mhurhangee/patent-ind-claim-en huggingface dataset:
A head-up display system comprising: a projection light source, and laminated glass, wherein the laminated glass comprises: an internal glass panel, an external glass panel, and an intermediate film sandwiched between the internal glass panel and the external glass panel, wherein the head-up display system further comprises a transparent nanofilm comprising at least two dielectric layers and at least one metallic layer, each metallic layer being located between two dielectric layers; wherein a difference between a refractive index of the intermediate film and a refractive index of the internal glass panel and the external glass panel is no more than 0.1; wherein the projection light source is used for generating p-polarized light which is incident on a surface of the internal glass panel distal to the intermediate film, the light having an angle of incidence of 42 to 72 degrees; and wherein the at least one metallic layer of the transparent nanofilm is configured to reflect part of the incident p-polarized light. a projection light source, and laminated glass, wherein the laminated glass comprises: an internal glass panel, an external glass panel, and an intermediate film sandwiched between the internal glass panel and the external glass panel, an internal glass panel, an external glass panel, and an intermediate film sandwiched between the internal glass panel and the external glass panel, wherein the head-up display system further comprises a transparent nanofilm comprising at least two dielectric layers and at least one metallic layer, each metallic layer being located between two dielectric layers; wherein a difference between a refractive index of the intermediate film and a refractive index of the internal glass panel and the external glass panel is no more than 0.1; wherein the projection light source is used for generating p-polarized light which is incident on a surface of the internal glass panel distal to the intermediate film, the light having an angle of incidence of 42 to 72 degrees; and wherein the at least one metallic layer of the transparent nanofilm is configured to reflect part of the incident p-polarized light.
An axial fan impeller comprising: a hub defining a center of said axial fan; a guide surrounding said hub, said guide defining at least one opening that facilitates airflow on an outlet side of said axial fan; and at least one blade coupled to said hub and extending radially outward from said hub, said guide bisecting said at least one blade along a blade longitudinal axis , said blade longitudinal axis defining an inlet portion and an outlet portion of said at least one blade, wherein said at least one blade comprises an inlet edge having a generally curved shape in a side view and an outlet edge having a generally curved shape in a side view, wherein said inlet edge extends from a first hub connection point to a distal inlet tip , wherein said outlet edge extends from a second hub connection point to a distal outlet tip , wherein said distal inlet tip is spaced a first radial distance from said first hub connection point and said distal outlet tip is spaced a second radial distance from said first hub connection point, and wherein said first radial distance is greater than said second radial distance, characterized in that a middle point is located on a distal edge between said inlet distal tip and said outlet distal tip, said middle point spaced a third radial distance from said first hub connection point, wherein said first radial distance is greater than said third radial distance and said third radial distance is greater than said second radial distance, and wherein said blade longitudinal axis passes through said middle point of said distal edge. a hub defining a center of said axial fan; a guide surrounding said hub, said guide defining at least one opening that facilitates airflow on an outlet side of said axial fan; and at least one blade coupled to said hub and extending radially outward from said hub, said guide bisecting said at least one blade along a blade longitudinal axis , said blade longitudinal axis defining an inlet portion and an outlet portion of said at least one blade, wherein said at least one blade comprises an inlet edge having a generally curved shape in a side view and an outlet edge having a generally curved shape in a side view, wherein said inlet edge extends from a first hub connection point to a distal inlet tip , wherein said outlet edge extends from a second hub connection point to a distal outlet tip , wherein said distal inlet tip is spaced a first radial distance from said first hub connection point and said distal outlet tip is spaced a second radial distance from said first hub connection point, and wherein said first radial distance is greater than said second radial distance, characterized in that a middle point is located on a distal edge between said inlet distal tip and said outlet distal tip, said middle point spaced a third radial distance from said first hub connection point, wherein said first radial distance is greater than said third radial distance and said third radial distance is greater than said second radial distance, and wherein said blade longitudinal axis passes through said middle point of said distal edge.
