mhurhangee/ep-ind-claims huggingface dataset:
A communication method, comprising: determining, in parallel, by a first apparatus, that at least one of the following conditions is triggered: the first apparatus receives an indication information from a second apparatus, wherein the indication information is used to indicate to report a receiving status of a data protocol data unit, PDU; a first timer expires, wherein a duration of the first timer is T, and T is greater than 0, wherein the first timer is used to periodically report receiving statuses of data PDUs; a respective entity in the first apparatus receives a first data PDU, wherein the first data PDU is the 1 st PDU received by the entity after the entity is established in the first apparatus; and the first apparatus determines, based on a sequence number, that a data PDU fails to be received; determining, by the first apparatus, a first status PDU, wherein the first status PDU is used to indicate a receiving status of at least one data PDU from the second apparatus, and the at least one data PDU is sent by the second apparatus in a multicast mode; and sending, by the first apparatus, the first status PDU to the second apparatus. determining, in parallel, by a first apparatus, that at least one of the following conditions is triggered: the first apparatus receives an indication information from a second apparatus, wherein the indication information is used to indicate to report a receiving status of a data protocol data unit, PDU; a first timer expires, wherein a duration of the first timer is T, and T is greater than 0, wherein the first timer is used to periodically report receiving statuses of data PDUs; a respective entity in the first apparatus receives a first data PDU, wherein the first data PDU is the 1 st PDU received by the entity after the entity is established in the first apparatus; and the first apparatus determines, based on a sequence number, that a data PDU fails to be received; determining, by the first apparatus, a first status PDU, wherein the first status PDU is used to indicate a receiving status of at least one data PDU from the second apparatus, and the at least one data PDU is sent by the second apparatus in a multicast mode; and sending, by the first apparatus, the first status PDU to the second apparatus.
A display device comprising: a display unit; a cover glass configured to protect a front surface of the display unit; a fingerprint recognition sensor comprising an optical sensor configured to sense reflected light, an optical layer to collect light incident on the optical sensor, and a base substrate on which the optical sensor is mounted, wherein the optical layer is disposed on a back surface of the display unit to form a first air gap, and the optical sensor is disposed on a back surface of the optical layer to form a second air gap; a first spacer positioned between the optical layer and the display unit, and arranged around the first air gap, characterized in that the display device further comprises: a first sealant applied in a paste state and changed into a solid state to bond the first spacer, the display unit and the optical layer; a second spacer positioned between the optical sensor and the optical layer, and arranged around the second air gap; a memory unit configured to store fingerprint information of a user; a controller configured to determine whether information collected by the optical sensor matches the stored fingerprint information; and a flexible substrate connecting the controller and the base substrate, wherein the display device further comprises a third spacer positioned between an outer periphery of the base substrate and the back surface of the display unit such that the third spacer and the display unit are bonded, wherein the third spacer is formed of a rigid material. a display unit; a cover glass configured to protect a front surface of the display unit; a fingerprint recognition sensor comprising an optical sensor configured to sense reflected light, an optical layer to collect light incident on the optical sensor, and a base substrate on which the optical sensor is mounted, wherein the optical layer is disposed on a back surface of the display unit to form a first air gap, and the optical sensor is disposed on a back surface of the optical layer to form a second air gap; a first spacer positioned between the optical layer and the display unit, and arranged around the first air gap, a first sealant applied in a paste state and changed into a solid state to bond the first spacer, the display unit and the optical layer; a second spacer positioned between the optical sensor and the optical layer, and arranged around the second air gap; a memory unit configured to store fingerprint information of a user; a controller configured to determine whether information collected by the optical sensor matches the stored fingerprint information; and a flexible substrate connecting the controller and the base substrate, wherein the display device further comprises a third spacer positioned between an outer periphery of the base substrate and the back surface of the display unit such that the third spacer and the display unit are bonded, wherein the third spacer is formed of a rigid material.
