mhurhangee/patent-ind-claim-en huggingface dataset:
Computer-implemented method for determining production values for producing a custom-tailored knitted garment for a limb of a person, comprising the steps of - receiving a three-dimensional dataset of the limb acquired using a 3D scan device , - receiving at least one height value describing the dimension of a knitting row in the lengthwise direction of the limb and at least one total length value for at least one lengthwise section of the garment and determining a number of knitting rows for the at least one section of the garment by dividing the total length value by the height value, - evaluating the three-dimensional dataset to derive a circumference information describing the circumference of the limb along at least the length of the limb covered by the at least one section , - from the circumference information, determining a circumference value for each n-th knitting row or each knitting row except every n-th knitting row , wherein n is a natural number, in the at least one section , - wherein the circumference values are used as and/or for deriving production values for the knitted garment , - characterized in that at least one optics adaptation criterion is applied to at least a part of the circumference values and/or values derived therefrom in the lengthwise direction, wherein, if at least one of the at least one optics adaptation criterion is fulfilled, at least one further production value is chosen according to a rule associated with the fulfilled optics adaptation criterion, wherein the at least one further production value describes the amount of weft threads and/or the pretension of at least one weft thread. - receiving a three-dimensional dataset of the limb acquired using a 3D scan device , - receiving at least one height value describing the dimension of a knitting row in the lengthwise direction of the limb and at least one total length value for at least one lengthwise section of the garment and determining a number of knitting rows for the at least one section of the garment by dividing the total length value by the height value, - evaluating the three-dimensional dataset to derive a circumference information describing the circumference of the limb along at least the length of the limb covered by the at least one section , - from the circumference information, determining a circumference value for each n-th knitting row or each knitting row except every n-th knitting row , wherein n is a natural number, in the at least one section , - wherein the circumference values are used as and/or for deriving production values for the knitted garment , - characterized in that at least one optics adaptation criterion is applied to at least a part of the circumference values and/or values derived therefrom in the lengthwise direction, wherein, if at least one of the at least one optics adaptation criterion is fulfilled, at least one further production value is chosen according to a rule associated with the fulfilled optics adaptation criterion, wherein the at least one further production value describes the amount of weft threads and/or the pretension of at least one weft thread.
An optical film comprising a cured resin layer having an uneven structure on a surface thereof, the uneven structure being provided with projections at a pitch (P, Q1, Q2) equal to or shorter than the wavelength of visible light, the cured resin layer being a cured product of a resin layer and containing carbon atoms, nitrogen atoms, oxygen atoms, and fluorine atoms as constituent atoms, the resin layer containing a fluorine-containing monomer that contains perfluoro polyether, the resin layer containing a compatible monomer that is compatible with the fluorine-containing monomer and contains an amide group-containing monomer, the ratio of a peak area of OCF 2 bonds to the sum of a peak area of C-O bonds and a peak area of C=O bonds being 0.3 or higher according to spectra obtained by curve-fitting for the O1s peak on the surface having the uneven structure with a peak attributed to the C-O bonds, a peak attributed to the C=O bonds, and a peak attributed to the OCF 2 bonds, the O1s peak being measured by X-ray photoelectron spectroscopy under the conditions of an X-ray beam diameter of 100 μm, an analysis area of 1000 μm × 500 μm, and a photoelectron extraction angle of 45°.
