mhurhangee/ep-ind-claims huggingface dataset:
Fuel injector, in particular common-rail injector, having an injector housing which is insertable into a receiving opening of a cylinder head of an internal combustion engine and which, in the installed position, has a first region facing towards a combustion chamber of the internal combustion engine, which first region is adjoined, on the side averted from the combustion chamber, by at least one second region (17, 18) of enlarged diameter, wherein the first region is composed of metal and is radially surrounded, on the side facing towards the combustion chamber, by a first sealing element which is insertable into the ring-shaped space between the first region of the injector housing and the receiving opening in the region of a first bore section of the receiving bore, and having a second sealing element which, on the side averted from the combustion chamber, can be clamped axially between the injector housing and an abutment surface of the receiving opening for the injector housing, wherein the first sealing element can be clamped axially between the injector housing and a second abutment surface of the receiving opening and is designed to seal off the ring-shaped region between the injector housing and the receiving bore on that side of the first sealing element which is averted from the first region, characterized in that the two sealing elements (36, 37) are formed on one component in the form of a sealing sleeve composed of metal, such that the sealing sleeve, on the face side facing towards the combustion chamber of the internal combustion engine, has a conically formed first sealing region as a first sealing element, whereas the flange-like encircling rim at the other face side of the sealing sleeve forms a second sealing region or a second sealing element.
A method of securing user privacy in a digital identity system, the method comprising: receiving personal data of the user; receiving a commitment of the personal data according to a commitment scheme; and engaging in an interactive zero-knowledge proof with the user so as to verify that the commitment of the personal data opens to the personal data of the user, thereby generating a deniable commitment of the personal data of a user with an unlinkable proof of the commitment of the personal data, characterized by the personal data being unlinkable to the commitment of the personal data, even if the personal data is leaked, and in that the commitment of the personal data was computed as a Pedersen commitment as c i = g d i * h x i, wherein g and h are prime order generators, d i represents a hash of the personal data i and x i represents as associated secret required to open the commitment, and in that the interactive zero-knowledge proof is a Schnorr proof which comprises: receiving t = h r for a randomly selected r from the user; replying to the user with a randomly selected challenge c; receiving a response s = r + c * x i; verifying that h s = t * y c to be convinced of the opening of the commitment c i; and recomputing y = c i g d i in order to retrieve h x i = g d i ∗ h x i g d i = c i g d i = y. receiving personal data of the user; receiving a commitment of the personal data according to a commitment scheme; and engaging in an interactive zero-knowledge proof with the user so as to verify that the commitment of the personal data opens to the personal data of the user, thereby generating a deniable commitment of the personal data of a user with an unlinkable proof of the commitment of the personal data, characterized by the personal data being unlinkable to the commitment of the personal data, even if the personal data is leaked, and in that the commitment of the personal data was computed as a Pedersen commitment as c i = g d i * h x i, wherein g and h are prime order generators, d i represents a hash of the personal data i and x i represents as associated secret required to open the commitment, and in that the interactive zero-knowledge proof is a Schnorr proof which comprises: receiving t = h r for a randomly selected r from the user; replying to the user with a randomly selected challenge c; receiving a response s = r + c * x i; verifying that h s = t * y c to be convinced of the opening of the commitment c i; and recomputing y = c i g d i in order to retrieve h x i = g d i ∗ h x i g d i = c i g d i = y. receiving t = h r for a randomly selected r from the user; replying to the user with a randomly selected challenge c; receiving a response s = r + c * x i; verifying that h s = t * y c to be convinced of the opening of the commitment c i; and recomputing y = c i g d i in order to retrieve h x i = g d i ∗ h x i g d i = c i g d i = y.
