mhurhangee/ep-ind-claims huggingface dataset:
Medical equipment comprising a fluid path, said fluid path at least partly consisting of a fluid path with a need for regular thermal disinfection (480, 422), the medical equipment further comprising: an inlet adapted to receive fluid; an actuator (442, 430) configured to control the flow of the fluid from the inlet to a connector, the connector being configured to connect to the fluid path with a need for regular disinfection; a temperature sensor configured to measure the temperature of the fluid in the fluid path; a control unit connected to the actuator and the temperature sensor, the control unit being configured to control the fluid flow by means of the actuator, and to read the temperature measured by the temperature sensor; wherein the control unit is configured to receive and/or retrieve information representing a set disinfection dose; and the control unit is configured to start the disinfection of the fluid path to be disinfected by controlling the actuator to enable fluid from the inlet to flow to the connector and further into the fluid path with a need for regular disinfection; and the temperature sensor is located at a location of the fluid path which experiences the lowest, or one of the lowest, temperatures during thermal disinfection; and the control unit is configured to read the temperature as measured by the temperature sensor during disinfection, and to calculate an achieved disinfection dose based on the read temperature, and to compare the achieved disinfection dose with the set disinfection dose, and to discontinue an ongoing disinfection if the achieved disinfection dose equals or exceeds the set disinfection dose. an inlet adapted to receive fluid; an actuator (442, 430) configured to control the flow of the fluid from the inlet to a connector, the connector being configured to connect to the fluid path with a need for regular disinfection; a temperature sensor configured to measure the temperature of the fluid in the fluid path; a control unit connected to the actuator and the temperature sensor, the control unit being configured to control the fluid flow by means of the actuator, and to read the temperature measured by the temperature sensor; wherein the control unit is configured to receive and/or retrieve information representing a set disinfection dose; and the control unit is configured to start the disinfection of the fluid path to be disinfected by controlling the actuator to enable fluid from the inlet to flow to the connector and further into the fluid path with a need for regular disinfection; and the temperature sensor is located at a location of the fluid path which experiences the lowest, or one of the lowest, temperatures during thermal disinfection; and the control unit is configured to read the temperature as measured by the temperature sensor during disinfection, and to calculate an achieved disinfection dose based on the read temperature, and to compare the achieved disinfection dose with the set disinfection dose, and to discontinue an ongoing disinfection if the achieved disinfection dose equals or exceeds the set disinfection dose.
Side handle for an electric hand-held power tool, the side handle having a grip region designed to be gripped by a user and a clamping unit, by means of which the side handle can be releasably fastened to a machine neck of the hand-held power tool, the clamping unit having an operating element by means of which the clamping unit can be clamped and unclamped, the operating element, when the clamping unit is in the clamped state, being substantially flush with the grip region, the clamping unit having two cylindrical-portion-shaped clamping bodies (21, 23) which are each oriented coaxially with a clamping screw of the clamping unit extending along the axis of rotation, characterized in that the clamping bodies (21, 23) are designed to be complementary to one another and rest against one another with a minimum length in the unclamped state, and wherein the clamping bodies (21, 23) lie on top of one another in the clamped state with a maximum length.
