mhurhangee/ep-ind-claims huggingface dataset:
A lock cylinder arrangement, consisting of a housing with a lock cam, at least one first actuation knob and an electromechanical coupling between the at least one first actuation knob and the lock cam, wherein the electromechanical coupling has respectively female parts (28, 32) and at least one male part, of which the at least one male part can be brought into engagement with at least one of the female parts (28, 32) in a rotationally positive-fitting manner through axial displacement, wherein the female parts (28, 32) of the electromechanical coupling are arranged in the lock cam and a shaft of the first actuation knob and a first male part, in the coupled state, engages in both female parts (28, 32) of the lock cam and the shaft of the first actuation knob, while in the uncoupled state it engages only in one of the two female parts (28, 32) of the lock cam and of the shaft of the first actuation knob, and the at least one male part is coupled with a controllable drive motor via a resiliently elastic gear mechanism which comprises a compression spring, which is rotatably connected to a drive shaft of the drive motor, and a pin, which engages in an intermediate space between two threads of a wire screw, at an extension of the axially displaceable first male part, characterised in that the compression spring and the wire screw are configured as a common helical compression spring of the first male part, and in that a second male part is axially coupled with the first male part, wherein the second male part in its coupled state engages in both female parts (30, 34) of the lock cam and a shaft of a second actuation knob, while in its uncoupled state it engages only in one of the two female parts (30, 34) of the lock cam and the shaft of the second actuation knob and the second male part is coupled with the first male part in the coupling direction via a helical compression spring of the second male part and in the uncoupling direction via a driving rod (50, 52) connected to the first male part.
A packet parsing method, wherein the method comprises: receiving, by a parsing device, a second packet sent by a source device, wherein the parsing device is a trusted device selected randomly on a path between the source device and a destination device, the second packet comprises a first ciphertext and a first packet, the first packet is a packet sent to the destination device, and the first ciphertext is used to verify whether a packet on the path is tampered and whether the parsing device is the trusted device; obtaining, by the parsing device, a third packet according to the first ciphertext, the first packet and a device identifier of the parsing device, wherein the third packet comprises the first packet, the first ciphertext, and verification information, the verification information is information generated according to the device identifier of the parsing device and the first ciphertext, and the verification information is used to verify whether the packet on the path is tampered and whether the parsing device is the trusted device; and sending, by the parsing device, the third packet to the destination device along the path. receiving, by a parsing device, a second packet sent by a source device, wherein the parsing device is a trusted device selected randomly on a path between the source device and a destination device, the second packet comprises a first ciphertext and a first packet, the first packet is a packet sent to the destination device, and the first ciphertext is used to verify whether a packet on the path is tampered and whether the parsing device is the trusted device; obtaining, by the parsing device, a third packet according to the first ciphertext, the first packet and a device identifier of the parsing device, wherein the third packet comprises the first packet, the first ciphertext, and verification information, the verification information is information generated according to the device identifier of the parsing device and the first ciphertext, and the verification information is used to verify whether the packet on the path is tampered and whether the parsing device is the trusted device; and sending, by the parsing device, the third packet to the destination device along the path.
A vision assistive device comprising: a housing having a base for positioning the housing on a surface, a top portion, and a front wall, back wall, and side walls (70, 72) connecting the base to the top portion and together defining an inner volume of the housing, wherein the top portion protrudes outward from the front wall of the housing; a pair of imaging units integrated within the top portion of the housing, each imaging unit being stationary with respect to the housing and each imaging unit configured to capture a target image from a target object positioned substantially perpendicular to the housing, the target images captured by the imaging units overlapping one another; a screen integrated with the housing along the front wall of the housing; a control system accommodated within the inner volume of the housing, the control system being connected to the imaging units to process data corresponding to the images captured by the imaging units and to output a single target image to a user on the screen. a housing having a base for positioning the housing on a surface, a top portion, and a front wall, back wall, and side walls (70, 72) connecting the base to the top portion and together defining an inner volume of the housing, wherein the top portion protrudes outward from the front wall of the housing; a pair of imaging units integrated within the top portion of the housing, each imaging unit being stationary with respect to the housing and each imaging unit configured to capture a target image from a target object positioned substantially perpendicular to the housing, the target images captured by the imaging units overlapping one another; a screen integrated with the housing along the front wall of the housing; a control system accommodated within the inner volume of the housing, the control system being connected to the imaging units to process data corresponding to the images captured by the imaging units and to output a single target image to a user on the screen.
