mhurhangee/ep-ind-claims huggingface dataset:
A photovoltaic article comprising: i)a photovoltaic cell comprising a. an electrically conductive substrate serving as a backside electrode for the photovoltaic cell, b. a photoactive portion on a frontside of the substrate wherein the photoactive portion comprises a IB-IIIA chalcogenide,, and c. a front side electrical collection system on the opposite side of the photoactive portion from the substrate, wherein the backside of the substrate is plated with a metal which forms the backside surface of the substrate; ii) at least one first electrical connection element having an outer surface which element is electrically connected to a backside surface of the substrate iii) at least one second electrical connection element having an outer surface which element is electrically connected to the front side electrical collection system, wherein the metal that forms the backside surface of the substrate, any metal surfaces that are part of the front-side electrical collection system, and the outer surfaces of the electrical connection elements each are formed from materials having electric potentials that differ by no more than 0.1 volt with the material used on the other surfaces. i)a photovoltaic cell comprising a. an electrically conductive substrate serving as a backside electrode for the photovoltaic cell, b. a photoactive portion on a frontside of the substrate wherein the photoactive portion comprises a IB-IIIA chalcogenide,, and c. a front side electrical collection system on the opposite side of the photoactive portion from the substrate, wherein the backside of the substrate is plated with a metal which forms the backside surface of the substrate; a. an electrically conductive substrate serving as a backside electrode for the photovoltaic cell, b. a photoactive portion on a frontside of the substrate wherein the photoactive portion comprises a IB-IIIA chalcogenide,, and c. a front side electrical collection system on the opposite side of the photoactive portion from the substrate, ii) at least one first electrical connection element having an outer surface which element is electrically connected to a backside surface of the substrate iii) at least one second electrical connection element having an outer surface which element is electrically connected to the front side electrical collection system, wherein the metal that forms the backside surface of the substrate, any metal surfaces that are part of the front-side electrical collection system, and the outer surfaces of the electrical connection elements each are formed from materials having electric potentials that differ by no more than 0.1 volt with the material used on the other surfaces.
A shovel comprising: an undercarriage; an upper swing structure swingably mounted on the undercarriage; an object detector provided on the upper swing structure; and a control device capable of automatically braking a drive part of the shovel, wherein the control device has a first braking pattern and a second braking pattern different from the first braking pattern, the first braking pattern and the second braking pattern being according to a distance between the shovel and an object, the distance being detected by the object detector, and characterized in that; the shovel comprises a body tilt sensor configured to detect an inclination of the shovel; and in that the control device is configured to automatically brake the drive part according to the first braking pattern or the second braking pattern selected based on an output of the body tilt sensor, after detection of the object by the object detector. an undercarriage; an upper swing structure swingably mounted on the undercarriage; an object detector provided on the upper swing structure; and a control device capable of automatically braking a drive part of the shovel, wherein the control device has a first braking pattern and a second braking pattern different from the first braking pattern, the first braking pattern and the second braking pattern being according to a distance between the shovel and an object, the distance being detected by the object detector, and characterized in that; the shovel comprises a body tilt sensor configured to detect an inclination of the shovel; and in that the control device is configured to automatically brake the drive part according to the first braking pattern or the second braking pattern selected based on an output of the body tilt sensor, after detection of the object by the object detector.
An electronic device (400, 500, 600, 700, 800) comprising: first, second and third metal housings and an insulating segment part disposed between the metal housings thereby electrically insulating the metal housings from each other; an antenna (410, 510, 610, 710,) including, a feeding part (412, 512, 612, 712), a ground part (414, 514, 614, 714) and an antenna pattern (416, 516, 616, 716), the antenna pattern including an end portion being disposed at a position (430, 530, 630, 730) corresponding to the insulating segment part (402, 504, 604, 704); and a ground part (420, 520, 620, 720) on a printed circuit board, PCB, characterized in that the end portion of the antenna pattern (416, 516, 616, 716) is configured to form a coupling with an extension part (407, 508, 608, 706) of a ground component in an area (430, 530, 630, 730), the extension part being connected or capacitively coupled to the ground part (420, 520, 620, 720) and being connected to the metal housings. first, second and third metal housings and an insulating segment part disposed between the metal housings thereby electrically insulating the metal housings from each other; an antenna (410, 510, 610, 710,) including, a feeding part (412, 512, 612, 712), a ground part (414, 514, 614, 714) and an antenna pattern (416, 516, 616, 716), the antenna pattern including an end portion being disposed at a position (430, 530, 630, 730) corresponding to the insulating segment part (402, 504, 604, 704); and a ground part (420, 520, 620, 720) on a printed circuit board, PCB, characterized in that the end portion of the antenna pattern (416, 516, 616, 716) is configured to form a coupling with an extension part (407, 508, 608, 706) of a ground component in an area (430, 530, 630, 730), the extension part being connected or capacitively coupled to the ground part (420, 520, 620, 720) and being connected to the metal housings.
