mhurhangee/ep-ind-claims huggingface dataset:
A joint arrangement between at least a first and a second component (2, 3), preferably metal component in the form of a metal sheet, each of said components having a topside and an underside (2', 3', 2", 3"), comprising a joint bushing received in a first opening (2.1) of the first component and a joint pin passed through the joint bushing and having a pin head, wherein the pin section (4.3) opposite the pin head and protruding from the joint bushing is attachable to the second component, preferably by means of a riveted connection, wherein a thrust washer element is received between the pin head and the topside of the first component, wherein the joint bushing is configured as a collar bearing with a bushing section (5.1) received in the first opening (2.1) and an adjoining annular collar section (5.2), wherein the annular collar section (5.2) abuts on the underside (2") of the first component, characterized in that the thrust washer element and/or the joint bushing configured as a collar bearing is/are captively held on the joint pin.
Refrigeration appliance with a heat exchanger and a line section, wherein a heat exchanger element of the heat exchanger and the line section are spaced apart from one another by means of a spacer (100, 200, 400, 600), wherein the spacer (100, 200, 400, 600) can be clamped to the heat exchanger element and there is provision for a line retainer (109, 211, 413, 605) for retaining the line section, wherein the line retainer (109, 211, 413, 605) is embodied to enclose line sections of different sizes, in particular of different diameters, by the line retainer (109, 211, 413, 605) having a variable circumference, wherein the spacer has a clamp retainer (101, 201, 401, 601), wherein the clamp retainer (101, 201, 401, 601) has a vaulted region (103, 203, 403) or a recess and a pedestal (105, 106, 207, 208, 407, 409), wherein the line retainer (109, 211, 605) comprises a flexible band (111, 213) with a latch closure or with a clamp closure, characterised in that the spacer (100, 200, 400, 600) is clamped to the heat exchanger element and the pedestal (105, 106, 207, 208, 407, 409) of the clamp retainer (101, 201, 401, 601) is placed on a surface of a frozen goods container of the refrigeration appliance.
A process for monitoring and re-calibrating a moisture sensor during production runs of concrete, comprising: a. obtaining a manual sample of aggregate; b. at roughly the same time as obtaining the manual sample, taking multiple readings (102,200) of moisture content using a moisture sensor; c. recording the multiple moisture sensor readings; d. determining the moisture content of the manual sample using a gravimetric analysis; e. recording the moisture content of the manual sample; characterised by f. comparing the recorded manual sample moisture content to each of the recorded moisture content readings to obtain a moisture differential for each moisture sensor reading; g. comparing each moisture differential with a confidence interval to determine a subset (110,206) of moisture sensor readings from the total number of moisture sensor readings taken which are outside the confidence interval, h. comparing (112,210) the number of moisture sensor readings in the subset against an action limit, said action limit being defined as a certain statistically significant number of tests which should occur before any action is taken; i. whereupon, if the number of moisture sensor readings in the subset meets or exceeds the action limit, recalibrating the moisture sensor. a. obtaining a manual sample of aggregate; b. at roughly the same time as obtaining the manual sample, taking multiple readings (102,200) of moisture content using a moisture sensor; c. recording the multiple moisture sensor readings; d. determining the moisture content of the manual sample using a gravimetric analysis; e. recording the moisture content of the manual sample; characterised by f. comparing the recorded manual sample moisture content to each of the recorded moisture content readings to obtain a moisture differential for each moisture sensor reading; g. comparing each moisture differential with a confidence interval to determine a subset (110,206) of moisture sensor readings from the total number of moisture sensor readings taken which are outside the confidence interval, h. comparing (112,210) the number of moisture sensor readings in the subset against an action limit, said action limit being defined as a certain statistically significant number of tests which should occur before any action is taken; i. whereupon, if the number of moisture sensor readings in the subset meets or exceeds the action limit, recalibrating the moisture sensor.
