mhurhangee/patent-ind-claim-en huggingface dataset:
A method for automatically dressing a grinding wheel , the method comprising steps of: receiving electronic measurement data of multiple workpieces ground simultaneously by multiple grinding stations of a grinding wheel , the measurement data associating each of the workpieces to a corresponding one of the grinding stations, the measurement data including offset data for each grinding station, which is data relating to an offset between a desired dimension and a measured dimension of a workpiece ground by that grinding station; uploading the measurement data to a computer microprocessor programmed to control a shaping tool of a dressing apparatus; and simultaneously shaping a plurality of grinding stations of the grinding wheel according to the offset data; wherein the computer microprocessor automatically uses the measurement data to modify a shaping algorithm during the shaping step in order to shape each grinding station of the grinding wheel according to the offset data for that grinding station. receiving electronic measurement data of multiple workpieces ground simultaneously by multiple grinding stations of a grinding wheel , the measurement data associating each of the workpieces to a corresponding one of the grinding stations, the measurement data including offset data for each grinding station, which is data relating to an offset between a desired dimension and a measured dimension of a workpiece ground by that grinding station; uploading the measurement data to a computer microprocessor programmed to control a shaping tool of a dressing apparatus; and simultaneously shaping a plurality of grinding stations of the grinding wheel according to the offset data; wherein the computer microprocessor automatically uses the measurement data to modify a shaping algorithm during the shaping step in order to shape each grinding station of the grinding wheel according to the offset data for that grinding station.
Multilayer stack, of use in forming a photovoltaic device, of NIP or PIN structure, said stack having a planar architecture and comprising at least: - a semiconductor layer, referred to as lower semiconductor layer, of N type in the case of an NIP structure, or of P type in the case of a PIN structure; and - a composite layer, superposed on said lower conductive layer, comprising at least one perovskite material and at least one P-type material in the case of an NIP structure or of N type in the case of a PIN structure , and having a gradient of the P material/perovskite material weight ratio in the case of an NIP structure or N material/perovskite material weight ratio in the case of a PIN structure, in the direction from the interface between said composite layer and said lower semiconductor layer towards the opposite face of said composite layer; said perovskite material and said P-type or N-type material forming within said composite layer, over a thickness of at least 10 nm, an interpenetrated structure, said interpenetrated structure being formed of a matrix based on said P-type or N-type material, in which crystalline perovskite domains are incorporated, and said composite layer being formed by successive wet deposition of said perovskite and P-type or N-type materials, before crystallization of the perovskite, said stack having a planar architecture. - a semiconductor layer, referred to as lower semiconductor layer, of N type in the case of an NIP structure, or of P type in the case of a PIN structure; and - a composite layer, superposed on said lower conductive layer, comprising at least one perovskite material and at least one P-type material in the case of an NIP structure or of N type in the case of a PIN structure , and having a gradient of the P material/perovskite material weight ratio in the case of an NIP structure or N material/perovskite material weight ratio in the case of a PIN structure, in the direction from the interface between said composite layer and said lower semiconductor layer towards the opposite face of said composite layer; said perovskite material and said P-type or N-type material forming within said composite layer, over a thickness of at least 10 nm, an interpenetrated structure, said interpenetrated structure being formed of a matrix based on said P-type or N-type material, in which crystalline perovskite domains are incorporated, and said composite layer being formed by successive wet deposition of said perovskite and P-type or N-type materials, before crystallization of the perovskite, said stack having a planar architecture.