Device for manufacturing, by stamping then injection overmolding, a part made of thermoplastic material and comprising at least one insert made of a thermoplastic-based composite, the manufacturing device including a mold which comprises a first part and a second part that are movable relative to each other and delimit therebetween an injection cavity, and the first mold part comprising means for receiving the insert, the mold being designed such that the stamping and the overmolding are carried out in this same mold, and the manufacturing device comprising a device which is intended for gripping the insert and is suitable for transporting the insert from a first location to the means for receiving the insert, the manufacturing device being characterized in that: - the first mold part comprises grooves (14A, 14B), in particular a peripheral groove and a plurality of interior grooves; - the second mold part comprises injection means, including injection nozzles, a plurality of injection nozzles being distributed opposite the peripheral groove, and at least one of the injection nozzles being arranged opposite each inner groove. - the first mold part comprises grooves (14A, 14B), in particular a peripheral groove and a plurality of interior grooves; - the second mold part comprises injection means, including injection nozzles,
A computer implemented method for providing a representation of synchronicity of electrical activation of heart tissue, including: - obtaining a three-dimensional model of electrical activation of the heart, the three-dimensional model including a mesh representing a surface of the myocardium, the mesh having a plurality of nodes, each node having associated therewith a value representative of a time delay between stimulation of the heart at a stimulation site and activation of the heart at that respective node; - for each node of the three-dimensional model of the heart: - defining a stimulus site at the location of that node in the three-dimensional model of the heart; - on the basis of the three-dimensional model of electrical activation of the heart determining a modified three-dimensional model of electrical activation of the heart resulting from stimulation at that node; - determining a measure for heart activation synchronicity for the heart based on stimulation at that node; and - determining a heart synchronicity map representing a three-dimensional model of the heart, indicating at each node the respective measure for heart activation synchronicity. - obtaining a three-dimensional model of electrical activation of the heart, the three-dimensional model including a mesh representing a surface of the myocardium, the mesh having a plurality of nodes, each node having associated therewith a value representative of a time delay between stimulation of the heart at a stimulation site and activation of the heart at that respective node; - for each node of the three-dimensional model of the heart: - defining a stimulus site at the location of that node in the three-dimensional model of the heart; - on the basis of the three-dimensional model of electrical activation of the heart determining a modified three-dimensional model of electrical activation of the heart resulting from stimulation at that node; - determining a measure for heart activation synchronicity for the heart based on stimulation at that node; and - defining a stimulus site at the location of that node in the three-dimensional model of the heart; - on the basis of the three-dimensional model of electrical activation of the heart determining a modified three-dimensional model of electrical activation of the heart resulting from stimulation at that node; - determining a measure for heart activation synchronicity for the heart based on stimulation at that node; and - determining a heart synchronicity map representing a three-dimensional model of the heart, indicating at each node the respective measure for heart activation synchronicity.
A sequential logic circuit, comprising: a pass gate to provide a data signal that can be at a first or a second logic state, the second state associated with a second data-state voltage, the first state associated with a first data-state voltage, wherein the second data-state voltage is higher than the first data-state voltage; a latch circuit (205, 206) to store the provided data state in response to a received clock assertion from a clock signal that can be at a first or a second clock state, the first clock state associated with a first clock voltage, the second clock state associated with a second clock voltage, wherein the second clock voltage is higher than the first clock voltage and wherein the second clock voltage is higher than the second data-state voltage; and a level-shifter to level shift a reduced power clock to the first and second clock voltages, where the reduced power clock has a high voltage level corresponding to the second data-state voltage. a pass gate to provide a data signal that can be at a first or a second logic state, the second state associated with a second data-state voltage, the first state associated with a first data-state voltage, wherein the second data-state voltage is higher than the first data-state voltage; a latch circuit (205, 206) to store the provided data state in response to a received clock assertion from a clock signal that can be at a first or a second clock state, the first clock state associated with a first clock voltage, the second clock state associated with a second clock voltage, wherein the second clock voltage is higher than the first clock voltage and wherein the second clock voltage is higher than the second data-state voltage; and a level-shifter to level shift a reduced power clock to the first and second clock voltages, where the reduced power clock has a high voltage level corresponding to the second data-state voltage.
An assay unit for carrying-out fluorescence-detected assays on one or more physiological samples, comprising a microfluidic chip with a microfluidic system that is able to convey a physiological sample or analyte solution through one or more microfluidic channels arranged on the chip, and a photonic system with two or more rectangular waveguide structures (62, 66, 67, 63) arranged on the chip that are able to guide excitation light (64, 65) in the near IR, visible, or near UV range, the assay unit being characterized in that the one or more microfluidic channels and the two or more waveguide structures cross each other at a detection site, wherein in an assay area, where a certain microfluidic channel and a certain waveguide structure cross each other, one or more lateral surfaces (105, 105') of the core of the waveguide structure (66, 67) at least partially face the inner volume of the microfluidic channel, such that an evanescent field of the excitation light guided within the waveguide structure overlaps with a certain part of the inner volume of the microfluidic channel. a microfluidic chip with a microfluidic system that is able to convey a physiological sample or analyte solution through one or more microfluidic channels arranged on the chip, and a photonic system with two or more rectangular waveguide structures (62, 66, 67, 63) arranged on the chip that are able to guide excitation light (64, 65) in the near IR, visible, or near UV range, the assay unit being characterized in that the one or more microfluidic channels and the two or more waveguide structures cross each other at a detection site, wherein in an assay area, where a certain microfluidic channel and a certain waveguide structure cross each other, one or more lateral surfaces (105, 105') of the core of the waveguide structure (66, 67) at least partially face the inner volume of the microfluidic channel, such that an evanescent field of the excitation light guided within the waveguide structure overlaps with a certain part of the inner volume of the microfluidic channel.
