mhurhangee/ep-ind-claims huggingface dataset:
A female housing comprising: a first holding portion configured to hold first female terminals for power supply; a second holding portion adjacent to the first holding portion, formed as one unitary piece with the first holding portion, and configured to hold second female terminals for communication; characterized in that a conductive shield layer configured to separate the first holding portion from the second holding portion, wherein the female housing includes a main member into which the first female terminals and the second female terminals are inserted, and a holding member configured to be engaged with the main member to hold the first female terminals, the holding member includes a partition wall configured to separate the first holding portion from the second holding portion, and the shield layer is provided on the partition wall. a first holding portion configured to hold first female terminals for power supply; a second holding portion adjacent to the first holding portion, formed as one unitary piece with the first holding portion, and configured to hold second female terminals for communication; characterized in that a conductive shield layer configured to separate the first holding portion from the second holding portion, wherein the female housing includes a main member into which the first female terminals and the second female terminals are inserted, and a holding member configured to be engaged with the main member to hold the first female terminals, the holding member includes a partition wall configured to separate the first holding portion from the second holding portion, and the shield layer is provided on the partition wall.
An image forming apparatus which discharges a sheet having an image formed thereon from a rear side of the apparatus toward a front side of the apparatus, the image forming apparatus comprising: a sheet placement portion on which sheets discharged are stacked; an operation panel; and a protruding portion extending in a sheet discharge direction while protruding upward beyond a top surface of the sheet placement portion, wherein the operation panel has a display portion which displays information related to image formation, characterized in that the operation panel is arranged in a downstream-side end part of the sheet placement portion in the sheet discharge direction, the operation panel having at least part thereof arranged in a placement region of the sheet placement portion while sheets are being stacked in said placement region, the protruding portion is arranged to a side of the operation panel in the placement region, and at least a half of the display portion is arranged in the placement region. a sheet placement portion on which sheets discharged are stacked; an operation panel; and a protruding portion extending in a sheet discharge direction while protruding upward beyond a top surface of the sheet placement portion, wherein the operation panel has a display portion which displays information related to image formation, characterized in that the operation panel is arranged in a downstream-side end part of the sheet placement portion in the sheet discharge direction, the operation panel having at least part thereof arranged in a placement region of the sheet placement portion while sheets are being stacked in said placement region, the protruding portion is arranged to a side of the operation panel in the placement region, and at least a half of the display portion is arranged in the placement region.
A valve cage, comprising: a plurality of cage sections (104, 504, 904, 1304) removably coupled together to form a circumference (102, 502, 902, 1302) of the valve cage; and a plurality of joints (112, 512, 912, 1312), respective ones of the plurality of joints (112, 512, 912, 1312) being defined by neighboring ones of the plurality of cage sections (104, 504, 904, 1304), the plurality of joints corresponding in number to the plurality of cage sections (104, 504, 904, 1304), respective ones of the plurality of joints (112, 512, 912, 1312) being spaced apart from one another about the circumference, characterized in that each cage section (104, 504, 904, 1304) of the plurality of cage sections includes a plurality of openings (202, 602, 1002, 1402) extending through a side wall (108, 508, 908, 1308) of the cage section. a plurality of cage sections (104, 504, 904, 1304) removably coupled together to form a circumference (102, 502, 902, 1302) of the valve cage; and a plurality of joints (112, 512, 912, 1312), respective ones of the plurality of joints (112, 512, 912, 1312) being defined by neighboring ones of the plurality of cage sections (104, 504, 904, 1304), the plurality of joints corresponding in number to the plurality of cage sections (104, 504, 904, 1304), respective ones of the plurality of joints (112, 512, 912, 1312) being spaced apart from one another about the circumference, characterized in that each cage section (104, 504, 904, 1304) of the plurality of cage sections includes a plurality of openings (202, 602, 1002, 1402) extending through a side wall (108, 508, 908, 1308) of the cage section.
Method for producing a device for the aftertreatment of exhaust gases and for coating a honeycomb body, provided in the device, with a catalytically active surface coating, wherein the honeycomb body is formed from a multiplicity of metallic, at least partially structured foils which are stacked one on top of another and wound so that the honeycomb body forms a multiplicity of flow channels through which fluid can flow along a main flow direction, wherein the honeycomb body is received in an inner casing and is durably connected thereto, wherein the inner casing is arranged in an outer casing serving as a housing and is durably connected thereto, characterized in that, before the introduction of the catalytically active coating into the flow channels formed by the honeycomb body, an air gap or air gaps, which have been formed between the outer casing and the inner casing, are filled by a filler.
