mhurhangee/patent-ind-claim-en huggingface dataset:
Active ingredient capsules free of formaldehyde containing or consisting of a liquid core, at least one inner shell and one outer shell, obtained by the following steps: (a) providing an oil phase containing at least one lipophilic active ingredient and optionally at least one stabilizer; (b) adding at least one polyisocyanate to the oil phase; (c) providing an aqueous phase comprising at least one polymeric double bond component; (d) emulsifying the oil phase from step (b) with the aqueous phase from step (c); (e) adding a polyamine to the emulsion of step (d), (f) adding to the emulsion of step (e) at least one aromatic alcohol and at least one aliphatic or aromatic aldehyde other than formaldehyde, and optionally at least one film-forming polymer; (g) optionally adding a crosslinking agent to the emulsion of step (f); and (h) optionally separating and drying the optionally crosslinked capsules. (a) providing an oil phase containing at least one lipophilic active ingredient and optionally at least one stabilizer; (b) adding at least one polyisocyanate to the oil phase; (c) providing an aqueous phase comprising at least one polymeric double bond component; (d) emulsifying the oil phase from step (b) with the aqueous phase from step (c); (e) adding a polyamine to the emulsion of step (d), (f) adding to the emulsion of step (e) at least one aromatic alcohol and at least one aliphatic or aromatic aldehyde other than formaldehyde, and optionally at least one film-forming polymer; (g) optionally adding a crosslinking agent to the emulsion of step (f); and (h) optionally separating and drying the optionally crosslinked capsules.
A compound resin comprising a hydrogenated block copolymer (X) that is a hydrogenated product of a block copolymer (X') having a polymer block (A) mainly composed of a structural unit derived from an aromatic vinyl compound and a polymer block (B) mainly composed of a structural unit derived from a conjugated diene compound, at least one terminal of which is formed of the polymer block (A), and an oil (Y) having a kinematic viscosity at 40°C of 25 mm 2 /s or less, the content of the oil (Y) relative to 100 parts by mass of the hydrogenated block copolymer (X) being from 700 to 1,500 parts by mass, and wherein the compound resin has a specific gravity of 0.85 to 1.05 at 25°C, wherein the kinematic viscosity is measured according to the method of JIS K8803:2011, and wherein the specific gravity is measured according to the method of JIS Z8807:2012. the content of the oil (Y) relative to 100 parts by mass of the hydrogenated block copolymer (X) being from 700 to 1,500 parts by mass, and wherein the compound resin has a specific gravity of 0.85 to 1.05 at 25°C, wherein the kinematic viscosity is measured according to the method of JIS K8803:2011, and wherein the specific gravity is measured according to the method of JIS Z8807:2012.
A thermoplastic resin composition comprising: 100 parts by weight of a base resin comprising 14 wt% to 25 wt% of (A) a (meth)acrylate-aromatic vinyl-vinyl cyanide copolymer and 75 wt% to 86 wt% of (B) a (meth)acrylate resin; and 25 parts by weight to 35 parts by weight of (C) an antistatic resin comprising at least one of a polyether-ester amide block copolymer, a poly(alkylene) glycol and a polyamide, relative to 100 parts by weight of the base resin. 100 parts by weight of a base resin comprising 14 wt% to 25 wt% of (A) a (meth)acrylate-aromatic vinyl-vinyl cyanide copolymer and 75 wt% to 86 wt% of (B) a (meth)acrylate resin; and 25 parts by weight to 35 parts by weight of (C) an antistatic resin comprising at least one of a polyether-ester amide block copolymer, a poly(alkylene) glycol and a polyamide, relative to 100 parts by weight of the base resin.
A method for performing orthogonal frequency division multiplexing-offset quadrature amplitude modulation, OFDM-OQAM, the method comprising: obtaining a data burst of N OQAM symbols, where N is odd; performing weighted circularly convolved filtering modulation on the data burst to produce an output signal, wherein a sequence of weighted data blocks is used as an input for OFDM/OQAM modulation such that an output of a modulator is periodic; and transmitting , by a first wireless device to a second wireless device, the output signal. obtaining a data burst of N OQAM symbols, where N is odd; performing weighted circularly convolved filtering modulation on the data burst to produce an output signal, wherein a sequence of weighted data blocks is used as an input for OFDM/OQAM modulation such that an output of a modulator is periodic; and transmitting , by a first wireless device to a second wireless device, the output signal.