A method in a mobility management node for delivering data to a wireless communication device, WCD, served by the mobility management node , operating in a communication network comprising a network entity, NE, and a radio access network, RAN, node serving the WCD , the method comprises: - obtaining by the mobility management node capability information indicating whether the RAN node supports acknowledgement of a successful delivery of data to the WCD; - receiving by the mobility management node a data message sent by the NE comprising user data intended for the WCD; - sending by the mobility management node a control plane message comprising the user data to the RAN node for further delivery to the WCD; - sending by the mobility management node a response to the NE: a) indicating an unsuccessful delivery of the user data to the WCD when a report is received from the RAN node indicating that the user data was not successfully delivered to the WCD; otherwise; b) indicating an acknowledgeed delivery of the user data to the WCD when the RAN node supports said acknowledgement and an acknowledgement is received from the RAN node indicating that the user data was successfully delivered to the WCD; c) indicating an unacknowledged delivery of user data to the WCD when the RAN node does not support said acknowledgement. - obtaining by the mobility management node capability information indicating whether the RAN node supports acknowledgement of a successful delivery of data to the WCD; - receiving by the mobility management node a data message sent by the NE comprising user data intended for the WCD; - sending by the mobility management node a control plane message comprising the user data to the RAN node for further delivery to the WCD; - sending by the mobility management node a response to the NE: a) indicating an unsuccessful delivery of the user data to the WCD when a report is received from the RAN node indicating that the user data was not successfully delivered to the WCD; otherwise; b) indicating an acknowledgeed delivery of the user data to the WCD when the RAN node supports said acknowledgement and an acknowledgement is received from the RAN node indicating that the user data was successfully delivered to the WCD; c) indicating an unacknowledged delivery of user data to the WCD when the RAN node does not support said acknowledgement. a) indicating an unsuccessful delivery of the user data to the WCD when a report is received from the RAN node indicating that the user data was not successfully delivered to the WCD; otherwise; b) indicating an acknowledgeed delivery of the user data to the WCD when the RAN node supports said acknowledgement and an acknowledgement is received from the RAN node indicating that the user data was successfully delivered to the WCD; c) indicating an unacknowledged delivery of user data to the WCD when the RAN node does not support said acknowledgement.
A method of preparing human primary T-cell(s) for immunotherapy comprising: (a) providing human T-cells, from a primary cell culture or from a blood sample; (b) genetically modifying said T-cells by introducing into said T-cells rare-cutting endonucleases able to selectively inactivate by DNA cleavage at least two genes: - one gene encoding the immune checkpoint protein PD1, and - one gene encoding TCR alpha orTCR beta, and (c) expanding said cells, wherein said method further comprises introducing into said T-cells a chimeric antigen receptor (CAR) directed against CD19 antigen. (a) providing human T-cells, from a primary cell culture or from a blood sample; (b) genetically modifying said T-cells by introducing into said T-cells rare-cutting endonucleases able to selectively inactivate by DNA cleavage at least two genes: - one gene encoding the immune checkpoint protein PD1, and - one gene encoding TCR alpha orTCR beta, and - one gene encoding the immune checkpoint protein PD1, and - one gene encoding TCR alpha orTCR beta, and (c) expanding said cells,
Sealing tool of a packaging machine, the sealing tool comprising a box (1.0) with a central axis (1.09), an inner wall (1.01) defining a closed contour and a lower base (1.00), and a sealing assembly which is housed in the box (1.0) and formed by at least one sealing plate (1.1) comprising a lower surface (1.10) and a heating plate (1.2) configured for heating said sealing plate (1.1), the heating plate (1.2) being arranged, in an initial position with respect to the box (1.0), on the sealing plate (1.1), attached to said sealing plate (1.1), with the sealing assembly in an initial operating position, and the lower surface (1.10) of the sealing plate (1.1) being arranged at a first distance (D1.1), predetermined for said sealing plate (1.1), with respect to the lower base (1.00) of the box (1.0), with said sealing assembly in the initial operating position, the sealing plate (1.1) and the heating plate (1.2) being attached to one another in a detachable manner, such that the sealing plate (1.1) of the sealing assembly can be replaced with another sealing plate (1.1), the sealing tool comprising an adjustment mechanism configured for adjusting the initial position of the heating plate (1.2) of the sealing assembly with respect to the box (1.0), such that the lower surface (1.10) of the sealing plate (1.1) of said sealing assembly is arranged at the corresponding first predetermined distance (D1.1) with respect to the lower base (1.00) of said box (1.0), with said sealing assembly in the initial operating position, characterized in that the adjustment mechanism comprises a movable element (3.0) attached with freedom of movement to the heating plate (1.2), said movable element (3.0) being configured for being arranged in at least a first adjustment position and a second adjustment position with respect to said heating plate (1.2), said movable element (3.0) being configured for cooperating with the box (1.0) in at least one of said adjustment positions and each of said adjustment positions being associated with a corresponding initial position of said heating plate (1.2).
