mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a coordinating node, for providing at least one current analysis result relating to a link between a first node and a second node, wherein the link comprises a plurality of segments (201, 202, 203, 204, 205), the segments connecting intermediate nodes (102, 103, 104, 105) of the link, wherein the coordinating node is one of the intermediate nodes, wherein the method comprises: obtaining a set of previous analysis results relating to at least one segment of the link, wherein each previous analysis result relates to whether said at least one segment is unreliable or reliable, identifying a set of unreliable segments based on the set of previous analysis results and based on a condition for defining any segment as unreliable, performing a respective analysis of each unreliable segment of the set of unreliable segments to obtain a respective current analysis result for said each unreliable segment, after performing the analysis of each unreliable segment of the set of unreliable segments, identifying a set of reliable segments based on the set of previous analysis results and based on the condition, performing a respective analysis of each reliable segment to obtain a respective current further analysis result for said each reliable segment, and sending, to the first node, the respective current analysis result. obtaining a set of previous analysis results relating to at least one segment of the link, wherein each previous analysis result relates to whether said at least one segment is unreliable or reliable, identifying a set of unreliable segments based on the set of previous analysis results and based on a condition for defining any segment as unreliable, performing a respective analysis of each unreliable segment of the set of unreliable segments to obtain a respective current analysis result for said each unreliable segment, after performing the analysis of each unreliable segment of the set of unreliable segments, identifying a set of reliable segments based on the set of previous analysis results and based on the condition, performing a respective analysis of each reliable segment to obtain a respective current further analysis result for said each reliable segment, and sending, to the first node, the respective current analysis result.
A method of provisioning a module with cryptographic parameters, wherein the module comprises a first nonvolatile memory (115, 135), a second, nonvolatile memory (115, 135) and a processor (125, 140), the method comprising: storing a first cryptographic key in at least one of the first memory and the second, nonvolatile memory; and storing a first program encrypted using the first cryptographic key in at least one of the first nonvolatile memory and the second nonvolatile memory, wherein the first program is configured to: generate, within the module and using the processor, a second cryptographic key and a third cryptographic key; encrypt, within the module, the second cryptographic key using the third cryptographic key, whereby encrypting the second cryptographic key with the third cryptographic key generates an encrypted second cryptographic key and an encryption authentication tag; store, within the first nonvolatile memory, the encrypted second cryptographic key and the encryption authentication tag; and store, within the second nonvolatile memory, the third cryptographic key. storing a first cryptographic key in at least one of the first memory and the second, nonvolatile memory; and storing a first program encrypted using the first cryptographic key in at least one of the first nonvolatile memory and the second nonvolatile memory, wherein the first program is configured to: generate, within the module and using the processor, a second cryptographic key and a third cryptographic key; encrypt, within the module, the second cryptographic key using the third cryptographic key, whereby encrypting the second cryptographic key with the third cryptographic key generates an encrypted second cryptographic key and an encryption authentication tag; store, within the first nonvolatile memory, the encrypted second cryptographic key and the encryption authentication tag; and store, within the second nonvolatile memory, the third cryptographic key. generate, within the module and using the processor, a second cryptographic key and a third cryptographic key; encrypt, within the module, the second cryptographic key using the third cryptographic key, whereby encrypting the second cryptographic key with the third cryptographic key generates an encrypted second cryptographic key and an encryption authentication tag; store, within the first nonvolatile memory, the encrypted second cryptographic key and the encryption authentication tag; and store, within the second nonvolatile memory, the third cryptographic key.
Test system for determining an enzymatic activity of bacteria after ammonia comprises a base with a viewing window for viewing the results. A reactive element is arranged on the base. The reactive element consists of an indicator layer and a sensitive layer. The indicator layer overlays the viewing window. The sensitive layer contains a substrate for detecting enzymatic activity. The test system is characterized in that a fixing sheet is additionally arranged on the substrate. The fixing sheet is intended for the arrangement of the biological material to be tested on the sensitive layer of the reactive element. The fixing sheet has an opening. The size of the fixing sheet ensures the attachment of the sensitive layer. A cover sheet is arranged on the fixing sheet. The cover sheet is covered with a resealable fixing coating on the side facing the fixing sheet. The facing surfaces of the backing and the fixing sheet are bonded together by means of an adhesive layer. The reactive element is organized in such a way that the area of the sensitive layer is larger than the area of the opaque indicator layer. The sensitive layer is designed as a semi-permeable hydrophobic membrane. The indicator layer contains an ammonia-sensitive indicator. The base, the fixing sheet and the cover sheet are made of an impermeable, hydrophobic material. The thicknesses of the backing, the fixing sheet and the cover sheet as well as the thickness of each of the layers of the reactive element are in the range of 50 to 300 μm.