Catheter valve having a housing that comprises an entry opening that can be connected to a urine drain catheter, and an exit opening that can be connected, in tight manner, to a connector part of a collection container, and a valve seat that acts in concert with a valve body that is preloaded in closing direction in spring-like manner and is axially shiftable, and can be shifted manually in the opening direction by means of a handle part engaging it, characterised in that the valve body has a projection that extends through the sealing surface of the valve seat to the exit opening, whereby the projection of the valve body has a cross-section that is smaller, to an appropriate extent, than the cross-section of the exit opening such that an axial flow channel into the connector part remains free, but sufficiently large such that the connecting part that can be inserted into the exit opening hits, in some places, against the projection and that, by this means, the valve body can be pushed away from the valve seat into an opening position.
A method for managing variation in spectroscopic intensity measurements, the method comprising: injecting fluid into sample droplets in an emulsion to form droplets to be tested, said droplet to be tested comprising: a) a reference component comprising a spectroscopic substance ("reference spectroscopic substance"), and b) a sample comprising a molecule of interest and one or more spectroscopic substances ("sample spectroscopic substances"); wherein the reference spectroscopic substance and the one or more sample spectroscopic substances are substantially distinct, measuring spectroscopic intensity of each sample spectroscopic substance and the reference component in the droplets to be tested; correcting one or more of the measured sample spectroscopic intensities with the measured reference component spectroscopic intensity. injecting fluid into sample droplets in an emulsion to form droplets to be tested, said droplet to be tested comprising: a) a reference component comprising a spectroscopic substance ("reference spectroscopic substance"), and b) a sample comprising a molecule of interest and one or more spectroscopic substances ("sample spectroscopic substances"); a) a reference component comprising a spectroscopic substance ("reference spectroscopic substance"), and b) a sample comprising a molecule of interest and one or more spectroscopic substances ("sample spectroscopic substances"); wherein the reference spectroscopic substance and the one or more sample spectroscopic substances are substantially distinct, measuring spectroscopic intensity of each sample spectroscopic substance and the reference component in the droplets to be tested; correcting one or more of the measured sample spectroscopic intensities with the measured reference component spectroscopic intensity.
An evaluation apparatus comprising: a placement part on which a sole part of a walking assistance apparatus to be evaluated a durability thereof can be placed; load applying means for applying a load to the walking assistance apparatus in a direction towards the placement part in a state in which the sole part faces the placement part; and driving means for changing a relative angle of the placement part and the sole part by changing an inclination angle of the placement part, characterized in that a placement surface of the placement part comprises a conveyor mechanism configured to move in a direction towards a toe or a heel of the walking assistance apparatus due to influences of the load and the inclination of the placement part. a placement part on which a sole part of a walking assistance apparatus to be evaluated a durability thereof can be placed; load applying means for applying a load to the walking assistance apparatus in a direction towards the placement part in a state in which the sole part faces the placement part; and driving means for changing a relative angle of the placement part and the sole part by changing an inclination angle of the placement part, characterized in that a placement surface of the placement part comprises a conveyor mechanism configured to move in a direction towards a toe or a heel of the walking assistance apparatus due to influences of the load and the inclination of the placement part.
