mhurhangee/ep-ind-claims huggingface dataset:
A polyelectrolyte coating, comprising alternatingly charged polyelectrolyte layers, comprising: (a) from 18 to 60 polycationic layers consisting of at least one polycation consisting of n repetitive units having the formula, wherein - n is an integer comprised between 2 and 100, in particular between 2 and 10 or between 11 and 100, and - each R group, identical or different, is chosen from -NH 2, -CH 2 -NH 2 and -NH-C -NH 2, wherein, when R is -CH 2 -NH 2, n is an integer comprised between 25 and 75, and (b) from 18 to 60 polyanionic layers consisting of hyaluronic acid or a derivative thereof including at least one type of hyaluronic acid having a molecular weight of more than 400 kDa, wherein the derivatives of hyaluronic acid are chosen from the group consisting of: hyaluronic acid modified with an aldehyde group, amine-modified hyaluronic acid, hyaluronic acid containing photoreactive vinylbenzyl groups, hyaluronic acid modified with a methacrylate group, hyaluronic acid conjugated to Tyramine, and hyaluronic acid conjugated to catechol. (a) from 18 to 60 polycationic layers consisting of at least one polycation consisting of n repetitive units having the formula, wherein - n is an integer comprised between 2 and 100, in particular between 2 and 10 or between 11 and 100, and - each R group, identical or different, is chosen from -NH 2, -CH 2 -NH 2 and -NH-C -NH 2, wherein, when R is -CH 2 -NH 2, n is an integer comprised between 25 and 75, and - n is an integer comprised between 2 and 100, in particular between 2 and 10 or between 11 and 100, and - each R group, identical or different, is chosen from -NH 2, -CH 2 -NH 2 and -NH-C -NH 2, wherein, when R is -CH 2 -NH 2, n is an integer comprised between 25 and 75, and (b) from 18 to 60 polyanionic layers consisting of hyaluronic acid or a derivative thereof including at least one type of hyaluronic acid having a molecular weight of more than 400 kDa, wherein the derivatives of hyaluronic acid are chosen from the group consisting of: hyaluronic acid modified with an aldehyde group, amine-modified hyaluronic acid, hyaluronic acid containing photoreactive vinylbenzyl groups, hyaluronic acid modified with a methacrylate group, hyaluronic acid conjugated to Tyramine, and hyaluronic acid conjugated to catechol.
Smoke-permeable, tubular food casing, which is reinforced by a flat insert, wherein the flat insert is a consolidated nonwoven or spunbonded nonwoven, a woven fabric, loop-formingly knitted fabric, loop-drawingly knitted fabric, laid fabric or a porous film, wherein the flat insert is coated with a film-forming protein, but not regenerated or precipitated cellulose, and the casing, in a longitudinal direction, comprises a smoke-permeable transparent glued seam which is generated from adhesive comprising in the dry state 10 to 100 % by weight of protein, wherein the protein in the adhesive is blood plasma, collagen, gelatin, casein, soy protein, gluten, zein, ardein, pea protein, cottonseed or fish protein, protein from mussels, algae, fungae or other biomaterials from marine creatures or a mixture thereof, wherein the coated flat insert is shaped to form a tubular casing with overlapping longitudinal edges and the overlapping longitudinal edges are furnished with the adhesive and bonded to one another so that the smoke permeability is uniform over the entire periphery of the casing.
An electronic device (301a, 301b) for providing haptic feedback in response to a touch of a user, the electronic device (301a, 301b) comprising: a processor; a display; a touch sensor; an actuator; a touch controller; characterized in that the electronic device (301a, 301b) comprises a haptic controller, and wherein the touch controller is configured to: determine whether the touch sensor senses a touch (2a, 2b) in a specific area (211a, 211b) of the display while the processor is in a sleep mode; and generate a touch event when the touch (2a, 2b) is recognized in the specific area (211a, 211b), and wherein the haptic controller is configured to: receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event. a processor; a display; a touch sensor; an actuator; a touch controller; characterized in that the electronic device (301a, 301b) comprises a haptic controller, and wherein the touch controller is configured to: determine whether the touch sensor senses a touch (2a, 2b) in a specific area (211a, 211b) of the display while the processor is in a sleep mode; and generate a touch event when the touch (2a, 2b) is recognized in the specific area (211a, 211b), and wherein the haptic controller is configured to: receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event. determine whether the touch sensor senses a touch (2a, 2b) in a specific area (211a, 211b) of the display while the processor is in a sleep mode; and generate a touch event when the touch (2a, 2b) is recognized in the specific area (211a, 211b), and wherein the haptic controller is configured to: receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event. receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event.
