mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: a cryptographic unit; at least one key stored in a memory of the cryptographic unit; and an access mechanism residing in user space, wherein control of access to said at least one key is delegated to the access mechanism, the access mechanism comprising a key management server and a key management database, the device being configured to allow direct access to said at least one key if access has been authorised by said access mechanism by providing, upon request, from the key management server to an application, a handle to a key information object which comprises a key handle, and wherein the device is configured to load, by the application, data used in a cryptographic process in an application memory space and to modify the data in the application memory space without copying the data to another memory space in order for a cryptographic operation to be carried out, wherein the application may retrieve the at least one key from the cryptographic unit using the key handle. a cryptographic unit; at least one key stored in a memory of the cryptographic unit; and an access mechanism residing in user space, wherein control of access to said at least one key is delegated to the access mechanism, the access mechanism comprising a key management server and a key management database, the device being configured to allow direct access to said at least one key if access has been authorised by said access mechanism by providing, upon request, from the key management server to an application, a handle to a key information object which comprises a key handle, and wherein the device is configured to load, by the application, data used in a cryptographic process in an application memory space and to modify the data in the application memory space without copying the data to another memory space in order for a cryptographic operation to be carried out, wherein the application may retrieve the at least one key from the cryptographic unit using the key handle.
Vacuum pump comprising a casing in which are disposed a first inlet orifice and a second outlet orifice to allow the flowing of a flow of air (F), and in the interior of which a filtering element is mounted in a removable way, characterized in that at least one orifice of the said casing selected from among the said first inlet orifice and the said second outlet orifice is disposed on an exhaust lid which is at the same time removable from the said casing but integral with the said filtering element , and in that the connection between the casing and the exhaust lid is not tight.
Gas extraction probe for extracting gas samples from a hot reaction chamber , comprising a gas inlet , for introducing gas samples, at a first end region of the gas extraction probe and a gas outlet , for discharging gas samples from the gas extraction probe , at a second end region of the gas extraction probe , a probe head which comprises the gas inlet , a probe body which comprises the gas outlet , and a gas extraction tube which extends from the gas inlet to the gas outlet , wherein the gas extraction tube is surrounded by a cooling device for cooling the gas extraction tube , wherein the gas extraction probe comprises at least one line for conducting a cleaning agent, characterized in that the probe head comprises at least one outlet duct , which is separate from the gas inlet and serves for discharging the cleaning agent from the probe head , at the first end region of the gas extraction probe , and wherein the at least one outlet duct extends within the probe head at least partially radially inwards in the direction of the gas inlet .
Method for detecting the position of a guardrail on a chairlift gondola, comprising the following steps: • installing a camera so that it captures a gondola in its field of vision substantially from the front or the back, such that the gondola can be tracked in the field of vision over a relatively long distance; • producing a flow of images of the gondola scanning the field of vision by the camera; • analysing the images produced by the camera with a pattern recognition and tracking system according to the following steps: • performing recognition and tracking of the gondola without taking into account its guardrail ; • associating the gondola with a presence zone of the guardrail; and • analysing the presence zone to determine the position of the guardrail. • installing a camera so that it captures a gondola in its field of vision substantially from the front or the back, such that the gondola can be tracked in the field of vision over a relatively long distance; • producing a flow of images of the gondola scanning the field of vision by the camera; • analysing the images produced by the camera with a pattern recognition and tracking system according to the following steps: • performing recognition and tracking of the gondola without taking into account its guardrail ; • associating the gondola with a presence zone of the guardrail; and • analysing the presence zone to determine the position of the guardrail.
A packing press for packing deformable material, comprising: a compactor and a closure plate that limits a side of a working space of the compactor ; wherein the packing press is configured such that the closure plate closes the side of the working space at an operation in a first direction and opens it at an operation in a second direction, and that the compactor is movable along the closure plate into the working space ; wherein an edge of the compactor is flush with the closure plate ; wherein the closure plate is configured as a cover plate that limits an upper side of the working space ; and wherein the compactor is configured as a charge compression compactor and the working space as a feed chamber , characterized in that an end of the closure plate that is opposite to the compactor engages into the working space when the side of the working space is closed and is pressed out of the working space by the compactor when the compactor is moved into the working space . a compactor and a closure plate that limits a side of a working space of the compactor ; wherein the packing press is configured such that the closure plate closes the side of the working space at an operation in a first direction and opens it at an operation in a second direction, and that the compactor is movable along the closure plate into the working space ; that the closure plate closes the side of the working space at an operation in a first direction and opens it at an operation in a second direction, and that the compactor is movable along the closure plate into the working space ; wherein an edge of the compactor is flush with the closure plate ; wherein the closure plate is configured as a cover plate that limits an upper side of the working space ; and wherein the compactor is configured as a charge compression compactor and the working space as a feed chamber , characterized in that an end of the closure plate that is opposite to the compactor engages into the working space when the side of the working space is closed and is pressed out of the working space by the compactor when the compactor is moved into the working space .