A load guiding arrangement realised for mounting to a crane, which load guiding arrangement comprises a number of load guides, wherein a load guide comprises - a guide wire extending from a lower level (2_L) of the crane to an upper level (2_U) of the crane; - a bridging connector realised to bridge a gap between the guide wire and a control wire, which bridging connector is free to travel along the guide wire and the control wire according to a vertical displacement (D V) of a load; - the control wire extending from a lower level (2_L) of the crane, through the bridging connector to a lifting connector for connecting to the load, and through the bridging connector again to an upper level (2_U) of the crane; and wherein - the bridging connector comprises a plurality of pulley wheels (310, 320_U, 320_L); and - a pulley wheel (310, 320_U, 320_L) is arranged to travel along a wire (31, 32) of the load guide; characterized in that - the bridging connector comprises a housing with the plurality of pulley wheels (310, 320_U, 320_L). - a guide wire extending from a lower level (2_L) of the crane to an upper level (2_U) of the crane; - a bridging connector realised to bridge a gap between the guide wire and a control wire, which bridging connector is free to travel along the guide wire and the control wire according to a vertical displacement (D V) of a load; - the control wire extending from a lower level (2_L) of the crane, through the bridging connector to a lifting connector for connecting to the load, and through the bridging connector again to an upper level (2_U) of the crane; and wherein - the bridging connector comprises a plurality of pulley wheels (310, 320_U, 320_L); and - a pulley wheel (310, 320_U, 320_L) is arranged to travel along a wire (31, 32) of the load guide; characterized in that - the bridging connector comprises a housing with the plurality of pulley wheels (310, 320_U, 320_L).
A display device comprising a plurality of pixel circuits (1000, 1001) and a plurality of light emitting elements (1004, 1005), wherein each pixel circuit (1000,1001) is configured to drive a light emitting element (1004, 1005), each pixel circuit comprising a pixel driver (1006, 1007), and a bridge transistor (1002, 1003), wherein the pixel driver (1006, 1007) is configured to receive a data signal via a corresponding source line and drive a corresponding light emitting element (1004; 1005) based on the data signal; wherein the bridge transistor comprises a gate terminal receiving a first bias signal, a source terminal connected to the pixel driver (1006; 1007), a drain terminal connected to a terminal of the light emitting element (1004; 1005), and a body terminal connected to the source line to receive the data signal, wherein the first bias signal controls a voltage at the source terminal of the bridge transistor, wherein the gate terminals of the bridge transistors arranged in a same row of pixel circuits receive a same first bias signal (VBIAS1), wherein the display device is configured to supply data signals to the corresponding source lines and first bias signals to the gate terminals of the corresponding plurality of bridge transistors. wherein each pixel circuit (1000,1001) is configured to drive a light emitting element (1004, 1005), each pixel circuit comprising a pixel driver (1006, 1007), and a bridge transistor (1002, 1003), wherein the pixel driver (1006, 1007) is configured to receive a data signal via a corresponding source line and drive a corresponding light emitting element (1004; 1005) based on the data signal; wherein the bridge transistor comprises a gate terminal receiving a first bias signal, a source terminal connected to the pixel driver (1006; 1007), a drain terminal connected to a terminal of the light emitting element (1004; 1005), and a body terminal connected to the source line to receive the data signal, wherein the first bias signal controls a voltage at the source terminal of the bridge transistor, wherein the gate terminals of the bridge transistors arranged in a same row of pixel circuits receive a same first bias signal (VBIAS1), wherein the display device is configured to supply data signals to the corresponding source lines and first bias signals to the gate terminals of the corresponding plurality of bridge transistors.
A method for diagnosing Alzheimer's disease, characterized by: determining a biomarker level in a blood sample from a human subject suspected of having AD, the biomarker level being selected from the group consisting of a G72 protein level, and a combination of the G72 protein level and a SLC7A11 mRNA expression level; and comparing the biomarker level with a predetermined standard therefor; wherein an increase in the biomarker level relative to the predetermined standard therefor is indicative of AD in the human subject. determining a biomarker level in a blood sample from a human subject suspected of having AD, the biomarker level being selected from the group consisting of a G72 protein level, and a combination of the G72 protein level and a SLC7A11 mRNA expression level; and comparing the biomarker level with a predetermined standard therefor; wherein an increase in the biomarker level relative to the predetermined standard therefor is indicative of AD in the human subject.
