mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting the presence or absence of a contact lens within a receptacle , wherein the receptacle is part of a contact lens package comprising said receptacle filled with a liquid and a removable cover which is attached to a top surface of said receptacle , the method comprising the steps of: - detecting infrared radiation coming from at least a portion of said receptacle where said contact lens is supposedly accommodated, wherein said step of detecting said infrared radiation is performed with said receptacle being filled with a liquid and with said removable cover being attached to said top surface of said receptacle , - analyzing said detected infrared radiation in a spectral portion in which absorbance (A L ) of a material said contact lens is made of is significantly different from both absorbance (A R ) of a material said receptacle is made of and absorbance (A S , A W ) of the liquid, and - from said analysis of said spectral portion detecting the presence or absence of a said contact lens within said receptacle , characterized in that said receptacle is illuminated by ambient light only and wherein said step of detecting infrared radiation is performed using an infrared camera and comprises detecting infrared radiation in a wavelength range of 6.6 μm to 10 μm only. - detecting infrared radiation coming from at least a portion of said receptacle where said contact lens is supposedly accommodated, wherein said step of detecting said infrared radiation is performed with said receptacle being filled with a liquid and with said removable cover being attached to said top surface of said receptacle , - analyzing said detected infrared radiation in a spectral portion in which absorbance (A L ) of a material said contact lens is made of is significantly different from both absorbance (A R ) of a material said receptacle is made of and absorbance (A S , A W ) of the liquid, and - from said analysis of said spectral portion detecting the presence or absence of a said contact lens within said receptacle ,
A coffee machine comprising a body , a heater provided in the body , realizing the cooking process, a cooking container in which the cooking process is performed, made of ferromagnetic material, and a resting surface provided on the heater , on which the cooking container is placed, characterized by at least one magnetic member provided on the body , enabling the cooking container to be aligned with the resting surface by attracting the cooking container wherein the magnetic member positioned so as to correspond to the upper half of the cooking container when the cooking container is placed on the resting surface .
Method of providing vacuum insulating glass (VIG) units, wherein the method comprises the steps of: providing a plurality of glass panes (2a-2n), obtaining individual topographic representations (TOPREP_2a - TOPREP_2n) of each of said plurality of glass panes (2a-2n) based on input from a measuring arrangement , and storing said topographic representations (TOPREP_2a - TOPREP_2n) in a data storage (DS), processing a plurality of the stored topographic representations (TOPREP_2a - TOPREP_2n) by means of a data processing arrangement to estimate a resulting surface distance characteristic (SDC1-SDCn) between pairs of glass panes (2a-2n) represented by the respective processed topographic representations (TOPREP_2a - TOPREP_2n), determining one or more manufacturing layouts (MAL1-MALn) based on said estimated, resulting surface distance characteristic (SDC1-SDCn) by means of a processing arrangement , wherein, based on the estimated resulting surface distance characteristic (SDC1-SDCn), vacuum insulating glass (VIG) assemblies are provided, each comprising at least a first and a second glass pane (2a-2n) and a plurality of support pillars distributed between opposing surfaces of said glass panes to provide a gap between the glass panes, and wherein said vacuum insulating glass (VIG) assemblies are used for providing said vacuum insulating glass (VIG) units. providing a plurality of glass panes (2a-2n), obtaining individual topographic representations (TOPREP_2a - TOPREP_2n) of each of said plurality of glass panes (2a-2n) based on input from a measuring arrangement , and storing said topographic representations (TOPREP_2a - TOPREP_2n) in a data storage (DS), processing a plurality of the stored topographic representations (TOPREP_2a - TOPREP_2n) by means of a data processing arrangement to estimate a resulting surface distance characteristic (SDC1-SDCn) between pairs of glass panes (2a-2n) represented by the respective processed topographic representations (TOPREP_2a - TOPREP_2n), determining one or more manufacturing layouts (MAL1-MALn) based on said estimated, resulting surface distance characteristic (SDC1-SDCn) by means of a processing arrangement , wherein, based on the estimated resulting surface distance characteristic (SDC1-SDCn), vacuum insulating glass (VIG) assemblies are provided, each comprising at least a first and a second glass pane (2a-2n) and a plurality of support pillars distributed between opposing surfaces of said glass panes to provide a gap between the glass panes, and wherein said vacuum insulating glass (VIG) assemblies are used for providing said vacuum insulating glass (VIG) units.
