mhurhangee/patent-ind-claim-en huggingface dataset:
An optical fiber module comprising: a package housing having an internal space (S) defined by a base plate , a side wall , and a cover member ; a semiconductor laser device disposed on the base plate within the internal space (S); an optical fiber that transmits a laser beam emitted from the semiconductor laser device to an outside of the package housing , the optical fiber having a projecting end that projects from an inner surface of the side wall of the package housing toward the internal space (S); a light scattering member that scatters light having a wavelength of the laser beam, the light scattering member covering the outer circumferential surface of an end of the projecting end of the optical fiber ; and a heat dissipation portion disposed on the base plate in the internal space (S), the heat dissipation portion holding the light scattering member , wherein a first portion of the outer circumferential surface of the light scattering member is covered by the heat dissipation portion , and a second portion of the outer circumferential surface of the light scattering member is exposed to the internal space (S), characterized in that the light scattering member is adapted to scatter light leaked from the optical fiber out of the second portion of the outer circumferential surface of the light scattering member into the internal space (S). a package housing having an internal space (S) defined by a base plate , a side wall , and a cover member ; a semiconductor laser device disposed on the base plate within the internal space (S); an optical fiber that transmits a laser beam emitted from the semiconductor laser device to an outside of the package housing , the optical fiber having a projecting end that projects from an inner surface of the side wall of the package housing toward the internal space (S); a light scattering member that scatters light having a wavelength of the laser beam, the light scattering member covering the outer circumferential surface of an end of the projecting end of the optical fiber ; and a heat dissipation portion disposed on the base plate in the internal space (S), the heat dissipation portion holding the light scattering member , wherein a first portion of the outer circumferential surface of the light scattering member is covered by the heat dissipation portion , and a second portion of the outer circumferential surface of the light scattering member is exposed to the internal space (S), characterized in that the light scattering member is adapted to scatter light leaked from the optical fiber out of the second portion of the outer circumferential surface of the light scattering member into the internal space (S).
An automated device configured to move in abutment against a construction panel , the automated device comprising a carrying frame for a tool configured to carry out at least one mechanical operation on the construction panel , the automated device comprising at least one suction member configured to hold the automated device against the construction panel and at least one means for setting the automated device in motion along the construction panel , wherein the automated device comprises at least one control unit configured to control at least the means for setting the automated device in motion depending on at least one item of data relating to the position of the support of the construction panel , said control unit being configured to communicate with a system for identifying the position of the support , said automated device being characterized in that said mechanical operation is an operation of fastening the construction panel to a support located opposite said automated device with regards to said construction panel , the operation of fastening the construction panel to the support comprises screwing a screw through the construction panel and into engagement with the support, or nailing or stapling of the construction panel to the support and in that said automated device comprises the identification system , said identification system comprises at least one sensor configured to detect a material forming the support .
A transfer material having a laminated structure in which a base material sheet, a transparent sheet, and a coloring material-receiving layer are laminated in the stated order, wherein: the coloring material-receiving layer contains inorganic fine particles and a water-soluble resin having a solubility in water of 1g/100g or more at 25 °C; the transparent sheet contains two kinds of resin including a resin E1 and a resin E2; and the resin E1 has a glass transition temperature Tg1 of more than 50°C to less than 90°C, the resin E2 has a glass transition temperature Tg2 of 90°C to 120°C, and at least the resin E2 remains in a particle state in the transparent sheet. the coloring material-receiving layer contains inorganic fine particles and a water-soluble resin having a solubility in water of 1g/100g or more at 25 °C; the transparent sheet contains two kinds of resin including a resin E1 and a resin E2; and the resin E1 has a glass transition temperature Tg1 of more than 50°C to less than 90°C, the resin E2 has a glass transition temperature Tg2 of 90°C to 120°C, and at least the resin E2 remains in a particle state in the transparent sheet.
