mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a semiconductor device, comprising the steps of: - providing a silicon wafer having a plurality of raised portions (101, 102, 103) of equal height (h) on a first surface of the silicon wafer as a placeholder for through-silicon vias (171, 172, 173); - depositing an etch stop layer on the first surface of the silicon wafer; - planarizing a surface of the etch stop layer; - permanently bonding a first carrier wafer to the surface of the etch stop layer; - producing components on or in a second surface of the silicon wafer in a front-end-of-line process; - etching a plurality of trenches (151, 152, 153) into the silicon wafer using a masked etching process, proceeding from the second surface of the silicon wafer, each trench (151, 152, 153) being formed at the respective location of one raised portion (101, 102, 103) of the plurality of raised portions (101, 102, 103); - depositing side wall insulation layers made of insulating material on side walls of the trenches (151, 152, 153); - forming through-silicon vias (171, 172, 173) by filling the trenches (151, 152, 153) with electrically conductive material; - producing a conductor path stack in a back-end-of-line process for contacting the active components on the second surface of the silicon wafer; - temporarily bonding a second carrier wafer onto a surface (111, 121) of the conductor path stack; - removing the first carrier wafer; - exposing the through-silicon vias (171, 172, 173) by partially removing the etch stop layer. - providing a silicon wafer having a plurality of raised portions (101, 102, 103) of equal height (h) on a first surface of the silicon wafer as a placeholder for through-silicon vias (171, 172, 173); - depositing an etch stop layer on the first surface of the silicon wafer; - planarizing a surface of the etch stop layer; - permanently bonding a first carrier wafer to the surface of the etch stop layer; - producing components on or in a second surface of the silicon wafer in a front-end-of-line process; - etching a plurality of trenches (151, 152, 153) into the silicon wafer using a masked etching process, proceeding from the second surface of the silicon wafer, each trench (151, 152, 153) being formed at the respective location of one raised portion (101, 102, 103) of the plurality of raised portions (101, 102, 103); - depositing side wall insulation layers made of insulating material on side walls of the trenches (151, 152, 153); - forming through-silicon vias (171, 172, 173) by filling the trenches (151, 152, 153) with electrically conductive material; - producing a conductor path stack in a back-end-of-line process for contacting the active components on the second surface of the silicon wafer; - temporarily bonding a second carrier wafer onto a surface (111, 121) of the conductor path stack; - removing the first carrier wafer; - exposing the through-silicon vias (171, 172, 173) by partially removing the etch stop layer.
A lithium secondary battery comprising: a positive electrode; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode includes, as a positive electrode active material, a lithium composite transition metal oxide powder which has a layered structure and a nickel content accounting for 50 atm% or more of total transition metals, wherein the positive electrode active material has a phase-transform temperature of 300 °C or more, the phase-transform temperature is a temperature at which the layered structure is changed to a spinel structure in a fully charged state measured by in-situ high-temperature XRD measuring instrument using synchrotron radiation, wherein the lithium composite transition metal oxide includes, on a surface thereof, a coating layer including B, and wherein the lithium composite transition metal oxide is represented by Chemical Formula 1: [Chemical Formula 1] Li x [Ni a Co b Mn c M d]O 2 wherein, in Chemical Formula 1, M is a doping element substituted at transition metal sites and includes Ti and W, and 0.98≤x≤1.2, 0.50≤a≤0.99, 0≤b<0.40, 0<c<0.40, and 0<d<0.20. a positive electrode; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode includes, as a positive electrode active material, a lithium composite transition metal oxide powder which has a layered structure and a nickel content accounting for 50 atm% or more of total transition metals, wherein the positive electrode active material has a phase-transform temperature of 300 °C or more, the phase-transform temperature is a temperature at which the layered structure is changed to a spinel structure in a fully charged state measured by in-situ high-temperature XRD measuring instrument using synchrotron radiation, wherein the lithium composite transition metal oxide includes, on a surface thereof, a coating layer including B, and wherein the lithium composite transition metal oxide is represented by Chemical Formula 1: [Chemical Formula 1] Li x [Ni a Co b Mn c M d]O 2 wherein, in Chemical Formula 1, M is a doping element substituted at transition metal sites and includes Ti and W, and 0.98≤x≤1.2, 0.50≤a≤0.99, 0≤b<0.40, 0<c<0.40, and 0<d<0.20.
