mhurhangee/patent-ind-claim-en huggingface dataset:
Metallic pipe connection , comprising a tubular body that has two opposite open ends and comprises: - a terminal tubular engagement portion configured to be engaged, in operative condition, on a pipe (T) and to be fixed thereto by means of plastic deformation of said tubular engagement portion ; - a terminal flange arranged on the opposite side of said tubular body with respect to that one provided with said tubular engagement portion , wherein said tubular engagement portion comprises an annular seat for a sealing gasket , said annular seat projecting externally from said tubular engagement portion and being provided with a first housing groove for said sealing gasket , said first housing groove being internally open towards said tubular engagement portion , and wherein at least part of said tubular engagement portion and said annular seat are configured to be plastically deformed such to generate a mechanical seal on said pipe (T) on which said tubular engagement portion is fitted and a contemporaneous fluid tightness between said connection and said pipe (T) by means of said sealing gasket , wherein said first housing groove for said sealing gasket comprises inclined annular inner walls , characterised in that the angle between said annular inner walls ranges from 5° to 15°. - a terminal tubular engagement portion configured to be engaged, in operative condition, on a pipe (T) and to be fixed thereto by means of plastic deformation of said tubular engagement portion ; - a terminal flange arranged on the opposite side of said tubular body with respect to that one provided with said tubular engagement portion ,
A sample support body for ionization of a sample (S), the sample support body comprising: a substrate including a first surface and a second surface on sides opposite to each other; and a conductive layer provided at least on the first surface , wherein a plurality of through-holes opening on the first surface and the second surface are formed in an effective region (R) of the substrate , the effective region (R) being for ionizing components of the sample (S), a width of a second opening on the second surface side is larger than a width of a first opening on the first surface side in each of the plurality of through-holes such that components of the sample (S) move toward the first surface through the plurality of through-holes due to capillary phenomenon, and the components of the sample (S) stay at the first surface side due to surface tension, a minimum value of the width is 1 nm and a maximum value of the width is 700 nm in each of the plurality of through-holes , and a thickness of the substrate is 1 μm to 50 μm. a substrate including a first surface and a second surface on sides opposite to each other; and a conductive layer provided at least on the first surface , wherein a plurality of through-holes opening on the first surface and the second surface are formed in an effective region (R) of the substrate , the effective region (R) being for ionizing components of the sample (S), a width of a second opening on the second surface side is larger than a width of a first opening on the first surface side in each of the plurality of through-holes such that components of the sample (S) move toward the first surface through the plurality of through-holes due to capillary phenomenon, and the components of the sample (S) stay at the first surface side due to surface tension, a minimum value of the width is 1 nm and a maximum value of the width is 700 nm in each of the plurality of through-holes , and a thickness of the substrate is 1 μm to 50 μm.
A tool holder for a tool belt comprising a flexible carrier sheet and at least one belt hanger , wherein said at least one belt hanger comprises a belt interface configured to be connected to a tool belt and a carrier sheet connection interface configured to be connected to the carrier sheet , wherein the flexible carrier sheet comprises a tool suspension interface configured to be connected to a tool or a tool receiver, and a hanger connection interface configured to be connected to the carrier sheet connection interface of the belt hanger , wherein the carrier sheet is configured to be connected to the belt hanger by bending the hanger connection interface , characterised in that : the hanger connection interface comprises an upper slot and a lower slot arranged, when carried suspended in a tool belt , one above the other along the vertical length of the carrier sheet , and the carrier sheet connection interface comprises a vertically lower portion and a vertically upper portion configured to extend along a first side face of the carrier sheet , and an intermediate portion interconnecting the vertically upper and lower portions , wherein the intermediate portion is offset relative to the upper and lower vertically portions to extend, when connected, along a second side face of the carrier sheet , the second side face being opposite to the first side face , and wherein the intermediate portion is configured to be brought to a position between the upper and lower slots by bending the hanger connection interface . a flexible carrier sheet and at least one belt hanger , wherein said at least one belt hanger comprises a belt interface configured to be connected to a tool belt and a carrier sheet connection interface configured to be connected to the carrier sheet , wherein the flexible carrier sheet comprises a tool suspension interface configured to be connected to a tool or a tool receiver, and a hanger connection interface configured to be connected to the carrier sheet connection interface of the belt hanger , wherein the carrier sheet is configured to be connected to the belt hanger by bending the hanger connection interface , characterised in that : the hanger connection interface comprises an upper slot and a lower slot arranged, when carried suspended in a tool belt , one above the other along the vertical length of the carrier sheet , and the carrier sheet connection interface comprises a vertically lower portion and a vertically upper portion configured to extend along a first side face of the carrier sheet , and an intermediate portion interconnecting the vertically upper and lower portions , wherein the intermediate portion is offset relative to the upper and lower vertically portions to extend, when connected, along a second side face of the carrier sheet , the second side face being opposite to the first side face , and wherein the intermediate portion is configured to be brought to a position between the upper and lower slots by bending the hanger connection interface .
