mhurhangee/patent-ind-claim-en huggingface dataset:
A micro-electromechanical system, MEMS, inertial sensor, comprising: a frame ; a waveguide configured to receive a laser light beam and split the laser light beam into first and second portions, the waveguide including a first arm and a second arm through which the first and second portions of the light beam are to respectively pass, a first portion of the first arm and a second portion of the second arm disposed parallel with each other and joined together around respective ends of each arm to recombine the first and second portions of the light beam into a recombined light beam, wherein the first arm is configured to be deformable; and a proof mass comprising two first deformable legs and two second deformable legs , wherein the two first deformable legs are attached to the first arm, wherein the first arm runs along the two first deformable legs and the deformation of the first arm is caused by a movement of the first proof mass in response to the inertial change associated with the apparatus, wherein the proof mass is movably affixed to the frame at the ends of the two second deformable legs such that the proof mass is movable at least in one direction relative to the frame and in a perpendicular direction relative to the second arm, wherein a deformation of the first arm results in a change of an optical path length of a portion of the light beam traveling through the first arm, causing a detectable change in light intensity of the recombined light beam outputted by the waveguide. a frame ; a waveguide configured to receive a laser light beam and split the laser light beam into first and second portions, the waveguide including a first arm and a second arm through which the first and second portions of the light beam are to respectively pass, a first portion of the first arm and a second portion of the second arm disposed parallel with each other and joined together around respective ends of each arm to recombine the first and second portions of the light beam into a recombined light beam, wherein the first arm is configured to be deformable; and a proof mass comprising two first deformable legs and two second deformable legs , wherein the two first deformable legs are attached to the first arm, wherein the first arm runs along the two first deformable legs and the deformation of the first arm is caused by a movement of the first proof mass in response to the inertial change associated with the apparatus, wherein the proof mass is movably affixed to the frame at the ends of the two second deformable legs such that the proof mass is movable at least in one direction relative to the frame and in a perpendicular direction relative to the second arm, wherein a deformation of the first arm results in a change of an optical path length of a portion of the light beam traveling through the first arm, causing a detectable change in light intensity of the recombined light beam outputted by the waveguide.
An optical cable comprising: an elongated member comprising a matrix material and a plurality of channels extending through the matrix material; and at least one optical fiber extending through at least one channel; characterized in that the matrix material is selected from the group consisting of polybutylene terephthalate, polycarbonate, and combinations thereof; a strength member is not present in the optical cable; and the elongated member includes from 10 vol% to 20 vol% of matrix material based on the total volume of the elongated member, with the respective reciprocal volume percent being voidage that is the void space created by the channels, wherein the plurality of channels comprise from 80 vol% to 90 vol% of the elongated member based on total volume of the elongated member. an elongated member comprising a matrix material and a plurality of channels extending through the matrix material; and at least one optical fiber extending through at least one channel; characterized in that the matrix material is selected from the group consisting of polybutylene terephthalate, polycarbonate, and combinations thereof; a strength member is not present in the optical cable; and the elongated member includes from 10 vol% to 20 vol% of matrix material based on the total volume of the elongated member, with the respective reciprocal volume percent being voidage that is the void space created by the channels, wherein the plurality of channels comprise from 80 vol% to 90 vol% of the elongated member based on total volume of the elongated member.
Process for producing pigments , comprising the following steps: - creating a first layer on a substrate ; - structuring the first layer ; and - detaching the pigments from the substrate ; characterized in that the first layer is a crack-forming layer, so the first layer is structured by the formation of cracks ; and before the pigments are detached, a pigment layer is applied to the first layer structured by the cracks . - creating a first layer on a substrate ; - structuring the first layer ; and - detaching the pigments from the substrate ; the first layer is a crack-forming layer, so the first layer is structured by the formation of cracks ; and before the pigments are detached, a pigment layer is applied to the first layer structured by the cracks .
A filling unit for use in filling a confectionery product into a mould or a container , including a fill housing with a first filling nozzle and wherein the filling unit includes two or more dosing pistons (7',7") each provided displaceably in a respective cylinder (8',8") which is connected to the fill housing; wherein in the fill housing , a valve (5', 5") is arranged for each cylinder (8', 8"), in that each valve (5', 5") has a valve body with a first duct (9', 9") connecting a second filling nozzle (6', 6") for the confectionery product with the interior of the cylinder (8', 8") when the valve body is in a first position, and a second duct (10', 10") connecting the cylinder (8', 8") with an outlet (11', 11") from the fill housing when the valve body is in a second position, characterised in - that an assembly block with internal ducts (15', 15") connects each of the outlets (11', 11") from the fill housing with each their internal duct in the first filling nozzle , and - that the assembly block and/or the first filling nozzle are/is replaceable. - that an assembly block with internal ducts (15', 15") connects each of the outlets (11', 11") from the fill housing with each their internal duct in the first filling nozzle , and - that the assembly block and/or the first filling nozzle are/is replaceable.
