mhurhangee/ep-ind-claims huggingface dataset:
Method (200, 300, 400) for communication with an NFC-chip of a user identification document, comprising the steps of: - a terminal, trusted to do access control, obtaining (210, 212, 411) protected data from the NFC-chip by communicating with the NFC-chip, wherein obtaining comprises the step of verifying the integrity of the protected data; and - a server verifying genuineness of the NFC-chip communicating (230, 240, 330, 331, 332, 333, 340, 341, 342, 430, 431, 440, 441, 445, 446) via the terminal, wherein the step of verifying genuineness is initiated before (d202, d302, d402) completing the obtaining step, wherein the terminal is trusted to do clone-detection protocol execution but untrusted to do active authentication and passive authentication. - a terminal, trusted to do access control, obtaining (210, 212, 411) protected data from the NFC-chip by communicating with the NFC-chip, wherein obtaining comprises the step of verifying the integrity of the protected data; and - a server verifying genuineness of the NFC-chip communicating (230, 240, 330, 331, 332, 333, 340, 341, 342, 430, 431, 440, 441, 445, 446) via the terminal, wherein the step of verifying genuineness is initiated before (d202, d302, d402) completing the obtaining step,
Wearable injection device for wearable attachment to a body part, for injecting a medication through the skin of the body part in a wearable state, wherein the medication concerns a medication for the treatment of conditions requiring immediate treatment with the medication, such as anaphylaxis or diabetes, the injection device being not thicker than 2 cm, i.e. in a direction perpendicular to the skin, and an outer diameter, i.e. in a direction parallel to the skin of 7-8 cm at maximum, and comprising: - a housing, with a medication space comprising an exchangeable medication container for single use, comprising the medication in the wearable state and an injection side that borders the skin in the wearable state, wherein, in the wearable state, one or more injection members are received in the housing, with an activation means arranged on the medication container to activate the one or more injection members for injecting the medication through the skin on the injection side, in an injection state, - an attachment means, that is connected to the housing in the wearable state and releasably attaches the injection device to the body part, and stably positions the housing with respect to the skin in the injection state, characterized in that the injection side of the housing is provided with a closable opening, that is arranged for allowing the one or more injection members to move towards the skin through this opening in the injection state, wherein the housing is provided with an opening operation means that upon operation thereof by a user causes the closable opening to open. - a housing, with a medication space comprising an exchangeable medication container for single use, comprising the medication in the wearable state and an injection side that borders the skin in the wearable state, wherein, in the wearable state, one or more injection members are received in the housing, with an activation means arranged on the medication container to activate the one or more injection members for injecting the medication through the skin on the injection side, in an injection state, - an attachment means, that is connected to the housing in the wearable state and releasably attaches the injection device to the body part, and stably positions the housing with respect to the skin in the injection state,
An electro-optic liquid sensor comprising: an LED light emitter; an LED light detector; and a prism configured to reflect light emitted from the LED light emitter to the LED light detector, characterized in that at least one of the LED light emitter or LED light detector is also a temperature sensor, wherein a signal conditioning unit is configured to determine the temperature of liquid in a tank. an LED light emitter; an LED light detector; and a prism configured to reflect light emitted from the LED light emitter to the LED light detector, characterized in that at least one of the LED light emitter or LED light detector is also a temperature sensor, wherein a signal conditioning unit is configured to determine the temperature of liquid in a tank.
A fire aim improving hit probability apparatus comprising: - a trigger unit to detect when a trigger of the firearm is engaged, said trigger engagement resulting in firing of a first round from the firearm; characterized in that the fire aim improving hit probability apparatus further comprises: - a detection unit to collect direction data of a direction at which the firearm is directed when the trigger of the firearm is engaged; - a firing processor to improve the hit probability of a shooter firing the firearm, said firing processor being configured to: - designate a vector value when the firing processor receives a signal from the trigger unit that the trigger is engaged, said vector value comprising the direction data; - compare said vector value to a real time direction data; - enable firing of the firearm when the vector value matches the real time direction data within a passing zone; - a storage for storing the vector value designated by the firing processor; and, - an electromagnet to control functions of a sear of the firearm. - a trigger unit to detect when a trigger of the firearm is engaged, said trigger engagement resulting in firing of a first round from the firearm; characterized in that the fire aim improving hit probability apparatus further comprises: - a detection unit to collect direction data of a direction at which the firearm is directed when the trigger of the firearm is engaged; - a firing processor to improve the hit probability of a shooter firing the firearm, said firing processor being configured to: - designate a vector value when the firing processor receives a signal from the trigger unit that the trigger is engaged, said vector value comprising the direction data; - compare said vector value to a real time direction data; - enable firing of the firearm when the vector value matches the real time direction data within a passing zone; - a storage for storing the vector value designated by the firing processor; and, - an electromagnet to control functions of a sear of the firearm. - a detection unit to collect direction data of a direction at which the firearm is directed when the trigger of the firearm is engaged; - a firing processor to improve the hit probability of a shooter firing the firearm, said firing processor being configured to: - designate a vector value when the firing processor receives a signal from the trigger unit that the trigger is engaged, said vector value comprising the direction data; - compare said vector value to a real time direction data; - enable firing of the firearm when the vector value matches the real time direction data within a passing zone; - designate a vector value when the firing processor receives a signal from the trigger unit that the trigger is engaged, said vector value comprising the direction data; - compare said vector value to a real time direction data; - enable firing of the firearm when the vector value matches the real time direction data within a passing zone; - a storage for storing the vector value designated by the firing processor; and, - an electromagnet to control functions of a sear of the firearm.
