mhurhangee/ep-ind-claims huggingface dataset:
Dead bolt locking mechanism comprising: • an operation rack being movable along a predefined displacement direction and being connectable to a dead bolt, • a first follower and a second follower which are rotatable about a rotation axis, and • an engaging element, • wherein the first follower and the second follower are adapted to be able to rotate independently and each of the first follower and the second follower can move the operation rack along the displacement direction, and • wherein the first follower and/or the second follower, especially a circumferential surface of the follower (3, 4), comprises at least one counterelement with which the engaging element is engageable to situate the respective first follower and/or second follower in a non-blocking position, wherein a non-blocking position is a position in which the follower (3, 4) with the counterelement does not prohibit or block the movement of the operation rack, characterized in that that the engaging element cooperates with the counterelement so that the first follower and/or the second follower comprising the counterelement are rotated from a blocking position to a non-blocking position due to engagement of the engaging element and the counterelement. • an operation rack being movable along a predefined displacement direction and being connectable to a dead bolt, • a first follower and a second follower which are rotatable about a rotation axis, and • an engaging element, • wherein the first follower and the second follower are adapted to be able to rotate independently and each of the first follower and the second follower can move the operation rack along the displacement direction, and • wherein the first follower and/or the second follower, especially a circumferential surface of the follower (3, 4), comprises at least one counterelement with which the engaging element is engageable to situate the respective first follower and/or second follower in a non-blocking position, wherein a non-blocking position is a position in which the follower (3, 4) with the counterelement does not prohibit or block the movement of the operation rack,
An adjustable length barrier, the barrier comprising: a plurality of spaced substantially parallel cross members (20, 28), with each cross member (20, 28) having a telescopic part selectively movable into or out of a home part to adjust the barrier length; a plurality of spaced connecting members (22, 24) which extend substantially perpendicular to the cross members (20, 28) and interconnect the cross members (20, 28), a one of the connecting members interconnecting the home part cross members adjacent an end of the home part cross members, thereof through which the respective telescopic parts are selectively movable, the one spaced connecting member and/or the home part cross members being profiled so as to define a plurality of open ended channels therebetween; a locking member being slidably locatable in each open ended channel, the locking member having a locking formation adjacent an end thereof which is accessible when the locking member is located in the open ended channel, which locking formation permits engagement with the telescopic part to lock the telescopic part in a required position relative to the home part; wherein the open ended channels extend substantially parallel to the cross members (20, 28). a plurality of spaced substantially parallel cross members (20, 28), with each cross member (20, 28) having a telescopic part selectively movable into or out of a home part to adjust the barrier length; a plurality of spaced connecting members (22, 24) which extend substantially perpendicular to the cross members (20, 28) and interconnect the cross members (20, 28), a one of the connecting members interconnecting the home part cross members adjacent an end of the home part cross members, thereof through which the respective telescopic parts are selectively movable, the one spaced connecting member and/or the home part cross members being profiled so as to define a plurality of open ended channels therebetween; a locking member being slidably locatable in each open ended channel, the locking member having a locking formation adjacent an end thereof which is accessible when the locking member is located in the open ended channel, which locking formation permits engagement with the telescopic part to lock the telescopic part in a required position relative to the home part; wherein the open ended channels extend substantially parallel to the cross members (20, 28).
A computer-implemented method for multimedia conference endpoint transfer, the method comprising: providing, using one or more computing devices, a multimedia conference for hosting a plurality of participant devices; receiving, using the one or more computing devices, a request to transfer a session of the multimedia conference of a first participant device of the plurality of participant devices, wherein the first participant device has a first multimedia conference capability; actively contacting a plurality of target devices associated with the first participant device, to continuously assess a state or a multimedia conference capability of each of the plurality of target devices; providing, using the one or more computing devices, a list of the plurality of target devices to the participant device based on the active contacting of the plurality of target devices; receiving, using the one or more computing devices, an indication of a target device from the first participant device, wherein the target device has a second multimedia conference capability that is at least in part different than the first multimedia conference capability of the first participant device; and transferring, using the one or more computing devices, the session of the multimedia conference from the first participant device to the target device. providing, using one or more computing devices, a multimedia conference for hosting a plurality of participant devices; receiving, using the one or more computing devices, a request to transfer a session of the multimedia conference of a first participant device of the plurality of participant devices, wherein the first participant device has a first multimedia conference capability; actively contacting a plurality of target devices associated with the first participant device, to continuously assess a state or a multimedia conference capability of each of the plurality of target devices; providing, using the one or more computing devices, a list of the plurality of target devices to the participant device based on the active contacting of the plurality of target devices; receiving, using the one or more computing devices, an indication of a target device from the first participant device, wherein the target device has a second multimedia conference capability that is at least in part different than the first multimedia conference capability of the first participant device; and transferring, using the one or more computing devices, the session of the multimedia conference from the first participant device to the target device.
