mhurhangee/ep-ind-claims huggingface dataset:
An optical device comprising a layer structure with: a thermally conducting, optical reflector; a thermally conducting spacer, which is transmissive to light and arranged above the reflector; and a phase change material, or PCM, arranged above the spacer and having at least two reversibly switchable states, in which the PCM exhibits two different values of refractive index, wherein, the reflector, the spacer and the PCM are successively stacked along a stacking direction (z) of the layer structure, and wherein the optical device further comprises: a heating element; and a controller (19, 19a, 30) configured to energize the heating element, so as to heat the PCM and thereby reversibly change a refractive index and/or an absorption of said PCM, characterized in that: the heating element is opposite to the PCM with respect to the reflector, the layer structure being configured so as to electrically insulate the PCM from the heating element, while the heating element is in thermal communication with the PCM via the reflector and the spacer. a thermally conducting, optical reflector; a thermally conducting spacer, which is transmissive to light and arranged above the reflector; and a phase change material, or PCM, arranged above the spacer and having at least two reversibly switchable states, in which the PCM exhibits two different values of refractive index, a heating element; and a controller (19, 19a, 30) configured to energize the heating element, so as to heat the PCM and thereby reversibly change a refractive index and/or an absorption of said PCM, characterized in that: the heating element is opposite to the PCM with respect to the reflector, the layer structure being configured so as to electrically insulate the PCM from the heating element, while the heating element is in thermal communication with the PCM via the reflector and the spacer.
Heat sinking assembly for a component mounted on an electronic circuit board, comprising a heat sinking device, in which: • the heat sinking device is a hollow body, of cylindrical or straight prismatic form, consisting of a first material, arranged vertically on top of the electronic circuit board, the useful volume of the cylindrical body being able to include at least the component, • the heat sinking device includes a resin consisting of a second material having a thermal conductivity greater than 1 W.m -1.K -1 and, at least partially filling the internal volume of the body forming a shuttering said component being at least partially buried in the volume of resin, characterized in that: • the body comprises at least two tabs in its top portion, said two tabs being formed by protuberances on two opposite faces of the body, said two tabs comprising a particular fold line conferring on them a coefficient of flexibility along the main axis of the body, offering one planar surface substantially parallel to the base of the body and able to be in contact with a main heat sink. • the heat sinking device is a hollow body, of cylindrical or straight prismatic form, consisting of a first material, arranged vertically on top of the electronic circuit board, the useful volume of the cylindrical body being able to include at least the component, • the heat sinking device includes a resin consisting of a second material having a thermal conductivity greater than 1 W.m -1.K -1 and, at least partially filling the internal volume of the body forming a shuttering said component being at least partially buried in the volume of resin, • the body comprises at least two tabs in its top portion, said two tabs being formed by protuberances on two opposite faces of the body, said two tabs comprising a particular fold line conferring on them a coefficient of flexibility along the main axis of the body, offering one planar surface substantially parallel to the base of the body and able to be in contact with a main heat sink.
A target sodium silicate solution, comprising: biogenic silica in an amorphous state; sodium hydroxide; and water, wherein the target sodium silicate solution has a ratio R of SiO 2:Na 2 O by weight that is greater than or equal to 1.8, wherein the target sodium silicate solution has a combined chloride ion and sulfate ion concentration that is equivalent to less than or equal to 250 ppm in a standardized sodium silicate solution that has approximately 37% solids by weight and that has a ratio R by weight of SiO 2 to Na 2 O that is approximately 3.3, and wherein the target sodium silicate solution has a total organic content that is equivalent to less than approximately 30 ppm in the standardized sodium silicate solution. biogenic silica in an amorphous state; sodium hydroxide; and water, wherein the target sodium silicate solution has a ratio R of SiO 2:Na 2 O by weight that is greater than or equal to 1.8, wherein the target sodium silicate solution has a combined chloride ion and sulfate ion concentration that is equivalent to less than or equal to 250 ppm in a standardized sodium silicate solution that has approximately 37% solids by weight and that has a ratio R by weight of SiO 2 to Na 2 O that is approximately 3.3, and wherein the target sodium silicate solution has a total organic content that is equivalent to less than approximately 30 ppm in the standardized sodium silicate solution.