Surgical retraction system, in particular for spreading a severed sternum, with a holding apparatus, two spreading arms (14, 16) which are each held with a first end on the holding apparatus at a variable spacing from each other in a spreading plane, and at least two retaining elements, wherein in each case at least one retaining element is arranged on each of the spreading arms (14, 16), wherein the retaining elements are of multi-part configuration, wherein a first part of the retaining elements forms a bearing body which is held on the spreading arm (14, 16), wherein a second part of the retaining element in the form of a retaining face is held on the first part so as to be rotatable about a first axis aligned substantially perpendicular to the spreading plane of the retraction system, and wherein the bearing body of at least one of the retaining elements holds the retaining face so as to be pivotable about a second axis, wherein the second axis is aligned substantially perpendicular to the first axis and to the retaining face, characterized in that the retaining face of at least one of the retaining elements is configured divided into two regions (254, 270), wherein the first region of the retaining face is held on the bearing body and wherein the second region is held on the first region so as to be pivotable about a third axis, wherein the third axis is aligned substantially parallel to the retaining face and substantially perpendicular to the first axis, and in that the first region has a recess which extends from the region of the third axis in the direction to the bearing body, and in that the second region comprises a projection substantially complementary to the recess of the first region, wherein at the first region is preferably formed a stop against which the second region is able to be brought into abutment, or in that the first region has a projection which comprises at its free end a bearing for the third axis, and in that the second region has a recess substantially complementary to the projection of the first region, wherein at the first region is preferably formed a stop against which the second region is able to be brought into abutment.
A nano-oxide composition for improving adhesion between copper or copper alloy and a resin, the composition comprising: (a) a chlorite salt; (b) source of alkalinity; (c) a phosphate salt; (d) an organic nitro compound selected from aromatic nitro compounds; and (e) a thio compound selected from thiosulfuric acid and thiosulfate salts. (a) a chlorite salt; (b) source of alkalinity; (c) a phosphate salt; (d) an organic nitro compound selected from aromatic nitro compounds; and (e) a thio compound selected from thiosulfuric acid and thiosulfate salts.
A device for testing a power module (Mp) of a set of power modules (Mp) connected together, the test device including reactive power compensation means (1, 2) configured to compensate the reactive power transferred between the tested power module and the other power modules, and means for controlling the power generated by the tested power module, said means for controlling the generated power comprising means for comparing (Mcomp) said generated power with at least one threshold value, the means for compensating the reactive power being constituted by one of the power modules configured to compensate the reactive power exchanged with the tested power module, characterised in that each power module comprises a multi-phase and multi-channel synchronous electric machine including a stator comprising several groups of three phases (4, 5, 6) with a level of magnetic coupling allowing each channel to be controlled separately.
A method of identifying a therapeutic agent for cancer in an individual, the method comprising: a. providing an adipocyte differentiation signal to human preadipocytes; b. preparing a solid or semi-solid stromal bio-ink, the stromal bio-ink comprising a plurality of stromal cell types, the stromal cell types comprising the human preadipocytes of (a); c. preparing a solid or semi-solid tumor bio-ink, the tumor bio-ink comprising primary cancer cells from the individual; d. bioprinting the stromal bio-ink and the tumor bio-ink from a bioprinter, such that the tumor bio-ink is embedded in the stromal bio-ink and in contact with the stromal bio-ink on all sides; e. maturing the bioprinted stromal and tumor bio-inks in a cell culture media to allow the cells to cohere to form a three-dimensional, engineered, biological construct; f. applying a candidate therapeutic agent to the construct; g. measuring viability of the cancer cells; and h. selecting a therapeutic agent for the individual based on the measured viability of the cancer cells; wherein the bio-inks comprise cells, cells combined with an excipient or extrusion compound, or aggregates of cells, and wherein the stromal bio-ink comprises differentiating human preadipocytes at the time of bioprinting that differentiate into human adipocytes post-bioprinting. a. providing an adipocyte differentiation signal to human preadipocytes; b. preparing a solid or semi-solid stromal bio-ink, the stromal bio-ink comprising a plurality of stromal cell types, the stromal cell types comprising the human preadipocytes of (a); c. preparing a solid or semi-solid tumor bio-ink, the tumor bio-ink comprising primary cancer cells from the individual; d. bioprinting the stromal bio-ink and the tumor bio-ink from a bioprinter, such that the tumor bio-ink is embedded in the stromal bio-ink and in contact with the stromal bio-ink on all sides; e. maturing the bioprinted stromal and tumor bio-inks in a cell culture media to allow the cells to cohere to form a three-dimensional, engineered, biological construct; f. applying a candidate therapeutic agent to the construct; g. measuring viability of the cancer cells; and h. selecting a therapeutic agent for the individual based on the measured viability of the cancer cells; wherein the bio-inks comprise cells, cells combined with an excipient or extrusion compound, or aggregates of cells, and wherein the stromal bio-ink comprises differentiating human preadipocytes at the time of bioprinting that differentiate into human adipocytes post-bioprinting. wherein the bio-inks comprise cells, cells combined with an excipient or extrusion compound, or aggregates of cells, and wherein the stromal bio-ink comprises differentiating human preadipocytes at the time of bioprinting that differentiate into human adipocytes post-bioprinting.