Assistance apparatus wearable by a subject for receiving assistance in forward reclining movements of the torso, comprising: - an upper structure for the engagement of the subject's torso and a lower structure for the engagement of the subject's legs, - said upper structure and lower structure being pivotally connected to each other around an axis (a), - at least one elastic device (7; 18) operatively interposed between said upper structure and said lower structure , wherein said apparatus further comprises at least one electric motor operatively arranged in series with said at least one elastic device (7; 18), between said upper structure and said lower structure , and actionable for dynamically controlling the extent of deformation of said at least one elastic device (7; 18), and wherein said at least one elastic device (7; 18) is an elastic joint comprising a first portion and a second portion rotatably coupled to each other and one or more springs operatively interposed between the first portion and the second portion , wherein said first portion is operatively associated to a shaft driven by said at least one electric motor and the second portion is operatively associated to said upper structure , the electric motor having a body operatively associated to said lower structure , said apparatus being characterized in that the first portion of said elastic joint has an inner surface comprising a plurality of sectors separated by a plurality of tabs , said plurality of sectors each hosting one or more helical springs , and the second portion of said elastic joint has an inner surface comprising a plurality of teeth , said inner surface of the second portion of the elastic joint facing said inner surface of the first portion of the elastic joint . - an upper structure for the engagement of the subject's torso and a lower structure for the engagement of the subject's legs, - said upper structure and lower structure being pivotally connected to each other around an axis (a), - at least one elastic device (7; 18) operatively interposed between said upper structure and said lower structure ,
Process for the waterproofing of porous construction materials, said process comprising the steps of - mixing water and a composition C, the composition C comprising, in each case based on the total weight of the composition C, a) 2 - 15 wt.-% of at least one binder selected from natural hydraulic lime (NHL), formulated lime (FL), and hydraulic lime (HL), b) 1 - 20 wt.-% of at least one pozzolanic material, c) 40 - 80 wt.-% of at least one aggregate, d) 2 - 30 wt.-% of at least one synthetic polymer, and wherein the content of Portland cement in said composition C is < 3 wt.-%, - applying the mixture thus obtained to a porous construction material, and - optionally hardening the applied mixture. - mixing water and a composition C, the composition C comprising, in each case based on the total weight of the composition C, a) 2 - 15 wt.-% of at least one binder selected from natural hydraulic lime (NHL), formulated lime (FL), and hydraulic lime (HL), b) 1 - 20 wt.-% of at least one pozzolanic material, c) 40 - 80 wt.-% of at least one aggregate, d) 2 - 30 wt.-% of at least one synthetic polymer, and wherein the content of Portland cement in said composition C is < 3 wt.-%, a) 2 - 15 wt.-% of at least one binder selected from natural hydraulic lime (NHL), formulated lime (FL), and hydraulic lime (HL), b) 1 - 20 wt.-% of at least one pozzolanic material, c) 40 - 80 wt.-% of at least one aggregate, d) 2 - 30 wt.-% of at least one synthetic polymer, - applying the mixture thus obtained to a porous construction material, and - optionally hardening the applied mixture.
A MEMS device, the device comprising: a membrane ; a reinforced backplate having a plurality of openings , the reinforced backplate including a first layer and a second layer ; an interconnect layer positioned between the first and second layers , wherein the first laver and the second laver contact one another and are coupled together by the interconnect layer , characterized in that the interconnect layer has a smaller width than the first and second layers . a membrane ; a reinforced backplate having a plurality of openings , the reinforced backplate including a first layer and a second layer ; an interconnect layer positioned between the first and second layers , wherein the first laver and the second laver contact one another and are coupled together by the interconnect layer , characterized in that the interconnect layer has a smaller width than the first and second layers .
A substance which down-regulates the activity of a MAST4 gene for use in the prevention and/or treatment of an inflammatory skin condition in a mammalian subject wherein the substance acts at the nucleic acid level, down-regulating the transcription of a MAST4 gene and/or the translation of a MAST4 gene transcript.
