mhurhangee/patent-ind-claim-en huggingface dataset:
A camera module comprising: a lens assembly ; a lens driving unit for moving the lens assembly in an optical axis direction; a position sensor unit for detecting a position of the lens assembly; and a control unit configured to output a driving signal, for moving the lens assembly to a target position, to the lens driving unit based on the position of the lens assembly detected through the position sensor unit, wherein the position sensor unit includes a plurality of sensor units with at least one output terminal interconnected to each other, an amplifier commonly connected to the sensor units, and an analog-to-digital converter connected to the amplifier, wherein the amplifier includes an inverting terminal and a non-inverting terminal, wherein the sensor units include a first sensor unit having a first output terminal and a second output terminal, and a second sensor unit having a third output terminal and a fourth output terminal, wherein the first output terminal of the first sensor unit is connected to the non-inverting terminal of the amplifier, wherein the fourth output terminal of the second sensor unit is connected to the inverting terminal of the amplifier either directly or via a switch , and wherein the second output terminal of the first sensor unit is connected to the third output terminal of the second sensor unit. a lens assembly ; a lens driving unit for moving the lens assembly in an optical axis direction; a position sensor unit for detecting a position of the lens assembly; and a control unit configured to output a driving signal, for moving the lens assembly to a target position, to the lens driving unit based on the position of the lens assembly detected through the position sensor unit, the position sensor unit includes a plurality of sensor units with at least one output terminal interconnected to each other, an amplifier commonly connected to the sensor units, and an analog-to-digital converter connected to the amplifier, wherein the amplifier includes an inverting terminal and a non-inverting terminal, wherein the sensor units include a first sensor unit having a first output terminal and a second output terminal, and a second sensor unit having a third output terminal and a fourth output terminal, wherein the first output terminal of the first sensor unit is connected to the non-inverting terminal of the amplifier, wherein the fourth output terminal of the second sensor unit is connected to the inverting terminal of the amplifier either directly or via a switch , and wherein the second output terminal of the first sensor unit is connected to the third output terminal of the second sensor unit.
A drug delivery system comprising an elongated inert support , and at least two reservoirs comprising a pharmaceutically active ingredient, wherein said elongated inert support has a longitudinal axis and comprises a number of wall segments defining at least two compartments arranged longitudinally along the axis of said support, said compartments are arranged for accommodating the at least two reservoirs and wherein the inert support is made of a material, which substantially prevents migration and/or diffusion of active ingredient from one reservoir into the support and further into at least one neighbouring reservoir, and wherein each reservoir defines a surface area through which the pharmaceutically active ingredient can diffuse/migrate into the surroundings and wherein the surface area of each reservoir does not extend beyond the wall segments of the inert support .
Microwave node for an Ethernet Ring Protection, ERP, network , wherein the ERP network is a hybrid network comprising the microwave node , at least one further microwave node, and at least one non-microwave node that does not generate a bandwidth notification message, BNM, wherein the microwave node comprises at least one processor configured to: receive a BNM from the at least one further microwave node; determine whether a degree of bandwidth degradation of a local link of the microwave node fulfils a degradation condition based on the received BNM, and generate a signal indicating a fail of the local link if the degradation condition is fulfilled, wherein the signal indicating a fail of the local link is a signal fail, SF, or a manual switch, MS, signal for triggering an ERP protection switching, and if the microwave node receives a further SF or MS signal from the non-microwave node and does not receive any BNM from the non-microwave node , the degradation condition is not fulfilled, and the microwave node is configured not to trigger the ERP protection switching. receive a BNM from the at least one further microwave node; determine whether a degree of bandwidth degradation of a local link of the microwave node fulfils a degradation condition based on the received BNM, and generate a signal indicating a fail of the local link if the degradation condition is fulfilled, wherein the signal indicating a fail of the local link is a signal fail, SF, or a manual switch, MS, signal for triggering an ERP protection switching, and if the microwave node receives a further SF or MS signal from the non-microwave node and does not receive any BNM from the non-microwave node , the degradation condition is not fulfilled, and the microwave node is configured not to trigger the ERP protection switching.