A touch pressure detection apparatus, comprising: a cover , a fingerprint identification module , a touch response component and a pressure sensing component ; wherein the pressure sensing component and the fingerprint identification module are arranged below the cover , and the pressure sensing component is arranged below the fingerprint identification module ; the pressure sensing component comprises a first substrate and a second substrate that are oppositely arranged; a variable gap exists between the first substrate and the second substrate ; and when the fingerprint identification module is subject to an external pressure, the pressure is transferred to the pressure sensing component such that the variable gap between the first substrate and the second substrate changes due to the pressure; wherein a recess is formed at a bottom surface of the cover , the fingerprint identification module is received in the recess, and the cover provides a fingerprint collection interface for the fingerprint identification module ; the touch pressure detection apparatus is applied to a touch terminal, the touch terminal comprises a middle frame , the cover is a cover glass of a touch screen; the first substrate and the second substrate are arranged between the cover and the middle frame ; the fingerprint identification module comprises a fingerprint identification chip and a reinforcing steel sheet; the fingerprint identification chip is arranged between the cover and the reinforcing steel sheet; the reinforcing steel sheet is grounded and reused as the second substrate of the pressure sensing component , and the first substrate of the pressure sensing component is arranged on the middle frame , wherein the second substrate comprises a ground electrode of the pressure sensing component ; or the reinforcing steel sheet is connected to the touch response component and reused as the first substrate of the pressure sensing component , and the second substrate of the pressure sensing component is arranged on the middle frame , wherein the first substrate comprises a transceiver electrode of the pressure sensing component .
Electromagnetically actuatable suction valve for a high-pressure fuel pump , comprising a magnet assembly and a hydraulic module , wherein the hydraulic module engages at least in certain sections into an annular magnet coil of the magnet assembly , characterized in that a heat-conducting material and/or a heat-conducting body are/is arranged between the magnet coil and the hydraulic module , in that the hydraulic module comprises a pole core , which engages into the magnet coil and on which the heat-conducting material and/or the heat-conducting body rest(s) directly, in that the pole core is connected to a valve body via a welding sleeve , and in that the heat-conducting material and/or the heat-conducting body extend(s) beyond the welding sleeve and have/has a sealing function for the welding sleeve .
A conductive material, comprising: a first continuous phase comprising a first polymer; a second continuous phase comprising a second polymer different from the first polymer, the second continuous phase co-continuous with the first continuous phase; a non-continuous phase comprising a third polymer different from the first polymer and different from the second polymer, the non-continuous phase substantially contained within the first continuous phase; and a plurality of conductive particles distributed in the first polymer or at a boundary between the first continuous phase and the second continuous phase, wherein the conductive particles form a conductive network and wherein the conductive material is melt-processable. a first continuous phase comprising a first polymer; a second continuous phase comprising a second polymer different from the first polymer, the second continuous phase co-continuous with the first continuous phase; a non-continuous phase comprising a third polymer different from the first polymer and different from the second polymer, the non-continuous phase substantially contained within the first continuous phase; and a plurality of conductive particles distributed in the first polymer or at a boundary between the first continuous phase and the second continuous phase, wherein the conductive particles form a conductive network and wherein the conductive material is melt-processable.
A logic circuitry package configured to be addressable via a first address and at least one second address and comprising a first logic circuit, wherein the first address is an address for the first logic circuit, wherein the logic circuitry package is configured such that: in response to a first command indicative of a first command time period sent to the first address, the logic circuitry package is accessible via said at least one second address for a duration of the first command time period; and in response to a second command indicative of a second command time period sent to the first address, the first logic circuit is to, for a duration of the second command time period, disregard traffic sent to the first address. in response to a first command indicative of a first command time period sent to the first address, the logic circuitry package is accessible via said at least one second address for a duration of the first command time period; and in response to a second command indicative of a second command time period sent to the first address, the first logic circuit is to, for a duration of the second command time period, disregard traffic sent to the first address.
