mhurhangee/ep-ind-claims huggingface dataset:
A variable compression ratio device for an internal combustion engine comprising: a connecting rod, having a small end and a large end, wherein a support hole formed at the small end is pivotally supported by a support shaft of a piston that reciprocates in a cylinder, and a support hole formed at the large end is pivotally supported by a support shaft of a crankshaft; an eccentric sleeve that is rotatably installed between the support hole of the small end or the support hole of the large end and the support shaft, and displaces a center axis of the support hole of the small end or a center axis of the support hole of the large end with respect to a center axis the support shaft; and an actuator that drives and rotates the eccentric sleeve, wherein the actuator includes, a pressure oil chamber that is formed between the small end or the large end of the connecting rod, and the eccentric sleeve; and a transmitting means for transmitting oil pressure applied to the pressure oil chamber to the eccentric sleeve, wherein the variable compression ratio device further comprises a control means for controlling the rotation of the eccentric sleeve by controlling the oil pressure applied to the pressure oil chamber, and wherein the pressure oil chamber is provided up to circumferential opposite end portions of a cap of the connecting rod so that a supply path and a discharge path for supplying and discharging pressure oil from the pressure oil chamber are is provided in a split portion between a rod end portion of the connecting rod and the cap of the connecting rod. a connecting rod, having a small end and a large end, wherein a support hole formed at the small end is pivotally supported by a support shaft of a piston that reciprocates in a cylinder, and a support hole formed at the large end is pivotally supported by a support shaft of a crankshaft; an eccentric sleeve that is rotatably installed between the support hole of the small end or the support hole of the large end and the support shaft, and displaces a center axis of the support hole of the small end or a center axis of the support hole of the large end with respect to a center axis the support shaft; and an actuator that drives and rotates the eccentric sleeve, wherein the actuator includes, a pressure oil chamber that is formed between the small end or the large end of the connecting rod, and the eccentric sleeve; and a transmitting means for transmitting oil pressure applied to the pressure oil chamber to the eccentric sleeve, wherein the variable compression ratio device further comprises a control means for controlling the rotation of the eccentric sleeve by controlling the oil pressure applied to the pressure oil chamber, and wherein the pressure oil chamber is provided up to circumferential opposite end portions of a cap of the connecting rod so that a supply path and a discharge path for supplying and discharging pressure oil from the pressure oil chamber are is provided in a split portion between a rod end portion of the connecting rod and the cap of the connecting rod.
A secondary battery comprising an electrode assembly and a terminal that is electrically connected to the electrode assembly, wherein the terminal is provided with a terminal plate, which comprises a first part and a second part, wherein the first part is formed of a first material and the second part is formed of a second material that differs from the first material, and wherein an insulator is arranged between the terminal plate and a cap plate of the battery, characterized in that a gap is formed between the terminal plate and the insulator.
A motorized lacing system for an article of footwear, comprising: a motor, including a motor shaft; a spool, coupled to the motor shaft, configured to spool and unspool a lace based on the turning of the motor shaft; and a processor circuit; wherein the motorized lacing system further comprises an optical encoder unit comprising: a three-dimensional encoder defining a major axis and having a surface having a plurality of tabs extending from a drum and gaps between the tabs; an optical sensor (1106, 1108), positioned within optical range of the three-dimensional encoder, configured to output a signal to the processor circuit indicative of a detected one of the plurality of tabs; and a beam break, positioned between the three-dimensional encoder and the optical sensor, forming a pair of slits, wherein the optical sensor is positioned to view the plurality of tabs through the pair of slits; wherein the processor circuit is configured to operate the motor based, at least in part, on the signal as received from the optical sensor. a motor, including a motor shaft; a spool, coupled to the motor shaft, configured to spool and unspool a lace based on the turning of the motor shaft; and a processor circuit; wherein the motorized lacing system further comprises an optical encoder unit comprising: a three-dimensional encoder defining a major axis and having a surface having a plurality of tabs extending from a drum and gaps between the tabs; an optical sensor (1106, 1108), positioned within optical range of the three-dimensional encoder, configured to output a signal to the processor circuit indicative of a detected one of the plurality of tabs; and a beam break, positioned between the three-dimensional encoder and the optical sensor, forming a pair of slits, wherein the optical sensor is positioned to view the plurality of tabs through the pair of slits; a three-dimensional encoder defining a major axis and having a surface having a plurality of tabs extending from a drum and gaps between the tabs; an optical sensor (1106, 1108), positioned within optical range of the three-dimensional encoder, configured to output a signal to the processor circuit indicative of a detected one of the plurality of tabs; and a beam break, positioned between the three-dimensional encoder and the optical sensor, forming a pair of slits, wherein the optical sensor is positioned to view the plurality of tabs through the pair of slits; wherein the processor circuit is configured to operate the motor based, at least in part, on the signal as received from the optical sensor.