A turret tool post of a machine tool, comprising: a post body ; a turret that is turnably supported on the post body ; a turret turning means that is configured to turn the turret ; and a rotation driving means of a rotatable tool ; and a tool attachment part that turnably holds the rotatable tool and that is attached to the turret ; wherein the machine tool selects the tool by turning the turret and performs processing on a material by turning the tool using the tool attachment part and by rotating the tool using the rotation driving means, characterized by a tool-attachment-part turning means that comprises a drive motor and is configured to turn the tool attachment part to turn the tool by the drive force of the drive motor, wherein the tool-attachment-part turning means and the turret turning means are provided independently and arranged to oppose each other, with the tool-attachment-part turning means being provided on or inside a hollow part side of the turret so as to oppose the turret turning means provided on the post body side. a post body ; a turret that is turnably supported on the post body ; a turret turning means that is configured to turn the turret ; and a rotation driving means of a rotatable tool ; and a tool attachment part that turnably holds the rotatable tool and that is attached to the turret ; wherein the machine tool selects the tool by turning the turret and performs processing on a material by turning the tool using the tool attachment part and by rotating the tool using the rotation driving means, characterized by a tool-attachment-part turning means that comprises a drive motor and is configured to turn the tool attachment part to turn the tool by the drive force of the drive motor, wherein the tool-attachment-part turning means and the turret turning means are provided independently and arranged to oppose each other, with the tool-attachment-part turning means being provided on or inside a hollow part side of the turret so as to oppose the turret turning means provided on the post body side.
A method for controlling access to content broadcast to a receiver, said receiver being part of a geographical access control system, said receiver comprising verification means and security means, the method comprising the steps: - receiving a verification invitation message by the receiver, - generating a single-use code by the receiver, - transmitting said single-use code to said verification means of the receiver, - transmitting said single-use code to a portable device, - acquiring a current location by the portable device, - transferring the current location and said single-use code from the portable device to the verification means of said receiver, - verifying the single-use code received by the verification means, and if the code is correct, - extracting in a memory of the verification means, a set of location data defining at least one zone, - verifying by the verification means that the current location is included in said zone, and if so, transmitting, by the verification means, an authorisation message for receiving the audiovisual content to the security means of said receiver - authorising or prohibiting, by the security means, the access to the content broadcast to the receiver based on the verification result. - receiving a verification invitation message by the receiver, - generating a single-use code by the receiver, - transmitting said single-use code to said verification means of the receiver, - transmitting said single-use code to a portable device, - acquiring a current location by the portable device, - transferring the current location and said single-use code from the portable device to the verification means of said receiver, - verifying the single-use code received by the verification means, and if the code is correct, - extracting in a memory of the verification means, a set of location data defining at least one zone, - verifying by the verification means that the current location is included in said zone, and if so, transmitting, by the verification means, an authorisation message for receiving the audiovisual content to the security means of said receiver - authorising or prohibiting, by the security means, the access to the content broadcast to the receiver based on the verification result.
A process for preparing a compound of formula (I), comprising the step: (a) reacting a compound of formula (II) with a compound of formula (III) in the presence of a catalyst of substituted or unsubstituted iodobenzene, wherein: R 1 is H or C 1 -C 10 hydrocarbyl; and R 2 is C 1 -C 4 acyl. (a) reacting a compound of formula (II) with a compound of formula (III) in the presence of a catalyst of substituted or unsubstituted iodobenzene, wherein: R 1 is H or C 1 -C 10 hydrocarbyl; and R 2 is C 1 -C 4 acyl. R 1 is H or C 1 -C 10 hydrocarbyl; and R 2 is C 1 -C 4 acyl.
A surface treated steel sheet comprising: a base metal and a plated layer formed on a surface of the base metal, wherein an average composition of the plated layer contains, in mass%, Mg: 0.5 to 2.0%, Fe: 5.0 to 25.0%, optionally, Si: more than 0% and 15.0% or less, and following formulas (i) to (iv) are satisfied: 75.0 ≤ Zn + Al ≤ 98.5 0.4 ≤ Zn / Al ≤ 1.5 Zn / Al × Mg ≤ 1.6 Mg + Ca + Ti + Sr + Cr ≤ 2.0 where, symbol of an element in the formulas refers to content (mass%) of each element contained in the plated layer, the plated layer includes an Fe diffusion layer on a base metal side of the plated layer, a ratio of a thickness of the Fe diffusion layer to an entire thickness of the plated layer is between 15 and 50%, and the entire thickness of the plated layer is 5 to 40 μm, and wherein the average composition of the plated layer is determined by the method described in the description, the thickness of the Fe diffusion layer and the entire thickness of the plated layer are determined by the method described in the description. an average composition of the plated layer contains, in mass%, Mg: 0.5 to 2.0%, Fe: 5.0 to 25.0%, optionally, Si: more than 0% and 15.0% or less, and following formulas (i) to (iv) are satisfied: 75.0 ≤ Zn + Al ≤ 98.5 0.4 ≤ Zn / Al ≤ 1.5 Zn / Al × Mg ≤ 1.6 Mg + Ca + Ti + Sr + Cr ≤ 2.0 where, symbol of an element in the formulas refers to content (mass%) of each element contained in the plated layer, the plated layer includes an Fe diffusion layer on a base metal side of the plated layer, a ratio of a thickness of the Fe diffusion layer to an entire thickness of the plated layer is between 15 and 50%, and the entire thickness of the plated layer is 5 to 40 μm, and wherein the average composition of the plated layer is determined by the method described in the description, the thickness of the Fe diffusion layer and the entire thickness of the plated layer are determined by the method described in the description.
