mhurhangee/ep-ind-claims huggingface dataset:
A computing system comprising: an application processor (102, 502); a memory (106, 506) comprising firmware and corresponding recovery firmware; a security processor (108, 508) configured to verify the firmware or recovery firmware as a condition to the application processor (102, 502) executing the firmware or the recovery firmware by: determining an expected hash of the firmware or the recovery firmware maintained by the firmware, the expected hash embedded in the firmware or the recovery firmware at compile time; and verifying the firmware or the recovery firmware based on whether the expected hash matches a generated hash of the firmware or the recovery firmware. an application processor (102, 502); a memory (106, 506) comprising firmware and corresponding recovery firmware; a security processor (108, 508) configured to verify the firmware or recovery firmware as a condition to the application processor (102, 502) executing the firmware or the recovery firmware by: determining an expected hash of the firmware or the recovery firmware maintained by the firmware, the expected hash embedded in the firmware or the recovery firmware at compile time; and verifying the firmware or the recovery firmware based on whether the expected hash matches a generated hash of the firmware or the recovery firmware. determining an expected hash of the firmware or the recovery firmware maintained by the firmware, the expected hash embedded in the firmware or the recovery firmware at compile time; and verifying the firmware or the recovery firmware based on whether the expected hash matches a generated hash of the firmware or the recovery firmware.
A panel support system, comprising: a longitudinal trough having two opposing side walls and a base connected therebetween, the trough being open on a side opposing the base, the trough configured to be attachable to a surface; and at least one liquid resin retention unit configured to be placed in the trough, the or each liquid resin retention unit comprising at least one barrier having a trough-engaging part, and a separate panel-engaging part configured to be movable relative to the trough-engaging part, the at least one liquid resin retention unit configured to receive a panel thereon; wherein the panel support system is arranged such that resin introduced into the liquid resin retention unit flows into contact with both the trough and the panel to bind them together securely; wherein the at least one barrier (11, 13) is configured to prevent liquid resin flowing along a length of the trough as the inclination of the panel is adjusted within the trough. a longitudinal trough having two opposing side walls and a base connected therebetween, the trough being open on a side opposing the base, the trough configured to be attachable to a surface; and at least one liquid resin retention unit configured to be placed in the trough, the or each liquid resin retention unit comprising at least one barrier having a trough-engaging part, and a separate panel-engaging part configured to be movable relative to the trough-engaging part, the at least one liquid resin retention unit configured to receive a panel thereon; wherein the panel support system is arranged such that resin introduced into the liquid resin retention unit flows into contact with both the trough and the panel to bind them together securely; wherein the at least one barrier (11, 13) is configured to prevent liquid resin flowing along a length of the trough as the inclination of the panel is adjusted within the trough.
A method for operating a three dimensional, 3D, display terminal apparatus, the method comprising: displaying a screen including a plurality of objects with different degrees of perceived depth on a display; detecting a user manipulation in the form of a perceived touch at one of at least two touch modes, the touch modes including a direct touch mode for touching the surface of the display to select at least one object and change its display state, said at least one object having no degree of depth, i.e. being displayed on the original screen plane, and a near touch mode for a touch being placed at a distance from the surface of the display to select at least one object and change its display state, said at least one object being displayed in a form protruding from the display, said distance corresponding to the degree of perceived depth of said protruding object; and changing a display state of one of the plurality of objects according to the perceived touch corresponding to the degree of the perceived depth of the one of the plurality of objects. displaying a screen including a plurality of objects with different degrees of perceived depth on a display; detecting a user manipulation in the form of a perceived touch at one of at least two touch modes, the touch modes including a direct touch mode for touching the surface of the display to select at least one object and change its display state, said at least one object having no degree of depth, i.e. being displayed on the original screen plane, and a near touch mode for a touch being placed at a distance from the surface of the display to select at least one object and change its display state, said at least one object being displayed in a form protruding from the display, said distance corresponding to the degree of perceived depth of said protruding object; and changing a display state of one of the plurality of objects according to the perceived touch corresponding to the degree of the perceived depth of the one of the plurality of objects.
