mhurhangee/ep-ind-claims huggingface dataset:
A system comprising an implantable medical device for sensing cardiac electrical events, the system comprising: a sensing circuit configured to receive a cardiac electrical signal from a patient's heart and sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; a therapy delivery circuit configured to deliver an electrical stimulation therapy to a patient's heart; and a control circuit configured to: determine a drop time interval based on a heart rate; control the sensing circuit to hold the cardiac event sensing threshold at a first threshold value until an expiration of the drop time interval; determine a need for an electrical stimulation therapy based on at least a rate of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver an electrical stimulation pulse in response to determining the need for the electrical stimulation therapy. a sensing circuit configured to receive a cardiac electrical signal from a patient's heart and sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; a therapy delivery circuit configured to deliver an electrical stimulation therapy to a patient's heart; and a control circuit configured to: determine a drop time interval based on a heart rate; control the sensing circuit to hold the cardiac event sensing threshold at a first threshold value until an expiration of the drop time interval; determine a need for an electrical stimulation therapy based on at least a rate of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver an electrical stimulation pulse in response to determining the need for the electrical stimulation therapy. determine a drop time interval based on a heart rate; control the sensing circuit to hold the cardiac event sensing threshold at a first threshold value until an expiration of the drop time interval; determine a need for an electrical stimulation therapy based on at least a rate of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver an electrical stimulation pulse in response to determining the need for the electrical stimulation therapy.
An IoT community (200, 400, 600) comprising a plurality of wireless devices and a system, the system comprising: a plurality of interfaces configured to communicate a plurality of data flows with the plurality of wireless devices using multiple protocols; a connectivity manager, CM, configured to monitor one or more interfaces of the plurality of interfaces, activate a first interface upon detecting a demand to exchange data thereon, and power down a second interface upon passage of a threshold amount of idle time; a packet analyzer, PA, configured to extract packet metadata from one or more of the plurality of data flows and to determine latency encountered and bandwidth utilized by one or more of the plurality of data flows; an adaptive connectivity manager, ACM, configured to apply a latency reduction strategy to conform the latency encountered to latency criteria; and a bandwidth utilization manager, BUM, configured to apply a bandwidth reduction strategy to conform the bandwidth utilized to bandwidth criteria; wherein each of a subset of the plurality of wireless devices (620, 640) includes a plurality of variant interfaces; wherein the plurality of wireless devices are Internet of Things, IoT, functional entities and are networked by a network, wherein the network is one or more of a local area network, LAN, and a personal area network, PAN, wherein the CM, the PA, the ACM, and the BUM comprise circuitry incorporated into an edge device, the edge device to connect the network to a wide area network, WAN, the WAN to include the Internet. a plurality of interfaces configured to communicate a plurality of data flows with the plurality of wireless devices using multiple protocols; a connectivity manager, CM, configured to monitor one or more interfaces of the plurality of interfaces, activate a first interface upon detecting a demand to exchange data thereon, and power down a second interface upon passage of a threshold amount of idle time; a packet analyzer, PA, configured to extract packet metadata from one or more of the plurality of data flows and to determine latency encountered and bandwidth utilized by one or more of the plurality of data flows; an adaptive connectivity manager, ACM, configured to apply a latency reduction strategy to conform the latency encountered to latency criteria; and a bandwidth utilization manager, BUM, configured to apply a bandwidth reduction strategy to conform the bandwidth utilized to bandwidth criteria; wherein each of a subset of the plurality of wireless devices (620, 640) includes a plurality of variant interfaces; wherein the plurality of wireless devices are Internet of Things, IoT, functional entities and are networked by a network, wherein the network is one or more of a local area network, LAN, and a personal area network, PAN, wherein the CM, the PA, the ACM, and the BUM comprise circuitry incorporated into an edge device, the edge device to connect the network to a wide area network, WAN, the WAN to include the Internet.