A parcel sorting system comprising at least one collapsible flexible parcel holder and at least one rigid container , the or each flexible parcel holder comprising deployable elements, the or each flexible parcel holder being locatable in a rigid container , said deployable elements being arranged so as to ensure the external surfaces of the or each flexible parcel holder substantially conforms to the internal surfaces of the rigid container in which it is located, so as to create a combined, nested container , the nested container being adapted so as to receive parcels in such a manner that packing density of parcels within the nested container is maximized characterised in that the nested container further comprises a removable lid portion attached to the flexible parcel holder, the removable lid portion comprising a fastening means which is configured to couple to a fastening means of the flexible parcel holder and a structural means which increases the stiffness of the flexible parcel holder wherein the removable lid portion seals the flexible parcel holder such that the contents of the flexible parcel holder may be retained within the flexible parcel holder and in that , in use, the sealed flexible parcel holder may be removed from the rigid container after the parcels have been received within the flexible parcel holder and the removable lid portion has been attached to the flexible parcel holder.
A silencer of a ventilation system for a cabin having a first portion and a second portion , the silencer comprising: a housing ; a divider spanning an interior dimension of the housing to define a first cavity with a first volume and a second cavity with a second volume, wherein the first volume differs from the second volume, wherein the divider restricts substantially all mass flow between the first cavity and the second cavity in the housing; a first silencer tube having an output port , an input port and a porous portion disposed in the first cavity, wherein the first silencer tube is configured to be operatively coupled with a first air flow source to receive a first air flow and wherein the output port is configured to be coupled to the first portion of the cabin; and a second silencer tube having an output port , an input port and a porous portion disposed in the second cavity, wherein the second silencer tube is configured to be operatively coupled with a second air flow source to receive a second air flow and wherein the output port is configured to be coupled to the second portion of the cabin, wherein the position of the divider is configured to optimize cabin noise profiles at the first and at the second cabin portions based on a noise input at the input port of the first and the second silencer tube . a housing ; a divider spanning an interior dimension of the housing to define a first cavity with a first volume and a second cavity with a second volume, wherein the first volume differs from the second volume, wherein the divider restricts substantially all mass flow between the first cavity and the second cavity in the housing; a first silencer tube having an output port , an input port and a porous portion disposed in the first cavity, wherein the first silencer tube is configured to be operatively coupled with a first air flow source to receive a first air flow and wherein the output port is configured to be coupled to the first portion of the cabin; and a second silencer tube having an output port , an input port and a porous portion disposed in the second cavity, wherein the second silencer tube is configured to be operatively coupled with a second air flow source to receive a second air flow and wherein the output port is configured to be coupled to the second portion of the cabin, wherein the position of the divider is configured to optimize cabin noise profiles at the first and at the second cabin portions based on a noise input at the input port of the first and the second silencer tube .
A method for producing an ophthalmic lens, comprising: providing a plastic mold section ; mounting the plastic mold section onto a mandrel , said mandrel having a flywheel , a base unit , and a projection having a rotational axis that is offset from a rotational axis of a lathe assembly ; and characterized in that the plastic mold section has a lens button with a posterior surface comprising a toric zone with a major axis; and the method comprises fixing the flywheel to a first reference point so that the first reference point is at a first radian position; rotating the base unit relative to the flywheel so that a second reference point is at a second radian position; and fixing the flywheel and the base unit from rotating relative to one another. providing a plastic mold section ; mounting the plastic mold section onto a mandrel , said mandrel having a flywheel , a base unit , and a projection having a rotational axis that is offset from a rotational axis of a lathe assembly ; and characterized in that the plastic mold section has a lens button with a posterior surface comprising a toric zone with a major axis; and the method comprises fixing the flywheel to a first reference point so that the first reference point is at a first radian position; rotating the base unit relative to the flywheel so that a second reference point is at a second radian position; and fixing the flywheel and the base unit from rotating relative to one another.