Cyclo(-His-Pro) hydrate compound characterized by an X-ray powder diffraction (XRPD) diffractogram comprising peaks at about 13.7, 17, and 27.3 degrees (±0.2° in 2θ).
Mounting for use in a digitally controlled material-removing process, containing at least one fixed real prefabricated prosthetic tooth, characterised in that the mounting has a plane (1.1) in which at least one flat three-dimensional moulded body is arranged, or the mounting has a plane (1.1) in which at least two clamping elements are arranged, at least one real prefabricated prosthetic tooth being fixed in the moulded body or between the clamping elements, the tooth axis (3.1) of the at least one prefabricated prosthetic tooth being arranged at an angle of 20° to 160° to the plane (1.1) of the mounting, so that the at least one real prefabricated prosthetic tooth may be processed from coronal (3.2) and/or from apical (3.3) in a material-removing process, and digital or scannable correction factors being assigned to the mounting for the spatial, real arrangement of the at least one prefabricated prosthetic tooth in relation to a reference arrangement comprising at least one corresponding real prefabricated reference prosthetic tooth in a real reference mounting of the mounting or at least one virtual prefabricated reference prosthetic tooth, optionally in a virtual reference mounting of the mounting, the digital or scannable correction factors forming translation (x,y,z) data and optionally the data of rotation of the respective outer shape of the respective real prefabricated prosthetic tooth in the ACTUAL arrangement to the TARGET arrangement, i.e. the reference arrangement.
An annular scraper for cleaning a portion of a piston in an engine assembly, the annular scraper comprising: an outer annular metallic shell portion and an inlaid thermal barrier coating portion; the inlaid thermal barrier coating portion being concentric with the outer annular metallic shell portion, the annular scraper being characterized by the inlaid thermal barrier coating portion being positioned within an annular recess between an upper and radially inner edge and a lower and radially inner edge, the upper and radially inner edge and the lower and radially inner edge being positioned on an axially outer edge of the annular scraper.
Housing for a laboratory instrument, comprising a floor, ceiling, rear wall, side walls and front wall, which jointly form a working chamber, wherein the front wall is movable upward and downward between a lowered closing position and a raised opening position in a linear and, at the same time, in a pivoting manner and, in the opening position of the front wall, the working chamber is open on the front side of the housing, characterized in that the front wall has a bottom plate-like wall portion, and a top plate-like wall portion connected to the bottom wall portion pivotably about a first horizontal pivot axis, the bottom wall portion is provided on or close to the bottom edge with lateral guide elements, which mutually define a second pivot axis, parallel to the first pivot axis, for the bottom wall portion, at the right side and at the left side of the front wall vertically upwardrunning lateral guides are arranged, in that, for the movement of the front wall, the lateral guide elements run in the lateral guides and are movable upward and downward therein, in that the top wall portion merges arcuately into a plate-like connecting portion running at an angle to the top wall portion or is connected thereto in an angularly rigid manner, and in that the connecting portion, on its edge remote from the top wall portion, is attached to the ceiling, at a distance from the front wall, pivotably about a third pivot axis parallel to the first pivot axis.