Diaphragm for a diaphragm valve or control valve, 1.1 wherein the diaphragm in the diaphragm valve or control valve serves to control the flow; 1.2 wherein a tab is formed on the diaphragm such that it projects beyond the diaphragm surface; wherein the diaphragm comprises a transponder; 1.3 wherein the tab has at least one recess (200; 500) for fixing the transponder ; 1.4 wherein the transponder is encased by a sealed cover made of plastic, elastomer or silicone; 1.5 wherein the encased transponder is fixed to the tab by means of the at least one recess (200; 500); 1.6 wherein the at least one recess is a hole or bore or opening; 1.7 wherein the encased transponder is pressed into the recess ; and 1.8 wherein the enclosed cover of the transponder has a plurality of protrusions , 1.8.1 at least one of which is located above the tab and at least one of which is located below the tab after being pressed into the recess ; 1.9 wherein the projections engage positively when pressed in. 1.1 wherein the diaphragm in the diaphragm valve or control valve serves to control the flow; 1.2 wherein a tab is formed on the diaphragm such that it projects beyond the diaphragm surface; wherein the diaphragm comprises a transponder; 1.3 wherein the tab has at least one recess (200; 500) for fixing the transponder ; 1.4 wherein the transponder is encased by a sealed cover made of plastic, elastomer or silicone; 1.5 wherein the encased transponder is fixed to the tab by means of the at least one recess (200; 500); 1.6 wherein the at least one recess is a hole or bore or opening; 1.7 wherein the encased transponder is pressed into the recess ; and 1.8 wherein the enclosed cover of the transponder has a plurality of protrusions , 1.8.1 at least one of which is located above the tab and at least one of which is located below the tab after being pressed into the recess ; 1.9 wherein the projections engage positively when pressed in.
An electromagnetic actuator for operating a poppet valve of an internal combustion engine, the actuator comprising: a stator ; a rotor which is rotatable relative to the stator over a range of rotation of the rotor; and a biasing assembly for applying a torque to the rotor, characterised in that the biasing assembly is switchable between: (a) a first configuration in which the biasing assembly exerts a torque on the rotor over at least part of the range of rotation of the rotor, wherein the torque exerted varies with the rotational position of the rotor according to a torque profile; and (b) a second configuration in which the biasing assembly exerts substantially no torque on the rotor over the range of rotation of the rotor. a stator ; a rotor which is rotatable relative to the stator over a range of rotation of the rotor; and a biasing assembly for applying a torque to the rotor, characterised in that the biasing assembly is switchable between: (a) a first configuration in which the biasing assembly exerts a torque on the rotor over at least part of the range of rotation of the rotor, wherein the torque exerted varies with the rotational position of the rotor according to a torque profile; and (b) a second configuration in which the biasing assembly exerts substantially no torque on the rotor over the range of rotation of the rotor. (a) a first configuration in which the biasing assembly exerts a torque on the rotor over at least part of the range of rotation of the rotor, wherein the torque exerted varies with the rotational position of the rotor according to a torque profile; and (b) a second configuration in which the biasing assembly exerts substantially no torque on the rotor over the range of rotation of the rotor.
A rotary shifter assembly , including a knob bi-directionally and biasingly supported upon a housing in a monostable and return-to-center orientation, said knob including a pair of pawls and corresponding springs ; a printed circuit board assembly incorporated into said housing and including a sensor and a processor; a spur gear rotatably supported within said housing and actuated by said knob, said spur gear supporting a magnet in proximity to said sensor ; said assembly characterizing: said knob including upper and lower assembleable components, said lower assembleable component being rotated in a clockwise direction and corresponding to said pawls interfacing with a first subset set of communicating sloped surfaces associated with peaked locations configured upon an inner circumference of the handle, said lower assembleable component being rotated in a counter-clockwise rotation corresponding to said pawls interfacing with a second set of communicating sloped surfaces configured upon the inner circumference of the component , said housing including a perimeter defining window from which partially projects the spur gear ; a display component including a ribbon connector extending to said printed circuit board assembly ; said lower assembleable component including a similar ring gear configured upon a lower circumference of said lower assembleable component , said ring gear including inner teeth which interface with and rotate said spur gear with end supported magnet ; rotation of said knob causing said ring gear to rotate said spur gear , with rotational displacement of said magnet relative to said sensor causing said processor to instruct a change in shifter position; and said knob incorporating a graphical display of said display component for indicating a current shifter position of the assembly. said knob including upper and lower assembleable components, said lower assembleable component being rotated in a clockwise direction and corresponding to said pawls interfacing with a first subset set of communicating sloped surfaces associated with peaked locations configured upon an inner circumference of the handle, said lower assembleable component being rotated in a counter-clockwise rotation corresponding to said pawls interfacing with a second set of communicating sloped surfaces configured upon the inner circumference of the component , said housing including a perimeter defining window from which partially projects the spur gear ; a display component including a ribbon connector extending to said printed circuit board assembly ; said lower assembleable component including a similar ring gear configured upon a lower circumference of said lower assembleable component , said ring gear including inner teeth which interface with and rotate said spur gear with end supported magnet ; rotation of said knob causing said ring gear to rotate said spur gear , with rotational displacement of said magnet relative to said sensor causing said processor to instruct a change in shifter position; and said knob incorporating a graphical display of said display component for indicating a current shifter position of the assembly.
