mhurhangee/patent-ind-claim-en huggingface dataset:
Mechanical timepiece movement with power reserve indication, comprising at least one barrel system connected to a winding wheel of a differential gear and an unwinding wheel of the differential gear , an intermediate wheel of the differential gear being connected to at least one cam wheel set for the driving thereof in rotation, a movable element in contact with the cam wheel set acting on an indicator of the power reserve to be displayed, wherein the movable element is arranged to move and actuate a locking member to lock the movement at an unwinding output of the barrel system or in contact with the unwinding wheel of the differential gear , when the power reserve indicator indicates zero, and the cam wheel set includes a wheel to be driven in rotation through a rotational speed reducing stage disposed between the intermediate wheel and a wheel of the cam wheel set , and a cam above the wheel of the cam wheel set for contact with a corner of the movable element .
A structure-borne sound decoupling securing element having a substantially cylindrical body extending along a central longitudinal axis , wherein the body comprises at one end a head having a force engaging portion adjoined by a lower head portion and a neck portion , and a shank portion which terminates with an end portion , characterized in that surface parts of the head , the lower head portion and the neck portion are covered with a hard-elastic material , but the face surface of the head portion facing away from the shank portion remains uncovered; such that on the head , in the lower head portion and in the neck portion all surface regions facing radially outwardly away from the central longitudinal axis are covered with hard-elastic material .
Running rail in the form of a sheet metal profile, in particular a rolled sheet metal profile, preferably in the form of a Z-shaped sheet metal profile, having at least one double-layered profile leg which has at least one track for a sliding door, wherein the one, upper sheet metal layer of the double-layered profile leg has at least one hollow profile projection which is formed by loop-shaped bending of the upper sheet metal layer and which forms the at least one track, characterized (a) in that a free sheet-metal end of the sheet-metal profile rests parallel against a further profile leg , and in that the free sheet-metal end and the further profile leg are connected to one another, in particular are connected to one another in a material-locking or form-locking manner, and/or (b) in that an edge of a free sheet-metal end of the sheet-metal profile rests against a profile projection of a further profile leg . having at least one double-layered profile leg which has at least one track for a sliding door, wherein the one, upper sheet metal layer of the double-layered profile leg has at least one hollow profile projection which is formed by loop-shaped bending of the upper sheet metal layer and which forms the at least one track, characterized (a) in that a free sheet-metal end of the sheet-metal profile rests parallel against a further profile leg , and in that the free sheet-metal end and the further profile leg are connected to one another, in particular are connected to one another in a material-locking or form-locking manner, and/or (b) in that an edge of a free sheet-metal end of the sheet-metal profile rests against a profile projection of a further profile leg . (a) in that a free sheet-metal end of the sheet-metal profile rests parallel against a further profile leg , and in that the free sheet-metal end and the further profile leg are connected to one another, in particular are connected to one another in a material-locking or form-locking manner, and/or (b) in that an edge of a free sheet-metal end of the sheet-metal profile rests against a profile projection of a further profile leg .
A syringe housing for pipetting a biological material, comprising: a syringe body having a first open end and a second open end with a first channel formed therebetween; a first membrane disposed perpendicularly to the longitudinal direction of the first channel and extending across the cross-section thereof; a syringe body attachment having a first open end and a second open end , a second channel being formed therebetween; a second membrane disposed perpendicularly to the longitudinal direction of the second channel and extending across the cross-section thereof; wherein the second open end of the syringe body and the first open end of the syringe body attachment are adapted to be interlocked to form the syringe housing , wherein the first channel and the second channel form a continuous channel in the interlocked state of the syringe housing ; and wherein the first membrane and the second membrane define an extraction volume in the region of the continuous channel; the extraction volume having a continuously constant diameter and said diameter corresponding to the diameter of the continuous channel. a syringe body having a first open end and a second open end with a first channel formed therebetween; a first membrane disposed perpendicularly to the longitudinal direction of the first channel and extending across the cross-section thereof; a syringe body attachment having a first open end and a second open end , a second channel being formed therebetween; a second membrane disposed perpendicularly to the longitudinal direction of the second channel and extending across the cross-section thereof; wherein the second open end of the syringe body and the first open end of the syringe body attachment are adapted to be interlocked to form the syringe housing , wherein the first channel and the second channel form a continuous channel in the interlocked state of the syringe housing ; and wherein the first membrane and the second membrane define an extraction volume in the region of the continuous channel; the extraction volume having a continuously constant diameter and said diameter corresponding to the diameter of the continuous channel.