Apparatus for controlling a position (x,y,z) of a medical device in a workspace, with the medical device comprising a transmit facility for emitting a signal, having - one or several receiving devices for receiving the signal, - a reference signal source for generating a reference signal and - a signal processing facility for determining phase differences (Δφ 1, Δφ 2, Δφ 3,...) based on the signals (SE11-SE14) received at the receiving devices and the reference signal, with - the receiving devices and the reference signal source for transmitting the received signals (SE11-SE14) and the reference signal being connected to the signal processing facility, - a control facility and - a manoeuvring apparatus, with - the signal processing facility for transmitting the phase differences (Δφ 1, Δφ 2, Δφ 3,...) being connected to the control facility and - the control facility controlling the manoeuvring apparatus for influencing the position (x,y,z) of the medical device as a function of the phase differences (Δφ 1,Δ φ 2, Δφ 3,...), characterised in that - the manoeuvring apparatus is a coil arrangement for the contactless guidance of the medical device, - the manoeuvring apparatus is embodied cylindrical and - the receiving devices are accommodated in an interior of the cylindrical manoeuvring apparatus. - one or several receiving devices for receiving the signal, - a reference signal source for generating a reference signal and - a signal processing facility for determining phase differences (Δφ 1, Δφ 2, Δφ 3,...) based on the signals (SE11-SE14) received at the receiving devices and the reference signal, - the receiving devices and the reference signal source for transmitting the received signals (SE11-SE14) and the reference signal being connected to the signal processing facility, - a control facility and - a manoeuvring apparatus, with - the signal processing facility for transmitting the phase differences (Δφ 1, Δφ 2, Δφ 3,...) being connected to the control facility and - the control facility controlling the manoeuvring apparatus for influencing the position (x,y,z) of the medical device as a function of the phase differences (Δφ 1,Δ φ 2, Δφ 3,...), - the manoeuvring apparatus is a coil arrangement for the contactless guidance of the medical device, - the manoeuvring apparatus is embodied cylindrical and - the receiving devices are accommodated in an interior of the cylindrical manoeuvring apparatus.
Method for building at least one security image for a security structure of a security document from the multiplexing of color images (62, 64, 66, 68, 70), the method comprising the following steps: - selecting a marking method capable of producing sets of colors on the security document comprising different colors that can be displayed according to illumination and observation modes of the security structure, then, for example by means of a calculator, - establishing a plurality of sets of colors by physical measurement that can be displayed by the security structure in different illumination and observation modes, - distributing sets of colors comprising the different colors produced by the marking technique, in a plurality of groups of color sets, said different colors being measured, the method being characterized by comprising the following steps: - establishing combinations of groups of color sets having at least one color set in common according to the number of different illumination and observation modes and the number of colors per image, - selecting a combination of a group of color sets according to the number of desired illumination and observation modes and the number of colors per image, and determining the images to multiplex by means of the combination of the group of color sets selected. - selecting a marking method capable of producing sets of colors on the security document comprising different colors that can be displayed according to illumination and observation modes of the security structure, then, for example by means of a calculator, - establishing a plurality of sets of colors by physical measurement that can be displayed by the security structure in different illumination and observation modes, - distributing sets of colors comprising the different colors produced by the marking technique, in a plurality of groups of color sets, said different colors being measured, the method being characterized by comprising the following steps: - establishing combinations of groups of color sets having at least one color set in common according to the number of different illumination and observation modes and the number of colors per image, - selecting a combination of a group of color sets according to the number of desired illumination and observation modes and the number of colors per image, and determining the images to multiplex by means of the combination of the group of color sets selected.
A guard for a compressor valve assembly comprising: a plurality of springs; a plurality of guide pins attached to the bottom of the guard and extending out the springs internally; a plurality of seal elements attached to the guide pins, wherein the seal elements comprise a socket defining an opening to receive a guide pin, wherein the seal elements comprise a seal head disposed on one end of the socket, wherein the seal elements comprise a spring landing area residing on top of a spring, and wherein the guide pins are configured to guide a movement of the seal elements along the guide pins such that the seal heads of the seal elements move toward inlet holes of a seat of the compressor valve assembly when the springs extend and move away from the inlet holes when the springs are compressed during an operation of the compressor valve assembly, the guard further comprising a plurality of outlet passages disposed between the seal elements. a plurality of springs; a plurality of guide pins attached to the bottom of the guard and extending out the springs internally; a plurality of seal elements attached to the guide pins, wherein the seal elements comprise a socket defining an opening to receive a guide pin, wherein the seal elements comprise a seal head disposed on one end of the socket, wherein the seal elements comprise a spring landing area residing on top of a spring, and wherein the guide pins are configured to guide a movement of the seal elements along the guide pins such that the seal heads of the seal elements move toward inlet holes of a seat of the compressor valve assembly when the springs extend and move away from the inlet holes when the springs are compressed during an operation of the compressor valve assembly, the guard further comprising a plurality of outlet passages disposed between the seal elements.