A composition in form of an emulsion containing a continuous phase and a dispersed phase comprising: a) at least one block copolymer comprising a block A derived from at least one unsaturated monomer selected from the group consisting of (meth)acrylates and a block B derived from at least one unsaturated monomer selected from the group consisting of (meth)acrylic acids, obtained in a controlled radical polymerization process, b) at least one non-polymerizable, non-polar silicone oil having at least one poly(dimethylsilyloxy)-group, and c) water, wherein water is the continuous phase and the at least one non-polymerizable, non-polar silicone oil having at least one poly(dimethylsilyloxy)-group is the dispersed phase in the form of emulsion droplets. a) at least one block copolymer comprising a block A derived from at least one unsaturated monomer selected from the group consisting of (meth)acrylates and a block B derived from at least one unsaturated monomer selected from the group consisting of (meth)acrylic acids, obtained in a controlled radical polymerization process, b) at least one non-polymerizable, non-polar silicone oil having at least one poly(dimethylsilyloxy)-group, and c) water,
A method of wireless communication by an apparatus (no), comprising: communicating with a base station using fewer wireless chains than supported by the apparatus; determining at least a first wireless chain of the wireless chains supported by the apparatus is available for communicating; and transmitting, via device-to-device communications, to another apparatus using one of the at least a first wireless chain while communicating with the base station while the apparatus is in a connected mode discontinuous reception, CDRX, on period. communicating with a base station using fewer wireless chains than supported by the apparatus; determining at least a first wireless chain of the wireless chains supported by the apparatus is available for communicating; and transmitting, via device-to-device communications, to another apparatus using one of the at least a first wireless chain while communicating with the base station while the apparatus is in a connected mode discontinuous reception, CDRX, on period.
A zoom lens system (50, 150, 250, 350) for forming a final image of an object, said system having an object side and an image side and forming a first intermediate real image between the object and the final image, said system comprising in order from the object side to the image side: a lens group X (51, 151, 251, 351), which includes a zoom subgroup A (53, 153, 253, 353, 154) containing at least one lens element (5, 8) and a negatively powered first lens subgroup (52, 152, 252, 352) on the object side of the zoom subgroup A (53, 153, 253, 353, 154), located between the object and the first intermediate real image; and a lens group Y (55, 156, 255, 355), which includes a zoom subgroup B (56, 157, 256, 356, 57) containing at least one lens element (11, 14), located between the first intermediate real image and the final image; wherein the zoom subgroups A (53, 153, 253, 353, 154) and B (56, 157, 256, 356, 57) are simultaneously movable along an optical axis for zooming; and wherein at least one of the lens groups X (51, 151, 251, 351) and Y (55, 156, 255, 355) has one and only one zoom subgroup, all zoom subgroups have positive power, and there are no more than three zoom subgroups; and wherein the first lens subgroup is stationary with respect to the final image. a lens group X (51, 151, 251, 351), which includes a zoom subgroup A (53, 153, 253, 353, 154) containing at least one lens element (5, 8) and a negatively powered first lens subgroup (52, 152, 252, 352) on the object side of the zoom subgroup A (53, 153, 253, 353, 154), located between the object and the first intermediate real image; and a lens group Y (55, 156, 255, 355), which includes a zoom subgroup B (56, 157, 256, 356, 57) containing at least one lens element (11, 14), located between the first intermediate real image and the final image; wherein the zoom subgroups A (53, 153, 253, 353, 154) and B (56, 157, 256, 356, 57) are simultaneously movable along an optical axis for zooming; and wherein at least one of the lens groups X (51, 151, 251, 351) and Y (55, 156, 255, 355) has one and only one zoom subgroup, all zoom subgroups have positive power, and there are no more than three zoom subgroups; and wherein the first lens subgroup is stationary with respect to the final image.
A method of laying conduit (104; 204; 304; 404) at sea from a reel vessel, wherein the method includes the steps of: laying conduit from a first reel (106; 206; 306; 406) of conduit, the first reel rotating about a first substantially vertical axis, and laying conduit from a second reel (110; 210; 310; 410) of conduit, the second reel rotating about a second substantially vertical axis spaced apart, both in a direction along the length of the vessel and in a direction across the width of the vessel, from the first substantially vertical axis, wherein a portion of the route travelled on the vessel by the conduit during the step of laying conduit from the first reel (106; 206; 306; 406) of conduit is substantially the same as a portion of the route travelled by the conduit during the step of laying conduit from the second reel (110; 210; 310; 410) of conduit or the conduit from the second reel (110; 210; 310; 410) passes around at least part of the periphery of the first reel (106; 206; 306; 406). laying conduit from a first reel (106; 206; 306; 406) of conduit, the first reel rotating about a first substantially vertical axis, and laying conduit from a second reel (110; 210; 310; 410) of conduit, the second reel rotating about a second substantially vertical axis spaced apart, both in a direction along the length of the vessel and in a direction across the width of the vessel, from the first substantially vertical axis, wherein a portion of the route travelled on the vessel by the conduit during the step of laying conduit from the first reel (106; 206; 306; 406) of conduit is substantially the same as a portion of the route travelled by the conduit during the step of laying conduit from the second reel (110; 210; 310; 410) of conduit or the conduit from the second reel (110; 210; 310; 410) passes around at least part of the periphery of the first reel (106; 206; 306; 406).