An actuator comprising an electric motor having cogging torque (C), and a controller configured to control operation of the electric motor and determine a motor position of the electric motor , wherein the controller comprises a circuit configured to control the electric motor to drive an actuated part of a Heating, Ventilating, and Air Conditioning system to a target position and maintain a current motor position by determining from a set of stable positions (P1, P2) defined by the cogging torque (C) a selected stable position (P1, P2) closest to the current motor position, and controlling a motor torque of the electric motor to maintain the motor position within a defined range (R1, R2) around the selected stable position (P1, P2).
A handwriting input method of a portable terminal device , the handwriting input method comprising: in response to an application being executed, displaying (S1301) an execution screen of the application on a touch screen , wherein the application is an application that displays a web screen provided by a server; overlapping (S1303) a handwriting input layer for receiving a handwriting input with the execution screen; in response to a handwriting image being received (S1305) through the handwriting input layer using a touch pen , identifying (S1307) a data type input into a component of a hypertext markup language, HTML, document in an area of the web screen as a data type; recognizing the received handwriting image as the identified data type; and applying (S1309) the recognized handwriting image to the executed application differently according to the identified data type of the received handwriting image. in response to an application being executed, displaying (S1301) an execution screen of the application on a touch screen , wherein the application is an application that displays a web screen provided by a server; overlapping (S1303) a handwriting input layer for receiving a handwriting input with the execution screen; in response to a handwriting image being received (S1305) through the handwriting input layer using a touch pen , identifying (S1307) a data type input into a component of a hypertext markup language, HTML, document in an area of the web screen as a data type; recognizing the received handwriting image as the identified data type; and applying (S1309) the recognized handwriting image to the executed application differently according to the identified data type of the received handwriting image.
Furniture panel with an integrated mounting cassette and a movement fitting accommodated therein for movable furniture parts, wherein the mounting cassette has two side panels arranged parallel to one another and spaced apart from one another, and wherein an opening remains on a narrow side of the mounting cassette , into which opening the movement fitting is pushed, characterized in that the side panels of the mounting cassette are spaced apart by a u-shaped frame extending along three sides of the mounting cassette , and that the mounting cassette has a clamping mechanism with which the movement fitting is clamped in the mounting cassette .
A running deck assembly, comprising: a front running deck ; a rear running deck , a front end face of which is hinged with a rear end face of the front running deck by means of a hinge , a hinging gap being located at a location where the front running deck is hinged to the rear running deck ; and an annular running belt , which is rotatably mounted around the front running deck and the rear running deck with a clearance; characterized in that the running deck assembly further comprises: a flexible layer , which is laid on an upper surface of the front running deck and an upper surface of the rear running deck and covers the hinging gap, a wear-resisting layer laid on an upper surface of the flexible layer , and a smooth layer for reducing a sliding friction between the wear-resisting layer and the annular running belt , which is laid on an upper surface of the wear-resisting layer . a front running deck ; a rear running deck , a front end face of which is hinged with a rear end face of the front running deck by means of a hinge , a hinging gap being located at a location where the front running deck is hinged to the rear running deck ; and an annular running belt , which is rotatably mounted around the front running deck and the rear running deck with a clearance; characterized in that the running deck assembly further comprises: a flexible layer , which is laid on an upper surface of the front running deck and an upper surface of the rear running deck and covers the hinging gap, a wear-resisting layer laid on an upper surface of the flexible layer , and a smooth layer for reducing a sliding friction between the wear-resisting layer and the annular running belt , which is laid on an upper surface of the wear-resisting layer . a flexible layer , which is laid on an upper surface of the front running deck and an upper surface of the rear running deck and covers the hinging gap, a wear-resisting layer laid on an upper surface of the flexible layer , and a smooth layer for reducing a sliding friction between the wear-resisting layer and the annular running belt , which is laid on an upper surface of the wear-resisting layer .
