mhurhangee/patent-ind-claim-en huggingface dataset:
A method for making a glass article having an optical coating and an easy-to-clean (ETC) coating on top of the optical coating, the method comprising: providing a coating apparatus having a vacuum chamber for deposition of an optical coating and an ETC coating; providing a magnetic rotatable dome within said vacuum chamber for magnetically positioning a magnetic substrate carrier for receiving a glass substrate thereon that is to be coated; providing within said vacuum chamber source materials for the optical coating and source materials for the ETC coating; loading the glass substrate on the magnetic substrate carrier and magnetically attaching the magnetic substrate carrier having the glass substrate thereon to the magnetic rotatable dome; evacuating the vacuum chamber; rotating the magnetic rotatable dome and depositing an optical coating on the glass substrate; rotating the magnetic rotatable dome and depositing the ETC coating on top of the optical coating following deposition of the optical coating, wherein the optical coating is not exposed to ambient atmosphere prior to the deposition of the ETC coating; and removing the glass substrate having the optical coating and the ETC coating from the vacuum chamber to obtain a glass substrate having a shadow-free optical coating deposited on the glass substrate and the ETC coating deposited on the optical coating, the optical coating having a variation in a thickness from a first edge of the optical coating to a second edge of the optical coating of less than or equal to 4%. providing a coating apparatus having a vacuum chamber for deposition of an optical coating and an ETC coating; providing a magnetic rotatable dome within said vacuum chamber for magnetically positioning a magnetic substrate carrier for receiving a glass substrate thereon that is to be coated; providing within said vacuum chamber source materials for the optical coating and source materials for the ETC coating; loading the glass substrate on the magnetic substrate carrier and magnetically attaching the magnetic substrate carrier having the glass substrate thereon to the magnetic rotatable dome; evacuating the vacuum chamber; rotating the magnetic rotatable dome and depositing an optical coating on the glass substrate; rotating the magnetic rotatable dome and depositing the ETC coating on top of the optical coating following deposition of the optical coating, wherein the optical coating is not exposed to ambient atmosphere prior to the deposition of the ETC coating; and removing the glass substrate having the optical coating and the ETC coating from the vacuum chamber to obtain a glass substrate having a shadow-free optical coating deposited on the glass substrate and the ETC coating deposited on the optical coating, the optical coating having a variation in a thickness from a first edge of the optical coating to a second edge of the optical coating of less than or equal to 4%.
A method of constructing a modular multi-storey building including: assembling first and second building modules in a vertical arrangement at an installation location to form a multi-storey building structure ; constructing the first and second building modules at a first location before transporting the first and second building modules to be assembled at the installation location, wherein the building modules are constructed at the first location to each comprise a base having a concrete floor and a facade wall structure attached to the base; vertically supporting at least part of the second building module above the first building module on temporary support members between the first and second building modules ; which temporary support members are attached to the first building module ; after assembling the second building module above the first building module, installing a permanent support structure between, and connecting it to, the first and second building modules to vertically support the second building module above the first building module ; and removing the temporary support members . assembling first and second building modules in a vertical arrangement at an installation location to form a multi-storey building structure ; constructing the first and second building modules at a first location before transporting the first and second building modules to be assembled at the installation location, wherein the building modules are constructed at the first location to each comprise a base having a concrete floor and a facade wall structure attached to the base; vertically supporting at least part of the second building module above the first building module on temporary support members between the first and second building modules ; which temporary support members are attached to the first building module ; after assembling the second building module above the first building module, installing a permanent support structure between, and connecting it to, the first and second building modules to vertically support the second building module above the first building module ; and removing the temporary support members .