A thyroid stimulating hormone sandwich immunoassay, comprising at least two epitope-compatible antibodies comprising at least one capture antibody and at least one signal antibody, wherein: the dissociation constant (Kd) of both antibodies for TSH is less than or equal to 1 nM, the capture antibody Kd for follicle stimulating hormone, luteinizing hormone and chorionic gonadotropin are ranging from 1000 nM to 5000 nM, from 500 nM to 5000 nM and from 35 nM to 5000 nM, respectively, the signal antibody Kd for FSH, LH and CG are ranging from 250 nM to 2500 nM, from 35 nM to 1000 nM and from 35 nM to 1000 nM, respectively, the capture antibody Kd for FSH, LH and CG is greater than the signal antibody Kd for FSH, LH and CG, the immunoassay uses a single wash step, and the capture antibody comprises mouse monoclonal antibody 5409 and the signal antibody comprises mouse monoclonal antibody T25C. the dissociation constant (Kd) of both antibodies for TSH is less than or equal to 1 nM, the capture antibody Kd for follicle stimulating hormone, luteinizing hormone and chorionic gonadotropin are ranging from 1000 nM to 5000 nM, from 500 nM to 5000 nM and from 35 nM to 5000 nM, respectively, the signal antibody Kd for FSH, LH and CG are ranging from 250 nM to 2500 nM, from 35 nM to 1000 nM and from 35 nM to 1000 nM, respectively, the capture antibody Kd for FSH, LH and CG is greater than the signal antibody Kd for FSH, LH and CG, the immunoassay uses a single wash step, and
A breathing exerciser comprising a first chamber suitable to be connected with a means for connecting said exerciser to the exerciser user's airways, a second chamber in communication with the first chamber, a third chamber, in communication with the second chamber, means for regulating the respiratory mixture composition (11, 12) and means for regulating the inhalation/exhalation resistance, which is installed a channel of communication which communicates the first chamber with the second chamber, wherein the second chamber communicates with the atmosphere, the third chamber is elastic, means for regulating the respiratory mixture composition (11, 12) is carried out in the form of an adjustable throttling device, which is installed in a channel communicating the second chamber with the third chamber, and a controlled throttling device, which is installed in a channel of communication which communicates the second chamber with the atmosphere, and said means for controlling the inhalation/exhalation resistance is configured to regulate the inhalation resistance and the exhalation resistance separately and independently.
A signal processing method for processing a weight signal of a weighing device, comprising the following steps: a) Repeatedly sampling a weight signal between a first constant value and a second constant value with a sampling interval (Δt), wherein i discrete values (W(i)) are obtained; b) Preprocessing of the weight signal, determination and output of resulting characteristics (RK(i)), c) Providing at least two, at most i resulting characteristics (RK(i)) to respective inputs (E(p)) of at least one artificial neural network (KNN) as input values, processing the input values (RK(i)) in at least one inner layer (H(m,n)), d) Outputting of output values (A(q)) from an output layer (O(q)), wherein an output value (A) is an estimated value for the second constant value, wherein input layers (I(i)), the at least one inner layer (H(i)) and output layers (O(i)) each comprise neurons which are connected via weighted connections (w(m,n)) to the neurons of the same or respective preceding and/or succeeding layers. a) Repeatedly sampling a weight signal between a first constant value and a second constant value with a sampling interval (Δt), wherein i discrete values (W(i)) are obtained; b) Preprocessing of the weight signal, determination and output of resulting characteristics (RK(i)), c) Providing at least two, at most i resulting characteristics (RK(i)) to respective inputs (E(p)) of at least one artificial neural network (KNN) as input values, processing the input values (RK(i)) in at least one inner layer (H(m,n)), d) Outputting of output values (A(q)) from an output layer (O(q)), wherein an output value (A) is an estimated value for the second constant value,
A method for removing a polymerized soil comprising: applying to a soiled surface a non-corrosive composition having a use solution pH less than about 11.5 at a dilution range from about 1:1 to about 1:10 comprising: (i) about 1 wt-% to about 50 wt-% alkaline source, wherein less than about 1 wt-% of said alkaline source is sodium hydroxide or other caustic alkaline earth metal hydroxide sources; (ii) about 1 wt-% to about 80 wt-% surfactant; and (iii) about 1 wt-% to about 90 wt-% solvent system, wherein the alkaline source is monoethanolamine and 2-(2- Aminoethoxy)ethanol, and wherein the solvent system is benzyl alcohol. applying to a soiled surface a non-corrosive composition having a use solution pH less than about 11.5 at a dilution range from about 1:1 to about 1:10 comprising: (i) about 1 wt-% to about 50 wt-% alkaline source, wherein less than about 1 wt-% of said alkaline source is sodium hydroxide or other caustic alkaline earth metal hydroxide sources; (ii) about 1 wt-% to about 80 wt-% surfactant; and (iii) about 1 wt-% to about 90 wt-% solvent system, wherein the alkaline source is monoethanolamine and 2-(2- Aminoethoxy)ethanol, and wherein the solvent system is benzyl alcohol. (i) about 1 wt-% to about 50 wt-% alkaline source, wherein less than about 1 wt-% of said alkaline source is sodium hydroxide or other caustic alkaline earth metal hydroxide sources; (ii) about 1 wt-% to about 80 wt-% surfactant; and (iii) about 1 wt-% to about 90 wt-% solvent system, wherein the alkaline source is monoethanolamine and 2-(2- Aminoethoxy)ethanol, and wherein the solvent system is benzyl alcohol.