Electronic system comprising: a. a housing comprising a bottom and at least one first wall , b. a first radiator secured on the outside of said housing on said first wall , and c. a first heat pipe intended to be in thermal contact with a first electronic component, one end of said first heat pipe passing through said first wall and at least part of said first radiator , said electronic system being characterized in that it further comprises a. a first fan secured on the outside of said housing on said first wall , said first fan being secured to said first wall in such a way as to cool said first radiator , b. a first duct (130, 330 1 , 430, 530) included in said bottom or arranged on an inner face of said bottom, c. said first heat pipe being arranged at least partially in said first duct (130, 330 1 , 430, 530) . a. a housing comprising a bottom and at least one first wall , b. a first radiator secured on the outside of said housing on said first wall , and c. a first heat pipe intended to be in thermal contact with a first electronic component, one end of said first heat pipe passing through said first wall and at least part of said first radiator , a. a first fan secured on the outside of said housing on said first wall , said first fan being secured to said first wall in such a way as to cool said first radiator , b. a first duct (130, 330 1 , 430, 530) included in said bottom or arranged on an inner face of said bottom, c. said first heat pipe being arranged at least partially in said first duct (130, 330 1 , 430, 530) .
Rotor control system for actuating pitch of pitch adjustable rotor blades of a wind turbine, the rotor control system comprises a pitch actuating unit for determining a pitch modification signal to be applied to a pitch actuator for actuating the pitch of the pitch adjustable rotor blades; the pitch actuation unit being arranged to: receive an edgewise load signal for each of the adjustable rotor blades, the edgewise load signal being measured in a rotating reference frame; apply an m-blade coordinate transformation to the edgewise load signal to transform the signal to a whirling reference frame along a first and a second reference direction; select the signal component of either the first or the second reference direction to obtain a selected signal component; filter the selected signal component at either a backward whirling frequency or a forward whirling frequency to obtain a filtered signal component; apply an inverse m-blade coordinate transformation to the filtered signal component to obtain the pitch modification signal; apply the pitch modification signal to the pitch actuator. receive an edgewise load signal for each of the adjustable rotor blades, the edgewise load signal being measured in a rotating reference frame; apply an m-blade coordinate transformation to the edgewise load signal to transform the signal to a whirling reference frame along a first and a second reference direction; select the signal component of either the first or the second reference direction to obtain a selected signal component; filter the selected signal component at either a backward whirling frequency or a forward whirling frequency to obtain a filtered signal component; apply an inverse m-blade coordinate transformation to the filtered signal component to obtain the pitch modification signal; apply the pitch modification signal to the pitch actuator.
A method for operating a blast furnace, the method comprising: - collecting a blast furnace gas from the blast furnace , said blast furnace gas being a CO 2 containing gas; - combining the blast furnace gas with a fuel gas to obtain a gas mixture, said fuel gas being a hydrocarbon containing gas; - subjecting said gas mixture to a reforming process, thereby producing a synthesis gas containing CO and H 2 ; and - feeding at least a portion of the synthesis gas and an oxygen-rich gas into the blast furnace, wherein the blast furnace gas is combined with the fuel gas while not having been submitted to a preliminary decarbonating after exiting the blast furnace and wherein the blast furnace gas is combined with the fuel gas in an over-stoichiometric ratio, so that the synthesis gas contains a surplus portion of the blast furnace gas. - collecting a blast furnace gas from the blast furnace , said blast furnace gas being a CO 2 containing gas; - combining the blast furnace gas with a fuel gas to obtain a gas mixture, said fuel gas being a hydrocarbon containing gas; - subjecting said gas mixture to a reforming process, thereby producing a synthesis gas containing CO and H 2 ; and - feeding at least a portion of the synthesis gas and an oxygen-rich gas into the blast furnace,
A method of translating network telemetry data for caching and distribution comprising: receiving , from a network device (120a-120b), a set of network telemetry data in one or more vendor-specific formats, wherein the set of network telemetry data includes data values having one or more vendor-specific data types; translating the set of network telemetry data into a vendor-neutral format, wherein the data values are converted into a vendor-neutral data type; storing the translated network telemetry data as a plurality of data nodes; maintaining a client queue having a node pointer queue and a node pointer map, wherein the node pointer map includes a plurality of node-pointer, node-count pairs, each node pointer indicating a path to a data node corresponding to the node pointer, and the node count indicating a number of updates to the data node since a previous transmission of the contents of the data node to a client device (130a-130b); receiving , from the network device, a vendor-specific network telemetry update data in one of the vendor-specific formats; translating the vendor-specific network telemetry update data into the vendor-neutral format and updating the corresponding data node of the plurality of data nodes; and transmitting , to the client device, a set of node-value, node-count pairs including, for each node pointer in the node pointer queue, a converted neutral data value in the data node corresponding to the node pointer, and the node count in the node pointer map corresponding to the node pointer. receiving , from a network device (120a-120b), a set of network telemetry data in one or more vendor-specific formats, wherein the set of network telemetry data includes data values having one or more vendor-specific data types; translating the set of network telemetry data into a vendor-neutral format, wherein the data values are converted into a vendor-neutral data type; storing the translated network telemetry data as a plurality of data nodes; maintaining a client queue having a node pointer queue and a node pointer map, wherein the node pointer map includes a plurality of node-pointer, node-count pairs, each node pointer indicating a path to a data node corresponding to the node pointer, and the node count indicating a number of updates to the data node since a previous transmission of the contents of the data node to a client device (130a-130b); receiving , from the network device, a vendor-specific network telemetry update data in one of the vendor-specific formats; translating the vendor-specific network telemetry update data into the vendor-neutral format and updating the corresponding data node of the plurality of data nodes; and transmitting , to the client device, a set of node-value, node-count pairs including, for each node pointer in the node pointer queue, a converted neutral data value in the data node corresponding to the node pointer, and the node count in the node pointer map corresponding to the node pointer.
