mhurhangee/ep-ind-claims huggingface dataset:
A system for identifying a wireless security threat on a vehicle in which the system is for use with wireless personal electronic devices, the system comprising: a broadband controller including a data processor and memory in which the broadband controller provides a network within the vehicle; a vehicle wireless access point in communication with the broadband controller in which the wireless access point broadcasts a service set identifier, SSID, for use by a personal electronic device to establish a wireless communication link and transmit and receive data wirelessly over the network via the wireless access point; an SSID scanner configured to periodically scan for SSIDs broadcast in the vehicle in which SSIDs detected during scans are communicated to the broadband controller; logic executed by the data processor of the broadband controller in which for a detected SSID corresponding to the vehicle wireless access point SSID, the logic compares the basis service set identifier, BSSID, of the vehicle wireless access point with the BSSID from the detected SSID and if the BSSIDs do not match, the logic identifies a security threat; and an antenna connected to the broadband controller, in which the antenna receives and transmits signals from a source external to the vehicle, providing a broadband data connection to the broadband controller, over which the broadband controller logic reports any security threats to an external security operation center. a broadband controller including a data processor and memory in which the broadband controller provides a network within the vehicle; a vehicle wireless access point in communication with the broadband controller in which the wireless access point broadcasts a service set identifier, SSID, for use by a personal electronic device to establish a wireless communication link and transmit and receive data wirelessly over the network via the wireless access point; an SSID scanner configured to periodically scan for SSIDs broadcast in the vehicle in which SSIDs detected during scans are communicated to the broadband controller; logic executed by the data processor of the broadband controller in which for a detected SSID corresponding to the vehicle wireless access point SSID, the logic compares the basis service set identifier, BSSID, of the vehicle wireless access point with the BSSID from the detected SSID and if the BSSIDs do not match, the logic identifies a security threat; and an antenna connected to the broadband controller, in which the antenna receives and transmits signals from a source external to the vehicle, providing a broadband data connection to the broadband controller, over which the broadband controller logic reports any security threats to an external security operation center.
A method for surface modification of semiconductor nanoparticles, wherein the method comprises the steps of: i. providing water; ii. adding the semiconductor nanoparticles into the water, thereby forming suspension; iii. exposure of the suspension to non-thermal plasma pulse, forming plasma activated water modifying the semiconductor nanoparticles therein, wherein the non-thermal plasma is provided under atmosphere comprising at least oxygen and nitrogen but not noble gas; and wherein peak pulse current of in equilibrium ranges from 5 A to 20 A measured with oscilloscope of 20 MHz bandwidth. i. providing water; ii. adding the semiconductor nanoparticles into the water, thereby forming suspension; iii. exposure of the suspension to non-thermal plasma pulse, forming plasma activated water modifying the semiconductor nanoparticles therein, wherein the non-thermal plasma is provided under atmosphere comprising at least oxygen and nitrogen but not noble gas; and wherein peak pulse current of in equilibrium ranges from 5 A to 20 A measured with oscilloscope of 20 MHz bandwidth.
A method for covalently attaching a polyethylene glycol polymer to an active agent through a physiologically hydrolyzable linkage-containing spacer to thereby form a polyethylene glycol-active agent conjugate, said method comprising the steps of: providing an active agent comprising a first functional group selected from hydroxyl and carboxyl, and reacting said active agent with a polyethylene glycol comprising a second functional group selected from the group consisting hydroxyl and carboxyl in the presence of a carbodiimide and 4-(dimethylamino)-pyridinium- p -toluenesulfonate (DPTS), under conditions effective to promote reaction between said first and second functional groups to thereby form a polyethylene glycol-active agent conjugate, wherein the active agent is a taxane or a camptothecin. providing an active agent comprising a first functional group selected from hydroxyl and carboxyl, and reacting said active agent with a polyethylene glycol comprising a second functional group selected from the group consisting hydroxyl and carboxyl in the presence of a carbodiimide and 4-(dimethylamino)-pyridinium- p -toluenesulfonate (DPTS), under conditions effective to promote reaction between said first and second functional groups to thereby form a polyethylene glycol-active agent conjugate, wherein the active agent is a taxane or a camptothecin.
