mhurhangee/patent-ind-claim-en huggingface dataset:
A chairback support structure, comprising a back element having a plurality of insertion holes , a central back board and two lateral back boards extending from two lateral edges of the central back board , respectively; a plurality of resilient bend plates each having a bendable portion , two insertion portions extending from two ends of the bendable portion , respectively, and two abutting portions disposed at two ends of the bendable portion , respectively, the two insertion portions being insertable into the insertion holes of the back element , and the two abutting portions being adapted to abut against the back element ; and a pad for covering the back element and the resilient bend plates ; wherein the insertion holes of the back element are disposed on the two lateral back boards . a back element having a plurality of insertion holes , a central back board and two lateral back boards extending from two lateral edges of the central back board , respectively; a plurality of resilient bend plates each having a bendable portion , two insertion portions extending from two ends of the bendable portion , respectively, and two abutting portions disposed at two ends of the bendable portion , respectively, the two insertion portions being insertable into the insertion holes of the back element , and the two abutting portions being adapted to abut against the back element ; and a pad for covering the back element and the resilient bend plates ; wherein the insertion holes of the back element are disposed on the two lateral back boards .
A method of receiving a downlink channel by a user equipment, UE , for a wireless communication system, the method comprising: receiving a physical downlink control channel, PDCCH, scheduling a first physical downlink shared channel, PDSCH, on a serving cell, and the method characterized by comprising: based on i) the first PDSCH overlapping in time with a plurality of semi-persistent scheduling, SPS, PDSCHs required to be received on the serving cell and ii) the PDCCH ending at least 14 symbols before an earliest starting symbol among the plurality of SPS PDSCHs, performing reception of the first PDSCH among the plurality of SPS PDSCHs and the first PDSCH. receiving a physical downlink control channel, PDCCH, scheduling a first physical downlink shared channel, PDSCH, on a serving cell, and the method characterized by comprising: based on i) the first PDSCH overlapping in time with a plurality of semi-persistent scheduling, SPS, PDSCHs required to be received on the serving cell and ii) the PDCCH ending at least 14 symbols before an earliest starting symbol among the plurality of SPS PDSCHs, performing reception of the first PDSCH among the plurality of SPS PDSCHs and the first PDSCH.
A dual modality system for independent delivery of two distinct energy modalities to a mammalian body comprising: (a) a flexible chassis , wherein the flexible chassis comprises a durable energy subsystem arranged and configured to deliver energy and wherein the durable energy subsystem has a plurality of energy emitters disposed in an emission region of the chassis having a length and a width, wherein the emission region length and emission region width are both substantially greater than an emission region depth; (b) a replaceable thermal subsystem arranged and configured to be coupled to the durable energy subsystem arranged and configured to deliver thermal energy; and (c) means to couple the durable energy subsystem and the replaceable thermal subsystem to a desired treatment area of a user's body, wherein the means to couple the durable energy subsystem and the replaceable thermal subsystem to the desired treatment area of the user's body comprises a flexible web having an adhesive surface, and wherein the replaceable thermal subsystem is integrated with the means to couple the durable energy subsystem and the replaceable thermal subsystem to the desired treatment area of the user's body; wherein the replaceable thermal subsystem comprises a thermal source that is affixed to the flexible web and at least one structure arranged and configured to couple the thermal subsystem to the chassis in a configuration wherein the thermal source is superposed over the emission region of the chassis, such that the flexible chassis is between the thermal source and the user's body when in use. (a) a flexible chassis , wherein the flexible chassis comprises a durable energy subsystem arranged and configured to deliver energy and wherein the durable energy subsystem has a plurality of energy emitters disposed in an emission region of the chassis having a length and a width, wherein the emission region length and emission region width are both substantially greater than an emission region depth; (b) a replaceable thermal subsystem arranged and configured to be coupled to the durable energy subsystem arranged and configured to deliver thermal energy; and (c) means to couple the durable energy subsystem and the replaceable thermal subsystem to a desired treatment area of a user's body, wherein the means to couple the durable energy subsystem and the replaceable thermal subsystem to the desired treatment area of the user's body comprises a flexible web having an adhesive surface, and wherein the replaceable thermal subsystem is integrated with the means to couple the durable energy subsystem and the replaceable thermal subsystem to the desired treatment area of the user's body; wherein