A method for execution in a mobile device (10,100), the method comprising: maintaining history information for each of at least one wireless network from which the mobile device previously acquired service; and maintaining an indication of wireless network services currently provided to the mobile device; automatically determining whether to scan for a wireless network based on at least the indication of the currently provided wireless network services; determining whether the scanning would result in disruption to the currently provided wireless network services; and if the scanning would result in disruption to the currently provided wireless network services, waiting before scanning so as to avoid disruption to the current service; and if it has been determined to scan for a wireless network: determining a scanning frequency and a scanning order based on the history information; and automatically scanning for both Global System for Mobile Communications 'GSM' wireless networks and Code Division Multiple Access 'CDMA' wireless networks according to the scanning frequency and the scanning order in order to acquire a wireless network that can provide a service that is not currently provided to the mobile device. maintaining history information for each of at least one wireless network from which the mobile device previously acquired service; and maintaining an indication of wireless network services currently provided to the mobile device; automatically determining whether to scan for a wireless network based on at least the indication of the currently provided wireless network services; determining whether the scanning would result in disruption to the currently provided wireless network services; and if the scanning would result in disruption to the currently provided wireless network services, waiting before scanning so as to avoid disruption to the current service; and if it has been determined to scan for a wireless network: determining a scanning frequency and a scanning order based on the history information; and automatically scanning for both Global System for Mobile Communications 'GSM' wireless networks and Code Division Multiple Access 'CDMA' wireless networks according to the scanning frequency and the scanning order in order to acquire a wireless network that can provide a service that is not currently provided to the mobile device. determining a scanning frequency and a scanning order based on the history information; and automatically scanning for both Global System for Mobile Communications 'GSM' wireless networks and Code Division Multiple Access 'CDMA' wireless networks according to the scanning frequency and the scanning order in order to acquire a wireless network that can provide a service that is not currently provided to the mobile device.
A lighting module (10, 11) comprising an electronic board (10', 11') adapted to accommodate a plurality of light emitting diodes (LEDs), and a metallic base (20, 20') comprising cavities and adapters (3, 4, 5, 6) adapted to be accommodated in said cavities, said adapters comprising a connector body provided with: means adapted to accommodate electrical contacts (9, 13) for interconnection to said electronic board (10', 11'); means adapted to accommodate gaskets for shielding said contacts (9, 13); and means (7; 30, 31) for the mechanical locking of said adapters (3, 4, 5, 6) on said module (10, 11), said adapters (3, 4, 5, 6) providing a connection between adjacent modules which is completely concealed from sight and without any discontinuity between said modules.
An apparatus for making directional measurements of a formation radially 360° around a borehole for use in directional drilling, the apparatus comprising: a housing sized to be received within the borehole and having a longitudinal axis of rotation; an unshielded neutron source located within the housing; and an unshielded neutron-based detector (910, 912, 914, 916) located within the housing, the neutron-based detector being arranged offset from and asymmetrically about the longitudinal axis of rotation of the housing relative to the neutron source, wherein said apparatus is configured to rotate such that upon rotation when received within the borehole, directional measurements of the formation radially 360° around the borehole are obtained as said apparatus is rotated 360° about the longitudinal axis of rotation within the borehole. a housing sized to be received within the borehole and having a longitudinal axis of rotation; an unshielded neutron source located within the housing; and an unshielded neutron-based detector (910, 912, 914, 916) located within the housing, the neutron-based detector being arranged offset from and asymmetrically about the longitudinal axis of rotation of the housing relative to the neutron source, wherein said apparatus is configured to rotate such that upon rotation when received within the borehole, directional measurements of the formation radially 360° around the borehole are obtained as said apparatus is rotated 360° about the longitudinal axis of rotation within the borehole.
A polymer compound comprising as constituent component: a polymerizable triptycene derivative represented by the following general formula, and a compound capable of copolymerizing with the polymerizable triptycene derivative, wherein R 1 to R 4 are each independently a substituent selected from the group consisting of hydrogen atom, alkyl group, cycloalkyl group, heterocyclic group, alkenyl group, cycloalkenyl group, alkynyl group, alkoxy group, alkylthio group, arylether group, arylthioether group, aryl group, heteroaryl group, halogen atom, carbonyl group, carboxyl group, oxycarbonyl group, carbamoyl group, amino group, phosphineoxide group, and silyl group, with the proviso that adjacent substituents may together form a ring; one of X and Y is a substituent represented by the following general formula:, wherein n is an integer of 1 to 5; and R 5 is a hydrogen atom or a methyl group and the other of X and Y is a substituent selected from the group consisting of the substituents represented by the general formula, hydrogen atom and halogen atom, and protected or unprotected hydroxyl group, hydroxylalkyl group, carboxyl group, carboxylalkyl group, amino group, aminoalkyl group, aminocarbonyl group, aminocarbonylalkyl group, alkoxy group, alkoxyalkyl group, alkoxycarbonyl group, alkoxycarbonylalkyl group, formyl group, formylalkyl group, and alkyl group. a polymerizable triptycene derivative represented by the following general formula, and a compound capable of copolymerizing with the polymerizable triptycene derivative, wherein R 1 to R 4 are each independently a substituent selected from the group consisting of hydrogen atom, alkyl group, cycloalkyl group, heterocyclic group, alkenyl group, cycloalkenyl group, alkynyl group, alkoxy group, alkylthio group, arylether group, arylthioether group, aryl group, heteroaryl group, halogen atom, carbonyl group, carboxyl group, oxycarbonyl group, carbamoyl group, amino group, phosphineoxide group, and silyl group, with the proviso that adjacent substituents may together form a ring; one of X and Y is a substituent represented by the following general formula:, wherein n is an integer of 1 to 5; and R 5 is a hydrogen atom or a methyl group and the other of X and Y is a substituent selected from the group consisting of the substituents represented by the general formula, hydrogen atom and halogen atom, and protected or unprotected hydroxyl group, hydroxylalkyl group, carboxyl group, carboxylalkyl group, amino group, aminoalkyl group, aminocarbonyl group, aminocarbonylalkyl group, alkoxy group, alkoxyalkyl group, alkoxycarbonyl group, alkoxycarbonylalkyl group, formyl group, formylalkyl group, and alkyl group.