A system comprising a mobile terminal and a display device , wherein the mobile terminal comprises a wireless communication unit configured to set up (S1200) a wireless network with the display device and a controller configured to: detect a selection of a specific application mounted on the display device by using a cursor, wherein the specific application is an application being executed in the display device or is an application selected for execution, control the display device by transmitting specific information to the display device such that the specific application is executed by applying the specific information to the specific application, control the display device to display an execution screen of the specific application having applied the specific information, wherein the transmitted specific information is an URL of a web TV channel, wherein the specific application is a web TV application; and wherein the displayed execution screen is a screen of the web TV application corresponding to the transmitted URL of the web TV channel. detect a selection of a specific application mounted on the display device by using a cursor, wherein the specific application is an application being executed in the display device or is an application selected for execution, control the display device by transmitting specific information to the display device such that the specific application is executed by applying the specific information to the specific application, control the display device to display an execution screen of the specific application having applied the specific information, wherein the transmitted specific information is an URL of a web TV channel, wherein the specific application is a web TV application; and wherein the displayed execution screen is a screen of the web TV application corresponding to the transmitted URL of the web TV channel.
A multi-cavity oven comprising: a housing having inner walls defining an oven cavity ; at least one removable shelf fitting within the oven cavity and providing an upper and lower passageway through the removable shelf communicating respectively with upwardly directed and downwardly directed air jets of the removable shelf, the shelf separating the oven cavity into an upper and lower cooking chamber ; a first and second air outlet through an inner wall of the oven cavity and communicating with the upper and lower passageways of the removable shelf respectively when the removable shelf is installed within the oven cavity, wherein: said upper and lower passageways are horizontally extending passageways; and said air jets are directed outwardly along one horizontal surface of the removable shelf; characterized in that said multi-cavity oven further comprises: a removable baffle plate fitting within the removable shelf to define one side of a horizontally extending passageway, the baffle plate when fit within the removable shelf having a curve to provide a reduced cross-sectional area of the horizontally extending passageway as one moves away from the air outlet to provide more uniform airflow through the air jets. a housing having inner walls defining an oven cavity ; at least one removable shelf fitting within the oven cavity and providing an upper and lower passageway through the removable shelf communicating respectively with upwardly directed and downwardly directed air jets of the removable shelf, the shelf separating the oven cavity into an upper and lower cooking chamber ; a first and second air outlet through an inner wall of the oven cavity and communicating with the upper and lower passageways of the removable shelf respectively when the removable shelf is installed within the oven cavity, wherein: said upper and lower passageways are horizontally extending passageways; and said air jets are directed outwardly along one horizontal surface of the removable shelf; characterized in that said multi-cavity oven further comprises: a removable baffle plate fitting within the removable shelf to define one side of a horizontally extending passageway, the baffle plate when fit within the removable shelf having a curve to provide a reduced cross-sectional area of the horizontally extending passageway as one moves away from the air outlet to provide more uniform airflow through the air jets. said upper and lower passageways are horizontally extending passageways; and said air jets are directed outwardly along one horizontal surface of the removable shelf; characterized in that said multi-cavity oven further comprises: a removable baffle plate fitting within the removable shelf to define one side of a horizontally extending passageway, the baffle plate when fit within the removable shelf having a curve to provide a reduced cross-sectional area of the horizontally extending passageway as one moves away from the air outlet to provide more uniform airflow through the air jets.
An alternating copolymer comprising: a plurality of ionically-conductive segments; and a plurality of fluorinated polymer segments; wherein the fluorinated polymer segments comprise a perfluoropolyether, and the perfluoropolyether includes a segment selected from the group consisting difluoromethylene oxide, tetrafluoroethylene oxide, hexafluoropropylene oxide, tetrafluoroethylene oxide-co-difluoromethylene oxide, hexafluoropropylene oxide-co- difluoromethylene oxide, tetrafluoroethylene oxide-cohexafluoropropylene oxide-co- difluoromethylene oxide, and combinations thereof. a plurality of ionically-conductive segments; and a plurality of fluorinated polymer segments;
A method, comprising: - predicting terminal voltage of a battery module in a vehicle using a battery control module , wherein predicting the terminal voltage comprises: - determining a gassing current of the battery module using a gassing current model, wherein the gassing current quantifies terminal current that is not used to charge the battery module ; and - calculating the predicted terminal voltage based at least in part on a measurement model and the determined gassing current; - measuring terminal voltage of the battery module using a sensor communicatively coupled to the battery control module ; and - determining a corrected state of the battery module using the battery control module by minimizing error between the predicted terminal voltage and the measured terminal voltage. - predicting terminal voltage of a battery module in a vehicle using a battery control module , wherein predicting the terminal voltage comprises: - determining a gassing current of the battery module using a gassing current model, wherein the gassing current quantifies terminal current that is not used to charge the battery module ; and - calculating the predicted terminal voltage based at least in part on a measurement model and the determined gassing current; - determining a gassing current of the battery module using a gassing current model, wherein the gassing current quantifies terminal current that is not used to charge the battery module ; and - calculating the predicted terminal voltage based at least in part on a measurement model and the determined gassing current; - measuring terminal voltage of the battery module using a sensor communicatively coupled to the battery control module ; and - determining a corrected state of the battery module using the battery control module by minimizing error between the predicted terminal voltage and the measured terminal voltage.
