mhurhangee/patent-ind-claim-en huggingface dataset:
A transport device comprising: a thermally insulated container that has a cylindrical shape and a bottom, a heat storage material disposed along the inner circumferential surface of the thermally insulated container , a temperature control unit that is detachably fitted on the thermally insulated container and is configured for performing thermal storage temperature controlling treatment on the heat storage material , and a first temperature sensor for measuring a temperature of the heat storage material , wherein the temperature controlling unit comprises a heat transferring body for performing the thermal storage temperature control processing on the heat storage material when the temperature control unit is fitted on the thermally insulated container , and a controller for controlling the temperature of the heat transferring body on the basis of a measurement signal of the first temperature sensor , characterised in that the first temperature sensor measures the temperature of a surface of the heat storage material which faces away from the heat transferring body in a thickness direction of the heat storage material . a thermally insulated container that has a cylindrical shape and a bottom, a heat storage material disposed along the inner circumferential surface of the thermally insulated container , a temperature control unit that is detachably fitted on the thermally insulated container and is configured for performing thermal storage temperature controlling treatment on the heat storage material , and a first temperature sensor for measuring a temperature of the heat storage material , wherein the temperature controlling unit comprises a heat transferring body for performing the thermal storage temperature control processing on the heat storage material when the temperature control unit is fitted on the thermally insulated container , and a controller for controlling the temperature of the heat transferring body on the basis of a measurement signal of the first temperature sensor , characterised in that the first temperature sensor measures the temperature of a surface of the heat storage material which faces away from the heat transferring body in a thickness direction of the heat storage material .
Seat comprising a seat surface and, connected thereto, a central leg which is provided with a number of feet close to an end remote from the seat surface , which feet are each movable between a transport position directed substantially parallel to the leg and an operative position extending substantially in radial direction from the leg , wherein at least several feet are connected to each other by at least one connecting element extending at a distance from the central leg , characterized in that each foot has an inner end part connected movably to the central leg and, opposite thereto, an outer end part removed from the central leg , and the at least one connecting element extends substantially between the outer end parts of two adjacent feet .
Suspension assembly, comprising: a support member including a wire attach structure; a moving member coupled to the support member , including: a plate ; flexure arms extending from the plate and coupled to the support member ; and a wire attach structure; a sliding bearing interface between the support member and the plate of the moving member ; and a shape memory alloy wire coupled to and extending between the wire attach structures of the support member and the moving member . a support member including a wire attach structure; a moving member coupled to the support member , including: a plate ; flexure arms extending from the plate and coupled to the support member ; and a wire attach structure; a plate ; flexure arms extending from the plate and coupled to the support member ; and a wire attach structure; a sliding bearing interface between the support member and the plate of the moving member ; and a shape memory alloy wire coupled to and extending between the wire attach structures of the support member and the moving member .
A method for replacing a sleeve lining a tube passing through a nuclear reactor pressure vessel , the sleeve having an end including a radially enlarged end portion configured for resting on a support section of the tube for retaining the sleeve in the tube, the method comprising: removing the sleeve from the tube ; providing a new sleeve with a radially variable end configured for being moved between a radially contracted configuration and a radially expanded configuration; and installing the new sleeve in the tube such that the radially variable end is received by the support section and the radially variable end retains the new sleeve in the tube , the radially variable end being in the radially contracted configuration during installation and being in the radially expanded configuration after the new sleeve is installed in the tube , wherein the installing of the new sleeve in the tube includes, after the radially variable end is received by the support section , mounting a retainer on the radially variable end to restrain the radially variable end in the radially expanded configuration. removing the sleeve from the tube ; providing a new sleeve with a radially variable end configured for being moved between a radially contracted configuration and a radially expanded configuration; and installing the new sleeve in the tube such that the radially variable end is received by the support section and the radially variable end retains the new sleeve in the tube , the radially variable end being in the radially contracted configuration during installation and being in the radially expanded configuration after the new sleeve is installed in the tube , wherein the installing of the new sleeve in the tube includes, after the radially variable end is received by the support section , mounting a retainer on the radially variable end to restrain the radially variable end in the radially expanded configuration.