A method for producing a 3D item by means of fused deposition modelling, the method comprising: - a 3D printing stage comprising layer-wise depositing an extrudate comprising 3D printable material, wherein during at least part of the 3D printing stage the extrudate comprises a core-shell extrudate comprising a core comprising a core material, and a shell comprising a shell material, to provide the 3D item comprising 3D printed material, wherein the 3D item comprises a plurality of layers of 3D printed material, wherein one or more of layers comprises one or more core-shell layer parts, wherein each of the core-shell layer parts comprises a layer core comprising the core material, and a layer shell comprising the shell material, wherein the 3D item has an item surface defined by at least part of the 3D printed material; - an exposure stage comprising exposing at least part of the item surface to a liquid, wherein the core material has core material solubility SC1 for the liquid and wherein the shell material has a shell material solubility SS1 for the liquid, wherein SC1<SS2, wherein: - the core material comprises one or more of polycarbonate, polyethylene, high-density polyethylene (HDPE), polypropylene, polyoxymethylene, polyethylene naphthalate, styrene-acrylonitrile resin, polysulfone, polyphenylene sulfide, and semi-crystalline polytethylene terephthalate; and - the shell material comprises one or more of acrylonitrile butadiene styrene, poly(methyl methacrylate) (PMMA), polystyrene, and styrene acrylic copolymers (SMMA). - a 3D printing stage comprising layer-wise depositing an extrudate comprising 3D printable material, wherein during at least part of the 3D printing stage the extrudate comprises a core-shell extrudate comprising a core comprising a core material, and a shell comprising a shell material, to provide the 3D item comprising 3D printed material, wherein the 3D item comprises a plurality of layers of 3D printed material, wherein one or more of layers comprises one or more core-shell layer parts, wherein each of the core-shell layer parts comprises a layer core comprising the core material, and a layer shell comprising the shell material, wherein the 3D item has an item surface defined by at least part of the 3D printed material; - an exposure stage comprising exposing at least part of the item surface to a liquid, wherein the core material has core material solubility SC1 for the liquid and wherein the shell material has a shell material solubility SS1 for the liquid, wherein SC1<SS2, wherein: - the core material comprises one or more of polycarbonate, polyethylene, high-density polyethylene (HDPE), polypropylene, polyoxymethylene, polyethylene naphthalate, styrene-acrylonitrile resin, polysulfone, polyphenylene sulfide, and semi-crystalline polytethylene terephthalate; and - the shell material comprises one or more of acrylonitrile butadiene styrene, poly(methyl methacrylate) (PMMA), polystyrene, and styrene acrylic copolymers (SMMA).
An article of footwear sidewall buffing system, the system comprising: a rotational brush with a plurality of bristles extending outwardly from a rotational axis of the rotational brush; a footwear component holder comprising a support surface (118, 120, 122) and a clamp surface; and a brush rotational drive coupled with the rotational brush, characterised in that the brush rotational drive is coupled with the rotational brush to rotate the rotational brush at a variable rate based on location (710, 712, 714, 716) of the rotational brush relative to the footwear component holder, wherein the brush rotational drive rotates the rotational brush at a first speed at a first location (712, 716) relative to the footwear component holder and the brush rotational drive rotates the rotational brush at a second speed at a second location (710, 714) relative to the footwear component holder.
A computer-implemented method for determining the effects of executing software components comprising: an analyzer initiating execution of a software component on a first computing device, wherein the first computing device includes first hardware components and first sensors, wherein the first sensors are external to the first hardware components, wherein a first hardware component of the first hardware components is coupled to a second hardware component of the first hardware components, wherein the software component is executed on the first hardware component, and wherein a first sensor of the first sensors is configured to monitor communications between the first hardware component and the second hardware component; the analyzer receiving first monitoring data, from the first sensor, regarding a communication between the first hardware component and the second hardware component; and the analyzer analyzing first effects of executing the software component on the first computing device based at least partially on the first monitoring data; wherein the method further comprises comparing the first effects to second effects of executing a second software component on a second computing device, the second computing device including second hardware components and second sensors. an analyzer initiating execution of a software component on a first computing device, wherein the first computing device includes first hardware components and first sensors, wherein the first sensors are external to the first hardware components, wherein a first hardware component of the first hardware components is coupled to a second hardware component of the first hardware components, wherein the software component is executed on the first hardware component, and wherein a first sensor of the first sensors is configured to monitor communications between the first hardware component and the second hardware component; the analyzer receiving first monitoring data, from the first sensor, regarding a communication between the first hardware component and the second hardware component; and the analyzer analyzing first effects of executing the software component on the first computing device based at least partially on the first monitoring data; wherein the method further comprises comparing the first effects to second effects of executing a second software component on a second computing device, the second computing device including second hardware components and second sensors.