A three-dimensional printing method, comprising: applying a sinterable material; heating the sinterable material to a temperature ranging from about 50°C to about 400°C; selectively applying a coalescent agent on a portion of the sinterable material; selectively applying a modifying agent on the portion, an other portion, or both the portion and the other portion of the sinterable material, the modifying agent including: an inorganic salt; a surfactant; a co-solvent; a humectant; a biocide; and water; and exposing the sinterable material to radiation, whereby the coalescent agent at least partially cures the portion of the sinterable material in contact with the coalescent agent, and the modifying agent i) reduces curing of the portion of the sinterable material in contact with both the coalescent agent and the modifying agent, ii) prevents curing of the other portion of the sinterable material in contact with the modifying agent, or iii) both i and ii. applying a sinterable material; heating the sinterable material to a temperature ranging from about 50°C to about 400°C; selectively applying a coalescent agent on a portion of the sinterable material; selectively applying a modifying agent on the portion, an other portion, or both the portion and the other portion of the sinterable material, the modifying agent including: an inorganic salt; a surfactant; a co-solvent; a humectant; a biocide; and water; and an inorganic salt; a surfactant; a co-solvent; a humectant; a biocide; and water; and exposing the sinterable material to radiation, whereby the coalescent agent at least partially cures the portion of the sinterable material in contact with the coalescent agent, and the modifying agent i) reduces curing of the portion of the sinterable material in contact with both the coalescent agent and the modifying agent, ii) prevents curing of the other portion of the sinterable material in contact with the modifying agent, or iii) both i and ii.
An electrically heated cigarette for an electrical smoking system, comprising: at least one sorbent; and a flavoring-release additive including at least one flavoring releasable in the electrically heated cigarette upon the flavoring-release additive being electrically heated to at least a minimum temperature, wherein the flavoring-release additive is an inclusion complex which includes a host molecule and the flavoring is a guest molecule in the inclusion complex. at least one sorbent; and a flavoring-release additive including at least one flavoring releasable in the electrically heated cigarette upon the flavoring-release additive being electrically heated to at least a minimum temperature, wherein the flavoring-release additive is an inclusion complex which includes a host molecule and the flavoring is a guest molecule in the inclusion complex.
A method for differentiating hepatic progenitor cells into insulin-producing pancreatic cells, comprising: (a) incubating hepatic progenitor cells, wherein the hepatic progenitor cells are hepatic stem cells expressing EpCAM, NCAM, albumin, CK8/18, CK19, and CD133/1 in serum-free pre-induction media comprising a histone deacetylase inhibitor (HDACI); and, subsequently, (b) incubating the hepatic progenitor cells in induction media comprising knock-out replacement serum; for a time sufficient to differentiate the hepatic progenitor cells into insulin-producing pancreatic cells. (a) incubating hepatic progenitor cells, wherein the hepatic progenitor cells are hepatic stem cells expressing EpCAM, NCAM, albumin, CK8/18, CK19, and CD133/1 in serum-free pre-induction media comprising a histone deacetylase inhibitor (HDACI); and, subsequently, (b) incubating the hepatic progenitor cells in induction media comprising knock-out replacement serum;
A sprinkler comprising: a frame having an upper portion and a lower portion; a rotatable deflector of a spinner assembly coupled to the upper portion; a nozzle socket defined by the lower end portion of the frame; a nozzle configured to be received in the nozzle socket; interlocking portions (142, 144) of the nozzle and nozzle socket configured to releasably connect the nozzle in the nozzle socket; and the spinner assembly releasably connected to the frame upper portion with the deflector disposed above the nozzle and rotatable relative to the upper frame portion, the spinner assembly configured to be removed from the frame upper portion to permit removal of the nozzle from the nozzle socket, wherein the nozzle socket has an outer wall and the interlocking portions comprise a portion of the outer wall. a frame having an upper portion and a lower portion; a rotatable deflector of a spinner assembly coupled to the upper portion; a nozzle socket defined by the lower end portion of the frame; a nozzle configured to be received in the nozzle socket; interlocking portions (142, 144) of the nozzle and nozzle socket configured to releasably connect the nozzle in the nozzle socket; and the spinner assembly releasably connected to the frame upper portion with the deflector disposed above the nozzle and rotatable relative to the upper frame portion, the spinner assembly configured to be removed from the frame upper portion to permit removal of the nozzle from the nozzle socket,
Method for manufacturing coated panels comprising at least a substrate and a top layer with a printed motif, said top layer being provided on said substrate, wherein the method for realizing the top layer comprises at least two steps, namely, a first step in which a synthetic material layer is provided on the substrate, and a second step in which a relief is provided on the surface of said synthetic material layer, wherein said relief comprises a pattern of recesses, wherein this pattern is at least partially determined by means of a digital technique applied for providing a synthetic material-repelling or lacquer-repelling agent, wherein this agent then determines at least a portion of said pattern of recesses, characterized in that said second step is subsequent to said first step.