An apparatus comprising: a power supply to connect to a power source, the power supply to receive and to distribute a total power from the power source; a first device to receive a first portion of the total power from the power supply; a second device to receive a second portion of the total power from the power supply, wherein a sum of the first portion and the second portion is the total power; and a controller to control the second device, wherein the controller is to determine the total power demanded by the first device and the second device based on a calculation of an average total power via a measurement of the total power over a period of time, the controller to reduce the second portion of the total power if the total power is above an upper threshold value, and the controller to restore the second portion of the total power if the total power is below a lower threshold value. a power supply to connect to a power source, the power supply to receive and to distribute a total power from the power source; a first device to receive a first portion of the total power from the power supply; a second device to receive a second portion of the total power from the power supply, wherein a sum of the first portion and the second portion is the total power; and a controller to control the second device, wherein the controller is to determine the total power demanded by the first device and the second device based on a calculation of an average total power via a measurement of the total power over a period of time, the controller to reduce the second portion of the total power if the total power is above an upper threshold value, and the controller to restore the second portion of the total power if the total power is below a lower threshold value.
Industrial truck for conveying an object, wherein the industrial truck is designed to drive in beneath the object, comprising: - a loading surface, designed to accommodate the object, - a lifting device for raising the loading surface, characterized in that it also comprises: - a cab body, which is arranged at a first end of the loading surface, - a first sensor, which is designed to sense a first distance between the cab body and an object located above and/or on the loading surface, - a control unit, which is designed to actuate the lifting device on the basis of the first distance established by means of the first sensor, in order to raise the loading surface, and - a second sensor, which is designed to sense a second distance between the object and a second end of the loading surface during approach towards the object, wherein the control unit is designed to implement approach towards the object on the basis of the second distance established by means of the second sensor. - a loading surface, designed to accommodate the object, - a lifting device for raising the loading surface, characterized in that it also comprises: - a cab body, which is arranged at a first end of the loading surface, - a first sensor, which is designed to sense a first distance between the cab body and an object located above and/or on the loading surface, - a control unit, which is designed to actuate the lifting device on the basis of the first distance established by means of the first sensor, in order to raise the loading surface, and - a second sensor, which is designed to sense a second distance between the object and a second end of the loading surface during approach towards the object, wherein the control unit is designed to implement approach towards the object on the basis of the second distance established by means of the second sensor.
A method for operating a rotating head system, wherein the rotating head system comprises a head which is configured to be rotated around a rotation point; wherein the method comprises, - rotating the head around the rotation point into K different orientations (211, 212, 213, 214) such that a front face of the head faces K different cameras (201, 202, 203, 204), respectively, with K > 3, which are arranged at K different angles (231, 232, 233, 234) around the rotation point, respectively; - capturing K images using the K different cameras (201, 202, 203, 204), respectively; - determining K deviations of the reference point on the front face of the head from the target position within the K images, respectively; - determining an offset of an actual pose of the head from the target pose based on the K deviations using a pre-determined transformation matrix; and - operating the head in dependence of the offset; characterized by the steps: - determining a deviation vector indicative of the K deviations of the reference point of the head from the target position; and - multiplying the deviation vector with the transformation matrix to determine an offset vector, wherein the offset vector is indicative of a translational offset and/or a rotational offset of an actual pose of the head from the target pose. - rotating the head around the rotation point into K different orientations (211, 212, 213, 214) such that a front face of the head faces K different cameras (201, 202, 203, 204), respectively, with K > 3, which are arranged at K different angles (231, 232, 233, 234) around the rotation point, respectively; - capturing K images using the K different cameras (201, 202, 203, 204), respectively; - determining K deviations of the reference point on the front face of the head from the target position within the K images, respectively; - determining an offset of an actual pose of the head from the target pose based on the K deviations using a pre-determined transformation matrix; and - operating the head in dependence of the offset; - determining a deviation vector indicative of the K deviations of the reference point of the head from the target position; and - multiplying the deviation vector with the transformation matrix to determine an offset vector, wherein the offset vector is indicative of a translational offset and/or a rotational offset of an actual pose of the head from the target pose.
