mhurhangee/patent-ind-claim-en huggingface dataset:
Device for detecting the coding profile of a key , of the type intended to be installed and/or provided inside a key cutting machine comprising an operating area provided of at least one milling and/or cutting unit and of at least one clamp for locking a key, and comprising: - an optical reader which is configured to be entirely housed inside the structure of said duplicating machine but outside the operating area of said machine , - a drawer provided with clamping means to hold said key , whose coding profile is to be detected, in correspondence with its head and/or its stem and/or a connecting section between the head and the shaft of said key, said drawer being configured to be movable towards and away from said optical reader , said device being characterized in that : - said optical reader comprises a telecentric optic interposed between said drawer and at least one optical sensor configured to collect at least one image of the coding profile of said key held by said clamping means , - said telecentric optic , said at least one sensor and the framed area, which is defined inside said drawer , are aligned along the same optical axis which is substantially perpendicular to one face of said key of which the coding profile is to be detected. - an optical reader which is configured to be entirely housed inside the structure of said duplicating machine but outside the operating area of said machine , - a drawer provided with clamping means to hold said key , whose coding profile is to be detected, in correspondence with its head and/or its stem and/or a connecting section between the head and the shaft of said key, said drawer being configured to be movable towards and away from said optical reader , - said optical reader comprises a telecentric optic interposed between said drawer and at least one optical sensor configured to collect at least one image of the coding profile of said key held by said clamping means , - said telecentric optic , said at least one sensor and the framed area, which is defined inside said drawer , are aligned along the same optical axis which is substantially perpendicular to one face of said key of which the coding profile is to be detected.
Heating container for foods, constituted by a box of shape and size suitable for housing bakery products, formed by a base (1.a), a cover (1.b) and a plurality of lateral edges (1.c), adapted to be mutually fit in a reversible manner in order to avoid the content outflow, the heating container being provided with an internal support layer (1.d), adapted to support a plate suitable to be heated and to maintain it at a predetermined distance from said base (1.a.) of said box ; an air space , placed between said base (1.a) of said box and said internal support layer (1.d), adapted to allow the circulation of air and adapted to maintain said base (1.a) and said support layer (1.d) distant from each other, even under the effect of the pressure generated by the user while cutting the foods present on the plate ; a ventilation system , constituted by a plurality of holes on the cover (3.a) and by a plurality of holes on the base (3.b) of said box , adapted to prevent the formation of condensation inside the box itself, when the cover (1.b) is closed; the heating container being characterised in that it is provided with a plate suitable to be heated, adapted to act as a support surface for the foods to be maintained hot, as a support for the cutting of said foods and as a heat source for keeping said foods hot or terminating the cooking thereof; said support layer (1.d) for the plate being provided with a groove (1.z.) at the abutment surface between said support layer (1.d.) and said plate , adapted to be engaged with the edge of said plate in order to maintain it in a fixed position.
An optoelectronic switch for switching a signal from an input device to an output device, the optoelectronic switch including a plurality of switch modules , each connected to an optical interconnecting region (C5), wherein: each switch module is configured to output a WDM output signal to the optical interconnecting region (C5), the optoelectronic switch further includes one or more MZI routers, each configured to direct the WDM output signal from its source switch module towards its destination switch module , the one or more MZI routers located either: on each of the switch modules , or in the interconnecting region (C5); and the optical interconnecting region (C5) includes an optical backplane or a passive fibre shuffle, characterized in that the MZI router includes a plurality of MZI switches arranged in a matrix, wherein the MZI router is a 1 × N router, and wherein the plurality of MZI switches arranged in a tree formation. each switch module is configured to output a WDM output signal to the optical interconnecting region (C5), the optoelectronic switch further includes one or more MZI routers, each configured to direct the WDM output signal from its source switch module towards its destination switch module , the one or more MZI routers located either: on each of the switch modules , or in the interconnecting region (C5); and on each of the switch modules , or in the interconnecting region (C5); and the optical interconnecting region (C5) includes an optical backplane or a passive fibre shuffle, characterized in that the MZI router includes a plurality of MZI switches arranged in a matrix, wherein the MZI router is a 1 × N router, and wherein the plurality of MZI switches arranged in a tree formation.