A display device comprising: a memory configured to store a plurality of templates differently set by kinds of messages; a detector configured to detect different pieces of status information; a display configured to display a message transfer screen; a controller configured to automatically generate a message through combination of the template and the status information, which respectively correspond to a selected kind of message, if the kind of message to be transferred is selected on the message transfer screen; wherein the templates being updated according to a user operation and wherein the kinds of messages can be edited according to a user operation; and a communicator configured to transfer the message to an external device characterised by: the message transfer screen comprises a menu comprising an opposite party and a predetermined message kind selection icon, whereby the display device is configured, in use, such that when a user selects a message kind icon, the controller generates a sentence through a combination of the predetermined template with the status information detected by the detector. a memory configured to store a plurality of templates differently set by kinds of messages; a detector configured to detect different pieces of status information; a display configured to display a message transfer screen; a controller configured to automatically generate a message through combination of the template and the status information, which respectively correspond to a selected kind of message, if the kind of message to be transferred is selected on the message transfer screen; wherein the templates being updated according to a user operation and wherein the kinds of messages can be edited according to a user operation; and a communicator configured to transfer the message to an external device characterised by: the message transfer screen comprises a menu comprising an opposite party and a predetermined message kind selection icon, whereby the display device is configured, in use, such that when a user selects a message kind icon, the controller generates a sentence through a combination of the predetermined template with the status information detected by the detector. the message transfer screen comprises a menu comprising an opposite party and a predetermined message kind selection icon, whereby the display device is configured, in use, such that when a user selects a message kind icon, the controller generates a sentence through a combination of the predetermined template with the status information detected by the detector.
A method of filling and closing a fluid dispenser device comprising: a body, a reservoir containing one or two doses of a fluid, said reservoir including a stopper that closes said reservoir in leaktight manner before actuation; a dispenser head that is provided with a dispenser orifice; and dispenser means for dispensing at least a portion of said fluid through said dispenser orifice during actuation; said device including a needle having a tip that is adapted to pierce said stopper during actuation, said method being characterized in that it comprises the following steps: - filling an empty reservoir in a filler unit, - arranging said filled reservoir in a closure unit that is provided with a vacuum chamber, - creating a vacuum in said vacuum chamber, - place a funnel at an opening of said reservoir, a stopper being pre-positioned in said funnel, - position a closure tool above said funnel, and - closing said reservoir under a vacuum with said stopper, by axially moving said closure tool. - filling an empty reservoir in a filler unit, - arranging said filled reservoir in a closure unit that is provided with a vacuum chamber, - creating a vacuum in said vacuum chamber, - place a funnel at an opening of said reservoir, a stopper being pre-positioned in said funnel, - position a closure tool above said funnel, and - closing said reservoir under a vacuum with said stopper, by axially moving said closure tool.
A pharmaceutical composition comprising exosomes derived from mesenchymal stem cells (MSCs), for use in the treatment of an autism spectrum disorder.
A surgical access assembly (10,100) for positioning within an opening in tissue, the surgical access assembly comprising: an outer tensioning member (12,102) positionable outside a patient and having an opening dimensioned and configured to receive a surgical instrument therethrough, the outer tensioning member including first and second portions (14,16,104,106), the first and second portions having a locking position with respect to each other and a release position, the first and second portions being biased to the locking position; and a flexible membrane (70,170) extending distally with respect to the outer tensioning member, the flexible membrane being spread upon movement of at least one of the first and second portions away from the other portion to retract soft tissue adjacent the opening in tissue characterized in that the surgical access assembly further comprises a retaining frame (18,108), the retaining frame having at least one spring (69a,69b,132a,132b) to bias the first portion into locking engagement with the second portion, the first portion being biased in an axial direction along a longitudinal axis of the outer tensioning member. an outer tensioning member (12,102) positionable outside a patient and having an opening dimensioned and configured to receive a surgical instrument therethrough, the outer tensioning member including first and second portions (14,16,104,106), the first and second portions having a locking position with respect to each other and a release position, the first and second portions being biased to the locking position; and a flexible membrane (70,170) extending distally with respect to the outer tensioning member, the flexible membrane being spread upon movement of at least one of the first and second portions away from the other portion to retract soft tissue adjacent the opening in tissue characterized in that the surgical access assembly further comprises a retaining frame (18,108), the retaining frame having at least one spring (69a,69b,132a,132b) to bias the first portion into locking engagement with the second portion, the first portion being biased in an axial direction along a longitudinal axis of the outer tensioning member.