Assembly of a first longitudinal reinforcement insert and a second longitudinal reinforcement insert joined together by a polymer material at least partially covering them, each reinforcement insert (10, 12) having a concave open cross section, notably being substantially U- or Q-shaped, the longitudinal directions of said reinforcement inserts (12, 14) being substantially perpendicular, characterized in that: - an edge of one end of the first reinforcement insert presses against the second reinforcement insert on the convex side thereof, along a part (18a-c) of one edge of an opening passing through said second reinforcement insert, said opening having a shape and dimensions identical or substantially identical to the shape and dimensions of the cross section of said end of the first reinforcement insert, - a polymer material at least partially covers said reinforcement inserts (12, 14) at least at their junction, - a securing tab integral with said second reinforcement insert and adjacent to said opening presses against a wall of said end of the first reinforcement insert, said wall and said securing tab being pierced by orifices (13a, 13b; 20a, 20b) disposed in a manner facing one another. - an edge of one end of the first reinforcement insert presses against the second reinforcement insert on the convex side thereof, along a part (18a-c) of one edge of an opening passing through said second reinforcement insert, said opening having a shape and dimensions identical or substantially identical to the shape and dimensions of the cross section of said end of the first reinforcement insert, - a polymer material at least partially covers said reinforcement inserts (12, 14) at least at their junction, - a securing tab integral with said second reinforcement insert and adjacent to said opening presses against a wall of said end of the first reinforcement insert, said wall and said securing tab being pierced by orifices (13a, 13b; 20a, 20b) disposed in a manner facing one another.
A diagnostic system for detecting and transmitting a sensor value concerning an operational condition of a system component to an external reception and/or transmission device for monitoring the operational condition of a lubricant in a lubricant container, the diagnostic system comprising: ▪ at least one sensor device comprising at least one sensor for generating sensor signals corresponding to the respective first operational condition, ▪ a control device comprising a timer and a function for the performance of measurements by means of the sensor device at predetermined points of time or at predetermined time intervals, ▪ a signal transmission device for receiving the sensor signals from the sensor device and for signal transmission of the sensor signals of the sensor device to an external reception and/or transmission device, ▪ a power supply device for supplying electric energy to the sensor device and to the signal transmission device, wherein the diagnostic system comprises a device for the determination of a second operational condition of the system component, characterized in that the control function is realized such that at the predetermined points of time or at the predetermined time intervals it performs a detection of the second operational condition of the transmission mechanism and compares it to a predetermined comparative value and only provides the sensor value corresponding to the respective first operational condition to the signal transmission device if it is higher or lower than this comparative value. ▪ at least one sensor device comprising at least one sensor for generating sensor signals corresponding to the respective first operational condition, ▪ a control device comprising a timer and a function for the performance of measurements by means of the sensor device at predetermined points of time or at predetermined time intervals, ▪ a signal transmission device for receiving the sensor signals from the sensor device and for signal transmission of the sensor signals of the sensor device to an external reception and/or transmission device, ▪ a power supply device for supplying electric energy to the sensor device and to the signal transmission device,
A method of executing, with a data processing apparatus comprising a processor, a neural network which is partitioned into a plurality of frustums processed independently, wherein each frustum has a rectangular intersection, defining a tile, with each feature map set of the neural network, the method comprising: for each of the plurality of input tiles (108-1, 108-2, 108-3, 108-4) to a first layer of the neural network: generating, using the processor, an output tile (110-1, 110-2, 110-3, 110-4) of the first layer of the neural network by processing an input tile (108-1, 108-2, 108-3, 108-4) to the first layer; storing, using the processor, the output tile of the first layer in an internal memory of the processor; and generating, using the processor, an output tile (112-1, 112-2, 112-3, 112-4) of a second layer of the neural network by processing the output tile of the first layer stored in the internal memory; wherein the frustums partition each feature map set of the neural network into a respective plurality of non-overlapping, contiguous tiles which are arranged in the form of a matrix, wherein the