A concrete footing for receiving masts, poles or posts which are set in a receiving cavity passing through the concrete footing, several receiving cavities (8, 9, 10, 11) being provided for the masts, poles or post in the footing preferably made of concrete and comprising a base, a cover and at least one lateral surface, the receiving cavities (8, 9, 10, 11) passing through the concrete footing from the cover to the base and having different cross sections and/or sizes for different mast, poles or posts, characterized in that an aligning aid is provided on the cover of the concrete footing at each opening of the receiving cavities (8, 9, 10, 11), that each aligning aid is formed by a middle tee (13, 14, 15, 16) set in the cover of the concrete footing, and that each middle tee (13, 14, 15, 16) is formed by V shaped grooves whose point is oriented toward the base of the concrete footing.
Optical module equipping a lighting and/or signalling device for a motor vehicle, comprising a light generator comprising at least one light source associated with an optical system, this optical module being provided with a mounting structure mounted on a support so as to be rotatable about an axis of rotation, and with means for connecting electrically to at least one remote member, and equipped with an electrical connection member comprising a flexible element that incorporates electrical conductors and is provided with mechanical securing means (14, 15, 16) respectively intended for fastening it to the mounting structure and to at least said support, characterized in that said flexible element has a form of the sheet type comprising two approximately parallel faces and a median surface parallel to the main faces, and said mechanical securing means make it possible to keep said flexible element at least partially curved such that the median surface of said flexible element is, in the curved part, parallel to the axis of rotation of said mounting structure with respect to said support.
A system for manipulating the position and orientation of a patient's leg, the system comprising: an extension rail configured to be coupled to an operating table or bed, wherein the extension rail has a distal end comprising a connector with a vertical throughbore; an elongate support rail having a longitudinal axis, a first end, and a second end; and a post pivotally coupled to the first end of the support rail and slidingly disposed in the throughbore of the connector, wherein the support rail is configured to pivot about a horizontal axis relative to the post; characterized in that the system further comprises a deck coupled to the support rail with an actuation assembly configured to move the deck axially relative to the support rail. an extension rail configured to be coupled to an operating table or bed, wherein the extension rail has a distal end comprising a connector with a vertical throughbore; an elongate support rail having a longitudinal axis, a first end, and a second end; and a post pivotally coupled to the first end of the support rail and slidingly disposed in the throughbore of the connector, wherein the support rail is configured to pivot about a horizontal axis relative to the post; characterized in that the system further comprises a deck coupled to the support rail with an actuation assembly configured to move the deck axially relative to the support rail.
A pharmaceutical composition for use in treating cancer in combination with radiation wherein the composition comprises: a protein comprising; (a) a human TGFβRII, or fragment thereof capable of binding TGFβ; and (b) an antibody, or antigen-binding fragment thereof, binding human protein Programmed Death Ligand 1 (PD-L1) comprising (i) a heavy chain variable region including an HVR-H1, an HVR-H2, and an HVR-H3 having the amino acid sequences of SYIMM, SIYPSGGITFYADTVKG and IKLGTVTTVDY, respectively, and (ii) a light chain variable region including an HVR-L1, an HVR-L2, and an HVR-L3, having the amino acid sequences of TGTSSDVGGYNYVS, DVSNRPS, and SSYTSSSTRV, respectively, wherein the protein used in combination with radiation of a primary tumor inhibits the growth of a secondary tumor or metastasis distal to the primary tumor treated with radiation. a protein comprising; (a) a human TGFβRII, or fragment thereof capable of binding TGFβ; and (b) an antibody, or antigen-binding fragment thereof, binding human protein Programmed Death Ligand 1 (PD-L1) comprising (i) a heavy chain variable region including an HVR-H1, an HVR-H2, and an HVR-H3 having the amino acid sequences of SYIMM, SIYPSGGITFYADTVKG and IKLGTVTTVDY, respectively, and (ii) a light chain variable region including an HVR-L1, an HVR-L2, and an HVR-L3, having the amino acid sequences of TGTSSDVGGYNYVS, DVSNRPS, and SSYTSSSTRV, respectively, (a) a human TGFβRII, or fragment thereof capable of binding TGFβ; and (b) an antibody, or antigen-binding fragment thereof, binding human protein Programmed Death Ligand 1 (PD-L1) comprising (i) a heavy chain variable region including an HVR-H1, an HVR-H2, and an HVR-H3 having the amino acid sequences of SYIMM, SIYPSGGITFYADTVKG and IKLGTVTTVDY, respectively, and (ii) a light chain variable region including an HVR-L1, an HVR-L2, and an HVR-L3, having the amino acid sequences of TGTSSDVGGYNYVS, DVSNRPS, and SSYTSSSTRV, respectively, (i) a heavy chain variable region including an HVR-H1, an HVR-H2, and an HVR-H3 having the amino acid sequences of SYIMM, SIYPSGGITFYADTVKG and IKLGTVTTVDY, respectively, and (ii) a light chain variable region including an HVR-L1, an HVR-L2, and an HVR-L3, having the amino acid sequences of TGTSSDVGGYNYVS, DVSNRPS, and SSYTSSSTRV, respectively, wherein the protein used in combination with radiation of a primary tumor inhibits the growth of a secondary tumor or metastasis distal to the primary tumor treated with radiation.