A method for detecting a loss or an undervoltage condition of phase of an electric converter unit , the method comprising: - determining an extremum value, such as a maximum and/or a minimum value, of a phase voltage of the electric converter unit for at least one fundamental period of the phase voltage, - comparing the extremum value to a first threshold value, and if, based on the comparison, a first threshold criterion related to the first threshold value is satisfied, characterized in that the method further comprises: - determining absolute values of phase currents of the electric converter unit during at least one fundamental period, - integrating the absolute values of phase currents with respect to time or determining ampere-second balances of the phase currents, - comparing the integrated absolute values or the ampere-second balances to a second threshold value, and if, based on the comparison, a second threshold criterion related to the second threshold value is satisfied, then - comparing the integrated absolute value or the ampere-second balance of one of the phase currents to the integrated absolute value or the ampere-second balance of one or several other phase currents, and, if, based on the comparison, a third threshold criterion is satisfied, - determining the loss or the undervoltage condition of the phase. - determining an extremum value, such as a maximum and/or a minimum value, of a phase voltage of the electric converter unit for at least one fundamental period of the phase voltage, - comparing the extremum value to a first threshold value, and if, based on the comparison, a first threshold criterion related to the first threshold value is satisfied, - determining absolute values of phase currents of the electric converter unit during at least one fundamental period, - integrating the absolute values of phase currents with respect to time or determining ampere-second balances of the phase currents, - comparing the integrated absolute values or the ampere-second balances to a second threshold value, and if, based on the comparison, a second threshold criterion related to the second threshold value is satisfied, then - comparing the integrated absolute value or the ampere-second balance of one of the phase currents to the integrated absolute value or the ampere-second balance of one or several other phase currents, and, if, based on the comparison, a third threshold criterion is satisfied, - determining the loss or the undervoltage condition of the phase.
A method comprising: receiving at a receiver, a transmission signal from a transmitter: filtering the data with a composite filter to remove channel impairments, wherein the composite filter is defined by a frequency transfer function comprising the sum of a Gausian function and a reciprocal of a cosine function; and tuning tunable parameters of the composite filter to account for skew and channel asymmetry. filtering the data with a composite filter to remove channel impairments, wherein the composite filter is defined by a frequency transfer function comprising the sum of a Gausian function and a reciprocal of a cosine function; and tuning tunable parameters of the composite filter to account for skew and channel asymmetry.
An insulating sheet comprising: a substrate film having insulation; and a resin layer stacked on a first surface side of the substrate film, wherein: the resin layer contains a resin component that contains a thermoplastic polyurethane elastomer as a main component, and a flame retardant, the thermoplastic polyurethane elastomer has a shore A hardness referring to the hardness measured with a type-A durometer in accordance with JIS-K 7311 of 80 or more, an amount of the flame retardant contained relative to 100 parts by mass of the resin component is 40 parts by mass or more and 100 parts by mass or less, the resin component in the resin layer contains a copolyester, and an amount of the copolyester in the resin component is 1 mass% or more and 50 mass% or less, the glass transition temperature (Tg) of the copolyester, referring to the midpoint glass transition temperature measured in accordance with JIS-K-7121 , is -80°C or more and 50°C or less, and the storage modulus of the resin layer, measured in accordance with of JIS-K 7244-4 under conditions of 150°C, a frequency of 10 Hz, and a strain of 0.08%, is 0.5 MPa or more and 500 MPa or less. a substrate film having insulation; and a resin layer stacked on a first surface side of the substrate film, wherein: the resin layer contains a resin component that contains a thermoplastic polyurethane elastomer as a main component, and a flame retardant, the thermoplastic polyurethane elastomer has a shore A hardness referring to the hardness measured with a type-A durometer in accordance with JIS-K 7311 of 80 or more, an amount of the flame retardant contained relative to 100 parts by mass of the resin component is 40 parts by mass or more and 100 parts by mass or less, the resin component in the resin layer contains a copolyester, and an amount of the copolyester in the resin component is 1 mass% or more and 50 mass% or less, the glass transition temperature (Tg) of the copolyester, referring to the midpoint glass transition temperature measured in accordance with JIS-K-7121 , is -80°C or more and 50°C or less, and the resin layer contains a resin component that contains a thermoplastic polyurethane elastomer as a main component, and a flame retardant, the thermoplastic polyurethane elastomer has a shore A hardness referring to the hardness measured with a type-A durometer in accordance with JIS-K 7311 of 80 or more, an amount of the flame retardant contained relative to 100 parts by mass of the resin component is 40 parts by mass or more and 100 parts by mass or less, the resin component in the resin layer contains a copolyester, and an amount of the copolyester in the resin component is 1 mass% or more and 50 mass% or less, the glass transition temperature (Tg) of the copolyester, referring to the midpoint glass transition temperature measured in accordance with JIS-K-7121 , is -80°C or more and 50°C or less, and