A charging system for an electronic cigarette , the system comprising: a pack comprising a pack battery electrically coupled to an ultra-capacitor wherein the pack battery is configured to charge the ultra-capacitor ; and electronic circuitry configured to temporarily or non-fixedly couple the pack to an electronic cigarette battery, wherein the ultra-capacitor is configured to charge the electronic cigarette battery at an accelerated rate as compared to a rate at which the pack battery alone can charge the electronic cigarette battery, wherein the charging system further comprises a first constant voltage converter electrically disposed between the ultra-capacitor and the pack battery and a second constant voltage converter electrically disposed between the ultra-capacitor and the electronic cigarette battery, wherein the pack further comprises a push-in contact comprising a center contact and an outer contact , and wherein the outer contact comprises a vertical surface to wipe debris off the electronic cigarette as the electronic cigarette is inserted into the charging system. a pack comprising a pack battery electrically coupled to an ultra-capacitor wherein the pack battery is configured to charge the ultra-capacitor ; and electronic circuitry configured to temporarily or non-fixedly couple the pack to an electronic cigarette battery, wherein the ultra-capacitor is configured to charge the electronic cigarette battery at an accelerated rate as compared to a rate at which the pack battery alone can charge the electronic cigarette battery, wherein the charging system further comprises a first constant voltage converter electrically disposed between the ultra-capacitor and the pack battery and a second constant voltage converter electrically disposed between the ultra-capacitor and the electronic cigarette battery, wherein the pack further comprises a push-in contact comprising a center contact and an outer contact , and wherein the outer contact comprises a vertical surface to wipe debris off the electronic cigarette as the electronic cigarette is inserted into the charging system.
An assembly for an engine configured for linking a piston head to a crankshaft of the engine , the assembly comprising: a primary connecting rod (1a and 1b) configured to hingeably connect to said piston head ; a secondary connecting rod comprising an upper portion and a lower portion , wherein the upper portion comprises an elongated member having a pin (24 and 25) to hingeably connect the upper portion to the primary connecting rod (1a and 1b) by inserting such pin (24 and 25) in an opening (103a and 104b) of the primary connecting rod (1a and 1b), and wherein the upper and lower portions of the secondary connecting rod are configured to engage a crank shaft joint between a circular opening formed by mating of the upper and lower portions (2a and 2b) of said secondary connecting rod ; characterized in having a controlling member having a pair of opposing guiding rails (3a and 3b) and a pair of aligned lateral pins (30a and 30b), wherein the controlling member is configured to receive a substantial part of the upper portion of said secondary connecting rod ; and a controlling member support element configured to enclose the controlling member within a cylinder block of said engine , the controlling member support element comprising two aligned lateral openings (4a and 4b) configured to receive the pair of aligned lateral pins (30a and 30b) of the controlling member , the controlling member support element further comprises a fixing mechanism for affixing the controlling member support element inside the cylinder block and for helping in keeping said controlling member support element static inside the said cylinder block . a primary connecting rod (1a and 1b) configured to hingeably connect to said piston head ; a secondary connecting rod comprising an upper portion and a lower portion , wherein the upper portion comprises an elongated member having a pin (24 and 25) to hingeably connect the upper portion to the primary connecting rod (1a and 1b) by inserting such pin (24 and 25) in an opening (103a and 104b) of the primary connecting rod (1a and 1b), and wherein the upper and lower portions of the secondary connecting rod are configured to engage a crank shaft joint between a circular opening formed by mating of the upper and lower portions (2a and 2b) of said secondary connecting rod ; characterized in having a controlling member having a pair of opposing guiding rails (3a and 3b) and a pair of aligned lateral pins (30a and 30b), wherein the controlling member is configured to receive a substantial part of the upper portion of said secondary connecting rod ; and a controlling member support element configured to enclose the controlling member within a cylinder block of said engine , the controlling member support element comprising two aligned lateral openings (4a and 4b) configured to receive the pair of aligned lateral pins (30a and 30b) of the controlling member , the controlling member support element further comprises a fixing mechanism for affixing the controlling member support element inside the cylinder block and for helping in keeping said controlling member support element static inside the said cylinder block .
Method for operating a network , wherein the network comprises external network having at least one network device and internal network having at least one network device , wherein a transmission unit is also provided, which transmission unit blocks transmission of data from the external network to the internal network by means of a data diode and allows it in the opposite direction, wherein the transmission unit allows data to be transmitted only from the internal network to the external network and this transmission of data is purely physically possible only in one direction, wherein the at least one network device from the internal network transmits data with a first address to the transmission unit , wherein the transmission unit converts this first address into a second address and the data with this second address are then transmitted in the direction of the external network , wherein the second address is a destination address for the at least one network device in the external network .