A method for producing a semiconductor substrate, comprising: a mask formation step of forming a mask on a semiconductor substrate to be processed, using an energy-sensitive composition comprising an organopolysiloxane, an ion implantation step of implanting ions into the semiconductor substrate to be processed, the semiconductor substrate being provided with the mask, and a mask removal step of removing the mask, wherein the mask removal step consists of: a first step comprising at least one of: contacting the mask with a first treatment liquid containing an oxidizing agent and irradiating the mask with plasma generated using an oxygen-containing gas, and a second step comprising bringing the mask after being subjected to the first step into contact with a second treatment liquid comprising fluoride ions, wherein a temperature of the semiconductor substrate in the mask removal step is 200°C or less, and the energy-sensitive composition comprises a photosensitizing agent and the organopolysiloxane consists of a constituent unit represented by the following formula: wherein R 1 represents a single bond or an alkylene group, R 101 represents an alkyl group, and n1 represents an integer of 0 or more and 4 or less, and a constituent unit represented by the following formula: wherein R 2 represents an aromatic hydrocarbon group or an alkyl group. a mask formation step of forming a mask on a semiconductor substrate to be processed, using an energy-sensitive composition comprising an organopolysiloxane, an ion implantation step of implanting ions into the semiconductor substrate to be processed, the semiconductor substrate being provided with the mask, and a mask removal step of removing the mask, wherein the mask removal step consists of: a first step comprising at least one of: contacting the mask with a first treatment liquid containing an oxidizing agent and irradiating the mask with plasma generated using an oxygen-containing gas, and contacting the mask with a first treatment liquid containing an oxidizing agent and irradiating the mask with plasma generated using an oxygen-containing gas, and a second step comprising bringing the mask after being subjected to the first step into contact with a second treatment liquid comprising fluoride ions, wherein a temperature of the semiconductor substrate in the mask removal step is 200°C or less, and the energy-sensitive composition comprises a photosensitizing agent and the organopolysiloxane consists of a constituent unit represented by the following formula: wherein a temperature of the semiconductor substrate in the mask removal step is 200°C or less, and the energy-sensitive composition comprises a photosensitizing agent and the organopolysiloxane consists of a constituent unit represented by the following formula: wherein R 1 represents a single bond or an alkylene group, R 101 represents an alkyl group, and n1 represents an integer of 0 or more and 4 or less, and a constituent unit represented by the following formula: wherein R 2 represents an aromatic hydrocarbon group or an alkyl group.
A supercritical cycle with phase transformation for heat engines with heat input external to the working area characterised in that a working medium is isothermally supercritically expanded at a predefined upper working temperature (Tu) in a working area with heat input external to the working area, then isobarically supercritically reliquefied at a predetermined lower working pressure (pl) to a predefined lower working temperature (Tl), wherein the predefined lower working temperature (Tl) is below the critical temperature for the working medium, wherein the heat energy thus released is temporarily stored in a temporary heat storage device, isochoric pressure build-up is achieved from the fluid phase with heat input from the temporary heat storage device (7, 1c), is isobarically supercritically further expanded at a predefined upper working pressure (pu) at the predefined upper working temperature (Tu) with heat input from the temporary heat storage device, wherin the cycle always takes place above the critical pressure on the wet steam curve for the working medium. a working medium is isothermally supercritically expanded at a predefined upper working temperature (Tu) in a working area with heat input external to the working area, then isobarically supercritically reliquefied at a predetermined lower working pressure (pl) to a predefined lower working temperature (Tl), wherein the predefined lower working temperature (Tl) is below the critical temperature for the working medium, wherein the heat energy thus released is temporarily stored in a temporary heat storage device, isochoric pressure build-up is achieved from the fluid phase with heat input from the temporary heat storage device (7, 1c), is isobarically supercritically further expanded at a predefined upper working pressure (pu) at the predefined upper working temperature (Tu) with heat input from the temporary heat storage device,