A measurement signal configuration method performed by a first node, wherein the method is applied to a wireless relay system, the wireless relay system comprises at least the first node and a second node, the first node is a wireless relay or a base station, the second node is a wireless relay, and the method comprises: sending, by the first node, a synchronization signal block, SSB, at a first set of candidate locations of the SSB, wherein the synchronization signal block, SSB, is to-be-used by the second node to discover the first node or measure an SSB of the first node, and the first set of candidate locations of the SSB comprises a set of candidate locations of SSBs sent by the first node to implement coverage; receiving, by the first node, SSB optimization configuration information, wherein the SSB optimization configuration information comprises an identifier or a number of the SSB; characterized in that the method further comprises: determining, by the first node, a synchronization signal block, SSB, sending subset based on the SSB optimization configuration information, wherein the SSB sending subset comprises some synchronization signal block, SSB, candidate locations; and sending, by the first node, the SSB on the SSB sending subset. sending, by the first node, a synchronization signal block, SSB, at a first set of candidate locations of the SSB, wherein the synchronization signal block, SSB, is to-be-used by the second node to discover the first node or measure an SSB of the first node, and the first set of candidate locations of the SSB comprises a set of candidate locations of SSBs sent by the first node to implement coverage; receiving, by the first node, SSB optimization configuration information, wherein the SSB optimization configuration information comprises an identifier or a number of the SSB; characterized in that the method further comprises: determining, by the first node, a synchronization signal block, SSB, sending subset based on the SSB optimization configuration information, wherein the SSB sending subset comprises some synchronization signal block, SSB, candidate locations; and sending, by the first node, the SSB on the SSB sending subset. determining, by the first node, a synchronization signal block, SSB, sending subset based on the SSB optimization configuration information, wherein the SSB sending subset comprises some synchronization signal block, SSB, candidate locations; and sending, by the first node, the SSB on the SSB sending subset.
A method for modifying the operation of one or more hardware subsystems when a new context awareness service begins, comprising: determining a power budget for a plurality of operating context awareness services including the new context awareness service (620, 622, 624), wherein the power budget is based on a power requirement for each of the plurality of context awareness services (620, 622, 624), and wherein the power requirement for each of the plurality of context awareness services (620, 622, 624) is based on power utilizations of the one or more hardware subsystems corresponding to the plurality of context awareness services (620, 622, 624); allocating power resources to the one or more hardware subsystems based on importances of the plurality of context awareness services (620, 622, 624) and/or the one or more hardware subsystems, wherein the allocation of the power resources is performed within the power budget; and determining, for the one or more hardware subsystems, a number of the plurality of context awareness services (620, 622, 624) using a hardware subsystem; and assigning a higher importance to a hardware subsystem being used by a higher number of the plurality of context awareness services (620, 622, 624);. determining a power budget for a plurality of operating context awareness services including the new context awareness service (620, 622, 624), wherein the power budget is based on a power requirement for each of the plurality of context awareness services (620, 622, 624), and wherein the power requirement for each of the plurality of context awareness services (620, 622, 624) is based on power utilizations of the one or more hardware subsystems corresponding to the plurality of context awareness services (620, 622, 624); allocating power resources to the one or more hardware subsystems based on importances of the plurality of context awareness services (620, 622, 624) and/or the one or more hardware subsystems, wherein the allocation of the power resources is performed within the power budget; and determining, for the one or more hardware subsystems, a number of the plurality of context awareness services (620, 622, 624) using a hardware subsystem; and assigning a higher importance to a hardware subsystem being used by a higher number of the plurality of context awareness services (620, 622, 624);.
A method of controlling the position of the X-ray tube of a CT system, comprising: acquiring an angular position signal output by an angular position sensor arranged on a static component of a gantry of the CT system, an index pulse signal output by an index pulse sensor arranged on the static component of the gantry and encoder data output by a motor, wherein the AP signal is acquired after the AP sensor detects a plurality of check points arranged at even intervals on a rotary component of the gantry, and the IP signal is acquired after the IP sensor detects a reference check point arranged on the rotary component of the gantry, determining a homing positioning signal AP0 of the AP signal based on the AP signal and the IP signal, wherein the homing positioning signal AP0 is used to determine the starting point of the period of rotation of the X-ray tube, and the IP signal is used to determine the period of rotation of the X-ray tube, utilizing the encoder data to calculate the encoder data containing AP signal based on the determined homing positioning signal AP0, wherein the encoder data containing AP signal is the AP signal calibrated by use of the encoder data, and controlling the position of the X-ray tube based on the encoder data containing AP signal. acquiring an angular position signal output by an angular position sensor arranged on a static component of a gantry of the CT system, an index pulse signal output by an index pulse sensor arranged on the static component of the gantry and encoder data output by a motor, wherein the AP signal is acquired after the AP sensor detects a plurality of check points arranged at even intervals on a rotary component of the gantry, and the IP signal is acquired after the IP sensor detects a reference check point arranged on the rotary component of the gantry, determining a homing positioning signal AP0 of the AP signal based on the AP signal and the IP signal, wherein the homing positioning signal AP0 is used to determine the starting point of the period of rotation of the X-ray tube, and the IP signal is used to determine the period of rotation of the X-ray tube, utilizing the encoder data to calculate the encoder data containing AP signal based on the determined homing positioning signal AP0, wherein the encoder data containing AP signal is the AP signal calibrated by use of the encoder data, and controlling the position of the X-ray tube based on the encoder data containing AP signal.