A connector system configured to fluidly connect a nasogastric tube assembly including a lumen and a tube to a medical device , the system comprising: a connector including: a fitting configured to provide a fluid-tight connection with the medical device ; a neck coupled to the fitting , the neck configured to attach to the nasogastric tube assembly ; and a body coupled to the neck, the body configured to provide a fluid-tight connection with the nasogastric tube assembly when at least partially inserted within the lumen ; and a first tether including a first fastening region defining a first opening configured to receive the neck , a second fastening region configured to couple to the nasogastric tube assembly , and a link coupling the first fastening region to the second fastening region , the link configured to maintain a fixed distance separating the first fastening region from the second fastening region ; characterized in that the second fastening region defines a second opening , and wherein the first tether includes a resilient arm moveable between a latched position that secures the tube included in the nasogastric tube assembly within the second opening and an unlatched position that permits the tube included in the nasogastric assembly to be removed from the second opening ; wherein, when in the latched position, a distal end of the resilient arm is secured in place by engagement with a surface provided by the first fastening region . a connector including: a fitting configured to provide a fluid-tight connection with the medical device ; a neck coupled to the fitting , the neck configured to attach to the nasogastric tube assembly ; and a body coupled to the neck, the body configured to provide a fluid-tight connection with the nasogastric tube assembly when at least partially inserted within the lumen ; and a fitting configured to provide a fluid-tight connection with the medical device ; a neck coupled to the fitting , the neck configured to attach to the nasogastric tube assembly ; and a body coupled to the neck, the body configured to provide a fluid-tight connection with the nasogastric tube assembly when at least partially inserted within the lumen ; and a first tether including a first fastening region defining a first opening configured to receive the neck , a second fastening region configured to couple to the nasogastric tube assembly , and a link coupling the first fastening region to the second fastening region , the link configured to maintain a fixed distance separating the first fastening region from the second fastening region ; characterized in that the second fastening region defines a second opening , and wherein the first tether includes a resilient arm moveable between a latched position that secures the tube included in the nasogastric tube assembly within the second opening and an unlatched position that permits the tube included in the nasogastric assembly to be removed from the second opening ; wherein, when in the latched position, a distal end of the resilient arm is secured in place by engagement with a surface provided by the first fastening region .
A microscope for microscopic examination of a sample comprising an illumination optics for illuminating the sample , an imaging optics for imaging the sample , a sample chamber for receiving the sample , the sample chamber having a door providing access into the sample chamber, a first fan assembly arranged on a first side of the sample chamber for blowing atmosphere into the sample chamber, in a first alternative, or for draining atmosphere out of the sample chamber, in a second alternative, through at least one first opening arranged on the first side in a first side wall of the sample chamber, and at least one second opening arranged on a second side in a second side wall of the sample chamber for allowing atmosphere from inside the sample chamber to exit the sample chamber, in the first alternative, or for allowing atmosphere from outside the sample chamber to enter the sample chamber, in the second alternative, characterised in that the first side is a topside, and the second side is a bottom side of the sample chamber , the first side wall being a topside wall and the second side wall being a bottom side wall of the sample chamber . an illumination optics for illuminating the sample , an imaging optics for imaging the sample , a sample chamber for receiving the sample , the sample chamber having a door providing access into the sample chamber, a first fan assembly arranged on a first side of the sample chamber for blowing atmosphere into the sample chamber, in a first alternative, or for draining atmosphere out of the sample chamber, in a second alternative, through at least one first opening arranged on the first side in a first side wall of the sample chamber, and at least one second opening arranged on a second side in a second side wall of the sample chamber for allowing atmosphere from inside the sample chamber to exit the sample chamber, in the first alternative, or for allowing atmosphere from outside the sample chamber to enter the sample chamber, in the second alternative, characterised in that the first side is a topside, and the second side is a bottom side of the sample chamber , the first side wall being a topside wall and the second side wall being a bottom side wall of the sample chamber .