A cycle crankset, comprising - independent cranks (11, 12) articulated about a crank axis (x) and each having a pedal axis (w, t), - a cam, and - a chainring assembly (4, 17) pivotably mounted around the cam, about an axis parallel to the crank axis, the cranks (11, 12) being connected to said chainring assembly (4, 17) by means of connecting rods (5, 6), each articulation point (n) between one of said cranks (11, 12) and one of said connecting rods (5, 6) being located on the portion of the crank opposite the pedal axis (w, t), relative to the crank axis (x), characterized in that said cam is pivotably mounted about said crank axis (x), the pivoting of said cam about said crank axis (x) not being blocked, and the position of the chainring assembly (4, 17) can vary during pedaling, allowing it to self-position. - independent cranks (11, 12) articulated about a crank axis (x) and each having a pedal axis (w, t), - a cam, and - a chainring assembly (4, 17) pivotably mounted around the cam, about an axis parallel to the crank axis, the cranks (11, 12) being connected to said chainring assembly (4, 17) by means of connecting rods (5, 6), each articulation point (n) between one of said cranks (11, 12) and one of said connecting rods (5, 6) being located on the portion of the crank opposite the pedal axis (w, t), relative to the crank axis (x), characterized in that said cam is pivotably mounted about said crank axis (x), the pivoting of said cam about said crank axis (x) not being blocked, and the position of the chainring assembly (4, 17) can vary during pedaling, allowing it to self-position.
A device for insertion into the gap between two adjacent vertebral bodies, comprising: an elongate interconnecting member a distal retention plate comprising a distal outboard surface and a proximal inboard surface, said distal retention plate having a distal part of the interconnecting member secured in normal relation thereto and extending proximally therefrom; a proximal retention plate comprising a distal inboard surface and a proximal outboard surface, said proximal retention plate having a proximal part of the interconnecting member secured in normal relation thereto and extending distally therefrom; said distal part of the interconnecting member of said distal retention plate being telescopically mounted to said proximal part of the interconnecting member of said proximal retention plate to form the interconnecting member for selectively moving said distal retention plate away from, or toward, said proximal retention plate, and for selectively rotating said distal retention plate relative to said proximal retention plate and for selectively rotating said proximal retention plate relative to said distal retention plate; wherein said device is adapted for being inserted into the gap between two adjacent vertebral bodies and the interconnecting member has a maximum length sufficient to span the proximal-to-distal extent of the gap and to allow the proximal and distal retention plates to be positioned outside of the gap and a minimum length sufficient to enable the distal and proximal retention plates to tightly grip the adjacent bodies in sandwiched relation between them.. an elongate interconnecting member a distal retention plate comprising a distal outboard surface and a proximal inboard surface, said distal retention plate having a distal part of the interconnecting member secured in normal relation thereto and extending proximally therefrom; a proximal retention plate comprising a distal inboard surface and a proximal outboard surface, said proximal retention plate having a proximal part of the interconnecting member secured in normal relation thereto and extending distally therefrom; said distal part of the interconnecting member of said distal retention plate being telescopically mounted to said proximal part of the interconnecting member of said proximal retention plate to form the interconnecting member for selectively moving said distal retention plate away from, or toward, said proximal retention plate, and for selectively rotating said distal retention plate relative to said proximal retention plate and for selectively rotating said proximal retention plate relative to said distal retention plate; wherein said device is adapted for being inserted into the gap between two adjacent vertebral bodies and the interconnecting member has a maximum length sufficient to span the proximal-to-distal extent of the gap and to allow the proximal and distal retention plates to be positioned outside of the gap and a minimum length sufficient to enable the distal and proximal retention plates to tightly grip the adjacent bodies in sandwiched relation between them..
- A system for tracing a surgical instrumentation system, with said system consisting of a set of disposable instruments for fitting implants and at least one set of sterile implants (2, 3), with each one of said sets comprising one identifier, with a first one of said sets (2, 3) containing a unique identifier enabling the identification of the set comprising the unique identifier, with the second set (3, 2) including at least one identifier on a transferable medium, with the first set comprising a medium for recording additional identifiers consisting of a sheet bearing an identifier taking up the unique identifier, with said sheet being contained inside the first set, with one of said additional identifiers possibly being a code associated with a patient, collected upon using said set, with at least another additional identifier being the identifier on a transferable medium (5, 6) of the second set, with said identifier on a transferable medium (5, 6) being intended to be transferred onto said additional identifiers recording medium upon using the second set.