A generator junction box for a photovoltaic generator, comprising a junction box housing having a rear wall and a circumferential side wall; input modules with a respective integrated quick connector for connecting a string line (20, 24) to the associated input module; wherein the input modules are arranged directly at the circumferential side wall of the junction box housing in such a manner that the string lines (20, 24) can be directly connected to the quick connector of the associated input module from outsize; characterized by at least one functional element socket for accommodating a functional element in the input module. a junction box housing having a rear wall and a circumferential side wall; input modules with a respective integrated quick connector for connecting a string line (20, 24) to the associated input module; wherein the input modules are arranged directly at the circumferential side wall of the junction box housing in such a manner that the string lines (20, 24) can be directly connected to the quick connector of the associated input module from outsize; characterized by at least one functional element socket for accommodating a functional element in the input module.
A coordination unit for a group of medical devices, wherein the coordination unit is configured to execute the following steps: - receiving sensor data from at least one of the medical devices, wherein the sensor data are assigned to a patient, - receiving a medical data set that is assigned to the patient, and - instigating an assessment of the sensor data and/or the at least a medical data set in order to derive a treatment regimen, characterized in that the medical data set records that the patient suffers from muscle weakness acquired in an intensive care unit, wherein the sensor data and/or the medical data set comprises measured values from a device for electrical impedance tomography and/or from a ventilator, wherein the medical set optionally indicates a sedation status of the patient, and wherein the treatment regimen derived from the sensor data and optionally from the at least one medical data set comprises at least specific instruction for a process to wean from a ventilator. - receiving sensor data from at least one of the medical devices, wherein the sensor data are assigned to a patient, - receiving a medical data set that is assigned to the patient, and - instigating an assessment of the sensor data and/or the at least a medical data set in order to derive a treatment regimen, characterized in that the medical data set records that the patient suffers from muscle weakness acquired in an intensive care unit, wherein the sensor data and/or the medical data set comprises measured values from a device for electrical impedance tomography and/or from a ventilator, wherein the medical set optionally indicates a sedation status of the patient, and wherein the treatment regimen derived from the sensor data and optionally from the at least one medical data set comprises at least specific instruction for a process to wean from a ventilator.
A biological fluid sampling device, comprising: an absorbent probe; and a holder connected to the probe; wherein the holder extends along a longitudinal axis, having a smaller diameter first end that is closed and a larger diameter second end that is open and sized to fit over and nest with a pipette tip, further wherein the absorbant probe is positioned at the first end of the holder; wherein the holder further comprises three ribs equally spaced around the holder, the ribs extending along the length of the holder along axis 115, between the first end and the second end of the holder; wherein each of the ribs compises a notch facing the first end at the same position along the longitudinal axis; wherein the absorbent probe comprises chromatographic particles. an absorbent probe; and a holder connected to the probe; wherein the holder extends along a longitudinal axis, having a smaller diameter first end that is closed and a larger diameter second end that is open and sized to fit over and nest with a pipette tip, further wherein the absorbant probe is positioned at the first end of the holder; wherein the holder further comprises three ribs equally spaced around the holder, the ribs extending along the length of the holder along axis 115, between the first end and the second end of the holder; wherein each of the ribs compises a notch facing the first end at the same position along the longitudinal axis; wherein the absorbent probe comprises chromatographic particles.