An intra-oral X-ray imaging arrangement comprising: a control system; a radiation source which is arranged e.g. in connection with a jointed arm construction; an electric image data receiver such as e.g. a sensor based on CMOS technology; and a wireless transmission link (33, 43; 36, 46) for transmitting at least image data detected by the electric image data receiver to a base station of the electric image data receiver, to an image processing device or to a corresponding other device capable of receiving image information, the transmitter and the receiver of which transmission link (33, 43; 36, 46) are arranged, on the one hand, in connection with the electric image data receiver, and on the other hand, at least in functional connection with said base station, characterised in that said transmission link (33, 43; 36, 46) is arranged to function also as a wireless power transmission link (33, 43), which wireless power transmission link (33, 43) is arranged for the use of supplying the electric image data receiver with energy in connection with an imaging event. a control system; a radiation source which is arranged e.g. in connection with a jointed arm construction; an electric image data receiver such as e.g. a sensor based on CMOS technology; and a wireless transmission link (33, 43; 36, 46) for transmitting at least image data detected by the electric image data receiver to a base station of the electric image data receiver, to an image processing device or to a corresponding other device capable of receiving image information, the transmitter and the receiver of which transmission link (33, 43; 36, 46) are arranged, on the one hand, in connection with the electric image data receiver, and on the other hand, at least in functional connection with said base station, characterised in that said transmission link (33, 43; 36, 46) is arranged to function also as a wireless power transmission link (33, 43), which wireless power transmission link (33, 43) is arranged for the use of supplying the electric image data receiver with energy in connection with an imaging event.
An elasticity detecting probe, comprising: a probe body and a control switch for controlling switching on/off of probing by the probe body, wherein the probe body and the control switch are separately arranged, and the probe body and the control switch are coupled to each other electrically or wirelessly, the probe further comprising: a control system and a display device, and characterized in that the control system is configured to collect motion state parameter of the probe body and display the motion state parameters on the display device, wherein the motion state parameters are reflected on the display device connected to the control system such that the operator can understand the motion state of the probe body by observing the parameters displayed on the display device.
An aligner manufacturing system (100A, 100B) comprising: a plate configured to secure a first mold of a first dental arch and a second mold of a second dental arch; a heating section configured to heat a sheet of plastic (154A, 154B, 154C) to generate a heated sheet wherein the heating section comprises a mask to surround the sheet of plastic during heating of the sheet of plastic to minimize heat transfer from the heating section to other sheets of plastic; and a thermoforming chamber configured to simultaneously thermoform the heated sheet over the first mold of the first dental arch and the second mold of the second dental arch to form a first aligner shaped to fit the first dental arch and a second aligner shaped to fit the second dental arch. a plate configured to secure a first mold of a first dental arch and a second mold of a second dental arch; a heating section configured to heat a sheet of plastic (154A, 154B, 154C) to generate a heated sheet wherein the heating section comprises a mask to surround the sheet of plastic during heating of the sheet of plastic to minimize heat transfer from the heating section to other sheets of plastic; and a thermoforming chamber configured to simultaneously thermoform the heated sheet over the first mold of the first dental arch and the second mold of the second dental arch to form a first aligner shaped to fit the first dental arch and a second aligner shaped to fit the second dental arch.
A method, comprising: collecting data on downstream packet losses at a single collection point in a network that branches, downstream of the collection point, toward a plurality of end nodes and that includes nodes intermediating the collection point and at least some of the end nodes, wherein the data describe downstream end-to-end packet loss, characterised by the packet loss being between the collection point and two or more end nodes on different branches of the network; and from the collected data, estimating a packet loss rate on at least one path that terminates on an end node or an intermediate node which is itself a root node relative to at least two end nodes via distinct branches that intersect at said intermediate node. collecting data on downstream packet losses at a single collection point in a network that branches, downstream of the collection point, toward a plurality of end nodes and that includes nodes intermediating the collection point and at least some of the end nodes, wherein the data describe downstream end-to-end packet loss, characterised by the packet loss being between the collection point and two or more end nodes on different branches of the network; and from the collected data, estimating a packet loss rate on at least one path that terminates on an end node or an intermediate node which is itself a root node relative to at least two end nodes via distinct branches that intersect at said intermediate node.
A fabrication method for fabricating a layer structure comprising at least a patterned first layer and a patterned second layer on a substrate, wherein a layer structure with an unpatterned first layer and an unpatterned second layer are provided on the substrate, the unpatterned first layer being located between the substrate and the unpatterned second layer, the fabrication method comprising: - applying protective material at least on parts of the provided layer structure, - applying a patterned etch mask on the unpatterned second layer after the protective material has been applied, - ablating the unpatterned first layer through the protective material such that the first patterned layer is generated, - removing the protective material, and - etching the unpatterned second layer for forming the patterned second layer. - applying protective material at least on parts of the provided layer structure, - applying a patterned etch mask on the unpatterned second layer after the protective material has been applied, - ablating the unpatterned first layer through the protective material such that the first patterned layer is generated, - removing the protective material, and - etching the unpatterned second layer for forming the patterned second layer.