An apparatus for monitoring a vascular access device , comprising: - at least one signals emitter for generating vibrations to induce a portion of the vascular access device to vibrate, wherein the portion of the vascular access device serves to establish a connection between the vascular access device and the vascular system of the patient and can be at least partially inserted into the vascular system; - at least one signals receiver for detecting vibrations of the portion of the vascular access device ; - and at least an evaluation device for evaluating the detected vibrations. - at least one signals emitter for generating vibrations to induce a portion of the vascular access device to vibrate, wherein the portion of the vascular access device serves to establish a connection between the vascular access device and the vascular system of the patient and can be at least partially inserted into the vascular system; - at least one signals receiver for detecting vibrations of the portion of the vascular access device ; - and at least an evaluation device for evaluating the detected vibrations.
A method of manufacturing an electrode, the method comprising the steps of preparing an electrode forming composition comprising a catalyst and an ionomer, the catalyst including a carbon-based support and catalytic metal particles supported on the carbon-based support, the ionomer being a fluoro-based polymer having a cation exchange group; applying a low-frequency acoustic energy to the electrode forming composition, thereby performing resonant vibratory mixing of the electrode forming composition to coat the ionomer on the surface of the catalyst; and coating the electrode forming composition to manufacture the electrode. preparing an electrode forming composition comprising a catalyst and an ionomer, the catalyst including a carbon-based support and catalytic metal particles supported on the carbon-based support, the ionomer being a fluoro-based polymer having a cation exchange group; applying a low-frequency acoustic energy to the electrode forming composition, thereby performing resonant vibratory mixing of the electrode forming composition to coat the ionomer on the surface of the catalyst; and coating the electrode forming composition to manufacture the electrode.
A deployable side panel assembly for a vehicle , comprising: at least one deployable panel having a predetermined profile, where the first extending panel selectively deploys and retracts between a deployed position and a stowed position, where the deployment of the deployable panel improves aerodynamics; and at least one actuator operably coupled to the at least one deployable panel , where the actuator has object detection and is in communication with the vehicle for automatically deploying of the deployable panel under predetermined conditions. at least one deployable panel having a predetermined profile, where the first extending panel selectively deploys and retracts between a deployed position and a stowed position, where the deployment of the deployable panel improves aerodynamics; and at least one actuator operably coupled to the at least one deployable panel , where the actuator has object detection and is in communication with the vehicle for automatically deploying of the deployable panel under predetermined conditions.
A pressure sensor device , comprising: a pressure detection structure provided in a first die of semiconductor material; a package , configured to internally accommodate said pressure detection structure in an impermeable manner, the package comprising a base structure and a body structure , arranged on the base structure , having an access opening in contact with an external environment and internally defining a housing cavity , in which said first die is arranged covered by a coating material , characterized by further comprising, accommodated in said housing cavity , a piezoelectric transduction structure , of a ultrasonic type, configured to allow detection of foreign material on said coating material within said package . a pressure detection structure provided in a first die of semiconductor material; a package , configured to internally accommodate said pressure detection structure in an impermeable manner, the package comprising a base structure and a body structure , arranged on the base structure , having an access opening in contact with an external environment and internally defining a housing cavity , in which said first die is arranged covered by a coating material , characterized by further comprising, accommodated in said housing cavity , a piezoelectric transduction structure , of a ultrasonic type, configured to allow detection of foreign material on said coating material within said package .
An anode material having porous core-shell structure, the anode material comprising: a core formed of at least one carbonaceous material selected from a group consisting of graphite, hard carbon and soft carbon, and a carbon shell coated on surface of the core, wherein the carbon shell contains amorphous carbon, cobalt element and tin element, and has a porous structure having a porosity greater than 10%.
