mhurhangee/patent-ind-claim-en huggingface dataset:
An inkjet printer , comprising: a recording part for ejecting droplets of ink from an outlet toward an object , to form dots on said object ; a moving mechanism for moving said object relatively to said recording part in a moving direction; and a controller for sequentially inputting signals to said recording part , said signals being instructions for ejection of droplets, in parallel with movement of said object relative to said recording part , wherein said recording part includes: a first ejecting part which ejects ink in a first color and is capable of forming dots of m or more different sizes, m being an integer equal to or more than two; and a second ejecting part which ejects ink in a second color different from said first color, and is capable of forming dots of said m or more different sizes, said first ejecting part is configured to form dots of said m different sizes and said second ejecting part is configured to form dots of n different sizes included in said m different sizes, n being an integer equal to or more than one and smaller than m, and a first driving signal used for forming a dot of at least one size included in said n different sizes by said first ejecting part and a second driving signal used for forming a dot of said at least one size by said second ejecting part are different from each other, characterized in that a waveform of a minute pulse used at the time when said first ejecting part ejects no droplet and a waveform of another minute pulse used at the time when said second ejecting part ejects no droplet are different from each other. a recording part for ejecting droplets of ink from an outlet toward an object , to form dots on said object ; a moving mechanism for moving said object relatively to said recording part in a moving direction; and a controller for sequentially inputting signals to said recording part , said signals being instructions for ejection of droplets, in parallel with movement of said object relative to said recording part , wherein said recording part includes: a first ejecting part which ejects ink in a first color and is capable of forming dots of m or more different sizes, m being an integer equal to or more than two; and a second ejecting part which ejects ink in a second color different from said first color, and is capable of forming dots of said m or more different sizes, said first ejecting part is configured to form dots of said m different sizes and said second ejecting part is configured to form dots of n different sizes included in said m different sizes, n being an integer equal to or more than one and smaller than m, and a first driving signal used for forming a dot of at least one size included in said n different sizes by said first ejecting part and a second driving signal used for forming a dot of said at least one size by said second ejecting part are different from each other, characterized in that a waveform of a minute pulse used at the time when said first ejecting part ejects no droplet and a waveform of another minute pulse used at the time when said second ejecting part ejects no droplet are different from each other.
A method of manufacturing a CMUT transducer, comprising the following steps: a) forming a first silicon oxide layer on a face of a first silicon layer defining a first electrode of the transducer; b) forming a second silicon oxide layer on a face of a second silicon layer ; c) subsequent to step a), forming at the side of said face of the first silicon layer , by locally etching the silicon of the first silicon layer , silicon oxide walls having a height higher than the thickness of the first silicon oxide layer , said walls laterally delineating a cavity of the transducer; and d) subsequent to steps b) and c), transferring and attaching the set comprising the second silicon layer and the second silicon oxide layer on the set comprising the first silicon layer , the first silicon oxide layer , and the silicon oxide walls , so as to close the cavity of the transducer, said cavity vertically extending from the face of the first silicon oxide layer opposite to the first silicon layer to the face of the second silicon oxide layer opposite to the second silicon layer . a) forming a first silicon oxide layer on a face of a first silicon layer defining a first electrode of the transducer; b) forming a second silicon oxide layer on a face of a second silicon layer ; c) subsequent to step a), forming at the side of said face of the first silicon layer , by locally etching the silicon of the first silicon layer , silicon oxide walls having a height higher than the thickness of the first silicon oxide layer , said walls laterally delineating a cavity of the transducer; and d) subsequent to steps b) and c), transferring and attaching the set comprising the second silicon layer and the second silicon oxide layer on the set comprising the first silicon layer , the first silicon oxide layer , and the silicon oxide walls , so as to close the cavity of the transducer, said cavity vertically extending from the face of the first silicon oxide layer opposite to the first silicon layer to the face of the second silicon oxide layer opposite to the second silicon layer .
An anode support type solid oxide fuel cell in which an anode support, an anode functional layer, an electrolyte, and a cathode are sequentially provided, wherein the electrolyte includes ceria-based metal oxide, the cathode includes a cathode thin film layer provided on the electrolyte and a cathode thick film layer provided on the cathode thin film layer, the thickness of the cathode thin film layer is less than 50 nm, the porosity of the cathode thin film layer is 1% or less, the thickness of the cathode thick film layer is 20 μm or more and 40 μm or less, the porosity of the cathode thick film layer is 30% or more, a contact area between the electrolyte and the cathode thin film layer is 100% based on the entire area of one side facing the cathode thin film layer of the surface of the electrolyte, and a contact area between the cathode thin film layer and the cathode thick film layer is 80% or more and 97% or less based on the entire area of one side facing the cathode thick film layer of the surface of the cathode thin film layer.