Heating device with a support and with at least one sheet-like electrical heating conductor arranged on said support, wherein the heating conductor runs between a first terminal and a second terminal, wherein the at least one heating conductor comprises carbon-based material as heating conductor material, characterized in that - the at least one heating conductor is formed in plan view as a portion of a circular ring, - the first terminal and the second terminal extend essentially in a circumferential direction, wherein one terminal extends on an inside and one terminal extends on an outside, - the heating conductor thickness varies along a current flow or current path between the two terminals (618a, 618a'). - the at least one heating conductor is formed in plan view as a portion of a circular ring, - the first terminal and the second terminal extend essentially in a circumferential direction, wherein one terminal extends on an inside and one terminal extends on an outside, - the heating conductor thickness varies along a current flow or current path between the two terminals (618a, 618a').
Method for providing static and dynamic position information of a designated point of a measuring device (1,2), the measuring device (1,2) comprising • a surface and • a structure comprising the designated point and being arranged moveable relatively to the surface, said method comprising the following steps: • defining a model for representing an actual position of the designated point of the structure relative to the surface and • deriving the actual position of the designated point by a calculation based on the defined model, characterised by • the model comprising at least two cells (41,43-46,51) for modelling the structure, wherein ∘ the at least two cells (41,43-46,51) for modelling the structure are linearly arranged in a linear extension direction, ∘ at least one of the cells (41,43-46,51) for modelling the structure is a variable cell (43-46,51) of a set of at least one variable cell (43-46,51) and ∘ the at least one variable cell (43-46,51) having variable elongation as to the extension direction, and • setting an actual elongation of the at least one variable cell (43-46,51) in order to model a positional change, particularly in linear extension direction, of the designated point, • wherein for the at least one of the variable cell (43-46,51), a mass of said cell (43-46,51) is changed when the elongation is changed. • a surface and • a structure comprising the designated point and being arranged moveable relatively to the surface, said method comprising the following steps: • defining a model for representing an actual position of the designated point of the structure relative to the surface and • deriving the actual position of the designated point by a calculation based on the defined model, characterised by • defining a model for representing an actual position of the designated point of the structure relative to the surface and • deriving the actual position of the designated point by a calculation based on the defined model, • the model comprising at least two cells (41,43-46,51) for modelling the structure, wherein ∘ the at least two cells (41,43-46,51) for modelling the structure are linearly arranged in a linear extension direction, ∘ at least one of the cells (41,43-46,51) for modelling the structure is a variable cell (43-46,51) of a set of at least one variable cell (43-46,51) and ∘ the at least one variable cell (43-46,51) having variable elongation as to the extension direction, and ∘ the at least two cells (41,43-46,51) for modelling the structure are linearly arranged in a linear extension direction, ∘ at least one of the cells (41,43-46,51) for modelling the structure is a variable cell (43-46,51) of a set of at least one variable cell (43-46,51) and ∘ the at least one variable cell (43-46,51) having variable elongation as to the extension direction, and • setting an actual elongation of the at least one variable cell (43-46,51) in order to model a positional change, particularly in linear extension direction, of the designated point, • wherein for the at least one of the variable cell (43-46,51), a mass of said cell (43-46,51) is changed when the elongation is changed.
A method of improving throughput conditions in a wireless communication network for a wireless multiple-input, multiple-output, MIMO, communication node comprising an antenna array having a plurality of reconfigurable antennas, the MIMO communication node being configured to communicate with a remote communication node, characterized in that the method comprises: determining whether multiplicative noise limits the throughput conditions, said multiplicative noise comprising any noise dependent on or proportional to a signal strength of at least one of the MIMO communication node and the remote communication node; and if it is determined that the throughput is limited by multiplicative noise, reconfiguring one or more of the reconfigurable antennas to redirect a radiation pattern of each of the reconfigured antennas to reduce a gain of the reconfigured antennas for a dominant signal path between the MIMO communication node and the remote communication node. determining whether multiplicative noise limits the throughput conditions, said multiplicative noise comprising any noise dependent on or proportional to a signal strength of at least one of the MIMO communication node and the remote communication node; and if it is determined that the throughput is limited by multiplicative noise, reconfiguring one or more of the reconfigurable antennas to redirect a radiation pattern of each of the reconfigured antennas to reduce a gain of the reconfigured antennas for a dominant signal path between the MIMO communication node and the remote communication node.