mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor board , comprising: an insulating substrate having a principal surface; and a detecting electrode disposed on the principal surface of the insulating substrate , the detecting electrode being formed mainly of a first metallic material composed of a base-metal based material which is catalytically inactive with respect to a decomposition reaction of particulates, an exposed surface of the detecting electrode being covered by a passivation film of the first metallic material, wherein the first metallic material is composed mainly of an iron-nickel-chrome alloy or an iron-chromium alloy, the sensor board further comprising a connection pad disposed on the principal surface of the insulating substrate , the connection pad being connected directly to the end part of the detecting electrode and formed of a same metallic material as that of the detecting electrode , wherein a joining layer is disposed on at least part of an exposed surface of the connection pad , and the joining layer is formed of a second metallic material containing as a main component a same metallic material as that of the connection pad and further containing as an additive material at least one of aluminum and silicon. an insulating substrate having a principal surface; and a detecting electrode disposed on the principal surface of the insulating substrate , the detecting electrode being formed mainly of a first metallic material composed of a base-metal based material which is catalytically inactive with respect to a decomposition reaction of particulates, an exposed surface of the detecting electrode being covered by a passivation film of the first metallic material, wherein the first metallic material is composed mainly of an iron-nickel-chrome alloy or an iron-chromium alloy, the sensor board further comprising a connection pad disposed on the principal surface of the insulating substrate , the connection pad being connected directly to the end part of the detecting electrode and formed of a same metallic material as that of the detecting electrode , wherein a joining layer is disposed on at least part of an exposed surface of the connection pad , and the joining layer is formed of a second metallic material containing as a main component a same metallic material as that of the connection pad and further containing as an additive material at least one of aluminum and silicon.
A mobile diagnostic imaging system , comprising: a rotatable portion ; a non-rotatable portion , wherein the rotatable portion rotates with respect to the non-rotatable portion to obtain an image of an object; a power supply on the rotatable portion ; a docking system that selectively engages to electrically connect the rotatable portion and the non-rotatable portion and selectively disengages to electrically disconnect the rotatable portion and the non-rotatable portion during an image scan; wherein the docking system comprises a first docking portion on one of the rotatable and non-rotatable portions and a second docking portion on the other of the rotatable and non-rotatable portions , characterized in that the first docking portion comprises a first electrical connector and a first alignment feature and the second docking portion comprises a second electrical connector and a second alignment feature , the first and second electrical connectors and the first and second alignment features configured to mate with one another when the system is docked; and wherein the first alignment feature comprises a pin or rod and the second alignment feature comprises a recess configured to receive the first alignment feature and further wherein the docking system prevents the rotable portion from rotating with respect to the non-rotable portion when the rotable portion is engaged to the non-rotable portion. a rotatable portion ; a non-rotatable portion , wherein the rotatable portion rotates with respect to the non-rotatable portion to obtain an image of an object; a power supply on the rotatable portion ; a docking system that selectively engages to electrically connect the rotatable portion and the non-rotatable portion and selectively disengages to electrically disconnect the rotatable portion and the non-rotatable portion during an image scan; wherein the docking system comprises a first docking portion on one of the rotatable and non-rotatable portions and a second docking portion on the other of the rotatable and non-rotatable portions , characterized in that the first docking portion comprises a first electrical connector and a first alignment feature and the second docking portion comprises a second electrical connector and a second alignment feature , the first and second electrical connectors and the first and second alignment features configured to mate with one another when the system is docked; and wherein the first alignment feature comprises a pin or rod and the second alignment feature comprises a recess configured to receive the first alignment feature and further wherein the docking system prevents the rotable portion from rotating with respect to the non-rotable portion when the rotable portion is engaged to the non-rotable portion.