A method for a vehicle, comprising: acquiring a signal including harmonic content generated by an engine of the vehicle; upmixing the signal into a plurality of channels for a given number of engine orders, the engine orders corresponding to multiples of a frequency of rotations of a crankshaft of the engine multiplied by a number of ignition events per rotation of the crankshaft of the engine; adjusting an order filter for each engine order of the given number of engine orders based on operating conditions of the engine; filtering each channel of the plurality of channels with the corresponding order filter; mixing the filtered channels into a mono output; and outputting the mono output to at least one speaker in the vehicle, characterized in that adjusting the order filter for each engine order based on the operating conditions of the engine comprises adjusting a gain and a quality factor for each order filter based on measurements of revolutions per minute, RPM, of the engine and torque of the engine, and further adjusting a center frequency for each order filter based on the RPM. acquiring a signal including harmonic content generated by an engine of the vehicle; upmixing the signal into a plurality of channels for a given number of engine orders, the engine orders corresponding to multiples of a frequency of rotations of a crankshaft of the engine multiplied by a number of ignition events per rotation of the crankshaft of the engine; adjusting an order filter for each engine order of the given number of engine orders based on operating conditions of the engine; filtering each channel of the plurality of channels with the corresponding order filter; mixing the filtered channels into a mono output; and outputting the mono output to at least one speaker in the vehicle, characterized in that adjusting the order filter for each engine order based on the operating conditions of the engine comprises adjusting a gain and a quality factor for each order filter based on measurements of revolutions per minute, RPM, of the engine and torque of the engine, and further adjusting a center frequency for each order filter based on the RPM.
A method comprising: tracking , by a user device using the output of a user-facing camera , a relative position of a user viewpoint with respect to a physical screen ; determining , by the user device, a shift amount between the user viewpoint and a user reference position, the shift amount determined based on the relative position of the user viewpoint and the physical screen ; determining , based on the shift amount, a virtual user viewpoint position of a virtual environment and a virtual screen position of the virtual environment, the virtual screen simulating a window into the virtual environment, by: offsetting the virtual user viewpoint position from a virtual user reference position by the shift amount; and offsetting the virtual screen position from a virtual screen reference position by a proportional shift amount that is a fraction of the shift amount; rendering , by the user device, the virtual environment based on the virtual user viewpoint position and the virtual screen position; and transmitting, by the user device, the rendered virtual environment for display on the physical screen . tracking , by a user device using the output of a user-facing camera , a relative position of a user viewpoint with respect to a physical screen ; determining , by the user device, a shift amount between the user viewpoint and a user reference position, the shift amount determined based on the relative position of the user viewpoint and the physical screen ; determining , based on the shift amount, a virtual user viewpoint position of a virtual environment and a virtual screen position of the virtual environment, the virtual screen simulating a window into the virtual environment, by: offsetting the virtual user viewpoint position from a virtual user reference position by the shift amount; and offsetting the virtual screen position from a virtual screen reference position by a proportional shift amount that is a fraction of the shift amount; rendering , by the user device, the virtual environment based on the virtual user viewpoint position and the virtual screen position; and transmitting, by the user device, the rendered virtual environment for display on the physical screen . offsetting the virtual user viewpoint position from a virtual user reference position by the shift amount; and offsetting the virtual screen position from a virtual screen reference position by a proportional shift amount that is a fraction of the shift amount; rendering , by the user device, the virtual environment based on the virtual user viewpoint position and the virtual screen position; and transmitting, by the user device, the rendered virtual environment for display on the physical screen .
A machine capable of moving on an inclined plane (P), comprising a first split body , a second split body and functional components , wherein the functional components comprise a moving mechanism , a flexible connecting device and operating tools , wherein the operating tools are installed on the first split body and/or the second split body , and configured to perform operations, the flexible connecting device connects the first split body to the second split body and adjusts a distance between the first split body and the second split body , the moving mechanism is installed on the first split body and/or the second split body and configured to drive the first split body and/or the second split body to move on the inclined plane (P), the first split body contains a suspension mechanism , characterized in that the functional components comprise a surface attachment device , and the surface attachment device is installed on the first split body and/or the second split body and configured to be attached to the inclined plane (P), and the suspension mechanism is configured to connect or disconnect to the inclined plane (P). the functional components comprise a surface attachment device , and the surface attachment device is installed on the first split body and/or the second split body and configured to be attached to the inclined plane (P), and the suspension mechanism is configured to connect or disconnect to the inclined plane (P).