Amorphous titanium stannate silicate with the general formula: M v+ w Ti x Si y Sn z O 2x+2y+2z+0.5vw , wherein M is at least one of a proton, ammonium, a metal or a mixture of metals, v is the valence of M being a positive integer and wherein x, y, z and w are molar ratios: x is 1, y is from 0.2 to 5, z is from 0.05 to 1, and w is from 0.01 to 10, wherein the titanium stannate silicate has a pore volume of at least 0.3 mL/g, determined by liquid nitrogen adsorption. wherein M is at least one of a proton, ammonium, a metal or a mixture of metals, v is the valence of M being a positive integer and wherein x, y, z and w are molar ratios: x is 1, y is from 0.2 to 5, z is from 0.05 to 1, and w is from 0.01 to 10, x is 1, y is from 0.2 to 5, z is from 0.05 to 1, and w is from 0.01 to 10, wherein the titanium stannate silicate has a pore volume of at least 0.3 mL/g, determined by liquid nitrogen adsorption.
Assembly comprising a cover opening control and a support structure , said support structure being adapted to be fixed to a front leg of a vehicle, in particular a motor vehicle, comprising at least one means for guiding at least one bundle of cables , at least one first means for fixing said support structure to the front leg , characterized in that the support structure further comprises a second fixing means for fixing attach both the support structure and the hood opening control of the vehicle to the front foot of said vehicle.
A control system for a wind turbine, which control system comprises - a local terminal for locally generating wind turbine control commands; - a control arrangement for generating control signals for the wind turbine on the basis of wind turbine control commands; and - a switching arrangement for switching between a remote mode of operation over a main communication network (700_R), and a local mode of operation over a local communication network (700_L) between the local terminal and the control arrangement such that a message passed between the local terminal and the control arrangement does not travel beyond that local communication network in that wind turbine, and wherein the switching arrangement comprises - a physical switch with a first switch position (70_R) associated with the remote mode of operation and a second switch position (70_L) associated with the local mode of operation; and - a virtual local area network (VLAN) switch , wherein the VLAN switch is realised to establish at least a main communication network partition and a local communication network partition. - a local terminal for locally generating wind turbine control commands; - a control arrangement for generating control signals for the wind turbine on the basis of wind turbine control commands; and - a switching arrangement for switching between a remote mode of operation over a main communication network (700_R), and a local mode of operation over a local communication network (700_L) between the local terminal and the control arrangement such that a message passed between the local terminal and the control arrangement does not travel beyond that local communication network in that wind turbine, and wherein the switching arrangement comprises - a physical switch with a first switch position (70_R) associated with the remote mode of operation and a second switch position (70_L) associated with the local mode of operation; and - a virtual local area network (VLAN) switch , wherein the VLAN switch is realised to establish at least a main communication network partition and a local communication network partition.
A system comprising: a turbine engine including an engine fan including one or more variable-pitch blades (8A-8N, 38, 39, 68A, 68B, 69A, 69B) driven by a shaft , which rotates at a rotational speed which depends on a pitch of the one or more variable-pitch blades (8A-8N, 38, 39, 68A, 68B, 69A, 69B) of the engine fan ; a generator configured to produce alternating-current (AC) electricity at a particular frequency relative to the rotational speed of the shaft ; a propulsor , which comprises a propulsor motor and a propulsor fan , wherein the propulsor motor is configured to drive the propulsor fan , based on the AC electricity produced by the generator ; and a controller configured to control the particular frequency of the AC electricity by at least controlling the pitch of the one or more variable-pitch blades (8A-8N, 38, 39, 68A, 68B, 69A, 69B) of the engine fan and thereby the rotational speed of the generator . a turbine engine including an engine fan including one or more variable-pitch blades (8A-8N, 38, 39, 68A, 68B, 69A, 69B) driven by a shaft , which rotates at a rotational speed which depends on a pitch of the one or more variable-pitch blades (8A-8N, 38, 39, 68A, 68B, 69A, 69B) of the engine fan ; a generator configured to produce alternating-current (AC) electricity at a particular frequency relative to the rotational speed of the shaft ; a propulsor , which comprises a propulsor motor and a propulsor fan , wherein the propulsor motor is configured to drive the propulsor fan , based on the AC electricity produced by the generator ; and a controller configured to control the particular frequency of the AC electricity by at least controlling the pitch of the one or more variable-pitch blades (8A-8N, 38, 39, 68A, 68B, 69A, 69B) of the engine fan and thereby the rotational speed of the generator .
