mhurhangee/ep-ind-claims huggingface dataset:
Apparatus designed for determining and/or monitoring the volume flow and/or mass flow of a medium, which flows through a vessel in a flow direction, with at least one ultrasonic sensor (5, 6) that emits and/or receives ultrasonic measuring signals, and with a control/evaluation unit that determines the volume flow and/or the mass flow of the medium in the vessel using the ultrasonic measuring signals, wherein the control/evaluation unit is designed in such a way that it emits, receives and evaluates ultrasonic measuring signals in a first frequency range and in a second frequency range, wherein the first frequency range is activated or activatable if the medium is a gaseous medium and wherein the second frequency range is activated or activatable if the medium is a liquid medium, characterized in that a first bandpass filter with a first frequency range and a second bandpass filter with a second frequency range is assigned to the control/evaluation unit, wherein the first bandpass filter has lower limit frequencies than the second bandpass filter, wherein at least a first switching element (14; 15) is assigned to the first bandpass filter via said switching element the bandpass filter can be activated or deactivated, and wherein at least a second switching element (16; 17) is assigned to the second bandpass filter via said switching element the second bandpass filter can be activated or deactivated.
A lighting apparatus comprising: a plurality of reflection units each of which includes a first reflection surface and a plurality of second reflection surfaces, wherein the second reflection surfaces are arranged around the first reflection surface and have a shape different from that of the first reflection surface; and a plurality of light sources each of which includes a light emitting element made of a semiconductor material, the plurality of light sources being arranged within the first reflection surface and the second reflection surfaces, wherein each of the plurality of reflection units has a reflection axis defined by the plurality of reflection surfaces, characterized in that the plurality of second reflection surfaces reflect light radiated from the respective light source toward the reflection axis. a plurality of reflection units each of which includes a first reflection surface and a plurality of second reflection surfaces, wherein the second reflection surfaces are arranged around the first reflection surface and have a shape different from that of the first reflection surface; and a plurality of light sources each of which includes a light emitting element made of a semiconductor material, the plurality of light sources being arranged within the first reflection surface and the second reflection surfaces, wherein each of the plurality of reflection units has a reflection axis defined by the plurality of reflection surfaces, characterized in that the plurality of second reflection surfaces reflect light radiated from the respective light source toward the reflection axis.
A cryogenic storage system, comprising: at least one freezer port configured to receive a first sample box extracted from a respective freezer; a working chamber configured to maintain a cryogenic environment, wherein the working chamber is configured to enable the selection and transfer of individual sample tubes between sample boxes within the working chamber; an input/output (I/O) port configured to enable external access to samples; a box transport robot configured to transport the first sample box between the at least one freezer port, the working chamber, and the I/O port; a picker robot configured to transport, within the working chamber, a sample tube between the first sample box and a second sample box; a transport chamber, the transport chamber being coupled to the at least one freezer port during access by the box transport robot, the transport chamber housing the box transport robot; and an intermediate chamber coupled between the transport chamber and the working chamber, the intermediate chamber housing at least a portion of the picker robot, the box transport robot being configured to transport the first sample box through the intermediate chamber to the working chamber. at least one freezer port configured to receive a first sample box extracted from a respective freezer; a working chamber configured to maintain a cryogenic environment, wherein the working chamber is configured to enable the selection and transfer of individual sample tubes between sample boxes within the working chamber; an input/output (I/O) port configured to enable external access to samples; a box transport robot configured to transport the first sample box between the at least one freezer port, the working chamber, and the I/O port; a picker robot configured to transport, within the working chamber, a sample tube between the first sample box and a second sample box; a transport chamber, the transport chamber being coupled to the at least one freezer port during access by the box transport robot, the transport chamber housing the box transport robot; and an intermediate chamber coupled between the transport chamber and the working chamber, the intermediate chamber housing at least a portion of the picker robot, the box transport robot being configured to transport the first sample box through the intermediate chamber to the working chamber.