An open type compressor comprising: a compression mechanism that is arranged to be driven by a drive shaft for rotating around an axis (X), and to compress fluid flowing into from a suction port to discharge the compressed fluid from a discharge port ; a seal part that is in contact with an outer peripheral surface of the drive shaft , and is arranged to prevent leakage of fluid along the drive shaft ; a bearing part that is disposed on a side closer to the compression mechanism than the seal part , and supports the drive shaft ; a cylindrical first housing that houses the compression mechanism and has an outer peripheral surface formed with the suction port and the discharge port therein; a second housing that is mounted so as to block an opening part of the first housing and holds the bearing part and the seal part on the axis (X), a first space (S1) that is communicated with the suction port and is located on a side of the compression mechanism with respect to the bearing part , and a second space (S2) that is located on a side of the seal part with respect to the bearing part , characterised in that the second housing is formed with an oil supply groove communicating the first space (S1) with the second space (S2) such that, in operation, mist-like lubricant oil guided to the first space (S1) is guided to the second space (S2) by the oil supply groove . a compression mechanism that is arranged to be driven by a drive shaft for rotating around an axis (X), and to compress fluid flowing into from a suction port to discharge the compressed fluid from a discharge port ; a seal part that is in contact with an outer peripheral surface of the drive shaft , and is arranged to prevent leakage of fluid along the drive shaft ; a bearing part that is disposed on a side closer to the compression mechanism than the seal part , and supports the drive shaft ; a cylindrical first housing that houses the compression mechanism and has an outer peripheral surface formed with the suction port and the discharge port therein; a second housing that is mounted so as to block an opening part of the first housing and holds the bearing part and the seal part on the axis (X), a first space (S1) that is communicated with the suction port and is located on a side of the compression mechanism with respect to the bearing part , and a second space (S2) that is located on a side of the seal part with respect to the bearing part , characterised in that the second housing is formed with an oil supply groove communicating the first space (S1) with the second space (S2) such that, in operation, mist-like lubricant oil guided to the first space (S1) is guided to the second space (S2) by the oil supply groove .
A method, comprising: converting 2,3-butanediol to methyl vinyl carbinol, 1,3-butadiene, or a mixture thereof by contacting a feed stream comprising 2,3-butanediol with a catalyst comprising (a) M x O y where M is Sc, Tm, Ga, In or a combination thereof, and x and y have values based upon an oxidation state of M, wherein the feed stream is contacted with the catalyst at a temperature within a range of 300 °C to 700 °C and atmospheric pressure, thereby dehydrating at least a portion of the 2,3-butanediol to form a product comprising methyl vinyl carbinol, 1,3-butadiene, or a combination thereof.
An assembly comprising: - a through element for passing through a partition wall in a longitudinal direction (L), - at least one envelope (22; 122), and - at least one sleeve intended to act as a firewall, the sleeve being adapted to be installed, after the installation of the envelope (22; 122), in an interstitial space defined at least by an outer surface of the through element and an inner surface of the installed envelope (22; 122), the envelope (22; 122) being sufficiently tight for the sleeve to be cast, injected or disposed in the interstitial space , wherein the envelope (22; 122) is of flexible material and is fitted at least temporarily around the through element , characterised in that the sleeve comprises a hydraulic binder. - a through element for passing through a partition wall in a longitudinal direction (L), - at least one envelope (22; 122), and - at least one sleeve intended to act as a firewall, the sleeve being adapted to be installed, after the installation of the envelope (22; 122), in an interstitial space defined at least by an outer surface of the through element and an inner surface of the installed envelope (22; 122), the envelope (22; 122) being sufficiently tight for the sleeve to be cast, injected or disposed in the interstitial space ,
A medical assembly comprising: a flexible catheter configured to be disposed within a hollow anatomical structure of a patient, wherein the flexible catheter defines a lumen having a lumen cross-sectional dimension and a distal opening of the lumen, and wherein the lumen is configured to contain a volume of medical adhesive ; and a shaft defining a shaft cross-sectional dimension smaller than the lumen cross-sectional dimension of the lumen, wherein advancement of the shaft through at least a portion of the lumen forces at least a portion of the volume of medical adhesive out of the distal opening of the lumen, characterised in that it further comprises the volume of medical adhesive pre-filled within the lumen of the flexible catheter . a flexible catheter configured to be disposed within a hollow anatomical structure of a patient, wherein the flexible catheter defines a lumen having a lumen cross-sectional dimension and a distal opening of the lumen, and wherein the lumen is configured to contain a volume of medical adhesive ; and a shaft defining a shaft cross-sectional dimension smaller than the lumen cross-sectional dimension of the lumen, wherein advancement of the shaft through at least a portion of the lumen forces at least a portion of the volume of medical adhesive out of the distal opening of the lumen, characterised in that it further comprises the volume of medical adhesive pre-filled within the lumen of the flexible catheter .