Use of a double-sided tape for fixing an electrode constituent body used for an electrochemical device in which an electrode constituent body obtained by laminating or winding a positive electrode member, a separator member, and a negative electrode member is housed in a pouch-type outer casing, the double-sided tape comprising: a surface containing a pressure-sensitive adhesive; and a surface containing a heat-sensitive adhesive, wherein the double-sided tape is used for adhesion to the pouch-type outer casing. a surface containing a pressure-sensitive adhesive; and a surface containing a heat-sensitive adhesive,
Process for making an electrode active material according to general formula Li 1+x TM 1-x O 2 , wherein TM is a combination of Mn, Co and Ni in combination with at least one more metal M selected from Al, Ti, and W, wherein at least 60 mole-% of TM is Ni, the percentage referring to the sum of Ni, Co and Mn, and x is in the range of from zero to 0.2, said process comprising the following steps: (a) mixing (A) a mixed oxide or mixed oxyhydroxide of Mn, Co and Ni, and (B) at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate, and (C) an oxide, hydroxide or oxyhydroxide of Al, Ti or W, (b) subjecting said mixture to heat treatment at a temperature in the range of from 700 to 1000°C. (a) mixing (A) a mixed oxide or mixed oxyhydroxide of Mn, Co and Ni, and (B) at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate, and (C) an oxide, hydroxide or oxyhydroxide of Al, Ti or W, (A) a mixed oxide or mixed oxyhydroxide of Mn, Co and Ni, and (B) at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate, and (C) an oxide, hydroxide or oxyhydroxide of Al, Ti or W, (b) subjecting said mixture to heat treatment at a temperature in the range of from 700 to 1000°C.
A video coding intra-frame prediction method, the method comprising: - performing a bidirectional intra-frame prediction comprising an intra-frame left and upper direction prediction and an intra-frame right and lower direction prediction on two horizontally adjacent coding blocks simultaneously, wherein the first coding block from left to right in the two coding blocks is a first coding block, and the second coding block from left to right in the two coding blocks is a second coding block, - performing the intra-frame left and upper direction prediction on the first coding block based on the lowermost pixel row of an upper adjacent coding block of the first coding block and the rightmost pixel column of a left adjacent coding block of the first coding block, performing the intra-frame right and lower direction prediction based on the leftmost pixel column of the second coding block, and performing weighting of the intra-frame left and upper direction prediction and the right and lower direction prediction; and - performing the intra-frame left and upper direction prediction on the second coding block based on the lowermost pixel row of an upper adjacent coding block of the second coding block and the rightmost pixel column of the first coding block, and not performing the intra-frame right and lower prediction on the second coding block. - performing a bidirectional intra-frame prediction comprising an intra-frame left and upper direction prediction and an intra-frame right and lower direction prediction on two horizontally adjacent coding blocks simultaneously, wherein the first coding block from left to right in the two coding blocks is a first coding block, and the second coding block from left to right in the two coding blocks is a second coding block, - performing the intra-frame left and upper direction prediction on the first coding block based on the lowermost pixel row of an upper adjacent coding block of the first coding block and the rightmost pixel column of a left adjacent coding block of the first coding block, performing the intra-frame right and lower direction prediction based on the leftmost pixel column of the second coding block, and performing weighting of the intra-frame left and upper direction prediction and the right and lower direction prediction; and - performing the intra-frame left and upper direction prediction on the second coding block based on the lowermost pixel row of an upper adjacent coding block of the second coding block and the rightmost pixel column of the first coding block, and not performing the intra-frame right and lower prediction on the second coding block.