Alkali-sulfur battery containing an electrolyte that is suitable for an alkali-sulfur battery, wherein the electrolyte comprises a) a nonpolar, acyclic ether with the chemical formula: X-O-Y wherein O is an oxygen atom; and X and Y are each a saturated or unsaturated linear or cyclic hydrocarbon residue; b) a polar aprotic organic solvent; and c) a conductive salt for an alkali-sulfur battery, wherein the nonpolar acyclic ether is a non-fluorinated ether, characterized in that the volume ratio of the nonpolar, acyclic, non-fluorinated ether to the polar aprotic, organic solvent is 3:1 to 9:1 (v/v). a) a nonpolar, acyclic ether with the chemical formula: X-O-Y wherein O is an oxygen atom; and X and Y are each a saturated or unsaturated linear or cyclic hydrocarbon residue; O is an oxygen atom; and X and Y are each a saturated or unsaturated linear or cyclic hydrocarbon residue; b) a polar aprotic organic solvent; and c) a conductive salt for an alkali-sulfur battery,
An electrode group comprising an electrode stack, the electrode stack being wound to configure a wound electrode structure, the electrode stack comprising: an electrically insulating layer; a first band-shaped electrode; and a second band-shaped electrode stacked in a first direction on the first band-shaped electrode with the electrically insulating layer interposed therebetween, the first band-shaped electrode comprising plural laps stacked within the wound electrode structure and two regions or three or more regions having different short-side widths parallel to a winding axis direction of the wound electrode, lengths of each region in a long-side direction of the first band-shaped electrode coinciding with a circumferential length of a winding lap where the respective region is located within the wound electrode group, whereby the short-side widths of the first band-shaped electrode structure are different between two laps adjacent in a stacking direction, among the plural laps, the second band-shaped electrode having a width in a short-side direction parallel to the winding axis direction that is same over an entire span of the second band-shaped electrode, the first band-shaped electrode being a positive electrode and the second band-shaped electrode being a negative electrode, or the first band-shaped electrode being the negative electrode and the second band-shaped electrode being the positive electrode. an electrically insulating layer; a first band-shaped electrode; and a second band-shaped electrode stacked in a first direction on the first band-shaped electrode with the electrically insulating layer interposed therebetween, the first band-shaped electrode comprising plural laps stacked within the wound electrode structure and two regions or three or more regions having different short-side widths parallel to a winding axis direction of the wound electrode, lengths of each region in a long-side direction of the first band-shaped electrode coinciding with a circumferential length of a winding lap where the respective region is located within the wound electrode group, whereby the short-side widths of the first band-shaped electrode structure are different between two laps adjacent in a stacking direction, among the plural laps, the second band-shaped electrode having a width in a short-side direction parallel to the winding axis direction that is same over an entire span of the second band-shaped electrode, the first band-shaped electrode being a positive electrode and the second band-shaped electrode being a negative electrode, or the first band-shaped electrode being the negative electrode and the second band-shaped electrode being the positive electrode.
A wheel isolator coupling having an axis of rotation, comprising: a driver member adaptor for engaging a driver member; a driven member adaptor for engaging a driven member; a resilient member disposed between the driven member adaptor and the driver member adaptor; the driver member adaptor and the driven member adaptor are interconnected such that the driver member adaptor is disposed between the driven member adaptor and the driven member in the axial direction; and the driven member adaptor and the driver member adaptor are interconnected such that the driven member adaptor is disposed between the driver member adaptor and the driver member in the axial direction. a driver member adaptor for engaging a driver member; a driven member adaptor for engaging a driven member; a resilient member disposed between the driven member adaptor and the driver member adaptor; the driver member adaptor and the driven member adaptor are interconnected such that the driver member adaptor is disposed between the driven member adaptor and the driven member in the axial direction; and the driven member adaptor and the driver member adaptor are interconnected such that the driven member adaptor is disposed between the driver member adaptor and the driver member in the axial direction.
A method for providing interactive user controls in a geographic application, the method comprising: providing, by one or more processors via a user interface, a digital map of a geographic area within a viewport (100, 150), wherein the viewport (100, 150) defines a viewable portion of the digital map; repositioning, by the one or more processors, the viewport (100, 150) relative to the digital map in accordance with user commands provided via the user interface; in response to detecting, by the one or more processors, a sequence of user commands that cause a continuous movement of the viewport (100, 150) in a general direction, determining, by the one or more processors, a geographic place located in the general direction of the continuous movement of the viewport (100, 150), wherein the geographic place is located outside the geographic area represented by the digital map provided within the viewport (100, 150); and providing, by the one or more processors via the user interface, an interactive control for directly positioning the viewport (100, 150) over a portion of the digital map representing the geographic place. providing, by one or more processors via a user interface, a digital map of a geographic area within a viewport (100, 150), wherein the viewport (100, 150) defines a viewable portion of the digital map; repositioning, by the one or more processors, the viewport (100, 150) relative to the digital map in accordance with user commands provided via the user interface; in response to detecting, by the one or more processors, a sequence of user commands that cause a continuous movement of the viewport (100, 150) in a general direction, determining, by the one or more processors, a geographic place located in the general direction of the continuous movement of the viewport (100, 150), wherein the geographic place is located outside the geographic area represented by the digital map provided within the viewport (100, 150); and providing, by the one or more processors via the user interface, an interactive control for directly positioning the viewport (100, 150) over a portion of the digital map representing the geographic place.