Composition, especially comprising a physiologically acceptable medium, especially for coating keratin materials, more particularly for making up and/or caring for keratin materials such as the skin, and containing a) at least one ester-terminated poly(ester-amide) polymer; b) at least one volatile alkane; c) at least one tackifying resin chosen from the group constituted of indene hydrocarbon-based resins, pentadiene aliphatic resins, cyclopentadiene aliphatic resins, mixed resins of pentadiene and of indene, cyclopentadiene dimer diene resins, isoprene dimer diene resins, hydrogenated resins resulting from the polymerization of pentadiene, hydrogenated resins resulting from the polymerization of cyclopentadiene, and mixtures thereof. and d) a particulate phase comprising at least one pigment. a) at least one ester-terminated poly(ester-amide) polymer; b) at least one volatile alkane; c) at least one tackifying resin chosen from the group constituted of indene hydrocarbon-based resins, pentadiene aliphatic resins, cyclopentadiene aliphatic resins, mixed resins of pentadiene and of indene, cyclopentadiene dimer diene resins, isoprene dimer diene resins, hydrogenated resins resulting from the polymerization of pentadiene, hydrogenated resins resulting from the polymerization of cyclopentadiene, and mixtures thereof. and d) a particulate phase comprising at least one pigment.
A method for operating a hearing aid , - wherein the sound is recorded by means of a microphone , - wherein the sound is analyzed with respect to its correspondence with the own voice of the hearing aid wearer and a feature value (M) is generated which indicates how strongly the sound corresponds with the own voice of the hearing aid wearer, - wherein the own voice is a sound type (G1), - wherein the feature value (M) is compared with a threshold value (S), - wherein the sound is identified as the own voice depending on whether the feature value (M) is above or below the threshold value (S), and - wherein the hearing aid is switched between multiple operating modes depending on whether the sound was identified as the own voice, - wherein the threshold value (S) is determined depending on the user and is set as an individual threshold value (S), in that the threshold value (S) is determined by means of a calibration method, in which the own voice of the hearing aid wearer is recorded and multiple individual feature values (M) are generated, and in which finally the individual threshold value (S) is set depending on the generated individual feature values (M), characterized in that in addition to the correspondence with the own voice, the sound is also analyzed with respect to a correspondence with at least one other sound type (G2) and the other sound type (G2) is recorded in the calibration method before or after the recording of the own voice, and multiple feature values (M) are also generated in this case, depending on which the threshold value (S) is set. - wherein the sound is recorded by means of a microphone , - wherein the sound is analyzed with respect to its correspondence with the own voice of the hearing aid wearer and a feature value (M) is generated which indicates how strongly the sound corresponds with the own voice of the hearing aid wearer, - wherein the own voice is a sound type (G1), - wherein the feature value (M) is compared with a threshold value (S), - wherein the sound is identified as the own voice depending on whether the feature value (M) is above or below the threshold value (S), and - wherein the hearing aid is switched between multiple operating modes depending on whether the sound was identified as the own voice, - wherein the threshold value (S) is determined depending on the user and is set as an individual threshold value (S), in that the threshold value (S) is determined by means of a calibration method, in which the own voice of the hearing aid wearer is recorded and multiple individual feature values (M) are generated, and in which finally the individual threshold value (S) is set depending on the generated individual feature values (M), characterized in that
An assembly of structures at least one first structure of which is a composite structure including a sandwich composite panel , consisting of a first skin and second skin on either side of a core , characterised in that said first structure includes at least one extension of an edge of the sandwich composite panel made by a monolithic part forming a single wall as an extension of the sandwich composite panel beyond a panel fastening border, said single wall forming an additional panel with a reduced thickness relative to the sandwich composite panel for which said single wall of said first structure is applied to a face (11") of the other of the structures at a distance from a joining part between said structures, said single wall being shaped to move away from said face and make a conduit or a box the walls of which are formed of said single wall and said face (11") of the other of the structures.
An electronic device configured to support a first speech-based intelligent agent, comprising: a communication circuit; a processor operatively connected to the communication circuit; and a memory operatively connected to the processor, wherein the memory stores instructions which, when executed, cause the processor to control the electronic device to: receive speech data from a user terminal through the communication circuit, process the speech data to generate text data; identify a device intended to be controlled through analysis of the text data, receive information on an intelligent agent supported by the identified device from a first external server through the communication circuit, and determine whether to transmit the speech data to a second external server supporting a second speech-based intelligent agent based on the information on the intelligent agent supported by the identified device. a communication circuit; a processor operatively connected to the communication circuit; and a memory operatively connected to the processor, wherein the memory stores instructions which, when executed, cause the processor to control the electronic device to: receive speech data from a user terminal through the communication circuit, process the speech data to generate text data; identify a device intended to be controlled through analysis of the text data, receive information on an intelligent agent supported by the identified device from a first external server through the communication circuit, and determine whether to transmit the speech data to a second external server supporting a second speech-based intelligent agent based on the information on the intelligent agent supported by the identified device. receive speech data from a user terminal through the communication circuit, process the speech data to generate text data; identify a device intended to be controlled through analysis of the text data, receive information on an intelligent agent supported by the identified device from a first external server through the communication circuit, and determine whether to transmit the speech data to a second external server supporting a second speech-based intelligent agent based on the information on the intelligent agent supported by the identified device.