A linear motor comprising; a first member including a plurality of armature modules each of which comprises a magnetic core , three or more salient poles projected from the magnetic core in a same direction, and coils , where the coils are connected so that a current of a single phase flows through them and are wound around a portion or all the salient poles ; and a second member comprising two or more permanent magnet modules each including a plurality of permanent magnets arranged in a moving direction of the linear motor, the permanent magnet module being projected toward the magnetic core such that the projected permanent magnet module is placed between two adjacent salient poles of the armature module , wherein poles of the plurality of permanent magnets are alternated in a moving direction of the linear motor and the number of the permanent magnet modules is smaller than the number of the salient poles by one, wherein power having a predetermined phase difference is supplied to the coil of each armature module such that a thrust according to a traveling magnet field is generated by using as one unit an S number of armature modules and a P number of permanent magnets arranged in the moving direction, and wherein one of the first member and the second member is a mover, and another one is a stator such that the mover and the stator are moved relative to each other by the generated thrust.
Method for the industrial manufacture of bakery products, such as long or elongated breads, rolls, baguettes, Parisian breads, round loaves, etc., wherein said method comprises the steps of: - placing, optionally after shaping, at least one piece of dough on a support plate ; - subjecting the dough to a rising stage; characterized in that , before the rising step, a step is taken where the dough is placed on a substrate heated to a temperature of between 80°C and 180°C for the formation of a film on the surface of the dough through contact with said heated substrate . - placing, optionally after shaping, at least one piece of dough on a support plate ; - subjecting the dough to a rising stage;
A product assembly , comprising: a device having a first side and a second side , opposite the first side ; a multi-layered printable structure configured to encase the device , the multi-layered printable structure including a first encasing subassembly positioned on the first side of the device and a second encasing subassembly positioned on the second side of the device, the first encasing subassembly including: a first fabric layer including at least polyurethane, the first fabric layer including a first side that is printable with water-based ink,; a first adhesive layer bonded to a second side of the first fabric layer ; an ink migration barrier bonded to the first adhesive layer opposite the first fabric layer ; a second adhesive layer bonded to the ink migration barrier opposite the first adhesive layer ; and wherein the second encasing subassembly includes: a second fabric layer including at least polyurethane; a third adhesive layer bonded to a first side of the second fabric layer; and wherein the first and second encasing subassemblies are bonded around the device , so that the first side of the device is bonded to the second adhesive layer , and so that the second side of the device is bonded to the third adhesive layer. a device having a first side and a second side , opposite the first side ; a multi-layered printable structure configured to encase the device , the multi-layered printable structure including a first encasing subassembly positioned on the first side of the device and a second encasing subassembly positioned on the second side of the device, the first encasing subassembly including: a first fabric layer including at least polyurethane, the first fabric layer including a first side that is printable with water-based ink,; a first adhesive layer bonded to a second side of the first fabric layer ; an ink migration barrier bonded to the first adhesive layer opposite the first fabric layer ; a second adhesive layer bonded to the ink migration barrier opposite the first adhesive layer ; and a first fabric layer including at least polyurethane, the first fabric layer including a first side that is printable with water-based ink,; a first adhesive layer bonded to a second side of the first fabric layer ; an ink migration barrier bonded to the first adhesive layer opposite the first fabric layer ; a second adhesive layer bonded to the ink migration barrier opposite the first adhesive layer ; and wherein the second encasing subassembly includes: a second fabric layer including at least polyurethane; a third adhesive layer bonded to a first side of the second fabric layer; and a second fabric layer including at least polyurethane; a third adhesive layer bonded to a first side of the second fabric layer; and wherein the first and second encasing subassemblies are bonded around the device , so that the first side of the device is bonded to the second adhesive layer , and so that the second side of the device is bonded to the third adhesive layer.