A screen printing machine comprising: a main body frame; a squeegee configured to be used for printing a viscous fluid on a mask placed on the main body frame on a board and to be movable in a first direction from a first end to a second end of the mask; a collection member configured to be movable in the first direction and to collect the viscous fluid moved by the squeegee; a driving section (108a, 108b, 56, 80, 110) configured to move the squeegee and the collection member; and a control section configured to control the driving section (108a, 108b, 56, 80, 110),wherein the control section is configured to control the driving section (108a, 108b, 56, 80, 110) so that the collection member is disposed on the first end side of the mask closer to said first end side than the squeegee before the squeegee, moving in the first direction, enters a printing region of the mask, and the control section is configured to control the driving section (108a, 108b, 56, 80, 110) so that the collection member is disposed on the second end side of the mask at a position ahead of the squeegee with respect to the first direction after the squeegee, moving in the first direction, passes by the printing region of the mask. a main body frame; a squeegee configured to be used for printing a viscous fluid on a mask placed on the main body frame on a board and to be movable in a first direction from a first end to a second end of the mask; a collection member configured to be movable in the first direction and to collect the viscous fluid moved by the squeegee; a driving section (108a, 108b, 56, 80, 110) configured to move the squeegee and the collection member; and a control section configured to control the driving section (108a, 108b, 56, 80, 110),wherein the control section is configured to control the driving section (108a, 108b, 56, 80, 110) so that the collection member is disposed on the first end side of the mask closer to said first end side than the squeegee before the squeegee, moving in the first direction, enters a printing region of the mask, and the control section is configured to control the driving section (108a, 108b, 56, 80, 110) so that the collection member is disposed on the second end side of the mask at a position ahead of the squeegee with respect to the first direction after the squeegee, moving in the first direction, passes by the printing region of the mask.
A method for preparing a super absorbent polymer, the method comprising the steps of: forming a first hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a first centrifuge retention capacity (CRC; g/g) for a physiological saline solution measured in accordance with EDANA recommended test method No. WSP 241.2 and a first absorption rate (sec) measured according to the vortex test carried out under conditions of stirring 50 ml of 0.9 wt% NaCI solution at a rate of 600 rpm; forming a second hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a second centrifuge retention capacity (CRC; g/g) in which a difference between the first centrifuge retention capacity and the second centrifuge retention capacity is -2 g/g to 2 g/g, and a second absorption rate (sec) in which a difference between the first absorption rate and the second absorption rate is 5 sec or more. forming a mixture of the first hydrogel polymer and the second hydrogel polymer; drying the polymer mixture; pulverizing the dried polymer mixture; and surface-crosslinking the pulverized polymer mixture. forming a first hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a first centrifuge retention capacity (CRC; g/g) for a physiological saline solution measured in accordance with EDANA recommended test method No. WSP 241.2 and a first absorption rate (sec) measured according to the vortex test carried out under conditions of stirring 50 ml of 0.9 wt% NaCI solution at a rate of 600 rpm; forming a second hydrogel polymer containing a crosslinked polymer of acrylic acid or its salt, and having a second centrifuge retention capacity (CRC; g/g) in which a difference between the first centrifuge retention capacity and the second centrifuge retention capacity is -2 g/g to 2 g/g, and a second absorption rate (sec) in which a difference between the first absorption rate and the second absorption rate is 5 sec or more. forming a mixture of the first hydrogel polymer and the second hydrogel polymer; drying the polymer mixture; pulverizing the dried polymer mixture; and surface-crosslinking the pulverized polymer mixture.
Coil insulator intended to be positioned around a tooth of a stator or of a rotor of an electric machine, characterized in that it comprises a body having lateral walls (243, 244) and end walls (241, 242) forming a frame, the lateral walls (243, 244) each comprising a window (701, 702) facing which is intended to be positioned an added element (711, 712) produced in a good heat-conducting flexible material, and a front flange and a rear flange each formed by longitudinal edging strips (281, 282) linked together by transverse edging strips (291, 292), these front and rear flanges defining a mounting recess for winding a coil, and in that the body is produced in two parts (401, 402) separated vertically along a plane (Pm) substantially parallel to the lateral walls (243, 244) and passing through the end walls (241, 242) of the frame.