A burner for a combustion chamber of a gas turbine with a mixing and injection device , wherein the mixing and injection device comprises a limiting wall that defines a gas-flow channel with a longitudinal axis , a non-rectangular and non-annular cross-section, an inlet area , and, downstream thereof in a main-flow direction , an outlet area , and further comprising at least two streamlined bodies , each extending in a first transverse direction of the burner, from a first region of the limiting wall and perpendicularly to or at an inclination with respect to the main-flow direction into the gas-flow channel; the streamlined bodies having two lateral surfaces that are arranged essentially parallel to a main-flow direction with a central plane therebetween, wherein the lateral surfaces are joined to one another at upstream sides of the lateral surfaces to form a leading edge of the body and are joined at downstream sides of the lateral surfaces to form a trailing edge of the body, the streamlined bodies having a cross-section perpendicular to the first transverse direction that is shaped as a streamlined profile , and being provided with a mixing structure and with at least one fuel nozzle located at the trailing edge, wherein the mixing structure is provided in form of a plurality of lobes located at the trailing edge of the body, wherein each lobe extends substantially perpendicular to said central plane in a second transverse direction or a third transverse directions , wherein the second and third transverse directions run oppositely to one another, neighboring lobes on the same trailing edge alternatingly extending out of the central plane , the lobe side walls comprise straight sections extending in the first , second and third transverse directions such that a lobing trailing edge is provided which comprises straight sections extending in the first , second and third transverse directions; each nozzle is located where the lobed trailing edge crosses the center plane .
A wireless signal receiving device , comprising: a radio frequency, RF, tuner configured to receive a wireless signal over an antenna radiator ; a demodulator configured to demodulate the received signal and to output a transport stream , TS, signal with a first frequency band; and a spread spectrum modulator configured to spread a frequency spectrum of the TS signal to output a TS signal with a second frequency band, wherein the spread spectrum modulator includes: a signal generator configured to output a signal with the second frequency band; a frequency controller configured to receive information of the TS signal output from the demodulator and to control, based on the received information, the signal generator to output the signal with the second frequency band; and a mixer configured to synthesize the TS signal output from the demodulator and the signal with the second frequency band. a radio frequency, RF, tuner configured to receive a wireless signal over an antenna radiator ; a demodulator configured to demodulate the received signal and to output a transport stream , TS, signal with a first frequency band; and a spread spectrum modulator configured to spread a frequency spectrum of the TS signal to output a TS signal with a second frequency band, wherein the spread spectrum modulator includes: a signal generator configured to output a signal with the second frequency band; a frequency controller configured to receive information of the TS signal output from the demodulator and to control, based on the received information, the signal generator to output the signal with the second frequency band; and a mixer configured to synthesize the TS signal output from the demodulator and the signal with the second frequency band. a signal generator configured to output a signal with the second frequency band; a frequency controller configured to receive information of the TS signal output from the demodulator and to control, based on the received information, the signal generator to output the signal with the second frequency band; and a mixer configured to synthesize the TS signal output from the demodulator and the signal with the second frequency band.
Apparatus for guiding a medical procedure, the apparatus comprising: a display ; and a processor , configured to: present, on the display, a volumetric map of an interior body portion of a body of a subject , wherein the interior body portion includes a body cavity, and the volumetric map was acquired prior to the procedure, and during the procedure, in response to movements of a movement sensor with respect to the interior body portion, update the presented volumetric map, by colouring the areas of the interior body portion from which material was removed by the medical procedure, wherein the processor is configured to update the presented volumetric map by: automatically computing a surface that defines an extent of movement within the interior body portion in response to movements of the movement sensor, and updating the presented volumetric map, using the surface. a display ; and a processor , configured to: present, on the display, a volumetric map of an interior body portion of a body of a subject , wherein the interior body portion includes a body cavity, and the volumetric map was acquired prior to the procedure, and during the procedure, in response to movements of a movement sensor with respect to the interior body portion, update the presented volumetric map, by colouring the areas of the interior body portion from which material was removed by the medical procedure, wherein the processor is configured to update the presented volumetric map by: automatically computing a surface that defines an extent of movement within the interior body portion in response to movements of the movement sensor, and updating the presented volumetric map, using the surface. present, on the display, a volumetric map of an interior body portion of a body of a subject , wherein the interior body portion includes a body cavity, and the volumetric map was acquired prior to the procedure, and during the procedure, in response to movements of a movement sensor with respect to the interior body portion, update the presented volumetric map, by colouring the areas of the interior body portion from which material was removed by the medical procedure, wherein the processor is configured to update the presented volumetric map by: automatically computing a surface that defines an extent of movement within the interior body portion in response to movements of the movement sensor, and updating the presented volumetric map, using the surface. automatically computing a surface that defines an extent of movement within the interior body portion in response to movements of the movement sensor, and updating the presented volumetric map, using the surface.