A compound of Formula L: wherein: a. R' is H or acetyl; b. R1 - R2 is selected from the group consisting of: i. ii. iii. iv. v. vi. vii. viii. ix. and x. and c. R23 is a saturated or unsaturated straight chain or branched optionally substituted aliphatic carbon chain. a. R' is H or acetyl; b. R1 - R2 is selected from the group consisting of: i. ii. iii. iv. v. vi. vii. viii. ix. and x. and i. ii. iii. iv. v. vi. vii. viii. ix. and x. and c. R23 is a saturated or unsaturated straight chain or branched optionally substituted aliphatic carbon chain.
A package for orienting and cooling a polyester during a polyester sterilization process, the package comprising: a plurality of packets each containing polyester; and a housing defining a receptacle for receiving the plurality of packets and further defining a top region disposed above the receptacle, a bottom region disposed below the receptacle generally opposite the top region, and a plurality of sides disposed around the receptacle between the top region and the bottom region, the housing including at least one divider disposed between adjacent packets for separating the packets, and characterized by a compartment disposed in at least one of the plurality of sides, the compartment receiving a coolant, wherein the coolant is not disposed directly above the receptacle and is not disposed directly below the receptacle such that the receptacle can be irradiated from top to bottom or bottom to top without radiation passing through the coolant. a plurality of packets each containing polyester; and a housing defining a receptacle for receiving the plurality of packets and further defining a top region disposed above the receptacle, a bottom region disposed below the receptacle generally opposite the top region, and a plurality of sides disposed around the receptacle between the top region and the bottom region, the housing including at least one divider disposed between adjacent packets for separating the packets, and characterized by a compartment disposed in at least one of the plurality of sides, the compartment receiving a coolant, wherein the coolant is not disposed directly above the receptacle and is not disposed directly below the receptacle such that the receptacle can be irradiated from top to bottom or bottom to top without radiation passing through the coolant. at least one divider disposed between adjacent packets for separating the packets, and characterized by a compartment disposed in at least one of the plurality of sides, the compartment receiving a coolant, wherein the coolant is not disposed directly above the receptacle and is not disposed directly below the receptacle such that the receptacle can be irradiated from top to bottom or bottom to top without radiation passing through the coolant.
A process for producing an all-solid-state Li-ion battery with a monolithic body comprising at least one negative-electrode composite layer and at least one positive-electrode composite layer, said layers being separated from one another by at least one intermediate solid-electrolyte layer, said process comprising the following steps: - preparing a pulverulent mixture comprising at least one powder of an active negative-electrode material, at least one powder of a solid electrolyte, and at least one electron-conductivity providing agent; - preparing a pulverulent mixture comprising at least one powder of an active lithium-based positive-electrode material, at least one powder of a solid electrolyte, and at least one electron-conductivity providing agent, and being characterized in that: - the battery is formed in a single step by superposing at least one layer of mixture MP1 and at least one layer of mixture MP2, said layers being separated from one another by at least one intermediate layer of a solid electrolyte in the form of a pulverulent, and simultaneously sintering these sets of three layers, at a pressure of at least 20 MPa, using a pulsed current; - the particle size of the solid electrolyte in pulverulent form is 5 μm or less; - the solid-electrolyte content in each of the mixtures MP1 and MP2 independently varies from 10 to 80 wt%; - the content of the electron-conductivity providing agent in each of the mixtures MP1 and MP2 independently varies from 2 to 25 wt%; and - the active electrode material content in each of the mixtures MP1 and MP2 independently varies from 20 to 85 wt%. - preparing a pulverulent mixture comprising at least one powder of an active negative-electrode material, at least one powder of a solid electrolyte, and at least one electron-conductivity providing agent; - preparing a pulverulent mixture comprising at least one powder of an active lithium-based positive-electrode material, at least one powder of a solid electrolyte, and at least one electron-conductivity providing agent, - the battery is formed in a single step by superposing at least one layer of mixture MP1 and at least one layer of mixture MP2, said layers being separated from one another by at least one intermediate layer of a solid electrolyte in the form of a pulverulent, and simultaneously sintering these sets of three layers, at a pressure of at least 20 MPa, using a pulsed current; - the particle size of the solid electrolyte in pulverulent form is 5 μm or less; - the solid-electrolyte content in each of the mixtures MP1 and MP2 independently varies from 10 to 80 wt%; - the content of the electron-conductivity providing agent in each of the mixtures MP1 and MP2 independently varies from 2 to 25 wt%; and - the active electrode material content in each of the mixtures MP1 and MP2 independently varies from 20 to 85 wt%.
