mhurhangee/ep-ind-claims huggingface dataset:
A locking confirmation device for detecting the locking states of the electrode contacts in a battery module, the locking confirmation device comprising: an electrode comprising an electrode thread and a positioning thread; a terminal bolt screwed into the electrode thread for locking a conductor and the electrode thread, wherein the terminal bolt comprises at least one positioning recess; a detection sensor assembly comprising an insulated cover, a first contact, a second contact, an elastic spacer and a voltage signal input connector, wherein the second contact is connected to the voltage signal input connector, the elastic spacer is disposed between the first contact and the second contact, and when the insulated cover is extruded by the positioning bolt and the elastic spacer is compressed, the first contact and the second contact are contacted with each other and a circuit is formed for returning a voltage signal of a node of the electrode; and a positioning bolt screwed into the positioning thread for fixing the detection sensor assembly on the positioning thread, wherein when a head portion of the positioning bolt is received within the positioning recess, the terminal bolt is led to a locking state by the head portion of the positioning bolt. an electrode comprising an electrode thread and a positioning thread; a terminal bolt screwed into the electrode thread for locking a conductor and the electrode thread, wherein the terminal bolt comprises at least one positioning recess; a detection sensor assembly comprising an insulated cover, a first contact, a second contact, an elastic spacer and a voltage signal input connector, wherein the second contact is connected to the voltage signal input connector, the elastic spacer is disposed between the first contact and the second contact, and when the insulated cover is extruded by the positioning bolt and the elastic spacer is compressed, the first contact and the second contact are contacted with each other and a circuit is formed for returning a voltage signal of a node of the electrode; and a positioning bolt screwed into the positioning thread for fixing the detection sensor assembly on the positioning thread, wherein when a head portion of the positioning bolt is received within the positioning recess, the terminal bolt is led to a locking state by the head portion of the positioning bolt.
A method for providing an application to be executed on a device, the device being arranged with a secure environment to which access is strictly controlled by a device processor, the method comprising: providing the device with an application having a non-encrypted installation part and a protected part; wherein the protected part is encrypted; providing, via a secure channel into the secure environment, the device with a first key for decrypting said protected part, said secure channel being established by the installation part; decrypting, in the secure environment, said protected part into executable form by means of said first key; re-encrypting, in said secure environment, the executable form by means of a second key to provide an encrypted part; and storing, outside said secure environment, the encrypted part, wherein the second key forms a part of the protected part, the second key thereby being extracted when the protected part is decrypted in the secure environment. providing the device with an application having a non-encrypted installation part and a protected part; wherein the protected part is encrypted; providing, via a secure channel into the secure environment, the device with a first key for decrypting said protected part, said secure channel being established by the installation part; decrypting, in the secure environment, said protected part into executable form by means of said first key; re-encrypting, in said secure environment, the executable form by means of a second key to provide an encrypted part; and storing, outside said secure environment, the encrypted part, wherein the second key forms a part of the protected part, the second key thereby being extracted when the protected part is decrypted in the secure environment.
A process for the preparation of tacrolimus, wherein the process comprises the step of cultivation of a genetically modified strain of a microorganism selected from order Actinomycetales, wherein the genetic material of the modified microorganism comprises at least one inactivated gene involved in the biosynthesis of ethylmalonyl-CoA and/or at least one overexpressed gene involved in the further processing of ethylmalonyl-CoA, as the result of genetic modification.
A shear connector for use with an insulated concrete panel having an insulation layer having one or more openings extending therethrough, a first layer of concrete adjacent to a first surface of the insulation layer, and a second layer of concrete adjacent to a second surface of the insulation layer, said shear connector comprising: an elongated core member comprising a first end and a second end; and a flanged end-piece removably secured to one of said first end or said second end of said core member; wherein at least a portion of said flanged end-piece includes a maximum diameter that is larger than a maximum diameter of said core member, wherein said shear connector is configured to transfer shear forces between the first layer of concrete and the second layer of concrete; characterized in that said core member includes a separation plate extending across an interior of said core member so as to separate the interior of said core member into an inner chamber and an outer chamber. an elongated core member comprising a first end and a second end; and a flanged end-piece removably secured to one of said first end or said second end of said core member; wherein at least a portion of said flanged end-piece includes a maximum diameter that is larger than a maximum diameter of said core member, wherein said shear connector is configured to transfer shear forces between the first layer of concrete and the second layer of concrete; characterized in that said core member includes a separation plate extending across an interior of said core member so as to separate the interior of said core member into an inner chamber and an outer chamber.