A MOSFET device , comprising: a semiconductor substrate having a first conductivity type; a first well doped region formed in a portion of the semiconductor substrate , having a second conductivity type that is the opposite of the first conductivity type; a first doped region formed on the first well doped region, having the second conductivity type and serving as a source doped region; a second doped region formed on the first well doped region and separated from the first doped region , having the second conductivity type and serving as a drain doped region; a first gate structure (G1) formed over the first well doped region and adjacent to the first doped region ; a second gate structure (G2) overlapping a portion of the first gate structure (G1) and a portion of the first well doped region ; and a third gate structure (G3), the third gate structure (G3) either formed beside the second gate structure (G2) and adjacent to the second doped region or formed overlapping a portion of a fourth gate region (G4) formed adjacent to the second doped region , wherein a top surface of the well doped region between the second gate structure (G2) and the third gate structure (G3) exposed by a spacing (S1) between said second gate structure (G2) and said third gate structure (G3) has no gate structure formed thereon, wherein the spacing (S1) is in a range of 0.4 μm - 0.8 μm and wherein the top surface of the well doped region between the second gate structure (G2) and the third gate structure (G3) exposed by the spacing (S1) has no silicide formed thereon. a semiconductor substrate having a first conductivity type; a first well doped region formed in a portion of the semiconductor substrate , having a second conductivity type that is the opposite of the first conductivity type; a first doped region formed on the first well doped region, having the second conductivity type and serving as a source doped region; a second doped region formed on the first well doped region and separated from the first doped region , having the second conductivity type and serving as a drain doped region; a first gate structure (G1) formed over the first well doped region and adjacent to the first doped region ; a second gate structure (G2) overlapping a portion of the first gate structure (G1) and a portion of the first well doped region ; and a third gate structure (G3), the third gate structure (G3) either formed beside the second gate structure (G2) and adjacent to the second doped region or formed overlapping a portion of a fourth gate region (G4) formed adjacent to the second doped region , wherein a top surface of the well doped region between the second gate structure (G2) and the third gate structure (G3) exposed by a spacing (S1) between said second gate structure (G2) and said third gate structure (G3) has no gate structure formed thereon, wherein the spacing (S1) is in a range of 0.4 μm - 0.8 μm and wherein the top surface of the well doped region between the second gate structure (G2) and the third gate structure (G3) exposed by the spacing (S1) has no silicide formed thereon.
Impregnate with an impregnated paper layer with antistatic properties for use in laminates or for coating wood-based panels, wherein the resin used for impregnating and/or coating the paper comprises - carbon-based particles, in particular carbon nanotubes (CNT) or graphene, wherein the surface of the carbon-based particles is modified with - at least one compound having the general formula (la) R 1 a SiX (4-a) (Ia) , where - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional group Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - at least one further compound of the general formula (II) R 3 c SiX (4-c) (II) , where - X has the above meaning, - R 3 is a non-hydrolysable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3, and - SiO 2 , Al O 23 , ZrO 2 , TiO 2 -particles as inorganic particles. - carbon-based particles, in particular carbon nanotubes (CNT) or graphene, wherein the surface of the carbon-based particles is modified with - at least one compound having the general formula (la) R 1 a SiX (4-a) (Ia) , where - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional group Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional group Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - at least one further compound of the general formula (II) R 3 c SiX (4-c) (II) , where - X has the above meaning, - R 3 is a non-hydrolysable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3, and - X has the above meaning, - R 3 is a non-hydrolysable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3, and - SiO 2 , Al O 23 , ZrO 2 , TiO 2 -particles as inorganic particles.
The use of hollow particles having a shell made of thermoplastic elastomers and a gas-filled cell for producing porous shaped articles.