A fastening assembly for a built-in refrigerator on a side wall of a furniture body, comprising a hinge having a hinge arm, which is fixable on the refrigerator side, having a screw-on flange having through holes for fastening screws, fastening screws which pass through the through holes of the screw-on flange, and can be screwed into a side wall of the furniture body, and at least one wall thickness compensating plate, which is insertable if needed between the screw-on flange and the side wall, characterized in that two fastening screws are provided, the fastening screws are preinstalled in a cover cap, which is manufactured from plastic and is pluggable onto the screw-on flange, and the fastening screws are preinstalled in a friction locked manner in breakthrough regions of the cover cap.
A method for initializing a secure communication session in an Internet Protocol Multimedia Subsystem, IMS network, wherein the network comprises a Home Subscriber Server, HSS (120A, 120B), wherein the HSS performs the steps of: - receiving provisioning data associated with a User Equipment, UE (110A, 110B) comprised by the network, wherein the UE (110A, 110B) is provisioned to a home network and is located physically in a visited network being different from the home network, the provisioning data comprising a first identifier; - receiving a request for a second identifier from the UE associated with the first identifier; - generating in response to the request the second identifier and a third identifier, and providing the second identifier to the UE, the identifiers associated with each other, the first identifier being different from the second and third identifier; - receiving a query of a Call Session Control Function, S-CSCF comprised by the network, the query comprising the second identifier, and in response to the query, providing the third identifier via the S-CSCF to the UE. - receiving provisioning data associated with a User Equipment, UE (110A, 110B) comprised by the network, wherein the UE (110A, 110B) is provisioned to a home network and is located physically in a visited network being different from the home network, the provisioning data comprising a first identifier; - receiving a request for a second identifier from the UE associated with the first identifier; - generating in response to the request the second identifier and a third identifier, and providing the second identifier to the UE, the identifiers associated with each other, the first identifier being different from the second and third identifier; - receiving a query of a Call Session Control Function, S-CSCF comprised by the network, the query comprising the second identifier, and in response to the query, providing the third identifier via the S-CSCF to the UE.
Process for producing nanoscale metal sulfides, comprising the steps of (a) providing nanoparticles composed of metal or metal oxide in a reservoir vessel equipped with a supply facility; (b) continuously supplying and fluidizing the nanoparticles (30, 31) in a stream of a first process gas, consisting of 10 to 25 % by volume of H 2, 75 to 90 % by volume of H 2 S and 0 to 15 % by volume of an inert gas selected from N 2, Ar or a mixture thereof, where the nanoparticles are fluidized in the first process gas for a time of 30 to 300 s at a temperature of 600 to 900 °C; (c) depositing the nanoparticles on a surface of a dumped bed of nanoparticles in an oven chamber, where a second process gas composed of 10 to 25 % by volume of H 2, 75 to 90 % by volume of H 2 S and 0 to 15 % by volume of an inert gas selected from N 2, Ar or a mixture thereof is passed above the dumped bed into the oven chamber, and spent process gas is removed from the oven chamber in a lower region of the dumped bed; (d) sulfiding the nanoparticles present in the dumped bed in the oven chamber, at a temperature of 600 to 900 °C for a time of 30 to 200 min; and (e) continuously removing nanoparticles from the oven chamber in a lower region of the dumped bed. (a) providing nanoparticles composed of metal or metal oxide in a reservoir vessel equipped with a supply facility; (b) continuously supplying and fluidizing the nanoparticles (30, 31) in a stream of a first process gas, consisting of 10 to 25 % by volume of H 2, 75 to 90 % by volume of H 2 S and 0 to 15 % by volume of an inert gas selected from N 2, Ar or a mixture thereof, where the nanoparticles are fluidized in the first process gas for a time of 30 to 300 s at a temperature of 600 to 900 °C; (c) depositing the nanoparticles on a surface of a dumped bed of nanoparticles in an oven chamber, where a second process gas composed of 10 to 25 % by volume of H 2, 75 to 90 % by volume of H 2 S and 0 to 15 % by volume of an inert gas selected from N 2, Ar or a mixture thereof is passed above the dumped bed into the oven chamber, and spent process gas is removed from the oven chamber in a lower region of the dumped bed; (d) sulfiding the nanoparticles present in the dumped bed in the oven chamber, at a temperature of 600 to 900 °C for a time of 30 to 200 min; and (e) continuously removing nanoparticles from the oven chamber in a lower region of the dumped bed.