An in-cell touch color filter substrate , characterized by comprising: a substrate comprising a plurality of display areas and a plurality of non-display areas , wherein each non-display area surrounds one of the display areas ; a first metal layer provided on the substrate , the first metal layer functions as a driving electrode or a scanning electrode used for implementing a touch function; a first organic film layer provided on the first metal layer ; a second metal layer provided on the first organic film layer , the second metal layer functions as the scanning electrode or driving electrode used for implementing the touch function; the second metal layer comprising a plurality of conductive pads provided in the non-display areas ; a color filter layer formed on the second metal layer ; and a second organic film layer provided on the color filter layer ; wherein a plurality of through holes or through slots are formed in the first organic film layer in the non-display areas uncovering a surface of the first metal layer , wherein the conductive pads electrically connect with the first metal layer via the through holes or through slots , and wherein the conductive pads are exposed through the second organic film layer . a substrate comprising a plurality of display areas and a plurality of non-display areas , wherein each non-display area surrounds one of the display areas ; a first metal layer provided on the substrate , the first metal layer functions as a driving electrode or a scanning electrode used for implementing a touch function; a first organic film layer provided on the first metal layer ; a second metal layer provided on the first organic film layer , the second metal layer functions as the scanning electrode or driving electrode used for implementing the touch function; the second metal layer comprising a plurality of conductive pads provided in the non-display areas ; a color filter layer formed on the second metal layer ; and a second organic film layer provided on the color filter layer ; wherein a plurality of through holes or through slots are formed in the first organic film layer in the non-display areas uncovering a surface of the first metal layer , wherein the conductive pads electrically connect with the first metal layer via the through holes or through slots , and wherein the conductive pads are exposed through the second organic film layer .
A variable neutral density, VND, filter (30; 40; 50; 100) comprising: a first polarizer (34; 42); a second polarizer (32; 46); a third polarizer (36; 44); and a mechanical tuning structure comprising a first actuator configured to rotate the second polarizer and a second actuator configured to rotate the third polarizer; wherein the first and second polarizers form a first attenuation stage, with transmission determined by a first angle formed between the first and second polarizer absorption axes; wherein the second and third polarizers form a second attenuation stage, with a transmission determined by a second angle formed between second and third polarizer absorption axes, wherein the first actuator is slaved to the second actuator to rotate the second polarizer in direct proportion to the rotation of the third polarizer, wherein the second and third polarizers have the same sign of rotation with respect to the first polarizer; wherein the composite transmission of the first and second attenuation stages is the product of the first stage transmission and the second stage transmission; wherein the first and second angles are selected to preserve the normal-incidence composite transmission for rays incident off-normal. a first polarizer (34; 42); a second polarizer (32; 46); a third polarizer (36; 44); and a mechanical tuning structure comprising a first actuator configured to rotate the second polarizer and a second actuator configured to rotate the third polarizer; wherein the first and second polarizers form a first attenuation stage, with transmission determined by a first angle formed between the first and second polarizer absorption axes; wherein the second and third polarizers form a second attenuation stage, with a transmission determined by a second angle formed between second and third polarizer absorption axes, wherein the first actuator is slaved to the second actuator to rotate the second polarizer in direct proportion to the rotation of the third polarizer, wherein the second and third polarizers have the same sign of rotation with respect to the first polarizer; wherein the composite transmission of the first and second attenuation stages is the product of the first stage transmission and the second stage transmission; wherein the first and second angles are selected to preserve the normal-incidence composite transmission for rays incident off-normal.
An aqueous composition, comprising: an aqueous dispersion and magnesium ascorbyl phosphate, wherein the aqueous dispersion comprises dispersed particles comprising a pentacyclic triterpene derived from Centella asiatica extract and having at least one substituent selected from the group consisting of a carboxyl group and a group derived from a carboxyl group, and a lecithin; an amount of a phospholipid in the lecithin relative to an amount of the pentacyclic triterpene is within a range of from 2-fold to 10-fold by mass, a volume average particle diameter of the dispersed particles is from 10 nm to 70 nm, and the content of the phospholipid in the lecithin is 70 mass% or more and the content of a phosphatidylcholine in the phospholipid is in the range of from 10 to 60 mass%; wherein the pentacyclic triterpene having a group derived from a carboxyl group is selected from a glycoside type pentacyclic triterpene and a fatty acid ester type pentacyclic triterpene. an aqueous dispersion and magnesium ascorbyl phosphate, wherein the aqueous dispersion comprises dispersed particles comprising a pentacyclic triterpene derived from Centella asiatica extract and having at least one substituent selected from the group consisting of a carboxyl group and a group derived from a carboxyl group, and a lecithin; an amount of a phospholipid in the lecithin relative to an amount of the pentacyclic triterpene is within a range of from 2-fold to 10-fold by mass, a volume average particle diameter of the dispersed particles is from 10 nm to 70 nm, and the content of the phospholipid in the lecithin is 70 mass% or more and the content of a phosphatidylcholine in the phospholipid is in the range of from 10 to 60 mass%; wherein the pentacyclic triterpene having a group derived from a carboxyl group is selected from a glycoside type pentacyclic triterpene and a fatty acid ester type pentacyclic triterpene.