Lubricant composition with kinematic viscosity at 100°C measured according to standard ASTM D445 ranging from 4 to 50 cSt and comprising, with respect to the total weight of the lubricant composition, at least 70% by weight of at least one base oil, from 0.1 to 5% by weight of one at least one anti-wear compound comprising a dithiophosphate group and from 0.01 to 2% by weight of solid metal nanoparticles having a fullerene-type structure represented by the formula MX n in which M represents a transition metal, X a chalcogen, with n=2 or n=3 depending on the oxidation state of the transition metal M, the metal nanoparticles having an average size, determined using images obtained by transmission electron microscopy or by high resolution transmission electron microscopy, ranging from 50 to 200 nm and being concentric polyhedrons with a multilayer or sheet structure.
A catheter, comprising: a surface; and a wetted lubricous hydrophilic coating disposed on the surface, wherein the coating comprises a hydrophilic polymer matrix and mannose is located within the hydrophilic polymer matrix. a surface; and a wetted lubricous hydrophilic coating disposed on the surface, wherein the coating comprises a hydrophilic polymer matrix and mannose is located within the hydrophilic polymer matrix.
A communication method performed by a User Equipment, UE , the communication method comprising: receiving, from a Base Station, BS, Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH that schedules a Physical Downlink Shared Channel, PDSCH and carries a value of KO and a value of K1, wherein KO is a first slot offset between the PDCCH and the PDSCH, and K1 is used to determine a second slot offset between the PDSCH and a Physical Uplink Control Channel, PUCCH, for transmitting a Hybrid Automatic Repeat request, HARQ, Acknowledgement, ACK, feedback corresponding to a data reception on the PDSCH; receiving a Medium Access Control, MAC, Control Element, CE, command on the PDSCH ; and in a case that a transmission of the HARQ ACK feedback is enabled, applying the MAC CE command in a first upcoming slot after a first slot identified by a first value of n+K0+K1+Np+M , where n is an index of a slot in which the DCI is received, Np indicates an approximation for a propagation delay, and M indicates a MAC CE parsing time, wherein Np is determined as ┌ a common Timing Advance, TA, value/2┐, , where ┌ ┐refers to a ceiling function, and the common TA value is included in system information broadcast by the BS. receiving, from a Base Station, BS, Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH that schedules a Physical Downlink Shared Channel, PDSCH and carries a value of KO and a value of K1, wherein KO is a first slot offset between the PDCCH and the PDSCH, and K1 is used to determine a second slot offset between the PDSCH and a Physical Uplink Control Channel, PUCCH, for transmitting a Hybrid Automatic Repeat request, HARQ, Acknowledgement, ACK, feedback corresponding to a data reception on the PDSCH; receiving a Medium Access Control, MAC, Control Element, CE, command on the PDSCH ; and in a case that a transmission of the HARQ ACK feedback is enabled, applying the MAC CE command in a first upcoming slot after a first slot identified by a first value of n+K0+K1+Np+M , where n is an index of a slot in which the DCI is received, Np indicates an approximation for a propagation delay, and M indicates a MAC CE parsing time, wherein Np is determined as ┌ a common Timing Advance, TA, value/2┐, , where ┌ ┐refers to a ceiling function, and the common TA value is included in system information broadcast by the BS.
A method of controlling the creation of a magnetic field with an assembly of coils, which field has a desired geometric shape around a given origin, characterized in that the method comprises the following steps: creating a test current in each coil at a time, measuring the magnetic field distribution around the origin caused by the test current and decomposing the measured magnetic fields into desired and undesired components of the magnetic field, wherein each coil in the assembly is characterized by the field components and their gradients that it generates at the origin, wherein the components of the magnetic field include field values and/or derivatives of desired order and wherein the undesired components contribute to magnetic field shapes which are wanted to be excluded from the generated magnetic field; forming a system of linear equations corresponding to the equation B = MI, where B is a field vector, I is a vector with components describing currents in the individual coils of said assembly of coils and M is a matrix describing the linear relationship between B and I, so that the system of linear equations is based on the decomposed components giving the same decomposition of the magnetic field that results from simultaneous powering of the coils of the coil assembly by a set of currents; and determining a set of currents that result in the desired geometric shape by solving the system of linear equations. creating a test current in each coil at a time, measuring the magnetic field distribution around the origin caused by the test current and decomposing the measured magnetic fields into desired and undesired components of the magnetic field, wherein each coil in the assembly is characterized by the field components and their gradients that it generates at the origin, wherein the components of the magnetic field include field values and/or derivatives of desired order and wherein the undesired components contribute to magnetic field shapes which are wanted to be excluded from the generated magnetic field; forming a system of linear equations corresponding to the equation B = MI, where B is a field vector, I is a vector with components describing currents in the individual coils of said assembly of coils and M is a matrix describing the linear relationship between B and I, so that the system of linear equations is based on the decomposed components giving the same decomposition of the magnetic field that results from simultaneous powering of the coils of the coil assembly by a set of currents; and determining a set of currents that result in the desired geometric shape by solving the system of linear equations.