A system comprising a shelving unit, the shelving unit comprising: i. a self-stabilized weighing assembly comprising: a plurality of load cell assemblies , two shelf brackets each comprising a vertical member including a bracket hook , and a horizonal member supporting at least one respective load cell assembly , and a shelf for storing thereupon a plurality of products characterized by a plurality of SKU-identifiers, said shelf comprising a shelf-frame that includes a member(s) (e.g., 91) that, when joined with the two shelf brackets , provide rigidity, and ii. a shelving assembly comprising: a back panel and at least one upright associated with said back panel and adapted to receive a respective one of the bracket hooks . i. a self-stabilized weighing assembly comprising: a plurality of load cell assemblies , two shelf brackets each comprising a vertical member including a bracket hook , and a horizonal member supporting at least one respective load cell assembly , and a shelf for storing thereupon a plurality of products characterized by a plurality of SKU-identifiers, said shelf comprising a shelf-frame that includes a member(s) (e.g., 91) that, when joined with the two shelf brackets , provide rigidity, and a plurality of load cell assemblies , two shelf brackets each comprising a vertical member including a bracket hook , and a horizonal member supporting at least one respective load cell assembly , and a shelf for storing thereupon a plurality of products characterized by a plurality of SKU-identifiers, said shelf comprising a shelf-frame that includes a member(s) (e.g., 91) that, when joined with the two shelf brackets , provide rigidity, and ii. a shelving assembly comprising: a back panel and at least one upright associated with said back panel and adapted to receive a respective one of the bracket hooks .
A shaped product made of a copolymer having a crystalline portion and an elastomer portion, wherein hardness, which is determined in accordance with JIS K 6253-3 (type A durometer), differs between any two points, the shaped product has no seam and the copolymer is two or more types of copolymers having different molecular structures or properties from each other.
A device for driving a plurality of motors, the device comprising: an inverter connected to a DC terminal, wherein the inverter includes upper switching elements (Sa, Sb, Sc) and lower switching elements (S'a, S'b, S'c); a multi-phase motor connected to the inverter ; a single-phase motor serially connected to the multi-phase motor ; a first capacitor (C1) and a second capacitor (C2) serially connected between both ends of the DC terminal; a first current detector (E1) configured to detect a first current (io1) input to the multi-phase motor ; and a second current detector (E2) configured to detect a second current (io2) input to the single-phase motor , wherein the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at the same speed is smaller than the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at different speeds, wherein a neutral point (na) of the multi-phase motor is connected to one end (ni) of the single-phase motor , and the other end (no) of the single-phase motor is connected to a node (n) between the first capacitor (C1) and the second capacitor (C2), and wherein when only the multi-phase motor being driven, an electric potential between a motor neutral point (na) of the multi-phase motor and a DC terminal neutral point (n) between the first capacitor (C1) and the second capacitor (C2) is the same, and a current flows through the multi-phase motor and no current flows through the single-phase motor . an inverter connected to a DC terminal, wherein the inverter includes upper switching elements (Sa, Sb, Sc) and lower switching elements (S'a, S'b, S'c); a multi-phase motor connected to the inverter ; a single-phase motor serially connected to the multi-phase motor ; a first capacitor (C1) and a second capacitor (C2) serially connected between both ends of the DC terminal; a first current detector (E1) configured to detect a first current (io1) input to the multi-phase motor ; and a second current detector (E2) configured to detect a second current (io2) input to the single-phase motor , wherein the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at the same speed is smaller than the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at different speeds, wherein a neutral point (na) of the multi-phase motor is connected to one end (ni) of the single-phase motor , and the other end (no) of the single-phase motor is connected to a node (n) between the first capacitor (C1) and the second capacitor (C2), and wherein when only the multi-phase motor being driven, an electric potential between a motor neutral point (na) of the multi-phase motor and a DC terminal neutral point (n) between the first capacitor (C1) and the second capacitor (C2) is the same, and a current flows through the multi-phase motor and no current flows through the single-phase motor .