A method of fabricating a hybrid metal-ceramic matrix composite structure, comprising: forming a reinforcing layer containing a metal reinforcement; applying a barrier layer comprising a base metal to the metal reinforcement; applying and bonding an oxide coating to the barrier layer, the oxide coating comprising an oxide other than that of the base metal forming the barrier layer; forming a layup, including placing the reinforcing layer between layers of continuous ceramic fibers pre-impregnated with a ceramic matrix; and, curing the layup to bond the layers of ceramic fibers to the reinforcing layer. forming a reinforcing layer containing a metal reinforcement; applying a barrier layer comprising a base metal to the metal reinforcement; applying and bonding an oxide coating to the barrier layer, the oxide coating comprising an oxide other than that of the base metal forming the barrier layer; forming a layup, including placing the reinforcing layer between layers of continuous ceramic fibers pre-impregnated with a ceramic matrix; and, curing the layup to bond the layers of ceramic fibers to the reinforcing layer.
Print media discharge unit, comprising a print media transport path along which in operation a sheet of print media is transported in a transport direction, the print media transport path is defined by a first electrically isolating print media guide and a second electrically isolating print media guide, the print media discharge unit further comprising an electrically grounded electrically conductive discharge element extending through an opening in at least one of said first and second electrically isolating print media guides (60, 61) into the print media transport path, wherein at least one of said first and second electrically isolating print media guide (60, 61) comprises a plurality of guidance ribs, characterized in that the guidance ribs are aligned substantially in the transport direction at an angle with respect to the transport direction.
An agricultural machine comprising: a seeding system comprising: a metering system configured to meter seed; and a transport mechanism configured to transport the metered seeds along a delivery route from a first location where the seeds are received from the metering system to a second location where the seeds are released from the transport mechanism; a motor configured to drive movement of the transport mechanism to transport the seeds along the delivery route; a sensor configured to sense a characteristic of the transport mechanism at a sensor location along the delivery route and to generate a sensor signal indicative of the characteristic; a skip detector component configured to detect a seed skip in the transport mechanism based on the sensor signal; a processing system configured to generate an operating parameter based on the detected seed skip; characterised in that the system further comprises a motor controller configured to operate the motor to control movement of the transport mechanism based on the operating parameter. a seeding system comprising: a metering system configured to meter seed; and a transport mechanism configured to transport the metered seeds along a delivery route from a first location where the seeds are received from the metering system to a second location where the seeds are released from the transport mechanism; a metering system configured to meter seed; and a transport mechanism configured to transport the metered seeds along a delivery route from a first location where the seeds are received from the metering system to a second location where the seeds are released from the transport mechanism; a motor configured to drive movement of the transport mechanism to transport the seeds along the delivery route; a sensor configured to sense a characteristic of the transport mechanism at a sensor location along the delivery route and to generate a sensor signal indicative of the characteristic; a skip detector component configured to detect a seed skip in the transport mechanism based on the sensor signal; a processing system configured to generate an operating parameter based on the detected seed skip; characterised in that the system further comprises a motor controller configured to operate the motor to control movement of the transport mechanism based on the operating parameter.
A user equipment, UE, the UE comprising: a transceiver; and a controller configured to: receive, from a base station, downlink control information, DCI, for scheduling physical uplink shared channel, PUSCH, transmissions, wherein the DCI indicates: a number of the PUSCH transmissions, an offset for a first PUSCH transmission, a hybrid automatic repeat request, HARQ, process number which applies to the first PUSCH transmission, a new data indicator, NDI, indicating new PUSCH transmission or PUSCH retransmission, wherein the NDI is defined based on a maximum number of schedulable PUSCHs and one bit of the NDI corresponds to one PUSCH, and a redundancy version, wherein the redundancy version is defined based on the maximum number of schedulable PUSCHs; and perform the PUSCH transmissions based on the DCI. a transceiver; and a controller configured to: receive, from a base station, downlink control information, DCI, for scheduling physical uplink shared channel, PUSCH, transmissions, wherein the DCI indicates: a number of the PUSCH transmissions, an offset for a first PUSCH transmission, a hybrid automatic repeat request, HARQ, process number which applies to the first PUSCH transmission, a new data indicator, NDI, indicating new PUSCH transmission or PUSCH retransmission, wherein the NDI is defined based on a maximum number of schedulable PUSCHs and one bit of the NDI corresponds to one PUSCH, and a redundancy version, wherein the redundancy version is defined based on the maximum number of schedulable PUSCHs; and perform the PUSCH transmissions based on the DCI. a number of the PUSCH transmissions, an offset for a first PUSCH transmission, a hybrid automatic repeat request, HARQ, process number which applies to the first PUSCH transmission, a new data indicator, NDI, indicating new PUSCH transmission or PUSCH retransmission, wherein the NDI is defined based on a maximum number of schedulable PUSCHs and one bit of the NDI corresponds to one PUSCH, and a redundancy version, wherein the redundancy version is defined based on the maximum number of schedulable PUSCHs; and perform the PUSCH transmissions based on the DCI.