A circular cluster waterproof tool-less radio frequency connector, comprising a socket and a plug , wherein the socket comprises a housing , a first ring insulator disposed in the housing , a connection point disposed in the first ring insulator , and a protective cover disposed on a header of the connection point ; the plug comprises a casing and a single-core connector disposed in the casing , and the single-core connector is permanently connected to the casing by using an adjustable nut ; and a same quantity of connection points is the same as a quantity of single-core connectors , and there are at least two connection points and at least two single-core connectors ; characterized in that the plug further comprises a ring spring plate disposed in the casing and an unlocking sleeve sleeved on the casing , and a spring and a first sealing ring are disposed between the unlocking sleeve and the casing .
A sound producing device, comprising: a housing , having a hollow cavity ; a vibration membrane mechanism, including at least one layer of first sound producing membrane that is mounted on the housing and separates the hollow cavity into a first cavity and a second cavity not communicated with each other; and also including a main vibration component that is mounted in the second cavity and has a vibration plate sealedly mounted on the housing ; and a driving mechanism , provided in the second cavity, for driving the vibration plate to vibrate reciprocally in a direction that intersects the vibration membrane mechanism; wherein, the main vibration component separates the second cavity into a main sound producing cavity and a mounting cavity that are arranged side by side with the first cavity and not communicated with each other, the main sound producing cavity is adjacent to the first sound producing membrane ; and wherein the driving mechanism is configured to drive the main vibration component to vibrate, and the main vibration component is in turn configured to drive the air in the main sound producing cavity to be compressed or expand, so as to cause air pressure change which drives the first sound producing membrane to generate vibration, wherein a second sound outlet hole is opened in a wall portion of the housing that corresponds to the first cavity ; characterized in that a first sound outlet hole is opened in a wall portion of the housing that corresponds to the main sound producing cavity . a housing , having a hollow cavity ; a vibration membrane mechanism, including at least one layer of first sound producing membrane that is mounted on the housing and separates the hollow cavity into a first cavity and a second cavity not communicated with each other; and also including a main vibration component that is mounted in the second cavity and has a vibration plate sealedly mounted on the housing ; and a driving mechanism , provided in the second cavity, for driving the vibration plate to vibrate reciprocally in a direction that intersects the vibration membrane mechanism; wherein, the main vibration component separates the second cavity into a main sound producing cavity and a mounting cavity that are arranged side by side with the first cavity and not communicated with each other, the main sound producing cavity is adjacent to the first sound producing membrane ; and wherein the driving mechanism is configured to drive the main vibration component to vibrate, and the main vibration component is in turn configured to drive the air in the main sound producing cavity to be compressed or expand, so as to cause air pressure change which drives the first sound producing membrane to generate vibration, wherein a second sound outlet hole is opened in a wall portion of the housing that corresponds to the first cavity ; characterized in that a first sound outlet hole is opened in a wall portion of the housing that corresponds to the main sound producing cavity .