A system for providing respiratory therapy to a patient comprising: a source of breathing gas; a patient interface comprising an inlet port configured to receive a flow of breathing gas from the source of breathing gas and an outlet port (140, 142) configured to deliver the flow of breathing gas to the patient; and a flow control device in communication with the flow of breathing gas, the flow control device configured to automatically change a rate of the flow of breathing gas, wherein the flow control device is configured to periodically vary the rate of the flow of breathing gas between a high flow rate and a low flow rate at a frequency slower than a frequency of breathing of the patient to change a functional residual capacity of the patient, wherein the high flow rate is higher than the low flow rate, and wherein the flow control device maintains the high flow rate and the low flow rate for predetermined periods of time prior to automatically changing the rate of the flow of breathing gas. a source of breathing gas; a patient interface comprising an inlet port configured to receive a flow of breathing gas from the source of breathing gas and an outlet port (140, 142) configured to deliver the flow of breathing gas to the patient; and a flow control device in communication with the flow of breathing gas, the flow control device configured to automatically change a rate of the flow of breathing gas, wherein the flow control device is configured to periodically vary the rate of the flow of breathing gas between a high flow rate and a low flow rate at a frequency slower than a frequency of breathing of the patient to change a functional residual capacity of the patient, wherein the high flow rate is higher than the low flow rate, and wherein the flow control device maintains the high flow rate and the low flow rate for predetermined periods of time prior to automatically changing the rate of the flow of breathing gas.
Dual-reflector antenna including a main reflector traversed by a power source including a waveguide portion (3, 31) and a sub-reflector (5, 30), the sub-reflector (5, 30) comprising a dielectric body extending between a first end of small diameter and a second end of larger diameter, the end of small diameter being connected to the end of the power source (2, 3, 31), characterized in that: - the end of the waveguide (3, 31) that is connected to the sub-reflector (5, 30) comprises a housing having an inside depth LI and an inside diameter DI; - the end of small diameter of the sub-reflector (5, 30) comprises an internal portion that is substantially cylindrical in shape, capable of being inserted into the housing, having an outside length LE and an outside diameter DE; - the outside length LE and the outside diameter DE of the internal portion of the end of small diameter of the sub-reflector (5, 30) are respectively smaller than the inside depth LI and than the inside diameter DI of the housing, so as to form a space between the internal portion of the end of small diameter of the sub-reflector (5, 30) and the wall of the housing in the waveguide (3, 31). - the end of the waveguide (3, 31) that is connected to the sub-reflector (5, 30) comprises a housing having an inside depth LI and an inside diameter DI; - the end of small diameter of the sub-reflector (5, 30) comprises an internal portion that is substantially cylindrical in shape, capable of being inserted into the housing, having an outside length LE and an outside diameter DE; - the outside length LE and the outside diameter DE of the internal portion of the end of small diameter of the sub-reflector (5, 30) are respectively smaller than the inside depth LI and than the inside diameter DI of the housing, so as to form a space between the internal portion of the end of small diameter of the sub-reflector (5, 30) and the wall of the housing in the waveguide (3, 31).
An agent comprising a rodenticide, the rodenticide containing a grayanotoxin or a mixture of grayanotoxins as an active substance, wherein the active substance is provided in or on plant tissue as an active substance carrier, in a container, wherein the container allows air and light to enter, wherein the container has one or more entrance openings for the access of rodents, characterized in that the plant tissue is provided in the form of seedlings and/or plant parts with the capacity to grow in the container, in that the container contains a plant substrate allowing growth, and in that the plant tissue is provided to naturally contain the active substance, i.e. a grayanotoxin or a mixture of grayanotoxins.
An arrangement for temperature control, in particular cooling, of heat-generating components with a cooling plate which is thermally connected to the heat-generating components, wherein the cooling plate has cooling ducts through which a cooling medium can flow, in particular wherein the heat transfer resistance from the heat-generating components via the cooling plate to the cooling medium flowing through the cooling ducts is less than on any other heat-conducting path from the heat-generating components to the cooling medium flowing through the cooling ducts, wherein the cooling plate has three or more layers (30, 31, 32) of cooling ducts, wherein the cooling ducts of each layer (30, 31, 32) are in each case oriented parallel to each other and form a flat arrangement, therefore the central axes of the preferably cylindrical cooling ducts are arranged in a plane associated with the respective layer (30, 31, 32), the cooling medium is guided through the cooling ducts of the first layer in a first direction and thereupon is guided through the cooling ducts of each subsequent layer in the opposite direction to the direction of the previous layer, wherein the cooling ducts of the subsequent layer in each case are arranged with an offset to the cooling ducts of the previous and/or subsequent layer (31, 32), wherein the offset is oriented perpendicularly to the respective normal direction of the layer (30, 31, 32) which is arranged flat in each case and perpendicularly to the direction of extent, in particular central axis, of the cooling ducts, wherein the cooling ducts of one layer (30, 31, 32) open either into a connection region or into a deflection region, wherein the connection region and/or the deflection region is at least partially delimited by a cover part with corresponding cutouts, wherein the cover part is connected, in particular hermetically and/or by a material-formed bond, to the cooling plate, wherein the centre points of the cooling ducts form a triangular grid, wherein the centre points between the first and second or between the second and third layer (31, 32) form a regular triangular grid, wherein the connection region has an inlet or outlet for the cooling medium.