A method for determining the likelihood of the presence or progression of a hepatocellular carcinoma in a subject comprising determining the level of extracellular form of Agrin in a whole blood obtained from the subject, wherein an increased level of the extracellular form of Agrin in the whole blood is indicative of the presence or progression of the cancer, wherein an increased level is determined by comparison of the level of extracellular form of Agrin in the subject with the extracellular form of Agrin in a non-diseased subject.
Electrode structure for plasma cutting torches, in which for receiving an emission insert a depression or bore that on one side is open in the direction of a workpiece to be machined is configured in an electrode holder or a holding element, in which the inserted emission insert is fastenable in a force-fitting, form-fitting, and/or materially integral manner, characterized in that an at least temporarily effective pressure-equalization duct through the emission insert (7.3) and/or between an external shell surface region of the emission insert (7.3) and the inner wall of the depression or bore (7.2.1, 7.4) is present in a cavity configured between a depression or bore (7.2.1, 7.4) and the emission insert (7.3) and the environment and/or at least one temporarily effective pressure-equalization duct is present through a cavity configured in a depression or bore (7.4) and the holding element (7.2) and the environment through the holding element (7.2) and/or between an external shell surface region of the holding element (7.2) and the inner wall of the depression or bore (7.4).
ORC (Organic Rankine Cycle) for transforming heat of a compressed gas used as a heat source into mechanical energy, the ORC comprising a closed circuit containing a two-phase working fluid, the circuit comprising a liquid pump for circulating the working fluid in the circuit consecutively through an evaporator which is configured to be placed in thermal contact with said heat source; through an expander for transforming the thermal energy of the working fluid into mechanical energy; and through a condenser which is in thermal contact with a cooling element, characterized in that the expander is situated above the evaporator and in that a fluid outlet of the evaporator is connected to a fluid inlet of the expander by means of a so called raiser column, the ORC being adapted that the raiser column is filled with a mixture of liquid working fluid and of gaseous bubbles of the working fluid, which mixture is supplied to the expander, and in that the raiser column extends with at least a part at the same level or above the level of the inlet of the expander in such a way that a gravitational flow is possible of the liquid working fluid supplied by the raiser column to the expander.
Signalling device comprising a cover, a light source mounted on a support circuit board and a vibrating generator (25, 26) intended to emit sound waves, the coverforming a continuous outer wall that is at least partly translucent, characterized in that: - the light source is positioned between the vibrating generator (25, 26) and the outer wall; - the cover comprises a connecting column that passes through the support circuit board and to which the vibrating generator (25, 26) is fixed, such that the vibrations of the vibrating generator (25, 26) are directly transmitted to the cover. - the light source is positioned between the vibrating generator (25, 26) and the outer wall; - the cover comprises a connecting column that passes through the support circuit board and to which the vibrating generator (25, 26) is fixed, such that the vibrations of the vibrating generator (25, 26) are directly transmitted to the cover.