A particle pre-separator for removing particles from a flow of a gas mixture, said particle pre-separator comprising: a. a housing comprising a gas inlet opening and a gas outlet opening ; b. a core having a first end facing the gas inlet opening, and a second end opposite to the first end, wherein the core is of a substantially conical shape, having a gradually increasing diameter in the direction from the first end to the second end; c. a plurality of vanes attached to the core along helical line segments; characterized in that the core , the housing and each pair of neighboring vanes define a path for passage of the gas mixture such that no particulate entrained by the gas is permitted to travel in a straight line from a plane through the first end of the core to a plane through the second end of the core , wherein the housing has a first housing portion enclosing the core , and a second housing portion between the first housing portion and the outlet opening , said first housing portion having a substantially conical shape with a gradually increasing diameter in the direction from the gas inlet opening to the second housing portion ; and said second housing portion having a substantially cylindrical shape, wherein the second housing portion is provided with an opening for removal of pre-separated particles, and wherein a conduit is attached to the second housing portion at the opening, for removal of and pre-separated particles are removed from the particle pre-separator via said conduit. a. a housing comprising a gas inlet opening and a gas outlet opening ; b. a core having a first end facing the gas inlet opening, and a second end opposite to the first end, wherein the core is of a substantially conical shape, having a gradually increasing diameter in the direction from the first end to the second end; c. a plurality of vanes attached to the core along helical line segments;
A process for synthesizing a color stable Mn 4+ doped phosphor, the process comprising contacting a precursor of formula I, A x [MF y ]:Mn 4+ I at any temperature in a range from about 200°C to about 700°C with a fluorine-containing oxidizing agent in gaseous form; maintaining the temperature during a contact period of at least one hour; and, after the contact period, reducing the temperature at a rate of ≤5°C per minute; wherein A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Hf, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y ] ion; y is 5, 6 or 7. A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Hf, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y ] ion; y is 5, 6 or 7.
A cutting jig comprising: an annular body defining a dust-removal chamber and a central bore for receiving, in use, a cutting element of a work tool; the annular body comprising an outer wall which terminates at an outer rim and an inner wall which defines the central bore and terminates at an inner rim ; the outer and inner rims together defining an open mouth of the dust-removal chamber, wherein the open mouth is engageable, in use, against a work piece to be cut; wherein the outer rim comprises an outer sealing edge for forming a seal, in use, with the work piece and the inner wall comprises one or more inlets for permitting passage of air and dust from the central bore into the dust-removal chamber ; wherein the annular body further comprises a suction port through which, in use, air and dust may be extracted from the dust-removal chamber ; wherein the cutting jig comprises one or more bearings for contacting, in use, the cutting element ; characterised in that the one or more bearings comprises a plurality of bearings protruding from the inner wall into the central bore for contacting, in use, the cutting element . an annular body defining a dust-removal chamber and a central bore for receiving, in use, a cutting element of a work tool; the annular body comprising an outer wall which terminates at an outer rim and an inner wall which defines the central bore and terminates at an inner rim ; the outer and inner rims together defining an open mouth of the dust-removal chamber, wherein the open mouth is engageable, in use, against a work piece to be cut; wherein the outer rim comprises an outer sealing edge for forming a seal, in use, with the work piece and the inner wall comprises one or more inlets for permitting passage of air and dust from the central bore into the dust-removal chamber ; wherein the annular body further comprises a suction port through which, in use, air and dust may be extracted from the dust-removal chamber ; wherein the cutting jig comprises one or more bearings for contacting, in use, the cutting element ; characterised in that the one or more bearings comprises a plurality of bearings protruding from the inner wall into the central bore for contacting, in use, the cutting element .
A method for storing session information by a Telephony Server, TS, in a home network of a Universal Plug and Play, UPnP, telephony service, the method being performed by the TS, the method comprising: receiving, from a Telephony Control Point, TCP, , a request for storing session information for each of one or more sessions related to a messaging service, wherein the session information includes meta information of a corresponding session and one or more messages of the corresponding session; storing the session information in a memory of the TS ; and if a request for transmitting a session list including the meta information is received from the TCP , transmitting , to the TCP , the meta information and session identifiers for each of the one or more sessions; wherein, if a request for creating a session is received from the TCP , a requested session is initiated by the TS ; and wherein the request for creating the session includes a session type of the requested session and a recipient list for one or more recipients of the requested session. receiving, from a Telephony Control Point, TCP, , a request for storing session information for each of one or more sessions related to a messaging service, wherein the session information includes meta information of a corresponding session and one or more messages of the corresponding session; storing the session information in a memory of the TS ; and if a request for transmitting a session list including the meta information is received from the TCP , transmitting , to the TCP , the meta information and session identifiers for each of the one or more sessions; wherein, if a request for creating a session is received from the TCP , a requested session is initiated by the TS ; and wherein the request for creating the session includes a session type of the requested session and a recipient list for one or more recipients of the requested session.