A magnetic resonance, MR, guided radiation therapy, MRgRT, system , comprising: an MRgRT apparatus comprising one or more radiation therapy heads and an MR imaging, MRI, system , wherein the MRgRT apparatus is configured to cause the one or more radiation therapy heads to deliver radiation and the MRI system to perform MRI; and a processor coupled to the MRgRT apparatus and configured to: deploy a gating mechanism imposing spatial and temporal gates for controlling the delivery of radiation; wherein the processor is configured to: determine whether gates are triggered based on at least a portion of MRI images captured during the delivery of radiation, the gates including: a spatial gate that is triggered when one of a region of interest (ROI) and an organ at risk (OAR) shifts across the spatial gate during the delivery of radiation; and a temporal gate that is triggered when the one of the ROI and the OAR remains across the spatial gate for a length of time exceeding the temporal gate; and in response to determining that the spatial gate and the temporal gate are triggered based on at least a portion of the MRI images captured during the delivery of radiation, suspend the delivery of radiation. an MRgRT apparatus comprising one or more radiation therapy heads and an MR imaging, MRI, system , wherein the MRgRT apparatus is configured to cause the one or more radiation therapy heads to deliver radiation and the MRI system to perform MRI; and a processor coupled to the MRgRT apparatus and configured to: deploy a gating mechanism imposing spatial and temporal gates for controlling the delivery of radiation; wherein the processor is configured to: determine whether gates are triggered based on at least a portion of MRI images captured during the delivery of radiation, the gates including: a spatial gate that is triggered when one of a region of interest (ROI) and an organ at risk (OAR) shifts across the spatial gate during the delivery of radiation; and a temporal gate that is triggered when the one of the ROI and the OAR remains across the spatial gate for a length of time exceeding the temporal gate; and a spatial gate that is triggered when one of a region of interest (ROI) and an organ at risk (OAR) shifts across the spatial gate during the delivery of radiation; and a temporal gate that is triggered when the one of the ROI and the OAR remains across the spatial gate for a length of time exceeding the temporal gate; and in response to determining that the spatial gate and the temporal gate are triggered based on at least a portion of the MRI images captured during the delivery of radiation, suspend the delivery of radiation.
Flush mounting device for letting air in or out of a room of a building, comprising housing walls , at least one duct connection for an air duct , a housing opening positioned towards the room and a front lid being located at the housing opening , with the housing opening positioned towards the room serving as air outlet for letting air out of the room, or as air inlet for letting air into the room, characterized in that at least one of the housing walls comprises at least one gap and that this gap is substantially hermetically covered with a sound permeable insert and that the sound permeable insert features a lower sound reflection degree than the original sound reflecting area of the housing wall .
A system comprising: one or more processors; and a memory storing instructions that, when executed by the one or more processors, cause the system to perform: logging data manipulation activity in the system; storing data manipulation activity logs in an append-only datastore with associated hash codes; re-storing the data manipulation activity logs with the associated hash codes in a system log separate from the append-only datastore; deleting, responsive to a user request, a portion of a first data manipulation activity log stored in the system log in association with a first hash code; receiving, at the append-only datastore, a request to re-store the first data manipulation activity log as a modified version of the first data manipulation activity log with the portion deleted; generating a second hash code responsive to receiving the request to re-store the first data manipulation activity log as the modified version; and re-storing the first data manipulation activity log together with the second hash code as the modified version in the append-only datastore. one or more processors; and a memory storing instructions that, when executed by the one or more processors, cause the system to perform: logging data manipulation activity in the system; storing data manipulation activity logs in an append-only datastore with associated hash codes; re-storing the data manipulation activity logs with the associated hash codes in a system log separate from the append-only datastore; deleting, responsive to a user request, a portion of a first data manipulation activity log stored in the system log in association with a first hash code; receiving, at the append-only datastore, a request to re-store the first data manipulation activity log as a modified version of the first data manipulation activity log with the portion deleted; generating a second hash code responsive to receiving the request to re-store the first data manipulation activity log as the modified version; and re-storing the first data manipulation activity log together with the second hash code as the modified version in the append-only datastore. logging data manipulation activity in the system; storing data manipulation activity logs in an append-only datastore with associated hash codes; re-storing the data manipulation activity logs with the associated hash codes in a system log separate from the append-only datastore; deleting, responsive to a user request, a portion of a first data manipulation activity log stored in the system log in association with a first hash code; receiving, at the append-only datastore, a request to re-store the first data manipulation activity log as a modified version of the first data manipulation activity log with the portion deleted; generating a second hash code responsive to receiving the request to re-store the first data manipulation activity log as the modified version; and re-storing the first data manipulation activity log together with the second hash code as the modified version in the append-only datastore.