A method for distributing content over a distribution network, the method comprising: encrypting (1006; 1110) the content with a control word to generate encrypted content; characterised in that the method further comprises: providing the control word to one or more entitlement control message generators (306; 518); receiving one or more entitlement control messages from the one or more entitlement control message generators (306; 518), respectively, wherein each entitlement control message comprises a unique encryption of the control word to provide conditional access to the control word; and encoding the encrypted content and the one or more entitlement control messages into a file format for transmission over the distribution network. encrypting (1006; 1110) the content with a control word to generate encrypted content; characterised in that the method further comprises: providing the control word to one or more entitlement control message generators (306; 518); receiving one or more entitlement control messages from the one or more entitlement control message generators (306; 518), respectively, wherein each entitlement control message comprises a unique encryption of the control word to provide conditional access to the control word; and encoding the encrypted content and the one or more entitlement control messages into a file format for transmission over the distribution network. providing the control word to one or more entitlement control message generators (306; 518); receiving one or more entitlement control messages from the one or more entitlement control message generators (306; 518), respectively, wherein each entitlement control message comprises a unique encryption of the control word to provide conditional access to the control word; and encoding the encrypted content and the one or more entitlement control messages into a file format for transmission over the distribution network.
A system including: a valve; a handle located proximate the valve and configured to open and close the valve; wherein the handle is in a first handle position when the valve is open; and wherein the handle is in a second handle position when the valve is closed; a guide connected to the handle; an arm connected to the guide; a channel located on one of the guide or the arm, the channel having opposed first and second ends (54, 56); and a projection located on the other of the guide or the arm, the projection configured to be received in the channel; wherein moving the projection in a direction away from the second end of the channel, past a location of the first end of the channel, pulls the guide and the handle, thereby moving the handle from the first handle position to the second handle position; and wherein the projection can be moved toward the second end of the channel while the handle remains in the second position, characterised in that the opposed first and second ends are closed ends (54, 56). a valve; a handle located proximate the valve and configured to open and close the valve; wherein the handle is in a first handle position when the valve is open; and wherein the handle is in a second handle position when the valve is closed; wherein the handle is in a first handle position when the valve is open; and wherein the handle is in a second handle position when the valve is closed; a guide connected to the handle; an arm connected to the guide; a channel located on one of the guide or the arm, the channel having opposed first and second ends (54, 56); and a projection located on the other of the guide or the arm, the projection configured to be received in the channel; wherein moving the projection in a direction away from the second end of the channel, past a location of the first end of the channel, pulls the guide and the handle, thereby moving the handle from the first handle position to the second handle position; and wherein the projection can be moved toward the second end of the channel while the handle remains in the second position, characterised in that the opposed first and second ends are closed ends (54, 56).
Low pressure regulator adapted to be arranged on the low pressure portion of a fuel injection equipment of an internal combustion engine, said low pressure regulator provided with a filter and a regulator member moving under the influence of the fuel pressure and controlling the section area of an outlet adapted to be connected to a drain so that, in a normal operational mode, the flow of fuel flowing on an inlet side is regulated as a fraction of the flow goes through the filter and to the outlet and wherein, the low pressure regulator further defines a flushing operational mode wherein said fuel flowing on an inlet side bypasses the filter and directly flows to the outlet, wherein the regulator member is provided with an inner channel opening at an end to an inlet of the low pressure regulator and at another end to the outlet, said fuel flowing on an inlet side flowing in said inner channel in normal operational mode and, bypassing in said inner channel in flushing operational mode, wherein the regulator member is a piston guided in a bore defined in a body of the low pressure regulator, the inlet to the low pressure regulator being defined at an open end of the bore, the outlet being an opening provided on a lateral face of a the wall of the body, the piston having a front face facing said inlet and a lateral face partially covering the outlet, the inner channel opening in said front face and in said lateral face, wherein the filter member is fixed to said front face, wherein the filter member is sized to enter the bore, wherein, in said flushing operational mode, the piston is inwardly moved inside the bore to a flush position wherein said front face is beyond at least a portion of the outlet, enabling said fuel flowing on the inlet side to bypass the filter and to directly flow to the outlet and, wherein a spring member is arranged in the bore between the piston and a plug member inserted in a closing end of the bore opposed to the inlet, and wherein, in said flushing operational mode said plug member is partially disengaged from said closed end of the bore enabling the regulator member to move to said flush position.