Method for the additive manufacturing of a three-dimensional component, in which regions of the respective component are designed with a device for performing a fused filament process, and other regions of the component are formed with a device for three-dimensional printing and characterised in that with the device for three-dimensional printing flaws, gussets or deviations from a predetermined geometry or dimensioning of the respective component, which have been detected by a sensor and which have been designed during design with the device, which has been designed to perform a fused filament process, are filled or levelled.
A lamp assembly for a vehicle, comprising: a housing that defines a space; an outer lens that covers the space defined by the housing; a bezel disposed on the space defined by the housing; a plurality of OLED modules mounted on the bezel separated from each other; a drive module configured to control the plurality of OLED modules; wherein each OLED module of the plurality of OLED modules comprises: - an OLED to which a module flexible circuit board is connected; and - an holder mounted on the bezel and to which the OLED is coupled, the lamp assembly being characterized in that it further comprises a connecting flexible circuit board disposed on the housing and/or the bezel, to which each of the plurality of OLED modules is connected and which is connected to the drive module, wherein the drive module is disposed within the housing, wherein in each OLED module the module flexible circuit board is connected via a connector to the connecting flexible circuit board, wherein each OLED module of the plurality of OLED modules further comprises a clip bezel coupled to the holder, and wherein the clip bezel covers a portion of the module flexible circuit board. a housing that defines a space; an outer lens that covers the space defined by the housing; a bezel disposed on the space defined by the housing; a plurality of OLED modules mounted on the bezel separated from each other; a drive module configured to control the plurality of OLED modules; wherein each OLED module of the plurality of OLED modules comprises: - an OLED to which a module flexible circuit board is connected; and - an holder mounted on the bezel and to which the OLED is coupled, the lamp assembly being characterized in that it further comprises - an OLED to which a module flexible circuit board is connected; and - an holder mounted on the bezel and to which the OLED is coupled, a connecting flexible circuit board disposed on the housing and/or the bezel, to which each of the plurality of OLED modules is connected and which is connected to the drive module, wherein the drive module is disposed within the housing, wherein in each OLED module the module flexible circuit board is connected via a connector to the connecting flexible circuit board, wherein each OLED module of the plurality of OLED modules further comprises a clip bezel coupled to the holder, and wherein the clip bezel covers a portion of the module flexible circuit board.
A method for minimal interruption power source switching comprising the steps of: disconnecting a first power source from a DC bus, thereby removing power from said DC bus; connecting a second power source to said DC bus, thereby providing power to said DC bus; and characterised by activating a solid state remote power controller (SSRPC) to connect a switching power source to the DC bus during the step of disconnecting the first power source and deactivating the SSRPC during the step of connecting the second power source, thereby providing power to said DC bus during a time period between performance of the steps of disconnecting the first power source from said DC bus and connecting the second power source to said DC bus. disconnecting a first power source from a DC bus, thereby removing power from said DC bus; connecting a second power source to said DC bus, thereby providing power to said DC bus; and characterised by activating a solid state remote power controller (SSRPC) to connect a switching power source to the DC bus during the step of disconnecting the first power source and deactivating the SSRPC during the step of connecting the second power source, thereby providing power to said DC bus during a time period between performance of the steps of disconnecting the first power source from said DC bus and connecting the second power source to said DC bus.
A method for implementing load redistribution, the method comprising: a network management system sending a dummy paging fast load redistribution command to a mobile switching center, MSC, node in a MSC pool; wherein the dummy paging fast load redistribution command comprises a set dummy paging rate; when the MSC node receives the set dummy paging rate, the MSC node sequentially performing paging processing on user equipments, UEs, in a visitor location register of the MSC node according to the set dummy paging rate set through the network management system (S201, S202) and distributing a Temporary Mobile Subscriber Identity,TMSI, including null network resource identifier, Null-NRI, and a non-broadcast location area identity to UE that returns a paging response through a TMSI redistribution message; wherein the set dummy paging rate is calculated according to a following formula: V page = C * N sms + N mt / 3600 wherein, the V page is "dummy paging" rate; and C is user capacity of MSC node; N sms is the number of times that a user equipment short message is called when a network is busy; and N mt is the number of times that a user equipment call is called when the network is busy; wherein the "dummy paging" refers to a paging by which the MSC node actively awakes a user equipment and performs the load redistribution. wherein, the V page is "dummy paging" rate; and C is user capacity of MSC node; N sms is the number of times that a user equipment short message is called when a network is busy; and N mt is the number of times that a user equipment call is called when the network is busy; wherein the "dummy paging" refers to a paging by which the MSC node actively awakes a user equipment and performs the load redistribution.