A method of printing on a base plate , comprising: applying ultraviolet ink to the base plate from an ultraviolet light printer, wherein: the base plate is adapted for supporting a plurality of interlocking building bricks, the base plate comprising a planar sheet having a top surface and a bottom surface , with a plurality of nodes projecting from the top surface , the plurality of nodes comprises a node having a vertical cylindrical wall and a horizontal top wall , the vertical cylindrical wall tapering along its vertical height , and the node comprising a bevel extending around a circumference of the node at an edge where the vertical cylindrical wall transitions to the horizontal top wall , and the ultraviolet ink is applied to at least the top surface of the planar sheet , and to the plurality of nodes . the base plate is adapted for supporting a plurality of interlocking building bricks, the base plate comprising a planar sheet having a top surface and a bottom surface , with a plurality of nodes projecting from the top surface , the plurality of nodes comprises a node having a vertical cylindrical wall and a horizontal top wall , the vertical cylindrical wall tapering along its vertical height , and the node comprising a bevel extending around a circumference of the node at an edge where the vertical cylindrical wall transitions to the horizontal top wall , and the ultraviolet ink is applied to at least the top surface of the planar sheet , and to the plurality of nodes .
A centrifugal pump for conveying a fluid with a housing , having an inlet and an outlet for the fluid, with an impeller arranged in the housing for rotation about an axial direction (A) in order to convey the fluid from the inlet to the outlet , with a shaft extending in the axial direction (A) for driving the impeller and with a stationary guide device for guiding the fluid from the impeller to the outlet , with the guide device being connected to the housing , wherein a resilient compensating element is provided between the housing and the guide device , which compensating element is arranged around the shaft and further arranged to hold the guide device in a centered position with respect to the impeller upon a radial relative movement of the guide device relative to the housing , characterized in that a plurality of connecting elements fixing the guide device to the housing with respect to the axial direction (A), wherein each connecting element is designed in such a way, that it allows for a radial relative movement between the housing and the guide device , wherein each connecting element in each case comprising a sleeve , which is arranged in an axial bore in the housing or in the guide device as well as a fixing means for fixing the guide device , wherein the fixing means extends through the sleeve and wherein the sleeve has an outer diameter (D92), which is smaller than the inner diameter (D13) of the axial bore , so that an annular gap is formed between the sleeve and the wall limiting the axial bore .
Method for treating of a material (M), preferably in a method for producing an insulation material (D); wherein the method includes at least the steps: (a) providing the material (M) as a starting material; wherein the material (M) contains or consists of a comminuted plant material, wherein the comminuted plant material is bulrush which is Typha angustifolia or wood fibers; (b) applying an inorganic coating material (C) to the material (M), preferably coating the material (M) with an inorganic coating material (C); wherein the coating material (C) has a pH-value of < 10; and (c) drying of the material obtained in step (b) until a degree of dryness is achieved to be between the constant mass and 5 mass % above the constant mass, preferably until the constant mass is achieved; characterized in that the coating material (C) at least has the following compounds: a first compound (C1), which functions as a supporting structure, consisting of one component, selected from the group consisting of zircon powder, freshly precipitated aluminum hydroxide, freshly precipitated titanium dioxide, a colloid dispersion of titanium dioxide, aluminum hydroxide in form of Hydrargillit (CAS 21645-51-2), and titanium dioxide (CAS 13463-67-7); and a second compound (C2), which functions as a stabilizer, consisting of silicic acid, preferably silica sol. (a) providing the material (M) as a starting material; wherein the material (M) contains or consists of a comminuted plant material, wherein the comminuted plant material is bulrush which is Typha angustifolia or wood fibers; (b) applying an inorganic coating material (C) to the material (M), preferably coating the material (M) with an inorganic coating material (C); wherein the coating material (C) has a pH-value of < 10; and (c) drying of the material obtained in step (b) until a degree of dryness is achieved to be between the constant mass and 5 mass % above the constant mass, preferably until the constant mass is achieved; a first compound (C1), which functions as a supporting structure, consisting of one component, selected from the group consisting of zircon powder, freshly precipitated aluminum hydroxide, freshly precipitated titanium dioxide, a colloid dispersion of titanium dioxide, aluminum hydroxide in form of Hydrargillit (CAS 21645-51-2), and titanium dioxide (CAS 13463-67-7); and a second compound (C2), which functions as a stabilizer, consisting of silicic acid, preferably silica sol.