A coating composition comprising: a polyester-carbamate polymer having a backbone that includes both ester and carbamate linkages; and a thermoplastic dispersion including a halogenated polyolefin material. a polyester-carbamate polymer having a backbone that includes both ester and carbamate linkages; and a thermoplastic dispersion including a halogenated polyolefin material.
An eyeglass frame shape measurement apparatus for measuring a shape of an eyeglass frame (F), comprising: a light-projecting optical system configured to irradiate a groove (FA) of a rim of the eyeglass frame (F) with a measurement light beam emitted from a light source ; and a light-receiving optical system configured to receive a reflected light beam of the measurement light beam reflected on the groove (FA) of the rim of the eyeglass frame (F) by a detector , wherein the light-projecting optical system and the light-receiving optical system are configured to be disposed inside the groove (FA) of the rim of the eyeglass frame (F) in a radius vector direction, wherein a light-projecting and light-receiving plane (D) formed by a light-projecting optical axis (L1) of the light-projecting optical system and a light-receiving optical axis (L2) of the light-receiving optical system are configured to be disposed so as to be tilted with respect to a cutting plane (S) parallel or oblique to a depth direction of the groove (FA) where the groove (FA) of the rim is cut by the measurement light beam, wherein the light source is configured to irradiate the groove (FA) of the rim from an inside of the rim with the measurement light beam, and the detector is configured to detect the reflected light beam inside the rim to acquire a cross-sectional shape of the groove (FA) of the rim, characterised in that the light-projecting optical axis (L1) of the light-projecting optical system is configured to be disposed so as to be tilted with respect to a radius vector plane of the groove (FA) of the rim. a light-projecting optical system configured to irradiate a groove (FA) of a rim of the eyeglass frame (F) with a measurement light beam emitted from a light source ; and a light-receiving optical system configured to receive a reflected light beam of the measurement light beam reflected on the groove (FA) of the rim of the eyeglass frame (F) by a detector , wherein the light-projecting optical system and the light-receiving optical system are configured to be disposed inside the groove (FA) of the rim of the eyeglass frame (F) in a radius vector direction, wherein a light-projecting and light-receiving plane (D) formed by a light-projecting optical axis (L1) of the light-projecting optical system and a light-receiving optical axis (L2) of the light-receiving optical system are configured to be disposed so as to be tilted with respect to a cutting plane (S) parallel or oblique to a depth direction of the groove (FA) where the groove (FA) of the rim is cut by the measurement light beam, wherein the light source is configured to irradiate the groove (FA) of the rim from an inside of the rim with the measurement light beam, and the detector is configured to detect the reflected light beam inside the rim to acquire a cross-sectional shape of the groove (FA) of the rim, characterised in that the light-projecting optical axis (L1) of the light-projecting optical system is configured to be disposed so as to be tilted with respect to a radius vector plane of the groove (FA) of the rim.
A fuel cell system comprising: a fluid mixing device for mixing reformable fuel and an oxygen-containing gas and/or steam for a reformer and/or fuel cell stack of the fuel cell system, the fluid mixing device comprising: a tube having an inlet, an outlet, and a throat located between the inlet and the outlet, wherein the throat comprises a smaller internal diameter than the internal diameter of the outlet, the longitudinal axis through the tube from the inlet to the outlet defines a downstream direction, and the tube comprises one or more fuel inlets downstream from the throat; and a collar encompassing the one or more fuel inlets on the exterior surface of the tube and creating with the tube a fuel injection chamber in fluid communication with the one or more fuel inlets, wherein the collar comprises a fuel source inlet and isolates the one or more fuel inlets from the ambient environment exterior to the tube; and a reformer and/or fuel cell stack in fluid communication with the outlet of the tube. a fluid mixing device for mixing reformable fuel and an oxygen-containing gas and/or steam for a reformer and/or fuel cell stack of the fuel cell system, the fluid mixing device comprising: a tube having an inlet, an outlet, and a throat located between the inlet and the outlet, wherein the throat comprises a smaller internal diameter than the internal diameter of the outlet, the longitudinal axis through the tube from the inlet to the outlet defines a downstream direction, and the tube comprises one or more fuel inlets downstream from the throat; and a collar encompassing the one or more fuel inlets on the exterior surface of the tube and creating with the tube a fuel injection chamber in fluid communication with the one or more fuel inlets, wherein the collar comprises a fuel source inlet and isolates the one or more fuel inlets from the ambient environment exterior to the tube; and a reformer and/or fuel cell stack in fluid communication with the outlet of the tube.