Valve insert construction kit system of a valve insert with axial throughflow having a non-return valve characterised in that - the valve insert construction kit system has a cover , a bypass valve and a blind plug , which can alternatively be attached coaxially onto the non-return valve , - the non-return valve can be connected via a clip connection to the bypass valve , the cover or the blind plug . - the valve insert construction kit system has a cover , a bypass valve and a blind plug , which can alternatively be attached coaxially onto the non-return valve , - the non-return valve can be connected via a clip connection to the bypass valve , the cover or the blind plug .
A ceramic copper circuit board , comprising: a ceramic substrate ; and a copper circuit board provided at one surface of the ceramic substrate , a ratio of a thickness of the copper circuit board to a thickness of the ceramic substrate being 1.25 or more, and a number of grain boundaries being not less than 5 and not more than 250 along every 10-mm straight line drawn in a front surface of the copper circuit board , characterized in that an arithmetic average roughness Ra of the front surface of the copper circuit board is 0.4 μm or less, a ten-point average roughness Rzjis of the front surface is 4 μm or less, and a maximum height Rz of the front surface is 5 μm or less. a ceramic substrate ; and a copper circuit board provided at one surface of the ceramic substrate , a ratio of a thickness of the copper circuit board to a thickness of the ceramic substrate being 1.25 or more, and a number of grain boundaries being not less than 5 and not more than 250 along every 10-mm straight line drawn in a front surface of the copper circuit board , characterized in that an arithmetic average roughness Ra of the front surface of the copper circuit board is 0.4 μm or less, a ten-point average roughness Rzjis of the front surface is 4 μm or less, and a maximum height Rz of the front surface is 5 μm or less.
An electronic apparatus, comprising a screen and a fingerprint module , wherein an outer surface of the screen is a touch surface , an inner surface of the screen is a light shielding layer , and the light shielding layer comprises a light transmission region located in a display area of the screen , wherein the light transmission region is a through hole disposed in the light shielding layer ; the fingerprint module is fastened to the screen by using a frame adhesive accommodated in the through hole; the fingerprint module comprises a first surface facing the screen , a second surface away from the screen , and a side surface connected between the first surface and the second surface ; and the frame adhesive includes a first connection area and a second connection area that are connected, wherein the second connection area is located on a periphery of the first connection area , the first connection area is bonded to the first surface , an area in which the frame adhesive is bonded to the screen is greater than twice an area in which the frame adhesive is bonded to the fingerprint module , the second connection area is fastened to the side surface by using a first sealing adhesive , and a gap is disposed between an edge of the frame adhesive and an inner wall of the through hole. the fingerprint module is fastened to the screen by using a frame adhesive accommodated in the through hole; the fingerprint module comprises a first surface facing the screen , a second surface away from the screen , and a side surface connected between the first surface and the second surface ; and the frame adhesive includes a first connection area and a second connection area that are connected, wherein the second connection area is located on a periphery of the first connection area , the first connection area is bonded to the first surface , an area in which the frame adhesive is bonded to the screen is greater than twice an area in which the frame adhesive is bonded to the fingerprint module , the second connection area is fastened to the side surface by using a first sealing adhesive , and a gap is disposed between an edge of the frame adhesive and an inner wall of the through hole.
A histogram statistics circuit , wherein the histogram statistics circuit is coupled to a memory , the memory stores multimedia data, and the histogram statistics circuit comprises a counter cache , a controller , a parsing circuit , a matching-and-decoding circuit , and a count value updating circuit , wherein the controller is coupled to the counter cache, the parsing circuit, and the matching-and-decoding circuit, and the count value updating circuit is coupled between the counter cache and the matching-and-decoding circuit; the counter cache is configured to cache Y groups of counters, wherein each group of counters comprises at least one counter and each counter corresponds to one current count value, and Y is a positive integer greater than 1; the controller is configured to control the memory to group pixels in the multimedia data, to obtain M groups of data; the parsing circuit is configured to perform the following step: obtaining an i th group of data from the M groups of data, and parsing each pixel value in the i th group of data, to determine X groups of counters that match the i th group of data in the Y groups of counters stored in the counter cache , wherein X is a positive integer and 1≤X≤Y; and the parsing circuit repeatedly performs the step until i=M, wherein i is a natural number whose starting value is 1 and is increased by 1 in each iterative process; the controller is further configured to control, based on the X groups of counters determined by the parsing circuit , the matching-and-decoding circuit to match the i th group of data with each of the X groups of counters in X clock cycles; the matching-and-decoding circuit is configured to perform the following step: in a j th clock cycle, matching each pixel in the i th group of data with a j th group of counters in the X groups of counters, and instructing, based on a matching result, the count value updating circuit to update a count value of the j th group of counters; and the matching-and-decoding circuit repeatedly performs the step until j=X, wherein j is a natural number whose starting value is 1 and is increased by 1 in each iterative process; and the count value updating circuit is configured to: read a current count value of the j th group of counters from the counter cache in the j th clock cycle, update the current count value of the j th group of counters based on the matching result indicated by the matching-and-decoding circuit, to obtain an updated count value of the j th group of counters, and write back the updated count value of the j th group of counters into the j th group of counters in the counter cache .