A method comprising: backscattering a radio frequency, RF, signal responsive to an incoming RF signal in accordance with an adjustable reflection coefficient of an antenna; switching a switchable impedance element of a variable impedance circuit that is in parallel with a fixed impedance element, thereby also controlling a control input for switching the switchable impedance element between: (i) a control-on state in which the switchable impedance element has a null impedance notch response at a carrier frequency and a high impedance response at all other frequencies, and (ii) a control-off state in which the switchable impedance element has a high impedance response at all frequencies, wherein the variable impedance circuit further has a variable impedance circuit output electrically connected to the antenna for adjusting the adjustable reflection coefficient of the antenna; and digitally controlling the variable impedance circuit by an output of a low pass delta sigma modulation circuit that is electrically coupled to the switchable impedance element, thereby adjusting the reflection coefficient of the antenna, wherein the low pass delta sigma modulation circuit receives a low pass delta sigma modulator input signal. backscattering a radio frequency, RF, signal responsive to an incoming RF signal in accordance with an adjustable reflection coefficient of an antenna; switching a switchable impedance element of a variable impedance circuit that is in parallel with a fixed impedance element, thereby also controlling a control input for switching the switchable impedance element between: (i) a control-on state in which the switchable impedance element has a null impedance notch response at a carrier frequency and a high impedance response at all other frequencies, and (ii) a control-off state in which the switchable impedance element has a high impedance response at all frequencies, (i) a control-on state in which the switchable impedance element has a null impedance notch response at a carrier frequency and a high impedance response at all other frequencies, and (ii) a control-off state in which the switchable impedance element has a high impedance response at all frequencies, wherein the variable impedance circuit further has a variable impedance circuit output electrically connected to the antenna for adjusting the adjustable reflection coefficient of the antenna; and digitally controlling the variable impedance circuit by an output of a low pass delta sigma modulation circuit that is electrically coupled to the switchable impedance element, thereby adjusting the reflection coefficient of the antenna, wherein the low pass delta sigma modulation circuit receives a low pass delta sigma modulator input signal.
A heated subsea pipe for transporting fluids, comprising a plurality of pipe sections (2-s) joined end-to-end, each pipe section comprising: a transport tube for receiving the fluids to be transported, an electrically insulating inner layer arranged around and covering the transport tube , a sealing tube made of electrically conductive material arranged around and covering the electrically insulating inner layer , a thermally insulating outer layer arranged around and covering the sealing tube , the pipe further comprising two electrical cables connected, on the one hand, to an electric generator and, on the other hand, to the transport tube and to the sealing tube of the pipe characterized in that : the transport tube is electrically connected to the sealing tube at each of the two ends of the pipe by means of electrical connectors , and in that the two electrical cables are connected to the transport tube and to the sealing tube of the pipe at a point situated approximately equidistant from the two ends of the pipe so as to produce two parallel electrical circuits each traversed by an electric current for heating the transport tube of the pipe by Joule effect. a transport tube for receiving the fluids to be transported, an electrically insulating inner layer arranged around and covering the transport tube , a sealing tube made of electrically conductive material arranged around and covering the electrically insulating inner layer , a thermally insulating outer layer arranged around and covering the sealing tube , the pipe further comprising two electrical cables connected, on the one hand, to an electric generator and, on the other hand, to the transport tube and to the sealing tube of the pipe characterized in that : the transport tube is electrically connected to the sealing tube at each of the two ends of the pipe by means of electrical connectors , and in that the two electrical cables are connected to the transport tube and to the sealing tube of the pipe at a point situated approximately equidistant from the two ends of the pipe so as to produce two parallel electrical circuits each traversed by an electric current for heating the transport tube of the pipe by Joule effect. the transport tube is electrically connected to the sealing tube at each of the two ends of the pipe by means of electrical connectors , and in that the two electrical cables are connected to the transport tube and to the sealing tube of the pipe at a point situated approximately equidistant from the two ends of the pipe so as to produce two parallel electrical circuits each traversed by an electric current for heating the transport tube of the pipe by Joule effect.
A lithium secondary battery comprising a positive electrode ; a negative electrode ; and a separator disposed between the positive electrode and the negative electrode , wherein the separator comprises a porous substrate ; and a lithium metal layer formed on one side of the porous substrate , and the lithium metal layer is formed along an outer circumferential surface of the porous substrate and has a window frame shape with an empty interior, wherein the lithium metal layer surrounds edges of the positive electrode at a position spaced apart from the positive electrode .