Linear transport system for conveying an object , - the linear transport system comprising at least one stationary running rail and at least one movable conveying device , - the conveying device comprising a first guide unit with a first running roller , a second running roller and a first rotary bogie , - the first running roller and the second running roller being mounted rotatably on the first rotary bogie and bearing against the running rail , - the running rail having a rail longitudinal axis which runs in the longitudinal direction, - the first rotary bogie being mounted such that it can be rotated about a rotary bogie axis , the rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis , the first guide unit comprising a third running roller and a fourth running roller , the running rollers being supported on both sides of the running rail , characterized in that - the first guide unit comprises a second rotary bogie , - the third running roller and the fourth running roller being mounted rotatably on the second rotary bogie and bearing against the running rail , - the running rail being arranged between the first rotary bogie and the second rotary bogie , - the second rotary bogie being arranged so as to lie opposite the first rotary bogie , and being mounted such that it can be rotated about a further rotary bogie axis , - the further rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis . - the linear transport system comprising at least one stationary running rail and at least one movable conveying device , - the conveying device comprising a first guide unit with a first running roller , a second running roller and a first rotary bogie , - the first running roller and the second running roller being mounted rotatably on the first rotary bogie and bearing against the running rail , - the running rail having a rail longitudinal axis which runs in the longitudinal direction, - the first rotary bogie being mounted such that it can be rotated about a rotary bogie axis , the rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis , the first guide unit comprising a third running roller and a fourth running roller , the running rollers being supported on both sides of the running rail , characterized in that - the first guide unit comprises a second rotary bogie , - the third running roller and the fourth running roller being mounted rotatably on the second rotary bogie and bearing against the running rail , - the running rail being arranged between the first rotary bogie and the second rotary bogie , - the second rotary bogie being arranged so as to lie opposite the first rotary bogie , and being mounted such that it can be rotated about a further rotary bogie axis , - the further rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis .
A method for contactless measurements of a moving vehicle wheel assembly , comprising: projecting a pattern of light into a field of view; acquiring a sequence of images of said field of view as the vehicle wheel assembly either rotates, or rotates and translates, through said projected pattern of light, such that surface data points associated with each image in said sequence are not the same surface data points; processing said acquired sequence of images to identify at least a portion of each image associated with surfaces of said vehicle wheel assembly illuminated by said projected pattern ; establishing for each identified image portion, a point cloud of data points corresponding to said illuminated surfaces of the vehicle wheel assembly contained within said image portion; rotationally transforming point clouds of data points to bring pairs of said point clouds representing illuminated surfaces of said vehicle wheel assembly into rotational alignment; superimposing said rotationally transformed point clouds of data; collapsing said superimposed rotationally transformed point clouds of data into a single composite image of said illuminated surfaces of the vehicle wheel assembly to produce a maximum density point cloud of illuminated data points of the surfaces of the vehicle wheel assembly ; and identifying an axis of rotation (AOR) for the vehicle wheel assembly utilizing said single composite image . projecting a pattern of light into a field of view; acquiring a sequence of images of said field of view as the vehicle wheel assembly either rotates, or rotates and translates, through said projected pattern of light, such that surface data points associated with each image in said sequence are not the same surface data points; processing said acquired sequence of images to identify at least a portion of each image associated with surfaces of said vehicle wheel assembly illuminated by said projected pattern ; establishing for each identified image portion, a point cloud of data points corresponding to said illuminated surfaces of the vehicle wheel assembly contained within said image portion; rotationally transforming point clouds of data points to bring pairs of said point clouds representing illuminated surfaces of said vehicle wheel assembly into rotational alignment; superimposing said rotationally transformed point clouds of data; collapsing said superimposed rotationally transformed point clouds of data into a single composite image of said illuminated surfaces of the vehicle wheel assembly to produce a maximum density point cloud of illuminated data points of the surfaces of the vehicle wheel assembly ; and identifying an axis of rotation (AOR) for the vehicle wheel assembly utilizing said single composite image .