A method for the manufacture of a compound of general formula (I), wherein R is fluorosubstituted alkyl or fluorosubstituted alkyloxyalkylene and R' is hydrogen, fluorine, alkyl, fluorosubstituted alkyl or fluorosubstituted alkyloxyalkylene; comprising a step of reacting a compound of general formula (II), wherein R' has the meaning as given above; with a compound of general formula R-OH or a compound of general formula R-O - M + , wherein R has the meaning as given above and M + is an alkaline metal cation, an alkaline earth metal cation equivalent with one positive charge, an ammonium ion or a guanidinium ion.
A memory device operable to communicate with a host via a I/O interface logic , comprising: a plurality of mode registers , wherein at least one of the mode registers is configured to store configuration information, and wherein the at least one mode register is located apart from the other mode registers and close to a circuit that is to use the configuration information, and wherein a write of the configuration information to the at least one mode register by the host takes less time than a read of the configuration information from the at least one mode register by the host; and a communication register separate from the at least one mode register , the communication register being configured to provide data for a read of the configuration information by the host, wherein in response to a request by the host to read the at least one mode register, the at least one mode register is configured to copy the configuration information from the at least one mode register to the communication register to enable the host to read the configuration information from communication register instead of directly from the mode register. a plurality of mode registers , wherein at least one of the mode registers is configured to store configuration information, and wherein the at least one mode register is located apart from the other mode registers and close to a circuit that is to use the configuration information, and wherein a write of the configuration information to the at least one mode register by the host takes less time than a read of the configuration information from the at least one mode register by the host; and a communication register separate from the at least one mode register , the communication register being configured to provide data for a read of the configuration information by the host, wherein in response to a request by the host to read the at least one mode register, the at least one mode register is configured to copy the configuration information from the at least one mode register to the communication register to enable the host to read the configuration information from communication register instead of directly from the mode register.
A scroll-type fluid machine comprising: a main body unit having a main body casing , a fixed scroll , and an orbiting scroll provided to face the fixed scroll to make an orbiting motion; and a motor unit having a drive shaft connected to the main body unit to drive the main body unit and a motor casing , wherein a fastening member which fastens the main body unit and the motor unit is provided, wherein the drive shaft protrudes from the motor casing and is attached to a slewing bearing of the main body unit via an eccentric part provided on the motor unit side, the motor casing and the main body casing have positioning holes into which a positioning member is inserted on respective mating surfaces, characterized in that the positioning member is a separate body from the fastening member , and a dimensional difference in an axial direction between an end surface of the slewing bearing on the motor casing side and an insertion port of the positioning hole on the main body casing side is smaller than a difference between a protruding dimension of the drive shaft in the axial direction from the insertion port of the positioning hole on the motor casing side and a protruding dimension of the positioning member from the insertion port of the positioning hole on the motor casing side or on the main body casing side. a main body unit having a main body casing , a fixed scroll , and an orbiting scroll provided to face the fixed scroll to make an orbiting motion; and a motor unit having a drive shaft connected to the main body unit to drive the main body unit and a motor casing , wherein a fastening member which fastens the main body unit and the motor unit is provided, wherein the drive shaft protrudes from the motor casing and is attached to a slewing bearing of the main body unit via an eccentric part provided on the motor unit side, the motor casing and the main body casing have positioning holes into which a positioning member is inserted on respective mating surfaces, characterized in that the positioning member is a separate body from the fastening member , and a dimensional difference in an axial direction between an end surface of the slewing bearing on the motor casing side and an insertion port of the positioning hole on the main body casing side is smaller than a difference between a protruding dimension of the drive shaft in the axial direction from the insertion port of the positioning hole on the motor casing side and a protruding dimension of the positioning member from the insertion port of the positioning hole on the motor casing side or on the main body casing side.