Fire-resistant glazing classified either as EI 90 or EI 120 according to Standards EN 1363-1 and 1364-1 for tightness and insulation, formed of a laminated assembly comprising more than four glass sheets and layers of intumescent material based on hydrated alkali metal silicates, in which the layers of intumescent material each have a thickness of 1.4 to 2 mm, when each layer is separated by a glass sheet, it being possible, if appropriate, for layers of this material to be placed side by side in pairs, and optionally comprising, in addition, one or more sheets of interlayer material between two glass sheets, and in which: ▪ either the number of glass sheets is equal to the number of intumescent layers, the glazing comprising at least two assemblies formed of two layers placed side by side, and at least as many interlayer sheets minus one as there are of assemblies of layers placed side by side, the glass sheets, in number equal to that of the intumescent layers, each having a thickness at most equal to 4 mm ▪ or the number of glass sheets is greater than that of the intumescent layers, a number of glass sheets equal to that of the intumescent layers exhibiting a thickness at most equal to 2.5 mm the glazing exhibiting a total thickness at most equal to: ▪ 37 mm for EI 90 ▪ 54 mm for EI 120. ▪ either the number of glass sheets is equal to the number of intumescent layers, the glazing comprising at least two assemblies formed of two layers placed side by side, and at least as many interlayer sheets minus one as there are of assemblies of layers placed side by side, the glass sheets, in number equal to that of the intumescent layers, each having a thickness at most equal to 4 mm ▪ or the number of glass sheets is greater than that of the intumescent layers, a number of glass sheets equal to that of the intumescent layers exhibiting a thickness at most equal to 2.5 mm ▪ 37 mm for EI 90 ▪ 54 mm for EI 120.
A method for the continuous production of sectionally corrugated, radially closed hollow profiles made of non-ferrous metals with a wall thickness of less than 0.15 mm, comprising: - feeding a flat strip of non-ferrous metal with a first feeding speed to a forming device, wherein the thickness of the strip corresponds to the wall thickness of the hollow profile to be produced, - continuous forming of the fed flat strip into a shape corresponding to the hollow profile, wherein two opposite edges of the flat strip abut flush against one another after the forming in a contact region extending in the longitudinal direction of the hollow profile, - continuous welding of the edges abutting flush against one another in the contact region without previous treatment to reduce reflections, wherein the edges to be welded are moved at the first feeding speed past a welding region which is fixed with respect to a device implementing the method, and wherein a point in the welding region is heated by means of a laser, which emits light of a wavelength less than 600 nm, and wherein the heated point has a diameter, which is less than 20% of the cross-sectional dimension of the hollow profile, - removing the welded hollow profile from the welding region, - selective introduction of sections with a corrugation into the welded hollow profile, and - reception of the welded and selectively corrugated hollow profile in a receiving device. - feeding a flat strip of non-ferrous metal with a first feeding speed to a forming device, wherein the thickness of the strip corresponds to the wall thickness of the hollow profile to be produced, - continuous forming of the fed flat strip into a shape corresponding to the hollow profile, wherein two opposite edges of the flat strip abut flush against one another after the forming in a contact region extending in the longitudinal direction of the hollow profile, - continuous welding of the edges abutting flush against one another in the contact region without previous treatment to reduce reflections, wherein the edges to be welded are moved at the first feeding speed past a welding region which is fixed with respect to a device implementing the method, and wherein a point in the welding region is heated by means of a laser, which emits light of a wavelength less than 600 nm, and wherein the heated point has a diameter, which is less than 20% of the cross-sectional dimension of the hollow profile, - removing the welded hollow profile from the welding region, - selective introduction of sections with a corrugation into the welded hollow profile, and - reception of the welded and selectively corrugated hollow profile in a receiving device.
A building construction system for construction of a building, wherein the building construction system comprises a plurality of modules (M 1, M 2, M 3, M 4, M 5, M 6, M 7, M 8, Mg, M 10, M 11), each comprising at least one centrally arranged insulation member (4, 4') sandwiched between a first cover plate (12, 12') and a second cover plate (14, 14'), wherein the at least one insulation member (4, 4') is made in polyurethane or polyisocyanurate, and wherein a reinforcement connection structure extends between and is mechanically connected to opposite cover plates (12, 12', 14, 14'), wherein a first connector covers at least a portion of the joint between the second cover plates (14, 14'), and a second connector covers at least a portion of the joint between the first cover plates (12, 12') and that the reinforcement connection structure extends between the first connector and the second connector, characterized in that the connectors (8, 8') are glued to the cover plates (12, 12', 14, 14'), and in that all joints between adjacent cover plates (12, 12', 14, 14') and between cover plates (12, 12', 14, 14') and connectors (8, 8') are glued with an adhesive having a flash point above 1.000°C, preferably above 1.200°C.