mhurhangee/ep-ind-claims huggingface dataset:
A battery system, comprising: a battery cell (20, 30); a heat exchanger disposed adjacent to the battery cell (20, 30) and having a side wall (150, 152) to define a flexible portion (190,192) extendable toward a surface of the battery cell (20, 30) when a pressure level of a coolant fluid flowing in the heat exchanger is increased; first and second frame members (40,42) having the battery cell (20, 30) and the heat exchanger disposed therebetween, the first and second frame members (40,42) being configured to be coupled together; a fluid supply system configured to supply the coolant fluid to the heat exchanger and to receive the coolant fluid from the heat exchanger; a voltage sensor configured to generate a first signal indicative of a voltage level output by the battery cell (20, 30) over a time interval; a current sensor configured to generate a second signal indicative of a level of electrical current flowing through the battery cell (20, 30) over the time interval; a microprocessor configured to calculate a resistance level of the battery cell (20, 30) based on the first and second signals; and the microprocessor further configured to generate a control signal to induce the fluid supply system to increase a pressure level of the coolant fluid being supplied to the heat exchanger to a first pressure level, based on the resistance level, such that an increased desired force is applied to at least one side wall of the battery cell (20, 30). a battery cell (20, 30); a heat exchanger disposed adjacent to the battery cell (20, 30) and having a side wall (150, 152) to define a flexible portion (190,192) extendable toward a surface of the battery cell (20, 30) when a pressure level of a coolant fluid flowing in the heat exchanger is increased; first and second frame members (40,42) having the battery cell (20, 30) and the heat exchanger disposed therebetween, the first and second frame members (40,42) being configured to be coupled together; a fluid supply system configured to supply the coolant fluid to the heat exchanger and to receive the coolant fluid from the heat exchanger; a voltage sensor configured to generate a first signal indicative of a voltage level output by the battery cell (20, 30) over a time interval; a current sensor configured to generate a second signal indicative of a level of electrical current flowing through the battery cell (20, 30) over the time interval; a microprocessor configured to calculate a resistance level of the battery cell (20, 30) based on the first and second signals; and the microprocessor further configured to generate a control signal to induce the fluid supply system to increase a pressure level of the coolant fluid being supplied to the heat exchanger to a first pressure level, based on the resistance level, such that an increased desired force is applied to at least one side wall of the battery cell (20, 30).
A cavity filter, comprising: a first resonator, a second resonator and a capacitive cross-coupling structure for coupling energy of the first resonator and the second resonator, wherein the capacitive cross-coupling structure comprises: an insulating support base disposed between the first resonator and the second resonator; and a coupling fly bar disposed on the insulating support base, the coupling fly bar comprising a first coupling part disposed between the first resonator and the insulating support base and a second coupling part disposed between the second resonator and the insulating support base; wherein one end of the first coupling part far away from the insulating support base is grounded, and one end of the second coupling part far away from the insulating support base is suspended and spaced apart from the second resonator at an interval; further comprising: a support piece disposed between the insulating support base and the first resonator, wherein the end of the first coupling part far away from the insulating support base is disposed on the support piece for being grounded, characterized in that the end of the first coupling part far away from the insulating support base is fixed on the support piece through a threaded connective member. an insulating support base disposed between the first resonator and the second resonator; and a coupling fly bar disposed on the insulating support base, the coupling fly bar comprising a first coupling part disposed between the first resonator and the insulating support base and a second coupling part disposed between the second resonator and the insulating support base; wherein one end of the first coupling part far away from the insulating support base is grounded, and one end of the second coupling part far away from the insulating support base is suspended and spaced apart from the second resonator at an interval; further comprising: a support piece disposed between the insulating support base and the first resonator, wherein the end of the first coupling part far away from the insulating support base is disposed on the support piece for being grounded, characterized in that the end of the first coupling part far away from the insulating support base is fixed on the support piece through a threaded connective member.