A laundry drying apparatus comprising: a cabinet including an upper cover ; a drying drum disposed in the cabinet ; an air supply unit for supplying air to the drying drum and recovering the air from the drying drum ; a reception unit , which defines an upper surface of the cabinet , together with the upper cover , and which has therein a reception space, and a shielding plate disposed between the drying drum and the reception unit for preventing the heat generated from the drying drum from being directly transmitted to the reception unit , wherein the reception unit comprises: a reception bracket disposed over the drying drum ; and a sliding door , moveable to a position under the upper cover so as to open the reception space, which is slidably coupled to the reception bracket and which is adapted to slide to open and close the reception space, and wherein the reception bracket includes a body part , which defines the reception space and is provided with a reception recess for receiving objects. a cabinet including an upper cover ; a drying drum disposed in the cabinet ; an air supply unit for supplying air to the drying drum and recovering the air from the drying drum ; a reception unit , which defines an upper surface of the cabinet , together with the upper cover , and which has therein a reception space, and a shielding plate disposed between the drying drum and the reception unit for preventing the heat generated from the drying drum from being directly transmitted to the reception unit , wherein the reception unit comprises: a reception bracket disposed over the drying drum ; and a sliding door , moveable to a position under the upper cover so as to open the reception space, which is slidably coupled to the reception bracket and which is adapted to slide to open and close the reception space, and a reception bracket disposed over the drying drum ; and a sliding door , moveable to a position under the upper cover so as to open the reception space, which is slidably coupled to the reception bracket and which is adapted to slide to open and close the reception space, and wherein the reception bracket includes a body part , which defines the reception space and is provided with a reception recess for receiving objects.
Thermally and/or mechanically loaded component wall of a fluid-conducting and/or gas-conducting component, in particular of a cylinder head of an internal combustion engine, with at least one region which is at risk of cracking as a result of the loading and in which a crack can be formed into the component wall from the outer side of the wall due to operation, and with at least one crack stopping means which is arranged in the component wall in the region which is at risk of cracking and/or in the course of the crack and prevents a further crack propagation, a crack starting means which forms a crack starting point which is localized in a defined manner being provided on the wall outer side in order to prevent a locally uncontrolled crack formation and crack propagation in the region (5; 10) which is at risk of cracking, the crack starting means being spaced apart from the crack stopping means by material, through which the crack develops, characterized in that two or more crack stopping means are arranged above one another in the component wall, it preferably being provided that two or more crack stopping means are arranged in a valve bridge region of a cylinder head at different spacings from the surface which faces a combustion chamber.
A method for producing a paperboard comprising the steps of; - providing a furnish comprising cellulosic fibers, - applying the furnish on at least one wire to form a web, - dewatering the web on said at least one wire by subjecting the web to a pressure above 150 kPa without the use of a press roll nip wherein the web comprises a first and second side and the dewatering is done from both sides of the web and thereafter - pressing the dewatered web to form a paperboard. - providing a furnish comprising cellulosic fibers, - applying the furnish on at least one wire to form a web, - dewatering the web on said at least one wire by subjecting the web to a pressure above 150 kPa without the use of a press roll nip wherein the web comprises a first and second side and the dewatering is done from both sides of the web and thereafter - pressing the dewatered web to form a paperboard.
Plug connector for hollow profiles of spacers of an insulating glazing, wherein the plug connector has a base with edge-side lateral walls and also has a centre stop and retaining elements , wherein the plug connector consists of a temperature-resistant material, in particular metal, preferably steel, at least in the region of the connector centre and is designed to be suitable for a thermal connection , in particular a welded connection, of the hollow profiles and has a shape which is rigid in relation to external transverse loads at least in the central region, wherein the plug connector has a substantially U-shaped cross section with a hammerhead shape and with lateral walls , which are recessed in steps in the upper region , and wherein the lateral walls have a supporting and retaining structure , which is directed towards the roof of the hollow profiles , at the upper free edge , and wherein the supporting and retaining structure has, on either side of the centre stop , a supporting strip with a straight axial upper edge .