A computer-implemented method comprising: receiving, from a tenant (102, 104, 106) and at a component of a multi-tenant computational environment, an application request to run a tenant application that accesses a resource of the multi-tenant computational environment; requesting, from a trusted source of secrets, security context data related to the application request; receiving, by a trusted service, the security context data if the component is authorized to receive the security context data, wherein pieces of the security context data are sealed with a protection layer which only a trusted service can unseal; unsealing, by the trusted service, the security context data by interfacing with a protocol for wrapping/unwrapping application security context data; evaluating, by the trusted service, the security context data to authorize use of the security context data by the tenant application for executing processing; and running the tenant application on a trusted component of the multitenant computational environment in a context associated with the security context data if the tenant application is authorized based on evaluation of the security context data, wherein the running further comprises initiating the trusted component to run the tenant application under a provisioned service account for the tenant (102, 104, 106) having only privileges to run the application in the context associated with the security context data. receiving, from a tenant (102, 104, 106) and at a component of a multi-tenant computational environment, an application request to run a tenant application that accesses a resource of the multi-tenant computational environment; requesting, from a trusted source of secrets, security context data related to the application request; receiving, by a trusted service, the security context data if the component is authorized to receive the security context data, wherein pieces of the security context data are sealed with a protection layer which only a trusted service can unseal; unsealing, by the trusted service, the security context data by interfacing with a protocol for wrapping/unwrapping application security context data; evaluating, by the trusted service, the security context data to authorize use of the security context data by the tenant application for executing processing; and running the tenant application on a trusted component of the multitenant computational environment in a context associated with the security context data if the tenant application is authorized based on evaluation of the security context data, wherein the running further comprises initiating the trusted component to run the tenant application under a provisioned service account for the tenant (102, 104, 106) having only privileges to run the application in the context associated with the security context data.
An apparatus comprising: first (104, 104A 104B) and second (106, 106A, 106B) aligned roller pairs each having a nip (108, 110) between the rollers (104A, 104B, 106A, 106B) of a pair (104, 106) of rollers (104A, 104B, 106A, 106B), wherein each of the first and second roller pairs have parallel axes of rotation, wherein each of the first and second roller pairs is configured to electrically excite (R PC) a portion of a web passed through the nip (108, 110) and to measure (R M) an electrical property of the excited web, wherein the first and second roller pairs configured to electrically excite (R PC) a portion of the web passed through the nip (108, 110) are configured to provide a line of charge parallel to the axes of rotation of the respective roller pairs (104, 106), and wherein the rollers (104A, 104B, 106A, 106B) are each electrically insulated from each other and from the apparatus; and a processing unit configured to at least analyze the measured electrical properties. first (104, 104A 104B) and second (106, 106A, 106B) aligned roller pairs each having a nip (108, 110) between the rollers (104A, 104B, 106A, 106B) of a pair (104, 106) of rollers (104A, 104B, 106A, 106B), wherein each of the first and second roller pairs have parallel axes of rotation, wherein each of the first and second roller pairs is configured to electrically excite (R PC) a portion of a web passed through the nip (108, 110) and to measure (R M) an electrical property of the excited web, wherein the first and second roller pairs configured to electrically excite (R PC) a portion of the web passed through the nip (108, 110) are configured to provide a line of charge parallel to the axes of rotation of the respective roller pairs (104, 106), and wherein the rollers (104A, 104B, 106A, 106B) are each electrically insulated from each other and from the apparatus; and a processing unit configured to at least analyze the measured electrical properties.
Grab tray support for receiving material boxes or tool carriers, wherein a support rail comprising a first free end and a second free end, is arranged between a first handle support and a second handle support, wherein a handle is arranged on the first handle support and the second handle support, respectively, and wherein the support rail comprises at least one receiving means with which material containers or grab trays can be held, wherein at least one fastening means is arranged at the support rail characterized in that the fastening means serves for engaging the grab tray support in a holding rail, for example of a shelf trolley or in the holding rail of a support system of a mounting work station. wherein a support rail comprising a first free end and a second free end, is arranged between a first handle support and a second handle support, wherein a handle is arranged on the first handle support and the second handle support, respectively, and wherein the support rail comprises at least one receiving means with which material containers or grab trays can be held, wherein at least one fastening means is arranged at the support rail characterized in that the fastening means serves for engaging the grab tray support in a holding rail, for example of a shelf trolley or in the holding rail of a support system of a mounting work station.