A C-arm registration system, comprising: a X-ray ring marker including a centric ring on an annular base ; and a C-arm registration controller for registering a C-arm to the X-ray ring marker , wherein the C-arm registration controller is configured to: acquire a baseline X-ray image illustrative of the X-ray ring marker within a baseline X-ray projection by the C-arm at a baseline imaging pose; derive baseline position parameters of the X-ray ring marker as a function of an illustration of the centric ring within the baseline X-ray image, the baseline position parameters being definitive of a position of the X-ray ring marker within the baseline X-ray projection; characterized in that : the X-ray ring marker further including a coaxial construction of a chirp ring and in that : the C-arm registration controller is further configured to derive a baseline twist parameter of the X-ray ring marker as a function of the baseline position parameters and of an illustration of the chirp ring within the baseline X-ray image, the baseline twist parameter being definitive of a twist of the X-ray ring marker within the baseline X-ray projection. a X-ray ring marker including a centric ring on an annular base ; and a C-arm registration controller for registering a C-arm to the X-ray ring marker , wherein the C-arm registration controller is configured to: acquire a baseline X-ray image illustrative of the X-ray ring marker within a baseline X-ray projection by the C-arm at a baseline imaging pose; derive baseline position parameters of the X-ray ring marker as a function of an illustration of the centric ring within the baseline X-ray image, the baseline position parameters being definitive of a position of the X-ray ring marker within the baseline X-ray projection; characterized in that : the X-ray ring marker further including a coaxial construction of a chirp ring and in that : the C-arm registration controller is further configured to derive a baseline twist parameter of the X-ray ring marker as a function of the baseline position parameters and of an illustration of the chirp ring within the baseline X-ray image, the baseline twist parameter being definitive of a twist of the X-ray ring marker within the baseline X-ray projection. acquire a baseline X-ray image illustrative of the X-ray ring marker within a baseline X-ray projection by the C-arm at a baseline imaging pose; derive baseline position parameters of the X-ray ring marker as a function of an illustration of the centric ring within the baseline X-ray image, the baseline position parameters being definitive of a position of the X-ray ring marker within the baseline X-ray projection; characterized in that : the X-ray ring marker further including a coaxial construction of a chirp ring and in that : the C-arm registration controller is further configured to derive a baseline twist parameter of the X-ray ring marker as a function of the baseline position parameters and of an illustration of the chirp ring within the baseline X-ray image, the baseline twist parameter being definitive of a twist of the X-ray ring marker within the baseline X-ray projection.
A computer-implemented method for adapting an overlaid image displayed on a monitor located in a cab of a vehicle comprising a tractor and a trailer, the cab of the vehicle being the tractor, the tractor being configured to cooperate with the trailer, the vehicle comprising at least one camera-monitor assembly provided with a control unit and a camera for providing a captured image of an area located rearwards and along one and/or the other vehicle side , the method comprising: - (E1) defining a location on an embedded element of the vehicle side as a target on the captured image , - (E2) processing the captured image by tracking the target position and by tracking at least one recognizable pattern linked to a horizontal dimension on the captured image , the recognizable pattern including a background element from the captured image, the background element including a line or an area delimiting the ground and the sky, - (E3) displaying on the monitor an overlaid image including the captured image and an adapting overlayer , the adapting overlayer comprising a pointer on the target and an overlaid element , the overlaid element extending in an area of the captured image delimited, horizontally according to the horizontal dimension defined with the orientation of the at least one recognizable pattern , on one side by the pointer and on the other side by a side of the monitor extending transversally to the horizontal dimension and corresponding to the cab position in the captured image . - (E1) defining a location on an embedded element of the vehicle side as a target on the captured image , - (E2) processing the captured image by tracking the target position and by tracking at least one recognizable pattern linked to a horizontal dimension on the captured image , the recognizable pattern including a background element from the captured image, the background element including a line or an area delimiting the ground and the sky, - (E3) displaying on the monitor an overlaid image including the captured image and an adapting overlayer , the adapting overlayer comprising a pointer on the target and an overlaid element , the overlaid element extending in an area of the captured image delimited, horizontally according to the horizontal dimension defined with the orientation of the at least one recognizable pattern , on one side by the pointer and on the other side by a side of the monitor extending transversally to the horizontal dimension and corresponding to the cab position in the captured image .