An apparatus for imaging a heart in a body of a subject, comprising: an imaging device adapted to capture successively a plurality of anatomic images of respective portions of said heart; a probe adapted for insertion into said heart and having a position sensor for determining position and orientation information of said probe; a processor linked to said imaging device, said processor being linked to said probe, said processor being operative for generating a functional map of said heart comprising functional information relating to said heart measured at multiple points on said heart, characterised in that said processor is adapted to be operative for iteratively automatically identifying an area of said functional map that corresponds to each of said plurality of anatomic images of said portions of said heart by application of pseudocolor; and further characterised by a display device linked to said processor adapted to display said map and said plurality of anatomic images and said area. an imaging device adapted to capture successively a plurality of anatomic images of respective portions of said heart; a probe adapted for insertion into said heart and having a position sensor for determining position and orientation information of said probe; a processor linked to said imaging device, said processor being linked to said probe, said processor being operative for generating a functional map of said heart comprising functional information relating to said heart measured at multiple points on said heart, characterised in that said processor is adapted to be operative for iteratively automatically identifying an area of said functional map that corresponds to each of said plurality of anatomic images of said portions of said heart by application of pseudocolor; and further characterised by a display device linked to said processor adapted to display said map and said plurality of anatomic images and said area.
An electro hydrostatic actuator comprising: a hydraulic pump and an electric motor driving the hydraulic pump to supply hydraulic fluid to a hydraulic actuator; the hydraulic pump comprising an inlet and an outlet for hydraulic fluid and an active fluid flow path arranged therebetween such that, in an active mode of operation when the pump is driven by the electric motor, hydraulic fluid is actively drawn in through the inlet and exhausted out through the outlet; characterised in that: the hydraulic pump further comprising a bypass flow path (123, 152) arranged between the pump inlet and outlet, such that, in a damping mode of operation, hydraulic fluid freely flows between the inlet and outlet in either direction; and the electric motor comprising a moveable member arranged to move within the motor such that, when the motor is energised so as to drive the pump in the active mode of operation, the member has a blocking position that Z r is adapted to act to block the bypass flow path (123, 152), and when the motor is not energised the member is adapted to move within the motor to open the bypass flow path (123, 152) in the damping mode of operation. a hydraulic pump and an electric motor driving the hydraulic pump to supply hydraulic fluid to a hydraulic actuator; the hydraulic pump comprising an inlet and an outlet for hydraulic fluid and an active fluid flow path arranged therebetween such that, in an active mode of operation when the pump is driven by the electric motor, hydraulic fluid is actively drawn in through the inlet and exhausted out through the outlet; characterised in that: the hydraulic pump further comprising a bypass flow path (123, 152) arranged between the pump inlet and outlet, such that, in a damping mode of operation, hydraulic fluid freely flows between the inlet and outlet in either direction; and the electric motor comprising a moveable member arranged to move within the motor such that, when the motor is energised so as to drive the pump in the active mode of operation, the member has a blocking position that Z r is adapted to act to block the bypass flow path (123, 152), and when the motor is not energised the member is adapted to move within the motor to open the bypass flow path (123, 152) in the damping mode of operation.
A processing apparatus for determining an ambulation motion of a subject, the processing apparatus configured to perform the steps of: obtaining accelerometer data indicative of a trunk motion of the subject; performing a high pass filter on the accelerometer data to obtain high-pass filtered accelerometer data; extracting at least one of a plurality of orthogonal motion components from the high-pass filtered accelerometer data (S22B) using a source-separation technique; performing a low-pass filter on the accelerometer data to obtain low-pass filtered accelerometer data; determining a gravity component from the low-pass filtered accelerometer data (S23B); comparing a direction of at least one of said orthogonal motion components with a direction of the gravity component; and classifying a motion of the subject as ambulation if said motion component is orthogonal or parallel to said gravity component. obtaining accelerometer data indicative of a trunk motion of the subject; performing a high pass filter on the accelerometer data to obtain high-pass filtered accelerometer data; extracting at least one of a plurality of orthogonal motion components from the high-pass filtered accelerometer data (S22B) using a source-separation technique; performing a low-pass filter on the accelerometer data to obtain low-pass filtered accelerometer data; determining a gravity component from the low-pass filtered accelerometer data (S23B); comparing a direction of at least one of said orthogonal motion components with a direction of the gravity component; and classifying a motion of the subject as ambulation if said motion component is orthogonal or parallel to said gravity component.