A kit for combined detection of procalcitonin and a soluble CD14 subtype in a sample to be tested, the kit comprising: a capture antibody mixture, the capture antibody mixture comprising a procalcitonin capture antibody coated on a solid phase and a soluble CD14 subtype capture antibody coated on a solid phase; and a detection antibody mixture, the detection antibody mixture comprising a labeled procalcitonin detection antibody and a labeled soluble CD14 subtype detection antibody; wherein the procalcitonin detection antibody and the soluble CD14 subtype detection antibody are labeled with the same label. a capture antibody mixture, the capture antibody mixture comprising a procalcitonin capture antibody coated on a solid phase and a soluble CD14 subtype capture antibody coated on a solid phase; and a detection antibody mixture, the detection antibody mixture comprising a labeled procalcitonin detection antibody and a labeled soluble CD14 subtype detection antibody; wherein the procalcitonin detection antibody and the soluble CD14 subtype detection antibody are labeled with the same label.
A method for forming a multilayer coating film comprising: forming an inner plate coating film by applying an inner plate base coating material on an inner plate surface of an automobile body upon which is formed an electrodeposited coating film or an intermediate coating film, and thereafter, forming an outer plate multilayer coating film by successively applying an outer plate first base coating material, an outer plate second base coating material, and a clear coating material on the outer plate surface of the automobile body in a wet-on-wet manner, wherein the outer plate first base coating material is a transparent coating material or a colored coating material, wherein a cured coating film with a thickness of 10 μm of the outer plate first base coating material has an average light transmittance in the range of 80 to 100% in the wavelength region from 400 to 700 nm, and wherein the outer plate second base coating material comprises a flake-like lustrous pigment, wherein the content of the flake-like lustrous pigment is in the range from 10 to 60 parts by mass relative to 100 parts by mass of the resin solid content in the outer plate second base coating material, the concentration of the coating material solid content in the outer plate second base coating material is in the range from 5 to 20 mass% relative to the total mass of the outer plate second base coating material, and the thickness of the coating film formed by the outer plate second base coating material is in the range from 1 to 8 μm based on the cured coating film. wherein the outer plate first base coating material is a transparent coating material or a colored coating material, wherein a cured coating film with a thickness of 10 μm of the outer plate first base coating material has an average light transmittance in the range of 80 to 100% in the wavelength region from 400 to 700 nm, and wherein the outer plate second base coating material comprises a flake-like lustrous pigment, wherein the content of the flake-like lustrous pigment is in the range from 10 to 60 parts by mass relative to 100 parts by mass of the resin solid content in the outer plate second base coating material, the concentration of the coating material solid content in the outer plate second base coating material is in the range from 5 to 20 mass% relative to the total mass of the outer plate second base coating material, and the thickness of the coating film formed by the outer plate second base coating material is in the range from 1 to 8 μm based on the cured coating film.