A display device for a movable object comprising: a display unit provided such that it is visible from outside a movable object ; and a controller structured to cause the display unit to display information indicating a status of the movable object , wherein the controller is structured to change a display mode of the information displayed on the display unit in accordance with variation in the status of the movable object , characterized in that the display unit includes a first area and a second area for displaying the information indicating the status of the movable object , wherein the second area is also for displaying information different from the status of the movable object , and the controller is structured to cause information indicating a predetermined first status of the movable object to be displayed in the first area and structured to cause information indicating a predetermined second status of the movable object to be displayed in the first area and in the second area while information different from the status of the movable object is prevented to be displayed in the second area . a display unit provided such that it is visible from outside a movable object ; and a controller structured to cause the display unit to display information indicating a status of the movable object , wherein the controller is structured to change a display mode of the information displayed on the display unit in accordance with variation in the status of the movable object , characterized in that the display unit includes a first area and a second area for displaying the information indicating the status of the movable object , wherein the second area is also for displaying information different from the status of the movable object , and the controller is structured to cause information indicating a predetermined first status of the movable object to be displayed in the first area and structured to cause information indicating a predetermined second status of the movable object to be displayed in the first area and in the second area while information different from the status of the movable object is prevented to be displayed in the second area .
A door for a microwave appliance, wherein: - the door includes an outer glass panel ranging over a complete outer side of the door , - the door includes an inner glass panel ranging over at least a central portion of an inner side of the door , - the door includes a door frame covering at least the circumferential sides of the oven door , - the door includes a wave choke system , - the outer glass panel , the inner glass panel and the door frame form a casing of the door , - the wave choke system is arranged inside said casing of the door , - the wave choke system is arranged in an outer portion of the interior of the door and circumferentially enclosed by the door frame , - the wave choke system is arranged adjacent to an outer side of the inner glass panel , - the circumferential sides of the inner glass panel are enclosed by the door frame , and - a gap between the circumferential sides of the inner glass panel and the door frame is filled by a gasket , characterized in that a bending up of the wave choke system penetrates at least partially into the gap between the circumferential sides of the inner glass panel and the door frame , wherein the gasket encloses partially the bending up of the wave choke system . - the door includes an outer glass panel ranging over a complete outer side of the door , - the door includes an inner glass panel ranging over at least a central portion of an inner side of the door , - the door includes a door frame covering at least the circumferential sides of the oven door , - the door includes a wave choke system , - the outer glass panel , the inner glass panel and the door frame form a casing of the door , - the wave choke system is arranged inside said casing of the door , - the wave choke system is arranged in an outer portion of the interior of the door and circumferentially enclosed by the door frame , - the wave choke system is arranged adjacent to an outer side of the inner glass panel , - the circumferential sides of the inner glass panel are enclosed by the door frame , and - a gap between the circumferential sides of the inner glass panel and the door frame is filled by a gasket ,
A projection instruction device which generates a projection image to be projected on a parcel (P) based on sensing information of the parcel (P), the device comprising: a processor ; and a memory , wherein by cooperating with the memory , the processor calculates a position at which the projection image is projected based on first time information (TS1) corresponding to a time of sensing the parcel (P), characterized in that the processor also bases the calculation of the position at which the projection image is projected on a difference between the first time information (TS1) corresponding to the time of sensing the parcel (P), which is recorded in the memory and a second time information (TS2) corresponding to a time of generating the projection image. a processor ; and a memory , wherein by cooperating with the memory , the processor calculates a position at which the projection image is projected based on first time information (TS1) corresponding to a time of sensing the parcel (P), characterized in that the processor also bases the calculation of the position at which the projection image is projected on a difference between the first time information (TS1) corresponding to the time of sensing the parcel (P), which is recorded in the memory and a second time information (TS2) corresponding to a time of generating the projection image.
An antibody that binds human N3pGlu Aβ, comprising a light chain variable region (LCVR) having the amino acid sequence of SEQ ID NO:9, and a heavy chain variable region (HCVR) having the amino acid sequence of SEQ ID NO:8.
A system for loading, transporting and placing a railway switch on a rail, the system comprising a car for transporting the switch between an assembly site thereof and a placement site and means for loading and unloading the switch on the car and placing the latter in its operating position in the rail, the transport car including a platform device for transporting the switch, which is mounted pivoting about an axis oriented in the longitudinal direction of the car, between a loading and unloading position of the switch and an inclined transport position in which the switch is found, when the system is in use, inside the travel gauge, characterized in that the loading, unloading and placement means are integrated into the equipment of the transport car , and in that to that end, the platform is mounted on a support device pivoting between a transport position in which the platform is folded on the support device and a deployed placement, loading and unloading position of the switch on the rail, in which the platform extends horizontally next to the car, and in that the support device is mounted pivoting and translatable on the fixed structure of the car, between an inclined position that is the transport position of the railway switch and a position allowing the platform to be in its deployed position.
