mhurhangee/ep-ind-claims huggingface dataset:
Frequency converter, comprising: - a printed circuit board having regions to be protected against touch, - a plastic moulded body having holding means configured to mechanically fix the printed circuit board in the plastic moulded body in a releasable manner, wherein, with the printed circuit board fixed in the plastic moulded body, the regions of the printed circuit board to be protected against touch are covered by the plastic moulded body in such a way that touch is prevented, and - a housing (4a, 4b), into which the plastic moulded body and also the printed circuit board fixed in the plastic moulded body are inserted, - wherein at least one power semiconductor component is arranged on the printed circuit board, a pressure plate being assigned to said at least one power semiconductor component, wherein the pressure plate is formed in the plastic moulded body. - a printed circuit board having regions to be protected against touch, - a plastic moulded body having holding means configured to mechanically fix the printed circuit board in the plastic moulded body in a releasable manner, wherein, with the printed circuit board fixed in the plastic moulded body, the regions of the printed circuit board to be protected against touch are covered by the plastic moulded body in such a way that touch is prevented, and - a housing (4a, 4b), into which the plastic moulded body and also the printed circuit board fixed in the plastic moulded body are inserted, - wherein at least one power semiconductor component is arranged on the printed circuit board, a pressure plate being assigned to said at least one power semiconductor component, wherein the pressure plate is formed in the plastic moulded body.
A device, comprising: a plurality of device cells at least partially disposed in a semiconductor device layer having a first conductivity type, wherein each device cell of the plurality comprises: a body region having a second conductivity type disposed near the center of the device cell; a source region having the first conductivity type disposed adjacent to the body region of the device cell; a channel region having the second conductivity type disposed adjacent to the source region of the device cell; and a JFET region having the first conductivity type disposed adjacent the channel region of the device cell, wherein the JFET region has a parallel JFET width between the channel region of the device cell and a parallel portion of a channel region of a neighboring device cell of the plurality of device cells, wherein at least one device cell of the plurality of device cells comprises a body region extension having the second conductivity type that extends outwardly from the body region of the at least one device cell, through the source region of the at least one device cell, through the channel region of the at least one device cell, and into the JFET region such that a distance between the body region extension of the at least one device cell and a region of the neighboring device cell having the second conductivity type is less than or equal to the parallel JFET width, characterised in that; one or more device cells of the plurality of device cells disposed adjacent to the at least one device cell do not include respective body region extensions, and wherein the one or more device cells are shielded by the body region extension of the at least one device cell.. a body region having a second conductivity type disposed near the center of the device cell; a source region having the first conductivity type disposed adjacent to the body region of the device cell; a channel region having the second conductivity type disposed adjacent to the source region of the device cell; and a JFET region having the first conductivity type disposed adjacent the channel region of the device cell, wherein the JFET region has a parallel JFET width between the channel region of the device cell and a parallel portion of a channel region of a neighboring device cell of the plurality of device cells, wherein at least one device cell of the plurality of device cells comprises a body region extension having the second conductivity type that extends outwardly from the body region of the at least one device cell, through the source region of the at least one device cell, through the channel region of the at least one device cell, and into the JFET region such that a distance between the body region extension of the at least one device cell and a region of the neighboring device cell having the second conductivity type is less than or equal to the parallel JFET width, characterised in that; one or more device cells of the plurality of device cells disposed adjacent to the at least one device cell do not include respective body region extensions, and wherein the one or more device cells are shielded by the body region extension of the at least one device cell..