Method for controlling a cleaning robot with a cleaning facility over a surface, wherein the method comprises the following steps: - driving the cleaning robot straight ahead until an obstacle is reached and an obstacle position is determined; - changing the driving direction by a predetermined angle and repeating the preceding step until a sufficient number of obstacle positions have been determined, in order to determine boundaries of the surface; and - guiding the cleaning robot on the surface as a function of the surface's determined boundaries, characterised in that a lure for dust mites is output at a position on the surface; and after a predetermined waiting time following the outputting, a cleaning facility of the cleaning robot is activated in the region of the output lure. - driving the cleaning robot straight ahead until an obstacle is reached and an obstacle position is determined; - changing the driving direction by a predetermined angle and repeating the preceding step until a sufficient number of obstacle positions have been determined, in order to determine boundaries of the surface; and - guiding the cleaning robot on the surface as a function of the surface's determined boundaries, characterised in that a lure for dust mites is output at a position on the surface; and after a predetermined waiting time following the outputting, a cleaning facility of the cleaning robot is activated in the region of the output lure.
A self-setting calcium phosphate composition comprising: a calcium phosphate comprising amorphous calcium phosphate and dicalcium phosphate dihydrate; an effervescent agent that reacts upon hydration of said composition with a physiologically acceptable fluid to produce carbon dioxide as a gaseous component, the effervescent agent comprising a carbonate and a bicarbonate which react upon the hydration of said composition to produce carbon dioxide, wherein the effervescent agent is 1 wt% to 40 wt% of the self-setting calcium phosphate composition; and a biocompatible cohesiveness agent, wherein the biocompatible cohesiveness agent acts as a binder and is 0.5 wt% to 20 wt% of the self-setting calcium phosphate composition; wherein release of said gaseous component from said composition produces a porosity of 5% to 60% in a hardened material formed after said hydration of said composition, and wherein, after hardening, said hardened material has a compressive strength of 1 MPa or greater. a calcium phosphate comprising amorphous calcium phosphate and dicalcium phosphate dihydrate; an effervescent agent that reacts upon hydration of said composition with a physiologically acceptable fluid to produce carbon dioxide as a gaseous component, the effervescent agent comprising a carbonate and a bicarbonate which react upon the hydration of said composition to produce carbon dioxide, wherein the effervescent agent is 1 wt% to 40 wt% of the self-setting calcium phosphate composition; and a biocompatible cohesiveness agent, wherein the biocompatible cohesiveness agent acts as a binder and is 0.5 wt% to 20 wt% of the self-setting calcium phosphate composition; wherein release of said gaseous component from said composition produces a porosity of 5% to 60% in a hardened material formed after said hydration of said composition, and wherein, after hardening, said hardened material has a compressive strength of 1 MPa or greater.
Anaesthesia ventilator for the automated ventilation of a patient, having - an expiratory port and an inspiratory port for the attachment of a ventilation tube directed towards the patient and supplying a breathing gas, - a breathing gas delivery unit, - at least one breathing gas sensor for detecting an anaesthetic gas concentration, - at least one pressure sensor for detecting a pressure of the breathing gas, - and at least one computer, wherein the computer is configured - to actuate the breathing gas delivery unit as a function of the detected pressure and of a preset desired pressure value (ΔP), characterized in that the computer is moreover configured to effect an adaptation of the desired pressure value (ΔP) as a function of the detected anaesthetic gas concentration. - an expiratory port and an inspiratory port for the attachment of a ventilation tube directed towards the patient and supplying a breathing gas, - a breathing gas delivery unit, - at least one breathing gas sensor for detecting an anaesthetic gas concentration, - at least one pressure sensor for detecting a pressure of the breathing gas, - and at least one computer, wherein the computer is configured - to actuate the breathing gas delivery unit as a function of the detected pressure and of a preset desired pressure value (ΔP),
A negative electrode for a lithium secondary battery, comprising: a negative electrode current collector; a first negative electrode active material layer on a surface of the negative electrode current collector and comprising a first negative electrode active material; and a second negative electrode active material layer on a surface of the first negative electrode active material layer and comprising a second negative electrode active material, and a polymer coating layer on a surface of the second negative electrode active material, wherein the second negative electrode active material layer further comprises lithium. a negative electrode current collector; a first negative electrode active material layer on a surface of the negative electrode current collector and comprising a first negative electrode active material; and a second negative electrode active material layer on a surface of the first negative electrode active material layer and comprising a second negative electrode active material, and a polymer coating layer on a surface of the second negative electrode active material, wherein the second negative electrode active material layer further comprises lithium.