A method for calibrating a device for authenticating a physical token, responses of the physical token being susceptible to noise and perturbations, the method comprising: - the device probing the physical token with a calibration challenge, - obtaining a response from the physical token, - retrieving a retrieved response, the retrieved response having been obtained from the physical token by probing it with the calibration challenge, - matching the response obtained against the retrieved response - only if the response obtained matches against the retrieved response: - probing the physical token with an authentication challenge, the authentication challenge being different from the calibration challenge, - obtaining a further response from the physical token. - the device probing the physical token with a calibration challenge, - obtaining a response from the physical token, - retrieving a retrieved response, the retrieved response having been obtained from the physical token by probing it with the calibration challenge, - matching the response obtained against the retrieved response - only if the response obtained matches against the retrieved response: - probing the physical token with an authentication challenge, the authentication challenge being different from the calibration challenge, - obtaining a further response from the physical token. - probing the physical token with an authentication challenge, the authentication challenge being different from the calibration challenge, - obtaining a further response from the physical token.
A MEMS microphone, comprising: an output interface for providing an output signal of the MEMS microphone, and a memory, a clock configured to provide a clock signal having a clock frequency, a clock divider configured to divide the clock frequency of the clock signal by two in order to obtain a clock divided by two signal, wherein the output interface is configured to provide, in a normal mode of operation, a microphone signal as the output signal of the MEMS microphone, wherein the output interface is configured to provide, in an initialization mode of operation, a data signal as the output signal of the MEMS microphone, wherein the data signal carries an information stored in the memory, wherein the data signal is a binary signal, wherein the output interface is configured to provide, in the initialization mode of operation, during one time interval of the initialization mode of operation the data signal as the output signal and during at least one other time interval of the initialization mode of operation the clock divided by two signal as the output signal, wherein the information stored in the memory comprises an ID of the MEMS microphone, and/or wherein the information stored in the memory comprises at least one parameter dependent on an acoustic characteristic of the MEMS microphone, wherein the MEMS microphone comprises a MEMS microphone unit, wherein the microphone signal depends on a signal provided by the MEMS microphone unit. an output interface for providing an output signal of the MEMS microphone, and a memory, a clock configured to provide a clock signal having a clock frequency, a clock divider configured to divide the clock frequency of the clock signal by two in order to obtain a clock divided by two signal, wherein the output interface is configured to provide, in a normal mode of operation, a microphone signal as the output signal of the MEMS microphone, wherein the output interface is configured to provide, in an initialization mode of operation, a data signal as the output signal of the MEMS microphone, wherein the data signal carries an information stored in the memory, wherein the data signal is a binary signal, wherein the output interface is configured to provide, in the initialization mode of operation, during one time interval of the initialization mode of operation the data signal as the output signal and during at least one other time interval of the initialization mode of operation the clock divided by two signal as the output signal, wherein the information stored in the memory comprises an ID of the MEMS microphone, and/or wherein the information stored in the memory comprises at least one parameter dependent on an acoustic characteristic of the MEMS microphone, wherein the MEMS microphone comprises a MEMS microphone unit, wherein the microphone signal depends on a signal provided by the MEMS microphone unit.