A secondary battery structure comprising: a can; an electrode assembly accommodated in the can, the electrode assembly comprising a cathode tab and an anode tab; a cap plate sealing an opened upper end of the can; and an upper insulator disposed between the can and the cap plate, the upper insulator having one or more than one cathode tab holes for the cathode tab, one or more than one anode tab holes for the anode tab, and one or more than one injection/impregnation holes for injecting and impregnating, wherein each of the one or more than one cathode tab holes, the one or more than one anode tab holes, and the one or more than one injection/impregnation holes extends in a length or width direction of the upper insulator and is symmetrical with respect to at least one of a line (a) that equally divides the upper insulator in a width direction and a line (b) that equally divides the upper insulator in a length direction, and characterized in that a reinforcing piece is disposed along a circumference of each of top and bottom surfaces of the upper insulator and the reinforcing piece extends in the length or width direction of the upper insulator and is symmetrical with respect to the line (c) that equally divides the upper insulator in the thickness direction, and the one or more than one cathode tab holes are opened in the width direction of the upper insulator, and the one or more than one cathode tab holes are provided in two on each of both sides of the upper insulator. a can; an electrode assembly accommodated in the can, the electrode assembly comprising a cathode tab and an anode tab; a cap plate sealing an opened upper end of the can; and an upper insulator disposed between the can and the cap plate, the upper insulator having one or more than one cathode tab holes for the cathode tab, one or more than one anode tab holes for the anode tab, and one or more than one injection/impregnation holes for injecting and impregnating, wherein each of the one or more than one cathode tab holes, the one or more than one anode tab holes, and the one or more than one injection/impregnation holes extends in a length or width direction of the upper insulator and is symmetrical with respect to at least one of a line (a) that equally divides the upper insulator in a width direction and a line (b) that equally divides the upper insulator in a length direction, and
Ultrasonic motor, comprising a plurality of plate shaped piezoelectric ultrasonic actuators, with at least one friction element disposed at the ultrasonic actuators, wherein an element to be driven is assigned to a respective one of the ultrasonic actuators or to a respective a pair of ultrasonic actuators and wherein the ultrasonic motor further comprises a housing and an electrical excitation device, characterized in that the elements to be driven are movable independently from each other, and in that each ultrasonic actuator or each pair of ultrasonic actuators is arranged in a holder, wherein the holders are pressed against each other by means of housing side lids, and the friction elements of the ultrasonic actuators are pressed against a friction layer of the respective element to be driven by means of an elastic intermediate layer which is in contact with edge surfaces of the ultrasonic actuators, the edge surfaces lying opposite to the friction elements.
A laminate article comprising: a glass substrate having opposing major surfaces and a first average strain-to-failure; a crack mitigating layer disposed on a first major surface forming a first interface, wherein the crack mitigating layer has a thickness of 100 nm or less and comprises a plasma-polymerized polymer; and a film disposed on the crack mitigating layer forming a second interface, the film having a second average strain-to-failure that is less than the first average strain-to-failure and an elastic modulus of 25 GPa or more, wherein (i) at least one of the first interface and the second interface exhibits a moderate adhesion such that at least a portion of the crack mitigating layer separates from the film or the glass substrate when the article is strained to a strain level between the first average strain-to-failure and the second average strain-to-failure, (ii) the article exhibits an effective adhesion energy at one or more of the first interface and the second interface of less than about 4 J/m 2, or (iii) the crack mitigating layer causes a crack originating in one of the film and the glass substrate and entering into the crack mitigating layer to remain within the crack mitigating layer. a glass substrate having opposing major surfaces and a first average strain-to-failure; a crack mitigating layer disposed on a first major surface forming a first interface, wherein the crack mitigating layer has a thickness of 100 nm or less and comprises a plasma-polymerized polymer; and a film disposed on the crack mitigating layer forming a second interface, the film having a second average strain-to-failure that is less than the first average strain-to-failure and an elastic modulus of 25 GPa or more, wherein (i) at least one of the first interface and the second interface exhibits a moderate adhesion such that at least a portion of the crack mitigating layer separates from the film or the glass substrate when the article is strained to a strain level between the first average strain-to-failure and the second average strain-to-failure, (ii) the article exhibits an effective adhesion energy at one or more of the first interface and the second interface of less than about 4 J/m 2, or (iii) the crack mitigating layer causes a crack originating in one of the film and the glass substrate and entering into the crack mitigating layer to remain within the crack mitigating layer. (i) at least one of the first interface and the second interface exhibits a moderate adhesion such that at least a portion of the crack mitigating layer separates from the film or the glass substrate when the article is strained to a strain level between the first average strain-to-failure and the second average strain-to-failure, (ii) the article exhibits an effective adhesion energy at one or more of the first interface and the second interface of less than about 4 J/m 2, or (iii) the crack mitigating layer causes a crack originating in one of the film and the glass substrate and entering into the crack mitigating layer to remain within the crack mitigating layer.