Electric energy storage cell (1, 1'), comprising an active part, which is equipped and adapted to store externally supplied electric energy and to deliver stored electric energy to the outside; at least two current arresters (10, 12), which are connected to the active part and which are equipped and adapted to supply electric current from outside to the active part and to deliver electric current provided by the active part to the outside; and a covering, which defines a prismatic basic shape with a substantially rectangular contour and encases the active part in a gas- and liquid-tight manner, wherein the dimension of the prismatic basic shape of the cell in the thickness direction is substantially smaller than its dimension in the two remaining directions in space, wherein the dimension in one of the two remaining directions in space is larger than in the other of the two remaining directions in space, and wherein the covering comprises two flat sheet parts and a continuous seam part connecting the edges of the sheet parts, wherein the seam part surrounds the active part in the manner of a frame and has sections of maximum thickness in which the thickness is uniformly greater than the thickness of the active part even under mechanical pressure, and wherein the two sheet parts lie flat on opposite flat sides of the seam part at least in the sections of maximum thickness and are tightly joined thereto, characterised in that the seam part has through-holes extending in the thickness direction in sections of maximum thickness, and in that the sheet parts have holes in alignment with the through-holes.
A test chamber for conditioning air, comprising a test space which serves to receive test material and which can be closed off from the surroundings and which is temperature-insulated, and a temperature control device for controlling the temperature of the test space, the temperature control device allowing a temperature in a temperature range to be established within the test space, the temperature control device having a cooling device (10, 30, 34) comprising a cooling circuit (11, 31, 35) with a refrigerant, a heat exchanger, a compressor, a condenser, and an expansion element, the cooling circuit having an internal storage device, the internal storage device being connected to a high-pressure side of the cooling circuit upstream of the expansion element and downstream of the condenser in a flow direction and to a low-pressure side of the cooling circuit upstream of the compressor and downstream of the heat exchanger via a bypass of the cooling circuit, thermal energy being stored and exchanged with the refrigerant by means of the internal storage device, the internal storage device being composed of an internal heat exchanger and a controllable second expansion element, the second expansion element being disposed between the high-pressure side and the internal heat exchanger in the bypass characterized in that the temperature is established in a temperature range from -20 °C to +180° C, a second bypass having at least a controllable third expansion element being formed in the cooling circuit, the second bypass being connected to the high-pressure side upstream of the expansion element and downstream of the condenser in the flow direction and to the low-pressure side upstream of the compressor and downstream of the heat exchanger in the flow direction, refrigerant being supplied to the low-pressure side from the third expansion element, the second bypass and the third expansion element forming a controllable internal additional cooling system.
A metal strip for forming an oil-well cleaning pipe, wherein: a thickness of each of a head end portion and a tail end portion, which are longitudinal end portions, is greater than a thickness of an intermediate portion excluding the longitudinal end portions; the metal strip includes the longitudinal end portions (1a, 1b), a longitudinal middle portion located between the longitudinal end portions, and two inclined portions connecting the longitudinal end portions (1a, 1b) to the longitudinal middle portion, thicknesses of the two inclined portions continuously and monotonically decrease from the longitudinal end portions (1a, 1b) toward the longitudinal middle portion, wherein the metal strip has a thickness along the longitudinal direction such that a ratio ((A-B)/A) is 7% or more and 50% or less, where A is a maximum thickness of the longitudinal end portions (1a, 1b) and B is a minimum thickness of the longitudinal middle portion, and wherein the metal strip is a metal strip having a thickness in the range of 1.0 to 8.0 mm and a total length in the range of 80 to 1000 m, and wherein a rate of change in the thickness of each of the inclined portions along the longitudinal direction is 0.001 [mm/m] or more and 0.1 [mm/m] or less. a thickness of each of a head end portion and a tail end portion, which are longitudinal end portions, is greater than a thickness of an intermediate portion excluding the longitudinal end portions; the metal strip includes the longitudinal end portions (1a, 1b), a longitudinal middle portion located between the longitudinal end portions, and two inclined portions connecting the longitudinal end portions (1a, 1b) to the longitudinal middle portion, thicknesses of the two inclined portions continuously and monotonically decrease from the longitudinal end portions (1a, 1b) toward the longitudinal middle portion, wherein the metal strip has a thickness along the longitudinal direction such that a ratio ((A-B)/A) is 7% or more and 50% or less, where A is a maximum thickness of the longitudinal end portions (1a, 1b) and B is a minimum thickness of the longitudinal middle portion, and wherein the metal strip is a metal strip having a thickness in the range of 1.0 to 8.0 mm and a total length in the range of 80 to 1000 m, and wherein a rate of change in the thickness of each of the inclined portions along the longitudinal direction is 0.001 [mm/m] or more and 0.1 [mm/m] or less.