A method of identifying a modulator of CatSper channel activity, comprising the steps of: a) contacting a sperm sample with a test solution that is essentially free of free calcium, wherein the test solution that is essentially free of free calcium comprises less than about 20 nM free calcium, and a test compound: b) detecting the motility of each sperm cell in the sample under the test condition of step (a); c) identifying the test compound as a modulator of CatSper channel activity if the presence of the compound is correlated with an altered motility of the sperm cell relative to the motility of the sperm cell in the test solution without the test compound. a) contacting a sperm sample with a test solution that is essentially free of free calcium, wherein the test solution that is essentially free of free calcium comprises less than about 20 nM free calcium, and a test compound: b) detecting the motility of each sperm cell in the sample under the test condition of step (a); c) identifying the test compound as a modulator of CatSper channel activity if the presence of the compound is correlated with an altered motility of the sperm cell relative to the motility of the sperm cell in the test solution without the test compound.
An electrosurgical generator having a closed loop control system comprising: a sensor system configured to sense at least one of a tissue property and an energy property at a tissue site and to generate at least one sensor signal representative of the at least one of the tissue property and the energy property; a controller configured to select an electrosurgical operational mode from a plurality of electrosurgical operational modes in response to the at least one sensor signal; a radio frequency arbitrary source configured to generate a radio frequency input signal representative of the selected electrosurgical operational mode; a radio frequency output stage configured to generate a treatment signal corresponding to the selected electrosurgical operational mode; and a predictive signal processor configured to adjust the radio frequency output stage in response to the radio frequency input signal, such that the radio frequency output stage alters the treatment signal in real time based on the selected electrosurgical operational mode; and a high voltage power source configured to generate sufficient voltage for the operation of the radio frequency output stage, wherein the predictive signal processor is configured to adjust the high voltage power source in response to the radio frequency input signal. a sensor system configured to sense at least one of a tissue property and an energy property at a tissue site and to generate at least one sensor signal representative of the at least one of the tissue property and the energy property; a controller configured to select an electrosurgical operational mode from a plurality of electrosurgical operational modes in response to the at least one sensor signal; a radio frequency arbitrary source configured to generate a radio frequency input signal representative of the selected electrosurgical operational mode; a radio frequency output stage configured to generate a treatment signal corresponding to the selected electrosurgical operational mode; and a predictive signal processor configured to adjust the radio frequency output stage in response to the radio frequency input signal, such that the radio frequency output stage alters the treatment signal in real time based on the selected electrosurgical operational mode; and a high voltage power source configured to generate sufficient voltage for the operation of the radio frequency output stage, wherein the predictive signal processor is configured to adjust the high voltage power source in response to the radio frequency input signal.
An instrument system (300, 500) for arthroplasty of a knee joint comprising a femur, a tibia, and a patella, comprising: a base component (302, 502) comprising a bone contacting surface; a femoral riser (304, 504) rigidly coupled to the base component (302, 502); and a femoral extension rod (306, 506); wherein the femoral riser (304, 504) is configured to be rigidly coupled to the base component (302, 502) in more than one orientation; wherein, when the instrument system (300, 500) is operatively attached to the knee joint, the bone contacting surface of the base component (302, 502) is fixed against a distal anterior cortical surface of the femur, the femoral extension rod (306,506) is centered in a distal medial-lateral width of the femur, and the femoral extension rod (306, 506) extends over a center of a head of the femur, characterized in that the femoral extension rod (306, 506) is coupled to the femoral riser (304, 504), and wherein the base component (302, 502) comprises one or more frictional elements (303, 538) on the bone contacting surface. a base component (302, 502) comprising a bone contacting surface; a femoral riser (304, 504) rigidly coupled to the base component (302, 502); and a femoral extension rod (306, 506); wherein the femoral riser (304, 504) is configured to be rigidly coupled to the base component (302, 502) in more than one orientation; wherein, when the instrument system (300, 500) is operatively attached to the knee joint, the bone contacting surface of the base component (302, 502) is fixed against a distal anterior cortical surface of the femur, the femoral extension rod (306,506) is centered in a distal medial-lateral width of the femur, and the femoral extension rod (306, 506) extends over a center of a head of the femur, characterized in that the femoral extension rod (306, 506) is coupled to the femoral riser (304, 504), and wherein the base component (302, 502) comprises one or more frictional elements (303, 538) on the bone contacting surface.