An electrolytic cell configured to increase chlorine capture and concentration in the cell's output solution, comprising: an anode chamber and a cathode chamber with inlets and outlets; an electrolyte feed adapted for providing a source of anions and cations to the anode and cathode chambers; the outlet of the cathode chamber connected in fluid communication with the inlet of the anode chamber; and the inlet of the cathode chamber connected in fluid communication with a liquid source, further comprising a degassing chamber having an inlet and outlet, the inlet connected in fluid communication with the cathode chamber and the outlet connected in fluid communication with the anode chamber, wherein the inlet of the degassing chamber is elevated above the outlet of the anode chamber to move catholyte through the anode chamber by gravity. an anode chamber and a cathode chamber with inlets and outlets; an electrolyte feed adapted for providing a source of anions and cations to the anode and cathode chambers; the outlet of the cathode chamber connected in fluid communication with the inlet of the anode chamber; and the inlet of the cathode chamber connected in fluid communication with a liquid source, further comprising a degassing chamber having an inlet and outlet, the inlet connected in fluid communication with the cathode chamber and the outlet connected in fluid communication with the anode chamber, wherein the inlet of the degassing chamber is elevated above the outlet of the anode chamber to move catholyte through the anode chamber by gravity.
A method in an access point, AP, for adaptive beacon transmission, the AP transmitting a beacon signal through a plurality of beacon beams in an area served by the AP, the plurality of beacon beams being grouped into a plurality of beacon beam sets, the method comprising: obtaining (310, 410) a first statistical information, within a first period, on times each of beacon beams in a first beacon beam set is identified, by any one of at least one communication device within the area, to carry a beacon signal with the best reception quality among its received beacon signals; and adapting (320, 420) a frequency to transmit a beacon signal over each of the beacon beams in the first beacon beam set based on the first statistical information. obtaining (310, 410) a first statistical information, within a first period, on times each of beacon beams in a first beacon beam set is identified, by any one of at least one communication device within the area, to carry a beacon signal with the best reception quality among its received beacon signals; and adapting (320, 420) a frequency to transmit a beacon signal over each of the beacon beams in the first beacon beam set based on the first statistical information.
A halogen-free phosphorus-containing flame retardant, obtainable by reacting a phosphinic acid derivative from the group of 9,10-dihydro-9-oxa-10-phospha-phenanthrene-10-oxide (DOPO) and ring-substituted DOPO derivatives with an optionally substituted polydiene containing isolated C-C double bonds in the presence of a peroxide with the addition of the phosphinic acid derivative to one or more of the isolated C-C double bonds.
An information processing device comprising: a data processing unit configured to calculate a logistic regression parameter being a parameter of a logistic regression model indicating a relationship between a first variable and a second variable being two different types of secure data associated with each of a plurality of samples, wherein the first variable is an explanatory variable, and the second variable is an outcome variable, wherein the information processing device is a retaining device of the explanatory variable, wherein the data processing unit calculates an inner product (t_s) of the first variable and the second variable with application of secure computation being computation processing applied with converted data of each of the variables, and performs computation processing excluding the calculation processing of the inner product, as computation processing without the converted data, to calculate the logistic regression parameter, wherein the data processing unit receives a computed result applied with the outcome variable from an outcome-variable retaining device, and calculates the logistic regression parameter with the computed result applied with the received outcome variable, wherein the computed result applied with the outcome variable is a sum total (t_0) of the outcome variable. a data processing unit configured to calculate a logistic regression parameter being a parameter of a logistic regression model indicating a relationship between a first variable and a second variable being two different types of secure data associated with each of a plurality of samples, wherein the first variable is an explanatory variable, and the second variable is an outcome variable, wherein the information processing device is a retaining device of the explanatory variable, wherein the data processing unit calculates an inner product (t_s) of the first variable and the second variable with application of secure computation being computation processing applied with converted data of each of the variables, and performs computation processing excluding the calculation processing of the inner product, as computation processing without the converted data, to calculate the logistic regression parameter, wherein the data processing unit receives a computed result applied with the outcome variable from an outcome-variable retaining device, and calculates the logistic regression parameter with the computed result applied with the received outcome variable, wherein the computed result applied with the outcome variable is a sum total (t_0) of the outcome variable.