A multilayer composite comprising: a) a perforated, colored outer fibrous material layer having perforations, wherein said perforations comprise a pattern of shaped openings cut into and completely through the thickness of the outer fibrous material layer, wherein said opening provide attachment points for accessories or pouches that hold accessories, said outer fibrous material layer comprising one or more fibrous plies, said outer fibrous material layer comprises fibers having a tenacity of 10 g/denier or less; said outer fibrous material layer having at least one color; b) a fibrous base layer adjoined with the outer fibrous material layer, said fibrous base layer comprising one or more fibrous plies, each of said fibrous plies comprising fibers having a tenacity of greater than 10 g/denier; wherein the outer fibrous material layer has a different colored appearance than the fibrous base layer; and c) a colored polymeric material between said outer fibrous material layer and said base layer; said colored polymeric material having at least one color; wherein the colored polymeric material is on said fibrous base layer, and wherein each of said colored polymeric material and said fibrous base layer are positioned directly behind the perforations of the outer fibrous material layer, wherein said colored polymeric material is partially exposed through said perforations and wherein visual exposure of the fibrous base layer through said perforations is at least partially obscured by the colored polymeric material; and wherein the portions of the colored polymeric material exposed through said perforations are camouflaged by the outer fibrous material layer. a) a perforated, colored outer fibrous material layer having perforations, wherein said perforations comprise a pattern of shaped openings cut into and completely through the thickness of the outer fibrous material layer, wherein said opening provide attachment points for accessories or pouches that hold accessories, said outer fibrous material layer comprising one or more fibrous plies, said outer fibrous material layer comprises fibers having a tenacity of 10 g/denier or less; said outer fibrous material layer having at least one color; b) a fibrous base layer adjoined with the outer fibrous material layer, said fibrous base layer comprising one or more fibrous plies, each of said fibrous plies comprising fibers having a tenacity of greater than 10 g/denier; wherein the outer fibrous material layer has a different colored appearance than the fibrous base layer; and c) a colored polymeric material between said outer fibrous material layer and said base layer; said colored polymeric material having at least one color;
Centrifugal pump for delivering hot fluids, having a contacting shaft seal disposed in the region of a shaft lead-through, a seal housing for the shaft seal, and a return line for a partial flow of the delivered fluid, wherein no delivered fluid is discharged from the seal housing, wherein a separate housing cover is disposed between the seal housing and the pump housing, wherein there is a contact surface that minimizes the heat transfer between the seal housing and the housing cover, and wherein the return line is connected to the housing cover and/or to the pump housing characterized in that the seal housing is composed of an inner part and an outer part, the inner part being composed of a different material than the outer part.
A method for carrying out a cyclic energy storage for a process space in a cyclic operation using an energy storage medium with a hot side and a cold side with the following method steps repeated within a cycle time (t Zyklus) with the following energy storage cycle: - heating up the energy storage medium on the hot side by means of a hot medium for initiating an energy transfer to the energy storage medium from the hot side to the cold side, - continuously registering the sensor values on the cold side of the energy storage medium by means of a sensor arranged on the cold side of the energy storage medium and measuring the temperature of the energy storage medium in the region of the cold side and comparison with a preset threshold (S Grenz) (Figs. 2 and 6), - wherein a heat front progressing through the energy storage medium and arriving on the cold side is registered by the sensor, - after reaching the threshold (S Grenz), feeding a cold medium to the cold side of the energy storage medium and discharging the stored energy starting from the cold side in the direction of the hot side of the energy storage medium, - wherein the heat front is forced back from the cold side to the hot side of the energy storage medium, - renewed heating up of the energy storage medium on the hot side and start of a renewed energy storage cycle. - heating up the energy storage medium on the hot side by means of a hot medium for initiating an energy transfer to the energy storage medium from the hot side to the cold side, - continuously registering the sensor values on the cold side of the energy storage medium by means of a sensor arranged on the cold side of the energy storage medium and measuring the temperature of the energy storage medium in the region of the cold side and comparison with a preset threshold (S Grenz) (Figs. 2 and 6), - wherein a heat front progressing through the energy storage medium and arriving on the cold side is registered by the sensor, - after reaching the threshold (S Grenz), feeding a cold medium to the cold side of the energy storage medium and discharging the stored energy starting from the cold side in the direction of the hot side of the energy storage medium, - wherein the heat front is forced back from the cold side to the hot side of the energy storage medium, - renewed heating up of the energy storage medium on the hot side and start of a renewed energy storage cycle.