A method for producing glycerol mono(meth)acrylate, characterized in that 2,2-dimethyl-1,3-dioxolan-4-yl methyl (meth)acrylate is reacted with methanol in the presence of an acidic silicate catalyst, wherein the silicate is a sheet silicate or a mixture of sheet silicates selected from the group consisting of montmorillonite, kaolinite, hectorite, halloysite and bentonite, and wherein the reaction is performed in anhydrous manner and in that the product is anhydrous glycerol mono(meth)acrylate. wherein the silicate is a sheet silicate or a mixture of sheet silicates selected from the group consisting of montmorillonite, kaolinite, hectorite, halloysite and bentonite, and wherein the reaction is performed in anhydrous manner and in that the product is anhydrous glycerol mono(meth)acrylate.
A method for autobrake control, comprising: receiving, by a brake control unit, BCU , a position signal corresponding to a position of a control knob ; determining, by the BCU, a braking deceleration based upon the position signal; and sending, by the BCU, a brake command signal to a brake control component to cause a vehicle to decelerate at the determined braking deceleration; wherein the braking deceleration continuously changes between a minimum braking deceleration and a maximum deceleration in response to the control knob moving between a first position and a second position. receiving, by a brake control unit, BCU , a position signal corresponding to a position of a control knob ; determining, by the BCU, a braking deceleration based upon the position signal; and sending, by the BCU, a brake command signal to a brake control component to cause a vehicle to decelerate at the determined braking deceleration; wherein the braking deceleration continuously changes between a minimum braking deceleration and a maximum deceleration in response to the control knob moving between a first position and a second position.
An ophthalmic infusion support , comprising: a base region having a contact surface adapted for positioning against a patient's eye; an infusion tube support region extending from the base region ; and a fastener to hold the ophthalmic infusion support to an infusion tube , wherein the fastener is integral with the infusion tube support region ; wherein the fastener includes a "C" shaped clip, and wherein the "C" shaped clip also serves as the infusion tube support region . a base region having a contact surface adapted for positioning against a patient's eye; an infusion tube support region extending from the base region ; and a fastener to hold the ophthalmic infusion support to an infusion tube , wherein the fastener is integral with the infusion tube support region ; wherein the fastener includes a "C" shaped clip, and wherein the "C" shaped clip also serves as the infusion tube support region .
A system, comprising: a gas production source configured to produce a gas stream comprising nitrogen oxides, NO x ; a hydrocarbon supply system disposed downstream of the gas production source and configured to inject a hydrocarbon into the gas stream , wherein the hydrocarbon is configured to oxidize molecules of the NO x in the gas stream to produce a higher order compound of nitrogen and oxygen, N y O z , , where the value of y and/or z is greater than 1; a removal device disposed downstream of the hydrocarbon supply system , wherein the removal device is configured to remove the N y O z from the gas stream via absorption or reaction; a burner downstream of the hydrocarbon supply system , wherein the burner is configured to heat the gas stream and to combust byproducts generated by the oxidation of the NO x by the hydrocarbon supply system ; and a heat recovery steam generator HRSG configured to remove heat from the gas stream , wherein the HRSG is disposed downstream from the burner and between the hydrocarbon supply system and the removal device . a gas production source configured to produce a gas stream comprising nitrogen oxides, NO x ; a hydrocarbon supply system disposed downstream of the gas production source and configured to inject a hydrocarbon into the gas stream , wherein the hydrocarbon is configured to oxidize molecules of the NO x in the gas stream to produce a higher order compound of nitrogen and oxygen, N y O z , , where the value of y and/or z is greater than 1; a removal device disposed downstream of the hydrocarbon supply system , wherein the removal device is configured to remove the N y O z from the gas stream via absorption or reaction; a burner downstream of the hydrocarbon supply system , wherein the burner is configured to heat the gas stream and to combust byproducts generated by the oxidation of the NO x by the hydrocarbon supply system ; and a heat recovery steam generator HRSG configured to remove heat from the gas stream , wherein the HRSG is disposed downstream from the burner and between the hydrocarbon supply system and the removal device .
Process for teaching a vacuum laminating device for laminating a foil element on a carrier part , grippers of the vacuum laminating device which are involved in a laminating process being guided in advance along designated path sections , in particular designated path curves , outside an automated laminating process during the teaching process, wherein in the method for teaching, the designated path sections , in particular designated path curves , along which grippers are moved for gripping the foil element and later for laminating the foil element , are determined and taught by means of electronically read-in CAD data of the carrier part and the foil element .