A system comprising: an advisory system comprising: a loss computation engine configured to derive a total system loss for an industrial plant based on a first sensor positioned in a first industrial plant component and on a first physical model of the first industrial plant component; a cost model configured to use a cost function to derive a cost based on the total system loss; and a control strategy system configured to derive an advisory report, a control correction factor, or a combination thereof, based on the cost, wherein a control system is configured to apply the control correction factor to control a process in the industrial plant ; characterized in that the system comprises an estimator system configured to derive an estimated measure for a flow, a pressure, a speed, a clearance, or a combination thereof, based on a second sensor positioned in a second industrial plant component, and wherein the loss computation engine is configured to derive the total system loss based on the first sensor and on the estimated measure. a loss computation engine configured to derive a total system loss for an industrial plant based on a first sensor positioned in a first industrial plant component and on a first physical model of the first industrial plant component; a cost model configured to use a cost function to derive a cost based on the total system loss; and a control strategy system configured to derive an advisory report, a control correction factor, or a combination thereof, based on the cost, wherein a control system is configured to apply the control correction factor to control a process in the industrial plant ; characterized in that the system comprises an estimator system configured to derive an estimated measure for a flow, a pressure, a speed, a clearance, or a combination thereof, based on a second sensor positioned in a second industrial plant component, and wherein the loss computation engine is configured to derive the total system loss based on the first sensor and on the estimated measure.
A control device which controls a power supply flight vehicle , comprising: a control unit configured to control the power supply flight vehicle so as to cause a light irradiation unit to radiate light toward a solar cell panel while flying following flight of a power supply target flight vehicle on which the solar cell panel is mounted; an image acquisition unit configured to acquire a captured image of the power supply target flight vehicle captured by a camera included in the power supply flight vehicle , wherein on a basis of the captured image, the control unit is configured to control the power supply flight vehicle so as to adjust a direction of light radiated by the light irradiation unit , characterized in that the control unit is configured to determine a status of the solar cell panel of the power supply target flight vehicle on a basis of the captured image, and control the power supply flight vehicle so as to adjust a direction of light radiated by the light irradiation unit according to the determination result. a control unit configured to control the power supply flight vehicle so as to cause a light irradiation unit to radiate light toward a solar cell panel while flying following flight of a power supply target flight vehicle on which the solar cell panel is mounted; an image acquisition unit configured to acquire a captured image of the power supply target flight vehicle captured by a camera included in the power supply flight vehicle , wherein on a basis of the captured image, the control unit is configured to control the power supply flight vehicle so as to adjust a direction of light radiated by the light irradiation unit , characterized in that the control unit is configured to determine a status of the solar cell panel of the power supply target flight vehicle on a basis of the captured image, and control the power supply flight vehicle so as to adjust a direction of light radiated by the light irradiation unit according to the determination result.
A terminal apparatus comprising: a control section that is adapted to allocate a response signal on a predetermined PUCCH resource in an uplink control channel resource region corresponding to an enhanced downlink control channel, ePDCCH; and a transmitting section that is adapted to transmit the response signal allocated on the PUCCH resource, wherein the PUCCH region is divided into a plurality of partial regions arranged in ascending order of indices c', and each of the partial regions are divided into a plurality of downlink communication subframes, wherein the control section calculates the index c' in a virtual PUCCH resource region in which PUCCH resources corresponding to downlink communication subframes are collected based on a leading control channel element, eCCE, index, n eCCE , occupied by the enhanced physical downlink control channel, ePDCCH, intended for the terminal and an offset value indicated from a base station apparatus, wherein when the index c' is smaller than a predetermined threshold, the control section determines a PUCCH resource on which the response signal is arranged based on a positive offset value and when the index c' is greater than the threshold, the control section determines a PUCCH resource on which the response signal is arranged based on a negative offset value. a control section that is adapted to allocate a response signal on a predetermined PUCCH resource in an uplink control channel resource region corresponding to an enhanced downlink control channel, ePDCCH; and a transmitting section that is adapted to transmit the response signal allocated on the PUCCH resource, wherein the PUCCH region is divided into a plurality of partial regions arranged in ascending order of indices c', and each of the partial regions are divided into a plurality of downlink communication subframes, wherein the control section calculates the index c' in a virtual PUCCH resource region in which PUCCH resources corresponding to downlink communication subframes are collected based on a leading control channel element, eCCE, index, n eCCE , occupied by the enhanced physical downlink control channel, ePDCCH, intended for the terminal and an offset value indicated from a base station apparatus, wherein when the index c' is smaller than a predetermined threshold, the control section determines a PUCCH resource on which the response signal is arranged based on a positive offset value and when the index c' is greater than the threshold, the control section determines a PUCCH resource on which the response signal is arranged based on a negative offset value.