Sawing machine (M) for sawing one or more pieces (P1,P2), said sawing machine (M) comprising: - a support plane (SP) for at least a first piece (P1) and a second piece (P2), in which said first piece (P1) and said second piece (P2) are to be positioned side by side, - a pusher system (PS1, PS2) configured to push said first piece (P1) and said second piece (P2) independently of each other on said support plane (SP) along a forward direction (A), - a guiding element (GE), arranged on one side of said support plane (SP), to guide said first piece (P1) when said pusher system (SP1, SP2) pushes said first piece (P1), so that said first piece (P1) has at least one portion of a first lateral surface (S11) in contact with said guiding element (GE) and is arranged between said guiding element (GE) and said second piece (P2), - at least one working station (WS) comprising: a cutting unit (GB) for cutting at least said first piece (P1) along a cutting line (C), transversal to said forward direction (A), so that said first piece (P1) is divided into at least a first part (P11) and in a second part (P12), characterized by - pushing means (PM) for pushing said first part (P11) of said first piece (P1) in a pushing direction (D), transversal to the forward direction (A), so as to move said first part (P11) away from said guiding element (GE). - a support plane (SP) for at least a first piece (P1) and a second piece (P2), in which said first piece (P1) and said second piece (P2) are to be positioned side by side, - a pusher system (PS1, PS2) configured to push said first piece (P1) and said second piece (P2) independently of each other on said support plane (SP) along a forward direction (A), - a guiding element (GE), arranged on one side of said support plane (SP), to guide said first piece (P1) when said pusher system (SP1, SP2) pushes said first piece (P1), so that said first piece (P1) has at least one portion of a first lateral surface (S11) in contact with said guiding element (GE) and is arranged between said guiding element (GE) and said second piece (P2), - at least one working station (WS) comprising: a cutting unit (GB) for cutting at least said first piece (P1) along a cutting line (C), transversal to said forward direction (A), so that said first piece (P1) is divided into at least a first part (P11) and in a second part (P12), characterized by - pushing means (PM) for pushing said first part (P11) of said first piece (P1) in a pushing direction (D), transversal to the forward direction (A), so as to move said first part (P11) away from said guiding element (GE).
A method of transferring power and data between a first circuit and a second circuit , whereby the second circuit comprises a processing unit having an I/O terminal and an electric energy storage element , the electric energy storage element being configured to be charged by the first circuit via the I/O terminal and configured to power the processing unit , the method comprising: - establishing a wired communication link between an I/O terminal of the first circuit and the I/O terminal of the second circuit ; - operating the I/O terminal of the second circuit as an output terminal and the I/O terminal of the first circuit as an input terminal; - transmitting data via the I/O terminal of the second circuit to the I/O terminal of the first circuit by modulating an output level of the I/O terminal of the second circuit between a high level and a low level; - determining whether the output level of the I/O terminal of the second circuit corresponds to the high level or the low level and, when the output level corresponds to the high level: - operating the I/O terminal of the first circuit as an output terminal; and - raising an output level of the I/O terminal of the first circuit to a level that is higher than the high level during at least part of a period when the output level of the I/O terminal of the second circuit corresponds to the high level, thereby charging the electric energy storage element . - establishing a wired communication link between an I/O terminal of the first circuit and the I/O terminal of the second circuit ; - operating the I/O terminal of the second circuit as an output terminal and the I/O terminal of the first circuit as an input terminal; - transmitting data via the I/O terminal of the second circuit to the I/O terminal of the first circuit by modulating an output level of the I/O terminal of the second circuit between a high level and a low level; - determining whether the output level of the I/O terminal of the second circuit corresponds to the high level or the low level and, when the output level corresponds to the high level: - operating the I/O terminal of the first circuit as an output terminal; and - raising an output level of the I/O terminal of the first circuit to a level that is higher than the high level during at least part of a period when the output level of the I/O terminal of the second circuit corresponds to the high level, thereby charging the electric energy storage element . - operating the I/O terminal of the first circuit as an output terminal; and - raising an output level of the I/O terminal of the first circuit to a level that is higher than the high level during at least part of a period when the output level of the I/O terminal of the second circuit corresponds to the high level, thereby charging the electric energy storage element .