A valve assembly within an intervention work string used for performing an intervention work task within a wellbore, the valve assembly comprising: a housing defining a flowbore; a plurality of flapper valve assemblies (34, 36) for selectively closing the flowbore, each of the flapper valve assemblies (34, 36) moveable between an open position and a closed position; a valve actuation mechanism for moving each flapper valve assembly (34, 36) between the open and closed positions, the valve actuation mechanism including: a rotatable gear wheel affixed to a rotary shaft; a tubular roller screw member that is disposed within the flowbore and rotatable within the housing, the roller screw member being retained against axial movement within the flowbore by a locking ring; and the roller screw member further has a toothed upper end with teeth which intermesh with teeth on the gear wheel for rotation of the roller screw member. a housing defining a flowbore; a plurality of flapper valve assemblies (34, 36) for selectively closing the flowbore, each of the flapper valve assemblies (34, 36) moveable between an open position and a closed position; a valve actuation mechanism for moving each flapper valve assembly (34, 36) between the open and closed positions, the valve actuation mechanism including: a rotatable gear wheel affixed to a rotary shaft; a tubular roller screw member that is disposed within the flowbore and rotatable within the housing, the roller screw member being retained against axial movement within the flowbore by a locking ring; and the roller screw member further has a toothed upper end with teeth which intermesh with teeth on the gear wheel for rotation of the roller screw member. a rotatable gear wheel affixed to a rotary shaft; a tubular roller screw member that is disposed within the flowbore and rotatable within the housing, the roller screw member being retained against axial movement within the flowbore by a locking ring; and the roller screw member further has a toothed upper end with teeth which intermesh with teeth on the gear wheel for rotation of the roller screw member.
A data transmission method, comprising: when a hybrid automatic repeat request, HARQ, buffer is not empty, selecting, by a user equipment, an uplink resource grant used for previous data transmission to transmit data that needs to be retransmitted; when the HARQ buffer is empty, according to a carrier access manner allowed by the user equipment, selecting, by the user equipment, one current grant of Semi-Persistent scheduling to transmit new data, or multiple current grants of Semi-Persistent scheduling to transmit new data, or one current grant of dynamic scheduling to transmit new data; characterized in that, the according to the carrier access manner allowed by the user equipment, selecting, by the user equipment, one current grant of Semi-Persistent scheduling to transmit new data, or multiple current grants of Semi-Persistent scheduling to transmit new data, or one current grant of dynamic scheduling to transmit new data, comprises: when the HARQ buffer is empty, there are currently N grants of Semi-Persistent scheduling, and the user equipment is not allowed to use a non-single carrier access manner, selecting, by the user equipment, one of the N grants of Semi-Persistent scheduling to transmit new data, wherein the N is an integer greater than 1; or when the HARQ buffer is empty, there are currently N grants of Semi-Persistent scheduling, and the user equipment is allowed to use a non-single carrier access manner, selecting, by the user equipment, multiple grants among the N grants of Semi-Persistent scheduling to transmit new data. when a hybrid automatic repeat request, HARQ, buffer is not empty, selecting, by a user equipment, an uplink resource grant used for previous data transmission to transmit data that needs to be retransmitted; when the HARQ buffer is empty, according to a carrier access manner allowed by the user equipment, selecting, by the user equipment, one current grant of Semi-Persistent scheduling to transmit new data, or multiple current grants of Semi-Persistent scheduling to transmit new data, or one current grant of dynamic scheduling to transmit new data; when the HARQ buffer is empty, there are currently N grants of Semi-Persistent scheduling, and the user equipment is not allowed to use a non-single carrier access manner, selecting, by the user equipment, one of the N grants of Semi-Persistent scheduling to transmit new data, wherein the N is an integer greater than 1; or when the HARQ buffer is empty, there are currently N grants of Semi-Persistent scheduling, and the user equipment is allowed to use a non-single carrier access manner, selecting, by the user equipment, multiple grants among the N grants of Semi-Persistent scheduling to transmit new data.