A thumbstick for a user input device, comprising: a thumbstick module comprising a moveable post and being operable to generate an analog input control signal based on a position of the moveable post in relation to a default position; and a thumbstick cap that is connected to the thumbstick module, the thumbstick cap comprising: a thumbstick base that is connected to the moveable post of the thumbstick module and comprises a dome-shaped component having a top surface and a bottom surface, the top surface defining a circular depression and the bottom surface defining a circular recess that is vertically aligned with the circular depression and in which a ring magnet is disposed; and a thumbstick top comprising a cylindrical stem that comprises ferromagnetic material that is attracted to the ring magnet and is inserted into the circular depression to removably connect the thumbstick top to the thumbstick base, the thumbstick top being manipulable by a user to cause a displacement of the moveable post of the thumbstick module from the default position. a thumbstick module comprising a moveable post and being operable to generate an analog input control signal based on a position of the moveable post in relation to a default position; and a thumbstick cap that is connected to the thumbstick module, the thumbstick cap comprising: a thumbstick base that is connected to the moveable post of the thumbstick module and comprises a dome-shaped component having a top surface and a bottom surface, the top surface defining a circular depression and the bottom surface defining a circular recess that is vertically aligned with the circular depression and in which a ring magnet is disposed; and a thumbstick top comprising a cylindrical stem that comprises ferromagnetic material that is attracted to the ring magnet and is inserted into the circular depression to removably connect the thumbstick top to the thumbstick base, the thumbstick top being manipulable by a user to cause a displacement of the moveable post of the thumbstick module from the default position. a thumbstick base that is connected to the moveable post of the thumbstick module and comprises a dome-shaped component having a top surface and a bottom surface, the top surface defining a circular depression and the bottom surface defining a circular recess that is vertically aligned with the circular depression and in which a ring magnet is disposed; and a thumbstick top comprising a cylindrical stem that comprises ferromagnetic material that is attracted to the ring magnet and is inserted into the circular depression to removably connect the thumbstick top to the thumbstick base, the thumbstick top being manipulable by a user to cause a displacement of the moveable post of the thumbstick module from the default position.
A method of generating a signal, S out, being phase-shifted at a predetermined phase-shift division factor relative to a reference signal, S ref, the method comprising: selecting a modulation amplitude that equals modulation amplitude of said reference signal, S ref, multiplied by the predetermined phase-shift division factor; modulating a control signal, S, at said selected modulation amplitude, wherein a cosine of a difference θ in between a modulation phase of the reference signal, S ref, and a modulation phase of the control signal, S, in absolute value, is at least 0.5; and linearly combining the reference signal, S ref, and said control signal, S, to form the phase-shifted signal, S out, thereby ensuring that a ratio between a change in a phase difference, θ out, of said phase-shifted signal, S out, relative to said reference signal S ref, and a corresponding change in said θ in is said predetermined phase-shift division factor. selecting a modulation amplitude that equals modulation amplitude of said reference signal, S ref, multiplied by the predetermined phase-shift division factor; modulating a control signal, S, at said selected modulation amplitude, wherein a cosine of a difference θ in between a modulation phase of the reference signal, S ref, and a modulation phase of the control signal, S, in absolute value, is at least 0.5; and linearly combining the reference signal, S ref, and said control signal, S, to form the phase-shifted signal, S out, thereby ensuring that a ratio between a change in a phase difference, θ out, of said phase-shifted signal, S out, relative to said reference signal S ref, and a corresponding change in said θ in is said predetermined phase-shift division factor.