A baby crib comprising a support frame and a cradle frame, wherein the support frame includes at least one leg, and a hang portion and a base respectively connected upper and lower ends of the leg and extending at a same side thereof in two generally parallel planes, and the cradle frame being suspended from the hang portion above the base, characterized in that: the hang portion has a quadrilateral shape formed from the assembly of multiple tubular segments, whereby the hang portion includes opposite first and second side portions; and the cradle frame includes two spaced-apart swing arms, each of the swing arms includes two side segments and a transverse segment connected between the two side segments, the two side segments of each of the two swing arms having upper ends respectively connected pivotally with the first and second side portions (118A, 118B) of the hang portion, and the two swing arms being mounted parallel to each other. the hang portion has a quadrilateral shape formed from the assembly of multiple tubular segments, whereby the hang portion includes opposite first and second side portions; and the cradle frame includes two spaced-apart swing arms, each of the swing arms includes two side segments and a transverse segment connected between the two side segments, the two side segments of each of the two swing arms having upper ends respectively connected pivotally with the first and second side portions (118A, 118B) of the hang portion, and the two swing arms being mounted parallel to each other.
A microscope apparatus (1, 21, 31), comprising: a laser beam source for emitting a laser beam; an objective lens for irradiating a sample with the laser beam; a phase-modulating spatial light modulator placed between the laser beam source and the objective lens at a position optically conjugate with a pupil position of the objective lens; and a beam diameter variable unit (3, 22, 33) placed between the laser beam source and the phase-modulating spatial light modulator for varying a beam diameter of the laser beam incident to the phase-modulating spatial light modulator, characterized by a storage section configured to store a parameter, the parameter being associated with first information relating to a pupil diameter of an objective lens and second information relating to a wavelength of a laser beam emitted from the laser beam source, the second information including at least a divergence; and a control section (17, 28, 39) adapted to control the beam diameter variable unit (3, 22, 33) and the phase-modulating spatial light modulator in accordance with the parameter stored in the storage section, the parameter being associated with the first information and the second information, wherein the beam diameter variable unit (3, 22, 33) is adapted to change the beam diameter of the laser beam incident to the phase-modulating spatial light modulator in response to control by the control section (17, 28, 39), and the phase-modulating spatial light modulator is adapted to modulate a phase of the laser beam in response to control by the control section (17, 28, 39). a laser beam source for emitting a laser beam; an objective lens for irradiating a sample with the laser beam; a phase-modulating spatial light modulator placed between the laser beam source and the objective lens at a position optically conjugate with a pupil position of the objective lens; and a beam diameter variable unit (3, 22, 33) placed between the laser beam source and the phase-modulating spatial light modulator for varying a beam diameter of the laser beam incident to the phase-modulating spatial light modulator, a storage section configured to store a parameter, the parameter being associated with first information relating to a pupil diameter of an objective lens and second information relating to a wavelength of a laser beam emitted from the laser beam source, the second information including at least a divergence; and a control section (17, 28, 39) adapted to control the beam diameter variable unit (3, 22, 33) and the phase-modulating spatial light modulator in accordance with the parameter stored in the storage section, the parameter being associated with the first information and the second information, wherein the beam diameter variable unit (3, 22, 33) is adapted to change the beam diameter of the laser beam incident to the phase-modulating spatial light modulator in response to control by the control section (17, 28, 39), and
A movable iron core linear actuator of which a moving element is made to reciprocate in a reciprocating direction, the linear actuator comprising a magnetic circuit which includes: an iron core which constitutes the moving element; a stator core which includes a facing portion which faces the iron core; a pair of permanent magnets (12a, 12b) disposed in the facing portion along the reciprocating direction, the pair of permanent magnets having inverted magnetic poles at their surfaces which face the iron core; and a coil wound around the stator core, the magnetic circuit being arranged to cause, via the magnetic flux produced by energization of the coil, the moving element to reciprocate by weakening the magnetic flux produced in one of the permanent magnets and strengthening the magnetic flux produced in the other of the permanent magnets, and the magnetic circuit being arranged to cause an offset force to act on the moving element by the magnetic flux produced by the permanent magnets in a state in which the coil is not energized, characterized in that a space portion having low magnetic permeability compared with the stator core is provided in a state in which a part of the facing portion is removed in an area, which is a magnetic flux path, between a part of the facing portion of the stator core and the permanent magnets. an iron core which constitutes the moving element; a stator core which includes a facing portion which faces the iron core; a pair of permanent magnets (12a, 12b) disposed in the facing portion along the reciprocating direction, the pair of permanent magnets having inverted magnetic poles at their surfaces which face the iron core; and a coil wound around the stator core, the magnetic circuit being arranged to cause, via the magnetic flux produced by energization of the coil, the moving element to reciprocate by weakening the magnetic flux produced in one of the permanent magnets and strengthening the magnetic flux produced in the other of the permanent magnets, and the magnetic circuit being arranged to cause an offset force to act on the moving element by the magnetic flux produced by the permanent magnets in a state in which the coil is not energized, characterized in that a space portion having low magnetic permeability compared with the stator core is provided in a state in which a part of the facing portion is removed in an area, which is a magnetic flux path, between a part of the facing portion of the stator core and the permanent magnets.