A printing control device to control printing of a cover layer on a tissue or cell sample to be examined, comprising: - an imaging unit, and - a printing control unit, wherein the imaging unit is configured to provide image data of the sample, characterized in that the imaging unit is further configured to determine a local image parameter from the image data, wherein the local image parameter relates to locally varying tissue porosity and/or a locally varying capillary force of the sample, and wherein the printing control unit is configured to control a locally different printing parameter for printing the cover layer on the sample based on the local image parameter. - an imaging unit, and - a printing control unit,
A method for mobile station hard handoff from a source base station to a target base station of a Flex Duplex call of a mobile station in a CDMA wireless communication network, the method comprising the steps of: establishing, by the source base station, Flex Duplex capabilities of the mobile station; sending, by the source base station and to the target base station, a request for handoff comprising the Flex Duplex capabilities of the mobile station and a Flex Duplex channel pair that is currently being used; and in response to the request for handoff, the target base station configuring the handoff of the call while giving preference to the Flex Duplex channel pair that is currently being used (704 and 708), and sending the call configuration such that the mobile station can configure itself for the handoff of the call. establishing, by the source base station, Flex Duplex capabilities of the mobile station; sending, by the source base station and to the target base station, a request for handoff comprising the Flex Duplex capabilities of the mobile station and a Flex Duplex channel pair that is currently being used; and in response to the request for handoff, the target base station configuring the handoff of the call while giving preference to the Flex Duplex channel pair that is currently being used (704 and 708), and sending the call configuration such that the mobile station can configure itself for the handoff of the call.
An exhaust purification method for a gasoline engine (E1, E2), the method comprising: collecting exhaust particulates by a GPF device; and executing EGR control of introducing exhaust gas flowing through an exhaust passage (31, 31a, 31b) upstream of the GPF device into an intake passage (21, 21a, 21b) via an EGR passage, wherein a throttle valve is provided in the intake passage, an EGR valve is provided in the EGR passage, and in the EGR control, an opening degree of the EGR valve according to an operating state of the engine (E1, E2) is corrected by the equation θ egr _ t = A _ θ thc × Regr _ t × HOSegr where θegr_t is a target opening degree of the EGR valve, A_θthc is an intake opening area according to an opening degree θthc of the throttle valve, Regr_t is a target EGR rate according to an operating state of the engine (E1, E2), and HOSegr is a GPF differential pressure correction amount that has a smaller value as a particulate deposition amount in the GPF device is increased, such that the opening area of the EGR passage according to the operating state of the engine (E1, E2) is reduced as the particulate deposition amount is increased, and thereby suppressing an actual EGR rate from deviating from the target EGR rate according to the operating state of the engine (E1, E2). collecting exhaust particulates by a GPF device; and executing EGR control of introducing exhaust gas flowing through an exhaust passage (31, 31a, 31b) upstream of the GPF device into an intake passage (21, 21a, 21b) via an EGR passage, wherein a throttle valve is provided in the intake passage, an EGR valve is provided in the EGR passage, and in the EGR control, an opening degree of the EGR valve according to an operating state of the engine (E1, E2) is corrected by the equation θ egr _ t = A _ θ thc × Regr _ t × HOSegr where θegr_t is a target opening degree of the EGR valve, A_θthc is an intake opening area according to an opening degree θthc of the throttle valve, Regr_t is a target EGR rate according to an operating state of the engine (E1, E2), and HOSegr is a GPF differential pressure correction amount that has a smaller value as a particulate deposition amount in the GPF device is increased, such that the opening area of the EGR passage according to the operating state of the engine (E1, E2) is reduced as the particulate deposition amount is increased, and thereby suppressing an actual EGR rate from deviating from the target EGR rate according to the operating state of the engine (E1, E2).