A method of monitoring and controlling a freeze drying process in a freeze drying apparatus having walls, at least one shelf and vials or trays positioned on different areas of the at least one shelf and containing a product to be freeze dried, comprising: selecting at least one vial or tray among all of the vials or trays in different areas of the at least one shelf, positioning at least one heat flux sensor between the selected at least one vial or tray and at least one adjacent portion of the walls and/or the at least one shelf, and taking measurements of heat flow between the selected at least one vial or tray and the at least one adjacent portion of the walls and/or the at least one shelf during at least a part of the freeze drying process; and monitoring and/or controlling the at least a part of the freeze drying process using information provided by the measurements of heat flow. selecting at least one vial or tray among all of the vials or trays in different areas of the at least one shelf, positioning at least one heat flux sensor between the selected at least one vial or tray and at least one adjacent portion of the walls and/or the at least one shelf, and taking measurements of heat flow between the selected at least one vial or tray and the at least one adjacent portion of the walls and/or the at least one shelf during at least a part of the freeze drying process; and monitoring and/or controlling the at least a part of the freeze drying process using information provided by the measurements of heat flow.
A care robot comprising: a base; a robot arm section that is provided on the base and includes multiple arms that are relatively movable to each other by using a drive section; a holding section that is provided on a portion of the robot arm section and that is configured to assist a care receiver to stand up or sit down by supporting a body part of the care receiver; a storage section that is configured to store; standing up trajectory reference data which indicates the standing up trajectory along which a movement control portion of the care receiver passes when the care receiver sitting on a seat stands up being supported by the holding section; characterised by a correction section that is configured to correct the standing up trajectory reference data based on a foot position of the care receiver when sitting on the seat; and a drive control section that is configured to drive the drive section so as to drive the robot arm section based on the standing up trajectory reference data corrected by the correction section. a base; a robot arm section that is provided on the base and includes multiple arms that are relatively movable to each other by using a drive section; a holding section that is provided on a portion of the robot arm section and that is configured to assist a care receiver to stand up or sit down by supporting a body part of the care receiver; a storage section that is configured to store; standing up trajectory reference data which indicates the standing up trajectory along which a movement control portion of the care receiver passes when the care receiver sitting on a seat stands up being supported by the holding section; characterised by a correction section that is configured to correct the standing up trajectory reference data based on a foot position of the care receiver when sitting on the seat; and a drive control section that is configured to drive the drive section so as to drive the robot arm section based on the standing up trajectory reference data corrected by the correction section.
A method for measuring an electrical property of an electrical circuit, comprising: measuring the electrical property by means of a measurement probe connected to the electrical circuit, converting the measured electrical property of the electrical circuit to an optical signal; and sending the optical signal; characterized in that the method further comprises: receiving the optical signal by means of an image sensor configured to record images comprising the measurement probe that transmits the optical signal; and processing the recorded images in order to decode the measurement data from the received optical signal. measuring the electrical property by means of a measurement probe connected to the electrical circuit, converting the measured electrical property of the electrical circuit to an optical signal; and sending the optical signal; receiving the optical signal by means of an image sensor configured to record images comprising the measurement probe that transmits the optical signal; and processing the recorded images in order to decode the measurement data from the received optical signal.
A handover method, comprising: in a process of handing user equipment, UE, over from a source base station to a target base station, sending (S201; S304; S404), by the source base station to a source core network device, a handover required message, wherein the message comprises identification information of a target core network device, and the identification information of the target core network device is used to instruct the source core network device to perform a core network relocation process with the target core network device, wherein the source base station is connected to the source core network device, and the target base station is connected to both the source core network device and the target core network device, characterized in that the method further comprises: sending, by the source base station, a handover instruction to the UE, wherein the handover instruction carries type information of a target core network. in a process of handing user equipment, UE, over from a source base station to a target base station, sending (S201; S304; S404), by the source base station to a source core network device, a handover required message, wherein the message comprises identification information of a target core network device, and the identification information of the target core network device is used to instruct the source core network device to perform a core network relocation process with the target core network device, wherein the source base station is connected to the source core network device, and the target base station is connected to both the source core network device and the target core network device, characterized in that the method further comprises: sending, by the source base station, a handover instruction to the UE, wherein the handover instruction carries type information of a target core network.