Liquid tank, comprising: a first liquid tank shell comprising a first connection element, which extends from an inner wall of the first liquid tank shell into the interior of the liquid tank, and a second liquid tank shell comprising a second connection element, which extends from an inner wall of the second liquid tank shell into the interior of the liquid tank, wherein the first connection element and the second connection element are connected to each other in the interior the liquid tank, characterized in that the first liquid tank shell comprises stabilizing ribs for stabilizing the first connection element onto the inner wall and/or the second liquid tank shell comprises stabilizing ribs for stabilizing the second connection element onto the inner wall. a first liquid tank shell comprising a first connection element, which extends from an inner wall of the first liquid tank shell into the interior of the liquid tank, and a second liquid tank shell comprising a second connection element, which extends from an inner wall of the second liquid tank shell into the interior of the liquid tank, wherein the first connection element and the second connection element are connected to each other in the interior the liquid tank, characterized in that the first liquid tank shell comprises stabilizing ribs for stabilizing the first connection element onto the inner wall and/or the second liquid tank shell comprises stabilizing ribs for stabilizing the second connection element onto the inner wall.
A method of managing error reporting in a network comprising: a. receiving incoming traps at a network management system on a server; the server having a processor and a buffer for storing traps; b. comparing incoming traps with traps already stored in the buffer c. if an incoming trap is judged to be not similar to traps already stored in the buffer: i. storing the incoming trap as a new entry in the buffer; and ii. forwarding the incoming trap for processing as an event before the end of a time period counted by a timer; d. if the incoming trap is judged to be similar to a trap already stored in the buffer: i. updating the buffer entry relating to the trap already stored in the buffer; and ii. forwarding the updated buffer entries for further processing at the end of the time period counted by the timer; and e. clearing the buffer after the time period counted by the timer has elapsed. a. receiving incoming traps at a network management system on a server; the server having a processor and a buffer for storing traps; b. comparing incoming traps with traps already stored in the buffer c. if an incoming trap is judged to be not similar to traps already stored in the buffer: i. storing the incoming trap as a new entry in the buffer; and ii. forwarding the incoming trap for processing as an event before the end of a time period counted by a timer; i. storing the incoming trap as a new entry in the buffer; and ii. forwarding the incoming trap for processing as an event before the end of a time period counted by a timer; d. if the incoming trap is judged to be similar to a trap already stored in the buffer: i. updating the buffer entry relating to the trap already stored in the buffer; and ii. forwarding the updated buffer entries for further processing at the end of the time period counted by the timer; and i. updating the buffer entry relating to the trap already stored in the buffer; and ii. forwarding the updated buffer entries for further processing at the end of the time period counted by the timer; and e. clearing the buffer after the time period counted by the timer has elapsed.
A method for aligning data transfer from a host server to a mobile device (150, 250, 350, 450, 550) to optimize connections made by the mobile device in a cellular network (106, 108), the method being performed by a proxy server coupled to the host server and able to wirelessly connect to the mobile device, comprising: batching data received in multiple transactions directed to a mobile device for transmission to the mobile device over the cellular network such that a wireless connection need not be established with the mobile device every time each of the multiple transactions occurs; determining whether to send or to suppress sending the data to the mobile device based on a time criticality of the data; wherein the method includes, if the data includes new or changed data that is determined/identified/inferred as being time critical by nature of the content of the data, sending the data to the mobile device; wherein the method includes, if the data includes new or changed data that is determined/identified/inferred as not being time critical by nature of the content of the data, suppressing sending the data to the mobile device by waiting to send the data to the mobile device until after a period of time has expired or until there is additional data to be sent. batching data received in multiple transactions directed to a mobile device for transmission to the mobile device over the cellular network such that a wireless connection need not be established with the mobile device every time each of the multiple transactions occurs; determining whether to send or to suppress sending the data to the mobile device based on a time criticality of the data; wherein the method includes, if the data includes new or changed data that is determined/identified/inferred as being time critical by nature of the content of the data, sending the data to the mobile device; wherein the method includes, if the data includes new or changed data that is determined/identified/inferred as not being time critical by nature of the content of the data, suppressing sending the data to the mobile device by waiting to send the data to the mobile device until after a period of time has expired or until there is additional data to be sent.