A method comprising: receiving, by a source virtual routing node of a single-chassis network device having a plurality of packet forwarding engines, PFEs, and a plurality of fabric links coupling respective pairs of the plurality of PFEs at respective fabric interfaces of the plurality of PFEs, a plurality of packets; storing a count for each prefix match shorter than the longest prefix match occurring within a period of time for the plurality of packets; determining, by the source virtual routing node, that a packet of the plurality of packets belongs to a data flow with a high packet rate by determining that the count of prefix matches shorter than the longest prefix match for the data flow exceeds a defined threshold; in response to determining that the packet of the plurality of packets belongs to the data flow, adding, by the source virtual routing node, a fabric path header to a next incoming packet of the data flow, so as to create a modified packet; sending, by the source virtual routing node, the modified packet to a receiving PFE of the plurality of PFEs to request fabric path information associated with an egress PFE; receiving, by the source virtual routing node and from a path module, the fabric path information associated with the egress PFE; storing, by the source virtual routing node, the fabric path information associated with the egress PFE in forwarding information of the source virtual routing node; and sending, by the source virtual routing node, a next packet of the data flow directly to the egress PFE. receiving, by a source virtual routing node of a single-chassis network device having a plurality of packet forwarding engines, PFEs, and a plurality of fabric links coupling respective pairs of the plurality of PFEs at respective fabric interfaces of the plurality of PFEs, a plurality of packets; storing a count for each prefix match shorter than the longest prefix match occurring within a period of time for the plurality of packets; determining, by the source virtual routing node, that a packet of the plurality of packets belongs to a data flow with a high packet rate by determining that the count of prefix matches shorter than the longest prefix match for the data flow exceeds a defined threshold; in response to determining that the packet of the plurality of packets belongs to the data flow, adding, by the source virtual routing node, a fabric path header to a next incoming packet of the data flow, so as to create a modified packet; sending, by the source virtual routing node, the modified packet to a receiving PFE of the plurality of PFEs to request fabric path information associated with an egress PFE; receiving, by the source virtual routing node and from a path module, the fabric path information associated with the egress PFE; storing, by the source virtual routing node, the fabric path information associated with the egress PFE in forwarding information of the source virtual routing node; and sending, by the source virtual routing node, a next packet of the data flow directly to the egress PFE.
Anti-snoring device, comprising a bulky element and an element for holding said bulky element in the back of a user, said bulky element comprising at least one rim, characterised in that said bulky element comprises at least one elastically deformable shell having a substantially planar or concave proximal face oriented towards the holding element, said rim bordering said proximal face and being in the form of a flap extending between an inner end attached to said shell and a free outer end, said device moreover comprising a fixing means providing permanent assembly of the flap and holding element.
Method for managing an activation state of a module for radio access to a main network of a user device (30, 31), said device comprising moreover an activated module for radio access to a secondary network, said method comprising the following steps implemented by said device: - when the module for radio access to the main network is deactivated, searching for a beacon signal of the secondary network; - detection of a beacon signal of the secondary network broadcast by a transmitting device associated with an access point of the main network; - receiving information broadcast on the beacon signal; - obtaining an identifier of the access point from said broadcast information; - after the detection, activation of the module for radio access to the main network; and, - connection to the main network by the intermediary of the access point identified by said identifier. - when the module for radio access to the main network is deactivated, searching for a beacon signal of the secondary network; - detection of a beacon signal of the secondary network broadcast by a transmitting device associated with an access point of the main network; - receiving information broadcast on the beacon signal; - obtaining an identifier of the access point from said broadcast information; - after the detection, activation of the module for radio access to the main network; and, - connection to the main network by the intermediary of the access point identified by said identifier.