Shelf device for bakery products, in particular sliced bread, for provision of bakery products, in particular in the gastronomic sector, wherein the shelf device comprises a base surface, at least two wall elements, at least one rear element, at least one cover element, at least one opening, and at least one closing plate for closing the opening, and the wall elements together with the base element, cover element and rear element span a space in which the bakery products can be arranged; wherein the shelf device comprises at least one sliding element on which the bakery product can be arranged, and at least one connecting element and a movement conversion element; wherein the sliding element is connected to the closing plate by the connecting element and the movement conversion element so that by open-pivoting of the closing plate in the pivot direction, the connecting element and the movement conversion element can be actuated and thereby the rotational movement of the closing plate in the pivot direction can be converted into a sliding movement of the sliding element from the space of the shelf device through the opening of the shelf device in a displacement direction; characterised in that the closing plate is configured as a flat flap and in the open-pivoted, opened state is oriented relative to the sliding tray element such that it completely covers the sliding tray element in the vertical direction, wherein the closing plate is arranged exactly parallel, or at an angle to the sliding element and serves as spittle protection for the bakery products.
A small appliance which drives a workpiece element, the small appliance being a power toothbrush, wherein the workpiece element is a brushhead, or another similar appliance, comprising: an appliance housing; a driving assembly (12, 18) which moves a driving mass back and forth through a distance; and an output assembly (22, 24, 25) which includes the workpiece element; characterized by a coupling assembly which connects the driving mass to the output assembly (22, 24, 25), wherein the coupling assembly includes a torsion member (28, 30) having a node point therealong; and a support element connected between the node point and the housing, wherein the driving assembly (12, 18) operates in such a mode that the workpiece element moves in the opposite rotational direction from the driving assembly (12, 18), wherein the moments of inertia of the output assembly (22, 24, 25) and the driving assembly (12, 18), respectively, oppose each other, thereby substantially preventing coupling of vibrations to the housing. an appliance housing; a driving assembly (12, 18) which moves a driving mass back and forth through a distance; and an output assembly (22, 24, 25) which includes the workpiece element; characterized by a coupling assembly which connects the driving mass to the output assembly (22, 24, 25), wherein the coupling assembly includes a torsion member (28, 30) having a node point therealong; and a support element connected between the node point and the housing, wherein the driving assembly (12, 18) operates in such a mode that the workpiece element moves in the opposite rotational direction from the driving assembly (12, 18), wherein the moments of inertia of the output assembly (22, 24, 25) and the driving assembly (12, 18), respectively, oppose each other, thereby substantially preventing coupling of vibrations to the housing.
A method of creating a logical profile (200, 240, 260) for physical devices (122, 124, 126, 128) in a power system to interface with a monitoring system, the method comprising: selecting a profile identity to identify a logical profile (200, 240, 260) representing a combination of physical devices (122, 124, 126, 128) in the power system; selecting a plurality of physical devices (122, 124, 126, 128) from the power system represented by the logical profile (200, 240, 260), the physical devices (122, 124, 126, 128) including an output or an input, and being identified with the profile identity; defining a plurality of tags associated with the logical profile (200, 240, 260), each of the tags being associated with an input or output for at least one of the plurality of selected physical devices; automatically calculating an address for each tag based on a starting address; and representing the plurality of selected physical devices to the monitoring system by the logical profile (200, 240, 260) including profile identity and the plurality of tags of the selected physical devices and the automatically calculated addresses. selecting a profile identity to identify a logical profile (200, 240, 260) representing a combination of physical devices (122, 124, 126, 128) in the power system; selecting a plurality of physical devices (122, 124, 126, 128) from the power system represented by the logical profile (200, 240, 260), the physical devices (122, 124, 126, 128) including an output or an input, and being identified with the profile identity; defining a plurality of tags associated with the logical profile (200, 240, 260), each of the tags being associated with an input or output for at least one of the plurality of selected physical devices; automatically calculating an address for each tag based on a starting address; and representing the plurality of selected physical devices to the monitoring system by the logical profile (200, 240, 260) including profile identity and the plurality of tags of the selected physical devices and the automatically calculated addresses.