A compound selected from the group consisting of the formula where: R 1 is a benzyl group, R 2 and R 3 are independently a methyl or benzyl group, and R 4 is a hydrogen, and wherein the benzyl groups are substituted with two hydroxyl groups, and pharmaceutically acceptable salts thereof. R 1 is a benzyl group, R 2 and R 3 are independently a methyl or benzyl group, and R 4 is a hydrogen, and wherein the benzyl groups are substituted with two hydroxyl groups, and pharmaceutically acceptable salts thereof.
A lighting circuit for an automotive lamp structured to control a scanning light source wherein the scanning light source comprises a reflector, a motor configured to move the reflector and a semiconductor light source configured to output light to the reflector, wherein the scanning light source is configured to scan output light of the semiconductor light source that is reflected by the reflector in front of a lamp according to a movement of the motor, the lighting circuit comprising: a constant current driver structured to supply a driving current (I LED) that corresponds to a light source control signal to the semiconductor light source; a light source control signal generator structured to generate the light source control signal so as to obtain a light distribution pattern that corresponds to light distribution instruction data (S3a); the lighting circuit being characterized by a delay time measurement device structured to measure a delay time required for a transition of lighting-on and lighting-off states of the semiconductor light source from a change of the light source control signal, wherein the lighting circuit is adaptive to cancel variation and fluctuation of the delay time. wherein the scanning light source comprises a reflector, a motor configured to move the reflector and a semiconductor light source configured to output light to the reflector, wherein the scanning light source is configured to scan output light of the semiconductor light source that is reflected by the reflector in front of a lamp according to a movement of the motor, the lighting circuit comprising: a constant current driver structured to supply a driving current (I LED) that corresponds to a light source control signal to the semiconductor light source; a light source control signal generator structured to generate the light source control signal so as to obtain a light distribution pattern that corresponds to light distribution instruction data (S3a); the lighting circuit being characterized by a delay time measurement device structured to measure a delay time required for a transition of lighting-on and lighting-off states of the semiconductor light source from a change of the light source control signal, wherein the lighting circuit is adaptive to cancel variation and fluctuation of the delay time. a constant current driver structured to supply a driving current (I LED) that corresponds to a light source control signal to the semiconductor light source; a light source control signal generator structured to generate the light source control signal so as to obtain a light distribution pattern that corresponds to light distribution instruction data (S3a); the lighting circuit being characterized by a delay time measurement device structured to measure a delay time required for a transition of lighting-on and lighting-off states of the semiconductor light source from a change of the light source control signal, wherein the lighting circuit is adaptive to cancel variation and fluctuation of the delay time.
A combination of a first component, a second component, and a seal assembly for sealing between the first component and the second component, the seal assembly comprising: an inner surface coupled to the first component and defining a seal assembly axis; an outer surface coupled to the second component; a seal body extending between the inner surface and the outer surface, the seal body including a body inner section extending outwardly from the inner surface, a body outer section extending inwardly from the outer surface, and a body center section extending between the body inner section and the body outer section, the seal body defining a generally S-shaped cross-section; the seal body defining a height H equal to a radial distance between the inner surface and the outer surface; the body inner section including a reference point A; the seal body having an initial configuration and an installed configuration, wherein the body inner section is offset axially with respect to the body outer section so that the reference point A is displaced by an offset distance O between the initial configuration and the installed configuration; and the seal body having an offset-to-height ratio O/H, wherein the offset-to-height ratio is 0.05 to 0.4. an inner surface coupled to the first component and defining a seal assembly axis; an outer surface coupled to the second component; a seal body extending between the inner surface and the outer surface, the seal body including a body inner section extending outwardly from the inner surface, a body outer section extending inwardly from the outer surface, and a body center section extending between the body inner section and the body outer section, the seal body defining a generally S-shaped cross-section; the seal body defining a height H equal to a radial distance between the inner surface and the outer surface; the body inner section including a reference point A; the seal body having an initial configuration and an installed configuration, wherein the body inner section is offset axially with respect to the body outer section so that the reference point A is displaced by an offset distance O between the initial configuration and the installed configuration; and the seal body having an offset-to-height ratio O/H, wherein the offset-to-height ratio is 0.05 to 0.4.