In-line measuring device for measuring a medium, particularly a gaseous and/or liquid medium, flowing in a pipe, said in-line measuring device comprising a vibronic-type sensor and measuring device electronics electrically coupled with the sensor, - wherein the sensor has -- at least one measuring tube (4, 5) which communicates with the pipe and vibrates during operation -- an electromechanical, particularly an electrodynamic, exciter arrangement which acts on the at least one measuring tube and is designed to generate and maintain mechanical vibrations of the measuring tube, -- a sensor arrangement for generating at least one vibration measuring signal (S VB) representing vibrations of the measuring tube with at least one vibration sensor arranged on the measuring tube or in the vicinity of the measuring tube, and -- a sensor housing accommodating the at least one measuring tube together with the exciter and the sensor arrangement, and - wherein the measuring device electronics monitor a static internal pressure within the sensor housing. - wherein the sensor has -- at least one measuring tube (4, 5) which communicates with the pipe and vibrates during operation -- an electromechanical, particularly an electrodynamic, exciter arrangement which acts on the at least one measuring tube and is designed to generate and maintain mechanical vibrations of the measuring tube, -- a sensor arrangement for generating at least one vibration measuring signal (S VB) representing vibrations of the measuring tube with at least one vibration sensor arranged on the measuring tube or in the vicinity of the measuring tube, and -- a sensor housing accommodating the at least one measuring tube together with the exciter and the sensor arrangement, and -- at least one measuring tube (4, 5) which communicates with the pipe and vibrates during operation -- an electromechanical, particularly an electrodynamic, exciter arrangement which acts on the at least one measuring tube and is designed to generate and maintain mechanical vibrations of the measuring tube, -- a sensor arrangement for generating at least one vibration measuring signal (S VB) representing vibrations of the measuring tube with at least one vibration sensor arranged on the measuring tube or in the vicinity of the measuring tube, and -- a sensor housing accommodating the at least one measuring tube together with the exciter and the sensor arrangement, and - wherein the measuring device electronics monitor a static internal pressure within the sensor housing.
A laundry detergent formulation comprising: (i) from 10 to 40 wt% of a surfactant selected from: anionic and non-ionic surfactants; (ii) from 0.5 to 10 wt% of an alkyl ether carboxylic acid dispersant, in addition to other surfactants present, the alkyl ether carboxylic acid dispersant of the following structure: CH 3 (CH 2) 17 -(OCH 2 CH 2) n -OCH 2 -COOH, wherein: n is the average ethoxylation and n is selected from 15 to 20. (i) from 10 to 40 wt% of a surfactant selected from: anionic and non-ionic surfactants; (ii) from 0.5 to 10 wt% of an alkyl ether carboxylic acid dispersant, in addition to other surfactants present, the alkyl ether carboxylic acid dispersant of the following structure: CH 3 (CH 2) 17 -(OCH 2 CH 2) n -OCH 2 -COOH, wherein: n is the average ethoxylation and n is selected from 15 to 20. n is the average ethoxylation and n is selected from 15 to 20.
A transmission point device for compensating time alignment error and/or frequency alignment error for antenna ports belonging to transmission point devices in Coordinated Multipoint Transmission (CoMP), the TAE including internal TAE and external TAE, the transmission point device comprising: a determining unit adapted to determine, from one or more UEs, a first set of UEs adapted to measure and feedback the internal TAE, and a second set of UEs adapted to measure and feedback the external TAE, and/or a third set of UEs adapted to measure and feedback the FAE, wherein the determining unit is adapted to determine UEs with Line-of-sight channel as the first set of UEs; a receiving unit adapted to receive the internal TAE, the external TAE, and/or the FAE from the determined first set of UEs, and the second set of UEs, and/or the third set of UEs, respectively, wherein the internal TAE is a TAE among antenna ports in a same transmission point device, the external TAE is a TAE among antenna ports in different transmission point devices, and the FAE is a FAE between a serving transmission point device and any other transmission point device and/or a FAE among antenna ports in a same transmission point device, wherein the TAE is measured based on phase difference between antenna ports of different frequencies at a specific time and the FAE is measured based on phase difference between antenna ports of a specific frequency at different times; and a compensating unit adapted to compensate the measured internal TAE, and the measured external TAE, and/or the measured FAE for respective antenna ports on the basis of the received internal TAE, and external TAE, and/or FAE. a determining unit adapted to determine, from one or more UEs, a first set of UEs adapted to measure and feedback the internal TAE, and a second set of UEs adapted to measure and feedback the external TAE, and/or a third set of UEs adapted to measure and feedback the FAE, wherein the determining unit is adapted to determine UEs with Line-of-sight channel as the first set of UEs; a receiving unit adapted to receive the internal TAE, the external TAE, and/or the FAE from the determined first set of UEs, and the second set of UEs, and/or the third set of UEs, respectively, wherein the internal TAE is a TAE among antenna ports in a same transmission point device, the external TAE is a TAE among antenna ports in different transmission point devices, and the FAE is a FAE between a serving transmission point device and any other transmission point device and/or a FAE among antenna ports in a same transmission point device, wherein the TAE is measured based on phase difference between antenna ports of different frequencies at a specific time and the FAE is measured based on phase difference between antenna ports of a specific frequency at different times; and a compensating unit adapted to compensate the measured internal TAE, and the measured external TAE, and/or the measured FAE for respective antenna ports on the basis of the received internal TAE, and external TAE, and/or FAE.