A dental pretreatment material for use in dental tissue regeneration, wherein the dental pretreatment material comprises a serine protease and, wherein the dental tissue regeneration comprises angiogenesis, and neural extension.
An apparatus comprising a processor, a memory, and communication circuitry, the apparatus being connected to a network via its communication circuitry, the apparatus being configured to: either transmit a first control indication pertaining to a first set of time and frequency resources for a first data transmission, wherein the first set of time and frequency resources are allocated as a joint control resource set by the first control indication, the first control indication being transmitted in a physical downlink control channel, PDCCH; or transmit a plurality of second control indications each pertaining to a second set of time and frequency resources for a second data transmission, wherein the second set of time and frequency resources are allocated as a plurality of separate control resource sets by the plurality of second control indications, each of the plurality of second control indications being transmitted in a separate PDCCH and allocating a respective one of the plurality of separate control resource sets; wherein the first control indication and each of the plurality of second control indications comprise (i) a code block group, CBG, transmission indication or a CBG flush indication, (ii) a slot format indication, SFI, and (iii) a pre-emption indication for the first set of time and frequency resources or the second set of time and frequency resources; and transmit, to a User Equipment, UE , the first data transmission in accordance with the first control indication or the second data transmission in accordance with the plurality of second control indications. either transmit a first control indication pertaining to a first set of time and frequency resources for a first data transmission, wherein the first set of time and frequency resources are allocated as a joint control resource set by the first control indication, the first control indication being transmitted in a physical downlink control channel, PDCCH; or transmit a plurality of second control indications each pertaining to a second set of time and frequency resources for a second data transmission, wherein the second set of time and frequency resources are allocated as a plurality of separate control resource sets by the plurality of second control indications, each of the plurality of second control indications being transmitted in a separate PDCCH and allocating a respective one of the plurality of separate control resource sets; wherein the first control indication and each of the plurality of second control indications comprise (i) a code block group, CBG, transmission indication or a CBG flush indication, (ii) a slot format indication, SFI, and (iii) a pre-emption indication for the first set of time and frequency resources or the second set of time and frequency resources; and transmit, to a User Equipment, UE , the first data transmission in accordance with the first control indication or the second data transmission in accordance with the plurality of second control indications.
An in-medium monitoring system for monitoring material carried within a pipe, comprising: an acoustic device installed within the pipe and configured to at least generate a voltage signal indicative of changes in the material; a hardware unit including a detector module and a communication module , wherein the detector module includes a voltage to frequency converter configured to receive the voltage signal and output a modulated frequency signal that is modulated with data indicative of changes in the material extracted from the voltage signal, wherein the hardware unit further includes a log detection amplifier configured to receive the modulated frequency signal and to concurrently demodulate the modulated frequency signal in AM and FM modes; a switch (320; 420) connected to the acoustic detector for switching the voltage signal to the hardware unit; and a power source for the acoustic device, the hardware unit and the switch, wherein the hardware unit and power source are attached to the pipe. an acoustic device installed within the pipe and configured to at least generate a voltage signal indicative of changes in the material; a hardware unit including a detector module and a communication module , wherein the detector module includes a voltage to frequency converter configured to receive the voltage signal and output a modulated frequency signal that is modulated with data indicative of changes in the material extracted from the voltage signal, wherein the hardware unit further includes a log detection amplifier configured to receive the modulated frequency signal and to concurrently demodulate the modulated frequency signal in AM and FM modes; a switch (320; 420) connected to the acoustic detector for switching the voltage signal to the hardware unit; and a power source for the acoustic device, the hardware unit and the switch, wherein the hardware unit and power source are attached to the pipe.