A method for sorting flexible polyurethane foams comprising: a) providing two or more calibration samples of conventional flexible polyurethane foams, two or more calibration samples of high resilience (HR) flexible polyurethane foams, and two or more calibration samples of viscoelastic flexible polyurethane foams, and obtaining a mid-infrared (MIR) spectrum of each calibration sample, wherein the MIR is defined by a whole spectral region from 4000-400 cm -1 ; b) carrying out a spectral pre-processing of the spectra of all the calibration samples, and then a first principal component analysis (PCA) in the spectral region from 1800 to 1425 cm -1 to define a first library that allows distinguishing viscoelastic polyurethane foams; c) carrying out a spectral pre-processing of the infrared spectra of conventional and HR polyurethane foam calibration samples, and then a second PCA in the spectral regions from 1775 to 1625 cm -1 and from 970 to 725 cm -1 to define a second library that allows distinguishing conventional from HR polyurethane foams with one principal component; d) obtaining the MIR spectrum of a sample of polyurethane foam and, based on the first and second libraries, classifying the sample of polyurethane foam as a conventional, a HR or a viscoelastic polyurethane foam, or as a foam that is neither a conventional, a HR or a viscoelastic polyurethane foam. a) providing two or more calibration samples of conventional flexible polyurethane foams, two or more calibration samples of high resilience (HR) flexible polyurethane foams, and two or more calibration samples of viscoelastic flexible polyurethane foams, and obtaining a mid-infrared (MIR) spectrum of each calibration sample, wherein the MIR is defined by a whole spectral region from 4000-400 cm -1 ; b) carrying out a spectral pre-processing of the spectra of all the calibration samples, and then a first principal component analysis (PCA) in the spectral region from 1800 to 1425 cm -1 to define a first library that allows distinguishing viscoelastic polyurethane foams; c) carrying out a spectral pre-processing of the infrared spectra of conventional and HR polyurethane foam calibration samples, and then a second PCA in the spectral regions from 1775 to 1625 cm -1 and from 970 to 725 cm -1 to define a second library that allows distinguishing conventional from HR polyurethane foams with one principal component; d) obtaining the MIR spectrum of a sample of polyurethane foam and, based on the first and second libraries, classifying the sample of polyurethane foam as a conventional, a HR or a viscoelastic polyurethane foam, or as a foam that is neither a conventional, a HR or a viscoelastic polyurethane foam.
A device for obtaining a skin graft, the device comprising: a plurality of plates , each plate including an array of openings , said openings being configured such that at least one skin blister can be raised through said openings, wherein at least one of the plurality of plates comprises one or more openings configured to form a cutting edge , the cutting edge being configured to interact with the at least one skin blister raised through the one or more openings and wherein the at least two plates are configured to be movable, in a lateral direction, relative to each other; a mechanism for raising at least one blister through aligned openings of the plates ; and a plurality of coupling members in at least one of the plurality of plates ; characterized in that the plurality of coupling members being configured to provide at least one frangible linkage between at least two of the plurality of plates , the at least one frangible linkage being configured to maintain the at least two of the plurality of plates in alignment. a plurality of plates , each plate including an array of openings , said openings being configured such that at least one skin blister can be raised through said openings, wherein at least one of the plurality of plates comprises one or more openings configured to form a cutting edge , the cutting edge being configured to interact with the at least one skin blister raised through the one or more openings and wherein the at least two plates are configured to be movable, in a lateral direction, relative to each other; a mechanism for raising at least one blister through aligned openings of the plates ; and a plurality of coupling members in at least one of the plurality of plates ; characterized in that the plurality of coupling members being configured to provide at least one frangible linkage between at least two of the plurality of plates , the at least one frangible linkage being configured to maintain the at least two of the plurality of plates in alignment.
A palmar grip for a handle of an object, comprising: a flexible body configured to contact a surface of the handle and wrapped around the handle to circumscribe it, said flexible body including a first edge and a second edge separated from the first edge by a portion of the body , said first edge and said second edge being in close proximity to one another when said flexible body is wrapped around the object , and; a wing configured to attach to said body over said first and second edges when said first and second edges are in close proximity to one another, the wing including a contoured support surface configured to receive a palm of a user's hand, characterized by said wing being configured to lock to, or interlock with, said first edge and said second edge of said body in order to close said body with said wing . a flexible body configured to contact a surface of the handle and wrapped around the handle to circumscribe it, said flexible body including a first edge and a second edge separated from the first edge by a portion of the body , said first edge and said second edge being in close proximity to one another when said flexible body is wrapped around the object , and; a wing configured to attach to said body over said first and second edges when said first and second edges are in close proximity to one another, the wing including a contoured support surface configured to receive a palm of a user's hand, characterized by said wing being configured to lock to, or interlock with, said first edge and said second edge of said body in order to close said body with said wing .
Conductor connection contact element with a sheet metal part formed in one piece, which has two mutually opposite side walls , a bottom section connecting the side walls and a cover section opposite the bottom section and connecting the side walls and which delimit a conductor insertion channel , the side walls having spring tongues which are exposed from the bottom section and the cover section , and which form a clamping point for clamping an electrical conductor, wherein a material tongue , which is exposed from the side walls , adjoins the cover section , and wherein the material tongue extends above the plane spanned by the end edges of the spring tongues facing the cover section at least as far as the clamping point, characterized in that the cover section is formed from two layers of the sheet-metal part arranged one above the other.