An amniotic fluid and/or an extract thereof for use in a method for treatment of myocardial ischemic necrosis; wherein the amniotic fluid is derived from chicken eggs at an embryo age of 5-12 days, from duck eggs at an embryo age of 6-15 days, from goose eggs at an embryo age of 6-15 days, or from embryos of rodents at a gestational age of 8-20 days; and wherein the extract does not bind with an ion exchange column at pH 5.8-8.0, and the molecular weight of the components contained in the extract is in the range of 500-1200 Daltons. wherein the amniotic fluid is derived from chicken eggs at an embryo age of 5-12 days, from duck eggs at an embryo age of 6-15 days, from goose eggs at an embryo age of 6-15 days, or from embryos of rodents at a gestational age of 8-20 days; and wherein the extract does not bind with an ion exchange column at pH 5.8-8.0, and the molecular weight of the components contained in the extract is in the range of 500-1200 Daltons.
A method for producing a composite pane having a display film , wherein at least a) a first thermoplastic composite film is structured by heating and applying pressure to at least one first surface , b) a layer stack consisting of at least the first thermoplastic composite film , the display film , and a second thermoplastic composite film is created, which films are arranged on top of one another in this order in a planar manner, wherein the structured first surface of the first thermoplastic composite film is arranged directly adjacent to the display film , c) the layer stack consisting of the first thermoplastic composite film , the display film and the second thermoplastic composite film is bonded to form a pre-composite by heating and applying pressure, d) the pre-composite is placed onto a first pane or a second pane and is covered with a second pane or a first pane , e) the layer stack consisting of the first pane , the pre-composite and the second pane , in this order, is bonded by autoclaving to form a composite pane , wherein the first thermoplastic composite film has a thickness of 25 μm to 100 μm and a plasticiser content of less than or equal to 10 wt.%, and the second thermoplastic composite film has a thickness of at least 0.3 mm and a plasticiser content of greater than or equal to 15 wt.%. a) a first thermoplastic composite film is structured by heating and applying pressure to at least one first surface , b) a layer stack consisting of at least the first thermoplastic composite film , the display film , and a second thermoplastic composite film is created, which films are arranged on top of one another in this order in a planar manner, wherein the structured first surface of the first thermoplastic composite film is arranged directly adjacent to the display film , c) the layer stack consisting of the first thermoplastic composite film , the display film and the second thermoplastic composite film is bonded to form a pre-composite by heating and applying pressure, d) the pre-composite is placed onto a first pane or a second pane and is covered with a second pane or a first pane , e) the layer stack consisting of the first pane , the pre-composite and the second pane , in this order, is bonded by autoclaving to form a composite pane ,
An aircraft tail cone assembly, comprising: a tail cone ; and a lighting unit mounted on said tail cone , wherein said lighting unit comprises: a lighting unit housing ; at least one light source disposed within said lighting unit ; a proximal end in closely-spaced relation or interfacing relation with said tail cone ; a mounting flange , said mounting flange including at least one open space that projects in a direction of said tail cone , wherein said proximal end comprises said mounting flange ; and a thermal insulator , wherein said proximal end further comprises said thermal insulator , wherein said thermal insulator has a lower thermal conductivity than a thermal conductivity of said mounting flange , and said thermal insulator is disposed within each open space of said at least one open space of said mounting flange . a tail cone ; and a lighting unit mounted on said tail cone , wherein said lighting unit comprises: a lighting unit housing ; at least one light source disposed within said lighting unit ; a proximal end in closely-spaced relation or interfacing relation with said tail cone ; a mounting flange , said mounting flange including at least one open space that projects in a direction of said tail cone , wherein said proximal end comprises said mounting flange ; and a thermal insulator , wherein said proximal end further comprises said thermal insulator , wherein said thermal insulator has a lower thermal conductivity than a thermal conductivity of said mounting flange , and said thermal insulator is disposed within each open space of said at least one open space of said mounting flange . a lighting unit housing ; at least one light source disposed within said lighting unit ; a proximal end in closely-spaced relation or interfacing relation with said tail cone ; a mounting flange , said mounting flange including at least one open space that projects in a direction of said tail cone , wherein said proximal end comprises said mounting flange ; and a thermal insulator , wherein said proximal end further comprises said thermal insulator , wherein said thermal insulator has a lower thermal conductivity than a thermal conductivity of said mounting flange , and said thermal insulator is disposed within each open space of said at least one open space of said mounting flange .