A compression/encoding apparatus comprising: a group of blocks data configuration section adapted to configure group of blocks data with a group of digital data that includes a plurality of blocks by treating a frame of delta-sigma-modulated digital data obtained from an input analog audio signal as a block; a table generation section adapted to generate a conversion table for encoding the group of blocks data; an encoding section adapted to compress and encode the digital data of each block included in the group of blocks data by using the conversion table, whereby one block holds as many frame headers and pieces of frame data as a number of channels of the obtained audio signal; the compressed group of blocks data further include the conversion table; wherein the encoding section converts M-bit delta-sigma-modulated digital data into N bits M>N by referring to the conversion table, and letting the number of N-bit bit patterns be denoted by P, the conversion table stores upper P-1 codes in terms of occurrence frequency in past bit patterns. a group of blocks data configuration section adapted to configure group of blocks data with a group of digital data that includes a plurality of blocks by treating a frame of delta-sigma-modulated digital data obtained from an input analog audio signal as a block; a table generation section adapted to generate a conversion table for encoding the group of blocks data; an encoding section adapted to compress and encode the digital data of each block included in the group of blocks data by using the conversion table, whereby one block holds as many frame headers and pieces of frame data as a number of channels of the obtained audio signal; the compressed group of blocks data further include the conversion table; wherein the encoding section converts M-bit delta-sigma-modulated digital data into N bits M>N by referring to the conversion table, and letting the number of N-bit bit patterns be denoted by P, the conversion table stores upper P-1 codes in terms of occurrence frequency in past bit patterns.
A surgical instrument comprising: an outer tube having a distal end, a proximal end and a cutting window near the distal end; an inner rotating member having a distal end, a proximal end and a cutting member near the distal end, the inner rotating member is rotatably disposed within the outer tube; a handpiece that is coupled to the inner rotating member and the outer tube near the proximal ends of the inner rotating member and the outer tube, the handpiece having a longitudinal axis; and a rotation sensor system including: a magnetic member provided on the inner rotating member near the proximal end of the inner rotating member; a magnetically permeable member provided on the outer tube near the proximal end of the outer tube; and a sensor provided on the handpiece and sensing magnetic flux of the magnetically permeable member adjacent to the sensor, wherein the magnetic member, the magnetically permeable member and the sensor are radially aligned with each other with respect to the longitudinal axis, with the magnetic member being disposed radially inward of the magnetically permeable member, and the magnetically permeable member being disposed radially inward of the sensor, and characterized in that the magnetically permeable member includes two semicircular pieces of ferromagnetic material located on opposite circumferential segments near the proximal end of the outer tube, opposing ends of the two semicircular pieces of ferromagnetic material being separated from each other by gaps, and optionally the sensor is a dual axis linear magnetic sensor that senses magnetic flux in two perpendicular directions. an outer tube having a distal end, a proximal end and a cutting window near the distal end; an inner rotating member having a distal end, a proximal end and a cutting member near the distal end, the inner rotating member is rotatably disposed within the outer tube; a handpiece that is coupled to the inner rotating member and the outer tube near the proximal ends of the inner rotating member and the outer tube, the handpiece having a longitudinal axis; and a rotation sensor system including: a magnetic member provided on the inner rotating member near the proximal end of the inner rotating member; a magnetically permeable member provided on the outer tube near the proximal end of the outer tube; and a sensor provided on the handpiece and sensing magnetic flux of the magnetically permeable member adjacent to the sensor, a magnetic member provided on the inner rotating member near the proximal end of the inner rotating member; a magnetically permeable member provided on the outer tube near the proximal end of the outer tube; and a sensor provided on the handpiece and sensing magnetic flux of the magnetically permeable member adjacent to the sensor,
An additive manufacturing process comprising: defining a boundary surrounding a periphery of a desired part geometry; depositing material onto a base plate including a support portion for supporting a retaining wall, and a part and an open portion surrounding the support portion; directing energy to portions of the deposited material to form the retaining wall along the defined boundary and a part according to the desired part geometry; retaining deposited material between the retaining wall and the periphery of the part; evacuating excess deposited material disposed outside the retaining wall through the open portion; and directing energy to the outer surfaces of the formed retaining wall with a defocused laser to heat the retaining wall to a desired temperature greater than ambient temperature and less than a temperature required to melt the deposited material and provide a conduction of heat through said retained deposited material to the part to maintain the part at a desired temperature. defining a boundary surrounding a periphery of a desired part geometry; depositing material onto a base plate including a support portion for supporting a retaining wall, and a part and an open portion surrounding the support portion; directing energy to portions of the deposited material to form the retaining wall along the defined boundary and a part according to the desired part geometry; retaining deposited material between the retaining wall and the periphery of the part; evacuating excess deposited material disposed outside the retaining wall through the open portion; and directing energy to the outer surfaces of the formed retaining wall with a defocused laser to heat the retaining wall to a desired temperature greater than ambient temperature and less than a temperature required to melt the deposited material and provide a conduction of heat through said retained deposited material to the part to maintain the part at a desired temperature.