An exoskeleton configured to be coupled to a user , said exoskeleton comprising: first and second leg supports configured to be coupled to lower limbs of the user and rest on a support surface during a stance phase; and an exoskeleton torso configured to be coupled to an upper body of the user , said torso being interconnected to each of the first and second leg supports at respective exoskeleton hip pivots to allow for flexion and extension between the first and second leg supports and the exoskeleton torso about respective exoskeleton hip axes, wherein said exoskeleton hip axes are not aligned with the pivoting axes of the hip pivots of the user , wherein said exoskeleton hip pivots are moveable with respect to said torso whereby said exoskeleton hip axes may be selectively misaligned with the pivoting axes of the hip pivots of the user . first and second leg supports configured to be coupled to lower limbs of the user and rest on a support surface during a stance phase; and an exoskeleton torso configured to be coupled to an upper body of the user , said torso being interconnected to each of the first and second leg supports at respective exoskeleton hip pivots to allow for flexion and extension between the first and second leg supports and the exoskeleton torso about respective exoskeleton hip axes, wherein said exoskeleton hip axes are not aligned with the pivoting axes of the hip pivots of the user , wherein said exoskeleton hip pivots are moveable with respect to said torso whereby said exoskeleton hip axes may be selectively misaligned with the pivoting axes of the hip pivots of the user .
An ultrasound imaging system comprising: a controller configured to control a probe for imaging a volume of a subject, wherein the imaging comprises transmitting and receiving ultrasound signals in accordance with a plurality of scan line patterns; and one or more processors in communication with the probe, and characterized in that the one or more processors are configured to: generate a plurality of image data sets from the received ultrasound signals, each image data set corresponding to one of the scan line patterns; select a target characteristic specific to an object in the volume after scanning and based on data received at the ultrasound probe, wherein the target characteristic is a characteristic of the object that meets an image quality threshold; assess the image data sets for the target characteristic specific to the object in the volume; identify an image data set that includes the target characteristic; and select the scan line pattern, which corresponds to the identified image data set, for subsequent imaging of the volume. a controller configured to control a probe for imaging a volume of a subject, wherein the imaging comprises transmitting and receiving ultrasound signals in accordance with a plurality of scan line patterns; and one or more processors in communication with the probe, and characterized in that the one or more processors are configured to: generate a plurality of image data sets from the received ultrasound signals, each image data set corresponding to one of the scan line patterns; select a target characteristic specific to an object in the volume after scanning and based on data received at the ultrasound probe, wherein the target characteristic is a characteristic of the object that meets an image quality threshold; assess the image data sets for the target characteristic specific to the object in the volume; identify an image data set that includes the target characteristic; and select the scan line pattern, which corresponds to the identified image data set, for subsequent imaging of the volume. generate a plurality of image data sets from the received ultrasound signals, each image data set corresponding to one of the scan line patterns; select a target characteristic specific to an object in the volume after scanning and based on data received at the ultrasound probe, wherein the target characteristic is a characteristic of the object that meets an image quality threshold; assess the image data sets for the target characteristic specific to the object in the volume; identify an image data set that includes the target characteristic; and select the scan line pattern, which corresponds to the identified image data set, for subsequent imaging of the volume.
A method for performing load balancing of data flows from selected user equipment, UE, devices (107a-f), including: receiving UE-group specific radio access network, RAN, parameters at a UE device, the device associated with at least one UE-group , the at least one UE-group prescribing pre-assigned RAN selection and radio traffic steering privileges for the UE, the UE-group specific RAN parameters representing condition information indicative of operating conditions and including a UE-group indication and associated UE-group priority, wherein the UE-group priority is included in a set of RAN parameters of a UE-group whereby to enable the UE to be able to select a set of RAN parameters in the event that the UE belongs to more than one UE-group; determining, at the UE, whether to apply the UE-group specific RAN parameters based on the UE-group indication and associated UE-group priority of the received RAN parameters. receiving UE-group specific radio access network, RAN, parameters at a UE device, the device associated with at least one UE-group , the at least one UE-group prescribing pre-assigned RAN selection and radio traffic steering privileges for the UE, the UE-group specific RAN parameters representing condition information indicative of operating conditions and including a UE-group indication and associated UE-group priority, wherein the UE-group priority is included in a set of RAN parameters of a UE-group whereby to enable the UE to be able to select a set of RAN parameters in the event that the UE belongs to more than one UE-group; determining, at the UE, whether to apply the UE-group specific RAN parameters based on the UE-group indication and associated UE-group priority of the received RAN parameters.