Method for controlling the winding tension of a yarn in a winding unit comprising: a tension sensor , a thread tensioner , and an unravelling tension control device comprising a first containment element operable on command, and a second containment element fixed and arranged downstream of the first containment element along the winding direction of the yarn ; said method comprises the following steps: (a) start of the winding step with winding speed equal to vmax; (b) upon reaching a predetermined tension value measured by the tension sensor , the winding speed is brought to a predetermined percentage of vmax; (c) upon reaching said predetermined percentage of vmax, from here on the unravelling tension is controlled by the thread tensioner ; and (d) upon reaching a predetermined operating parameter of the winding, operating the first containment element of the unravelling tension control device . (a) start of the winding step with winding speed equal to vmax; (b) upon reaching a predetermined tension value measured by the tension sensor , the winding speed is brought to a predetermined percentage of vmax; (c) upon reaching said predetermined percentage of vmax, from here on the unravelling tension is controlled by the thread tensioner ; and (d) upon reaching a predetermined operating parameter of the winding, operating the first containment element of the unravelling tension control device .
A method for providing a participating service provider identity, applied to a user equipment (UE), comprising: determining a short-format second participating service provider identity, PSP-ID, corresponding to a long-format first PSP-ID of a participating service provider to be accessed; obtaining short-format third PSP-ID sent from a first access device; when the third PSP-ID(s) includes the second PSP-ID, selecting the first access device to access the participating service provider; or, obtaining the short-format third PSP-ID sent from the first access device, determining long-format fourth PSP-ID that is supported by the first access device and is corresponding to the third PSP-ID; when the fourth PSP-ID includes the first PSP-ID, selecting the first access device to access the participating service provider. determining a short-format second participating service provider identity, PSP-ID, corresponding to a long-format first PSP-ID of a participating service provider to be accessed; obtaining short-format third PSP-ID sent from a first access device; when the third PSP-ID(s) includes the second PSP-ID, selecting the first access device to access the participating service provider; or, obtaining the short-format third PSP-ID sent from the first access device, determining long-format fourth PSP-ID that is supported by the first access device and is corresponding to the third PSP-ID; when the fourth PSP-ID includes the first PSP-ID, selecting the first access device to access the participating service provider.
Dual-technology sensor comprising a sensor head attached to a handle by means of a mechanical connection, the sensor head comprising : - a housing comprising a cover , to which the mechanical link is fixed, and a base opposite the cover and configured to face a floor to be inspected, - an inductive sensor, fixedly mounted in the housing , - a ground-penetrating radar , fixedly mounted in the housing , the radar being positioned in the housing so as to extend between the inductive sensor and the base the detector being characterized in that the inductive sensor comprises separate transmitting coil and receiving coil distinct from each other, each forming a loop, and in that the transmitting antenna is housed in the center of one of the transmitting coil and receiving coil and the receiving antenna is housed in the center of the other of the transmitting coil and receiving coil . - a housing comprising a cover , to which the mechanical link is fixed, and a base opposite the cover and configured to face a floor to be inspected, - an inductive sensor, fixedly mounted in the housing , - a ground-penetrating radar , fixedly mounted in the housing , the radar being positioned in the housing so as to extend between the inductive sensor and the base
An iron-based powder composition comprising between 0.01% and 1.0% by weight, preferably between 0.01% and 0.5%, preferably between 0.05% and 0.4%, preferably between 0.05% and 0.3% and more preferably between 0.1%and 0.3% by weight of a machinability enhancing additive said additive contains at least 50% by weight of halloysite in powder form and wherein the particle size distribution of the halloysite expressed as X90 is below 30 μm, X50 is below 15 μm and at least 90% by weight is above 0.1 μm, measured according to SS-ISO 13320-1.