Analytic magazine, comprising at least one chamber with at least one analytic aid, wherein the analytic aid comprises at least one test element for detecting at least one analyte in a sample of a bodily fluid, wherein the test element comprises at least one test field with at least one test chemical, characterized in that at least one membrane is arranged between the test field and an interior space of the chamber, wherein the membrane is at least partly permeable to the sample, more particularly to blood or blood constituents, wherein the membrane furthermore is at least partly impermeable to the test chemical such that an ingress of components of the test chemical into the chamber is substantially prevented, wherein solid chemical components with a size of more than 10 micrometers are held back, wherein the membrane is wholly or partly embodied as a porous material that is permeable to the sample and/or components of the sample, wherein the membrane lies directly on the test field such that no interspace, or an interspace of 5 μm or less, is produced between the test field and the membrane.
A first replaceable print apparatus component (606) comprising a logic circuitry package, the logic circuitry package comprising a first interface to communicate with a print apparatus logic circuit, and a logic circuit configured to: detect a communication between the print apparatus logic circuit and a logic circuitry package of a second replaceable print apparatus component, the communication comprising a response to a first command directed to the second replaceable print apparatus component by the print apparatus logic circuit; receive, via the first interface, a second command directed to the first replaceable print apparatus component (606) by the print apparatus logic circuit; and transmit, via the first interface, a second response to the second command based on the detected response to the first command. detect a communication between the print apparatus logic circuit and a logic circuitry package of a second replaceable print apparatus component, the communication comprising a response to a first command directed to the second replaceable print apparatus component by the print apparatus logic circuit; receive, via the first interface, a second command directed to the first replaceable print apparatus component (606) by the print apparatus logic circuit; and transmit, via the first interface, a second response to the second command based on the detected response to the first command.
Force transmission belt (10, 20) having an elastic foundational body, comprising a top ply as belt backing and a substructure having a force transmission zone, wherein the force transmission zone and/or the top ply is/are provided with a coating (15, 16), wherein the coating (15, 16) on the force transmission zone and/or the top ply has at least the following layered construction: - a base coating of a textile material, wherein the base coating combines with the elastic foundational body to form a bonded assembly, and - a surface coating comprising at least a mixture A, characterized in that the mixture A contains at least a reactive diluent as per DIN 55945:2007-03, wherein the reactive diluent as per DIN 55945:2007-03 is selected from the group of methacrylates and/or acrylates and/or vinyl ethers and/or glycidyl ethers. - a base coating of a textile material, wherein the base coating combines with the elastic foundational body to form a bonded assembly, and - a surface coating comprising at least a mixture A, characterized in that the mixture A contains at least a reactive diluent as per DIN 55945:2007-03, wherein the reactive diluent as per DIN 55945:2007-03 is selected from the group of methacrylates and/or acrylates and/or vinyl ethers and/or glycidyl ethers.
A whiteboard image capture system, the system comprising: a camera configured to capture an image of the whiteboard viewed from an acute angle, wherein said camera has a wide-angle lens and wherein an optical axis of said camera is directed towards said whiteboard at an angle of less than 15° to the normal to the surface of the whiteboard; and a linear polariser having a plane substantially perpendicular to a plane of said whiteboard and having an axis of polarisation substantially perpendicular to the plane of the whiteboard or within 30° of the perpendicular to the plane of the whiteboard; wherein said camera is configured to capture said image of the whiteboard through said polariser; and wherein a normal to said polariser is directed in a different direction to a direction defined by an optic axis of said camera. a camera configured to capture an image of the whiteboard viewed from an acute angle, wherein said camera has a wide-angle lens and wherein an optical axis of said camera is directed towards said whiteboard at an angle of less than 15° to the normal to the surface of the whiteboard; and a linear polariser having a plane substantially perpendicular to a plane of said whiteboard and having an axis of polarisation substantially perpendicular to the plane of the whiteboard or within 30° of the perpendicular to the plane of the whiteboard; wherein said camera is configured to capture said image of the whiteboard through said polariser; and wherein a normal to said polariser is directed in a different direction to a direction defined by an optic axis of said camera.