A method, comprising: detecting an application creating a network connection; determining, in response to detecting the application creating the network connection, whether the application satisfies one or more criteria including whether the application has a common file dialog library and whether the application has a graphical user interface; upon determining that the application satisfies the one or more criteria, monitoring file system activity in the application; upon detecting a request from the application to perform the file system activity on a file, intercepting the file system activity; evaluating the file system activity according to a data loss prevention, DLP, policy, wherein the evaluation comprises: determining whether the file includes sensitive data; and determining whether the network connection is to an unauthorized external location; and based on the evaluation that the file includes sensitive data and the network connection is to the unauthorized external location, preventing the application from sending the sensitive data in the file over the network connection. detecting an application creating a network connection; determining, in response to detecting the application creating the network connection, whether the application satisfies one or more criteria including whether the application has a common file dialog library and whether the application has a graphical user interface; upon determining that the application satisfies the one or more criteria, monitoring file system activity in the application; upon detecting a request from the application to perform the file system activity on a file, intercepting the file system activity; evaluating the file system activity according to a data loss prevention, DLP, policy, wherein the evaluation comprises: determining whether the file includes sensitive data; and determining whether the network connection is to an unauthorized external location; and determining whether the file includes sensitive data; and determining whether the network connection is to an unauthorized external location; and
A method of forming, by means of plastic deformation, a front toothing on an inner ring of a wheel hub, comprising the steps of: (i) forming the inner ring of the wheel hub as the joining of a spindle and an insert ring fitted onto the spindle, on the side of a first end of the spindle and so that the first end of the spindle axially projects so as to protrude with respect to the ring; (ii) axially blocking the ring onto the spindle by plastically deforming the first end of the spindle so as to form an upset collar therewith, which axially protrudes with respect to the ring, and (iii) frontally impressing the front toothing onto the collar, on the side opposite to the ring, said step of impressing the front toothing being carried out only after completing the step of forming the upset collar, onto the finished collar; characterised in that the step (ii) of forming the upset collar is carried out so that the finished collar has, in the part of the collar which axially protrudes from the ring, a predetermined geometric shape which substantially defines, in radial section, a scalene triangle having the base facing the ring and a vertex opposite the base which is rounded. (i) forming the inner ring of the wheel hub as the joining of a spindle and an insert ring fitted onto the spindle, on the side of a first end of the spindle and so that the first end of the spindle axially projects so as to protrude with respect to the ring; (ii) axially blocking the ring onto the spindle by plastically deforming the first end of the spindle so as to form an upset collar therewith, which axially protrudes with respect to the ring, and (iii) frontally impressing the front toothing onto the collar, on the side opposite to the ring, said step of impressing the front toothing being carried out only after completing the step of forming the upset collar, onto the finished collar;
An injector assembly for use in a chromatography system, the injector assembly comprising: an injector housing comprising a fluid flow path; and an injector insert (140, 200, 300) mated to an outlet of the injector housing, the injector insert (140, 200, 300) comprising an inlet (210, 310, 410, 510) and an outlet (220, 320, 420, 520) and a channel that runs from the top surface of the inlet (210,310) to a bottom surface of the outlet (220,320), in which the fluid flow path of the injector housing is fluidically coupled to the top surface of the inlet (210, 310) of the injector insert (140, 200, 300) so that the top surface will be exposed to fluid sample in the fluid flow path of the injector housing, in which the top surface of the inlet of the injector insert (140, 200, 300) comprises an inert metal material, and in which the outlet (220, 320) of the injector insert (140, 200, 300) is configured to receive a column (150, 630) to provide fluidic coupling between the fluid flow path of the injector housing and a fluid flow path of the column (150, 630) to provide analyte through the channel and to the column (150, 630). an injector housing comprising a fluid flow path; and an injector insert (140, 200, 300) mated to an outlet of the injector housing, the injector insert (140, 200, 300) comprising an inlet (210, 310, 410, 510) and an outlet (220, 320, 420, 520) and a channel that runs from the top surface of the inlet (210,310) to a bottom surface of the outlet (220,320), in which the fluid flow path of the injector housing is fluidically coupled to the top surface of the inlet (210, 310) of the injector insert (140, 200, 300) so that the top surface will be exposed to fluid sample in the fluid flow path of the injector housing, in which the top surface of the inlet of the injector insert (140, 200, 300) comprises an inert metal material, and in which the outlet (220, 320) of the injector insert (140, 200, 300) is configured to receive a column (150, 630) to provide fluidic coupling between the fluid flow path of the injector housing and a fluid flow path of the column (150, 630) to provide analyte through the channel and to the column (150, 630).