An offset printing ink composition comprising a liquid carrier, an inorganic particulate additive and a flocculant, wherein the flocculant is present in the ink composition in an amount ranging from about 0.05 % to about 1.0 % by weight of the inorganic particulate additive.
A bridge assembly for treating a tissue site, comprising: a storage bridge comprising a receiving end and a transmitting end separated by a length, the storage bridge further comprising: a bridge envelope extending along the length of the storage bridge and defining an internal volume , wherein the bridge envelope comprises a non-woven material; and an bridge absorbent disposed within the internal volume of the bridge envelope , wherein the bridge envelope encapsulates the bridge absorbent , the bridge absorbent comprising a volume that is less than the internal volume of the bridge envelope ; characterized by further comprising: a bridge sealing member encapsulating the bridge envelope and defining an internal passageway in fluid communication between the receiving end and the transmitting end , wherein the bridge sealing member entirely surrounds the bridge envelope and the bridge sealing member comprises a vapor permeable and substantially liquid impermeable film. a bridge envelope extending along the length of the storage bridge and defining an internal volume , wherein the bridge envelope comprises a non-woven material; and an bridge absorbent disposed within the internal volume of the bridge envelope , wherein the bridge envelope encapsulates the bridge absorbent , the bridge absorbent comprising a volume that is less than the internal volume of the bridge envelope ; characterized by further comprising: a bridge sealing member encapsulating the bridge envelope and defining an internal passageway in fluid communication between the receiving end and the transmitting end , wherein the bridge sealing member entirely surrounds the bridge envelope and the bridge sealing member comprises a vapor permeable and substantially liquid impermeable film.
A method for manufacturing a chemochromic nanoparticle, the method comprising: preparing a hydrated or non-hydrated transition metal oxide WO 3 ; preparing a metal catalyst solution by dissolving a metal catalyst precursor and a polymer compound in an organic solvent; preparing a mixed solution by adding the hydrated or non-hydrated transition metal oxide WO 3 to the metal catalyst solution; manufacturing the chemochromic nanoparticle with a core-shell structure by irradiating UV light to the mixed solution; and obtaining the chemochromic nanoparticle by filtering the mixed solution, and drying the precipitate, wherein the chemochromic nanoparticle is formed in a core-shell structure, wherein a mixed ratio in terms of weight percent between the metal catalyst precursor, the polymer compound, and the organic solvent in the metal catalyst solvent is 1:1 to 2:2 to 3, wherein a mixed ratio in terms of weight percent between the metal catalyst precursor and the hydrated or non-hydrated transition metal oxide WO 3 is 8:10 to 12, wherein a shell comprising a metal catalyst is coated on 80% or less area of a total surface area of the core in a dot form, wherein the metal catalyst comprises one metal or particles of two or more metals selected from the group consisting of Pd and Pt, and wherein the organic solvent comprises an alcohol based solvent and wherein the irradiating of the UV light is performed by exposure to the UV light having a wavelength of 365nm, at room temperature for 2 to 3 minutes and an output of the UV light is of 1000W. preparing a hydrated or non-hydrated transition metal oxide WO 3 ; preparing a metal catalyst solution by dissolving a metal catalyst precursor and a polymer compound in an organic solvent; preparing a mixed solution by adding the hydrated or non-hydrated transition metal oxide WO 3 to the metal catalyst solution; manufacturing the chemochromic nanoparticle with a core-shell structure by irradiating UV light to the mixed solution; and obtaining the chemochromic nanoparticle by filtering the mixed solution, and drying the precipitate, wherein the chemochromic nanoparticle is formed in a core-shell structure, wherein a mixed ratio in terms of weight percent between the metal catalyst precursor, the polymer compound, and the organic solvent in the metal catalyst solvent is 1:1 to 2:2 to 3, wherein a mixed ratio in terms of weight percent between the metal catalyst precursor and the hydrated or non-hydrated transition metal oxide WO 3 is 8:10 to 12, wherein a shell comprising a metal catalyst is coated on 80% or less area of a total surface area of the core in a dot form, wherein the metal catalyst comprises one metal or particles of two or more metals selected from the group consisting of Pd and Pt, and wherein the organic solvent comprises an alcohol based solvent and wherein the irradiating of the UV light is performed by exposure to the UV light having a wavelength of 365nm, at room temperature for 2 to 3 minutes and an output of the UV light is of 1000W.