A method for setting rights in an altered-reality (AR) environment, the method comprising the following steps: - receiving by a rights management system data featuring a second user associated with a second AR-enabling system when the second user is routinely detected by a first AR-enabling system of a first user within a physical environment of the first user, said rights management system configured for managing rights data respective at least to the first user and to the second user , said rights data indicating authorizations or denials set for the first user with respect to the second user and vice versa; - based on the received data featuring the second user , obtaining by the rights management system the rights data of the first user with respect to the second user ; characterized in that the method further comprises: - based on the obtained rights data of the first user with respect to the second user , setting the rights data of the second user with respect to the first user by the rights management system ; - determining by the rights management system a compatibility level between the obtained rights data of the first user with respect to the second user and the set rights data of the second user with respect to the first user ; - incurring by the rights management system a warning action featuring a virtual emphasis of the second user's presence within the environment of the first user if the compatibility level is below a predetermined level of compatibility between the first and the second users. - receiving by a rights management system data featuring a second user associated with a second AR-enabling system when the second user is routinely detected by a first AR-enabling system of a first user within a physical environment of the first user, said rights management system configured for managing rights data respective at least to the first user and to the second user , said rights data indicating authorizations or denials set for the first user with respect to the second user and vice versa; - based on the received data featuring the second user , obtaining by the rights management system the rights data of the first user with respect to the second user ; - based on the obtained rights data of the first user with respect to the second user , setting the rights data of the second user with respect to the first user by the rights management system ; - determining by the rights management system a compatibility level between the obtained rights data of the first user with respect to the second user and the set rights data of the second user with respect to the first user ; - incurring by the rights management system a warning action featuring a virtual emphasis of the second user's presence within the environment of the first user if the compatibility level is below a predetermined level of compatibility between the first and the second users.
A light engine, comprising: a wavelength conversion device, arranged to receive source light of a first wavelength range and a first polarisation, wherein the wavelength conversion device comprises a wheel , a first portion of the wheel surface being configured to generate light of a second wavelength range from a portion of the received source light, at least a portion of the second wavelength range being non-overlapping with the first wavelength range, the wavelength conversion device being further arranged to reflect output light comprising the generated light, wherein the wavelength conversion device further comprises a polarisation converter , configured to set at least some of the output light to a second polarisation, different from the first polarisation; and a dichroic element , arranged to receive the reflected output light, the dichroic element being configured to direct light of the first polarisation differently from light of the second polarisation, characterised in that said polarisation converter is either attached to or positioned behind the wheel . a wavelength conversion device, arranged to receive source light of a first wavelength range and a first polarisation, wherein the wavelength conversion device comprises a wheel , a first portion of the wheel surface being configured to generate light of a second wavelength range from a portion of the received source light, at least a portion of the second wavelength range being non-overlapping with the first wavelength range, the wavelength conversion device being further arranged to reflect output light comprising the generated light, wherein the wavelength conversion device further comprises a polarisation converter , configured to set at least some of the output light to a second polarisation, different from the first polarisation; and a dichroic element , arranged to receive the reflected output light, the dichroic element being configured to direct light of the first polarisation differently from light of the second polarisation, characterised in that said polarisation converter is either attached to or positioned behind the wheel .