A closed circuit type liquid flow system comprising a liquid flow circuit and a dosing device for introduction of a chemical additive into the liquid flow circuit, said dosing device comprising an inlet port for fluid communication with the liquid flow circuit and a container of chemical additive removably secured or adapted to be removably secured to said inlet port, characterised in that said container comprises a pressurised body and an adaptor for securing the container to the dosing device, said adaptor comprising a location formation to engage with a receiving formation of the inlet port whereby in use the adaptor is positioned to lie between the pressurised body of the container and the inlet port of the dosing device, wherein the container comprises a radio frequency identification (RFID) device which stores data of a parameter related to the correct operation of the liquid flow circuit, said RFID device being secured to the adaptor , and wherein the system comprises a communication device configured to receive data from the container whereby the dosing device is responsive to data received by the communication device , said adaptor being provided with a retention formation for permanent attachment of the adaptor to the container body and the communication device being operable to cause the RFID device to record the container as used or non-re-usable whereby subsequent use of the container in the same or another system is inhibited.
A guidance system for endoscope navigation, comprising: a registration module configured to register a first set of images being preoperative and/or intraoperative images with a second set of images of an endoscope ; a selection module configured to receive selected areas of interest on the first set of images and transform the selected areas of interest to an endoscope coordinate frame; and a guidance module configured to overlay guidance tools onto the second set of images to permit a user of the endoscope to navigate the endoscope to the selected areas of interest, wherein the guidance module includes a path module configured to overlay a path of a motion of the endoscope onto the second set of images; and characterised in that the path overlaid by the path module creates a visual trail of the motion of the endoscope, the path being generated by tracking positions of anatomical features including at least one of anatomical features located at a center of a frame of the second set of images and anatomical features previously located at the center of the frame. a registration module configured to register a first set of images being preoperative and/or intraoperative images with a second set of images of an endoscope ; a selection module configured to receive selected areas of interest on the first set of images and transform the selected areas of interest to an endoscope coordinate frame; and a guidance module configured to overlay guidance tools onto the second set of images to permit a user of the endoscope to navigate the endoscope to the selected areas of interest, wherein the guidance module includes a path module configured to overlay a path of a motion of the endoscope onto the second set of images; and characterised in that the path overlaid by the path module creates a visual trail of the motion of the endoscope, the path being generated by tracking positions of anatomical features including at least one of anatomical features located at a center of a frame of the second set of images and anatomical features previously located at the center of the frame.
A seismic survey design, comprising: a) a plurality of spaced seismic energy source stations arranged in a linear fashion to form a plurality of source lines; and, b) a plurality of spaced seismic energy receiver stations arranged in a linear fashion to form a plurality of receiver lines; c) wherein said receiver and seismic sources are equally spaced in a given line; and d) a first ratio of source line spacing to source station spacing is 3:1, 5:1, 7:1, or 11:1 and a second ratio of receiver line spacing to receiver station spacing is 3:1, 5:1, 7:1, or 11:1; characterized in that : e) said receiver and seismic sources have different first and second ratios. a) a plurality of spaced seismic energy source stations arranged in a linear fashion to form a plurality of source lines; and, b) a plurality of spaced seismic energy receiver stations arranged in a linear fashion to form a plurality of receiver lines; c) wherein said receiver and seismic sources are equally spaced in a given line; and d) a first ratio of source line spacing to source station spacing is 3:1, 5:1, 7:1, or 11:1 and a second ratio of receiver line spacing to receiver station spacing is 3:1, 5:1, 7:1, or 11:1; characterized in that : e) said receiver and seismic sources have different first and second ratios.