A surgical instrument comprising a switch base assembly and a housing, the switch base assembly comprising: a switch base having a top surface, a bottom surface, and side surfaces; a power bus coupled to the switch base; and a membrane disposed over at least the top surface of the switch base and over the power bus sealing the top surface of the switch base; and the housing defining a proximal opening, a distal opening (3 8), an actuator opening, and a switch base cavity, the housing including an upper portion and a lower portion, the switch base cavity including an upper portion and a lower portion, wherein the actuator opening of the housing is in communication with the upper portion of the switch base cavity, characterized in that the housing includes a plurality of bulkheads (23,25,26,32,34,36) positioned adjacent to the proximal opening and the distal opening, the said plurality of bulkheads forming a plurality of fluid impermeable seals to prevent fluid that enters the housing through the proximal opening or through the distal opening from penetrating the switch base cavity; and the housing further comprising proximal and distal upper bulkheads (66,68) extending from the upper housing portion, each of the upper bulkheads engaging the membrane to form a fluid impermeable seal to prevent fluid that enters the upper portion of the switch base cavity through the actuator opening from penetrating the lower portion of the switch base cavity and contacting switch contacts or other electrical connections of the switch base assembly. a switch base having a top surface, a bottom surface, and side surfaces; a power bus coupled to the switch base; and a membrane disposed over at least the top surface of the switch base and over the power bus sealing the top surface of the switch base; and the housing defining a proximal opening, a distal opening (3 8), an actuator opening, and a switch base cavity, the housing including an upper portion and a lower portion, the switch base cavity including an upper portion and a lower portion, wherein the actuator opening of the housing is in communication with the upper portion of the switch base cavity, characterized in that the housing includes a plurality of bulkheads (23,25,26,32,34,36) positioned adjacent to the proximal opening and the distal opening, the said plurality of bulkheads forming a plurality of fluid impermeable seals to prevent fluid that enters the housing through the proximal opening or through the distal opening from penetrating the switch base cavity; and the housing further comprising proximal and distal upper bulkheads (66,68) extending from the upper housing portion, each of the upper bulkheads engaging the membrane to form a fluid impermeable seal to prevent fluid that enters the upper portion of the switch base cavity through the actuator opening from penetrating the lower portion of the switch base cavity and contacting switch contacts or other electrical connections of the switch base assembly.
A method for measuring creatine kinase MB isozyme (hereinafter abbreviated as CK-MB) in a sample, comprising: a step for reacting the sample with an anti-CK-B antibody which recognizes a region of the 1st to 100th amino acid from N-terminus in the amino acid sequence of an subunit B of creatine kinase, and then reacting with a first antibody against CK-MB and a second antibody against CK-MB which recognizes an epitope different from that recognized by the first antibody against CK-MB, wherein the first antibody and the second antibody reacts not only with CK-MB but also with a creatine kinase BB isozyme (hereinafter abbreviated as CK-BB) (step 1); a step for measuring an optical change generated by the reaction (step 2); and a step for determining a quantity of CK-MB in the sample on the basis of the result obtained in the step 2 (step 3). a step for reacting the sample with an anti-CK-B antibody which recognizes a region of the 1st to 100th amino acid from N-terminus in the amino acid sequence of an subunit B of creatine kinase, and then reacting with a first antibody against CK-MB and a second antibody against CK-MB which recognizes an epitope different from that recognized by the first antibody against CK-MB, wherein the first antibody and the second antibody reacts not only with CK-MB but also with a creatine kinase BB isozyme (hereinafter abbreviated as CK-BB) (step 1); a step for measuring an optical change generated by the reaction (step 2); and a step for determining a quantity of CK-MB in the sample on the basis of the result obtained in the step 2 (step 3).