Method for optically inspecting containers, wherein the containers are transported to an inspection unit with an illumination unit and with a camera, wherein the illumination unit emits light from a flat light-emitting surface, wherein the light is transmitted or reflected via the containers, wherein the camera detects at least one of the containers and the light transmitted or reflected thereover in at least one camera image, and wherein the at least one camera image is evaluated by an image processing unit for intensity information in order to detect foreign bodies and/or defects in the containers, wherein the light emitted by the light-emitting surface is detected by the camera in such a way that different emission locations of the light-emitting surface can be distinguished from one another in the at least one camera image, where the light emitted by the light-emitting surface is locally coded on the basis of a polarization property and/or a phase property, and wherein the image processing unit evaluates the at least one camera image with regard to location information of the emission points in order to distinguish the defects from the foreign bodies. the light emitted by the light-emitting surface is locally coded on the basis of a polarization property and/or a phase property, and wherein the image processing unit evaluates the at least one camera image with regard to location information of the emission points in order to distinguish the defects from the foreign bodies.
A method for preparing a cardiomyocyte population for transplantation therapy, the method comprising the steps of: inducing human pluripotent stem cells to differentiate into cardiomyocytes, bringing a cell population obtained by the induced differentiation into contact with a laminin fragment selected from the group consisting of laminin α2β1γ1 E8 fragment, laminin α2β2γ1 E8 fragment, laminin α1β1γ1 E8 fragment and laminin α1β2γ1 E8 fragment, and retrieving cells adherent to the laminin fragment, wherein the contact of the cell population with the laminin fragment in step is achieved by adding a cell suspension containing the cell population obtained in step to a culture vessel having a culture surface coated with the laminin fragment, followed by a certain period of incubation; by adding a carrier coated with the laminin fragment to a cell suspension containing the cell population obtained in step, followed by a certain period of incubation; or by passing a cell suspension containing the cell population obtained in step through a hollow fiber membrane having an inner surface coated with the laminin fragment, and wherein step comprises removing cells not adherent to the laminin fragment and then detaching cells adherent to the laminin fragment using a cell detachment solution, wherein the contact in step is continued for 15 minutes to 180 minutes. inducing human pluripotent stem cells to differentiate into cardiomyocytes, bringing a cell population obtained by the induced differentiation into contact with a laminin fragment selected from the group consisting of laminin α2β1γ1 E8 fragment, laminin α2β2γ1 E8 fragment, laminin α1β1γ1 E8 fragment and laminin α1β2γ1 E8 fragment, and retrieving cells adherent to the laminin fragment, wherein the contact of the cell population with the laminin fragment in step is achieved by adding a cell suspension containing the cell population obtained in step to a culture vessel having a culture surface coated with the laminin fragment, followed by a certain period of incubation; by adding a carrier coated with the laminin fragment to a cell suspension containing the cell population obtained in step, followed by a certain period of incubation; or by passing a cell suspension containing the cell population obtained in step through a hollow fiber membrane having an inner surface coated with the laminin fragment, and wherein step comprises removing cells not adherent to the laminin fragment and then detaching cells adherent to the laminin fragment using a cell detachment solution, wherein the contact in step is continued for 15 minutes to 180 minutes.
A system for reducing anal incontinence including a rectal sling implantable in a patient and an introducer needle having a needle tip and a needle shaft, said introducer needle attachable to the rectal sling, the rectal sling having a central portion attached to at least two arms (18, 19) extending therefrom characterized by: the central portion having a preformed curved shape that is wider than said at least two arms and which, after implantation, is structured to conform to the external contour of the anus, rectum, a no-rectal angle and/or levator ani muscles in said patient.