An optical system that redirects light produced by a display module towards an eye box , the optical system comprising: a waveguide ; a non-diffractive input coupler configured to couple the light produced the display module into the waveguide ; a cross coupler on the waveguide , wherein the cross coupler is configured to perform an even number of diffractions on the light coupled into the waveguide by the non-diffractive input coupler , wherein the even number of diffractions are configured to expand the light in a first direction, and wherein the waveguide is configured to propagate the light expanded in the first direction via total internal reflection; and an output coupler on the waveguide , wherein the output coupler is configured to couple the light expanded in the first direction by the cross coupler out of the waveguide while expanding the light in a second direction that is different from the first direction, wherein the waveguide comprises a medium having first and second surfaces and a waveguide substrate layered on the first surface medium, wherein the cross coupler comprises a surface relief grating formed in a surface relief grating medium layered on the second surface of the medium, and wherein the surface relief grating is embedded in the medium. a non-diffractive input coupler configured to couple the light produced the display module into the waveguide ; a cross coupler on the waveguide , wherein the cross coupler is configured to perform an even number of diffractions on the light coupled into the waveguide by the non-diffractive input coupler , wherein the even number of diffractions are configured to expand the light in a first direction, and wherein the waveguide is configured to propagate the light expanded in the first direction via total internal reflection; and an output coupler on the waveguide , wherein the output coupler is configured to couple the light expanded in the first direction by the cross coupler out of the waveguide while expanding the light in a second direction that is different from the first direction, wherein the waveguide comprises a medium having first and second surfaces and a waveguide substrate layered on the first surface medium, wherein the cross coupler comprises a surface relief grating formed in a surface relief grating medium layered on the second surface of the medium, and wherein the surface relief grating is embedded in the medium.
An energy storage system, comprising: a module stack having a plurality of battery modules stacked vertically; a venting detecting unit configured to detect a venting when the venting occurs in at least a part of the plurality of battery modules ; and a coolant supplying unit configured to supply a coolant to a battery module at which a venting occurs when the venting of the battery module is detected by the venting detecting unit ; wherein the battery module includes: a plurality of battery cells ; and a module case configured to accommodate the battery cells ; wherein the module case has a venting portion that is ruptured according to the increase of an internal pressure of the battery module to discharge an internal gas; wherein the energy storage system further comprises a coolant supply channel configured to extend along a stacking direction of the battery modules and communicate with a venting portion provided to one side of the battery modules ; and a coolant collection channel configured to extend along the stacking direction of the battery modules and communicate with a venting portion provided to the other side of the battery modules . a module stack having a plurality of battery modules stacked vertically; a venting detecting unit configured to detect a venting when the venting occurs in at least a part of the plurality of battery modules ; and a coolant supplying unit configured to supply a coolant to a battery module at which a venting occurs when the venting of the battery module is detected by the venting detecting unit ; wherein the battery module includes: a plurality of battery cells ; and a module case configured to accommodate the battery cells ; wherein the module case has a venting portion that is ruptured according to the increase of an internal pressure of the battery module to discharge an internal gas; wherein the energy storage system further comprises a coolant supply channel configured to extend along a stacking direction of the battery modules and communicate with a venting portion provided to one side of the battery modules ; and a coolant collection channel configured to extend along the stacking direction of the battery modules and communicate with a venting portion provided to the other side of the battery modules . a plurality of battery cells ; and a module case configured to accommodate the battery cells ; wherein the module case has a venting portion that is ruptured according to the increase of an internal pressure of the battery module to discharge an internal gas; wherein the energy storage system further comprises a coolant supply channel configured to extend along a stacking direction of the battery modules and communicate with a venting portion provided to one side of the battery modules ; and a coolant collection channel configured to extend along the stacking direction of the battery modules and communicate with a venting portion provided to the other side of the battery modules .
A computer-implemented method of operating an electronic device, the method comprising: determining a mood of a first user associated with a first electronic device to generate a determined mood; determining an action to be performed by the first electronic device based on the determined mood to generate a determined action; and initiating the determined action , wherein the initiating the determined action comprises transmitting an object that corresponds to the determined mood to a second electronic device ; characterised by further comprising: modulating the determined action based on a sensed mood of a second user associated with the second electronic device . determining a mood of a first user associated with a first electronic device to generate a determined mood; determining an action to be performed by the first electronic device based on the determined mood to generate a determined action; and initiating the determined action , wherein the initiating the determined action comprises transmitting an object that corresponds to the determined mood to a second electronic device ; characterised by further comprising: modulating the determined action based on a sensed mood of a second user associated with the second electronic device .