A method for feeding back Channel State Information, CSI, by a User Equipment, UE, the method comprising: determining at least one set of CSI feedback configurations configured by a base station according to an indication of the base station, wherein each set of CSI feedback configurations comprises at least one CSI feedback configuration, and the CSI feedback configuration is a downlink signal configuration for downlink CSI measurement and feedback; and reporting CSI obtained based upon a first CSI feedback configuration to the base station over a Physical Uplink Control Channel, PUCCH, or a Physical Uplink Shared Channel, PUSCH, upon determining that the CSI needs to be reported, wherein the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported index of the CSI feedback configuration in a corresponding set of CSI feedback configurations, or the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported sequence corresponding to the set of CSI feedback configurations to which the CSI feedback configuration belongs to, wherein a bit corresponding to the CSI feedback configuration is set to a preset bit in the sequence. determining at least one set of CSI feedback configurations configured by a base station according to an indication of the base station, wherein each set of CSI feedback configurations comprises at least one CSI feedback configuration, and the CSI feedback configuration is a downlink signal configuration for downlink CSI measurement and feedback; and reporting CSI obtained based upon a first CSI feedback configuration to the base station over a Physical Uplink Control Channel, PUCCH, or a Physical Uplink Shared Channel, PUSCH, upon determining that the CSI needs to be reported, wherein the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported index of the CSI feedback configuration in a corresponding set of CSI feedback configurations, or the first CSI feedback configuration is a CSI feedback configuration determined by the UE from a corresponding set of CSI feedback configurations according to a most recently reported sequence corresponding to the set of CSI feedback configurations to which the CSI feedback configuration belongs to, wherein a bit corresponding to the CSI feedback configuration is set to a preset bit in the sequence.
A method for purifying compounds containing phosphonic acid and/or phosphonate groups in phosphonate ion exchangers with aminomethylphosphonic acid and/or aminomethylphosphonate functionalities, characterized in that they are contacted in alkaline medium with a compound containing hydroxyl groups, and fructose or glucose are used as a compound containing hydroxyl groups, and the concentration of the compound containing hydroxyl groups in the alkaline medium is between 1 wt% and 4 wt%.
Strain relief arrangement for a connecting cable, comprising a threaded pin, clamping tongues on the free end of the threaded pin, a union nut for screwing onto the threaded pin, a portion of enlarged diameter (10, 11) on the threaded pin for abutment against a surface of a carrier element, as well as a projection to be inserted and fastened in an opening of the carrier element, wherein the strain relief arrangement comprises a passage bore for the connecting cable to pass through, and in which the clamping tongues can be moved radially inward and can also be pressed against an outer periphery of the connecting cable by screwing the union nut onto the threaded pin, in order to effect the strain relief of the connecting cable, wherein the projection is of non-round or polygonal design with radially larger and smaller regions (16, 17), wherein the opening of the carrier element is embodied geometrically complementary (7, 8) to the unround or polygonal projection, wherein the at least one radially enlarged region of the unround or polygonal projection is to be provided at least partially with at least one peripheral groove adjacent to the portion of enlarged diameter (10, 11), wherein the axial width of the peripheral groove corresponds to the thickness of the carrier element in the region of the opening, and wherein the radial depth of the peripheral groove corresponds to the radial dimension of the at least one radial smaller region of the projection such that the projection can be guided into the complementary opening of the carrier element and can be fastened by rotation in the complementary opening on the carrier element, wherein a region of the portion of enlarged diameter (10, 11) is embodied on the strain relief arrangement as a circular flange, the diameter of which is greater than the largest radial extension of the opening of the carrier element, and wherein the circular flange comprises a latching pin facing the surface of the carrier element that can be latched in at least one depression in the surface of the carrier element, and wherein the radially enlarged region of the projection consists of two radially opposing circular portions circular segments with the common center point of the longitudinal axis of the bore for the connecting cable, in that the radially smaller region of the projection consists of parallel, radially opposing flattened portions, and in that in each radially enlarged region a peripheral groove is embodied.