A light emitting diode, LED, comprising: a first electrode (110; 210) and a second electrode (120; 220) facing each other; a hole transporting layer (140; 260) between the first electrode (110; 210) and the second electrode (120; 220), and an emitting material layer (150; 250) between the first electrode and the hole transporting layer or between the second electrode and the hole transporting layer, wherein the hole transporting layer (140; 260) includes an inorganic compound comprising inorganic nano particles of a chemical formula 1, A:M 1:M 2, where the A is an inorganic semiconductor material and the M 1 and M 2 are different from each other, characterized in that: the M 1 and M 2 are metal positive ions which the A is doped with, wherein each of the M 1 and M 2 is selected from a group consisting of a transition metal positive ion, a post-transition metal positive ion, a rare earth metal positive ion, and a lanthanide metal positive ion. a first electrode (110; 210) and a second electrode (120; 220) facing each other; a hole transporting layer (140; 260) between the first electrode (110; 210) and the second electrode (120; 220), and an emitting material layer (150; 250) between the first electrode and the hole transporting layer or between the second electrode and the hole transporting layer, wherein the hole transporting layer (140; 260) includes an inorganic compound comprising inorganic nano particles of a chemical formula 1, A:M 1:M 2, where the A is an inorganic semiconductor material and the M 1 and M 2 are different from each other, the M 1 and M 2 are metal positive ions which the A is doped with, wherein each of the M 1 and M 2 is selected from a group consisting of a transition metal positive ion, a post-transition metal positive ion, a rare earth metal positive ion, and a lanthanide metal positive ion.
A method of preparing a poly-silicon thin film transistor which comprises a doped region, comprising the following steps: forming a poly-silicon layer on a substrate, and forming an active layer by a patterning process; forming a first insulating layer covering the active layer; forming, by a patterning process, via holes exposing the active layer in the first insulating layer at preset positions for forming a source electrode and a drain electrode in subsequent steps; doping the active layer through the via holes by a doping process, in which only the first insulating layer having the via holes and directly contacting the active layer is used as a mask so that avoiding use of a photoresist mask, to form a doped region; and forming a source-drain metal layer, and forming the source electrode and the drain electrode by a patterning process. forming a poly-silicon layer on a substrate, and forming an active layer by a patterning process; forming a first insulating layer covering the active layer; forming, by a patterning process, via holes exposing the active layer in the first insulating layer at preset positions for forming a source electrode and a drain electrode in subsequent steps; doping the active layer through the via holes by a doping process, in which only the first insulating layer having the via holes and directly contacting the active layer is used as a mask so that avoiding use of a photoresist mask, to form a doped region; and forming a source-drain metal layer, and forming the source electrode and the drain electrode by a patterning process.
A method, comprising: providing a metal substrate; applying a first powder coating composition; applying a second powder coating composition on the non-gelled first coating composition, the second composition comprising: at least one polymeric binder resin; and an application additive used to increase faraday cage penetration while limiting back ionization, wherein the application additive comprises an extrudable antistatic component; and a post-blended highly dispersed component. providing a metal substrate; applying a first powder coating composition; applying a second powder coating composition on the non-gelled first coating composition, the second composition comprising: at least one polymeric binder resin; and an application additive used to increase faraday cage penetration while limiting back ionization, wherein the application additive comprises an extrudable antistatic component; and a post-blended highly dispersed component. at least one polymeric binder resin; and an application additive used to increase faraday cage penetration while limiting back ionization, wherein the application additive comprises an extrudable antistatic component; and a post-blended highly dispersed component. an extrudable antistatic component; and a post-blended highly dispersed component.
Method for transmission of different HART variables from a peripheral module (12a, 12b, 12c) used for connection of HART field devices into a CPU unit of a programmable logic controller, wherein the peripheral module (12a, 12b, 12c) has an address space with an input area and an output area and in the input area provides the HART variables, which are continuously updated by the peripheral module (12a, 12b, 12c) and are cyclically read by the CPU unit, characterised in that a communication area for the transmission of an individual HART variable is provided in the input and output area of the address space, wherein the CPU unit writes a command, which specifies the HART variable currently to be read, into the output area of the communication area, and that the peripheral module (12a, 12b, 12c) provides and updates the specified HART variable in the input area of the communication area until such time as the CPU unit writes a new command, which specifies another HART variable to be read, into the output area.