Motor vehicle comprising a bumper and at least one front headlight (2, 2a) without a protective glass, the vehicle comprising an interface element, the interface element being characterised in that it comprises: - two slots (70, 72) each cooperating with one of two first indexing elements (22, 24, 28, 30) of complementary shape arranged on a housing of the headlamp or on a bodywork element such as a grille; - two second indexing elements (70a, 72a) each cooperating with a third indexing element of complementary shape provided on the bumper covering the interface element, and wherein each of the second indexing members (70a, 72a) of the interface member is formed by the walls defining one of the slots (70, 72). - two slots (70, 72) each cooperating with one of two first indexing elements (22, 24, 28, 30) of complementary shape arranged on a housing of the headlamp or on a bodywork element such as a grille; - two second indexing elements (70a, 72a) each cooperating with a third indexing element of complementary shape provided on the bumper covering the interface element, and - two second indexing elements (70a, 72a) each cooperating with a third indexing element of complementary shape provided on the bumper covering the interface element, and wherein each of the second indexing members (70a, 72a) of the interface member is formed by the walls defining one of the slots (70, 72).
A method for generating high pressure impulses comprising the steps of: (i) filling of a pressure chamber with a fluid under pressure, with the pressure increasing within the pressure chamber and thus the potential energy stored in the same, (ii) opening of an outlet opening leading from the pressure chamber to the environment when a predetermined pressure within the pressure chamber is exceeded, with at least a partial quantity of the fluid from the pressure chamber being discharged through the opened outlet opening to the environment under pressure and with a large amount of kinetic energy in order to generate by it a particularly hydraulic high pressure impulse, (iii) closing of the outlet opening, if the pressure within the pressure chamber falls below a predetermined pressure, with the opening and closing of the outlet opening according to steps (ii) and (iii) being made by a valve unit, and (iv) cyclic repetition of the steps (i) through (iii), with the valve unit being located substantially entirely within the pressure chamber, characterised in that during opening of the outlet opening, when fluid under pressure escapes to the environment, a dynamic pressure is generated in the pressure chamber acting on the closing head in a direction away from the outlet opening, with the dynamic pressure being produced by a nozzle which is in fluid connection with the outlet opening. (i) filling of a pressure chamber with a fluid under pressure, with the pressure increasing within the pressure chamber and thus the potential energy stored in the same, (ii) opening of an outlet opening leading from the pressure chamber to the environment when a predetermined pressure within the pressure chamber is exceeded, with at least a partial quantity of the fluid from the pressure chamber being discharged through the opened outlet opening to the environment under pressure and with a large amount of kinetic energy in order to generate by it a particularly hydraulic high pressure impulse, (iii) closing of the outlet opening, if the pressure within the pressure chamber falls below a predetermined pressure, with the opening and closing of the outlet opening according to steps (ii) and (iii) being made by a valve unit, and (iv) cyclic repetition of the steps (i) through (iii), with the valve unit being located substantially entirely within the pressure chamber,
A railroad track tool apparatus comprising: a clamp assembly; a coupling configured to couple a tool to the clamp assembly, the tool configured to perform an operation to a rail of a railroad track; wherein the clamp assembly is moveable between a clamped position and an unclamped position to removably couple the tool with the rail in use and the clamp assembly comprises: a first bearing structure configured to engage an upper side of the rail; and characterised by second and third bearing structures (72, 74) configured to engage an underside of the rail on inner and outer sides (32, 34) of the rail respectively when the clamp assembly is in the clamped position in use, the clamp assembly being moveable along the rail. a clamp assembly; a coupling configured to couple a tool to the clamp assembly, the tool configured to perform an operation to a rail of a railroad track; wherein the clamp assembly is moveable between a clamped position and an unclamped position to removably couple the tool with the rail in use and the clamp assembly comprises: a first bearing structure configured to engage an upper side of the rail; and characterised by second and third bearing structures (72, 74) configured to engage an underside of the rail on inner and outer sides (32, 34) of the rail respectively when the clamp assembly is in the clamped position in use, the clamp assembly being moveable along the rail. a first bearing structure configured to engage an upper side of the rail; and characterised by second and third bearing structures (72, 74) configured to engage an underside of the rail on inner and outer sides (32, 34) of the rail respectively when the clamp assembly is in the clamped position in use, the clamp assembly being moveable along the rail.