A system for imaging a target object, said system comprising: - a first unmanned vehicle comprising a source of penetrating radiation, said first unmanned vehicle being adapted for positioning said source such as to direct said penetrating radiation toward said target object, - a second unmanned vehicle comprising a detector, wherein the first and the second unmanned vehicle are autonomous vehicles adapted for independent propelled motion, wherein each of the first and the second unmanned vehicle comprises a positioning unit for detecting a position of the corresponding vehicle, the system further comprising a processing unit for controlling said propelled motion of the first and the second unmanned vehicle, characterized in that the source of penetrating radiaton comprises an X-ray tube for producing X-ray radiation and/or a gamma radiation source, said detector is a detector adapted for registering a spatial distribution of intensities of said penetrating radiation after being transmitted through the target object, the spatial distribution being referred to as an image, and the processing unit being adapted for controlling said propelled motion of the first and the second unmanned vehicle such as to acquire at least two images using said detector corresponding to at least two different projection directions of said penetrating radiation through the target object, said processing unit being further adapted for generating data representative of an internal structure of said target object from said at least two images. - a first unmanned vehicle comprising a source of penetrating radiation, said first unmanned vehicle being adapted for positioning said source such as to direct said penetrating radiation toward said target object, - a second unmanned vehicle comprising a detector,
Self-propelled vehicle operated by a driver for collecting, possibly processing, and distributing fragmented, especially granular and/or fibrous products, comprising a mixing container, a loader arm, fitted with a pick-up element at its free end and equipped with a transfer device for transferring the products picked up by the element to the container and a powered rolling frame carrying, in particular, the aforementioned container and arm, as well as a driver's cab, said vehicle having, in particular, an operational operating mode called "loading mode" for filling the container with the loader arm and an operating mode called "distribution mode" for unloading the products in the container; vehicle characterised in that it comprises a regulating device for the advancement force provided by the powered rolling frame, configured to be active when the pick-up element is activated by the driver in the loading mode and/or when a brake pedal is pressed in the loading or distribution mode.
An engine comprising: a housing defining an annular bore, a piston assembly disposed within the annular bore and configured to be coupled to a drive mechanism, a valve (30; 130) configured to be moveably disposed within the annular bore for pivoting between a first position to allow the piston assembly to travel within the annular bore from a first location proximate to the valve (30; 130) to a second location distal to the valve (30; 130), and a second position to define a combustion chamber relative to the piston assembly at the second location, and a toggling mechanism coupled to a first end of the valve (30; 130) and configured to generate a first rotational load on the first end of the valve (30; 130) to pivot the valve (30; 130) toward the first position, and to generate a second rotational load on the first end of the valve (30; 130), the second rotational load opposing the first rotational load to pivot the valve (30; 130) toward the second position, characterized in that the toggling mechanism comprises a conjugate splined barrel cam, a rocker arm operatively coupled to the conjugate splined barrel cam, and a valve support extending along a longitudinal axis of the valve (30; 130) and being coupled to the first end of the valve (30; 130) and to the rocker arm. a housing defining an annular bore, a piston assembly disposed within the annular bore and configured to be coupled to a drive mechanism, a valve (30; 130) configured to be moveably disposed within the annular bore for pivoting between a first position to allow the piston assembly to travel within the annular bore from a first location proximate to the valve (30; 130) to a second location distal to the valve (30; 130), and a second position to define a combustion chamber relative to the piston assembly at the second location, and a toggling mechanism coupled to a first end of the valve (30; 130) and configured to generate a first rotational load on the first end of the valve (30; 130) to pivot the valve (30; 130) toward the first position, and to generate a second rotational load on the first end of the valve (30; 130), the second rotational load opposing the first rotational load to pivot the valve (30; 130) toward the second position, characterized in that the toggling mechanism comprises a conjugate splined barrel cam, a rocker arm operatively coupled to the conjugate splined barrel cam, and a valve support extending along a longitudinal axis of the valve (30; 130) and being coupled to the first end of the valve (30; 130) and to the rocker arm.
Hob device, in particular induction hob device, having at least one housing unit (12; 12b) which comprises at least one housing base (14; 14b) and at least one housing insert (16; 16b), and having at least one connection unit (18; 18b) which is provided to connect the housing base (14; 14b) and the housing insert (16; 16b) to one another, wherein the connection unit (18; 18b) is embodied as a latching unit and wherein the housing insert (16; 16b) forms, at least in the installed state, at least one underside of an external housing, characterised in that the housing insert (16; 16b) is provided at least for an electrical insulation of components.