A method for cooling a brake system, characterised by determining a turnaround time parameter; determining a time to cool parameter; determining a parameter difference between the time to cool parameter and the turnaround time parameter; and adjusting a flow of air directed at the brake system based on the parameter difference. determining a turnaround time parameter; determining a time to cool parameter; determining a parameter difference between the time to cool parameter and the turnaround time parameter; and adjusting a flow of air directed at the brake system based on the parameter difference.
Method for the production of a function shaft, which method comprises at least the following steps: that at least two functional elements, each provided with at least one recess and having a predefined angular position and with a predefined axial distance to each other, have a retaining element inserted axially one behind the other, that at least one shaft is inserted in the recesses of the functional elements, that at least one force is measured in the shunt circuit, which is exerted on at least one functional element during the insertion of the shaft into the recesses of the functional elements by measuring a force which is exerted on the respective holding element, and that the torque which is at least transmittable by the shaft and the respective functional element is determined from the respectively measured force. that at least two functional elements, each provided with at least one recess and having a predefined angular position and with a predefined axial distance to each other, have a retaining element inserted axially one behind the other, that at least one shaft is inserted in the recesses of the functional elements, that at least one force is measured in the shunt circuit, which is exerted on at least one functional element during the insertion of the shaft into the recesses of the functional elements by measuring a force which is exerted on the respective holding element, and that the torque which is at least transmittable by the shaft and the respective functional element is determined from the respectively measured force.
A battery module comprising: a cell stack including a plurality of pouch-type secondary batteries standing upright in up-down directions (±Z axis) and arranged in left-right directions (±Y axis); a busbar frame (20a, 20b) mounted on front and rear sides of the cell stack; a bottom plate made of a thermally conductive material, the bottom plate supporting the cell stack below the cell stack; a thermally conductive resin applied on an upper surface of the bottom plate before the cell stack is placed on the bottom plate; and a fence member (50a, 50b) disposed in front-rear directions (X-axis) of the bottom plate outside of the thermally conductive resin to prevent the thermally conductive resin from leaking out in front-rear directions (X-axis) when placing the cell stack on the bottom plate, wherein the busbar frame (20a, 20b) has a lower end portion bent and extended in an inward direction of the upper surface of the bottom plate, and the fence member (50a, 50b) is provided at an end of the lower end portion of the busbar frame (20a, 20b) and placed on the upper surface of the bottom plate, wherein the fence member (50a, 50b) is provided in a form of a foam or a pad made of rubber and attached to the lower end portion (22a, 22b) of the busbar frame (20a, 20b). a cell stack including a plurality of pouch-type secondary batteries standing upright in up-down directions (±Z axis) and arranged in left-right directions (±Y axis); a busbar frame (20a, 20b) mounted on front and rear sides of the cell stack; a bottom plate made of a thermally conductive material, the bottom plate supporting the cell stack below the cell stack; a thermally conductive resin applied on an upper surface of the bottom plate before the cell stack is placed on the bottom plate; and a fence member (50a, 50b) disposed in front-rear directions (X-axis) of the bottom plate outside of the thermally conductive resin to prevent the thermally conductive resin from leaking out in front-rear directions (X-axis) when placing the cell stack on the bottom plate, wherein the busbar frame (20a, 20b) has a lower end portion bent and extended in an inward direction of the upper surface of the bottom plate, and the fence member (50a, 50b) is provided at an end of the lower end portion of the busbar frame (20a, 20b) and placed on the upper surface of the bottom plate,