A device for detecting the state of an injector for injecting fuel, the injector comprising: an injector housing , a movable nozzle needle which is arranged in the injector housing and has a nozzle needle tip, and a nozzle needle seat for receiving the nozzle needle tip, wherein a contact pairing of nozzle needle and nozzle needle seat constitutes a mechanical switch which on contact of the nozzle needle tip with the nozzle needle seat assumes a closed state and on interruption of the contact assumes an open state, the injector is provided with an input line and an output line for actuating a movement of the nozzle needle, and the switch includes a first terminal and a second terminal , characterized in that the first terminal of the switch is connected to the input line , the second terminal of the switch is connected to the injector housing , and the device is designed to apply a diagnostic voltage and/or a diagnostic current (I diag ) to the input line leading into the injector housing , which is applied independently of an actuation current/actuation voltage for the injector, and to detect a voltage profile at the input line and/or detect a differential current between the input line and the output line . an injector housing , a movable nozzle needle which is arranged in the injector housing and has a nozzle needle tip, and a nozzle needle seat for receiving the nozzle needle tip, wherein a contact pairing of nozzle needle and nozzle needle seat constitutes a mechanical switch which on contact of the nozzle needle tip with the nozzle needle seat assumes a closed state and on interruption of the contact assumes an open state, the injector is provided with an input line and an output line for actuating a movement of the nozzle needle, and the switch includes a first terminal and a second terminal , characterized in that the first terminal of the switch is connected to the input line , the second terminal of the switch is connected to the injector housing , and the device is designed to apply a diagnostic voltage and/or a diagnostic current (I diag ) to the input line leading into the injector housing , which is applied independently of an actuation current/actuation voltage for the injector, and to detect a voltage profile at the input line and/or detect a differential current between the input line and the output line . to apply a diagnostic voltage and/or a diagnostic current (I diag ) to the input line leading into the injector housing , which is applied independently of an actuation current/actuation voltage for the injector, and to detect a voltage profile at the input line and/or detect a differential current between the input line and the output line .
A method for optical three-dimensional topography measurement of a surface of an object , the method comprising the steps: projecting patterned illumination through an objective onto the surface of the object ; performing a relative movement between the object and the objective , wherein a direction of the relative movement includes an oblique angle with an optical axis of the objective, and wherein the surface passes through a focal plane of the objective during the relative movement; and wherein the surface of the object defines a reference plane which is parallel to the focal plane of the objective ; recording a plurality of images of the surface through the objective during the relative movement; deriving height information for a respective position on the surface of the object from the variation of the intensity recorded from the respective position in the plurality of images; wherein the patterned illumination is generated by incoherent illumination of a pattern mask , wherein the pattern mask is a grating, wherein the grating is a blazed grating; and wherein for patterned illumination only a 0 th diffraction order and one diffracted order, arising from the pattern mask, are used, both diffraction orders having the same intensity. projecting patterned illumination through an objective onto the surface of the object ; performing a relative movement between the object and the objective , wherein a direction of the relative movement includes an oblique angle with an optical axis of the objective, and wherein the surface passes through a focal plane of the objective during the relative movement; and wherein the surface of the object defines a reference plane which is parallel to the focal plane of the objective ; recording a plurality of images of the surface through the objective during the relative movement; deriving height information for a respective position on the surface of the object from the variation of the intensity recorded from the respective position in the plurality of images; wherein the patterned illumination is generated by incoherent illumination of a pattern mask , wherein the pattern mask is a grating, wherein the grating is a blazed grating; and wherein for patterned illumination only a 0 th diffraction order and one diffracted order, arising from the pattern mask, are used, both diffraction orders having the same intensity.
A computing device adapted for test and measurement, comprising: a physical channel input for receiving a line-coded physical signal ; a memory for storing a syntax tree generated by compiling a custom bitstream definition written using a declarative language and defined within a protocol declaration or referenced within the protocol declaration ; and a processor operatively coupled to the memory and configured to: access the syntax tree, extract time and edge data from the line-coded physical signal using the syntax tree, by applying a threshold to the line-coded physical signal to create an abstracted set of edges, each edge in the abstracted set of edges including an indication of rising/falling and a timestamp, and generate bit values for a bitstream using the extracted time and edge data based on a state of the syntax tree by iterating the edge data through a node of the syntax tree based on the custom bitstream definition . a physical channel input for receiving a line-coded physical signal ; a memory for storing a syntax tree generated by compiling a custom bitstream definition written using a declarative language and defined within a protocol declaration or referenced within the protocol declaration ; and a processor operatively coupled to the memory and configured to: access the syntax tree, extract time and edge data from the line-coded physical signal using the syntax tree, by applying a threshold to the line-coded physical signal to create an abstracted set of edges, each edge in the abstracted set of edges including an indication of rising/falling and a timestamp, and generate bit values for a bitstream using the extracted time and edge data based on a state of the syntax tree by iterating the edge data through a node of the syntax tree based on the custom bitstream definition . access the syntax tree, extract time and edge data from the line-coded physical signal using the syntax tree, by applying a threshold to the line-coded physical signal to create an abstracted set of edges, each edge in the abstracted set of edges including an indication of rising/falling and a timestamp, and generate bit values for a bitstream using the extracted time and edge data based on a state of the syntax tree by iterating the edge data through a node of the syntax tree based on the custom bitstream definition .