, 104) has activated the do-not-disturb mode; and when the mobile device (103, 104) has activated the do-not-disturb mode, causing, by the server, at least one communications feature from among the communications services selected by the user and accessible on the at least one ancillary device to be temporarily disabled by the server, wherein the do-not-disturb notification by the mobile device (103, 104) is based on a first physical orientation of the mobile device (103, 104), wherein the first physical orientation of the mobile device (103, 104) comprises an orientation in which a display screen of the mobile device (103, 104) is downwardly facing and the mobile device (103, 104) is stationary, and wherein the server sends to one or more services or servers associated with the mobile device or the user a broadcast message indicating that the mobile device is in a do-not-disturb mode. providing, by a server, for display a user interface identifying a mobile device (103, 104) of a user and at least one ancillary device belonging to the user, and permitting the user to select communications services to be temporarily disabled by the server in response to activation of a do-not-disturb mode and applied across the mobile device (103, 104) of the user and the at least one ancillary device belonging to the user, receiving, by the server, a do not-disturb notification by the mobile device (103, 104) of the user indicating that the mobile device (103, 104) has activated the do-not-disturb mode; and when the mobile device (103, 104) has activated the do-not-disturb mode, causing, by the server, at least one communications feature from among the communications services selected by the user and accessible on the at least one ancillary device to be temporarily disabled by the server, wherein the do-not-disturb notification by the mobile device (103, 104) is based on a first physical orientation of the mobile device (103, 104), wherein the first physical orientation of the mobile device (103, 104) comprises an orientation in which a display screen of the mobile device (103, 104) is downwardly facing and the mobile device (103, 104) is stationary, and wherein the server sends to one or more services or servers associated with the mobile device or the user a broadcast message indicating that the mobile device is in a do-not-disturb mode.
A powder comprising: - a coarse fraction representing more than 60% and less than 85% of the powder, as percentage by weight based on the oxides, and consisting of particles exhibiting a size of greater than or equal to 50 μm, referred to as "coarse particles", the powder comprising more than 20% of coated grains exhibiting a size of greater than or equal to 50 μm, as percentage by weight based on the oxides of the powder, and - a fine fraction, forming the remainder to 100% as percentage by weight based on the oxides, consisting of particles exhibiting a size of less than 50 μm, referred to as "matrix particles", said coated grains each comprising: - a base grain consisting, for more than 90% of its weight, of oxides and comprising more than 50% by weight of mullite; - a coating extending over more than 50% of the surface of said base grain and consisting, for more than 90% of its weight, of a coating material chosen from: - alumina; - CaSiO 3; - lanthanide, Ta, Ti, Sc, Y, Mg, Mo aluminates and their mixtures; - lanthanide, Sc, Y, Zr, Hf silicates and their mixtures; - oxides of one or more elements chosen from Ti, Sc, Y, Yb, Mg, Ce, Mo, Zr and Hf; - lanthanide and/or Y and/or Sc phosphates; - and their mixtures. - a coarse fraction representing more than 60% and less than 85% of the powder, as percentage by weight based on the oxides, and consisting of particles exhibiting a size of greater than or equal to 50 μm, referred to as "coarse particles", the powder comprising more than 20% of coated grains exhibiting a size of greater than or equal to 50 μm, as percentage by weight based on the oxides of the powder, and - a fine fraction, forming the remainder to 100% as percentage by weight based on the oxides, consisting of particles exhibiting a size of less than 50 μm, referred to as "matrix particles", - a base grain consisting, for more than 90% of its weight, of oxides and comprising more than 50% by weight of mullite; - a coating extending over more than 50% of the surface of said base grain and consisting, for more than 90% of its weight, of a coating material chosen from: - alumina; - CaSiO 3; - lanthanide, Ta, Ti, Sc, Y, Mg, Mo aluminates and their mixtures; - lanthanide, Sc, Y, Zr, Hf silicates and their mixtures; - oxides of one or more elements chosen from Ti, Sc, Y, Yb, Mg, Ce, Mo, Zr and Hf; - lanthanide and/or Y and/or Sc phosphates; - and their mixtures. - alumina; - CaSiO 3; - lanthanide, Ta, Ti, Sc, Y, Mg, Mo aluminates and their mixtures; - lanthanide, Sc, Y, Zr, Hf silicates and their mixtures; - oxides of one or more elements chosen from Ti, Sc, Y, Yb, Mg, Ce, Mo, Zr and Hf; - lanthanide and/or Y and/or Sc phosphates; - and their mixtures.
A display device comprising: display pixels comprising light emitting elements arranged in a display area of a display panel and pixel drivers (DDU1, DDU2, DDU3) connected to the light emitting elements; light sensing pixels comprising light sensing elements arranged in the display area and sensing drivers connected to the light sensing elements; a display scan driver configured to sequentially supply display scan signals to the pixel drivers (DDU1, DDU2, DDU3); a light sensing driver configured to sequentially supply sensing scan signals (FSp) to the sensing drivers; a blood pressure detection circuit configured to measure a blood pressure of a user using light sensing signals received from the sensing drivers; and a display driving circuit configured to supply control signals to the display scan driver and the light sensing driver to control a light sensing signal detection timing of the light sensing pixels when a mode of the display device is switched to a blood pressure measurement mode. display pixels comprising light emitting elements arranged in a display area of a display panel and pixel drivers (DDU1, DDU2, DDU3) connected to the light emitting elements; light sensing pixels comprising light sensing elements arranged in the display area and sensing drivers connected to the light sensing elements; a display scan driver configured to sequentially supply display scan signals to the pixel drivers (DDU1, DDU2, DDU3); a light sensing driver configured to sequentially supply sensing scan signals (FSp) to the sensing drivers; a blood pressure detection circuit configured to measure a blood pressure of a user using light sensing signals received from the sensing drivers; and a display driving circuit configured to supply control signals to the display scan driver and the light sensing driver to control a light sensing signal detection timing of the light sensing pixels when a mode of the display device is switched to a blood pressure measurement mode.