A device comprising a body part that is attachable to the skin of a patient, wherein the body part comprises a receiving opening through which a functional element can be reversibly introduced into a body of a patient by means of an inserting device , like a needle, wherein the body part comprises a sealing member that is adapted to seal at least a part of the receiving opening after removal of the inserting device , characterized in that the sealing member is made from or comprises an electrically conductive material and the electrically conductive material is conductively connectable to the skin of a patient when the device is attached to Z the skin of a patient.
A semiconducting nanoparticle comprising: a one-dimensional semiconducting nanoparticle having a first end and a second end , where the second end is opposed to the first end; separate first endcaps , only at each of said first end and said second end, wherein the first endcaps comprise a first semiconductor; and separate second endcaps , only at each of said first end and said second end, wherein the second endcaps comprise a second semiconductor and surround the first endcaps at each of the first end and the second end; wherein each of the first endcaps is a three dimensional nanoparticle and contacts the surface of the one-dimensional nanoparticle at each of the first end and the second end producing a first heterojunction at each of the points of contact; wherein the second endcap at the first end contacts the entire surface of the first endcap not contacting the one-dimensional nanoparticle at the first end, producing a second heterojunction , and the second endcap at the second end contacts the entire surface of the first endcap not contacting the one-dimensional nanoparticle at the second end producing a second heterojunction , wherein the first heterojunction is compositionally different from the second heterojunction. a one-dimensional semiconducting nanoparticle having a first end and a second end , where the second end is opposed to the first end; separate first endcaps , only at each of said first end and said second end, wherein the first endcaps comprise a first semiconductor; and separate second endcaps , only at each of said first end and said second end, wherein the second endcaps comprise a second semiconductor and surround the first endcaps at each of the first end and the second end; wherein each of the first endcaps is a three dimensional nanoparticle and contacts the surface of the one-dimensional nanoparticle at each of the first end and the second end producing a first heterojunction at each of the points of contact; wherein the second endcap at the first end contacts the entire surface of the first endcap not contacting the one-dimensional nanoparticle at the first end, producing a second heterojunction , and the second endcap at the second end contacts the entire surface of the first endcap not contacting the one-dimensional nanoparticle at the second end producing a second heterojunction , wherein the first heterojunction is compositionally different from the second heterojunction.
Method for producing a component, in particular a vehicle body part, in which a workpiece for producing the component passes through multiple manufacturing stages, and, in each manufacturing stage, a manufacturing process is carried out, and the workpiece , for the purpose of realizing each manufacturing stage, is in each case fed to a respective processing station for carrying out the respective manufacturing process, wherein at least one of the manufacturing processes is a hot forming process for the workpiece , for the purpose of which the workpiece is subjected to a first, at least partial heating, and, after the hot forming process, at least one further manufacturing process is carried out at the workpiece , wherein, after the hot forming process, the workpiece , for the purpose of improving its deformability and/or reducing strength, for preparation of the further manufacturing process, is at least partially reheated by means of at least one heating device arranged between processing stations in the manufacturing process sequence, wherein the reheating of the workpiece is realized inductively by means of current flow, in the form of eddy currents through the workpiece , characterized in that the hot forming process is a first hot forming process, and the further manufacturing process carried out after the first hot forming process is a second hot forming process, or in that the manufacturing process carried out after the hot forming process is a separation process, in particular a mechanical cutting process.