processor comprises a plurality of compute units which are coupled to the internal memory, and wherein the plurality of compute units process the plurality of frustums in parallel, and characterized in that each row or column of tiles of a same feature map set is traversed by a different one of the plurality of compute units. for each of the plurality of input tiles (108-1, 108-2, 108-3, 108-4) to a first layer of the neural network: generating, using the processor, an output tile (110-1, 110-2, 110-3, 110-4) of the first layer of the neural network by processing an input tile (108-1, 108-2, 108-3, 108-4) to the first layer; storing, using the processor, the output tile of the first layer in an internal memory of the processor; and generating, using the processor, an output tile (112-1, 112-2, 112-3, 112-4) of a second layer of the neural network by processing the output tile of the first layer stored in the internal memory; generating, using the processor, an output tile (110-1, 110-2, 110-3, 110-4) of the first layer of the neural network by processing an input tile (108-1, 108-2, 108-3, 108-4) to the first layer; storing, using the processor, the output tile of the first layer in an internal memory of the processor; and generating, using the processor, an output tile (112-1, 112-2, 112-3, 112-4) of a second layer of the neural network by processing the output tile of the first layer stored in the internal memory; wherein the frustums partition each feature map set of the neural network into a respective plurality of non-overlapping, contiguous tiles which are arranged in the form of a matrix, wherein the processor comprises a plurality of compute units which are coupled to the internal memory, and wherein the plurality of compute units process the plurality of frustums in parallel, and characterized in that each row or column of tiles of a same feature map set is traversed by a different one of the plurality of compute units.
A process for producing an active material for batteries which comprises the steps a) to e) below or consisting of these steps: a) provision of lithium sulfide, b) optionally drying and/or comminution of the lithium sulfide, c) addition of at least one ionic liquid, optionally in a suitable organic solvent, and mixing, d) heating of the mixture, optionally under protective gas, to a temperature above the decomposition temperature of the ionic liquid and below the decomposition temperature of the lithium sulfide particles, as a result of which the at least one ionic liquid decomposes to carbon and the latter deposits as homogeneous layer on the surface of the lithium sulfide particles, e) optionally comminution of the resulting product to break up agglomerates. a) provision of lithium sulfide, b) optionally drying and/or comminution of the lithium sulfide, c) addition of at least one ionic liquid, optionally in a suitable organic solvent, and mixing, d) heating of the mixture, optionally under protective gas, to a temperature above the decomposition temperature of the ionic liquid and below the decomposition temperature of the lithium sulfide particles, as a result of which the at least one ionic liquid decomposes to carbon and the latter deposits as homogeneous layer on the surface of the lithium sulfide particles, e) optionally comminution of the resulting product to break up agglomerates.
A control system for a robotic surgical system, the control system comprising a control circuit configured to: determine actual closure force of a closure member (1040, 1042); compare the actual closure force to a threshold closure force; determine a set point velocity to displace the closure member (1040, 1042) based on the comparison; and control the actual velocity of the closure member (1040, 1042) based on the set point velocity, characterised in that the threshold closure force comprises an upper threshold and a lower threshold, wherein the set point velocity is configured to advance the closure member (1040, 1042) distally when the actual closure force is less than the lower threshold, wherein the set point velocity is configured to retract the closure member (1040, 1042) proximally when the actual closure force is greater than the upper threshold, and wherein the set point velocity is configured to hold the closure member (1040, 1042) in place when the actual closure force is between the upper and lower thresholds. determine actual closure force of a closure member (1040, 1042); compare the actual closure force to a threshold closure force; determine a set point velocity to displace the closure member (1040, 1042) based on the comparison; and control the actual velocity of the closure member (1040, 1042) based on the set point velocity, characterised in that the threshold closure force comprises an upper threshold and a lower threshold, wherein the set point velocity is configured to advance the closure member (1040, 1042) distally when the actual closure force is less than the lower threshold, wherein the set point velocity is configured to retract the closure member (1040, 1042) proximally when the actual closure force is greater than the upper threshold, and wherein the set point velocity is configured to hold the closure member (1040, 1042) in place when the actual closure force is between the upper and lower thresholds.