A manufacturing cell having a machine tool, which has a tool carrier bearing at least two tool units (101, 102; 102, 103; 101, 103; 101, 101; 102, 102) and comprises two workpiece tracks (11, 12), which are situated next to one another and are oriented in a longitudinal direction, wherein the tool units (101; 102; 103) are movable relative to a machine bed of the machine tool at least in a transverse direction oriented normally to the longitudinal direction and in a vertical direction oriented normally to these two directions (5, 6), wherein, per workpiece track (11, 12), at least one workpiece carriage (114; 115; 116; 117) of the workpiece track (11; 12) is movable along the machine tool in the longitudinal direction, and wherein the tool units (101, 102; 102, 103; 101, 103; 101, 101; 102, 102) are movable in the longitudinal direction relative to the machine bed and/or relative to the workpiece carriages (114, 115; 116, 117), - wherein the tool carrier protrudes or extends over the workpiece tracks (11, 12), which each have a workpiece-providing region (22; 23) of a workpiece-providing system and a working region (62; 63) of the machine tool, - wherein the tool units (101; 102; 103) can be used both for processing a workpiece (1; 2) on the first workpiece track and for processing a workpiece (2; 1) on the second workpiece track, - wherein the workpiece carriages (114; 115; 116; 117) are additionally movable in the longitudinal direction along the workpiece-providing system, and - wherein the workpiece-providing system has at least one lowerable or tiltable stop device (52; 53) per workpiece track (11; 12). - wherein the tool carrier protrudes or extends over the workpiece tracks (11, 12), which each have a workpiece-providing region (22; 23) of a workpiece-providing system and a working region (62; 63) of the machine tool, - wherein the tool units (101; 102; 103) can be used both for processing a workpiece (1; 2) on the first workpiece track and for processing a workpiece (2; 1) on the second workpiece track, - wherein the workpiece carriages (114; 115; 116; 117) are additionally movable in the longitudinal direction along the workpiece-providing system, and - wherein the workpiece-providing system has at least one lowerable or tiltable stop device (52; 53) per workpiece track (11; 12).
Method for filling a transport container with a fluid, where the fluid is conveyed through a purification device before the fluid is introduced into the transport container, where, in a fluid purification step, the fluid is conveyed through the purification device a number of times in a purification circuit and a contamination factor of an amount of fluid sample in the purification circuit is determined by means of a contamination measurement device, where the filling operation includes the single or multiple removal from the transport container of an amount of fluid that has already been introduced, and where a filling operation of the transport container with the fluid is only terminated after the contamination factor has fallen below a first threshold value, and which is specified so that the desired purity of the fluid introduced into the transport container is achieved and ensured sufficiently reliably.
An evaluation aid adapted to be used for taking a digital X-ray image thereof, wherein evaluation is carried out through the digital X-ray image, the evaluation aid comprising: a combined body having: a plate-like body including a plurality of regions (A, B, C) having different X-ray absorption ratios; and block-like bodies (31, 32, 33) provided on the plate-like body so that each region (A, B, C) has one of the block-like bodies (31, 32, 33) placed onto it, wherein each block-like body (31, 32, 33) including a plurality of subregions having different X-ray absorption ratios, characterized in that each of the plurality of regions (A,B, C) of the plate-like body has a part other than a region on which the block-like body (31, 32, 33) is provided, and that the parts are exposed to an outside of the combined body and are not covered by the block bodies (31, 32, 33). a combined body having: a plate-like body including a plurality of regions (A, B, C) having different X-ray absorption ratios; and block-like bodies (31, 32, 33) provided on the plate-like body so that each region (A, B, C) has one of the block-like bodies (31, 32, 33) placed onto it, wherein each block-like body (31, 32, 33) including a plurality of subregions having different X-ray absorption ratios, a plate-like body including a plurality of regions (A, B, C) having different X-ray absorption ratios; and block-like bodies (31, 32, 33) provided on the plate-like body so that each region (A, B, C) has one of the block-like bodies (31, 32, 33) placed onto it, wherein each block-like body (31, 32, 33) including a plurality of subregions having different X-ray absorption ratios, characterized in that each of the plurality of regions (A,B, C) of the plate-like body has a part other than a region on which the block-like body (31, 32, 33) is provided, and that the parts are exposed to an outside of the combined body and are not covered by the block bodies (31, 32, 33).
An ignition system configured to generate a spark discharge by applying a voltage to a gap formed by a center electrode and a ground electrode, wherein an auxiliary electrode is disposed in a position where a distance from the center electrode is longer than a distance of the gap between the ground electrode and the center electrode, wherein the ignition system is configured to apply the voltage applied to the center electrode having a reverse polarity to a polarity of a voltage applied to the auxiliary electrode, wherein the ignition system is adapted to apply the voltage applied to the center electrode between the center electrode and the ground electrode, and between the center electrode and the auxiliary electrode, wherein the ignition system is configured to apply the voltage that is equal to or lower than the voltage applied between the center electrode and the ground electrode and that generates no spark discharge to the auxiliary electrode, wherein the auxiliary electrode is positioned in such a manner that an electric field generated by the applied voltage between the auxiliary electrode and the center electrode is spread over the gap, and wherein the ignition system is further configured to control a period of time for applying the voltage to the auxiliary electrode such that a period of time for applying the voltage between the center electrode and the ground electrode is included.