A method for determining where an object or person (702, 902, 1102) is located in an Electronic Article Surveillance ("EAS") detection zone, comprising: simultaneously emitting a first signal from a first emitter and a second signal from a second emitter, where the first and second emitters are disposed on a first pedestal of an EAS detection system so as to point towards the EAS detection zone; concurrently detecting the first and second signals during a first period of time by each of a first detector and a second detector, where the first and second detectors are disposed on a second pedestal of the EAS detection system so as to point towards the EAS detection zone and so as to respectively reside across from the first and second emitters; and determining where the object or person (702, 902, 1102) is within the EAS detection zone based on a pattern of a signal output from at least one of the first and second detectors which reflects that at least one of the first and second signals is blocked by the object or person (702, 902, 1102) during at least one of a second period of time and a third period of time in which the object or person (702, 902, 1102) is traveling through the EAS detection zone; characterized in that the determined knowledge where the object or person (702, 902, 1102) is in relation to the pedestals (102a, 102b) of the EAS detection system is used to dynamically change antenna settings of a pedestal (102a, 102b). simultaneously emitting a first signal from a first emitter and a second signal from a second emitter, where the first and second emitters are disposed on a first pedestal of an EAS detection system so as to point towards the EAS detection zone; concurrently detecting the first and second signals during a first period of time by each of a first detector and a second detector, where the first and second detectors are disposed on a second pedestal of the EAS detection system so as to point towards the EAS detection zone and so as to respectively reside across from the first and second emitters; and determining where the object or person (702, 902, 1102) is within the EAS detection zone based on a pattern of a signal output from at least one of the first and second detectors which reflects that at least one of the first and second signals is blocked by the object or person (702, 902, 1102) during at least one of a second period of time and a third period of time in which the object or person (702, 902, 1102) is traveling through the EAS detection zone; characterized in that the determined knowledge where the object or person (702, 902, 1102) is in relation to the pedestals (102a, 102b) of the EAS detection system is used to dynamically change antenna settings of a pedestal (102a, 102b).
A Ni-based single crystal superalloy which has a composition including: 5.0 to 7.0 wt% of Al, 4.0 to 10.0 wt% of Ta, 1.1 to 4.5 wt% of Mo, 4.0 to 10.0 wt% of W, 3.1 to 8.0 wt% of Re, 0.0 to 2.0 wt% of Hf, 5.1 to 8.5 wt% of Cr, 0.0 to 9.9 wt% of Co, 0.0 to 4.0 wt% of Nb, 1.0 to 14.0 wt% of Ru, 0.0 to 0.05 wt% of B, 0.0 to 0.15 wt% of C, 0.0 to 0.1 wt% of Si, 0.0 to 0.1 wt% ofY, 0.0 to 0.1 wt% of La, 0.0 to 0.1 wt% of Ce, 0.0 to 1 wt% of V, 0.0 to 0.1 wt% of Zr and optionally further including 1.0 wt% or less of Ti in terms of weight ratio; and the remainder being Ni and incidental impurities. 5.0 to 7.0 wt% of Al, 4.0 to 10.0 wt% of Ta, 1.1 to 4.5 wt% of Mo, 4.0 to 10.0 wt% of W, 3.1 to 8.0 wt% of Re, 0.0 to 2.0 wt% of Hf, 5.1 to 8.5 wt% of Cr, 0.0 to 9.9 wt% of Co, 0.0 to 4.0 wt% of Nb, 1.0 to 14.0 wt% of Ru, 0.0 to 0.05 wt% of B, 0.0 to 0.15 wt% of C, 0.0 to 0.1 wt% of Si, 0.0 to 0.1 wt% ofY, 0.0 to 0.1 wt% of La, 0.0 to 0.1 wt% of Ce, 0.0 to 1 wt% of V, 0.0 to 0.1 wt% of Zr and optionally further including 1.0 wt% or less of Ti in terms of weight ratio; and the remainder being Ni and incidental impurities.
A coated substrate comprising: a paper or paper product substrate comprising a cellulosic fiber material derived from wood pulp; and a copolymer applied on at least one surface of the substrate; wherein the copolymer comprises chlorotrifluoroethylene copolymerized with at least one fluorinated monomer wherein when the comonomers used to prepare the copolymer composition are CTFE, VDF and a vinylester, the vinylester is present in an amount of from 0.1 to 5 weight %, the VDF component is present in an amount of from 5 to 25 weight %, and the CTFE component is present in an amount less than 88 weight %. a paper or paper product substrate comprising a cellulosic fiber material derived from wood pulp; and a copolymer applied on at least one surface of the substrate;