A gas turbine engine blade comprising: an airfoil extending radially from a base to a blade tip , the airfoil comprising: a pressure sidewall and a suction sidewall each extending between a leading edge and a trailing edge opposite the leading edge; an internal cooling circuit extending from the base to the blade tip; and a squealer tip comprising: a first squealer tip rail and a second squealer tip rail adjacent to the first squealer tip rail; and a squealer tip cap extending between the first and second squealer tip rails, wherein the blade tip, the first and second squealer tip rails, and the squealer tip cap define an internal squealer tip cooling channel and wherein the blade tip defines a supply aperture that fluidly connects the internal cooling circuit and the internal squealer tip cooling channel; characterised in that the first squealer tip rail, the second squealer tip rail, and the squealer tip cap comprise a presintered preform, wherein the presintered preform includes particles of an abrasive ceramic. an airfoil extending radially from a base to a blade tip , the airfoil comprising: a pressure sidewall and a suction sidewall each extending between a leading edge and a trailing edge opposite the leading edge; an internal cooling circuit extending from the base to the blade tip; and a pressure sidewall and a suction sidewall each extending between a leading edge and a trailing edge opposite the leading edge; an internal cooling circuit extending from the base to the blade tip; and a squealer tip comprising: a first squealer tip rail and a second squealer tip rail adjacent to the first squealer tip rail; and a squealer tip cap extending between the first and second squealer tip rails, wherein the blade tip, the first and second squealer tip rails, and the squealer tip cap define an internal squealer tip cooling channel and wherein the blade tip defines a supply aperture that fluidly connects the internal cooling circuit and the internal squealer tip cooling channel; characterised in that the first squealer tip rail, the second squealer tip rail, and the squealer tip cap comprise a presintered preform, wherein the presintered preform includes particles of an abrasive ceramic. a first squealer tip rail and a second squealer tip rail adjacent to the first squealer tip rail; and a squealer tip cap extending between the first and second squealer tip rails, wherein the blade tip, the first and second squealer tip rails, and the squealer tip cap define an internal squealer tip cooling channel and wherein the blade tip defines a supply aperture that fluidly connects the internal cooling circuit and the internal squealer tip cooling channel; characterised in that the first squealer tip rail, the second squealer tip rail, and the squealer tip cap comprise a presintered preform, wherein the presintered preform includes particles of an abrasive ceramic.
A fire control device for a power storage system, characterized by comprising: a box configured to accommodate a battery system ; a power wire connected with the box and having a power receiving end and a power output end , wherein the power receiving end is configured to couple to the battery system and the power output end is outside the box ; a pressure relieving check valve extending through a wall thickness of the box and having a first input end and a first output end , wherein the first input end is located inside the box and the first output end is located outside the box , a state of the pressure relieving check valve is switched between a first open state and a first closed state according to a pressure difference between an inside of the box and an outside of the box ; a fire extinguishing check valve extending through the wall thickness of the box and having a second input end and a second output end , wherein the second input end is located outside the box and the second output end is located inside the box , a state of the fire extinguishing check valve is switched between a second open state and a second closed state according to the pressure difference between the inside of the box and the outside of the box ; and a fire extinguisher disposed in the box and connected to the pressure relieving check valve , wherein the fire extinguisher is switched between a starting mode and a stopping mode according to the state of the pressure relieving check valve . a box configured to accommodate a battery system ; a power wire connected with the box and having a power receiving end and a power output end , wherein the power receiving end is configured to couple to the battery system and the power output end is outside the box ; a pressure relieving check valve extending through a wall thickness of the box and having a first input end and a first output end , wherein the first input end is located inside the box and the first output end is located outside the box , a state of the pressure relieving check valve is switched between a first open state and a first closed state according to a pressure difference between an inside of the box and an outside of the box ; a fire extinguishing check valve extending through the wall thickness of the box and having a second input end and a second output end , wherein the second input end is located outside the box and the second output end is located inside the box , a state of the fire extinguishing check valve is switched between a second open state and a second closed state according to the pressure difference between the inside of the box and the outside of the box ; and a fire extinguisher disposed in the box and connected to the pressure relieving check valve , wherein the fire extinguisher is switched between a starting mode and a stopping mode according to the state of the pressure relieving check valve .